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authorJeff Ames2008-06-01 03:01:33 +0000
committerJeff Ames2008-06-01 03:01:33 +0000
commitd22a54a19568f8d5e9b6dab1f76f9c5c58682aa5 (patch)
tree2311b4c6ad2617cc71b975460c48e723a7e027ee
parent* Committing some stuff I'm working to make it so I can commit an upcoming pa... (diff)
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Update svn properties.
Diffstat
-rw-r--r--OpenSim/Region/Environment/Modules/World/Archiver/ArchiveConstants.cs90
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/LSL/YP2CSConverter.cs165
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Atom.cs436
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/BagofAnswers.cs468
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/FindallAnswers.cs206
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor.cs376
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor1.cs222
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor2.cs308
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor3.cs266
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/IndexedAnswers.cs576
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/ListPair.cs312
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Parser.cs8914
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/PrologException.cs142
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/README.TXT810
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/UndefinedPredicateException.cs124
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Variable.cs392
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YP.cs2880
-rw-r--r--OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YPCompiler.cs10494
-rw-r--r--doc/doxygen.conf2712
-rwxr-xr-xupdate-svn-properties.py1
20 files changed, 14945 insertions, 14949 deletions
diff --git a/OpenSim/Region/Environment/Modules/World/Archiver/ArchiveConstants.cs b/OpenSim/Region/Environment/Modules/World/Archiver/ArchiveConstants.cs
index d98814b..faffa2b 100644
--- a/OpenSim/Region/Environment/Modules/World/Archiver/ArchiveConstants.cs
+++ b/OpenSim/Region/Environment/Modules/World/Archiver/ArchiveConstants.cs
@@ -1,50 +1,50 @@
1/* 1/*
2 * Copyright (c) Contributors, http://opensimulator.org/ 2 * Copyright (c) Contributors, http://opensimulator.org/
3 * See CONTRIBUTORS.TXT for a full list of copyright holders. 3 * See CONTRIBUTORS.TXT for a full list of copyright holders.
4 * 4 *
5 * Redistribution and use in source and binary forms, with or without 5 * Redistribution and use in source and binary forms, with or without
6 * modification, are permitted provided that the following conditions are met: 6 * modification, are permitted provided that the following conditions are met:
7 * * Redistributions of source code must retain the above copyright 7 * * Redistributions of source code must retain the above copyright
8 * notice, this list of conditions and the following disclaimer. 8 * notice, this list of conditions and the following disclaimer.
9 * * Redistributions in binary form must reproduce the above copyright 9 * * Redistributions in binary form must reproduce the above copyright
10 * notice, this list of conditions and the following disclaimer in the 10 * notice, this list of conditions and the following disclaimer in the
11 * documentation and/or other materials provided with the distribution. 11 * documentation and/or other materials provided with the distribution.
12 * * Neither the name of the OpenSim Project nor the 12 * * Neither the name of the OpenSim Project nor the
13 * names of its contributors may be used to endorse or promote products 13 * names of its contributors may be used to endorse or promote products
14 * derived from this software without specific prior written permission. 14 * derived from this software without specific prior written permission.
15 * 15 *
16 * THIS SOFTWARE IS PROVIDED BY THE DEVELOPERS ``AS IS'' AND ANY 16 * THIS SOFTWARE IS PROVIDED BY THE DEVELOPERS ``AS IS'' AND ANY
17 * EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED 17 * EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
18 * WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE 18 * WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
19 * DISCLAIMED. IN NO EVENT SHALL THE CONTRIBUTORS BE LIABLE FOR ANY 19 * DISCLAIMED. IN NO EVENT SHALL THE CONTRIBUTORS BE LIABLE FOR ANY
20 * DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES 20 * DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
21 * (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; 21 * (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
22 * LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND 22 * LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
23 * ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT 23 * ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
24 * (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 24 * (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
25 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 25 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
26 */ 26 */
27 27
28namespace OpenSim.Region.Environment.Modules.World.Archiver 28namespace OpenSim.Region.Environment.Modules.World.Archiver
29{ 29{
30 /// <summary> 30 /// <summary>
31 /// Constants for the archiving module 31 /// Constants for the archiving module
32 /// </summary> 32 /// </summary>
33 public class ArchiveConstants 33 public class ArchiveConstants
34 { 34 {
35 /// <summary> 35 /// <summary>
36 /// Path for the assets held in an archive 36 /// Path for the assets held in an archive
37 /// </summary> 37 /// </summary>
38 public static readonly string ASSETS_PATH = "assets/"; 38 public static readonly string ASSETS_PATH = "assets/";
39 39
40 /// <summary> 40 /// <summary>
41 /// Extension used for texture assets in archive 41 /// Extension used for texture assets in archive
42 /// </summary> 42 /// </summary>
43 public static readonly string TEXTURE_EXTENSION = ".jp2"; 43 public static readonly string TEXTURE_EXTENSION = ".jp2";
44 44
45 /// <summary> 45 /// <summary>
46 /// Path for the prims file 46 /// Path for the prims file
47 /// </summary> 47 /// </summary>
48 public static readonly string PRIMS_PATH = "prims.xml"; 48 public static readonly string PRIMS_PATH = "prims.xml";
49 } 49 }
50} 50}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/LSL/YP2CSConverter.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/LSL/YP2CSConverter.cs
index 3fc9e00..557c1c9 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/LSL/YP2CSConverter.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/LSL/YP2CSConverter.cs
@@ -26,88 +26,83 @@
26* 26*
27*/ 27*/
28 28
29using System; 29using System;
30using System.IO; 30using System.IO;
31using System.Collections.Generic; 31using System.Collections.Generic;
32using System.Text; 32using System.Text;
33using System.Text.RegularExpressions; 33using System.Text.RegularExpressions;
34using OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog; 34using OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog;
35 35
36namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.LSL 36namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.LSL
37{ 37{
38 public class YP2CSConverter 38 public class YP2CSConverter
39 { 39 {
40 public YP2CSConverter() 40 public YP2CSConverter()
41 { 41 {
42 } 42 }
43 43
44 public string Convert(string Script) 44 public string Convert(string Script)
45 { 45 {
46 string CS_code = GenCode(Script); 46 string CS_code = GenCode(Script);
47 return CS_code; 47 return CS_code;
48 } 48 }
49 49
50 50 static string GenCode(string myCode)
51 static string GenCode(string myCode) 51 {
52 { 52 Variable TermList = new Variable();
53 Variable TermList = new Variable(); 53 Variable FunctionCode = new Variable();
54 Variable FunctionCode = new Variable(); 54
55 55 string CS_code = "";
56 string CS_code = ""; 56
57 57 int cs_pointer = myCode.IndexOf("\n//cs");
58 int cs_pointer = myCode.IndexOf("\n//cs"); 58 if (cs_pointer > 0)
59 if (cs_pointer > 0) 59 {
60 { 60 CS_code = myCode.Substring(cs_pointer); // CS code comes after
61 CS_code = myCode.Substring(cs_pointer); // CS code comes after 61 myCode = myCode.Substring(0, cs_pointer);
62 myCode = myCode.Substring(0, cs_pointer); 62 }
63 } 63 myCode.Replace("//yp", "%YPCode");
64 myCode.Replace("//yp", "%YPCode"); 64
65 65 StringWriter myCS_SW = new StringWriter();
66 66 StringReader myCode_SR = new StringReader(" yp_nop_header_nop. \n "+myCode + "\n");
67 StringWriter myCS_SW = new StringWriter(); 67
68 StringReader myCode_SR = new StringReader(" yp_nop_header_nop. \n "+myCode + "\n"); 68 YP.see(myCode_SR);
69 69 YP.tell(myCS_SW);
70 YP.see(myCode_SR); 70
71 YP.tell(myCS_SW); 71 //Console.WriteLine("Mycode\n ===================================\n" + myCode+"\n");
72 72 foreach (bool l1 in Parser.parseInput(TermList))
73 //Console.WriteLine("Mycode\n ===================================\n" + myCode+"\n"); 73 {
74 foreach (bool l1 in Parser.parseInput(TermList)) 74 foreach (bool l2 in YPCompiler.makeFunctionPseudoCode(TermList, FunctionCode))
75 { 75 {
76 foreach (bool l2 in YPCompiler.makeFunctionPseudoCode(TermList, FunctionCode)) 76 ListPair VFC = new ListPair(FunctionCode, new Variable());
77 { 77 //Console.WriteLine("-------------------------")
78 ListPair VFC = new ListPair(FunctionCode, new Variable()); 78 //Console.WriteLine( FunctionCode.ToString())
79 //Console.WriteLine("-------------------------") 79 //Console.WriteLine("-------------------------")
80 //Console.WriteLine( FunctionCode.ToString()) 80 YPCompiler.convertFunctionCSharp(FunctionCode);
81 //Console.WriteLine("-------------------------") 81 //YPCompiler.convertStringCodesCSharp(VFC);
82 YPCompiler.convertFunctionCSharp(FunctionCode); 82 }
83 //YPCompiler.convertStringCodesCSharp(VFC); 83 }
84 84 YP.seen();
85 } 85 myCS_SW.Close();
86 } 86 YP.told();
87 YP.seen(); 87 StringBuilder bu = myCS_SW.GetStringBuilder();
88 myCS_SW.Close(); 88 string finalcode = "//YPEncoded\n" + bu.ToString();
89 YP.told(); 89 // FIX script events (we're in the same script)
90 StringBuilder bu = myCS_SW.GetStringBuilder(); 90 // 'YP.script_event(Atom.a(@"sayit"),' ==> 'sayit('
91 string finalcode = "//YPEncoded\n" + bu.ToString(); 91 finalcode = Regex.Replace(finalcode,
92 // FIX script events (we're in the same script) 92 @"YP.script_event\(Atom.a\(\@\""(.*?)""\)\,",
93 // 'YP.script_event(Atom.a(@"sayit"),' ==> 'sayit(' 93 @"this.$1(",
94 finalcode = Regex.Replace(finalcode, 94 RegexOptions.Compiled | RegexOptions.Singleline);
95 @"YP.script_event\(Atom.a\(\@\""(.*?)""\)\,", 95 finalcode = Regex.Replace(finalcode,
96 @"this.$1(", 96 @" static ",
97 RegexOptions.Compiled | RegexOptions.Singleline); 97 @" ",
98 finalcode = Regex.Replace(finalcode, 98 RegexOptions.Compiled | RegexOptions.Singleline);
99 @" static ", 99
100 @" ", 100 finalcode = CS_code+"\n\r"+ finalcode;
101 RegexOptions.Compiled | RegexOptions.Singleline); 101 finalcode = Regex.Replace(finalcode,
102 102 @"PrologCallback",
103 finalcode = CS_code+"\n\r"+ finalcode; 103 @"public IEnumerable<bool> ",
104 finalcode = Regex.Replace(finalcode, 104 RegexOptions.Compiled | RegexOptions.Singleline);
105 @"PrologCallback", 105 return finalcode;
106 @"public IEnumerable<bool> ", 106 }
107 RegexOptions.Compiled | RegexOptions.Singleline); 107 }
108 return finalcode; 108}
109 }
110
111
112 }
113}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Atom.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Atom.cs
index 9b4ca6a..7387ef4 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Atom.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Atom.cs
@@ -1,218 +1,218 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections.Generic; 32using System.Collections.Generic;
33using System.Text; 33using System.Text;
34 34
35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
36{ 36{
37 public class Atom : IUnifiable 37 public class Atom : IUnifiable
38 { 38 {
39 private static Dictionary<string, Atom> _atomStore = new Dictionary<string, Atom>(); 39 private static Dictionary<string, Atom> _atomStore = new Dictionary<string, Atom>();
40 public readonly string _name; 40 public readonly string _name;
41 public readonly Atom _module; 41 public readonly Atom _module;
42 42
43 /// <summary> 43 /// <summary>
44 /// You should not call this constructor, but use Atom.a instead. 44 /// You should not call this constructor, but use Atom.a instead.
45 /// </summary> 45 /// </summary>
46 /// <param name="name"></param> 46 /// <param name="name"></param>
47 /// <param name="module"></param> 47 /// <param name="module"></param>
48 private Atom(string name, Atom module) 48 private Atom(string name, Atom module)
49 { 49 {
50 _name = name; 50 _name = name;
51 _module = module; 51 _module = module;
52 } 52 }
53 53
54 /// <summary> 54 /// <summary>
55 /// Return the unique Atom object for name where module is null. You should use this to create 55 /// Return the unique Atom object for name where module is null. You should use this to create
56 /// an Atom instead of calling the Atom constructor. 56 /// an Atom instead of calling the Atom constructor.
57 /// </summary> 57 /// </summary>
58 /// <param name="name"></param> 58 /// <param name="name"></param>
59 /// <returns></returns> 59 /// <returns></returns>
60 public static Atom a(string name) 60 public static Atom a(string name)
61 { 61 {
62 Atom atom; 62 Atom atom;
63 if (!_atomStore.TryGetValue(name, out atom)) 63 if (!_atomStore.TryGetValue(name, out atom))
64 { 64 {
65 atom = new Atom(name, null); 65 atom = new Atom(name, null);
66 _atomStore[name] = atom; 66 _atomStore[name] = atom;
67 } 67 }
68 return atom; 68 return atom;
69 } 69 }
70 70
71 /// <summary> 71 /// <summary>
72 /// Return an Atom object with the name and module. If module is null or Atom.NIL, 72 /// Return an Atom object with the name and module. If module is null or Atom.NIL,
73 /// this behaves like Atom.a(name) and returns the unique object where the module is null. 73 /// this behaves like Atom.a(name) and returns the unique object where the module is null.
74 /// If module is not null or Atom.NIL, this may or may not be the same object as another Atom 74 /// If module is not null or Atom.NIL, this may or may not be the same object as another Atom
75 /// with the same name and module. 75 /// with the same name and module.
76 /// </summary> 76 /// </summary>
77 /// <param name="name"></param> 77 /// <param name="name"></param>
78 /// <param name="module"></param> 78 /// <param name="module"></param>
79 /// <returns></returns> 79 /// <returns></returns>
80 public static Atom a(string name, Atom module) 80 public static Atom a(string name, Atom module)
81 { 81 {
82 if (module == null || module == Atom.NIL) 82 if (module == null || module == Atom.NIL)
83 return a(name); 83 return a(name);
84 return new Atom(name, module); 84 return new Atom(name, module);
85 } 85 }
86 86
87 /// <summary> 87 /// <summary>
88 /// If Obj is an Atom unify its _module with Module. If the Atom's _module is null, use Atom.NIL. 88 /// If Obj is an Atom unify its _module with Module. If the Atom's _module is null, use Atom.NIL.
89 /// </summary> 89 /// </summary>
90 /// <param name="Atom"></param> 90 /// <param name="Atom"></param>
91 /// <param name="Module"></param> 91 /// <param name="Module"></param>
92 /// <returns></returns> 92 /// <returns></returns>
93 public static IEnumerable<bool> module(object Obj, object Module) 93 public static IEnumerable<bool> module(object Obj, object Module)
94 { 94 {
95 Obj = YP.getValue(Obj); 95 Obj = YP.getValue(Obj);
96 if (Obj is Atom) 96 if (Obj is Atom)
97 { 97 {
98 if (((Atom)Obj)._module == null) 98 if (((Atom)Obj)._module == null)
99 return YP.unify(Module, Atom.NIL); 99 return YP.unify(Module, Atom.NIL);
100 else 100 else
101 return YP.unify(Module, ((Atom)Obj)._module); 101 return YP.unify(Module, ((Atom)Obj)._module);
102 } 102 }
103 return YP.fail(); 103 return YP.fail();
104 } 104 }
105 105
106 public static readonly Atom NIL = Atom.a("[]"); 106 public static readonly Atom NIL = Atom.a("[]");
107 public static readonly Atom DOT = Atom.a("."); 107 public static readonly Atom DOT = Atom.a(".");
108 public static readonly Atom F = Atom.a("f"); 108 public static readonly Atom F = Atom.a("f");
109 public static readonly Atom SLASH = Atom.a("/"); 109 public static readonly Atom SLASH = Atom.a("/");
110 public static readonly Atom HAT = Atom.a("^"); 110 public static readonly Atom HAT = Atom.a("^");
111 public static readonly Atom RULE = Atom.a(":-"); 111 public static readonly Atom RULE = Atom.a(":-");
112 112
113 public IEnumerable<bool> unify(object arg) 113 public IEnumerable<bool> unify(object arg)
114 { 114 {
115 arg = YP.getValue(arg); 115 arg = YP.getValue(arg);
116 if (arg is Atom) 116 if (arg is Atom)
117 return Equals(arg) ? YP.succeed() : YP.fail(); 117 return Equals(arg) ? YP.succeed() : YP.fail();
118 else if (arg is Variable) 118 else if (arg is Variable)
119 return ((Variable)arg).unify(this); 119 return ((Variable)arg).unify(this);
120 else 120 else
121 return YP.fail(); 121 return YP.fail();
122 } 122 }
123 123
124 public void addUniqueVariables(List<Variable> variableSet) 124 public void addUniqueVariables(List<Variable> variableSet)
125 { 125 {
126 // Atom does not contain variables. 126 // Atom does not contain variables.
127 } 127 }
128 128
129 public object makeCopy(Variable.CopyStore copyStore) 129 public object makeCopy(Variable.CopyStore copyStore)
130 { 130 {
131 // Atom does not contain variables that need to be copied. 131 // Atom does not contain variables that need to be copied.
132 return this; 132 return this;
133 } 133 }
134 134
135 public bool termEqual(object term) 135 public bool termEqual(object term)
136 { 136 {
137 return Equals(YP.getValue(term)); 137 return Equals(YP.getValue(term));
138 } 138 }
139 139
140 public bool ground() 140 public bool ground()
141 { 141 {
142 // Atom is always ground. 142 // Atom is always ground.
143 return true; 143 return true;
144 } 144 }
145 145
146 public override bool Equals(object obj) 146 public override bool Equals(object obj)
147 { 147 {
148 if (obj is Atom) 148 if (obj is Atom)
149 { 149 {
150 if (_module == null && ((Atom)obj)._module == null) 150 if (_module == null && ((Atom)obj)._module == null)
151 // When _declaringClass is null, we always use an identical object from _atomStore. 151 // When _declaringClass is null, we always use an identical object from _atomStore.
152 return this == obj; 152 return this == obj;
153 // Otherwise, ignore _declaringClass and do a normal string compare on the _name. 153 // Otherwise, ignore _declaringClass and do a normal string compare on the _name.
154 return _name == ((Atom)obj)._name; 154 return _name == ((Atom)obj)._name;
155 } 155 }
156 return false; 156 return false;
157 } 157 }
158 158
159 public override string ToString() 159 public override string ToString()
160 { 160 {
161 return _name; 161 return _name;
162 } 162 }
163 163
164 public override int GetHashCode() 164 public override int GetHashCode()
165 { 165 {
166 // Debug: need to check _declaringClass. 166 // Debug: need to check _declaringClass.
167 return _name.GetHashCode(); 167 return _name.GetHashCode();
168 } 168 }
169 169
170 public string toQuotedString() 170 public string toQuotedString()
171 { 171 {
172 if (_name.Length == 0) 172 if (_name.Length == 0)
173 return "''"; 173 return "''";
174 else if (this == Atom.NIL) 174 else if (this == Atom.NIL)
175 return "[]"; 175 return "[]";
176 176
177 StringBuilder result = new StringBuilder(_name.Length); 177 StringBuilder result = new StringBuilder(_name.Length);
178 bool useQuotes = false; 178 bool useQuotes = false;
179 foreach (char c in _name) 179 foreach (char c in _name)
180 { 180 {
181 int cInt = (int)c; 181 int cInt = (int)c;
182 if (c == '\'') 182 if (c == '\'')
183 { 183 {
184 result.Append("''"); 184 result.Append("''");
185 useQuotes = true; 185 useQuotes = true;
186 } 186 }
187 else if (c == '_' || cInt >= (int)'a' && cInt <= (int)'z' || 187 else if (c == '_' || cInt >= (int)'a' && cInt <= (int)'z' ||
188 cInt >= (int)'A' && cInt <= (int)'Z' || cInt >= (int)'0' && cInt <= (int)'9') 188 cInt >= (int)'A' && cInt <= (int)'Z' || cInt >= (int)'0' && cInt <= (int)'9')
189 result.Append(c); 189 result.Append(c);
190 else 190 else
191 { 191 {
192 // Debug: Need to handle non-printable chars. 192 // Debug: Need to handle non-printable chars.
193 result.Append(c); 193 result.Append(c);
194 useQuotes = true; 194 useQuotes = true;
195 } 195 }
196 } 196 }
197 197
198 if (!useQuotes && (int)_name[0] >= (int)'a' && (int)_name[0] <= (int)'z') 198 if (!useQuotes && (int)_name[0] >= (int)'a' && (int)_name[0] <= (int)'z')
199 return result.ToString(); 199 return result.ToString();
200 else 200 else
201 { 201 {
202 // Surround in single quotes. 202 // Surround in single quotes.
203 result.Append('\''); 203 result.Append('\'');
204 return "'" + result; 204 return "'" + result;
205 } 205 }
206 } 206 }
207 207
208 /// <summary> 208 /// <summary>
209 /// Return true if _name is lexicographically less than atom._name. 209 /// Return true if _name is lexicographically less than atom._name.
210 /// </summary> 210 /// </summary>
211 /// <param name="atom"></param> 211 /// <param name="atom"></param>
212 /// <returns></returns> 212 /// <returns></returns>
213 public bool lessThan(Atom atom) 213 public bool lessThan(Atom atom)
214 { 214 {
215 return _name.CompareTo(atom._name) < 0; 215 return _name.CompareTo(atom._name) < 0;
216 } 216 }
217 } 217 }
218} 218}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/BagofAnswers.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/BagofAnswers.cs
index 6aea6f7..88ffdb7 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/BagofAnswers.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/BagofAnswers.cs
@@ -1,234 +1,234 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections; 32using System.Collections;
33using System.Collections.Generic; 33using System.Collections.Generic;
34 34
35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
36{ 36{
37 /// <summary> 37 /// <summary>
38 /// A BagofAnswers holds answers for bagof and setof. 38 /// A BagofAnswers holds answers for bagof and setof.
39 /// </summary> 39 /// </summary>
40 public class BagofAnswers 40 public class BagofAnswers
41 { 41 {
42 private object _template; 42 private object _template;
43 private Variable[] _freeVariables; 43 private Variable[] _freeVariables;
44 private Dictionary<object[], List<object>> _bagForFreeVariables; 44 private Dictionary<object[], List<object>> _bagForFreeVariables;
45 private List<object> _findallBagArray; 45 private List<object> _findallBagArray;
46 private static TermArrayEqualityComparer _termArrayEqualityComparer = 46 private static TermArrayEqualityComparer _termArrayEqualityComparer =
47 new TermArrayEqualityComparer(); 47 new TermArrayEqualityComparer();
48 48
49 /// <summary> 49 /// <summary>
50 /// To get the free variables, split off any existential qualifiers from Goal such as the X in 50 /// To get the free variables, split off any existential qualifiers from Goal such as the X in
51 /// "X ^ f(Y)", get the set of unbound variables in Goal that are not qualifiers, then remove 51 /// "X ^ f(Y)", get the set of unbound variables in Goal that are not qualifiers, then remove
52 /// the unbound variables that are qualifiers as well as the unbound variables in Template. 52 /// the unbound variables that are qualifiers as well as the unbound variables in Template.
53 /// </summary> 53 /// </summary>
54 /// <param name="Template"></param> 54 /// <param name="Template"></param>
55 /// <param name="Goal"></param> 55 /// <param name="Goal"></param>
56 public BagofAnswers(object Template, object Goal) 56 public BagofAnswers(object Template, object Goal)
57 { 57 {
58 _template = Template; 58 _template = Template;
59 59
60 // First get the set of variables that are not free variables. 60 // First get the set of variables that are not free variables.
61 List<Variable> variableSet = new List<Variable>(); 61 List<Variable> variableSet = new List<Variable>();
62 YP.addUniqueVariables(Template, variableSet); 62 YP.addUniqueVariables(Template, variableSet);
63 object UnqualifiedGoal = YP.getValue(Goal); 63 object UnqualifiedGoal = YP.getValue(Goal);
64 while (UnqualifiedGoal is Functor2 && ((Functor2)UnqualifiedGoal)._name == Atom.HAT) 64 while (UnqualifiedGoal is Functor2 && ((Functor2)UnqualifiedGoal)._name == Atom.HAT)
65 { 65 {
66 YP.addUniqueVariables(((Functor2)UnqualifiedGoal)._arg1, variableSet); 66 YP.addUniqueVariables(((Functor2)UnqualifiedGoal)._arg1, variableSet);
67 UnqualifiedGoal = YP.getValue(((Functor2)UnqualifiedGoal)._arg2); 67 UnqualifiedGoal = YP.getValue(((Functor2)UnqualifiedGoal)._arg2);
68 } 68 }
69 69
70 // Remember how many non-free variables there are so we can find the unique free variables 70 // Remember how many non-free variables there are so we can find the unique free variables
71 // that are added. 71 // that are added.
72 int nNonFreeVariables = variableSet.Count; 72 int nNonFreeVariables = variableSet.Count;
73 YP.addUniqueVariables(UnqualifiedGoal, variableSet); 73 YP.addUniqueVariables(UnqualifiedGoal, variableSet);
74 int nFreeVariables = variableSet.Count - nNonFreeVariables; 74 int nFreeVariables = variableSet.Count - nNonFreeVariables;
75 if (nFreeVariables == 0) 75 if (nFreeVariables == 0)
76 { 76 {
77 // There were no free variables added, so we won't waste time with _bagForFreeVariables. 77 // There were no free variables added, so we won't waste time with _bagForFreeVariables.
78 _freeVariables = null; 78 _freeVariables = null;
79 _findallBagArray = new List<object>(); 79 _findallBagArray = new List<object>();
80 } 80 }
81 else 81 else
82 { 82 {
83 // Copy the free variables. 83 // Copy the free variables.
84 _freeVariables = new Variable[nFreeVariables]; 84 _freeVariables = new Variable[nFreeVariables];
85 for (int i = 0; i < nFreeVariables; ++i) 85 for (int i = 0; i < nFreeVariables; ++i)
86 _freeVariables[i] = variableSet[i + nNonFreeVariables]; 86 _freeVariables[i] = variableSet[i + nNonFreeVariables];
87 87
88 _bagForFreeVariables = new Dictionary<object[], List<object>>(_termArrayEqualityComparer); 88 _bagForFreeVariables = new Dictionary<object[], List<object>>(_termArrayEqualityComparer);
89 } 89 }
90 } 90 }
91 91
92 public void add() 92 public void add()
93 { 93 {
94 if (_freeVariables == null) 94 if (_freeVariables == null)
95 // The goal has bound the values in _template but we don't bother with _freeVariables. 95 // The goal has bound the values in _template but we don't bother with _freeVariables.
96 _findallBagArray.Add(YP.makeCopy(_template, new Variable.CopyStore())); 96 _findallBagArray.Add(YP.makeCopy(_template, new Variable.CopyStore()));
97 else 97 else
98 { 98 {
99 // The goal has bound the values in _template and _freeVariables. 99 // The goal has bound the values in _template and _freeVariables.
100 // Find the entry for this set of _freeVariables values. 100 // Find the entry for this set of _freeVariables values.
101 object[] freeVariableValues = new object[_freeVariables.Length]; 101 object[] freeVariableValues = new object[_freeVariables.Length];
102 for (int i = 0; i < _freeVariables.Length; ++i) 102 for (int i = 0; i < _freeVariables.Length; ++i)
103 freeVariableValues[i] = YP.getValue(_freeVariables[i]); 103 freeVariableValues[i] = YP.getValue(_freeVariables[i]);
104 List<object> bagArray; 104 List<object> bagArray;
105 if (!_bagForFreeVariables.TryGetValue(freeVariableValues, out bagArray)) 105 if (!_bagForFreeVariables.TryGetValue(freeVariableValues, out bagArray))
106 { 106 {
107 bagArray = new List<object>(); 107 bagArray = new List<object>();
108 _bagForFreeVariables[freeVariableValues] = bagArray; 108 _bagForFreeVariables[freeVariableValues] = bagArray;
109 } 109 }
110 110
111 // Now copy the template and add to the bag for the freeVariables values. 111 // Now copy the template and add to the bag for the freeVariables values.
112 bagArray.Add(YP.makeCopy(_template, new Variable.CopyStore())); 112 bagArray.Add(YP.makeCopy(_template, new Variable.CopyStore()));
113 } 113 }
114 } 114 }
115 115
116 /// <summary> 116 /// <summary>
117 /// For each result, unify the _freeVariables and unify bagArrayVariable with the associated bag. 117 /// For each result, unify the _freeVariables and unify bagArrayVariable with the associated bag.
118 /// </summary> 118 /// </summary>
119 /// <param name="bagArrayVariable">this is unified with the List<object> of matches for template that 119 /// <param name="bagArrayVariable">this is unified with the List<object> of matches for template that
120 /// corresponds to the bindings for freeVariables. Be very careful: this does not unify with a Prolog 120 /// corresponds to the bindings for freeVariables. Be very careful: this does not unify with a Prolog
121 /// list.</param> 121 /// list.</param>
122 /// <returns></returns> 122 /// <returns></returns>
123 public IEnumerable<bool> resultArray(Variable bagArrayVariable) 123 public IEnumerable<bool> resultArray(Variable bagArrayVariable)
124 { 124 {
125 if (_freeVariables == null) 125 if (_freeVariables == null)
126 { 126 {
127 // No unbound free variables, so we only filled one bag. If empty, bagof fails. 127 // No unbound free variables, so we only filled one bag. If empty, bagof fails.
128 if (_findallBagArray.Count > 0) 128 if (_findallBagArray.Count > 0)
129 { 129 {
130 foreach (bool l1 in bagArrayVariable.unify(_findallBagArray)) 130 foreach (bool l1 in bagArrayVariable.unify(_findallBagArray))
131 yield return false; 131 yield return false;
132 } 132 }
133 } 133 }
134 else 134 else
135 { 135 {
136 foreach (KeyValuePair<object[], List<object>> valuesAndBag in _bagForFreeVariables) 136 foreach (KeyValuePair<object[], List<object>> valuesAndBag in _bagForFreeVariables)
137 { 137 {
138 foreach (bool l1 in YP.unifyArrays(_freeVariables, valuesAndBag.Key)) 138 foreach (bool l1 in YP.unifyArrays(_freeVariables, valuesAndBag.Key))
139 { 139 {
140 foreach (bool l2 in bagArrayVariable.unify(valuesAndBag.Value)) 140 foreach (bool l2 in bagArrayVariable.unify(valuesAndBag.Value))
141 yield return false; 141 yield return false;
142 } 142 }
143 // Debug: Should we free memory of the answers already returned? 143 // Debug: Should we free memory of the answers already returned?
144 } 144 }
145 } 145 }
146 } 146 }
147 147
148 /// <summary> 148 /// <summary>
149 /// For each result, unify the _freeVariables and unify Bag with the associated bag. 149 /// For each result, unify the _freeVariables and unify Bag with the associated bag.
150 /// </summary> 150 /// </summary>
151 /// <param name="Bag"></param> 151 /// <param name="Bag"></param>
152 /// <returns></returns> 152 /// <returns></returns>
153 public IEnumerable<bool> result(object Bag) 153 public IEnumerable<bool> result(object Bag)
154 { 154 {
155 Variable bagArrayVariable = new Variable(); 155 Variable bagArrayVariable = new Variable();
156 foreach (bool l1 in resultArray(bagArrayVariable)) 156 foreach (bool l1 in resultArray(bagArrayVariable))
157 { 157 {
158 foreach (bool l2 in YP.unify(Bag, ListPair.make((List<object>)bagArrayVariable.getValue()))) 158 foreach (bool l2 in YP.unify(Bag, ListPair.make((List<object>)bagArrayVariable.getValue())))
159 yield return false; 159 yield return false;
160 } 160 }
161 } 161 }
162 162
163 /// <summary> 163 /// <summary>
164 /// For each result, unify the _freeVariables and unify Bag with the associated bag which is sorted 164 /// For each result, unify the _freeVariables and unify Bag with the associated bag which is sorted
165 /// with duplicates removed, as in setof. 165 /// with duplicates removed, as in setof.
166 /// </summary> 166 /// </summary>
167 /// <param name="Bag"></param> 167 /// <param name="Bag"></param>
168 /// <returns></returns> 168 /// <returns></returns>
169 public IEnumerable<bool> resultSet(object Bag) 169 public IEnumerable<bool> resultSet(object Bag)
170 { 170 {
171 Variable bagArrayVariable = new Variable(); 171 Variable bagArrayVariable = new Variable();
172 foreach (bool l1 in resultArray(bagArrayVariable)) 172 foreach (bool l1 in resultArray(bagArrayVariable))
173 { 173 {
174 List<object> bagArray = (List<object>)bagArrayVariable.getValue(); 174 List<object> bagArray = (List<object>)bagArrayVariable.getValue();
175 YP.sortArray(bagArray); 175 YP.sortArray(bagArray);
176 foreach (bool l2 in YP.unify(Bag, ListPair.makeWithoutRepeatedTerms(bagArray))) 176 foreach (bool l2 in YP.unify(Bag, ListPair.makeWithoutRepeatedTerms(bagArray)))
177 yield return false; 177 yield return false;
178 } 178 }
179 } 179 }
180 180
181 public static IEnumerable<bool> bagofArray 181 public static IEnumerable<bool> bagofArray
182 (object Template, object Goal, IEnumerable<bool> goalIterator, Variable bagArrayVariable) 182 (object Template, object Goal, IEnumerable<bool> goalIterator, Variable bagArrayVariable)
183 { 183 {
184 BagofAnswers bagOfAnswers = new BagofAnswers(Template, Goal); 184 BagofAnswers bagOfAnswers = new BagofAnswers(Template, Goal);
185 foreach (bool l1 in goalIterator) 185 foreach (bool l1 in goalIterator)
186 bagOfAnswers.add(); 186 bagOfAnswers.add();
187 return bagOfAnswers.resultArray(bagArrayVariable); 187 return bagOfAnswers.resultArray(bagArrayVariable);
188 } 188 }
189 189
190 public static IEnumerable<bool> bagof 190 public static IEnumerable<bool> bagof
191 (object Template, object Goal, IEnumerable<bool> goalIterator, object Bag) 191 (object Template, object Goal, IEnumerable<bool> goalIterator, object Bag)
192 { 192 {
193 BagofAnswers bagOfAnswers = new BagofAnswers(Template, Goal); 193 BagofAnswers bagOfAnswers = new BagofAnswers(Template, Goal);
194 foreach (bool l1 in goalIterator) 194 foreach (bool l1 in goalIterator)
195 bagOfAnswers.add(); 195 bagOfAnswers.add();
196 return bagOfAnswers.result(Bag); 196 return bagOfAnswers.result(Bag);
197 } 197 }
198 198
199 public static IEnumerable<bool> setof 199 public static IEnumerable<bool> setof
200 (object Template, object Goal, IEnumerable<bool> goalIterator, object Bag) 200 (object Template, object Goal, IEnumerable<bool> goalIterator, object Bag)
201 { 201 {
202 BagofAnswers bagOfAnswers = new BagofAnswers(Template, Goal); 202 BagofAnswers bagOfAnswers = new BagofAnswers(Template, Goal);
203 foreach (bool l1 in goalIterator) 203 foreach (bool l1 in goalIterator)
204 bagOfAnswers.add(); 204 bagOfAnswers.add();
205 return bagOfAnswers.resultSet(Bag); 205 return bagOfAnswers.resultSet(Bag);
206 } 206 }
207 207
208 /// <summary> 208 /// <summary>
209 /// A TermArrayEqualityComparer implements IEqualityComparer to compare two object arrays using YP.termEqual. 209 /// A TermArrayEqualityComparer implements IEqualityComparer to compare two object arrays using YP.termEqual.
210 /// </summary> 210 /// </summary>
211 private class TermArrayEqualityComparer : IEqualityComparer<object[]> 211 private class TermArrayEqualityComparer : IEqualityComparer<object[]>
212 { 212 {
213 public bool Equals(object[] array1, object[] array2) 213 public bool Equals(object[] array1, object[] array2)
214 { 214 {
215 if (array1.Length != array2.Length) 215 if (array1.Length != array2.Length)
216 return false; 216 return false;
217 for (int i = 0; i < array1.Length; ++i) 217 for (int i = 0; i < array1.Length; ++i)
218 { 218 {
219 if (!YP.termEqual(array1[i], array2[i])) 219 if (!YP.termEqual(array1[i], array2[i]))
220 return false; 220 return false;
221 } 221 }
222 return true; 222 return true;
223 } 223 }
224 224
225 public int GetHashCode(object[] array) 225 public int GetHashCode(object[] array)
226 { 226 {
227 int hashCode = 0; 227 int hashCode = 0;
228 for (int i = 0; i < array.Length; ++i) 228 for (int i = 0; i < array.Length; ++i)
229 hashCode ^= array[i].GetHashCode(); 229 hashCode ^= array[i].GetHashCode();
230 return hashCode; 230 return hashCode;
231 } 231 }
232 } 232 }
233 } 233 }
234} 234}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/FindallAnswers.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/FindallAnswers.cs
index 2978cee..dcd4250 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/FindallAnswers.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/FindallAnswers.cs
@@ -1,103 +1,103 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections; 32using System.Collections;
33using System.Collections.Generic; 33using System.Collections.Generic;
34 34
35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
36{ 36{
37 /// <summary> 37 /// <summary>
38 /// A FindallAnswers holds answers for findall. 38 /// A FindallAnswers holds answers for findall.
39 /// </summary> 39 /// </summary>
40 public class FindallAnswers 40 public class FindallAnswers
41 { 41 {
42 private object _template; 42 private object _template;
43 private List<object> _bagArray; 43 private List<object> _bagArray;
44 44
45 public FindallAnswers(object Template) 45 public FindallAnswers(object Template)
46 { 46 {
47 _template = Template; 47 _template = Template;
48 _bagArray = new List<object>(); 48 _bagArray = new List<object>();
49 } 49 }
50 50
51 public void add() 51 public void add()
52 { 52 {
53 _bagArray.Add(YP.makeCopy(_template, new Variable.CopyStore())); 53 _bagArray.Add(YP.makeCopy(_template, new Variable.CopyStore()));
54 } 54 }
55 55
56 public List<object> resultArray() 56 public List<object> resultArray()
57 { 57 {
58 return _bagArray; 58 return _bagArray;
59 } 59 }
60 60
61 /// <summary> 61 /// <summary>
62 /// Unify Bag with the result. This frees the internal answers, so you can only call this once. 62 /// Unify Bag with the result. This frees the internal answers, so you can only call this once.
63 /// </summary> 63 /// </summary>
64 /// <param name="Bag"></param> 64 /// <param name="Bag"></param>
65 /// <returns></returns> 65 /// <returns></returns>
66 public IEnumerable<bool> result(object Bag) 66 public IEnumerable<bool> result(object Bag)
67 { 67 {
68 object result = ListPair.make(_bagArray); 68 object result = ListPair.make(_bagArray);
69 // Try to free the memory. 69 // Try to free the memory.
70 _bagArray = null; 70 _bagArray = null;
71 return YP.unify(Bag, result); 71 return YP.unify(Bag, result);
72 } 72 }
73 73
74 /// <summary> 74 /// <summary>
75 /// This is a simplified findall when the goal is a single call. 75 /// This is a simplified findall when the goal is a single call.
76 /// </summary> 76 /// </summary>
77 /// <param name="Template"></param> 77 /// <param name="Template"></param>
78 /// <param name="goal"></param> 78 /// <param name="goal"></param>
79 /// <param name="Bag"></param> 79 /// <param name="Bag"></param>
80 /// <returns></returns> 80 /// <returns></returns>
81 public static IEnumerable<bool> findall(object Template, IEnumerable<bool> goal, object Bag) 81 public static IEnumerable<bool> findall(object Template, IEnumerable<bool> goal, object Bag)
82 { 82 {
83 FindallAnswers findallAnswers = new FindallAnswers(Template); 83 FindallAnswers findallAnswers = new FindallAnswers(Template);
84 foreach (bool l1 in goal) 84 foreach (bool l1 in goal)
85 findallAnswers.add(); 85 findallAnswers.add();
86 return findallAnswers.result(Bag); 86 return findallAnswers.result(Bag);
87 } 87 }
88 88
89 /// <summary> 89 /// <summary>
90 /// Like findall, except return an array of the results. 90 /// Like findall, except return an array of the results.
91 /// </summary> 91 /// </summary>
92 /// <param name="template"></param> 92 /// <param name="template"></param>
93 /// <param name="goal"></param> 93 /// <param name="goal"></param>
94 /// <returns></returns> 94 /// <returns></returns>
95 public static List<object> findallArray(object Template, IEnumerable<bool> goal) 95 public static List<object> findallArray(object Template, IEnumerable<bool> goal)
96 { 96 {
97 FindallAnswers findallAnswers = new FindallAnswers(Template); 97 FindallAnswers findallAnswers = new FindallAnswers(Template);
98 foreach (bool l1 in goal) 98 foreach (bool l1 in goal)
99 findallAnswers.add(); 99 findallAnswers.add();
100 return findallAnswers.resultArray(); 100 return findallAnswers.resultArray();
101 } 101 }
102 } 102 }
103} 103}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor.cs
index 3ba1021..58c0e4b 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor.cs
@@ -1,188 +1,188 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections.Generic; 32using System.Collections.Generic;
33 33
34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
35{ 35{
36 public class Functor : IUnifiable 36 public class Functor : IUnifiable
37 { 37 {
38 public readonly Atom _name; 38 public readonly Atom _name;
39 public readonly object[] _args; 39 public readonly object[] _args;
40 40
41 public Functor(Atom name, object[] args) 41 public Functor(Atom name, object[] args)
42 { 42 {
43 if (args.Length <= 3) 43 if (args.Length <= 3)
44 { 44 {
45 if (args.Length == 0) 45 if (args.Length == 0)
46 throw new Exception("For arity 0 functor, just use name as an Atom"); 46 throw new Exception("For arity 0 functor, just use name as an Atom");
47 else if (args.Length == 1) 47 else if (args.Length == 1)
48 throw new Exception("For arity 1 functor, use Functor1"); 48 throw new Exception("For arity 1 functor, use Functor1");
49 else if (args.Length == 2) 49 else if (args.Length == 2)
50 throw new Exception("For arity 2 functor, use Functor2"); 50 throw new Exception("For arity 2 functor, use Functor2");
51 else if (args.Length == 3) 51 else if (args.Length == 3)
52 throw new Exception("For arity 3 functor, use Functor3"); 52 throw new Exception("For arity 3 functor, use Functor3");
53 else 53 else
54 // (This shouldn't happen, but include it for completeness. 54 // (This shouldn't happen, but include it for completeness.
55 throw new Exception("Cannot create a Functor of arity " + args.Length); 55 throw new Exception("Cannot create a Functor of arity " + args.Length);
56 } 56 }
57 57
58 _name = name; 58 _name = name;
59 _args = args; 59 _args = args;
60 } 60 }
61 61
62 public Functor(string name, object[] args) 62 public Functor(string name, object[] args)
63 : this(Atom.a(name), args) 63 : this(Atom.a(name), args)
64 { 64 {
65 } 65 }
66 66
67 /// <summary> 67 /// <summary>
68 /// Return an Atom, Functor1, Functor2, Functor3 or Functor depending on the 68 /// Return an Atom, Functor1, Functor2, Functor3 or Functor depending on the
69 /// length of args. 69 /// length of args.
70 /// Note that this is different than the Functor constructor which requires 70 /// Note that this is different than the Functor constructor which requires
71 /// the length of args to be greater than 3. 71 /// the length of args to be greater than 3.
72 /// </summary> 72 /// </summary>
73 /// <param name="name"></param> 73 /// <param name="name"></param>
74 /// <param name="args"></param> 74 /// <param name="args"></param>
75 /// <returns></returns> 75 /// <returns></returns>
76 public static object make(Atom name, object[] args) 76 public static object make(Atom name, object[] args)
77 { 77 {
78 if (args.Length <= 0) 78 if (args.Length <= 0)
79 return name; 79 return name;
80 else if (args.Length == 1) 80 else if (args.Length == 1)
81 return new Functor1(name, args[0]); 81 return new Functor1(name, args[0]);
82 else if (args.Length == 2) 82 else if (args.Length == 2)
83 return new Functor2(name, args[0], args[1]); 83 return new Functor2(name, args[0], args[1]);
84 else if (args.Length == 3) 84 else if (args.Length == 3)
85 return new Functor3(name, args[0], args[1], args[2]); 85 return new Functor3(name, args[0], args[1], args[2]);
86 else 86 else
87 return new Functor(name, args); 87 return new Functor(name, args);
88 } 88 }
89 89
90 /// <summary> 90 /// <summary>
91 /// Call the main make, first converting name to an Atom. 91 /// Call the main make, first converting name to an Atom.
92 /// </summary> 92 /// </summary>
93 /// <param name="name"></param> 93 /// <param name="name"></param>
94 /// <param name="args"></param> 94 /// <param name="args"></param>
95 /// <returns></returns> 95 /// <returns></returns>
96 public static object make(string name, object[] args) 96 public static object make(string name, object[] args)
97 { 97 {
98 return make(Atom.a(name), args); 98 return make(Atom.a(name), args);
99 } 99 }
100 100
101 public IEnumerable<bool> unify(object arg) 101 public IEnumerable<bool> unify(object arg)
102 { 102 {
103 arg = YP.getValue(arg); 103 arg = YP.getValue(arg);
104 if (arg is Functor) 104 if (arg is Functor)
105 { 105 {
106 Functor argFunctor = (Functor)arg; 106 Functor argFunctor = (Functor)arg;
107 if (_name.Equals(argFunctor._name)) 107 if (_name.Equals(argFunctor._name))
108 return YP.unifyArrays(_args, argFunctor._args); 108 return YP.unifyArrays(_args, argFunctor._args);
109 else 109 else
110 return YP.fail(); 110 return YP.fail();
111 } 111 }
112 else if (arg is Variable) 112 else if (arg is Variable)
113 return ((Variable)arg).unify(this); 113 return ((Variable)arg).unify(this);
114 else 114 else
115 return YP.fail(); 115 return YP.fail();
116 } 116 }
117 117
118 public override string ToString() 118 public override string ToString()
119 { 119 {
120 string result = _name + "(" + YP.getValue(_args[0]); 120 string result = _name + "(" + YP.getValue(_args[0]);
121 for (int i = 1; i < _args.Length; ++i) 121 for (int i = 1; i < _args.Length; ++i)
122 result += ", " + YP.getValue(_args[i]); 122 result += ", " + YP.getValue(_args[i]);
123 result += ")"; 123 result += ")";
124 return result; 124 return result;
125 } 125 }
126 126
127 public bool termEqual(object term) 127 public bool termEqual(object term)
128 { 128 {
129 term = YP.getValue(term); 129 term = YP.getValue(term);
130 if (term is Functor) 130 if (term is Functor)
131 { 131 {
132 Functor termFunctor = (Functor)term; 132 Functor termFunctor = (Functor)term;
133 if (_name.Equals(termFunctor._name) && _args.Length == termFunctor._args.Length) 133 if (_name.Equals(termFunctor._name) && _args.Length == termFunctor._args.Length)
134 { 134 {
135 for (int i = 0; i < _args.Length; ++i) 135 for (int i = 0; i < _args.Length; ++i)
136 { 136 {
137 if (!YP.termEqual(_args[i], termFunctor._args[i])) 137 if (!YP.termEqual(_args[i], termFunctor._args[i]))
138 return false; 138 return false;
139 } 139 }
140 return true; 140 return true;
141 } 141 }
142 } 142 }
143 return false; 143 return false;
144 } 144 }
145 145
146 public bool lessThan(Functor functor) 146 public bool lessThan(Functor functor)
147 { 147 {
148 // Do the equal check first since it is faster. 148 // Do the equal check first since it is faster.
149 if (!_name.Equals(functor._name)) 149 if (!_name.Equals(functor._name))
150 return _name.lessThan(functor._name); 150 return _name.lessThan(functor._name);
151 151
152 if (_args.Length != functor._args.Length) 152 if (_args.Length != functor._args.Length)
153 return _args.Length < functor._args.Length; 153 return _args.Length < functor._args.Length;
154 154
155 for (int i = 0; i < _args.Length; ++i) 155 for (int i = 0; i < _args.Length; ++i)
156 { 156 {
157 if (!YP.termEqual(_args[i], functor._args[i])) 157 if (!YP.termEqual(_args[i], functor._args[i]))
158 return YP.termLessThan(_args[i], functor._args[i]); 158 return YP.termLessThan(_args[i], functor._args[i]);
159 } 159 }
160 160
161 return false; 161 return false;
162 } 162 }
163 163
164 public bool ground() 164 public bool ground()
165 { 165 {
166 for (int i = 0; i < _args.Length; ++i) 166 for (int i = 0; i < _args.Length; ++i)
167 { 167 {
168 if (!YP.ground(_args[i])) 168 if (!YP.ground(_args[i]))
169 return false; 169 return false;
170 } 170 }
171 return true; 171 return true;
172 } 172 }
173 173
174 public void addUniqueVariables(List<Variable> variableSet) 174 public void addUniqueVariables(List<Variable> variableSet)
175 { 175 {
176 for (int i = 0; i < _args.Length; ++i) 176 for (int i = 0; i < _args.Length; ++i)
177 YP.addUniqueVariables(_args[i], variableSet); 177 YP.addUniqueVariables(_args[i], variableSet);
178 } 178 }
179 179
180 public object makeCopy(Variable.CopyStore copyStore) 180 public object makeCopy(Variable.CopyStore copyStore)
181 { 181 {
182 object[] argsCopy = new object[_args.Length]; 182 object[] argsCopy = new object[_args.Length];
183 for (int i = 0; i < _args.Length; ++i) 183 for (int i = 0; i < _args.Length; ++i)
184 argsCopy[i] = YP.makeCopy(_args[i], copyStore); 184 argsCopy[i] = YP.makeCopy(_args[i], copyStore);
185 return new Functor(_name, argsCopy); 185 return new Functor(_name, argsCopy);
186 } 186 }
187 } 187 }
188} 188}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor1.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor1.cs
index 33e2a32..582cd20 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor1.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor1.cs
@@ -1,111 +1,111 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections.Generic; 32using System.Collections.Generic;
33 33
34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
35{ 35{
36 public class Functor1 : IUnifiable 36 public class Functor1 : IUnifiable
37 { 37 {
38 public readonly Atom _name; 38 public readonly Atom _name;
39 public readonly object _arg1; 39 public readonly object _arg1;
40 40
41 public Functor1(Atom name, object arg1) 41 public Functor1(Atom name, object arg1)
42 { 42 {
43 _name = name; 43 _name = name;
44 _arg1 = arg1; 44 _arg1 = arg1;
45 } 45 }
46 46
47 public Functor1(string name, object arg1) 47 public Functor1(string name, object arg1)
48 : this(Atom.a(name), arg1) 48 : this(Atom.a(name), arg1)
49 { 49 {
50 } 50 }
51 51
52 public IEnumerable<bool> unify(object arg) 52 public IEnumerable<bool> unify(object arg)
53 { 53 {
54 arg = YP.getValue(arg); 54 arg = YP.getValue(arg);
55 if (arg is Functor1) 55 if (arg is Functor1)
56 { 56 {
57 Functor1 argFunctor = (Functor1)arg; 57 Functor1 argFunctor = (Functor1)arg;
58 if (_name.Equals(argFunctor._name)) 58 if (_name.Equals(argFunctor._name))
59 { 59 {
60 foreach (bool l1 in YP.unify(_arg1, argFunctor._arg1)) 60 foreach (bool l1 in YP.unify(_arg1, argFunctor._arg1))
61 yield return false; 61 yield return false;
62 } 62 }
63 } 63 }
64 else if (arg is Variable) 64 else if (arg is Variable)
65 { 65 {
66 foreach (bool l1 in ((Variable)arg).unify(this)) 66 foreach (bool l1 in ((Variable)arg).unify(this))
67 yield return false; 67 yield return false;
68 } 68 }
69 } 69 }
70 70
71 public override string ToString() 71 public override string ToString()
72 { 72 {
73 return _name + "(" + YP.getValue(_arg1) + ")"; 73 return _name + "(" + YP.getValue(_arg1) + ")";
74 } 74 }
75 75
76 public bool termEqual(object term) 76 public bool termEqual(object term)
77 { 77 {
78 term = YP.getValue(term); 78 term = YP.getValue(term);
79 if (term is Functor1) 79 if (term is Functor1)
80 { 80 {
81 Functor1 termFunctor = (Functor1)term; 81 Functor1 termFunctor = (Functor1)term;
82 return _name.Equals(termFunctor._name) && YP.termEqual(_arg1, termFunctor._arg1); 82 return _name.Equals(termFunctor._name) && YP.termEqual(_arg1, termFunctor._arg1);
83 } 83 }
84 return false; 84 return false;
85 } 85 }
86 86
87 public bool lessThan(Functor1 functor) 87 public bool lessThan(Functor1 functor)
88 { 88 {
89 // Do the equal check first since it is faster. 89 // Do the equal check first since it is faster.
90 if (!_name.Equals(functor._name)) 90 if (!_name.Equals(functor._name))
91 return _name.lessThan(functor._name); 91 return _name.lessThan(functor._name);
92 92
93 return YP.termLessThan(_arg1, functor._arg1); 93 return YP.termLessThan(_arg1, functor._arg1);
94 } 94 }
95 95
96 public bool ground() 96 public bool ground()
97 { 97 {
98 return YP.ground(_arg1); 98 return YP.ground(_arg1);
99 } 99 }
100 100
101 public void addUniqueVariables(List<Variable> variableSet) 101 public void addUniqueVariables(List<Variable> variableSet)
102 { 102 {
103 YP.addUniqueVariables(_arg1, variableSet); 103 YP.addUniqueVariables(_arg1, variableSet);
104 } 104 }
105 105
106 public object makeCopy(Variable.CopyStore copyStore) 106 public object makeCopy(Variable.CopyStore copyStore)
107 { 107 {
108 return new Functor1(_name, YP.makeCopy(_arg1, copyStore)); 108 return new Functor1(_name, YP.makeCopy(_arg1, copyStore));
109 } 109 }
110 } 110 }
111} 111}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor2.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor2.cs
index 87c5f1b..138a44c 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor2.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor2.cs
@@ -1,154 +1,154 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections.Generic; 32using System.Collections.Generic;
33 33
34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
35{ 35{
36 public class Functor2 : IUnifiable 36 public class Functor2 : IUnifiable
37 { 37 {
38 public readonly Atom _name; 38 public readonly Atom _name;
39 public readonly object _arg1; 39 public readonly object _arg1;
40 public readonly object _arg2; 40 public readonly object _arg2;
41 41
42 public Functor2(Atom name, object arg1, object arg2) 42 public Functor2(Atom name, object arg1, object arg2)
43 { 43 {
44 _name = name; 44 _name = name;
45 _arg1 = arg1; 45 _arg1 = arg1;
46 _arg2 = arg2; 46 _arg2 = arg2;
47 } 47 }
48 48
49 public Functor2(string name, object arg1, object arg2) 49 public Functor2(string name, object arg1, object arg2)
50 : this(Atom.a(name), arg1, arg2) 50 : this(Atom.a(name), arg1, arg2)
51 { 51 {
52 } 52 }
53 53
54 public IEnumerable<bool> unify(object arg) 54 public IEnumerable<bool> unify(object arg)
55 { 55 {
56 arg = YP.getValue(arg); 56 arg = YP.getValue(arg);
57 if (arg is Functor2) 57 if (arg is Functor2)
58 { 58 {
59 Functor2 argFunctor = (Functor2)arg; 59 Functor2 argFunctor = (Functor2)arg;
60 if (_name.Equals(argFunctor._name)) 60 if (_name.Equals(argFunctor._name))
61 { 61 {
62 foreach (bool l1 in YP.unify(_arg1, argFunctor._arg1)) 62 foreach (bool l1 in YP.unify(_arg1, argFunctor._arg1))
63 { 63 {
64 foreach (bool l2 in YP.unify(_arg2, argFunctor._arg2)) 64 foreach (bool l2 in YP.unify(_arg2, argFunctor._arg2))
65 yield return false; 65 yield return false;
66 } 66 }
67 } 67 }
68 } 68 }
69 else if (arg is Variable) 69 else if (arg is Variable)
70 { 70 {
71 foreach (bool l1 in ((Variable)arg).unify(this)) 71 foreach (bool l1 in ((Variable)arg).unify(this))
72 yield return false; 72 yield return false;
73 } 73 }
74 } 74 }
75 75
76 public override string ToString() 76 public override string ToString()
77 { 77 {
78 if (_name == Atom.DOT) 78 if (_name == Atom.DOT)
79 return listPairToString(this); 79 return listPairToString(this);
80 else 80 else
81 return _name + "(" + YP.getValue(_arg1) + ", " + YP.getValue(_arg2) + ")"; 81 return _name + "(" + YP.getValue(_arg1) + ", " + YP.getValue(_arg2) + ")";
82 } 82 }
83 83
84 public bool termEqual(object term) 84 public bool termEqual(object term)
85 { 85 {
86 term = YP.getValue(term); 86 term = YP.getValue(term);
87 if (term is Functor2) 87 if (term is Functor2)
88 { 88 {
89 Functor2 termFunctor = (Functor2)term; 89 Functor2 termFunctor = (Functor2)term;
90 return _name.Equals(termFunctor._name) && YP.termEqual(_arg1, termFunctor._arg1) 90 return _name.Equals(termFunctor._name) && YP.termEqual(_arg1, termFunctor._arg1)
91 && YP.termEqual(_arg2, termFunctor._arg2); 91 && YP.termEqual(_arg2, termFunctor._arg2);
92 } 92 }
93 return false; 93 return false;
94 } 94 }
95 95
96 public bool lessThan(Functor2 functor) 96 public bool lessThan(Functor2 functor)
97 { 97 {
98 // Do the equal check first since it is faster. 98 // Do the equal check first since it is faster.
99 if (!_name.Equals(functor._name)) 99 if (!_name.Equals(functor._name))
100 return _name.lessThan(functor._name); 100 return _name.lessThan(functor._name);
101 101
102 if (!YP.termEqual(_arg1, functor._arg1)) 102 if (!YP.termEqual(_arg1, functor._arg1))
103 return YP.termLessThan(_arg1, functor._arg1); 103 return YP.termLessThan(_arg1, functor._arg1);
104 104
105 return YP.termLessThan(_arg2, functor._arg2); 105 return YP.termLessThan(_arg2, functor._arg2);
106 } 106 }
107 107
108 public bool ground() 108 public bool ground()
109 { 109 {
110 return YP.ground(_arg1) && YP.ground(_arg2); 110 return YP.ground(_arg1) && YP.ground(_arg2);
111 } 111 }
112 112
113 public void addUniqueVariables(List<Variable> variableSet) 113 public void addUniqueVariables(List<Variable> variableSet)
114 { 114 {
115 YP.addUniqueVariables(_arg1, variableSet); 115 YP.addUniqueVariables(_arg1, variableSet);
116 YP.addUniqueVariables(_arg2, variableSet); 116 YP.addUniqueVariables(_arg2, variableSet);
117 } 117 }
118 118
119 public object makeCopy(Variable.CopyStore copyStore) 119 public object makeCopy(Variable.CopyStore copyStore)
120 { 120 {
121 return new Functor2(_name, YP.makeCopy(_arg1, copyStore), 121 return new Functor2(_name, YP.makeCopy(_arg1, copyStore),
122 YP.makeCopy(_arg2, copyStore)); 122 YP.makeCopy(_arg2, copyStore));
123 } 123 }
124 124
125 private static string listPairToString(Functor2 listPair) 125 private static string listPairToString(Functor2 listPair)
126 { 126 {
127 string result = "["; 127 string result = "[";
128 while (true) 128 while (true)
129 { 129 {
130 object head = YP.getValue(listPair._arg1); 130 object head = YP.getValue(listPair._arg1);
131 object tail = YP.getValue(listPair._arg2); 131 object tail = YP.getValue(listPair._arg2);
132 if (tail == (object)Atom.NIL) 132 if (tail == (object)Atom.NIL)
133 { 133 {
134 result += head; 134 result += head;
135 break; 135 break;
136 } 136 }
137 else if (tail is Functor2 && ((Functor2)tail)._name == Atom.DOT) 137 else if (tail is Functor2 && ((Functor2)tail)._name == Atom.DOT)
138 { 138 {
139 result += head + ", "; 139 result += head + ", ";
140 listPair = (Functor2)tail; 140 listPair = (Functor2)tail;
141 // Loop again. 141 // Loop again.
142 } 142 }
143 else 143 else
144 { 144 {
145 // The list is not terminated with NIL. 145 // The list is not terminated with NIL.
146 result += head + "|" + tail; 146 result += head + "|" + tail;
147 break; 147 break;
148 } 148 }
149 } 149 }
150 result += "]"; 150 result += "]";
151 return result; 151 return result;
152 } 152 }
153 } 153 }
154} 154}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor3.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor3.cs
index 74418c4..b52fdf3 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor3.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Functor3.cs
@@ -1,133 +1,133 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections.Generic; 32using System.Collections.Generic;
33 33
34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
35{ 35{
36 public class Functor3 : IUnifiable 36 public class Functor3 : IUnifiable
37 { 37 {
38 public readonly Atom _name; 38 public readonly Atom _name;
39 public readonly object _arg1; 39 public readonly object _arg1;
40 public readonly object _arg2; 40 public readonly object _arg2;
41 public readonly object _arg3; 41 public readonly object _arg3;
42 42
43 public Functor3(Atom name, object arg1, object arg2, object arg3) 43 public Functor3(Atom name, object arg1, object arg2, object arg3)
44 { 44 {
45 _name = name; 45 _name = name;
46 _arg1 = arg1; 46 _arg1 = arg1;
47 _arg2 = arg2; 47 _arg2 = arg2;
48 _arg3 = arg3; 48 _arg3 = arg3;
49 } 49 }
50 50
51 public Functor3(string name, object arg1, object arg2, object arg3) 51 public Functor3(string name, object arg1, object arg2, object arg3)
52 : this(Atom.a(name), arg1, arg2, arg3) 52 : this(Atom.a(name), arg1, arg2, arg3)
53 { 53 {
54 } 54 }
55 55
56 public IEnumerable<bool> unify(object arg) 56 public IEnumerable<bool> unify(object arg)
57 { 57 {
58 arg = YP.getValue(arg); 58 arg = YP.getValue(arg);
59 if (arg is Functor3) 59 if (arg is Functor3)
60 { 60 {
61 Functor3 argFunctor = (Functor3)arg; 61 Functor3 argFunctor = (Functor3)arg;
62 if (_name.Equals(argFunctor._name)) 62 if (_name.Equals(argFunctor._name))
63 { 63 {
64 foreach (bool l1 in YP.unify(_arg1, argFunctor._arg1)) 64 foreach (bool l1 in YP.unify(_arg1, argFunctor._arg1))
65 { 65 {
66 foreach (bool l2 in YP.unify(_arg2, argFunctor._arg2)) 66 foreach (bool l2 in YP.unify(_arg2, argFunctor._arg2))
67 { 67 {
68 foreach (bool l3 in YP.unify(_arg3, argFunctor._arg3)) 68 foreach (bool l3 in YP.unify(_arg3, argFunctor._arg3))
69 yield return false; 69 yield return false;
70 } 70 }
71 } 71 }
72 } 72 }
73 } 73 }
74 else if (arg is Variable) 74 else if (arg is Variable)
75 { 75 {
76 foreach (bool l1 in ((Variable)arg).unify(this)) 76 foreach (bool l1 in ((Variable)arg).unify(this))
77 yield return false; 77 yield return false;
78 } 78 }
79 } 79 }
80 80
81 public override string ToString() 81 public override string ToString()
82 { 82 {
83 return _name + "(" + YP.getValue(_arg1) + ", " + YP.getValue(_arg2) + ", " + 83 return _name + "(" + YP.getValue(_arg1) + ", " + YP.getValue(_arg2) + ", " +
84 YP.getValue(_arg3) + ")"; 84 YP.getValue(_arg3) + ")";
85 } 85 }
86 86
87 public bool termEqual(object term) 87 public bool termEqual(object term)
88 { 88 {
89 term = YP.getValue(term); 89 term = YP.getValue(term);
90 if (term is Functor3) 90 if (term is Functor3)
91 { 91 {
92 Functor3 termFunctor = (Functor3)term; 92 Functor3 termFunctor = (Functor3)term;
93 return _name.Equals(termFunctor._name) && YP.termEqual(_arg1, termFunctor._arg1) 93 return _name.Equals(termFunctor._name) && YP.termEqual(_arg1, termFunctor._arg1)
94 && YP.termEqual(_arg2, termFunctor._arg2) 94 && YP.termEqual(_arg2, termFunctor._arg2)
95 && YP.termEqual(_arg3, termFunctor._arg3); 95 && YP.termEqual(_arg3, termFunctor._arg3);
96 } 96 }
97 return false; 97 return false;
98 } 98 }
99 99
100 public bool lessThan(Functor3 functor) 100 public bool lessThan(Functor3 functor)
101 { 101 {
102 // Do the equal check first since it is faster. 102 // Do the equal check first since it is faster.
103 if (!_name.Equals(functor._name)) 103 if (!_name.Equals(functor._name))
104 return _name.lessThan(functor._name); 104 return _name.lessThan(functor._name);
105 105
106 if (!YP.termEqual(_arg1, functor._arg1)) 106 if (!YP.termEqual(_arg1, functor._arg1))
107 return YP.termLessThan(_arg1, functor._arg1); 107 return YP.termLessThan(_arg1, functor._arg1);
108 108
109 if (!YP.termEqual(_arg2, functor._arg2)) 109 if (!YP.termEqual(_arg2, functor._arg2))
110 return YP.termLessThan(_arg2, functor._arg2); 110 return YP.termLessThan(_arg2, functor._arg2);
111 111
112 return YP.termLessThan(_arg3, functor._arg3); 112 return YP.termLessThan(_arg3, functor._arg3);
113 } 113 }
114 114
115 public bool ground() 115 public bool ground()
116 { 116 {
117 return YP.ground(_arg1) && YP.ground(_arg2) && YP.ground(_arg3); 117 return YP.ground(_arg1) && YP.ground(_arg2) && YP.ground(_arg3);
118 } 118 }
119 119
120 public void addUniqueVariables(List<Variable> variableSet) 120 public void addUniqueVariables(List<Variable> variableSet)
121 { 121 {
122 YP.addUniqueVariables(_arg1, variableSet); 122 YP.addUniqueVariables(_arg1, variableSet);
123 YP.addUniqueVariables(_arg2, variableSet); 123 YP.addUniqueVariables(_arg2, variableSet);
124 YP.addUniqueVariables(_arg3, variableSet); 124 YP.addUniqueVariables(_arg3, variableSet);
125 } 125 }
126 126
127 public object makeCopy(Variable.CopyStore copyStore) 127 public object makeCopy(Variable.CopyStore copyStore)
128 { 128 {
129 return new Functor3(_name, YP.makeCopy(_arg1, copyStore), 129 return new Functor3(_name, YP.makeCopy(_arg1, copyStore),
130 YP.makeCopy(_arg2, copyStore), YP.makeCopy(_arg3, copyStore)); 130 YP.makeCopy(_arg2, copyStore), YP.makeCopy(_arg3, copyStore));
131 } 131 }
132 } 132 }
133} 133}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/IndexedAnswers.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/IndexedAnswers.cs
index 3eac5fa..05b0a01 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/IndexedAnswers.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/IndexedAnswers.cs
@@ -1,288 +1,288 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections; 32using System.Collections;
33using System.Collections.Generic; 33using System.Collections.Generic;
34 34
35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
36{ 36{
37 /// <summary> 37 /// <summary>
38 /// An IndexedAnswers holds answers to a query based on the values of index arguments. 38 /// An IndexedAnswers holds answers to a query based on the values of index arguments.
39 /// </summary> 39 /// </summary>
40 public class IndexedAnswers : YP.IClause 40 public class IndexedAnswers : YP.IClause
41 { 41 {
42 // addAnswer adds the answer here and indexes it later. 42 // addAnswer adds the answer here and indexes it later.
43 private List<object[]> _allAnswers = new List<object[]>(); 43 private List<object[]> _allAnswers = new List<object[]>();
44 // The key has the arity of answers with non-null values for each indexed arg. The value 44 // The key has the arity of answers with non-null values for each indexed arg. The value
45 // is a list of the matching answers. The signature is implicit in the pattern on non-null index args. 45 // is a list of the matching answers. The signature is implicit in the pattern on non-null index args.
46 private Dictionary<HashedList, List<object[]>> _indexedAnswers = 46 private Dictionary<HashedList, List<object[]>> _indexedAnswers =
47 new Dictionary<HashedList, List<object[]>>(); 47 new Dictionary<HashedList, List<object[]>>();
48 // Keeps track of whether we have started adding entries to _indexedAnswers for the signature. 48 // Keeps track of whether we have started adding entries to _indexedAnswers for the signature.
49 private Dictionary<int, object> _gotAnswersForSignature = new Dictionary<int, object>(); 49 private Dictionary<int, object> _gotAnswersForSignature = new Dictionary<int, object>();
50 private const int MAX_INDEX_ARGS = 31; 50 private const int MAX_INDEX_ARGS = 31;
51 51
52 public IndexedAnswers() 52 public IndexedAnswers()
53 { 53 {
54 } 54 }
55 55
56 /// <summary> 56 /// <summary>
57 /// Elements of answer must be ground, since arguments with unbound variables make this 57 /// Elements of answer must be ground, since arguments with unbound variables make this
58 /// into a dynamic rule which we don't index. 58 /// into a dynamic rule which we don't index.
59 /// </summary> 59 /// </summary>
60 /// <param name="answer"></param> 60 /// <param name="answer"></param>
61 public void addAnswer(object[] answer) 61 public void addAnswer(object[] answer)
62 { 62 {
63 // Store a copy of the answer array. 63 // Store a copy of the answer array.
64 object[] answerCopy = new object[answer.Length]; 64 object[] answerCopy = new object[answer.Length];
65 Variable.CopyStore copyStore = new Variable.CopyStore(); 65 Variable.CopyStore copyStore = new Variable.CopyStore();
66 for (int i = 0; i < answer.Length; ++i) 66 for (int i = 0; i < answer.Length; ++i)
67 answerCopy[i] = YP.makeCopy(answer[i], copyStore); 67 answerCopy[i] = YP.makeCopy(answer[i], copyStore);
68 if (copyStore.getNUniqueVariables() > 0) 68 if (copyStore.getNUniqueVariables() > 0)
69 throw new InvalidOperationException 69 throw new InvalidOperationException
70 ("Elements of answer must be ground, but found " + copyStore.getNUniqueVariables() + 70 ("Elements of answer must be ground, but found " + copyStore.getNUniqueVariables() +
71 " unbound variables"); 71 " unbound variables");
72 _allAnswers.Add(answerCopy); 72 _allAnswers.Add(answerCopy);
73 73
74 // If match has already indexed answers for a signature, we need to add 74 // If match has already indexed answers for a signature, we need to add
75 // this to the existing indexed answers. 75 // this to the existing indexed answers.
76 foreach(int signature in _gotAnswersForSignature.Keys) 76 foreach(int signature in _gotAnswersForSignature.Keys)
77 indexAnswerForSignature(answerCopy, signature); 77 indexAnswerForSignature(answerCopy, signature);
78 } 78 }
79 79
80 private void indexAnswerForSignature(object[] answer, int signature) 80 private void indexAnswerForSignature(object[] answer, int signature)
81 { 81 {
82 // First find out which of the answer values can be used as an index. 82 // First find out which of the answer values can be used as an index.
83 object[] indexValues = new object[answer.Length]; 83 object[] indexValues = new object[answer.Length];
84 for (int i = 0; i < answer.Length; ++i) 84 for (int i = 0; i < answer.Length; ++i)
85 { 85 {
86 // We limit the number of indexed args in a 32-bit signature. 86 // We limit the number of indexed args in a 32-bit signature.
87 if (i >= MAX_INDEX_ARGS) 87 if (i >= MAX_INDEX_ARGS)
88 indexValues[i] = null; 88 indexValues[i] = null;
89 else 89 else
90 indexValues[i] = getIndexValue(YP.getValue(answer[i])); 90 indexValues[i] = getIndexValue(YP.getValue(answer[i]));
91 } 91 }
92 92
93 // We need an entry in indexArgs from indexValues for each 1 bit in signature. 93 // We need an entry in indexArgs from indexValues for each 1 bit in signature.
94 HashedList indexArgs = new HashedList(indexValues.Length); 94 HashedList indexArgs = new HashedList(indexValues.Length);
95 for (int i = 0; i < indexValues.Length; ++i) 95 for (int i = 0; i < indexValues.Length; ++i)
96 { 96 {
97 if ((signature & (1 << i)) == 0) 97 if ((signature & (1 << i)) == 0)
98 indexArgs.Add(null); 98 indexArgs.Add(null);
99 else 99 else
100 { 100 {
101 if (indexValues[i] == null) 101 if (indexValues[i] == null)
102 // The signature wants an index value here, but we don't have one so 102 // The signature wants an index value here, but we don't have one so
103 // we can't add it as an answer for this signature. 103 // we can't add it as an answer for this signature.
104 return; 104 return;
105 else 105 else
106 indexArgs.Add(indexValues[i]); 106 indexArgs.Add(indexValues[i]);
107 } 107 }
108 } 108 }
109 109
110 // Add the answer to the answers list for indexArgs, creating the entry if needed. 110 // Add the answer to the answers list for indexArgs, creating the entry if needed.
111 List<object[]> answers; 111 List<object[]> answers;
112 if (!_indexedAnswers.TryGetValue(indexArgs, out answers)) 112 if (!_indexedAnswers.TryGetValue(indexArgs, out answers))
113 { 113 {
114 answers = new List<object[]>(); 114 answers = new List<object[]>();
115 _indexedAnswers[indexArgs] = answers; 115 _indexedAnswers[indexArgs] = answers;
116 } 116 }
117 answers.Add(answer); 117 answers.Add(answer);
118 } 118 }
119 119
120 public IEnumerable<bool> match(object[] arguments) 120 public IEnumerable<bool> match(object[] arguments)
121 { 121 {
122 // Set up indexArgs, up to arg position MAX_INDEX_ARGS. The signature has a 1 bit for 122 // Set up indexArgs, up to arg position MAX_INDEX_ARGS. The signature has a 1 bit for
123 // each non-null index arg. 123 // each non-null index arg.
124 HashedList indexArgs = new HashedList(arguments.Length); 124 HashedList indexArgs = new HashedList(arguments.Length);
125 bool gotAllIndexArgs = true; 125 bool gotAllIndexArgs = true;
126 int signature = 0; 126 int signature = 0;
127 for (int i = 0; i < arguments.Length; ++i) 127 for (int i = 0; i < arguments.Length; ++i)
128 { 128 {
129 object indexValue = null; 129 object indexValue = null;
130 if (i < MAX_INDEX_ARGS) 130 if (i < MAX_INDEX_ARGS)
131 { 131 {
132 // We limit the number of args in a 32-bit signature. 132 // We limit the number of args in a 32-bit signature.
133 indexValue = getIndexValue(YP.getValue(arguments[i])); 133 indexValue = getIndexValue(YP.getValue(arguments[i]));
134 if (indexValue != null) 134 if (indexValue != null)
135 signature += (1 << i); 135 signature += (1 << i);
136 } 136 }
137 if (indexValue == null) 137 if (indexValue == null)
138 gotAllIndexArgs = false; 138 gotAllIndexArgs = false;
139 indexArgs.Add(indexValue); 139 indexArgs.Add(indexValue);
140 } 140 }
141 141
142 List<object[]> answers; 142 List<object[]> answers;
143 if (signature == 0) 143 if (signature == 0)
144 // No index args, so we have to match from _allAnswers. 144 // No index args, so we have to match from _allAnswers.
145 answers = _allAnswers; 145 answers = _allAnswers;
146 else 146 else
147 { 147 {
148 if (!_gotAnswersForSignature.ContainsKey(signature)) 148 if (!_gotAnswersForSignature.ContainsKey(signature))
149 { 149 {
150 // We need to create the entry in _indexedAnswers. 150 // We need to create the entry in _indexedAnswers.
151 foreach (object[] answer in _allAnswers) 151 foreach (object[] answer in _allAnswers)
152 indexAnswerForSignature(answer, signature); 152 indexAnswerForSignature(answer, signature);
153 // Mark that we did this signature. 153 // Mark that we did this signature.
154 _gotAnswersForSignature[signature] = null; 154 _gotAnswersForSignature[signature] = null;
155 } 155 }
156 if (!_indexedAnswers.TryGetValue(indexArgs, out answers)) 156 if (!_indexedAnswers.TryGetValue(indexArgs, out answers))
157 yield break; 157 yield break;
158 } 158 }
159 159
160 if (gotAllIndexArgs) 160 if (gotAllIndexArgs)
161 { 161 {
162 // All the arguments were already bound, so we don't need to do bindings. 162 // All the arguments were already bound, so we don't need to do bindings.
163 yield return false; 163 yield return false;
164 yield break; 164 yield break;
165 } 165 }
166 166
167 // Find matches in answers. 167 // Find matches in answers.
168 IEnumerator<bool>[] iterators = new IEnumerator<bool>[arguments.Length]; 168 IEnumerator<bool>[] iterators = new IEnumerator<bool>[arguments.Length];
169 foreach (object[] answer in answers) 169 foreach (object[] answer in answers)
170 { 170 {
171 bool gotMatch = true; 171 bool gotMatch = true;
172 int nIterators = 0; 172 int nIterators = 0;
173 // Try to bind all the arguments. 173 // Try to bind all the arguments.
174 for (int i = 0; i < arguments.Length; ++i) 174 for (int i = 0; i < arguments.Length; ++i)
175 { 175 {
176 if (indexArgs[i] != null) 176 if (indexArgs[i] != null)
177 // We already matched this argument by looking up _indexedAnswers. 177 // We already matched this argument by looking up _indexedAnswers.
178 continue; 178 continue;
179 179
180 IEnumerator<bool> iterator = YP.unify(arguments[i], answer[i]).GetEnumerator(); 180 IEnumerator<bool> iterator = YP.unify(arguments[i], answer[i]).GetEnumerator();
181 iterators[nIterators++] = iterator; 181 iterators[nIterators++] = iterator;
182 // MoveNext() is true if YP.unify succeeds. 182 // MoveNext() is true if YP.unify succeeds.
183 if (!iterator.MoveNext()) 183 if (!iterator.MoveNext())
184 { 184 {
185 gotMatch = false; 185 gotMatch = false;
186 break; 186 break;
187 } 187 }
188 } 188 }
189 189
190 try 190 try
191 { 191 {
192 if (gotMatch) 192 if (gotMatch)
193 yield return false; 193 yield return false;
194 } 194 }
195 finally 195 finally
196 { 196 {
197 // Manually finalize all the iterators. 197 // Manually finalize all the iterators.
198 for (int i = 0; i < nIterators; ++i) 198 for (int i = 0; i < nIterators; ++i)
199 iterators[i].Dispose(); 199 iterators[i].Dispose();
200 } 200 }
201 } 201 }
202 } 202 }
203 203
204 /// <summary> 204 /// <summary>
205 /// A HashedList extends an ArrayList with methods to get a hash and to check equality 205 /// A HashedList extends an ArrayList with methods to get a hash and to check equality
206 /// based on the elements of the list. 206 /// based on the elements of the list.
207 /// </summary> 207 /// </summary>
208 public class HashedList : ArrayList 208 public class HashedList : ArrayList
209 { 209 {
210 private bool _gotHashCode = false; 210 private bool _gotHashCode = false;
211 private int _hashCode; 211 private int _hashCode;
212 212
213 public HashedList() 213 public HashedList()
214 : base() 214 : base()
215 { 215 {
216 } 216 }
217 217
218 public HashedList(int capacity) 218 public HashedList(int capacity)
219 : base(capacity) 219 : base(capacity)
220 { 220 {
221 } 221 }
222 222
223 public HashedList(ICollection c) 223 public HashedList(ICollection c)
224 : base(c) 224 : base(c)
225 { 225 {
226 } 226 }
227 227
228 // Debug: Should override all the other methods that change this. 228 // Debug: Should override all the other methods that change this.
229 public override int Add(object value) 229 public override int Add(object value)
230 { 230 {
231 _gotHashCode = false; 231 _gotHashCode = false;
232 return base.Add(value); 232 return base.Add(value);
233 } 233 }
234 234
235 public override int GetHashCode() 235 public override int GetHashCode()
236 { 236 {
237 if (!_gotHashCode) 237 if (!_gotHashCode)
238 { 238 {
239 int hashCode = 1; 239 int hashCode = 1;
240 foreach (object obj in this) 240 foreach (object obj in this)
241 hashCode = 31 * hashCode + (obj == null ? 0 : obj.GetHashCode()); 241 hashCode = 31 * hashCode + (obj == null ? 0 : obj.GetHashCode());
242 _hashCode = hashCode; 242 _hashCode = hashCode;
243 _gotHashCode = true; 243 _gotHashCode = true;
244 } 244 }
245 return _hashCode; 245 return _hashCode;
246 } 246 }
247 247
248 public override bool Equals(object obj) 248 public override bool Equals(object obj)
249 { 249 {
250 if (!(obj is ArrayList)) 250 if (!(obj is ArrayList))
251 return false; 251 return false;
252 252
253 ArrayList objList = (ArrayList)obj; 253 ArrayList objList = (ArrayList)obj;
254 if (objList.Count != Count) 254 if (objList.Count != Count)
255 return false; 255 return false;
256 256
257 for (int i = 0; i < Count; ++i) 257 for (int i = 0; i < Count; ++i)
258 { 258 {
259 object value = objList[i]; 259 object value = objList[i];
260 if (value == null) 260 if (value == null)
261 { 261 {
262 if (this[i] != null) 262 if (this[i] != null)
263 return false; 263 return false;
264 } 264 }
265 else 265 else
266 { 266 {
267 if (!value.Equals(this[i])) 267 if (!value.Equals(this[i]))
268 return false; 268 return false;
269 } 269 }
270 } 270 }
271 return true; 271 return true;
272 } 272 }
273 } 273 }
274 274
275 /// <summary> 275 /// <summary>
276 /// If we keep an index on value, return the value, or null if we don't index it. 276 /// If we keep an index on value, return the value, or null if we don't index it.
277 /// </summary> 277 /// </summary>
278 /// <param name="value">the term to examine. Assume you already called YP.getValue(value)</param> 278 /// <param name="value">the term to examine. Assume you already called YP.getValue(value)</param>
279 /// <returns></returns> 279 /// <returns></returns>
280 public static object getIndexValue(object value) 280 public static object getIndexValue(object value)
281 { 281 {
282 if (value is Atom || value is string || value is Int32 || value is DateTime) 282 if (value is Atom || value is string || value is Int32 || value is DateTime)
283 return value; 283 return value;
284 else 284 else
285 return null; 285 return null;
286 } 286 }
287 } 287 }
288} 288}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/ListPair.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/ListPair.cs
index b16e8a4..681c445 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/ListPair.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/ListPair.cs
@@ -1,156 +1,156 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections.Generic; 32using System.Collections.Generic;
33 33
34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
35{ 35{
36 public class ListPair : Functor2 36 public class ListPair : Functor2
37 { 37 {
38 public ListPair(object head, object tail) : base(Atom.DOT, head, tail) 38 public ListPair(object head, object tail) : base(Atom.DOT, head, tail)
39 { 39 {
40 } 40 }
41 41
42 public static object make(List<object> list) 42 public static object make(List<object> list)
43 { 43 {
44 if (list.Count <= 0) 44 if (list.Count <= 0)
45 return Atom.NIL; 45 return Atom.NIL;
46 46
47 object result = Atom.NIL; 47 object result = Atom.NIL;
48 // Start from the end. 48 // Start from the end.
49 for (int i = list.Count - 1; i >= 0; --i) 49 for (int i = list.Count - 1; i >= 0; --i)
50 result = new ListPair(list[i], result); 50 result = new ListPair(list[i], result);
51 return result; 51 return result;
52 } 52 }
53 53
54 public static object make(object[] array) 54 public static object make(object[] array)
55 { 55 {
56 if (array.Length <= 0) 56 if (array.Length <= 0)
57 return Atom.NIL; 57 return Atom.NIL;
58 58
59 object result = Atom.NIL; 59 object result = Atom.NIL;
60 // Start from the end. 60 // Start from the end.
61 for (int i = array.Length - 1; i >= 0; --i) 61 for (int i = array.Length - 1; i >= 0; --i)
62 result = new ListPair(array[i], result); 62 result = new ListPair(array[i], result);
63 return result; 63 return result;
64 } 64 }
65 65
66 /// <summary> 66 /// <summary>
67 /// Return a ListPair version of array, where repeated elements 67 /// Return a ListPair version of array, where repeated elements
68 /// (according to YP.termEqual) are removed. 68 /// (according to YP.termEqual) are removed.
69 /// </summary> 69 /// </summary>
70 /// <param name="array"></param> 70 /// <param name="array"></param>
71 /// <returns></returns> 71 /// <returns></returns>
72 public static object makeWithoutRepeatedTerms(object[] array) 72 public static object makeWithoutRepeatedTerms(object[] array)
73 { 73 {
74 if (array.Length <= 0) 74 if (array.Length <= 0)
75 return Atom.NIL; 75 return Atom.NIL;
76 76
77 // Start from the end. 77 // Start from the end.
78 object previousTerm = array[array.Length - 1]; 78 object previousTerm = array[array.Length - 1];
79 object result = new ListPair(previousTerm, Atom.NIL); 79 object result = new ListPair(previousTerm, Atom.NIL);
80 for (int i = array.Length - 2; i >= 0; --i) 80 for (int i = array.Length - 2; i >= 0; --i)
81 { 81 {
82 object term = array[i]; 82 object term = array[i];
83 if (YP.termEqual(term, previousTerm)) 83 if (YP.termEqual(term, previousTerm))
84 continue; 84 continue;
85 result = new ListPair(term, result); 85 result = new ListPair(term, result);
86 previousTerm = term; 86 previousTerm = term;
87 } 87 }
88 return result; 88 return result;
89 } 89 }
90 90
91 /// <summary> 91 /// <summary>
92 /// Return a ListPair version of array, where repeated elements 92 /// Return a ListPair version of array, where repeated elements
93 /// (according to YP.termEqual) are removed. 93 /// (according to YP.termEqual) are removed.
94 /// </summary> 94 /// </summary>
95 /// <param name="array"></param> 95 /// <param name="array"></param>
96 /// <returns></returns> 96 /// <returns></returns>
97 public static object makeWithoutRepeatedTerms(List<object> array) 97 public static object makeWithoutRepeatedTerms(List<object> array)
98 { 98 {
99 if (array.Count <= 0) 99 if (array.Count <= 0)
100 return Atom.NIL; 100 return Atom.NIL;
101 101
102 // Start from the end. 102 // Start from the end.
103 object previousTerm = array[array.Count - 1]; 103 object previousTerm = array[array.Count - 1];
104 object result = new ListPair(previousTerm, Atom.NIL); 104 object result = new ListPair(previousTerm, Atom.NIL);
105 for (int i = array.Count - 2; i >= 0; --i) 105 for (int i = array.Count - 2; i >= 0; --i)
106 { 106 {
107 object term = array[i]; 107 object term = array[i];
108 if (YP.termEqual(term, previousTerm)) 108 if (YP.termEqual(term, previousTerm))
109 continue; 109 continue;
110 result = new ListPair(term, result); 110 result = new ListPair(term, result);
111 previousTerm = term; 111 previousTerm = term;
112 } 112 }
113 return result; 113 return result;
114 } 114 }
115 115
116 public static object make(object element1) 116 public static object make(object element1)
117 { 117 {
118 return new ListPair(element1, Atom.NIL); 118 return new ListPair(element1, Atom.NIL);
119 } 119 }
120 120
121 public static object make(object element1, object element2) 121 public static object make(object element1, object element2)
122 { 122 {
123 return new ListPair(element1, new ListPair(element2, Atom.NIL)); 123 return new ListPair(element1, new ListPair(element2, Atom.NIL));
124 } 124 }
125 125
126 public static object make(object element1, object element2, object element3) 126 public static object make(object element1, object element2, object element3)
127 { 127 {
128 return new ListPair(element1, 128 return new ListPair(element1,
129 new ListPair(element2, new ListPair(element3, Atom.NIL))); 129 new ListPair(element2, new ListPair(element3, Atom.NIL)));
130 } 130 }
131 131
132 /// <summary> 132 /// <summary>
133 /// Return an array of the elements in list or null if it is not 133 /// Return an array of the elements in list or null if it is not
134 /// a proper list. If list is Atom.NIL, return an array of zero elements. 134 /// a proper list. If list is Atom.NIL, return an array of zero elements.
135 /// This does not call YP.getValue on each element. 135 /// This does not call YP.getValue on each element.
136 /// </summary> 136 /// </summary>
137 /// <param name="list"></param> 137 /// <param name="list"></param>
138 /// <returns></returns> 138 /// <returns></returns>
139 public static object[] toArray(object list) 139 public static object[] toArray(object list)
140 { 140 {
141 list = YP.getValue(list); 141 list = YP.getValue(list);
142 if (list.Equals(Atom.NIL)) 142 if (list.Equals(Atom.NIL))
143 return new object[0]; 143 return new object[0];
144 144
145 List<object> result = new List<object>(); 145 List<object> result = new List<object>();
146 for (object element = list; 146 for (object element = list;
147 element is Functor2 && ((Functor2)element)._name == Atom.DOT; 147 element is Functor2 && ((Functor2)element)._name == Atom.DOT;
148 element = YP.getValue(((Functor2)element)._arg2)) 148 element = YP.getValue(((Functor2)element)._arg2))
149 result.Add(((Functor2)element)._arg1); 149 result.Add(((Functor2)element)._arg1);
150 150
151 if (result.Count <= 0) 151 if (result.Count <= 0)
152 return null; 152 return null;
153 return result.ToArray(); 153 return result.ToArray();
154 } 154 }
155 } 155 }
156} 156}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Parser.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Parser.cs
index 7ef5c51..a21a471 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Parser.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Parser.cs
@@ -1,4457 +1,4457 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections.Generic; 32using System.Collections.Generic;
33 33
34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 34namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
35{ 35{
36 public class Parser 36 public class Parser
37 { 37 {
38 public static IEnumerable<bool> formatError(object Output, object Format, object Arguments) 38 public static IEnumerable<bool> formatError(object Output, object Format, object Arguments)
39 { 39 {
40 // Debug: Simple implementation for now. 40 // Debug: Simple implementation for now.
41 YP.write(Format); 41 YP.write(Format);
42 YP.write(Arguments); 42 YP.write(Arguments);
43 YP.nl(); 43 YP.nl();
44 yield return false; 44 yield return false;
45 } 45 }
46 46
47 // Debug: Hand-modify this central predicate to do tail recursion. 47 // Debug: Hand-modify this central predicate to do tail recursion.
48 public static IEnumerable<bool> read_tokens(object arg1, object arg2, object arg3) 48 public static IEnumerable<bool> read_tokens(object arg1, object arg2, object arg3)
49 { 49 {
50 bool repeat = true; 50 bool repeat = true;
51 while (repeat) 51 while (repeat)
52 { 52 {
53 repeat = false; 53 repeat = false;
54 { 54 {
55 object C1 = arg1; 55 object C1 = arg1;
56 object Dict = arg2; 56 object Dict = arg2;
57 object Tokens = arg3; 57 object Tokens = arg3;
58 Variable C2 = new Variable(); 58 Variable C2 = new Variable();
59 if (YP.lessThanOrEqual(C1, new ListPair(32, Atom.NIL))) 59 if (YP.lessThanOrEqual(C1, new ListPair(32, Atom.NIL)))
60 { 60 {
61 if (YP.greaterThanOrEqual(C1, 0)) 61 if (YP.greaterThanOrEqual(C1, 0))
62 { 62 {
63 foreach (bool l4 in YP.get_code(C2)) 63 foreach (bool l4 in YP.get_code(C2))
64 { 64 {
65#if false 65#if false
66 foreach (bool l5 in read_tokens(C2, Dict, Tokens)) 66 foreach (bool l5 in read_tokens(C2, Dict, Tokens))
67 { 67 {
68 yield return false; 68 yield return false;
69 } 69 }
70#endif 70#endif
71 arg1 = YP.getValue(C2); 71 arg1 = YP.getValue(C2);
72 arg2 = YP.getValue(Dict); 72 arg2 = YP.getValue(Dict);
73 arg3 = YP.getValue(Tokens); 73 arg3 = YP.getValue(Tokens);
74 repeat = true; 74 repeat = true;
75 } 75 }
76 } 76 }
77 goto cutIf1; 77 goto cutIf1;
78 } 78 }
79 if (YP.greaterThanOrEqual(C1, new ListPair(97, Atom.NIL))) 79 if (YP.greaterThanOrEqual(C1, new ListPair(97, Atom.NIL)))
80 { 80 {
81 if (YP.lessThanOrEqual(C1, new ListPair(122, Atom.NIL))) 81 if (YP.lessThanOrEqual(C1, new ListPair(122, Atom.NIL)))
82 { 82 {
83 foreach (bool l4 in read_identifier(C1, Dict, Tokens)) 83 foreach (bool l4 in read_identifier(C1, Dict, Tokens))
84 { 84 {
85 yield return false; 85 yield return false;
86 } 86 }
87 goto cutIf2; 87 goto cutIf2;
88 } 88 }
89 } 89 }
90 if (YP.greaterThanOrEqual(C1, new ListPair(65, Atom.NIL))) 90 if (YP.greaterThanOrEqual(C1, new ListPair(65, Atom.NIL)))
91 { 91 {
92 if (YP.lessThanOrEqual(C1, new ListPair(90, Atom.NIL))) 92 if (YP.lessThanOrEqual(C1, new ListPair(90, Atom.NIL)))
93 { 93 {
94 foreach (bool l4 in read_variable(C1, Dict, Tokens)) 94 foreach (bool l4 in read_variable(C1, Dict, Tokens))
95 { 95 {
96 yield return false; 96 yield return false;
97 } 97 }
98 goto cutIf3; 98 goto cutIf3;
99 } 99 }
100 } 100 }
101 if (YP.greaterThanOrEqual(C1, new ListPair(48, Atom.NIL))) 101 if (YP.greaterThanOrEqual(C1, new ListPair(48, Atom.NIL)))
102 { 102 {
103 if (YP.lessThanOrEqual(C1, new ListPair(57, Atom.NIL))) 103 if (YP.lessThanOrEqual(C1, new ListPair(57, Atom.NIL)))
104 { 104 {
105 foreach (bool l4 in read_number(C1, Dict, Tokens)) 105 foreach (bool l4 in read_number(C1, Dict, Tokens))
106 { 106 {
107 yield return false; 107 yield return false;
108 } 108 }
109 goto cutIf4; 109 goto cutIf4;
110 } 110 }
111 } 111 }
112 if (YP.lessThan(C1, 127)) 112 if (YP.lessThan(C1, 127))
113 { 113 {
114 foreach (bool l3 in read_special(C1, Dict, Tokens)) 114 foreach (bool l3 in read_special(C1, Dict, Tokens))
115 { 115 {
116 yield return false; 116 yield return false;
117 } 117 }
118 goto cutIf5; 118 goto cutIf5;
119 } 119 }
120 if (YP.lessThanOrEqual(C1, 160)) 120 if (YP.lessThanOrEqual(C1, 160))
121 { 121 {
122 foreach (bool l3 in YP.get_code(C2)) 122 foreach (bool l3 in YP.get_code(C2))
123 { 123 {
124#if false 124#if false
125 foreach (bool l4 in read_tokens(C2, Dict, Tokens)) 125 foreach (bool l4 in read_tokens(C2, Dict, Tokens))
126 { 126 {
127 yield return false; 127 yield return false;
128 } 128 }
129#endif 129#endif
130 arg1 = YP.getValue(C2); 130 arg1 = YP.getValue(C2);
131 arg2 = YP.getValue(Dict); 131 arg2 = YP.getValue(Dict);
132 arg3 = YP.getValue(Tokens); 132 arg3 = YP.getValue(Tokens);
133 repeat = true; 133 repeat = true;
134 } 134 }
135 goto cutIf6; 135 goto cutIf6;
136 } 136 }
137 if (YP.greaterThanOrEqual(C1, 223)) 137 if (YP.greaterThanOrEqual(C1, 223))
138 { 138 {
139 if (YP.notEqual(C1, 247)) 139 if (YP.notEqual(C1, 247))
140 { 140 {
141 foreach (bool l4 in read_identifier(C1, Dict, Tokens)) 141 foreach (bool l4 in read_identifier(C1, Dict, Tokens))
142 { 142 {
143 yield return false; 143 yield return false;
144 } 144 }
145 goto cutIf7; 145 goto cutIf7;
146 } 146 }
147 } 147 }
148 if (YP.greaterThanOrEqual(C1, 192)) 148 if (YP.greaterThanOrEqual(C1, 192))
149 { 149 {
150 if (YP.notEqual(C1, 215)) 150 if (YP.notEqual(C1, 215))
151 { 151 {
152 foreach (bool l4 in read_variable(C1, Dict, Tokens)) 152 foreach (bool l4 in read_variable(C1, Dict, Tokens))
153 { 153 {
154 yield return false; 154 yield return false;
155 } 155 }
156 goto cutIf8; 156 goto cutIf8;
157 } 157 }
158 } 158 }
159 if (YP.notEqual(C1, 170)) 159 if (YP.notEqual(C1, 170))
160 { 160 {
161 if (YP.notEqual(C1, 186)) 161 if (YP.notEqual(C1, 186))
162 { 162 {
163 foreach (bool l4 in read_symbol(C1, Dict, Tokens)) 163 foreach (bool l4 in read_symbol(C1, Dict, Tokens))
164 { 164 {
165 yield return false; 165 yield return false;
166 } 166 }
167 goto cutIf9; 167 goto cutIf9;
168 } 168 }
169 } 169 }
170 foreach (bool l2 in read_identifier(C1, Dict, Tokens)) 170 foreach (bool l2 in read_identifier(C1, Dict, Tokens))
171 { 171 {
172 yield return false; 172 yield return false;
173 } 173 }
174 cutIf9: 174 cutIf9:
175 cutIf8: 175 cutIf8:
176 cutIf7: 176 cutIf7:
177 cutIf6: 177 cutIf6:
178 cutIf5: 178 cutIf5:
179 cutIf4: 179 cutIf4:
180 cutIf3: 180 cutIf3:
181 cutIf2: 181 cutIf2:
182 cutIf1: 182 cutIf1:
183 { } 183 { }
184 } 184 }
185 } 185 }
186 } 186 }
187 187
188 // Compiler output follows. 188 // Compiler output follows.
189 189
190 class YPInnerClass { } 190 class YPInnerClass { }
191 static Type getDeclaringClass() { return typeof(YPInnerClass).DeclaringType; } 191 static Type getDeclaringClass() { return typeof(YPInnerClass).DeclaringType; }
192 192
193 public static IEnumerable<bool> parseInput(object TermList) 193 public static IEnumerable<bool> parseInput(object TermList)
194 { 194 {
195 { 195 {
196 Variable TermAndVariables = new Variable(); 196 Variable TermAndVariables = new Variable();
197 FindallAnswers findallAnswers1 = new FindallAnswers(TermAndVariables); 197 FindallAnswers findallAnswers1 = new FindallAnswers(TermAndVariables);
198 foreach (bool l2 in parseInputHelper(TermAndVariables)) 198 foreach (bool l2 in parseInputHelper(TermAndVariables))
199 { 199 {
200 findallAnswers1.add(); 200 findallAnswers1.add();
201 } 201 }
202 foreach (bool l2 in findallAnswers1.result(TermList)) 202 foreach (bool l2 in findallAnswers1.result(TermList))
203 { 203 {
204 yield return false; 204 yield return false;
205 } 205 }
206 } 206 }
207 } 207 }
208 208
209 public static IEnumerable<bool> parseInputHelper(object arg1) 209 public static IEnumerable<bool> parseInputHelper(object arg1)
210 { 210 {
211 { 211 {
212 Variable Term = new Variable(); 212 Variable Term = new Variable();
213 Variable Variables = new Variable(); 213 Variable Variables = new Variable();
214 Variable Answer = new Variable(); 214 Variable Answer = new Variable();
215 Variable x4 = new Variable(); 215 Variable x4 = new Variable();
216 foreach (bool l2 in YP.unify(arg1, new Functor2(@"f", Term, Variables))) 216 foreach (bool l2 in YP.unify(arg1, new Functor2(@"f", Term, Variables)))
217 { 217 {
218 foreach (bool l3 in YP.repeat()) 218 foreach (bool l3 in YP.repeat())
219 { 219 {
220 foreach (bool l4 in portable_read3(Answer, Variables, x4)) 220 foreach (bool l4 in portable_read3(Answer, Variables, x4))
221 { 221 {
222 foreach (bool l5 in remove_pos(Answer, Term)) 222 foreach (bool l5 in remove_pos(Answer, Term))
223 { 223 {
224 if (YP.termEqual(Term, Atom.a(@"end_of_file"))) 224 if (YP.termEqual(Term, Atom.a(@"end_of_file")))
225 { 225 {
226 yield break; 226 yield break;
227 goto cutIf1; 227 goto cutIf1;
228 } 228 }
229 yield return false; 229 yield return false;
230 cutIf1: 230 cutIf1:
231 { } 231 { }
232 } 232 }
233 } 233 }
234 } 234 }
235 } 235 }
236 } 236 }
237 } 237 }
238 238
239 public static IEnumerable<bool> clear_errors() 239 public static IEnumerable<bool> clear_errors()
240 { 240 {
241 { 241 {
242 yield return false; 242 yield return false;
243 } 243 }
244 } 244 }
245 245
246 public static IEnumerable<bool> remove_pos(object arg1, object arg2) 246 public static IEnumerable<bool> remove_pos(object arg1, object arg2)
247 { 247 {
248 { 248 {
249 Variable X = new Variable(); 249 Variable X = new Variable();
250 foreach (bool l2 in YP.unify(arg1, X)) 250 foreach (bool l2 in YP.unify(arg1, X))
251 { 251 {
252 foreach (bool l3 in YP.unify(arg2, X)) 252 foreach (bool l3 in YP.unify(arg2, X))
253 { 253 {
254 if (YP.var(X)) 254 if (YP.var(X))
255 { 255 {
256 yield return true; 256 yield return true;
257 yield break; 257 yield break;
258 } 258 }
259 } 259 }
260 } 260 }
261 } 261 }
262 { 262 {
263 object X = arg2; 263 object X = arg2;
264 Variable _Pos = new Variable(); 264 Variable _Pos = new Variable();
265 Variable _Name = new Variable(); 265 Variable _Name = new Variable();
266 foreach (bool l2 in YP.unify(arg1, new Functor3(@"$VAR", _Pos, _Name, X))) 266 foreach (bool l2 in YP.unify(arg1, new Functor3(@"$VAR", _Pos, _Name, X)))
267 { 267 {
268 if (YP.var(X)) 268 if (YP.var(X))
269 { 269 {
270 yield return true; 270 yield return true;
271 yield break; 271 yield break;
272 } 272 }
273 } 273 }
274 } 274 }
275 { 275 {
276 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 276 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
277 { 277 {
278 foreach (bool l3 in YP.unify(arg2, Atom.NIL)) 278 foreach (bool l3 in YP.unify(arg2, Atom.NIL))
279 { 279 {
280 yield return true; 280 yield return true;
281 yield break; 281 yield break;
282 } 282 }
283 } 283 }
284 } 284 }
285 { 285 {
286 Variable H = new Variable(); 286 Variable H = new Variable();
287 Variable T = new Variable(); 287 Variable T = new Variable();
288 Variable NH = new Variable(); 288 Variable NH = new Variable();
289 Variable NT = new Variable(); 289 Variable NT = new Variable();
290 foreach (bool l2 in YP.unify(arg1, new ListPair(H, T))) 290 foreach (bool l2 in YP.unify(arg1, new ListPair(H, T)))
291 { 291 {
292 foreach (bool l3 in YP.unify(arg2, new ListPair(NH, NT))) 292 foreach (bool l3 in YP.unify(arg2, new ListPair(NH, NT)))
293 { 293 {
294 foreach (bool l4 in remove_pos(H, NH)) 294 foreach (bool l4 in remove_pos(H, NH))
295 { 295 {
296 foreach (bool l5 in remove_pos(T, NT)) 296 foreach (bool l5 in remove_pos(T, NT))
297 { 297 {
298 yield return false; 298 yield return false;
299 } 299 }
300 } 300 }
301 yield break; 301 yield break;
302 } 302 }
303 } 303 }
304 } 304 }
305 { 305 {
306 Variable A = new Variable(); 306 Variable A = new Variable();
307 Variable B = new Variable(); 307 Variable B = new Variable();
308 Variable NA = new Variable(); 308 Variable NA = new Variable();
309 Variable NB = new Variable(); 309 Variable NB = new Variable();
310 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B))) 310 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B)))
311 { 311 {
312 foreach (bool l3 in YP.unify(arg2, new Functor2(@",", NA, NB))) 312 foreach (bool l3 in YP.unify(arg2, new Functor2(@",", NA, NB)))
313 { 313 {
314 foreach (bool l4 in remove_pos(A, NA)) 314 foreach (bool l4 in remove_pos(A, NA))
315 { 315 {
316 foreach (bool l5 in remove_pos(B, NB)) 316 foreach (bool l5 in remove_pos(B, NB))
317 { 317 {
318 yield return false; 318 yield return false;
319 } 319 }
320 } 320 }
321 yield break; 321 yield break;
322 } 322 }
323 } 323 }
324 } 324 }
325 { 325 {
326 Variable Atom_1 = new Variable(); 326 Variable Atom_1 = new Variable();
327 Variable _F = new Variable(); 327 Variable _F = new Variable();
328 foreach (bool l2 in YP.unify(arg1, Atom_1)) 328 foreach (bool l2 in YP.unify(arg1, Atom_1))
329 { 329 {
330 foreach (bool l3 in YP.unify(arg2, Atom_1)) 330 foreach (bool l3 in YP.unify(arg2, Atom_1))
331 { 331 {
332 foreach (bool l4 in YP.functor(Atom_1, _F, 0)) 332 foreach (bool l4 in YP.functor(Atom_1, _F, 0))
333 { 333 {
334 yield return false; 334 yield return false;
335 } 335 }
336 } 336 }
337 } 337 }
338 } 338 }
339 { 339 {
340 object Term = arg1; 340 object Term = arg1;
341 object NewTerm = arg2; 341 object NewTerm = arg2;
342 Variable Func = new Variable(); 342 Variable Func = new Variable();
343 Variable _Pos = new Variable(); 343 Variable _Pos = new Variable();
344 Variable Args = new Variable(); 344 Variable Args = new Variable();
345 Variable NArgs = new Variable(); 345 Variable NArgs = new Variable();
346 if (YP.nonvar(Term)) 346 if (YP.nonvar(Term))
347 { 347 {
348 foreach (bool l3 in YP.univ(Term, new ListPair(Func, new ListPair(_Pos, Args)))) 348 foreach (bool l3 in YP.univ(Term, new ListPair(Func, new ListPair(_Pos, Args))))
349 { 349 {
350 foreach (bool l4 in remove_pos(Args, NArgs)) 350 foreach (bool l4 in remove_pos(Args, NArgs))
351 { 351 {
352 foreach (bool l5 in YP.univ(NewTerm, new ListPair(Func, NArgs))) 352 foreach (bool l5 in YP.univ(NewTerm, new ListPair(Func, NArgs)))
353 { 353 {
354 yield return false; 354 yield return false;
355 } 355 }
356 } 356 }
357 } 357 }
358 } 358 }
359 } 359 }
360 } 360 }
361 361
362 public static IEnumerable<bool> portable_read_position(object Term, object PosTerm, object Syntax) 362 public static IEnumerable<bool> portable_read_position(object Term, object PosTerm, object Syntax)
363 { 363 {
364 { 364 {
365 foreach (bool l2 in portable_read(PosTerm, Syntax)) 365 foreach (bool l2 in portable_read(PosTerm, Syntax))
366 { 366 {
367 foreach (bool l3 in remove_pos(PosTerm, Term)) 367 foreach (bool l3 in remove_pos(PosTerm, Term))
368 { 368 {
369 yield return false; 369 yield return false;
370 } 370 }
371 } 371 }
372 } 372 }
373 } 373 }
374 374
375 public static IEnumerable<bool> portable_read(object Answer, object Syntax) 375 public static IEnumerable<bool> portable_read(object Answer, object Syntax)
376 { 376 {
377 { 377 {
378 Variable Tokens = new Variable(); 378 Variable Tokens = new Variable();
379 Variable ParseTokens = new Variable(); 379 Variable ParseTokens = new Variable();
380 foreach (bool l2 in read_tokens1(Tokens)) 380 foreach (bool l2 in read_tokens1(Tokens))
381 { 381 {
382 foreach (bool l3 in remove_comments(Tokens, ParseTokens, Syntax)) 382 foreach (bool l3 in remove_comments(Tokens, ParseTokens, Syntax))
383 { 383 {
384 foreach (bool l4 in parse2(ParseTokens, Answer)) 384 foreach (bool l4 in parse2(ParseTokens, Answer))
385 { 385 {
386 yield return false; 386 yield return false;
387 } 387 }
388 } 388 }
389 } 389 }
390 } 390 }
391 } 391 }
392 392
393 public static IEnumerable<bool> portable_read3(object Answer, object Variables, object Syntax) 393 public static IEnumerable<bool> portable_read3(object Answer, object Variables, object Syntax)
394 { 394 {
395 { 395 {
396 Variable Tokens = new Variable(); 396 Variable Tokens = new Variable();
397 Variable ParseTokens = new Variable(); 397 Variable ParseTokens = new Variable();
398 foreach (bool l2 in read_tokens2(Tokens, Variables)) 398 foreach (bool l2 in read_tokens2(Tokens, Variables))
399 { 399 {
400 foreach (bool l3 in remove_comments(Tokens, ParseTokens, Syntax)) 400 foreach (bool l3 in remove_comments(Tokens, ParseTokens, Syntax))
401 { 401 {
402 foreach (bool l4 in parse2(ParseTokens, Answer)) 402 foreach (bool l4 in parse2(ParseTokens, Answer))
403 { 403 {
404 yield return false; 404 yield return false;
405 } 405 }
406 } 406 }
407 } 407 }
408 } 408 }
409 } 409 }
410 410
411 public static IEnumerable<bool> remove_comments(object arg1, object arg2, object arg3) 411 public static IEnumerable<bool> remove_comments(object arg1, object arg2, object arg3)
412 { 412 {
413 { 413 {
414 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 414 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
415 { 415 {
416 foreach (bool l3 in YP.unify(arg2, Atom.NIL)) 416 foreach (bool l3 in YP.unify(arg2, Atom.NIL))
417 { 417 {
418 foreach (bool l4 in YP.unify(arg3, Atom.NIL)) 418 foreach (bool l4 in YP.unify(arg3, Atom.NIL))
419 { 419 {
420 yield return false; 420 yield return false;
421 } 421 }
422 } 422 }
423 } 423 }
424 } 424 }
425 { 425 {
426 object Ys = arg2; 426 object Ys = arg2;
427 Variable S = new Variable(); 427 Variable S = new Variable();
428 Variable E = new Variable(); 428 Variable E = new Variable();
429 Variable Xs = new Variable(); 429 Variable Xs = new Variable();
430 Variable Zs = new Variable(); 430 Variable Zs = new Variable();
431 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"comment", S, E), Xs))) 431 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"comment", S, E), Xs)))
432 { 432 {
433 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"comment", S, E), Zs))) 433 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"comment", S, E), Zs)))
434 { 434 {
435 foreach (bool l4 in remove_comments(Xs, Ys, Zs)) 435 foreach (bool l4 in remove_comments(Xs, Ys, Zs))
436 { 436 {
437 yield return false; 437 yield return false;
438 } 438 }
439 yield break; 439 yield break;
440 } 440 }
441 } 441 }
442 } 442 }
443 { 443 {
444 Variable Pos = new Variable(); 444 Variable Pos = new Variable();
445 Variable Xs = new Variable(); 445 Variable Xs = new Variable();
446 Variable Ys = new Variable(); 446 Variable Ys = new Variable();
447 Variable Pos2 = new Variable(); 447 Variable Pos2 = new Variable();
448 Variable Zs = new Variable(); 448 Variable Zs = new Variable();
449 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"/", Atom.a(@"["), Pos), Xs))) 449 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"/", Atom.a(@"["), Pos), Xs)))
450 { 450 {
451 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"["), Ys))) 451 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"["), Ys)))
452 { 452 {
453 foreach (bool l4 in YP.unify(arg3, new ListPair(new Functor2(@"list", Pos, Pos2), Zs))) 453 foreach (bool l4 in YP.unify(arg3, new ListPair(new Functor2(@"list", Pos, Pos2), Zs)))
454 { 454 {
455 foreach (bool l5 in YP.unify(Pos2, YP.add(Pos, 1))) 455 foreach (bool l5 in YP.unify(Pos2, YP.add(Pos, 1)))
456 { 456 {
457 foreach (bool l6 in remove_comments(Xs, Ys, Zs)) 457 foreach (bool l6 in remove_comments(Xs, Ys, Zs))
458 { 458 {
459 yield return false; 459 yield return false;
460 } 460 }
461 } 461 }
462 yield break; 462 yield break;
463 } 463 }
464 } 464 }
465 } 465 }
466 } 466 }
467 { 467 {
468 Variable Pos = new Variable(); 468 Variable Pos = new Variable();
469 Variable Xs = new Variable(); 469 Variable Xs = new Variable();
470 Variable Ys = new Variable(); 470 Variable Ys = new Variable();
471 Variable Pos2 = new Variable(); 471 Variable Pos2 = new Variable();
472 Variable Zs = new Variable(); 472 Variable Zs = new Variable();
473 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"/", Atom.a(@"]"), Pos), Xs))) 473 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"/", Atom.a(@"]"), Pos), Xs)))
474 { 474 {
475 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"]"), Ys))) 475 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"]"), Ys)))
476 { 476 {
477 foreach (bool l4 in YP.unify(arg3, new ListPair(new Functor2(@"list", Pos, Pos2), Zs))) 477 foreach (bool l4 in YP.unify(arg3, new ListPair(new Functor2(@"list", Pos, Pos2), Zs)))
478 { 478 {
479 foreach (bool l5 in YP.unify(Pos2, YP.add(Pos, 1))) 479 foreach (bool l5 in YP.unify(Pos2, YP.add(Pos, 1)))
480 { 480 {
481 foreach (bool l6 in remove_comments(Xs, Ys, Zs)) 481 foreach (bool l6 in remove_comments(Xs, Ys, Zs))
482 { 482 {
483 yield return false; 483 yield return false;
484 } 484 }
485 } 485 }
486 yield break; 486 yield break;
487 } 487 }
488 } 488 }
489 } 489 }
490 } 490 }
491 { 491 {
492 object Zs = arg3; 492 object Zs = arg3;
493 Variable Token = new Variable(); 493 Variable Token = new Variable();
494 Variable Xs = new Variable(); 494 Variable Xs = new Variable();
495 Variable Ys = new Variable(); 495 Variable Ys = new Variable();
496 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, Xs))) 496 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, Xs)))
497 { 497 {
498 foreach (bool l3 in YP.unify(arg2, new ListPair(Token, Ys))) 498 foreach (bool l3 in YP.unify(arg2, new ListPair(Token, Ys)))
499 { 499 {
500 foreach (bool l4 in remove_comments(Xs, Ys, Zs)) 500 foreach (bool l4 in remove_comments(Xs, Ys, Zs))
501 { 501 {
502 yield return false; 502 yield return false;
503 } 503 }
504 } 504 }
505 } 505 }
506 } 506 }
507 } 507 }
508 508
509 public static IEnumerable<bool> expect(object Token, object arg2, object arg3) 509 public static IEnumerable<bool> expect(object Token, object arg2, object arg3)
510 { 510 {
511 { 511 {
512 object Rest = arg3; 512 object Rest = arg3;
513 foreach (bool l2 in YP.unify(arg2, new ListPair(Token, Rest))) 513 foreach (bool l2 in YP.unify(arg2, new ListPair(Token, Rest)))
514 { 514 {
515 yield return true; 515 yield return true;
516 yield break; 516 yield break;
517 } 517 }
518 } 518 }
519 { 519 {
520 object S0 = arg2; 520 object S0 = arg2;
521 object x3 = arg3; 521 object x3 = arg3;
522 foreach (bool l2 in syntax_error(new ListPair(Token, new ListPair(Atom.a(@"or"), new ListPair(Atom.a(@"operator"), new ListPair(Atom.a(@"expected"), Atom.NIL)))), S0)) 522 foreach (bool l2 in syntax_error(new ListPair(Token, new ListPair(Atom.a(@"or"), new ListPair(Atom.a(@"operator"), new ListPair(Atom.a(@"expected"), Atom.NIL)))), S0))
523 { 523 {
524 yield return false; 524 yield return false;
525 } 525 }
526 } 526 }
527 } 527 }
528 528
529 public static IEnumerable<bool> parse2(object Tokens, object Answer) 529 public static IEnumerable<bool> parse2(object Tokens, object Answer)
530 { 530 {
531 { 531 {
532 Variable Term = new Variable(); 532 Variable Term = new Variable();
533 Variable LeftOver = new Variable(); 533 Variable LeftOver = new Variable();
534 foreach (bool l2 in clear_errors()) 534 foreach (bool l2 in clear_errors())
535 { 535 {
536 foreach (bool l3 in parse(Tokens, 1200, Term, LeftOver)) 536 foreach (bool l3 in parse(Tokens, 1200, Term, LeftOver))
537 { 537 {
538 foreach (bool l4 in all_read(LeftOver)) 538 foreach (bool l4 in all_read(LeftOver))
539 { 539 {
540 foreach (bool l5 in YP.unify(Answer, Term)) 540 foreach (bool l5 in YP.unify(Answer, Term))
541 { 541 {
542 yield return false; 542 yield return false;
543 } 543 }
544 yield break; 544 yield break;
545 } 545 }
546 } 546 }
547 foreach (bool l3 in syntax_error(Tokens)) 547 foreach (bool l3 in syntax_error(Tokens))
548 { 548 {
549 yield return false; 549 yield return false;
550 } 550 }
551 } 551 }
552 } 552 }
553 } 553 }
554 554
555 public static IEnumerable<bool> all_read(object arg1) 555 public static IEnumerable<bool> all_read(object arg1)
556 { 556 {
557 { 557 {
558 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 558 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
559 { 559 {
560 yield return false; 560 yield return false;
561 } 561 }
562 } 562 }
563 { 563 {
564 Variable Token = new Variable(); 564 Variable Token = new Variable();
565 Variable S = new Variable(); 565 Variable S = new Variable();
566 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, S))) 566 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, S)))
567 { 567 {
568 foreach (bool l3 in syntax_error(new ListPair(Atom.a(@"operator"), new ListPair(Atom.a(@"expected"), new ListPair(Atom.a(@"after"), new ListPair(Atom.a(@"expression"), Atom.NIL)))), new ListPair(Token, S))) 568 foreach (bool l3 in syntax_error(new ListPair(Atom.a(@"operator"), new ListPair(Atom.a(@"expected"), new ListPair(Atom.a(@"after"), new ListPair(Atom.a(@"expression"), Atom.NIL)))), new ListPair(Token, S)))
569 { 569 {
570 yield return false; 570 yield return false;
571 } 571 }
572 } 572 }
573 } 573 }
574 } 574 }
575 575
576 public static IEnumerable<bool> parse(object arg1, object arg2, object arg3, object arg4) 576 public static IEnumerable<bool> parse(object arg1, object arg2, object arg3, object arg4)
577 { 577 {
578 { 578 {
579 object x1 = arg2; 579 object x1 = arg2;
580 object x2 = arg3; 580 object x2 = arg3;
581 object x3 = arg4; 581 object x3 = arg4;
582 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 582 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
583 { 583 {
584 foreach (bool l3 in syntax_error(new ListPair(Atom.a(@"expression"), new ListPair(Atom.a(@"expected"), Atom.NIL)), Atom.NIL)) 584 foreach (bool l3 in syntax_error(new ListPair(Atom.a(@"expression"), new ListPair(Atom.a(@"expected"), Atom.NIL)), Atom.NIL))
585 { 585 {
586 yield return false; 586 yield return false;
587 } 587 }
588 } 588 }
589 } 589 }
590 { 590 {
591 object Precedence = arg2; 591 object Precedence = arg2;
592 object Term = arg3; 592 object Term = arg3;
593 object LeftOver = arg4; 593 object LeftOver = arg4;
594 Variable Token = new Variable(); 594 Variable Token = new Variable();
595 Variable RestTokens = new Variable(); 595 Variable RestTokens = new Variable();
596 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, RestTokens))) 596 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, RestTokens)))
597 { 597 {
598 foreach (bool l3 in parse5(Token, RestTokens, Precedence, Term, LeftOver)) 598 foreach (bool l3 in parse5(Token, RestTokens, Precedence, Term, LeftOver))
599 { 599 {
600 yield return false; 600 yield return false;
601 } 601 }
602 } 602 }
603 } 603 }
604 } 604 }
605 605
606 public static IEnumerable<bool> parse5(object arg1, object arg2, object arg3, object arg4, object arg5) 606 public static IEnumerable<bool> parse5(object arg1, object arg2, object arg3, object arg4, object arg5)
607 { 607 {
608 { 608 {
609 object S0 = arg2; 609 object S0 = arg2;
610 object x2 = arg3; 610 object x2 = arg3;
611 object x3 = arg4; 611 object x3 = arg4;
612 object x4 = arg5; 612 object x4 = arg5;
613 foreach (bool l2 in YP.unify(arg1, Atom.a(@"}"))) 613 foreach (bool l2 in YP.unify(arg1, Atom.a(@"}")))
614 { 614 {
615 foreach (bool l3 in cannot_start(Atom.a(@"}"), S0)) 615 foreach (bool l3 in cannot_start(Atom.a(@"}"), S0))
616 { 616 {
617 yield return false; 617 yield return false;
618 } 618 }
619 } 619 }
620 } 620 }
621 { 621 {
622 object S0 = arg2; 622 object S0 = arg2;
623 object x2 = arg3; 623 object x2 = arg3;
624 object x3 = arg4; 624 object x3 = arg4;
625 object x4 = arg5; 625 object x4 = arg5;
626 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]"))) 626 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]")))
627 { 627 {
628 foreach (bool l3 in cannot_start(Atom.a(@"]"), S0)) 628 foreach (bool l3 in cannot_start(Atom.a(@"]"), S0))
629 { 629 {
630 yield return false; 630 yield return false;
631 } 631 }
632 } 632 }
633 } 633 }
634 { 634 {
635 object S0 = arg2; 635 object S0 = arg2;
636 object x2 = arg3; 636 object x2 = arg3;
637 object x3 = arg4; 637 object x3 = arg4;
638 object x4 = arg5; 638 object x4 = arg5;
639 foreach (bool l2 in YP.unify(arg1, Atom.a(@")"))) 639 foreach (bool l2 in YP.unify(arg1, Atom.a(@")")))
640 { 640 {
641 foreach (bool l3 in cannot_start(Atom.a(@")"), S0)) 641 foreach (bool l3 in cannot_start(Atom.a(@")"), S0))
642 { 642 {
643 yield return false; 643 yield return false;
644 } 644 }
645 } 645 }
646 } 646 }
647 { 647 {
648 object S0 = arg2; 648 object S0 = arg2;
649 object x2 = arg3; 649 object x2 = arg3;
650 object x3 = arg4; 650 object x3 = arg4;
651 object x4 = arg5; 651 object x4 = arg5;
652 foreach (bool l2 in YP.unify(arg1, Atom.a(@","))) 652 foreach (bool l2 in YP.unify(arg1, Atom.a(@",")))
653 { 653 {
654 foreach (bool l3 in cannot_start(Atom.a(@","), S0)) 654 foreach (bool l3 in cannot_start(Atom.a(@","), S0))
655 { 655 {
656 yield return false; 656 yield return false;
657 } 657 }
658 } 658 }
659 } 659 }
660 { 660 {
661 object S0 = arg2; 661 object S0 = arg2;
662 object x2 = arg3; 662 object x2 = arg3;
663 object x3 = arg4; 663 object x3 = arg4;
664 object x4 = arg5; 664 object x4 = arg5;
665 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|"))) 665 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|")))
666 { 666 {
667 foreach (bool l3 in cannot_start(Atom.a(@"|"), S0)) 667 foreach (bool l3 in cannot_start(Atom.a(@"|"), S0))
668 { 668 {
669 yield return false; 669 yield return false;
670 } 670 }
671 } 671 }
672 } 672 }
673 { 673 {
674 object S0 = arg2; 674 object S0 = arg2;
675 object Precedence = arg3; 675 object Precedence = arg3;
676 object Answer = arg4; 676 object Answer = arg4;
677 object S = arg5; 677 object S = arg5;
678 Variable Chars = new Variable(); 678 Variable Chars = new Variable();
679 foreach (bool l2 in YP.unify(arg1, new Functor1(@"string", Chars))) 679 foreach (bool l2 in YP.unify(arg1, new Functor1(@"string", Chars)))
680 { 680 {
681 foreach (bool l3 in exprtl0(S0, Chars, Precedence, Answer, S)) 681 foreach (bool l3 in exprtl0(S0, Chars, Precedence, Answer, S))
682 { 682 {
683 yield return false; 683 yield return false;
684 } 684 }
685 } 685 }
686 } 686 }
687 { 687 {
688 object S0 = arg2; 688 object S0 = arg2;
689 object Precedence = arg3; 689 object Precedence = arg3;
690 object Answer = arg4; 690 object Answer = arg4;
691 object S = arg5; 691 object S = arg5;
692 Variable Number = new Variable(); 692 Variable Number = new Variable();
693 foreach (bool l2 in YP.unify(arg1, new Functor1(@"number", Number))) 693 foreach (bool l2 in YP.unify(arg1, new Functor1(@"number", Number)))
694 { 694 {
695 foreach (bool l3 in exprtl0(S0, Number, Precedence, Answer, S)) 695 foreach (bool l3 in exprtl0(S0, Number, Precedence, Answer, S))
696 { 696 {
697 yield return false; 697 yield return false;
698 } 698 }
699 } 699 }
700 } 700 }
701 { 701 {
702 object Precedence = arg3; 702 object Precedence = arg3;
703 object Answer = arg4; 703 object Answer = arg4;
704 object S = arg5; 704 object S = arg5;
705 Variable S1 = new Variable(); 705 Variable S1 = new Variable();
706 foreach (bool l2 in YP.unify(arg1, Atom.a(@"["))) 706 foreach (bool l2 in YP.unify(arg1, Atom.a(@"[")))
707 { 707 {
708 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"]"), S1))) 708 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"]"), S1)))
709 { 709 {
710 foreach (bool l4 in read_atom(new Functor2(@"/", Atom.NIL, 0), S1, Precedence, Answer, S)) 710 foreach (bool l4 in read_atom(new Functor2(@"/", Atom.NIL, 0), S1, Precedence, Answer, S))
711 { 711 {
712 yield return false; 712 yield return false;
713 } 713 }
714 yield break; 714 yield break;
715 } 715 }
716 } 716 }
717 } 717 }
718 { 718 {
719 object S1 = arg2; 719 object S1 = arg2;
720 object Precedence = arg3; 720 object Precedence = arg3;
721 object Answer = arg4; 721 object Answer = arg4;
722 object S = arg5; 722 object S = arg5;
723 Variable Arg1 = new Variable(); 723 Variable Arg1 = new Variable();
724 Variable S2 = new Variable(); 724 Variable S2 = new Variable();
725 Variable RestArgs = new Variable(); 725 Variable RestArgs = new Variable();
726 Variable S3 = new Variable(); 726 Variable S3 = new Variable();
727 foreach (bool l2 in YP.unify(arg1, Atom.a(@"["))) 727 foreach (bool l2 in YP.unify(arg1, Atom.a(@"[")))
728 { 728 {
729 foreach (bool l3 in parse(S1, 999, Arg1, S2)) 729 foreach (bool l3 in parse(S1, 999, Arg1, S2))
730 { 730 {
731 foreach (bool l4 in read_list(S2, RestArgs, S3)) 731 foreach (bool l4 in read_list(S2, RestArgs, S3))
732 { 732 {
733 foreach (bool l5 in exprtl0(S3, new ListPair(Arg1, RestArgs), Precedence, Answer, S)) 733 foreach (bool l5 in exprtl0(S3, new ListPair(Arg1, RestArgs), Precedence, Answer, S))
734 { 734 {
735 yield return false; 735 yield return false;
736 } 736 }
737 yield break; 737 yield break;
738 } 738 }
739 } 739 }
740 } 740 }
741 } 741 }
742 { 742 {
743 object S1 = arg2; 743 object S1 = arg2;
744 object Precedence = arg3; 744 object Precedence = arg3;
745 object Answer = arg4; 745 object Answer = arg4;
746 object S = arg5; 746 object S = arg5;
747 Variable Term = new Variable(); 747 Variable Term = new Variable();
748 Variable S2 = new Variable(); 748 Variable S2 = new Variable();
749 Variable S3 = new Variable(); 749 Variable S3 = new Variable();
750 foreach (bool l2 in YP.unify(arg1, Atom.a(@"("))) 750 foreach (bool l2 in YP.unify(arg1, Atom.a(@"(")))
751 { 751 {
752 foreach (bool l3 in parse(S1, 1200, Term, S2)) 752 foreach (bool l3 in parse(S1, 1200, Term, S2))
753 { 753 {
754 foreach (bool l4 in expect(Atom.a(@")"), S2, S3)) 754 foreach (bool l4 in expect(Atom.a(@")"), S2, S3))
755 { 755 {
756 foreach (bool l5 in exprtl0(S3, Term, Precedence, Answer, S)) 756 foreach (bool l5 in exprtl0(S3, Term, Precedence, Answer, S))
757 { 757 {
758 yield return false; 758 yield return false;
759 } 759 }
760 yield break; 760 yield break;
761 } 761 }
762 } 762 }
763 } 763 }
764 } 764 }
765 { 765 {
766 object S1 = arg2; 766 object S1 = arg2;
767 object Precedence = arg3; 767 object Precedence = arg3;
768 object Answer = arg4; 768 object Answer = arg4;
769 object S = arg5; 769 object S = arg5;
770 Variable Term = new Variable(); 770 Variable Term = new Variable();
771 Variable S2 = new Variable(); 771 Variable S2 = new Variable();
772 Variable S3 = new Variable(); 772 Variable S3 = new Variable();
773 foreach (bool l2 in YP.unify(arg1, Atom.a(@" ("))) 773 foreach (bool l2 in YP.unify(arg1, Atom.a(@" (")))
774 { 774 {
775 foreach (bool l3 in parse(S1, 1200, Term, S2)) 775 foreach (bool l3 in parse(S1, 1200, Term, S2))
776 { 776 {
777 foreach (bool l4 in expect(Atom.a(@")"), S2, S3)) 777 foreach (bool l4 in expect(Atom.a(@")"), S2, S3))
778 { 778 {
779 foreach (bool l5 in exprtl0(S3, Term, Precedence, Answer, S)) 779 foreach (bool l5 in exprtl0(S3, Term, Precedence, Answer, S))
780 { 780 {
781 yield return false; 781 yield return false;
782 } 782 }
783 yield break; 783 yield break;
784 } 784 }
785 } 785 }
786 } 786 }
787 } 787 }
788 { 788 {
789 object Precedence = arg3; 789 object Precedence = arg3;
790 object Answer = arg4; 790 object Answer = arg4;
791 object S = arg5; 791 object S = arg5;
792 Variable _Pos = new Variable(); 792 Variable _Pos = new Variable();
793 Variable S1 = new Variable(); 793 Variable S1 = new Variable();
794 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Atom.a(@"{"), _Pos))) 794 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Atom.a(@"{"), _Pos)))
795 { 795 {
796 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"}"), S1))) 796 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"}"), S1)))
797 { 797 {
798 foreach (bool l4 in read_atom(Atom.a(@"{}"), S1, Precedence, Answer, S)) 798 foreach (bool l4 in read_atom(Atom.a(@"{}"), S1, Precedence, Answer, S))
799 { 799 {
800 yield return false; 800 yield return false;
801 } 801 }
802 yield break; 802 yield break;
803 } 803 }
804 } 804 }
805 } 805 }
806 { 806 {
807 object S1 = arg2; 807 object S1 = arg2;
808 object Precedence = arg3; 808 object Precedence = arg3;
809 object Answer = arg4; 809 object Answer = arg4;
810 object S = arg5; 810 object S = arg5;
811 Variable Pos = new Variable(); 811 Variable Pos = new Variable();
812 Variable Term = new Variable(); 812 Variable Term = new Variable();
813 Variable S2 = new Variable(); 813 Variable S2 = new Variable();
814 Variable S3 = new Variable(); 814 Variable S3 = new Variable();
815 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Atom.a(@"{"), Pos))) 815 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Atom.a(@"{"), Pos)))
816 { 816 {
817 foreach (bool l3 in parse(S1, 1200, Term, S2)) 817 foreach (bool l3 in parse(S1, 1200, Term, S2))
818 { 818 {
819 foreach (bool l4 in expect(Atom.a(@"}"), S2, S3)) 819 foreach (bool l4 in expect(Atom.a(@"}"), S2, S3))
820 { 820 {
821 foreach (bool l5 in exprtl0(S3, new Functor2(@"{}", Pos, Term), Precedence, Answer, S)) 821 foreach (bool l5 in exprtl0(S3, new Functor2(@"{}", Pos, Term), Precedence, Answer, S))
822 { 822 {
823 yield return false; 823 yield return false;
824 } 824 }
825 yield break; 825 yield break;
826 } 826 }
827 } 827 }
828 } 828 }
829 } 829 }
830 { 830 {
831 object Precedence = arg3; 831 object Precedence = arg3;
832 object Answer = arg4; 832 object Answer = arg4;
833 object S = arg5; 833 object S = arg5;
834 Variable Variable_1 = new Variable(); 834 Variable Variable_1 = new Variable();
835 Variable Name = new Variable(); 835 Variable Name = new Variable();
836 Variable Pos = new Variable(); 836 Variable Pos = new Variable();
837 Variable S1 = new Variable(); 837 Variable S1 = new Variable();
838 Variable Arg1 = new Variable(); 838 Variable Arg1 = new Variable();
839 Variable S2 = new Variable(); 839 Variable S2 = new Variable();
840 Variable RestArgs = new Variable(); 840 Variable RestArgs = new Variable();
841 Variable S3 = new Variable(); 841 Variable S3 = new Variable();
842 Variable Term = new Variable(); 842 Variable Term = new Variable();
843 foreach (bool l2 in YP.unify(arg1, new Functor3(@"var", Variable_1, Name, Pos))) 843 foreach (bool l2 in YP.unify(arg1, new Functor3(@"var", Variable_1, Name, Pos)))
844 { 844 {
845 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"("), S1))) 845 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"("), S1)))
846 { 846 {
847 foreach (bool l4 in parse(S1, 999, Arg1, S2)) 847 foreach (bool l4 in parse(S1, 999, Arg1, S2))
848 { 848 {
849 foreach (bool l5 in read_args(S2, RestArgs, S3)) 849 foreach (bool l5 in read_args(S2, RestArgs, S3))
850 { 850 {
851 foreach (bool l6 in YP.univ(Term, new ListPair(Atom.a(@"call"), new ListPair(new Functor3(@"$VAR", Pos, Name, Variable_1), new ListPair(Arg1, RestArgs))))) 851 foreach (bool l6 in YP.univ(Term, new ListPair(Atom.a(@"call"), new ListPair(new Functor3(@"$VAR", Pos, Name, Variable_1), new ListPair(Arg1, RestArgs)))))
852 { 852 {
853 foreach (bool l7 in exprtl0(S3, Term, Precedence, Answer, S)) 853 foreach (bool l7 in exprtl0(S3, Term, Precedence, Answer, S))
854 { 854 {
855 yield return false; 855 yield return false;
856 } 856 }
857 } 857 }
858 yield break; 858 yield break;
859 } 859 }
860 } 860 }
861 yield break; 861 yield break;
862 } 862 }
863 } 863 }
864 } 864 }
865 { 865 {
866 object S0 = arg2; 866 object S0 = arg2;
867 object Precedence = arg3; 867 object Precedence = arg3;
868 object Answer = arg4; 868 object Answer = arg4;
869 object S = arg5; 869 object S = arg5;
870 Variable Variable_1 = new Variable(); 870 Variable Variable_1 = new Variable();
871 Variable Name = new Variable(); 871 Variable Name = new Variable();
872 Variable Pos = new Variable(); 872 Variable Pos = new Variable();
873 foreach (bool l2 in YP.unify(arg1, new Functor3(@"var", Variable_1, Name, Pos))) 873 foreach (bool l2 in YP.unify(arg1, new Functor3(@"var", Variable_1, Name, Pos)))
874 { 874 {
875 foreach (bool l3 in exprtl0(S0, new Functor3(@"$VAR", Pos, Name, Variable_1), Precedence, Answer, S)) 875 foreach (bool l3 in exprtl0(S0, new Functor3(@"$VAR", Pos, Name, Variable_1), Precedence, Answer, S))
876 { 876 {
877 yield return false; 877 yield return false;
878 } 878 }
879 } 879 }
880 } 880 }
881 { 881 {
882 object S0 = arg2; 882 object S0 = arg2;
883 object Precedence = arg3; 883 object Precedence = arg3;
884 object Answer = arg4; 884 object Answer = arg4;
885 object S = arg5; 885 object S = arg5;
886 Variable Atom_1 = new Variable(); 886 Variable Atom_1 = new Variable();
887 Variable P = new Variable(); 887 Variable P = new Variable();
888 foreach (bool l2 in YP.unify(arg1, new Functor2(@"atom", Atom_1, P))) 888 foreach (bool l2 in YP.unify(arg1, new Functor2(@"atom", Atom_1, P)))
889 { 889 {
890 foreach (bool l3 in read_atom(new Functor2(@"/", Atom_1, P), S0, Precedence, Answer, S)) 890 foreach (bool l3 in read_atom(new Functor2(@"/", Atom_1, P), S0, Precedence, Answer, S))
891 { 891 {
892 yield return false; 892 yield return false;
893 } 893 }
894 } 894 }
895 } 895 }
896 } 896 }
897 897
898 public static IEnumerable<bool> read_atom(object arg1, object arg2, object Precedence, object Answer, object S) 898 public static IEnumerable<bool> read_atom(object arg1, object arg2, object Precedence, object Answer, object S)
899 { 899 {
900 { 900 {
901 Variable _Pos = new Variable(); 901 Variable _Pos = new Variable();
902 Variable Number = new Variable(); 902 Variable Number = new Variable();
903 Variable S1 = new Variable(); 903 Variable S1 = new Variable();
904 Variable Negative = new Variable(); 904 Variable Negative = new Variable();
905 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Atom.a(@"-"), _Pos))) 905 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Atom.a(@"-"), _Pos)))
906 { 906 {
907 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor1(@"number", Number), S1))) 907 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor1(@"number", Number), S1)))
908 { 908 {
909 foreach (bool l4 in YP.unify(Negative, YP.negate(Number))) 909 foreach (bool l4 in YP.unify(Negative, YP.negate(Number)))
910 { 910 {
911 foreach (bool l5 in exprtl0(S1, Negative, Precedence, Answer, S)) 911 foreach (bool l5 in exprtl0(S1, Negative, Precedence, Answer, S))
912 { 912 {
913 yield return false; 913 yield return false;
914 } 914 }
915 } 915 }
916 yield break; 916 yield break;
917 } 917 }
918 } 918 }
919 } 919 }
920 { 920 {
921 Variable Functor_1 = new Variable(); 921 Variable Functor_1 = new Variable();
922 Variable Pos = new Variable(); 922 Variable Pos = new Variable();
923 Variable S1 = new Variable(); 923 Variable S1 = new Variable();
924 Variable Arg1 = new Variable(); 924 Variable Arg1 = new Variable();
925 Variable S2 = new Variable(); 925 Variable S2 = new Variable();
926 Variable RestArgs = new Variable(); 926 Variable RestArgs = new Variable();
927 Variable S3 = new Variable(); 927 Variable S3 = new Variable();
928 Variable Term = new Variable(); 928 Variable Term = new Variable();
929 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Functor_1, Pos))) 929 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Functor_1, Pos)))
930 { 930 {
931 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"("), S1))) 931 foreach (bool l3 in YP.unify(arg2, new ListPair(Atom.a(@"("), S1)))
932 { 932 {
933 foreach (bool l4 in parse(S1, 999, Arg1, S2)) 933 foreach (bool l4 in parse(S1, 999, Arg1, S2))
934 { 934 {
935 foreach (bool l5 in read_args(S2, RestArgs, S3)) 935 foreach (bool l5 in read_args(S2, RestArgs, S3))
936 { 936 {
937 foreach (bool l6 in YP.univ(Term, new ListPair(Functor_1, new ListPair(Pos, new ListPair(Arg1, RestArgs))))) 937 foreach (bool l6 in YP.univ(Term, new ListPair(Functor_1, new ListPair(Pos, new ListPair(Arg1, RestArgs)))))
938 { 938 {
939 foreach (bool l7 in exprtl0(S3, Term, Precedence, Answer, S)) 939 foreach (bool l7 in exprtl0(S3, Term, Precedence, Answer, S))
940 { 940 {
941 yield return false; 941 yield return false;
942 } 942 }
943 } 943 }
944 yield break; 944 yield break;
945 } 945 }
946 } 946 }
947 yield break; 947 yield break;
948 } 948 }
949 } 949 }
950 } 950 }
951 { 951 {
952 object S0 = arg2; 952 object S0 = arg2;
953 Variable Op = new Variable(); 953 Variable Op = new Variable();
954 Variable Pos = new Variable(); 954 Variable Pos = new Variable();
955 Variable Oprec = new Variable(); 955 Variable Oprec = new Variable();
956 Variable Aprec = new Variable(); 956 Variable Aprec = new Variable();
957 Variable Flag = new Variable(); 957 Variable Flag = new Variable();
958 Variable Term = new Variable(); 958 Variable Term = new Variable();
959 Variable Arg = new Variable(); 959 Variable Arg = new Variable();
960 Variable S1 = new Variable(); 960 Variable S1 = new Variable();
961 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Op, Pos))) 961 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Op, Pos)))
962 { 962 {
963 foreach (bool l3 in prefixop(Op, Oprec, Aprec)) 963 foreach (bool l3 in prefixop(Op, Oprec, Aprec))
964 { 964 {
965 foreach (bool l4 in possible_right_operand(S0, Flag)) 965 foreach (bool l4 in possible_right_operand(S0, Flag))
966 { 966 {
967 if (YP.lessThan(Flag, 0)) 967 if (YP.lessThan(Flag, 0))
968 { 968 {
969 foreach (bool l6 in YP.univ(Term, new ListPair(Op, new ListPair(Pos, Atom.NIL)))) 969 foreach (bool l6 in YP.univ(Term, new ListPair(Op, new ListPair(Pos, Atom.NIL))))
970 { 970 {
971 foreach (bool l7 in exprtl0(S0, Term, Precedence, Answer, S)) 971 foreach (bool l7 in exprtl0(S0, Term, Precedence, Answer, S))
972 { 972 {
973 yield return false; 973 yield return false;
974 } 974 }
975 } 975 }
976 goto cutIf1; 976 goto cutIf1;
977 } 977 }
978 if (YP.greaterThan(Oprec, Precedence)) 978 if (YP.greaterThan(Oprec, Precedence))
979 { 979 {
980 foreach (bool l6 in syntax_error(new ListPair(Atom.a(@"prefix"), new ListPair(Atom.a(@"operator"), new ListPair(Op, new ListPair(Atom.a(@"in"), new ListPair(Atom.a(@"context"), new ListPair(Atom.a(@"with"), new ListPair(Atom.a(@"precedence"), new ListPair(Precedence, Atom.NIL)))))))), S0)) 980 foreach (bool l6 in syntax_error(new ListPair(Atom.a(@"prefix"), new ListPair(Atom.a(@"operator"), new ListPair(Op, new ListPair(Atom.a(@"in"), new ListPair(Atom.a(@"context"), new ListPair(Atom.a(@"with"), new ListPair(Atom.a(@"precedence"), new ListPair(Precedence, Atom.NIL)))))))), S0))
981 { 981 {
982 yield return false; 982 yield return false;
983 } 983 }
984 goto cutIf2; 984 goto cutIf2;
985 } 985 }
986 if (YP.greaterThan(Flag, 0)) 986 if (YP.greaterThan(Flag, 0))
987 { 987 {
988 foreach (bool l6 in parse(S0, Aprec, Arg, S1)) 988 foreach (bool l6 in parse(S0, Aprec, Arg, S1))
989 { 989 {
990 foreach (bool l7 in YP.univ(Term, new ListPair(Op, new ListPair(Pos, new ListPair(Arg, Atom.NIL))))) 990 foreach (bool l7 in YP.univ(Term, new ListPair(Op, new ListPair(Pos, new ListPair(Arg, Atom.NIL)))))
991 { 991 {
992 foreach (bool l8 in exprtl(S1, Oprec, Term, Precedence, Answer, S)) 992 foreach (bool l8 in exprtl(S1, Oprec, Term, Precedence, Answer, S))
993 { 993 {
994 yield return false; 994 yield return false;
995 } 995 }
996 } 996 }
997 yield break; 997 yield break;
998 } 998 }
999 goto cutIf3; 999 goto cutIf3;
1000 } 1000 }
1001 foreach (bool l5 in peepop(S0, S1)) 1001 foreach (bool l5 in peepop(S0, S1))
1002 { 1002 {
1003 foreach (bool l6 in prefix_is_atom(S1, Oprec)) 1003 foreach (bool l6 in prefix_is_atom(S1, Oprec))
1004 { 1004 {
1005 foreach (bool l7 in exprtl(S1, Oprec, new Functor2(@"/", Op, Pos), Precedence, Answer, S)) 1005 foreach (bool l7 in exprtl(S1, Oprec, new Functor2(@"/", Op, Pos), Precedence, Answer, S))
1006 { 1006 {
1007 yield return false; 1007 yield return false;
1008 } 1008 }
1009 } 1009 }
1010 } 1010 }
1011 foreach (bool l5 in parse(S0, Aprec, Arg, S1)) 1011 foreach (bool l5 in parse(S0, Aprec, Arg, S1))
1012 { 1012 {
1013 foreach (bool l6 in YP.univ(Term, new ListPair(Op, new ListPair(Pos, new ListPair(Arg, Atom.NIL))))) 1013 foreach (bool l6 in YP.univ(Term, new ListPair(Op, new ListPair(Pos, new ListPair(Arg, Atom.NIL)))))
1014 { 1014 {
1015 foreach (bool l7 in exprtl(S1, Oprec, Term, Precedence, Answer, S)) 1015 foreach (bool l7 in exprtl(S1, Oprec, Term, Precedence, Answer, S))
1016 { 1016 {
1017 yield return false; 1017 yield return false;
1018 } 1018 }
1019 } 1019 }
1020 yield break; 1020 yield break;
1021 } 1021 }
1022 cutIf3: 1022 cutIf3:
1023 cutIf2: 1023 cutIf2:
1024 cutIf1: 1024 cutIf1:
1025 { } 1025 { }
1026 } 1026 }
1027 yield break; 1027 yield break;
1028 } 1028 }
1029 } 1029 }
1030 } 1030 }
1031 { 1031 {
1032 object S0 = arg2; 1032 object S0 = arg2;
1033 Variable Atom_1 = new Variable(); 1033 Variable Atom_1 = new Variable();
1034 Variable Pos = new Variable(); 1034 Variable Pos = new Variable();
1035 Variable Term = new Variable(); 1035 Variable Term = new Variable();
1036 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Atom_1, Pos))) 1036 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", Atom_1, Pos)))
1037 { 1037 {
1038 foreach (bool l3 in YP.univ(Term, new ListPair(Atom_1, new ListPair(Pos, Atom.NIL)))) 1038 foreach (bool l3 in YP.univ(Term, new ListPair(Atom_1, new ListPair(Pos, Atom.NIL))))
1039 { 1039 {
1040 foreach (bool l4 in exprtl0(S0, Term, Precedence, Answer, S)) 1040 foreach (bool l4 in exprtl0(S0, Term, Precedence, Answer, S))
1041 { 1041 {
1042 yield return false; 1042 yield return false;
1043 } 1043 }
1044 } 1044 }
1045 } 1045 }
1046 } 1046 }
1047 } 1047 }
1048 1048
1049 public static IEnumerable<bool> cannot_start(object Token, object S0) 1049 public static IEnumerable<bool> cannot_start(object Token, object S0)
1050 { 1050 {
1051 { 1051 {
1052 foreach (bool l2 in syntax_error(new ListPair(Token, new ListPair(Atom.a(@"cannot"), new ListPair(Atom.a(@"start"), new ListPair(Atom.a(@"an"), new ListPair(Atom.a(@"expression"), Atom.NIL))))), S0)) 1052 foreach (bool l2 in syntax_error(new ListPair(Token, new ListPair(Atom.a(@"cannot"), new ListPair(Atom.a(@"start"), new ListPair(Atom.a(@"an"), new ListPair(Atom.a(@"expression"), Atom.NIL))))), S0))
1053 { 1053 {
1054 yield return false; 1054 yield return false;
1055 } 1055 }
1056 } 1056 }
1057 } 1057 }
1058 1058
1059 public static IEnumerable<bool> read_args(object arg1, object arg2, object arg3) 1059 public static IEnumerable<bool> read_args(object arg1, object arg2, object arg3)
1060 { 1060 {
1061 { 1061 {
1062 object S = arg3; 1062 object S = arg3;
1063 Variable S1 = new Variable(); 1063 Variable S1 = new Variable();
1064 Variable Term = new Variable(); 1064 Variable Term = new Variable();
1065 Variable Rest = new Variable(); 1065 Variable Rest = new Variable();
1066 Variable S2 = new Variable(); 1066 Variable S2 = new Variable();
1067 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@","), S1))) 1067 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@","), S1)))
1068 { 1068 {
1069 foreach (bool l3 in YP.unify(arg2, new ListPair(Term, Rest))) 1069 foreach (bool l3 in YP.unify(arg2, new ListPair(Term, Rest)))
1070 { 1070 {
1071 foreach (bool l4 in parse(S1, 999, Term, S2)) 1071 foreach (bool l4 in parse(S1, 999, Term, S2))
1072 { 1072 {
1073 foreach (bool l5 in read_args(S2, Rest, S)) 1073 foreach (bool l5 in read_args(S2, Rest, S))
1074 { 1074 {
1075 yield return false; 1075 yield return false;
1076 } 1076 }
1077 yield break; 1077 yield break;
1078 } 1078 }
1079 yield break; 1079 yield break;
1080 } 1080 }
1081 } 1081 }
1082 } 1082 }
1083 { 1083 {
1084 object S = arg3; 1084 object S = arg3;
1085 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@")"), S))) 1085 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@")"), S)))
1086 { 1086 {
1087 foreach (bool l3 in YP.unify(arg2, Atom.NIL)) 1087 foreach (bool l3 in YP.unify(arg2, Atom.NIL))
1088 { 1088 {
1089 yield return true; 1089 yield return true;
1090 yield break; 1090 yield break;
1091 } 1091 }
1092 } 1092 }
1093 } 1093 }
1094 { 1094 {
1095 object S = arg1; 1095 object S = arg1;
1096 object x2 = arg2; 1096 object x2 = arg2;
1097 object x3 = arg3; 1097 object x3 = arg3;
1098 foreach (bool l2 in syntax_error(new ListPair(Atom.a(@", or )"), new ListPair(Atom.a(@"expected"), new ListPair(Atom.a(@"in"), new ListPair(Atom.a(@"arguments"), Atom.NIL)))), S)) 1098 foreach (bool l2 in syntax_error(new ListPair(Atom.a(@", or )"), new ListPair(Atom.a(@"expected"), new ListPair(Atom.a(@"in"), new ListPair(Atom.a(@"arguments"), Atom.NIL)))), S))
1099 { 1099 {
1100 yield return false; 1100 yield return false;
1101 } 1101 }
1102 } 1102 }
1103 } 1103 }
1104 1104
1105 public static IEnumerable<bool> read_list(object arg1, object arg2, object arg3) 1105 public static IEnumerable<bool> read_list(object arg1, object arg2, object arg3)
1106 { 1106 {
1107 { 1107 {
1108 object x1 = arg2; 1108 object x1 = arg2;
1109 object x2 = arg3; 1109 object x2 = arg3;
1110 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1110 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1111 { 1111 {
1112 foreach (bool l3 in syntax_error(new ListPair(Atom.a(@", | or ]"), new ListPair(Atom.a(@"expected"), new ListPair(Atom.a(@"in"), new ListPair(Atom.a(@"list"), Atom.NIL)))), Atom.NIL)) 1112 foreach (bool l3 in syntax_error(new ListPair(Atom.a(@", | or ]"), new ListPair(Atom.a(@"expected"), new ListPair(Atom.a(@"in"), new ListPair(Atom.a(@"list"), Atom.NIL)))), Atom.NIL))
1113 { 1113 {
1114 yield return false; 1114 yield return false;
1115 } 1115 }
1116 } 1116 }
1117 } 1117 }
1118 { 1118 {
1119 object Rest = arg2; 1119 object Rest = arg2;
1120 object S = arg3; 1120 object S = arg3;
1121 Variable Token = new Variable(); 1121 Variable Token = new Variable();
1122 Variable S1 = new Variable(); 1122 Variable S1 = new Variable();
1123 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, S1))) 1123 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, S1)))
1124 { 1124 {
1125 foreach (bool l3 in read_list4(Token, S1, Rest, S)) 1125 foreach (bool l3 in read_list4(Token, S1, Rest, S))
1126 { 1126 {
1127 yield return false; 1127 yield return false;
1128 } 1128 }
1129 } 1129 }
1130 } 1130 }
1131 } 1131 }
1132 1132
1133 public static IEnumerable<bool> read_list4(object arg1, object arg2, object arg3, object arg4) 1133 public static IEnumerable<bool> read_list4(object arg1, object arg2, object arg3, object arg4)
1134 { 1134 {
1135 { 1135 {
1136 object S1 = arg2; 1136 object S1 = arg2;
1137 object S = arg4; 1137 object S = arg4;
1138 Variable Term = new Variable(); 1138 Variable Term = new Variable();
1139 Variable Rest = new Variable(); 1139 Variable Rest = new Variable();
1140 Variable S2 = new Variable(); 1140 Variable S2 = new Variable();
1141 foreach (bool l2 in YP.unify(arg1, Atom.a(@","))) 1141 foreach (bool l2 in YP.unify(arg1, Atom.a(@",")))
1142 { 1142 {
1143 foreach (bool l3 in YP.unify(arg3, new ListPair(Term, Rest))) 1143 foreach (bool l3 in YP.unify(arg3, new ListPair(Term, Rest)))
1144 { 1144 {
1145 foreach (bool l4 in parse(S1, 999, Term, S2)) 1145 foreach (bool l4 in parse(S1, 999, Term, S2))
1146 { 1146 {
1147 foreach (bool l5 in read_list(S2, Rest, S)) 1147 foreach (bool l5 in read_list(S2, Rest, S))
1148 { 1148 {
1149 yield return false; 1149 yield return false;
1150 } 1150 }
1151 yield break; 1151 yield break;
1152 } 1152 }
1153 yield break; 1153 yield break;
1154 } 1154 }
1155 } 1155 }
1156 } 1156 }
1157 { 1157 {
1158 object S1 = arg2; 1158 object S1 = arg2;
1159 object Rest = arg3; 1159 object Rest = arg3;
1160 object S = arg4; 1160 object S = arg4;
1161 Variable S2 = new Variable(); 1161 Variable S2 = new Variable();
1162 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|"))) 1162 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|")))
1163 { 1163 {
1164 foreach (bool l3 in parse(S1, 999, Rest, S2)) 1164 foreach (bool l3 in parse(S1, 999, Rest, S2))
1165 { 1165 {
1166 foreach (bool l4 in expect(Atom.a(@"]"), S2, S)) 1166 foreach (bool l4 in expect(Atom.a(@"]"), S2, S))
1167 { 1167 {
1168 yield return false; 1168 yield return false;
1169 } 1169 }
1170 yield break; 1170 yield break;
1171 } 1171 }
1172 yield break; 1172 yield break;
1173 } 1173 }
1174 } 1174 }
1175 { 1175 {
1176 Variable S1 = new Variable(); 1176 Variable S1 = new Variable();
1177 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]"))) 1177 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]")))
1178 { 1178 {
1179 foreach (bool l3 in YP.unify(arg2, S1)) 1179 foreach (bool l3 in YP.unify(arg2, S1))
1180 { 1180 {
1181 foreach (bool l4 in YP.unify(arg3, Atom.NIL)) 1181 foreach (bool l4 in YP.unify(arg3, Atom.NIL))
1182 { 1182 {
1183 foreach (bool l5 in YP.unify(arg4, S1)) 1183 foreach (bool l5 in YP.unify(arg4, S1))
1184 { 1184 {
1185 yield return true; 1185 yield return true;
1186 yield break; 1186 yield break;
1187 } 1187 }
1188 } 1188 }
1189 } 1189 }
1190 } 1190 }
1191 } 1191 }
1192 { 1192 {
1193 object Token = arg1; 1193 object Token = arg1;
1194 object S1 = arg2; 1194 object S1 = arg2;
1195 object x3 = arg3; 1195 object x3 = arg3;
1196 object x4 = arg4; 1196 object x4 = arg4;
1197 foreach (bool l2 in syntax_error(new ListPair(Atom.a(@", | or ]"), new ListPair(Atom.a(@"expected"), new ListPair(Atom.a(@"in"), new ListPair(Atom.a(@"list"), Atom.NIL)))), new ListPair(Token, S1))) 1197 foreach (bool l2 in syntax_error(new ListPair(Atom.a(@", | or ]"), new ListPair(Atom.a(@"expected"), new ListPair(Atom.a(@"in"), new ListPair(Atom.a(@"list"), Atom.NIL)))), new ListPair(Token, S1)))
1198 { 1198 {
1199 yield return false; 1199 yield return false;
1200 } 1200 }
1201 } 1201 }
1202 } 1202 }
1203 1203
1204 public static IEnumerable<bool> possible_right_operand(object arg1, object arg2) 1204 public static IEnumerable<bool> possible_right_operand(object arg1, object arg2)
1205 { 1205 {
1206 { 1206 {
1207 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1207 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1208 { 1208 {
1209 foreach (bool l3 in YP.unify(arg2, -1)) 1209 foreach (bool l3 in YP.unify(arg2, -1))
1210 { 1210 {
1211 yield return false; 1211 yield return false;
1212 } 1212 }
1213 } 1213 }
1214 } 1214 }
1215 { 1215 {
1216 object Flag = arg2; 1216 object Flag = arg2;
1217 Variable H = new Variable(); 1217 Variable H = new Variable();
1218 Variable T = new Variable(); 1218 Variable T = new Variable();
1219 foreach (bool l2 in YP.unify(arg1, new ListPair(H, T))) 1219 foreach (bool l2 in YP.unify(arg1, new ListPair(H, T)))
1220 { 1220 {
1221 foreach (bool l3 in possible_right_operand3(H, Flag, T)) 1221 foreach (bool l3 in possible_right_operand3(H, Flag, T))
1222 { 1222 {
1223 yield return false; 1223 yield return false;
1224 } 1224 }
1225 } 1225 }
1226 } 1226 }
1227 } 1227 }
1228 1228
1229 public static IEnumerable<bool> possible_right_operand3(object arg1, object arg2, object arg3) 1229 public static IEnumerable<bool> possible_right_operand3(object arg1, object arg2, object arg3)
1230 { 1230 {
1231 { 1231 {
1232 object x4 = arg3; 1232 object x4 = arg3;
1233 Variable x1 = new Variable(); 1233 Variable x1 = new Variable();
1234 Variable x2 = new Variable(); 1234 Variable x2 = new Variable();
1235 Variable x3 = new Variable(); 1235 Variable x3 = new Variable();
1236 foreach (bool l2 in YP.unify(arg1, new Functor3(@"var", x1, x2, x3))) 1236 foreach (bool l2 in YP.unify(arg1, new Functor3(@"var", x1, x2, x3)))
1237 { 1237 {
1238 foreach (bool l3 in YP.unify(arg2, 1)) 1238 foreach (bool l3 in YP.unify(arg2, 1))
1239 { 1239 {
1240 yield return false; 1240 yield return false;
1241 } 1241 }
1242 } 1242 }
1243 } 1243 }
1244 { 1244 {
1245 object x2 = arg3; 1245 object x2 = arg3;
1246 Variable x1 = new Variable(); 1246 Variable x1 = new Variable();
1247 foreach (bool l2 in YP.unify(arg1, new Functor1(@"number", x1))) 1247 foreach (bool l2 in YP.unify(arg1, new Functor1(@"number", x1)))
1248 { 1248 {
1249 foreach (bool l3 in YP.unify(arg2, 1)) 1249 foreach (bool l3 in YP.unify(arg2, 1))
1250 { 1250 {
1251 yield return false; 1251 yield return false;
1252 } 1252 }
1253 } 1253 }
1254 } 1254 }
1255 { 1255 {
1256 object x2 = arg3; 1256 object x2 = arg3;
1257 Variable x1 = new Variable(); 1257 Variable x1 = new Variable();
1258 foreach (bool l2 in YP.unify(arg1, new Functor1(@"string", x1))) 1258 foreach (bool l2 in YP.unify(arg1, new Functor1(@"string", x1)))
1259 { 1259 {
1260 foreach (bool l3 in YP.unify(arg2, 1)) 1260 foreach (bool l3 in YP.unify(arg2, 1))
1261 { 1261 {
1262 yield return false; 1262 yield return false;
1263 } 1263 }
1264 } 1264 }
1265 } 1265 }
1266 { 1266 {
1267 object x1 = arg3; 1267 object x1 = arg3;
1268 foreach (bool l2 in YP.unify(arg1, Atom.a(@" ("))) 1268 foreach (bool l2 in YP.unify(arg1, Atom.a(@" (")))
1269 { 1269 {
1270 foreach (bool l3 in YP.unify(arg2, 1)) 1270 foreach (bool l3 in YP.unify(arg2, 1))
1271 { 1271 {
1272 yield return false; 1272 yield return false;
1273 } 1273 }
1274 } 1274 }
1275 } 1275 }
1276 { 1276 {
1277 object x1 = arg3; 1277 object x1 = arg3;
1278 foreach (bool l2 in YP.unify(arg1, Atom.a(@"("))) 1278 foreach (bool l2 in YP.unify(arg1, Atom.a(@"(")))
1279 { 1279 {
1280 foreach (bool l3 in YP.unify(arg2, 0)) 1280 foreach (bool l3 in YP.unify(arg2, 0))
1281 { 1281 {
1282 yield return false; 1282 yield return false;
1283 } 1283 }
1284 } 1284 }
1285 } 1285 }
1286 { 1286 {
1287 object x1 = arg3; 1287 object x1 = arg3;
1288 foreach (bool l2 in YP.unify(arg1, Atom.a(@")"))) 1288 foreach (bool l2 in YP.unify(arg1, Atom.a(@")")))
1289 { 1289 {
1290 foreach (bool l3 in YP.unify(arg2, -1)) 1290 foreach (bool l3 in YP.unify(arg2, -1))
1291 { 1291 {
1292 yield return false; 1292 yield return false;
1293 } 1293 }
1294 } 1294 }
1295 } 1295 }
1296 { 1296 {
1297 Variable x1 = new Variable(); 1297 Variable x1 = new Variable();
1298 foreach (bool l2 in YP.unify(arg1, Atom.a(@"["))) 1298 foreach (bool l2 in YP.unify(arg1, Atom.a(@"[")))
1299 { 1299 {
1300 foreach (bool l3 in YP.unify(arg2, 0)) 1300 foreach (bool l3 in YP.unify(arg2, 0))
1301 { 1301 {
1302 foreach (bool l4 in YP.unify(arg3, new ListPair(Atom.a(@"]"), x1))) 1302 foreach (bool l4 in YP.unify(arg3, new ListPair(Atom.a(@"]"), x1)))
1303 { 1303 {
1304 yield return true; 1304 yield return true;
1305 yield break; 1305 yield break;
1306 } 1306 }
1307 } 1307 }
1308 } 1308 }
1309 } 1309 }
1310 { 1310 {
1311 object x1 = arg3; 1311 object x1 = arg3;
1312 foreach (bool l2 in YP.unify(arg1, Atom.a(@"["))) 1312 foreach (bool l2 in YP.unify(arg1, Atom.a(@"[")))
1313 { 1313 {
1314 foreach (bool l3 in YP.unify(arg2, 1)) 1314 foreach (bool l3 in YP.unify(arg2, 1))
1315 { 1315 {
1316 yield return false; 1316 yield return false;
1317 } 1317 }
1318 } 1318 }
1319 } 1319 }
1320 { 1320 {
1321 object x1 = arg3; 1321 object x1 = arg3;
1322 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]"))) 1322 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]")))
1323 { 1323 {
1324 foreach (bool l3 in YP.unify(arg2, -1)) 1324 foreach (bool l3 in YP.unify(arg2, -1))
1325 { 1325 {
1326 yield return false; 1326 yield return false;
1327 } 1327 }
1328 } 1328 }
1329 } 1329 }
1330 { 1330 {
1331 Variable x1 = new Variable(); 1331 Variable x1 = new Variable();
1332 foreach (bool l2 in YP.unify(arg1, Atom.a(@"{"))) 1332 foreach (bool l2 in YP.unify(arg1, Atom.a(@"{")))
1333 { 1333 {
1334 foreach (bool l3 in YP.unify(arg2, 0)) 1334 foreach (bool l3 in YP.unify(arg2, 0))
1335 { 1335 {
1336 foreach (bool l4 in YP.unify(arg3, new ListPair(Atom.a(@"}"), x1))) 1336 foreach (bool l4 in YP.unify(arg3, new ListPair(Atom.a(@"}"), x1)))
1337 { 1337 {
1338 yield return true; 1338 yield return true;
1339 yield break; 1339 yield break;
1340 } 1340 }
1341 } 1341 }
1342 } 1342 }
1343 } 1343 }
1344 { 1344 {
1345 object x1 = arg3; 1345 object x1 = arg3;
1346 foreach (bool l2 in YP.unify(arg1, Atom.a(@"{"))) 1346 foreach (bool l2 in YP.unify(arg1, Atom.a(@"{")))
1347 { 1347 {
1348 foreach (bool l3 in YP.unify(arg2, 1)) 1348 foreach (bool l3 in YP.unify(arg2, 1))
1349 { 1349 {
1350 yield return false; 1350 yield return false;
1351 } 1351 }
1352 } 1352 }
1353 } 1353 }
1354 { 1354 {
1355 object x1 = arg3; 1355 object x1 = arg3;
1356 foreach (bool l2 in YP.unify(arg1, Atom.a(@"}"))) 1356 foreach (bool l2 in YP.unify(arg1, Atom.a(@"}")))
1357 { 1357 {
1358 foreach (bool l3 in YP.unify(arg2, -1)) 1358 foreach (bool l3 in YP.unify(arg2, -1))
1359 { 1359 {
1360 yield return false; 1360 yield return false;
1361 } 1361 }
1362 } 1362 }
1363 } 1363 }
1364 { 1364 {
1365 object x1 = arg3; 1365 object x1 = arg3;
1366 foreach (bool l2 in YP.unify(arg1, Atom.a(@","))) 1366 foreach (bool l2 in YP.unify(arg1, Atom.a(@",")))
1367 { 1367 {
1368 foreach (bool l3 in YP.unify(arg2, -1)) 1368 foreach (bool l3 in YP.unify(arg2, -1))
1369 { 1369 {
1370 yield return false; 1370 yield return false;
1371 } 1371 }
1372 } 1372 }
1373 } 1373 }
1374 { 1374 {
1375 object x1 = arg3; 1375 object x1 = arg3;
1376 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|"))) 1376 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|")))
1377 { 1377 {
1378 foreach (bool l3 in YP.unify(arg2, -1)) 1378 foreach (bool l3 in YP.unify(arg2, -1))
1379 { 1379 {
1380 yield return false; 1380 yield return false;
1381 } 1381 }
1382 } 1382 }
1383 } 1383 }
1384 { 1384 {
1385 object x3 = arg3; 1385 object x3 = arg3;
1386 Variable x1 = new Variable(); 1386 Variable x1 = new Variable();
1387 Variable x2 = new Variable(); 1387 Variable x2 = new Variable();
1388 foreach (bool l2 in YP.unify(arg1, new Functor2(@"atom", x1, x2))) 1388 foreach (bool l2 in YP.unify(arg1, new Functor2(@"atom", x1, x2)))
1389 { 1389 {
1390 foreach (bool l3 in YP.unify(arg2, 0)) 1390 foreach (bool l3 in YP.unify(arg2, 0))
1391 { 1391 {
1392 yield return false; 1392 yield return false;
1393 } 1393 }
1394 } 1394 }
1395 } 1395 }
1396 } 1396 }
1397 1397
1398 public static IEnumerable<bool> peepop(object arg1, object arg2) 1398 public static IEnumerable<bool> peepop(object arg1, object arg2)
1399 { 1399 {
1400 { 1400 {
1401 Variable F = new Variable(); 1401 Variable F = new Variable();
1402 Variable Pos = new Variable(); 1402 Variable Pos = new Variable();
1403 Variable S1 = new Variable(); 1403 Variable S1 = new Variable();
1404 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", F, Pos), new ListPair(Atom.a(@"("), S1)))) 1404 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", F, Pos), new ListPair(Atom.a(@"("), S1))))
1405 { 1405 {
1406 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor2(@"atom", F, Pos), new ListPair(Atom.a(@"("), S1)))) 1406 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor2(@"atom", F, Pos), new ListPair(Atom.a(@"("), S1))))
1407 { 1407 {
1408 yield return true; 1408 yield return true;
1409 yield break; 1409 yield break;
1410 } 1410 }
1411 } 1411 }
1412 } 1412 }
1413 { 1413 {
1414 Variable F = new Variable(); 1414 Variable F = new Variable();
1415 Variable Pos = new Variable(); 1415 Variable Pos = new Variable();
1416 Variable S1 = new Variable(); 1416 Variable S1 = new Variable();
1417 Variable L = new Variable(); 1417 Variable L = new Variable();
1418 Variable P = new Variable(); 1418 Variable P = new Variable();
1419 Variable R = new Variable(); 1419 Variable R = new Variable();
1420 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", F, Pos), S1))) 1420 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", F, Pos), S1)))
1421 { 1421 {
1422 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { new Functor2(@"/", F, Pos), L, P, R }), S1))) 1422 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { new Functor2(@"/", F, Pos), L, P, R }), S1)))
1423 { 1423 {
1424 foreach (bool l4 in infixop(F, L, P, R)) 1424 foreach (bool l4 in infixop(F, L, P, R))
1425 { 1425 {
1426 yield return false; 1426 yield return false;
1427 } 1427 }
1428 } 1428 }
1429 } 1429 }
1430 } 1430 }
1431 { 1431 {
1432 Variable F = new Variable(); 1432 Variable F = new Variable();
1433 Variable Pos = new Variable(); 1433 Variable Pos = new Variable();
1434 Variable S1 = new Variable(); 1434 Variable S1 = new Variable();
1435 Variable L = new Variable(); 1435 Variable L = new Variable();
1436 Variable P = new Variable(); 1436 Variable P = new Variable();
1437 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", F, Pos), S1))) 1437 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", F, Pos), S1)))
1438 { 1438 {
1439 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L, P), S1))) 1439 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L, P), S1)))
1440 { 1440 {
1441 foreach (bool l4 in postfixop(F, L, P)) 1441 foreach (bool l4 in postfixop(F, L, P))
1442 { 1442 {
1443 yield return false; 1443 yield return false;
1444 } 1444 }
1445 } 1445 }
1446 } 1446 }
1447 } 1447 }
1448 { 1448 {
1449 Variable S0 = new Variable(); 1449 Variable S0 = new Variable();
1450 foreach (bool l2 in YP.unify(arg1, S0)) 1450 foreach (bool l2 in YP.unify(arg1, S0))
1451 { 1451 {
1452 foreach (bool l3 in YP.unify(arg2, S0)) 1452 foreach (bool l3 in YP.unify(arg2, S0))
1453 { 1453 {
1454 yield return false; 1454 yield return false;
1455 } 1455 }
1456 } 1456 }
1457 } 1457 }
1458 } 1458 }
1459 1459
1460 public static IEnumerable<bool> prefix_is_atom(object arg1, object arg2) 1460 public static IEnumerable<bool> prefix_is_atom(object arg1, object arg2)
1461 { 1461 {
1462 { 1462 {
1463 object Precedence = arg2; 1463 object Precedence = arg2;
1464 Variable Token = new Variable(); 1464 Variable Token = new Variable();
1465 Variable x2 = new Variable(); 1465 Variable x2 = new Variable();
1466 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, x2))) 1466 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, x2)))
1467 { 1467 {
1468 foreach (bool l3 in prefix_is_atom(Token, Precedence)) 1468 foreach (bool l3 in prefix_is_atom(Token, Precedence))
1469 { 1469 {
1470 yield return false; 1470 yield return false;
1471 } 1471 }
1472 } 1472 }
1473 } 1473 }
1474 { 1474 {
1475 object P = arg2; 1475 object P = arg2;
1476 Variable x1 = new Variable(); 1476 Variable x1 = new Variable();
1477 Variable L = new Variable(); 1477 Variable L = new Variable();
1478 Variable x3 = new Variable(); 1478 Variable x3 = new Variable();
1479 Variable x4 = new Variable(); 1479 Variable x4 = new Variable();
1480 foreach (bool l2 in YP.unify(arg1, new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { x1, L, x3, x4 }))) 1480 foreach (bool l2 in YP.unify(arg1, new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { x1, L, x3, x4 })))
1481 { 1481 {
1482 if (YP.greaterThanOrEqual(L, P)) 1482 if (YP.greaterThanOrEqual(L, P))
1483 { 1483 {
1484 yield return false; 1484 yield return false;
1485 } 1485 }
1486 } 1486 }
1487 } 1487 }
1488 { 1488 {
1489 object P = arg2; 1489 object P = arg2;
1490 Variable x1 = new Variable(); 1490 Variable x1 = new Variable();
1491 Variable L = new Variable(); 1491 Variable L = new Variable();
1492 Variable x3 = new Variable(); 1492 Variable x3 = new Variable();
1493 foreach (bool l2 in YP.unify(arg1, new Functor3(Atom.a(@"postfixop", Atom.a(@"")), x1, L, x3))) 1493 foreach (bool l2 in YP.unify(arg1, new Functor3(Atom.a(@"postfixop", Atom.a(@"")), x1, L, x3)))
1494 { 1494 {
1495 if (YP.greaterThanOrEqual(L, P)) 1495 if (YP.greaterThanOrEqual(L, P))
1496 { 1496 {
1497 yield return false; 1497 yield return false;
1498 } 1498 }
1499 } 1499 }
1500 } 1500 }
1501 { 1501 {
1502 object x1 = arg2; 1502 object x1 = arg2;
1503 foreach (bool l2 in YP.unify(arg1, Atom.a(@")"))) 1503 foreach (bool l2 in YP.unify(arg1, Atom.a(@")")))
1504 { 1504 {
1505 yield return false; 1505 yield return false;
1506 } 1506 }
1507 } 1507 }
1508 { 1508 {
1509 object x1 = arg2; 1509 object x1 = arg2;
1510 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]"))) 1510 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]")))
1511 { 1511 {
1512 yield return false; 1512 yield return false;
1513 } 1513 }
1514 } 1514 }
1515 { 1515 {
1516 object x1 = arg2; 1516 object x1 = arg2;
1517 foreach (bool l2 in YP.unify(arg1, Atom.a(@"}"))) 1517 foreach (bool l2 in YP.unify(arg1, Atom.a(@"}")))
1518 { 1518 {
1519 yield return false; 1519 yield return false;
1520 } 1520 }
1521 } 1521 }
1522 { 1522 {
1523 object P = arg2; 1523 object P = arg2;
1524 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|"))) 1524 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|")))
1525 { 1525 {
1526 if (YP.greaterThanOrEqual(1100, P)) 1526 if (YP.greaterThanOrEqual(1100, P))
1527 { 1527 {
1528 yield return false; 1528 yield return false;
1529 } 1529 }
1530 } 1530 }
1531 } 1531 }
1532 { 1532 {
1533 object P = arg2; 1533 object P = arg2;
1534 foreach (bool l2 in YP.unify(arg1, Atom.a(@","))) 1534 foreach (bool l2 in YP.unify(arg1, Atom.a(@",")))
1535 { 1535 {
1536 if (YP.greaterThanOrEqual(1000, P)) 1536 if (YP.greaterThanOrEqual(1000, P))
1537 { 1537 {
1538 yield return false; 1538 yield return false;
1539 } 1539 }
1540 } 1540 }
1541 } 1541 }
1542 { 1542 {
1543 object x1 = arg2; 1543 object x1 = arg2;
1544 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1544 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1545 { 1545 {
1546 yield return false; 1546 yield return false;
1547 } 1547 }
1548 } 1548 }
1549 } 1549 }
1550 1550
1551 public static IEnumerable<bool> exprtl0(object arg1, object arg2, object arg3, object arg4, object arg5) 1551 public static IEnumerable<bool> exprtl0(object arg1, object arg2, object arg3, object arg4, object arg5)
1552 { 1552 {
1553 { 1553 {
1554 object x2 = arg3; 1554 object x2 = arg3;
1555 Variable Term = new Variable(); 1555 Variable Term = new Variable();
1556 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1556 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1557 { 1557 {
1558 foreach (bool l3 in YP.unify(arg2, Term)) 1558 foreach (bool l3 in YP.unify(arg2, Term))
1559 { 1559 {
1560 foreach (bool l4 in YP.unify(arg4, Term)) 1560 foreach (bool l4 in YP.unify(arg4, Term))
1561 { 1561 {
1562 foreach (bool l5 in YP.unify(arg5, Atom.NIL)) 1562 foreach (bool l5 in YP.unify(arg5, Atom.NIL))
1563 { 1563 {
1564 yield return false; 1564 yield return false;
1565 } 1565 }
1566 } 1566 }
1567 } 1567 }
1568 } 1568 }
1569 } 1569 }
1570 { 1570 {
1571 object Term = arg2; 1571 object Term = arg2;
1572 object Precedence = arg3; 1572 object Precedence = arg3;
1573 object Answer = arg4; 1573 object Answer = arg4;
1574 object S = arg5; 1574 object S = arg5;
1575 Variable Token = new Variable(); 1575 Variable Token = new Variable();
1576 Variable S1 = new Variable(); 1576 Variable S1 = new Variable();
1577 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, S1))) 1577 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, S1)))
1578 { 1578 {
1579 foreach (bool l3 in exprtl0_6(Token, Term, Precedence, Answer, S, S1)) 1579 foreach (bool l3 in exprtl0_6(Token, Term, Precedence, Answer, S, S1))
1580 { 1580 {
1581 yield return false; 1581 yield return false;
1582 } 1582 }
1583 } 1583 }
1584 } 1584 }
1585 } 1585 }
1586 1586
1587 public static IEnumerable<bool> exprtl0_6(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6) 1587 public static IEnumerable<bool> exprtl0_6(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6)
1588 { 1588 {
1589 { 1589 {
1590 object x2 = arg3; 1590 object x2 = arg3;
1591 object S1 = arg6; 1591 object S1 = arg6;
1592 Variable Term = new Variable(); 1592 Variable Term = new Variable();
1593 foreach (bool l2 in YP.unify(arg1, Atom.a(@"}"))) 1593 foreach (bool l2 in YP.unify(arg1, Atom.a(@"}")))
1594 { 1594 {
1595 foreach (bool l3 in YP.unify(arg2, Term)) 1595 foreach (bool l3 in YP.unify(arg2, Term))
1596 { 1596 {
1597 foreach (bool l4 in YP.unify(arg4, Term)) 1597 foreach (bool l4 in YP.unify(arg4, Term))
1598 { 1598 {
1599 foreach (bool l5 in YP.unify(arg5, new ListPair(Atom.a(@"}"), S1))) 1599 foreach (bool l5 in YP.unify(arg5, new ListPair(Atom.a(@"}"), S1)))
1600 { 1600 {
1601 yield return false; 1601 yield return false;
1602 } 1602 }
1603 } 1603 }
1604 } 1604 }
1605 } 1605 }
1606 } 1606 }
1607 { 1607 {
1608 object x2 = arg3; 1608 object x2 = arg3;
1609 object S1 = arg6; 1609 object S1 = arg6;
1610 Variable Term = new Variable(); 1610 Variable Term = new Variable();
1611 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]"))) 1611 foreach (bool l2 in YP.unify(arg1, Atom.a(@"]")))
1612 { 1612 {
1613 foreach (bool l3 in YP.unify(arg2, Term)) 1613 foreach (bool l3 in YP.unify(arg2, Term))
1614 { 1614 {
1615 foreach (bool l4 in YP.unify(arg4, Term)) 1615 foreach (bool l4 in YP.unify(arg4, Term))
1616 { 1616 {
1617 foreach (bool l5 in YP.unify(arg5, new ListPair(Atom.a(@"]"), S1))) 1617 foreach (bool l5 in YP.unify(arg5, new ListPair(Atom.a(@"]"), S1)))
1618 { 1618 {
1619 yield return false; 1619 yield return false;
1620 } 1620 }
1621 } 1621 }
1622 } 1622 }
1623 } 1623 }
1624 } 1624 }
1625 { 1625 {
1626 object x2 = arg3; 1626 object x2 = arg3;
1627 object S1 = arg6; 1627 object S1 = arg6;
1628 Variable Term = new Variable(); 1628 Variable Term = new Variable();
1629 foreach (bool l2 in YP.unify(arg1, Atom.a(@")"))) 1629 foreach (bool l2 in YP.unify(arg1, Atom.a(@")")))
1630 { 1630 {
1631 foreach (bool l3 in YP.unify(arg2, Term)) 1631 foreach (bool l3 in YP.unify(arg2, Term))
1632 { 1632 {
1633 foreach (bool l4 in YP.unify(arg4, Term)) 1633 foreach (bool l4 in YP.unify(arg4, Term))
1634 { 1634 {
1635 foreach (bool l5 in YP.unify(arg5, new ListPair(Atom.a(@")"), S1))) 1635 foreach (bool l5 in YP.unify(arg5, new ListPair(Atom.a(@")"), S1)))
1636 { 1636 {
1637 yield return false; 1637 yield return false;
1638 } 1638 }
1639 } 1639 }
1640 } 1640 }
1641 } 1641 }
1642 } 1642 }
1643 { 1643 {
1644 object Term = arg2; 1644 object Term = arg2;
1645 object Precedence = arg3; 1645 object Precedence = arg3;
1646 object Answer = arg4; 1646 object Answer = arg4;
1647 object S = arg5; 1647 object S = arg5;
1648 object S1 = arg6; 1648 object S1 = arg6;
1649 Variable Next = new Variable(); 1649 Variable Next = new Variable();
1650 Variable S2 = new Variable(); 1650 Variable S2 = new Variable();
1651 foreach (bool l2 in YP.unify(arg1, Atom.a(@","))) 1651 foreach (bool l2 in YP.unify(arg1, Atom.a(@",")))
1652 { 1652 {
1653 if (YP.greaterThanOrEqual(Precedence, 1000)) 1653 if (YP.greaterThanOrEqual(Precedence, 1000))
1654 { 1654 {
1655 foreach (bool l4 in parse(S1, 1000, Next, S2)) 1655 foreach (bool l4 in parse(S1, 1000, Next, S2))
1656 { 1656 {
1657 foreach (bool l5 in exprtl(S2, 1000, new Functor2(@",", Term, Next), Precedence, Answer, S)) 1657 foreach (bool l5 in exprtl(S2, 1000, new Functor2(@",", Term, Next), Precedence, Answer, S))
1658 { 1658 {
1659 yield return false; 1659 yield return false;
1660 } 1660 }
1661 yield break; 1661 yield break;
1662 } 1662 }
1663 goto cutIf1; 1663 goto cutIf1;
1664 } 1664 }
1665 foreach (bool l3 in YP.unify(Answer, Term)) 1665 foreach (bool l3 in YP.unify(Answer, Term))
1666 { 1666 {
1667 foreach (bool l4 in YP.unify(S, new ListPair(Atom.a(@","), S1))) 1667 foreach (bool l4 in YP.unify(S, new ListPair(Atom.a(@","), S1)))
1668 { 1668 {
1669 yield return false; 1669 yield return false;
1670 } 1670 }
1671 } 1671 }
1672 cutIf1: 1672 cutIf1:
1673 { } 1673 { }
1674 } 1674 }
1675 } 1675 }
1676 { 1676 {
1677 object Term = arg2; 1677 object Term = arg2;
1678 object Precedence = arg3; 1678 object Precedence = arg3;
1679 object Answer = arg4; 1679 object Answer = arg4;
1680 object S = arg5; 1680 object S = arg5;
1681 object S1 = arg6; 1681 object S1 = arg6;
1682 Variable Next = new Variable(); 1682 Variable Next = new Variable();
1683 Variable S2 = new Variable(); 1683 Variable S2 = new Variable();
1684 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|"))) 1684 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|")))
1685 { 1685 {
1686 if (YP.greaterThanOrEqual(Precedence, 1100)) 1686 if (YP.greaterThanOrEqual(Precedence, 1100))
1687 { 1687 {
1688 foreach (bool l4 in parse(S1, 1100, Next, S2)) 1688 foreach (bool l4 in parse(S1, 1100, Next, S2))
1689 { 1689 {
1690 foreach (bool l5 in exprtl(S2, 1100, new Functor2(@";", Term, Next), Precedence, Answer, S)) 1690 foreach (bool l5 in exprtl(S2, 1100, new Functor2(@";", Term, Next), Precedence, Answer, S))
1691 { 1691 {
1692 yield return false; 1692 yield return false;
1693 } 1693 }
1694 yield break; 1694 yield break;
1695 } 1695 }
1696 goto cutIf2; 1696 goto cutIf2;
1697 } 1697 }
1698 foreach (bool l3 in YP.unify(Answer, Term)) 1698 foreach (bool l3 in YP.unify(Answer, Term))
1699 { 1699 {
1700 foreach (bool l4 in YP.unify(S, new ListPair(Atom.a(@"|"), S1))) 1700 foreach (bool l4 in YP.unify(S, new ListPair(Atom.a(@"|"), S1)))
1701 { 1701 {
1702 yield return false; 1702 yield return false;
1703 } 1703 }
1704 } 1704 }
1705 cutIf2: 1705 cutIf2:
1706 { } 1706 { }
1707 } 1707 }
1708 } 1708 }
1709 { 1709 {
1710 object x2 = arg2; 1710 object x2 = arg2;
1711 object x3 = arg3; 1711 object x3 = arg3;
1712 object x4 = arg4; 1712 object x4 = arg4;
1713 object x5 = arg5; 1713 object x5 = arg5;
1714 object S1 = arg6; 1714 object S1 = arg6;
1715 Variable S = new Variable(); 1715 Variable S = new Variable();
1716 foreach (bool l2 in YP.unify(arg1, new Functor1(@"string", S))) 1716 foreach (bool l2 in YP.unify(arg1, new Functor1(@"string", S)))
1717 { 1717 {
1718 foreach (bool l3 in cannot_follow(Atom.a(@"chars"), new Functor1(@"string", S), S1)) 1718 foreach (bool l3 in cannot_follow(Atom.a(@"chars"), new Functor1(@"string", S), S1))
1719 { 1719 {
1720 yield return false; 1720 yield return false;
1721 } 1721 }
1722 } 1722 }
1723 } 1723 }
1724 { 1724 {
1725 object x2 = arg2; 1725 object x2 = arg2;
1726 object x3 = arg3; 1726 object x3 = arg3;
1727 object x4 = arg4; 1727 object x4 = arg4;
1728 object x5 = arg5; 1728 object x5 = arg5;
1729 object S1 = arg6; 1729 object S1 = arg6;
1730 Variable N = new Variable(); 1730 Variable N = new Variable();
1731 foreach (bool l2 in YP.unify(arg1, new Functor1(@"number", N))) 1731 foreach (bool l2 in YP.unify(arg1, new Functor1(@"number", N)))
1732 { 1732 {
1733 foreach (bool l3 in cannot_follow(Atom.a(@"number"), new Functor1(@"number", N), S1)) 1733 foreach (bool l3 in cannot_follow(Atom.a(@"number"), new Functor1(@"number", N), S1))
1734 { 1734 {
1735 yield return false; 1735 yield return false;
1736 } 1736 }
1737 } 1737 }
1738 } 1738 }
1739 { 1739 {
1740 object Term = arg2; 1740 object Term = arg2;
1741 object Precedence = arg3; 1741 object Precedence = arg3;
1742 object Answer = arg4; 1742 object Answer = arg4;
1743 object S = arg5; 1743 object S = arg5;
1744 Variable S1 = new Variable(); 1744 Variable S1 = new Variable();
1745 foreach (bool l2 in YP.unify(arg1, Atom.a(@"{"))) 1745 foreach (bool l2 in YP.unify(arg1, Atom.a(@"{")))
1746 { 1746 {
1747 foreach (bool l3 in YP.unify(arg6, new ListPair(Atom.a(@"}"), S1))) 1747 foreach (bool l3 in YP.unify(arg6, new ListPair(Atom.a(@"}"), S1)))
1748 { 1748 {
1749 foreach (bool l4 in exprtl0_atom(Atom.a(@"{}"), Term, Precedence, Answer, S, S1)) 1749 foreach (bool l4 in exprtl0_atom(Atom.a(@"{}"), Term, Precedence, Answer, S, S1))
1750 { 1750 {
1751 yield return false; 1751 yield return false;
1752 } 1752 }
1753 yield break; 1753 yield break;
1754 } 1754 }
1755 } 1755 }
1756 } 1756 }
1757 { 1757 {
1758 object x1 = arg2; 1758 object x1 = arg2;
1759 object x2 = arg3; 1759 object x2 = arg3;
1760 object x3 = arg4; 1760 object x3 = arg4;
1761 object x4 = arg5; 1761 object x4 = arg5;
1762 object S1 = arg6; 1762 object S1 = arg6;
1763 foreach (bool l2 in YP.unify(arg1, Atom.a(@"{"))) 1763 foreach (bool l2 in YP.unify(arg1, Atom.a(@"{")))
1764 { 1764 {
1765 foreach (bool l3 in cannot_follow(Atom.a(@"brace"), Atom.a(@"{"), S1)) 1765 foreach (bool l3 in cannot_follow(Atom.a(@"brace"), Atom.a(@"{"), S1))
1766 { 1766 {
1767 yield return false; 1767 yield return false;
1768 } 1768 }
1769 } 1769 }
1770 } 1770 }
1771 { 1771 {
1772 object Term = arg2; 1772 object Term = arg2;
1773 object Precedence = arg3; 1773 object Precedence = arg3;
1774 object Answer = arg4; 1774 object Answer = arg4;
1775 object S = arg5; 1775 object S = arg5;
1776 Variable S1 = new Variable(); 1776 Variable S1 = new Variable();
1777 foreach (bool l2 in YP.unify(arg1, Atom.a(@"["))) 1777 foreach (bool l2 in YP.unify(arg1, Atom.a(@"[")))
1778 { 1778 {
1779 foreach (bool l3 in YP.unify(arg6, new ListPair(Atom.a(@"]"), S1))) 1779 foreach (bool l3 in YP.unify(arg6, new ListPair(Atom.a(@"]"), S1)))
1780 { 1780 {
1781 foreach (bool l4 in exprtl0_atom(Atom.NIL, Term, Precedence, Answer, S, S1)) 1781 foreach (bool l4 in exprtl0_atom(Atom.NIL, Term, Precedence, Answer, S, S1))
1782 { 1782 {
1783 yield return false; 1783 yield return false;
1784 } 1784 }
1785 yield break; 1785 yield break;
1786 } 1786 }
1787 } 1787 }
1788 } 1788 }
1789 { 1789 {
1790 object x1 = arg2; 1790 object x1 = arg2;
1791 object x2 = arg3; 1791 object x2 = arg3;
1792 object x3 = arg4; 1792 object x3 = arg4;
1793 object x4 = arg5; 1793 object x4 = arg5;
1794 object S1 = arg6; 1794 object S1 = arg6;
1795 foreach (bool l2 in YP.unify(arg1, Atom.a(@"["))) 1795 foreach (bool l2 in YP.unify(arg1, Atom.a(@"[")))
1796 { 1796 {
1797 foreach (bool l3 in cannot_follow(Atom.a(@"bracket"), Atom.a(@"["), S1)) 1797 foreach (bool l3 in cannot_follow(Atom.a(@"bracket"), Atom.a(@"["), S1))
1798 { 1798 {
1799 yield return false; 1799 yield return false;
1800 } 1800 }
1801 } 1801 }
1802 } 1802 }
1803 { 1803 {
1804 object x1 = arg2; 1804 object x1 = arg2;
1805 object x2 = arg3; 1805 object x2 = arg3;
1806 object x3 = arg4; 1806 object x3 = arg4;
1807 object x4 = arg5; 1807 object x4 = arg5;
1808 object S1 = arg6; 1808 object S1 = arg6;
1809 foreach (bool l2 in YP.unify(arg1, Atom.a(@"("))) 1809 foreach (bool l2 in YP.unify(arg1, Atom.a(@"(")))
1810 { 1810 {
1811 foreach (bool l3 in cannot_follow(Atom.a(@"parenthesis"), Atom.a(@"("), S1)) 1811 foreach (bool l3 in cannot_follow(Atom.a(@"parenthesis"), Atom.a(@"("), S1))
1812 { 1812 {
1813 yield return false; 1813 yield return false;
1814 } 1814 }
1815 } 1815 }
1816 } 1816 }
1817 { 1817 {
1818 object x1 = arg2; 1818 object x1 = arg2;
1819 object x2 = arg3; 1819 object x2 = arg3;
1820 object x3 = arg4; 1820 object x3 = arg4;
1821 object x4 = arg5; 1821 object x4 = arg5;
1822 object S1 = arg6; 1822 object S1 = arg6;
1823 foreach (bool l2 in YP.unify(arg1, Atom.a(@" ("))) 1823 foreach (bool l2 in YP.unify(arg1, Atom.a(@" (")))
1824 { 1824 {
1825 foreach (bool l3 in cannot_follow(Atom.a(@"parenthesis"), Atom.a(@"("), S1)) 1825 foreach (bool l3 in cannot_follow(Atom.a(@"parenthesis"), Atom.a(@"("), S1))
1826 { 1826 {
1827 yield return false; 1827 yield return false;
1828 } 1828 }
1829 } 1829 }
1830 } 1830 }
1831 { 1831 {
1832 object x4 = arg2; 1832 object x4 = arg2;
1833 object x5 = arg3; 1833 object x5 = arg3;
1834 object x6 = arg4; 1834 object x6 = arg4;
1835 object x7 = arg5; 1835 object x7 = arg5;
1836 object S1 = arg6; 1836 object S1 = arg6;
1837 Variable A = new Variable(); 1837 Variable A = new Variable();
1838 Variable B = new Variable(); 1838 Variable B = new Variable();
1839 Variable P = new Variable(); 1839 Variable P = new Variable();
1840 foreach (bool l2 in YP.unify(arg1, new Functor3(@"var", A, B, P))) 1840 foreach (bool l2 in YP.unify(arg1, new Functor3(@"var", A, B, P)))
1841 { 1841 {
1842 foreach (bool l3 in cannot_follow(Atom.a(@"variable"), new Functor3(@"var", A, B, P), S1)) 1842 foreach (bool l3 in cannot_follow(Atom.a(@"variable"), new Functor3(@"var", A, B, P), S1))
1843 { 1843 {
1844 yield return false; 1844 yield return false;
1845 } 1845 }
1846 } 1846 }
1847 } 1847 }
1848 { 1848 {
1849 object Term = arg2; 1849 object Term = arg2;
1850 object Precedence = arg3; 1850 object Precedence = arg3;
1851 object Answer = arg4; 1851 object Answer = arg4;
1852 object S = arg5; 1852 object S = arg5;
1853 object S1 = arg6; 1853 object S1 = arg6;
1854 Variable F = new Variable(); 1854 Variable F = new Variable();
1855 Variable P = new Variable(); 1855 Variable P = new Variable();
1856 foreach (bool l2 in YP.unify(arg1, new Functor2(@"atom", F, P))) 1856 foreach (bool l2 in YP.unify(arg1, new Functor2(@"atom", F, P)))
1857 { 1857 {
1858 foreach (bool l3 in exprtl0_atom(new Functor2(@"/", F, P), Term, Precedence, Answer, S, S1)) 1858 foreach (bool l3 in exprtl0_atom(new Functor2(@"/", F, P), Term, Precedence, Answer, S, S1))
1859 { 1859 {
1860 yield return false; 1860 yield return false;
1861 } 1861 }
1862 } 1862 }
1863 } 1863 }
1864 } 1864 }
1865 1865
1866 public static IEnumerable<bool> exprtl0_atom(object arg1, object arg2, object arg3, object arg4, object arg5, object S1) 1866 public static IEnumerable<bool> exprtl0_atom(object arg1, object arg2, object arg3, object arg4, object arg5, object S1)
1867 { 1867 {
1868 { 1868 {
1869 object Term = arg2; 1869 object Term = arg2;
1870 object Precedence = arg3; 1870 object Precedence = arg3;
1871 object Answer = arg4; 1871 object Answer = arg4;
1872 object S = arg5; 1872 object S = arg5;
1873 Variable F = new Variable(); 1873 Variable F = new Variable();
1874 Variable Pos = new Variable(); 1874 Variable Pos = new Variable();
1875 Variable L1 = new Variable(); 1875 Variable L1 = new Variable();
1876 Variable O1 = new Variable(); 1876 Variable O1 = new Variable();
1877 Variable R1 = new Variable(); 1877 Variable R1 = new Variable();
1878 Variable L2 = new Variable(); 1878 Variable L2 = new Variable();
1879 Variable O2 = new Variable(); 1879 Variable O2 = new Variable();
1880 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", F, Pos))) 1880 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", F, Pos)))
1881 { 1881 {
1882 foreach (bool l3 in ambigop(F, Precedence, L1, O1, R1, L2, O2)) 1882 foreach (bool l3 in ambigop(F, Precedence, L1, O1, R1, L2, O2))
1883 { 1883 {
1884 foreach (bool l4 in prefix_is_atom(S1, Precedence)) 1884 foreach (bool l4 in prefix_is_atom(S1, Precedence))
1885 { 1885 {
1886 foreach (bool l5 in exprtl(new ListPair(new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L2, O2), S1), 0, Term, Precedence, Answer, S)) 1886 foreach (bool l5 in exprtl(new ListPair(new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L2, O2), S1), 0, Term, Precedence, Answer, S))
1887 { 1887 {
1888 yield return false; 1888 yield return false;
1889 } 1889 }
1890 yield break; 1890 yield break;
1891 } 1891 }
1892 foreach (bool l4 in exprtl(new ListPair(new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { new Functor2(@"/", F, Pos), L1, O1, R1 }), S1), 0, Term, Precedence, Answer, S)) 1892 foreach (bool l4 in exprtl(new ListPair(new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { new Functor2(@"/", F, Pos), L1, O1, R1 }), S1), 0, Term, Precedence, Answer, S))
1893 { 1893 {
1894 yield return false; 1894 yield return false;
1895 } 1895 }
1896 foreach (bool l4 in exprtl(new ListPair(new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L2, O2), S1), 0, Term, Precedence, Answer, S)) 1896 foreach (bool l4 in exprtl(new ListPair(new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L2, O2), S1), 0, Term, Precedence, Answer, S))
1897 { 1897 {
1898 yield return false; 1898 yield return false;
1899 } 1899 }
1900 yield break; 1900 yield break;
1901 } 1901 }
1902 } 1902 }
1903 } 1903 }
1904 { 1904 {
1905 object Term = arg2; 1905 object Term = arg2;
1906 object Precedence = arg3; 1906 object Precedence = arg3;
1907 object Answer = arg4; 1907 object Answer = arg4;
1908 object S = arg5; 1908 object S = arg5;
1909 Variable F = new Variable(); 1909 Variable F = new Variable();
1910 Variable Pos = new Variable(); 1910 Variable Pos = new Variable();
1911 Variable L1 = new Variable(); 1911 Variable L1 = new Variable();
1912 Variable O1 = new Variable(); 1912 Variable O1 = new Variable();
1913 Variable R1 = new Variable(); 1913 Variable R1 = new Variable();
1914 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", F, Pos))) 1914 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", F, Pos)))
1915 { 1915 {
1916 foreach (bool l3 in infixop(F, L1, O1, R1)) 1916 foreach (bool l3 in infixop(F, L1, O1, R1))
1917 { 1917 {
1918 foreach (bool l4 in exprtl(new ListPair(new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { new Functor2(@"/", F, Pos), L1, O1, R1 }), S1), 0, Term, Precedence, Answer, S)) 1918 foreach (bool l4 in exprtl(new ListPair(new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { new Functor2(@"/", F, Pos), L1, O1, R1 }), S1), 0, Term, Precedence, Answer, S))
1919 { 1919 {
1920 yield return false; 1920 yield return false;
1921 } 1921 }
1922 yield break; 1922 yield break;
1923 } 1923 }
1924 } 1924 }
1925 } 1925 }
1926 { 1926 {
1927 object Term = arg2; 1927 object Term = arg2;
1928 object Precedence = arg3; 1928 object Precedence = arg3;
1929 object Answer = arg4; 1929 object Answer = arg4;
1930 object S = arg5; 1930 object S = arg5;
1931 Variable F = new Variable(); 1931 Variable F = new Variable();
1932 Variable Pos = new Variable(); 1932 Variable Pos = new Variable();
1933 Variable L2 = new Variable(); 1933 Variable L2 = new Variable();
1934 Variable O2 = new Variable(); 1934 Variable O2 = new Variable();
1935 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", F, Pos))) 1935 foreach (bool l2 in YP.unify(arg1, new Functor2(@"/", F, Pos)))
1936 { 1936 {
1937 foreach (bool l3 in postfixop(F, L2, O2)) 1937 foreach (bool l3 in postfixop(F, L2, O2))
1938 { 1938 {
1939 foreach (bool l4 in exprtl(new ListPair(new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L2, O2), S1), 0, Term, Precedence, Answer, S)) 1939 foreach (bool l4 in exprtl(new ListPair(new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L2, O2), S1), 0, Term, Precedence, Answer, S))
1940 { 1940 {
1941 yield return false; 1941 yield return false;
1942 } 1942 }
1943 yield break; 1943 yield break;
1944 } 1944 }
1945 } 1945 }
1946 } 1946 }
1947 { 1947 {
1948 object X = arg1; 1948 object X = arg1;
1949 object x2 = arg2; 1949 object x2 = arg2;
1950 object x3 = arg3; 1950 object x3 = arg3;
1951 object x4 = arg4; 1951 object x4 = arg4;
1952 object x5 = arg5; 1952 object x5 = arg5;
1953 Variable x7 = new Variable(); 1953 Variable x7 = new Variable();
1954 foreach (bool l2 in syntax_error(new ListPair(new Functor2(@"-", Atom.a(@"non"), Atom.a(@"operator")), new ListPair(X, new ListPair(Atom.a(@"follows"), new ListPair(Atom.a(@"expression"), Atom.NIL)))), new ListPair(new Functor2(@"atom", X, x7), S1))) 1954 foreach (bool l2 in syntax_error(new ListPair(new Functor2(@"-", Atom.a(@"non"), Atom.a(@"operator")), new ListPair(X, new ListPair(Atom.a(@"follows"), new ListPair(Atom.a(@"expression"), Atom.NIL)))), new ListPair(new Functor2(@"atom", X, x7), S1)))
1955 { 1955 {
1956 yield return false; 1956 yield return false;
1957 } 1957 }
1958 yield break; 1958 yield break;
1959 } 1959 }
1960 } 1960 }
1961 1961
1962 public static IEnumerable<bool> cannot_follow(object Type, object Token, object Tokens) 1962 public static IEnumerable<bool> cannot_follow(object Type, object Token, object Tokens)
1963 { 1963 {
1964 { 1964 {
1965 foreach (bool l2 in syntax_error(new ListPair(Type, new ListPair(Atom.a(@"follows"), new ListPair(Atom.a(@"expression"), Atom.NIL))), new ListPair(Token, Tokens))) 1965 foreach (bool l2 in syntax_error(new ListPair(Type, new ListPair(Atom.a(@"follows"), new ListPair(Atom.a(@"expression"), Atom.NIL))), new ListPair(Token, Tokens)))
1966 { 1966 {
1967 yield return false; 1967 yield return false;
1968 } 1968 }
1969 } 1969 }
1970 } 1970 }
1971 1971
1972 public static IEnumerable<bool> exprtl(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6) 1972 public static IEnumerable<bool> exprtl(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6)
1973 { 1973 {
1974 { 1974 {
1975 object x1 = arg2; 1975 object x1 = arg2;
1976 object x3 = arg4; 1976 object x3 = arg4;
1977 Variable Term = new Variable(); 1977 Variable Term = new Variable();
1978 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1978 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1979 { 1979 {
1980 foreach (bool l3 in YP.unify(arg3, Term)) 1980 foreach (bool l3 in YP.unify(arg3, Term))
1981 { 1981 {
1982 foreach (bool l4 in YP.unify(arg5, Term)) 1982 foreach (bool l4 in YP.unify(arg5, Term))
1983 { 1983 {
1984 foreach (bool l5 in YP.unify(arg6, Atom.NIL)) 1984 foreach (bool l5 in YP.unify(arg6, Atom.NIL))
1985 { 1985 {
1986 yield return false; 1986 yield return false;
1987 } 1987 }
1988 } 1988 }
1989 } 1989 }
1990 } 1990 }
1991 } 1991 }
1992 { 1992 {
1993 object C = arg2; 1993 object C = arg2;
1994 object Term = arg3; 1994 object Term = arg3;
1995 object Precedence = arg4; 1995 object Precedence = arg4;
1996 object Answer = arg5; 1996 object Answer = arg5;
1997 object S = arg6; 1997 object S = arg6;
1998 Variable Token = new Variable(); 1998 Variable Token = new Variable();
1999 Variable Tokens = new Variable(); 1999 Variable Tokens = new Variable();
2000 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, Tokens))) 2000 foreach (bool l2 in YP.unify(arg1, new ListPair(Token, Tokens)))
2001 { 2001 {
2002 foreach (bool l3 in exprtl_7(Token, C, Term, Precedence, Answer, S, Tokens)) 2002 foreach (bool l3 in exprtl_7(Token, C, Term, Precedence, Answer, S, Tokens))
2003 { 2003 {
2004 yield return false; 2004 yield return false;
2005 } 2005 }
2006 } 2006 }
2007 } 2007 }
2008 } 2008 }
2009 2009
2010 public static IEnumerable<bool> exprtl_7(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6, object arg7) 2010 public static IEnumerable<bool> exprtl_7(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6, object arg7)
2011 { 2011 {
2012 { 2012 {
2013 object C = arg2; 2013 object C = arg2;
2014 object Term = arg3; 2014 object Term = arg3;
2015 object Precedence = arg4; 2015 object Precedence = arg4;
2016 object Answer = arg5; 2016 object Answer = arg5;
2017 object S = arg6; 2017 object S = arg6;
2018 object S1 = arg7; 2018 object S1 = arg7;
2019 Variable F = new Variable(); 2019 Variable F = new Variable();
2020 Variable Pos = new Variable(); 2020 Variable Pos = new Variable();
2021 Variable L = new Variable(); 2021 Variable L = new Variable();
2022 Variable O = new Variable(); 2022 Variable O = new Variable();
2023 Variable R = new Variable(); 2023 Variable R = new Variable();
2024 Variable Other = new Variable(); 2024 Variable Other = new Variable();
2025 Variable S2 = new Variable(); 2025 Variable S2 = new Variable();
2026 Variable Expr = new Variable(); 2026 Variable Expr = new Variable();
2027 foreach (bool l2 in YP.unify(arg1, new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { new Functor2(@"/", F, Pos), L, O, R }))) 2027 foreach (bool l2 in YP.unify(arg1, new Functor(Atom.a(@"infixop", Atom.a(@"")), new object[] { new Functor2(@"/", F, Pos), L, O, R })))
2028 { 2028 {
2029 if (YP.greaterThanOrEqual(Precedence, O)) 2029 if (YP.greaterThanOrEqual(Precedence, O))
2030 { 2030 {
2031 if (YP.lessThanOrEqual(C, L)) 2031 if (YP.lessThanOrEqual(C, L))
2032 { 2032 {
2033 foreach (bool l5 in parse(S1, R, Other, S2)) 2033 foreach (bool l5 in parse(S1, R, Other, S2))
2034 { 2034 {
2035 foreach (bool l6 in YP.univ(Expr, new ListPair(F, new ListPair(Pos, new ListPair(Term, new ListPair(Other, Atom.NIL)))))) 2035 foreach (bool l6 in YP.univ(Expr, new ListPair(F, new ListPair(Pos, new ListPair(Term, new ListPair(Other, Atom.NIL))))))
2036 { 2036 {
2037 foreach (bool l7 in exprtl(S2, O, Expr, Precedence, Answer, S)) 2037 foreach (bool l7 in exprtl(S2, O, Expr, Precedence, Answer, S))
2038 { 2038 {
2039 yield return false; 2039 yield return false;
2040 } 2040 }
2041 } 2041 }
2042 } 2042 }
2043 yield break; 2043 yield break;
2044 } 2044 }
2045 } 2045 }
2046 } 2046 }
2047 } 2047 }
2048 { 2048 {
2049 object C = arg2; 2049 object C = arg2;
2050 object Term = arg3; 2050 object Term = arg3;
2051 object Precedence = arg4; 2051 object Precedence = arg4;
2052 object Answer = arg5; 2052 object Answer = arg5;
2053 object S = arg6; 2053 object S = arg6;
2054 object S1 = arg7; 2054 object S1 = arg7;
2055 Variable F = new Variable(); 2055 Variable F = new Variable();
2056 Variable Pos = new Variable(); 2056 Variable Pos = new Variable();
2057 Variable L = new Variable(); 2057 Variable L = new Variable();
2058 Variable O = new Variable(); 2058 Variable O = new Variable();
2059 Variable Expr = new Variable(); 2059 Variable Expr = new Variable();
2060 Variable S2 = new Variable(); 2060 Variable S2 = new Variable();
2061 foreach (bool l2 in YP.unify(arg1, new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L, O))) 2061 foreach (bool l2 in YP.unify(arg1, new Functor3(Atom.a(@"postfixop", Atom.a(@"")), new Functor2(@"/", F, Pos), L, O)))
2062 { 2062 {
2063 if (YP.greaterThanOrEqual(Precedence, O)) 2063 if (YP.greaterThanOrEqual(Precedence, O))
2064 { 2064 {
2065 if (YP.lessThanOrEqual(C, L)) 2065 if (YP.lessThanOrEqual(C, L))
2066 { 2066 {
2067 foreach (bool l5 in YP.univ(Expr, new ListPair(F, new ListPair(Pos, new ListPair(Term, Atom.NIL))))) 2067 foreach (bool l5 in YP.univ(Expr, new ListPair(F, new ListPair(Pos, new ListPair(Term, Atom.NIL)))))
2068 { 2068 {
2069 foreach (bool l6 in peepop(S1, S2)) 2069 foreach (bool l6 in peepop(S1, S2))
2070 { 2070 {
2071 foreach (bool l7 in exprtl(S2, O, Expr, Precedence, Answer, S)) 2071 foreach (bool l7 in exprtl(S2, O, Expr, Precedence, Answer, S))
2072 { 2072 {
2073 yield return false; 2073 yield return false;
2074 } 2074 }
2075 } 2075 }
2076 } 2076 }
2077 yield break; 2077 yield break;
2078 } 2078 }
2079 } 2079 }
2080 } 2080 }
2081 } 2081 }
2082 { 2082 {
2083 object C = arg2; 2083 object C = arg2;
2084 object Term = arg3; 2084 object Term = arg3;
2085 object Precedence = arg4; 2085 object Precedence = arg4;
2086 object Answer = arg5; 2086 object Answer = arg5;
2087 object S = arg6; 2087 object S = arg6;
2088 object S1 = arg7; 2088 object S1 = arg7;
2089 Variable Next = new Variable(); 2089 Variable Next = new Variable();
2090 Variable S2 = new Variable(); 2090 Variable S2 = new Variable();
2091 foreach (bool l2 in YP.unify(arg1, Atom.a(@","))) 2091 foreach (bool l2 in YP.unify(arg1, Atom.a(@",")))
2092 { 2092 {
2093 if (YP.greaterThanOrEqual(Precedence, 1000)) 2093 if (YP.greaterThanOrEqual(Precedence, 1000))
2094 { 2094 {
2095 if (YP.lessThan(C, 1000)) 2095 if (YP.lessThan(C, 1000))
2096 { 2096 {
2097 foreach (bool l5 in parse(S1, 1000, Next, S2)) 2097 foreach (bool l5 in parse(S1, 1000, Next, S2))
2098 { 2098 {
2099 foreach (bool l6 in exprtl(S2, 1000, new Functor2(@",", Term, Next), Precedence, Answer, S)) 2099 foreach (bool l6 in exprtl(S2, 1000, new Functor2(@",", Term, Next), Precedence, Answer, S))
2100 { 2100 {
2101 yield return false; 2101 yield return false;
2102 } 2102 }
2103 } 2103 }
2104 yield break; 2104 yield break;
2105 } 2105 }
2106 } 2106 }
2107 } 2107 }
2108 } 2108 }
2109 { 2109 {
2110 object C = arg2; 2110 object C = arg2;
2111 object Term = arg3; 2111 object Term = arg3;
2112 object Precedence = arg4; 2112 object Precedence = arg4;
2113 object Answer = arg5; 2113 object Answer = arg5;
2114 object S = arg6; 2114 object S = arg6;
2115 object S1 = arg7; 2115 object S1 = arg7;
2116 Variable Next = new Variable(); 2116 Variable Next = new Variable();
2117 Variable S2 = new Variable(); 2117 Variable S2 = new Variable();
2118 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|"))) 2118 foreach (bool l2 in YP.unify(arg1, Atom.a(@"|")))
2119 { 2119 {
2120 if (YP.greaterThanOrEqual(Precedence, 1100)) 2120 if (YP.greaterThanOrEqual(Precedence, 1100))
2121 { 2121 {
2122 if (YP.lessThan(C, 1100)) 2122 if (YP.lessThan(C, 1100))
2123 { 2123 {
2124 foreach (bool l5 in parse(S1, 1100, Next, S2)) 2124 foreach (bool l5 in parse(S1, 1100, Next, S2))
2125 { 2125 {
2126 foreach (bool l6 in exprtl(S2, 1100, new Functor2(@";", Term, Next), Precedence, Answer, S)) 2126 foreach (bool l6 in exprtl(S2, 1100, new Functor2(@";", Term, Next), Precedence, Answer, S))
2127 { 2127 {
2128 yield return false; 2128 yield return false;
2129 } 2129 }
2130 } 2130 }
2131 yield break; 2131 yield break;
2132 } 2132 }
2133 } 2133 }
2134 } 2134 }
2135 } 2135 }
2136 { 2136 {
2137 object Token = arg1; 2137 object Token = arg1;
2138 object x2 = arg2; 2138 object x2 = arg2;
2139 object x4 = arg4; 2139 object x4 = arg4;
2140 object Tokens = arg7; 2140 object Tokens = arg7;
2141 Variable Term = new Variable(); 2141 Variable Term = new Variable();
2142 foreach (bool l2 in YP.unify(arg3, Term)) 2142 foreach (bool l2 in YP.unify(arg3, Term))
2143 { 2143 {
2144 foreach (bool l3 in YP.unify(arg5, Term)) 2144 foreach (bool l3 in YP.unify(arg5, Term))
2145 { 2145 {
2146 foreach (bool l4 in YP.unify(arg6, new ListPair(Token, Tokens))) 2146 foreach (bool l4 in YP.unify(arg6, new ListPair(Token, Tokens)))
2147 { 2147 {
2148 yield return false; 2148 yield return false;
2149 } 2149 }
2150 } 2150 }
2151 } 2151 }
2152 } 2152 }
2153 } 2153 }
2154 2154
2155 public static IEnumerable<bool> syntax_error(object _Message, object _List) 2155 public static IEnumerable<bool> syntax_error(object _Message, object _List)
2156 { 2156 {
2157 { 2157 {
2158 yield break; 2158 yield break;
2159 } 2159 }
2160 } 2160 }
2161 2161
2162 public static IEnumerable<bool> syntax_error(object _List) 2162 public static IEnumerable<bool> syntax_error(object _List)
2163 { 2163 {
2164 { 2164 {
2165 yield break; 2165 yield break;
2166 } 2166 }
2167 } 2167 }
2168 2168
2169 public static IEnumerable<bool> prefixop(object F, object O, object Q) 2169 public static IEnumerable<bool> prefixop(object F, object O, object Q)
2170 { 2170 {
2171 { 2171 {
2172 foreach (bool l2 in YP.current_op(O, Atom.a(@"fx"), F)) 2172 foreach (bool l2 in YP.current_op(O, Atom.a(@"fx"), F))
2173 { 2173 {
2174 foreach (bool l3 in YP.unify(Q, YP.subtract(O, 1))) 2174 foreach (bool l3 in YP.unify(Q, YP.subtract(O, 1)))
2175 { 2175 {
2176 yield return false; 2176 yield return false;
2177 } 2177 }
2178 goto cutIf1; 2178 goto cutIf1;
2179 } 2179 }
2180 foreach (bool l2 in YP.current_op(O, Atom.a(@"fy"), F)) 2180 foreach (bool l2 in YP.current_op(O, Atom.a(@"fy"), F))
2181 { 2181 {
2182 foreach (bool l3 in YP.unify(Q, O)) 2182 foreach (bool l3 in YP.unify(Q, O))
2183 { 2183 {
2184 yield return false; 2184 yield return false;
2185 } 2185 }
2186 goto cutIf2; 2186 goto cutIf2;
2187 } 2187 }
2188 cutIf2: 2188 cutIf2:
2189 cutIf1: 2189 cutIf1:
2190 { } 2190 { }
2191 } 2191 }
2192 } 2192 }
2193 2193
2194 public static IEnumerable<bool> postfixop(object F, object P, object O) 2194 public static IEnumerable<bool> postfixop(object F, object P, object O)
2195 { 2195 {
2196 { 2196 {
2197 foreach (bool l2 in YP.current_op(O, Atom.a(@"xf"), F)) 2197 foreach (bool l2 in YP.current_op(O, Atom.a(@"xf"), F))
2198 { 2198 {
2199 foreach (bool l3 in YP.unify(P, YP.subtract(O, 1))) 2199 foreach (bool l3 in YP.unify(P, YP.subtract(O, 1)))
2200 { 2200 {
2201 yield return false; 2201 yield return false;
2202 } 2202 }
2203 goto cutIf1; 2203 goto cutIf1;
2204 } 2204 }
2205 foreach (bool l2 in YP.current_op(O, Atom.a(@"yf"), F)) 2205 foreach (bool l2 in YP.current_op(O, Atom.a(@"yf"), F))
2206 { 2206 {
2207 foreach (bool l3 in YP.unify(P, O)) 2207 foreach (bool l3 in YP.unify(P, O))
2208 { 2208 {
2209 yield return false; 2209 yield return false;
2210 } 2210 }
2211 goto cutIf2; 2211 goto cutIf2;
2212 } 2212 }
2213 cutIf2: 2213 cutIf2:
2214 cutIf1: 2214 cutIf1:
2215 { } 2215 { }
2216 } 2216 }
2217 } 2217 }
2218 2218
2219 public static IEnumerable<bool> infixop(object F, object P, object O, object Q) 2219 public static IEnumerable<bool> infixop(object F, object P, object O, object Q)
2220 { 2220 {
2221 { 2221 {
2222 foreach (bool l2 in YP.current_op(O, Atom.a(@"xfy"), F)) 2222 foreach (bool l2 in YP.current_op(O, Atom.a(@"xfy"), F))
2223 { 2223 {
2224 foreach (bool l3 in YP.unify(P, YP.subtract(O, 1))) 2224 foreach (bool l3 in YP.unify(P, YP.subtract(O, 1)))
2225 { 2225 {
2226 foreach (bool l4 in YP.unify(Q, O)) 2226 foreach (bool l4 in YP.unify(Q, O))
2227 { 2227 {
2228 yield return false; 2228 yield return false;
2229 } 2229 }
2230 } 2230 }
2231 goto cutIf1; 2231 goto cutIf1;
2232 } 2232 }
2233 foreach (bool l2 in YP.current_op(O, Atom.a(@"xfx"), F)) 2233 foreach (bool l2 in YP.current_op(O, Atom.a(@"xfx"), F))
2234 { 2234 {
2235 foreach (bool l3 in YP.unify(P, YP.subtract(O, 1))) 2235 foreach (bool l3 in YP.unify(P, YP.subtract(O, 1)))
2236 { 2236 {
2237 foreach (bool l4 in YP.unify(Q, P)) 2237 foreach (bool l4 in YP.unify(Q, P))
2238 { 2238 {
2239 yield return false; 2239 yield return false;
2240 } 2240 }
2241 } 2241 }
2242 goto cutIf2; 2242 goto cutIf2;
2243 } 2243 }
2244 foreach (bool l2 in YP.current_op(O, Atom.a(@"yfx"), F)) 2244 foreach (bool l2 in YP.current_op(O, Atom.a(@"yfx"), F))
2245 { 2245 {
2246 foreach (bool l3 in YP.unify(Q, YP.subtract(O, 1))) 2246 foreach (bool l3 in YP.unify(Q, YP.subtract(O, 1)))
2247 { 2247 {
2248 foreach (bool l4 in YP.unify(P, O)) 2248 foreach (bool l4 in YP.unify(P, O))
2249 { 2249 {
2250 yield return false; 2250 yield return false;
2251 } 2251 }
2252 } 2252 }
2253 goto cutIf3; 2253 goto cutIf3;
2254 } 2254 }
2255 cutIf3: 2255 cutIf3:
2256 cutIf2: 2256 cutIf2:
2257 cutIf1: 2257 cutIf1:
2258 { } 2258 { }
2259 } 2259 }
2260 } 2260 }
2261 2261
2262 public static IEnumerable<bool> ambigop(object F, object Precedence, object L1, object O1, object R1, object L2, object O2) 2262 public static IEnumerable<bool> ambigop(object F, object Precedence, object L1, object O1, object R1, object L2, object O2)
2263 { 2263 {
2264 { 2264 {
2265 foreach (bool l2 in postfixop(F, L2, O2)) 2265 foreach (bool l2 in postfixop(F, L2, O2))
2266 { 2266 {
2267 if (YP.lessThanOrEqual(O2, Precedence)) 2267 if (YP.lessThanOrEqual(O2, Precedence))
2268 { 2268 {
2269 foreach (bool l4 in infixop(F, L1, O1, R1)) 2269 foreach (bool l4 in infixop(F, L1, O1, R1))
2270 { 2270 {
2271 if (YP.lessThanOrEqual(O1, Precedence)) 2271 if (YP.lessThanOrEqual(O1, Precedence))
2272 { 2272 {
2273 yield return false; 2273 yield return false;
2274 } 2274 }
2275 } 2275 }
2276 } 2276 }
2277 } 2277 }
2278 } 2278 }
2279 } 2279 }
2280 2280
2281 public static IEnumerable<bool> read_tokens1(object arg1) 2281 public static IEnumerable<bool> read_tokens1(object arg1)
2282 { 2282 {
2283 { 2283 {
2284 object TokenList = arg1; 2284 object TokenList = arg1;
2285 Variable C1 = new Variable(); 2285 Variable C1 = new Variable();
2286 Variable _X = new Variable(); 2286 Variable _X = new Variable();
2287 Variable ListOfTokens = new Variable(); 2287 Variable ListOfTokens = new Variable();
2288 foreach (bool l2 in YP.get_code(C1)) 2288 foreach (bool l2 in YP.get_code(C1))
2289 { 2289 {
2290 foreach (bool l3 in read_tokens(C1, _X, ListOfTokens)) 2290 foreach (bool l3 in read_tokens(C1, _X, ListOfTokens))
2291 { 2291 {
2292 foreach (bool l4 in YP.unify(TokenList, ListOfTokens)) 2292 foreach (bool l4 in YP.unify(TokenList, ListOfTokens))
2293 { 2293 {
2294 yield return false; 2294 yield return false;
2295 } 2295 }
2296 yield break; 2296 yield break;
2297 } 2297 }
2298 } 2298 }
2299 } 2299 }
2300 { 2300 {
2301 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", Atom.a(@"end_of_file"), 0), Atom.NIL))) 2301 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", Atom.a(@"end_of_file"), 0), Atom.NIL)))
2302 { 2302 {
2303 yield return false; 2303 yield return false;
2304 } 2304 }
2305 } 2305 }
2306 } 2306 }
2307 2307
2308 public static IEnumerable<bool> read_tokens2(object arg1, object arg2) 2308 public static IEnumerable<bool> read_tokens2(object arg1, object arg2)
2309 { 2309 {
2310 { 2310 {
2311 object TokenList = arg1; 2311 object TokenList = arg1;
2312 object Dictionary = arg2; 2312 object Dictionary = arg2;
2313 Variable C1 = new Variable(); 2313 Variable C1 = new Variable();
2314 Variable Dict = new Variable(); 2314 Variable Dict = new Variable();
2315 Variable ListOfTokens = new Variable(); 2315 Variable ListOfTokens = new Variable();
2316 foreach (bool l2 in YP.get_code(C1)) 2316 foreach (bool l2 in YP.get_code(C1))
2317 { 2317 {
2318 foreach (bool l3 in read_tokens(C1, Dict, ListOfTokens)) 2318 foreach (bool l3 in read_tokens(C1, Dict, ListOfTokens))
2319 { 2319 {
2320 foreach (bool l4 in terminate_list(Dict)) 2320 foreach (bool l4 in terminate_list(Dict))
2321 { 2321 {
2322 foreach (bool l5 in YP.unify(Dictionary, Dict)) 2322 foreach (bool l5 in YP.unify(Dictionary, Dict))
2323 { 2323 {
2324 foreach (bool l6 in YP.unify(TokenList, ListOfTokens)) 2324 foreach (bool l6 in YP.unify(TokenList, ListOfTokens))
2325 { 2325 {
2326 yield return false; 2326 yield return false;
2327 } 2327 }
2328 } 2328 }
2329 yield break; 2329 yield break;
2330 } 2330 }
2331 } 2331 }
2332 } 2332 }
2333 } 2333 }
2334 { 2334 {
2335 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", Atom.a(@"end_of_file"), 0), Atom.NIL))) 2335 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"atom", Atom.a(@"end_of_file"), 0), Atom.NIL)))
2336 { 2336 {
2337 foreach (bool l3 in YP.unify(arg2, Atom.NIL)) 2337 foreach (bool l3 in YP.unify(arg2, Atom.NIL))
2338 { 2338 {
2339 yield return false; 2339 yield return false;
2340 } 2340 }
2341 } 2341 }
2342 } 2342 }
2343 } 2343 }
2344 2344
2345 public static IEnumerable<bool> terminate_list(object arg1) 2345 public static IEnumerable<bool> terminate_list(object arg1)
2346 { 2346 {
2347 { 2347 {
2348 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 2348 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
2349 { 2349 {
2350 yield return false; 2350 yield return false;
2351 } 2351 }
2352 } 2352 }
2353 { 2353 {
2354 Variable x1 = new Variable(); 2354 Variable x1 = new Variable();
2355 Variable Tail = new Variable(); 2355 Variable Tail = new Variable();
2356 foreach (bool l2 in YP.unify(arg1, new ListPair(x1, Tail))) 2356 foreach (bool l2 in YP.unify(arg1, new ListPair(x1, Tail)))
2357 { 2357 {
2358 foreach (bool l3 in terminate_list(Tail)) 2358 foreach (bool l3 in terminate_list(Tail))
2359 { 2359 {
2360 yield return false; 2360 yield return false;
2361 } 2361 }
2362 } 2362 }
2363 } 2363 }
2364 } 2364 }
2365 2365
2366 public static IEnumerable<bool> read_special(object arg1, object Dict, object arg3) 2366 public static IEnumerable<bool> read_special(object arg1, object Dict, object arg3)
2367 { 2367 {
2368 { 2368 {
2369 object Tokens = arg3; 2369 object Tokens = arg3;
2370 foreach (bool l2 in YP.unify(arg1, 95)) 2370 foreach (bool l2 in YP.unify(arg1, 95))
2371 { 2371 {
2372 foreach (bool l3 in read_variable(95, Dict, Tokens)) 2372 foreach (bool l3 in read_variable(95, Dict, Tokens))
2373 { 2373 {
2374 yield return false; 2374 yield return false;
2375 } 2375 }
2376 } 2376 }
2377 } 2377 }
2378 { 2378 {
2379 object Tokens = arg3; 2379 object Tokens = arg3;
2380 foreach (bool l2 in YP.unify(arg1, 247)) 2380 foreach (bool l2 in YP.unify(arg1, 247))
2381 { 2381 {
2382 foreach (bool l3 in read_symbol(247, Dict, Tokens)) 2382 foreach (bool l3 in read_symbol(247, Dict, Tokens))
2383 { 2383 {
2384 yield return false; 2384 yield return false;
2385 } 2385 }
2386 } 2386 }
2387 } 2387 }
2388 { 2388 {
2389 object Tokens = arg3; 2389 object Tokens = arg3;
2390 foreach (bool l2 in YP.unify(arg1, 215)) 2390 foreach (bool l2 in YP.unify(arg1, 215))
2391 { 2391 {
2392 foreach (bool l3 in read_symbol(215, Dict, Tokens)) 2392 foreach (bool l3 in read_symbol(215, Dict, Tokens))
2393 { 2393 {
2394 yield return false; 2394 yield return false;
2395 } 2395 }
2396 } 2396 }
2397 } 2397 }
2398 { 2398 {
2399 Variable StartPos = new Variable(); 2399 Variable StartPos = new Variable();
2400 Variable EndPos = new Variable(); 2400 Variable EndPos = new Variable();
2401 Variable Tokens = new Variable(); 2401 Variable Tokens = new Variable();
2402 Variable Ch = new Variable(); 2402 Variable Ch = new Variable();
2403 Variable NextCh = new Variable(); 2403 Variable NextCh = new Variable();
2404 foreach (bool l2 in YP.unify(arg1, 37)) 2404 foreach (bool l2 in YP.unify(arg1, 37))
2405 { 2405 {
2406 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"comment", StartPos, EndPos), Tokens))) 2406 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"comment", StartPos, EndPos), Tokens)))
2407 { 2407 {
2408 foreach (bool l4 in get_current_position(StartPos)) 2408 foreach (bool l4 in get_current_position(StartPos))
2409 { 2409 {
2410 foreach (bool l5 in YP.repeat()) 2410 foreach (bool l5 in YP.repeat())
2411 { 2411 {
2412 foreach (bool l6 in YP.get_code(Ch)) 2412 foreach (bool l6 in YP.get_code(Ch))
2413 { 2413 {
2414 if (YP.lessThan(Ch, new ListPair(32, Atom.NIL))) 2414 if (YP.lessThan(Ch, new ListPair(32, Atom.NIL)))
2415 { 2415 {
2416 if (YP.notEqual(Ch, 9)) 2416 if (YP.notEqual(Ch, 9))
2417 { 2417 {
2418 if (YP.termNotEqual(Ch, -1)) 2418 if (YP.termNotEqual(Ch, -1))
2419 { 2419 {
2420 foreach (bool l10 in get_current_position(EndPos)) 2420 foreach (bool l10 in get_current_position(EndPos))
2421 { 2421 {
2422 foreach (bool l11 in YP.get_code(NextCh)) 2422 foreach (bool l11 in YP.get_code(NextCh))
2423 { 2423 {
2424 foreach (bool l12 in read_tokens(NextCh, Dict, Tokens)) 2424 foreach (bool l12 in read_tokens(NextCh, Dict, Tokens))
2425 { 2425 {
2426 yield return false; 2426 yield return false;
2427 } 2427 }
2428 } 2428 }
2429 } 2429 }
2430 } 2430 }
2431 yield break; 2431 yield break;
2432 } 2432 }
2433 } 2433 }
2434 } 2434 }
2435 } 2435 }
2436 } 2436 }
2437 } 2437 }
2438 } 2438 }
2439 } 2439 }
2440 { 2440 {
2441 object T = arg3; 2441 object T = arg3;
2442 Variable C2 = new Variable(); 2442 Variable C2 = new Variable();
2443 Variable StartPos = new Variable(); 2443 Variable StartPos = new Variable();
2444 Variable EndPos = new Variable(); 2444 Variable EndPos = new Variable();
2445 Variable Tokens = new Variable(); 2445 Variable Tokens = new Variable();
2446 Variable StartPos1 = new Variable(); 2446 Variable StartPos1 = new Variable();
2447 Variable NextCh = new Variable(); 2447 Variable NextCh = new Variable();
2448 Variable Chars = new Variable(); 2448 Variable Chars = new Variable();
2449 foreach (bool l2 in YP.unify(arg1, 47)) 2449 foreach (bool l2 in YP.unify(arg1, 47))
2450 { 2450 {
2451 foreach (bool l3 in YP.get_code(C2)) 2451 foreach (bool l3 in YP.get_code(C2))
2452 { 2452 {
2453 if (YP.equal(C2, new ListPair(42, Atom.NIL))) 2453 if (YP.equal(C2, new ListPair(42, Atom.NIL)))
2454 { 2454 {
2455 foreach (bool l5 in YP.unify(T, new ListPair(new Functor2(@"comment", StartPos, EndPos), Tokens))) 2455 foreach (bool l5 in YP.unify(T, new ListPair(new Functor2(@"comment", StartPos, EndPos), Tokens)))
2456 { 2456 {
2457 foreach (bool l6 in get_current_position(StartPos1)) 2457 foreach (bool l6 in get_current_position(StartPos1))
2458 { 2458 {
2459 foreach (bool l7 in YP.unify(StartPos, YP.subtract(StartPos1, 1))) 2459 foreach (bool l7 in YP.unify(StartPos, YP.subtract(StartPos1, 1)))
2460 { 2460 {
2461 foreach (bool l8 in read_solidus(32, NextCh)) 2461 foreach (bool l8 in read_solidus(32, NextCh))
2462 { 2462 {
2463 foreach (bool l9 in get_current_position(EndPos)) 2463 foreach (bool l9 in get_current_position(EndPos))
2464 { 2464 {
2465 foreach (bool l10 in read_tokens(NextCh, Dict, Tokens)) 2465 foreach (bool l10 in read_tokens(NextCh, Dict, Tokens))
2466 { 2466 {
2467 yield return false; 2467 yield return false;
2468 } 2468 }
2469 } 2469 }
2470 } 2470 }
2471 } 2471 }
2472 } 2472 }
2473 } 2473 }
2474 goto cutIf1; 2474 goto cutIf1;
2475 } 2475 }
2476 foreach (bool l4 in YP.unify(T, Tokens)) 2476 foreach (bool l4 in YP.unify(T, Tokens))
2477 { 2477 {
2478 foreach (bool l5 in rest_symbol(C2, Chars, NextCh)) 2478 foreach (bool l5 in rest_symbol(C2, Chars, NextCh))
2479 { 2479 {
2480 foreach (bool l6 in read_after_atom4(NextCh, Dict, Tokens, new ListPair(47, Chars))) 2480 foreach (bool l6 in read_after_atom4(NextCh, Dict, Tokens, new ListPair(47, Chars)))
2481 { 2481 {
2482 yield return false; 2482 yield return false;
2483 } 2483 }
2484 } 2484 }
2485 } 2485 }
2486 cutIf1: 2486 cutIf1:
2487 { } 2487 { }
2488 } 2488 }
2489 } 2489 }
2490 } 2490 }
2491 { 2491 {
2492 Variable Pos = new Variable(); 2492 Variable Pos = new Variable();
2493 Variable Tokens = new Variable(); 2493 Variable Tokens = new Variable();
2494 Variable NextCh = new Variable(); 2494 Variable NextCh = new Variable();
2495 foreach (bool l2 in YP.unify(arg1, 33)) 2495 foreach (bool l2 in YP.unify(arg1, 33))
2496 { 2496 {
2497 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"atom", Atom.a(@"!"), Pos), Tokens))) 2497 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"atom", Atom.a(@"!"), Pos), Tokens)))
2498 { 2498 {
2499 foreach (bool l4 in get_current_position(Pos)) 2499 foreach (bool l4 in get_current_position(Pos))
2500 { 2500 {
2501 foreach (bool l5 in YP.get_code(NextCh)) 2501 foreach (bool l5 in YP.get_code(NextCh))
2502 { 2502 {
2503 foreach (bool l6 in read_after_atom(NextCh, Dict, Tokens)) 2503 foreach (bool l6 in read_after_atom(NextCh, Dict, Tokens))
2504 { 2504 {
2505 yield return false; 2505 yield return false;
2506 } 2506 }
2507 } 2507 }
2508 } 2508 }
2509 } 2509 }
2510 } 2510 }
2511 } 2511 }
2512 { 2512 {
2513 Variable Tokens = new Variable(); 2513 Variable Tokens = new Variable();
2514 Variable NextCh = new Variable(); 2514 Variable NextCh = new Variable();
2515 foreach (bool l2 in YP.unify(arg1, 40)) 2515 foreach (bool l2 in YP.unify(arg1, 40))
2516 { 2516 {
2517 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@" ("), Tokens))) 2517 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@" ("), Tokens)))
2518 { 2518 {
2519 foreach (bool l4 in YP.get_code(NextCh)) 2519 foreach (bool l4 in YP.get_code(NextCh))
2520 { 2520 {
2521 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens)) 2521 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens))
2522 { 2522 {
2523 yield return false; 2523 yield return false;
2524 } 2524 }
2525 } 2525 }
2526 } 2526 }
2527 } 2527 }
2528 } 2528 }
2529 { 2529 {
2530 Variable Tokens = new Variable(); 2530 Variable Tokens = new Variable();
2531 Variable NextCh = new Variable(); 2531 Variable NextCh = new Variable();
2532 foreach (bool l2 in YP.unify(arg1, 41)) 2532 foreach (bool l2 in YP.unify(arg1, 41))
2533 { 2533 {
2534 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@")"), Tokens))) 2534 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@")"), Tokens)))
2535 { 2535 {
2536 foreach (bool l4 in YP.get_code(NextCh)) 2536 foreach (bool l4 in YP.get_code(NextCh))
2537 { 2537 {
2538 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens)) 2538 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens))
2539 { 2539 {
2540 yield return false; 2540 yield return false;
2541 } 2541 }
2542 } 2542 }
2543 } 2543 }
2544 } 2544 }
2545 } 2545 }
2546 { 2546 {
2547 Variable Tokens = new Variable(); 2547 Variable Tokens = new Variable();
2548 Variable NextCh = new Variable(); 2548 Variable NextCh = new Variable();
2549 foreach (bool l2 in YP.unify(arg1, 44)) 2549 foreach (bool l2 in YP.unify(arg1, 44))
2550 { 2550 {
2551 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@","), Tokens))) 2551 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@","), Tokens)))
2552 { 2552 {
2553 foreach (bool l4 in YP.get_code(NextCh)) 2553 foreach (bool l4 in YP.get_code(NextCh))
2554 { 2554 {
2555 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens)) 2555 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens))
2556 { 2556 {
2557 yield return false; 2557 yield return false;
2558 } 2558 }
2559 } 2559 }
2560 } 2560 }
2561 } 2561 }
2562 } 2562 }
2563 { 2563 {
2564 Variable Pos = new Variable(); 2564 Variable Pos = new Variable();
2565 Variable Tokens = new Variable(); 2565 Variable Tokens = new Variable();
2566 Variable NextCh = new Variable(); 2566 Variable NextCh = new Variable();
2567 foreach (bool l2 in YP.unify(arg1, 59)) 2567 foreach (bool l2 in YP.unify(arg1, 59))
2568 { 2568 {
2569 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"atom", Atom.a(@";"), Pos), Tokens))) 2569 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"atom", Atom.a(@";"), Pos), Tokens)))
2570 { 2570 {
2571 foreach (bool l4 in get_current_position(Pos)) 2571 foreach (bool l4 in get_current_position(Pos))
2572 { 2572 {
2573 foreach (bool l5 in YP.get_code(NextCh)) 2573 foreach (bool l5 in YP.get_code(NextCh))
2574 { 2574 {
2575 foreach (bool l6 in read_after_atom(NextCh, Dict, Tokens)) 2575 foreach (bool l6 in read_after_atom(NextCh, Dict, Tokens))
2576 { 2576 {
2577 yield return false; 2577 yield return false;
2578 } 2578 }
2579 } 2579 }
2580 } 2580 }
2581 } 2581 }
2582 } 2582 }
2583 } 2583 }
2584 { 2584 {
2585 Variable Pos = new Variable(); 2585 Variable Pos = new Variable();
2586 Variable Tokens = new Variable(); 2586 Variable Tokens = new Variable();
2587 Variable NextCh = new Variable(); 2587 Variable NextCh = new Variable();
2588 foreach (bool l2 in YP.unify(arg1, 91)) 2588 foreach (bool l2 in YP.unify(arg1, 91))
2589 { 2589 {
2590 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"/", Atom.a(@"["), Pos), Tokens))) 2590 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"/", Atom.a(@"["), Pos), Tokens)))
2591 { 2591 {
2592 foreach (bool l4 in get_current_position(Pos)) 2592 foreach (bool l4 in get_current_position(Pos))
2593 { 2593 {
2594 foreach (bool l5 in YP.get_code(NextCh)) 2594 foreach (bool l5 in YP.get_code(NextCh))
2595 { 2595 {
2596 foreach (bool l6 in read_tokens(NextCh, Dict, Tokens)) 2596 foreach (bool l6 in read_tokens(NextCh, Dict, Tokens))
2597 { 2597 {
2598 yield return false; 2598 yield return false;
2599 } 2599 }
2600 } 2600 }
2601 } 2601 }
2602 } 2602 }
2603 } 2603 }
2604 } 2604 }
2605 { 2605 {
2606 Variable Pos = new Variable(); 2606 Variable Pos = new Variable();
2607 Variable Tokens = new Variable(); 2607 Variable Tokens = new Variable();
2608 Variable NextCh = new Variable(); 2608 Variable NextCh = new Variable();
2609 foreach (bool l2 in YP.unify(arg1, 93)) 2609 foreach (bool l2 in YP.unify(arg1, 93))
2610 { 2610 {
2611 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"/", Atom.a(@"]"), Pos), Tokens))) 2611 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"/", Atom.a(@"]"), Pos), Tokens)))
2612 { 2612 {
2613 foreach (bool l4 in get_current_position(Pos)) 2613 foreach (bool l4 in get_current_position(Pos))
2614 { 2614 {
2615 foreach (bool l5 in YP.get_code(NextCh)) 2615 foreach (bool l5 in YP.get_code(NextCh))
2616 { 2616 {
2617 foreach (bool l6 in read_after_atom(NextCh, Dict, Tokens)) 2617 foreach (bool l6 in read_after_atom(NextCh, Dict, Tokens))
2618 { 2618 {
2619 yield return false; 2619 yield return false;
2620 } 2620 }
2621 } 2621 }
2622 } 2622 }
2623 } 2623 }
2624 } 2624 }
2625 } 2625 }
2626 { 2626 {
2627 Variable Pos = new Variable(); 2627 Variable Pos = new Variable();
2628 Variable Tokens = new Variable(); 2628 Variable Tokens = new Variable();
2629 Variable NextCh = new Variable(); 2629 Variable NextCh = new Variable();
2630 foreach (bool l2 in YP.unify(arg1, 123)) 2630 foreach (bool l2 in YP.unify(arg1, 123))
2631 { 2631 {
2632 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"/", Atom.a(@"{"), Pos), Tokens))) 2632 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"/", Atom.a(@"{"), Pos), Tokens)))
2633 { 2633 {
2634 foreach (bool l4 in get_current_position(Pos)) 2634 foreach (bool l4 in get_current_position(Pos))
2635 { 2635 {
2636 foreach (bool l5 in YP.get_code(NextCh)) 2636 foreach (bool l5 in YP.get_code(NextCh))
2637 { 2637 {
2638 foreach (bool l6 in read_tokens(NextCh, Dict, Tokens)) 2638 foreach (bool l6 in read_tokens(NextCh, Dict, Tokens))
2639 { 2639 {
2640 yield return false; 2640 yield return false;
2641 } 2641 }
2642 } 2642 }
2643 } 2643 }
2644 } 2644 }
2645 } 2645 }
2646 } 2646 }
2647 { 2647 {
2648 Variable Tokens = new Variable(); 2648 Variable Tokens = new Variable();
2649 Variable NextCh = new Variable(); 2649 Variable NextCh = new Variable();
2650 foreach (bool l2 in YP.unify(arg1, 124)) 2650 foreach (bool l2 in YP.unify(arg1, 124))
2651 { 2651 {
2652 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"|"), Tokens))) 2652 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"|"), Tokens)))
2653 { 2653 {
2654 foreach (bool l4 in YP.get_code(NextCh)) 2654 foreach (bool l4 in YP.get_code(NextCh))
2655 { 2655 {
2656 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens)) 2656 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens))
2657 { 2657 {
2658 yield return false; 2658 yield return false;
2659 } 2659 }
2660 } 2660 }
2661 } 2661 }
2662 } 2662 }
2663 } 2663 }
2664 { 2664 {
2665 Variable Tokens = new Variable(); 2665 Variable Tokens = new Variable();
2666 Variable NextCh = new Variable(); 2666 Variable NextCh = new Variable();
2667 foreach (bool l2 in YP.unify(arg1, 125)) 2667 foreach (bool l2 in YP.unify(arg1, 125))
2668 { 2668 {
2669 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"}"), Tokens))) 2669 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"}"), Tokens)))
2670 { 2670 {
2671 foreach (bool l4 in YP.get_code(NextCh)) 2671 foreach (bool l4 in YP.get_code(NextCh))
2672 { 2672 {
2673 foreach (bool l5 in read_after_atom(NextCh, Dict, Tokens)) 2673 foreach (bool l5 in read_after_atom(NextCh, Dict, Tokens))
2674 { 2674 {
2675 yield return false; 2675 yield return false;
2676 } 2676 }
2677 } 2677 }
2678 } 2678 }
2679 } 2679 }
2680 } 2680 }
2681 { 2681 {
2682 object Tokens = arg3; 2682 object Tokens = arg3;
2683 Variable NextCh = new Variable(); 2683 Variable NextCh = new Variable();
2684 foreach (bool l2 in YP.unify(arg1, 46)) 2684 foreach (bool l2 in YP.unify(arg1, 46))
2685 { 2685 {
2686 foreach (bool l3 in YP.get_code(NextCh)) 2686 foreach (bool l3 in YP.get_code(NextCh))
2687 { 2687 {
2688 foreach (bool l4 in read_fullstop(NextCh, Dict, Tokens)) 2688 foreach (bool l4 in read_fullstop(NextCh, Dict, Tokens))
2689 { 2689 {
2690 yield return false; 2690 yield return false;
2691 } 2691 }
2692 } 2692 }
2693 } 2693 }
2694 } 2694 }
2695 { 2695 {
2696 Variable Chars = new Variable(); 2696 Variable Chars = new Variable();
2697 Variable Tokens = new Variable(); 2697 Variable Tokens = new Variable();
2698 Variable NextCh = new Variable(); 2698 Variable NextCh = new Variable();
2699 foreach (bool l2 in YP.unify(arg1, 34)) 2699 foreach (bool l2 in YP.unify(arg1, 34))
2700 { 2700 {
2701 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor1(@"string", Chars), Tokens))) 2701 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor1(@"string", Chars), Tokens)))
2702 { 2702 {
2703 foreach (bool l4 in read_string(Chars, 34, NextCh)) 2703 foreach (bool l4 in read_string(Chars, 34, NextCh))
2704 { 2704 {
2705 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens)) 2705 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens))
2706 { 2706 {
2707 yield return false; 2707 yield return false;
2708 } 2708 }
2709 } 2709 }
2710 } 2710 }
2711 } 2711 }
2712 } 2712 }
2713 { 2713 {
2714 object Tokens = arg3; 2714 object Tokens = arg3;
2715 Variable Chars = new Variable(); 2715 Variable Chars = new Variable();
2716 Variable NextCh = new Variable(); 2716 Variable NextCh = new Variable();
2717 foreach (bool l2 in YP.unify(arg1, 39)) 2717 foreach (bool l2 in YP.unify(arg1, 39))
2718 { 2718 {
2719 foreach (bool l3 in read_string(Chars, 39, NextCh)) 2719 foreach (bool l3 in read_string(Chars, 39, NextCh))
2720 { 2720 {
2721 foreach (bool l4 in read_after_atom4(NextCh, Dict, Tokens, Chars)) 2721 foreach (bool l4 in read_after_atom4(NextCh, Dict, Tokens, Chars))
2722 { 2722 {
2723 yield return false; 2723 yield return false;
2724 } 2724 }
2725 } 2725 }
2726 } 2726 }
2727 } 2727 }
2728 { 2728 {
2729 object Tokens = arg3; 2729 object Tokens = arg3;
2730 foreach (bool l2 in YP.unify(arg1, 35)) 2730 foreach (bool l2 in YP.unify(arg1, 35))
2731 { 2731 {
2732 foreach (bool l3 in read_symbol(35, Dict, Tokens)) 2732 foreach (bool l3 in read_symbol(35, Dict, Tokens))
2733 { 2733 {
2734 yield return false; 2734 yield return false;
2735 } 2735 }
2736 } 2736 }
2737 } 2737 }
2738 { 2738 {
2739 object Tokens = arg3; 2739 object Tokens = arg3;
2740 foreach (bool l2 in YP.unify(arg1, 36)) 2740 foreach (bool l2 in YP.unify(arg1, 36))
2741 { 2741 {
2742 foreach (bool l3 in read_symbol(36, Dict, Tokens)) 2742 foreach (bool l3 in read_symbol(36, Dict, Tokens))
2743 { 2743 {
2744 yield return false; 2744 yield return false;
2745 } 2745 }
2746 } 2746 }
2747 } 2747 }
2748 { 2748 {
2749 object Tokens = arg3; 2749 object Tokens = arg3;
2750 foreach (bool l2 in YP.unify(arg1, 38)) 2750 foreach (bool l2 in YP.unify(arg1, 38))
2751 { 2751 {
2752 foreach (bool l3 in read_symbol(38, Dict, Tokens)) 2752 foreach (bool l3 in read_symbol(38, Dict, Tokens))
2753 { 2753 {
2754 yield return false; 2754 yield return false;
2755 } 2755 }
2756 } 2756 }
2757 } 2757 }
2758 { 2758 {
2759 object Tokens = arg3; 2759 object Tokens = arg3;
2760 foreach (bool l2 in YP.unify(arg1, 42)) 2760 foreach (bool l2 in YP.unify(arg1, 42))
2761 { 2761 {
2762 foreach (bool l3 in read_symbol(42, Dict, Tokens)) 2762 foreach (bool l3 in read_symbol(42, Dict, Tokens))
2763 { 2763 {
2764 yield return false; 2764 yield return false;
2765 } 2765 }
2766 } 2766 }
2767 } 2767 }
2768 { 2768 {
2769 object Tokens = arg3; 2769 object Tokens = arg3;
2770 foreach (bool l2 in YP.unify(arg1, 43)) 2770 foreach (bool l2 in YP.unify(arg1, 43))
2771 { 2771 {
2772 foreach (bool l3 in read_symbol(43, Dict, Tokens)) 2772 foreach (bool l3 in read_symbol(43, Dict, Tokens))
2773 { 2773 {
2774 yield return false; 2774 yield return false;
2775 } 2775 }
2776 } 2776 }
2777 } 2777 }
2778 { 2778 {
2779 object Tokens = arg3; 2779 object Tokens = arg3;
2780 foreach (bool l2 in YP.unify(arg1, 45)) 2780 foreach (bool l2 in YP.unify(arg1, 45))
2781 { 2781 {
2782 foreach (bool l3 in read_symbol(45, Dict, Tokens)) 2782 foreach (bool l3 in read_symbol(45, Dict, Tokens))
2783 { 2783 {
2784 yield return false; 2784 yield return false;
2785 } 2785 }
2786 } 2786 }
2787 } 2787 }
2788 { 2788 {
2789 object Tokens = arg3; 2789 object Tokens = arg3;
2790 foreach (bool l2 in YP.unify(arg1, 58)) 2790 foreach (bool l2 in YP.unify(arg1, 58))
2791 { 2791 {
2792 foreach (bool l3 in read_symbol(58, Dict, Tokens)) 2792 foreach (bool l3 in read_symbol(58, Dict, Tokens))
2793 { 2793 {
2794 yield return false; 2794 yield return false;
2795 } 2795 }
2796 } 2796 }
2797 } 2797 }
2798 { 2798 {
2799 object Tokens = arg3; 2799 object Tokens = arg3;
2800 foreach (bool l2 in YP.unify(arg1, 60)) 2800 foreach (bool l2 in YP.unify(arg1, 60))
2801 { 2801 {
2802 foreach (bool l3 in read_symbol(60, Dict, Tokens)) 2802 foreach (bool l3 in read_symbol(60, Dict, Tokens))
2803 { 2803 {
2804 yield return false; 2804 yield return false;
2805 } 2805 }
2806 } 2806 }
2807 } 2807 }
2808 { 2808 {
2809 object Tokens = arg3; 2809 object Tokens = arg3;
2810 foreach (bool l2 in YP.unify(arg1, 61)) 2810 foreach (bool l2 in YP.unify(arg1, 61))
2811 { 2811 {
2812 foreach (bool l3 in read_symbol(61, Dict, Tokens)) 2812 foreach (bool l3 in read_symbol(61, Dict, Tokens))
2813 { 2813 {
2814 yield return false; 2814 yield return false;
2815 } 2815 }
2816 } 2816 }
2817 } 2817 }
2818 { 2818 {
2819 object Tokens = arg3; 2819 object Tokens = arg3;
2820 foreach (bool l2 in YP.unify(arg1, 62)) 2820 foreach (bool l2 in YP.unify(arg1, 62))
2821 { 2821 {
2822 foreach (bool l3 in read_symbol(62, Dict, Tokens)) 2822 foreach (bool l3 in read_symbol(62, Dict, Tokens))
2823 { 2823 {
2824 yield return false; 2824 yield return false;
2825 } 2825 }
2826 } 2826 }
2827 } 2827 }
2828 { 2828 {
2829 object Tokens = arg3; 2829 object Tokens = arg3;
2830 foreach (bool l2 in YP.unify(arg1, 63)) 2830 foreach (bool l2 in YP.unify(arg1, 63))
2831 { 2831 {
2832 foreach (bool l3 in read_symbol(63, Dict, Tokens)) 2832 foreach (bool l3 in read_symbol(63, Dict, Tokens))
2833 { 2833 {
2834 yield return false; 2834 yield return false;
2835 } 2835 }
2836 } 2836 }
2837 } 2837 }
2838 { 2838 {
2839 object Tokens = arg3; 2839 object Tokens = arg3;
2840 foreach (bool l2 in YP.unify(arg1, 64)) 2840 foreach (bool l2 in YP.unify(arg1, 64))
2841 { 2841 {
2842 foreach (bool l3 in read_symbol(64, Dict, Tokens)) 2842 foreach (bool l3 in read_symbol(64, Dict, Tokens))
2843 { 2843 {
2844 yield return false; 2844 yield return false;
2845 } 2845 }
2846 } 2846 }
2847 } 2847 }
2848 { 2848 {
2849 object Tokens = arg3; 2849 object Tokens = arg3;
2850 foreach (bool l2 in YP.unify(arg1, 92)) 2850 foreach (bool l2 in YP.unify(arg1, 92))
2851 { 2851 {
2852 foreach (bool l3 in read_symbol(92, Dict, Tokens)) 2852 foreach (bool l3 in read_symbol(92, Dict, Tokens))
2853 { 2853 {
2854 yield return false; 2854 yield return false;
2855 } 2855 }
2856 } 2856 }
2857 } 2857 }
2858 { 2858 {
2859 object Tokens = arg3; 2859 object Tokens = arg3;
2860 foreach (bool l2 in YP.unify(arg1, 94)) 2860 foreach (bool l2 in YP.unify(arg1, 94))
2861 { 2861 {
2862 foreach (bool l3 in read_symbol(94, Dict, Tokens)) 2862 foreach (bool l3 in read_symbol(94, Dict, Tokens))
2863 { 2863 {
2864 yield return false; 2864 yield return false;
2865 } 2865 }
2866 } 2866 }
2867 } 2867 }
2868 { 2868 {
2869 object Tokens = arg3; 2869 object Tokens = arg3;
2870 foreach (bool l2 in YP.unify(arg1, 96)) 2870 foreach (bool l2 in YP.unify(arg1, 96))
2871 { 2871 {
2872 foreach (bool l3 in read_symbol(96, Dict, Tokens)) 2872 foreach (bool l3 in read_symbol(96, Dict, Tokens))
2873 { 2873 {
2874 yield return false; 2874 yield return false;
2875 } 2875 }
2876 } 2876 }
2877 } 2877 }
2878 { 2878 {
2879 object Tokens = arg3; 2879 object Tokens = arg3;
2880 foreach (bool l2 in YP.unify(arg1, 126)) 2880 foreach (bool l2 in YP.unify(arg1, 126))
2881 { 2881 {
2882 foreach (bool l3 in read_symbol(126, Dict, Tokens)) 2882 foreach (bool l3 in read_symbol(126, Dict, Tokens))
2883 { 2883 {
2884 yield return false; 2884 yield return false;
2885 } 2885 }
2886 } 2886 }
2887 } 2887 }
2888 } 2888 }
2889 2889
2890 public static IEnumerable<bool> read_symbol(object C1, object Dict, object Tokens) 2890 public static IEnumerable<bool> read_symbol(object C1, object Dict, object Tokens)
2891 { 2891 {
2892 { 2892 {
2893 Variable C2 = new Variable(); 2893 Variable C2 = new Variable();
2894 Variable Chars = new Variable(); 2894 Variable Chars = new Variable();
2895 Variable NextCh = new Variable(); 2895 Variable NextCh = new Variable();
2896 foreach (bool l2 in YP.get_code(C2)) 2896 foreach (bool l2 in YP.get_code(C2))
2897 { 2897 {
2898 foreach (bool l3 in rest_symbol(C2, Chars, NextCh)) 2898 foreach (bool l3 in rest_symbol(C2, Chars, NextCh))
2899 { 2899 {
2900 foreach (bool l4 in read_after_atom4(NextCh, Dict, Tokens, new ListPair(C1, Chars))) 2900 foreach (bool l4 in read_after_atom4(NextCh, Dict, Tokens, new ListPair(C1, Chars)))
2901 { 2901 {
2902 yield return false; 2902 yield return false;
2903 } 2903 }
2904 } 2904 }
2905 } 2905 }
2906 } 2906 }
2907 } 2907 }
2908 2908
2909 public static IEnumerable<bool> rest_symbol(object arg1, object arg2, object arg3) 2909 public static IEnumerable<bool> rest_symbol(object arg1, object arg2, object arg3)
2910 { 2910 {
2911 { 2911 {
2912 object C2 = arg1; 2912 object C2 = arg1;
2913 object LastCh = arg3; 2913 object LastCh = arg3;
2914 Variable Chars = new Variable(); 2914 Variable Chars = new Variable();
2915 Variable NextCh = new Variable(); 2915 Variable NextCh = new Variable();
2916 foreach (bool l2 in YP.unify(arg2, new ListPair(C2, Chars))) 2916 foreach (bool l2 in YP.unify(arg2, new ListPair(C2, Chars)))
2917 { 2917 {
2918 if (YP.greaterThan(C2, 160)) 2918 if (YP.greaterThan(C2, 160))
2919 { 2919 {
2920 if (YP.lessThan(C2, 192)) 2920 if (YP.lessThan(C2, 192))
2921 { 2921 {
2922 if (YP.notEqual(C2, 186)) 2922 if (YP.notEqual(C2, 186))
2923 { 2923 {
2924 if (YP.notEqual(C2, 170)) 2924 if (YP.notEqual(C2, 170))
2925 { 2925 {
2926 foreach (bool l7 in YP.get_code(NextCh)) 2926 foreach (bool l7 in YP.get_code(NextCh))
2927 { 2927 {
2928 foreach (bool l8 in rest_symbol(NextCh, Chars, LastCh)) 2928 foreach (bool l8 in rest_symbol(NextCh, Chars, LastCh))
2929 { 2929 {
2930 yield return false; 2930 yield return false;
2931 } 2931 }
2932 } 2932 }
2933 yield break; 2933 yield break;
2934 } 2934 }
2935 } 2935 }
2936 } 2936 }
2937 goto cutIf1; 2937 goto cutIf1;
2938 } 2938 }
2939 foreach (bool l3 in symbol_char(C2)) 2939 foreach (bool l3 in symbol_char(C2))
2940 { 2940 {
2941 foreach (bool l4 in YP.get_code(NextCh)) 2941 foreach (bool l4 in YP.get_code(NextCh))
2942 { 2942 {
2943 foreach (bool l5 in rest_symbol(NextCh, Chars, LastCh)) 2943 foreach (bool l5 in rest_symbol(NextCh, Chars, LastCh))
2944 { 2944 {
2945 yield return false; 2945 yield return false;
2946 } 2946 }
2947 } 2947 }
2948 yield break; 2948 yield break;
2949 } 2949 }
2950 cutIf1: 2950 cutIf1:
2951 { } 2951 { }
2952 } 2952 }
2953 } 2953 }
2954 { 2954 {
2955 Variable C2 = new Variable(); 2955 Variable C2 = new Variable();
2956 foreach (bool l2 in YP.unify(arg1, C2)) 2956 foreach (bool l2 in YP.unify(arg1, C2))
2957 { 2957 {
2958 foreach (bool l3 in YP.unify(arg2, Atom.NIL)) 2958 foreach (bool l3 in YP.unify(arg2, Atom.NIL))
2959 { 2959 {
2960 foreach (bool l4 in YP.unify(arg3, C2)) 2960 foreach (bool l4 in YP.unify(arg3, C2))
2961 { 2961 {
2962 yield return false; 2962 yield return false;
2963 } 2963 }
2964 } 2964 }
2965 } 2965 }
2966 } 2966 }
2967 } 2967 }
2968 2968
2969 public static IEnumerable<bool> symbol_char(object arg1) 2969 public static IEnumerable<bool> symbol_char(object arg1)
2970 { 2970 {
2971 { 2971 {
2972 foreach (bool l2 in YP.unify(arg1, 35)) 2972 foreach (bool l2 in YP.unify(arg1, 35))
2973 { 2973 {
2974 yield return false; 2974 yield return false;
2975 } 2975 }
2976 } 2976 }
2977 { 2977 {
2978 foreach (bool l2 in YP.unify(arg1, 36)) 2978 foreach (bool l2 in YP.unify(arg1, 36))
2979 { 2979 {
2980 yield return false; 2980 yield return false;
2981 } 2981 }
2982 } 2982 }
2983 { 2983 {
2984 foreach (bool l2 in YP.unify(arg1, 38)) 2984 foreach (bool l2 in YP.unify(arg1, 38))
2985 { 2985 {
2986 yield return false; 2986 yield return false;
2987 } 2987 }
2988 } 2988 }
2989 { 2989 {
2990 foreach (bool l2 in YP.unify(arg1, 42)) 2990 foreach (bool l2 in YP.unify(arg1, 42))
2991 { 2991 {
2992 yield return false; 2992 yield return false;
2993 } 2993 }
2994 } 2994 }
2995 { 2995 {
2996 foreach (bool l2 in YP.unify(arg1, 43)) 2996 foreach (bool l2 in YP.unify(arg1, 43))
2997 { 2997 {
2998 yield return false; 2998 yield return false;
2999 } 2999 }
3000 } 3000 }
3001 { 3001 {
3002 foreach (bool l2 in YP.unify(arg1, 45)) 3002 foreach (bool l2 in YP.unify(arg1, 45))
3003 { 3003 {
3004 yield return false; 3004 yield return false;
3005 } 3005 }
3006 } 3006 }
3007 { 3007 {
3008 foreach (bool l2 in YP.unify(arg1, 46)) 3008 foreach (bool l2 in YP.unify(arg1, 46))
3009 { 3009 {
3010 yield return false; 3010 yield return false;
3011 } 3011 }
3012 } 3012 }
3013 { 3013 {
3014 foreach (bool l2 in YP.unify(arg1, 47)) 3014 foreach (bool l2 in YP.unify(arg1, 47))
3015 { 3015 {
3016 yield return false; 3016 yield return false;
3017 } 3017 }
3018 } 3018 }
3019 { 3019 {
3020 foreach (bool l2 in YP.unify(arg1, 58)) 3020 foreach (bool l2 in YP.unify(arg1, 58))
3021 { 3021 {
3022 yield return false; 3022 yield return false;
3023 } 3023 }
3024 } 3024 }
3025 { 3025 {
3026 foreach (bool l2 in YP.unify(arg1, 60)) 3026 foreach (bool l2 in YP.unify(arg1, 60))
3027 { 3027 {
3028 yield return false; 3028 yield return false;
3029 } 3029 }
3030 } 3030 }
3031 { 3031 {
3032 foreach (bool l2 in YP.unify(arg1, 61)) 3032 foreach (bool l2 in YP.unify(arg1, 61))
3033 { 3033 {
3034 yield return false; 3034 yield return false;
3035 } 3035 }
3036 } 3036 }
3037 { 3037 {
3038 foreach (bool l2 in YP.unify(arg1, 62)) 3038 foreach (bool l2 in YP.unify(arg1, 62))
3039 { 3039 {
3040 yield return false; 3040 yield return false;
3041 } 3041 }
3042 } 3042 }
3043 { 3043 {
3044 foreach (bool l2 in YP.unify(arg1, 63)) 3044 foreach (bool l2 in YP.unify(arg1, 63))
3045 { 3045 {
3046 yield return false; 3046 yield return false;
3047 } 3047 }
3048 } 3048 }
3049 { 3049 {
3050 foreach (bool l2 in YP.unify(arg1, 64)) 3050 foreach (bool l2 in YP.unify(arg1, 64))
3051 { 3051 {
3052 yield return false; 3052 yield return false;
3053 } 3053 }
3054 } 3054 }
3055 { 3055 {
3056 foreach (bool l2 in YP.unify(arg1, 92)) 3056 foreach (bool l2 in YP.unify(arg1, 92))
3057 { 3057 {
3058 yield return false; 3058 yield return false;
3059 } 3059 }
3060 } 3060 }
3061 { 3061 {
3062 foreach (bool l2 in YP.unify(arg1, 94)) 3062 foreach (bool l2 in YP.unify(arg1, 94))
3063 { 3063 {
3064 yield return false; 3064 yield return false;
3065 } 3065 }
3066 } 3066 }
3067 { 3067 {
3068 foreach (bool l2 in YP.unify(arg1, 96)) 3068 foreach (bool l2 in YP.unify(arg1, 96))
3069 { 3069 {
3070 yield return false; 3070 yield return false;
3071 } 3071 }
3072 } 3072 }
3073 { 3073 {
3074 foreach (bool l2 in YP.unify(arg1, 126)) 3074 foreach (bool l2 in YP.unify(arg1, 126))
3075 { 3075 {
3076 yield return false; 3076 yield return false;
3077 } 3077 }
3078 } 3078 }
3079 } 3079 }
3080 3080
3081 public static IEnumerable<bool> get_current_position(object Pos) 3081 public static IEnumerable<bool> get_current_position(object Pos)
3082 { 3082 {
3083 { 3083 {
3084 foreach (bool l2 in YP.unify(Pos, 0)) 3084 foreach (bool l2 in YP.unify(Pos, 0))
3085 { 3085 {
3086 yield return false; 3086 yield return false;
3087 } 3087 }
3088 } 3088 }
3089 } 3089 }
3090 3090
3091 public static IEnumerable<bool> read_after_atom4(object Ch, object Dict, object arg3, object Chars) 3091 public static IEnumerable<bool> read_after_atom4(object Ch, object Dict, object arg3, object Chars)
3092 { 3092 {
3093 { 3093 {
3094 Variable Atom_1 = new Variable(); 3094 Variable Atom_1 = new Variable();
3095 Variable Pos = new Variable(); 3095 Variable Pos = new Variable();
3096 Variable Tokens = new Variable(); 3096 Variable Tokens = new Variable();
3097 foreach (bool l2 in YP.unify(arg3, new ListPair(new Functor2(@"atom", Atom_1, Pos), Tokens))) 3097 foreach (bool l2 in YP.unify(arg3, new ListPair(new Functor2(@"atom", Atom_1, Pos), Tokens)))
3098 { 3098 {
3099 foreach (bool l3 in YP.unify(Pos, 0)) 3099 foreach (bool l3 in YP.unify(Pos, 0))
3100 { 3100 {
3101 foreach (bool l4 in YP.atom_codes(Atom_1, Chars)) 3101 foreach (bool l4 in YP.atom_codes(Atom_1, Chars))
3102 { 3102 {
3103 foreach (bool l5 in read_after_atom(Ch, Dict, Tokens)) 3103 foreach (bool l5 in read_after_atom(Ch, Dict, Tokens))
3104 { 3104 {
3105 yield return false; 3105 yield return false;
3106 } 3106 }
3107 } 3107 }
3108 } 3108 }
3109 } 3109 }
3110 } 3110 }
3111 } 3111 }
3112 3112
3113 public static IEnumerable<bool> read_after_atom(object arg1, object Dict, object arg3) 3113 public static IEnumerable<bool> read_after_atom(object arg1, object Dict, object arg3)
3114 { 3114 {
3115 { 3115 {
3116 Variable Tokens = new Variable(); 3116 Variable Tokens = new Variable();
3117 Variable NextCh = new Variable(); 3117 Variable NextCh = new Variable();
3118 foreach (bool l2 in YP.unify(arg1, 40)) 3118 foreach (bool l2 in YP.unify(arg1, 40))
3119 { 3119 {
3120 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"("), Tokens))) 3120 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"("), Tokens)))
3121 { 3121 {
3122 foreach (bool l4 in YP.get_code(NextCh)) 3122 foreach (bool l4 in YP.get_code(NextCh))
3123 { 3123 {
3124 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens)) 3124 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens))
3125 { 3125 {
3126 yield return false; 3126 yield return false;
3127 } 3127 }
3128 } 3128 }
3129 yield break; 3129 yield break;
3130 } 3130 }
3131 } 3131 }
3132 } 3132 }
3133 { 3133 {
3134 object Ch = arg1; 3134 object Ch = arg1;
3135 object Tokens = arg3; 3135 object Tokens = arg3;
3136 foreach (bool l2 in read_tokens(Ch, Dict, Tokens)) 3136 foreach (bool l2 in read_tokens(Ch, Dict, Tokens))
3137 { 3137 {
3138 yield return false; 3138 yield return false;
3139 } 3139 }
3140 } 3140 }
3141 } 3141 }
3142 3142
3143 public static IEnumerable<bool> read_string(object Chars, object Quote, object NextCh) 3143 public static IEnumerable<bool> read_string(object Chars, object Quote, object NextCh)
3144 { 3144 {
3145 { 3145 {
3146 Variable Ch = new Variable(); 3146 Variable Ch = new Variable();
3147 Variable Char = new Variable(); 3147 Variable Char = new Variable();
3148 Variable Next = new Variable(); 3148 Variable Next = new Variable();
3149 foreach (bool l2 in YP.get_code(Ch)) 3149 foreach (bool l2 in YP.get_code(Ch))
3150 { 3150 {
3151 foreach (bool l3 in read_char(Ch, Quote, Char, Next)) 3151 foreach (bool l3 in read_char(Ch, Quote, Char, Next))
3152 { 3152 {
3153 foreach (bool l4 in rest_string5(Char, Next, Chars, Quote, NextCh)) 3153 foreach (bool l4 in rest_string5(Char, Next, Chars, Quote, NextCh))
3154 { 3154 {
3155 yield return false; 3155 yield return false;
3156 } 3156 }
3157 } 3157 }
3158 } 3158 }
3159 } 3159 }
3160 } 3160 }
3161 3161
3162 public static IEnumerable<bool> rest_string5(object arg1, object arg2, object arg3, object arg4, object arg5) 3162 public static IEnumerable<bool> rest_string5(object arg1, object arg2, object arg3, object arg4, object arg5)
3163 { 3163 {
3164 { 3164 {
3165 object _X = arg4; 3165 object _X = arg4;
3166 Variable NextCh = new Variable(); 3166 Variable NextCh = new Variable();
3167 foreach (bool l2 in YP.unify(arg1, -1)) 3167 foreach (bool l2 in YP.unify(arg1, -1))
3168 { 3168 {
3169 foreach (bool l3 in YP.unify(arg2, NextCh)) 3169 foreach (bool l3 in YP.unify(arg2, NextCh))
3170 { 3170 {
3171 foreach (bool l4 in YP.unify(arg3, Atom.NIL)) 3171 foreach (bool l4 in YP.unify(arg3, Atom.NIL))
3172 { 3172 {
3173 foreach (bool l5 in YP.unify(arg5, NextCh)) 3173 foreach (bool l5 in YP.unify(arg5, NextCh))
3174 { 3174 {
3175 yield return true; 3175 yield return true;
3176 yield break; 3176 yield break;
3177 } 3177 }
3178 } 3178 }
3179 } 3179 }
3180 } 3180 }
3181 } 3181 }
3182 { 3182 {
3183 object Char = arg1; 3183 object Char = arg1;
3184 object Next = arg2; 3184 object Next = arg2;
3185 object Quote = arg4; 3185 object Quote = arg4;
3186 object NextCh = arg5; 3186 object NextCh = arg5;
3187 Variable Chars = new Variable(); 3187 Variable Chars = new Variable();
3188 Variable Char2 = new Variable(); 3188 Variable Char2 = new Variable();
3189 Variable Next2 = new Variable(); 3189 Variable Next2 = new Variable();
3190 foreach (bool l2 in YP.unify(arg3, new ListPair(Char, Chars))) 3190 foreach (bool l2 in YP.unify(arg3, new ListPair(Char, Chars)))
3191 { 3191 {
3192 foreach (bool l3 in read_char(Next, Quote, Char2, Next2)) 3192 foreach (bool l3 in read_char(Next, Quote, Char2, Next2))
3193 { 3193 {
3194 foreach (bool l4 in rest_string5(Char2, Next2, Chars, Quote, NextCh)) 3194 foreach (bool l4 in rest_string5(Char2, Next2, Chars, Quote, NextCh))
3195 { 3195 {
3196 yield return false; 3196 yield return false;
3197 } 3197 }
3198 } 3198 }
3199 } 3199 }
3200 } 3200 }
3201 } 3201 }
3202 3202
3203 public static IEnumerable<bool> escape_char(object arg1, object arg2) 3203 public static IEnumerable<bool> escape_char(object arg1, object arg2)
3204 { 3204 {
3205 { 3205 {
3206 foreach (bool l2 in YP.unify(arg1, 110)) 3206 foreach (bool l2 in YP.unify(arg1, 110))
3207 { 3207 {
3208 foreach (bool l3 in YP.unify(arg2, 10)) 3208 foreach (bool l3 in YP.unify(arg2, 10))
3209 { 3209 {
3210 yield return false; 3210 yield return false;
3211 } 3211 }
3212 } 3212 }
3213 } 3213 }
3214 { 3214 {
3215 foreach (bool l2 in YP.unify(arg1, 78)) 3215 foreach (bool l2 in YP.unify(arg1, 78))
3216 { 3216 {
3217 foreach (bool l3 in YP.unify(arg2, 10)) 3217 foreach (bool l3 in YP.unify(arg2, 10))
3218 { 3218 {
3219 yield return false; 3219 yield return false;
3220 } 3220 }
3221 } 3221 }
3222 } 3222 }
3223 { 3223 {
3224 foreach (bool l2 in YP.unify(arg1, 116)) 3224 foreach (bool l2 in YP.unify(arg1, 116))
3225 { 3225 {
3226 foreach (bool l3 in YP.unify(arg2, 9)) 3226 foreach (bool l3 in YP.unify(arg2, 9))
3227 { 3227 {
3228 yield return false; 3228 yield return false;
3229 } 3229 }
3230 } 3230 }
3231 } 3231 }
3232 { 3232 {
3233 foreach (bool l2 in YP.unify(arg1, 84)) 3233 foreach (bool l2 in YP.unify(arg1, 84))
3234 { 3234 {
3235 foreach (bool l3 in YP.unify(arg2, 9)) 3235 foreach (bool l3 in YP.unify(arg2, 9))
3236 { 3236 {
3237 yield return false; 3237 yield return false;
3238 } 3238 }
3239 } 3239 }
3240 } 3240 }
3241 { 3241 {
3242 foreach (bool l2 in YP.unify(arg1, 114)) 3242 foreach (bool l2 in YP.unify(arg1, 114))
3243 { 3243 {
3244 foreach (bool l3 in YP.unify(arg2, 13)) 3244 foreach (bool l3 in YP.unify(arg2, 13))
3245 { 3245 {
3246 yield return false; 3246 yield return false;
3247 } 3247 }
3248 } 3248 }
3249 } 3249 }
3250 { 3250 {
3251 foreach (bool l2 in YP.unify(arg1, 82)) 3251 foreach (bool l2 in YP.unify(arg1, 82))
3252 { 3252 {
3253 foreach (bool l3 in YP.unify(arg2, 13)) 3253 foreach (bool l3 in YP.unify(arg2, 13))
3254 { 3254 {
3255 yield return false; 3255 yield return false;
3256 } 3256 }
3257 } 3257 }
3258 } 3258 }
3259 { 3259 {
3260 foreach (bool l2 in YP.unify(arg1, 118)) 3260 foreach (bool l2 in YP.unify(arg1, 118))
3261 { 3261 {
3262 foreach (bool l3 in YP.unify(arg2, 11)) 3262 foreach (bool l3 in YP.unify(arg2, 11))
3263 { 3263 {
3264 yield return false; 3264 yield return false;
3265 } 3265 }
3266 } 3266 }
3267 } 3267 }
3268 { 3268 {
3269 foreach (bool l2 in YP.unify(arg1, 86)) 3269 foreach (bool l2 in YP.unify(arg1, 86))
3270 { 3270 {
3271 foreach (bool l3 in YP.unify(arg2, 11)) 3271 foreach (bool l3 in YP.unify(arg2, 11))
3272 { 3272 {
3273 yield return false; 3273 yield return false;
3274 } 3274 }
3275 } 3275 }
3276 } 3276 }
3277 { 3277 {
3278 foreach (bool l2 in YP.unify(arg1, 98)) 3278 foreach (bool l2 in YP.unify(arg1, 98))
3279 { 3279 {
3280 foreach (bool l3 in YP.unify(arg2, 8)) 3280 foreach (bool l3 in YP.unify(arg2, 8))
3281 { 3281 {
3282 yield return false; 3282 yield return false;
3283 } 3283 }
3284 } 3284 }
3285 } 3285 }
3286 { 3286 {
3287 foreach (bool l2 in YP.unify(arg1, 66)) 3287 foreach (bool l2 in YP.unify(arg1, 66))
3288 { 3288 {
3289 foreach (bool l3 in YP.unify(arg2, 8)) 3289 foreach (bool l3 in YP.unify(arg2, 8))
3290 { 3290 {
3291 yield return false; 3291 yield return false;
3292 } 3292 }
3293 } 3293 }
3294 } 3294 }
3295 { 3295 {
3296 foreach (bool l2 in YP.unify(arg1, 102)) 3296 foreach (bool l2 in YP.unify(arg1, 102))
3297 { 3297 {
3298 foreach (bool l3 in YP.unify(arg2, 12)) 3298 foreach (bool l3 in YP.unify(arg2, 12))
3299 { 3299 {
3300 yield return false; 3300 yield return false;
3301 } 3301 }
3302 } 3302 }
3303 } 3303 }
3304 { 3304 {
3305 foreach (bool l2 in YP.unify(arg1, 70)) 3305 foreach (bool l2 in YP.unify(arg1, 70))
3306 { 3306 {
3307 foreach (bool l3 in YP.unify(arg2, 12)) 3307 foreach (bool l3 in YP.unify(arg2, 12))
3308 { 3308 {
3309 yield return false; 3309 yield return false;
3310 } 3310 }
3311 } 3311 }
3312 } 3312 }
3313 { 3313 {
3314 foreach (bool l2 in YP.unify(arg1, 101)) 3314 foreach (bool l2 in YP.unify(arg1, 101))
3315 { 3315 {
3316 foreach (bool l3 in YP.unify(arg2, 27)) 3316 foreach (bool l3 in YP.unify(arg2, 27))
3317 { 3317 {
3318 yield return false; 3318 yield return false;
3319 } 3319 }
3320 } 3320 }
3321 } 3321 }
3322 { 3322 {
3323 foreach (bool l2 in YP.unify(arg1, 69)) 3323 foreach (bool l2 in YP.unify(arg1, 69))
3324 { 3324 {
3325 foreach (bool l3 in YP.unify(arg2, 27)) 3325 foreach (bool l3 in YP.unify(arg2, 27))
3326 { 3326 {
3327 yield return false; 3327 yield return false;
3328 } 3328 }
3329 } 3329 }
3330 } 3330 }
3331 { 3331 {
3332 foreach (bool l2 in YP.unify(arg1, 100)) 3332 foreach (bool l2 in YP.unify(arg1, 100))
3333 { 3333 {
3334 foreach (bool l3 in YP.unify(arg2, 127)) 3334 foreach (bool l3 in YP.unify(arg2, 127))
3335 { 3335 {
3336 yield return false; 3336 yield return false;
3337 } 3337 }
3338 } 3338 }
3339 } 3339 }
3340 { 3340 {
3341 foreach (bool l2 in YP.unify(arg1, 68)) 3341 foreach (bool l2 in YP.unify(arg1, 68))
3342 { 3342 {
3343 foreach (bool l3 in YP.unify(arg2, 127)) 3343 foreach (bool l3 in YP.unify(arg2, 127))
3344 { 3344 {
3345 yield return false; 3345 yield return false;
3346 } 3346 }
3347 } 3347 }
3348 } 3348 }
3349 { 3349 {
3350 foreach (bool l2 in YP.unify(arg1, 115)) 3350 foreach (bool l2 in YP.unify(arg1, 115))
3351 { 3351 {
3352 foreach (bool l3 in YP.unify(arg2, 32)) 3352 foreach (bool l3 in YP.unify(arg2, 32))
3353 { 3353 {
3354 yield return false; 3354 yield return false;
3355 } 3355 }
3356 } 3356 }
3357 } 3357 }
3358 { 3358 {
3359 foreach (bool l2 in YP.unify(arg1, 83)) 3359 foreach (bool l2 in YP.unify(arg1, 83))
3360 { 3360 {
3361 foreach (bool l3 in YP.unify(arg2, 32)) 3361 foreach (bool l3 in YP.unify(arg2, 32))
3362 { 3362 {
3363 yield return false; 3363 yield return false;
3364 } 3364 }
3365 } 3365 }
3366 } 3366 }
3367 { 3367 {
3368 foreach (bool l2 in YP.unify(arg1, 122)) 3368 foreach (bool l2 in YP.unify(arg1, 122))
3369 { 3369 {
3370 foreach (bool l3 in YP.unify(arg2, -1)) 3370 foreach (bool l3 in YP.unify(arg2, -1))
3371 { 3371 {
3372 yield return false; 3372 yield return false;
3373 } 3373 }
3374 } 3374 }
3375 } 3375 }
3376 { 3376 {
3377 foreach (bool l2 in YP.unify(arg1, 90)) 3377 foreach (bool l2 in YP.unify(arg1, 90))
3378 { 3378 {
3379 foreach (bool l3 in YP.unify(arg2, -1)) 3379 foreach (bool l3 in YP.unify(arg2, -1))
3380 { 3380 {
3381 yield return false; 3381 yield return false;
3382 } 3382 }
3383 } 3383 }
3384 } 3384 }
3385 } 3385 }
3386 3386
3387 public static IEnumerable<bool> read_variable(object C1, object Dict, object arg3) 3387 public static IEnumerable<bool> read_variable(object C1, object Dict, object arg3)
3388 { 3388 {
3389 { 3389 {
3390 Variable Var = new Variable(); 3390 Variable Var = new Variable();
3391 Variable Name = new Variable(); 3391 Variable Name = new Variable();
3392 Variable StartPos = new Variable(); 3392 Variable StartPos = new Variable();
3393 Variable Tokens = new Variable(); 3393 Variable Tokens = new Variable();
3394 Variable Chars = new Variable(); 3394 Variable Chars = new Variable();
3395 Variable NextCh = new Variable(); 3395 Variable NextCh = new Variable();
3396 foreach (bool l2 in YP.unify(arg3, new ListPair(new Functor3(@"var", Var, Name, StartPos), Tokens))) 3396 foreach (bool l2 in YP.unify(arg3, new ListPair(new Functor3(@"var", Var, Name, StartPos), Tokens)))
3397 { 3397 {
3398 foreach (bool l3 in get_current_position(StartPos)) 3398 foreach (bool l3 in get_current_position(StartPos))
3399 { 3399 {
3400 foreach (bool l4 in read_name(C1, Chars, NextCh)) 3400 foreach (bool l4 in read_name(C1, Chars, NextCh))
3401 { 3401 {
3402 foreach (bool l5 in YP.atom_codes(Name, Chars)) 3402 foreach (bool l5 in YP.atom_codes(Name, Chars))
3403 { 3403 {
3404 if (YP.termEqual(Name, Atom.a(@"_"))) 3404 if (YP.termEqual(Name, Atom.a(@"_")))
3405 { 3405 {
3406 foreach (bool l7 in read_after_atom(NextCh, Dict, Tokens)) 3406 foreach (bool l7 in read_after_atom(NextCh, Dict, Tokens))
3407 { 3407 {
3408 yield return false; 3408 yield return false;
3409 } 3409 }
3410 goto cutIf1; 3410 goto cutIf1;
3411 } 3411 }
3412 foreach (bool l6 in read_lookup(Dict, Name, Var)) 3412 foreach (bool l6 in read_lookup(Dict, Name, Var))
3413 { 3413 {
3414 foreach (bool l7 in read_after_atom(NextCh, Dict, Tokens)) 3414 foreach (bool l7 in read_after_atom(NextCh, Dict, Tokens))
3415 { 3415 {
3416 yield return false; 3416 yield return false;
3417 } 3417 }
3418 } 3418 }
3419 cutIf1: 3419 cutIf1:
3420 { } 3420 { }
3421 } 3421 }
3422 } 3422 }
3423 } 3423 }
3424 } 3424 }
3425 } 3425 }
3426 } 3426 }
3427 3427
3428 public static IEnumerable<bool> read_lookup(object arg1, object Name, object Var) 3428 public static IEnumerable<bool> read_lookup(object arg1, object Name, object Var)
3429 { 3429 {
3430 { 3430 {
3431 Variable N = new Variable(); 3431 Variable N = new Variable();
3432 Variable V = new Variable(); 3432 Variable V = new Variable();
3433 Variable L = new Variable(); 3433 Variable L = new Variable();
3434 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"=", N, V), L))) 3434 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"=", N, V), L)))
3435 { 3435 {
3436 foreach (bool l3 in YP.unify(N, Name)) 3436 foreach (bool l3 in YP.unify(N, Name))
3437 { 3437 {
3438 foreach (bool l4 in YP.unify(V, Var)) 3438 foreach (bool l4 in YP.unify(V, Var))
3439 { 3439 {
3440 yield return false; 3440 yield return false;
3441 } 3441 }
3442 goto cutIf1; 3442 goto cutIf1;
3443 } 3443 }
3444 foreach (bool l3 in read_lookup(L, Name, Var)) 3444 foreach (bool l3 in read_lookup(L, Name, Var))
3445 { 3445 {
3446 yield return false; 3446 yield return false;
3447 } 3447 }
3448 cutIf1: 3448 cutIf1:
3449 { } 3449 { }
3450 } 3450 }
3451 } 3451 }
3452 } 3452 }
3453 3453
3454 public static IEnumerable<bool> read_solidus(object Ch, object LastCh) 3454 public static IEnumerable<bool> read_solidus(object Ch, object LastCh)
3455 { 3455 {
3456 { 3456 {
3457 Variable NextCh = new Variable(); 3457 Variable NextCh = new Variable();
3458 if (YP.equal(Ch, 42)) 3458 if (YP.equal(Ch, 42))
3459 { 3459 {
3460 foreach (bool l3 in YP.get_code(NextCh)) 3460 foreach (bool l3 in YP.get_code(NextCh))
3461 { 3461 {
3462 if (YP.equal(NextCh, 47)) 3462 if (YP.equal(NextCh, 47))
3463 { 3463 {
3464 foreach (bool l5 in YP.get_code(LastCh)) 3464 foreach (bool l5 in YP.get_code(LastCh))
3465 { 3465 {
3466 yield return false; 3466 yield return false;
3467 } 3467 }
3468 goto cutIf2; 3468 goto cutIf2;
3469 } 3469 }
3470 foreach (bool l4 in read_solidus(NextCh, LastCh)) 3470 foreach (bool l4 in read_solidus(NextCh, LastCh))
3471 { 3471 {
3472 yield return false; 3472 yield return false;
3473 } 3473 }
3474 cutIf2: 3474 cutIf2:
3475 { } 3475 { }
3476 } 3476 }
3477 goto cutIf1; 3477 goto cutIf1;
3478 } 3478 }
3479 if (YP.notEqual(Ch, -1)) 3479 if (YP.notEqual(Ch, -1))
3480 { 3480 {
3481 foreach (bool l3 in YP.get_code(NextCh)) 3481 foreach (bool l3 in YP.get_code(NextCh))
3482 { 3482 {
3483 foreach (bool l4 in read_solidus(NextCh, LastCh)) 3483 foreach (bool l4 in read_solidus(NextCh, LastCh))
3484 { 3484 {
3485 yield return false; 3485 yield return false;
3486 } 3486 }
3487 } 3487 }
3488 goto cutIf3; 3488 goto cutIf3;
3489 } 3489 }
3490 foreach (bool l2 in YP.unify(LastCh, Ch)) 3490 foreach (bool l2 in YP.unify(LastCh, Ch))
3491 { 3491 {
3492 foreach (bool l3 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** end of file in /*comment~n"), Atom.NIL)) 3492 foreach (bool l3 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** end of file in /*comment~n"), Atom.NIL))
3493 { 3493 {
3494 yield return false; 3494 yield return false;
3495 } 3495 }
3496 } 3496 }
3497 cutIf3: 3497 cutIf3:
3498 cutIf1: 3498 cutIf1:
3499 { } 3499 { }
3500 } 3500 }
3501 } 3501 }
3502 3502
3503 public static IEnumerable<bool> read_identifier(object C1, object Dict, object Tokens) 3503 public static IEnumerable<bool> read_identifier(object C1, object Dict, object Tokens)
3504 { 3504 {
3505 { 3505 {
3506 Variable Chars = new Variable(); 3506 Variable Chars = new Variable();
3507 Variable NextCh = new Variable(); 3507 Variable NextCh = new Variable();
3508 foreach (bool l2 in read_name(C1, Chars, NextCh)) 3508 foreach (bool l2 in read_name(C1, Chars, NextCh))
3509 { 3509 {
3510 foreach (bool l3 in read_after_atom4(NextCh, Dict, Tokens, Chars)) 3510 foreach (bool l3 in read_after_atom4(NextCh, Dict, Tokens, Chars))
3511 { 3511 {
3512 yield return false; 3512 yield return false;
3513 } 3513 }
3514 } 3514 }
3515 } 3515 }
3516 } 3516 }
3517 3517
3518 public static IEnumerable<bool> read_name(object C1, object arg2, object LastCh) 3518 public static IEnumerable<bool> read_name(object C1, object arg2, object LastCh)
3519 { 3519 {
3520 { 3520 {
3521 Variable Chars = new Variable(); 3521 Variable Chars = new Variable();
3522 Variable C2 = new Variable(); 3522 Variable C2 = new Variable();
3523 foreach (bool l2 in YP.unify(arg2, new ListPair(C1, Chars))) 3523 foreach (bool l2 in YP.unify(arg2, new ListPair(C1, Chars)))
3524 { 3524 {
3525 foreach (bool l3 in YP.get_code(C2)) 3525 foreach (bool l3 in YP.get_code(C2))
3526 { 3526 {
3527 if (YP.greaterThanOrEqual(C2, new ListPair(97, Atom.NIL))) 3527 if (YP.greaterThanOrEqual(C2, new ListPair(97, Atom.NIL)))
3528 { 3528 {
3529 if (YP.lessThanOrEqual(C2, new ListPair(122, Atom.NIL))) 3529 if (YP.lessThanOrEqual(C2, new ListPair(122, Atom.NIL)))
3530 { 3530 {
3531 foreach (bool l6 in read_name(C2, Chars, LastCh)) 3531 foreach (bool l6 in read_name(C2, Chars, LastCh))
3532 { 3532 {
3533 yield return false; 3533 yield return false;
3534 } 3534 }
3535 goto cutIf2; 3535 goto cutIf2;
3536 } 3536 }
3537 if (YP.lessThan(C2, 192)) 3537 if (YP.lessThan(C2, 192))
3538 { 3538 {
3539 if (YP.notEqual(YP.bitwiseOr(C2, 16), 186)) 3539 if (YP.notEqual(YP.bitwiseOr(C2, 16), 186))
3540 { 3540 {
3541 foreach (bool l7 in YP.unify(Chars, Atom.NIL)) 3541 foreach (bool l7 in YP.unify(Chars, Atom.NIL))
3542 { 3542 {
3543 foreach (bool l8 in YP.unify(LastCh, C2)) 3543 foreach (bool l8 in YP.unify(LastCh, C2))
3544 { 3544 {
3545 yield return false; 3545 yield return false;
3546 } 3546 }
3547 } 3547 }
3548 goto cutIf3; 3548 goto cutIf3;
3549 } 3549 }
3550 } 3550 }
3551 if (YP.equal(YP.bitwiseOr(C2, 32), 247)) 3551 if (YP.equal(YP.bitwiseOr(C2, 32), 247))
3552 { 3552 {
3553 foreach (bool l6 in YP.unify(Chars, Atom.NIL)) 3553 foreach (bool l6 in YP.unify(Chars, Atom.NIL))
3554 { 3554 {
3555 foreach (bool l7 in YP.unify(LastCh, C2)) 3555 foreach (bool l7 in YP.unify(LastCh, C2))
3556 { 3556 {
3557 yield return false; 3557 yield return false;
3558 } 3558 }
3559 } 3559 }
3560 goto cutIf4; 3560 goto cutIf4;
3561 } 3561 }
3562 foreach (bool l5 in read_name(C2, Chars, LastCh)) 3562 foreach (bool l5 in read_name(C2, Chars, LastCh))
3563 { 3563 {
3564 yield return false; 3564 yield return false;
3565 } 3565 }
3566 cutIf4: 3566 cutIf4:
3567 cutIf3: 3567 cutIf3:
3568 cutIf2: 3568 cutIf2:
3569 goto cutIf1; 3569 goto cutIf1;
3570 } 3570 }
3571 if (YP.greaterThanOrEqual(C2, new ListPair(65, Atom.NIL))) 3571 if (YP.greaterThanOrEqual(C2, new ListPair(65, Atom.NIL)))
3572 { 3572 {
3573 if (YP.greaterThan(C2, new ListPair(90, Atom.NIL))) 3573 if (YP.greaterThan(C2, new ListPair(90, Atom.NIL)))
3574 { 3574 {
3575 if (YP.notEqual(C2, new ListPair(95, Atom.NIL))) 3575 if (YP.notEqual(C2, new ListPair(95, Atom.NIL)))
3576 { 3576 {
3577 foreach (bool l7 in YP.unify(Chars, Atom.NIL)) 3577 foreach (bool l7 in YP.unify(Chars, Atom.NIL))
3578 { 3578 {
3579 foreach (bool l8 in YP.unify(LastCh, C2)) 3579 foreach (bool l8 in YP.unify(LastCh, C2))
3580 { 3580 {
3581 yield return false; 3581 yield return false;
3582 } 3582 }
3583 } 3583 }
3584 goto cutIf6; 3584 goto cutIf6;
3585 } 3585 }
3586 } 3586 }
3587 foreach (bool l5 in read_name(C2, Chars, LastCh)) 3587 foreach (bool l5 in read_name(C2, Chars, LastCh))
3588 { 3588 {
3589 yield return false; 3589 yield return false;
3590 } 3590 }
3591 cutIf6: 3591 cutIf6:
3592 goto cutIf5; 3592 goto cutIf5;
3593 } 3593 }
3594 if (YP.greaterThanOrEqual(C2, new ListPair(48, Atom.NIL))) 3594 if (YP.greaterThanOrEqual(C2, new ListPair(48, Atom.NIL)))
3595 { 3595 {
3596 if (YP.lessThanOrEqual(C2, new ListPair(57, Atom.NIL))) 3596 if (YP.lessThanOrEqual(C2, new ListPair(57, Atom.NIL)))
3597 { 3597 {
3598 foreach (bool l6 in read_name(C2, Chars, LastCh)) 3598 foreach (bool l6 in read_name(C2, Chars, LastCh))
3599 { 3599 {
3600 yield return false; 3600 yield return false;
3601 } 3601 }
3602 goto cutIf7; 3602 goto cutIf7;
3603 } 3603 }
3604 } 3604 }
3605 foreach (bool l4 in YP.unify(Chars, Atom.NIL)) 3605 foreach (bool l4 in YP.unify(Chars, Atom.NIL))
3606 { 3606 {
3607 foreach (bool l5 in YP.unify(LastCh, C2)) 3607 foreach (bool l5 in YP.unify(LastCh, C2))
3608 { 3608 {
3609 yield return false; 3609 yield return false;
3610 } 3610 }
3611 } 3611 }
3612 cutIf7: 3612 cutIf7:
3613 cutIf5: 3613 cutIf5:
3614 cutIf1: 3614 cutIf1:
3615 { } 3615 { }
3616 } 3616 }
3617 } 3617 }
3618 } 3618 }
3619 } 3619 }
3620 3620
3621 public static IEnumerable<bool> read_fullstop(object Ch, object Dict, object Tokens) 3621 public static IEnumerable<bool> read_fullstop(object Ch, object Dict, object Tokens)
3622 { 3622 {
3623 { 3623 {
3624 Variable Number = new Variable(); 3624 Variable Number = new Variable();
3625 Variable Tokens1 = new Variable(); 3625 Variable Tokens1 = new Variable();
3626 Variable Chars = new Variable(); 3626 Variable Chars = new Variable();
3627 Variable NextCh = new Variable(); 3627 Variable NextCh = new Variable();
3628 if (YP.lessThanOrEqual(Ch, new ListPair(57, Atom.NIL))) 3628 if (YP.lessThanOrEqual(Ch, new ListPair(57, Atom.NIL)))
3629 { 3629 {
3630 if (YP.greaterThanOrEqual(Ch, new ListPair(48, Atom.NIL))) 3630 if (YP.greaterThanOrEqual(Ch, new ListPair(48, Atom.NIL)))
3631 { 3631 {
3632 foreach (bool l4 in YP.unify(Tokens, new ListPair(new Functor1(@"number", Number), Tokens1))) 3632 foreach (bool l4 in YP.unify(Tokens, new ListPair(new Functor1(@"number", Number), Tokens1)))
3633 { 3633 {
3634 foreach (bool l5 in read_float(Number, Dict, Tokens1, new ListPair(48, Atom.NIL), Ch)) 3634 foreach (bool l5 in read_float(Number, Dict, Tokens1, new ListPair(48, Atom.NIL), Ch))
3635 { 3635 {
3636 yield return false; 3636 yield return false;
3637 } 3637 }
3638 } 3638 }
3639 goto cutIf1; 3639 goto cutIf1;
3640 } 3640 }
3641 } 3641 }
3642 if (YP.greaterThan(Ch, new ListPair(32, Atom.NIL))) 3642 if (YP.greaterThan(Ch, new ListPair(32, Atom.NIL)))
3643 { 3643 {
3644 foreach (bool l3 in rest_symbol(Ch, Chars, NextCh)) 3644 foreach (bool l3 in rest_symbol(Ch, Chars, NextCh))
3645 { 3645 {
3646 foreach (bool l4 in read_after_atom4(NextCh, Dict, Tokens, new ListPair(46, Chars))) 3646 foreach (bool l4 in read_after_atom4(NextCh, Dict, Tokens, new ListPair(46, Chars)))
3647 { 3647 {
3648 yield return false; 3648 yield return false;
3649 } 3649 }
3650 } 3650 }
3651 goto cutIf2; 3651 goto cutIf2;
3652 } 3652 }
3653 if (YP.greaterThanOrEqual(Ch, 0)) 3653 if (YP.greaterThanOrEqual(Ch, 0))
3654 { 3654 {
3655 foreach (bool l3 in YP.unify(Tokens, Atom.NIL)) 3655 foreach (bool l3 in YP.unify(Tokens, Atom.NIL))
3656 { 3656 {
3657 yield return false; 3657 yield return false;
3658 } 3658 }
3659 goto cutIf3; 3659 goto cutIf3;
3660 } 3660 }
3661 foreach (bool l2 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** end of file just after full stop~n"), Atom.NIL)) 3661 foreach (bool l2 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** end of file just after full stop~n"), Atom.NIL))
3662 { 3662 {
3663 } 3663 }
3664 cutIf3: 3664 cutIf3:
3665 cutIf2: 3665 cutIf2:
3666 cutIf1: 3666 cutIf1:
3667 { } 3667 { }
3668 } 3668 }
3669 } 3669 }
3670 3670
3671 public static IEnumerable<bool> read_float(object Number, object Dict, object Tokens, object Digits, object Digit) 3671 public static IEnumerable<bool> read_float(object Number, object Dict, object Tokens, object Digits, object Digit)
3672 { 3672 {
3673 { 3673 {
3674 Variable Chars = new Variable(); 3674 Variable Chars = new Variable();
3675 Variable Rest = new Variable(); 3675 Variable Rest = new Variable();
3676 Variable NextCh = new Variable(); 3676 Variable NextCh = new Variable();
3677 foreach (bool l2 in prepend(Digits, Chars, Rest)) 3677 foreach (bool l2 in prepend(Digits, Chars, Rest))
3678 { 3678 {
3679 foreach (bool l3 in read_float(Digit, Rest, NextCh, Chars)) 3679 foreach (bool l3 in read_float(Digit, Rest, NextCh, Chars))
3680 { 3680 {
3681 foreach (bool l4 in YP.number_codes(Number, Chars)) 3681 foreach (bool l4 in YP.number_codes(Number, Chars))
3682 { 3682 {
3683 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens)) 3683 foreach (bool l5 in read_tokens(NextCh, Dict, Tokens))
3684 { 3684 {
3685 yield return false; 3685 yield return false;
3686 } 3686 }
3687 } 3687 }
3688 } 3688 }
3689 } 3689 }
3690 } 3690 }
3691 } 3691 }
3692 3692
3693 public static IEnumerable<bool> prepend(object arg1, object arg2, object arg3) 3693 public static IEnumerable<bool> prepend(object arg1, object arg2, object arg3)
3694 { 3694 {
3695 { 3695 {
3696 object X = arg3; 3696 object X = arg3;
3697 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 3697 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
3698 { 3698 {
3699 foreach (bool l3 in YP.unify(arg2, new ListPair(46, X))) 3699 foreach (bool l3 in YP.unify(arg2, new ListPair(46, X)))
3700 { 3700 {
3701 yield return false; 3701 yield return false;
3702 } 3702 }
3703 } 3703 }
3704 } 3704 }
3705 { 3705 {
3706 object Y = arg3; 3706 object Y = arg3;
3707 Variable C = new Variable(); 3707 Variable C = new Variable();
3708 Variable Cs = new Variable(); 3708 Variable Cs = new Variable();
3709 Variable X = new Variable(); 3709 Variable X = new Variable();
3710 foreach (bool l2 in YP.unify(arg1, new ListPair(C, Cs))) 3710 foreach (bool l2 in YP.unify(arg1, new ListPair(C, Cs)))
3711 { 3711 {
3712 foreach (bool l3 in YP.unify(arg2, new ListPair(C, X))) 3712 foreach (bool l3 in YP.unify(arg2, new ListPair(C, X)))
3713 { 3713 {
3714 foreach (bool l4 in prepend(Cs, X, Y)) 3714 foreach (bool l4 in prepend(Cs, X, Y))
3715 { 3715 {
3716 yield return false; 3716 yield return false;
3717 } 3717 }
3718 } 3718 }
3719 } 3719 }
3720 } 3720 }
3721 } 3721 }
3722 3722
3723 public static IEnumerable<bool> read_float(object C1, object arg2, object NextCh, object Total) 3723 public static IEnumerable<bool> read_float(object C1, object arg2, object NextCh, object Total)
3724 { 3724 {
3725 { 3725 {
3726 Variable Chars = new Variable(); 3726 Variable Chars = new Variable();
3727 Variable C2 = new Variable(); 3727 Variable C2 = new Variable();
3728 Variable C3 = new Variable(); 3728 Variable C3 = new Variable();
3729 Variable C4 = new Variable(); 3729 Variable C4 = new Variable();
3730 Variable More = new Variable(); 3730 Variable More = new Variable();
3731 foreach (bool l2 in YP.unify(arg2, new ListPair(C1, Chars))) 3731 foreach (bool l2 in YP.unify(arg2, new ListPair(C1, Chars)))
3732 { 3732 {
3733 foreach (bool l3 in YP.get_code(C2)) 3733 foreach (bool l3 in YP.get_code(C2))
3734 { 3734 {
3735 if (YP.greaterThanOrEqual(C2, new ListPair(48, Atom.NIL))) 3735 if (YP.greaterThanOrEqual(C2, new ListPair(48, Atom.NIL)))
3736 { 3736 {
3737 if (YP.lessThanOrEqual(C2, new ListPair(57, Atom.NIL))) 3737 if (YP.lessThanOrEqual(C2, new ListPair(57, Atom.NIL)))
3738 { 3738 {
3739 foreach (bool l6 in read_float(C2, Chars, NextCh, Total)) 3739 foreach (bool l6 in read_float(C2, Chars, NextCh, Total))
3740 { 3740 {
3741 yield return false; 3741 yield return false;
3742 } 3742 }
3743 goto cutIf1; 3743 goto cutIf1;
3744 } 3744 }
3745 } 3745 }
3746 if (YP.equal(YP.bitwiseOr(C2, 32), new ListPair(101, Atom.NIL))) 3746 if (YP.equal(YP.bitwiseOr(C2, 32), new ListPair(101, Atom.NIL)))
3747 { 3747 {
3748 foreach (bool l5 in YP.get_code(C3)) 3748 foreach (bool l5 in YP.get_code(C3))
3749 { 3749 {
3750 if (YP.equal(C3, new ListPair(45, Atom.NIL))) 3750 if (YP.equal(C3, new ListPair(45, Atom.NIL)))
3751 { 3751 {
3752 foreach (bool l7 in YP.get_code(C4)) 3752 foreach (bool l7 in YP.get_code(C4))
3753 { 3753 {
3754 foreach (bool l8 in YP.unify(Chars, new ListPair(C2, new ListPair(45, More)))) 3754 foreach (bool l8 in YP.unify(Chars, new ListPair(C2, new ListPair(45, More))))
3755 { 3755 {
3756 if (YP.greaterThanOrEqual(C4, new ListPair(48, Atom.NIL))) 3756 if (YP.greaterThanOrEqual(C4, new ListPair(48, Atom.NIL)))
3757 { 3757 {
3758 if (YP.lessThanOrEqual(C4, new ListPair(57, Atom.NIL))) 3758 if (YP.lessThanOrEqual(C4, new ListPair(57, Atom.NIL)))
3759 { 3759 {
3760 foreach (bool l11 in read_exponent(C4, More, NextCh)) 3760 foreach (bool l11 in read_exponent(C4, More, NextCh))
3761 { 3761 {
3762 yield return false; 3762 yield return false;
3763 } 3763 }
3764 goto cutIf4; 3764 goto cutIf4;
3765 } 3765 }
3766 } 3766 }
3767 foreach (bool l9 in YP.unify(More, Atom.NIL)) 3767 foreach (bool l9 in YP.unify(More, Atom.NIL))
3768 { 3768 {
3769 foreach (bool l10 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** Missing exponent in ~s~n"), new ListPair(Total, Atom.NIL))) 3769 foreach (bool l10 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** Missing exponent in ~s~n"), new ListPair(Total, Atom.NIL)))
3770 { 3770 {
3771 } 3771 }
3772 } 3772 }
3773 foreach (bool l9 in YP.unify(More, new ListPair(48, Atom.NIL))) 3773 foreach (bool l9 in YP.unify(More, new ListPair(48, Atom.NIL)))
3774 { 3774 {
3775 foreach (bool l10 in YP.unify(NextCh, C4)) 3775 foreach (bool l10 in YP.unify(NextCh, C4))
3776 { 3776 {
3777 yield return false; 3777 yield return false;
3778 } 3778 }
3779 } 3779 }
3780 cutIf4: 3780 cutIf4:
3781 { } 3781 { }
3782 } 3782 }
3783 } 3783 }
3784 goto cutIf3; 3784 goto cutIf3;
3785 } 3785 }
3786 if (YP.equal(C3, new ListPair(43, Atom.NIL))) 3786 if (YP.equal(C3, new ListPair(43, Atom.NIL)))
3787 { 3787 {
3788 foreach (bool l7 in YP.get_code(C4)) 3788 foreach (bool l7 in YP.get_code(C4))
3789 { 3789 {
3790 foreach (bool l8 in YP.unify(Chars, new ListPair(C2, More))) 3790 foreach (bool l8 in YP.unify(Chars, new ListPair(C2, More)))
3791 { 3791 {
3792 if (YP.greaterThanOrEqual(C4, new ListPair(48, Atom.NIL))) 3792 if (YP.greaterThanOrEqual(C4, new ListPair(48, Atom.NIL)))
3793 { 3793 {
3794 if (YP.lessThanOrEqual(C4, new ListPair(57, Atom.NIL))) 3794 if (YP.lessThanOrEqual(C4, new ListPair(57, Atom.NIL)))
3795 { 3795 {
3796 foreach (bool l11 in read_exponent(C4, More, NextCh)) 3796 foreach (bool l11 in read_exponent(C4, More, NextCh))
3797 { 3797 {
3798 yield return false; 3798 yield return false;
3799 } 3799 }
3800 goto cutIf6; 3800 goto cutIf6;
3801 } 3801 }
3802 } 3802 }
3803 foreach (bool l9 in YP.unify(More, Atom.NIL)) 3803 foreach (bool l9 in YP.unify(More, Atom.NIL))
3804 { 3804 {
3805 foreach (bool l10 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** Missing exponent in ~s~n"), new ListPair(Total, Atom.NIL))) 3805 foreach (bool l10 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** Missing exponent in ~s~n"), new ListPair(Total, Atom.NIL)))
3806 { 3806 {
3807 } 3807 }
3808 } 3808 }
3809 foreach (bool l9 in YP.unify(More, new ListPair(48, Atom.NIL))) 3809 foreach (bool l9 in YP.unify(More, new ListPair(48, Atom.NIL)))
3810 { 3810 {
3811 foreach (bool l10 in YP.unify(NextCh, C4)) 3811 foreach (bool l10 in YP.unify(NextCh, C4))
3812 { 3812 {
3813 yield return false; 3813 yield return false;
3814 } 3814 }
3815 } 3815 }
3816 cutIf6: 3816 cutIf6:
3817 { } 3817 { }
3818 } 3818 }
3819 } 3819 }
3820 goto cutIf5; 3820 goto cutIf5;
3821 } 3821 }
3822 foreach (bool l6 in YP.unify(C4, C3)) 3822 foreach (bool l6 in YP.unify(C4, C3))
3823 { 3823 {
3824 foreach (bool l7 in YP.unify(Chars, new ListPair(C2, More))) 3824 foreach (bool l7 in YP.unify(Chars, new ListPair(C2, More)))
3825 { 3825 {
3826 if (YP.greaterThanOrEqual(C4, new ListPair(48, Atom.NIL))) 3826 if (YP.greaterThanOrEqual(C4, new ListPair(48, Atom.NIL)))
3827 { 3827 {
3828 if (YP.lessThanOrEqual(C4, new ListPair(57, Atom.NIL))) 3828 if (YP.lessThanOrEqual(C4, new ListPair(57, Atom.NIL)))
3829 { 3829 {
3830 foreach (bool l10 in read_exponent(C4, More, NextCh)) 3830 foreach (bool l10 in read_exponent(C4, More, NextCh))
3831 { 3831 {
3832 yield return false; 3832 yield return false;
3833 } 3833 }
3834 goto cutIf7; 3834 goto cutIf7;
3835 } 3835 }
3836 } 3836 }
3837 foreach (bool l8 in YP.unify(More, Atom.NIL)) 3837 foreach (bool l8 in YP.unify(More, Atom.NIL))
3838 { 3838 {
3839 foreach (bool l9 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** Missing exponent in ~s~n"), new ListPair(Total, Atom.NIL))) 3839 foreach (bool l9 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** Missing exponent in ~s~n"), new ListPair(Total, Atom.NIL)))
3840 { 3840 {
3841 } 3841 }
3842 } 3842 }
3843 foreach (bool l8 in YP.unify(More, new ListPair(48, Atom.NIL))) 3843 foreach (bool l8 in YP.unify(More, new ListPair(48, Atom.NIL)))
3844 { 3844 {
3845 foreach (bool l9 in YP.unify(NextCh, C4)) 3845 foreach (bool l9 in YP.unify(NextCh, C4))
3846 { 3846 {
3847 yield return false; 3847 yield return false;
3848 } 3848 }
3849 } 3849 }
3850 cutIf7: 3850 cutIf7:
3851 { } 3851 { }
3852 } 3852 }
3853 } 3853 }
3854 cutIf5: 3854 cutIf5:
3855 cutIf3: 3855 cutIf3:
3856 { } 3856 { }
3857 } 3857 }
3858 goto cutIf2; 3858 goto cutIf2;
3859 } 3859 }
3860 foreach (bool l4 in YP.unify(Chars, Atom.NIL)) 3860 foreach (bool l4 in YP.unify(Chars, Atom.NIL))
3861 { 3861 {
3862 foreach (bool l5 in YP.unify(NextCh, C2)) 3862 foreach (bool l5 in YP.unify(NextCh, C2))
3863 { 3863 {
3864 yield return false; 3864 yield return false;
3865 } 3865 }
3866 } 3866 }
3867 cutIf2: 3867 cutIf2:
3868 cutIf1: 3868 cutIf1:
3869 { } 3869 { }
3870 } 3870 }
3871 } 3871 }
3872 } 3872 }
3873 } 3873 }
3874 3874
3875 public static IEnumerable<bool> read_exponent(object C1, object arg2, object NextCh) 3875 public static IEnumerable<bool> read_exponent(object C1, object arg2, object NextCh)
3876 { 3876 {
3877 { 3877 {
3878 Variable Chars = new Variable(); 3878 Variable Chars = new Variable();
3879 Variable C2 = new Variable(); 3879 Variable C2 = new Variable();
3880 foreach (bool l2 in YP.unify(arg2, new ListPair(C1, Chars))) 3880 foreach (bool l2 in YP.unify(arg2, new ListPair(C1, Chars)))
3881 { 3881 {
3882 foreach (bool l3 in YP.get_code(C2)) 3882 foreach (bool l3 in YP.get_code(C2))
3883 { 3883 {
3884 if (YP.greaterThanOrEqual(C2, new ListPair(48, Atom.NIL))) 3884 if (YP.greaterThanOrEqual(C2, new ListPair(48, Atom.NIL)))
3885 { 3885 {
3886 if (YP.lessThanOrEqual(C2, new ListPair(57, Atom.NIL))) 3886 if (YP.lessThanOrEqual(C2, new ListPair(57, Atom.NIL)))
3887 { 3887 {
3888 foreach (bool l6 in read_exponent(C2, Chars, NextCh)) 3888 foreach (bool l6 in read_exponent(C2, Chars, NextCh))
3889 { 3889 {
3890 yield return false; 3890 yield return false;
3891 } 3891 }
3892 goto cutIf1; 3892 goto cutIf1;
3893 } 3893 }
3894 } 3894 }
3895 foreach (bool l4 in YP.unify(Chars, Atom.NIL)) 3895 foreach (bool l4 in YP.unify(Chars, Atom.NIL))
3896 { 3896 {
3897 foreach (bool l5 in YP.unify(NextCh, C2)) 3897 foreach (bool l5 in YP.unify(NextCh, C2))
3898 { 3898 {
3899 yield return false; 3899 yield return false;
3900 } 3900 }
3901 } 3901 }
3902 cutIf1: 3902 cutIf1:
3903 { } 3903 { }
3904 } 3904 }
3905 } 3905 }
3906 } 3906 }
3907 } 3907 }
3908 3908
3909 public static IEnumerable<bool> read_number(object C1, object Dict, object arg3) 3909 public static IEnumerable<bool> read_number(object C1, object Dict, object arg3)
3910 { 3910 {
3911 { 3911 {
3912 Variable Number = new Variable(); 3912 Variable Number = new Variable();
3913 Variable Tokens = new Variable(); 3913 Variable Tokens = new Variable();
3914 Variable C2 = new Variable(); 3914 Variable C2 = new Variable();
3915 Variable N = new Variable(); 3915 Variable N = new Variable();
3916 Variable C = new Variable(); 3916 Variable C = new Variable();
3917 Variable C3 = new Variable(); 3917 Variable C3 = new Variable();
3918 Variable Digits = new Variable(); 3918 Variable Digits = new Variable();
3919 foreach (bool l2 in YP.unify(arg3, new ListPair(new Functor1(@"number", Number), Tokens))) 3919 foreach (bool l2 in YP.unify(arg3, new ListPair(new Functor1(@"number", Number), Tokens)))
3920 { 3920 {
3921 foreach (bool l3 in read_number4(C1, C2, 0, N)) 3921 foreach (bool l3 in read_number4(C1, C2, 0, N))
3922 { 3922 {
3923 if (YP.equal(C2, 39)) 3923 if (YP.equal(C2, 39))
3924 { 3924 {
3925 if (YP.greaterThanOrEqual(N, 2)) 3925 if (YP.greaterThanOrEqual(N, 2))
3926 { 3926 {
3927 if (YP.lessThanOrEqual(N, 36)) 3927 if (YP.lessThanOrEqual(N, 36))
3928 { 3928 {
3929 foreach (bool l7 in read_based(N, 0, Number, C)) 3929 foreach (bool l7 in read_based(N, 0, Number, C))
3930 { 3930 {
3931 foreach (bool l8 in read_tokens(C, Dict, Tokens)) 3931 foreach (bool l8 in read_tokens(C, Dict, Tokens))
3932 { 3932 {
3933 yield return false; 3933 yield return false;
3934 } 3934 }
3935 } 3935 }
3936 goto cutIf2; 3936 goto cutIf2;
3937 } 3937 }
3938 } 3938 }
3939 if (YP.equal(N, 0)) 3939 if (YP.equal(N, 0))
3940 { 3940 {
3941 foreach (bool l6 in YP.get_code(C3)) 3941 foreach (bool l6 in YP.get_code(C3))
3942 { 3942 {
3943 foreach (bool l7 in read_char(C3, -1, Number, C)) 3943 foreach (bool l7 in read_char(C3, -1, Number, C))
3944 { 3944 {
3945 foreach (bool l8 in read_tokens(C, Dict, Tokens)) 3945 foreach (bool l8 in read_tokens(C, Dict, Tokens))
3946 { 3946 {
3947 yield return false; 3947 yield return false;
3948 } 3948 }
3949 } 3949 }
3950 } 3950 }
3951 goto cutIf3; 3951 goto cutIf3;
3952 } 3952 }
3953 foreach (bool l5 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** ~d' read as ~d '~n"), new ListPair(N, new ListPair(N, Atom.NIL)))) 3953 foreach (bool l5 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** ~d' read as ~d '~n"), new ListPair(N, new ListPair(N, Atom.NIL))))
3954 { 3954 {
3955 foreach (bool l6 in YP.unify(Number, N)) 3955 foreach (bool l6 in YP.unify(Number, N))
3956 { 3956 {
3957 foreach (bool l7 in YP.unify(C, C2)) 3957 foreach (bool l7 in YP.unify(C, C2))
3958 { 3958 {
3959 foreach (bool l8 in read_tokens(C, Dict, Tokens)) 3959 foreach (bool l8 in read_tokens(C, Dict, Tokens))
3960 { 3960 {
3961 yield return false; 3961 yield return false;
3962 } 3962 }
3963 } 3963 }
3964 } 3964 }
3965 } 3965 }
3966 cutIf3: 3966 cutIf3:
3967 cutIf2: 3967 cutIf2:
3968 goto cutIf1; 3968 goto cutIf1;
3969 } 3969 }
3970 if (YP.equal(C2, 46)) 3970 if (YP.equal(C2, 46))
3971 { 3971 {
3972 foreach (bool l5 in YP.get_code(C3)) 3972 foreach (bool l5 in YP.get_code(C3))
3973 { 3973 {
3974 if (YP.greaterThanOrEqual(C3, new ListPair(48, Atom.NIL))) 3974 if (YP.greaterThanOrEqual(C3, new ListPair(48, Atom.NIL)))
3975 { 3975 {
3976 if (YP.lessThanOrEqual(C3, new ListPair(57, Atom.NIL))) 3976 if (YP.lessThanOrEqual(C3, new ListPair(57, Atom.NIL)))
3977 { 3977 {
3978 foreach (bool l8 in YP.number_codes(N, Digits)) 3978 foreach (bool l8 in YP.number_codes(N, Digits))
3979 { 3979 {
3980 foreach (bool l9 in read_float(Number, Dict, Tokens, Digits, C3)) 3980 foreach (bool l9 in read_float(Number, Dict, Tokens, Digits, C3))
3981 { 3981 {
3982 yield return false; 3982 yield return false;
3983 } 3983 }
3984 } 3984 }
3985 goto cutIf5; 3985 goto cutIf5;
3986 } 3986 }
3987 } 3987 }
3988 foreach (bool l6 in YP.unify(Number, N)) 3988 foreach (bool l6 in YP.unify(Number, N))
3989 { 3989 {
3990 foreach (bool l7 in read_fullstop(C3, Dict, Tokens)) 3990 foreach (bool l7 in read_fullstop(C3, Dict, Tokens))
3991 { 3991 {
3992 yield return false; 3992 yield return false;
3993 } 3993 }
3994 } 3994 }
3995 cutIf5: 3995 cutIf5:
3996 { } 3996 { }
3997 } 3997 }
3998 goto cutIf4; 3998 goto cutIf4;
3999 } 3999 }
4000 foreach (bool l4 in YP.unify(Number, N)) 4000 foreach (bool l4 in YP.unify(Number, N))
4001 { 4001 {
4002 foreach (bool l5 in read_tokens(C2, Dict, Tokens)) 4002 foreach (bool l5 in read_tokens(C2, Dict, Tokens))
4003 { 4003 {
4004 yield return false; 4004 yield return false;
4005 } 4005 }
4006 } 4006 }
4007 cutIf4: 4007 cutIf4:
4008 cutIf1: 4008 cutIf1:
4009 { } 4009 { }
4010 } 4010 }
4011 } 4011 }
4012 } 4012 }
4013 } 4013 }
4014 4014
4015 public static IEnumerable<bool> read_number4(object C0, object C, object N0, object N) 4015 public static IEnumerable<bool> read_number4(object C0, object C, object N0, object N)
4016 { 4016 {
4017 { 4017 {
4018 Variable N1 = new Variable(); 4018 Variable N1 = new Variable();
4019 Variable C1 = new Variable(); 4019 Variable C1 = new Variable();
4020 if (YP.greaterThanOrEqual(C0, new ListPair(48, Atom.NIL))) 4020 if (YP.greaterThanOrEqual(C0, new ListPair(48, Atom.NIL)))
4021 { 4021 {
4022 if (YP.lessThanOrEqual(C0, new ListPair(57, Atom.NIL))) 4022 if (YP.lessThanOrEqual(C0, new ListPair(57, Atom.NIL)))
4023 { 4023 {
4024 foreach (bool l4 in YP.unify(N1, YP.add(YP.subtract(YP.multiply(N0, 10), new ListPair(48, Atom.NIL)), C0))) 4024 foreach (bool l4 in YP.unify(N1, YP.add(YP.subtract(YP.multiply(N0, 10), new ListPair(48, Atom.NIL)), C0)))
4025 { 4025 {
4026 foreach (bool l5 in YP.get_code(C1)) 4026 foreach (bool l5 in YP.get_code(C1))
4027 { 4027 {
4028 foreach (bool l6 in read_number4(C1, C, N1, N)) 4028 foreach (bool l6 in read_number4(C1, C, N1, N))
4029 { 4029 {
4030 yield return false; 4030 yield return false;
4031 } 4031 }
4032 } 4032 }
4033 } 4033 }
4034 goto cutIf1; 4034 goto cutIf1;
4035 } 4035 }
4036 } 4036 }
4037 if (YP.equal(C0, 95)) 4037 if (YP.equal(C0, 95))
4038 { 4038 {
4039 foreach (bool l3 in YP.get_code(C1)) 4039 foreach (bool l3 in YP.get_code(C1))
4040 { 4040 {
4041 foreach (bool l4 in read_number4(C1, C, N0, N)) 4041 foreach (bool l4 in read_number4(C1, C, N0, N))
4042 { 4042 {
4043 yield return false; 4043 yield return false;
4044 } 4044 }
4045 } 4045 }
4046 goto cutIf2; 4046 goto cutIf2;
4047 } 4047 }
4048 foreach (bool l2 in YP.unify(C, C0)) 4048 foreach (bool l2 in YP.unify(C, C0))
4049 { 4049 {
4050 foreach (bool l3 in YP.unify(N, N0)) 4050 foreach (bool l3 in YP.unify(N, N0))
4051 { 4051 {
4052 yield return false; 4052 yield return false;
4053 } 4053 }
4054 } 4054 }
4055 cutIf2: 4055 cutIf2:
4056 cutIf1: 4056 cutIf1:
4057 { } 4057 { }
4058 } 4058 }
4059 } 4059 }
4060 4060
4061 public static IEnumerable<bool> read_based(object Base, object N0, object N, object C) 4061 public static IEnumerable<bool> read_based(object Base, object N0, object N, object C)
4062 { 4062 {
4063 { 4063 {
4064 Variable C1 = new Variable(); 4064 Variable C1 = new Variable();
4065 Variable Digit = new Variable(); 4065 Variable Digit = new Variable();
4066 Variable N1 = new Variable(); 4066 Variable N1 = new Variable();
4067 foreach (bool l2 in YP.get_code(C1)) 4067 foreach (bool l2 in YP.get_code(C1))
4068 { 4068 {
4069 if (YP.greaterThanOrEqual(C1, new ListPair(48, Atom.NIL))) 4069 if (YP.greaterThanOrEqual(C1, new ListPair(48, Atom.NIL)))
4070 { 4070 {
4071 if (YP.lessThanOrEqual(C1, new ListPair(57, Atom.NIL))) 4071 if (YP.lessThanOrEqual(C1, new ListPair(57, Atom.NIL)))
4072 { 4072 {
4073 foreach (bool l5 in YP.unify(Digit, YP.subtract(C1, new ListPair(48, Atom.NIL)))) 4073 foreach (bool l5 in YP.unify(Digit, YP.subtract(C1, new ListPair(48, Atom.NIL))))
4074 { 4074 {
4075 if (YP.lessThan(Digit, Base)) 4075 if (YP.lessThan(Digit, Base))
4076 { 4076 {
4077 foreach (bool l7 in YP.unify(N1, YP.add(YP.multiply(N0, Base), Digit))) 4077 foreach (bool l7 in YP.unify(N1, YP.add(YP.multiply(N0, Base), Digit)))
4078 { 4078 {
4079 foreach (bool l8 in read_based(Base, N1, N, C)) 4079 foreach (bool l8 in read_based(Base, N1, N, C))
4080 { 4080 {
4081 yield return false; 4081 yield return false;
4082 } 4082 }
4083 } 4083 }
4084 goto cutIf2; 4084 goto cutIf2;
4085 } 4085 }
4086 if (YP.equal(C1, new ListPair(95, Atom.NIL))) 4086 if (YP.equal(C1, new ListPair(95, Atom.NIL)))
4087 { 4087 {
4088 foreach (bool l7 in read_based(Base, N0, N, C)) 4088 foreach (bool l7 in read_based(Base, N0, N, C))
4089 { 4089 {
4090 yield return false; 4090 yield return false;
4091 } 4091 }
4092 goto cutIf3; 4092 goto cutIf3;
4093 } 4093 }
4094 foreach (bool l6 in YP.unify(N, N0)) 4094 foreach (bool l6 in YP.unify(N, N0))
4095 { 4095 {
4096 foreach (bool l7 in YP.unify(C, C1)) 4096 foreach (bool l7 in YP.unify(C, C1))
4097 { 4097 {
4098 yield return false; 4098 yield return false;
4099 } 4099 }
4100 } 4100 }
4101 cutIf3: 4101 cutIf3:
4102 cutIf2: 4102 cutIf2:
4103 { } 4103 { }
4104 } 4104 }
4105 goto cutIf1; 4105 goto cutIf1;
4106 } 4106 }
4107 } 4107 }
4108 if (YP.greaterThanOrEqual(C1, new ListPair(65, Atom.NIL))) 4108 if (YP.greaterThanOrEqual(C1, new ListPair(65, Atom.NIL)))
4109 { 4109 {
4110 if (YP.lessThanOrEqual(C1, new ListPair(90, Atom.NIL))) 4110 if (YP.lessThanOrEqual(C1, new ListPair(90, Atom.NIL)))
4111 { 4111 {
4112 foreach (bool l5 in YP.unify(Digit, YP.subtract(C1, YP.subtract(new ListPair(65, Atom.NIL), 10)))) 4112 foreach (bool l5 in YP.unify(Digit, YP.subtract(C1, YP.subtract(new ListPair(65, Atom.NIL), 10))))
4113 { 4113 {
4114 if (YP.lessThan(Digit, Base)) 4114 if (YP.lessThan(Digit, Base))
4115 { 4115 {
4116 foreach (bool l7 in YP.unify(N1, YP.add(YP.multiply(N0, Base), Digit))) 4116 foreach (bool l7 in YP.unify(N1, YP.add(YP.multiply(N0, Base), Digit)))
4117 { 4117 {
4118 foreach (bool l8 in read_based(Base, N1, N, C)) 4118 foreach (bool l8 in read_based(Base, N1, N, C))
4119 { 4119 {
4120 yield return false; 4120 yield return false;
4121 } 4121 }
4122 } 4122 }
4123 goto cutIf5; 4123 goto cutIf5;
4124 } 4124 }
4125 if (YP.equal(C1, new ListPair(95, Atom.NIL))) 4125 if (YP.equal(C1, new ListPair(95, Atom.NIL)))
4126 { 4126 {
4127 foreach (bool l7 in read_based(Base, N0, N, C)) 4127 foreach (bool l7 in read_based(Base, N0, N, C))
4128 { 4128 {
4129 yield return false; 4129 yield return false;
4130 } 4130 }
4131 goto cutIf6; 4131 goto cutIf6;
4132 } 4132 }
4133 foreach (bool l6 in YP.unify(N, N0)) 4133 foreach (bool l6 in YP.unify(N, N0))
4134 { 4134 {
4135 foreach (bool l7 in YP.unify(C, C1)) 4135 foreach (bool l7 in YP.unify(C, C1))
4136 { 4136 {
4137 yield return false; 4137 yield return false;
4138 } 4138 }
4139 } 4139 }
4140 cutIf6: 4140 cutIf6:
4141 cutIf5: 4141 cutIf5:
4142 { } 4142 { }
4143 } 4143 }
4144 goto cutIf4; 4144 goto cutIf4;
4145 } 4145 }
4146 } 4146 }
4147 if (YP.greaterThanOrEqual(C1, new ListPair(97, Atom.NIL))) 4147 if (YP.greaterThanOrEqual(C1, new ListPair(97, Atom.NIL)))
4148 { 4148 {
4149 if (YP.lessThanOrEqual(C1, new ListPair(122, Atom.NIL))) 4149 if (YP.lessThanOrEqual(C1, new ListPair(122, Atom.NIL)))
4150 { 4150 {
4151 foreach (bool l5 in YP.unify(Digit, YP.subtract(C1, YP.subtract(new ListPair(97, Atom.NIL), 10)))) 4151 foreach (bool l5 in YP.unify(Digit, YP.subtract(C1, YP.subtract(new ListPair(97, Atom.NIL), 10))))
4152 { 4152 {
4153 if (YP.lessThan(Digit, Base)) 4153 if (YP.lessThan(Digit, Base))
4154 { 4154 {
4155 foreach (bool l7 in YP.unify(N1, YP.add(YP.multiply(N0, Base), Digit))) 4155 foreach (bool l7 in YP.unify(N1, YP.add(YP.multiply(N0, Base), Digit)))
4156 { 4156 {
4157 foreach (bool l8 in read_based(Base, N1, N, C)) 4157 foreach (bool l8 in read_based(Base, N1, N, C))
4158 { 4158 {
4159 yield return false; 4159 yield return false;
4160 } 4160 }
4161 } 4161 }
4162 goto cutIf8; 4162 goto cutIf8;
4163 } 4163 }
4164 if (YP.equal(C1, new ListPair(95, Atom.NIL))) 4164 if (YP.equal(C1, new ListPair(95, Atom.NIL)))
4165 { 4165 {
4166 foreach (bool l7 in read_based(Base, N0, N, C)) 4166 foreach (bool l7 in read_based(Base, N0, N, C))
4167 { 4167 {
4168 yield return false; 4168 yield return false;
4169 } 4169 }
4170 goto cutIf9; 4170 goto cutIf9;
4171 } 4171 }
4172 foreach (bool l6 in YP.unify(N, N0)) 4172 foreach (bool l6 in YP.unify(N, N0))
4173 { 4173 {
4174 foreach (bool l7 in YP.unify(C, C1)) 4174 foreach (bool l7 in YP.unify(C, C1))
4175 { 4175 {
4176 yield return false; 4176 yield return false;
4177 } 4177 }
4178 } 4178 }
4179 cutIf9: 4179 cutIf9:
4180 cutIf8: 4180 cutIf8:
4181 { } 4181 { }
4182 } 4182 }
4183 goto cutIf7; 4183 goto cutIf7;
4184 } 4184 }
4185 } 4185 }
4186 foreach (bool l3 in YP.unify(Digit, 99)) 4186 foreach (bool l3 in YP.unify(Digit, 99))
4187 { 4187 {
4188 if (YP.lessThan(Digit, Base)) 4188 if (YP.lessThan(Digit, Base))
4189 { 4189 {
4190 foreach (bool l5 in YP.unify(N1, YP.add(YP.multiply(N0, Base), Digit))) 4190 foreach (bool l5 in YP.unify(N1, YP.add(YP.multiply(N0, Base), Digit)))
4191 { 4191 {
4192 foreach (bool l6 in read_based(Base, N1, N, C)) 4192 foreach (bool l6 in read_based(Base, N1, N, C))
4193 { 4193 {
4194 yield return false; 4194 yield return false;
4195 } 4195 }
4196 } 4196 }
4197 goto cutIf10; 4197 goto cutIf10;
4198 } 4198 }
4199 if (YP.equal(C1, new ListPair(95, Atom.NIL))) 4199 if (YP.equal(C1, new ListPair(95, Atom.NIL)))
4200 { 4200 {
4201 foreach (bool l5 in read_based(Base, N0, N, C)) 4201 foreach (bool l5 in read_based(Base, N0, N, C))
4202 { 4202 {
4203 yield return false; 4203 yield return false;
4204 } 4204 }
4205 goto cutIf11; 4205 goto cutIf11;
4206 } 4206 }
4207 foreach (bool l4 in YP.unify(N, N0)) 4207 foreach (bool l4 in YP.unify(N, N0))
4208 { 4208 {
4209 foreach (bool l5 in YP.unify(C, C1)) 4209 foreach (bool l5 in YP.unify(C, C1))
4210 { 4210 {
4211 yield return false; 4211 yield return false;
4212 } 4212 }
4213 } 4213 }
4214 cutIf11: 4214 cutIf11:
4215 cutIf10: 4215 cutIf10:
4216 { } 4216 { }
4217 } 4217 }
4218 cutIf7: 4218 cutIf7:
4219 cutIf4: 4219 cutIf4:
4220 cutIf1: 4220 cutIf1:
4221 { } 4221 { }
4222 } 4222 }
4223 } 4223 }
4224 } 4224 }
4225 4225
4226 public static IEnumerable<bool> read_char(object Char, object Quote, object Result, object Next) 4226 public static IEnumerable<bool> read_char(object Char, object Quote, object Result, object Next)
4227 { 4227 {
4228 { 4228 {
4229 Variable C1 = new Variable(); 4229 Variable C1 = new Variable();
4230 Variable C2 = new Variable(); 4230 Variable C2 = new Variable();
4231 Variable C3 = new Variable(); 4231 Variable C3 = new Variable();
4232 Variable Ch = new Variable(); 4232 Variable Ch = new Variable();
4233 if (YP.equal(Char, 92)) 4233 if (YP.equal(Char, 92))
4234 { 4234 {
4235 foreach (bool l3 in YP.get_code(C1)) 4235 foreach (bool l3 in YP.get_code(C1))
4236 { 4236 {
4237 if (YP.lessThan(C1, 0)) 4237 if (YP.lessThan(C1, 0))
4238 { 4238 {
4239 foreach (bool l5 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** end of file in ~cquoted~c~n"), new ListPair(Quote, new ListPair(Quote, Atom.NIL)))) 4239 foreach (bool l5 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** end of file in ~cquoted~c~n"), new ListPair(Quote, new ListPair(Quote, Atom.NIL))))
4240 { 4240 {
4241 foreach (bool l6 in YP.unify(Result, -1)) 4241 foreach (bool l6 in YP.unify(Result, -1))
4242 { 4242 {
4243 foreach (bool l7 in YP.unify(Next, C1)) 4243 foreach (bool l7 in YP.unify(Next, C1))
4244 { 4244 {
4245 yield return false; 4245 yield return false;
4246 } 4246 }
4247 } 4247 }
4248 } 4248 }
4249 goto cutIf2; 4249 goto cutIf2;
4250 } 4250 }
4251 if (YP.lessThanOrEqual(C1, new ListPair(32, Atom.NIL))) 4251 if (YP.lessThanOrEqual(C1, new ListPair(32, Atom.NIL)))
4252 { 4252 {
4253 foreach (bool l5 in YP.get_code(C2)) 4253 foreach (bool l5 in YP.get_code(C2))
4254 { 4254 {
4255 foreach (bool l6 in read_char(C2, Quote, Result, Next)) 4255 foreach (bool l6 in read_char(C2, Quote, Result, Next))
4256 { 4256 {
4257 yield return false; 4257 yield return false;
4258 } 4258 }
4259 } 4259 }
4260 goto cutIf3; 4260 goto cutIf3;
4261 } 4261 }
4262 if (YP.equal(YP.bitwiseOr(C1, 32), new ListPair(99, Atom.NIL))) 4262 if (YP.equal(YP.bitwiseOr(C1, 32), new ListPair(99, Atom.NIL)))
4263 { 4263 {
4264 foreach (bool l5 in YP.get_code(C2)) 4264 foreach (bool l5 in YP.get_code(C2))
4265 { 4265 {
4266 foreach (bool l6 in read_char(C2, Quote, Result, Next)) 4266 foreach (bool l6 in read_char(C2, Quote, Result, Next))
4267 { 4267 {
4268 yield return false; 4268 yield return false;
4269 } 4269 }
4270 } 4270 }
4271 goto cutIf4; 4271 goto cutIf4;
4272 } 4272 }
4273 if (YP.lessThanOrEqual(C1, new ListPair(55, Atom.NIL))) 4273 if (YP.lessThanOrEqual(C1, new ListPair(55, Atom.NIL)))
4274 { 4274 {
4275 if (YP.greaterThanOrEqual(C1, new ListPair(48, Atom.NIL))) 4275 if (YP.greaterThanOrEqual(C1, new ListPair(48, Atom.NIL)))
4276 { 4276 {
4277 foreach (bool l6 in YP.get_code(C2)) 4277 foreach (bool l6 in YP.get_code(C2))
4278 { 4278 {
4279 if (YP.lessThanOrEqual(C2, new ListPair(55, Atom.NIL))) 4279 if (YP.lessThanOrEqual(C2, new ListPair(55, Atom.NIL)))
4280 { 4280 {
4281 if (YP.greaterThanOrEqual(C2, new ListPair(48, Atom.NIL))) 4281 if (YP.greaterThanOrEqual(C2, new ListPair(48, Atom.NIL)))
4282 { 4282 {
4283 foreach (bool l9 in YP.get_code(C3)) 4283 foreach (bool l9 in YP.get_code(C3))
4284 { 4284 {
4285 if (YP.lessThanOrEqual(C3, new ListPair(55, Atom.NIL))) 4285 if (YP.lessThanOrEqual(C3, new ListPair(55, Atom.NIL)))
4286 { 4286 {
4287 if (YP.greaterThanOrEqual(C3, new ListPair(48, Atom.NIL))) 4287 if (YP.greaterThanOrEqual(C3, new ListPair(48, Atom.NIL)))
4288 { 4288 {
4289 foreach (bool l12 in YP.get_code(Next)) 4289 foreach (bool l12 in YP.get_code(Next))
4290 { 4290 {
4291 foreach (bool l13 in YP.unify(Result, YP.subtract(YP.add(YP.multiply(YP.add(YP.multiply(C1, 8), C2), 8), C3), YP.multiply(73, new ListPair(48, Atom.NIL))))) 4291 foreach (bool l13 in YP.unify(Result, YP.subtract(YP.add(YP.multiply(YP.add(YP.multiply(C1, 8), C2), 8), C3), YP.multiply(73, new ListPair(48, Atom.NIL)))))
4292 { 4292 {
4293 yield return false; 4293 yield return false;
4294 } 4294 }
4295 } 4295 }
4296 goto cutIf7; 4296 goto cutIf7;
4297 } 4297 }
4298 } 4298 }
4299 foreach (bool l10 in YP.unify(Next, C3)) 4299 foreach (bool l10 in YP.unify(Next, C3))
4300 { 4300 {
4301 foreach (bool l11 in YP.unify(Result, YP.subtract(YP.add(YP.multiply(C1, 8), C2), YP.multiply(9, new ListPair(48, Atom.NIL))))) 4301 foreach (bool l11 in YP.unify(Result, YP.subtract(YP.add(YP.multiply(C1, 8), C2), YP.multiply(9, new ListPair(48, Atom.NIL)))))
4302 { 4302 {
4303 yield return false; 4303 yield return false;
4304 } 4304 }
4305 } 4305 }
4306 cutIf7: 4306 cutIf7:
4307 { } 4307 { }
4308 } 4308 }
4309 goto cutIf6; 4309 goto cutIf6;
4310 } 4310 }
4311 } 4311 }
4312 foreach (bool l7 in YP.unify(Next, C2)) 4312 foreach (bool l7 in YP.unify(Next, C2))
4313 { 4313 {
4314 foreach (bool l8 in YP.unify(Result, YP.subtract(C1, new ListPair(48, Atom.NIL)))) 4314 foreach (bool l8 in YP.unify(Result, YP.subtract(C1, new ListPair(48, Atom.NIL))))
4315 { 4315 {
4316 yield return false; 4316 yield return false;
4317 } 4317 }
4318 } 4318 }
4319 cutIf6: 4319 cutIf6:
4320 { } 4320 { }
4321 } 4321 }
4322 goto cutIf5; 4322 goto cutIf5;
4323 } 4323 }
4324 } 4324 }
4325 if (YP.equal(C1, new ListPair(94, Atom.NIL))) 4325 if (YP.equal(C1, new ListPair(94, Atom.NIL)))
4326 { 4326 {
4327 foreach (bool l5 in YP.get_code(C2)) 4327 foreach (bool l5 in YP.get_code(C2))
4328 { 4328 {
4329 if (YP.lessThan(C2, 0)) 4329 if (YP.lessThan(C2, 0))
4330 { 4330 {
4331 foreach (bool l7 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** end of file in ~c..~c^..~c~n"), new ListPair(Quote, new ListPair(92, new ListPair(Quote, Atom.NIL))))) 4331 foreach (bool l7 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** end of file in ~c..~c^..~c~n"), new ListPair(Quote, new ListPair(92, new ListPair(Quote, Atom.NIL)))))
4332 { 4332 {
4333 foreach (bool l8 in YP.unify(Result, -1)) 4333 foreach (bool l8 in YP.unify(Result, -1))
4334 { 4334 {
4335 foreach (bool l9 in YP.unify(Next, C2)) 4335 foreach (bool l9 in YP.unify(Next, C2))
4336 { 4336 {
4337 yield return false; 4337 yield return false;
4338 } 4338 }
4339 } 4339 }
4340 } 4340 }
4341 goto cutIf9; 4341 goto cutIf9;
4342 } 4342 }
4343 if (YP.equal(C2, new ListPair(63, Atom.NIL))) 4343 if (YP.equal(C2, new ListPair(63, Atom.NIL)))
4344 { 4344 {
4345 foreach (bool l7 in YP.unify(Result, 127)) 4345 foreach (bool l7 in YP.unify(Result, 127))
4346 { 4346 {
4347 foreach (bool l8 in YP.get_code(Next)) 4347 foreach (bool l8 in YP.get_code(Next))
4348 { 4348 {
4349 yield return false; 4349 yield return false;
4350 } 4350 }
4351 } 4351 }
4352 goto cutIf10; 4352 goto cutIf10;
4353 } 4353 }
4354 foreach (bool l6 in YP.unify(Result, YP.bitwiseAnd(C2, 31))) 4354 foreach (bool l6 in YP.unify(Result, YP.bitwiseAnd(C2, 31)))
4355 { 4355 {
4356 foreach (bool l7 in YP.get_code(Next)) 4356 foreach (bool l7 in YP.get_code(Next))
4357 { 4357 {
4358 yield return false; 4358 yield return false;
4359 } 4359 }
4360 } 4360 }
4361 cutIf10: 4361 cutIf10:
4362 cutIf9: 4362 cutIf9:
4363 { } 4363 { }
4364 } 4364 }
4365 goto cutIf8; 4365 goto cutIf8;
4366 } 4366 }
4367 foreach (bool l4 in escape_char(C1, Result)) 4367 foreach (bool l4 in escape_char(C1, Result))
4368 { 4368 {
4369 foreach (bool l5 in YP.get_code(Next)) 4369 foreach (bool l5 in YP.get_code(Next))
4370 { 4370 {
4371 yield return false; 4371 yield return false;
4372 } 4372 }
4373 goto cutIf11; 4373 goto cutIf11;
4374 } 4374 }
4375 foreach (bool l4 in YP.unify(Result, C1)) 4375 foreach (bool l4 in YP.unify(Result, C1))
4376 { 4376 {
4377 foreach (bool l5 in YP.get_code(Next)) 4377 foreach (bool l5 in YP.get_code(Next))
4378 { 4378 {
4379 yield return false; 4379 yield return false;
4380 } 4380 }
4381 } 4381 }
4382 cutIf11: 4382 cutIf11:
4383 cutIf8: 4383 cutIf8:
4384 cutIf5: 4384 cutIf5:
4385 cutIf4: 4385 cutIf4:
4386 cutIf3: 4386 cutIf3:
4387 cutIf2: 4387 cutIf2:
4388 { } 4388 { }
4389 } 4389 }
4390 goto cutIf1; 4390 goto cutIf1;
4391 } 4391 }
4392 if (YP.equal(Char, Quote)) 4392 if (YP.equal(Char, Quote))
4393 { 4393 {
4394 foreach (bool l3 in YP.get_code(Ch)) 4394 foreach (bool l3 in YP.get_code(Ch))
4395 { 4395 {
4396 if (YP.equal(Ch, Quote)) 4396 if (YP.equal(Ch, Quote))
4397 { 4397 {
4398 foreach (bool l5 in YP.unify(Result, Quote)) 4398 foreach (bool l5 in YP.unify(Result, Quote))
4399 { 4399 {
4400 foreach (bool l6 in YP.get_code(Next)) 4400 foreach (bool l6 in YP.get_code(Next))
4401 { 4401 {
4402 yield return false; 4402 yield return false;
4403 } 4403 }
4404 } 4404 }
4405 goto cutIf13; 4405 goto cutIf13;
4406 } 4406 }
4407 foreach (bool l4 in YP.unify(Result, -1)) 4407 foreach (bool l4 in YP.unify(Result, -1))
4408 { 4408 {
4409 foreach (bool l5 in YP.unify(Next, Ch)) 4409 foreach (bool l5 in YP.unify(Next, Ch))
4410 { 4410 {
4411 yield return false; 4411 yield return false;
4412 } 4412 }
4413 } 4413 }
4414 cutIf13: 4414 cutIf13:
4415 { } 4415 { }
4416 } 4416 }
4417 goto cutIf12; 4417 goto cutIf12;
4418 } 4418 }
4419 if (YP.lessThan(Char, new ListPair(32, Atom.NIL))) 4419 if (YP.lessThan(Char, new ListPair(32, Atom.NIL)))
4420 { 4420 {
4421 if (YP.notEqual(Char, 9)) 4421 if (YP.notEqual(Char, 9))
4422 { 4422 {
4423 if (YP.notEqual(Char, 10)) 4423 if (YP.notEqual(Char, 10))
4424 { 4424 {
4425 if (YP.notEqual(Char, 13)) 4425 if (YP.notEqual(Char, 13))
4426 { 4426 {
4427 foreach (bool l6 in YP.unify(Result, -1)) 4427 foreach (bool l6 in YP.unify(Result, -1))
4428 { 4428 {
4429 foreach (bool l7 in YP.unify(Next, Char)) 4429 foreach (bool l7 in YP.unify(Next, Char))
4430 { 4430 {
4431 foreach (bool l8 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** Strange character ~d ends ~ctoken~c~n"), new ListPair(Char, new ListPair(Quote, new ListPair(Quote, Atom.NIL))))) 4431 foreach (bool l8 in formatError(Atom.a(@"user_error"), Atom.a(@"~N** Strange character ~d ends ~ctoken~c~n"), new ListPair(Char, new ListPair(Quote, new ListPair(Quote, Atom.NIL)))))
4432 { 4432 {
4433 yield return false; 4433 yield return false;
4434 } 4434 }
4435 } 4435 }
4436 } 4436 }
4437 goto cutIf14; 4437 goto cutIf14;
4438 } 4438 }
4439 } 4439 }
4440 } 4440 }
4441 } 4441 }
4442 foreach (bool l2 in YP.unify(Result, Char)) 4442 foreach (bool l2 in YP.unify(Result, Char))
4443 { 4443 {
4444 foreach (bool l3 in YP.get_code(Next)) 4444 foreach (bool l3 in YP.get_code(Next))
4445 { 4445 {
4446 yield return false; 4446 yield return false;
4447 } 4447 }
4448 } 4448 }
4449 cutIf14: 4449 cutIf14:
4450 cutIf12: 4450 cutIf12:
4451 cutIf1: 4451 cutIf1:
4452 { } 4452 { }
4453 } 4453 }
4454 } 4454 }
4455 4455
4456 } 4456 }
4457} 4457}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/PrologException.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/PrologException.cs
index ffb8ddc..63b304a 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/PrologException.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/PrologException.cs
@@ -1,71 +1,71 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32 32
33namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 33namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
34{ 34{
35 /// <summary> 35 /// <summary>
36 /// A PrologException is used as the exception thrown by YP.throw(Term). 36 /// A PrologException is used as the exception thrown by YP.throw(Term).
37 /// </summary> 37 /// </summary>
38 public class PrologException : Exception 38 public class PrologException : Exception
39 { 39 {
40 public readonly object _term; 40 public readonly object _term;
41 41
42 /// <summary> 42 /// <summary>
43 /// Create a PrologException with the given Term. The printable exception message is the full Term. 43 /// Create a PrologException with the given Term. The printable exception message is the full Term.
44 /// </summary> 44 /// </summary>
45 /// <param name="Term">the term of the exception</param> 45 /// <param name="Term">the term of the exception</param>
46 /// </param> 46 /// </param>
47 public PrologException(object Term) 47 public PrologException(object Term)
48 : base(YP.getValue(Term).ToString()) 48 : base(YP.getValue(Term).ToString())
49 { 49 {
50 _term = YP.makeCopy(Term, new Variable.CopyStore()); 50 _term = YP.makeCopy(Term, new Variable.CopyStore());
51 } 51 }
52 52
53 /// <summary> 53 /// <summary>
54 /// Create a PrologException where the Term is error(ErrorTerm, Message). 54 /// Create a PrologException where the Term is error(ErrorTerm, Message).
55 /// This uses YP.makeCopy to copy the ErrorTerm and Message so that they are valid after unbinding. 55 /// This uses YP.makeCopy to copy the ErrorTerm and Message so that they are valid after unbinding.
56 /// </summary> 56 /// </summary>
57 /// <param name="ErrorTerm">the term of the exception</param> 57 /// <param name="ErrorTerm">the term of the exception</param>
58 /// <param name="Messsage">the message, converted to a string, to use as the printable exception message 58 /// <param name="Messsage">the message, converted to a string, to use as the printable exception message
59 /// </param> 59 /// </param>
60 public PrologException(object ErrorTerm, object Message) 60 public PrologException(object ErrorTerm, object Message)
61 : base(YP.getValue(Message).ToString()) 61 : base(YP.getValue(Message).ToString())
62 { 62 {
63 _term = YP.makeCopy(new Functor2(Atom.a("error"), ErrorTerm, Message), new Variable.CopyStore()); 63 _term = YP.makeCopy(new Functor2(Atom.a("error"), ErrorTerm, Message), new Variable.CopyStore());
64 } 64 }
65 65
66 public object Term 66 public object Term
67 { 67 {
68 get { return _term; } 68 get { return _term; }
69 } 69 }
70 } 70 }
71} 71}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/README.TXT b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/README.TXT
index 05186f1..a1beeb6 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/README.TXT
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/README.TXT
@@ -1,405 +1,405 @@
1YPOS: YieldProlog for OpenSim 1YPOS: YieldProlog for OpenSim
2 2
3 a compiler from Prolog to OpenSim compatible C# scripts 3 a compiler from Prolog to OpenSim compatible C# scripts
4 4
5Ported by Kino Coursey and Douglas Miles at Daxtron Labs. 5Ported by Kino Coursey and Douglas Miles at Daxtron Labs.
6Based on Jeff Thompson Yield Prolog, http://yieldprolog.sourceforge.net/ 6Based on Jeff Thompson Yield Prolog, http://yieldprolog.sourceforge.net/
7For Prolog see http://en.wikipedia.org/wiki/Prolog 7For Prolog see http://en.wikipedia.org/wiki/Prolog
8 8
9 9
10INTRODUCTION 10INTRODUCTION
11 11
12This folder contains code to implement a Prolog compiler using the "Yield Statement" found in C#, Javascript, and Python. 12This folder contains code to implement a Prolog compiler using the "Yield Statement" found in C#, Javascript, and Python.
13The original Yield Prolog system can transform Prolog programs into C# code. 13The original Yield Prolog system can transform Prolog programs into C# code.
14In this system we detect and extract YieldProlog code (with "//YP" as the first four characters in the script) and seperate it from any c# code ("marked by "//CS"). 14In this system we detect and extract YieldProlog code (with "//YP" as the first four characters in the script) and seperate it from any c# code ("marked by "//CS").
15The YP code is transformed to C# and prepended to the "//CS" section, and passed as a bundel to the existing C# compiler. 15The YP code is transformed to C# and prepended to the "//CS" section, and passed as a bundel to the existing C# compiler.
16The end result is Prolog can interface to OpenSim using the existing "//CS" functionality, and C# can call the compiled Prolog. 16The end result is Prolog can interface to OpenSim using the existing "//CS" functionality, and C# can call the compiled Prolog.
17As such YP allows both declaritive and procedural programming in a 3D script enabled environment. 17As such YP allows both declaritive and procedural programming in a 3D script enabled environment.
18 18
19FEATURES 19FEATURES
20* Allows implementation of logic programming for objects and agents. 20* Allows implementation of logic programming for objects and agents.
21* C#/Javascript/Python as intermediate language 21* C#/Javascript/Python as intermediate language
22* Yield Prolog has relatively high speed of execution which is important in OpenSim. http://yieldprolog.sourceforge.net/benchmarks.html 22* Yield Prolog has relatively high speed of execution which is important in OpenSim. http://yieldprolog.sourceforge.net/benchmarks.html
23* It is compatable with the existing C#/Mono based system. 23* It is compatable with the existing C#/Mono based system.
24* Yield Prolog is BSD license 24* Yield Prolog is BSD license
25* Calling Prolog from C# scripts 25* Calling Prolog from C# scripts
26* Calling C# functions (with LSL and OS functions) from Prolog 26* Calling C# functions (with LSL and OS functions) from Prolog
27* Prolog dynamic database 27* Prolog dynamic database
28* Edinburgh, Cocksin & Mellish style syntax. 28* Edinburgh, Cocksin & Mellish style syntax.
29* Compiler is generated by compiling the Prolog descrition of itself into C# 29* Compiler is generated by compiling the Prolog descrition of itself into C#
30* Same script entry interface as LSL 30* Same script entry interface as LSL
31 31
32 32
33TODO 33TODO
34* Utilize ability to generate Javascript and Python code 34* Utilize ability to generate Javascript and Python code
35* Integrate Prolog database with Sim 35* Integrate Prolog database with Sim
36* Translation error reporting back to the editor 36* Translation error reporting back to the editor
37* Communications via message passing 37* Communications via message passing
38* Interface to external inference engines 38* Interface to external inference engines
39 39
40POSSIBILITIES 40POSSIBILITIES
41* Inworld expert systems 41* Inworld expert systems
42* Parallel logic programming and expert systems 42* Parallel logic programming and expert systems
43* Ontology based processing 43* Ontology based processing
44* Knowledge based alerting, accessing and business rules 44* Knowledge based alerting, accessing and business rules
45 For instance, listen on channel x, filter the events and broadcast alerts on channel y 45 For instance, listen on channel x, filter the events and broadcast alerts on channel y
46 or send IM, emails etc. 46 or send IM, emails etc.
47 47
48 48
49USAGE: 49USAGE:
50 50
51Add "yp" as an allowed compiler 51Add "yp" as an allowed compiler
52 52
53OpenSim.ini 53OpenSim.ini
54[ScriptEngine.DotNetEngine] 54[ScriptEngine.DotNetEngine]
55AllowedCompilers=lsl,cs,js,vb,yp 55AllowedCompilers=lsl,cs,js,vb,yp
56 56
57Enter scripts using the inworld editing process. Scripts have the following format. 57Enter scripts using the inworld editing process. Scripts have the following format.
58The first line of a file must have "//yp". 58The first line of a file must have "//yp".
59 59
60//yp 60//yp
61<PROLOG CODE> 61<PROLOG CODE>
62//CS 62//CS
63<CS CODE> 63<CS CODE>
64 64
65 65
66 66
67 67
68 68
69 69
70C# code calling a Prolog Predicate: 70C# code calling a Prolog Predicate:
71----------------------------------- 71-----------------------------------
72The Prolog predicate is transformed into a C# boolean function. So the general calling format is: 72The Prolog predicate is transformed into a C# boolean function. So the general calling format is:
73 foreach( bool var in prolog_predicate(ARGS)) {}; 73 foreach( bool var in prolog_predicate(ARGS)) {};
74 74
75I/O is via using a string reader and writer in conjunction with YP.See() and YP.Tell() 75I/O is via using a string reader and writer in conjunction with YP.See() and YP.Tell()
76 76
77 StringWriter PrologOutuput= new StringWriter(); 77 StringWriter PrologOutuput= new StringWriter();
78 StringReader PrologInput= new StringReader(myInputString); 78 StringReader PrologInput= new StringReader(myInputString);
79 YP.see(PrologInput); 79 YP.see(PrologInput);
80 YP.tell(PrologOutuput); 80 YP.tell(PrologOutuput);
81 <CALL PROLOG CODE HERE> 81 <CALL PROLOG CODE HERE>
82 YP.seen(); 82 YP.seen();
83 YP.told(); 83 YP.told();
84 StringBuilder builder = PrologOutput.GetStringBuilder(); 84 StringBuilder builder = PrologOutput.GetStringBuilder();
85 string finaloutput = builder.ToString(); 85 string finaloutput = builder.ToString();
86 86
87Any prolog reads and writes will be to the passed StringReader and StringWriter. In fact any TextReader/TextWriter class can be used. 87Any prolog reads and writes will be to the passed StringReader and StringWriter. In fact any TextReader/TextWriter class can be used.
88 88
89Strings in Prolog are stored as Atom's and you need to use an Atom object to match. 89Strings in Prolog are stored as Atom's and you need to use an Atom object to match.
90 90
91\\yp 91\\yp
92wanted('bob'). 92wanted('bob').
93\\cs 93\\cs
94string Who="bob"; 94string Who="bob";
95foreach( bool ans in wanted(Atom.a(Who) )){}; 95foreach( bool ans in wanted(Atom.a(Who) )){};
96 96
97 97
98Prolog code calling a C# function: 98Prolog code calling a C# function:
99----------------------------------- 99-----------------------------------
100The prolog code uses the script_event('name_of_function',ARGS) builtin, which is transformed into the function call. 100The prolog code uses the script_event('name_of_function',ARGS) builtin, which is transformed into the function call.
101The C# function called uses "PrologCallback" and returns a boolean. 101The C# function called uses "PrologCallback" and returns a boolean.
102 102
103 103
104 104
105Dynamic database assertions: 105Dynamic database assertions:
106----------------------------------- 106-----------------------------------
107 107
108void assertdb2(string predicate, string arg1, string arg2) 108void assertdb2(string predicate, string arg1, string arg2)
109{ 109{
110 name = Atom.a(predicate); 110 name = Atom.a(predicate);
111 YP.assertFact(name, new object[] { arg1, arg2 }); 111 YP.assertFact(name, new object[] { arg1, arg2 });
112} 112}
113 113
114void retractdb2(string predicate, string arg1, string arg2) 114void retractdb2(string predicate, string arg1, string arg2)
115{ 115{
116 name = Atom.a(predicate); 116 name = Atom.a(predicate);
117 YP.retractFact(name, new object[] { arg1, arg2 }); 117 YP.retractFact(name, new object[] { arg1, arg2 });
118} 118}
119 119
120 120
121========================= APPENDIX A: touch test ================================ 121========================= APPENDIX A: touch test ================================
122 122
123 123
124 =================================== 124 ===================================
125Input YP Code 125Input YP Code
126 =================================== 126 ===================================
127//yp 127//yp
128 mydb('field2','field1'). 128 mydb('field2','field1').
129 mydb('andy','jane'). 129 mydb('andy','jane').
130 mydb('carl','dan'). 130 mydb('carl','dan').
131 mydb('andy','bill'). 131 mydb('andy','bill').
132 mydb('andy','betty'). 132 mydb('andy','betty').
133 133
134 call_me(X):-mydb(X,Y) , respond(Y). 134 call_me(X):-mydb(X,Y) , respond(Y).
135 respond(X):- script_event('sayit',X). 135 respond(X):- script_event('sayit',X).
136 136
137//cs 137//cs
138 public void default_event_touch_start(int N ) 138 public void default_event_touch_start(int N )
139 { 139 {
140 llSay(0,"pstart1"); 140 llSay(0,"pstart1");
141 foreach( bool ans in call_me(Atom.a(@"andy") )){}; 141 foreach( bool ans in call_me(Atom.a(@"andy") )){};
142 llSay(0,"pstop2"); 142 llSay(0,"pstop2");
143 } 143 }
144 144
145 public void default_event_state_entry() 145 public void default_event_state_entry()
146 { 146 {
147 llSay(0,"prolog tester active."); 147 llSay(0,"prolog tester active.");
148 } 148 }
149 149
150PrologCallback sayit(object ans) 150PrologCallback sayit(object ans)
151 { 151 {
152 llSay(0,"sayit1"); 152 llSay(0,"sayit1");
153 string msg = "one answer is :"+((Variable)ans).getValue(); 153 string msg = "one answer is :"+((Variable)ans).getValue();
154 llSay(0,msg); 154 llSay(0,msg);
155 yield return false; 155 yield return false;
156 } 156 }
157 157
158 158
159 =================================== 159 ===================================
160Generated CS Code 160Generated CS Code
161 =================================== 161 ===================================
162using OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog;using OpenSim.Region.ScriptEngine.Common; using System.Collections.Generic; 162using OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog;using OpenSim.Region.ScriptEngine.Common; using System.Collections.Generic;
163namespace SecondLife { public class Script : OpenSim.Region.ScriptEngine.Common.BuiltIn_Commands_BaseClass { 163namespace SecondLife { public class Script : OpenSim.Region.ScriptEngine.Common.BuiltIn_Commands_BaseClass {
164static OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog.YP YP=null;public Script() { YP= new OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog.YP(); } 164static OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog.YP YP=null;public Script() { YP= new OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog.YP(); }
165//cs 165//cs
166 public void default_event_touch_start(int N ) 166 public void default_event_touch_start(int N )
167 { 167 {
168 llSay(0,"pstart1"); 168 llSay(0,"pstart1");
169 foreach( bool ans in call_me(Atom.a(@"carl") )){}; 169 foreach( bool ans in call_me(Atom.a(@"carl") )){};
170 llSay(0,"pstop2"); 170 llSay(0,"pstop2");
171 } 171 }
172 172
173 public void default_event_state_entry() 173 public void default_event_state_entry()
174 { 174 {
175 llSay(0,"prolog tester active."); 175 llSay(0,"prolog tester active.");
176 } 176 }
177 177
178public IEnumerable<bool> sayit(object ans) 178public IEnumerable<bool> sayit(object ans)
179 { 179 {
180 llSay(0,"sayit1"); 180 llSay(0,"sayit1");
181 string msg = "one answer is :"+((Variable)ans).getValue(); 181 string msg = "one answer is :"+((Variable)ans).getValue();
182 llSay(0,msg); 182 llSay(0,msg);
183 yield return false; 183 yield return false;
184 } 184 }
185 185
186 186
187//YPEncoded 187//YPEncoded
188public IEnumerable<bool> mydb(object arg1, object arg2) { 188public IEnumerable<bool> mydb(object arg1, object arg2) {
189 { 189 {
190 foreach (bool l2 in YP.unify(arg1, Atom.a(@"carl"))) { 190 foreach (bool l2 in YP.unify(arg1, Atom.a(@"carl"))) {
191 foreach (bool l3 in YP.unify(arg2, Atom.a(@"dan"))) { 191 foreach (bool l3 in YP.unify(arg2, Atom.a(@"dan"))) {
192 yield return false; 192 yield return false;
193 } 193 }
194 } 194 }
195 } 195 }
196 { 196 {
197 foreach (bool l2 in YP.unify(arg1, Atom.a(@"andy"))) { 197 foreach (bool l2 in YP.unify(arg1, Atom.a(@"andy"))) {
198 foreach (bool l3 in YP.unify(arg2, Atom.a(@"bill"))) { 198 foreach (bool l3 in YP.unify(arg2, Atom.a(@"bill"))) {
199 yield return false; 199 yield return false;
200 } 200 }
201 } 201 }
202 } 202 }
203 { 203 {
204 foreach (bool l2 in YP.unify(arg1, Atom.a(@"andy"))) { 204 foreach (bool l2 in YP.unify(arg1, Atom.a(@"andy"))) {
205 foreach (bool l3 in YP.unify(arg2, Atom.a(@"betty"))) { 205 foreach (bool l3 in YP.unify(arg2, Atom.a(@"betty"))) {
206 yield return false; 206 yield return false;
207 } 207 }
208 } 208 }
209 } 209 }
210} 210}
211 211
212public IEnumerable<bool> call_me(object X) { 212public IEnumerable<bool> call_me(object X) {
213 { 213 {
214 Variable Y = new Variable(); 214 Variable Y = new Variable();
215 foreach (bool l2 in mydb(X, Y)) { 215 foreach (bool l2 in mydb(X, Y)) {
216 foreach (bool l3 in respond(Y)) { 216 foreach (bool l3 in respond(Y)) {
217 yield return false; 217 yield return false;
218 } 218 }
219 } 219 }
220 } 220 }
221} 221}
222 222
223public IEnumerable<bool> respond(object X) { 223public IEnumerable<bool> respond(object X) {
224 { 224 {
225 foreach (bool l2 in this.sayit( X)) { 225 foreach (bool l2 in this.sayit( X)) {
226 yield return false; 226 yield return false;
227 } 227 }
228 } 228 }
229} 229}
230 230
231} } 231} }
232 232
233 233
234 234
235========================= APPENDIX B:SENSOR INFORMED SCRIPT ===================== 235========================= APPENDIX B:SENSOR INFORMED SCRIPT =====================
236 236
237 237
238 =================================== 238 ===================================
239Input YP Code 239Input YP Code
240 =================================== 240 ===================================
241//yp 241//yp
242 242
243nop. 243nop.
244 244
245good('Daxxon Kinoc'). 245good('Daxxon Kinoc').
246good('Fluffy Kitty'). 246good('Fluffy Kitty').
247 247
248bad('Eric Evil'). 248bad('Eric Evil').
249bad('Spikey Plant'). 249bad('Spikey Plant').
250 250
251prolog_notify(X) :- good(X) , script_event('accept',X). 251prolog_notify(X) :- good(X) , script_event('accept',X).
252prolog_notify(X) :- bad(X) , script_event('reject',X). 252prolog_notify(X) :- bad(X) , script_event('reject',X).
253 253
254 254
255//cs 255//cs
256 256
257public void default_event_state_entry() 257public void default_event_state_entry()
258 { 258 {
259 llSay(0,"prolog sensor tester active."); 259 llSay(0,"prolog sensor tester active.");
260 260
261 // Start a sensor looking for Agents 261 // Start a sensor looking for Agents
262 llSensorRepeat("","",AGENT, 10, PI,20); 262 llSensorRepeat("","",AGENT, 10, PI,20);
263 263
264 } 264 }
265 265
266public void default_event_sensor(int number_detected ) 266public void default_event_sensor(int number_detected )
267{ 267{
268 int i; 268 int i;
269 for(i=0;i< number_detected ;i++) 269 for(i=0;i< number_detected ;i++)
270 { 270 {
271 string dName = llDetectedName(i); 271 string dName = llDetectedName(i);
272 string dOwner = llDetectedName(i); 272 string dOwner = llDetectedName(i);
273 foreach(bool response in prolog_notify(Atom.a(dName)) ){}; 273 foreach(bool response in prolog_notify(Atom.a(dName)) ){};
274 foreach(bool response in prolog_notify(dOwner) ){}; 274 foreach(bool response in prolog_notify(dOwner) ){};
275 llSay(0,"Saw "+dName); 275 llSay(0,"Saw "+dName);
276 } 276 }
277} 277}
278 278
279string decodeToString(object obj) 279string decodeToString(object obj)
280{ 280{
281 if (obj is Variable) { return (string) ((Variable)obj).getValue();} 281 if (obj is Variable) { return (string) ((Variable)obj).getValue();}
282 if (obj is Atom) { return (string) ((Atom)obj)._name;} 282 if (obj is Atom) { return (string) ((Atom)obj)._name;}
283 return "unknown type"; 283 return "unknown type";
284} 284}
285 285
286PrologCallback accept(object ans) 286PrologCallback accept(object ans)
287 { 287 {
288 string msg = "Welcoming :"+decodeToString(ans); 288 string msg = "Welcoming :"+decodeToString(ans);
289 llSay(0,msg); 289 llSay(0,msg);
290 yield return false; 290 yield return false;
291 } 291 }
292 292
293PrologCallback reject(object ans) 293PrologCallback reject(object ans)
294 { 294 {
295 string msg = "Watching :"+decodeToString(ans); 295 string msg = "Watching :"+decodeToString(ans);
296 llSay(0,msg); 296 llSay(0,msg);
297 yield return false; 297 yield return false;
298 } 298 }
299 299
300 300
301 =================================== 301 ===================================
302Generated CS Code 302Generated CS Code
303 =================================== 303 ===================================
304 304
305using OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog; using OpenSim.Region.ScriptEngine.Common; using System.Collections.Generic; 305using OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog; using OpenSim.Region.ScriptEngine.Common; using System.Collections.Generic;
306namespace SecondLife { public class Script : OpenSim.Region.ScriptEngine.Common.BuiltIn_Commands_BaseClass { 306namespace SecondLife { public class Script : OpenSim.Region.ScriptEngine.Common.BuiltIn_Commands_BaseClass {
307static OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog.YP YP=null; public Script() { YP= new OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog.YP(); } 307static OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog.YP YP=null; public Script() { YP= new OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog.YP(); }
308//cs 308//cs
309 309
310public void default_event_state_entry() 310public void default_event_state_entry()
311 { 311 {
312 llSay(0,"prolog sensor tester active."); 312 llSay(0,"prolog sensor tester active.");
313 313
314 // Start a sensor looking for Agents 314 // Start a sensor looking for Agents
315 llSensorRepeat("","",AGENT, 10, PI,20); 315 llSensorRepeat("","",AGENT, 10, PI,20);
316 316
317 } 317 }
318 318
319public void default_event_sensor(int number_detected ) 319public void default_event_sensor(int number_detected )
320{ 320{
321 int i; 321 int i;
322 for(i=0;i< number_detected ;i++) 322 for(i=0;i< number_detected ;i++)
323 { 323 {
324 string dName = llDetectedName(i); 324 string dName = llDetectedName(i);
325 string dOwner = llDetectedName(i); 325 string dOwner = llDetectedName(i);
326 foreach(bool response in prolog_notify(Atom.a(dName)) ){}; 326 foreach(bool response in prolog_notify(Atom.a(dName)) ){};
327 foreach(bool response in prolog_notify(dOwner) ){}; 327 foreach(bool response in prolog_notify(dOwner) ){};
328 llSay(0,"Saw "+dName); 328 llSay(0,"Saw "+dName);
329 } 329 }
330} 330}
331 331
332string decodeToString(object obj) 332string decodeToString(object obj)
333{ 333{
334 if (obj is Variable) { return (string) ((Variable)obj).getValue();} 334 if (obj is Variable) { return (string) ((Variable)obj).getValue();}
335 if (obj is Atom) { return (string) ((Atom)obj)._name;} 335 if (obj is Atom) { return (string) ((Atom)obj)._name;}
336 return "unknown type"; 336 return "unknown type";
337} 337}
338 338
339public IEnumerable<bool> accept(object ans) 339public IEnumerable<bool> accept(object ans)
340 { 340 {
341 string msg = "Welcoming :"+decodeToString(ans); 341 string msg = "Welcoming :"+decodeToString(ans);
342 llSay(0,msg); 342 llSay(0,msg);
343 yield return false; 343 yield return false;
344 } 344 }
345 345
346public IEnumerable<bool> reject(object ans) 346public IEnumerable<bool> reject(object ans)
347 { 347 {
348 string msg = "Watching :"+decodeToString(ans); 348 string msg = "Watching :"+decodeToString(ans);
349 llSay(0,msg); 349 llSay(0,msg);
350 yield return false; 350 yield return false;
351 } 351 }
352 352
353 353
354//YPEncoded 354//YPEncoded
355public IEnumerable<bool> yp_nop_header_nop() { 355public IEnumerable<bool> yp_nop_header_nop() {
356 { 356 {
357 yield return false; 357 yield return false;
358 } 358 }
359} 359}
360 360
361public IEnumerable<bool> good(object arg1) { 361public IEnumerable<bool> good(object arg1) {
362 { 362 {
363 foreach (bool l2 in YP.unify(arg1, Atom.a(@"Daxxon Kinoc"))) { 363 foreach (bool l2 in YP.unify(arg1, Atom.a(@"Daxxon Kinoc"))) {
364 yield return false; 364 yield return false;
365 } 365 }
366 } 366 }
367 { 367 {
368 foreach (bool l2 in YP.unify(arg1, Atom.a(@"Fluffy Kitty"))) { 368 foreach (bool l2 in YP.unify(arg1, Atom.a(@"Fluffy Kitty"))) {
369 yield return false; 369 yield return false;
370 } 370 }
371 } 371 }
372} 372}
373 373
374public IEnumerable<bool> bad(object arg1) { 374public IEnumerable<bool> bad(object arg1) {
375 { 375 {
376 foreach (bool l2 in YP.unify(arg1, Atom.a(@"Eric Evil"))) { 376 foreach (bool l2 in YP.unify(arg1, Atom.a(@"Eric Evil"))) {
377 yield return false; 377 yield return false;
378 } 378 }
379 } 379 }
380 { 380 {
381 foreach (bool l2 in YP.unify(arg1, Atom.a(@"Spikey Plant"))) { 381 foreach (bool l2 in YP.unify(arg1, Atom.a(@"Spikey Plant"))) {
382 yield return false; 382 yield return false;
383 } 383 }
384 } 384 }
385} 385}
386 386
387public IEnumerable<bool> prolog_notify(object X) { 387public IEnumerable<bool> prolog_notify(object X) {
388 { 388 {
389 foreach (bool l2 in good(X)) { 389 foreach (bool l2 in good(X)) {
390 foreach (bool l3 in this.accept( X)) { 390 foreach (bool l3 in this.accept( X)) {
391 yield return false; 391 yield return false;
392 } 392 }
393 } 393 }
394 } 394 }
395 { 395 {
396 foreach (bool l2 in bad(X)) { 396 foreach (bool l2 in bad(X)) {
397 foreach (bool l3 in this.reject( X)) { 397 foreach (bool l3 in this.reject( X)) {
398 yield return false; 398 yield return false;
399 } 399 }
400 } 400 }
401 } 401 }
402} 402}
403 403
404} } 404} }
405 405
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/UndefinedPredicateException.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/UndefinedPredicateException.cs
index 035b79c..f746a07 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/UndefinedPredicateException.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/UndefinedPredicateException.cs
@@ -1,62 +1,62 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32 32
33namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 33namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
34{ 34{
35 /// <summary> 35 /// <summary>
36 /// An UndefinedPredicateException extends PrologException to create an existence_error exception. 36 /// An UndefinedPredicateException extends PrologException to create an existence_error exception.
37 /// </summary> 37 /// </summary>
38 public class UndefinedPredicateException : PrologException 38 public class UndefinedPredicateException : PrologException
39 { 39 {
40 private Atom _predicateName; 40 private Atom _predicateName;
41 private int _arity; 41 private int _arity;
42 42
43 public UndefinedPredicateException(object message, Atom predicateName, int arity) 43 public UndefinedPredicateException(object message, Atom predicateName, int arity)
44 : base(new Functor2 44 : base(new Functor2
45 (Atom.a("existence_error"), Atom.a("procedure"), new Functor2(Atom.a("/"), predicateName, arity)), 45 (Atom.a("existence_error"), Atom.a("procedure"), new Functor2(Atom.a("/"), predicateName, arity)),
46 message) 46 message)
47 { 47 {
48 _predicateName = predicateName; 48 _predicateName = predicateName;
49 _arity = arity; 49 _arity = arity;
50 } 50 }
51 51
52 public Atom PredicateName 52 public Atom PredicateName
53 { 53 {
54 get { return _predicateName; } 54 get { return _predicateName; }
55 } 55 }
56 56
57 public int Arity 57 public int Arity
58 { 58 {
59 get { return _arity; } 59 get { return _arity; }
60 } 60 }
61 } 61 }
62} 62}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Variable.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Variable.cs
index d5ee21c..47b5278 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Variable.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/Variable.cs
@@ -1,196 +1,196 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections; 32using System.Collections;
33using System.Collections.Generic; 33using System.Collections.Generic;
34 34
35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 35namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
36{ 36{
37 public interface IUnifiable 37 public interface IUnifiable
38 { 38 {
39 IEnumerable<bool> unify(object arg); 39 IEnumerable<bool> unify(object arg);
40 void addUniqueVariables(List<Variable> variableSet); 40 void addUniqueVariables(List<Variable> variableSet);
41 object makeCopy(Variable.CopyStore copyStore); 41 object makeCopy(Variable.CopyStore copyStore);
42 bool termEqual(object term); 42 bool termEqual(object term);
43 bool ground(); 43 bool ground();
44 } 44 }
45 45
46 public class Variable : IUnifiable 46 public class Variable : IUnifiable
47 { 47 {
48 // Use _isBound separate from _value so that it can be bound to any value, 48 // Use _isBound separate from _value so that it can be bound to any value,
49 // including null. 49 // including null.
50 private bool _isBound = false; 50 private bool _isBound = false;
51 private object _value; 51 private object _value;
52 52
53 public object getValue() 53 public object getValue()
54 { 54 {
55 if (!_isBound) 55 if (!_isBound)
56 return this; 56 return this;
57 57
58 object result = _value; 58 object result = _value;
59 while (result is Variable) 59 while (result is Variable)
60 { 60 {
61 if (!((Variable)result)._isBound) 61 if (!((Variable)result)._isBound)
62 return result; 62 return result;
63 63
64 // Keep following the Variable chain. 64 // Keep following the Variable chain.
65 result = ((Variable)result)._value; 65 result = ((Variable)result)._value;
66 } 66 }
67 67
68 return result; 68 return result;
69 } 69 }
70 70
71 public IEnumerable<bool> unify(object arg) 71 public IEnumerable<bool> unify(object arg)
72 { 72 {
73 if (!_isBound) 73 if (!_isBound)
74 { 74 {
75 _value = YP.getValue(arg); 75 _value = YP.getValue(arg);
76 if (_value == this) 76 if (_value == this)
77 // We are unifying this unbound variable with itself, so leave it unbound. 77 // We are unifying this unbound variable with itself, so leave it unbound.
78 yield return false; 78 yield return false;
79 else 79 else
80 { 80 {
81 _isBound = true; 81 _isBound = true;
82 try 82 try
83 { 83 {
84 yield return false; 84 yield return false;
85 } 85 }
86 finally 86 finally
87 { 87 {
88 // Remove the binding. 88 // Remove the binding.
89 _isBound = false; 89 _isBound = false;
90 } 90 }
91 } 91 }
92 } 92 }
93 else 93 else
94 { 94 {
95 foreach (bool l1 in YP.unify(this, arg)) 95 foreach (bool l1 in YP.unify(this, arg))
96 yield return false; 96 yield return false;
97 } 97 }
98 } 98 }
99 99
100 public override string ToString() 100 public override string ToString()
101 { 101 {
102 object value = getValue(); 102 object value = getValue();
103 if (value == this) 103 if (value == this)
104 return "Variable"; 104 return "Variable";
105 else 105 else
106 return getValue().ToString(); 106 return getValue().ToString();
107 } 107 }
108 108
109 /// <summary> 109 /// <summary>
110 /// If bound, call YP.addUniqueVariables on the value. Otherwise, if this unbound 110 /// If bound, call YP.addUniqueVariables on the value. Otherwise, if this unbound
111 /// variable is not already in variableSet, add it. 111 /// variable is not already in variableSet, add it.
112 /// </summary> 112 /// </summary>
113 /// <param name="variableSet"></param> 113 /// <param name="variableSet"></param>
114 public void addUniqueVariables(List<Variable> variableSet) 114 public void addUniqueVariables(List<Variable> variableSet)
115 { 115 {
116 if (_isBound) 116 if (_isBound)
117 YP.addUniqueVariables(getValue(), variableSet); 117 YP.addUniqueVariables(getValue(), variableSet);
118 else 118 else
119 { 119 {
120 if (variableSet.IndexOf(this) < 0) 120 if (variableSet.IndexOf(this) < 0)
121 variableSet.Add(this); 121 variableSet.Add(this);
122 } 122 }
123 } 123 }
124 124
125 /// <summary> 125 /// <summary>
126 /// If bound, return YP.makeCopy for the value, else return copyStore.getCopy(this). 126 /// If bound, return YP.makeCopy for the value, else return copyStore.getCopy(this).
127 /// However, if copyStore is null, just return this. 127 /// However, if copyStore is null, just return this.
128 /// </summary> 128 /// </summary>
129 /// <param name="copyStore"></param> 129 /// <param name="copyStore"></param>
130 /// <returns></returns> 130 /// <returns></returns>
131 public object makeCopy(Variable.CopyStore copyStore) 131 public object makeCopy(Variable.CopyStore copyStore)
132 { 132 {
133 if (_isBound) 133 if (_isBound)
134 return YP.makeCopy(getValue(), copyStore); 134 return YP.makeCopy(getValue(), copyStore);
135 else 135 else
136 return copyStore == null ? this : copyStore.getCopy(this); 136 return copyStore == null ? this : copyStore.getCopy(this);
137 } 137 }
138 138
139 public bool termEqual(object term) 139 public bool termEqual(object term)
140 { 140 {
141 if (_isBound) 141 if (_isBound)
142 return YP.termEqual(getValue(), term); 142 return YP.termEqual(getValue(), term);
143 else 143 else
144 return this == YP.getValue(term); 144 return this == YP.getValue(term);
145 } 145 }
146 146
147 public bool ground() 147 public bool ground()
148 { 148 {
149 if (_isBound) 149 if (_isBound)
150 // This is usually called by YP.ground which already did getValue, so this 150 // This is usually called by YP.ground which already did getValue, so this
151 // should never be reached, but check anyway. 151 // should never be reached, but check anyway.
152 return YP.ground(getValue()); 152 return YP.ground(getValue());
153 else 153 else
154 return false; 154 return false;
155 } 155 }
156 156
157 /// <summary> 157 /// <summary>
158 /// A CopyStore is used by makeCopy to track which Variable objects have 158 /// A CopyStore is used by makeCopy to track which Variable objects have
159 /// been copied. 159 /// been copied.
160 /// </summary> 160 /// </summary>
161 public class CopyStore 161 public class CopyStore
162 { 162 {
163 private List<Variable> _inVariableSet = new List<Variable>(); 163 private List<Variable> _inVariableSet = new List<Variable>();
164 private List<Variable> _outVariableSet = new List<Variable>(); 164 private List<Variable> _outVariableSet = new List<Variable>();
165 165
166 /// <summary> 166 /// <summary>
167 /// If inVariable has already been copied, return its copy. Otherwise, 167 /// If inVariable has already been copied, return its copy. Otherwise,
168 /// return a fresh Variable associated with inVariable. 168 /// return a fresh Variable associated with inVariable.
169 /// </summary> 169 /// </summary>
170 /// <param name="inVariable"></param> 170 /// <param name="inVariable"></param>
171 /// <returns></returns> 171 /// <returns></returns>
172 public Variable getCopy(Variable inVariable) 172 public Variable getCopy(Variable inVariable)
173 { 173 {
174 int index = _inVariableSet.IndexOf(inVariable); 174 int index = _inVariableSet.IndexOf(inVariable);
175 if (index >= 0) 175 if (index >= 0)
176 return _outVariableSet[index]; 176 return _outVariableSet[index];
177 else 177 else
178 { 178 {
179 Variable outVariable = new Variable(); 179 Variable outVariable = new Variable();
180 _inVariableSet.Add(inVariable); 180 _inVariableSet.Add(inVariable);
181 _outVariableSet.Add(outVariable); 181 _outVariableSet.Add(outVariable);
182 return outVariable; 182 return outVariable;
183 } 183 }
184 } 184 }
185 185
186 /// <summary> 186 /// <summary>
187 /// Return the number of unique variables that have been copied. 187 /// Return the number of unique variables that have been copied.
188 /// </summary> 188 /// </summary>
189 /// <returns></returns> 189 /// <returns></returns>
190 public int getNUniqueVariables() 190 public int getNUniqueVariables()
191 { 191 {
192 return _inVariableSet.Count; 192 return _inVariableSet.Count;
193 } 193 }
194 } 194 }
195 } 195 }
196} 196}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YP.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YP.cs
index 3c0e4e0..2912ab9 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YP.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YP.cs
@@ -1,1440 +1,1440 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.Collections; 32using System.Collections;
33using System.Collections.Generic; 33using System.Collections.Generic;
34using System.IO; 34using System.IO;
35using System.Reflection; 35using System.Reflection;
36 36
37namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 37namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
38{ 38{
39 /// <summary> 39 /// <summary>
40 /// YP has static methods for general functions in Yield Prolog such as <see cref="getValue"/> 40 /// YP has static methods for general functions in Yield Prolog such as <see cref="getValue"/>
41 /// and <see cref="unify"/>. 41 /// and <see cref="unify"/>.
42 /// </summary> 42 /// </summary>
43 public class YP 43 public class YP
44 { 44 {
45 private static Fail _fail = new Fail(); 45 private static Fail _fail = new Fail();
46 private static Repeat _repeat = new Repeat(); 46 private static Repeat _repeat = new Repeat();
47 private static Dictionary<NameArity, List<IClause>> _predicatesStore = 47 private static Dictionary<NameArity, List<IClause>> _predicatesStore =
48 new Dictionary<NameArity, List<IClause>>(); 48 new Dictionary<NameArity, List<IClause>>();
49 private static TextWriter _outputStream = System.Console.Out; 49 private static TextWriter _outputStream = System.Console.Out;
50 private static TextReader _inputStream = System.Console.In; 50 private static TextReader _inputStream = System.Console.In;
51 private static List<object[]> _operatorTable = null; 51 private static List<object[]> _operatorTable = null;
52 52
53 /// <summary> 53 /// <summary>
54 /// An IClause is used so that dynamic predicates can call match. 54 /// An IClause is used so that dynamic predicates can call match.
55 /// </summary> 55 /// </summary>
56 public interface IClause 56 public interface IClause
57 { 57 {
58 IEnumerable<bool> match(object[] args); 58 IEnumerable<bool> match(object[] args);
59 } 59 }
60 60
61 public static object getValue(object value) 61 public static object getValue(object value)
62 { 62 {
63 if (value is Variable) 63 if (value is Variable)
64 return ((Variable)value).getValue(); 64 return ((Variable)value).getValue();
65 else 65 else
66 return value; 66 return value;
67 } 67 }
68 68
69 public static IEnumerable<bool> unify(object arg1, object arg2) 69 public static IEnumerable<bool> unify(object arg1, object arg2)
70 { 70 {
71 arg1 = getValue(arg1); 71 arg1 = getValue(arg1);
72 arg2 = getValue(arg2); 72 arg2 = getValue(arg2);
73 if (arg1 is IUnifiable) 73 if (arg1 is IUnifiable)
74 return ((IUnifiable)arg1).unify(arg2); 74 return ((IUnifiable)arg1).unify(arg2);
75 else if (arg2 is IUnifiable) 75 else if (arg2 is IUnifiable)
76 return ((IUnifiable)arg2).unify(arg1); 76 return ((IUnifiable)arg2).unify(arg1);
77 else 77 else
78 { 78 {
79 // Arguments are "normal" types. 79 // Arguments are "normal" types.
80 if (arg1.Equals(arg2)) 80 if (arg1.Equals(arg2))
81 return new Succeed(); 81 return new Succeed();
82 else 82 else
83 return _fail; 83 return _fail;
84 } 84 }
85 } 85 }
86 86
87 /// <summary> 87 /// <summary>
88 /// This is used for the lookup key in _factStore. 88 /// This is used for the lookup key in _factStore.
89 /// </summary> 89 /// </summary>
90 public struct NameArity 90 public struct NameArity
91 { 91 {
92 public readonly Atom _name; 92 public readonly Atom _name;
93 public readonly int _arity; 93 public readonly int _arity;
94 94
95 public NameArity(Atom name, int arity) 95 public NameArity(Atom name, int arity)
96 { 96 {
97 _name = name; 97 _name = name;
98 _arity = arity; 98 _arity = arity;
99 } 99 }
100 100
101 public override bool Equals(object obj) 101 public override bool Equals(object obj)
102 { 102 {
103 if (obj is NameArity) 103 if (obj is NameArity)
104 { 104 {
105 NameArity nameArity = (NameArity)obj; 105 NameArity nameArity = (NameArity)obj;
106 return nameArity._name.Equals(_name) && nameArity._arity.Equals(_arity); 106 return nameArity._name.Equals(_name) && nameArity._arity.Equals(_arity);
107 } 107 }
108 else 108 else
109 { 109 {
110 return false; 110 return false;
111 } 111 }
112 } 112 }
113 113
114 public override int GetHashCode() 114 public override int GetHashCode()
115 { 115 {
116 return _name.GetHashCode() ^ _arity.GetHashCode(); 116 return _name.GetHashCode() ^ _arity.GetHashCode();
117 } 117 }
118 } 118 }
119 119
120 /// <summary> 120 /// <summary>
121 /// Convert term to an int. 121 /// Convert term to an int.
122 /// If term is a single-element List, use its first element 122 /// If term is a single-element List, use its first element
123 /// (to handle the char types like "a"). If can't convert, throw an exception. 123 /// (to handle the char types like "a"). If can't convert, throw an exception.
124 /// </summary> 124 /// </summary>
125 /// <param name="term"></param> 125 /// <param name="term"></param>
126 /// <returns></returns> 126 /// <returns></returns>
127 public static int convertInt(object term) 127 public static int convertInt(object term)
128 { 128 {
129 term = YP.getValue(term); 129 term = YP.getValue(term);
130 if (term is Functor2 && ((Functor2)term)._name == Atom.DOT && 130 if (term is Functor2 && ((Functor2)term)._name == Atom.DOT &&
131 YP.getValue(((Functor2)term)._arg2) == Atom.NIL) 131 YP.getValue(((Functor2)term)._arg2) == Atom.NIL)
132 // Assume it is a char type like "a". 132 // Assume it is a char type like "a".
133 term = YP.getValue(((Functor2)term)._arg1); 133 term = YP.getValue(((Functor2)term)._arg1);
134 134
135 return (int)term; 135 return (int)term;
136 } 136 }
137 137
138 /// <summary> 138 /// <summary>
139 /// Convert term to a double. This may convert an int to a double, etc. 139 /// Convert term to a double. This may convert an int to a double, etc.
140 /// If term is a single-element List, use its first element 140 /// If term is a single-element List, use its first element
141 /// (to handle the char types like "a"). If can't convert, throw an exception. 141 /// (to handle the char types like "a"). If can't convert, throw an exception.
142 /// </summary> 142 /// </summary>
143 /// <param name="term"></param> 143 /// <param name="term"></param>
144 /// <returns></returns> 144 /// <returns></returns>
145 public static double convertDouble(object term) 145 public static double convertDouble(object term)
146 { 146 {
147 term = YP.getValue(term); 147 term = YP.getValue(term);
148 if (term is Functor2 && ((Functor2)term)._name == Atom.DOT && 148 if (term is Functor2 && ((Functor2)term)._name == Atom.DOT &&
149 YP.getValue(((Functor2)term)._arg2) == Atom.NIL) 149 YP.getValue(((Functor2)term)._arg2) == Atom.NIL)
150 // Assume it is a char type like "a". 150 // Assume it is a char type like "a".
151 term = YP.getValue(((Functor2)term)._arg1); 151 term = YP.getValue(((Functor2)term)._arg1);
152 152
153 return Convert.ToDouble(term); 153 return Convert.ToDouble(term);
154 } 154 }
155 155
156 /// <summary> 156 /// <summary>
157 /// If term is an integer, set intTerm. 157 /// If term is an integer, set intTerm.
158 /// If term is a single-element List, use its first element 158 /// If term is a single-element List, use its first element
159 /// (to handle the char types like "a"). Return true for success, false if can't convert. 159 /// (to handle the char types like "a"). Return true for success, false if can't convert.
160 /// We use a success return value because throwing an exception is inefficient. 160 /// We use a success return value because throwing an exception is inefficient.
161 /// </summary> 161 /// </summary>
162 /// <param name="term"></param> 162 /// <param name="term"></param>
163 /// <returns></returns> 163 /// <returns></returns>
164 public static bool getInt(object term, out int intTerm) 164 public static bool getInt(object term, out int intTerm)
165 { 165 {
166 term = YP.getValue(term); 166 term = YP.getValue(term);
167 if (term is Functor2 && ((Functor2)term)._name == Atom.DOT && 167 if (term is Functor2 && ((Functor2)term)._name == Atom.DOT &&
168 YP.getValue(((Functor2)term)._arg2) == Atom.NIL) 168 YP.getValue(((Functor2)term)._arg2) == Atom.NIL)
169 // Assume it is a char type like "a". 169 // Assume it is a char type like "a".
170 term = YP.getValue(((Functor2)term)._arg1); 170 term = YP.getValue(((Functor2)term)._arg1);
171 171
172 if (term is int) 172 if (term is int)
173 { 173 {
174 intTerm = (int)term; 174 intTerm = (int)term;
175 return true; 175 return true;
176 } 176 }
177 177
178 intTerm = 0; 178 intTerm = 0;
179 return false; 179 return false;
180 } 180 }
181 181
182 public static bool equal(object x, object y) 182 public static bool equal(object x, object y)
183 { 183 {
184 x = YP.getValue(x); 184 x = YP.getValue(x);
185 if (x is DateTime) 185 if (x is DateTime)
186 return (DateTime)x == (DateTime)YP.getValue(y); 186 return (DateTime)x == (DateTime)YP.getValue(y);
187 // Assume convertDouble converts an int to a double perfectly. 187 // Assume convertDouble converts an int to a double perfectly.
188 return YP.convertDouble(x) == YP.convertDouble(y); 188 return YP.convertDouble(x) == YP.convertDouble(y);
189 } 189 }
190 190
191 public static bool notEqual(object x, object y) 191 public static bool notEqual(object x, object y)
192 { 192 {
193 x = YP.getValue(x); 193 x = YP.getValue(x);
194 if (x is DateTime) 194 if (x is DateTime)
195 return (DateTime)x != (DateTime)YP.getValue(y); 195 return (DateTime)x != (DateTime)YP.getValue(y);
196 // Assume convertDouble converts an int to a double perfectly. 196 // Assume convertDouble converts an int to a double perfectly.
197 return YP.convertDouble(x) != YP.convertDouble(y); 197 return YP.convertDouble(x) != YP.convertDouble(y);
198 } 198 }
199 199
200 public static bool greaterThan(object x, object y) 200 public static bool greaterThan(object x, object y)
201 { 201 {
202 x = YP.getValue(x); 202 x = YP.getValue(x);
203 if (x is DateTime) 203 if (x is DateTime)
204 return (DateTime)x > (DateTime)YP.getValue(y); 204 return (DateTime)x > (DateTime)YP.getValue(y);
205 // Assume convertDouble converts an int to a double perfectly. 205 // Assume convertDouble converts an int to a double perfectly.
206 return YP.convertDouble(x) > YP.convertDouble(y); 206 return YP.convertDouble(x) > YP.convertDouble(y);
207 } 207 }
208 208
209 public static bool lessThan(object x, object y) 209 public static bool lessThan(object x, object y)
210 { 210 {
211 x = YP.getValue(x); 211 x = YP.getValue(x);
212 if (x is DateTime) 212 if (x is DateTime)
213 return (DateTime)x < (DateTime)YP.getValue(y); 213 return (DateTime)x < (DateTime)YP.getValue(y);
214 // Assume convertDouble converts an int to a double perfectly. 214 // Assume convertDouble converts an int to a double perfectly.
215 return YP.convertDouble(x) < YP.convertDouble(y); 215 return YP.convertDouble(x) < YP.convertDouble(y);
216 } 216 }
217 217
218 public static bool greaterThanOrEqual(object x, object y) 218 public static bool greaterThanOrEqual(object x, object y)
219 { 219 {
220 x = YP.getValue(x); 220 x = YP.getValue(x);
221 if (x is DateTime) 221 if (x is DateTime)
222 return (DateTime)x >= (DateTime)YP.getValue(y); 222 return (DateTime)x >= (DateTime)YP.getValue(y);
223 // Assume convertDouble converts an int to a double perfectly. 223 // Assume convertDouble converts an int to a double perfectly.
224 return YP.convertDouble(x) >= YP.convertDouble(y); 224 return YP.convertDouble(x) >= YP.convertDouble(y);
225 } 225 }
226 226
227 public static bool lessThanOrEqual(object x, object y) 227 public static bool lessThanOrEqual(object x, object y)
228 { 228 {
229 x = YP.getValue(x); 229 x = YP.getValue(x);
230 if (x is DateTime) 230 if (x is DateTime)
231 return (DateTime)x <= (DateTime)YP.getValue(y); 231 return (DateTime)x <= (DateTime)YP.getValue(y);
232 // Assume convertDouble converts an int to a double perfectly. 232 // Assume convertDouble converts an int to a double perfectly.
233 return YP.convertDouble(x) <= YP.convertDouble(y); 233 return YP.convertDouble(x) <= YP.convertDouble(y);
234 } 234 }
235 235
236 public static object negate(object x) 236 public static object negate(object x)
237 { 237 {
238 int intX; 238 int intX;
239 if (getInt(x, out intX)) 239 if (getInt(x, out intX))
240 return -intX; 240 return -intX;
241 return -convertDouble(x); 241 return -convertDouble(x);
242 } 242 }
243 243
244 public static object abs(object x) 244 public static object abs(object x)
245 { 245 {
246 int intX; 246 int intX;
247 if (getInt(x, out intX)) 247 if (getInt(x, out intX))
248 return Math.Abs(intX); 248 return Math.Abs(intX);
249 return Math.Abs(convertDouble(x)); 249 return Math.Abs(convertDouble(x));
250 } 250 }
251 251
252 public static object sign(object x) 252 public static object sign(object x)
253 { 253 {
254 int intX; 254 int intX;
255 if (getInt(x, out intX)) 255 if (getInt(x, out intX))
256 return Math.Sign(intX); 256 return Math.Sign(intX);
257 return Math.Sign(convertDouble(x)); 257 return Math.Sign(convertDouble(x));
258 } 258 }
259 259
260 /// <summary> 260 /// <summary>
261 /// The ISO standard returns an int. 261 /// The ISO standard returns an int.
262 /// </summary> 262 /// </summary>
263 /// <param name="x"></param> 263 /// <param name="x"></param>
264 /// <returns></returns> 264 /// <returns></returns>
265 public static object floor(object x) 265 public static object floor(object x)
266 { 266 {
267 return (int)Math.Floor(convertDouble(x)); 267 return (int)Math.Floor(convertDouble(x));
268 } 268 }
269 269
270 /// <summary> 270 /// <summary>
271 /// The ISO standard returns an int. 271 /// The ISO standard returns an int.
272 /// </summary> 272 /// </summary>
273 /// <param name="x"></param> 273 /// <param name="x"></param>
274 /// <returns></returns> 274 /// <returns></returns>
275 public static object truncate(object x) 275 public static object truncate(object x)
276 { 276 {
277 return (int)Math.Truncate(convertDouble(x)); 277 return (int)Math.Truncate(convertDouble(x));
278 } 278 }
279 279
280 /// <summary> 280 /// <summary>
281 /// The ISO standard returns an int. 281 /// The ISO standard returns an int.
282 /// </summary> 282 /// </summary>
283 /// <param name="x"></param> 283 /// <param name="x"></param>
284 /// <returns></returns> 284 /// <returns></returns>
285 public static object round(object x) 285 public static object round(object x)
286 { 286 {
287 return (int)Math.Round(convertDouble(x)); 287 return (int)Math.Round(convertDouble(x));
288 } 288 }
289 289
290 /// <summary> 290 /// <summary>
291 /// The ISO standard returns an int. 291 /// The ISO standard returns an int.
292 /// </summary> 292 /// </summary>
293 /// <param name="x"></param> 293 /// <param name="x"></param>
294 /// <returns></returns> 294 /// <returns></returns>
295 public static object ceiling(object x) 295 public static object ceiling(object x)
296 { 296 {
297 return (int)Math.Ceiling(convertDouble(x)); 297 return (int)Math.Ceiling(convertDouble(x));
298 } 298 }
299 299
300 public static object sin(object x) 300 public static object sin(object x)
301 { 301 {
302 return Math.Sin(YP.convertDouble(x)); 302 return Math.Sin(YP.convertDouble(x));
303 } 303 }
304 304
305 public static object cos(object x) 305 public static object cos(object x)
306 { 306 {
307 return Math.Cos(YP.convertDouble(x)); 307 return Math.Cos(YP.convertDouble(x));
308 } 308 }
309 309
310 public static object atan(object x) 310 public static object atan(object x)
311 { 311 {
312 return Math.Atan(YP.convertDouble(x)); 312 return Math.Atan(YP.convertDouble(x));
313 } 313 }
314 314
315 public static object exp(object x) 315 public static object exp(object x)
316 { 316 {
317 return Math.Exp(YP.convertDouble(x)); 317 return Math.Exp(YP.convertDouble(x));
318 } 318 }
319 319
320 public static object log(object x) 320 public static object log(object x)
321 { 321 {
322 return Math.Log(YP.convertDouble(x)); 322 return Math.Log(YP.convertDouble(x));
323 } 323 }
324 324
325 public static object sqrt(object x) 325 public static object sqrt(object x)
326 { 326 {
327 return Math.Sqrt(convertDouble(x)); 327 return Math.Sqrt(convertDouble(x));
328 } 328 }
329 329
330 public static object bitwiseComplement(object x) 330 public static object bitwiseComplement(object x)
331 { 331 {
332 return ~YP.convertInt(x); 332 return ~YP.convertInt(x);
333 } 333 }
334 334
335 public static object add(object x, object y) 335 public static object add(object x, object y)
336 { 336 {
337 int intX, intY; 337 int intX, intY;
338 if (getInt(x, out intX) && getInt(y, out intY)) 338 if (getInt(x, out intX) && getInt(y, out intY))
339 return intX + intY; 339 return intX + intY;
340 return convertDouble(x) + convertDouble(y); 340 return convertDouble(x) + convertDouble(y);
341 } 341 }
342 342
343 public static object subtract(object x, object y) 343 public static object subtract(object x, object y)
344 { 344 {
345 int intX, intY; 345 int intX, intY;
346 if (getInt(x, out intX) && getInt(y, out intY)) 346 if (getInt(x, out intX) && getInt(y, out intY))
347 return intX - intY; 347 return intX - intY;
348 return convertDouble(x) - convertDouble(y); 348 return convertDouble(x) - convertDouble(y);
349 } 349 }
350 350
351 public static object multiply(object x, object y) 351 public static object multiply(object x, object y)
352 { 352 {
353 int intX, intY; 353 int intX, intY;
354 if (getInt(x, out intX) && getInt(y, out intY)) 354 if (getInt(x, out intX) && getInt(y, out intY))
355 return intX * intY; 355 return intX * intY;
356 return convertDouble(x) * convertDouble(y); 356 return convertDouble(x) * convertDouble(y);
357 } 357 }
358 358
359 /// <summary> 359 /// <summary>
360 /// Return floating point, even if both arguments are integer. 360 /// Return floating point, even if both arguments are integer.
361 /// </summary> 361 /// </summary>
362 /// <param name="x"></param> 362 /// <param name="x"></param>
363 /// <param name="y"></param> 363 /// <param name="y"></param>
364 /// <returns></returns> 364 /// <returns></returns>
365 public static object divide(object x, object y) 365 public static object divide(object x, object y)
366 { 366 {
367 return convertDouble(x) / convertDouble(y); 367 return convertDouble(x) / convertDouble(y);
368 } 368 }
369 369
370 public static object intDivide(object x, object y) 370 public static object intDivide(object x, object y)
371 { 371 {
372 int intX, intY; 372 int intX, intY;
373 if (getInt(x, out intX) && getInt(y, out intY)) 373 if (getInt(x, out intX) && getInt(y, out intY))
374 return intX / intY; 374 return intX / intY;
375 // Still allow passing a double, but treat as an int. 375 // Still allow passing a double, but treat as an int.
376 return (int)convertDouble(x) / (int)convertDouble(y); 376 return (int)convertDouble(x) / (int)convertDouble(y);
377 } 377 }
378 378
379 public static object mod(object x, object y) 379 public static object mod(object x, object y)
380 { 380 {
381 int intX, intY; 381 int intX, intY;
382 if (getInt(x, out intX) && getInt(y, out intY)) 382 if (getInt(x, out intX) && getInt(y, out intY))
383 return intX % intY; 383 return intX % intY;
384 // Still allow passing a double, but treat as an int. 384 // Still allow passing a double, but treat as an int.
385 return (int)convertDouble(x) % (int)convertDouble(y); 385 return (int)convertDouble(x) % (int)convertDouble(y);
386 } 386 }
387 387
388 public static object pow(object x, object y) 388 public static object pow(object x, object y)
389 { 389 {
390 return Math.Pow(YP.convertDouble(x), YP.convertDouble(y)); 390 return Math.Pow(YP.convertDouble(x), YP.convertDouble(y));
391 } 391 }
392 392
393 public static object bitwiseShiftRight(object x, object y) 393 public static object bitwiseShiftRight(object x, object y)
394 { 394 {
395 return YP.convertInt(x) >> YP.convertInt(y); 395 return YP.convertInt(x) >> YP.convertInt(y);
396 } 396 }
397 397
398 public static object bitwiseShiftLeft(object x, object y) 398 public static object bitwiseShiftLeft(object x, object y)
399 { 399 {
400 return YP.convertInt(x) << YP.convertInt(y); 400 return YP.convertInt(x) << YP.convertInt(y);
401 } 401 }
402 402
403 public static object bitwiseAnd(object x, object y) 403 public static object bitwiseAnd(object x, object y)
404 { 404 {
405 return YP.convertInt(x) & YP.convertInt(y); 405 return YP.convertInt(x) & YP.convertInt(y);
406 } 406 }
407 407
408 public static object bitwiseOr(object x, object y) 408 public static object bitwiseOr(object x, object y)
409 { 409 {
410 return YP.convertInt(x) | YP.convertInt(y); 410 return YP.convertInt(x) | YP.convertInt(y);
411 } 411 }
412 412
413 public static object min(object x, object y) 413 public static object min(object x, object y)
414 { 414 {
415 int intX, intY; 415 int intX, intY;
416 if (getInt(x, out intX) && getInt(y, out intY)) 416 if (getInt(x, out intX) && getInt(y, out intY))
417 return Math.Min(intX, intY); 417 return Math.Min(intX, intY);
418 return Math.Min(convertDouble(x), convertDouble(y)); 418 return Math.Min(convertDouble(x), convertDouble(y));
419 } 419 }
420 420
421 public static object max(object x, object y) 421 public static object max(object x, object y)
422 { 422 {
423 int intX, intY; 423 int intX, intY;
424 if (getInt(x, out intX) && getInt(y, out intY)) 424 if (getInt(x, out intX) && getInt(y, out intY))
425 return Math.Max(intX, intY); 425 return Math.Max(intX, intY);
426 return Math.Max(convertDouble(x), convertDouble(y)); 426 return Math.Max(convertDouble(x), convertDouble(y));
427 } 427 }
428 428
429 public static IEnumerable<bool> copy_term(object inTerm, object outTerm) 429 public static IEnumerable<bool> copy_term(object inTerm, object outTerm)
430 { 430 {
431 return YP.unify(outTerm, YP.makeCopy(inTerm, new Variable.CopyStore())); 431 return YP.unify(outTerm, YP.makeCopy(inTerm, new Variable.CopyStore()));
432 } 432 }
433 433
434 public static void addUniqueVariables(object term, List<Variable> variableSet) 434 public static void addUniqueVariables(object term, List<Variable> variableSet)
435 { 435 {
436 term = YP.getValue(term); 436 term = YP.getValue(term);
437 if (term is IUnifiable) 437 if (term is IUnifiable)
438 ((IUnifiable)term).addUniqueVariables(variableSet); 438 ((IUnifiable)term).addUniqueVariables(variableSet);
439 } 439 }
440 440
441 public static object makeCopy(object term, Variable.CopyStore copyStore) 441 public static object makeCopy(object term, Variable.CopyStore copyStore)
442 { 442 {
443 term = YP.getValue(term); 443 term = YP.getValue(term);
444 if (term is IUnifiable) 444 if (term is IUnifiable)
445 return ((IUnifiable)term).makeCopy(copyStore); 445 return ((IUnifiable)term).makeCopy(copyStore);
446 else 446 else
447 // term is a "normal" type. Assume it is ground. 447 // term is a "normal" type. Assume it is ground.
448 return term; 448 return term;
449 } 449 }
450 450
451 /// <summary> 451 /// <summary>
452 /// Sort the array in place according to termLessThan. This does not remove duplicates 452 /// Sort the array in place according to termLessThan. This does not remove duplicates
453 /// </summary> 453 /// </summary>
454 /// <param name="array"></param> 454 /// <param name="array"></param>
455 public static void sortArray(object[] array) 455 public static void sortArray(object[] array)
456 { 456 {
457 Array.Sort(array, YP.compareTerms); 457 Array.Sort(array, YP.compareTerms);
458 } 458 }
459 459
460 /// <summary> 460 /// <summary>
461 /// Sort the array in place according to termLessThan. This does not remove duplicates 461 /// Sort the array in place according to termLessThan. This does not remove duplicates
462 /// </summary> 462 /// </summary>
463 /// <param name="array"></param> 463 /// <param name="array"></param>
464 public static void sortArray(List<object> array) 464 public static void sortArray(List<object> array)
465 { 465 {
466 array.Sort(YP.compareTerms); 466 array.Sort(YP.compareTerms);
467 } 467 }
468 468
469 /// <summary> 469 /// <summary>
470 /// Sort List according to termLessThan, remove duplicates and unify with Sorted. 470 /// Sort List according to termLessThan, remove duplicates and unify with Sorted.
471 /// </summary> 471 /// </summary>
472 /// <param name="List"></param> 472 /// <param name="List"></param>
473 /// <param name="Sorted"></param> 473 /// <param name="Sorted"></param>
474 /// <returns></returns> 474 /// <returns></returns>
475 public static IEnumerable<bool> sort(object List, object Sorted) 475 public static IEnumerable<bool> sort(object List, object Sorted)
476 { 476 {
477 object[] array = ListPair.toArray(List); 477 object[] array = ListPair.toArray(List);
478 if (array == null) 478 if (array == null)
479 return YP.fail(); 479 return YP.fail();
480 if (array.Length > 1) 480 if (array.Length > 1)
481 sortArray(array); 481 sortArray(array);
482 return YP.unify(Sorted, ListPair.makeWithoutRepeatedTerms(array)); 482 return YP.unify(Sorted, ListPair.makeWithoutRepeatedTerms(array));
483 } 483 }
484 484
485 485
486 486
487 /// <summary> 487 /// <summary>
488 /// Use YP.unify to unify each of the elements of the two arrays, and yield 488 /// Use YP.unify to unify each of the elements of the two arrays, and yield
489 /// once if they all unify. 489 /// once if they all unify.
490 /// </summary> 490 /// </summary>
491 /// <param name="array1"></param> 491 /// <param name="array1"></param>
492 /// <param name="array2"></param> 492 /// <param name="array2"></param>
493 /// <returns></returns> 493 /// <returns></returns>
494 public static IEnumerable<bool> unifyArrays(object[] array1, object[] array2) 494 public static IEnumerable<bool> unifyArrays(object[] array1, object[] array2)
495 { 495 {
496 if (array1.Length != array2.Length) 496 if (array1.Length != array2.Length)
497 yield break; 497 yield break;
498 498
499 IEnumerator<bool>[] iterators = new IEnumerator<bool>[array1.Length]; 499 IEnumerator<bool>[] iterators = new IEnumerator<bool>[array1.Length];
500 bool gotMatch = true; 500 bool gotMatch = true;
501 int nIterators = 0; 501 int nIterators = 0;
502 // Try to bind all the arguments. 502 // Try to bind all the arguments.
503 for (int i = 0; i < array1.Length; ++i) 503 for (int i = 0; i < array1.Length; ++i)
504 { 504 {
505 IEnumerator<bool> iterator = YP.unify(array1[i], array2[i]).GetEnumerator(); 505 IEnumerator<bool> iterator = YP.unify(array1[i], array2[i]).GetEnumerator();
506 iterators[nIterators++] = iterator; 506 iterators[nIterators++] = iterator;
507 // MoveNext() is true if YP.unify succeeds. 507 // MoveNext() is true if YP.unify succeeds.
508 if (!iterator.MoveNext()) 508 if (!iterator.MoveNext())
509 { 509 {
510 gotMatch = false; 510 gotMatch = false;
511 break; 511 break;
512 } 512 }
513 } 513 }
514 514
515 try 515 try
516 { 516 {
517 if (gotMatch) 517 if (gotMatch)
518 yield return false; 518 yield return false;
519 } 519 }
520 finally 520 finally
521 { 521 {
522 // Manually finalize all the iterators. 522 // Manually finalize all the iterators.
523 for (int i = 0; i < nIterators; ++i) 523 for (int i = 0; i < nIterators; ++i)
524 iterators[i].Dispose(); 524 iterators[i].Dispose();
525 } 525 }
526 } 526 }
527 527
528 /// <summary> 528 /// <summary>
529 /// Return an iterator (which you can use in a for-in loop) which does 529 /// Return an iterator (which you can use in a for-in loop) which does
530 /// zero iterations. This returns a pre-existing iterator which is 530 /// zero iterations. This returns a pre-existing iterator which is
531 /// more efficient than letting the compiler generate a new one. 531 /// more efficient than letting the compiler generate a new one.
532 /// </summary> 532 /// </summary>
533 /// <returns></returns> 533 /// <returns></returns>
534 public static IEnumerable<bool> fail() 534 public static IEnumerable<bool> fail()
535 { 535 {
536 return _fail; 536 return _fail;
537 } 537 }
538 538
539 /// <summary> 539 /// <summary>
540 /// Return an iterator (which you can use in a for-in loop) which does 540 /// Return an iterator (which you can use in a for-in loop) which does
541 /// one iteration. This returns a pre-existing iterator which is 541 /// one iteration. This returns a pre-existing iterator which is
542 /// more efficient than letting the compiler generate a new one. 542 /// more efficient than letting the compiler generate a new one.
543 /// </summary> 543 /// </summary>
544 /// <returns></returns> 544 /// <returns></returns>
545 public static IEnumerable<bool> succeed() 545 public static IEnumerable<bool> succeed()
546 { 546 {
547 return new Succeed(); 547 return new Succeed();
548 } 548 }
549 549
550 /// <summary> 550 /// <summary>
551 /// Return an iterator (which you can use in a for-in loop) which repeats 551 /// Return an iterator (which you can use in a for-in loop) which repeats
552 /// indefinitely. This returns a pre-existing iterator which is 552 /// indefinitely. This returns a pre-existing iterator which is
553 /// more efficient than letting the compiler generate a new one. 553 /// more efficient than letting the compiler generate a new one.
554 /// </summary> 554 /// </summary>
555 /// <returns></returns> 555 /// <returns></returns>
556 public static IEnumerable<bool> repeat() 556 public static IEnumerable<bool> repeat()
557 { 557 {
558 return _repeat; 558 return _repeat;
559 } 559 }
560 560
561 public static IEnumerable<bool> univ(object Term, object List) 561 public static IEnumerable<bool> univ(object Term, object List)
562 { 562 {
563 Term = YP.getValue(Term); 563 Term = YP.getValue(Term);
564 List = YP.getValue(List); 564 List = YP.getValue(List);
565 565
566 if (nonvar(Term)) 566 if (nonvar(Term))
567 return YP.unify(new ListPair 567 return YP.unify(new ListPair
568 (getFunctorName(Term), ListPair.make(getFunctorArgs(Term))), List); 568 (getFunctorName(Term), ListPair.make(getFunctorArgs(Term))), List);
569 569
570 Variable Name = new Variable(); 570 Variable Name = new Variable();
571 Variable ArgList = new Variable(); 571 Variable ArgList = new Variable();
572 foreach (bool l1 in new ListPair(Name, ArgList).unify(List)) 572 foreach (bool l1 in new ListPair(Name, ArgList).unify(List))
573 { 573 {
574 object[] args = ListPair.toArray(ArgList); 574 object[] args = ListPair.toArray(ArgList);
575 if (args == null) 575 if (args == null)
576 throw new Exception("Expected a list. Got: " + ArgList.getValue()); 576 throw new Exception("Expected a list. Got: " + ArgList.getValue());
577 if (args.Length == 0) 577 if (args.Length == 0)
578 // Return the Name, even if it is not an Atom. 578 // Return the Name, even if it is not an Atom.
579 return YP.unify(Term, Name); 579 return YP.unify(Term, Name);
580 if (!atom(Name)) 580 if (!atom(Name))
581 throw new Exception("Expected an atom. Got: " + Name.getValue()); 581 throw new Exception("Expected an atom. Got: " + Name.getValue());
582 582
583 return YP.unify(Term, Functor.make((Atom)YP.getValue(Name), args)); 583 return YP.unify(Term, Functor.make((Atom)YP.getValue(Name), args));
584 } 584 }
585 585
586 return YP.fail(); 586 return YP.fail();
587 } 587 }
588 588
589 public static IEnumerable<bool> functor(object Term, object FunctorName, object Arity) 589 public static IEnumerable<bool> functor(object Term, object FunctorName, object Arity)
590 { 590 {
591 Term = YP.getValue(Term); 591 Term = YP.getValue(Term);
592 FunctorName = YP.getValue(FunctorName); 592 FunctorName = YP.getValue(FunctorName);
593 Arity = YP.getValue(Arity); 593 Arity = YP.getValue(Arity);
594 594
595 if (!(Term is Variable)) 595 if (!(Term is Variable))
596 { 596 {
597 foreach (bool l1 in YP.unify(FunctorName, getFunctorName(Term))) 597 foreach (bool l1 in YP.unify(FunctorName, getFunctorName(Term)))
598 { 598 {
599 foreach (bool l2 in YP.unify(Arity, getFunctorArgs(Term).Length)) 599 foreach (bool l2 in YP.unify(Arity, getFunctorArgs(Term).Length))
600 yield return false; 600 yield return false;
601 } 601 }
602 } 602 }
603 else 603 else
604 throw new NotImplementedException("Debug: must finish functor/3"); 604 throw new NotImplementedException("Debug: must finish functor/3");
605 } 605 }
606 606
607 public static IEnumerable<bool> arg(object ArgNumber, object Term, object Value) 607 public static IEnumerable<bool> arg(object ArgNumber, object Term, object Value)
608 { 608 {
609 if (YP.var(ArgNumber)) 609 if (YP.var(ArgNumber))
610 throw new NotImplementedException("Debug: must finish arg/3"); 610 throw new NotImplementedException("Debug: must finish arg/3");
611 else 611 else
612 { 612 {
613 int argNumberInt = convertInt(ArgNumber); 613 int argNumberInt = convertInt(ArgNumber);
614 if (argNumberInt < 0) 614 if (argNumberInt < 0)
615 throw new Exception("ArgNumber must be non-negative"); 615 throw new Exception("ArgNumber must be non-negative");
616 object[] termArgs = YP.getFunctorArgs(Term); 616 object[] termArgs = YP.getFunctorArgs(Term);
617 // Silently fail if argNumberInt is out of range. 617 // Silently fail if argNumberInt is out of range.
618 if (argNumberInt >= 1 && argNumberInt <= termArgs.Length) 618 if (argNumberInt >= 1 && argNumberInt <= termArgs.Length)
619 { 619 {
620 // The first ArgNumber is at 1, not 0. 620 // The first ArgNumber is at 1, not 0.
621 foreach (bool l1 in YP.unify(Value, termArgs[argNumberInt - 1])) 621 foreach (bool l1 in YP.unify(Value, termArgs[argNumberInt - 1]))
622 yield return false; 622 yield return false;
623 } 623 }
624 } 624 }
625 } 625 }
626 626
627 public static bool termEqual(object Term1, object Term2) 627 public static bool termEqual(object Term1, object Term2)
628 { 628 {
629 Term1 = YP.getValue(Term1); 629 Term1 = YP.getValue(Term1);
630 if (Term1 is IUnifiable) 630 if (Term1 is IUnifiable)
631 return ((IUnifiable)Term1).termEqual(Term2); 631 return ((IUnifiable)Term1).termEqual(Term2);
632 return Term1.Equals(YP.getValue(Term2)); 632 return Term1.Equals(YP.getValue(Term2));
633 } 633 }
634 634
635 public static bool termNotEqual(object Term1, object Term2) 635 public static bool termNotEqual(object Term1, object Term2)
636 { 636 {
637 return !termEqual(Term1, Term2); 637 return !termEqual(Term1, Term2);
638 } 638 }
639 639
640 public static bool termLessThan(object Term1, object Term2) 640 public static bool termLessThan(object Term1, object Term2)
641 { 641 {
642 Term1 = YP.getValue(Term1); 642 Term1 = YP.getValue(Term1);
643 Term2 = YP.getValue(Term2); 643 Term2 = YP.getValue(Term2);
644 int term1TypeCode = getTypeCode(Term1); 644 int term1TypeCode = getTypeCode(Term1);
645 int term2TypeCode = getTypeCode(Term2); 645 int term2TypeCode = getTypeCode(Term2);
646 if (term1TypeCode != term2TypeCode) 646 if (term1TypeCode != term2TypeCode)
647 return term1TypeCode < term2TypeCode; 647 return term1TypeCode < term2TypeCode;
648 648
649 // The terms are the same type code. 649 // The terms are the same type code.
650 if (term1TypeCode == -2) 650 if (term1TypeCode == -2)
651 { 651 {
652 // Variable. 652 // Variable.
653 // We always check for equality first because we want to be sure 653 // We always check for equality first because we want to be sure
654 // that less than returns false if the terms are equal, in 654 // that less than returns false if the terms are equal, in
655 // case that the less than check really behaves like less than or equal. 655 // case that the less than check really behaves like less than or equal.
656 if ((Variable)Term1 != (Variable)Term2) 656 if ((Variable)Term1 != (Variable)Term2)
657 // The hash code should be unique to a Variable object. 657 // The hash code should be unique to a Variable object.
658 return Term1.GetHashCode() < Term2.GetHashCode(); 658 return Term1.GetHashCode() < Term2.GetHashCode();
659 return false; 659 return false;
660 } 660 }
661 if (term1TypeCode == 0) 661 if (term1TypeCode == 0)
662 return ((Atom)Term1)._name.CompareTo(((Atom)Term2)._name) < 0; 662 return ((Atom)Term1)._name.CompareTo(((Atom)Term2)._name) < 0;
663 if (term1TypeCode == 1) 663 if (term1TypeCode == 1)
664 return ((Functor1)Term1).lessThan((Functor1)Term2); 664 return ((Functor1)Term1).lessThan((Functor1)Term2);
665 if (term1TypeCode == 2) 665 if (term1TypeCode == 2)
666 return ((Functor2)Term1).lessThan((Functor2)Term2); 666 return ((Functor2)Term1).lessThan((Functor2)Term2);
667 if (term1TypeCode == 3) 667 if (term1TypeCode == 3)
668 return ((Functor3)Term1).lessThan((Functor3)Term2); 668 return ((Functor3)Term1).lessThan((Functor3)Term2);
669 if (term1TypeCode == 4) 669 if (term1TypeCode == 4)
670 return ((Functor)Term1).lessThan((Functor)Term2); 670 return ((Functor)Term1).lessThan((Functor)Term2);
671 671
672 // Type code is -1 for general objects. First compare their type names. 672 // Type code is -1 for general objects. First compare their type names.
673 // Note that this puts Double before Int32 as required by ISO Prolog. 673 // Note that this puts Double before Int32 as required by ISO Prolog.
674 string term1TypeName = Term1.GetType().ToString(); 674 string term1TypeName = Term1.GetType().ToString();
675 string term2TypeName = Term2.GetType().ToString(); 675 string term2TypeName = Term2.GetType().ToString();
676 if (term1TypeName != term2TypeName) 676 if (term1TypeName != term2TypeName)
677 return term1TypeName.CompareTo(term2TypeName) < 0; 677 return term1TypeName.CompareTo(term2TypeName) < 0;
678 678
679 // The terms are the same type name. 679 // The terms are the same type name.
680 if (Term1 is int) 680 if (Term1 is int)
681 return (int)Term1 < (int)Term2; 681 return (int)Term1 < (int)Term2;
682 else if (Term1 is double) 682 else if (Term1 is double)
683 return (double)Term1 < (double)Term2; 683 return (double)Term1 < (double)Term2;
684 else if (Term1 is DateTime) 684 else if (Term1 is DateTime)
685 return (DateTime)Term1 < (DateTime)Term2; 685 return (DateTime)Term1 < (DateTime)Term2;
686 else if (Term1 is String) 686 else if (Term1 is String)
687 return ((String)Term1).CompareTo((String)Term2) < 0; 687 return ((String)Term1).CompareTo((String)Term2) < 0;
688 // Debug: Should we try arrays, etc.? 688 // Debug: Should we try arrays, etc.?
689 689
690 if (!Term1.Equals(Term2)) 690 if (!Term1.Equals(Term2))
691 // Could be equal or greater than. 691 // Could be equal or greater than.
692 return Term1.GetHashCode() < Term2.GetHashCode(); 692 return Term1.GetHashCode() < Term2.GetHashCode();
693 return false; 693 return false;
694 } 694 }
695 695
696 /// <summary> 696 /// <summary>
697 /// Type code is -2 if term is a Variable, 0 if it is an Atom, 697 /// Type code is -2 if term is a Variable, 0 if it is an Atom,
698 /// 1 if it is a Functor1, 2 if it is a Functor2, 3 if it is a Functor3, 698 /// 1 if it is a Functor1, 2 if it is a Functor2, 3 if it is a Functor3,
699 /// 4 if it is Functor. 699 /// 4 if it is Functor.
700 /// Otherwise, type code is -1. 700 /// Otherwise, type code is -1.
701 /// This does not call YP.getValue(term). 701 /// This does not call YP.getValue(term).
702 /// </summary> 702 /// </summary>
703 /// <param name="term"></param> 703 /// <param name="term"></param>
704 /// <returns></returns> 704 /// <returns></returns>
705 private static int getTypeCode(object term) 705 private static int getTypeCode(object term)
706 { 706 {
707 if (term is Variable) 707 if (term is Variable)
708 return -2; 708 return -2;
709 else if (term is Atom) 709 else if (term is Atom)
710 return 0; 710 return 0;
711 else if (term is Functor1) 711 else if (term is Functor1)
712 return 1; 712 return 1;
713 else if (term is Functor2) 713 else if (term is Functor2)
714 return 2; 714 return 2;
715 else if (term is Functor3) 715 else if (term is Functor3)
716 return 3; 716 return 3;
717 else if (term is Functor) 717 else if (term is Functor)
718 return 4; 718 return 4;
719 else 719 else
720 return -1; 720 return -1;
721 } 721 }
722 722
723 public static bool termLessThanOrEqual(object Term1, object Term2) 723 public static bool termLessThanOrEqual(object Term1, object Term2)
724 { 724 {
725 if (YP.termEqual(Term1, Term2)) 725 if (YP.termEqual(Term1, Term2))
726 return true; 726 return true;
727 return YP.termLessThan(Term1, Term2); 727 return YP.termLessThan(Term1, Term2);
728 } 728 }
729 729
730 public static bool termGreaterThan(object Term1, object Term2) 730 public static bool termGreaterThan(object Term1, object Term2)
731 { 731 {
732 return !YP.termLessThanOrEqual(Term1, Term2); 732 return !YP.termLessThanOrEqual(Term1, Term2);
733 } 733 }
734 734
735 public static bool termGreaterThanOrEqual(object Term1, object Term2) 735 public static bool termGreaterThanOrEqual(object Term1, object Term2)
736 { 736 {
737 // termLessThan should ensure that it returns false if terms are equal, 737 // termLessThan should ensure that it returns false if terms are equal,
738 // so that this would return true. 738 // so that this would return true.
739 return !YP.termLessThan(Term1, Term2); 739 return !YP.termLessThan(Term1, Term2);
740 } 740 }
741 741
742 public static int compareTerms(object Term1, object Term2) 742 public static int compareTerms(object Term1, object Term2)
743 { 743 {
744 if (YP.termEqual(Term1, Term2)) 744 if (YP.termEqual(Term1, Term2))
745 return 0; 745 return 0;
746 else if (YP.termLessThan(Term1, Term2)) 746 else if (YP.termLessThan(Term1, Term2))
747 return -1; 747 return -1;
748 else 748 else
749 return 1; 749 return 1;
750 } 750 }
751 751
752 public static bool ground(object Term) 752 public static bool ground(object Term)
753 { 753 {
754 Term = YP.getValue(Term); 754 Term = YP.getValue(Term);
755 if (Term is IUnifiable) 755 if (Term is IUnifiable)
756 return ((IUnifiable)Term).ground(); 756 return ((IUnifiable)Term).ground();
757 return true; 757 return true;
758 } 758 }
759 759
760 public static IEnumerable<bool> current_op 760 public static IEnumerable<bool> current_op
761 (object Priority, object Specifier, object Operator) 761 (object Priority, object Specifier, object Operator)
762 { 762 {
763 if (_operatorTable == null) 763 if (_operatorTable == null)
764 { 764 {
765 // Initialize. 765 // Initialize.
766 _operatorTable = new List<object[]>(); 766 _operatorTable = new List<object[]>();
767 _operatorTable.Add(new object[] { 1200, Atom.a("xfx"), Atom.a(":-") }); 767 _operatorTable.Add(new object[] { 1200, Atom.a("xfx"), Atom.a(":-") });
768 _operatorTable.Add(new object[] { 1200, Atom.a("xfx"), Atom.a("-->") }); 768 _operatorTable.Add(new object[] { 1200, Atom.a("xfx"), Atom.a("-->") });
769 _operatorTable.Add(new object[] { 1200, Atom.a("fx"), Atom.a(":-") }); 769 _operatorTable.Add(new object[] { 1200, Atom.a("fx"), Atom.a(":-") });
770 _operatorTable.Add(new object[] { 1200, Atom.a("fx"), Atom.a("?-") }); 770 _operatorTable.Add(new object[] { 1200, Atom.a("fx"), Atom.a("?-") });
771 _operatorTable.Add(new object[] { 1100, Atom.a("xfy"), Atom.a(";") }); 771 _operatorTable.Add(new object[] { 1100, Atom.a("xfy"), Atom.a(";") });
772 _operatorTable.Add(new object[] { 1050, Atom.a("xfy"), Atom.a("->") }); 772 _operatorTable.Add(new object[] { 1050, Atom.a("xfy"), Atom.a("->") });
773 _operatorTable.Add(new object[] { 1000, Atom.a("xfy"), Atom.a(",") }); 773 _operatorTable.Add(new object[] { 1000, Atom.a("xfy"), Atom.a(",") });
774 _operatorTable.Add(new object[] { 900, Atom.a("fy"), Atom.a("\\+") }); 774 _operatorTable.Add(new object[] { 900, Atom.a("fy"), Atom.a("\\+") });
775 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=") }); 775 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=") });
776 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("\\=") }); 776 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("\\=") });
777 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("==") }); 777 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("==") });
778 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("\\==") }); 778 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("\\==") });
779 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("@<") }); 779 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("@<") });
780 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("@=<") }); 780 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("@=<") });
781 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("@>") }); 781 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("@>") });
782 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("@>=") }); 782 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("@>=") });
783 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=..") }); 783 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=..") });
784 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("is") }); 784 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("is") });
785 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=:=") }); 785 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=:=") });
786 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=\\=") }); 786 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=\\=") });
787 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("<") }); 787 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("<") });
788 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=<") }); 788 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a("=<") });
789 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a(">") }); 789 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a(">") });
790 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a(">=") }); 790 _operatorTable.Add(new object[] { 700, Atom.a("xfx"), Atom.a(">=") });
791 _operatorTable.Add(new object[] { 600, Atom.a("xfy"), Atom.a(":") }); 791 _operatorTable.Add(new object[] { 600, Atom.a("xfy"), Atom.a(":") });
792 _operatorTable.Add(new object[] { 500, Atom.a("yfx"), Atom.a("+") }); 792 _operatorTable.Add(new object[] { 500, Atom.a("yfx"), Atom.a("+") });
793 _operatorTable.Add(new object[] { 500, Atom.a("yfx"), Atom.a("-") }); 793 _operatorTable.Add(new object[] { 500, Atom.a("yfx"), Atom.a("-") });
794 _operatorTable.Add(new object[] { 500, Atom.a("yfx"), Atom.a("/\\") }); 794 _operatorTable.Add(new object[] { 500, Atom.a("yfx"), Atom.a("/\\") });
795 _operatorTable.Add(new object[] { 500, Atom.a("yfx"), Atom.a("\\/") }); 795 _operatorTable.Add(new object[] { 500, Atom.a("yfx"), Atom.a("\\/") });
796 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("*") }); 796 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("*") });
797 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("/") }); 797 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("/") });
798 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("//") }); 798 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("//") });
799 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("rem") }); 799 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("rem") });
800 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("mod") }); 800 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("mod") });
801 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("<<") }); 801 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a("<<") });
802 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a(">>") }); 802 _operatorTable.Add(new object[] { 400, Atom.a("yfx"), Atom.a(">>") });
803 _operatorTable.Add(new object[] { 200, Atom.a("xfx"), Atom.a("**") }); 803 _operatorTable.Add(new object[] { 200, Atom.a("xfx"), Atom.a("**") });
804 _operatorTable.Add(new object[] { 200, Atom.a("xfy"), Atom.a("^") }); 804 _operatorTable.Add(new object[] { 200, Atom.a("xfy"), Atom.a("^") });
805 _operatorTable.Add(new object[] { 200, Atom.a("fy"), Atom.a("-") }); 805 _operatorTable.Add(new object[] { 200, Atom.a("fy"), Atom.a("-") });
806 _operatorTable.Add(new object[] { 200, Atom.a("fy"), Atom.a("\\") }); 806 _operatorTable.Add(new object[] { 200, Atom.a("fy"), Atom.a("\\") });
807 // Debug: This is hacked in to run the Prolog test suite until we implement op/3. 807 // Debug: This is hacked in to run the Prolog test suite until we implement op/3.
808 _operatorTable.Add(new object[] { 20, Atom.a("xfx"), Atom.a("<--") }); 808 _operatorTable.Add(new object[] { 20, Atom.a("xfx"), Atom.a("<--") });
809 } 809 }
810 810
811 object[] args = new object[] { Priority, Specifier, Operator }; 811 object[] args = new object[] { Priority, Specifier, Operator };
812 foreach (object[] answer in _operatorTable) 812 foreach (object[] answer in _operatorTable)
813 { 813 {
814 foreach (bool l1 in YP.unifyArrays(args, answer)) 814 foreach (bool l1 in YP.unifyArrays(args, answer))
815 yield return false; 815 yield return false;
816 } 816 }
817 } 817 }
818 818
819 public static IEnumerable<bool> atom_length(object atom, object Length) 819 public static IEnumerable<bool> atom_length(object atom, object Length)
820 { 820 {
821 return YP.unify(Length, ((Atom)YP.getValue(atom))._name.Length); 821 return YP.unify(Length, ((Atom)YP.getValue(atom))._name.Length);
822 } 822 }
823 823
824 public static IEnumerable<bool> atom_concat(object Start, object End, object Whole) 824 public static IEnumerable<bool> atom_concat(object Start, object End, object Whole)
825 { 825 {
826 // Debug: Should implement for var(Start) which is a kind of search. 826 // Debug: Should implement for var(Start) which is a kind of search.
827 // Debug: Should we try to preserve the _declaringClass? 827 // Debug: Should we try to preserve the _declaringClass?
828 return YP.unify(Whole, Atom.a(((Atom)YP.getValue(Start))._name + 828 return YP.unify(Whole, Atom.a(((Atom)YP.getValue(Start))._name +
829 ((Atom)YP.getValue(End))._name)); 829 ((Atom)YP.getValue(End))._name));
830 } 830 }
831 831
832 public static IEnumerable<bool> sub_atom 832 public static IEnumerable<bool> sub_atom
833 (object atom, object Before, object Length, object After, object Sub_atom) 833 (object atom, object Before, object Length, object After, object Sub_atom)
834 { 834 {
835 // Debug: Should implement for var(atom) which is a kind of search. 835 // Debug: Should implement for var(atom) which is a kind of search.
836 // Debug: Should we try to preserve the _declaringClass? 836 // Debug: Should we try to preserve the _declaringClass?
837 Atom atomAtom = (Atom)YP.getValue(atom); 837 Atom atomAtom = (Atom)YP.getValue(atom);
838 int beforeInt = YP.convertInt(Before); 838 int beforeInt = YP.convertInt(Before);
839 int lengthInt = YP.convertInt(Length); 839 int lengthInt = YP.convertInt(Length);
840 if (beforeInt < 0) 840 if (beforeInt < 0)
841 throw new Exception("Before must be non-negative"); 841 throw new Exception("Before must be non-negative");
842 if (lengthInt < 0) 842 if (lengthInt < 0)
843 throw new Exception("Length must be non-negative"); 843 throw new Exception("Length must be non-negative");
844 int afterInt = atomAtom._name.Length - (beforeInt + lengthInt); 844 int afterInt = atomAtom._name.Length - (beforeInt + lengthInt);
845 if (afterInt >= 0) 845 if (afterInt >= 0)
846 { 846 {
847 foreach (bool l1 in YP.unify(After, afterInt)) 847 foreach (bool l1 in YP.unify(After, afterInt))
848 { 848 {
849 foreach (bool l2 in YP.unify 849 foreach (bool l2 in YP.unify
850 (Sub_atom, Atom.a(atomAtom._name.Substring(beforeInt, lengthInt)))) 850 (Sub_atom, Atom.a(atomAtom._name.Substring(beforeInt, lengthInt))))
851 yield return false; 851 yield return false;
852 } 852 }
853 } 853 }
854 } 854 }
855 855
856 public static IEnumerable<bool> atom_codes(object atom, object List) 856 public static IEnumerable<bool> atom_codes(object atom, object List)
857 { 857 {
858 atom = YP.getValue(atom); 858 atom = YP.getValue(atom);
859 List = YP.getValue(List); 859 List = YP.getValue(List);
860 860
861 if (nonvar(atom)) 861 if (nonvar(atom))
862 { 862 {
863 string name = ((Atom)atom)._name; 863 string name = ((Atom)atom)._name;
864 object codeList = Atom.NIL; 864 object codeList = Atom.NIL;
865 // Start from the back to make the list. 865 // Start from the back to make the list.
866 for (int i = name.Length - 1; i >= 0; --i) 866 for (int i = name.Length - 1; i >= 0; --i)
867 codeList = new ListPair((int)name[i], codeList); 867 codeList = new ListPair((int)name[i], codeList);
868 return YP.unify(List, codeList); 868 return YP.unify(List, codeList);
869 } 869 }
870 { 870 {
871 object[] codeArray = ListPair.toArray(List); 871 object[] codeArray = ListPair.toArray(List);
872 char[] charArray = new char[codeArray.Length]; 872 char[] charArray = new char[codeArray.Length];
873 for (int i = 0; i < codeArray.Length; ++i) 873 for (int i = 0; i < codeArray.Length; ++i)
874 charArray[i] = (char)YP.convertInt(codeArray[i]); 874 charArray[i] = (char)YP.convertInt(codeArray[i]);
875 return YP.unify(atom, Atom.a(new String(charArray))); 875 return YP.unify(atom, Atom.a(new String(charArray)));
876 } 876 }
877 } 877 }
878 878
879 public static IEnumerable<bool> number_codes(object number, object List) 879 public static IEnumerable<bool> number_codes(object number, object List)
880 { 880 {
881 number = YP.getValue(number); 881 number = YP.getValue(number);
882 List = YP.getValue(List); 882 List = YP.getValue(List);
883 883
884 if (nonvar(number)) 884 if (nonvar(number))
885 { 885 {
886 string numberString = null; 886 string numberString = null;
887 // Try converting to an int first. 887 // Try converting to an int first.
888 int intNumber; 888 int intNumber;
889 if (YP.getInt(number, out intNumber)) 889 if (YP.getInt(number, out intNumber))
890 numberString = intNumber.ToString(); 890 numberString = intNumber.ToString();
891 else 891 else
892 numberString = YP.doubleToString(YP.convertDouble(number)); 892 numberString = YP.doubleToString(YP.convertDouble(number));
893 893
894 object codeList = Atom.NIL; 894 object codeList = Atom.NIL;
895 // Start from the back to make the list. 895 // Start from the back to make the list.
896 for (int i = numberString.Length - 1; i >= 0; --i) 896 for (int i = numberString.Length - 1; i >= 0; --i)
897 codeList = new ListPair((int)numberString[i], codeList); 897 codeList = new ListPair((int)numberString[i], codeList);
898 return YP.unify(List, codeList); 898 return YP.unify(List, codeList);
899 } 899 }
900 { 900 {
901 object[] codeArray = ListPair.toArray(List); 901 object[] codeArray = ListPair.toArray(List);
902 char[] charArray = new char[codeArray.Length]; 902 char[] charArray = new char[codeArray.Length];
903 for (int i = 0; i < codeArray.Length; ++i) 903 for (int i = 0; i < codeArray.Length; ++i)
904 charArray[i] = (char)YP.convertInt(codeArray[i]); 904 charArray[i] = (char)YP.convertInt(codeArray[i]);
905 String numberString = new String(charArray); 905 String numberString = new String(charArray);
906 // Debug: Is there a way in C# to ask if a string parses as int without throwing an exception? 906 // Debug: Is there a way in C# to ask if a string parses as int without throwing an exception?
907 try 907 try
908 { 908 {
909 // Try an int first. 909 // Try an int first.
910 return YP.unify(number, Convert.ToInt32(numberString)); 910 return YP.unify(number, Convert.ToInt32(numberString));
911 } 911 }
912 catch (FormatException) { } 912 catch (FormatException) { }
913 return YP.unify(number, Convert.ToDouble(numberString)); 913 return YP.unify(number, Convert.ToDouble(numberString));
914 } 914 }
915 } 915 }
916 916
917 /// <summary> 917 /// <summary>
918 /// If term is an Atom or functor type, return its name. 918 /// If term is an Atom or functor type, return its name.
919 /// Otherwise, return term. 919 /// Otherwise, return term.
920 /// </summary> 920 /// </summary>
921 /// <param name="term"></param> 921 /// <param name="term"></param>
922 /// <returns></returns> 922 /// <returns></returns>
923 public static object getFunctorName(object term) 923 public static object getFunctorName(object term)
924 { 924 {
925 term = YP.getValue(term); 925 term = YP.getValue(term);
926 if (term is Functor1) 926 if (term is Functor1)
927 return ((Functor1)term)._name; 927 return ((Functor1)term)._name;
928 else if (term is Functor2) 928 else if (term is Functor2)
929 return ((Functor2)term)._name; 929 return ((Functor2)term)._name;
930 else if (term is Functor3) 930 else if (term is Functor3)
931 return ((Functor3)term)._name; 931 return ((Functor3)term)._name;
932 else if (term is Functor) 932 else if (term is Functor)
933 return ((Functor)term)._name; 933 return ((Functor)term)._name;
934 else 934 else
935 return term; 935 return term;
936 } 936 }
937 937
938 /// <summary> 938 /// <summary>
939 /// If term is an Atom or functor type, return an array of its args. 939 /// If term is an Atom or functor type, return an array of its args.
940 /// Otherwise, return an empty array. 940 /// Otherwise, return an empty array.
941 /// </summary> 941 /// </summary>
942 /// <param name="term"></param> 942 /// <param name="term"></param>
943 /// <returns></returns> 943 /// <returns></returns>
944 public static object[] getFunctorArgs(object term) 944 public static object[] getFunctorArgs(object term)
945 { 945 {
946 term = YP.getValue(term); 946 term = YP.getValue(term);
947 if (term is Functor1) 947 if (term is Functor1)
948 { 948 {
949 Functor1 functor = (Functor1)term; 949 Functor1 functor = (Functor1)term;
950 return new object[] { functor._arg1 }; 950 return new object[] { functor._arg1 };
951 } 951 }
952 else if (term is Functor2) 952 else if (term is Functor2)
953 { 953 {
954 Functor2 functor = (Functor2)term; 954 Functor2 functor = (Functor2)term;
955 return new object[] { functor._arg1, functor._arg2 }; 955 return new object[] { functor._arg1, functor._arg2 };
956 } 956 }
957 else if (term is Functor3) 957 else if (term is Functor3)
958 { 958 {
959 Functor3 functor = (Functor3)term; 959 Functor3 functor = (Functor3)term;
960 return new object[] { functor._arg1, functor._arg2, functor._arg3 }; 960 return new object[] { functor._arg1, functor._arg2, functor._arg3 };
961 } 961 }
962 else if (term is Functor) { 962 else if (term is Functor) {
963 Functor functor = (Functor)term; 963 Functor functor = (Functor)term;
964 return functor._args; 964 return functor._args;
965 } 965 }
966 else 966 else
967 return new object[0]; 967 return new object[0];
968 } 968 }
969 969
970 public static bool var(object Term) 970 public static bool var(object Term)
971 { 971 {
972 return YP.getValue(Term) is Variable; 972 return YP.getValue(Term) is Variable;
973 } 973 }
974 974
975 public static bool nonvar(object Term) 975 public static bool nonvar(object Term)
976 { 976 {
977 return !YP.var(Term); 977 return !YP.var(Term);
978 } 978 }
979 979
980 public static bool atom(object Term) 980 public static bool atom(object Term)
981 { 981 {
982 return YP.getValue(Term) is Atom; 982 return YP.getValue(Term) is Atom;
983 } 983 }
984 984
985 public static bool number(object Term) 985 public static bool number(object Term)
986 { 986 {
987 Term = getValue(Term); 987 Term = getValue(Term);
988 // Debug: Should exhaustively check for all number types. 988 // Debug: Should exhaustively check for all number types.
989 return Term is int || Term is double; 989 return Term is int || Term is double;
990 } 990 }
991 991
992 public static bool atomic(object Term) 992 public static bool atomic(object Term)
993 { 993 {
994 return YP.atom(Term) || YP.number(Term); 994 return YP.atom(Term) || YP.number(Term);
995 } 995 }
996 996
997 public static bool compound(object Term) 997 public static bool compound(object Term)
998 { 998 {
999 Term = getValue(Term); 999 Term = getValue(Term);
1000 return Term is Functor1 || Term is Functor2 || Term is Functor3 || Term is Functor; 1000 return Term is Functor1 || Term is Functor2 || Term is Functor3 || Term is Functor;
1001 } 1001 }
1002 1002
1003 public static void see(object input) 1003 public static void see(object input)
1004 { 1004 {
1005 input = YP.getValue(input); 1005 input = YP.getValue(input);
1006 if (input is TextReader) 1006 if (input is TextReader)
1007 { 1007 {
1008 _inputStream = (TextReader)input; 1008 _inputStream = (TextReader)input;
1009 return; 1009 return;
1010 } 1010 }
1011 else if (input is Atom) 1011 else if (input is Atom)
1012 { 1012 {
1013 _inputStream = new StreamReader(((Atom)input)._name); 1013 _inputStream = new StreamReader(((Atom)input)._name);
1014 return; 1014 return;
1015 } 1015 }
1016 else if (input is String) 1016 else if (input is String)
1017 { 1017 {
1018 _inputStream = new StreamReader((String)input); 1018 _inputStream = new StreamReader((String)input);
1019 return; 1019 return;
1020 } 1020 }
1021 else 1021 else
1022 throw new InvalidOperationException("Can't open stream for " + input); 1022 throw new InvalidOperationException("Can't open stream for " + input);
1023 } 1023 }
1024 1024
1025 public static void seen() 1025 public static void seen()
1026 { 1026 {
1027 if (_inputStream == Console.In) 1027 if (_inputStream == Console.In)
1028 return; 1028 return;
1029 _inputStream.Close(); 1029 _inputStream.Close();
1030 _inputStream = Console.In; 1030 _inputStream = Console.In;
1031 } 1031 }
1032 1032
1033 public static void tell(object output) 1033 public static void tell(object output)
1034 { 1034 {
1035 output = YP.getValue(output); 1035 output = YP.getValue(output);
1036 if (output is TextWriter) 1036 if (output is TextWriter)
1037 { 1037 {
1038 _outputStream = (TextWriter)output; 1038 _outputStream = (TextWriter)output;
1039 return; 1039 return;
1040 } 1040 }
1041 else if (output is Atom) 1041 else if (output is Atom)
1042 { 1042 {
1043 _outputStream = new StreamWriter(((Atom)output)._name); 1043 _outputStream = new StreamWriter(((Atom)output)._name);
1044 return; 1044 return;
1045 } 1045 }
1046 else if (output is String) 1046 else if (output is String)
1047 { 1047 {
1048 _outputStream = new StreamWriter((String)output); 1048 _outputStream = new StreamWriter((String)output);
1049 return; 1049 return;
1050 } 1050 }
1051 else 1051 else
1052 throw new InvalidOperationException("Can't open stream for " + output); 1052 throw new InvalidOperationException("Can't open stream for " + output);
1053 } 1053 }
1054 1054
1055 public static void told() 1055 public static void told()
1056 { 1056 {
1057 if (_outputStream == Console.Out) 1057 if (_outputStream == Console.Out)
1058 return; 1058 return;
1059 _outputStream.Close(); 1059 _outputStream.Close();
1060 _outputStream = Console.Out; 1060 _outputStream = Console.Out;
1061 } 1061 }
1062 1062
1063 public static void write(object x) 1063 public static void write(object x)
1064 { 1064 {
1065 x = YP.getValue(x); 1065 x = YP.getValue(x);
1066 if (x is double) 1066 if (x is double)
1067 _outputStream.Write(doubleToString((double)x)); 1067 _outputStream.Write(doubleToString((double)x));
1068 else 1068 else
1069 _outputStream.Write(x.ToString()); 1069 _outputStream.Write(x.ToString());
1070 } 1070 }
1071 1071
1072 /// <summary> 1072 /// <summary>
1073 /// Format x as a string, making sure that it will parse as an int later. I.e., for 1.0, don't just 1073 /// Format x as a string, making sure that it will parse as an int later. I.e., for 1.0, don't just
1074 /// use "1" which will parse as an int. 1074 /// use "1" which will parse as an int.
1075 /// </summary> 1075 /// </summary>
1076 /// <param name="x"></param> 1076 /// <param name="x"></param>
1077 /// <returns></returns> 1077 /// <returns></returns>
1078 private static string doubleToString(double x) 1078 private static string doubleToString(double x)
1079 { 1079 {
1080 string xString = x.ToString(); 1080 string xString = x.ToString();
1081 // Debug: Is there a way in C# to ask if a string parses as int without throwing an exception? 1081 // Debug: Is there a way in C# to ask if a string parses as int without throwing an exception?
1082 try 1082 try
1083 { 1083 {
1084 Convert.ToInt32(xString); 1084 Convert.ToInt32(xString);
1085 // The string will parse as an int, not a double, so re-format so that it does. 1085 // The string will parse as an int, not a double, so re-format so that it does.
1086 // Use float if possible, else exponential if it would be too big. 1086 // Use float if possible, else exponential if it would be too big.
1087 return x.ToString(x >= 100000.0 ? "E1" : "f1"); 1087 return x.ToString(x >= 100000.0 ? "E1" : "f1");
1088 } 1088 }
1089 catch (FormatException) 1089 catch (FormatException)
1090 { 1090 {
1091 // Assume it will parse as a double. 1091 // Assume it will parse as a double.
1092 } 1092 }
1093 return xString; 1093 return xString;
1094 } 1094 }
1095 1095
1096 public static void put_code(object x) 1096 public static void put_code(object x)
1097 { 1097 {
1098 _outputStream.Write((char)YP.convertInt(x)); 1098 _outputStream.Write((char)YP.convertInt(x));
1099 } 1099 }
1100 1100
1101 public static void nl() 1101 public static void nl()
1102 { 1102 {
1103 _outputStream.WriteLine(); 1103 _outputStream.WriteLine();
1104 } 1104 }
1105 1105
1106 public static IEnumerable<bool> get_code(object code) 1106 public static IEnumerable<bool> get_code(object code)
1107 { 1107 {
1108 return YP.unify(code, _inputStream.Read()); 1108 return YP.unify(code, _inputStream.Read());
1109 } 1109 }
1110 1110
1111 public static void assertFact(Atom name, object[] values) 1111 public static void assertFact(Atom name, object[] values)
1112 { 1112 {
1113 NameArity nameArity = new NameArity(name, values.Length); 1113 NameArity nameArity = new NameArity(name, values.Length);
1114 List<IClause> clauses; 1114 List<IClause> clauses;
1115 IndexedAnswers indexedAnswers; 1115 IndexedAnswers indexedAnswers;
1116 if (!_predicatesStore.TryGetValue(nameArity, out clauses)) 1116 if (!_predicatesStore.TryGetValue(nameArity, out clauses))
1117 { 1117 {
1118 // Create an IndexedAnswers as the first clause of the predicate. 1118 // Create an IndexedAnswers as the first clause of the predicate.
1119 _predicatesStore[nameArity] = (clauses = new List<IClause>()); 1119 _predicatesStore[nameArity] = (clauses = new List<IClause>());
1120 clauses.Add(indexedAnswers = new IndexedAnswers()); 1120 clauses.Add(indexedAnswers = new IndexedAnswers());
1121 } 1121 }
1122 else 1122 else
1123 { 1123 {
1124 indexedAnswers = clauses[clauses.Count - 1] as IndexedAnswers; 1124 indexedAnswers = clauses[clauses.Count - 1] as IndexedAnswers;
1125 if (indexedAnswers == null) 1125 if (indexedAnswers == null)
1126 // The latest clause is not an IndexedAnswers, so add one. 1126 // The latest clause is not an IndexedAnswers, so add one.
1127 clauses.Add(indexedAnswers = new IndexedAnswers()); 1127 clauses.Add(indexedAnswers = new IndexedAnswers());
1128 } 1128 }
1129 1129
1130 indexedAnswers.addAnswer(values); 1130 indexedAnswers.addAnswer(values);
1131 } 1131 }
1132 1132
1133 public static IEnumerable<bool> matchFact(Atom name, object[] arguments) 1133 public static IEnumerable<bool> matchFact(Atom name, object[] arguments)
1134 { 1134 {
1135 List<IClause> clauses; 1135 List<IClause> clauses;
1136 if (!_predicatesStore.TryGetValue(new NameArity(name, arguments.Length), out clauses)) 1136 if (!_predicatesStore.TryGetValue(new NameArity(name, arguments.Length), out clauses))
1137 throw new UndefinedPredicateException 1137 throw new UndefinedPredicateException
1138 ("Undefined fact: " + name + "/" + arguments.Length, name, 1138 ("Undefined fact: " + name + "/" + arguments.Length, name,
1139 arguments.Length); 1139 arguments.Length);
1140 1140
1141 if (clauses.Count == 1) 1141 if (clauses.Count == 1)
1142 // Usually there is only one clause, so return it without needing to wrap it in an iterator. 1142 // Usually there is only one clause, so return it without needing to wrap it in an iterator.
1143 return clauses[0].match(arguments); 1143 return clauses[0].match(arguments);
1144 else 1144 else
1145 return matchAllClauses(clauses, arguments); 1145 return matchAllClauses(clauses, arguments);
1146 } 1146 }
1147 1147
1148 /// <summary> 1148 /// <summary>
1149 /// Call match(arguments) for each IClause in clauses. We make this a separate 1149 /// Call match(arguments) for each IClause in clauses. We make this a separate
1150 /// function so that matchFact itself does not need to be an iterator object. 1150 /// function so that matchFact itself does not need to be an iterator object.
1151 /// </summary> 1151 /// </summary>
1152 /// <param name="clauses"></param> 1152 /// <param name="clauses"></param>
1153 /// <param name="arguments"></param> 1153 /// <param name="arguments"></param>
1154 /// <returns></returns> 1154 /// <returns></returns>
1155 private static IEnumerable<bool> matchAllClauses(List<IClause> clauses, object[] arguments) 1155 private static IEnumerable<bool> matchAllClauses(List<IClause> clauses, object[] arguments)
1156 { 1156 {
1157 foreach (IClause clause in clauses) 1157 foreach (IClause clause in clauses)
1158 { 1158 {
1159 foreach (bool lastCall in clause.match(arguments)) 1159 foreach (bool lastCall in clause.match(arguments))
1160 yield return false; 1160 yield return false;
1161 } 1161 }
1162 } 1162 }
1163 1163
1164 public static void retractFact(Atom name, object[] arguments) 1164 public static void retractFact(Atom name, object[] arguments)
1165 { 1165 {
1166 NameArity nameArity = new NameArity(name, arguments.Length); 1166 NameArity nameArity = new NameArity(name, arguments.Length);
1167 List<IClause> clauses; 1167 List<IClause> clauses;
1168 if (!_predicatesStore.TryGetValue(nameArity, out clauses)) 1168 if (!_predicatesStore.TryGetValue(nameArity, out clauses))
1169 // Can't find, so ignore. 1169 // Can't find, so ignore.
1170 return; 1170 return;
1171 1171
1172 foreach (object arg in arguments) 1172 foreach (object arg in arguments)
1173 { 1173 {
1174 if (!YP.var(arg)) 1174 if (!YP.var(arg))
1175 throw new InvalidOperationException("All arguments must be unbound"); 1175 throw new InvalidOperationException("All arguments must be unbound");
1176 } 1176 }
1177 // Set to a fresh empty IndexedAnswers. 1177 // Set to a fresh empty IndexedAnswers.
1178 _predicatesStore[nameArity] = (clauses = new List<IClause>()); 1178 _predicatesStore[nameArity] = (clauses = new List<IClause>());
1179 clauses.Add(new IndexedAnswers()); 1179 clauses.Add(new IndexedAnswers());
1180 } 1180 }
1181 1181
1182 public static IEnumerable<bool> current_predicate(object NameSlashArity) 1182 public static IEnumerable<bool> current_predicate(object NameSlashArity)
1183 { 1183 {
1184 NameSlashArity = YP.getValue(NameSlashArity); 1184 NameSlashArity = YP.getValue(NameSlashArity);
1185 // First check if Name and Arity are nonvar so we can do a direct lookup. 1185 // First check if Name and Arity are nonvar so we can do a direct lookup.
1186 if (YP.ground(NameSlashArity)) 1186 if (YP.ground(NameSlashArity))
1187 { 1187 {
1188 if (NameSlashArity is Functor2) 1188 if (NameSlashArity is Functor2)
1189 { 1189 {
1190 Functor2 NameArityFunctor = (Functor2)NameSlashArity; 1190 Functor2 NameArityFunctor = (Functor2)NameSlashArity;
1191 if (NameArityFunctor._name == Atom.SLASH) 1191 if (NameArityFunctor._name == Atom.SLASH)
1192 { 1192 {
1193 if (_predicatesStore.ContainsKey(new NameArity 1193 if (_predicatesStore.ContainsKey(new NameArity
1194 ((Atom)YP.getValue(NameArityFunctor._arg1), 1194 ((Atom)YP.getValue(NameArityFunctor._arg1),
1195 (int)YP.getValue(NameArityFunctor._arg2)))) 1195 (int)YP.getValue(NameArityFunctor._arg2))))
1196 // The predicate is defined. 1196 // The predicate is defined.
1197 yield return false; 1197 yield return false;
1198 } 1198 }
1199 } 1199 }
1200 yield break; 1200 yield break;
1201 } 1201 }
1202 1202
1203 foreach (NameArity key in _predicatesStore.Keys) 1203 foreach (NameArity key in _predicatesStore.Keys)
1204 { 1204 {
1205 foreach (bool l1 in YP.unify 1205 foreach (bool l1 in YP.unify
1206 (new Functor2(Atom.SLASH, key._name, key._arity), NameSlashArity)) 1206 (new Functor2(Atom.SLASH, key._name, key._arity), NameSlashArity))
1207 yield return false; 1207 yield return false;
1208 } 1208 }
1209 } 1209 }
1210 1210
1211 /// <summary> 1211 /// <summary>
1212 /// Use YP.getFunctorName(Goal) and invoke the static method of this name in the 1212 /// Use YP.getFunctorName(Goal) and invoke the static method of this name in the
1213 /// declaringClass, using arguments from YP.getFunctorArgs(Goal). 1213 /// declaringClass, using arguments from YP.getFunctorArgs(Goal).
1214 /// Note that Goal must be a simple functor, not a complex expression. 1214 /// Note that Goal must be a simple functor, not a complex expression.
1215 /// If not found, this throws UndefinedPredicateException. 1215 /// If not found, this throws UndefinedPredicateException.
1216 /// </summary> 1216 /// </summary>
1217 /// <param name="Goal"></param> 1217 /// <param name="Goal"></param>
1218 /// <param name="contextClass">the class for looking up default function references</param> 1218 /// <param name="contextClass">the class for looking up default function references</param>
1219 /// <returns></returns> 1219 /// <returns></returns>
1220 public static IEnumerable<bool> getIterator(object Goal, Type declaringClass) 1220 public static IEnumerable<bool> getIterator(object Goal, Type declaringClass)
1221 { 1221 {
1222#if true 1222#if true
1223 List<Variable> variableSetList = new List<Variable>(); 1223 List<Variable> variableSetList = new List<Variable>();
1224 addUniqueVariables(Goal, variableSetList); 1224 addUniqueVariables(Goal, variableSetList);
1225 Variable[] variableSet = variableSetList.ToArray(); 1225 Variable[] variableSet = variableSetList.ToArray();
1226 object Head = Functor.make("function", variableSet); 1226 object Head = Functor.make("function", variableSet);
1227 1227
1228 object Rule = new Functor2(Atom.RULE, Head, Goal); 1228 object Rule = new Functor2(Atom.RULE, Head, Goal);
1229 object RuleList = ListPair.make(new Functor2(Atom.F, Rule, Atom.NIL)); 1229 object RuleList = ListPair.make(new Functor2(Atom.F, Rule, Atom.NIL));
1230 StringWriter functionCode = new StringWriter(); 1230 StringWriter functionCode = new StringWriter();
1231 TextWriter saveOutputStream = _outputStream; 1231 TextWriter saveOutputStream = _outputStream;
1232 try 1232 try
1233 { 1233 {
1234 tell(functionCode); 1234 tell(functionCode);
1235 Variable FunctionCode = new Variable(); 1235 Variable FunctionCode = new Variable();
1236 foreach (bool l1 in YPCompiler.makeFunctionPseudoCode(RuleList, FunctionCode)) 1236 foreach (bool l1 in YPCompiler.makeFunctionPseudoCode(RuleList, FunctionCode))
1237 { 1237 {
1238 if (YP.termEqual(FunctionCode, Atom.a("getDeclaringClass"))) 1238 if (YP.termEqual(FunctionCode, Atom.a("getDeclaringClass")))
1239 // Ignore getDeclaringClass since we have access to the one passed in. 1239 // Ignore getDeclaringClass since we have access to the one passed in.
1240 continue; 1240 continue;
1241 1241
1242 // Debug: should check if FunctionCode is a single call. 1242 // Debug: should check if FunctionCode is a single call.
1243 YPCompiler.convertFunctionCSharp(FunctionCode); 1243 YPCompiler.convertFunctionCSharp(FunctionCode);
1244 } 1244 }
1245 told(); 1245 told();
1246 } 1246 }
1247 finally 1247 finally
1248 { 1248 {
1249 // Restore after calling tell. 1249 // Restore after calling tell.
1250 _outputStream = saveOutputStream; 1250 _outputStream = saveOutputStream;
1251 } 1251 }
1252 return YPCompiler.compileAnonymousFunction 1252 return YPCompiler.compileAnonymousFunction
1253 (functionCode.ToString(), variableSet.Length, declaringClass).match(variableSet); 1253 (functionCode.ToString(), variableSet.Length, declaringClass).match(variableSet);
1254#else 1254#else
1255 Goal = YP.getValue(Goal); 1255 Goal = YP.getValue(Goal);
1256 Atom name; 1256 Atom name;
1257 object[] args; 1257 object[] args;
1258 while (true) 1258 while (true)
1259 { 1259 {
1260 name = (Atom)YP.getFunctorName(Goal); 1260 name = (Atom)YP.getFunctorName(Goal);
1261 args = YP.getFunctorArgs(Goal); 1261 args = YP.getFunctorArgs(Goal);
1262 if (name == Atom.HAT && args.Length == 2) 1262 if (name == Atom.HAT && args.Length == 2)
1263 // Assume this is called from a bagof operation. Skip the leading qualifiers. 1263 // Assume this is called from a bagof operation. Skip the leading qualifiers.
1264 Goal = YP.getValue(((Functor2)Goal)._arg2); 1264 Goal = YP.getValue(((Functor2)Goal)._arg2);
1265 else 1265 else
1266 break; 1266 break;
1267 } 1267 }
1268 try 1268 try
1269 { 1269 {
1270 return (IEnumerable<bool>)declaringClass.InvokeMember 1270 return (IEnumerable<bool>)declaringClass.InvokeMember
1271 (name._name, BindingFlags.InvokeMethod, null, null, args); 1271 (name._name, BindingFlags.InvokeMethod, null, null, args);
1272 } 1272 }
1273 catch (TargetInvocationException exception) 1273 catch (TargetInvocationException exception)
1274 { 1274 {
1275 throw exception.InnerException; 1275 throw exception.InnerException;
1276 } 1276 }
1277 catch (MissingMethodException) 1277 catch (MissingMethodException)
1278 { 1278 {
1279 throw new UndefinedPredicateException 1279 throw new UndefinedPredicateException
1280 ("Cannot find predicate function: " + name + "/" + args.Length + " in " + 1280 ("Cannot find predicate function: " + name + "/" + args.Length + " in " +
1281 declaringClass.FullName, name, args.Length); 1281 declaringClass.FullName, name, args.Length);
1282 } 1282 }
1283#endif 1283#endif
1284 } 1284 }
1285 1285
1286 public static void throwException(object Term) 1286 public static void throwException(object Term)
1287 { 1287 {
1288 throw new PrologException(Term); 1288 throw new PrologException(Term);
1289 } 1289 }
1290 1290
1291 /// <summary> 1291 /// <summary>
1292 /// script_event calls hosting script with events as a callback method. 1292 /// script_event calls hosting script with events as a callback method.
1293 /// </summary> 1293 /// </summary>
1294 /// <param name="script_event"></param> 1294 /// <param name="script_event"></param>
1295 /// <param name="script_params"></param> 1295 /// <param name="script_params"></param>
1296 /// <returns></returns> 1296 /// <returns></returns>
1297 public static void script_event(object script_event, object script_params) 1297 public static void script_event(object script_event, object script_params)
1298 { 1298 {
1299 string function = ((Atom)YP.getValue(script_event))._name; 1299 string function = ((Atom)YP.getValue(script_event))._name;
1300 object[] array = ListPair.toArray(script_params); 1300 object[] array = ListPair.toArray(script_params);
1301 if (array == null) 1301 if (array == null)
1302 return; // YP.fail(); 1302 return; // YP.fail();
1303 if (array.Length > 1) 1303 if (array.Length > 1)
1304 { 1304 {
1305 //m_CmdManager.m_ScriptEngine.m_EventQueManager.AddToScriptQueue 1305 //m_CmdManager.m_ScriptEngine.m_EventQueManager.AddToScriptQueue
1306 //(localID, itemID, function, array); 1306 //(localID, itemID, function, array);
1307 // sortArray(array); 1307 // sortArray(array);
1308 } 1308 }
1309 //return YP.unify(Sorted, ListPair.makeWithoutRepeatedTerms(array)); 1309 //return YP.unify(Sorted, ListPair.makeWithoutRepeatedTerms(array));
1310 } 1310 }
1311 1311
1312 /// <summary> 1312 /// <summary>
1313 /// An enumerator that does zero loops. 1313 /// An enumerator that does zero loops.
1314 /// </summary> 1314 /// </summary>
1315 private class Fail : IEnumerator<bool>, IEnumerable<bool> 1315 private class Fail : IEnumerator<bool>, IEnumerable<bool>
1316 { 1316 {
1317 public bool MoveNext() 1317 public bool MoveNext()
1318 { 1318 {
1319 return false; 1319 return false;
1320 } 1320 }
1321 1321
1322 public IEnumerator<bool> GetEnumerator() 1322 public IEnumerator<bool> GetEnumerator()
1323 { 1323 {
1324 return (IEnumerator<bool>)this; 1324 return (IEnumerator<bool>)this;
1325 } 1325 }
1326 1326
1327 IEnumerator IEnumerable.GetEnumerator() 1327 IEnumerator IEnumerable.GetEnumerator()
1328 { 1328 {
1329 return GetEnumerator(); 1329 return GetEnumerator();
1330 } 1330 }
1331 1331
1332 public bool Current 1332 public bool Current
1333 { 1333 {
1334 get { return true; } 1334 get { return true; }
1335 } 1335 }
1336 1336
1337 object IEnumerator.Current 1337 object IEnumerator.Current
1338 { 1338 {
1339 get { return true; } 1339 get { return true; }
1340 } 1340 }
1341 1341
1342 public void Dispose() 1342 public void Dispose()
1343 { 1343 {
1344 } 1344 }
1345 1345
1346 public void Reset() 1346 public void Reset()
1347 { 1347 {
1348 throw new NotImplementedException(); 1348 throw new NotImplementedException();
1349 } 1349 }
1350 } 1350 }
1351 1351
1352 /// <summary> 1352 /// <summary>
1353 /// An enumerator that does one iteration. 1353 /// An enumerator that does one iteration.
1354 /// </summary> 1354 /// </summary>
1355 private class Succeed : IEnumerator<bool>, IEnumerable<bool> 1355 private class Succeed : IEnumerator<bool>, IEnumerable<bool>
1356 { 1356 {
1357 private bool _didIteration = false; 1357 private bool _didIteration = false;
1358 1358
1359 public bool MoveNext() 1359 public bool MoveNext()
1360 { 1360 {
1361 if (!_didIteration) 1361 if (!_didIteration)
1362 { 1362 {
1363 _didIteration = true; 1363 _didIteration = true;
1364 return true; 1364 return true;
1365 } 1365 }
1366 else 1366 else
1367 return false; 1367 return false;
1368 } 1368 }
1369 1369
1370 public IEnumerator<bool> GetEnumerator() 1370 public IEnumerator<bool> GetEnumerator()
1371 { 1371 {
1372 return (IEnumerator<bool>)this; 1372 return (IEnumerator<bool>)this;
1373 } 1373 }
1374 1374
1375 IEnumerator IEnumerable.GetEnumerator() 1375 IEnumerator IEnumerable.GetEnumerator()
1376 { 1376 {
1377 return GetEnumerator(); 1377 return GetEnumerator();
1378 } 1378 }
1379 1379
1380 public bool Current 1380 public bool Current
1381 { 1381 {
1382 get { return false; } 1382 get { return false; }
1383 } 1383 }
1384 1384
1385 object IEnumerator.Current 1385 object IEnumerator.Current
1386 { 1386 {
1387 get { return false; } 1387 get { return false; }
1388 } 1388 }
1389 1389
1390 public void Dispose() 1390 public void Dispose()
1391 { 1391 {
1392 } 1392 }
1393 1393
1394 public void Reset() 1394 public void Reset()
1395 { 1395 {
1396 throw new NotImplementedException(); 1396 throw new NotImplementedException();
1397 } 1397 }
1398 } 1398 }
1399 1399
1400 /// <summary> 1400 /// <summary>
1401 /// An enumerator that repeats forever. 1401 /// An enumerator that repeats forever.
1402 /// </summary> 1402 /// </summary>
1403 private class Repeat : IEnumerator<bool>, IEnumerable<bool> 1403 private class Repeat : IEnumerator<bool>, IEnumerable<bool>
1404 { 1404 {
1405 public bool MoveNext() 1405 public bool MoveNext()
1406 { 1406 {
1407 return true; 1407 return true;
1408 } 1408 }
1409 1409
1410 public IEnumerator<bool> GetEnumerator() 1410 public IEnumerator<bool> GetEnumerator()
1411 { 1411 {
1412 return (IEnumerator<bool>)this; 1412 return (IEnumerator<bool>)this;
1413 } 1413 }
1414 1414
1415 IEnumerator IEnumerable.GetEnumerator() 1415 IEnumerator IEnumerable.GetEnumerator()
1416 { 1416 {
1417 return GetEnumerator(); 1417 return GetEnumerator();
1418 } 1418 }
1419 1419
1420 public bool Current 1420 public bool Current
1421 { 1421 {
1422 get { return false; } 1422 get { return false; }
1423 } 1423 }
1424 1424
1425 object IEnumerator.Current 1425 object IEnumerator.Current
1426 { 1426 {
1427 get { return false; } 1427 get { return false; }
1428 } 1428 }
1429 1429
1430 public void Dispose() 1430 public void Dispose()
1431 { 1431 {
1432 } 1432 }
1433 1433
1434 public void Reset() 1434 public void Reset()
1435 { 1435 {
1436 throw new NotImplementedException(); 1436 throw new NotImplementedException();
1437 } 1437 }
1438 } 1438 }
1439 } 1439 }
1440} 1440}
diff --git a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YPCompiler.cs b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YPCompiler.cs
index 923906b..a0a92b6 100644
--- a/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YPCompiler.cs
+++ b/OpenSim/Region/ScriptEngine/DotNetEngine/Compiler/YieldProlog/YPCompiler.cs
@@ -1,5247 +1,5247 @@
1/* 1/*
2 * Copyright (C) 2007-2008, Jeff Thompson 2 * Copyright (C) 2007-2008, Jeff Thompson
3 * 3 *
4 * All rights reserved. 4 * All rights reserved.
5 * 5 *
6 * Redistribution and use in source and binary forms, with or without 6 * Redistribution and use in source and binary forms, with or without
7 * modification, are permitted provided that the following conditions are met: 7 * modification, are permitted provided that the following conditions are met:
8 * 8 *
9 * * Redistributions of source code must retain the above copyright 9 * * Redistributions of source code must retain the above copyright
10 * notice, this list of conditions and the following disclaimer. 10 * notice, this list of conditions and the following disclaimer.
11 * * Redistributions in binary form must reproduce the above copyright 11 * * Redistributions in binary form must reproduce the above copyright
12 * notice, this list of conditions and the following disclaimer in the 12 * notice, this list of conditions and the following disclaimer in the
13 * documentation and/or other materials provided with the distribution. 13 * documentation and/or other materials provided with the distribution.
14 * * Neither the name of the copyright holder nor the names of its contributors 14 * * Neither the name of the copyright holder nor the names of its contributors
15 * may be used to endorse or promote products derived from this software 15 * may be used to endorse or promote products derived from this software
16 * without specific prior written permission. 16 * without specific prior written permission.
17 * 17 *
18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS 18 * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT 19 * "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR 20 * LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR 21 * A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, 22 * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, 23 * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR 24 * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF 25 * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING 26 * LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS 27 * NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 28 * SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
29 */ 29 */
30 30
31using System; 31using System;
32using System.IO; 32using System.IO;
33using System.Collections; 33using System.Collections;
34using System.Collections.Generic; 34using System.Collections.Generic;
35using System.Text; 35using System.Text;
36using System.CodeDom.Compiler; 36using System.CodeDom.Compiler;
37 37
38namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog 38namespace OpenSim.Region.ScriptEngine.DotNetEngine.Compiler.YieldProlog
39{ 39{
40 public class YPCompiler 40 public class YPCompiler
41 { 41 {
42 private class CompilerState 42 private class CompilerState
43 { 43 {
44 public IndexedAnswers _pred = new IndexedAnswers(); 44 public IndexedAnswers _pred = new IndexedAnswers();
45 public Dictionary<YP.NameArity, Atom> _moduleForNameArity = new Dictionary<YP.NameArity, Atom>(); 45 public Dictionary<YP.NameArity, Atom> _moduleForNameArity = new Dictionary<YP.NameArity, Atom>();
46 public int _gensymCounter; 46 public int _gensymCounter;
47 public bool _useFinalCutCode; 47 public bool _useFinalCutCode;
48 public Variable _finalCutCode; 48 public Variable _finalCutCode;
49 public bool _codeUsesYield; 49 public bool _codeUsesYield;
50 public Atom _determinism; 50 public Atom _determinism;
51 // a list of '='(Name, Variable) 51 // a list of '='(Name, Variable)
52 public List<object> _variableNames; 52 public List<object> _variableNames;
53 53
54 // Make these static functions that explicitly take the State so Prolog can call it. 54 // Make these static functions that explicitly take the State so Prolog can call it.
55 55
56 /// <summary> 56 /// <summary>
57 /// Make a new CompilerState and bind it to State. 57 /// Make a new CompilerState and bind it to State.
58 /// </summary> 58 /// </summary>
59 /// <param name="State"></param> 59 /// <param name="State"></param>
60 /// <returns></returns> 60 /// <returns></returns>
61 public static IEnumerable<bool> make(object State) 61 public static IEnumerable<bool> make(object State)
62 { 62 {
63 return YP.unify(State, new CompilerState()); 63 return YP.unify(State, new CompilerState());
64 } 64 }
65 65
66 public static void assertPred(object State, object Pred, object Determinism) 66 public static void assertPred(object State, object Pred, object Determinism)
67 { 67 {
68 State = YP.getValue(State); 68 State = YP.getValue(State);
69 object functorName = YP.getFunctorName(Pred); 69 object functorName = YP.getFunctorName(Pred);
70 object[] functorArgs = YP.getFunctorArgs(Pred); 70 object[] functorArgs = YP.getFunctorArgs(Pred);
71 // Debug: Should check if it's already asserted and is the same. 71 // Debug: Should check if it's already asserted and is the same.
72 ((CompilerState)State)._pred.addAnswer 72 ((CompilerState)State)._pred.addAnswer
73 (new object[] { functorName, functorArgs.Length, Pred, YP.getValue(Determinism) }); 73 (new object[] { functorName, functorArgs.Length, Pred, YP.getValue(Determinism) });
74 } 74 }
75 75
76 public static void assertModuleForNameArity(object State, object Name, object Arity, object Module) 76 public static void assertModuleForNameArity(object State, object Name, object Arity, object Module)
77 { 77 {
78 State = YP.getValue(State); 78 State = YP.getValue(State);
79 Name = YP.getValue(Name); 79 Name = YP.getValue(Name);
80 Arity = YP.getValue(Arity); 80 Arity = YP.getValue(Arity);
81 Module = YP.getValue(Module); 81 Module = YP.getValue(Module);
82 // If the Module Atom comes from the parser, it always has null _declaringClass. 82 // If the Module Atom comes from the parser, it always has null _declaringClass.
83 if (Module is Atom && ((Atom)Module)._module == null && Name is Atom && Arity is int) 83 if (Module is Atom && ((Atom)Module)._module == null && Name is Atom && Arity is int)
84 { 84 {
85 // Replace a previous entry if it exists. 85 // Replace a previous entry if it exists.
86 ((CompilerState)State)._moduleForNameArity[new YP.NameArity((Atom)Name, (int)Arity)] = 86 ((CompilerState)State)._moduleForNameArity[new YP.NameArity((Atom)Name, (int)Arity)] =
87 (Atom)Module; 87 (Atom)Module;
88 } 88 }
89 } 89 }
90 90
91 public static void startFunction(object State, object Head) 91 public static void startFunction(object State, object Head)
92 { 92 {
93 State = YP.getValue(State); 93 State = YP.getValue(State);
94 ((CompilerState)State)._gensymCounter = 0; 94 ((CompilerState)State)._gensymCounter = 0;
95 ((CompilerState)State)._useFinalCutCode = false; 95 ((CompilerState)State)._useFinalCutCode = false;
96 ((CompilerState)State)._finalCutCode = new Variable(); 96 ((CompilerState)State)._finalCutCode = new Variable();
97 ((CompilerState)State)._codeUsesYield = false; 97 ((CompilerState)State)._codeUsesYield = false;
98 if (CompilerState.isDetNoneOut(State, Head)) 98 if (CompilerState.isDetNoneOut(State, Head))
99 ((CompilerState)State)._determinism = Atom.a("detNoneOut"); 99 ((CompilerState)State)._determinism = Atom.a("detNoneOut");
100 else if (CompilerState.isSemidetNoneOut(State, Head)) 100 else if (CompilerState.isSemidetNoneOut(State, Head))
101 ((CompilerState)State)._determinism = Atom.a("semidetNoneOut"); 101 ((CompilerState)State)._determinism = Atom.a("semidetNoneOut");
102 else 102 else
103 ((CompilerState)State)._determinism = Atom.a("nondet"); 103 ((CompilerState)State)._determinism = Atom.a("nondet");
104 } 104 }
105 105
106 public static void setCodeUsesYield(object State) 106 public static void setCodeUsesYield(object State)
107 { 107 {
108 State = YP.getValue(State); 108 State = YP.getValue(State);
109 ((CompilerState)State)._codeUsesYield = true; 109 ((CompilerState)State)._codeUsesYield = true;
110 } 110 }
111 111
112 public static bool codeUsesYield(object State) 112 public static bool codeUsesYield(object State)
113 { 113 {
114 State = YP.getValue(State); 114 State = YP.getValue(State);
115 return ((CompilerState)State)._codeUsesYield; 115 return ((CompilerState)State)._codeUsesYield;
116 } 116 }
117 117
118 public static bool determinismEquals(object State, object Term) 118 public static bool determinismEquals(object State, object Term)
119 { 119 {
120 State = YP.getValue(State); 120 State = YP.getValue(State);
121 return YP.termEqual(((CompilerState)State)._determinism, Term); 121 return YP.termEqual(((CompilerState)State)._determinism, Term);
122 } 122 }
123 123
124 /// <summary> 124 /// <summary>
125 /// Set _variableNames to a new list of (Name = Variable) for each unique variable in rule. 125 /// Set _variableNames to a new list of (Name = Variable) for each unique variable in rule.
126 /// If the variable is in variableNameSuggestions, use it, otherwise use x1, x2, etc. 126 /// If the variable is in variableNameSuggestions, use it, otherwise use x1, x2, etc.
127 /// </summary> 127 /// </summary>
128 /// <param name="State"></param> 128 /// <param name="State"></param>
129 /// <param name="rule"></param> 129 /// <param name="rule"></param>
130 /// <param name="variableNameSuggestions"></param> 130 /// <param name="variableNameSuggestions"></param>
131 public static void newVariableNames(object State, object Rule, object VariableNameSuggestions) 131 public static void newVariableNames(object State, object Rule, object VariableNameSuggestions)
132 { 132 {
133 State = YP.getValue(State); 133 State = YP.getValue(State);
134 List<Variable> variablesSet = new List<Variable>(); 134 List<Variable> variablesSet = new List<Variable>();
135 YP.addUniqueVariables(Rule, variablesSet); 135 YP.addUniqueVariables(Rule, variablesSet);
136 136
137 ((CompilerState)State)._variableNames = new List<object>(); 137 ((CompilerState)State)._variableNames = new List<object>();
138 int xCounter = 0; 138 int xCounter = 0;
139 foreach (Variable variable in variablesSet) 139 foreach (Variable variable in variablesSet)
140 ((CompilerState)State)._variableNames.Add 140 ((CompilerState)State)._variableNames.Add
141 (new Functor2(Atom.a("="), makeVariableName(variable, VariableNameSuggestions, ++xCounter), 141 (new Functor2(Atom.a("="), makeVariableName(variable, VariableNameSuggestions, ++xCounter),
142 variable)); 142 variable));
143 } 143 }
144 144
145 private static object makeVariableName(object variable, object variableNameSuggestions, int xCounter) 145 private static object makeVariableName(object variable, object variableNameSuggestions, int xCounter)
146 { 146 {
147 // Debug: should require named variables to start with _ or capital. Should 147 // Debug: should require named variables to start with _ or capital. Should
148 // check for duplicates and clashes with keywords. 148 // check for duplicates and clashes with keywords.
149 for (object element = YP.getValue(variableNameSuggestions); 149 for (object element = YP.getValue(variableNameSuggestions);
150 element is Functor2 && ((Functor2)element)._name == Atom.DOT; 150 element is Functor2 && ((Functor2)element)._name == Atom.DOT;
151 element = YP.getValue(((Functor2)element)._arg2)) 151 element = YP.getValue(((Functor2)element)._arg2))
152 { 152 {
153 object suggestionPair = YP.getValue(((Functor2)element)._arg1); 153 object suggestionPair = YP.getValue(((Functor2)element)._arg1);
154 if (sameVariable(variable, ((Functor2)suggestionPair)._arg2)) 154 if (sameVariable(variable, ((Functor2)suggestionPair)._arg2))
155 { 155 {
156 Atom suggestion = (Atom)YP.getValue(((Functor2)suggestionPair)._arg1); 156 Atom suggestion = (Atom)YP.getValue(((Functor2)suggestionPair)._arg1);
157 if (suggestion.Equals(Atom.a("Atom"))) 157 if (suggestion.Equals(Atom.a("Atom")))
158 suggestion = Atom.a("Atom_1"); 158 suggestion = Atom.a("Atom_1");
159 if (suggestion.Equals(Atom.a("Variable"))) 159 if (suggestion.Equals(Atom.a("Variable")))
160 suggestion = Atom.a("Variable_1"); 160 suggestion = Atom.a("Variable_1");
161 if (suggestion.Equals(Atom.a("Functor"))) 161 if (suggestion.Equals(Atom.a("Functor")))
162 suggestion = Atom.a("Functor_1"); 162 suggestion = Atom.a("Functor_1");
163 return suggestion; 163 return suggestion;
164 } 164 }
165 } 165 }
166 166
167 return Atom.a("x" + xCounter); 167 return Atom.a("x" + xCounter);
168 } 168 }
169 169
170 /// <summary> 170 /// <summary>
171 /// Unify Result with the name assigned by CompilerState.newVariableNames in State._variableNames 171 /// Unify Result with the name assigned by CompilerState.newVariableNames in State._variableNames
172 /// for variable. 172 /// for variable.
173 /// </summary> 173 /// </summary>
174 /// <param name="variable">a Variable</param> 174 /// <param name="variable">a Variable</param>
175 /// <param name="State"></param> 175 /// <param name="State"></param>
176 /// <param name="Result">the assigned Name</param> 176 /// <param name="Result">the assigned Name</param>
177 public static IEnumerable<bool> getVariableName(object State, object variable, object Result) 177 public static IEnumerable<bool> getVariableName(object State, object variable, object Result)
178 { 178 {
179 State = YP.getValue(State); 179 State = YP.getValue(State);
180 foreach (object variableInfo in ((CompilerState)State)._variableNames) 180 foreach (object variableInfo in ((CompilerState)State)._variableNames)
181 { 181 {
182 if (variableInfo is Functor2 && ((Functor2)variableInfo)._name.Equals(Atom.a("="))) 182 if (variableInfo is Functor2 && ((Functor2)variableInfo)._name.Equals(Atom.a("=")))
183 { 183 {
184 if (sameVariable(variable, ((Functor2)variableInfo)._arg2)) 184 if (sameVariable(variable, ((Functor2)variableInfo)._arg2))
185 return YP.unify(Result, ((Functor2)variableInfo)._arg1); 185 return YP.unify(Result, ((Functor2)variableInfo)._arg1);
186 } 186 }
187 } 187 }
188 188
189 // We set up names for all unique variables, so this should never happen. 189 // We set up names for all unique variables, so this should never happen.
190 throw new PrologException(Atom.a("Can't find entry in _variableNames")); 190 throw new PrologException(Atom.a("Can't find entry in _variableNames"));
191 } 191 }
192 192
193 public static IEnumerable<bool> variableNamesList(object State, object VariableNamesList) 193 public static IEnumerable<bool> variableNamesList(object State, object VariableNamesList)
194 { 194 {
195 State = YP.getValue(State); 195 State = YP.getValue(State);
196 return YP.unify(VariableNamesList, ListPair.make(((CompilerState)State)._variableNames)); 196 return YP.unify(VariableNamesList, ListPair.make(((CompilerState)State)._variableNames));
197 } 197 }
198 198
199 public static IEnumerable<bool> gensym(object State, object Base, object Symbol) 199 public static IEnumerable<bool> gensym(object State, object Base, object Symbol)
200 { 200 {
201 State = YP.getValue(State); 201 State = YP.getValue(State);
202 return YP.unify(Symbol, Atom.a(Base.ToString() + ++((CompilerState)State)._gensymCounter)); 202 return YP.unify(Symbol, Atom.a(Base.ToString() + ++((CompilerState)State)._gensymCounter));
203 } 203 }
204 204
205 public static bool isDetNoneOut(object State, object Term) 205 public static bool isDetNoneOut(object State, object Term)
206 { 206 {
207 State = YP.getValue(State); 207 State = YP.getValue(State);
208 object functorName = YP.getFunctorName(Term); 208 object functorName = YP.getFunctorName(Term);
209 object[] functorArgs = YP.getFunctorArgs(Term); 209 object[] functorArgs = YP.getFunctorArgs(Term);
210 210
211 Variable pred = new Variable(); 211 Variable pred = new Variable();
212 foreach (bool l1 in ((CompilerState)State)._pred.match 212 foreach (bool l1 in ((CompilerState)State)._pred.match
213 (new object[] { functorName, functorArgs.Length, pred, Atom.a("det") })) 213 (new object[] { functorName, functorArgs.Length, pred, Atom.a("det") }))
214 { 214 {
215 if (CompilerState.isNoneOut(YP.getFunctorArgs(pred.getValue()))) 215 if (CompilerState.isNoneOut(YP.getFunctorArgs(pred.getValue())))
216 { 216 {
217 return true; 217 return true;
218 } 218 }
219 } 219 }
220 220
221 return false; 221 return false;
222 } 222 }
223 223
224 public static bool isSemidetNoneOut(object State, object Term) 224 public static bool isSemidetNoneOut(object State, object Term)
225 { 225 {
226 State = YP.getValue(State); 226 State = YP.getValue(State);
227 object functorName = YP.getFunctorName(Term); 227 object functorName = YP.getFunctorName(Term);
228 object[] functorArgs = YP.getFunctorArgs(Term); 228 object[] functorArgs = YP.getFunctorArgs(Term);
229 229
230 Variable pred = new Variable(); 230 Variable pred = new Variable();
231 foreach (bool l1 in ((CompilerState)State)._pred.match 231 foreach (bool l1 in ((CompilerState)State)._pred.match
232 (new object[] { functorName, functorArgs.Length, pred, Atom.a("semidet") })) 232 (new object[] { functorName, functorArgs.Length, pred, Atom.a("semidet") }))
233 { 233 {
234 if (CompilerState.isNoneOut(YP.getFunctorArgs(pred.getValue()))) 234 if (CompilerState.isNoneOut(YP.getFunctorArgs(pred.getValue())))
235 { 235 {
236 return true; 236 return true;
237 } 237 }
238 } 238 }
239 239
240 return false; 240 return false;
241 } 241 }
242 242
243 /// <summary> 243 /// <summary>
244 /// Return false if any of args is out, otherwise true. 244 /// Return false if any of args is out, otherwise true.
245 /// args is an array of ::(Type,Mode) where Mode is in or out. 245 /// args is an array of ::(Type,Mode) where Mode is in or out.
246 /// </summary> 246 /// </summary>
247 /// <param name="args"></param> 247 /// <param name="args"></param>
248 /// <returns></returns> 248 /// <returns></returns>
249 private static bool isNoneOut(object[] args) 249 private static bool isNoneOut(object[] args)
250 { 250 {
251 foreach (object arg in args) 251 foreach (object arg in args)
252 { 252 {
253 if (arg is Functor2 && ((Functor2)arg)._name == Atom.a("::") && 253 if (arg is Functor2 && ((Functor2)arg)._name == Atom.a("::") &&
254 ((Functor2)arg)._arg2 == Atom.a("out")) 254 ((Functor2)arg)._arg2 == Atom.a("out"))
255 return false; 255 return false;
256 } 256 }
257 return true; 257 return true;
258 } 258 }
259 259
260 public static bool nameArityHasModule(object State, object Name, object Arity, object Module) 260 public static bool nameArityHasModule(object State, object Name, object Arity, object Module)
261 { 261 {
262 State = YP.getValue(State); 262 State = YP.getValue(State);
263 Name = YP.getValue(Name); 263 Name = YP.getValue(Name);
264 Arity = YP.getValue(Arity); 264 Arity = YP.getValue(Arity);
265 Module = YP.getValue(Module); 265 Module = YP.getValue(Module);
266 if (Name is Atom && Arity is int) 266 if (Name is Atom && Arity is int)
267 { 267 {
268 Atom FoundModule; 268 Atom FoundModule;
269 if (!((CompilerState)State)._moduleForNameArity.TryGetValue 269 if (!((CompilerState)State)._moduleForNameArity.TryGetValue
270 (new YP.NameArity((Atom)Name, (int)Arity), out FoundModule)) 270 (new YP.NameArity((Atom)Name, (int)Arity), out FoundModule))
271 return false; 271 return false;
272 return FoundModule == Module; 272 return FoundModule == Module;
273 } 273 }
274 return false; 274 return false;
275 } 275 }
276 } 276 }
277 277
278 /// <summary> 278 /// <summary>
279 /// Use CodeDomProvider to compile the functionCode and return a YP.IClause. 279 /// Use CodeDomProvider to compile the functionCode and return a YP.IClause.
280 /// The function name must be "function" and have nArgs arguments. 280 /// The function name must be "function" and have nArgs arguments.
281 /// </summary> 281 /// </summary>
282 /// <param name="functionCode">the code for the iterator, such as 282 /// <param name="functionCode">the code for the iterator, such as
283 /// "public static IEnumerable<bool> function() { yield return false; }" 283 /// "public static IEnumerable<bool> function() { yield return false; }"
284 /// </param> 284 /// </param>
285 /// <param name="nArgs">the number of args in the function</param> 285 /// <param name="nArgs">the number of args in the function</param>
286 /// <param name="declaringClass">if not null, then use the functionCode inside a class which 286 /// <param name="declaringClass">if not null, then use the functionCode inside a class which
287 /// inherits from contextClass, so that references in functionCode to methods in declaringClass don't 287 /// inherits from contextClass, so that references in functionCode to methods in declaringClass don't
288 /// have to be qualified</param> 288 /// have to be qualified</param>
289 /// <returns>a new YP.IClause object on which you can call match(object[] args) where 289 /// <returns>a new YP.IClause object on which you can call match(object[] args) where
290 /// args length is nArgs</returns> 290 /// args length is nArgs</returns>
291 public static YP.IClause compileAnonymousFunction(string functionCode, int nArgs, Type declaringClass) 291 public static YP.IClause compileAnonymousFunction(string functionCode, int nArgs, Type declaringClass)
292 { 292 {
293 CompilerParameters parameters = new CompilerParameters(); 293 CompilerParameters parameters = new CompilerParameters();
294 // This gets the location of the System assembly. 294 // This gets the location of the System assembly.
295 parameters.ReferencedAssemblies.Add(typeof(System.Int32).Assembly.Location); 295 parameters.ReferencedAssemblies.Add(typeof(System.Int32).Assembly.Location);
296 // This gets the location of this assembly which also has YieldProlog.YP, etc. 296 // This gets the location of this assembly which also has YieldProlog.YP, etc.
297 parameters.ReferencedAssemblies.Add(typeof(YPCompiler).Assembly.Location); 297 parameters.ReferencedAssemblies.Add(typeof(YPCompiler).Assembly.Location);
298 if (declaringClass != null) 298 if (declaringClass != null)
299 parameters.ReferencedAssemblies.Add(declaringClass.Assembly.Location); 299 parameters.ReferencedAssemblies.Add(declaringClass.Assembly.Location);
300 parameters.GenerateInMemory = true; 300 parameters.GenerateInMemory = true;
301 301
302 StringBuilder sourceCode = new StringBuilder(); 302 StringBuilder sourceCode = new StringBuilder();
303 sourceCode.Append(@" 303 sourceCode.Append(@"
304using System; 304using System;
305using System.Collections.Generic; 305using System.Collections.Generic;
306using YieldProlog; 306using YieldProlog;
307 307
308namespace Temporary { 308namespace Temporary {
309 public class Temporary : YP.IClause { 309 public class Temporary : YP.IClause {
310 public class Inner" + (declaringClass == null ? "" : " : " + declaringClass.FullName) + @" { 310 public class Inner" + (declaringClass == null ? "" : " : " + declaringClass.FullName) + @" {
311"); 311");
312 sourceCode.Append(functionCode); 312 sourceCode.Append(functionCode);
313 // Basically, match applies the args to function. 313 // Basically, match applies the args to function.
314 sourceCode.Append(@" 314 sourceCode.Append(@"
315 } 315 }
316 public IEnumerable<bool> match(object[] args) { 316 public IEnumerable<bool> match(object[] args) {
317 return Inner.function("); 317 return Inner.function(");
318 if (nArgs >= 1) 318 if (nArgs >= 1)
319 sourceCode.Append("args[0]"); 319 sourceCode.Append("args[0]");
320 for (int i = 1; i < nArgs; ++i) 320 for (int i = 1; i < nArgs; ++i)
321 sourceCode.Append(", args[" + i + "]"); 321 sourceCode.Append(", args[" + i + "]");
322 sourceCode.Append(@"); 322 sourceCode.Append(@");
323 } 323 }
324 } 324 }
325} 325}
326"); 326");
327 327
328 CompilerResults results = CodeDomProvider.CreateProvider 328 CompilerResults results = CodeDomProvider.CreateProvider
329 ("CSharp").CompileAssemblyFromSource(parameters, sourceCode.ToString()); 329 ("CSharp").CompileAssemblyFromSource(parameters, sourceCode.ToString());
330 if (results.Errors.Count > 0) 330 if (results.Errors.Count > 0)
331 throw new Exception("Error evaluating code: " + results.Errors[0]); 331 throw new Exception("Error evaluating code: " + results.Errors[0]);
332 332
333 // Return a new Temporary.Temporary object. 333 // Return a new Temporary.Temporary object.
334 return (YP.IClause)results.CompiledAssembly.GetType 334 return (YP.IClause)results.CompiledAssembly.GetType
335 ("Temporary.Temporary").GetConstructor(Type.EmptyTypes).Invoke(null); 335 ("Temporary.Temporary").GetConstructor(Type.EmptyTypes).Invoke(null);
336 } 336 }
337 337
338 // Compiler output follows. 338 // Compiler output follows.
339 339
340 class YPInnerClass { } 340 class YPInnerClass { }
341 static Type getDeclaringClass() { return typeof(YPInnerClass).DeclaringType; } 341 static Type getDeclaringClass() { return typeof(YPInnerClass).DeclaringType; }
342 342
343 public static void repeatWrite(object arg1, object N) 343 public static void repeatWrite(object arg1, object N)
344 { 344 {
345 { 345 {
346 object _Value = arg1; 346 object _Value = arg1;
347 if (YP.termEqual(N, 0)) 347 if (YP.termEqual(N, 0))
348 { 348 {
349 return; 349 return;
350 } 350 }
351 } 351 }
352 { 352 {
353 object Value = arg1; 353 object Value = arg1;
354 Variable NextN = new Variable(); 354 Variable NextN = new Variable();
355 YP.write(Value); 355 YP.write(Value);
356 foreach (bool l2 in YP.unify(NextN, YP.subtract(N, 1))) 356 foreach (bool l2 in YP.unify(NextN, YP.subtract(N, 1)))
357 { 357 {
358 repeatWrite(Value, NextN); 358 repeatWrite(Value, NextN);
359 return; 359 return;
360 } 360 }
361 } 361 }
362 } 362 }
363 363
364 public static bool sameVariable(object Variable1, object Variable2) 364 public static bool sameVariable(object Variable1, object Variable2)
365 { 365 {
366 { 366 {
367 if (YP.var(Variable1)) 367 if (YP.var(Variable1))
368 { 368 {
369 if (YP.var(Variable2)) 369 if (YP.var(Variable2))
370 { 370 {
371 if (YP.termEqual(Variable1, Variable2)) 371 if (YP.termEqual(Variable1, Variable2))
372 { 372 {
373 return true; 373 return true;
374 } 374 }
375 } 375 }
376 } 376 }
377 } 377 }
378 return false; 378 return false;
379 } 379 }
380 380
381 public static IEnumerable<bool> makeFunctionPseudoCode(object RuleList, object FunctionCode) 381 public static IEnumerable<bool> makeFunctionPseudoCode(object RuleList, object FunctionCode)
382 { 382 {
383 { 383 {
384 Variable State = new Variable(); 384 Variable State = new Variable();
385 foreach (bool l2 in CompilerState.make(State)) 385 foreach (bool l2 in CompilerState.make(State))
386 { 386 {
387 CompilerState.assertPred(State, Atom.a(@"nl"), Atom.a(@"det")); 387 CompilerState.assertPred(State, Atom.a(@"nl"), Atom.a(@"det"));
388 CompilerState.assertPred(State, new Functor1(@"write", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"det")); 388 CompilerState.assertPred(State, new Functor1(@"write", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"det"));
389 CompilerState.assertPred(State, new Functor1(@"put_code", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"det")); 389 CompilerState.assertPred(State, new Functor1(@"put_code", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"det"));
390 CompilerState.assertPred(State, new Functor1(@"throw", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"det")); 390 CompilerState.assertPred(State, new Functor1(@"throw", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"det"));
391 CompilerState.assertPred(State, new Functor1(@"var", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 391 CompilerState.assertPred(State, new Functor1(@"var", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
392 CompilerState.assertPred(State, new Functor1(@"nonvar", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 392 CompilerState.assertPred(State, new Functor1(@"nonvar", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
393 CompilerState.assertPred(State, new Functor1(@"atom", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 393 CompilerState.assertPred(State, new Functor1(@"atom", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
394 CompilerState.assertPred(State, new Functor1(@"number", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 394 CompilerState.assertPred(State, new Functor1(@"number", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
395 CompilerState.assertPred(State, new Functor2(@"==", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 395 CompilerState.assertPred(State, new Functor2(@"==", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
396 CompilerState.assertPred(State, new Functor2(@"\==", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 396 CompilerState.assertPred(State, new Functor2(@"\==", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
397 CompilerState.assertPred(State, new Functor2(@"@<", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 397 CompilerState.assertPred(State, new Functor2(@"@<", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
398 CompilerState.assertPred(State, new Functor2(@"@=<", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 398 CompilerState.assertPred(State, new Functor2(@"@=<", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
399 CompilerState.assertPred(State, new Functor2(@"@>", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 399 CompilerState.assertPred(State, new Functor2(@"@>", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
400 CompilerState.assertPred(State, new Functor2(@"@>=", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet")); 400 CompilerState.assertPred(State, new Functor2(@"@>=", new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in")), new Functor2(@"::", Atom.a(@"univ"), Atom.a(@"in"))), Atom.a(@"semidet"));
401 processCompilerDirectives(RuleList, State); 401 processCompilerDirectives(RuleList, State);
402 foreach (bool l3 in YP.unify(FunctionCode, Atom.a(@"getDeclaringClass"))) 402 foreach (bool l3 in YP.unify(FunctionCode, Atom.a(@"getDeclaringClass")))
403 { 403 {
404 yield return false; 404 yield return false;
405 } 405 }
406 foreach (bool l3 in makeFunctionPseudoCode3(RuleList, State, FunctionCode)) 406 foreach (bool l3 in makeFunctionPseudoCode3(RuleList, State, FunctionCode))
407 { 407 {
408 yield return false; 408 yield return false;
409 } 409 }
410 } 410 }
411 } 411 }
412 } 412 }
413 413
414 public static void processCompilerDirectives(object arg1, object arg2) 414 public static void processCompilerDirectives(object arg1, object arg2)
415 { 415 {
416 { 416 {
417 object _State = arg2; 417 object _State = arg2;
418 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 418 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
419 { 419 {
420 return; 420 return;
421 } 421 }
422 } 422 }
423 { 423 {
424 object State = arg2; 424 object State = arg2;
425 Variable Pred = new Variable(); 425 Variable Pred = new Variable();
426 Variable Determinism = new Variable(); 426 Variable Determinism = new Variable();
427 Variable x3 = new Variable(); 427 Variable x3 = new Variable();
428 Variable RestRules = new Variable(); 428 Variable RestRules = new Variable();
429 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", new Functor1(@":-", new Functor1(@"pred", new Functor2(@"is", Pred, Determinism))), x3), RestRules))) 429 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", new Functor1(@":-", new Functor1(@"pred", new Functor2(@"is", Pred, Determinism))), x3), RestRules)))
430 { 430 {
431 CompilerState.assertPred(State, Pred, Determinism); 431 CompilerState.assertPred(State, Pred, Determinism);
432 processCompilerDirectives(RestRules, State); 432 processCompilerDirectives(RestRules, State);
433 return; 433 return;
434 } 434 }
435 } 435 }
436 { 436 {
437 object State = arg2; 437 object State = arg2;
438 Variable Module = new Variable(); 438 Variable Module = new Variable();
439 Variable PredicateList = new Variable(); 439 Variable PredicateList = new Variable();
440 Variable x3 = new Variable(); 440 Variable x3 = new Variable();
441 Variable RestRules = new Variable(); 441 Variable RestRules = new Variable();
442 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", new Functor1(@":-", new Functor2(@"import", Module, PredicateList)), x3), RestRules))) 442 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", new Functor1(@":-", new Functor2(@"import", Module, PredicateList)), x3), RestRules)))
443 { 443 {
444 foreach (bool l3 in importPredicateList(State, Module, PredicateList)) 444 foreach (bool l3 in importPredicateList(State, Module, PredicateList))
445 { 445 {
446 processCompilerDirectives(RestRules, State); 446 processCompilerDirectives(RestRules, State);
447 return; 447 return;
448 } 448 }
449 } 449 }
450 } 450 }
451 { 451 {
452 object State = arg2; 452 object State = arg2;
453 Variable x1 = new Variable(); 453 Variable x1 = new Variable();
454 Variable x2 = new Variable(); 454 Variable x2 = new Variable();
455 Variable RestRules = new Variable(); 455 Variable RestRules = new Variable();
456 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", new Functor1(@":-", x1), x2), RestRules))) 456 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", new Functor1(@":-", x1), x2), RestRules)))
457 { 457 {
458 processCompilerDirectives(RestRules, State); 458 processCompilerDirectives(RestRules, State);
459 return; 459 return;
460 } 460 }
461 } 461 }
462 { 462 {
463 object State = arg2; 463 object State = arg2;
464 Variable Head = new Variable(); 464 Variable Head = new Variable();
465 Variable _Body = new Variable(); 465 Variable _Body = new Variable();
466 Variable x3 = new Variable(); 466 Variable x3 = new Variable();
467 Variable RestRules = new Variable(); 467 Variable RestRules = new Variable();
468 Variable Name = new Variable(); 468 Variable Name = new Variable();
469 Variable Arity = new Variable(); 469 Variable Arity = new Variable();
470 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", new Functor2(@":-", Head, _Body), x3), RestRules))) 470 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", new Functor2(@":-", Head, _Body), x3), RestRules)))
471 { 471 {
472 foreach (bool l3 in YP.functor(Head, Name, Arity)) 472 foreach (bool l3 in YP.functor(Head, Name, Arity))
473 { 473 {
474 CompilerState.assertModuleForNameArity(State, Name, Arity, Atom.a(@"")); 474 CompilerState.assertModuleForNameArity(State, Name, Arity, Atom.a(@""));
475 processCompilerDirectives(RestRules, State); 475 processCompilerDirectives(RestRules, State);
476 return; 476 return;
477 } 477 }
478 } 478 }
479 } 479 }
480 { 480 {
481 object State = arg2; 481 object State = arg2;
482 Variable Fact = new Variable(); 482 Variable Fact = new Variable();
483 Variable x2 = new Variable(); 483 Variable x2 = new Variable();
484 Variable RestRules = new Variable(); 484 Variable RestRules = new Variable();
485 Variable Name = new Variable(); 485 Variable Name = new Variable();
486 Variable Arity = new Variable(); 486 Variable Arity = new Variable();
487 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", Fact, x2), RestRules))) 487 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", Fact, x2), RestRules)))
488 { 488 {
489 foreach (bool l3 in YP.functor(Fact, Name, Arity)) 489 foreach (bool l3 in YP.functor(Fact, Name, Arity))
490 { 490 {
491 CompilerState.assertModuleForNameArity(State, Name, Arity, Atom.a(@"")); 491 CompilerState.assertModuleForNameArity(State, Name, Arity, Atom.a(@""));
492 processCompilerDirectives(RestRules, State); 492 processCompilerDirectives(RestRules, State);
493 return; 493 return;
494 } 494 }
495 } 495 }
496 } 496 }
497 { 497 {
498 object State = arg2; 498 object State = arg2;
499 Variable x1 = new Variable(); 499 Variable x1 = new Variable();
500 Variable RestRules = new Variable(); 500 Variable RestRules = new Variable();
501 foreach (bool l2 in YP.unify(arg1, new ListPair(x1, RestRules))) 501 foreach (bool l2 in YP.unify(arg1, new ListPair(x1, RestRules)))
502 { 502 {
503 processCompilerDirectives(RestRules, State); 503 processCompilerDirectives(RestRules, State);
504 return; 504 return;
505 } 505 }
506 } 506 }
507 } 507 }
508 508
509 public static IEnumerable<bool> importPredicateList(object arg1, object arg2, object arg3) 509 public static IEnumerable<bool> importPredicateList(object arg1, object arg2, object arg3)
510 { 510 {
511 { 511 {
512 object _State = arg1; 512 object _State = arg1;
513 object _Module = arg2; 513 object _Module = arg2;
514 foreach (bool l2 in YP.unify(arg3, Atom.NIL)) 514 foreach (bool l2 in YP.unify(arg3, Atom.NIL))
515 { 515 {
516 yield return true; 516 yield return true;
517 yield break; 517 yield break;
518 } 518 }
519 } 519 }
520 { 520 {
521 object State = arg1; 521 object State = arg1;
522 object Module = arg2; 522 object Module = arg2;
523 Variable Name = new Variable(); 523 Variable Name = new Variable();
524 Variable Arity = new Variable(); 524 Variable Arity = new Variable();
525 Variable Rest = new Variable(); 525 Variable Rest = new Variable();
526 foreach (bool l2 in YP.unify(arg3, new ListPair(new Functor2(@"/", Name, Arity), Rest))) 526 foreach (bool l2 in YP.unify(arg3, new ListPair(new Functor2(@"/", Name, Arity), Rest)))
527 { 527 {
528 CompilerState.assertModuleForNameArity(State, Name, Arity, Module); 528 CompilerState.assertModuleForNameArity(State, Name, Arity, Module);
529 foreach (bool l3 in importPredicateList(State, Module, Rest)) 529 foreach (bool l3 in importPredicateList(State, Module, Rest))
530 { 530 {
531 yield return true; 531 yield return true;
532 yield break; 532 yield break;
533 } 533 }
534 } 534 }
535 } 535 }
536 { 536 {
537 object State = arg1; 537 object State = arg1;
538 object Module = arg2; 538 object Module = arg2;
539 Variable x3 = new Variable(); 539 Variable x3 = new Variable();
540 Variable Rest = new Variable(); 540 Variable Rest = new Variable();
541 foreach (bool l2 in YP.unify(arg3, new ListPair(x3, Rest))) 541 foreach (bool l2 in YP.unify(arg3, new ListPair(x3, Rest)))
542 { 542 {
543 foreach (bool l3 in importPredicateList(State, Module, Rest)) 543 foreach (bool l3 in importPredicateList(State, Module, Rest))
544 { 544 {
545 yield return true; 545 yield return true;
546 yield break; 546 yield break;
547 } 547 }
548 } 548 }
549 } 549 }
550 } 550 }
551 551
552 public static IEnumerable<bool> makeFunctionPseudoCode3(object RuleList, object State, object FunctionCode) 552 public static IEnumerable<bool> makeFunctionPseudoCode3(object RuleList, object State, object FunctionCode)
553 { 553 {
554 { 554 {
555 Variable SamePredicateRuleList = new Variable(); 555 Variable SamePredicateRuleList = new Variable();
556 Variable RestRules = new Variable(); 556 Variable RestRules = new Variable();
557 foreach (bool l2 in samePredicateRuleList(RuleList, SamePredicateRuleList, RestRules)) 557 foreach (bool l2 in samePredicateRuleList(RuleList, SamePredicateRuleList, RestRules))
558 { 558 {
559 if (YP.termNotEqual(SamePredicateRuleList, Atom.NIL)) 559 if (YP.termNotEqual(SamePredicateRuleList, Atom.NIL))
560 { 560 {
561 foreach (bool l4 in compileSamePredicateFunction(SamePredicateRuleList, State, FunctionCode)) 561 foreach (bool l4 in compileSamePredicateFunction(SamePredicateRuleList, State, FunctionCode))
562 { 562 {
563 yield return false; 563 yield return false;
564 } 564 }
565 foreach (bool l4 in makeFunctionPseudoCode3(RestRules, State, FunctionCode)) 565 foreach (bool l4 in makeFunctionPseudoCode3(RestRules, State, FunctionCode))
566 { 566 {
567 yield return false; 567 yield return false;
568 } 568 }
569 } 569 }
570 } 570 }
571 } 571 }
572 } 572 }
573 573
574 public static IEnumerable<bool> compileSamePredicateFunction(object SamePredicateRuleList, object State, object FunctionCode) 574 public static IEnumerable<bool> compileSamePredicateFunction(object SamePredicateRuleList, object State, object FunctionCode)
575 { 575 {
576 { 576 {
577 Variable FirstRule = new Variable(); 577 Variable FirstRule = new Variable();
578 Variable x5 = new Variable(); 578 Variable x5 = new Variable();
579 Variable x6 = new Variable(); 579 Variable x6 = new Variable();
580 Variable x7 = new Variable(); 580 Variable x7 = new Variable();
581 Variable Head = new Variable(); 581 Variable Head = new Variable();
582 Variable x9 = new Variable(); 582 Variable x9 = new Variable();
583 Variable ArgAssignments = new Variable(); 583 Variable ArgAssignments = new Variable();
584 Variable Calls = new Variable(); 584 Variable Calls = new Variable();
585 Variable Rule = new Variable(); 585 Variable Rule = new Variable();
586 Variable VariableNameSuggestions = new Variable(); 586 Variable VariableNameSuggestions = new Variable();
587 Variable ClauseBag = new Variable(); 587 Variable ClauseBag = new Variable();
588 Variable Name = new Variable(); 588 Variable Name = new Variable();
589 Variable ArgsList = new Variable(); 589 Variable ArgsList = new Variable();
590 Variable FunctionArgNames = new Variable(); 590 Variable FunctionArgNames = new Variable();
591 Variable MergedArgName = new Variable(); 591 Variable MergedArgName = new Variable();
592 Variable ArgName = new Variable(); 592 Variable ArgName = new Variable();
593 Variable MergedArgNames = new Variable(); 593 Variable MergedArgNames = new Variable();
594 Variable FunctionArgs = new Variable(); 594 Variable FunctionArgs = new Variable();
595 Variable BodyCode = new Variable(); 595 Variable BodyCode = new Variable();
596 Variable ReturnType = new Variable(); 596 Variable ReturnType = new Variable();
597 Variable BodyWithReturn = new Variable(); 597 Variable BodyWithReturn = new Variable();
598 foreach (bool l2 in YP.unify(new ListPair(new Functor2(@"f", FirstRule, x5), x6), SamePredicateRuleList)) 598 foreach (bool l2 in YP.unify(new ListPair(new Functor2(@"f", FirstRule, x5), x6), SamePredicateRuleList))
599 { 599 {
600 foreach (bool l3 in YP.unify(FirstRule, new Functor1(@":-", x7))) 600 foreach (bool l3 in YP.unify(FirstRule, new Functor1(@":-", x7)))
601 { 601 {
602 goto cutIf1; 602 goto cutIf1;
603 } 603 }
604 foreach (bool l3 in YP.unify(new Functor2(@":-", Head, x9), FirstRule)) 604 foreach (bool l3 in YP.unify(new Functor2(@":-", Head, x9), FirstRule))
605 { 605 {
606 CompilerState.startFunction(State, Head); 606 CompilerState.startFunction(State, Head);
607 FindallAnswers findallAnswers3 = new FindallAnswers(new Functor2(@"f", ArgAssignments, Calls)); 607 FindallAnswers findallAnswers3 = new FindallAnswers(new Functor2(@"f", ArgAssignments, Calls));
608 foreach (bool l4 in member(new Functor2(@"f", Rule, VariableNameSuggestions), SamePredicateRuleList)) 608 foreach (bool l4 in member(new Functor2(@"f", Rule, VariableNameSuggestions), SamePredicateRuleList))
609 { 609 {
610 foreach (bool l5 in compileBodyWithHeadBindings(Rule, VariableNameSuggestions, State, ArgAssignments, Calls)) 610 foreach (bool l5 in compileBodyWithHeadBindings(Rule, VariableNameSuggestions, State, ArgAssignments, Calls))
611 { 611 {
612 findallAnswers3.add(); 612 findallAnswers3.add();
613 } 613 }
614 } 614 }
615 foreach (bool l4 in findallAnswers3.result(ClauseBag)) 615 foreach (bool l4 in findallAnswers3.result(ClauseBag))
616 { 616 {
617 foreach (bool l5 in YP.univ(Head, new ListPair(Name, ArgsList))) 617 foreach (bool l5 in YP.univ(Head, new ListPair(Name, ArgsList)))
618 { 618 {
619 foreach (bool l6 in getFunctionArgNames(ArgsList, 1, FunctionArgNames)) 619 foreach (bool l6 in getFunctionArgNames(ArgsList, 1, FunctionArgNames))
620 { 620 {
621 FindallAnswers findallAnswers4 = new FindallAnswers(MergedArgName); 621 FindallAnswers findallAnswers4 = new FindallAnswers(MergedArgName);
622 foreach (bool l7 in member(ArgName, FunctionArgNames)) 622 foreach (bool l7 in member(ArgName, FunctionArgNames))
623 { 623 {
624 foreach (bool l8 in argAssignedAll(ArgName, ClauseBag, MergedArgName)) 624 foreach (bool l8 in argAssignedAll(ArgName, ClauseBag, MergedArgName))
625 { 625 {
626 findallAnswers4.add(); 626 findallAnswers4.add();
627 goto cutIf5; 627 goto cutIf5;
628 } 628 }
629 foreach (bool l8 in YP.unify(MergedArgName, ArgName)) 629 foreach (bool l8 in YP.unify(MergedArgName, ArgName))
630 { 630 {
631 findallAnswers4.add(); 631 findallAnswers4.add();
632 } 632 }
633 cutIf5: 633 cutIf5:
634 { } 634 { }
635 } 635 }
636 foreach (bool l7 in findallAnswers4.result(MergedArgNames)) 636 foreach (bool l7 in findallAnswers4.result(MergedArgNames))
637 { 637 {
638 foreach (bool l8 in maplist_arg(MergedArgNames, FunctionArgs)) 638 foreach (bool l8 in maplist_arg(MergedArgNames, FunctionArgs))
639 { 639 {
640 foreach (bool l9 in maplist_compileClause(ClauseBag, MergedArgNames, BodyCode)) 640 foreach (bool l9 in maplist_compileClause(ClauseBag, MergedArgNames, BodyCode))
641 { 641 {
642 if (CompilerState.determinismEquals(State, Atom.a(@"detNoneOut"))) 642 if (CompilerState.determinismEquals(State, Atom.a(@"detNoneOut")))
643 { 643 {
644 foreach (bool l11 in YP.unify(ReturnType, Atom.a(@"void"))) 644 foreach (bool l11 in YP.unify(ReturnType, Atom.a(@"void")))
645 { 645 {
646 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 646 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
647 { 647 {
648 foreach (bool l13 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn)) 648 foreach (bool l13 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn))
649 { 649 {
650 foreach (bool l14 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 650 foreach (bool l14 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
651 { 651 {
652 yield return false; 652 yield return false;
653 } 653 }
654 } 654 }
655 goto cutIf7; 655 goto cutIf7;
656 } 656 }
657 foreach (bool l12 in YP.unify(BodyWithReturn, BodyCode)) 657 foreach (bool l12 in YP.unify(BodyWithReturn, BodyCode))
658 { 658 {
659 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 659 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
660 { 660 {
661 yield return false; 661 yield return false;
662 } 662 }
663 } 663 }
664 cutIf7: 664 cutIf7:
665 { } 665 { }
666 } 666 }
667 goto cutIf6; 667 goto cutIf6;
668 } 668 }
669 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 669 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
670 { 670 {
671 foreach (bool l11 in YP.unify(ReturnType, Atom.a(@"bool"))) 671 foreach (bool l11 in YP.unify(ReturnType, Atom.a(@"bool")))
672 { 672 {
673 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 673 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
674 { 674 {
675 foreach (bool l13 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn)) 675 foreach (bool l13 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn))
676 { 676 {
677 foreach (bool l14 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 677 foreach (bool l14 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
678 { 678 {
679 yield return false; 679 yield return false;
680 } 680 }
681 } 681 }
682 goto cutIf9; 682 goto cutIf9;
683 } 683 }
684 foreach (bool l12 in YP.unify(BodyWithReturn, BodyCode)) 684 foreach (bool l12 in YP.unify(BodyWithReturn, BodyCode))
685 { 685 {
686 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 686 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
687 { 687 {
688 yield return false; 688 yield return false;
689 } 689 }
690 } 690 }
691 cutIf9: 691 cutIf9:
692 { } 692 { }
693 } 693 }
694 goto cutIf8; 694 goto cutIf8;
695 } 695 }
696 foreach (bool l10 in YP.unify(ReturnType, Atom.a(@"IEnumerable<bool>"))) 696 foreach (bool l10 in YP.unify(ReturnType, Atom.a(@"IEnumerable<bool>")))
697 { 697 {
698 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 698 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
699 { 699 {
700 foreach (bool l12 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn)) 700 foreach (bool l12 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn))
701 { 701 {
702 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 702 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
703 { 703 {
704 yield return false; 704 yield return false;
705 } 705 }
706 } 706 }
707 goto cutIf10; 707 goto cutIf10;
708 } 708 }
709 foreach (bool l11 in YP.unify(BodyWithReturn, BodyCode)) 709 foreach (bool l11 in YP.unify(BodyWithReturn, BodyCode))
710 { 710 {
711 foreach (bool l12 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 711 foreach (bool l12 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
712 { 712 {
713 yield return false; 713 yield return false;
714 } 714 }
715 } 715 }
716 cutIf10: 716 cutIf10:
717 { } 717 { }
718 } 718 }
719 cutIf8: 719 cutIf8:
720 cutIf6: 720 cutIf6:
721 { } 721 { }
722 } 722 }
723 } 723 }
724 } 724 }
725 } 725 }
726 } 726 }
727 } 727 }
728 goto cutIf2; 728 goto cutIf2;
729 } 729 }
730 foreach (bool l3 in YP.unify(Head, FirstRule)) 730 foreach (bool l3 in YP.unify(Head, FirstRule))
731 { 731 {
732 CompilerState.startFunction(State, Head); 732 CompilerState.startFunction(State, Head);
733 FindallAnswers findallAnswers11 = new FindallAnswers(new Functor2(@"f", ArgAssignments, Calls)); 733 FindallAnswers findallAnswers11 = new FindallAnswers(new Functor2(@"f", ArgAssignments, Calls));
734 foreach (bool l4 in member(new Functor2(@"f", Rule, VariableNameSuggestions), SamePredicateRuleList)) 734 foreach (bool l4 in member(new Functor2(@"f", Rule, VariableNameSuggestions), SamePredicateRuleList))
735 { 735 {
736 foreach (bool l5 in compileBodyWithHeadBindings(Rule, VariableNameSuggestions, State, ArgAssignments, Calls)) 736 foreach (bool l5 in compileBodyWithHeadBindings(Rule, VariableNameSuggestions, State, ArgAssignments, Calls))
737 { 737 {
738 findallAnswers11.add(); 738 findallAnswers11.add();
739 } 739 }
740 } 740 }
741 foreach (bool l4 in findallAnswers11.result(ClauseBag)) 741 foreach (bool l4 in findallAnswers11.result(ClauseBag))
742 { 742 {
743 foreach (bool l5 in YP.univ(Head, new ListPair(Name, ArgsList))) 743 foreach (bool l5 in YP.univ(Head, new ListPair(Name, ArgsList)))
744 { 744 {
745 foreach (bool l6 in getFunctionArgNames(ArgsList, 1, FunctionArgNames)) 745 foreach (bool l6 in getFunctionArgNames(ArgsList, 1, FunctionArgNames))
746 { 746 {
747 FindallAnswers findallAnswers12 = new FindallAnswers(MergedArgName); 747 FindallAnswers findallAnswers12 = new FindallAnswers(MergedArgName);
748 foreach (bool l7 in member(ArgName, FunctionArgNames)) 748 foreach (bool l7 in member(ArgName, FunctionArgNames))
749 { 749 {
750 foreach (bool l8 in argAssignedAll(ArgName, ClauseBag, MergedArgName)) 750 foreach (bool l8 in argAssignedAll(ArgName, ClauseBag, MergedArgName))
751 { 751 {
752 findallAnswers12.add(); 752 findallAnswers12.add();
753 goto cutIf13; 753 goto cutIf13;
754 } 754 }
755 foreach (bool l8 in YP.unify(MergedArgName, ArgName)) 755 foreach (bool l8 in YP.unify(MergedArgName, ArgName))
756 { 756 {
757 findallAnswers12.add(); 757 findallAnswers12.add();
758 } 758 }
759 cutIf13: 759 cutIf13:
760 { } 760 { }
761 } 761 }
762 foreach (bool l7 in findallAnswers12.result(MergedArgNames)) 762 foreach (bool l7 in findallAnswers12.result(MergedArgNames))
763 { 763 {
764 foreach (bool l8 in maplist_arg(MergedArgNames, FunctionArgs)) 764 foreach (bool l8 in maplist_arg(MergedArgNames, FunctionArgs))
765 { 765 {
766 foreach (bool l9 in maplist_compileClause(ClauseBag, MergedArgNames, BodyCode)) 766 foreach (bool l9 in maplist_compileClause(ClauseBag, MergedArgNames, BodyCode))
767 { 767 {
768 if (CompilerState.determinismEquals(State, Atom.a(@"detNoneOut"))) 768 if (CompilerState.determinismEquals(State, Atom.a(@"detNoneOut")))
769 { 769 {
770 foreach (bool l11 in YP.unify(ReturnType, Atom.a(@"void"))) 770 foreach (bool l11 in YP.unify(ReturnType, Atom.a(@"void")))
771 { 771 {
772 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 772 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
773 { 773 {
774 foreach (bool l13 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn)) 774 foreach (bool l13 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn))
775 { 775 {
776 foreach (bool l14 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 776 foreach (bool l14 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
777 { 777 {
778 yield return false; 778 yield return false;
779 } 779 }
780 } 780 }
781 goto cutIf15; 781 goto cutIf15;
782 } 782 }
783 foreach (bool l12 in YP.unify(BodyWithReturn, BodyCode)) 783 foreach (bool l12 in YP.unify(BodyWithReturn, BodyCode))
784 { 784 {
785 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 785 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
786 { 786 {
787 yield return false; 787 yield return false;
788 } 788 }
789 } 789 }
790 cutIf15: 790 cutIf15:
791 { } 791 { }
792 } 792 }
793 goto cutIf14; 793 goto cutIf14;
794 } 794 }
795 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 795 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
796 { 796 {
797 foreach (bool l11 in YP.unify(ReturnType, Atom.a(@"bool"))) 797 foreach (bool l11 in YP.unify(ReturnType, Atom.a(@"bool")))
798 { 798 {
799 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 799 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
800 { 800 {
801 foreach (bool l13 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn)) 801 foreach (bool l13 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn))
802 { 802 {
803 foreach (bool l14 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 803 foreach (bool l14 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
804 { 804 {
805 yield return false; 805 yield return false;
806 } 806 }
807 } 807 }
808 goto cutIf17; 808 goto cutIf17;
809 } 809 }
810 foreach (bool l12 in YP.unify(BodyWithReturn, BodyCode)) 810 foreach (bool l12 in YP.unify(BodyWithReturn, BodyCode))
811 { 811 {
812 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 812 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
813 { 813 {
814 yield return false; 814 yield return false;
815 } 815 }
816 } 816 }
817 cutIf17: 817 cutIf17:
818 { } 818 { }
819 } 819 }
820 goto cutIf16; 820 goto cutIf16;
821 } 821 }
822 foreach (bool l10 in YP.unify(ReturnType, Atom.a(@"IEnumerable<bool>"))) 822 foreach (bool l10 in YP.unify(ReturnType, Atom.a(@"IEnumerable<bool>")))
823 { 823 {
824 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 824 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
825 { 825 {
826 foreach (bool l12 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn)) 826 foreach (bool l12 in append(BodyCode, new ListPair(Atom.a(@"returnfalse"), Atom.NIL), BodyWithReturn))
827 { 827 {
828 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 828 foreach (bool l13 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
829 { 829 {
830 yield return false; 830 yield return false;
831 } 831 }
832 } 832 }
833 goto cutIf18; 833 goto cutIf18;
834 } 834 }
835 foreach (bool l11 in YP.unify(BodyWithReturn, BodyCode)) 835 foreach (bool l11 in YP.unify(BodyWithReturn, BodyCode))
836 { 836 {
837 foreach (bool l12 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn }))) 837 foreach (bool l12 in YP.unify(FunctionCode, new Functor(@"function", new object[] { ReturnType, Name, FunctionArgs, BodyWithReturn })))
838 { 838 {
839 yield return false; 839 yield return false;
840 } 840 }
841 } 841 }
842 cutIf18: 842 cutIf18:
843 { } 843 { }
844 } 844 }
845 cutIf16: 845 cutIf16:
846 cutIf14: 846 cutIf14:
847 { } 847 { }
848 } 848 }
849 } 849 }
850 } 850 }
851 } 851 }
852 } 852 }
853 } 853 }
854 } 854 }
855 cutIf2: 855 cutIf2:
856 cutIf1: 856 cutIf1:
857 { } 857 { }
858 } 858 }
859 } 859 }
860 } 860 }
861 861
862 public static IEnumerable<bool> samePredicateRuleList(object arg1, object arg2, object arg3) 862 public static IEnumerable<bool> samePredicateRuleList(object arg1, object arg2, object arg3)
863 { 863 {
864 { 864 {
865 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 865 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
866 { 866 {
867 foreach (bool l3 in YP.unify(arg2, Atom.NIL)) 867 foreach (bool l3 in YP.unify(arg2, Atom.NIL))
868 { 868 {
869 foreach (bool l4 in YP.unify(arg3, Atom.NIL)) 869 foreach (bool l4 in YP.unify(arg3, Atom.NIL))
870 { 870 {
871 yield return true; 871 yield return true;
872 yield break; 872 yield break;
873 } 873 }
874 } 874 }
875 } 875 }
876 } 876 }
877 { 877 {
878 Variable First = new Variable(); 878 Variable First = new Variable();
879 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Atom.NIL))) 879 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Atom.NIL)))
880 { 880 {
881 foreach (bool l3 in YP.unify(arg2, new ListPair(First, Atom.NIL))) 881 foreach (bool l3 in YP.unify(arg2, new ListPair(First, Atom.NIL)))
882 { 882 {
883 foreach (bool l4 in YP.unify(arg3, Atom.NIL)) 883 foreach (bool l4 in YP.unify(arg3, Atom.NIL))
884 { 884 {
885 yield return true; 885 yield return true;
886 yield break; 886 yield break;
887 } 887 }
888 } 888 }
889 } 889 }
890 } 890 }
891 { 891 {
892 object SamePredicateRuleList = arg2; 892 object SamePredicateRuleList = arg2;
893 object RestRules = arg3; 893 object RestRules = arg3;
894 Variable First = new Variable(); 894 Variable First = new Variable();
895 Variable Rest = new Variable(); 895 Variable Rest = new Variable();
896 Variable FirstRule = new Variable(); 896 Variable FirstRule = new Variable();
897 Variable x6 = new Variable(); 897 Variable x6 = new Variable();
898 Variable SecondRule = new Variable(); 898 Variable SecondRule = new Variable();
899 Variable x8 = new Variable(); 899 Variable x8 = new Variable();
900 Variable x9 = new Variable(); 900 Variable x9 = new Variable();
901 Variable FirstHead = new Variable(); 901 Variable FirstHead = new Variable();
902 Variable x11 = new Variable(); 902 Variable x11 = new Variable();
903 Variable SecondHead = new Variable(); 903 Variable SecondHead = new Variable();
904 Variable x13 = new Variable(); 904 Variable x13 = new Variable();
905 Variable Name = new Variable(); 905 Variable Name = new Variable();
906 Variable Arity = new Variable(); 906 Variable Arity = new Variable();
907 Variable RestSamePredicates = new Variable(); 907 Variable RestSamePredicates = new Variable();
908 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Rest))) 908 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Rest)))
909 { 909 {
910 foreach (bool l3 in YP.unify(new Functor2(@"f", FirstRule, x6), First)) 910 foreach (bool l3 in YP.unify(new Functor2(@"f", FirstRule, x6), First))
911 { 911 {
912 foreach (bool l4 in YP.unify(new ListPair(new Functor2(@"f", SecondRule, x8), x9), Rest)) 912 foreach (bool l4 in YP.unify(new ListPair(new Functor2(@"f", SecondRule, x8), x9), Rest))
913 { 913 {
914 foreach (bool l5 in YP.unify(new Functor2(@":-", FirstHead, x11), FirstRule)) 914 foreach (bool l5 in YP.unify(new Functor2(@":-", FirstHead, x11), FirstRule))
915 { 915 {
916 foreach (bool l6 in YP.unify(new Functor2(@":-", SecondHead, x13), SecondRule)) 916 foreach (bool l6 in YP.unify(new Functor2(@":-", SecondHead, x13), SecondRule))
917 { 917 {
918 foreach (bool l7 in YP.functor(FirstHead, Name, Arity)) 918 foreach (bool l7 in YP.functor(FirstHead, Name, Arity))
919 { 919 {
920 foreach (bool l8 in YP.functor(SecondHead, Name, Arity)) 920 foreach (bool l8 in YP.functor(SecondHead, Name, Arity))
921 { 921 {
922 foreach (bool l9 in samePredicateRuleList(Rest, RestSamePredicates, RestRules)) 922 foreach (bool l9 in samePredicateRuleList(Rest, RestSamePredicates, RestRules))
923 { 923 {
924 foreach (bool l10 in YP.unify(SamePredicateRuleList, new ListPair(First, RestSamePredicates))) 924 foreach (bool l10 in YP.unify(SamePredicateRuleList, new ListPair(First, RestSamePredicates)))
925 { 925 {
926 yield return true; 926 yield return true;
927 yield break; 927 yield break;
928 } 928 }
929 } 929 }
930 goto cutIf3; 930 goto cutIf3;
931 } 931 }
932 foreach (bool l8 in YP.unify(SamePredicateRuleList, new ListPair(First, Atom.NIL))) 932 foreach (bool l8 in YP.unify(SamePredicateRuleList, new ListPair(First, Atom.NIL)))
933 { 933 {
934 foreach (bool l9 in YP.unify(RestRules, Rest)) 934 foreach (bool l9 in YP.unify(RestRules, Rest))
935 { 935 {
936 yield return true; 936 yield return true;
937 yield break; 937 yield break;
938 } 938 }
939 } 939 }
940 cutIf3: 940 cutIf3:
941 { } 941 { }
942 } 942 }
943 goto cutIf2; 943 goto cutIf2;
944 } 944 }
945 foreach (bool l6 in YP.unify(SecondHead, SecondRule)) 945 foreach (bool l6 in YP.unify(SecondHead, SecondRule))
946 { 946 {
947 foreach (bool l7 in YP.functor(FirstHead, Name, Arity)) 947 foreach (bool l7 in YP.functor(FirstHead, Name, Arity))
948 { 948 {
949 foreach (bool l8 in YP.functor(SecondHead, Name, Arity)) 949 foreach (bool l8 in YP.functor(SecondHead, Name, Arity))
950 { 950 {
951 foreach (bool l9 in samePredicateRuleList(Rest, RestSamePredicates, RestRules)) 951 foreach (bool l9 in samePredicateRuleList(Rest, RestSamePredicates, RestRules))
952 { 952 {
953 foreach (bool l10 in YP.unify(SamePredicateRuleList, new ListPair(First, RestSamePredicates))) 953 foreach (bool l10 in YP.unify(SamePredicateRuleList, new ListPair(First, RestSamePredicates)))
954 { 954 {
955 yield return true; 955 yield return true;
956 yield break; 956 yield break;
957 } 957 }
958 } 958 }
959 goto cutIf4; 959 goto cutIf4;
960 } 960 }
961 foreach (bool l8 in YP.unify(SamePredicateRuleList, new ListPair(First, Atom.NIL))) 961 foreach (bool l8 in YP.unify(SamePredicateRuleList, new ListPair(First, Atom.NIL)))
962 { 962 {
963 foreach (bool l9 in YP.unify(RestRules, Rest)) 963 foreach (bool l9 in YP.unify(RestRules, Rest))
964 { 964 {
965 yield return true; 965 yield return true;
966 yield break; 966 yield break;
967 } 967 }
968 } 968 }
969 cutIf4: 969 cutIf4:
970 { } 970 { }
971 } 971 }
972 } 972 }
973 cutIf2: 973 cutIf2:
974 goto cutIf1; 974 goto cutIf1;
975 } 975 }
976 foreach (bool l5 in YP.unify(FirstHead, FirstRule)) 976 foreach (bool l5 in YP.unify(FirstHead, FirstRule))
977 { 977 {
978 foreach (bool l6 in YP.unify(new Functor2(@":-", SecondHead, x13), SecondRule)) 978 foreach (bool l6 in YP.unify(new Functor2(@":-", SecondHead, x13), SecondRule))
979 { 979 {
980 foreach (bool l7 in YP.functor(FirstHead, Name, Arity)) 980 foreach (bool l7 in YP.functor(FirstHead, Name, Arity))
981 { 981 {
982 foreach (bool l8 in YP.functor(SecondHead, Name, Arity)) 982 foreach (bool l8 in YP.functor(SecondHead, Name, Arity))
983 { 983 {
984 foreach (bool l9 in samePredicateRuleList(Rest, RestSamePredicates, RestRules)) 984 foreach (bool l9 in samePredicateRuleList(Rest, RestSamePredicates, RestRules))
985 { 985 {
986 foreach (bool l10 in YP.unify(SamePredicateRuleList, new ListPair(First, RestSamePredicates))) 986 foreach (bool l10 in YP.unify(SamePredicateRuleList, new ListPair(First, RestSamePredicates)))
987 { 987 {
988 yield return true; 988 yield return true;
989 yield break; 989 yield break;
990 } 990 }
991 } 991 }
992 goto cutIf6; 992 goto cutIf6;
993 } 993 }
994 foreach (bool l8 in YP.unify(SamePredicateRuleList, new ListPair(First, Atom.NIL))) 994 foreach (bool l8 in YP.unify(SamePredicateRuleList, new ListPair(First, Atom.NIL)))
995 { 995 {
996 foreach (bool l9 in YP.unify(RestRules, Rest)) 996 foreach (bool l9 in YP.unify(RestRules, Rest))
997 { 997 {
998 yield return true; 998 yield return true;
999 yield break; 999 yield break;
1000 } 1000 }
1001 } 1001 }
1002 cutIf6: 1002 cutIf6:
1003 { } 1003 { }
1004 } 1004 }
1005 goto cutIf5; 1005 goto cutIf5;
1006 } 1006 }
1007 foreach (bool l6 in YP.unify(SecondHead, SecondRule)) 1007 foreach (bool l6 in YP.unify(SecondHead, SecondRule))
1008 { 1008 {
1009 foreach (bool l7 in YP.functor(FirstHead, Name, Arity)) 1009 foreach (bool l7 in YP.functor(FirstHead, Name, Arity))
1010 { 1010 {
1011 foreach (bool l8 in YP.functor(SecondHead, Name, Arity)) 1011 foreach (bool l8 in YP.functor(SecondHead, Name, Arity))
1012 { 1012 {
1013 foreach (bool l9 in samePredicateRuleList(Rest, RestSamePredicates, RestRules)) 1013 foreach (bool l9 in samePredicateRuleList(Rest, RestSamePredicates, RestRules))
1014 { 1014 {
1015 foreach (bool l10 in YP.unify(SamePredicateRuleList, new ListPair(First, RestSamePredicates))) 1015 foreach (bool l10 in YP.unify(SamePredicateRuleList, new ListPair(First, RestSamePredicates)))
1016 { 1016 {
1017 yield return true; 1017 yield return true;
1018 yield break; 1018 yield break;
1019 } 1019 }
1020 } 1020 }
1021 goto cutIf7; 1021 goto cutIf7;
1022 } 1022 }
1023 foreach (bool l8 in YP.unify(SamePredicateRuleList, new ListPair(First, Atom.NIL))) 1023 foreach (bool l8 in YP.unify(SamePredicateRuleList, new ListPair(First, Atom.NIL)))
1024 { 1024 {
1025 foreach (bool l9 in YP.unify(RestRules, Rest)) 1025 foreach (bool l9 in YP.unify(RestRules, Rest))
1026 { 1026 {
1027 yield return true; 1027 yield return true;
1028 yield break; 1028 yield break;
1029 } 1029 }
1030 } 1030 }
1031 cutIf7: 1031 cutIf7:
1032 { } 1032 { }
1033 } 1033 }
1034 } 1034 }
1035 cutIf5: 1035 cutIf5:
1036 { } 1036 { }
1037 } 1037 }
1038 cutIf1: 1038 cutIf1:
1039 { } 1039 { }
1040 } 1040 }
1041 } 1041 }
1042 } 1042 }
1043 } 1043 }
1044 } 1044 }
1045 1045
1046 public static IEnumerable<bool> maplist_compileClause(object arg1, object arg2, object arg3) 1046 public static IEnumerable<bool> maplist_compileClause(object arg1, object arg2, object arg3)
1047 { 1047 {
1048 { 1048 {
1049 object _MergedArgNames = arg2; 1049 object _MergedArgNames = arg2;
1050 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1050 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1051 { 1051 {
1052 foreach (bool l3 in YP.unify(arg3, Atom.NIL)) 1052 foreach (bool l3 in YP.unify(arg3, Atom.NIL))
1053 { 1053 {
1054 yield return true; 1054 yield return true;
1055 yield break; 1055 yield break;
1056 } 1056 }
1057 } 1057 }
1058 } 1058 }
1059 { 1059 {
1060 object MergedArgNames = arg2; 1060 object MergedArgNames = arg2;
1061 Variable ArgAssignments = new Variable(); 1061 Variable ArgAssignments = new Variable();
1062 Variable Calls = new Variable(); 1062 Variable Calls = new Variable();
1063 Variable Rest = new Variable(); 1063 Variable Rest = new Variable();
1064 Variable ClauseCode = new Variable(); 1064 Variable ClauseCode = new Variable();
1065 Variable RestResults = new Variable(); 1065 Variable RestResults = new Variable();
1066 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", ArgAssignments, Calls), Rest))) 1066 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", ArgAssignments, Calls), Rest)))
1067 { 1067 {
1068 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor1(@"blockScope", ClauseCode), RestResults))) 1068 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor1(@"blockScope", ClauseCode), RestResults)))
1069 { 1069 {
1070 foreach (bool l4 in prependArgAssignments(ArgAssignments, Calls, MergedArgNames, ClauseCode)) 1070 foreach (bool l4 in prependArgAssignments(ArgAssignments, Calls, MergedArgNames, ClauseCode))
1071 { 1071 {
1072 foreach (bool l5 in maplist_compileClause(Rest, MergedArgNames, RestResults)) 1072 foreach (bool l5 in maplist_compileClause(Rest, MergedArgNames, RestResults))
1073 { 1073 {
1074 yield return true; 1074 yield return true;
1075 yield break; 1075 yield break;
1076 } 1076 }
1077 } 1077 }
1078 } 1078 }
1079 } 1079 }
1080 } 1080 }
1081 } 1081 }
1082 1082
1083 public static IEnumerable<bool> prependArgAssignments(object arg1, object arg2, object arg3, object arg4) 1083 public static IEnumerable<bool> prependArgAssignments(object arg1, object arg2, object arg3, object arg4)
1084 { 1084 {
1085 { 1085 {
1086 object _MergedArgNames = arg3; 1086 object _MergedArgNames = arg3;
1087 Variable In = new Variable(); 1087 Variable In = new Variable();
1088 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1088 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1089 { 1089 {
1090 foreach (bool l3 in YP.unify(arg2, In)) 1090 foreach (bool l3 in YP.unify(arg2, In))
1091 { 1091 {
1092 foreach (bool l4 in YP.unify(arg4, In)) 1092 foreach (bool l4 in YP.unify(arg4, In))
1093 { 1093 {
1094 yield return true; 1094 yield return true;
1095 yield break; 1095 yield break;
1096 } 1096 }
1097 } 1097 }
1098 } 1098 }
1099 } 1099 }
1100 { 1100 {
1101 object In = arg2; 1101 object In = arg2;
1102 object MergedArgNames = arg3; 1102 object MergedArgNames = arg3;
1103 object ClauseCode = arg4; 1103 object ClauseCode = arg4;
1104 Variable VariableName = new Variable(); 1104 Variable VariableName = new Variable();
1105 Variable ArgName = new Variable(); 1105 Variable ArgName = new Variable();
1106 Variable RestArgAssignments = new Variable(); 1106 Variable RestArgAssignments = new Variable();
1107 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", VariableName, ArgName), RestArgAssignments))) 1107 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"f", VariableName, ArgName), RestArgAssignments)))
1108 { 1108 {
1109 foreach (bool l3 in member(VariableName, MergedArgNames)) 1109 foreach (bool l3 in member(VariableName, MergedArgNames))
1110 { 1110 {
1111 foreach (bool l4 in prependArgAssignments(RestArgAssignments, In, MergedArgNames, ClauseCode)) 1111 foreach (bool l4 in prependArgAssignments(RestArgAssignments, In, MergedArgNames, ClauseCode))
1112 { 1112 {
1113 yield return true; 1113 yield return true;
1114 yield break; 1114 yield break;
1115 } 1115 }
1116 goto cutIf1; 1116 goto cutIf1;
1117 } 1117 }
1118 foreach (bool l3 in prependArgAssignments(RestArgAssignments, new ListPair(new Functor3(@"declare", Atom.a(@"object"), VariableName, new Functor1(@"var", ArgName)), In), MergedArgNames, ClauseCode)) 1118 foreach (bool l3 in prependArgAssignments(RestArgAssignments, new ListPair(new Functor3(@"declare", Atom.a(@"object"), VariableName, new Functor1(@"var", ArgName)), In), MergedArgNames, ClauseCode))
1119 { 1119 {
1120 yield return true; 1120 yield return true;
1121 yield break; 1121 yield break;
1122 } 1122 }
1123 cutIf1: 1123 cutIf1:
1124 { } 1124 { }
1125 } 1125 }
1126 } 1126 }
1127 } 1127 }
1128 1128
1129 public static IEnumerable<bool> argAssignedAll(object arg1, object arg2, object VariableName) 1129 public static IEnumerable<bool> argAssignedAll(object arg1, object arg2, object VariableName)
1130 { 1130 {
1131 { 1131 {
1132 object _ArgName = arg1; 1132 object _ArgName = arg1;
1133 foreach (bool l2 in YP.unify(arg2, Atom.NIL)) 1133 foreach (bool l2 in YP.unify(arg2, Atom.NIL))
1134 { 1134 {
1135 if (YP.nonvar(VariableName)) 1135 if (YP.nonvar(VariableName))
1136 { 1136 {
1137 yield return true; 1137 yield return true;
1138 yield break; 1138 yield break;
1139 } 1139 }
1140 } 1140 }
1141 } 1141 }
1142 { 1142 {
1143 object ArgName = arg1; 1143 object ArgName = arg1;
1144 Variable ArgAssignments = new Variable(); 1144 Variable ArgAssignments = new Variable();
1145 Variable _Calls = new Variable(); 1145 Variable _Calls = new Variable();
1146 Variable RestClauseBag = new Variable(); 1146 Variable RestClauseBag = new Variable();
1147 foreach (bool l2 in YP.unify(arg2, new ListPair(new Functor2(@"f", ArgAssignments, _Calls), RestClauseBag))) 1147 foreach (bool l2 in YP.unify(arg2, new ListPair(new Functor2(@"f", ArgAssignments, _Calls), RestClauseBag)))
1148 { 1148 {
1149 foreach (bool l3 in member(new Functor2(@"f", VariableName, ArgName), ArgAssignments)) 1149 foreach (bool l3 in member(new Functor2(@"f", VariableName, ArgName), ArgAssignments))
1150 { 1150 {
1151 foreach (bool l4 in argAssignedAll(ArgName, RestClauseBag, VariableName)) 1151 foreach (bool l4 in argAssignedAll(ArgName, RestClauseBag, VariableName))
1152 { 1152 {
1153 yield return false; 1153 yield return false;
1154 } 1154 }
1155 } 1155 }
1156 } 1156 }
1157 } 1157 }
1158 } 1158 }
1159 1159
1160 public static IEnumerable<bool> maplist_arg(object arg1, object arg2) 1160 public static IEnumerable<bool> maplist_arg(object arg1, object arg2)
1161 { 1161 {
1162 { 1162 {
1163 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1163 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1164 { 1164 {
1165 foreach (bool l3 in YP.unify(arg2, Atom.NIL)) 1165 foreach (bool l3 in YP.unify(arg2, Atom.NIL))
1166 { 1166 {
1167 yield return true; 1167 yield return true;
1168 yield break; 1168 yield break;
1169 } 1169 }
1170 } 1170 }
1171 } 1171 }
1172 { 1172 {
1173 Variable First = new Variable(); 1173 Variable First = new Variable();
1174 Variable Rest = new Variable(); 1174 Variable Rest = new Variable();
1175 Variable RestResults = new Variable(); 1175 Variable RestResults = new Variable();
1176 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Rest))) 1176 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Rest)))
1177 { 1177 {
1178 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor1(@"arg", First), RestResults))) 1178 foreach (bool l3 in YP.unify(arg2, new ListPair(new Functor1(@"arg", First), RestResults)))
1179 { 1179 {
1180 foreach (bool l4 in maplist_arg(Rest, RestResults)) 1180 foreach (bool l4 in maplist_arg(Rest, RestResults))
1181 { 1181 {
1182 yield return true; 1182 yield return true;
1183 yield break; 1183 yield break;
1184 } 1184 }
1185 } 1185 }
1186 } 1186 }
1187 } 1187 }
1188 } 1188 }
1189 1189
1190 public static IEnumerable<bool> getFunctionArgNames(object arg1, object arg2, object arg3) 1190 public static IEnumerable<bool> getFunctionArgNames(object arg1, object arg2, object arg3)
1191 { 1191 {
1192 { 1192 {
1193 object _StartArgNumber = arg2; 1193 object _StartArgNumber = arg2;
1194 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1194 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1195 { 1195 {
1196 foreach (bool l3 in YP.unify(arg3, Atom.NIL)) 1196 foreach (bool l3 in YP.unify(arg3, Atom.NIL))
1197 { 1197 {
1198 yield return true; 1198 yield return true;
1199 yield break; 1199 yield break;
1200 } 1200 }
1201 } 1201 }
1202 } 1202 }
1203 { 1203 {
1204 object StartArgNumber = arg2; 1204 object StartArgNumber = arg2;
1205 Variable x1 = new Variable(); 1205 Variable x1 = new Variable();
1206 Variable Rest = new Variable(); 1206 Variable Rest = new Variable();
1207 Variable ArgName = new Variable(); 1207 Variable ArgName = new Variable();
1208 Variable RestFunctionArgs = new Variable(); 1208 Variable RestFunctionArgs = new Variable();
1209 Variable NumberCodes = new Variable(); 1209 Variable NumberCodes = new Variable();
1210 Variable NumberAtom = new Variable(); 1210 Variable NumberAtom = new Variable();
1211 Variable NextArgNumber = new Variable(); 1211 Variable NextArgNumber = new Variable();
1212 foreach (bool l2 in YP.unify(arg1, new ListPair(x1, Rest))) 1212 foreach (bool l2 in YP.unify(arg1, new ListPair(x1, Rest)))
1213 { 1213 {
1214 foreach (bool l3 in YP.unify(arg3, new ListPair(ArgName, RestFunctionArgs))) 1214 foreach (bool l3 in YP.unify(arg3, new ListPair(ArgName, RestFunctionArgs)))
1215 { 1215 {
1216 foreach (bool l4 in YP.number_codes(StartArgNumber, NumberCodes)) 1216 foreach (bool l4 in YP.number_codes(StartArgNumber, NumberCodes))
1217 { 1217 {
1218 foreach (bool l5 in YP.atom_codes(NumberAtom, NumberCodes)) 1218 foreach (bool l5 in YP.atom_codes(NumberAtom, NumberCodes))
1219 { 1219 {
1220 foreach (bool l6 in YP.atom_concat(Atom.a(@"arg"), NumberAtom, ArgName)) 1220 foreach (bool l6 in YP.atom_concat(Atom.a(@"arg"), NumberAtom, ArgName))
1221 { 1221 {
1222 foreach (bool l7 in YP.unify(NextArgNumber, YP.add(StartArgNumber, 1))) 1222 foreach (bool l7 in YP.unify(NextArgNumber, YP.add(StartArgNumber, 1)))
1223 { 1223 {
1224 foreach (bool l8 in getFunctionArgNames(Rest, NextArgNumber, RestFunctionArgs)) 1224 foreach (bool l8 in getFunctionArgNames(Rest, NextArgNumber, RestFunctionArgs))
1225 { 1225 {
1226 yield return true; 1226 yield return true;
1227 yield break; 1227 yield break;
1228 } 1228 }
1229 } 1229 }
1230 } 1230 }
1231 } 1231 }
1232 } 1232 }
1233 } 1233 }
1234 } 1234 }
1235 } 1235 }
1236 } 1236 }
1237 1237
1238 public static IEnumerable<bool> compileBodyWithHeadBindings(object Rule, object VariableNameSuggestions, object State, object ArgAssignments, object Calls) 1238 public static IEnumerable<bool> compileBodyWithHeadBindings(object Rule, object VariableNameSuggestions, object State, object ArgAssignments, object Calls)
1239 { 1239 {
1240 { 1240 {
1241 Variable Head = new Variable(); 1241 Variable Head = new Variable();
1242 Variable Body = new Variable(); 1242 Variable Body = new Variable();
1243 Variable x8 = new Variable(); 1243 Variable x8 = new Variable();
1244 Variable HeadArgs = new Variable(); 1244 Variable HeadArgs = new Variable();
1245 Variable CompiledHeadArgs = new Variable(); 1245 Variable CompiledHeadArgs = new Variable();
1246 Variable BodyCode = new Variable(); 1246 Variable BodyCode = new Variable();
1247 Variable VariableNamesList = new Variable(); 1247 Variable VariableNamesList = new Variable();
1248 Variable ArgUnifications = new Variable(); 1248 Variable ArgUnifications = new Variable();
1249 foreach (bool l2 in YP.unify(new Functor2(@":-", Head, Body), Rule)) 1249 foreach (bool l2 in YP.unify(new Functor2(@":-", Head, Body), Rule))
1250 { 1250 {
1251 CompilerState.newVariableNames(State, Rule, VariableNameSuggestions); 1251 CompilerState.newVariableNames(State, Rule, VariableNameSuggestions);
1252 foreach (bool l3 in YP.univ(Head, new ListPair(x8, HeadArgs))) 1252 foreach (bool l3 in YP.univ(Head, new ListPair(x8, HeadArgs)))
1253 { 1253 {
1254 foreach (bool l4 in maplist_compileTerm(HeadArgs, State, CompiledHeadArgs)) 1254 foreach (bool l4 in maplist_compileTerm(HeadArgs, State, CompiledHeadArgs))
1255 { 1255 {
1256 foreach (bool l5 in compileRuleBody(Body, State, BodyCode)) 1256 foreach (bool l5 in compileRuleBody(Body, State, BodyCode))
1257 { 1257 {
1258 foreach (bool l6 in CompilerState.variableNamesList(State, VariableNamesList)) 1258 foreach (bool l6 in CompilerState.variableNamesList(State, VariableNamesList))
1259 { 1259 {
1260 foreach (bool l7 in compileArgUnifications(HeadArgs, CompiledHeadArgs, 1, HeadArgs, BodyCode, ArgUnifications)) 1260 foreach (bool l7 in compileArgUnifications(HeadArgs, CompiledHeadArgs, 1, HeadArgs, BodyCode, ArgUnifications))
1261 { 1261 {
1262 foreach (bool l8 in compileDeclarations(VariableNamesList, HeadArgs, Atom.NIL, ArgAssignments, ArgUnifications, Calls)) 1262 foreach (bool l8 in compileDeclarations(VariableNamesList, HeadArgs, Atom.NIL, ArgAssignments, ArgUnifications, Calls))
1263 { 1263 {
1264 yield return true; 1264 yield return true;
1265 yield break; 1265 yield break;
1266 } 1266 }
1267 } 1267 }
1268 } 1268 }
1269 } 1269 }
1270 } 1270 }
1271 } 1271 }
1272 } 1272 }
1273 } 1273 }
1274 { 1274 {
1275 foreach (bool l2 in compileBodyWithHeadBindings(new Functor2(@":-", Rule, Atom.a(@"true")), VariableNameSuggestions, State, ArgAssignments, Calls)) 1275 foreach (bool l2 in compileBodyWithHeadBindings(new Functor2(@":-", Rule, Atom.a(@"true")), VariableNameSuggestions, State, ArgAssignments, Calls))
1276 { 1276 {
1277 yield return true; 1277 yield return true;
1278 yield break; 1278 yield break;
1279 } 1279 }
1280 } 1280 }
1281 } 1281 }
1282 1282
1283 public static IEnumerable<bool> compileArgUnifications(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6) 1283 public static IEnumerable<bool> compileArgUnifications(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6)
1284 { 1284 {
1285 { 1285 {
1286 object x1 = arg2; 1286 object x1 = arg2;
1287 object x2 = arg3; 1287 object x2 = arg3;
1288 object x3 = arg4; 1288 object x3 = arg4;
1289 Variable BodyCode = new Variable(); 1289 Variable BodyCode = new Variable();
1290 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1290 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1291 { 1291 {
1292 foreach (bool l3 in YP.unify(arg5, BodyCode)) 1292 foreach (bool l3 in YP.unify(arg5, BodyCode))
1293 { 1293 {
1294 foreach (bool l4 in YP.unify(arg6, BodyCode)) 1294 foreach (bool l4 in YP.unify(arg6, BodyCode))
1295 { 1295 {
1296 yield return true; 1296 yield return true;
1297 yield break; 1297 yield break;
1298 } 1298 }
1299 } 1299 }
1300 } 1300 }
1301 } 1301 }
1302 { 1302 {
1303 object Index = arg3; 1303 object Index = arg3;
1304 object AllHeadArgs = arg4; 1304 object AllHeadArgs = arg4;
1305 object BodyCode = arg5; 1305 object BodyCode = arg5;
1306 object ArgUnifications = arg6; 1306 object ArgUnifications = arg6;
1307 Variable HeadArg = new Variable(); 1307 Variable HeadArg = new Variable();
1308 Variable RestHeadArgs = new Variable(); 1308 Variable RestHeadArgs = new Variable();
1309 Variable x3 = new Variable(); 1309 Variable x3 = new Variable();
1310 Variable RestCompiledHeadArgs = new Variable(); 1310 Variable RestCompiledHeadArgs = new Variable();
1311 Variable _ArgIndex1 = new Variable(); 1311 Variable _ArgIndex1 = new Variable();
1312 Variable NextIndex = new Variable(); 1312 Variable NextIndex = new Variable();
1313 foreach (bool l2 in YP.unify(arg1, new ListPair(HeadArg, RestHeadArgs))) 1313 foreach (bool l2 in YP.unify(arg1, new ListPair(HeadArg, RestHeadArgs)))
1314 { 1314 {
1315 foreach (bool l3 in YP.unify(arg2, new ListPair(x3, RestCompiledHeadArgs))) 1315 foreach (bool l3 in YP.unify(arg2, new ListPair(x3, RestCompiledHeadArgs)))
1316 { 1316 {
1317 foreach (bool l4 in getVariableArgIndex1(HeadArg, AllHeadArgs, _ArgIndex1)) 1317 foreach (bool l4 in getVariableArgIndex1(HeadArg, AllHeadArgs, _ArgIndex1))
1318 { 1318 {
1319 foreach (bool l5 in YP.unify(NextIndex, YP.add(Index, 1))) 1319 foreach (bool l5 in YP.unify(NextIndex, YP.add(Index, 1)))
1320 { 1320 {
1321 foreach (bool l6 in compileArgUnifications(RestHeadArgs, RestCompiledHeadArgs, NextIndex, AllHeadArgs, BodyCode, ArgUnifications)) 1321 foreach (bool l6 in compileArgUnifications(RestHeadArgs, RestCompiledHeadArgs, NextIndex, AllHeadArgs, BodyCode, ArgUnifications))
1322 { 1322 {
1323 yield return true; 1323 yield return true;
1324 yield break; 1324 yield break;
1325 } 1325 }
1326 } 1326 }
1327 } 1327 }
1328 } 1328 }
1329 } 1329 }
1330 } 1330 }
1331 { 1331 {
1332 object Index = arg3; 1332 object Index = arg3;
1333 object AllHeadArgs = arg4; 1333 object AllHeadArgs = arg4;
1334 object BodyCode = arg5; 1334 object BodyCode = arg5;
1335 Variable _HeadArg = new Variable(); 1335 Variable _HeadArg = new Variable();
1336 Variable RestHeadArgs = new Variable(); 1336 Variable RestHeadArgs = new Variable();
1337 Variable CompiledHeadArg = new Variable(); 1337 Variable CompiledHeadArg = new Variable();
1338 Variable RestCompiledHeadArgs = new Variable(); 1338 Variable RestCompiledHeadArgs = new Variable();
1339 Variable ArgName = new Variable(); 1339 Variable ArgName = new Variable();
1340 Variable RestArgUnifications = new Variable(); 1340 Variable RestArgUnifications = new Variable();
1341 Variable NumberCodes = new Variable(); 1341 Variable NumberCodes = new Variable();
1342 Variable NumberAtom = new Variable(); 1342 Variable NumberAtom = new Variable();
1343 Variable NextIndex = new Variable(); 1343 Variable NextIndex = new Variable();
1344 foreach (bool l2 in YP.unify(arg1, new ListPair(_HeadArg, RestHeadArgs))) 1344 foreach (bool l2 in YP.unify(arg1, new ListPair(_HeadArg, RestHeadArgs)))
1345 { 1345 {
1346 foreach (bool l3 in YP.unify(arg2, new ListPair(CompiledHeadArg, RestCompiledHeadArgs))) 1346 foreach (bool l3 in YP.unify(arg2, new ListPair(CompiledHeadArg, RestCompiledHeadArgs)))
1347 { 1347 {
1348 foreach (bool l4 in YP.unify(arg6, new ListPair(new Functor2(@"foreach", new Functor2(@"call", Atom.a(@"YP.unify"), new ListPair(new Functor1(@"var", ArgName), new ListPair(CompiledHeadArg, Atom.NIL))), RestArgUnifications), Atom.NIL))) 1348 foreach (bool l4 in YP.unify(arg6, new ListPair(new Functor2(@"foreach", new Functor2(@"call", Atom.a(@"YP.unify"), new ListPair(new Functor1(@"var", ArgName), new ListPair(CompiledHeadArg, Atom.NIL))), RestArgUnifications), Atom.NIL)))
1349 { 1349 {
1350 foreach (bool l5 in YP.number_codes(Index, NumberCodes)) 1350 foreach (bool l5 in YP.number_codes(Index, NumberCodes))
1351 { 1351 {
1352 foreach (bool l6 in YP.atom_codes(NumberAtom, NumberCodes)) 1352 foreach (bool l6 in YP.atom_codes(NumberAtom, NumberCodes))
1353 { 1353 {
1354 foreach (bool l7 in YP.atom_concat(Atom.a(@"arg"), NumberAtom, ArgName)) 1354 foreach (bool l7 in YP.atom_concat(Atom.a(@"arg"), NumberAtom, ArgName))
1355 { 1355 {
1356 foreach (bool l8 in YP.unify(NextIndex, YP.add(Index, 1))) 1356 foreach (bool l8 in YP.unify(NextIndex, YP.add(Index, 1)))
1357 { 1357 {
1358 foreach (bool l9 in compileArgUnifications(RestHeadArgs, RestCompiledHeadArgs, NextIndex, AllHeadArgs, BodyCode, RestArgUnifications)) 1358 foreach (bool l9 in compileArgUnifications(RestHeadArgs, RestCompiledHeadArgs, NextIndex, AllHeadArgs, BodyCode, RestArgUnifications))
1359 { 1359 {
1360 yield return true; 1360 yield return true;
1361 yield break; 1361 yield break;
1362 } 1362 }
1363 } 1363 }
1364 } 1364 }
1365 } 1365 }
1366 } 1366 }
1367 } 1367 }
1368 } 1368 }
1369 } 1369 }
1370 } 1370 }
1371 } 1371 }
1372 1372
1373 public static IEnumerable<bool> compileDeclarations(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6) 1373 public static IEnumerable<bool> compileDeclarations(object arg1, object arg2, object arg3, object arg4, object arg5, object arg6)
1374 { 1374 {
1375 { 1375 {
1376 object _HeadArgs = arg2; 1376 object _HeadArgs = arg2;
1377 Variable ArgAssignmentsIn = new Variable(); 1377 Variable ArgAssignmentsIn = new Variable();
1378 Variable DeclarationsIn = new Variable(); 1378 Variable DeclarationsIn = new Variable();
1379 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 1379 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
1380 { 1380 {
1381 foreach (bool l3 in YP.unify(arg3, ArgAssignmentsIn)) 1381 foreach (bool l3 in YP.unify(arg3, ArgAssignmentsIn))
1382 { 1382 {
1383 foreach (bool l4 in YP.unify(arg4, ArgAssignmentsIn)) 1383 foreach (bool l4 in YP.unify(arg4, ArgAssignmentsIn))
1384 { 1384 {
1385 foreach (bool l5 in YP.unify(arg5, DeclarationsIn)) 1385 foreach (bool l5 in YP.unify(arg5, DeclarationsIn))
1386 { 1386 {
1387 foreach (bool l6 in YP.unify(arg6, DeclarationsIn)) 1387 foreach (bool l6 in YP.unify(arg6, DeclarationsIn))
1388 { 1388 {
1389 yield return true; 1389 yield return true;
1390 yield break; 1390 yield break;
1391 } 1391 }
1392 } 1392 }
1393 } 1393 }
1394 } 1394 }
1395 } 1395 }
1396 } 1396 }
1397 { 1397 {
1398 object HeadArgs = arg2; 1398 object HeadArgs = arg2;
1399 object ArgAssignmentsIn = arg3; 1399 object ArgAssignmentsIn = arg3;
1400 object ArgAssignmentsOut = arg4; 1400 object ArgAssignmentsOut = arg4;
1401 object DeclarationsIn = arg5; 1401 object DeclarationsIn = arg5;
1402 object DeclarationsOut = arg6; 1402 object DeclarationsOut = arg6;
1403 Variable VariableName = new Variable(); 1403 Variable VariableName = new Variable();
1404 Variable Var = new Variable(); 1404 Variable Var = new Variable();
1405 Variable RestVariableNames = new Variable(); 1405 Variable RestVariableNames = new Variable();
1406 Variable ArgIndex1 = new Variable(); 1406 Variable ArgIndex1 = new Variable();
1407 Variable NumberCodes = new Variable(); 1407 Variable NumberCodes = new Variable();
1408 Variable NumberAtom = new Variable(); 1408 Variable NumberAtom = new Variable();
1409 Variable ArgName = new Variable(); 1409 Variable ArgName = new Variable();
1410 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"=", VariableName, Var), RestVariableNames))) 1410 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"=", VariableName, Var), RestVariableNames)))
1411 { 1411 {
1412 foreach (bool l3 in getVariableArgIndex1(Var, HeadArgs, ArgIndex1)) 1412 foreach (bool l3 in getVariableArgIndex1(Var, HeadArgs, ArgIndex1))
1413 { 1413 {
1414 foreach (bool l4 in YP.number_codes(ArgIndex1, NumberCodes)) 1414 foreach (bool l4 in YP.number_codes(ArgIndex1, NumberCodes))
1415 { 1415 {
1416 foreach (bool l5 in YP.atom_codes(NumberAtom, NumberCodes)) 1416 foreach (bool l5 in YP.atom_codes(NumberAtom, NumberCodes))
1417 { 1417 {
1418 foreach (bool l6 in YP.atom_concat(Atom.a(@"arg"), NumberAtom, ArgName)) 1418 foreach (bool l6 in YP.atom_concat(Atom.a(@"arg"), NumberAtom, ArgName))
1419 { 1419 {
1420 foreach (bool l7 in compileDeclarations(RestVariableNames, HeadArgs, new ListPair(new Functor2(@"f", VariableName, ArgName), ArgAssignmentsIn), ArgAssignmentsOut, DeclarationsIn, DeclarationsOut)) 1420 foreach (bool l7 in compileDeclarations(RestVariableNames, HeadArgs, new ListPair(new Functor2(@"f", VariableName, ArgName), ArgAssignmentsIn), ArgAssignmentsOut, DeclarationsIn, DeclarationsOut))
1421 { 1421 {
1422 yield return true; 1422 yield return true;
1423 yield break; 1423 yield break;
1424 } 1424 }
1425 } 1425 }
1426 } 1426 }
1427 } 1427 }
1428 } 1428 }
1429 } 1429 }
1430 } 1430 }
1431 { 1431 {
1432 object HeadArgs = arg2; 1432 object HeadArgs = arg2;
1433 object ArgAssignmentsIn = arg3; 1433 object ArgAssignmentsIn = arg3;
1434 object ArgAssignmentsOut = arg4; 1434 object ArgAssignmentsOut = arg4;
1435 object DeclarationsIn = arg5; 1435 object DeclarationsIn = arg5;
1436 Variable VariableName = new Variable(); 1436 Variable VariableName = new Variable();
1437 Variable _Var = new Variable(); 1437 Variable _Var = new Variable();
1438 Variable RestVariableNames = new Variable(); 1438 Variable RestVariableNames = new Variable();
1439 Variable DeclarationsOut = new Variable(); 1439 Variable DeclarationsOut = new Variable();
1440 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"=", VariableName, _Var), RestVariableNames))) 1440 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"=", VariableName, _Var), RestVariableNames)))
1441 { 1441 {
1442 foreach (bool l3 in YP.unify(arg6, new ListPair(new Functor3(@"declare", Atom.a(@"Variable"), VariableName, new Functor2(@"new", Atom.a(@"Variable"), Atom.NIL)), DeclarationsOut))) 1442 foreach (bool l3 in YP.unify(arg6, new ListPair(new Functor3(@"declare", Atom.a(@"Variable"), VariableName, new Functor2(@"new", Atom.a(@"Variable"), Atom.NIL)), DeclarationsOut)))
1443 { 1443 {
1444 foreach (bool l4 in compileDeclarations(RestVariableNames, HeadArgs, ArgAssignmentsIn, ArgAssignmentsOut, DeclarationsIn, DeclarationsOut)) 1444 foreach (bool l4 in compileDeclarations(RestVariableNames, HeadArgs, ArgAssignmentsIn, ArgAssignmentsOut, DeclarationsIn, DeclarationsOut))
1445 { 1445 {
1446 yield return true; 1446 yield return true;
1447 yield break; 1447 yield break;
1448 } 1448 }
1449 } 1449 }
1450 } 1450 }
1451 } 1451 }
1452 } 1452 }
1453 1453
1454 public static IEnumerable<bool> getVariableArgIndex1(object Var, object arg2, object arg3) 1454 public static IEnumerable<bool> getVariableArgIndex1(object Var, object arg2, object arg3)
1455 { 1455 {
1456 { 1456 {
1457 Variable FirstHeadArgs = new Variable(); 1457 Variable FirstHeadArgs = new Variable();
1458 Variable RestHeadArgs = new Variable(); 1458 Variable RestHeadArgs = new Variable();
1459 Variable x4 = new Variable(); 1459 Variable x4 = new Variable();
1460 foreach (bool l2 in YP.unify(arg2, new ListPair(FirstHeadArgs, RestHeadArgs))) 1460 foreach (bool l2 in YP.unify(arg2, new ListPair(FirstHeadArgs, RestHeadArgs)))
1461 { 1461 {
1462 foreach (bool l3 in YP.unify(arg3, 1)) 1462 foreach (bool l3 in YP.unify(arg3, 1))
1463 { 1463 {
1464 if (sameVariable(Var, FirstHeadArgs)) 1464 if (sameVariable(Var, FirstHeadArgs))
1465 { 1465 {
1466 foreach (bool l5 in getVariableArgIndex1(Var, RestHeadArgs, x4)) 1466 foreach (bool l5 in getVariableArgIndex1(Var, RestHeadArgs, x4))
1467 { 1467 {
1468 goto cutIf1; 1468 goto cutIf1;
1469 } 1469 }
1470 yield return false; 1470 yield return false;
1471 cutIf1: 1471 cutIf1:
1472 yield break; 1472 yield break;
1473 } 1473 }
1474 } 1474 }
1475 } 1475 }
1476 } 1476 }
1477 { 1477 {
1478 object Index = arg3; 1478 object Index = arg3;
1479 Variable x2 = new Variable(); 1479 Variable x2 = new Variable();
1480 Variable RestHeadArgs = new Variable(); 1480 Variable RestHeadArgs = new Variable();
1481 Variable RestIndex = new Variable(); 1481 Variable RestIndex = new Variable();
1482 foreach (bool l2 in YP.unify(arg2, new ListPair(x2, RestHeadArgs))) 1482 foreach (bool l2 in YP.unify(arg2, new ListPair(x2, RestHeadArgs)))
1483 { 1483 {
1484 foreach (bool l3 in getVariableArgIndex1(Var, RestHeadArgs, RestIndex)) 1484 foreach (bool l3 in getVariableArgIndex1(Var, RestHeadArgs, RestIndex))
1485 { 1485 {
1486 foreach (bool l4 in YP.unify(Index, YP.add(1, RestIndex))) 1486 foreach (bool l4 in YP.unify(Index, YP.add(1, RestIndex)))
1487 { 1487 {
1488 yield return true; 1488 yield return true;
1489 yield break; 1489 yield break;
1490 } 1490 }
1491 } 1491 }
1492 } 1492 }
1493 } 1493 }
1494 } 1494 }
1495 1495
1496 public static IEnumerable<bool> compileRuleBody(object arg1, object arg2, object arg3) 1496 public static IEnumerable<bool> compileRuleBody(object arg1, object arg2, object arg3)
1497 { 1497 {
1498 { 1498 {
1499 object A = arg1; 1499 object A = arg1;
1500 object State = arg2; 1500 object State = arg2;
1501 object PseudoCode = arg3; 1501 object PseudoCode = arg3;
1502 if (YP.var(A)) 1502 if (YP.var(A))
1503 { 1503 {
1504 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor1(@"call", A), Atom.a(@"true")), State, PseudoCode)) 1504 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor1(@"call", A), Atom.a(@"true")), State, PseudoCode))
1505 { 1505 {
1506 yield return true; 1506 yield return true;
1507 yield break; 1507 yield break;
1508 } 1508 }
1509 } 1509 }
1510 } 1510 }
1511 { 1511 {
1512 object State = arg2; 1512 object State = arg2;
1513 foreach (bool l2 in YP.unify(arg1, Atom.a(@"!"))) 1513 foreach (bool l2 in YP.unify(arg1, Atom.a(@"!")))
1514 { 1514 {
1515 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"return"), Atom.NIL))) 1515 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"return"), Atom.NIL)))
1516 { 1516 {
1517 if (CompilerState.determinismEquals(State, Atom.a(@"detNoneOut"))) 1517 if (CompilerState.determinismEquals(State, Atom.a(@"detNoneOut")))
1518 { 1518 {
1519 yield return true; 1519 yield return true;
1520 yield break; 1520 yield break;
1521 } 1521 }
1522 } 1522 }
1523 } 1523 }
1524 } 1524 }
1525 { 1525 {
1526 object State = arg2; 1526 object State = arg2;
1527 foreach (bool l2 in YP.unify(arg1, Atom.a(@"!"))) 1527 foreach (bool l2 in YP.unify(arg1, Atom.a(@"!")))
1528 { 1528 {
1529 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"returntrue"), Atom.NIL))) 1529 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"returntrue"), Atom.NIL)))
1530 { 1530 {
1531 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 1531 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
1532 { 1532 {
1533 yield return true; 1533 yield return true;
1534 yield break; 1534 yield break;
1535 } 1535 }
1536 } 1536 }
1537 } 1537 }
1538 } 1538 }
1539 { 1539 {
1540 object _State = arg2; 1540 object _State = arg2;
1541 foreach (bool l2 in YP.unify(arg1, Atom.a(@"!"))) 1541 foreach (bool l2 in YP.unify(arg1, Atom.a(@"!")))
1542 { 1542 {
1543 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"yieldtrue"), new ListPair(Atom.a(@"yieldbreak"), Atom.NIL)))) 1543 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"yieldtrue"), new ListPair(Atom.a(@"yieldbreak"), Atom.NIL))))
1544 { 1544 {
1545 yield return true; 1545 yield return true;
1546 yield break; 1546 yield break;
1547 } 1547 }
1548 } 1548 }
1549 } 1549 }
1550 { 1550 {
1551 object _State = arg2; 1551 object _State = arg2;
1552 Variable Name = new Variable(); 1552 Variable Name = new Variable();
1553 foreach (bool l2 in YP.unify(arg1, new Functor1(@"$CUTIF", Name))) 1553 foreach (bool l2 in YP.unify(arg1, new Functor1(@"$CUTIF", Name)))
1554 { 1554 {
1555 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor1(@"breakBlock", Name), Atom.NIL))) 1555 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor1(@"breakBlock", Name), Atom.NIL)))
1556 { 1556 {
1557 yield return true; 1557 yield return true;
1558 yield break; 1558 yield break;
1559 } 1559 }
1560 } 1560 }
1561 } 1561 }
1562 { 1562 {
1563 object State = arg2; 1563 object State = arg2;
1564 foreach (bool l2 in YP.unify(arg1, Atom.a(@"true"))) 1564 foreach (bool l2 in YP.unify(arg1, Atom.a(@"true")))
1565 { 1565 {
1566 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"return"), Atom.NIL))) 1566 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"return"), Atom.NIL)))
1567 { 1567 {
1568 if (CompilerState.determinismEquals(State, Atom.a(@"detNoneOut"))) 1568 if (CompilerState.determinismEquals(State, Atom.a(@"detNoneOut")))
1569 { 1569 {
1570 yield return true; 1570 yield return true;
1571 yield break; 1571 yield break;
1572 } 1572 }
1573 } 1573 }
1574 } 1574 }
1575 } 1575 }
1576 { 1576 {
1577 object State = arg2; 1577 object State = arg2;
1578 foreach (bool l2 in YP.unify(arg1, Atom.a(@"true"))) 1578 foreach (bool l2 in YP.unify(arg1, Atom.a(@"true")))
1579 { 1579 {
1580 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"returntrue"), Atom.NIL))) 1580 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"returntrue"), Atom.NIL)))
1581 { 1581 {
1582 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut"))) 1582 if (CompilerState.determinismEquals(State, Atom.a(@"semidetNoneOut")))
1583 { 1583 {
1584 yield return true; 1584 yield return true;
1585 yield break; 1585 yield break;
1586 } 1586 }
1587 } 1587 }
1588 } 1588 }
1589 } 1589 }
1590 { 1590 {
1591 object _State = arg2; 1591 object _State = arg2;
1592 foreach (bool l2 in YP.unify(arg1, Atom.a(@"true"))) 1592 foreach (bool l2 in YP.unify(arg1, Atom.a(@"true")))
1593 { 1593 {
1594 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"yieldfalse"), Atom.NIL))) 1594 foreach (bool l3 in YP.unify(arg3, new ListPair(Atom.a(@"yieldfalse"), Atom.NIL)))
1595 { 1595 {
1596 yield return true; 1596 yield return true;
1597 yield break; 1597 yield break;
1598 } 1598 }
1599 } 1599 }
1600 } 1600 }
1601 { 1601 {
1602 object State = arg2; 1602 object State = arg2;
1603 object PseudoCode = arg3; 1603 object PseudoCode = arg3;
1604 Variable A = new Variable(); 1604 Variable A = new Variable();
1605 Variable B = new Variable(); 1605 Variable B = new Variable();
1606 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B))) 1606 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B)))
1607 { 1607 {
1608 if (YP.var(A)) 1608 if (YP.var(A))
1609 { 1609 {
1610 foreach (bool l4 in compileRuleBody(new Functor2(@",", new Functor1(@"call", A), B), State, PseudoCode)) 1610 foreach (bool l4 in compileRuleBody(new Functor2(@",", new Functor1(@"call", A), B), State, PseudoCode))
1611 { 1611 {
1612 yield return true; 1612 yield return true;
1613 yield break; 1613 yield break;
1614 } 1614 }
1615 } 1615 }
1616 } 1616 }
1617 } 1617 }
1618 { 1618 {
1619 object State = arg2; 1619 object State = arg2;
1620 object PseudoCode = arg3; 1620 object PseudoCode = arg3;
1621 Variable A = new Variable(); 1621 Variable A = new Variable();
1622 Variable T = new Variable(); 1622 Variable T = new Variable();
1623 Variable B = new Variable(); 1623 Variable B = new Variable();
1624 Variable C = new Variable(); 1624 Variable C = new Variable();
1625 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@";", new Functor2(@"->", A, T), B), C))) 1625 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@";", new Functor2(@"->", A, T), B), C)))
1626 { 1626 {
1627 foreach (bool l3 in compileRuleBody(new Functor2(@";", new Functor2(@"->", A, new Functor2(@",", T, C)), new Functor2(@",", B, C)), State, PseudoCode)) 1627 foreach (bool l3 in compileRuleBody(new Functor2(@";", new Functor2(@"->", A, new Functor2(@",", T, C)), new Functor2(@",", B, C)), State, PseudoCode))
1628 { 1628 {
1629 yield return true; 1629 yield return true;
1630 yield break; 1630 yield break;
1631 } 1631 }
1632 } 1632 }
1633 } 1633 }
1634 { 1634 {
1635 object State = arg2; 1635 object State = arg2;
1636 object PseudoCode = arg3; 1636 object PseudoCode = arg3;
1637 Variable A = new Variable(); 1637 Variable A = new Variable();
1638 Variable B = new Variable(); 1638 Variable B = new Variable();
1639 Variable C = new Variable(); 1639 Variable C = new Variable();
1640 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@";", A, B), C))) 1640 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@";", A, B), C)))
1641 { 1641 {
1642 foreach (bool l3 in compileRuleBody(new Functor2(@";", new Functor2(@",", A, C), new Functor2(@",", B, C)), State, PseudoCode)) 1642 foreach (bool l3 in compileRuleBody(new Functor2(@";", new Functor2(@",", A, C), new Functor2(@",", B, C)), State, PseudoCode))
1643 { 1643 {
1644 yield return true; 1644 yield return true;
1645 yield break; 1645 yield break;
1646 } 1646 }
1647 } 1647 }
1648 } 1648 }
1649 { 1649 {
1650 object State = arg2; 1650 object State = arg2;
1651 Variable A = new Variable(); 1651 Variable A = new Variable();
1652 Variable B = new Variable(); 1652 Variable B = new Variable();
1653 Variable ACode = new Variable(); 1653 Variable ACode = new Variable();
1654 Variable BCode = new Variable(); 1654 Variable BCode = new Variable();
1655 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"\+", A), B))) 1655 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"\+", A), B)))
1656 { 1656 {
1657 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"if", new Functor1(@"not", ACode), BCode), Atom.NIL))) 1657 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"if", new Functor1(@"not", ACode), BCode), Atom.NIL)))
1658 { 1658 {
1659 if (CompilerState.isSemidetNoneOut(State, A)) 1659 if (CompilerState.isSemidetNoneOut(State, A))
1660 { 1660 {
1661 foreach (bool l5 in compileFunctorCall(A, State, ACode)) 1661 foreach (bool l5 in compileFunctorCall(A, State, ACode))
1662 { 1662 {
1663 foreach (bool l6 in compileRuleBody(B, State, BCode)) 1663 foreach (bool l6 in compileRuleBody(B, State, BCode))
1664 { 1664 {
1665 yield return true; 1665 yield return true;
1666 yield break; 1666 yield break;
1667 } 1667 }
1668 } 1668 }
1669 } 1669 }
1670 } 1670 }
1671 } 1671 }
1672 } 1672 }
1673 { 1673 {
1674 object State = arg2; 1674 object State = arg2;
1675 object PseudoCode = arg3; 1675 object PseudoCode = arg3;
1676 Variable A = new Variable(); 1676 Variable A = new Variable();
1677 Variable B = new Variable(); 1677 Variable B = new Variable();
1678 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"\+", A), B))) 1678 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"\+", A), B)))
1679 { 1679 {
1680 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor2(@";", new Functor2(@"->", A, Atom.a(@"fail")), Atom.a(@"true")), B), State, PseudoCode)) 1680 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor2(@";", new Functor2(@"->", A, Atom.a(@"fail")), Atom.a(@"true")), B), State, PseudoCode))
1681 { 1681 {
1682 yield return true; 1682 yield return true;
1683 yield break; 1683 yield break;
1684 } 1684 }
1685 } 1685 }
1686 } 1686 }
1687 { 1687 {
1688 object State = arg2; 1688 object State = arg2;
1689 object PseudoCode = arg3; 1689 object PseudoCode = arg3;
1690 Variable A = new Variable(); 1690 Variable A = new Variable();
1691 Variable B = new Variable(); 1691 Variable B = new Variable();
1692 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"once", A), B))) 1692 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"once", A), B)))
1693 { 1693 {
1694 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor2(@";", new Functor2(@"->", A, Atom.a(@"true")), Atom.a(@"fail")), B), State, PseudoCode)) 1694 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor2(@";", new Functor2(@"->", A, Atom.a(@"true")), Atom.a(@"fail")), B), State, PseudoCode))
1695 { 1695 {
1696 yield return true; 1696 yield return true;
1697 yield break; 1697 yield break;
1698 } 1698 }
1699 } 1699 }
1700 } 1700 }
1701 { 1701 {
1702 object State = arg2; 1702 object State = arg2;
1703 object PseudoCode = arg3; 1703 object PseudoCode = arg3;
1704 Variable A = new Variable(); 1704 Variable A = new Variable();
1705 Variable T = new Variable(); 1705 Variable T = new Variable();
1706 Variable B = new Variable(); 1706 Variable B = new Variable();
1707 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@"->", A, T), B))) 1707 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@"->", A, T), B)))
1708 { 1708 {
1709 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor2(@";", new Functor2(@"->", A, T), Atom.a(@"fail")), B), State, PseudoCode)) 1709 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor2(@";", new Functor2(@"->", A, T), Atom.a(@"fail")), B), State, PseudoCode))
1710 { 1710 {
1711 yield return true; 1711 yield return true;
1712 yield break; 1712 yield break;
1713 } 1713 }
1714 } 1714 }
1715 } 1715 }
1716 { 1716 {
1717 object State = arg2; 1717 object State = arg2;
1718 object PseudoCode = arg3; 1718 object PseudoCode = arg3;
1719 Variable A = new Variable(); 1719 Variable A = new Variable();
1720 Variable B = new Variable(); 1720 Variable B = new Variable();
1721 Variable C = new Variable(); 1721 Variable C = new Variable();
1722 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@"\=", A, B), C))) 1722 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@"\=", A, B), C)))
1723 { 1723 {
1724 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor1(@"\+", new Functor2(@"=", A, B)), C), State, PseudoCode)) 1724 foreach (bool l3 in compileRuleBody(new Functor2(@",", new Functor1(@"\+", new Functor2(@"=", A, B)), C), State, PseudoCode))
1725 { 1725 {
1726 yield return true; 1726 yield return true;
1727 yield break; 1727 yield break;
1728 } 1728 }
1729 } 1729 }
1730 } 1730 }
1731 { 1731 {
1732 object State = arg2; 1732 object State = arg2;
1733 object PseudoCode = arg3; 1733 object PseudoCode = arg3;
1734 Variable A = new Variable(); 1734 Variable A = new Variable();
1735 Variable ACode = new Variable(); 1735 Variable ACode = new Variable();
1736 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", Atom.a(@"!"), A))) 1736 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", Atom.a(@"!"), A)))
1737 { 1737 {
1738 foreach (bool l3 in compileRuleBody(A, State, ACode)) 1738 foreach (bool l3 in compileRuleBody(A, State, ACode))
1739 { 1739 {
1740 foreach (bool l4 in append(ACode, new ListPair(Atom.a(@"yieldbreak"), Atom.NIL), PseudoCode)) 1740 foreach (bool l4 in append(ACode, new ListPair(Atom.a(@"yieldbreak"), Atom.NIL), PseudoCode))
1741 { 1741 {
1742 yield return true; 1742 yield return true;
1743 yield break; 1743 yield break;
1744 } 1744 }
1745 } 1745 }
1746 } 1746 }
1747 } 1747 }
1748 { 1748 {
1749 object State = arg2; 1749 object State = arg2;
1750 object PseudoCode = arg3; 1750 object PseudoCode = arg3;
1751 Variable Name = new Variable(); 1751 Variable Name = new Variable();
1752 Variable A = new Variable(); 1752 Variable A = new Variable();
1753 Variable ACode = new Variable(); 1753 Variable ACode = new Variable();
1754 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"$CUTIF", Name), A))) 1754 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"$CUTIF", Name), A)))
1755 { 1755 {
1756 foreach (bool l3 in compileRuleBody(A, State, ACode)) 1756 foreach (bool l3 in compileRuleBody(A, State, ACode))
1757 { 1757 {
1758 foreach (bool l4 in append(ACode, new ListPair(new Functor1(@"breakBlock", Name), Atom.NIL), PseudoCode)) 1758 foreach (bool l4 in append(ACode, new ListPair(new Functor1(@"breakBlock", Name), Atom.NIL), PseudoCode))
1759 { 1759 {
1760 yield return true; 1760 yield return true;
1761 yield break; 1761 yield break;
1762 } 1762 }
1763 } 1763 }
1764 } 1764 }
1765 } 1765 }
1766 { 1766 {
1767 object _State = arg2; 1767 object _State = arg2;
1768 Variable x1 = new Variable(); 1768 Variable x1 = new Variable();
1769 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", Atom.a(@"fail"), x1))) 1769 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", Atom.a(@"fail"), x1)))
1770 { 1770 {
1771 foreach (bool l3 in YP.unify(arg3, Atom.NIL)) 1771 foreach (bool l3 in YP.unify(arg3, Atom.NIL))
1772 { 1772 {
1773 yield return true; 1773 yield return true;
1774 yield break; 1774 yield break;
1775 } 1775 }
1776 } 1776 }
1777 } 1777 }
1778 { 1778 {
1779 object State = arg2; 1779 object State = arg2;
1780 object PseudoCode = arg3; 1780 object PseudoCode = arg3;
1781 Variable A = new Variable(); 1781 Variable A = new Variable();
1782 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", Atom.a(@"true"), A))) 1782 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", Atom.a(@"true"), A)))
1783 { 1783 {
1784 foreach (bool l3 in compileRuleBody(A, State, PseudoCode)) 1784 foreach (bool l3 in compileRuleBody(A, State, PseudoCode))
1785 { 1785 {
1786 yield return true; 1786 yield return true;
1787 yield break; 1787 yield break;
1788 } 1788 }
1789 } 1789 }
1790 } 1790 }
1791 { 1791 {
1792 object State = arg2; 1792 object State = arg2;
1793 Variable A = new Variable(); 1793 Variable A = new Variable();
1794 Variable Term = new Variable(); 1794 Variable Term = new Variable();
1795 Variable B = new Variable(); 1795 Variable B = new Variable();
1796 Variable ACode = new Variable(); 1796 Variable ACode = new Variable();
1797 Variable TermCode = new Variable(); 1797 Variable TermCode = new Variable();
1798 Variable BCode = new Variable(); 1798 Variable BCode = new Variable();
1799 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@"is", A, Term), B))) 1799 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@"is", A, Term), B)))
1800 { 1800 {
1801 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"foreach", new Functor2(@"call", Atom.a(@"YP.unify"), new ListPair(ACode, new ListPair(TermCode, Atom.NIL))), BCode), Atom.NIL))) 1801 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"foreach", new Functor2(@"call", Atom.a(@"YP.unify"), new ListPair(ACode, new ListPair(TermCode, Atom.NIL))), BCode), Atom.NIL)))
1802 { 1802 {
1803 foreach (bool l4 in compileTerm(A, State, ACode)) 1803 foreach (bool l4 in compileTerm(A, State, ACode))
1804 { 1804 {
1805 foreach (bool l5 in compileExpression(Term, State, TermCode)) 1805 foreach (bool l5 in compileExpression(Term, State, TermCode))
1806 { 1806 {
1807 foreach (bool l6 in compileRuleBody(B, State, BCode)) 1807 foreach (bool l6 in compileRuleBody(B, State, BCode))
1808 { 1808 {
1809 yield return true; 1809 yield return true;
1810 yield break; 1810 yield break;
1811 } 1811 }
1812 } 1812 }
1813 } 1813 }
1814 } 1814 }
1815 } 1815 }
1816 } 1816 }
1817 { 1817 {
1818 object State = arg2; 1818 object State = arg2;
1819 Variable A = new Variable(); 1819 Variable A = new Variable();
1820 Variable B = new Variable(); 1820 Variable B = new Variable();
1821 Variable ACode = new Variable(); 1821 Variable ACode = new Variable();
1822 Variable BCode = new Variable(); 1822 Variable BCode = new Variable();
1823 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B))) 1823 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B)))
1824 { 1824 {
1825 foreach (bool l3 in YP.unify(arg3, new ListPair(ACode, BCode))) 1825 foreach (bool l3 in YP.unify(arg3, new ListPair(ACode, BCode)))
1826 { 1826 {
1827 if (CompilerState.isDetNoneOut(State, A)) 1827 if (CompilerState.isDetNoneOut(State, A))
1828 { 1828 {
1829 foreach (bool l5 in compileFunctorCall(A, State, ACode)) 1829 foreach (bool l5 in compileFunctorCall(A, State, ACode))
1830 { 1830 {
1831 foreach (bool l6 in compileRuleBody(B, State, BCode)) 1831 foreach (bool l6 in compileRuleBody(B, State, BCode))
1832 { 1832 {
1833 yield return true; 1833 yield return true;
1834 yield break; 1834 yield break;
1835 } 1835 }
1836 } 1836 }
1837 } 1837 }
1838 } 1838 }
1839 } 1839 }
1840 } 1840 }
1841 { 1841 {
1842 object State = arg2; 1842 object State = arg2;
1843 Variable A = new Variable(); 1843 Variable A = new Variable();
1844 Variable B = new Variable(); 1844 Variable B = new Variable();
1845 Variable ACode = new Variable(); 1845 Variable ACode = new Variable();
1846 Variable BCode = new Variable(); 1846 Variable BCode = new Variable();
1847 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B))) 1847 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B)))
1848 { 1848 {
1849 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"if", ACode, BCode), Atom.NIL))) 1849 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"if", ACode, BCode), Atom.NIL)))
1850 { 1850 {
1851 if (CompilerState.isSemidetNoneOut(State, A)) 1851 if (CompilerState.isSemidetNoneOut(State, A))
1852 { 1852 {
1853 foreach (bool l5 in compileFunctorCall(A, State, ACode)) 1853 foreach (bool l5 in compileFunctorCall(A, State, ACode))
1854 { 1854 {
1855 foreach (bool l6 in compileRuleBody(B, State, BCode)) 1855 foreach (bool l6 in compileRuleBody(B, State, BCode))
1856 { 1856 {
1857 yield return true; 1857 yield return true;
1858 yield break; 1858 yield break;
1859 } 1859 }
1860 } 1860 }
1861 } 1861 }
1862 } 1862 }
1863 } 1863 }
1864 } 1864 }
1865 { 1865 {
1866 object State = arg2; 1866 object State = arg2;
1867 Variable ACode = new Variable(); 1867 Variable ACode = new Variable();
1868 Variable B = new Variable(); 1868 Variable B = new Variable();
1869 Variable BCode = new Variable(); 1869 Variable BCode = new Variable();
1870 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"$DET_NONE_OUT", ACode), B))) 1870 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"$DET_NONE_OUT", ACode), B)))
1871 { 1871 {
1872 foreach (bool l3 in YP.unify(arg3, new ListPair(ACode, BCode))) 1872 foreach (bool l3 in YP.unify(arg3, new ListPair(ACode, BCode)))
1873 { 1873 {
1874 foreach (bool l4 in compileRuleBody(B, State, BCode)) 1874 foreach (bool l4 in compileRuleBody(B, State, BCode))
1875 { 1875 {
1876 yield return true; 1876 yield return true;
1877 yield break; 1877 yield break;
1878 } 1878 }
1879 } 1879 }
1880 } 1880 }
1881 } 1881 }
1882 { 1882 {
1883 object State = arg2; 1883 object State = arg2;
1884 Variable A = new Variable(); 1884 Variable A = new Variable();
1885 Variable B = new Variable(); 1885 Variable B = new Variable();
1886 Variable FunctionName = new Variable(); 1886 Variable FunctionName = new Variable();
1887 Variable X1Code = new Variable(); 1887 Variable X1Code = new Variable();
1888 Variable X2Code = new Variable(); 1888 Variable X2Code = new Variable();
1889 Variable BCode = new Variable(); 1889 Variable BCode = new Variable();
1890 Variable Name = new Variable(); 1890 Variable Name = new Variable();
1891 Variable X1 = new Variable(); 1891 Variable X1 = new Variable();
1892 Variable X2 = new Variable(); 1892 Variable X2 = new Variable();
1893 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B))) 1893 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B)))
1894 { 1894 {
1895 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"if", new Functor2(@"call", FunctionName, new ListPair(X1Code, new ListPair(X2Code, Atom.NIL))), BCode), Atom.NIL))) 1895 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"if", new Functor2(@"call", FunctionName, new ListPair(X1Code, new ListPair(X2Code, Atom.NIL))), BCode), Atom.NIL)))
1896 { 1896 {
1897 foreach (bool l4 in YP.univ(A, new ListPair(Name, new ListPair(X1, new ListPair(X2, Atom.NIL))))) 1897 foreach (bool l4 in YP.univ(A, new ListPair(Name, new ListPair(X1, new ListPair(X2, Atom.NIL)))))
1898 { 1898 {
1899 foreach (bool l5 in binaryExpressionConditional(Name, FunctionName)) 1899 foreach (bool l5 in binaryExpressionConditional(Name, FunctionName))
1900 { 1900 {
1901 foreach (bool l6 in compileExpression(X1, State, X1Code)) 1901 foreach (bool l6 in compileExpression(X1, State, X1Code))
1902 { 1902 {
1903 foreach (bool l7 in compileExpression(X2, State, X2Code)) 1903 foreach (bool l7 in compileExpression(X2, State, X2Code))
1904 { 1904 {
1905 foreach (bool l8 in compileRuleBody(B, State, BCode)) 1905 foreach (bool l8 in compileRuleBody(B, State, BCode))
1906 { 1906 {
1907 yield return true; 1907 yield return true;
1908 yield break; 1908 yield break;
1909 } 1909 }
1910 } 1910 }
1911 } 1911 }
1912 } 1912 }
1913 } 1913 }
1914 } 1914 }
1915 } 1915 }
1916 } 1916 }
1917 { 1917 {
1918 object State = arg2; 1918 object State = arg2;
1919 object PseudoCode = arg3; 1919 object PseudoCode = arg3;
1920 Variable A = new Variable(); 1920 Variable A = new Variable();
1921 Variable B = new Variable(); 1921 Variable B = new Variable();
1922 Variable C = new Variable(); 1922 Variable C = new Variable();
1923 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@",", A, B), C))) 1923 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor2(@",", A, B), C)))
1924 { 1924 {
1925 foreach (bool l3 in compileRuleBody(new Functor2(@",", A, new Functor2(@",", B, C)), State, PseudoCode)) 1925 foreach (bool l3 in compileRuleBody(new Functor2(@",", A, new Functor2(@",", B, C)), State, PseudoCode))
1926 { 1926 {
1927 yield return true; 1927 yield return true;
1928 yield break; 1928 yield break;
1929 } 1929 }
1930 } 1930 }
1931 } 1931 }
1932 { 1932 {
1933 object State = arg2; 1933 object State = arg2;
1934 object PseudoCode = arg3; 1934 object PseudoCode = arg3;
1935 Variable Template = new Variable(); 1935 Variable Template = new Variable();
1936 Variable Goal = new Variable(); 1936 Variable Goal = new Variable();
1937 Variable Bag = new Variable(); 1937 Variable Bag = new Variable();
1938 Variable B = new Variable(); 1938 Variable B = new Variable();
1939 Variable TemplateCode = new Variable(); 1939 Variable TemplateCode = new Variable();
1940 Variable FindallAnswers = new Variable(); 1940 Variable FindallAnswers = new Variable();
1941 Variable GoalAndAddCode = new Variable(); 1941 Variable GoalAndAddCode = new Variable();
1942 Variable BagCode = new Variable(); 1942 Variable BagCode = new Variable();
1943 Variable BCode = new Variable(); 1943 Variable BCode = new Variable();
1944 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor3(@"findall", Template, Goal, Bag), B))) 1944 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor3(@"findall", Template, Goal, Bag), B)))
1945 { 1945 {
1946 foreach (bool l3 in compileTerm(Template, State, TemplateCode)) 1946 foreach (bool l3 in compileTerm(Template, State, TemplateCode))
1947 { 1947 {
1948 foreach (bool l4 in CompilerState.gensym(State, Atom.a(@"findallAnswers"), FindallAnswers)) 1948 foreach (bool l4 in CompilerState.gensym(State, Atom.a(@"findallAnswers"), FindallAnswers))
1949 { 1949 {
1950 foreach (bool l5 in compileRuleBody(new Functor2(@",", Goal, new Functor2(@",", new Functor1(@"$DET_NONE_OUT", new Functor3(@"callMember", new Functor1(@"var", FindallAnswers), Atom.a(@"add"), Atom.NIL)), Atom.a(@"fail"))), State, GoalAndAddCode)) 1950 foreach (bool l5 in compileRuleBody(new Functor2(@",", Goal, new Functor2(@",", new Functor1(@"$DET_NONE_OUT", new Functor3(@"callMember", new Functor1(@"var", FindallAnswers), Atom.a(@"add"), Atom.NIL)), Atom.a(@"fail"))), State, GoalAndAddCode))
1951 { 1951 {
1952 foreach (bool l6 in compileTerm(Bag, State, BagCode)) 1952 foreach (bool l6 in compileTerm(Bag, State, BagCode))
1953 { 1953 {
1954 foreach (bool l7 in compileRuleBody(B, State, BCode)) 1954 foreach (bool l7 in compileRuleBody(B, State, BCode))
1955 { 1955 {
1956 foreach (bool l8 in append(new ListPair(new Functor3(@"declare", Atom.a(@"FindallAnswers"), FindallAnswers, new Functor2(@"new", Atom.a(@"FindallAnswers"), new ListPair(TemplateCode, Atom.NIL))), GoalAndAddCode), new ListPair(new Functor2(@"foreach", new Functor3(@"callMember", new Functor1(@"var", FindallAnswers), Atom.a(@"result"), new ListPair(BagCode, Atom.NIL)), BCode), Atom.NIL), PseudoCode)) 1956 foreach (bool l8 in append(new ListPair(new Functor3(@"declare", Atom.a(@"FindallAnswers"), FindallAnswers, new Functor2(@"new", Atom.a(@"FindallAnswers"), new ListPair(TemplateCode, Atom.NIL))), GoalAndAddCode), new ListPair(new Functor2(@"foreach", new Functor3(@"callMember", new Functor1(@"var", FindallAnswers), Atom.a(@"result"), new ListPair(BagCode, Atom.NIL)), BCode), Atom.NIL), PseudoCode))
1957 { 1957 {
1958 yield return true; 1958 yield return true;
1959 yield break; 1959 yield break;
1960 } 1960 }
1961 } 1961 }
1962 } 1962 }
1963 } 1963 }
1964 } 1964 }
1965 } 1965 }
1966 } 1966 }
1967 } 1967 }
1968 { 1968 {
1969 object State = arg2; 1969 object State = arg2;
1970 object PseudoCode = arg3; 1970 object PseudoCode = arg3;
1971 Variable Template = new Variable(); 1971 Variable Template = new Variable();
1972 Variable Goal = new Variable(); 1972 Variable Goal = new Variable();
1973 Variable Bag = new Variable(); 1973 Variable Bag = new Variable();
1974 Variable B = new Variable(); 1974 Variable B = new Variable();
1975 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor3(@"bagof", Template, Goal, Bag), B))) 1975 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor3(@"bagof", Template, Goal, Bag), B)))
1976 { 1976 {
1977 foreach (bool l3 in compileBagof(Atom.a(@"result"), Template, Goal, Bag, B, State, PseudoCode)) 1977 foreach (bool l3 in compileBagof(Atom.a(@"result"), Template, Goal, Bag, B, State, PseudoCode))
1978 { 1978 {
1979 yield return true; 1979 yield return true;
1980 yield break; 1980 yield break;
1981 } 1981 }
1982 } 1982 }
1983 } 1983 }
1984 { 1984 {
1985 object State = arg2; 1985 object State = arg2;
1986 object PseudoCode = arg3; 1986 object PseudoCode = arg3;
1987 Variable Template = new Variable(); 1987 Variable Template = new Variable();
1988 Variable Goal = new Variable(); 1988 Variable Goal = new Variable();
1989 Variable Bag = new Variable(); 1989 Variable Bag = new Variable();
1990 Variable B = new Variable(); 1990 Variable B = new Variable();
1991 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor3(@"setof", Template, Goal, Bag), B))) 1991 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor3(@"setof", Template, Goal, Bag), B)))
1992 { 1992 {
1993 foreach (bool l3 in compileBagof(Atom.a(@"resultSet"), Template, Goal, Bag, B, State, PseudoCode)) 1993 foreach (bool l3 in compileBagof(Atom.a(@"resultSet"), Template, Goal, Bag, B, State, PseudoCode))
1994 { 1994 {
1995 yield return true; 1995 yield return true;
1996 yield break; 1996 yield break;
1997 } 1997 }
1998 } 1998 }
1999 } 1999 }
2000 { 2000 {
2001 object State = arg2; 2001 object State = arg2;
2002 Variable A = new Variable(); 2002 Variable A = new Variable();
2003 Variable B = new Variable(); 2003 Variable B = new Variable();
2004 Variable ATermCode = new Variable(); 2004 Variable ATermCode = new Variable();
2005 Variable BCode = new Variable(); 2005 Variable BCode = new Variable();
2006 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"call", A), B))) 2006 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", new Functor1(@"call", A), B)))
2007 { 2007 {
2008 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"foreach", new Functor2(@"call", Atom.a(@"YP.getIterator"), new ListPair(ATermCode, new ListPair(new Functor2(@"call", Atom.a(@"getDeclaringClass"), Atom.NIL), Atom.NIL))), BCode), Atom.NIL))) 2008 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"foreach", new Functor2(@"call", Atom.a(@"YP.getIterator"), new ListPair(ATermCode, new ListPair(new Functor2(@"call", Atom.a(@"getDeclaringClass"), Atom.NIL), Atom.NIL))), BCode), Atom.NIL)))
2009 { 2009 {
2010 foreach (bool l4 in compileTerm(A, State, ATermCode)) 2010 foreach (bool l4 in compileTerm(A, State, ATermCode))
2011 { 2011 {
2012 foreach (bool l5 in compileRuleBody(B, State, BCode)) 2012 foreach (bool l5 in compileRuleBody(B, State, BCode))
2013 { 2013 {
2014 yield return true; 2014 yield return true;
2015 yield break; 2015 yield break;
2016 } 2016 }
2017 } 2017 }
2018 } 2018 }
2019 } 2019 }
2020 } 2020 }
2021 { 2021 {
2022 object State = arg2; 2022 object State = arg2;
2023 Variable A = new Variable(); 2023 Variable A = new Variable();
2024 Variable B = new Variable(); 2024 Variable B = new Variable();
2025 Variable ACode = new Variable(); 2025 Variable ACode = new Variable();
2026 Variable BCode = new Variable(); 2026 Variable BCode = new Variable();
2027 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B))) 2027 foreach (bool l2 in YP.unify(arg1, new Functor2(@",", A, B)))
2028 { 2028 {
2029 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"foreach", ACode, BCode), Atom.NIL))) 2029 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"foreach", ACode, BCode), Atom.NIL)))
2030 { 2030 {
2031 foreach (bool l4 in compileFunctorCall(A, State, ACode)) 2031 foreach (bool l4 in compileFunctorCall(A, State, ACode))
2032 { 2032 {
2033 foreach (bool l5 in compileRuleBody(B, State, BCode)) 2033 foreach (bool l5 in compileRuleBody(B, State, BCode))
2034 { 2034 {
2035 yield return true; 2035 yield return true;
2036 yield break; 2036 yield break;
2037 } 2037 }
2038 } 2038 }
2039 } 2039 }
2040 } 2040 }
2041 } 2041 }
2042 { 2042 {
2043 object State = arg2; 2043 object State = arg2;
2044 object PseudoCode = arg3; 2044 object PseudoCode = arg3;
2045 Variable A = new Variable(); 2045 Variable A = new Variable();
2046 Variable B = new Variable(); 2046 Variable B = new Variable();
2047 foreach (bool l2 in YP.unify(arg1, new Functor2(@";", A, B))) 2047 foreach (bool l2 in YP.unify(arg1, new Functor2(@";", A, B)))
2048 { 2048 {
2049 if (YP.var(A)) 2049 if (YP.var(A))
2050 { 2050 {
2051 foreach (bool l4 in compileRuleBody(new Functor2(@";", new Functor1(@"call", A), B), State, PseudoCode)) 2051 foreach (bool l4 in compileRuleBody(new Functor2(@";", new Functor1(@"call", A), B), State, PseudoCode))
2052 { 2052 {
2053 yield return true; 2053 yield return true;
2054 yield break; 2054 yield break;
2055 } 2055 }
2056 } 2056 }
2057 } 2057 }
2058 } 2058 }
2059 { 2059 {
2060 object State = arg2; 2060 object State = arg2;
2061 Variable A = new Variable(); 2061 Variable A = new Variable();
2062 Variable T = new Variable(); 2062 Variable T = new Variable();
2063 Variable B = new Variable(); 2063 Variable B = new Variable();
2064 Variable CutIfLabel = new Variable(); 2064 Variable CutIfLabel = new Variable();
2065 Variable Code = new Variable(); 2065 Variable Code = new Variable();
2066 foreach (bool l2 in YP.unify(arg1, new Functor2(@";", new Functor2(@"->", A, T), B))) 2066 foreach (bool l2 in YP.unify(arg1, new Functor2(@";", new Functor2(@"->", A, T), B)))
2067 { 2067 {
2068 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"breakableBlock", CutIfLabel, Code), Atom.NIL))) 2068 foreach (bool l3 in YP.unify(arg3, new ListPair(new Functor2(@"breakableBlock", CutIfLabel, Code), Atom.NIL)))
2069 { 2069 {
2070 foreach (bool l4 in CompilerState.gensym(State, Atom.a(@"cutIf"), CutIfLabel)) 2070 foreach (bool l4 in CompilerState.gensym(State, Atom.a(@"cutIf"), CutIfLabel))
2071 { 2071 {
2072 foreach (bool l5 in compileRuleBody(new Functor2(@";", new Functor2(@",", A, new Functor2(@",", new Functor1(@"$CUTIF", CutIfLabel), T)), B), State, Code)) 2072 foreach (bool l5 in compileRuleBody(new Functor2(@";", new Functor2(@",", A, new Functor2(@",", new Functor1(@"$CUTIF", CutIfLabel), T)), B), State, Code))
2073 { 2073 {
2074 yield return true; 2074 yield return true;
2075 yield break; 2075 yield break;
2076 } 2076 }
2077 } 2077 }
2078 } 2078 }
2079 } 2079 }
2080 } 2080 }
2081 { 2081 {
2082 object State = arg2; 2082 object State = arg2;
2083 object PseudoCode = arg3; 2083 object PseudoCode = arg3;
2084 Variable A = new Variable(); 2084 Variable A = new Variable();
2085 Variable B = new Variable(); 2085 Variable B = new Variable();
2086 Variable ACode = new Variable(); 2086 Variable ACode = new Variable();
2087 Variable BCode = new Variable(); 2087 Variable BCode = new Variable();
2088 foreach (bool l2 in YP.unify(arg1, new Functor2(@";", A, B))) 2088 foreach (bool l2 in YP.unify(arg1, new Functor2(@";", A, B)))
2089 { 2089 {
2090 foreach (bool l3 in compileRuleBody(A, State, ACode)) 2090 foreach (bool l3 in compileRuleBody(A, State, ACode))
2091 { 2091 {
2092 foreach (bool l4 in compileRuleBody(B, State, BCode)) 2092 foreach (bool l4 in compileRuleBody(B, State, BCode))
2093 { 2093 {
2094 foreach (bool l5 in append(ACode, BCode, PseudoCode)) 2094 foreach (bool l5 in append(ACode, BCode, PseudoCode))
2095 { 2095 {
2096 yield return true; 2096 yield return true;
2097 yield break; 2097 yield break;
2098 } 2098 }
2099 } 2099 }
2100 } 2100 }
2101 } 2101 }
2102 } 2102 }
2103 { 2103 {
2104 object A = arg1; 2104 object A = arg1;
2105 object State = arg2; 2105 object State = arg2;
2106 object PseudoCode = arg3; 2106 object PseudoCode = arg3;
2107 foreach (bool l2 in compileRuleBody(new Functor2(@",", A, Atom.a(@"true")), State, PseudoCode)) 2107 foreach (bool l2 in compileRuleBody(new Functor2(@",", A, Atom.a(@"true")), State, PseudoCode))
2108 { 2108 {
2109 yield return true; 2109 yield return true;
2110 yield break; 2110 yield break;
2111 } 2111 }
2112 } 2112 }
2113 } 2113 }
2114 2114
2115 public static IEnumerable<bool> compileBagof(object ResultMethod, object Template, object Goal, object Bag, object B, object State, object PseudoCode) 2115 public static IEnumerable<bool> compileBagof(object ResultMethod, object Template, object Goal, object Bag, object B, object State, object PseudoCode)
2116 { 2116 {
2117 { 2117 {
2118 Variable TemplateCode = new Variable(); 2118 Variable TemplateCode = new Variable();
2119 Variable GoalTermCode = new Variable(); 2119 Variable GoalTermCode = new Variable();
2120 Variable UnqualifiedGoal = new Variable(); 2120 Variable UnqualifiedGoal = new Variable();
2121 Variable BagofAnswers = new Variable(); 2121 Variable BagofAnswers = new Variable();
2122 Variable GoalAndAddCode = new Variable(); 2122 Variable GoalAndAddCode = new Variable();
2123 Variable BagCode = new Variable(); 2123 Variable BagCode = new Variable();
2124 Variable BCode = new Variable(); 2124 Variable BCode = new Variable();
2125 foreach (bool l2 in compileTerm(Template, State, TemplateCode)) 2125 foreach (bool l2 in compileTerm(Template, State, TemplateCode))
2126 { 2126 {
2127 foreach (bool l3 in compileTerm(Goal, State, GoalTermCode)) 2127 foreach (bool l3 in compileTerm(Goal, State, GoalTermCode))
2128 { 2128 {
2129 foreach (bool l4 in unqualifiedGoal(Goal, UnqualifiedGoal)) 2129 foreach (bool l4 in unqualifiedGoal(Goal, UnqualifiedGoal))
2130 { 2130 {
2131 foreach (bool l5 in CompilerState.gensym(State, Atom.a(@"bagofAnswers"), BagofAnswers)) 2131 foreach (bool l5 in CompilerState.gensym(State, Atom.a(@"bagofAnswers"), BagofAnswers))
2132 { 2132 {
2133 foreach (bool l6 in compileRuleBody(new Functor2(@",", UnqualifiedGoal, new Functor2(@",", new Functor1(@"$DET_NONE_OUT", new Functor3(@"callMember", new Functor1(@"var", BagofAnswers), Atom.a(@"add"), Atom.NIL)), Atom.a(@"fail"))), State, GoalAndAddCode)) 2133 foreach (bool l6 in compileRuleBody(new Functor2(@",", UnqualifiedGoal, new Functor2(@",", new Functor1(@"$DET_NONE_OUT", new Functor3(@"callMember", new Functor1(@"var", BagofAnswers), Atom.a(@"add"), Atom.NIL)), Atom.a(@"fail"))), State, GoalAndAddCode))
2134 { 2134 {
2135 foreach (bool l7 in compileTerm(Bag, State, BagCode)) 2135 foreach (bool l7 in compileTerm(Bag, State, BagCode))
2136 { 2136 {
2137 foreach (bool l8 in compileRuleBody(B, State, BCode)) 2137 foreach (bool l8 in compileRuleBody(B, State, BCode))
2138 { 2138 {
2139 foreach (bool l9 in append(new ListPair(new Functor3(@"declare", Atom.a(@"BagofAnswers"), BagofAnswers, new Functor2(@"new", Atom.a(@"BagofAnswers"), new ListPair(TemplateCode, new ListPair(GoalTermCode, Atom.NIL)))), GoalAndAddCode), new ListPair(new Functor2(@"foreach", new Functor3(@"callMember", new Functor1(@"var", BagofAnswers), ResultMethod, new ListPair(BagCode, Atom.NIL)), BCode), Atom.NIL), PseudoCode)) 2139 foreach (bool l9 in append(new ListPair(new Functor3(@"declare", Atom.a(@"BagofAnswers"), BagofAnswers, new Functor2(@"new", Atom.a(@"BagofAnswers"), new ListPair(TemplateCode, new ListPair(GoalTermCode, Atom.NIL)))), GoalAndAddCode), new ListPair(new Functor2(@"foreach", new Functor3(@"callMember", new Functor1(@"var", BagofAnswers), ResultMethod, new ListPair(BagCode, Atom.NIL)), BCode), Atom.NIL), PseudoCode))
2140 { 2140 {
2141 yield return true; 2141 yield return true;
2142 yield break; 2142 yield break;
2143 } 2143 }
2144 } 2144 }
2145 } 2145 }
2146 } 2146 }
2147 } 2147 }
2148 } 2148 }
2149 } 2149 }
2150 } 2150 }
2151 } 2151 }
2152 } 2152 }
2153 2153
2154 public static IEnumerable<bool> unqualifiedGoal(object arg1, object arg2) 2154 public static IEnumerable<bool> unqualifiedGoal(object arg1, object arg2)
2155 { 2155 {
2156 { 2156 {
2157 object Goal = arg1; 2157 object Goal = arg1;
2158 foreach (bool l2 in YP.unify(arg2, new Functor1(@"call", Goal))) 2158 foreach (bool l2 in YP.unify(arg2, new Functor1(@"call", Goal)))
2159 { 2159 {
2160 if (YP.var(Goal)) 2160 if (YP.var(Goal))
2161 { 2161 {
2162 yield return true; 2162 yield return true;
2163 yield break; 2163 yield break;
2164 } 2164 }
2165 } 2165 }
2166 } 2166 }
2167 { 2167 {
2168 object UnqualifiedGoal = arg2; 2168 object UnqualifiedGoal = arg2;
2169 Variable x1 = new Variable(); 2169 Variable x1 = new Variable();
2170 Variable Goal = new Variable(); 2170 Variable Goal = new Variable();
2171 foreach (bool l2 in YP.unify(arg1, new Functor2(@"^", x1, Goal))) 2171 foreach (bool l2 in YP.unify(arg1, new Functor2(@"^", x1, Goal)))
2172 { 2172 {
2173 foreach (bool l3 in unqualifiedGoal(Goal, UnqualifiedGoal)) 2173 foreach (bool l3 in unqualifiedGoal(Goal, UnqualifiedGoal))
2174 { 2174 {
2175 yield return true; 2175 yield return true;
2176 yield break; 2176 yield break;
2177 } 2177 }
2178 } 2178 }
2179 } 2179 }
2180 { 2180 {
2181 Variable UnqualifiedGoal = new Variable(); 2181 Variable UnqualifiedGoal = new Variable();
2182 foreach (bool l2 in YP.unify(arg1, UnqualifiedGoal)) 2182 foreach (bool l2 in YP.unify(arg1, UnqualifiedGoal))
2183 { 2183 {
2184 foreach (bool l3 in YP.unify(arg2, UnqualifiedGoal)) 2184 foreach (bool l3 in YP.unify(arg2, UnqualifiedGoal))
2185 { 2185 {
2186 yield return true; 2186 yield return true;
2187 yield break; 2187 yield break;
2188 } 2188 }
2189 } 2189 }
2190 } 2190 }
2191 } 2191 }
2192 2192
2193 public static IEnumerable<bool> binaryExpressionConditional(object arg1, object arg2) 2193 public static IEnumerable<bool> binaryExpressionConditional(object arg1, object arg2)
2194 { 2194 {
2195 { 2195 {
2196 foreach (bool l2 in YP.unify(arg1, Atom.a(@"=:="))) 2196 foreach (bool l2 in YP.unify(arg1, Atom.a(@"=:=")))
2197 { 2197 {
2198 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.equal"))) 2198 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.equal")))
2199 { 2199 {
2200 yield return true; 2200 yield return true;
2201 yield break; 2201 yield break;
2202 } 2202 }
2203 } 2203 }
2204 } 2204 }
2205 { 2205 {
2206 foreach (bool l2 in YP.unify(arg1, Atom.a(@"=\="))) 2206 foreach (bool l2 in YP.unify(arg1, Atom.a(@"=\=")))
2207 { 2207 {
2208 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.notEqual"))) 2208 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.notEqual")))
2209 { 2209 {
2210 yield return true; 2210 yield return true;
2211 yield break; 2211 yield break;
2212 } 2212 }
2213 } 2213 }
2214 } 2214 }
2215 { 2215 {
2216 foreach (bool l2 in YP.unify(arg1, Atom.a(@">"))) 2216 foreach (bool l2 in YP.unify(arg1, Atom.a(@">")))
2217 { 2217 {
2218 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.greaterThan"))) 2218 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.greaterThan")))
2219 { 2219 {
2220 yield return true; 2220 yield return true;
2221 yield break; 2221 yield break;
2222 } 2222 }
2223 } 2223 }
2224 } 2224 }
2225 { 2225 {
2226 foreach (bool l2 in YP.unify(arg1, Atom.a(@"<"))) 2226 foreach (bool l2 in YP.unify(arg1, Atom.a(@"<")))
2227 { 2227 {
2228 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.lessThan"))) 2228 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.lessThan")))
2229 { 2229 {
2230 yield return true; 2230 yield return true;
2231 yield break; 2231 yield break;
2232 } 2232 }
2233 } 2233 }
2234 } 2234 }
2235 { 2235 {
2236 foreach (bool l2 in YP.unify(arg1, Atom.a(@">="))) 2236 foreach (bool l2 in YP.unify(arg1, Atom.a(@">=")))
2237 { 2237 {
2238 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.greaterThanOrEqual"))) 2238 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.greaterThanOrEqual")))
2239 { 2239 {
2240 yield return true; 2240 yield return true;
2241 yield break; 2241 yield break;
2242 } 2242 }
2243 } 2243 }
2244 } 2244 }
2245 { 2245 {
2246 foreach (bool l2 in YP.unify(arg1, Atom.a(@"=<"))) 2246 foreach (bool l2 in YP.unify(arg1, Atom.a(@"=<")))
2247 { 2247 {
2248 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.lessThanOrEqual"))) 2248 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.lessThanOrEqual")))
2249 { 2249 {
2250 yield return true; 2250 yield return true;
2251 yield break; 2251 yield break;
2252 } 2252 }
2253 } 2253 }
2254 } 2254 }
2255 } 2255 }
2256 2256
2257 public static IEnumerable<bool> compileFunctorCall(object Functor_1, object State, object arg3) 2257 public static IEnumerable<bool> compileFunctorCall(object Functor_1, object State, object arg3)
2258 { 2258 {
2259 { 2259 {
2260 Variable FunctionName = new Variable(); 2260 Variable FunctionName = new Variable();
2261 Variable CompiledArgs = new Variable(); 2261 Variable CompiledArgs = new Variable();
2262 Variable FunctorName = new Variable(); 2262 Variable FunctorName = new Variable();
2263 Variable FunctorArgs = new Variable(); 2263 Variable FunctorArgs = new Variable();
2264 Variable x7 = new Variable(); 2264 Variable x7 = new Variable();
2265 Variable Arity = new Variable(); 2265 Variable Arity = new Variable();
2266 foreach (bool l2 in YP.unify(arg3, new Functor2(@"call", FunctionName, CompiledArgs))) 2266 foreach (bool l2 in YP.unify(arg3, new Functor2(@"call", FunctionName, CompiledArgs)))
2267 { 2267 {
2268 foreach (bool l3 in YP.univ(Functor_1, new ListPair(FunctorName, FunctorArgs))) 2268 foreach (bool l3 in YP.univ(Functor_1, new ListPair(FunctorName, FunctorArgs)))
2269 { 2269 {
2270 foreach (bool l4 in YP.functor(Functor_1, x7, Arity)) 2270 foreach (bool l4 in YP.functor(Functor_1, x7, Arity))
2271 { 2271 {
2272 foreach (bool l5 in functorCallFunctionName(State, FunctorName, Arity, FunctionName)) 2272 foreach (bool l5 in functorCallFunctionName(State, FunctorName, Arity, FunctionName))
2273 { 2273 {
2274 foreach (bool l6 in maplist_compileTerm(FunctorArgs, State, CompiledArgs)) 2274 foreach (bool l6 in maplist_compileTerm(FunctorArgs, State, CompiledArgs))
2275 { 2275 {
2276 yield return true; 2276 yield return true;
2277 yield break; 2277 yield break;
2278 } 2278 }
2279 } 2279 }
2280 } 2280 }
2281 } 2281 }
2282 } 2282 }
2283 } 2283 }
2284 } 2284 }
2285 2285
2286 public static IEnumerable<bool> functorCallFunctionName(object arg1, object arg2, object arg3, object arg4) 2286 public static IEnumerable<bool> functorCallFunctionName(object arg1, object arg2, object arg3, object arg4)
2287 { 2287 {
2288 { 2288 {
2289 object x1 = arg1; 2289 object x1 = arg1;
2290 foreach (bool l2 in YP.unify(arg2, Atom.a(@"="))) 2290 foreach (bool l2 in YP.unify(arg2, Atom.a(@"=")))
2291 { 2291 {
2292 foreach (bool l3 in YP.unify(arg3, 2)) 2292 foreach (bool l3 in YP.unify(arg3, 2))
2293 { 2293 {
2294 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.unify"))) 2294 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.unify")))
2295 { 2295 {
2296 yield return true; 2296 yield return true;
2297 yield break; 2297 yield break;
2298 } 2298 }
2299 } 2299 }
2300 } 2300 }
2301 } 2301 }
2302 { 2302 {
2303 object x1 = arg1; 2303 object x1 = arg1;
2304 foreach (bool l2 in YP.unify(arg2, Atom.a(@"=.."))) 2304 foreach (bool l2 in YP.unify(arg2, Atom.a(@"=..")))
2305 { 2305 {
2306 foreach (bool l3 in YP.unify(arg3, 2)) 2306 foreach (bool l3 in YP.unify(arg3, 2))
2307 { 2307 {
2308 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.univ"))) 2308 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.univ")))
2309 { 2309 {
2310 yield return true; 2310 yield return true;
2311 yield break; 2311 yield break;
2312 } 2312 }
2313 } 2313 }
2314 } 2314 }
2315 } 2315 }
2316 { 2316 {
2317 object x1 = arg1; 2317 object x1 = arg1;
2318 foreach (bool l2 in YP.unify(arg2, Atom.a(@"var"))) 2318 foreach (bool l2 in YP.unify(arg2, Atom.a(@"var")))
2319 { 2319 {
2320 foreach (bool l3 in YP.unify(arg3, 1)) 2320 foreach (bool l3 in YP.unify(arg3, 1))
2321 { 2321 {
2322 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.var"))) 2322 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.var")))
2323 { 2323 {
2324 yield return true; 2324 yield return true;
2325 yield break; 2325 yield break;
2326 } 2326 }
2327 } 2327 }
2328 } 2328 }
2329 } 2329 }
2330 { 2330 {
2331 object x1 = arg1; 2331 object x1 = arg1;
2332 foreach (bool l2 in YP.unify(arg2, Atom.a(@"nonvar"))) 2332 foreach (bool l2 in YP.unify(arg2, Atom.a(@"nonvar")))
2333 { 2333 {
2334 foreach (bool l3 in YP.unify(arg3, 1)) 2334 foreach (bool l3 in YP.unify(arg3, 1))
2335 { 2335 {
2336 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.nonvar"))) 2336 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.nonvar")))
2337 { 2337 {
2338 yield return true; 2338 yield return true;
2339 yield break; 2339 yield break;
2340 } 2340 }
2341 } 2341 }
2342 } 2342 }
2343 } 2343 }
2344 { 2344 {
2345 object x1 = arg1; 2345 object x1 = arg1;
2346 foreach (bool l2 in YP.unify(arg2, Atom.a(@"arg"))) 2346 foreach (bool l2 in YP.unify(arg2, Atom.a(@"arg")))
2347 { 2347 {
2348 foreach (bool l3 in YP.unify(arg3, 3)) 2348 foreach (bool l3 in YP.unify(arg3, 3))
2349 { 2349 {
2350 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.arg"))) 2350 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.arg")))
2351 { 2351 {
2352 yield return true; 2352 yield return true;
2353 yield break; 2353 yield break;
2354 } 2354 }
2355 } 2355 }
2356 } 2356 }
2357 } 2357 }
2358 { 2358 {
2359 object x1 = arg1; 2359 object x1 = arg1;
2360 foreach (bool l2 in YP.unify(arg2, Atom.a(@"functor"))) 2360 foreach (bool l2 in YP.unify(arg2, Atom.a(@"functor")))
2361 { 2361 {
2362 foreach (bool l3 in YP.unify(arg3, 3)) 2362 foreach (bool l3 in YP.unify(arg3, 3))
2363 { 2363 {
2364 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.functor"))) 2364 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.functor")))
2365 { 2365 {
2366 yield return true; 2366 yield return true;
2367 yield break; 2367 yield break;
2368 } 2368 }
2369 } 2369 }
2370 } 2370 }
2371 } 2371 }
2372 { 2372 {
2373 object x1 = arg1; 2373 object x1 = arg1;
2374 foreach (bool l2 in YP.unify(arg2, Atom.a(@"repeat"))) 2374 foreach (bool l2 in YP.unify(arg2, Atom.a(@"repeat")))
2375 { 2375 {
2376 foreach (bool l3 in YP.unify(arg3, 0)) 2376 foreach (bool l3 in YP.unify(arg3, 0))
2377 { 2377 {
2378 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.repeat"))) 2378 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.repeat")))
2379 { 2379 {
2380 yield return true; 2380 yield return true;
2381 yield break; 2381 yield break;
2382 } 2382 }
2383 } 2383 }
2384 } 2384 }
2385 } 2385 }
2386 { 2386 {
2387 object x1 = arg1; 2387 object x1 = arg1;
2388 foreach (bool l2 in YP.unify(arg2, Atom.a(@"get_code"))) 2388 foreach (bool l2 in YP.unify(arg2, Atom.a(@"get_code")))
2389 { 2389 {
2390 foreach (bool l3 in YP.unify(arg3, 1)) 2390 foreach (bool l3 in YP.unify(arg3, 1))
2391 { 2391 {
2392 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.get_code"))) 2392 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.get_code")))
2393 { 2393 {
2394 yield return true; 2394 yield return true;
2395 yield break; 2395 yield break;
2396 } 2396 }
2397 } 2397 }
2398 } 2398 }
2399 } 2399 }
2400 { 2400 {
2401 object x1 = arg1; 2401 object x1 = arg1;
2402 foreach (bool l2 in YP.unify(arg2, Atom.a(@"current_op"))) 2402 foreach (bool l2 in YP.unify(arg2, Atom.a(@"current_op")))
2403 { 2403 {
2404 foreach (bool l3 in YP.unify(arg3, 3)) 2404 foreach (bool l3 in YP.unify(arg3, 3))
2405 { 2405 {
2406 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.current_op"))) 2406 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.current_op")))
2407 { 2407 {
2408 yield return true; 2408 yield return true;
2409 yield break; 2409 yield break;
2410 } 2410 }
2411 } 2411 }
2412 } 2412 }
2413 } 2413 }
2414 { 2414 {
2415 object x1 = arg1; 2415 object x1 = arg1;
2416 foreach (bool l2 in YP.unify(arg2, Atom.a(@"atom_length"))) 2416 foreach (bool l2 in YP.unify(arg2, Atom.a(@"atom_length")))
2417 { 2417 {
2418 foreach (bool l3 in YP.unify(arg3, 2)) 2418 foreach (bool l3 in YP.unify(arg3, 2))
2419 { 2419 {
2420 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.atom_length"))) 2420 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.atom_length")))
2421 { 2421 {
2422 yield return true; 2422 yield return true;
2423 yield break; 2423 yield break;
2424 } 2424 }
2425 } 2425 }
2426 } 2426 }
2427 } 2427 }
2428 { 2428 {
2429 object x1 = arg1; 2429 object x1 = arg1;
2430 foreach (bool l2 in YP.unify(arg2, Atom.a(@"atom_concat"))) 2430 foreach (bool l2 in YP.unify(arg2, Atom.a(@"atom_concat")))
2431 { 2431 {
2432 foreach (bool l3 in YP.unify(arg3, 3)) 2432 foreach (bool l3 in YP.unify(arg3, 3))
2433 { 2433 {
2434 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.atom_concat"))) 2434 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.atom_concat")))
2435 { 2435 {
2436 yield return true; 2436 yield return true;
2437 yield break; 2437 yield break;
2438 } 2438 }
2439 } 2439 }
2440 } 2440 }
2441 } 2441 }
2442 { 2442 {
2443 object x1 = arg1; 2443 object x1 = arg1;
2444 foreach (bool l2 in YP.unify(arg2, Atom.a(@"sub_atom"))) 2444 foreach (bool l2 in YP.unify(arg2, Atom.a(@"sub_atom")))
2445 { 2445 {
2446 foreach (bool l3 in YP.unify(arg3, 5)) 2446 foreach (bool l3 in YP.unify(arg3, 5))
2447 { 2447 {
2448 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.sub_atom"))) 2448 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.sub_atom")))
2449 { 2449 {
2450 yield return true; 2450 yield return true;
2451 yield break; 2451 yield break;
2452 } 2452 }
2453 } 2453 }
2454 } 2454 }
2455 } 2455 }
2456 { 2456 {
2457 object x1 = arg1; 2457 object x1 = arg1;
2458 foreach (bool l2 in YP.unify(arg2, Atom.a(@"atom_codes"))) 2458 foreach (bool l2 in YP.unify(arg2, Atom.a(@"atom_codes")))
2459 { 2459 {
2460 foreach (bool l3 in YP.unify(arg3, 2)) 2460 foreach (bool l3 in YP.unify(arg3, 2))
2461 { 2461 {
2462 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.atom_codes"))) 2462 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.atom_codes")))
2463 { 2463 {
2464 yield return true; 2464 yield return true;
2465 yield break; 2465 yield break;
2466 } 2466 }
2467 } 2467 }
2468 } 2468 }
2469 } 2469 }
2470 { 2470 {
2471 object x1 = arg1; 2471 object x1 = arg1;
2472 foreach (bool l2 in YP.unify(arg2, Atom.a(@"number_codes"))) 2472 foreach (bool l2 in YP.unify(arg2, Atom.a(@"number_codes")))
2473 { 2473 {
2474 foreach (bool l3 in YP.unify(arg3, 2)) 2474 foreach (bool l3 in YP.unify(arg3, 2))
2475 { 2475 {
2476 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.number_codes"))) 2476 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.number_codes")))
2477 { 2477 {
2478 yield return true; 2478 yield return true;
2479 yield break; 2479 yield break;
2480 } 2480 }
2481 } 2481 }
2482 } 2482 }
2483 } 2483 }
2484 { 2484 {
2485 object x1 = arg1; 2485 object x1 = arg1;
2486 foreach (bool l2 in YP.unify(arg2, Atom.a(@"copy_term"))) 2486 foreach (bool l2 in YP.unify(arg2, Atom.a(@"copy_term")))
2487 { 2487 {
2488 foreach (bool l3 in YP.unify(arg3, 2)) 2488 foreach (bool l3 in YP.unify(arg3, 2))
2489 { 2489 {
2490 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.copy_term"))) 2490 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.copy_term")))
2491 { 2491 {
2492 yield return true; 2492 yield return true;
2493 yield break; 2493 yield break;
2494 } 2494 }
2495 } 2495 }
2496 } 2496 }
2497 } 2497 }
2498 { 2498 {
2499 object x1 = arg1; 2499 object x1 = arg1;
2500 foreach (bool l2 in YP.unify(arg2, Atom.a(@"sort"))) 2500 foreach (bool l2 in YP.unify(arg2, Atom.a(@"sort")))
2501 { 2501 {
2502 foreach (bool l3 in YP.unify(arg3, 2)) 2502 foreach (bool l3 in YP.unify(arg3, 2))
2503 { 2503 {
2504 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.sort"))) 2504 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.sort")))
2505 { 2505 {
2506 yield return true; 2506 yield return true;
2507 yield break; 2507 yield break;
2508 } 2508 }
2509 } 2509 }
2510 } 2510 }
2511 } 2511 }
2512 { 2512 {
2513 object x1 = arg1; 2513 object x1 = arg1;
2514 foreach (bool l2 in YP.unify(arg2, Atom.a(@"script_event"))) 2514 foreach (bool l2 in YP.unify(arg2, Atom.a(@"script_event")))
2515 { 2515 {
2516 foreach (bool l3 in YP.unify(arg3, 2)) 2516 foreach (bool l3 in YP.unify(arg3, 2))
2517 { 2517 {
2518 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.script_event"))) 2518 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.script_event")))
2519 { 2519 {
2520 yield return true; 2520 yield return true;
2521 yield break; 2521 yield break;
2522 } 2522 }
2523 } 2523 }
2524 } 2524 }
2525 } 2525 }
2526 { 2526 {
2527 object x1 = arg1; 2527 object x1 = arg1;
2528 foreach (bool l2 in YP.unify(arg2, Atom.a(@"nl"))) 2528 foreach (bool l2 in YP.unify(arg2, Atom.a(@"nl")))
2529 { 2529 {
2530 foreach (bool l3 in YP.unify(arg3, 0)) 2530 foreach (bool l3 in YP.unify(arg3, 0))
2531 { 2531 {
2532 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.nl"))) 2532 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.nl")))
2533 { 2533 {
2534 yield return true; 2534 yield return true;
2535 yield break; 2535 yield break;
2536 } 2536 }
2537 } 2537 }
2538 } 2538 }
2539 } 2539 }
2540 { 2540 {
2541 object x1 = arg1; 2541 object x1 = arg1;
2542 foreach (bool l2 in YP.unify(arg2, Atom.a(@"write"))) 2542 foreach (bool l2 in YP.unify(arg2, Atom.a(@"write")))
2543 { 2543 {
2544 foreach (bool l3 in YP.unify(arg3, 1)) 2544 foreach (bool l3 in YP.unify(arg3, 1))
2545 { 2545 {
2546 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.write"))) 2546 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.write")))
2547 { 2547 {
2548 yield return true; 2548 yield return true;
2549 yield break; 2549 yield break;
2550 } 2550 }
2551 } 2551 }
2552 } 2552 }
2553 } 2553 }
2554 { 2554 {
2555 object x1 = arg1; 2555 object x1 = arg1;
2556 foreach (bool l2 in YP.unify(arg2, Atom.a(@"put_code"))) 2556 foreach (bool l2 in YP.unify(arg2, Atom.a(@"put_code")))
2557 { 2557 {
2558 foreach (bool l3 in YP.unify(arg3, 1)) 2558 foreach (bool l3 in YP.unify(arg3, 1))
2559 { 2559 {
2560 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.put_code"))) 2560 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.put_code")))
2561 { 2561 {
2562 yield return true; 2562 yield return true;
2563 yield break; 2563 yield break;
2564 } 2564 }
2565 } 2565 }
2566 } 2566 }
2567 } 2567 }
2568 { 2568 {
2569 object x1 = arg1; 2569 object x1 = arg1;
2570 foreach (bool l2 in YP.unify(arg2, Atom.a(@"atom"))) 2570 foreach (bool l2 in YP.unify(arg2, Atom.a(@"atom")))
2571 { 2571 {
2572 foreach (bool l3 in YP.unify(arg3, 1)) 2572 foreach (bool l3 in YP.unify(arg3, 1))
2573 { 2573 {
2574 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.atom"))) 2574 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.atom")))
2575 { 2575 {
2576 yield return true; 2576 yield return true;
2577 yield break; 2577 yield break;
2578 } 2578 }
2579 } 2579 }
2580 } 2580 }
2581 } 2581 }
2582 { 2582 {
2583 object x1 = arg1; 2583 object x1 = arg1;
2584 foreach (bool l2 in YP.unify(arg2, Atom.a(@"number"))) 2584 foreach (bool l2 in YP.unify(arg2, Atom.a(@"number")))
2585 { 2585 {
2586 foreach (bool l3 in YP.unify(arg3, 1)) 2586 foreach (bool l3 in YP.unify(arg3, 1))
2587 { 2587 {
2588 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.number"))) 2588 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.number")))
2589 { 2589 {
2590 yield return true; 2590 yield return true;
2591 yield break; 2591 yield break;
2592 } 2592 }
2593 } 2593 }
2594 } 2594 }
2595 } 2595 }
2596 { 2596 {
2597 object x1 = arg1; 2597 object x1 = arg1;
2598 foreach (bool l2 in YP.unify(arg2, Atom.a(@"=="))) 2598 foreach (bool l2 in YP.unify(arg2, Atom.a(@"==")))
2599 { 2599 {
2600 foreach (bool l3 in YP.unify(arg3, 2)) 2600 foreach (bool l3 in YP.unify(arg3, 2))
2601 { 2601 {
2602 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termEqual"))) 2602 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termEqual")))
2603 { 2603 {
2604 yield return true; 2604 yield return true;
2605 yield break; 2605 yield break;
2606 } 2606 }
2607 } 2607 }
2608 } 2608 }
2609 } 2609 }
2610 { 2610 {
2611 object x1 = arg1; 2611 object x1 = arg1;
2612 foreach (bool l2 in YP.unify(arg2, Atom.a(@"\=="))) 2612 foreach (bool l2 in YP.unify(arg2, Atom.a(@"\==")))
2613 { 2613 {
2614 foreach (bool l3 in YP.unify(arg3, 2)) 2614 foreach (bool l3 in YP.unify(arg3, 2))
2615 { 2615 {
2616 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termNotEqual"))) 2616 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termNotEqual")))
2617 { 2617 {
2618 yield return true; 2618 yield return true;
2619 yield break; 2619 yield break;
2620 } 2620 }
2621 } 2621 }
2622 } 2622 }
2623 } 2623 }
2624 { 2624 {
2625 object x1 = arg1; 2625 object x1 = arg1;
2626 foreach (bool l2 in YP.unify(arg2, Atom.a(@"@<"))) 2626 foreach (bool l2 in YP.unify(arg2, Atom.a(@"@<")))
2627 { 2627 {
2628 foreach (bool l3 in YP.unify(arg3, 2)) 2628 foreach (bool l3 in YP.unify(arg3, 2))
2629 { 2629 {
2630 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termLessThan"))) 2630 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termLessThan")))
2631 { 2631 {
2632 yield return true; 2632 yield return true;
2633 yield break; 2633 yield break;
2634 } 2634 }
2635 } 2635 }
2636 } 2636 }
2637 } 2637 }
2638 { 2638 {
2639 object x1 = arg1; 2639 object x1 = arg1;
2640 foreach (bool l2 in YP.unify(arg2, Atom.a(@"@=<"))) 2640 foreach (bool l2 in YP.unify(arg2, Atom.a(@"@=<")))
2641 { 2641 {
2642 foreach (bool l3 in YP.unify(arg3, 2)) 2642 foreach (bool l3 in YP.unify(arg3, 2))
2643 { 2643 {
2644 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termLessThanOrEqual"))) 2644 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termLessThanOrEqual")))
2645 { 2645 {
2646 yield return true; 2646 yield return true;
2647 yield break; 2647 yield break;
2648 } 2648 }
2649 } 2649 }
2650 } 2650 }
2651 } 2651 }
2652 { 2652 {
2653 object x1 = arg1; 2653 object x1 = arg1;
2654 foreach (bool l2 in YP.unify(arg2, Atom.a(@"@>"))) 2654 foreach (bool l2 in YP.unify(arg2, Atom.a(@"@>")))
2655 { 2655 {
2656 foreach (bool l3 in YP.unify(arg3, 2)) 2656 foreach (bool l3 in YP.unify(arg3, 2))
2657 { 2657 {
2658 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termGreaterThan"))) 2658 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termGreaterThan")))
2659 { 2659 {
2660 yield return true; 2660 yield return true;
2661 yield break; 2661 yield break;
2662 } 2662 }
2663 } 2663 }
2664 } 2664 }
2665 } 2665 }
2666 { 2666 {
2667 object x1 = arg1; 2667 object x1 = arg1;
2668 foreach (bool l2 in YP.unify(arg2, Atom.a(@"@>="))) 2668 foreach (bool l2 in YP.unify(arg2, Atom.a(@"@>=")))
2669 { 2669 {
2670 foreach (bool l3 in YP.unify(arg3, 2)) 2670 foreach (bool l3 in YP.unify(arg3, 2))
2671 { 2671 {
2672 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termGreaterThanOrEqual"))) 2672 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.termGreaterThanOrEqual")))
2673 { 2673 {
2674 yield return true; 2674 yield return true;
2675 yield break; 2675 yield break;
2676 } 2676 }
2677 } 2677 }
2678 } 2678 }
2679 } 2679 }
2680 { 2680 {
2681 object x1 = arg1; 2681 object x1 = arg1;
2682 foreach (bool l2 in YP.unify(arg2, Atom.a(@"throw"))) 2682 foreach (bool l2 in YP.unify(arg2, Atom.a(@"throw")))
2683 { 2683 {
2684 foreach (bool l3 in YP.unify(arg3, 1)) 2684 foreach (bool l3 in YP.unify(arg3, 1))
2685 { 2685 {
2686 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.throwException"))) 2686 foreach (bool l4 in YP.unify(arg4, Atom.a(@"YP.throwException")))
2687 { 2687 {
2688 yield return true; 2688 yield return true;
2689 yield break; 2689 yield break;
2690 } 2690 }
2691 } 2691 }
2692 } 2692 }
2693 } 2693 }
2694 { 2694 {
2695 object State = arg1; 2695 object State = arg1;
2696 object Arity = arg3; 2696 object Arity = arg3;
2697 Variable Name = new Variable(); 2697 Variable Name = new Variable();
2698 foreach (bool l2 in YP.unify(arg2, Name)) 2698 foreach (bool l2 in YP.unify(arg2, Name))
2699 { 2699 {
2700 foreach (bool l3 in YP.unify(arg4, Name)) 2700 foreach (bool l3 in YP.unify(arg4, Name))
2701 { 2701 {
2702 if (CompilerState.nameArityHasModule(State, Name, Arity, Atom.a(@""))) 2702 if (CompilerState.nameArityHasModule(State, Name, Arity, Atom.a(@"")))
2703 { 2703 {
2704 yield return true; 2704 yield return true;
2705 yield break; 2705 yield break;
2706 } 2706 }
2707 } 2707 }
2708 } 2708 }
2709 } 2709 }
2710 { 2710 {
2711 object _State = arg1; 2711 object _State = arg1;
2712 object _Arity = arg3; 2712 object _Arity = arg3;
2713 Variable Name = new Variable(); 2713 Variable Name = new Variable();
2714 foreach (bool l2 in YP.unify(arg2, Name)) 2714 foreach (bool l2 in YP.unify(arg2, Name))
2715 { 2715 {
2716 foreach (bool l3 in YP.unify(arg4, Name)) 2716 foreach (bool l3 in YP.unify(arg4, Name))
2717 { 2717 {
2718 foreach (bool l4 in Atom.module(Name, Atom.a(@""))) 2718 foreach (bool l4 in Atom.module(Name, Atom.a(@"")))
2719 { 2719 {
2720 yield return true; 2720 yield return true;
2721 yield break; 2721 yield break;
2722 } 2722 }
2723 } 2723 }
2724 } 2724 }
2725 } 2725 }
2726 { 2726 {
2727 object _State = arg1; 2727 object _State = arg1;
2728 object Name = arg2; 2728 object Name = arg2;
2729 object Arity = arg3; 2729 object Arity = arg3;
2730 object x4 = arg4; 2730 object x4 = arg4;
2731 foreach (bool l2 in Atom.module(Name, Atom.NIL)) 2731 foreach (bool l2 in Atom.module(Name, Atom.NIL))
2732 { 2732 {
2733 YP.throwException(new Functor2(@"error", new Functor2(@"type_error", Atom.a(@"callable"), new Functor2(@"/", Name, Arity)), Atom.a(@"Calls to dynamic predicates not supported"))); 2733 YP.throwException(new Functor2(@"error", new Functor2(@"type_error", Atom.a(@"callable"), new Functor2(@"/", Name, Arity)), Atom.a(@"Calls to dynamic predicates not supported")));
2734 yield return true; 2734 yield return true;
2735 yield break; 2735 yield break;
2736 } 2736 }
2737 } 2737 }
2738 { 2738 {
2739 object _State = arg1; 2739 object _State = arg1;
2740 object Name = arg2; 2740 object Name = arg2;
2741 object Arity = arg3; 2741 object Arity = arg3;
2742 object x4 = arg4; 2742 object x4 = arg4;
2743 Variable Module = new Variable(); 2743 Variable Module = new Variable();
2744 Variable Message = new Variable(); 2744 Variable Message = new Variable();
2745 foreach (bool l2 in Atom.module(Name, Module)) 2745 foreach (bool l2 in Atom.module(Name, Module))
2746 { 2746 {
2747 foreach (bool l3 in Atom.module(Name, Atom.NIL)) 2747 foreach (bool l3 in Atom.module(Name, Atom.NIL))
2748 { 2748 {
2749 foreach (bool l4 in YP.atom_concat(Atom.a(@"Not supporting calls to external module: "), Module, Message)) 2749 foreach (bool l4 in YP.atom_concat(Atom.a(@"Not supporting calls to external module: "), Module, Message))
2750 { 2750 {
2751 YP.throwException(new Functor2(@"error", new Functor2(@"type_error", Atom.a(@"callable"), new Functor2(@"/", Name, Arity)), Message)); 2751 YP.throwException(new Functor2(@"error", new Functor2(@"type_error", Atom.a(@"callable"), new Functor2(@"/", Name, Arity)), Message));
2752 yield return true; 2752 yield return true;
2753 yield break; 2753 yield break;
2754 } 2754 }
2755 } 2755 }
2756 } 2756 }
2757 } 2757 }
2758 } 2758 }
2759 2759
2760 public static IEnumerable<bool> compileTerm(object arg1, object arg2, object arg3) 2760 public static IEnumerable<bool> compileTerm(object arg1, object arg2, object arg3)
2761 { 2761 {
2762 { 2762 {
2763 object Term = arg1; 2763 object Term = arg1;
2764 object State = arg2; 2764 object State = arg2;
2765 Variable VariableName = new Variable(); 2765 Variable VariableName = new Variable();
2766 foreach (bool l2 in YP.unify(arg3, new Functor1(@"var", VariableName))) 2766 foreach (bool l2 in YP.unify(arg3, new Functor1(@"var", VariableName)))
2767 { 2767 {
2768 if (YP.var(Term)) 2768 if (YP.var(Term))
2769 { 2769 {
2770 foreach (bool l4 in CompilerState.getVariableName(State, Term, VariableName)) 2770 foreach (bool l4 in CompilerState.getVariableName(State, Term, VariableName))
2771 { 2771 {
2772 yield return true; 2772 yield return true;
2773 yield break; 2773 yield break;
2774 } 2774 }
2775 } 2775 }
2776 } 2776 }
2777 } 2777 }
2778 { 2778 {
2779 object _State = arg2; 2779 object _State = arg2;
2780 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 2780 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
2781 { 2781 {
2782 foreach (bool l3 in YP.unify(arg3, new Functor1(@"var", Atom.a(@"Atom.NIL")))) 2782 foreach (bool l3 in YP.unify(arg3, new Functor1(@"var", Atom.a(@"Atom.NIL"))))
2783 { 2783 {
2784 yield return true; 2784 yield return true;
2785 yield break; 2785 yield break;
2786 } 2786 }
2787 } 2787 }
2788 } 2788 }
2789 { 2789 {
2790 object Term = arg1; 2790 object Term = arg1;
2791 object State = arg2; 2791 object State = arg2;
2792 object Code = arg3; 2792 object Code = arg3;
2793 Variable ModuleCode = new Variable(); 2793 Variable ModuleCode = new Variable();
2794 if (YP.atom(Term)) 2794 if (YP.atom(Term))
2795 { 2795 {
2796 foreach (bool l3 in compileAtomModule(Term, 0, State, ModuleCode)) 2796 foreach (bool l3 in compileAtomModule(Term, 0, State, ModuleCode))
2797 { 2797 {
2798 foreach (bool l4 in YP.unify(Code, new Functor2(@"call", Atom.a(@"Atom.a"), new ListPair(new Functor1(@"object", Term), new ListPair(ModuleCode, Atom.NIL))))) 2798 foreach (bool l4 in YP.unify(Code, new Functor2(@"call", Atom.a(@"Atom.a"), new ListPair(new Functor1(@"object", Term), new ListPair(ModuleCode, Atom.NIL)))))
2799 { 2799 {
2800 yield return true; 2800 yield return true;
2801 yield break; 2801 yield break;
2802 } 2802 }
2803 goto cutIf1; 2803 goto cutIf1;
2804 } 2804 }
2805 foreach (bool l3 in YP.unify(Code, new Functor2(@"call", Atom.a(@"Atom.a"), new ListPair(new Functor1(@"object", Term), Atom.NIL)))) 2805 foreach (bool l3 in YP.unify(Code, new Functor2(@"call", Atom.a(@"Atom.a"), new ListPair(new Functor1(@"object", Term), Atom.NIL))))
2806 { 2806 {
2807 yield return true; 2807 yield return true;
2808 yield break; 2808 yield break;
2809 } 2809 }
2810 cutIf1: 2810 cutIf1:
2811 { } 2811 { }
2812 } 2812 }
2813 } 2813 }
2814 { 2814 {
2815 object State = arg2; 2815 object State = arg2;
2816 Variable First = new Variable(); 2816 Variable First = new Variable();
2817 Variable Rest = new Variable(); 2817 Variable Rest = new Variable();
2818 Variable Arg1 = new Variable(); 2818 Variable Arg1 = new Variable();
2819 Variable Arg2 = new Variable(); 2819 Variable Arg2 = new Variable();
2820 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Rest))) 2820 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Rest)))
2821 { 2821 {
2822 foreach (bool l3 in YP.unify(arg3, new Functor2(@"new", Atom.a(@"ListPair"), new ListPair(Arg1, new ListPair(Arg2, Atom.NIL))))) 2822 foreach (bool l3 in YP.unify(arg3, new Functor2(@"new", Atom.a(@"ListPair"), new ListPair(Arg1, new ListPair(Arg2, Atom.NIL)))))
2823 { 2823 {
2824 foreach (bool l4 in compileTerm(First, State, Arg1)) 2824 foreach (bool l4 in compileTerm(First, State, Arg1))
2825 { 2825 {
2826 foreach (bool l5 in compileTerm(Rest, State, Arg2)) 2826 foreach (bool l5 in compileTerm(Rest, State, Arg2))
2827 { 2827 {
2828 yield return true; 2828 yield return true;
2829 yield break; 2829 yield break;
2830 } 2830 }
2831 } 2831 }
2832 } 2832 }
2833 } 2833 }
2834 } 2834 }
2835 { 2835 {
2836 object Term = arg1; 2836 object Term = arg1;
2837 object State = arg2; 2837 object State = arg2;
2838 object Result = arg3; 2838 object Result = arg3;
2839 Variable Name = new Variable(); 2839 Variable Name = new Variable();
2840 Variable TermArgs = new Variable(); 2840 Variable TermArgs = new Variable();
2841 Variable x6 = new Variable(); 2841 Variable x6 = new Variable();
2842 Variable Arity = new Variable(); 2842 Variable Arity = new Variable();
2843 Variable ModuleCode = new Variable(); 2843 Variable ModuleCode = new Variable();
2844 Variable NameCode = new Variable(); 2844 Variable NameCode = new Variable();
2845 Variable X1 = new Variable(); 2845 Variable X1 = new Variable();
2846 Variable Arg1 = new Variable(); 2846 Variable Arg1 = new Variable();
2847 Variable X2 = new Variable(); 2847 Variable X2 = new Variable();
2848 Variable Arg2 = new Variable(); 2848 Variable Arg2 = new Variable();
2849 Variable X3 = new Variable(); 2849 Variable X3 = new Variable();
2850 Variable Arg3 = new Variable(); 2850 Variable Arg3 = new Variable();
2851 Variable Args = new Variable(); 2851 Variable Args = new Variable();
2852 foreach (bool l2 in YP.univ(Term, new ListPair(Name, TermArgs))) 2852 foreach (bool l2 in YP.univ(Term, new ListPair(Name, TermArgs)))
2853 { 2853 {
2854 if (YP.termEqual(TermArgs, Atom.NIL)) 2854 if (YP.termEqual(TermArgs, Atom.NIL))
2855 { 2855 {
2856 foreach (bool l4 in YP.unify(Result, new Functor1(@"object", Name))) 2856 foreach (bool l4 in YP.unify(Result, new Functor1(@"object", Name)))
2857 { 2857 {
2858 yield return true; 2858 yield return true;
2859 yield break; 2859 yield break;
2860 } 2860 }
2861 goto cutIf2; 2861 goto cutIf2;
2862 } 2862 }
2863 foreach (bool l3 in YP.functor(Term, x6, Arity)) 2863 foreach (bool l3 in YP.functor(Term, x6, Arity))
2864 { 2864 {
2865 foreach (bool l4 in compileAtomModule(Name, Arity, State, ModuleCode)) 2865 foreach (bool l4 in compileAtomModule(Name, Arity, State, ModuleCode))
2866 { 2866 {
2867 foreach (bool l5 in YP.unify(NameCode, new Functor2(@"call", Atom.a(@"Atom.a"), new ListPair(new Functor1(@"object", Name), new ListPair(ModuleCode, Atom.NIL))))) 2867 foreach (bool l5 in YP.unify(NameCode, new Functor2(@"call", Atom.a(@"Atom.a"), new ListPair(new Functor1(@"object", Name), new ListPair(ModuleCode, Atom.NIL)))))
2868 { 2868 {
2869 foreach (bool l6 in YP.unify(TermArgs, new ListPair(X1, Atom.NIL))) 2869 foreach (bool l6 in YP.unify(TermArgs, new ListPair(X1, Atom.NIL)))
2870 { 2870 {
2871 foreach (bool l7 in compileTerm(X1, State, Arg1)) 2871 foreach (bool l7 in compileTerm(X1, State, Arg1))
2872 { 2872 {
2873 foreach (bool l8 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor1"), new ListPair(NameCode, new ListPair(Arg1, Atom.NIL))))) 2873 foreach (bool l8 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor1"), new ListPair(NameCode, new ListPair(Arg1, Atom.NIL)))))
2874 { 2874 {
2875 yield return true; 2875 yield return true;
2876 yield break; 2876 yield break;
2877 } 2877 }
2878 } 2878 }
2879 goto cutIf4; 2879 goto cutIf4;
2880 } 2880 }
2881 foreach (bool l6 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, Atom.NIL)))) 2881 foreach (bool l6 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, Atom.NIL))))
2882 { 2882 {
2883 foreach (bool l7 in compileTerm(X1, State, Arg1)) 2883 foreach (bool l7 in compileTerm(X1, State, Arg1))
2884 { 2884 {
2885 foreach (bool l8 in compileTerm(X2, State, Arg2)) 2885 foreach (bool l8 in compileTerm(X2, State, Arg2))
2886 { 2886 {
2887 foreach (bool l9 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor2"), new ListPair(NameCode, new ListPair(Arg1, new ListPair(Arg2, Atom.NIL)))))) 2887 foreach (bool l9 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor2"), new ListPair(NameCode, new ListPair(Arg1, new ListPair(Arg2, Atom.NIL))))))
2888 { 2888 {
2889 yield return true; 2889 yield return true;
2890 yield break; 2890 yield break;
2891 } 2891 }
2892 } 2892 }
2893 } 2893 }
2894 goto cutIf5; 2894 goto cutIf5;
2895 } 2895 }
2896 foreach (bool l6 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, new ListPair(X3, Atom.NIL))))) 2896 foreach (bool l6 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, new ListPair(X3, Atom.NIL)))))
2897 { 2897 {
2898 foreach (bool l7 in compileTerm(X1, State, Arg1)) 2898 foreach (bool l7 in compileTerm(X1, State, Arg1))
2899 { 2899 {
2900 foreach (bool l8 in compileTerm(X2, State, Arg2)) 2900 foreach (bool l8 in compileTerm(X2, State, Arg2))
2901 { 2901 {
2902 foreach (bool l9 in compileTerm(X3, State, Arg3)) 2902 foreach (bool l9 in compileTerm(X3, State, Arg3))
2903 { 2903 {
2904 foreach (bool l10 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor3"), new ListPair(NameCode, new ListPair(Arg1, new ListPair(Arg2, new ListPair(Arg3, Atom.NIL))))))) 2904 foreach (bool l10 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor3"), new ListPair(NameCode, new ListPair(Arg1, new ListPair(Arg2, new ListPair(Arg3, Atom.NIL)))))))
2905 { 2905 {
2906 yield return true; 2906 yield return true;
2907 yield break; 2907 yield break;
2908 } 2908 }
2909 } 2909 }
2910 } 2910 }
2911 } 2911 }
2912 } 2912 }
2913 foreach (bool l6 in maplist_compileTerm(TermArgs, State, Args)) 2913 foreach (bool l6 in maplist_compileTerm(TermArgs, State, Args))
2914 { 2914 {
2915 foreach (bool l7 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor"), new ListPair(NameCode, new ListPair(new Functor1(@"objectArray", Args), Atom.NIL))))) 2915 foreach (bool l7 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor"), new ListPair(NameCode, new ListPair(new Functor1(@"objectArray", Args), Atom.NIL)))))
2916 { 2916 {
2917 yield return true; 2917 yield return true;
2918 yield break; 2918 yield break;
2919 } 2919 }
2920 } 2920 }
2921 cutIf5: 2921 cutIf5:
2922 cutIf4: 2922 cutIf4:
2923 { } 2923 { }
2924 } 2924 }
2925 goto cutIf3; 2925 goto cutIf3;
2926 } 2926 }
2927 foreach (bool l4 in YP.unify(NameCode, new Functor1(@"object", Name))) 2927 foreach (bool l4 in YP.unify(NameCode, new Functor1(@"object", Name)))
2928 { 2928 {
2929 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, Atom.NIL))) 2929 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, Atom.NIL)))
2930 { 2930 {
2931 foreach (bool l6 in compileTerm(X1, State, Arg1)) 2931 foreach (bool l6 in compileTerm(X1, State, Arg1))
2932 { 2932 {
2933 foreach (bool l7 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor1"), new ListPair(NameCode, new ListPair(Arg1, Atom.NIL))))) 2933 foreach (bool l7 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor1"), new ListPair(NameCode, new ListPair(Arg1, Atom.NIL)))))
2934 { 2934 {
2935 yield return true; 2935 yield return true;
2936 yield break; 2936 yield break;
2937 } 2937 }
2938 } 2938 }
2939 goto cutIf6; 2939 goto cutIf6;
2940 } 2940 }
2941 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, Atom.NIL)))) 2941 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, Atom.NIL))))
2942 { 2942 {
2943 foreach (bool l6 in compileTerm(X1, State, Arg1)) 2943 foreach (bool l6 in compileTerm(X1, State, Arg1))
2944 { 2944 {
2945 foreach (bool l7 in compileTerm(X2, State, Arg2)) 2945 foreach (bool l7 in compileTerm(X2, State, Arg2))
2946 { 2946 {
2947 foreach (bool l8 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor2"), new ListPair(NameCode, new ListPair(Arg1, new ListPair(Arg2, Atom.NIL)))))) 2947 foreach (bool l8 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor2"), new ListPair(NameCode, new ListPair(Arg1, new ListPair(Arg2, Atom.NIL))))))
2948 { 2948 {
2949 yield return true; 2949 yield return true;
2950 yield break; 2950 yield break;
2951 } 2951 }
2952 } 2952 }
2953 } 2953 }
2954 goto cutIf7; 2954 goto cutIf7;
2955 } 2955 }
2956 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, new ListPair(X3, Atom.NIL))))) 2956 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, new ListPair(X3, Atom.NIL)))))
2957 { 2957 {
2958 foreach (bool l6 in compileTerm(X1, State, Arg1)) 2958 foreach (bool l6 in compileTerm(X1, State, Arg1))
2959 { 2959 {
2960 foreach (bool l7 in compileTerm(X2, State, Arg2)) 2960 foreach (bool l7 in compileTerm(X2, State, Arg2))
2961 { 2961 {
2962 foreach (bool l8 in compileTerm(X3, State, Arg3)) 2962 foreach (bool l8 in compileTerm(X3, State, Arg3))
2963 { 2963 {
2964 foreach (bool l9 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor3"), new ListPair(NameCode, new ListPair(Arg1, new ListPair(Arg2, new ListPair(Arg3, Atom.NIL))))))) 2964 foreach (bool l9 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor3"), new ListPair(NameCode, new ListPair(Arg1, new ListPair(Arg2, new ListPair(Arg3, Atom.NIL)))))))
2965 { 2965 {
2966 yield return true; 2966 yield return true;
2967 yield break; 2967 yield break;
2968 } 2968 }
2969 } 2969 }
2970 } 2970 }
2971 } 2971 }
2972 } 2972 }
2973 foreach (bool l5 in maplist_compileTerm(TermArgs, State, Args)) 2973 foreach (bool l5 in maplist_compileTerm(TermArgs, State, Args))
2974 { 2974 {
2975 foreach (bool l6 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor"), new ListPair(NameCode, new ListPair(new Functor1(@"objectArray", Args), Atom.NIL))))) 2975 foreach (bool l6 in YP.unify(Result, new Functor2(@"new", Atom.a(@"Functor"), new ListPair(NameCode, new ListPair(new Functor1(@"objectArray", Args), Atom.NIL)))))
2976 { 2976 {
2977 yield return true; 2977 yield return true;
2978 yield break; 2978 yield break;
2979 } 2979 }
2980 } 2980 }
2981 cutIf7: 2981 cutIf7:
2982 cutIf6: 2982 cutIf6:
2983 { } 2983 { }
2984 } 2984 }
2985 cutIf3: 2985 cutIf3:
2986 { } 2986 { }
2987 } 2987 }
2988 cutIf2: 2988 cutIf2:
2989 { } 2989 { }
2990 } 2990 }
2991 } 2991 }
2992 } 2992 }
2993 2993
2994 public static IEnumerable<bool> compileAtomModule(object Name, object Arity, object State, object ModuleCode) 2994 public static IEnumerable<bool> compileAtomModule(object Name, object Arity, object State, object ModuleCode)
2995 { 2995 {
2996 { 2996 {
2997 if (CompilerState.nameArityHasModule(State, Name, Arity, Atom.a(@""))) 2997 if (CompilerState.nameArityHasModule(State, Name, Arity, Atom.a(@"")))
2998 { 2998 {
2999 foreach (bool l3 in YP.unify(ModuleCode, new Functor2(@"call", Atom.a(@"Atom.a"), new ListPair(new Functor1(@"object", Atom.a(@"")), Atom.NIL)))) 2999 foreach (bool l3 in YP.unify(ModuleCode, new Functor2(@"call", Atom.a(@"Atom.a"), new ListPair(new Functor1(@"object", Atom.a(@"")), Atom.NIL))))
3000 { 3000 {
3001 yield return true; 3001 yield return true;
3002 yield break; 3002 yield break;
3003 } 3003 }
3004 } 3004 }
3005 } 3005 }
3006 } 3006 }
3007 3007
3008 public static IEnumerable<bool> maplist_compileTerm(object arg1, object arg2, object arg3) 3008 public static IEnumerable<bool> maplist_compileTerm(object arg1, object arg2, object arg3)
3009 { 3009 {
3010 { 3010 {
3011 object _State = arg2; 3011 object _State = arg2;
3012 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 3012 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
3013 { 3013 {
3014 foreach (bool l3 in YP.unify(arg3, Atom.NIL)) 3014 foreach (bool l3 in YP.unify(arg3, Atom.NIL))
3015 { 3015 {
3016 yield return true; 3016 yield return true;
3017 yield break; 3017 yield break;
3018 } 3018 }
3019 } 3019 }
3020 } 3020 }
3021 { 3021 {
3022 object State = arg2; 3022 object State = arg2;
3023 Variable First = new Variable(); 3023 Variable First = new Variable();
3024 Variable Rest = new Variable(); 3024 Variable Rest = new Variable();
3025 Variable FirstResult = new Variable(); 3025 Variable FirstResult = new Variable();
3026 Variable RestResults = new Variable(); 3026 Variable RestResults = new Variable();
3027 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Rest))) 3027 foreach (bool l2 in YP.unify(arg1, new ListPair(First, Rest)))
3028 { 3028 {
3029 foreach (bool l3 in YP.unify(arg3, new ListPair(FirstResult, RestResults))) 3029 foreach (bool l3 in YP.unify(arg3, new ListPair(FirstResult, RestResults)))
3030 { 3030 {
3031 foreach (bool l4 in compileTerm(First, State, FirstResult)) 3031 foreach (bool l4 in compileTerm(First, State, FirstResult))
3032 { 3032 {
3033 foreach (bool l5 in maplist_compileTerm(Rest, State, RestResults)) 3033 foreach (bool l5 in maplist_compileTerm(Rest, State, RestResults))
3034 { 3034 {
3035 yield return true; 3035 yield return true;
3036 yield break; 3036 yield break;
3037 } 3037 }
3038 } 3038 }
3039 } 3039 }
3040 } 3040 }
3041 } 3041 }
3042 } 3042 }
3043 3043
3044 public static IEnumerable<bool> compileExpression(object Term, object State, object Result) 3044 public static IEnumerable<bool> compileExpression(object Term, object State, object Result)
3045 { 3045 {
3046 { 3046 {
3047 Variable Name = new Variable(); 3047 Variable Name = new Variable();
3048 Variable TermArgs = new Variable(); 3048 Variable TermArgs = new Variable();
3049 Variable X1 = new Variable(); 3049 Variable X1 = new Variable();
3050 Variable FunctionName = new Variable(); 3050 Variable FunctionName = new Variable();
3051 Variable Arg1 = new Variable(); 3051 Variable Arg1 = new Variable();
3052 Variable x9 = new Variable(); 3052 Variable x9 = new Variable();
3053 Variable X2 = new Variable(); 3053 Variable X2 = new Variable();
3054 Variable Arg2 = new Variable(); 3054 Variable Arg2 = new Variable();
3055 if (YP.nonvar(Term)) 3055 if (YP.nonvar(Term))
3056 { 3056 {
3057 foreach (bool l3 in YP.univ(Term, new ListPair(Name, TermArgs))) 3057 foreach (bool l3 in YP.univ(Term, new ListPair(Name, TermArgs)))
3058 { 3058 {
3059 if (YP.atom(Name)) 3059 if (YP.atom(Name))
3060 { 3060 {
3061 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, Atom.NIL))) 3061 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, Atom.NIL)))
3062 { 3062 {
3063 foreach (bool l6 in unaryFunction(Name, FunctionName)) 3063 foreach (bool l6 in unaryFunction(Name, FunctionName))
3064 { 3064 {
3065 foreach (bool l7 in compileExpression(X1, State, Arg1)) 3065 foreach (bool l7 in compileExpression(X1, State, Arg1))
3066 { 3066 {
3067 foreach (bool l8 in YP.unify(Result, new Functor2(@"call", FunctionName, new ListPair(Arg1, Atom.NIL)))) 3067 foreach (bool l8 in YP.unify(Result, new Functor2(@"call", FunctionName, new ListPair(Arg1, Atom.NIL))))
3068 { 3068 {
3069 yield return true; 3069 yield return true;
3070 yield break; 3070 yield break;
3071 } 3071 }
3072 } 3072 }
3073 goto cutIf1; 3073 goto cutIf1;
3074 } 3074 }
3075 } 3075 }
3076 foreach (bool l5 in YP.unify(Term, new ListPair(x9, Atom.NIL))) 3076 foreach (bool l5 in YP.unify(Term, new ListPair(x9, Atom.NIL)))
3077 { 3077 {
3078 foreach (bool l6 in compileTerm(Term, State, Result)) 3078 foreach (bool l6 in compileTerm(Term, State, Result))
3079 { 3079 {
3080 yield return true; 3080 yield return true;
3081 yield break; 3081 yield break;
3082 } 3082 }
3083 goto cutIf2; 3083 goto cutIf2;
3084 } 3084 }
3085 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, Atom.NIL)))) 3085 foreach (bool l5 in YP.unify(TermArgs, new ListPair(X1, new ListPair(X2, Atom.NIL))))
3086 { 3086 {
3087 foreach (bool l6 in binaryFunction(Name, FunctionName)) 3087 foreach (bool l6 in binaryFunction(Name, FunctionName))
3088 { 3088 {
3089 foreach (bool l7 in compileExpression(X1, State, Arg1)) 3089 foreach (bool l7 in compileExpression(X1, State, Arg1))
3090 { 3090 {
3091 foreach (bool l8 in compileExpression(X2, State, Arg2)) 3091 foreach (bool l8 in compileExpression(X2, State, Arg2))
3092 { 3092 {
3093 foreach (bool l9 in YP.unify(Result, new Functor2(@"call", FunctionName, new ListPair(Arg1, new ListPair(Arg2, Atom.NIL))))) 3093 foreach (bool l9 in YP.unify(Result, new Functor2(@"call", FunctionName, new ListPair(Arg1, new ListPair(Arg2, Atom.NIL)))))
3094 { 3094 {
3095 yield return true; 3095 yield return true;
3096 yield break; 3096 yield break;
3097 } 3097 }
3098 } 3098 }
3099 } 3099 }
3100 goto cutIf3; 3100 goto cutIf3;
3101 } 3101 }
3102 } 3102 }
3103 YP.throwException(new Functor2(@"error", new Functor2(@"type_error", Atom.a(@"evaluable"), Name), Atom.a(@"Not an expression function"))); 3103 YP.throwException(new Functor2(@"error", new Functor2(@"type_error", Atom.a(@"evaluable"), Name), Atom.a(@"Not an expression function")));
3104 yield return false; 3104 yield return false;
3105 cutIf3: 3105 cutIf3:
3106 cutIf2: 3106 cutIf2:
3107 cutIf1: 3107 cutIf1:
3108 { } 3108 { }
3109 } 3109 }
3110 } 3110 }
3111 } 3111 }
3112 } 3112 }
3113 { 3113 {
3114 foreach (bool l2 in compileTerm(Term, State, Result)) 3114 foreach (bool l2 in compileTerm(Term, State, Result))
3115 { 3115 {
3116 yield return true; 3116 yield return true;
3117 yield break; 3117 yield break;
3118 } 3118 }
3119 } 3119 }
3120 } 3120 }
3121 3121
3122 public static IEnumerable<bool> unaryFunction(object arg1, object arg2) 3122 public static IEnumerable<bool> unaryFunction(object arg1, object arg2)
3123 { 3123 {
3124 { 3124 {
3125 foreach (bool l2 in YP.unify(arg1, Atom.a(@"-"))) 3125 foreach (bool l2 in YP.unify(arg1, Atom.a(@"-")))
3126 { 3126 {
3127 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.negate"))) 3127 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.negate")))
3128 { 3128 {
3129 yield return true; 3129 yield return true;
3130 yield break; 3130 yield break;
3131 } 3131 }
3132 } 3132 }
3133 } 3133 }
3134 { 3134 {
3135 foreach (bool l2 in YP.unify(arg1, Atom.a(@"abs"))) 3135 foreach (bool l2 in YP.unify(arg1, Atom.a(@"abs")))
3136 { 3136 {
3137 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.abs"))) 3137 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.abs")))
3138 { 3138 {
3139 yield return true; 3139 yield return true;
3140 yield break; 3140 yield break;
3141 } 3141 }
3142 } 3142 }
3143 } 3143 }
3144 { 3144 {
3145 foreach (bool l2 in YP.unify(arg1, Atom.a(@"sign"))) 3145 foreach (bool l2 in YP.unify(arg1, Atom.a(@"sign")))
3146 { 3146 {
3147 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.sign"))) 3147 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.sign")))
3148 { 3148 {
3149 yield return true; 3149 yield return true;
3150 yield break; 3150 yield break;
3151 } 3151 }
3152 } 3152 }
3153 } 3153 }
3154 { 3154 {
3155 foreach (bool l2 in YP.unify(arg1, Atom.a(@"floor"))) 3155 foreach (bool l2 in YP.unify(arg1, Atom.a(@"floor")))
3156 { 3156 {
3157 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.floor"))) 3157 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.floor")))
3158 { 3158 {
3159 yield return true; 3159 yield return true;
3160 yield break; 3160 yield break;
3161 } 3161 }
3162 } 3162 }
3163 } 3163 }
3164 { 3164 {
3165 foreach (bool l2 in YP.unify(arg1, Atom.a(@"truncate"))) 3165 foreach (bool l2 in YP.unify(arg1, Atom.a(@"truncate")))
3166 { 3166 {
3167 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.truncate"))) 3167 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.truncate")))
3168 { 3168 {
3169 yield return true; 3169 yield return true;
3170 yield break; 3170 yield break;
3171 } 3171 }
3172 } 3172 }
3173 } 3173 }
3174 { 3174 {
3175 foreach (bool l2 in YP.unify(arg1, Atom.a(@"round"))) 3175 foreach (bool l2 in YP.unify(arg1, Atom.a(@"round")))
3176 { 3176 {
3177 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.round"))) 3177 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.round")))
3178 { 3178 {
3179 yield return true; 3179 yield return true;
3180 yield break; 3180 yield break;
3181 } 3181 }
3182 } 3182 }
3183 } 3183 }
3184 { 3184 {
3185 foreach (bool l2 in YP.unify(arg1, Atom.a(@"floor"))) 3185 foreach (bool l2 in YP.unify(arg1, Atom.a(@"floor")))
3186 { 3186 {
3187 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.ceiling"))) 3187 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.ceiling")))
3188 { 3188 {
3189 yield return true; 3189 yield return true;
3190 yield break; 3190 yield break;
3191 } 3191 }
3192 } 3192 }
3193 } 3193 }
3194 { 3194 {
3195 foreach (bool l2 in YP.unify(arg1, Atom.a(@"sin"))) 3195 foreach (bool l2 in YP.unify(arg1, Atom.a(@"sin")))
3196 { 3196 {
3197 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.sin"))) 3197 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.sin")))
3198 { 3198 {
3199 yield return true; 3199 yield return true;
3200 yield break; 3200 yield break;
3201 } 3201 }
3202 } 3202 }
3203 } 3203 }
3204 { 3204 {
3205 foreach (bool l2 in YP.unify(arg1, Atom.a(@"cos"))) 3205 foreach (bool l2 in YP.unify(arg1, Atom.a(@"cos")))
3206 { 3206 {
3207 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.cos"))) 3207 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.cos")))
3208 { 3208 {
3209 yield return true; 3209 yield return true;
3210 yield break; 3210 yield break;
3211 } 3211 }
3212 } 3212 }
3213 } 3213 }
3214 { 3214 {
3215 foreach (bool l2 in YP.unify(arg1, Atom.a(@"atan"))) 3215 foreach (bool l2 in YP.unify(arg1, Atom.a(@"atan")))
3216 { 3216 {
3217 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.atan"))) 3217 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.atan")))
3218 { 3218 {
3219 yield return true; 3219 yield return true;
3220 yield break; 3220 yield break;
3221 } 3221 }
3222 } 3222 }
3223 } 3223 }
3224 { 3224 {
3225 foreach (bool l2 in YP.unify(arg1, Atom.a(@"exp"))) 3225 foreach (bool l2 in YP.unify(arg1, Atom.a(@"exp")))
3226 { 3226 {
3227 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.exp"))) 3227 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.exp")))
3228 { 3228 {
3229 yield return true; 3229 yield return true;
3230 yield break; 3230 yield break;
3231 } 3231 }
3232 } 3232 }
3233 } 3233 }
3234 { 3234 {
3235 foreach (bool l2 in YP.unify(arg1, Atom.a(@"log"))) 3235 foreach (bool l2 in YP.unify(arg1, Atom.a(@"log")))
3236 { 3236 {
3237 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.log"))) 3237 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.log")))
3238 { 3238 {
3239 yield return true; 3239 yield return true;
3240 yield break; 3240 yield break;
3241 } 3241 }
3242 } 3242 }
3243 } 3243 }
3244 { 3244 {
3245 foreach (bool l2 in YP.unify(arg1, Atom.a(@"sqrt"))) 3245 foreach (bool l2 in YP.unify(arg1, Atom.a(@"sqrt")))
3246 { 3246 {
3247 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.sqrt"))) 3247 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.sqrt")))
3248 { 3248 {
3249 yield return true; 3249 yield return true;
3250 yield break; 3250 yield break;
3251 } 3251 }
3252 } 3252 }
3253 } 3253 }
3254 { 3254 {
3255 foreach (bool l2 in YP.unify(arg1, Atom.a(@"\"))) 3255 foreach (bool l2 in YP.unify(arg1, Atom.a(@"\")))
3256 { 3256 {
3257 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseComplement"))) 3257 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseComplement")))
3258 { 3258 {
3259 yield return true; 3259 yield return true;
3260 yield break; 3260 yield break;
3261 } 3261 }
3262 } 3262 }
3263 } 3263 }
3264 } 3264 }
3265 3265
3266 public static IEnumerable<bool> binaryFunction(object arg1, object arg2) 3266 public static IEnumerable<bool> binaryFunction(object arg1, object arg2)
3267 { 3267 {
3268 { 3268 {
3269 foreach (bool l2 in YP.unify(arg1, Atom.a(@"+"))) 3269 foreach (bool l2 in YP.unify(arg1, Atom.a(@"+")))
3270 { 3270 {
3271 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.add"))) 3271 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.add")))
3272 { 3272 {
3273 yield return true; 3273 yield return true;
3274 yield break; 3274 yield break;
3275 } 3275 }
3276 } 3276 }
3277 } 3277 }
3278 { 3278 {
3279 foreach (bool l2 in YP.unify(arg1, Atom.a(@"-"))) 3279 foreach (bool l2 in YP.unify(arg1, Atom.a(@"-")))
3280 { 3280 {
3281 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.subtract"))) 3281 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.subtract")))
3282 { 3282 {
3283 yield return true; 3283 yield return true;
3284 yield break; 3284 yield break;
3285 } 3285 }
3286 } 3286 }
3287 } 3287 }
3288 { 3288 {
3289 foreach (bool l2 in YP.unify(arg1, Atom.a(@"*"))) 3289 foreach (bool l2 in YP.unify(arg1, Atom.a(@"*")))
3290 { 3290 {
3291 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.multiply"))) 3291 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.multiply")))
3292 { 3292 {
3293 yield return true; 3293 yield return true;
3294 yield break; 3294 yield break;
3295 } 3295 }
3296 } 3296 }
3297 } 3297 }
3298 { 3298 {
3299 foreach (bool l2 in YP.unify(arg1, Atom.a(@"/"))) 3299 foreach (bool l2 in YP.unify(arg1, Atom.a(@"/")))
3300 { 3300 {
3301 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.divide"))) 3301 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.divide")))
3302 { 3302 {
3303 yield return true; 3303 yield return true;
3304 yield break; 3304 yield break;
3305 } 3305 }
3306 } 3306 }
3307 } 3307 }
3308 { 3308 {
3309 foreach (bool l2 in YP.unify(arg1, Atom.a(@"//"))) 3309 foreach (bool l2 in YP.unify(arg1, Atom.a(@"//")))
3310 { 3310 {
3311 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.intDivide"))) 3311 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.intDivide")))
3312 { 3312 {
3313 yield return true; 3313 yield return true;
3314 yield break; 3314 yield break;
3315 } 3315 }
3316 } 3316 }
3317 } 3317 }
3318 { 3318 {
3319 foreach (bool l2 in YP.unify(arg1, Atom.a(@"mod"))) 3319 foreach (bool l2 in YP.unify(arg1, Atom.a(@"mod")))
3320 { 3320 {
3321 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.mod"))) 3321 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.mod")))
3322 { 3322 {
3323 yield return true; 3323 yield return true;
3324 yield break; 3324 yield break;
3325 } 3325 }
3326 } 3326 }
3327 } 3327 }
3328 { 3328 {
3329 foreach (bool l2 in YP.unify(arg1, Atom.a(@"**"))) 3329 foreach (bool l2 in YP.unify(arg1, Atom.a(@"**")))
3330 { 3330 {
3331 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.pow"))) 3331 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.pow")))
3332 { 3332 {
3333 yield return true; 3333 yield return true;
3334 yield break; 3334 yield break;
3335 } 3335 }
3336 } 3336 }
3337 } 3337 }
3338 { 3338 {
3339 foreach (bool l2 in YP.unify(arg1, Atom.a(@">>"))) 3339 foreach (bool l2 in YP.unify(arg1, Atom.a(@">>")))
3340 { 3340 {
3341 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseShiftRight"))) 3341 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseShiftRight")))
3342 { 3342 {
3343 yield return true; 3343 yield return true;
3344 yield break; 3344 yield break;
3345 } 3345 }
3346 } 3346 }
3347 } 3347 }
3348 { 3348 {
3349 foreach (bool l2 in YP.unify(arg1, Atom.a(@"<<"))) 3349 foreach (bool l2 in YP.unify(arg1, Atom.a(@"<<")))
3350 { 3350 {
3351 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseShiftLeft"))) 3351 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseShiftLeft")))
3352 { 3352 {
3353 yield return true; 3353 yield return true;
3354 yield break; 3354 yield break;
3355 } 3355 }
3356 } 3356 }
3357 } 3357 }
3358 { 3358 {
3359 foreach (bool l2 in YP.unify(arg1, Atom.a(@"/\"))) 3359 foreach (bool l2 in YP.unify(arg1, Atom.a(@"/\")))
3360 { 3360 {
3361 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseAnd"))) 3361 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseAnd")))
3362 { 3362 {
3363 yield return true; 3363 yield return true;
3364 yield break; 3364 yield break;
3365 } 3365 }
3366 } 3366 }
3367 } 3367 }
3368 { 3368 {
3369 foreach (bool l2 in YP.unify(arg1, Atom.a(@"\/"))) 3369 foreach (bool l2 in YP.unify(arg1, Atom.a(@"\/")))
3370 { 3370 {
3371 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseOr"))) 3371 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.bitwiseOr")))
3372 { 3372 {
3373 yield return true; 3373 yield return true;
3374 yield break; 3374 yield break;
3375 } 3375 }
3376 } 3376 }
3377 } 3377 }
3378 { 3378 {
3379 foreach (bool l2 in YP.unify(arg1, Atom.a(@"min"))) 3379 foreach (bool l2 in YP.unify(arg1, Atom.a(@"min")))
3380 { 3380 {
3381 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.min"))) 3381 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.min")))
3382 { 3382 {
3383 yield return true; 3383 yield return true;
3384 yield break; 3384 yield break;
3385 } 3385 }
3386 } 3386 }
3387 } 3387 }
3388 { 3388 {
3389 foreach (bool l2 in YP.unify(arg1, Atom.a(@"max"))) 3389 foreach (bool l2 in YP.unify(arg1, Atom.a(@"max")))
3390 { 3390 {
3391 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.max"))) 3391 foreach (bool l3 in YP.unify(arg2, Atom.a(@"YP.max")))
3392 { 3392 {
3393 yield return true; 3393 yield return true;
3394 yield break; 3394 yield break;
3395 } 3395 }
3396 } 3396 }
3397 } 3397 }
3398 } 3398 }
3399 3399
3400 public static void convertFunctionCSharp(object arg1) 3400 public static void convertFunctionCSharp(object arg1)
3401 { 3401 {
3402 { 3402 {
3403 foreach (bool l2 in YP.unify(arg1, Atom.a(@"getDeclaringClass"))) 3403 foreach (bool l2 in YP.unify(arg1, Atom.a(@"getDeclaringClass")))
3404 { 3404 {
3405 YP.write(Atom.a(@"class YPInnerClass {}")); 3405 YP.write(Atom.a(@"class YPInnerClass {}"));
3406 YP.nl(); 3406 YP.nl();
3407 YP.write(Atom.a(@"static System.Type getDeclaringClass() { return typeof(YPInnerClass).DeclaringType; }")); 3407 YP.write(Atom.a(@"static System.Type getDeclaringClass() { return typeof(YPInnerClass).DeclaringType; }"));
3408 YP.nl(); 3408 YP.nl();
3409 YP.nl(); 3409 YP.nl();
3410 return; 3410 return;
3411 } 3411 }
3412 } 3412 }
3413 { 3413 {
3414 Variable ReturnType = new Variable(); 3414 Variable ReturnType = new Variable();
3415 Variable Name = new Variable(); 3415 Variable Name = new Variable();
3416 Variable ArgList = new Variable(); 3416 Variable ArgList = new Variable();
3417 Variable Body = new Variable(); 3417 Variable Body = new Variable();
3418 Variable Level = new Variable(); 3418 Variable Level = new Variable();
3419 foreach (bool l2 in YP.unify(arg1, new Functor(@"function", new object[] { ReturnType, Name, ArgList, Body }))) 3419 foreach (bool l2 in YP.unify(arg1, new Functor(@"function", new object[] { ReturnType, Name, ArgList, Body })))
3420 { 3420 {
3421 YP.write(Atom.a(@"public static ")); 3421 YP.write(Atom.a(@"public static "));
3422 YP.write(ReturnType); 3422 YP.write(ReturnType);
3423 YP.write(Atom.a(@" ")); 3423 YP.write(Atom.a(@" "));
3424 YP.write(Name); 3424 YP.write(Name);
3425 YP.write(Atom.a(@"(")); 3425 YP.write(Atom.a(@"("));
3426 convertArgListCSharp(ArgList); 3426 convertArgListCSharp(ArgList);
3427 YP.write(Atom.a(@") {")); 3427 YP.write(Atom.a(@") {"));
3428 YP.nl(); 3428 YP.nl();
3429 foreach (bool l3 in YP.unify(Level, 1)) 3429 foreach (bool l3 in YP.unify(Level, 1))
3430 { 3430 {
3431 convertStatementListCSharp(Body, Level); 3431 convertStatementListCSharp(Body, Level);
3432 YP.write(Atom.a(@"}")); 3432 YP.write(Atom.a(@"}"));
3433 YP.nl(); 3433 YP.nl();
3434 YP.nl(); 3434 YP.nl();
3435 return; 3435 return;
3436 } 3436 }
3437 } 3437 }
3438 } 3438 }
3439 } 3439 }
3440 3440
3441 public static IEnumerable<bool> convertStatementListCSharp(object arg1, object x1, object x2) 3441 public static IEnumerable<bool> convertStatementListCSharp(object arg1, object x1, object x2)
3442 { 3442 {
3443 { 3443 {
3444 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 3444 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
3445 { 3445 {
3446 yield return true; 3446 yield return true;
3447 yield break; 3447 yield break;
3448 } 3448 }
3449 } 3449 }
3450 } 3450 }
3451 3451
3452 public static void convertStatementListCSharp(object arg1, object Level) 3452 public static void convertStatementListCSharp(object arg1, object Level)
3453 { 3453 {
3454 { 3454 {
3455 Variable Name = new Variable(); 3455 Variable Name = new Variable();
3456 Variable Body = new Variable(); 3456 Variable Body = new Variable();
3457 Variable RestStatements = new Variable(); 3457 Variable RestStatements = new Variable();
3458 Variable NewStatements = new Variable(); 3458 Variable NewStatements = new Variable();
3459 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"breakableBlock", Name, Body), RestStatements))) 3459 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"breakableBlock", Name, Body), RestStatements)))
3460 { 3460 {
3461 foreach (bool l3 in append(Body, new ListPair(new Functor1(@"label", Name), RestStatements), NewStatements)) 3461 foreach (bool l3 in append(Body, new ListPair(new Functor1(@"label", Name), RestStatements), NewStatements))
3462 { 3462 {
3463 convertStatementListCSharp(NewStatements, Level); 3463 convertStatementListCSharp(NewStatements, Level);
3464 return; 3464 return;
3465 } 3465 }
3466 } 3466 }
3467 } 3467 }
3468 { 3468 {
3469 Variable Type = new Variable(); 3469 Variable Type = new Variable();
3470 Variable Name = new Variable(); 3470 Variable Name = new Variable();
3471 Variable Expression = new Variable(); 3471 Variable Expression = new Variable();
3472 Variable RestStatements = new Variable(); 3472 Variable RestStatements = new Variable();
3473 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"declare", Type, Name, Expression), RestStatements))) 3473 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"declare", Type, Name, Expression), RestStatements)))
3474 { 3474 {
3475 convertIndentationCSharp(Level); 3475 convertIndentationCSharp(Level);
3476 YP.write(Type); 3476 YP.write(Type);
3477 YP.write(Atom.a(@" ")); 3477 YP.write(Atom.a(@" "));
3478 YP.write(Name); 3478 YP.write(Name);
3479 YP.write(Atom.a(@" = ")); 3479 YP.write(Atom.a(@" = "));
3480 convertExpressionCSharp(Expression); 3480 convertExpressionCSharp(Expression);
3481 YP.write(Atom.a(@";")); 3481 YP.write(Atom.a(@";"));
3482 YP.nl(); 3482 YP.nl();
3483 convertStatementListCSharp(RestStatements, Level); 3483 convertStatementListCSharp(RestStatements, Level);
3484 return; 3484 return;
3485 } 3485 }
3486 } 3486 }
3487 { 3487 {
3488 Variable Name = new Variable(); 3488 Variable Name = new Variable();
3489 Variable Expression = new Variable(); 3489 Variable Expression = new Variable();
3490 Variable RestStatements = new Variable(); 3490 Variable RestStatements = new Variable();
3491 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"assign", Name, Expression), RestStatements))) 3491 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"assign", Name, Expression), RestStatements)))
3492 { 3492 {
3493 convertIndentationCSharp(Level); 3493 convertIndentationCSharp(Level);
3494 YP.write(Name); 3494 YP.write(Name);
3495 YP.write(Atom.a(@" = ")); 3495 YP.write(Atom.a(@" = "));
3496 convertExpressionCSharp(Expression); 3496 convertExpressionCSharp(Expression);
3497 YP.write(Atom.a(@";")); 3497 YP.write(Atom.a(@";"));
3498 YP.nl(); 3498 YP.nl();
3499 convertStatementListCSharp(RestStatements, Level); 3499 convertStatementListCSharp(RestStatements, Level);
3500 return; 3500 return;
3501 } 3501 }
3502 } 3502 }
3503 { 3503 {
3504 Variable RestStatements = new Variable(); 3504 Variable RestStatements = new Variable();
3505 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldtrue"), RestStatements))) 3505 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldtrue"), RestStatements)))
3506 { 3506 {
3507 convertIndentationCSharp(Level); 3507 convertIndentationCSharp(Level);
3508 YP.write(Atom.a(@"yield return true;")); 3508 YP.write(Atom.a(@"yield return true;"));
3509 YP.nl(); 3509 YP.nl();
3510 convertStatementListCSharp(RestStatements, Level); 3510 convertStatementListCSharp(RestStatements, Level);
3511 return; 3511 return;
3512 } 3512 }
3513 } 3513 }
3514 { 3514 {
3515 Variable RestStatements = new Variable(); 3515 Variable RestStatements = new Variable();
3516 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldfalse"), RestStatements))) 3516 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldfalse"), RestStatements)))
3517 { 3517 {
3518 convertIndentationCSharp(Level); 3518 convertIndentationCSharp(Level);
3519 YP.write(Atom.a(@"yield return false;")); 3519 YP.write(Atom.a(@"yield return false;"));
3520 YP.nl(); 3520 YP.nl();
3521 convertStatementListCSharp(RestStatements, Level); 3521 convertStatementListCSharp(RestStatements, Level);
3522 return; 3522 return;
3523 } 3523 }
3524 } 3524 }
3525 { 3525 {
3526 Variable RestStatements = new Variable(); 3526 Variable RestStatements = new Variable();
3527 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldbreak"), RestStatements))) 3527 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldbreak"), RestStatements)))
3528 { 3528 {
3529 convertIndentationCSharp(Level); 3529 convertIndentationCSharp(Level);
3530 YP.write(Atom.a(@"yield break;")); 3530 YP.write(Atom.a(@"yield break;"));
3531 YP.nl(); 3531 YP.nl();
3532 convertStatementListCSharp(RestStatements, Level); 3532 convertStatementListCSharp(RestStatements, Level);
3533 return; 3533 return;
3534 } 3534 }
3535 } 3535 }
3536 { 3536 {
3537 Variable RestStatements = new Variable(); 3537 Variable RestStatements = new Variable();
3538 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"return"), RestStatements))) 3538 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"return"), RestStatements)))
3539 { 3539 {
3540 convertIndentationCSharp(Level); 3540 convertIndentationCSharp(Level);
3541 YP.write(Atom.a(@"return;")); 3541 YP.write(Atom.a(@"return;"));
3542 YP.nl(); 3542 YP.nl();
3543 convertStatementListCSharp(RestStatements, Level); 3543 convertStatementListCSharp(RestStatements, Level);
3544 return; 3544 return;
3545 } 3545 }
3546 } 3546 }
3547 { 3547 {
3548 Variable RestStatements = new Variable(); 3548 Variable RestStatements = new Variable();
3549 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returntrue"), RestStatements))) 3549 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returntrue"), RestStatements)))
3550 { 3550 {
3551 convertIndentationCSharp(Level); 3551 convertIndentationCSharp(Level);
3552 YP.write(Atom.a(@"return true;")); 3552 YP.write(Atom.a(@"return true;"));
3553 YP.nl(); 3553 YP.nl();
3554 convertStatementListCSharp(RestStatements, Level); 3554 convertStatementListCSharp(RestStatements, Level);
3555 return; 3555 return;
3556 } 3556 }
3557 } 3557 }
3558 { 3558 {
3559 Variable RestStatements = new Variable(); 3559 Variable RestStatements = new Variable();
3560 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returnfalse"), RestStatements))) 3560 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returnfalse"), RestStatements)))
3561 { 3561 {
3562 convertIndentationCSharp(Level); 3562 convertIndentationCSharp(Level);
3563 YP.write(Atom.a(@"return false;")); 3563 YP.write(Atom.a(@"return false;"));
3564 YP.nl(); 3564 YP.nl();
3565 convertStatementListCSharp(RestStatements, Level); 3565 convertStatementListCSharp(RestStatements, Level);
3566 return; 3566 return;
3567 } 3567 }
3568 } 3568 }
3569 { 3569 {
3570 Variable Name = new Variable(); 3570 Variable Name = new Variable();
3571 Variable RestStatements = new Variable(); 3571 Variable RestStatements = new Variable();
3572 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"label", Name), RestStatements))) 3572 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"label", Name), RestStatements)))
3573 { 3573 {
3574 convertIndentationCSharp(Level); 3574 convertIndentationCSharp(Level);
3575 YP.write(Name); 3575 YP.write(Name);
3576 YP.write(Atom.a(@":")); 3576 YP.write(Atom.a(@":"));
3577 YP.nl(); 3577 YP.nl();
3578 if (YP.termEqual(RestStatements, Atom.NIL)) 3578 if (YP.termEqual(RestStatements, Atom.NIL))
3579 { 3579 {
3580 convertIndentationCSharp(Level); 3580 convertIndentationCSharp(Level);
3581 YP.write(Atom.a(@"{}")); 3581 YP.write(Atom.a(@"{}"));
3582 YP.nl(); 3582 YP.nl();
3583 convertStatementListCSharp(RestStatements, Level); 3583 convertStatementListCSharp(RestStatements, Level);
3584 return; 3584 return;
3585 goto cutIf1; 3585 goto cutIf1;
3586 } 3586 }
3587 convertStatementListCSharp(RestStatements, Level); 3587 convertStatementListCSharp(RestStatements, Level);
3588 return; 3588 return;
3589 cutIf1: 3589 cutIf1:
3590 { } 3590 { }
3591 } 3591 }
3592 } 3592 }
3593 { 3593 {
3594 Variable Name = new Variable(); 3594 Variable Name = new Variable();
3595 Variable RestStatements = new Variable(); 3595 Variable RestStatements = new Variable();
3596 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"breakBlock", Name), RestStatements))) 3596 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"breakBlock", Name), RestStatements)))
3597 { 3597 {
3598 convertIndentationCSharp(Level); 3598 convertIndentationCSharp(Level);
3599 YP.write(Atom.a(@"goto ")); 3599 YP.write(Atom.a(@"goto "));
3600 YP.write(Name); 3600 YP.write(Name);
3601 YP.write(Atom.a(@";")); 3601 YP.write(Atom.a(@";"));
3602 YP.nl(); 3602 YP.nl();
3603 convertStatementListCSharp(RestStatements, Level); 3603 convertStatementListCSharp(RestStatements, Level);
3604 return; 3604 return;
3605 } 3605 }
3606 } 3606 }
3607 { 3607 {
3608 Variable Name = new Variable(); 3608 Variable Name = new Variable();
3609 Variable ArgList = new Variable(); 3609 Variable ArgList = new Variable();
3610 Variable RestStatements = new Variable(); 3610 Variable RestStatements = new Variable();
3611 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"call", Name, ArgList), RestStatements))) 3611 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"call", Name, ArgList), RestStatements)))
3612 { 3612 {
3613 convertIndentationCSharp(Level); 3613 convertIndentationCSharp(Level);
3614 YP.write(Name); 3614 YP.write(Name);
3615 YP.write(Atom.a(@"(")); 3615 YP.write(Atom.a(@"("));
3616 convertArgListCSharp(ArgList); 3616 convertArgListCSharp(ArgList);
3617 YP.write(Atom.a(@");")); 3617 YP.write(Atom.a(@");"));
3618 YP.nl(); 3618 YP.nl();
3619 convertStatementListCSharp(RestStatements, Level); 3619 convertStatementListCSharp(RestStatements, Level);
3620 return; 3620 return;
3621 } 3621 }
3622 } 3622 }
3623 { 3623 {
3624 Variable Obj = new Variable(); 3624 Variable Obj = new Variable();
3625 Variable Name = new Variable(); 3625 Variable Name = new Variable();
3626 Variable ArgList = new Variable(); 3626 Variable ArgList = new Variable();
3627 Variable RestStatements = new Variable(); 3627 Variable RestStatements = new Variable();
3628 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList), RestStatements))) 3628 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList), RestStatements)))
3629 { 3629 {
3630 convertIndentationCSharp(Level); 3630 convertIndentationCSharp(Level);
3631 YP.write(Obj); 3631 YP.write(Obj);
3632 YP.write(Atom.a(@".")); 3632 YP.write(Atom.a(@"."));
3633 YP.write(Name); 3633 YP.write(Name);
3634 YP.write(Atom.a(@"(")); 3634 YP.write(Atom.a(@"("));
3635 convertArgListCSharp(ArgList); 3635 convertArgListCSharp(ArgList);
3636 YP.write(Atom.a(@");")); 3636 YP.write(Atom.a(@");"));
3637 YP.nl(); 3637 YP.nl();
3638 convertStatementListCSharp(RestStatements, Level); 3638 convertStatementListCSharp(RestStatements, Level);
3639 return; 3639 return;
3640 } 3640 }
3641 } 3641 }
3642 { 3642 {
3643 Variable Body = new Variable(); 3643 Variable Body = new Variable();
3644 Variable RestStatements = new Variable(); 3644 Variable RestStatements = new Variable();
3645 Variable NextLevel = new Variable(); 3645 Variable NextLevel = new Variable();
3646 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"blockScope", Body), RestStatements))) 3646 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"blockScope", Body), RestStatements)))
3647 { 3647 {
3648 convertIndentationCSharp(Level); 3648 convertIndentationCSharp(Level);
3649 YP.write(Atom.a(@"{")); 3649 YP.write(Atom.a(@"{"));
3650 YP.nl(); 3650 YP.nl();
3651 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 3651 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
3652 { 3652 {
3653 convertStatementListCSharp(Body, NextLevel); 3653 convertStatementListCSharp(Body, NextLevel);
3654 convertIndentationCSharp(Level); 3654 convertIndentationCSharp(Level);
3655 YP.write(Atom.a(@"}")); 3655 YP.write(Atom.a(@"}"));
3656 YP.nl(); 3656 YP.nl();
3657 convertStatementListCSharp(RestStatements, Level); 3657 convertStatementListCSharp(RestStatements, Level);
3658 return; 3658 return;
3659 } 3659 }
3660 } 3660 }
3661 } 3661 }
3662 { 3662 {
3663 Variable Expression = new Variable(); 3663 Variable Expression = new Variable();
3664 Variable Body = new Variable(); 3664 Variable Body = new Variable();
3665 Variable RestStatements = new Variable(); 3665 Variable RestStatements = new Variable();
3666 Variable NextLevel = new Variable(); 3666 Variable NextLevel = new Variable();
3667 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"if", Expression, Body), RestStatements))) 3667 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"if", Expression, Body), RestStatements)))
3668 { 3668 {
3669 convertIndentationCSharp(Level); 3669 convertIndentationCSharp(Level);
3670 YP.write(Atom.a(@"if (")); 3670 YP.write(Atom.a(@"if ("));
3671 convertExpressionCSharp(Expression); 3671 convertExpressionCSharp(Expression);
3672 YP.write(Atom.a(@") {")); 3672 YP.write(Atom.a(@") {"));
3673 YP.nl(); 3673 YP.nl();
3674 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 3674 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
3675 { 3675 {
3676 convertStatementListCSharp(Body, NextLevel); 3676 convertStatementListCSharp(Body, NextLevel);
3677 convertIndentationCSharp(Level); 3677 convertIndentationCSharp(Level);
3678 YP.write(Atom.a(@"}")); 3678 YP.write(Atom.a(@"}"));
3679 YP.nl(); 3679 YP.nl();
3680 convertStatementListCSharp(RestStatements, Level); 3680 convertStatementListCSharp(RestStatements, Level);
3681 return; 3681 return;
3682 } 3682 }
3683 } 3683 }
3684 } 3684 }
3685 { 3685 {
3686 Variable Expression = new Variable(); 3686 Variable Expression = new Variable();
3687 Variable Body = new Variable(); 3687 Variable Body = new Variable();
3688 Variable RestStatements = new Variable(); 3688 Variable RestStatements = new Variable();
3689 Variable NextLevel = new Variable(); 3689 Variable NextLevel = new Variable();
3690 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"foreach", Expression, Body), RestStatements))) 3690 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"foreach", Expression, Body), RestStatements)))
3691 { 3691 {
3692 convertIndentationCSharp(Level); 3692 convertIndentationCSharp(Level);
3693 YP.write(Atom.a(@"foreach (bool l")); 3693 YP.write(Atom.a(@"foreach (bool l"));
3694 YP.write(Level); 3694 YP.write(Level);
3695 YP.write(Atom.a(@" in ")); 3695 YP.write(Atom.a(@" in "));
3696 convertExpressionCSharp(Expression); 3696 convertExpressionCSharp(Expression);
3697 YP.write(Atom.a(@") {")); 3697 YP.write(Atom.a(@") {"));
3698 YP.nl(); 3698 YP.nl();
3699 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 3699 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
3700 { 3700 {
3701 convertStatementListCSharp(Body, NextLevel); 3701 convertStatementListCSharp(Body, NextLevel);
3702 convertIndentationCSharp(Level); 3702 convertIndentationCSharp(Level);
3703 YP.write(Atom.a(@"}")); 3703 YP.write(Atom.a(@"}"));
3704 YP.nl(); 3704 YP.nl();
3705 convertStatementListCSharp(RestStatements, Level); 3705 convertStatementListCSharp(RestStatements, Level);
3706 return; 3706 return;
3707 } 3707 }
3708 } 3708 }
3709 } 3709 }
3710 } 3710 }
3711 3711
3712 public static void convertIndentationCSharp(object Level) 3712 public static void convertIndentationCSharp(object Level)
3713 { 3713 {
3714 { 3714 {
3715 Variable N = new Variable(); 3715 Variable N = new Variable();
3716 foreach (bool l2 in YP.unify(N, YP.multiply(Level, 2))) 3716 foreach (bool l2 in YP.unify(N, YP.multiply(Level, 2)))
3717 { 3717 {
3718 repeatWrite(Atom.a(@" "), N); 3718 repeatWrite(Atom.a(@" "), N);
3719 return; 3719 return;
3720 } 3720 }
3721 } 3721 }
3722 } 3722 }
3723 3723
3724 public static void convertArgListCSharp(object arg1) 3724 public static void convertArgListCSharp(object arg1)
3725 { 3725 {
3726 { 3726 {
3727 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 3727 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
3728 { 3728 {
3729 return; 3729 return;
3730 } 3730 }
3731 } 3731 }
3732 { 3732 {
3733 Variable Head = new Variable(); 3733 Variable Head = new Variable();
3734 Variable Tail = new Variable(); 3734 Variable Tail = new Variable();
3735 foreach (bool l2 in YP.unify(arg1, new ListPair(Head, Tail))) 3735 foreach (bool l2 in YP.unify(arg1, new ListPair(Head, Tail)))
3736 { 3736 {
3737 convertExpressionCSharp(Head); 3737 convertExpressionCSharp(Head);
3738 if (YP.termNotEqual(Tail, Atom.NIL)) 3738 if (YP.termNotEqual(Tail, Atom.NIL))
3739 { 3739 {
3740 YP.write(Atom.a(@", ")); 3740 YP.write(Atom.a(@", "));
3741 convertArgListCSharp(Tail); 3741 convertArgListCSharp(Tail);
3742 return; 3742 return;
3743 goto cutIf1; 3743 goto cutIf1;
3744 } 3744 }
3745 convertArgListCSharp(Tail); 3745 convertArgListCSharp(Tail);
3746 return; 3746 return;
3747 cutIf1: 3747 cutIf1:
3748 { } 3748 { }
3749 } 3749 }
3750 } 3750 }
3751 } 3751 }
3752 3752
3753 public static void convertExpressionCSharp(object arg1) 3753 public static void convertExpressionCSharp(object arg1)
3754 { 3754 {
3755 { 3755 {
3756 Variable X = new Variable(); 3756 Variable X = new Variable();
3757 foreach (bool l2 in YP.unify(arg1, new Functor1(@"arg", X))) 3757 foreach (bool l2 in YP.unify(arg1, new Functor1(@"arg", X)))
3758 { 3758 {
3759 YP.write(Atom.a(@"object ")); 3759 YP.write(Atom.a(@"object "));
3760 YP.write(X); 3760 YP.write(X);
3761 return; 3761 return;
3762 } 3762 }
3763 } 3763 }
3764 { 3764 {
3765 Variable Name = new Variable(); 3765 Variable Name = new Variable();
3766 Variable ArgList = new Variable(); 3766 Variable ArgList = new Variable();
3767 foreach (bool l2 in YP.unify(arg1, new Functor2(@"call", Name, ArgList))) 3767 foreach (bool l2 in YP.unify(arg1, new Functor2(@"call", Name, ArgList)))
3768 { 3768 {
3769 YP.write(Name); 3769 YP.write(Name);
3770 YP.write(Atom.a(@"(")); 3770 YP.write(Atom.a(@"("));
3771 convertArgListCSharp(ArgList); 3771 convertArgListCSharp(ArgList);
3772 YP.write(Atom.a(@")")); 3772 YP.write(Atom.a(@")"));
3773 return; 3773 return;
3774 } 3774 }
3775 } 3775 }
3776 { 3776 {
3777 Variable Obj = new Variable(); 3777 Variable Obj = new Variable();
3778 Variable Name = new Variable(); 3778 Variable Name = new Variable();
3779 Variable ArgList = new Variable(); 3779 Variable ArgList = new Variable();
3780 foreach (bool l2 in YP.unify(arg1, new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList))) 3780 foreach (bool l2 in YP.unify(arg1, new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList)))
3781 { 3781 {
3782 YP.write(Obj); 3782 YP.write(Obj);
3783 YP.write(Atom.a(@".")); 3783 YP.write(Atom.a(@"."));
3784 YP.write(Name); 3784 YP.write(Name);
3785 YP.write(Atom.a(@"(")); 3785 YP.write(Atom.a(@"("));
3786 convertArgListCSharp(ArgList); 3786 convertArgListCSharp(ArgList);
3787 YP.write(Atom.a(@")")); 3787 YP.write(Atom.a(@")"));
3788 return; 3788 return;
3789 } 3789 }
3790 } 3790 }
3791 { 3791 {
3792 Variable Name = new Variable(); 3792 Variable Name = new Variable();
3793 Variable ArgList = new Variable(); 3793 Variable ArgList = new Variable();
3794 foreach (bool l2 in YP.unify(arg1, new Functor2(@"new", Name, ArgList))) 3794 foreach (bool l2 in YP.unify(arg1, new Functor2(@"new", Name, ArgList)))
3795 { 3795 {
3796 YP.write(Atom.a(@"new ")); 3796 YP.write(Atom.a(@"new "));
3797 YP.write(Name); 3797 YP.write(Name);
3798 YP.write(Atom.a(@"(")); 3798 YP.write(Atom.a(@"("));
3799 convertArgListCSharp(ArgList); 3799 convertArgListCSharp(ArgList);
3800 YP.write(Atom.a(@")")); 3800 YP.write(Atom.a(@")"));
3801 return; 3801 return;
3802 } 3802 }
3803 } 3803 }
3804 { 3804 {
3805 Variable Name = new Variable(); 3805 Variable Name = new Variable();
3806 foreach (bool l2 in YP.unify(arg1, new Functor1(@"var", Name))) 3806 foreach (bool l2 in YP.unify(arg1, new Functor1(@"var", Name)))
3807 { 3807 {
3808 YP.write(Name); 3808 YP.write(Name);
3809 return; 3809 return;
3810 } 3810 }
3811 } 3811 }
3812 { 3812 {
3813 foreach (bool l2 in YP.unify(arg1, Atom.a(@"null"))) 3813 foreach (bool l2 in YP.unify(arg1, Atom.a(@"null")))
3814 { 3814 {
3815 YP.write(Atom.a(@"null")); 3815 YP.write(Atom.a(@"null"));
3816 return; 3816 return;
3817 } 3817 }
3818 } 3818 }
3819 { 3819 {
3820 Variable X = new Variable(); 3820 Variable X = new Variable();
3821 foreach (bool l2 in YP.unify(arg1, new Functor1(@"not", X))) 3821 foreach (bool l2 in YP.unify(arg1, new Functor1(@"not", X)))
3822 { 3822 {
3823 YP.write(Atom.a(@"!(")); 3823 YP.write(Atom.a(@"!("));
3824 convertExpressionCSharp(X); 3824 convertExpressionCSharp(X);
3825 YP.write(Atom.a(@")")); 3825 YP.write(Atom.a(@")"));
3826 return; 3826 return;
3827 } 3827 }
3828 } 3828 }
3829 { 3829 {
3830 Variable X = new Variable(); 3830 Variable X = new Variable();
3831 Variable Y = new Variable(); 3831 Variable Y = new Variable();
3832 foreach (bool l2 in YP.unify(arg1, new Functor2(@"and", X, Y))) 3832 foreach (bool l2 in YP.unify(arg1, new Functor2(@"and", X, Y)))
3833 { 3833 {
3834 YP.write(Atom.a(@"(")); 3834 YP.write(Atom.a(@"("));
3835 convertExpressionCSharp(X); 3835 convertExpressionCSharp(X);
3836 YP.write(Atom.a(@") && (")); 3836 YP.write(Atom.a(@") && ("));
3837 convertExpressionCSharp(Y); 3837 convertExpressionCSharp(Y);
3838 YP.write(Atom.a(@")")); 3838 YP.write(Atom.a(@")"));
3839 return; 3839 return;
3840 } 3840 }
3841 } 3841 }
3842 { 3842 {
3843 Variable ArgList = new Variable(); 3843 Variable ArgList = new Variable();
3844 foreach (bool l2 in YP.unify(arg1, new Functor1(@"objectArray", ArgList))) 3844 foreach (bool l2 in YP.unify(arg1, new Functor1(@"objectArray", ArgList)))
3845 { 3845 {
3846 YP.write(Atom.a(@"new object[] {")); 3846 YP.write(Atom.a(@"new object[] {"));
3847 convertArgListCSharp(ArgList); 3847 convertArgListCSharp(ArgList);
3848 YP.write(Atom.a(@"}")); 3848 YP.write(Atom.a(@"}"));
3849 return; 3849 return;
3850 } 3850 }
3851 } 3851 }
3852 { 3852 {
3853 Variable X = new Variable(); 3853 Variable X = new Variable();
3854 Variable Codes = new Variable(); 3854 Variable Codes = new Variable();
3855 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X))) 3855 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X)))
3856 { 3856 {
3857 if (YP.atom(X)) 3857 if (YP.atom(X))
3858 { 3858 {
3859 YP.write(Atom.a(@"@""")); 3859 YP.write(Atom.a(@"@"""));
3860 foreach (bool l4 in YP.atom_codes(X, Codes)) 3860 foreach (bool l4 in YP.atom_codes(X, Codes))
3861 { 3861 {
3862 convertStringCodesCSharp(Codes); 3862 convertStringCodesCSharp(Codes);
3863 YP.write(Atom.a(@"""")); 3863 YP.write(Atom.a(@""""));
3864 return; 3864 return;
3865 } 3865 }
3866 } 3866 }
3867 } 3867 }
3868 } 3868 }
3869 { 3869 {
3870 Variable X = new Variable(); 3870 Variable X = new Variable();
3871 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X))) 3871 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X)))
3872 { 3872 {
3873 YP.write(X); 3873 YP.write(X);
3874 return; 3874 return;
3875 } 3875 }
3876 } 3876 }
3877 } 3877 }
3878 3878
3879 public static void convertStringCodesCSharp(object arg1) 3879 public static void convertStringCodesCSharp(object arg1)
3880 { 3880 {
3881 { 3881 {
3882 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 3882 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
3883 { 3883 {
3884 return; 3884 return;
3885 } 3885 }
3886 } 3886 }
3887 { 3887 {
3888 Variable Code = new Variable(); 3888 Variable Code = new Variable();
3889 Variable RestCodes = new Variable(); 3889 Variable RestCodes = new Variable();
3890 foreach (bool l2 in YP.unify(arg1, new ListPair(Code, RestCodes))) 3890 foreach (bool l2 in YP.unify(arg1, new ListPair(Code, RestCodes)))
3891 { 3891 {
3892 if (YP.termEqual(Code, 34)) 3892 if (YP.termEqual(Code, 34))
3893 { 3893 {
3894 YP.put_code(34); 3894 YP.put_code(34);
3895 YP.put_code(Code); 3895 YP.put_code(Code);
3896 convertStringCodesCSharp(RestCodes); 3896 convertStringCodesCSharp(RestCodes);
3897 return; 3897 return;
3898 goto cutIf1; 3898 goto cutIf1;
3899 } 3899 }
3900 YP.put_code(Code); 3900 YP.put_code(Code);
3901 convertStringCodesCSharp(RestCodes); 3901 convertStringCodesCSharp(RestCodes);
3902 return; 3902 return;
3903 cutIf1: 3903 cutIf1:
3904 { } 3904 { }
3905 } 3905 }
3906 } 3906 }
3907 } 3907 }
3908 3908
3909 public static void convertFunctionJavascript(object arg1) 3909 public static void convertFunctionJavascript(object arg1)
3910 { 3910 {
3911 { 3911 {
3912 foreach (bool l2 in YP.unify(arg1, Atom.a(@"getDeclaringClass"))) 3912 foreach (bool l2 in YP.unify(arg1, Atom.a(@"getDeclaringClass")))
3913 { 3913 {
3914 YP.write(Atom.a(@"function getDeclaringClass() { return null; }")); 3914 YP.write(Atom.a(@"function getDeclaringClass() { return null; }"));
3915 YP.nl(); 3915 YP.nl();
3916 return; 3916 return;
3917 } 3917 }
3918 } 3918 }
3919 { 3919 {
3920 Variable x1 = new Variable(); 3920 Variable x1 = new Variable();
3921 Variable Name = new Variable(); 3921 Variable Name = new Variable();
3922 Variable ArgList = new Variable(); 3922 Variable ArgList = new Variable();
3923 Variable Body = new Variable(); 3923 Variable Body = new Variable();
3924 foreach (bool l2 in YP.unify(arg1, new Functor(@"function", new object[] { x1, Name, ArgList, Body }))) 3924 foreach (bool l2 in YP.unify(arg1, new Functor(@"function", new object[] { x1, Name, ArgList, Body })))
3925 { 3925 {
3926 YP.write(Atom.a(@"function ")); 3926 YP.write(Atom.a(@"function "));
3927 YP.write(Name); 3927 YP.write(Name);
3928 YP.write(Atom.a(@"(")); 3928 YP.write(Atom.a(@"("));
3929 convertArgListJavascript(ArgList); 3929 convertArgListJavascript(ArgList);
3930 YP.write(Atom.a(@") {")); 3930 YP.write(Atom.a(@") {"));
3931 YP.nl(); 3931 YP.nl();
3932 convertStatementListJavascript(Body, 1); 3932 convertStatementListJavascript(Body, 1);
3933 YP.write(Atom.a(@"}")); 3933 YP.write(Atom.a(@"}"));
3934 YP.nl(); 3934 YP.nl();
3935 YP.nl(); 3935 YP.nl();
3936 return; 3936 return;
3937 } 3937 }
3938 } 3938 }
3939 } 3939 }
3940 3940
3941 public static void convertStatementListJavascript(object arg1, object arg2) 3941 public static void convertStatementListJavascript(object arg1, object arg2)
3942 { 3942 {
3943 { 3943 {
3944 object x1 = arg2; 3944 object x1 = arg2;
3945 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 3945 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
3946 { 3946 {
3947 return; 3947 return;
3948 } 3948 }
3949 } 3949 }
3950 { 3950 {
3951 object Level = arg2; 3951 object Level = arg2;
3952 Variable Name = new Variable(); 3952 Variable Name = new Variable();
3953 Variable Body = new Variable(); 3953 Variable Body = new Variable();
3954 Variable RestStatements = new Variable(); 3954 Variable RestStatements = new Variable();
3955 Variable NextLevel = new Variable(); 3955 Variable NextLevel = new Variable();
3956 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"breakableBlock", Name, Body), RestStatements))) 3956 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"breakableBlock", Name, Body), RestStatements)))
3957 { 3957 {
3958 convertIndentationJavascript(Level); 3958 convertIndentationJavascript(Level);
3959 YP.write(Name); 3959 YP.write(Name);
3960 YP.write(Atom.a(@":")); 3960 YP.write(Atom.a(@":"));
3961 YP.nl(); 3961 YP.nl();
3962 convertIndentationJavascript(Level); 3962 convertIndentationJavascript(Level);
3963 YP.write(Atom.a(@"{")); 3963 YP.write(Atom.a(@"{"));
3964 YP.nl(); 3964 YP.nl();
3965 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 3965 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
3966 { 3966 {
3967 convertStatementListJavascript(Body, NextLevel); 3967 convertStatementListJavascript(Body, NextLevel);
3968 convertIndentationJavascript(Level); 3968 convertIndentationJavascript(Level);
3969 YP.write(Atom.a(@"}")); 3969 YP.write(Atom.a(@"}"));
3970 YP.nl(); 3970 YP.nl();
3971 convertStatementListJavascript(RestStatements, Level); 3971 convertStatementListJavascript(RestStatements, Level);
3972 return; 3972 return;
3973 } 3973 }
3974 } 3974 }
3975 } 3975 }
3976 { 3976 {
3977 object Level = arg2; 3977 object Level = arg2;
3978 Variable _Type = new Variable(); 3978 Variable _Type = new Variable();
3979 Variable Name = new Variable(); 3979 Variable Name = new Variable();
3980 Variable Expression = new Variable(); 3980 Variable Expression = new Variable();
3981 Variable RestStatements = new Variable(); 3981 Variable RestStatements = new Variable();
3982 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"declare", _Type, Name, Expression), RestStatements))) 3982 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"declare", _Type, Name, Expression), RestStatements)))
3983 { 3983 {
3984 convertIndentationJavascript(Level); 3984 convertIndentationJavascript(Level);
3985 YP.write(Atom.a(@"var ")); 3985 YP.write(Atom.a(@"var "));
3986 YP.write(Name); 3986 YP.write(Name);
3987 YP.write(Atom.a(@" = ")); 3987 YP.write(Atom.a(@" = "));
3988 convertExpressionJavascript(Expression); 3988 convertExpressionJavascript(Expression);
3989 YP.write(Atom.a(@";")); 3989 YP.write(Atom.a(@";"));
3990 YP.nl(); 3990 YP.nl();
3991 convertStatementListJavascript(RestStatements, Level); 3991 convertStatementListJavascript(RestStatements, Level);
3992 return; 3992 return;
3993 } 3993 }
3994 } 3994 }
3995 { 3995 {
3996 object Level = arg2; 3996 object Level = arg2;
3997 Variable Name = new Variable(); 3997 Variable Name = new Variable();
3998 Variable Expression = new Variable(); 3998 Variable Expression = new Variable();
3999 Variable RestStatements = new Variable(); 3999 Variable RestStatements = new Variable();
4000 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"assign", Name, Expression), RestStatements))) 4000 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"assign", Name, Expression), RestStatements)))
4001 { 4001 {
4002 convertIndentationJavascript(Level); 4002 convertIndentationJavascript(Level);
4003 YP.write(Name); 4003 YP.write(Name);
4004 YP.write(Atom.a(@" = ")); 4004 YP.write(Atom.a(@" = "));
4005 convertExpressionJavascript(Expression); 4005 convertExpressionJavascript(Expression);
4006 YP.write(Atom.a(@";")); 4006 YP.write(Atom.a(@";"));
4007 YP.nl(); 4007 YP.nl();
4008 convertStatementListJavascript(RestStatements, Level); 4008 convertStatementListJavascript(RestStatements, Level);
4009 return; 4009 return;
4010 } 4010 }
4011 } 4011 }
4012 { 4012 {
4013 object Level = arg2; 4013 object Level = arg2;
4014 Variable RestStatements = new Variable(); 4014 Variable RestStatements = new Variable();
4015 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldtrue"), RestStatements))) 4015 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldtrue"), RestStatements)))
4016 { 4016 {
4017 convertIndentationJavascript(Level); 4017 convertIndentationJavascript(Level);
4018 YP.write(Atom.a(@"yield true;")); 4018 YP.write(Atom.a(@"yield true;"));
4019 YP.nl(); 4019 YP.nl();
4020 convertStatementListJavascript(RestStatements, Level); 4020 convertStatementListJavascript(RestStatements, Level);
4021 return; 4021 return;
4022 } 4022 }
4023 } 4023 }
4024 { 4024 {
4025 object Level = arg2; 4025 object Level = arg2;
4026 Variable RestStatements = new Variable(); 4026 Variable RestStatements = new Variable();
4027 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldfalse"), RestStatements))) 4027 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldfalse"), RestStatements)))
4028 { 4028 {
4029 convertIndentationJavascript(Level); 4029 convertIndentationJavascript(Level);
4030 YP.write(Atom.a(@"yield false;")); 4030 YP.write(Atom.a(@"yield false;"));
4031 YP.nl(); 4031 YP.nl();
4032 convertStatementListJavascript(RestStatements, Level); 4032 convertStatementListJavascript(RestStatements, Level);
4033 return; 4033 return;
4034 } 4034 }
4035 } 4035 }
4036 { 4036 {
4037 object Level = arg2; 4037 object Level = arg2;
4038 Variable RestStatements = new Variable(); 4038 Variable RestStatements = new Variable();
4039 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldbreak"), RestStatements))) 4039 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldbreak"), RestStatements)))
4040 { 4040 {
4041 convertIndentationJavascript(Level); 4041 convertIndentationJavascript(Level);
4042 YP.write(Atom.a(@"return;")); 4042 YP.write(Atom.a(@"return;"));
4043 YP.nl(); 4043 YP.nl();
4044 convertStatementListJavascript(RestStatements, Level); 4044 convertStatementListJavascript(RestStatements, Level);
4045 return; 4045 return;
4046 } 4046 }
4047 } 4047 }
4048 { 4048 {
4049 object Level = arg2; 4049 object Level = arg2;
4050 Variable RestStatements = new Variable(); 4050 Variable RestStatements = new Variable();
4051 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"return"), RestStatements))) 4051 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"return"), RestStatements)))
4052 { 4052 {
4053 convertIndentationJavascript(Level); 4053 convertIndentationJavascript(Level);
4054 YP.write(Atom.a(@"return;")); 4054 YP.write(Atom.a(@"return;"));
4055 YP.nl(); 4055 YP.nl();
4056 convertStatementListJavascript(RestStatements, Level); 4056 convertStatementListJavascript(RestStatements, Level);
4057 return; 4057 return;
4058 } 4058 }
4059 } 4059 }
4060 { 4060 {
4061 object Level = arg2; 4061 object Level = arg2;
4062 Variable RestStatements = new Variable(); 4062 Variable RestStatements = new Variable();
4063 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returntrue"), RestStatements))) 4063 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returntrue"), RestStatements)))
4064 { 4064 {
4065 convertIndentationJavascript(Level); 4065 convertIndentationJavascript(Level);
4066 YP.write(Atom.a(@"return true;")); 4066 YP.write(Atom.a(@"return true;"));
4067 YP.nl(); 4067 YP.nl();
4068 convertStatementListJavascript(RestStatements, Level); 4068 convertStatementListJavascript(RestStatements, Level);
4069 return; 4069 return;
4070 } 4070 }
4071 } 4071 }
4072 { 4072 {
4073 object Level = arg2; 4073 object Level = arg2;
4074 Variable RestStatements = new Variable(); 4074 Variable RestStatements = new Variable();
4075 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returnfalse"), RestStatements))) 4075 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returnfalse"), RestStatements)))
4076 { 4076 {
4077 convertIndentationJavascript(Level); 4077 convertIndentationJavascript(Level);
4078 YP.write(Atom.a(@"return false;")); 4078 YP.write(Atom.a(@"return false;"));
4079 YP.nl(); 4079 YP.nl();
4080 convertStatementListJavascript(RestStatements, Level); 4080 convertStatementListJavascript(RestStatements, Level);
4081 return; 4081 return;
4082 } 4082 }
4083 } 4083 }
4084 { 4084 {
4085 object Level = arg2; 4085 object Level = arg2;
4086 Variable Name = new Variable(); 4086 Variable Name = new Variable();
4087 Variable RestStatements = new Variable(); 4087 Variable RestStatements = new Variable();
4088 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"breakBlock", Name), RestStatements))) 4088 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"breakBlock", Name), RestStatements)))
4089 { 4089 {
4090 convertIndentationJavascript(Level); 4090 convertIndentationJavascript(Level);
4091 YP.write(Atom.a(@"break ")); 4091 YP.write(Atom.a(@"break "));
4092 YP.write(Name); 4092 YP.write(Name);
4093 YP.write(Atom.a(@";")); 4093 YP.write(Atom.a(@";"));
4094 YP.nl(); 4094 YP.nl();
4095 convertStatementListJavascript(RestStatements, Level); 4095 convertStatementListJavascript(RestStatements, Level);
4096 return; 4096 return;
4097 } 4097 }
4098 } 4098 }
4099 { 4099 {
4100 object Level = arg2; 4100 object Level = arg2;
4101 Variable Name = new Variable(); 4101 Variable Name = new Variable();
4102 Variable ArgList = new Variable(); 4102 Variable ArgList = new Variable();
4103 Variable RestStatements = new Variable(); 4103 Variable RestStatements = new Variable();
4104 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"call", Name, ArgList), RestStatements))) 4104 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"call", Name, ArgList), RestStatements)))
4105 { 4105 {
4106 convertIndentationJavascript(Level); 4106 convertIndentationJavascript(Level);
4107 YP.write(Name); 4107 YP.write(Name);
4108 YP.write(Atom.a(@"(")); 4108 YP.write(Atom.a(@"("));
4109 convertArgListJavascript(ArgList); 4109 convertArgListJavascript(ArgList);
4110 YP.write(Atom.a(@");")); 4110 YP.write(Atom.a(@");"));
4111 YP.nl(); 4111 YP.nl();
4112 convertStatementListJavascript(RestStatements, Level); 4112 convertStatementListJavascript(RestStatements, Level);
4113 return; 4113 return;
4114 } 4114 }
4115 } 4115 }
4116 { 4116 {
4117 object Level = arg2; 4117 object Level = arg2;
4118 Variable Obj = new Variable(); 4118 Variable Obj = new Variable();
4119 Variable Name = new Variable(); 4119 Variable Name = new Variable();
4120 Variable ArgList = new Variable(); 4120 Variable ArgList = new Variable();
4121 Variable RestStatements = new Variable(); 4121 Variable RestStatements = new Variable();
4122 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList), RestStatements))) 4122 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList), RestStatements)))
4123 { 4123 {
4124 convertIndentationJavascript(Level); 4124 convertIndentationJavascript(Level);
4125 YP.write(Obj); 4125 YP.write(Obj);
4126 YP.write(Atom.a(@".")); 4126 YP.write(Atom.a(@"."));
4127 YP.write(Name); 4127 YP.write(Name);
4128 YP.write(Atom.a(@"(")); 4128 YP.write(Atom.a(@"("));
4129 convertArgListJavascript(ArgList); 4129 convertArgListJavascript(ArgList);
4130 YP.write(Atom.a(@");")); 4130 YP.write(Atom.a(@");"));
4131 YP.nl(); 4131 YP.nl();
4132 convertStatementListJavascript(RestStatements, Level); 4132 convertStatementListJavascript(RestStatements, Level);
4133 return; 4133 return;
4134 } 4134 }
4135 } 4135 }
4136 { 4136 {
4137 object Level = arg2; 4137 object Level = arg2;
4138 Variable Body = new Variable(); 4138 Variable Body = new Variable();
4139 Variable RestStatements = new Variable(); 4139 Variable RestStatements = new Variable();
4140 Variable NextLevel = new Variable(); 4140 Variable NextLevel = new Variable();
4141 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"blockScope", Body), RestStatements))) 4141 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"blockScope", Body), RestStatements)))
4142 { 4142 {
4143 convertIndentationJavascript(Level); 4143 convertIndentationJavascript(Level);
4144 YP.write(Atom.a(@"{")); 4144 YP.write(Atom.a(@"{"));
4145 YP.nl(); 4145 YP.nl();
4146 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 4146 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
4147 { 4147 {
4148 convertStatementListJavascript(Body, NextLevel); 4148 convertStatementListJavascript(Body, NextLevel);
4149 convertIndentationJavascript(Level); 4149 convertIndentationJavascript(Level);
4150 YP.write(Atom.a(@"}")); 4150 YP.write(Atom.a(@"}"));
4151 YP.nl(); 4151 YP.nl();
4152 convertStatementListJavascript(RestStatements, Level); 4152 convertStatementListJavascript(RestStatements, Level);
4153 return; 4153 return;
4154 } 4154 }
4155 } 4155 }
4156 } 4156 }
4157 { 4157 {
4158 object Level = arg2; 4158 object Level = arg2;
4159 Variable Expression = new Variable(); 4159 Variable Expression = new Variable();
4160 Variable Body = new Variable(); 4160 Variable Body = new Variable();
4161 Variable RestStatements = new Variable(); 4161 Variable RestStatements = new Variable();
4162 Variable NextLevel = new Variable(); 4162 Variable NextLevel = new Variable();
4163 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"if", Expression, Body), RestStatements))) 4163 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"if", Expression, Body), RestStatements)))
4164 { 4164 {
4165 convertIndentationJavascript(Level); 4165 convertIndentationJavascript(Level);
4166 YP.write(Atom.a(@"if (")); 4166 YP.write(Atom.a(@"if ("));
4167 convertExpressionJavascript(Expression); 4167 convertExpressionJavascript(Expression);
4168 YP.write(Atom.a(@") {")); 4168 YP.write(Atom.a(@") {"));
4169 YP.nl(); 4169 YP.nl();
4170 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 4170 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
4171 { 4171 {
4172 convertStatementListJavascript(Body, NextLevel); 4172 convertStatementListJavascript(Body, NextLevel);
4173 convertIndentationJavascript(Level); 4173 convertIndentationJavascript(Level);
4174 YP.write(Atom.a(@"}")); 4174 YP.write(Atom.a(@"}"));
4175 YP.nl(); 4175 YP.nl();
4176 convertStatementListJavascript(RestStatements, Level); 4176 convertStatementListJavascript(RestStatements, Level);
4177 return; 4177 return;
4178 } 4178 }
4179 } 4179 }
4180 } 4180 }
4181 { 4181 {
4182 object Level = arg2; 4182 object Level = arg2;
4183 Variable Expression = new Variable(); 4183 Variable Expression = new Variable();
4184 Variable Body = new Variable(); 4184 Variable Body = new Variable();
4185 Variable RestStatements = new Variable(); 4185 Variable RestStatements = new Variable();
4186 Variable NextLevel = new Variable(); 4186 Variable NextLevel = new Variable();
4187 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"foreach", Expression, Body), RestStatements))) 4187 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"foreach", Expression, Body), RestStatements)))
4188 { 4188 {
4189 convertIndentationJavascript(Level); 4189 convertIndentationJavascript(Level);
4190 YP.write(Atom.a(@"for each (var l")); 4190 YP.write(Atom.a(@"for each (var l"));
4191 YP.write(Level); 4191 YP.write(Level);
4192 YP.write(Atom.a(@" in ")); 4192 YP.write(Atom.a(@" in "));
4193 convertExpressionJavascript(Expression); 4193 convertExpressionJavascript(Expression);
4194 YP.write(Atom.a(@") {")); 4194 YP.write(Atom.a(@") {"));
4195 YP.nl(); 4195 YP.nl();
4196 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 4196 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
4197 { 4197 {
4198 convertStatementListJavascript(Body, NextLevel); 4198 convertStatementListJavascript(Body, NextLevel);
4199 convertIndentationJavascript(Level); 4199 convertIndentationJavascript(Level);
4200 YP.write(Atom.a(@"}")); 4200 YP.write(Atom.a(@"}"));
4201 YP.nl(); 4201 YP.nl();
4202 convertStatementListJavascript(RestStatements, Level); 4202 convertStatementListJavascript(RestStatements, Level);
4203 return; 4203 return;
4204 } 4204 }
4205 } 4205 }
4206 } 4206 }
4207 } 4207 }
4208 4208
4209 public static void convertIndentationJavascript(object Level) 4209 public static void convertIndentationJavascript(object Level)
4210 { 4210 {
4211 { 4211 {
4212 Variable N = new Variable(); 4212 Variable N = new Variable();
4213 foreach (bool l2 in YP.unify(N, YP.multiply(Level, 2))) 4213 foreach (bool l2 in YP.unify(N, YP.multiply(Level, 2)))
4214 { 4214 {
4215 repeatWrite(Atom.a(@" "), N); 4215 repeatWrite(Atom.a(@" "), N);
4216 return; 4216 return;
4217 } 4217 }
4218 } 4218 }
4219 } 4219 }
4220 4220
4221 public static void convertArgListJavascript(object arg1) 4221 public static void convertArgListJavascript(object arg1)
4222 { 4222 {
4223 { 4223 {
4224 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 4224 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
4225 { 4225 {
4226 return; 4226 return;
4227 } 4227 }
4228 } 4228 }
4229 { 4229 {
4230 Variable Head = new Variable(); 4230 Variable Head = new Variable();
4231 Variable Tail = new Variable(); 4231 Variable Tail = new Variable();
4232 foreach (bool l2 in YP.unify(arg1, new ListPair(Head, Tail))) 4232 foreach (bool l2 in YP.unify(arg1, new ListPair(Head, Tail)))
4233 { 4233 {
4234 convertExpressionJavascript(Head); 4234 convertExpressionJavascript(Head);
4235 if (YP.termNotEqual(Tail, Atom.NIL)) 4235 if (YP.termNotEqual(Tail, Atom.NIL))
4236 { 4236 {
4237 YP.write(Atom.a(@", ")); 4237 YP.write(Atom.a(@", "));
4238 convertArgListJavascript(Tail); 4238 convertArgListJavascript(Tail);
4239 return; 4239 return;
4240 goto cutIf1; 4240 goto cutIf1;
4241 } 4241 }
4242 convertArgListJavascript(Tail); 4242 convertArgListJavascript(Tail);
4243 return; 4243 return;
4244 cutIf1: 4244 cutIf1:
4245 { } 4245 { }
4246 } 4246 }
4247 } 4247 }
4248 } 4248 }
4249 4249
4250 public static void convertExpressionJavascript(object arg1) 4250 public static void convertExpressionJavascript(object arg1)
4251 { 4251 {
4252 { 4252 {
4253 Variable X = new Variable(); 4253 Variable X = new Variable();
4254 foreach (bool l2 in YP.unify(arg1, new Functor1(@"arg", X))) 4254 foreach (bool l2 in YP.unify(arg1, new Functor1(@"arg", X)))
4255 { 4255 {
4256 YP.write(X); 4256 YP.write(X);
4257 return; 4257 return;
4258 } 4258 }
4259 } 4259 }
4260 { 4260 {
4261 Variable Name = new Variable(); 4261 Variable Name = new Variable();
4262 Variable ArgList = new Variable(); 4262 Variable ArgList = new Variable();
4263 foreach (bool l2 in YP.unify(arg1, new Functor2(@"call", Name, ArgList))) 4263 foreach (bool l2 in YP.unify(arg1, new Functor2(@"call", Name, ArgList)))
4264 { 4264 {
4265 YP.write(Name); 4265 YP.write(Name);
4266 YP.write(Atom.a(@"(")); 4266 YP.write(Atom.a(@"("));
4267 convertArgListJavascript(ArgList); 4267 convertArgListJavascript(ArgList);
4268 YP.write(Atom.a(@")")); 4268 YP.write(Atom.a(@")"));
4269 return; 4269 return;
4270 } 4270 }
4271 } 4271 }
4272 { 4272 {
4273 Variable Obj = new Variable(); 4273 Variable Obj = new Variable();
4274 Variable Name = new Variable(); 4274 Variable Name = new Variable();
4275 Variable ArgList = new Variable(); 4275 Variable ArgList = new Variable();
4276 foreach (bool l2 in YP.unify(arg1, new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList))) 4276 foreach (bool l2 in YP.unify(arg1, new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList)))
4277 { 4277 {
4278 YP.write(Obj); 4278 YP.write(Obj);
4279 YP.write(Atom.a(@".")); 4279 YP.write(Atom.a(@"."));
4280 YP.write(Name); 4280 YP.write(Name);
4281 YP.write(Atom.a(@"(")); 4281 YP.write(Atom.a(@"("));
4282 convertArgListJavascript(ArgList); 4282 convertArgListJavascript(ArgList);
4283 YP.write(Atom.a(@")")); 4283 YP.write(Atom.a(@")"));
4284 return; 4284 return;
4285 } 4285 }
4286 } 4286 }
4287 { 4287 {
4288 Variable Name = new Variable(); 4288 Variable Name = new Variable();
4289 Variable ArgList = new Variable(); 4289 Variable ArgList = new Variable();
4290 foreach (bool l2 in YP.unify(arg1, new Functor2(@"new", Name, ArgList))) 4290 foreach (bool l2 in YP.unify(arg1, new Functor2(@"new", Name, ArgList)))
4291 { 4291 {
4292 YP.write(Atom.a(@"new ")); 4292 YP.write(Atom.a(@"new "));
4293 YP.write(Name); 4293 YP.write(Name);
4294 YP.write(Atom.a(@"(")); 4294 YP.write(Atom.a(@"("));
4295 convertArgListJavascript(ArgList); 4295 convertArgListJavascript(ArgList);
4296 YP.write(Atom.a(@")")); 4296 YP.write(Atom.a(@")"));
4297 return; 4297 return;
4298 } 4298 }
4299 } 4299 }
4300 { 4300 {
4301 Variable Name = new Variable(); 4301 Variable Name = new Variable();
4302 foreach (bool l2 in YP.unify(arg1, new Functor1(@"var", Name))) 4302 foreach (bool l2 in YP.unify(arg1, new Functor1(@"var", Name)))
4303 { 4303 {
4304 YP.write(Name); 4304 YP.write(Name);
4305 return; 4305 return;
4306 } 4306 }
4307 } 4307 }
4308 { 4308 {
4309 foreach (bool l2 in YP.unify(arg1, Atom.a(@"null"))) 4309 foreach (bool l2 in YP.unify(arg1, Atom.a(@"null")))
4310 { 4310 {
4311 YP.write(Atom.a(@"null")); 4311 YP.write(Atom.a(@"null"));
4312 return; 4312 return;
4313 } 4313 }
4314 } 4314 }
4315 { 4315 {
4316 Variable X = new Variable(); 4316 Variable X = new Variable();
4317 foreach (bool l2 in YP.unify(arg1, new Functor1(@"not", X))) 4317 foreach (bool l2 in YP.unify(arg1, new Functor1(@"not", X)))
4318 { 4318 {
4319 YP.write(Atom.a(@"!(")); 4319 YP.write(Atom.a(@"!("));
4320 convertExpressionJavascript(X); 4320 convertExpressionJavascript(X);
4321 YP.write(Atom.a(@")")); 4321 YP.write(Atom.a(@")"));
4322 return; 4322 return;
4323 } 4323 }
4324 } 4324 }
4325 { 4325 {
4326 Variable X = new Variable(); 4326 Variable X = new Variable();
4327 Variable Y = new Variable(); 4327 Variable Y = new Variable();
4328 foreach (bool l2 in YP.unify(arg1, new Functor2(@"and", X, Y))) 4328 foreach (bool l2 in YP.unify(arg1, new Functor2(@"and", X, Y)))
4329 { 4329 {
4330 YP.write(Atom.a(@"(")); 4330 YP.write(Atom.a(@"("));
4331 convertExpressionJavascript(X); 4331 convertExpressionJavascript(X);
4332 YP.write(Atom.a(@") && (")); 4332 YP.write(Atom.a(@") && ("));
4333 convertExpressionJavascript(Y); 4333 convertExpressionJavascript(Y);
4334 YP.write(Atom.a(@")")); 4334 YP.write(Atom.a(@")"));
4335 return; 4335 return;
4336 } 4336 }
4337 } 4337 }
4338 { 4338 {
4339 Variable ArgList = new Variable(); 4339 Variable ArgList = new Variable();
4340 foreach (bool l2 in YP.unify(arg1, new Functor1(@"objectArray", ArgList))) 4340 foreach (bool l2 in YP.unify(arg1, new Functor1(@"objectArray", ArgList)))
4341 { 4341 {
4342 YP.write(Atom.a(@"[")); 4342 YP.write(Atom.a(@"["));
4343 convertArgListJavascript(ArgList); 4343 convertArgListJavascript(ArgList);
4344 YP.write(Atom.a(@"]")); 4344 YP.write(Atom.a(@"]"));
4345 return; 4345 return;
4346 } 4346 }
4347 } 4347 }
4348 { 4348 {
4349 Variable X = new Variable(); 4349 Variable X = new Variable();
4350 Variable Codes = new Variable(); 4350 Variable Codes = new Variable();
4351 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X))) 4351 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X)))
4352 { 4352 {
4353 if (YP.atom(X)) 4353 if (YP.atom(X))
4354 { 4354 {
4355 YP.write(Atom.a(@"""")); 4355 YP.write(Atom.a(@""""));
4356 foreach (bool l4 in YP.atom_codes(X, Codes)) 4356 foreach (bool l4 in YP.atom_codes(X, Codes))
4357 { 4357 {
4358 convertStringCodesJavascript(Codes); 4358 convertStringCodesJavascript(Codes);
4359 YP.write(Atom.a(@"""")); 4359 YP.write(Atom.a(@""""));
4360 return; 4360 return;
4361 } 4361 }
4362 } 4362 }
4363 } 4363 }
4364 } 4364 }
4365 { 4365 {
4366 Variable X = new Variable(); 4366 Variable X = new Variable();
4367 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X))) 4367 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X)))
4368 { 4368 {
4369 YP.write(X); 4369 YP.write(X);
4370 return; 4370 return;
4371 } 4371 }
4372 } 4372 }
4373 } 4373 }
4374 4374
4375 public static void convertStringCodesJavascript(object arg1) 4375 public static void convertStringCodesJavascript(object arg1)
4376 { 4376 {
4377 { 4377 {
4378 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 4378 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
4379 { 4379 {
4380 return; 4380 return;
4381 } 4381 }
4382 } 4382 }
4383 { 4383 {
4384 Variable Code = new Variable(); 4384 Variable Code = new Variable();
4385 Variable RestCodes = new Variable(); 4385 Variable RestCodes = new Variable();
4386 foreach (bool l2 in YP.unify(arg1, new ListPair(Code, RestCodes))) 4386 foreach (bool l2 in YP.unify(arg1, new ListPair(Code, RestCodes)))
4387 { 4387 {
4388 if (YP.termEqual(Code, 34)) 4388 if (YP.termEqual(Code, 34))
4389 { 4389 {
4390 YP.put_code(92); 4390 YP.put_code(92);
4391 YP.put_code(Code); 4391 YP.put_code(Code);
4392 convertStringCodesJavascript(RestCodes); 4392 convertStringCodesJavascript(RestCodes);
4393 return; 4393 return;
4394 goto cutIf1; 4394 goto cutIf1;
4395 } 4395 }
4396 if (YP.termEqual(Code, 92)) 4396 if (YP.termEqual(Code, 92))
4397 { 4397 {
4398 YP.put_code(92); 4398 YP.put_code(92);
4399 YP.put_code(Code); 4399 YP.put_code(Code);
4400 convertStringCodesJavascript(RestCodes); 4400 convertStringCodesJavascript(RestCodes);
4401 return; 4401 return;
4402 goto cutIf1; 4402 goto cutIf1;
4403 } 4403 }
4404 YP.put_code(Code); 4404 YP.put_code(Code);
4405 convertStringCodesJavascript(RestCodes); 4405 convertStringCodesJavascript(RestCodes);
4406 return; 4406 return;
4407 cutIf1: 4407 cutIf1:
4408 { } 4408 { }
4409 } 4409 }
4410 } 4410 }
4411 } 4411 }
4412 4412
4413 public static void convertFunctionPython(object arg1) 4413 public static void convertFunctionPython(object arg1)
4414 { 4414 {
4415 { 4415 {
4416 foreach (bool l2 in YP.unify(arg1, Atom.a(@"getDeclaringClass"))) 4416 foreach (bool l2 in YP.unify(arg1, Atom.a(@"getDeclaringClass")))
4417 { 4417 {
4418 YP.write(Atom.a(@"def getDeclaringClass():")); 4418 YP.write(Atom.a(@"def getDeclaringClass():"));
4419 YP.nl(); 4419 YP.nl();
4420 YP.write(Atom.a(@" return None")); 4420 YP.write(Atom.a(@" return None"));
4421 YP.nl(); 4421 YP.nl();
4422 YP.nl(); 4422 YP.nl();
4423 return; 4423 return;
4424 } 4424 }
4425 } 4425 }
4426 { 4426 {
4427 Variable x1 = new Variable(); 4427 Variable x1 = new Variable();
4428 Variable Name = new Variable(); 4428 Variable Name = new Variable();
4429 Variable ArgList = new Variable(); 4429 Variable ArgList = new Variable();
4430 Variable Body = new Variable(); 4430 Variable Body = new Variable();
4431 Variable Level = new Variable(); 4431 Variable Level = new Variable();
4432 Variable HasBreakableBlock = new Variable(); 4432 Variable HasBreakableBlock = new Variable();
4433 foreach (bool l2 in YP.unify(arg1, new Functor(@"function", new object[] { x1, Name, ArgList, Body }))) 4433 foreach (bool l2 in YP.unify(arg1, new Functor(@"function", new object[] { x1, Name, ArgList, Body })))
4434 { 4434 {
4435 YP.write(Atom.a(@"def ")); 4435 YP.write(Atom.a(@"def "));
4436 YP.write(Name); 4436 YP.write(Name);
4437 YP.write(Atom.a(@"(")); 4437 YP.write(Atom.a(@"("));
4438 convertArgListPython(ArgList); 4438 convertArgListPython(ArgList);
4439 YP.write(Atom.a(@"):")); 4439 YP.write(Atom.a(@"):"));
4440 YP.nl(); 4440 YP.nl();
4441 foreach (bool l3 in YP.unify(Level, 1)) 4441 foreach (bool l3 in YP.unify(Level, 1))
4442 { 4442 {
4443 if (hasBreakableBlockPython(Body)) 4443 if (hasBreakableBlockPython(Body))
4444 { 4444 {
4445 foreach (bool l5 in YP.unify(HasBreakableBlock, 1)) 4445 foreach (bool l5 in YP.unify(HasBreakableBlock, 1))
4446 { 4446 {
4447 if (YP.termEqual(HasBreakableBlock, 1)) 4447 if (YP.termEqual(HasBreakableBlock, 1))
4448 { 4448 {
4449 convertIndentationPython(Level); 4449 convertIndentationPython(Level);
4450 YP.write(Atom.a(@"doBreak = False")); 4450 YP.write(Atom.a(@"doBreak = False"));
4451 YP.nl(); 4451 YP.nl();
4452 foreach (bool l7 in convertStatementListPython(Body, Level, HasBreakableBlock)) 4452 foreach (bool l7 in convertStatementListPython(Body, Level, HasBreakableBlock))
4453 { 4453 {
4454 YP.nl(); 4454 YP.nl();
4455 return; 4455 return;
4456 } 4456 }
4457 goto cutIf2; 4457 goto cutIf2;
4458 } 4458 }
4459 foreach (bool l6 in convertStatementListPython(Body, Level, HasBreakableBlock)) 4459 foreach (bool l6 in convertStatementListPython(Body, Level, HasBreakableBlock))
4460 { 4460 {
4461 YP.nl(); 4461 YP.nl();
4462 return; 4462 return;
4463 } 4463 }
4464 cutIf2: 4464 cutIf2:
4465 { } 4465 { }
4466 } 4466 }
4467 goto cutIf1; 4467 goto cutIf1;
4468 } 4468 }
4469 foreach (bool l4 in YP.unify(HasBreakableBlock, 0)) 4469 foreach (bool l4 in YP.unify(HasBreakableBlock, 0))
4470 { 4470 {
4471 if (YP.termEqual(HasBreakableBlock, 1)) 4471 if (YP.termEqual(HasBreakableBlock, 1))
4472 { 4472 {
4473 convertIndentationPython(Level); 4473 convertIndentationPython(Level);
4474 YP.write(Atom.a(@"doBreak = False")); 4474 YP.write(Atom.a(@"doBreak = False"));
4475 YP.nl(); 4475 YP.nl();
4476 foreach (bool l6 in convertStatementListPython(Body, Level, HasBreakableBlock)) 4476 foreach (bool l6 in convertStatementListPython(Body, Level, HasBreakableBlock))
4477 { 4477 {
4478 YP.nl(); 4478 YP.nl();
4479 return; 4479 return;
4480 } 4480 }
4481 goto cutIf3; 4481 goto cutIf3;
4482 } 4482 }
4483 foreach (bool l5 in convertStatementListPython(Body, Level, HasBreakableBlock)) 4483 foreach (bool l5 in convertStatementListPython(Body, Level, HasBreakableBlock))
4484 { 4484 {
4485 YP.nl(); 4485 YP.nl();
4486 return; 4486 return;
4487 } 4487 }
4488 cutIf3: 4488 cutIf3:
4489 { } 4489 { }
4490 } 4490 }
4491 cutIf1: 4491 cutIf1:
4492 { } 4492 { }
4493 } 4493 }
4494 } 4494 }
4495 } 4495 }
4496 } 4496 }
4497 4497
4498 public static bool hasBreakableBlockPython(object arg1) 4498 public static bool hasBreakableBlockPython(object arg1)
4499 { 4499 {
4500 { 4500 {
4501 Variable _Name = new Variable(); 4501 Variable _Name = new Variable();
4502 Variable _Body = new Variable(); 4502 Variable _Body = new Variable();
4503 Variable _RestStatements = new Variable(); 4503 Variable _RestStatements = new Variable();
4504 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"breakableBlock", _Name, _Body), _RestStatements))) 4504 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"breakableBlock", _Name, _Body), _RestStatements)))
4505 { 4505 {
4506 return true; 4506 return true;
4507 } 4507 }
4508 } 4508 }
4509 { 4509 {
4510 Variable Body = new Variable(); 4510 Variable Body = new Variable();
4511 Variable _RestStatements = new Variable(); 4511 Variable _RestStatements = new Variable();
4512 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"blockScope", Body), _RestStatements))) 4512 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"blockScope", Body), _RestStatements)))
4513 { 4513 {
4514 if (hasBreakableBlockPython(Body)) 4514 if (hasBreakableBlockPython(Body))
4515 { 4515 {
4516 return true; 4516 return true;
4517 } 4517 }
4518 } 4518 }
4519 } 4519 }
4520 { 4520 {
4521 Variable _Expression = new Variable(); 4521 Variable _Expression = new Variable();
4522 Variable Body = new Variable(); 4522 Variable Body = new Variable();
4523 Variable _RestStatements = new Variable(); 4523 Variable _RestStatements = new Variable();
4524 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"if", _Expression, Body), _RestStatements))) 4524 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"if", _Expression, Body), _RestStatements)))
4525 { 4525 {
4526 if (hasBreakableBlockPython(Body)) 4526 if (hasBreakableBlockPython(Body))
4527 { 4527 {
4528 return true; 4528 return true;
4529 } 4529 }
4530 } 4530 }
4531 } 4531 }
4532 { 4532 {
4533 Variable _Expression = new Variable(); 4533 Variable _Expression = new Variable();
4534 Variable Body = new Variable(); 4534 Variable Body = new Variable();
4535 Variable _RestStatements = new Variable(); 4535 Variable _RestStatements = new Variable();
4536 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"foreach", _Expression, Body), _RestStatements))) 4536 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"foreach", _Expression, Body), _RestStatements)))
4537 { 4537 {
4538 if (hasBreakableBlockPython(Body)) 4538 if (hasBreakableBlockPython(Body))
4539 { 4539 {
4540 return true; 4540 return true;
4541 } 4541 }
4542 } 4542 }
4543 } 4543 }
4544 { 4544 {
4545 Variable x1 = new Variable(); 4545 Variable x1 = new Variable();
4546 Variable RestStatements = new Variable(); 4546 Variable RestStatements = new Variable();
4547 foreach (bool l2 in YP.unify(arg1, new ListPair(x1, RestStatements))) 4547 foreach (bool l2 in YP.unify(arg1, new ListPair(x1, RestStatements)))
4548 { 4548 {
4549 if (hasBreakableBlockPython(RestStatements)) 4549 if (hasBreakableBlockPython(RestStatements))
4550 { 4550 {
4551 return true; 4551 return true;
4552 } 4552 }
4553 } 4553 }
4554 } 4554 }
4555 return false; 4555 return false;
4556 } 4556 }
4557 4557
4558 public static IEnumerable<bool> convertStatementListPython(object arg1, object arg2, object arg3) 4558 public static IEnumerable<bool> convertStatementListPython(object arg1, object arg2, object arg3)
4559 { 4559 {
4560 { 4560 {
4561 object x1 = arg2; 4561 object x1 = arg2;
4562 object x2 = arg3; 4562 object x2 = arg3;
4563 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 4563 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
4564 { 4564 {
4565 yield return true; 4565 yield return true;
4566 yield break; 4566 yield break;
4567 } 4567 }
4568 } 4568 }
4569 { 4569 {
4570 object Level = arg2; 4570 object Level = arg2;
4571 object HasBreakableBlock = arg3; 4571 object HasBreakableBlock = arg3;
4572 Variable Name = new Variable(); 4572 Variable Name = new Variable();
4573 Variable Body = new Variable(); 4573 Variable Body = new Variable();
4574 Variable RestStatements = new Variable(); 4574 Variable RestStatements = new Variable();
4575 Variable NextLevel = new Variable(); 4575 Variable NextLevel = new Variable();
4576 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"breakableBlock", Name, Body), RestStatements))) 4576 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"breakableBlock", Name, Body), RestStatements)))
4577 { 4577 {
4578 convertIndentationPython(Level); 4578 convertIndentationPython(Level);
4579 YP.write(Name); 4579 YP.write(Name);
4580 YP.write(Atom.a(@" = False")); 4580 YP.write(Atom.a(@" = False"));
4581 YP.nl(); 4581 YP.nl();
4582 convertIndentationPython(Level); 4582 convertIndentationPython(Level);
4583 YP.write(Atom.a(@"for _ in [1]:")); 4583 YP.write(Atom.a(@"for _ in [1]:"));
4584 YP.nl(); 4584 YP.nl();
4585 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 4585 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
4586 { 4586 {
4587 foreach (bool l4 in convertStatementListPython(Body, NextLevel, HasBreakableBlock)) 4587 foreach (bool l4 in convertStatementListPython(Body, NextLevel, HasBreakableBlock))
4588 { 4588 {
4589 convertIndentationPython(Level); 4589 convertIndentationPython(Level);
4590 YP.write(Atom.a(@"if ")); 4590 YP.write(Atom.a(@"if "));
4591 YP.write(Name); 4591 YP.write(Name);
4592 YP.write(Atom.a(@":")); 4592 YP.write(Atom.a(@":"));
4593 YP.nl(); 4593 YP.nl();
4594 convertIndentationPython(NextLevel); 4594 convertIndentationPython(NextLevel);
4595 YP.write(Atom.a(@"doBreak = False")); 4595 YP.write(Atom.a(@"doBreak = False"));
4596 YP.nl(); 4596 YP.nl();
4597 convertIndentationPython(Level); 4597 convertIndentationPython(Level);
4598 YP.write(Atom.a(@"if doBreak:")); 4598 YP.write(Atom.a(@"if doBreak:"));
4599 YP.nl(); 4599 YP.nl();
4600 convertIndentationPython(NextLevel); 4600 convertIndentationPython(NextLevel);
4601 YP.write(Atom.a(@"break")); 4601 YP.write(Atom.a(@"break"));
4602 YP.nl(); 4602 YP.nl();
4603 foreach (bool l5 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4603 foreach (bool l5 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4604 { 4604 {
4605 yield return true; 4605 yield return true;
4606 yield break; 4606 yield break;
4607 } 4607 }
4608 } 4608 }
4609 } 4609 }
4610 } 4610 }
4611 } 4611 }
4612 { 4612 {
4613 object Level = arg2; 4613 object Level = arg2;
4614 object HasBreakableBlock = arg3; 4614 object HasBreakableBlock = arg3;
4615 Variable _Type = new Variable(); 4615 Variable _Type = new Variable();
4616 Variable Name = new Variable(); 4616 Variable Name = new Variable();
4617 Variable Expression = new Variable(); 4617 Variable Expression = new Variable();
4618 Variable RestStatements = new Variable(); 4618 Variable RestStatements = new Variable();
4619 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"declare", _Type, Name, Expression), RestStatements))) 4619 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"declare", _Type, Name, Expression), RestStatements)))
4620 { 4620 {
4621 convertIndentationPython(Level); 4621 convertIndentationPython(Level);
4622 YP.write(Name); 4622 YP.write(Name);
4623 YP.write(Atom.a(@" = ")); 4623 YP.write(Atom.a(@" = "));
4624 convertExpressionPython(Expression); 4624 convertExpressionPython(Expression);
4625 YP.nl(); 4625 YP.nl();
4626 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4626 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4627 { 4627 {
4628 yield return true; 4628 yield return true;
4629 yield break; 4629 yield break;
4630 } 4630 }
4631 } 4631 }
4632 } 4632 }
4633 { 4633 {
4634 object Level = arg2; 4634 object Level = arg2;
4635 object HasBreakableBlock = arg3; 4635 object HasBreakableBlock = arg3;
4636 Variable Name = new Variable(); 4636 Variable Name = new Variable();
4637 Variable Expression = new Variable(); 4637 Variable Expression = new Variable();
4638 Variable RestStatements = new Variable(); 4638 Variable RestStatements = new Variable();
4639 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"assign", Name, Expression), RestStatements))) 4639 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"assign", Name, Expression), RestStatements)))
4640 { 4640 {
4641 convertIndentationPython(Level); 4641 convertIndentationPython(Level);
4642 YP.write(Name); 4642 YP.write(Name);
4643 YP.write(Atom.a(@" = ")); 4643 YP.write(Atom.a(@" = "));
4644 convertExpressionPython(Expression); 4644 convertExpressionPython(Expression);
4645 YP.nl(); 4645 YP.nl();
4646 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4646 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4647 { 4647 {
4648 yield return true; 4648 yield return true;
4649 yield break; 4649 yield break;
4650 } 4650 }
4651 } 4651 }
4652 } 4652 }
4653 { 4653 {
4654 object Level = arg2; 4654 object Level = arg2;
4655 object HasBreakableBlock = arg3; 4655 object HasBreakableBlock = arg3;
4656 Variable RestStatements = new Variable(); 4656 Variable RestStatements = new Variable();
4657 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldtrue"), RestStatements))) 4657 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldtrue"), RestStatements)))
4658 { 4658 {
4659 convertIndentationPython(Level); 4659 convertIndentationPython(Level);
4660 YP.write(Atom.a(@"yield True")); 4660 YP.write(Atom.a(@"yield True"));
4661 YP.nl(); 4661 YP.nl();
4662 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4662 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4663 { 4663 {
4664 yield return true; 4664 yield return true;
4665 yield break; 4665 yield break;
4666 } 4666 }
4667 } 4667 }
4668 } 4668 }
4669 { 4669 {
4670 object Level = arg2; 4670 object Level = arg2;
4671 object HasBreakableBlock = arg3; 4671 object HasBreakableBlock = arg3;
4672 Variable RestStatements = new Variable(); 4672 Variable RestStatements = new Variable();
4673 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldfalse"), RestStatements))) 4673 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldfalse"), RestStatements)))
4674 { 4674 {
4675 convertIndentationPython(Level); 4675 convertIndentationPython(Level);
4676 YP.write(Atom.a(@"yield False")); 4676 YP.write(Atom.a(@"yield False"));
4677 YP.nl(); 4677 YP.nl();
4678 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4678 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4679 { 4679 {
4680 yield return true; 4680 yield return true;
4681 yield break; 4681 yield break;
4682 } 4682 }
4683 } 4683 }
4684 } 4684 }
4685 { 4685 {
4686 object Level = arg2; 4686 object Level = arg2;
4687 object HasBreakableBlock = arg3; 4687 object HasBreakableBlock = arg3;
4688 Variable RestStatements = new Variable(); 4688 Variable RestStatements = new Variable();
4689 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldbreak"), RestStatements))) 4689 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"yieldbreak"), RestStatements)))
4690 { 4690 {
4691 convertIndentationPython(Level); 4691 convertIndentationPython(Level);
4692 YP.write(Atom.a(@"return")); 4692 YP.write(Atom.a(@"return"));
4693 YP.nl(); 4693 YP.nl();
4694 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4694 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4695 { 4695 {
4696 yield return true; 4696 yield return true;
4697 yield break; 4697 yield break;
4698 } 4698 }
4699 } 4699 }
4700 } 4700 }
4701 { 4701 {
4702 object Level = arg2; 4702 object Level = arg2;
4703 object HasBreakableBlock = arg3; 4703 object HasBreakableBlock = arg3;
4704 Variable RestStatements = new Variable(); 4704 Variable RestStatements = new Variable();
4705 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"return"), RestStatements))) 4705 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"return"), RestStatements)))
4706 { 4706 {
4707 convertIndentationPython(Level); 4707 convertIndentationPython(Level);
4708 YP.write(Atom.a(@"return")); 4708 YP.write(Atom.a(@"return"));
4709 YP.nl(); 4709 YP.nl();
4710 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4710 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4711 { 4711 {
4712 yield return true; 4712 yield return true;
4713 yield break; 4713 yield break;
4714 } 4714 }
4715 } 4715 }
4716 } 4716 }
4717 { 4717 {
4718 object Level = arg2; 4718 object Level = arg2;
4719 object HasBreakableBlock = arg3; 4719 object HasBreakableBlock = arg3;
4720 Variable RestStatements = new Variable(); 4720 Variable RestStatements = new Variable();
4721 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returntrue"), RestStatements))) 4721 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returntrue"), RestStatements)))
4722 { 4722 {
4723 convertIndentationPython(Level); 4723 convertIndentationPython(Level);
4724 YP.write(Atom.a(@"return True")); 4724 YP.write(Atom.a(@"return True"));
4725 YP.nl(); 4725 YP.nl();
4726 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4726 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4727 { 4727 {
4728 yield return true; 4728 yield return true;
4729 yield break; 4729 yield break;
4730 } 4730 }
4731 } 4731 }
4732 } 4732 }
4733 { 4733 {
4734 object Level = arg2; 4734 object Level = arg2;
4735 object HasBreakableBlock = arg3; 4735 object HasBreakableBlock = arg3;
4736 Variable RestStatements = new Variable(); 4736 Variable RestStatements = new Variable();
4737 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returnfalse"), RestStatements))) 4737 foreach (bool l2 in YP.unify(arg1, new ListPair(Atom.a(@"returnfalse"), RestStatements)))
4738 { 4738 {
4739 convertIndentationPython(Level); 4739 convertIndentationPython(Level);
4740 YP.write(Atom.a(@"return False")); 4740 YP.write(Atom.a(@"return False"));
4741 YP.nl(); 4741 YP.nl();
4742 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4742 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4743 { 4743 {
4744 yield return true; 4744 yield return true;
4745 yield break; 4745 yield break;
4746 } 4746 }
4747 } 4747 }
4748 } 4748 }
4749 { 4749 {
4750 object Level = arg2; 4750 object Level = arg2;
4751 object HasBreakableBlock = arg3; 4751 object HasBreakableBlock = arg3;
4752 Variable Name = new Variable(); 4752 Variable Name = new Variable();
4753 Variable RestStatements = new Variable(); 4753 Variable RestStatements = new Variable();
4754 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"breakBlock", Name), RestStatements))) 4754 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"breakBlock", Name), RestStatements)))
4755 { 4755 {
4756 convertIndentationPython(Level); 4756 convertIndentationPython(Level);
4757 YP.write(Name); 4757 YP.write(Name);
4758 YP.write(Atom.a(@" = True")); 4758 YP.write(Atom.a(@" = True"));
4759 YP.nl(); 4759 YP.nl();
4760 convertIndentationPython(Level); 4760 convertIndentationPython(Level);
4761 YP.write(Atom.a(@"doBreak = True")); 4761 YP.write(Atom.a(@"doBreak = True"));
4762 YP.nl(); 4762 YP.nl();
4763 convertIndentationPython(Level); 4763 convertIndentationPython(Level);
4764 YP.write(Atom.a(@"break")); 4764 YP.write(Atom.a(@"break"));
4765 YP.nl(); 4765 YP.nl();
4766 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4766 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4767 { 4767 {
4768 yield return true; 4768 yield return true;
4769 yield break; 4769 yield break;
4770 } 4770 }
4771 } 4771 }
4772 } 4772 }
4773 { 4773 {
4774 object Level = arg2; 4774 object Level = arg2;
4775 object HasBreakableBlock = arg3; 4775 object HasBreakableBlock = arg3;
4776 Variable Name = new Variable(); 4776 Variable Name = new Variable();
4777 Variable ArgList = new Variable(); 4777 Variable ArgList = new Variable();
4778 Variable RestStatements = new Variable(); 4778 Variable RestStatements = new Variable();
4779 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"call", Name, ArgList), RestStatements))) 4779 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"call", Name, ArgList), RestStatements)))
4780 { 4780 {
4781 convertIndentationPython(Level); 4781 convertIndentationPython(Level);
4782 YP.write(Name); 4782 YP.write(Name);
4783 YP.write(Atom.a(@"(")); 4783 YP.write(Atom.a(@"("));
4784 convertArgListPython(ArgList); 4784 convertArgListPython(ArgList);
4785 YP.write(Atom.a(@")")); 4785 YP.write(Atom.a(@")"));
4786 YP.nl(); 4786 YP.nl();
4787 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4787 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4788 { 4788 {
4789 yield return true; 4789 yield return true;
4790 yield break; 4790 yield break;
4791 } 4791 }
4792 } 4792 }
4793 } 4793 }
4794 { 4794 {
4795 object Level = arg2; 4795 object Level = arg2;
4796 object HasBreakableBlock = arg3; 4796 object HasBreakableBlock = arg3;
4797 Variable Obj = new Variable(); 4797 Variable Obj = new Variable();
4798 Variable Name = new Variable(); 4798 Variable Name = new Variable();
4799 Variable ArgList = new Variable(); 4799 Variable ArgList = new Variable();
4800 Variable RestStatements = new Variable(); 4800 Variable RestStatements = new Variable();
4801 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList), RestStatements))) 4801 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList), RestStatements)))
4802 { 4802 {
4803 convertIndentationPython(Level); 4803 convertIndentationPython(Level);
4804 YP.write(Obj); 4804 YP.write(Obj);
4805 YP.write(Atom.a(@".")); 4805 YP.write(Atom.a(@"."));
4806 YP.write(Name); 4806 YP.write(Name);
4807 YP.write(Atom.a(@"(")); 4807 YP.write(Atom.a(@"("));
4808 convertArgListPython(ArgList); 4808 convertArgListPython(ArgList);
4809 YP.write(Atom.a(@")")); 4809 YP.write(Atom.a(@")"));
4810 YP.nl(); 4810 YP.nl();
4811 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4811 foreach (bool l3 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4812 { 4812 {
4813 yield return true; 4813 yield return true;
4814 yield break; 4814 yield break;
4815 } 4815 }
4816 } 4816 }
4817 } 4817 }
4818 { 4818 {
4819 object Level = arg2; 4819 object Level = arg2;
4820 object HasBreakableBlock = arg3; 4820 object HasBreakableBlock = arg3;
4821 Variable Body = new Variable(); 4821 Variable Body = new Variable();
4822 Variable RestStatements = new Variable(); 4822 Variable RestStatements = new Variable();
4823 Variable NextLevel = new Variable(); 4823 Variable NextLevel = new Variable();
4824 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"blockScope", Body), RestStatements))) 4824 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor1(@"blockScope", Body), RestStatements)))
4825 { 4825 {
4826 if (YP.termEqual(HasBreakableBlock, 1)) 4826 if (YP.termEqual(HasBreakableBlock, 1))
4827 { 4827 {
4828 convertIndentationPython(Level); 4828 convertIndentationPython(Level);
4829 YP.write(Atom.a(@"for _ in [1]:")); 4829 YP.write(Atom.a(@"for _ in [1]:"));
4830 YP.nl(); 4830 YP.nl();
4831 foreach (bool l4 in YP.unify(NextLevel, YP.add(Level, 1))) 4831 foreach (bool l4 in YP.unify(NextLevel, YP.add(Level, 1)))
4832 { 4832 {
4833 foreach (bool l5 in convertStatementListPython(Body, NextLevel, HasBreakableBlock)) 4833 foreach (bool l5 in convertStatementListPython(Body, NextLevel, HasBreakableBlock))
4834 { 4834 {
4835 if (YP.termEqual(HasBreakableBlock, 1)) 4835 if (YP.termEqual(HasBreakableBlock, 1))
4836 { 4836 {
4837 if (YP.greaterThan(Level, 1)) 4837 if (YP.greaterThan(Level, 1))
4838 { 4838 {
4839 convertIndentationPython(Level); 4839 convertIndentationPython(Level);
4840 YP.write(Atom.a(@"if doBreak:")); 4840 YP.write(Atom.a(@"if doBreak:"));
4841 YP.nl(); 4841 YP.nl();
4842 convertIndentationPython(NextLevel); 4842 convertIndentationPython(NextLevel);
4843 YP.write(Atom.a(@"break")); 4843 YP.write(Atom.a(@"break"));
4844 YP.nl(); 4844 YP.nl();
4845 foreach (bool l8 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4845 foreach (bool l8 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4846 { 4846 {
4847 yield return true; 4847 yield return true;
4848 yield break; 4848 yield break;
4849 } 4849 }
4850 goto cutIf3; 4850 goto cutIf3;
4851 } 4851 }
4852 foreach (bool l7 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4852 foreach (bool l7 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4853 { 4853 {
4854 yield return true; 4854 yield return true;
4855 yield break; 4855 yield break;
4856 } 4856 }
4857 cutIf3: 4857 cutIf3:
4858 goto cutIf2; 4858 goto cutIf2;
4859 } 4859 }
4860 foreach (bool l6 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4860 foreach (bool l6 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4861 { 4861 {
4862 yield return true; 4862 yield return true;
4863 yield break; 4863 yield break;
4864 } 4864 }
4865 cutIf2: 4865 cutIf2:
4866 { } 4866 { }
4867 } 4867 }
4868 } 4868 }
4869 goto cutIf1; 4869 goto cutIf1;
4870 } 4870 }
4871 foreach (bool l3 in YP.unify(NextLevel, Level)) 4871 foreach (bool l3 in YP.unify(NextLevel, Level))
4872 { 4872 {
4873 foreach (bool l4 in convertStatementListPython(Body, NextLevel, HasBreakableBlock)) 4873 foreach (bool l4 in convertStatementListPython(Body, NextLevel, HasBreakableBlock))
4874 { 4874 {
4875 if (YP.termEqual(HasBreakableBlock, 1)) 4875 if (YP.termEqual(HasBreakableBlock, 1))
4876 { 4876 {
4877 if (YP.greaterThan(Level, 1)) 4877 if (YP.greaterThan(Level, 1))
4878 { 4878 {
4879 convertIndentationPython(Level); 4879 convertIndentationPython(Level);
4880 YP.write(Atom.a(@"if doBreak:")); 4880 YP.write(Atom.a(@"if doBreak:"));
4881 YP.nl(); 4881 YP.nl();
4882 convertIndentationPython(NextLevel); 4882 convertIndentationPython(NextLevel);
4883 YP.write(Atom.a(@"break")); 4883 YP.write(Atom.a(@"break"));
4884 YP.nl(); 4884 YP.nl();
4885 foreach (bool l7 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4885 foreach (bool l7 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4886 { 4886 {
4887 yield return true; 4887 yield return true;
4888 yield break; 4888 yield break;
4889 } 4889 }
4890 goto cutIf5; 4890 goto cutIf5;
4891 } 4891 }
4892 foreach (bool l6 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4892 foreach (bool l6 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4893 { 4893 {
4894 yield return true; 4894 yield return true;
4895 yield break; 4895 yield break;
4896 } 4896 }
4897 cutIf5: 4897 cutIf5:
4898 goto cutIf4; 4898 goto cutIf4;
4899 } 4899 }
4900 foreach (bool l5 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4900 foreach (bool l5 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4901 { 4901 {
4902 yield return true; 4902 yield return true;
4903 yield break; 4903 yield break;
4904 } 4904 }
4905 cutIf4: 4905 cutIf4:
4906 { } 4906 { }
4907 } 4907 }
4908 } 4908 }
4909 cutIf1: 4909 cutIf1:
4910 { } 4910 { }
4911 } 4911 }
4912 } 4912 }
4913 { 4913 {
4914 object Level = arg2; 4914 object Level = arg2;
4915 object HasBreakableBlock = arg3; 4915 object HasBreakableBlock = arg3;
4916 Variable Expression = new Variable(); 4916 Variable Expression = new Variable();
4917 Variable Body = new Variable(); 4917 Variable Body = new Variable();
4918 Variable RestStatements = new Variable(); 4918 Variable RestStatements = new Variable();
4919 Variable NextLevel = new Variable(); 4919 Variable NextLevel = new Variable();
4920 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"if", Expression, Body), RestStatements))) 4920 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"if", Expression, Body), RestStatements)))
4921 { 4921 {
4922 convertIndentationPython(Level); 4922 convertIndentationPython(Level);
4923 YP.write(Atom.a(@"if ")); 4923 YP.write(Atom.a(@"if "));
4924 convertExpressionPython(Expression); 4924 convertExpressionPython(Expression);
4925 YP.write(Atom.a(@":")); 4925 YP.write(Atom.a(@":"));
4926 YP.nl(); 4926 YP.nl();
4927 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 4927 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
4928 { 4928 {
4929 foreach (bool l4 in convertStatementListPython(Body, NextLevel, HasBreakableBlock)) 4929 foreach (bool l4 in convertStatementListPython(Body, NextLevel, HasBreakableBlock))
4930 { 4930 {
4931 foreach (bool l5 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4931 foreach (bool l5 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4932 { 4932 {
4933 yield return true; 4933 yield return true;
4934 yield break; 4934 yield break;
4935 } 4935 }
4936 } 4936 }
4937 } 4937 }
4938 } 4938 }
4939 } 4939 }
4940 { 4940 {
4941 object Level = arg2; 4941 object Level = arg2;
4942 object HasBreakableBlock = arg3; 4942 object HasBreakableBlock = arg3;
4943 Variable Expression = new Variable(); 4943 Variable Expression = new Variable();
4944 Variable Body = new Variable(); 4944 Variable Body = new Variable();
4945 Variable RestStatements = new Variable(); 4945 Variable RestStatements = new Variable();
4946 Variable NextLevel = new Variable(); 4946 Variable NextLevel = new Variable();
4947 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"foreach", Expression, Body), RestStatements))) 4947 foreach (bool l2 in YP.unify(arg1, new ListPair(new Functor2(@"foreach", Expression, Body), RestStatements)))
4948 { 4948 {
4949 convertIndentationPython(Level); 4949 convertIndentationPython(Level);
4950 YP.write(Atom.a(@"for l")); 4950 YP.write(Atom.a(@"for l"));
4951 YP.write(Level); 4951 YP.write(Level);
4952 YP.write(Atom.a(@" in ")); 4952 YP.write(Atom.a(@" in "));
4953 convertExpressionPython(Expression); 4953 convertExpressionPython(Expression);
4954 YP.write(Atom.a(@":")); 4954 YP.write(Atom.a(@":"));
4955 YP.nl(); 4955 YP.nl();
4956 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1))) 4956 foreach (bool l3 in YP.unify(NextLevel, YP.add(Level, 1)))
4957 { 4957 {
4958 foreach (bool l4 in convertStatementListPython(Body, NextLevel, HasBreakableBlock)) 4958 foreach (bool l4 in convertStatementListPython(Body, NextLevel, HasBreakableBlock))
4959 { 4959 {
4960 if (YP.termEqual(HasBreakableBlock, 1)) 4960 if (YP.termEqual(HasBreakableBlock, 1))
4961 { 4961 {
4962 convertIndentationPython(Level); 4962 convertIndentationPython(Level);
4963 YP.write(Atom.a(@"if doBreak:")); 4963 YP.write(Atom.a(@"if doBreak:"));
4964 YP.nl(); 4964 YP.nl();
4965 convertIndentationPython(NextLevel); 4965 convertIndentationPython(NextLevel);
4966 YP.write(Atom.a(@"break")); 4966 YP.write(Atom.a(@"break"));
4967 YP.nl(); 4967 YP.nl();
4968 foreach (bool l6 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4968 foreach (bool l6 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4969 { 4969 {
4970 yield return true; 4970 yield return true;
4971 yield break; 4971 yield break;
4972 } 4972 }
4973 goto cutIf6; 4973 goto cutIf6;
4974 } 4974 }
4975 foreach (bool l5 in convertStatementListPython(RestStatements, Level, HasBreakableBlock)) 4975 foreach (bool l5 in convertStatementListPython(RestStatements, Level, HasBreakableBlock))
4976 { 4976 {
4977 yield return true; 4977 yield return true;
4978 yield break; 4978 yield break;
4979 } 4979 }
4980 cutIf6: 4980 cutIf6:
4981 { } 4981 { }
4982 } 4982 }
4983 } 4983 }
4984 } 4984 }
4985 } 4985 }
4986 } 4986 }
4987 4987
4988 public static void convertIndentationPython(object Level) 4988 public static void convertIndentationPython(object Level)
4989 { 4989 {
4990 { 4990 {
4991 Variable N = new Variable(); 4991 Variable N = new Variable();
4992 foreach (bool l2 in YP.unify(N, YP.multiply(Level, 2))) 4992 foreach (bool l2 in YP.unify(N, YP.multiply(Level, 2)))
4993 { 4993 {
4994 repeatWrite(Atom.a(@" "), N); 4994 repeatWrite(Atom.a(@" "), N);
4995 return; 4995 return;
4996 } 4996 }
4997 } 4997 }
4998 } 4998 }
4999 4999
5000 public static void convertArgListPython(object arg1) 5000 public static void convertArgListPython(object arg1)
5001 { 5001 {
5002 { 5002 {
5003 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 5003 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
5004 { 5004 {
5005 return; 5005 return;
5006 } 5006 }
5007 } 5007 }
5008 { 5008 {
5009 Variable Head = new Variable(); 5009 Variable Head = new Variable();
5010 Variable Tail = new Variable(); 5010 Variable Tail = new Variable();
5011 foreach (bool l2 in YP.unify(arg1, new ListPair(Head, Tail))) 5011 foreach (bool l2 in YP.unify(arg1, new ListPair(Head, Tail)))
5012 { 5012 {
5013 convertExpressionPython(Head); 5013 convertExpressionPython(Head);
5014 if (YP.termNotEqual(Tail, Atom.NIL)) 5014 if (YP.termNotEqual(Tail, Atom.NIL))
5015 { 5015 {
5016 YP.write(Atom.a(@", ")); 5016 YP.write(Atom.a(@", "));
5017 convertArgListPython(Tail); 5017 convertArgListPython(Tail);
5018 return; 5018 return;
5019 goto cutIf1; 5019 goto cutIf1;
5020 } 5020 }
5021 convertArgListPython(Tail); 5021 convertArgListPython(Tail);
5022 return; 5022 return;
5023 cutIf1: 5023 cutIf1:
5024 { } 5024 { }
5025 } 5025 }
5026 } 5026 }
5027 } 5027 }
5028 5028
5029 public static void convertExpressionPython(object arg1) 5029 public static void convertExpressionPython(object arg1)
5030 { 5030 {
5031 { 5031 {
5032 Variable X = new Variable(); 5032 Variable X = new Variable();
5033 foreach (bool l2 in YP.unify(arg1, new Functor1(@"arg", X))) 5033 foreach (bool l2 in YP.unify(arg1, new Functor1(@"arg", X)))
5034 { 5034 {
5035 YP.write(X); 5035 YP.write(X);
5036 return; 5036 return;
5037 } 5037 }
5038 } 5038 }
5039 { 5039 {
5040 Variable Name = new Variable(); 5040 Variable Name = new Variable();
5041 Variable ArgList = new Variable(); 5041 Variable ArgList = new Variable();
5042 foreach (bool l2 in YP.unify(arg1, new Functor2(@"call", Name, ArgList))) 5042 foreach (bool l2 in YP.unify(arg1, new Functor2(@"call", Name, ArgList)))
5043 { 5043 {
5044 YP.write(Name); 5044 YP.write(Name);
5045 YP.write(Atom.a(@"(")); 5045 YP.write(Atom.a(@"("));
5046 convertArgListPython(ArgList); 5046 convertArgListPython(ArgList);
5047 YP.write(Atom.a(@")")); 5047 YP.write(Atom.a(@")"));
5048 return; 5048 return;
5049 } 5049 }
5050 } 5050 }
5051 { 5051 {
5052 Variable Obj = new Variable(); 5052 Variable Obj = new Variable();
5053 Variable Name = new Variable(); 5053 Variable Name = new Variable();
5054 Variable ArgList = new Variable(); 5054 Variable ArgList = new Variable();
5055 foreach (bool l2 in YP.unify(arg1, new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList))) 5055 foreach (bool l2 in YP.unify(arg1, new Functor3(@"callMember", new Functor1(@"var", Obj), Name, ArgList)))
5056 { 5056 {
5057 YP.write(Obj); 5057 YP.write(Obj);
5058 YP.write(Atom.a(@".")); 5058 YP.write(Atom.a(@"."));
5059 YP.write(Name); 5059 YP.write(Name);
5060 YP.write(Atom.a(@"(")); 5060 YP.write(Atom.a(@"("));
5061 convertArgListPython(ArgList); 5061 convertArgListPython(ArgList);
5062 YP.write(Atom.a(@")")); 5062 YP.write(Atom.a(@")"));
5063 return; 5063 return;
5064 } 5064 }
5065 } 5065 }
5066 { 5066 {
5067 Variable Name = new Variable(); 5067 Variable Name = new Variable();
5068 Variable ArgList = new Variable(); 5068 Variable ArgList = new Variable();
5069 foreach (bool l2 in YP.unify(arg1, new Functor2(@"new", Name, ArgList))) 5069 foreach (bool l2 in YP.unify(arg1, new Functor2(@"new", Name, ArgList)))
5070 { 5070 {
5071 YP.write(Name); 5071 YP.write(Name);
5072 YP.write(Atom.a(@"(")); 5072 YP.write(Atom.a(@"("));
5073 convertArgListPython(ArgList); 5073 convertArgListPython(ArgList);
5074 YP.write(Atom.a(@")")); 5074 YP.write(Atom.a(@")"));
5075 return; 5075 return;
5076 } 5076 }
5077 } 5077 }
5078 { 5078 {
5079 Variable Name = new Variable(); 5079 Variable Name = new Variable();
5080 foreach (bool l2 in YP.unify(arg1, new Functor1(@"var", Name))) 5080 foreach (bool l2 in YP.unify(arg1, new Functor1(@"var", Name)))
5081 { 5081 {
5082 YP.write(Name); 5082 YP.write(Name);
5083 return; 5083 return;
5084 } 5084 }
5085 } 5085 }
5086 { 5086 {
5087 foreach (bool l2 in YP.unify(arg1, Atom.a(@"null"))) 5087 foreach (bool l2 in YP.unify(arg1, Atom.a(@"null")))
5088 { 5088 {
5089 YP.write(Atom.a(@"None")); 5089 YP.write(Atom.a(@"None"));
5090 return; 5090 return;
5091 } 5091 }
5092 } 5092 }
5093 { 5093 {
5094 Variable X = new Variable(); 5094 Variable X = new Variable();
5095 foreach (bool l2 in YP.unify(arg1, new Functor1(@"not", X))) 5095 foreach (bool l2 in YP.unify(arg1, new Functor1(@"not", X)))
5096 { 5096 {
5097 YP.write(Atom.a(@"not (")); 5097 YP.write(Atom.a(@"not ("));
5098 convertExpressionPython(X); 5098 convertExpressionPython(X);
5099 YP.write(Atom.a(@")")); 5099 YP.write(Atom.a(@")"));
5100 return; 5100 return;
5101 } 5101 }
5102 } 5102 }
5103 { 5103 {
5104 Variable X = new Variable(); 5104 Variable X = new Variable();
5105 Variable Y = new Variable(); 5105 Variable Y = new Variable();
5106 foreach (bool l2 in YP.unify(arg1, new Functor2(@"and", X, Y))) 5106 foreach (bool l2 in YP.unify(arg1, new Functor2(@"and", X, Y)))
5107 { 5107 {
5108 YP.write(Atom.a(@"(")); 5108 YP.write(Atom.a(@"("));
5109 convertExpressionPython(X); 5109 convertExpressionPython(X);
5110 YP.write(Atom.a(@") and (")); 5110 YP.write(Atom.a(@") and ("));
5111 convertExpressionPython(Y); 5111 convertExpressionPython(Y);
5112 YP.write(Atom.a(@")")); 5112 YP.write(Atom.a(@")"));
5113 return; 5113 return;
5114 } 5114 }
5115 } 5115 }
5116 { 5116 {
5117 Variable ArgList = new Variable(); 5117 Variable ArgList = new Variable();
5118 foreach (bool l2 in YP.unify(arg1, new Functor1(@"objectArray", ArgList))) 5118 foreach (bool l2 in YP.unify(arg1, new Functor1(@"objectArray", ArgList)))
5119 { 5119 {
5120 YP.write(Atom.a(@"[")); 5120 YP.write(Atom.a(@"["));
5121 convertArgListPython(ArgList); 5121 convertArgListPython(ArgList);
5122 YP.write(Atom.a(@"]")); 5122 YP.write(Atom.a(@"]"));
5123 return; 5123 return;
5124 } 5124 }
5125 } 5125 }
5126 { 5126 {
5127 Variable X = new Variable(); 5127 Variable X = new Variable();
5128 Variable Codes = new Variable(); 5128 Variable Codes = new Variable();
5129 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X))) 5129 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X)))
5130 { 5130 {
5131 if (YP.atom(X)) 5131 if (YP.atom(X))
5132 { 5132 {
5133 YP.write(Atom.a(@"""")); 5133 YP.write(Atom.a(@""""));
5134 foreach (bool l4 in YP.atom_codes(X, Codes)) 5134 foreach (bool l4 in YP.atom_codes(X, Codes))
5135 { 5135 {
5136 convertStringCodesPython(Codes); 5136 convertStringCodesPython(Codes);
5137 YP.write(Atom.a(@"""")); 5137 YP.write(Atom.a(@""""));
5138 return; 5138 return;
5139 } 5139 }
5140 } 5140 }
5141 } 5141 }
5142 } 5142 }
5143 { 5143 {
5144 Variable X = new Variable(); 5144 Variable X = new Variable();
5145 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X))) 5145 foreach (bool l2 in YP.unify(arg1, new Functor1(@"object", X)))
5146 { 5146 {
5147 YP.write(X); 5147 YP.write(X);
5148 return; 5148 return;
5149 } 5149 }
5150 } 5150 }
5151 } 5151 }
5152 5152
5153 public static void convertStringCodesPython(object arg1) 5153 public static void convertStringCodesPython(object arg1)
5154 { 5154 {
5155 { 5155 {
5156 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 5156 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
5157 { 5157 {
5158 return; 5158 return;
5159 } 5159 }
5160 } 5160 }
5161 { 5161 {
5162 Variable Code = new Variable(); 5162 Variable Code = new Variable();
5163 Variable RestCodes = new Variable(); 5163 Variable RestCodes = new Variable();
5164 foreach (bool l2 in YP.unify(arg1, new ListPair(Code, RestCodes))) 5164 foreach (bool l2 in YP.unify(arg1, new ListPair(Code, RestCodes)))
5165 { 5165 {
5166 if (YP.termEqual(Code, 34)) 5166 if (YP.termEqual(Code, 34))
5167 { 5167 {
5168 YP.put_code(92); 5168 YP.put_code(92);
5169 YP.put_code(Code); 5169 YP.put_code(Code);
5170 convertStringCodesPython(RestCodes); 5170 convertStringCodesPython(RestCodes);
5171 return; 5171 return;
5172 goto cutIf1; 5172 goto cutIf1;
5173 } 5173 }
5174 if (YP.termEqual(Code, 92)) 5174 if (YP.termEqual(Code, 92))
5175 { 5175 {
5176 YP.put_code(92); 5176 YP.put_code(92);
5177 YP.put_code(Code); 5177 YP.put_code(Code);
5178 convertStringCodesPython(RestCodes); 5178 convertStringCodesPython(RestCodes);
5179 return; 5179 return;
5180 goto cutIf1; 5180 goto cutIf1;
5181 } 5181 }
5182 YP.put_code(Code); 5182 YP.put_code(Code);
5183 convertStringCodesPython(RestCodes); 5183 convertStringCodesPython(RestCodes);
5184 return; 5184 return;
5185 cutIf1: 5185 cutIf1:
5186 { } 5186 { }
5187 } 5187 }
5188 } 5188 }
5189 } 5189 }
5190 5190
5191 public static IEnumerable<bool> member(object X, object arg2) 5191 public static IEnumerable<bool> member(object X, object arg2)
5192 { 5192 {
5193 { 5193 {
5194 Variable x2 = new Variable(); 5194 Variable x2 = new Variable();
5195 foreach (bool l2 in YP.unify(arg2, new ListPair(X, x2))) 5195 foreach (bool l2 in YP.unify(arg2, new ListPair(X, x2)))
5196 { 5196 {
5197 yield return false; 5197 yield return false;
5198 } 5198 }
5199 } 5199 }
5200 { 5200 {
5201 Variable x2 = new Variable(); 5201 Variable x2 = new Variable();
5202 Variable Rest = new Variable(); 5202 Variable Rest = new Variable();
5203 foreach (bool l2 in YP.unify(arg2, new ListPair(x2, Rest))) 5203 foreach (bool l2 in YP.unify(arg2, new ListPair(x2, Rest)))
5204 { 5204 {
5205 foreach (bool l3 in member(X, Rest)) 5205 foreach (bool l3 in member(X, Rest))
5206 { 5206 {
5207 yield return false; 5207 yield return false;
5208 } 5208 }
5209 } 5209 }
5210 } 5210 }
5211 } 5211 }
5212 5212
5213 public static IEnumerable<bool> append(object arg1, object arg2, object arg3) 5213 public static IEnumerable<bool> append(object arg1, object arg2, object arg3)
5214 { 5214 {
5215 { 5215 {
5216 Variable List = new Variable(); 5216 Variable List = new Variable();
5217 foreach (bool l2 in YP.unify(arg1, Atom.NIL)) 5217 foreach (bool l2 in YP.unify(arg1, Atom.NIL))
5218 { 5218 {
5219 foreach (bool l3 in YP.unify(arg2, List)) 5219 foreach (bool l3 in YP.unify(arg2, List))
5220 { 5220 {
5221 foreach (bool l4 in YP.unify(arg3, List)) 5221 foreach (bool l4 in YP.unify(arg3, List))
5222 { 5222 {
5223 yield return false; 5223 yield return false;
5224 } 5224 }
5225 } 5225 }
5226 } 5226 }
5227 } 5227 }
5228 { 5228 {
5229 object List2 = arg2; 5229 object List2 = arg2;
5230 Variable X = new Variable(); 5230 Variable X = new Variable();
5231 Variable List1 = new Variable(); 5231 Variable List1 = new Variable();
5232 Variable List12 = new Variable(); 5232 Variable List12 = new Variable();
5233 foreach (bool l2 in YP.unify(arg1, new ListPair(X, List1))) 5233 foreach (bool l2 in YP.unify(arg1, new ListPair(X, List1)))
5234 { 5234 {
5235 foreach (bool l3 in YP.unify(arg3, new ListPair(X, List12))) 5235 foreach (bool l3 in YP.unify(arg3, new ListPair(X, List12)))
5236 { 5236 {
5237 foreach (bool l4 in append(List1, List2, List12)) 5237 foreach (bool l4 in append(List1, List2, List12))
5238 { 5238 {
5239 yield return false; 5239 yield return false;
5240 } 5240 }
5241 } 5241 }
5242 } 5242 }
5243 } 5243 }
5244 } 5244 }
5245 5245
5246 } 5246 }
5247} 5247}
diff --git a/doc/doxygen.conf b/doc/doxygen.conf
index 1ee1c05..3712dfa 100644
--- a/doc/doxygen.conf
+++ b/doc/doxygen.conf
@@ -1,1356 +1,1356 @@
1# Doxyfile 1.5.5 1# Doxyfile 1.5.5
2 2
3# This file describes the settings to be used by the documentation system 3# This file describes the settings to be used by the documentation system
4# doxygen (www.doxygen.org) for a project 4# doxygen (www.doxygen.org) for a project
5# 5#
6# All text after a hash (#) is considered a comment and will be ignored 6# All text after a hash (#) is considered a comment and will be ignored
7# The format is: 7# The format is:
8# TAG = value [value, ...] 8# TAG = value [value, ...]
9# For lists items can also be appended using: 9# For lists items can also be appended using:
10# TAG += value [value, ...] 10# TAG += value [value, ...]
11# Values that contain spaces should be placed between quotes (" ") 11# Values that contain spaces should be placed between quotes (" ")
12 12
13#--------------------------------------------------------------------------- 13#---------------------------------------------------------------------------
14# Project related configuration options 14# Project related configuration options
15#--------------------------------------------------------------------------- 15#---------------------------------------------------------------------------
16 16
17# This tag specifies the encoding used for all characters in the config file 17# This tag specifies the encoding used for all characters in the config file
18# that follow. The default is UTF-8 which is also the encoding used for all 18# that follow. The default is UTF-8 which is also the encoding used for all
19# text before the first occurrence of this tag. Doxygen uses libiconv (or the 19# text before the first occurrence of this tag. Doxygen uses libiconv (or the
20# iconv built into libc) for the transcoding. See 20# iconv built into libc) for the transcoding. See
21# http://www.gnu.org/software/libiconv for the list of possible encodings. 21# http://www.gnu.org/software/libiconv for the list of possible encodings.
22 22
23DOXYFILE_ENCODING = UTF-8 23DOXYFILE_ENCODING = UTF-8
24 24
25# The PROJECT_NAME tag is a single word (or a sequence of words surrounded 25# The PROJECT_NAME tag is a single word (or a sequence of words surrounded
26# by quotes) that should identify the project. 26# by quotes) that should identify the project.
27 27
28PROJECT_NAME = OpenSim 28PROJECT_NAME = OpenSim
29 29
30# The PROJECT_NUMBER tag can be used to enter a project or revision number. 30# The PROJECT_NUMBER tag can be used to enter a project or revision number.
31# This could be handy for archiving the generated documentation or 31# This could be handy for archiving the generated documentation or
32# if some version control system is used. 32# if some version control system is used.
33 33
34PROJECT_NUMBER = SVN 34PROJECT_NUMBER = SVN
35 35
36# The OUTPUT_DIRECTORY tag is used to specify the (relative or absolute) 36# The OUTPUT_DIRECTORY tag is used to specify the (relative or absolute)
37# base path where the generated documentation will be put. 37# base path where the generated documentation will be put.
38# If a relative path is entered, it will be relative to the location 38# If a relative path is entered, it will be relative to the location
39# where doxygen was started. If left blank the current directory will be used. 39# where doxygen was started. If left blank the current directory will be used.
40 40
41OUTPUT_DIRECTORY = 41OUTPUT_DIRECTORY =
42 42
43# If the CREATE_SUBDIRS tag is set to YES, then doxygen will create 43# If the CREATE_SUBDIRS tag is set to YES, then doxygen will create
44# 4096 sub-directories (in 2 levels) under the output directory of each output 44# 4096 sub-directories (in 2 levels) under the output directory of each output
45# format and will distribute the generated files over these directories. 45# format and will distribute the generated files over these directories.
46# Enabling this option can be useful when feeding doxygen a huge amount of 46# Enabling this option can be useful when feeding doxygen a huge amount of
47# source files, where putting all generated files in the same directory would 47# source files, where putting all generated files in the same directory would
48# otherwise cause performance problems for the file system. 48# otherwise cause performance problems for the file system.
49 49
50CREATE_SUBDIRS = NO 50CREATE_SUBDIRS = NO
51 51
52# The OUTPUT_LANGUAGE tag is used to specify the language in which all 52# The OUTPUT_LANGUAGE tag is used to specify the language in which all
53# documentation generated by doxygen is written. Doxygen will use this 53# documentation generated by doxygen is written. Doxygen will use this
54# information to generate all constant output in the proper language. 54# information to generate all constant output in the proper language.
55# The default language is English, other supported languages are: 55# The default language is English, other supported languages are:
56# Afrikaans, Arabic, Brazilian, Catalan, Chinese, Chinese-Traditional, 56# Afrikaans, Arabic, Brazilian, Catalan, Chinese, Chinese-Traditional,
57# Croatian, Czech, Danish, Dutch, Farsi, Finnish, French, German, Greek, 57# Croatian, Czech, Danish, Dutch, Farsi, Finnish, French, German, Greek,
58# Hungarian, Italian, Japanese, Japanese-en (Japanese with English messages), 58# Hungarian, Italian, Japanese, Japanese-en (Japanese with English messages),
59# Korean, Korean-en, Lithuanian, Norwegian, Macedonian, Persian, Polish, 59# Korean, Korean-en, Lithuanian, Norwegian, Macedonian, Persian, Polish,
60# Portuguese, Romanian, Russian, Serbian, Slovak, Slovene, Spanish, Swedish, 60# Portuguese, Romanian, Russian, Serbian, Slovak, Slovene, Spanish, Swedish,
61# and Ukrainian. 61# and Ukrainian.
62 62
63OUTPUT_LANGUAGE = English 63OUTPUT_LANGUAGE = English
64 64
65# If the BRIEF_MEMBER_DESC tag is set to YES (the default) Doxygen will 65# If the BRIEF_MEMBER_DESC tag is set to YES (the default) Doxygen will
66# include brief member descriptions after the members that are listed in 66# include brief member descriptions after the members that are listed in
67# the file and class documentation (similar to JavaDoc). 67# the file and class documentation (similar to JavaDoc).
68# Set to NO to disable this. 68# Set to NO to disable this.
69 69
70BRIEF_MEMBER_DESC = YES 70BRIEF_MEMBER_DESC = YES
71 71
72# If the REPEAT_BRIEF tag is set to YES (the default) Doxygen will prepend 72# If the REPEAT_BRIEF tag is set to YES (the default) Doxygen will prepend
73# the brief description of a member or function before the detailed description. 73# the brief description of a member or function before the detailed description.
74# Note: if both HIDE_UNDOC_MEMBERS and BRIEF_MEMBER_DESC are set to NO, the 74# Note: if both HIDE_UNDOC_MEMBERS and BRIEF_MEMBER_DESC are set to NO, the
75# brief descriptions will be completely suppressed. 75# brief descriptions will be completely suppressed.
76 76
77REPEAT_BRIEF = YES 77REPEAT_BRIEF = YES
78 78
79# This tag implements a quasi-intelligent brief description abbreviator 79# This tag implements a quasi-intelligent brief description abbreviator
80# that is used to form the text in various listings. Each string 80# that is used to form the text in various listings. Each string
81# in this list, if found as the leading text of the brief description, will be 81# in this list, if found as the leading text of the brief description, will be
82# stripped from the text and the result after processing the whole list, is 82# stripped from the text and the result after processing the whole list, is
83# used as the annotated text. Otherwise, the brief description is used as-is. 83# used as the annotated text. Otherwise, the brief description is used as-is.
84# If left blank, the following values are used ("$name" is automatically 84# If left blank, the following values are used ("$name" is automatically
85# replaced with the name of the entity): "The $name class" "The $name widget" 85# replaced with the name of the entity): "The $name class" "The $name widget"
86# "The $name file" "is" "provides" "specifies" "contains" 86# "The $name file" "is" "provides" "specifies" "contains"
87# "represents" "a" "an" "the" 87# "represents" "a" "an" "the"
88 88
89ABBREVIATE_BRIEF = 89ABBREVIATE_BRIEF =
90 90
91# If the ALWAYS_DETAILED_SEC and REPEAT_BRIEF tags are both set to YES then 91# If the ALWAYS_DETAILED_SEC and REPEAT_BRIEF tags are both set to YES then
92# Doxygen will generate a detailed section even if there is only a brief 92# Doxygen will generate a detailed section even if there is only a brief
93# description. 93# description.
94 94
95ALWAYS_DETAILED_SEC = NO 95ALWAYS_DETAILED_SEC = NO
96 96
97# If the INLINE_INHERITED_MEMB tag is set to YES, doxygen will show all 97# If the INLINE_INHERITED_MEMB tag is set to YES, doxygen will show all
98# inherited members of a class in the documentation of that class as if those 98# inherited members of a class in the documentation of that class as if those
99# members were ordinary class members. Constructors, destructors and assignment 99# members were ordinary class members. Constructors, destructors and assignment
100# operators of the base classes will not be shown. 100# operators of the base classes will not be shown.
101 101
102INLINE_INHERITED_MEMB = NO 102INLINE_INHERITED_MEMB = NO
103 103
104# If the FULL_PATH_NAMES tag is set to YES then Doxygen will prepend the full 104# If the FULL_PATH_NAMES tag is set to YES then Doxygen will prepend the full
105# path before files name in the file list and in the header files. If set 105# path before files name in the file list and in the header files. If set
106# to NO the shortest path that makes the file name unique will be used. 106# to NO the shortest path that makes the file name unique will be used.
107 107
108FULL_PATH_NAMES = YES 108FULL_PATH_NAMES = YES
109 109
110# If the FULL_PATH_NAMES tag is set to YES then the STRIP_FROM_PATH tag 110# If the FULL_PATH_NAMES tag is set to YES then the STRIP_FROM_PATH tag
111# can be used to strip a user-defined part of the path. Stripping is 111# can be used to strip a user-defined part of the path. Stripping is
112# only done if one of the specified strings matches the left-hand part of 112# only done if one of the specified strings matches the left-hand part of
113# the path. The tag can be used to show relative paths in the file list. 113# the path. The tag can be used to show relative paths in the file list.
114# If left blank the directory from which doxygen is run is used as the 114# If left blank the directory from which doxygen is run is used as the
115# path to strip. 115# path to strip.
116 116
117STRIP_FROM_PATH = 117STRIP_FROM_PATH =
118 118
119# The STRIP_FROM_INC_PATH tag can be used to strip a user-defined part of 119# The STRIP_FROM_INC_PATH tag can be used to strip a user-defined part of
120# the path mentioned in the documentation of a class, which tells 120# the path mentioned in the documentation of a class, which tells
121# the reader which header file to include in order to use a class. 121# the reader which header file to include in order to use a class.
122# If left blank only the name of the header file containing the class 122# If left blank only the name of the header file containing the class
123# definition is used. Otherwise one should specify the include paths that 123# definition is used. Otherwise one should specify the include paths that
124# are normally passed to the compiler using the -I flag. 124# are normally passed to the compiler using the -I flag.
125 125
126STRIP_FROM_INC_PATH = 126STRIP_FROM_INC_PATH =
127 127
128# If the SHORT_NAMES tag is set to YES, doxygen will generate much shorter 128# If the SHORT_NAMES tag is set to YES, doxygen will generate much shorter
129# (but less readable) file names. This can be useful is your file systems 129# (but less readable) file names. This can be useful is your file systems
130# doesn't support long names like on DOS, Mac, or CD-ROM. 130# doesn't support long names like on DOS, Mac, or CD-ROM.
131 131
132SHORT_NAMES = NO 132SHORT_NAMES = NO
133 133
134# If the JAVADOC_AUTOBRIEF tag is set to YES then Doxygen 134# If the JAVADOC_AUTOBRIEF tag is set to YES then Doxygen
135# will interpret the first line (until the first dot) of a JavaDoc-style 135# will interpret the first line (until the first dot) of a JavaDoc-style
136# comment as the brief description. If set to NO, the JavaDoc 136# comment as the brief description. If set to NO, the JavaDoc
137# comments will behave just like regular Qt-style comments 137# comments will behave just like regular Qt-style comments
138# (thus requiring an explicit @brief command for a brief description.) 138# (thus requiring an explicit @brief command for a brief description.)
139 139
140JAVADOC_AUTOBRIEF = NO 140JAVADOC_AUTOBRIEF = NO
141 141
142# If the QT_AUTOBRIEF tag is set to YES then Doxygen will 142# If the QT_AUTOBRIEF tag is set to YES then Doxygen will
143# interpret the first line (until the first dot) of a Qt-style 143# interpret the first line (until the first dot) of a Qt-style
144# comment as the brief description. If set to NO, the comments 144# comment as the brief description. If set to NO, the comments
145# will behave just like regular Qt-style comments (thus requiring 145# will behave just like regular Qt-style comments (thus requiring
146# an explicit \brief command for a brief description.) 146# an explicit \brief command for a brief description.)
147 147
148QT_AUTOBRIEF = NO 148QT_AUTOBRIEF = NO
149 149
150# The MULTILINE_CPP_IS_BRIEF tag can be set to YES to make Doxygen 150# The MULTILINE_CPP_IS_BRIEF tag can be set to YES to make Doxygen
151# treat a multi-line C++ special comment block (i.e. a block of //! or /// 151# treat a multi-line C++ special comment block (i.e. a block of //! or ///
152# comments) as a brief description. This used to be the default behaviour. 152# comments) as a brief description. This used to be the default behaviour.
153# The new default is to treat a multi-line C++ comment block as a detailed 153# The new default is to treat a multi-line C++ comment block as a detailed
154# description. Set this tag to YES if you prefer the old behaviour instead. 154# description. Set this tag to YES if you prefer the old behaviour instead.
155 155
156MULTILINE_CPP_IS_BRIEF = NO 156MULTILINE_CPP_IS_BRIEF = NO
157 157
158# If the DETAILS_AT_TOP tag is set to YES then Doxygen 158# If the DETAILS_AT_TOP tag is set to YES then Doxygen
159# will output the detailed description near the top, like JavaDoc. 159# will output the detailed description near the top, like JavaDoc.
160# If set to NO, the detailed description appears after the member 160# If set to NO, the detailed description appears after the member
161# documentation. 161# documentation.
162 162
163DETAILS_AT_TOP = NO 163DETAILS_AT_TOP = NO
164 164
165# If the INHERIT_DOCS tag is set to YES (the default) then an undocumented 165# If the INHERIT_DOCS tag is set to YES (the default) then an undocumented
166# member inherits the documentation from any documented member that it 166# member inherits the documentation from any documented member that it
167# re-implements. 167# re-implements.
168 168
169INHERIT_DOCS = YES 169INHERIT_DOCS = YES
170 170
171# If the SEPARATE_MEMBER_PAGES tag is set to YES, then doxygen will produce 171# If the SEPARATE_MEMBER_PAGES tag is set to YES, then doxygen will produce
172# a new page for each member. If set to NO, the documentation of a member will 172# a new page for each member. If set to NO, the documentation of a member will
173# be part of the file/class/namespace that contains it. 173# be part of the file/class/namespace that contains it.
174 174
175SEPARATE_MEMBER_PAGES = NO 175SEPARATE_MEMBER_PAGES = NO
176 176
177# The TAB_SIZE tag can be used to set the number of spaces in a tab. 177# The TAB_SIZE tag can be used to set the number of spaces in a tab.
178# Doxygen uses this value to replace tabs by spaces in code fragments. 178# Doxygen uses this value to replace tabs by spaces in code fragments.
179 179
180TAB_SIZE = 8 180TAB_SIZE = 8
181 181
182# This tag can be used to specify a number of aliases that acts 182# This tag can be used to specify a number of aliases that acts
183# as commands in the documentation. An alias has the form "name=value". 183# as commands in the documentation. An alias has the form "name=value".
184# For example adding "sideeffect=\par Side Effects:\n" will allow you to 184# For example adding "sideeffect=\par Side Effects:\n" will allow you to
185# put the command \sideeffect (or @sideeffect) in the documentation, which 185# put the command \sideeffect (or @sideeffect) in the documentation, which
186# will result in a user-defined paragraph with heading "Side Effects:". 186# will result in a user-defined paragraph with heading "Side Effects:".
187# You can put \n's in the value part of an alias to insert newlines. 187# You can put \n's in the value part of an alias to insert newlines.
188 188
189ALIASES = 189ALIASES =
190 190
191# Set the OPTIMIZE_OUTPUT_FOR_C tag to YES if your project consists of C 191# Set the OPTIMIZE_OUTPUT_FOR_C tag to YES if your project consists of C
192# sources only. Doxygen will then generate output that is more tailored for C. 192# sources only. Doxygen will then generate output that is more tailored for C.
193# For instance, some of the names that are used will be different. The list 193# For instance, some of the names that are used will be different. The list
194# of all members will be omitted, etc. 194# of all members will be omitted, etc.
195 195
196OPTIMIZE_OUTPUT_FOR_C = NO 196OPTIMIZE_OUTPUT_FOR_C = NO
197 197
198# Set the OPTIMIZE_OUTPUT_JAVA tag to YES if your project consists of Java 198# Set the OPTIMIZE_OUTPUT_JAVA tag to YES if your project consists of Java
199# sources only. Doxygen will then generate output that is more tailored for 199# sources only. Doxygen will then generate output that is more tailored for
200# Java. For instance, namespaces will be presented as packages, qualified 200# Java. For instance, namespaces will be presented as packages, qualified
201# scopes will look different, etc. 201# scopes will look different, etc.
202 202
203OPTIMIZE_OUTPUT_JAVA = NO 203OPTIMIZE_OUTPUT_JAVA = NO
204 204
205# Set the OPTIMIZE_FOR_FORTRAN tag to YES if your project consists of Fortran 205# Set the OPTIMIZE_FOR_FORTRAN tag to YES if your project consists of Fortran
206# sources only. Doxygen will then generate output that is more tailored for 206# sources only. Doxygen will then generate output that is more tailored for
207# Fortran. 207# Fortran.
208 208
209OPTIMIZE_FOR_FORTRAN = NO 209OPTIMIZE_FOR_FORTRAN = NO
210 210
211# Set the OPTIMIZE_OUTPUT_VHDL tag to YES if your project consists of VHDL 211# Set the OPTIMIZE_OUTPUT_VHDL tag to YES if your project consists of VHDL
212# sources. Doxygen will then generate output that is tailored for 212# sources. Doxygen will then generate output that is tailored for
213# VHDL. 213# VHDL.
214 214
215OPTIMIZE_OUTPUT_VHDL = NO 215OPTIMIZE_OUTPUT_VHDL = NO
216 216
217# If you use STL classes (i.e. std::string, std::vector, etc.) but do not want 217# If you use STL classes (i.e. std::string, std::vector, etc.) but do not want
218# to include (a tag file for) the STL sources as input, then you should 218# to include (a tag file for) the STL sources as input, then you should
219# set this tag to YES in order to let doxygen match functions declarations and 219# set this tag to YES in order to let doxygen match functions declarations and
220# definitions whose arguments contain STL classes (e.g. func(std::string); v.s. 220# definitions whose arguments contain STL classes (e.g. func(std::string); v.s.
221# func(std::string) {}). This also make the inheritance and collaboration 221# func(std::string) {}). This also make the inheritance and collaboration
222# diagrams that involve STL classes more complete and accurate. 222# diagrams that involve STL classes more complete and accurate.
223 223
224BUILTIN_STL_SUPPORT = NO 224BUILTIN_STL_SUPPORT = NO
225 225
226# If you use Microsoft's C++/CLI language, you should set this option to YES to 226# If you use Microsoft's C++/CLI language, you should set this option to YES to
227# enable parsing support. 227# enable parsing support.
228 228
229CPP_CLI_SUPPORT = NO 229CPP_CLI_SUPPORT = NO
230 230
231# Set the SIP_SUPPORT tag to YES if your project consists of sip sources only. 231# Set the SIP_SUPPORT tag to YES if your project consists of sip sources only.
232# Doxygen will parse them like normal C++ but will assume all classes use public 232# Doxygen will parse them like normal C++ but will assume all classes use public
233# instead of private inheritance when no explicit protection keyword is present. 233# instead of private inheritance when no explicit protection keyword is present.
234 234
235SIP_SUPPORT = NO 235SIP_SUPPORT = NO
236 236
237# If member grouping is used in the documentation and the DISTRIBUTE_GROUP_DOC 237# If member grouping is used in the documentation and the DISTRIBUTE_GROUP_DOC
238# tag is set to YES, then doxygen will reuse the documentation of the first 238# tag is set to YES, then doxygen will reuse the documentation of the first
239# member in the group (if any) for the other members of the group. By default 239# member in the group (if any) for the other members of the group. By default
240# all members of a group must be documented explicitly. 240# all members of a group must be documented explicitly.
241 241
242DISTRIBUTE_GROUP_DOC = NO 242DISTRIBUTE_GROUP_DOC = NO
243 243
244# Set the SUBGROUPING tag to YES (the default) to allow class member groups of 244# Set the SUBGROUPING tag to YES (the default) to allow class member groups of
245# the same type (for instance a group of public functions) to be put as a 245# the same type (for instance a group of public functions) to be put as a
246# subgroup of that type (e.g. under the Public Functions section). Set it to 246# subgroup of that type (e.g. under the Public Functions section). Set it to
247# NO to prevent subgrouping. Alternatively, this can be done per class using 247# NO to prevent subgrouping. Alternatively, this can be done per class using
248# the \nosubgrouping command. 248# the \nosubgrouping command.
249 249
250SUBGROUPING = YES 250SUBGROUPING = YES
251 251
252# When TYPEDEF_HIDES_STRUCT is enabled, a typedef of a struct, union, or enum 252# When TYPEDEF_HIDES_STRUCT is enabled, a typedef of a struct, union, or enum
253# is documented as struct, union, or enum with the name of the typedef. So 253# is documented as struct, union, or enum with the name of the typedef. So
254# typedef struct TypeS {} TypeT, will appear in the documentation as a struct 254# typedef struct TypeS {} TypeT, will appear in the documentation as a struct
255# with name TypeT. When disabled the typedef will appear as a member of a file, 255# with name TypeT. When disabled the typedef will appear as a member of a file,
256# namespace, or class. And the struct will be named TypeS. This can typically 256# namespace, or class. And the struct will be named TypeS. This can typically
257# be useful for C code in case the coding convention dictates that all compound 257# be useful for C code in case the coding convention dictates that all compound
258# types are typedef'ed and only the typedef is referenced, never the tag name. 258# types are typedef'ed and only the typedef is referenced, never the tag name.
259 259
260TYPEDEF_HIDES_STRUCT = NO 260TYPEDEF_HIDES_STRUCT = NO
261 261
262#--------------------------------------------------------------------------- 262#---------------------------------------------------------------------------
263# Build related configuration options 263# Build related configuration options
264#--------------------------------------------------------------------------- 264#---------------------------------------------------------------------------
265 265
266# If the EXTRACT_ALL tag is set to YES doxygen will assume all entities in 266# If the EXTRACT_ALL tag is set to YES doxygen will assume all entities in
267# documentation are documented, even if no documentation was available. 267# documentation are documented, even if no documentation was available.
268# Private class members and static file members will be hidden unless 268# Private class members and static file members will be hidden unless
269# the EXTRACT_PRIVATE and EXTRACT_STATIC tags are set to YES 269# the EXTRACT_PRIVATE and EXTRACT_STATIC tags are set to YES
270 270
271EXTRACT_ALL = YES 271EXTRACT_ALL = YES
272 272
273# If the EXTRACT_PRIVATE tag is set to YES all private members of a class 273# If the EXTRACT_PRIVATE tag is set to YES all private members of a class
274# will be included in the documentation. 274# will be included in the documentation.
275 275
276EXTRACT_PRIVATE = NO 276EXTRACT_PRIVATE = NO
277 277
278# If the EXTRACT_STATIC tag is set to YES all static members of a file 278# If the EXTRACT_STATIC tag is set to YES all static members of a file
279# will be included in the documentation. 279# will be included in the documentation.
280 280
281EXTRACT_STATIC = NO 281EXTRACT_STATIC = NO
282 282
283# If the EXTRACT_LOCAL_CLASSES tag is set to YES classes (and structs) 283# If the EXTRACT_LOCAL_CLASSES tag is set to YES classes (and structs)
284# defined locally in source files will be included in the documentation. 284# defined locally in source files will be included in the documentation.
285# If set to NO only classes defined in header files are included. 285# If set to NO only classes defined in header files are included.
286 286
287EXTRACT_LOCAL_CLASSES = YES 287EXTRACT_LOCAL_CLASSES = YES
288 288
289# This flag is only useful for Objective-C code. When set to YES local 289# This flag is only useful for Objective-C code. When set to YES local
290# methods, which are defined in the implementation section but not in 290# methods, which are defined in the implementation section but not in
291# the interface are included in the documentation. 291# the interface are included in the documentation.
292# If set to NO (the default) only methods in the interface are included. 292# If set to NO (the default) only methods in the interface are included.
293 293
294EXTRACT_LOCAL_METHODS = NO 294EXTRACT_LOCAL_METHODS = NO
295 295
296# If this flag is set to YES, the members of anonymous namespaces will be 296# If this flag is set to YES, the members of anonymous namespaces will be
297# extracted and appear in the documentation as a namespace called 297# extracted and appear in the documentation as a namespace called
298# 'anonymous_namespace{file}', where file will be replaced with the base 298# 'anonymous_namespace{file}', where file will be replaced with the base
299# name of the file that contains the anonymous namespace. By default 299# name of the file that contains the anonymous namespace. By default
300# anonymous namespace are hidden. 300# anonymous namespace are hidden.
301 301
302EXTRACT_ANON_NSPACES = NO 302EXTRACT_ANON_NSPACES = NO
303 303
304# If the HIDE_UNDOC_MEMBERS tag is set to YES, Doxygen will hide all 304# If the HIDE_UNDOC_MEMBERS tag is set to YES, Doxygen will hide all
305# undocumented members of documented classes, files or namespaces. 305# undocumented members of documented classes, files or namespaces.
306# If set to NO (the default) these members will be included in the 306# If set to NO (the default) these members will be included in the
307# various overviews, but no documentation section is generated. 307# various overviews, but no documentation section is generated.
308# This option has no effect if EXTRACT_ALL is enabled. 308# This option has no effect if EXTRACT_ALL is enabled.
309 309
310HIDE_UNDOC_MEMBERS = NO 310HIDE_UNDOC_MEMBERS = NO
311 311
312# If the HIDE_UNDOC_CLASSES tag is set to YES, Doxygen will hide all 312# If the HIDE_UNDOC_CLASSES tag is set to YES, Doxygen will hide all
313# undocumented classes that are normally visible in the class hierarchy. 313# undocumented classes that are normally visible in the class hierarchy.
314# If set to NO (the default) these classes will be included in the various 314# If set to NO (the default) these classes will be included in the various
315# overviews. This option has no effect if EXTRACT_ALL is enabled. 315# overviews. This option has no effect if EXTRACT_ALL is enabled.
316 316
317HIDE_UNDOC_CLASSES = NO 317HIDE_UNDOC_CLASSES = NO
318 318
319# If the HIDE_FRIEND_COMPOUNDS tag is set to YES, Doxygen will hide all 319# If the HIDE_FRIEND_COMPOUNDS tag is set to YES, Doxygen will hide all
320# friend (class|struct|union) declarations. 320# friend (class|struct|union) declarations.
321# If set to NO (the default) these declarations will be included in the 321# If set to NO (the default) these declarations will be included in the
322# documentation. 322# documentation.
323 323
324HIDE_FRIEND_COMPOUNDS = NO 324HIDE_FRIEND_COMPOUNDS = NO
325 325
326# If the HIDE_IN_BODY_DOCS tag is set to YES, Doxygen will hide any 326# If the HIDE_IN_BODY_DOCS tag is set to YES, Doxygen will hide any
327# documentation blocks found inside the body of a function. 327# documentation blocks found inside the body of a function.
328# If set to NO (the default) these blocks will be appended to the 328# If set to NO (the default) these blocks will be appended to the
329# function's detailed documentation block. 329# function's detailed documentation block.
330 330
331HIDE_IN_BODY_DOCS = NO 331HIDE_IN_BODY_DOCS = NO
332 332
333# The INTERNAL_DOCS tag determines if documentation 333# The INTERNAL_DOCS tag determines if documentation
334# that is typed after a \internal command is included. If the tag is set 334# that is typed after a \internal command is included. If the tag is set
335# to NO (the default) then the documentation will be excluded. 335# to NO (the default) then the documentation will be excluded.
336# Set it to YES to include the internal documentation. 336# Set it to YES to include the internal documentation.
337 337
338INTERNAL_DOCS = NO 338INTERNAL_DOCS = NO
339 339
340# If the CASE_SENSE_NAMES tag is set to NO then Doxygen will only generate 340# If the CASE_SENSE_NAMES tag is set to NO then Doxygen will only generate
341# file names in lower-case letters. If set to YES upper-case letters are also 341# file names in lower-case letters. If set to YES upper-case letters are also
342# allowed. This is useful if you have classes or files whose names only differ 342# allowed. This is useful if you have classes or files whose names only differ
343# in case and if your file system supports case sensitive file names. Windows 343# in case and if your file system supports case sensitive file names. Windows
344# and Mac users are advised to set this option to NO. 344# and Mac users are advised to set this option to NO.
345 345
346CASE_SENSE_NAMES = YES 346CASE_SENSE_NAMES = YES
347 347
348# If the HIDE_SCOPE_NAMES tag is set to NO (the default) then Doxygen 348# If the HIDE_SCOPE_NAMES tag is set to NO (the default) then Doxygen
349# will show members with their full class and namespace scopes in the 349# will show members with their full class and namespace scopes in the
350# documentation. If set to YES the scope will be hidden. 350# documentation. If set to YES the scope will be hidden.
351 351
352HIDE_SCOPE_NAMES = NO 352HIDE_SCOPE_NAMES = NO
353 353
354# If the SHOW_INCLUDE_FILES tag is set to YES (the default) then Doxygen 354# If the SHOW_INCLUDE_FILES tag is set to YES (the default) then Doxygen
355# will put a list of the files that are included by a file in the documentation 355# will put a list of the files that are included by a file in the documentation
356# of that file. 356# of that file.
357 357
358SHOW_INCLUDE_FILES = YES 358SHOW_INCLUDE_FILES = YES
359 359
360# If the INLINE_INFO tag is set to YES (the default) then a tag [inline] 360# If the INLINE_INFO tag is set to YES (the default) then a tag [inline]
361# is inserted in the documentation for inline members. 361# is inserted in the documentation for inline members.
362 362
363INLINE_INFO = YES 363INLINE_INFO = YES
364 364
365# If the SORT_MEMBER_DOCS tag is set to YES (the default) then doxygen 365# If the SORT_MEMBER_DOCS tag is set to YES (the default) then doxygen
366# will sort the (detailed) documentation of file and class members 366# will sort the (detailed) documentation of file and class members
367# alphabetically by member name. If set to NO the members will appear in 367# alphabetically by member name. If set to NO the members will appear in
368# declaration order. 368# declaration order.
369 369
370SORT_MEMBER_DOCS = YES 370SORT_MEMBER_DOCS = YES
371 371
372# If the SORT_BRIEF_DOCS tag is set to YES then doxygen will sort the 372# If the SORT_BRIEF_DOCS tag is set to YES then doxygen will sort the
373# brief documentation of file, namespace and class members alphabetically 373# brief documentation of file, namespace and class members alphabetically
374# by member name. If set to NO (the default) the members will appear in 374# by member name. If set to NO (the default) the members will appear in
375# declaration order. 375# declaration order.
376 376
377SORT_BRIEF_DOCS = NO 377SORT_BRIEF_DOCS = NO
378 378
379# If the SORT_GROUP_NAMES tag is set to YES then doxygen will sort the 379# If the SORT_GROUP_NAMES tag is set to YES then doxygen will sort the
380# hierarchy of group names into alphabetical order. If set to NO (the default) 380# hierarchy of group names into alphabetical order. If set to NO (the default)
381# the group names will appear in their defined order. 381# the group names will appear in their defined order.
382 382
383SORT_GROUP_NAMES = NO 383SORT_GROUP_NAMES = NO
384 384
385# If the SORT_BY_SCOPE_NAME tag is set to YES, the class list will be 385# If the SORT_BY_SCOPE_NAME tag is set to YES, the class list will be
386# sorted by fully-qualified names, including namespaces. If set to 386# sorted by fully-qualified names, including namespaces. If set to
387# NO (the default), the class list will be sorted only by class name, 387# NO (the default), the class list will be sorted only by class name,
388# not including the namespace part. 388# not including the namespace part.
389# Note: This option is not very useful if HIDE_SCOPE_NAMES is set to YES. 389# Note: This option is not very useful if HIDE_SCOPE_NAMES is set to YES.
390# Note: This option applies only to the class list, not to the 390# Note: This option applies only to the class list, not to the
391# alphabetical list. 391# alphabetical list.
392 392
393SORT_BY_SCOPE_NAME = NO 393SORT_BY_SCOPE_NAME = NO
394 394
395# The GENERATE_TODOLIST tag can be used to enable (YES) or 395# The GENERATE_TODOLIST tag can be used to enable (YES) or
396# disable (NO) the todo list. This list is created by putting \todo 396# disable (NO) the todo list. This list is created by putting \todo
397# commands in the documentation. 397# commands in the documentation.
398 398
399GENERATE_TODOLIST = YES 399GENERATE_TODOLIST = YES
400 400
401# The GENERATE_TESTLIST tag can be used to enable (YES) or 401# The GENERATE_TESTLIST tag can be used to enable (YES) or
402# disable (NO) the test list. This list is created by putting \test 402# disable (NO) the test list. This list is created by putting \test
403# commands in the documentation. 403# commands in the documentation.
404 404
405GENERATE_TESTLIST = YES 405GENERATE_TESTLIST = YES
406 406
407# The GENERATE_BUGLIST tag can be used to enable (YES) or 407# The GENERATE_BUGLIST tag can be used to enable (YES) or
408# disable (NO) the bug list. This list is created by putting \bug 408# disable (NO) the bug list. This list is created by putting \bug
409# commands in the documentation. 409# commands in the documentation.
410 410
411GENERATE_BUGLIST = YES 411GENERATE_BUGLIST = YES
412 412
413# The GENERATE_DEPRECATEDLIST tag can be used to enable (YES) or 413# The GENERATE_DEPRECATEDLIST tag can be used to enable (YES) or
414# disable (NO) the deprecated list. This list is created by putting 414# disable (NO) the deprecated list. This list is created by putting
415# \deprecated commands in the documentation. 415# \deprecated commands in the documentation.
416 416
417GENERATE_DEPRECATEDLIST= YES 417GENERATE_DEPRECATEDLIST= YES
418 418
419# The ENABLED_SECTIONS tag can be used to enable conditional 419# The ENABLED_SECTIONS tag can be used to enable conditional
420# documentation sections, marked by \if sectionname ... \endif. 420# documentation sections, marked by \if sectionname ... \endif.
421 421
422ENABLED_SECTIONS = 422ENABLED_SECTIONS =
423 423
424# The MAX_INITIALIZER_LINES tag determines the maximum number of lines 424# The MAX_INITIALIZER_LINES tag determines the maximum number of lines
425# the initial value of a variable or define consists of for it to appear in 425# the initial value of a variable or define consists of for it to appear in
426# the documentation. If the initializer consists of more lines than specified 426# the documentation. If the initializer consists of more lines than specified
427# here it will be hidden. Use a value of 0 to hide initializers completely. 427# here it will be hidden. Use a value of 0 to hide initializers completely.
428# The appearance of the initializer of individual variables and defines in the 428# The appearance of the initializer of individual variables and defines in the
429# documentation can be controlled using \showinitializer or \hideinitializer 429# documentation can be controlled using \showinitializer or \hideinitializer
430# command in the documentation regardless of this setting. 430# command in the documentation regardless of this setting.
431 431
432MAX_INITIALIZER_LINES = 30 432MAX_INITIALIZER_LINES = 30
433 433
434# Set the SHOW_USED_FILES tag to NO to disable the list of files generated 434# Set the SHOW_USED_FILES tag to NO to disable the list of files generated
435# at the bottom of the documentation of classes and structs. If set to YES the 435# at the bottom of the documentation of classes and structs. If set to YES the
436# list will mention the files that were used to generate the documentation. 436# list will mention the files that were used to generate the documentation.
437 437
438SHOW_USED_FILES = YES 438SHOW_USED_FILES = YES
439 439
440# If the sources in your project are distributed over multiple directories 440# If the sources in your project are distributed over multiple directories
441# then setting the SHOW_DIRECTORIES tag to YES will show the directory hierarchy 441# then setting the SHOW_DIRECTORIES tag to YES will show the directory hierarchy
442# in the documentation. The default is NO. 442# in the documentation. The default is NO.
443 443
444SHOW_DIRECTORIES = NO 444SHOW_DIRECTORIES = NO
445 445
446# The FILE_VERSION_FILTER tag can be used to specify a program or script that 446# The FILE_VERSION_FILTER tag can be used to specify a program or script that
447# doxygen should invoke to get the current version for each file (typically from 447# doxygen should invoke to get the current version for each file (typically from
448# the version control system). Doxygen will invoke the program by executing (via 448# the version control system). Doxygen will invoke the program by executing (via
449# popen()) the command <command> <input-file>, where <command> is the value of 449# popen()) the command <command> <input-file>, where <command> is the value of
450# the FILE_VERSION_FILTER tag, and <input-file> is the name of an input file 450# the FILE_VERSION_FILTER tag, and <input-file> is the name of an input file
451# provided by doxygen. Whatever the program writes to standard output 451# provided by doxygen. Whatever the program writes to standard output
452# is used as the file version. See the manual for examples. 452# is used as the file version. See the manual for examples.
453 453
454FILE_VERSION_FILTER = 454FILE_VERSION_FILTER =
455 455
456#--------------------------------------------------------------------------- 456#---------------------------------------------------------------------------
457# configuration options related to warning and progress messages 457# configuration options related to warning and progress messages
458#--------------------------------------------------------------------------- 458#---------------------------------------------------------------------------
459 459
460# The QUIET tag can be used to turn on/off the messages that are generated 460# The QUIET tag can be used to turn on/off the messages that are generated
461# by doxygen. Possible values are YES and NO. If left blank NO is used. 461# by doxygen. Possible values are YES and NO. If left blank NO is used.
462 462
463QUIET = NO 463QUIET = NO
464 464
465# The WARNINGS tag can be used to turn on/off the warning messages that are 465# The WARNINGS tag can be used to turn on/off the warning messages that are
466# generated by doxygen. Possible values are YES and NO. If left blank 466# generated by doxygen. Possible values are YES and NO. If left blank
467# NO is used. 467# NO is used.
468 468
469WARNINGS = YES 469WARNINGS = YES
470 470
471# If WARN_IF_UNDOCUMENTED is set to YES, then doxygen will generate warnings 471# If WARN_IF_UNDOCUMENTED is set to YES, then doxygen will generate warnings
472# for undocumented members. If EXTRACT_ALL is set to YES then this flag will 472# for undocumented members. If EXTRACT_ALL is set to YES then this flag will
473# automatically be disabled. 473# automatically be disabled.
474 474
475WARN_IF_UNDOCUMENTED = YES 475WARN_IF_UNDOCUMENTED = YES
476 476
477# If WARN_IF_DOC_ERROR is set to YES, doxygen will generate warnings for 477# If WARN_IF_DOC_ERROR is set to YES, doxygen will generate warnings for
478# potential errors in the documentation, such as not documenting some 478# potential errors in the documentation, such as not documenting some
479# parameters in a documented function, or documenting parameters that 479# parameters in a documented function, or documenting parameters that
480# don't exist or using markup commands wrongly. 480# don't exist or using markup commands wrongly.
481 481
482WARN_IF_DOC_ERROR = YES 482WARN_IF_DOC_ERROR = YES
483 483
484# This WARN_NO_PARAMDOC option can be abled to get warnings for 484# This WARN_NO_PARAMDOC option can be abled to get warnings for
485# functions that are documented, but have no documentation for their parameters 485# functions that are documented, but have no documentation for their parameters
486# or return value. If set to NO (the default) doxygen will only warn about 486# or return value. If set to NO (the default) doxygen will only warn about
487# wrong or incomplete parameter documentation, but not about the absence of 487# wrong or incomplete parameter documentation, but not about the absence of
488# documentation. 488# documentation.
489 489
490WARN_NO_PARAMDOC = NO 490WARN_NO_PARAMDOC = NO
491 491
492# The WARN_FORMAT tag determines the format of the warning messages that 492# The WARN_FORMAT tag determines the format of the warning messages that
493# doxygen can produce. The string should contain the $file, $line, and $text 493# doxygen can produce. The string should contain the $file, $line, and $text
494# tags, which will be replaced by the file and line number from which the 494# tags, which will be replaced by the file and line number from which the
495# warning originated and the warning text. Optionally the format may contain 495# warning originated and the warning text. Optionally the format may contain
496# $version, which will be replaced by the version of the file (if it could 496# $version, which will be replaced by the version of the file (if it could
497# be obtained via FILE_VERSION_FILTER) 497# be obtained via FILE_VERSION_FILTER)
498 498
499WARN_FORMAT = "$file:$line: $text" 499WARN_FORMAT = "$file:$line: $text"
500 500
501# The WARN_LOGFILE tag can be used to specify a file to which warning 501# The WARN_LOGFILE tag can be used to specify a file to which warning
502# and error messages should be written. If left blank the output is written 502# and error messages should be written. If left blank the output is written
503# to stderr. 503# to stderr.
504 504
505WARN_LOGFILE = 505WARN_LOGFILE =
506 506
507#--------------------------------------------------------------------------- 507#---------------------------------------------------------------------------
508# configuration options related to the input files 508# configuration options related to the input files
509#--------------------------------------------------------------------------- 509#---------------------------------------------------------------------------
510 510
511# The INPUT tag can be used to specify the files and/or directories that contain 511# The INPUT tag can be used to specify the files and/or directories that contain
512# documented source files. You may enter file names like "myfile.cpp" or 512# documented source files. You may enter file names like "myfile.cpp" or
513# directories like "/usr/src/myproject". Separate the files or directories 513# directories like "/usr/src/myproject". Separate the files or directories
514# with spaces. 514# with spaces.
515 515
516INPUT = ../OpenSim 516INPUT = ../OpenSim
517 517
518# This tag can be used to specify the character encoding of the source files 518# This tag can be used to specify the character encoding of the source files
519# that doxygen parses. Internally doxygen uses the UTF-8 encoding, which is 519# that doxygen parses. Internally doxygen uses the UTF-8 encoding, which is
520# also the default input encoding. Doxygen uses libiconv (or the iconv built 520# also the default input encoding. Doxygen uses libiconv (or the iconv built
521# into libc) for the transcoding. See http://www.gnu.org/software/libiconv for 521# into libc) for the transcoding. See http://www.gnu.org/software/libiconv for
522# the list of possible encodings. 522# the list of possible encodings.
523 523
524INPUT_ENCODING = UTF-8 524INPUT_ENCODING = UTF-8
525 525
526# If the value of the INPUT tag contains directories, you can use the 526# If the value of the INPUT tag contains directories, you can use the
527# FILE_PATTERNS tag to specify one or more wildcard pattern (like *.cpp 527# FILE_PATTERNS tag to specify one or more wildcard pattern (like *.cpp
528# and *.h) to filter out the source-files in the directories. If left 528# and *.h) to filter out the source-files in the directories. If left
529# blank the following patterns are tested: 529# blank the following patterns are tested:
530# *.c *.cc *.cxx *.cpp *.c++ *.java *.ii *.ixx *.ipp *.i++ *.inl *.h *.hh *.hxx 530# *.c *.cc *.cxx *.cpp *.c++ *.java *.ii *.ixx *.ipp *.i++ *.inl *.h *.hh *.hxx
531# *.hpp *.h++ *.idl *.odl *.cs *.php *.php3 *.inc *.m *.mm *.py *.f90 531# *.hpp *.h++ *.idl *.odl *.cs *.php *.php3 *.inc *.m *.mm *.py *.f90
532 532
533FILE_PATTERNS = 533FILE_PATTERNS =
534 534
535# The RECURSIVE tag can be used to turn specify whether or not subdirectories 535# The RECURSIVE tag can be used to turn specify whether or not subdirectories
536# should be searched for input files as well. Possible values are YES and NO. 536# should be searched for input files as well. Possible values are YES and NO.
537# If left blank NO is used. 537# If left blank NO is used.
538 538
539RECURSIVE = YES 539RECURSIVE = YES
540 540
541# The EXCLUDE tag can be used to specify files and/or directories that should 541# The EXCLUDE tag can be used to specify files and/or directories that should
542# excluded from the INPUT source files. This way you can easily exclude a 542# excluded from the INPUT source files. This way you can easily exclude a
543# subdirectory from a directory tree whose root is specified with the INPUT tag. 543# subdirectory from a directory tree whose root is specified with the INPUT tag.
544 544
545EXCLUDE = 545EXCLUDE =
546 546
547# The EXCLUDE_SYMLINKS tag can be used select whether or not files or 547# The EXCLUDE_SYMLINKS tag can be used select whether or not files or
548# directories that are symbolic links (a Unix filesystem feature) are excluded 548# directories that are symbolic links (a Unix filesystem feature) are excluded
549# from the input. 549# from the input.
550 550
551EXCLUDE_SYMLINKS = NO 551EXCLUDE_SYMLINKS = NO
552 552
553# If the value of the INPUT tag contains directories, you can use the 553# If the value of the INPUT tag contains directories, you can use the
554# EXCLUDE_PATTERNS tag to specify one or more wildcard patterns to exclude 554# EXCLUDE_PATTERNS tag to specify one or more wildcard patterns to exclude
555# certain files from those directories. Note that the wildcards are matched 555# certain files from those directories. Note that the wildcards are matched
556# against the file with absolute path, so to exclude all test directories 556# against the file with absolute path, so to exclude all test directories
557# for example use the pattern */test/* 557# for example use the pattern */test/*
558 558
559EXCLUDE_PATTERNS = 559EXCLUDE_PATTERNS =
560 560
561# The EXCLUDE_SYMBOLS tag can be used to specify one or more symbol names 561# The EXCLUDE_SYMBOLS tag can be used to specify one or more symbol names
562# (namespaces, classes, functions, etc.) that should be excluded from the 562# (namespaces, classes, functions, etc.) that should be excluded from the
563# output. The symbol name can be a fully qualified name, a word, or if the 563# output. The symbol name can be a fully qualified name, a word, or if the
564# wildcard * is used, a substring. Examples: ANamespace, AClass, 564# wildcard * is used, a substring. Examples: ANamespace, AClass,
565# AClass::ANamespace, ANamespace::*Test 565# AClass::ANamespace, ANamespace::*Test
566 566
567EXCLUDE_SYMBOLS = 567EXCLUDE_SYMBOLS =
568 568
569# The EXAMPLE_PATH tag can be used to specify one or more files or 569# The EXAMPLE_PATH tag can be used to specify one or more files or
570# directories that contain example code fragments that are included (see 570# directories that contain example code fragments that are included (see
571# the \include command). 571# the \include command).
572 572
573EXAMPLE_PATH = 573EXAMPLE_PATH =
574 574
575# If the value of the EXAMPLE_PATH tag contains directories, you can use the 575# If the value of the EXAMPLE_PATH tag contains directories, you can use the
576# EXAMPLE_PATTERNS tag to specify one or more wildcard pattern (like *.cpp 576# EXAMPLE_PATTERNS tag to specify one or more wildcard pattern (like *.cpp
577# and *.h) to filter out the source-files in the directories. If left 577# and *.h) to filter out the source-files in the directories. If left
578# blank all files are included. 578# blank all files are included.
579 579
580EXAMPLE_PATTERNS = 580EXAMPLE_PATTERNS =
581 581
582# If the EXAMPLE_RECURSIVE tag is set to YES then subdirectories will be 582# If the EXAMPLE_RECURSIVE tag is set to YES then subdirectories will be
583# searched for input files to be used with the \include or \dontinclude 583# searched for input files to be used with the \include or \dontinclude
584# commands irrespective of the value of the RECURSIVE tag. 584# commands irrespective of the value of the RECURSIVE tag.
585# Possible values are YES and NO. If left blank NO is used. 585# Possible values are YES and NO. If left blank NO is used.
586 586
587EXAMPLE_RECURSIVE = NO 587EXAMPLE_RECURSIVE = NO
588 588
589# The IMAGE_PATH tag can be used to specify one or more files or 589# The IMAGE_PATH tag can be used to specify one or more files or
590# directories that contain image that are included in the documentation (see 590# directories that contain image that are included in the documentation (see
591# the \image command). 591# the \image command).
592 592
593IMAGE_PATH = 593IMAGE_PATH =
594 594
595# The INPUT_FILTER tag can be used to specify a program that doxygen should 595# The INPUT_FILTER tag can be used to specify a program that doxygen should
596# invoke to filter for each input file. Doxygen will invoke the filter program 596# invoke to filter for each input file. Doxygen will invoke the filter program
597# by executing (via popen()) the command <filter> <input-file>, where <filter> 597# by executing (via popen()) the command <filter> <input-file>, where <filter>
598# is the value of the INPUT_FILTER tag, and <input-file> is the name of an 598# is the value of the INPUT_FILTER tag, and <input-file> is the name of an
599# input file. Doxygen will then use the output that the filter program writes 599# input file. Doxygen will then use the output that the filter program writes
600# to standard output. If FILTER_PATTERNS is specified, this tag will be 600# to standard output. If FILTER_PATTERNS is specified, this tag will be
601# ignored. 601# ignored.
602 602
603INPUT_FILTER = 603INPUT_FILTER =
604 604
605# The FILTER_PATTERNS tag can be used to specify filters on a per file pattern 605# The FILTER_PATTERNS tag can be used to specify filters on a per file pattern
606# basis. Doxygen will compare the file name with each pattern and apply the 606# basis. Doxygen will compare the file name with each pattern and apply the
607# filter if there is a match. The filters are a list of the form: 607# filter if there is a match. The filters are a list of the form:
608# pattern=filter (like *.cpp=my_cpp_filter). See INPUT_FILTER for further 608# pattern=filter (like *.cpp=my_cpp_filter). See INPUT_FILTER for further
609# info on how filters are used. If FILTER_PATTERNS is empty, INPUT_FILTER 609# info on how filters are used. If FILTER_PATTERNS is empty, INPUT_FILTER
610# is applied to all files. 610# is applied to all files.
611 611
612FILTER_PATTERNS = 612FILTER_PATTERNS =
613 613
614# If the FILTER_SOURCE_FILES tag is set to YES, the input filter (if set using 614# If the FILTER_SOURCE_FILES tag is set to YES, the input filter (if set using
615# INPUT_FILTER) will be used to filter the input files when producing source 615# INPUT_FILTER) will be used to filter the input files when producing source
616# files to browse (i.e. when SOURCE_BROWSER is set to YES). 616# files to browse (i.e. when SOURCE_BROWSER is set to YES).
617 617
618FILTER_SOURCE_FILES = NO 618FILTER_SOURCE_FILES = NO
619 619
620#--------------------------------------------------------------------------- 620#---------------------------------------------------------------------------
621# configuration options related to source browsing 621# configuration options related to source browsing
622#--------------------------------------------------------------------------- 622#---------------------------------------------------------------------------
623 623
624# If the SOURCE_BROWSER tag is set to YES then a list of source files will 624# If the SOURCE_BROWSER tag is set to YES then a list of source files will
625# be generated. Documented entities will be cross-referenced with these sources. 625# be generated. Documented entities will be cross-referenced with these sources.
626# Note: To get rid of all source code in the generated output, make sure also 626# Note: To get rid of all source code in the generated output, make sure also
627# VERBATIM_HEADERS is set to NO. 627# VERBATIM_HEADERS is set to NO.
628 628
629SOURCE_BROWSER = NO 629SOURCE_BROWSER = NO
630 630
631# Setting the INLINE_SOURCES tag to YES will include the body 631# Setting the INLINE_SOURCES tag to YES will include the body
632# of functions and classes directly in the documentation. 632# of functions and classes directly in the documentation.
633 633
634INLINE_SOURCES = NO 634INLINE_SOURCES = NO
635 635
636# Setting the STRIP_CODE_COMMENTS tag to YES (the default) will instruct 636# Setting the STRIP_CODE_COMMENTS tag to YES (the default) will instruct
637# doxygen to hide any special comment blocks from generated source code 637# doxygen to hide any special comment blocks from generated source code
638# fragments. Normal C and C++ comments will always remain visible. 638# fragments. Normal C and C++ comments will always remain visible.
639 639
640STRIP_CODE_COMMENTS = YES 640STRIP_CODE_COMMENTS = YES
641 641
642# If the REFERENCED_BY_RELATION tag is set to YES (the default) 642# If the REFERENCED_BY_RELATION tag is set to YES (the default)
643# then for each documented function all documented 643# then for each documented function all documented
644# functions referencing it will be listed. 644# functions referencing it will be listed.
645 645
646REFERENCED_BY_RELATION = NO 646REFERENCED_BY_RELATION = NO
647 647
648# If the REFERENCES_RELATION tag is set to YES (the default) 648# If the REFERENCES_RELATION tag is set to YES (the default)
649# then for each documented function all documented entities 649# then for each documented function all documented entities
650# called/used by that function will be listed. 650# called/used by that function will be listed.
651 651
652REFERENCES_RELATION = NO 652REFERENCES_RELATION = NO
653 653
654# If the REFERENCES_LINK_SOURCE tag is set to YES (the default) 654# If the REFERENCES_LINK_SOURCE tag is set to YES (the default)
655# and SOURCE_BROWSER tag is set to YES, then the hyperlinks from 655# and SOURCE_BROWSER tag is set to YES, then the hyperlinks from
656# functions in REFERENCES_RELATION and REFERENCED_BY_RELATION lists will 656# functions in REFERENCES_RELATION and REFERENCED_BY_RELATION lists will
657# link to the source code. Otherwise they will link to the documentstion. 657# link to the source code. Otherwise they will link to the documentstion.
658 658
659REFERENCES_LINK_SOURCE = YES 659REFERENCES_LINK_SOURCE = YES
660 660
661# If the USE_HTAGS tag is set to YES then the references to source code 661# If the USE_HTAGS tag is set to YES then the references to source code
662# will point to the HTML generated by the htags(1) tool instead of doxygen 662# will point to the HTML generated by the htags(1) tool instead of doxygen
663# built-in source browser. The htags tool is part of GNU's global source 663# built-in source browser. The htags tool is part of GNU's global source
664# tagging system (see http://www.gnu.org/software/global/global.html). You 664# tagging system (see http://www.gnu.org/software/global/global.html). You
665# will need version 4.8.6 or higher. 665# will need version 4.8.6 or higher.
666 666
667USE_HTAGS = NO 667USE_HTAGS = NO
668 668
669# If the VERBATIM_HEADERS tag is set to YES (the default) then Doxygen 669# If the VERBATIM_HEADERS tag is set to YES (the default) then Doxygen
670# will generate a verbatim copy of the header file for each class for 670# will generate a verbatim copy of the header file for each class for
671# which an include is specified. Set to NO to disable this. 671# which an include is specified. Set to NO to disable this.
672 672
673VERBATIM_HEADERS = YES 673VERBATIM_HEADERS = YES
674 674
675#--------------------------------------------------------------------------- 675#---------------------------------------------------------------------------
676# configuration options related to the alphabetical class index 676# configuration options related to the alphabetical class index
677#--------------------------------------------------------------------------- 677#---------------------------------------------------------------------------
678 678
679# If the ALPHABETICAL_INDEX tag is set to YES, an alphabetical index 679# If the ALPHABETICAL_INDEX tag is set to YES, an alphabetical index
680# of all compounds will be generated. Enable this if the project 680# of all compounds will be generated. Enable this if the project
681# contains a lot of classes, structs, unions or interfaces. 681# contains a lot of classes, structs, unions or interfaces.
682 682
683ALPHABETICAL_INDEX = NO 683ALPHABETICAL_INDEX = NO
684 684
685# If the alphabetical index is enabled (see ALPHABETICAL_INDEX) then 685# If the alphabetical index is enabled (see ALPHABETICAL_INDEX) then
686# the COLS_IN_ALPHA_INDEX tag can be used to specify the number of columns 686# the COLS_IN_ALPHA_INDEX tag can be used to specify the number of columns
687# in which this list will be split (can be a number in the range [1..20]) 687# in which this list will be split (can be a number in the range [1..20])
688 688
689COLS_IN_ALPHA_INDEX = 5 689COLS_IN_ALPHA_INDEX = 5
690 690
691# In case all classes in a project start with a common prefix, all 691# In case all classes in a project start with a common prefix, all
692# classes will be put under the same header in the alphabetical index. 692# classes will be put under the same header in the alphabetical index.
693# The IGNORE_PREFIX tag can be used to specify one or more prefixes that 693# The IGNORE_PREFIX tag can be used to specify one or more prefixes that
694# should be ignored while generating the index headers. 694# should be ignored while generating the index headers.
695 695
696IGNORE_PREFIX = 696IGNORE_PREFIX =
697 697
698#--------------------------------------------------------------------------- 698#---------------------------------------------------------------------------
699# configuration options related to the HTML output 699# configuration options related to the HTML output
700#--------------------------------------------------------------------------- 700#---------------------------------------------------------------------------
701 701
702# If the GENERATE_HTML tag is set to YES (the default) Doxygen will 702# If the GENERATE_HTML tag is set to YES (the default) Doxygen will
703# generate HTML output. 703# generate HTML output.
704 704
705GENERATE_HTML = YES 705GENERATE_HTML = YES
706 706
707# The HTML_OUTPUT tag is used to specify where the HTML docs will be put. 707# The HTML_OUTPUT tag is used to specify where the HTML docs will be put.
708# If a relative path is entered the value of OUTPUT_DIRECTORY will be 708# If a relative path is entered the value of OUTPUT_DIRECTORY will be
709# put in front of it. If left blank `html' will be used as the default path. 709# put in front of it. If left blank `html' will be used as the default path.
710 710
711HTML_OUTPUT = html 711HTML_OUTPUT = html
712 712
713# The HTML_FILE_EXTENSION tag can be used to specify the file extension for 713# The HTML_FILE_EXTENSION tag can be used to specify the file extension for
714# each generated HTML page (for example: .htm,.php,.asp). If it is left blank 714# each generated HTML page (for example: .htm,.php,.asp). If it is left blank
715# doxygen will generate files with .html extension. 715# doxygen will generate files with .html extension.
716 716
717HTML_FILE_EXTENSION = .html 717HTML_FILE_EXTENSION = .html
718 718
719# The HTML_HEADER tag can be used to specify a personal HTML header for 719# The HTML_HEADER tag can be used to specify a personal HTML header for
720# each generated HTML page. If it is left blank doxygen will generate a 720# each generated HTML page. If it is left blank doxygen will generate a
721# standard header. 721# standard header.
722 722
723HTML_HEADER = 723HTML_HEADER =
724 724
725# The HTML_FOOTER tag can be used to specify a personal HTML footer for 725# The HTML_FOOTER tag can be used to specify a personal HTML footer for
726# each generated HTML page. If it is left blank doxygen will generate a 726# each generated HTML page. If it is left blank doxygen will generate a
727# standard footer. 727# standard footer.
728 728
729HTML_FOOTER = 729HTML_FOOTER =
730 730
731# The HTML_STYLESHEET tag can be used to specify a user-defined cascading 731# The HTML_STYLESHEET tag can be used to specify a user-defined cascading
732# style sheet that is used by each HTML page. It can be used to 732# style sheet that is used by each HTML page. It can be used to
733# fine-tune the look of the HTML output. If the tag is left blank doxygen 733# fine-tune the look of the HTML output. If the tag is left blank doxygen
734# will generate a default style sheet. Note that doxygen will try to copy 734# will generate a default style sheet. Note that doxygen will try to copy
735# the style sheet file to the HTML output directory, so don't put your own 735# the style sheet file to the HTML output directory, so don't put your own
736# stylesheet in the HTML output directory as well, or it will be erased! 736# stylesheet in the HTML output directory as well, or it will be erased!
737 737
738HTML_STYLESHEET = 738HTML_STYLESHEET =
739 739
740# If the HTML_ALIGN_MEMBERS tag is set to YES, the members of classes, 740# If the HTML_ALIGN_MEMBERS tag is set to YES, the members of classes,
741# files or namespaces will be aligned in HTML using tables. If set to 741# files or namespaces will be aligned in HTML using tables. If set to
742# NO a bullet list will be used. 742# NO a bullet list will be used.
743 743
744HTML_ALIGN_MEMBERS = YES 744HTML_ALIGN_MEMBERS = YES
745 745
746# If the GENERATE_HTMLHELP tag is set to YES, additional index files 746# If the GENERATE_HTMLHELP tag is set to YES, additional index files
747# will be generated that can be used as input for tools like the 747# will be generated that can be used as input for tools like the
748# Microsoft HTML help workshop to generate a compiled HTML help file (.chm) 748# Microsoft HTML help workshop to generate a compiled HTML help file (.chm)
749# of the generated HTML documentation. 749# of the generated HTML documentation.
750 750
751GENERATE_HTMLHELP = NO 751GENERATE_HTMLHELP = NO
752 752
753# If the GENERATE_DOCSET tag is set to YES, additional index files 753# If the GENERATE_DOCSET tag is set to YES, additional index files
754# will be generated that can be used as input for Apple's Xcode 3 754# will be generated that can be used as input for Apple's Xcode 3
755# integrated development environment, introduced with OSX 10.5 (Leopard). 755# integrated development environment, introduced with OSX 10.5 (Leopard).
756# To create a documentation set, doxygen will generate a Makefile in the 756# To create a documentation set, doxygen will generate a Makefile in the
757# HTML output directory. Running make will produce the docset in that 757# HTML output directory. Running make will produce the docset in that
758# directory and running "make install" will install the docset in 758# directory and running "make install" will install the docset in
759# ~/Library/Developer/Shared/Documentation/DocSets so that Xcode will find 759# ~/Library/Developer/Shared/Documentation/DocSets so that Xcode will find
760# it at startup. 760# it at startup.
761 761
762GENERATE_DOCSET = NO 762GENERATE_DOCSET = NO
763 763
764# When GENERATE_DOCSET tag is set to YES, this tag determines the name of the 764# When GENERATE_DOCSET tag is set to YES, this tag determines the name of the
765# feed. A documentation feed provides an umbrella under which multiple 765# feed. A documentation feed provides an umbrella under which multiple
766# documentation sets from a single provider (such as a company or product suite) 766# documentation sets from a single provider (such as a company or product suite)
767# can be grouped. 767# can be grouped.
768 768
769DOCSET_FEEDNAME = "Doxygen generated docs" 769DOCSET_FEEDNAME = "Doxygen generated docs"
770 770
771# When GENERATE_DOCSET tag is set to YES, this tag specifies a string that 771# When GENERATE_DOCSET tag is set to YES, this tag specifies a string that
772# should uniquely identify the documentation set bundle. This should be a 772# should uniquely identify the documentation set bundle. This should be a
773# reverse domain-name style string, e.g. com.mycompany.MyDocSet. Doxygen 773# reverse domain-name style string, e.g. com.mycompany.MyDocSet. Doxygen
774# will append .docset to the name. 774# will append .docset to the name.
775 775
776DOCSET_BUNDLE_ID = org.doxygen.Project 776DOCSET_BUNDLE_ID = org.doxygen.Project
777 777
778# If the HTML_DYNAMIC_SECTIONS tag is set to YES then the generated HTML 778# If the HTML_DYNAMIC_SECTIONS tag is set to YES then the generated HTML
779# documentation will contain sections that can be hidden and shown after the 779# documentation will contain sections that can be hidden and shown after the
780# page has loaded. For this to work a browser that supports 780# page has loaded. For this to work a browser that supports
781# JavaScript and DHTML is required (for instance Mozilla 1.0+, Firefox 781# JavaScript and DHTML is required (for instance Mozilla 1.0+, Firefox
782# Netscape 6.0+, Internet explorer 5.0+, Konqueror, or Safari). 782# Netscape 6.0+, Internet explorer 5.0+, Konqueror, or Safari).
783 783
784HTML_DYNAMIC_SECTIONS = NO 784HTML_DYNAMIC_SECTIONS = NO
785 785
786# If the GENERATE_HTMLHELP tag is set to YES, the CHM_FILE tag can 786# If the GENERATE_HTMLHELP tag is set to YES, the CHM_FILE tag can
787# be used to specify the file name of the resulting .chm file. You 787# be used to specify the file name of the resulting .chm file. You
788# can add a path in front of the file if the result should not be 788# can add a path in front of the file if the result should not be
789# written to the html output directory. 789# written to the html output directory.
790 790
791CHM_FILE = 791CHM_FILE =
792 792
793# If the GENERATE_HTMLHELP tag is set to YES, the HHC_LOCATION tag can 793# If the GENERATE_HTMLHELP tag is set to YES, the HHC_LOCATION tag can
794# be used to specify the location (absolute path including file name) of 794# be used to specify the location (absolute path including file name) of
795# the HTML help compiler (hhc.exe). If non-empty doxygen will try to run 795# the HTML help compiler (hhc.exe). If non-empty doxygen will try to run
796# the HTML help compiler on the generated index.hhp. 796# the HTML help compiler on the generated index.hhp.
797 797
798HHC_LOCATION = 798HHC_LOCATION =
799 799
800# If the GENERATE_HTMLHELP tag is set to YES, the GENERATE_CHI flag 800# If the GENERATE_HTMLHELP tag is set to YES, the GENERATE_CHI flag
801# controls if a separate .chi index file is generated (YES) or that 801# controls if a separate .chi index file is generated (YES) or that
802# it should be included in the master .chm file (NO). 802# it should be included in the master .chm file (NO).
803 803
804GENERATE_CHI = NO 804GENERATE_CHI = NO
805 805
806# If the GENERATE_HTMLHELP tag is set to YES, the BINARY_TOC flag 806# If the GENERATE_HTMLHELP tag is set to YES, the BINARY_TOC flag
807# controls whether a binary table of contents is generated (YES) or a 807# controls whether a binary table of contents is generated (YES) or a
808# normal table of contents (NO) in the .chm file. 808# normal table of contents (NO) in the .chm file.
809 809
810BINARY_TOC = NO 810BINARY_TOC = NO
811 811
812# The TOC_EXPAND flag can be set to YES to add extra items for group members 812# The TOC_EXPAND flag can be set to YES to add extra items for group members
813# to the contents of the HTML help documentation and to the tree view. 813# to the contents of the HTML help documentation and to the tree view.
814 814
815TOC_EXPAND = NO 815TOC_EXPAND = NO
816 816
817# The DISABLE_INDEX tag can be used to turn on/off the condensed index at 817# The DISABLE_INDEX tag can be used to turn on/off the condensed index at
818# top of each HTML page. The value NO (the default) enables the index and 818# top of each HTML page. The value NO (the default) enables the index and
819# the value YES disables it. 819# the value YES disables it.
820 820
821DISABLE_INDEX = NO 821DISABLE_INDEX = NO
822 822
823# This tag can be used to set the number of enum values (range [1..20]) 823# This tag can be used to set the number of enum values (range [1..20])
824# that doxygen will group on one line in the generated HTML documentation. 824# that doxygen will group on one line in the generated HTML documentation.
825 825
826ENUM_VALUES_PER_LINE = 4 826ENUM_VALUES_PER_LINE = 4
827 827
828# If the GENERATE_TREEVIEW tag is set to YES, a side panel will be 828# If the GENERATE_TREEVIEW tag is set to YES, a side panel will be
829# generated containing a tree-like index structure (just like the one that 829# generated containing a tree-like index structure (just like the one that
830# is generated for HTML Help). For this to work a browser that supports 830# is generated for HTML Help). For this to work a browser that supports
831# JavaScript, DHTML, CSS and frames is required (for instance Mozilla 1.0+, 831# JavaScript, DHTML, CSS and frames is required (for instance Mozilla 1.0+,
832# Netscape 6.0+, Internet explorer 5.0+, or Konqueror). Windows users are 832# Netscape 6.0+, Internet explorer 5.0+, or Konqueror). Windows users are
833# probably better off using the HTML help feature. 833# probably better off using the HTML help feature.
834 834
835GENERATE_TREEVIEW = NO 835GENERATE_TREEVIEW = NO
836 836
837# If the treeview is enabled (see GENERATE_TREEVIEW) then this tag can be 837# If the treeview is enabled (see GENERATE_TREEVIEW) then this tag can be
838# used to set the initial width (in pixels) of the frame in which the tree 838# used to set the initial width (in pixels) of the frame in which the tree
839# is shown. 839# is shown.
840 840
841TREEVIEW_WIDTH = 250 841TREEVIEW_WIDTH = 250
842 842
843#--------------------------------------------------------------------------- 843#---------------------------------------------------------------------------
844# configuration options related to the LaTeX output 844# configuration options related to the LaTeX output
845#--------------------------------------------------------------------------- 845#---------------------------------------------------------------------------
846 846
847# If the GENERATE_LATEX tag is set to YES (the default) Doxygen will 847# If the GENERATE_LATEX tag is set to YES (the default) Doxygen will
848# generate Latex output. 848# generate Latex output.
849 849
850GENERATE_LATEX = NO 850GENERATE_LATEX = NO
851 851
852# The LATEX_OUTPUT tag is used to specify where the LaTeX docs will be put. 852# The LATEX_OUTPUT tag is used to specify where the LaTeX docs will be put.
853# If a relative path is entered the value of OUTPUT_DIRECTORY will be 853# If a relative path is entered the value of OUTPUT_DIRECTORY will be
854# put in front of it. If left blank `latex' will be used as the default path. 854# put in front of it. If left blank `latex' will be used as the default path.
855 855
856LATEX_OUTPUT = latex 856LATEX_OUTPUT = latex
857 857
858# The LATEX_CMD_NAME tag can be used to specify the LaTeX command name to be 858# The LATEX_CMD_NAME tag can be used to specify the LaTeX command name to be
859# invoked. If left blank `latex' will be used as the default command name. 859# invoked. If left blank `latex' will be used as the default command name.
860 860
861LATEX_CMD_NAME = latex 861LATEX_CMD_NAME = latex
862 862
863# The MAKEINDEX_CMD_NAME tag can be used to specify the command name to 863# The MAKEINDEX_CMD_NAME tag can be used to specify the command name to
864# generate index for LaTeX. If left blank `makeindex' will be used as the 864# generate index for LaTeX. If left blank `makeindex' will be used as the
865# default command name. 865# default command name.
866 866
867MAKEINDEX_CMD_NAME = makeindex 867MAKEINDEX_CMD_NAME = makeindex
868 868
869# If the COMPACT_LATEX tag is set to YES Doxygen generates more compact 869# If the COMPACT_LATEX tag is set to YES Doxygen generates more compact
870# LaTeX documents. This may be useful for small projects and may help to 870# LaTeX documents. This may be useful for small projects and may help to
871# save some trees in general. 871# save some trees in general.
872 872
873COMPACT_LATEX = NO 873COMPACT_LATEX = NO
874 874
875# The PAPER_TYPE tag can be used to set the paper type that is used 875# The PAPER_TYPE tag can be used to set the paper type that is used
876# by the printer. Possible values are: a4, a4wide, letter, legal and 876# by the printer. Possible values are: a4, a4wide, letter, legal and
877# executive. If left blank a4wide will be used. 877# executive. If left blank a4wide will be used.
878 878
879PAPER_TYPE = a4wide 879PAPER_TYPE = a4wide
880 880
881# The EXTRA_PACKAGES tag can be to specify one or more names of LaTeX 881# The EXTRA_PACKAGES tag can be to specify one or more names of LaTeX
882# packages that should be included in the LaTeX output. 882# packages that should be included in the LaTeX output.
883 883
884EXTRA_PACKAGES = 884EXTRA_PACKAGES =
885 885
886# The LATEX_HEADER tag can be used to specify a personal LaTeX header for 886# The LATEX_HEADER tag can be used to specify a personal LaTeX header for
887# the generated latex document. The header should contain everything until 887# the generated latex document. The header should contain everything until
888# the first chapter. If it is left blank doxygen will generate a 888# the first chapter. If it is left blank doxygen will generate a
889# standard header. Notice: only use this tag if you know what you are doing! 889# standard header. Notice: only use this tag if you know what you are doing!
890 890
891LATEX_HEADER = 891LATEX_HEADER =
892 892
893# If the PDF_HYPERLINKS tag is set to YES, the LaTeX that is generated 893# If the PDF_HYPERLINKS tag is set to YES, the LaTeX that is generated
894# is prepared for conversion to pdf (using ps2pdf). The pdf file will 894# is prepared for conversion to pdf (using ps2pdf). The pdf file will
895# contain links (just like the HTML output) instead of page references 895# contain links (just like the HTML output) instead of page references
896# This makes the output suitable for online browsing using a pdf viewer. 896# This makes the output suitable for online browsing using a pdf viewer.
897 897
898PDF_HYPERLINKS = YES 898PDF_HYPERLINKS = YES
899 899
900# If the USE_PDFLATEX tag is set to YES, pdflatex will be used instead of 900# If the USE_PDFLATEX tag is set to YES, pdflatex will be used instead of
901# plain latex in the generated Makefile. Set this option to YES to get a 901# plain latex in the generated Makefile. Set this option to YES to get a
902# higher quality PDF documentation. 902# higher quality PDF documentation.
903 903
904USE_PDFLATEX = YES 904USE_PDFLATEX = YES
905 905
906# If the LATEX_BATCHMODE tag is set to YES, doxygen will add the \\batchmode. 906# If the LATEX_BATCHMODE tag is set to YES, doxygen will add the \\batchmode.
907# command to the generated LaTeX files. This will instruct LaTeX to keep 907# command to the generated LaTeX files. This will instruct LaTeX to keep
908# running if errors occur, instead of asking the user for help. 908# running if errors occur, instead of asking the user for help.
909# This option is also used when generating formulas in HTML. 909# This option is also used when generating formulas in HTML.
910 910
911LATEX_BATCHMODE = NO 911LATEX_BATCHMODE = NO
912 912
913# If LATEX_HIDE_INDICES is set to YES then doxygen will not 913# If LATEX_HIDE_INDICES is set to YES then doxygen will not
914# include the index chapters (such as File Index, Compound Index, etc.) 914# include the index chapters (such as File Index, Compound Index, etc.)
915# in the output. 915# in the output.
916 916
917LATEX_HIDE_INDICES = NO 917LATEX_HIDE_INDICES = NO
918 918
919#--------------------------------------------------------------------------- 919#---------------------------------------------------------------------------
920# configuration options related to the RTF output 920# configuration options related to the RTF output
921#--------------------------------------------------------------------------- 921#---------------------------------------------------------------------------
922 922
923# If the GENERATE_RTF tag is set to YES Doxygen will generate RTF output 923# If the GENERATE_RTF tag is set to YES Doxygen will generate RTF output
924# The RTF output is optimized for Word 97 and may not look very pretty with 924# The RTF output is optimized for Word 97 and may not look very pretty with
925# other RTF readers or editors. 925# other RTF readers or editors.
926 926
927GENERATE_RTF = NO 927GENERATE_RTF = NO
928 928
929# The RTF_OUTPUT tag is used to specify where the RTF docs will be put. 929# The RTF_OUTPUT tag is used to specify where the RTF docs will be put.
930# If a relative path is entered the value of OUTPUT_DIRECTORY will be 930# If a relative path is entered the value of OUTPUT_DIRECTORY will be
931# put in front of it. If left blank `rtf' will be used as the default path. 931# put in front of it. If left blank `rtf' will be used as the default path.
932 932
933RTF_OUTPUT = rtf 933RTF_OUTPUT = rtf
934 934
935# If the COMPACT_RTF tag is set to YES Doxygen generates more compact 935# If the COMPACT_RTF tag is set to YES Doxygen generates more compact
936# RTF documents. This may be useful for small projects and may help to 936# RTF documents. This may be useful for small projects and may help to
937# save some trees in general. 937# save some trees in general.
938 938
939COMPACT_RTF = NO 939COMPACT_RTF = NO
940 940
941# If the RTF_HYPERLINKS tag is set to YES, the RTF that is generated 941# If the RTF_HYPERLINKS tag is set to YES, the RTF that is generated
942# will contain hyperlink fields. The RTF file will 942# will contain hyperlink fields. The RTF file will
943# contain links (just like the HTML output) instead of page references. 943# contain links (just like the HTML output) instead of page references.
944# This makes the output suitable for online browsing using WORD or other 944# This makes the output suitable for online browsing using WORD or other
945# programs which support those fields. 945# programs which support those fields.
946# Note: wordpad (write) and others do not support links. 946# Note: wordpad (write) and others do not support links.
947 947
948RTF_HYPERLINKS = NO 948RTF_HYPERLINKS = NO
949 949
950# Load stylesheet definitions from file. Syntax is similar to doxygen's 950# Load stylesheet definitions from file. Syntax is similar to doxygen's
951# config file, i.e. a series of assignments. You only have to provide 951# config file, i.e. a series of assignments. You only have to provide
952# replacements, missing definitions are set to their default value. 952# replacements, missing definitions are set to their default value.
953 953
954RTF_STYLESHEET_FILE = 954RTF_STYLESHEET_FILE =
955 955
956# Set optional variables used in the generation of an rtf document. 956# Set optional variables used in the generation of an rtf document.
957# Syntax is similar to doxygen's config file. 957# Syntax is similar to doxygen's config file.
958 958
959RTF_EXTENSIONS_FILE = 959RTF_EXTENSIONS_FILE =
960 960
961#--------------------------------------------------------------------------- 961#---------------------------------------------------------------------------
962# configuration options related to the man page output 962# configuration options related to the man page output
963#--------------------------------------------------------------------------- 963#---------------------------------------------------------------------------
964 964
965# If the GENERATE_MAN tag is set to YES (the default) Doxygen will 965# If the GENERATE_MAN tag is set to YES (the default) Doxygen will
966# generate man pages 966# generate man pages
967 967
968GENERATE_MAN = NO 968GENERATE_MAN = NO
969 969
970# The MAN_OUTPUT tag is used to specify where the man pages will be put. 970# The MAN_OUTPUT tag is used to specify where the man pages will be put.
971# If a relative path is entered the value of OUTPUT_DIRECTORY will be 971# If a relative path is entered the value of OUTPUT_DIRECTORY will be
972# put in front of it. If left blank `man' will be used as the default path. 972# put in front of it. If left blank `man' will be used as the default path.
973 973
974MAN_OUTPUT = man 974MAN_OUTPUT = man
975 975
976# The MAN_EXTENSION tag determines the extension that is added to 976# The MAN_EXTENSION tag determines the extension that is added to
977# the generated man pages (default is the subroutine's section .3) 977# the generated man pages (default is the subroutine's section .3)
978 978
979MAN_EXTENSION = .3 979MAN_EXTENSION = .3
980 980
981# If the MAN_LINKS tag is set to YES and Doxygen generates man output, 981# If the MAN_LINKS tag is set to YES and Doxygen generates man output,
982# then it will generate one additional man file for each entity 982# then it will generate one additional man file for each entity
983# documented in the real man page(s). These additional files 983# documented in the real man page(s). These additional files
984# only source the real man page, but without them the man command 984# only source the real man page, but without them the man command
985# would be unable to find the correct page. The default is NO. 985# would be unable to find the correct page. The default is NO.
986 986
987MAN_LINKS = NO 987MAN_LINKS = NO
988 988
989#--------------------------------------------------------------------------- 989#---------------------------------------------------------------------------
990# configuration options related to the XML output 990# configuration options related to the XML output
991#--------------------------------------------------------------------------- 991#---------------------------------------------------------------------------
992 992
993# If the GENERATE_XML tag is set to YES Doxygen will 993# If the GENERATE_XML tag is set to YES Doxygen will
994# generate an XML file that captures the structure of 994# generate an XML file that captures the structure of
995# the code including all documentation. 995# the code including all documentation.
996 996
997GENERATE_XML = NO 997GENERATE_XML = NO
998 998
999# The XML_OUTPUT tag is used to specify where the XML pages will be put. 999# The XML_OUTPUT tag is used to specify where the XML pages will be put.
1000# If a relative path is entered the value of OUTPUT_DIRECTORY will be 1000# If a relative path is entered the value of OUTPUT_DIRECTORY will be
1001# put in front of it. If left blank `xml' will be used as the default path. 1001# put in front of it. If left blank `xml' will be used as the default path.
1002 1002
1003XML_OUTPUT = xml 1003XML_OUTPUT = xml
1004 1004
1005# The XML_SCHEMA tag can be used to specify an XML schema, 1005# The XML_SCHEMA tag can be used to specify an XML schema,
1006# which can be used by a validating XML parser to check the 1006# which can be used by a validating XML parser to check the
1007# syntax of the XML files. 1007# syntax of the XML files.
1008 1008
1009XML_SCHEMA = 1009XML_SCHEMA =
1010 1010
1011# The XML_DTD tag can be used to specify an XML DTD, 1011# The XML_DTD tag can be used to specify an XML DTD,
1012# which can be used by a validating XML parser to check the 1012# which can be used by a validating XML parser to check the
1013# syntax of the XML files. 1013# syntax of the XML files.
1014 1014
1015XML_DTD = 1015XML_DTD =
1016 1016
1017# If the XML_PROGRAMLISTING tag is set to YES Doxygen will 1017# If the XML_PROGRAMLISTING tag is set to YES Doxygen will
1018# dump the program listings (including syntax highlighting 1018# dump the program listings (including syntax highlighting
1019# and cross-referencing information) to the XML output. Note that 1019# and cross-referencing information) to the XML output. Note that
1020# enabling this will significantly increase the size of the XML output. 1020# enabling this will significantly increase the size of the XML output.
1021 1021
1022XML_PROGRAMLISTING = YES 1022XML_PROGRAMLISTING = YES
1023 1023
1024#--------------------------------------------------------------------------- 1024#---------------------------------------------------------------------------
1025# configuration options for the AutoGen Definitions output 1025# configuration options for the AutoGen Definitions output
1026#--------------------------------------------------------------------------- 1026#---------------------------------------------------------------------------
1027 1027
1028# If the GENERATE_AUTOGEN_DEF tag is set to YES Doxygen will 1028# If the GENERATE_AUTOGEN_DEF tag is set to YES Doxygen will
1029# generate an AutoGen Definitions (see autogen.sf.net) file 1029# generate an AutoGen Definitions (see autogen.sf.net) file
1030# that captures the structure of the code including all 1030# that captures the structure of the code including all
1031# documentation. Note that this feature is still experimental 1031# documentation. Note that this feature is still experimental
1032# and incomplete at the moment. 1032# and incomplete at the moment.
1033 1033
1034GENERATE_AUTOGEN_DEF = NO 1034GENERATE_AUTOGEN_DEF = NO
1035 1035
1036#--------------------------------------------------------------------------- 1036#---------------------------------------------------------------------------
1037# configuration options related to the Perl module output 1037# configuration options related to the Perl module output
1038#--------------------------------------------------------------------------- 1038#---------------------------------------------------------------------------
1039 1039
1040# If the GENERATE_PERLMOD tag is set to YES Doxygen will 1040# If the GENERATE_PERLMOD tag is set to YES Doxygen will
1041# generate a Perl module file that captures the structure of 1041# generate a Perl module file that captures the structure of
1042# the code including all documentation. Note that this 1042# the code including all documentation. Note that this
1043# feature is still experimental and incomplete at the 1043# feature is still experimental and incomplete at the
1044# moment. 1044# moment.
1045 1045
1046GENERATE_PERLMOD = NO 1046GENERATE_PERLMOD = NO
1047 1047
1048# If the PERLMOD_LATEX tag is set to YES Doxygen will generate 1048# If the PERLMOD_LATEX tag is set to YES Doxygen will generate
1049# the necessary Makefile rules, Perl scripts and LaTeX code to be able 1049# the necessary Makefile rules, Perl scripts and LaTeX code to be able
1050# to generate PDF and DVI output from the Perl module output. 1050# to generate PDF and DVI output from the Perl module output.
1051 1051
1052PERLMOD_LATEX = NO 1052PERLMOD_LATEX = NO
1053 1053
1054# If the PERLMOD_PRETTY tag is set to YES the Perl module output will be 1054# If the PERLMOD_PRETTY tag is set to YES the Perl module output will be
1055# nicely formatted so it can be parsed by a human reader. This is useful 1055# nicely formatted so it can be parsed by a human reader. This is useful
1056# if you want to understand what is going on. On the other hand, if this 1056# if you want to understand what is going on. On the other hand, if this
1057# tag is set to NO the size of the Perl module output will be much smaller 1057# tag is set to NO the size of the Perl module output will be much smaller
1058# and Perl will parse it just the same. 1058# and Perl will parse it just the same.
1059 1059
1060PERLMOD_PRETTY = YES 1060PERLMOD_PRETTY = YES
1061 1061
1062# The names of the make variables in the generated doxyrules.make file 1062# The names of the make variables in the generated doxyrules.make file
1063# are prefixed with the string contained in PERLMOD_MAKEVAR_PREFIX. 1063# are prefixed with the string contained in PERLMOD_MAKEVAR_PREFIX.
1064# This is useful so different doxyrules.make files included by the same 1064# This is useful so different doxyrules.make files included by the same
1065# Makefile don't overwrite each other's variables. 1065# Makefile don't overwrite each other's variables.
1066 1066
1067PERLMOD_MAKEVAR_PREFIX = 1067PERLMOD_MAKEVAR_PREFIX =
1068 1068
1069#--------------------------------------------------------------------------- 1069#---------------------------------------------------------------------------
1070# Configuration options related to the preprocessor 1070# Configuration options related to the preprocessor
1071#--------------------------------------------------------------------------- 1071#---------------------------------------------------------------------------
1072 1072
1073# If the ENABLE_PREPROCESSING tag is set to YES (the default) Doxygen will 1073# If the ENABLE_PREPROCESSING tag is set to YES (the default) Doxygen will
1074# evaluate all C-preprocessor directives found in the sources and include 1074# evaluate all C-preprocessor directives found in the sources and include
1075# files. 1075# files.
1076 1076
1077ENABLE_PREPROCESSING = YES 1077ENABLE_PREPROCESSING = YES
1078 1078
1079# If the MACRO_EXPANSION tag is set to YES Doxygen will expand all macro 1079# If the MACRO_EXPANSION tag is set to YES Doxygen will expand all macro
1080# names in the source code. If set to NO (the default) only conditional 1080# names in the source code. If set to NO (the default) only conditional
1081# compilation will be performed. Macro expansion can be done in a controlled 1081# compilation will be performed. Macro expansion can be done in a controlled
1082# way by setting EXPAND_ONLY_PREDEF to YES. 1082# way by setting EXPAND_ONLY_PREDEF to YES.
1083 1083
1084MACRO_EXPANSION = NO 1084MACRO_EXPANSION = NO
1085 1085
1086# If the EXPAND_ONLY_PREDEF and MACRO_EXPANSION tags are both set to YES 1086# If the EXPAND_ONLY_PREDEF and MACRO_EXPANSION tags are both set to YES
1087# then the macro expansion is limited to the macros specified with the 1087# then the macro expansion is limited to the macros specified with the
1088# PREDEFINED and EXPAND_AS_DEFINED tags. 1088# PREDEFINED and EXPAND_AS_DEFINED tags.
1089 1089
1090EXPAND_ONLY_PREDEF = NO 1090EXPAND_ONLY_PREDEF = NO
1091 1091
1092# If the SEARCH_INCLUDES tag is set to YES (the default) the includes files 1092# If the SEARCH_INCLUDES tag is set to YES (the default) the includes files
1093# in the INCLUDE_PATH (see below) will be search if a #include is found. 1093# in the INCLUDE_PATH (see below) will be search if a #include is found.
1094 1094
1095SEARCH_INCLUDES = YES 1095SEARCH_INCLUDES = YES
1096 1096
1097# The INCLUDE_PATH tag can be used to specify one or more directories that 1097# The INCLUDE_PATH tag can be used to specify one or more directories that
1098# contain include files that are not input files but should be processed by 1098# contain include files that are not input files but should be processed by
1099# the preprocessor. 1099# the preprocessor.
1100 1100
1101INCLUDE_PATH = 1101INCLUDE_PATH =
1102 1102
1103# You can use the INCLUDE_FILE_PATTERNS tag to specify one or more wildcard 1103# You can use the INCLUDE_FILE_PATTERNS tag to specify one or more wildcard
1104# patterns (like *.h and *.hpp) to filter out the header-files in the 1104# patterns (like *.h and *.hpp) to filter out the header-files in the
1105# directories. If left blank, the patterns specified with FILE_PATTERNS will 1105# directories. If left blank, the patterns specified with FILE_PATTERNS will
1106# be used. 1106# be used.
1107 1107
1108INCLUDE_FILE_PATTERNS = 1108INCLUDE_FILE_PATTERNS =
1109 1109
1110# The PREDEFINED tag can be used to specify one or more macro names that 1110# The PREDEFINED tag can be used to specify one or more macro names that
1111# are defined before the preprocessor is started (similar to the -D option of 1111# are defined before the preprocessor is started (similar to the -D option of
1112# gcc). The argument of the tag is a list of macros of the form: name 1112# gcc). The argument of the tag is a list of macros of the form: name
1113# or name=definition (no spaces). If the definition and the = are 1113# or name=definition (no spaces). If the definition and the = are
1114# omitted =1 is assumed. To prevent a macro definition from being 1114# omitted =1 is assumed. To prevent a macro definition from being
1115# undefined via #undef or recursively expanded use the := operator 1115# undefined via #undef or recursively expanded use the := operator
1116# instead of the = operator. 1116# instead of the = operator.
1117 1117
1118PREDEFINED = 1118PREDEFINED =
1119 1119
1120# If the MACRO_EXPANSION and EXPAND_ONLY_PREDEF tags are set to YES then 1120# If the MACRO_EXPANSION and EXPAND_ONLY_PREDEF tags are set to YES then
1121# this tag can be used to specify a list of macro names that should be expanded. 1121# this tag can be used to specify a list of macro names that should be expanded.
1122# The macro definition that is found in the sources will be used. 1122# The macro definition that is found in the sources will be used.
1123# Use the PREDEFINED tag if you want to use a different macro definition. 1123# Use the PREDEFINED tag if you want to use a different macro definition.
1124 1124
1125EXPAND_AS_DEFINED = 1125EXPAND_AS_DEFINED =
1126 1126
1127# If the SKIP_FUNCTION_MACROS tag is set to YES (the default) then 1127# If the SKIP_FUNCTION_MACROS tag is set to YES (the default) then
1128# doxygen's preprocessor will remove all function-like macros that are alone 1128# doxygen's preprocessor will remove all function-like macros that are alone
1129# on a line, have an all uppercase name, and do not end with a semicolon. Such 1129# on a line, have an all uppercase name, and do not end with a semicolon. Such
1130# function macros are typically used for boiler-plate code, and will confuse 1130# function macros are typically used for boiler-plate code, and will confuse
1131# the parser if not removed. 1131# the parser if not removed.
1132 1132
1133SKIP_FUNCTION_MACROS = YES 1133SKIP_FUNCTION_MACROS = YES
1134 1134
1135#--------------------------------------------------------------------------- 1135#---------------------------------------------------------------------------
1136# Configuration::additions related to external references 1136# Configuration::additions related to external references
1137#--------------------------------------------------------------------------- 1137#---------------------------------------------------------------------------
1138 1138
1139# The TAGFILES option can be used to specify one or more tagfiles. 1139# The TAGFILES option can be used to specify one or more tagfiles.
1140# Optionally an initial location of the external documentation 1140# Optionally an initial location of the external documentation
1141# can be added for each tagfile. The format of a tag file without 1141# can be added for each tagfile. The format of a tag file without
1142# this location is as follows: 1142# this location is as follows:
1143# TAGFILES = file1 file2 ... 1143# TAGFILES = file1 file2 ...
1144# Adding location for the tag files is done as follows: 1144# Adding location for the tag files is done as follows:
1145# TAGFILES = file1=loc1 "file2 = loc2" ... 1145# TAGFILES = file1=loc1 "file2 = loc2" ...
1146# where "loc1" and "loc2" can be relative or absolute paths or 1146# where "loc1" and "loc2" can be relative or absolute paths or
1147# URLs. If a location is present for each tag, the installdox tool 1147# URLs. If a location is present for each tag, the installdox tool
1148# does not have to be run to correct the links. 1148# does not have to be run to correct the links.
1149# Note that each tag file must have a unique name 1149# Note that each tag file must have a unique name
1150# (where the name does NOT include the path) 1150# (where the name does NOT include the path)
1151# If a tag file is not located in the directory in which doxygen 1151# If a tag file is not located in the directory in which doxygen
1152# is run, you must also specify the path to the tagfile here. 1152# is run, you must also specify the path to the tagfile here.
1153 1153
1154TAGFILES = 1154TAGFILES =
1155 1155
1156# When a file name is specified after GENERATE_TAGFILE, doxygen will create 1156# When a file name is specified after GENERATE_TAGFILE, doxygen will create
1157# a tag file that is based on the input files it reads. 1157# a tag file that is based on the input files it reads.
1158 1158
1159GENERATE_TAGFILE = 1159GENERATE_TAGFILE =
1160 1160
1161# If the ALLEXTERNALS tag is set to YES all external classes will be listed 1161# If the ALLEXTERNALS tag is set to YES all external classes will be listed
1162# in the class index. If set to NO only the inherited external classes 1162# in the class index. If set to NO only the inherited external classes
1163# will be listed. 1163# will be listed.
1164 1164
1165ALLEXTERNALS = NO 1165ALLEXTERNALS = NO
1166 1166
1167# If the EXTERNAL_GROUPS tag is set to YES all external groups will be listed 1167# If the EXTERNAL_GROUPS tag is set to YES all external groups will be listed
1168# in the modules index. If set to NO, only the current project's groups will 1168# in the modules index. If set to NO, only the current project's groups will
1169# be listed. 1169# be listed.
1170 1170
1171EXTERNAL_GROUPS = YES 1171EXTERNAL_GROUPS = YES
1172 1172
1173# The PERL_PATH should be the absolute path and name of the perl script 1173# The PERL_PATH should be the absolute path and name of the perl script
1174# interpreter (i.e. the result of `which perl'). 1174# interpreter (i.e. the result of `which perl').
1175 1175
1176PERL_PATH = /usr/bin/perl 1176PERL_PATH = /usr/bin/perl
1177 1177
1178#--------------------------------------------------------------------------- 1178#---------------------------------------------------------------------------
1179# Configuration options related to the dot tool 1179# Configuration options related to the dot tool
1180#--------------------------------------------------------------------------- 1180#---------------------------------------------------------------------------
1181 1181
1182# If the CLASS_DIAGRAMS tag is set to YES (the default) Doxygen will 1182# If the CLASS_DIAGRAMS tag is set to YES (the default) Doxygen will
1183# generate a inheritance diagram (in HTML, RTF and LaTeX) for classes with base 1183# generate a inheritance diagram (in HTML, RTF and LaTeX) for classes with base
1184# or super classes. Setting the tag to NO turns the diagrams off. Note that 1184# or super classes. Setting the tag to NO turns the diagrams off. Note that
1185# this option is superseded by the HAVE_DOT option below. This is only a 1185# this option is superseded by the HAVE_DOT option below. This is only a
1186# fallback. It is recommended to install and use dot, since it yields more 1186# fallback. It is recommended to install and use dot, since it yields more
1187# powerful graphs. 1187# powerful graphs.
1188 1188
1189CLASS_DIAGRAMS = YES 1189CLASS_DIAGRAMS = YES
1190 1190
1191# You can define message sequence charts within doxygen comments using the \msc 1191# You can define message sequence charts within doxygen comments using the \msc
1192# command. Doxygen will then run the mscgen tool (see 1192# command. Doxygen will then run the mscgen tool (see
1193# http://www.mcternan.me.uk/mscgen/) to produce the chart and insert it in the 1193# http://www.mcternan.me.uk/mscgen/) to produce the chart and insert it in the
1194# documentation. The MSCGEN_PATH tag allows you to specify the directory where 1194# documentation. The MSCGEN_PATH tag allows you to specify the directory where
1195# the mscgen tool resides. If left empty the tool is assumed to be found in the 1195# the mscgen tool resides. If left empty the tool is assumed to be found in the
1196# default search path. 1196# default search path.
1197 1197
1198MSCGEN_PATH = 1198MSCGEN_PATH =
1199 1199
1200# If set to YES, the inheritance and collaboration graphs will hide 1200# If set to YES, the inheritance and collaboration graphs will hide
1201# inheritance and usage relations if the target is undocumented 1201# inheritance and usage relations if the target is undocumented
1202# or is not a class. 1202# or is not a class.
1203 1203
1204HIDE_UNDOC_RELATIONS = YES 1204HIDE_UNDOC_RELATIONS = YES
1205 1205
1206# If you set the HAVE_DOT tag to YES then doxygen will assume the dot tool is 1206# If you set the HAVE_DOT tag to YES then doxygen will assume the dot tool is
1207# available from the path. This tool is part of Graphviz, a graph visualization 1207# available from the path. This tool is part of Graphviz, a graph visualization
1208# toolkit from AT&T and Lucent Bell Labs. The other options in this section 1208# toolkit from AT&T and Lucent Bell Labs. The other options in this section
1209# have no effect if this option is set to NO (the default) 1209# have no effect if this option is set to NO (the default)
1210 1210
1211HAVE_DOT = NO 1211HAVE_DOT = NO
1212 1212
1213# If the CLASS_GRAPH and HAVE_DOT tags are set to YES then doxygen 1213# If the CLASS_GRAPH and HAVE_DOT tags are set to YES then doxygen
1214# will generate a graph for each documented class showing the direct and 1214# will generate a graph for each documented class showing the direct and
1215# indirect inheritance relations. Setting this tag to YES will force the 1215# indirect inheritance relations. Setting this tag to YES will force the
1216# the CLASS_DIAGRAMS tag to NO. 1216# the CLASS_DIAGRAMS tag to NO.
1217 1217
1218CLASS_GRAPH = YES 1218CLASS_GRAPH = YES
1219 1219
1220# If the COLLABORATION_GRAPH and HAVE_DOT tags are set to YES then doxygen 1220# If the COLLABORATION_GRAPH and HAVE_DOT tags are set to YES then doxygen
1221# will generate a graph for each documented class showing the direct and 1221# will generate a graph for each documented class showing the direct and
1222# indirect implementation dependencies (inheritance, containment, and 1222# indirect implementation dependencies (inheritance, containment, and
1223# class references variables) of the class with other documented classes. 1223# class references variables) of the class with other documented classes.
1224 1224
1225COLLABORATION_GRAPH = YES 1225COLLABORATION_GRAPH = YES
1226 1226
1227# If the GROUP_GRAPHS and HAVE_DOT tags are set to YES then doxygen 1227# If the GROUP_GRAPHS and HAVE_DOT tags are set to YES then doxygen
1228# will generate a graph for groups, showing the direct groups dependencies 1228# will generate a graph for groups, showing the direct groups dependencies
1229 1229
1230GROUP_GRAPHS = YES 1230GROUP_GRAPHS = YES
1231 1231
1232# If the UML_LOOK tag is set to YES doxygen will generate inheritance and 1232# If the UML_LOOK tag is set to YES doxygen will generate inheritance and
1233# collaboration diagrams in a style similar to the OMG's Unified Modeling 1233# collaboration diagrams in a style similar to the OMG's Unified Modeling
1234# Language. 1234# Language.
1235 1235
1236UML_LOOK = NO 1236UML_LOOK = NO
1237 1237
1238# If set to YES, the inheritance and collaboration graphs will show the 1238# If set to YES, the inheritance and collaboration graphs will show the
1239# relations between templates and their instances. 1239# relations between templates and their instances.
1240 1240
1241TEMPLATE_RELATIONS = NO 1241TEMPLATE_RELATIONS = NO
1242 1242
1243# If the ENABLE_PREPROCESSING, SEARCH_INCLUDES, INCLUDE_GRAPH, and HAVE_DOT 1243# If the ENABLE_PREPROCESSING, SEARCH_INCLUDES, INCLUDE_GRAPH, and HAVE_DOT
1244# tags are set to YES then doxygen will generate a graph for each documented 1244# tags are set to YES then doxygen will generate a graph for each documented
1245# file showing the direct and indirect include dependencies of the file with 1245# file showing the direct and indirect include dependencies of the file with
1246# other documented files. 1246# other documented files.
1247 1247
1248INCLUDE_GRAPH = YES 1248INCLUDE_GRAPH = YES
1249 1249
1250# If the ENABLE_PREPROCESSING, SEARCH_INCLUDES, INCLUDED_BY_GRAPH, and 1250# If the ENABLE_PREPROCESSING, SEARCH_INCLUDES, INCLUDED_BY_GRAPH, and
1251# HAVE_DOT tags are set to YES then doxygen will generate a graph for each 1251# HAVE_DOT tags are set to YES then doxygen will generate a graph for each
1252# documented header file showing the documented files that directly or 1252# documented header file showing the documented files that directly or
1253# indirectly include this file. 1253# indirectly include this file.
1254 1254
1255INCLUDED_BY_GRAPH = YES 1255INCLUDED_BY_GRAPH = YES
1256 1256
1257# If the CALL_GRAPH and HAVE_DOT options are set to YES then 1257# If the CALL_GRAPH and HAVE_DOT options are set to YES then
1258# doxygen will generate a call dependency graph for every global function 1258# doxygen will generate a call dependency graph for every global function
1259# or class method. Note that enabling this option will significantly increase 1259# or class method. Note that enabling this option will significantly increase
1260# the time of a run. So in most cases it will be better to enable call graphs 1260# the time of a run. So in most cases it will be better to enable call graphs
1261# for selected functions only using the \callgraph command. 1261# for selected functions only using the \callgraph command.
1262 1262
1263CALL_GRAPH = NO 1263CALL_GRAPH = NO
1264 1264
1265# If the CALLER_GRAPH and HAVE_DOT tags are set to YES then 1265# If the CALLER_GRAPH and HAVE_DOT tags are set to YES then
1266# doxygen will generate a caller dependency graph for every global function 1266# doxygen will generate a caller dependency graph for every global function
1267# or class method. Note that enabling this option will significantly increase 1267# or class method. Note that enabling this option will significantly increase
1268# the time of a run. So in most cases it will be better to enable caller 1268# the time of a run. So in most cases it will be better to enable caller
1269# graphs for selected functions only using the \callergraph command. 1269# graphs for selected functions only using the \callergraph command.
1270 1270
1271CALLER_GRAPH = NO 1271CALLER_GRAPH = NO
1272 1272
1273# If the GRAPHICAL_HIERARCHY and HAVE_DOT tags are set to YES then doxygen 1273# If the GRAPHICAL_HIERARCHY and HAVE_DOT tags are set to YES then doxygen
1274# will graphical hierarchy of all classes instead of a textual one. 1274# will graphical hierarchy of all classes instead of a textual one.
1275 1275
1276GRAPHICAL_HIERARCHY = YES 1276GRAPHICAL_HIERARCHY = YES
1277 1277
1278# If the DIRECTORY_GRAPH, SHOW_DIRECTORIES and HAVE_DOT tags are set to YES 1278# If the DIRECTORY_GRAPH, SHOW_DIRECTORIES and HAVE_DOT tags are set to YES
1279# then doxygen will show the dependencies a directory has on other directories 1279# then doxygen will show the dependencies a directory has on other directories
1280# in a graphical way. The dependency relations are determined by the #include 1280# in a graphical way. The dependency relations are determined by the #include
1281# relations between the files in the directories. 1281# relations between the files in the directories.
1282 1282
1283DIRECTORY_GRAPH = YES 1283DIRECTORY_GRAPH = YES
1284 1284
1285# The DOT_IMAGE_FORMAT tag can be used to set the image format of the images 1285# The DOT_IMAGE_FORMAT tag can be used to set the image format of the images
1286# generated by dot. Possible values are png, jpg, or gif 1286# generated by dot. Possible values are png, jpg, or gif
1287# If left blank png will be used. 1287# If left blank png will be used.
1288 1288
1289DOT_IMAGE_FORMAT = png 1289DOT_IMAGE_FORMAT = png
1290 1290
1291# The tag DOT_PATH can be used to specify the path where the dot tool can be 1291# The tag DOT_PATH can be used to specify the path where the dot tool can be
1292# found. If left blank, it is assumed the dot tool can be found in the path. 1292# found. If left blank, it is assumed the dot tool can be found in the path.
1293 1293
1294DOT_PATH = 1294DOT_PATH =
1295 1295
1296# The DOTFILE_DIRS tag can be used to specify one or more directories that 1296# The DOTFILE_DIRS tag can be used to specify one or more directories that
1297# contain dot files that are included in the documentation (see the 1297# contain dot files that are included in the documentation (see the
1298# \dotfile command). 1298# \dotfile command).
1299 1299
1300DOTFILE_DIRS = 1300DOTFILE_DIRS =
1301 1301
1302# The MAX_DOT_GRAPH_MAX_NODES tag can be used to set the maximum number of 1302# The MAX_DOT_GRAPH_MAX_NODES tag can be used to set the maximum number of
1303# nodes that will be shown in the graph. If the number of nodes in a graph 1303# nodes that will be shown in the graph. If the number of nodes in a graph
1304# becomes larger than this value, doxygen will truncate the graph, which is 1304# becomes larger than this value, doxygen will truncate the graph, which is
1305# visualized by representing a node as a red box. Note that doxygen if the 1305# visualized by representing a node as a red box. Note that doxygen if the
1306# number of direct children of the root node in a graph is already larger than 1306# number of direct children of the root node in a graph is already larger than
1307# DOT_GRAPH_MAX_NODES then the graph will not be shown at all. Also note 1307# DOT_GRAPH_MAX_NODES then the graph will not be shown at all. Also note
1308# that the size of a graph can be further restricted by MAX_DOT_GRAPH_DEPTH. 1308# that the size of a graph can be further restricted by MAX_DOT_GRAPH_DEPTH.
1309 1309
1310DOT_GRAPH_MAX_NODES = 50 1310DOT_GRAPH_MAX_NODES = 50
1311 1311
1312# The MAX_DOT_GRAPH_DEPTH tag can be used to set the maximum depth of the 1312# The MAX_DOT_GRAPH_DEPTH tag can be used to set the maximum depth of the
1313# graphs generated by dot. A depth value of 3 means that only nodes reachable 1313# graphs generated by dot. A depth value of 3 means that only nodes reachable
1314# from the root by following a path via at most 3 edges will be shown. Nodes 1314# from the root by following a path via at most 3 edges will be shown. Nodes
1315# that lay further from the root node will be omitted. Note that setting this 1315# that lay further from the root node will be omitted. Note that setting this
1316# option to 1 or 2 may greatly reduce the computation time needed for large 1316# option to 1 or 2 may greatly reduce the computation time needed for large
1317# code bases. Also note that the size of a graph can be further restricted by 1317# code bases. Also note that the size of a graph can be further restricted by
1318# DOT_GRAPH_MAX_NODES. Using a depth of 0 means no depth restriction. 1318# DOT_GRAPH_MAX_NODES. Using a depth of 0 means no depth restriction.
1319 1319
1320MAX_DOT_GRAPH_DEPTH = 0 1320MAX_DOT_GRAPH_DEPTH = 0
1321 1321
1322# Set the DOT_TRANSPARENT tag to YES to generate images with a transparent 1322# Set the DOT_TRANSPARENT tag to YES to generate images with a transparent
1323# background. This is enabled by default, which results in a transparent 1323# background. This is enabled by default, which results in a transparent
1324# background. Warning: Depending on the platform used, enabling this option 1324# background. Warning: Depending on the platform used, enabling this option
1325# may lead to badly anti-aliased labels on the edges of a graph (i.e. they 1325# may lead to badly anti-aliased labels on the edges of a graph (i.e. they
1326# become hard to read). 1326# become hard to read).
1327 1327
1328DOT_TRANSPARENT = YES 1328DOT_TRANSPARENT = YES
1329 1329
1330# Set the DOT_MULTI_TARGETS tag to YES allow dot to generate multiple output 1330# Set the DOT_MULTI_TARGETS tag to YES allow dot to generate multiple output
1331# files in one run (i.e. multiple -o and -T options on the command line). This 1331# files in one run (i.e. multiple -o and -T options on the command line). This
1332# makes dot run faster, but since only newer versions of dot (>1.8.10) 1332# makes dot run faster, but since only newer versions of dot (>1.8.10)
1333# support this, this feature is disabled by default. 1333# support this, this feature is disabled by default.
1334 1334
1335DOT_MULTI_TARGETS = NO 1335DOT_MULTI_TARGETS = NO
1336 1336
1337# If the GENERATE_LEGEND tag is set to YES (the default) Doxygen will 1337# If the GENERATE_LEGEND tag is set to YES (the default) Doxygen will
1338# generate a legend page explaining the meaning of the various boxes and 1338# generate a legend page explaining the meaning of the various boxes and
1339# arrows in the dot generated graphs. 1339# arrows in the dot generated graphs.
1340 1340
1341GENERATE_LEGEND = YES 1341GENERATE_LEGEND = YES
1342 1342
1343# If the DOT_CLEANUP tag is set to YES (the default) Doxygen will 1343# If the DOT_CLEANUP tag is set to YES (the default) Doxygen will
1344# remove the intermediate dot files that are used to generate 1344# remove the intermediate dot files that are used to generate
1345# the various graphs. 1345# the various graphs.
1346 1346
1347DOT_CLEANUP = YES 1347DOT_CLEANUP = YES
1348 1348
1349#--------------------------------------------------------------------------- 1349#---------------------------------------------------------------------------
1350# Configuration::additions related to the search engine 1350# Configuration::additions related to the search engine
1351#--------------------------------------------------------------------------- 1351#---------------------------------------------------------------------------
1352 1352
1353# The SEARCHENGINE tag specifies whether or not a search engine should be 1353# The SEARCHENGINE tag specifies whether or not a search engine should be
1354# used. If set to NO the values of all tags below this one will be ignored. 1354# used. If set to NO the values of all tags below this one will be ignored.
1355 1355
1356SEARCHENGINE = YES 1356SEARCHENGINE = YES
diff --git a/update-svn-properties.py b/update-svn-properties.py
index 8cb564d..01480e5 100755
--- a/update-svn-properties.py
+++ b/update-svn-properties.py
@@ -45,6 +45,7 @@ property_map = {
45 ".build" : text, 45 ".build" : text,
46 ".cfg" : text, 46 ".cfg" : text,
47 ".cgi" : text, 47 ".cgi" : text,
48 ".conf" : text,
48 ".config" : text, 49 ".config" : text,
49 ".cs" : text, 50 ".cs" : text,
50 ".csproj" : text, 51 ".csproj" : text,
generated by cgit v1.1 at 2024-06-17 17:07:43 +0000