From d21da7aa2b7dec189e633ea6956982a5a721e9bd Mon Sep 17 00:00:00 2001 From: Jeff Ames Date: Mon, 27 Jul 2009 08:12:04 +0000 Subject: Update svn properties. --- bin/OpenMetaverseTypes.XML | 3704 ++++++++++++++++++++++---------------------- 1 file changed, 1852 insertions(+), 1852 deletions(-) (limited to 'bin/OpenMetaverseTypes.XML') diff --git a/bin/OpenMetaverseTypes.XML b/bin/OpenMetaverseTypes.XML index d716379..d60ffdb 100644 --- a/bin/OpenMetaverseTypes.XML +++ b/bin/OpenMetaverseTypes.XML @@ -1,1852 +1,1852 @@ - - - - OpenMetaverseTypes - - - - - A three-dimensional vector with doubleing-point values - - - - X value - - - Y value - - - Z value - - - - Constructor, builds a vector from a byte array - - Byte array containing three eight-byte doubles - Beginning position in the byte array - - - - Test if this vector is equal to another vector, within a given - tolerance range - - Vector to test against - The acceptable magnitude of difference - between the two vectors - True if the magnitude of difference between the two vectors - is less than the given tolerance, otherwise false - - - - IComparable.CompareTo implementation - - - - - Test if this vector is composed of all finite numbers - - - - - Builds a vector from a byte array - - Byte array containing a 24 byte vector - Beginning position in the byte array - - - - Returns the raw bytes for this vector - - A 24 byte array containing X, Y, and Z - - - - Writes the raw bytes for this vector to a byte array - - Destination byte array - Position in the destination array to start - writing. Must be at least 24 bytes before the end of the array - - - - Parse a vector from a string - - A string representation of a 3D vector, enclosed - in arrow brackets and separated by commas - - - - Interpolates between two vectors using a cubic equation - - - - - Get a formatted string representation of the vector - - A string representation of the vector - - - - Get a string representation of the vector elements with up to three - decimal digits and separated by spaces only - - Raw string representation of the vector - - - - Cross product between two vectors - - - - A vector with a value of 0,0,0 - - - A vector with a value of 1,1,1 - - - A unit vector facing forward (X axis), value of 1,0,0 - - - A unit vector facing left (Y axis), value of 0,1,0 - - - A unit vector facing up (Z axis), value of 0,0,1 - - - - The different types of grid assets - - - - Unknown asset type - - - Texture asset, stores in JPEG2000 J2C stream format - - - Sound asset - - - Calling card for another avatar - - - Link to a location in world - - - Collection of textures and parameters that can be - worn by an avatar - - - Primitive that can contain textures, sounds, - scripts and more - - - Notecard asset - - - Holds a collection of inventory items - - - Root inventory folder - - - Linden scripting language script - - - LSO bytecode for a script - - - Uncompressed TGA texture - - - Collection of textures and shape parameters that can - be worn - - - Trash folder - - - Snapshot folder - - - Lost and found folder - - - Uncompressed sound - - - Uncompressed TGA non-square image, not to be used as a - texture - - - Compressed JPEG non-square image, not to be used as a - texture - - - Animation - - - Sequence of animations, sounds, chat, and pauses - - - Simstate file - - - - Inventory Item Types, eg Script, Notecard, Folder, etc - - - - Unknown - - - Texture - - - Sound - - - Calling Card - - - Landmark - - - Notecard - - - - - - Folder - - - - - - an LSL Script - - - - - - - - - - - - - - - - - - - Item Sale Status - - - - Not for sale - - - The original is for sale - - - Copies are for sale - - - The contents of the object are for sale - - - - Types of wearable assets - - - - Body shape - - - Skin textures and attributes - - - Hair - - - Eyes - - - Shirt - - - Pants - - - Shoes - - - Socks - - - Jacket - - - Gloves - - - Undershirt - - - Underpants - - - Skirt - - - Invalid wearable asset - - - - Same as Queue except Dequeue function blocks until there is an object to return. - Note: This class does not need to be synchronized - - - - - Create new BlockingQueue. - - The System.Collections.ICollection to copy elements from - - - - Create new BlockingQueue. - - The initial number of elements that the queue can contain - - - - Create new BlockingQueue. - - - - - BlockingQueue Destructor (Close queue, resume any waiting thread). - - - - - Remove all objects from the Queue. - - - - - Remove all objects from the Queue, resume all dequeue threads. - - - - - Removes and returns the object at the beginning of the Queue. - - Object in queue. - - - - Removes and returns the object at the beginning of the Queue. - - time to wait before returning - Object in queue. - - - - Removes and returns the object at the beginning of the Queue. - - time to wait before returning (in milliseconds) - Object in queue. - - - - Adds an object to the end of the Queue - - Object to put in queue - - - - Open Queue. - - - - - Gets flag indicating if queue has been closed. - - - - For thread safety - - - For thread safety - - - - Purges expired objects from the cache. Called automatically by the purge timer. - - - - - A 128-bit Universally Unique Identifier, used throughout the Second - Life networking protocol - - - - The System.Guid object this struct wraps around - - - - Constructor that takes a string UUID representation - - A string representation of a UUID, case - insensitive and can either be hyphenated or non-hyphenated - UUID("11f8aa9c-b071-4242-836b-13b7abe0d489") - - - - Constructor that takes a System.Guid object - - A Guid object that contains the unique identifier - to be represented by this UUID - - - - Constructor that takes a byte array containing a UUID - - Byte array containing a 16 byte UUID - Beginning offset in the array - - - - Constructor that takes an unsigned 64-bit unsigned integer to - convert to a UUID - - 64-bit unsigned integer to convert to a UUID - - - - Copy constructor - - UUID to copy - - - - IComparable.CompareTo implementation - - - - - Assigns this UUID from 16 bytes out of a byte array - - Byte array containing the UUID to assign this UUID to - Starting position of the UUID in the byte array - - - - Returns a copy of the raw bytes for this UUID - - A 16 byte array containing this UUID - - - - Writes the raw bytes for this UUID to a byte array - - Destination byte array - Position in the destination array to start - writing. Must be at least 16 bytes before the end of the array - - - - Calculate an LLCRC (cyclic redundancy check) for this UUID - - The CRC checksum for this UUID - - - - Create a 64-bit integer representation from the second half of this UUID - - An integer created from the last eight bytes of this UUID - - - - Generate a UUID from a string - - A string representation of a UUID, case - insensitive and can either be hyphenated or non-hyphenated - UUID.Parse("11f8aa9c-b071-4242-836b-13b7abe0d489") - - - - Generate a UUID from a string - - A string representation of a UUID, case - insensitive and can either be hyphenated or non-hyphenated - Will contain the parsed UUID if successful, - otherwise null - True if the string was successfully parse, otherwise false - UUID.TryParse("11f8aa9c-b071-4242-836b-13b7abe0d489", result) - - - - Combine two UUIDs together by taking the MD5 hash of a byte array - containing both UUIDs - - First UUID to combine - Second UUID to combine - The UUID product of the combination - - - - - - - - - - Return a hash code for this UUID, used by .NET for hash tables - - An integer composed of all the UUID bytes XORed together - - - - Comparison function - - An object to compare to this UUID - True if the object is a UUID and both UUIDs are equal - - - - Comparison function - - UUID to compare to - True if the UUIDs are equal, otherwise false - - - - Get a hyphenated string representation of this UUID - - A string representation of this UUID, lowercase and - with hyphens - 11f8aa9c-b071-4242-836b-13b7abe0d489 - - - - Equals operator - - First UUID for comparison - Second UUID for comparison - True if the UUIDs are byte for byte equal, otherwise false - - - - Not equals operator - - First UUID for comparison - Second UUID for comparison - True if the UUIDs are not equal, otherwise true - - - - XOR operator - - First UUID - Second UUID - A UUID that is a XOR combination of the two input UUIDs - - - - String typecasting operator - - A UUID in string form. Case insensitive, - hyphenated or non-hyphenated - A UUID built from the string representation - - - An UUID with a value of all zeroes - - - - Convert this matrix to euler rotations - - X euler angle - Y euler angle - Z euler angle - - - - Convert this matrix to a quaternion rotation - - A quaternion representation of this rotation matrix - - - - Construct a matrix from euler rotation values in radians - - X euler angle in radians - Y euler angle in radians - Z euler angle in radians - - - - Get a formatted string representation of the vector - - A string representation of the vector - - - A 4x4 matrix containing all zeroes - - - A 4x4 identity matrix - - - - An 8-bit color structure including an alpha channel - - - - Red - - - Green - - - Blue - - - Alpha - - - - - - - - - - - - - Builds a color from a byte array - - Byte array containing a 16 byte color - Beginning position in the byte array - True if the byte array stores inverted values, - otherwise false. For example the color black (fully opaque) inverted - would be 0xFF 0xFF 0xFF 0x00 - - - - Returns the raw bytes for this vector - - Byte array containing a 16 byte color - Beginning position in the byte array - True if the byte array stores inverted values, - otherwise false. For example the color black (fully opaque) inverted - would be 0xFF 0xFF 0xFF 0x00 - True if the alpha value is inverted in - addition to whatever the inverted parameter is. Setting inverted true - and alphaInverted true will flip the alpha value back to non-inverted, - but keep the other color bytes inverted - A 16 byte array containing R, G, B, and A - - - - Copy constructor - - Color to copy - - - - IComparable.CompareTo implementation - - Sorting ends up like this: |--Grayscale--||--Color--|. - Alpha is only used when the colors are otherwise equivalent - - - - Builds a color from a byte array - - Byte array containing a 16 byte color - Beginning position in the byte array - True if the byte array stores inverted values, - otherwise false. For example the color black (fully opaque) inverted - would be 0xFF 0xFF 0xFF 0x00 - True if the alpha value is inverted in - addition to whatever the inverted parameter is. Setting inverted true - and alphaInverted true will flip the alpha value back to non-inverted, - but keep the other color bytes inverted - - - - Writes the raw bytes for this color to a byte array - - Destination byte array - Position in the destination array to start - writing. Must be at least 16 bytes before the end of the array - - - - Serializes this color into four bytes in a byte array - - Destination byte array - Position in the destination array to start - writing. Must be at least 4 bytes before the end of the array - True to invert the output (1.0 becomes 0 - instead of 255) - - - - Writes the raw bytes for this color to a byte array - - Destination byte array - Position in the destination array to start - writing. Must be at least 16 bytes before the end of the array - - - - Create an RGB color from a hue, saturation, value combination - - Hue - Saturation - Value - An fully opaque RGB color (alpha is 1.0) - - - A Color4 with zero RGB values and fully opaque (alpha 1.0) - - - A Color4 with full RGB values (1.0) and fully opaque (alpha 1.0) - - - X value - - - Y value - - - Z value - - - W value - - - - Build a quaternion from normalized float values - - X value from -1.0 to 1.0 - Y value from -1.0 to 1.0 - Z value from -1.0 to 1.0 - - - - Constructor, builds a quaternion object from a byte array - - Byte array containing four four-byte floats - Offset in the byte array to start reading at - Whether the source data is normalized or - not. If this is true 12 bytes will be read, otherwise 16 bytes will - be read. - - - - Normalizes the quaternion - - - - - Builds a quaternion object from a byte array - - The source byte array - Offset in the byte array to start reading at - Whether the source data is normalized or - not. If this is true 12 bytes will be read, otherwise 16 bytes will - be read. - - - - Normalize this quaternion and serialize it to a byte array - - A 12 byte array containing normalized X, Y, and Z floating - point values in order using little endian byte ordering - - - - Writes the raw bytes for this quaternion to a byte array - - Destination byte array - Position in the destination array to start - writing. Must be at least 12 bytes before the end of the array - - - - Convert this quaternion to euler angles - - X euler angle - Y euler angle - Z euler angle - - - - Convert this quaternion to an angle around an axis - - Unit vector describing the axis - Angle around the axis, in radians - - - - Returns the conjugate (spatial inverse) of a quaternion - - - - - Build a quaternion from an axis and an angle of rotation around - that axis - - - - - Build a quaternion from an axis and an angle of rotation around - that axis - - Axis of rotation - Angle of rotation - - - - Creates a quaternion from a vector containing roll, pitch, and yaw - in radians - - Vector representation of the euler angles in - radians - Quaternion representation of the euler angles - - - - Creates a quaternion from roll, pitch, and yaw euler angles in - radians - - X angle in radians - Y angle in radians - Z angle in radians - Quaternion representation of the euler angles - - - - Conjugates and renormalizes a vector - - - - - Spherical linear interpolation between two quaternions - - - - - Get a string representation of the quaternion elements with up to three - decimal digits and separated by spaces only - - Raw string representation of the quaternion - - - A quaternion with a value of 0,0,0,1 - - - X value - - - Y value - - - Z value - - - W value - - - - Constructor, builds a vector from a byte array - - Byte array containing four four-byte floats - Beginning position in the byte array - - - - Test if this vector is equal to another vector, within a given - tolerance range - - Vector to test against - The acceptable magnitude of difference - between the two vectors - True if the magnitude of difference between the two vectors - is less than the given tolerance, otherwise false - - - - IComparable.CompareTo implementation - - - - - Test if this vector is composed of all finite numbers - - - - - Builds a vector from a byte array - - Byte array containing a 16 byte vector - Beginning position in the byte array - - - - Returns the raw bytes for this vector - - A 16 byte array containing X, Y, Z, and W - - - - Writes the raw bytes for this vector to a byte array - - Destination byte array - Position in the destination array to start - writing. Must be at least 16 bytes before the end of the array - - - - Get a string representation of the vector elements with up to three - decimal digits and separated by spaces only - - Raw string representation of the vector - - - A vector with a value of 0,0,0,0 - - - A vector with a value of 1,1,1,1 - - - A vector with a value of 1,0,0,0 - - - A vector with a value of 0,1,0,0 - - - A vector with a value of 0,0,1,0 - - - A vector with a value of 0,0,0,1 - - - - A three-dimensional vector with floating-point values - - - - X value - - - Y value - - - Z value - - - - Constructor, builds a vector from a byte array - - Byte array containing three four-byte floats - Beginning position in the byte array - - - - Test if this vector is equal to another vector, within a given - tolerance range - - Vector to test against - The acceptable magnitude of difference - between the two vectors - True if the magnitude of difference between the two vectors - is less than the given tolerance, otherwise false - - - - IComparable.CompareTo implementation - - - - - Test if this vector is composed of all finite numbers - - - - - Builds a vector from a byte array - - Byte array containing a 12 byte vector - Beginning position in the byte array - - - - Returns the raw bytes for this vector - - A 12 byte array containing X, Y, and Z - - - - Writes the raw bytes for this vector to a byte array - - Destination byte array - Position in the destination array to start - writing. Must be at least 12 bytes before the end of the array - - - - Parse a vector from a string - - A string representation of a 3D vector, enclosed - in arrow brackets and separated by commas - - - - Calculate the rotation between two vectors - - Normalized directional vector (such as 1,0,0 for forward facing) - Normalized target vector - - - - Interpolates between two vectors using a cubic equation - - - - - Get a formatted string representation of the vector - - A string representation of the vector - - - - Get a string representation of the vector elements with up to three - decimal digits and separated by spaces only - - Raw string representation of the vector - - - - Cross product between two vectors - - - - A vector with a value of 0,0,0 - - - A vector with a value of 1,1,1 - - - A unit vector facing forward (X axis), value 1,0,0 - - - A unit vector facing left (Y axis), value 0,1,0 - - - A unit vector facing up (Z axis), value 0,0,1 - - - - A hierarchical token bucket for bandwidth throttling. See - http://en.wikipedia.org/wiki/Token_bucket for more information - - - - Parent bucket to this bucket, or null if this is a root - bucket - - - Size of the bucket in bytes. If zero, the bucket has - infinite capacity - - - Rate that the bucket fills, in bytes per millisecond. If - zero, the bucket always remains full - - - Number of tokens currently in the bucket - - - Time of the last drip, in system ticks - - - - Default constructor - - Parent bucket if this is a child bucket, or - null if this is a root bucket - Maximum size of the bucket in bytes, or - zero if this bucket has no maximum capacity - Rate that the bucket fills, in bytes per - second. If zero, the bucket always remains full - - - - Remove a given number of tokens from the bucket - - Number of tokens to remove from the bucket - True if the requested number of tokens were removed from - the bucket, otherwise false - - - - Remove a given number of tokens from the bucket - - Number of tokens to remove from the bucket - True if tokens were added to the bucket - during this call, otherwise false - True if the requested number of tokens were removed from - the bucket, otherwise false - - - - Add tokens to the bucket over time. The number of tokens added each - call depends on the length of time that has passed since the last - call to Drip - - True if tokens were added to the bucket, otherwise false - - - - The parent bucket of this bucket, or null if this bucket has no - parent. The parent bucket will limit the aggregate bandwidth of all - of its children buckets - - - - - Maximum burst rate in bytes per second. This is the maximum number - of tokens that can accumulate in the bucket at any one time - - - - - The speed limit of this bucket in bytes per second. This is the - number of tokens that are added to the bucket per second - - Tokens are added to the bucket any time - is called, at the granularity of - the system tick interval (typically around 15-22ms) - - - - The number of bytes that can be sent at this moment. This is the - current number of tokens in the bucket - If this bucket has a parent bucket that does not have - enough tokens for a request, will - return false regardless of the content of this bucket - - - - - A two-dimensional vector with floating-point values - - - - X value - - - Y value - - - - Test if this vector is equal to another vector, within a given - tolerance range - - Vector to test against - The acceptable magnitude of difference - between the two vectors - True if the magnitude of difference between the two vectors - is less than the given tolerance, otherwise false - - - - Test if this vector is composed of all finite numbers - - - - - IComparable.CompareTo implementation - - - - - Builds a vector from a byte array - - Byte array containing two four-byte floats - Beginning position in the byte array - - - - Returns the raw bytes for this vector - - An eight-byte array containing X and Y - - - - Writes the raw bytes for this vector to a byte array - - Destination byte array - Position in the destination array to start - writing. Must be at least 8 bytes before the end of the array - - - - Parse a vector from a string - - A string representation of a 2D vector, enclosed - in arrow brackets and separated by commas - - - - Interpolates between two vectors using a cubic equation - - - - - Get a formatted string representation of the vector - - A string representation of the vector - - - - Get a string representation of the vector elements with up to three - decimal digits and separated by spaces only - - Raw string representation of the vector - - - A vector with a value of 0,0 - - - A vector with a value of 1,1 - - - A vector with a value of 1,0 - - - A vector with a value of 0,1 - - - Used for converting degrees to radians - - - Used for converting radians to degrees - - - - Convert the first two bytes starting in the byte array in - little endian ordering to a signed short integer - - An array two bytes or longer - A signed short integer, will be zero if a short can't be - read at the given position - - - - Convert the first two bytes starting at the given position in - little endian ordering to a signed short integer - - An array two bytes or longer - Position in the array to start reading - A signed short integer, will be zero if a short can't be - read at the given position - - - - Convert the first four bytes starting at the given position in - little endian ordering to a signed integer - - An array four bytes or longer - Position to start reading the int from - A signed integer, will be zero if an int can't be read - at the given position - - - - Convert the first four bytes of the given array in little endian - ordering to a signed integer - - An array four bytes or longer - A signed integer, will be zero if the array contains - less than four bytes - - - - Convert the first eight bytes of the given array in little endian - ordering to a signed long integer - - An array eight bytes or longer - A signed long integer, will be zero if the array contains - less than eight bytes - - - - Convert the first eight bytes starting at the given position in - little endian ordering to a signed long integer - - An array eight bytes or longer - Position to start reading the long from - A signed long integer, will be zero if a long can't be read - at the given position - - - - Convert the first two bytes starting at the given position in - little endian ordering to an unsigned short - - Byte array containing the ushort - Position to start reading the ushort from - An unsigned short, will be zero if a ushort can't be read - at the given position - - - - Convert two bytes in little endian ordering to an unsigned short - - Byte array containing the ushort - An unsigned short, will be zero if a ushort can't be - read - - - - Convert the first four bytes starting at the given position in - little endian ordering to an unsigned integer - - Byte array containing the uint - Position to start reading the uint from - An unsigned integer, will be zero if a uint can't be read - at the given position - - - - Convert the first four bytes of the given array in little endian - ordering to an unsigned integer - - An array four bytes or longer - An unsigned integer, will be zero if the array contains - less than four bytes - - - - Convert the first eight bytes of the given array in little endian - ordering to an unsigned 64-bit integer - - An array eight bytes or longer - An unsigned 64-bit integer, will be zero if the array - contains less than eight bytes - - - - Convert four bytes in little endian ordering to a floating point - value - - Byte array containing a little ending floating - point value - Starting position of the floating point value in - the byte array - Single precision value - - - - Convert an integer to a byte array in little endian format - - The integer to convert - A four byte little endian array - - - - Convert an integer to a byte array in big endian format - - The integer to convert - A four byte big endian array - - - - Convert a 64-bit integer to a byte array in little endian format - - The value to convert - An 8 byte little endian array - - - - Convert a 64-bit unsigned integer to a byte array in little endian - format - - The value to convert - An 8 byte little endian array - - - - Convert a floating point value to four bytes in little endian - ordering - - A floating point value - A four byte array containing the value in little endian - ordering - - - - Converts an unsigned integer to a hexadecimal string - - An unsigned integer to convert to a string - A hexadecimal string 10 characters long - 0x7fffffff - - - - Convert a variable length UTF8 byte array to a string - - The UTF8 encoded byte array to convert - The decoded string - - - - Converts a byte array to a string containing hexadecimal characters - - The byte array to convert to a string - The name of the field to prepend to each - line of the string - A string containing hexadecimal characters on multiple - lines. Each line is prepended with the field name - - - - Converts a byte array to a string containing hexadecimal characters - - The byte array to convert to a string - Number of bytes in the array to parse - A string to prepend to each line of the hex - dump - A string containing hexadecimal characters on multiple - lines. Each line is prepended with the field name - - - - Convert a string to a UTF8 encoded byte array - - The string to convert - A null-terminated UTF8 byte array - - - - Converts a string containing hexadecimal characters to a byte array - - String containing hexadecimal characters - If true, gracefully handles null, empty and - uneven strings as well as stripping unconvertable characters - The converted byte array - - - - Returns true is c is a hexadecimal digit (A-F, a-f, 0-9) - - Character to test - true if hex digit, false if not - - - - Converts 1 or 2 character string into equivalant byte value - - 1 or 2 character string - byte - - - - Convert a float value to a byte given a minimum and maximum range - - Value to convert to a byte - Minimum value range - Maximum value range - A single byte representing the original float value - - - - Convert a byte to a float value given a minimum and maximum range - - Byte array to get the byte from - Position in the byte array the desired byte is at - Minimum value range - Maximum value range - A float value inclusively between lower and upper - - - - Convert a byte to a float value given a minimum and maximum range - - Byte to convert to a float value - Minimum value range - Maximum value range - A float value inclusively between lower and upper - - - - Attempts to parse a floating point value from a string, using an - EN-US number format - - String to parse - Resulting floating point number - True if the parse was successful, otherwise false - - - - Attempts to parse a floating point value from a string, using an - EN-US number format - - String to parse - Resulting floating point number - True if the parse was successful, otherwise false - - - - Tries to parse an unsigned 32-bit integer from a hexadecimal string - - String to parse - Resulting integer - True if the parse was successful, otherwise false - - - - Takes an AssetType and returns the string representation - - The source - The string version of the AssetType - - - - Translate a string name of an AssetType into the proper Type - - A string containing the AssetType name - The AssetType which matches the string name, or AssetType.Unknown if no match was found - - - - Convert an InventoryType to a string - - The to convert - A string representation of the source - - - - Convert a string into a valid InventoryType - - A string representation of the InventoryType to convert - A InventoryType object which matched the type - - - - Convert a SaleType to a string - - The to convert - A string representation of the source - - - - Convert a string into a valid SaleType - - A string representation of the SaleType to convert - A SaleType object which matched the type - - - - Copy a byte array - - Byte array to copy - A copy of the given byte array - - - - Packs to 32-bit unsigned integers in to a 64-bit unsigned integer - - The left-hand (or X) value - The right-hand (or Y) value - A 64-bit integer containing the two 32-bit input values - - - - Unpacks two 32-bit unsigned integers from a 64-bit unsigned integer - - The 64-bit input integer - The left-hand (or X) output value - The right-hand (or Y) output value - - - - Convert an IP address object to an unsigned 32-bit integer - - IP address to convert - 32-bit unsigned integer holding the IP address bits - - - - Gets a unix timestamp for the current time - - An unsigned integer representing a unix timestamp for now - - - - Convert a UNIX timestamp to a native DateTime object - - An unsigned integer representing a UNIX - timestamp - A DateTime object containing the same time specified in - the given timestamp - - - - Convert a UNIX timestamp to a native DateTime object - - A signed integer representing a UNIX - timestamp - A DateTime object containing the same time specified in - the given timestamp - - - - Convert a native DateTime object to a UNIX timestamp - - A DateTime object you want to convert to a - timestamp - An unsigned integer representing a UNIX timestamp - - - - Swap two values - - Type of the values to swap - First value - Second value - - - - Try to parse an enumeration value from a string - - Enumeration type - String value to parse - Enumeration value on success - True if the parsing succeeded, otherwise false - - - - Swaps the high and low words in a byte. Converts aaaabbbb to bbbbaaaa - - Byte to swap the words in - Byte value with the words swapped - - - - Attempts to convert a string representation of a hostname or IP - address to a - - Hostname to convert to an IPAddress - Converted IP address object, or null if the conversion - failed - - - Provide a single instance of the CultureInfo class to - help parsing in situations where the grid assumes an en-us - culture - - - UNIX epoch in DateTime format - - - Provide a single instance of the MD5 class to avoid making - duplicate copies and handle thread safety - - - Provide a single instance of the SHA-1 class to avoid - making duplicate copies and handle thread safety - - - Provide a single instance of a random number generator - to avoid making duplicate copies and handle thread safety - - - - Clamp a given value between a range - - Value to clamp - Minimum allowable value - Maximum allowable value - A value inclusively between lower and upper - - - - Clamp a given value between a range - - Value to clamp - Minimum allowable value - Maximum allowable value - A value inclusively between lower and upper - - - - Clamp a given value between a range - - Value to clamp - Minimum allowable value - Maximum allowable value - A value inclusively between lower and upper - - - - Round a floating-point value to the nearest integer - - Floating point number to round - Integer - - - - Test if a single precision float is a finite number - - - - - Test if a double precision float is a finite number - - - - - Get the distance between two floating-point values - - First value - Second value - The distance between the two values - - - - Compute the MD5 hash for a byte array - - Byte array to compute the hash for - MD5 hash of the input data - - - - Compute the SHA1 hash for a byte array - - Byte array to compute the hash for - SHA1 hash of the input data - - - - Calculate the SHA1 hash of a given string - - The string to hash - The SHA1 hash as a string - - - - Compute the SHA256 hash for a byte array - - Byte array to compute the hash for - SHA256 hash of the input data - - - - Calculate the SHA256 hash of a given string - - The string to hash - The SHA256 hash as a string - - - - Calculate the MD5 hash of a given string - - The password to hash - An MD5 hash in string format, with $1$ prepended - - - - Calculate the MD5 hash of a given string - - The string to hash - The MD5 hash as a string - - - - Generate a random double precision floating point value - - Random value of type double - - - - Get the current running platform - - Enumeration of the current platform we are running on - - - - Get the current running runtime - - Enumeration of the current runtime we are running on - - - - Operating system - - - - Unknown - - - Microsoft Windows - - - Microsoft Windows CE - - - Linux - - - Apple OSX - - - - Runtime platform - - - - .NET runtime - - - Mono runtime: http://www.mono-project.com/ - - - - Determines the appropriate events to set, leaves the locks, and sets the events. - - - - - A routine for lazily creating a event outside the lock (so if errors - happen they are outside the lock and that we don't do much work - while holding a spin lock). If all goes well, reenter the lock and - set 'waitEvent' - - - - - Waits on 'waitEvent' with a timeout of 'millisceondsTimeout. - Before the wait 'numWaiters' is incremented and is restored before leaving this routine. - - - - - Copy constructor - - Circular queue to copy - - - + + + + OpenMetaverseTypes + + + + + A three-dimensional vector with doubleing-point values + + + + X value + + + Y value + + + Z value + + + + Constructor, builds a vector from a byte array + + Byte array containing three eight-byte doubles + Beginning position in the byte array + + + + Test if this vector is equal to another vector, within a given + tolerance range + + Vector to test against + The acceptable magnitude of difference + between the two vectors + True if the magnitude of difference between the two vectors + is less than the given tolerance, otherwise false + + + + IComparable.CompareTo implementation + + + + + Test if this vector is composed of all finite numbers + + + + + Builds a vector from a byte array + + Byte array containing a 24 byte vector + Beginning position in the byte array + + + + Returns the raw bytes for this vector + + A 24 byte array containing X, Y, and Z + + + + Writes the raw bytes for this vector to a byte array + + Destination byte array + Position in the destination array to start + writing. Must be at least 24 bytes before the end of the array + + + + Parse a vector from a string + + A string representation of a 3D vector, enclosed + in arrow brackets and separated by commas + + + + Interpolates between two vectors using a cubic equation + + + + + Get a formatted string representation of the vector + + A string representation of the vector + + + + Get a string representation of the vector elements with up to three + decimal digits and separated by spaces only + + Raw string representation of the vector + + + + Cross product between two vectors + + + + A vector with a value of 0,0,0 + + + A vector with a value of 1,1,1 + + + A unit vector facing forward (X axis), value of 1,0,0 + + + A unit vector facing left (Y axis), value of 0,1,0 + + + A unit vector facing up (Z axis), value of 0,0,1 + + + + The different types of grid assets + + + + Unknown asset type + + + Texture asset, stores in JPEG2000 J2C stream format + + + Sound asset + + + Calling card for another avatar + + + Link to a location in world + + + Collection of textures and parameters that can be + worn by an avatar + + + Primitive that can contain textures, sounds, + scripts and more + + + Notecard asset + + + Holds a collection of inventory items + + + Root inventory folder + + + Linden scripting language script + + + LSO bytecode for a script + + + Uncompressed TGA texture + + + Collection of textures and shape parameters that can + be worn + + + Trash folder + + + Snapshot folder + + + Lost and found folder + + + Uncompressed sound + + + Uncompressed TGA non-square image, not to be used as a + texture + + + Compressed JPEG non-square image, not to be used as a + texture + + + Animation + + + Sequence of animations, sounds, chat, and pauses + + + Simstate file + + + + Inventory Item Types, eg Script, Notecard, Folder, etc + + + + Unknown + + + Texture + + + Sound + + + Calling Card + + + Landmark + + + Notecard + + + + + + Folder + + + + + + an LSL Script + + + + + + + + + + + + + + + + + + + Item Sale Status + + + + Not for sale + + + The original is for sale + + + Copies are for sale + + + The contents of the object are for sale + + + + Types of wearable assets + + + + Body shape + + + Skin textures and attributes + + + Hair + + + Eyes + + + Shirt + + + Pants + + + Shoes + + + Socks + + + Jacket + + + Gloves + + + Undershirt + + + Underpants + + + Skirt + + + Invalid wearable asset + + + + Same as Queue except Dequeue function blocks until there is an object to return. + Note: This class does not need to be synchronized + + + + + Create new BlockingQueue. + + The System.Collections.ICollection to copy elements from + + + + Create new BlockingQueue. + + The initial number of elements that the queue can contain + + + + Create new BlockingQueue. + + + + + BlockingQueue Destructor (Close queue, resume any waiting thread). + + + + + Remove all objects from the Queue. + + + + + Remove all objects from the Queue, resume all dequeue threads. + + + + + Removes and returns the object at the beginning of the Queue. + + Object in queue. + + + + Removes and returns the object at the beginning of the Queue. + + time to wait before returning + Object in queue. + + + + Removes and returns the object at the beginning of the Queue. + + time to wait before returning (in milliseconds) + Object in queue. + + + + Adds an object to the end of the Queue + + Object to put in queue + + + + Open Queue. + + + + + Gets flag indicating if queue has been closed. + + + + For thread safety + + + For thread safety + + + + Purges expired objects from the cache. Called automatically by the purge timer. + + + + + A 128-bit Universally Unique Identifier, used throughout the Second + Life networking protocol + + + + The System.Guid object this struct wraps around + + + + Constructor that takes a string UUID representation + + A string representation of a UUID, case + insensitive and can either be hyphenated or non-hyphenated + UUID("11f8aa9c-b071-4242-836b-13b7abe0d489") + + + + Constructor that takes a System.Guid object + + A Guid object that contains the unique identifier + to be represented by this UUID + + + + Constructor that takes a byte array containing a UUID + + Byte array containing a 16 byte UUID + Beginning offset in the array + + + + Constructor that takes an unsigned 64-bit unsigned integer to + convert to a UUID + + 64-bit unsigned integer to convert to a UUID + + + + Copy constructor + + UUID to copy + + + + IComparable.CompareTo implementation + + + + + Assigns this UUID from 16 bytes out of a byte array + + Byte array containing the UUID to assign this UUID to + Starting position of the UUID in the byte array + + + + Returns a copy of the raw bytes for this UUID + + A 16 byte array containing this UUID + + + + Writes the raw bytes for this UUID to a byte array + + Destination byte array + Position in the destination array to start + writing. Must be at least 16 bytes before the end of the array + + + + Calculate an LLCRC (cyclic redundancy check) for this UUID + + The CRC checksum for this UUID + + + + Create a 64-bit integer representation from the second half of this UUID + + An integer created from the last eight bytes of this UUID + + + + Generate a UUID from a string + + A string representation of a UUID, case + insensitive and can either be hyphenated or non-hyphenated + UUID.Parse("11f8aa9c-b071-4242-836b-13b7abe0d489") + + + + Generate a UUID from a string + + A string representation of a UUID, case + insensitive and can either be hyphenated or non-hyphenated + Will contain the parsed UUID if successful, + otherwise null + True if the string was successfully parse, otherwise false + UUID.TryParse("11f8aa9c-b071-4242-836b-13b7abe0d489", result) + + + + Combine two UUIDs together by taking the MD5 hash of a byte array + containing both UUIDs + + First UUID to combine + Second UUID to combine + The UUID product of the combination + + + + + + + + + + Return a hash code for this UUID, used by .NET for hash tables + + An integer composed of all the UUID bytes XORed together + + + + Comparison function + + An object to compare to this UUID + True if the object is a UUID and both UUIDs are equal + + + + Comparison function + + UUID to compare to + True if the UUIDs are equal, otherwise false + + + + Get a hyphenated string representation of this UUID + + A string representation of this UUID, lowercase and + with hyphens + 11f8aa9c-b071-4242-836b-13b7abe0d489 + + + + Equals operator + + First UUID for comparison + Second UUID for comparison + True if the UUIDs are byte for byte equal, otherwise false + + + + Not equals operator + + First UUID for comparison + Second UUID for comparison + True if the UUIDs are not equal, otherwise true + + + + XOR operator + + First UUID + Second UUID + A UUID that is a XOR combination of the two input UUIDs + + + + String typecasting operator + + A UUID in string form. Case insensitive, + hyphenated or non-hyphenated + A UUID built from the string representation + + + An UUID with a value of all zeroes + + + + Convert this matrix to euler rotations + + X euler angle + Y euler angle + Z euler angle + + + + Convert this matrix to a quaternion rotation + + A quaternion representation of this rotation matrix + + + + Construct a matrix from euler rotation values in radians + + X euler angle in radians + Y euler angle in radians + Z euler angle in radians + + + + Get a formatted string representation of the vector + + A string representation of the vector + + + A 4x4 matrix containing all zeroes + + + A 4x4 identity matrix + + + + An 8-bit color structure including an alpha channel + + + + Red + + + Green + + + Blue + + + Alpha + + + + + + + + + + + + + Builds a color from a byte array + + Byte array containing a 16 byte color + Beginning position in the byte array + True if the byte array stores inverted values, + otherwise false. For example the color black (fully opaque) inverted + would be 0xFF 0xFF 0xFF 0x00 + + + + Returns the raw bytes for this vector + + Byte array containing a 16 byte color + Beginning position in the byte array + True if the byte array stores inverted values, + otherwise false. For example the color black (fully opaque) inverted + would be 0xFF 0xFF 0xFF 0x00 + True if the alpha value is inverted in + addition to whatever the inverted parameter is. Setting inverted true + and alphaInverted true will flip the alpha value back to non-inverted, + but keep the other color bytes inverted + A 16 byte array containing R, G, B, and A + + + + Copy constructor + + Color to copy + + + + IComparable.CompareTo implementation + + Sorting ends up like this: |--Grayscale--||--Color--|. + Alpha is only used when the colors are otherwise equivalent + + + + Builds a color from a byte array + + Byte array containing a 16 byte color + Beginning position in the byte array + True if the byte array stores inverted values, + otherwise false. For example the color black (fully opaque) inverted + would be 0xFF 0xFF 0xFF 0x00 + True if the alpha value is inverted in + addition to whatever the inverted parameter is. Setting inverted true + and alphaInverted true will flip the alpha value back to non-inverted, + but keep the other color bytes inverted + + + + Writes the raw bytes for this color to a byte array + + Destination byte array + Position in the destination array to start + writing. Must be at least 16 bytes before the end of the array + + + + Serializes this color into four bytes in a byte array + + Destination byte array + Position in the destination array to start + writing. Must be at least 4 bytes before the end of the array + True to invert the output (1.0 becomes 0 + instead of 255) + + + + Writes the raw bytes for this color to a byte array + + Destination byte array + Position in the destination array to start + writing. Must be at least 16 bytes before the end of the array + + + + Create an RGB color from a hue, saturation, value combination + + Hue + Saturation + Value + An fully opaque RGB color (alpha is 1.0) + + + A Color4 with zero RGB values and fully opaque (alpha 1.0) + + + A Color4 with full RGB values (1.0) and fully opaque (alpha 1.0) + + + X value + + + Y value + + + Z value + + + W value + + + + Build a quaternion from normalized float values + + X value from -1.0 to 1.0 + Y value from -1.0 to 1.0 + Z value from -1.0 to 1.0 + + + + Constructor, builds a quaternion object from a byte array + + Byte array containing four four-byte floats + Offset in the byte array to start reading at + Whether the source data is normalized or + not. If this is true 12 bytes will be read, otherwise 16 bytes will + be read. + + + + Normalizes the quaternion + + + + + Builds a quaternion object from a byte array + + The source byte array + Offset in the byte array to start reading at + Whether the source data is normalized or + not. If this is true 12 bytes will be read, otherwise 16 bytes will + be read. + + + + Normalize this quaternion and serialize it to a byte array + + A 12 byte array containing normalized X, Y, and Z floating + point values in order using little endian byte ordering + + + + Writes the raw bytes for this quaternion to a byte array + + Destination byte array + Position in the destination array to start + writing. Must be at least 12 bytes before the end of the array + + + + Convert this quaternion to euler angles + + X euler angle + Y euler angle + Z euler angle + + + + Convert this quaternion to an angle around an axis + + Unit vector describing the axis + Angle around the axis, in radians + + + + Returns the conjugate (spatial inverse) of a quaternion + + + + + Build a quaternion from an axis and an angle of rotation around + that axis + + + + + Build a quaternion from an axis and an angle of rotation around + that axis + + Axis of rotation + Angle of rotation + + + + Creates a quaternion from a vector containing roll, pitch, and yaw + in radians + + Vector representation of the euler angles in + radians + Quaternion representation of the euler angles + + + + Creates a quaternion from roll, pitch, and yaw euler angles in + radians + + X angle in radians + Y angle in radians + Z angle in radians + Quaternion representation of the euler angles + + + + Conjugates and renormalizes a vector + + + + + Spherical linear interpolation between two quaternions + + + + + Get a string representation of the quaternion elements with up to three + decimal digits and separated by spaces only + + Raw string representation of the quaternion + + + A quaternion with a value of 0,0,0,1 + + + X value + + + Y value + + + Z value + + + W value + + + + Constructor, builds a vector from a byte array + + Byte array containing four four-byte floats + Beginning position in the byte array + + + + Test if this vector is equal to another vector, within a given + tolerance range + + Vector to test against + The acceptable magnitude of difference + between the two vectors + True if the magnitude of difference between the two vectors + is less than the given tolerance, otherwise false + + + + IComparable.CompareTo implementation + + + + + Test if this vector is composed of all finite numbers + + + + + Builds a vector from a byte array + + Byte array containing a 16 byte vector + Beginning position in the byte array + + + + Returns the raw bytes for this vector + + A 16 byte array containing X, Y, Z, and W + + + + Writes the raw bytes for this vector to a byte array + + Destination byte array + Position in the destination array to start + writing. Must be at least 16 bytes before the end of the array + + + + Get a string representation of the vector elements with up to three + decimal digits and separated by spaces only + + Raw string representation of the vector + + + A vector with a value of 0,0,0,0 + + + A vector with a value of 1,1,1,1 + + + A vector with a value of 1,0,0,0 + + + A vector with a value of 0,1,0,0 + + + A vector with a value of 0,0,1,0 + + + A vector with a value of 0,0,0,1 + + + + A three-dimensional vector with floating-point values + + + + X value + + + Y value + + + Z value + + + + Constructor, builds a vector from a byte array + + Byte array containing three four-byte floats + Beginning position in the byte array + + + + Test if this vector is equal to another vector, within a given + tolerance range + + Vector to test against + The acceptable magnitude of difference + between the two vectors + True if the magnitude of difference between the two vectors + is less than the given tolerance, otherwise false + + + + IComparable.CompareTo implementation + + + + + Test if this vector is composed of all finite numbers + + + + + Builds a vector from a byte array + + Byte array containing a 12 byte vector + Beginning position in the byte array + + + + Returns the raw bytes for this vector + + A 12 byte array containing X, Y, and Z + + + + Writes the raw bytes for this vector to a byte array + + Destination byte array + Position in the destination array to start + writing. Must be at least 12 bytes before the end of the array + + + + Parse a vector from a string + + A string representation of a 3D vector, enclosed + in arrow brackets and separated by commas + + + + Calculate the rotation between two vectors + + Normalized directional vector (such as 1,0,0 for forward facing) + Normalized target vector + + + + Interpolates between two vectors using a cubic equation + + + + + Get a formatted string representation of the vector + + A string representation of the vector + + + + Get a string representation of the vector elements with up to three + decimal digits and separated by spaces only + + Raw string representation of the vector + + + + Cross product between two vectors + + + + A vector with a value of 0,0,0 + + + A vector with a value of 1,1,1 + + + A unit vector facing forward (X axis), value 1,0,0 + + + A unit vector facing left (Y axis), value 0,1,0 + + + A unit vector facing up (Z axis), value 0,0,1 + + + + A hierarchical token bucket for bandwidth throttling. See + http://en.wikipedia.org/wiki/Token_bucket for more information + + + + Parent bucket to this bucket, or null if this is a root + bucket + + + Size of the bucket in bytes. If zero, the bucket has + infinite capacity + + + Rate that the bucket fills, in bytes per millisecond. If + zero, the bucket always remains full + + + Number of tokens currently in the bucket + + + Time of the last drip, in system ticks + + + + Default constructor + + Parent bucket if this is a child bucket, or + null if this is a root bucket + Maximum size of the bucket in bytes, or + zero if this bucket has no maximum capacity + Rate that the bucket fills, in bytes per + second. If zero, the bucket always remains full + + + + Remove a given number of tokens from the bucket + + Number of tokens to remove from the bucket + True if the requested number of tokens were removed from + the bucket, otherwise false + + + + Remove a given number of tokens from the bucket + + Number of tokens to remove from the bucket + True if tokens were added to the bucket + during this call, otherwise false + True if the requested number of tokens were removed from + the bucket, otherwise false + + + + Add tokens to the bucket over time. The number of tokens added each + call depends on the length of time that has passed since the last + call to Drip + + True if tokens were added to the bucket, otherwise false + + + + The parent bucket of this bucket, or null if this bucket has no + parent. The parent bucket will limit the aggregate bandwidth of all + of its children buckets + + + + + Maximum burst rate in bytes per second. This is the maximum number + of tokens that can accumulate in the bucket at any one time + + + + + The speed limit of this bucket in bytes per second. This is the + number of tokens that are added to the bucket per second + + Tokens are added to the bucket any time + is called, at the granularity of + the system tick interval (typically around 15-22ms) + + + + The number of bytes that can be sent at this moment. This is the + current number of tokens in the bucket + If this bucket has a parent bucket that does not have + enough tokens for a request, will + return false regardless of the content of this bucket + + + + + A two-dimensional vector with floating-point values + + + + X value + + + Y value + + + + Test if this vector is equal to another vector, within a given + tolerance range + + Vector to test against + The acceptable magnitude of difference + between the two vectors + True if the magnitude of difference between the two vectors + is less than the given tolerance, otherwise false + + + + Test if this vector is composed of all finite numbers + + + + + IComparable.CompareTo implementation + + + + + Builds a vector from a byte array + + Byte array containing two four-byte floats + Beginning position in the byte array + + + + Returns the raw bytes for this vector + + An eight-byte array containing X and Y + + + + Writes the raw bytes for this vector to a byte array + + Destination byte array + Position in the destination array to start + writing. Must be at least 8 bytes before the end of the array + + + + Parse a vector from a string + + A string representation of a 2D vector, enclosed + in arrow brackets and separated by commas + + + + Interpolates between two vectors using a cubic equation + + + + + Get a formatted string representation of the vector + + A string representation of the vector + + + + Get a string representation of the vector elements with up to three + decimal digits and separated by spaces only + + Raw string representation of the vector + + + A vector with a value of 0,0 + + + A vector with a value of 1,1 + + + A vector with a value of 1,0 + + + A vector with a value of 0,1 + + + Used for converting degrees to radians + + + Used for converting radians to degrees + + + + Convert the first two bytes starting in the byte array in + little endian ordering to a signed short integer + + An array two bytes or longer + A signed short integer, will be zero if a short can't be + read at the given position + + + + Convert the first two bytes starting at the given position in + little endian ordering to a signed short integer + + An array two bytes or longer + Position in the array to start reading + A signed short integer, will be zero if a short can't be + read at the given position + + + + Convert the first four bytes starting at the given position in + little endian ordering to a signed integer + + An array four bytes or longer + Position to start reading the int from + A signed integer, will be zero if an int can't be read + at the given position + + + + Convert the first four bytes of the given array in little endian + ordering to a signed integer + + An array four bytes or longer + A signed integer, will be zero if the array contains + less than four bytes + + + + Convert the first eight bytes of the given array in little endian + ordering to a signed long integer + + An array eight bytes or longer + A signed long integer, will be zero if the array contains + less than eight bytes + + + + Convert the first eight bytes starting at the given position in + little endian ordering to a signed long integer + + An array eight bytes or longer + Position to start reading the long from + A signed long integer, will be zero if a long can't be read + at the given position + + + + Convert the first two bytes starting at the given position in + little endian ordering to an unsigned short + + Byte array containing the ushort + Position to start reading the ushort from + An unsigned short, will be zero if a ushort can't be read + at the given position + + + + Convert two bytes in little endian ordering to an unsigned short + + Byte array containing the ushort + An unsigned short, will be zero if a ushort can't be + read + + + + Convert the first four bytes starting at the given position in + little endian ordering to an unsigned integer + + Byte array containing the uint + Position to start reading the uint from + An unsigned integer, will be zero if a uint can't be read + at the given position + + + + Convert the first four bytes of the given array in little endian + ordering to an unsigned integer + + An array four bytes or longer + An unsigned integer, will be zero if the array contains + less than four bytes + + + + Convert the first eight bytes of the given array in little endian + ordering to an unsigned 64-bit integer + + An array eight bytes or longer + An unsigned 64-bit integer, will be zero if the array + contains less than eight bytes + + + + Convert four bytes in little endian ordering to a floating point + value + + Byte array containing a little ending floating + point value + Starting position of the floating point value in + the byte array + Single precision value + + + + Convert an integer to a byte array in little endian format + + The integer to convert + A four byte little endian array + + + + Convert an integer to a byte array in big endian format + + The integer to convert + A four byte big endian array + + + + Convert a 64-bit integer to a byte array in little endian format + + The value to convert + An 8 byte little endian array + + + + Convert a 64-bit unsigned integer to a byte array in little endian + format + + The value to convert + An 8 byte little endian array + + + + Convert a floating point value to four bytes in little endian + ordering + + A floating point value + A four byte array containing the value in little endian + ordering + + + + Converts an unsigned integer to a hexadecimal string + + An unsigned integer to convert to a string + A hexadecimal string 10 characters long + 0x7fffffff + + + + Convert a variable length UTF8 byte array to a string + + The UTF8 encoded byte array to convert + The decoded string + + + + Converts a byte array to a string containing hexadecimal characters + + The byte array to convert to a string + The name of the field to prepend to each + line of the string + A string containing hexadecimal characters on multiple + lines. Each line is prepended with the field name + + + + Converts a byte array to a string containing hexadecimal characters + + The byte array to convert to a string + Number of bytes in the array to parse + A string to prepend to each line of the hex + dump + A string containing hexadecimal characters on multiple + lines. Each line is prepended with the field name + + + + Convert a string to a UTF8 encoded byte array + + The string to convert + A null-terminated UTF8 byte array + + + + Converts a string containing hexadecimal characters to a byte array + + String containing hexadecimal characters + If true, gracefully handles null, empty and + uneven strings as well as stripping unconvertable characters + The converted byte array + + + + Returns true is c is a hexadecimal digit (A-F, a-f, 0-9) + + Character to test + true if hex digit, false if not + + + + Converts 1 or 2 character string into equivalant byte value + + 1 or 2 character string + byte + + + + Convert a float value to a byte given a minimum and maximum range + + Value to convert to a byte + Minimum value range + Maximum value range + A single byte representing the original float value + + + + Convert a byte to a float value given a minimum and maximum range + + Byte array to get the byte from + Position in the byte array the desired byte is at + Minimum value range + Maximum value range + A float value inclusively between lower and upper + + + + Convert a byte to a float value given a minimum and maximum range + + Byte to convert to a float value + Minimum value range + Maximum value range + A float value inclusively between lower and upper + + + + Attempts to parse a floating point value from a string, using an + EN-US number format + + String to parse + Resulting floating point number + True if the parse was successful, otherwise false + + + + Attempts to parse a floating point value from a string, using an + EN-US number format + + String to parse + Resulting floating point number + True if the parse was successful, otherwise false + + + + Tries to parse an unsigned 32-bit integer from a hexadecimal string + + String to parse + Resulting integer + True if the parse was successful, otherwise false + + + + Takes an AssetType and returns the string representation + + The source + The string version of the AssetType + + + + Translate a string name of an AssetType into the proper Type + + A string containing the AssetType name + The AssetType which matches the string name, or AssetType.Unknown if no match was found + + + + Convert an InventoryType to a string + + The to convert + A string representation of the source + + + + Convert a string into a valid InventoryType + + A string representation of the InventoryType to convert + A InventoryType object which matched the type + + + + Convert a SaleType to a string + + The to convert + A string representation of the source + + + + Convert a string into a valid SaleType + + A string representation of the SaleType to convert + A SaleType object which matched the type + + + + Copy a byte array + + Byte array to copy + A copy of the given byte array + + + + Packs to 32-bit unsigned integers in to a 64-bit unsigned integer + + The left-hand (or X) value + The right-hand (or Y) value + A 64-bit integer containing the two 32-bit input values + + + + Unpacks two 32-bit unsigned integers from a 64-bit unsigned integer + + The 64-bit input integer + The left-hand (or X) output value + The right-hand (or Y) output value + + + + Convert an IP address object to an unsigned 32-bit integer + + IP address to convert + 32-bit unsigned integer holding the IP address bits + + + + Gets a unix timestamp for the current time + + An unsigned integer representing a unix timestamp for now + + + + Convert a UNIX timestamp to a native DateTime object + + An unsigned integer representing a UNIX + timestamp + A DateTime object containing the same time specified in + the given timestamp + + + + Convert a UNIX timestamp to a native DateTime object + + A signed integer representing a UNIX + timestamp + A DateTime object containing the same time specified in + the given timestamp + + + + Convert a native DateTime object to a UNIX timestamp + + A DateTime object you want to convert to a + timestamp + An unsigned integer representing a UNIX timestamp + + + + Swap two values + + Type of the values to swap + First value + Second value + + + + Try to parse an enumeration value from a string + + Enumeration type + String value to parse + Enumeration value on success + True if the parsing succeeded, otherwise false + + + + Swaps the high and low words in a byte. Converts aaaabbbb to bbbbaaaa + + Byte to swap the words in + Byte value with the words swapped + + + + Attempts to convert a string representation of a hostname or IP + address to a + + Hostname to convert to an IPAddress + Converted IP address object, or null if the conversion + failed + + + Provide a single instance of the CultureInfo class to + help parsing in situations where the grid assumes an en-us + culture + + + UNIX epoch in DateTime format + + + Provide a single instance of the MD5 class to avoid making + duplicate copies and handle thread safety + + + Provide a single instance of the SHA-1 class to avoid + making duplicate copies and handle thread safety + + + Provide a single instance of a random number generator + to avoid making duplicate copies and handle thread safety + + + + Clamp a given value between a range + + Value to clamp + Minimum allowable value + Maximum allowable value + A value inclusively between lower and upper + + + + Clamp a given value between a range + + Value to clamp + Minimum allowable value + Maximum allowable value + A value inclusively between lower and upper + + + + Clamp a given value between a range + + Value to clamp + Minimum allowable value + Maximum allowable value + A value inclusively between lower and upper + + + + Round a floating-point value to the nearest integer + + Floating point number to round + Integer + + + + Test if a single precision float is a finite number + + + + + Test if a double precision float is a finite number + + + + + Get the distance between two floating-point values + + First value + Second value + The distance between the two values + + + + Compute the MD5 hash for a byte array + + Byte array to compute the hash for + MD5 hash of the input data + + + + Compute the SHA1 hash for a byte array + + Byte array to compute the hash for + SHA1 hash of the input data + + + + Calculate the SHA1 hash of a given string + + The string to hash + The SHA1 hash as a string + + + + Compute the SHA256 hash for a byte array + + Byte array to compute the hash for + SHA256 hash of the input data + + + + Calculate the SHA256 hash of a given string + + The string to hash + The SHA256 hash as a string + + + + Calculate the MD5 hash of a given string + + The password to hash + An MD5 hash in string format, with $1$ prepended + + + + Calculate the MD5 hash of a given string + + The string to hash + The MD5 hash as a string + + + + Generate a random double precision floating point value + + Random value of type double + + + + Get the current running platform + + Enumeration of the current platform we are running on + + + + Get the current running runtime + + Enumeration of the current runtime we are running on + + + + Operating system + + + + Unknown + + + Microsoft Windows + + + Microsoft Windows CE + + + Linux + + + Apple OSX + + + + Runtime platform + + + + .NET runtime + + + Mono runtime: http://www.mono-project.com/ + + + + Determines the appropriate events to set, leaves the locks, and sets the events. + + + + + A routine for lazily creating a event outside the lock (so if errors + happen they are outside the lock and that we don't do much work + while holding a spin lock). If all goes well, reenter the lock and + set 'waitEvent' + + + + + Waits on 'waitEvent' with a timeout of 'millisceondsTimeout. + Before the wait 'numWaiters' is incremented and is restored before leaving this routine. + + + + + Copy constructor + + Circular queue to copy + + + -- cgit v1.1