AsmResolver Provides an implementation to compare byte arrays for equality. Gets the singleton instance of this comparer. Represents a bit vector that can be resized dynamically. Creates a new bit list. Creates a new bit list. The initial number of bits that the buffer should at least be able to store. Ensures the provided number of bits can be stored in the bit list. The number of bits to store in the list. Returns an enumerator for all bits in the bit vector. The enumerator. Represents an enumerator that iterates over all bits in a bit list. Creates a new bit enumerator. The list to enumerate. Represents an element in a collection owned by a single object. The type of the object that owns the collection. Gets or sets the owner of the collection. This property should not be assigned directly. Provides a base for lists that are lazy initialized. The type of elements the list stores. Creates a new, empty, uninitialized list. Creates a new, empty, uninitialized list. The initial number of elements the list can store. Gets or sets the total number of elements the list can contain before it has to resize its internal buffer. Gets a value indicating the list is initialized or not. Gets the underlying list. Initializes the list. This method is called in a thread-safe manner. Performs any final adjustments to the collection after all initial items were added to the underlying list. Upon calling this method, the has already been set to true, but the initialization lock has not been released yet. This means that any element in the list is guaranteed to be still in its initial state. It is therefore safe to access elements, as well as adding or removing items from . Appends the elements of a collection to the end of the . The items to append. Inserts the elements of a collection into the at the provided index. The starting index to insert the items in. The items to insert. The method that gets called upon replacing an item in the list. The index that is being replaced. The new item. The method that gets called upon inserting a new item in the list. The index where the item is inserted at. The new item. The method that gets called upon inserting a collection of new items in the list. The index where the item is inserted at. The new items. The method that gets called upon removing an item. The index of the element to remove. The method that gets called upon clearing the entire list. Returns an enumerator that enumerates the lazy list. The enumerator. This enumerator only ensures the list is initialized upon calling the method. Represents an enumerator that enumerates all items in a lazy initialized list. The enumerator only initializes the list when it is needed. If no calls to were made, and the lazy list was not initialized yet, it will remain uninitialized. Creates a new instance of the enumerator. The list to enumerate. Represents a one-to-many relation, where an object is mapped to a collection of other objects. The type of objects to map. The type of objects to map to. Creates a new, empty one-to-many relation mapping. Creates a new, empty one-to-many relation mapping. The initial number of elements the relation can store. Registers a relation between two objects. The first object. The second object to map to. true if the key value pair was successfully registered. false if there already exists a key that maps to the provided value. Gets a collection of values the provided key maps to. The key. The values. Gets the key that maps to the provided value. The value. The key. Represents a collection of values assigned to a single key in a one-to-many relation. Represents the empty value set. Gets an enumerator that enumerates all values in the collection. Represents an enumerator that enumerates all items in a value collection. Describes a one-to-one relation between two object types, with an efficient lookup time for both keys and values. The first object type. The second object type. Creates a new, empty one-to-one mapping. Creates a new, empty one-to-one mapping. The initial number of elements the relation can store. Registers a one-to-one relation between two objects. The first object. The second object to map to. true if the key value pair was successfully registered. false if the key or value already existed. Gets the value that was assigned to the provided key. The key. The value. Gets the key to which the provided value was assigned. The value. The key. Gets all keys stored in the one-to-one mapping. The keys. Gets all values stored in the one-to-one mapping. The values. Represents an indexed collection where each element is owned by some object, and prevents the element from being added to any other instance of the collection. The type of the owner object. The type of elements to store. Creates a new empty collection that is owned by an object. The owner of the collection. Creates a new empty collection that is owned by an object. The owner of the collection. The initial number of elements the collection can store. Gets the owner of the collection. Verifies that the provided item is not null and not added to another list. The item to verify. Occurs when the item is null. Occurs when the item is already owned by another collection. Represents a table of references that can be written as one block of contiguous bytes. Creates a new reference table. The attributes describing the shape of the table. Gets the attributes describing the shape of the table. Gets the type of reference that is stored in the table. Gets a value indicating whether the table contains offsets. Gets a value indicating whether the table contains RVAs. Gets a value indicating whether the table contains VAs. Gets the size in bytes that each reference occupies in the table. Gets a value indicating whether the size of a single reference changes depending on whether this table is put in a 32 or 64 bit application. Gets a value indicating whether the size of a single reference in the table is 32 bits. Gets a value indicating whether the size of a single reference in the table is 64 bits. Gets a value indicating whether the table ends with a zero entry. Provides members describing the shape of a reference table. Indicates the table contains offsets. Indicates the table contains RVAs. Indicates the table contains VAs. Provides a bit-mask for obtaining the type of references stored in the table. Indicates the table changes in size depending on whether it is put in a 32-bit or 64-bit application. Indicates the table always uses 32 bits for every entry. Indicates the table always uses 64 bits for every entry. Provides a bit-mask for obtaining the size of each reference stored in the table. Indicates the table ends with an extra zero item. Provides an implementation of a collection for which the raw elements can be accessed by-reference. This allows for dynamically sized lists that work on mutable structs. The type of elements to store. This list should be regarded as a mutable array that is not thread-safe. Gets the default capacity of a ref-list. Creates a new empty list with the default capacity. Creates a new empty list with the provided capacity. The capacity of the list. Gets or sets the total number of elements that the underlying array can store. Gets a number indicating the current version of the list. This number is incremented each time the underlying array is resized or when an element is replaced. It can also be used to verify that the reference returned by is still referencing an element in the current array. Gets or sets an individual element within the list. The index of the element to access. Occurs when is not a valid index within the array. Gets an element within the list by reference. The index of the element to access. A reference to the element. Occurs when is not a valid index within the array. Gets an element within the list by reference. The index of the element to access. The version of the list upon obtaining the reference. A reference to the element. Occurs when is not a valid index within the array. Adds an element to the end of the list. The element. Determines whether an item is present in the reference list. The item. true if the element is present, false otherwise. Removes an element from the list. The element to remove. true if the element was removed successfully, false otherwise. Determines the first index within the list that contains the provided element. The element to search. The index, or -1 if the element is not present in the list. Inserts an element into the list at the provided index. The index to insert into. The element to insert. Removes a single element from the list at the provided index. The index of the element to remove. Occurs when the provided index is invalid. Returns an enumerator that iterates all elements in the list. Provides an implementation for an enumerator that iterates elements in a ref-list. Creates a new instance of a ref-list enumerator. The list to enumerate. Provides an implementation of a segment using a byte array to represent its contents. Puts the remaining data of the provided input stream into a new data segment. The input stream to read from. The data segment containing the remaining data. Reads a single data segment at the current position of the provided input stream. The input stream to read from. The number of bytes to read. The read data segment. Creates a new data segment using the provided byte array as contents. The data to store. Gets the data that is stored in the segment. Represents a segment that originates from a slice of a . Provides a container for collecting exceptions during a process. Gets a collection of all the exceptions that were thrown during the process. Gets a value indicating whether the diagnostic bag contains any errors. Gets a value indicating whether the process had thrown an exception that was fatal and could not be recovered from. Marks the process to have failed. Registers an error in the diagnostic bag. The error. Provides an empty implementation of the that silently consumes all reported errors. Gets the singleton instance of the class. Provides a mechanism for capturing errors that occur during a process. Marks the process to have failed. Registers an error. The error. Provides extension methods for instances of the interface. Registers an instance of a class. The error listener. The message of the error. Registers an instance of a class. The error listener. The message of the error. Registers an error, and returns a default value for the provided type. The error listener. The error. The type of value to return. Registers a NotSupportedException, and returns a default value for the provided type. The error listener. The type of value to return. Registers a NotSupportedException, and returns a default value for the provided type. The error listener. The message of the error. The type of value to return. Registers a BadImage, and returns a default value for the provided type. The error listener. The message of the error. The type of value to return. Provides possible values for the size of an index. Indicates the index is 16-bits wide. Indicates the index is 32-bits wide. Provides members for converting virtual addresses to file offsets and vice versa. Converts a file offset to the virtual address when it is loaded into memory. The file offset to convert. The virtual address, relative to the image base. Occurs when the file offset falls outside of the range of the convertible file offsets. Converts a virtual address to the physical file offset. The virtual address, relative to the image base, to convert. The file offset. /// Occurs when the virtual address falls outside of the range of the convertible addresses. Defines file offset and virtual address of a specific structure or segment in a binary file. Gets the physical starting offset of the segment. Gets the virtual address relative to the beginning of the section that the segment is located in. Provides methods for reading binary data from a data source. Creates a new binary stream reader on the provided data source. The data to read from. Creates a new binary stream reader on the provided data source. The object to get the data from. Creates a new binary stream reader on the provided data source. The object to get the data from. The raw offset to start at. The relative virtual address associated to the offset. The maximum number of bytes to read. Occurs when is null. Occurs when is not a valid offset. Occurs when too many bytes are specified by . Gets the data source the reader is reading from. Gets the raw offset this reader started from. Gets the relative virtual address this reader started from. Gets the number of bytes that can be read by the reader. Gets the raw address indicating the end of the stream. Gets the relative virtual address indicating the end of the stream. Gets or sets the current raw offset to read from. Gets or sets the current offset relative to the beginning of to read from. Gets the remaining number of bytes that can be read from the stream. Gets or sets the current virtual address (relative to the image base) to read from. Gets a value indicating whether the reader is in a valid state. Determines whether the provided number of bytes can be read from the current position. The number of bytes to read. true if the provided number of byte can be read, false otherwise. Peeks a single byte from the input stream. The read byte, or -1 if no byte could be read. Reads a single byte from the input stream, and advances the current offset by one. The consumed value. Reads a single unsigned 16-bit integer from the input stream, and advances the current offset by two. The consumed value. Reads a single unsigned 32-bit integer from the input stream, and advances the current offset by four. The consumed value. Reads a single unsigned 64-bit integer from the input stream, and advances the current offset by eight. The consumed value. Reads a single signed byte from the input stream, and advances the current offset by one. The consumed value. Reads a single signed 16-bit integer from the input stream, and advances the current offset by two. The consumed value. Reads a single signed 32-bit integer from the input stream, and advances the current offset by four. The consumed value. Reads a single signed 64-bit integer from the input stream, and advances the current offset by eight. The consumed value. Reads a single signed 32-bit single precision floating point number from the input stream, and advances the current offset by four. The consumed value. Reads a single signed 64-bit double precision floating point number from the input stream, and advances the current offset by four. The consumed value. Reads a single 128-bit decimal value from the input stream, and advances the current offset by 16. The consumed value. Attempts to read the provided amount of bytes from the input stream. The buffer that receives the read bytes. The number of bytes that were read. Attempts to read the provided amount of bytes from the input stream. The buffer that receives the read bytes. The index into the buffer to start writing into. The number of bytes to read. The number of bytes that were read. Creates a segment containing data from the input data source, starting at the current position of the input stream. The reader then advances the current offset by the provided number of bytes. The number of bytes the segment should contain. The read segment. Consumes the remainder of the input stream. The remaining bytes. Reads bytes from the input stream until the provided delimiter byte is reached. The delimiter byte to stop at. The read bytes, including the delimiter if it was found. Reads bytes from the input stream until the provided delimiter byte is reached. The delimiter byte to stop at. true if the final delimiter should be included in the return value, false otherwise. The read bytes. This function always consumes the delimiter from the input stream if it is present, regardless of the value of . Advances the reader until the provided delimiter byte is reached. The delimiter byte to stop at. true if the final delimiter should be consumed if available, false otherwise. true if the delimiter byte was found and consumed, false otherwise. Reads a null-terminated ASCII string from the input stream. The read ASCII string, excluding the null terminator. Reads a zero-terminated Unicode string from the stream. The string that was read from the stream. Reads a null-terminated UTF-8 string from the input stream. The read UTF-8 string, excluding the null terminator. Reads either a 32-bit or a 64-bit number from the input stream. Indicates the integer to be read is 32-bit or 64-bit. The read number, zero extended if necessary. Reads a compressed unsigned integer from the stream. The unsigned integer that was read from the stream. Tries to reads a compressed unsigned integer from the stream. The unsigned integer that was read from the stream. True if the method succeeded, false otherwise. Reads a 7-bit encoded 32-bit integer from the stream. The integer. Occurs when an invalid 7-bit encoding was encountered. Reads a short or a long index from the stream. The size of the index to read. The index, zero extended to 32 bits if necessary. Reads a serialized UTF8 string from the stream. The string that was read from the stream. Reads a serialized UTF-8 string that is prefixed by a 7-bit encoded length header. The string. Occurs when the 7-bit encoded header is invalid. Reads a serialized string that is prefixed by a 7-bit encoded length header. The encoding to use for decoding the bytes into a string. The string. Occurs when the 7-bit encoded header is invalid. Aligns the reader to a specified boundary. The boundary to use. Aligns the reader to a specified boundary. The boundary to use. Creates an exact copy of the reader. The copied reader. This method does not copy the underlying buffer. Creates a copy of the reader, and moves the offset of the copied reader to the provided file offset. The file offset. The new reader. This method does not copy the underlying buffer. Creates a copy of the reader, moves the offset of the copied reader to the provided file offset, and resizes the copied reader to the provided number of bytes. The file offset. The number of bytes to read. The new reader. This method does not copy the underlying buffer. Creates a copy of the reader, and moves to the provided relative offset of the copied reader. The displacement. The new reader. This method does not copy the underlying buffer. Creates a copy of the reader, moves the copied reader to the provided relative offset, and resizes the copied reader to the provided number of bytes. The displacement. The number of bytes to read. The new reader. This method does not copy the underlying buffer. Resizes the current reader to a new number of bytes. The new number of bytes. Occurs when the provided size reaches outside of the input stream's length. Consumes and copies the remainder of the contents to the provided output stream. The output stream. Provides a default implementation of a binary writer that writes the data to an output stream. Creates a new binary stream writer using the provided output stream. The stream to write to. Gets the stream this writer writes to. Provides a wrapper around a raw byte array. Creates a new instance of the class. The raw data to read from. Creates a new instance of the class. The raw data to read from. The base address to use. Constructs a new binary stream reader on the provided byte array. The byte array to read. The stream reader. Provides an implementation of a that uses instances of to represent opened files, and keeps track of any of the instances it creates. Represents a file for which the data is represented by a byte array. Creates a new file for the provided file path. The file path. Creates a new file for the provided raw contents. The raw contents of the file. Creates a new file for the provided file path and raw contents. The file path. The byte array to read from. The base address to use. Provides extension methods for . Reads a block of data from the data source. The to read from. The starting address to read from. The buffer that receives the read bytes. The number of bytes that were read. Represents a data source that only exposes a part (slice) of another data source. Creates a new data source slice. The original data source to slice. The starting address. The number of bytes. Occurs when and/or result in addresses that are invalid in the original data source. Represents a data source that was moved in memory to a different address. Creates a new displace data source. The original data source that was moved. The number of bytes the data source was shifted by. Occurs when is null. Provides methods for writing data to a binary stream. Gets or sets the current position of the writer. Gets or sets the current length of the stream. Writes a buffer of data to the stream. The buffer to write to the stream. The index to start reading from the buffer. The amount of bytes of the buffer to write. Writes a single byte to the stream. The byte to write. Writes an unsigned 16-bit integer to the stream. The unsigned 16-bit integer to write. Writes an unsigned 32-bit integer to the stream. The unsigned 32-bit integer to write. Writes an unsigned 64-bit integer to the stream. The unsigned 64-bit integer to write. Writes an signed byte to the stream. The signed byte to write. Writes a signed 16-bit integer to the stream. The signed 16-bit integer to write. Writes a signed 32-bit integer to the stream. The signed 32-bit integer to write. Writes a signed 64-bit integer to the stream. The signed 64-bit integer to write. Writes a 32-bit floating point number to the stream. The 32-bit floating point number to write. Writes a 64-bit floating point number to the stream. The 64-bit floating point number to write. Writes a 128-bit decimal value to the stream. The 128-bit decimal value to write. Provides extension methods to various I/O interfaces in AsmResolver. Writes either a 32-bit or a 64-bit number to the output stream. The writer to use. The value to write. Indicates the integer to be written is 32-bit or 64-bit. The read number, zero extended if necessary. Writes a buffer of data to the stream. The writer to use. The data to write. Writes a buffer of data to the stream. The writer to use. The data to write. Writes a specified amount of zero bytes to the stream. The writer to use. The amount of zeroes to write. Writes an ASCII string to the stream. The writer to use. The string to write. Aligns the writer to a specified boundary. The writer to align. The boundary to use. Writes a single index to the output stream. The writer to use. The index to write. Compresses and writes an unsigned integer to the stream. Writes a single 7-bit encoded 32-bit integer to the output stream. The output stream. The value to write. Writes an UTF8 string to the stream. The writer to use. The string to write. Writes a serialized string using the UTF-8 encoding that is prefixed by a 7-bit encoded length header. The output stream. The string to write. Writes a serialized string that is prefixed by a 7-bit encoded length header. The output stream. The string to write. The encoding to use. Writes an UTF8 string to the stream. The writer to use. The string to write. Creates a binary reader for the entire address space. The factory to use. The constructed reader. Provides members for reading data from a data source. Gets the first byte address of the data source that is accessible. Reads a single byte at the provided address. The address to read from. Gets the number of bytes accessible in the data source. Determines whether the provided address is a valid address in the data source. The address to verify. true if the address is valid, false otherwise. Reads a block of data from the data source. The starting address to read from. The buffer that receives the read bytes. The index into the buffer to start writing at. The number of bytes to read. The number of bytes that were read. Provides members for opening and managing files for reading. The file service is the owner of any of the objects it produces. Disposing an instance of this interface results in all files opened by this service to be closed and disposed as well. Gets a collection of files currently opened by this file service. The paths of the files that were opened. Opens a file at the provided file path. The path to the file to open. The opened file. If the provided file path was opened by this file service, closes the provided file and removes it from the cache. The path of the file to close. Represents a file from which binary data can be read. Gets the path to the file on the disk, or null if this file was created from memory. If this value is null, then the file fully resides in memory. Gets the maximum length a single binary stream reader produced by this factory can have. Creates a new binary reader at the provided address. The raw address to start reading from. The virtual address (relative to the image base) that is associated to the raw address. The number of bytes to read. The created reader. Occurs if is not a valid address. Occurs if is too long. Provides span-based methods for writing data to a binary stream. Writes a buffer of data to the stream. The buffer to write to the stream. Provides span-based members for reading data from a data source. Reads a block of data from the data source. The starting address to read from. The buffer that receives the read bytes. The number of bytes that were read. Represents a data source that obtains its data from a memory mapped file. Creates a new instance of the class. The memory accessor to use. The length of the data. Provides an implementation of the interface, which maps any requested file into memory, and keeps track of any of the instances it creates. Represents an input file that is mapped in memory. Creates a new reader factory for the provided file. The path to the file to read. Provides a pool of reusable instances of that are meant to be used for constructing byte arrays. This class is thread-safe. All threads are allowed to rent and return writers from this pool simultaneously. Rents a single binary stream writer. The writer. Represents a single instance of a that is rented by a writer pool. Gets the pool the writer was rented from. Gets the writer instance. Gets the data that was written to the temporary stream. Returns the stream writer to the pool. Provides a basic singleton implementation of a that produces instances of the class, and does no tracking and caching of any of the opened files. Gets the singleton instance of the file service. Represents a data source that obtains its data from a block of unmanaged memory. Creates a new instance of the class. The base pointer to start reading from. The total length of the data source. Creates a new instance of the class. The base pointer to start reading from. The total length of the data source. Implements a data source that reads zero bytes. Creates a new zeroes data source. The number of zero bytes. Creates a new zeroes data source. The base address of the segment. The number of zero bytes. Represents a segment with contents that is readable by a binary stream reader. Creates a new binary reader that reads the raw contents of the segment. The starting file offset of the reader. The number of bytes to read. The created binary reader. Occurs when is not within the range of the segment. Occurs when indicates a too large length. Provides various extensions to AsmResolver related types. Creates a new binary reader that reads the raw contents of the segment. The segment to read from. The created binary reader. Creates a new binary reader that reads the raw contents of the segment. The created binary reader. The segment to read from. The starting file offset of the reader. Reads the segment and puts the data in a byte array. The segment to read. The byte array that was read. Rounds the provided unsigned integer up to the nearest multiple of the provided alignment. The value to align. The alignment. Must be a power of 2. The aligned value. Rounds the provided unsigned integer up to the nearest multiple of the provided alignment. The value to align. The alignment. Must be a power of 2. The aligned value. Computes the number of bytes the provided integer would require after compressing it using the integer compression as specified in ECMA-335. The integer to determine the compressed size of. The number of bytes the value would require. Computes the number of bytes the provided integer would require after compressing it using the integer compression using the 7-bit encoding. The integer to determine the compressed size of. The number of bytes the value would require. Computes the number of bytes required to represent the provided string as a binary formatted string. The string to measure. The number of bytes. Computes the number of bytes required to represent the provided string as a binary formatted string. The string to measure. The encoding to use. The number of bytes. Converts a string into an escaped string literal. The string to convert. The escaped string. Constructs a reference to the start of the segment. The segment to reference. The reference. Constructs a reference to an offset within the segment. The segment to reference. The offset within the segment to reference. The reference. Serializes the segment by calling and writes the result into a byte array. The segment to serialize to The resulting byte array. Serializes the segment by calling and writes the result into a byte array. The segment to serialize to The memory stream writer pool to rent temporary writers from. The resulting byte array. Wraps the provided segment into a , making it eligible for applying post-serialization patches. The segment to wrap. The wrapped segment, or if it is already an instance of . Wraps the provided segment into a , making it eligible for applying post-serialization patches. The segment to wrap. Indicates whether the segment should always be wrapped into a new instance of , regardless of whether is already an instance of or not. The wrapped segment, or if it is already an instance of and is set to true. Represents a single chunk of data residing in a file or memory space. Determines whether this structure can be relocated to another offset or virtual address. Computes the number of bytes the segment will contain when it is mapped into memory. The number of bytes. Assigns a new file and virtual offset to the segment and all its sub-components. The parameters containing the new offset information for the segment. Represents a reference to a segment in a binary file, such as the beginning of a function or method body, or a reference to a chunk of initialization data of a field. Gets a value indicating whether the referenced segment can be read using a binary reader. Gets a value indicating whether the referenced segment is bounded to a fixed size. Creates a binary reader starting at the beginning of the segment. The binary reader. When is false, it is not guaranteed this method will succeed. Obtains the segment referenced by this reference. The segment. Occurs when the segment could not be obtained. When is false, it is not guaranteed this method will succeed. Provides members for resolving virtual addresses to a segment in a binary file. Resolves the provided virtual address to a segment reference. The virtual address of the segment. The reference to the segment. Represents objects that can be referenced by a virtual address. Gets a reference the object. The object. Represents a structure that can be serialized to an output stream. Computes the number of bytes that the structure contains. The number of bytes. Serializes the structure to an output stream. The output stream to write the data to. Represents a variable that can be lazily initialized and/or assigned a new value. The type of the values that the variable stores. For performance reasons, this class locks on itself for thread synchronization. Therefore, consumers should not lock instances of this class as a lock object to avoid dead-locks. Creates a new lazy variable and initialize it with a constant. The value to initialize the variable with. Creates a new lazy variable and delays the initialization of the default value. The method to execute when initializing the default value. Gets a value indicating the value has been initialized. Gets or sets the value of the variable. Represents a variable that can be lazily initialized and/or assigned a new value. The type of the owner of the variable. The type of the values that the variable stores. For performance reasons, this class locks on itself for thread synchronization. Therefore, consumers should not lock instances of this class as a lock object to avoid dead-locks. Creates a new lazy variable and initialize it with a constant. The value to initialize the variable with. Creates a new lazy variable and delays the initialization of the default value. The method to execute when initializing the default value. Gets a value indicating the value has been initialized. Obtains the value stored in the variable, initializing the variable if necessary. The owner of the variable. The value. Assigns a new value to the variable. The new value. Represents an offset range determined by a start and end offset. Converts a value tuple of unsigned integers to an offset range. The tuple to convert. The constructed offset range. Creates a new offset range. The start offset. The end offset, this offset is exclusive. Occurs when the provided start offset is bigger than the end offset. Gets the start offset. Gets the end offset. This offset is exclusive. Gets the length of the range. Gets a value indicating whether the range is empty. Determines whether the provided offset falls within the range. The offset. true if the offset falls within the range, false otherwise. Determines whether the provided range is a subset of the range. The range. true if the range is a subset, false otherwise. Obtains the intersection between two ranges. The other range. The intersection. Determines whether the current range intersects with the provided range. The other range. true if the range intersects, false otherwise. Determines the resulting ranges after excluding the provided range. The range to exclude. The resulting ranges. Deconstructs an offset range into its individual components. The start offset. The exclusive end offset. Patches an instance of with a sequence of bytes. Creates a new bytes patch. The offset to start writing at. The new data. Gets the offset relative to the start of the segment to start writing at. Gets the data to write. Provides a mechanism for patching an instance of after it was serialized into its binary representation. Applies the patch. The context in which to Provides members describing the context in which a patch may be situated in. Creates a new instance of the structure. The segment to be patched. The image base to assume while patching. The object responsible for writing the patches. Gets the segment to be patched. Gets the image base that is assumed while patching. Gets the object responsible for writing the patches. Provides a wrapper around an instance of a that patches its binary representation while it is being serialized to an output stream. Wraps a segment into a new instance of the class. The segment to patch. Gets the original segment that is being patched. Gets a list of patches to apply to the segment. Adds a patch to the list of patches to apply. The patch to apply. The current instance. Adds a bytes patch to the list of patches to apply. The offset to start patching at, relative to the start of the segment. The new data to write. The current instance. Represents a pointer or reference that is relative to the beginning of another segment or structure. Creates a new relative reference. The segment the reference is relative to. The number of bytes to skip after the beginning of the segment. Gets the segment or structure that this reference is relative to. Gets the number of bytes to skip after the beginning of the segment indicated by . Provides parameters for relocating a segment to a new offset-rva pair. Creates new relocation parameters. The new offset of the segment. The new virtual address of the segment, relative to the image base. Creates new relocation parameters. The base address of the image the segment is located in. The new offset of the segment. The new virtual address of the segment, relative to the image base. true if the image is targeting 32-bit images, false for 64-bit images. Gets the image base that is assumed when relocating the segment. Gets the new physical offset of the segment. Gets the new virtual address of the segment, relative to the image base. Gets a value indicating whether the image is targeting 32-bit machines. Gets a value indicating whether the image is targeting 64-bit machines. Copies the current relocation parameters, and assigns a new offset and relative virtual address. The new offset. The new relative virtual address. Aligns the current offset and virtual address to the nearest multiple of the provided alignment. The alignment. Advances the current offset and virtual address by the provided byte count. The number of bytes to advance with. The new relocation parameters. Advances the current offset and virtual address by the provided byte count. The number of bytes to advance with. The new relocation parameters. Advances the current offset and virtual address by the provided byte count. The number of bytes to advance the physical offset with. The number of bytes to advance the virtual address with. Provides a base for a segment in a file that can be relocated. Represents a collection of segments concatenated (and aligned) after each other. Gets the number of sub segments that are stored into the segment. Adds the provided segment with no alignment. The segment to add. Adds the provided segment to the offset that is the next multiple of the provided alignment. The segment to add. The alignment of the segment. Returns an object that enumerates all segments in the segment builder. The enumerator. Provides a base implementation for a reference to a segment in a binary file. Represents the null reference. Creates a new reference to the provided segment. The segment to reference. Gets the referenced segment. Represents a simple symbol that maps a name to a memory address. Creates a new symbol. The address of the symbol. Gets the address of the symbol. Provides a singleton implementation for the interface, that throws every reported exception. Gets the singleton instance of the class. Represents an immutable UTF-8 encoded string. This class supports preserving invalid UTF-8 code sequences. Represents the empty UTF-8 string. Creates a new UTF-8 string from the provided raw data. The raw UTF-8 data. Creates a new UTF-8 string from the provided raw data. The raw UTF-8 data. Creates a new UTF-8 string from the provided . The string value to encode as UTF-8. Creates a new UTF-8 string from the provided raw data. The raw UTF-8 data. The starting index to read from. The number of bytes to read.. Creates a new UTF-8 string from the provided . The string value to encode as UTF-8. Gets the string value represented by the UTF-8 bytes. Gets the number of bytes used by the string. Gets the number of characters in the string. Gets a single character in the string. The character index. Creates a new read-only span over the string. The read-only span representation of the string. Creates a new read-only span over the string. The index at which to begin this slice. The read-only span representation of the string. Creates a new read-only span over the string. The index at which to begin this slice. The desired length for the slice. The read-only span representation of the string. Gets the raw UTF-8 bytes of the string. The bytes. Obtains the raw UTF-8 bytes of the string, and writes it into the provided buffer. The output buffer to receive the bytes in. The index into the output buffer to start writing at. The number of bytes to write. The actual number of bytes that were written. Gets the underlying byte array of this string. This method should only be used if performance is critical. Modifying the returning array will change the internal state of the string. The bytes. Produces a new string that is the concatenation of the current string and the provided string. The other string to append.. The new string. Produces a new string that is the concatenation of the current string and the provided string. The other string to append.. The new string. Produces a new string that is the concatenation of the current string and the provided byte array. The byte array to append. The new string. Gets the zero-based index of the first occurrence of the provided character in the string. The character to search. The index, or -1 if the character is not present. Gets the zero-based index of the first occurrence of the provided character in the string. The character to search. The index to start searching at. The index, or -1 if the character is not present. Gets the zero-based index of the first occurrence of the provided string in the string. The string to search. The index, or -1 if the string is not present. Gets the zero-based index of the first occurrence of the provided string in the string. The string to search. The index to start searching at. The index, or -1 if the string is not present. Gets the zero-based index of the first occurrence of the provided string in the string. The string to search. The comparison algorithm to use. The index, or -1 if the string is not present. Gets the zero-based index of the first occurrence of the provided string in the string. The string to search. The index to start searching at. The comparison algorithm to use. The index, or -1 if the string is not present. Gets the zero-based index of the last occurrence of the provided character in the string. The character to search. The index, or -1 if the character is not present. Gets the zero-based index of the last occurrence of the provided character in the string. The character to search. The index to start searching at. The index, or -1 if the character is not present. Gets the zero-based index of the last occurrence of the provided string in the string. The string to search. The index, or -1 if the string is not present. Gets the zero-based index of the first occurrence of the provided string in the string. The string to search. The index to start searching at. The index, or -1 if the string is not present. Gets the zero-based index of the last occurrence of the provided string in the string. The string to search. The comparison algorithm to use. The index, or -1 if the string is not present. Gets the zero-based index of the last occurrence of the provided string in the string. The string to search. The index to start searching at. The comparison algorithm to use. The index, or -1 if the string is not present. Determines whether the string contains the provided string. The string to search. true if the string is present, false otherwise. Determines whether the provided string is null or the empty string. The string to verify. true if the string is null or empty, false otherwise. Determines whether two strings are considered equal. The other string. true if the strings are considered equal, false otherwise. This operation performs a byte-level comparison of the two strings. This operation performs a byte-level comparison of the two strings. This operation performs a byte-level comparison of the two strings. This operation performs a byte-level comparison of the two strings. Converts a into a . The UTF-8 string value to convert. The string. Converts a into an . The string value to convert. The new UTF-8 encoded string. Converts a raw sequence of bytes into an . The raw data to convert. The new UTF-8 encoded string. Converts a into an . The string value to convert. The new UTF-8 encoded string. Converts a into a . The UTF-8 string value to convert. The span. Converts a into a . The UTF-8 string value to convert. The span. Converts a raw sequence of bytes into an . The raw data to convert. The new UTF-8 encoded string. Determines whether two UTF-8 encoded strings are considered equal. The first string. The second string. true if the strings are considered equal, false otherwise. This operation performs a byte-level comparison of the two strings. Determines whether two UTF-8 encoded strings are not considered equal. The first string. The second string. true if the strings are not considered equal, false otherwise. This operation performs a byte-level comparison of the two strings. Determines whether an UTF-8 encoded string is considered equal to the provided . The first string. The second string. true if the strings are considered equal, false otherwise. This operation performs a string-level comparison. Determines whether an UTF-8 encoded string is not equal to the provided . The first string. The second string. true if the strings are not considered equal, false otherwise. This operation performs a string-level comparison. Determines whether the underlying bytes of an UTF-8 encoded string is equal to the provided byte array. The UTF-8 string. The byte array. true if the byte arrays are considered equal, false otherwise. This operation performs a byte-level comparison. Determines whether the underlying bytes of an UTF-8 encoded string is not equal to the provided byte array. The UTF-8 string. The byte array. true if the byte arrays are not considered equal, false otherwise. This operation performs a byte-level comparison. Concatenates two UTF-8 encoded strings together. The first string. The second string. The newly produced string. Concatenates two UTF-8 encoded strings together. The first string. The second string. The newly produced string. Concatenates an UTF-8 encoded string together with a byte array. The string. The byte array. The newly produced string. Represents a (relative) virtual address in a file. Wraps a relative virtual address into a object. Provides an implementation of a reference factory that constructs objects. Gets the default instance of this factory. Represents a segment of code or data that might be resized at runtime. Creates a new segment that is expanded at runtime to the provided virtual size. The physical contents of the segment. The new size at runtime. Gets or sets the physical contents of the segment as it is stored on the disk. Gets or sets the size of the segment after it is mapped into memory at runtime. Gets a value indicating whether the physical contents of this segment is readable by a binary reader. Represents a segment containing zero bytes. Creates a new zeroes-filled segment. The number of zero bytes. Gets the number of zero bytes that are stored in this segment.