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game/client/third/minizip/lib/liblzma/api/lzma.h
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/**
* \file api/lzma.h
* \brief The public API of liblzma data compression library
*
* liblzma is a public domain general-purpose data compression library with
* a zlib-like API. The native file format is .xz, but also the old .lzma
* format and raw (no headers) streams are supported. Multiple compression
* algorithms (filters) are supported. Currently LZMA2 is the primary filter.
*
* liblzma is part of XZ Utils <http://tukaani.org/xz/>. XZ Utils includes
* a gzip-like command line tool named xz and some other tools. XZ Utils
* is developed and maintained by Lasse Collin.
*
* Major parts of liblzma are based on Igor Pavlov's public domain LZMA SDK
* <http://7-zip.org/sdk.html>.
*
* The SHA-256 implementation is based on the public domain code found from
* 7-Zip <http://7-zip.org/>, which has a modified version of the public
* domain SHA-256 code found from Crypto++ <http://www.cryptopp.com/>.
* The SHA-256 code in Crypto++ was written by Kevin Springle and Wei Dai.
*/
/*
* Author: Lasse Collin
*
* This file has been put into the public domain.
* You can do whatever you want with this file.
*/
#ifndef LZMA_H
#define LZMA_H
/*****************************
* Required standard headers *
*****************************/
/*
* liblzma API headers need some standard types and macros. To allow
* including lzma.h without requiring the application to include other
* headers first, lzma.h includes the required standard headers unless
* they already seem to be included already or if LZMA_MANUAL_HEADERS
* has been defined.
*
* Here's what types and macros are needed and from which headers:
* - stddef.h: size_t, NULL
* - stdint.h: uint8_t, uint32_t, uint64_t, UINT32_C(n), uint64_C(n),
* UINT32_MAX, UINT64_MAX
*
* However, inttypes.h is a little more portable than stdint.h, although
* inttypes.h declares some unneeded things compared to plain stdint.h.
*
* The hacks below aren't perfect, specifically they assume that inttypes.h
* exists and that it typedefs at least uint8_t, uint32_t, and uint64_t,
* and that, in case of incomplete inttypes.h, unsigned int is 32-bit.
* If the application already takes care of setting up all the types and
* macros properly (for example by using gnulib's stdint.h or inttypes.h),
* we try to detect that the macros are already defined and don't include
* inttypes.h here again. However, you may define LZMA_MANUAL_HEADERS to
* force this file to never include any system headers.
*
* Some could argue that liblzma API should provide all the required types,
* for example lzma_uint64, LZMA_UINT64_C(n), and LZMA_UINT64_MAX. This was
* seen as an unnecessary mess, since most systems already provide all the
* necessary types and macros in the standard headers.
*
* Note that liblzma API still has lzma_bool, because using stdbool.h would
* break C89 and C++ programs on many systems. sizeof(bool) in C99 isn't
* necessarily the same as sizeof(bool) in C++.
*/
#ifndef LZMA_MANUAL_HEADERS
/*
* I suppose this works portably also in C++. Note that in C++,
* we need to get size_t into the global namespace.
*/
# include <stddef.h>
/*
* Skip inttypes.h if we already have all the required macros. If we
* have the macros, we assume that we have the matching typedefs too.
*/
# if !defined(UINT32_C) || !defined(UINT64_C) \
|| !defined(UINT32_MAX) || !defined(UINT64_MAX)
/*
* MSVC versions older than 2013 have no C99 support, and
* thus they cannot be used to compile liblzma. Using an
* existing liblzma.dll with old MSVC can work though(*),
* but we need to define the required standard integer
* types here in a MSVC-specific way.
*
* (*) If you do this, the existing liblzma.dll probably uses
* a different runtime library than your MSVC-built
* application. Mixing runtimes is generally bad, but
* in this case it should work as long as you avoid
* the few rarely-needed liblzma functions that allocate
* memory and expect the caller to free it using free().
*/
# if defined(_WIN32) && defined(_MSC_VER) && _MSC_VER < 1800
typedef unsigned __int8 uint8_t;
typedef unsigned __int32 uint32_t;
typedef unsigned __int64 uint64_t;
# else
/* Use the standard inttypes.h. */
# ifdef __cplusplus
/*
* C99 sections 7.18.2 and 7.18.4 specify
* that C++ implementations define the limit
* and constant macros only if specifically
* requested. Note that if you want the
* format macros (PRIu64 etc.) too, you need
* to define __STDC_FORMAT_MACROS before
* including lzma.h, since re-including
* inttypes.h with __STDC_FORMAT_MACROS
* defined doesn't necessarily work.
*/
# ifndef __STDC_LIMIT_MACROS
# define __STDC_LIMIT_MACROS 1
# endif
# ifndef __STDC_CONSTANT_MACROS
# define __STDC_CONSTANT_MACROS 1
# endif
# endif
# include <inttypes.h>
# endif
/*
* Some old systems have only the typedefs in inttypes.h, and
* lack all the macros. For those systems, we need a few more
* hacks. We assume that unsigned int is 32-bit and unsigned
* long is either 32-bit or 64-bit. If these hacks aren't
* enough, the application has to setup the types manually
* before including lzma.h.
*/
# ifndef UINT32_C
# if defined(_WIN32) && defined(_MSC_VER)
# define UINT32_C(n) n ## UI32
# else
# define UINT32_C(n) n ## U
# endif
# endif
# ifndef UINT64_C
# if defined(_WIN32) && defined(_MSC_VER)
# define UINT64_C(n) n ## UI64
# else
/* Get ULONG_MAX. */
# include <limits.h>
# if ULONG_MAX == 4294967295UL
# define UINT64_C(n) n ## ULL
# else
# define UINT64_C(n) n ## UL
# endif
# endif
# endif
# ifndef UINT32_MAX
# define UINT32_MAX (UINT32_C(4294967295))
# endif
# ifndef UINT64_MAX
# define UINT64_MAX (UINT64_C(18446744073709551615))
# endif
# endif
#endif /* ifdef LZMA_MANUAL_HEADERS */
/******************
* LZMA_API macro *
******************/
/*
* Some systems require that the functions and function pointers are
* declared specially in the headers. LZMA_API_IMPORT is for importing
* symbols and LZMA_API_CALL is to specify the calling convention.
*
* By default it is assumed that the application will link dynamically
* against liblzma. #define LZMA_API_STATIC in your application if you
* want to link against static liblzma. If you don't care about portability
* to operating systems like Windows, or at least don't care about linking
* against static liblzma on them, don't worry about LZMA_API_STATIC. That
* is, most developers will never need to use LZMA_API_STATIC.
*
* The GCC variants are a special case on Windows (Cygwin and MinGW).
* We rely on GCC doing the right thing with its auto-import feature,
* and thus don't use __declspec(dllimport). This way developers don't
* need to worry about LZMA_API_STATIC. Also the calling convention is
* omitted on Cygwin but not on MinGW.
*/
#ifndef LZMA_API_IMPORT
# if !defined(LZMA_API_STATIC) && defined(_WIN32) && !defined(__GNUC__)
# define LZMA_API_IMPORT __declspec(dllimport)
# else
# define LZMA_API_IMPORT
# endif
#endif
#ifndef LZMA_API_CALL
# if defined(_WIN32) && !defined(__CYGWIN__)
# define LZMA_API_CALL __cdecl
# else
# define LZMA_API_CALL
# endif
#endif
#ifndef LZMA_API
# define LZMA_API(type) LZMA_API_IMPORT type LZMA_API_CALL
#endif
/***********
* nothrow *
***********/
/*
* None of the functions in liblzma may throw an exception. Even
* the functions that use callback functions won't throw exceptions,
* because liblzma would break if a callback function threw an exception.
*/
#ifndef lzma_nothrow
# if defined(__cplusplus)
# define lzma_nothrow throw()
# elif __GNUC__ > 3 || (__GNUC__ == 3 && __GNUC_MINOR__ >= 3)
# define lzma_nothrow __attribute__((__nothrow__))
# else
# define lzma_nothrow
# endif
#endif
/********************
* GNU C extensions *
********************/
/*
* GNU C extensions are used conditionally in the public API. It doesn't
* break anything if these are sometimes enabled and sometimes not, only
* affects warnings and optimizations.
*/
#if __GNUC__ >= 3
# ifndef lzma_attribute
# define lzma_attribute(attr) __attribute__(attr)
# endif
/* warn_unused_result was added in GCC 3.4. */
# ifndef lzma_attr_warn_unused_result
# if __GNUC__ == 3 && __GNUC_MINOR__ < 4
# define lzma_attr_warn_unused_result
# endif
# endif
#else
# ifndef lzma_attribute
# define lzma_attribute(attr)
# endif
#endif
#ifndef lzma_attr_pure
# define lzma_attr_pure lzma_attribute((__pure__))
#endif
#ifndef lzma_attr_const
# define lzma_attr_const lzma_attribute((__const__))
#endif
#ifndef lzma_attr_warn_unused_result
# define lzma_attr_warn_unused_result \
lzma_attribute((__warn_unused_result__))
#endif
/**************
* Subheaders *
**************/
#ifdef __cplusplus
extern "C" {
#endif
/*
* Subheaders check that this is defined. It is to prevent including
* them directly from applications.
*/
#define LZMA_H_INTERNAL 1
/* Basic features */
#include "lzma/version.h"
#include "lzma/base.h"
#include "lzma/vli.h"
#include "lzma/check.h"
/* Filters */
#include "lzma/filter.h"
//#include "lzma/bcj.h"
//#include "lzma/delta.h"
#include "lzma/lzma12.h"
/* Container formats */
#include "lzma/container.h"
/* Advanced features */
//#include "lzma/stream_flags.h"
//#include "lzma/block.h"
//#include "lzma/index.h"
//#include "lzma/index_hash.h"
/* Hardware information */
//#include "lzma/hardware.h"
/*
* All subheaders included. Undefine LZMA_H_INTERNAL to prevent applications
* re-including the subheaders.
*/
#undef LZMA_H_INTERNAL
#ifdef __cplusplus
}
#endif
#endif /* ifndef LZMA_H */
game/client/third/minizip/lib/liblzma/api/lzma/base.h
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/**
* \file lzma/base.h
* \brief Data types and functions used in many places in liblzma API
*/
/*
* Author: Lasse Collin
*
* This file has been put into the public domain.
* You can do whatever you want with this file.
*
* See ../lzma.h for information about liblzma as a whole.
*/
#ifndef LZMA_H_INTERNAL
# error Never include this file directly. Use <lzma.h> instead.
#endif
/**
* \brief Boolean
*
* This is here because C89 doesn't have stdbool.h. To set a value for
* variables having type lzma_bool, you can use
* - C99's `true' and `false' from stdbool.h;
* - C++'s internal `true' and `false'; or
* - integers one (true) and zero (false).
*/
typedef unsigned char lzma_bool;
/**
* \brief Type of reserved enumeration variable in structures
*
* To avoid breaking library ABI when new features are added, several
* structures contain extra variables that may be used in future. Since
* sizeof(enum) can be different than sizeof(int), and sizeof(enum) may
* even vary depending on the range of enumeration constants, we specify
* a separate type to be used for reserved enumeration variables. All
* enumeration constants in liblzma API will be non-negative and less
* than 128, which should guarantee that the ABI won't break even when
* new constants are added to existing enumerations.
*/
typedef enum {
LZMA_RESERVED_ENUM = 0
} lzma_reserved_enum;
/**
* \brief Return values used by several functions in liblzma
*
* Check the descriptions of specific functions to find out which return
* values they can return. With some functions the return values may have
* more specific meanings than described here; those differences are
* described per-function basis.
*/
typedef enum {
LZMA_OK = 0,
/**<
* \brief Operation completed successfully
*/
LZMA_STREAM_END = 1,
/**<
* \brief End of stream was reached
*
* In encoder, LZMA_SYNC_FLUSH, LZMA_FULL_FLUSH, or
* LZMA_FINISH was finished. In decoder, this indicates
* that all the data was successfully decoded.
*
* In all cases, when LZMA_STREAM_END is returned, the last
* output bytes should be picked from strm->next_out.
*/
LZMA_NO_CHECK = 2,
/**<
* \brief Input stream has no integrity check
*
* This return value can be returned only if the
* LZMA_TELL_NO_CHECK flag was used when initializing
* the decoder. LZMA_NO_CHECK is just a warning, and
* the decoding can be continued normally.
*
* It is possible to call lzma_get_check() immediately after
* lzma_code has returned LZMA_NO_CHECK. The result will
* naturally be LZMA_CHECK_NONE, but the possibility to call
* lzma_get_check() may be convenient in some applications.
*/
LZMA_UNSUPPORTED_CHECK = 3,
/**<
* \brief Cannot calculate the integrity check
*
* The usage of this return value is different in encoders
* and decoders.
*
* Encoders can return this value only from the initialization
* function. If initialization fails with this value, the
* encoding cannot be done, because there's no way to produce
* output with the correct integrity check.
*
* Decoders can return this value only from lzma_code() and
* only if the LZMA_TELL_UNSUPPORTED_CHECK flag was used when
* initializing the decoder. The decoding can still be
* continued normally even if the check type is unsupported,
* but naturally the check will not be validated, and possible
* errors may go undetected.
*
* With decoder, it is possible to call lzma_get_check()
* immediately after lzma_code() has returned
* LZMA_UNSUPPORTED_CHECK. This way it is possible to find
* out what the unsupported Check ID was.
*/
LZMA_GET_CHECK = 4,
/**<
* \brief Integrity check type is now available
*
* This value can be returned only by the lzma_code() function
* and only if the decoder was initialized with the
* LZMA_TELL_ANY_CHECK flag. LZMA_GET_CHECK tells the
* application that it may now call lzma_get_check() to find
* out the Check ID. This can be used, for example, to
* implement a decoder that accepts only files that have
* strong enough integrity check.
*/
LZMA_MEM_ERROR = 5,
/**<
* \brief Cannot allocate memory
*
* Memory allocation failed, or the size of the allocation
* would be greater than SIZE_MAX.
*
* Due to internal implementation reasons, the coding cannot
* be continued even if more memory were made available after
* LZMA_MEM_ERROR.
*/
LZMA_MEMLIMIT_ERROR = 6,
/**
* \brief Memory usage limit was reached
*
* Decoder would need more memory than allowed by the
* specified memory usage limit. To continue decoding,
* the memory usage limit has to be increased with
* lzma_memlimit_set().
*/
LZMA_FORMAT_ERROR = 7,
/**<
* \brief File format not recognized
*
* The decoder did not recognize the input as supported file
* format. This error can occur, for example, when trying to
* decode .lzma format file with lzma_stream_decoder,
* because lzma_stream_decoder accepts only the .xz format.
*/
LZMA_OPTIONS_ERROR = 8,
/**<
* \brief Invalid or unsupported options
*
* Invalid or unsupported options, for example
* - unsupported filter(s) or filter options; or
* - reserved bits set in headers (decoder only).
*
* Rebuilding liblzma with more features enabled, or
* upgrading to a newer version of liblzma may help.
*/
LZMA_DATA_ERROR = 9,
/**<
* \brief Data is corrupt
*
* The usage of this return value is different in encoders
* and decoders. In both encoder and decoder, the coding
* cannot continue after this error.
*
* Encoders return this if size limits of the target file
* format would be exceeded. These limits are huge, thus
* getting this error from an encoder is mostly theoretical.
* For example, the maximum compressed and uncompressed
* size of a .xz Stream is roughly 8 EiB (2^63 bytes).
*
* Decoders return this error if the input data is corrupt.
* This can mean, for example, invalid CRC32 in headers
* or invalid check of uncompressed data.
*/
LZMA_BUF_ERROR = 10,
/**<
* \brief No progress is possible
*
* This error code is returned when the coder cannot consume
* any new input and produce any new output. The most common
* reason for this error is that the input stream being
* decoded is truncated or corrupt.
*
* This error is not fatal. Coding can be continued normally
* by providing more input and/or more output space, if
* possible.
*
* Typically the first call to lzma_code() that can do no
* progress returns LZMA_OK instead of LZMA_BUF_ERROR. Only
* the second consecutive call doing no progress will return
* LZMA_BUF_ERROR. This is intentional.
*
* With zlib, Z_BUF_ERROR may be returned even if the
* application is doing nothing wrong, so apps will need
* to handle Z_BUF_ERROR specially. The above hack
* guarantees that liblzma never returns LZMA_BUF_ERROR
* to properly written applications unless the input file
* is truncated or corrupt. This should simplify the
* applications a little.
*/
LZMA_PROG_ERROR = 11,
/**<
* \brief Programming error
*
* This indicates that the arguments given to the function are
* invalid or the internal state of the decoder is corrupt.
* - Function arguments are invalid or the structures
* pointed by the argument pointers are invalid
* e.g. if strm->next_out has been set to NULL and
* strm->avail_out > 0 when calling lzma_code().
* - lzma_* functions have been called in wrong order
* e.g. lzma_code() was called right after lzma_end().
* - If errors occur randomly, the reason might be flaky
* hardware.
*
* If you think that your code is correct, this error code
* can be a sign of a bug in liblzma. See the documentation
* how to report bugs.
*/
} lzma_ret;
/**
* \brief The `action' argument for lzma_code()
*
* After the first use of LZMA_SYNC_FLUSH, LZMA_FULL_FLUSH, LZMA_FULL_BARRIER,
* or LZMA_FINISH, the same `action' must is used until lzma_code() returns
* LZMA_STREAM_END. Also, the amount of input (that is, strm->avail_in) must
* not be modified by the application until lzma_code() returns
* LZMA_STREAM_END. Changing the `action' or modifying the amount of input
* will make lzma_code() return LZMA_PROG_ERROR.
*/
typedef enum {
LZMA_RUN = 0,
/**<
* \brief Continue coding
*
* Encoder: Encode as much input as possible. Some internal
* buffering will probably be done (depends on the filter
* chain in use), which causes latency: the input used won't
* usually be decodeable from the output of the same
* lzma_code() call.
*
* Decoder: Decode as much input as possible and produce as
* much output as possible.
*/
LZMA_SYNC_FLUSH = 1,
/**<
* \brief Make all the input available at output
*
* Normally the encoder introduces some latency.
* LZMA_SYNC_FLUSH forces all the buffered data to be
* available at output without resetting the internal
* state of the encoder. This way it is possible to use
* compressed stream for example for communication over
* network.
*
* Only some filters support LZMA_SYNC_FLUSH. Trying to use
* LZMA_SYNC_FLUSH with filters that don't support it will
* make lzma_code() return LZMA_OPTIONS_ERROR. For example,
* LZMA1 doesn't support LZMA_SYNC_FLUSH but LZMA2 does.
*
* Using LZMA_SYNC_FLUSH very often can dramatically reduce
* the compression ratio. With some filters (for example,
* LZMA2), fine-tuning the compression options may help
* mitigate this problem significantly (for example,
* match finder with LZMA2).
*
* Decoders don't support LZMA_SYNC_FLUSH.
*/
LZMA_FULL_FLUSH = 2,
/**<
* \brief Finish encoding of the current Block
*
* All the input data going to the current Block must have
* been given to the encoder (the last bytes can still be
* pending in *next_in). Call lzma_code() with LZMA_FULL_FLUSH
* until it returns LZMA_STREAM_END. Then continue normally
* with LZMA_RUN or finish the Stream with LZMA_FINISH.
*
* This action is currently supported only by Stream encoder
* and easy encoder (which uses Stream encoder). If there is
* no unfinished Block, no empty Block is created.
*/
LZMA_FULL_BARRIER = 4,
/**<
* \brief Finish encoding of the current Block
*
* This is like LZMA_FULL_FLUSH except that this doesn't
* necessarily wait until all the input has been made
* available via the output buffer. That is, lzma_code()
* might return LZMA_STREAM_END as soon as all the input
* has been consumed (avail_in == 0).
*
* LZMA_FULL_BARRIER is useful with a threaded encoder if
* one wants to split the .xz Stream into Blocks at specific
* offsets but doesn't care if the output isn't flushed
* immediately. Using LZMA_FULL_BARRIER allows keeping
* the threads busy while LZMA_FULL_FLUSH would make
* lzma_code() wait until all the threads have finished
* until more data could be passed to the encoder.
*
* With a lzma_stream initialized with the single-threaded
* lzma_stream_encoder() or lzma_easy_encoder(),
* LZMA_FULL_BARRIER is an alias for LZMA_FULL_FLUSH.
*/
LZMA_FINISH = 3
/**<
* \brief Finish the coding operation
*
* All the input data must have been given to the encoder
* (the last bytes can still be pending in next_in).
* Call lzma_code() with LZMA_FINISH until it returns
* LZMA_STREAM_END. Once LZMA_FINISH has been used,
* the amount of input must no longer be changed by
* the application.
*
* When decoding, using LZMA_FINISH is optional unless the
* LZMA_CONCATENATED flag was used when the decoder was
* initialized. When LZMA_CONCATENATED was not used, the only
* effect of LZMA_FINISH is that the amount of input must not
* be changed just like in the encoder.
*/
} lzma_action;
/**
* \brief Custom functions for memory handling
*
* A pointer to lzma_allocator may be passed via lzma_stream structure
* to liblzma, and some advanced functions take a pointer to lzma_allocator
* as a separate function argument. The library will use the functions
* specified in lzma_allocator for memory handling instead of the default
* malloc() and free(). C++ users should note that the custom memory
* handling functions must not throw exceptions.
*
* Single-threaded mode only: liblzma doesn't make an internal copy of
* lzma_allocator. Thus, it is OK to change these function pointers in
* the middle of the coding process, but obviously it must be done
* carefully to make sure that the replacement `free' can deallocate
* memory allocated by the earlier `alloc' function(s).
*
* Multithreaded mode: liblzma might internally store pointers to the
* lzma_allocator given via the lzma_stream structure. The application
* must not change the allocator pointer in lzma_stream or the contents
* of the pointed lzma_allocator structure until lzma_end() has been used
* to free the memory associated with that lzma_stream. The allocation
* functions might be called simultaneously from multiple threads, and
* thus they must be thread safe.
*/
typedef struct {
/**
* \brief Pointer to a custom memory allocation function
*
* If you don't want a custom allocator, but still want
* custom free(), set this to NULL and liblzma will use
* the standard malloc().
*
* \param opaque lzma_allocator.opaque (see below)
* \param nmemb Number of elements like in calloc(). liblzma
* will always set nmemb to 1, so it is safe to
* ignore nmemb in a custom allocator if you like.
* The nmemb argument exists only for
* compatibility with zlib and libbzip2.
* \param size Size of an element in bytes.
* liblzma never sets this to zero.
*
* \return Pointer to the beginning of a memory block of
* `size' bytes, or NULL if allocation fails
* for some reason. When allocation fails, functions
* of liblzma return LZMA_MEM_ERROR.
*
* The allocator should not waste time zeroing the allocated buffers.
* This is not only about speed, but also memory usage, since the
* operating system kernel doesn't necessarily allocate the requested
* memory in physical memory until it is actually used. With small
* input files, liblzma may actually need only a fraction of the
* memory that it requested for allocation.
*
* \note LZMA_MEM_ERROR is also used when the size of the
* allocation would be greater than SIZE_MAX. Thus,
* don't assume that the custom allocator must have
* returned NULL if some function from liblzma
* returns LZMA_MEM_ERROR.
*/
void *(LZMA_API_CALL *alloc)(void *opaque, size_t nmemb, size_t size);
/**
* \brief Pointer to a custom memory freeing function
*
* If you don't want a custom freeing function, but still
* want a custom allocator, set this to NULL and liblzma
* will use the standard free().
*
* \param opaque lzma_allocator.opaque (see below)
* \param ptr Pointer returned by lzma_allocator.alloc(),
* or when it is set to NULL, a pointer returned
* by the standard malloc().
*/
void (LZMA_API_CALL *free)(void *opaque, void *ptr);
/**
* \brief Pointer passed to .alloc() and .free()
*
* opaque is passed as the first argument to lzma_allocator.alloc()
* and lzma_allocator.free(). This intended to ease implementing
* custom memory allocation functions for use with liblzma.
*
* If you don't need this, you should set this to NULL.
*/
void *opaque;
} lzma_allocator;
/**
* \brief Internal data structure
*
* The contents of this structure is not visible outside the library.
*/
typedef struct lzma_internal_s lzma_internal;
/**
* \brief Passing data to and from liblzma
*
* The lzma_stream structure is used for
* - passing pointers to input and output buffers to liblzma;
* - defining custom memory hander functions; and
* - holding a pointer to coder-specific internal data structures.
*
* Typical usage:
*
* - After allocating lzma_stream (on stack or with malloc()), it must be
* initialized to LZMA_STREAM_INIT (see LZMA_STREAM_INIT for details).
*
* - Initialize a coder to the lzma_stream, for example by using
* lzma_easy_encoder() or lzma_auto_decoder(). Some notes:
* - In contrast to zlib, strm->next_in and strm->next_out are
* ignored by all initialization functions, thus it is safe
* to not initialize them yet.
* - The initialization functions always set strm->total_in and
* strm->total_out to zero.
* - If the initialization function fails, no memory is left allocated
* that would require freeing with lzma_end() even if some memory was
* associated with the lzma_stream structure when the initialization
* function was called.
*
* - Use lzma_code() to do the actual work.
*
* - Once the coding has been finished, the existing lzma_stream can be
* reused. It is OK to reuse lzma_stream with different initialization
* function without calling lzma_end() first. Old allocations are
* automatically freed.
*
* - Finally, use lzma_end() to free the allocated memory. lzma_end() never
* frees the lzma_stream structure itself.
*
* Application may modify the values of total_in and total_out as it wants.
* They are updated by liblzma to match the amount of data read and
* written but aren't used for anything else except as a possible return
* values from lzma_get_progress().
*/
typedef struct {
const uint8_t *next_in; /**< Pointer to the next input byte. */
size_t avail_in; /**< Number of available input bytes in next_in. */
uint64_t total_in; /**< Total number of bytes read by liblzma. */
uint8_t *next_out; /**< Pointer to the next output position. */
size_t avail_out; /**< Amount of free space in next_out. */
uint64_t total_out; /**< Total number of bytes written by liblzma. */
/**
* \brief Custom memory allocation functions
*
* In most cases this is NULL which makes liblzma use
* the standard malloc() and free().
*
* \note In 5.0.x this is not a const pointer.
*/
const lzma_allocator *allocator;
/** Internal state is not visible to applications. */
lzma_internal *internal;
/*
* Reserved space to allow possible future extensions without
* breaking the ABI. Excluding the initialization of this structure,
* you should not touch these, because the names of these variables
* may change.
*/
void *reserved_ptr1;
void *reserved_ptr2;
void *reserved_ptr3;
void *reserved_ptr4;
uint64_t reserved_int1;
uint64_t reserved_int2;
size_t reserved_int3;
size_t reserved_int4;
lzma_reserved_enum reserved_enum1;
lzma_reserved_enum reserved_enum2;
} lzma_stream;
/**
* \brief Initialization for lzma_stream
*
* When you declare an instance of lzma_stream, you can immediately
* initialize it so that initialization functions know that no memory
* has been allocated yet:
*
* lzma_stream strm = LZMA_STREAM_INIT;
*
* If you need to initialize a dynamically allocated lzma_stream, you can use
* memset(strm_pointer, 0, sizeof(lzma_stream)). Strictly speaking, this
* violates the C standard since NULL may have different internal
* representation than zero, but it should be portable enough in practice.
* Anyway, for maximum portability, you can use something like this:
*
* lzma_stream tmp = LZMA_STREAM_INIT;
* *strm = tmp;
*/
#define LZMA_STREAM_INIT \
{ NULL, 0, 0, NULL, 0, 0, NULL, NULL, \
NULL, NULL, NULL, NULL, 0, 0, 0, 0, \
LZMA_RESERVED_ENUM, LZMA_RESERVED_ENUM }
/**
* \brief Encode or decode data
*
* Once the lzma_stream has been successfully initialized (e.g. with
* lzma_stream_encoder()), the actual encoding or decoding is done
* using this function. The application has to update strm->next_in,
* strm->avail_in, strm->next_out, and strm->avail_out to pass input
* to and get output from liblzma.
*
* See the description of the coder-specific initialization function to find
* out what `action' values are supported by the coder.
*/
extern LZMA_API(lzma_ret) lzma_code(lzma_stream *strm, lzma_action action)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Free memory allocated for the coder data structures
*
* \param strm Pointer to lzma_stream that is at least initialized
* with LZMA_STREAM_INIT.
*
* After lzma_end(strm), strm->internal is guaranteed to be NULL. No other
* members of the lzma_stream structure are touched.
*
* \note zlib indicates an error if application end()s unfinished
* stream structure. liblzma doesn't do this, and assumes that
* application knows what it is doing.
*/
extern LZMA_API(void) lzma_end(lzma_stream *strm) lzma_nothrow;
/**
* \brief Get progress information
*
* In single-threaded mode, applications can get progress information from
* strm->total_in and strm->total_out. In multi-threaded mode this is less
* useful because a significant amount of both input and output data gets
* buffered internally by liblzma. This makes total_in and total_out give
* misleading information and also makes the progress indicator updates
* non-smooth.
*
* This function gives realistic progress information also in multi-threaded
* mode by taking into account the progress made by each thread. In
* single-threaded mode *progress_in and *progress_out are set to
* strm->total_in and strm->total_out, respectively.
*/
extern LZMA_API(void) lzma_get_progress(lzma_stream *strm,
uint64_t *progress_in, uint64_t *progress_out) lzma_nothrow;
/**
* \brief Get the memory usage of decoder filter chain
*
* This function is currently supported only when *strm has been initialized
* with a function that takes a memlimit argument. With other functions, you
* should use e.g. lzma_raw_encoder_memusage() or lzma_raw_decoder_memusage()
* to estimate the memory requirements.
*
* This function is useful e.g. after LZMA_MEMLIMIT_ERROR to find out how big
* the memory usage limit should have been to decode the input. Note that
* this may give misleading information if decoding .xz Streams that have
* multiple Blocks, because each Block can have different memory requirements.
*
* \return How much memory is currently allocated for the filter
* decoders. If no filter chain is currently allocated,
* some non-zero value is still returned, which is less than
* or equal to what any filter chain would indicate as its
* memory requirement.
*
* If this function isn't supported by *strm or some other error
* occurs, zero is returned.
*/
extern LZMA_API(uint64_t) lzma_memusage(const lzma_stream *strm)
lzma_nothrow lzma_attr_pure;
/**
* \brief Get the current memory usage limit
*
* This function is supported only when *strm has been initialized with
* a function that takes a memlimit argument.
*
* \return On success, the current memory usage limit is returned
* (always non-zero). On error, zero is returned.
*/
extern LZMA_API(uint64_t) lzma_memlimit_get(const lzma_stream *strm)
lzma_nothrow lzma_attr_pure;
/**
* \brief Set the memory usage limit
*
* This function is supported only when *strm has been initialized with
* a function that takes a memlimit argument.
*
* \return - LZMA_OK: New memory usage limit successfully set.
* - LZMA_MEMLIMIT_ERROR: The new limit is too small.
* The limit was not changed.
* - LZMA_PROG_ERROR: Invalid arguments, e.g. *strm doesn't
* support memory usage limit or memlimit was zero.
*/
extern LZMA_API(lzma_ret) lzma_memlimit_set(
lzma_stream *strm, uint64_t memlimit) lzma_nothrow;
game/client/third/minizip/lib/liblzma/api/lzma/check.h
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/**
* \file lzma/check.h
* \brief Integrity checks
*/
/*
* Author: Lasse Collin
*
* This file has been put into the public domain.
* You can do whatever you want with this file.
*
* See ../lzma.h for information about liblzma as a whole.
*/
#ifndef LZMA_H_INTERNAL
# error Never include this file directly. Use <lzma.h> instead.
#endif
/**
* \brief Type of the integrity check (Check ID)
*
* The .xz format supports multiple types of checks that are calculated
* from the uncompressed data. They vary in both speed and ability to
* detect errors.
*/
typedef enum {
LZMA_CHECK_NONE = 0,
/**<
* No Check is calculated.
*
* Size of the Check field: 0 bytes
*/
LZMA_CHECK_CRC32 = 1,
/**<
* CRC32 using the polynomial from the IEEE 802.3 standard
*
* Size of the Check field: 4 bytes
*/
LZMA_CHECK_CRC64 = 4,
/**<
* CRC64 using the polynomial from the ECMA-182 standard
*
* Size of the Check field: 8 bytes
*/
LZMA_CHECK_SHA256 = 10
/**<
* SHA-256
*
* Size of the Check field: 32 bytes
*/
} lzma_check;
/**
* \brief Maximum valid Check ID
*
* The .xz file format specification specifies 16 Check IDs (0-15). Some
* of them are only reserved, that is, no actual Check algorithm has been
* assigned. When decoding, liblzma still accepts unknown Check IDs for
* future compatibility. If a valid but unsupported Check ID is detected,
* liblzma can indicate a warning; see the flags LZMA_TELL_NO_CHECK,
* LZMA_TELL_UNSUPPORTED_CHECK, and LZMA_TELL_ANY_CHECK in container.h.
*/
#define LZMA_CHECK_ID_MAX 15
/**
* \brief Test if the given Check ID is supported
*
* Return true if the given Check ID is supported by this liblzma build.
* Otherwise false is returned. It is safe to call this with a value that
* is not in the range [0, 15]; in that case the return value is always false.
*
* You can assume that LZMA_CHECK_NONE and LZMA_CHECK_CRC32 are always
* supported (even if liblzma is built with limited features).
*/
extern LZMA_API(lzma_bool) lzma_check_is_supported(lzma_check check)
lzma_nothrow lzma_attr_const;
/**
* \brief Get the size of the Check field with the given Check ID
*
* Although not all Check IDs have a check algorithm associated, the size of
* every Check is already frozen. This function returns the size (in bytes) of
* the Check field with the specified Check ID. The values are:
* { 0, 4, 4, 4, 8, 8, 8, 16, 16, 16, 32, 32, 32, 64, 64, 64 }
*
* If the argument is not in the range [0, 15], UINT32_MAX is returned.
*/
extern LZMA_API(uint32_t) lzma_check_size(lzma_check check)
lzma_nothrow lzma_attr_const;
/**
* \brief Maximum size of a Check field
*/
#define LZMA_CHECK_SIZE_MAX 64
/**
* \brief Calculate CRC32
*
* Calculate CRC32 using the polynomial from the IEEE 802.3 standard.
*
* \param buf Pointer to the input buffer
* \param size Size of the input buffer
* \param crc Previously returned CRC value. This is used to
* calculate the CRC of a big buffer in smaller chunks.
* Set to zero when starting a new calculation.
*
* \return Updated CRC value, which can be passed to this function
* again to continue CRC calculation.
*/
extern LZMA_API(uint32_t) lzma_crc32(
const uint8_t *buf, size_t size, uint32_t crc)
lzma_nothrow lzma_attr_pure;
/**
* \brief Calculate CRC64
*
* Calculate CRC64 using the polynomial from the ECMA-182 standard.
*
* This function is used similarly to lzma_crc32(). See its documentation.
*/
extern LZMA_API(uint64_t) lzma_crc64(
const uint8_t *buf, size_t size, uint64_t crc)
lzma_nothrow lzma_attr_pure;
/*
* SHA-256 functions are currently not exported to public API.
* Contact Lasse Collin if you think it should be.
*/
/**
* \brief Get the type of the integrity check
*
* This function can be called only immediately after lzma_code() has
* returned LZMA_NO_CHECK, LZMA_UNSUPPORTED_CHECK, or LZMA_GET_CHECK.
* Calling this function in any other situation has undefined behavior.
*/
extern LZMA_API(lzma_check) lzma_get_check(const lzma_stream *strm)
lzma_nothrow;
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/**
* \file lzma/container.h
* \brief File formats
*/
/*
* Author: Lasse Collin
*
* This file has been put into the public domain.
* You can do whatever you want with this file.
*
* See ../lzma.h for information about liblzma as a whole.
*/
#ifndef LZMA_H_INTERNAL
# error Never include this file directly. Use <lzma.h> instead.
#endif
/************
* Encoding *
************/
/**
* \brief Default compression preset
*
* It's not straightforward to recommend a default preset, because in some
* cases keeping the resource usage relatively low is more important that
* getting the maximum compression ratio.
*/
#define LZMA_PRESET_DEFAULT UINT32_C(6)
/**
* \brief Mask for preset level
*
* This is useful only if you need to extract the level from the preset
* variable. That should be rare.
*/
#define LZMA_PRESET_LEVEL_MASK UINT32_C(0x1F)
/*
* Preset flags
*
* Currently only one flag is defined.
*/
/**
* \brief Extreme compression preset
*
* This flag modifies the preset to make the encoding significantly slower
* while improving the compression ratio only marginally. This is useful
* when you don't mind wasting time to get as small result as possible.
*
* This flag doesn't affect the memory usage requirements of the decoder (at
* least not significantly). The memory usage of the encoder may be increased
* a little but only at the lowest preset levels (0-3).
*/
#define LZMA_PRESET_EXTREME (UINT32_C(1) << 31)
/**
* \brief Multithreading options
*/
typedef struct {
/**
* \brief Flags
*
* Set this to zero if no flags are wanted.
*
* No flags are currently supported.
*/
uint32_t flags;
/**
* \brief Number of worker threads to use
*/
uint32_t threads;
/**
* \brief Maximum uncompressed size of a Block
*
* The encoder will start a new .xz Block every block_size bytes.
* Using LZMA_FULL_FLUSH or LZMA_FULL_BARRIER with lzma_code()
* the caller may tell liblzma to start a new Block earlier.
*
* With LZMA2, a recommended block size is 2-4 times the LZMA2
* dictionary size. With very small dictionaries, it is recommended
* to use at least 1 MiB block size for good compression ratio, even
* if this is more than four times the dictionary size. Note that
* these are only recommendations for typical use cases; feel free
* to use other values. Just keep in mind that using a block size
* less than the LZMA2 dictionary size is waste of RAM.
*
* Set this to 0 to let liblzma choose the block size depending
* on the compression options. For LZMA2 it will be 3*dict_size
* or 1 MiB, whichever is more.
*
* For each thread, about 3 * block_size bytes of memory will be
* allocated. This may change in later liblzma versions. If so,
* the memory usage will probably be reduced, not increased.
*/
uint64_t block_size;
/**
* \brief Timeout to allow lzma_code() to return early
*
* Multithreading can make liblzma to consume input and produce
* output in a very bursty way: it may first read a lot of input
* to fill internal buffers, then no input or output occurs for
* a while.
*
* In single-threaded mode, lzma_code() won't return until it has
* either consumed all the input or filled the output buffer. If
* this is done in multithreaded mode, it may cause a call
* lzma_code() to take even tens of seconds, which isn't acceptable
* in all applications.
*
* To avoid very long blocking times in lzma_code(), a timeout
* (in milliseconds) may be set here. If lzma_code() would block
* longer than this number of milliseconds, it will return with
* LZMA_OK. Reasonable values are 100 ms or more. The xz command
* line tool uses 300 ms.
*
* If long blocking times are fine for you, set timeout to a special
* value of 0, which will disable the timeout mechanism and will make
* lzma_code() block until all the input is consumed or the output
* buffer has been filled.
*
* \note Even with a timeout, lzma_code() might sometimes take
* somewhat long time to return. No timing guarantees
* are made.
*/
uint32_t timeout;
/**
* \brief Compression preset (level and possible flags)
*
* The preset is set just like with lzma_easy_encoder().
* The preset is ignored if filters below is non-NULL.
*/
uint32_t preset;
/**
* \brief Filter chain (alternative to a preset)
*
* If this is NULL, the preset above is used. Otherwise the preset
* is ignored and the filter chain specified here is used.
*/
const lzma_filter *filters;
/**
* \brief Integrity check type
*
* See check.h for available checks. The xz command line tool
* defaults to LZMA_CHECK_CRC64, which is a good choice if you
* are unsure.
*/
lzma_check check;
/*
* Reserved space to allow possible future extensions without
* breaking the ABI. You should not touch these, because the names
* of these variables may change. These are and will never be used
* with the currently supported options, so it is safe to leave these
* uninitialized.
*/
lzma_reserved_enum reserved_enum1;
lzma_reserved_enum reserved_enum2;
lzma_reserved_enum reserved_enum3;
uint32_t reserved_int1;
uint32_t reserved_int2;
uint32_t reserved_int3;
uint32_t reserved_int4;
uint64_t reserved_int5;
uint64_t reserved_int6;
uint64_t reserved_int7;
uint64_t reserved_int8;
void *reserved_ptr1;
void *reserved_ptr2;
void *reserved_ptr3;
void *reserved_ptr4;
} lzma_mt;
/**
* \brief Calculate approximate memory usage of easy encoder
*
* This function is a wrapper for lzma_raw_encoder_memusage().
*
* \param preset Compression preset (level and possible flags)
*
* \return Number of bytes of memory required for the given
* preset when encoding. If an error occurs, for example
* due to unsupported preset, UINT64_MAX is returned.
*/
extern LZMA_API(uint64_t) lzma_easy_encoder_memusage(uint32_t preset)
lzma_nothrow lzma_attr_pure;
/**
* \brief Calculate approximate decoder memory usage of a preset
*
* This function is a wrapper for lzma_raw_decoder_memusage().
*
* \param preset Compression preset (level and possible flags)
*
* \return Number of bytes of memory required to decompress a file
* that was compressed using the given preset. If an error
* occurs, for example due to unsupported preset, UINT64_MAX
* is returned.
*/
extern LZMA_API(uint64_t) lzma_easy_decoder_memusage(uint32_t preset)
lzma_nothrow lzma_attr_pure;
/**
* \brief Initialize .xz Stream encoder using a preset number
*
* This function is intended for those who just want to use the basic features
* if liblzma (that is, most developers out there).
*
* \param strm Pointer to lzma_stream that is at least initialized
* with LZMA_STREAM_INIT.
* \param preset Compression preset to use. A preset consist of level
* number and zero or more flags. Usually flags aren't
* used, so preset is simply a number [0, 9] which match
* the options -0 ... -9 of the xz command line tool.
* Additional flags can be be set using bitwise-or with
* the preset level number, e.g. 6 | LZMA_PRESET_EXTREME.
* \param check Integrity check type to use. See check.h for available
* checks. The xz command line tool defaults to
* LZMA_CHECK_CRC64, which is a good choice if you are
* unsure. LZMA_CHECK_CRC32 is good too as long as the
* uncompressed file is not many gigabytes.
*
* \return - LZMA_OK: Initialization succeeded. Use lzma_code() to
* encode your data.
* - LZMA_MEM_ERROR: Memory allocation failed.
* - LZMA_OPTIONS_ERROR: The given compression preset is not
* supported by this build of liblzma.
* - LZMA_UNSUPPORTED_CHECK: The given check type is not
* supported by this liblzma build.
* - LZMA_PROG_ERROR: One or more of the parameters have values
* that will never be valid. For example, strm == NULL.
*
* If initialization fails (return value is not LZMA_OK), all the memory
* allocated for *strm by liblzma is always freed. Thus, there is no need
* to call lzma_end() after failed initialization.
*
* If initialization succeeds, use lzma_code() to do the actual encoding.
* Valid values for `action' (the second argument of lzma_code()) are
* LZMA_RUN, LZMA_SYNC_FLUSH, LZMA_FULL_FLUSH, and LZMA_FINISH. In future,
* there may be compression levels or flags that don't support LZMA_SYNC_FLUSH.
*/
extern LZMA_API(lzma_ret) lzma_easy_encoder(
lzma_stream *strm, uint32_t preset, lzma_check check)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Single-call .xz Stream encoding using a preset number
*
* The maximum required output buffer size can be calculated with
* lzma_stream_buffer_bound().
*
* \param preset Compression preset to use. See the description
* in lzma_easy_encoder().
* \param check Type of the integrity check to calculate from
* uncompressed data.
* \param allocator lzma_allocator for custom allocator functions.
* Set to NULL to use malloc() and free().
* \param in Beginning of the input buffer
* \param in_size Size of the input buffer
* \param out Beginning of the output buffer
* \param out_pos The next byte will be written to out[*out_pos].
* *out_pos is updated only if encoding succeeds.
* \param out_size Size of the out buffer; the first byte into
* which no data is written to is out[out_size].
*
* \return - LZMA_OK: Encoding was successful.
* - LZMA_BUF_ERROR: Not enough output buffer space.
* - LZMA_UNSUPPORTED_CHECK
* - LZMA_OPTIONS_ERROR
* - LZMA_MEM_ERROR
* - LZMA_DATA_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_easy_buffer_encode(
uint32_t preset, lzma_check check,
const lzma_allocator *allocator,
const uint8_t *in, size_t in_size,
uint8_t *out, size_t *out_pos, size_t out_size) lzma_nothrow;
/**
* \brief Initialize .xz Stream encoder using a custom filter chain
*
* \param strm Pointer to properly prepared lzma_stream
* \param filters Array of filters. This must be terminated with
* filters[n].id = LZMA_VLI_UNKNOWN. See filter.h for
* more information.
* \param check Type of the integrity check to calculate from
* uncompressed data.
*
* \return - LZMA_OK: Initialization was successful.
* - LZMA_MEM_ERROR
* - LZMA_UNSUPPORTED_CHECK
* - LZMA_OPTIONS_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_stream_encoder(lzma_stream *strm,
const lzma_filter *filters, lzma_check check)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Calculate approximate memory usage of multithreaded .xz encoder
*
* Since doing the encoding in threaded mode doesn't affect the memory
* requirements of single-threaded decompressor, you can use
* lzma_easy_decoder_memusage(options->preset) or
* lzma_raw_decoder_memusage(options->filters) to calculate
* the decompressor memory requirements.
*
* \param options Compression options
*
* \return Number of bytes of memory required for encoding with the
* given options. If an error occurs, for example due to
* unsupported preset or filter chain, UINT64_MAX is returned.
*/
extern LZMA_API(uint64_t) lzma_stream_encoder_mt_memusage(
const lzma_mt *options) lzma_nothrow lzma_attr_pure;
/**
* \brief Initialize multithreaded .xz Stream encoder
*
* This provides the functionality of lzma_easy_encoder() and
* lzma_stream_encoder() as a single function for multithreaded use.
*
* The supported actions for lzma_code() are LZMA_RUN, LZMA_FULL_FLUSH,
* LZMA_FULL_BARRIER, and LZMA_FINISH. Support for LZMA_SYNC_FLUSH might be
* added in the future.
*
* \param strm Pointer to properly prepared lzma_stream
* \param options Pointer to multithreaded compression options
*
* \return - LZMA_OK
* - LZMA_MEM_ERROR
* - LZMA_UNSUPPORTED_CHECK
* - LZMA_OPTIONS_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_stream_encoder_mt(
lzma_stream *strm, const lzma_mt *options)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Initialize .lzma encoder (legacy file format)
*
* The .lzma format is sometimes called the LZMA_Alone format, which is the
* reason for the name of this function. The .lzma format supports only the
* LZMA1 filter. There is no support for integrity checks like CRC32.
*
* Use this function if and only if you need to create files readable by
* legacy LZMA tools such as LZMA Utils 4.32.x. Moving to the .xz format
* is strongly recommended.
*
* The valid action values for lzma_code() are LZMA_RUN and LZMA_FINISH.
* No kind of flushing is supported, because the file format doesn't make
* it possible.
*
* \return - LZMA_OK
* - LZMA_MEM_ERROR
* - LZMA_OPTIONS_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_alone_encoder(
lzma_stream *strm, const lzma_options_lzma *options)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Calculate output buffer size for single-call Stream encoder
*
* When trying to compress uncompressible data, the encoded size will be
* slightly bigger than the input data. This function calculates how much
* output buffer space is required to be sure that lzma_stream_buffer_encode()
* doesn't return LZMA_BUF_ERROR.
*
* The calculated value is not exact, but it is guaranteed to be big enough.
* The actual maximum output space required may be slightly smaller (up to
* about 100 bytes). This should not be a problem in practice.
*
* If the calculated maximum size doesn't fit into size_t or would make the
* Stream grow past LZMA_VLI_MAX (which should never happen in practice),
* zero is returned to indicate the error.
*
* \note The limit calculated by this function applies only to
* single-call encoding. Multi-call encoding may (and probably
* will) have larger maximum expansion when encoding
* uncompressible data. Currently there is no function to
* calculate the maximum expansion of multi-call encoding.
*/
extern LZMA_API(size_t) lzma_stream_buffer_bound(size_t uncompressed_size)
lzma_nothrow;
/**
* \brief Single-call .xz Stream encoder
*
* \param filters Array of filters. This must be terminated with
* filters[n].id = LZMA_VLI_UNKNOWN. See filter.h
* for more information.
* \param check Type of the integrity check to calculate from
* uncompressed data.
* \param allocator lzma_allocator for custom allocator functions.
* Set to NULL to use malloc() and free().
* \param in Beginning of the input buffer
* \param in_size Size of the input buffer
* \param out Beginning of the output buffer
* \param out_pos The next byte will be written to out[*out_pos].
* *out_pos is updated only if encoding succeeds.
* \param out_size Size of the out buffer; the first byte into
* which no data is written to is out[out_size].
*
* \return - LZMA_OK: Encoding was successful.
* - LZMA_BUF_ERROR: Not enough output buffer space.
* - LZMA_UNSUPPORTED_CHECK
* - LZMA_OPTIONS_ERROR
* - LZMA_MEM_ERROR
* - LZMA_DATA_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_stream_buffer_encode(
lzma_filter *filters, lzma_check check,
const lzma_allocator *allocator,
const uint8_t *in, size_t in_size,
uint8_t *out, size_t *out_pos, size_t out_size)
lzma_nothrow lzma_attr_warn_unused_result;
/************
* Decoding *
************/
/**
* This flag makes lzma_code() return LZMA_NO_CHECK if the input stream
* being decoded has no integrity check. Note that when used with
* lzma_auto_decoder(), all .lzma files will trigger LZMA_NO_CHECK
* if LZMA_TELL_NO_CHECK is used.
*/
#define LZMA_TELL_NO_CHECK UINT32_C(0x01)
/**
* This flag makes lzma_code() return LZMA_UNSUPPORTED_CHECK if the input
* stream has an integrity check, but the type of the integrity check is not
* supported by this liblzma version or build. Such files can still be
* decoded, but the integrity check cannot be verified.
*/
#define LZMA_TELL_UNSUPPORTED_CHECK UINT32_C(0x02)
/**
* This flag makes lzma_code() return LZMA_GET_CHECK as soon as the type
* of the integrity check is known. The type can then be got with
* lzma_get_check().
*/
#define LZMA_TELL_ANY_CHECK UINT32_C(0x04)
/**
* This flag makes lzma_code() not calculate and verify the integrity check
* of the compressed data in .xz files. This means that invalid integrity
* check values won't be detected and LZMA_DATA_ERROR won't be returned in
* such cases.
*
* This flag only affects the checks of the compressed data itself; the CRC32
* values in the .xz headers will still be verified normally.
*
* Don't use this flag unless you know what you are doing. Possible reasons
* to use this flag:
*
* - Trying to recover data from a corrupt .xz file.
*
* - Speeding up decompression, which matters mostly with SHA-256
* or with files that have compressed extremely well. It's recommended
* to not use this flag for this purpose unless the file integrity is
* verified externally in some other way.
*
* Support for this flag was added in liblzma 5.1.4beta.
*/
#define LZMA_IGNORE_CHECK UINT32_C(0x10)
/**
* This flag enables decoding of concatenated files with file formats that
* allow concatenating compressed files as is. From the formats currently
* supported by liblzma, only the .xz format allows concatenated files.
* Concatenated files are not allowed with the legacy .lzma format.
*
* This flag also affects the usage of the `action' argument for lzma_code().
* When LZMA_CONCATENATED is used, lzma_code() won't return LZMA_STREAM_END
* unless LZMA_FINISH is used as `action'. Thus, the application has to set
* LZMA_FINISH in the same way as it does when encoding.
*
* If LZMA_CONCATENATED is not used, the decoders still accept LZMA_FINISH
* as `action' for lzma_code(), but the usage of LZMA_FINISH isn't required.
*/
#define LZMA_CONCATENATED UINT32_C(0x08)
/**
* \brief Initialize .xz Stream decoder
*
* \param strm Pointer to properly prepared lzma_stream
* \param memlimit Memory usage limit as bytes. Use UINT64_MAX
* to effectively disable the limiter.
* \param flags Bitwise-or of zero or more of the decoder flags:
* LZMA_TELL_NO_CHECK, LZMA_TELL_UNSUPPORTED_CHECK,
* LZMA_TELL_ANY_CHECK, LZMA_CONCATENATED
*
* \return - LZMA_OK: Initialization was successful.
* - LZMA_MEM_ERROR: Cannot allocate memory.
* - LZMA_OPTIONS_ERROR: Unsupported flags
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_stream_decoder(
lzma_stream *strm, uint64_t memlimit, uint32_t flags)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Decode .xz Streams and .lzma files with autodetection
*
* This decoder autodetects between the .xz and .lzma file formats, and
* calls lzma_stream_decoder() or lzma_alone_decoder() once the type
* of the input file has been detected.
*
* \param strm Pointer to properly prepared lzma_stream
* \param memlimit Memory usage limit as bytes. Use UINT64_MAX
* to effectively disable the limiter.
* \param flags Bitwise-or of flags, or zero for no flags.
*
* \return - LZMA_OK: Initialization was successful.
* - LZMA_MEM_ERROR: Cannot allocate memory.
* - LZMA_OPTIONS_ERROR: Unsupported flags
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_auto_decoder(
lzma_stream *strm, uint64_t memlimit, uint32_t flags)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Initialize .lzma decoder (legacy file format)
*
* Valid `action' arguments to lzma_code() are LZMA_RUN and LZMA_FINISH.
* There is no need to use LZMA_FINISH, but allowing it may simplify
* certain types of applications.
*
* \return - LZMA_OK
* - LZMA_MEM_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_alone_decoder(
lzma_stream *strm, uint64_t memlimit)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Single-call .xz Stream decoder
*
* \param memlimit Pointer to how much memory the decoder is allowed
* to allocate. The value pointed by this pointer is
* modified if and only if LZMA_MEMLIMIT_ERROR is
* returned.
* \param flags Bitwise-or of zero or more of the decoder flags:
* LZMA_TELL_NO_CHECK, LZMA_TELL_UNSUPPORTED_CHECK,
* LZMA_CONCATENATED. Note that LZMA_TELL_ANY_CHECK
* is not allowed and will return LZMA_PROG_ERROR.
* \param allocator lzma_allocator for custom allocator functions.
* Set to NULL to use malloc() and free().
* \param in Beginning of the input buffer
* \param in_pos The next byte will be read from in[*in_pos].
* *in_pos is updated only if decoding succeeds.
* \param in_size Size of the input buffer; the first byte that
* won't be read is in[in_size].
* \param out Beginning of the output buffer
* \param out_pos The next byte will be written to out[*out_pos].
* *out_pos is updated only if decoding succeeds.
* \param out_size Size of the out buffer; the first byte into
* which no data is written to is out[out_size].
*
* \return - LZMA_OK: Decoding was successful.
* - LZMA_FORMAT_ERROR
* - LZMA_OPTIONS_ERROR
* - LZMA_DATA_ERROR
* - LZMA_NO_CHECK: This can be returned only if using
* the LZMA_TELL_NO_CHECK flag.
* - LZMA_UNSUPPORTED_CHECK: This can be returned only if using
* the LZMA_TELL_UNSUPPORTED_CHECK flag.
* - LZMA_MEM_ERROR
* - LZMA_MEMLIMIT_ERROR: Memory usage limit was reached.
* The minimum required memlimit value was stored to *memlimit.
* - LZMA_BUF_ERROR: Output buffer was too small.
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_stream_buffer_decode(
uint64_t *memlimit, uint32_t flags,
const lzma_allocator *allocator,
const uint8_t *in, size_t *in_pos, size_t in_size,
uint8_t *out, size_t *out_pos, size_t out_size)
lzma_nothrow lzma_attr_warn_unused_result;
game/client/third/minizip/lib/liblzma/api/lzma/filter.h
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/**
* \file lzma/filter.h
* \brief Common filter related types and functions
*/
/*
* Author: Lasse Collin
*
* This file has been put into the public domain.
* You can do whatever you want with this file.
*
* See ../lzma.h for information about liblzma as a whole.
*/
#ifndef LZMA_H_INTERNAL
# error Never include this file directly. Use <lzma.h> instead.
#endif
/**
* \brief Maximum number of filters in a chain
*
* A filter chain can have 1-4 filters, of which three are allowed to change
* the size of the data. Usually only one or two filters are needed.
*/
#define LZMA_FILTERS_MAX 4
/**
* \brief Filter options
*
* This structure is used to pass Filter ID and a pointer filter's
* options to liblzma. A few functions work with a single lzma_filter
* structure, while most functions expect a filter chain.
*
* A filter chain is indicated with an array of lzma_filter structures.
* The array is terminated with .id = LZMA_VLI_UNKNOWN. Thus, the filter
* array must have LZMA_FILTERS_MAX + 1 elements (that is, five) to
* be able to hold any arbitrary filter chain. This is important when
* using lzma_block_header_decode() from block.h, because too small
* array would make liblzma write past the end of the filters array.
*/
typedef struct {
/**
* \brief Filter ID
*
* Use constants whose name begin with `LZMA_FILTER_' to specify
* different filters. In an array of lzma_filter structures, use
* LZMA_VLI_UNKNOWN to indicate end of filters.
*
* \note This is not an enum, because on some systems enums
* cannot be 64-bit.
*/
lzma_vli id;
/**
* \brief Pointer to filter-specific options structure
*
* If the filter doesn't need options, set this to NULL. If id is
* set to LZMA_VLI_UNKNOWN, options is ignored, and thus
* doesn't need be initialized.
*/
void *options;
} lzma_filter;
/**
* \brief Test if the given Filter ID is supported for encoding
*
* Return true if the give Filter ID is supported for encoding by this
* liblzma build. Otherwise false is returned.
*
* There is no way to list which filters are available in this particular
* liblzma version and build. It would be useless, because the application
* couldn't know what kind of options the filter would need.
*/
extern LZMA_API(lzma_bool) lzma_filter_encoder_is_supported(lzma_vli id)
lzma_nothrow lzma_attr_const;
/**
* \brief Test if the given Filter ID is supported for decoding
*
* Return true if the give Filter ID is supported for decoding by this
* liblzma build. Otherwise false is returned.
*/
extern LZMA_API(lzma_bool) lzma_filter_decoder_is_supported(lzma_vli id)
lzma_nothrow lzma_attr_const;
/**
* \brief Copy the filters array
*
* Copy the Filter IDs and filter-specific options from src to dest.
* Up to LZMA_FILTERS_MAX filters are copied, plus the terminating
* .id == LZMA_VLI_UNKNOWN. Thus, dest should have at least
* LZMA_FILTERS_MAX + 1 elements space unless the caller knows that
* src is smaller than that.
*
* Unless the filter-specific options is NULL, the Filter ID has to be
* supported by liblzma, because liblzma needs to know the size of every
* filter-specific options structure. The filter-specific options are not
* validated. If options is NULL, any unsupported Filter IDs are copied
* without returning an error.
*
* Old filter-specific options in dest are not freed, so dest doesn't
* need to be initialized by the caller in any way.
*
* If an error occurs, memory possibly already allocated by this function
* is always freed.
*
* \return - LZMA_OK
* - LZMA_MEM_ERROR
* - LZMA_OPTIONS_ERROR: Unsupported Filter ID and its options
* is not NULL.
* - LZMA_PROG_ERROR: src or dest is NULL.
*/
extern LZMA_API(lzma_ret) lzma_filters_copy(
const lzma_filter *src, lzma_filter *dest,
const lzma_allocator *allocator) lzma_nothrow;
/**
* \brief Calculate approximate memory requirements for raw encoder
*
* This function can be used to calculate the memory requirements for
* Block and Stream encoders too because Block and Stream encoders don't
* need significantly more memory than raw encoder.
*
* \param filters Array of filters terminated with
* .id == LZMA_VLI_UNKNOWN.
*
* \return Number of bytes of memory required for the given
* filter chain when encoding. If an error occurs,
* for example due to unsupported filter chain,
* UINT64_MAX is returned.
*/
extern LZMA_API(uint64_t) lzma_raw_encoder_memusage(const lzma_filter *filters)
lzma_nothrow lzma_attr_pure;
/**
* \brief Calculate approximate memory requirements for raw decoder
*
* This function can be used to calculate the memory requirements for
* Block and Stream decoders too because Block and Stream decoders don't
* need significantly more memory than raw decoder.
*
* \param filters Array of filters terminated with
* .id == LZMA_VLI_UNKNOWN.
*
* \return Number of bytes of memory required for the given
* filter chain when decoding. If an error occurs,
* for example due to unsupported filter chain,
* UINT64_MAX is returned.
*/
extern LZMA_API(uint64_t) lzma_raw_decoder_memusage(const lzma_filter *filters)
lzma_nothrow lzma_attr_pure;
/**
* \brief Initialize raw encoder
*
* This function may be useful when implementing custom file formats.
*
* \param strm Pointer to properly prepared lzma_stream
* \param filters Array of lzma_filter structures. The end of the
* array must be marked with .id = LZMA_VLI_UNKNOWN.
*
* The `action' with lzma_code() can be LZMA_RUN, LZMA_SYNC_FLUSH (if the
* filter chain supports it), or LZMA_FINISH.
*
* \return - LZMA_OK
* - LZMA_MEM_ERROR
* - LZMA_OPTIONS_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_raw_encoder(
lzma_stream *strm, const lzma_filter *filters)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Initialize raw decoder
*
* The initialization of raw decoder goes similarly to raw encoder.
*
* The `action' with lzma_code() can be LZMA_RUN or LZMA_FINISH. Using
* LZMA_FINISH is not required, it is supported just for convenience.
*
* \return - LZMA_OK
* - LZMA_MEM_ERROR
* - LZMA_OPTIONS_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_raw_decoder(
lzma_stream *strm, const lzma_filter *filters)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Update the filter chain in the encoder
*
* This function is for advanced users only. This function has two slightly
* different purposes:
*
* - After LZMA_FULL_FLUSH when using Stream encoder: Set a new filter
* chain, which will be used starting from the next Block.
*
* - After LZMA_SYNC_FLUSH using Raw, Block, or Stream encoder: Change
* the filter-specific options in the middle of encoding. The actual
* filters in the chain (Filter IDs) cannot be changed. In the future,
* it might become possible to change the filter options without
* using LZMA_SYNC_FLUSH.
*
* While rarely useful, this function may be called also when no data has
* been compressed yet. In that case, this function will behave as if
* LZMA_FULL_FLUSH (Stream encoder) or LZMA_SYNC_FLUSH (Raw or Block
* encoder) had been used right before calling this function.
*
* \return - LZMA_OK
* - LZMA_MEM_ERROR
* - LZMA_MEMLIMIT_ERROR
* - LZMA_OPTIONS_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_filters_update(
lzma_stream *strm, const lzma_filter *filters) lzma_nothrow;
/**
* \brief Single-call raw encoder
*
* \param filters Array of lzma_filter structures. The end of the
* array must be marked with .id = LZMA_VLI_UNKNOWN.
* \param allocator lzma_allocator for custom allocator functions.
* Set to NULL to use malloc() and free().
* \param in Beginning of the input buffer
* \param in_size Size of the input buffer
* \param out Beginning of the output buffer
* \param out_pos The next byte will be written to out[*out_pos].
* *out_pos is updated only if encoding succeeds.
* \param out_size Size of the out buffer; the first byte into
* which no data is written to is out[out_size].
*
* \return - LZMA_OK: Encoding was successful.
* - LZMA_BUF_ERROR: Not enough output buffer space.
* - LZMA_OPTIONS_ERROR
* - LZMA_MEM_ERROR
* - LZMA_DATA_ERROR
* - LZMA_PROG_ERROR
*
* \note There is no function to calculate how big output buffer
* would surely be big enough. (lzma_stream_buffer_bound()
* works only for lzma_stream_buffer_encode(); raw encoder
* won't necessarily meet that bound.)
*/
extern LZMA_API(lzma_ret) lzma_raw_buffer_encode(
const lzma_filter *filters, const lzma_allocator *allocator,
const uint8_t *in, size_t in_size, uint8_t *out,
size_t *out_pos, size_t out_size) lzma_nothrow;
/**
* \brief Single-call raw decoder
*
* \param filters Array of lzma_filter structures. The end of the
* array must be marked with .id = LZMA_VLI_UNKNOWN.
* \param allocator lzma_allocator for custom allocator functions.
* Set to NULL to use malloc() and free().
* \param in Beginning of the input buffer
* \param in_pos The next byte will be read from in[*in_pos].
* *in_pos is updated only if decoding succeeds.
* \param in_size Size of the input buffer; the first byte that
* won't be read is in[in_size].
* \param out Beginning of the output buffer
* \param out_pos The next byte will be written to out[*out_pos].
* *out_pos is updated only if encoding succeeds.
* \param out_size Size of the out buffer; the first byte into
* which no data is written to is out[out_size].
*/
extern LZMA_API(lzma_ret) lzma_raw_buffer_decode(
const lzma_filter *filters, const lzma_allocator *allocator,
const uint8_t *in, size_t *in_pos, size_t in_size,
uint8_t *out, size_t *out_pos, size_t out_size) lzma_nothrow;
/**
* \brief Get the size of the Filter Properties field
*
* This function may be useful when implementing custom file formats
* using the raw encoder and decoder.
*
* \param size Pointer to uint32_t to hold the size of the properties
* \param filter Filter ID and options (the size of the properties may
* vary depending on the options)
*
* \return - LZMA_OK
* - LZMA_OPTIONS_ERROR
* - LZMA_PROG_ERROR
*
* \note This function validates the Filter ID, but does not
* necessarily validate the options. Thus, it is possible
* that this returns LZMA_OK while the following call to
* lzma_properties_encode() returns LZMA_OPTIONS_ERROR.
*/
extern LZMA_API(lzma_ret) lzma_properties_size(
uint32_t *size, const lzma_filter *filter) lzma_nothrow;
/**
* \brief Encode the Filter Properties field
*
* \param filter Filter ID and options
* \param props Buffer to hold the encoded options. The size of
* buffer must have been already determined with
* lzma_properties_size().
*
* \return - LZMA_OK
* - LZMA_OPTIONS_ERROR
* - LZMA_PROG_ERROR
*
* \note Even this function won't validate more options than actually
* necessary. Thus, it is possible that encoding the properties
* succeeds but using the same options to initialize the encoder
* will fail.
*
* \note If lzma_properties_size() indicated that the size
* of the Filter Properties field is zero, calling
* lzma_properties_encode() is not required, but it
* won't do any harm either.
*/
extern LZMA_API(lzma_ret) lzma_properties_encode(
const lzma_filter *filter, uint8_t *props) lzma_nothrow;
/**
* \brief Decode the Filter Properties field
*
* \param filter filter->id must have been set to the correct
* Filter ID. filter->options doesn't need to be
* initialized (it's not freed by this function). The
* decoded options will be stored to filter->options.
* filter->options is set to NULL if there are no
* properties or if an error occurs.
* \param allocator Custom memory allocator used to allocate the
* options. Set to NULL to use the default malloc(),
* and in case of an error, also free().
* \param props Input buffer containing the properties.
* \param props_size Size of the properties. This must be the exact
* size; giving too much or too little input will
* return LZMA_OPTIONS_ERROR.
*
* \return - LZMA_OK
* - LZMA_OPTIONS_ERROR
* - LZMA_MEM_ERROR
*/
extern LZMA_API(lzma_ret) lzma_properties_decode(
lzma_filter *filter, const lzma_allocator *allocator,
const uint8_t *props, size_t props_size) lzma_nothrow;
/**
* \brief Calculate encoded size of a Filter Flags field
*
* Knowing the size of Filter Flags is useful to know when allocating
* memory to hold the encoded Filter Flags.
*
* \param size Pointer to integer to hold the calculated size
* \param filter Filter ID and associated options whose encoded
* size is to be calculated
*
* \return - LZMA_OK: *size set successfully. Note that this doesn't
* guarantee that filter->options is valid, thus
* lzma_filter_flags_encode() may still fail.
* - LZMA_OPTIONS_ERROR: Unknown Filter ID or unsupported options.
* - LZMA_PROG_ERROR: Invalid options
*
* \note If you need to calculate size of List of Filter Flags,
* you need to loop over every lzma_filter entry.
*/
extern LZMA_API(lzma_ret) lzma_filter_flags_size(
uint32_t *size, const lzma_filter *filter)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Encode Filter Flags into given buffer
*
* In contrast to some functions, this doesn't allocate the needed buffer.
* This is due to how this function is used internally by liblzma.
*
* \param filter Filter ID and options to be encoded
* \param out Beginning of the output buffer
* \param out_pos out[*out_pos] is the next write position. This
* is updated by the encoder.
* \param out_size out[out_size] is the first byte to not write.
*
* \return - LZMA_OK: Encoding was successful.
* - LZMA_OPTIONS_ERROR: Invalid or unsupported options.
* - LZMA_PROG_ERROR: Invalid options or not enough output
* buffer space (you should have checked it with
* lzma_filter_flags_size()).
*/
extern LZMA_API(lzma_ret) lzma_filter_flags_encode(const lzma_filter *filter,
uint8_t *out, size_t *out_pos, size_t out_size)
lzma_nothrow lzma_attr_warn_unused_result;
/**
* \brief Decode Filter Flags from given buffer
*
* The decoded result is stored into *filter. The old value of
* filter->options is not free()d.
*
* \return - LZMA_OK
* - LZMA_OPTIONS_ERROR
* - LZMA_MEM_ERROR
* - LZMA_PROG_ERROR
*/
extern LZMA_API(lzma_ret) lzma_filter_flags_decode(
lzma_filter *filter, const lzma_allocator *allocator,
const uint8_t *in, size_t *in_pos, size_t in_size)
lzma_nothrow lzma_attr_warn_unused_result;
game/client/third/minizip/lib/liblzma/api/lzma/lzma12.h
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/**
* \file lzma/lzma12.h
* \brief LZMA1 and LZMA2 filters
*/
/*
* Author: Lasse Collin
*
* This file has been put into the public domain.
* You can do whatever you want with this file.
*
* See ../lzma.h for information about liblzma as a whole.
*/
#ifndef LZMA_H_INTERNAL
# error Never include this file directly. Use <lzma.h> instead.
#endif
/**
* \brief LZMA1 Filter ID
*
* LZMA1 is the very same thing as what was called just LZMA in LZMA Utils,
* 7-Zip, and LZMA SDK. It's called LZMA1 here to prevent developers from
* accidentally using LZMA when they actually want LZMA2.
*
* LZMA1 shouldn't be used for new applications unless you _really_ know
* what you are doing. LZMA2 is almost always a better choice.
*/
#define LZMA_FILTER_LZMA1 LZMA_VLI_C(0x4000000000000001)
/**
* \brief LZMA2 Filter ID
*
* Usually you want this instead of LZMA1. Compared to LZMA1, LZMA2 adds
* support for LZMA_SYNC_FLUSH, uncompressed chunks (smaller expansion
* when trying to compress uncompressible data), possibility to change
* lc/lp/pb in the middle of encoding, and some other internal improvements.
*/
#define LZMA_FILTER_LZMA2 LZMA_VLI_C(0x21)
/**
* \brief Match finders
*
* Match finder has major effect on both speed and compression ratio.
* Usually hash chains are faster than binary trees.
*
* If you will use LZMA_SYNC_FLUSH often, the hash chains may be a better
* choice, because binary trees get much higher compression ratio penalty
* with LZMA_SYNC_FLUSH.
*
* The memory usage formulas are only rough estimates, which are closest to
* reality when dict_size is a power of two. The formulas are more complex
* in reality, and can also change a little between liblzma versions. Use
* lzma_raw_encoder_memusage() to get more accurate estimate of memory usage.
*/
typedef enum {
LZMA_MF_HC3 = 0x03,
/**<
* \brief Hash Chain with 2- and 3-byte hashing
*
* Minimum nice_len: 3
*
* Memory usage:
* - dict_size <= 16 MiB: dict_size * 7.5
* - dict_size > 16 MiB: dict_size * 5.5 + 64 MiB
*/
LZMA_MF_HC4 = 0x04,
/**<
* \brief Hash Chain with 2-, 3-, and 4-byte hashing
*
* Minimum nice_len: 4
*
* Memory usage:
* - dict_size <= 32 MiB: dict_size * 7.5
* - dict_size > 32 MiB: dict_size * 6.5
*/
LZMA_MF_BT2 = 0x12,
/**<
* \brief Binary Tree with 2-byte hashing
*
* Minimum nice_len: 2
*
* Memory usage: dict_size * 9.5
*/
LZMA_MF_BT3 = 0x13,
/**<
* \brief Binary Tree with 2- and 3-byte hashing
*
* Minimum nice_len: 3
*
* Memory usage:
* - dict_size <= 16 MiB: dict_size * 11.5
* - dict_size > 16 MiB: dict_size * 9.5 + 64 MiB
*/
LZMA_MF_BT4 = 0x14
/**<
* \brief Binary Tree with 2-, 3-, and 4-byte hashing
*
* Minimum nice_len: 4
*
* Memory usage:
* - dict_size <= 32 MiB: dict_size * 11.5
* - dict_size > 32 MiB: dict_size * 10.5
*/
} lzma_match_finder;
/**
* \brief Test if given match finder is supported
*
* Return true if the given match finder is supported by this liblzma build.
* Otherwise false is returned. It is safe to call this with a value that
* isn't listed in lzma_match_finder enumeration; the return value will be
* false.
*
* There is no way to list which match finders are available in this
* particular liblzma version and build. It would be useless, because
* a new match finder, which the application developer wasn't aware,
* could require giving additional options to the encoder that the older
* match finders don't need.
*/
extern LZMA_API(lzma_bool) lzma_mf_is_supported(lzma_match_finder match_finder)
lzma_nothrow lzma_attr_const;
/**
* \brief Compression modes
*
* This selects the function used to analyze the data produced by the match
* finder.
*/
typedef enum {
LZMA_MODE_FAST = 1,
/**<
* \brief Fast compression
*
* Fast mode is usually at its best when combined with
* a hash chain match finder.
*/
LZMA_MODE_NORMAL = 2
/**<
* \brief Normal compression
*
* This is usually notably slower than fast mode. Use this
* together with binary tree match finders to expose the
* full potential of the LZMA1 or LZMA2 encoder.
*/
} lzma_mode;
/**
* \brief Test if given compression mode is supported
*
* Return true if the given compression mode is supported by this liblzma
* build. Otherwise false is returned. It is safe to call this with a value
* that isn't listed in lzma_mode enumeration; the return value will be false.
*
* There is no way to list which modes are available in this particular
* liblzma version and build. It would be useless, because a new compression
* mode, which the application developer wasn't aware, could require giving
* additional options to the encoder that the older modes don't need.
*/
extern LZMA_API(lzma_bool) lzma_mode_is_supported(lzma_mode mode)
lzma_nothrow lzma_attr_const;
/**
* \brief Options specific to the LZMA1 and LZMA2 filters
*
* Since LZMA1 and LZMA2 share most of the code, it's simplest to share
* the options structure too. For encoding, all but the reserved variables
* need to be initialized unless specifically mentioned otherwise.
* lzma_lzma_preset() can be used to get a good starting point.
*
* For raw decoding, both LZMA1 and LZMA2 need dict_size, preset_dict, and
* preset_dict_size (if preset_dict != NULL). LZMA1 needs also lc, lp, and pb.
*/
typedef struct {
/**
* \brief Dictionary size in bytes
*
* Dictionary size indicates how many bytes of the recently processed
* uncompressed data is kept in memory. One method to reduce size of
* the uncompressed data is to store distance-length pairs, which
* indicate what data to repeat from the dictionary buffer. Thus,
* the bigger the dictionary, the better the compression ratio
* usually is.
*
* Maximum size of the dictionary depends on multiple things:
* - Memory usage limit
* - Available address space (not a problem on 64-bit systems)
* - Selected match finder (encoder only)
*
* Currently the maximum dictionary size for encoding is 1.5 GiB
* (i.e. (UINT32_C(1) << 30) + (UINT32_C(1) << 29)) even on 64-bit
* systems for certain match finder implementation reasons. In the
* future, there may be match finders that support bigger
* dictionaries.
*
* Decoder already supports dictionaries up to 4 GiB - 1 B (i.e.
* UINT32_MAX), so increasing the maximum dictionary size of the
* encoder won't cause problems for old decoders.
*
* Because extremely small dictionaries sizes would have unneeded
* overhead in the decoder, the minimum dictionary size is 4096 bytes.
*
* \note When decoding, too big dictionary does no other harm
* than wasting memory.
*/
uint32_t dict_size;
# define LZMA_DICT_SIZE_MIN UINT32_C(4096)
# define LZMA_DICT_SIZE_DEFAULT (UINT32_C(1) << 23)
/**
* \brief Pointer to an initial dictionary
*
* It is possible to initialize the LZ77 history window using
* a preset dictionary. It is useful when compressing many
* similar, relatively small chunks of data independently from
* each other. The preset dictionary should contain typical
* strings that occur in the files being compressed. The most
* probable strings should be near the end of the preset dictionary.
*
* This feature should be used only in special situations. For
* now, it works correctly only with raw encoding and decoding.
* Currently none of the container formats supported by
* liblzma allow preset dictionary when decoding, thus if
* you create a .xz or .lzma file with preset dictionary, it
* cannot be decoded with the regular decoder functions. In the
* future, the .xz format will likely get support for preset
* dictionary though.
*/
const uint8_t *preset_dict;
/**
* \brief Size of the preset dictionary
*
* Specifies the size of the preset dictionary. If the size is
* bigger than dict_size, only the last dict_size bytes are
* processed.
*
* This variable is read only when preset_dict is not NULL.
* If preset_dict is not NULL but preset_dict_size is zero,
* no preset dictionary is used (identical to only setting
* preset_dict to NULL).
*/
uint32_t preset_dict_size;
/**
* \brief Number of literal context bits
*
* How many of the highest bits of the previous uncompressed
* eight-bit byte (also known as `literal') are taken into
* account when predicting the bits of the next literal.
*
* E.g. in typical English text, an upper-case letter is
* often followed by a lower-case letter, and a lower-case
* letter is usually followed by another lower-case letter.
* In the US-ASCII character set, the highest three bits are 010
* for upper-case letters and 011 for lower-case letters.
* When lc is at least 3, the literal coding can take advantage of
* this property in the uncompressed data.
*
* There is a limit that applies to literal context bits and literal
* position bits together: lc + lp <= 4. Without this limit the
* decoding could become very slow, which could have security related
* results in some cases like email servers doing virus scanning.
* This limit also simplifies the internal implementation in liblzma.
*
* There may be LZMA1 streams that have lc + lp > 4 (maximum possible
* lc would be 8). It is not possible to decode such streams with
* liblzma.
*/
uint32_t lc;
# define LZMA_LCLP_MIN 0
# define LZMA_LCLP_MAX 4
# define LZMA_LC_DEFAULT 3
/**
* \brief Number of literal position bits
*
* lp affects what kind of alignment in the uncompressed data is
* assumed when encoding literals. A literal is a single 8-bit byte.
* See pb below for more information about alignment.
*/
uint32_t lp;
# define LZMA_LP_DEFAULT 0
/**
* \brief Number of position bits
*
* pb affects what kind of alignment in the uncompressed data is
* assumed in general. The default means four-byte alignment
* (2^ pb =2^2=4), which is often a good choice when there's
* no better guess.
*
* When the aligment is known, setting pb accordingly may reduce
* the file size a little. E.g. with text files having one-byte
* alignment (US-ASCII, ISO-8859-*, UTF-8), setting pb=0 can
* improve compression slightly. For UTF-16 text, pb=1 is a good
* choice. If the alignment is an odd number like 3 bytes, pb=0
* might be the best choice.
*
* Even though the assumed alignment can be adjusted with pb and
* lp, LZMA1 and LZMA2 still slightly favor 16-byte alignment.
* It might be worth taking into account when designing file formats
* that are likely to be often compressed with LZMA1 or LZMA2.
*/
uint32_t pb;
# define LZMA_PB_MIN 0
# define LZMA_PB_MAX 4
# define LZMA_PB_DEFAULT 2
/** Compression mode */
lzma_mode mode;
/**
* \brief Nice length of a match
*
* This determines how many bytes the encoder compares from the match
* candidates when looking for the best match. Once a match of at
* least nice_len bytes long is found, the encoder stops looking for
* better candidates and encodes the match. (Naturally, if the found
* match is actually longer than nice_len, the actual length is
* encoded; it's not truncated to nice_len.)
*
* Bigger values usually increase the compression ratio and
* compression time. For most files, 32 to 128 is a good value,
* which gives very good compression ratio at good speed.
*
* The exact minimum value depends on the match finder. The maximum
* is 273, which is the maximum length of a match that LZMA1 and
* LZMA2 can encode.
*/
uint32_t nice_len;
/** Match finder ID */
lzma_match_finder mf;
/**
* \brief Maximum search depth in the match finder
*
* For every input byte, match finder searches through the hash chain
* or binary tree in a loop, each iteration going one step deeper in
* the chain or tree. The searching stops if
* - a match of at least nice_len bytes long is found;
* - all match candidates from the hash chain or binary tree have
* been checked; or
* - maximum search depth is reached.
*
* Maximum search depth is needed to prevent the match finder from
* wasting too much time in case there are lots of short match
* candidates. On the other hand, stopping the search before all
* candidates have been checked can reduce compression ratio.
*
* Setting depth to zero tells liblzma to use an automatic default
* value, that depends on the selected match finder and nice_len.
* The default is in the range [4, 200] or so (it may vary between
* liblzma versions).
*
* Using a bigger depth value than the default can increase
* compression ratio in some cases. There is no strict maximum value,
* but high values (thousands or millions) should be used with care:
* the encoder could remain fast enough with typical input, but
* malicious input could cause the match finder to slow down
* dramatically, possibly creating a denial of service attack.
*/
uint32_t depth;
/*
* Reserved space to allow possible future extensions without
* breaking the ABI. You should not touch these, because the names
* of these variables may change. These are and will never be used
* with the currently supported options, so it is safe to leave these
* uninitialized.
*/
uint32_t reserved_int1;
uint32_t reserved_int2;
uint32_t reserved_int3;
uint32_t reserved_int4;
uint32_t reserved_int5;
uint32_t reserved_int6;
uint32_t reserved_int7;
uint32_t reserved_int8;
lzma_reserved_enum reserved_enum1;
lzma_reserved_enum reserved_enum2;
lzma_reserved_enum reserved_enum3;
lzma_reserved_enum reserved_enum4;
void *reserved_ptr1;
void *reserved_ptr2;
} lzma_options_lzma;
/**
* \brief Set a compression preset to lzma_options_lzma structure
*
* 0 is the fastest and 9 is the slowest. These match the switches -0 .. -9
* of the xz command line tool. In addition, it is possible to bitwise-or
* flags to the preset. Currently only LZMA_PRESET_EXTREME is supported.
* The flags are defined in container.h, because the flags are used also
* with lzma_easy_encoder().
*
* The preset values are subject to changes between liblzma versions.
*
* This function is available only if LZMA1 or LZMA2 encoder has been enabled
* when building liblzma.
*
* \return On success, false is returned. If the preset is not
* supported, true is returned.
*/
extern LZMA_API(lzma_bool) lzma_lzma_preset(
lzma_options_lzma *options, uint32_t preset) lzma_nothrow;
game/client/third/minizip/lib/liblzma/api/lzma/version.h
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/**
* \file lzma/version.h
* \brief Version number
*/
/*
* Author: Lasse Collin
*
* This file has been put into the public domain.
* You can do whatever you want with this file.
*
* See ../lzma.h for information about liblzma as a whole.
*/
#ifndef LZMA_H_INTERNAL
# error Never include this file directly. Use <lzma.h> instead.
#endif
/*
* Version number split into components
*/
#define LZMA_VERSION_MAJOR 5
#define LZMA_VERSION_MINOR 2
#define LZMA_VERSION_PATCH 3
#define LZMA_VERSION_STABILITY LZMA_VERSION_STABILITY_STABLE
#ifndef LZMA_VERSION_COMMIT
# define LZMA_VERSION_COMMIT ""
#endif
/*
* Map symbolic stability levels to integers.
*/
#define LZMA_VERSION_STABILITY_ALPHA 0
#define LZMA_VERSION_STABILITY_BETA 1
#define LZMA_VERSION_STABILITY_STABLE 2
/**
* \brief Compile-time version number
*
* The version number is of format xyyyzzzs where
* - x = major
* - yyy = minor
* - zzz = revision
* - s indicates stability: 0 = alpha, 1 = beta, 2 = stable
*
* The same xyyyzzz triplet is never reused with different stability levels.
* For example, if 5.1.0alpha has been released, there will never be 5.1.0beta
* or 5.1.0 stable.
*
* \note The version number of liblzma has nothing to with
* the version number of Igor Pavlov's LZMA SDK.
*/
#define LZMA_VERSION (LZMA_VERSION_MAJOR * UINT32_C(10000000) \
+ LZMA_VERSION_MINOR * UINT32_C(10000) \
+ LZMA_VERSION_PATCH * UINT32_C(10) \
+ LZMA_VERSION_STABILITY)
/*
* Macros to construct the compile-time version string
*/
#if LZMA_VERSION_STABILITY == LZMA_VERSION_STABILITY_ALPHA
# define LZMA_VERSION_STABILITY_STRING "alpha"
#elif LZMA_VERSION_STABILITY == LZMA_VERSION_STABILITY_BETA
# define LZMA_VERSION_STABILITY_STRING "beta"
#elif LZMA_VERSION_STABILITY == LZMA_VERSION_STABILITY_STABLE
# define LZMA_VERSION_STABILITY_STRING ""
#else
# error Incorrect LZMA_VERSION_STABILITY
#endif
#define LZMA_VERSION_STRING_C_(major, minor, patch, stability, commit) \
#major "." #minor "." #patch stability commit
#define LZMA_VERSION_STRING_C(major, minor, patch, stability, commit) \
LZMA_VERSION_STRING_C_(major, minor, patch, stability, commit)
/**
* \brief Compile-time version as a string
*
* This can be for example "4.999.5alpha", "4.999.8beta", or "5.0.0" (stable
* versions don't have any "stable" suffix). In future, a snapshot built
* from source code repository may include an additional suffix, for example
* "4.999.8beta-21-g1d92". The commit ID won't be available in numeric form
* in LZMA_VERSION macro.
*/
#define LZMA_VERSION_STRING LZMA_VERSION_STRING_C( \
LZMA_VERSION_MAJOR, LZMA_VERSION_MINOR, \
LZMA_VERSION_PATCH, LZMA_VERSION_STABILITY_STRING, \
LZMA_VERSION_COMMIT)
/* #ifndef is needed for use with windres (MinGW or Cygwin). */
#ifndef LZMA_H_INTERNAL_RC
/**
* \brief Run-time version number as an integer
*
* Return the value of LZMA_VERSION macro at the compile time of liblzma.
* This allows the application to compare if it was built against the same,
* older, or newer version of liblzma that is currently running.
*/
extern LZMA_API(uint32_t) lzma_version_number(void)
lzma_nothrow lzma_attr_const;
/**
* \brief Run-time version as a string
*
* This function may be useful if you want to display which version of
* liblzma your application is currently using.
*/
extern LZMA_API(const char *) lzma_version_string(void)
lzma_nothrow lzma_attr_const;
#endif
game/client/third/minizip/lib/liblzma/api/lzma/vli.h
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/**
* \file lzma/vli.h
* \brief Variable-length integer handling
*
* In the .xz format, most integers are encoded in a variable-length
* representation, which is sometimes called little endian base-128 encoding.
* This saves space when smaller values are more likely than bigger values.
*
* The encoding scheme encodes seven bits to every byte, using minimum
* number of bytes required to represent the given value. Encodings that use
* non-minimum number of bytes are invalid, thus every integer has exactly
* one encoded representation. The maximum number of bits in a VLI is 63,
* thus the vli argument must be less than or equal to UINT64_MAX / 2. You
* should use LZMA_VLI_MAX for clarity.
*/
/*
* Author: Lasse Collin
*
* This file has been put into the public domain.
* You can do whatever you want with this file.
*
* See ../lzma.h for information about liblzma as a whole.
*/
#ifndef LZMA_H_INTERNAL
# error Never include this file directly. Use <lzma.h> instead.
#endif
/**
* \brief Maximum supported value of a variable-length integer
*/
#define LZMA_VLI_MAX (UINT64_MAX / 2)
/**
* \brief VLI value to denote that the value is unknown
*/
#define LZMA_VLI_UNKNOWN UINT64_MAX
/**
* \brief Maximum supported encoded length of variable length integers
*/
#define LZMA_VLI_BYTES_MAX 9
/**
* \brief VLI constant suffix
*/
#define LZMA_VLI_C(n) UINT64_C(n)
/**
* \brief Variable-length integer type
*
* Valid VLI values are in the range [0, LZMA_VLI_MAX]. Unknown value is
* indicated with LZMA_VLI_UNKNOWN, which is the maximum value of the
* underlaying integer type.
*
* lzma_vli will be uint64_t for the foreseeable future. If a bigger size
* is needed in the future, it is guaranteed that 2 * LZMA_VLI_MAX will
* not overflow lzma_vli. This simplifies integer overflow detection.
*/
typedef uint64_t lzma_vli;
/**
* \brief Validate a variable-length integer
*
* This is useful to test that application has given acceptable values
* for example in the uncompressed_size and compressed_size variables.
*
* \return True if the integer is representable as VLI or if it
* indicates unknown value.
*/
#define lzma_vli_is_valid(vli) \
((vli) <= LZMA_VLI_MAX || (vli) == LZMA_VLI_UNKNOWN)
/**
* \brief Encode a variable-length integer
*
* This function has two modes: single-call and multi-call. Single-call mode
* encodes the whole integer at once; it is an error if the output buffer is
* too small. Multi-call mode saves the position in *vli_pos, and thus it is
* possible to continue encoding if the buffer becomes full before the whole
* integer has been encoded.
*
* \param vli Integer to be encoded
* \param vli_pos How many VLI-encoded bytes have already been written
* out. When starting to encode a new integer in
* multi-call mode, *vli_pos must be set to zero.
* To use single-call encoding, set vli_pos to NULL.
* \param out Beginning of the output buffer
* \param out_pos The next byte will be written to out[*out_pos].
* \param out_size Size of the out buffer; the first byte into
* which no data is written to is out[out_size].
*
* \return Slightly different return values are used in multi-call and
* single-call modes.
*
* Single-call (vli_pos == NULL):
* - LZMA_OK: Integer successfully encoded.
* - LZMA_PROG_ERROR: Arguments are not sane. This can be due
* to too little output space; single-call mode doesn't use
* LZMA_BUF_ERROR, since the application should have checked
* the encoded size with lzma_vli_size().
*
* Multi-call (vli_pos != NULL):
* - LZMA_OK: So far all OK, but the integer is not
* completely written out yet.
* - LZMA_STREAM_END: Integer successfully encoded.
* - LZMA_BUF_ERROR: No output space was provided.
* - LZMA_PROG_ERROR: Arguments are not sane.
*/
extern LZMA_API(lzma_ret) lzma_vli_encode(lzma_vli vli, size_t *vli_pos,
uint8_t *out, size_t *out_pos, size_t out_size) lzma_nothrow;
/**
* \brief Decode a variable-length integer
*
* Like lzma_vli_encode(), this function has single-call and multi-call modes.
*
* \param vli Pointer to decoded integer. The decoder will
* initialize it to zero when *vli_pos == 0, so
* application isn't required to initialize *vli.
* \param vli_pos How many bytes have already been decoded. When
* starting to decode a new integer in multi-call
* mode, *vli_pos must be initialized to zero. To
* use single-call decoding, set vli_pos to NULL.
* \param in Beginning of the input buffer
* \param in_pos The next byte will be read from in[*in_pos].
* \param in_size Size of the input buffer; the first byte that
* won't be read is in[in_size].
*
* \return Slightly different return values are used in multi-call and
* single-call modes.
*
* Single-call (vli_pos == NULL):
* - LZMA_OK: Integer successfully decoded.
* - LZMA_DATA_ERROR: Integer is corrupt. This includes hitting
* the end of the input buffer before the whole integer was
* decoded; providing no input at all will use LZMA_DATA_ERROR.
* - LZMA_PROG_ERROR: Arguments are not sane.
*
* Multi-call (vli_pos != NULL):
* - LZMA_OK: So far all OK, but the integer is not
* completely decoded yet.
* - LZMA_STREAM_END: Integer successfully decoded.
* - LZMA_DATA_ERROR: Integer is corrupt.
* - LZMA_BUF_ERROR: No input was provided.
* - LZMA_PROG_ERROR: Arguments are not sane.
*/
extern LZMA_API(lzma_ret) lzma_vli_decode(lzma_vli *vli, size_t *vli_pos,
const uint8_t *in, size_t *in_pos, size_t in_size)
lzma_nothrow;
/**
* \brief Get the number of bytes required to encode a VLI
*
* \return Number of bytes on success (1-9). If vli isn't valid,
* zero is returned.
*/
extern LZMA_API(uint32_t) lzma_vli_size(lzma_vli vli)
lzma_nothrow lzma_attr_pure;
game/client/third/minizip/lib/liblzma/check/check.c
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///////////////////////////////////////////////////////////////////////////////
//
/// \file check.c
/// \brief Single API to access different integrity checks
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "check.h"
extern LZMA_API(lzma_bool)
lzma_check_is_supported(lzma_check type)
{
if ((unsigned int)(type) > LZMA_CHECK_ID_MAX)
return false;
static const lzma_bool available_checks[LZMA_CHECK_ID_MAX + 1] = {
true, // LZMA_CHECK_NONE
#ifdef HAVE_CHECK_CRC32
true,
#else
false,
#endif
false, // Reserved
false, // Reserved
#ifdef HAVE_CHECK_CRC64
true,
#else
false,
#endif
false, // Reserved
false, // Reserved
false, // Reserved
false, // Reserved
false, // Reserved
#ifdef HAVE_CHECK_SHA256
true,
#else
false,
#endif
false, // Reserved
false, // Reserved
false, // Reserved
false, // Reserved
false, // Reserved
};
return available_checks[(unsigned int)(type)];
}
extern LZMA_API(uint32_t)
lzma_check_size(lzma_check type)
{
if ((unsigned int)(type) > LZMA_CHECK_ID_MAX)
return UINT32_MAX;
// See file-format.txt section 2.1.1.2.
static const uint8_t check_sizes[LZMA_CHECK_ID_MAX + 1] = {
0,
4, 4, 4,
8, 8, 8,
16, 16, 16,
32, 32, 32,
64, 64, 64
};
return check_sizes[(unsigned int)(type)];
}
extern void
lzma_check_init(lzma_check_state *check, lzma_check type)
{
switch (type) {
case LZMA_CHECK_NONE:
break;
#ifdef HAVE_CHECK_CRC32
case LZMA_CHECK_CRC32:
check->state.crc32 = 0;
break;
#endif
#ifdef HAVE_CHECK_CRC64
case LZMA_CHECK_CRC64:
check->state.crc64 = 0;
break;
#endif
#ifdef HAVE_CHECK_SHA256
case LZMA_CHECK_SHA256:
lzma_sha256_init(check);
break;
#endif
default:
break;
}
return;
}
extern void
lzma_check_update(lzma_check_state *check, lzma_check type,
const uint8_t *buf, size_t size)
{
switch (type) {
#ifdef HAVE_CHECK_CRC32
case LZMA_CHECK_CRC32:
check->state.crc32 = lzma_crc32(buf, size, check->state.crc32);
break;
#endif
#ifdef HAVE_CHECK_CRC64
case LZMA_CHECK_CRC64:
check->state.crc64 = lzma_crc64(buf, size, check->state.crc64);
break;
#endif
#ifdef HAVE_CHECK_SHA256
case LZMA_CHECK_SHA256:
lzma_sha256_update(buf, size, check);
break;
#endif
default:
break;
}
return;
}
extern void
lzma_check_finish(lzma_check_state *check, lzma_check type)
{
switch (type) {
#ifdef HAVE_CHECK_CRC32
case LZMA_CHECK_CRC32:
check->buffer.u32[0] = conv32le(check->state.crc32);
break;
#endif
#ifdef HAVE_CHECK_CRC64
case LZMA_CHECK_CRC64:
check->buffer.u64[0] = conv64le(check->state.crc64);
break;
#endif
#ifdef HAVE_CHECK_SHA256
case LZMA_CHECK_SHA256:
lzma_sha256_finish(check);
break;
#endif
default:
break;
}
return;
}
game/client/third/minizip/lib/liblzma/check/check.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file check.h
/// \brief Internal API to different integrity check functions
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_CHECK_H
#define LZMA_CHECK_H
#include "common.h"
// If the function for external SHA-256 is missing, use the internal SHA-256
// code. Due to how configure works, these defines can only get defined when
// both a usable header and a type have already been found.
#if !(defined(HAVE_CC_SHA256_INIT) \
|| defined(HAVE_SHA256_INIT) \
|| defined(HAVE_SHA256INIT))
# define HAVE_INTERNAL_SHA256 1
#endif
#if defined(HAVE_INTERNAL_SHA256)
// Nothing
#elif defined(HAVE_COMMONCRYPTO_COMMONDIGEST_H)
# include <CommonCrypto/CommonDigest.h>
#elif defined(HAVE_SHA256_H)
# include <sys/types.h>
# include <sha256.h>
#elif defined(HAVE_SHA2_H)
# include <sys/types.h>
# include <sha2.h>
#endif
#if defined(HAVE_INTERNAL_SHA256)
/// State for the internal SHA-256 implementation
typedef struct {
/// Internal state
uint32_t state[8];
/// Size of the message excluding padding
uint64_t size;
} lzma_sha256_state;
#elif defined(HAVE_CC_SHA256_CTX)
typedef CC_SHA256_CTX lzma_sha256_state;
#elif defined(HAVE_SHA256_CTX)
typedef SHA256_CTX lzma_sha256_state;
#elif defined(HAVE_SHA2_CTX)
typedef SHA2_CTX lzma_sha256_state;
#endif
#if defined(HAVE_INTERNAL_SHA256)
// Nothing
#elif defined(HAVE_CC_SHA256_INIT)
# define LZMA_SHA256FUNC(x) CC_SHA256_ ## x
#elif defined(HAVE_SHA256_INIT)
# define LZMA_SHA256FUNC(x) SHA256_ ## x
#elif defined(HAVE_SHA256INIT)
# define LZMA_SHA256FUNC(x) SHA256 ## x
#endif
// Index hashing needs the best possible hash function (preferably
// a cryptographic hash) for maximum reliability.
#if defined(HAVE_CHECK_SHA256)
# define LZMA_CHECK_BEST LZMA_CHECK_SHA256
#elif defined(HAVE_CHECK_CRC64)
# define LZMA_CHECK_BEST LZMA_CHECK_CRC64
#else
# define LZMA_CHECK_BEST LZMA_CHECK_CRC32
#endif
/// \brief Structure to hold internal state of the check being calculated
///
/// \note This is not in the public API because this structure may
/// change in future if new integrity check algorithms are added.
typedef struct {
/// Buffer to hold the final result and a temporary buffer for SHA256.
union {
uint8_t u8[64];
uint32_t u32[16];
uint64_t u64[8];
} buffer;
/// Check-specific data
union {
uint32_t crc32;
uint64_t crc64;
lzma_sha256_state sha256;
} state;
} lzma_check_state;
/// lzma_crc32_table[0] is needed by LZ encoder so we need to keep
/// the array two-dimensional.
#ifdef HAVE_SMALL
extern uint32_t lzma_crc32_table[1][256];
extern void lzma_crc32_init(void);
#else
extern const uint32_t lzma_crc32_table[8][256];
extern const uint64_t lzma_crc64_table[4][256];
#endif
/// \brief Initialize *check depending on type
///
/// \param check LZMA_OK on success. LZMA_UNSUPPORTED_CHECK if the type
/// is not supported by the current version or build of
/// liblzma. LZMA_PROG_ERROR if type > LZMA_CHECK_ID_MAX.
extern void lzma_check_init(lzma_check_state *check, lzma_check type);
/// Update the check state
extern void lzma_check_update(lzma_check_state *check, lzma_check type,
const uint8_t *buf, size_t size);
/// Finish the check calculation and store the result to check->buffer.u8.
extern void lzma_check_finish(lzma_check_state *check, lzma_check type);
#ifndef LZMA_SHA256FUNC
/// Prepare SHA-256 state for new input.
extern void lzma_sha256_init(lzma_check_state *check);
/// Update the SHA-256 hash state
extern void lzma_sha256_update(
const uint8_t *buf, size_t size, lzma_check_state *check);
/// Finish the SHA-256 calculation and store the result to check->buffer.u8.
extern void lzma_sha256_finish(lzma_check_state *check);
#else
static inline void
lzma_sha256_init(lzma_check_state *check)
{
LZMA_SHA256FUNC(Init)(&check->state.sha256);
}
static inline void
lzma_sha256_update(const uint8_t *buf, size_t size, lzma_check_state *check)
{
#if defined(HAVE_CC_SHA256_INIT) && SIZE_MAX > UINT32_MAX
// Darwin's CC_SHA256_Update takes uint32_t as the buffer size,
// so use a loop to support size_t.
while (size > UINT32_MAX) {
LZMA_SHA256FUNC(Update)(&check->state.sha256, buf, UINT32_MAX);
buf += UINT32_MAX;
size -= UINT32_MAX;
}
#endif
LZMA_SHA256FUNC(Update)(&check->state.sha256, buf, size);
}
static inline void
lzma_sha256_finish(lzma_check_state *check)
{
LZMA_SHA256FUNC(Final)(check->buffer.u8, &check->state.sha256);
}
#endif
#endif
game/client/third/minizip/lib/liblzma/check/crc32_fast.c
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///////////////////////////////////////////////////////////////////////////////
//
/// \file crc32.c
/// \brief CRC32 calculation
///
/// Calculate the CRC32 using the slice-by-eight algorithm.
/// It is explained in this document:
/// http://www.intel.com/technology/comms/perfnet/download/CRC_generators.pdf
/// The code in this file is not the same as in Intel's paper, but
/// the basic principle is identical.
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "check.h"
#include "crc_macros.h"
// If you make any changes, do some bench marking! Seemingly unrelated
// changes can very easily ruin the performance (and very probably is
// very compiler dependent).
extern LZMA_API(uint32_t)
lzma_crc32(const uint8_t *buf, size_t size, uint32_t crc)
{
crc = ~crc;
#ifdef WORDS_BIGENDIAN
crc = bswap32(crc);
#endif
if (size > 8) {
// Fix the alignment, if needed. The if statement above
// ensures that this won't read past the end of buf[].
while ((uintptr_t)(buf) & 7) {
crc = lzma_crc32_table[0][*buf++ ^ A(crc)] ^ S8(crc);
--size;
}
// Calculate the position where to stop.
const uint8_t *const limit = buf + (size & ~(size_t)(7));
// Calculate how many bytes must be calculated separately
// before returning the result.
size &= (size_t)(7);
// Calculate the CRC32 using the slice-by-eight algorithm.
while (buf < limit) {
crc ^= *(const uint32_t *)(buf);
buf += 4;
crc = lzma_crc32_table[7][A(crc)]
^ lzma_crc32_table[6][B(crc)]
^ lzma_crc32_table[5][C(crc)]
^ lzma_crc32_table[4][D(crc)];
const uint32_t tmp = *(const uint32_t *)(buf);
buf += 4;
// At least with some compilers, it is critical for
// performance, that the crc variable is XORed
// between the two table-lookup pairs.
crc = lzma_crc32_table[3][A(tmp)]
^ lzma_crc32_table[2][B(tmp)]
^ crc
^ lzma_crc32_table[1][C(tmp)]
^ lzma_crc32_table[0][D(tmp)];
}
}
while (size-- != 0)
crc = lzma_crc32_table[0][*buf++ ^ A(crc)] ^ S8(crc);
#ifdef WORDS_BIGENDIAN
crc = bswap32(crc);
#endif
return ~crc;
}
game/client/third/minizip/lib/liblzma/check/crc32_table.c
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///////////////////////////////////////////////////////////////////////////////
//
/// \file crc32_table.c
/// \brief Precalculated CRC32 table with correct endianness
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "common.h"
#ifdef WORDS_BIGENDIAN
# include "crc32_table_be.h"
#else
# include "crc32_table_le.h"
#endif
game/client/third/minizip/lib/liblzma/check/crc32_table_be.h
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/* This file has been automatically generated by crc32_tablegen.c. */
const uint32_t lzma_crc32_table[8][256] = {
{
0x00000000, 0x96300777, 0x2C610EEE, 0xBA510999,
0x19C46D07, 0x8FF46A70, 0x35A563E9, 0xA395649E,
0x3288DB0E, 0xA4B8DC79, 0x1EE9D5E0, 0x88D9D297,
0x2B4CB609, 0xBD7CB17E, 0x072DB8E7, 0x911DBF90,
0x6410B71D, 0xF220B06A, 0x4871B9F3, 0xDE41BE84,
0x7DD4DA1A, 0xEBE4DD6D, 0x51B5D4F4, 0xC785D383,
0x56986C13, 0xC0A86B64, 0x7AF962FD, 0xECC9658A,
0x4F5C0114, 0xD96C0663, 0x633D0FFA, 0xF50D088D,
0xC8206E3B, 0x5E10694C, 0xE44160D5, 0x727167A2,
0xD1E4033C, 0x47D4044B, 0xFD850DD2, 0x6BB50AA5,
0xFAA8B535, 0x6C98B242, 0xD6C9BBDB, 0x40F9BCAC,
0xE36CD832, 0x755CDF45, 0xCF0DD6DC, 0x593DD1AB,
0xAC30D926, 0x3A00DE51, 0x8051D7C8, 0x1661D0BF,
0xB5F4B421, 0x23C4B356, 0x9995BACF, 0x0FA5BDB8,
0x9EB80228, 0x0888055F, 0xB2D90CC6, 0x24E90BB1,
0x877C6F2F, 0x114C6858, 0xAB1D61C1, 0x3D2D66B6,
0x9041DC76, 0x0671DB01, 0xBC20D298, 0x2A10D5EF,
0x8985B171, 0x1FB5B606, 0xA5E4BF9F, 0x33D4B8E8,
0xA2C90778, 0x34F9000F, 0x8EA80996, 0x18980EE1,
0xBB0D6A7F, 0x2D3D6D08, 0x976C6491, 0x015C63E6,
0xF4516B6B, 0x62616C1C, 0xD8306585, 0x4E0062F2,
0xED95066C, 0x7BA5011B, 0xC1F40882, 0x57C40FF5,
0xC6D9B065, 0x50E9B712, 0xEAB8BE8B, 0x7C88B9FC,
0xDF1DDD62, 0x492DDA15, 0xF37CD38C, 0x654CD4FB,
0x5861B24D, 0xCE51B53A, 0x7400BCA3, 0xE230BBD4,
0x41A5DF4A, 0xD795D83D, 0x6DC4D1A4, 0xFBF4D6D3,
0x6AE96943, 0xFCD96E34, 0x468867AD, 0xD0B860DA,
0x732D0444, 0xE51D0333, 0x5F4C0AAA, 0xC97C0DDD,
0x3C710550, 0xAA410227, 0x10100BBE, 0x86200CC9,
0x25B56857, 0xB3856F20, 0x09D466B9, 0x9FE461CE,
0x0EF9DE5E, 0x98C9D929, 0x2298D0B0, 0xB4A8D7C7,
0x173DB359, 0x810DB42E, 0x3B5CBDB7, 0xAD6CBAC0,
0x2083B8ED, 0xB6B3BF9A, 0x0CE2B603, 0x9AD2B174,
0x3947D5EA, 0xAF77D29D, 0x1526DB04, 0x8316DC73,
0x120B63E3, 0x843B6494, 0x3E6A6D0D, 0xA85A6A7A,
0x0BCF0EE4, 0x9DFF0993, 0x27AE000A, 0xB19E077D,
0x44930FF0, 0xD2A30887, 0x68F2011E, 0xFEC20669,
0x5D5762F7, 0xCB676580, 0x71366C19, 0xE7066B6E,
0x761BD4FE, 0xE02BD389, 0x5A7ADA10, 0xCC4ADD67,
0x6FDFB9F9, 0xF9EFBE8E, 0x43BEB717, 0xD58EB060,
0xE8A3D6D6, 0x7E93D1A1, 0xC4C2D838, 0x52F2DF4F,
0xF167BBD1, 0x6757BCA6, 0xDD06B53F, 0x4B36B248,
0xDA2B0DD8, 0x4C1B0AAF, 0xF64A0336, 0x607A0441,
0xC3EF60DF, 0x55DF67A8, 0xEF8E6E31, 0x79BE6946,
0x8CB361CB, 0x1A8366BC, 0xA0D26F25, 0x36E26852,
0x95770CCC, 0x03470BBB, 0xB9160222, 0x2F260555,
0xBE3BBAC5, 0x280BBDB2, 0x925AB42B, 0x046AB35C,
0xA7FFD7C2, 0x31CFD0B5, 0x8B9ED92C, 0x1DAEDE5B,
0xB0C2649B, 0x26F263EC, 0x9CA36A75, 0x0A936D02,
0xA906099C, 0x3F360EEB, 0x85670772, 0x13570005,
0x824ABF95, 0x147AB8E2, 0xAE2BB17B, 0x381BB60C,
0x9B8ED292, 0x0DBED5E5, 0xB7EFDC7C, 0x21DFDB0B,
0xD4D2D386, 0x42E2D4F1, 0xF8B3DD68, 0x6E83DA1F,
0xCD16BE81, 0x5B26B9F6, 0xE177B06F, 0x7747B718,
0xE65A0888, 0x706A0FFF, 0xCA3B0666, 0x5C0B0111,
0xFF9E658F, 0x69AE62F8, 0xD3FF6B61, 0x45CF6C16,
0x78E20AA0, 0xEED20DD7, 0x5483044E, 0xC2B30339,
0x612667A7, 0xF71660D0, 0x4D476949, 0xDB776E3E,
0x4A6AD1AE, 0xDC5AD6D9, 0x660BDF40, 0xF03BD837,
0x53AEBCA9, 0xC59EBBDE, 0x7FCFB247, 0xE9FFB530,
0x1CF2BDBD, 0x8AC2BACA, 0x3093B353, 0xA6A3B424,
0x0536D0BA, 0x9306D7CD, 0x2957DE54, 0xBF67D923,
0x2E7A66B3, 0xB84A61C4, 0x021B685D, 0x942B6F2A,
0x37BE0BB4, 0xA18E0CC3, 0x1BDF055A, 0x8DEF022D
}, {
0x00000000, 0x41311B19, 0x82623632, 0xC3532D2B,
0x04C56C64, 0x45F4777D, 0x86A75A56, 0xC796414F,
0x088AD9C8, 0x49BBC2D1, 0x8AE8EFFA, 0xCBD9F4E3,
0x0C4FB5AC, 0x4D7EAEB5, 0x8E2D839E, 0xCF1C9887,
0x5112C24A, 0x1023D953, 0xD370F478, 0x9241EF61,
0x55D7AE2E, 0x14E6B537, 0xD7B5981C, 0x96848305,
0x59981B82, 0x18A9009B, 0xDBFA2DB0, 0x9ACB36A9,
0x5D5D77E6, 0x1C6C6CFF, 0xDF3F41D4, 0x9E0E5ACD,
0xA2248495, 0xE3159F8C, 0x2046B2A7, 0x6177A9BE,
0xA6E1E8F1, 0xE7D0F3E8, 0x2483DEC3, 0x65B2C5DA,
0xAAAE5D5D, 0xEB9F4644, 0x28CC6B6F, 0x69FD7076,
0xAE6B3139, 0xEF5A2A20, 0x2C09070B, 0x6D381C12,
0xF33646DF, 0xB2075DC6, 0x715470ED, 0x30656BF4,
0xF7F32ABB, 0xB6C231A2, 0x75911C89, 0x34A00790,
0xFBBC9F17, 0xBA8D840E, 0x79DEA925, 0x38EFB23C,
0xFF79F373, 0xBE48E86A, 0x7D1BC541, 0x3C2ADE58,
0x054F79F0, 0x447E62E9, 0x872D4FC2, 0xC61C54DB,
0x018A1594, 0x40BB0E8D, 0x83E823A6, 0xC2D938BF,
0x0DC5A038, 0x4CF4BB21, 0x8FA7960A, 0xCE968D13,
0x0900CC5C, 0x4831D745, 0x8B62FA6E, 0xCA53E177,
0x545DBBBA, 0x156CA0A3, 0xD63F8D88, 0x970E9691,
0x5098D7DE, 0x11A9CCC7, 0xD2FAE1EC, 0x93CBFAF5,
0x5CD76272, 0x1DE6796B, 0xDEB55440, 0x9F844F59,
0x58120E16, 0x1923150F, 0xDA703824, 0x9B41233D,
0xA76BFD65, 0xE65AE67C, 0x2509CB57, 0x6438D04E,
0xA3AE9101, 0xE29F8A18, 0x21CCA733, 0x60FDBC2A,
0xAFE124AD, 0xEED03FB4, 0x2D83129F, 0x6CB20986,
0xAB2448C9, 0xEA1553D0, 0x29467EFB, 0x687765E2,
0xF6793F2F, 0xB7482436, 0x741B091D, 0x352A1204,
0xF2BC534B, 0xB38D4852, 0x70DE6579, 0x31EF7E60,
0xFEF3E6E7, 0xBFC2FDFE, 0x7C91D0D5, 0x3DA0CBCC,
0xFA368A83, 0xBB07919A, 0x7854BCB1, 0x3965A7A8,
0x4B98833B, 0x0AA99822, 0xC9FAB509, 0x88CBAE10,
0x4F5DEF5F, 0x0E6CF446, 0xCD3FD96D, 0x8C0EC274,
0x43125AF3, 0x022341EA, 0xC1706CC1, 0x804177D8,
0x47D73697, 0x06E62D8E, 0xC5B500A5, 0x84841BBC,
0x1A8A4171, 0x5BBB5A68, 0x98E87743, 0xD9D96C5A,
0x1E4F2D15, 0x5F7E360C, 0x9C2D1B27, 0xDD1C003E,
0x120098B9, 0x533183A0, 0x9062AE8B, 0xD153B592,
0x16C5F4DD, 0x57F4EFC4, 0x94A7C2EF, 0xD596D9F6,
0xE9BC07AE, 0xA88D1CB7, 0x6BDE319C, 0x2AEF2A85,
0xED796BCA, 0xAC4870D3, 0x6F1B5DF8, 0x2E2A46E1,
0xE136DE66, 0xA007C57F, 0x6354E854, 0x2265F34D,
0xE5F3B202, 0xA4C2A91B, 0x67918430, 0x26A09F29,
0xB8AEC5E4, 0xF99FDEFD, 0x3ACCF3D6, 0x7BFDE8CF,
0xBC6BA980, 0xFD5AB299, 0x3E099FB2, 0x7F3884AB,
0xB0241C2C, 0xF1150735, 0x32462A1E, 0x73773107,
0xB4E17048, 0xF5D06B51, 0x3683467A, 0x77B25D63,
0x4ED7FACB, 0x0FE6E1D2, 0xCCB5CCF9, 0x8D84D7E0,
0x4A1296AF, 0x0B238DB6, 0xC870A09D, 0x8941BB84,
0x465D2303, 0x076C381A, 0xC43F1531, 0x850E0E28,
0x42984F67, 0x03A9547E, 0xC0FA7955, 0x81CB624C,
0x1FC53881, 0x5EF42398, 0x9DA70EB3, 0xDC9615AA,
0x1B0054E5, 0x5A314FFC, 0x996262D7, 0xD85379CE,
0x174FE149, 0x567EFA50, 0x952DD77B, 0xD41CCC62,
0x138A8D2D, 0x52BB9634, 0x91E8BB1F, 0xD0D9A006,
0xECF37E5E, 0xADC26547, 0x6E91486C, 0x2FA05375,
0xE836123A, 0xA9070923, 0x6A542408, 0x2B653F11,
0xE479A796, 0xA548BC8F, 0x661B91A4, 0x272A8ABD,
0xE0BCCBF2, 0xA18DD0EB, 0x62DEFDC0, 0x23EFE6D9,
0xBDE1BC14, 0xFCD0A70D, 0x3F838A26, 0x7EB2913F,
0xB924D070, 0xF815CB69, 0x3B46E642, 0x7A77FD5B,
0xB56B65DC, 0xF45A7EC5, 0x370953EE, 0x763848F7,
0xB1AE09B8, 0xF09F12A1, 0x33CC3F8A, 0x72FD2493
}, {
0x00000000, 0x376AC201, 0x6ED48403, 0x59BE4602,
0xDCA80907, 0xEBC2CB06, 0xB27C8D04, 0x85164F05,
0xB851130E, 0x8F3BD10F, 0xD685970D, 0xE1EF550C,
0x64F91A09, 0x5393D808, 0x0A2D9E0A, 0x3D475C0B,
0x70A3261C, 0x47C9E41D, 0x1E77A21F, 0x291D601E,
0xAC0B2F1B, 0x9B61ED1A, 0xC2DFAB18, 0xF5B56919,
0xC8F23512, 0xFF98F713, 0xA626B111, 0x914C7310,
0x145A3C15, 0x2330FE14, 0x7A8EB816, 0x4DE47A17,
0xE0464D38, 0xD72C8F39, 0x8E92C93B, 0xB9F80B3A,
0x3CEE443F, 0x0B84863E, 0x523AC03C, 0x6550023D,
0x58175E36, 0x6F7D9C37, 0x36C3DA35, 0x01A91834,
0x84BF5731, 0xB3D59530, 0xEA6BD332, 0xDD011133,
0x90E56B24, 0xA78FA925, 0xFE31EF27, 0xC95B2D26,
0x4C4D6223, 0x7B27A022, 0x2299E620, 0x15F32421,
0x28B4782A, 0x1FDEBA2B, 0x4660FC29, 0x710A3E28,
0xF41C712D, 0xC376B32C, 0x9AC8F52E, 0xADA2372F,
0xC08D9A70, 0xF7E75871, 0xAE591E73, 0x9933DC72,
0x1C259377, 0x2B4F5176, 0x72F11774, 0x459BD575,
0x78DC897E, 0x4FB64B7F, 0x16080D7D, 0x2162CF7C,
0xA4748079, 0x931E4278, 0xCAA0047A, 0xFDCAC67B,
0xB02EBC6C, 0x87447E6D, 0xDEFA386F, 0xE990FA6E,
0x6C86B56B, 0x5BEC776A, 0x02523168, 0x3538F369,
0x087FAF62, 0x3F156D63, 0x66AB2B61, 0x51C1E960,
0xD4D7A665, 0xE3BD6464, 0xBA032266, 0x8D69E067,
0x20CBD748, 0x17A11549, 0x4E1F534B, 0x7975914A,
0xFC63DE4F, 0xCB091C4E, 0x92B75A4C, 0xA5DD984D,
0x989AC446, 0xAFF00647, 0xF64E4045, 0xC1248244,
0x4432CD41, 0x73580F40, 0x2AE64942, 0x1D8C8B43,
0x5068F154, 0x67023355, 0x3EBC7557, 0x09D6B756,
0x8CC0F853, 0xBBAA3A52, 0xE2147C50, 0xD57EBE51,
0xE839E25A, 0xDF53205B, 0x86ED6659, 0xB187A458,
0x3491EB5D, 0x03FB295C, 0x5A456F5E, 0x6D2FAD5F,
0x801B35E1, 0xB771F7E0, 0xEECFB1E2, 0xD9A573E3,
0x5CB33CE6, 0x6BD9FEE7, 0x3267B8E5, 0x050D7AE4,
0x384A26EF, 0x0F20E4EE, 0x569EA2EC, 0x61F460ED,
0xE4E22FE8, 0xD388EDE9, 0x8A36ABEB, 0xBD5C69EA,
0xF0B813FD, 0xC7D2D1FC, 0x9E6C97FE, 0xA90655FF,
0x2C101AFA, 0x1B7AD8FB, 0x42C49EF9, 0x75AE5CF8,
0x48E900F3, 0x7F83C2F2, 0x263D84F0, 0x115746F1,
0x944109F4, 0xA32BCBF5, 0xFA958DF7, 0xCDFF4FF6,
0x605D78D9, 0x5737BAD8, 0x0E89FCDA, 0x39E33EDB,
0xBCF571DE, 0x8B9FB3DF, 0xD221F5DD, 0xE54B37DC,
0xD80C6BD7, 0xEF66A9D6, 0xB6D8EFD4, 0x81B22DD5,
0x04A462D0, 0x33CEA0D1, 0x6A70E6D3, 0x5D1A24D2,
0x10FE5EC5, 0x27949CC4, 0x7E2ADAC6, 0x494018C7,
0xCC5657C2, 0xFB3C95C3, 0xA282D3C1, 0x95E811C0,
0xA8AF4DCB, 0x9FC58FCA, 0xC67BC9C8, 0xF1110BC9,
0x740744CC, 0x436D86CD, 0x1AD3C0CF, 0x2DB902CE,
0x4096AF91, 0x77FC6D90, 0x2E422B92, 0x1928E993,
0x9C3EA696, 0xAB546497, 0xF2EA2295, 0xC580E094,
0xF8C7BC9F, 0xCFAD7E9E, 0x9613389C, 0xA179FA9D,
0x246FB598, 0x13057799, 0x4ABB319B, 0x7DD1F39A,
0x3035898D, 0x075F4B8C, 0x5EE10D8E, 0x698BCF8F,
0xEC9D808A, 0xDBF7428B, 0x82490489, 0xB523C688,
0x88649A83, 0xBF0E5882, 0xE6B01E80, 0xD1DADC81,
0x54CC9384, 0x63A65185, 0x3A181787, 0x0D72D586,
0xA0D0E2A9, 0x97BA20A8, 0xCE0466AA, 0xF96EA4AB,
0x7C78EBAE, 0x4B1229AF, 0x12AC6FAD, 0x25C6ADAC,
0x1881F1A7, 0x2FEB33A6, 0x765575A4, 0x413FB7A5,
0xC429F8A0, 0xF3433AA1, 0xAAFD7CA3, 0x9D97BEA2,
0xD073C4B5, 0xE71906B4, 0xBEA740B6, 0x89CD82B7,
0x0CDBCDB2, 0x3BB10FB3, 0x620F49B1, 0x55658BB0,
0x6822D7BB, 0x5F4815BA, 0x06F653B8, 0x319C91B9,
0xB48ADEBC, 0x83E01CBD, 0xDA5E5ABF, 0xED3498BE
}, {
0x00000000, 0x6567BCB8, 0x8BC809AA, 0xEEAFB512,
0x5797628F, 0x32F0DE37, 0xDC5F6B25, 0xB938D79D,
0xEF28B4C5, 0x8A4F087D, 0x64E0BD6F, 0x018701D7,
0xB8BFD64A, 0xDDD86AF2, 0x3377DFE0, 0x56106358,
0x9F571950, 0xFA30A5E8, 0x149F10FA, 0x71F8AC42,
0xC8C07BDF, 0xADA7C767, 0x43087275, 0x266FCECD,
0x707FAD95, 0x1518112D, 0xFBB7A43F, 0x9ED01887,
0x27E8CF1A, 0x428F73A2, 0xAC20C6B0, 0xC9477A08,
0x3EAF32A0, 0x5BC88E18, 0xB5673B0A, 0xD00087B2,
0x6938502F, 0x0C5FEC97, 0xE2F05985, 0x8797E53D,
0xD1878665, 0xB4E03ADD, 0x5A4F8FCF, 0x3F283377,
0x8610E4EA, 0xE3775852, 0x0DD8ED40, 0x68BF51F8,
0xA1F82BF0, 0xC49F9748, 0x2A30225A, 0x4F579EE2,
0xF66F497F, 0x9308F5C7, 0x7DA740D5, 0x18C0FC6D,
0x4ED09F35, 0x2BB7238D, 0xC518969F, 0xA07F2A27,
0x1947FDBA, 0x7C204102, 0x928FF410, 0xF7E848A8,
0x3D58149B, 0x583FA823, 0xB6901D31, 0xD3F7A189,
0x6ACF7614, 0x0FA8CAAC, 0xE1077FBE, 0x8460C306,
0xD270A05E, 0xB7171CE6, 0x59B8A9F4, 0x3CDF154C,
0x85E7C2D1, 0xE0807E69, 0x0E2FCB7B, 0x6B4877C3,
0xA20F0DCB, 0xC768B173, 0x29C70461, 0x4CA0B8D9,
0xF5986F44, 0x90FFD3FC, 0x7E5066EE, 0x1B37DA56,
0x4D27B90E, 0x284005B6, 0xC6EFB0A4, 0xA3880C1C,
0x1AB0DB81, 0x7FD76739, 0x9178D22B, 0xF41F6E93,
0x03F7263B, 0x66909A83, 0x883F2F91, 0xED589329,
0x546044B4, 0x3107F80C, 0xDFA84D1E, 0xBACFF1A6,
0xECDF92FE, 0x89B82E46, 0x67179B54, 0x027027EC,
0xBB48F071, 0xDE2F4CC9, 0x3080F9DB, 0x55E74563,
0x9CA03F6B, 0xF9C783D3, 0x176836C1, 0x720F8A79,
0xCB375DE4, 0xAE50E15C, 0x40FF544E, 0x2598E8F6,
0x73888BAE, 0x16EF3716, 0xF8408204, 0x9D273EBC,
0x241FE921, 0x41785599, 0xAFD7E08B, 0xCAB05C33,
0x3BB659ED, 0x5ED1E555, 0xB07E5047, 0xD519ECFF,
0x6C213B62, 0x094687DA, 0xE7E932C8, 0x828E8E70,
0xD49EED28, 0xB1F95190, 0x5F56E482, 0x3A31583A,
0x83098FA7, 0xE66E331F, 0x08C1860D, 0x6DA63AB5,
0xA4E140BD, 0xC186FC05, 0x2F294917, 0x4A4EF5AF,
0xF3762232, 0x96119E8A, 0x78BE2B98, 0x1DD99720,
0x4BC9F478, 0x2EAE48C0, 0xC001FDD2, 0xA566416A,
0x1C5E96F7, 0x79392A4F, 0x97969F5D, 0xF2F123E5,
0x05196B4D, 0x607ED7F5, 0x8ED162E7, 0xEBB6DE5F,
0x528E09C2, 0x37E9B57A, 0xD9460068, 0xBC21BCD0,
0xEA31DF88, 0x8F566330, 0x61F9D622, 0x049E6A9A,
0xBDA6BD07, 0xD8C101BF, 0x366EB4AD, 0x53090815,
0x9A4E721D, 0xFF29CEA5, 0x11867BB7, 0x74E1C70F,
0xCDD91092, 0xA8BEAC2A, 0x46111938, 0x2376A580,
0x7566C6D8, 0x10017A60, 0xFEAECF72, 0x9BC973CA,
0x22F1A457, 0x479618EF, 0xA939ADFD, 0xCC5E1145,
0x06EE4D76, 0x6389F1CE, 0x8D2644DC, 0xE841F864,
0x51792FF9, 0x341E9341, 0xDAB12653, 0xBFD69AEB,
0xE9C6F9B3, 0x8CA1450B, 0x620EF019, 0x07694CA1,
0xBE519B3C, 0xDB362784, 0x35999296, 0x50FE2E2E,
0x99B95426, 0xFCDEE89E, 0x12715D8C, 0x7716E134,
0xCE2E36A9, 0xAB498A11, 0x45E63F03, 0x208183BB,
0x7691E0E3, 0x13F65C5B, 0xFD59E949, 0x983E55F1,
0x2106826C, 0x44613ED4, 0xAACE8BC6, 0xCFA9377E,
0x38417FD6, 0x5D26C36E, 0xB389767C, 0xD6EECAC4,
0x6FD61D59, 0x0AB1A1E1, 0xE41E14F3, 0x8179A84B,
0xD769CB13, 0xB20E77AB, 0x5CA1C2B9, 0x39C67E01,
0x80FEA99C, 0xE5991524, 0x0B36A036, 0x6E511C8E,
0xA7166686, 0xC271DA3E, 0x2CDE6F2C, 0x49B9D394,
0xF0810409, 0x95E6B8B1, 0x7B490DA3, 0x1E2EB11B,
0x483ED243, 0x2D596EFB, 0xC3F6DBE9, 0xA6916751,
0x1FA9B0CC, 0x7ACE0C74, 0x9461B966, 0xF10605DE
}, {
0x00000000, 0xB029603D, 0x6053C07A, 0xD07AA047,
0xC0A680F5, 0x708FE0C8, 0xA0F5408F, 0x10DC20B2,
0xC14B7030, 0x7162100D, 0xA118B04A, 0x1131D077,
0x01EDF0C5, 0xB1C490F8, 0x61BE30BF, 0xD1975082,
0x8297E060, 0x32BE805D, 0xE2C4201A, 0x52ED4027,
0x42316095, 0xF21800A8, 0x2262A0EF, 0x924BC0D2,
0x43DC9050, 0xF3F5F06D, 0x238F502A, 0x93A63017,
0x837A10A5, 0x33537098, 0xE329D0DF, 0x5300B0E2,
0x042FC1C1, 0xB406A1FC, 0x647C01BB, 0xD4556186,
0xC4894134, 0x74A02109, 0xA4DA814E, 0x14F3E173,
0xC564B1F1, 0x754DD1CC, 0xA537718B, 0x151E11B6,
0x05C23104, 0xB5EB5139, 0x6591F17E, 0xD5B89143,
0x86B821A1, 0x3691419C, 0xE6EBE1DB, 0x56C281E6,
0x461EA154, 0xF637C169, 0x264D612E, 0x96640113,
0x47F35191, 0xF7DA31AC, 0x27A091EB, 0x9789F1D6,
0x8755D164, 0x377CB159, 0xE706111E, 0x572F7123,
0x4958F358, 0xF9719365, 0x290B3322, 0x9922531F,
0x89FE73AD, 0x39D71390, 0xE9ADB3D7, 0x5984D3EA,
0x88138368, 0x383AE355, 0xE8404312, 0x5869232F,
0x48B5039D, 0xF89C63A0, 0x28E6C3E7, 0x98CFA3DA,
0xCBCF1338, 0x7BE67305, 0xAB9CD342, 0x1BB5B37F,
0x0B6993CD, 0xBB40F3F0, 0x6B3A53B7, 0xDB13338A,
0x0A846308, 0xBAAD0335, 0x6AD7A372, 0xDAFEC34F,
0xCA22E3FD, 0x7A0B83C0, 0xAA712387, 0x1A5843BA,
0x4D773299, 0xFD5E52A4, 0x2D24F2E3, 0x9D0D92DE,
0x8DD1B26C, 0x3DF8D251, 0xED827216, 0x5DAB122B,
0x8C3C42A9, 0x3C152294, 0xEC6F82D3, 0x5C46E2EE,
0x4C9AC25C, 0xFCB3A261, 0x2CC90226, 0x9CE0621B,
0xCFE0D2F9, 0x7FC9B2C4, 0xAFB31283, 0x1F9A72BE,
0x0F46520C, 0xBF6F3231, 0x6F159276, 0xDF3CF24B,
0x0EABA2C9, 0xBE82C2F4, 0x6EF862B3, 0xDED1028E,
0xCE0D223C, 0x7E244201, 0xAE5EE246, 0x1E77827B,
0x92B0E6B1, 0x2299868C, 0xF2E326CB, 0x42CA46F6,
0x52166644, 0xE23F0679, 0x3245A63E, 0x826CC603,
0x53FB9681, 0xE3D2F6BC, 0x33A856FB, 0x838136C6,
0x935D1674, 0x23747649, 0xF30ED60E, 0x4327B633,
0x102706D1, 0xA00E66EC, 0x7074C6AB, 0xC05DA696,
0xD0818624, 0x60A8E619, 0xB0D2465E, 0x00FB2663,
0xD16C76E1, 0x614516DC, 0xB13FB69B, 0x0116D6A6,
0x11CAF614, 0xA1E39629, 0x7199366E, 0xC1B05653,
0x969F2770, 0x26B6474D, 0xF6CCE70A, 0x46E58737,
0x5639A785, 0xE610C7B8, 0x366A67FF, 0x864307C2,
0x57D45740, 0xE7FD377D, 0x3787973A, 0x87AEF707,
0x9772D7B5, 0x275BB788, 0xF72117CF, 0x470877F2,
0x1408C710, 0xA421A72D, 0x745B076A, 0xC4726757,
0xD4AE47E5, 0x648727D8, 0xB4FD879F, 0x04D4E7A2,
0xD543B720, 0x656AD71D, 0xB510775A, 0x05391767,
0x15E537D5, 0xA5CC57E8, 0x75B6F7AF, 0xC59F9792,
0xDBE815E9, 0x6BC175D4, 0xBBBBD593, 0x0B92B5AE,
0x1B4E951C, 0xAB67F521, 0x7B1D5566, 0xCB34355B,
0x1AA365D9, 0xAA8A05E4, 0x7AF0A5A3, 0xCAD9C59E,
0xDA05E52C, 0x6A2C8511, 0xBA562556, 0x0A7F456B,
0x597FF589, 0xE95695B4, 0x392C35F3, 0x890555CE,
0x99D9757C, 0x29F01541, 0xF98AB506, 0x49A3D53B,
0x983485B9, 0x281DE584, 0xF86745C3, 0x484E25FE,
0x5892054C, 0xE8BB6571, 0x38C1C536, 0x88E8A50B,
0xDFC7D428, 0x6FEEB415, 0xBF941452, 0x0FBD746F,
0x1F6154DD, 0xAF4834E0, 0x7F3294A7, 0xCF1BF49A,
0x1E8CA418, 0xAEA5C425, 0x7EDF6462, 0xCEF6045F,
0xDE2A24ED, 0x6E0344D0, 0xBE79E497, 0x0E5084AA,
0x5D503448, 0xED795475, 0x3D03F432, 0x8D2A940F,
0x9DF6B4BD, 0x2DDFD480, 0xFDA574C7, 0x4D8C14FA,
0x9C1B4478, 0x2C322445, 0xFC488402, 0x4C61E43F,
0x5CBDC48D, 0xEC94A4B0, 0x3CEE04F7, 0x8CC764CA
}, {
0x00000000, 0xA5D35CCB, 0x0BA1C84D, 0xAE729486,
0x1642919B, 0xB391CD50, 0x1DE359D6, 0xB830051D,
0x6D8253EC, 0xC8510F27, 0x66239BA1, 0xC3F0C76A,
0x7BC0C277, 0xDE139EBC, 0x70610A3A, 0xD5B256F1,
0x9B02D603, 0x3ED18AC8, 0x90A31E4E, 0x35704285,
0x8D404798, 0x28931B53, 0x86E18FD5, 0x2332D31E,
0xF68085EF, 0x5353D924, 0xFD214DA2, 0x58F21169,
0xE0C21474, 0x451148BF, 0xEB63DC39, 0x4EB080F2,
0x3605AC07, 0x93D6F0CC, 0x3DA4644A, 0x98773881,
0x20473D9C, 0x85946157, 0x2BE6F5D1, 0x8E35A91A,
0x5B87FFEB, 0xFE54A320, 0x502637A6, 0xF5F56B6D,
0x4DC56E70, 0xE81632BB, 0x4664A63D, 0xE3B7FAF6,
0xAD077A04, 0x08D426CF, 0xA6A6B249, 0x0375EE82,
0xBB45EB9F, 0x1E96B754, 0xB0E423D2, 0x15377F19,
0xC08529E8, 0x65567523, 0xCB24E1A5, 0x6EF7BD6E,
0xD6C7B873, 0x7314E4B8, 0xDD66703E, 0x78B52CF5,
0x6C0A580F, 0xC9D904C4, 0x67AB9042, 0xC278CC89,
0x7A48C994, 0xDF9B955F, 0x71E901D9, 0xD43A5D12,
0x01880BE3, 0xA45B5728, 0x0A29C3AE, 0xAFFA9F65,
0x17CA9A78, 0xB219C6B3, 0x1C6B5235, 0xB9B80EFE,
0xF7088E0C, 0x52DBD2C7, 0xFCA94641, 0x597A1A8A,
0xE14A1F97, 0x4499435C, 0xEAEBD7DA, 0x4F388B11,
0x9A8ADDE0, 0x3F59812B, 0x912B15AD, 0x34F84966,
0x8CC84C7B, 0x291B10B0, 0x87698436, 0x22BAD8FD,
0x5A0FF408, 0xFFDCA8C3, 0x51AE3C45, 0xF47D608E,
0x4C4D6593, 0xE99E3958, 0x47ECADDE, 0xE23FF115,
0x378DA7E4, 0x925EFB2F, 0x3C2C6FA9, 0x99FF3362,
0x21CF367F, 0x841C6AB4, 0x2A6EFE32, 0x8FBDA2F9,
0xC10D220B, 0x64DE7EC0, 0xCAACEA46, 0x6F7FB68D,
0xD74FB390, 0x729CEF5B, 0xDCEE7BDD, 0x793D2716,
0xAC8F71E7, 0x095C2D2C, 0xA72EB9AA, 0x02FDE561,
0xBACDE07C, 0x1F1EBCB7, 0xB16C2831, 0x14BF74FA,
0xD814B01E, 0x7DC7ECD5, 0xD3B57853, 0x76662498,
0xCE562185, 0x6B857D4E, 0xC5F7E9C8, 0x6024B503,
0xB596E3F2, 0x1045BF39, 0xBE372BBF, 0x1BE47774,
0xA3D47269, 0x06072EA2, 0xA875BA24, 0x0DA6E6EF,
0x4316661D, 0xE6C53AD6, 0x48B7AE50, 0xED64F29B,
0x5554F786, 0xF087AB4D, 0x5EF53FCB, 0xFB266300,
0x2E9435F1, 0x8B47693A, 0x2535FDBC, 0x80E6A177,
0x38D6A46A, 0x9D05F8A1, 0x33776C27, 0x96A430EC,
0xEE111C19, 0x4BC240D2, 0xE5B0D454, 0x4063889F,
0xF8538D82, 0x5D80D149, 0xF3F245CF, 0x56211904,
0x83934FF5, 0x2640133E, 0x883287B8, 0x2DE1DB73,
0x95D1DE6E, 0x300282A5, 0x9E701623, 0x3BA34AE8,
0x7513CA1A, 0xD0C096D1, 0x7EB20257, 0xDB615E9C,
0x63515B81, 0xC682074A, 0x68F093CC, 0xCD23CF07,
0x189199F6, 0xBD42C53D, 0x133051BB, 0xB6E30D70,
0x0ED3086D, 0xAB0054A6, 0x0572C020, 0xA0A19CEB,
0xB41EE811, 0x11CDB4DA, 0xBFBF205C, 0x1A6C7C97,
0xA25C798A, 0x078F2541, 0xA9FDB1C7, 0x0C2EED0C,
0xD99CBBFD, 0x7C4FE736, 0xD23D73B0, 0x77EE2F7B,
0xCFDE2A66, 0x6A0D76AD, 0xC47FE22B, 0x61ACBEE0,
0x2F1C3E12, 0x8ACF62D9, 0x24BDF65F, 0x816EAA94,
0x395EAF89, 0x9C8DF342, 0x32FF67C4, 0x972C3B0F,
0x429E6DFE, 0xE74D3135, 0x493FA5B3, 0xECECF978,
0x54DCFC65, 0xF10FA0AE, 0x5F7D3428, 0xFAAE68E3,
0x821B4416, 0x27C818DD, 0x89BA8C5B, 0x2C69D090,
0x9459D58D, 0x318A8946, 0x9FF81DC0, 0x3A2B410B,
0xEF9917FA, 0x4A4A4B31, 0xE438DFB7, 0x41EB837C,
0xF9DB8661, 0x5C08DAAA, 0xF27A4E2C, 0x57A912E7,
0x19199215, 0xBCCACEDE, 0x12B85A58, 0xB76B0693,
0x0F5B038E, 0xAA885F45, 0x04FACBC3, 0xA1299708,
0x749BC1F9, 0xD1489D32, 0x7F3A09B4, 0xDAE9557F,
0x62D95062, 0xC70A0CA9, 0x6978982F, 0xCCABC4E4
}, {
0x00000000, 0xB40B77A6, 0x29119F97, 0x9D1AE831,
0x13244FF4, 0xA72F3852, 0x3A35D063, 0x8E3EA7C5,
0x674EEF33, 0xD3459895, 0x4E5F70A4, 0xFA540702,
0x746AA0C7, 0xC061D761, 0x5D7B3F50, 0xE97048F6,
0xCE9CDE67, 0x7A97A9C1, 0xE78D41F0, 0x53863656,
0xDDB89193, 0x69B3E635, 0xF4A90E04, 0x40A279A2,
0xA9D23154, 0x1DD946F2, 0x80C3AEC3, 0x34C8D965,
0xBAF67EA0, 0x0EFD0906, 0x93E7E137, 0x27EC9691,
0x9C39BDCF, 0x2832CA69, 0xB5282258, 0x012355FE,
0x8F1DF23B, 0x3B16859D, 0xA60C6DAC, 0x12071A0A,
0xFB7752FC, 0x4F7C255A, 0xD266CD6B, 0x666DBACD,
0xE8531D08, 0x5C586AAE, 0xC142829F, 0x7549F539,
0x52A563A8, 0xE6AE140E, 0x7BB4FC3F, 0xCFBF8B99,
0x41812C5C, 0xF58A5BFA, 0x6890B3CB, 0xDC9BC46D,
0x35EB8C9B, 0x81E0FB3D, 0x1CFA130C, 0xA8F164AA,
0x26CFC36F, 0x92C4B4C9, 0x0FDE5CF8, 0xBBD52B5E,
0x79750B44, 0xCD7E7CE2, 0x506494D3, 0xE46FE375,
0x6A5144B0, 0xDE5A3316, 0x4340DB27, 0xF74BAC81,
0x1E3BE477, 0xAA3093D1, 0x372A7BE0, 0x83210C46,
0x0D1FAB83, 0xB914DC25, 0x240E3414, 0x900543B2,
0xB7E9D523, 0x03E2A285, 0x9EF84AB4, 0x2AF33D12,
0xA4CD9AD7, 0x10C6ED71, 0x8DDC0540, 0x39D772E6,
0xD0A73A10, 0x64AC4DB6, 0xF9B6A587, 0x4DBDD221,
0xC38375E4, 0x77880242, 0xEA92EA73, 0x5E999DD5,
0xE54CB68B, 0x5147C12D, 0xCC5D291C, 0x78565EBA,
0xF668F97F, 0x42638ED9, 0xDF7966E8, 0x6B72114E,
0x820259B8, 0x36092E1E, 0xAB13C62F, 0x1F18B189,
0x9126164C, 0x252D61EA, 0xB83789DB, 0x0C3CFE7D,
0x2BD068EC, 0x9FDB1F4A, 0x02C1F77B, 0xB6CA80DD,
0x38F42718, 0x8CFF50BE, 0x11E5B88F, 0xA5EECF29,
0x4C9E87DF, 0xF895F079, 0x658F1848, 0xD1846FEE,
0x5FBAC82B, 0xEBB1BF8D, 0x76AB57BC, 0xC2A0201A,
0xF2EA1688, 0x46E1612E, 0xDBFB891F, 0x6FF0FEB9,
0xE1CE597C, 0x55C52EDA, 0xC8DFC6EB, 0x7CD4B14D,
0x95A4F9BB, 0x21AF8E1D, 0xBCB5662C, 0x08BE118A,
0x8680B64F, 0x328BC1E9, 0xAF9129D8, 0x1B9A5E7E,
0x3C76C8EF, 0x887DBF49, 0x15675778, 0xA16C20DE,
0x2F52871B, 0x9B59F0BD, 0x0643188C, 0xB2486F2A,
0x5B3827DC, 0xEF33507A, 0x7229B84B, 0xC622CFED,
0x481C6828, 0xFC171F8E, 0x610DF7BF, 0xD5068019,
0x6ED3AB47, 0xDAD8DCE1, 0x47C234D0, 0xF3C94376,
0x7DF7E4B3, 0xC9FC9315, 0x54E67B24, 0xE0ED0C82,
0x099D4474, 0xBD9633D2, 0x208CDBE3, 0x9487AC45,
0x1AB90B80, 0xAEB27C26, 0x33A89417, 0x87A3E3B1,
0xA04F7520, 0x14440286, 0x895EEAB7, 0x3D559D11,
0xB36B3AD4, 0x07604D72, 0x9A7AA543, 0x2E71D2E5,
0xC7019A13, 0x730AEDB5, 0xEE100584, 0x5A1B7222,
0xD425D5E7, 0x602EA241, 0xFD344A70, 0x493F3DD6,
0x8B9F1DCC, 0x3F946A6A, 0xA28E825B, 0x1685F5FD,
0x98BB5238, 0x2CB0259E, 0xB1AACDAF, 0x05A1BA09,
0xECD1F2FF, 0x58DA8559, 0xC5C06D68, 0x71CB1ACE,
0xFFF5BD0B, 0x4BFECAAD, 0xD6E4229C, 0x62EF553A,
0x4503C3AB, 0xF108B40D, 0x6C125C3C, 0xD8192B9A,
0x56278C5F, 0xE22CFBF9, 0x7F3613C8, 0xCB3D646E,
0x224D2C98, 0x96465B3E, 0x0B5CB30F, 0xBF57C4A9,
0x3169636C, 0x856214CA, 0x1878FCFB, 0xAC738B5D,
0x17A6A003, 0xA3ADD7A5, 0x3EB73F94, 0x8ABC4832,
0x0482EFF7, 0xB0899851, 0x2D937060, 0x999807C6,
0x70E84F30, 0xC4E33896, 0x59F9D0A7, 0xEDF2A701,
0x63CC00C4, 0xD7C77762, 0x4ADD9F53, 0xFED6E8F5,
0xD93A7E64, 0x6D3109C2, 0xF02BE1F3, 0x44209655,
0xCA1E3190, 0x7E154636, 0xE30FAE07, 0x5704D9A1,
0xBE749157, 0x0A7FE6F1, 0x97650EC0, 0x236E7966,
0xAD50DEA3, 0x195BA905, 0x84414134, 0x304A3692
}, {
0x00000000, 0x9E00AACC, 0x7D072542, 0xE3078F8E,
0xFA0E4A84, 0x640EE048, 0x87096FC6, 0x1909C50A,
0xB51BE5D3, 0x2B1B4F1F, 0xC81CC091, 0x561C6A5D,
0x4F15AF57, 0xD115059B, 0x32128A15, 0xAC1220D9,
0x2B31BB7C, 0xB53111B0, 0x56369E3E, 0xC83634F2,
0xD13FF1F8, 0x4F3F5B34, 0xAC38D4BA, 0x32387E76,
0x9E2A5EAF, 0x002AF463, 0xE32D7BED, 0x7D2DD121,
0x6424142B, 0xFA24BEE7, 0x19233169, 0x87239BA5,
0x566276F9, 0xC862DC35, 0x2B6553BB, 0xB565F977,
0xAC6C3C7D, 0x326C96B1, 0xD16B193F, 0x4F6BB3F3,
0xE379932A, 0x7D7939E6, 0x9E7EB668, 0x007E1CA4,
0x1977D9AE, 0x87777362, 0x6470FCEC, 0xFA705620,
0x7D53CD85, 0xE3536749, 0x0054E8C7, 0x9E54420B,
0x875D8701, 0x195D2DCD, 0xFA5AA243, 0x645A088F,
0xC8482856, 0x5648829A, 0xB54F0D14, 0x2B4FA7D8,
0x324662D2, 0xAC46C81E, 0x4F414790, 0xD141ED5C,
0xEDC29D29, 0x73C237E5, 0x90C5B86B, 0x0EC512A7,
0x17CCD7AD, 0x89CC7D61, 0x6ACBF2EF, 0xF4CB5823,
0x58D978FA, 0xC6D9D236, 0x25DE5DB8, 0xBBDEF774,
0xA2D7327E, 0x3CD798B2, 0xDFD0173C, 0x41D0BDF0,
0xC6F32655, 0x58F38C99, 0xBBF40317, 0x25F4A9DB,
0x3CFD6CD1, 0xA2FDC61D, 0x41FA4993, 0xDFFAE35F,
0x73E8C386, 0xEDE8694A, 0x0EEFE6C4, 0x90EF4C08,
0x89E68902, 0x17E623CE, 0xF4E1AC40, 0x6AE1068C,
0xBBA0EBD0, 0x25A0411C, 0xC6A7CE92, 0x58A7645E,
0x41AEA154, 0xDFAE0B98, 0x3CA98416, 0xA2A92EDA,
0x0EBB0E03, 0x90BBA4CF, 0x73BC2B41, 0xEDBC818D,
0xF4B54487, 0x6AB5EE4B, 0x89B261C5, 0x17B2CB09,
0x909150AC, 0x0E91FA60, 0xED9675EE, 0x7396DF22,
0x6A9F1A28, 0xF49FB0E4, 0x17983F6A, 0x899895A6,
0x258AB57F, 0xBB8A1FB3, 0x588D903D, 0xC68D3AF1,
0xDF84FFFB, 0x41845537, 0xA283DAB9, 0x3C837075,
0xDA853B53, 0x4485919F, 0xA7821E11, 0x3982B4DD,
0x208B71D7, 0xBE8BDB1B, 0x5D8C5495, 0xC38CFE59,
0x6F9EDE80, 0xF19E744C, 0x1299FBC2, 0x8C99510E,
0x95909404, 0x0B903EC8, 0xE897B146, 0x76971B8A,
0xF1B4802F, 0x6FB42AE3, 0x8CB3A56D, 0x12B30FA1,
0x0BBACAAB, 0x95BA6067, 0x76BDEFE9, 0xE8BD4525,
0x44AF65FC, 0xDAAFCF30, 0x39A840BE, 0xA7A8EA72,
0xBEA12F78, 0x20A185B4, 0xC3A60A3A, 0x5DA6A0F6,
0x8CE74DAA, 0x12E7E766, 0xF1E068E8, 0x6FE0C224,
0x76E9072E, 0xE8E9ADE2, 0x0BEE226C, 0x95EE88A0,
0x39FCA879, 0xA7FC02B5, 0x44FB8D3B, 0xDAFB27F7,
0xC3F2E2FD, 0x5DF24831, 0xBEF5C7BF, 0x20F56D73,
0xA7D6F6D6, 0x39D65C1A, 0xDAD1D394, 0x44D17958,
0x5DD8BC52, 0xC3D8169E, 0x20DF9910, 0xBEDF33DC,
0x12CD1305, 0x8CCDB9C9, 0x6FCA3647, 0xF1CA9C8B,
0xE8C35981, 0x76C3F34D, 0x95C47CC3, 0x0BC4D60F,
0x3747A67A, 0xA9470CB6, 0x4A408338, 0xD44029F4,
0xCD49ECFE, 0x53494632, 0xB04EC9BC, 0x2E4E6370,
0x825C43A9, 0x1C5CE965, 0xFF5B66EB, 0x615BCC27,
0x7852092D, 0xE652A3E1, 0x05552C6F, 0x9B5586A3,
0x1C761D06, 0x8276B7CA, 0x61713844, 0xFF719288,
0xE6785782, 0x7878FD4E, 0x9B7F72C0, 0x057FD80C,
0xA96DF8D5, 0x376D5219, 0xD46ADD97, 0x4A6A775B,
0x5363B251, 0xCD63189D, 0x2E649713, 0xB0643DDF,
0x6125D083, 0xFF257A4F, 0x1C22F5C1, 0x82225F0D,
0x9B2B9A07, 0x052B30CB, 0xE62CBF45, 0x782C1589,
0xD43E3550, 0x4A3E9F9C, 0xA9391012, 0x3739BADE,
0x2E307FD4, 0xB030D518, 0x53375A96, 0xCD37F05A,
0x4A146BFF, 0xD414C133, 0x37134EBD, 0xA913E471,
0xB01A217B, 0x2E1A8BB7, 0xCD1D0439, 0x531DAEF5,
0xFF0F8E2C, 0x610F24E0, 0x8208AB6E, 0x1C0801A2,
0x0501C4A8, 0x9B016E64, 0x7806E1EA, 0xE6064B26
}
};
game/client/third/minizip/lib/liblzma/check/crc32_table_le.h
Executable
+525
View File
@@ -0,0 +1,525 @@
/* This file has been automatically generated by crc32_tablegen.c. */
const uint32_t lzma_crc32_table[8][256] = {
{
0x00000000, 0x77073096, 0xEE0E612C, 0x990951BA,
0x076DC419, 0x706AF48F, 0xE963A535, 0x9E6495A3,
0x0EDB8832, 0x79DCB8A4, 0xE0D5E91E, 0x97D2D988,
0x09B64C2B, 0x7EB17CBD, 0xE7B82D07, 0x90BF1D91,
0x1DB71064, 0x6AB020F2, 0xF3B97148, 0x84BE41DE,
0x1ADAD47D, 0x6DDDE4EB, 0xF4D4B551, 0x83D385C7,
0x136C9856, 0x646BA8C0, 0xFD62F97A, 0x8A65C9EC,
0x14015C4F, 0x63066CD9, 0xFA0F3D63, 0x8D080DF5,
0x3B6E20C8, 0x4C69105E, 0xD56041E4, 0xA2677172,
0x3C03E4D1, 0x4B04D447, 0xD20D85FD, 0xA50AB56B,
0x35B5A8FA, 0x42B2986C, 0xDBBBC9D6, 0xACBCF940,
0x32D86CE3, 0x45DF5C75, 0xDCD60DCF, 0xABD13D59,
0x26D930AC, 0x51DE003A, 0xC8D75180, 0xBFD06116,
0x21B4F4B5, 0x56B3C423, 0xCFBA9599, 0xB8BDA50F,
0x2802B89E, 0x5F058808, 0xC60CD9B2, 0xB10BE924,
0x2F6F7C87, 0x58684C11, 0xC1611DAB, 0xB6662D3D,
0x76DC4190, 0x01DB7106, 0x98D220BC, 0xEFD5102A,
0x71B18589, 0x06B6B51F, 0x9FBFE4A5, 0xE8B8D433,
0x7807C9A2, 0x0F00F934, 0x9609A88E, 0xE10E9818,
0x7F6A0DBB, 0x086D3D2D, 0x91646C97, 0xE6635C01,
0x6B6B51F4, 0x1C6C6162, 0x856530D8, 0xF262004E,
0x6C0695ED, 0x1B01A57B, 0x8208F4C1, 0xF50FC457,
0x65B0D9C6, 0x12B7E950, 0x8BBEB8EA, 0xFCB9887C,
0x62DD1DDF, 0x15DA2D49, 0x8CD37CF3, 0xFBD44C65,
0x4DB26158, 0x3AB551CE, 0xA3BC0074, 0xD4BB30E2,
0x4ADFA541, 0x3DD895D7, 0xA4D1C46D, 0xD3D6F4FB,
0x4369E96A, 0x346ED9FC, 0xAD678846, 0xDA60B8D0,
0x44042D73, 0x33031DE5, 0xAA0A4C5F, 0xDD0D7CC9,
0x5005713C, 0x270241AA, 0xBE0B1010, 0xC90C2086,
0x5768B525, 0x206F85B3, 0xB966D409, 0xCE61E49F,
0x5EDEF90E, 0x29D9C998, 0xB0D09822, 0xC7D7A8B4,
0x59B33D17, 0x2EB40D81, 0xB7BD5C3B, 0xC0BA6CAD,
0xEDB88320, 0x9ABFB3B6, 0x03B6E20C, 0x74B1D29A,
0xEAD54739, 0x9DD277AF, 0x04DB2615, 0x73DC1683,
0xE3630B12, 0x94643B84, 0x0D6D6A3E, 0x7A6A5AA8,
0xE40ECF0B, 0x9309FF9D, 0x0A00AE27, 0x7D079EB1,
0xF00F9344, 0x8708A3D2, 0x1E01F268, 0x6906C2FE,
0xF762575D, 0x806567CB, 0x196C3671, 0x6E6B06E7,
0xFED41B76, 0x89D32BE0, 0x10DA7A5A, 0x67DD4ACC,
0xF9B9DF6F, 0x8EBEEFF9, 0x17B7BE43, 0x60B08ED5,
0xD6D6A3E8, 0xA1D1937E, 0x38D8C2C4, 0x4FDFF252,
0xD1BB67F1, 0xA6BC5767, 0x3FB506DD, 0x48B2364B,
0xD80D2BDA, 0xAF0A1B4C, 0x36034AF6, 0x41047A60,
0xDF60EFC3, 0xA867DF55, 0x316E8EEF, 0x4669BE79,
0xCB61B38C, 0xBC66831A, 0x256FD2A0, 0x5268E236,
0xCC0C7795, 0xBB0B4703, 0x220216B9, 0x5505262F,
0xC5BA3BBE, 0xB2BD0B28, 0x2BB45A92, 0x5CB36A04,
0xC2D7FFA7, 0xB5D0CF31, 0x2CD99E8B, 0x5BDEAE1D,
0x9B64C2B0, 0xEC63F226, 0x756AA39C, 0x026D930A,
0x9C0906A9, 0xEB0E363F, 0x72076785, 0x05005713,
0x95BF4A82, 0xE2B87A14, 0x7BB12BAE, 0x0CB61B38,
0x92D28E9B, 0xE5D5BE0D, 0x7CDCEFB7, 0x0BDBDF21,
0x86D3D2D4, 0xF1D4E242, 0x68DDB3F8, 0x1FDA836E,
0x81BE16CD, 0xF6B9265B, 0x6FB077E1, 0x18B74777,
0x88085AE6, 0xFF0F6A70, 0x66063BCA, 0x11010B5C,
0x8F659EFF, 0xF862AE69, 0x616BFFD3, 0x166CCF45,
0xA00AE278, 0xD70DD2EE, 0x4E048354, 0x3903B3C2,
0xA7672661, 0xD06016F7, 0x4969474D, 0x3E6E77DB,
0xAED16A4A, 0xD9D65ADC, 0x40DF0B66, 0x37D83BF0,
0xA9BCAE53, 0xDEBB9EC5, 0x47B2CF7F, 0x30B5FFE9,
0xBDBDF21C, 0xCABAC28A, 0x53B39330, 0x24B4A3A6,
0xBAD03605, 0xCDD70693, 0x54DE5729, 0x23D967BF,
0xB3667A2E, 0xC4614AB8, 0x5D681B02, 0x2A6F2B94,
0xB40BBE37, 0xC30C8EA1, 0x5A05DF1B, 0x2D02EF8D
}, {
0x00000000, 0x191B3141, 0x32366282, 0x2B2D53C3,
0x646CC504, 0x7D77F445, 0x565AA786, 0x4F4196C7,
0xC8D98A08, 0xD1C2BB49, 0xFAEFE88A, 0xE3F4D9CB,
0xACB54F0C, 0xB5AE7E4D, 0x9E832D8E, 0x87981CCF,
0x4AC21251, 0x53D92310, 0x78F470D3, 0x61EF4192,
0x2EAED755, 0x37B5E614, 0x1C98B5D7, 0x05838496,
0x821B9859, 0x9B00A918, 0xB02DFADB, 0xA936CB9A,
0xE6775D5D, 0xFF6C6C1C, 0xD4413FDF, 0xCD5A0E9E,
0x958424A2, 0x8C9F15E3, 0xA7B24620, 0xBEA97761,
0xF1E8E1A6, 0xE8F3D0E7, 0xC3DE8324, 0xDAC5B265,
0x5D5DAEAA, 0x44469FEB, 0x6F6BCC28, 0x7670FD69,
0x39316BAE, 0x202A5AEF, 0x0B07092C, 0x121C386D,
0xDF4636F3, 0xC65D07B2, 0xED705471, 0xF46B6530,
0xBB2AF3F7, 0xA231C2B6, 0x891C9175, 0x9007A034,
0x179FBCFB, 0x0E848DBA, 0x25A9DE79, 0x3CB2EF38,
0x73F379FF, 0x6AE848BE, 0x41C51B7D, 0x58DE2A3C,
0xF0794F05, 0xE9627E44, 0xC24F2D87, 0xDB541CC6,
0x94158A01, 0x8D0EBB40, 0xA623E883, 0xBF38D9C2,
0x38A0C50D, 0x21BBF44C, 0x0A96A78F, 0x138D96CE,
0x5CCC0009, 0x45D73148, 0x6EFA628B, 0x77E153CA,
0xBABB5D54, 0xA3A06C15, 0x888D3FD6, 0x91960E97,
0xDED79850, 0xC7CCA911, 0xECE1FAD2, 0xF5FACB93,
0x7262D75C, 0x6B79E61D, 0x4054B5DE, 0x594F849F,
0x160E1258, 0x0F152319, 0x243870DA, 0x3D23419B,
0x65FD6BA7, 0x7CE65AE6, 0x57CB0925, 0x4ED03864,
0x0191AEA3, 0x188A9FE2, 0x33A7CC21, 0x2ABCFD60,
0xAD24E1AF, 0xB43FD0EE, 0x9F12832D, 0x8609B26C,
0xC94824AB, 0xD05315EA, 0xFB7E4629, 0xE2657768,
0x2F3F79F6, 0x362448B7, 0x1D091B74, 0x04122A35,
0x4B53BCF2, 0x52488DB3, 0x7965DE70, 0x607EEF31,
0xE7E6F3FE, 0xFEFDC2BF, 0xD5D0917C, 0xCCCBA03D,
0x838A36FA, 0x9A9107BB, 0xB1BC5478, 0xA8A76539,
0x3B83984B, 0x2298A90A, 0x09B5FAC9, 0x10AECB88,
0x5FEF5D4F, 0x46F46C0E, 0x6DD93FCD, 0x74C20E8C,
0xF35A1243, 0xEA412302, 0xC16C70C1, 0xD8774180,
0x9736D747, 0x8E2DE606, 0xA500B5C5, 0xBC1B8484,
0x71418A1A, 0x685ABB5B, 0x4377E898, 0x5A6CD9D9,
0x152D4F1E, 0x0C367E5F, 0x271B2D9C, 0x3E001CDD,
0xB9980012, 0xA0833153, 0x8BAE6290, 0x92B553D1,
0xDDF4C516, 0xC4EFF457, 0xEFC2A794, 0xF6D996D5,
0xAE07BCE9, 0xB71C8DA8, 0x9C31DE6B, 0x852AEF2A,
0xCA6B79ED, 0xD37048AC, 0xF85D1B6F, 0xE1462A2E,
0x66DE36E1, 0x7FC507A0, 0x54E85463, 0x4DF36522,
0x02B2F3E5, 0x1BA9C2A4, 0x30849167, 0x299FA026,
0xE4C5AEB8, 0xFDDE9FF9, 0xD6F3CC3A, 0xCFE8FD7B,
0x80A96BBC, 0x99B25AFD, 0xB29F093E, 0xAB84387F,
0x2C1C24B0, 0x350715F1, 0x1E2A4632, 0x07317773,
0x4870E1B4, 0x516BD0F5, 0x7A468336, 0x635DB277,
0xCBFAD74E, 0xD2E1E60F, 0xF9CCB5CC, 0xE0D7848D,
0xAF96124A, 0xB68D230B, 0x9DA070C8, 0x84BB4189,
0x03235D46, 0x1A386C07, 0x31153FC4, 0x280E0E85,
0x674F9842, 0x7E54A903, 0x5579FAC0, 0x4C62CB81,
0x8138C51F, 0x9823F45E, 0xB30EA79D, 0xAA1596DC,
0xE554001B, 0xFC4F315A, 0xD7626299, 0xCE7953D8,
0x49E14F17, 0x50FA7E56, 0x7BD72D95, 0x62CC1CD4,
0x2D8D8A13, 0x3496BB52, 0x1FBBE891, 0x06A0D9D0,
0x5E7EF3EC, 0x4765C2AD, 0x6C48916E, 0x7553A02F,
0x3A1236E8, 0x230907A9, 0x0824546A, 0x113F652B,
0x96A779E4, 0x8FBC48A5, 0xA4911B66, 0xBD8A2A27,
0xF2CBBCE0, 0xEBD08DA1, 0xC0FDDE62, 0xD9E6EF23,
0x14BCE1BD, 0x0DA7D0FC, 0x268A833F, 0x3F91B27E,
0x70D024B9, 0x69CB15F8, 0x42E6463B, 0x5BFD777A,
0xDC656BB5, 0xC57E5AF4, 0xEE530937, 0xF7483876,
0xB809AEB1, 0xA1129FF0, 0x8A3FCC33, 0x9324FD72
}, {
0x00000000, 0x01C26A37, 0x0384D46E, 0x0246BE59,
0x0709A8DC, 0x06CBC2EB, 0x048D7CB2, 0x054F1685,
0x0E1351B8, 0x0FD13B8F, 0x0D9785D6, 0x0C55EFE1,
0x091AF964, 0x08D89353, 0x0A9E2D0A, 0x0B5C473D,
0x1C26A370, 0x1DE4C947, 0x1FA2771E, 0x1E601D29,
0x1B2F0BAC, 0x1AED619B, 0x18ABDFC2, 0x1969B5F5,
0x1235F2C8, 0x13F798FF, 0x11B126A6, 0x10734C91,
0x153C5A14, 0x14FE3023, 0x16B88E7A, 0x177AE44D,
0x384D46E0, 0x398F2CD7, 0x3BC9928E, 0x3A0BF8B9,
0x3F44EE3C, 0x3E86840B, 0x3CC03A52, 0x3D025065,
0x365E1758, 0x379C7D6F, 0x35DAC336, 0x3418A901,
0x3157BF84, 0x3095D5B3, 0x32D36BEA, 0x331101DD,
0x246BE590, 0x25A98FA7, 0x27EF31FE, 0x262D5BC9,
0x23624D4C, 0x22A0277B, 0x20E69922, 0x2124F315,
0x2A78B428, 0x2BBADE1F, 0x29FC6046, 0x283E0A71,
0x2D711CF4, 0x2CB376C3, 0x2EF5C89A, 0x2F37A2AD,
0x709A8DC0, 0x7158E7F7, 0x731E59AE, 0x72DC3399,
0x7793251C, 0x76514F2B, 0x7417F172, 0x75D59B45,
0x7E89DC78, 0x7F4BB64F, 0x7D0D0816, 0x7CCF6221,
0x798074A4, 0x78421E93, 0x7A04A0CA, 0x7BC6CAFD,
0x6CBC2EB0, 0x6D7E4487, 0x6F38FADE, 0x6EFA90E9,
0x6BB5866C, 0x6A77EC5B, 0x68315202, 0x69F33835,
0x62AF7F08, 0x636D153F, 0x612BAB66, 0x60E9C151,
0x65A6D7D4, 0x6464BDE3, 0x662203BA, 0x67E0698D,
0x48D7CB20, 0x4915A117, 0x4B531F4E, 0x4A917579,
0x4FDE63FC, 0x4E1C09CB, 0x4C5AB792, 0x4D98DDA5,
0x46C49A98, 0x4706F0AF, 0x45404EF6, 0x448224C1,
0x41CD3244, 0x400F5873, 0x4249E62A, 0x438B8C1D,
0x54F16850, 0x55330267, 0x5775BC3E, 0x56B7D609,
0x53F8C08C, 0x523AAABB, 0x507C14E2, 0x51BE7ED5,
0x5AE239E8, 0x5B2053DF, 0x5966ED86, 0x58A487B1,
0x5DEB9134, 0x5C29FB03, 0x5E6F455A, 0x5FAD2F6D,
0xE1351B80, 0xE0F771B7, 0xE2B1CFEE, 0xE373A5D9,
0xE63CB35C, 0xE7FED96B, 0xE5B86732, 0xE47A0D05,
0xEF264A38, 0xEEE4200F, 0xECA29E56, 0xED60F461,
0xE82FE2E4, 0xE9ED88D3, 0xEBAB368A, 0xEA695CBD,
0xFD13B8F0, 0xFCD1D2C7, 0xFE976C9E, 0xFF5506A9,
0xFA1A102C, 0xFBD87A1B, 0xF99EC442, 0xF85CAE75,
0xF300E948, 0xF2C2837F, 0xF0843D26, 0xF1465711,
0xF4094194, 0xF5CB2BA3, 0xF78D95FA, 0xF64FFFCD,
0xD9785D60, 0xD8BA3757, 0xDAFC890E, 0xDB3EE339,
0xDE71F5BC, 0xDFB39F8B, 0xDDF521D2, 0xDC374BE5,
0xD76B0CD8, 0xD6A966EF, 0xD4EFD8B6, 0xD52DB281,
0xD062A404, 0xD1A0CE33, 0xD3E6706A, 0xD2241A5D,
0xC55EFE10, 0xC49C9427, 0xC6DA2A7E, 0xC7184049,
0xC25756CC, 0xC3953CFB, 0xC1D382A2, 0xC011E895,
0xCB4DAFA8, 0xCA8FC59F, 0xC8C97BC6, 0xC90B11F1,
0xCC440774, 0xCD866D43, 0xCFC0D31A, 0xCE02B92D,
0x91AF9640, 0x906DFC77, 0x922B422E, 0x93E92819,
0x96A63E9C, 0x976454AB, 0x9522EAF2, 0x94E080C5,
0x9FBCC7F8, 0x9E7EADCF, 0x9C381396, 0x9DFA79A1,
0x98B56F24, 0x99770513, 0x9B31BB4A, 0x9AF3D17D,
0x8D893530, 0x8C4B5F07, 0x8E0DE15E, 0x8FCF8B69,
0x8A809DEC, 0x8B42F7DB, 0x89044982, 0x88C623B5,
0x839A6488, 0x82580EBF, 0x801EB0E6, 0x81DCDAD1,
0x8493CC54, 0x8551A663, 0x8717183A, 0x86D5720D,
0xA9E2D0A0, 0xA820BA97, 0xAA6604CE, 0xABA46EF9,
0xAEEB787C, 0xAF29124B, 0xAD6FAC12, 0xACADC625,
0xA7F18118, 0xA633EB2F, 0xA4755576, 0xA5B73F41,
0xA0F829C4, 0xA13A43F3, 0xA37CFDAA, 0xA2BE979D,
0xB5C473D0, 0xB40619E7, 0xB640A7BE, 0xB782CD89,
0xB2CDDB0C, 0xB30FB13B, 0xB1490F62, 0xB08B6555,
0xBBD72268, 0xBA15485F, 0xB853F606, 0xB9919C31,
0xBCDE8AB4, 0xBD1CE083, 0xBF5A5EDA, 0xBE9834ED
}, {
0x00000000, 0xB8BC6765, 0xAA09C88B, 0x12B5AFEE,
0x8F629757, 0x37DEF032, 0x256B5FDC, 0x9DD738B9,
0xC5B428EF, 0x7D084F8A, 0x6FBDE064, 0xD7018701,
0x4AD6BFB8, 0xF26AD8DD, 0xE0DF7733, 0x58631056,
0x5019579F, 0xE8A530FA, 0xFA109F14, 0x42ACF871,
0xDF7BC0C8, 0x67C7A7AD, 0x75720843, 0xCDCE6F26,
0x95AD7F70, 0x2D111815, 0x3FA4B7FB, 0x8718D09E,
0x1ACFE827, 0xA2738F42, 0xB0C620AC, 0x087A47C9,
0xA032AF3E, 0x188EC85B, 0x0A3B67B5, 0xB28700D0,
0x2F503869, 0x97EC5F0C, 0x8559F0E2, 0x3DE59787,
0x658687D1, 0xDD3AE0B4, 0xCF8F4F5A, 0x7733283F,
0xEAE41086, 0x525877E3, 0x40EDD80D, 0xF851BF68,
0xF02BF8A1, 0x48979FC4, 0x5A22302A, 0xE29E574F,
0x7F496FF6, 0xC7F50893, 0xD540A77D, 0x6DFCC018,
0x359FD04E, 0x8D23B72B, 0x9F9618C5, 0x272A7FA0,
0xBAFD4719, 0x0241207C, 0x10F48F92, 0xA848E8F7,
0x9B14583D, 0x23A83F58, 0x311D90B6, 0x89A1F7D3,
0x1476CF6A, 0xACCAA80F, 0xBE7F07E1, 0x06C36084,
0x5EA070D2, 0xE61C17B7, 0xF4A9B859, 0x4C15DF3C,
0xD1C2E785, 0x697E80E0, 0x7BCB2F0E, 0xC377486B,
0xCB0D0FA2, 0x73B168C7, 0x6104C729, 0xD9B8A04C,
0x446F98F5, 0xFCD3FF90, 0xEE66507E, 0x56DA371B,
0x0EB9274D, 0xB6054028, 0xA4B0EFC6, 0x1C0C88A3,
0x81DBB01A, 0x3967D77F, 0x2BD27891, 0x936E1FF4,
0x3B26F703, 0x839A9066, 0x912F3F88, 0x299358ED,
0xB4446054, 0x0CF80731, 0x1E4DA8DF, 0xA6F1CFBA,
0xFE92DFEC, 0x462EB889, 0x549B1767, 0xEC277002,
0x71F048BB, 0xC94C2FDE, 0xDBF98030, 0x6345E755,
0x6B3FA09C, 0xD383C7F9, 0xC1366817, 0x798A0F72,
0xE45D37CB, 0x5CE150AE, 0x4E54FF40, 0xF6E89825,
0xAE8B8873, 0x1637EF16, 0x048240F8, 0xBC3E279D,
0x21E91F24, 0x99557841, 0x8BE0D7AF, 0x335CB0CA,
0xED59B63B, 0x55E5D15E, 0x47507EB0, 0xFFEC19D5,
0x623B216C, 0xDA874609, 0xC832E9E7, 0x708E8E82,
0x28ED9ED4, 0x9051F9B1, 0x82E4565F, 0x3A58313A,
0xA78F0983, 0x1F336EE6, 0x0D86C108, 0xB53AA66D,
0xBD40E1A4, 0x05FC86C1, 0x1749292F, 0xAFF54E4A,
0x322276F3, 0x8A9E1196, 0x982BBE78, 0x2097D91D,
0x78F4C94B, 0xC048AE2E, 0xD2FD01C0, 0x6A4166A5,
0xF7965E1C, 0x4F2A3979, 0x5D9F9697, 0xE523F1F2,
0x4D6B1905, 0xF5D77E60, 0xE762D18E, 0x5FDEB6EB,
0xC2098E52, 0x7AB5E937, 0x680046D9, 0xD0BC21BC,
0x88DF31EA, 0x3063568F, 0x22D6F961, 0x9A6A9E04,
0x07BDA6BD, 0xBF01C1D8, 0xADB46E36, 0x15080953,
0x1D724E9A, 0xA5CE29FF, 0xB77B8611, 0x0FC7E174,
0x9210D9CD, 0x2AACBEA8, 0x38191146, 0x80A57623,
0xD8C66675, 0x607A0110, 0x72CFAEFE, 0xCA73C99B,
0x57A4F122, 0xEF189647, 0xFDAD39A9, 0x45115ECC,
0x764DEE06, 0xCEF18963, 0xDC44268D, 0x64F841E8,
0xF92F7951, 0x41931E34, 0x5326B1DA, 0xEB9AD6BF,
0xB3F9C6E9, 0x0B45A18C, 0x19F00E62, 0xA14C6907,
0x3C9B51BE, 0x842736DB, 0x96929935, 0x2E2EFE50,
0x2654B999, 0x9EE8DEFC, 0x8C5D7112, 0x34E11677,
0xA9362ECE, 0x118A49AB, 0x033FE645, 0xBB838120,
0xE3E09176, 0x5B5CF613, 0x49E959FD, 0xF1553E98,
0x6C820621, 0xD43E6144, 0xC68BCEAA, 0x7E37A9CF,
0xD67F4138, 0x6EC3265D, 0x7C7689B3, 0xC4CAEED6,
0x591DD66F, 0xE1A1B10A, 0xF3141EE4, 0x4BA87981,
0x13CB69D7, 0xAB770EB2, 0xB9C2A15C, 0x017EC639,
0x9CA9FE80, 0x241599E5, 0x36A0360B, 0x8E1C516E,
0x866616A7, 0x3EDA71C2, 0x2C6FDE2C, 0x94D3B949,
0x090481F0, 0xB1B8E695, 0xA30D497B, 0x1BB12E1E,
0x43D23E48, 0xFB6E592D, 0xE9DBF6C3, 0x516791A6,
0xCCB0A91F, 0x740CCE7A, 0x66B96194, 0xDE0506F1
}, {
0x00000000, 0x3D6029B0, 0x7AC05360, 0x47A07AD0,
0xF580A6C0, 0xC8E08F70, 0x8F40F5A0, 0xB220DC10,
0x30704BC1, 0x0D106271, 0x4AB018A1, 0x77D03111,
0xC5F0ED01, 0xF890C4B1, 0xBF30BE61, 0x825097D1,
0x60E09782, 0x5D80BE32, 0x1A20C4E2, 0x2740ED52,
0x95603142, 0xA80018F2, 0xEFA06222, 0xD2C04B92,
0x5090DC43, 0x6DF0F5F3, 0x2A508F23, 0x1730A693,
0xA5107A83, 0x98705333, 0xDFD029E3, 0xE2B00053,
0xC1C12F04, 0xFCA106B4, 0xBB017C64, 0x866155D4,
0x344189C4, 0x0921A074, 0x4E81DAA4, 0x73E1F314,
0xF1B164C5, 0xCCD14D75, 0x8B7137A5, 0xB6111E15,
0x0431C205, 0x3951EBB5, 0x7EF19165, 0x4391B8D5,
0xA121B886, 0x9C419136, 0xDBE1EBE6, 0xE681C256,
0x54A11E46, 0x69C137F6, 0x2E614D26, 0x13016496,
0x9151F347, 0xAC31DAF7, 0xEB91A027, 0xD6F18997,
0x64D15587, 0x59B17C37, 0x1E1106E7, 0x23712F57,
0x58F35849, 0x659371F9, 0x22330B29, 0x1F532299,
0xAD73FE89, 0x9013D739, 0xD7B3ADE9, 0xEAD38459,
0x68831388, 0x55E33A38, 0x124340E8, 0x2F236958,
0x9D03B548, 0xA0639CF8, 0xE7C3E628, 0xDAA3CF98,
0x3813CFCB, 0x0573E67B, 0x42D39CAB, 0x7FB3B51B,
0xCD93690B, 0xF0F340BB, 0xB7533A6B, 0x8A3313DB,
0x0863840A, 0x3503ADBA, 0x72A3D76A, 0x4FC3FEDA,
0xFDE322CA, 0xC0830B7A, 0x872371AA, 0xBA43581A,
0x9932774D, 0xA4525EFD, 0xE3F2242D, 0xDE920D9D,
0x6CB2D18D, 0x51D2F83D, 0x167282ED, 0x2B12AB5D,
0xA9423C8C, 0x9422153C, 0xD3826FEC, 0xEEE2465C,
0x5CC29A4C, 0x61A2B3FC, 0x2602C92C, 0x1B62E09C,
0xF9D2E0CF, 0xC4B2C97F, 0x8312B3AF, 0xBE729A1F,
0x0C52460F, 0x31326FBF, 0x7692156F, 0x4BF23CDF,
0xC9A2AB0E, 0xF4C282BE, 0xB362F86E, 0x8E02D1DE,
0x3C220DCE, 0x0142247E, 0x46E25EAE, 0x7B82771E,
0xB1E6B092, 0x8C869922, 0xCB26E3F2, 0xF646CA42,
0x44661652, 0x79063FE2, 0x3EA64532, 0x03C66C82,
0x8196FB53, 0xBCF6D2E3, 0xFB56A833, 0xC6368183,
0x74165D93, 0x49767423, 0x0ED60EF3, 0x33B62743,
0xD1062710, 0xEC660EA0, 0xABC67470, 0x96A65DC0,
0x248681D0, 0x19E6A860, 0x5E46D2B0, 0x6326FB00,
0xE1766CD1, 0xDC164561, 0x9BB63FB1, 0xA6D61601,
0x14F6CA11, 0x2996E3A1, 0x6E369971, 0x5356B0C1,
0x70279F96, 0x4D47B626, 0x0AE7CCF6, 0x3787E546,
0x85A73956, 0xB8C710E6, 0xFF676A36, 0xC2074386,
0x4057D457, 0x7D37FDE7, 0x3A978737, 0x07F7AE87,
0xB5D77297, 0x88B75B27, 0xCF1721F7, 0xF2770847,
0x10C70814, 0x2DA721A4, 0x6A075B74, 0x576772C4,
0xE547AED4, 0xD8278764, 0x9F87FDB4, 0xA2E7D404,
0x20B743D5, 0x1DD76A65, 0x5A7710B5, 0x67173905,
0xD537E515, 0xE857CCA5, 0xAFF7B675, 0x92979FC5,
0xE915E8DB, 0xD475C16B, 0x93D5BBBB, 0xAEB5920B,
0x1C954E1B, 0x21F567AB, 0x66551D7B, 0x5B3534CB,
0xD965A31A, 0xE4058AAA, 0xA3A5F07A, 0x9EC5D9CA,
0x2CE505DA, 0x11852C6A, 0x562556BA, 0x6B457F0A,
0x89F57F59, 0xB49556E9, 0xF3352C39, 0xCE550589,
0x7C75D999, 0x4115F029, 0x06B58AF9, 0x3BD5A349,
0xB9853498, 0x84E51D28, 0xC34567F8, 0xFE254E48,
0x4C059258, 0x7165BBE8, 0x36C5C138, 0x0BA5E888,
0x28D4C7DF, 0x15B4EE6F, 0x521494BF, 0x6F74BD0F,
0xDD54611F, 0xE03448AF, 0xA794327F, 0x9AF41BCF,
0x18A48C1E, 0x25C4A5AE, 0x6264DF7E, 0x5F04F6CE,
0xED242ADE, 0xD044036E, 0x97E479BE, 0xAA84500E,
0x4834505D, 0x755479ED, 0x32F4033D, 0x0F942A8D,
0xBDB4F69D, 0x80D4DF2D, 0xC774A5FD, 0xFA148C4D,
0x78441B9C, 0x4524322C, 0x028448FC, 0x3FE4614C,
0x8DC4BD5C, 0xB0A494EC, 0xF704EE3C, 0xCA64C78C
}, {
0x00000000, 0xCB5CD3A5, 0x4DC8A10B, 0x869472AE,
0x9B914216, 0x50CD91B3, 0xD659E31D, 0x1D0530B8,
0xEC53826D, 0x270F51C8, 0xA19B2366, 0x6AC7F0C3,
0x77C2C07B, 0xBC9E13DE, 0x3A0A6170, 0xF156B2D5,
0x03D6029B, 0xC88AD13E, 0x4E1EA390, 0x85427035,
0x9847408D, 0x531B9328, 0xD58FE186, 0x1ED33223,
0xEF8580F6, 0x24D95353, 0xA24D21FD, 0x6911F258,
0x7414C2E0, 0xBF481145, 0x39DC63EB, 0xF280B04E,
0x07AC0536, 0xCCF0D693, 0x4A64A43D, 0x81387798,
0x9C3D4720, 0x57619485, 0xD1F5E62B, 0x1AA9358E,
0xEBFF875B, 0x20A354FE, 0xA6372650, 0x6D6BF5F5,
0x706EC54D, 0xBB3216E8, 0x3DA66446, 0xF6FAB7E3,
0x047A07AD, 0xCF26D408, 0x49B2A6A6, 0x82EE7503,
0x9FEB45BB, 0x54B7961E, 0xD223E4B0, 0x197F3715,
0xE82985C0, 0x23755665, 0xA5E124CB, 0x6EBDF76E,
0x73B8C7D6, 0xB8E41473, 0x3E7066DD, 0xF52CB578,
0x0F580A6C, 0xC404D9C9, 0x4290AB67, 0x89CC78C2,
0x94C9487A, 0x5F959BDF, 0xD901E971, 0x125D3AD4,
0xE30B8801, 0x28575BA4, 0xAEC3290A, 0x659FFAAF,
0x789ACA17, 0xB3C619B2, 0x35526B1C, 0xFE0EB8B9,
0x0C8E08F7, 0xC7D2DB52, 0x4146A9FC, 0x8A1A7A59,
0x971F4AE1, 0x5C439944, 0xDAD7EBEA, 0x118B384F,
0xE0DD8A9A, 0x2B81593F, 0xAD152B91, 0x6649F834,
0x7B4CC88C, 0xB0101B29, 0x36846987, 0xFDD8BA22,
0x08F40F5A, 0xC3A8DCFF, 0x453CAE51, 0x8E607DF4,
0x93654D4C, 0x58399EE9, 0xDEADEC47, 0x15F13FE2,
0xE4A78D37, 0x2FFB5E92, 0xA96F2C3C, 0x6233FF99,
0x7F36CF21, 0xB46A1C84, 0x32FE6E2A, 0xF9A2BD8F,
0x0B220DC1, 0xC07EDE64, 0x46EAACCA, 0x8DB67F6F,
0x90B34FD7, 0x5BEF9C72, 0xDD7BEEDC, 0x16273D79,
0xE7718FAC, 0x2C2D5C09, 0xAAB92EA7, 0x61E5FD02,
0x7CE0CDBA, 0xB7BC1E1F, 0x31286CB1, 0xFA74BF14,
0x1EB014D8, 0xD5ECC77D, 0x5378B5D3, 0x98246676,
0x852156CE, 0x4E7D856B, 0xC8E9F7C5, 0x03B52460,
0xF2E396B5, 0x39BF4510, 0xBF2B37BE, 0x7477E41B,
0x6972D4A3, 0xA22E0706, 0x24BA75A8, 0xEFE6A60D,
0x1D661643, 0xD63AC5E6, 0x50AEB748, 0x9BF264ED,
0x86F75455, 0x4DAB87F0, 0xCB3FF55E, 0x006326FB,
0xF135942E, 0x3A69478B, 0xBCFD3525, 0x77A1E680,
0x6AA4D638, 0xA1F8059D, 0x276C7733, 0xEC30A496,
0x191C11EE, 0xD240C24B, 0x54D4B0E5, 0x9F886340,
0x828D53F8, 0x49D1805D, 0xCF45F2F3, 0x04192156,
0xF54F9383, 0x3E134026, 0xB8873288, 0x73DBE12D,
0x6EDED195, 0xA5820230, 0x2316709E, 0xE84AA33B,
0x1ACA1375, 0xD196C0D0, 0x5702B27E, 0x9C5E61DB,
0x815B5163, 0x4A0782C6, 0xCC93F068, 0x07CF23CD,
0xF6999118, 0x3DC542BD, 0xBB513013, 0x700DE3B6,
0x6D08D30E, 0xA65400AB, 0x20C07205, 0xEB9CA1A0,
0x11E81EB4, 0xDAB4CD11, 0x5C20BFBF, 0x977C6C1A,
0x8A795CA2, 0x41258F07, 0xC7B1FDA9, 0x0CED2E0C,
0xFDBB9CD9, 0x36E74F7C, 0xB0733DD2, 0x7B2FEE77,
0x662ADECF, 0xAD760D6A, 0x2BE27FC4, 0xE0BEAC61,
0x123E1C2F, 0xD962CF8A, 0x5FF6BD24, 0x94AA6E81,
0x89AF5E39, 0x42F38D9C, 0xC467FF32, 0x0F3B2C97,
0xFE6D9E42, 0x35314DE7, 0xB3A53F49, 0x78F9ECEC,
0x65FCDC54, 0xAEA00FF1, 0x28347D5F, 0xE368AEFA,
0x16441B82, 0xDD18C827, 0x5B8CBA89, 0x90D0692C,
0x8DD55994, 0x46898A31, 0xC01DF89F, 0x0B412B3A,
0xFA1799EF, 0x314B4A4A, 0xB7DF38E4, 0x7C83EB41,
0x6186DBF9, 0xAADA085C, 0x2C4E7AF2, 0xE712A957,
0x15921919, 0xDECECABC, 0x585AB812, 0x93066BB7,
0x8E035B0F, 0x455F88AA, 0xC3CBFA04, 0x089729A1,
0xF9C19B74, 0x329D48D1, 0xB4093A7F, 0x7F55E9DA,
0x6250D962, 0xA90C0AC7, 0x2F987869, 0xE4C4ABCC
}, {
0x00000000, 0xA6770BB4, 0x979F1129, 0x31E81A9D,
0xF44F2413, 0x52382FA7, 0x63D0353A, 0xC5A73E8E,
0x33EF4E67, 0x959845D3, 0xA4705F4E, 0x020754FA,
0xC7A06A74, 0x61D761C0, 0x503F7B5D, 0xF64870E9,
0x67DE9CCE, 0xC1A9977A, 0xF0418DE7, 0x56368653,
0x9391B8DD, 0x35E6B369, 0x040EA9F4, 0xA279A240,
0x5431D2A9, 0xF246D91D, 0xC3AEC380, 0x65D9C834,
0xA07EF6BA, 0x0609FD0E, 0x37E1E793, 0x9196EC27,
0xCFBD399C, 0x69CA3228, 0x582228B5, 0xFE552301,
0x3BF21D8F, 0x9D85163B, 0xAC6D0CA6, 0x0A1A0712,
0xFC5277FB, 0x5A257C4F, 0x6BCD66D2, 0xCDBA6D66,
0x081D53E8, 0xAE6A585C, 0x9F8242C1, 0x39F54975,
0xA863A552, 0x0E14AEE6, 0x3FFCB47B, 0x998BBFCF,
0x5C2C8141, 0xFA5B8AF5, 0xCBB39068, 0x6DC49BDC,
0x9B8CEB35, 0x3DFBE081, 0x0C13FA1C, 0xAA64F1A8,
0x6FC3CF26, 0xC9B4C492, 0xF85CDE0F, 0x5E2BD5BB,
0x440B7579, 0xE27C7ECD, 0xD3946450, 0x75E36FE4,
0xB044516A, 0x16335ADE, 0x27DB4043, 0x81AC4BF7,
0x77E43B1E, 0xD19330AA, 0xE07B2A37, 0x460C2183,
0x83AB1F0D, 0x25DC14B9, 0x14340E24, 0xB2430590,
0x23D5E9B7, 0x85A2E203, 0xB44AF89E, 0x123DF32A,
0xD79ACDA4, 0x71EDC610, 0x4005DC8D, 0xE672D739,
0x103AA7D0, 0xB64DAC64, 0x87A5B6F9, 0x21D2BD4D,
0xE47583C3, 0x42028877, 0x73EA92EA, 0xD59D995E,
0x8BB64CE5, 0x2DC14751, 0x1C295DCC, 0xBA5E5678,
0x7FF968F6, 0xD98E6342, 0xE86679DF, 0x4E11726B,
0xB8590282, 0x1E2E0936, 0x2FC613AB, 0x89B1181F,
0x4C162691, 0xEA612D25, 0xDB8937B8, 0x7DFE3C0C,
0xEC68D02B, 0x4A1FDB9F, 0x7BF7C102, 0xDD80CAB6,
0x1827F438, 0xBE50FF8C, 0x8FB8E511, 0x29CFEEA5,
0xDF879E4C, 0x79F095F8, 0x48188F65, 0xEE6F84D1,
0x2BC8BA5F, 0x8DBFB1EB, 0xBC57AB76, 0x1A20A0C2,
0x8816EAF2, 0x2E61E146, 0x1F89FBDB, 0xB9FEF06F,
0x7C59CEE1, 0xDA2EC555, 0xEBC6DFC8, 0x4DB1D47C,
0xBBF9A495, 0x1D8EAF21, 0x2C66B5BC, 0x8A11BE08,
0x4FB68086, 0xE9C18B32, 0xD82991AF, 0x7E5E9A1B,
0xEFC8763C, 0x49BF7D88, 0x78576715, 0xDE206CA1,
0x1B87522F, 0xBDF0599B, 0x8C184306, 0x2A6F48B2,
0xDC27385B, 0x7A5033EF, 0x4BB82972, 0xEDCF22C6,
0x28681C48, 0x8E1F17FC, 0xBFF70D61, 0x198006D5,
0x47ABD36E, 0xE1DCD8DA, 0xD034C247, 0x7643C9F3,
0xB3E4F77D, 0x1593FCC9, 0x247BE654, 0x820CEDE0,
0x74449D09, 0xD23396BD, 0xE3DB8C20, 0x45AC8794,
0x800BB91A, 0x267CB2AE, 0x1794A833, 0xB1E3A387,
0x20754FA0, 0x86024414, 0xB7EA5E89, 0x119D553D,
0xD43A6BB3, 0x724D6007, 0x43A57A9A, 0xE5D2712E,
0x139A01C7, 0xB5ED0A73, 0x840510EE, 0x22721B5A,
0xE7D525D4, 0x41A22E60, 0x704A34FD, 0xD63D3F49,
0xCC1D9F8B, 0x6A6A943F, 0x5B828EA2, 0xFDF58516,
0x3852BB98, 0x9E25B02C, 0xAFCDAAB1, 0x09BAA105,
0xFFF2D1EC, 0x5985DA58, 0x686DC0C5, 0xCE1ACB71,
0x0BBDF5FF, 0xADCAFE4B, 0x9C22E4D6, 0x3A55EF62,
0xABC30345, 0x0DB408F1, 0x3C5C126C, 0x9A2B19D8,
0x5F8C2756, 0xF9FB2CE2, 0xC813367F, 0x6E643DCB,
0x982C4D22, 0x3E5B4696, 0x0FB35C0B, 0xA9C457BF,
0x6C636931, 0xCA146285, 0xFBFC7818, 0x5D8B73AC,
0x03A0A617, 0xA5D7ADA3, 0x943FB73E, 0x3248BC8A,
0xF7EF8204, 0x519889B0, 0x6070932D, 0xC6079899,
0x304FE870, 0x9638E3C4, 0xA7D0F959, 0x01A7F2ED,
0xC400CC63, 0x6277C7D7, 0x539FDD4A, 0xF5E8D6FE,
0x647E3AD9, 0xC209316D, 0xF3E12BF0, 0x55962044,
0x90311ECA, 0x3646157E, 0x07AE0FE3, 0xA1D90457,
0x579174BE, 0xF1E67F0A, 0xC00E6597, 0x66796E23,
0xA3DE50AD, 0x05A95B19, 0x34414184, 0x92364A30
}, {
0x00000000, 0xCCAA009E, 0x4225077D, 0x8E8F07E3,
0x844A0EFA, 0x48E00E64, 0xC66F0987, 0x0AC50919,
0xD3E51BB5, 0x1F4F1B2B, 0x91C01CC8, 0x5D6A1C56,
0x57AF154F, 0x9B0515D1, 0x158A1232, 0xD92012AC,
0x7CBB312B, 0xB01131B5, 0x3E9E3656, 0xF23436C8,
0xF8F13FD1, 0x345B3F4F, 0xBAD438AC, 0x767E3832,
0xAF5E2A9E, 0x63F42A00, 0xED7B2DE3, 0x21D12D7D,
0x2B142464, 0xE7BE24FA, 0x69312319, 0xA59B2387,
0xF9766256, 0x35DC62C8, 0xBB53652B, 0x77F965B5,
0x7D3C6CAC, 0xB1966C32, 0x3F196BD1, 0xF3B36B4F,
0x2A9379E3, 0xE639797D, 0x68B67E9E, 0xA41C7E00,
0xAED97719, 0x62737787, 0xECFC7064, 0x205670FA,
0x85CD537D, 0x496753E3, 0xC7E85400, 0x0B42549E,
0x01875D87, 0xCD2D5D19, 0x43A25AFA, 0x8F085A64,
0x562848C8, 0x9A824856, 0x140D4FB5, 0xD8A74F2B,
0xD2624632, 0x1EC846AC, 0x9047414F, 0x5CED41D1,
0x299DC2ED, 0xE537C273, 0x6BB8C590, 0xA712C50E,
0xADD7CC17, 0x617DCC89, 0xEFF2CB6A, 0x2358CBF4,
0xFA78D958, 0x36D2D9C6, 0xB85DDE25, 0x74F7DEBB,
0x7E32D7A2, 0xB298D73C, 0x3C17D0DF, 0xF0BDD041,
0x5526F3C6, 0x998CF358, 0x1703F4BB, 0xDBA9F425,
0xD16CFD3C, 0x1DC6FDA2, 0x9349FA41, 0x5FE3FADF,
0x86C3E873, 0x4A69E8ED, 0xC4E6EF0E, 0x084CEF90,
0x0289E689, 0xCE23E617, 0x40ACE1F4, 0x8C06E16A,
0xD0EBA0BB, 0x1C41A025, 0x92CEA7C6, 0x5E64A758,
0x54A1AE41, 0x980BAEDF, 0x1684A93C, 0xDA2EA9A2,
0x030EBB0E, 0xCFA4BB90, 0x412BBC73, 0x8D81BCED,
0x8744B5F4, 0x4BEEB56A, 0xC561B289, 0x09CBB217,
0xAC509190, 0x60FA910E, 0xEE7596ED, 0x22DF9673,
0x281A9F6A, 0xE4B09FF4, 0x6A3F9817, 0xA6959889,
0x7FB58A25, 0xB31F8ABB, 0x3D908D58, 0xF13A8DC6,
0xFBFF84DF, 0x37558441, 0xB9DA83A2, 0x7570833C,
0x533B85DA, 0x9F918544, 0x111E82A7, 0xDDB48239,
0xD7718B20, 0x1BDB8BBE, 0x95548C5D, 0x59FE8CC3,
0x80DE9E6F, 0x4C749EF1, 0xC2FB9912, 0x0E51998C,
0x04949095, 0xC83E900B, 0x46B197E8, 0x8A1B9776,
0x2F80B4F1, 0xE32AB46F, 0x6DA5B38C, 0xA10FB312,
0xABCABA0B, 0x6760BA95, 0xE9EFBD76, 0x2545BDE8,
0xFC65AF44, 0x30CFAFDA, 0xBE40A839, 0x72EAA8A7,
0x782FA1BE, 0xB485A120, 0x3A0AA6C3, 0xF6A0A65D,
0xAA4DE78C, 0x66E7E712, 0xE868E0F1, 0x24C2E06F,
0x2E07E976, 0xE2ADE9E8, 0x6C22EE0B, 0xA088EE95,
0x79A8FC39, 0xB502FCA7, 0x3B8DFB44, 0xF727FBDA,
0xFDE2F2C3, 0x3148F25D, 0xBFC7F5BE, 0x736DF520,
0xD6F6D6A7, 0x1A5CD639, 0x94D3D1DA, 0x5879D144,
0x52BCD85D, 0x9E16D8C3, 0x1099DF20, 0xDC33DFBE,
0x0513CD12, 0xC9B9CD8C, 0x4736CA6F, 0x8B9CCAF1,
0x8159C3E8, 0x4DF3C376, 0xC37CC495, 0x0FD6C40B,
0x7AA64737, 0xB60C47A9, 0x3883404A, 0xF42940D4,
0xFEEC49CD, 0x32464953, 0xBCC94EB0, 0x70634E2E,
0xA9435C82, 0x65E95C1C, 0xEB665BFF, 0x27CC5B61,
0x2D095278, 0xE1A352E6, 0x6F2C5505, 0xA386559B,
0x061D761C, 0xCAB77682, 0x44387161, 0x889271FF,
0x825778E6, 0x4EFD7878, 0xC0727F9B, 0x0CD87F05,
0xD5F86DA9, 0x19526D37, 0x97DD6AD4, 0x5B776A4A,
0x51B26353, 0x9D1863CD, 0x1397642E, 0xDF3D64B0,
0x83D02561, 0x4F7A25FF, 0xC1F5221C, 0x0D5F2282,
0x079A2B9B, 0xCB302B05, 0x45BF2CE6, 0x89152C78,
0x50353ED4, 0x9C9F3E4A, 0x121039A9, 0xDEBA3937,
0xD47F302E, 0x18D530B0, 0x965A3753, 0x5AF037CD,
0xFF6B144A, 0x33C114D4, 0xBD4E1337, 0x71E413A9,
0x7B211AB0, 0xB78B1A2E, 0x39041DCD, 0xF5AE1D53,
0x2C8E0FFF, 0xE0240F61, 0x6EAB0882, 0xA201081C,
0xA8C40105, 0x646E019B, 0xEAE10678, 0x264B06E6
}
};
game/client/third/minizip/lib/liblzma/check/crc_macros.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file crc_macros.h
/// \brief Some endian-dependent macros for CRC32 and CRC64
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifdef WORDS_BIGENDIAN
# define A(x) ((x) >> 24)
# define B(x) (((x) >> 16) & 0xFF)
# define C(x) (((x) >> 8) & 0xFF)
# define D(x) ((x) & 0xFF)
# define S8(x) ((x) << 8)
# define S32(x) ((x) << 32)
#else
# define A(x) ((x) & 0xFF)
# define B(x) (((x) >> 8) & 0xFF)
# define C(x) (((x) >> 16) & 0xFF)
# define D(x) ((x) >> 24)
# define S8(x) ((x) >> 8)
# define S32(x) ((x) >> 32)
#endif
game/client/third/minizip/lib/liblzma/common/alone_decoder.c
Executable
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///////////////////////////////////////////////////////////////////////////////
//
/// \file alone_decoder.c
/// \brief Decoder for LZMA_Alone files
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "alone_decoder.h"
#include "lzma_decoder.h"
#include "lz_decoder.h"
typedef struct {
lzma_next_coder next;
enum {
SEQ_PROPERTIES,
SEQ_DICTIONARY_SIZE,
SEQ_UNCOMPRESSED_SIZE,
SEQ_CODER_INIT,
SEQ_CODE,
} sequence;
/// If true, reject files that are unlikely to be .lzma files.
/// If false, more non-.lzma files get accepted and will give
/// LZMA_DATA_ERROR either immediately or after a few output bytes.
bool picky;
/// Position in the header fields
size_t pos;
/// Uncompressed size decoded from the header
lzma_vli uncompressed_size;
/// Memory usage limit
uint64_t memlimit;
/// Amount of memory actually needed (only an estimate)
uint64_t memusage;
/// Options decoded from the header needed to initialize
/// the LZMA decoder
lzma_options_lzma options;
} lzma_alone_coder;
static lzma_ret
alone_decode(void *coder_ptr,
const lzma_allocator *allocator lzma_attribute((__unused__)),
const uint8_t *restrict in, size_t *restrict in_pos,
size_t in_size, uint8_t *restrict out,
size_t *restrict out_pos, size_t out_size,
lzma_action action)
{
lzma_alone_coder *coder = coder_ptr;
while (*out_pos < out_size
&& (coder->sequence == SEQ_CODE || *in_pos < in_size))
switch (coder->sequence) {
case SEQ_PROPERTIES:
if (lzma_lzma_lclppb_decode(&coder->options, in[*in_pos]))
return LZMA_FORMAT_ERROR;
coder->sequence = SEQ_DICTIONARY_SIZE;
++*in_pos;
break;
case SEQ_DICTIONARY_SIZE:
coder->options.dict_size
|= (size_t)(in[*in_pos]) << (coder->pos * 8);
++*in_pos;
if (++coder->pos < 4)
break;
if (coder->picky && coder->options.dict_size
!= UINT32_MAX) {
// A hack to ditch tons of false positives:
// We allow only dictionary sizes that are
// 2^n or 2^n + 2^(n-1). LZMA_Alone created
// only files with 2^n, but accepts any
// dictionary size.
uint32_t d = coder->options.dict_size - 1;
d |= d >> 2;
d |= d >> 3;
d |= d >> 4;
d |= d >> 8;
d |= d >> 16;
++d;
if (d != coder->options.dict_size)
return LZMA_FORMAT_ERROR;
}
coder->uncompressed_size = LZMA_VLI_UNKNOWN;
// Calculate the memory usage so that it is ready
// for SEQ_CODER_INIT.
coder->memusage = lzma_lzma_decoder_memusage(&coder->options)
+ LZMA_MEMUSAGE_BASE;
coder->pos = 0;
coder->sequence = SEQ_CODER_INIT;
// Fall through
case SEQ_CODER_INIT: {
if (coder->memusage > coder->memlimit)
return LZMA_MEMLIMIT_ERROR;
lzma_filter_info filters[2] = {
{
.init = &lzma_lzma_decoder_init,
.options = &coder->options,
}, {
.init = NULL,
}
};
const lzma_ret ret = lzma_next_filter_init(&coder->next,
allocator, filters);
if (ret != LZMA_OK)
return ret;
// Use a hack to set the uncompressed size.
lzma_lz_decoder_uncompressed(coder->next.coder,
coder->uncompressed_size);
coder->sequence = SEQ_CODE;
break;
}
case SEQ_CODE: {
return coder->next.code(coder->next.coder,
allocator, in, in_pos, in_size,
out, out_pos, out_size, action);
}
default:
return LZMA_PROG_ERROR;
}
return LZMA_OK;
}
static void
alone_decoder_end(void *coder_ptr, const lzma_allocator *allocator)
{
lzma_alone_coder *coder = coder_ptr;
lzma_next_end(&coder->next, allocator);
lzma_free(coder, allocator);
return;
}
static lzma_ret
alone_decoder_memconfig(void *coder_ptr, uint64_t *memusage,
uint64_t *old_memlimit, uint64_t new_memlimit)
{
lzma_alone_coder *coder = coder_ptr;
*memusage = coder->memusage;
*old_memlimit = coder->memlimit;
if (new_memlimit != 0) {
if (new_memlimit < coder->memusage)
return LZMA_MEMLIMIT_ERROR;
coder->memlimit = new_memlimit;
}
return LZMA_OK;
}
extern lzma_ret
lzma_alone_decoder_init(lzma_next_coder *next, const lzma_allocator *allocator,
uint64_t memlimit, bool picky)
{
lzma_next_coder_init(&lzma_alone_decoder_init, next, allocator);
if (memlimit == 0)
return LZMA_PROG_ERROR;
lzma_alone_coder *coder = next->coder;
if (coder == NULL) {
coder = lzma_alloc(sizeof(lzma_alone_coder), allocator);
if (coder == NULL)
return LZMA_MEM_ERROR;
next->coder = coder;
next->code = &alone_decode;
next->end = &alone_decoder_end;
next->memconfig = &alone_decoder_memconfig;
coder->next = LZMA_NEXT_CODER_INIT;
}
coder->sequence = SEQ_PROPERTIES;
coder->picky = picky;
coder->pos = 0;
coder->options.dict_size = 0;
coder->options.preset_dict = NULL;
coder->options.preset_dict_size = 0;
coder->uncompressed_size = 0;
coder->memlimit = memlimit;
coder->memusage = LZMA_MEMUSAGE_BASE;
return LZMA_OK;
}
extern LZMA_API(lzma_ret)
lzma_alone_decoder(lzma_stream *strm, uint64_t memlimit)
{
lzma_next_strm_init(lzma_alone_decoder_init, strm, memlimit, false);
strm->internal->supported_actions[LZMA_RUN] = true;
strm->internal->supported_actions[LZMA_FINISH] = true;
return LZMA_OK;
}
game/client/third/minizip/lib/liblzma/common/alone_decoder.h
Executable
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///////////////////////////////////////////////////////////////////////////////
//
/// \file alone_decoder.h
/// \brief Decoder for LZMA_Alone files
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_ALONE_DECODER_H
#define LZMA_ALONE_DECODER_H
#include "common.h"
extern lzma_ret lzma_alone_decoder_init(
lzma_next_coder *next, const lzma_allocator *allocator,
uint64_t memlimit, bool picky);
#endif
game/client/third/minizip/lib/liblzma/common/alone_encoder.c
Executable
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///////////////////////////////////////////////////////////////////////////////
//
/// \file alone_decoder.c
/// \brief Decoder for LZMA_Alone files
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "common.h"
#include "lzma_encoder.h"
#define ALONE_HEADER_SIZE (1 + 4)
typedef struct {
lzma_next_coder next;
enum {
SEQ_HEADER,
SEQ_CODE,
} sequence;
size_t header_pos;
uint8_t header[ALONE_HEADER_SIZE];
} lzma_alone_coder;
static lzma_ret
alone_encode(void *coder_ptr,
const lzma_allocator *allocator lzma_attribute((__unused__)),
const uint8_t *restrict in, size_t *restrict in_pos,
size_t in_size, uint8_t *restrict out,
size_t *restrict out_pos, size_t out_size,
lzma_action action)
{
lzma_alone_coder *coder = coder_ptr;
while (*out_pos < out_size)
switch (coder->sequence) {
case SEQ_HEADER:
lzma_bufcpy(coder->header, &coder->header_pos,
ALONE_HEADER_SIZE,
out, out_pos, out_size);
if (coder->header_pos < ALONE_HEADER_SIZE)
return LZMA_OK;
coder->sequence = SEQ_CODE;
break;
case SEQ_CODE:
return coder->next.code(coder->next.coder,
allocator, in, in_pos, in_size,
out, out_pos, out_size, action);
default:
assert(0);
return LZMA_PROG_ERROR;
}
return LZMA_OK;
}
static void
alone_encoder_end(void *coder_ptr, const lzma_allocator *allocator)
{
lzma_alone_coder *coder = coder_ptr;
lzma_next_end(&coder->next, allocator);
lzma_free(coder, allocator);
return;
}
// At least for now, this is not used by any internal function.
static lzma_ret
alone_encoder_init(lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_options_lzma *options)
{
lzma_next_coder_init(&alone_encoder_init, next, allocator);
lzma_alone_coder *coder = next->coder;
if (coder == NULL) {
coder = lzma_alloc(sizeof(lzma_alone_coder), allocator);
if (coder == NULL)
return LZMA_MEM_ERROR;
next->coder = coder;
next->code = &alone_encode;
next->end = &alone_encoder_end;
coder->next = LZMA_NEXT_CODER_INIT;
}
// Basic initializations
coder->sequence = SEQ_HEADER;
coder->header_pos = 0;
// Encode the header:
// - Properties (1 byte)
if (lzma_lzma_lclppb_encode(options, coder->header))
return LZMA_OPTIONS_ERROR;
// - Dictionary size (4 bytes)
if (options->dict_size < LZMA_DICT_SIZE_MIN)
return LZMA_OPTIONS_ERROR;
// Round up to the next 2^n or 2^n + 2^(n - 1) depending on which
// one is the next unless it is UINT32_MAX. While the header would
// allow any 32-bit integer, we do this to keep the decoder of liblzma
// accepting the resulting files.
uint32_t d = options->dict_size - 1;
d |= d >> 2;
d |= d >> 3;
d |= d >> 4;
d |= d >> 8;
d |= d >> 16;
if (d != UINT32_MAX)
++d;
unaligned_write32le(coder->header + 1, d);
// Initialize the LZMA encoder.
const lzma_filter_info filters[2] = {
{
.init = &lzma_lzma_encoder_init,
.options = (void *)(options),
}, {
.init = NULL,
}
};
return lzma_next_filter_init(&coder->next, allocator, filters);
}
/*
extern lzma_ret
lzma_alone_encoder_init(lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_options_alone *options)
{
lzma_next_coder_init(&alone_encoder_init, next, allocator, options);
}
*/
extern LZMA_API(lzma_ret)
lzma_alone_encoder(lzma_stream *strm, const lzma_options_lzma *options)
{
lzma_next_strm_init(alone_encoder_init, strm, options);
strm->internal->supported_actions[LZMA_RUN] = true;
strm->internal->supported_actions[LZMA_FINISH] = true;
return LZMA_OK;
}
game/client/third/minizip/lib/liblzma/common/common.c
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///////////////////////////////////////////////////////////////////////////////
//
/// \file common.h
/// \brief Common functions needed in many places in liblzma
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "common.h"
/////////////
// Version //
/////////////
extern LZMA_API(uint32_t)
lzma_version_number(void)
{
return LZMA_VERSION;
}
extern LZMA_API(const char *)
lzma_version_string(void)
{
return LZMA_VERSION_STRING;
}
///////////////////////
// Memory allocation //
///////////////////////
extern void * lzma_attribute((__malloc__)) lzma_attr_alloc_size(1)
lzma_alloc(size_t size, const lzma_allocator *allocator)
{
// Some malloc() variants return NULL if called with size == 0.
if (size == 0)
size = 1;
void *ptr;
if (allocator != NULL && allocator->alloc != NULL)
ptr = allocator->alloc(allocator->opaque, 1, size);
else
ptr = malloc(size);
return ptr;
}
extern void * lzma_attribute((__malloc__)) lzma_attr_alloc_size(1)
lzma_alloc_zero(size_t size, const lzma_allocator *allocator)
{
// Some calloc() variants return NULL if called with size == 0.
if (size == 0)
size = 1;
void *ptr;
if (allocator != NULL && allocator->alloc != NULL) {
ptr = allocator->alloc(allocator->opaque, 1, size);
if (ptr != NULL)
memzero(ptr, size);
} else {
ptr = calloc(1, size);
}
return ptr;
}
extern void
lzma_free(void *ptr, const lzma_allocator *allocator)
{
if (allocator != NULL && allocator->free != NULL)
allocator->free(allocator->opaque, ptr);
else
free(ptr);
return;
}
//////////
// Misc //
//////////
extern size_t
lzma_bufcpy(const uint8_t *restrict in, size_t *restrict in_pos,
size_t in_size, uint8_t *restrict out,
size_t *restrict out_pos, size_t out_size)
{
const size_t in_avail = in_size - *in_pos;
const size_t out_avail = out_size - *out_pos;
const size_t copy_size = my_min(in_avail, out_avail);
memcpy(out + *out_pos, in + *in_pos, copy_size);
*in_pos += copy_size;
*out_pos += copy_size;
return copy_size;
}
extern lzma_ret
lzma_next_filter_init(lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter_info *filters)
{
lzma_next_coder_init(filters[0].init, next, allocator);
next->id = filters[0].id;
return filters[0].init == NULL
? LZMA_OK : filters[0].init(next, allocator, filters);
}
extern lzma_ret
lzma_next_filter_update(lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter *reversed_filters)
{
// Check that the application isn't trying to change the Filter ID.
// End of filters is indicated with LZMA_VLI_UNKNOWN in both
// reversed_filters[0].id and next->id.
if (reversed_filters[0].id != next->id)
return LZMA_PROG_ERROR;
if (reversed_filters[0].id == LZMA_VLI_UNKNOWN)
return LZMA_OK;
assert(next->update != NULL);
return next->update(next->coder, allocator, NULL, reversed_filters);
}
extern void
lzma_next_end(lzma_next_coder *next, const lzma_allocator *allocator)
{
if (next->init != (uintptr_t)(NULL)) {
// To avoid tiny end functions that simply call
// lzma_free(coder, allocator), we allow leaving next->end
// NULL and call lzma_free() here.
if (next->end != NULL)
next->end(next->coder, allocator);
else
lzma_free(next->coder, allocator);
// Reset the variables so the we don't accidentally think
// that it is an already initialized coder.
*next = LZMA_NEXT_CODER_INIT;
}
return;
}
//////////////////////////////////////
// External to internal API wrapper //
//////////////////////////////////////
extern lzma_ret
lzma_strm_init(lzma_stream *strm)
{
if (strm == NULL)
return LZMA_PROG_ERROR;
if (strm->internal == NULL) {
strm->internal = lzma_alloc(sizeof(lzma_internal),
strm->allocator);
if (strm->internal == NULL)
return LZMA_MEM_ERROR;
strm->internal->next = LZMA_NEXT_CODER_INIT;
}
memzero(strm->internal->supported_actions,
sizeof(strm->internal->supported_actions));
strm->internal->sequence = ISEQ_RUN;
strm->internal->allow_buf_error = false;
strm->total_in = 0;
strm->total_out = 0;
return LZMA_OK;
}
extern LZMA_API(lzma_ret)
lzma_code(lzma_stream *strm, lzma_action action)
{
// Sanity checks
if ((strm->next_in == NULL && strm->avail_in != 0)
|| (strm->next_out == NULL && strm->avail_out != 0)
|| strm->internal == NULL
|| strm->internal->next.code == NULL
|| (unsigned int)(action) > LZMA_ACTION_MAX
|| !strm->internal->supported_actions[action])
return LZMA_PROG_ERROR;
// Check if unsupported members have been set to non-zero or non-NULL,
// which would indicate that some new feature is wanted.
if (strm->reserved_ptr1 != NULL
|| strm->reserved_ptr2 != NULL
|| strm->reserved_ptr3 != NULL
|| strm->reserved_ptr4 != NULL
|| strm->reserved_int1 != 0
|| strm->reserved_int2 != 0
|| strm->reserved_int3 != 0
|| strm->reserved_int4 != 0
|| strm->reserved_enum1 != LZMA_RESERVED_ENUM
|| strm->reserved_enum2 != LZMA_RESERVED_ENUM)
return LZMA_OPTIONS_ERROR;
switch (strm->internal->sequence) {
case ISEQ_RUN:
switch (action) {
case LZMA_RUN:
break;
case LZMA_SYNC_FLUSH:
strm->internal->sequence = ISEQ_SYNC_FLUSH;
break;
case LZMA_FULL_FLUSH:
strm->internal->sequence = ISEQ_FULL_FLUSH;
break;
case LZMA_FINISH:
strm->internal->sequence = ISEQ_FINISH;
break;
case LZMA_FULL_BARRIER:
strm->internal->sequence = ISEQ_FULL_BARRIER;
break;
}
break;
case ISEQ_SYNC_FLUSH:
// The same action must be used until we return
// LZMA_STREAM_END, and the amount of input must not change.
if (action != LZMA_SYNC_FLUSH
|| strm->internal->avail_in != strm->avail_in)
return LZMA_PROG_ERROR;
break;
case ISEQ_FULL_FLUSH:
if (action != LZMA_FULL_FLUSH
|| strm->internal->avail_in != strm->avail_in)
return LZMA_PROG_ERROR;
break;
case ISEQ_FINISH:
if (action != LZMA_FINISH
|| strm->internal->avail_in != strm->avail_in)
return LZMA_PROG_ERROR;
break;
case ISEQ_FULL_BARRIER:
if (action != LZMA_FULL_BARRIER
|| strm->internal->avail_in != strm->avail_in)
return LZMA_PROG_ERROR;
break;
case ISEQ_END:
return LZMA_STREAM_END;
case ISEQ_ERROR:
default:
return LZMA_PROG_ERROR;
}
size_t in_pos = 0;
size_t out_pos = 0;
lzma_ret ret = strm->internal->next.code(
strm->internal->next.coder, strm->allocator,
strm->next_in, &in_pos, strm->avail_in,
strm->next_out, &out_pos, strm->avail_out, action);
strm->next_in += in_pos;
strm->avail_in -= in_pos;
strm->total_in += in_pos;
strm->next_out += out_pos;
strm->avail_out -= out_pos;
strm->total_out += out_pos;
strm->internal->avail_in = strm->avail_in;
// Cast is needed to silence a warning about LZMA_TIMED_OUT, which
// isn't part of lzma_ret enumeration.
switch ((unsigned int)(ret)) {
case LZMA_OK:
// Don't return LZMA_BUF_ERROR when it happens the first time.
// This is to avoid returning LZMA_BUF_ERROR when avail_out
// was zero but still there was no more data left to written
// to next_out.
if (out_pos == 0 && in_pos == 0) {
if (strm->internal->allow_buf_error)
ret = LZMA_BUF_ERROR;
else
strm->internal->allow_buf_error = true;
} else {
strm->internal->allow_buf_error = false;
}
break;
case LZMA_TIMED_OUT:
strm->internal->allow_buf_error = false;
ret = LZMA_OK;
break;
case LZMA_STREAM_END:
if (strm->internal->sequence == ISEQ_SYNC_FLUSH
|| strm->internal->sequence == ISEQ_FULL_FLUSH
|| strm->internal->sequence
== ISEQ_FULL_BARRIER)
strm->internal->sequence = ISEQ_RUN;
else
strm->internal->sequence = ISEQ_END;
// Fall through
case LZMA_NO_CHECK:
case LZMA_UNSUPPORTED_CHECK:
case LZMA_GET_CHECK:
case LZMA_MEMLIMIT_ERROR:
// Something else than LZMA_OK, but not a fatal error,
// that is, coding may be continued (except if ISEQ_END).
strm->internal->allow_buf_error = false;
break;
default:
// All the other errors are fatal; coding cannot be continued.
assert(ret != LZMA_BUF_ERROR);
strm->internal->sequence = ISEQ_ERROR;
break;
}
return ret;
}
extern LZMA_API(void)
lzma_end(lzma_stream *strm)
{
if (strm != NULL && strm->internal != NULL) {
lzma_next_end(&strm->internal->next, strm->allocator);
lzma_free(strm->internal, strm->allocator);
strm->internal = NULL;
}
return;
}
extern LZMA_API(void)
lzma_get_progress(lzma_stream *strm,
uint64_t *progress_in, uint64_t *progress_out)
{
if (strm->internal->next.get_progress != NULL) {
strm->internal->next.get_progress(strm->internal->next.coder,
progress_in, progress_out);
} else {
*progress_in = strm->total_in;
*progress_out = strm->total_out;
}
return;
}
extern LZMA_API(lzma_check)
lzma_get_check(const lzma_stream *strm)
{
// Return LZMA_CHECK_NONE if we cannot know the check type.
// It's a bug in the application if this happens.
if (strm->internal->next.get_check == NULL)
return LZMA_CHECK_NONE;
return strm->internal->next.get_check(strm->internal->next.coder);
}
extern LZMA_API(uint64_t)
lzma_memusage(const lzma_stream *strm)
{
uint64_t memusage;
uint64_t old_memlimit;
if (strm == NULL || strm->internal == NULL
|| strm->internal->next.memconfig == NULL
|| strm->internal->next.memconfig(
strm->internal->next.coder,
&memusage, &old_memlimit, 0) != LZMA_OK)
return 0;
return memusage;
}
extern LZMA_API(uint64_t)
lzma_memlimit_get(const lzma_stream *strm)
{
uint64_t old_memlimit;
uint64_t memusage;
if (strm == NULL || strm->internal == NULL
|| strm->internal->next.memconfig == NULL
|| strm->internal->next.memconfig(
strm->internal->next.coder,
&memusage, &old_memlimit, 0) != LZMA_OK)
return 0;
return old_memlimit;
}
extern LZMA_API(lzma_ret)
lzma_memlimit_set(lzma_stream *strm, uint64_t new_memlimit)
{
// Dummy variables to simplify memconfig functions
uint64_t old_memlimit;
uint64_t memusage;
if (strm == NULL || strm->internal == NULL
|| strm->internal->next.memconfig == NULL)
return LZMA_PROG_ERROR;
if (new_memlimit != 0 && new_memlimit < LZMA_MEMUSAGE_BASE)
return LZMA_MEMLIMIT_ERROR;
return strm->internal->next.memconfig(strm->internal->next.coder,
&memusage, &old_memlimit, new_memlimit);
}
game/client/third/minizip/lib/liblzma/common/common.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file common.h
/// \brief Definitions common to the whole liblzma library
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_COMMON_H
#define LZMA_COMMON_H
#include "sysdefs.h"
#include "tuklib_integer.h"
#if defined(_WIN32) || defined(__CYGWIN__)
# ifdef DLL_EXPORT
# define LZMA_API_EXPORT __declspec(dllexport)
# else
# define LZMA_API_EXPORT
# endif
// Don't use ifdef or defined() below.
#elif HAVE_VISIBILITY
# define LZMA_API_EXPORT __attribute__((__visibility__("default")))
#else
# define LZMA_API_EXPORT
#endif
#define LZMA_API(type) LZMA_API_EXPORT type LZMA_API_CALL
#include "lzma.h"
// These allow helping the compiler in some often-executed branches, whose
// result is almost always the same.
#ifdef __GNUC__
# define likely(expr) __builtin_expect(expr, true)
# define unlikely(expr) __builtin_expect(expr, false)
#else
# define likely(expr) (expr)
# define unlikely(expr) (expr)
#endif
/// Size of temporary buffers needed in some filters
#define LZMA_BUFFER_SIZE 4096
/// Maximum number of worker threads within one multithreaded component.
/// The limit exists solely to make it simpler to prevent integer overflows
/// when allocating structures etc. This should be big enough for now...
/// the code won't scale anywhere close to this number anyway.
#define LZMA_THREADS_MAX 16384
/// Starting value for memory usage estimates. Instead of calculating size
/// of _every_ structure and taking into account malloc() overhead etc., we
/// add a base size to all memory usage estimates. It's not very accurate
/// but should be easily good enough.
#define LZMA_MEMUSAGE_BASE (UINT64_C(1) << 15)
/// Start of internal Filter ID space. These IDs must never be used
/// in Streams.
#define LZMA_FILTER_RESERVED_START (LZMA_VLI_C(1) << 62)
/// Supported flags that can be passed to lzma_stream_decoder()
/// or lzma_auto_decoder().
#define LZMA_SUPPORTED_FLAGS \
( LZMA_TELL_NO_CHECK \
| LZMA_TELL_UNSUPPORTED_CHECK \
| LZMA_TELL_ANY_CHECK \
| LZMA_IGNORE_CHECK \
| LZMA_CONCATENATED )
/// Largest valid lzma_action value as unsigned integer.
#define LZMA_ACTION_MAX ((unsigned int)(LZMA_FULL_BARRIER))
/// Special return value (lzma_ret) to indicate that a timeout was reached
/// and lzma_code() must not return LZMA_BUF_ERROR. This is converted to
/// LZMA_OK in lzma_code(). This is not in the lzma_ret enumeration because
/// there's no need to have it in the public API.
#define LZMA_TIMED_OUT 32
typedef struct lzma_next_coder_s lzma_next_coder;
typedef struct lzma_filter_info_s lzma_filter_info;
/// Type of a function used to initialize a filter encoder or decoder
typedef lzma_ret (*lzma_init_function)(
lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter_info *filters);
/// Type of a function to do some kind of coding work (filters, Stream,
/// Block encoders/decoders etc.). Some special coders use don't use both
/// input and output buffers, but for simplicity they still use this same
/// function prototype.
typedef lzma_ret (*lzma_code_function)(
void *coder, const lzma_allocator *allocator,
const uint8_t *restrict in, size_t *restrict in_pos,
size_t in_size, uint8_t *restrict out,
size_t *restrict out_pos, size_t out_size,
lzma_action action);
/// Type of a function to free the memory allocated for the coder
typedef void (*lzma_end_function)(
void *coder, const lzma_allocator *allocator);
/// Raw coder validates and converts an array of lzma_filter structures to
/// an array of lzma_filter_info structures. This array is used with
/// lzma_next_filter_init to initialize the filter chain.
struct lzma_filter_info_s {
/// Filter ID. This is used only by the encoder
/// with lzma_filters_update().
lzma_vli id;
/// Pointer to function used to initialize the filter.
/// This is NULL to indicate end of array.
lzma_init_function init;
/// Pointer to filter's options structure
void *options;
};
/// Hold data and function pointers of the next filter in the chain.
struct lzma_next_coder_s {
/// Pointer to coder-specific data
void *coder;
/// Filter ID. This is LZMA_VLI_UNKNOWN when this structure doesn't
/// point to a filter coder.
lzma_vli id;
/// "Pointer" to init function. This is never called here.
/// We need only to detect if we are initializing a coder
/// that was allocated earlier. See lzma_next_coder_init and
/// lzma_next_strm_init macros in this file.
uintptr_t init;
/// Pointer to function to do the actual coding
lzma_code_function code;
/// Pointer to function to free lzma_next_coder.coder. This can
/// be NULL; in that case, lzma_free is called to free
/// lzma_next_coder.coder.
lzma_end_function end;
/// Pointer to a function to get progress information. If this is NULL,
/// lzma_stream.total_in and .total_out are used instead.
void (*get_progress)(void *coder,
uint64_t *progress_in, uint64_t *progress_out);
/// Pointer to function to return the type of the integrity check.
/// Most coders won't support this.
lzma_check (*get_check)(const void *coder);
/// Pointer to function to get and/or change the memory usage limit.
/// If new_memlimit == 0, the limit is not changed.
lzma_ret (*memconfig)(void *coder, uint64_t *memusage,
uint64_t *old_memlimit, uint64_t new_memlimit);
/// Update the filter-specific options or the whole filter chain
/// in the encoder.
lzma_ret (*update)(void *coder, const lzma_allocator *allocator,
const lzma_filter *filters,
const lzma_filter *reversed_filters);
};
/// Macro to initialize lzma_next_coder structure
#define LZMA_NEXT_CODER_INIT \
(lzma_next_coder){ \
.coder = NULL, \
.init = (uintptr_t)(NULL), \
.id = LZMA_VLI_UNKNOWN, \
.code = NULL, \
.end = NULL, \
.get_progress = NULL, \
.get_check = NULL, \
.memconfig = NULL, \
.update = NULL, \
}
/// Internal data for lzma_strm_init, lzma_code, and lzma_end. A pointer to
/// this is stored in lzma_stream.
struct lzma_internal_s {
/// The actual coder that should do something useful
lzma_next_coder next;
/// Track the state of the coder. This is used to validate arguments
/// so that the actual coders can rely on e.g. that LZMA_SYNC_FLUSH
/// is used on every call to lzma_code until next.code has returned
/// LZMA_STREAM_END.
enum {
ISEQ_RUN,
ISEQ_SYNC_FLUSH,
ISEQ_FULL_FLUSH,
ISEQ_FINISH,
ISEQ_FULL_BARRIER,
ISEQ_END,
ISEQ_ERROR,
} sequence;
/// A copy of lzma_stream avail_in. This is used to verify that the
/// amount of input doesn't change once e.g. LZMA_FINISH has been
/// used.
size_t avail_in;
/// Indicates which lzma_action values are allowed by next.code.
bool supported_actions[LZMA_ACTION_MAX + 1];
/// If true, lzma_code will return LZMA_BUF_ERROR if no progress was
/// made (no input consumed and no output produced by next.code).
bool allow_buf_error;
};
/// Allocates memory
extern void *lzma_alloc(size_t size, const lzma_allocator *allocator)
lzma_attribute((__malloc__)) lzma_attr_alloc_size(1);
/// Allocates memory and zeroes it (like calloc()). This can be faster
/// than lzma_alloc() + memzero() while being backward compatible with
/// custom allocators.
extern void * lzma_attribute((__malloc__)) lzma_attr_alloc_size(1)
lzma_alloc_zero(size_t size, const lzma_allocator *allocator);
/// Frees memory
extern void lzma_free(void *ptr, const lzma_allocator *allocator);
/// Allocates strm->internal if it is NULL, and initializes *strm and
/// strm->internal. This function is only called via lzma_next_strm_init macro.
extern lzma_ret lzma_strm_init(lzma_stream *strm);
/// Initializes the next filter in the chain, if any. This takes care of
/// freeing the memory of previously initialized filter if it is different
/// than the filter being initialized now. This way the actual filter
/// initialization functions don't need to use lzma_next_coder_init macro.
extern lzma_ret lzma_next_filter_init(lzma_next_coder *next,
const lzma_allocator *allocator,
const lzma_filter_info *filters);
/// Update the next filter in the chain, if any. This checks that
/// the application is not trying to change the Filter IDs.
extern lzma_ret lzma_next_filter_update(
lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter *reversed_filters);
/// Frees the memory allocated for next->coder either using next->end or,
/// if next->end is NULL, using lzma_free.
extern void lzma_next_end(lzma_next_coder *next,
const lzma_allocator *allocator);
/// Copy as much data as possible from in[] to out[] and update *in_pos
/// and *out_pos accordingly. Returns the number of bytes copied.
extern size_t lzma_bufcpy(const uint8_t *restrict in, size_t *restrict in_pos,
size_t in_size, uint8_t *restrict out,
size_t *restrict out_pos, size_t out_size);
/// \brief Return if expression doesn't evaluate to LZMA_OK
///
/// There are several situations where we want to return immediately
/// with the value of expr if it isn't LZMA_OK. This macro shortens
/// the code a little.
#define return_if_error(expr) \
do { \
const lzma_ret ret_ = (expr); \
if (ret_ != LZMA_OK) \
return ret_; \
} while (0)
/// If next isn't already initialized, free the previous coder. Then mark
/// that next is _possibly_ initialized for the coder using this macro.
/// "Possibly" means that if e.g. allocation of next->coder fails, the
/// structure isn't actually initialized for this coder, but leaving
/// next->init to func is still OK.
#define lzma_next_coder_init(func, next, allocator) \
do { \
if ((uintptr_t)(func) != (next)->init) \
lzma_next_end(next, allocator); \
(next)->init = (uintptr_t)(func); \
} while (0)
/// Initializes lzma_strm and calls func() to initialize strm->internal->next.
/// (The function being called will use lzma_next_coder_init()). If
/// initialization fails, memory that wasn't freed by func() is freed
/// along strm->internal.
#define lzma_next_strm_init(func, strm, ...) \
do { \
return_if_error(lzma_strm_init(strm)); \
const lzma_ret ret_ = func(&(strm)->internal->next, \
(strm)->allocator, __VA_ARGS__); \
if (ret_ != LZMA_OK) { \
lzma_end(strm); \
return ret_; \
} \
} while (0)
#endif
game/client/third/minizip/lib/liblzma/common/filter_encoder.c
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///////////////////////////////////////////////////////////////////////////////
//
/// \file filter_decoder.c
/// \brief Filter ID mapping to filter-specific functions
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "filter_encoder.h"
#include "lzma_encoder.h"
#ifdef HAVE_DECODER_LZMA2
#include "lzma2_encoder.h"
#endif
#if defined(HAVE_DECODER_X86) || \
defined(HAVE_DECODER_POWERPC) || \
defined(HAVE_DECODER_IA64) || \
defined(HAVE_DECODER_ARM) || \
defined(HAVE_DECODER_ARMTHUMB) || \
defined(HAVE_DECODER_SPARC)
#include "simple_encoder.h"
#endif
#ifdef HAVE_DECODER_DELTA
#include "delta_encoder.h"
#endif
typedef struct {
/// Filter ID
lzma_vli id;
/// Initializes the filter encoder and calls lzma_next_filter_init()
/// for filters + 1.
lzma_init_function init;
/// Calculates memory usage of the encoder. If the options are
/// invalid, UINT64_MAX is returned.
uint64_t (*memusage)(const void *options);
/// Calculates the recommended Uncompressed Size for .xz Blocks to
/// which the input data can be split to make multithreaded
/// encoding possible. If this is NULL, it is assumed that
/// the encoder is fast enough with single thread.
uint64_t (*block_size)(const void *options);
/// Tells the size of the Filter Properties field. If options are
/// invalid, UINT32_MAX is returned. If this is NULL, props_size_fixed
/// is used.
lzma_ret (*props_size_get)(uint32_t *size, const void *options);
uint32_t props_size_fixed;
/// Encodes Filter Properties.
///
/// \return - LZMA_OK: Properties encoded successfully.
/// - LZMA_OPTIONS_ERROR: Unsupported options
/// - LZMA_PROG_ERROR: Invalid options or not enough
/// output space
lzma_ret (*props_encode)(const void *options, uint8_t *out);
} lzma_filter_encoder;
static const lzma_filter_encoder encoders[] = {
#ifdef HAVE_ENCODER_LZMA1
{
.id = LZMA_FILTER_LZMA1,
.init = &lzma_lzma_encoder_init,
.memusage = &lzma_lzma_encoder_memusage,
.block_size = NULL, // FIXME
.props_size_get = NULL,
.props_size_fixed = 5,
.props_encode = &lzma_lzma_props_encode,
},
#endif
#ifdef HAVE_ENCODER_LZMA2
{
.id = LZMA_FILTER_LZMA2,
.init = &lzma_lzma2_encoder_init,
.memusage = &lzma_lzma2_encoder_memusage,
.block_size = &lzma_lzma2_block_size, // FIXME
.props_size_get = NULL,
.props_size_fixed = 1,
.props_encode = &lzma_lzma2_props_encode,
},
#endif
#ifdef HAVE_ENCODER_X86
{
.id = LZMA_FILTER_X86,
.init = &lzma_simple_x86_encoder_init,
.memusage = NULL,
.block_size = NULL,
.props_size_get = &lzma_simple_props_size,
.props_encode = &lzma_simple_props_encode,
},
#endif
#ifdef HAVE_ENCODER_POWERPC
{
.id = LZMA_FILTER_POWERPC,
.init = &lzma_simple_powerpc_encoder_init,
.memusage = NULL,
.block_size = NULL,
.props_size_get = &lzma_simple_props_size,
.props_encode = &lzma_simple_props_encode,
},
#endif
#ifdef HAVE_ENCODER_IA64
{
.id = LZMA_FILTER_IA64,
.init = &lzma_simple_ia64_encoder_init,
.memusage = NULL,
.block_size = NULL,
.props_size_get = &lzma_simple_props_size,
.props_encode = &lzma_simple_props_encode,
},
#endif
#ifdef HAVE_ENCODER_ARM
{
.id = LZMA_FILTER_ARM,
.init = &lzma_simple_arm_encoder_init,
.memusage = NULL,
.block_size = NULL,
.props_size_get = &lzma_simple_props_size,
.props_encode = &lzma_simple_props_encode,
},
#endif
#ifdef HAVE_ENCODER_ARMTHUMB
{
.id = LZMA_FILTER_ARMTHUMB,
.init = &lzma_simple_armthumb_encoder_init,
.memusage = NULL,
.block_size = NULL,
.props_size_get = &lzma_simple_props_size,
.props_encode = &lzma_simple_props_encode,
},
#endif
#ifdef HAVE_ENCODER_SPARC
{
.id = LZMA_FILTER_SPARC,
.init = &lzma_simple_sparc_encoder_init,
.memusage = NULL,
.block_size = NULL,
.props_size_get = &lzma_simple_props_size,
.props_encode = &lzma_simple_props_encode,
},
#endif
#ifdef HAVE_ENCODER_DELTA
{
.id = LZMA_FILTER_DELTA,
.init = &lzma_delta_encoder_init,
.memusage = &lzma_delta_coder_memusage,
.block_size = NULL,
.props_size_get = NULL,
.props_size_fixed = 1,
.props_encode = &lzma_delta_props_encode,
},
#endif
};
static const lzma_filter_encoder *
encoder_find(lzma_vli id)
{
for (size_t i = 0; i < ARRAY_SIZE(encoders); ++i)
if (encoders[i].id == id)
return encoders + i;
return NULL;
}
extern LZMA_API(lzma_bool)
lzma_filter_encoder_is_supported(lzma_vli id)
{
return encoder_find(id) != NULL;
}
extern uint64_t
lzma_mt_block_size(const lzma_filter *filters)
{
uint64_t max = 0;
for (size_t i = 0; filters[i].id != LZMA_VLI_UNKNOWN; ++i) {
const lzma_filter_encoder *const fe
= encoder_find(filters[i].id);
if (fe->block_size != NULL) {
const uint64_t size
= fe->block_size(filters[i].options);
if (size == 0)
return 0;
if (size > max)
max = size;
}
}
return max;
}
extern LZMA_API(lzma_ret)
lzma_properties_size(uint32_t *size, const lzma_filter *filter)
{
const lzma_filter_encoder *const fe = encoder_find(filter->id);
if (fe == NULL) {
// Unknown filter - if the Filter ID is a proper VLI,
// return LZMA_OPTIONS_ERROR instead of LZMA_PROG_ERROR,
// because it's possible that we just don't have support
// compiled in for the requested filter.
return filter->id <= LZMA_VLI_MAX
? LZMA_OPTIONS_ERROR : LZMA_PROG_ERROR;
}
if (fe->props_size_get == NULL) {
// No props_size_get() function, use props_size_fixed.
*size = fe->props_size_fixed;
return LZMA_OK;
}
return fe->props_size_get(size, filter->options);
}
extern LZMA_API(lzma_ret)
lzma_properties_encode(const lzma_filter *filter, uint8_t *props)
{
const lzma_filter_encoder *const fe = encoder_find(filter->id);
if (fe == NULL)
return LZMA_PROG_ERROR;
if (fe->props_encode == NULL)
return LZMA_OK;
return fe->props_encode(filter->options, props);
}
game/client/third/minizip/lib/liblzma/common/filter_encoder.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file filter_encoder.c
/// \brief Filter ID mapping to filter-specific functions
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_FILTER_ENCODER_H
#define LZMA_FILTER_ENCODER_H
#include "common.h"
// FIXME: Might become a part of the public API.
extern uint64_t lzma_mt_block_size(const lzma_filter *filters);
extern lzma_ret lzma_raw_encoder_init(
lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter *filters);
#endif
game/client/third/minizip/lib/liblzma/common/index.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file index.h
/// \brief Handling of Index
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_INDEX_H
#define LZMA_INDEX_H
#include "common.h"
/// Minimum Unpadded Size
#define UNPADDED_SIZE_MIN LZMA_VLI_C(5)
/// Maximum Unpadded Size
#define UNPADDED_SIZE_MAX (LZMA_VLI_MAX & ~LZMA_VLI_C(3))
/// Get the size of the Index Padding field. This is needed by Index encoder
/// and decoder, but applications should have no use for this.
extern uint32_t lzma_index_padding_size(const lzma_index *i);
/// Set for how many Records to allocate memory the next time
/// lzma_index_append() needs to allocate space for a new Record.
/// This is used only by the Index decoder.
extern void lzma_index_prealloc(lzma_index *i, lzma_vli records);
/// Round the variable-length integer to the next multiple of four.
static inline lzma_vli
vli_ceil4(lzma_vli vli)
{
assert(vli <= LZMA_VLI_MAX);
return (vli + 3) & ~LZMA_VLI_C(3);
}
/// Calculate the size of the Index field excluding Index Padding
static inline lzma_vli
index_size_unpadded(lzma_vli count, lzma_vli index_list_size)
{
// Index Indicator + Number of Records + List of Records + CRC32
return 1 + lzma_vli_size(count) + index_list_size + 4;
}
/// Calculate the size of the Index field including Index Padding
static inline lzma_vli
index_size(lzma_vli count, lzma_vli index_list_size)
{
return vli_ceil4(index_size_unpadded(count, index_list_size));
}
/// Calculate the total size of the Stream
static inline lzma_vli
index_stream_size(lzma_vli blocks_size,
lzma_vli count, lzma_vli index_list_size)
{
return LZMA_STREAM_HEADER_SIZE + blocks_size
+ index_size(count, index_list_size)
+ LZMA_STREAM_HEADER_SIZE;
}
#endif
game/client/third/minizip/lib/liblzma/common/memcmplen.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file memcmplen.h
/// \brief Optimized comparison of two buffers
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_MEMCMPLEN_H
#define LZMA_MEMCMPLEN_H
#include "common.h"
#ifdef HAVE_IMMINTRIN_H
# include <immintrin.h>
#endif
/// Find out how many equal bytes the two buffers have.
///
/// \param buf1 First buffer
/// \param buf2 Second buffer
/// \param len How many bytes have already been compared and will
/// be assumed to match
/// \param limit How many bytes to compare at most, including the
/// already-compared bytes. This must be significantly
/// smaller than UINT32_MAX to avoid integer overflows.
/// Up to LZMA_MEMCMPLEN_EXTRA bytes may be read past
/// the specified limit from both buf1 and buf2.
///
/// \return Number of equal bytes in the buffers is returned.
/// This is always at least len and at most limit.
///
/// \note LZMA_MEMCMPLEN_EXTRA defines how many extra bytes may be read.
/// It's rounded up to 2^n. This extra amount needs to be
/// allocated in the buffers being used. It needs to be
/// initialized too to keep Valgrind quiet.
static inline uint32_t lzma_attribute((__always_inline__))
lzma_memcmplen(const uint8_t *buf1, const uint8_t *buf2,
uint32_t len, uint32_t limit)
{
assert(len <= limit);
assert(limit <= UINT32_MAX / 2);
#if defined(TUKLIB_FAST_UNALIGNED_ACCESS) \
&& ((TUKLIB_GNUC_REQ(3, 4) && defined(__x86_64__)) \
|| (defined(__INTEL_COMPILER) && defined(__x86_64__)) \
|| (defined(__INTEL_COMPILER) && defined(_M_X64)) \
|| (defined(_MSC_VER) && defined(_M_X64)))
// NOTE: This will use 64-bit unaligned access which
// TUKLIB_FAST_UNALIGNED_ACCESS wasn't meant to permit, but
// it's convenient here at least as long as it's x86-64 only.
//
// I keep this x86-64 only for now since that's where I know this
// to be a good method. This may be fine on other 64-bit CPUs too.
// On big endian one should use xor instead of subtraction and switch
// to __builtin_clzll().
#define LZMA_MEMCMPLEN_EXTRA 8
while (len < limit) {
const uint64_t x = *(const uint64_t *)(buf1 + len)
- *(const uint64_t *)(buf2 + len);
if (x != 0) {
# if defined(_M_X64) // MSVC or Intel C compiler on Windows
unsigned long tmp;
_BitScanForward64(&tmp, x);
len += (uint32_t)tmp >> 3;
# else // GCC, clang, or Intel C compiler
len += (uint32_t)__builtin_ctzll(x) >> 3;
# endif
return my_min(len, limit);
}
len += 8;
}
return limit;
#elif defined(TUKLIB_FAST_UNALIGNED_ACCESS) \
&& defined(HAVE__MM_MOVEMASK_EPI8) \
&& ((defined(__GNUC__) && defined(__SSE2_MATH__)) \
|| (defined(__INTEL_COMPILER) && defined(__SSE2__)) \
|| (defined(_MSC_VER) && defined(_M_IX86_FP) \
&& _M_IX86_FP >= 2))
// NOTE: Like above, this will use 128-bit unaligned access which
// TUKLIB_FAST_UNALIGNED_ACCESS wasn't meant to permit.
//
// SSE2 version for 32-bit and 64-bit x86. On x86-64 the above
// version is sometimes significantly faster and sometimes
// slightly slower than this SSE2 version, so this SSE2
// version isn't used on x86-64.
# define LZMA_MEMCMPLEN_EXTRA 16
while (len < limit) {
const uint32_t x = 0xFFFF ^ _mm_movemask_epi8(_mm_cmpeq_epi8(
_mm_loadu_si128((const __m128i *)(buf1 + len)),
_mm_loadu_si128((const __m128i *)(buf2 + len))));
if (x != 0) {
# if defined(__INTEL_COMPILER)
len += _bit_scan_forward(x);
# elif defined(_MSC_VER)
unsigned long tmp;
_BitScanForward(&tmp, x);
len += tmp;
# else
len += __builtin_ctz(x);
# endif
return my_min(len, limit);
}
len += 16;
}
return limit;
#elif defined(TUKLIB_FAST_UNALIGNED_ACCESS) && !defined(WORDS_BIGENDIAN)
// Generic 32-bit little endian method
# define LZMA_MEMCMPLEN_EXTRA 4
while (len < limit) {
uint32_t x = *(const uint32_t *)(buf1 + len)
- *(const uint32_t *)(buf2 + len);
if (x != 0) {
if ((x & 0xFFFF) == 0) {
len += 2;
x >>= 16;
}
if ((x & 0xFF) == 0)
++len;
return my_min(len, limit);
}
len += 4;
}
return limit;
#elif defined(TUKLIB_FAST_UNALIGNED_ACCESS) && defined(WORDS_BIGENDIAN)
// Generic 32-bit big endian method
# define LZMA_MEMCMPLEN_EXTRA 4
while (len < limit) {
uint32_t x = *(const uint32_t *)(buf1 + len)
^ *(const uint32_t *)(buf2 + len);
if (x != 0) {
if ((x & 0xFFFF0000) == 0) {
len += 2;
x <<= 16;
}
if ((x & 0xFF000000) == 0)
++len;
return my_min(len, limit);
}
len += 4;
}
return limit;
#else
// Simple portable version that doesn't use unaligned access.
# define LZMA_MEMCMPLEN_EXTRA 0
while (len < limit && buf1[len] == buf2[len])
++len;
return len;
#endif
}
#endif
game/client/third/minizip/lib/liblzma/common/sysdefs.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file sysdefs.h
/// \brief Common includes, definitions, system-specific things etc.
///
/// This file is used also by the lzma command line tool, that's why this
/// file is separate from common.h.
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_SYSDEFS_H
#define LZMA_SYSDEFS_H
//////////////
// Includes //
//////////////
#ifdef HAVE_CONFIG_H
# include <config.h>
#endif
// Get standard-compliant stdio functions under MinGW and MinGW-w64.
#ifdef __MINGW32__
# define __USE_MINGW_ANSI_STDIO 1
#endif
// size_t and NULL
#include <stddef.h>
#ifdef HAVE_INTTYPES_H
# include <inttypes.h>
#endif
// C99 says that inttypes.h always includes stdint.h, but some systems
// don't do that, and require including stdint.h separately.
#ifdef HAVE_STDINT_H
# include <stdint.h>
#endif
// Some pre-C99 systems have SIZE_MAX in limits.h instead of stdint.h. The
// limits are also used to figure out some macros missing from pre-C99 systems.
#ifdef HAVE_LIMITS_H
# include <limits.h>
#endif
// Be more compatible with systems that have non-conforming inttypes.h.
// We assume that int is 32-bit and that long is either 32-bit or 64-bit.
// Full Autoconf test could be more correct, but this should work well enough.
// Note that this duplicates some code from lzma.h, but this is better since
// we can work without inttypes.h thanks to Autoconf tests.
#ifndef UINT32_C
# if UINT_MAX != 4294967295U
# error UINT32_C is not defined and unsigned int is not 32-bit.
# endif
# define UINT32_C(n) n ## U
#endif
#ifndef UINT32_MAX
# define UINT32_MAX UINT32_C(4294967295)
#endif
#ifndef PRIu32
# define PRIu32 "u"
#endif
#ifndef PRIx32
# define PRIx32 "x"
#endif
#ifndef PRIX32
# define PRIX32 "X"
#endif
#if ULONG_MAX == 4294967295UL
# ifndef UINT64_C
# define UINT64_C(n) n ## ULL
# endif
# ifndef PRIu64
# define PRIu64 "llu"
# endif
# ifndef PRIx64
# define PRIx64 "llx"
# endif
# ifndef PRIX64
# define PRIX64 "llX"
# endif
#else
# ifndef UINT64_C
# define UINT64_C(n) n ## UL
# endif
# ifndef PRIu64
# define PRIu64 "lu"
# endif
# ifndef PRIx64
# define PRIx64 "lx"
# endif
# ifndef PRIX64
# define PRIX64 "lX"
# endif
#endif
#ifndef UINT64_MAX
# define UINT64_MAX UINT64_C(18446744073709551615)
#endif
// Incorrect(?) SIZE_MAX:
// - Interix headers typedef size_t to unsigned long,
// but a few lines later define SIZE_MAX to INT32_MAX.
// - SCO OpenServer (x86) headers typedef size_t to unsigned int
// but define SIZE_MAX to INT32_MAX.
#if defined(__INTERIX) || defined(_SCO_DS)
# undef SIZE_MAX
#endif
// The code currently assumes that size_t is either 32-bit or 64-bit.
#ifndef SIZE_MAX
# if SIZEOF_SIZE_T == 4
# define SIZE_MAX UINT32_MAX
# elif SIZEOF_SIZE_T == 8
# define SIZE_MAX UINT64_MAX
# else
# error size_t is not 32-bit or 64-bit
# endif
#endif
#if SIZE_MAX != UINT32_MAX && SIZE_MAX != UINT64_MAX
# error size_t is not 32-bit or 64-bit
#endif
#include <stdlib.h>
#include <assert.h>
// Pre-C99 systems lack stdbool.h. All the code in LZMA Utils must be written
// so that it works with fake bool type, for example:
//
// bool foo = (flags & 0x100) != 0;
// bool bar = !!(flags & 0x100);
//
// This works with the real C99 bool but breaks with fake bool:
//
// bool baz = (flags & 0x100);
//
#ifdef HAVE_STDBOOL_H
# include <stdbool.h>
#else
# if ! HAVE__BOOL
typedef unsigned char _Bool;
# endif
# define bool _Bool
# define false 0
# define true 1
# define __bool_true_false_are_defined 1
#endif
// string.h should be enough but let's include strings.h and memory.h too if
// they exists, since that shouldn't do any harm, but may improve portability.
#ifdef HAVE_STRING_H
# include <string.h>
#endif
#ifdef HAVE_STRINGS_H
# include <strings.h>
#endif
#ifdef HAVE_MEMORY_H
# include <memory.h>
#endif
// As of MSVC 2013, inline and restrict are supported with
// non-standard keywords.
#if defined(_WIN32) && defined(_MSC_VER)
# ifndef inline
# define inline __inline
# endif
# ifndef restrict
# define restrict __restrict
# endif
#elif __STDC_VERSION__ < 199901L
# define restrict // nothing
#endif
////////////
// Macros //
////////////
#undef memzero
#define memzero(s, n) memset(s, 0, n)
// NOTE: Avoid using MIN() and MAX(), because even conditionally defining
// those macros can cause some portability trouble, since on some systems
// the system headers insist defining their own versions.
#define my_min(x, y) ((x) < (y) ? (x) : (y))
#define my_max(x, y) ((x) > (y) ? (x) : (y))
#ifndef ARRAY_SIZE
# define ARRAY_SIZE(array) (sizeof(array) / sizeof((array)[0]))
#endif
#if (__GNUC__ == 4 && __GNUC_MINOR__ >= 3) || __GNUC__ > 4
# define lzma_attr_alloc_size(x) __attribute__((__alloc_size__(x)))
#else
# define lzma_attr_alloc_size(x)
#endif
#endif
game/client/third/minizip/lib/liblzma/common/tuklib_common.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file tuklib_common.h
/// \brief Common definitions for tuklib modules
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef TUKLIB_COMMON_H
#define TUKLIB_COMMON_H
// The config file may be replaced by a package-specific file.
// It should include at least stddef.h, inttypes.h, and limits.h.
#include "tuklib_config.h"
// TUKLIB_SYMBOL_PREFIX is prefixed to all symbols exported by
// the tuklib modules. If you use a tuklib module in a library,
// you should use TUKLIB_SYMBOL_PREFIX to make sure that there
// are no symbol conflicts in case someone links your library
// into application that also uses the same tuklib module.
#ifndef TUKLIB_SYMBOL_PREFIX
# define TUKLIB_SYMBOL_PREFIX
#endif
#define TUKLIB_CAT_X(a, b) a ## b
#define TUKLIB_CAT(a, b) TUKLIB_CAT_X(a, b)
#ifndef TUKLIB_SYMBOL
# define TUKLIB_SYMBOL(sym) TUKLIB_CAT(TUKLIB_SYMBOL_PREFIX, sym)
#endif
#ifndef TUKLIB_DECLS_BEGIN
# ifdef __cplusplus
# define TUKLIB_DECLS_BEGIN extern "C" {
# else
# define TUKLIB_DECLS_BEGIN
# endif
#endif
#ifndef TUKLIB_DECLS_END
# ifdef __cplusplus
# define TUKLIB_DECLS_END }
# else
# define TUKLIB_DECLS_END
# endif
#endif
#if defined(__GNUC__) && defined(__GNUC_MINOR__)
# define TUKLIB_GNUC_REQ(major, minor) \
((__GNUC__ == (major) && __GNUC_MINOR__ >= (minor)) \
|| __GNUC__ > (major))
#else
# define TUKLIB_GNUC_REQ(major, minor) 0
#endif
#if TUKLIB_GNUC_REQ(2, 5)
# define tuklib_attr_noreturn __attribute__((__noreturn__))
#else
# define tuklib_attr_noreturn
#endif
#if (defined(_WIN32) && !defined(__CYGWIN__)) \
|| defined(__OS2__) || defined(__MSDOS__)
# define TUKLIB_DOSLIKE 1
#endif
#endif
game/client/third/minizip/lib/liblzma/common/tuklib_config.h
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#ifdef HAVE_CONFIG_H
# include "sysdefs.h"
#else
# include <stddef.h>
# include <inttypes.h>
# include <limits.h>
#endif
game/client/third/minizip/lib/liblzma/common/tuklib_integer.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file tuklib_integer.h
/// \brief Various integer and bit operations
///
/// This file provides macros or functions to do some basic integer and bit
/// operations.
///
/// Endianness related integer operations (XX = 16, 32, or 64; Y = b or l):
/// - Byte swapping: bswapXX(num)
/// - Byte order conversions to/from native: convXXYe(num)
/// - Aligned reads: readXXYe(ptr)
/// - Aligned writes: writeXXYe(ptr, num)
/// - Unaligned reads (16/32-bit only): unaligned_readXXYe(ptr)
/// - Unaligned writes (16/32-bit only): unaligned_writeXXYe(ptr, num)
///
/// Since they can macros, the arguments should have no side effects since
/// they may be evaluated more than once.
///
/// \todo PowerPC and possibly some other architectures support
/// byte swapping load and store instructions. This file
/// doesn't take advantage of those instructions.
///
/// Bit scan operations for non-zero 32-bit integers:
/// - Bit scan reverse (find highest non-zero bit): bsr32(num)
/// - Count leading zeros: clz32(num)
/// - Count trailing zeros: ctz32(num)
/// - Bit scan forward (simply an alias for ctz32()): bsf32(num)
///
/// The above bit scan operations return 0-31. If num is zero,
/// the result is undefined.
//
// Authors: Lasse Collin
// Joachim Henke
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef TUKLIB_INTEGER_H
#define TUKLIB_INTEGER_H
#include "tuklib_common.h"
////////////////////////////////////////
// Operating system specific features //
////////////////////////////////////////
#if defined(HAVE_BYTESWAP_H)
// glibc, uClibc, dietlibc
# include <byteswap.h>
# ifdef HAVE_BSWAP_16
# define bswap16(num) bswap_16(num)
# endif
# ifdef HAVE_BSWAP_32
# define bswap32(num) bswap_32(num)
# endif
# ifdef HAVE_BSWAP_64
# define bswap64(num) bswap_64(num)
# endif
#elif defined(HAVE_SYS_ENDIAN_H)
// *BSDs and Darwin
# include <sys/endian.h>
#elif defined(HAVE_SYS_BYTEORDER_H)
// Solaris
# include <sys/byteorder.h>
# ifdef BSWAP_16
# define bswap16(num) BSWAP_16(num)
# endif
# ifdef BSWAP_32
# define bswap32(num) BSWAP_32(num)
# endif
# ifdef BSWAP_64
# define bswap64(num) BSWAP_64(num)
# endif
# ifdef BE_16
# define conv16be(num) BE_16(num)
# endif
# ifdef BE_32
# define conv32be(num) BE_32(num)
# endif
# ifdef BE_64
# define conv64be(num) BE_64(num)
# endif
# ifdef LE_16
# define conv16le(num) LE_16(num)
# endif
# ifdef LE_32
# define conv32le(num) LE_32(num)
# endif
# ifdef LE_64
# define conv64le(num) LE_64(num)
# endif
#endif
///////////////////
// Byte swapping //
///////////////////
#ifndef bswap16
# define bswap16(num) \
(((uint16_t)(num) << 8) | ((uint16_t)(num) >> 8))
#endif
#ifndef bswap32
# define bswap32(num) \
( (((uint32_t)(num) << 24) ) \
| (((uint32_t)(num) << 8) & UINT32_C(0x00FF0000)) \
| (((uint32_t)(num) >> 8) & UINT32_C(0x0000FF00)) \
| (((uint32_t)(num) >> 24) ) )
#endif
#ifndef bswap64
# define bswap64(num) \
( (((uint64_t)(num) << 56) ) \
| (((uint64_t)(num) << 40) & UINT64_C(0x00FF000000000000)) \
| (((uint64_t)(num) << 24) & UINT64_C(0x0000FF0000000000)) \
| (((uint64_t)(num) << 8) & UINT64_C(0x000000FF00000000)) \
| (((uint64_t)(num) >> 8) & UINT64_C(0x00000000FF000000)) \
| (((uint64_t)(num) >> 24) & UINT64_C(0x0000000000FF0000)) \
| (((uint64_t)(num) >> 40) & UINT64_C(0x000000000000FF00)) \
| (((uint64_t)(num) >> 56) ) )
#endif
// Define conversion macros using the basic byte swapping macros.
#ifdef WORDS_BIGENDIAN
# ifndef conv16be
# define conv16be(num) ((uint16_t)(num))
# endif
# ifndef conv32be
# define conv32be(num) ((uint32_t)(num))
# endif
# ifndef conv64be
# define conv64be(num) ((uint64_t)(num))
# endif
# ifndef conv16le
# define conv16le(num) bswap16(num)
# endif
# ifndef conv32le
# define conv32le(num) bswap32(num)
# endif
# ifndef conv64le
# define conv64le(num) bswap64(num)
# endif
#else
# ifndef conv16be
# define conv16be(num) bswap16(num)
# endif
# ifndef conv32be
# define conv32be(num) bswap32(num)
# endif
# ifndef conv64be
# define conv64be(num) bswap64(num)
# endif
# ifndef conv16le
# define conv16le(num) ((uint16_t)(num))
# endif
# ifndef conv32le
# define conv32le(num) ((uint32_t)(num))
# endif
# ifndef conv64le
# define conv64le(num) ((uint64_t)(num))
# endif
#endif
//////////////////////////////
// Aligned reads and writes //
//////////////////////////////
static inline uint16_t
read16be(const uint8_t *buf)
{
uint16_t num = *(const uint16_t *)buf;
return conv16be(num);
}
static inline uint16_t
read16le(const uint8_t *buf)
{
uint16_t num = *(const uint16_t *)buf;
return conv16le(num);
}
static inline uint32_t
read32be(const uint8_t *buf)
{
uint32_t num = *(const uint32_t *)buf;
return conv32be(num);
}
static inline uint32_t
read32le(const uint8_t *buf)
{
uint32_t num = *(const uint32_t *)buf;
return conv32le(num);
}
static inline uint64_t
read64be(const uint8_t *buf)
{
uint64_t num = *(const uint64_t *)buf;
return conv64be(num);
}
static inline uint64_t
read64le(const uint8_t *buf)
{
uint64_t num = *(const uint64_t *)buf;
return conv64le(num);
}
// NOTE: Possible byte swapping must be done in a macro to allow GCC
// to optimize byte swapping of constants when using glibc's or *BSD's
// byte swapping macros. The actual write is done in an inline function
// to make type checking of the buf pointer possible similarly to readXXYe()
// functions.
#define write16be(buf, num) write16ne((buf), conv16be(num))
#define write16le(buf, num) write16ne((buf), conv16le(num))
#define write32be(buf, num) write32ne((buf), conv32be(num))
#define write32le(buf, num) write32ne((buf), conv32le(num))
#define write64be(buf, num) write64ne((buf), conv64be(num))
#define write64le(buf, num) write64ne((buf), conv64le(num))
static inline void
write16ne(uint8_t *buf, uint16_t num)
{
*(uint16_t *)buf = num;
return;
}
static inline void
write32ne(uint8_t *buf, uint32_t num)
{
*(uint32_t *)buf = num;
return;
}
static inline void
write64ne(uint8_t *buf, uint64_t num)
{
*(uint64_t *)buf = num;
return;
}
////////////////////////////////
// Unaligned reads and writes //
////////////////////////////////
// NOTE: TUKLIB_FAST_UNALIGNED_ACCESS indicates only support for 16-bit and
// 32-bit unaligned integer loads and stores. It's possible that 64-bit
// unaligned access doesn't work or is slower than byte-by-byte access.
// Since unaligned 64-bit is probably not needed as often as 16-bit or
// 32-bit, we simply don't support 64-bit unaligned access for now.
#ifdef TUKLIB_FAST_UNALIGNED_ACCESS
# define unaligned_read16be read16be
# define unaligned_read16le read16le
# define unaligned_read32be read32be
# define unaligned_read32le read32le
# define unaligned_write16be write16be
# define unaligned_write16le write16le
# define unaligned_write32be write32be
# define unaligned_write32le write32le
#else
static inline uint16_t
unaligned_read16be(const uint8_t *buf)
{
uint16_t num = ((uint16_t)buf[0] << 8) | (uint16_t)buf[1];
return num;
}
static inline uint16_t
unaligned_read16le(const uint8_t *buf)
{
uint16_t num = ((uint16_t)buf[0]) | ((uint16_t)buf[1] << 8);
return num;
}
static inline uint32_t
unaligned_read32be(const uint8_t *buf)
{
uint32_t num = (uint32_t)buf[0] << 24;
num |= (uint32_t)buf[1] << 16;
num |= (uint32_t)buf[2] << 8;
num |= (uint32_t)buf[3];
return num;
}
static inline uint32_t
unaligned_read32le(const uint8_t *buf)
{
uint32_t num = (uint32_t)buf[0];
num |= (uint32_t)buf[1] << 8;
num |= (uint32_t)buf[2] << 16;
num |= (uint32_t)buf[3] << 24;
return num;
}
static inline void
unaligned_write16be(uint8_t *buf, uint16_t num)
{
buf[0] = (uint8_t)(num >> 8);
buf[1] = (uint8_t)num;
return;
}
static inline void
unaligned_write16le(uint8_t *buf, uint16_t num)
{
buf[0] = (uint8_t)num;
buf[1] = (uint8_t)(num >> 8);
return;
}
static inline void
unaligned_write32be(uint8_t *buf, uint32_t num)
{
buf[0] = (uint8_t)(num >> 24);
buf[1] = (uint8_t)(num >> 16);
buf[2] = (uint8_t)(num >> 8);
buf[3] = (uint8_t)num;
return;
}
static inline void
unaligned_write32le(uint8_t *buf, uint32_t num)
{
buf[0] = (uint8_t)num;
buf[1] = (uint8_t)(num >> 8);
buf[2] = (uint8_t)(num >> 16);
buf[3] = (uint8_t)(num >> 24);
return;
}
#endif
static inline uint32_t
bsr32(uint32_t n)
{
// Check for ICC first, since it tends to define __GNUC__ too.
#if defined(__INTEL_COMPILER)
return _bit_scan_reverse(n);
#elif TUKLIB_GNUC_REQ(3, 4) && UINT_MAX == UINT32_MAX
// GCC >= 3.4 has __builtin_clz(), which gives good results on
// multiple architectures. On x86, __builtin_clz() ^ 31U becomes
// either plain BSR (so the XOR gets optimized away) or LZCNT and
// XOR (if -march indicates that SSE4a instructions are supported).
return __builtin_clz(n) ^ 31U;
#elif defined(__GNUC__) && (defined(__i386__) || defined(__x86_64__))
uint32_t i;
__asm__("bsrl %1, %0" : "=r" (i) : "rm" (n));
return i;
#elif defined(_MSC_VER) && _MSC_VER >= 1400
// MSVC isn't supported by tuklib, but since this code exists,
// it doesn't hurt to have it here anyway.
uint32_t i;
_BitScanReverse(&i, n);
return i;
#else
uint32_t i = 31;
if ((n & UINT32_C(0xFFFF0000)) == 0) {
n <<= 16;
i = 15;
}
if ((n & UINT32_C(0xFF000000)) == 0) {
n <<= 8;
i -= 8;
}
if ((n & UINT32_C(0xF0000000)) == 0) {
n <<= 4;
i -= 4;
}
if ((n & UINT32_C(0xC0000000)) == 0) {
n <<= 2;
i -= 2;
}
if ((n & UINT32_C(0x80000000)) == 0)
--i;
return i;
#endif
}
static inline uint32_t
clz32(uint32_t n)
{
#if defined(__INTEL_COMPILER)
return _bit_scan_reverse(n) ^ 31U;
#elif TUKLIB_GNUC_REQ(3, 4) && UINT_MAX == UINT32_MAX
return __builtin_clz(n);
#elif defined(__GNUC__) && (defined(__i386__) || defined(__x86_64__))
uint32_t i;
__asm__("bsrl %1, %0\n\t"
"xorl $31, %0"
: "=r" (i) : "rm" (n));
return i;
#elif defined(_MSC_VER) && _MSC_VER >= 1400
uint32_t i;
_BitScanReverse(&i, n);
return i ^ 31U;
#else
uint32_t i = 0;
if ((n & UINT32_C(0xFFFF0000)) == 0) {
n <<= 16;
i = 16;
}
if ((n & UINT32_C(0xFF000000)) == 0) {
n <<= 8;
i += 8;
}
if ((n & UINT32_C(0xF0000000)) == 0) {
n <<= 4;
i += 4;
}
if ((n & UINT32_C(0xC0000000)) == 0) {
n <<= 2;
i += 2;
}
if ((n & UINT32_C(0x80000000)) == 0)
++i;
return i;
#endif
}
static inline uint32_t
ctz32(uint32_t n)
{
#if defined(__INTEL_COMPILER)
return _bit_scan_forward(n);
#elif TUKLIB_GNUC_REQ(3, 4) && UINT_MAX >= UINT32_MAX
return __builtin_ctz(n);
#elif defined(__GNUC__) && (defined(__i386__) || defined(__x86_64__))
uint32_t i;
__asm__("bsfl %1, %0" : "=r" (i) : "rm" (n));
return i;
#elif defined(_MSC_VER) && _MSC_VER >= 1400
uint32_t i;
_BitScanForward(&i, n);
return i;
#else
uint32_t i = 0;
if ((n & UINT32_C(0x0000FFFF)) == 0) {
n >>= 16;
i = 16;
}
if ((n & UINT32_C(0x000000FF)) == 0) {
n >>= 8;
i += 8;
}
if ((n & UINT32_C(0x0000000F)) == 0) {
n >>= 4;
i += 4;
}
if ((n & UINT32_C(0x00000003)) == 0) {
n >>= 2;
i += 2;
}
if ((n & UINT32_C(0x00000001)) == 0)
++i;
return i;
#endif
}
#define bsf32 ctz32
#endif
game/client/third/minizip/lib/liblzma/config.h
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/* config.h. Generated from config.h.in by configure. */
/* config.h.in. Generated from configure.ac by autoheader. */
/* Define if building universal (internal helper macro) */
/* #undef AC_APPLE_UNIVERSAL_BUILD */
/* How many MiB of RAM to assume if the real amount cannot be determined. */
#define ASSUME_RAM 128
/* Define to 1 if translation of program messages to the user's native
language is requested. */
/* #undef ENABLE_NLS */
/* Define to 1 if bswap_16 is available. */
/* #undef HAVE_BSWAP_16 */
/* Define to 1 if bswap_32 is available. */
/* #undef HAVE_BSWAP_32 */
/* Define to 1 if bswap_64 is available. */
/* #undef HAVE_BSWAP_64 */
/* Define to 1 if you have the <byteswap.h> header file. */
/* #undef HAVE_BYTESWAP_H */
/* Define to 1 if the system has the type `CC_SHA256_CTX'. */
/* #undef HAVE_CC_SHA256_CTX */
/* Define to 1 if you have the `CC_SHA256_Init' function. */
/* #undef HAVE_CC_SHA256_INIT */
/* Define to 1 if you have the MacOS X function CFLocaleCopyCurrent in the
CoreFoundation framework. */
/* #undef HAVE_CFLOCALECOPYCURRENT */
/* Define to 1 if you have the MacOS X function CFPreferencesCopyAppValue in
the CoreFoundation framework. */
/* #undef HAVE_CFPREFERENCESCOPYAPPVALUE */
/* Define to 1 if crc32 integrity check is enabled. */
/* #undef HAVE_CHECK_CRC32 */
/* Define to 1 if crc64 integrity check is enabled. */
/* #undef HAVE_CHECK_CRC64 */
/* Define to 1 if sha256 integrity check is enabled. */
/* #undef HAVE_CHECK_SHA256 */
/* Define to 1 if you have the `clock_gettime' function. */
#define HAVE_CLOCK_GETTIME 1
/* Define to 1 if you have the <CommonCrypto/CommonDigest.h> header file. */
/* #undef HAVE_COMMONCRYPTO_COMMONDIGEST_H */
/* Define if the GNU dcgettext() function is already present or preinstalled.
*/
/* #undef HAVE_DCGETTEXT */
/* Define to 1 if you have the declaration of `CLOCK_MONOTONIC', and to 0 if
you don't. */
#define HAVE_DECL_CLOCK_MONOTONIC 1
/* Define to 1 if you have the declaration of `program_invocation_name', and
to 0 if you don't. */
#define HAVE_DECL_PROGRAM_INVOCATION_NAME 0
/* Define to 1 if arm decoder is enabled. */
/* #undef HAVE_DECODER_ARM */
/* Define to 1 if armthumb decoder is enabled. */
/* #undef HAVE_DECODER_ARMTHUMB */
/* Define to 1 if delta decoder is enabled. */
/* #undef HAVE_DECODER_DELTA */
/* Define to 1 if ia64 decoder is enabled. */
/* #undef HAVE_DECODER_IA64 */
/* Define to 1 if lzma1 decoder is enabled. */
#define HAVE_DECODER_LZMA1 1
/* Define to 1 if lzma2 decoder is enabled. */
/* #undef HAVE_DECODER_LZMA2 */
/* Define to 1 if powerpc decoder is enabled. */
/* #undef HAVE_DECODER_POWERPC */
/* Define to 1 if sparc decoder is enabled. */
/* #undef HAVE_DECODER_SPARC */
/* Define to 1 if x86 decoder is enabled. */
/* #undef HAVE_DECODER_X86 */
/* Define to 1 if you have the <dlfcn.h> header file. */
/* #undef HAVE_DLFCN_H */
/* Define to 1 if arm encoder is enabled. */
/* #undef HAVE_ENCODER_ARM */
/* Define to 1 if armthumb encoder is enabled. */
/* #undef HAVE_ENCODER_ARMTHUMB */
/* Define to 1 if delta encoder is enabled. */
/* #undef HAVE_ENCODER_DELTA */
/* Define to 1 if ia64 encoder is enabled. */
/* #undef HAVE_ENCODER_IA64 */
/* Define to 1 if lzma1 encoder is enabled. */
#define HAVE_ENCODER_LZMA1 1
/* Define to 1 if lzma2 encoder is enabled. */
/* #undef HAVE_ENCODER_LZMA2 */
/* Define to 1 if powerpc encoder is enabled. */
/* #undef HAVE_ENCODER_POWERPC */
/* Define to 1 if sparc encoder is enabled. */
/* #undef HAVE_ENCODER_SPARC */
/* Define to 1 if x86 encoder is enabled. */
/* #undef HAVE_ENCODER_X86 */
/* Define to 1 if you have the <fcntl.h> header file. */
#define HAVE_FCNTL_H 1
/* Define to 1 if you have the `futimens' function. */
/* #undef HAVE_FUTIMENS */
/* Define to 1 if you have the `futimes' function. */
/* #undef HAVE_FUTIMES */
/* Define to 1 if you have the `futimesat' function. */
/* #undef HAVE_FUTIMESAT */
/* Define to 1 if you have the <getopt.h> header file. */
#define HAVE_GETOPT_H 1
/* Define to 1 if you have the `getopt_long' function. */
#define HAVE_GETOPT_LONG 1
/* Define if the GNU gettext() function is already present or preinstalled. */
/* #undef HAVE_GETTEXT */
/* Define if you have the iconv() function and it works. */
/* #undef HAVE_ICONV */
/* Define to 1 if you have the <immintrin.h> header file. */
#define HAVE_IMMINTRIN_H 1
/* Define to 1 if you have the <inttypes.h> header file. */
#define HAVE_INTTYPES_H 1
/* Define to 1 if you have the <limits.h> header file. */
#define HAVE_LIMITS_H 1
/* Define to 1 if mbrtowc and mbstate_t are properly declared. */
#define HAVE_MBRTOWC 1
/* Define to 1 if you have the <memory.h> header file. */
#define HAVE_MEMORY_H 1
/* Define to 1 to enable bt2 match finder. */
#define HAVE_MF_BT2 1
/* Define to 1 to enable bt3 match finder. */
#define HAVE_MF_BT3 1
/* Define to 1 to enable bt4 match finder. */
#define HAVE_MF_BT4 1
/* Define to 1 to enable hc3 match finder. */
#define HAVE_MF_HC3 1
/* Define to 1 to enable hc4 match finder. */
#define HAVE_MF_HC4 1
/* Define to 1 if you have the <minix/sha2.h> header file. */
/* #undef HAVE_MINIX_SHA2_H */
/* Define to 1 if getopt.h declares extern int optreset. */
/* #undef HAVE_OPTRESET */
/* Define to 1 if you have the `pipe2' function. */
/* #undef HAVE_PIPE2 */
/* Define to 1 if you have the `posix_fadvise' function. */
/* #undef HAVE_POSIX_FADVISE */
/* Define to 1 if you have the `pthread_condattr_setclock' function. */
/* #undef HAVE_PTHREAD_CONDATTR_SETCLOCK */
/* Have PTHREAD_PRIO_INHERIT. */
/* #undef HAVE_PTHREAD_PRIO_INHERIT */
/* Define to 1 if you have the `SHA256Init' function. */
/* #undef HAVE_SHA256INIT */
/* Define to 1 if the system has the type `SHA256_CTX'. */
/* #undef HAVE_SHA256_CTX */
/* Define to 1 if you have the <sha256.h> header file. */
/* #undef HAVE_SHA256_H */
/* Define to 1 if you have the `SHA256_Init' function. */
/* #undef HAVE_SHA256_INIT */
/* Define to 1 if the system has the type `SHA2_CTX'. */
/* #undef HAVE_SHA2_CTX */
/* Define to 1 if you have the <sha2.h> header file. */
/* #undef HAVE_SHA2_H */
/* Define to 1 if optimizing for size. */
/* #undef HAVE_SMALL */
/* Define to 1 if stdbool.h conforms to C99. */
#define HAVE_STDBOOL_H 1
/* Define to 1 if you have the <stdint.h> header file. */
#define HAVE_STDINT_H 1
/* Define to 1 if you have the <stdlib.h> header file. */
#define HAVE_STDLIB_H 1
/* Define to 1 if you have the <strings.h> header file. */
/* #undef HAVE_STRINGS_H */
/* Define to 1 if you have the <string.h> header file. */
#define HAVE_STRING_H 1
/* Define to 1 if `st_atimensec' is a member of `struct stat'. */
/* #undef HAVE_STRUCT_STAT_ST_ATIMENSEC */
/* Define to 1 if `st_atimespec.tv_nsec' is a member of `struct stat'. */
/* #undef HAVE_STRUCT_STAT_ST_ATIMESPEC_TV_NSEC */
/* Define to 1 if `st_atim.st__tim.tv_nsec' is a member of `struct stat'. */
/* #undef HAVE_STRUCT_STAT_ST_ATIM_ST__TIM_TV_NSEC */
/* Define to 1 if `st_atim.tv_nsec' is a member of `struct stat'. */
/* #undef HAVE_STRUCT_STAT_ST_ATIM_TV_NSEC */
/* Define to 1 if `st_uatime' is a member of `struct stat'. */
/* #undef HAVE_STRUCT_STAT_ST_UATIME */
/* Define to 1 if you have the <sys/byteorder.h> header file. */
/* #undef HAVE_SYS_BYTEORDER_H */
/* Define to 1 if you have the <sys/endian.h> header file. */
/* #undef HAVE_SYS_ENDIAN_H */
/* Define to 1 if you have the <sys/param.h> header file. */
#define HAVE_SYS_PARAM_H 1
/* Define to 1 if you have the <sys/stat.h> header file. */
#define HAVE_SYS_STAT_H 1
/* Define to 1 if you have the <sys/time.h> header file. */
#define HAVE_SYS_TIME_H 1
/* Define to 1 if you have the <sys/types.h> header file. */
#define HAVE_SYS_TYPES_H 1
/* Define to 1 if the system has the type `uintptr_t'. */
#define HAVE_UINTPTR_T 1
/* Define to 1 if you have the <unistd.h> header file. */
#define HAVE_UNISTD_H 1
/* Define to 1 if you have the `utime' function. */
#define HAVE_UTIME 1
/* Define to 1 if you have the `utimes' function. */
/* #undef HAVE_UTIMES */
/* Define to 1 or 0, depending whether the compiler supports simple visibility
declarations. */
#define HAVE_VISIBILITY 1
/* Define to 1 if you have the `wcwidth' function. */
/* #undef HAVE_WCWIDTH */
/* Define to 1 if the system has the type `_Bool'. */
#define HAVE__BOOL 1
/* Define to 1 if _mm_movemask_epi8 is available. */
#define HAVE__MM_MOVEMASK_EPI8 1
/* Define to the sub-directory where libtool stores uninstalled libraries. */
#define LT_OBJDIR ".libs/"
/* Define to 1 when using POSIX threads (pthreads). */
/* #undef MYTHREAD_POSIX */
#ifdef _WIN64
/* Define to 1 when using Windows Vista compatible threads. This uses features
that are not available on Windows XP. */
# define MYTHREAD_VISTA 1
#else
/* Define to 1 when using Windows 95 (and thus XP) compatible threads. This
avoids use of features that were added in Windows Vista.
This is used for 32-bit x86 builds for compatibility reasons since it
makes no measurable difference in performance compared to Vista threads. */
# define MYTHREAD_WIN95 1
#endif
/* Define to 1 to disable debugging code. */
#define NDEBUG 1
/* Name of package */
#define PACKAGE "xz"
/* Define to the address where bug reports for this package should be sent. */
#define PACKAGE_BUGREPORT "lasse.collin@tukaani.org"
/* Define to the full name of this package. */
#define PACKAGE_NAME "XZ Utils"
/* Define to the full name and version of this package. */
#define PACKAGE_STRING "XZ Utils 5.2.3"
/* Define to the one symbol short name of this package. */
#define PACKAGE_TARNAME "xz"
/* Define to the home page for this package. */
#define PACKAGE_URL "http://tukaani.org/xz/"
/* Define to the version of this package. */
#define PACKAGE_VERSION "5.2.3"
/* Define to necessary symbol if this constant uses a non-standard name on
your system. */
/* #undef PTHREAD_CREATE_JOINABLE */
/* The size of `size_t', as computed by sizeof. */
#ifdef _WIN64
# define SIZEOF_SIZE_T 8
#else
# define SIZEOF_SIZE_T 4
#endif
/* Define to 1 if you have the ANSI C header files. */
#define STDC_HEADERS 1
/* Define to 1 if the number of available CPU cores can be detected with
cpuset(2). */
/* #undef TUKLIB_CPUCORES_CPUSET */
/* Define to 1 if the number of available CPU cores can be detected with
pstat_getdynamic(). */
/* #undef TUKLIB_CPUCORES_PSTAT_GETDYNAMIC */
/* Define to 1 if the number of available CPU cores can be detected with
sysconf(_SC_NPROCESSORS_ONLN) or sysconf(_SC_NPROC_ONLN). */
/* #undef TUKLIB_CPUCORES_SYSCONF */
/* Define to 1 if the number of available CPU cores can be detected with
sysctl(). */
/* #undef TUKLIB_CPUCORES_SYSCTL */
/* Define to 1 if the system supports fast unaligned access to 16-bit and
32-bit integers. */
#define TUKLIB_FAST_UNALIGNED_ACCESS 1
/* Define to 1 if the amount of physical memory can be detected with
_system_configuration.physmem. */
/* #undef TUKLIB_PHYSMEM_AIX */
/* Define to 1 if the amount of physical memory can be detected with
getinvent_r(). */
/* #undef TUKLIB_PHYSMEM_GETINVENT_R */
/* Define to 1 if the amount of physical memory can be detected with
getsysinfo(). */
/* #undef TUKLIB_PHYSMEM_GETSYSINFO */
/* Define to 1 if the amount of physical memory can be detected with
pstat_getstatic(). */
/* #undef TUKLIB_PHYSMEM_PSTAT_GETSTATIC */
/* Define to 1 if the amount of physical memory can be detected with
sysconf(_SC_PAGESIZE) and sysconf(_SC_PHYS_PAGES). */
/* #undef TUKLIB_PHYSMEM_SYSCONF */
/* Define to 1 if the amount of physical memory can be detected with sysctl().
*/
/* #undef TUKLIB_PHYSMEM_SYSCTL */
/* Define to 1 if the amount of physical memory can be detected with Linux
sysinfo(). */
/* #undef TUKLIB_PHYSMEM_SYSINFO */
/* Enable extensions on AIX 3, Interix. */
#ifndef _ALL_SOURCE
# define _ALL_SOURCE 1
#endif
/* Enable GNU extensions on systems that have them. */
#ifndef _GNU_SOURCE
# define _GNU_SOURCE 1
#endif
/* Enable threading extensions on Solaris. */
#ifndef _POSIX_PTHREAD_SEMANTICS
# define _POSIX_PTHREAD_SEMANTICS 1
#endif
/* Enable extensions on HP NonStop. */
#ifndef _TANDEM_SOURCE
# define _TANDEM_SOURCE 1
#endif
/* Enable general extensions on Solaris. */
#ifndef __EXTENSIONS__
# define __EXTENSIONS__ 1
#endif
/* Version number of package */
#define VERSION "5.2.3"
/* Define WORDS_BIGENDIAN to 1 if your processor stores words with the most
significant byte first (like Motorola and SPARC, unlike Intel). */
#if defined AC_APPLE_UNIVERSAL_BUILD
# if defined __BIG_ENDIAN__
# define WORDS_BIGENDIAN 1
# endif
#else
# ifndef WORDS_BIGENDIAN
/* # undef WORDS_BIGENDIAN */
# endif
#endif
/* Enable large inode numbers on Mac OS X 10.5. */
#ifndef _DARWIN_USE_64_BIT_INODE
# define _DARWIN_USE_64_BIT_INODE 1
#endif
/* Number of bits in a file offset, on hosts where this is settable. */
#define _FILE_OFFSET_BITS 64
/* Define for large files, on AIX-style hosts. */
/* #undef _LARGE_FILES */
/* Define to 1 if on MINIX. */
/* #undef _MINIX */
/* Define to 2 if the system does not provide POSIX.1 features except with
this defined. */
/* #undef _POSIX_1_SOURCE */
/* Define to 1 if you need to in order for `stat' and other things to work. */
/* #undef _POSIX_SOURCE */
/* Define for Solaris 2.5.1 so the uint32_t typedef from <sys/synch.h>,
<pthread.h>, or <semaphore.h> is not used. If the typedef were allowed, the
#define below would cause a syntax error. */
/* #undef _UINT32_T */
/* Define for Solaris 2.5.1 so the uint64_t typedef from <sys/synch.h>,
<pthread.h>, or <semaphore.h> is not used. If the typedef were allowed, the
#define below would cause a syntax error. */
/* #undef _UINT64_T */
/* Define for Solaris 2.5.1 so the uint8_t typedef from <sys/synch.h>,
<pthread.h>, or <semaphore.h> is not used. If the typedef were allowed, the
#define below would cause a syntax error. */
/* #undef _UINT8_T */
/* Define to rpl_ if the getopt replacement functions and variables should be
used. */
/* #undef __GETOPT_PREFIX */
/* Define to the type of a signed integer type of width exactly 32 bits if
such a type exists and the standard includes do not define it. */
/* #undef int32_t */
/* Define to the type of a signed integer type of width exactly 64 bits if
such a type exists and the standard includes do not define it. */
/* #undef int64_t */
/* Define to the type of an unsigned integer type of width exactly 16 bits if
such a type exists and the standard includes do not define it. */
/* #undef uint16_t */
/* Define to the type of an unsigned integer type of width exactly 32 bits if
such a type exists and the standard includes do not define it. */
/* #undef uint32_t */
/* Define to the type of an unsigned integer type of width exactly 64 bits if
such a type exists and the standard includes do not define it. */
/* #undef uint64_t */
/* Define to the type of an unsigned integer type of width exactly 8 bits if
such a type exists and the standard includes do not define it. */
/* #undef uint8_t */
/* Define to the type of an unsigned integer type wide enough to hold a
pointer, if such a type exists, and if the system does not define it. */
/* #undef uintptr_t */
game/client/third/minizip/lib/liblzma/lz/lz_decoder.c
Executable
+306
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@@ -0,0 +1,306 @@
///////////////////////////////////////////////////////////////////////////////
//
/// \file lz_decoder.c
/// \brief LZ out window
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
// liblzma supports multiple LZ77-based filters. The LZ part is shared
// between these filters. The LZ code takes care of dictionary handling
// and passing the data between filters in the chain. The filter-specific
// part decodes from the input buffer to the dictionary.
#include "lz_decoder.h"
typedef struct {
/// Dictionary (history buffer)
lzma_dict dict;
/// The actual LZ-based decoder e.g. LZMA
lzma_lz_decoder lz;
/// Next filter in the chain, if any. Note that LZMA and LZMA2 are
/// only allowed as the last filter, but the long-range filter in
/// future can be in the middle of the chain.
lzma_next_coder next;
/// True if the next filter in the chain has returned LZMA_STREAM_END.
bool next_finished;
/// True if the LZ decoder (e.g. LZMA) has detected end of payload
/// marker. This may become true before next_finished becomes true.
bool this_finished;
/// Temporary buffer needed when the LZ-based filter is not the last
/// filter in the chain. The output of the next filter is first
/// decoded into buffer[], which is then used as input for the actual
/// LZ-based decoder.
struct {
size_t pos;
size_t size;
uint8_t buffer[LZMA_BUFFER_SIZE];
} temp;
} lzma_coder;
static void
lz_decoder_reset(lzma_coder *coder)
{
coder->dict.pos = 0;
coder->dict.full = 0;
coder->dict.buf[coder->dict.size - 1] = '\0';
coder->dict.need_reset = false;
return;
}
static lzma_ret
decode_buffer(lzma_coder *coder,
const uint8_t *restrict in, size_t *restrict in_pos,
size_t in_size, uint8_t *restrict out,
size_t *restrict out_pos, size_t out_size)
{
while (true) {
// Wrap the dictionary if needed.
if (coder->dict.pos == coder->dict.size)
coder->dict.pos = 0;
// Store the current dictionary position. It is needed to know
// where to start copying to the out[] buffer.
const size_t dict_start = coder->dict.pos;
// Calculate how much we allow coder->lz.code() to decode.
// It must not decode past the end of the dictionary
// buffer, and we don't want it to decode more than is
// actually needed to fill the out[] buffer.
coder->dict.limit = coder->dict.pos
+ my_min(out_size - *out_pos,
coder->dict.size - coder->dict.pos);
// Call the coder->lz.code() to do the actual decoding.
const lzma_ret ret = coder->lz.code(
coder->lz.coder, &coder->dict,
in, in_pos, in_size);
// Copy the decoded data from the dictionary to the out[]
// buffer.
const size_t copy_size = coder->dict.pos - dict_start;
assert(copy_size <= out_size - *out_pos);
memcpy(out + *out_pos, coder->dict.buf + dict_start,
copy_size);
*out_pos += copy_size;
// Reset the dictionary if so requested by coder->lz.code().
if (coder->dict.need_reset) {
lz_decoder_reset(coder);
// Since we reset dictionary, we don't check if
// dictionary became full.
if (ret != LZMA_OK || *out_pos == out_size)
return ret;
} else {
// Return if everything got decoded or an error
// occurred, or if there's no more data to decode.
//
// Note that detecting if there's something to decode
// is done by looking if dictionary become full
// instead of looking if *in_pos == in_size. This
// is because it is possible that all the input was
// consumed already but some data is pending to be
// written to the dictionary.
if (ret != LZMA_OK || *out_pos == out_size
|| coder->dict.pos < coder->dict.size)
return ret;
}
}
}
static lzma_ret
lz_decode(void *coder_ptr,
const lzma_allocator *allocator lzma_attribute((__unused__)),
const uint8_t *restrict in, size_t *restrict in_pos,
size_t in_size, uint8_t *restrict out,
size_t *restrict out_pos, size_t out_size,
lzma_action action)
{
lzma_coder *coder = coder_ptr;
if (coder->next.code == NULL)
return decode_buffer(coder, in, in_pos, in_size,
out, out_pos, out_size);
// We aren't the last coder in the chain, we need to decode
// our input to a temporary buffer.
while (*out_pos < out_size) {
// Fill the temporary buffer if it is empty.
if (!coder->next_finished
&& coder->temp.pos == coder->temp.size) {
coder->temp.pos = 0;
coder->temp.size = 0;
const lzma_ret ret = coder->next.code(
coder->next.coder,
allocator, in, in_pos, in_size,
coder->temp.buffer, &coder->temp.size,
LZMA_BUFFER_SIZE, action);
if (ret == LZMA_STREAM_END)
coder->next_finished = true;
else if (ret != LZMA_OK || coder->temp.size == 0)
return ret;
}
if (coder->this_finished) {
if (coder->temp.size != 0)
return LZMA_DATA_ERROR;
if (coder->next_finished)
return LZMA_STREAM_END;
return LZMA_OK;
}
const lzma_ret ret = decode_buffer(coder, coder->temp.buffer,
&coder->temp.pos, coder->temp.size,
out, out_pos, out_size);
if (ret == LZMA_STREAM_END)
coder->this_finished = true;
else if (ret != LZMA_OK)
return ret;
else if (coder->next_finished && *out_pos < out_size)
return LZMA_DATA_ERROR;
}
return LZMA_OK;
}
static void
lz_decoder_end(void *coder_ptr, const lzma_allocator *allocator)
{
lzma_coder *coder = coder_ptr;
lzma_next_end(&coder->next, allocator);
lzma_free(coder->dict.buf, allocator);
if (coder->lz.end != NULL)
coder->lz.end(coder->lz.coder, allocator);
else
lzma_free(coder->lz.coder, allocator);
lzma_free(coder, allocator);
return;
}
extern lzma_ret
lzma_lz_decoder_init(lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter_info *filters,
lzma_ret (*lz_init)(lzma_lz_decoder *lz,
const lzma_allocator *allocator, const void *options,
lzma_lz_options *lz_options))
{
// Allocate the base structure if it isn't already allocated.
lzma_coder *coder = next->coder;
if (coder == NULL) {
coder = lzma_alloc(sizeof(lzma_coder), allocator);
if (coder == NULL)
return LZMA_MEM_ERROR;
next->coder = coder;
next->code = &lz_decode;
next->end = &lz_decoder_end;
coder->dict.buf = NULL;
coder->dict.size = 0;
coder->lz = LZMA_LZ_DECODER_INIT;
coder->next = LZMA_NEXT_CODER_INIT;
}
// Allocate and initialize the LZ-based decoder. It will also give
// us the dictionary size.
lzma_lz_options lz_options;
return_if_error(lz_init(&coder->lz, allocator,
filters[0].options, &lz_options));
// If the dictionary size is very small, increase it to 4096 bytes.
// This is to prevent constant wrapping of the dictionary, which
// would slow things down. The downside is that since we don't check
// separately for the real dictionary size, we may happily accept
// corrupt files.
if (lz_options.dict_size < 4096)
lz_options.dict_size = 4096;
// Make dictionary size a multipe of 16. Some LZ-based decoders like
// LZMA use the lowest bits lzma_dict.pos to know the alignment of the
// data. Aligned buffer is also good when memcpying from the
// dictionary to the output buffer, since applications are
// recommended to give aligned buffers to liblzma.
//
// Avoid integer overflow.
if (lz_options.dict_size > SIZE_MAX - 15)
return LZMA_MEM_ERROR;
lz_options.dict_size = (lz_options.dict_size + 15) & ~((size_t)(15));
// Allocate and initialize the dictionary.
if (coder->dict.size != lz_options.dict_size) {
lzma_free(coder->dict.buf, allocator);
coder->dict.buf
= lzma_alloc(lz_options.dict_size, allocator);
if (coder->dict.buf == NULL)
return LZMA_MEM_ERROR;
coder->dict.size = lz_options.dict_size;
}
lz_decoder_reset(next->coder);
// Use the preset dictionary if it was given to us.
if (lz_options.preset_dict != NULL
&& lz_options.preset_dict_size > 0) {
// If the preset dictionary is bigger than the actual
// dictionary, copy only the tail.
const size_t copy_size = my_min(lz_options.preset_dict_size,
lz_options.dict_size);
const size_t offset = lz_options.preset_dict_size - copy_size;
memcpy(coder->dict.buf, lz_options.preset_dict + offset,
copy_size);
coder->dict.pos = copy_size;
coder->dict.full = copy_size;
}
// Miscellaneous initializations
coder->next_finished = false;
coder->this_finished = false;
coder->temp.pos = 0;
coder->temp.size = 0;
// Initialize the next filter in the chain, if any.
return lzma_next_filter_init(&coder->next, allocator, filters + 1);
}
extern uint64_t
lzma_lz_decoder_memusage(size_t dictionary_size)
{
return sizeof(lzma_coder) + (uint64_t)(dictionary_size);
}
extern void
lzma_lz_decoder_uncompressed(void *coder_ptr, lzma_vli uncompressed_size)
{
lzma_coder *coder = coder_ptr;
coder->lz.set_uncompressed(coder->lz.coder, uncompressed_size);
}
game/client/third/minizip/lib/liblzma/lz/lz_decoder.h
Executable
+234
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lz_decoder.h
/// \brief LZ out window
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_LZ_DECODER_H
#define LZMA_LZ_DECODER_H
#include "common.h"
typedef struct {
/// Pointer to the dictionary buffer. It can be an allocated buffer
/// internal to liblzma, or it can a be a buffer given by the
/// application when in single-call mode (not implemented yet).
uint8_t *buf;
/// Write position in dictionary. The next byte will be written to
/// buf[pos].
size_t pos;
/// Indicates how full the dictionary is. This is used by
/// dict_is_distance_valid() to detect corrupt files that would
/// read beyond the beginning of the dictionary.
size_t full;
/// Write limit
size_t limit;
/// Size of the dictionary
size_t size;
/// True when dictionary should be reset before decoding more data.
bool need_reset;
} lzma_dict;
typedef struct {
size_t dict_size;
const uint8_t *preset_dict;
size_t preset_dict_size;
} lzma_lz_options;
typedef struct {
/// Data specific to the LZ-based decoder
void *coder;
/// Function to decode from in[] to *dict
lzma_ret (*code)(void *coder,
lzma_dict *restrict dict, const uint8_t *restrict in,
size_t *restrict in_pos, size_t in_size);
void (*reset)(void *coder, const void *options);
/// Set the uncompressed size
void (*set_uncompressed)(void *coder, lzma_vli uncompressed_size);
/// Free allocated resources
void (*end)(void *coder, const lzma_allocator *allocator);
} lzma_lz_decoder;
#define LZMA_LZ_DECODER_INIT \
(lzma_lz_decoder){ \
.coder = NULL, \
.code = NULL, \
.reset = NULL, \
.set_uncompressed = NULL, \
.end = NULL, \
}
extern lzma_ret lzma_lz_decoder_init(lzma_next_coder *next,
const lzma_allocator *allocator,
const lzma_filter_info *filters,
lzma_ret (*lz_init)(lzma_lz_decoder *lz,
const lzma_allocator *allocator, const void *options,
lzma_lz_options *lz_options));
extern uint64_t lzma_lz_decoder_memusage(size_t dictionary_size);
extern void lzma_lz_decoder_uncompressed(
void *coder, lzma_vli uncompressed_size);
//////////////////////
// Inline functions //
//////////////////////
/// Get a byte from the history buffer.
static inline uint8_t
dict_get(const lzma_dict *const dict, const uint32_t distance)
{
return dict->buf[dict->pos - distance - 1
+ (distance < dict->pos ? 0 : dict->size)];
}
/// Test if dictionary is empty.
static inline bool
dict_is_empty(const lzma_dict *const dict)
{
return dict->full == 0;
}
/// Validate the match distance
static inline bool
dict_is_distance_valid(const lzma_dict *const dict, const size_t distance)
{
return dict->full > distance;
}
/// Repeat *len bytes at distance.
static inline bool
dict_repeat(lzma_dict *dict, uint32_t distance, uint32_t *len)
{
// Don't write past the end of the dictionary.
const size_t dict_avail = dict->limit - dict->pos;
uint32_t left = my_min(dict_avail, *len);
*len -= left;
// Repeat a block of data from the history. Because memcpy() is faster
// than copying byte by byte in a loop, the copying process gets split
// into three cases.
if (distance < left) {
// Source and target areas overlap, thus we can't use
// memcpy() nor even memmove() safely.
do {
dict->buf[dict->pos] = dict_get(dict, distance);
++dict->pos;
} while (--left > 0);
} else if (distance < dict->pos) {
// The easiest and fastest case
memcpy(dict->buf + dict->pos,
dict->buf + dict->pos - distance - 1,
left);
dict->pos += left;
} else {
// The bigger the dictionary, the more rare this
// case occurs. We need to "wrap" the dict, thus
// we might need two memcpy() to copy all the data.
assert(dict->full == dict->size);
const uint32_t copy_pos
= dict->pos - distance - 1 + dict->size;
uint32_t copy_size = dict->size - copy_pos;
if (copy_size < left) {
memmove(dict->buf + dict->pos, dict->buf + copy_pos,
copy_size);
dict->pos += copy_size;
copy_size = left - copy_size;
memcpy(dict->buf + dict->pos, dict->buf, copy_size);
dict->pos += copy_size;
} else {
memmove(dict->buf + dict->pos, dict->buf + copy_pos,
left);
dict->pos += left;
}
}
// Update how full the dictionary is.
if (dict->full < dict->pos)
dict->full = dict->pos;
return unlikely(*len != 0);
}
/// Puts one byte into the dictionary. Returns true if the dictionary was
/// already full and the byte couldn't be added.
static inline bool
dict_put(lzma_dict *dict, uint8_t byte)
{
if (unlikely(dict->pos == dict->limit))
return true;
dict->buf[dict->pos++] = byte;
if (dict->pos > dict->full)
dict->full = dict->pos;
return false;
}
/// Copies arbitrary amount of data into the dictionary.
static inline void
dict_write(lzma_dict *restrict dict, const uint8_t *restrict in,
size_t *restrict in_pos, size_t in_size,
size_t *restrict left)
{
// NOTE: If we are being given more data than the size of the
// dictionary, it could be possible to optimize the LZ decoder
// so that not everything needs to go through the dictionary.
// This shouldn't be very common thing in practice though, and
// the slowdown of one extra memcpy() isn't bad compared to how
// much time it would have taken if the data were compressed.
if (in_size - *in_pos > *left)
in_size = *in_pos + *left;
*left -= lzma_bufcpy(in, in_pos, in_size,
dict->buf, &dict->pos, dict->limit);
if (dict->pos > dict->full)
dict->full = dict->pos;
return;
}
static inline void
dict_reset(lzma_dict *dict)
{
dict->need_reset = true;
return;
}
#endif
game/client/third/minizip/lib/liblzma/lz/lz_encoder.c
Executable
+616
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@@ -0,0 +1,616 @@
///////////////////////////////////////////////////////////////////////////////
//
/// \file lz_encoder.c
/// \brief LZ in window
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "lz_encoder.h"
#include "lz_encoder_hash.h"
// See lz_encoder_hash.h. This is a bit hackish but avoids making
// endianness a conditional in makefiles.
#if defined(WORDS_BIGENDIAN) && !defined(HAVE_SMALL)
# include "lz_encoder_hash_table.h"
#endif
#include "memcmplen.h"
typedef struct {
/// LZ-based encoder e.g. LZMA
lzma_lz_encoder lz;
/// History buffer and match finder
lzma_mf mf;
/// Next coder in the chain
lzma_next_coder next;
} lzma_coder;
/// \brief Moves the data in the input window to free space for new data
///
/// mf->buffer is a sliding input window, which keeps mf->keep_size_before
/// bytes of input history available all the time. Now and then we need to
/// "slide" the buffer to make space for the new data to the end of the
/// buffer. At the same time, data older than keep_size_before is dropped.
///
static void
move_window(lzma_mf *mf)
{
// Align the move to a multiple of 16 bytes. Some LZ-based encoders
// like LZMA use the lowest bits of mf->read_pos to know the
// alignment of the uncompressed data. We also get better speed
// for memmove() with aligned buffers.
assert(mf->read_pos > mf->keep_size_before);
const uint32_t move_offset
= (mf->read_pos - mf->keep_size_before) & ~UINT32_C(15);
assert(mf->write_pos > move_offset);
const size_t move_size = mf->write_pos - move_offset;
assert(move_offset + move_size <= mf->size);
memmove(mf->buffer, mf->buffer + move_offset, move_size);
mf->offset += move_offset;
mf->read_pos -= move_offset;
mf->read_limit -= move_offset;
mf->write_pos -= move_offset;
return;
}
/// \brief Tries to fill the input window (mf->buffer)
///
/// If we are the last encoder in the chain, our input data is in in[].
/// Otherwise we call the next filter in the chain to process in[] and
/// write its output to mf->buffer.
///
/// This function must not be called once it has returned LZMA_STREAM_END.
///
static lzma_ret
fill_window(lzma_coder *coder, const lzma_allocator *allocator,
const uint8_t *in, size_t *in_pos, size_t in_size,
lzma_action action)
{
assert(coder->mf.read_pos <= coder->mf.write_pos);
// Move the sliding window if needed.
if (coder->mf.read_pos >= coder->mf.size - coder->mf.keep_size_after)
move_window(&coder->mf);
// Maybe this is ugly, but lzma_mf uses uint32_t for most things
// (which I find cleanest), but we need size_t here when filling
// the history window.
size_t write_pos = coder->mf.write_pos;
lzma_ret ret;
if (coder->next.code == NULL) {
// Not using a filter, simply memcpy() as much as possible.
lzma_bufcpy(in, in_pos, in_size, coder->mf.buffer,
&write_pos, coder->mf.size);
ret = action != LZMA_RUN && *in_pos == in_size
? LZMA_STREAM_END : LZMA_OK;
} else {
ret = coder->next.code(coder->next.coder, allocator,
in, in_pos, in_size,
coder->mf.buffer, &write_pos,
coder->mf.size, action);
}
coder->mf.write_pos = write_pos;
// Silence Valgrind. lzma_memcmplen() can read extra bytes
// and Valgrind will give warnings if those bytes are uninitialized
// because Valgrind cannot see that the values of the uninitialized
// bytes are eventually ignored.
memzero(coder->mf.buffer + write_pos, LZMA_MEMCMPLEN_EXTRA);
// If end of stream has been reached or flushing completed, we allow
// the encoder to process all the input (that is, read_pos is allowed
// to reach write_pos). Otherwise we keep keep_size_after bytes
// available as prebuffer.
if (ret == LZMA_STREAM_END) {
assert(*in_pos == in_size);
ret = LZMA_OK;
coder->mf.action = action;
coder->mf.read_limit = coder->mf.write_pos;
} else if (coder->mf.write_pos > coder->mf.keep_size_after) {
// This needs to be done conditionally, because if we got
// only little new input, there may be too little input
// to do any encoding yet.
coder->mf.read_limit = coder->mf.write_pos
- coder->mf.keep_size_after;
}
// Restart the match finder after finished LZMA_SYNC_FLUSH.
if (coder->mf.pending > 0
&& coder->mf.read_pos < coder->mf.read_limit) {
// Match finder may update coder->pending and expects it to
// start from zero, so use a temporary variable.
const uint32_t pending = coder->mf.pending;
coder->mf.pending = 0;
// Rewind read_pos so that the match finder can hash
// the pending bytes.
assert(coder->mf.read_pos >= pending);
coder->mf.read_pos -= pending;
// Call the skip function directly instead of using
// mf_skip(), since we don't want to touch mf->read_ahead.
coder->mf.skip(&coder->mf, pending);
}
return ret;
}
static lzma_ret
lz_encode(void *coder_ptr, const lzma_allocator *allocator,
const uint8_t *restrict in, size_t *restrict in_pos,
size_t in_size,
uint8_t *restrict out, size_t *restrict out_pos,
size_t out_size, lzma_action action)
{
lzma_coder *coder = coder_ptr;
while (*out_pos < out_size
&& (*in_pos < in_size || action != LZMA_RUN)) {
// Read more data to coder->mf.buffer if needed.
if (coder->mf.action == LZMA_RUN && coder->mf.read_pos
>= coder->mf.read_limit)
return_if_error(fill_window(coder, allocator,
in, in_pos, in_size, action));
// Encode
const lzma_ret ret = coder->lz.code(coder->lz.coder,
&coder->mf, out, out_pos, out_size);
if (ret != LZMA_OK) {
// Setting this to LZMA_RUN for cases when we are
// flushing. It doesn't matter when finishing or if
// an error occurred.
coder->mf.action = LZMA_RUN;
return ret;
}
}
return LZMA_OK;
}
static bool
lz_encoder_prepare(lzma_mf *mf, const lzma_allocator *allocator,
const lzma_lz_options *lz_options)
{
// For now, the dictionary size is limited to 1.5 GiB. This may grow
// in the future if needed, but it needs a little more work than just
// changing this check.
if (lz_options->dict_size < LZMA_DICT_SIZE_MIN
|| lz_options->dict_size
> (UINT32_C(1) << 30) + (UINT32_C(1) << 29)
|| lz_options->nice_len > lz_options->match_len_max)
return true;
mf->keep_size_before = lz_options->before_size + lz_options->dict_size;
mf->keep_size_after = lz_options->after_size
+ lz_options->match_len_max;
// To avoid constant memmove()s, allocate some extra space. Since
// memmove()s become more expensive when the size of the buffer
// increases, we reserve more space when a large dictionary is
// used to make the memmove() calls rarer.
//
// This works with dictionaries up to about 3 GiB. If bigger
// dictionary is wanted, some extra work is needed:
// - Several variables in lzma_mf have to be changed from uint32_t
// to size_t.
// - Memory usage calculation needs something too, e.g. use uint64_t
// for mf->size.
uint32_t reserve = lz_options->dict_size / 2;
if (reserve > (UINT32_C(1) << 30))
reserve /= 2;
reserve += (lz_options->before_size + lz_options->match_len_max
+ lz_options->after_size) / 2 + (UINT32_C(1) << 19);
const uint32_t old_size = mf->size;
mf->size = mf->keep_size_before + reserve + mf->keep_size_after;
// Deallocate the old history buffer if it exists but has different
// size than what is needed now.
if (mf->buffer != NULL && old_size != mf->size) {
lzma_free(mf->buffer, allocator);
mf->buffer = NULL;
}
// Match finder options
mf->match_len_max = lz_options->match_len_max;
mf->nice_len = lz_options->nice_len;
// cyclic_size has to stay smaller than 2 Gi. Note that this doesn't
// mean limiting dictionary size to less than 2 GiB. With a match
// finder that uses multibyte resolution (hashes start at e.g. every
// fourth byte), cyclic_size would stay below 2 Gi even when
// dictionary size is greater than 2 GiB.
//
// It would be possible to allow cyclic_size >= 2 Gi, but then we
// would need to be careful to use 64-bit types in various places
// (size_t could do since we would need bigger than 32-bit address
// space anyway). It would also require either zeroing a multigigabyte
// buffer at initialization (waste of time and RAM) or allow
// normalization in lz_encoder_mf.c to access uninitialized
// memory to keep the code simpler. The current way is simple and
// still allows pretty big dictionaries, so I don't expect these
// limits to change.
mf->cyclic_size = lz_options->dict_size + 1;
// Validate the match finder ID and setup the function pointers.
switch (lz_options->match_finder) {
#ifdef HAVE_MF_HC3
case LZMA_MF_HC3:
mf->find = &lzma_mf_hc3_find;
mf->skip = &lzma_mf_hc3_skip;
break;
#endif
#ifdef HAVE_MF_HC4
case LZMA_MF_HC4:
mf->find = &lzma_mf_hc4_find;
mf->skip = &lzma_mf_hc4_skip;
break;
#endif
#ifdef HAVE_MF_BT2
case LZMA_MF_BT2:
mf->find = &lzma_mf_bt2_find;
mf->skip = &lzma_mf_bt2_skip;
break;
#endif
#ifdef HAVE_MF_BT3
case LZMA_MF_BT3:
mf->find = &lzma_mf_bt3_find;
mf->skip = &lzma_mf_bt3_skip;
break;
#endif
#ifdef HAVE_MF_BT4
case LZMA_MF_BT4:
mf->find = &lzma_mf_bt4_find;
mf->skip = &lzma_mf_bt4_skip;
break;
#endif
default:
return true;
}
// Calculate the sizes of mf->hash and mf->son and check that
// nice_len is big enough for the selected match finder.
const uint32_t hash_bytes = lz_options->match_finder & 0x0F;
if (hash_bytes > mf->nice_len)
return true;
const bool is_bt = (lz_options->match_finder & 0x10) != 0;
uint32_t hs;
if (hash_bytes == 2) {
hs = 0xFFFF;
} else {
// Round dictionary size up to the next 2^n - 1 so it can
// be used as a hash mask.
hs = lz_options->dict_size - 1;
hs |= hs >> 1;
hs |= hs >> 2;
hs |= hs >> 4;
hs |= hs >> 8;
hs >>= 1;
hs |= 0xFFFF;
if (hs > (UINT32_C(1) << 24)) {
if (hash_bytes == 3)
hs = (UINT32_C(1) << 24) - 1;
else
hs >>= 1;
}
}
mf->hash_mask = hs;
++hs;
if (hash_bytes > 2)
hs += HASH_2_SIZE;
if (hash_bytes > 3)
hs += HASH_3_SIZE;
/*
No match finder uses this at the moment.
if (mf->hash_bytes > 4)
hs += HASH_4_SIZE;
*/
const uint32_t old_hash_count = mf->hash_count;
const uint32_t old_sons_count = mf->sons_count;
mf->hash_count = hs;
mf->sons_count = mf->cyclic_size;
if (is_bt)
mf->sons_count *= 2;
// Deallocate the old hash array if it exists and has different size
// than what is needed now.
if (old_hash_count != mf->hash_count
|| old_sons_count != mf->sons_count) {
lzma_free(mf->hash, allocator);
mf->hash = NULL;
lzma_free(mf->son, allocator);
mf->son = NULL;
}
// Maximum number of match finder cycles
mf->depth = lz_options->depth;
if (mf->depth == 0) {
if (is_bt)
mf->depth = 16 + mf->nice_len / 2;
else
mf->depth = 4 + mf->nice_len / 4;
}
return false;
}
static bool
lz_encoder_init(lzma_mf *mf, const lzma_allocator *allocator,
const lzma_lz_options *lz_options)
{
// Allocate the history buffer.
if (mf->buffer == NULL) {
// lzma_memcmplen() is used for the dictionary buffer
// so we need to allocate a few extra bytes to prevent
// it from reading past the end of the buffer.
mf->buffer = lzma_alloc(mf->size + LZMA_MEMCMPLEN_EXTRA,
allocator);
if (mf->buffer == NULL)
return true;
// Keep Valgrind happy with lzma_memcmplen() and initialize
// the extra bytes whose value may get read but which will
// effectively get ignored.
memzero(mf->buffer + mf->size, LZMA_MEMCMPLEN_EXTRA);
}
// Use cyclic_size as initial mf->offset. This allows
// avoiding a few branches in the match finders. The downside is
// that match finder needs to be normalized more often, which may
// hurt performance with huge dictionaries.
mf->offset = mf->cyclic_size;
mf->read_pos = 0;
mf->read_ahead = 0;
mf->read_limit = 0;
mf->write_pos = 0;
mf->pending = 0;
#if UINT32_MAX >= SIZE_MAX / 4
// Check for integer overflow. (Huge dictionaries are not
// possible on 32-bit CPU.)
if (mf->hash_count > SIZE_MAX / sizeof(uint32_t)
|| mf->sons_count > SIZE_MAX / sizeof(uint32_t))
return true;
#endif
// Allocate and initialize the hash table. Since EMPTY_HASH_VALUE
// is zero, we can use lzma_alloc_zero() or memzero() for mf->hash.
//
// We don't need to initialize mf->son, but not doing that may
// make Valgrind complain in normalization (see normalize() in
// lz_encoder_mf.c). Skipping the initialization is *very* good
// when big dictionary is used but only small amount of data gets
// actually compressed: most of the mf->son won't get actually
// allocated by the kernel, so we avoid wasting RAM and improve
// initialization speed a lot.
if (mf->hash == NULL) {
mf->hash = lzma_alloc_zero(mf->hash_count * sizeof(uint32_t),
allocator);
mf->son = lzma_alloc(mf->sons_count * sizeof(uint32_t),
allocator);
if (mf->hash == NULL || mf->son == NULL) {
lzma_free(mf->hash, allocator);
mf->hash = NULL;
lzma_free(mf->son, allocator);
mf->son = NULL;
return true;
}
} else {
/*
for (uint32_t i = 0; i < mf->hash_count; ++i)
mf->hash[i] = EMPTY_HASH_VALUE;
*/
memzero(mf->hash, mf->hash_count * sizeof(uint32_t));
}
mf->cyclic_pos = 0;
// Handle preset dictionary.
if (lz_options->preset_dict != NULL
&& lz_options->preset_dict_size > 0) {
// If the preset dictionary is bigger than the actual
// dictionary, use only the tail.
mf->write_pos = my_min(lz_options->preset_dict_size, mf->size);
memcpy(mf->buffer, lz_options->preset_dict
+ lz_options->preset_dict_size - mf->write_pos,
mf->write_pos);
mf->action = LZMA_SYNC_FLUSH;
mf->skip(mf, mf->write_pos);
}
mf->action = LZMA_RUN;
return false;
}
extern uint64_t
lzma_lz_encoder_memusage(const lzma_lz_options *lz_options)
{
// Old buffers must not exist when calling lz_encoder_prepare().
lzma_mf mf = {
.buffer = NULL,
.hash = NULL,
.son = NULL,
.hash_count = 0,
.sons_count = 0,
};
// Setup the size information into mf.
if (lz_encoder_prepare(&mf, NULL, lz_options))
return UINT64_MAX;
// Calculate the memory usage.
return ((uint64_t)(mf.hash_count) + mf.sons_count) * sizeof(uint32_t)
+ mf.size + sizeof(lzma_coder);
}
static void
lz_encoder_end(void *coder_ptr, const lzma_allocator *allocator)
{
lzma_coder *coder = coder_ptr;
lzma_next_end(&coder->next, allocator);
lzma_free(coder->mf.son, allocator);
lzma_free(coder->mf.hash, allocator);
lzma_free(coder->mf.buffer, allocator);
if (coder->lz.end != NULL)
coder->lz.end(coder->lz.coder, allocator);
else
lzma_free(coder->lz.coder, allocator);
lzma_free(coder, allocator);
return;
}
static lzma_ret
lz_encoder_update(void *coder_ptr, const lzma_allocator *allocator,
const lzma_filter *filters_null lzma_attribute((__unused__)),
const lzma_filter *reversed_filters)
{
lzma_coder *coder = coder_ptr;
if (coder->lz.options_update == NULL)
return LZMA_PROG_ERROR;
return_if_error(coder->lz.options_update(
coder->lz.coder, reversed_filters));
return lzma_next_filter_update(
&coder->next, allocator, reversed_filters + 1);
}
extern lzma_ret
lzma_lz_encoder_init(lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter_info *filters,
lzma_ret (*lz_init)(lzma_lz_encoder *lz,
const lzma_allocator *allocator, const void *options,
lzma_lz_options *lz_options))
{
#ifdef HAVE_SMALL
// We need that the CRC32 table has been initialized.
lzma_crc32_init();
#endif
// Allocate and initialize the base data structure.
lzma_coder *coder = next->coder;
if (coder == NULL) {
coder = lzma_alloc(sizeof(lzma_coder), allocator);
if (coder == NULL)
return LZMA_MEM_ERROR;
next->coder = coder;
next->code = &lz_encode;
next->end = &lz_encoder_end;
next->update = &lz_encoder_update;
coder->lz.coder = NULL;
coder->lz.code = NULL;
coder->lz.end = NULL;
// mf.size is initialized to silence Valgrind
// when used on optimized binaries (GCC may reorder
// code in a way that Valgrind gets unhappy).
coder->mf.buffer = NULL;
coder->mf.size = 0;
coder->mf.hash = NULL;
coder->mf.son = NULL;
coder->mf.hash_count = 0;
coder->mf.sons_count = 0;
coder->next = LZMA_NEXT_CODER_INIT;
}
// Initialize the LZ-based encoder.
lzma_lz_options lz_options;
return_if_error(lz_init(&coder->lz, allocator,
filters[0].options, &lz_options));
// Setup the size information into coder->mf and deallocate
// old buffers if they have wrong size.
if (lz_encoder_prepare(&coder->mf, allocator, &lz_options))
return LZMA_OPTIONS_ERROR;
// Allocate new buffers if needed, and do the rest of
// the initialization.
if (lz_encoder_init(&coder->mf, allocator, &lz_options))
return LZMA_MEM_ERROR;
// Initialize the next filter in the chain, if any.
return lzma_next_filter_init(&coder->next, allocator, filters + 1);
}
extern LZMA_API(lzma_bool)
lzma_mf_is_supported(lzma_match_finder mf)
{
bool ret = false;
#ifdef HAVE_MF_HC3
if (mf == LZMA_MF_HC3)
ret = true;
#endif
#ifdef HAVE_MF_HC4
if (mf == LZMA_MF_HC4)
ret = true;
#endif
#ifdef HAVE_MF_BT2
if (mf == LZMA_MF_BT2)
ret = true;
#endif
#ifdef HAVE_MF_BT3
if (mf == LZMA_MF_BT3)
ret = true;
#endif
#ifdef HAVE_MF_BT4
if (mf == LZMA_MF_BT4)
ret = true;
#endif
return ret;
}
game/client/third/minizip/lib/liblzma/lz/lz_encoder.h
Executable
+327
View File
@@ -0,0 +1,327 @@
///////////////////////////////////////////////////////////////////////////////
//
/// \file lz_encoder.h
/// \brief LZ in window and match finder API
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_LZ_ENCODER_H
#define LZMA_LZ_ENCODER_H
#include "common.h"
/// A table of these is used by the LZ-based encoder to hold
/// the length-distance pairs found by the match finder.
typedef struct {
uint32_t len;
uint32_t dist;
} lzma_match;
typedef struct lzma_mf_s lzma_mf;
struct lzma_mf_s {
///////////////
// In Window //
///////////////
/// Pointer to buffer with data to be compressed
uint8_t *buffer;
/// Total size of the allocated buffer (that is, including all
/// the extra space)
uint32_t size;
/// Number of bytes that must be kept available in our input history.
/// That is, once keep_size_before bytes have been processed,
/// buffer[read_pos - keep_size_before] is the oldest byte that
/// must be available for reading.
uint32_t keep_size_before;
/// Number of bytes that must be kept in buffer after read_pos.
/// That is, read_pos <= write_pos - keep_size_after as long as
/// action is LZMA_RUN; when action != LZMA_RUN, read_pos is allowed
/// to reach write_pos so that the last bytes get encoded too.
uint32_t keep_size_after;
/// Match finders store locations of matches using 32-bit integers.
/// To avoid adjusting several megabytes of integers every time the
/// input window is moved with move_window, we only adjust the
/// offset of the buffer. Thus, buffer[value_in_hash_table - offset]
/// is the byte pointed by value_in_hash_table.
uint32_t offset;
/// buffer[read_pos] is the next byte to run through the match
/// finder. This is incremented in the match finder once the byte
/// has been processed.
uint32_t read_pos;
/// Number of bytes that have been ran through the match finder, but
/// which haven't been encoded by the LZ-based encoder yet.
uint32_t read_ahead;
/// As long as read_pos is less than read_limit, there is enough
/// input available in buffer for at least one encoding loop.
///
/// Because of the stateful API, read_limit may and will get greater
/// than read_pos quite often. This is taken into account when
/// calculating the value for keep_size_after.
uint32_t read_limit;
/// buffer[write_pos] is the first byte that doesn't contain valid
/// uncompressed data; that is, the next input byte will be copied
/// to buffer[write_pos].
uint32_t write_pos;
/// Number of bytes not hashed before read_pos. This is needed to
/// restart the match finder after LZMA_SYNC_FLUSH.
uint32_t pending;
//////////////////
// Match Finder //
//////////////////
/// Find matches. Returns the number of distance-length pairs written
/// to the matches array. This is called only via lzma_mf_find().
uint32_t (*find)(lzma_mf *mf, lzma_match *matches);
/// Skips num bytes. This is like find() but doesn't make the
/// distance-length pairs available, thus being a little faster.
/// This is called only via mf_skip().
void (*skip)(lzma_mf *mf, uint32_t num);
uint32_t *hash;
uint32_t *son;
uint32_t cyclic_pos;
uint32_t cyclic_size; // Must be dictionary size + 1.
uint32_t hash_mask;
/// Maximum number of loops in the match finder
uint32_t depth;
/// Maximum length of a match that the match finder will try to find.
uint32_t nice_len;
/// Maximum length of a match supported by the LZ-based encoder.
/// If the longest match found by the match finder is nice_len,
/// mf_find() tries to expand it up to match_len_max bytes.
uint32_t match_len_max;
/// When running out of input, binary tree match finders need to know
/// if it is due to flushing or finishing. The action is used also
/// by the LZ-based encoders themselves.
lzma_action action;
/// Number of elements in hash[]
uint32_t hash_count;
/// Number of elements in son[]
uint32_t sons_count;
};
typedef struct {
/// Extra amount of data to keep available before the "actual"
/// dictionary.
size_t before_size;
/// Size of the history buffer
size_t dict_size;
/// Extra amount of data to keep available after the "actual"
/// dictionary.
size_t after_size;
/// Maximum length of a match that the LZ-based encoder can accept.
/// This is used to extend matches of length nice_len to the
/// maximum possible length.
size_t match_len_max;
/// Match finder will search matches up to this length.
/// This must be less than or equal to match_len_max.
size_t nice_len;
/// Type of the match finder to use
lzma_match_finder match_finder;
/// Maximum search depth
uint32_t depth;
/// TODO: Comment
const uint8_t *preset_dict;
uint32_t preset_dict_size;
} lzma_lz_options;
// The total usable buffer space at any moment outside the match finder:
// before_size + dict_size + after_size + match_len_max
//
// In reality, there's some extra space allocated to prevent the number of
// memmove() calls reasonable. The bigger the dict_size is, the bigger
// this extra buffer will be since with bigger dictionaries memmove() would
// also take longer.
//
// A single encoder loop in the LZ-based encoder may call the match finder
// (mf_find() or mf_skip()) at most after_size times. In other words,
// a single encoder loop may increment lzma_mf.read_pos at most after_size
// times. Since matches are looked up to
// lzma_mf.buffer[lzma_mf.read_pos + match_len_max - 1], the total
// amount of extra buffer needed after dict_size becomes
// after_size + match_len_max.
//
// before_size has two uses. The first one is to keep literals available
// in cases when the LZ-based encoder has made some read ahead.
// TODO: Maybe this could be changed by making the LZ-based encoders to
// store the actual literals as they do with length-distance pairs.
//
// Algorithms such as LZMA2 first try to compress a chunk, and then check
// if the encoded result is smaller than the uncompressed one. If the chunk
// was uncompressible, it is better to store it in uncompressed form in
// the output stream. To do this, the whole uncompressed chunk has to be
// still available in the history buffer. before_size achieves that.
typedef struct {
/// Data specific to the LZ-based encoder
void *coder;
/// Function to encode from *dict to out[]
lzma_ret (*code)(void *coder,
lzma_mf *restrict mf, uint8_t *restrict out,
size_t *restrict out_pos, size_t out_size);
/// Free allocated resources
void (*end)(void *coder, const lzma_allocator *allocator);
/// Update the options in the middle of the encoding.
lzma_ret (*options_update)(void *coder, const lzma_filter *filter);
} lzma_lz_encoder;
// Basic steps:
// 1. Input gets copied into the dictionary.
// 2. Data in dictionary gets run through the match finder byte by byte.
// 3. The literals and matches are encoded using e.g. LZMA.
//
// The bytes that have been ran through the match finder, but not encoded yet,
// are called `read ahead'.
/// Get pointer to the first byte not ran through the match finder
static inline const uint8_t *
mf_ptr(const lzma_mf *mf)
{
return mf->buffer + mf->read_pos;
}
/// Get the number of bytes that haven't been ran through the match finder yet.
static inline uint32_t
mf_avail(const lzma_mf *mf)
{
return mf->write_pos - mf->read_pos;
}
/// Get the number of bytes that haven't been encoded yet (some of these
/// bytes may have been ran through the match finder though).
static inline uint32_t
mf_unencoded(const lzma_mf *mf)
{
return mf->write_pos - mf->read_pos + mf->read_ahead;
}
/// Calculate the absolute offset from the beginning of the most recent
/// dictionary reset. Only the lowest four bits are important, so there's no
/// problem that we don't know the 64-bit size of the data encoded so far.
///
/// NOTE: When moving the input window, we need to do it so that the lowest
/// bits of dict->read_pos are not modified to keep this macro working
/// as intended.
static inline uint32_t
mf_position(const lzma_mf *mf)
{
return mf->read_pos - mf->read_ahead;
}
/// Since everything else begins with mf_, use it also for lzma_mf_find().
#define mf_find lzma_mf_find
/// Skip the given number of bytes. This is used when a good match was found.
/// For example, if mf_find() finds a match of 200 bytes long, the first byte
/// of that match was already consumed by mf_find(), and the rest 199 bytes
/// have to be skipped with mf_skip(mf, 199).
static inline void
mf_skip(lzma_mf *mf, uint32_t amount)
{
if (amount != 0) {
mf->skip(mf, amount);
mf->read_ahead += amount;
}
}
/// Copies at most *left number of bytes from the history buffer
/// to out[]. This is needed by LZMA2 to encode uncompressed chunks.
static inline void
mf_read(lzma_mf *mf, uint8_t *out, size_t *out_pos, size_t out_size,
size_t *left)
{
const size_t out_avail = out_size - *out_pos;
const size_t copy_size = my_min(out_avail, *left);
assert(mf->read_ahead == 0);
assert(mf->read_pos >= *left);
memcpy(out + *out_pos, mf->buffer + mf->read_pos - *left,
copy_size);
*out_pos += copy_size;
*left -= copy_size;
return;
}
extern lzma_ret lzma_lz_encoder_init(
lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter_info *filters,
lzma_ret (*lz_init)(lzma_lz_encoder *lz,
const lzma_allocator *allocator, const void *options,
lzma_lz_options *lz_options));
extern uint64_t lzma_lz_encoder_memusage(const lzma_lz_options *lz_options);
// These are only for LZ encoder's internal use.
extern uint32_t lzma_mf_find(
lzma_mf *mf, uint32_t *count, lzma_match *matches);
extern uint32_t lzma_mf_hc3_find(lzma_mf *dict, lzma_match *matches);
extern void lzma_mf_hc3_skip(lzma_mf *dict, uint32_t amount);
extern uint32_t lzma_mf_hc4_find(lzma_mf *dict, lzma_match *matches);
extern void lzma_mf_hc4_skip(lzma_mf *dict, uint32_t amount);
extern uint32_t lzma_mf_bt2_find(lzma_mf *dict, lzma_match *matches);
extern void lzma_mf_bt2_skip(lzma_mf *dict, uint32_t amount);
extern uint32_t lzma_mf_bt3_find(lzma_mf *dict, lzma_match *matches);
extern void lzma_mf_bt3_skip(lzma_mf *dict, uint32_t amount);
extern uint32_t lzma_mf_bt4_find(lzma_mf *dict, lzma_match *matches);
extern void lzma_mf_bt4_skip(lzma_mf *dict, uint32_t amount);
#endif
game/client/third/minizip/lib/liblzma/lz/lz_encoder_hash.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lz_encoder_hash.h
/// \brief Hash macros for match finders
//
// Author: Igor Pavlov
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_LZ_ENCODER_HASH_H
#define LZMA_LZ_ENCODER_HASH_H
#if defined(WORDS_BIGENDIAN) && !defined(HAVE_SMALL)
// This is to make liblzma produce the same output on big endian
// systems that it does on little endian systems. lz_encoder.c
// takes care of including the actual table.
extern const uint32_t lzma_lz_hash_table[256];
# define hash_table lzma_lz_hash_table
#else
# include "check.h"
# define hash_table lzma_crc32_table[0]
#endif
#define HASH_2_SIZE (UINT32_C(1) << 10)
#define HASH_3_SIZE (UINT32_C(1) << 16)
#define HASH_4_SIZE (UINT32_C(1) << 20)
#define HASH_2_MASK (HASH_2_SIZE - 1)
#define HASH_3_MASK (HASH_3_SIZE - 1)
#define HASH_4_MASK (HASH_4_SIZE - 1)
#define FIX_3_HASH_SIZE (HASH_2_SIZE)
#define FIX_4_HASH_SIZE (HASH_2_SIZE + HASH_3_SIZE)
#define FIX_5_HASH_SIZE (HASH_2_SIZE + HASH_3_SIZE + HASH_4_SIZE)
// Endianness doesn't matter in hash_2_calc() (no effect on the output).
#ifdef TUKLIB_FAST_UNALIGNED_ACCESS
# define hash_2_calc() \
const uint32_t hash_value = *(const uint16_t *)(cur)
#else
# define hash_2_calc() \
const uint32_t hash_value \
= (uint32_t)(cur[0]) | ((uint32_t)(cur[1]) << 8)
#endif
#define hash_3_calc() \
const uint32_t temp = hash_table[cur[0]] ^ cur[1]; \
const uint32_t hash_2_value = temp & HASH_2_MASK; \
const uint32_t hash_value \
= (temp ^ ((uint32_t)(cur[2]) << 8)) & mf->hash_mask
#define hash_4_calc() \
const uint32_t temp = hash_table[cur[0]] ^ cur[1]; \
const uint32_t hash_2_value = temp & HASH_2_MASK; \
const uint32_t hash_3_value \
= (temp ^ ((uint32_t)(cur[2]) << 8)) & HASH_3_MASK; \
const uint32_t hash_value = (temp ^ ((uint32_t)(cur[2]) << 8) \
^ (hash_table[cur[3]] << 5)) & mf->hash_mask
// The following are not currently used.
#define hash_5_calc() \
const uint32_t temp = hash_table[cur[0]] ^ cur[1]; \
const uint32_t hash_2_value = temp & HASH_2_MASK; \
const uint32_t hash_3_value \
= (temp ^ ((uint32_t)(cur[2]) << 8)) & HASH_3_MASK; \
uint32_t hash_4_value = (temp ^ ((uint32_t)(cur[2]) << 8) ^ \
^ hash_table[cur[3]] << 5); \
const uint32_t hash_value \
= (hash_4_value ^ (hash_table[cur[4]] << 3)) \
& mf->hash_mask; \
hash_4_value &= HASH_4_MASK
/*
#define hash_zip_calc() \
const uint32_t hash_value \
= (((uint32_t)(cur[0]) | ((uint32_t)(cur[1]) << 8)) \
^ hash_table[cur[2]]) & 0xFFFF
*/
#define hash_zip_calc() \
const uint32_t hash_value \
= (((uint32_t)(cur[2]) | ((uint32_t)(cur[0]) << 8)) \
^ hash_table[cur[1]]) & 0xFFFF
#define mt_hash_2_calc() \
const uint32_t hash_2_value \
= (hash_table[cur[0]] ^ cur[1]) & HASH_2_MASK
#define mt_hash_3_calc() \
const uint32_t temp = hash_table[cur[0]] ^ cur[1]; \
const uint32_t hash_2_value = temp & HASH_2_MASK; \
const uint32_t hash_3_value \
= (temp ^ ((uint32_t)(cur[2]) << 8)) & HASH_3_MASK
#define mt_hash_4_calc() \
const uint32_t temp = hash_table[cur[0]] ^ cur[1]; \
const uint32_t hash_2_value = temp & HASH_2_MASK; \
const uint32_t hash_3_value \
= (temp ^ ((uint32_t)(cur[2]) << 8)) & HASH_3_MASK; \
const uint32_t hash_4_value = (temp ^ ((uint32_t)(cur[2]) << 8) ^ \
(hash_table[cur[3]] << 5)) & HASH_4_MASK
#endif
game/client/third/minizip/lib/liblzma/lz/lz_encoder_hash_table.h
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/* This file has been automatically generated by crc32_tablegen.c. */
const uint32_t lzma_lz_hash_table[256] = {
0x00000000, 0x77073096, 0xEE0E612C, 0x990951BA,
0x076DC419, 0x706AF48F, 0xE963A535, 0x9E6495A3,
0x0EDB8832, 0x79DCB8A4, 0xE0D5E91E, 0x97D2D988,
0x09B64C2B, 0x7EB17CBD, 0xE7B82D07, 0x90BF1D91,
0x1DB71064, 0x6AB020F2, 0xF3B97148, 0x84BE41DE,
0x1ADAD47D, 0x6DDDE4EB, 0xF4D4B551, 0x83D385C7,
0x136C9856, 0x646BA8C0, 0xFD62F97A, 0x8A65C9EC,
0x14015C4F, 0x63066CD9, 0xFA0F3D63, 0x8D080DF5,
0x3B6E20C8, 0x4C69105E, 0xD56041E4, 0xA2677172,
0x3C03E4D1, 0x4B04D447, 0xD20D85FD, 0xA50AB56B,
0x35B5A8FA, 0x42B2986C, 0xDBBBC9D6, 0xACBCF940,
0x32D86CE3, 0x45DF5C75, 0xDCD60DCF, 0xABD13D59,
0x26D930AC, 0x51DE003A, 0xC8D75180, 0xBFD06116,
0x21B4F4B5, 0x56B3C423, 0xCFBA9599, 0xB8BDA50F,
0x2802B89E, 0x5F058808, 0xC60CD9B2, 0xB10BE924,
0x2F6F7C87, 0x58684C11, 0xC1611DAB, 0xB6662D3D,
0x76DC4190, 0x01DB7106, 0x98D220BC, 0xEFD5102A,
0x71B18589, 0x06B6B51F, 0x9FBFE4A5, 0xE8B8D433,
0x7807C9A2, 0x0F00F934, 0x9609A88E, 0xE10E9818,
0x7F6A0DBB, 0x086D3D2D, 0x91646C97, 0xE6635C01,
0x6B6B51F4, 0x1C6C6162, 0x856530D8, 0xF262004E,
0x6C0695ED, 0x1B01A57B, 0x8208F4C1, 0xF50FC457,
0x65B0D9C6, 0x12B7E950, 0x8BBEB8EA, 0xFCB9887C,
0x62DD1DDF, 0x15DA2D49, 0x8CD37CF3, 0xFBD44C65,
0x4DB26158, 0x3AB551CE, 0xA3BC0074, 0xD4BB30E2,
0x4ADFA541, 0x3DD895D7, 0xA4D1C46D, 0xD3D6F4FB,
0x4369E96A, 0x346ED9FC, 0xAD678846, 0xDA60B8D0,
0x44042D73, 0x33031DE5, 0xAA0A4C5F, 0xDD0D7CC9,
0x5005713C, 0x270241AA, 0xBE0B1010, 0xC90C2086,
0x5768B525, 0x206F85B3, 0xB966D409, 0xCE61E49F,
0x5EDEF90E, 0x29D9C998, 0xB0D09822, 0xC7D7A8B4,
0x59B33D17, 0x2EB40D81, 0xB7BD5C3B, 0xC0BA6CAD,
0xEDB88320, 0x9ABFB3B6, 0x03B6E20C, 0x74B1D29A,
0xEAD54739, 0x9DD277AF, 0x04DB2615, 0x73DC1683,
0xE3630B12, 0x94643B84, 0x0D6D6A3E, 0x7A6A5AA8,
0xE40ECF0B, 0x9309FF9D, 0x0A00AE27, 0x7D079EB1,
0xF00F9344, 0x8708A3D2, 0x1E01F268, 0x6906C2FE,
0xF762575D, 0x806567CB, 0x196C3671, 0x6E6B06E7,
0xFED41B76, 0x89D32BE0, 0x10DA7A5A, 0x67DD4ACC,
0xF9B9DF6F, 0x8EBEEFF9, 0x17B7BE43, 0x60B08ED5,
0xD6D6A3E8, 0xA1D1937E, 0x38D8C2C4, 0x4FDFF252,
0xD1BB67F1, 0xA6BC5767, 0x3FB506DD, 0x48B2364B,
0xD80D2BDA, 0xAF0A1B4C, 0x36034AF6, 0x41047A60,
0xDF60EFC3, 0xA867DF55, 0x316E8EEF, 0x4669BE79,
0xCB61B38C, 0xBC66831A, 0x256FD2A0, 0x5268E236,
0xCC0C7795, 0xBB0B4703, 0x220216B9, 0x5505262F,
0xC5BA3BBE, 0xB2BD0B28, 0x2BB45A92, 0x5CB36A04,
0xC2D7FFA7, 0xB5D0CF31, 0x2CD99E8B, 0x5BDEAE1D,
0x9B64C2B0, 0xEC63F226, 0x756AA39C, 0x026D930A,
0x9C0906A9, 0xEB0E363F, 0x72076785, 0x05005713,
0x95BF4A82, 0xE2B87A14, 0x7BB12BAE, 0x0CB61B38,
0x92D28E9B, 0xE5D5BE0D, 0x7CDCEFB7, 0x0BDBDF21,
0x86D3D2D4, 0xF1D4E242, 0x68DDB3F8, 0x1FDA836E,
0x81BE16CD, 0xF6B9265B, 0x6FB077E1, 0x18B74777,
0x88085AE6, 0xFF0F6A70, 0x66063BCA, 0x11010B5C,
0x8F659EFF, 0xF862AE69, 0x616BFFD3, 0x166CCF45,
0xA00AE278, 0xD70DD2EE, 0x4E048354, 0x3903B3C2,
0xA7672661, 0xD06016F7, 0x4969474D, 0x3E6E77DB,
0xAED16A4A, 0xD9D65ADC, 0x40DF0B66, 0x37D83BF0,
0xA9BCAE53, 0xDEBB9EC5, 0x47B2CF7F, 0x30B5FFE9,
0xBDBDF21C, 0xCABAC28A, 0x53B39330, 0x24B4A3A6,
0xBAD03605, 0xCDD70693, 0x54DE5729, 0x23D967BF,
0xB3667A2E, 0xC4614AB8, 0x5D681B02, 0x2A6F2B94,
0xB40BBE37, 0xC30C8EA1, 0x5A05DF1B, 0x2D02EF8D
};
game/client/third/minizip/lib/liblzma/lz/lz_encoder_mf.c
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lz_encoder_mf.c
/// \brief Match finders
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "lz_encoder.h"
#include "lz_encoder_hash.h"
#include "memcmplen.h"
/// \brief Find matches starting from the current byte
///
/// \return The length of the longest match found
extern uint32_t
lzma_mf_find(lzma_mf *mf, uint32_t *count_ptr, lzma_match *matches)
{
// Call the match finder. It returns the number of length-distance
// pairs found.
// FIXME: Minimum count is zero, what _exactly_ is the maximum?
const uint32_t count = mf->find(mf, matches);
// Length of the longest match; assume that no matches were found
// and thus the maximum length is zero.
uint32_t len_best = 0;
if (count > 0) {
#ifndef NDEBUG
// Validate the matches.
for (uint32_t i = 0; i < count; ++i) {
assert(matches[i].len <= mf->nice_len);
assert(matches[i].dist < mf->read_pos);
assert(memcmp(mf_ptr(mf) - 1,
mf_ptr(mf) - matches[i].dist - 2,
matches[i].len) == 0);
}
#endif
// The last used element in the array contains
// the longest match.
len_best = matches[count - 1].len;
// If a match of maximum search length was found, try to
// extend the match to maximum possible length.
if (len_best == mf->nice_len) {
// The limit for the match length is either the
// maximum match length supported by the LZ-based
// encoder or the number of bytes left in the
// dictionary, whichever is smaller.
uint32_t limit = mf_avail(mf) + 1;
if (limit > mf->match_len_max)
limit = mf->match_len_max;
// Pointer to the byte we just ran through
// the match finder.
const uint8_t *p1 = mf_ptr(mf) - 1;
// Pointer to the beginning of the match. We need -1
// here because the match distances are zero based.
const uint8_t *p2 = p1 - matches[count - 1].dist - 1;
len_best = lzma_memcmplen(p1, p2, len_best, limit);
}
}
*count_ptr = count;
// Finally update the read position to indicate that match finder was
// run for this dictionary offset.
++mf->read_ahead;
return len_best;
}
/// Hash value to indicate unused element in the hash. Since we start the
/// positions from dict_size + 1, zero is always too far to qualify
/// as usable match position.
#define EMPTY_HASH_VALUE 0
/// Normalization must be done when lzma_mf.offset + lzma_mf.read_pos
/// reaches MUST_NORMALIZE_POS.
#define MUST_NORMALIZE_POS UINT32_MAX
/// \brief Normalizes hash values
///
/// The hash arrays store positions of match candidates. The positions are
/// relative to an arbitrary offset that is not the same as the absolute
/// offset in the input stream. The relative position of the current byte
/// is lzma_mf.offset + lzma_mf.read_pos. The distances of the matches are
/// the differences of the current read position and the position found from
/// the hash.
///
/// To prevent integer overflows of the offsets stored in the hash arrays,
/// we need to "normalize" the stored values now and then. During the
/// normalization, we drop values that indicate distance greater than the
/// dictionary size, thus making space for new values.
static void
normalize(lzma_mf *mf)
{
assert(mf->read_pos + mf->offset == MUST_NORMALIZE_POS);
// In future we may not want to touch the lowest bits, because there
// may be match finders that use larger resolution than one byte.
const uint32_t subvalue
= (MUST_NORMALIZE_POS - mf->cyclic_size);
// & (~(UINT32_C(1) << 10) - 1);
for (uint32_t i = 0; i < mf->hash_count; ++i) {
// If the distance is greater than the dictionary size,
// we can simply mark the hash element as empty.
if (mf->hash[i] <= subvalue)
mf->hash[i] = EMPTY_HASH_VALUE;
else
mf->hash[i] -= subvalue;
}
for (uint32_t i = 0; i < mf->sons_count; ++i) {
// Do the same for mf->son.
//
// NOTE: There may be uninitialized elements in mf->son.
// Valgrind may complain that the "if" below depends on
// an uninitialized value. In this case it is safe to ignore
// the warning. See also the comments in lz_encoder_init()
// in lz_encoder.c.
if (mf->son[i] <= subvalue)
mf->son[i] = EMPTY_HASH_VALUE;
else
mf->son[i] -= subvalue;
}
// Update offset to match the new locations.
mf->offset -= subvalue;
return;
}
/// Mark the current byte as processed from point of view of the match finder.
static void
move_pos(lzma_mf *mf)
{
if (++mf->cyclic_pos == mf->cyclic_size)
mf->cyclic_pos = 0;
++mf->read_pos;
assert(mf->read_pos <= mf->write_pos);
if (unlikely(mf->read_pos + mf->offset == UINT32_MAX))
normalize(mf);
}
/// When flushing, we cannot run the match finder unless there is nice_len
/// bytes available in the dictionary. Instead, we skip running the match
/// finder (indicating that no match was found), and count how many bytes we
/// have ignored this way.
///
/// When new data is given after the flushing was completed, the match finder
/// is restarted by rewinding mf->read_pos backwards by mf->pending. Then
/// the missed bytes are added to the hash using the match finder's skip
/// function (with small amount of input, it may start using mf->pending
/// again if flushing).
///
/// Due to this rewinding, we don't touch cyclic_pos or test for
/// normalization. It will be done when the match finder's skip function
/// catches up after a flush.
static void
move_pending(lzma_mf *mf)
{
++mf->read_pos;
assert(mf->read_pos <= mf->write_pos);
++mf->pending;
}
/// Calculate len_limit and determine if there is enough input to run
/// the actual match finder code. Sets up "cur" and "pos". This macro
/// is used by all find functions and binary tree skip functions. Hash
/// chain skip function doesn't need len_limit so a simpler code is used
/// in them.
#define header(is_bt, len_min, ret_op) \
uint32_t len_limit = mf_avail(mf); \
if (mf->nice_len <= len_limit) { \
len_limit = mf->nice_len; \
} else if (len_limit < (len_min) \
|| (is_bt && mf->action == LZMA_SYNC_FLUSH)) { \
assert(mf->action != LZMA_RUN); \
move_pending(mf); \
ret_op; \
} \
const uint8_t *cur = mf_ptr(mf); \
const uint32_t pos = mf->read_pos + mf->offset
/// Header for find functions. "return 0" indicates that zero matches
/// were found.
#define header_find(is_bt, len_min) \
header(is_bt, len_min, return 0); \
uint32_t matches_count = 0
/// Header for a loop in a skip function. "continue" tells to skip the rest
/// of the code in the loop.
#define header_skip(is_bt, len_min) \
header(is_bt, len_min, continue)
/// Calls hc_find_func() or bt_find_func() and calculates the total number
/// of matches found. Updates the dictionary position and returns the number
/// of matches found.
#define call_find(func, len_best) \
do { \
matches_count = func(len_limit, pos, cur, cur_match, mf->depth, \
mf->son, mf->cyclic_pos, mf->cyclic_size, \
matches + matches_count, len_best) \
- matches; \
move_pos(mf); \
return matches_count; \
} while (0)
////////////////
// Hash Chain //
////////////////
#if defined(HAVE_MF_HC3) || defined(HAVE_MF_HC4)
///
///
/// \param len_limit Don't look for matches longer than len_limit.
/// \param pos lzma_mf.read_pos + lzma_mf.offset
/// \param cur Pointer to current byte (mf_ptr(mf))
/// \param cur_match Start position of the current match candidate
/// \param depth Maximum length of the hash chain
/// \param son lzma_mf.son (contains the hash chain)
/// \param cyclic_pos
/// \param cyclic_size
/// \param matches Array to hold the matches.
/// \param len_best The length of the longest match found so far.
static lzma_match *
hc_find_func(
const uint32_t len_limit,
const uint32_t pos,
const uint8_t *const cur,
uint32_t cur_match,
uint32_t depth,
uint32_t *const son,
const uint32_t cyclic_pos,
const uint32_t cyclic_size,
lzma_match *matches,
uint32_t len_best)
{
son[cyclic_pos] = cur_match;
while (true) {
const uint32_t delta = pos - cur_match;
if (depth-- == 0 || delta >= cyclic_size)
return matches;
const uint8_t *const pb = cur - delta;
cur_match = son[cyclic_pos - delta
+ (delta > cyclic_pos ? cyclic_size : 0)];
if (pb[len_best] == cur[len_best] && pb[0] == cur[0]) {
uint32_t len = lzma_memcmplen(pb, cur, 1, len_limit);
if (len_best < len) {
len_best = len;
matches->len = len;
matches->dist = delta - 1;
++matches;
if (len == len_limit)
return matches;
}
}
}
}
#define hc_find(len_best) \
call_find(hc_find_func, len_best)
#define hc_skip() \
do { \
mf->son[mf->cyclic_pos] = cur_match; \
move_pos(mf); \
} while (0)
#endif
#ifdef HAVE_MF_HC3
extern uint32_t
lzma_mf_hc3_find(lzma_mf *mf, lzma_match *matches)
{
header_find(false, 3);
hash_3_calc();
const uint32_t delta2 = pos - mf->hash[hash_2_value];
const uint32_t cur_match = mf->hash[FIX_3_HASH_SIZE + hash_value];
mf->hash[hash_2_value] = pos;
mf->hash[FIX_3_HASH_SIZE + hash_value] = pos;
uint32_t len_best = 2;
if (delta2 < mf->cyclic_size && *(cur - delta2) == *cur) {
len_best = lzma_memcmplen(cur - delta2, cur,
len_best, len_limit);
matches[0].len = len_best;
matches[0].dist = delta2 - 1;
matches_count = 1;
if (len_best == len_limit) {
hc_skip();
return 1; // matches_count
}
}
hc_find(len_best);
}
extern void
lzma_mf_hc3_skip(lzma_mf *mf, uint32_t amount)
{
do {
if (mf_avail(mf) < 3) {
move_pending(mf);
continue;
}
const uint8_t *cur = mf_ptr(mf);
const uint32_t pos = mf->read_pos + mf->offset;
hash_3_calc();
const uint32_t cur_match
= mf->hash[FIX_3_HASH_SIZE + hash_value];
mf->hash[hash_2_value] = pos;
mf->hash[FIX_3_HASH_SIZE + hash_value] = pos;
hc_skip();
} while (--amount != 0);
}
#endif
#ifdef HAVE_MF_HC4
extern uint32_t
lzma_mf_hc4_find(lzma_mf *mf, lzma_match *matches)
{
header_find(false, 4);
hash_4_calc();
uint32_t delta2 = pos - mf->hash[hash_2_value];
const uint32_t delta3
= pos - mf->hash[FIX_3_HASH_SIZE + hash_3_value];
const uint32_t cur_match = mf->hash[FIX_4_HASH_SIZE + hash_value];
mf->hash[hash_2_value ] = pos;
mf->hash[FIX_3_HASH_SIZE + hash_3_value] = pos;
mf->hash[FIX_4_HASH_SIZE + hash_value] = pos;
uint32_t len_best = 1;
if (delta2 < mf->cyclic_size && *(cur - delta2) == *cur) {
len_best = 2;
matches[0].len = 2;
matches[0].dist = delta2 - 1;
matches_count = 1;
}
if (delta2 != delta3 && delta3 < mf->cyclic_size
&& *(cur - delta3) == *cur) {
len_best = 3;
matches[matches_count++].dist = delta3 - 1;
delta2 = delta3;
}
if (matches_count != 0) {
len_best = lzma_memcmplen(cur - delta2, cur,
len_best, len_limit);
matches[matches_count - 1].len = len_best;
if (len_best == len_limit) {
hc_skip();
return matches_count;
}
}
if (len_best < 3)
len_best = 3;
hc_find(len_best);
}
extern void
lzma_mf_hc4_skip(lzma_mf *mf, uint32_t amount)
{
do {
if (mf_avail(mf) < 4) {
move_pending(mf);
continue;
}
const uint8_t *cur = mf_ptr(mf);
const uint32_t pos = mf->read_pos + mf->offset;
hash_4_calc();
const uint32_t cur_match
= mf->hash[FIX_4_HASH_SIZE + hash_value];
mf->hash[hash_2_value] = pos;
mf->hash[FIX_3_HASH_SIZE + hash_3_value] = pos;
mf->hash[FIX_4_HASH_SIZE + hash_value] = pos;
hc_skip();
} while (--amount != 0);
}
#endif
/////////////////
// Binary Tree //
/////////////////
#if defined(HAVE_MF_BT2) || defined(HAVE_MF_BT3) || defined(HAVE_MF_BT4)
static lzma_match *
bt_find_func(
const uint32_t len_limit,
const uint32_t pos,
const uint8_t *const cur,
uint32_t cur_match,
uint32_t depth,
uint32_t *const son,
const uint32_t cyclic_pos,
const uint32_t cyclic_size,
lzma_match *matches,
uint32_t len_best)
{
uint32_t *ptr0 = son + (cyclic_pos << 1) + 1;
uint32_t *ptr1 = son + (cyclic_pos << 1);
uint32_t len0 = 0;
uint32_t len1 = 0;
while (true) {
const uint32_t delta = pos - cur_match;
if (depth-- == 0 || delta >= cyclic_size) {
*ptr0 = EMPTY_HASH_VALUE;
*ptr1 = EMPTY_HASH_VALUE;
return matches;
}
uint32_t *const pair = son + ((cyclic_pos - delta
+ (delta > cyclic_pos ? cyclic_size : 0))
<< 1);
const uint8_t *const pb = cur - delta;
uint32_t len = my_min(len0, len1);
if (pb[len] == cur[len]) {
len = lzma_memcmplen(pb, cur, len + 1, len_limit);
if (len_best < len) {
len_best = len;
matches->len = len;
matches->dist = delta - 1;
++matches;
if (len == len_limit) {
*ptr1 = pair[0];
*ptr0 = pair[1];
return matches;
}
}
}
if (pb[len] < cur[len]) {
*ptr1 = cur_match;
ptr1 = pair + 1;
cur_match = *ptr1;
len1 = len;
} else {
*ptr0 = cur_match;
ptr0 = pair;
cur_match = *ptr0;
len0 = len;
}
}
}
static void
bt_skip_func(
const uint32_t len_limit,
const uint32_t pos,
const uint8_t *const cur,
uint32_t cur_match,
uint32_t depth,
uint32_t *const son,
const uint32_t cyclic_pos,
const uint32_t cyclic_size)
{
uint32_t *ptr0 = son + (cyclic_pos << 1) + 1;
uint32_t *ptr1 = son + (cyclic_pos << 1);
uint32_t len0 = 0;
uint32_t len1 = 0;
while (true) {
const uint32_t delta = pos - cur_match;
if (depth-- == 0 || delta >= cyclic_size) {
*ptr0 = EMPTY_HASH_VALUE;
*ptr1 = EMPTY_HASH_VALUE;
return;
}
uint32_t *pair = son + ((cyclic_pos - delta
+ (delta > cyclic_pos ? cyclic_size : 0))
<< 1);
const uint8_t *pb = cur - delta;
uint32_t len = my_min(len0, len1);
if (pb[len] == cur[len]) {
len = lzma_memcmplen(pb, cur, len + 1, len_limit);
if (len == len_limit) {
*ptr1 = pair[0];
*ptr0 = pair[1];
return;
}
}
if (pb[len] < cur[len]) {
*ptr1 = cur_match;
ptr1 = pair + 1;
cur_match = *ptr1;
len1 = len;
} else {
*ptr0 = cur_match;
ptr0 = pair;
cur_match = *ptr0;
len0 = len;
}
}
}
#define bt_find(len_best) \
call_find(bt_find_func, len_best)
#define bt_skip() \
do { \
bt_skip_func(len_limit, pos, cur, cur_match, mf->depth, \
mf->son, mf->cyclic_pos, \
mf->cyclic_size); \
move_pos(mf); \
} while (0)
#endif
#ifdef HAVE_MF_BT2
extern uint32_t
lzma_mf_bt2_find(lzma_mf *mf, lzma_match *matches)
{
header_find(true, 2);
hash_2_calc();
const uint32_t cur_match = mf->hash[hash_value];
mf->hash[hash_value] = pos;
bt_find(1);
}
extern void
lzma_mf_bt2_skip(lzma_mf *mf, uint32_t amount)
{
do {
header_skip(true, 2);
hash_2_calc();
const uint32_t cur_match = mf->hash[hash_value];
mf->hash[hash_value] = pos;
bt_skip();
} while (--amount != 0);
}
#endif
#ifdef HAVE_MF_BT3
extern uint32_t
lzma_mf_bt3_find(lzma_mf *mf, lzma_match *matches)
{
header_find(true, 3);
hash_3_calc();
const uint32_t delta2 = pos - mf->hash[hash_2_value];
const uint32_t cur_match = mf->hash[FIX_3_HASH_SIZE + hash_value];
mf->hash[hash_2_value] = pos;
mf->hash[FIX_3_HASH_SIZE + hash_value] = pos;
uint32_t len_best = 2;
if (delta2 < mf->cyclic_size && *(cur - delta2) == *cur) {
len_best = lzma_memcmplen(
cur, cur - delta2, len_best, len_limit);
matches[0].len = len_best;
matches[0].dist = delta2 - 1;
matches_count = 1;
if (len_best == len_limit) {
bt_skip();
return 1; // matches_count
}
}
bt_find(len_best);
}
extern void
lzma_mf_bt3_skip(lzma_mf *mf, uint32_t amount)
{
do {
header_skip(true, 3);
hash_3_calc();
const uint32_t cur_match
= mf->hash[FIX_3_HASH_SIZE + hash_value];
mf->hash[hash_2_value] = pos;
mf->hash[FIX_3_HASH_SIZE + hash_value] = pos;
bt_skip();
} while (--amount != 0);
}
#endif
#ifdef HAVE_MF_BT4
extern uint32_t
lzma_mf_bt4_find(lzma_mf *mf, lzma_match *matches)
{
header_find(true, 4);
hash_4_calc();
uint32_t delta2 = pos - mf->hash[hash_2_value];
const uint32_t delta3
= pos - mf->hash[FIX_3_HASH_SIZE + hash_3_value];
const uint32_t cur_match = mf->hash[FIX_4_HASH_SIZE + hash_value];
mf->hash[hash_2_value] = pos;
mf->hash[FIX_3_HASH_SIZE + hash_3_value] = pos;
mf->hash[FIX_4_HASH_SIZE + hash_value] = pos;
uint32_t len_best = 1;
if (delta2 < mf->cyclic_size && *(cur - delta2) == *cur) {
len_best = 2;
matches[0].len = 2;
matches[0].dist = delta2 - 1;
matches_count = 1;
}
if (delta2 != delta3 && delta3 < mf->cyclic_size
&& *(cur - delta3) == *cur) {
len_best = 3;
matches[matches_count++].dist = delta3 - 1;
delta2 = delta3;
}
if (matches_count != 0) {
len_best = lzma_memcmplen(
cur, cur - delta2, len_best, len_limit);
matches[matches_count - 1].len = len_best;
if (len_best == len_limit) {
bt_skip();
return matches_count;
}
}
if (len_best < 3)
len_best = 3;
bt_find(len_best);
}
extern void
lzma_mf_bt4_skip(lzma_mf *mf, uint32_t amount)
{
do {
header_skip(true, 4);
hash_4_calc();
const uint32_t cur_match
= mf->hash[FIX_4_HASH_SIZE + hash_value];
mf->hash[hash_2_value] = pos;
mf->hash[FIX_3_HASH_SIZE + hash_3_value] = pos;
mf->hash[FIX_4_HASH_SIZE + hash_value] = pos;
bt_skip();
} while (--amount != 0);
}
#endif
game/client/third/minizip/lib/liblzma/lzma/fastpos.h
Executable
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///////////////////////////////////////////////////////////////////////////////
//
/// \file fastpos.h
/// \brief Kind of two-bit version of bit scan reverse
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_FASTPOS_H
#define LZMA_FASTPOS_H
// LZMA encodes match distances by storing the highest two bits using
// a six-bit value [0, 63], and then the missing lower bits.
// Dictionary size is also stored using this encoding in the .xz
// file format header.
//
// fastpos.h provides a way to quickly find out the correct six-bit
// values. The following table gives some examples of this encoding:
//
// dist return
// 0 0
// 1 1
// 2 2
// 3 3
// 4 4
// 5 4
// 6 5
// 7 5
// 8 6
// 11 6
// 12 7
// ... ...
// 15 7
// 16 8
// 17 8
// ... ...
// 23 8
// 24 9
// 25 9
// ... ...
//
//
// Provided functions or macros
// ----------------------------
//
// get_dist_slot(dist) is the basic version. get_dist_slot_2(dist)
// assumes that dist >= FULL_DISTANCES, thus the result is at least
// FULL_DISTANCES_BITS * 2. Using get_dist_slot(dist) instead of
// get_dist_slot_2(dist) would give the same result, but get_dist_slot_2(dist)
// should be tiny bit faster due to the assumption being made.
//
//
// Size vs. speed
// --------------
//
// With some CPUs that have fast BSR (bit scan reverse) instruction, the
// size optimized version is slightly faster than the bigger table based
// approach. Such CPUs include Intel Pentium Pro, Pentium II, Pentium III
// and Core 2 (possibly others). AMD K7 seems to have slower BSR, but that
// would still have speed roughly comparable to the table version. Older
// x86 CPUs like the original Pentium have very slow BSR; on those systems
// the table version is a lot faster.
//
// On some CPUs, the table version is a lot faster when using position
// dependent code, but with position independent code the size optimized
// version is slightly faster. This occurs at least on 32-bit SPARC (no
// ASM optimizations).
//
// I'm making the table version the default, because that has good speed
// on all systems I have tried. The size optimized version is sometimes
// slightly faster, but sometimes it is a lot slower.
#ifdef HAVE_SMALL
# define get_dist_slot(dist) \
((dist) <= 4 ? (dist) : get_dist_slot_2(dist))
static inline uint32_t
get_dist_slot_2(uint32_t dist)
{
const uint32_t i = bsr32(dist);
return (i + i) + ((dist >> (i - 1)) & 1);
}
#else
#define FASTPOS_BITS 13
extern const uint8_t lzma_fastpos[1 << FASTPOS_BITS];
#define fastpos_shift(extra, n) \
((extra) + (n) * (FASTPOS_BITS - 1))
#define fastpos_limit(extra, n) \
(UINT32_C(1) << (FASTPOS_BITS + fastpos_shift(extra, n)))
#define fastpos_result(dist, extra, n) \
lzma_fastpos[(dist) >> fastpos_shift(extra, n)] \
+ 2 * fastpos_shift(extra, n)
static inline uint32_t
get_dist_slot(uint32_t dist)
{
// If it is small enough, we can pick the result directly from
// the precalculated table.
if (dist < fastpos_limit(0, 0))
return lzma_fastpos[dist];
if (dist < fastpos_limit(0, 1))
return fastpos_result(dist, 0, 1);
return fastpos_result(dist, 0, 2);
}
#ifdef FULL_DISTANCES_BITS
static inline uint32_t
get_dist_slot_2(uint32_t dist)
{
assert(dist >= FULL_DISTANCES);
if (dist < fastpos_limit(FULL_DISTANCES_BITS - 1, 0))
return fastpos_result(dist, FULL_DISTANCES_BITS - 1, 0);
if (dist < fastpos_limit(FULL_DISTANCES_BITS - 1, 1))
return fastpos_result(dist, FULL_DISTANCES_BITS - 1, 1);
return fastpos_result(dist, FULL_DISTANCES_BITS - 1, 2);
}
#endif
#endif
#endif
game/client/third/minizip/lib/liblzma/lzma/fastpos_table.c
Executable
+519
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/* This file has been automatically generated by fastpos_tablegen.c. */
#include "common.h"
#include "fastpos.h"
const uint8_t lzma_fastpos[1 << FASTPOS_BITS] = {
0, 1, 2, 3, 4, 4, 5, 5, 6, 6, 6, 6, 7, 7, 7, 7,
8, 8, 8, 8, 8, 8, 8, 8, 9, 9, 9, 9, 9, 9, 9, 9,
10, 10, 10, 10, 10, 10, 10, 10, 10, 10, 10, 10, 10, 10, 10, 10,
11, 11, 11, 11, 11, 11, 11, 11, 11, 11, 11, 11, 11, 11, 11, 11,
12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12,
12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12, 12,
13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13,
13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13, 13,
14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14,
14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14,
14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14,
14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14, 14,
15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15,
15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15,
15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15,
15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15, 15,
16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16,
16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16,
16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16,
16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16,
16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16,
16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16,
16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16,
16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16, 16,
17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17,
17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17,
17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17,
17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17,
17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17,
17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17,
17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17,
17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17, 17,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18, 18,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19, 19,
20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20,
20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20, 20,
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};
game/client/third/minizip/lib/liblzma/lzma/lzma2_encoder.h
Executable
+43
View File
@@ -0,0 +1,43 @@
///////////////////////////////////////////////////////////////////////////////
//
/// \file lzma2_encoder.h
/// \brief LZMA2 encoder
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_LZMA2_ENCODER_H
#define LZMA_LZMA2_ENCODER_H
#include "common.h"
/// Maximum number of bytes of actual data per chunk (no headers)
#define LZMA2_CHUNK_MAX (UINT32_C(1) << 16)
/// Maximum uncompressed size of LZMA chunk (no headers)
#define LZMA2_UNCOMPRESSED_MAX (UINT32_C(1) << 21)
/// Maximum size of LZMA2 headers
#define LZMA2_HEADER_MAX 6
/// Size of a header for uncompressed chunk
#define LZMA2_HEADER_UNCOMPRESSED 3
extern lzma_ret lzma_lzma2_encoder_init(
lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter_info *filters);
extern uint64_t lzma_lzma2_encoder_memusage(const void *options);
extern lzma_ret lzma_lzma2_props_encode(const void *options, uint8_t *out);
extern uint64_t lzma_lzma2_block_size(const void *options);
#endif
game/client/third/minizip/lib/liblzma/lzma/lzma_common.h
Executable
+224
View File
@@ -0,0 +1,224 @@
///////////////////////////////////////////////////////////////////////////////
//
/// \file lzma_common.h
/// \brief Private definitions common to LZMA encoder and decoder
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_LZMA_COMMON_H
#define LZMA_LZMA_COMMON_H
#include "common.h"
#include "range_common.h"
///////////////////
// Miscellaneous //
///////////////////
/// Maximum number of position states. A position state is the lowest pos bits
/// number of bits of the current uncompressed offset. In some places there
/// are different sets of probabilities for different pos states.
#define POS_STATES_MAX (1 << LZMA_PB_MAX)
/// Validates lc, lp, and pb.
static inline bool
is_lclppb_valid(const lzma_options_lzma *options)
{
return options->lc <= LZMA_LCLP_MAX && options->lp <= LZMA_LCLP_MAX
&& options->lc + options->lp <= LZMA_LCLP_MAX
&& options->pb <= LZMA_PB_MAX;
}
///////////
// State //
///////////
/// This enum is used to track which events have occurred most recently and
/// in which order. This information is used to predict the next event.
///
/// Events:
/// - Literal: One 8-bit byte
/// - Match: Repeat a chunk of data at some distance
/// - Long repeat: Multi-byte match at a recently seen distance
/// - Short repeat: One-byte repeat at a recently seen distance
///
/// The event names are in from STATE_oldest_older_previous. REP means
/// either short or long repeated match, and NONLIT means any non-literal.
typedef enum {
STATE_LIT_LIT,
STATE_MATCH_LIT_LIT,
STATE_REP_LIT_LIT,
STATE_SHORTREP_LIT_LIT,
STATE_MATCH_LIT,
STATE_REP_LIT,
STATE_SHORTREP_LIT,
STATE_LIT_MATCH,
STATE_LIT_LONGREP,
STATE_LIT_SHORTREP,
STATE_NONLIT_MATCH,
STATE_NONLIT_REP,
} lzma_lzma_state;
/// Total number of states
#define STATES 12
/// The lowest 7 states indicate that the previous state was a literal.
#define LIT_STATES 7
/// Indicate that the latest state was a literal.
#define update_literal(state) \
state = ((state) <= STATE_SHORTREP_LIT_LIT \
? STATE_LIT_LIT \
: ((state) <= STATE_LIT_SHORTREP \
? (state) - 3 \
: (state) - 6))
/// Indicate that the latest state was a match.
#define update_match(state) \
state = ((state) < LIT_STATES ? STATE_LIT_MATCH : STATE_NONLIT_MATCH)
/// Indicate that the latest state was a long repeated match.
#define update_long_rep(state) \
state = ((state) < LIT_STATES ? STATE_LIT_LONGREP : STATE_NONLIT_REP)
/// Indicate that the latest state was a short match.
#define update_short_rep(state) \
state = ((state) < LIT_STATES ? STATE_LIT_SHORTREP : STATE_NONLIT_REP)
/// Test if the previous state was a literal.
#define is_literal_state(state) \
((state) < LIT_STATES)
/////////////
// Literal //
/////////////
/// Each literal coder is divided in three sections:
/// - 0x001-0x0FF: Without match byte
/// - 0x101-0x1FF: With match byte; match bit is 0
/// - 0x201-0x2FF: With match byte; match bit is 1
///
/// Match byte is used when the previous LZMA symbol was something else than
/// a literal (that is, it was some kind of match).
#define LITERAL_CODER_SIZE 0x300
/// Maximum number of literal coders
#define LITERAL_CODERS_MAX (1 << LZMA_LCLP_MAX)
/// Locate the literal coder for the next literal byte. The choice depends on
/// - the lowest literal_pos_bits bits of the position of the current
/// byte; and
/// - the highest literal_context_bits bits of the previous byte.
#define literal_subcoder(probs, lc, lp_mask, pos, prev_byte) \
((probs)[(((pos) & lp_mask) << lc) + ((prev_byte) >> (8 - lc))])
static inline void
literal_init(probability (*probs)[LITERAL_CODER_SIZE],
uint32_t lc, uint32_t lp)
{
assert(lc + lp <= LZMA_LCLP_MAX);
const uint32_t coders = 1U << (lc + lp);
for (uint32_t i = 0; i < coders; ++i)
for (uint32_t j = 0; j < LITERAL_CODER_SIZE; ++j)
bit_reset(probs[i][j]);
return;
}
//////////////////
// Match length //
//////////////////
// Minimum length of a match is two bytes.
#define MATCH_LEN_MIN 2
// Match length is encoded with 4, 5, or 10 bits.
//
// Length Bits
// 2-9 4 = Choice=0 + 3 bits
// 10-17 5 = Choice=1 + Choice2=0 + 3 bits
// 18-273 10 = Choice=1 + Choice2=1 + 8 bits
#define LEN_LOW_BITS 3
#define LEN_LOW_SYMBOLS (1 << LEN_LOW_BITS)
#define LEN_MID_BITS 3
#define LEN_MID_SYMBOLS (1 << LEN_MID_BITS)
#define LEN_HIGH_BITS 8
#define LEN_HIGH_SYMBOLS (1 << LEN_HIGH_BITS)
#define LEN_SYMBOLS (LEN_LOW_SYMBOLS + LEN_MID_SYMBOLS + LEN_HIGH_SYMBOLS)
// Maximum length of a match is 273 which is a result of the encoding
// described above.
#define MATCH_LEN_MAX (MATCH_LEN_MIN + LEN_SYMBOLS - 1)
////////////////////
// Match distance //
////////////////////
// Different sets of probabilities are used for match distances that have very
// short match length: Lengths of 2, 3, and 4 bytes have a separate set of
// probabilities for each length. The matches with longer length use a shared
// set of probabilities.
#define DIST_STATES 4
// Macro to get the index of the appropriate probability array.
#define get_dist_state(len) \
((len) < DIST_STATES + MATCH_LEN_MIN \
? (len) - MATCH_LEN_MIN \
: DIST_STATES - 1)
// The highest two bits of a match distance (distance slot) are encoded
// using six bits. See fastpos.h for more explanation.
#define DIST_SLOT_BITS 6
#define DIST_SLOTS (1 << DIST_SLOT_BITS)
// Match distances up to 127 are fully encoded using probabilities. Since
// the highest two bits (distance slot) are always encoded using six bits,
// the distances 0-3 don't need any additional bits to encode, since the
// distance slot itself is the same as the actual distance. DIST_MODEL_START
// indicates the first distance slot where at least one additional bit is
// needed.
#define DIST_MODEL_START 4
// Match distances greater than 127 are encoded in three pieces:
// - distance slot: the highest two bits
// - direct bits: 2-26 bits below the highest two bits
// - alignment bits: four lowest bits
//
// Direct bits don't use any probabilities.
//
// The distance slot value of 14 is for distances 128-191 (see the table in
// fastpos.h to understand why).
#define DIST_MODEL_END 14
// Distance slots that indicate a distance <= 127.
#define FULL_DISTANCES_BITS (DIST_MODEL_END / 2)
#define FULL_DISTANCES (1 << FULL_DISTANCES_BITS)
// For match distances greater than 127, only the highest two bits and the
// lowest four bits (alignment) is encoded using probabilities.
#define ALIGN_BITS 4
#define ALIGN_SIZE (1 << ALIGN_BITS)
#define ALIGN_MASK (ALIGN_SIZE - 1)
// LZMA remembers the four most recent match distances. Reusing these distances
// tends to take less space than re-encoding the actual distance value.
#define REPS 4
#endif
game/client/third/minizip/lib/liblzma/lzma/lzma_decoder.c
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game/client/third/minizip/lib/liblzma/lzma/lzma_decoder.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lzma_decoder.h
/// \brief LZMA decoder API
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_LZMA_DECODER_H
#define LZMA_LZMA_DECODER_H
#include "common.h"
/// Allocates and initializes LZMA decoder
extern lzma_ret lzma_lzma_decoder_init(lzma_next_coder *next,
const lzma_allocator *allocator,
const lzma_filter_info *filters);
extern uint64_t lzma_lzma_decoder_memusage(const void *options);
extern lzma_ret lzma_lzma_props_decode(
void **options, const lzma_allocator *allocator,
const uint8_t *props, size_t props_size);
/// \brief Decodes the LZMA Properties byte (lc/lp/pb)
///
/// \return true if error occurred, false on success
///
extern bool lzma_lzma_lclppb_decode(
lzma_options_lzma *options, uint8_t byte);
#ifdef LZMA_LZ_DECODER_H
/// Allocate and setup function pointers only. This is used by LZMA1 and
/// LZMA2 decoders.
extern lzma_ret lzma_lzma_decoder_create(
lzma_lz_decoder *lz, const lzma_allocator *allocator,
const void *opt, lzma_lz_options *lz_options);
/// Gets memory usage without validating lc/lp/pb. This is used by LZMA2
/// decoder, because raw LZMA2 decoding doesn't need lc/lp/pb.
extern uint64_t lzma_lzma_decoder_memusage_nocheck(const void *options);
#endif
#endif
game/client/third/minizip/lib/liblzma/lzma/lzma_encoder.c
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lzma_encoder.c
/// \brief LZMA encoder
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "lzma2_encoder.h"
#include "lzma_encoder_private.h"
#include "fastpos.h"
/////////////
// Literal //
/////////////
static inline void
literal_matched(lzma_range_encoder *rc, probability *subcoder,
uint32_t match_byte, uint32_t symbol)
{
uint32_t offset = 0x100;
symbol += UINT32_C(1) << 8;
do {
match_byte <<= 1;
const uint32_t match_bit = match_byte & offset;
const uint32_t subcoder_index
= offset + match_bit + (symbol >> 8);
const uint32_t bit = (symbol >> 7) & 1;
rc_bit(rc, &subcoder[subcoder_index], bit);
symbol <<= 1;
offset &= ~(match_byte ^ symbol);
} while (symbol < (UINT32_C(1) << 16));
}
static inline void
literal(lzma_lzma1_encoder *coder, lzma_mf *mf, uint32_t position)
{
// Locate the literal byte to be encoded and the subcoder.
const uint8_t cur_byte = mf->buffer[
mf->read_pos - mf->read_ahead];
probability *subcoder = literal_subcoder(coder->literal,
coder->literal_context_bits, coder->literal_pos_mask,
position, mf->buffer[mf->read_pos - mf->read_ahead - 1]);
if (is_literal_state(coder->state)) {
// Previous LZMA-symbol was a literal. Encode a normal
// literal without a match byte.
rc_bittree(&coder->rc, subcoder, 8, cur_byte);
} else {
// Previous LZMA-symbol was a match. Use the last byte of
// the match as a "match byte". That is, compare the bits
// of the current literal and the match byte.
const uint8_t match_byte = mf->buffer[
mf->read_pos - coder->reps[0] - 1
- mf->read_ahead];
literal_matched(&coder->rc, subcoder, match_byte, cur_byte);
}
update_literal(coder->state);
}
//////////////////
// Match length //
//////////////////
static void
length_update_prices(lzma_length_encoder *lc, const uint32_t pos_state)
{
const uint32_t table_size = lc->table_size;
lc->counters[pos_state] = table_size;
const uint32_t a0 = rc_bit_0_price(lc->choice);
const uint32_t a1 = rc_bit_1_price(lc->choice);
const uint32_t b0 = a1 + rc_bit_0_price(lc->choice2);
const uint32_t b1 = a1 + rc_bit_1_price(lc->choice2);
uint32_t *const prices = lc->prices[pos_state];
uint32_t i;
for (i = 0; i < table_size && i < LEN_LOW_SYMBOLS; ++i)
prices[i] = a0 + rc_bittree_price(lc->low[pos_state],
LEN_LOW_BITS, i);
for (; i < table_size && i < LEN_LOW_SYMBOLS + LEN_MID_SYMBOLS; ++i)
prices[i] = b0 + rc_bittree_price(lc->mid[pos_state],
LEN_MID_BITS, i - LEN_LOW_SYMBOLS);
for (; i < table_size; ++i)
prices[i] = b1 + rc_bittree_price(lc->high, LEN_HIGH_BITS,
i - LEN_LOW_SYMBOLS - LEN_MID_SYMBOLS);
return;
}
static inline void
length(lzma_range_encoder *rc, lzma_length_encoder *lc,
const uint32_t pos_state, uint32_t len, const bool fast_mode)
{
assert(len <= MATCH_LEN_MAX);
len -= MATCH_LEN_MIN;
if (len < LEN_LOW_SYMBOLS) {
rc_bit(rc, &lc->choice, 0);
rc_bittree(rc, lc->low[pos_state], LEN_LOW_BITS, len);
} else {
rc_bit(rc, &lc->choice, 1);
len -= LEN_LOW_SYMBOLS;
if (len < LEN_MID_SYMBOLS) {
rc_bit(rc, &lc->choice2, 0);
rc_bittree(rc, lc->mid[pos_state], LEN_MID_BITS, len);
} else {
rc_bit(rc, &lc->choice2, 1);
len -= LEN_MID_SYMBOLS;
rc_bittree(rc, lc->high, LEN_HIGH_BITS, len);
}
}
// Only getoptimum uses the prices so don't update the table when
// in fast mode.
if (!fast_mode)
if (--lc->counters[pos_state] == 0)
length_update_prices(lc, pos_state);
}
///////////
// Match //
///////////
static inline void
match(lzma_lzma1_encoder *coder, const uint32_t pos_state,
const uint32_t distance, const uint32_t len)
{
update_match(coder->state);
length(&coder->rc, &coder->match_len_encoder, pos_state, len,
coder->fast_mode);
const uint32_t dist_slot = get_dist_slot(distance);
const uint32_t dist_state = get_dist_state(len);
rc_bittree(&coder->rc, coder->dist_slot[dist_state],
DIST_SLOT_BITS, dist_slot);
if (dist_slot >= DIST_MODEL_START) {
const uint32_t footer_bits = (dist_slot >> 1) - 1;
const uint32_t base = (2 | (dist_slot & 1)) << footer_bits;
const uint32_t dist_reduced = distance - base;
if (dist_slot < DIST_MODEL_END) {
// Careful here: base - dist_slot - 1 can be -1, but
// rc_bittree_reverse starts at probs[1], not probs[0].
rc_bittree_reverse(&coder->rc,
coder->dist_special + base - dist_slot - 1,
footer_bits, dist_reduced);
} else {
rc_direct(&coder->rc, dist_reduced >> ALIGN_BITS,
footer_bits - ALIGN_BITS);
rc_bittree_reverse(
&coder->rc, coder->dist_align,
ALIGN_BITS, dist_reduced & ALIGN_MASK);
++coder->align_price_count;
}
}
coder->reps[3] = coder->reps[2];
coder->reps[2] = coder->reps[1];
coder->reps[1] = coder->reps[0];
coder->reps[0] = distance;
++coder->match_price_count;
}
////////////////////
// Repeated match //
////////////////////
static inline void
rep_match(lzma_lzma1_encoder *coder, const uint32_t pos_state,
const uint32_t rep, const uint32_t len)
{
if (rep == 0) {
rc_bit(&coder->rc, &coder->is_rep0[coder->state], 0);
rc_bit(&coder->rc,
&coder->is_rep0_long[coder->state][pos_state],
len != 1);
} else {
const uint32_t distance = coder->reps[rep];
rc_bit(&coder->rc, &coder->is_rep0[coder->state], 1);
if (rep == 1) {
rc_bit(&coder->rc, &coder->is_rep1[coder->state], 0);
} else {
rc_bit(&coder->rc, &coder->is_rep1[coder->state], 1);
rc_bit(&coder->rc, &coder->is_rep2[coder->state],
rep - 2);
if (rep == 3)
coder->reps[3] = coder->reps[2];
coder->reps[2] = coder->reps[1];
}
coder->reps[1] = coder->reps[0];
coder->reps[0] = distance;
}
if (len == 1) {
update_short_rep(coder->state);
} else {
length(&coder->rc, &coder->rep_len_encoder, pos_state, len,
coder->fast_mode);
update_long_rep(coder->state);
}
}
//////////
// Main //
//////////
static void
encode_symbol(lzma_lzma1_encoder *coder, lzma_mf *mf,
uint32_t back, uint32_t len, uint32_t position)
{
const uint32_t pos_state = position & coder->pos_mask;
if (back == UINT32_MAX) {
// Literal i.e. eight-bit byte
assert(len == 1);
rc_bit(&coder->rc,
&coder->is_match[coder->state][pos_state], 0);
literal(coder, mf, position);
} else {
// Some type of match
rc_bit(&coder->rc,
&coder->is_match[coder->state][pos_state], 1);
if (back < REPS) {
// It's a repeated match i.e. the same distance
// has been used earlier.
rc_bit(&coder->rc, &coder->is_rep[coder->state], 1);
rep_match(coder, pos_state, back, len);
} else {
// Normal match
rc_bit(&coder->rc, &coder->is_rep[coder->state], 0);
match(coder, pos_state, back - REPS, len);
}
}
assert(mf->read_ahead >= len);
mf->read_ahead -= len;
}
static bool
encode_init(lzma_lzma1_encoder *coder, lzma_mf *mf)
{
assert(mf_position(mf) == 0);
if (mf->read_pos == mf->read_limit) {
if (mf->action == LZMA_RUN)
return false; // We cannot do anything.
// We are finishing (we cannot get here when flushing).
assert(mf->write_pos == mf->read_pos);
assert(mf->action == LZMA_FINISH);
} else {
// Do the actual initialization. The first LZMA symbol must
// always be a literal.
mf_skip(mf, 1);
mf->read_ahead = 0;
rc_bit(&coder->rc, &coder->is_match[0][0], 0);
rc_bittree(&coder->rc, coder->literal[0], 8, mf->buffer[0]);
}
// Initialization is done (except if empty file).
coder->is_initialized = true;
return true;
}
static void
encode_eopm(lzma_lzma1_encoder *coder, uint32_t position)
{
const uint32_t pos_state = position & coder->pos_mask;
rc_bit(&coder->rc, &coder->is_match[coder->state][pos_state], 1);
rc_bit(&coder->rc, &coder->is_rep[coder->state], 0);
match(coder, pos_state, UINT32_MAX, MATCH_LEN_MIN);
}
/// Number of bytes that a single encoding loop in lzma_lzma_encode() can
/// consume from the dictionary. This limit comes from lzma_lzma_optimum()
/// and may need to be updated if that function is significantly modified.
#define LOOP_INPUT_MAX (OPTS + 1)
extern lzma_ret
lzma_lzma_encode(lzma_lzma1_encoder *restrict coder, lzma_mf *restrict mf,
uint8_t *restrict out, size_t *restrict out_pos,
size_t out_size, uint32_t limit)
{
// Initialize the stream if no data has been encoded yet.
if (!coder->is_initialized && !encode_init(coder, mf))
return LZMA_OK;
// Get the lowest bits of the uncompressed offset from the LZ layer.
uint32_t position = mf_position(mf);
while (true) {
// Encode pending bits, if any. Calling this before encoding
// the next symbol is needed only with plain LZMA, since
// LZMA2 always provides big enough buffer to flush
// everything out from the range encoder. For the same reason,
// rc_encode() never returns true when this function is used
// as part of LZMA2 encoder.
if (rc_encode(&coder->rc, out, out_pos, out_size)) {
assert(limit == UINT32_MAX);
return LZMA_OK;
}
// With LZMA2 we need to take care that compressed size of
// a chunk doesn't get too big.
// FIXME? Check if this could be improved.
if (limit != UINT32_MAX
&& (mf->read_pos - mf->read_ahead >= limit
|| *out_pos + rc_pending(&coder->rc)
>= LZMA2_CHUNK_MAX
- LOOP_INPUT_MAX))
break;
// Check that there is some input to process.
if (mf->read_pos >= mf->read_limit) {
if (mf->action == LZMA_RUN)
return LZMA_OK;
if (mf->read_ahead == 0)
break;
}
// Get optimal match (repeat position and length).
// Value ranges for pos:
// - [0, REPS): repeated match
// - [REPS, UINT32_MAX):
// match at (pos - REPS)
// - UINT32_MAX: not a match but a literal
// Value ranges for len:
// - [MATCH_LEN_MIN, MATCH_LEN_MAX]
uint32_t len;
uint32_t back;
if (coder->fast_mode)
lzma_lzma_optimum_fast(coder, mf, &back, &len);
else
lzma_lzma_optimum_normal(
coder, mf, &back, &len, position);
encode_symbol(coder, mf, back, len, position);
position += len;
}
if (!coder->is_flushed) {
coder->is_flushed = true;
// We don't support encoding plain LZMA streams without EOPM,
// and LZMA2 doesn't use EOPM at LZMA level.
if (limit == UINT32_MAX)
encode_eopm(coder, position);
// Flush the remaining bytes from the range encoder.
rc_flush(&coder->rc);
// Copy the remaining bytes to the output buffer. If there
// isn't enough output space, we will copy out the remaining
// bytes on the next call to this function by using
// the rc_encode() call in the encoding loop above.
if (rc_encode(&coder->rc, out, out_pos, out_size)) {
assert(limit == UINT32_MAX);
return LZMA_OK;
}
}
// Make it ready for the next LZMA2 chunk.
coder->is_flushed = false;
return LZMA_STREAM_END;
}
static lzma_ret
lzma_encode(void *coder, lzma_mf *restrict mf,
uint8_t *restrict out, size_t *restrict out_pos,
size_t out_size)
{
// Plain LZMA has no support for sync-flushing.
if (unlikely(mf->action == LZMA_SYNC_FLUSH))
return LZMA_OPTIONS_ERROR;
return lzma_lzma_encode(coder, mf, out, out_pos, out_size, UINT32_MAX);
}
////////////////////
// Initialization //
////////////////////
static bool
is_options_valid(const lzma_options_lzma *options)
{
// Validate some of the options. LZ encoder validates nice_len too
// but we need a valid value here earlier.
return is_lclppb_valid(options)
&& options->nice_len >= MATCH_LEN_MIN
&& options->nice_len <= MATCH_LEN_MAX
&& (options->mode == LZMA_MODE_FAST
|| options->mode == LZMA_MODE_NORMAL);
}
static void
set_lz_options(lzma_lz_options *lz_options, const lzma_options_lzma *options)
{
// LZ encoder initialization does the validation for these so we
// don't need to validate here.
lz_options->before_size = OPTS;
lz_options->dict_size = options->dict_size;
lz_options->after_size = LOOP_INPUT_MAX;
lz_options->match_len_max = MATCH_LEN_MAX;
lz_options->nice_len = options->nice_len;
lz_options->match_finder = options->mf;
lz_options->depth = options->depth;
lz_options->preset_dict = options->preset_dict;
lz_options->preset_dict_size = options->preset_dict_size;
return;
}
static void
length_encoder_reset(lzma_length_encoder *lencoder,
const uint32_t num_pos_states, const bool fast_mode)
{
bit_reset(lencoder->choice);
bit_reset(lencoder->choice2);
for (size_t pos_state = 0; pos_state < num_pos_states; ++pos_state) {
bittree_reset(lencoder->low[pos_state], LEN_LOW_BITS);
bittree_reset(lencoder->mid[pos_state], LEN_MID_BITS);
}
bittree_reset(lencoder->high, LEN_HIGH_BITS);
if (!fast_mode)
for (uint32_t pos_state = 0; pos_state < num_pos_states;
++pos_state)
length_update_prices(lencoder, pos_state);
return;
}
extern lzma_ret
lzma_lzma_encoder_reset(lzma_lzma1_encoder *coder,
const lzma_options_lzma *options)
{
if (!is_options_valid(options))
return LZMA_OPTIONS_ERROR;
coder->pos_mask = (1U << options->pb) - 1;
coder->literal_context_bits = options->lc;
coder->literal_pos_mask = (1U << options->lp) - 1;
// Range coder
rc_reset(&coder->rc);
// State
coder->state = STATE_LIT_LIT;
for (size_t i = 0; i < REPS; ++i)
coder->reps[i] = 0;
literal_init(coder->literal, options->lc, options->lp);
// Bit encoders
for (size_t i = 0; i < STATES; ++i) {
for (size_t j = 0; j <= coder->pos_mask; ++j) {
bit_reset(coder->is_match[i][j]);
bit_reset(coder->is_rep0_long[i][j]);
}
bit_reset(coder->is_rep[i]);
bit_reset(coder->is_rep0[i]);
bit_reset(coder->is_rep1[i]);
bit_reset(coder->is_rep2[i]);
}
for (size_t i = 0; i < FULL_DISTANCES - DIST_MODEL_END; ++i)
bit_reset(coder->dist_special[i]);
// Bit tree encoders
for (size_t i = 0; i < DIST_STATES; ++i)
bittree_reset(coder->dist_slot[i], DIST_SLOT_BITS);
bittree_reset(coder->dist_align, ALIGN_BITS);
// Length encoders
length_encoder_reset(&coder->match_len_encoder,
1U << options->pb, coder->fast_mode);
length_encoder_reset(&coder->rep_len_encoder,
1U << options->pb, coder->fast_mode);
// Price counts are incremented every time appropriate probabilities
// are changed. price counts are set to zero when the price tables
// are updated, which is done when the appropriate price counts have
// big enough value, and lzma_mf.read_ahead == 0 which happens at
// least every OPTS (a few thousand) possible price count increments.
//
// By resetting price counts to UINT32_MAX / 2, we make sure that the
// price tables will be initialized before they will be used (since
// the value is definitely big enough), and that it is OK to increment
// price counts without risk of integer overflow (since UINT32_MAX / 2
// is small enough). The current code doesn't increment price counts
// before initializing price tables, but it maybe done in future if
// we add support for saving the state between LZMA2 chunks.
coder->match_price_count = UINT32_MAX / 2;
coder->align_price_count = UINT32_MAX / 2;
coder->opts_end_index = 0;
coder->opts_current_index = 0;
return LZMA_OK;
}
extern lzma_ret
lzma_lzma_encoder_create(void **coder_ptr,
const lzma_allocator *allocator,
const lzma_options_lzma *options, lzma_lz_options *lz_options)
{
// Allocate lzma_lzma1_encoder if it wasn't already allocated.
if (*coder_ptr == NULL) {
*coder_ptr = lzma_alloc(sizeof(lzma_lzma1_encoder), allocator);
if (*coder_ptr == NULL)
return LZMA_MEM_ERROR;
}
lzma_lzma1_encoder *coder = *coder_ptr;
// Set compression mode. We haven't validates the options yet,
// but it's OK here, since nothing bad happens with invalid
// options in the code below, and they will get rejected by
// lzma_lzma_encoder_reset() call at the end of this function.
switch (options->mode) {
case LZMA_MODE_FAST:
coder->fast_mode = true;
break;
case LZMA_MODE_NORMAL: {
coder->fast_mode = false;
// Set dist_table_size.
// Round the dictionary size up to next 2^n.
uint32_t log_size = 0;
while ((UINT32_C(1) << log_size) < options->dict_size)
++log_size;
coder->dist_table_size = log_size * 2;
// Length encoders' price table size
coder->match_len_encoder.table_size
= options->nice_len + 1 - MATCH_LEN_MIN;
coder->rep_len_encoder.table_size
= options->nice_len + 1 - MATCH_LEN_MIN;
break;
}
default:
return LZMA_OPTIONS_ERROR;
}
// We don't need to write the first byte as literal if there is
// a non-empty preset dictionary. encode_init() wouldn't even work
// if there is a non-empty preset dictionary, because encode_init()
// assumes that position is zero and previous byte is also zero.
coder->is_initialized = options->preset_dict != NULL
&& options->preset_dict_size > 0;
coder->is_flushed = false;
set_lz_options(lz_options, options);
return lzma_lzma_encoder_reset(coder, options);
}
static lzma_ret
lzma_encoder_init(lzma_lz_encoder *lz, const lzma_allocator *allocator,
const void *options, lzma_lz_options *lz_options)
{
lz->code = &lzma_encode;
return lzma_lzma_encoder_create(
&lz->coder, allocator, options, lz_options);
}
extern lzma_ret
lzma_lzma_encoder_init(lzma_next_coder *next, const lzma_allocator *allocator,
const lzma_filter_info *filters)
{
return lzma_lz_encoder_init(
next, allocator, filters, &lzma_encoder_init);
}
extern uint64_t
lzma_lzma_encoder_memusage(const void *options)
{
if (!is_options_valid(options))
return UINT64_MAX;
lzma_lz_options lz_options;
set_lz_options(&lz_options, options);
const uint64_t lz_memusage = lzma_lz_encoder_memusage(&lz_options);
if (lz_memusage == UINT64_MAX)
return UINT64_MAX;
return (uint64_t)(sizeof(lzma_lzma1_encoder)) + lz_memusage;
}
extern bool
lzma_lzma_lclppb_encode(const lzma_options_lzma *options, uint8_t *byte)
{
if (!is_lclppb_valid(options))
return true;
*byte = (options->pb * 5 + options->lp) * 9 + options->lc;
assert(*byte <= (4 * 5 + 4) * 9 + 8);
return false;
}
#ifdef HAVE_ENCODER_LZMA1
extern lzma_ret
lzma_lzma_props_encode(const void *options, uint8_t *out)
{
const lzma_options_lzma *const opt = options;
if (lzma_lzma_lclppb_encode(opt, out))
return LZMA_PROG_ERROR;
unaligned_write32le(out + 1, opt->dict_size);
return LZMA_OK;
}
#endif
extern LZMA_API(lzma_bool)
lzma_mode_is_supported(lzma_mode mode)
{
return mode == LZMA_MODE_FAST || mode == LZMA_MODE_NORMAL;
}
game/client/third/minizip/lib/liblzma/lzma/lzma_encoder.h
Executable
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lzma_encoder.h
/// \brief LZMA encoder API
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_LZMA_ENCODER_H
#define LZMA_LZMA_ENCODER_H
#include "common.h"
typedef struct lzma_lzma1_encoder_s lzma_lzma1_encoder;
extern lzma_ret lzma_lzma_encoder_init(lzma_next_coder *next,
const lzma_allocator *allocator,
const lzma_filter_info *filters);
extern uint64_t lzma_lzma_encoder_memusage(const void *options);
extern lzma_ret lzma_lzma_props_encode(const void *options, uint8_t *out);
/// Encodes lc/lp/pb into one byte. Returns false on success and true on error.
extern bool lzma_lzma_lclppb_encode(
const lzma_options_lzma *options, uint8_t *byte);
#ifdef LZMA_LZ_ENCODER_H
/// Initializes raw LZMA encoder; this is used by LZMA2.
extern lzma_ret lzma_lzma_encoder_create(
void **coder_ptr, const lzma_allocator *allocator,
const lzma_options_lzma *options, lzma_lz_options *lz_options);
/// Resets an already initialized LZMA encoder; this is used by LZMA2.
extern lzma_ret lzma_lzma_encoder_reset(
lzma_lzma1_encoder *coder, const lzma_options_lzma *options);
extern lzma_ret lzma_lzma_encode(lzma_lzma1_encoder *restrict coder,
lzma_mf *restrict mf, uint8_t *restrict out,
size_t *restrict out_pos, size_t out_size,
uint32_t read_limit);
#endif
#endif
game/client/third/minizip/lib/liblzma/lzma/lzma_encoder_optimum_fast.c
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lzma_encoder_optimum_fast.c
//
// Author: Igor Pavlov
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "lzma_encoder_private.h"
#include "memcmplen.h"
#define change_pair(small_dist, big_dist) \
(((big_dist) >> 7) > (small_dist))
extern void
lzma_lzma_optimum_fast(lzma_lzma1_encoder *restrict coder,
lzma_mf *restrict mf,
uint32_t *restrict back_res, uint32_t *restrict len_res)
{
const uint32_t nice_len = mf->nice_len;
uint32_t len_main;
uint32_t matches_count;
if (mf->read_ahead == 0) {
len_main = mf_find(mf, &matches_count, coder->matches);
} else {
assert(mf->read_ahead == 1);
len_main = coder->longest_match_length;
matches_count = coder->matches_count;
}
const uint8_t *buf = mf_ptr(mf) - 1;
const uint32_t buf_avail = my_min(mf_avail(mf) + 1, MATCH_LEN_MAX);
if (buf_avail < 2) {
// There's not enough input left to encode a match.
*back_res = UINT32_MAX;
*len_res = 1;
return;
}
// Look for repeated matches; scan the previous four match distances
uint32_t rep_len = 0;
uint32_t rep_index = 0;
for (uint32_t i = 0; i < REPS; ++i) {
// Pointer to the beginning of the match candidate
const uint8_t *const buf_back = buf - coder->reps[i] - 1;
// If the first two bytes (2 == MATCH_LEN_MIN) do not match,
// this rep is not useful.
if (not_equal_16(buf, buf_back))
continue;
// The first two bytes matched.
// Calculate the length of the match.
const uint32_t len = lzma_memcmplen(
buf, buf_back, 2, buf_avail);
// If we have found a repeated match that is at least
// nice_len long, return it immediately.
if (len >= nice_len) {
*back_res = i;
*len_res = len;
mf_skip(mf, len - 1);
return;
}
if (len > rep_len) {
rep_index = i;
rep_len = len;
}
}
// We didn't find a long enough repeated match. Encode it as a normal
// match if the match length is at least nice_len.
if (len_main >= nice_len) {
*back_res = coder->matches[matches_count - 1].dist + REPS;
*len_res = len_main;
mf_skip(mf, len_main - 1);
return;
}
uint32_t back_main = 0;
if (len_main >= 2) {
back_main = coder->matches[matches_count - 1].dist;
while (matches_count > 1 && len_main ==
coder->matches[matches_count - 2].len + 1) {
if (!change_pair(coder->matches[
matches_count - 2].dist,
back_main))
break;
--matches_count;
len_main = coder->matches[matches_count - 1].len;
back_main = coder->matches[matches_count - 1].dist;
}
if (len_main == 2 && back_main >= 0x80)
len_main = 1;
}
if (rep_len >= 2) {
if (rep_len + 1 >= len_main
|| (rep_len + 2 >= len_main
&& back_main > (UINT32_C(1) << 9))
|| (rep_len + 3 >= len_main
&& back_main > (UINT32_C(1) << 15))) {
*back_res = rep_index;
*len_res = rep_len;
mf_skip(mf, rep_len - 1);
return;
}
}
if (len_main < 2 || buf_avail <= 2) {
*back_res = UINT32_MAX;
*len_res = 1;
return;
}
// Get the matches for the next byte. If we find a better match,
// the current byte is encoded as a literal.
coder->longest_match_length = mf_find(mf,
&coder->matches_count, coder->matches);
if (coder->longest_match_length >= 2) {
const uint32_t new_dist = coder->matches[
coder->matches_count - 1].dist;
if ((coder->longest_match_length >= len_main
&& new_dist < back_main)
|| (coder->longest_match_length == len_main + 1
&& !change_pair(back_main, new_dist))
|| (coder->longest_match_length > len_main + 1)
|| (coder->longest_match_length + 1 >= len_main
&& len_main >= 3
&& change_pair(new_dist, back_main))) {
*back_res = UINT32_MAX;
*len_res = 1;
return;
}
}
// In contrast to LZMA SDK, dictionary could not have been moved
// between mf_find() calls, thus it is safe to just increment
// the old buf pointer instead of recalculating it with mf_ptr().
++buf;
const uint32_t limit = my_max(2, len_main - 1);
for (uint32_t i = 0; i < REPS; ++i) {
if (memcmp(buf, buf - coder->reps[i] - 1, limit) == 0) {
*back_res = UINT32_MAX;
*len_res = 1;
return;
}
}
*back_res = back_main + REPS;
*len_res = len_main;
mf_skip(mf, len_main - 2);
return;
}
game/client/third/minizip/lib/liblzma/lzma/lzma_encoder_optimum_normal.c
Executable
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lzma_encoder_optimum_normal.c
//
// Author: Igor Pavlov
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "lzma_encoder_private.h"
#include "fastpos.h"
#include "memcmplen.h"
////////////
// Prices //
////////////
static uint32_t
get_literal_price(const lzma_lzma1_encoder *const coder, const uint32_t pos,
const uint32_t prev_byte, const bool match_mode,
uint32_t match_byte, uint32_t symbol)
{
const probability *const subcoder = literal_subcoder(coder->literal,
coder->literal_context_bits, coder->literal_pos_mask,
pos, prev_byte);
uint32_t price = 0;
if (!match_mode) {
price = rc_bittree_price(subcoder, 8, symbol);
} else {
uint32_t offset = 0x100;
symbol += UINT32_C(1) << 8;
do {
match_byte <<= 1;
const uint32_t match_bit = match_byte & offset;
const uint32_t subcoder_index
= offset + match_bit + (symbol >> 8);
const uint32_t bit = (symbol >> 7) & 1;
price += rc_bit_price(subcoder[subcoder_index], bit);
symbol <<= 1;
offset &= ~(match_byte ^ symbol);
} while (symbol < (UINT32_C(1) << 16));
}
return price;
}
static inline uint32_t
get_len_price(const lzma_length_encoder *const lencoder,
const uint32_t len, const uint32_t pos_state)
{
// NOTE: Unlike the other price tables, length prices are updated
// in lzma_encoder.c
return lencoder->prices[pos_state][len - MATCH_LEN_MIN];
}
static inline uint32_t
get_short_rep_price(const lzma_lzma1_encoder *const coder,
const lzma_lzma_state state, const uint32_t pos_state)
{
return rc_bit_0_price(coder->is_rep0[state])
+ rc_bit_0_price(coder->is_rep0_long[state][pos_state]);
}
static inline uint32_t
get_pure_rep_price(const lzma_lzma1_encoder *const coder, const uint32_t rep_index,
const lzma_lzma_state state, uint32_t pos_state)
{
uint32_t price;
if (rep_index == 0) {
price = rc_bit_0_price(coder->is_rep0[state]);
price += rc_bit_1_price(coder->is_rep0_long[state][pos_state]);
} else {
price = rc_bit_1_price(coder->is_rep0[state]);
if (rep_index == 1) {
price += rc_bit_0_price(coder->is_rep1[state]);
} else {
price += rc_bit_1_price(coder->is_rep1[state]);
price += rc_bit_price(coder->is_rep2[state],
rep_index - 2);
}
}
return price;
}
static inline uint32_t
get_rep_price(const lzma_lzma1_encoder *const coder, const uint32_t rep_index,
const uint32_t len, const lzma_lzma_state state,
const uint32_t pos_state)
{
return get_len_price(&coder->rep_len_encoder, len, pos_state)
+ get_pure_rep_price(coder, rep_index, state, pos_state);
}
static inline uint32_t
get_dist_len_price(const lzma_lzma1_encoder *const coder, const uint32_t dist,
const uint32_t len, const uint32_t pos_state)
{
const uint32_t dist_state = get_dist_state(len);
uint32_t price;
if (dist < FULL_DISTANCES) {
price = coder->dist_prices[dist_state][dist];
} else {
const uint32_t dist_slot = get_dist_slot_2(dist);
price = coder->dist_slot_prices[dist_state][dist_slot]
+ coder->align_prices[dist & ALIGN_MASK];
}
price += get_len_price(&coder->match_len_encoder, len, pos_state);
return price;
}
static void
fill_dist_prices(lzma_lzma1_encoder *coder)
{
for (uint32_t dist_state = 0; dist_state < DIST_STATES; ++dist_state) {
uint32_t *const dist_slot_prices
= coder->dist_slot_prices[dist_state];
// Price to encode the dist_slot.
for (uint32_t dist_slot = 0;
dist_slot < coder->dist_table_size; ++dist_slot)
dist_slot_prices[dist_slot] = rc_bittree_price(
coder->dist_slot[dist_state],
DIST_SLOT_BITS, dist_slot);
// For matches with distance >= FULL_DISTANCES, add the price
// of the direct bits part of the match distance. (Align bits
// are handled by fill_align_prices()).
for (uint32_t dist_slot = DIST_MODEL_END;
dist_slot < coder->dist_table_size;
++dist_slot)
dist_slot_prices[dist_slot] += rc_direct_price(
((dist_slot >> 1) - 1) - ALIGN_BITS);
// Distances in the range [0, 3] are fully encoded with
// dist_slot, so they are used for coder->dist_prices
// as is.
for (uint32_t i = 0; i < DIST_MODEL_START; ++i)
coder->dist_prices[dist_state][i]
= dist_slot_prices[i];
}
// Distances in the range [4, 127] depend on dist_slot and
// dist_special. We do this in a loop separate from the above
// loop to avoid redundant calls to get_dist_slot().
for (uint32_t i = DIST_MODEL_START; i < FULL_DISTANCES; ++i) {
const uint32_t dist_slot = get_dist_slot(i);
const uint32_t footer_bits = ((dist_slot >> 1) - 1);
const uint32_t base = (2 | (dist_slot & 1)) << footer_bits;
const uint32_t price = rc_bittree_reverse_price(
coder->dist_special + base - dist_slot - 1,
footer_bits, i - base);
for (uint32_t dist_state = 0; dist_state < DIST_STATES;
++dist_state)
coder->dist_prices[dist_state][i]
= price + coder->dist_slot_prices[
dist_state][dist_slot];
}
coder->match_price_count = 0;
return;
}
static void
fill_align_prices(lzma_lzma1_encoder *coder)
{
for (uint32_t i = 0; i < ALIGN_SIZE; ++i)
coder->align_prices[i] = rc_bittree_reverse_price(
coder->dist_align, ALIGN_BITS, i);
coder->align_price_count = 0;
return;
}
/////////////
// Optimal //
/////////////
static inline void
make_literal(lzma_optimal *optimal)
{
optimal->back_prev = UINT32_MAX;
optimal->prev_1_is_literal = false;
}
static inline void
make_short_rep(lzma_optimal *optimal)
{
optimal->back_prev = 0;
optimal->prev_1_is_literal = false;
}
#define is_short_rep(optimal) \
((optimal).back_prev == 0)
static void
backward(lzma_lzma1_encoder *restrict coder, uint32_t *restrict len_res,
uint32_t *restrict back_res, uint32_t cur)
{
coder->opts_end_index = cur;
uint32_t pos_mem = coder->opts[cur].pos_prev;
uint32_t back_mem = coder->opts[cur].back_prev;
do {
if (coder->opts[cur].prev_1_is_literal) {
make_literal(&coder->opts[pos_mem]);
coder->opts[pos_mem].pos_prev = pos_mem - 1;
if (coder->opts[cur].prev_2) {
coder->opts[pos_mem - 1].prev_1_is_literal
= false;
coder->opts[pos_mem - 1].pos_prev
= coder->opts[cur].pos_prev_2;
coder->opts[pos_mem - 1].back_prev
= coder->opts[cur].back_prev_2;
}
}
const uint32_t pos_prev = pos_mem;
const uint32_t back_cur = back_mem;
back_mem = coder->opts[pos_prev].back_prev;
pos_mem = coder->opts[pos_prev].pos_prev;
coder->opts[pos_prev].back_prev = back_cur;
coder->opts[pos_prev].pos_prev = cur;
cur = pos_prev;
} while (cur != 0);
coder->opts_current_index = coder->opts[0].pos_prev;
*len_res = coder->opts[0].pos_prev;
*back_res = coder->opts[0].back_prev;
return;
}
//////////
// Main //
//////////
static inline uint32_t
helper1(lzma_lzma1_encoder *restrict coder, lzma_mf *restrict mf,
uint32_t *restrict back_res, uint32_t *restrict len_res,
uint32_t position)
{
const uint32_t nice_len = mf->nice_len;
uint32_t len_main;
uint32_t matches_count;
if (mf->read_ahead == 0) {
len_main = mf_find(mf, &matches_count, coder->matches);
} else {
assert(mf->read_ahead == 1);
len_main = coder->longest_match_length;
matches_count = coder->matches_count;
}
const uint32_t buf_avail = my_min(mf_avail(mf) + 1, MATCH_LEN_MAX);
if (buf_avail < 2) {
*back_res = UINT32_MAX;
*len_res = 1;
return UINT32_MAX;
}
const uint8_t *const buf = mf_ptr(mf) - 1;
uint32_t rep_lens[REPS];
uint32_t rep_max_index = 0;
for (uint32_t i = 0; i < REPS; ++i) {
const uint8_t *const buf_back = buf - coder->reps[i] - 1;
if (not_equal_16(buf, buf_back)) {
rep_lens[i] = 0;
continue;
}
rep_lens[i] = lzma_memcmplen(buf, buf_back, 2, buf_avail);
if (rep_lens[i] > rep_lens[rep_max_index])
rep_max_index = i;
}
if (rep_lens[rep_max_index] >= nice_len) {
*back_res = rep_max_index;
*len_res = rep_lens[rep_max_index];
mf_skip(mf, *len_res - 1);
return UINT32_MAX;
}
if (len_main >= nice_len) {
*back_res = coder->matches[matches_count - 1].dist + REPS;
*len_res = len_main;
mf_skip(mf, len_main - 1);
return UINT32_MAX;
}
const uint8_t current_byte = *buf;
const uint8_t match_byte = *(buf - coder->reps[0] - 1);
if (len_main < 2 && current_byte != match_byte
&& rep_lens[rep_max_index] < 2) {
*back_res = UINT32_MAX;
*len_res = 1;
return UINT32_MAX;
}
coder->opts[0].state = coder->state;
const uint32_t pos_state = position & coder->pos_mask;
coder->opts[1].price = rc_bit_0_price(
coder->is_match[coder->state][pos_state])
+ get_literal_price(coder, position, buf[-1],
!is_literal_state(coder->state),
match_byte, current_byte);
make_literal(&coder->opts[1]);
const uint32_t match_price = rc_bit_1_price(
coder->is_match[coder->state][pos_state]);
const uint32_t rep_match_price = match_price
+ rc_bit_1_price(coder->is_rep[coder->state]);
if (match_byte == current_byte) {
const uint32_t short_rep_price = rep_match_price
+ get_short_rep_price(
coder, coder->state, pos_state);
if (short_rep_price < coder->opts[1].price) {
coder->opts[1].price = short_rep_price;
make_short_rep(&coder->opts[1]);
}
}
const uint32_t len_end = my_max(len_main, rep_lens[rep_max_index]);
if (len_end < 2) {
*back_res = coder->opts[1].back_prev;
*len_res = 1;
return UINT32_MAX;
}
coder->opts[1].pos_prev = 0;
for (uint32_t i = 0; i < REPS; ++i)
coder->opts[0].backs[i] = coder->reps[i];
uint32_t len = len_end;
do {
coder->opts[len].price = RC_INFINITY_PRICE;
} while (--len >= 2);
for (uint32_t i = 0; i < REPS; ++i) {
uint32_t rep_len = rep_lens[i];
if (rep_len < 2)
continue;
const uint32_t price = rep_match_price + get_pure_rep_price(
coder, i, coder->state, pos_state);
do {
const uint32_t cur_and_len_price = price
+ get_len_price(
&coder->rep_len_encoder,
rep_len, pos_state);
if (cur_and_len_price < coder->opts[rep_len].price) {
coder->opts[rep_len].price = cur_and_len_price;
coder->opts[rep_len].pos_prev = 0;
coder->opts[rep_len].back_prev = i;
coder->opts[rep_len].prev_1_is_literal = false;
}
} while (--rep_len >= 2);
}
const uint32_t normal_match_price = match_price
+ rc_bit_0_price(coder->is_rep[coder->state]);
len = rep_lens[0] >= 2 ? rep_lens[0] + 1 : 2;
if (len <= len_main) {
uint32_t i = 0;
while (len > coder->matches[i].len)
++i;
for(; ; ++len) {
const uint32_t dist = coder->matches[i].dist;
const uint32_t cur_and_len_price = normal_match_price
+ get_dist_len_price(coder,
dist, len, pos_state);
if (cur_and_len_price < coder->opts[len].price) {
coder->opts[len].price = cur_and_len_price;
coder->opts[len].pos_prev = 0;
coder->opts[len].back_prev = dist + REPS;
coder->opts[len].prev_1_is_literal = false;
}
if (len == coder->matches[i].len)
if (++i == matches_count)
break;
}
}
return len_end;
}
static inline uint32_t
helper2(lzma_lzma1_encoder *coder, uint32_t *reps, const uint8_t *buf,
uint32_t len_end, uint32_t position, const uint32_t cur,
const uint32_t nice_len, const uint32_t buf_avail_full)
{
uint32_t matches_count = coder->matches_count;
uint32_t new_len = coder->longest_match_length;
uint32_t pos_prev = coder->opts[cur].pos_prev;
lzma_lzma_state state;
if (coder->opts[cur].prev_1_is_literal) {
--pos_prev;
if (coder->opts[cur].prev_2) {
state = coder->opts[coder->opts[cur].pos_prev_2].state;
if (coder->opts[cur].back_prev_2 < REPS)
update_long_rep(state);
else
update_match(state);
} else {
state = coder->opts[pos_prev].state;
}
update_literal(state);
} else {
state = coder->opts[pos_prev].state;
}
if (pos_prev == cur - 1) {
if (is_short_rep(coder->opts[cur]))
update_short_rep(state);
else
update_literal(state);
} else {
uint32_t pos;
if (coder->opts[cur].prev_1_is_literal
&& coder->opts[cur].prev_2) {
pos_prev = coder->opts[cur].pos_prev_2;
pos = coder->opts[cur].back_prev_2;
update_long_rep(state);
} else {
pos = coder->opts[cur].back_prev;
if (pos < REPS)
update_long_rep(state);
else
update_match(state);
}
if (pos < REPS) {
reps[0] = coder->opts[pos_prev].backs[pos];
uint32_t i;
for (i = 1; i <= pos; ++i)
reps[i] = coder->opts[pos_prev].backs[i - 1];
for (; i < REPS; ++i)
reps[i] = coder->opts[pos_prev].backs[i];
} else {
reps[0] = pos - REPS;
for (uint32_t i = 1; i < REPS; ++i)
reps[i] = coder->opts[pos_prev].backs[i - 1];
}
}
coder->opts[cur].state = state;
for (uint32_t i = 0; i < REPS; ++i)
coder->opts[cur].backs[i] = reps[i];
const uint32_t cur_price = coder->opts[cur].price;
const uint8_t current_byte = *buf;
const uint8_t match_byte = *(buf - reps[0] - 1);
const uint32_t pos_state = position & coder->pos_mask;
const uint32_t cur_and_1_price = cur_price
+ rc_bit_0_price(coder->is_match[state][pos_state])
+ get_literal_price(coder, position, buf[-1],
!is_literal_state(state), match_byte, current_byte);
bool next_is_literal = false;
if (cur_and_1_price < coder->opts[cur + 1].price) {
coder->opts[cur + 1].price = cur_and_1_price;
coder->opts[cur + 1].pos_prev = cur;
make_literal(&coder->opts[cur + 1]);
next_is_literal = true;
}
const uint32_t match_price = cur_price
+ rc_bit_1_price(coder->is_match[state][pos_state]);
const uint32_t rep_match_price = match_price
+ rc_bit_1_price(coder->is_rep[state]);
if (match_byte == current_byte
&& !(coder->opts[cur + 1].pos_prev < cur
&& coder->opts[cur + 1].back_prev == 0)) {
const uint32_t short_rep_price = rep_match_price
+ get_short_rep_price(coder, state, pos_state);
if (short_rep_price <= coder->opts[cur + 1].price) {
coder->opts[cur + 1].price = short_rep_price;
coder->opts[cur + 1].pos_prev = cur;
make_short_rep(&coder->opts[cur + 1]);
next_is_literal = true;
}
}
if (buf_avail_full < 2)
return len_end;
const uint32_t buf_avail = my_min(buf_avail_full, nice_len);
if (!next_is_literal && match_byte != current_byte) { // speed optimization
// try literal + rep0
const uint8_t *const buf_back = buf - reps[0] - 1;
const uint32_t limit = my_min(buf_avail_full, nice_len + 1);
const uint32_t len_test = lzma_memcmplen(buf, buf_back, 1, limit) - 1;
if (len_test >= 2) {
lzma_lzma_state state_2 = state;
update_literal(state_2);
const uint32_t pos_state_next = (position + 1) & coder->pos_mask;
const uint32_t next_rep_match_price = cur_and_1_price
+ rc_bit_1_price(coder->is_match[state_2][pos_state_next])
+ rc_bit_1_price(coder->is_rep[state_2]);
//for (; len_test >= 2; --len_test) {
const uint32_t offset = cur + 1 + len_test;
while (len_end < offset)
coder->opts[++len_end].price = RC_INFINITY_PRICE;
const uint32_t cur_and_len_price = next_rep_match_price
+ get_rep_price(coder, 0, len_test,
state_2, pos_state_next);
if (cur_and_len_price < coder->opts[offset].price) {
coder->opts[offset].price = cur_and_len_price;
coder->opts[offset].pos_prev = cur + 1;
coder->opts[offset].back_prev = 0;
coder->opts[offset].prev_1_is_literal = true;
coder->opts[offset].prev_2 = false;
}
//}
}
}
uint32_t start_len = 2; // speed optimization
for (uint32_t rep_index = 0; rep_index < REPS; ++rep_index) {
const uint8_t *const buf_back = buf - reps[rep_index] - 1;
if (not_equal_16(buf, buf_back))
continue;
uint32_t len_test = lzma_memcmplen(buf, buf_back, 2, buf_avail);
while (len_end < cur + len_test)
coder->opts[++len_end].price = RC_INFINITY_PRICE;
const uint32_t len_test_temp = len_test;
const uint32_t price = rep_match_price + get_pure_rep_price(
coder, rep_index, state, pos_state);
do {
const uint32_t cur_and_len_price = price
+ get_len_price(&coder->rep_len_encoder,
len_test, pos_state);
if (cur_and_len_price < coder->opts[cur + len_test].price) {
coder->opts[cur + len_test].price = cur_and_len_price;
coder->opts[cur + len_test].pos_prev = cur;
coder->opts[cur + len_test].back_prev = rep_index;
coder->opts[cur + len_test].prev_1_is_literal = false;
}
} while (--len_test >= 2);
len_test = len_test_temp;
if (rep_index == 0)
start_len = len_test + 1;
uint32_t len_test_2 = len_test + 1;
const uint32_t limit = my_min(buf_avail_full,
len_test_2 + nice_len);
for (; len_test_2 < limit
&& buf[len_test_2] == buf_back[len_test_2];
++len_test_2) ;
len_test_2 -= len_test + 1;
if (len_test_2 >= 2) {
lzma_lzma_state state_2 = state;
update_long_rep(state_2);
uint32_t pos_state_next = (position + len_test) & coder->pos_mask;
const uint32_t cur_and_len_literal_price = price
+ get_len_price(&coder->rep_len_encoder,
len_test, pos_state)
+ rc_bit_0_price(coder->is_match[state_2][pos_state_next])
+ get_literal_price(coder, position + len_test,
buf[len_test - 1], true,
buf_back[len_test], buf[len_test]);
update_literal(state_2);
pos_state_next = (position + len_test + 1) & coder->pos_mask;
const uint32_t next_rep_match_price = cur_and_len_literal_price
+ rc_bit_1_price(coder->is_match[state_2][pos_state_next])
+ rc_bit_1_price(coder->is_rep[state_2]);
//for(; len_test_2 >= 2; len_test_2--) {
const uint32_t offset = cur + len_test + 1 + len_test_2;
while (len_end < offset)
coder->opts[++len_end].price = RC_INFINITY_PRICE;
const uint32_t cur_and_len_price = next_rep_match_price
+ get_rep_price(coder, 0, len_test_2,
state_2, pos_state_next);
if (cur_and_len_price < coder->opts[offset].price) {
coder->opts[offset].price = cur_and_len_price;
coder->opts[offset].pos_prev = cur + len_test + 1;
coder->opts[offset].back_prev = 0;
coder->opts[offset].prev_1_is_literal = true;
coder->opts[offset].prev_2 = true;
coder->opts[offset].pos_prev_2 = cur;
coder->opts[offset].back_prev_2 = rep_index;
}
//}
}
}
//for (uint32_t len_test = 2; len_test <= new_len; ++len_test)
if (new_len > buf_avail) {
new_len = buf_avail;
matches_count = 0;
while (new_len > coder->matches[matches_count].len)
++matches_count;
coder->matches[matches_count++].len = new_len;
}
if (new_len >= start_len) {
const uint32_t normal_match_price = match_price
+ rc_bit_0_price(coder->is_rep[state]);
while (len_end < cur + new_len)
coder->opts[++len_end].price = RC_INFINITY_PRICE;
uint32_t i = 0;
while (start_len > coder->matches[i].len)
++i;
for (uint32_t len_test = start_len; ; ++len_test) {
const uint32_t cur_back = coder->matches[i].dist;
uint32_t cur_and_len_price = normal_match_price
+ get_dist_len_price(coder,
cur_back, len_test, pos_state);
if (cur_and_len_price < coder->opts[cur + len_test].price) {
coder->opts[cur + len_test].price = cur_and_len_price;
coder->opts[cur + len_test].pos_prev = cur;
coder->opts[cur + len_test].back_prev
= cur_back + REPS;
coder->opts[cur + len_test].prev_1_is_literal = false;
}
if (len_test == coder->matches[i].len) {
// Try Match + Literal + Rep0
const uint8_t *const buf_back = buf - cur_back - 1;
uint32_t len_test_2 = len_test + 1;
const uint32_t limit = my_min(buf_avail_full,
len_test_2 + nice_len);
for (; len_test_2 < limit &&
buf[len_test_2] == buf_back[len_test_2];
++len_test_2) ;
len_test_2 -= len_test + 1;
if (len_test_2 >= 2) {
lzma_lzma_state state_2 = state;
update_match(state_2);
uint32_t pos_state_next
= (position + len_test) & coder->pos_mask;
const uint32_t cur_and_len_literal_price = cur_and_len_price
+ rc_bit_0_price(
coder->is_match[state_2][pos_state_next])
+ get_literal_price(coder,
position + len_test,
buf[len_test - 1],
true,
buf_back[len_test],
buf[len_test]);
update_literal(state_2);
pos_state_next = (pos_state_next + 1) & coder->pos_mask;
const uint32_t next_rep_match_price
= cur_and_len_literal_price
+ rc_bit_1_price(
coder->is_match[state_2][pos_state_next])
+ rc_bit_1_price(coder->is_rep[state_2]);
// for(; len_test_2 >= 2; --len_test_2) {
const uint32_t offset = cur + len_test + 1 + len_test_2;
while (len_end < offset)
coder->opts[++len_end].price = RC_INFINITY_PRICE;
cur_and_len_price = next_rep_match_price
+ get_rep_price(coder, 0, len_test_2,
state_2, pos_state_next);
if (cur_and_len_price < coder->opts[offset].price) {
coder->opts[offset].price = cur_and_len_price;
coder->opts[offset].pos_prev = cur + len_test + 1;
coder->opts[offset].back_prev = 0;
coder->opts[offset].prev_1_is_literal = true;
coder->opts[offset].prev_2 = true;
coder->opts[offset].pos_prev_2 = cur;
coder->opts[offset].back_prev_2
= cur_back + REPS;
}
//}
}
if (++i == matches_count)
break;
}
}
}
return len_end;
}
extern void
lzma_lzma_optimum_normal(lzma_lzma1_encoder *restrict coder,
lzma_mf *restrict mf,
uint32_t *restrict back_res, uint32_t *restrict len_res,
uint32_t position)
{
// If we have symbols pending, return the next pending symbol.
if (coder->opts_end_index != coder->opts_current_index) {
assert(mf->read_ahead > 0);
*len_res = coder->opts[coder->opts_current_index].pos_prev
- coder->opts_current_index;
*back_res = coder->opts[coder->opts_current_index].back_prev;
coder->opts_current_index = coder->opts[
coder->opts_current_index].pos_prev;
return;
}
// Update the price tables. In LZMA SDK <= 4.60 (and possibly later)
// this was done in both initialization function and in the main loop.
// In liblzma they were moved into this single place.
if (mf->read_ahead == 0) {
if (coder->match_price_count >= (1 << 7))
fill_dist_prices(coder);
if (coder->align_price_count >= ALIGN_SIZE)
fill_align_prices(coder);
}
// TODO: This needs quite a bit of cleaning still. But splitting
// the original function into two pieces makes it at least a little
// more readable, since those two parts don't share many variables.
uint32_t len_end = helper1(coder, mf, back_res, len_res, position);
if (len_end == UINT32_MAX)
return;
uint32_t reps[REPS];
memcpy(reps, coder->reps, sizeof(reps));
uint32_t cur;
for (cur = 1; cur < len_end; ++cur) {
assert(cur < OPTS);
coder->longest_match_length = mf_find(
mf, &coder->matches_count, coder->matches);
if (coder->longest_match_length >= mf->nice_len)
break;
len_end = helper2(coder, reps, mf_ptr(mf) - 1, len_end,
position + cur, cur, mf->nice_len,
my_min(mf_avail(mf) + 1, OPTS - 1 - cur));
}
backward(coder, len_res, back_res, cur);
return;
}
game/client/third/minizip/lib/liblzma/lzma/lzma_encoder_presets.c
Executable
+64
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lzma_encoder_presets.c
/// \brief Encoder presets
/// \note xz needs this even when only decoding is enabled.
//
// Author: Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#include "common.h"
extern LZMA_API(lzma_bool)
lzma_lzma_preset(lzma_options_lzma *options, uint32_t preset)
{
const uint32_t level = preset & LZMA_PRESET_LEVEL_MASK;
const uint32_t flags = preset & ~LZMA_PRESET_LEVEL_MASK;
const uint32_t supported_flags = LZMA_PRESET_EXTREME;
if (level > 9 || (flags & ~supported_flags))
return true;
options->preset_dict = NULL;
options->preset_dict_size = 0;
options->lc = LZMA_LC_DEFAULT;
options->lp = LZMA_LP_DEFAULT;
options->pb = LZMA_PB_DEFAULT;
static const uint8_t dict_pow2[]
= { 18, 20, 21, 22, 22, 23, 23, 24, 25, 26 };
options->dict_size = UINT32_C(1) << dict_pow2[level];
if (level <= 3) {
options->mode = LZMA_MODE_FAST;
options->mf = level == 0 ? LZMA_MF_HC3 : LZMA_MF_HC4;
options->nice_len = level <= 1 ? 128 : 273;
static const uint8_t depths[] = { 4, 8, 24, 48 };
options->depth = depths[level];
} else {
options->mode = LZMA_MODE_NORMAL;
options->mf = LZMA_MF_BT4;
options->nice_len = level == 4 ? 16 : level == 5 ? 32 : 64;
options->depth = 0;
}
if (flags & LZMA_PRESET_EXTREME) {
options->mode = LZMA_MODE_NORMAL;
options->mf = LZMA_MF_BT4;
if (level == 3 || level == 5) {
options->nice_len = 192;
options->depth = 0;
} else {
options->nice_len = 273;
options->depth = 512;
}
}
return false;
}
game/client/third/minizip/lib/liblzma/lzma/lzma_encoder_private.h
Executable
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///////////////////////////////////////////////////////////////////////////////
//
/// \file lzma_encoder_private.h
/// \brief Private definitions for LZMA encoder
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_LZMA_ENCODER_PRIVATE_H
#define LZMA_LZMA_ENCODER_PRIVATE_H
#include "lz_encoder.h"
#include "range_encoder.h"
#include "lzma_common.h"
#include "lzma_encoder.h"
// Macro to compare if the first two bytes in two buffers differ. This is
// needed in lzma_lzma_optimum_*() to test if the match is at least
// MATCH_LEN_MIN bytes. Unaligned access gives tiny gain so there's no
// reason to not use it when it is supported.
#ifdef TUKLIB_FAST_UNALIGNED_ACCESS
# define not_equal_16(a, b) \
(*(const uint16_t *)(a) != *(const uint16_t *)(b))
#else
# define not_equal_16(a, b) \
((a)[0] != (b)[0] || (a)[1] != (b)[1])
#endif
// Optimal - Number of entries in the optimum array.
#define OPTS (1 << 12)
typedef struct {
probability choice;
probability choice2;
probability low[POS_STATES_MAX][LEN_LOW_SYMBOLS];
probability mid[POS_STATES_MAX][LEN_MID_SYMBOLS];
probability high[LEN_HIGH_SYMBOLS];
uint32_t prices[POS_STATES_MAX][LEN_SYMBOLS];
uint32_t table_size;
uint32_t counters[POS_STATES_MAX];
} lzma_length_encoder;
typedef struct {
lzma_lzma_state state;
bool prev_1_is_literal;
bool prev_2;
uint32_t pos_prev_2;
uint32_t back_prev_2;
uint32_t price;
uint32_t pos_prev; // pos_next;
uint32_t back_prev;
uint32_t backs[REPS];
} lzma_optimal;
struct lzma_lzma1_encoder_s {
/// Range encoder
lzma_range_encoder rc;
/// State
lzma_lzma_state state;
/// The four most recent match distances
uint32_t reps[REPS];
/// Array of match candidates
lzma_match matches[MATCH_LEN_MAX + 1];
/// Number of match candidates in matches[]
uint32_t matches_count;
/// Variable to hold the length of the longest match between calls
/// to lzma_lzma_optimum_*().
uint32_t longest_match_length;
/// True if using getoptimumfast
bool fast_mode;
/// True if the encoder has been initialized by encoding the first
/// byte as a literal.
bool is_initialized;
/// True if the range encoder has been flushed, but not all bytes
/// have been written to the output buffer yet.
bool is_flushed;
uint32_t pos_mask; ///< (1 << pos_bits) - 1
uint32_t literal_context_bits;
uint32_t literal_pos_mask;
// These are the same as in lzma_decoder.c. See comments there.
probability literal[LITERAL_CODERS_MAX][LITERAL_CODER_SIZE];
probability is_match[STATES][POS_STATES_MAX];
probability is_rep[STATES];
probability is_rep0[STATES];
probability is_rep1[STATES];
probability is_rep2[STATES];
probability is_rep0_long[STATES][POS_STATES_MAX];
probability dist_slot[DIST_STATES][DIST_SLOTS];
probability dist_special[FULL_DISTANCES - DIST_MODEL_END];
probability dist_align[ALIGN_SIZE];
// These are the same as in lzma_decoder.c except that the encoders
// include also price tables.
lzma_length_encoder match_len_encoder;
lzma_length_encoder rep_len_encoder;
// Price tables
uint32_t dist_slot_prices[DIST_STATES][DIST_SLOTS];
uint32_t dist_prices[DIST_STATES][FULL_DISTANCES];
uint32_t dist_table_size;
uint32_t match_price_count;
uint32_t align_prices[ALIGN_SIZE];
uint32_t align_price_count;
// Optimal
uint32_t opts_end_index;
uint32_t opts_current_index;
lzma_optimal opts[OPTS];
};
extern void lzma_lzma_optimum_fast(
lzma_lzma1_encoder *restrict coder, lzma_mf *restrict mf,
uint32_t *restrict back_res, uint32_t *restrict len_res);
extern void lzma_lzma_optimum_normal(lzma_lzma1_encoder *restrict coder,
lzma_mf *restrict mf, uint32_t *restrict back_res,
uint32_t *restrict len_res, uint32_t position);
#endif
game/client/third/minizip/lib/liblzma/rangecoder/price.h
Executable
+92
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///////////////////////////////////////////////////////////////////////////////
//
/// \file price.h
/// \brief Probability price calculation
//
// Author: Igor Pavlov
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_PRICE_H
#define LZMA_PRICE_H
#define RC_MOVE_REDUCING_BITS 4
#define RC_BIT_PRICE_SHIFT_BITS 4
#define RC_PRICE_TABLE_SIZE (RC_BIT_MODEL_TOTAL >> RC_MOVE_REDUCING_BITS)
#define RC_INFINITY_PRICE (UINT32_C(1) << 30)
/// Lookup table for the inline functions defined in this file.
extern const uint8_t lzma_rc_prices[RC_PRICE_TABLE_SIZE];
static inline uint32_t
rc_bit_price(const probability prob, const uint32_t bit)
{
return lzma_rc_prices[(prob ^ ((UINT32_C(0) - bit)
& (RC_BIT_MODEL_TOTAL - 1))) >> RC_MOVE_REDUCING_BITS];
}
static inline uint32_t
rc_bit_0_price(const probability prob)
{
return lzma_rc_prices[prob >> RC_MOVE_REDUCING_BITS];
}
static inline uint32_t
rc_bit_1_price(const probability prob)
{
return lzma_rc_prices[(prob ^ (RC_BIT_MODEL_TOTAL - 1))
>> RC_MOVE_REDUCING_BITS];
}
static inline uint32_t
rc_bittree_price(const probability *const probs,
const uint32_t bit_levels, uint32_t symbol)
{
uint32_t price = 0;
symbol += UINT32_C(1) << bit_levels;
do {
const uint32_t bit = symbol & 1;
symbol >>= 1;
price += rc_bit_price(probs[symbol], bit);
} while (symbol != 1);
return price;
}
static inline uint32_t
rc_bittree_reverse_price(const probability *const probs,
uint32_t bit_levels, uint32_t symbol)
{
uint32_t price = 0;
uint32_t model_index = 1;
do {
const uint32_t bit = symbol & 1;
symbol >>= 1;
price += rc_bit_price(probs[model_index], bit);
model_index = (model_index << 1) + bit;
} while (--bit_levels != 0);
return price;
}
static inline uint32_t
rc_direct_price(const uint32_t bits)
{
return bits << RC_BIT_PRICE_SHIFT_BITS;
}
#endif
game/client/third/minizip/lib/liblzma/rangecoder/price_table.c
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/* This file has been automatically generated by price_tablegen.c. */
#include "range_encoder.h"
const uint8_t lzma_rc_prices[RC_PRICE_TABLE_SIZE] = {
128, 103, 91, 84, 78, 73, 69, 66,
63, 61, 58, 56, 54, 52, 51, 49,
48, 46, 45, 44, 43, 42, 41, 40,
39, 38, 37, 36, 35, 34, 34, 33,
32, 31, 31, 30, 29, 29, 28, 28,
27, 26, 26, 25, 25, 24, 24, 23,
23, 22, 22, 22, 21, 21, 20, 20,
19, 19, 19, 18, 18, 17, 17, 17,
16, 16, 16, 15, 15, 15, 14, 14,
14, 13, 13, 13, 12, 12, 12, 11,
11, 11, 11, 10, 10, 10, 10, 9,
9, 9, 9, 8, 8, 8, 8, 7,
7, 7, 7, 6, 6, 6, 6, 5,
5, 5, 5, 5, 4, 4, 4, 4,
3, 3, 3, 3, 3, 2, 2, 2,
2, 2, 2, 1, 1, 1, 1, 1
};
game/client/third/minizip/lib/liblzma/rangecoder/range_common.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file range_common.h
/// \brief Common things for range encoder and decoder
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_RANGE_COMMON_H
#define LZMA_RANGE_COMMON_H
#ifdef HAVE_CONFIG_H
# include "common.h"
#endif
///////////////
// Constants //
///////////////
#define RC_SHIFT_BITS 8
#define RC_TOP_BITS 24
#define RC_TOP_VALUE (UINT32_C(1) << RC_TOP_BITS)
#define RC_BIT_MODEL_TOTAL_BITS 11
#define RC_BIT_MODEL_TOTAL (UINT32_C(1) << RC_BIT_MODEL_TOTAL_BITS)
#define RC_MOVE_BITS 5
////////////
// Macros //
////////////
// Resets the probability so that both 0 and 1 have probability of 50 %
#define bit_reset(prob) \
prob = RC_BIT_MODEL_TOTAL >> 1
// This does the same for a complete bit tree.
// (A tree represented as an array.)
#define bittree_reset(probs, bit_levels) \
for (uint32_t bt_i = 0; bt_i < (1 << (bit_levels)); ++bt_i) \
bit_reset((probs)[bt_i])
//////////////////////
// Type definitions //
//////////////////////
/// \brief Type of probabilities used with range coder
///
/// This needs to be at least 12-bit integer, so uint16_t is a logical choice.
/// However, on some architecture and compiler combinations, a bigger type
/// may give better speed, because the probability variables are accessed
/// a lot. On the other hand, bigger probability type increases cache
/// footprint, since there are 2 to 14 thousand probability variables in
/// LZMA (assuming the limit of lc + lp <= 4; with lc + lp <= 12 there
/// would be about 1.5 million variables).
///
/// With malicious files, the initialization speed of the LZMA decoder can
/// become important. In that case, smaller probability variables mean that
/// there is less bytes to write to RAM, which makes initialization faster.
/// With big probability type, the initialization can become so slow that it
/// can be a problem e.g. for email servers doing virus scanning.
///
/// I will be sticking to uint16_t unless some specific architectures
/// are *much* faster (20-50 %) with uint32_t.
typedef uint16_t probability;
#endif
game/client/third/minizip/lib/liblzma/rangecoder/range_decoder.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file range_decoder.h
/// \brief Range Decoder
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_RANGE_DECODER_H
#define LZMA_RANGE_DECODER_H
#include "range_common.h"
typedef struct {
uint32_t range;
uint32_t code;
uint32_t init_bytes_left;
} lzma_range_decoder;
/// Reads the first five bytes to initialize the range decoder.
static inline lzma_ret
rc_read_init(lzma_range_decoder *rc, const uint8_t *restrict in,
size_t *restrict in_pos, size_t in_size)
{
while (rc->init_bytes_left > 0) {
if (*in_pos == in_size)
return LZMA_OK;
// The first byte is always 0x00. It could have been omitted
// in LZMA2 but it wasn't, so one byte is wasted in every
// LZMA2 chunk.
if (rc->init_bytes_left == 5 && in[*in_pos] != 0x00)
return LZMA_DATA_ERROR;
rc->code = (rc->code << 8) | in[*in_pos];
++*in_pos;
--rc->init_bytes_left;
}
return LZMA_STREAM_END;
}
/// Makes local copies of range decoder and *in_pos variables. Doing this
/// improves speed significantly. The range decoder macros expect also
/// variables `in' and `in_size' to be defined.
#define rc_to_local(range_decoder, in_pos) \
lzma_range_decoder rc = range_decoder; \
size_t rc_in_pos = (in_pos); \
uint32_t rc_bound
/// Stores the local copes back to the range decoder structure.
#define rc_from_local(range_decoder, in_pos) \
do { \
range_decoder = rc; \
in_pos = rc_in_pos; \
} while (0)
/// Resets the range decoder structure.
#define rc_reset(range_decoder) \
do { \
(range_decoder).range = UINT32_MAX; \
(range_decoder).code = 0; \
(range_decoder).init_bytes_left = 5; \
} while (0)
/// When decoding has been properly finished, rc.code is always zero unless
/// the input stream is corrupt. So checking this can catch some corrupt
/// files especially if they don't have any other integrity check.
#define rc_is_finished(range_decoder) \
((range_decoder).code == 0)
/// Read the next input byte if needed. If more input is needed but there is
/// no more input available, "goto out" is used to jump out of the main
/// decoder loop.
#define rc_normalize(seq) \
do { \
if (rc.range < RC_TOP_VALUE) { \
if (unlikely(rc_in_pos == in_size)) { \
coder->sequence = seq; \
goto out; \
} \
rc.range <<= RC_SHIFT_BITS; \
rc.code = (rc.code << RC_SHIFT_BITS) | in[rc_in_pos++]; \
} \
} while (0)
/// Start decoding a bit. This must be used together with rc_update_0()
/// and rc_update_1():
///
/// rc_if_0(prob, seq) {
/// rc_update_0(prob);
/// // Do something
/// } else {
/// rc_update_1(prob);
/// // Do something else
/// }
///
#define rc_if_0(prob, seq) \
rc_normalize(seq); \
rc_bound = (rc.range >> RC_BIT_MODEL_TOTAL_BITS) * (prob); \
if (rc.code < rc_bound)
/// Update the range decoder state and the used probability variable to
/// match a decoded bit of 0.
#define rc_update_0(prob) \
do { \
rc.range = rc_bound; \
prob += (RC_BIT_MODEL_TOTAL - (prob)) >> RC_MOVE_BITS; \
} while (0)
/// Update the range decoder state and the used probability variable to
/// match a decoded bit of 1.
#define rc_update_1(prob) \
do { \
rc.range -= rc_bound; \
rc.code -= rc_bound; \
prob -= (prob) >> RC_MOVE_BITS; \
} while (0)
/// Decodes one bit and runs action0 or action1 depending on the decoded bit.
/// This macro is used as the last step in bittree reverse decoders since
/// those don't use "symbol" for anything else than indexing the probability
/// arrays.
#define rc_bit_last(prob, action0, action1, seq) \
do { \
rc_if_0(prob, seq) { \
rc_update_0(prob); \
action0; \
} else { \
rc_update_1(prob); \
action1; \
} \
} while (0)
/// Decodes one bit, updates "symbol", and runs action0 or action1 depending
/// on the decoded bit.
#define rc_bit(prob, action0, action1, seq) \
rc_bit_last(prob, \
symbol <<= 1; action0, \
symbol = (symbol << 1) + 1; action1, \
seq);
/// Like rc_bit() but add "case seq:" as a prefix. This makes the unrolled
/// loops more readable because the code isn't littered with "case"
/// statements. On the other hand this also makes it less readable, since
/// spotting the places where the decoder loop may be restarted is less
/// obvious.
#define rc_bit_case(prob, action0, action1, seq) \
case seq: rc_bit(prob, action0, action1, seq)
/// Decode a bit without using a probability.
#define rc_direct(dest, seq) \
do { \
rc_normalize(seq); \
rc.range >>= 1; \
rc.code -= rc.range; \
rc_bound = UINT32_C(0) - (rc.code >> 31); \
rc.code += rc.range & rc_bound; \
dest = (dest << 1) + (rc_bound + 1); \
} while (0)
// NOTE: No macros are provided for bittree decoding. It seems to be simpler
// to just write them open in the code.
#endif
game/client/third/minizip/lib/liblzma/rangecoder/range_encoder.h
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///////////////////////////////////////////////////////////////////////////////
//
/// \file range_encoder.h
/// \brief Range Encoder
///
// Authors: Igor Pavlov
// Lasse Collin
//
// This file has been put into the public domain.
// You can do whatever you want with this file.
//
///////////////////////////////////////////////////////////////////////////////
#ifndef LZMA_RANGE_ENCODER_H
#define LZMA_RANGE_ENCODER_H
#include "range_common.h"
#include "price.h"
/// Maximum number of symbols that can be put pending into lzma_range_encoder
/// structure between calls to lzma_rc_encode(). For LZMA, 52+5 is enough
/// (match with big distance and length followed by range encoder flush).
#define RC_SYMBOLS_MAX 58
typedef struct {
uint64_t low;
uint64_t cache_size;
uint32_t range;
uint8_t cache;
/// Number of symbols in the tables
size_t count;
/// rc_encode()'s position in the tables
size_t pos;
/// Symbols to encode
enum {
RC_BIT_0,
RC_BIT_1,
RC_DIRECT_0,
RC_DIRECT_1,
RC_FLUSH,
} symbols[RC_SYMBOLS_MAX];
/// Probabilities associated with RC_BIT_0 or RC_BIT_1
probability *probs[RC_SYMBOLS_MAX];
} lzma_range_encoder;
static inline void
rc_reset(lzma_range_encoder *rc)
{
rc->low = 0;
rc->cache_size = 1;
rc->range = UINT32_MAX;
rc->cache = 0;
rc->count = 0;
rc->pos = 0;
}
static inline void
rc_bit(lzma_range_encoder *rc, probability *prob, uint32_t bit)
{
rc->symbols[rc->count] = bit;
rc->probs[rc->count] = prob;
++rc->count;
}
static inline void
rc_bittree(lzma_range_encoder *rc, probability *probs,
uint32_t bit_count, uint32_t symbol)
{
uint32_t model_index = 1;
do {
const uint32_t bit = (symbol >> --bit_count) & 1;
rc_bit(rc, &probs[model_index], bit);
model_index = (model_index << 1) + bit;
} while (bit_count != 0);
}
static inline void
rc_bittree_reverse(lzma_range_encoder *rc, probability *probs,
uint32_t bit_count, uint32_t symbol)
{
uint32_t model_index = 1;
do {
const uint32_t bit = symbol & 1;
symbol >>= 1;
rc_bit(rc, &probs[model_index], bit);
model_index = (model_index << 1) + bit;
} while (--bit_count != 0);
}
static inline void
rc_direct(lzma_range_encoder *rc,
uint32_t value, uint32_t bit_count)
{
do {
rc->symbols[rc->count++]
= RC_DIRECT_0 + ((value >> --bit_count) & 1);
} while (bit_count != 0);
}
static inline void
rc_flush(lzma_range_encoder *rc)
{
for (size_t i = 0; i < 5; ++i)
rc->symbols[rc->count++] = RC_FLUSH;
}
static inline bool
rc_shift_low(lzma_range_encoder *rc,
uint8_t *out, size_t *out_pos, size_t out_size)
{
if ((uint32_t)(rc->low) < (uint32_t)(0xFF000000)
|| (uint32_t)(rc->low >> 32) != 0) {
do {
if (*out_pos == out_size)
return true;
out[*out_pos] = rc->cache + (uint8_t)(rc->low >> 32);
++*out_pos;
rc->cache = 0xFF;
} while (--rc->cache_size != 0);
rc->cache = (rc->low >> 24) & 0xFF;
}
++rc->cache_size;
rc->low = (rc->low & 0x00FFFFFF) << RC_SHIFT_BITS;
return false;
}
static inline bool
rc_encode(lzma_range_encoder *rc,
uint8_t *out, size_t *out_pos, size_t out_size)
{
assert(rc->count <= RC_SYMBOLS_MAX);
while (rc->pos < rc->count) {
// Normalize
if (rc->range < RC_TOP_VALUE) {
if (rc_shift_low(rc, out, out_pos, out_size))
return true;
rc->range <<= RC_SHIFT_BITS;
}
// Encode a bit
switch (rc->symbols[rc->pos]) {
case RC_BIT_0: {
probability prob = *rc->probs[rc->pos];
rc->range = (rc->range >> RC_BIT_MODEL_TOTAL_BITS)
* prob;
prob += (RC_BIT_MODEL_TOTAL - prob) >> RC_MOVE_BITS;
*rc->probs[rc->pos] = prob;
break;
}
case RC_BIT_1: {
probability prob = *rc->probs[rc->pos];
const uint32_t bound = prob * (rc->range
>> RC_BIT_MODEL_TOTAL_BITS);
rc->low += bound;
rc->range -= bound;
prob -= prob >> RC_MOVE_BITS;
*rc->probs[rc->pos] = prob;
break;
}
case RC_DIRECT_0:
rc->range >>= 1;
break;
case RC_DIRECT_1:
rc->range >>= 1;
rc->low += rc->range;
break;
case RC_FLUSH:
// Prevent further normalizations.
rc->range = UINT32_MAX;
// Flush the last five bytes (see rc_flush()).
do {
if (rc_shift_low(rc, out, out_pos, out_size))
return true;
} while (++rc->pos < rc->count);
// Reset the range encoder so we are ready to continue
// encoding if we weren't finishing the stream.
rc_reset(rc);
return false;
default:
assert(0);
break;
}
++rc->pos;
}
rc->count = 0;
rc->pos = 0;
return false;
}
static inline uint64_t
rc_pending(const lzma_range_encoder *rc)
{
return rc->cache_size + 5 - 1;
}
#endif