/*

 * H.26L/H.264/AVC/JVT/14496-10/... encoder/decoder

 * Copyright (c) 2003 Michael Niedermayer <michaelni@gmx.at>

 *

 * This file is part of FFmpeg.

 *

 * FFmpeg is free software; you can redistribute it and/or

 * modify it under the terms of the GNU Lesser General Public

 * License as published by the Free Software Foundation; either

 * version 2.1 of the License, or (at your option) any later version.

 *

 * FFmpeg is distributed in the hope that it will be useful,

 * but WITHOUT ANY WARRANTY; without even the implied warranty of

 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the GNU

 * Lesser General Public License for more details.

 *

 * You should have received a copy of the GNU Lesser General Public

 * License along with FFmpeg; if not, write to the Free Software

 * Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA

 */

/**

 * @file

 * H.264 / AVC / MPEG-4 part10 codec.

 * @author Michael Niedermayer <michaelni@gmx.at>

 */

#ifndef AVCODEC_H264DEC_H

#define AVCODEC_H264DEC_H

#include "libavutil/buffer.h"

#include "libavutil/intreadwrite.h"

#include "libavutil/thread.h"

#include "cabac.h"

#include "error_resilience.h"

#include "h264_parse.h"

#include "h264_ps.h"

#include "h264_sei.h"

#include "h2645_parse.h"

#include "h264chroma.h"

#include "h264dsp.h"

#include "h264pred.h"

#include "h264qpel.h"

#include "internal.h"

#include "mpegutils.h"

#include "parser.h"

#include "qpeldsp.h"

#include "rectangle.h"

#include "videodsp.h"

#define H264_MAX_PICTURE_COUNT 36

#define MAX_MMCO_COUNT         66

#define MAX_DELAYED_PIC_COUNT  16

/* Compiling in interlaced support reduces the speed

 * of progressive decoding by about 2%. */

#define ALLOW_INTERLACE

#define FMO 0

/**

 * The maximum number of slices supported by the decoder.

 * must be a power of 2

 */

#define MAX_SLICES 32

#ifdef ALLOW_INTERLACE

#define MB_MBAFF(h)    (h)->mb_mbaff

#define MB_FIELD(sl)  (sl)->mb_field_decoding_flag

#define FRAME_MBAFF(h) (h)->mb_aff_frame

#define FIELD_PICTURE(h) ((h)->picture_structure != PICT_FRAME)

#define LEFT_MBS 2

#define LTOP     0

#define LBOT     1

#define LEFT(i)  (i)

#else

#define MB_MBAFF(h)      0

#define MB_FIELD(sl)     0

#define FRAME_MBAFF(h)   0

#define FIELD_PICTURE(h) 0

#undef  IS_INTERLACED

#define IS_INTERLACED(mb_type) 0

#define LEFT_MBS 1

#define LTOP     0

#define LBOT     0

#define LEFT(i)  0

#endif

#define FIELD_OR_MBAFF_PICTURE(h) (FRAME_MBAFF(h) || FIELD_PICTURE(h))

#ifndef CABAC

#define CABAC(h) (h)->ps.pps->cabac

#endif

#define CHROMA(h)    ((h)->ps.sps->chroma_format_idc)

#define CHROMA422(h) ((h)->ps.sps->chroma_format_idc == 2)

#define CHROMA444(h) ((h)->ps.sps->chroma_format_idc == 3)

#define MB_TYPE_REF0       MB_TYPE_ACPRED // dirty but it fits in 16 bit

#define MB_TYPE_8x8DCT     0x01000000

#define IS_REF0(a)         ((a) & MB_TYPE_REF0)

#define IS_8x8DCT(a)       ((a) & MB_TYPE_8x8DCT)

/**

 * Memory management control operation opcode.

 */

typedef enum MMCOOpcode {

    MMCO_END = 0,

    MMCO_SHORT2UNUSED,

    MMCO_LONG2UNUSED,

    MMCO_SHORT2LONG,

    MMCO_SET_MAX_LONG,

    MMCO_RESET,

    MMCO_LONG,

} MMCOOpcode;

/**

 * Memory management control operation.

 */

typedef struct MMCO {

    MMCOOpcode opcode;

    int short_pic_num;  ///< pic_num without wrapping (pic_num & max_pic_num)

    int long_arg;       ///< index, pic_num, or num long refs depending on opcode

} MMCO;

typedef struct H264Picture {

    AVFrame *f;

    ThreadFrame tf;

    AVBufferRef *qscale_table_buf;

    int8_t *qscale_table;

    AVBufferRef *motion_val_buf[2];

    int16_t (*motion_val[2])[2];

    AVBufferRef *mb_type_buf;

    uint32_t *mb_type;

    AVBufferRef *hwaccel_priv_buf;

    void *hwaccel_picture_private; ///< hardware accelerator private data

    AVBufferRef *ref_index_buf[2];

    int8_t *ref_index[2];

    int field_poc[2];       ///< top/bottom POC

    int poc;                ///< frame POC

    int frame_num;          ///< frame_num (raw frame_num from slice header)

    int mmco_reset;         /**< MMCO_RESET set this 1. Reordering code must

                                 not mix pictures before and after MMCO_RESET. */

    int pic_id;             /**< pic_num (short -> no wrap version of pic_num,

                                 pic_num & max_pic_num; long -> long_pic_num) */

    int long_ref;           ///< 1->long term reference 0->short term reference

    int ref_poc[2][2][32];  ///< POCs of the frames/fields used as reference (FIXME need per slice)

    int ref_count[2][2];    ///< number of entries in ref_poc         (FIXME need per slice)

    int mbaff;              ///< 1 -> MBAFF frame 0-> not MBAFF

    int field_picture;      ///< whether or not picture was encoded in separate fields

    int reference;

    int recovered;          ///< picture at IDR or recovery point + recovery count

    int invalid_gap;

    int sei_recovery_frame_cnt;

    AVBufferRef *pps_buf;

    const PPS   *pps;

    int mb_width, mb_height;

    int mb_stride;

} H264Picture;

typedef struct H264Ref {

    uint8_t *data[3];

    int linesize[3];

    int reference;

    int poc;

    int pic_id;

    H264Picture *parent;

} H264Ref;

typedef struct H264SliceContext {

    struct H264Context *h264;

    GetBitContext gb;

    ERContext er;

    int slice_num;

    int slice_type;

    int slice_type_nos;         ///< S free slice type (SI/SP are remapped to I/P)

    int slice_type_fixed;

    int qscale;

    int chroma_qp[2];   // QPc

    int qp_thresh;      ///< QP threshold to skip loopfilter

    int last_qscale_diff;

    // deblock

    int deblocking_filter;          ///< disable_deblocking_filter_idc with 1 <-> 0

    int slice_alpha_c0_offset;

    int slice_beta_offset;

    H264PredWeightTable pwt;

    int prev_mb_skipped;

    int next_mb_skipped;

    int chroma_pred_mode;

    int intra16x16_pred_mode;

    int8_t intra4x4_pred_mode_cache[5 * 8];

    int8_t(*intra4x4_pred_mode);

    int topleft_mb_xy;

    int top_mb_xy;

    int topright_mb_xy;

    int left_mb_xy[LEFT_MBS];

    int topleft_type;

    int top_type;

    int topright_type;

    int left_type[LEFT_MBS];

    const uint8_t *left_block;

    int topleft_partition;

    unsigned int topleft_samples_available;

    unsigned int top_samples_available;

    unsigned int topright_samples_available;

    unsigned int left_samples_available;

    ptrdiff_t linesize, uvlinesize;

    ptrdiff_t mb_linesize;  ///< may be equal to s->linesize or s->linesize * 2, for mbaff

    ptrdiff_t mb_uvlinesize;

    int mb_x, mb_y;

    int mb_xy;

    int resync_mb_x;

    int resync_mb_y;

    unsigned int first_mb_addr;

    // index of the first MB of the next slice

    int next_slice_idx;

    int mb_skip_run;

    int is_complex;

    int picture_structure;

    int mb_field_decoding_flag;

    int mb_mbaff;               ///< mb_aff_frame && mb_field_decoding_flag

    int redundant_pic_count;

    /**

     * number of neighbors (top and/or left) that used 8x8 dct

     */

    int neighbor_transform_size;

    int direct_spatial_mv_pred;

    int col_parity;

    int col_fieldoff;

    int cbp;

    int top_cbp;

    int left_cbp;

    int dist_scale_factor[32];

    int dist_scale_factor_field[2][32];

    int map_col_to_list0[2][16 + 32];

    int map_col_to_list0_field[2][2][16 + 32];

    /**

     * num_ref_idx_l0/1_active_minus1 + 1

     */

    unsigned int ref_count[2];          ///< counts frames or fields, depending on current mb mode

    unsigned int list_count;

    H264Ref ref_list[2][48];        /**< 0..15: frame refs, 16..47: mbaff field refs.

                                         *   Reordered version of default_ref_list

                                         *   according to picture reordering in slice header */

    struct {

        uint8_t op;

        uint32_t val;

    } ref_modifications[2][32];

    int nb_ref_modifications[2];

    unsigned int pps_id;

    const uint8_t *intra_pcm_ptr;

    int16_t *dc_val_base;

    uint8_t *bipred_scratchpad;

    uint8_t *edge_emu_buffer;

    uint8_t (*top_borders[2])[(16 * 3) * 2];

    int bipred_scratchpad_allocated;

    int edge_emu_buffer_allocated;

    int top_borders_allocated[2];

    /**

     * non zero coeff count cache.

     * is 64 if not available.

     */

    DECLARE_ALIGNED(8, uint8_t, non_zero_count_cache)[15 * 8];

    /**

     * Motion vector cache.

     */

    DECLARE_ALIGNED(16, int16_t, mv_cache)[2][5 * 8][2];

    DECLARE_ALIGNED(8,  int8_t, ref_cache)[2][5 * 8];

    DECLARE_ALIGNED(16, uint8_t, mvd_cache)[2][5 * 8][2];

    uint8_t direct_cache[5 * 8];

    DECLARE_ALIGNED(8, uint16_t, sub_mb_type)[4];

    ///< as a DCT coefficient is int32_t in high depth, we need to reserve twice the space.

    DECLARE_ALIGNED(16, int16_t, mb)[16 * 48 * 2];

    DECLARE_ALIGNED(16, int16_t, mb_luma_dc)[3][16 * 2];

    ///< as mb is addressed by scantable[i] and scantable is uint8_t we can either

    ///< check that i is not too large or ensure that there is some unused stuff after mb

    int16_t mb_padding[256 * 2];

    uint8_t (*mvd_table[2])[2];

    /**

     * Cabac

     */

    CABACContext cabac;

    uint8_t cabac_state[1024];

    int cabac_init_idc;

    MMCO mmco[MAX_MMCO_COUNT];

    int  nb_mmco;

    int explicit_ref_marking;

    int frame_num;

    int poc_lsb;

    int delta_poc_bottom;

    int delta_poc[2];

    int curr_pic_num;

    int max_pic_num;

} H264SliceContext;

/**

 * H264Context

 */

typedef struct H264Context {

    const AVClass *class;

    AVCodecContext *avctx;

    VideoDSPContext vdsp;

    H264DSPContext h264dsp;

    H264ChromaContext h264chroma;

    H264QpelContext h264qpel;

    H264Picture DPB[H264_MAX_PICTURE_COUNT];

    H264Picture *cur_pic_ptr;

    H264Picture cur_pic;

    H264Picture last_pic_for_ec;

    H264SliceContext *slice_ctx;

    int            nb_slice_ctx;

    int            nb_slice_ctx_queued;

    H2645Packet pkt;

    int pixel_shift;    ///< 0 for 8-bit H.264, 1 for high-bit-depth H.264

    /* coded dimensions -- 16 * mb w/h */

    int width, height;

    int chroma_x_shift, chroma_y_shift;

    int droppable;

    int coded_picture_number;

    int context_initialized;

    int flags;

    int workaround_bugs;

    int x264_build;

    /* Set when slice threading is used and at least one slice uses deblocking

     * mode 1 (i.e. across slice boundaries). Then we disable the loop filter

     * during normal MB decoding and execute it serially at the end.

     */

    int postpone_filter;

    /*

     * Set to 1 when the current picture is IDR, 0 otherwise.

     */

    int picture_idr;

    int crop_left;

    int crop_right;

    int crop_top;

    int crop_bottom;

    int8_t(*intra4x4_pred_mode);

    H264PredContext hpc;

    uint8_t (*non_zero_count)[48];

#define LIST_NOT_USED -1 // FIXME rename?

#define PART_NOT_AVAILABLE -2

    /**

     * block_offset[ 0..23] for frame macroblocks

     * block_offset[24..47] for field macroblocks

     */

    int block_offset[2 * (16 * 3)];

    uint32_t *mb2b_xy;  // FIXME are these 4 a good idea?

    uint32_t *mb2br_xy;

    int b_stride;       // FIXME use s->b4_stride

    uint16_t *slice_table;      ///< slice_table_base + 2*mb_stride + 1

    // interlacing specific flags

    int mb_aff_frame;

    int picture_structure;

    int first_field;

    uint8_t *list_counts;               ///< Array of list_count per MB specifying the slice type

    /* 0x100 -> non null luma_dc, 0x80/0x40 -> non null chroma_dc (cb/cr), 0x?0 -> chroma_cbp(0, 1, 2), 0x0? luma_cbp */

    uint16_t *cbp_table;

    /* chroma_pred_mode for i4x4 or i16x16, else 0 */

    uint8_t *chroma_pred_mode_table;

    uint8_t (*mvd_table[2])[2];

    uint8_t *direct_table;

    uint8_t scan_padding[16];

    uint8_t zigzag_scan[16];

    uint8_t zigzag_scan8x8[64];

    uint8_t zigzag_scan8x8_cavlc[64];

    uint8_t field_scan[16];

    uint8_t field_scan8x8[64];

    uint8_t field_scan8x8_cavlc[64];

    uint8_t zigzag_scan_q0[16];

    uint8_t zigzag_scan8x8_q0[64];

    uint8_t zigzag_scan8x8_cavlc_q0[64];

    uint8_t field_scan_q0[16];

    uint8_t field_scan8x8_q0[64];

    uint8_t field_scan8x8_cavlc_q0[64];

    int mb_y;

    int mb_height, mb_width;

    int mb_stride;

    int mb_num;

    // =============================================================

    // Things below are not used in the MB or more inner code

    int nal_ref_idc;

    int nal_unit_type;

    int has_slice;          ///< slice NAL is found in the packet, set by decode_nal_units, its state does not need to be preserved outside h264_decode_frame()

    /**

     * Used to parse AVC variant of H.264

     */

    int is_avc;           ///< this flag is != 0 if codec is avc1

    int nal_length_size;  ///< Number of bytes used for nal length (1, 2 or 4)

    int bit_depth_luma;         ///< luma bit depth from sps to detect changes

    int chroma_format_idc;      ///< chroma format from sps to detect changes

    H264ParamSets ps;

    uint16_t *slice_table_base;

    H264POCContext poc;

    H264Ref default_ref[2];

    H264Picture *short_ref[32];

    H264Picture *long_ref[32];

    H264Picture *delayed_pic[MAX_DELAYED_PIC_COUNT + 2]; // FIXME size?

    int last_pocs[MAX_DELAYED_PIC_COUNT];

    H264Picture *next_output_pic;

    int next_outputed_poc;

    /**

     * memory management control operations buffer.

     */

    MMCO mmco[MAX_MMCO_COUNT];

    int  nb_mmco;

    int mmco_reset;

    int explicit_ref_marking;

    int long_ref_count;     ///< number of actual long term references

    int short_ref_count;    ///< number of actual short term references

    /**

     * @name Members for slice based multithreading

     * @{

     */

    /**

     * current slice number, used to initialize slice_num of each thread/context

     */

    int current_slice;

    /** @} */

    /**

     * Complement sei_pic_struct

     * SEI_PIC_STRUCT_TOP_BOTTOM and SEI_PIC_STRUCT_BOTTOM_TOP indicate interlaced frames.

     * However, soft telecined frames may have these values.

     * This is used in an attempt to flag soft telecine progressive.

     */

    int prev_interlaced_frame;

    /**

     * Are the SEI recovery points looking valid.

     */

    int valid_recovery_point;

    /**

     * recovery_frame is the frame_num at which the next frame should

     * be fully constructed.

     *

     * Set to -1 when not expecting a recovery point.

     */

    int recovery_frame;

/**

 * We have seen an IDR, so all the following frames in coded order are correctly

 * decodable.

 */

#define FRAME_RECOVERED_IDR  (1 << 0)

/**

 * Sufficient number of frames have been decoded since a SEI recovery point,

 * so all the following frames in presentation order are correct.

 */

#define FRAME_RECOVERED_SEI  (1 << 1)

    int frame_recovered;    ///< Initial frame has been completely recovered

    int has_recovery_point;

    int missing_fields;

    /* for frame threading, this is set to 1

     * after finish_setup() has been called, so we cannot modify

     * some context properties (which are supposed to stay constant between

     * slices) anymore */

    int setup_finished;

    int cur_chroma_format_idc;

    int cur_bit_depth_luma;

    int16_t slice_row[MAX_SLICES]; ///< to detect when MAX_SLICES is too low

    /* original AVCodecContext dimensions, used to handle container

     * cropping */

    int width_from_caller;

    int height_from_caller;

    int enable_er;

    H264SEIContext sei;

    AVBufferPool *qscale_table_pool;

    AVBufferPool *mb_type_pool;

    AVBufferPool *motion_val_pool;

    AVBufferPool *ref_index_pool;

    int ref2frm[MAX_SLICES][2][64];     ///< reference to frame number lists, used in the loop filter, the first 2 are for -2,-1

} H264Context;

extern const uint16_t ff_h264_mb_sizes[4];

/**

 * Reconstruct bitstream slice_type.

 */

int ff_h264_get_slice_type(const H264SliceContext *sl);

/**

 * Allocate tables.

 * needs width/height

 */

int ff_h264_alloc_tables(H264Context *h);

int ff_h264_decode_ref_pic_list_reordering(H264SliceContext *sl, void *logctx);

int ff_h264_build_ref_list(H264Context *h, H264SliceContext *sl);

void ff_h264_remove_all_refs(H264Context *h);

/**

 * Execute the reference picture marking (memory management control operations).

 */

int ff_h264_execute_ref_pic_marking(H264Context *h);

int ff_h264_decode_ref_pic_marking(H264SliceContext *sl, GetBitContext *gb,

                                   const H2645NAL *nal, void *logctx);

void ff_h264_hl_decode_mb(const H264Context *h, H264SliceContext *sl);

void ff_h264_decode_init_vlc(void);

/**

 * Decode a macroblock

 * @return 0 if OK, ER_AC_ERROR / ER_DC_ERROR / ER_MV_ERROR on error

 */

int ff_h264_decode_mb_cavlc(const H264Context *h, H264SliceContext *sl);

/**

 * Decode a CABAC coded macroblock

 * @return 0 if OK, ER_AC_ERROR / ER_DC_ERROR / ER_MV_ERROR on error

 */

int ff_h264_decode_mb_cabac(const H264Context *h, H264SliceContext *sl);

void ff_h264_init_cabac_states(const H264Context *h, H264SliceContext *sl);

void ff_h264_direct_dist_scale_factor(const H264Context *const h, H264SliceContext *sl);

void ff_h264_direct_ref_list_init(const H264Context *const h, H264SliceContext *sl);

void ff_h264_pred_direct_motion(const H264Context *const h, H264SliceContext *sl,

                                int *mb_type);

void ff_h264_filter_mb_fast(const H264Context *h, H264SliceContext *sl, int mb_x, int mb_y,

                            uint8_t *img_y, uint8_t *img_cb, uint8_t *img_cr,

                            unsigned int linesize, unsigned int uvlinesize);

void ff_h264_filter_mb(const H264Context *h, H264SliceContext *sl, int mb_x, int mb_y,

                       uint8_t *img_y, uint8_t *img_cb, uint8_t *img_cr,

                       unsigned int linesize, unsigned int uvlinesize);

/*

 * o-o o-o

 *  / / /

 * o-o o-o

 *  ,---'

 * o-o o-o

 *  / / /

 * o-o o-o

 */

/* Scan8 organization:

 *    0 1 2 3 4 5 6 7

 * 0  DY    y y y y y

 * 1        y Y Y Y Y

 * 2        y Y Y Y Y

 * 3        y Y Y Y Y

 * 4        y Y Y Y Y

 * 5  DU    u u u u u

 * 6        u U U U U

 * 7        u U U U U

 * 8        u U U U U

 * 9        u U U U U

 * 10 DV    v v v v v

 * 11       v V V V V

 * 12       v V V V V

 * 13       v V V V V

 * 14       v V V V V

 * DY/DU/DV are for luma/chroma DC.

 */

#define LUMA_DC_BLOCK_INDEX   48

#define CHROMA_DC_BLOCK_INDEX 49

// This table must be here because scan8[constant] must be known at compiletime

static const uint8_t scan8[16 * 3 + 3] = {

    4 +  1 * 8, 5 +  1 * 8, 4 +  2 * 8, 5 +  2 * 8,

    6 +  1 * 8, 7 +  1 * 8, 6 +  2 * 8, 7 +  2 * 8,

    4 +  3 * 8, 5 +  3 * 8, 4 +  4 * 8, 5 +  4 * 8,

    6 +  3 * 8, 7 +  3 * 8, 6 +  4 * 8, 7 +  4 * 8,

    4 +  6 * 8, 5 +  6 * 8, 4 +  7 * 8, 5 +  7 * 8,

    6 +  6 * 8, 7 +  6 * 8, 6 +  7 * 8, 7 +  7 * 8,

    4 +  8 * 8, 5 +  8 * 8, 4 +  9 * 8, 5 +  9 * 8,

    6 +  8 * 8, 7 +  8 * 8, 6 +  9 * 8, 7 +  9 * 8,

    4 + 11 * 8, 5 + 11 * 8, 4 + 12 * 8, 5 + 12 * 8,

    6 + 11 * 8, 7 + 11 * 8, 6 + 12 * 8, 7 + 12 * 8,

    4 + 13 * 8, 5 + 13 * 8, 4 + 14 * 8, 5 + 14 * 8,

    6 + 13 * 8, 7 + 13 * 8, 6 + 14 * 8, 7 + 14 * 8,

    0 +  0 * 8, 0 +  5 * 8, 0 + 10 * 8

};

{

#if HAVE_BIGENDIAN

    return (b & 0xFFFF) + (a << 16);

#else

#endif

}

{

#if HAVE_BIGENDIAN

    return (b & 0xFF) + (a << 8);

#else

#endif

}

/**

 * Get the chroma qp.

 */

{

}

/**

 * Get the predicted intra4x4 prediction mode.

 */

                                            H264SliceContext *sl, int n)

{

    ff_tlog(h->avctx, "mode:%d %d min:%d\n", left, top, min);

    else

}

                                                        H264SliceContext *sl)

{

                                                       H264SliceContext *sl)

{

    }

                                                    H264SliceContext *sl,

                                                    int b_stride,

                                                    int b_xy, int b8_xy,

                                                    int mb_type, int list)

{

        } else {

        }

    }

    {

    }

                                               H264SliceContext *sl,

                                               int mb_type)

{

    } else {

                       2, 2, 2, (uint8_t)LIST_NOT_USED, 1);

    }

        }

    }

{

                 ((MB_TYPE_16x8 | MB_TYPE_8x16 | MB_TYPE_8x8) *

                  0x0001000100010001ULL));

    else

                 ((MB_TYPE_16x8 | MB_TYPE_8x16 | MB_TYPE_8x8 | MB_TYPE_DIRECT2) *

                  0x0001000100010001ULL));

}

                           int buf_index, int next_avc)

{

}

int ff_h264_field_end(H264Context *h, H264SliceContext *sl, int in_setup);

int ff_h264_ref_picture(H264Context *h, H264Picture *dst, H264Picture *src);

void ff_h264_unref_picture(H264Context *h, H264Picture *pic);

int ff_h264_slice_context_init(H264Context *h, H264SliceContext *sl);

void ff_h264_draw_horiz_band(const H264Context *h, H264SliceContext *sl, int y, int height);

/**

 * Submit a slice for decoding.

 *

 * Parse the slice header, starting a new field/frame if necessary. If any

 * slices are queued for the previous field, they are decoded.

 */

int ff_h264_queue_decode_slice(H264Context *h, const H2645NAL *nal);

int ff_h264_execute_decode_slices(H264Context *h);

int ff_h264_update_thread_context(AVCodecContext *dst,

                                  const AVCodecContext *src);

void ff_h264_flush_change(H264Context *h);

void ff_h264_free_tables(H264Context *h);

void ff_h264_set_erpic(ERPicture *dst, H264Picture *src);

#endif /* AVCODEC_H264DEC_H */