2017-04-01 16:35:56 +08:00
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/*
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2017-09-27 16:20:30 +08:00
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* MIT License
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2017-04-01 16:35:56 +08:00
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*
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2017-09-27 16:20:30 +08:00
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* Copyright (c) 2016 xiongziliang <771730766@qq.com>
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*
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* This file is part of ZLMediaKit(https://github.com/xiongziliang/ZLMediaKit).
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*
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* Permission is hereby granted, free of charge, to any person obtaining a copy
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* of this software and associated documentation files (the "Software"), to deal
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* in the Software without restriction, including without limitation the rights
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* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
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* copies of the Software, and to permit persons to whom the Software is
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* furnished to do so, subject to the following conditions:
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*
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* The above copyright notice and this permission notice shall be included in all
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* copies or substantial portions of the Software.
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*
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* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
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* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
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* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
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* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
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* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
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* OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
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* SOFTWARE.
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2017-04-01 16:35:56 +08:00
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*/
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2017-09-27 16:20:30 +08:00
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2017-04-01 16:35:56 +08:00
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#ifdef ENABLE_X264
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#include "H264Encoder.h"
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#include "Util/TimeTicker.h"
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using namespace ZL::Util;
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namespace ZL {
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namespace Codec {
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H264Encoder::H264Encoder() {
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}
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H264Encoder::~H264Encoder() {
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//* 清除图像区域
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if (m_pPicIn) {
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delete m_pPicIn;
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m_pPicIn = nullptr;
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}
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if (m_pPicOut) {
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delete m_pPicOut;
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m_pPicOut = nullptr;
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}
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//* 关闭编码器句柄
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if (m_pX264Handle) {
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x264_encoder_close(m_pX264Handle);
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m_pX264Handle = nullptr;
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}
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}
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/*typedef struct x264_param_t
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{
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CPU 标志位
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unsigned int cpu;
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int i_threads; 并行编码多帧
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int b_deterministic; 是否允许非确定性时线程优化
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int i_sync_lookahead; 线程超前缓冲
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视频属性
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int i_width; 宽度
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int i_height; 高度
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int i_csp; 编码比特流的CSP,仅支持i420，色彩空间设置
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int i_level_idc; level值的设置
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int i_frame_total; 编码帧的总数, 默认 0
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Vui参数集视频可用性信息视频标准化选项
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struct
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{
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they will be reduced to be 0 < x <= 65535 and prime
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int i_sar_height;
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int i_sar_width; 设置长宽比
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2017-08-09 18:39:30 +08:00
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int i_overscan; 0=undef, 1=no overscan, 2=overscan 过扫描线，默认"undef"(不设置)，可选项:show(观看)/crop(去除)
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2017-04-01 16:35:56 +08:00
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见以下的值h264附件E
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Int i_vidformat; 视频格式，默认"undef"，component/pal/ntsc/secam/mac/undef
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2017-08-09 18:39:30 +08:00
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int b_fullrange; Specify full range samples setting，默认"off"，可选项:off/on
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int i_colorprim; 原始色度格式，默认"undef"，可选项:undef/bt709/bt470m/bt470bg，smpte170m/smpte240m/film
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int i_transfer; 转换方式，默认"undef"，可选项:undef/bt709/bt470m/bt470bg/linear,log100/log316/smpte170m/smpte240m
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2017-04-01 16:35:56 +08:00
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int i_colmatrix; 色度矩阵设置，默认"undef",undef/bt709/fcc/bt470bg,smpte170m/smpte240m/GBR/YCgCo
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int i_chroma_loc; both top & bottom色度样本指定，范围0~5，默认0
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} vui;
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int i_fps_num;
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int i_fps_den;
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2017-08-09 18:39:30 +08:00
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这两个参数是由fps帧率确定的，赋值的过程见下:
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2017-04-01 16:35:56 +08:00
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{ float fps;
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if( sscanf( value, "%d/%d", &p->i_fps_num, &p->i_fps_den ) == 2 )
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;
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else if( sscanf( value, "%f", &fps ) )
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{
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p->i_fps_num = (int)(fps * 1000 + .5);
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p->i_fps_den = 1000;
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}
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else
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b_error = 1;
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}
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Value的值就是fps。
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流参数
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int i_frame_reference; 参考帧最大数目
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int i_keyint_max; 在此间隔设置IDR关键帧
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int i_keyint_min; 场景切换少于次值编码位I, 而不是 IDR.
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int i_scenecut_threshold; 如何积极地插入额外的I帧
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int i_bframe; 两个相关图像间P帧的数目
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int i_bframe_adaptive; 自适应B帧判定
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int i_bframe_bias; 控制插入B帧判定，范围-100~+100，越高越容易插入B帧，默认0
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int b_bframe_pyramid; 允许部分B为参考帧
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去块滤波器需要的参数
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int b_deblocking_filter;
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int i_deblocking_filter_alphac0; [-6, 6] -6 light filter, 6 strong
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int i_deblocking_filter_beta; [-6, 6] idem
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熵编码
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int b_cabac;
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int i_cabac_init_idc;
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int b_interlaced; 隔行扫描
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量化
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int i_cqm_preset; 自定义量化矩阵(CQM),初始化量化模式为flat
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char *psz_cqm_file; JM format读取JM格式的外部量化矩阵文件，自动忽略其他—cqm 选项
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uint8_t cqm_4iy[16]; used only if i_cqm_preset == X264_CQM_CUSTOM
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uint8_t cqm_4ic[16];
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uint8_t cqm_4py[16];
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uint8_t cqm_4pc[16];
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uint8_t cqm_8iy[64];
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uint8_t cqm_8py[64];
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日志
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void (*pf_log)( void *, int i_level, const char *psz, va_list );
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void *p_log_private;
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int i_log_level;
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int b_visualize;
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char *psz_dump_yuv; 重建帧的名字
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编码分析参数
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struct
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{
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unsigned int intra; 帧间分区
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unsigned int inter; 帧内分区
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int b_transform_8x8; 帧间分区
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int b_weighted_bipred; 为b帧隐式加权
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int i_direct_mv_pred; 时间空间队运动预测
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int i_chroma_qp_offset; 色度量化步长偏移量
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int i_me_method; 运动估计算法 (X264_ME_*)
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int i_me_range; 整像素运动估计搜索范围 (from predicted mv)
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int i_mv_range; 运动矢量最大长度(in pixels). -1 = auto, based on level
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int i_mv_range_thread; 线程之间的最小空间. -1 = auto, based on number of threads.
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int i_subpel_refine; 亚像素运动估计质量
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int b_chroma_me; 亚像素色度运动估计和P帧的模式选择
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int b_mixed_references; 允许每个宏块的分区在P帧有它自己的参考号
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2017-08-09 18:39:30 +08:00
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int i_trellis; Trellis量化，对每个8x8的块寻找合适的量化值，需要CABAC，默认0 0:关闭1:只在最后编码时使用2:一直使用
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int b_fast_pskip; 快速P帧跳过检测
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int b_dct_decimate; 在P-frames转换参数域
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int i_noise_reduction; 自适应伪盲区
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float f_psy_rd; Psy RD strength
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float f_psy_trellis; Psy trellis strength
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int b_psy; Toggle all psy optimizations
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，亮度量化中使用的无效区大小
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int i_luma_deadzone[2]; {帧间, 帧内}
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int b_psnr; 计算和打印PSNR信息
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int b_ssim; 计算和打印SSIM信息
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} analyse;
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码率控制参数
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struct
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{
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int i_rc_method; X264_RC_*
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int i_qp_constant; 0-51
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int i_qp_min; 允许的最小量化值
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int i_qp_max; 允许的最大量化值
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int i_qp_step; 帧间最大量化步长
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int i_bitrate; 设置平均码率
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float f_rf_constant; 1pass VBR, nominal QP
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float f_rate_tolerance;
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int i_vbv_max_bitrate; 平均码率模式下，最大瞬时码率，默认0(与-B设置相同)
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int i_vbv_buffer_size; 码率控制缓冲区的大小，单位kbit，默认0
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float f_vbv_buffer_init; <=1: fraction of buffer_size. >1: kbit码率控制缓冲区数据保留的最大数据量与缓冲区大小之比，范围0~1.0，默认0.9
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float f_ip_factor;
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float f_pb_factor;
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int i_aq_mode; psy adaptive QP. (X264_AQ_*)
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float f_aq_strength;
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int b_mb_tree; Macroblock-tree ratecontrol.
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int i_lookahead;
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2pass 多次压缩码率控制
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int b_stat_write; Enable stat writing in psz_stat_out
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char *psz_stat_out;
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int b_stat_read; Read stat from psz_stat_in and use it
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char *psz_stat_in;
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2pass params (same as ffmpeg ones)
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float f_qcompress; 0.0 => cbr, 1.0 => constant qp
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float f_qblur; 时间上模糊量化
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float f_complexity_blur; 时间上模糊复杂性
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x264_zone_t *zones; 码率控制覆盖
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int i_zones; number of zone_t's
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char *psz_zones; 指定区的另一种方法
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} rc;
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Muxing parameters
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int b_aud; 生成访问单元分隔符
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int b_repeat_headers; 在每个关键帧前放置SPS/PPS
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int i_sps_id; SPS 和 PPS id 号
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切片（像条）参数
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int i_slice_max_size; 每片字节的最大数，包括预计的NAL开销.
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int i_slice_max_mbs; 每片宏块的最大数，重写 i_slice_count
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int i_slice_count; 每帧的像条数目: 设置矩形像条.
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Optional callback for freeing this x264_param_t when it is done being used.
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* Only used when the x264_param_t sits in memory for an indefinite period of time,
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* i.e. when an x264_param_t is passed to x264_t in an x264_picture_t or in zones.
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* Not used when x264_encoder_reconfig is called directly.
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void (*param_free)( void* );
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} x264_param_t;*/
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bool H264Encoder::init(int iWidth, int iHeight, int iFps) {
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if (m_pX264Handle) {
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return true;
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}
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x264_param_t X264Param, *pX264Param = &X264Param;
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//* 配置参数
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//* 使用默认参数
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x264_param_default_preset(pX264Param, "ultrafast", "zerolatency");
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//* cpuFlags
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pX264Param->i_threads = X264_SYNC_LOOKAHEAD_AUTO; //* 取空缓冲区继续使用不死锁的保证.
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//* video Properties
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pX264Param->i_width = iWidth; //* 宽度.
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pX264Param->i_height = iHeight; //* 高度
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pX264Param->i_frame_total = 0; //* 编码总帧数.不知道用0.
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pX264Param->i_keyint_max = iFps * 3; //ffmpeg:gop_size 关键帧最大间隔
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pX264Param->i_keyint_min = iFps * 1; //ffmpeg:keyint_min 关键帧最小间隔
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//* Rate control Parameters
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pX264Param->rc.i_bitrate = 5000; //* 码率(比特率,单位Kbps)
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pX264Param->rc.i_qp_step = 1; //最大的在帧与帧之间进行切变的量化因子的变化量。ffmpeg:max_qdiff
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pX264Param->rc.i_qp_min = 10; //ffmpeg:qmin;最小的量化因子。取值范围1-51。建议在10-30之间。
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pX264Param->rc.i_qp_max = 41; //ffmpeg:qmax;最大的量化因子。取值范围1-51。建议在10-30之间。
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pX264Param->rc.f_qcompress = 0.6;//ffmpeg:qcompress 量化器压缩比率0-1.越小则比特率越区域固定，但是越高越使量化器参数越固定
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pX264Param->analyse.i_me_range = 16; //ffmpeg:me_range 运动侦测的半径
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pX264Param->i_frame_reference = 3; //ffmpeg:refsB和P帧向前预测参考的帧数。取值范围1-16。
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//该值不影响解码的速度，但是越大解码
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//所需的内存越大。这个值在一般情况下
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//越大效果越好，但是超过6以后效果就
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//不明显了。
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pX264Param->analyse.i_trellis = 1; //ffmpeg:trellis
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//pX264Param->analyse.i_me_method=X264_ME_DIA;//ffmpeg:me_method ME_ZERO 运动侦测的方式
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pX264Param->rc.f_qblur = 0.5; //ffmpeg:qblur
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//* bitstream parameters
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/*open-GOP
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码流里面包含B帧的时候才会出现open-GOP。
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一个GOP里面的某一帧在解码时要依赖于前一个GOP的某些帧，
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这个GOP就称为open-GOP。
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有些解码器不能完全支持open-GOP码流，
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例如蓝光解码器，因此在x264里面open-GOP是默认关闭的。
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2017-08-09 18:39:30 +08:00
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对于解码端，接收到的码流如果如下:I0 B0 B1 P0 B2 B3...这就是一个open-GOP码流（I帧后面紧跟B帧）。
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2017-04-01 16:35:56 +08:00
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因此B0 B1的解码需要用到I0前面一个GOP的数据，B0 B1的dts是小于I0的。
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2017-08-09 18:39:30 +08:00
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如果码流如下: I0 P0 B0 B1 P1 B2 B3...这就是一个close-GOP码流，
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2017-04-01 16:35:56 +08:00
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I0后面所有帧的解码不依赖于I0前面的帧，I0后面所有帧的dts都比I0的大。
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如果码流是IDR0 B0 B1 P0 B2 B3...那个这个GOP是close-GOP，B0,B1虽然dst比IDR0小，
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但编解码端都刷新了参考缓冲，B0,B1参考不到前向GOP帧。
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2017-08-09 18:39:30 +08:00
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对于编码端，如果编码帧类型决定如下: ...P0 B1 B2 P3 B4 B5 I6这就会输出open-Gop码流 （P0 P3 B1 B2 I6 B4 B5...），
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2017-04-01 16:35:56 +08:00
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B4 B5的解码依赖P3。
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如果编码帧类型决定如下...P0 B1 B2 P3 B4 P5 I6这样就不会输出open-GOP码流（P0 P3 B1 B2 P5 B4 I6...）。
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两者区别在于I6前面的第5帧是设置为B帧还是P帧，
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如果一个GOP的最后一帧（上例中是第5帧）设置为B帧，
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这个码流就是open-GOP,设置为P帧就是close-GOP。
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由于B帧压缩性能好于P帧，因此open-GOP在编码性能上稍微优于close-GOP，
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但为了兼容性和少一些麻烦，还是把opne-GOP关闭的好。*/
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pX264Param->b_open_gop = 0;
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pX264Param->i_bframe = 0; //最大B帧数.
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pX264Param->i_bframe_pyramid = 0;
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pX264Param->i_bframe_adaptive = X264_B_ADAPT_TRELLIS;
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//* Log
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pX264Param->i_log_level = X264_LOG_ERROR;
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//* muxing parameters
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pX264Param->i_fps_den = 1; //* 帧率分母
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pX264Param->i_fps_num = iFps; //* 帧率分子
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pX264Param->i_timebase_den = pX264Param->i_fps_num;
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pX264Param->i_timebase_num = pX264Param->i_fps_den;
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pX264Param->analyse.i_subpel_refine = 1; //这个参数控制在运动估算过程中质量和速度的权衡。Subq=5可以压缩>10%于subq=1。1-7
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pX264Param->analyse.b_fast_pskip = 1; //在P帧内执行早期快速跳跃探测。这个经常在没有任何损失的前提下提高了速度。
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pX264Param->b_annexb = 1; //1前面为0x00000001,0为nal长度
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pX264Param->b_repeat_headers = 1; //关键帧前面是否放sps跟pps帧，0 否 1，放
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//* 设置Profile.使用baseline
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x264_param_apply_profile(pX264Param, "high");
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//* 打开编码器句柄,通过x264_encoder_parameters得到设置给X264
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//* 的参数.通过x264_encoder_reconfig更新X264的参数
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m_pX264Handle = x264_encoder_open(pX264Param);
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if (!m_pX264Handle) {
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return false;
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}
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m_pPicIn = new x264_picture_t;
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m_pPicOut = new x264_picture_t;
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x264_picture_init(m_pPicIn);
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x264_picture_init(m_pPicOut);
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m_pPicIn->img.i_csp = X264_CSP_I420;
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m_pPicIn->img.i_plane = 3;
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return true;
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}
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int H264Encoder::inputData(char* apcYuv[3], int aiYuvLen[3], int64_t i64Pts, H264Frame** ppFrame) {
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//TimeTicker1(5);
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m_pPicIn->img.i_stride[0] = aiYuvLen[0];
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m_pPicIn->img.i_stride[1] = aiYuvLen[1];
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m_pPicIn->img.i_stride[2] = aiYuvLen[2];
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m_pPicIn->img.plane[0] = (uint8_t *) apcYuv[0];
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m_pPicIn->img.plane[1] = (uint8_t *) apcYuv[1];
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m_pPicIn->img.plane[2] = (uint8_t *) apcYuv[2];
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m_pPicIn->i_pts = i64Pts;
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int iNal;
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|
x264_nal_t* pNals;
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int iResult = x264_encoder_encode(m_pX264Handle, &pNals, &iNal, m_pPicIn,
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|
m_pPicOut);
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if (iResult <= 0) {
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return 0;
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|
}
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for (int i = 0; i < iNal; i++) {
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|
x264_nal_t pNal = pNals[i];
|
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|
m_aFrames[i].iType = pNal.i_type;
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|
m_aFrames[i].iLength = pNal.i_payload;
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|
m_aFrames[i].pucData = pNal.p_payload;
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}
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|
*ppFrame = m_aFrames;
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|
return iNal;
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}
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} /* namespace Codec */
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} /* namespace ZL */
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#endif //ENABLE_X264
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