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rhubarb-lip-sync/rhubarb/lib/webrtc-8d2248ff/webrtc/api/java/jni/androidmediadecoder_jni.cc

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Added WebRTC library
2016-06-21 20:13:05 +00:00
/*
* Copyright 2015 The WebRTC project authors. All Rights Reserved.
*
* Use of this source code is governed by a BSD-style license
* that can be found in the LICENSE file in the root of the source
* tree. An additional intellectual property rights grant can be found
* in the file PATENTS. All contributing project authors may
* be found in the AUTHORS file in the root of the source tree.
*/
#include <algorithm>
#include <memory>
#include <vector>
// NOTICE: androidmediadecoder_jni.h must be included before
// androidmediacodeccommon.h to avoid build errors.
#include "webrtc/api/java/jni/androidmediadecoder_jni.h"
#include "third_party/libyuv/include/libyuv/convert.h"
#include "third_party/libyuv/include/libyuv/convert_from.h"
#include "third_party/libyuv/include/libyuv/video_common.h"
#include "webrtc/api/java/jni/androidmediacodeccommon.h"
#include "webrtc/api/java/jni/classreferenceholder.h"
#include "webrtc/api/java/jni/native_handle_impl.h"
#include "webrtc/api/java/jni/surfacetexturehelper_jni.h"
#include "webrtc/base/bind.h"
#include "webrtc/base/checks.h"
#include "webrtc/base/logging.h"
#include "webrtc/base/scoped_ref_ptr.h"
#include "webrtc/base/thread.h"
#include "webrtc/base/timeutils.h"
#include "webrtc/common_video/include/i420_buffer_pool.h"
#include "webrtc/modules/video_coding/include/video_codec_interface.h"
#include "webrtc/system_wrappers/include/logcat_trace_context.h"
using rtc::Bind;
using rtc::Thread;
using rtc::ThreadManager;
using webrtc::CodecSpecificInfo;
using webrtc::DecodedImageCallback;
using webrtc::EncodedImage;
using webrtc::VideoFrame;
using webrtc::RTPFragmentationHeader;
using webrtc::VideoCodec;
using webrtc::VideoCodecType;
using webrtc::kVideoCodecH264;
using webrtc::kVideoCodecVP8;
using webrtc::kVideoCodecVP9;
namespace webrtc_jni {
// Logging macros.
#define TAG_DECODER "MediaCodecVideoDecoder"
#ifdef TRACK_BUFFER_TIMING
#define ALOGV(...)
__android_log_print(ANDROID_LOG_VERBOSE, TAG_DECODER, __VA_ARGS__)
#else
#define ALOGV(...)
#endif
#define ALOGD LOG_TAG(rtc::LS_INFO, TAG_DECODER)
#define ALOGW LOG_TAG(rtc::LS_WARNING, TAG_DECODER)
#define ALOGE LOG_TAG(rtc::LS_ERROR, TAG_DECODER)
enum { kMaxWarningLogFrames = 2 };
class MediaCodecVideoDecoder : public webrtc::VideoDecoder,
public rtc::MessageHandler {
public:
explicit MediaCodecVideoDecoder(
JNIEnv* jni, VideoCodecType codecType, jobject render_egl_context);
virtual ~MediaCodecVideoDecoder();
int32_t InitDecode(const VideoCodec* codecSettings, int32_t numberOfCores)
override;
int32_t Decode(
const EncodedImage& inputImage, bool missingFrames,
const RTPFragmentationHeader* fragmentation,
const CodecSpecificInfo* codecSpecificInfo = NULL,
int64_t renderTimeMs = -1) override;
int32_t RegisterDecodeCompleteCallback(DecodedImageCallback* callback)
override;
int32_t Release() override;
bool PrefersLateDecoding() const override { return true; }
// rtc::MessageHandler implementation.
void OnMessage(rtc::Message* msg) override;
const char* ImplementationName() const override;
private:
// CHECK-fail if not running on |codec_thread_|.
void CheckOnCodecThread();
int32_t InitDecodeOnCodecThread();
int32_t ResetDecodeOnCodecThread();
int32_t ReleaseOnCodecThread();
int32_t DecodeOnCodecThread(const EncodedImage& inputImage);
// Deliver any outputs pending in the MediaCodec to our |callback_| and return
// true on success.
bool DeliverPendingOutputs(JNIEnv* jni, int dequeue_timeout_us);
int32_t ProcessHWErrorOnCodecThread();
void EnableFrameLogOnWarning();
void ResetVariables();
// Type of video codec.
VideoCodecType codecType_;
// Render EGL context - owned by factory, should not be allocated/destroyed
// by VideoDecoder.
jobject render_egl_context_;
bool key_frame_required_;
bool inited_;
bool sw_fallback_required_;
bool use_surface_;
VideoCodec codec_;
webrtc::I420BufferPool decoded_frame_pool_;
rtc::scoped_refptr<SurfaceTextureHelper> surface_texture_helper_;
DecodedImageCallback* callback_;
int frames_received_; // Number of frames received by decoder.
int frames_decoded_; // Number of frames decoded by decoder.
// Number of decoded frames for which log information is displayed.
int frames_decoded_logged_;
int64_t start_time_ms_; // Start time for statistics.
int current_frames_; // Number of frames in the current statistics interval.
int current_bytes_; // Encoded bytes in the current statistics interval.
int current_decoding_time_ms_; // Overall decoding time in the current second
int current_delay_time_ms_; // Overall delay time in the current second.
uint32_t max_pending_frames_; // Maximum number of pending input frames.
// State that is constant for the lifetime of this object once the ctor
// returns.
std::unique_ptr<Thread>
codec_thread_; // Thread on which to operate MediaCodec.
ScopedGlobalRef<jclass> j_media_codec_video_decoder_class_;
ScopedGlobalRef<jobject> j_media_codec_video_decoder_;
jmethodID j_init_decode_method_;
jmethodID j_reset_method_;
jmethodID j_release_method_;
jmethodID j_dequeue_input_buffer_method_;
jmethodID j_queue_input_buffer_method_;
jmethodID j_dequeue_byte_buffer_method_;
jmethodID j_dequeue_texture_buffer_method_;
jmethodID j_return_decoded_byte_buffer_method_;
// MediaCodecVideoDecoder fields.
jfieldID j_input_buffers_field_;
jfieldID j_output_buffers_field_;
jfieldID j_color_format_field_;
jfieldID j_width_field_;
jfieldID j_height_field_;
jfieldID j_stride_field_;
jfieldID j_slice_height_field_;
// MediaCodecVideoDecoder.DecodedTextureBuffer fields.
jfieldID j_texture_id_field_;
jfieldID j_transform_matrix_field_;
jfieldID j_texture_presentation_timestamp_ms_field_;
jfieldID j_texture_timestamp_ms_field_;
jfieldID j_texture_ntp_timestamp_ms_field_;
jfieldID j_texture_decode_time_ms_field_;
jfieldID j_texture_frame_delay_ms_field_;
// MediaCodecVideoDecoder.DecodedOutputBuffer fields.
jfieldID j_info_index_field_;
jfieldID j_info_offset_field_;
jfieldID j_info_size_field_;
jfieldID j_presentation_timestamp_ms_field_;
jfieldID j_timestamp_ms_field_;
jfieldID j_ntp_timestamp_ms_field_;
jfieldID j_byte_buffer_decode_time_ms_field_;
// Global references; must be deleted in Release().
std::vector<jobject> input_buffers_;
};
MediaCodecVideoDecoder::MediaCodecVideoDecoder(
JNIEnv* jni, VideoCodecType codecType, jobject render_egl_context) :
codecType_(codecType),
render_egl_context_(render_egl_context),
key_frame_required_(true),
inited_(false),
sw_fallback_required_(false),
codec_thread_(new Thread()),
j_media_codec_video_decoder_class_(
jni,
FindClass(jni, "org/webrtc/MediaCodecVideoDecoder")),
j_media_codec_video_decoder_(
jni,
jni->NewObject(*j_media_codec_video_decoder_class_,
GetMethodID(jni,
*j_media_codec_video_decoder_class_,
"<init>",
"()V"))) {
ScopedLocalRefFrame local_ref_frame(jni);
codec_thread_->SetName("MediaCodecVideoDecoder", NULL);
RTC_CHECK(codec_thread_->Start()) << "Failed to start MediaCodecVideoDecoder";
j_init_decode_method_ = GetMethodID(
jni, *j_media_codec_video_decoder_class_, "initDecode",
"(Lorg/webrtc/MediaCodecVideoDecoder$VideoCodecType;"
"IILorg/webrtc/SurfaceTextureHelper;)Z");
j_reset_method_ =
GetMethodID(jni, *j_media_codec_video_decoder_class_, "reset", "(II)V");
j_release_method_ =
GetMethodID(jni, *j_media_codec_video_decoder_class_, "release", "()V");
j_dequeue_input_buffer_method_ = GetMethodID(
jni, *j_media_codec_video_decoder_class_, "dequeueInputBuffer", "()I");
j_queue_input_buffer_method_ = GetMethodID(
jni, *j_media_codec_video_decoder_class_, "queueInputBuffer", "(IIJJJ)Z");
j_dequeue_byte_buffer_method_ = GetMethodID(
jni, *j_media_codec_video_decoder_class_, "dequeueOutputBuffer",
"(I)Lorg/webrtc/MediaCodecVideoDecoder$DecodedOutputBuffer;");
j_dequeue_texture_buffer_method_ = GetMethodID(
jni, *j_media_codec_video_decoder_class_, "dequeueTextureBuffer",
"(I)Lorg/webrtc/MediaCodecVideoDecoder$DecodedTextureBuffer;");
j_return_decoded_byte_buffer_method_ =
GetMethodID(jni, *j_media_codec_video_decoder_class_,
"returnDecodedOutputBuffer", "(I)V");
j_input_buffers_field_ = GetFieldID(
jni, *j_media_codec_video_decoder_class_,
"inputBuffers", "[Ljava/nio/ByteBuffer;");
j_output_buffers_field_ = GetFieldID(
jni, *j_media_codec_video_decoder_class_,
"outputBuffers", "[Ljava/nio/ByteBuffer;");
j_color_format_field_ = GetFieldID(
jni, *j_media_codec_video_decoder_class_, "colorFormat", "I");
j_width_field_ = GetFieldID(
jni, *j_media_codec_video_decoder_class_, "width", "I");
j_height_field_ = GetFieldID(
jni, *j_media_codec_video_decoder_class_, "height", "I");
j_stride_field_ = GetFieldID(
jni, *j_media_codec_video_decoder_class_, "stride", "I");
j_slice_height_field_ = GetFieldID(
jni, *j_media_codec_video_decoder_class_, "sliceHeight", "I");
jclass j_decoded_texture_buffer_class = FindClass(jni,
"org/webrtc/MediaCodecVideoDecoder$DecodedTextureBuffer");
j_texture_id_field_ = GetFieldID(
jni, j_decoded_texture_buffer_class, "textureID", "I");
j_transform_matrix_field_ = GetFieldID(
jni, j_decoded_texture_buffer_class, "transformMatrix", "[F");
j_texture_presentation_timestamp_ms_field_ = GetFieldID(
jni, j_decoded_texture_buffer_class, "presentationTimeStampMs", "J");
j_texture_timestamp_ms_field_ = GetFieldID(
jni, j_decoded_texture_buffer_class, "timeStampMs", "J");
j_texture_ntp_timestamp_ms_field_ = GetFieldID(
jni, j_decoded_texture_buffer_class, "ntpTimeStampMs", "J");
j_texture_decode_time_ms_field_ = GetFieldID(
jni, j_decoded_texture_buffer_class, "decodeTimeMs", "J");
j_texture_frame_delay_ms_field_ = GetFieldID(
jni, j_decoded_texture_buffer_class, "frameDelayMs", "J");
jclass j_decoded_output_buffer_class = FindClass(jni,
"org/webrtc/MediaCodecVideoDecoder$DecodedOutputBuffer");
j_info_index_field_ = GetFieldID(
jni, j_decoded_output_buffer_class, "index", "I");
j_info_offset_field_ = GetFieldID(
jni, j_decoded_output_buffer_class, "offset", "I");
j_info_size_field_ = GetFieldID(
jni, j_decoded_output_buffer_class, "size", "I");
j_presentation_timestamp_ms_field_ = GetFieldID(
jni, j_decoded_output_buffer_class, "presentationTimeStampMs", "J");
j_timestamp_ms_field_ = GetFieldID(
jni, j_decoded_output_buffer_class, "timeStampMs", "J");
j_ntp_timestamp_ms_field_ = GetFieldID(
jni, j_decoded_output_buffer_class, "ntpTimeStampMs", "J");
j_byte_buffer_decode_time_ms_field_ = GetFieldID(
jni, j_decoded_output_buffer_class, "decodeTimeMs", "J");
CHECK_EXCEPTION(jni) << "MediaCodecVideoDecoder ctor failed";
use_surface_ = (render_egl_context_ != NULL);
ALOGD << "MediaCodecVideoDecoder ctor. Use surface: " << use_surface_;
memset(&codec_, 0, sizeof(codec_));
AllowBlockingCalls();
}
MediaCodecVideoDecoder::~MediaCodecVideoDecoder() {
// Call Release() to ensure no more callbacks to us after we are deleted.
Release();
}
int32_t MediaCodecVideoDecoder::InitDecode(const VideoCodec* inst,
int32_t numberOfCores) {
ALOGD << "InitDecode.";
if (inst == NULL) {
ALOGE << "NULL VideoCodec instance";
return WEBRTC_VIDEO_CODEC_ERR_PARAMETER;
}
// Factory should guard against other codecs being used with us.
RTC_CHECK(inst->codecType == codecType_)
<< "Unsupported codec " << inst->codecType << " for " << codecType_;
if (sw_fallback_required_) {
ALOGE << "InitDecode() - fallback to SW decoder";
return WEBRTC_VIDEO_CODEC_OK;
}
// Save VideoCodec instance for later.
if (&codec_ != inst) {
codec_ = *inst;
}
// If maxFramerate is not set then assume 30 fps.
codec_.maxFramerate = (codec_.maxFramerate >= 1) ? codec_.maxFramerate : 30;
// Call Java init.
return codec_thread_->Invoke<int32_t>(
RTC_FROM_HERE,
Bind(&MediaCodecVideoDecoder::InitDecodeOnCodecThread, this));
}
void MediaCodecVideoDecoder::ResetVariables() {
CheckOnCodecThread();
key_frame_required_ = true;
frames_received_ = 0;
frames_decoded_ = 0;
frames_decoded_logged_ = kMaxDecodedLogFrames;
start_time_ms_ = rtc::TimeMillis();
current_frames_ = 0;
current_bytes_ = 0;
current_decoding_time_ms_ = 0;
current_delay_time_ms_ = 0;
}
int32_t MediaCodecVideoDecoder::InitDecodeOnCodecThread() {
CheckOnCodecThread();
JNIEnv* jni = AttachCurrentThreadIfNeeded();
ScopedLocalRefFrame local_ref_frame(jni);
ALOGD << "InitDecodeOnCodecThread Type: " << (int)codecType_ << ". "
<< codec_.width << " x " << codec_.height << ". Fps: " <<
(int)codec_.maxFramerate;
// Release previous codec first if it was allocated before.
int ret_val = ReleaseOnCodecThread();
if (ret_val < 0) {
ALOGE << "Release failure: " << ret_val << " - fallback to SW codec";
sw_fallback_required_ = true;
return WEBRTC_VIDEO_CODEC_ERROR;
}
ResetVariables();
if (use_surface_) {
surface_texture_helper_ = SurfaceTextureHelper::create(
jni, "Decoder SurfaceTextureHelper", render_egl_context_);
if (!surface_texture_helper_) {
ALOGE << "Couldn't create SurfaceTextureHelper - fallback to SW codec";
sw_fallback_required_ = true;
return WEBRTC_VIDEO_CODEC_ERROR;
}
}
jobject j_video_codec_enum = JavaEnumFromIndexAndClassName(
jni, "MediaCodecVideoDecoder$VideoCodecType", codecType_);
bool success = jni->CallBooleanMethod(
*j_media_codec_video_decoder_,
j_init_decode_method_,
j_video_codec_enum,
codec_.width,
codec_.height,
use_surface_ ? surface_texture_helper_->GetJavaSurfaceTextureHelper()
: nullptr);
if (CheckException(jni) || !success) {
ALOGE << "Codec initialization error - fallback to SW codec.";
sw_fallback_required_ = true;
return WEBRTC_VIDEO_CODEC_ERROR;
}
inited_ = true;
switch (codecType_) {
case kVideoCodecVP8:
max_pending_frames_ = kMaxPendingFramesVp8;
break;
case kVideoCodecVP9:
max_pending_frames_ = kMaxPendingFramesVp9;
break;
case kVideoCodecH264:
max_pending_frames_ = kMaxPendingFramesH264;
break;
default:
max_pending_frames_ = 0;
}
ALOGD << "Maximum amount of pending frames: " << max_pending_frames_;
jobjectArray input_buffers = (jobjectArray)GetObjectField(
jni, *j_media_codec_video_decoder_, j_input_buffers_field_);
size_t num_input_buffers = jni->GetArrayLength(input_buffers);
input_buffers_.resize(num_input_buffers);
for (size_t i = 0; i < num_input_buffers; ++i) {
input_buffers_[i] =
jni->NewGlobalRef(jni->GetObjectArrayElement(input_buffers, i));
if (CheckException(jni)) {
ALOGE << "NewGlobalRef error - fallback to SW codec.";
sw_fallback_required_ = true;
return WEBRTC_VIDEO_CODEC_ERROR;
}
}
codec_thread_->PostDelayed(RTC_FROM_HERE, kMediaCodecPollMs, this);
return WEBRTC_VIDEO_CODEC_OK;
}
int32_t MediaCodecVideoDecoder::ResetDecodeOnCodecThread() {
CheckOnCodecThread();
JNIEnv* jni = AttachCurrentThreadIfNeeded();
ScopedLocalRefFrame local_ref_frame(jni);
ALOGD << "ResetDecodeOnCodecThread Type: " << (int)codecType_ << ". "
<< codec_.width << " x " << codec_.height;
ALOGD << " Frames received: " << frames_received_ <<
". Frames decoded: " << frames_decoded_;
inited_ = false;
rtc::MessageQueueManager::Clear(this);
ResetVariables();
jni->CallVoidMethod(
*j_media_codec_video_decoder_,
j_reset_method_,
codec_.width,
codec_.height);
if (CheckException(jni)) {
ALOGE << "Soft reset error - fallback to SW codec.";
sw_fallback_required_ = true;
return WEBRTC_VIDEO_CODEC_ERROR;
}
inited_ = true;
codec_thread_->PostDelayed(RTC_FROM_HERE, kMediaCodecPollMs, this);
return WEBRTC_VIDEO_CODEC_OK;
}
int32_t MediaCodecVideoDecoder::Release() {
ALOGD << "DecoderRelease request";
return codec_thread_->Invoke<int32_t>(
RTC_FROM_HERE, Bind(&MediaCodecVideoDecoder::ReleaseOnCodecThread, this));
}
int32_t MediaCodecVideoDecoder::ReleaseOnCodecThread() {
if (!inited_) {
return WEBRTC_VIDEO_CODEC_OK;
}
CheckOnCodecThread();
JNIEnv* jni = AttachCurrentThreadIfNeeded();
ALOGD << "DecoderReleaseOnCodecThread: Frames received: " <<
frames_received_ << ". Frames decoded: " << frames_decoded_;
ScopedLocalRefFrame local_ref_frame(jni);
for (size_t i = 0; i < input_buffers_.size(); i++) {
jni->DeleteGlobalRef(input_buffers_[i]);
}
input_buffers_.clear();
jni->CallVoidMethod(*j_media_codec_video_decoder_, j_release_method_);
surface_texture_helper_ = nullptr;
inited_ = false;
rtc::MessageQueueManager::Clear(this);
if (CheckException(jni)) {
ALOGE << "Decoder release exception";
return WEBRTC_VIDEO_CODEC_ERROR;
}
ALOGD << "DecoderReleaseOnCodecThread done";
return WEBRTC_VIDEO_CODEC_OK;
}
void MediaCodecVideoDecoder::CheckOnCodecThread() {
RTC_CHECK(codec_thread_.get() == ThreadManager::Instance()->CurrentThread())
<< "Running on wrong thread!";
}
void MediaCodecVideoDecoder::EnableFrameLogOnWarning() {
// Log next 2 output frames.
frames_decoded_logged_ = std::max(
frames_decoded_logged_, frames_decoded_ + kMaxWarningLogFrames);
}
int32_t MediaCodecVideoDecoder::ProcessHWErrorOnCodecThread() {
CheckOnCodecThread();
int ret_val = ReleaseOnCodecThread();
if (ret_val < 0) {
ALOGE << "ProcessHWError: Release failure";
}
if (codecType_ == kVideoCodecH264) {
// For now there is no SW H.264 which can be used as fallback codec.
// So try to restart hw codec for now.
ret_val = InitDecodeOnCodecThread();
ALOGE << "Reset H.264 codec done. Status: " << ret_val;
if (ret_val == WEBRTC_VIDEO_CODEC_OK) {
// H.264 codec was succesfully reset - return regular error code.
return WEBRTC_VIDEO_CODEC_ERROR;
} else {
// Fail to restart H.264 codec - return error code which should stop the
// call.
return WEBRTC_VIDEO_CODEC_FALLBACK_SOFTWARE;
}
} else {
sw_fallback_required_ = true;
ALOGE << "Return WEBRTC_VIDEO_CODEC_FALLBACK_SOFTWARE";
return WEBRTC_VIDEO_CODEC_FALLBACK_SOFTWARE;
}
}
int32_t MediaCodecVideoDecoder::Decode(
const EncodedImage& inputImage,
bool missingFrames,
const RTPFragmentationHeader* fragmentation,
const CodecSpecificInfo* codecSpecificInfo,
int64_t renderTimeMs) {
if (sw_fallback_required_) {
ALOGE << "Decode() - fallback to SW codec";
return WEBRTC_VIDEO_CODEC_FALLBACK_SOFTWARE;
}
if (callback_ == NULL) {
ALOGE << "Decode() - callback_ is NULL";
return WEBRTC_VIDEO_CODEC_UNINITIALIZED;
}
if (inputImage._buffer == NULL && inputImage._length > 0) {
ALOGE << "Decode() - inputImage is incorrect";
return WEBRTC_VIDEO_CODEC_ERR_PARAMETER;
}
if (!inited_) {
ALOGE << "Decode() - decoder is not initialized";
return WEBRTC_VIDEO_CODEC_UNINITIALIZED;
}
// Check if encoded frame dimension has changed.
if ((inputImage._encodedWidth * inputImage._encodedHeight > 0) &&
(inputImage._encodedWidth != codec_.width ||
inputImage._encodedHeight != codec_.height)) {
ALOGW << "Input resolution changed from " <<
codec_.width << " x " << codec_.height << " to " <<
inputImage._encodedWidth << " x " << inputImage._encodedHeight;
codec_.width = inputImage._encodedWidth;
codec_.height = inputImage._encodedHeight;
int32_t ret;
if (use_surface_ &&
(codecType_ == kVideoCodecVP8 || codecType_ == kVideoCodecH264)) {
// Soft codec reset - only for surface decoding.
ret = codec_thread_->Invoke<int32_t>(
RTC_FROM_HERE,
Bind(&MediaCodecVideoDecoder::ResetDecodeOnCodecThread, this));
} else {
// Hard codec reset.
ret = InitDecode(&codec_, 1);
}
if (ret < 0) {
ALOGE << "InitDecode failure: " << ret << " - fallback to SW codec";
sw_fallback_required_ = true;
return WEBRTC_VIDEO_CODEC_FALLBACK_SOFTWARE;
}
}
// Always start with a complete key frame.
if (key_frame_required_) {
if (inputImage._frameType != webrtc::kVideoFrameKey) {
ALOGE << "Decode() - key frame is required";
return WEBRTC_VIDEO_CODEC_ERROR;
}
if (!inputImage._completeFrame) {
ALOGE << "Decode() - complete frame is required";
return WEBRTC_VIDEO_CODEC_ERROR;
}
key_frame_required_ = false;
}
if (inputImage._length == 0) {
return WEBRTC_VIDEO_CODEC_ERROR;
}
return codec_thread_->Invoke<int32_t>(
RTC_FROM_HERE,
Bind(&MediaCodecVideoDecoder::DecodeOnCodecThread, this, inputImage));
}
int32_t MediaCodecVideoDecoder::DecodeOnCodecThread(
const EncodedImage& inputImage) {
CheckOnCodecThread();
JNIEnv* jni = AttachCurrentThreadIfNeeded();
ScopedLocalRefFrame local_ref_frame(jni);
// Try to drain the decoder and wait until output is not too
// much behind the input.
if (codecType_ == kVideoCodecH264 &&
frames_received_ > frames_decoded_ + max_pending_frames_) {
// Print warning for H.264 only - for VP8/VP9 one frame delay is ok.
ALOGW << "Decoder is too far behind. Try to drain. Received: " <<
frames_received_ << ". Decoded: " << frames_decoded_;
EnableFrameLogOnWarning();
}
const int64 drain_start = rtc::TimeMillis();
while ((frames_received_ > frames_decoded_ + max_pending_frames_) &&
(rtc::TimeMillis() - drain_start) < kMediaCodecTimeoutMs) {
if (!DeliverPendingOutputs(jni, kMediaCodecPollMs)) {
ALOGE << "DeliverPendingOutputs error. Frames received: " <<
frames_received_ << ". Frames decoded: " << frames_decoded_;
return ProcessHWErrorOnCodecThread();
}
}
if (frames_received_ > frames_decoded_ + max_pending_frames_) {
ALOGE << "Output buffer dequeue timeout. Frames received: " <<
frames_received_ << ". Frames decoded: " << frames_decoded_;
return ProcessHWErrorOnCodecThread();
}
// Get input buffer.
int j_input_buffer_index = jni->CallIntMethod(
*j_media_codec_video_decoder_, j_dequeue_input_buffer_method_);
if (CheckException(jni) || j_input_buffer_index < 0) {
ALOGE << "dequeueInputBuffer error: " << j_input_buffer_index <<
". Retry DeliverPendingOutputs.";
EnableFrameLogOnWarning();
// Try to drain the decoder.
if (!DeliverPendingOutputs(jni, kMediaCodecPollMs)) {
ALOGE << "DeliverPendingOutputs error. Frames received: " <<
frames_received_ << ". Frames decoded: " << frames_decoded_;
return ProcessHWErrorOnCodecThread();
}
// Try dequeue input buffer one last time.
j_input_buffer_index = jni->CallIntMethod(
*j_media_codec_video_decoder_, j_dequeue_input_buffer_method_);
if (CheckException(jni) || j_input_buffer_index < 0) {
ALOGE << "dequeueInputBuffer critical error: " << j_input_buffer_index;
return ProcessHWErrorOnCodecThread();
}
}
// Copy encoded data to Java ByteBuffer.
jobject j_input_buffer = input_buffers_[j_input_buffer_index];
uint8_t* buffer =
reinterpret_cast<uint8_t*>(jni->GetDirectBufferAddress(j_input_buffer));
RTC_CHECK(buffer) << "Indirect buffer??";
int64_t buffer_capacity = jni->GetDirectBufferCapacity(j_input_buffer);
if (CheckException(jni) || buffer_capacity < inputImage._length) {
ALOGE << "Input frame size "<< inputImage._length <<
" is bigger than buffer size " << buffer_capacity;
return ProcessHWErrorOnCodecThread();
}
jlong presentation_timestamp_us = static_cast<jlong>(
static_cast<int64_t>(frames_received_) * 1000000 / codec_.maxFramerate);
memcpy(buffer, inputImage._buffer, inputImage._length);
if (frames_decoded_ < frames_decoded_logged_) {
ALOGD << "Decoder frame in # " << frames_received_ <<
". Type: " << inputImage._frameType <<
". Buffer # " << j_input_buffer_index <<
". TS: " << presentation_timestamp_us / 1000 <<
". Size: " << inputImage._length;
}
// Save input image timestamps for later output.
frames_received_++;
current_bytes_ += inputImage._length;
// Feed input to decoder.
bool success = jni->CallBooleanMethod(
*j_media_codec_video_decoder_,
j_queue_input_buffer_method_,
j_input_buffer_index,
inputImage._length,
presentation_timestamp_us,
static_cast<int64_t> (inputImage._timeStamp),
inputImage.ntp_time_ms_);
if (CheckException(jni) || !success) {
ALOGE << "queueInputBuffer error";
return ProcessHWErrorOnCodecThread();
}
// Try to drain the decoder
if (!DeliverPendingOutputs(jni, 0)) {
ALOGE << "DeliverPendingOutputs error";
return ProcessHWErrorOnCodecThread();
}
return WEBRTC_VIDEO_CODEC_OK;
}
bool MediaCodecVideoDecoder::DeliverPendingOutputs(
JNIEnv* jni, int dequeue_timeout_ms) {
if (frames_received_ <= frames_decoded_) {
// No need to query for output buffers - decoder is drained.
return true;
}
// Get decoder output.
jobject j_decoder_output_buffer =
jni->CallObjectMethod(*j_media_codec_video_decoder_,
use_surface_ ? j_dequeue_texture_buffer_method_
: j_dequeue_byte_buffer_method_,
dequeue_timeout_ms);
if (CheckException(jni)) {
ALOGE << "dequeueOutputBuffer() error";
return false;
}
if (IsNull(jni, j_decoder_output_buffer)) {
// No decoded frame ready.
return true;
}
// Get decoded video frame properties.
int color_format = GetIntField(jni, *j_media_codec_video_decoder_,
j_color_format_field_);
int width = GetIntField(jni, *j_media_codec_video_decoder_, j_width_field_);
int height = GetIntField(jni, *j_media_codec_video_decoder_, j_height_field_);
int stride = GetIntField(jni, *j_media_codec_video_decoder_, j_stride_field_);
int slice_height = GetIntField(jni, *j_media_codec_video_decoder_,
j_slice_height_field_);
rtc::scoped_refptr<webrtc::VideoFrameBuffer> frame_buffer;
int64_t presentation_timestamps_ms = 0;
int64_t output_timestamps_ms = 0;
int64_t output_ntp_timestamps_ms = 0;
int decode_time_ms = 0;
int64_t frame_delayed_ms = 0;
if (use_surface_) {
// Extract data from Java DecodedTextureBuffer.
presentation_timestamps_ms = GetLongField(
jni, j_decoder_output_buffer,
j_texture_presentation_timestamp_ms_field_);
output_timestamps_ms = GetLongField(
jni, j_decoder_output_buffer, j_texture_timestamp_ms_field_);
output_ntp_timestamps_ms = GetLongField(
jni, j_decoder_output_buffer, j_texture_ntp_timestamp_ms_field_);
decode_time_ms = GetLongField(
jni, j_decoder_output_buffer, j_texture_decode_time_ms_field_);
const int texture_id =
GetIntField(jni, j_decoder_output_buffer, j_texture_id_field_);
if (texture_id != 0) { // |texture_id| == 0 represents a dropped frame.
const jfloatArray j_transform_matrix =
reinterpret_cast<jfloatArray>(GetObjectField(
jni, j_decoder_output_buffer, j_transform_matrix_field_));
frame_delayed_ms = GetLongField(
jni, j_decoder_output_buffer, j_texture_frame_delay_ms_field_);
// Create webrtc::VideoFrameBuffer with native texture handle.
frame_buffer = surface_texture_helper_->CreateTextureFrame(
width, height, NativeHandleImpl(jni, texture_id, j_transform_matrix));
} else {
EnableFrameLogOnWarning();
}
} else {
// Extract data from Java ByteBuffer and create output yuv420 frame -
// for non surface decoding only.
const int output_buffer_index = GetIntField(
jni, j_decoder_output_buffer, j_info_index_field_);
const int output_buffer_offset = GetIntField(
jni, j_decoder_output_buffer, j_info_offset_field_);
const int output_buffer_size = GetIntField(
jni, j_decoder_output_buffer, j_info_size_field_);
presentation_timestamps_ms = GetLongField(
jni, j_decoder_output_buffer, j_presentation_timestamp_ms_field_);
output_timestamps_ms = GetLongField(
jni, j_decoder_output_buffer, j_timestamp_ms_field_);
output_ntp_timestamps_ms = GetLongField(
jni, j_decoder_output_buffer, j_ntp_timestamp_ms_field_);
decode_time_ms = GetLongField(jni, j_decoder_output_buffer,
j_byte_buffer_decode_time_ms_field_);
if (output_buffer_size < width * height * 3 / 2) {
ALOGE << "Insufficient output buffer size: " << output_buffer_size;
return false;
}
if (output_buffer_size < stride * height * 3 / 2 &&
slice_height == height && stride > width) {
// Some codecs (Exynos) incorrectly report stride information for
// output byte buffer, so actual stride value need to be corrected.
stride = output_buffer_size * 2 / (height * 3);
}
jobjectArray output_buffers = reinterpret_cast<jobjectArray>(GetObjectField(
jni, *j_media_codec_video_decoder_, j_output_buffers_field_));
jobject output_buffer =
jni->GetObjectArrayElement(output_buffers, output_buffer_index);
uint8_t* payload = reinterpret_cast<uint8_t*>(jni->GetDirectBufferAddress(
output_buffer));
if (CheckException(jni)) {
return false;
}
payload += output_buffer_offset;
// Create yuv420 frame.
frame_buffer = decoded_frame_pool_.CreateBuffer(width, height);
if (color_format == COLOR_FormatYUV420Planar) {
RTC_CHECK_EQ(0, stride % 2);
RTC_CHECK_EQ(0, slice_height % 2);
const int uv_stride = stride / 2;
const int u_slice_height = slice_height / 2;
const uint8_t* y_ptr = payload;
const uint8_t* u_ptr = y_ptr + stride * slice_height;
const uint8_t* v_ptr = u_ptr + uv_stride * u_slice_height;
libyuv::I420Copy(y_ptr, stride,
u_ptr, uv_stride,
v_ptr, uv_stride,
frame_buffer->MutableDataY(),
frame_buffer->StrideY(),
frame_buffer->MutableDataU(),
frame_buffer->StrideU(),
frame_buffer->MutableDataV(),
frame_buffer->StrideV(),
width, height);
} else {
// All other supported formats are nv12.
const uint8_t* y_ptr = payload;
const uint8_t* uv_ptr = y_ptr + stride * slice_height;
libyuv::NV12ToI420(
y_ptr, stride,
uv_ptr, stride,
frame_buffer->MutableDataY(),
frame_buffer->StrideY(),
frame_buffer->MutableDataU(),
frame_buffer->StrideU(),
frame_buffer->MutableDataV(),
frame_buffer->StrideV(),
width, height);
}
// Return output byte buffer back to codec.
jni->CallVoidMethod(
*j_media_codec_video_decoder_,
j_return_decoded_byte_buffer_method_,
output_buffer_index);
if (CheckException(jni)) {
ALOGE << "returnDecodedOutputBuffer error";
return false;
}
}
if (frames_decoded_ < frames_decoded_logged_) {
ALOGD << "Decoder frame out # " << frames_decoded_ <<
". " << width << " x " << height <<
". " << stride << " x " << slice_height <<
". Color: " << color_format <<
". TS: " << presentation_timestamps_ms <<
". DecTime: " << (int)decode_time_ms <<
". DelayTime: " << (int)frame_delayed_ms;
}
// Calculate and print decoding statistics - every 3 seconds.
frames_decoded_++;
current_frames_++;
current_decoding_time_ms_ += decode_time_ms;
current_delay_time_ms_ += frame_delayed_ms;
int statistic_time_ms = rtc::TimeMillis() - start_time_ms_;
if (statistic_time_ms >= kMediaCodecStatisticsIntervalMs &&
current_frames_ > 0) {
int current_bitrate = current_bytes_ * 8 / statistic_time_ms;
int current_fps =
(current_frames_ * 1000 + statistic_time_ms / 2) / statistic_time_ms;
ALOGD << "Frames decoded: " << frames_decoded_ <<
". Received: " << frames_received_ <<
". Bitrate: " << current_bitrate << " kbps" <<
". Fps: " << current_fps <<
". DecTime: " << (current_decoding_time_ms_ / current_frames_) <<
". DelayTime: " << (current_delay_time_ms_ / current_frames_) <<
" for last " << statistic_time_ms << " ms.";
start_time_ms_ = rtc::TimeMillis();
current_frames_ = 0;
current_bytes_ = 0;
current_decoding_time_ms_ = 0;
current_delay_time_ms_ = 0;
}
// If the frame was dropped, frame_buffer is left as nullptr.
if (frame_buffer) {
VideoFrame decoded_frame(frame_buffer, 0, 0, webrtc::kVideoRotation_0);
decoded_frame.set_timestamp(output_timestamps_ms);
decoded_frame.set_ntp_time_ms(output_ntp_timestamps_ms);
const int32_t callback_status =
callback_->Decoded(decoded_frame, decode_time_ms);
if (callback_status > 0) {
ALOGE << "callback error";
}
}
return true;
}
int32_t MediaCodecVideoDecoder::RegisterDecodeCompleteCallback(
DecodedImageCallback* callback) {
callback_ = callback;
return WEBRTC_VIDEO_CODEC_OK;
}
void MediaCodecVideoDecoder::OnMessage(rtc::Message* msg) {
JNIEnv* jni = AttachCurrentThreadIfNeeded();
ScopedLocalRefFrame local_ref_frame(jni);
if (!inited_) {
return;
}
// We only ever send one message to |this| directly (not through a Bind()'d
// functor), so expect no ID/data.
RTC_CHECK(!msg->message_id) << "Unexpected message!";
RTC_CHECK(!msg->pdata) << "Unexpected message!";
CheckOnCodecThread();
if (!DeliverPendingOutputs(jni, 0)) {
ALOGE << "OnMessage: DeliverPendingOutputs error";
ProcessHWErrorOnCodecThread();
return;
}
codec_thread_->PostDelayed(RTC_FROM_HERE, kMediaCodecPollMs, this);
}
MediaCodecVideoDecoderFactory::MediaCodecVideoDecoderFactory()
: egl_context_(nullptr) {
ALOGD << "MediaCodecVideoDecoderFactory ctor";
JNIEnv* jni = AttachCurrentThreadIfNeeded();
ScopedLocalRefFrame local_ref_frame(jni);
jclass j_decoder_class = FindClass(jni, "org/webrtc/MediaCodecVideoDecoder");
supported_codec_types_.clear();
bool is_vp8_hw_supported = jni->CallStaticBooleanMethod(
j_decoder_class,
GetStaticMethodID(jni, j_decoder_class, "isVp8HwSupported", "()Z"));
if (CheckException(jni)) {
is_vp8_hw_supported = false;
}
if (is_vp8_hw_supported) {
ALOGD << "VP8 HW Decoder supported.";
supported_codec_types_.push_back(kVideoCodecVP8);
}
bool is_vp9_hw_supported = jni->CallStaticBooleanMethod(
j_decoder_class,
GetStaticMethodID(jni, j_decoder_class, "isVp9HwSupported", "()Z"));
if (CheckException(jni)) {
is_vp9_hw_supported = false;
}
if (is_vp9_hw_supported) {
ALOGD << "VP9 HW Decoder supported.";
supported_codec_types_.push_back(kVideoCodecVP9);
}
bool is_h264_hw_supported = jni->CallStaticBooleanMethod(
j_decoder_class,
GetStaticMethodID(jni, j_decoder_class, "isH264HwSupported", "()Z"));
if (CheckException(jni)) {
is_h264_hw_supported = false;
}
if (is_h264_hw_supported) {
ALOGD << "H264 HW Decoder supported.";
supported_codec_types_.push_back(kVideoCodecH264);
}
}
MediaCodecVideoDecoderFactory::~MediaCodecVideoDecoderFactory() {
ALOGD << "MediaCodecVideoDecoderFactory dtor";
if (egl_context_) {
JNIEnv* jni = AttachCurrentThreadIfNeeded();
jni->DeleteGlobalRef(egl_context_);
}
}
void MediaCodecVideoDecoderFactory::SetEGLContext(
JNIEnv* jni, jobject egl_context) {
ALOGD << "MediaCodecVideoDecoderFactory::SetEGLContext";
if (egl_context_) {
jni->DeleteGlobalRef(egl_context_);
egl_context_ = nullptr;
}
egl_context_ = jni->NewGlobalRef(egl_context);
if (CheckException(jni)) {
ALOGE << "error calling NewGlobalRef for EGL Context.";
}
}
webrtc::VideoDecoder* MediaCodecVideoDecoderFactory::CreateVideoDecoder(
VideoCodecType type) {
if (supported_codec_types_.empty()) {
ALOGW << "No HW video decoder for type " << (int)type;
return nullptr;
}
for (VideoCodecType codec_type : supported_codec_types_) {
if (codec_type == type) {
ALOGD << "Create HW video decoder for type " << (int)type;
return new MediaCodecVideoDecoder(AttachCurrentThreadIfNeeded(), type,
egl_context_);
}
}
ALOGW << "Can not find HW video decoder for type " << (int)type;
return nullptr;
}
void MediaCodecVideoDecoderFactory::DestroyVideoDecoder(
webrtc::VideoDecoder* decoder) {
ALOGD << "Destroy video decoder.";
delete decoder;
}
const char* MediaCodecVideoDecoder::ImplementationName() const {
return "MediaCodec";
}
} // namespace webrtc_jni