
Uninline RTPFragmentaion functions fix RTPFragmentation move constructor and assign operators (was recursive for win) replace assert with rtc::dchecked_cast Remove unused includes and dependencies. Fix other targets that used those includes transitively instead of directly Bug: None Change-Id: I647cb1eda107dc7d87d25234095545bc2842fa40 Reviewed-on: https://webrtc-review.googlesource.com/100500 Commit-Queue: Danil Chapovalov <danilchap@webrtc.org> Reviewed-by: Karl Wiberg <kwiberg@webrtc.org> Cr-Commit-Position: refs/heads/master@{#24759}
477 lines
18 KiB
C++
477 lines
18 KiB
C++
/*
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* Copyright 2017 The WebRTC project authors. All Rights Reserved.
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*
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* Use of this source code is governed by a BSD-style license
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* that can be found in the LICENSE file in the root of the source
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* tree. An additional intellectual property rights grant can be found
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* in the file PATENTS. All contributing project authors may
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* be found in the AUTHORS file in the root of the source tree.
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*/
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#include "sdk/android/src/jni/videoencoderwrapper.h"
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#include <utility>
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#include "common_video/h264/h264_common.h"
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#include "modules/include/module_common_types.h"
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#include "modules/video_coding/include/video_codec_interface.h"
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#include "modules/video_coding/include/video_error_codes.h"
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#include "modules/video_coding/utility/vp8_header_parser.h"
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#include "modules/video_coding/utility/vp9_uncompressed_header_parser.h"
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#include "rtc_base/logging.h"
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#include "rtc_base/timeutils.h"
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#include "sdk/android/generated_video_jni/jni/VideoEncoderWrapper_jni.h"
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#include "sdk/android/generated_video_jni/jni/VideoEncoder_jni.h"
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#include "sdk/android/native_api/jni/class_loader.h"
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#include "sdk/android/native_api/jni/java_types.h"
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#include "sdk/android/src/jni/encodedimage.h"
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#include "sdk/android/src/jni/videocodecstatus.h"
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namespace webrtc {
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namespace jni {
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VideoEncoderWrapper::VideoEncoderWrapper(JNIEnv* jni,
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const JavaRef<jobject>& j_encoder)
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: encoder_(jni, j_encoder), int_array_class_(GetClass(jni, "[I")) {
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implementation_name_ = GetImplementationName(jni);
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initialized_ = false;
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num_resets_ = 0;
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}
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VideoEncoderWrapper::~VideoEncoderWrapper() = default;
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int32_t VideoEncoderWrapper::InitEncode(const VideoCodec* codec_settings,
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int32_t number_of_cores,
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size_t max_payload_size) {
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JNIEnv* jni = AttachCurrentThreadIfNeeded();
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number_of_cores_ = number_of_cores;
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codec_settings_ = *codec_settings;
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num_resets_ = 0;
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encoder_queue_ = rtc::TaskQueue::Current();
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return InitEncodeInternal(jni);
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}
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int32_t VideoEncoderWrapper::InitEncodeInternal(JNIEnv* jni) {
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bool automatic_resize_on;
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switch (codec_settings_.codecType) {
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case kVideoCodecVP8:
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automatic_resize_on = codec_settings_.VP8()->automaticResizeOn;
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break;
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case kVideoCodecVP9:
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automatic_resize_on = codec_settings_.VP9()->automaticResizeOn;
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gof_.SetGofInfoVP9(TemporalStructureMode::kTemporalStructureMode1);
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gof_idx_ = 0;
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break;
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default:
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automatic_resize_on = true;
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}
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ScopedJavaLocalRef<jobject> settings = Java_Settings_Constructor(
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jni, number_of_cores_, codec_settings_.width, codec_settings_.height,
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static_cast<int>(codec_settings_.startBitrate),
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static_cast<int>(codec_settings_.maxFramerate),
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static_cast<int>(codec_settings_.numberOfSimulcastStreams),
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automatic_resize_on);
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ScopedJavaLocalRef<jobject> callback =
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Java_VideoEncoderWrapper_createEncoderCallback(jni,
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jlongFromPointer(this));
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int32_t status = JavaToNativeVideoCodecStatus(
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jni, Java_VideoEncoder_initEncode(jni, encoder_, settings, callback));
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RTC_LOG(LS_INFO) << "initEncode: " << status;
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if (status == WEBRTC_VIDEO_CODEC_OK) {
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initialized_ = true;
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}
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return status;
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}
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int32_t VideoEncoderWrapper::RegisterEncodeCompleteCallback(
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EncodedImageCallback* callback) {
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callback_ = callback;
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return WEBRTC_VIDEO_CODEC_OK;
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}
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int32_t VideoEncoderWrapper::Release() {
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JNIEnv* jni = AttachCurrentThreadIfNeeded();
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int32_t status = JavaToNativeVideoCodecStatus(
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jni, Java_VideoEncoder_release(jni, encoder_));
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RTC_LOG(LS_INFO) << "release: " << status;
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frame_extra_infos_.clear();
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initialized_ = false;
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encoder_queue_ = nullptr;
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return status;
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}
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int32_t VideoEncoderWrapper::Encode(
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const VideoFrame& frame,
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const CodecSpecificInfo* /* codec_specific_info */,
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const std::vector<FrameType>* frame_types) {
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if (!initialized_) {
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// Most likely initializing the codec failed.
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return WEBRTC_VIDEO_CODEC_FALLBACK_SOFTWARE;
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}
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JNIEnv* jni = AttachCurrentThreadIfNeeded();
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// Construct encode info.
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ScopedJavaLocalRef<jobjectArray> j_frame_types =
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NativeToJavaFrameTypeArray(jni, *frame_types);
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ScopedJavaLocalRef<jobject> encode_info =
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Java_EncodeInfo_Constructor(jni, j_frame_types);
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FrameExtraInfo info;
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info.capture_time_ns = frame.timestamp_us() * rtc::kNumNanosecsPerMicrosec;
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info.timestamp_rtp = frame.timestamp();
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frame_extra_infos_.push_back(info);
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ScopedJavaLocalRef<jobject> j_frame = NativeToJavaVideoFrame(jni, frame);
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ScopedJavaLocalRef<jobject> ret =
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Java_VideoEncoder_encode(jni, encoder_, j_frame, encode_info);
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ReleaseJavaVideoFrame(jni, j_frame);
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return HandleReturnCode(jni, ret, "encode");
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}
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int32_t VideoEncoderWrapper::SetChannelParameters(uint32_t packet_loss,
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int64_t rtt) {
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JNIEnv* jni = AttachCurrentThreadIfNeeded();
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ScopedJavaLocalRef<jobject> ret = Java_VideoEncoder_setChannelParameters(
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jni, encoder_, (jshort)packet_loss, (jlong)rtt);
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return HandleReturnCode(jni, ret, "setChannelParameters");
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}
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int32_t VideoEncoderWrapper::SetRateAllocation(
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const VideoBitrateAllocation& allocation,
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uint32_t framerate) {
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JNIEnv* jni = AttachCurrentThreadIfNeeded();
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ScopedJavaLocalRef<jobject> j_bitrate_allocation =
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ToJavaBitrateAllocation(jni, allocation);
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ScopedJavaLocalRef<jobject> ret = Java_VideoEncoder_setRateAllocation(
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jni, encoder_, j_bitrate_allocation, (jint)framerate);
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return HandleReturnCode(jni, ret, "setRateAllocation");
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}
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VideoEncoderWrapper::ScalingSettings VideoEncoderWrapper::GetScalingSettings()
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const {
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JNIEnv* jni = AttachCurrentThreadIfNeeded();
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ScopedJavaLocalRef<jobject> j_scaling_settings =
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Java_VideoEncoder_getScalingSettings(jni, encoder_);
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bool isOn =
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Java_VideoEncoderWrapper_getScalingSettingsOn(jni, j_scaling_settings);
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if (!isOn)
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return ScalingSettings::kOff;
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absl::optional<int> low = JavaToNativeOptionalInt(
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jni,
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Java_VideoEncoderWrapper_getScalingSettingsLow(jni, j_scaling_settings));
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absl::optional<int> high = JavaToNativeOptionalInt(
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jni,
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Java_VideoEncoderWrapper_getScalingSettingsHigh(jni, j_scaling_settings));
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if (low && high)
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return ScalingSettings(*low, *high);
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switch (codec_settings_.codecType) {
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case kVideoCodecVP8: {
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// Same as in vp8_impl.cc.
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static const int kLowVp8QpThreshold = 29;
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static const int kHighVp8QpThreshold = 95;
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return ScalingSettings(low.value_or(kLowVp8QpThreshold),
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high.value_or(kHighVp8QpThreshold));
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}
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case kVideoCodecVP9: {
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// QP is obtained from VP9-bitstream, so the QP corresponds to the
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// bitstream range of [0, 255] and not the user-level range of [0,63].
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static const int kLowVp9QpThreshold = 96;
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static const int kHighVp9QpThreshold = 185;
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return VideoEncoder::ScalingSettings(kLowVp9QpThreshold,
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kHighVp9QpThreshold);
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}
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case kVideoCodecH264: {
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// Same as in h264_encoder_impl.cc.
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static const int kLowH264QpThreshold = 24;
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static const int kHighH264QpThreshold = 37;
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return ScalingSettings(low.value_or(kLowH264QpThreshold),
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high.value_or(kHighH264QpThreshold));
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}
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default:
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return ScalingSettings::kOff;
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}
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}
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bool VideoEncoderWrapper::SupportsNativeHandle() const {
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return true;
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}
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const char* VideoEncoderWrapper::ImplementationName() const {
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return implementation_name_.c_str();
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}
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void VideoEncoderWrapper::OnEncodedFrame(JNIEnv* jni,
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const JavaRef<jobject>& j_caller,
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const JavaRef<jobject>& j_buffer,
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jint encoded_width,
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jint encoded_height,
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jlong capture_time_ns,
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jint frame_type,
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jint rotation,
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jboolean complete_frame,
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const JavaRef<jobject>& j_qp) {
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const uint8_t* buffer =
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static_cast<uint8_t*>(jni->GetDirectBufferAddress(j_buffer.obj()));
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const size_t buffer_size = jni->GetDirectBufferCapacity(j_buffer.obj());
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std::vector<uint8_t> buffer_copy(buffer_size);
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memcpy(buffer_copy.data(), buffer, buffer_size);
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const int qp = JavaToNativeOptionalInt(jni, j_qp).value_or(-1);
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struct Lambda {
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VideoEncoderWrapper* video_encoder_wrapper;
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std::vector<uint8_t> task_buffer;
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int qp;
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jint encoded_width;
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jint encoded_height;
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jlong capture_time_ns;
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jint frame_type;
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jint rotation;
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jboolean complete_frame;
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std::deque<FrameExtraInfo>* frame_extra_infos;
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EncodedImageCallback* callback;
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void operator()() const {
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// Encoded frames are delivered in the order received, but some of them
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// may be dropped, so remove records of frames older than the current one.
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//
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// NOTE: if the current frame is associated with Encoder A, in the time
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// since this frame was received, Encoder A could have been Release()'ed,
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// Encoder B InitEncode()'ed (due to reuse of Encoder A), and frames
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// received by Encoder B. Thus there may be frame_extra_infos entries that
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// don't belong to us, and we need to be careful not to remove them.
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// Removing only those entries older than the current frame provides this
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// guarantee.
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while (!frame_extra_infos->empty() &&
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frame_extra_infos->front().capture_time_ns < capture_time_ns) {
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frame_extra_infos->pop_front();
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}
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if (frame_extra_infos->empty() ||
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frame_extra_infos->front().capture_time_ns != capture_time_ns) {
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RTC_LOG(LS_WARNING)
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<< "Java encoder produced an unexpected frame with timestamp: "
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<< capture_time_ns;
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return;
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}
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FrameExtraInfo frame_extra_info = std::move(frame_extra_infos->front());
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frame_extra_infos->pop_front();
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RTPFragmentationHeader header =
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video_encoder_wrapper->ParseFragmentationHeader(task_buffer);
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EncodedImage frame(const_cast<uint8_t*>(task_buffer.data()),
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task_buffer.size(), task_buffer.size());
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frame._encodedWidth = encoded_width;
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frame._encodedHeight = encoded_height;
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frame.SetTimestamp(frame_extra_info.timestamp_rtp);
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frame.capture_time_ms_ = capture_time_ns / rtc::kNumNanosecsPerMillisec;
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frame._frameType = (FrameType)frame_type;
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frame.rotation_ = (VideoRotation)rotation;
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frame._completeFrame = complete_frame;
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if (qp == -1) {
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frame.qp_ = video_encoder_wrapper->ParseQp(task_buffer);
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} else {
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frame.qp_ = qp;
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}
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CodecSpecificInfo info(
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video_encoder_wrapper->ParseCodecSpecificInfo(frame));
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callback->OnEncodedImage(frame, &info, &header);
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}
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};
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encoder_queue_->PostTask(
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Lambda{this, std::move(buffer_copy), qp, encoded_width, encoded_height,
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capture_time_ns, frame_type, rotation, complete_frame,
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&frame_extra_infos_, callback_});
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}
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int32_t VideoEncoderWrapper::HandleReturnCode(JNIEnv* jni,
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const JavaRef<jobject>& j_value,
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const char* method_name) {
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int32_t value = JavaToNativeVideoCodecStatus(jni, j_value);
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if (value >= 0) { // OK or NO_OUTPUT
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return value;
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}
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RTC_LOG(LS_WARNING) << method_name << ": " << value;
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if (value == WEBRTC_VIDEO_CODEC_FALLBACK_SOFTWARE ||
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value == WEBRTC_VIDEO_CODEC_UNINITIALIZED) { // Critical error.
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RTC_LOG(LS_WARNING) << "Java encoder requested software fallback.";
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return WEBRTC_VIDEO_CODEC_FALLBACK_SOFTWARE;
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}
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// Try resetting the codec.
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if (Release() == WEBRTC_VIDEO_CODEC_OK &&
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InitEncodeInternal(jni) == WEBRTC_VIDEO_CODEC_OK) {
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RTC_LOG(LS_WARNING) << "Reset Java encoder.";
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return WEBRTC_VIDEO_CODEC_ERROR;
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}
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RTC_LOG(LS_WARNING) << "Unable to reset Java encoder.";
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return WEBRTC_VIDEO_CODEC_FALLBACK_SOFTWARE;
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}
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RTPFragmentationHeader VideoEncoderWrapper::ParseFragmentationHeader(
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const std::vector<uint8_t>& buffer) {
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RTPFragmentationHeader header;
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if (codec_settings_.codecType == kVideoCodecH264) {
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h264_bitstream_parser_.ParseBitstream(buffer.data(), buffer.size());
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// For H.264 search for start codes.
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const std::vector<H264::NaluIndex> nalu_idxs =
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H264::FindNaluIndices(buffer.data(), buffer.size());
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if (nalu_idxs.empty()) {
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RTC_LOG(LS_ERROR) << "Start code is not found!";
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RTC_LOG(LS_ERROR) << "Data:" << buffer[0] << " " << buffer[1] << " "
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<< buffer[2] << " " << buffer[3] << " " << buffer[4]
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<< " " << buffer[5];
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}
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header.VerifyAndAllocateFragmentationHeader(nalu_idxs.size());
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for (size_t i = 0; i < nalu_idxs.size(); i++) {
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header.fragmentationOffset[i] = nalu_idxs[i].payload_start_offset;
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header.fragmentationLength[i] = nalu_idxs[i].payload_size;
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header.fragmentationPlType[i] = 0;
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header.fragmentationTimeDiff[i] = 0;
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}
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} else {
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// Generate a header describing a single fragment.
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header.VerifyAndAllocateFragmentationHeader(1);
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header.fragmentationOffset[0] = 0;
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header.fragmentationLength[0] = buffer.size();
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header.fragmentationPlType[0] = 0;
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header.fragmentationTimeDiff[0] = 0;
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}
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return header;
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}
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int VideoEncoderWrapper::ParseQp(const std::vector<uint8_t>& buffer) {
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int qp;
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bool success;
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switch (codec_settings_.codecType) {
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case kVideoCodecVP8:
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success = vp8::GetQp(buffer.data(), buffer.size(), &qp);
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break;
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case kVideoCodecVP9:
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success = vp9::GetQp(buffer.data(), buffer.size(), &qp);
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break;
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case kVideoCodecH264:
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success = h264_bitstream_parser_.GetLastSliceQp(&qp);
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break;
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default: // Default is to not provide QP.
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success = false;
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break;
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}
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return success ? qp : -1; // -1 means unknown QP.
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}
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CodecSpecificInfo VideoEncoderWrapper::ParseCodecSpecificInfo(
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const EncodedImage& frame) {
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const bool key_frame = frame._frameType == kVideoFrameKey;
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CodecSpecificInfo info;
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memset(&info, 0, sizeof(info));
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info.codecType = codec_settings_.codecType;
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info.codec_name = implementation_name_.c_str();
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switch (codec_settings_.codecType) {
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case kVideoCodecVP8:
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info.codecSpecific.VP8.nonReference = false;
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info.codecSpecific.VP8.temporalIdx = kNoTemporalIdx;
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info.codecSpecific.VP8.layerSync = false;
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info.codecSpecific.VP8.keyIdx = kNoKeyIdx;
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break;
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case kVideoCodecVP9:
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if (key_frame) {
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gof_idx_ = 0;
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}
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info.codecSpecific.VP9.inter_pic_predicted = key_frame ? false : true;
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info.codecSpecific.VP9.flexible_mode = false;
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info.codecSpecific.VP9.ss_data_available = key_frame ? true : false;
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info.codecSpecific.VP9.temporal_idx = kNoTemporalIdx;
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info.codecSpecific.VP9.temporal_up_switch = true;
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info.codecSpecific.VP9.inter_layer_predicted = false;
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info.codecSpecific.VP9.gof_idx =
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static_cast<uint8_t>(gof_idx_++ % gof_.num_frames_in_gof);
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info.codecSpecific.VP9.num_spatial_layers = 1;
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info.codecSpecific.VP9.first_frame_in_picture = true;
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info.codecSpecific.VP9.end_of_picture = true;
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info.codecSpecific.VP9.spatial_layer_resolution_present = false;
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if (info.codecSpecific.VP9.ss_data_available) {
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info.codecSpecific.VP9.spatial_layer_resolution_present = true;
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info.codecSpecific.VP9.width[0] = frame._encodedWidth;
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info.codecSpecific.VP9.height[0] = frame._encodedHeight;
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info.codecSpecific.VP9.gof.CopyGofInfoVP9(gof_);
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}
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break;
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default:
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break;
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}
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return info;
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}
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ScopedJavaLocalRef<jobject> VideoEncoderWrapper::ToJavaBitrateAllocation(
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JNIEnv* jni,
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const VideoBitrateAllocation& allocation) {
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ScopedJavaLocalRef<jobjectArray> j_allocation_array(
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jni, jni->NewObjectArray(kMaxSpatialLayers, int_array_class_.obj(),
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nullptr /* initial */));
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for (int spatial_i = 0; spatial_i < kMaxSpatialLayers; ++spatial_i) {
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ScopedJavaLocalRef<jintArray> j_array_spatial_layer(
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jni, jni->NewIntArray(kMaxTemporalStreams));
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jint* array_spatial_layer = jni->GetIntArrayElements(
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j_array_spatial_layer.obj(), nullptr /* isCopy */);
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for (int temporal_i = 0; temporal_i < kMaxTemporalStreams; ++temporal_i) {
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array_spatial_layer[temporal_i] =
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allocation.GetBitrate(spatial_i, temporal_i);
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}
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jni->ReleaseIntArrayElements(j_array_spatial_layer.obj(),
|
|
array_spatial_layer, JNI_COMMIT);
|
|
|
|
jni->SetObjectArrayElement(j_allocation_array.obj(), spatial_i,
|
|
j_array_spatial_layer.obj());
|
|
}
|
|
return Java_BitrateAllocation_Constructor(jni, j_allocation_array);
|
|
}
|
|
|
|
std::string VideoEncoderWrapper::GetImplementationName(JNIEnv* jni) const {
|
|
return JavaToStdString(
|
|
jni, Java_VideoEncoder_getImplementationName(jni, encoder_));
|
|
}
|
|
|
|
std::unique_ptr<VideoEncoder> JavaToNativeVideoEncoder(
|
|
JNIEnv* jni,
|
|
const JavaRef<jobject>& j_encoder) {
|
|
const jlong native_encoder =
|
|
Java_VideoEncoder_createNativeVideoEncoder(jni, j_encoder);
|
|
VideoEncoder* encoder;
|
|
if (native_encoder == 0) {
|
|
encoder = new VideoEncoderWrapper(jni, j_encoder);
|
|
} else {
|
|
encoder = reinterpret_cast<VideoEncoder*>(native_encoder);
|
|
}
|
|
return std::unique_ptr<VideoEncoder>(encoder);
|
|
}
|
|
|
|
bool IsHardwareVideoEncoder(JNIEnv* jni, const JavaRef<jobject>& j_encoder) {
|
|
return Java_VideoEncoder_isHardwareEncoder(jni, j_encoder);
|
|
}
|
|
|
|
} // namespace jni
|
|
} // namespace webrtc
|