git cl format on common_types.h.

BUG=

Review-Url: https://codereview.webrtc.org/2294243003
Cr-Commit-Position: refs/heads/master@{#14023}
This commit is contained in:
solenberg 2016-09-01 07:54:53 -07:00 committed by Commit bot
parent 14f52c2bde
commit 634b86ecc6

View File

@ -23,7 +23,7 @@
#if defined(_MSC_VER)
// Disable "new behavior: elements of array will be default initialized"
// warning. Affects OverUseDetectorOptions.
#pragma warning(disable:4351)
#pragma warning(disable : 4351)
#endif
#ifdef WEBRTC_EXPORT
@ -74,54 +74,52 @@ class OutStream : public RewindableStream {
virtual bool Write(const void* buf, size_t len) = 0;
};
enum TraceModule
{
kTraceUndefined = 0,
// not a module, triggered from the engine code
kTraceVoice = 0x0001,
// not a module, triggered from the engine code
kTraceVideo = 0x0002,
// not a module, triggered from the utility code
kTraceUtility = 0x0003,
kTraceRtpRtcp = 0x0004,
kTraceTransport = 0x0005,
kTraceSrtp = 0x0006,
kTraceAudioCoding = 0x0007,
kTraceAudioMixerServer = 0x0008,
kTraceAudioMixerClient = 0x0009,
kTraceFile = 0x000a,
kTraceAudioProcessing = 0x000b,
kTraceVideoCoding = 0x0010,
kTraceVideoMixer = 0x0011,
kTraceAudioDevice = 0x0012,
kTraceVideoRenderer = 0x0014,
kTraceVideoCapture = 0x0015,
kTraceRemoteBitrateEstimator = 0x0017,
enum TraceModule {
kTraceUndefined = 0,
// not a module, triggered from the engine code
kTraceVoice = 0x0001,
// not a module, triggered from the engine code
kTraceVideo = 0x0002,
// not a module, triggered from the utility code
kTraceUtility = 0x0003,
kTraceRtpRtcp = 0x0004,
kTraceTransport = 0x0005,
kTraceSrtp = 0x0006,
kTraceAudioCoding = 0x0007,
kTraceAudioMixerServer = 0x0008,
kTraceAudioMixerClient = 0x0009,
kTraceFile = 0x000a,
kTraceAudioProcessing = 0x000b,
kTraceVideoCoding = 0x0010,
kTraceVideoMixer = 0x0011,
kTraceAudioDevice = 0x0012,
kTraceVideoRenderer = 0x0014,
kTraceVideoCapture = 0x0015,
kTraceRemoteBitrateEstimator = 0x0017,
};
enum TraceLevel
{
kTraceNone = 0x0000, // no trace
kTraceStateInfo = 0x0001,
kTraceWarning = 0x0002,
kTraceError = 0x0004,
kTraceCritical = 0x0008,
kTraceApiCall = 0x0010,
kTraceDefault = 0x00ff,
enum TraceLevel {
kTraceNone = 0x0000, // no trace
kTraceStateInfo = 0x0001,
kTraceWarning = 0x0002,
kTraceError = 0x0004,
kTraceCritical = 0x0008,
kTraceApiCall = 0x0010,
kTraceDefault = 0x00ff,
kTraceModuleCall = 0x0020,
kTraceMemory = 0x0100, // memory info
kTraceTimer = 0x0200, // timing info
kTraceStream = 0x0400, // "continuous" stream of data
kTraceModuleCall = 0x0020,
kTraceMemory = 0x0100, // memory info
kTraceTimer = 0x0200, // timing info
kTraceStream = 0x0400, // "continuous" stream of data
// used for debug purposes
kTraceDebug = 0x0800, // debug
kTraceInfo = 0x1000, // debug info
// used for debug purposes
kTraceDebug = 0x0800, // debug
kTraceInfo = 0x1000, // debug info
// Non-verbose level used by LS_INFO of logging.h. Do not use directly.
kTraceTerseInfo = 0x2000,
// Non-verbose level used by LS_INFO of logging.h. Do not use directly.
kTraceTerseInfo = 0x2000,
kTraceAll = 0xffff
kTraceAll = 0xffff
};
// External Trace API
@ -134,23 +132,21 @@ class TraceCallback {
TraceCallback() {}
};
enum FileFormats
{
kFileFormatWavFile = 1,
kFileFormatCompressedFile = 2,
kFileFormatPreencodedFile = 4,
kFileFormatPcm16kHzFile = 7,
kFileFormatPcm8kHzFile = 8,
kFileFormatPcm32kHzFile = 9
enum FileFormats {
kFileFormatWavFile = 1,
kFileFormatCompressedFile = 2,
kFileFormatPreencodedFile = 4,
kFileFormatPcm16kHzFile = 7,
kFileFormatPcm8kHzFile = 8,
kFileFormatPcm32kHzFile = 9
};
enum ProcessingTypes
{
kPlaybackPerChannel = 0,
kPlaybackAllChannelsMixed,
kRecordingPerChannel,
kRecordingAllChannelsMixed,
kRecordingPreprocessing
enum ProcessingTypes {
kPlaybackPerChannel = 0,
kPlaybackAllChannelsMixed,
kRecordingPerChannel,
kRecordingAllChannelsMixed,
kRecordingPreprocessing
};
enum FrameType {
@ -164,10 +160,10 @@ enum FrameType {
// Statistics for an RTCP channel
struct RtcpStatistics {
RtcpStatistics()
: fraction_lost(0),
cumulative_lost(0),
extended_max_sequence_number(0),
jitter(0) {}
: fraction_lost(0),
cumulative_lost(0),
extended_max_sequence_number(0),
jitter(0) {}
uint8_t fraction_lost;
uint32_t cumulative_lost;
@ -187,12 +183,12 @@ class RtcpStatisticsCallback {
// Statistics for RTCP packet types.
struct RtcpPacketTypeCounter {
RtcpPacketTypeCounter()
: first_packet_time_ms(-1),
nack_packets(0),
fir_packets(0),
pli_packets(0),
nack_requests(0),
unique_nack_requests(0) {}
: first_packet_time_ms(-1),
nack_packets(0),
fir_packets(0),
pli_packets(0),
nack_requests(0),
unique_nack_requests(0) {}
void Add(const RtcpPacketTypeCounter& other) {
nack_packets += other.nack_packets;
@ -201,8 +197,8 @@ struct RtcpPacketTypeCounter {
nack_requests += other.nack_requests;
unique_nack_requests += other.unique_nack_requests;
if (other.first_packet_time_ms != -1 &&
(other.first_packet_time_ms < first_packet_time_ms ||
first_packet_time_ms == -1)) {
(other.first_packet_time_ms < first_packet_time_ms ||
first_packet_time_ms == -1)) {
// Use oldest time.
first_packet_time_ms = other.first_packet_time_ms;
}
@ -230,15 +226,15 @@ struct RtcpPacketTypeCounter {
if (nack_requests == 0) {
return 0;
}
return static_cast<int>(
(unique_nack_requests * 100.0f / nack_requests) + 0.5f);
return static_cast<int>((unique_nack_requests * 100.0f / nack_requests) +
0.5f);
}
int64_t first_packet_time_ms; // Time when first packet is sent/received.
uint32_t nack_packets; // Number of RTCP NACK packets.
uint32_t fir_packets; // Number of RTCP FIR packets.
uint32_t pli_packets; // Number of RTCP PLI packets.
uint32_t nack_requests; // Number of NACKed RTP packets.
int64_t first_packet_time_ms; // Time when first packet is sent/received.
uint32_t nack_packets; // Number of RTCP NACK packets.
uint32_t fir_packets; // Number of RTCP FIR packets.
uint32_t pli_packets; // Number of RTCP PLI packets.
uint32_t nack_requests; // Number of NACKed RTP packets.
uint32_t unique_nack_requests; // Number of unique NACKed RTP packets.
};
@ -254,8 +250,8 @@ class RtcpPacketTypeCounterObserver {
struct BitrateStatistics {
BitrateStatistics() : bitrate_bps(0), packet_rate(0) {}
uint32_t bitrate_bps; // Bitrate in bits per second.
uint32_t packet_rate; // Packet rate in packets per second.
uint32_t bitrate_bps; // Bitrate in bits per second.
uint32_t packet_rate; // Packet rate in packets per second.
};
// Callback, used to notify an observer whenever new rates have been estimated.
@ -319,72 +315,67 @@ struct CodecInst {
bool operator==(const CodecInst& other) const {
return pltype == other.pltype &&
(STR_CASE_CMP(plname, other.plname) == 0) &&
plfreq == other.plfreq &&
pacsize == other.pacsize &&
channels == other.channels &&
rate == other.rate;
plfreq == other.plfreq && pacsize == other.pacsize &&
channels == other.channels && rate == other.rate;
}
bool operator!=(const CodecInst& other) const {
return !(*this == other);
}
bool operator!=(const CodecInst& other) const { return !(*this == other); }
};
// RTP
enum {kRtpCsrcSize = 15}; // RFC 3550 page 13
enum { kRtpCsrcSize = 15 }; // RFC 3550 page 13
enum PayloadFrequencies
{
kFreq8000Hz = 8000,
kFreq16000Hz = 16000,
kFreq32000Hz = 32000
enum PayloadFrequencies {
kFreq8000Hz = 8000,
kFreq16000Hz = 16000,
kFreq32000Hz = 32000
};
enum VadModes // degree of bandwidth reduction
{
kVadConventional = 0, // lowest reduction
kVadAggressiveLow,
kVadAggressiveMid,
kVadAggressiveHigh // highest reduction
// Degree of bandwidth reduction.
enum VadModes {
kVadConventional = 0, // lowest reduction
kVadAggressiveLow,
kVadAggressiveMid,
kVadAggressiveHigh // highest reduction
};
struct NetworkStatistics // NETEQ statistics
{
// current jitter buffer size in ms
uint16_t currentBufferSize;
// preferred (optimal) buffer size in ms
uint16_t preferredBufferSize;
// adding extra delay due to "peaky jitter"
bool jitterPeaksFound;
// Loss rate (network + late); fraction between 0 and 1, scaled to Q14.
uint16_t currentPacketLossRate;
// Late loss rate; fraction between 0 and 1, scaled to Q14.
uint16_t currentDiscardRate;
// fraction (of original stream) of synthesized audio inserted through
// expansion (in Q14)
uint16_t currentExpandRate;
// fraction (of original stream) of synthesized speech inserted through
// expansion (in Q14)
uint16_t currentSpeechExpandRate;
// fraction of synthesized speech inserted through pre-emptive expansion
// (in Q14)
uint16_t currentPreemptiveRate;
// fraction of data removed through acceleration (in Q14)
uint16_t currentAccelerateRate;
// fraction of data coming from secondary decoding (in Q14)
uint16_t currentSecondaryDecodedRate;
// clock-drift in parts-per-million (negative or positive)
int32_t clockDriftPPM;
// average packet waiting time in the jitter buffer (ms)
int meanWaitingTimeMs;
// median packet waiting time in the jitter buffer (ms)
int medianWaitingTimeMs;
// min packet waiting time in the jitter buffer (ms)
int minWaitingTimeMs;
// max packet waiting time in the jitter buffer (ms)
int maxWaitingTimeMs;
// added samples in off mode due to packet loss
size_t addedSamples;
// NETEQ statistics.
struct NetworkStatistics {
// current jitter buffer size in ms
uint16_t currentBufferSize;
// preferred (optimal) buffer size in ms
uint16_t preferredBufferSize;
// adding extra delay due to "peaky jitter"
bool jitterPeaksFound;
// Loss rate (network + late); fraction between 0 and 1, scaled to Q14.
uint16_t currentPacketLossRate;
// Late loss rate; fraction between 0 and 1, scaled to Q14.
uint16_t currentDiscardRate;
// fraction (of original stream) of synthesized audio inserted through
// expansion (in Q14)
uint16_t currentExpandRate;
// fraction (of original stream) of synthesized speech inserted through
// expansion (in Q14)
uint16_t currentSpeechExpandRate;
// fraction of synthesized speech inserted through pre-emptive expansion
// (in Q14)
uint16_t currentPreemptiveRate;
// fraction of data removed through acceleration (in Q14)
uint16_t currentAccelerateRate;
// fraction of data coming from secondary decoding (in Q14)
uint16_t currentSecondaryDecodedRate;
// clock-drift in parts-per-million (negative or positive)
int32_t clockDriftPPM;
// average packet waiting time in the jitter buffer (ms)
int meanWaitingTimeMs;
// median packet waiting time in the jitter buffer (ms)
int medianWaitingTimeMs;
// min packet waiting time in the jitter buffer (ms)
int minWaitingTimeMs;
// max packet waiting time in the jitter buffer (ms)
int maxWaitingTimeMs;
// added samples in off mode due to packet loss
size_t addedSamples;
};
// Statistics for calls to AudioCodingModule::PlayoutData10Ms().
@ -399,83 +390,74 @@ struct AudioDecodingCallStats {
int calls_to_silence_generator; // Number of calls where silence generated,
// and NetEq was disengaged from decoding.
int calls_to_neteq; // Number of calls to NetEq.
int calls_to_neteq; // Number of calls to NetEq.
int decoded_normal; // Number of calls where audio RTP packet decoded.
int decoded_plc; // Number of calls resulted in PLC.
int decoded_plc; // Number of calls resulted in PLC.
int decoded_cng; // Number of calls where comfort noise generated due to DTX.
int decoded_plc_cng; // Number of calls resulted where PLC faded to CNG.
};
enum NsModes // type of Noise Suppression
{
kNsUnchanged = 0, // previously set mode
kNsDefault, // platform default
kNsConference, // conferencing default
kNsLowSuppression, // lowest suppression
kNsModerateSuppression,
kNsHighSuppression,
kNsVeryHighSuppression, // highest suppression
// Type of Noise Suppression.
enum NsModes {
kNsUnchanged = 0, // previously set mode
kNsDefault, // platform default
kNsConference, // conferencing default
kNsLowSuppression, // lowest suppression
kNsModerateSuppression,
kNsHighSuppression,
kNsVeryHighSuppression, // highest suppression
};
enum AgcModes // type of Automatic Gain Control
{
kAgcUnchanged = 0, // previously set mode
kAgcDefault, // platform default
// adaptive mode for use when analog volume control exists (e.g. for
// PC softphone)
kAgcAdaptiveAnalog,
// scaling takes place in the digital domain (e.g. for conference servers
// and embedded devices)
kAgcAdaptiveDigital,
// can be used on embedded devices where the capture signal level
// is predictable
kAgcFixedDigital
// Type of Automatic Gain Control.
enum AgcModes {
kAgcUnchanged = 0, // previously set mode
kAgcDefault, // platform default
// adaptive mode for use when analog volume control exists (e.g. for
// PC softphone)
kAgcAdaptiveAnalog,
// scaling takes place in the digital domain (e.g. for conference servers
// and embedded devices)
kAgcAdaptiveDigital,
// can be used on embedded devices where the capture signal level
// is predictable
kAgcFixedDigital
};
// EC modes
enum EcModes // type of Echo Control
{
kEcUnchanged = 0, // previously set mode
kEcDefault, // platform default
kEcConference, // conferencing default (aggressive AEC)
kEcAec, // Acoustic Echo Cancellation
kEcAecm, // AEC mobile
// Type of Echo Control.
enum EcModes {
kEcUnchanged = 0, // previously set mode
kEcDefault, // platform default
kEcConference, // conferencing default (aggressive AEC)
kEcAec, // Acoustic Echo Cancellation
kEcAecm, // AEC mobile
};
// AECM modes
enum AecmModes // mode of AECM
{
kAecmQuietEarpieceOrHeadset = 0,
// Quiet earpiece or headset use
kAecmEarpiece, // most earpiece use
kAecmLoudEarpiece, // Loud earpiece or quiet speakerphone use
kAecmSpeakerphone, // most speakerphone use (default)
kAecmLoudSpeakerphone // Loud speakerphone
// Mode of AECM.
enum AecmModes {
kAecmQuietEarpieceOrHeadset = 0,
// Quiet earpiece or headset use
kAecmEarpiece, // most earpiece use
kAecmLoudEarpiece, // Loud earpiece or quiet speakerphone use
kAecmSpeakerphone, // most speakerphone use (default)
kAecmLoudSpeakerphone // Loud speakerphone
};
// AGC configuration parameters
struct AgcConfig
{
unsigned short targetLeveldBOv;
unsigned short digitalCompressionGaindB;
bool limiterEnable;
struct AgcConfig {
unsigned short targetLeveldBOv;
unsigned short digitalCompressionGaindB;
bool limiterEnable;
};
enum StereoChannel
{
kStereoLeft = 0,
kStereoRight,
kStereoBoth
};
enum StereoChannel { kStereoLeft = 0, kStereoRight, kStereoBoth };
// Audio device layers
enum AudioLayers
{
kAudioPlatformDefault = 0,
kAudioWindowsWave = 1,
kAudioWindowsCore = 2,
kAudioLinuxAlsa = 3,
kAudioLinuxPulse = 4
enum AudioLayers {
kAudioPlatformDefault = 0,
kAudioWindowsWave = 1,
kAudioWindowsCore = 2,
kAudioLinuxAlsa = 3,
kAudioLinuxPulse = 4
};
// ==================================================================
@ -483,45 +465,39 @@ enum AudioLayers
// ==================================================================
// Raw video types
enum RawVideoType
{
kVideoI420 = 0,
kVideoYV12 = 1,
kVideoYUY2 = 2,
kVideoUYVY = 3,
kVideoIYUV = 4,
kVideoARGB = 5,
kVideoRGB24 = 6,
kVideoRGB565 = 7,
kVideoARGB4444 = 8,
kVideoARGB1555 = 9,
kVideoMJPEG = 10,
kVideoNV12 = 11,
kVideoNV21 = 12,
kVideoBGRA = 13,
kVideoUnknown = 99
enum RawVideoType {
kVideoI420 = 0,
kVideoYV12 = 1,
kVideoYUY2 = 2,
kVideoUYVY = 3,
kVideoIYUV = 4,
kVideoARGB = 5,
kVideoRGB24 = 6,
kVideoRGB565 = 7,
kVideoARGB4444 = 8,
kVideoARGB1555 = 9,
kVideoMJPEG = 10,
kVideoNV12 = 11,
kVideoNV21 = 12,
kVideoBGRA = 13,
kVideoUnknown = 99
};
// Video codec
enum { kConfigParameterSize = 128};
enum { kPayloadNameSize = 32};
enum { kMaxSimulcastStreams = 4};
enum { kConfigParameterSize = 128 };
enum { kPayloadNameSize = 32 };
enum { kMaxSimulcastStreams = 4 };
enum { kMaxSpatialLayers = 5 };
enum { kMaxTemporalStreams = 4};
enum { kMaxTemporalStreams = 4 };
enum VideoCodecComplexity
{
kComplexityNormal = 0,
kComplexityHigh = 1,
kComplexityHigher = 2,
kComplexityMax = 3
enum VideoCodecComplexity {
kComplexityNormal = 0,
kComplexityHigh = 1,
kComplexityHigher = 2,
kComplexityMax = 3
};
enum VideoCodecProfile
{
kProfileBase = 0x00,
kProfileMain = 0x01
};
enum VideoCodecProfile { kProfileBase = 0x00, kProfileMain = 0x01 };
enum VP8ResilienceMode {
kResilienceOff, // The stream produced by the encoder requires a
@ -537,43 +513,43 @@ enum VP8ResilienceMode {
class TemporalLayersFactory;
// VP8 specific
struct VideoCodecVP8 {
bool pictureLossIndicationOn;
bool feedbackModeOn;
bool pictureLossIndicationOn;
bool feedbackModeOn;
VideoCodecComplexity complexity;
VP8ResilienceMode resilience;
unsigned char numberOfTemporalLayers;
bool denoisingOn;
bool errorConcealmentOn;
bool automaticResizeOn;
bool frameDroppingOn;
int keyFrameInterval;
VP8ResilienceMode resilience;
unsigned char numberOfTemporalLayers;
bool denoisingOn;
bool errorConcealmentOn;
bool automaticResizeOn;
bool frameDroppingOn;
int keyFrameInterval;
const TemporalLayersFactory* tl_factory;
};
// VP9 specific.
struct VideoCodecVP9 {
VideoCodecComplexity complexity;
int resilience;
unsigned char numberOfTemporalLayers;
bool denoisingOn;
bool frameDroppingOn;
int keyFrameInterval;
bool adaptiveQpMode;
bool automaticResizeOn;
unsigned char numberOfSpatialLayers;
bool flexibleMode;
int resilience;
unsigned char numberOfTemporalLayers;
bool denoisingOn;
bool frameDroppingOn;
int keyFrameInterval;
bool adaptiveQpMode;
bool automaticResizeOn;
unsigned char numberOfSpatialLayers;
bool flexibleMode;
};
// H264 specific.
struct VideoCodecH264 {
VideoCodecProfile profile;
bool frameDroppingOn;
int keyFrameInterval;
bool frameDroppingOn;
int keyFrameInterval;
// These are NULL/0 if not externally negotiated.
const uint8_t* spsData;
size_t spsLen;
size_t spsLen;
const uint8_t* ppsData;
size_t ppsLen;
size_t ppsLen;
};
// Video codec types
@ -589,22 +565,21 @@ enum VideoCodecType {
};
union VideoCodecUnion {
VideoCodecVP8 VP8;
VideoCodecVP9 VP9;
VideoCodecH264 H264;
VideoCodecVP8 VP8;
VideoCodecVP9 VP9;
VideoCodecH264 H264;
};
// Simulcast is when the same stream is encoded multiple times with different
// settings such as resolution.
struct SimulcastStream {
unsigned short width;
unsigned short height;
unsigned char numberOfTemporalLayers;
unsigned int maxBitrate; // kilobits/sec.
unsigned int targetBitrate; // kilobits/sec.
unsigned int minBitrate; // kilobits/sec.
unsigned int qpMax; // minimum quality
unsigned short width;
unsigned short height;
unsigned char numberOfTemporalLayers;
unsigned int maxBitrate; // kilobits/sec.
unsigned int targetBitrate; // kilobits/sec.
unsigned int minBitrate; // kilobits/sec.
unsigned int qpMax; // minimum quality
};
struct SpatialLayer {
@ -614,36 +589,33 @@ struct SpatialLayer {
// TODO(ivica): Add max_quantizer and min_quantizer?
};
enum VideoCodecMode {
kRealtimeVideo,
kScreensharing
};
enum VideoCodecMode { kRealtimeVideo, kScreensharing };
// Common video codec properties
struct VideoCodec {
VideoCodecType codecType;
char plName[kPayloadNameSize];
unsigned char plType;
VideoCodecType codecType;
char plName[kPayloadNameSize];
unsigned char plType;
unsigned short width;
unsigned short height;
unsigned short width;
unsigned short height;
unsigned int startBitrate; // kilobits/sec.
unsigned int maxBitrate; // kilobits/sec.
unsigned int minBitrate; // kilobits/sec.
unsigned int targetBitrate; // kilobits/sec.
unsigned int startBitrate; // kilobits/sec.
unsigned int maxBitrate; // kilobits/sec.
unsigned int minBitrate; // kilobits/sec.
unsigned int targetBitrate; // kilobits/sec.
unsigned char maxFramerate;
unsigned char maxFramerate;
VideoCodecUnion codecSpecific;
VideoCodecUnion codecSpecific;
unsigned int qpMax;
unsigned char numberOfSimulcastStreams;
SimulcastStream simulcastStream[kMaxSimulcastStreams];
unsigned int qpMax;
unsigned char numberOfSimulcastStreams;
SimulcastStream simulcastStream[kMaxSimulcastStreams];
SpatialLayer spatialLayers[kMaxSpatialLayers];
VideoCodecMode mode;
bool expect_encode_from_texture;
VideoCodecMode mode;
bool expect_encode_from_texture;
bool operator==(const VideoCodec& other) const = delete;
bool operator!=(const VideoCodec& other) const = delete;
@ -654,7 +626,7 @@ struct VideoCodec {
// See modules/remote_bitrate_estimator/overuse_detector.h
struct OverUseDetectorOptions {
OverUseDetectorOptions()
: initial_slope(8.0/512.0),
: initial_slope(8.0 / 512.0),
initial_offset(0),
initial_e(),
initial_process_noise(),
@ -679,8 +651,7 @@ struct OverUseDetectorOptions {
struct PacketTime {
PacketTime() : timestamp(-1), not_before(-1) {}
PacketTime(int64_t timestamp, int64_t not_before)
: timestamp(timestamp), not_before(not_before) {
}
: timestamp(timestamp), not_before(not_before) {}
int64_t timestamp; // Receive time after socket delivers the data.
int64_t not_before; // Earliest possible time the data could have arrived,
@ -751,10 +722,7 @@ struct RTPHeader {
struct RtpPacketCounter {
RtpPacketCounter()
: header_bytes(0),
payload_bytes(0),
padding_bytes(0),
packets(0) {}
: header_bytes(0), payload_bytes(0), padding_bytes(0), packets(0) {}
void Add(const RtpPacketCounter& other) {
header_bytes += other.header_bytes;
@ -801,8 +769,8 @@ struct StreamDataCounters {
retransmitted.Add(other.retransmitted);
fec.Add(other.fec);
if (other.first_packet_time_ms != -1 &&
(other.first_packet_time_ms < first_packet_time_ms ||
first_packet_time_ms == -1)) {
(other.first_packet_time_ms < first_packet_time_ms ||
first_packet_time_ms == -1)) {
// Use oldest time.
first_packet_time_ms = other.first_packet_time_ms;
}
@ -832,10 +800,10 @@ struct StreamDataCounters {
fec.payload_bytes;
}
int64_t first_packet_time_ms; // Time when first packet is sent/received.
RtpPacketCounter transmitted; // Number of transmitted packets/bytes.
int64_t first_packet_time_ms; // Time when first packet is sent/received.
RtpPacketCounter transmitted; // Number of transmitted packets/bytes.
RtpPacketCounter retransmitted; // Number of retransmitted packets/bytes.
RtpPacketCounter fec; // Number of redundancy packets/bytes.
RtpPacketCounter fec; // Number of redundancy packets/bytes.
};
// Callback, called whenever byte/packet counts have been updated.