// MT safe
int sio_readexpect(std::string &msg, const char * prefix, int * preflen, int timeout) {
std::deque<std::string> rejected;
// true timeout
int64 stoptime = time64() + timeout*1000;
int rv;
while (stoptime > time64()) {
int delta = (int)( (stoptime - time64()) / 1000 );
rv=sio_read(msg, (delta>0)?delta:0);
if (rv <= 0) break; // error or timeout
rv = sio_matchpref(msg.c_str(), prefix, preflen);
if (rv > 0) break; // found it
rejected.push_back(msg);
//printf("rejected: [%s] (%d)\n", msg.c_str(), rejected.size());
};
// push back the unanswered messages...
std::string tmp;
while (!rejected.empty()) {
tmp = rejected.back();
rejected.pop_back();
postponed.push_front(tmp);
//printf("postponed: [%s] (%d)\n", tmp.c_str(), postponed.size());
};
//printf("MESSAGE [%s] is number %d in list of\n%s\n", msg.c_str(), rv, prefix);
return rv;
};
M3_DLL_EXPORT
m3_time_t
__cdecl
Utime__time(m3_time_t* tloc)
{
#ifdef _TIME64_T
time64_t b = tloc ? (time64_t)*tloc : 0;
time64_t a = time64(tloc ? &b : 0);
#else
time_t b = tloc ? (time_t)*tloc : 0;
time_t a = time(tloc ? &b : 0);
#endif
if (tloc) *tloc = b;
return a;
}
/**
* @brief
*
* @return
*/
int H264Encoder::run()
{
// TODO - This section needs to be rewritten to read the configuration from the values saved
// for the streams via the web gui
AVDictionary *opts = NULL;
//avSetH264Preset( &opts, "default" );
//avSetH264Profile( &opts, "main" );
//avDictSet( &opts, "level", "4.1" );
avSetH264Preset( &opts, "ultrafast" );
//avSetH264Profile( &opts, "baseline" );
avDictSet( &opts, "level", "31" );
avDictSet( &opts, "g", "24" );
//avDictSet( &opts, "b", (int)mBitRate );
//avDictSet( &opts, "bitrate", (int)mBitRate );
//avDictSet( &opts, "crf", "24" );
//avDictSet( &opts, "framerate", (double)mFrameRate );
//avDictSet( &opts, "fps", (double)mFrameRate );
//avDictSet( &opts, "r", (double)mFrameRate );
//avDictSet( &opts, "timebase", "1/90000" );
avDumpDict( opts );
// Make sure ffmpeg is compiled with libx264 support
AVCodec *codec = avcodec_find_encoder( CODEC_ID_H264 );
if ( !codec )
Fatal( "Can't find encoder codec" );
mCodecContext = avcodec_alloc_context3( codec );
mCodecContext->width = mWidth;
mCodecContext->height = mHeight;
//mCodecContext->time_base = TimeBase( 1, 90000 );
mCodecContext->time_base = mFrameRate.timeBase();
mCodecContext->bit_rate = mBitRate;
mCodecContext->pix_fmt = mPixelFormat;
mCodecContext->gop_size = 24;
//mCodecContext->max_b_frames = 1;
Debug( 2, "Time base = %d/%d", mCodecContext->time_base.num, mCodecContext->time_base.den );
Debug( 2, "Pix fmt = %d", mCodecContext->pix_fmt );
/* open it */
if ( avcodec_open2( mCodecContext, codec, &opts ) < 0 )
Fatal( "Unable to open encoder codec" );
avDumpDict( opts );
AVFrame *inputFrame = avcodec_alloc_frame();
Info( "%s:Waiting", cidentity() );
if ( waitForProviders() )
{
Info( "%s:Waited", cidentity() );
// Find the source codec context
uint16_t inputWidth = videoProvider()->width();
uint16_t inputHeight = videoProvider()->height();
PixelFormat inputPixelFormat = videoProvider()->pixelFormat();
//FrameRate inputFrameRate = videoProvider()->frameRate();
//Info( "CONVERT: %d-%dx%d -> %d-%dx%d",
//inputPixelFormat, inputWidth, inputHeight,
//mPixelFormat, mWidth, mHeight
//);
// Make space for anything that is going to be output
AVFrame *outputFrame = avcodec_alloc_frame();
ByteBuffer outputBuffer;
outputBuffer.size( avpicture_get_size( mCodecContext->pix_fmt, mCodecContext->width, mCodecContext->height ) );
avpicture_fill( (AVPicture *)outputFrame, outputBuffer.data(), mCodecContext->pix_fmt, mCodecContext->width, mCodecContext->height );
// Prepare for image format and size conversions
struct SwsContext *convertContext = sws_getContext( inputWidth, inputHeight, inputPixelFormat, mCodecContext->width, mCodecContext->height, mCodecContext->pix_fmt, SWS_BICUBIC, NULL, NULL, NULL );
if ( !convertContext )
Fatal( "Unable to create conversion context for encoder" );
int outSize = 0;
uint64_t timeInterval = mFrameRate.intervalUsec();
uint64_t currTime = time64();
uint64_t nextTime = currTime;
//outputFrame->pts = currTime;
outputFrame->pts = 0;
uint32_t ptsInterval = 90000/mFrameRate.toInt();
//uint32_t ptsInterval = mFrameRate.intervalPTS( mCodecContext->time_base );
while ( !mStop )
{
// Synchronise the output with the desired output frame rate
while ( currTime < nextTime )
{
currTime = time64();
usleep( 1000 );
}
nextTime += timeInterval;
FramePtr framePtr;
mQueueMutex.lock();
if ( !mFrameQueue.empty() )
{
if ( mInitialFrame.empty() || !mConsumers.empty() )
{
FrameQueue::iterator iter = mFrameQueue.begin();
framePtr = *iter;
}
mFrameQueue.clear();
}
mQueueMutex.unlock();
if ( framePtr.get() )
{
const FeedFrame *frame = framePtr.get();
const VideoFrame *inputVideoFrame = dynamic_cast<const VideoFrame *>(frame);
//Info( "Provider: %s, Source: %s, Frame: %d", inputVideoFrame->provider()->cidentity(), inputVideoFrame->originator()->cidentity(), inputVideoFrame->id() );
//Info( "PF:%d @ %dx%d", inputVideoFrame->pixelFormat(), inputVideoFrame->width(), inputVideoFrame->height() );
avpicture_fill( (AVPicture *)inputFrame, inputVideoFrame->buffer().data(), inputPixelFormat, inputWidth, inputHeight );
//outputFrame->pts = currTime;
//Debug( 5, "PTS %jd", outputFrame->pts );
// Reformat the input frame to fit the desired output format
//Info( "SCALE: %d -> %d", int(inputFrame->data[0])%16, int(outputFrame->data[0])%16 );
if ( sws_scale( convertContext, inputFrame->data, inputFrame->linesize, 0, inputHeight, outputFrame->data, outputFrame->linesize ) < 0 )
Fatal( "Unable to convert input frame (%d@%dx%d) to output frame (%d@%dx%d) at frame %ju", inputPixelFormat, inputWidth, inputHeight, mCodecContext->pix_fmt, mCodecContext->width, mCodecContext->height, mFrameCount );
// Encode the image
outSize = avcodec_encode_video( mCodecContext, outputBuffer.data(), outputBuffer.capacity(), outputFrame );
Debug( 5, "Encoding reports %d bytes", outSize );
if ( outSize > 0 )
{
//Info( "CPTS: %jd", mCodecContext->coded_frame->pts );
outputBuffer.size( outSize );
//Debug( 5, "PTS2 %jd", mCodecContext->coded_frame->pts );
if ( mInitialFrame.empty() )
{
Debug( 3, "Looking for H.264 stream info" );
const uint8_t *startPos = outputBuffer.head();
startPos = h264StartCode( startPos, outputBuffer.tail() );
while ( startPos < outputBuffer.tail() )
{
while( !*(startPos++) )
;
const uint8_t *nextStartPos = h264StartCode( startPos, outputBuffer.tail() );
int frameSize = nextStartPos-startPos;
unsigned char type = startPos[0] & 0x1F;
unsigned char nri = startPos[0] & 0x60;
Debug( 1, "Type %d, NRI %d (%02x)", type, nri>>5, startPos[0] );
if ( type == NAL_SEI )
{
// SEI
mSei.assign( startPos, frameSize );
}
else if ( type == NAL_SPS )
{
// SPS
Hexdump( 2, startPos, frameSize );
mSps.assign( startPos, frameSize );
if ( frameSize < 4 )
Panic( "H.264 NAL type 7 frame too short (%d bytes) to extract level/profile", frameSize );
mAvcLevel = startPos[3];
mAvcProfile = startPos[1];
Debug( 2, "Got AVC level %d, profile %d", mAvcLevel, mAvcProfile );
}
else if ( type == NAL_PPS )
{
// PPS
Hexdump( 2, startPos, frameSize );
mPps.assign( startPos, frameSize );
}
startPos = nextStartPos;
}
mInitialFrame = outputBuffer;
//VideoFrame *outputVideoFrame = new VideoFrame( this, ++mFrameCount, mCodecContext->coded_frame->pts, mInitialFrame );
}
else
{
//av_rescale_q(cocontext->coded_frame->pts, cocontext->time_base, videostm->time_base);
VideoFrame *outputVideoFrame = new VideoFrame( this, ++mFrameCount, mCodecContext->coded_frame->pts, outputBuffer );
distributeFrame( FramePtr( outputVideoFrame ) );
}
}
outputFrame->pts += ptsInterval; ///< FIXME - This can't be right, but it works...
}
uint64 time64wrap() throw(tcat::exception::base)
{
return time64();
}
/**
* @brief
*
* @return
*/
int Mp4FileOutput::run()
{
//const int MAX_EVENT_HEAD_AGE = 2; ///< Number of seconds of video before event to save
const int MAX_EVENT_TAIL_AGE = 3; ///< Number of seconds of video after event to save
typedef enum { IDLE, PREALARM, ALARM, ALERT } AlarmState;
if ( waitForProviders() )
{
/* auto detect the output format from the name. default is mpeg. */
AVOutputFormat *outputFormat = av_guess_format( mExtension.c_str(), NULL, NULL );
if ( !outputFormat )
Fatal( "Could not deduce output format from '%s'", mExtension.c_str() );
//AVFormatContext *outputContext = openFile( outputFormat );
AVFormatContext *outputContext = NULL;
double videoTimeOffset = 0.0L;
uint64_t videoFrameCount = 0;
AlarmState alarmState = IDLE;
uint64_t alarmTime = 0;
int eventCount = 0;
while( !mStop )
{
while( !mStop )
{
mQueueMutex.lock();
if ( !mFrameQueue.empty() )
{
for ( FrameQueue::iterator iter = mFrameQueue.begin(); iter != mFrameQueue.end(); iter++ )
{
const FeedFrame *frame = iter->get();
Debug( 3, "Frame type %d", frame->mediaType() );
if ( frame->mediaType() == FeedFrame::FRAME_TYPE_VIDEO )
{
// This is an alarm detection frame
const MotionFrame *motionFrame = dynamic_cast<const MotionFrame *>(frame);
//const VideoProvider *provider = dynamic_cast<const VideoProvider *>(frame->provider());
AlarmState lastAlarmState = alarmState;
uint64_t now = time64();
Debug( 3, "Motion frame, alarmed %d", motionFrame->alarmed() );
if ( motionFrame->alarmed() )
{
alarmState = ALARM;
alarmTime = now;
if ( lastAlarmState == IDLE )
{
// Create new event
eventCount++;
std::string path = stringtf( "%s/img-%s-%d-%ju.jpg", mLocation.c_str(), mName.c_str(), eventCount, motionFrame->id() );
//Info( "PF:%d @ %dx%d", motionFrame->pixelFormat(), motionFrame->width(), motionFrame->height() );
Image image( motionFrame->pixelFormat(), motionFrame->width(), motionFrame->height(), motionFrame->buffer().data() );
image.writeJpeg( path.c_str() );
}
}
else if ( lastAlarmState == ALARM )
{
alarmState = ALERT;
}
else if ( lastAlarmState == ALERT )
{
Debug( 3, "Frame age %.2lf", frame->age( alarmTime ) );
if ( (0.0l-frame->age( alarmTime )) > MAX_EVENT_TAIL_AGE )
alarmState = IDLE;
}
else
{
alarmState = IDLE;
}
Debug( 3, "Alarm state %d (%d)", alarmState, lastAlarmState );
}
else
{
bool keyFrame = false;
const uint8_t *startPos = h264StartCode( frame->buffer().head(), frame->buffer().tail() );
while ( startPos < frame->buffer().tail() )
{
while( !*(startPos++) )
;
const uint8_t *nextStartPos = h264StartCode( startPos, frame->buffer().tail() );
int frameSize = nextStartPos-startPos;
unsigned char type = startPos[0] & 0x1F;
unsigned char nri = startPos[0] & 0x60;
Debug( 3, "Frame Type %d, NRI %d (%02x), %d bytes, ts %jd", type, nri>>5, startPos[0], frameSize, frame->timestamp() );
if ( type == NAL_IDR_SLICE )
keyFrame = true;
startPos = nextStartPos;
}
videoTimeOffset += (double)mVideoParms.frameRate().num / mVideoParms.frameRate().den;
if ( keyFrame )
{
// We can do file opening/closing now
if ( alarmState != IDLE && !outputContext )
{
outputContext = openFile( outputFormat );
videoTimeOffset = 0.0L;
videoFrameCount = 0;
}
else if ( alarmState == IDLE && outputContext )
{
closeFile( outputContext );
outputContext = NULL;
}
}
/*if ( keyFrame && (videoTimeOffset >= mMaxLength) )
{
closeFile( outputContext );
outputContext = openFile( outputFormat );
videoTimeOffset = 0.0L;
videoFrameCount = 0;
}*/
if ( outputContext )
{
AVStream *videoStream = outputContext->streams[0];
AVCodecContext *videoCodecContext = videoStream->codec;
AVPacket packet;
av_init_packet(&packet);
packet.flags |= keyFrame ? AV_PKT_FLAG_KEY : 0;
packet.stream_index = videoStream->index;
packet.data = (uint8_t*)frame->buffer().data();
packet.size = frame->buffer().size();
//packet.pts = packet.dts = AV_NOPTS_VALUE;
packet.pts = packet.dts = (videoFrameCount * mVideoParms.frameRate().num * videoCodecContext->time_base.den) / (mVideoParms.frameRate().den * videoCodecContext->time_base.num);
Info( "vfc: %ju, vto: %.2lf, kf: %d, pts: %jd", videoFrameCount, videoTimeOffset, keyFrame, packet.pts );
int result = av_interleaved_write_frame(outputContext, &packet);
if ( result != 0 )
Fatal( "Error while writing video frame: %d", result );
}
videoFrameCount++;
}
}
mFrameQueue.clear();
}
mQueueMutex.unlock();
checkProviders();
usleep( INTERFRAME_TIMEOUT );
}
}
if ( outputContext )
closeFile( outputContext );
}
cleanup();
return 0;
}
/**
* @brief
*
* @param request
*
* @return
*/
bool RtspConnection::handleRequest( const std::string &request )
{
Debug( 2, "Handling RTSP request: %s (%zd bytes)", request.c_str(), request.size() );
StringTokenList lines( request, "\r\n" );
if ( lines.size() <= 0 )
{
Error( "Unable to split request '%s' into tokens", request.c_str() );
return( false );
}
StringTokenList parts( lines[0], " " );
if ( parts.size() != 3 )
{
Error( "Unable to split request part '%s' into tokens", lines[0].c_str() );
return( false );
}
std::string requestType = parts[0];
Debug( 4, "Got request '%s'", requestType.c_str() );
std::string requestUrl = parts[1];
Debug( 4, "Got requestUrl '%s'", requestUrl.c_str() );
std::string requestVer = parts[2];
Debug( 4, "Got requestVer '%s'", requestVer.c_str() );
if ( requestVer != "RTSP/1.0" )
{
Error( "Unexpected RTSP version '%s'", requestVer.c_str() );
return( false );
}
// Extract headers from request
Headers requestHeaders;
for ( int i = 1; i < lines.size(); i++ )
{
StringTokenList parts( lines[i], ": " );
if ( parts.size() != 2 )
{
Error( "Unable to split request header '%s' into tokens", lines[i].c_str() );
return( false );
}
Debug( 4, "Got header '%s', value '%s'", parts[0].c_str(), parts[1].c_str() );
requestHeaders.insert( Headers::value_type( parts[0], parts[1] ) );
}
if ( requestHeaders.find("CSeq") == requestHeaders.end() )
{
Error( "No CSeq header found" );
return( false );
}
Debug( 4, "Got sequence number %s", requestHeaders["CSeq"].c_str() );
uint32_t session = 0;
if ( requestHeaders.find("Session") != requestHeaders.end() )
{
Debug( 4, "Got session header, '%s', passing to session", requestHeaders["Session"].c_str() );
session = strtol( requestHeaders["Session"].c_str(), NULL, 16 );
}
Headers responseHeaders;
responseHeaders.insert( Headers::value_type( "CSeq", requestHeaders["CSeq"] ) );
if ( requestType == "OPTIONS" )
{
responseHeaders.insert( Headers::value_type( "Public", "DESCRIBE, SETUP, PLAY, GET_PARAMETER, TEARDOWN" ) );
return( sendResponse( responseHeaders ) );
}
else if ( requestType == "DESCRIBE" )
{
FeedProvider *provider = validateRequestUrl( requestUrl );
if ( !provider )
{
sendResponse( responseHeaders, "", 404, "Not Found" );
return( false );
}
const VideoProvider *videoProvider = dynamic_cast<const VideoProvider *>(provider);
int codec = AV_CODEC_ID_MPEG4;
int width = videoProvider->width();
int height = videoProvider->height();
FrameRate frameRate = 15;
//FrameRate frameRate = videoProvider->frameRate();
int bitRate = 90000;
int quality = 70;
std::string sdpFormatString =
"v=0\r\n"
"o=- %jd %jd IN IP4 %s\r\n"
"s=ZoneMinder Stream\r\n"
"i=Media Streamers\r\n"
"c=IN IP4 0.0.0.0\r\n"
"t=0 0\r\n"
"a=control:*\r\n"
"a=range:npt=0.000000-\r\n";
uint64_t now64 = time64();
char hostname[HOST_NAME_MAX] = "";
if ( gethostname( hostname, sizeof(hostname) ) < 0 )
Fatal( "Can't gethostname: %s", strerror(errno) );
std::string sdpString = stringtf( sdpFormatString, now64, now64, hostname );
if ( codec == AV_CODEC_ID_H264 )
{
if ( provider->cl4ss() == "RawH264Input" )
{
std::string encoderKey = H264Relay::getPoolKey( provider->identity(), width, height, frameRate, bitRate, quality );
if ( !(mEncoder = Encoder::getPooledEncoder( encoderKey )) )
{
H264Relay *h264Relay = NULL;
mEncoder = h264Relay = new H264Relay( provider->identity(), width, height, frameRate, bitRate, quality );
mEncoder->registerProvider( *provider );
Encoder::poolEncoder( mEncoder );
h264Relay->start();
}
sdpString += mEncoder->sdpString( 1 ); // XXX - Should be variable
responseHeaders.insert( Headers::value_type( "Content-length", stringtf( "%zd", sdpString.length() ) ) );
}
else
{
std::string encoderKey = H264Encoder::getPoolKey( provider->identity(), width, height, frameRate, bitRate, quality );
if ( !(mEncoder = Encoder::getPooledEncoder( encoderKey )) )
{
H264Encoder *h264Encoder = NULL;
mEncoder = h264Encoder = new H264Encoder( provider->identity(), width, height, frameRate, bitRate, quality );
mEncoder->registerProvider( *provider );
Encoder::poolEncoder( mEncoder );
h264Encoder->start();
}
sdpString += mEncoder->sdpString( 1 ); // XXX - Should be variable
responseHeaders.insert( Headers::value_type( "Content-length", stringtf( "%zd", sdpString.length() ) ) );
}
}
else if ( codec == AV_CODEC_ID_MPEG4 )
{
std::string encoderKey = MpegEncoder::getPoolKey( provider->identity(), width, height, frameRate, bitRate, quality );
if ( !(mEncoder = Encoder::getPooledEncoder( encoderKey )) )
{
MpegEncoder *mpegEncoder = NULL;
mEncoder = mpegEncoder = new MpegEncoder( provider->identity(), width, height, frameRate, bitRate, quality );
mEncoder->registerProvider( *provider );
Encoder::poolEncoder( mEncoder );
mpegEncoder->start();
}
sdpString += mEncoder->sdpString( 1 ); // XXX - Should be variable
responseHeaders.insert( Headers::value_type( "Content-length", stringtf( "%zd", sdpString.length() ) ) );
}
return( sendResponse( responseHeaders, sdpString ) );
}
else if ( requestType == "SETUP" )
{
// These commands are handled by RTSP session so pass them on and send any required responses
RtspSession *rtspSession = 0;
if ( session )
{
rtspSession = mRtspController->getSession( session );
}
else
{
rtspSession = mRtspController->newSession( this, mEncoder );
}
if ( rtspSession->recvRequest( requestType, requestUrl, requestHeaders, responseHeaders ) )
return( sendResponse( responseHeaders ) );
return( false );
}
else if ( requestType == "PLAY" || requestType == "GET_PARAMETER" || requestType == "TEARDOWN" )
{
// These commands are handled by RTSP session so pass them on and send any required responses
RtspSession *rtspSession = 0;
if ( session )
{
rtspSession = mRtspController->getSession( session );
if ( rtspSession && rtspSession->recvRequest( requestType, requestUrl, requestHeaders, responseHeaders ) )
return( sendResponse( responseHeaders ) );
}
return( sendResponse( responseHeaders, "", 454, "Session Not Found" ) );
}
Error( "Unrecognised RTSP command '%s'", requestType.c_str() );
return( sendResponse( responseHeaders, "", 405, "Method not implemented" ) );
}
int sio_read(std::string &result, int timeout, int pollfd) {
int once = 1;
GLOB_LOCK();
if (!postponed.empty()) {
result = postponed.front();
postponed.pop_front();
//printf("accepted: [%s] (%d)\n", result.c_str(), postponed.size());
GLOB_UNLOCK();
return result.length();
};
if (inside_read) {
GLOB_UNLOCK();
sio_write(SIO_ERROR, "recursive sio_read");
return -1;
};
int64 stoptime = time64() + timeout*1000;
while (once || (stoptime > time64())) {
once = 0;
int eol_pos = readbuf.find(eol_char);
if (eol_pos != std::string::npos) {
result = readbuf.substr(0, eol_pos);
readbuf = readbuf.substr(eol_pos+1);
if (sio_commdump & 2) {
printf("READ\t%s\n", result.c_str());
};
GLOB_UNLOCK();
int rv = _sio_handlemsg(result); // might call other functs
if (rv == 0) {
GLOB_LOCK();
continue;
};
if (rv < 0) return rv;
return result.length();
};
inside_read = 1;
GLOB_UNLOCK();
// wait for some more data...
fd_set fdr; struct timeval tv;
int delta = (int)( (stoptime - time64()) / 1000 );
if (delta < 0) delta = 0;
tv.tv_sec = delta/1000; tv.tv_usec = (delta%1000)*1000;
FD_ZERO(&fdr); FD_SET(ser_fd_read, &fdr);
if (pollfd!=-1) FD_SET(pollfd, &fdr);
int rv = select(max(ser_fd_read, pollfd)+1, &fdr, 0, 0, (timeout>=0)?&tv:0);
if ( (rv<0) && (errno != EINTR) ) {
inside_read = 0;
return -1; // error
};
if (pollfd != -1) if (FD_ISSET(pollfd, &fdr)) {
inside_read = 0;
return -3; // pollfd is select'ed
};
GLOB_LOCK();
inside_read = 0;
char bf[257];
rv = read(ser_fd_read, bf, sizeof(bf)-1);
if ( (rv<=0) && (errno!=EINTR) && (errno != EAGAIN)) {
GLOB_UNLOCK();
return -1; // error or timeout
};
if (rv<0) continue;
if (rv==0) {
GLOB_UNLOCK();
return -1; // EOF from server
};
bf[rv]=0;
//printf("\n\nREAD[[[%s]]]\n", bf);
readbuf = readbuf + bf;
};
GLOB_UNLOCK();
return 0; // timeout
};
