void inputFLV::getNext(bool smart) {
static JSON::Value thisPack;
static AMF::Object amf_storage;
thisPack.null();
long long int lastBytePos = ftell(inFile);
FLV::Tag tmpTag;
while (!feof(inFile) && !FLV::Parse_Error){
if (tmpTag.FileLoader(inFile)){
thisPack = tmpTag.toJSON(myMeta, amf_storage);
thisPack["bpos"] = lastBytePos;
if ( !selectedTracks.count(thisPack["trackid"].asInt())){
getNext();
}
break;
}
}
if (FLV::Parse_Error){
FAIL_MSG("FLV error: %s", FLV::Error_Str.c_str());
thisPack.null();
thisPacket.null();
return;
}
std::string tmpStr = thisPack.toNetPacked();
thisPacket.reInit(tmpStr.data(), tmpStr.size());
}
bool inputFLV::readHeader() {
JSON::Value lastPack;
if (!inFile) {
return false;
}
//See whether a separate header file exists.
DTSC::File tmp(config->getString("input") + ".dtsh");
if (tmp){
myMeta = tmp.getMeta();
return true;
}
//Create header file from FLV data
fseek(inFile, 13, SEEK_SET);
FLV::Tag tmpTag;
long long int lastBytePos = 13;
while (!feof(inFile) && !FLV::Parse_Error){
if (tmpTag.FileLoader(inFile)){
lastPack.null();
lastPack = tmpTag.toJSON(myMeta);
lastPack["bpos"] = lastBytePos;
myMeta.update(lastPack);
lastBytePos = ftell(inFile);
}
}
if (FLV::Parse_Error){
std::cerr << FLV::Error_Str << std::endl;
return false;
}
std::ofstream oFile(std::string(config->getString("input") + ".dtsh").c_str());
oFile << myMeta.toJSON().toNetPacked();
oFile.close();
return true;
}
void OutProgressiveFLV::sendNext(){
FLV::Tag tag;
bool tmp = tag.DTSCLoader(currentPacket, myMeta.tracks[currentPacket.getTrackId()]);
if (!tmp){
DEBUG_MSG(DLVL_DEVEL, "Invalid JSON");
}
myConn.SendNow(tag.data, tag.len);
}
void OutProgressiveFLV::sendHeader(){
HTTP::Parser HTTP_S;
FLV::Tag tag;
HTTP_S.SetHeader("Content-Type", "video/x-flv");
HTTP_S.protocol = "HTTP/1.0";
myConn.SendNow(HTTP_S.BuildResponse("200", "OK"));
myConn.SendNow(FLV::Header, 13);
tag.DTSCMetaInit(myMeta, selectedTracks);
myConn.SendNow(tag.data, tag.len);
for (std::set<long unsigned int>::iterator it = selectedTracks.begin(); it != selectedTracks.end(); it++){
if (myMeta.tracks[*it].type == "video"){
tag.DTSCVideoInit(myMeta.tracks[*it]);
myConn.SendNow(tag.data, tag.len);
}
if (myMeta.tracks[*it].type == "audio"){
tag.DTSCAudioInit(myMeta.tracks[*it]);
myConn.SendNow(tag.data, tag.len);
}
}
sentHeader = true;
}
void inputFLV::getNext(bool smart) {
static JSON::Value thisPack;
thisPack.null();
long long int lastBytePos = ftell(inFile);
FLV::Tag tmpTag;
while (!feof(inFile) && !FLV::Parse_Error){
if (tmpTag.FileLoader(inFile)){
thisPack = tmpTag.toJSON(myMeta);
thisPack["bpos"] = lastBytePos;
if ( !selectedTracks.count(thisPack["trackid"].asInt())){
getNext();
}
break;
}
}
if (FLV::Parse_Error){
std::cerr << FLV::Error_Str << std::endl;
thisPack.null();
lastPack.null();
return;
}
std::string tmpStr = thisPack.toNetPacked();
lastPack.reInit(tmpStr.data(), tmpStr.size());
}
///\brief Debugging tool for RTMP data.
///
///Expects RTMP data of one side of the conversation through stdin, outputs human-readable information to stderr.
///
///Will output FLV file to stdout, if available.
///
///Automatically skips the handshake data.
///\param conf The configuration parsed from the commandline.
///\return The return code of the analyser.
int analyseRTMP(Util::Config conf){
int Detail = conf.getInteger("detail");
if (Detail > 0){
fprintf(stderr, "Detail level set:\n");
if (Detail & DETAIL_RECONSTRUCT){
fprintf(stderr, " - Will reconstuct FLV file to stdout\n");
std::cout.write(FLV::Header, 13);
}
if (Detail & DETAIL_EXPLICIT){
fprintf(stderr, " - Will list explicit video/audio data information\n");
}
if (Detail & DETAIL_VERBOSE){
fprintf(stderr, " - Will list verbose chunk information\n");
}
}
std::string inbuffer;
inbuffer.reserve(3073);
while (std::cin.good() && inbuffer.size() < 3073){
inbuffer += std::cin.get();
} //read all of std::cin to temp
inbuffer.erase(0, 3073); //strip the handshake part
RTMPStream::Chunk next;
FLV::Tag F; //FLV holder
AMF::Object amfdata("empty", AMF::AMF0_DDV_CONTAINER);
AMF::Object3 amf3data("empty", AMF::AMF3_DDV_CONTAINER);
while (std::cin.good() || inbuffer.size()){
if (next.Parse(inbuffer)){
if (Detail & DETAIL_VERBOSE){
fprintf(stderr, "Chunk info: [%#2X] CS ID %u, timestamp %u, len %u, type ID %u, Stream ID %u\n", next.headertype, next.cs_id, next.timestamp,
next.len, next.msg_type_id, next.msg_stream_id);
}
switch (next.msg_type_id){
case 0: //does not exist
fprintf(stderr, "Error chunk - %i, %i, %i, %i, %i\n", next.cs_id, next.timestamp, next.real_len, next.len_left, next.msg_stream_id);
//return 0;
break; //happens when connection breaks unexpectedly
case 1: //set chunk size
RTMPStream::chunk_rec_max = ntohl(*(int*)next.data.c_str());
fprintf(stderr, "CTRL: Set chunk size: %i\n", RTMPStream::chunk_rec_max);
break;
case 2: //abort message - we ignore this one
fprintf(stderr, "CTRL: Abort message: %i\n", ntohl(*(int*)next.data.c_str()));
//4 bytes of stream id to drop
break;
case 3: //ack
RTMPStream::snd_window_at = ntohl(*(int*)next.data.c_str());
fprintf(stderr, "CTRL: Acknowledgement: %i\n", RTMPStream::snd_window_at);
break;
case 4: {
short int ucmtype = ntohs(*(short int*)next.data.c_str());
switch (ucmtype){
case 0:
fprintf(stderr, "CTRL: User control message: stream begin %u\n", ntohl(*(unsigned int*)(next.data.c_str()+2)));
break;
case 1:
fprintf(stderr, "CTRL: User control message: stream EOF %u\n", ntohl(*(unsigned int*)(next.data.c_str()+2)));
break;
case 2:
fprintf(stderr, "CTRL: User control message: stream dry %u\n", ntohl(*(unsigned int*)(next.data.c_str()+2)));
break;
case 3:
fprintf(stderr, "CTRL: User control message: setbufferlen %u\n", ntohl(*(unsigned int*)(next.data.c_str()+2)));
break;
case 4:
fprintf(stderr, "CTRL: User control message: streamisrecorded %u\n", ntohl(*(unsigned int*)(next.data.c_str()+2)));
break;
case 6:
fprintf(stderr, "CTRL: User control message: pingrequest %u\n", ntohl(*(unsigned int*)(next.data.c_str()+2)));
break;
case 7:
fprintf(stderr, "CTRL: User control message: pingresponse %u\n", ntohl(*(unsigned int*)(next.data.c_str()+2)));
break;
default:
fprintf(stderr, "CTRL: User control message: UNKNOWN %hu - %u\n", ucmtype, ntohl(*(unsigned int*)(next.data.c_str()+2)));
break;
}
}
break;
case 5: //window size of other end
RTMPStream::rec_window_size = ntohl(*(int*)next.data.c_str());
RTMPStream::rec_window_at = RTMPStream::rec_cnt;
fprintf(stderr, "CTRL: Window size: %i\n", RTMPStream::rec_window_size);
break;
case 6:
RTMPStream::snd_window_size = ntohl(*(int*)next.data.c_str());
//4 bytes window size, 1 byte limit type (ignored)
fprintf(stderr, "CTRL: Set peer bandwidth: %i\n", RTMPStream::snd_window_size);
break;
case 8:
if (Detail & (DETAIL_EXPLICIT | DETAIL_RECONSTRUCT)){
F.ChunkLoader(next);
if (Detail & DETAIL_EXPLICIT){
fprintf(stderr, "Received %i bytes audio data\n", next.len);
std::cerr << "Got a " << F.len << " bytes " << F.tagType() << " FLV tag of time " << F.tagTime() << "." << std::endl;
}
if (Detail & DETAIL_RECONSTRUCT){
std::cout.write(F.data, F.len);
}
}
break;
case 9:
if (Detail & (DETAIL_EXPLICIT | DETAIL_RECONSTRUCT)){
F.ChunkLoader(next);
if (Detail & DETAIL_EXPLICIT){
fprintf(stderr, "Received %i bytes video data\n", next.len);
std::cerr << "Got a " << F.len << " bytes " << F.tagType() << " FLV tag of time " << F.tagTime() << "." << std::endl;
}
if (Detail & DETAIL_RECONSTRUCT){
std::cout.write(F.data, F.len);
}
}
break;
case 15:
fprintf(stderr, "Received AFM3 data message\n");
break;
case 16:
fprintf(stderr, "Received AFM3 shared object\n");
break;
case 17: {
fprintf(stderr, "Received AFM3 command message:\n");
char soort = next.data[0];
next.data = next.data.substr(1);
if (soort == 0){
amfdata = AMF::parse(next.data);
std::cerr << amfdata.Print() << std::endl;
}else{
amf3data = AMF::parse3(next.data);
amf3data.Print();
}
}
break;
case 18: {
fprintf(stderr, "Received AFM0 data message (metadata):\n");
amfdata = AMF::parse(next.data);
amfdata.Print();
if (Detail & DETAIL_RECONSTRUCT){
F.ChunkLoader(next);
std::cout.write(F.data, F.len);
}
}
break;
case 19:
fprintf(stderr, "Received AFM0 shared object\n");
break;
case 20: { //AMF0 command message
fprintf(stderr, "Received AFM0 command message:\n");
amfdata = AMF::parse(next.data);
std::cerr << amfdata.Print() << std::endl;
}
break;
case 22:
fprintf(stderr, "Received aggregate message\n");
break;
default:
fprintf(stderr, "Unknown chunk received! Probably protocol corruption, stopping parsing of incoming data.\n");
return 1;
break;
} //switch for type of chunk
}else{ //if chunk parsed
if (std::cin.good()){
inbuffer += std::cin.get();
}else{
inbuffer.clear();
}
}
}//while std::cin.good()
fprintf(stderr, "No more readable data\n");
return 0;
}
///\brief Main function for the HTTP Dynamic Connector
///\param conn A socket describing the connection the client.
///\return The exit code of the connector.
int dynamicConnector(Socket::Connection conn){
std::deque<std::string> FlashBuf;
int FlashBufSize = 0;
long long int FlashBufTime = 0;
FLV::Tag tmp; //temporary tag
DTSC::Stream Strm; //Incoming stream buffer.
HTTP::Parser HTTP_R, HTTP_S; //HTTP Receiver en HTTP Sender.
Socket::Connection ss( -1);
std::string streamname;
std::string recBuffer = "";
std::string Quality;
int Segment = -1;
int ReqFragment = -1;
unsigned int lastStats = 0;
conn.setBlocking(false); //do not block on conn.spool() when no data is available
while (conn.connected()){
if (conn.spool() || conn.Received().size()){
//make sure it ends in a \n
if ( *(conn.Received().get().rbegin()) != '\n'){
std::string tmp = conn.Received().get();
conn.Received().get().clear();
if (conn.Received().size()){
conn.Received().get().insert(0, tmp);
}else{
conn.Received().append(tmp);
}
}
if (HTTP_R.Read(conn.Received().get())){
#if DEBUG >= 5
std::cout << "Received request: " << HTTP_R.getUrl() << std::endl;
#endif
conn.setHost(HTTP_R.GetHeader("X-Origin"));
streamname = HTTP_R.GetHeader("X-Stream");
if ( !ss){
ss = Util::Stream::getStream(streamname);
if ( !ss.connected()){
HTTP_S.Clean();
HTTP_S.SetBody("No such stream is available on the system. Please try again.\n");
conn.SendNow(HTTP_S.BuildResponse("404", "Not found"));
continue;
}
ss.setBlocking(false);
//make sure metadata is received
while ( !Strm.metadata && ss.connected()){
if (ss.spool()){
while (Strm.parsePacket(ss.Received())){
//do nothing
}
}
}
}
if (HTTP_R.url.find(".abst") != std::string::npos){
HTTP_S.Clean();
HTTP_S.SetBody(dynamicBootstrap(streamname, Strm.metadata));
HTTP_S.SetHeader("Content-Type", "binary/octet");
HTTP_S.SetHeader("Cache-Control", "no-cache");
conn.SendNow(HTTP_S.BuildResponse("200", "OK"));
HTTP_R.Clean(); //clean for any possible next requests
continue;
}
if (HTTP_R.url.find("f4m") == std::string::npos){
Quality = HTTP_R.url.substr(HTTP_R.url.find("/", 10) + 1);
Quality = Quality.substr(0, Quality.find("Seg"));
int temp;
temp = HTTP_R.url.find("Seg") + 3;
Segment = atoi(HTTP_R.url.substr(temp, HTTP_R.url.find("-", temp) - temp).c_str());
temp = HTTP_R.url.find("Frag") + 4;
ReqFragment = atoi(HTTP_R.url.substr(temp).c_str());
#if DEBUG >= 5
printf("Quality: %s, Seg %d Frag %d\n", Quality.c_str(), Segment, ReqFragment);
#endif
if (Strm.metadata.isMember("live")){
int seekable = Strm.canSeekFrame(ReqFragment);
if (seekable == 0){
// iff the fragment in question is available, check if the next is available too
seekable = Strm.canSeekFrame(ReqFragment + 1);
}
if (seekable < 0){
HTTP_S.Clean();
HTTP_S.SetBody("The requested fragment is no longer kept in memory on the server and cannot be served.\n");
conn.SendNow(HTTP_S.BuildResponse("412", "Fragment out of range"));
HTTP_R.Clean(); //clean for any possible next requests
std::cout << "Fragment @ F" << ReqFragment << " too old (F" << Strm.metadata["keynum"][0u].asInt() << " - " << Strm.metadata["keynum"][Strm.metadata["keynum"].size() - 1].asInt() << ")" << std::endl;
continue;
}
if (seekable > 0){
HTTP_S.Clean();
HTTP_S.SetBody("Proxy, re-request this in a second or two.\n");
conn.SendNow(HTTP_S.BuildResponse("208", "Ask again later"));
HTTP_R.Clean(); //clean for any possible next requests
std::cout << "Fragment @ F" << ReqFragment << " not available yet (F" << Strm.metadata["keynum"][0u].asInt() << " - " << Strm.metadata["keynum"][Strm.metadata["keynum"].size() - 1].asInt() << ")" << std::endl;
continue;
}
}
std::stringstream sstream;
sstream << "f " << ReqFragment << "\no \n";
ss.SendNow(sstream.str().c_str());
}else{
HTTP_S.Clean();
HTTP_S.SetHeader("Content-Type", "text/xml");
HTTP_S.SetHeader("Cache-Control", "no-cache");
std::string manifest = dynamicIndex(streamname, Strm.metadata);
HTTP_S.SetBody(manifest);
conn.SendNow(HTTP_S.BuildResponse("200", "OK"));
}
HTTP_R.Clean(); //clean for any possible next requests
}
}else{
Util::sleep(1);
}
if (ss.connected()){
unsigned int now = Util::epoch();
if (now != lastStats){
lastStats = now;
ss.SendNow(conn.getStats("HTTP_Dynamic").c_str());
}
if (ss.spool()){
while (Strm.parsePacket(ss.Received())){
if (Strm.lastType() == DTSC::PAUSEMARK){
if (FlashBufSize){
HTTP_S.Clean();
HTTP_S.SetHeader("Content-Type", "video/mp4");
HTTP_S.SetBody("");
std::string new_strap = dynamicBootstrap(streamname, Strm.metadata, ReqFragment);
HTTP_S.SetHeader("Content-Length", FlashBufSize + 8 + new_strap.size()); //32+33+btstrp.size());
conn.SendNow(HTTP_S.BuildResponse("200", "OK"));
conn.SendNow(new_strap);
unsigned long size = htonl(FlashBufSize+8);
conn.SendNow((char*) &size, 4);
conn.SendNow("mdat", 4);
while (FlashBuf.size() > 0){
conn.SendNow(FlashBuf.front());
FlashBuf.pop_front();
}
}
FlashBuf.clear();
FlashBufSize = 0;
}
if (Strm.lastType() == DTSC::VIDEO || Strm.lastType() == DTSC::AUDIO){
if (FlashBufSize == 0){
//fill buffer with init data, if needed.
if (Strm.metadata.isMember("audio") && Strm.metadata["audio"].isMember("init")){
tmp.DTSCAudioInit(Strm);
tmp.tagTime(Strm.getPacket(0)["time"].asInt());
FlashBuf.push_back(std::string(tmp.data, tmp.len));
FlashBufSize += tmp.len;
}
if (Strm.metadata.isMember("video") && Strm.metadata["video"].isMember("init")){
tmp.DTSCVideoInit(Strm);
tmp.tagTime(Strm.getPacket(0)["time"].asInt());
FlashBuf.push_back(std::string(tmp.data, tmp.len));
FlashBufSize += tmp.len;
}
FlashBufTime = Strm.getPacket(0)["time"].asInt();
}
tmp.DTSCLoader(Strm);
FlashBuf.push_back(std::string(tmp.data, tmp.len));
FlashBufSize += tmp.len;
}
}
}
if ( !ss.connected()){
break;
}
}
}
conn.close();
ss.SendNow(conn.getStats("HTTP_Dynamic").c_str());
ss.close();
return 0;
} //Connector_HTTP_Dynamic main function
/// Tries to get and parse one RTMP chunk at a time.
void Connector_RTMP::parseChunk(Socket::Buffer & inbuffer){
//for DTSC conversion
static JSON::Value meta_out;
static std::stringstream prebuffer; // Temporary buffer before sending real data
static bool sending = false;
static unsigned int counter = 0;
//for chunk parsing
static RTMPStream::Chunk next;
FLV::Tag F;
static AMF::Object amfdata("empty", AMF::AMF0_DDV_CONTAINER);
static AMF::Object amfelem("empty", AMF::AMF0_DDV_CONTAINER);
static AMF::Object3 amf3data("empty", AMF::AMF3_DDV_CONTAINER);
static AMF::Object3 amf3elem("empty", AMF::AMF3_DDV_CONTAINER);
while (next.Parse(inbuffer)){
//send ACK if we received a whole window
if ((RTMPStream::rec_cnt - RTMPStream::rec_window_at > RTMPStream::rec_window_size)){
RTMPStream::rec_window_at = RTMPStream::rec_cnt;
Socket.Send(RTMPStream::SendCTL(3, RTMPStream::rec_cnt));//send ack (msg 3)
}
switch (next.msg_type_id){
case 0://does not exist
#if DEBUG >= 2
fprintf(stderr, "UNKN: Received a zero-type message. This is an error.\n");
#endif
break;//happens when connection breaks unexpectedly
case 1://set chunk size
RTMPStream::chunk_rec_max = ntohl(*(int*)next.data.c_str());
#if DEBUG >= 4
fprintf(stderr, "CTRL: Set chunk size: %i\n", RTMPStream::chunk_rec_max);
#endif
break;
case 2://abort message - we ignore this one
#if DEBUG >= 4
fprintf(stderr, "CTRL: Abort message\n");
#endif
//4 bytes of stream id to drop
break;
case 3://ack
#if DEBUG >= 4
fprintf(stderr, "CTRL: Acknowledgement\n");
#endif
RTMPStream::snd_window_at = ntohl(*(int*)next.data.c_str());
RTMPStream::snd_window_at = RTMPStream::snd_cnt;
break;
case 4:{
//2 bytes event type, rest = event data
//types:
//0 = stream begin, 4 bytes ID
//1 = stream EOF, 4 bytes ID
//2 = stream dry, 4 bytes ID
//3 = setbufferlen, 4 bytes ID, 4 bytes length
//4 = streamisrecorded, 4 bytes ID
//6 = pingrequest, 4 bytes data
//7 = pingresponse, 4 bytes data
//we don't need to process this
#if DEBUG >= 4
short int ucmtype = ntohs(*(short int*)next.data.c_str());
switch (ucmtype){
case 0: fprintf(stderr, "CTRL: UCM StreamBegin %i\n", ntohl(*((int*)(next.data.c_str()+2)))); break;
case 1: fprintf(stderr, "CTRL: UCM StreamEOF %i\n", ntohl(*((int*)(next.data.c_str()+2)))); break;
case 2: fprintf(stderr, "CTRL: UCM StreamDry %i\n", ntohl(*((int*)(next.data.c_str()+2)))); break;
case 3: fprintf(stderr, "CTRL: UCM SetBufferLength %i %i\n", ntohl(*((int*)(next.data.c_str()+2))), ntohl(*((int*)(next.data.c_str()+6)))); break;
case 4: fprintf(stderr, "CTRL: UCM StreamIsRecorded %i\n", ntohl(*((int*)(next.data.c_str()+2)))); break;
case 6: fprintf(stderr, "CTRL: UCM PingRequest %i\n", ntohl(*((int*)(next.data.c_str()+2)))); break;
case 7: fprintf(stderr, "CTRL: UCM PingResponse %i\n", ntohl(*((int*)(next.data.c_str()+2)))); break;
default: fprintf(stderr, "CTRL: UCM Unknown (%hi)\n", ucmtype); break;
}
#endif
} break;
case 5://window size of other end
#if DEBUG >= 4
fprintf(stderr, "CTRL: Window size\n");
#endif
RTMPStream::rec_window_size = ntohl(*(int*)next.data.c_str());
RTMPStream::rec_window_at = RTMPStream::rec_cnt;
Socket.Send(RTMPStream::SendCTL(3, RTMPStream::rec_cnt));//send ack (msg 3)
break;
case 6:
#if DEBUG >= 4
fprintf(stderr, "CTRL: Set peer bandwidth\n");
#endif
//4 bytes window size, 1 byte limit type (ignored)
RTMPStream::snd_window_size = ntohl(*(int*)next.data.c_str());
Socket.Send(RTMPStream::SendCTL(5, RTMPStream::snd_window_size));//send window acknowledgement size (msg 5)
break;
case 8://audio data
case 9://video data
case 18://meta data
if (SS.connected()){
F.ChunkLoader(next);
JSON::Value pack_out = F.toJSON(meta_out);
if (!pack_out.isNull()){
if (!sending){
counter++;
if (counter > 8){
sending = true;
SS.SendNow(meta_out.toNetPacked());
SS.SendNow(prebuffer.str().c_str());//write buffer
prebuffer.str("");//clear buffer
SS.Send(pack_out.toNetPacked());
}else{
prebuffer << pack_out.toNetPacked();
}
}else{
SS.SendNow(pack_out.toNetPacked());
}
}
}else{
#if DEBUG >= 4
fprintf(stderr, "Received useless media data\n");
#endif
Socket.close();
}
break;
case 15:
#if DEBUG >= 4
fprintf(stderr, "Received AFM3 data message\n");
#endif
break;
case 16:
#if DEBUG >= 4
fprintf(stderr, "Received AFM3 shared object\n");
#endif
break;
case 17:{
#if DEBUG >= 4
fprintf(stderr, "Received AFM3 command message\n");
#endif
if (next.data[0] != 0){
next.data = next.data.substr(1);
amf3data = AMF::parse3(next.data);
#if DEBUG >= 4
amf3data.Print();
#endif
}else{
#if DEBUG >= 4
fprintf(stderr, "Received AFM3-0 command message\n");
#endif
next.data = next.data.substr(1);
amfdata = AMF::parse(next.data);
parseAMFCommand(amfdata, 17, next.msg_stream_id);
}//parsing AMF0-style
} break;
case 19:
#if DEBUG >= 4
fprintf(stderr, "Received AFM0 shared object\n");
#endif
break;
case 20:{//AMF0 command message
amfdata = AMF::parse(next.data);
parseAMFCommand(amfdata, 20, next.msg_stream_id);
} break;
case 22:
#if DEBUG >= 4
fprintf(stderr, "Received aggregate message\n");
#endif
break;
default:
#if DEBUG >= 1
fprintf(stderr, "Unknown chunk received! Probably protocol corruption, stopping parsing of incoming data.\n");
#endif
Connector_RTMP::stopparsing = true;
break;
}
}
}//parseChunk