void ReadyEvent::SendReadyStateQuery(unsigned eventId, SystemAddress address)
{
RakNet::BitStream bs;
bs.Write((MessageID)ID_READY_EVENT_QUERY);
bs.Write(eventId);
SendUnified(&bs, HIGH_PRIORITY, RELIABLE_ORDERED, channel, address, false);
}
void ConnectionGraph::OnConnectionGraphRequest(Packet *packet)
{
char password[256];
RakNet::BitStream inBitstream(packet->data, packet->length, false);
inBitstream.IgnoreBits(8);
stringCompressor->DecodeString(password,256,&inBitstream);
if (pw && pw[0] && strcmp(pw, password)!=0)
return;
#ifdef _CONNECTION_GRAPH_DEBUG_PRINT
RAKNET_DEBUG_PRINTF("ID_CONNECTION_GRAPH_REPLY ");
#endif
RakNet::BitStream outBitstream;
outBitstream.Write((MessageID)ID_CONNECTION_GRAPH_REPLY);
stringCompressor->EncodeString(pw,256,&outBitstream);
SerializeWeightedGraph(&outBitstream, graph);
SendUnified(&outBitstream, LOW_PRIORITY, RELIABLE_ORDERED, connectionGraphChannel, packet->systemAddress, false);
#ifdef _CONNECTION_GRAPH_DEBUG_PRINT
RAKNET_DEBUG_PRINTF("from %i to %i\n", peer->GetInternalID().port, packet->systemAddress.port);
#endif
// Add packet->systemAddress to the participant list if it is not already there
AddParticipant(packet->systemAddress);
}
void ConnectionGraph2::OnNewConnection(SystemAddress systemAddress, RakNetGUID rakNetGUID, bool isIncoming)
{
(void) isIncoming;
// Send all existing systems to new connection
RakNet::BitStream bs;
bs.Write((MessageID)ID_REMOTE_NEW_INCOMING_CONNECTION);
bs.Write((unsigned int)1);
bs.Write(systemAddress);
bs.Write(rakNetGUID);
SendUnified(&bs,HIGH_PRIORITY,RELIABLE_ORDERED,0,systemAddress,true);
// Send everyone to the new guy
DataStructures::List<SystemAddress> addresses;
DataStructures::List<RakNetGUID> guids;
rakPeerInterface->GetSystemList(addresses, guids);
bs.Reset();
bs.Write((MessageID)ID_REMOTE_NEW_INCOMING_CONNECTION);
BitSize_t writeOffset = bs.GetWriteOffset();
bs.Write((unsigned int) addresses.Size());
unsigned int i;
unsigned int count=0;
for (i=0; i < addresses.Size(); i++)
{
if (addresses[i]==systemAddress)
continue;
bs.Write(addresses[i]);
bs.Write(guids[i]);
count++;
}
if (count>0)
{
BitSize_t writeOffset2 = bs.GetWriteOffset();
bs.SetWriteOffset(writeOffset);
bs.Write(count);
bs.SetWriteOffset(writeOffset2);
SendUnified(&bs,HIGH_PRIORITY,RELIABLE_ORDERED,0,systemAddress,false);
}
RemoteSystem* remoteSystem = RakNet::OP_NEW<RemoteSystem>(__FILE__,__LINE__);
remoteSystem->guid=rakNetGUID;
remoteSystems.Insert(rakNetGUID,remoteSystem,true,__FILE__,__LINE__);
}
void RakVoice::RequestVoiceChannel(RakNetGUID recipient)
{
// Send a reliable ordered message to the other system to open a voice channel
RakNet::BitStream out;
out.Write((unsigned char)ID_RAKVOICE_OPEN_CHANNEL_REQUEST);
out.Write((int32_t)sampleRate);
SendUnified(&out, HIGH_PRIORITY, RELIABLE_ORDERED,0,recipient,false);
}
void RakVoice::CloseVoiceChannel(RakNetGUID recipient)
{
FreeChannelMemory(recipient);
// Send a message to the remote system telling them to close the channel
RakNet::BitStream out;
out.Write((unsigned char)ID_RAKVOICE_CLOSE_CHANNEL);
SendUnified(&out, HIGH_PRIORITY, RELIABLE_ORDERED,0,recipient,false);
}
void ReadyEvent::SendReadyUpdate(unsigned eventIndex, unsigned systemIndex, bool forceIfNotDefault)
{
ReadyEventNode *ren = readyEventNodeList[eventIndex];
RakNet::BitStream bs;
// I do this rather than write true or false, so users that do not use BitStreams can still read the data
if ((ren->eventStatus != ren->systemList[systemIndex].lastSentStatus) ||
(forceIfNotDefault && ren->eventStatus != ID_READY_EVENT_UNSET)) {
bs.Write(ren->eventStatus);
bs.Write(ren->eventId);
SendUnified(&bs, HIGH_PRIORITY, RELIABLE_ORDERED, channel, ren->systemList[systemIndex].systemAddress, false);
ren->systemList[systemIndex].lastSentStatus = ren->eventStatus;
}
}
void Router::SendTree(PacketPriority priority, PacketReliability reliability, char orderingChannel, DataStructures::Tree<ConnectionGraph::SystemAddressAndGroupId> *tree, const char *data, BitSize_t bitLength, RakNet::BitStream *out, SystemAddressList *recipients)
{
BitSize_t outputOffset;
// Write routing identifer
out->Write((MessageID)ID_ROUTE_AND_MULTICAST);
// Write the send parameters
out->WriteCompressed((unsigned char)priority);
out->WriteCompressed((unsigned char)reliability);
out->WriteCompressed((unsigned char)orderingChannel);
// Write the user payload length
out->Write((unsigned int)bitLength);
// out->PrintBits();
// payload->PrintBits();
out->AlignWriteToByteBoundary();
// payload->AlignReadToByteBoundary();
// out->Write(payload, payload->GetNumberOfUnreadBits());
// out->PrintBits();
if ((bitLength % 8)==0)
out->Write(data, BITS_TO_BYTES(bitLength));
else
out->WriteBits((const unsigned char*)data, bitLength, false);
// Save where to start writing per-system data
outputOffset=out->GetWriteOffset();
// Write every child of the root of the tree (SystemAddress, isRecipient, branch)
unsigned i;
for (i=0; i < tree->children.Size(); i++)
{
// Start writing at the per-system data byte
out->SetWriteOffset(outputOffset);
// Write our external IP to designate the sender
out->Write(rakPeerInterface->GetExternalID(tree->children[i]->data.systemAddress));
// Serialize the tree
SerializePreorder(tree->children[i], out, recipients);
// Send to the first hop
#ifdef _DO_PRINTF
RAKNET_DEBUG_PRINTF("%i sending to %i\n", rakPeerInterface->GetExternalID(tree->children[i]->data.systemAddress).port, tree->children[i]->data.systemAddress.port);
#endif
SendUnified(out, priority, reliability, orderingChannel, tree->children[i]->data.systemAddress, false);
}
}
void RakVoice::CloseAllChannels(void)
{
RakNet::BitStream out;
out.Write((unsigned char)ID_RAKVOICE_CLOSE_CHANNEL);
// Free the memory for all channels
unsigned index;
for (index=0; index < voiceChannels.Size(); index++)
{
SendUnified(&out, HIGH_PRIORITY, RELIABLE_ORDERED,0,voiceChannels[index]->guid,false);
FreeChannelMemory(index,false);
}
voiceChannels.Clear(false, __FILE__, __LINE__);
}
void RakVoice::OnOpenChannelRequest(Packet *packet)
{
if (voiceChannels.HasData(packet->guid))
return;
// If the system is not initialized, just return
if (bufferedOutput==0)
return;
OpenChannel(packet);
RakNet::BitStream out;
out.Write((unsigned char)ID_RAKVOICE_OPEN_CHANNEL_REPLY);
out.Write((int32_t)sampleRate);
SendUnified(&out, HIGH_PRIORITY, RELIABLE_ORDERED,0,packet->systemAddress,false);
}
void ConnectionGraph::OnConnectionGraphReply(Packet *packet)
{
unsigned char password[256];
RakNet::BitStream inBitstream(packet->data, packet->length, false);
inBitstream.IgnoreBits(8);
stringCompressor->DecodeString((char*)password,256,&inBitstream);
if (pw && pw[0] && strcmp(pw, (const char*)password)!=0)
return;
// Serialize the weighted graph and send it to them
RakNet::BitStream outBitstream;
outBitstream.Write((MessageID)ID_CONNECTION_GRAPH_UPDATE);
#ifdef _CONNECTION_GRAPH_DEBUG_PRINT
RAKNET_DEBUG_PRINTF("ID_CONNECTION_GRAPH_UPDATE ");
#endif
// Send our current graph to the sender
SerializeWeightedGraph(&outBitstream, graph);
// Write the systems that have processed this graph so we don't resend to these systems
outBitstream.Write((unsigned short) 1);
outBitstream.Write(rakPeerInterface->GetExternalID(packet->systemAddress));
#ifdef _CONNECTION_GRAPH_DEBUG_PRINT
RAKNET_DEBUG_PRINTF("from %i to %i\n", peer->GetInternalID().port, packet->systemAddress.port);
#endif
SendUnified(&outBitstream, LOW_PRIORITY, RELIABLE_ORDERED, connectionGraphChannel, packet->systemAddress, false);
// Add packet->systemAddress to the participant list if it is not already there
AddParticipant(packet->systemAddress);
if (DeserializeWeightedGraph(&inBitstream, rakPeerInterface)==false)
return;
// Forward the updated graph to all current participants
DataStructures::OrderedList<SystemAddress,SystemAddress> ignoreList;
ignoreList.Insert(packet->systemAddress,packet->systemAddress, true, __FILE__, __LINE__);
BroadcastGraphUpdate(ignoreList, rakPeerInterface);
}
void ConnectionGraph2::OnClosedConnection(SystemAddress systemAddress, RakNetGUID rakNetGUID, PI2_LostConnectionReason lostConnectionReason )
{
// Send notice to all existing connections
RakNet::BitStream bs;
if (lostConnectionReason==LCR_CONNECTION_LOST)
bs.Write((MessageID)ID_REMOTE_CONNECTION_LOST);
else
bs.Write((MessageID)ID_REMOTE_DISCONNECTION_NOTIFICATION);
bs.Write(systemAddress);
bs.Write(rakNetGUID);
SendUnified(&bs,HIGH_PRIORITY,RELIABLE_ORDERED,0,systemAddress,true);
bool objectExists;
unsigned int idx = remoteSystems.GetIndexFromKey(rakNetGUID, &objectExists);
if (objectExists)
{
RakNet::OP_DELETE(remoteSystems[idx],__FILE__,__LINE__);
remoteSystems.RemoveAtIndex(idx);
}
}
void LightweightDatabaseServer::OnQueryRequest(Packet *packet)
{
RakNet::BitStream inBitstream(packet->data, packet->length, false);
LightweightDatabaseServer::DatabaseTable *databaseTable = DeserializeClientHeader(&inBitstream, rakPeerInterface, packet, 0);
if (databaseTable==0)
return;
if (databaseTable->allowRemoteQuery==false)
return;
unsigned char numColumnSubset;
RakNet::BitStream outBitstream;
unsigned i;
if (inBitstream.Read(numColumnSubset)==false)
return;
unsigned char columnName[256];
unsigned columnIndicesSubset[256];
unsigned columnIndicesCount;
for (i=0,columnIndicesCount=0; i < numColumnSubset; i++)
{
stringCompressor->DecodeString((char*)columnName, 256, &inBitstream);
unsigned colIndex = databaseTable->table.ColumnIndex((char*)columnName);
if (colIndex!=(unsigned)-1)
columnIndicesSubset[columnIndicesCount++]=colIndex;
}
unsigned char numNetworkedFilters;
if (inBitstream.Read(numNetworkedFilters)==false)
return;
DatabaseFilter networkedFilters[256];
for (i=0; i < numNetworkedFilters; i++)
{
if (networkedFilters[i].Deserialize(&inBitstream)==false)
return;
}
unsigned rowIds[256];
unsigned char numRowIDs;
if (inBitstream.Read(numRowIDs)==false)
return;
for (i=0; i < numRowIDs; i++)
inBitstream.Read(rowIds[i]);
// Convert the safer and more robust networked database filter to the more efficient form the table actually uses.
DataStructures::Table::FilterQuery tableFilters[256];
unsigned numTableFilters=0;
for (i=0; i < numNetworkedFilters; i++)
{
tableFilters[numTableFilters].columnIndex=databaseTable->table.ColumnIndex(networkedFilters[i].columnName);
if (tableFilters[numTableFilters].columnIndex==(unsigned)-1)
continue;
if (networkedFilters[i].columnType!=databaseTable->table.GetColumns()[tableFilters[numTableFilters].columnIndex].columnType)
continue;
tableFilters[numTableFilters].operation=networkedFilters[i].operation;
// It's important that I store a pointer to the class here or the destructor of the class will deallocate the cell twice
tableFilters[numTableFilters++].cellValue=&(networkedFilters[i].cellValue);
}
DataStructures::Table queryResult;
databaseTable->table.QueryTable(columnIndicesSubset, columnIndicesCount, tableFilters, numTableFilters, rowIds, numRowIDs, &queryResult);
outBitstream.Write((MessageID)ID_DATABASE_QUERY_REPLY);
TableSerializer::SerializeTable(&queryResult, &outBitstream);
SendUnified(&outBitstream, HIGH_PRIORITY, RELIABLE_ORDERED, 0, packet->systemAddress, false);
}
void RakVoice::Update(void)
{
unsigned i,j, bytesAvailable, speexFramesAvailable, speexBlockSize;
unsigned bytesWaitingToReturn;
int bytesWritten;
VoiceChannel *channel;
char *inputBuffer;
char tempOutput[2048];
// 1 byte for ID, and 2 bytes(short) for Message number
static const int headerSize=sizeof(unsigned char) + sizeof(unsigned short);
// First byte is ID for RakNet
tempOutput[0]=ID_RAKVOICE_DATA;
RakNetTime currentTime = RakNet::GetTime();
// Size of VoiceChannel::incomingBuffer and VoiceChannel::outgoingBuffer arrays
unsigned totalBufferSize=bufferSizeBytes * FRAME_OUTGOING_BUFFER_COUNT;
// Allow all channels to write, and set the output to zero in preparation
if (zeroBufferedOutput)
{
for (i=0; i < bufferedOutputCount; i++)
bufferedOutput[i]=0.0f;
for (i=0; i < voiceChannels.Size(); i++)
voiceChannels[i]->copiedOutgoingBufferToBufferedOutput=false;
zeroBufferedOutput=false;
}
// For each channel
for (i=0; i < voiceChannels.Size(); i++)
{
channel=voiceChannels[i];
if (currentTime - channel->lastSend > 50) // Throttle to 20 sends a second
{
channel->isSendingVoiceData=false;
// Circular buffer so I have to do this to count how many bytes are available
if (channel->outgoingWriteIndex>=channel->outgoingReadIndex)
bytesAvailable=channel->outgoingWriteIndex-channel->outgoingReadIndex;
else
bytesAvailable=channel->outgoingWriteIndex + (totalBufferSize-channel->outgoingReadIndex);
// Speex returns how many frames it encodes per block. Each frame is of byte length sampleSize.
speexBlockSize = channel->speexOutgoingFrameSampleCount * SAMPLESIZE;
#ifdef PRINT_DEBUG_INFO
static int lastPrint=0;
if (i==0 && currentTime-lastPrint > 2000)
{
lastPrint=currentTime;
unsigned bytesWaitingToReturn;
if (channel->incomingReadIndex <= channel->incomingWriteIndex)
bytesWaitingToReturn=channel->incomingWriteIndex-channel->incomingReadIndex;
else
bytesWaitingToReturn=totalBufferSize-channel->incomingReadIndex+channel->incomingWriteIndex;
printf("%i bytes to send. incomingMessageNumber=%i. bytesWaitingToReturn=%i.\n", bytesAvailable, channel->incomingMessageNumber, bytesWaitingToReturn );
}
#endif
#ifdef _TEST_LOOPBACK
/*
if (bufferSizeBytes<bytesAvailable)
{
printf("Update: bytesAvailable=%i writeIndex=%i readIndex=%i\n",bytesAvailable, channel->outgoingWriteIndex, channel->outgoingReadIndex);
memcpy(channel->incomingBuffer + channel->incomingWriteIndex, channel->outgoingBuffer+channel->outgoingReadIndex, bufferSizeBytes);
channel->incomingWriteIndex=(channel->incomingWriteIndex+bufferSizeBytes) % totalBufferSize;
channel->outgoingReadIndex=(channel->outgoingReadIndex+bufferSizeBytes) % totalBufferSize;
}
return;
*/
#endif
// Find out how many frames we can read out of the buffer for speex to encode and send these out.
speexFramesAvailable = bytesAvailable / speexBlockSize;
// Encode all available frames and send them unreliable sequenced
if (speexFramesAvailable > 0)
{
SpeexBits speexBits;
speex_bits_init(&speexBits);
while (speexFramesAvailable-- > 0)
{
speex_bits_reset(&speexBits);
// If the input data would wrap around the buffer, copy it to another buffer first
if (channel->outgoingReadIndex + speexBlockSize >= totalBufferSize)
{
#ifdef _DEBUG
RakAssert(speexBlockSize < 2048-1);
#endif
unsigned t;
for (t=0; t < speexBlockSize; t++)
tempOutput[t+headerSize]=channel->outgoingBuffer[t%totalBufferSize];
inputBuffer=tempOutput+headerSize;
}
else
inputBuffer=channel->outgoingBuffer+channel->outgoingReadIndex;
#ifdef _DEBUG
/*
printf("In: ");
if (shortSampleType)
{
short *blah = (short*) inputBuffer;
for (int p=0; p < 5; p++)
{
printf("%.i ", blah[p]);
}
}
else
{
float *blah = (float*) inputBuffer;
for (int p=0; p < 5; p++)
{
printf("%.3f ", blah[p]);
}
}
printf("\n");
*/
#endif
int is_speech=1;
// Run preprocessor if required
if (defaultDENOISEState||defaultVADState){
is_speech=speex_preprocess((SpeexPreprocessState*)channel->pre_state,(spx_int16_t*) inputBuffer, NULL );
}
if ((is_speech)||(!defaultVADState)){
is_speech = speex_encode_int(channel->enc_state, (spx_int16_t*) inputBuffer, &speexBits);
}
channel->outgoingReadIndex=(channel->outgoingReadIndex+speexBlockSize)%totalBufferSize;
// If no speech detected, don't send this frame
if ((!is_speech)&&(defaultVADState)){
continue;
}
channel->isSendingVoiceData=true;
#ifdef _DEBUG
// printf("Update: bytesAvailable=%i writeIndex=%i readIndex=%i\n",bytesAvailable, channel->outgoingWriteIndex, channel->outgoingReadIndex);
#endif
bytesWritten = speex_bits_write(&speexBits, tempOutput+headerSize, 2048-headerSize);
#ifdef _DEBUG
// If this assert hits then you need to increase the size of the temp buffer, but this is really a bug because
// voice packets should never be bigger than a few hundred bytes.
RakAssert(bytesWritten!=2048-headerSize);
#endif
// static int bytesSent=0;
// bytesSent+= bytesWritten+headerSize;
// printf("bytesSent=%i\n", bytesSent);
#ifdef PRINT_DEBUG_INFO
static int voicePacketsSent=0;
printf("%i ", voicePacketsSent++);
#endif
// at +1, because the first byte in the buffer has the ID for RakNet.
memcpy(tempOutput+1, &channel->outgoingMessageNumber, sizeof(unsigned short));
channel->outgoingMessageNumber++;
RakNet::BitStream tempOutputBs((unsigned char*) tempOutput,bytesWritten+headerSize,false);
SendUnified(&tempOutputBs, HIGH_PRIORITY, UNRELIABLE,0,channel->guid,false);
if (loopbackMode)
{
Packet p;
p.length=bytesWritten+1;
p.data=(unsigned char*)tempOutput;
p.guid=channel->guid;
p.systemAddress=rakPeerInterface->GetSystemAddressFromGuid(p.guid);
OnVoiceData(&p);
}
}
speex_bits_destroy(&speexBits);
channel->lastSend=currentTime;
}
}
// As sound buffer blocks fill up, I add their values to RakVoice::bufferedOutput . Then when the user calls ReceiveFrame they get that value, already
// processed. This is necessary because that function needs to run as fast as possible so I remove all processing there that I can. Otherwise the sound
// plays back distorted and popping
if (channel->copiedOutgoingBufferToBufferedOutput==false)
{
if (channel->incomingReadIndex <= channel->incomingWriteIndex)
bytesWaitingToReturn=channel->incomingWriteIndex-channel->incomingReadIndex;
else
bytesWaitingToReturn=totalBufferSize-channel->incomingReadIndex+channel->incomingWriteIndex;
if (bytesWaitingToReturn==0)
{
channel->bufferOutput=true;
}
else if (channel->bufferOutput==false || bytesWaitingToReturn > bufferSizeBytes*2)
{
// Block running this again until the user calls ReceiveFrame since every call to ReceiveFrame only gets zero or one output blocks from
// each channel
channel->copiedOutgoingBufferToBufferedOutput=true;
// Stop buffering output. We won't start buffering again until there isn't enough data to read.
channel->bufferOutput=false;
// Cap to the size of the output buffer. But we do write less if less is available, with the rest silence
if (bytesWaitingToReturn > bufferSizeBytes)
{
bytesWaitingToReturn=bufferSizeBytes;
}
else
{
// Align the write index so when we increment the partial block read (which is always aligned) it computes out to 0 bytes waiting
channel->incomingWriteIndex=channel->incomingReadIndex+bufferSizeBytes;
if (channel->incomingWriteIndex==totalBufferSize)
channel->incomingWriteIndex=0;
}
short *in = (short *) (channel->incomingBuffer+channel->incomingReadIndex);
for (j=0; j < bytesWaitingToReturn / SAMPLESIZE; j++)
{
// Write short to float so if the range goes over the range of a float we can still add and subtract the correct final value.
// It will be clamped at the end
bufferedOutput[j]+=in[j%(totalBufferSize/SAMPLESIZE)];
}
// Update the read index. Always update by bufferSizeBytes, not bytesWaitingToReturn.
// if bytesWaitingToReturn < bufferSizeBytes then the rest is silence since this means the buffer ran out or we stopped sending.
channel->incomingReadIndex+=bufferSizeBytes;
if (channel->incomingReadIndex==totalBufferSize)
channel->incomingReadIndex=0;
// printf("%f %f\n", channel->incomingReadIndex/(float)bufferSizeBytes, channel->incomingWriteIndex/(float)bufferSizeBytes);
}
}
}
}
void AutopatcherServer::Update(void)
{
ResultTypeAndBitstream* rtab;
while (threadPool.HasOutputFast() && threadPool.HasOutput())
{
rtab = threadPool.GetOutput();
if (rtab->operation==ResultTypeAndBitstream::GET_PATCH)
{
if (rtab->fatalError==false)
{
if (rtab->patchList->fileList.Size())
fileListTransfer->Send(rtab->patchList, 0, rtab->systemAddress, rtab->setId, priority, orderingChannel, false, repository);
rtab->bitStream1.Write((unsigned char) ID_AUTOPATCHER_FINISHED_INTERNAL);
stringCompressor->EncodeString(rtab->currentDate.C_String(),64,&rtab->bitStream1);
}
else
{
rtab->bitStream1.Write((unsigned char) ID_AUTOPATCHER_REPOSITORY_FATAL_ERROR);
stringCompressor->EncodeString(repository->GetLastError(), 256, &rtab->bitStream1);
}
RakNet::OP_DELETE(rtab->patchList, __FILE__, __LINE__);
}
else if (rtab->operation==ResultTypeAndBitstream::GET_CHANGELIST_SINCE_DATE)
{
if (rtab->fatalError==false)
{
if (rtab->deletedFiles->fileList.Size())
{
rtab->bitStream1.Write((unsigned char) ID_AUTOPATCHER_DELETION_LIST);
rtab->deletedFiles->Serialize(&rtab->bitStream1);
}
if (rtab->addedFiles->fileList.Size())
{
rtab->bitStream2.Write((unsigned char) ID_AUTOPATCHER_CREATION_LIST);
rtab->addedFiles->Serialize(&rtab->bitStream2);
stringCompressor->EncodeString(rtab->currentDate.C_String(),64,&rtab->bitStream2);
rtab->addedFiles->Clear();
}
else
{
rtab->bitStream2.Write((unsigned char) ID_AUTOPATCHER_FINISHED);
stringCompressor->EncodeString(rtab->currentDate.C_String(),64,&rtab->bitStream2);
}
}
else
{
rtab->bitStream2.Write((unsigned char) ID_AUTOPATCHER_REPOSITORY_FATAL_ERROR);
stringCompressor->EncodeString(repository->GetLastError(), 256, &rtab->bitStream2);
}
RakNet::OP_DELETE(rtab->deletedFiles, __FILE__, __LINE__);
RakNet::OP_DELETE(rtab->addedFiles, __FILE__, __LINE__);
}
if (rtab->bitStream1.GetNumberOfBitsUsed()>0)
SendUnified(&(rtab->bitStream1), priority, RELIABLE_ORDERED, orderingChannel, rtab->systemAddress, false);
if (rtab->bitStream2.GetNumberOfBitsUsed()>0)
SendUnified(&(rtab->bitStream2), priority, RELIABLE_ORDERED, orderingChannel, rtab->systemAddress, false);
RakNet::OP_DELETE(rtab, __FILE__, __LINE__);
}
}
void FileListTransfer::Send(FileList *fileList, RakPeerInterface *rakPeer, SystemAddress recipient, unsigned short setID, PacketPriority priority, char orderingChannel, bool compressData, IncrementalReadInterface *_incrementalReadInterface, unsigned int _chunkSize)
{
(void) compressData;
if (callback)
fileList->SetCallback(callback);
unsigned int i, totalLength;
RakNet::BitStream outBitstream;
bool sendReference;
char *dataBlocks[2];
int lengths[2];
totalLength=0;
for (i=0; i < fileList->fileList.Size(); i++)
{
const FileListNode &fileListNode = fileList->fileList[i];
totalLength+=fileListNode.fileLengthBytes;
}
// Write the chunk header, which contains the frequency table, the total number of files, and the total number of bytes
bool anythingToWrite;
outBitstream.Write((MessageID)ID_FILE_LIST_TRANSFER_HEADER);
outBitstream.Write(setID);
anythingToWrite=fileList->fileList.Size()>0;
outBitstream.Write(anythingToWrite);
if (anythingToWrite)
{
outBitstream.WriteCompressed(fileList->fileList.Size());
outBitstream.WriteCompressed(totalLength);
if (rakPeer)
rakPeer->Send(&outBitstream, priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
else
SendUnified(&outBitstream, priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
for (i=0; i < fileList->fileList.Size(); i++)
{
outBitstream.Reset();
sendReference = fileList->fileList[i].isAReference && _incrementalReadInterface!=0;
if (sendReference)
{
StoreForPush(fileList->fileList[i].context, setID, fileList->fileList[i].filename, fileList->fileList[i].fullPathToFile, i, fileList->fileList[i].fileLengthBytes, fileList->fileList[i].dataLengthBytes, recipient, priority, orderingChannel, _incrementalReadInterface, _chunkSize);
continue;
}
outBitstream.Write((MessageID)ID_FILE_LIST_TRANSFER_FILE);
outBitstream.Write(fileList->fileList[i].context);
outBitstream.Write(setID);
stringCompressor->EncodeString(fileList->fileList[i].filename, 512, &outBitstream);
outBitstream.WriteCompressed(i);
outBitstream.WriteCompressed(fileList->fileList[i].dataLengthBytes); // Original length in bytes
outBitstream.AlignWriteToByteBoundary();
dataBlocks[0]=(char*) outBitstream.GetData();
lengths[0]=outBitstream.GetNumberOfBytesUsed();
dataBlocks[1]=fileList->fileList[i].data;
lengths[1]=fileList->fileList[i].dataLengthBytes;
if (rakPeer)
rakPeer->SendList(dataBlocks,lengths,2,priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
else
SendListUnified(dataBlocks,lengths,2,priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
}
}
else
{
if (rakPeer)
rakPeer->Send(&outBitstream, priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
else
SendUnified(&outBitstream, priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
}
}
void FileListTransfer::OnReferencePush(Packet *packet, bool fullFile)
{
// fullFile is always true for TCP, since TCP does not return SPLIT_PACKET_NOTIFICATION
RakNet::BitStream refPushAck;
refPushAck.Write((MessageID)ID_FILE_LIST_REFERENCE_PUSH_ACK);
SendUnified(&refPushAck,HIGH_PRIORITY, RELIABLE, 0, packet->systemAddress, false);
FileListTransferCBInterface::OnFileStruct onFileStruct;
RakNet::BitStream inBitStream(packet->data, packet->length, false);
inBitStream.IgnoreBits(8);
unsigned int partCount=0;
unsigned int partTotal=1;
unsigned int partLength=0;
onFileStruct.fileData=0;
if (fullFile==false)
{
// Disable endian swapping on reading this, as it's generated locally in ReliabilityLayer.cpp
inBitStream.ReadBits( (unsigned char* ) &partCount, BYTES_TO_BITS(sizeof(partCount)), true );
inBitStream.ReadBits( (unsigned char* ) &partTotal, BYTES_TO_BITS(sizeof(partTotal)), true );
inBitStream.ReadBits( (unsigned char* ) &partLength, BYTES_TO_BITS(sizeof(partLength)), true );
inBitStream.IgnoreBits(8);
// The header is appended to every chunk, which we continue to read after this statement block
}
inBitStream.Read(onFileStruct.context);
inBitStream.Read(onFileStruct.setID);
FileListReceiver *fileListReceiver;
if (fileListReceivers.Has(onFileStruct.setID)==false)
{
return;
}
fileListReceiver=fileListReceivers.Get(onFileStruct.setID);
if (fileListReceiver->allowedSender!=packet->systemAddress)
{
#ifdef _DEBUG
RakAssert(0);
#endif
return;
}
#ifdef _DEBUG
RakAssert(fileListReceiver->gotSetHeader==true);
#endif
if (stringCompressor->DecodeString(onFileStruct.fileName, 512, &inBitStream)==false)
{
#ifdef _DEBUG
RakAssert(0);
#endif
return;
}
inBitStream.ReadCompressed(onFileStruct.fileIndex);
inBitStream.ReadCompressed(onFileStruct.finalDataLength);
unsigned int offset;
unsigned int chunkLength;
inBitStream.ReadCompressed(offset);
inBitStream.ReadCompressed(chunkLength);
// if (chunkLength==0)
// return;
bool lastChunk;
inBitStream.Read(lastChunk);
bool finished = lastChunk && fullFile;
if (fullFile==false)
fileListReceiver->partLength=partLength;
FLR_MemoryBlock mb;
if (fileListReceiver->pushedFiles.Has(onFileStruct.fileIndex)==false)
{
if (chunkLength > 1000000000 || onFileStruct.finalDataLength > 1000000000)
{
RakAssert("FileListTransfer::OnReferencePush: file too large" && 0);
return;
}
mb.allocatedLength=onFileStruct.finalDataLength;
mb.block = (char*) rakMalloc_Ex(onFileStruct.finalDataLength, __FILE__, __LINE__);
if (mb.block==0)
{
notifyOutOfMemory(__FILE__, __LINE__);
return;
}
fileListReceiver->pushedFiles.SetNew(onFileStruct.fileIndex, mb);
}
else
mb=fileListReceiver->pushedFiles.Get(onFileStruct.fileIndex);
if (offset+chunkLength > mb.allocatedLength)
{
// Overrun
RakAssert("FileListTransfer::OnReferencePush: Write would overrun allocated block" && 0);
return;
}
// Read header uncompressed so the data is byte aligned, for speed
onFileStruct.compressedTransmissionLength=(unsigned int) onFileStruct.finalDataLength;
unsigned int unreadBits = inBitStream.GetNumberOfUnreadBits();
unsigned int unreadBytes = BITS_TO_BYTES(unreadBits);
unsigned int amountToRead;
if (fullFile)
amountToRead=chunkLength;
else
amountToRead=unreadBytes;
inBitStream.AlignReadToByteBoundary();
if (fullFile || (rakPeerInterface->GetSplitMessageProgressInterval() != 0 && (int)partCount==rakPeerInterface->GetSplitMessageProgressInterval()))
{
inBitStream.Read(mb.block+offset, amountToRead);
}
onFileStruct.setCount=fileListReceiver->setCount;
onFileStruct.setTotalCompressedTransmissionLength=fileListReceiver->setTotalCompressedTransmissionLength;
onFileStruct.setTotalFinalLength=fileListReceiver->setTotalFinalLength;
onFileStruct.fileData=mb.block;
if (finished)
{
if (fileListReceiver->downloadHandler->OnFile(&onFileStruct))
rakFree_Ex(onFileStruct.fileData, __FILE__, __LINE__ );
fileListReceiver->pushedFiles.Delete(onFileStruct.fileIndex);
fileListReceiver->filesReceived++;
// If this set is done, free the memory for it.
if ((int) fileListReceiver->setCount==fileListReceiver->filesReceived)
{
if (fileListReceiver->downloadHandler->OnDownloadComplete()==false)
{
fileListReceiver->downloadHandler->OnDereference();
fileListReceivers.Delete(onFileStruct.setID);
if (fileListReceiver->deleteDownloadHandler)
RakNet::OP_DELETE(fileListReceiver->downloadHandler, __FILE__, __LINE__);
RakNet::OP_DELETE(fileListReceiver, __FILE__, __LINE__);
}
}
}
else
{
unsigned int totalNotifications;
unsigned int currentNotificationIndex;
unsigned int unreadBytes;
if (rakPeerInterface==0 || rakPeerInterface->GetSplitMessageProgressInterval()==0)
{
totalNotifications = onFileStruct.finalDataLength / chunkLength + 1;
currentNotificationIndex = offset / chunkLength;
unreadBytes = mb.allocatedLength - ((offset+1)*chunkLength);
}
else
{
totalNotifications = onFileStruct.finalDataLength / fileListReceiver->partLength + 1;
if (fullFile==false)
currentNotificationIndex = (offset+partCount*fileListReceiver->partLength) / fileListReceiver->partLength ;
else
currentNotificationIndex = (offset+chunkLength) / fileListReceiver->partLength ;
unreadBytes = onFileStruct.finalDataLength - ((currentNotificationIndex+1) * fileListReceiver->partLength);
}
fileListReceiver->downloadHandler->OnFileProgress(&onFileStruct, currentNotificationIndex, totalNotifications, unreadBytes, mb.block);
}
return;
}
void FileListTransfer::Send(FileList *fileList, RakPeerInterface *rakPeer, SystemAddress recipient, unsigned short setID, PacketPriority priority, char orderingChannel, bool compressData, IncrementalReadInterface *_incrementalReadInterface, unsigned int _chunkSize)
{
(void) compressData;
if (callback)
fileList->SetCallback(callback);
unsigned int i, totalLength;
RakNet::BitStream outBitstream;
bool sendReference;
const char *dataBlocks[2];
int lengths[2];
totalLength=0;
for (i=0; i < fileList->fileList.Size(); i++)
{
const FileListNode &fileListNode = fileList->fileList[i];
totalLength+=fileListNode.fileLengthBytes;
}
// Write the chunk header, which contains the frequency table, the total number of files, and the total number of bytes
bool anythingToWrite;
outBitstream.Write((MessageID)ID_FILE_LIST_TRANSFER_HEADER);
outBitstream.Write(setID);
anythingToWrite=fileList->fileList.Size()>0;
outBitstream.Write(anythingToWrite);
if (anythingToWrite)
{
outBitstream.WriteCompressed(fileList->fileList.Size());
outBitstream.WriteCompressed(totalLength);
if (rakPeer)
rakPeer->Send(&outBitstream, priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
else
SendUnified(&outBitstream, priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
DataStructures::Queue<FileToPush*> filesToPush;
for (i=0; i < fileList->fileList.Size(); i++)
{
sendReference = fileList->fileList[i].isAReference && _incrementalReadInterface!=0;
if (sendReference)
{
FileToPush *fileToPush = RakNet::OP_NEW<FileToPush>(__FILE__,__LINE__);
fileToPush->fileListNode.context=fileList->fileList[i].context;
fileToPush->setIndex=i;
fileToPush->fileListNode.filename=fileList->fileList[i].filename;
fileToPush->fileListNode.fullPathToFile=fileList->fileList[i].fullPathToFile;
fileToPush->fileListNode.fileLengthBytes=fileList->fileList[i].fileLengthBytes;
fileToPush->fileListNode.dataLengthBytes=fileList->fileList[i].dataLengthBytes;
// fileToPush->systemAddress=recipient;
fileToPush->setID=setID;
fileToPush->packetPriority=priority;
fileToPush->orderingChannel=orderingChannel;
fileToPush->currentOffset=0;
fileToPush->incrementalReadInterface=_incrementalReadInterface;
fileToPush->chunkSize=_chunkSize;
filesToPush.Push(fileToPush,__FILE__,__LINE__);
}
else
{
outBitstream.Reset();
outBitstream.Write((MessageID)ID_FILE_LIST_TRANSFER_FILE);
outBitstream.Write(fileList->fileList[i].context);
outBitstream.Write(setID);
stringCompressor->EncodeString(fileList->fileList[i].filename, 512, &outBitstream);
outBitstream.WriteCompressed(i);
outBitstream.WriteCompressed(fileList->fileList[i].dataLengthBytes); // Original length in bytes
outBitstream.AlignWriteToByteBoundary();
dataBlocks[0]=(char*) outBitstream.GetData();
lengths[0]=outBitstream.GetNumberOfBytesUsed();
dataBlocks[1]=fileList->fileList[i].data;
lengths[1]=fileList->fileList[i].dataLengthBytes;
SendListUnified(dataBlocks,lengths,2,priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
}
}
if (filesToPush.IsEmpty()==false)
{
FileToPushRecipient *ftpr=0;
filesToPushAllSameAddressMutex.Lock();
for (unsigned int i=0; i < filesToPushAllSameAddress.Size(); i++)
{
if (filesToPushAllSameAddress[i]->systemAddress==recipient)
{
ftpr=filesToPushAllSameAddress[i];
break;
}
}
if (ftpr==0)
{
ftpr = RakNet::OP_NEW<FileToPushRecipient>(__FILE__,__LINE__);
ftpr->systemAddress=recipient;
filesToPushAllSameAddress.Push(ftpr, __FILE__,__LINE__);
}
while (filesToPush.IsEmpty()==false)
{
ftpr->filesToPush.Push(filesToPush.Pop(), __FILE__,__LINE__);
}
filesToPushAllSameAddressMutex.Unlock();
SendIRIToAddress(recipient);
return;
}
}
else
{
if (rakPeer)
rakPeer->Send(&outBitstream, priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
else
SendUnified(&outBitstream, priority, RELIABLE_ORDERED, orderingChannel, recipient, false);
}
}
void ReplicaManager::Destruct(Replica *replica, SystemAddress systemAddress, bool broadcast)
{
RakAssert(replica);
bool sendTimestamp;
bool objectExists;
unsigned replicatedObjectsIndex;
replicatedObjectsIndex = replicatedObjects.GetIndexFromKey(replica, &objectExists);
if (objectExists==false)
return;
// For each existing participant, send a packet telling them of this object destruction
RakNet::BitStream outBitstream, userDataBitStream;
unsigned i,tempIndex;
bool replicaReferenced;
ParticipantStruct *participantStruct;
replicaReferenced=false;
for (i=0; i < participantList.Size(); i++)
{
participantStruct=participantList[i];
if ((broadcast==true && systemAddress!=participantStruct->systemAddress) ||
(broadcast==false && systemAddress==participantStruct->systemAddress))
{
// Remove any remote object state tracking for this object, for this player
tempIndex = participantStruct->remoteObjectList.GetIndexFromKey(replica, &objectExists);
if (objectExists)
{
// Send the destruction packet immediately
if (replica->GetNetworkID()!=UNASSIGNED_NETWORK_ID &&
(replicatedObjects[replicatedObjectsIndex].allowedInterfaces & REPLICA_SEND_DESTRUCTION))
{
userDataBitStream.Reset();
userDataBitStream.Write((MessageID)ID_REPLICA_MANAGER_DESTRUCTION);
userDataBitStream.Write(replica->GetNetworkID());
sendTimestamp=false;
ReplicaReturnResult res = replica->SendDestruction(&userDataBitStream, participantStruct->systemAddress, &sendTimestamp);
if (res==REPLICA_PROCESSING_DONE)
{
outBitstream.Reset();
if (sendTimestamp)
{
outBitstream.Write((MessageID)ID_TIMESTAMP);
outBitstream.Write(RakNet::GetTime());
outBitstream.Write(&userDataBitStream);
SendUnified(&outBitstream, HIGH_PRIORITY, RELIABLE_ORDERED, sendChannel, participantStruct->systemAddress, false);
}
else
SendUnified(&userDataBitStream, HIGH_PRIORITY, RELIABLE_ORDERED, sendChannel, participantStruct->systemAddress, false);
}
}
participantStruct->remoteObjectList.RemoveAtIndex(tempIndex);
}
// Remove any pending commands that reference this object, for this player
tempIndex = GetCommandListReplicaIndex(participantStruct->commandList, replica, &objectExists);
// tempIndex = participantStruct->commandList.GetIndexFromKey(replica, &objectExists);
if (objectExists)
participantStruct->commandList.RemoveAtIndex(tempIndex);
}
else if (replicaReferenced==false)
{
bool objectExists;
GetCommandListReplicaIndex(participantStruct->commandList, replica, &objectExists);
// See if any commands or objects reference replica
//if (participantStruct->commandList.HasData(replica))
if (objectExists)
replicaReferenced=true;
else if (participantStruct->remoteObjectList.HasData(replica))
replicaReferenced=true;
}
}
// Remove replica from the list if no commands and no remote objects reference it
if (replicaReferenced==false)
replicatedObjects.RemoveAtIndex(replicatedObjectsIndex);
}
PluginReceiveResult Router::OnReceive(Packet *packet)
{
if (packet->data[0]==ID_ROUTE_AND_MULTICAST ||
(packet->length>5 && packet->data[0]==ID_TIMESTAMP && packet->data[5]==ID_ROUTE_AND_MULTICAST))
{
#ifdef _DO_PRINTF
RAKNET_DEBUG_PRINTF("%i got routed message from %i\n", peer->GetExternalID(packet->systemAddress).port, packet->systemAddress.port);
#endif
RakNetTime timestamp;
PacketPriority priority;
PacketReliability reliability;
unsigned char orderingChannel;
SystemAddress originalSender;
RakNet::BitStream out;
BitSize_t outStartingOffset;
unsigned int payloadBitLength;
unsigned payloadWriteByteOffset;
RakNet::BitStream incomingBitstream(packet->data, packet->length, false);
incomingBitstream.IgnoreBits(8);
if (packet->data[0]==ID_TIMESTAMP)
{
incomingBitstream.Read(timestamp);
out.Write((MessageID)ID_TIMESTAMP);
out.Write(timestamp);
incomingBitstream.IgnoreBits(8);
}
// Read the send parameters
unsigned char c;
incomingBitstream.ReadCompressed(c);
priority=(PacketPriority)c;
incomingBitstream.ReadCompressed(c);
reliability=(PacketReliability)c;
incomingBitstream.ReadCompressed(orderingChannel);
incomingBitstream.Read(payloadBitLength);
out.Write((MessageID)ID_ROUTE_AND_MULTICAST);
out.WriteCompressed((unsigned char)priority);
out.WriteCompressed((unsigned char)reliability);
out.WriteCompressed((unsigned char)orderingChannel);
out.Write(payloadBitLength);
out.AlignWriteToByteBoundary();
incomingBitstream.AlignReadToByteBoundary();
payloadWriteByteOffset=(unsigned int) BITS_TO_BYTES(out.GetWriteOffset());
out.Write(&incomingBitstream, payloadBitLength); // This write also does a read on incomingBitStream
if (restrictByType)
{
RakNet::BitStream t(out.GetData()+payloadWriteByteOffset, sizeof(unsigned char), false);
MessageID messageID;
t.Read(messageID);
if (allowedTypes.HasData(messageID)==false)
return RR_STOP_PROCESSING_AND_DEALLOCATE; // Don't route restricted types
}
incomingBitstream.Read(originalSender);
out.Write(originalSender);
outStartingOffset=out.GetWriteOffset();
// Deserialize the root
bool hasData=false;
SystemAddress recipient;
unsigned short numberOfChildren;
incomingBitstream.Read(hasData);
incomingBitstream.Read(recipient); // This should be our own address
if (incomingBitstream.ReadCompressed(numberOfChildren)==false)
{
#ifdef _DEBUG
RakAssert(0);
#endif
return RR_STOP_PROCESSING_AND_DEALLOCATE;
}
unsigned childIndex;
bool childHasData=false;
SystemAddress childRecipient;
unsigned short childNumberOfChildren;
SystemAddress immediateRecipient;
immediateRecipient=UNASSIGNED_SYSTEM_ADDRESS;
int pendingNodeCount=0;
for (childIndex=0; childIndex < numberOfChildren; childIndex++)
{
while (pendingNodeCount!=-1)
{
// Copy out the serialized subtree for this child
incomingBitstream.Read(childHasData);
incomingBitstream.Read(childRecipient);
if (!incomingBitstream.ReadCompressed(childNumberOfChildren))
return RR_STOP_PROCESSING_AND_DEALLOCATE;
if (immediateRecipient==UNASSIGNED_SYSTEM_ADDRESS)
{
immediateRecipient=childRecipient;
}
pendingNodeCount+=childNumberOfChildren-1;
out.Write(childHasData);
out.Write(childRecipient);
out.WriteCompressed(childNumberOfChildren);
}
#ifdef _DO_PRINTF
RAKNET_DEBUG_PRINTF("%i routing to %i\n", peer->GetExternalID(packet->systemAddress).port, immediateRecipient.port);
#endif
// Send what we got so far
SendUnified(&out, priority, reliability, orderingChannel, immediateRecipient, false);
// Restart writing the per recipient data
out.SetWriteOffset(outStartingOffset);
// Reread the top level node
immediateRecipient=UNASSIGNED_SYSTEM_ADDRESS;
pendingNodeCount=0;
}
// Write the user payload to the packet struct if this is a destination and change the sender and return true
if (hasData)
{
#ifdef _DO_PRINTF
RAKNET_DEBUG_PRINTF("%i returning payload to user\n", peer->GetExternalID(packet->systemAddress).port);
#endif
if (packet->data[0]==ID_TIMESTAMP )
{
memcpy( packet->data + sizeof(RakNetTime)+sizeof(unsigned char), out.GetData()+payloadWriteByteOffset, BITS_TO_BYTES(payloadBitLength) );
packet->bitSize=BYTES_TO_BITS(sizeof(RakNetTime)+sizeof(unsigned char))+payloadBitLength;
}
else
{
memcpy( packet->data, out.GetData()+payloadWriteByteOffset, BITS_TO_BYTES(payloadBitLength) );
packet->bitSize=payloadBitLength;
}
packet->length=(unsigned int) BITS_TO_BYTES(packet->bitSize);
packet->systemAddress.systemIndex=(SystemIndex)-1;
packet->systemAddress=originalSender;
return RR_CONTINUE_PROCESSING;
}
// Absorb
return RR_STOP_PROCESSING_AND_DEALLOCATE;
}
return RR_CONTINUE_PROCESSING;
}
void ReplicaManager::Update(void)
{
if (participantList.Size()==0)
return;
// Check for recursive calls, which is not supported and should not happen
#ifdef _DEBUG
RakAssert(inUpdate==false);
inUpdate=true;
#endif
unsigned participantIndex, remoteObjectListIndex, replicatedObjectsIndex;
ReplicaReturnResult res;
bool sendTimestamp;
ParticipantStruct *participantStruct;
unsigned commandListIndex;
RakNet::BitStream outBitstream, userDataBitstream;
RakNetTime currentTime;
bool objectExists;
PacketPriority priority;
PacketReliability reliability;
ReceivedCommand *receivedCommand;
Replica *replica;
// unsigned int userFlags;
unsigned char command;
currentTime=0;
// For each participant
for (participantIndex=0; participantIndex < participantList.Size(); participantIndex++)
{
participantStruct = participantList[participantIndex];
// Sends the download complete packet
// If callDownloadCompleteCB is true then check all the remaining objects starting at commandListIndex
// I scan every frame in case the callback returns false to delay, and after that time a new object is Replicated
if (participantStruct->callDownloadCompleteCB)
{
bool anyHasConstruction;
unsigned j;
anyHasConstruction=false;
for (j=0; j < participantStruct->commandList.Size(); j++)
{
if (participantStruct->commandList[j].command & REPLICA_EXPLICIT_CONSTRUCTION)
{
anyHasConstruction=true;
break;
}
}
// If none have REPLICA_EXPLICIT_CONSTRUCTION, send ID_REPLICA_MANAGER_DOWNLOAD_COMPLETE and set callDownloadCompleteCB false
if (anyHasConstruction==false)
{
ReplicaReturnResult sendDLComplete;
userDataBitstream.Reset();
if (_sendDownloadCompleteCB)
sendDLComplete=_sendDownloadCompleteCB->SendDownloadComplete(&userDataBitstream, currentTime, participantStruct->systemAddress, this); // If you return false, this will be called again next update
else
sendDLComplete=REPLICA_CANCEL_PROCESS;
if (sendDLComplete==REPLICA_PROCESSING_DONE)
{
outBitstream.Reset();
outBitstream.Write((MessageID)ID_REPLICA_MANAGER_DOWNLOAD_COMPLETE);
outBitstream.Write(&userDataBitstream, userDataBitstream.GetNumberOfBitsUsed());
SendUnified(&outBitstream, HIGH_PRIORITY, RELIABLE_ORDERED, sendChannel, participantStruct->systemAddress, false);
participantStruct->callDownloadCompleteCB=false;
}
else if (sendDLComplete==REPLICA_CANCEL_PROCESS)
{
participantStruct->callDownloadCompleteCB=false;
}
else
{
RakAssert(sendDLComplete==REPLICA_PROCESS_LATER);
// else REPLICA_PROCESS_LATER
}
}
}
// For each CommandStruct to send
for (commandListIndex=0; commandListIndex < participantStruct->commandList.Size(); commandListIndex++)
{
// Only call RakNet::GetTime() once because it's slow
if (currentTime==0)
currentTime=RakNet::GetTime();
replica=participantStruct->commandList[commandListIndex].replica;
command=participantStruct->commandList[commandListIndex].command;
// userFlags=participantStruct->commandList[commandListIndex].userFlags;
replicatedObjectsIndex=replicatedObjects.GetIndexFromKey(replica, &objectExists);
#ifdef _DEBUG
RakAssert(objectExists);
#endif
if (objectExists==false)
continue;
// If construction is set, call SendConstruction. The only precondition is that the object was not already created,
// which was checked in ReplicaManager::Replicate
if (command & REPLICA_EXPLICIT_CONSTRUCTION)
{
if (replicatedObjects[replicatedObjectsIndex].allowedInterfaces & REPLICA_SEND_CONSTRUCTION)
{
userDataBitstream.Reset();
sendTimestamp=false;
res=replica->SendConstruction(currentTime, participantStruct->systemAddress,
participantStruct->commandList[commandListIndex].userFlags, &userDataBitstream, &sendTimestamp);
if (res==REPLICA_PROCESSING_DONE)
{
outBitstream.Reset();
// If SendConstruction returns true and writes to outBitStream, do this send. Clear the construction command. Then process the next command for this CommandStruct, if any.
if (sendTimestamp)
{
outBitstream.Write((MessageID)ID_TIMESTAMP);
outBitstream.Write(currentTime);
}
outBitstream.Write((MessageID)ID_REPLICA_MANAGER_CONSTRUCTION);
// It's required to send an NetworkID if available.
// Problem:
// A->B->C
// | |
// D->E
//
// A creates.
// B->C->E->D->B will cycle forever.
// Fix is to always include an networkID. Objects are not created if that object id already is present.
if (replica->GetNetworkID()!=UNASSIGNED_NETWORK_ID)
{
outBitstream.Write(true);
outBitstream.Write(replica->GetNetworkID());
}
else
outBitstream.Write(false);
outBitstream.Write(&userDataBitstream, userDataBitstream.GetNumberOfBitsUsed());
SendUnified(&outBitstream, HIGH_PRIORITY, RELIABLE_ORDERED, sendChannel, participantStruct->systemAddress, false);
// Turn off this bit
participantStruct->commandList[commandListIndex].command &= 0xFF ^ REPLICA_EXPLICIT_CONSTRUCTION;
// Add the object to the participant's object list, indicating this object has been remotely created
RemoteObject remoteObject;
remoteObject.replica=replica;
//remoteObject.inScope=defaultScope;
remoteObject.inScope=false;
remoteObject.lastSendTime=0;
remoteObject.userFlags=participantStruct->commandList[commandListIndex].userFlags;
// Create an entry for this object. We do this now, even if the user might refuse the SendConstruction override,
// because that call may be delayed and other commands sent while that is pending. We always do the REPLICA_EXPLICIT_CONSTRUCTION call first.
participantStruct->remoteObjectList.Insert(remoteObject.replica,remoteObject, true, __FILE__,__LINE__);
}
else if (res==REPLICA_PROCESS_IMPLICIT)
{
// Turn off this bit
participantStruct->commandList[commandListIndex].command &= 0xFF ^ REPLICA_EXPLICIT_CONSTRUCTION;
// Add the object to the participant's object list, indicating this object has been remotely created
RemoteObject remoteObject;
remoteObject.replica=replica;
//remoteObject.inScope=defaultScope;
remoteObject.inScope=false;
remoteObject.lastSendTime=0;
remoteObject.userFlags=participantStruct->commandList[commandListIndex].userFlags;
// Create an entry for this object. We do this now, even if the user might refuse the SendConstruction override,
// because that call may be delayed and other commands sent while that is pending. We always do the REPLICA_EXPLICIT_CONSTRUCTION call first.
participantStruct->remoteObjectList.Insert(remoteObject.replica,remoteObject, true, __FILE__,__LINE__);
}
else if (res==REPLICA_PROCESS_LATER)
{
continue;
}
else // REPLICA_CANCEL_PROCESS
{
RakAssert(res==REPLICA_CANCEL_PROCESS);
participantStruct->commandList[commandListIndex].command=0;
}
}
else
{
// Don't allow construction, or anything else for this object, as the construction send call is disallowed
participantStruct->commandList[commandListIndex].command=0;
}
}
else if (command & REPLICA_IMPLICIT_CONSTRUCTION)
{
// Turn off this bit
participantStruct->commandList[commandListIndex].command &= 0xFF ^ REPLICA_IMPLICIT_CONSTRUCTION;
// Add the object to the participant's object list, indicating this object is assumed to be remotely created
RemoteObject remoteObject;
remoteObject.replica=replica;
//remoteObject.inScope=defaultScope;
remoteObject.inScope=false;
remoteObject.lastSendTime=0;
remoteObject.userFlags=participantStruct->commandList[commandListIndex].userFlags;
// Create an entry for this object. We do this now, even if the user might refuse the SendConstruction override,
// because that call may be delayed and other commands sent while that is pending. We always do the REPLICA_EXPLICIT_CONSTRUCTION call first.
participantStruct->remoteObjectList.Insert(remoteObject.replica,remoteObject, true, __FILE__,__LINE__);
}
// The remaining commands, SendScopeChange and Serialize, require the object the command references exists on the remote system, so check that
remoteObjectListIndex = participantStruct->remoteObjectList.GetIndexFromKey(replica, &objectExists);
if (objectExists)
{
command = participantStruct->commandList[commandListIndex].command;
// Process SendScopeChange.
if ((command & (REPLICA_SCOPE_TRUE | REPLICA_SCOPE_FALSE)))
{
if (replica->GetNetworkID()==UNASSIGNED_NETWORK_ID)
continue; // Not set yet so call this later.
if (replicatedObjects[replicatedObjectsIndex].allowedInterfaces & REPLICA_SEND_SCOPE_CHANGE)
{
bool scopeTrue = (command & REPLICA_SCOPE_TRUE)!=0;
// Only send scope changes if the requested change is different from what they already have
if (participantStruct->remoteObjectList[remoteObjectListIndex].inScope!=scopeTrue)
{
userDataBitstream.Reset();
sendTimestamp=false;
res=replica->SendScopeChange(scopeTrue, &userDataBitstream, currentTime, participantStruct->systemAddress, &sendTimestamp);
if (res==REPLICA_PROCESSING_DONE)
{
// If the user returns true and does write to outBitstream, do this send. Clear the scope change command. Then process the next command for this CommandStruct, if any.
outBitstream.Reset();
if (sendTimestamp)
{
outBitstream.Write((MessageID)ID_TIMESTAMP);
outBitstream.Write(currentTime);
}
outBitstream.Write((MessageID)ID_REPLICA_MANAGER_SCOPE_CHANGE);
outBitstream.Write(replica->GetNetworkID());
outBitstream.Write(&userDataBitstream, userDataBitstream.GetNumberOfBitsUsed());
SendUnified(&outBitstream, HIGH_PRIORITY, RELIABLE_ORDERED, sendChannel, participantStruct->systemAddress, false);
// Set the scope for this object and system
participantStruct->remoteObjectList[remoteObjectListIndex].inScope=scopeTrue;
// If scope is true, turn on serialize, since you virtually always want to serialize when an object goes in scope
if (scopeTrue && autoSerializeInScope)
participantStruct->commandList[commandListIndex].command |= REPLICA_SERIALIZE;
// Turn off these bits - Call is processed
participantStruct->commandList[commandListIndex].command &= 0xFF ^ (REPLICA_SCOPE_TRUE | REPLICA_SCOPE_FALSE);
}
else if (res==REPLICA_CANCEL_PROCESS)
{
// Turn off these bits - Call is canceled
participantStruct->commandList[commandListIndex].command &= 0xFF ^ (REPLICA_SCOPE_TRUE | REPLICA_SCOPE_FALSE);
}
else
{
// If the user returns false and the scope is currently set to false, just continue with another CommandStruct. Don't process serialization until scoping is resolved first.
if (scopeTrue==false)
continue;
// If the user returns false and the scope is currently set to false, process the next command for this CommandStruct, if any.
}
}
}
else
{
// Turn off these bits - Call is disallowed
participantStruct->commandList[commandListIndex].command &= 0xFF ^ (REPLICA_SCOPE_TRUE | REPLICA_SCOPE_FALSE);
// Set the scope - even if the actual send is disabled we might still be able to serialize.
participantStruct->remoteObjectList[remoteObjectListIndex].inScope=(command & REPLICA_SCOPE_TRUE)!=0;
}
}
command = participantStruct->commandList[commandListIndex].command;
// Process Serialize
if ((command & REPLICA_SERIALIZE))
{
if (replica->GetNetworkID()==UNASSIGNED_NETWORK_ID)
continue; // Not set yet so call this later.
// If scope is currently false for this object in the RemoteObject list, cancel this serialize as the scope changed before the serialization went out
if (participantStruct->remoteObjectList[remoteObjectListIndex].inScope && (replicatedObjects[replicatedObjectsIndex].allowedInterfaces & REPLICA_SEND_SERIALIZE))
{
do
{
userDataBitstream.Reset();
priority=HIGH_PRIORITY;
reliability=RELIABLE_ORDERED;
sendTimestamp=false;
res=replica->Serialize(&sendTimestamp, &userDataBitstream, participantStruct->remoteObjectList[remoteObjectListIndex].lastSendTime, &priority, &reliability, currentTime, participantStruct->systemAddress, participantStruct->remoteObjectList[remoteObjectListIndex].userFlags);
if (res==REPLICA_PROCESSING_DONE || res==REPLICA_PROCESS_AGAIN)
{
participantStruct->remoteObjectList[remoteObjectListIndex].lastSendTime=currentTime;
outBitstream.Reset();
if (sendTimestamp)
{
outBitstream.Write((MessageID)ID_TIMESTAMP);
outBitstream.Write(currentTime);
}
outBitstream.Write((MessageID)ID_REPLICA_MANAGER_SERIALIZE);
outBitstream.Write(replica->GetNetworkID());
outBitstream.Write(&userDataBitstream, userDataBitstream.GetNumberOfBitsUsed());
SendUnified(&outBitstream, priority, reliability, sendChannel, participantStruct->systemAddress, false);
// Clear the serialize bit when done
if (res==REPLICA_PROCESSING_DONE)
participantStruct->commandList[commandListIndex].command &= 0xFF ^ REPLICA_SERIALIZE;
// else res==REPLICA_PROCESS_AGAIN so it will repeat the enclosing do {} while(); loop
}
else if (res==REPLICA_CANCEL_PROCESS)
{
// Clear the serialize bit
participantStruct->commandList[commandListIndex].command &= 0xFF ^ REPLICA_SERIALIZE;
}
else
{
// if the user returns REPLICA_PROCESS_LATER, just continue with another CommandStruct.
RakAssert(res==REPLICA_PROCESS_LATER);
}
} while(res==REPLICA_PROCESS_AGAIN);
}
else
{
// Cancel this serialize
participantStruct->commandList[commandListIndex].command &= 0xFF ^ REPLICA_SERIALIZE;
}
}
}
}
// Go through the command list and delete all cleared commands, from back to front. It is more efficient to do this than to delete them as we process
commandListIndex=participantStruct->commandList.Size();
if (commandListIndex>0)
{
#ifdef _MSC_VER
#pragma warning( disable : 4127 ) // warning C4127: conditional expression is constant
#endif
while (1)
{
if (participantStruct->commandList[commandListIndex-1].command==0)
{
// If this is the last item in the list, and it probably is, then it just changes a number rather than shifts the entire array
participantStruct->commandList.RemoveAtIndex(commandListIndex-1);
}
if (--commandListIndex==0)
break;
}
}
// Now process queued receives
while (participantStruct->pendingCommands.Size())
{
receivedCommand=participantStruct->pendingCommands.Pop();
participantStruct=GetParticipantBySystemAddress(receivedCommand->systemAddress);
if (participantStruct)
{
res=ProcessReceivedCommand(participantStruct, receivedCommand);
// Returning false means process this command again later
if (res==REPLICA_PROCESS_LATER)
{
// Push the command back in the queue
participantStruct->pendingCommands.PushAtHead(receivedCommand, 0, __FILE__,__LINE__);
// Stop processing, because all processing is in order
break;
}
else
{
RakAssert(res==REPLICA_CANCEL_PROCESS);
}
}
// Done with this command, so delete it
RakNet::OP_DELETE(receivedCommand->userData, __FILE__, __LINE__);
RakNet::OP_DELETE(receivedCommand, __FILE__, __LINE__);
}
}
#ifdef _DEBUG
inUpdate=false;
#endif
}