//-------------------------------------------------------------------------------------
void Channel::clearState( bool warnOnDiscard /*=false*/ )
{
// 清空未处理的接受包缓存
if (bufferedReceives_.size() > 0)
{
BufferedReceives::iterator iter = bufferedReceives_.begin();
int hasDiscard = 0;
for(; iter != bufferedReceives_.end(); iter++)
{
Packet* pPacket = (*iter);
if(pPacket->opsize() > 0)
hasDiscard++;
if(pPacket->isTCPPacket())
TCPPacket::ObjPool().reclaimObject(static_cast<TCPPacket*>(pPacket));
else
UDPPacket::ObjPool().reclaimObject(static_cast<UDPPacket*>(pPacket));
}
if (hasDiscard > 0 && warnOnDiscard)
{
WARNING_MSG( "Channel::clearState( %s ): "
"Discarding %u buffered packet(s)\n",
this->c_str(), hasDiscard );
}
bufferedReceives_.clear();
}
lastReceivedTime_ = timestamp();
roundTripTime_ =
this->isInternal() ? stampsPerSecond() / 10 : stampsPerSecond();
isCondemn_ = false;
shouldDropNextSend_ = false;
numPacketsSent_ = 0;
numPacketsReceived_ = 0;
numBytesSent_ = 0;
numBytesReceived_ = 0;
fragmentDatasFlag_ = FRAGMENT_DATA_UNKNOW;
pFragmentDatasWpos_ = 0;
pFragmentDatasRemain_ = 0;
currMsgID_ = 0;
currMsgLen_ = 0;
proxyID_ = 0;
isHandshake_ = false;
channelType_ = CHANNEL_NORMAL;
SAFE_RELEASE_ARRAY(pFragmentDatas_);
MemoryStream::ObjPool().reclaimObject(pFragmentStream_);
pFragmentStream_ = NULL;
inactivityTimerHandle_.cancel();
this->endpoint(NULL);
}
void Channel::startInactivityDetection(float period, float checkPeriod)
{
stopInactivityDetection();
// 如果周期为负数则不检查
if(period > 0.001f)
{
checkPeriod = max(1.f, checkPeriod);
mInactivityExceptionPeriod = uint64(period * stampsPerSecond() ) - uint64( 0.05f * stampsPerSecond());
mLastReceivedTime = timestamp();
mInactivityTimerHandle = mpNetworkManager->dispatcher().addTimer(int( checkPeriod * 1000000 ), this, (void *)Timeout_InactivityCheck);
}
}
//-------------------------------------------------------------------------------------
bool Cellapp::initializeWatcher()
{
ProfileVal::setWarningPeriod(stampsPerSecond() / g_kbeSrvConfig.gameUpdateHertz());
WATCH_OBJECT("stats/runningTime", &runningTime);
return EntityApp<Entity>::initializeWatcher();
}
//-------------------------------------------------------------------------------------
void DBTransaction::commit()
{
KBE_ASSERT(!committed_);
uint64 startTime = timestamp();
try
{
pdbi_->query(SQL_COMMIT, false);
}
catch (DBException & e)
{
bool ret = static_cast<DBInterfaceMysql*>(pdbi_)->processException(e);
KBE_ASSERT(ret);
}
uint64 duration = timestamp() - startTime;
if(duration > stampsPerSecond() * 0.2f)
{
WARNING_MSG(fmt::format("DBTransaction::commit(): took {:.2f} seconds\n",
(double(duration)/stampsPerSecondD())));
}
committed_ = true;
}
/**
* This is called every frame. We use this as an oportunity to RedrawWindow()
* the control if the user has moved.
*/
/*afx_msg*/ void ChunkWatchControl::OnUpdateControl()
{
// Don't update to frequently.
if (lastUpdateTime_ != 0)
{
uint64 now = timestamp();
if ((now - lastUpdateTime_)/(double)stampsPerSecond() < UPDATE_DELTA)
{
return;
}
}
lastUpdateTime_ = timestamp();
Matrix view = WorldEditorCamera::instance().currentCamera().view();
view.invert();
Chunk *workingChunk = WorldManager::instance().workingChunk();
if
(
!similar(view, drawPos_, MATRICES_COMP_EPSILON)
||
workingChunk != lastWorkingChunk_
)
{
RedrawWindow();
}
}
//-------------------------------------------------------------------------------------
ProfileGroup::ProfileGroup(std::string name):
name_(name)
{
stampsPerSecond();
ProfileVal * pRunningTime = new ProfileVal("RunningTime", this);
pRunningTime->start();
}
//-------------------------------------------------------------------------------------
bool Bots::initializeBegin()
{
gameTimer_ = this->getMainDispatcher().addTimer(1000000 / g_kbeSrvConfig.gameUpdateHertz(), this,
reinterpret_cast<void *>(TIMEOUT_GAME_TICK));
ProfileVal::setWarningPeriod(stampsPerSecond() / g_kbeSrvConfig.gameUpdateHertz());
return true;
}
//-------------------------------------------------------------------------------------
void EventDispatcher::processStats()
{
if (timestamp() - lastStatisticsGathered_ >= stampsPerSecond())
{
oldSpareTime_ = totSpareTime_;
totSpareTime_ = accSpareTime_ + pPoller_->spareTime();
lastStatisticsGathered_ = timestamp();
}
}
//-------------------------------------------------------------------------------------
void Logger::handleTick()
{
if(timestamp() - g_lastCalcsecsNumlogsTime > uint64( stampsPerSecond() ))
{
g_lastCalcsecsNumlogsTime = timestamp();
g_secsNumlogs = 0;
}
threadPool_.onMainThreadTick();
networkInterface().processChannels(&LoggerInterface::messageHandlers);
}
/**
向管理器添加一个回调
*/
CALLBACK_ID save(T callback, uint64 timeout = 0/*secs*/)
{
if(timeout == 0)
timeout = uint64(ServerConfig::getSingleton().callback_timeout_);
CALLBACK_ID cbID = idAlloc_.alloc();
cbMap_.insert(typename CALLBACKS::value_type(cbID,
std::pair< T, uint64 >(callback, timestamp() + (timeout * stampsPerSecond()))));
tick();
return cbID;
}
//-------------------------------------------------------------------------------------
bool DBTaskBase::process()
{
uint64 startTime = timestamp();
bool ret = db_thread_process();
uint64 duration = startTime - initTime_;
if(duration > stampsPerSecond())
{
WARNING_MSG(fmt::format("DBTask::process(): delay {0:.2f} seconds, try adjusting the kbengine[_defs].xml(numConnections) and MySQL(my.cnf->max_connections or innodb_flush_log_at_trx_commit)!\nsql:({1})\n",
(double(duration)/stampsPerSecondD()), pdbi_->lastquery()));
}
duration = timestamp() - startTime;
if (duration > stampsPerSecond() * 0.2f)
{
WARNING_MSG(fmt::format("DBTask::process(): took {:.2f} seconds\nsql:({})\n",
(double(duration)/stampsPerSecondD()), pdbi_->lastquery()));
}
return ret;
}
/**
* This makes sure that the project view is up to date.
*
* @returns True if the dib was up to date.
*/
bool ChunkWatchControl::updateProjectDib()
{
// Are we up to date?
if (!projectDib_.isEmpty() && projectMark_ == SpaceMap::instance().mark())
return true;
// Are we updating too frequently?
if (lastUpdateProjectTime_ != 0)
{
uint64 now = timestamp();
if ((now - lastUpdateProjectTime_)/(double)stampsPerSecond() < PROJECT_UPDATE_DELTA)
return true;
lastUpdateProjectTime_ = now;
}
else
{
lastUpdateProjectTime_ = timestamp();
}
Moo::BaseTexturePtr baseTexture;
DX::Texture *texture =
static_cast<DX::Texture *>(SpaceMap::instance().texture());
if (texture == NULL)
{
ChunkDirMapping *dirMap = WorldManager::instance().chunkDirMapping();
if (dirMap != NULL)
{
// TODO: Check which is first, space.thumbnail.dds or
// space.temp_thumbnail.dds.
std::string mapName = dirMap->path() + "space.temp_thumbnail.dds";
baseTexture = Moo::TextureManager::instance()->get(mapName, true, false, true, "texture/chunk watcher");
if (baseTexture.hasObject())
{
texture = static_cast<DX::Texture *>(baseTexture->pTexture());
}
else
{
mapName = dirMap->path() + "space.thumbnail.dds";
baseTexture = Moo::TextureManager::instance()->get(mapName, true, false, true, "texture/chunk watcher");
if (baseTexture.hasObject())
texture = static_cast<DX::Texture *>(baseTexture->pTexture());
}
}
}
if (texture != NULL)
{
projectDib_.copyFromTexture(texture);
projectMark_ = SpaceMap::instance().mark();
}
return false;
}
//-------------------------------------------------------------------------------------
bool ClientApp::initializeBegin()
{
gameTimer_ = this->dispatcher().addTimer(1000000 / g_kbeConfig.gameUpdateHertz(), this,
reinterpret_cast<void *>(TIMEOUT_GAME_TICK));
ProfileVal::setWarningPeriod(stampsPerSecond() / g_kbeConfig.gameUpdateHertz());
Network::g_extReceiveWindowBytesOverflow = 0;
Network::g_intReceiveWindowBytesOverflow = 0;
Network::g_intReceiveWindowMessagesOverflow = 0;
Network::g_extReceiveWindowMessagesOverflow = 0;
Network::g_receiveWindowMessagesOverflowCritical = 0;
return true;
}
//-------------------------------------------------------------------------------------
bool SyncAppDatasHandler::process()
{
if(lastRegAppTime_ == 0)
return true;
if(timestamp() - lastRegAppTime_ < uint64( 3 * stampsPerSecond() ) )
return true;
bool hasDone = false;
std::vector<COMPONENT_ID>::iterator iter = apps_.begin();
for(; iter != apps_.end(); iter++)
{
COMPONENT_ID componentID = (*iter);
Components::ComponentInfos* cinfos = Componentbridge::getComponents().findComponent(componentID);
if(cinfos == NULL)
continue;
switch(cinfos->componentType)
{
case BASEAPP_TYPE:
{
Dbmgr::getSingleton().onGlobalDataClientLogon(cinfos->pChannel, cinfos->componentType);
hasDone = true;
}
break;
case CELLAPP_TYPE:
{
Dbmgr::getSingleton().onGlobalDataClientLogon(cinfos->pChannel, cinfos->componentType);
hasDone = true;
}
break;
default:
break;
}
}
apps_.clear();
lastRegAppTime_ = timestamp();
if(!hasDone)
{
return true;
}
delete this;
return false;
}
//-------------------------------------------------------------------------------------
void Channel::startInactivityDetection( float period, float checkPeriod )
{
stopInactivityDetection();
// 如果周期为负数则不检查
if(period > 0.f)
{
inactivityExceptionPeriod_ = uint64( period * stampsPerSecond() );
lastReceivedTime_ = timestamp();
inactivityTimerHandle_ =
this->dispatcher().addTimer( int( checkPeriod * 1000000 ),
this, (void *)TIMEOUT_INACTIVITY_CHECK );
}
}
//-------------------------------------------------------------------------------------
void GhostManager::checkRoute()
{
std::map<ENTITY_ID, ROUTE_INFO>::iterator iter = ghost_route_.begin();
for(; iter != ghost_route_.end(); )
{
if(timestamp() - iter->second.lastTime > uint64( 5 * stampsPerSecond() ))
{
ghost_route_.erase(iter++);
}
else
{
++iter;
}
}
}
//-------------------------------------------------------------------------------------
void ClientObject::sendTick()
{
// 向服务器发送tick
uint64 check = uint64( Mercury::g_channelExternalTimeout * stampsPerSecond() ) / 2;
if (timestamp() - lastSentActiveTickTime_ > check)
{
lastSentActiveTickTime_ = timestamp();
Mercury::Bundle bundle;
if(connectedGateway_)
bundle.newMessage(BaseappInterface::onClientActiveTick);
else
bundle.newMessage(LoginappInterface::onClientActiveTick);
bundle.send(*pChannel_->endpoint());
}
}
void DumpD3DResourceReleaseResults()
{
Record::const_iterator ri = record.begin();
//INFO_MSG( "Dumping D3D resource release results...\n\n" );
//INFO_MSG( "Resource, Total time, Total calls\n" );
while ( ri != record.end() )
{
double seconds = double(ri->second.first)/double( stampsPerSecond() );
//INFO_MSG("%s, %f, %d\n",
// ri->first.c_str(), seconds, ri->second.second );
ri++;
}
}
//-------------------------------------------------------------------------------------
void DBTransaction::commit()
{
KBE_ASSERT(!committed_);
uint64 startTime = timestamp();
pdbi_->query(SQL_COMMIT, false);
uint64 duration = timestamp() - startTime;
if(duration > stampsPerSecond() * 0.2f)
{
WARNING_MSG(fmt::format("DBTransaction::commit(): took {:.2f} seconds\n",
(double(duration)/stampsPerSecondD())));
}
committed_ = true;
}
/**
* Adds a new error message for an address to the reporter count map.
* Emits an error message if there has been no previous equivalent error
* string provider for this address.
*/
void ErrorReporter::addReport(const Address & address, const std::string & errorString)
{
AddressAndErrorString addressError(address, errorString);
ErrorsAndCounts::iterator searchIter =
errorsAndCounts_.find(addressError);
uint64 now = timestamp();
// see if we have ever reported this error
if (searchIter != errorsAndCounts_.end())
{
// this error has been reported recently..
ErrorReportAndCount & reportAndCount = searchIter->second;
reportAndCount.count++;
int64 millisSinceLastReport = 1000 *
(now - reportAndCount.lastReportStamps) /
stampsPerSecond();
reportAndCount.lastRaisedStamps = now;
if (millisSinceLastReport >= ERROR_REPORT_MIN_PERIOD_MS)
{
ERROR_MSG(fmt::format("{}\n",
addressErrorToString(address, errorString,
reportAndCount, now).c_str()));
reportAndCount.count = 0;
reportAndCount.lastReportStamps = now;
}
}
else
{
ERROR_MSG(fmt::format("{}\n",
addressErrorToString(address, errorString).c_str()));
ErrorReportAndCount reportAndCount = {
now, // lastReportStamps,
now, // lastRaisedStamps,
0, // count
};
errorsAndCounts_[ addressError ] = reportAndCount;
}
}
//-------------------------------------------------------------------------------------
void GhostManager::handleTimeout(TimerHandle, void * arg)
{
if(timestamp() - checkTime_ > uint64( stampsPerSecond() * 0.1 ))
{
if(messages_.size() == 0 &&
ghost_route_.size() == 0 &&
realEntities_.size() == 0)
{
cancel();
return;
}
checkRoute();
checkTime_ = timestamp();
}
syncMessages();
syncGhosts();
}
/**
* This forces the window to be repainted. This function prevents repainting
* too rapidly by selectively choosing between Invalidate and RedrawWindow.
*
* @param force If true then the repaint is done immmediately.
*/
void ChunkWatchControl::redraw(bool force /*= false*/)
{
if (!force)
{
if (lastUpdateTime_ != 0)
{
uint64 now = timestamp();
if ((now - lastUpdateTime_)/(double)stampsPerSecond() < UPDATE_DELTA)
{
Invalidate(); // add to message queue for painting later
return;
}
lastUpdateTime_ = now;
}
else
{
lastUpdateTime_ = timestamp();
}
}
RedrawWindow();
}
//-------------------------------------------------------------------------------------
void ClientObjectBase::tickSend()
{
if(!pServerChannel_ || !pServerChannel_->endpoint())
return;
// 向服务器发送tick
uint64 check = uint64( Mercury::g_channelExternalTimeout * stampsPerSecond() ) / 2;
if (timestamp() - lastSentActiveTickTime_ > check)
{
lastSentActiveTickTime_ = timestamp();
Mercury::Bundle* pBundle = Mercury::Bundle::ObjPool().createObject();
if(connectedGateway_)
(*pBundle).newMessage(BaseappInterface::onClientActiveTick);
else
(*pBundle).newMessage(LoginappInterface::onClientActiveTick);
pServerChannel_->pushBundle(pBundle);
}
pServerChannel_->send();
}
//-------------------------------------------------------------------------------------
void ResourceObject::update()
{
timeout_ = timestamp() + uint64( Resmgr::respool_timeout * stampsPerSecond() );
}
/**
* 每秒cpu所耗时间 double版本
*/
double stampsPerSecondD()
{
static double stampsPerSecondCacheD = double(stampsPerSecond());
return stampsPerSecondCacheD;
}
//-------------------------------------------------------------------------------------
void Interfaces::charge(Network::Channel* pChannel, KBEngine::MemoryStream& s)
{
OrdersCharge* pOrdersCharge = new OrdersCharge();
pOrdersCharge->timeout = timestamp() + uint64(g_kbeSrvConfig.interfaces_orders_timeout_ * stampsPerSecond());
pOrdersCharge->dbmgrID = pChannel->componentID();
pOrdersCharge->address = pChannel->addr();
s >> pOrdersCharge->baseappID;
s >> pOrdersCharge->ordersID;
s >> pOrdersCharge->dbid;
s.readBlob(pOrdersCharge->postDatas);
s >> pOrdersCharge->cbid;
INFO_MSG(fmt::format("Interfaces::charge: componentID={4}, chargeID={0}, dbid={1}, cbid={2}, datas={3}!\n",
pOrdersCharge->ordersID, pOrdersCharge->dbid, pOrdersCharge->cbid, pOrdersCharge->postDatas, pOrdersCharge->baseappID));
ORDERS::iterator iter = orders_.find(pOrdersCharge->ordersID);
if(iter != orders_.end())
{
ERROR_MSG(fmt::format("Interfaces::charge: chargeID={} is exist!\n", pOrdersCharge->ordersID));
delete pOrdersCharge;
return;
}
ChargeTask* pinfo = new ChargeTask();
pinfo->orders = *pOrdersCharge;
pinfo->pOrders = pOrdersCharge;
orders_[pOrdersCharge->ordersID].reset(pOrdersCharge);
// 把请求交由脚本处理
SCOPED_PROFILE(SCRIPTCALL_PROFILE);
PyObject* pyResult = PyObject_CallMethod(getEntryScript().get(),
const_cast<char*>("onRequestCharge"),
const_cast<char*>("sKy#"),
pOrdersCharge->ordersID.c_str(),
pOrdersCharge->dbid,
pOrdersCharge->postDatas.c_str(), pOrdersCharge->postDatas.length());
if(pyResult != NULL)
Py_DECREF(pyResult);
else
SCRIPT_ERROR_CHECK();
}
/**
* Output all exception's reports that have not yet been output.
*/
void ErrorReporter::reportPendingExceptions(bool reportBelowThreshold)
{
uint64 now = timestamp();
// this is set to any iterator slated for removal
ErrorsAndCounts::iterator staleIter = this->errorsAndCounts_.end();
for ( ErrorsAndCounts::iterator exceptionCountIter =
this->errorsAndCounts_.begin();
exceptionCountIter != this->errorsAndCounts_.end();
++exceptionCountIter)
{
// remove any stale mappings from the last loop's run
if (staleIter != this->errorsAndCounts_.end())
{
this->errorsAndCounts_.erase(staleIter);
staleIter = this->errorsAndCounts_.end();
}
// check this iteration's last report and see if we need to output
// anything
const AddressAndErrorString & addressError =
exceptionCountIter->first;
ErrorReportAndCount & reportAndCount = exceptionCountIter->second;
int64 millisSinceLastReport = 1000 *
(now - reportAndCount.lastReportStamps) / stampsPerSecond();
if (reportBelowThreshold ||
millisSinceLastReport >= ERROR_REPORT_MIN_PERIOD_MS)
{
if (reportAndCount.count)
{
ERROR_MSG(fmt::format("{}\n",
addressErrorToString(
addressError.first, addressError.second,
reportAndCount, now).c_str()
));
reportAndCount.count = 0;
reportAndCount.lastReportStamps = now;
}
}
// see if we can remove this mapping if it has not been raised in a
// while
uint64 sinceLastRaisedMillis = 1000 * (now - reportAndCount.lastRaisedStamps) /
stampsPerSecond();
if (sinceLastRaisedMillis > ERROR_REPORT_COUNT_MAX_LIFETIME_MS)
{
// it's hung around for too long without being raised again,
// so remove it in the next iteration
staleIter = exceptionCountIter;
}
}
// remove the last mapping if it is marked stale
if (staleIter != this->errorsAndCounts_.end())
{
this->errorsAndCounts_.erase(staleIter);
}
}
/**
* This method executes the action for the given frame of time. The dTime
* parameter is the time elapsed since the last call.
*
* @param particleSystem The particle system on which to operate.
* @param dTime Elapsed time in seconds.
*/
void CollidePSA::execute( ParticleSystem &particleSystem, float dTime )
{
BW_GUARD;
SourcePSA* pSource = static_cast<SourcePSA*>( &*particleSystem.pAction( PSA_SOURCE_TYPE_ID ) );
if ( !pSource )
return;
RompColliderPtr pGS = pSource->groundSpecifier();
if ( !pGS )
return;
uint64 tend = timestamp() + stampsPerSecond() / 2000;
bool soundHit = false;
float maxVelocity = 0;
Vector3 soundPos;
uint materialKind;
Particles::iterator it = particleSystem.begin();
Particles::iterator end = particleSystem.end();
WorldTriangle tri;
//bust out of the loop if we take more than 0.5 msec
//Sprite particles don't calculate spin
while ( it != end && timestamp()<tend )
{
Particle &particle = *it++;
if (!particle.isAlive())
{
continue;
}
//note - particles get moved after actions.
Vector3 velocity;
particle.getVelocity(velocity);
Vector3 pos;
Vector3 newPos;
if(particleSystem.isLocal())
{
Matrix world = particleSystem.worldTransform();
pos = world.applyPoint(particle.position());
Vector3 nPos;
particleSystem.predictPosition( particle, dTime, nPos );
newPos = world.applyPoint(nPos);
}
else
{
pos = particle.position();
particleSystem.predictPosition( particle, dTime, newPos );
}
float tValue = pGS->collide( pos, newPos, tri );
if ( tValue >= 0.f && tValue <= 1.f )
{
// calc v as a dotprod of the two normalised vectors (before and after collision)
Vector3 oldVel = velocity / velocity.length();
tri.bounce( velocity, elasticity_ );
particle.setVelocity( velocity );
float newSpeed = velocity.length();
Vector3 newVel(velocity / newSpeed);
float severity = oldVel.dotProduct(newVel);
//DEBUG_MSG("severity: %1.3f, speed=%1.3f\n", severity, newSpeed);
float v = (1 - severity) * newSpeed;
//now spin the particle ( mesh only )
if ( !spriteBased_ )
{
//first, calculate the current rotation, and update the pitch/yaw value.
Matrix currentRot;
currentRot.setRotate( particle.yaw(), particle.pitch(), 0.f );
Matrix spin;
float spinSpeed = particle.meshSpinSpeed();
Vector3 meshSpinAxis = particle.meshSpinAxis();
// If there is no spin direction then creating a rotation
// matrix can create weird matrices - e.g. matrices with
// negative scale components and a translation. We choose the
// velocity as the spin direction (aribitrarily choosing, for
// example up looks weird).
if (meshSpinAxis == Vector3::zero())
{
meshSpinAxis = velocity;
meshSpinAxis.normalise();
}
D3DXMatrixRotationAxis
(
&spin,
&meshSpinAxis,
spinSpeed * (particle.age()-particle.meshSpinAge())
);
currentRot.preMultiply( spin );
particle.pitch( currentRot.pitch() );
particle.yaw( currentRot.yaw() );
//now, reset the age of the spin
particle.meshSpinAge( particle.age() );
//finally, update the spin ( stored in the particle's colour )
float addedSpin = unitRand() * (maxAddedRotation_-minAddedRotation_) + minAddedRotation_;
addedSpin *= min( newSpeed, 1.f );
spinSpeed = Math::clamp( 0.f, spinSpeed + addedSpin, 1.f );
particle.meshSpinSpeed(spinSpeed);
particle.meshSpinAxis(meshSpinAxis);
}
if ( soundEnabled_ && v > 0.5f )
{
soundHit = true;
if (v > maxVelocity) {
maxVelocity = v;
soundPos = particle.position();
materialKind = tri.materialKind();
}
}
}
}
if ( soundHit )
{
SmartPointer < RompSound > rs = RompSound::getProvider();
if (rs)
{
if (!soundTag_.empty())
{
rs->playParticleSound( soundTag_.c_str(), soundPos, maxVelocity, soundSrcIdx_, materialKind );
}
}
}
}
/**
tick
*/
void tick()
{
if(timestamp() - lastTimestamp_ < (ServerConfig::getSingleton().callback_timeout_ * stampsPerSecond()))
return;
lastTimestamp_ = timestamp();
typename CALLBACKS::iterator iter = cbMap_.begin();
for(; iter!= cbMap_.end(); )
{
if(lastTimestamp_ > iter->second.second)
{
if(processTimeout(iter->first, iter->second.first))
{
idAlloc_.reclaim(iter->first);
cbMap_.erase(iter++);
continue;
}
}
++iter;
}
}
//-------------------------------------------------------------------------------------
bool RestoreEntityHandler::process()
{
Components::COMPONENTS& cts = Components::getSingleton().getComponents(CELLAPP_TYPE);
Mercury::Channel* pChannel = NULL;
if(cts.size() > 0)
{
Components::COMPONENTS::iterator ctiter = cts.begin();
if((*ctiter).pChannel == NULL)
return true;
pChannel = (*ctiter).pChannel;
}
if(pChannel == NULL)
return true;
int count = 0;
// 首先需要找到这个cell上的space
// KBE_ASSERT(restoreSpaces_.size() > 0);
// 如果spaceEntity不在这个baseapp上创建则继续等待
// 当spaceEntity的cell创建好了之后会广播给所有的baseapp， 每个baseapp
// 去判断是否有需要恢复的entity
if(restoreSpaces_.size() > 0)
{
if(timestamp() - tickReport_ > uint64( 3 * stampsPerSecond() ))
{
tickReport_ = timestamp();
INFO_MSG(boost::format("RestoreEntityHandler::process(%3%): wait for localSpace to get cell!, entitiesSize(%1%), spaceSize=%2%\n") %
entities_.size() % restoreSpaces_.size() % cellappID_);
}
int spaceCellCount = 0;
// 必须等待space恢复
std::vector<RestoreData>::iterator restoreSpacesIter = restoreSpaces_.begin();
for(; restoreSpacesIter != restoreSpaces_.end(); restoreSpacesIter++)
{
Base* pBase = Baseapp::getSingleton().findEntity((*restoreSpacesIter).id);
if(pBase)
{
if(++count > (int)g_kbeSrvConfig.getBaseApp().entityRestoreSize)
{
return true;
}
if((*restoreSpacesIter).creatingCell == false)
{
(*restoreSpacesIter).creatingCell = true;
pBase->restoreCell(NULL);
}
else
{
if(pBase->cellMailbox() == NULL)
{
return true;
}
else
{
spaceCellCount++;
if(!(*restoreSpacesIter).processed)
{
(*restoreSpacesIter).processed = true;
pBase->onRestore();
}
}
}
}
else
{
ERROR_MSG(boost::format("RestoreEntityHandler::process(%1%): lose space(%2%).\n") % cellappID_ % (*restoreSpacesIter).id);
}
}
if(spaceCellCount != (int)restoreSpaces_.size())
return true;
// 通知其他baseapp， space恢复了cell
if(!broadcastOtherBaseapps_)
{
broadcastOtherBaseapps_ = true;
INFO_MSG(boost::format("RestoreEntityHandler::process(%1%): begin broadcast-spaceGetCell to otherBaseapps...\n") % cellappID_);
std::vector<RestoreData>::iterator restoreSpacesIter = restoreSpaces_.begin();
for(; restoreSpacesIter != restoreSpaces_.end(); restoreSpacesIter++)
{
Base* pBase = Baseapp::getSingleton().findEntity((*restoreSpacesIter).id);
bool destroyed = (pBase == NULL || pBase->isDestroyed());
COMPONENT_ID baseappID = g_componentID;
COMPONENT_ID cellappID = 0;
SPACE_ID spaceID = (*restoreSpacesIter).spaceID;
ENTITY_ID spaceEntityID = (*restoreSpacesIter).id;
ENTITY_SCRIPT_UID utype = 0;
if(!destroyed)
{
utype = pBase->scriptModule()->getUType();
cellappID = pBase->cellMailbox()->componentID();
}
spaceIDs_.erase(std::remove(spaceIDs_.begin(), spaceIDs_.end(), spaceID), spaceIDs_.end());
Mercury::Channel* pChannel = NULL;
Components::COMPONENTS& cts = Componentbridge::getComponents().getComponents(BASEAPP_TYPE);
Components::COMPONENTS::iterator comsiter = cts.begin();
for(; comsiter != cts.end(); comsiter++)
{
pChannel = (*comsiter).pChannel;
if(pChannel)
{
INFO_MSG(boost::format("RestoreEntityHandler::process(%5%): broadcast baseapp[%1%, %2%], spaceID[%3%], utype[%4%]...\n") %
(*comsiter).cid % pChannel->c_str() % spaceID % utype % cellappID_);
Mercury::Bundle* pBundle = Mercury::Bundle::ObjPool().createObject();
(*pBundle).newMessage(BaseappInterface::onRestoreSpaceCellFromOtherBaseapp);
(*pBundle) << baseappID << cellappID << spaceID << spaceEntityID << utype << destroyed;
pBundle->send(Baseapp::getSingleton().getNetworkInterface(), pChannel);
Mercury::Bundle::ObjPool().reclaimObject(pBundle);
}
}
}
}
}
if(spaceIDs_.size() > 0)
{
if(timestamp() - tickReport_ > uint64( 3 * stampsPerSecond() ))
{
tickReport_ = timestamp();
INFO_MSG(boost::format("RestoreEntityHandler::process(%1%): wait for otherBaseappSpaces to get cell!, entitiesSize(%2%), spaceSize=%3%\n") %
cellappID_ % entities_.size() % spaceIDs_.size());
}
return true;
}
// 恢复其他entity
std::vector<RestoreData>::iterator iter = entities_.begin();
for(; iter != entities_.end(); )
{
RestoreData& data = (*iter);
Base* pBase = Baseapp::getSingleton().findEntity(data.id);
if(pBase)
{
if(++count > g_kbeSrvConfig.getBaseApp().entityRestoreSize)
{
return true;
}
if(pBase->cellMailbox() != NULL)
{
if(!data.processed)
{
data.processed = true;
pBase->onRestore();
}
iter = entities_.erase(iter);
}
else
{
if(!data.creatingCell)
{
data.creatingCell = true;
EntityMailboxAbstract* cellMailbox = NULL;
std::vector<RestoreData>::iterator restoreSpacesIter = restoreSpaces_.begin();
for(; restoreSpacesIter != restoreSpaces_.end(); restoreSpacesIter++)
{
Base* pSpace = Baseapp::getSingleton().findEntity((*restoreSpacesIter).id);
if(pSpace && pBase->spaceID() == pSpace->spaceID())
{
cellMailbox = pSpace->cellMailbox();
break;
}
}
if(cellMailbox == NULL)
{
restoreSpacesIter = otherRestoredSpaces_.begin();
for(; restoreSpacesIter != otherRestoredSpaces_.end(); restoreSpacesIter++)
{
if(pBase->spaceID() == (*restoreSpacesIter).spaceID && (*restoreSpacesIter).cell)
{
cellMailbox = (*restoreSpacesIter).cell;
break;
}
}
}
if(cellMailbox)
{
pBase->restoreCell(cellMailbox);
}
else
{
ENTITY_ID delID = pBase->id();
pBase->destroy();
WARNING_MSG(boost::format("RestoreEntityHandler::process(%1%): not fount spaceCell, killed base(%2%)!")
% cellappID_ % delID);
if(Baseapp::getSingleton().findEntity(delID) == NULL)
iter = entities_.erase(iter);
continue;
}
}
iter++;
}
}
else
{
iter = entities_.erase(iter);
}
}
if(entities_.size() == 0)
{
std::vector<RestoreData>::iterator restoreSpacesIter = otherRestoredSpaces_.begin();
for(; restoreSpacesIter != otherRestoredSpaces_.end(); restoreSpacesIter++)
{
if((*restoreSpacesIter).cell)
{
Py_DECREF((*restoreSpacesIter).cell);
(*restoreSpacesIter).cell = NULL;
}
}
otherRestoredSpaces_.clear();
inProcess_ = false;
Baseapp::getSingleton().onRestoreEntitiesOver(this);
return false;
}
return true;
}