MatahariObject*
ObjectManagerImpl::find(const qmf::DataAddr& addr)
{
ObjectMap::const_iterator it(_objects.find(addr));
return it != _objects.end() ? it->second : NULL;
}
void ParallelCollector::finish(const ObjectMap& data) {
IceUtil::Monitor<IceUtil::Mutex>::Lock lock(*this);
if (_done) {
return;
}
_result.insert(data.begin(), data.end());
if (--_count <= 0) {
notify();
}
}
void SetNativePopulationValues(ObjectMap& object_map) {
for (ObjectMap::iterator<> it = object_map.begin(); it != object_map.end(); ++it) {
Meter* meter = it->GetMeter(METER_POPULATION);
Meter* targetmax_meter = it->GetMeter(METER_TARGET_POPULATION);
// only applies to unowned planets
if (meter && targetmax_meter && it->Unowned()) {
double r = RandZeroToOne();
double factor = (0.1 < r) ? r : 0.1;
meter->SetCurrent(targetmax_meter->Current() * factor);
}
}
}
void AdapterI::add(Ice::Int category, const ObjectMap& os) {
if (_cluster <= 0) {
locate(0)->addObjects(category, os);
} else {
map<int, ObjectMap> targets;
for (ObjectMap::const_iterator it = os.begin(); it != os.end(); ++it) {
targets[abs(it->first) % _cluster][it->first] = it->second;
}
for (map<int, ObjectMap>::iterator it = targets.begin(); it
!= targets.end(); ++it) {
locate(it->first)->addObjects(category, it->second);
}
}
}
/*
void GameMan::Unselect(List* objectList)
{
}
*/
void GameMan::Update(float dt)
{
for(ObjectTypeMap::const_iterator objTypeMap = m_objects.begin(); objTypeMap != m_objects.end(); objTypeMap++)
{
ObjectMap ObjMap = (*objTypeMap).second;
std::stack<uint32_t> eraseStack;
for(ObjectMap::const_iterator objMap = ObjMap.begin(); objMap != ObjMap.end(); objMap++)
{
ObjectPtr object = objMap->second;
if (object->clearObject())
eraseStack.push(objMap->first);
else
object->update(dt);
}
while(!eraseStack.empty())
{
ObjMap.erase(eraseStack.top());
eraseStack.pop();
}
}
}
void ObjectRetention::add(const ObjectMap& servants) {
ObjectMap dataChunk[_chunkSize];
for (ObjectMap::const_iterator it = servants.begin(); it != servants.end(); ++it)
{
dataChunk[it->first % _chunkSize].insert(make_pair(it->first, it->second));
}
int iRandom = rand() % (int)_chunkSize;
for(int i =iRandom; i < (int)_chunkSize + iRandom; ++i )
{
int j = i % _chunkSize;
if(dataChunk[j].size()>0)
{
_chunks.at(j % _chunkSize)->retention->add(dataChunk[j]);
}
}
}
void SetActiveMetersToTargetMaxCurrentValues(ObjectMap& object_map) {
std::map<MeterType, MeterType> meters;
meters[METER_POPULATION] = METER_TARGET_POPULATION;
meters[METER_INDUSTRY] = METER_TARGET_INDUSTRY;
meters[METER_RESEARCH] = METER_TARGET_RESEARCH;
meters[METER_TRADE] = METER_TARGET_TRADE;
meters[METER_CONSTRUCTION] = METER_TARGET_CONSTRUCTION;
meters[METER_HAPPINESS] = METER_TARGET_HAPPINESS;
meters[METER_FUEL] = METER_MAX_FUEL;
meters[METER_SHIELD] = METER_MAX_SHIELD;
meters[METER_STRUCTURE] = METER_MAX_STRUCTURE;
meters[METER_DEFENSE] = METER_MAX_DEFENSE;
meters[METER_TROOPS] = METER_MAX_TROOPS;
meters[METER_SUPPLY] = METER_MAX_SUPPLY;
// check for each pair of meter types. if both exist, set active
// meter current value equal to target meter current value.
for (ObjectMap::iterator<> it = object_map.begin(); it != object_map.end(); ++it) {
for (std::map<MeterType, MeterType>::const_iterator meter_it = meters.begin(); meter_it != meters.end(); ++meter_it)
if (Meter* meter = it->GetMeter(meter_it->first))
if (Meter* targetmax_meter = it->GetMeter(meter_it->second))
meter->SetCurrent(targetmax_meter->Current());
}
}
void ObjectEvictor::add(const ObjectMap& servants) {
for (ObjectMap::const_iterator it = servants.begin(); it != servants.end(); ++it) {
_chunks.at(it->first % _chunkSize)->evictor->add(it->second, it->first);
}
}
