bool Raid::executeRaidEvent(RaidEvent* raidEvent)
{
if(!raidEvent->executeEvent())
return !resetRaid(false);
RaidEvent* newRaidEvent = getNextRaidEvent();
if(!newRaidEvent)
return !resetRaid(false);
nextEvent = Scheduler::getInstance().addEvent(createSchedulerTask(
std::max(RAID_MINTICKS, (int32_t)(newRaidEvent->getDelay() - raidEvent->getDelay())),
boost::bind(&Raid::executeRaidEvent, this, newRaidEvent)));
return true;
}
void Raid::executeRaidEvent(RaidEvent* raidEvent)
{
if (raidEvent->executeEvent()) {
nextEvent++;
RaidEvent* newRaidEvent = getNextRaidEvent();
if (newRaidEvent) {
uint32_t ticks = static_cast<uint32_t>(std::max<int32_t>(RAID_MINTICKS, newRaidEvent->getDelay() - raidEvent->getDelay()));
nextEventEvent = g_scheduler.addEvent(createSchedulerTask(ticks, std::bind(&Raid::executeRaidEvent, this, newRaidEvent)));
} else {
resetRaid();
}
} else {
resetRaid();
}
}
void Raid::executeRaidEvent(RaidEvent* raidEvent)
{
if(raidEvent->executeEvent())
{
nextEvent++;
RaidEvent* newRaidEvent = getNextRaidEvent();
if(newRaidEvent)
{
uint32_t ticks = (uint32_t)std::max(((uint32_t)RAID_MINTICKS), ((int32_t)newRaidEvent->getDelay() - raidEvent->getDelay()));
nextEventEvent = g_scheduler.addEvent(createSchedulerTask(ticks, boost::bind(&Raid::executeRaidEvent, this, newRaidEvent)));
}
else
resetRaid();
}
else
resetRaid();
}
