smartservice_native/hdssd/huslib/Timer.cpp

#include "Common.h"
#include "Object.h"
#include "Thread.h"
#include "Timer.h"


HTimer g_timerGlobal;



HTimer::HTimer()
	: HThread(false, 1024 * 128)	// default stack size : 128kb
{
	m_bThreadStarted = false;
	m_bTerminate = false;

	struct tm * tmTmp;
	struct timeb tTimeb;

	ftime(&tTimeb);
	tmTmp = localtime(&tTimeb.time);

	m_systemTime.wYear = tmTmp->tm_year + 1900;
	m_systemTime.wMonth = tmTmp->tm_mon + 1;
	m_systemTime.wDay = tmTmp->tm_mday;
	m_systemTime.wHour = tmTmp->tm_hour;
	m_systemTime.wMinute = tmTmp->tm_min;
	m_systemTime.wSecond = tmTmp->tm_sec;
	m_systemTime.wMilliseconds = tTimeb.millitm;

	m_nTickCount = ::GetTickCount();


	Begin();	// start timer thread

	while (m_bThreadStarted == false)	// wait for thread started
		Sleep(10);
}

HTimer::~HTimer()
{
	RemoveAllTimer();
}

void HTimer::GetSystemTime(PSYSTEMTIME pSystemTime)
{
#ifndef SINGLE_THREADED_MODEL
	m_syncSystemTime.Lock();
#endif
	memcpy(pSystemTime, (void *)&m_systemTime, sizeof(SYSTEMTIME));

#ifndef SINGLE_THREADED_MODEL
	m_syncSystemTime.Unlock();
#endif
}

bool HTimer::SetTimer(unsigned int nTimerID, unsigned int nElapse, void (*fnCallBack)(unsigned int, void *), void * pParam)
{
	struct HTimerObject * pTimerObject = new struct HTimerObject;
	pTimerObject->nTimerID = nTimerID;
	pTimerObject->nElapse = nElapse;
	pTimerObject->dwLastCheckTime = m_nTickCount;
	pTimerObject->bDelete = false;
	pTimerObject->fnOnTimerCallBack = fnCallBack;
	pTimerObject->pOnTimerCallBackParam = pParam;

#ifndef SINGLE_THREADED_MODEL
//	m_sync.Lock();
#endif

	m_listTimer.push_front(pTimerObject);

#ifndef SINGLE_THREADED_MODEL
//	m_sync.Unlock();
#endif

	return true;
}

bool HTimer::KillTimer(unsigned int nTimerID)
{
	struct HTimerObject * pTimerObject;

#ifndef SINGLE_THREADED_MODEL
//	m_sync.Lock();
#endif
	
	for(LIST_TIMER_OBJECT::iterator iter = m_listTimer.begin();
		iter != m_listTimer.end(); iter++)
	{
		pTimerObject = *iter;
		if (pTimerObject->nTimerID == nTimerID)
		{
#if 0
			delete pTimerObject;
			m_listTimer.erase(iter);
#else
			pTimerObject->bDelete = true;
#endif

#ifndef SINGLE_THREADED_MODEL
//			m_sync.Unlock();
#endif
			return true;
		}
	}

#ifndef SINGLE_THREADED_MODEL
//	m_sync.Unlock();
#endif

	return false;
}

void HTimer::RemoveAllTimer()
{
#ifndef SINGLE_THREADED_MODEL
//	m_sync.Lock();
#endif

	struct HTimerObject * pTimerObject;
	
	for(LIST_TIMER_OBJECT::iterator iter = m_listTimer.begin();
		iter != m_listTimer.end(); iter++)
	{
		pTimerObject = *iter;
		delete pTimerObject;
	}
	m_listTimer.clear();

#ifndef SINGLE_THREADED_MODEL
//	m_sync.Unlock();
#endif
}

void HTimer::Main()
{
	m_bThreadStarted = true;

	struct tm * tmTmp;
	struct timeb tTimeb;

	struct HTimerObject * pTimerObject;

	while (m_bTerminate == false)
	{
		Sleep(HTIMER_INTERVAL_TIME);

#ifndef SINGLE_THREADED_MODEL
//		m_sync.Lock();
#endif

		for(LIST_TIMER_OBJECT::iterator iter = m_listTimer.begin();
			iter != m_listTimer.end(); iter++)
		{
			pTimerObject = *iter;

			if (pTimerObject->bDelete)
			{
				delete pTimerObject;
				iter = m_listTimer.erase(iter);
				if (iter == m_listTimer.end())
					break;
			}
			else if (pTimerObject->nElapse <= TimeDiff(pTimerObject->dwLastCheckTime, m_nTickCount))
			{
				if (pTimerObject->fnOnTimerCallBack)
					pTimerObject->fnOnTimerCallBack(pTimerObject->nTimerID, pTimerObject->pOnTimerCallBackParam);

				pTimerObject->dwLastCheckTime = m_nTickCount;
			}
		}

#ifndef SINGLE_THREADED_MODEL
//		m_sync.Unlock();
#endif

		ftime(&tTimeb);
		tmTmp = localtime(&tTimeb.time);

#ifndef SINGLE_THREADED_MODEL
		m_syncSystemTime.Lock();
#endif

		m_systemTime.wYear = tmTmp->tm_year + 1900;
		m_systemTime.wMonth = tmTmp->tm_mon + 1;
		m_systemTime.wDay = tmTmp->tm_mday;
		m_systemTime.wHour = tmTmp->tm_hour;
		m_systemTime.wMinute = tmTmp->tm_min;
		m_systemTime.wSecond = tmTmp->tm_sec;
		m_systemTime.wMilliseconds = tTimeb.millitm;

#ifndef SINGLE_THREADED_MODEL
		m_syncSystemTime.Unlock();
#endif

		m_nTickCount = ::GetTickCount();
	}
}