void FLMAPI f_mutexLock(
F_MUTEX hMutex)
{
F_INTERLOCK * pInterlock = (F_INTERLOCK *)hMutex;
#ifdef FLM_DEBUG
if( pInterlock->locked)
{
f_assert( pInterlock->uiThreadId != _threadid);
}
#endif
while( f_atomicExchange( &pInterlock->locked, 1) != 0)
{
#ifdef FLM_DEBUG
f_atomicInc( &pInterlock->waitCount);
#endif
Sleep( 0);
}
#ifdef FLM_DEBUG
f_assert( pInterlock->uiThreadId == 0);
pInterlock->uiThreadId = _threadid;
f_atomicInc( &pInterlock->lockedCount);
#endif
}
void FLMAPI f_semSignal(
F_SEM hSem)
{
f_atomicInc( &((sema_t *)hSem)->uiSignalCount);
(void)ReleaseSemaphore( ((sema_t *)hSem)->hWinSem, 1, NULL);
}
extern "C" LONG f_nlmEntryPoint(
struct LoadDefinitionStructure * moduleHandle,
struct ScreenStruct * initScreen,
char * commandLine,
char * loadDirectoryPath,
LONG uninitializedDataLength,
LONG fileHandle,
LONG (*ReadRoutine)
(LONG handle,
LONG offset,
char * buffer,
LONG length),
LONG customDataOffset,
LONG customDataSize)
{
char * pszTmp;
char * pszArgStart;
int iArgC;
int iTotalArgChars;
int iArgSize;
char ** ppszArgV = NULL;
char * pszArgs = NULL;
char * pszDestArg;
bool bFirstPass = true;
char cEnd;
ARG_DATA * pArgData = NULL;
LONG sdRet = 0;
char * pszThreadName;
char * pszModuleName;
int iModuleNameLen;
int iThreadNameLen;
int iLoadDirPathSize;
void * hThread = NULL;
(void)initScreen;
(void)uninitializedDataLength;
(void)fileHandle;
(void)ReadRoutine;
(void)customDataOffset;
(void)customDataSize;
if( f_atomicInc( &gv_NetWareStartupCount) != 1)
{
goto Exit;
}
gv_MyModuleHandle = moduleHandle;
gv_bUnloadCalled = FALSE;
// Allocate the needed resource tags
if( (gv_lAllocRTag = AllocateResourceTag( gv_MyModuleHandle,
"FLAIM Memory", AllocSignature)) == NULL)
{
sdRet = 1;
goto Exit;
}
// Syncronized start
if (moduleHandle->LDFlags & 4)
{
gv_lFlmSyncSem = kSemaphoreAlloc( (BYTE *)"FLAIM_SYNC", 0);
}
// Initialize NSS
if( RC_BAD( f_nssInitialize()))
{
sdRet = 1;
goto Exit;
}
pszModuleName = (char *)(&moduleHandle->LDFileName[ 1]);
iModuleNameLen = (int)(moduleHandle->LDFileName[ 0]);
// First pass: Count the arguments in the command line
// and determine how big of a buffer we will need.
// Second pass: Put argments into allocated buffer.
Parse_Args:
iTotalArgChars = 0;
iArgC = 0;
iLoadDirPathSize = f_strlen( (const char *)loadDirectoryPath);
iArgSize = iLoadDirPathSize + iModuleNameLen;
if( !bFirstPass)
{
ppszArgV[ iArgC] = pszDestArg;
f_memcpy( pszDestArg, loadDirectoryPath, iLoadDirPathSize);
f_memcpy( &pszDestArg[ iLoadDirPathSize], pszModuleName, iModuleNameLen);
pszDestArg[ iArgSize] = 0;
pszDestArg += (iArgSize + 1);
}
iArgC++;
iTotalArgChars += iArgSize;
pszTmp = commandLine;
for (;;)
{
// Skip leading blanks.
while( *pszTmp && *pszTmp == ' ')
{
pszTmp++;
}
if( *pszTmp == 0)
{
break;
}
if( *pszTmp == '"' || *pszTmp == '\'')
{
cEnd = *pszTmp;
pszTmp++;
}
else
{
cEnd = ' ';
}
pszArgStart = pszTmp;
iArgSize = 0;
// Count the characters in the parameter.
while( *pszTmp && *pszTmp != cEnd)
{
iArgSize++;
pszTmp++;
}
if( !iArgSize && cEnd == ' ')
{
break;
}
// If 2nd pass, save the argument.
if( !bFirstPass)
{
ppszArgV[ iArgC] = pszDestArg;
if( iArgSize)
{
f_memcpy( pszDestArg, pszArgStart, iArgSize);
}
pszDestArg[ iArgSize] = 0;
pszDestArg += (iArgSize + 1);
}
iArgC++;
iTotalArgChars += iArgSize;
// Skip trailing quote or blank.
if( *pszTmp)
{
pszTmp++;
}
}
if( bFirstPass)
{
if ((ppszArgV = (char **)Alloc( sizeof( char *) * iArgC,
gv_lAllocRTag)) == NULL)
{
sdRet = 1;
goto Exit;
}
if( (pszArgs = (char *)Alloc( iTotalArgChars + iArgC,
gv_lAllocRTag)) == NULL)
{
sdRet = 1;
goto Exit;
}
pszDestArg = pszArgs;
bFirstPass = false;
goto Parse_Args;
}
iThreadNameLen = (int)(moduleHandle->LDName[ 0]);
if( (pszThreadName = (char *)Alloc( iThreadNameLen + 1, gv_lAllocRTag)) == NULL)
{
sdRet = 1;
goto Exit;
}
f_memcpy( pszThreadName, (char *)(&moduleHandle->LDName[ 1]), iThreadNameLen);
pszThreadName[ iThreadNameLen] = 0;
if( (pArgData = (ARG_DATA *)Alloc( sizeof( ARG_DATA),
gv_lAllocRTag)) == NULL)
{
sdRet = 1;
goto Exit;
}
pArgData->ppszArgV = ppszArgV;
pArgData->pszArgs = pszArgs;
pArgData->iArgC = iArgC;
pArgData->moduleHandle = moduleHandle;
pArgData->pszThreadName = pszThreadName;
gv_bMainRunning = TRUE;
if( (hThread = kCreateThread( (BYTE *)"FTK main",
f_nlmMainStub, NULL, 32768, (void *)pArgData)) == NULL)
{
gv_bMainRunning = FALSE;
sdRet = 2;
goto Exit;
}
if( kSetThreadLoadHandle( hThread, (LONG)moduleHandle) != 0)
{
(void)kDestroyThread( hThread);
gv_bMainRunning = FALSE;
sdRet = 2;
goto Exit;
}
if( kScheduleThread( hThread) != 0)
{
(void)kDestroyThread( hThread);
gv_bMainRunning = FALSE;
sdRet = 2;
goto Exit;
}
// Synchronized start
if( moduleHandle->LDFlags & 4)
{
(void)kSemaphoreWait( gv_lFlmSyncSem);
}
Exit:
if( sdRet != 0)
{
f_atomicDec( &gv_NetWareStartupCount);
if( ppszArgV)
{
Free( ppszArgV);
}
if( pszArgs)
{
Free( pszArgs);
}
if( pszThreadName)
{
Free( pszThreadName);
}
if( pArgData)
{
Free( pArgData);
}
if( gv_lFlmSyncSem)
{
kSemaphoreFree( gv_lFlmSyncSem);
gv_lFlmSyncSem = 0;
}
if( !gv_bUnloadCalled)
{
KillMe( moduleHandle);
}
}
return( sdRet);
}
/******************************************************************************
Desc:
******************************************************************************/
void LockModule(void)
{
f_atomicInc( &gv_lockCount);
}
FLMINT FTKAPI AddRef( void)
{
return( f_atomicInc( &m_refCnt));
}