VOID
OAM_Assert(BOOL32 bVal, const UINT8 *szFile, UINT32 nLine)
{
if(!bVal)
{
WMR_RTL_PRINT((TEXT("[FTL:ERR] OAM_Assert Error [%s:%d]!\r\n"), szFile, nLine));
WMR_RTL_PRINT((TEXT("\n <log P1=\"101\" P2=\"WMROAM\" P3=\"\" P4=\"OAM_Assert()\" P5=\"OAM_Assert Error [%x:%d]\" P6=\"\" P7=\"\" />\n"), szFile, nLine));
while(1);
}
}
VOID
MMT_Assert(BOOL32 bVal, const TCHAR *szFile, UINT32 nLine)
{
if(!bVal)
{
WMR_RTL_PRINT((TEXT("[MMT:ERR] MMT_Assert Error [%s:%d]!\r\n"), szFile, nLine));
WMR_RTL_PRINT((TEXT("\r\n<log P1=\"100\" P2=\"POR\" P3=\"\" P4=\"MMT_Assert(%s:%d)\" />\r\n"), szFile, nLine));
while(1);
}
}
VOID
OAM_Free(VOID *pMem)
{
#ifdef NO_MALLOC // by dodan2 061216
WMR_RTL_PRINT((TEXT("[FTL:ERR] OAM_Free() : NO_MALLOC defined\r\n")));
while(1);
#else
if (pMem != NULL) free(pMem);
#endif
}
VOID
OAM_Assert(BOOL32 bVal, const TCHAR *szFile, UINT32 nLine)
{
if(!bVal)
{
RETAILMSG(TRUE, (_T("[ERR] OAM_Assert Error [%s:%d]!\r\n"), szFile, nLine));
WMR_RTL_PRINT((TEXT("\r\n<log P1=\"100\" P2=\"WinCEWMROAM\" P3=\"\" P4=\"OAM_Assert(%s:%d)\" />\r\n"), szFile, nLine));
while(1);
}
}
VOID *
OAM_Malloc(UINT32 nSize)
{
#ifdef NO_MALLOC // by dodan2 061216
WMR_RTL_PRINT((TEXT("[FTL:ERR] OAM_Malloc() : NO_MALLOC defined\r\n")));
while(1);
#else
// hmseo-061017 start
if (nSize < 64) nSize = 64; /* I don't know.. Why this is needed */
return (void *)malloc(nSize);
// hmseo-061017 end
#endif
}
VOID
OAM_Free(VOID *pMem)
{
#ifdef NO_MALLOC // by dodan2 061216
WMR_RTL_PRINT((TEXT("[FTL:ERR] OAM_Free() : NO_MALLOC defined\r\n")));
while(1);
#else
UINT32 i, j;
UINT32 arraynum;
// RETAILMSG(1, (L"OAM_Free : (UINT32)(pMem)=0x%x \n", (UINT32)(pMem)));
if ( (UINT32)(pMem) != 0xFFFFFFFF )
{
for ( i = 0; i < OSLESS_MALLOC_POOL_SIZE_BY_KB; i ++ )
{
// RETAILMSG(1, (L"OAM_Free : i=%d, memarray[%d].startAddress=0x%x \n", i, i, memarray[i].startAddress));
if ( memarray[i].startAddress == (UINT32)(pMem) )
{
// RETAILMSG(1, (L"OAM_Free : memarray[%d].startAddress=0x%x, memarray[%d].size=0x%x \r\n", i, memarray[i].startAddress, i, memarray[i].size));
// RETAILMSG(1, (L"OAM_Free : memarray[%d].size/1024 = 0x%x \n", i, memarray[i].size/1024));
arraynum = ((UINT32)(pMem) - (UINT32)(&(aMemBuf[0])))/1024;
for ( j = 0; j < memarray[i].size/1024; j++ )
{
// RETAILMSG(1, (L"OAM_Free : j=%d, memAddr[%d]=0x%x \n", j, arraynum, memAddr[arraynum]));
memAddr[arraynum] = FREE;
arraynum++;
}
memarray[i].startAddress = 0;
memarray[i].size = 0;
// RETAILMSG(1, (L"OAM_Free : i=%d \r\n"));
break;
}
}
}
// _OAM_ASSERT(0);
#endif
}
VOID *
OAM_Malloc(UINT32 nSize)
{
#ifdef NO_MALLOC // by dodan2 061216
WMR_RTL_PRINT((TEXT("[FTL:ERR] OAM_Malloc() : NO_MALLOC defined\r\n")));
while(1);
#else
UINT32 nAlignSize;
UINT32 nAlignArrayStart;
UINT32 nAlignArrayNumber;
UINT32 i;
UINT32 j;
// RETAILMSG(1, (L"OAM_Malloc : nSize=0x%x \n", nSize));
if ( firstMemalloc == TRUE )
{
for ( i = 0; i < OSLESS_MALLOC_POOL_SIZE_BY_KB; i++ )
{
memAddr[i] = FREE;
memarray[i].startAddress = 0;
memarray[i].size = 0;
}
firstMemalloc = FALSE;
}
nAlignArrayNumber = nSize/1024+(nSize%1024==0?0:1);
// RETAILMSG(1, (L"OAM_Malloc : nAlignArrayNumber=%d \n", nAlignArrayNumber));
nAlignSize = nAlignArrayNumber*1024;
// RETAILMSG(1, (L"OAM_Malloc : nAlignSize=%d \n", nAlignSize));
for ( i = 0; i < OSLESS_MALLOC_POOL_SIZE_BY_KB; i++ )
{
// RETAILMSG(1, (L"OAM_Malloc : i=%d, memAddr[%d]=0x%x \n", i, i, memAddr[i]));
if ( memAddr[i] == USED ) continue;
for (j = 0; j < nAlignArrayNumber; j++)
{
// RETAILMSG(1, (L"OAM_Malloc : i+j=%d, memAddr[%d]=0x%x \n", i+j, i+j, memAddr[i+j]));
if ( memAddr[i+j] == FREE )
continue;
else
break;
}
// RETAILMSG(1, (L"OAM_Malloc : j=%d, nAlignArrayNumber=%d \n", j, nAlignArrayNumber));
if ( j == nAlignArrayNumber ) // found
{
nAlignArrayStart = i;
nMallocPtr = i*1024/sizeof(UINT32);
break;
}
}
// RETAILMSG(1, (L"OAM_Malloc : nMallocPtr=0x%x \n", nMallocPtr));
// RETAILMSG(1, (L"OAM_Malloc : nAlignArrayStart=0x%x \n", nAlignArrayStart));
// RETAILMSG(1, (L"OAM_Malloc : nAlignArrayNumber=0x%x \n", nAlignArrayNumber));
for ( i = nAlignArrayStart; i < nAlignArrayStart+nAlignArrayNumber; i++ )
{
memAddr[i] = USED;
}
if (nMallocPtr+nAlignSize > WMR_LOCAL_MEM_SIZE*4)
{
RETAILMSG(1, (L"aMemBuf=0x%x\n", &(aMemBuf[0])));
RETAILMSG(1, (L"nAlignSize=0x%x nMallocPtr=0x%x WMR_LOCAL_MEM_SIZE=0x%x\n", nAlignSize, nMallocPtr, WMR_LOCAL_MEM_SIZE));
return NULL;
}
for ( i = 0; i < OSLESS_MALLOC_POOL_SIZE_BY_KB; i ++ )
{
// RETAILMSG(1, (L"OAM_Malloc : memarray[%d].startAddress=0x%x \n", i, memarray[i].startAddress));
if ( memarray[i].startAddress == 0 )
{
memarray[i].startAddress = (UINT32)(&(aMemBuf[nMallocPtr]));
memarray[i].size = nAlignSize;
break;
}
}
// RETAILMSG(1, (L"OAM_Malloc : memarray[%d].startAddress=0x%x \n", i, memarray[i].startAddress));
// RETAILMSG(1, (L"OAM_Malloc : memarray[%d].size=0x%x \r\n", i, memarray[i].size));
// RETAILMSG(1, (L"OAM_Malloc : &(aMemBuf[0x%x])=0x%x \r\n", nMallocPtr, &(aMemBuf[nMallocPtr])));
return (VOID *) &(aMemBuf[nMallocPtr]);
#endif
}
