CPhyMem::CPhyMem()
{
bool bResult;
char *sm="_SM_";
for(int i=0;i<4;i++)
type[i]=NULL;
paddress=(DWORD)0x000d0000; // Real Physical Address
if(LocateNtdllEntryPoints()) {
//printf("CPhyMem::CPhyMem()\n");
bResult=CopyDmiMemory((PBYTE)buf,paddress,bsize);
ii=MemSearch((PBYTE)sm,4,(PBYTE)buf,(PBYTE)(buf+bsize-1));
unsigned int *tableaddress=(unsigned int *)(ii+0x18);
//printf("CPhyMem::CPhyMem() - base = %08X, len = %d, num = %d, length = %d, addr = %08X\n",tableaddress, (*(unsigned short*)(ii+0x16)), (*(unsigned short*)(ii+0x1C)), (*(unsigned char*)(ii+0x19)), (*(unsigned long*)(ii+0x18)));
// bResult=CopyDmiMemory((PBYTE)buf,(PBYTE)(*tableaddress),bsize);
// bResult=CopyDmiMemory((PBYTE)buf,(PBYTE)0xf5a60,1024*64);
// type[0]=(PBYTE)buf;
if(*tableaddress-0x000d0000 < bsize && *tableaddress-0x000d0000>=0) // prevent invalid pointer
{
type[0]=(PBYTE)buf+(*tableaddress-0x000d0000);
PBYTE p=type[0]+*(type[0]+1);
for(i=1;i<4;i++)
{
while(1)
{
p++;
if((*p==0)&&(*(p+1)==0)&&*(p+2)==i)
break;
}
type[i]=p+2;
p=type[i]+*(type[i]+1);
}
}
}
}
void ComputeParams(sParams* PB, item* memList, int32 value, int32 nbVal ) {
static int32 startAddress = 0;
static int32 shift = 0;
int32 size;
int32 size1;
int32 size2;
bool isRead;
bool isSeq;
printf("Generates %d.%d with param %d\n", PB->microBenchID, PB->expID, value);
if (strcasecmp(PB->base, "SR") == 0) {
PB->ignoreIO = PB->ignoreIOSR;
PB->IOCount = PB->IOCountSR;
isSeq = TRUE;
isRead = TRUE;
}
if (strcasecmp(PB->base, "SW") == 0) {
PB->ignoreIO = PB->ignoreIORR;
PB->IOCount = PB->IOCountRR;
isSeq = TRUE;
isRead = FALSE;
}
if (strcasecmp(PB->base, "RR") == 0) {
PB->ignoreIO = PB->ignoreIOSW;
PB->IOCount = PB->IOCountSW;
isSeq = FALSE;
isRead = TRUE;
}
if (strcasecmp(PB->base, "RW") == 0) {
PB->ignoreIO = PB->ignoreIORW;
PB->IOCount = PB->IOCountRW;
isSeq = FALSE;
isRead = FALSE;
}
PB->targetSize = PB->deviceSize; // Default value for target size
if (PB->microBenchID == GRA) PB->IOSize = value;
if (PB->microBenchID == ALI) PB->IOShift = value;
if (PB->microBenchID == LOC) PB->targetSize = value * PB->IOSize ;
if (PB->microBenchID == PAT) PB->nbPartition = value;
if (PB->microBenchID == ORD) PB->order = value;
if (PB->microBenchID == PAR) PB->parDeg = value;
if (PB->microBenchID == MIX) PB->ratio = value;
if (PB->microBenchID == PIO) PB->pauseIO = value;
if (PB->microBenchID == PBU) PB->burstIO = value;
// Number of sectors potentially touched by the experiment
size = PB->IOSize * PB->IOCount;
if (PB->IOShift != 0) size += PB->IOSize;
if (PB->microBenchID == LOC) size = PB->targetSize;
if (PB->microBenchID == ORD) size = PB->IOSize * abs(PB->order)* PB->IOCount;
// 1-GRANULARITY , 2-ALIGNMENT, 8-PAUSE, 9-BURST
if ((PB->microBenchID == GRA) || (PB->microBenchID == ALI)||
(PB->microBenchID == PIO)|| (PB->microBenchID == PBU)) {
if (isSeq == FALSE)
PB->targetOffset = 0;
else if (isRead == TRUE) {
PB->targetOffset = rg.IRandom(0,(int32)((PB->targetSize - size)/BLOCK))*BLOCK;
PB->targetSize = size;
}
else {
PB->targetOffset = MemSearch(memList, size);
PB->targetSize = size;
}
}
// 3-LOCALITY
else if (PB->microBenchID == LOC) {
if ((isRead == TRUE) || (value > 1024))
PB->targetOffset = rg.IRandom(0,(int32)((PB->deviceSize - size)/BLOCK))*BLOCK;
else {
PB->targetOffset = MemSearch(memList, size);
//printf("==>%d %d\n",size, PB->targetOffset );
}
}
// 07-MIX
else if (PB->microBenchID == MIX) {
int32 I1, I2, C1, C2;
I1 = PB->ignoreIO;
C1 = PB->IOCount;
if (strcasecmp(PB->base2, "SR") == 0) {
I2 = PB->ignoreIOSR;
C2 = PB->IOCountSR;
}
if (strcasecmp(PB->base2, "SW") == 0) {
I2 = PB->ignoreIOSW;
C2 = PB->IOCountSW;
}
if (strcasecmp(PB->base2, "RR") == 0) {
I2 = PB->ignoreIORR;
C2 = PB->IOCountRR;
}
if (strcasecmp(PB->base2, "RW") == 0) {
I2 = PB->ignoreIORW;
C2 = PB->IOCountRW;
}
if (PB->ratio < 0) {
PB->ignoreIO = max(I1 + (I1-1)*(-PB->ratio) + 1, I2 * (-PB->ratio + 1)/(-PB->ratio) + 1);
PB->IOCount = max(C1-I1, C2-I2) + PB->ignoreIO;
size1 = PB->IOSize * (1+ (int32)(PB->IOCount/(-PB->ratio + 1)));
size2 = PB->IOSize * (1+ (int32)((PB->IOCount/(-PB->ratio + 1)) * (-PB->ratio)));
}
else if (PB->ratio > 0) {
PB->ignoreIO = max(I2 + (I2-1) * PB->ratio + 1, (I1 * (PB->ratio + 1)/PB->ratio) + 1);
PB->IOCount = max(C1-I1, C2-I2) + PB->ignoreIO;
size1 = PB->IOSize * (1+ (int32)(PB->IOCount/(PB->ratio + 1)));
size2 = PB->IOSize * (1+ (int32)((PB->IOCount/(PB->ratio + 1)) * (PB->ratio)));
}
else {
PB->ignoreIO = I2;
PB->IOCount = C2;
size1 = 0;
size2 = PB->IOSize * PB->IOCount;
}
if (((strcasecmp(PB->base, "SR") == 0) && (strcasecmp(PB->base2, "RR") == 0)) ||
((strcasecmp(PB->base, "SR") == 0) && (strcasecmp(PB->base2, "RW") == 0))) {
PB->targetSize = size1;
PB->targetOffset = rg.IRandom(0,(int32)((PB->deviceSize - size1)/BLOCK))*BLOCK;
PB->targetOffset2 = 0;
PB->targetSize2 = PB->deviceSize;
}
if ((strcasecmp(PB->base, "RR") == 0) && (strcasecmp(PB->base2, "RW") == 0)) {
PB->targetSize = PB->deviceSize;
PB->targetOffset = 0;
PB->targetOffset2 = 0;
PB->targetSize2 = PB->deviceSize;
}
if ((strcasecmp(PB->base, "RR") == 0) && (strcasecmp(PB->base2, "SW") == 0)) {
PB->targetOffset2 = MemSearch(memList, size2);
PB->targetSize2 = size2;
PB->targetOffset = MemMinAddress(memList);
PB->targetSize = PB->deviceSize - PB->targetOffset;
}
if ((strcasecmp(PB->base, "SW") == 0) && (strcasecmp(PB->base2, "RW") == 0)) {
PB->targetOffset = MemSearch(memList, size1);
PB->targetSize = size1;
PB->targetOffset2 = MemMinAddress(memList);
PB->targetSize2 = PB->deviceSize - PB->targetOffset2;
}
if ((strcasecmp(PB->base, "SR") == 0) && (strcasecmp(PB->base2, "SW") == 0)) {
PB->targetOffset2 = MemSearch(memList, size2);
PB->targetSize2 = size2;
PB->targetOffset = rg.IRandom((int32)((PB->deviceSize - MemMinAddress(memList))/2)/BLOCK,(int32)((PB->deviceSize - size1)/BLOCK))*BLOCK;
PB->targetSize = size1;
}
}
// 6-PARALLELISM
else if (PB->microBenchID == PAR) {
PB->targetSize = ((int32)((PB->deviceSize / PB->parDeg)/BLOCK))*BLOCK;
if (isSeq == FALSE)
PB->targetOffset = PB->processID * PB->targetSize;
else if (isRead == TRUE) {
PB->targetOffset = rg.IRandom((PB->processID * PB->targetSize)/BLOCK,
((PB->processID + 1) * PB->targetSize - size)/BLOCK) * BLOCK;
PB->targetSize = size;
}
else { // SEQUENTIAL WRITE..... // CAUTION : PARALLEL EXPERIMENT MUST BE AFTER PARTITIONING
PB->targetSize = (PB->deviceSize - startAddress) / PB->parDeg;
if (PB->targetSize < size) HandleError("ComputeParam", "device too small", 0, ERR_ABORT);
PB->targetOffset = MemAllocNearestAfterA(memList, (PB->processID) * PB->targetSize + startAddress, size);
PB->targetSize = size;
}
}
// 4-PARTITIONING
else if (PB->microBenchID == PAT) {
if ((isRead == TRUE) || (PB->nbPartition > 16)) {
PB->targetOffset = 0;
PB->targetSize = ((int32) (PB->deviceSize/(MAX_PARTITIONS * BLOCK))) * MAX_PARTITIONS * BLOCK;
}
else { // SEQUENTIAL WRITE..... // CAUTION : PARTITIONNING EXPERIMENT MUST BE THE FIRST ...
if (startAddress == 0)
startAddress = MemMinAddress(memList);
if ((size % (16*BLOCK)) != 0)
size = ((int32) (size / (16*BLOCK)) + 1 ) * (16 * BLOCK);
PB->targetSize = PB->deviceSize - startAddress - size * nbVal * PB->nbRun;
PB->targetSize = (int32) (PB->targetSize/ (16 * BLOCK)) * (16 * BLOCK);
if (PB->targetSize < size) HandleError("ComputeParam", "device too small", 0, ERR_ABORT);
PB->targetOffset = startAddress + shift;
for (int32 k = 0; k < PB->nbPartition; ++k) {
long temp;
temp = MemAlloc(memList, PB->targetOffset + k * PB->targetSize/PB->nbPartition,
PB->targetOffset + k * PB->targetSize/PB->nbPartition + size/PB->nbPartition);
}
shift = shift + size/PB->nbPartition;
}
}
// 5-ORDER
else if (PB->microBenchID == ORD) {
size = PB->IOSize * PB->IOCount * PB->order;
if (size == 0) size = BLOCK;
PB->targetSize = abs(size);
if (isRead == TRUE) {
PB->targetOffset = rg.IRandom(0,(int32)((PB->deviceSize - PB->targetSize)/BLOCK))*BLOCK;
if (size < 0)
PB->targetOffset = PB->deviceSize - PB->targetOffset;
}
else {
PB->targetOffset = MemSearch(memList, abs(size));
if (PB->targetOffset == INT32_MAX) {
PB->targetOffset = rg.IRandom(0,(int32)((PB->deviceSize - abs(size))/BLOCK))*BLOCK;
PB->warning = DEVICE_TOO_SMALL;
OutputString(OUT_LOG, "DEVICE TOO SMALL \n");
}
if (size <0)
PB->targetOffset = PB->targetOffset - size;
}
}
if (PB->targetOffset == INT32_MAX) HandleError("ComputeParam", "device too small", 0, ERR_ABORT);
if ((PB->order >= 0) && (PB->targetOffset + PB->targetSize > PB->deviceSize)) {
char st[MAX_STR];
sprintf(st, "Adjusting TargetSize (TO = %d, TS = %d DS = %d\n", PB->targetOffset, PB->targetSize, PB->deviceSize);
PB->targetSize = PB->deviceSize - PB->targetOffset;
PB->warning = PB->warning | TEST_EXCEED_DEVICE;
OutputString(OUT_LOG, st);
}
if ((PB->order < 0) && (PB->targetOffset - PB->targetSize < 0)) {
char st[MAX_STR];
sprintf(st, "Adjusting TargetSize Reverse Order (TO = %d, TS = %d DS = %d\n", PB->targetOffset, PB->targetSize, PB->deviceSize); PB->targetSize = PB->targetOffset;
PB->warning = PB->warning | TEST_EXCEED_DEVICE;
OutputString(OUT_LOG, st);
}
}
/**
* @brief Computes Params
*
* The difficulty here is to acomodate all the benchmark runs into the memory available
* on the device without having to "reformat" it.\n
* Allocation is based on the assumption that benchmark runs are done in a given order:
* -# read only benchmark (do not modify the "state" of the flash (Exp. 1 to 15)
* -# random writes (on the whole device) ==> modify slightly, but randomly the state (Exp. 16-22)
* -# Sequential writes on focused areas ==> modify the state, but the focus moves\n
* ==> the memory is "consumed" sequentially. If no more memory is available warning
* DEVICE_TOO_SMALL is set and the offset is chosen randomly (thus the test is not ok)
* -# Mix patterns SR/SW, RR/SW, SW/RW
* -# parallelism and partitionned patterns (Exp. 32 & 33)==> Memory is allocated in the
* remaining part of the device. Tuning of IOCount and experiments should be done to fit
* in the device.
* -# Ordered patterns (Exp. 34): when the experiment is "focused" (small gaps), we do as
* with sequential up to the point where there is no place. Then, it is random.
*
* Memory allocation is done thanks to the blocAlloc module.
*
* @param PB a pointer to a structure containing benchmark parameters for this session
* @param memList a pointer to a list of free areas on the device
* @param value the value of the parameter used for the generation
* @param nbVal number of values
*/
static void
ComputeParams (UflipParams *PB,
item *memList,
int32_t value,
int32_t nbVal)
{
static int32_t startAddress = 0;
static int32_t shift = 0;
int32_t size;
bool isRead = false;
bool isSeq = false;
printf ("Generates %d.%d with param %d\n", PB->microBenchID, PB->expID, value);
if (strcasecmp (PB->base, "SR") == 0)
{
PB->ignoreIO = PB->ignoreIOSR;
PB->IOCount = PB->IOCountSR;
isSeq = true;
isRead = true;
}
else if (strcasecmp (PB->base, "SW") == 0)
{
PB->ignoreIO = PB->ignoreIORR;
PB->IOCount = PB->IOCountRR;
isSeq = true;
isRead = false;
}
else if (strcasecmp (PB->base, "RR") == 0)
{
PB->ignoreIO = PB->ignoreIOSW;
PB->IOCount = PB->IOCountSW;
isSeq = false;
isRead = true;
}
else if (strcasecmp (PB->base, "RW") == 0)
{
PB->ignoreIO = PB->ignoreIORW;
PB->IOCount = PB->IOCountRW;
isSeq = false;
isRead = false;
}
PB->targetSize = PB->deviceSize; /* Default value for target size */
switch (PB->microBenchID)
{
case GRA:
PB->IOSize = value;
break;
case ALI:
PB->IOShift = value;
break;
case LOC:
PB->targetSize = value * PB->IOSize;
break;
case PAT:
PB->nbPartition = value;
break;
case ORD:
PB->order = value;
break;
case PAR:
PB->parDeg = value;
break;
case MIX:
PB->ratio = value;
break;
case PIO:
PB->pauseIO = value;
break;
case PBU:
PB->burstIO = value;
break;
default:
/* nothing to do */
break;
}
/* Number of sectors potentially touched by the experiment */
size = PB->IOSize * PB->IOCount;
if (PB->IOShift != 0)
size += PB->IOSize;
switch (PB->microBenchID)
{
case LOC:
/* 3-LOCALITY */
size = PB->targetSize;
if ((isRead == true) || (value > 1024))
{
PB->targetOffset = uflip_random_get_int (rg, 0, (int32_t) ((PB->deviceSize - size) / BLOCK)) * BLOCK;
}
else
{
PB->targetOffset = MemSearch (memList, size);
/*printf ("==>%d %d\n",size, PB->targetOffset);*/
}
break;
case ORD:
/* 5-ORDER */
size = PB->IOSize * abs (PB->order) * PB->IOCount; /*XXX: wtf? */
size = PB->IOSize * PB->IOCount * PB->order;
if (size == 0)
size = BLOCK;
PB->targetSize = abs (size);
if (isRead == true)
{
PB->targetOffset = uflip_random_get_int (rg, 0, (int32_t) ((PB->deviceSize - PB->targetSize) / BLOCK)) * BLOCK;
if (size < 0)
PB->targetOffset = PB->deviceSize - PB->targetOffset;
}
else
{
PB->targetOffset = MemSearch (memList, abs(size));
if (PB->targetOffset == INT32_MAX)
{
PB->targetOffset = uflip_random_get_int (rg, 0, (int32_t) ((PB->deviceSize - abs (size))/BLOCK)) * BLOCK;
PB->warning = DEVICE_TOO_SMALL;
OutputString (OUT_LOG, "DEVICE TOO SMALL \n");
}
if (size < 0)
PB->targetOffset = PB->targetOffset - size;
}
break;
case GRA:
case ALI:
case PIO:
case PBU:
/* 1-GRANULARITY , 2-ALIGNMENT, 8-PAUSE, 9-BURST */
if (isSeq == false)
{
PB->targetOffset = 0;
}
else if (isRead == true)
{
PB->targetOffset = uflip_random_get_int (rg, 0, (int32_t) ((PB->targetSize - size) / BLOCK)) * BLOCK;
PB->targetSize = size;
}
else
{
PB->targetOffset = MemSearch (memList, size);
PB->targetSize = size;
}
break;
case MIX:
/* 07-MIX */
{
int32_t I1 = PB->ignoreIO;
int32_t I2 = 0;
int32_t C1 = PB->IOCount;
int32_t C2 = 0;
int32_t size1;
int32_t size2;
if (strcasecmp (PB->base2, "SR") == 0)
{
I2 = PB->ignoreIOSR;
C2 = PB->IOCountSR;
}
else if (strcasecmp (PB->base2, "SW") == 0)
{
I2 = PB->ignoreIOSW;
C2 = PB->IOCountSW;
}
else if (strcasecmp (PB->base2, "RR") == 0)
{
I2 = PB->ignoreIORR;
C2 = PB->IOCountRR;
}
else if (strcasecmp (PB->base2, "RW") == 0)
{
I2 = PB->ignoreIORW;
C2 = PB->IOCountRW;
}
if (PB->ratio < 0)
{
PB->ignoreIO = max (I1 + (I1 - 1) * (-PB->ratio) + 1, I2 * (-PB->ratio + 1) / (-PB->ratio) + 1);
PB->IOCount = max (C1 - I1, C2 - I2) + PB->ignoreIO;
size1 = PB->IOSize * (1 + (int32_t) (PB->IOCount / (-PB->ratio + 1)));
size2 = PB->IOSize * (1 + (int32_t) ((PB->IOCount / (-PB->ratio + 1)) * (-PB->ratio)));
}
else if (PB->ratio > 0)
{
PB->ignoreIO = max (I2 + (I2 - 1) * PB->ratio + 1, (I1 * (PB->ratio + 1) / PB->ratio) + 1);
PB->IOCount = max (C1 - I1, C2 - I2) + PB->ignoreIO;
size1 = PB->IOSize * (1 + (int32_t)(PB->IOCount / (PB->ratio + 1)));
size2 = PB->IOSize * (1 + (int32_t)((PB->IOCount / (PB->ratio + 1)) * (PB->ratio)));
}
else
{
PB->ignoreIO = I2;
PB->IOCount = C2;
size1 = 0;
size2 = PB->IOSize * PB->IOCount;
}
if (((strcasecmp (PB->base, "SR") == 0) && (strcasecmp (PB->base2, "RR") == 0)) ||
((strcasecmp (PB->base, "SR") == 0) && (strcasecmp (PB->base2, "RW") == 0)))
{
PB->targetSize = size1;
PB->targetOffset = uflip_random_get_int (rg, 0, (int32_t) ((PB->deviceSize - size1) / BLOCK)) * BLOCK;
PB->targetOffset2 = 0;
PB->targetSize2 = PB->deviceSize;
}
else if ((strcasecmp (PB->base, "RR") == 0) && (strcasecmp (PB->base2, "RW") == 0))
{
PB->targetSize = PB->deviceSize;
PB->targetOffset = 0;
PB->targetOffset2 = 0;
PB->targetSize2 = PB->deviceSize;
}
else if ((strcasecmp (PB->base, "RR") == 0) && (strcasecmp (PB->base2, "SW") == 0))
{
PB->targetOffset2 = MemSearch (memList, size2);
PB->targetSize2 = size2;
PB->targetOffset = MemMinAddress (memList);
PB->targetSize = PB->deviceSize - PB->targetOffset;
}
else if ((strcasecmp (PB->base, "SW") == 0) && (strcasecmp (PB->base2, "RW") == 0))
{
PB->targetOffset = MemSearch (memList, size1);
PB->targetSize = size1;
PB->targetOffset2 = MemMinAddress (memList);
PB->targetSize2 = PB->deviceSize - PB->targetOffset2;
}
else if ((strcasecmp (PB->base, "SR") == 0) && (strcasecmp (PB->base2, "SW") == 0))
{
PB->targetOffset2 = MemSearch (memList, size2);
PB->targetSize2 = size2;
PB->targetOffset = uflip_random_get_int (rg, (int32_t) ((PB->deviceSize - MemMinAddress (memList)) / 2) / BLOCK, (int32_t) ((PB->deviceSize - size1) / BLOCK)) * BLOCK;
PB->targetSize = size1;
}
}
break;
case PAR:
/* 6-PARALLELISM */
PB->targetSize = ((int32_t) ((PB->deviceSize / PB->parDeg) / BLOCK)) * BLOCK;
if (isSeq == false)
{
PB->targetOffset = PB->processID * PB->targetSize;
}
else if (isRead == true)
{
PB->targetOffset = uflip_random_get_int(rg, (PB->processID * PB->targetSize)/BLOCK,
((PB->processID + 1) * PB->targetSize - size)/BLOCK) * BLOCK;
PB->targetSize = size;
}
else
{
/* SEQUENTIAL WRITE..... CAUTION : PARALLEL EXPERIMENT MUST BE AFTER PARTITIONING */
PB->targetSize = (PB->deviceSize - startAddress) / PB->parDeg;
if (PB->targetSize < size)
HandleError (__func__, "device too small", 0, ERR_ABORT);
PB->targetOffset = MemAllocNearestAfterA (memList, (PB->processID) * PB->targetSize + startAddress, size);
if (PB->targetOffset == -1)
HandleError (__func__, "Allocation problem!", 0, ERR_ABORT);
PB->targetSize = size;
}
break;
case PAT:
/* 4-PARTITIONING */
if ((isRead == true) || (PB->nbPartition > 16))
{
PB->targetOffset = 0;
PB->targetSize = ((int32_t) (PB->deviceSize / (MAX_PARTITIONS * BLOCK))) * MAX_PARTITIONS * BLOCK;
}
else
{
/* SEQUENTIAL WRITE..... CAUTION : PARTITIONNING EXPERIMENT MUST BE THE FIRST ... */
if (startAddress == 0)
startAddress = MemMinAddress(memList);
if ((size % (16 * BLOCK)) != 0)
size = ((int32_t) (size / (16 * BLOCK)) + 1 ) * (16 * BLOCK);
PB->targetSize = PB->deviceSize - startAddress - size * nbVal * PB->nbRun;
PB->targetSize = (int32_t) (PB->targetSize / (16 * BLOCK)) * (16 * BLOCK);
if (PB->targetSize < size)
HandleError (__func__, "device too small", 0, ERR_ABORT);
PB->targetOffset = startAddress + shift;
for (int32_t k = 0; k < PB->nbPartition; ++k)
{
long temp;
temp = MemAlloc(memList, PB->targetOffset + k * PB->targetSize / PB->nbPartition,
PB->targetOffset + k * PB->targetSize / PB->nbPartition + size / PB->nbPartition);
if (temp == -1)
HandleError (__func__, "Allocation problem!", 0, ERR_ABORT);
}
shift = shift + size / PB->nbPartition;
}
break;
default:
/* nothing to do */
break;
}
if (PB->targetOffset == INT32_MAX)
HandleError (__func__, "device too small", 0, ERR_ABORT);
if ((PB->order >= 0) && (PB->targetOffset + PB->targetSize > PB->deviceSize))
{
char st [MAX_STR];
sprintf (st, "Adjusting TargetSize (TO = %d, TS = %d DS = %d\n", PB->targetOffset, PB->targetSize, PB->deviceSize);
PB->targetSize = PB->deviceSize - PB->targetOffset;
PB->warning = PB->warning | TEST_EXCEED_DEVICE;
OutputString (OUT_LOG, st);
}
if ((PB->order < 0) && (PB->targetOffset - PB->targetSize < 0))
{
char st [MAX_STR];
sprintf (st, "Adjusting TargetSize Reverse Order (TO = %d, TS = %d DS = %d\n", PB->targetOffset, PB->targetSize, PB->deviceSize);
PB->targetSize = PB->targetOffset;
PB->warning = PB->warning | TEST_EXCEED_DEVICE;
OutputString (OUT_LOG, st);
}
}