/* convert the acgt sequence into a sequence of 0123 -- integers */
int *basetoint(char sequence[], long length)
{
int *intarray;
long i;
intarray = (int *) malloc((length+1)*sizeof(int));
MemCheck(intarray,"intarray");
for(i = 0; i < length; i++) {
switch(sequence[i]) {
case 'a':
intarray[i] = 0;
break;
case 'c':
intarray[i] = 1;
break;
case 'g':
intarray[i] = 2;
break;
case 't':
intarray[i] = 3;
break;
default:
fprintf(stderr,
"non-acgt character in string (position %ld)\n",
i);
intarray[i] = -1;
break;
}
}
return intarray;
}
FLEXT_TEMPIMPL(void FLEXT_CLASSDEF(flext_root))::operator delete(void *blk)
{
if(!blk) return;
FLEXT_ASSERT(MemCheck(blk));
#ifdef FLEXT_DEBUGMEM
char *ori = (char *)blk-sizeof(size_t)-sizeof(memtest);
#else
char *ori = (char *)blk-sizeof(size_t);
#endif
size_t bytes = *(size_t *)ori;
if(UNLIKELY(bytes >= LARGEALLOC)) {
#if FLEXT_SYS == FLEXT_SYS_MAX && defined(_SYSMEM_H_)
sysmem_freeptr(ori);
#else
// use C library function for large memory blocks
free(ori);
#endif
}
else {
//! We need system locking here for secondary threads!
SYSLOCK();
freebytes(ori,bytes);
SYSUNLOCK();
}
}
T_void FormCleanUp(T_void)
{
T_word16 i;
T_formObjectStruct *p_object;
E_Boolean UScrewedUpSomewhere = FALSE;
DebugRoutine("FormCleanUp");
/* update the graphics */
GraphicUpdateAllGraphics();
/* loop through all objects, deleting structures if available */
for (i = 0; i < MAX_FORM_OBJECTS; i++) {
if (G_formObjectArray[i] != NULL ) {
p_object = (T_formObjectStruct *)G_formObjectArray[i];
/* first delete the object (button, textfield, ect) */
DebugCheck(p_object != NULL);
switch (p_object->objtype) {
case FORM_OBJECT_BUTTON:
ButtonDelete((T_buttonID)p_object->objID);
break;
case FORM_OBJECT_TEXT:
TextDelete((T_textID)p_object->objID);
break;
case FORM_OBJECT_GRAPHIC:
GraphicDelete((T_graphicID)p_object->objID);
break;
case FORM_OBJECT_TEXTFIELD:
TxtfldDelete((T_TxtfldID)p_object->objID);
break;
case FORM_OBJECT_TEXTBOX:
TxtboxDelete((T_TxtboxID)p_object->objID);
break;
case FORM_OBJECT_SLIDER:
SliderDelete((T_sliderID)p_object->objID);
break;
default:
/* something is wrong! */
DebugCheck(UScrewedUpSomewhere==TRUE);
break;
}
/* now delete the object structure */
MemFree(G_formObjectArray[i]);
MemCheck(101);
G_formObjectArray[i] = NULL;
}
}
G_formHasTextBoxes = FALSE;
G_formHasButtons = FALSE;
DebugEnd();
}
ARSE_API void HandleException(SAppBase* pAppBase, const std::string& message, const std::vector<std::string>& callstack)
{
#ifdef USE_MEMCHECK
MemCheck().clear();
#endif
std::string lastFile;
try
{
lastFile = *pAppBase->filesystem().lastOpen();
if (!callstack.empty())
{
dlog << join(callstack, " <- ") << dlog.endl;
derr << "FATAL EXCEPTION: \n\n" << join(callstack, " <- ") << dlog.endl;
}
}
catch(...)
{
}
try
{
if (!pAppBase || !pAppBase->validForDisplay())
throw message;
// try fancy exception catch
pAppBase->onException(callstack, message + "\n\nLast file opened: " + lastFile);
pAppBase->run();
delete pAppBase;
}
catch (...)
{
// last-ditch exception catch (exception during fancy exception)
try
{
alertf("%s\r%s\rLast file opened: %s", join(callstack, " <- ").c_str(), message.c_str(), lastFile.c_str());
if (pAppBase)
DestroyWindow(pAppBase->hWnd());
}
catch (...)
{
MessageBox(0, message.c_str(), "ARSE Fatal Error", 0);
}
}
}
T_void SliderCleanUp (T_void)
{
T_word16 i;
T_sliderStruct *p_slider;
DebugRoutine ("SliderCleanUp");
for (i=0;i<MAX_SLIDERS;i++)
if (G_sliderArray[i]!=NULL)
{
p_slider = (T_sliderStruct *)G_sliderArray[i];
GraphicDelete (p_slider->knobgraphic);
MemFree (G_sliderArray[i]);
MemCheck (601);
G_sliderArray[i]=NULL;
}
DebugEnd();
}
T_void SliderDelete (T_sliderID sliderID)
{
T_word16 i;
T_sliderStruct *p_slider;
DebugRoutine ("SliderDelete");
if (sliderID!=NULL)
{
for (i=0;i<MAX_SLIDERS;i++)
{
if (G_sliderArray[i]==sliderID) //found it, now kill it
{
p_slider=(T_sliderStruct *)sliderID;
GraphicDelete (p_slider->knobgraphic);
MemFree (G_sliderArray[i]);
MemCheck (600);
G_sliderArray[i]=NULL;
break;
}
}
}
DebugEnd();
}
void OSCheckMemDebug(void *pvCpuVAddr, u32 uSize,
const char *pszFileName, const u32 uLine) {
OSMEM_DEBUG_INFO const *psInfo =
(OSMEM_DEBUG_INFO *) ((u32) pvCpuVAddr -
TEST_BUFFER_PADDING_STATUS);
if (pvCpuVAddr == NULL) {
PVR_DPF((PVR_DBG_ERROR, "Pointer 0x%X : null pointer"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr,
pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR) ;
}
if (((u32) pvCpuVAddr & 3) != 0) {
PVR_DPF((PVR_DBG_ERROR,
"Pointer 0x%X : invalid alignment"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr, pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR) ;
}
if (!MemCheck
((void *)psInfo->sGuardRegionBefore, 0xB1,
sizeof(psInfo->sGuardRegionBefore))) {
PVR_DPF((PVR_DBG_ERROR,
"Pointer 0x%X : guard region before overwritten"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr, pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR) ;
}
if (uSize != psInfo->uSize) {
PVR_DPF((PVR_DBG_WARNING,
"Pointer 0x%X : supplied size was different to stored size (0x%X != 0x%X)"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr, uSize, psInfo->uSize, pszFileName,
uLine, psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR) ;
}
if ((0x01234567 ^ psInfo->uSizeParityCheck) != psInfo->uSize) {
PVR_DPF((PVR_DBG_WARNING,
"Pointer 0x%X : stored size parity error (0x%X != 0x%X)"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr, psInfo->uSize,
0x01234567 ^ psInfo->uSizeParityCheck,
pszFileName, uLine, psInfo->sFileName,
psInfo->uLineNo));
while (STOP_ON_ERROR) ;
} else {
uSize = psInfo->uSize;
}
if (uSize) {
if (!MemCheck
((void *)((u32) pvCpuVAddr + uSize), 0xB2,
TEST_BUFFER_PADDING_AFTER)) {
PVR_DPF((PVR_DBG_ERROR,
"Pointer 0x%X : guard region after overwritten"
" - referenced from %s:%d - allocated from %s:%d",
pvCpuVAddr, pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
}
}
if (psInfo->eValid != isAllocated) {
PVR_DPF((PVR_DBG_ERROR,
"Pointer 0x%X : not allocated (freed? %d)"
" - referenced %s:%d - freed %s:%d",
pvCpuVAddr, psInfo->eValid == isFree,
pszFileName, uLine, psInfo->sFileName,
psInfo->uLineNo));
while (STOP_ON_ERROR) ;
}
}
/**
* MemDumpDiscarded is for debugging purposes only (and only will
* be compiled in debug mode). It will output a list of blocks to the
* file "debugmem.txt".
*
* NOTE:
* None really.
*
*<!-----------------------------------------------------------------------*/
T_void MemDumpDiscarded(T_void)
{
#ifndef REAL_MODE
FILE *fp ;
T_memBlockHeader *p_header ;
//extern T_word32 G_packetsAlloc ;
//extern T_word32 G_packetsFree ;
struct _heapinfo h_info ;
int heap_status ;
T_word32 totalUsed = 0 ;
T_word32 totalFree = 0 ;
DebugRoutine("MemDumpDiscarded") ;
printf("Dumping discard info!\n") ;
fflush(stdout) ;
MemCheck(991) ;
fp = fopen("debugmem.txt", "w") ;
//fp = stdout ;
DebugCheck(fp != NULL) ;
fprintf(fp, "\n\nList of discarded memory:\n") ;
fprintf(fp, "-------------------------\n") ;
p_header = P_startOfDiscardList ;
fprintf(fp, "##### tag next: prev: callback?\n") ;
fflush(fp) ;
fprintf(fp, "start: %p end: %p\n", P_startOfDiscardList, P_endOfDiscardList) ;
fprintf(fp, "Start: %5d\n",
(P_startOfDiscardList == NULL)?0:
P_startOfDiscardList->blockId) ;
fflush(fp) ;
fprintf(fp, " End: %5d\n",
(P_endOfDiscardList == NULL)?0:
P_endOfDiscardList->blockId) ;
fprintf(fp, "\n\n") ;
fflush(fp) ;
while (p_header != NULL) {
fprintf(fp, "p_header = %p\n", p_header) ;
fflush(fp) ;
fprintf(fp, "%5d %s %5d %5d %c %s\n",
p_header->blockId,
p_header->blockTag,
(p_header->p_nextBlock==NULL)?0:
p_header->p_nextBlock->blockId,
(p_header->p_prevBlock==NULL)?0:
p_header->p_prevBlock->blockId,
(p_header->p_callback == NULL)?'N':'Y',
#ifdef _MEM_RECORD_ROUTINES_
p_header->routine) ;
#else
"") ; // p_header->routine) ;
#endif
p_header = p_header->p_nextBlock ;
fflush(fp) ;
}
fprintf(fp, "%d blocks allocated\n", G_allocCount-1) ;
fprintf(fp, "%d blocks freed\n\n", G_deallocCount) ;
fprintf(fp, "%d free memory\n", FreeMemory()) ;
fflush(fp) ;
// fprintf(fp, "%d packets alloc\n", G_packetsAlloc) ;
// fprintf(fp, "%d packets free\n", G_packetsFree) ;
fprintf(fp, "\n\nHeap walk:\n\n") ;
h_info._pentry = NULL ;
for(;;) {
heap_status = _heapwalk(&h_info) ;
if (heap_status != _HEAPOK)
break ;
fprintf(fp, " %s %Fp %8.8X\n",
(h_info._useflag == _USEDENTRY?"USED":"FREE"),
h_info._pentry, h_info._size) ;
if (h_info._useflag == _USEDENTRY)
totalUsed += h_info._size ;
else
totalFree += h_info._size ;
}
fprintf(fp, " heap status: %d\n", heap_status) ;
fprintf(fp, " Total used: %ld bytes\n", totalUsed) ;
fprintf(fp, " Total free: %ld bytes\n", totalFree) ;
fflush(fp) ;
fclose(fp) ;
DebugEnd() ;
#endif
}
/**
* FindFreeSpace is the routine called by MemAlloc when it just tried
* to allocate new memory and could not. This routine is called to free
* up space use by discarded memory. If there is memory freed up, this
* routine returns with a TRUE, otherwise FALSE. It does this by looking
* at the discard list and freeing up the oldest block. It will only
* discard one block and then return with a TRUE status.
* Also, before the block is freed, it's callback routine is called
* to note the block's disappearance.
*
* NOTE:
* A future version might want to free up a certain amount of space
* instead of being called several times. However, when you are running
* out of memory, this method is probably just as good.
*
* @return TRUE = memory was freed
* FALSE = no more memory can be freed.
*
*<!-----------------------------------------------------------------------*/
static E_Boolean IMemFindFreeSpace(T_void)
{
E_Boolean answer = FALSE ;
T_memBlockHeader *p_header ;
T_word16 pos ;
DebugRoutine("IMemFindFreeSpace") ;
//printf("Finding free space!\n") ;
//fprintf(stderr, "Finding free space!") ;
MemCheck(2925) ;
//MemDumpDiscarded() ;
//_heapmin() ;
/*
printf("List:\n") ;
p_header = P_startOfDiscardList ;
while (p_header) {
printf(" %p\n", ((T_byte8 *)p_header)+sizeof(T_memBlockHeader)) ;
p_header = p_header->p_nextBlock ;
}
printf("End of list\n\n") ;
*/
/* Do we have any blocks on the discard list? */
if (P_startOfDiscardList != NULL) {
/* Yes, call it's callback routine -- it is about to be */
/* freed from memory. Make sure to pass a pointer to the */
/* true data part (past header) of the memory block. */
p_header = P_startOfDiscardList ;
/* Make sure you are freeing a discarded block. */
DebugCheck(strcmp(p_header->blockTag, "DaG") == 0) ;
//printf("Discard %p\n", (((T_byte8 *)p_header)+sizeof(T_memBlockHeader))) ;
p_header->p_callback(((T_byte8 *)p_header)+sizeof(T_memBlockHeader)) ;
/* Make sure you are freeing a discarded block. */
DebugCheck(strcmp(p_header->blockTag, "DaG") == 0) ;
/* Now that the block's owner has been notified, we */
/* can continue. */
/* We first need to note the previous block that the next block */
/* is disappearing. */
#if 0
if (p_header->p_nextBlock != NULL) {
p_header->p_nextBlock->p_prevBlock = NULL ;
/* If there is a previous block, make it the new end. */
P_startOfDiscardList = p_header->p_nextBlock ;
} else {
/* If there is no previous block, the list is now empty. */
P_endOfDiscardList =
P_startOfDiscardList = NULL ;
}
#endif
P_startOfDiscardList = p_header->p_nextBlock ;
if (P_startOfDiscardList == NULL)
P_endOfDiscardList = NULL ;
else
p_header->p_nextBlock->p_prevBlock = NULL ;
/* Note that the total is now less. */
G_sizeAllocated -= sizeof(T_memBlockHeader) + p_header->size ;
#ifdef COMPILE_OPTION_OUTPUT_ALLOCATION
printf("!F %d %s\n", p_header->size, DebugGetCallerFile()) ;
printf("!F %d %s:%s\n", p_header->size, DebugGetCallerFile(), DebugGetCallerName()) ;
#endif
#ifndef NDEBUG
/* Make sure we didn't roll under. */
DebugCheck(G_sizeAllocated < 0xF0000000) ;
#endif
#ifdef _MEM_CHECK_FULL_
/* Find the block on the list (if it is there). */
pos = IFindPointer(p_header) ;
if (pos == 0xFFFF) {
printf("bad attempt to free memory at %p\n", p_header+1) ;
DebugCheck(FALSE) ;
}
/* Remove the block from the alloc list and put on the free list. */
G_blockList[pos] = ((T_memBlockHeader *)((T_word32)G_firstFree)) ;
G_firstFree = pos ;
#endif
#ifndef NDEBUG
/* Mark the block as fully freed. */
strcpy(p_header->blockTag, "!!!") ;
/* Fill the block with junk. */
memset(((T_byte8 *)p_header)+sizeof(T_memBlockHeader), 0xCE, p_header->size) ;
#endif
#ifndef NDEBUG
memset(p_header, 0xCD, sizeof(T_memBlockHeader) + p_header->size) ;
#endif
/* Ok, now we can actually free the block. */
free(p_header) ;
/* Note that memory *was* freed. */
answer = TRUE ;
}
DebugCheck(answer < BOOLEAN_UNKNOWN) ;
DebugEnd() ;
return answer ;
}
/**
* MemFree frees a block of memory that was previously allocated.
* It also checks the integrity of the pointer given to it. If the
* pointer is NULL, it crashes. If the pointer does not point to a
* block that was allocated, it crashes.
*
* NOTE:
* None that I can think of (except this will definitely slow down
* the system a little).
*
* @param p_data -- Pointer to block to free
* Normally we can assume p_data points to data and is not NULL.
*
*<!-----------------------------------------------------------------------*/
T_void MemFree(T_void *p_data)
{
T_byte8 *p_bytes ;
T_memBlockHeader *p_header ;
T_word16 pos ;
DebugRoutine("MemFree") ;
DebugCheck(p_data != NULL) ;
/* Back up from the pointer we are given and try to find the
header tag. */
p_bytes = p_data ;
p_bytes -= sizeof(T_memBlockHeader) ;
p_header = (T_memBlockHeader *)p_bytes ;
//printf("Freeing %p, ID: %d, for %s\n", p_data, p_header->blockId, DebugGetCallerName()) ;
//printf("free ID: %ld, @ %p, %s\n", p_header->blockId, p_data, DebugGetCallerName()) ;
//fflush(stdout) ;
#ifdef _MEM_CHECK_FULL_
MemCheck(10210) ;
/* Find the block on the list (if it is there). */
pos = IFindPointer(p_header) ;
if (pos == 0xFFFF) {
printf("bad attempt to free memory at %p\n", p_data) ;
DebugCheck(FALSE) ;
}
/* Remove the block from the alloc list and put on the free list. */
G_blockList[pos] = ((T_memBlockHeader *)((T_word32)G_firstFree)) ;
G_firstFree = pos ;
#endif
//printf("MemFree: %s (%p)\n", ((T_memBlockHeader *)p_bytes)->blockTag, p_data) ;
/* Make sure we are freeing one of our blocks. */
DebugCheck(strcmp (((T_memBlockHeader *)p_bytes)->blockTag, "DaG") != 0) ;
DebugCheck(strcmp (((T_memBlockHeader *)p_bytes)->blockTag, "TaG") == 0) ;
/* Check if the tag is there, or bomb. */
DebugCheck(strcmp(((T_memBlockHeader *)p_bytes)->blockTag, "TaG") == 0) ;
strcpy(((T_memBlockHeader *)p_bytes)->blockTag, "!!!");
//#ifndef NDEBUG
/* Note that the total is now less. */
G_sizeAllocated -= sizeof(T_memBlockHeader) + p_header->size ;
#ifdef COMPILE_OPTION_OUTPUT_ALLOCATION
printf("!F %d %s (@0x%08X)\n", p_header->size, DebugGetCallerFile(), p_bytes) ;
printf("!F %d %s:%s\n", p_header->size, DebugGetCallerFile(), DebugGetCallerName()) ;
#endif
#ifndef NDEBUG
/* Make sure we didn't roll under. */
DebugCheck(G_sizeAllocated < 0xF0000000) ;
#endif
#ifndef NDEBUG
memset(p_bytes, 0xCD, sizeof(T_memBlockHeader) + p_header->size) ;
#endif
/* OK, free up the valid block. */
free(p_bytes) ;
//puts("OK") ;
//printf("FREE: %d \r", FreeMemory()) ;
//fflush(stdout) ;
/* Cound how many are freed. */
G_deallocCount++ ;
DebugEnd() ;
}
void split(tree *t, char *Inname,char *Outname)
{
FILE *Infile, *NextInfile1, *NextInfile2, *Outfile;
char *S, *T ,*Copy;
int *B;
int i, j, k, N, N1, N2, maxi, tempnofile ;
int String_Len;
char Outname1[20], Outname2[20];
double max, Sum;
fpos_t pos;
Infile = fopen (Inname, "r");
if (Infile == NULL)
{
fprintf (stderr, "ERROR: Unable to open file %s\n", Inname);
exit (EXIT_FAILURE);
}
String_Len = 1 + Stop_Position - Start_Position;
/* initialize frequencies for consensus */
for(i=0;i<String_Len;i++)
for(j=0;j<4;j++)
V[i][j]=0;
T = (char *) malloc((MAX_STRING_LEN+1)*sizeof(char));
MemCheck(T,"T");
S = (char *) malloc((MAX_STRING_LEN+1)*sizeof(char));
MemCheck(S,"S");
N = 0;
while (fgets (T, MAX_STRING_LEN, Infile) != NULL)
{
sscanf (T, "%*s %s", S);
assert (strlen (S) == NUM_POSITIONS);
strncpy (T, S + Start_Position, String_Len);
T [String_Len] = '\0';
N++;
B = basetoint(T,String_Len);
/* compute frequencies for each position */
for(i=0;i<String_Len;i++)
V[i][B[i]]++;
free(B);
}
t->no=N;
/* compute consensus */
for(i=0;i<String_Len;i++)
{
max=0;
for(j=0;j<4;j++)
if(V[i][j]>max)
{
C[i]=j;
max=V[i][j];
}
}
/*compute match between consensus and variable at position j */
for(i=0;i<String_Len;i++)
for(j=0;j<String_Len;j++)
for(k=0;k<4;k++)
M[i][j][k]=0;
/*pos=0;
fsetpos(Infile,&pos);*/
rewind(Infile);
while (fgets (T, MAX_STRING_LEN, Infile) != NULL)
{
sscanf (T, "%*s %s", S);
assert (strlen (S) == NUM_POSITIONS);
strncpy (T, S + Start_Position, String_Len);
T [String_Len] = '\0';
B = basetoint(T,String_Len);
for(i=0;i<String_Len;i++)
if(C[i]==B[i])
for(j=0;j<String_Len;j++)
M[i][j][B[j]]++;
free(B);
}
/* for each position compute the chi_square and where to do the partition */
max=0;
maxi=-1;
for(i=0;i<String_Len;i++)
if(W[i])
{
Sum=0;
W[i]=0;
for(j=0;j<String_Len;j++)
{
/*printf("i=%d,j=%d,Ci=%d,Vj0=%d,Vj1=%d,Vj2=%d,Vj3=%d,Mij0=%d,Mij1=%d,Mij2=%d,Mij3=%d\n",i,j,C[i],V[j][0],V[j][1],V[j][2],V[j][3],M[i][j][0],M[i][j][1],M[i][j][2],M[i][j][3]);
fflush(stdout);*/
if(W[j])
Sum+=chi_square(i,j);
}
W[i]=1;
if(Sum>max)
{
max=Sum;
maxi=i;
}
}
printf("Consens %d pe poz %d\n",C[maxi],maxi);
/* open output files */
sprintf(Outname1,"%s%d",Outname,Nofile + 1);
sprintf(Outname2,"%s%d",Outname,Nofile + 2);
NextInfile1 = fopen (Outname1, "w");
if (NextInfile1 == NULL)
{
fprintf (stderr, "ERROR: Unable to open file %s\n", Outname1);
exit (EXIT_FAILURE);
}
NextInfile2 = fopen (Outname2, "w");
if (NextInfile2 == NULL)
{
fprintf (stderr, "ERROR: Unable to open file %s\n", Outname2);
exit (EXIT_FAILURE);
}
Copy = (char *) malloc((MAX_STRING_LEN+1)*sizeof(char));
MemCheck(Copy,"Copy");
N1=0;
N2=0;
/* split into 2 leaves if necessary */
/*pos=0;
fsetpos(Infile,&pos);*/
rewind(Infile);
while (fgets (T, MAX_STRING_LEN, Infile) != NULL)
{
strcpy(Copy,T);
sscanf (T, "%*s %s", S);
assert (strlen (S) == NUM_POSITIONS);
strncpy (T, S + Start_Position, String_Len);
T [String_Len] = '\0';
B = basetoint(T,String_Len);
if(B[maxi] == C[maxi])
{
N1++;
fprintf(NextInfile1,"%s",Copy);
}
else
{
N2++;
fprintf(NextInfile2,"%s",Copy);
}
}
free(S);
free(T);
free(Copy);
fclose(NextInfile1);
fclose(NextInfile2);
printf("Frunze de %d si %d componente\n",N1,N2);
tempnofile=Nofile;
Nofile+=2;
//if(N1+N2>224)
//if(N1+N2>1000)
if(N1>400 && N2>400)
{ t->consens=C[maxi];
t->poz=maxi;
t->left = (tree *) malloc(sizeof(tree));
if (t->left == NULL) {fprintf(stderr,"%s: Memory allocation for tree failure.\n"); abort();}
(t->left)->val=tempnofile+1;
(t->left)->consens=-1;
(t->left)->poz=-1;
(t->left)->no=N1;
(t->left)->left=NULL;
(t->left)->right=NULL;
if(N1>350)
{
W[maxi]=0;
split(t->left,Outname1,Outname);
}
W[maxi]=1;
t->right = (tree *) malloc(sizeof(tree));
if (t->right == NULL) {fprintf(stderr,"%s: Memory allocation for tree failure.\n"); abort();}
(t->right)->val=tempnofile+2;
(t->right)->consens=-1;
(t->right)->poz=-1;
(t->right)->no=N2;
(t->right)->left=NULL;
(t->right)->right=NULL;
if(N2>350) split(t->right,Outname2,Outname);
}
fclose(Infile);
}
/*
This function expects the pointer to the user data, not the debug data.
*/
IMG_VOID OSCheckMemDebug(IMG_PVOID pvCpuVAddr, IMG_SIZE_T uSize, const IMG_CHAR *pszFileName, const IMG_UINT32 uLine)
{
OSMEM_DEBUG_INFO const *psInfo = (OSMEM_DEBUG_INFO *)((IMG_UINTPTR_T)pvCpuVAddr - TEST_BUFFER_PADDING_STATUS);
/* invalid pointer */
if (pvCpuVAddr == IMG_NULL)
{
PVR_DPF((PVR_DBG_ERROR, "Pointer 0x%p : null pointer"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr,
pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR);
}
/* align */
if (((IMG_UINT32)pvCpuVAddr&3) != 0)
{
PVR_DPF((PVR_DBG_ERROR, "Pointer 0x%p : invalid alignment"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr,
pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR);
}
/*check guard region before*/
if (!MemCheck((IMG_PVOID)psInfo->sGuardRegionBefore, 0xB1, sizeof(psInfo->sGuardRegionBefore)))
{
PVR_DPF((PVR_DBG_ERROR, "Pointer 0x%p : guard region before overwritten"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr,
pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR);
}
/*check size*/
if (uSize != psInfo->uSize)
{
PVR_DPF((PVR_DBG_WARNING,
"Pointer 0x%p : supplied size was different to stored size (0x%"
SIZE_T_FMT_LEN "X != 0x%" SIZE_T_FMT_LEN "X)"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr, uSize, psInfo->uSize,
pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR);
}
/*check size parity*/
if ((0x01234567 ^ psInfo->uSizeParityCheck) != psInfo->uSize)
{
PVR_DPF((PVR_DBG_WARNING,
"Pointer 0x%p : stored size parity error (0x%"
SIZE_T_FMT_LEN "X != 0x%" SIZE_T_FMT_LEN "X)"
" - referenced %s:%d - allocated %s:%d",
pvCpuVAddr, psInfo->uSize, 0x01234567 ^ psInfo->uSizeParityCheck,
pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR);
}
else
{
/*the stored size is ok, so we use it instead the supplied uSize*/
uSize = psInfo->uSize;
}
/*check padding after*/
if (uSize)
{
if (!MemCheck((IMG_VOID*)((IMG_UINTPTR_T)pvCpuVAddr + uSize), 0xB2, TEST_BUFFER_PADDING_AFTER))
{
PVR_DPF((PVR_DBG_ERROR, "Pointer 0x%p : guard region after overwritten"
" - referenced from %s:%d - allocated from %s:%d",
pvCpuVAddr,
pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
}
}
/* allocated... */
if (psInfo->eValid != isAllocated)
{
PVR_DPF((PVR_DBG_ERROR, "Pointer 0x%p : not allocated (freed? %d)"
" - referenced %s:%d - freed %s:%d",
pvCpuVAddr, psInfo->eValid == isFree,
pszFileName, uLine,
psInfo->sFileName, psInfo->uLineNo));
while (STOP_ON_ERROR);
}
}
