CWE-ou-minkata/Sources/Plasma/CoreLib/hsMemory.cpp

/*==LICENSE==*

CyanWorlds.com Engine - MMOG client, server and tools
Copyright (C) 2011  Cyan Worlds, Inc.

This program is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 3 of the License, or
(at your option) any later version.

This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
GNU General Public License for more details.

You should have received a copy of the GNU General Public License
along with this program.  If not, see <http://www.gnu.org/licenses/>.

Additional permissions under GNU GPL version 3 section 7

If you modify this Program, or any covered work, by linking or
combining it with any of RAD Game Tools Bink SDK, Autodesk 3ds Max SDK,
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containing parts covered by the terms of the Bink SDK EULA, 3ds Max EULA,
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 or by snail mail at:
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*==LICENSE==*/

#include "hsMemory.h"
#include "hsExceptions.h"

#define DO_MEMORY_REPORTS       // dumps memory reports upon start up of engine

///////////////////////////////////////////////////////////////////////////////////////////

void HSMemory::BlockMove(const void* src, void* dst, uint32_t length)
{
    memmove(dst, src, length);
}

bool HSMemory::EqualBlocks(const void* block1, const void* block2, uint32_t length)
{
    const uint8_t* byte1 = (uint8_t*)block1;
    const uint8_t* byte2 = (uint8_t*)block2;

    while (length--)
        if (*byte1++ != *byte2++)
            return false;
    return true;
}

void* HSMemory::New(uint32_t size)
{
    return new uint32_t[(size + 3) >> 2];
}

void HSMemory::Delete(void* block)
{
    delete[] (uint32_t*)block;
}

void* HSMemory::Copy(uint32_t length, const void* source)
{
    void* destination = HSMemory::New(length);

    HSMemory::BlockMove(source, destination, length);
    return destination;
}

void HSMemory::Clear(void* m, uint32_t byteLen)
{
    uint8_t*  mem = (uint8_t*)m;
    uint8_t*  memStop = mem + byteLen;

    if (byteLen > 8)
    {   while (uintptr_t(mem) & 3)
            *mem++ = 0;
        
        uint32_t* mem32 = (uint32_t*)mem;
        uint32_t* mem32Stop = (uint32_t*)(uintptr_t(memStop) & ~3);
        do {
            *mem32++ = 0;
        } while (mem32 < mem32Stop);
        
        mem = (uint8_t*)mem32;
        // fall through to finish any remaining bytes (0..3)
    }
    while (mem < memStop)
        *mem++ = 0;

    hsAssert(mem == memStop, "oops");
}

//////////////////////////////////////////////////////////////////////////////////////

#if 0
template <class T> T* hsSoftNew(T*& obj)
{
    try {
        obj = new T;
    }
    catch (...) {
        obj = nil;
    }
    return obj;
}

inline template <class T> T* hsSoftNew(T*& obj, unsigned count)
{
    try {
        obj = new T[count];
    }
    catch (...) {
        obj = nil;
    }
    return obj;
}
#endif

void* HSMemory::SoftNew(uint32_t size)
{
    uint32_t* p;

    hsTry {
        p = new uint32_t[(size + 3) >> 2];
    } hsCatch(...) {
        p = nil;
    }
    return p;
}

//////////////////////////////////////////////////////////////////////////////////////

struct hsPrivateChunk {
    hsPrivateChunk* fNext;
    char*           fAvailableAddr;
    uint32_t          fAvailableSize;

    hsDebugCode(uint32_t  fSize;)
    hsDebugCode(uint32_t  fCount;)

    static hsPrivateChunk* NewPrivateChunk(hsPrivateChunk* next, uint32_t chunkSize);
};

hsPrivateChunk* hsPrivateChunk::NewPrivateChunk(hsPrivateChunk* next, uint32_t chunkSize)
{
    hsPrivateChunk* chunk = (hsPrivateChunk*)HSMemory::New(sizeof(hsPrivateChunk) + chunkSize);

    chunk->fNext            = next;
    chunk->fAvailableAddr   = (char*)chunk + sizeof(hsPrivateChunk);
    chunk->fAvailableSize   = chunkSize;
    hsDebugCode(chunk->fSize = chunkSize;)
    hsDebugCode(chunk->fCount = 0;)

    return chunk;
}

hsChunkAllocator::hsChunkAllocator(uint32_t chunkSize) : fChunkSize(chunkSize), fChunk(nil)
{
    hsDebugCode(fChunkCount = 0;)
}

hsChunkAllocator::~hsChunkAllocator()
{
    this->Reset();
}

void hsChunkAllocator::Reset()
{
    hsPrivateChunk* chunk = fChunk;

    while (chunk)
    {   hsPrivateChunk* next = chunk->fNext;
        HSMemory::Delete(chunk);
        chunk = next;
    }
    fChunk = nil;
    hsDebugCode(fChunkCount = 0;)
}

void hsChunkAllocator::SetChunkSize(uint32_t chunkSize)
{
    fChunkSize = chunkSize;
}

void* hsChunkAllocator::Allocate(uint32_t size, const void* data)
{
    void*   addr;

    if (fChunk == nil || fChunk->fAvailableSize < size)
    {   if (size > fChunkSize)
            fChunkSize = size;
        fChunk = hsPrivateChunk::NewPrivateChunk(fChunk, fChunkSize);
        hsDebugCode(fChunkCount += 1;)
    }

    addr = fChunk->fAvailableAddr;
    fChunk->fAvailableAddr += size;
    fChunk->fAvailableSize -= size;
    hsDebugCode(fChunk->fCount += 1;)

    if (data)
        HSMemory::BlockMove(data, addr, size);

    return addr;
}

void* hsChunkAllocator::SoftAllocate(uint32_t size, const void* data)
{
    void*   addr;

    hsTry {
        addr = this->Allocate(size, data);
    }
    hsCatch(...) {
        addr = nil;
    }
    return addr;
}

//////////////////////////////////////////////////////////////////////////////////////

struct hsAppenderHead {
    struct hsAppenderHead*  fNext;
    struct hsAppenderHead*  fPrev;
    void*   fFirst;
    void*   fStop;
    void*   fBottom;
    
    void*   GetTop() const { return (char*)this + sizeof(*this); }
    void*   GetBottom() const { return fBottom; }
    void*   GetStop() const { return fStop; }

    void*    GetFirst() const { return fFirst; }
    void*    GetLast(uint32_t elemSize) const { return (char*)fStop - elemSize; }
    uint32_t GetSize() const { return (char*)fStop - (char*)fFirst; }

    bool    CanPrepend() const { return fFirst != this->GetTop(); }
    int     PrependSize() const { return (char*)fFirst - (char*)this->GetTop(); }
    bool    CanAppend() const { return fStop != this->GetBottom(); }
    int     AppendSize() const { return (char*)this->GetBottom() - (char*)fStop; }
    
    void* Prepend(uint32_t elemSize)
    {
        hsAssert(this->CanPrepend(), "bad prepend");
        fFirst = (char*)fFirst - elemSize;
        hsAssert((char*)fFirst >= (char*)this->GetTop(), "bad elemSize");
        return fFirst;
    }
    void* Append(uint32_t elemSize)
    {
        hsAssert(this->CanAppend(), "bad append");
        void* data = fStop;
        fStop = (char*)fStop + elemSize;
        hsAssert((char*)fStop <= (char*)fBottom, "bad elemSize");
        return data;
    }
    bool PopHead(uint32_t elemSize, void* data)
    {
        hsAssert(fFirst != fStop, "Empty");
        if( data )
            HSMemory::BlockMove(fFirst, data, elemSize);
        fFirst = (char*)fFirst + elemSize;
        return fFirst == fStop;
    }
    bool PopTail(uint32_t elemSize, void* data)
    {
        hsAssert(fFirst != fStop, "Empty");
        fStop = (char*)fStop - elemSize;
        if( data )
            HSMemory::BlockMove(fStop, data, elemSize);
        return fFirst == fStop;
    }

    static hsAppenderHead* NewAppend(uint32_t elemSize, uint32_t elemCount, hsAppenderHead* prev)
    {
        uint32_t          dataSize = elemSize * elemCount;
         hsAppenderHead*    head = (hsAppenderHead*)HSMemory::New(sizeof(hsAppenderHead) + dataSize);

        head->fNext = nil;
        head->fPrev = prev;
        head->fFirst    = head->GetTop();
        head->fStop = head->fFirst;
        head->fBottom   = (char*)head->fFirst + dataSize;
        return head;
    }
    static hsAppenderHead* NewPrepend(uint32_t elemSize, uint32_t elemCount, hsAppenderHead* next)
    {
        uint32_t          dataSize = elemSize * elemCount;
         hsAppenderHead*    head = (hsAppenderHead*)HSMemory::New(sizeof(hsAppenderHead) + dataSize);

        head->fNext = next;
        head->fPrev = nil;
        head->fBottom   = (char*)head->GetTop() + dataSize;
        head->fFirst    = head->fBottom;
        head->fStop = head->fBottom;
        return head;
    }
};

////////////////////////////////////////////////////////////////////////////////////////

hsAppender::hsAppender(uint32_t elemSize, uint32_t elemCount)
        : fFirstBlock(nil), fElemSize(elemSize), fElemCount(elemCount), fCount(0)
{
}

hsAppender::~hsAppender()
{
    this->Reset();
}

uint32_t hsAppender::CopyInto(void* data) const
{
    if (data)
    {   const hsAppenderHead*   head = fFirstBlock;
        hsDebugCode(uint32_t totalSize = 0;)

        while (head != nil)
        {   uint32_t  size = head->GetSize();
            HSMemory::BlockMove(head->GetFirst(), data, size);
            
            data = (char*)data + size;
            head = head->fNext;
            hsDebugCode(totalSize += size;)
        }
        hsAssert(totalSize == fCount * fElemSize, "bad size");
    }
    return fCount * fElemSize;
}

void hsAppender::Reset()
{
    hsAppenderHead* head = fFirstBlock;

    while (head != nil)
    {   hsAppenderHead* next = head->fNext;
        HSMemory::Delete(head);
        head = next;
    }

    fCount = 0;
    fFirstBlock = nil;
    fLastBlock = nil;
}

void* hsAppender::PushHead()
{
    if (fFirstBlock == nil)
    {   fFirstBlock = hsAppenderHead::NewPrepend(fElemSize, fElemCount, nil);
        fLastBlock      = fFirstBlock;
    }
    else if (fFirstBlock->CanPrepend() == false)
        fFirstBlock = hsAppenderHead::NewPrepend(fElemSize, fElemCount, fFirstBlock);

    fCount += 1;
    return fFirstBlock->Prepend(fElemSize);
}

void hsAppender::PushHead(const void* data)
{
    void*   addr = this->PushHead();
    if (data)
        HSMemory::BlockMove(data, addr, fElemSize);
}

void* hsAppender::PeekHead() const
{
    if (fFirstBlock)
        return (char*)fFirstBlock->fFirst;
    else
        return nil;
}

bool hsAppender::PopHead(void* data)
{
    if (fCount == 0)
        return false;

    fCount -= 1;

    if (fFirstBlock->PopHead(fElemSize, data))
    {   hsAppenderHead* next = fFirstBlock->fNext;
        if (next)
            next->fPrev = nil;
        HSMemory::Delete(fFirstBlock);
        fFirstBlock = next;
        if (next == nil)
            fLastBlock = nil;
    }
    return true;
}

int hsAppender::PopHead(int count, void* data)
{
    hsThrowIfBadParam(count >= 0);

    int sizeNeeded = count * fElemSize;
    int origCount = fCount;

    while (fCount > 0)
    {   int size = fFirstBlock->GetSize();
        if (size > sizeNeeded)
            size = sizeNeeded;

        if (fFirstBlock->PopHead(size, data))
        {   hsAppenderHead* next = fFirstBlock->fNext;
            if (next)
                next->fPrev = nil;
            HSMemory::Delete(fFirstBlock);
            fFirstBlock = next;
            if (next == nil)
                fLastBlock = nil;
        }

        if (data)
            data = (void*)((char*)data + size);
        sizeNeeded -= size;
        fCount -= size / fElemSize;
        hsAssert(int(fCount) >= 0, "bad fElemSize");
    }
    return origCount - fCount;      // return number of elements popped
}

void* hsAppender::PushTail()
{
    if (fFirstBlock == nil)
    {   fFirstBlock = hsAppenderHead::NewAppend(fElemSize, fElemCount, nil);
        fLastBlock      = fFirstBlock;
    }
    else if (fLastBlock->CanAppend() == false)
    {   fLastBlock->fNext   = hsAppenderHead::NewAppend(fElemSize, fElemCount, fLastBlock);
        fLastBlock      = fLastBlock->fNext;
    }
    
    fCount += 1;
    return fLastBlock->Append(fElemSize);
}

void hsAppender::PushTail(const void* data)
{
    void*   addr = this->PushTail();
    if (data)
        HSMemory::BlockMove(data, addr, fElemSize);
}

void hsAppender::PushTail(int count, const void* data)
{
    hsThrowIfBadParam(count < 0);

    int sizeNeeded = count * fElemSize;

    while (sizeNeeded > 0)
    {   if (fFirstBlock == nil)
        {   hsAssert(fCount == 0, "uninited count");
            fFirstBlock = hsAppenderHead::NewAppend(fElemSize, fElemCount, nil);
            fLastBlock      = fFirstBlock;
        }
        else if (fLastBlock->CanAppend() == false)
        {   fLastBlock->fNext   = hsAppenderHead::NewAppend(fElemSize, fElemCount, fLastBlock);
            fLastBlock      = fLastBlock->fNext;
        }

        int     size = fLastBlock->AppendSize();
        hsAssert(size > 0, "bad appendsize");
        if (size > sizeNeeded)
            size = sizeNeeded;
        void*   dst = fLastBlock->Append(size);

        if (data)
        {   HSMemory::BlockMove(data, dst, size);
            data = (char*)data + size;
        }
        sizeNeeded -= size;
    }
    fCount += count;
}

void* hsAppender::PeekTail() const
{
    if (fLastBlock)
        return (char*)fLastBlock->fStop - fElemSize;
    else
        return nil;
}

bool hsAppender::PopTail(void* data)
{
    if (fCount == 0)
        return false;

    fCount -= 1;

    if (fLastBlock->PopTail(fElemSize, data))
    {   hsAppenderHead* prev = fLastBlock->fPrev;
        if (prev)
            prev->fNext = nil;
        HSMemory::Delete(fLastBlock);
        fLastBlock = prev;
        if (prev == nil)
            fFirstBlock = nil;
    }
    return true;
}

//////////////////////////////////////////////////////////////////////////

hsAppenderIterator::hsAppenderIterator(const hsAppender* list)
{
    this->ResetToHead(list);
}
            
void hsAppenderIterator::ResetToHead(const hsAppender* list)
{
    fAppender = list;
    fCurrBlock = nil;

    if (fAppender)
    {   fCurrBlock = fAppender->fFirstBlock;
        if (fCurrBlock)
            fCurrItem = fCurrBlock->GetFirst();
    }
}

void hsAppenderIterator::ResetToTail(const hsAppender* list)
{
    fAppender = list;
    fCurrBlock = nil;

    if (fAppender)
    {   fCurrBlock = fAppender->fLastBlock;
        if (fCurrBlock)
            fCurrItem = fCurrBlock->GetLast(fAppender->fElemSize);
    }
}

void* hsAppenderIterator::Next()
{
    void*   item = nil;

    if (fCurrBlock)
    {   item = fCurrItem;
        fCurrItem = (char*)fCurrItem + fAppender->fElemSize;
        if (fCurrItem == fCurrBlock->GetBottom())
        {   fCurrBlock = fCurrBlock->fNext;
            if (fCurrBlock)
                fCurrItem = fCurrBlock->GetFirst();
        }
        else if (fCurrItem == fCurrBlock->GetStop())
        {   hsAssert(fCurrBlock->fNext == nil, "oops");
            fCurrBlock = nil;
        }
    }
    return item;
}

bool hsAppenderIterator::Next(void* data)
{
    void*   addr = this->Next();
    if (addr)
    {   if (data)
            HSMemory::BlockMove(addr, data, fAppender->fElemSize);
        return true;
    }
    return false;
}

int hsAppenderIterator::Next(int count, void* data)
{
    int origCount = count;
    
    while (count > 0 && this->Next(data))
    {   if (data)
            data = (void*)((char*)data + fAppender->fElemSize);
        count -= 1;
    }
    return origCount - count;
}

void* hsAppenderIterator::Prev()
{
    void*   item = nil;

    if (fCurrBlock)
    {   item = fCurrItem;
        fCurrItem = (char*)fCurrItem - fAppender->fElemSize;
        if (item == fCurrBlock->GetTop())
        {   fCurrBlock = fCurrBlock->fPrev;
            if (fCurrBlock)
                fCurrItem = fCurrBlock->GetLast(fAppender->fElemSize);
        }
        else if (item == fCurrBlock->GetFirst())
        {   hsAssert(fCurrBlock->fPrev == nil, "oops");
            fCurrBlock = nil;
        }
    }
    return item;
}

bool hsAppenderIterator::Prev(void* data)
{
    void*   addr = this->Prev();
    if (addr)
    {   if (data)
            HSMemory::BlockMove(addr, data, fAppender->fElemSize);
        return true;
    }
    return false;
}

//-------------------------------------------------------------
//
//      MEMORY USE REPORTING CODE
//
//-------------------------------------------------------------

#if 1//!(defined(HS_DEBUGGING)&&(HS_BUILD_FOR_WIN32)&& defined(HS_FIND_MEM_LEAKS))
    // EMPTY STUB
void SortNDumpUnfreedMemory(const char *, bool ) // file name base, and FULL report indicator
{
}

#else
  
typedef struct _CrtMemBlockHeader
{
// Pointer to the block allocated just before this one:
   struct _CrtMemBlockHeader *pBlockHeaderNext; 
// Pointer to the block allocated just after this one:
   struct _CrtMemBlockHeader *pBlockHeaderPrev; 
   char *szFileName;   // File name
   int nLine;          // Line number
   size_t nDataSize;   // Size of user block
   int nBlockUse;      // Type of block
   long lRequest;      // Allocation number
// Buffer just before (lower than) the user's memory:
   unsigned char gap[4];  
} _CrtMemBlockHeader;

/* In an actual memory block in the debug heap,
 * this structure is followed by:
 *    unsigned char data[nDataSize];
 *    unsigned char anotherGap[4];
 */

//
// Dump formatted string to OutputDebugString
//
void __cdecl DebugMsg( LPSTR fmt, ... )
{

    char buff[256];
    wvsprintf(buff, fmt, (char *)(&fmt+1));
    hsStatusMessage(buff);

}

char *TrimFileName(char *name)      // Trim file name of leading Directories
{
    int len = 0;
    char *ptr;
    if (!name) return NULL;

    len = strlen(name);
    ptr = name + len;
    for ( ptr--; ptr > name; ptr--)
    {
        if (*ptr == '\\')
        {
            ptr++;
            break;
        }
    }
    return ptr;
}

//
// Loop thru all unfreed blocks in the heap and dump out detailed info
//

struct looktbl {
    char * fName;       // Name of file
//  long    fAllocs;    // Number of Alloc calls
    long    fBytes;     // Total Bytes Alloc'd
};
#define LTBLMAX 300

//---------------------------------------------------------------------------
// This routine will report on the memory used in the engine.
// If argument full is true, it gives a full dump from the start of the program
// if !full, then each time the routine is called it remembers where it finishes off, then the next
// call with !full, it will (attempt) to report on the newest allocations, backward to the last checkpoint
//--------------------------------------------------------------------------

void SortNDumpUnfreedMemory(const char *nm, bool full) // file name base, and FULL report indicator
{
#ifndef DO_MEMORY_REPORTS
    if (!full)                  // full is launched by control M...partials are called each time the engine starts
        return;
#endif

    char fname[512];
    sprintf(fname,"%s_dmp.txt",nm);
    char *errStr = "";


    _CrtMemState heap_state;
static  uint32_t GrandTotal =0;
static  _CrtMemBlockHeader *cmbh_last;  // Remember this header for next incremental check DANGER this 
                        // could break if this is freed...(gives bad report)
    _CrtMemBlockHeader *cmbh_last_good;
    
    _CrtMemBlockHeader *cmbh;
    // Get Current heap state

    _CrtMemCheckpoint(&heap_state);

    cmbh = heap_state.pBlockHeader;

    long totsize= 0;        // Track Total Bytes
    long normsize = 0;      // Track total of NORMAL Blocks

    looktbl *ltb = new looktbl[LTBLMAX];
    long tblEnd=1;          // first is "NULL";

    memset((void *)ltb,0,sizeof(looktbl) * LTBLMAX);        // clear table area

    char *ftrim;


    ltb[0].fName = "NULL";      // Use first Table Pos for NULL

    long tblpos;
    while (cmbh != NULL)        // Accumulate Stats to table
    {
        if (cmbh == cmbh_last && !full) // full indicates ignore last "checkpoint", stop at last checkpoint if !full
            break;
        cmbh_last_good = cmbh;
        totsize += cmbh->nDataSize;
        if (cmbh->nBlockUse == _NORMAL_BLOCK) 
        {
            normsize += cmbh->nDataSize; 
            
            if (cmbh->szFileName != NULL)               // Shorten to just the file name, looks better, and strcmps faster
            {
                ftrim = TrimFileName(cmbh->szFileName);
                for (tblpos  = 1; tblpos < tblEnd; tblpos++)    // find the name in the table
                {   
                    if (!strcmp(ftrim,ltb[tblpos].fName))
                        break;  // found it
                }
            }
            else
            {   
                tblpos = 0;     // Use "NULL", first pos of table
            }

            if (tblpos == tblEnd)       // Did not find it...add it
            {
                tblEnd++;
                if (tblEnd >= LTBLMAX) 
                {   DebugMsg("DumpUnfreedMemoryInfo: EXCEED MAX TABLE LENGTH\n");
                    tblEnd--;
                    break;
                }
                ltb[tblpos].fName = ftrim;  // Add name
            }
                // Add Stats
//          ltb[tblpos].fAllocs++;
            ltb[tblpos].fBytes += cmbh->nDataSize;

            
        }
        cmbh = cmbh->pBlockHeaderNext;
        
    }
        // This Code relies on the _CrtMemBlockHeader *cmbh_last_good for the "last" checkpoint to still be around...
        // If the following occurs, that chunk has been deleted.  we could fix this by allocating our own
        // chunk and keeping it (watch for mem leaks though) or figuring out an "approximat" re syncying routine
        // that works before we run thru collecting data. PBG

    if (cmbh_last && !full && cmbh == NULL)
    {
        //hsAssert(0,"Stats error: incremental mem check point has been deleted");
        errStr = "CHECK POINT ERROR, Results Inacurate";
    }

    if (normsize)       // Don't write out about nothing
    {
        
        CreateDirectory("Reports",NULL);            // stick em in a sub directory
        char fnm[512];
        sprintf(fnm,"Reports\\%s",fname);
 
        FILE * DumpLogFile = fopen( fnm, "w" );
//      long allocs=0;
        if ( DumpLogFile != NULL )
        {
                // Print Stats
            fprintf(DumpLogFile, "Filename                Total=%ld(k) %s\n",(normsize + 500)/1000,errStr);
            for (int i = 0; i < tblEnd; i++)
            {   //fprintf(DumpLogFile,"%s\t%ld\n",ltb[i].fName, (ltb[i].fBytes+500)/1000);//,ltb[i].fAllocs);
                fprintf(DumpLogFile,"%s ",ltb[i].fName);
                int len = strlen(ltb[i].fName);

                for(int x=len; x < 25; x++)
                    fputc(' ',DumpLogFile);             // make even columns
                fprintf(DumpLogFile,"%5ld K\n",(uint32_t)( ltb[i].fBytes+500)/1000);//,ltb[i].fAllocs);
                
                //allocs += ltb[i].fAllocs;
            }

            DebugMsg("MEMORY USE FILE DUMPED TO %s \n",fname);
            DebugMsg("MEMORY Check: Total size %ld, Normal Size: %ld\n",totsize,normsize);

            fclose(DumpLogFile);
        }
        static int first=1;
        if (!full)          // if this is a partial mem dump, write to the ROOMS.txt file a summary
        {   
            sprintf(fnm,"Reports\\%s","ROOMS.txt");
 
            if (first)
            {   DumpLogFile = fopen( fnm, "w" );    // first time clobber the old
                if (DumpLogFile)
                    fprintf(DumpLogFile, "Filename              Memory-Used(K)       RunningTotal\n");//  \tAllocation Calls \n" );
                first = 0;
            }
            else
                DumpLogFile = fopen( fnm, "a+" );
            if( DumpLogFile)
            {   fprintf(DumpLogFile,"%s ",nm);
                int len = strlen(nm);
                GrandTotal += (uint32_t)(normsize+500)/1000;

                for(int x=len; x < 25; x++)
                    fputc(' ',DumpLogFile);                 // make even columns
                fprintf(DumpLogFile,"%5ld K           %5ld  %s\n",(uint32_t)(normsize+500)/1000,GrandTotal,errStr);//, allocs);
                fclose(DumpLogFile);
            }
        }
    }


    cmbh_last = heap_state.pBlockHeader;
    delete ltb;
}
#endif