#pragma warning( disable : 4786) #include "client.h" #include #include "..\smartheap\smrtheap.h" #if !defined(__Q_SHARED_H) #include "../game/q_shared.h" #endif #if !defined(_QCOMMON_H_) #include "../qcommon/qcommon.h" #endif #include #include using namespace std; #if MEM_DEBUG #include "..\smartheap\heapagnt.h" static const int maxStack=2048; static int TotalMem; static int TotalBlocks; static int nStack; static char StackNames[maxStack][256]; static int StackSize[maxStack]; static int StackCount[maxStack]; static int StackCache[48]; static int StackCacheAt=0; static int CheckpointSize[1000]; static int CheckpointCount[1000]; #define _FASTRPT_ cvar_t *mem_leakfile; cvar_t *mem_leakreport; MEM_BOOL MEM_CALLBACK MyMemReporter2(MEM_ERROR_INFO *info) { static char buffer[10000]; if (!info->objectCreationInfo) return 1; info=info->objectCreationInfo; int idx=info->checkpoint; if (idx<0||idx>=1000) { idx=0; } CheckpointCount[idx]++; CheckpointSize[idx]+=info->argSize; //return 1; dbgMemFormatCall(info,buffer,9999); if (strstr(buffer,"ntdll")) return 1; if (strstr(buffer,"CLBCATQ")) return 1; int i; TotalBlocks++; if (TotalBlocks%1000==0) { char mess[1000]; sprintf(mess,"%d blocks processed\n",TotalBlocks); OutputDebugString(mess); } for (i=strlen(buffer);i>0;i--) { if (buffer[i]=='\n') break; } if (!i) return 1; buffer[i]=0; char *buf=buffer; while (*buf) { if (*buf=='\n') { buf++; break; } buf++; } char *start=0; while (*buf) { while (*buf==' ') buf++; start=buf; while (*buf!=0&&*buf!='\n') buf++; if (*start) { if (*buf) { *buf=0; buf++; } if (strlen(start)>255) start[255]=0; if (strstr(start,"std::")) { // start=0; continue; } if (strstr(start,"Malloc")) { start=0; continue; } if (strstr(start,"FS_LoadFile")) { start=0; continue; } if (strstr(start,"CopyString")) { start=0; continue; } break; } } if (!start||!*start) { start="UNKNOWN"; } for (i=0;i<48;i++) { if (StackCache[i]<0||StackCache[i]>=nStack) continue; if (!strcmpi(start,StackNames[StackCache[i]])) break; } if (i<48) { StackSize[StackCache[i]]+=info->argSize; StackCount[StackCache[i]]++; } else { for (i=0;iargSize; StackCount[i]++; StackCache[StackCacheAt]=i; StackCacheAt++; if (StackCacheAt>=48) StackCacheAt=0; } else if (iargSize; StackCount[i]=1; nStack++; } else if (nStackargSize; StackCount[maxStack-1]=1; } else { StackSize[maxStack-1]+=info->argSize; StackCount[maxStack-1]++; } } TotalMem+=info->argSize; return 1; } void SH_Checking_f(void); #endif class Leakage { MEM_POOL MyPool; public: Leakage() { MyPool = MemInitDefaultPool(); // MemPoolSetSmallBlockSize(MyPool, 16); MemPoolSetSmallBlockAllocator(MyPool,MEM_SMALL_BLOCK_SH3); #if MEM_DEBUG dbgMemSetGuardSize(2); #endif EnableChecking(100000); } void LeakReport(void) { #if MEM_DEBUG int i; char mess[1000]; int blocks=dbgMemTotalCount(); int mem=dbgMemTotalSize()/1024; sprintf(mess,"Final Memory Summary %d blocks %d K\n",blocks,mem); OutputDebugString(mess); for (i=0;i<1000;i++) { CheckpointSize[i]=0; CheckpointCount[i]=0; } TotalMem=0; TotalBlocks=0; nStack=0; MemSetErrorHandler(MyMemReporter2); dbgMemReportLeakage(NULL,1,1000); MemSetErrorHandler(MemDefaultErrorHandler); if (TotalBlocks) { // Sort by size. Sleep(100); OutputDebugString("**************************************\n"); OutputDebugString("**********Memory Leak Report**********\n"); OutputDebugString("*************** By Size **************\n"); OutputDebugString("**************************************\n"); sprintf(mess,"Actual leakage %d blocks %d K\n",TotalBlocks,TotalMem/1024); OutputDebugString(mess); multimap > sortit; for (i=0;i >(-StackSize[i],pair(StackCount[i],StackNames[i]))); multimap >::iterator j; Sleep(5); for (j=sortit.begin();j!=sortit.end();j++) { sprintf(mess,"%5d KB %6d cnt %s\n",-(*j).first/1024,(*j).second.first,(*j).second.second); // if (!(-(*j).first/1024)) // break; Sleep(5); OutputDebugString(mess); } // Sort by count. Sleep(100); OutputDebugString("**************************************\n"); OutputDebugString("**********Memory Leak Report**********\n"); OutputDebugString("************** By Count **************\n"); OutputDebugString("**************************************\n"); sprintf(mess,"Actual leakage %d blocks %d K\n",TotalBlocks,TotalMem/1024); OutputDebugString(mess); sortit.clear(); for (i=0;i >(-StackCount[i],pair(StackSize[i],StackNames[i]))); Sleep(5); for (j=sortit.begin();j!=sortit.end();j++) { sprintf(mess,"%5d KB %6d cnt %s\n",(*j).second.first/1024,-(*j).first,(*j).second.second); // if (!(-(*j).first/1024)) // break; Sleep(5); OutputDebugString(mess); } } else { OutputDebugString("No Memory Leaks\n"); } // Sort by size. Sleep(5); OutputDebugString("***************************************\n"); OutputDebugString("By Tag, sort: size ********************\n"); OutputDebugString("size(K) count name \n"); OutputDebugString("-----------------------\n"); Sleep(5); multimap sorted; for (i=0;i<1000;i++) { if (CheckpointCount[i]) { sorted.insert(pair(-CheckpointSize[i],i)); } } multimap::iterator k; for (k=sorted.begin();k!=sorted.end();k++) { // sprintf(mess,"%8d %8d %s\n",CheckpointSize[(*k).second]/1024,CheckpointCount[(*k).second],(*k).second>=2?tagDefs[(*k).second-2]:"unknown"); sprintf(mess,"%8d %8d %s\n",CheckpointSize[(*k).second]/1024,CheckpointCount[(*k).second],"unknown"); Sleep(5); OutputDebugString(mess); } // Sort by count. Sleep(5); OutputDebugString("***************************************\n"); OutputDebugString("By Tag, sort: count *******************\n"); OutputDebugString("size(K) count name \n"); OutputDebugString("-----------------------\n"); Sleep(5); sorted.clear(); for (i=0;i<1000;i++) { if (CheckpointCount[i]) { sorted.insert(pair(-CheckpointCount[i],i)); } } for (k=sorted.begin();k!=sorted.end();k++) { // sprintf(mess,"%8d %8d %s\n",CheckpointSize[(*k).second]/1024,CheckpointCount[(*k).second],(*k).second>=2?tagDefs[(*k).second-2]:"unknown"); sprintf(mess,"%8d %8d %s\n",CheckpointSize[(*k).second]/1024,CheckpointCount[(*k).second],"unknown"); Sleep(5); OutputDebugString(mess); } #endif } ~Leakage() { #if MEM_DEBUG #if 0 if (mem_leakfile && mem_leakfile->integer) { dbgMemSetDefaultErrorOutput(DBGMEM_OUTPUT_FILE,"leakage.out"); dbgMemReportLeakage(NULL,1,1); dbgMemSetDefaultErrorOutput(DBGMEM_OUTPUT_PROMPT,NULL); } #endif if (mem_leakreport && mem_leakreport->integer) { LeakReport(); } #endif } #if MEM_DEBUG void EnableChecking(int x) { if (x) { dbgMemSetSafetyLevel(MEM_SAFETY_DEBUG); dbgMemPoolSetCheckFrequency(MyPool, x); dbgMemSetCheckFrequency(x); dbgMemDeferFreeing(TRUE); if (x>50000) { dbgMemSetDeferQueueLen(x+5000); } else { dbgMemSetDeferQueueLen(50000); } } else { dbgMemSetSafetyLevel(MEM_SAFETY_SOME); dbgMemDeferFreeing(FALSE); } } #endif }; static Leakage TheLeakage; #if MEM_DEBUG void MEM_Checking_f(void) { if (Cmd_Argc() != 2) { Com_Printf ("mem_checking \n"); return; } if (atol(Cmd_Argv(1)) > 0 && atol(Cmd_Argv(1)) < 100) { Com_Printf ("mem_checking frequency is too low ( < 100 )\n"); return; } TheLeakage.EnableChecking(atol(Cmd_Argv(1))); } void MEM_Report_f(void) { TheLeakage.LeakReport(); } /* void myexit(void) { TheLeakage.LeakReport(); } */ void SH_Register(void) { Cmd_AddCommand ("mem_checking", MEM_Checking_f); Cmd_AddCommand ("mem_report", MEM_Report_f); mem_leakfile = Cvar_Get( "mem_leakfile", "1", 0 ); mem_leakreport = Cvar_Get( "mem_leakreport", "1", 0 ); // atexit(myexit); } #endif