VOID Image(IMG img, VOID * v)
{
for (SEC sec = IMG_SecHead(img); SEC_Valid(sec); sec = SEC_Next(sec))
{
for (RTN rtn = SEC_RtnHead(sec); RTN_Valid(rtn); rtn = RTN_Next(rtn))
{
RTN_Open(rtn);
for (INS ins = RTN_InsHead(rtn); INS_Valid(ins); ins = INS_Next(ins))
{
if( INS_IsPredicated(ins) )
GlobalStatsStatic.predicated[ INS_Category(ins) ]++;
else
GlobalStatsStatic.unpredicated[ INS_Category(ins) ]++;
}
RTN_Close(rtn);
}
}
if( KnobProfileStaticOnly.Value() )
{
Fini(0,0);
exit(0);
}
}
//--------------------------------------------------------------------------------------------------
//啟動
bool GameManager::Run()
{
//系統初始
if ( !m_Hge->System_Initiate() )
return false;
GLog::Print("GameDemo Really Start!!!!!!");
//參數初始(Resource得在System_Initiate之後才讀的到東西)
m_LoginStage.SetHGE(m_Hge);
m_GameStage.SetHGE(m_Hge);
m_StageMgr = StageManager::GetInstance();
m_StageMgr->SetStageNum(GS_MAX);
m_StageMgr->Add(GS_LOGIN,&m_LoginStage);
m_StageMgr->Add(GS_GAME,&m_GameStage);
m_StageMgr->ChangeStage(GS_LOGIN);
//系統主迴圈(理論上會卡在這裡面跑迴圈)
m_Hge->System_Start();
m_StageMgr->Fini();
Fini();
return true;
}
MScheduler::~MScheduler()
{
Fini();
#if !AX_HAS_THREADLOCAL && defined( _WIN32 )
TlsFree( m_dwWorkerIdTLS );
#endif
}
int PASCAL WinMain( HINSTANCE thishandle, HINSTANCE prevhandle, LPSTR cmdline, int cmdshow )
{
if( !Init32BitTask( thishandle, prevhandle, cmdline, cmdshow ) )
return( 0 );
InvokeWin32();
Fini( 0 );
return( (int)ReturnCode );
} /* WinMain */
void AxPluginRegistry::RemoveFactory( const CLSID& clsid )
{
std::vector<AxPluginFctryPrtcl*>::iterator iter;
iter = Find( clsid );
assert( iter != _factoryV.end() );
delete *iter;
_factoryV.erase( iter );
// Self destruct if empty.
// This ensures memory used by this (singleton) object will
// be released when the last item is removed from the registry.
if ( _factoryV.empty() ) {
Fini();
}
}
void classTable::setOpen( bool bOpen )
{
QListViewItem::setOpen( bOpen );
listView()->setSelected( listView()->selectedItem(), false );
if ( bOpen )
{
LoadColumns();
pPrimaryKeys = new classPrimaryKeys( this, pCanvas, hDbc, (char *)qsName.data() );
pIndexs = new classIndexs( this, pCanvas, hDbc, (char *)qsName.data() );
pSpecialColumns = new classSpecialColumns( this, pCanvas, hDbc, (char *)qsName.data() );
// listView()->setSelected( listView()->selectedItem(), false );
// setSelected( true );
}
else
{
Fini();
}
}
VOID use_xed(ADDRINT pc) {
#if defined(TARGET_IA32E)
static const xed_state_t dstate = {XED_MACHINE_MODE_LONG_64, XED_ADDRESS_WIDTH_64b};
#else
static const xed_state_t dstate = { XED_MACHINE_MODE_LEGACY_32, XED_ADDRESS_WIDTH_32b};
#endif
xed_decoded_inst_t xedd;
xed_decoded_inst_zero_set_mode(&xedd,&dstate);
UINT64 ticks_start, ticks_stop, delta;
//FIXME: pass in the proper length...
const unsigned int max_inst_len = 15;
ticks_start = get_time();
#define USE_DECODE_CACHE
#if defined(USE_DECODE_CACHE)
xed_error_enum_t xed_code = xed_decode_cache(&xedd, reinterpret_cast<UINT8*>(pc), max_inst_len, &cache);
#else
xed_error_enum_t xed_code = xed_decode(&xedd, reinterpret_cast<UINT8*>(pc), max_inst_len);
#endif
ticks_stop = get_time();
delta = ticks_stop - ticks_start;
//cerr << ticks_start << " " << ticks_stop << " " << delta << endl;
UINT64 bin = delta/50;
if ((INT64)delta < 0)
rejects++;
else if (bin >= MAX_BINS)
histo[MAX_BINS-1] += 1;
else
histo[bin] += 1;
BOOL xed_ok = (xed_code == XED_ERROR_NONE);
i++;
if (i>(1024*1024) && xed_ok) {
i=0;
j++;
*out << j*1024*1024 << endl;
Fini(0,0);
*out << hex << std::setw(8) << pc << " " << dec;
char buf[2048];
xed_decoded_inst_dump_intel_format(&xedd, buf, 2048, 0);
*out << buf << endl;
}
}
void classTable::setOpen( bool bOpen )
{
if ( bOpen ) // Always refresh
{
LoadColumns();
pSpecialColumns = new classSpecialColumns( this, NULL, pCanvas, hDbc, qsTable, qsLibrary );
pPrimaryKeys = new classPrimaryKeys( this, pSpecialColumns, pCanvas, hDbc, qsTable, qsLibrary );
pIndexs = new classIndexs( this, pPrimaryKeys, pCanvas, hDbc, qsTable, qsLibrary );
selectionChanged( this ) ;
}
else
{
Fini();
}
#ifdef QT_V4LAYOUT
Q3ListViewItem::setOpen( bOpen );
#else
QListViewItem::setOpen( bOpen );
#endif
}
/*
* Init32BitTask - load and initialize the 32-bit application
*/
int Init32BitTask( HINSTANCE thishandle, HINSTANCE prevhandle, LPSTR cmdline,
int cmdshow )
{
WORD i,amount,bytes_read,j;
WORD sel;
int handle;
tiny_ret_t rc;
DWORD size,currsize,curroff,minmem,maxmem;
DWORD relsize,exelen;
struct wstart_vars __far *dataptr;
void __far *aliasptr;
DWORD __far *relptr;
struct fpu_area __far *fpuptr;
rex_exe exe;
exe_data exedat;
char file[128];
DWORD flags;
version_info vi;
DWORD file_header_size;
BOOL tried_global_compact;
DWORD save_maxmem;
DWORD adata[2];
flags = GetWinFlags();
/*
* verify that we are running on a 32-bit DPMI
*/
_fDPMIGetVersion( &vi );
if( !(vi.flags & VERSION_80386) ) {
MessageBox( NULL, "Not running on a 386 DPMI implementation",MsgTitle,
MB_OK | MB_ICONHAND | MB_TASKMODAL );
return( FALSE );
}
/*
* get exe to load
*/
GetModuleFileName( thishandle, file, 128 );
rc = _fTinyOpen( file, TIO_READ );
if( TINY_ERROR( rc ) ) {
return( Fini( 2, (char _FAR *)"Error opening file",
(char _FAR *)file) );
}
handle = TINY_INFO( rc );
_TinySeek( handle, 0x38, TIO_SEEK_START );
_fTinyRead( handle, &exelen, sizeof( DWORD ) );
_TinySeek( handle, exelen, TIO_SEEK_START );
/*
* check if we are being run by the debugger. When the debugger
* sees the 'DEADBEEF' bytes at the start of the code segment
* (see begin.asm), it swaps them to be BEEFDEAD. The debugger
* then tells us to go, and if we see that we have BEEFDEAD,
* we execute a breakpoint just before we call our 32-bit code.
* Then the debugger traces a single instruction and it looks to
* the user like the start of his/her code is the start of
* the application.
*/
if( deadbeef == 0xBEEFDEAD ) {
InDebugger = 0;
} else {
InDebugger = 1;
}
DPL = (CS() & 0x03) << 5; /* our privilege level */
/*
* validate header signature
*/
_fTinyRead( handle, &exe, sizeof( rex_exe ) );
// BreakPoint();
if( !(exe.sig[0] == 'M' && exe.sig[1] == 'Q') ) {
return( Fini( 1,(char _FAR *)"Invalid EXE" ) );
}
file_header_size = (DWORD) exe.file_header * 16L;
/*
* exe.one is supposed to always contain a 1 for a .REX file.
* However, to allow relocation tables bigger than 64K, the
* we extended the linker to have the .one field contain the
* number of full 64K chunks of relocations, minus 1.
*/
file_header_size += (exe.one-1)*0x10000L*16L;
/*
* get exe data - data start and stack start
*/
_TinySeek( handle, exelen + file_header_size + (long)exe.initial_eip, TIO_SEEK_START );
_fTinyRead( handle, &exedat, sizeof( exe_data ) );
/*
* get file size
*/
size = (long) exe.file_size2 * 512L;
if( exe.file_size1 > 0 ) {
size += (long) exe.file_size1 - 512L;
}
/*
* get stack size
*/
StackSize = Align4K( exe.initial_esp - ((exedat.stackstart+15) & ~15ul) );
if( StackSize < 0x1000 ) {
StackSize = 0x1000;
}
/*
* get minimum/maximum amounts of heap, then add in exe size
* to get total area
*/
// BreakPoint();
minmem = (DWORD) exe.min_data *(DWORD) 4096L;
if( exe.max_data == (WORD)-1 ) {
maxmem = 4096L;
} else {
maxmem = (DWORD) exe.max_data*4096L;
}
minmem = Align4K( minmem + size + 0x10000ul );
maxmem = Align4K( maxmem + size + 0x10000ul );
if( minmem > maxmem ) {
maxmem = minmem;
}
/*
* get memory to load file
*/
tried_global_compact = FALSE;
save_maxmem = maxmem;
for(;;) {
i = DPMIGet32( adata, maxmem );
if( i != 5 ) break;
if( maxmem == minmem ) {
if( tried_global_compact ) {
return( Fini( 3,
(char _FAR *)"Not enough memory for application\n(minimum ",
dwordToStr( minmem ),(char _FAR *)" required)" ));
}
/*
* GlobalCompact(-1) causes Windows to unfragment its
* memory. This might give us a chance to get a linear
* chunk big enough
*/
GlobalCompact( GlobalCompact( 0 ) );
maxmem = save_maxmem;
tried_global_compact = TRUE;
} else if( maxmem < 64L * 1024L ) {
maxmem = minmem;
} else {
maxmem -= 64L * 1024L;
if( maxmem < minmem ) { /* 09-aug-93 */
maxmem = minmem;
}
}
}
DataHandle = adata[1];
BaseAddr = adata[0] + 0x10000ul;
#if FLAT
i = InitFlatAddrSpace( BaseAddr, 0L );
#else
i = InitFlatAddrSpace( BaseAddr, maxmem );
#endif
BaseAddr = 0L;
if( i ) {
DPMIFreeMemoryBlock( DataHandle );
return( Fini( 2,(char _FAR *)"Allocation error ", dwordToStr( i ) ) );
}
SaveSP = BaseAddr + StackSize;
CodeLoadAddr = SaveSP;
MyDataSelector = DataSelector;
GetDataSelectorInfo();
CodeEntry.off = exe.initial_eip + CodeLoadAddr + sizeof( exe_data );
/*
* this builds a collection of LDT selectors that are ready for
* allocation
*/
if( InitSelectorCache() != 0 ) {
return( Fini( 1,(char _FAR *)outOfSelectors) );
}
/*
* read the exe into memory
*/
currsize = size - file_header_size;
_TinySeek( handle, exelen + file_header_size, TIO_SEEK_START );
i = DPMIGetAliases( CodeLoadAddr, (LPDWORD) &aliasptr, 0 );
if( i ) {
return( Fini( 3,(char _FAR *)"Error ",
dwordToStr( i ),
(char _FAR *)" getting alias for read" ) );
}
dataptr = aliasptr;
sel = ((DWORD) dataptr) >> 16;
curroff = CodeLoadAddr;
while( currsize != 0 ) {
if( currsize >= (DWORD) READSIZE ) {
amount = READSIZE;
} else {
amount = (WORD) currsize;
}
rc = _fTinyRead( handle, dataptr, amount );
bytes_read = TINY_INFO( rc );
if( bytes_read != amount ) {
return( Fini( 1,(char _FAR *)"Read error" ) );
}
currsize -= (DWORD) amount;
curroff += (DWORD) amount;
DPMISetSegmentBaseAddress( sel, DataSelectorBase + curroff );
}
EDataAddr = curroff; // 03-jan-95
DPMISetSegmentBaseAddress( sel, DataSelectorBase );
relptr = (DWORD __far *)aliasptr; // point to 32-bit stack area
/*
* get and apply relocation table
*/
relsize = sizeof( DWORD ) * (DWORD) exe.reloc_cnt;
{
DWORD realsize;
WORD kcnt;
realsize = file_header_size - (DWORD) exe.first_reloc;
kcnt = realsize / (0x10000L*sizeof(DWORD));
relsize += kcnt * (0x10000L*sizeof(DWORD));
}
if( relsize != 0 ) {
_TinySeek( handle, exelen + (DWORD)exe.first_reloc, TIO_SEEK_START );
if( StackSize >= (DWORD) READSIZE ) {
amount = READSIZE;
} else {
amount = (WORD) StackSize;
}
while( relsize != 0L ) {
if( relsize < (DWORD)amount ) {
amount = (WORD) relsize;
}
rc = _fTinyRead( handle, relptr, amount );
bytes_read = TINY_INFO( rc );
if( bytes_read != amount ) {
return( Fini( 1,(char _FAR *)"Relocation read error" ) );
}
CodeRelocate( relptr, amount/sizeof(DWORD) );
relsize -= (DWORD) amount;
}
}
_TinyClose( handle );
/* initialize emulator 8087 save area 20-oct-94 */
fpuptr = (struct fpu_area __far *)((char __far *)aliasptr + FPU_AREA);
_fmemset( fpuptr, 0, sizeof(struct fpu_area) );
fpuptr->control_word = 0x033F;
fpuptr->tag_word = 0xFFFF;
/*
* set dataptr to special area in data segment of 32-bit app
*/
curroff = exedat.datastart;
if( exe.reloc_cnt != 0 ) curroff += CodeLoadAddr;
DPMISetSegmentBaseAddress( sel, DataSelectorBase + curroff );
/*
* insert command line parms
*/
dataptr->thishandle = (WORD)thishandle;
dataptr->prevhandle = (WORD)prevhandle;
dataptr->cmdline = (DWORD) cmdline;
dataptr->cmdshow = cmdshow;
dataptr->_no87 = _no87;
/*
* set hardware selectors for screen memory
*/
dataptr->_A000H = (WORD) &_A000H;
dataptr->_B000H = (WORD) &_B000H;
dataptr->_B800H = (WORD) &_B800H;
dataptr->_C000H = (WORD) &_C000H;
dataptr->_D000H = (WORD) &_D000H;
dataptr->_E000H = (WORD) &_E000H;
dataptr->_F000H = (WORD) &_F000H;
/*
* ptrs to some data areas
*/
dataptr->CodeSelectorBase.seg = (WORD) FP_SEG( &CodeSelectorBase );
dataptr->CodeSelectorBase.off = (DWORD) FP_OFF( &CodeSelectorBase );
dataptr->DataSelectorBase.seg = (WORD) FP_SEG( &DataSelectorBase );
dataptr->DataSelectorBase.off = (DWORD) FP_OFF( &DataSelectorBase );
dataptr->_32BitCallBackAddr.seg = (WORD) FP_SEG( &_32BitCallBackAddr );
dataptr->_32BitCallBackAddr.off = (DWORD) FP_OFF( &_32BitCallBackAddr );
dataptr->_DLLEntryAddr.seg = (WORD) FP_SEG( &_DLLEntryAddr );
dataptr->_DLLEntryAddr.off = (DWORD) FP_OFF( &_DLLEntryAddr );
dataptr->_WEPAddr.seg = (WORD) FP_SEG( &_WEPAddr );
dataptr->_WEPAddr.off = (DWORD) FP_OFF( &_WEPAddr );
dataptr->_16BitCallBackAddr = &__CallBack;
/*
* insert glue routines into data area of caller
*/
for( j = 0; j < MaxGlueRoutines; j++ ) {
dataptr->gluertns[j].seg = (WORD) FP_SEG( Glue[j].rtn );
dataptr->gluertns[j].off = (DWORD) FP_OFF( Glue[j].rtn );
}
DPMIFreeAlias( sel );
/*
* check for FPU and WGod
*/
if( flags & WF_80x87 ) {
Has87 = TRUE;
} else {
Has87 = FALSE;
}
if( CheckWin386Debug() == WGOD_VERSION ) {
// BreakPoint();
HasWGod = TRUE;
if( !Has87 ) {
EMUInit();
EMURegister( CodeEntry.seg, SaveSP - StackSize + FPU_AREA );
}
} else {
HasWGod = FALSE;
}
return( TRUE );
} /* Init32BitTask */
classTable::~classTable()
{
Fini();
}
ActionState::~ActionState()
{
Fini();
}
GameManager::~GameManager(void)
{
Fini();
}
Acceptor::~Acceptor()
{
Fini();
}
void LuaEngine::Init(const char* main_script_file)
{
Fini();
int ret = 0;
// TODO: 定时器个数采用宏配置
heap_timer_ = new HeapTimer(1024);
CHECK(heap_timer_ != NULL)
<< "timer heap init error!";
master_state_ = luaL_newstate();
CHECK(master_state_ != NULL)
<< "luaL_newstate error!";
luaL_openlibs(master_state_);
lua_tinker::init(master_state_);
lua_tinker::init_s64(master_state_);
lua_tinker::init_u64(master_state_);
// 将script_main.lua所在文件夹路径加入require路径搜索
char script_path[256] = {0};
realpath(main_script_file, script_path);
strncpy(script_path, dirname(script_path), 256);
AddRequirePath(script_path);
AddRequireCPath(script_path);
// package.path 处理
std::ostringstream oss_require;
oss_require
<< "package.path = \"" << oss_require_path_.str() << "\"";
ret = luaL_dostring(master_state_, oss_require.str().c_str());
LOG(INFO) << "luaL_dostring [" << oss_require.str().c_str() << "]";
CHECK(ret == 0)
<< "luaL_dostring [" << oss_require.str().c_str()
<< "] error!";
oss_require.str("");
oss_require_path_.str("");
// package.cpath 处理
oss_require
<< "package.cpath = \"" << oss_require_cpath_.str() << "\"";
ret = luaL_dostring(master_state_, oss_require.str().c_str());
LOG(INFO) << "luaL_dostring [" << oss_require.str().c_str() << "]";
CHECK(ret == 0)
<< "luaL_dostring [" << oss_require.str().c_str()
<< "] error!";
oss_require.str("");
oss_require_cpath_.str("");
// 设置LUA_SCRIPT_PATH
SetGlobal("LUA_SCRIPT_PATH", script_path);
// 注册log函数
RegFunc("C_LOG_INFO", &LuaEngine::LogInfo);
RegFunc("C_LOG_ERROR", &LuaEngine::LogError);
// lua_tinker中日志函数
RegFunc("_ALERT", &LuaEngine::LogInfo);
ret = luaL_dofile(master_state_, main_script_file);
if (ret != 0) {
LOG(ERROR) << lua_tostring(master_state_, -1);
}
CHECK(ret == 0)
<< "luaL_dofile error!";
// 第一次加载模块
Reload();
// 设置检查信号宏
SetGlobal<int>("CHECK_SIG_OK", CHECK_SIG_OK);
SetGlobal<int>("CHECK_SIG_TIMEOUT", CHECK_SIG_TIMEOUT);
// 设置定时器
SetHandler(this, &LuaEngine::OnTimer);
}
AsyncPool::~AsyncPool()
{
Fini();
}
TestClient::~TestClient()
{
Fini();
}
VOID ExitInProbeMode(INT code)
{
Fini(code, 0);
(*origExit)(code);
}
ResourceManager::~ResourceManager(void)
{
Fini();
}
TcpSocketUtil::~TcpSocketUtil()
{
Fini();
}