void UK2Node_Event::ExpandNode(class FKismetCompilerContext& CompilerContext, UEdGraph* SourceGraph)
{
Super::ExpandNode(CompilerContext, SourceGraph);
if (CompilerContext.bIsFullCompile)
{
UEdGraphPin* OrgDelegatePin = FindPin(UK2Node_Event::DelegateOutputName);
if (OrgDelegatePin && OrgDelegatePin->LinkedTo.Num() > 0)
{
const UEdGraphSchema_K2* Schema = CompilerContext.GetSchema();
const FName FunctionName = GetFunctionName();
if(FunctionName == NAME_None)
{
CompilerContext.MessageLog.Error(*FString::Printf(*LOCTEXT("EventDelegateName_Error", "Event node @@ has no name of function.").ToString()), this);
}
UK2Node_Self* SelfNode = CompilerContext.SpawnIntermediateNode<UK2Node_Self>(this, SourceGraph);
SelfNode->AllocateDefaultPins();
UK2Node_CreateDelegate* CreateDelegateNode = CompilerContext.SpawnIntermediateNode<UK2Node_CreateDelegate>(this, SourceGraph);
CreateDelegateNode->AllocateDefaultPins();
CompilerContext.MovePinLinksToIntermediate(*OrgDelegatePin, *CreateDelegateNode->GetDelegateOutPin());
Schema->TryCreateConnection(SelfNode->FindPinChecked(Schema->PN_Self), CreateDelegateNode->GetObjectInPin());
// When called UFunction is defined in the same class, it wasn't created yet (previously the Skeletal class was checked). So no "CreateDelegateNode->HandleAnyChangeWithoutNotifying();" is called.
CreateDelegateNode->SetFunction(FunctionName);
}
}
}
int PythonIntegration::RunScript(ScriptId scriptId, EventId evt, PyObject* args) {
ScriptRecord script;
if (!LoadScript(scriptId, script)) {
return 1;
}
auto dict = PyModule_GetDict(script.module);
auto eventName = GetFunctionName(evt);
auto callback = PyDict_GetItemString(dict, eventName);
if (!callback || !PyCallable_Check(callback)) {
logger->error("Script {} attached as {} is missing the corresponding function.",
script.filename, eventName);
return 1;
}
auto resultObj = PyObject_CallObject(callback, args);
if (!resultObj) {
logger->error("An error occurred while calling event {} for script {}.", eventName, script.filename);
PyErr_Print();
return 1;
}
auto result = -1;
if (PyInt_Check(resultObj)) {
result = PyInt_AsLong(resultObj);
}
Py_DECREF(resultObj);
return result;
}
bool ExcDialog(LPCWSTR ModuleName,LPCWSTR Exception,LPVOID Adress)
{
string strAddr;
strAddr.Format(L"0x%p",Adress);
string strFunction=GetFunctionName(From);
#ifndef NO_WRAPPER
if(Module && !Module->IsOemPlugin())
#endif // NO_WRAPPER
{
strFunction+=L"W";
}
FarDialogItem EditDlgData[]=
{
{DI_DOUBLEBOX,3,1,72,8,0,nullptr,nullptr,0,MSG(MExcTrappedException)},
{DI_TEXT, 5,2, 17,2,0,nullptr,nullptr,0,MSG(MExcException)},
{DI_TEXT, 18,2, 70,2,0,nullptr,nullptr,0,Exception},
{DI_TEXT, 5,3, 17,3,0,nullptr,nullptr,0,MSG(MExcAddress)},
{DI_TEXT, 18,3, 70,3,0,nullptr,nullptr,0,strAddr},
{DI_TEXT, 5,4, 17,4,0,nullptr,nullptr,0,MSG(MExcFunction)},
{DI_TEXT, 18,4, 70,4,0,nullptr,nullptr,0,strFunction},
{DI_TEXT, 5,5, 17,5,0,nullptr,nullptr,0,MSG(MExcModule)},
{DI_EDIT, 18,5, 70,5,0,nullptr,nullptr,DIF_READONLY|DIF_SELECTONENTRY,ModuleName},
{DI_TEXT, -1,6, 0,6,0,nullptr,nullptr,DIF_SEPARATOR,L""},
{DI_BUTTON, 0,7, 0,7,0,nullptr,nullptr,DIF_DEFAULTBUTTON|DIF_FOCUS|DIF_CENTERGROUP,MSG((From == EXCEPT_KERNEL)?MExcTerminate:MExcUnload)},
{DI_BUTTON, 0,7, 0,7,0,nullptr,nullptr,DIF_CENTERGROUP,MSG(MExcDebugger)},
};
MakeDialogItemsEx(EditDlgData,EditDlg);
Dialog Dlg(EditDlg, ARRAYSIZE(EditDlg),ExcDlgProc);
Dlg.SetDialogMode(DMODE_WARNINGSTYLE|DMODE_NOPLUGINS);
Dlg.SetPosition(-1,-1,76,10);
Dlg.Process();
return Dlg.GetExitCode()==11;
}
extern pascal OSStatus MoreAToSCopySymbolNamesUsingDyld(ItemCount count,
MoreAToSAddr addresses[],
MoreAToSSymInfo symbols[])
{
OSStatus err;
ItemCount index;
assert(addresses != NULL);
assert(symbols != NULL);
err = noErr;
for (index = 0; index < count; index++) {
const char * thisSymbol;
const char * cleanSymbol;
unsigned int thisSymbolOffset;
Boolean thisSymbolPublic;
CFStringRef thisSymbolStr;
MoreAToSSymbolType thisSymbolType;
thisSymbolStr = NULL;
thisSymbol = NULL;
if (addresses[index] != NULL) { // NULL is never a useful symbol
thisSymbol = GetFunctionName( (unsigned int) addresses[index], &thisSymbolOffset, &thisSymbolPublic);
}
if (thisSymbol != NULL) {
// Mach-O symbols virtually always start with '_'. If there's one there,
// let's strip it.
if (thisSymbol[0] == '_') {
cleanSymbol = &thisSymbol[1];
} else {
cleanSymbol = thisSymbol;
}
thisSymbolStr = CFStringCreateWithCString(NULL, cleanSymbol, kCFStringEncodingASCII);
err = CFQError(thisSymbolStr);
if (thisSymbolPublic) {
thisSymbolType = kMoreAToSDyldPubliSymbol;
} else {
thisSymbolType = kMoreAToSDyldPrivateSymbol;
}
if (err == noErr) {
ReplaceSymbolIfBetter(&symbols[index], thisSymbolType, thisSymbolStr, (UInt32) thisSymbolOffset);
}
}
CFQRelease(thisSymbolStr);
free( (void *) thisSymbol);
if (err != noErr) {
break;
}
}
return err;
}
bool UnwindCurrent::UnwindFromContext(size_t num_ignore_frames, bool resolve) {
// The cursor structure is pretty large, do not put it on the stack.
unw_cursor_t* cursor = new unw_cursor_t;
int ret = unw_init_local(cursor, &context_);
if (ret < 0) {
BACK_LOGW("unw_init_local failed %d", ret);
delete cursor;
return false;
}
std::vector<backtrace_frame_data_t>* frames = GetFrames();
frames->reserve(MAX_BACKTRACE_FRAMES);
size_t num_frames = 0;
do {
unw_word_t pc;
ret = unw_get_reg(cursor, UNW_REG_IP, &pc);
if (ret < 0) {
BACK_LOGW("Failed to read IP %d", ret);
break;
}
unw_word_t sp;
ret = unw_get_reg(cursor, UNW_REG_SP, &sp);
if (ret < 0) {
BACK_LOGW("Failed to read SP %d", ret);
break;
}
if (num_ignore_frames == 0) {
frames->resize(num_frames+1);
backtrace_frame_data_t* frame = &frames->at(num_frames);
frame->num = num_frames;
frame->pc = static_cast<uintptr_t>(pc);
frame->sp = static_cast<uintptr_t>(sp);
frame->stack_size = 0;
if (num_frames > 0) {
// Set the stack size for the previous frame.
backtrace_frame_data_t* prev = &frames->at(num_frames-1);
prev->stack_size = frame->sp - prev->sp;
}
if (resolve) {
frame->func_name = GetFunctionName(frame->pc, &frame->func_offset);
frame->map = FindMap(frame->pc);
} else {
frame->map = NULL;
frame->func_offset = 0;
}
num_frames++;
} else {
num_ignore_frames--;
}
ret = unw_step (cursor);
} while (ret > 0 && num_frames < MAX_BACKTRACE_FRAMES);
delete cursor;
return true;
}
void BacktraceThread::FinishUnwind() {
for (std::vector<backtrace_frame_data_t>::iterator it = frames_.begin();
it != frames_.end(); ++it) {
it->map = FindMap(it->pc);
it->func_offset = 0;
it->func_name = GetFunctionName(it->pc, &it->func_offset);
}
}
bool BacktraceOffline::Unwind(size_t num_ignore_frames, ucontext_t* context) {
if (context == nullptr) {
BACK_LOGW("The context is needed for offline backtracing.");
return false;
}
context_ = context;
unw_addr_space_t addr_space = unw_create_addr_space(&accessors, 0);
unw_cursor_t cursor;
int ret = unw_init_remote(&cursor, addr_space, this);
if (ret != 0) {
BACK_LOGW("unw_init_remote failed %d", ret);
unw_destroy_addr_space(addr_space);
return false;
}
size_t num_frames = 0;
do {
unw_word_t pc;
ret = unw_get_reg(&cursor, UNW_REG_IP, &pc);
if (ret < 0) {
BACK_LOGW("Failed to read IP %d", ret);
break;
}
unw_word_t sp;
ret = unw_get_reg(&cursor, UNW_REG_SP, &sp);
if (ret < 0) {
BACK_LOGW("Failed to read SP %d", ret);
break;
}
if (num_ignore_frames == 0) {
frames_.resize(num_frames + 1);
backtrace_frame_data_t* frame = &frames_[num_frames];
frame->num = num_frames;
frame->pc = static_cast<uintptr_t>(pc);
frame->sp = static_cast<uintptr_t>(sp);
frame->stack_size = 0;
if (num_frames > 0) {
backtrace_frame_data_t* prev = &frames_[num_frames - 1];
prev->stack_size = frame->sp - prev->sp;
}
frame->func_name = GetFunctionName(frame->pc, &frame->func_offset);
FillInMap(frame->pc, &frame->map);
num_frames++;
} else {
num_ignore_frames--;
}
ret = unw_step(&cursor);
} while (ret > 0 && num_frames < MAX_BACKTRACE_FRAMES);
unw_destroy_addr_space(addr_space);
context_ = nullptr;
return true;
}
void OnFunctionEnter( UINT functionId )
{
if (!seen_function[functionId])
{
char sz[1024];
std::wstring ws = GetFunctionName( functionId );
sprintf(sz, "0x%08x=%ws", functionId, ws.c_str());
Log(sz);
seen_function[functionId] = true;
}
writer.WriteEnterFunction( functionId, profiler );
}
void UK2Node_CastByteToEnum::ExpandNode(class FKismetCompilerContext& CompilerContext, UEdGraph* SourceGraph)
{
Super::ExpandNode(CompilerContext, SourceGraph);
if (bSafe && Enum)
{
const UEdGraphSchema_K2* Schema = CompilerContext.GetSchema();
// FUNCTION NODE
const FName FunctionName = GetFunctionName();
const UFunction* Function = UKismetNodeHelperLibrary::StaticClass()->FindFunctionByName(FunctionName);
check(NULL != Function);
UK2Node_CallFunction* CallValidation = CompilerContext.SpawnIntermediateNode<UK2Node_CallFunction>(this, SourceGraph);
CallValidation->SetFromFunction(Function);
CallValidation->AllocateDefaultPins();
check(CallValidation->IsNodePure());
// FUNCTION ENUM PIN
UEdGraphPin* FunctionEnumPin = CallValidation->FindPinChecked(TEXT("Enum"));
Schema->TrySetDefaultObject(*FunctionEnumPin, Enum);
check(FunctionEnumPin->DefaultObject == Enum);
// FUNCTION INPUT BYTE PIN
UEdGraphPin* OrgInputPin = FindPinChecked(ByteInputPinName);
UEdGraphPin* FunctionIndexPin = CallValidation->FindPinChecked(TEXT("EnumeratorIndex"));
check(EGPD_Input == FunctionIndexPin->Direction && Schema->PC_Byte == FunctionIndexPin->PinType.PinCategory);
CompilerContext.MovePinLinksToIntermediate(*OrgInputPin, *FunctionIndexPin);
// UNSAFE CAST NODE
UK2Node_CastByteToEnum* UsafeCast = CompilerContext.SpawnIntermediateNode<UK2Node_CastByteToEnum>(this, SourceGraph);
UsafeCast->Enum = Enum;
UsafeCast->bSafe = false;
UsafeCast->AllocateDefaultPins();
// UNSAFE CAST INPUT
UEdGraphPin* CastInputPin = UsafeCast->FindPinChecked(ByteInputPinName);
UEdGraphPin* FunctionReturnPin = CallValidation->GetReturnValuePin();
check(NULL != FunctionReturnPin);
Schema->TryCreateConnection(CastInputPin, FunctionReturnPin);
// OPUTPUT PIN
UEdGraphPin* OrgReturnPin = FindPinChecked(Schema->PN_ReturnValue);
UEdGraphPin* NewReturnPin = UsafeCast->FindPinChecked(Schema->PN_ReturnValue);
CompilerContext.MovePinLinksToIntermediate(*OrgReturnPin, *NewReturnPin);
BreakAllNodeLinks();
}
}
llvm::Function *ValuesRuntimeProxy::_OutputDate::GetFunction(CodeGen &codegen) {
const std::string &fn_name = GetFunctionName();
// Has the function already been registered?
llvm::Function *llvm_fn = codegen.LookupFunction(fn_name);
if (llvm_fn != nullptr) {
return llvm_fn;
}
auto *value_type = ValueProxy::GetType(codegen);
auto *fn_type = llvm::FunctionType::get(
codegen.VoidType(),
{value_type->getPointerTo(), codegen.Int64Type(), codegen.Int32Type()},
false);
return codegen.RegisterFunction(fn_name, fn_type);
}
JBoolean
CBCClass::IsInherited
(
const JIndex index,
const InheritType inherit,
FnAccessLevel* access
)
const
{
const JString& fnName = GetFunctionName(index);
*access = GetFnAccessLevel(index);
if (!IsPrivate(*access) && // private
fnName.GetFirstCharacter() != '~' && // dtor
fnName != GetName()) // ctor
{
if (inherit == kInheritPrivate)
{
if (*access == kPublicAccess ||
*access == kProtectedAccess)
{
*access = kPrivateAccess;
}
else if (*access == kQtPublicSlotAccess ||
*access == kQtProtectedSlotAccess)
{
*access = kQtPrivateSlotAccess;
}
}
else if (inherit == kInheritProtected &&
*access == kPublicAccess)
{
*access = kProtectedAccess;
}
else if (inherit == kInheritProtected &&
*access == kQtPublicSlotAccess)
{
*access = kQtProtectedSlotAccess;
}
return kJTrue;
}
else
{
return kJFalse;
}
}
/**
* Enqueues a compilation for a new shader of this type.
* @param Platform - The platform to compile for.
* @param Material - The material to link the shader with.
* @param VertexFactoryType - The vertex factory to compile with.
*/
FShaderCompileJob* FMeshMaterialShaderType::BeginCompileShader(
uint32 ShaderMapId,
EShaderPlatform Platform,
const FMaterial* Material,
FShaderCompilerEnvironment* MaterialEnvironment,
FVertexFactoryType* VertexFactoryType,
const FShaderPipelineType* ShaderPipeline,
TArray<FShaderCommonCompileJob*>& NewJobs
)
{
FShaderCompileJob* NewJob = new FShaderCompileJob(ShaderMapId, VertexFactoryType, this);
NewJob->Input.SharedEnvironment = MaterialEnvironment;
FShaderCompilerEnvironment& ShaderEnvironment = NewJob->Input.Environment;
// apply the vertex factory changes to the compile environment
check(VertexFactoryType);
VertexFactoryType->ModifyCompilationEnvironment(Platform, Material, ShaderEnvironment);
//update material shader stats
UpdateMaterialShaderCompilingStats(Material);
UE_LOG(LogShaders, Verbose, TEXT(" %s"), GetName());
COOK_STAT(MaterialMeshCookStats::ShadersCompiled++);
// Allow the shader type to modify the compile environment.
SetupCompileEnvironment(Platform, Material, ShaderEnvironment);
bool bAllowDevelopmentShaderCompile = Material->GetAllowDevelopmentShaderCompile();
// Compile the shader environment passed in with the shader type's source code.
::GlobalBeginCompileShader(
Material->GetFriendlyName(),
VertexFactoryType,
this,
ShaderPipeline,
GetShaderFilename(),
GetFunctionName(),
FShaderTarget(GetFrequency(),Platform),
NewJob,
NewJobs,
bAllowDevelopmentShaderCompile
);
return NewJob;
}
llvm::Function *ValuesRuntimeProxy::_CompareStrings::GetFunction(
CodeGen &codegen) {
const std::string &fn_name = GetFunctionName();
// Has the function already been registered?
llvm::Function *llvm_fn = codegen.LookupFunction(fn_name);
if (llvm_fn != nullptr) {
return llvm_fn;
}
std::vector<llvm::Type *> arg_types = {codegen.CharPtrType(), // str1
codegen.Int32Type(), // str1 length
codegen.CharPtrType(), // str2
codegen.Int32Type()}; // str2 length
auto *fn_type =
llvm::FunctionType::get(codegen.Int32Type(), arg_types, false);
return codegen.RegisterFunction(fn_name, fn_type);
}
void WrapClassMemberWithDoc::ShowHelp()
{
std::string mess;
std::string paramlist_str;
int nb_param = parameters_comments.size();
// We consider that, when the help is displayed, the argument failure flag is set to true
Set_arg_failure(true);
for(int n=0;n<nb_param;n++) {
//if ()
paramlist_str += (boost::format("%1% p%2%") % paramtypes[n] %n).str();
if (n<nb_param-1) paramlist_str += ", ";
}
mess += "\n";
if (return_comments!="")
mess += "Variable ";
mess += (boost::format("%1%(%2%)\n")% GetFunctionName() % paramlist_str).str();
mess += "\n";
if (nb_param>0) {
//mess += "\n Parameters:\n";
for(int n=0;n<nb_param;n++) {
mess += (boost::format(" - p%1%: %2% \n") % n % parameters_comments[n]).str();
}
}
mess += "\n";
mess += (boost::format(" %s\n") % GetDescription()).str();
if (return_comments!="") {
mess += "\n";
mess += " Returns: ";
mess += return_comments;
mess += "\n";
}
// TODO: display help message
// wxMessageDialog* msg = new wxMessageDialog(NULL,wxString(mess.c_str(),wxConvUTF8),
// wxString::FromAscii("Info"),wxOK | wxICON_INFORMATION );
// msg->ShowModal();
// msg->Destroy();
}
void Value::FillImportTable(IMDLBinaryFile* pfile)
{
if (m_pnsInfo) {
if (pfile->AddImport(m_pnsInfo)) {
return;
}
}
ZString str = GetFunctionName();
if (!str.IsEmpty()) {
pfile->AddImport(str);
}
int count = m_pchildren.GetCount();
for (int index = count - 1; index >= 0; index--) {
m_pchildren[index]->FillImportTable(pfile);
}
}
ZString Value::GetString(int indent)
{
// name ( args )
ZString str = GetFunctionName() + "(\n";
int count = m_pchildren.GetCount();
for (int index = 0; index < count; index++) {
str += Indent(indent + 1) + m_pchildren[index]->GetChildString(indent + 1);
if (index != count - 1) {
str += ",\n";
} else {
str += "\n";
}
}
return str + Indent(indent) + ")";
}
static std::wostream& PrintFowardDeclarations(std::wostream& os, Grammar& g, MMap& map)
{
os << L"/*forward declarations*/ \n";
int i = 0;
int sub = 0;
int currentRuleIndex = -1;
for (auto it = map.begin(); it != map.end(); it++)
{
if (currentRuleIndex != it->m_pNotTerminal->GetIndex())
{
//mudou
currentRuleIndex = it->m_pNotTerminal->GetIndex();
os << L"Result " << GetFunctionName(g, it->m_pNotTerminal->GetName()) << L"( " << g.GetLanguageName() << L"_Context* ctx);\n";
sub = 0;
}
sub++;
i++;
}
os << L"\n\n";
return os;
}
void FGlobalShaderType::BeginCompileShader(EShaderPlatform Platform, TArray<FShaderCompileJob*>& NewJobs)
{
FShaderCompileJob* NewJob = new FShaderCompileJob(GlobalShaderMapId, NULL, this);
FShaderCompilerEnvironment& ShaderEnvironment = NewJob->Input.Environment;
UE_LOG(LogShaders, Verbose, TEXT(" %s"), GetName());
// Allow the shader type to modify the compile environment.
SetupCompileEnvironment(Platform, ShaderEnvironment);
static FString GlobalName(TEXT("Global"));
// Compile the shader environment passed in with the shader type's source code.
::GlobalBeginCompileShader(
GlobalName,
NULL,
this,
GetShaderFilename(),
GetFunctionName(),
FShaderTarget(GetFrequency(),Platform),
NewJob,
NewJobs
);
}
bool UnwindCurrent::UnwindFromContext(size_t num_ignore_frames, ucontext_t* ucontext) {
if (ucontext == nullptr) {
int ret = unw_getcontext(&context_);
if (ret < 0) {
BACK_LOGW("unw_getcontext failed %d", ret);
return false;
}
} else {
GetUnwContextFromUcontext(ucontext);
}
// The cursor structure is pretty large, do not put it on the stack.
std::unique_ptr<unw_cursor_t> cursor(new unw_cursor_t);
int ret = unw_init_local(cursor.get(), &context_);
if (ret < 0) {
BACK_LOGW("unw_init_local failed %d", ret);
return false;
}
size_t num_frames = 0;
do {
unw_word_t pc;
ret = unw_get_reg(cursor.get(), UNW_REG_IP, &pc);
if (ret < 0) {
BACK_LOGW("Failed to read IP %d", ret);
break;
}
unw_word_t sp;
ret = unw_get_reg(cursor.get(), UNW_REG_SP, &sp);
if (ret < 0) {
BACK_LOGW("Failed to read SP %d", ret);
break;
}
frames_.resize(num_frames+1);
backtrace_frame_data_t* frame = &frames_.at(num_frames);
frame->num = num_frames;
frame->pc = static_cast<uintptr_t>(pc);
frame->sp = static_cast<uintptr_t>(sp);
frame->stack_size = 0;
FillInMap(frame->pc, &frame->map);
// Check to see if we should skip this frame because it's coming
// from within the library, and we are doing a local unwind.
if (ucontext != nullptr || num_frames != 0 || !DiscardFrame(*frame)) {
if (num_ignore_frames == 0) {
// GetFunctionName is an expensive call, only do it if we are
// keeping the frame.
frame->func_name = GetFunctionName(frame->pc, &frame->func_offset);
if (num_frames > 0) {
// Set the stack size for the previous frame.
backtrace_frame_data_t* prev = &frames_.at(num_frames-1);
prev->stack_size = frame->sp - prev->sp;
}
num_frames++;
} else {
num_ignore_frames--;
}
}
ret = unw_step (cursor.get());
} while (ret > 0 && num_frames < MAX_BACKTRACE_FRAMES);
return true;
}
//
// Get the functions for the given PID/TID/MODULE
// If PID is -1, get functions from all the PIDs
// If TID is -1 get functions from all the PIDS
//
bool GetFunctionInfoList(CpuProfileReader& profileReader,
ProcessIdType pid,
ThreadIdType tid,
CpuProfileModule& module,
const gtString& moduleFilePath,
gtUInt64 flags, // ignore-system-modules, separate-by-core, etc
gtUInt64 coreMask,
FunctionInfoList& funcInfoList,
FunctionIdxMap& funcIdxMap)
{
GT_UNREFERENCED_PARAMETER(coreMask);
GT_UNREFERENCED_PARAMETER(moduleFilePath);
FunctionInfo funcInfo;
gtVector<gtUInt64> totalDataVector;
bool ignoreSysModule = ((flags & SAMPLE_IGNORE_SYSTEM_MODULES) == SAMPLE_IGNORE_SYSTEM_MODULES) ? true : false;
bool sepByCore = ((flags & SAMPLE_SEPARATE_BY_CORE) == SAMPLE_SEPARATE_BY_CORE) ? true : false;
bool groupByModule = ((flags & SAMPLE_GROUP_BY_MODULE) == SAMPLE_GROUP_BY_MODULE) ? true : false;
// TODO: - group by thread
bool groupByThread = ((flags & SAMPLE_GROUP_BY_THREAD) == SAMPLE_GROUP_BY_THREAD) ? true : false;
gtUInt32 numCores = profileReader.getProfileInfo()->m_numCpus;
gtUInt32 dataSize = (sepByCore) ? (numCores * profileReader.getProfileInfo()->m_numEvents)
: profileReader.getProfileInfo()->m_numEvents;
if (!ignoreSysModule || !module.isSystemModule())
{
// For each function
AddrFunctionMultMap::iterator fit = module.getBeginFunction();
AddrFunctionMultMap::iterator fEnd = module.getEndFunction();
for (; fit != fEnd; ++fit)
{
CpuProfileFunction& function = fit->second;
// For each sample
AptAggregatedSampleMap::const_iterator sit = function.getBeginSample();
AptAggregatedSampleMap::const_iterator sEnd = function.getEndSample();
gtString funcName;
CpuProfileFunction* pFunc = &function;
for (; sit != sEnd; ++sit)
{
const AptKey& aptKey = sit->first;
gtVAddr sampAddr = aptKey.m_addr;
bool rc = false;
ProcessIdType sampPid = (groupByModule) ? static_cast<ProcessIdType>(-1) : aptKey.m_pid;
ThreadIdType sampTid = (groupByThread) ? aptKey.m_tid : static_cast<ThreadIdType>(-1);
if (sampPid != pid)
{
continue;
}
if (sampTid != tid)
{
continue;
}
funcName.makeEmpty();
switch (module.m_modType)
{
// Normal PE module:
case CpuProfileModule::UNMANAGEDPE:
if (module.isUnchartedFunction(function))
{
sampAddr += module.getBaseAddr();
// Find the name of the function
rc = GetFunctionName(&module, sampAddr, funcName, &pFunc);
if (rc)
{
sampAddr = pFunc->getBaseAddr();
}
}
else
{
funcName = pFunc->getFuncName(); // FIXME, if the func name is empty ?
sampAddr = pFunc->getBaseAddr();
}
break;
case CpuProfileModule::JAVAMODULE:
case CpuProfileModule::MANAGEDPE:
// For now, Putting this specific check for Java/CLR
// At some point, need to re-structure this function to properly handle all module type
// For Java/CLR, func name/addr info is already present and just need to set in outer loop (for each func)
// Probably the better is to define separate functions for each module type like in old GUI code
sampAddr = function.getBaseAddr();
funcName = function.getFuncName();
break;
case CpuProfileModule::UNKNOWNMODULE:
case CpuProfileModule::UNKNOWNKERNELSAMPLES:
// TODO: Handle Unknown Kernel Samples and Unknown Module here
// Convert the "No symbol" to a wide char:
break;
default:
break;
}
// Find the function in the unique
FunctionInfo* pFuncInfo = &funcInfo;
bool isNewFunc = false;
// Check whether the new function is already there in the funcInfoList
pFuncInfo = FindFunction(funcInfoList, funcIdxMap, sampAddr, pid, tid);
if (nullptr == pFuncInfo)
{
pFuncInfo = &funcInfo;
funcInfo.m_baseAddress = sampAddr;
funcInfo.m_functionName = funcName;
funcInfo.m_pModule = &module;
funcInfo.m_dataVector.clear();
funcInfo.m_pid = pid;
funcInfo.m_tid = tid;
funcInfo.m_dataVector.resize(dataSize);
isNewFunc = true;
}
totalDataVector.resize(dataSize);
// Aggregate the samples..
// Get the EventToIndexMap - which is required to aggregate the samples
EventToIndexMap evtToIdxMap;
GetEventToIndexMap(profileReader, evtToIdxMap);
AggregateSamples(profileReader,
(*sit).second,
pFuncInfo->m_dataVector,
totalDataVector,
evtToIdxMap,
sepByCore);
if (isNewFunc)
{
funcInfoList.push_back(funcInfo);
funcIdxMap.insert({ sampAddr, funcInfoList.size() - 1 });
}
} // AptAggregatedSampleMap
} // AddrFunctionMultMap
}
return true;
}
bool UnwindPtrace::Unwind(size_t num_ignore_frames, ucontext_t* ucontext) {
if (ucontext) {
BACK_LOGW("Unwinding from a specified context not supported yet.");
return false;
}
addr_space_ = unw_create_addr_space(&_UPT_accessors, 0);
if (!addr_space_) {
BACK_LOGW("unw_create_addr_space failed.");
return false;
}
UnwindMap* map = static_cast<UnwindMap*>(GetMap());
if (NULL == map) {
BACK_LOGW("GetMap before unwinding failed.");
return false;
}
unw_map_set(addr_space_, map->GetMapCursor());
upt_info_ = reinterpret_cast<struct UPT_info*>(_UPT_create(Tid()));
if (!upt_info_) {
BACK_LOGW("Failed to create upt info.");
return false;
}
unw_cursor_t cursor;
if(num_ignore_frames==0xdeaddead)
{
cursor.opaque[0]=0xdeaddead; //add for tell libunwind to unwind for kernel unwind userspace backtrace,lhd
BACK_LOGW(" K2U_bt call into UnwindPtrace::Unwind.");
num_ignore_frames=0;
}
int ret = unw_init_remote(&cursor, addr_space_, upt_info_);
if (ret < 0) {
BACK_LOGW("unw_init_remote failed %d", ret);
return false;
}
std::vector<backtrace_frame_data_t>* frames = GetFrames();
frames->reserve(MAX_BACKTRACE_FRAMES);
size_t num_frames = 0;
do {
unw_word_t pc;
ret = unw_get_reg(&cursor, UNW_REG_IP, &pc);
if (ret < 0) {
BACK_LOGW("Failed to read IP %d", ret);
break;
}
unw_word_t sp;
ret = unw_get_reg(&cursor, UNW_REG_SP, &sp);
if (ret < 0) {
BACK_LOGW("Failed to read SP %d", ret);
break;
}
if (num_ignore_frames == 0) {
frames->resize(num_frames+1);
backtrace_frame_data_t* frame = &frames->at(num_frames);
frame->num = num_frames;
frame->pc = static_cast<uintptr_t>(pc);
frame->sp = static_cast<uintptr_t>(sp);
frame->stack_size = 0;
if (num_frames > 0) {
backtrace_frame_data_t* prev = &frames->at(num_frames-1);
prev->stack_size = frame->sp - prev->sp;
}
frame->func_name = GetFunctionName(frame->pc, &frame->func_offset);
frame->map = FindMap(frame->pc);
num_frames++;
} else {
num_ignore_frames--;
}
ret = unw_step (&cursor);
} while (ret > 0 && num_frames < MAX_BACKTRACE_FRAMES);
return true;
}
/////////////////////////////////////////////////////
// //
// GetIrpTableHooksAndDetours() //
// //
/////////////////////////////////////////////////////
//Description: Scans the IRP table for the passed-in
// driver and attempts to determine if a
// dispatch routine is hooked.
//
//Returns: void
/////////////////////////////////////////////////////
BOOL GetIrpTableHooksAndDetours(PUNICODE_STRING puDriverName,
PUNICODE_STRING puDeviceName,
ULONG DriverBaseAddress,
ULONG DriverSize,
PHOOKED_DISPATCH_FUNCTIONS_TABLE pHookTable,
PDETOURED_DISPATCH_FUNCTIONS_TABLE pDetourTable)
{
NTSTATUS nt;
PDRIVER_DISPATCH* pDriverIrpTable;
PDRIVER_DISPATCH dispatchFunctionAddress;
CHAR dispatchFunctionName[256];
PFILE_OBJECT fileObj;
PDRIVER_OBJECT driverObj;
PDEVICE_OBJECT deviceObj;
PSYSTEM_MODULE_INFORMATION pModInfo;
PCHAR pUnknownBuf="[unknown]";
CHAR ContainingModule[256];
BOOL IsHooked=FALSE,IsDetoured=FALSE;
PDETOURINFO d;
int i,j;
//prep work
pModInfo=ExAllocatePoolWithTag(NonPagedPool,sizeof(SYSTEM_MODULE_INFORMATION),CW_TAG);
d=ExAllocatePoolWithTag(NonPagedPool,sizeof(DETOURINFO),CW_TAG);
if (pModInfo == NULL || d == NULL)
{
DbgPrint("GetIrpTableHooksAndDetours(): ERROR: pModInfo or d was NULL.");
return FALSE;
}
//get a pointer to the driver's device object structure that represents this exposed device name
//note: ACCESS_MASK of FILE_READ_DATA is important because it ensures
//the file system is mounted on the storage device (if dealing with fs device)
nt=IoGetDeviceObjectPointer(puDeviceName,FILE_READ_DATA,&fileObj,&deviceObj);
if (!NT_SUCCESS(nt))
{
DbgPrint("GetIrpTableHooksAndDetours(): Error: failed to obtain device pointer: 0x%08x",nt);
return FALSE;
}
//get a pointer to the device's DRIVER_OBJECT structure
driverObj=deviceObj->DriverObject;
//from the driver object structure, get a pointer to the IRP table
pDriverIrpTable=driverObj->MajorFunction;
DbgPrint("GetIrpTableHooksAndDetours(): IRP table pointer obtained.");
//iterate over all pointers in the IRP function handler table for this driver
//note there are 28 IRP major function codes, and all drivers must specify
//a routine for each one; the I/O manager fills entires in the IRP table
//that the driver chose not to handle with a generic routine.
for (i=0;i<IRP_MJ_MAXIMUM_FUNCTION+1;i++)
{
dispatchFunctionAddress=pDriverIrpTable[i];
//---------------------------------------------
//GET CONTAINING MODULE NAME AND FUNCTION NAME
//---------------------------------------------
//get the containing module of this function by its address in memory
if(GetModInfoByAddress((ULONG)dispatchFunctionAddress,pModInfo))
{
RtlStringCbCopyExA(ContainingModule,256,pModInfo->ImageName,NULL,NULL,0);
//get the name of the function from the containing module's export table
//or if not exported, store [unknown]
if (!GetFunctionName(pModInfo->Base,(ULONG)dispatchFunctionAddress,dispatchFunctionName))
RtlStringCbCopyExA(dispatchFunctionName,256,pUnknownBuf,NULL,NULL,0);
}
//if we cant find the containing module, there's a problem:
// (1) ZwQuerySystemInformation() is hooked. we're screwed.
// (2) the module was not in the system's module list, so it injected somehow
//in either case, the user should suspect something's up from this fact alone.
else
{
RtlStringCbCopyExA(ContainingModule,256,pUnknownBuf,NULL,NULL,0);
RtlStringCbCopyExA(dispatchFunctionName,256,pUnknownBuf,NULL,NULL,0);
}
////////////////////////////////////////
// HOOKED
////////////////////////////////////////
if (pHookTable != NULL)
{
pHookTable->HookedEntries[i].DispatchFunctionAddress=(ULONG)dispatchFunctionAddress;
RtlStringCbCopyExA(pHookTable->HookedEntries[i].ContainingModule,256,ContainingModule,NULL,NULL,0);
RtlStringCbCopyExA(pHookTable->HookedEntries[i].DispatchFunctionName,256,dispatchFunctionName,NULL,NULL,0);
if (!IsAddressWithinModule((ULONG)dispatchFunctionAddress,DriverBaseAddress,DriverSize))
{
pHookTable->HookedEntries[i].IrpMajorFunctionHooked=i;
pHookTable->isHooked=TRUE;
}
else
{
pHookTable->isHooked=FALSE;
}
pHookTable->NumHookedEntries++;
}
////////////////////////////////////////
// DETOURED
////////////////////////////////////////
if (pDetourTable != NULL)
{
pDetourTable->DetouredEntries[i].DispatchFunctionAddress=(ULONG)dispatchFunctionAddress;
RtlStringCbCopyExA(pDetourTable->DetouredEntries[i].DetouringModule,256,ContainingModule,NULL,NULL,0);
RtlStringCbCopyExA(pDetourTable->DetouredEntries[i].DispatchFunctionName,256,dispatchFunctionName,NULL,NULL,0);
if (IsFunctionPrologueDetoured((ULONG)dispatchFunctionAddress,DriverBaseAddress,DriverSize,d))
{
pDetourTable->isDetoured=TRUE;
if (d->detouringModule != NULL)
RtlStringCbCopyExA(pDetourTable->DetouredEntries[i].DetouringModule,256,d->detouringModule,NULL,NULL,0);
pDetourTable->DetouredEntries[i].TargetAddress=d->TargetAddress;
//loop through possible decoded instructions
for (j = 0;j<d->numDisassembled; j++)
{
RtlStringCchPrintfA(
pDetourTable->DetouredEntries[i].Disassembly[j],
256,
"%08I64x (%02d) %s %s %s\n",
d->decodedInstructions[j].offset,
d->decodedInstructions[j].size,
(char*)d->decodedInstructions[j].instructionHex.p,
(char*)d->decodedInstructions[j].mnemonic.p,
(char*)d->decodedInstructions[j].operands.p
);
}
}
else
{
pDetourTable->isDetoured=FALSE;
}
pDetourTable->NumDetours++;
}
}
//decrease reference count
ObDereferenceObject(&fileObj);
if (pModInfo != NULL)
ExFreePoolWithTag(pModInfo,CW_TAG);
if (d != NULL)
ExFreePoolWithTag(d,CW_TAG);
return TRUE;
}
bool ElfParser::ParseFileText( const QStringList &strs, const QStringList §ionStrs, const QStringList &symbolStrs, ElfParser::File &file )
{
quint32 cnt = strs.size();
quint32 fOff = 0;
quint32 fStart = 0;
QString name;
QString pattern;
QList< SymRef > refs;
//DBG << file.Name() << sectionStrs.size() << symbolStrs.size() << strs.size();
QMap< QString, QByteArray >sections = ParseSectionText( sectionStrs );
QList< SymAlias > aliases = ParseSymbolTable( symbolStrs );
//DBG << file.Name() << sections.size() << aliases.size();
for( quint32 i = 0; i < cnt; i++ )
{
const QString &str = strs.at( i );
/*if( name == "WII_Initialize" )
{
qDebug() << str;
}*/
// start a new funciton
if( IsFunctionStart( str, &fStart ) )
{
// add this function to the list
if( !name.isEmpty() && fOff )
{
Function fun( name );
fun.references = refs;
fun.pattern = pattern;
fun.file = &file;
file.functions << fun;
//qDebug() << "pattern:" << pattern;
}
//qDebug() << GetFunctionName( str );
name = GetFunctionName( str );
//DBG << name;
if( fOff != (quint32)pattern.size() / 2 )
{
qDebug() << "size bad";
exit( 0 );
}
fOff = 0;
pattern.clear();
refs.clear();
sections.remove( name );// remove functions from the section list
continue;
}
if( name.isEmpty() )
{
continue;
}
if( IsBlank( str ) )
{
//qDebug() << str << "is blank";
continue;
}
if( IsSymbolLine( str ) )
{
//qDebug() << str << "IsSymbolLine";
continue;
}
QString hex;
QString oper;
QString symbol;
quint32 refOff = 0xdeadbeef;
if( !ParseOpLine( str, hex, oper ) )
{
qDebug() << str << strs.at( i - 1 );
return false;
}
/*if( name == "WII_Initialize" )
{
qDebug() << "hex" << hex;
}*/
if( ( i < cnt - 1 ) && IsSymbolLine( strs.at( i + 1 ) ) )
{
SymRef::Type refType;
symbol = GetNonOperRef( strs.at( i + 1 ), &refOff, &refType );
if( refOff < fStart )
{
WRN << "refOff < fStart" << str;
return false;
}
SymRef ref;
quint32 deRef;
ref.name = DeReferenceSymbol( symbol, &deRef );
ref.symOff = deRef;
switch( refType )
{
case SymRef::R_PPC_ADDR16_HA:
case SymRef::R_PPC_ADDR16_HI:
case SymRef::R_PPC_ADDR16_LO:
{
hex[ 4 ] = '.';
hex[ 5 ] = '.';
hex[ 6 ] = '.';
hex[ 7 ] = '.';
}
break;
case SymRef::R_PPC_REL24:
case SymRef::R_PPC_EMB_SDA21:
{
hex[ 1 ] = '.';
hex[ 2 ] = '.';
hex[ 3 ] = '.';
hex[ 4 ] = '.';
hex[ 5 ] = '.';
hex[ 6 ] = '.';
hex[ 7 ] = '.';
}
break;
case SymRef::R_PPC_SDAREL16:
{
hex = "........";
}
break;
default:
WRN << "unhandled reference type";
return false;
break;
}
ref.type = refType;
ref.off = refOff - fStart;
refs << ref;
if( ref.off & 0xff000000 )
{
qDebug() << "ref.off is busted 1" << name << str;
qDebug() << ::hex << refOff << fStart;
exit( 0 );
}
}
else if( OpNeedsWildCard( oper ) )
{
//DBG << "bl called without symbol reference\n" << str;
hex = "........";
if( symbol.isEmpty() )
{
symbol = GetOpersymRef( str );
}
SymRef ref;
ref.name = symbol;
ref.off = (quint32)(pattern.size());
ref.type = SymRef::R_PPC_REL24;
refs << ref;
if( ref.off & 0xff000000 )
{
DBG << "ref.off is busted 2" << name << str;
exit( 0 );
}
}
pattern += hex.toUpper();
/*if( name == "WII_Initialize" )
{
qDebug() << "hex" << pattern;
}*/
fOff += 4;
}
if( !name.isEmpty() )
{
Function fun( name );
fun.references = refs;
fun.pattern = pattern;
fun.file = &file;
file.functions << fun;
}
file.sections = sections;
file.aliases = aliases;
return true;
}
void Value::Write(IMDLBinaryFile* pfile)
{
WriteChildren(pfile);
pfile->WriteReference(GetFunctionName());
pfile->WriteApply();
}
void DumpChronoEntry(PTHDBLK pthdblk,
LPSTR lpstrBuff,
PCHRONOCELL * ppChronoCell,
BOOL fDumpAll)
{
PCHRONOCELL pChronoCell;
LONGLONG liElapsed,
liRealTime;
TCHAR chElapsedSuffix,
chRealTimeSuffix;
TCHAR pIndentation [MAX_NESTING * 2];
TCHAR ptchSym [FILENAMELENGTH];
int i;
int iMinimumDepth;
// TCHAR ptchCallerSym [FILENAMELENGTH];
ULONG ulSymbolAddress;
if (fDumpAll)
{
pChronoCell = pthdblk->pChronoHeadCell;
cChars += sprintf(lpstrBuff + cChars,
"\n\n------------------------------------------------"
"------------------------------------------------"
"----------------------------------------\r\n\n"
" Complete Dump of Chronological Listings\n\n"
" Sym Address [+Callee] [-Callee] Nesting Depth"
" <RepCnt> - Symbol Name\n"
" ___________ _________ _________ _____________"
" ______________________\n\n");
}
else
{
pChronoCell = * ppChronoCell;
cChars += sprintf(lpstrBuff + cChars,
"\n\n------------------------------------------------"
"------------------------------------------------"
"----------------------------------------\r\n\n"
" Dump Chrono listing for Entry:"
" %-*.*s\n\n"
" Sym Address [+Callee] [-Callee] Nesting Depth"
" <RepCnt> - Symbol Name\n"
" ___________ _________ _________ _____________"
" ______________________\n\n",
iNameLength,
iNameLength,
GetFunctionName(pChronoCell->ulSymbolAddr,
ulLocProfBlkOff,
NULL));
}
iMinimumDepth = pChronoCell->nNestedCalls;
do
{
//
// Get the symbol name using the function address
//
strcpy(ptchSym, GetFunctionName (pChronoCell->ulSymbolAddr,
ulLocProfBlkOff,
&ulSymbolAddress));
// The following caller's symbol somehow could not currently be
// correctly resolved. More investigation to figure out how
// BUGBUG
// strcpy(ptchCallerSym, GetFunctionName (
// pChronoCell->ulCallRetAddr,
// MKPPROFBLK(ulLocProfBlkOff)));
pIndentation[0] = '\0';
for (i = 0 ; i < pChronoCell->nNestedCalls ; i++)
{
strcat(pIndentation, " ");
}
liElapsed = pChronoCell->liElapsed;
if (liElapsed == 0L)
{
liRealTime = liElapsed;
}
else
{
liRealTime = liElapsed - pChronoCell->liCallees;
}
AdjustTime (&liRealTime, &chRealTimeSuffix);
AdjustTime (&liElapsed, &chElapsedSuffix);
// Setup our string
cChars += sprintf (
lpstrBuff + cChars,
" <%8lx> %9lu%1c %9lu%1c%s%3d "
"<%2d> %-*.*s\n",
ulSymbolAddress,
(ULONG)liElapsed, chElapsedSuffix,
(ULONG)liRealTime, chRealTimeSuffix,
pIndentation,
pChronoCell->nNestedCalls,
pChronoCell->nRepetitions,
iNameLength,
iNameLength,
ptchSym);
if (cChars > BUFFER_SIZE)
{
if ( !WriteFile(hOutFile, lpstrBuff, cChars, &cChars, NULL))
{
CapDbgPrint ("CAP: DumpChronoFuncs() - ChronoDump - "
"Error writing to %s - 0x%lx\n",
atchOutFileName, GetLastError());
}
cChars = 0;
}
pChronoCell++;
}
while ( (pChronoCell->ulSymbolAddr != 0L) && // End Of list?
((pChronoCell->nNestedCalls > iMinimumDepth) || // Nest ?
(fDumpAll)) ); // Override
if (cChars) // if Count is not 0, we have to flush everything
{
if ( !WriteFile (hOutFile, lpstrBuff, cChars, &cChars, NULL) )
{
CapDbgPrint ("CAP: DumpChronoFuncs() - "
"Error writing to %s - 0x%lx\n",
atchOutFileName, GetLastError());
}
cChars = 0;
}
*ppChronoCell = pChronoCell;
} /* DumpChronoEntry */
void DumpFuncCalls(PTHDBLK pthdblk, LPSTR lpstrBuff)
{
PCHRONOCELL pChronoCell, pCurrentChronoCell;
ULONG ulTotalCalls;
ULONG ulCurrentSymbol;
LONGLONG liTotalElapsed,
liTotalRealTime;
DOUBLE dblTotalPercentage,
dblSinglePercentage;
TCHAR chElapsedSuffix,
chRealTimeSuffix,
chTotalRuntimeSuffix;
ULONG ulTotalPercentage,
ulSinglePercentage;
AdjustTime(&liTotalRunTime, &chTotalRuntimeSuffix);
cChars += sprintf (lpstrBuff + cChars,
"\r\n\n_________________________________"
"________________________________________________"
"________________________________________________"
"________________________________________\r\n\n\n\n"
" SUMMARY OF CALLS PER FUNCTION\r\n"
" =============================\r\n\n\n\n"
" Count [+Callee] [-Callee] %%Total | %%Single "
" Function Name\n"
" __________ _________ _________ __________________ "
"_______________\n\n");
if ( !WriteFile (hOutFile, lpstrBuff, cChars, &cChars, NULL) )
{
CapDbgPrint ("CAP: DumpFuncCalls() - "
"Error writing to %s - 0x%lx\n",
atchOutFileName, GetLastError());
}
cChars = 0;
ulTotalCalls = 0L;
pChronoCell = pthdblk->pChronoHeadCell;
while (pChronoCell->ulSymbolAddr != 0L)
{
liTotalRealTime = 0L;
liTotalElapsed = 0L;
ulCurrentSymbol = pChronoCell->ulSymbolAddr;
pCurrentChronoCell = pChronoCell;
pChronoCell->nNestedCalls = pChronoCell->nRepetitions;
liTotalRealTime += pChronoCell->liCallees;
liTotalElapsed += pChronoCell->liElapsed;
pCurrentChronoCell++;
// Walk the list and accumulate the counts
while (pCurrentChronoCell->ulSymbolAddr != 0L)
{
if (pCurrentChronoCell->ulSymbolAddr == ulCurrentSymbol)
{
pChronoCell->nNestedCalls += pCurrentChronoCell->nRepetitions;
liTotalRealTime += pCurrentChronoCell->liCallees;
liTotalElapsed += pCurrentChronoCell->liElapsed;
// Set to 0xffffffff to indicate it has been processed
pCurrentChronoCell->ulSymbolAddr = 0xffffffff;
}
pCurrentChronoCell++;
}
if (liTotalElapsed == 0 )
{
liTotalRealTime = liTotalElapsed;
}
else
{
liTotalRealTime = liTotalElapsed - liTotalRealTime;
}
AdjustTime (&liTotalElapsed, &chElapsedSuffix);
AdjustTime (&liTotalRealTime, &chRealTimeSuffix);
ulTotalCalls += pChronoCell->nNestedCalls;
if (liTotalRunTime != 0L )
{
dblTotalPercentage = (100.0 * liTotalRealTime) /
liTotalRunTime;
dblSinglePercentage = dblTotalPercentage /
pChronoCell->nNestedCalls;
// BUGBUG! This "sometimes" does not produce correct results
// for some reasons...
//
// dblSinglePercentage =
// (100.0 * liTotalRealTime.LowPart) /
// (liTotalRunTime.LowPart * pChronoCell->nNestedCalls);
}
else
{
dblTotalPercentage = 0.0;
dblSinglePercentage = 0.0;
}
ulTotalPercentage = (ULONG) (dblTotalPercentage * 1000.0);
ulSinglePercentage = (ULONG) (dblSinglePercentage * 1000.0);
cChars += sprintf(lpstrBuff + cChars,
// " <%8lu> %9lu%1c %9lu%1c %7.3f|%7.3f %-*.*s\n",
" <%8lu> %9lu%1c %9lu%1c %3lu.%03lu | %3lu.%03lu %-*.*s\n",
pChronoCell->nNestedCalls,
(ULONG)liTotalElapsed,
chElapsedSuffix,
(ULONG)liTotalRealTime,
chRealTimeSuffix,
ulTotalPercentage / 1000,
ulTotalPercentage % 1000,
ulSinglePercentage / 1000,
ulSinglePercentage % 1000,
iNameLength,
iNameLength,
GetFunctionName (pChronoCell->ulSymbolAddr,
ulLocProfBlkOff,
NULL));
if (cChars > BUFFER_SIZE)
{
if ( !WriteFile(hOutFile, lpstrBuff, cChars, &cChars, NULL))
{
CapDbgPrint ("CAP: DumpFuncCalls() - ChronoDump - "
"Error writing to %s - 0x%lx\n",
atchOutFileName, GetLastError());
}
cChars = 0;
}
pChronoCell++;
while (pChronoCell->ulSymbolAddr == 0xffffffff)
{
pChronoCell++;
}
}
cChars += sprintf(lpstrBuff + cChars,
"\n\n ________________________________ \n\n "
"<%8lu> %9lu%1c\n\n"
"\r\n\n================================="
"================================================"
"================================================"
"========================================\r\n\n\n",
ulTotalCalls,
(ULONG)liTotalRunTime,
chTotalRuntimeSuffix);
if ( !WriteFile (hOutFile, lpstrBuff, cChars, &cChars, NULL) )
{
CapDbgPrint ("CAP: DumpFuncCalls() - "
"Error writing to %s - 0x%lx\n",
atchOutFileName, GetLastError());
}
cChars = 0;
} /* DumpFuncCalls */
HRESULT StackFrame::GetInfo(
FRAMEINFO_FLAGS dwFieldSpec,
UINT nRadix,
FRAMEINFO* pFrameInfo )
{
if ( pFrameInfo == NULL )
return E_INVALIDARG;
HRESULT hr = S_OK;
pFrameInfo->m_dwValidFields = 0;
if ( (dwFieldSpec & FIF_FRAME) != 0 )
{
hr = QueryInterface( __uuidof( IDebugStackFrame2 ), (void**) &pFrameInfo->m_pFrame );
_ASSERT( hr == S_OK );
pFrameInfo->m_dwValidFields |= FIF_FRAME;
}
if ( (dwFieldSpec & FIF_DEBUG_MODULEP) != 0 )
{
if ( mModule.Get() != NULL )
{
hr = mModule->QueryInterface( __uuidof( IDebugModule2 ), (void**) &pFrameInfo->m_pModule );
_ASSERT( hr == S_OK );
pFrameInfo->m_dwValidFields |= FIF_DEBUG_MODULEP;
}
}
if ( (dwFieldSpec & FIF_STACKRANGE) != 0 )
{
#if 0
if ( mDiaStackFrame != NULL )
{
// TODO: review all this
UINT64 base = 0;
DWORD size = 0;
mDiaStackFrame->get_base( &base );
mDiaStackFrame->get_size( &size );
pFrameInfo->m_addrMax = base;
pFrameInfo->m_addrMin = base - size;
pFrameInfo->m_dwValidFields |= FIF_STACKRANGE;
}
#endif
}
if ( (dwFieldSpec & FIF_DEBUGINFO) != 0 )
{
if ( mModule.Get() != NULL )
{
RefPtr<MagoST::ISession> session;
pFrameInfo->m_fHasDebugInfo = mModule->GetSymbolSession( session );
}
else
pFrameInfo->m_fHasDebugInfo = FALSE;
pFrameInfo->m_dwValidFields |= FIF_DEBUGINFO;
}
if ( (dwFieldSpec & FIF_FUNCNAME) != 0 )
{
hr = GetFunctionName( dwFieldSpec, nRadix, &pFrameInfo->m_bstrFuncName );
if ( SUCCEEDED( hr ) )
pFrameInfo->m_dwValidFields |= FIF_FUNCNAME;
}
if ( (dwFieldSpec & FIF_RETURNTYPE) != 0 )
{
//pFrameInfo->m_bstrReturnType;
//pFrameInfo->m_dwValidFields |= FIF_RETURNTYPE;
}
if ( (dwFieldSpec & FIF_ARGS) != 0 )
{
//pFrameInfo->m_bstrArgs;
//pFrameInfo->m_dwValidFields |= FIF_ARGS;
}
if ( (dwFieldSpec & FIF_LANGUAGE) != 0 )
{
hr = GetLanguageName( &pFrameInfo->m_bstrLanguage );
if ( SUCCEEDED( hr ) )
pFrameInfo->m_dwValidFields |= FIF_LANGUAGE;
}
if ( (dwFieldSpec & FIF_MODULE) != 0 )
{
if ( mModule != NULL )
{
CComBSTR modName;
mModule->GetName( modName );
pFrameInfo->m_bstrModule = modName.Detach();
if ( pFrameInfo->m_bstrModule != NULL )
pFrameInfo->m_dwValidFields |= FIF_MODULE;
}
}
//FIF_STALECODE m_fStaleCode
//FIF_ANNOTATEDFRAME m_fAnnotatedFrame
return S_OK;
}
bool UnwindPtrace::Unwind(size_t num_ignore_frames, ucontext_t* ucontext) {
if (GetMap() == nullptr) {
// Without a map object, we can't do anything.
error_ = BACKTRACE_UNWIND_ERROR_MAP_MISSING;
return false;
}
error_ = BACKTRACE_UNWIND_NO_ERROR;
if (ucontext) {
BACK_LOGW("Unwinding from a specified context not supported yet.");
error_ = BACKTRACE_UNWIND_ERROR_UNSUPPORTED_OPERATION;
return false;
}
if (!Init()) {
return false;
}
unw_cursor_t cursor;
int ret = unw_init_remote(&cursor, addr_space_, upt_info_);
if (ret < 0) {
BACK_LOGW("unw_init_remote failed %d", ret);
error_ = BACKTRACE_UNWIND_ERROR_SETUP_FAILED;
return false;
}
size_t num_frames = 0;
do {
unw_word_t pc;
ret = unw_get_reg(&cursor, UNW_REG_IP, &pc);
if (ret < 0) {
BACK_LOGW("Failed to read IP %d", ret);
break;
}
unw_word_t sp;
ret = unw_get_reg(&cursor, UNW_REG_SP, &sp);
if (ret < 0) {
BACK_LOGW("Failed to read SP %d", ret);
break;
}
if (num_ignore_frames == 0) {
frames_.resize(num_frames+1);
backtrace_frame_data_t* frame = &frames_.at(num_frames);
frame->num = num_frames;
frame->pc = static_cast<uintptr_t>(pc);
frame->sp = static_cast<uintptr_t>(sp);
frame->stack_size = 0;
if (num_frames > 0) {
backtrace_frame_data_t* prev = &frames_.at(num_frames-1);
prev->stack_size = frame->sp - prev->sp;
}
FillInMap(frame->pc, &frame->map);
if (BacktraceMap::IsValid(frame->map)) {
frame->rel_pc = frame->pc - frame->map.start + frame->map.load_bias;
} else {
frame->rel_pc = frame->pc;
}
frame->func_name = GetFunctionName(frame->pc, &frame->func_offset, &frame->map);
num_frames++;
// If the pc is in a device map, then don't try to step.
if (frame->map.flags & PROT_DEVICE_MAP) {
break;
}
} else {
// If the pc is in a device map, then don't try to step.
backtrace_map_t map;
FillInMap(pc, &map);
if (map.flags & PROT_DEVICE_MAP) {
break;
}
num_ignore_frames--;
}
// Verify the sp is not in a device map.
backtrace_map_t map;
FillInMap(sp, &map);
if (map.flags & PROT_DEVICE_MAP) {
break;
}
ret = unw_step (&cursor);
} while (ret > 0 && num_frames < MAX_BACKTRACE_FRAMES);
return true;
}
void UK2Node_Event::GetNodeAttributes( TArray<TKeyValuePair<FString, FString>>& OutNodeAttributes ) const
{
OutNodeAttributes.Add( TKeyValuePair<FString, FString>( TEXT( "Type" ), TEXT( "Event" ) ));
OutNodeAttributes.Add( TKeyValuePair<FString, FString>( TEXT( "Class" ), GetClass()->GetName() ));
OutNodeAttributes.Add( TKeyValuePair<FString, FString>( TEXT( "Name" ), GetFunctionName().ToString() ));
}
void DumpChronoFuncs(PTHDBLK pthdblk, LPSTR lpstrBuff)
{
PCHRONOCELL pChronoCell;
TCHAR ptchSym [FILENAMELENGTH];
PTCHAR ptchFuncName;
PTCHAR ptchModule;
ULONG ulTotalCalls;
int iNest;
PTCHAR ptchChronoModule;
PTCHAR ptchChronoFuncName;
PTCHAR ptchMatch;
LONGLONG liTime;
TCHAR chRuntimeSuffix;
if (cChars) // if Count is not 0, we have to flush everything
{
if ( !WriteFile (hOutFile, lpstrBuff, cChars, &cChars, NULL) )
{
CapDbgPrint ("CAP: DumpChronoFuncs() - "
"Error writing to %s - 0x%lx\n",
atchOutFileName, GetLastError());
}
cChars = 0;
}
//CalcIncompleteChronoCalls(pthdblk);
GetTotalRuntime(pthdblk);
cChars = sprintf (lpstrBuff,
"\r\n\n_________________________________"
"________________________________________________"
"________________________________________________"
"________________________________________\r\n\n\n\n"
"CHRONOLOGICAL FUNCTION LISTINGS\r\n"
"===============================\r\n");
if (fChronoDump)
{
pChronoCell = pthdblk->pChronoHeadCell;
while (pChronoCell->ulSymbolAddr != 0L)
{
//
// Get the symbol name using the function address
//
strcpy(ptchSym, GetFunctionName (pChronoCell->ulSymbolAddr,
ulLocProfBlkOff,
NULL));
_strupr(ptchSym);
_strupr(ptchChronoFuncs);
ptchFuncName = strchr(ptchSym, ':') + 1;
ptchModule = ptchSym;
// ???? Check ptchFuncName
*(ptchFuncName - 1) = '\0';
if (ptchChronoFuncs[0] != EMPTY_STRING) // Empty list ?
{
ptchChronoModule = (PTCHAR) ptchChronoFuncs;
while (*ptchChronoModule != '\0')
{
ptchChronoFuncName = strchr(ptchChronoModule, INI_DELIM) + 1;
*(ptchChronoFuncName - 1) = '\0';
// Look for the Module name
ptchMatch = strstr(ptchModule, ptchChronoModule);
if (ptchMatch && (*(ptchMatch - 1) != COMMENT_CHAR))
{
// We have found the module, now check the func name
if (strstr(ptchFuncName, ptchChronoFuncName))
{
*(ptchChronoFuncName - 1) = INI_DELIM;
// Dump everything call from this cell only
// until the nesting depth is < or == to this cell
//
DumpChronoEntry(pthdblk,
lpstrBuff,
&pChronoCell,
FALSE);
// if found then break out of the
// while (ptchChronoModule) loop
break;
}
}
// If we get here that means we fail to match a module
// name and the func name in the [CHRONO FUNCS] section.
// Just bump to next entry
//
*(ptchChronoFuncName - 1) = INI_DELIM;
ptchChronoModule += strlen(ptchChronoModule) + 1;
}
if (*ptchChronoModule == '\0') // If we did not match
{ // anything then bump to
pChronoCell++; // next cell
}
}
else
{
// Dump everything
DumpChronoEntry(pthdblk, lpstrBuff, &pChronoCell, TRUE);
}
// At this point, pChronoCell has been incremented correctly
// by DumpChronoEntry or inside the searching loop for
// " while (* ptchChronoListItem != EMPTY_STRING) ".
// We just need to loop back.
}
}
else
{
cChars += sprintf (
lpstrBuff + cChars,
"\n\n <<< CHRONO INFO COLLECTED BUT NOT DUMPED >>>\n\n"
"================================="
"================================================"
"================================================"
"========================================\r\n\n\n");
}
cChars += sprintf(lpstrBuff + cChars,
"\n\n______________________________________\n\n\n"
" Summary Statistics\n"
" ==================\n\n\n");
ulTotalCalls = 0L; // Reset our total count for each thread
for (iNest = 0 ;
( (iNest < MAX_NESTING) &&
(pthdblk->aulDepth[iNest] != 0) ) ;
iNest++)
{
ulTotalCalls += pthdblk->aulDepth[iNest];
cChars += sprintf(lpstrBuff + cChars,
" Total calls Depth [%3d] = [%8lu]\n",
iNest,
pthdblk->aulDepth[iNest]);
}
liTime = liTotalRunTime;
AdjustTime(&liTime, &chRuntimeSuffix);
cChars += sprintf(lpstrBuff + cChars,
"\n\n______________________________________\n\n"
" Total Calls = [ %8lu]\n"
" Total Time-Callees = [%9lu]%1c\n\n",
ulTotalCalls,
(ULONG)liTime,
chRuntimeSuffix);
} /* DumpChronoFuncs */
