void SymbolTable::print(){
char tmpstr[__MAX_STRING_SIZE];
PRINT_INFOR("SymbolTable : %d aka sect %d with %d symbols",index,getSectionIndex(),symbols.size());
PRINT_INFOR("\tdyn? : %s", isDynamic() ? "yes" : "no");
for (uint32_t i = 0; i < symbols.size(); i++){
symbols[i]->print();
}
}
void DataReference::print(){
uint16_t sidx = 0;
if (rawSection){
sidx = rawSection->getSectionIndex();
}
PRINT_INFOR("DATAREF %#llx: Offset %#llx in section %d -- %#llx", getBaseAddress(), sectionOffset, sidx, data);
}
void DataSection::setBytesAtOffset(uint64_t offset, uint32_t size, char* content){
if (offset + size > getSizeInBytes()){
PRINT_INFOR("offset %ld size %d GetSize %ld", offset, size, getSizeInBytes());
}
ASSERT(offset + size <= getSizeInBytes());
ASSERT(rawBytes);
memcpy(rawBytes + offset, content, size);
}
void DataSection::printBytes(uint64_t offset, uint32_t bytesPerWord, uint32_t bytesPerLine){
fprintf(stdout, "\n");
PRINT_INFOR("Raw bytes for DATA section %d:", sectionIndex);
uint32_t printMax = getSectionHeader()->GET(sh_size);
if (0x400 < printMax){
printMax = 0x400;
}
printBufferPretty(charStream() + offset, printMax, getSectionHeader()->GET(sh_addr) + offset, bytesPerWord, bytesPerLine);
}
void RelocationTable::print(){
PRINT_INFOR("RelocTable : %d aka sect %d with %d relocations",index,getSectionIndex(),relocations.size());
PRINT_INFOR("\tadd? : %s", type == ElfRelType_rela ? "yes" : "no");
PRINT_INFOR("\tsect : %d", elfFile->getSectionHeader(getSectionIndex())->GET(sh_info));
PRINT_INFOR("\tstbs : %d", elfFile->getSectionHeader(getSectionIndex())->GET(sh_link));
ASSERT(elfFile->getSectionHeader(getSectionIndex()) && "Section header doesn't exist");
for (uint32_t i = 0; i < relocations.size(); i++){
char* namestr = NULL;
Symbol* foundsymbols[3];
for (uint32_t j = 0; j < 3; j++){
foundsymbols[j] = NULL;
}
symbolTable->findSymbol4Addr(relocations[i]->GET(r_offset),foundsymbols,3,&namestr);
relocations[i]->print(namestr);
for (uint32_t j = 0; j < 3; j++){
if (foundsymbols[j]){
foundsymbols[j]->print();
}
}
delete[] namestr;
}
}
CallReplace::CallReplace(ElfFile* elf, char* traceFile, char* libList)
: InstrumentationTool(elf)
{
programEntry = NULL;
programExit = NULL;
functionList = new Vector<char*>();
initializeFileList(traceFile, functionList);
// replace any ':' character with a '\0'
for (uint32_t i = 0; i < (*functionList).size(); i++){
char* both = (*functionList)[i];
uint32_t numrepl = 0;
for (uint32_t j = 0; j < strlen(both); j++){
if (both[j] == ':'){
both[j] = '\0';
numrepl++;
}
}
if (numrepl != 1){
PRINT_ERROR("input file %s line %d should contain a ':'", traceFile, i+1);
}
}
Vector<uint32_t> libIdx;
libIdx.append(0);
uint32_t listSize = strlen(libList);
for (uint32_t i = 0; i < listSize; i++){
if (libList[i] == ','){
libList[i] = '\0';
libIdx.append(i+1);
}
}
for (uint32_t i = 0; i < libIdx.size(); i++){
if (libIdx[i] < listSize){
libraries.append(libList + libIdx[i]);
} else {
PRINT_ERROR("improperly formatted library list given to call replacement tool");
__SHOULD_NOT_ARRIVE;
}
}
for (uint32_t i = 0; i < libraries.size(); i++){
PRINT_INFOR("library -- %s", libraries[i]);
}
}
void ProgramHeader::print() {
PRINT_INFOR("PHeader : %d",index);
if(GET(p_type) <= PT_PHDR){
PRINT_INFOR("\tPtyp : %s",PTypeNames[GET(p_type)]);
} else {
char* ptr = "UNK";
switch(GET(p_type)){
case PT_LOOS : ptr = "LOOS"; break;
case PT_GNU_EH_FRAME : ptr = "GNU_EH_FRAME"; break;
case PT_GNU_STACK : ptr = "GNU_STACK"; break;
case PT_LOSUNW : ptr = "LOSUNW"; break;
case PT_SUNWSTACK : ptr = "SUNWSTACK"; break;
case PT_HIOS : ptr = "HIOS"; break;
case PT_LOPROC : ptr = "LOPROC"; break;
case PT_HIPROC : ptr = "HIPROC"; break;
default : ptr = "UNK"; break;
}
PRINT_INFOR("\tPtyp : %s (%#x)",ptr,GET(p_type));
}
PRINT_INFOR("\tPoff : @%llx for %lluB",GET(p_offset),GET(p_filesz));
PRINT_INFOR("\tPvad : %#llx for %lluB",GET(p_vaddr),GET(p_memsz));
PRINT_INFOR("\tPpad : %#llx",GET(p_paddr));
uint32_t alignment = GET(p_align);
for(uint32_t i=0;i<32;i++){
if((alignment >> i) & 0x1){
alignment = i;
}
}
PRINT_INFOR("\talig : 2**%u",alignment);
uint32_t flags = GET(p_flags);
PRINT_INFOR("\tflgs : %c%c%c%c%c",ISPF_R(flags) ? 'r' : '-',
ISPF_W(flags) ? 'w' : '-',
ISPF_X(flags) ? 'x' : '-',
flags == PF_MASKOS ? 'o' : '-',
flags == PF_MASKPROC ? 'p' : '-');
}
void Symbol::print(){
char* bindstr = "UNK";
switch(ELF32_ST_BIND(GET(st_info))){
case STB_LOCAL: bindstr="LOC";break;
case STB_GLOBAL:bindstr="GLB";break;
case STB_WEAK: bindstr="WEA";break;
case STB_NUM: bindstr="NUM";break;
case STB_LOOS: bindstr="LOS";break;
case STB_HIOS: bindstr="HIS";break;
case STB_LOPROC:bindstr="LOP";break;
case STB_HIPROC:bindstr="HIP";break;
default: break;
}
char* typestr = "UNK";
switch(ELF32_ST_TYPE(GET(st_info))){
case STT_NOTYPE: typestr="NOTY";break;
case STT_OBJECT: typestr="OBJT";break;
case STT_FUNC: typestr="FUNC";break;
case STT_SECTION:typestr="SECT";break;
case STT_FILE: typestr="FILE";break;
case STT_COMMON: typestr="COMM";break;
case STT_TLS: typestr="TLS ";break;
case STT_NUM: typestr="NUM ";break;
case STT_LOOS: typestr="LOOS";break;
case STT_HIOS: typestr="HIOS";break;
case STT_LOPROC: typestr="LOPR";break;
case STT_HIPROC: typestr="HIPR";break;
default:break;
}
char* symbolName = table->getSymbolName(index);
PRINT_INFOR("\tsym%5d -- sx:%5d sz:%8lld bxt: %3s.%4s vl:%#12llx ot:%3d nx:%8u\t%s",index,
GET(st_shndx),GET(st_size),bindstr,typestr,GET(st_value),GET(st_other),
GET(st_name),symbolName ? symbolName : "");
}
int main(int argc,char* argv[]){
int overflow = 0xbeefbeef;
char* inptName = NULL;
char* extension = "";
char* libPath = NULL;
int32_t phaseNo = 0;
uint32_t instType = unknown_inst_type;
uint32_t argApp = 0;
uint32_t argTyp = 0;
uint32_t argExt = 0;
uint32_t argPhs = 0;
uint32_t argInp = 0;
bool loopIncl = false;
bool extdPrnt = false;
bool verbose = false;
bool dryRun = false;
uint32_t printCodes = 0x00000000;
char* rawPrintCodes = NULL;
char* inputFuncList = NULL;
char* inputTrackList = NULL;
char* libList = NULL;
bool deleteInpList = false;
char* execName = NULL;
TIMER(double t = timer());
for (int32_t i = 1; i < argc; i++){
if (!strcmp(argv[i],"--app")){
if (argApp++){
fprintf(stderr,"\nError : Duplicate %s option\n",argv[i]);
printUsage();
}
execName = argv[++i];
} else if (!strcmp(argv[i],"--typ")){
if (argTyp++){
fprintf(stderr,"\nError : Duplicate %s option\n",argv[i]);
printUsage();
}
++i;
if (!strcmp(argv[i],"ide")){
instType = identical_inst_type;
extension = "ideinst";
} else if (!strcmp(argv[i],"fnc")){
instType = function_counter_type;
extension = "fncinst";
} else if (!strcmp(argv[i],"jbb")){
instType = frequency_inst_type;
extension = "jbbinst";
} else if (!strcmp(argv[i],"sim")){
instType = simulation_inst_type;
extension = "siminst";
} else if (!strcmp(argv[i],"csc")){
instType = simucntr_inst_type;
extension = "cscinst";
} else if (!strcmp(argv[i],"ftm")){
instType = func_timer_type;
extension = "ftminst";
} else if (!strcmp(argv[i],"crp")){
instType = call_wrapper_type;
extension = "crpinst";
}
} else if (!strcmp(argv[i],"--help")){
printUsage(true, true);
}
}
if (!execName){
fprintf(stderr,"\nError : No executable is specified\n\n");
printUsage();
}
if ((instType <= unknown_inst_type) ||
(instType >= Total_InstrumentationType)){
fprintf(stderr,"\nError : Unknown instrumentation type\n");
printUsage();
}
for (int32_t i = 1; i < argc; i++){
if (!strcmp(argv[i],"--app") || !strcmp(argv[i],"--typ")){
++i;
} else if (!strcmp(argv[i],"--ext")){
if (argExt++){
fprintf(stderr,"\nError : Duplicate %s option\n",argv[i]);
printUsage();
}
extension = argv[++i];
} else if(!strcmp(argv[i],"--phs")){
if (argPhs++){
fprintf(stderr,"\nError : Duplicate %s option\n",argv[i]);
printUsage();
}
if ((instType != simulation_inst_type) && (instType != simucntr_inst_type)){
fprintf(stderr,"\nError : Option %s is not valid other than simulation\n",argv[i]);
printUsage();
}
++i;
char* endptr = NULL;
phaseNo = strtol(argv[i],&endptr,10);
if ((endptr == argv[i]) || !phaseNo){
fprintf(stderr,"\nError : Given phase number is not correct, requires > 0\n\n");
printUsage();
}
} else if (!strcmp(argv[i],"--inp")){
if (argInp++){
fprintf(stderr,"\nError : Duplicate %s option\n",argv[i]);
printUsage();
}
if ((instType != simulation_inst_type) && (instType != simucntr_inst_type)){
fprintf(stderr,"\nError : Option %s is not valid other than simulation\n",argv[i]);
printUsage();
}
inptName = argv[++i];
} else if (!strcmp(argv[i],"--lpi")){
loopIncl = true;
if ((instType != simulation_inst_type) && (instType != simucntr_inst_type)){
fprintf(stderr,"\nError : Option %s is not valid other than simulation\n",argv[i++]);
printUsage();
}
} else if (!strcmp(argv[i],"--ver")){
verbose = true;
rawPrintCodes = argv[++i];
} else if (!strcmp(argv[i],"--dtl")){
extdPrnt = true;
} else if (!strcmp(argv[i],"--lib")){
libPath = argv[++i];
} else if (!strcmp(argv[i],"--dry")){
dryRun = true;
} else if (!strcmp(argv[i],"--fbl")){
if (inputFuncList){
printUsage();
}
inputFuncList = argv[++i];
} else if (!strcmp(argv[i],"--trk")){
if (inputTrackList){
printUsage();
}
inputTrackList = argv[++i];
} else if (!strcmp(argv[i],"--lnc")){
if (libList){
printUsage();
}
libList = argv[++i];
} else {
fprintf(stderr,"\nError : Unknown switch at %s\n\n",argv[i]);
printUsage();
}
}
if (((instType == simulation_inst_type) ||
(instType == simucntr_inst_type)) && !inptName){
fprintf(stderr,"\nError : Input is required for cache simulation instrumentation\n\n");
printUsage();
}
ASSERT((instType == simulation_inst_type) || (instType == simucntr_inst_type) || (phaseNo == 0));
if (verbose){
if (!rawPrintCodes){
fprintf(stderr,"\tError: verbose option used without argument");
printUsage();
}
printCodes = processPrintCodes(rawPrintCodes);
}
if(!libPath){
libPath = getenv("PEBIL_LIB");
if (!libPath){
PRINT_ERROR("Use the -lib option or define the PEBIL_LIB variable");
}
}
PRINT_INFOR("The instrumentation libraries will be used from %s",libPath);
if (!inputFuncList){
deleteInpList = true;
char* pebilRoot = getenv("PEBIL_ROOT");
if (!pebilRoot){
PRINT_ERROR("Set the PEBIL_ROOT variable");
}
inputFuncList = new char[__MAX_STRING_SIZE];
sprintf(inputFuncList, "%s/%s", pebilRoot, DEFAULT_FUNC_BLACKLIST);
}
PRINT_INFOR("The function blacklist is taken from %s", inputFuncList);
if (dryRun){
PRINT_INFOR("--dry option was used, exiting...");
exit(0);
}
uint32_t stepNumber = 0;
TIMER(double t1 = timer(), t2);
PRINT_INFOR("******** Instrumentation Beginning ********");
ElfFile elfFile(execName);
elfFile.parse();
TIMER(t2 = timer();PRINT_INFOR("___timer: Step %d Parse : %.2f seconds",++stepNumber,t2-t1);t1=t2);
elfFile.initSectionFilePointers();
TIMER(t2 = timer();PRINT_INFOR("___timer: Step %d Disasm : %.2f seconds",++stepNumber,t2-t1);t1=t2);
elfFile.generateCFGs();
TIMER(t2 = timer();PRINT_INFOR("___timer: Step %d GenCFG : %.2f seconds",++stepNumber,t2-t1);t1=t2);
if (extdPrnt){
elfFile.findLoops();
TIMER(t2 = timer();PRINT_INFOR("___timer: Step %d Loop : %.2f seconds",++stepNumber,t2-t1);t1=t2);
}
PRINT_MEMTRACK_STATS(__LINE__, __FILE__, __FUNCTION__);
if (verbose){
elfFile.print(printCodes);
TIMER(t2 = timer();PRINT_INFOR("___timer: Step %d Print : %.2f seconds",++stepNumber,t2-t1);t1=t2);
}
elfFile.verify();
TIMER(t2 = timer();PRINT_INFOR("___timer: Step %d Verify : %.2f seconds",++stepNumber,t2-t1);t1=t2);
ElfFileInst* elfInst = NULL;
if (instType == identical_inst_type){
elfFile.dump(extension);
return 0;
} else if (instType == function_counter_type){
elfInst = new FunctionCounter(&elfFile);
} else if (instType == frequency_inst_type){
elfInst = new BasicBlockCounter(&elfFile);
} else if (instType == simulation_inst_type){
elfInst = new CacheSimulation(&elfFile, inptName);
} else if (instType == func_timer_type){
elfInst = new FunctionTimer(&elfFile);
} else if (instType == call_wrapper_type){
if (!inputTrackList){
fprintf(stderr, "\nError: option --trk needs to be given with call wrapper inst\n");
printUsage();
}
ASSERT(inputTrackList);
if (!libList){
fprintf(stderr, "\nError: option --lnc needs to be given with call wrapper inst\n");
}
ASSERT(libList);
elfInst = new CallReplace(&elfFile, inputTrackList, libList);
}
else {
PRINT_ERROR("Error : invalid instrumentation type");
}
PRINT_MEMTRACK_STATS(__LINE__, __FILE__, __FUNCTION__);
ASSERT(elfInst);
ASSERT(libPath);
ASSERT(extension);
elfInst->setPathToInstLib(libPath);
elfInst->setInstExtension(extension);
if (inputFuncList){
elfInst->setInputFunctions(inputFuncList);
}
elfInst->phasedInstrumentation();
PRINT_MEMTRACK_STATS(__LINE__, __FILE__, __FUNCTION__);
elfInst->print(Print_Code_Instrumentation);
TIMER(t2 = timer();PRINT_INFOR("___timer: Instrumentation Step %d Instr : %.2f seconds",++stepNumber,t2-t1);t1=t2);
if (verbose){
elfInst->print(printCodes);
TIMER(t2 = timer();PRINT_INFOR("___timer: Instrumentation Step %d Print : %.2f seconds",++stepNumber,t2-t1);t1=t2);
}
elfInst->dump();
TIMER(t2 = timer();PRINT_INFOR("___timer: Instrumentation Step %d Dump : %.2f seconds",++stepNumber,t2-t1);t1=t2);
if (verbose){
elfInst->print(printCodes);
TIMER(t2 = timer();PRINT_INFOR("___timer: Instrumentation Step %d Print : %.2f seconds",++stepNumber,t2-t1);t1=t2);
}
// arrrrrg. i can't figure out why just deleting elfInst doesn't
// call the CallReplace destructor in this case without the cast
if (instType == call_wrapper_type){
delete (CallReplace*)elfInst;
// delete (CallReplace*)elfInst;
} else if (instType == simulation_inst_type){
delete (CacheSimulation*)elfInst;
} else {
delete elfInst;
}
if (deleteInpList){
delete[] inputFuncList;
}
PRINT_INFOR("******** Instrumentation Successfull ********");
TIMER(t = timer()-t;PRINT_INFOR("___timer: Total Execution Time : %.2f seconds",t););
void CallReplace::instrument(){
uint32_t temp32;
uint64_t temp64;
LineInfoFinder* lineInfoFinder = NULL;
if (hasLineInformation()){
lineInfoFinder = getLineInfoFinder();
}
InstrumentationPoint* p = addInstrumentationPoint(getProgramEntryBlock(), programEntry, InstrumentationMode_tramp, FlagsProtectionMethod_full, InstLocation_prior);
ASSERT(p);
if (!p->getInstBaseAddress()){
PRINT_ERROR("Cannot find an instrumentation point at the exit function");
}
p = addInstrumentationPoint(getProgramExitBlock(), programExit, InstrumentationMode_tramp, FlagsProtectionMethod_full, InstLocation_prior);
ASSERT(p);
if (!p->getInstBaseAddress()){
PRINT_ERROR("Cannot find an instrumentation point at the exit function");
}
uint64_t siteIndex = reserveDataOffset(sizeof(uint32_t));
programEntry->addArgument(siteIndex);
Vector<X86Instruction*> myInstPoints;
Vector<uint32_t> myInstList;
Vector<LineInfo*> myLineInfos;
for (uint32_t i = 0; i < getNumberOfExposedInstructions(); i++){
X86Instruction* instruction = getExposedInstruction(i);
ASSERT(instruction->getContainer()->isFunction());
Function* function = (Function*)instruction->getContainer();
if (instruction->isFunctionCall()){
Symbol* functionSymbol = getElfFile()->lookupFunctionSymbol(instruction->getTargetAddress());
if (functionSymbol){
//PRINT_INFOR("looking for function %s", functionSymbol->getSymbolName());
uint32_t funcIdx = searchFileList(functionList, functionSymbol->getSymbolName());
if (funcIdx < (*functionList).size()){
BasicBlock* bb = function->getBasicBlockAtAddress(instruction->getBaseAddress());
ASSERT(bb->containsCallToRange(0,-1));
ASSERT(instruction->getSizeInBytes() == Size__uncond_jump);
myInstPoints.append(instruction);
myInstList.append(funcIdx);
LineInfo* li = NULL;
if (lineInfoFinder){
li = lineInfoFinder->lookupLineInfo(bb);
}
myLineInfos.append(li);
}
}
}
}
ASSERT(myInstPoints.size() == myInstList.size());
ASSERT(myLineInfos.size() == myInstList.size());
uint64_t fileNames = reserveDataOffset(sizeof(char*) * myInstList.size());
uint64_t lineNumbers = reserveDataOffset(sizeof(uint32_t) * myInstList.size());
for (uint32_t i = 0; i < myInstList.size(); i++){
uint32_t line = 0;
char* fname = NOSTRING;
if (myLineInfos[i]){
line = myLineInfos[i]->GET(lr_line);
fname = myLineInfos[i]->getFileName();
}
uint64_t filenameaddr = getInstDataAddress() + reserveDataOffset(strlen(fname) + 1);
initializeReservedData(getInstDataAddress() + fileNames + i*sizeof(char*), sizeof(char*), &filenameaddr);
initializeReservedData(filenameaddr, strlen(fname), fname);
initializeReservedData(getInstDataAddress() + lineNumbers + i*sizeof(uint32_t), sizeof(uint32_t), &line);
}
programEntry->addArgument(fileNames);
programEntry->addArgument(lineNumbers);
for (uint32_t i = 0; i < myInstPoints.size(); i++){
PRINT_INFOR("(site %d) %#llx: replacing call %s -> %s in function %s", i, myInstPoints[i]->getBaseAddress(), getFunctionName(myInstList[i]), getWrapperName(myInstList[i]), myInstPoints[i]->getContainer()->getName());
InstrumentationPoint* pt = addInstrumentationPoint(myInstPoints[i], functionWrappers[myInstList[i]], InstrumentationMode_tramp, FlagsProtectionMethod_none, InstLocation_replace);
if (getElfFile()->is64Bit()){
pt->addPrecursorInstruction(X86InstructionFactory64::emitMoveRegToMem(X86_REG_CX, getInstDataAddress() + getRegStorageOffset()));
pt->addPrecursorInstruction(X86InstructionFactory64::emitMoveImmToReg(i, X86_REG_CX));
pt->addPrecursorInstruction(X86InstructionFactory64::emitMoveRegToMem(X86_REG_CX, getInstDataAddress() + siteIndex));
pt->addPrecursorInstruction(X86InstructionFactory64::emitMoveMemToReg(getInstDataAddress() + getRegStorageOffset(), X86_REG_CX, true));
} else {
pt->addPrecursorInstruction(X86InstructionFactory32::emitMoveRegToMem(X86_REG_CX, getInstDataAddress() + getRegStorageOffset()));
pt->addPrecursorInstruction(X86InstructionFactory32::emitMoveImmToReg(i, X86_REG_CX));
pt->addPrecursorInstruction(X86InstructionFactory32::emitMoveRegToMem(X86_REG_CX, getInstDataAddress() + siteIndex));
pt->addPrecursorInstruction(X86InstructionFactory32::emitMoveMemToReg(getInstDataAddress() + getRegStorageOffset(), X86_REG_CX));
}
}
}
void RawSection::printBytes(uint64_t offset, uint32_t bytesPerWord, uint32_t bytesPerLine){
fprintf(stdout, "\n");
PRINT_INFOR("Raw bytes for RAW section %d:", sectionIndex);
printBufferPretty(charStream() + offset, getSizeInBytes(), getSectionHeader()->GET(sh_offset) + offset, bytesPerWord, bytesPerLine);
}
void TauFunctionTrace::instrument(){
//InstrumentationTool::instrument();
LineInfoFinder* lineInfoFinder = NULL;
if (hasLineInformation()){
lineInfoFinder = getLineInfoFinder();
}
InstrumentationPoint* p;
uint64_t nameAddr = reserveDataOffset(sizeof(uint64_t));
uint64_t fileAddr = reserveDataOffset(sizeof(uint64_t));
uint64_t lineAddr = reserveDataOffset(sizeof(uint32_t));
uint64_t siteIndexAddr = reserveDataOffset(sizeof(uint32_t));
uint32_t site = functionEntry->addConstantArgument();
ASSERT(site == functionExit->addConstantArgument());
std::pebil_map_type<uint64_t, ControlInfo> functions;
std::vector<uint64_t> orderedfuncs;
uint32_t sequenceId = 0;
if (doIntro){
// go over all functions and intrument entries/exits
for (uint32_t i = 0; i < getNumberOfExposedFunctions(); i++){
Function* function = getExposedFunction(i);
uint64_t addr = function->getBaseAddress();
if (instrumentList && !instrumentList->functionMatches(function->getName())){
continue;
}
if (!strcmp(function->getName(), "_fini")){
continue;
}
BasicBlock* entryBlock = function->getFlowGraph()->getEntryBlock();
Vector<BasicBlock*>* exitPoints = function->getFlowGraph()->getExitBlocks();
std::string c;
c.append(function->getName());
if (c == "_start"){
exitPoints->append(getProgramExitBlock());
PRINT_INFOR("Special case: inserting exit for _start inside _fini since control generally doesn't reach its exit");
}
ASSERT(functions.count(addr) == 0 && "Multiple functions have the same base address?");
PRINT_INFOR("[FUNCTION index=%d] internal instrumentation: %s", sequenceId, function->getName());
ControlInfo f = ControlInfo();
f.name = c;
f.file = "";
f.line = 0;
f.index = sequenceId++;
f.baseaddr = addr;
f.type = ControlType_Function;
LineInfo* li = NULL;
if (lineInfoFinder){
li = lineInfoFinder->lookupLineInfo(addr);
}
if (li){
f.file.append(li->getFileName());
f.line = li->GET(lr_line);
}
functions[addr] = f;
orderedfuncs.push_back(addr);
InstrumentationPoint* prior = addInstrumentationPoint(entryBlock->getLeader(), functionEntry, InstrumentationMode_tramp, InstLocation_prior);
prior->setPriority(InstPriority_custom3);
assignStoragePrior(prior, f.index, site);
for (uint32_t j = 0; j < exitPoints->size(); j++){
InstrumentationPoint* after = addInstrumentationPoint((*exitPoints)[j]->getExitInstruction(), functionExit, InstrumentationMode_tramp, InstLocation_prior);
after->setPriority(InstPriority_custom5);
if (c == "_start" && j == exitPoints->size() - 1){
after->setPriority(InstPriority_custom6);
}
assignStoragePrior(after, f.index, site);
}
delete exitPoints;
}
} else {
// go over all instructions. when we find a call, instrument it
for (uint32_t i = 0; i < getNumberOfExposedInstructions(); i++){
X86Instruction* x = getExposedInstruction(i);
ASSERT(x->getContainer()->isFunction());
Function* function = (Function*)x->getContainer();
if (x->isFunctionCall()){
uint64_t addr = x->getTargetAddress();
Symbol* functionSymbol = getElfFile()->lookupFunctionSymbol(addr);
if (functionSymbol){
if (instrumentList && !instrumentList->functionMatches(functionSymbol->getSymbolName())){
continue;
}
ASSERT(x->getSizeInBytes() == Size__uncond_jump);
std::string c;
c.append(functionSymbol->getSymbolName());
if (functions.count(addr) == 0){
PRINT_INFOR("[FUNCTION index=%d] call site instrumentation: %#lx(%s) -> %s", sequenceId, addr, function->getName(), functionSymbol->getSymbolName());
ControlInfo f = ControlInfo();
f.name = c;
f.file = "";
f.line = 0;
f.index = sequenceId++;
f.baseaddr = addr;
f.type = ControlType_Function;
LineInfo* li = NULL;
if (lineInfoFinder){
li = lineInfoFinder->lookupLineInfo(addr);
}
if (li){
f.file.append(li->getFileName());
f.line = li->GET(lr_line);
}
functions[addr] = f;
orderedfuncs.push_back(addr);
}
uint32_t idx = functions[addr].index;
Base* exitpoint = (Base*)x;
if (c == "__libc_start_main"){
PRINT_INFOR("Special case: inserting exit for __libc_start_main inside _fini since this call generally doesn't return");
exitpoint = (Base*)getProgramExitBlock();
}
InstrumentationPoint* prior = addInstrumentationPoint(x, functionEntry, InstrumentationMode_tramp, InstLocation_prior);
InstrumentationPoint* after = addInstrumentationPoint(exitpoint, functionExit, InstrumentationMode_tramp, InstLocation_after);
assignStoragePrior(prior, idx, site);
assignStoragePrior(after, idx, site);
}
}
}
}
// set up argument passing for function registration
functionRegister->addArgument(nameAddr);
functionRegister->addArgument(fileAddr);
functionRegister->addArgument(lineAddr);
uint32_t siteReg = functionRegister->addConstantArgument();
// go over every function that was found, insert a registration call at program start
for (std::vector<uint64_t>::iterator it = orderedfuncs.begin(); it != orderedfuncs.end(); it++){
uint64_t addr = *it;
ControlInfo f = functions[addr];
ASSERT(f.baseaddr == addr);
InstrumentationPoint* p = addInstrumentationPoint(getProgramEntryBlock(), functionRegister, InstrumentationMode_tramp);
p->setPriority(InstPriority_custom1);
const char* cstring = f.name.c_str();
uint64_t storage = reserveDataOffset(strlen(cstring) + 1);
initializeReservedData(getInstDataAddress() + storage, strlen(cstring), (void*)cstring);
assignStoragePrior(p, getInstDataAddress() + storage, getInstDataAddress() + nameAddr, X86_REG_CX, getInstDataAddress() + getRegStorageOffset());
const char* cstring2 = f.file.c_str();
if (f.file == ""){
assignStoragePrior(p, NULL, getInstDataAddress() + fileAddr, X86_REG_CX, getInstDataAddress() + getRegStorageOffset());
} else {
storage = reserveDataOffset(strlen(cstring2) + 1);
initializeReservedData(getInstDataAddress() + storage, strlen(cstring2), (void*)cstring2);
assignStoragePrior(p, getInstDataAddress() + storage, getInstDataAddress() + fileAddr, X86_REG_CX, getInstDataAddress() + getRegStorageOffset());
}
assignStoragePrior(p, f.line, getInstDataAddress() + lineAddr, X86_REG_CX, getInstDataAddress() + getRegStorageOffset());
assignStoragePrior(p, f.index, siteReg);
}
if (!instrumentList){
return;
}
// instrument loops
std::pebil_map_type<uint64_t, ControlInfo> loops;
std::vector<uint64_t> orderedloops;
loopRegister->addArgument(nameAddr);
loopRegister->addArgument(fileAddr);
loopRegister->addArgument(lineAddr);
ASSERT(siteReg == loopRegister->addConstantArgument());
for (uint32_t i = 0; i < getNumberOfExposedFunctions(); i++){
Function* function = getExposedFunction(i);
FlowGraph* flowgraph = function->getFlowGraph();
if (!instrumentList->loopMatches(function->getName())){
continue;
}
for (uint32_t j = 0; j < flowgraph->getNumberOfLoops(); j++){
Loop* loop = flowgraph->getLoop(j);
uint32_t depth = flowgraph->getLoopDepth(loop);
BasicBlock* head = loop->getHead();
uint64_t addr = head->getBaseAddress();
// only want outer-most (depth == 1) loops
if (depth != 1){
continue;
}
BasicBlock** allLoopBlocks = new BasicBlock*[loop->getNumberOfBlocks()];
loop->getAllBlocks(allLoopBlocks);
// reject any loop that contains an indirect branch since it is difficult to guarantee that we will find all exits
bool badLoop = false;
for (uint32_t k = 0; k < loop->getNumberOfBlocks() && !badLoop; k++){
BasicBlock* bb = allLoopBlocks[k];
if (bb->getExitInstruction()->isIndirectBranch()){
badLoop = true;
}
}
if (badLoop){
PRINT_WARN(20, "Loop at %#lx in %s contains an indirect branch so we can't guarantee that all exits will be found. skipping!", addr, function->getName());
delete[] allLoopBlocks;
continue;
}
std::string c;
c.append(function->getName());
uint32_t entryc = 0;
Vector<LoopPoint*>* points = NULL;
// if addr already exists, it means that two loops share a head and we are going to merge them logically here
if (loops.count(addr) == 0){
ControlInfo f = ControlInfo();
f.name = c;
f.file = "";
f.line = 0;
f.index = sequenceId++;
f.baseaddr = addr;
f.type = ControlType_Loop;
points = new Vector<LoopPoint*>();
f.info = points;
LineInfo* li = NULL;
if (lineInfoFinder){
li = lineInfoFinder->lookupLineInfo(addr);
}
if (li){
f.file.append(li->getFileName());
f.line = li->GET(lr_line);
}
loops[addr] = f;
orderedloops.push_back(addr);
// find entries into this loop
for (uint32_t k = 0; k < head->getNumberOfSources(); k++){
BasicBlock* source = head->getSourceBlock(k);
if (!loop->isBlockIn(source->getIndex())){
LoopPoint* lp = new LoopPoint();
points->append(lp);
lp->flowgraph = flowgraph;
lp->source = source;
lp->target = NULL;
lp->entry = true;
lp->interpose = false;
if (source->getBaseAddress() + source->getNumberOfBytes() != head->getBaseAddress()){
lp->interpose = true;
lp->target = head;
}
entryc++;
}
}
}
ControlInfo f = loops[addr];
points = f.info;
// find exits from this loop
uint32_t exitc = 0;
for (uint32_t k = 0; k < loop->getNumberOfBlocks(); k++){
BasicBlock* bb = allLoopBlocks[k];
if (bb->endsWithReturn()){
LoopPoint* lp = new LoopPoint();
points->append(lp);
lp->flowgraph = flowgraph;
lp->source = bb;
lp->target = NULL;
lp->entry = false;
lp->interpose = false;
exitc++;
}
for (uint32_t m = 0; m < bb->getNumberOfTargets(); m++){
BasicBlock* target = bb->getTargetBlock(m);
if (!loop->isBlockIn(target->getIndex())){
LoopPoint* lp = new LoopPoint();
points->append(lp);
lp->flowgraph = flowgraph;
lp->source = bb;
lp->target = NULL;
lp->entry = false;
lp->interpose = false;
if (target->getBaseAddress() != bb->getBaseAddress() + bb->getNumberOfBytes()){
lp->interpose = true;
lp->target = target;
}
exitc++;
}
}
}
PRINT_INFOR("[LOOP index=%d] loop instrumentation %#lx(%s) has %d entries and %d exits", sequenceId-1, addr, function->getName(), entryc, exitc);
delete[] allLoopBlocks;
}
}
// go over every loop that was found, insert a registration call at program start
// [source_addr -> [target_addr -> interposed]]
std::pebil_map_type<uint64_t, std::pebil_map_type<uint64_t, BasicBlock*> > idone;
for (std::vector<uint64_t>::iterator it = orderedloops.begin(); it != orderedloops.end(); it++){
uint64_t addr = *it;
ControlInfo f = loops[addr];
ASSERT(f.baseaddr == addr);
InstrumentationPoint* p = addInstrumentationPoint(getProgramEntryBlock(), loopRegister, InstrumentationMode_tramp);
p->setPriority(InstPriority_custom2);
const char* cstring = f.name.c_str();
uint64_t storage = reserveDataOffset(strlen(cstring) + 1);
initializeReservedData(getInstDataAddress() + storage, strlen(cstring), (void*)cstring);
assignStoragePrior(p, getInstDataAddress() + storage, getInstDataAddress() + nameAddr, X86_REG_CX, getInstDataAddress() + getRegStorageOffset());
const char* cstring2 = f.file.c_str();
if (f.file == ""){
assignStoragePrior(p, NULL, getInstDataAddress() + fileAddr, X86_REG_CX, getInstDataAddress() + getRegStorageOffset());
} else {
storage = reserveDataOffset(strlen(cstring2) + 1);
initializeReservedData(getInstDataAddress() + storage, strlen(cstring2), (void*)cstring2);
assignStoragePrior(p, getInstDataAddress() + storage, getInstDataAddress() + fileAddr, X86_REG_CX, getInstDataAddress() + getRegStorageOffset());
}
assignStoragePrior(p, f.line, getInstDataAddress() + lineAddr, X86_REG_CX, getInstDataAddress() + getRegStorageOffset());
assignStoragePrior(p, f.index, siteReg);
// now add instrumentation for each loop entry/exit
Vector<LoopPoint*>* v = (Vector<LoopPoint*>*)f.info;
for (uint32_t i = 0; i < v->size(); i++){
LoopPoint* lp = (*v)[i];
ASSERT(lp->flowgraph && lp->source);
BasicBlock* bb = lp->source;
if (lp->interpose){
ASSERT(lp->target);
if (idone.count(lp->source->getBaseAddress()) == 0){
idone[lp->source->getBaseAddress()] = std::pebil_map_type<uint64_t, BasicBlock*>();
}
if (idone[lp->source->getBaseAddress()].count(lp->target->getBaseAddress()) == 0){
idone[lp->source->getBaseAddress()][lp->target->getBaseAddress()] = initInterposeBlock(lp->flowgraph, lp->source->getIndex(), lp->target->getIndex());
}
bb = idone[lp->source->getBaseAddress()][lp->target->getBaseAddress()];
} else {
ASSERT(lp->target == NULL);
}
Base* pt = (Base*)bb;
InstLocations loc = InstLocation_prior;
// if exit block falls through, we must place the instrumentation point at the very end of the block
if (!lp->entry && !lp->interpose){
pt = (Base*)bb->getExitInstruction();
if (!bb->getExitInstruction()->isReturn()){
loc = InstLocation_after;
}
}
InstrumentationFunction* inf = functionExit;
if (lp->entry){
inf = functionEntry;
}
InstrumentationPoint* p = addInstrumentationPoint(pt, inf, InstrumentationMode_tramp, loc);
p->setPriority(InstPriority_custom4);
assignStoragePrior(p, f.index, site);
delete lp;
}
delete v;
}
}
void BasicBlockCounter::instrument()
{
InstrumentationTool::instrument();
ASSERT(currentPhase == ElfInstPhase_user_reserve && "Instrumentation phase order must be observed");
uint32_t temp32;
LineInfoFinder* lineInfoFinder = NULL;
if (hasLineInformation()){
lineInfoFinder = getLineInfoFinder();
}
uint64_t lineArray = reserveDataOffset(getNumberOfExposedBasicBlocks() * sizeof(uint32_t));
uint64_t fileNameArray = reserveDataOffset(getNumberOfExposedBasicBlocks() * sizeof(char*));
uint64_t funcNameArray = reserveDataOffset(getNumberOfExposedBasicBlocks() * sizeof(char*));
uint64_t hashCodeArray = reserveDataOffset(getNumberOfExposedBasicBlocks() * sizeof(uint64_t));
uint64_t appName = reserveDataOffset((strlen(getApplicationName()) + 1) * sizeof(char));
initializeReservedData(getInstDataAddress() + appName, strlen(getApplicationName()) + 1, getApplicationName());
uint64_t instExt = reserveDataOffset((strlen(getInstSuffix()) + 1) * sizeof(char));
initializeReservedData(getInstDataAddress() + instExt, strlen(getInstSuffix()) + 1, getInstSuffix());
// the number blocks in the code
uint64_t counterArrayEntries = reserveDataOffset(sizeof(uint32_t));
// an array of counters. note that everything is passed by reference
uint64_t counterArray = reserveDataOffset(getNumberOfExposedBasicBlocks() * sizeof(uint32_t));
exitFunc->addArgument(counterArray);
exitFunc->addArgument(appName);
exitFunc->addArgument(instExt);
InstrumentationPoint* p = addInstrumentationPoint(getProgramExitBlock(), exitFunc, InstrumentationMode_tramp);
if (!p->getInstBaseAddress()){
PRINT_ERROR("Cannot find an instrumentation point at the exit function");
}
temp32 = 0;
for (uint32_t i = 0; i < getNumberOfExposedBasicBlocks(); i++){
initializeReservedData(getInstDataAddress() + counterArray + i*sizeof(uint32_t), sizeof(uint32_t), &temp32);
}
// the number of inst points
entryFunc->addArgument(counterArrayEntries);
temp32 = getNumberOfExposedBasicBlocks();
initializeReservedData(getInstDataAddress() + counterArrayEntries, sizeof(uint32_t), &temp32);
// an array for line numbers
entryFunc->addArgument(lineArray);
// an array for file name pointers
entryFunc->addArgument(fileNameArray);
// an array for function name pointers
entryFunc->addArgument(funcNameArray);
// an array for hashcodes
entryFunc->addArgument(hashCodeArray);
p = addInstrumentationPoint(getProgramEntryBlock(), entryFunc, InstrumentationMode_tramp, FlagsProtectionMethod_full, InstLocation_prior);
p->setPriority(InstPriority_userinit);
if (!p->getInstBaseAddress()){
PRINT_ERROR("Cannot find an instrumentation point at the entry block");
}
uint64_t noDataAddr = getInstDataAddress() + reserveDataOffset(strlen(NOSTRING) + 1);
char* nostring = new char[strlen(NOSTRING) + 1];
sprintf(nostring, "%s\0", NOSTRING);
initializeReservedData(noDataAddr, strlen(NOSTRING) + 1, nostring);
PRINT_DEBUG_MEMTRACK("There are %d instrumentation points", getNumberOfExposedBasicBlocks());
Vector<BasicBlock*>* allBlocks = new Vector<BasicBlock*>();
Vector<LineInfo*>* allLineInfos = new Vector<LineInfo*>();
uint32_t noProtPoints = 0;
uint32_t complexSelection = 0;
for (uint32_t i = 0; i < getNumberOfExposedBasicBlocks(); i++){
BasicBlock* bb = getExposedBasicBlock(i);
LineInfo* li = NULL;
if (lineInfoFinder){
li = lineInfoFinder->lookupLineInfo(bb);
}
Function* f = bb->getFunction();
(*allBlocks).append(bb);
(*allLineInfos).append(li);
if (i % 1000 == 0){
PRINT_DEBUG_MEMTRACK("inst point %d", i);
PRINT_MEMTRACK_STATS(__LINE__, __FILE__, __FUNCTION__);
}
if (li){
uint32_t line = li->GET(lr_line);
initializeReservedData(getInstDataAddress() + lineArray + sizeof(uint32_t)*i, sizeof(uint32_t), &line);
uint64_t filename = reserveDataOffset(strlen(li->getFileName()) + 1);
uint64_t filenameAddr = getInstDataAddress() + filename;
initializeReservedData(getInstDataAddress() + fileNameArray + i*sizeof(char*), sizeof(char*), &filenameAddr);
initializeReservedData(getInstDataAddress() + filename, strlen(li->getFileName()) + 1, (void*)li->getFileName());
} else {
temp32 = 0;
initializeReservedData(getInstDataAddress() + lineArray + sizeof(uint32_t)*i, sizeof(uint32_t), &temp32);
initializeReservedData(getInstDataAddress() + fileNameArray + i*sizeof(char*), sizeof(char*), &noDataAddr);
}
uint64_t funcname = reserveDataOffset(strlen(f->getName()) + 1);
uint64_t funcnameAddr = getInstDataAddress() + funcname;
initializeReservedData(getInstDataAddress() + funcNameArray + i*sizeof(char*), sizeof(char*), &funcnameAddr);
initializeReservedData(getInstDataAddress() + funcname, strlen(f->getName()) + 1, (void*)f->getName());
uint64_t hashValue = bb->getHashCode().getValue();
initializeReservedData(getInstDataAddress() + hashCodeArray + i*sizeof(uint64_t), sizeof(uint64_t), &hashValue);
InstrumentationSnippet* snip = new InstrumentationSnippet();
uint64_t counterOffset = counterArray + (i * sizeof(uint32_t));
// snippet contents, in this case just increment a counter
if (is64Bit()){
snip->addSnippetInstruction(X86InstructionFactory64::emitAddImmByteToMem(1, getInstDataAddress() + counterOffset));
} else {
snip->addSnippetInstruction(X86InstructionFactory32::emitAddImmByteToMem(1, getInstDataAddress() + counterOffset));
}
// do not generate control instructions to get back to the application, this is done for
// the snippet automatically during code generation
// register the snippet we just created
addInstrumentationSnippet(snip);
// register an instrumentation point at the function that uses this snippet
FlagsProtectionMethods prot = FlagsProtectionMethod_light;
#ifndef NO_REG_ANALYSIS
if (bb->getLeader()->allFlagsDeadIn()){
prot = FlagsProtectionMethod_none;
noProtPoints++;
}
for (uint32_t j = 0; j < bb->getNumberOfInstructions(); j++){
if (bb->getInstruction(j)->allFlagsDeadIn() || bb->getInstruction(j)->allFlagsDeadOut()){
complexSelection++;
break;
}
}
#endif
InstrumentationPoint* p = addInstrumentationPoint(bb, snip, InstrumentationMode_inline, prot);
}
PRINT_MEMTRACK_STATS(__LINE__, __FILE__, __FUNCTION__);
#ifdef NO_REG_ANALYSIS
PRINT_WARN(10, "Warning: register analysis disabled");
#endif
PRINT_INFOR("Excluding flags protection for %d/%d instrumentation points", noProtPoints, getNumberOfExposedBasicBlocks());
//PRINT_INFOR("complex inst point selection: %d/%d instrumentation points", complexSelection, getNumberOfExposedBasicBlocks());
printStaticFile(allBlocks, allLineInfos);
delete[] nostring;
delete allBlocks;
delete allLineInfos;
ASSERT(currentPhase == ElfInstPhase_user_reserve && "Instrumentation phase order must be observed");
}
void SectionHeader::print() {
char tmpstr[__MAX_STRING_SIZE];
PRINT_INFOR("SHeader : %d",index);
PRINT_INFOR("\tSnam : %s",getSectionNamePtr() ? getSectionNamePtr() : "<none>");
if(GET(sh_type) <= SHT_DYNSYM){
PRINT_INFOR("\tStyp : %s",STypeNames[GET(sh_type)]);
} else {
char* ptr = "UNK";
switch(GET(sh_type)){
case SHT_INIT_ARRAY: ptr="INIT_ARRAY"; break;
case SHT_FINI_ARRAY: ptr="FINI_ARRAY"; break;
case SHT_PREINIT_ARRAY: ptr="PREINIT_ARRAY"; break;
case SHT_GROUP: ptr="GROUP"; break;
case SHT_SYMTAB_SHNDX: ptr="SYMTAB_SHNDX"; break;
case SHT_NUM: ptr="NUM"; break;
case SHT_LOOS: ptr="LOOS"; break;
case SHT_GNU_HASH: ptr="GNU_HASH"; break;
case SHT_GNU_LIBLIST: ptr="GNU_LIBLIST"; break;
case SHT_CHECKSUM: ptr="CHECKSUM"; break;
case SHT_LOSUNW: ptr="LOSUNW"; break;
case SHT_SUNW_COMDAT: ptr="SUNW_COMDAT"; break;
case SHT_SUNW_syminfo: ptr="SUNW_syminfo"; break;
case SHT_GNU_verdef: ptr="GNU_verdef"; break;
case SHT_GNU_verneed: ptr="GNU_verneed"; break;
case SHT_GNU_versym: ptr="GNU_versym"; break;
case SHT_LOPROC: ptr="LOPROC"; break;
case SHT_HIPROC: ptr="HIPROC"; break;
case SHT_LOUSER: ptr="LOUSER"; break;
case SHT_HIUSER: ptr="HIUSER"; break;
default: break;
}
PRINT_INFOR("\tStyp : %s",ptr);
}
sprintf(tmpstr,"READ");
for(uint32_t i=0;i<=10;i++){
if(GET(sh_flags) & (0x1 << i)){
strcat(tmpstr," + ");
strcat(tmpstr,SFlagNames[i]);
}
}
PRINT_INFOR("\tSflg : %s",tmpstr);
PRINT_INFOR("\tSoff : @%llx with %lluB",GET(sh_offset),GET(sh_size));
if(GET(sh_addr)){
PRINT_INFOR("\tSvad : %#llx",GET(sh_addr));
} else {
PRINT_INFOR("\tSvad : <no virtual address>");
}
if(GET(sh_entsize)){
PRINT_INFOR("\tSent : %lldB each",GET(sh_entsize));
} else {
PRINT_INFOR("\tSent : <no fixed-size entries>",GET(sh_addr));
}
uint64_t alignment = GET(sh_addralign);
for(uint32_t i=0;i<64;i++){
if((alignment >> i) & 0x1){
alignment = i;
}
}
PRINT_INFOR("\talig : 2**%llu",alignment);
uint32_t linkValue = GET(sh_link);
uint32_t infoValue = GET(sh_info);
PRINT_INFOR("\tlink: %d", linkValue);
PRINT_INFOR("\tinfo: %d", infoValue);
switch(GET(sh_type)){
case SHT_DYNAMIC:
{
sprintf(tmpstr,"string table at sect %d",linkValue);
ASSERT(!infoValue);
break;
}
case SHT_HASH:
{
sprintf(tmpstr,"symbol table at sect %d",linkValue);
ASSERT(!infoValue);
break;
}
case SHT_REL:
case SHT_RELA:
sprintf(tmpstr,"symbol table at sect %d and relocation applies to sect %d",linkValue,infoValue);
break;
case SHT_SYMTAB:
case SHT_DYNSYM:
sprintf(tmpstr,"string table at sect %d and symbol table index of last local sym %d",linkValue,infoValue-1);
break;
default: {
if((linkValue != SHN_UNDEF) || infoValue){
sprintf(tmpstr,"unknown link %d and %d",linkValue,infoValue-1);
} else {
sprintf(tmpstr,"<no extra info>");
ASSERT(linkValue == SHN_UNDEF);
ASSERT(!infoValue);
}
}
}
PRINT_INFOR("\tinfo : %s",tmpstr);
}
void RelocationAddend64::print(char* str){
if(!str) str = "";
PRINT_INFOR("\trel%5d -- off:%#12llx stx:%5lld ad:%12lld %25s -- %s",index,GET(r_offset),ELF64_R_SYM(GET(r_info)),
GET(r_addend),
ELF64_R_TYPE(GET(r_info)) <= R_386_NUM ? RTypeNames[ELF64_R_TYPE(GET(r_info))] : "UNK",str);
}