static StringRef ToolName;
-namespace {
-struct SectionSymbol {
- SectionSymbol(uint64_t Address, StringRef Name, uint8_t Type)
- : Address(Address), Name(Name), Type(Type) {}
-
- bool operator<(const SectionSymbol &Other) const {
- return std::tie(Address, Name, Type) <
- std::tie(Other.Address, Other.Name, Other.Type);
- }
-
- uint64_t Address;
- StringRef Name;
- uint8_t Type;
-};
-
-typedef std::vector<SectionSymbol> SectionSymbolsTy;
+typedef std::vector<std::tuple<uint64_t, StringRef, uint8_t>> SectionSymbolsTy;
+namespace {
typedef std::function<bool(llvm::object::SectionRef const &)> FilterPredicate;
class SectionFilterIterator {
std::vector<uint64_t> TextMappingSymsAddr;
if (isArmElf(Obj)) {
for (const auto &Symb : Symbols) {
- uint64_t Address = Symb.Address;
- StringRef Name = Symb.Name;
+ uint64_t Address = std::get<0>(Symb);
+ StringRef Name = std::get<1>(Symb);
if (Name.startswith("$d"))
DataMappingSymsAddr.push_back(Address - SectionAddr);
if (Name.startswith("$x"))
error(Section.getName(SectionName));
// If the section has no symbol at the start, just insert a dummy one.
- if (Symbols.empty() || Symbols[0].Address != 0) {
+ if (Symbols.empty() || std::get<0>(Symbols[0]) != 0) {
Symbols.insert(
Symbols.begin(),
- SectionSymbol(SectionAddr, SectionName,
- Section.isText() ? ELF::STT_FUNC : ELF::STT_OBJECT));
+ std::make_tuple(SectionAddr, SectionName,
+ Section.isText() ? ELF::STT_FUNC : ELF::STT_OBJECT));
}
SmallString<40> Comments;
std::vector<RelocationRef>::const_iterator RelEnd = Rels.end();
// Disassemble symbol by symbol.
for (unsigned SI = 0, SE = Symbols.size(); SI != SE; ++SI) {
- uint64_t Start = Symbols[SI].Address - SectionAddr;
+ uint64_t Start = std::get<0>(Symbols[SI]) - SectionAddr;
// The end is either the section end or the beginning of the next
// symbol.
uint64_t End = (SI == SE - 1)
? SectSize
- : Symbols[SI + 1].Address - SectionAddr;
+ : std::get<0>(Symbols[SI + 1]) - SectionAddr;
// Don't try to disassemble beyond the end of section contents.
if (End > SectSize)
End = SectSize;
}
/// Skip if user requested specific symbols and this is not in the list
- if (!DisasmFuncsSet.empty() && !DisasmFuncsSet.count(Symbols[SI].Name))
+ if (!DisasmFuncsSet.empty() &&
+ !DisasmFuncsSet.count(std::get<1>(Symbols[SI])))
continue;
if (!PrintedSection) {
End = StopAddress - SectionAddr;
if (Obj->isELF() && Obj->getArch() == Triple::amdgcn) {
- if (Symbols[SI].Type == ELF::STT_AMDGPU_HSA_KERNEL) {
+ if (std::get<2>(Symbols[SI]) == ELF::STT_AMDGPU_HSA_KERNEL) {
// skip amd_kernel_code_t at the begining of kernel symbol (256 bytes)
Start += 256;
}
if (SI == SE - 1 ||
- Symbols[SI + 1].Type == ELF::STT_AMDGPU_HSA_KERNEL) {
+ std::get<2>(Symbols[SI + 1]) == ELF::STT_AMDGPU_HSA_KERNEL) {
// cut trailing zeroes at the end of kernel
// cut up to 256 bytes
const uint64_t EndAlign = 256;
if (!NoLeadingAddr)
outs() << format("%016" PRIx64 " ", SectionAddr + Start);
- StringRef SymbolName = Symbols[SI].Name;
+ StringRef SymbolName = std::get<1>(Symbols[SI]);
if (Demangle)
outs() << demangle(SymbolName) << ":\n";
else
// same section. We rely on the markers introduced to
// understand what we need to dump. If the data marker is within a
// function, it is denoted as a word/short etc
- if (isArmElf(Obj) && Symbols[SI].Type != ELF::STT_OBJECT &&
+ if (isArmElf(Obj) && std::get<2>(Symbols[SI]) != ELF::STT_OBJECT &&
!DisassembleAll) {
uint64_t Stride = 0;
// disassembling text (applicable all architectures),
// we are in a situation where we must print the data and not
// disassemble it.
- if (Obj->isELF() && Symbols[SI].Type == ELF::STT_OBJECT &&
+ if (Obj->isELF() && std::get<2>(Symbols[SI]) == ELF::STT_OBJECT &&
!DisassembleAll && Section.isText()) {
// print out data up to 8 bytes at a time in hex and ascii
uint8_t AsciiData[9] = {'\0'};
// the target, find the nearest preceding absolute symbol.
auto TargetSym = std::upper_bound(
TargetSectionSymbols->begin(), TargetSectionSymbols->end(),
- Target, [](uint64_t LHS, const SectionSymbol &RHS) {
- return LHS < RHS.Address;
+ Target, [](uint64_t LHS,
+ const std::tuple<uint64_t, StringRef, uint8_t> &RHS) {
+ return LHS < std::get<0>(RHS);
});
if (TargetSym == TargetSectionSymbols->begin()) {
TargetSectionSymbols = &AbsoluteSymbols;
TargetSym = std::upper_bound(
- AbsoluteSymbols.begin(), AbsoluteSymbols.end(), Target,
- [](uint64_t LHS, const SectionSymbol &RHS) {
- return LHS < RHS.Address;
- });
+ AbsoluteSymbols.begin(), AbsoluteSymbols.end(),
+ Target, [](uint64_t LHS,
+ const std::tuple<uint64_t, StringRef, uint8_t> &RHS) {
+ return LHS < std::get<0>(RHS);
+ });
}
if (TargetSym != TargetSectionSymbols->begin()) {
--TargetSym;
- outs() << " <" << TargetSym->Name;
- uint64_t Disp = Target - TargetSym->Address;
+ uint64_t TargetAddress = std::get<0>(*TargetSym);
+ StringRef TargetName = std::get<1>(*TargetSym);
+ outs() << " <" << TargetName;
+ uint64_t Disp = Target - TargetAddress;
if (Disp)
outs() << "+0x" << Twine::utohexstr(Disp);
outs() << '>';