tools/llvm-readobj/Win64EHDumper.cpp - llvm - Git at Google

 //===- Win64EHDumper.cpp - Win64 EH Printer ---------------------*- C++ -*-===//
 //
 //                     The LLVM Compiler Infrastructure
 //
 // This file is distributed under the University of Illinois Open Source
 // License. See LICENSE.TXT for details.
 //
 //===----------------------------------------------------------------------===//

 #include "Win64EHDumper.h"
 #include "llvm-readobj.h"
 #include "llvm/Object/COFF.h"
 #include "llvm/Support/ErrorHandling.h"
 #include "llvm/Support/Format.h"

 using namespace llvm;
 using namespace llvm::object;
 using namespace llvm::Win64EH;

 static const EnumEntry<unsigned> UnwindFlags[] = {
   { "ExceptionHandler", UNW_ExceptionHandler },
   { "TerminateHandler", UNW_TerminateHandler },
   { "ChainInfo"       , UNW_ChainInfo        }
 };

 static const EnumEntry<unsigned> UnwindOpInfo[] = {
   { "RAX",  0 },
   { "RCX",  1 },
   { "RDX",  2 },
   { "RBX",  3 },
   { "RSP",  4 },
   { "RBP",  5 },
   { "RSI",  6 },
   { "RDI",  7 },
   { "R8",   8 },
   { "R9",   9 },
   { "R10", 10 },
   { "R11", 11 },
   { "R12", 12 },
   { "R13", 13 },
   { "R14", 14 },
   { "R15", 15 }
 };

 static uint64_t getOffsetOfLSDA(const UnwindInfo& UI) {
   return static_cast<const char*>(UI.getLanguageSpecificData())
          - reinterpret_cast<const char*>(&UI);
 }

 static uint32_t getLargeSlotValue(ArrayRef<UnwindCode> UC) {
   if (UC.size() < 3)
     return 0;
   return UC[1].FrameOffset + (static_cast<uint32_t>(UC[2].FrameOffset) << 16);
 }

 // Returns the name of the unwind code.
 static StringRef getUnwindCodeTypeName(uint8_t Code) {
   switch (Code) {
   default: llvm_unreachable("Invalid unwind code");
   case UOP_PushNonVol: return "PUSH_NONVOL";
   case UOP_AllocLarge: return "ALLOC_LARGE";
   case UOP_AllocSmall: return "ALLOC_SMALL";
   case UOP_SetFPReg: return "SET_FPREG";
   case UOP_SaveNonVol: return "SAVE_NONVOL";
   case UOP_SaveNonVolBig: return "SAVE_NONVOL_FAR";
   case UOP_SaveXMM128: return "SAVE_XMM128";
   case UOP_SaveXMM128Big: return "SAVE_XMM128_FAR";
   case UOP_PushMachFrame: return "PUSH_MACHFRAME";
   }
 }

 // Returns the name of a referenced register.
 static StringRef getUnwindRegisterName(uint8_t Reg) {
   switch (Reg) {
   default: llvm_unreachable("Invalid register");
   case 0: return "RAX";
   case 1: return "RCX";
   case 2: return "RDX";
   case 3: return "RBX";
   case 4: return "RSP";
   case 5: return "RBP";
   case 6: return "RSI";
   case 7: return "RDI";
   case 8: return "R8";
   case 9: return "R9";
   case 10: return "R10";
   case 11: return "R11";
   case 12: return "R12";
   case 13: return "R13";
   case 14: return "R14";
   case 15: return "R15";
   }
 }

 // Calculates the number of array slots required for the unwind code.
 static unsigned getNumUsedSlots(const UnwindCode &UnwindCode) {
   switch (UnwindCode.getUnwindOp()) {
   default: llvm_unreachable("Invalid unwind code");
   case UOP_PushNonVol:
   case UOP_AllocSmall:
   case UOP_SetFPReg:
   case UOP_PushMachFrame:
     return 1;
   case UOP_SaveNonVol:
   case UOP_SaveXMM128:
     return 2;
   case UOP_SaveNonVolBig:
   case UOP_SaveXMM128Big:
     return 3;
   case UOP_AllocLarge:
     return (UnwindCode.getOpInfo() == 0) ? 2 : 3;
   }
 }

 static std::string formatSymbol(const Dumper::Context &Ctx,
                                 const coff_section *Section, uint64_t Offset,
                                 uint32_t Displacement) {
   std::string Buffer;
   raw_string_ostream OS(Buffer);

   SymbolRef Symbol;
   if (!Ctx.ResolveSymbol(Section, Offset, Symbol, Ctx.UserData)) {
     Expected<StringRef> Name = Symbol.getName();
     if (Name) {
       OS << *Name;
       if (Displacement > 0)
         OS << format(" +0x%X (0x%" PRIX64 ")", Displacement, Offset);
       else
         OS << format(" (0x%" PRIX64 ")", Offset);
       return OS.str();
     } else {
       // TODO: Actually report errors helpfully.
       consumeError(Name.takeError());
     }
   }

   OS << format(" (0x%" PRIX64 ")", Offset);
   return OS.str();
 }

 static std::error_code resolveRelocation(const Dumper::Context &Ctx,
                                          const coff_section *Section,
                                          uint64_t Offset,
                                          const coff_section *&ResolvedSection,
                                          uint64_t &ResolvedAddress) {
   SymbolRef Symbol;
   if (std::error_code EC =
           Ctx.ResolveSymbol(Section, Offset, Symbol, Ctx.UserData))
     return EC;

   Expected<uint64_t> ResolvedAddressOrErr = Symbol.getAddress();
   if (!ResolvedAddressOrErr)
     return errorToErrorCode(ResolvedAddressOrErr.takeError());
   ResolvedAddress = *ResolvedAddressOrErr;

   Expected<section_iterator> SI = Symbol.getSection();
   if (!SI)
     return errorToErrorCode(SI.takeError());
   ResolvedSection = Ctx.COFF.getCOFFSection(**SI);
   return std::error_code();
 }

 namespace llvm {
 namespace Win64EH {
 void Dumper::printRuntimeFunctionEntry(const Context &Ctx,
                                        const coff_section *Section,
                                        uint64_t Offset,
                                        const RuntimeFunction &RF) {
   SW.printString("StartAddress",
                  formatSymbol(Ctx, Section, Offset + 0, RF.StartAddress));
   SW.printString("EndAddress",
                  formatSymbol(Ctx, Section, Offset + 4, RF.EndAddress));
   SW.printString("UnwindInfoAddress",
                  formatSymbol(Ctx, Section, Offset + 8, RF.UnwindInfoOffset));
 }

 // Prints one unwind code. Because an unwind code can occupy up to 3 slots in
 // the unwind codes array, this function requires that the correct number of
 // slots is provided.
 void Dumper::printUnwindCode(const UnwindInfo& UI, ArrayRef<UnwindCode> UC) {
   assert(UC.size() >= getNumUsedSlots(UC[0]));

   SW.startLine() << format("0x%02X: ", unsigned(UC[0].u.CodeOffset))
                  << getUnwindCodeTypeName(UC[0].getUnwindOp());

   switch (UC[0].getUnwindOp()) {
   case UOP_PushNonVol:
     OS << " reg=" << getUnwindRegisterName(UC[0].getOpInfo());
     break;

   case UOP_AllocLarge:
     OS << " size="
        << ((UC[0].getOpInfo() == 0) ? UC[1].FrameOffset * 8
                                     : getLargeSlotValue(UC));
     break;

   case UOP_AllocSmall:
     OS << " size=" << (UC[0].getOpInfo() + 1) * 8;
     break;

   case UOP_SetFPReg:
     if (UI.getFrameRegister() == 0)
       OS << " reg=<invalid>";
     else
       OS << " reg=" << getUnwindRegisterName(UI.getFrameRegister())
          << format(", offset=0x%X", UI.getFrameOffset() * 16);
     break;

   case UOP_SaveNonVol:
     OS << " reg=" << getUnwindRegisterName(UC[0].getOpInfo())
        << format(", offset=0x%X", UC[1].FrameOffset * 8);
     break;

   case UOP_SaveNonVolBig:
     OS << " reg=" << getUnwindRegisterName(UC[0].getOpInfo())
        << format(", offset=0x%X", getLargeSlotValue(UC));
     break;

   case UOP_SaveXMM128:
     OS << " reg=XMM" << static_cast<uint32_t>(UC[0].getOpInfo())
        << format(", offset=0x%X", UC[1].FrameOffset * 16);
     break;

   case UOP_SaveXMM128Big:
     OS << " reg=XMM" << static_cast<uint32_t>(UC[0].getOpInfo())
        << format(", offset=0x%X", getLargeSlotValue(UC));
     break;

   case UOP_PushMachFrame:
     OS << " errcode=" << (UC[0].getOpInfo() == 0 ? "no" : "yes");
     break;
   }

   OS << "\n";
 }

 void Dumper::printUnwindInfo(const Context &Ctx, const coff_section *Section,
                              off_t Offset, const UnwindInfo &UI) {
   DictScope UIS(SW, "UnwindInfo");
   SW.printNumber("Version", UI.getVersion());
   SW.printFlags("Flags", UI.getFlags(), makeArrayRef(UnwindFlags));
   SW.printNumber("PrologSize", UI.PrologSize);
   if (UI.getFrameRegister()) {
     SW.printEnum("FrameRegister", UI.getFrameRegister(),
                  makeArrayRef(UnwindOpInfo));
     SW.printHex("FrameOffset", UI.getFrameOffset());
   } else {
     SW.printString("FrameRegister", StringRef("-"));
     SW.printString("FrameOffset", StringRef("-"));
   }

   SW.printNumber("UnwindCodeCount", UI.NumCodes);
   {
     ListScope UCS(SW, "UnwindCodes");
     ArrayRef<UnwindCode> UC(&UI.UnwindCodes[0], UI.NumCodes);
     for (const UnwindCode *UCI = UC.begin(), *UCE = UC.end(); UCI < UCE; ++UCI) {
       unsigned UsedSlots = getNumUsedSlots(*UCI);
       if (UsedSlots > UC.size()) {
         errs() << "corrupt unwind data";
         return;
       }

       printUnwindCode(UI, makeArrayRef(UCI, UCE));
       UCI = UCI + UsedSlots - 1;
     }
   }

   uint64_t LSDAOffset = Offset + getOffsetOfLSDA(UI);
   if (UI.getFlags() & (UNW_ExceptionHandler | UNW_TerminateHandler)) {
     SW.printString("Handler",
                    formatSymbol(Ctx, Section, LSDAOffset,
                                 UI.getLanguageSpecificHandlerOffset()));
   } else if (UI.getFlags() & UNW_ChainInfo) {
     if (const RuntimeFunction *Chained = UI.getChainedFunctionEntry()) {
       DictScope CS(SW, "Chained");
       printRuntimeFunctionEntry(Ctx, Section, LSDAOffset, *Chained);
     }
   }
 }

 void Dumper::printRuntimeFunction(const Context &Ctx,
                                   const coff_section *Section,
                                   uint64_t SectionOffset,
                                   const RuntimeFunction &RF) {
   DictScope RFS(SW, "RuntimeFunction");
   printRuntimeFunctionEntry(Ctx, Section, SectionOffset, RF);

   const coff_section *XData;
   uint64_t Offset;
   resolveRelocation(Ctx, Section, SectionOffset + 8, XData, Offset);

   ArrayRef<uint8_t> Contents;
   error(Ctx.COFF.getSectionContents(XData, Contents));
   if (Contents.empty())
     return;

   Offset = Offset + RF.UnwindInfoOffset;
   if (Offset > Contents.size())
     return;

   const auto UI = reinterpret_cast<const UnwindInfo*>(Contents.data() + Offset);
   printUnwindInfo(Ctx, XData, Offset, *UI);
 }

 void Dumper::printData(const Context &Ctx) {
   for (const auto &Section : Ctx.COFF.sections()) {
     StringRef Name;
     Section.getName(Name);

     if (Name != ".pdata" && !Name.startswith(".pdata$"))
       continue;

     const coff_section *PData = Ctx.COFF.getCOFFSection(Section);
     ArrayRef<uint8_t> Contents;
     error(Ctx.COFF.getSectionContents(PData, Contents));
     if (Contents.empty())
       continue;

     const RuntimeFunction *Entries =
       reinterpret_cast<const RuntimeFunction *>(Contents.data());
     const size_t Count = Contents.size() / sizeof(RuntimeFunction);
     ArrayRef<RuntimeFunction> RuntimeFunctions(Entries, Count);

     size_t Index = 0;
     for (const auto &RF : RuntimeFunctions) {
       printRuntimeFunction(Ctx, Ctx.COFF.getCOFFSection(Section),
                            Index * sizeof(RuntimeFunction), RF);
       ++Index;
     }
   }
 }
 }
 }
	//===- Win64EHDumper.cpp - Win64 EH Printer ---------------------- C++ --===//
	//
	// The LLVM Compiler Infrastructure
	//
	// This file is distributed under the University of Illinois Open Source
	// License. See LICENSE.TXT for details.
	//
	//===----------------------------------------------------------------------===//

	#include "Win64EHDumper.h"
	#include "llvm-readobj.h"
	#include "llvm/Object/COFF.h"
	#include "llvm/Support/ErrorHandling.h"
	#include "llvm/Support/Format.h"

	using namespace llvm;
	using namespace llvm::object;
	using namespace llvm::Win64EH;

	static const EnumEntry<unsigned> UnwindFlags[] = {
	{ "ExceptionHandler", UNW_ExceptionHandler },
	{ "TerminateHandler", UNW_TerminateHandler },
	{ "ChainInfo" , UNW_ChainInfo }
	};

	static const EnumEntry<unsigned> UnwindOpInfo[] = {
	{ "RAX", 0 },
	{ "RCX", 1 },
	{ "RDX", 2 },
	{ "RBX", 3 },
	{ "RSP", 4 },
	{ "RBP", 5 },
	{ "RSI", 6 },
	{ "RDI", 7 },
	{ "R8", 8 },
	{ "R9", 9 },
	{ "R10", 10 },
	{ "R11", 11 },
	{ "R12", 12 },
	{ "R13", 13 },
	{ "R14", 14 },
	{ "R15", 15 }
	};

	static uint64_t getOffsetOfLSDA(const UnwindInfo& UI) {
	return static_cast<const char*>(UI.getLanguageSpecificData())
	- reinterpret_cast<const char*>(&UI);
	}

	static uint32_t getLargeSlotValue(ArrayRef<UnwindCode> UC) {
	if (UC.size() < 3)
	return 0;
	return UC[1].FrameOffset + (static_cast<uint32_t>(UC[2].FrameOffset) << 16);
	}

	// Returns the name of the unwind code.
	static StringRef getUnwindCodeTypeName(uint8_t Code) {
	switch (Code) {
	default: llvm_unreachable("Invalid unwind code");
	case UOP_PushNonVol: return "PUSH_NONVOL";
	case UOP_AllocLarge: return "ALLOC_LARGE";
	case UOP_AllocSmall: return "ALLOC_SMALL";
	case UOP_SetFPReg: return "SET_FPREG";
	case UOP_SaveNonVol: return "SAVE_NONVOL";
	case UOP_SaveNonVolBig: return "SAVE_NONVOL_FAR";
	case UOP_SaveXMM128: return "SAVE_XMM128";
	case UOP_SaveXMM128Big: return "SAVE_XMM128_FAR";
	case UOP_PushMachFrame: return "PUSH_MACHFRAME";
	}
	}

	// Returns the name of a referenced register.
	static StringRef getUnwindRegisterName(uint8_t Reg) {
	switch (Reg) {
	default: llvm_unreachable("Invalid register");
	case 0: return "RAX";
	case 1: return "RCX";
	case 2: return "RDX";
	case 3: return "RBX";
	case 4: return "RSP";
	case 5: return "RBP";
	case 6: return "RSI";
	case 7: return "RDI";
	case 8: return "R8";
	case 9: return "R9";
	case 10: return "R10";
	case 11: return "R11";
	case 12: return "R12";
	case 13: return "R13";
	case 14: return "R14";
	case 15: return "R15";
	}
	}

	// Calculates the number of array slots required for the unwind code.
	static unsigned getNumUsedSlots(const UnwindCode &UnwindCode) {
	switch (UnwindCode.getUnwindOp()) {
	default: llvm_unreachable("Invalid unwind code");
	case UOP_PushNonVol:
	case UOP_AllocSmall:
	case UOP_SetFPReg:
	case UOP_PushMachFrame:
	return 1;
	case UOP_SaveNonVol:
	case UOP_SaveXMM128:
	return 2;
	case UOP_SaveNonVolBig:
	case UOP_SaveXMM128Big:
	return 3;
	case UOP_AllocLarge:
	return (UnwindCode.getOpInfo() == 0) ? 2 : 3;
	}
	}

	static std::string formatSymbol(const Dumper::Context &Ctx,
	const coff_section *Section, uint64_t Offset,
	uint32_t Displacement) {
	std::string Buffer;
	raw_string_ostream OS(Buffer);

	SymbolRef Symbol;
	if (!Ctx.ResolveSymbol(Section, Offset, Symbol, Ctx.UserData)) {
	Expected<StringRef> Name = Symbol.getName();
	if (Name) {
	OS << *Name;
	if (Displacement > 0)
	OS << format(" +0x%X (0x%" PRIX64 ")", Displacement, Offset);
	else
	OS << format(" (0x%" PRIX64 ")", Offset);
	return OS.str();
	} else {
	// TODO: Actually report errors helpfully.
	consumeError(Name.takeError());
	}
	}

	OS << format(" (0x%" PRIX64 ")", Offset);
	return OS.str();
	}

	static std::error_code resolveRelocation(const Dumper::Context &Ctx,
	const coff_section *Section,
	uint64_t Offset,
	const coff_section *&ResolvedSection,
	uint64_t &ResolvedAddress) {
	SymbolRef Symbol;
	if (std::error_code EC =
	Ctx.ResolveSymbol(Section, Offset, Symbol, Ctx.UserData))
	return EC;

	Expected<uint64_t> ResolvedAddressOrErr = Symbol.getAddress();
	if (!ResolvedAddressOrErr)
	return errorToErrorCode(ResolvedAddressOrErr.takeError());
	ResolvedAddress = *ResolvedAddressOrErr;

	Expected<section_iterator> SI = Symbol.getSection();
	if (!SI)
	return errorToErrorCode(SI.takeError());
	ResolvedSection = Ctx.COFF.getCOFFSection(**SI);
	return std::error_code();
	}

	namespace llvm {
	namespace Win64EH {
	void Dumper::printRuntimeFunctionEntry(const Context &Ctx,
	const coff_section *Section,
	uint64_t Offset,
	const RuntimeFunction &RF) {
	SW.printString("StartAddress",
	formatSymbol(Ctx, Section, Offset + 0, RF.StartAddress));
	SW.printString("EndAddress",
	formatSymbol(Ctx, Section, Offset + 4, RF.EndAddress));
	SW.printString("UnwindInfoAddress",
	formatSymbol(Ctx, Section, Offset + 8, RF.UnwindInfoOffset));
	}

	// Prints one unwind code. Because an unwind code can occupy up to 3 slots in
	// the unwind codes array, this function requires that the correct number of
	// slots is provided.
	void Dumper::printUnwindCode(const UnwindInfo& UI, ArrayRef<UnwindCode> UC) {
	assert(UC.size() >= getNumUsedSlots(UC[0]));

	SW.startLine() << format("0x%02X: ", unsigned(UC[0].u.CodeOffset))
	<< getUnwindCodeTypeName(UC[0].getUnwindOp());

	switch (UC[0].getUnwindOp()) {
	case UOP_PushNonVol:
	OS << " reg=" << getUnwindRegisterName(UC[0].getOpInfo());
	break;

	case UOP_AllocLarge:
	OS << " size="
	<< ((UC[0].getOpInfo() == 0) ? UC[1].FrameOffset * 8
	: getLargeSlotValue(UC));
	break;

	case UOP_AllocSmall:
	OS << " size=" << (UC[0].getOpInfo() + 1) * 8;
	break;

	case UOP_SetFPReg:
	if (UI.getFrameRegister() == 0)
	OS << " reg=<invalid>";
	else
	OS << " reg=" << getUnwindRegisterName(UI.getFrameRegister())
	<< format(", offset=0x%X", UI.getFrameOffset() * 16);
	break;

	case UOP_SaveNonVol:
	OS << " reg=" << getUnwindRegisterName(UC[0].getOpInfo())
	<< format(", offset=0x%X", UC[1].FrameOffset * 8);
	break;

	case UOP_SaveNonVolBig:
	OS << " reg=" << getUnwindRegisterName(UC[0].getOpInfo())
	<< format(", offset=0x%X", getLargeSlotValue(UC));
	break;

	case UOP_SaveXMM128:
	OS << " reg=XMM" << static_cast<uint32_t>(UC[0].getOpInfo())
	<< format(", offset=0x%X", UC[1].FrameOffset * 16);
	break;

	case UOP_SaveXMM128Big:
	OS << " reg=XMM" << static_cast<uint32_t>(UC[0].getOpInfo())
	<< format(", offset=0x%X", getLargeSlotValue(UC));
	break;

	case UOP_PushMachFrame:
	OS << " errcode=" << (UC[0].getOpInfo() == 0 ? "no" : "yes");
	break;
	}

	OS << "\n";
	}

	void Dumper::printUnwindInfo(const Context &Ctx, const coff_section *Section,
	off_t Offset, const UnwindInfo &UI) {
	DictScope UIS(SW, "UnwindInfo");
	SW.printNumber("Version", UI.getVersion());
	SW.printFlags("Flags", UI.getFlags(), makeArrayRef(UnwindFlags));
	SW.printNumber("PrologSize", UI.PrologSize);
	if (UI.getFrameRegister()) {
	SW.printEnum("FrameRegister", UI.getFrameRegister(),
	makeArrayRef(UnwindOpInfo));
	SW.printHex("FrameOffset", UI.getFrameOffset());
	} else {
	SW.printString("FrameRegister", StringRef("-"));
	SW.printString("FrameOffset", StringRef("-"));
	}

	SW.printNumber("UnwindCodeCount", UI.NumCodes);
	{
	ListScope UCS(SW, "UnwindCodes");
	ArrayRef<UnwindCode> UC(&UI.UnwindCodes[0], UI.NumCodes);
	for (const UnwindCode UCI = UC.begin(), UCE = UC.end(); UCI < UCE; ++UCI) {
	unsigned UsedSlots = getNumUsedSlots(*UCI);
	if (UsedSlots > UC.size()) {
	errs() << "corrupt unwind data";
	return;
	}

	printUnwindCode(UI, makeArrayRef(UCI, UCE));
	UCI = UCI + UsedSlots - 1;
	}
	}

	uint64_t LSDAOffset = Offset + getOffsetOfLSDA(UI);
	if (UI.getFlags() & (UNW_ExceptionHandler \| UNW_TerminateHandler)) {
	SW.printString("Handler",
	formatSymbol(Ctx, Section, LSDAOffset,
	UI.getLanguageSpecificHandlerOffset()));
	} else if (UI.getFlags() & UNW_ChainInfo) {
	if (const RuntimeFunction *Chained = UI.getChainedFunctionEntry()) {
	DictScope CS(SW, "Chained");
	printRuntimeFunctionEntry(Ctx, Section, LSDAOffset, *Chained);
	}
	}
	}

	void Dumper::printRuntimeFunction(const Context &Ctx,
	const coff_section *Section,
	uint64_t SectionOffset,
	const RuntimeFunction &RF) {
	DictScope RFS(SW, "RuntimeFunction");
	printRuntimeFunctionEntry(Ctx, Section, SectionOffset, RF);

	const coff_section *XData;
	uint64_t Offset;
	resolveRelocation(Ctx, Section, SectionOffset + 8, XData, Offset);

	ArrayRef<uint8_t> Contents;
	error(Ctx.COFF.getSectionContents(XData, Contents));
	if (Contents.empty())
	return;

	Offset = Offset + RF.UnwindInfoOffset;
	if (Offset > Contents.size())
	return;

	const auto UI = reinterpret_cast<const UnwindInfo*>(Contents.data() + Offset);
	printUnwindInfo(Ctx, XData, Offset, *UI);
	}

	void Dumper::printData(const Context &Ctx) {
	for (const auto &Section : Ctx.COFF.sections()) {
	StringRef Name;
	Section.getName(Name);

	if (Name != ".pdata" && !Name.startswith(".pdata$"))
	continue;

	const coff_section *PData = Ctx.COFF.getCOFFSection(Section);
	ArrayRef<uint8_t> Contents;
	error(Ctx.COFF.getSectionContents(PData, Contents));
	if (Contents.empty())
	continue;

	const RuntimeFunction *Entries =
	reinterpret_cast<const RuntimeFunction *>(Contents.data());
	const size_t Count = Contents.size() / sizeof(RuntimeFunction);
	ArrayRef<RuntimeFunction> RuntimeFunctions(Entries, Count);

	size_t Index = 0;
	for (const auto &RF : RuntimeFunctions) {
	printRuntimeFunction(Ctx, Ctx.COFF.getCOFFSection(Section),
	Index * sizeof(RuntimeFunction), RF);
	++Index;
	}
	}
	}
	}
	}