src/third_party/WebKit/Source/JavaScriptCore/assembler/MacroAssemblerX86.h - cobalt - Git at Google

 /*
  * Copyright (C) 2008 Apple Inc. All rights reserved.
  *
  * Redistribution and use in source and binary forms, with or without
  * modification, are permitted provided that the following conditions
  * are met:
  * 1. Redistributions of source code must retain the above copyright
  *    notice, this list of conditions and the following disclaimer.
  * 2. Redistributions in binary form must reproduce the above copyright
  *    notice, this list of conditions and the following disclaimer in the
  *    documentation and/or other materials provided with the distribution.
  *
  * THIS SOFTWARE IS PROVIDED BY APPLE INC. ``AS IS'' AND ANY
  * EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
  * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR
  * PURPOSE ARE DISCLAIMED.  IN NO EVENT SHALL APPLE INC. OR
  * CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
  * EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
  * PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
  * PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY
  * OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
  * (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
  * OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
  */

 #ifndef MacroAssemblerX86_h
 #define MacroAssemblerX86_h

 #if ENABLE(ASSEMBLER) && CPU(X86)

 #include "MacroAssemblerX86Common.h"

 namespace JSC {

 class MacroAssemblerX86 : public MacroAssemblerX86Common {
 public:
     static const Scale ScalePtr = TimesFour;

     using MacroAssemblerX86Common::add32;
     using MacroAssemblerX86Common::and32;
     using MacroAssemblerX86Common::branchAdd32;
     using MacroAssemblerX86Common::branchSub32;
     using MacroAssemblerX86Common::sub32;
     using MacroAssemblerX86Common::or32;
     using MacroAssemblerX86Common::load32;
     using MacroAssemblerX86Common::store32;
     using MacroAssemblerX86Common::store8;
     using MacroAssemblerX86Common::branch32;
     using MacroAssemblerX86Common::call;
     using MacroAssemblerX86Common::jump;
     using MacroAssemblerX86Common::addDouble;
     using MacroAssemblerX86Common::loadDouble;
     using MacroAssemblerX86Common::storeDouble;
     using MacroAssemblerX86Common::convertInt32ToDouble;
     using MacroAssemblerX86Common::branchTest8;

     void add32(TrustedImm32 imm, RegisterID src, RegisterID dest)
     {
         m_assembler.leal_mr(imm.m_value, src, dest);
     }

     void add32(TrustedImm32 imm, AbsoluteAddress address)
     {
         m_assembler.addl_im(imm.m_value, address.m_ptr);
     }

     void add32(AbsoluteAddress address, RegisterID dest)
     {
         m_assembler.addl_mr(address.m_ptr, dest);
     }

     void add64(TrustedImm32 imm, AbsoluteAddress address)
     {
         m_assembler.addl_im(imm.m_value, address.m_ptr);
         m_assembler.adcl_im(imm.m_value >> 31, reinterpret_cast<const char*>(address.m_ptr) + sizeof(int32_t));
     }

     void and32(TrustedImm32 imm, AbsoluteAddress address)
     {
         m_assembler.andl_im(imm.m_value, address.m_ptr);
     }

     void or32(TrustedImm32 imm, AbsoluteAddress address)
     {
         m_assembler.orl_im(imm.m_value, address.m_ptr);
     }

     void or32(RegisterID reg, AbsoluteAddress address)
     {
         m_assembler.orl_rm(reg, address.m_ptr);
     }

     void sub32(TrustedImm32 imm, AbsoluteAddress address)
     {
         m_assembler.subl_im(imm.m_value, address.m_ptr);
     }

     void load32(const void* address, RegisterID dest)
     {
         m_assembler.movl_mr(address, dest);
     }

     ConvertibleLoadLabel convertibleLoadPtr(Address address, RegisterID dest)
     {
         ConvertibleLoadLabel result = ConvertibleLoadLabel(this);
         m_assembler.movl_mr(address.offset, address.base, dest);
         return result;
     }

     void addDouble(AbsoluteAddress address, FPRegisterID dest)
     {
         m_assembler.addsd_mr(address.m_ptr, dest);
     }

     void storeDouble(FPRegisterID src, const void* address)
     {
         ASSERT(isSSE2Present());
         m_assembler.movsd_rm(src, address);
     }

     void convertInt32ToDouble(AbsoluteAddress src, FPRegisterID dest)
     {
         m_assembler.cvtsi2sd_mr(src.m_ptr, dest);
     }

     void store32(TrustedImm32 imm, void* address)
     {
         m_assembler.movl_i32m(imm.m_value, address);
     }

     void store32(RegisterID src, void* address)
     {
         m_assembler.movl_rm(src, address);
     }

     void store8(TrustedImm32 imm, void* address)
     {
         ASSERT(-128 <= imm.m_value && imm.m_value < 128);
         m_assembler.movb_i8m(imm.m_value, address);
     }

     // Possibly clobbers src.
     void moveDoubleToInts(FPRegisterID src, RegisterID dest1, RegisterID dest2)
     {
         movePackedToInt32(src, dest1);
         rshiftPacked(TrustedImm32(32), src);
         movePackedToInt32(src, dest2);
     }

     void moveIntsToDouble(RegisterID src1, RegisterID src2, FPRegisterID dest, FPRegisterID scratch)
     {
         moveInt32ToPacked(src1, dest);
         moveInt32ToPacked(src2, scratch);
         lshiftPacked(TrustedImm32(32), scratch);
         orPacked(scratch, dest);
     }

     Jump branchAdd32(ResultCondition cond, TrustedImm32 imm, AbsoluteAddress dest)
     {
         m_assembler.addl_im(imm.m_value, dest.m_ptr);
         return Jump(m_assembler.jCC(x86Condition(cond)));
     }

     Jump branchSub32(ResultCondition cond, TrustedImm32 imm, AbsoluteAddress dest)
     {
         m_assembler.subl_im(imm.m_value, dest.m_ptr);
         return Jump(m_assembler.jCC(x86Condition(cond)));
     }

     Jump branch32(RelationalCondition cond, AbsoluteAddress left, RegisterID right)
     {
         m_assembler.cmpl_rm(right, left.m_ptr);
         return Jump(m_assembler.jCC(x86Condition(cond)));
     }

     Jump branch32(RelationalCondition cond, AbsoluteAddress left, TrustedImm32 right)
     {
         m_assembler.cmpl_im(right.m_value, left.m_ptr);
         return Jump(m_assembler.jCC(x86Condition(cond)));
     }

     Call call()
     {
         return Call(m_assembler.call(), Call::Linkable);
     }

     // Address is a memory location containing the address to jump to
     void jump(AbsoluteAddress address)
     {
         m_assembler.jmp_m(address.m_ptr);
     }

     Call tailRecursiveCall()
     {
         return Call::fromTailJump(jump());
     }

     Call makeTailRecursiveCall(Jump oldJump)
     {
         return Call::fromTailJump(oldJump);
     }


     DataLabelPtr moveWithPatch(TrustedImmPtr initialValue, RegisterID dest)
     {
         padBeforePatch();
         m_assembler.movl_i32r(initialValue.asIntptr(), dest);
         return DataLabelPtr(this);
     }

     Jump branchTest8(ResultCondition cond, AbsoluteAddress address, TrustedImm32 mask = TrustedImm32(-1))
     {
         ASSERT(mask.m_value >= -128 && mask.m_value <= 255);
         if (mask.m_value == -1)
             m_assembler.cmpb_im(0, address.m_ptr);
         else
             m_assembler.testb_im(mask.m_value, address.m_ptr);
         return Jump(m_assembler.jCC(x86Condition(cond)));
     }

     Jump branchPtrWithPatch(RelationalCondition cond, RegisterID left, DataLabelPtr& dataLabel, TrustedImmPtr initialRightValue = TrustedImmPtr(0))
     {
         padBeforePatch();
         m_assembler.cmpl_ir_force32(initialRightValue.asIntptr(), left);
         dataLabel = DataLabelPtr(this);
         return Jump(m_assembler.jCC(x86Condition(cond)));
     }

     Jump branchPtrWithPatch(RelationalCondition cond, Address left, DataLabelPtr& dataLabel, TrustedImmPtr initialRightValue = TrustedImmPtr(0))
     {
         padBeforePatch();
         m_assembler.cmpl_im_force32(initialRightValue.asIntptr(), left.offset, left.base);
         dataLabel = DataLabelPtr(this);
         return Jump(m_assembler.jCC(x86Condition(cond)));
     }

     DataLabelPtr storePtrWithPatch(TrustedImmPtr initialValue, ImplicitAddress address)
     {
         padBeforePatch();
         m_assembler.movl_i32m(initialValue.asIntptr(), address.offset, address.base);
         return DataLabelPtr(this);
     }

     static bool supportsFloatingPoint() { return isSSE2Present(); }
     // See comment on MacroAssemblerARMv7::supportsFloatingPointTruncate()
     static bool supportsFloatingPointTruncate() { return isSSE2Present(); }
     static bool supportsFloatingPointSqrt() { return isSSE2Present(); }
     static bool supportsFloatingPointAbs() { return isSSE2Present(); }

     static FunctionPtr readCallTarget(CodeLocationCall call)
     {
         intptr_t offset = reinterpret_cast<int32_t*>(call.dataLocation())[-1];
         return FunctionPtr(reinterpret_cast<void*>(reinterpret_cast<uintptr_t>(call.dataLocation()) + offset));
     }

     static bool canJumpReplacePatchableBranchPtrWithPatch() { return true; }

     static CodeLocationLabel startOfBranchPtrWithPatchOnRegister(CodeLocationDataLabelPtr label)
     {
         const int opcodeBytes = 1;
         const int modRMBytes = 1;
         const int immediateBytes = 4;
         const int totalBytes = opcodeBytes + modRMBytes + immediateBytes;
         ASSERT(totalBytes >= maxJumpReplacementSize());
         return label.labelAtOffset(-totalBytes);
     }

     static CodeLocationLabel startOfPatchableBranchPtrWithPatchOnAddress(CodeLocationDataLabelPtr label)
     {
         const int opcodeBytes = 1;
         const int modRMBytes = 1;
         const int offsetBytes = 0;
         const int immediateBytes = 4;
         const int totalBytes = opcodeBytes + modRMBytes + offsetBytes + immediateBytes;
         ASSERT(totalBytes >= maxJumpReplacementSize());
         return label.labelAtOffset(-totalBytes);
     }

     static void revertJumpReplacementToBranchPtrWithPatch(CodeLocationLabel instructionStart, RegisterID reg, void* initialValue)
     {
         X86Assembler::revertJumpTo_cmpl_ir_force32(instructionStart.executableAddress(), reinterpret_cast<intptr_t>(initialValue), reg);
     }

     static void revertJumpReplacementToPatchableBranchPtrWithPatch(CodeLocationLabel instructionStart, Address address, void* initialValue)
     {
         ASSERT(!address.offset);
         X86Assembler::revertJumpTo_cmpl_im_force32(instructionStart.executableAddress(), reinterpret_cast<intptr_t>(initialValue), 0, address.base);
     }

 private:
     friend class LinkBuffer;
     friend class RepatchBuffer;

     static void linkCall(void* code, Call call, FunctionPtr function)
     {
         X86Assembler::linkCall(code, call.m_label, function.value());
     }

     static void repatchCall(CodeLocationCall call, CodeLocationLabel destination)
     {
         X86Assembler::relinkCall(call.dataLocation(), destination.executableAddress());
     }

     static void repatchCall(CodeLocationCall call, FunctionPtr destination)
     {
         X86Assembler::relinkCall(call.dataLocation(), destination.executableAddress());
     }
 };

 } // namespace JSC

 #endif // ENABLE(ASSEMBLER)

 #endif // MacroAssemblerX86_h
	/*
	* Copyright (C) 2008 Apple Inc. All rights reserved.
	*
	* Redistribution and use in source and binary forms, with or without
	* modification, are permitted provided that the following conditions
	* are met:
	* 1. Redistributions of source code must retain the above copyright
	* notice, this list of conditions and the following disclaimer.
	* 2. Redistributions in binary form must reproduce the above copyright
	* notice, this list of conditions and the following disclaimer in the
	* documentation and/or other materials provided with the distribution.
	*
	* THIS SOFTWARE IS PROVIDED BY APPLE INC. ``AS IS'' AND ANY
	* EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
	* IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR
	* PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL APPLE INC. OR
	* CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
	* EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
	* PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
	* PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY
	* OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	* OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	*/

	#ifndef MacroAssemblerX86_h
	#define MacroAssemblerX86_h

	#if ENABLE(ASSEMBLER) && CPU(X86)

	#include "MacroAssemblerX86Common.h"

	namespace JSC {

	class MacroAssemblerX86 : public MacroAssemblerX86Common {
	public:
	static const Scale ScalePtr = TimesFour;

	using MacroAssemblerX86Common::add32;
	using MacroAssemblerX86Common::and32;
	using MacroAssemblerX86Common::branchAdd32;
	using MacroAssemblerX86Common::branchSub32;
	using MacroAssemblerX86Common::sub32;
	using MacroAssemblerX86Common::or32;
	using MacroAssemblerX86Common::load32;
	using MacroAssemblerX86Common::store32;
	using MacroAssemblerX86Common::store8;
	using MacroAssemblerX86Common::branch32;
	using MacroAssemblerX86Common::call;
	using MacroAssemblerX86Common::jump;
	using MacroAssemblerX86Common::addDouble;
	using MacroAssemblerX86Common::loadDouble;
	using MacroAssemblerX86Common::storeDouble;
	using MacroAssemblerX86Common::convertInt32ToDouble;
	using MacroAssemblerX86Common::branchTest8;

	void add32(TrustedImm32 imm, RegisterID src, RegisterID dest)
	{
	m_assembler.leal_mr(imm.m_value, src, dest);
	}

	void add32(TrustedImm32 imm, AbsoluteAddress address)
	{
	m_assembler.addl_im(imm.m_value, address.m_ptr);
	}

	void add32(AbsoluteAddress address, RegisterID dest)
	{
	m_assembler.addl_mr(address.m_ptr, dest);
	}

	void add64(TrustedImm32 imm, AbsoluteAddress address)
	{
	m_assembler.addl_im(imm.m_value, address.m_ptr);
	m_assembler.adcl_im(imm.m_value >> 31, reinterpret_cast<const char*>(address.m_ptr) + sizeof(int32_t));
	}

	void and32(TrustedImm32 imm, AbsoluteAddress address)
	{
	m_assembler.andl_im(imm.m_value, address.m_ptr);
	}

	void or32(TrustedImm32 imm, AbsoluteAddress address)
	{
	m_assembler.orl_im(imm.m_value, address.m_ptr);
	}

	void or32(RegisterID reg, AbsoluteAddress address)
	{
	m_assembler.orl_rm(reg, address.m_ptr);
	}

	void sub32(TrustedImm32 imm, AbsoluteAddress address)
	{
	m_assembler.subl_im(imm.m_value, address.m_ptr);
	}

	void load32(const void* address, RegisterID dest)
	{
	m_assembler.movl_mr(address, dest);
	}

	ConvertibleLoadLabel convertibleLoadPtr(Address address, RegisterID dest)
	{
	ConvertibleLoadLabel result = ConvertibleLoadLabel(this);
	m_assembler.movl_mr(address.offset, address.base, dest);
	return result;
	}

	void addDouble(AbsoluteAddress address, FPRegisterID dest)
	{
	m_assembler.addsd_mr(address.m_ptr, dest);
	}

	void storeDouble(FPRegisterID src, const void* address)
	{
	ASSERT(isSSE2Present());
	m_assembler.movsd_rm(src, address);
	}

	void convertInt32ToDouble(AbsoluteAddress src, FPRegisterID dest)
	{
	m_assembler.cvtsi2sd_mr(src.m_ptr, dest);
	}

	void store32(TrustedImm32 imm, void* address)
	{
	m_assembler.movl_i32m(imm.m_value, address);
	}

	void store32(RegisterID src, void* address)
	{
	m_assembler.movl_rm(src, address);
	}

	void store8(TrustedImm32 imm, void* address)
	{
	ASSERT(-128 <= imm.m_value && imm.m_value < 128);
	m_assembler.movb_i8m(imm.m_value, address);
	}

	// Possibly clobbers src.
	void moveDoubleToInts(FPRegisterID src, RegisterID dest1, RegisterID dest2)
	{
	movePackedToInt32(src, dest1);
	rshiftPacked(TrustedImm32(32), src);
	movePackedToInt32(src, dest2);
	}

	void moveIntsToDouble(RegisterID src1, RegisterID src2, FPRegisterID dest, FPRegisterID scratch)
	{
	moveInt32ToPacked(src1, dest);
	moveInt32ToPacked(src2, scratch);
	lshiftPacked(TrustedImm32(32), scratch);
	orPacked(scratch, dest);
	}

	Jump branchAdd32(ResultCondition cond, TrustedImm32 imm, AbsoluteAddress dest)
	{
	m_assembler.addl_im(imm.m_value, dest.m_ptr);
	return Jump(m_assembler.jCC(x86Condition(cond)));
	}

	Jump branchSub32(ResultCondition cond, TrustedImm32 imm, AbsoluteAddress dest)
	{
	m_assembler.subl_im(imm.m_value, dest.m_ptr);
	return Jump(m_assembler.jCC(x86Condition(cond)));
	}

	Jump branch32(RelationalCondition cond, AbsoluteAddress left, RegisterID right)
	{
	m_assembler.cmpl_rm(right, left.m_ptr);
	return Jump(m_assembler.jCC(x86Condition(cond)));
	}

	Jump branch32(RelationalCondition cond, AbsoluteAddress left, TrustedImm32 right)
	{
	m_assembler.cmpl_im(right.m_value, left.m_ptr);
	return Jump(m_assembler.jCC(x86Condition(cond)));
	}

	Call call()
	{
	return Call(m_assembler.call(), Call::Linkable);
	}

	// Address is a memory location containing the address to jump to
	void jump(AbsoluteAddress address)
	{
	m_assembler.jmp_m(address.m_ptr);
	}

	Call tailRecursiveCall()
	{
	return Call::fromTailJump(jump());
	}

	Call makeTailRecursiveCall(Jump oldJump)
	{
	return Call::fromTailJump(oldJump);
	}


	DataLabelPtr moveWithPatch(TrustedImmPtr initialValue, RegisterID dest)
	{
	padBeforePatch();
	m_assembler.movl_i32r(initialValue.asIntptr(), dest);
	return DataLabelPtr(this);
	}

	Jump branchTest8(ResultCondition cond, AbsoluteAddress address, TrustedImm32 mask = TrustedImm32(-1))
	{
	ASSERT(mask.m_value >= -128 && mask.m_value <= 255);
	if (mask.m_value == -1)
	m_assembler.cmpb_im(0, address.m_ptr);
	else
	m_assembler.testb_im(mask.m_value, address.m_ptr);
	return Jump(m_assembler.jCC(x86Condition(cond)));
	}

	Jump branchPtrWithPatch(RelationalCondition cond, RegisterID left, DataLabelPtr& dataLabel, TrustedImmPtr initialRightValue = TrustedImmPtr(0))
	{
	padBeforePatch();
	m_assembler.cmpl_ir_force32(initialRightValue.asIntptr(), left);
	dataLabel = DataLabelPtr(this);
	return Jump(m_assembler.jCC(x86Condition(cond)));
	}

	Jump branchPtrWithPatch(RelationalCondition cond, Address left, DataLabelPtr& dataLabel, TrustedImmPtr initialRightValue = TrustedImmPtr(0))
	{
	padBeforePatch();
	m_assembler.cmpl_im_force32(initialRightValue.asIntptr(), left.offset, left.base);
	dataLabel = DataLabelPtr(this);
	return Jump(m_assembler.jCC(x86Condition(cond)));
	}

	DataLabelPtr storePtrWithPatch(TrustedImmPtr initialValue, ImplicitAddress address)
	{
	padBeforePatch();
	m_assembler.movl_i32m(initialValue.asIntptr(), address.offset, address.base);
	return DataLabelPtr(this);
	}

	static bool supportsFloatingPoint() { return isSSE2Present(); }
	// See comment on MacroAssemblerARMv7::supportsFloatingPointTruncate()
	static bool supportsFloatingPointTruncate() { return isSSE2Present(); }
	static bool supportsFloatingPointSqrt() { return isSSE2Present(); }
	static bool supportsFloatingPointAbs() { return isSSE2Present(); }

	static FunctionPtr readCallTarget(CodeLocationCall call)
	{
	intptr_t offset = reinterpret_cast<int32_t*>(call.dataLocation())[-1];
	return FunctionPtr(reinterpret_cast<void*>(reinterpret_cast<uintptr_t>(call.dataLocation()) + offset));
	}

	static bool canJumpReplacePatchableBranchPtrWithPatch() { return true; }

	static CodeLocationLabel startOfBranchPtrWithPatchOnRegister(CodeLocationDataLabelPtr label)
	{
	const int opcodeBytes = 1;
	const int modRMBytes = 1;
	const int immediateBytes = 4;
	const int totalBytes = opcodeBytes + modRMBytes + immediateBytes;
	ASSERT(totalBytes >= maxJumpReplacementSize());
	return label.labelAtOffset(-totalBytes);
	}

	static CodeLocationLabel startOfPatchableBranchPtrWithPatchOnAddress(CodeLocationDataLabelPtr label)
	{
	const int opcodeBytes = 1;
	const int modRMBytes = 1;
	const int offsetBytes = 0;
	const int immediateBytes = 4;
	const int totalBytes = opcodeBytes + modRMBytes + offsetBytes + immediateBytes;
	ASSERT(totalBytes >= maxJumpReplacementSize());
	return label.labelAtOffset(-totalBytes);
	}

	static void revertJumpReplacementToBranchPtrWithPatch(CodeLocationLabel instructionStart, RegisterID reg, void* initialValue)
	{
	X86Assembler::revertJumpTo_cmpl_ir_force32(instructionStart.executableAddress(), reinterpret_cast<intptr_t>(initialValue), reg);
	}

	static void revertJumpReplacementToPatchableBranchPtrWithPatch(CodeLocationLabel instructionStart, Address address, void* initialValue)
	{
	ASSERT(!address.offset);
	X86Assembler::revertJumpTo_cmpl_im_force32(instructionStart.executableAddress(), reinterpret_cast<intptr_t>(initialValue), 0, address.base);
	}

	private:
	friend class LinkBuffer;
	friend class RepatchBuffer;

	static void linkCall(void* code, Call call, FunctionPtr function)
	{
	X86Assembler::linkCall(code, call.m_label, function.value());
	}

	static void repatchCall(CodeLocationCall call, CodeLocationLabel destination)
	{
	X86Assembler::relinkCall(call.dataLocation(), destination.executableAddress());
	}

	static void repatchCall(CodeLocationCall call, FunctionPtr destination)
	{
	X86Assembler::relinkCall(call.dataLocation(), destination.executableAddress());
	}
	};

	} // namespace JSC

	#endif // ENABLE(ASSEMBLER)

	#endif // MacroAssemblerX86_h