/*===================== begin_copyright_notice ==================================

Copyright (c) 2017 Intel Corporation

Permission is hereby granted, free of charge, to any person obtaining a
copy of this software and associated documentation files (the
"Software"), to deal in the Software without restriction, including
without limitation the rights to use, copy, modify, merge, publish,
distribute, sublicense, and/or sell copies of the Software, and to
permit persons to whom the Software is furnished to do so, subject to
the following conditions:

The above copyright notice and this permission notice shall be included
in all copies or substantial portions of the Software.

THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS
OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF
MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT.
IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY
CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT,
TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE
SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE.


======================= end_copyright_notice ==================================*/

#ifndef BUILTINS_FRONTEND_DEFINITIONS_HPP
#define BUILTINS_FRONTEND_DEFINITIONS_HPP

#include "common/debug/DebugMacros.hpp" // VALUE_NAME() definition.
#include "common/LLVMWarningsPush.hpp"
#include "llvm/Config/llvm-config.h"
#include "llvm/AsmParser/Parser.h"
#include "llvmWrapper/IR/DerivedTypes.h"
#include "llvm/Support/Casting.h"
#include "common/LLVMWarningsPop.hpp"
#include "Probe/Assertion.h"

typedef union _gfxResourceAddressSpace
{
    struct _bits
    {
        unsigned int  bufId    : 16;
        unsigned int  bufType  : 4;
        unsigned int  indirect : 1;     // bool
        unsigned int  reserved : 11;
    } bits;
    unsigned int   u32Val;
} GFXResourceAddressSpace;

enum class ADDRESS_SPACE_TYPE : unsigned int
{
    ADDRESS_SPACE_PRIVATE = 0,
    ADDRESS_SPACE_GLOBAL = 1,
    ADDRESS_SPACE_CONSTANT = 2,
    ADDRESS_SPACE_LOCAL = 3,
    ADDRESS_SPACE_GENERIC = 4,
    ADDRESS_SPACE_LOCAL_32 = 13,
};

template<bool preserveNames, typename T, typename Inserter>
unsigned LLVM3DBuilder<preserveNames, T, Inserter>::EncodeASForGFXResource(
    const llvm::Value& bufIdx,
    IGC::BufferType bufType,
    unsigned uniqueIndAS)
{
    GFXResourceAddressSpace temp = {};

    static_assert(sizeof(temp) == 4, "Code below may need and update.");

    temp.u32Val = 0;
    IGC_ASSERT((bufType + 1) < 16);
    temp.bits.bufType = bufType + 1;
    if (bufType == IGC::BufferType::SLM)
    {
        return static_cast<unsigned int>(ADDRESS_SPACE_TYPE::ADDRESS_SPACE_LOCAL); // OCL uses addrspace 3 for SLM. We should use the same thing.
    }
    else if (llvm::isa<llvm::ConstantInt>(&bufIdx))
    {
        const unsigned bufId = (unsigned)(llvm::cast<llvm::ConstantInt>(&bufIdx)->getZExtValue());
        IGC_ASSERT(bufId < (1 << 16));
        temp.bits.bufId = bufId;
        return temp.u32Val;
    }

    // if it is indirect-buf, it is front-end's job to give a proper(unique) address-space per access
    temp.bits.bufId = uniqueIndAS;
    temp.bits.indirect = 1;
    return temp.u32Val;
}


template<bool preserveNames, typename T, typename Inserter>
inline llvm::Function* LLVM3DBuilder<preserveNames, T, Inserter>::llvm_GenISA_ubfe() const
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* func_llvm_GenISA_ubfe = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_ubfe);
    return func_llvm_GenISA_ubfe;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Function* LLVM3DBuilder<preserveNames, T, Inserter>::llvm_GenISA_ibfe() const
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* func_llvm_GenISA_ibfe = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_ibfe);
    return func_llvm_GenISA_ibfe;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Function* LLVM3DBuilder<preserveNames, T, Inserter>::llvm_GenISA_bfi() const
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* func_llvm_GenISA_bfi = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_bfi);
    return func_llvm_GenISA_bfi;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Function* LLVM3DBuilder<preserveNames, T, Inserter>::llvm_GenISA_bfrev() const
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* func_llvm_GenISA_bfrev = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_bfrev);
    return func_llvm_GenISA_bfrev;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Function* LLVM3DBuilder<preserveNames, T, Inserter>::llvm_GenISA_firstbitHi() const
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* func_llvm_GenISA_firstbitHi = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_firstbitHi);
    return func_llvm_GenISA_firstbitHi;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Function* LLVM3DBuilder<preserveNames, T, Inserter>::llvm_GenISA_firstbitLo() const
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* func_llvm_GenISA_firstbitLo = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_firstbitLo);
    return func_llvm_GenISA_firstbitLo;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Function* LLVM3DBuilder<preserveNames, T, Inserter>::llvm_GenISA_firstbitShi() const
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* func_llvm_GenISA_firstbitShi = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_firstbitShi);
    return func_llvm_GenISA_firstbitShi;
}

template<bool preserveNames, typename T, typename Inserter>
void LLVM3DBuilder<preserveNames, T, Inserter>::Init()
{
    // Cached constants
    m_int0 = this->getInt32( 0 );
    m_int1 = this->getInt32( 1 );
    m_int2 = this->getInt32( 2 );
    m_int3 = this->getInt32( 3 );
    m_float0 = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(this->getFloatTy(), 0.0));
    m_float1 = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(this->getFloatTy(), 1.0));
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_resinfo(
    llvm::Value* int32_src_s_mip,
    llvm::Value* int32_textureIdx)
{
    llvm::Value * packed_params[] = {
        int32_textureIdx,
        int32_src_s_mip,
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* func_llvm_GenISA_resinfoptr = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_resinfoptr, int32_textureIdx->getType());

    llvm::CallInst* packed_resinfo_call = this->CreateCall(func_llvm_GenISA_resinfoptr, packed_params);
    return packed_resinfo_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_resinfoptr_msaa(
    llvm::Value* srcBuffer,
    llvm::Value* float_src_s_mip)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* func_resinfoptr = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_resinfoptr, srcBuffer->getType());

    //%mip_s = bitcast float %float_src_s_mip to i32
    llvm::Value* int32_mip = this->CreateBitCast(float_src_s_mip, this->getInt32Ty(), VALUE_NAME("mip_s"));

    llvm::Value * packed_params[] = {
        srcBuffer,
        int32_mip
    };

    llvm::CallInst* packed_resinfo_call = llvm::cast<llvm::CallInst>(this->CreateCall(func_resinfoptr, packed_params));

    // %tex_s.chan0 = extractelement <4 x i32> %packed_resinfo_call, i32 2
    llvm::Value* int32_info_s_ch2 = this->CreateExtractElement(packed_resinfo_call, this->m_int2);

    llvm::Function* func_sampleinfoptr = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleinfoptr, srcBuffer->getType());

    llvm::Value * packed_sampleinfo_params[] = {
        srcBuffer
    };

    // Call sampleinfoptr intrinsic to get the number of samples.
    llvm::CallInst* packed_sampleinfo_call = llvm::cast<llvm::CallInst>(this->CreateCall(func_sampleinfoptr, packed_sampleinfo_params));

    // We can not use channel 0 of sampleinfo which should contain the correct
    // number of samples retrieved from surface state because this value in surface
    // state must be set to 1 in case of MSAA UAV emulation due to fact that
    // IGC does not support native MSAA UAV messages at the moment.
    // Instead of channel 0 we can use channel 3 of sampleinfo which contains
    // sample position palette index field retrieved from surface state.
    // The sample position palette index field is set to log2(number of samples).

    // Get sample position palette index from sampleinfo. Note that this value
    // is incremented by one from its value in the surface state.
    llvm::Value* int32_sampleinfo_s_chan3 = this->CreateExtractElement(packed_sampleinfo_call, this->m_int3);
    llvm::Value* int32_paletteIndex = this->CreateSub(int32_sampleinfo_s_chan3, this->m_int1);

    // Number of samples = 2 ^ "sample position palette index".
    llvm::Value* int32_numberOfSamples = this->CreateShl(this->m_int1, int32_paletteIndex);

    // Divide depth by number of samples.
    // %depth_s = udiv i32 %src_s.chan2, %src1_s_ch0
    llvm::Value* int32_depth = this->CreateUDiv(int32_info_s_ch2, int32_numberOfSamples, VALUE_NAME("depth_s"));

    llvm::Value *resinfo = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(llvm::Type::getInt32Ty(module->getContext()), 4));

    resinfo = this->CreateInsertElement(
        resinfo,
        this->CreateExtractElement(packed_resinfo_call, this->m_int0),
        this->getInt32(0),
        "call_inst");

    resinfo = this->CreateInsertElement(
        resinfo,
        this->CreateExtractElement(packed_resinfo_call, this->m_int1),
        this->getInt32(1),
        "call_inst");

    resinfo = this->CreateInsertElement(
        resinfo,
        this->CreateExtractElement(packed_resinfo_call, this->m_int3),
        this->getInt32(3),
        "call_inst");

    resinfo = this->CreateInsertElement(
        resinfo,
        int32_depth,
        this->getInt32(2),
        "call_inst");

    return resinfo;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_typedwrite(
    llvm::Value* dstBuffer,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* srcAddressW,
    llvm::Value* lod,
    llvm::Value* float_X,
    llvm::Value* float_Y,
    llvm::Value* float_Z,
    llvm::Value* float_W)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function *pFuncTypedWrite = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_typedwrite, dstBuffer->getType());

    //R = SampleIndex
    llvm::Value * args[] = {
        dstBuffer,
        srcAddressU,
        srcAddressV,
        srcAddressW,
        lod,
        float_X,
        float_Y,
        float_Z,
        float_W,
    };

    llvm::Value* typedwrite = this->CreateCall(pFuncTypedWrite, args);
    return typedwrite;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_typedread(
    llvm::Value* srcBuffer,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* srcAddressW,
    llvm::Value* lod)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function *pFuncTypedRead = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_typedread, srcBuffer->getType());

    llvm::Value * args[] = {
        srcBuffer,
        srcAddressU,
        srcAddressV,
        srcAddressW,
        lod
    };

    llvm::Value* typedread = this->CreateCall(pFuncTypedRead, args);
    return typedread;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_typedread_msaa2D(
    llvm::Value* srcBuffer,
    llvm::Value* sampleIdx,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* lod)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function *pFuncTypedRead = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_typedread, srcBuffer->getType());

    //R = SampleIndex
    llvm::Value * args[] = {
        srcBuffer,
        srcAddressU,
        srcAddressV,
        sampleIdx,
        lod
    };

    llvm::Value* typedread = this->CreateCall(pFuncTypedRead, args);
    return typedread;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_typedread_msaa2DArray(
    llvm::Value* srcBuffer,
    llvm::Value* sampleIdx,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* srcAddressR,
    llvm::Value* lod)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    // Call sampleinfoptr intrinsic to get the number of samples.
    // %tex = call <4 x i32> @llvm.GenISA.sampleinfoptr(4x(float)addrspace())
    llvm::Function* pfuncsampleinfoptr = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_sampleinfoptr, srcBuffer->getType());
    llvm::Value* packed_sampleinfo_call = this->CreateCall(pfuncsampleinfoptr, srcBuffer);

    // We can not use channel 0 of sampleinfo which should contain the correct
    // number of samples retrieved from surface state because this value in surface
    // state must be set to 1 in case of MSAA UAV emulation due to fact that
    // IGC does not support native MSAA UAV messages at the moment.
    // Instead of channel 0 we can use channel 3 of sampleinfo which contains
    // sample position palette index field retrieved from surface state.
    // The sample position palette index field is set to log2(number of samples).

    // Get sample position palette index from surface state. Note that this value
    // is incremented by one from its value in the surface state.
    llvm::Value* int32_sampleinfo_s_chan3 = this->CreateExtractElement(packed_sampleinfo_call, this->m_int3);
    llvm::Value* int32_paletteIndex = this->CreateSub(int32_sampleinfo_s_chan3, this->m_int1);

    // Number of samples = 2 ^ "sample position palette index".
    llvm::Value* int32_numberOfSamples = this->CreateShl(this->m_int1, int32_paletteIndex);

    //R = R' * num of Samples + SampleIndex
    llvm::Value* int32_mulwithSamples = this->CreateMul(srcAddressR, int32_numberOfSamples, VALUE_NAME("mul_s"));
    llvm::Value* int32_SrcAddrR = this->CreateAdd(int32_mulwithSamples, sampleIdx, VALUE_NAME("source_R"));

    llvm::Function *pFuncTypedRead = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_typedread, srcBuffer->getType());

    llvm::Value * args[] = {
        srcBuffer,
        srcAddressU,
        srcAddressV,
        int32_SrcAddrR,
        lod
    };

    llvm::Value* typedread = this->CreateCall(pFuncTypedRead, args);
    return typedread;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_typedwrite_msaa2D(
    llvm::Value* dstBuffer,
    llvm::Value* sampleIdx,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* float_X,
    llvm::Value* float_Y,
    llvm::Value* float_Z,
    llvm::Value* float_W)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function *pFuncTypedWrite = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_typedwrite, dstBuffer->getType());

    //R = SampleIndex
    llvm::Value * args[] = {
        dstBuffer,
        srcAddressU,
        srcAddressV,
        sampleIdx,
        m_int0,
        float_X,
        float_Y,
        float_Z,
        float_W,
    };

    llvm::Value* typedwrite = this->CreateCall(pFuncTypedWrite, args);
    return typedwrite;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_typedwrite_msaa2DArray(
    llvm::Value* dstBuffer,
    llvm::Value* sampleIdx,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* srcAddressR,
    llvm::Value* float_X,
    llvm::Value* float_Y,
    llvm::Value* float_Z,
    llvm::Value* float_W)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    // Call sampleinfoptr intrinsic to get the number of samples.
    // %tex = call <4 x i32> @llvm.GenISA.sampleinfoptr(4x(float)addrspace())
    llvm::Function* pfuncsampleinfoptr = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_sampleinfoptr, dstBuffer->getType());
    llvm::Value* packed_sampleinfo_call = this->CreateCall(pfuncsampleinfoptr, dstBuffer);

    // We can not use channel 0 of sampleinfo which should contain the correct
    // number of samples retrieved from surface state because this value in surface
    // state must be set to 1 in case of MSAA UAV emulation due to fact that
    // IGC does not support native MSAA UAV messages at the moment.
    // Instead of channel 0 we can use channel 3 of sampleinfo which contains
    // sample position palette index field retrieved from surface state.
    // The sample position palette index field is set to log2(number of samples).

    // Get sample position palette index from surface state. Note that this value
    // is incremented by one from its value in the surface state.
    llvm::Value* int32_sampleinfo_s_chan3 = this->CreateExtractElement(packed_sampleinfo_call, this->m_int3);
    llvm::Value* int32_paletteIndex = this->CreateSub(int32_sampleinfo_s_chan3, this->m_int1);

    // Number of samples = 2 ^ "sample position palette index".
    llvm::Value* int32_numberOfSamples = this->CreateShl(this->m_int1, int32_paletteIndex);

    //R = R' * num of Samples + SampleIndex
    llvm::Value* int32_mulwithSamples = this->CreateMul(srcAddressR, int32_numberOfSamples, VALUE_NAME("mul_s"));
    llvm::Value* int32_SrcAddrR = this->CreateAdd(int32_mulwithSamples, sampleIdx, VALUE_NAME("source_R"));

    llvm::Function *pFuncTypedWrite = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_typedwrite, dstBuffer->getType());

    //R = SampleIndex
    llvm::Value * args[] = {
        dstBuffer,
        srcAddressU,
        srcAddressV,
        int32_SrcAddrR,
        m_int0,
        float_X,
        float_Y,
        float_Z,
        float_W,
    };

    llvm::Value* typedwrite = this->CreateCall(pFuncTypedWrite, args);
    return typedwrite;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_dwordatomictypedMsaa2D(
    llvm::Value* dstBuffer,
    llvm::Value* sampleIdx,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* src,
    llvm::Value* instType)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type *types[] = { src->getType(), dstBuffer->getType() };

    llvm::Function *pFuncDwordAtomicTyped = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_intatomictyped, types);

    //R = SampleIndex
    llvm::Value * args[] = {
        dstBuffer,
        srcAddressU,
        srcAddressV,
        sampleIdx,
        src,
        instType
    };

    llvm::Value* dwordAtomicTyped = this->CreateCall(pFuncDwordAtomicTyped, args);
    return dwordAtomicTyped;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_dwordatomictypedMsaa2DArray(
    llvm::Value* dstBuffer,
    llvm::Value* sampleIdx,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* srcAddressR,
    llvm::Value* src,
    llvm::Value* instType)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    // Call sampleinfoptr intrinsic to get the number of samples.
    // %tex = call <4 x i32> @llvm.GenISA.sampleinfoptr(4x(float)addrspace())
    llvm::Function* pfuncsampleinfoptr = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_sampleinfoptr, dstBuffer->getType());
    llvm::Value* packed_sampleinfo_call = this->CreateCall(pfuncsampleinfoptr, dstBuffer);

    // We can not use channel 0 of sampleinfo which should contain the correct
    // number of samples retrieved from surface state because this value in surface
    // state must be set to 1 in case of MSAA UAV emulation due to fact that
    // IGC does not support native MSAA UAV messages at the moment.
    // Instead of channel 0 we can use channel 3 of sampleinfo which contains
    // sample position palette index field retrieved from surface state.
    // The sample position palette index field is set to log2(number of samples).

    // Get sample position palette index from surface state. Note that this value
    // is incremented by one from its value in the surface state.
    llvm::Value* int32_sampleinfo_s_chan3 = this->CreateExtractElement(packed_sampleinfo_call, this->m_int3);
    llvm::Value* int32_paletteIndex = this->CreateSub(int32_sampleinfo_s_chan3, this->m_int1);

    // Number of samples = 2 ^ "sample position palette index".
    llvm::Value* int32_numberOfSamples = this->CreateShl(this->m_int1, int32_paletteIndex);

    //R = R' * num of Samples + SampleIndex
    llvm::Value* int32_mulwithSamples = this->CreateMul(srcAddressR, int32_numberOfSamples, VALUE_NAME("mul_s"));
    llvm::Value* int32_SrcAddrR = this->CreateAdd(int32_mulwithSamples, sampleIdx, VALUE_NAME("source_R"));

    llvm::Type *types[] = { src->getType(), dstBuffer->getType() };

    llvm::Function *pFuncDwordAtomicTyped = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_intatomictyped, types);

    llvm::Value * args[] = {
        dstBuffer,
        srcAddressU,
        srcAddressV,
        int32_SrcAddrR,
        src,
        instType
    };

    llvm::Value* dwordAtomicTyped = this->CreateCall(pFuncDwordAtomicTyped, args);
    return dwordAtomicTyped;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_StatelessAtomic(
    llvm::Value* ptr,
    llvm::Value* data,
    IGC::AtomicOp opcode)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Type* types[] = { data->getType(), ptr->getType(), ptr->getType() };
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_intatomicrawA64, types);

    llvm::Value* args[] =
    {
        ptr,
        ptr,
        data,
        this->getInt32(opcode)
    };
    return this->CreateCall(pFunc, args);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_InidrectAtomic(
    llvm::Value* resource,
    llvm::Value* offset,
    llvm::Value* data,
    IGC::AtomicOp opcode)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type *types[] = { data->getType(), resource->getType() };

    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_intatomicraw, types);

    llvm::Value* args[] =
    {
        resource,
        offset,
        data,
        this->getInt32(opcode)
    };
    return this->CreateCall(pFunc, args);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_StatelessAtomicCmpXChg(
    llvm::Value* ptr,
    llvm::Value* data0,
    llvm::Value* data1)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Type* types[] = { data0->getType(), ptr->getType(), ptr->getType() };
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_icmpxchgatomicrawA64, types);

    llvm::Value* args[] =
    {
        ptr,
        ptr,
        data0,
        data1,
    };
    return this->CreateCall(pFunc, args);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_InidrectAtomicCmpXChg(
    llvm::Value* resource,
    llvm::Value* offset,
    llvm::Value* data0,
    llvm::Value* data1)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type *types[] = { data0->getType(), resource->getType() };

    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_icmpxchgatomicraw, types);

    llvm::Value* args[] =
    {
        resource,
        offset,
        data0,
        data1,
    };
    return this->CreateCall(pFunc, args);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_cmpxchgatomictypedMsaa2D(
    llvm::Value* dstBuffer,
    llvm::Value* sampleIdx,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* src0,
    llvm::Value* src1)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type *types[] = { src0->getType(), dstBuffer->getType() };

    llvm::Function *pFuncCmpxchgatomictyped = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_icmpxchgatomictyped, types);

    //R = SampleIndex
    llvm::Value * args[] = {
        dstBuffer,
        srcAddressU,
        srcAddressV,
        sampleIdx,
        src0,
        src1
    };

    llvm::Value* dwordCmpxchgatomictyped = this->CreateCall(pFuncCmpxchgatomictyped, args);
    return dwordCmpxchgatomictyped;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_cmpxchgatomictypedMsaa2DArray(
    llvm::Value* dstBuffer,
    llvm::Value* sampleIdx,
    llvm::Value* srcAddressU,
    llvm::Value* srcAddressV,
    llvm::Value* srcAddressR,
    llvm::Value* src0,
    llvm::Value* src1)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    // Call sampleinfoptr intrinsic to get the number of samples.
    // %tex = call <4 x i32> @llvm.GenISA.sampleinfoptr(4x(float)addrspace())
    llvm::Function* pfuncsampleinfoptr = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_sampleinfoptr, dstBuffer->getType());
    llvm::Value* packed_sampleinfo_call = this->CreateCall(pfuncsampleinfoptr, dstBuffer);

    // We can not use channel 0 of sampleinfo which should contain the correct
    // number of samples retrieved from surface state because this value in surface
    // state must be set to 1 in case of MSAA UAV emulation due to fact that
    // IGC does not support native MSAA UAV messages at the moment.
    // Instead of channel 0 we can use channel 3 of sampleinfo which contains
    // sample position palette index field retrieved from surface state.
    // The sample position palette index field is set to log2(number of samples).

    // Get sample position palette index from surface state. Note that this value
    // is incremented by one from its value in the surface state.
    llvm::Value* int32_sampleinfo_s_chan3 = this->CreateExtractElement(packed_sampleinfo_call, this->m_int3);
    llvm::Value* int32_paletteIndex = this->CreateSub(int32_sampleinfo_s_chan3, this->m_int1);

    // Number of samples = 2 ^ "sample position palette index".
    llvm::Value* int32_numberOfSamples = this->CreateShl(this->m_int1, int32_paletteIndex);

    //R = R' * num of Samples + SampleIndex
    llvm::Value* int32_mulwithSamples = this->CreateMul(srcAddressR, int32_numberOfSamples, VALUE_NAME("mul_s"));
    llvm::Value* int32_SrcAddrR = this->CreateAdd(int32_mulwithSamples, sampleIdx, VALUE_NAME("source_R"));

    llvm::Type *types[] = { src0->getType(), dstBuffer->getType() };

    llvm::Function *pFuncCmpxchgatomictyped = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_icmpxchgatomictyped, types);

    llvm::Value * args[] = {
        dstBuffer,
        srcAddressU,
        srcAddressV,
        int32_SrcAddrR,
        src0,
        src1
    };

    llvm::Value* dwordCmpxchgatomictyped = this->CreateCall(pFuncCmpxchgatomictyped, args);
    return dwordCmpxchgatomictyped;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_TypedAtomic(
    llvm::Value* resource,
    llvm::Value* addressU,
    llvm::Value* addressV,
    llvm::Value* addressR,
    llvm::Value* data,
    IGC::AtomicOp opcode)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type *types[] = { data->getType(), resource->getType() };

    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_intatomictyped, types);

    llvm::Value* args[] =
    {
        resource,
        addressU,
        addressV,
        addressR,
        data,
        this->getInt32(opcode)
    };
    return this->CreateCall(pFunc, args);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_TypedAtomicCmpXChg(
    llvm::Value* resource,
    llvm::Value* addressU,
    llvm::Value* addressV,
    llvm::Value* addressR,
    llvm::Value* data0,
    llvm::Value* data1)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type *types[] = { data0->getType(), resource->getType() };

    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_icmpxchgatomictyped, types);

    llvm::Value* args[] =
    {
        resource,
        addressU,
        addressV,
        addressR,
        data0,
        data1,
    };
    return this->CreateCall(pFunc, args);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SampleInfo(
    llvm::Value* resourcePtr)
{
    llvm::Value * packed_tex_params[] = {
        resourcePtr,
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::CallInst* packed_tex_call = llvm::cast<llvm::CallInst>(this->CreateCall(
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_sampleinfoptr, resourcePtr->getType()),
        packed_tex_params));

    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateReadSurfaceInfo(
    llvm::Value* resourcePtr,
    llvm::Value* mipmap)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* fn = llvm::GenISAIntrinsic::getDeclaration(
        module, llvm::GenISAIntrinsic::GenISA_readsurfaceinfoptr, resourcePtr->getType());
    llvm::Value* packed_tex_call = this->CreateCall2(fn, resourcePtr, mipmap);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SyncThreadGroup()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    return this->CreateCall(llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_threadgroupbarrier));
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_FlushSampler()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    return this->CreateCall(llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_flushsampler));
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_MemoryFence(
    bool commit,
    bool flushRWDataCache,
    bool flushConstantCache,
    bool flushTextureCache,
    bool flushInstructionCache,
    bool globalFence)
{
    llvm::Value* parameters[] =
    {
        this->getInt1(commit),
        this->getInt1(flushRWDataCache),
        this->getInt1(flushConstantCache),
        this->getInt1(flushTextureCache),
        this->getInt1(flushInstructionCache),
        this->getInt1(globalFence),
        this->getInt1(false),
    };
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    return this->CreateCall(
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_memoryfence),
        parameters);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_GlobalSync()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    return this->CreateCall(llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_globalSync));
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SamplePos(
    llvm::Value* int32_resourceIdx,
    llvm::Value* int32_samplerIdx)
{
    llvm::Value* sampleInfo = this->Create_SampleInfo(int32_resourceIdx);


    llvm::Value* int32_texX = this->CreateExtractElement(sampleInfo, m_int0);
    llvm::Value* int32_texW = this->CreateExtractElement(sampleInfo, m_int3);

    llvm::Value* int32_tempIndex = this->CreateAdd(int32_texX, int32_samplerIdx);
    llvm::Value* int1_ole = this->CreateICmp(llvm::ICmpInst::ICMP_UGT, int32_texX, int32_samplerIdx);
    llvm::Value* int32_sel = this->CreateSelect(int1_ole, int32_tempIndex, m_int0);
    llvm::Value* int1_one = this->CreateICmp(llvm::ICmpInst::ICMP_EQ, int32_texW, m_int1);
    llvm::Value* int32_selIndex = this->CreateSelect(int1_one, m_int0, int32_sel);

    /*
        %tempY = extractelement <32 x f32> <f32 0.0, f32 0.0, f32 4.0 / 16.0, f32 -4.0 / 16.0, f32 -6.0 / 16.0,
                                            f32 -2.0 / 16.0, f32 2.0 / 16.0, f32 6.0 / 16.0, f32 -3.0 / 16.0,
                                            f32 3.0 / 16.0, f32 1.0 / 16.0, f32 -5.0 / 16.0, f32 5.0 / 16.0,
                                            f32 -1.0 / 16.0, f32 7.0 / 16.0, f32 -7.0 / 16.0, f32 1.0 / 16.0,
                                            f32 -3.0 / 16.0, f32 2.0 / 16.0, f32 -1.0 / 16.0, f32 -2.0 / 16.0,
                                            f32 5.0 / 16.0, f32 3.0 / 16.0, f32 -5.0 / 16.0, f32 6.0 / 16.0,
                                            f32 -7.0 / 16.0, f32 -6.0 / 16.0, f32 4.0 / 16.0, f32 0.0,
                                            f32 -4.0 / 16.0, f32 7.0 / 16.0, f32 -8.0 / 16.0>, i32 %selIndex
    */
    llvm::Value* float_y = nullptr;
    {
        llvm::Value* temp = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 32));
        temp = this->CreateInsertElement(temp, this->getFloat( 0.0f), this->getInt32(0));
        temp = this->CreateInsertElement(temp, this->getFloat( 0.0f), this->getInt32(1));
        temp = this->CreateInsertElement(temp, this->getFloat( 4.0f / 16.0f), this->getInt32(2));
        temp = this->CreateInsertElement(temp, this->getFloat(-4.0f / 16.0f), this->getInt32(3));
        temp = this->CreateInsertElement(temp, this->getFloat(-6.0f / 16.0f), this->getInt32(4));
        temp = this->CreateInsertElement(temp, this->getFloat(-2.0f / 16.0f), this->getInt32(5));
        temp = this->CreateInsertElement(temp, this->getFloat( 2.0f / 16.0f), this->getInt32(6));
        temp = this->CreateInsertElement(temp, this->getFloat( 6.0f / 16.0f), this->getInt32(7));
        temp = this->CreateInsertElement(temp, this->getFloat(-3.0f / 16.0f), this->getInt32(8));
        temp = this->CreateInsertElement(temp, this->getFloat( 3.0f / 16.0f), this->getInt32(9));
        temp = this->CreateInsertElement(temp, this->getFloat( 1.0f / 16.0f), this->getInt32(10));
        temp = this->CreateInsertElement(temp, this->getFloat(-5.0f / 16.0f), this->getInt32(11));
        temp = this->CreateInsertElement(temp, this->getFloat( 5.0f / 16.0f), this->getInt32(12));
        temp = this->CreateInsertElement(temp, this->getFloat(-1.0f / 16.0f), this->getInt32(13));
        temp = this->CreateInsertElement(temp, this->getFloat( 7.0f / 16.0f), this->getInt32(14));
        temp = this->CreateInsertElement(temp, this->getFloat(-7.0f / 16.0f), this->getInt32(15));
        temp = this->CreateInsertElement(temp, this->getFloat( 1.0f / 16.0f), this->getInt32(16));
        temp = this->CreateInsertElement(temp, this->getFloat(-3.0f / 16.0f), this->getInt32(17));
        temp = this->CreateInsertElement(temp, this->getFloat( 2.0f / 16.0f), this->getInt32(18));
        temp = this->CreateInsertElement(temp, this->getFloat(-1.0f / 16.0f), this->getInt32(19));
        temp = this->CreateInsertElement(temp, this->getFloat(-2.0f / 16.0f), this->getInt32(20));
        temp = this->CreateInsertElement(temp, this->getFloat( 5.0f / 16.0f), this->getInt32(21));
        temp = this->CreateInsertElement(temp, this->getFloat( 3.0f / 16.0f), this->getInt32(22));
        temp = this->CreateInsertElement(temp, this->getFloat(-5.0f / 16.0f), this->getInt32(23));
        temp = this->CreateInsertElement(temp, this->getFloat( 6.0f / 16.0f), this->getInt32(24));
        temp = this->CreateInsertElement(temp, this->getFloat(-7.0f / 16.0f), this->getInt32(25));
        temp = this->CreateInsertElement(temp, this->getFloat(-6.0f / 16.0f), this->getInt32(26));
        temp = this->CreateInsertElement(temp, this->getFloat( 4.0f / 16.0f), this->getInt32(27));
        temp = this->CreateInsertElement(temp, this->getFloat( 0.0f), this->getInt32(28));
        temp = this->CreateInsertElement(temp, this->getFloat(-4.0f / 16.0f), this->getInt32(29));
        temp = this->CreateInsertElement(temp, this->getFloat( 7.0f / 16.0f), this->getInt32(30));
        temp = this->CreateInsertElement(temp, this->getFloat(-8.0f / 16.0f), this->getInt32(31));
        float_y = this->CreateExtractElement(temp, int32_selIndex);
    }

    /*
        %tempX = extractelement <32 x f32> <f32 0.0, f32 0.0, f32 4.0 / 16.0, f32 -4.0 / 16.0, f32 -2.0 / 16.0,
                                            f32 6.0 / 16.0, f32 -6.0 / 16.0, f32 2.0 / 16.0, f32 1.0 / 16.0,
                                            f32 -1.0 / 16.0, f32 5.0 / 16.0, f32 -3.0 / 16.0, f32 -5.0 / 16.0,
                                            f32 -7.0 / 16.0, f32 3.0 / 16.0, f32 7.0 / 16.0, f32 1.0 / 16.0,
                                            f32 -1.0 / 16.0, f32 -3.0 / 16.0, f32 4.0 / 16.0, f32 -5.0 / 16.0,
                                            f32 2.0 / 16.0, f32 5.0 / 16.0, f32 3.0 / 16.0, f32 -2.0 / 16.0,
                                            f32 0.0 / 16.0, f32 -4.0 / 16.0, f32 -6.0 / 16.0, f32 -8.0 / 16.0,
                                            f32 7.0 / 16.0, f32 6.0 / 16.0, f32 -7.0 / 16.0>, i32 %selIndex
    */
    llvm::Value* float_x = nullptr;
    {
        llvm::Value* temp = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 32));
        temp = this->CreateInsertElement(temp, this->getFloat( 0.0f), this->getInt32(0));
        temp = this->CreateInsertElement(temp, this->getFloat( 0.0f), this->getInt32(1));
        temp = this->CreateInsertElement(temp, this->getFloat( 4.0f / 16.0f), this->getInt32(2));
        temp = this->CreateInsertElement(temp, this->getFloat(-4.0f / 16.0f), this->getInt32(3));
        temp = this->CreateInsertElement(temp, this->getFloat(-2.0f / 16.0f), this->getInt32(4));
        temp = this->CreateInsertElement(temp, this->getFloat( 6.0f / 16.0f), this->getInt32(5));
        temp = this->CreateInsertElement(temp, this->getFloat(-6.0f / 16.0f), this->getInt32(6));
        temp = this->CreateInsertElement(temp, this->getFloat( 2.0f / 16.0f), this->getInt32(7));
        temp = this->CreateInsertElement(temp, this->getFloat( 1.0f / 16.0f), this->getInt32(8));
        temp = this->CreateInsertElement(temp, this->getFloat(-1.0f / 16.0f), this->getInt32(9));
        temp = this->CreateInsertElement(temp, this->getFloat( 5.0f / 16.0f), this->getInt32(10));
        temp = this->CreateInsertElement(temp, this->getFloat(-3.0f / 16.0f), this->getInt32(11));
        temp = this->CreateInsertElement(temp, this->getFloat(-5.0f / 16.0f), this->getInt32(12));
        temp = this->CreateInsertElement(temp, this->getFloat(-7.0f / 16.0f), this->getInt32(13));
        temp = this->CreateInsertElement(temp, this->getFloat( 3.0f / 16.0f), this->getInt32(14));
        temp = this->CreateInsertElement(temp, this->getFloat( 7.0f / 16.0f), this->getInt32(15));
        temp = this->CreateInsertElement(temp, this->getFloat( 1.0f / 16.0f), this->getInt32(16));
        temp = this->CreateInsertElement(temp, this->getFloat(-1.0f / 16.0f), this->getInt32(17));
        temp = this->CreateInsertElement(temp, this->getFloat(-3.0f / 16.0f), this->getInt32(18));
        temp = this->CreateInsertElement(temp, this->getFloat( 4.0f / 16.0f), this->getInt32(19));
        temp = this->CreateInsertElement(temp, this->getFloat(-5.0f / 16.0f), this->getInt32(20));
        temp = this->CreateInsertElement(temp, this->getFloat( 2.0f / 16.0f), this->getInt32(21));
        temp = this->CreateInsertElement(temp, this->getFloat( 5.0f / 16.0f), this->getInt32(22));
        temp = this->CreateInsertElement(temp, this->getFloat( 3.0f / 16.0f), this->getInt32(23));
        temp = this->CreateInsertElement(temp, this->getFloat(-2.0f / 16.0f), this->getInt32(24));
        temp = this->CreateInsertElement(temp, this->getFloat( 0.0f), this->getInt32(25));
        temp = this->CreateInsertElement(temp, this->getFloat(-4.0f / 16.0f), this->getInt32(26));
        temp = this->CreateInsertElement(temp, this->getFloat(-6.0f / 16.0f), this->getInt32(27));
        temp = this->CreateInsertElement(temp, this->getFloat(-8.0f / 16.0f), this->getInt32(28));
        temp = this->CreateInsertElement(temp, this->getFloat( 7.0f / 16.0f), this->getInt32(29));
        temp = this->CreateInsertElement(temp, this->getFloat( 6.0f / 16.0f), this->getInt32(30));
        temp = this->CreateInsertElement(temp, this->getFloat(-7.0f / 16.0f), this->getInt32(31));
        float_x = this->CreateExtractElement(temp, int32_selIndex);
    }

    llvm::Value* packed_ret_value = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));
    packed_ret_value = this->CreateInsertElement(packed_ret_value, float_x, this->getInt32(0));
    packed_ret_value = this->CreateInsertElement(packed_ret_value, float_y, this->getInt32(1));
    packed_ret_value = this->CreateInsertElement(packed_ret_value, this->getFloat(0.0f), this->getInt32(2));
    packed_ret_value = this->CreateInsertElement(packed_ret_value, this->getFloat(0.0f), this->getInt32(3));

    return packed_ret_value;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLE(
    llvm::Value* coordinate_u,
    llvm::Value* coordinate_v,
    llvm::Value* coordinate_r,
    llvm::Value* coordinate_ai,
    llvm::Value* ptr_textureIdx,
    llvm::Value* ptr_sampler,
    llvm::Value* offsetU,
    llvm::Value* offsetV,
    llvm::Value* offsetW,
    llvm::Value* minlod,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    if (minlod == nullptr)
    {
        minlod = llvm::ConstantFP::get(coordinate_u->getType(), 0.0);
    }

    llvm::Value * packed_tex_params[] = {
        coordinate_u,
        coordinate_v,
        coordinate_r,
        coordinate_ai,
        minlod,
        ptr_textureIdx,
        ptr_sampler,
        offsetU,
        offsetV,
        offsetW
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), coordinate_u->getType(), ptr_textureIdx->getType(), ptr_sampler->getType() };
    if (feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }
    llvm::Function* func_llvm_GenISA_sampleptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleptr, llvm::ArrayRef<llvm::Type*>(types, 4));
    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_sampleptr_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLEC(
    llvm::Value* float_reference_0,
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* float_address_3,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetR,
    llvm::Value* minlod,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    if (minlod == nullptr)
    {
        minlod = llvm::ConstantFP::get(float_address_0->getType(), 0.0);
    }

    llvm::Value * packed_tex_params[] = {
        float_reference_0,
        float_address_0,
        float_address_1,
        float_address_2,
        float_address_3,
        minlod,
        int32_textureIdx,
        int32_sampler,
        int32_offsetU,
        int32_offsetV,
        int32_offsetR
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_reference_0->getType(), int32_textureIdx->getType(), int32_sampler->getType() };
    if (feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }
    llvm::Function* func_llvm_GenISA_sampleCptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleCptr, llvm::ArrayRef<llvm::Type*>(types, 4));
    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_sampleCptr_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLELC(
    llvm::Value* float_reference_0,
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* float_address_3,
    llvm::Value* float_lod,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetW,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        float_reference_0,
        float_lod,
        float_address_0,
        float_address_1,
        float_address_2,
        float_address_3,
        int32_textureIdx,
        int32_sampler,
        int32_offsetU,
        int32_offsetV,
        int32_offsetW
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_reference_0->getType(), int32_textureIdx->getType(), int32_sampler->getType() };
    llvm::Function* func_llvm_GenISA_sampleLCptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleLCptr, llvm::ArrayRef<llvm::Type*>(types, 4));
    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_sampleLCptr_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLEC_LZ(
    llvm::Value* float_reference_0,
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* float_address_3,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetW,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        float_reference_0,
        llvm::ConstantFP::get(float_address_0->getType(), 0.0),
        float_address_0,
        float_address_1,
        float_address_2,
        float_address_3,
        int32_textureIdx,
        int32_sampler,
        int32_offsetU,
        int32_offsetV,
        int32_offsetW
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_reference_0->getType(), int32_textureIdx->getType(), int32_sampler->getType() };
    if (feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }
    llvm::Function* func_llvm_GenISA_sampleLCptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleLCptr, llvm::ArrayRef<llvm::Type*>(types, 4));
    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_sampleLCptr_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_gather4C(
    llvm::Value* float_reference_0,
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* float_address_3,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_srcChannel,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        float_reference_0,
        float_address_0,
        float_address_1,
        float_address_2,
        float_address_3,
        int32_textureIdx,
        int32_sampler,
        int32_offsetU,
        int32_offsetV,
        m_int0,
        int32_srcChannel
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_reference_0->getType(), int32_textureIdx->getType(), int32_sampler->getType() };
    if (feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }
    llvm::Function* func_llvm_GenISA_gather4Cptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_gather4Cptr, llvm::ArrayRef<llvm::Type*>(types, 4));
    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_gather4Cptr_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_gather4POC(
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* int_src_offset_0,
    llvm::Value* int_src_offset_1,
    llvm::Value* float_src_reference_0,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_srcChannel,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        float_src_reference_0,
        float_address_0,
        float_address_1,
        int_src_offset_0,
        int_src_offset_1,
        float_address_2,
        int32_textureIdx,
        int32_sampler,
        int32_offsetU,
        int32_offsetV,
        m_int0,
        int32_srcChannel
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_src_reference_0->getType(), int32_textureIdx->getType(), int32_sampler->getType() };
    if (feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }
    llvm::Function* func_llvm_GenISA_gather4POCptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_gather4POCptr, llvm::ArrayRef<llvm::Type*>(types, 4));
    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_gather4POCptr_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_gather4PO(
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* int_src_offset_0,
    llvm::Value* int_src_offset_1,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_srcChannel,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        float_address_0,
        float_address_1,
        int_src_offset_0,
        int_src_offset_1,
        float_address_2,
        int32_textureIdx,
        int32_sampler,
        int32_offsetU,
        int32_offsetV,
        m_int0,
        int32_srcChannel
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_address_0->getType(), int32_textureIdx->getType(), int32_sampler->getType() };
    if (feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }
    llvm::Function* func_llvm_GenISA_gather4POptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_gather4POptr, llvm::ArrayRef<llvm::Type*>(types, 4));
    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_gather4POptr_v4f32_f32, packed_tex_params);

    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_gather4PositionOffsets(
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::ArrayRef<llvm::Value *> int_src_offsets,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_srcChannel)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Value *gatherReturn = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(llvm::Type::getFloatTy(module->getContext()), 4));
    for (int i = 0, j = 0; i < 7; i = i + 2, j++)
    {
        llvm::Value * packed_tex_params[] = {
            float_address_0,
            float_address_1,
            int_src_offsets[i],
            int_src_offsets[i + 1],
            float_address_2,
            int32_textureIdx,
            int32_sampler,
            int32_offsetU,
            int32_offsetV,
            m_int0,
            int32_srcChannel
        };

        llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(llvm::Type::getFloatTy(module->getContext()), 4), float_address_0->getType(), int32_textureIdx->getType(), int32_sampler->getType() };

        llvm::Function* func_llvm_GenISA_gather4POptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
            (module, llvm::GenISAIntrinsic::GenISA_gather4POptr, llvm::ArrayRef<llvm::Type*>(types, 4));

        llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_gather4POptr_v4f32_f32, packed_tex_params);


        gatherReturn = this->CreateInsertElement(
            gatherReturn,
            this->CreateExtractElement(packed_tex_call, this->getInt32(3)),
            this->getInt32(j),
            "call_inst");
    }

    return gatherReturn;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_gather4PositionOffsetsC(
    llvm::Value* float_reference_0,
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::ArrayRef<llvm::Value *> int_src_offsets,
    llvm::Value* int32_textureIdx_356,
    llvm::Value* int32_sampler_357,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_srcChannel)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Value *gatherReturn = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(llvm::Type::getFloatTy(module->getContext()), 4));
    for (int i = 0, j = 0; i < 7; i = i + 2, j++)
    {
        llvm::Value * packed_tex_params[] = {
            float_reference_0,
            float_address_0,
            float_address_1,
            int_src_offsets[i],
            int_src_offsets[i + 1],
            float_address_2,
            int32_textureIdx_356,
            int32_sampler_357,
            int32_offsetU,
            int32_offsetV,
            m_int0,
            int32_srcChannel
        };

        //CallInst* packed_tex_1527_call = cast<CallInst>(this->CreateCall(this->llvm_GenISA_gather4POC_v4f32_f32(), packed_tex_params));

        llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(llvm::Type::getFloatTy(module->getContext()), 4), float_reference_0->getType(), int32_textureIdx_356->getType(), int32_sampler_357->getType() };

        llvm::Function* func_llvm_GenISA_gather4POCptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
            (module, llvm::GenISAIntrinsic::GenISA_gather4POCptr, llvm::ArrayRef<llvm::Type*>(types, 4));

        llvm::CallInst* packed_tex_1527_call = this->CreateCall(func_llvm_GenISA_gather4POCptr_v4f32_f32, packed_tex_params);

        gatherReturn = this->CreateInsertElement(
            gatherReturn,
            this->CreateExtractElement(packed_tex_1527_call, this->getInt32(3)),
            this->getInt32(j),
            "call_inst");
    }

    return gatherReturn;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLEB(
    llvm::Value* float_bias_0,
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* float_address_3,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetW,
    llvm::Value* minlod,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    if (minlod == nullptr)
    {
        minlod = llvm::ConstantFP::get(float_address_0->getType(), 0.0);
    }

    //   %tex = call <4 x float> @llvm.GenISA.sample.v4f32.f32(float %src_s.chan0, float %src_s.chan1, float %src_s.chan2, float 0.000000e+00, i32 %textureIdx, i32 %sampler, i32 %offsetU, i32 %offsetV, i32 %offsetW)
    llvm::Value * packed_tex_params[] = {
        float_bias_0,
        float_address_0,
        float_address_1,
        float_address_2,
        float_address_3,
        minlod,
        int32_textureIdx,
        int32_sampler,
        int32_offsetU,
        int32_offsetV,
        int32_offsetW
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_bias_0->getType(), int32_textureIdx->getType(), int32_sampler->getType() };
    if (feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }
    llvm::Function* func_llvm_GenISA_sampleB_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleBptr, llvm::ArrayRef<llvm::Type*>(types, 4));

    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_sampleB_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLEL(
    llvm::Value* float_lod_0,
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* float_address_3,
    llvm::Value* ptr_textureIdx,
    llvm::Value* ptr_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetW,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        float_lod_0,
        float_address_0,
        float_address_1,
        float_address_2,
        float_address_3,
        ptr_textureIdx,
        ptr_sampler,
        int32_offsetU,
        int32_offsetV,
        int32_offsetW
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_lod_0->getType(), ptr_textureIdx->getType(), ptr_sampler->getType() };
    if (feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }
    llvm::Function* func_llvm_GenISA_sampleL_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleLptr, llvm::ArrayRef<llvm::Type*>(types, 4));

    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_sampleL_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLED(
    SampleD_DC_FromCubeParams& sampleParams,
    llvm::Value* minlod,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    return Create_SAMPLED(
        sampleParams.get_float_src_u(),
        sampleParams.get_float_src_v(),
        sampleParams.get_float_src_r(),
        sampleParams.get_dxu(),
        sampleParams.get_dxv(),
        sampleParams.get_dxr(),
        sampleParams.get_dyu(),
        sampleParams.get_dyv(),
        sampleParams.get_dyr(),
        sampleParams.get_float_src_ai(),
        sampleParams.get_int32_textureIdx(),
        sampleParams.get_int32_sampler(),
        sampleParams.get_int32_offsetU(),
        sampleParams.get_int32_offsetV(),
        sampleParams.get_int32_offsetW(),
        minlod,
        feedback_enabled,
        returnType
    );
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLED(
    llvm::Value* float_src1_s_chan0,
    llvm::Value* float_src1_s_chan1,
    llvm::Value* float_src1_s_chan2,
    llvm::Value* float_src2_s_chan0,
    llvm::Value* float_src2_s_chan1,
    llvm::Value* float_src2_s_chan2,
    llvm::Value* float_src3_s_chan0,
    llvm::Value* float_src3_s_chan1,
    llvm::Value* float_src3_s_chan2,
    llvm::Value* float_src1_s_chan3,
    llvm::Value* ptr_textureIdx,
    llvm::Value* ptr_sampler,
    llvm::Value* int32_offsetU_358,
    llvm::Value* int32_offsetV_359,
    llvm::Value* int32_offsetW_359,
    llvm::Value* minlod,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    if (minlod == nullptr)
    {
        minlod = llvm::ConstantFP::get(float_src1_s_chan0->getType(), 0.0);
    }

    //   %tex = call <4 x float> @llvm.GenISA.sample.v4f32.f32D(float %src_s.chan0, float %src2_s.chan0, float %src3_s.chan0, float 0.000000e+00, float 0.000000e+00, float 0.000000e+00, float 0.000000e+00, float 0.000000e+00, float 0.000000e+00, float 0.000000e+00, i32 %textureIdx, i32 %sampler, i32 %offsetU, i32 0, i32 0)
    llvm::Value * packed_tex_params[] = {
        float_src1_s_chan0,
        float_src2_s_chan0,
        float_src3_s_chan0,
        float_src1_s_chan1,
        float_src2_s_chan1,
        float_src3_s_chan1,
        float_src1_s_chan2,
        float_src2_s_chan2,
        float_src3_s_chan2,
        float_src1_s_chan3,
        minlod,
        ptr_textureIdx,
        ptr_sampler,
        int32_offsetU_358,
        int32_offsetV_359,
        int32_offsetW_359
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_src1_s_chan0->getType(), ptr_textureIdx->getType(), ptr_sampler->getType() };
    if(feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }

    llvm::Function* func_llvm_GenISA_sampleDptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleDptr, llvm::ArrayRef<llvm::Type*>(types, 4));

    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_sampleDptr_v4f32_f32, packed_tex_params);

    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLEDC(
    llvm::Value* float_ref,
    llvm::Value* float_src_u,
    llvm::Value* dxu,
    llvm::Value* dyu,
    llvm::Value* float_src_v,
    llvm::Value* dxv,
    llvm::Value* dyv,
    llvm::Value* float_src_r,
    llvm::Value* dxr,
    llvm::Value* dyr,
    llvm::Value* float_src_ai,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetW,
    llvm::Type* returnType)
{
    //   %tex = call <4 x float> @llvm.GenISA.sample.v4f32.f32D(float %float_ref, float %float_src_u, float %dxu, float %dxu, float %dyu, float float_src_v,
    //                           float %dxv, float %dyv, float %float_src_r, float %dxr, float %dyr, float 0.000000e+00,
    //                           i32 %textureIdx, i32 %sampler, i32 %offsetU, i32 %offsetV, i32 %offsetW)
    llvm::Value * packed_tex_params[] = {
        float_ref,
        float_src_u,
        dxu,
        dyu,
        float_src_v,
        dxv,
        dyv,
        float_src_r,
        dxr,
        dyr,
        float_src_ai,
        int32_textureIdx,
        int32_sampler,
        int32_offsetU,
        int32_offsetV,
        int32_offsetW
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_ref->getType(), int32_textureIdx->getType(), int32_sampler->getType() };

    llvm::Function* func_llvm_GenISA_sampleDCptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleDCptr, llvm::ArrayRef<llvm::Type*>(types, 4));

    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_sampleDCptr_v4f32_f32, packed_tex_params);

    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_lod(
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* float_address_3,
    llvm::Value* int32_textureIdx_356,
    llvm::Value* int32_sampler_357,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        float_address_0,
        float_address_1,
        float_address_2,
        float_address_3,
        int32_textureIdx_356,
        int32_sampler_357,
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_address_0->getType(), int32_textureIdx_356->getType(), int32_sampler_357->getType() };

    llvm::Function* func_llvm_GenISA_lodptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_lodptr, llvm::ArrayRef<llvm::Type*>(types, 4));

    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_lodptr_v4f32_f32, packed_tex_params);

    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_gather4(
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* float_address_3,
    llvm::Value* int32_textureIdx_356,
    llvm::Value* int32_sampler_357,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetW,
    llvm::Value* int32_srcChannel,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        float_address_0,
        float_address_1,
        float_address_2,
        float_address_3,
        int32_textureIdx_356,
        int32_sampler_357,
        int32_offsetU,
        int32_offsetV,
        int32_offsetW,
        int32_srcChannel
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_address_0->getType(), int32_textureIdx_356->getType(), int32_sampler_357->getType() };
    if (feedback_enabled)
    {
        types[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }
    llvm::Function* func_llvm_GenISA_gather4ptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_gather4ptr, llvm::ArrayRef<llvm::Type*>(types, 4));

    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_gather4ptr_v4f32_f32, packed_tex_params);

    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_load(
    llvm::Value* int32_sampleIdxU,
    llvm::Value* int32_sampleIdxV,
    llvm::Value* int32_sampleIdxR,
    llvm::Value* int32_lod,
    llvm::Value* ptr_textureIdx,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetR,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        int32_sampleIdxU,
        int32_sampleIdxV,
        int32_lod,
        int32_sampleIdxR,
        ptr_textureIdx,
        int32_offsetU,
        int32_offsetV,
        int32_offsetR
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, feedback_enabled ? 5 : 4), ptr_textureIdx->getType() };

    llvm::Function* func_llvm_GenISA_ldptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_ldptr, llvm::ArrayRef<llvm::Type*>(types, 2));

    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_ldptr_v4f32_f32, packed_tex_params);

    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_ldms(
    llvm::Value* int32_srcIdxU,
    llvm::Value* int32_srcIdxV,
    llvm::Value* int32_srcIdxR,
    llvm::Value* int32_sampleIdx,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetR,
    bool feedback_enabled,
    llvm::Type* returnType)
{
    llvm::Value * packed_mcs_params[] = {
        int32_srcIdxU,
        int32_srcIdxV,
        int32_srcIdxR,
        m_int0,
        int32_textureIdx,
        int32_offsetU,
        int32_offsetV,
        int32_offsetR
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(this->getInt32Ty(), 2), this->getInt32Ty(), int32_textureIdx->getType() };
    llvm::Function* func_llvm_GenISA_ldmcsptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_ldmcsptr, llvm::ArrayRef<llvm::Type*>(types, 3));
    llvm::CallInst* packed_mcs_call = this->CreateCall(func_llvm_GenISA_ldmcsptr_v4f32_f32, packed_mcs_params);


    llvm::Value* mcs_ch0 = this->CreateExtractElement(packed_mcs_call, m_int0);
    llvm::Value* mcs_ch1 = this->CreateExtractElement(packed_mcs_call, m_int1);

    llvm::Value * packed_tex_params[] = {
        int32_sampleIdx,
        mcs_ch0,
        mcs_ch1,
        int32_srcIdxU,
        int32_srcIdxV,
        int32_srcIdxR,
        m_int0,
        int32_textureIdx,
        int32_offsetU,
        int32_offsetV,
        int32_offsetR
    };

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types_ldms[] = { IGCLLVM::FixedVectorType::get(dstType, 4), int32_textureIdx->getType()};
    if (feedback_enabled)
    {
        types_ldms[0] = IGCLLVM::FixedVectorType::get(dstType, 5);
    }

    llvm::Function* func_llvm_GenISA_ldmsptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_ldmsptr, llvm::ArrayRef<llvm::Type*>(types_ldms, 2));

    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_ldmsptr_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline SampleParamsFromCube LLVM3DBuilder<preserveNames, T, Inserter>::Prepare_SAMPLE_Cube_ParamsFromUnormalizedCoords(
    llvm::Value* int32_lod,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_u,
    llvm::Value* int32_v,
    llvm::Value* int32_faceid,
    llvm::Value* int32_cube_array_index,
    llvm::Value *float_array_6_3,
    llvm::Value* int32_sampler
    )
{
    //Samplers point of reference is always center of the face, which is (0,0)
    //That means the four vertices of the normalized cube are depiced as below
    //(-1,-1)        (1,-1)
    //  -------|---------
    //  |      |        |
    //  |      |        |
    //  |---------------|
    //  |      |(0,0)   |
    //  |      |        |
    //  -------|---------
    //(-1,1)          (1,1)
    //Thus each un-normalized coordiate (x,y) needs to be normalized between <-1,1>
    //Below is the Math to normalize between <-1,1>
    //u = (u * 2 + 1)/width - 1
    //v = (v * 2 + 1)/height - 1

    //Using resinfo extract width and height of the buffer
    //Using resinfo extract width and height of the buffer
    llvm::Value *resinfo = this->Create_resinfo(int32_lod, int32_textureIdx);
    llvm::Value *width = this->CreateExtractElement(resinfo, m_int0);
    llvm::Value *height = this->CreateExtractElement(resinfo, m_int1);

    //convert u, v, width and height to float
    llvm::Value *float_u = this->CreateUIToFP(int32_u, this->getFloatTy());
    llvm::Value *float_v = this->CreateUIToFP(int32_v, this->getFloatTy());
    width = this->CreateUIToFP(width, this->getFloatTy());
    height = this->CreateUIToFP(height, this->getFloatTy());
    //define some constants
    llvm::Value* float_minus1 = this->getFloat(-1.0);
    llvm::Value* float_2 = this->getFloat(2.0);

    //u and v represent the coordinates of a texel for a given face
    //Now normalize u in the range [-1,1] using following equation
    //u = (2*u + 1)/width -1
    float_u = this->CreateFAdd(this->CreateFMul(float_u, float_2), m_float1);
    float_u = this->CreateFSub(this->CreateFDiv(float_u, width), m_float1);
    //Now normalize v in the range [-1,1] using following equation
    //v = (v * 2 + 1)/height - 1
    float_v = this->CreateFAdd(this->CreateFMul(float_v, float_2), m_float1);
    float_v = this->CreateFSub(this->CreateFDiv(float_v, height), m_float1);

    llvm::Value *minus_floatu = this->CreateFMul(float_u, float_minus1); //-u
    llvm::Value *minus_floatv = this->CreateFMul(float_v, float_minus1); //-v
    llvm::Value *float_arrayIndex = this->CreateUIToFP(int32_cube_array_index, this->getFloatTy());
    //This array represents how the u and v value needs to be picked, for a face
    unsigned num_cube_faces = 6;
    unsigned num_dimensions = 3;

    //The mapping of face-id to texture surface is as follows
    //+x->face 0, -x->face 1, +y -> face 2, -y -> face 3, +z -> face 4, -z -> face 5
    //Now for each face we need to transform the normalized coordinates as follows
    //face 0(+X) = (-v, -u), face 1(-X) = (-v, u), face 2(+Y) = (u, v)
    //face 3(-Y) = (u, -v) , face 4(+Z) = (u, -v), face 5(+Z) = (-u, -v)
    //Refer to https://en.wikipedia.org/wiki/Cube_mapping for details
    llvm::Value *cubeCoordMap[6][3] = {
        { m_float1     ,    minus_floatv,   minus_floatu    }, //+x = face0
        { float_minus1 ,    minus_floatv,   float_u         }, //-x = face1
        { float_u ,         m_float1    ,   float_v         }, //+y = face2
        { float_u ,         float_minus1,   minus_floatv    }, //-y = face3
        { float_u ,         minus_floatv,   m_float1        }, //+z = face4
        { minus_floatu ,    minus_floatv,   float_minus1    }  //-z = face5
    };
    //Now populate the 6x3 array with values of cubeCoordMap
    llvm::Value *indexList[2];
    llvm::Value *row, *elt;
    indexList[0] = m_int0;
    for (unsigned faceid = 0; faceid < num_cube_faces; faceid++) {
        indexList[1] = this->getInt32(faceid);
        row = this->CreateGEP(float_array_6_3, llvm::ArrayRef<llvm::Value*>(indexList, 2));
        for (unsigned j = 0; j < num_dimensions; j++) {
            indexList[1] = this->getInt32(j);
            elt = this->CreateGEP(row, llvm::ArrayRef<llvm::Value*>(indexList, 2));
            this->CreateStore(cubeCoordMap[faceid][j], elt);
        }
    }

    //Now pick the one the row indexed by int32_faceid
    llvm::Value *finalCoords[3];
    indexList[1] = int32_faceid;
    row = this->CreateGEP(float_array_6_3, llvm::ArrayRef<llvm::Value*>(indexList, 2));
    for (unsigned i = 0; i < 3; i++) {
        indexList[1] = this->getInt32(i);
        elt = this->CreateGEP(row, llvm::ArrayRef<llvm::Value*>(indexList, 2));
        finalCoords[i] = this->CreateLoad(elt);
    }

    SampleParamsFromCube CubeRetParams;
    CubeRetParams.float_xcube = finalCoords[0];
    CubeRetParams.float_ycube = finalCoords[1];
    CubeRetParams.float_address_3 = finalCoords[2];
    CubeRetParams.float_aicube = float_arrayIndex;
    CubeRetParams.int32_textureIdx = int32_textureIdx;
    CubeRetParams.int32_sampler = int32_sampler;
    CubeRetParams.offsetU = int32_u;
    CubeRetParams.offsetV = int32_v;
    CubeRetParams.offsetR = m_int0; //Not used
    return CubeRetParams;
}

template<bool preserveNames, typename T, typename Inserter>
inline SampleParamsFromCube LLVM3DBuilder<preserveNames, T, Inserter>::Prepare_SAMPLE_Cube_Params(
    llvm::Value* float_address_0,
    llvm::Value* float_address_1,
    llvm::Value* float_address_2,
    llvm::Value* float_address_3,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler)
{
    IGC_ASSERT(nullptr != float_address_0);
    llvm::Type* const coordType = float_address_0->getType();
    IGC_ASSERT(nullptr != coordType);
    IGC_ASSERT(coordType->isFloatTy() || coordType->isHalfTy());

    llvm::Value* zero = llvm::ConstantFP::get(coordType, 0.0);

    //   %xneg_s = fsub float 0.000000e+00, %src_s.chan0
    llvm::Value* float_xneg_s_1389 = this->CreateFSub(zero, float_address_0, VALUE_NAME("xneg_s"));

    //   %cmpx_s = fcmp oge float %src_s.chan0, 0.000000e+00
    llvm::Value* int1_cmpx_s_1390 = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_address_0, zero, VALUE_NAME("cmpx_s"));

    //   %xabs_s = select i1 %cmpx_s, float %src_s.chan0, float %xneg_s
    llvm::Value* float_xabs_s_1391 = this->CreateSelect(int1_cmpx_s_1390, float_address_0, float_xneg_s_1389, VALUE_NAME("xabs_s"));

    //   %yneg_s = fsub float 0.000000e+00, %src_s.chan1
    llvm::Value* float_yneg_s_1392 = this->CreateFSub(zero, float_address_1, VALUE_NAME("yneg_s"));

    //   %cmpy_s = fcmp oge float %src_s.chan1, 0.000000e+00
    llvm::Value* int1_cmpy_s_1393 = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_address_1, zero, VALUE_NAME("cmpy_s"));

    //   %yabs_s = select i1 %cmpy_s, float %src_s.chan1, float %yneg_s
    llvm::Value* float_yabs_s_1394 = this->CreateSelect(int1_cmpy_s_1393, float_address_1, float_yneg_s_1392, VALUE_NAME("yabs_s"));

    //   %aineg_s = fsub float 0.000000e+00, %src_s.chan2
    llvm::Value* float_aineg_s_1395 = this->CreateFSub(zero, float_address_2, VALUE_NAME("aineg_s"));

    //   %cmpai_s = fcmp oge float %src_s.chan2, 0.000000e+00
    llvm::Value* int1_cmpai_s_1396 = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_address_2, zero, VALUE_NAME("cmpai_s"));

    //   %aiabs_s = select i1 %cmpai_s, float %src_s.chan2, float %aineg_s
    llvm::Value* float_aiabs_s_1397 = this->CreateSelect(int1_cmpai_s_1396, float_address_2, float_aineg_s_1395, VALUE_NAME("aiabs_s"));

    //   %oge0_s = fcmp oge float %xabs_s, %yabs_s
    llvm::Value* int1_oge0_s_1398 = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_xabs_s_1391, float_yabs_s_1394, VALUE_NAME("oge0_s"));

    //   %max1_s = select i1 %oge0_s, float %xabs_s, float %yabs_s
    llvm::Value* float_max1_s_1399 = this->CreateSelect(int1_oge0_s_1398, float_xabs_s_1391, float_yabs_s_1394, VALUE_NAME("max1_s"));

    //   %oge1_s = fcmp oge float %max1_s, %aiabs_s
    llvm::Value* int1_oge1_s_1400 = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_max1_s_1399, float_aiabs_s_1397, VALUE_NAME("oge1_s"));

    //   %max2_s = select i1 %oge1_s, float %max1_s, float %aiabs_s
    llvm::Value* float_max2_s_1401 = this->CreateSelect(int1_oge1_s_1400, float_max1_s_1399, float_aiabs_s_1397, VALUE_NAME("max2_s"));

    //   %xcube_s = fdiv float %src_s.chan0, %max2_s
    llvm::Value* float_xcube_s_1402 = this->CreateFDiv(float_address_0, float_max2_s_1401, VALUE_NAME("xcube_s"));

    //   %ycube_s = fdiv float %src_s.chan1, %max2_s
    llvm::Value* float_ycube_s_1403 = this->CreateFDiv(float_address_1, float_max2_s_1401, VALUE_NAME("ycube_s"));

    //   %aicube_s = fdiv float %src_s.chan2, %max2_s
    llvm::Value* float_aicube_s_1404 = this->CreateFDiv(float_address_2, float_max2_s_1401, VALUE_NAME("aicube_s"));

    SampleParamsFromCube CubeRetParams;

    CubeRetParams.float_xcube = float_xcube_s_1402;
    CubeRetParams.float_ycube = float_ycube_s_1403;
    CubeRetParams.float_aicube = float_aicube_s_1404;
    CubeRetParams.float_address_3 = float_address_3;
    CubeRetParams.int32_textureIdx = int32_textureIdx;
    CubeRetParams.int32_sampler = int32_sampler;
    CubeRetParams.offsetU = m_int0;
    CubeRetParams.offsetV = m_int0;
    CubeRetParams.offsetR = m_int0;

    return CubeRetParams;

}

template<bool preserveNames, typename T, typename Inserter>
inline SampleD_DC_FromCubeParams LLVM3DBuilder<preserveNames, T, Inserter>::Prepare_SAMPLE_D_DC_Cube_Params(
    SampleD_DC_FromCubeParams& params)
{
    return Prepare_SAMPLE_D_DC_Cube_Params(
        params.float_src_u,
        params.float_src_v,
        params.float_src_r,
        params.float_src_ai,
        params.dxu,
        params.dxv,
        params.dxr,
        params.dyu,
        params.dyv,
        params.dyr,
        params.int32_textureIdx,
        params.int32_sampler,
        params.int32_offsetU,
        params.int32_offsetV,
        params.int32_offsetW
    );
}

template<bool preserveNames, typename T, typename Inserter>
inline SampleD_DC_FromCubeParams LLVM3DBuilder<preserveNames, T, Inserter>::Prepare_SAMPLE_D_DC_Cube_Params(
    llvm::Value* float_src_r,
    llvm::Value* float_src_s,
    llvm::Value* float_src_t,
    llvm::Value* float_src_ai,
    llvm::Value* float_drdx,
    llvm::Value* float_dsdx,
    llvm::Value* float_dtdx,
    llvm::Value* float_drdy,
    llvm::Value* float_dsdy,
    llvm::Value* float_dtdy,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetW)
{
    //  For cube texture sampling, sampling instruction must receive proper cube face ID
    //  together with coordinates projected onto that face. Gradients also have to be transformed
    //  into the same (cube face) address space.
    //  To achieve this we first have to find a major coordinate, then normalize coordinates
    //  and select remaining ones as u/v coordinates for the face. Because of the cube texture layout
    //  in memory (as 6 2D faces) this sometimes involves changing the coordinate direction (sign).
    //  Gradients are transformed using quotient rule for derivatives:
    //        (fA/fB)' = (fA'*fB - fB'*fA)/fB^2
    //  where fA and fB are base functions, i.e. base cube coordinates in this case.
    //  Note that we first normalize coordinates and all derivatives, so calculations
    //  here use the form:
    //        (fA/fB)' = [fA'/fB] - [fB'/fB]*[fA/fB]

    IGC_ASSERT(nullptr != this->GetInsertBlock());
    llvm::Function* const parentFunc = this->GetInsertBlock()->getParent();
    IGC_ASSERT(nullptr != float_src_r);
    llvm::Type* const coordType = float_src_r->getType();
    IGC_ASSERT(nullptr != coordType);
    IGC_ASSERT(coordType->isFloatTy() || coordType->isHalfTy());

    llvm::Value* zero = llvm::ConstantFP::get(coordType, 0.0);

    // Create coordinate absolute values to look for major.
    llvm::Value* float_abs_r = this->CreateFAbs(float_src_r);
    llvm::Value* float_abs_s = this->CreateFAbs(float_src_s);
    llvm::Value* float_abs_t = this->CreateFAbs(float_src_t);

    {
        llvm::BasicBlock* currentBlock = this->GetInsertBlock();
        bool shouldSplitBB = this->GetInsertPoint() != currentBlock->end();

        // Create basic blocks.
        llvm::BasicBlock* block_final = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cubefinal_block"));

        llvm::BasicBlock* block_major_t = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cubemajor_t_block"));
        llvm::BasicBlock* block_not_t = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cubenott_block"));
        llvm::BasicBlock* block_zp = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cube_face_zp_block"));
        llvm::BasicBlock* block_zm = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cube_face_zm_block"));

        llvm::BasicBlock* block_major_s = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cubemajor_s_block"));
        llvm::BasicBlock* block_yp = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cube_face_yp_block"));
        llvm::BasicBlock* block_ym = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cube_face_ym_block"));

        llvm::BasicBlock* block_major_r = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cubemajor_r_block"));
        llvm::BasicBlock* block_xp = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cube_face_xp_block"));
        llvm::BasicBlock* block_xm = llvm::BasicBlock::Create(this->getContext(), VALUE_NAME("cube_face_xm_block"));

        // Find the major coordinate (and thus cube face), precedence is Z,Y,X.
        llvm::Value* int1_cmp_tges = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_abs_t, float_abs_s, VALUE_NAME("cmp_tges"));

        llvm::Value* int1_cmp_tger = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_abs_t, float_abs_r, VALUE_NAME("cmp_tger"));

        llvm::Value* int1_tgesr = this->CreateAnd(int1_cmp_tger, int1_cmp_tges);

        // Major coordinate is T, faces could be +Z or -Z
        llvm::BasicBlock* splitBlock = nullptr;
        if (shouldSplitBB)
        {
            IGC_ASSERT(nullptr != currentBlock);
            IGC_ASSERT(currentBlock->getTerminator());
            splitBlock = currentBlock->splitBasicBlock(this->GetInsertPoint()->getNextNode());
            currentBlock->getTerminator()->eraseFromParent();
            this->SetInsertPoint(currentBlock);
        }
        this->CreateCondBr(int1_tgesr, block_major_t, block_not_t);
        this->SetInsertPoint(block_major_t);
        parentFunc->getBasicBlockList().push_back(block_major_t);

        // Normalize coordinates and gradients.
        llvm::Value* float_tnorm_r = this->CreateFDiv(float_src_r, float_abs_t, VALUE_NAME("tnorm_r"));
        llvm::Value* float_tnorm_s = this->CreateFDiv(float_src_s, float_abs_t, VALUE_NAME("tnorm_s"));
        llvm::Value* float_tnorm_drdx = this->CreateFDiv(float_drdx, float_abs_t, VALUE_NAME("tnorm_drdx"));
        llvm::Value* float_tnorm_drdy = this->CreateFDiv(float_drdy, float_abs_t, VALUE_NAME("tnorm_drdy"));
        llvm::Value* float_tnorm_dsdx = this->CreateFDiv(float_dsdx, float_abs_t, VALUE_NAME("tnorm_dsdx"));
        llvm::Value* float_tnorm_dsdy = this->CreateFDiv(float_dsdy, float_abs_t, VALUE_NAME("tnorm_dsdy"));
        llvm::Value* float_tnorm_dtdx = this->CreateFDiv(float_dtdx, float_abs_t, VALUE_NAME("tnorm_dtdx"));
        llvm::Value* float_tnorm_dtdy = this->CreateFDiv(float_dtdy, float_abs_t, VALUE_NAME("tnorm_dtdy"));

        // Select positive or negative face.
        llvm::Value* int1_cmpx_t = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_src_t, zero, VALUE_NAME("cmpx_t"));
        this->CreateCondBr(int1_cmpx_t, block_zp, block_zm);
        this->SetInsertPoint(block_zp);
        parentFunc->getBasicBlockList().push_back(block_zp);

        // Face +Z,
        // major = neg T
        // u     = R
        // v     = neg S

        llvm::Value* float_face_zp_id = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(coordType, 4.0));

        // Select u from s/r/t
        llvm::Value* float_face_zp_u = float_tnorm_r;

        // Select v from s/r/t
        llvm::Value* float_face_zp_v = this->CreateFNeg(float_tnorm_s, VALUE_NAME("face_zp_v"));

        // du/dx = dm * u + d{s/r/t}/dx
        llvm::Value* float_neg_dmx4 = this->CreateFNeg(float_tnorm_dtdx, VALUE_NAME("neg_dmx"));
        llvm::Value* float_dmxu4 = this->CreateFMul(float_neg_dmx4, float_tnorm_r, VALUE_NAME("dmxu"));
        llvm::Value* float_face_zp_dudx = this->CreateFAdd(float_dmxu4, float_tnorm_drdx, VALUE_NAME("face_zp_dudx"));

        // du/dy = dm * u + d{s/r/t}/dy
        llvm::Value* float_neg_dmy4 = this->CreateFNeg(float_tnorm_dtdy, VALUE_NAME("neg_dmy"));
        llvm::Value* float_dmyu4 = this->CreateFMul(float_neg_dmy4, float_tnorm_r, VALUE_NAME("dmyu"));
        llvm::Value* float_face_zp_dudy = this->CreateFAdd(float_dmyu4, float_tnorm_drdy, VALUE_NAME("face_zp_dvdx"));

        // dv/dx = dm * v + d{s/r/t}/dx
        llvm::Value* float_dmxv4 = this->CreateFMul(float_tnorm_dtdx, float_tnorm_s, VALUE_NAME("dmxv"));
        llvm::Value* float_face_zp_dvdx = this->CreateFSub(float_dmxv4, float_tnorm_dsdx, VALUE_NAME("face_zp_dvdx"));

        // dv/dy = dm * v + d{s/r/t}/dy
        llvm::Value* float_dmyv4 = this->CreateFMul(float_tnorm_dtdy, float_tnorm_s, VALUE_NAME("dmyv"));
        llvm::Value* float_face_zp_dvdy = this->CreateFSub(float_dmyv4, float_tnorm_dsdy, VALUE_NAME("face_zp_dvdy"));

        this->CreateBr(block_final);
        this->SetInsertPoint(block_zm);
        parentFunc->getBasicBlockList().push_back(block_zm);

        // Face -Z,
        // major = T
        // u     = neg R
        // v     = neg S

        llvm::Value* float_face_zm_id = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(coordType, 5.0));

        // Select u from s/r/t
        llvm::Value* float_face_zm_u = this->CreateFNeg(float_tnorm_r, VALUE_NAME("face_zm_u"));

        // Select v from s/r/t
        llvm::Value* float_face_zm_v = this->CreateFNeg(float_tnorm_s, VALUE_NAME("face_zm_v"));

        // du/dx = dm * u + d{s/r/t}/dx
        llvm::Value* float_dmxu5 = this->CreateFMul(float_tnorm_dtdx, float_face_zm_u, VALUE_NAME("dmxu"));
        llvm::Value* float_face_zm_dudx = this->CreateFSub(float_dmxu5, float_tnorm_drdx, VALUE_NAME("face_zm_dudx"));

        // du/dy = dm * u + d{s/r/t}/dy
        llvm::Value* float_dmyu5 = this->CreateFMul(float_tnorm_dtdy, float_face_zm_u, VALUE_NAME("dmyu"));
        llvm::Value* float_face_zm_dudy = this->CreateFSub(float_dmyu5, float_tnorm_drdy, VALUE_NAME("face_zm_dvdx"));

        // dv/dx = dm * v + d{s/r/t}/dx
        llvm::Value* float_dmxv5 = this->CreateFMul(float_tnorm_dtdx, float_face_zm_v, VALUE_NAME("dmxv"));
        llvm::Value* float_face_zm_dvdx = this->CreateFSub(float_dmxv5, float_tnorm_dsdx, VALUE_NAME("face_zm_dvdx"));

        // dv/dy = dm * v + d{s/r/t}/dy
        llvm::Value* float_dmyv5 = this->CreateFMul(float_tnorm_dtdy, float_face_zm_v, VALUE_NAME("dmyv"));
        llvm::Value* float_face_zm_dvdy = this->CreateFSub(float_dmyv5, float_tnorm_dsdy, VALUE_NAME("face_zm_dvdy"));

        this->CreateBr(block_final);
        this->SetInsertPoint(block_not_t);
        parentFunc->getBasicBlockList().push_back(block_not_t);

        // Choose major S or R.
        llvm::Value* int1_cmp_sger = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_abs_s, float_abs_r, VALUE_NAME("cmp_sger"));

        // Major coordinate is S, faces could be +Y or -Y
        this->CreateCondBr(int1_cmp_sger, block_major_s, block_major_r);
        this->SetInsertPoint(block_major_s);
        parentFunc->getBasicBlockList().push_back(block_major_s);

        // Normalize coordinates and gradients.
        llvm::Value* float_snorm_r = this->CreateFDiv(float_src_r, float_abs_s, VALUE_NAME("snorm_r"));
        llvm::Value* float_snorm_t = this->CreateFDiv(float_src_t, float_abs_s, VALUE_NAME("snorm_t"));
        llvm::Value* float_snorm_drdx = this->CreateFDiv(float_drdx, float_abs_s, VALUE_NAME("snorm_drdx"));
        llvm::Value* float_snorm_drdy = this->CreateFDiv(float_drdy, float_abs_s, VALUE_NAME("snorm_drdy"));
        llvm::Value* float_snorm_dsdx = this->CreateFDiv(float_dsdx, float_abs_s, VALUE_NAME("snorm_dsdx"));
        llvm::Value* float_snorm_dsdy = this->CreateFDiv(float_dsdy, float_abs_s, VALUE_NAME("snorm_dsdy"));
        llvm::Value* float_snorm_dtdx = this->CreateFDiv(float_dtdx, float_abs_s, VALUE_NAME("snorm_dtdx"));
        llvm::Value* float_snorm_dtdy = this->CreateFDiv(float_dtdy, float_abs_s, VALUE_NAME("snorm_dtdy"));

        // Select positive or negative face.
        llvm::Value* int1_cmpx_s = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_src_s, zero, VALUE_NAME("cmpx_s"));
        this->CreateCondBr(int1_cmpx_s, block_yp, block_ym);
        this->SetInsertPoint(block_yp);
        parentFunc->getBasicBlockList().push_back(block_yp);

        // Face +Y,
        // major = neg S
        // u     = R
        // v     = T

        llvm::Value* float_face_yp_id = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(coordType, 2.0));

        // Select u from s/r/t
        llvm::Value* float_face_yp_u = float_snorm_r;

        // Select v from s/r/t
        llvm::Value* float_face_yp_v = float_snorm_t;

        // du/dx = dm * u + d{s/r/t}/dx
        llvm::Value* float_neg_dmx2 = this->CreateFNeg(float_snorm_dsdx, VALUE_NAME("neg_dmx"));
        llvm::Value* float_dmxu2 = this->CreateFMul(float_neg_dmx2, float_snorm_r, VALUE_NAME("dmxu"));
        llvm::Value* float_face_yp_dudx = this->CreateFAdd(float_dmxu2, float_snorm_drdx, VALUE_NAME("face_yp_dudx"));

        // du/dy = dm * u + d{s/r/t}/dy
        llvm::Value* float_neg_dmy2 = this->CreateFNeg(float_snorm_dsdy, VALUE_NAME("neg_dmy"));
        llvm::Value* float_dmyu2 = this->CreateFMul(float_neg_dmy2, float_snorm_r, VALUE_NAME("dmyu"));
        llvm::Value* float_face_yp_dudy = this->CreateFAdd(float_dmyu2, float_snorm_drdy, VALUE_NAME("face_yp_dvdx"));

        // dv/dx = dm * v + d{s/r/t}/dx
        llvm::Value* float_dmxv2 = this->CreateFMul(float_neg_dmx2, float_snorm_t, VALUE_NAME("dmxv"));
        llvm::Value* float_face_yp_dvdx = this->CreateFAdd(float_dmxv2, float_snorm_dtdx, VALUE_NAME("face_yp_dvdx"));

        // dv/dy = dm * v + d{s/r/t}/dy
        llvm::Value* float_dmyv2 = this->CreateFMul(float_neg_dmy2, float_snorm_t, VALUE_NAME("dmyv"));
        llvm::Value* float_face_yp_dvdy = this->CreateFAdd(float_dmyv2, float_snorm_dtdy, VALUE_NAME("face_yp_dvdy"));

        this->CreateBr(block_final);
        this->SetInsertPoint(block_ym);
        parentFunc->getBasicBlockList().push_back(block_ym);

        // Face -Y,
        // major = S
        // u     = R
        // v     = neg T

        llvm::Value* float_face_ym_id = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(coordType, 3.0));

        // Select u from s/r/t
        llvm::Value* float_face_ym_u = float_snorm_r;

        // Select v from s/r/t
        llvm::Value* float_face_ym_v = this->CreateFNeg(float_snorm_t, VALUE_NAME("face_ym_v"));

        // du/dx = dm * u + d{s/r/t}/dx
        llvm::Value* float_dmxu3 = this->CreateFMul(float_snorm_dsdx, float_snorm_r, VALUE_NAME("dmxu"));
        llvm::Value* float_face_ym_dudx = this->CreateFAdd(float_dmxu3, float_snorm_drdx, VALUE_NAME("face_ym_dudx"));

        // du/dy = dm * u + d{s/r/t}/dy
        llvm::Value* float_dmyu3 = this->CreateFMul(float_snorm_dsdy, float_snorm_r, VALUE_NAME("dmyu"));
        llvm::Value* float_face_ym_dudy = this->CreateFAdd(float_dmyu3, float_snorm_drdy, VALUE_NAME("face_ym_dvdx"));

        // dv/dx = dm * v + d{s/r/t}/dx
        llvm::Value* float_dmxv3 = this->CreateFMul(float_snorm_dsdx, float_face_ym_v, VALUE_NAME("dmxv"));
        llvm::Value* float_face_ym_dvdx = this->CreateFSub(float_dmxv3, float_snorm_dtdx, VALUE_NAME("face_ym_dvdx"));

        // dv/dy = dm * v + d{s/r/t}/dy
        llvm::Value* float_dmyv3 = this->CreateFMul(float_snorm_dsdx, float_face_ym_v, VALUE_NAME("dmyv"));
        llvm::Value* float_face_ym_dvdy = this->CreateFSub(float_dmyv3, float_snorm_dtdy, VALUE_NAME("face_ym_dvdy"));

        this->CreateBr(block_final);
        this->SetInsertPoint(block_major_r);
        parentFunc->getBasicBlockList().push_back(block_major_r);

        // Major coordinate is R, faces could be +X or -X

        // Normalize coordinates and gradients.
        llvm::Value* float_rnorm_s = this->CreateFDiv(float_src_s, float_abs_r, VALUE_NAME("rnorm_r"));
        llvm::Value* float_rnorm_t = this->CreateFDiv(float_src_t, float_abs_r, VALUE_NAME("rnorm_t"));
        llvm::Value* float_rnorm_drdx = this->CreateFDiv(float_drdx, float_abs_r, VALUE_NAME("rnorm_drdx"));
        llvm::Value* float_rnorm_drdy = this->CreateFDiv(float_drdy, float_abs_r, VALUE_NAME("rnorm_drdy"));
        llvm::Value* float_rnorm_dsdx = this->CreateFDiv(float_dsdx, float_abs_r, VALUE_NAME("rnorm_dsdx"));
        llvm::Value* float_rnorm_dsdy = this->CreateFDiv(float_dsdy, float_abs_r, VALUE_NAME("rnorm_dsdy"));
        llvm::Value* float_rnorm_dtdx = this->CreateFDiv(float_dtdx, float_abs_r, VALUE_NAME("rnorm_dtdx"));
        llvm::Value* float_rnorm_dtdy = this->CreateFDiv(float_dtdy, float_abs_r, VALUE_NAME("rnorm_dtdy"));

        // Select positive or negative face.
        llvm::Value* int1_cmpx_r = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, float_src_r, zero, VALUE_NAME("cmpx_r"));
        this->CreateCondBr(int1_cmpx_r, block_xp, block_xm);
        this->SetInsertPoint(block_xp);
        parentFunc->getBasicBlockList().push_back(block_xp);

        // Face +X,
        // major = neg R
        // u     = neg T
        // v     = neg S

        llvm::Value* float_face_xp_id = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(coordType, 0.0));

        // Select u from s/r/t
        llvm::Value* float_face_xp_u = this->CreateFNeg(float_rnorm_t, VALUE_NAME("face_xp_u"));

        // Select v from s/r/t
        llvm::Value* float_face_xp_v = this->CreateFNeg(float_rnorm_s, VALUE_NAME("face_xp_v"));

        // du/dx = dm * u + d{s/r/t}/dx
        llvm::Value* float_dmxu0 = this->CreateFMul(float_rnorm_drdx, float_rnorm_t, VALUE_NAME("dmxu"));
        llvm::Value* float_face_xp_dudx = this->CreateFSub(float_dmxu0, float_rnorm_dtdx, VALUE_NAME("face_xp_dudx"));

        // du/dy = dm * u + d{s/r/t}/dy
        llvm::Value* float_dmyu0 = this->CreateFMul(float_rnorm_drdy, float_rnorm_t, VALUE_NAME("dmyu"));
        llvm::Value* float_face_xp_dudy = this->CreateFSub(float_dmyu0, float_rnorm_dtdy, VALUE_NAME("face_xp_dvdx"));

        // dv/dx = dm * v + d{s/r/t}/dx
        llvm::Value* float_dmxv0 = this->CreateFMul(float_rnorm_drdx, float_rnorm_s, VALUE_NAME("dmxv"));
        llvm::Value* float_face_xp_dvdx = this->CreateFSub(float_dmxv0, float_rnorm_dsdx, VALUE_NAME("face_xp_dvdx"));

        // dv/dy = dm * v + d{s/r/t}/dy
        llvm::Value* float_dmyv0 = this->CreateFMul(float_rnorm_drdy, float_rnorm_s, VALUE_NAME("dmyv"));
        llvm::Value* float_face_xp_dvdy = this->CreateFSub(float_dmyv0, float_rnorm_dsdy, VALUE_NAME("face_xp_dvdy"));

        this->CreateBr(block_final);
        this->SetInsertPoint(block_xm);
        parentFunc->getBasicBlockList().push_back(block_xm);

        // Face -X,
        // major = R
        // u     = T
        // v     = neg S

        llvm::Value* float_face_xm_id = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(coordType, 1.0));

        // Select u from s/r/t
        llvm::Value* float_face_xm_u = float_rnorm_t;

        // Select v from s/r/t
        llvm::Value* float_face_xm_v = this->CreateFNeg(float_rnorm_s, VALUE_NAME("face_xm_v"));

        // du/dx = dm * u + d{s/r/t}/dx
        llvm::Value* float_dmxu1 = this->CreateFMul(float_rnorm_drdx, float_rnorm_t, VALUE_NAME("dmxu"));
        llvm::Value* float_face_xm_dudx = this->CreateFAdd(float_dmxu1, float_rnorm_dtdx, VALUE_NAME("face_xm_dudx"));

        // du/dy = dm * u + d{s/r/t}/dy
        llvm::Value* float_dmyu1 = this->CreateFMul(float_rnorm_drdy, float_rnorm_t, VALUE_NAME("dmyu"));
        llvm::Value* float_face_xm_dudy = this->CreateFAdd(float_dmyu1, float_rnorm_dtdx, VALUE_NAME("face_xm_dvdx"));

        // dv/dx = dm * v + d{s/r/t}/dx
        llvm::Value* float_dmxv1 = this->CreateFMul(float_rnorm_drdx, float_face_xm_v, VALUE_NAME("dmxv"));
        llvm::Value* float_face_xm_dvdx = this->CreateFSub(float_dmxv1, float_rnorm_dsdx, VALUE_NAME("face_xm_dvdx"));

        // dv/dy = dm * v + d{s/r/t}/dy
        llvm::Value* float_dmyv1 = this->CreateFMul(float_rnorm_drdy, float_face_xm_v, VALUE_NAME("dmyv"));
        llvm::Value* float_face_xm_dvdy = this->CreateFSub(float_dmyv1, float_rnorm_dsdy, VALUE_NAME("face_xm_dvdy"));

        this->CreateBr(block_final);
        this->SetInsertPoint(block_final);
        parentFunc->getBasicBlockList().push_back(block_final);

        llvm::PHINode* phi_u = this->CreatePHI(coordType, 6, VALUE_NAME("phi_u"));
        phi_u->addIncoming(float_face_xp_u, block_xp);
        phi_u->addIncoming(float_face_xm_u, block_xm);
        phi_u->addIncoming(float_face_yp_u, block_yp);
        phi_u->addIncoming(float_face_ym_u, block_ym);
        phi_u->addIncoming(float_face_zp_u, block_zp);
        phi_u->addIncoming(float_face_zm_u, block_zm);

        llvm::PHINode* phi_v = this->CreatePHI(coordType, 6, VALUE_NAME("phi_v"));
        phi_v->addIncoming(float_face_xp_v, block_xp);
        phi_v->addIncoming(float_face_xm_v, block_xm);
        phi_v->addIncoming(float_face_yp_v, block_yp);
        phi_v->addIncoming(float_face_ym_v, block_ym);
        phi_v->addIncoming(float_face_zp_v, block_zp);
        phi_v->addIncoming(float_face_zm_v, block_zm);

        llvm::PHINode* phi_dudx = this->CreatePHI(coordType, 6, VALUE_NAME("phi_dudx"));
        phi_dudx->addIncoming(float_face_xp_dudx, block_xp);
        phi_dudx->addIncoming(float_face_xm_dudx, block_xm);
        phi_dudx->addIncoming(float_face_yp_dudx, block_yp);
        phi_dudx->addIncoming(float_face_ym_dudx, block_ym);
        phi_dudx->addIncoming(float_face_zp_dudx, block_zp);
        phi_dudx->addIncoming(float_face_zm_dudx, block_zm);

        llvm::PHINode* phi_dudy = this->CreatePHI(coordType, 6, VALUE_NAME("phi_dudy"));
        phi_dudy->addIncoming(float_face_xp_dudy, block_xp);
        phi_dudy->addIncoming(float_face_xm_dudy, block_xm);
        phi_dudy->addIncoming(float_face_yp_dudy, block_yp);
        phi_dudy->addIncoming(float_face_ym_dudy, block_ym);
        phi_dudy->addIncoming(float_face_zp_dudy, block_zp);
        phi_dudy->addIncoming(float_face_zm_dudy, block_zm);

        llvm::PHINode* phi_dvdx = this->CreatePHI(coordType, 6, VALUE_NAME("phi_dvdx"));
        phi_dvdx->addIncoming(float_face_xp_dvdx, block_xp);
        phi_dvdx->addIncoming(float_face_xm_dvdx, block_xm);
        phi_dvdx->addIncoming(float_face_yp_dvdx, block_yp);
        phi_dvdx->addIncoming(float_face_ym_dvdx, block_ym);
        phi_dvdx->addIncoming(float_face_zp_dvdx, block_zp);
        phi_dvdx->addIncoming(float_face_zm_dvdx, block_zm);

        llvm::PHINode* phi_dvdy = this->CreatePHI(coordType, 6, VALUE_NAME("phi_dvdy"));
        phi_dvdy->addIncoming(float_face_xp_dvdy, block_xp);
        phi_dvdy->addIncoming(float_face_xm_dvdy, block_xm);
        phi_dvdy->addIncoming(float_face_yp_dvdy, block_yp);
        phi_dvdy->addIncoming(float_face_ym_dvdy, block_ym);
        phi_dvdy->addIncoming(float_face_zp_dvdy, block_zp);
        phi_dvdy->addIncoming(float_face_zm_dvdy, block_zm);

        llvm::PHINode* phi_face_id = this->CreatePHI(coordType, 6, VALUE_NAME("phi_face_id"));
        phi_face_id->addIncoming(float_face_xp_id, block_xp);
        phi_face_id->addIncoming(float_face_xm_id, block_xm);
        phi_face_id->addIncoming(float_face_yp_id, block_yp);
        phi_face_id->addIncoming(float_face_ym_id, block_ym);
        phi_face_id->addIncoming(float_face_zp_id, block_zp);
        phi_face_id->addIncoming(float_face_zm_id, block_zm);

        if (shouldSplitBB)
        {
            llvm::BranchInst* brInst = this->CreateBr(splitBlock);
            this->SetInsertPoint(brInst);
        }

        SampleD_DC_FromCubeParams D_DC_CUBE_params;

        D_DC_CUBE_params.float_src_u = phi_u;
        D_DC_CUBE_params.dxu = phi_dudx;
        D_DC_CUBE_params.dyu = phi_dudy;
        D_DC_CUBE_params.float_src_v = phi_v;
        D_DC_CUBE_params.dxv = phi_dvdx;
        D_DC_CUBE_params.dyv = phi_dvdy;
        D_DC_CUBE_params.float_src_r = phi_face_id;
        D_DC_CUBE_params.dxr = zero;
        D_DC_CUBE_params.dyr = zero;
        D_DC_CUBE_params.float_src_ai = float_src_ai;
        D_DC_CUBE_params.int32_textureIdx = int32_textureIdx;
        D_DC_CUBE_params.int32_sampler = int32_sampler;
        D_DC_CUBE_params.int32_offsetU = m_int0;
        D_DC_CUBE_params.int32_offsetV = m_int0;
        D_DC_CUBE_params.int32_offsetW = m_int0;

        return D_DC_CUBE_params;
    }
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateFAbs(llvm::Value* V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* fabs = llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::fabs, V->getType());
    return this->CreateCall(fabs, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateFSat(llvm::Value* V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* fsat =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_fsat, V->getType());
    return this->CreateCall(fsat, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateF16TOF32(
    llvm::Value* f16_src)
{
    llvm::Value* f32_dst = this->CreateFPExt(f16_src, this->getFloatTy(), VALUE_NAME("src0_s"));
    return f32_dst;
}

/*****************************************************************************\
Description:
Returns true if additional conversion is required if given format is
128bit.

Input:
SURFACE_FORMAT format           - conversion format

Output:
bool - return value.

\*****************************************************************************/
template<bool preserveNames, typename T, typename Inserter>
bool LLVM3DBuilder<preserveNames, T, Inserter>::NeedConversionFor128FormatRead(
    IGC::SURFACE_FORMAT format) const
{
    bool needsConversion = true;

    if ((format == IGC::SURFACE_FORMAT::SURFACE_FORMAT_R32G32B32A32_FLOAT) ||
        (format == IGC::SURFACE_FORMAT::SURFACE_FORMAT_R32G32B32A32_UINT) ||
        (format == IGC::SURFACE_FORMAT::SURFACE_FORMAT_R32G32B32A32_SINT))
    {
        needsConversion = false;
    }

    return needsConversion;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_UBFE(
    llvm::Value* int32_width,
    llvm::Value* int32_offset,
    llvm::Value* int32_source)
{
    //   %res = call i32 @llvm.GenISA.ubfe(i32 %src0_s, i32 %src1_s, i32 %src2_s)
    llvm::Value * packed_params[] = {
        int32_width,
        int32_offset,
        int32_source
    };
    llvm::CallInst* int32_res = llvm::cast<llvm::CallInst>(this->CreateCall(llvm_GenISA_ubfe(), packed_params));
    return int32_res;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_IBFE(
    llvm::Value* int32_width,
    llvm::Value* int32_offset,
    llvm::Value* int32_source)
{
    //   %res = call i32 @llvm.GenISA.ibfe(i32 %int32_width, i32 %int32_offset, i32 %int32_source)
    llvm::Value * packed_params[] = {
        int32_width,
        int32_offset,
        int32_source
    };
    llvm::CallInst* int32_res = llvm::cast<llvm::CallInst>(this->CreateCall(llvm_GenISA_ibfe(), packed_params));
    return int32_res;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_BFI(
    llvm::Value* int32_width,
    llvm::Value* int32_offset,
    llvm::Value* int32_source,
    llvm::Value* int32_replace)
{
    llvm::Value * packed_params[] = {
        int32_width,
        int32_offset,
        int32_source,
        int32_replace
    };
    llvm::CallInst* int32_res = llvm::cast<llvm::CallInst>(this->CreateCall(llvm_GenISA_bfi(), packed_params));
    return int32_res;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_BFREV(
    llvm::Value* int32_source)
{
    llvm::Value * packed_params[] = {
        int32_source
    };
    llvm::CallInst* int32_res = llvm::cast<llvm::CallInst>(this->CreateCall(llvm_GenISA_bfrev(), packed_params));
    return int32_res;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_FirstBitHi(
    llvm::Value* int32_source)
{
    llvm::Value * packed_params[] = {
        int32_source
    };
    llvm::CallInst* int32_res = llvm::cast<llvm::CallInst>(this->CreateCall(llvm_GenISA_firstbitHi(), packed_params));
    return int32_res;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_FirstBitLo(
    llvm::Value* int32_source)
{
    llvm::Value * packed_params[] = {
        int32_source
    };
    llvm::CallInst* int32_res = llvm::cast<llvm::CallInst>(this->CreateCall(llvm_GenISA_firstbitLo(), packed_params));
    return int32_res;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_FirstBitShi(
    llvm::Value* int32_source)
{
    llvm::Value * packed_params[] = {
        int32_source
    };
    llvm::CallInst* int32_res = llvm::cast<llvm::CallInst>(this->CreateCall(llvm_GenISA_firstbitShi(), packed_params));
    return int32_res;
}

// This method is obsolete and will be removed once GLSL and Vulkan frontends
// start using the new method CreateImageDataConversion()
template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_LdUAVTypedFormatConversion(
    llvm::Value* pLdUAVTypedResult,
    IGC::SURFACE_FORMAT surfaceFormat)
{
    return this->CreateGen9PlusImageDataConversion(surfaceFormat, pLdUAVTypedResult);
}

///////////////////////////////////////////////////////////////////////////////
/// @brief Creates data conversion for typed image reads on Gen9+ HW.
/// @see Description of GetSubstituteImageFormat() method.
/// @param format Surface format of the typed image (original i.e. from shader)
/// @param data Data returned by typed read message
/// @returns llvm::Value* Vector of data converted to the input surface format.
///
template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateGen9PlusImageDataConversion(
    IGC::SURFACE_FORMAT surfaceFormat,
    llvm::Value* pLdUAVTypedResult)
{
    IGC_ASSERT(nullptr != m_Platform);
    IGC_ASSERT(m_Platform->GetPlatformFamily() >= IGFX_GEN9_CORE);

    if (m_Platform->hasHDCSupportForTypedReadsUnormSnormToFloatConversion())
    {
        // Starting with CNL, values returned by Typed Surface Read on several
        // UNORM/SNORM surfaces do not need additional software conversion to
        // floats, as this conversion is performed by hardware out of the box.
        switch (surfaceFormat)
        {
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16G16B16A16_UNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16G16B16A16_SNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8G8B8A8_UNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8G8B8A8_SNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16G16_UNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16G16_SNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8G8_UNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8G8_SNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16_UNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16_SNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8_UNORM:
        case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8_SNORM:
            return pLdUAVTypedResult;
        default:
            break;
        }
    }

    llvm::Value* pFormatConvertedLLVMLdUAVTypedResult = pLdUAVTypedResult;
    switch (surfaceFormat)
    {
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16G16B16A16_UNORM:
    {
        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));
        llvm::Value* pConstFloat = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(this->getFloatTy(), (1.0f / 65535.0f)));
        llvm::Value* pTempInt32 = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempInt16 = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempFloat = llvm::UndefValue::get(this->getFloatTy());
        llvm::Value* pMaskLow = this->getInt32(0x0000FFFF);
        llvm::Value* pShift16 = this->getInt32(0x00000010);

        // pTempFloat = pLdUAVTypedResult[0];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));

        // Retrieve unsigned short value (component 0).
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());
        pTempInt16 = this->CreateAnd(pTempInt32, pMaskLow);

        // Convert unsigned short to float (component 0).
        pTempFloat = this->CreateUIToFP(pTempInt16, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));

        // Retrieve unsigned short value (component 1).
        pTempInt16 = this->CreateLShr(pTempInt32, pShift16);

        // Convert unsigned short to float (component 1).
        pTempFloat = this->CreateUIToFP(pTempInt16, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 1 in output vector (pTempVec4[1]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(1));

        // pTempFloat = pLdUAVTypedResult[1];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(1));

        // Retrieve unsigned short value (component 2).
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());
        pTempInt16 = this->CreateAnd(pTempInt32, pMaskLow);

        // Convert unsigned short to float (component 2).
        pTempFloat = this->CreateUIToFP(pTempInt16, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 2 in output vector (pTempVec4[2]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(2));

        // Retrieve unsigned short value (component 3).
        pTempInt16 = this->CreateLShr(pTempInt32, pShift16);

        // Convert unsigned short to float (component 3).
        pTempFloat = this->CreateUIToFP(pTempInt16, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 3 in output vector (pTempVec4[3]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(3));

        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16G16B16A16_SNORM:
    {
        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));
        llvm::Value* pScalingFactor = this->getFloat(1.0f / 32767.0f);
        llvm::Value* pTempInt32;
        llvm::Value* pTempInt16;
        llvm::Value* pTempFloat;
        llvm::Value* pNegativeOne = this->getFloat(-1.0f);
        llvm::Value* pCmp_result;
        llvm::Value* fieldWidth = this->getInt32(16);

        // pTempFloat = pLdUAVTypedResult[0];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));

        // Retrieve unsigned short value (component 0).
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());
        pTempInt16 = this->Create_IBFE(fieldWidth, this->getInt32(0), pTempInt32);

        // Convert signed short to float (component 0).
        pTempFloat = this->CreateSIToFP(pTempInt16, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Compare with -1.0f
        pCmp_result = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, pNegativeOne);
        pTempFloat = this->CreateSelect(pCmp_result, pTempFloat, pNegativeOne);

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));

        // Retrieve unsigned short value (component 1).
        pTempInt16 = this->CreateAShr(pTempInt32, 16);

        // Convert signed short to float (component 1).
        pTempFloat = this->CreateSIToFP(pTempInt16, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Compare with -1.0f
        pCmp_result = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, pNegativeOne);
        pTempFloat = this->CreateSelect(pCmp_result, pTempFloat, pNegativeOne);

        // Store component 1 in output vector (pTempVec4[1]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(1));

        // pTempFloat = pLdUAVTypedResult[1];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(1));

        // Retrieve unsigned short value (component 2).
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());
        pTempInt16 = this->Create_IBFE(fieldWidth, this->getInt32(0), pTempInt32);

        // Convert unsigned short to float (component 2).
        pTempFloat = this->CreateSIToFP(pTempInt16, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Compare with -1.0f
        pCmp_result = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, pNegativeOne);
        pTempFloat = this->CreateSelect(pCmp_result, pTempFloat, pNegativeOne);

        // Store component 2 in output vector (pTempVec4[2]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(2));

        // Retrieve unsigned short value (component 3).
        pTempInt16 = this->CreateAShr(pTempInt32, 16);

        // Convert unsigned short to float (component 3).
        pTempFloat = this->CreateSIToFP(pTempInt16, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Compare with -1.0f
        pCmp_result = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, pNegativeOne);
        pTempFloat = this->CreateSelect(pCmp_result, pTempFloat, pNegativeOne);

        // Store component 3 in output vector (pTempVec4[3]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(3));

        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R10G10B10A2_UNORM:
    {
        llvm::Value* pImmediateXYZ = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(this->getFloatTy(), (1.0f / 1023.0f)));
        llvm::Value* pImmediateW = llvm::cast<llvm::ConstantFP>(llvm::ConstantFP::get(this->getFloatTy(), (1.0f / 3.0f)));
        llvm::Value* pMaskXYZ = this->getInt32(0x000003ff);
        llvm::Value* pMaskW = this->getInt32(0x00000003);
        llvm::Value* pShiftData = this->getInt32(10);

        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));
        llvm::Value* pTempInt32 = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempIntWithMask = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempFloat = llvm::UndefValue::get(this->getFloatTy());
        llvm::Value* pTempShiftRightData = llvm::UndefValue::get(this->getInt32Ty());

        // pTempFloat = pLdUAVTypedResult[0];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));

        // Retrieve unsigned short value (component 0).
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());
        pTempIntWithMask = this->CreateAnd(pTempInt32, pMaskXYZ);

        // Convert unsigned short to float (component 0).
        pTempFloat = this->CreateUIToFP(pTempIntWithMask, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pImmediateXYZ);

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));

        // Retrieve unsigned short value (component 0).
        pTempShiftRightData = this->CreateLShr(pTempInt32, pShiftData);

        pTempIntWithMask = this->CreateAnd(pTempShiftRightData, pMaskXYZ);

        // Convert unsigned short to float.
        pTempFloat = this->CreateUIToFP(pTempIntWithMask, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pImmediateXYZ);

        // Store component 1 in output vector (pTempVec4[1]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(1));

        // Retrieve unsigned short value.
        pTempShiftRightData = this->CreateLShr(pTempShiftRightData, pShiftData);

        pTempIntWithMask = this->CreateAnd(pTempShiftRightData, pMaskXYZ);

        // Convert unsigned short to float.
        pTempFloat = this->CreateUIToFP(pTempIntWithMask, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pImmediateXYZ);

        // Store component 2 in output vector (pTempVec4[1]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(2));

        // Retrieve unsigned short value.
        pTempShiftRightData = this->CreateLShr(pTempShiftRightData, pShiftData);

        pTempIntWithMask = this->CreateAnd(pTempShiftRightData, pMaskW);

        // Convert unsigned short to float.
        pTempFloat = this->CreateUIToFP(pTempIntWithMask, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pImmediateW);

        // Store component 3 in output vector (pTempVec4[1]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R11G11B10_FLOAT:
    {
        // This surface format packs 3 half-float values into 32-bit string.
        // Half-floats are always non-negative, so to save space sign bit
        // is not stored and assumed to be zero.
        // Only 11 or 10 most significant bits (not counting sign bit)
        // of the 16 bits of IEEE 754 float16 are stored.
        // The least significant bits of the mantissa are assumed to be zero.
        // First value is stored in bits 0--10.     (r)
        // Second value is stored in bits 11 - 22   (g)
        // Third value is stored in bits 22 - 31    (b)
        // Fourth value is set to 1.0f.

        llvm::Value* pMaskX = this->getInt32(0x000007ff);
        llvm::Value* pMaskY = this->getInt32(0x00007ff0);
        llvm::Value* pMaskZ = this->getInt32(0x00007fe0);
        llvm::Value* pShiftDataX = this->getInt32(4);
        llvm::Value* pShiftDataY = this->getInt32(7);
        llvm::Value* pShiftDataZ = this->getInt32(10);
        llvm::Value* pTempFloat;
        llvm::Value* pTempFloat0;
        llvm::Value* pTempInt;
        llvm::Value* pTempInt0;

        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat0 = pLdUAVTypedResult[0];
        pTempFloat0 = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        pTempInt0 = this->CreateBitCast(pTempFloat0, this->getInt32Ty());

        pTempInt = this->CreateAnd(pTempInt0, pMaskX);
        pTempInt = this->CreateShl(pTempInt, pShiftDataX);
        pTempInt = this->CreateTrunc(pTempInt, this->getInt16Ty());
        pTempFloat = this->CreateBitCast(pTempInt, llvm::Type::getHalfTy(this->getContext()));
        pTempFloat = this->CreateF16TOF32(pTempFloat);

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));

        pTempInt0 = this->CreateLShr(pTempInt0, pShiftDataY);
        pTempInt = this->CreateAnd(pTempInt0, pMaskY);
        pTempInt = this->CreateTrunc(pTempInt, this->getInt16Ty());
        pTempFloat = this->CreateBitCast(pTempInt, llvm::Type::getHalfTy(this->getContext()));
        pTempFloat = this->CreateF16TOF32(pTempFloat);

        // Store component 1 in output vector (pTempVec4[1]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(1));

        pTempInt0 = this->CreateLShr(pTempInt0, pShiftDataZ);
        pTempInt = this->CreateAnd(pTempInt0, pMaskZ);
        pTempInt = this->CreateTrunc(pTempInt, this->getInt16Ty());
        pTempFloat = this->CreateBitCast(pTempInt, llvm::Type::getHalfTy(this->getContext()));
        pTempFloat = this->CreateF16TOF32(pTempFloat);

        // Store component 2 in output vector (pTempVec4[2]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(2));

        // store 1.0 into component 3
        pTempVec4 = this->CreateInsertElement(pTempVec4, getFloat(1.0f), this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R10G10B10A2_UINT:
    {
        // AND          ro.x, ri.x, { 0x000003ff };
        // SHR          ri.x, ri.x, { 10 };
        // AND          ro.y, ri.x, { 0x000003ff };
        // SHR          ri.x, ri.x, { 10 };
        // AND          ro.z, ri.x, { 0x000003ff };
        // SHR          ri.x, ri.x, { 10 };
        // AND          ro.w, ri.x, { 0x00000003 };
        // copy results
        llvm::Value* pMaskXYZ = this->getInt32(0x000003ff);
        llvm::Value* pMaskW = this->getInt32(0x00000003);
        llvm::Value* pShiftDataXYZ = this->getInt32(10);

        llvm::Value* pTempFloat = llvm::UndefValue::get(this->getFloatTy());
        llvm::Value* pTempInt32 = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempIntRes = llvm::UndefValue::get(this->getInt32Ty());

        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat = pLdUAVTypedResult[0];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        // AND          ro.x, ri.x, { 0x000003ff };
        pTempIntRes = this->CreateAnd(pTempInt32, pMaskXYZ);
        pTempFloat = this->CreateBitCast(pTempIntRes, this->getFloatTy());

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));

        // SHR          ri.x, ri.x, { 10 };
        // AND          ro.y, ri.x, { 0x000003ff };
        pTempInt32 = this->CreateLShr(pTempInt32, pShiftDataXYZ);
        pTempIntRes = this->CreateAnd(pTempInt32, pMaskXYZ);
        pTempFloat = this->CreateBitCast(pTempIntRes, this->getFloatTy());

        // Store component 1 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(1));

        // SHR          ri.x, ri.x, { 10 };
        // AND          ro.z, ri.x, { 0x000003ff };
        pTempInt32 = this->CreateLShr(pTempInt32, pShiftDataXYZ);
        pTempIntRes = this->CreateAnd(pTempInt32, pMaskXYZ);
        pTempFloat = this->CreateBitCast(pTempIntRes, this->getFloatTy());

        // Store component 2 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(2));

        // SHR          ri.x, ri.x, { 10 };
        // AND          ro.w, ri.x, { 3 };
        pTempInt32 = this->CreateLShr(pTempInt32, pShiftDataXYZ);
        pTempIntRes = this->CreateAnd(pTempInt32, pMaskW);
        pTempFloat = this->CreateBitCast(pTempIntRes, this->getFloatTy());

        // Store component 3 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8G8B8A8_UNORM:
    {
        // immX = 0x8, immY = 0x10, immZ = 0x18
        // immMaskLow = 0x000000FF
        // AND rTemp.x, ri.x, immMaskLow
        // ubfe rTemp.y, immX, immX, ri.x
        // ubfe rTemp.z, immX, immY, ri.x
        // ubfe rTemp.w, immX, immZ, ri.x
        // ubtof rTemp, rTemp
        // Fmul  rOutput, rTemp, 1.0f/255.0f
        llvm::Value* pMaskLow8 = this->getInt32(0x000000FF);
        llvm::Value* pImmX = this->getInt32(0x8);
        llvm::Value* pImmY = this->getInt32(0x10);
        llvm::Value* pImmZ = this->getInt32(0x18);
        llvm::Value* pConstFloat = this->getFloat(1.0f / 255.0f);
        llvm::Value* pTempFloat = llvm::UndefValue::get(this->getFloatTy());
        llvm::Value* pTempInt32 = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempInt32Res = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat = pLdUAVTypedResult[0];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        // AND rTemp.x, ri.x, immMaskLow
        pTempInt32Res = this->CreateAnd(pTempInt32, pMaskLow8);

        // ubtof rTemp.x, rTemp.x
        pTempFloat = this->CreateUIToFP(pTempInt32Res, this->getFloatTy());

        // Fmul  rOutput.x, rTemp.x, 1.0f/255.0f
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));

        // ubfe rTemp.y, immX, immX,  ri.x
        pTempInt32Res = this->Create_UBFE(pImmX, pImmX, pTempInt32);

        // ubtof rTemp.y, rTemp.y
        pTempFloat = this->CreateUIToFP(pTempInt32Res, this->getFloatTy());

        // Fmul  rOutput.y, rTemp.y, 1.0f/255.0f
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 1 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(1));

        // ubfe rTemp.z, immX, immY,  ri.x
        pTempInt32Res = this->Create_UBFE(pImmX, pImmY, pTempInt32);

        // ubtof rTemp.z, rTemp.z
        pTempFloat = this->CreateUIToFP(pTempInt32Res, this->getFloatTy());

        // Fmul  rOutput.z, rTemp.z, 1.0f/255.0f
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 2 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(2));

        // ubfe rTemp.w, immX, immZ,  ri.x
        pTempInt32Res = this->Create_UBFE(pImmX, pImmZ, pTempInt32);

        // ubtof rTemp.w, rTemp.w
        pTempFloat = this->CreateUIToFP(pTempInt32Res, this->getFloatTy());

        // Fmul  rOutput.w, rTemp.w, 1.0f/255.0f
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 3 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(3));

        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8G8B8A8_SNORM:
    {
        llvm::Value* pScalingFactor = this->getFloat(1.0f / 127.0f);
        llvm::Value* fieldWidth = this->getInt32(8);
        llvm::Value* fpNegOne = this->getFloat(-1.0f);

        // pTempFloat = pLdUAVTypedResult[0];
        llvm::Value* pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        // cast to int32 since result is seen as float
        llvm::Value* pInputAsInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        // create 4-component output vector
        llvm::Value* pOutputVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // for each of the four channels
        for (unsigned int ch = 0; ch < 4; ++ch)
        {
            // extract 8 bits with sign extend from position 8*ch..8*ch+7
            // for bits 24..31 we can use arithmetic shift right instead of bit extract
            llvm::Value* pTempInt32Res = (ch < 3) ?
                this->Create_IBFE(fieldWidth, this->getInt32(8 * ch), pInputAsInt32) :
                this->CreateAShr(pInputAsInt32, 8 * ch);

            // convert to float
            pTempFloat = this->CreateSIToFP(pTempInt32Res, this->getFloatTy());

            // multiply bthis->y the scaling factor 1.0f/127.0f
            pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

            // Fcmp_ge rFlag, rTemp.x, -1.0f
            // Sel.rFlag rOutput.x, rTemp.x, -1.0f
            llvm::Value* pFlag = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, fpNegOne);
            pTempFloat = this->CreateSelect(pFlag, pTempFloat, fpNegOne);

            // Store component ch in output vector (pTempVec4[0]).
            pOutputVec4 = this->CreateInsertElement(pOutputVec4, pTempFloat, this->getInt32(ch));
        }

        pFormatConvertedLLVMLdUAVTypedResult = pOutputVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16G16_UNORM:
    {
        // immMaskHigh = 0x0000FFFF
        // rImm.zw = {0.0f, 1.0f}
        // AND rTemp.x, ri.x, immMaskHigh
        // SHR rTemp.y, ri.x, 0x10,
        // USTOF rTemp.xy, rTemp.xy
        // FMUL rOutput.xy, rTemp.xy, 1.0f/65535.0f
        // MOV rOutput.zw, rImm.zw
        llvm::Value* pMaskHigh = this->getInt32(0x0000FFFF);
        llvm::Value* pShiftVal = this->getInt32(0x10);
        llvm::Value* pImmZ = this->getFloat(0.0f);
        llvm::Value* pImmW = this->getFloat(1.0f);
        llvm::Value* pConstFloat = this->getFloat(1.0f / 65535.0f);
        llvm::Value* pTempFloat = llvm::UndefValue::get(this->getFloatTy());
        llvm::Value* pTempInt32 = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempInt32Res = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat = pLdUAVTypedResult[0];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        // AND rTemp.x, ri.x, immMaskHigh
        pTempInt32Res = this->CreateAnd(pTempInt32, pMaskHigh);

        pTempFloat = this->CreateUIToFP(pTempInt32Res, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));

        pTempInt32Res = this->CreateLShr(pTempInt32, pShiftVal);
        pTempFloat = this->CreateUIToFP(pTempInt32Res, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 1 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(1));

        // Store component 2 to value 0.0f in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pImmZ, this->getInt32(2));

        // Store component 3 to Value 1.0f in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pImmW, this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16G16_SNORM:
    {
        // immMaskLow16 = 0x0000FFFF
        // rImm.zw = {0.0f, 1.0f}
        // AND rTemp.x, ri.x, immMaskLow16
        // SHR rTemp.y, ri.x, 0x10,
        // STOF rTemp.xy, rTemp.xy
        // FMUL rTemp.xy, rTemp.xy, 1.0f / 32767.0f
        // FCMP_GE rFlag.xy, rTemp.xy, -1.0f
        // SEL_rFlag.xy rOutput.xy, rTemp.xy, -1.0f
        // MOV rOutput.zw, rImm.zw
        llvm::Value* pScalingFactor = getFloat(1.0f / 32767.0f);
        llvm::Value* pOutVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat = pLdUAVTypedResult[0];
        llvm::Value* pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        llvm::Value* pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        // extract bits 0..15 and sign extend the result
        llvm::Value* pTempInt32Res = Create_IBFE(this->getInt32(16), this->getInt32(0), pTempInt32);

        // convert to float and apply scaling factor
        pTempFloat = this->CreateSIToFP(pTempInt32Res, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // clamp to range [-1.0f, 1.0f] since the value can be little less than -1.0f
        // Fcmp_ge rFlag, rTemp.x, -1.0f
        // Sel.rFlag rOutput.x, rTemp.x, -1.0f
        llvm::Value* pFlag = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, this->getFloat(-1.0f));
        pTempFloat = this->CreateSelect(pFlag, pTempFloat, this->getFloat(-1.0f));

        // Store component 0 in output vector (pTempVec4[0]).
        pOutVec4 = this->CreateInsertElement(pOutVec4, pTempFloat, this->getInt32(0));

        // extract bits 16..31 with sign extension
        pTempInt32Res = this->CreateAShr(pTempInt32, 16);
        pTempFloat = this->CreateSIToFP(pTempInt32Res, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Fcmp_ge rFlag, rTemp.y, -1.0f
        // Sel.rFlag rOutput.y, rTemp.y, -1.0f
        pFlag = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, this->getFloat(-1.0f));

        pTempFloat = this->CreateSelect(pFlag, pTempFloat, this->getFloat(-1.0f));

        // Store component 1 in output vector (pTempVec4[0]).
        pOutVec4 = this->CreateInsertElement(pOutVec4, pTempFloat, this->getInt32(1));

        // Store 0.0f, 1.0f in the remaining components of the output vector
        pOutVec4 = this->CreateInsertElement(pOutVec4, getFloat(0.0f), this->getInt32(2));
        pOutVec4 = this->CreateInsertElement(pOutVec4, getFloat(1.0f), this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pOutVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8G8_UNORM:
    {
        // immMaskLow8 = 0x000000FF
        // rImm.zw = {0.0f, 1.0f}
        // AND rTemp.x, ri.x, immMaskLow8
        // SHR rTemp.y, ri.x, 0x8,
        // USTOF rTemp.xy, rTemp.xy
        // FMUL rOutput.xy, rTemp.xy, 1.0f / 255.0f
        // MOV rOutput.zw, rImm.zw
        llvm::Value* pMaskLow8 = this->getInt32(0x000000FF);
        llvm::Value* pShiftVal = this->getInt32(0x8);
        llvm::Value* pImmZ = this->getFloat(0.0f);
        llvm::Value* pImmW = this->getFloat(1.0f);
        llvm::Value* pConstFloat = this->getFloat(1.0f / 255.0f);
        llvm::Value* pTempFloat = llvm::UndefValue::get(this->getFloatTy());
        llvm::Value* pTempInt32 = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempInt32Res = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat = pLdUAVTypedResult[0];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        // AND rTemp.x, ri.x, immMaskHigh
        pTempInt32Res = this->CreateAnd(pTempInt32, pMaskLow8);

        pTempFloat = this->CreateUIToFP(pTempInt32Res, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));

        pTempInt32Res = this->CreateLShr(pTempInt32, pShiftVal);
        pTempFloat = this->CreateUIToFP(pTempInt32Res, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pConstFloat);

        // Store component 1 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(1));

        // Store component 2 to value 0.0f in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pImmZ, this->getInt32(2));

        // Store component 3 to Value 1.0f in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pImmW, this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8G8_SNORM:
    {
        // immMaskLow8 = 0x000000FF
        // rImm.zw = {0.0f, 1.0f}
        // AND rTemp.x, ri.x, immMaskLow8
        // SHR rTemp.y, ri.x, 0x8,
        // STOF rTemp.xy, rTemp.xy
        // FMUL rTemp.xy, rTemp.xy, 1.0f / 127.0f
        // FCMP_GE rFlag.xy, rTemp.xy, -1.0f
        // SEL_rFlag.xy rOutput.xy, rTemp.xy, -1.0f
        // MOV rOutput.zw, rImm.zw
        llvm::Value* pScalingFactor = getFloat(1.0f / 127.0f);

        llvm::Value* pOutVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        llvm::Value* fieldWidth = this->getInt32(8);

        // pTempFloat = pLdUAVTypedResult[0];
        llvm::Value* pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        llvm::Value* pInputInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        llvm::Value* pTempInt32Res = Create_IBFE(fieldWidth, this->getInt32(0), pInputInt32);
        pTempFloat = this->CreateSIToFP(pTempInt32Res, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Fcmp_ge rFlag, rTemp.x, -1.0f
        // Sel.rFlag rOutput.x, rTemp.x, -1.0f
        llvm::Value* pFlag = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, getFloat(-1.0f));

        pTempFloat = this->CreateSelect(pFlag, pTempFloat, getFloat(-1.0f));
        // Store component 0 in output vector (pTempVec4[0]).
        pOutVec4 = this->CreateInsertElement(pOutVec4, pTempFloat, this->getInt32(0));

        // extract bits 8..15 and sign extend the result
        pTempInt32Res = this->Create_IBFE(fieldWidth, this->getInt32(8), pInputInt32);

        pTempFloat = this->CreateSIToFP(pTempInt32Res, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Fcmp_ge rFlag, rTemp.y, -1.0f
        // Sel.rFlag rOutput.y, rTemp.y, -1.0f
        pFlag = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, getFloat(-1.0f));
        pTempFloat = this->CreateSelect(pFlag, pTempFloat, getFloat(-1.0f));

        // store the value in component 1 of the output vector
        pOutVec4 = this->CreateInsertElement(pOutVec4, pTempFloat, this->getInt32(1));

        // store 0.0f, 1.0f in the remaining components of the output vector
        pOutVec4 = this->CreateInsertElement(pOutVec4, getFloat(0.0f), this->getInt32(2));
        pOutVec4 = this->CreateInsertElement(pOutVec4, getFloat(1.0f), this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pOutVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16_UNORM:
    {
        // rImm.yzw = {0.0f, 0.0f, 1.0f}
        // USTOF rTemp.x, ri.x
        // FMUL rOutput.x, rTemp.x, 1.0f / 65535.0f
        // MOV rOutput.yzw, rImm.yzw
        llvm::Value* pScalingFactor = getFloat(1.0f / 65535.0f);
        llvm::Value* pTempFloat = llvm::UndefValue::get(this->getFloatTy());
        llvm::Value* pTempInt32 = llvm::UndefValue::get(this->getInt32Ty());
        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat = pLdUAVTypedResult[0];
        pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        pTempFloat = this->CreateUIToFP(pTempInt32, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));

        // Store 0.0f, 0.0f, 1.0f, in remaining components of the output
        llvm::Value* pFPZero = getFloat(0.0f);
        pTempVec4 = this->CreateInsertElement(pTempVec4, pFPZero, this->getInt32(1));
        pTempVec4 = this->CreateInsertElement(pTempVec4, pFPZero, this->getInt32(2));
        pTempVec4 = this->CreateInsertElement(pTempVec4, getFloat(1.0f), this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R16_SNORM:
    {
        // rImm.yzw = {0.0f, 0.0f, 1.0f}
        // STOF rTemp.x, ri.x
        // FMUL rTemp.x, rTemp.x, 1.0f / 32767.0f
        // FCMP_GE rFlag.x, rTemp.x, -1.0f
        // SEL_rFlag.x rOutput.x, rTemp.x, -1.0f
        // MOV rOutput.yzw, rImm.yzw
        llvm::Value* pFPZero = getFloat(0.0f);
        llvm::Value* pScalingFactor = getFloat(1.0f / 32767.0f);
        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat = pLdUAVTypedResult[0];
        llvm::Value* pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        llvm::Value* pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        pTempInt32 = this->Create_IBFE(this->getInt32(16), this->getInt32(0), pTempInt32);

        pTempFloat = this->CreateSIToFP(pTempInt32, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // compare with -1.0f and clamp to -1.0 if less than -1.0
        // Fcmp_ge rFlag, rTemp.x, -1.0f
        // Sel.rFlag rOutput.x, rTemp.x, -1.0f
        llvm::Value* pFlag = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, getFloat(-1.0f));
        pTempFloat = this->CreateSelect(pFlag, pTempFloat, getFloat(-1.0f));

        // Store the result in component 0 of the output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));
        // Store 0.0f, 0.0f, 1.0f in remaining components
        pTempVec4 = this->CreateInsertElement(pTempVec4, pFPZero, this->getInt32(1));
        pTempVec4 = this->CreateInsertElement(pTempVec4, pFPZero, this->getInt32(2));
        pTempVec4 = this->CreateInsertElement(pTempVec4, getFloat(1.0f), this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8_UNORM:
    {
        // rImm.yzw = {0.0f, 0.0f, 1.0f}
        // USTOF rTemp.x, ri.x
        // FMUL rOutput.x, rTemp.x, 1.0f / 255.0f
        // MOV rOutput.yzw, rImm.yzw
        // UBTOF        ro.x, ri.x;
        llvm::Value* fpZero = this->getFloat(0.0f);
        llvm::Value* pScalingFactor = getFloat(1.0f / 255.0f);
        llvm::Value* pTempVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat = pLdUAVTypedResult[0];
        llvm::Value* pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        llvm::Value* pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        pTempFloat = this->CreateUIToFP(pTempInt32, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Store component 0 in output vector (pTempVec4[0]).
        pTempVec4 = this->CreateInsertElement(pTempVec4, pTempFloat, this->getInt32(0));
        // fill the rest with 0.0f, 0.0f, 1.0f
        pTempVec4 = this->CreateInsertElement(pTempVec4, fpZero, this->getInt32(1));
        pTempVec4 = this->CreateInsertElement(pTempVec4, fpZero, this->getInt32(2));
        pTempVec4 = this->CreateInsertElement(pTempVec4, getFloat(1.0f), this->getInt32(3));
        pFormatConvertedLLVMLdUAVTypedResult = pTempVec4;
        break;
    }
    case IGC::SURFACE_FORMAT::SURFACE_FORMAT_R8_SNORM:
    {
        // rImm.yzw = {0.0f, 0.0f, 1.0f}
        // STOF rTemp.x, ri.x
        // FMUL rTemp.x, rTemp.x, 1.0f / 127.0f
        // FCMP_GE rFlag.x, rTemp.x, -1.0f
        // SEL_rFlag.x rOutput.x, rTemp.x, -1.0f
        // MOV rOutput.yzw, rImm.yzw
        llvm::Value* pFpZero = getFloat(0.0f);
        llvm::Value* pFpNegOne = getFloat(-1.0f);
        llvm::Value* pScalingFactor = getFloat(1.0f / 127.0f);
        llvm::Value* pOutVec4 = llvm::UndefValue::get(IGCLLVM::FixedVectorType::get(this->getFloatTy(), 4));

        // pTempFloat = pLdUAVTypedResult[0];
        llvm::Value* pTempFloat = this->CreateExtractElement(pLdUAVTypedResult, this->getInt32(0));
        llvm::Value* pTempInt32 = this->CreateBitCast(pTempFloat, this->getInt32Ty());

        // extract bits 0..7 and sign extend the result
        pTempInt32 = this->Create_IBFE(this->getInt32(8), this->getInt32(0), pTempInt32);

        // convert to float and apply scaling factor
        pTempFloat = this->CreateSIToFP(pTempInt32, this->getFloatTy());
        pTempFloat = this->CreateFMul(pTempFloat, pScalingFactor);

        // Fcmp_ge rFlag, rTemp.x, -1.0f
        // Sel.rFlag rOutput.x, rTemp.x, -1.0f
        llvm::Value* pFlag = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, pTempFloat, pFpNegOne);
        pTempFloat = this->CreateSelect(pFlag, pTempFloat, pFpNegOne);

        // Store component 0 in output vector (pTempVec4[0]).
        pOutVec4 = this->CreateInsertElement(pOutVec4, pTempFloat, this->getInt32(0));

        // Store 0.0f, 0.0f, 1.0f in the remaining components of the output vector
        pOutVec4 = this->CreateInsertElement(pOutVec4, pFpZero, this->getInt32(1));
        pOutVec4 = this->CreateInsertElement(pOutVec4, pFpZero, this->getInt32(2));
        pOutVec4 = this->CreateInsertElement(pOutVec4, getFloat(1.0f), this->getInt32(3));

        pFormatConvertedLLVMLdUAVTypedResult = pOutVec4;
        break;
    }
    default:
        break;
    }

    return pFormatConvertedLLVMLdUAVTypedResult;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_indirectLoad(
    llvm::Value* srcBuffer,
    llvm::Value* offset,
    llvm::Value* alignment,
    llvm::Type* returnType,
    bool isVolatile /* false */)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Type* types[] = {
        returnType,
        srcBuffer->getType()
    };
    llvm::Function* pfuncLdPtr = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_ldrawvector_indexed,
        types);
    return this->CreateCall4(pfuncLdPtr, srcBuffer, offset, alignment, this->getInt1(isVolatile));
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_indirectStore(
    llvm::Value* srcBuffer,
    llvm::Value* offset,
    llvm::Value* data,
    bool isVolatile /* false */ )
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Type* types[] = {
        srcBuffer->getType(),
        data->getType(),
    };
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_storerawvector_indexed,
        types);
    llvm::Value* alignment = this->getInt32(data->getType()->getScalarSizeInBits() / 8);
    return this->CreateCall5(pFunc, srcBuffer, offset, data, alignment, this->getInt1(isVolatile));
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_atomicCounterIncrement(
    llvm::Value* srcBuffer)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_atomiccounterinc,
        srcBuffer->getType());
    return this->CreateCall(pFunc, srcBuffer);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_atomicCounterDecrement(
    llvm::Value* srcBuffer)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_atomiccounterpredec,
        srcBuffer->getType());
    return this->CreateCall(pFunc, srcBuffer);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::createThreadLocalId(unsigned int dim)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_DCL_SystemValue,
        this->getInt32Ty());
    return this->CreateCall(pFunc, this->getInt32(IGC::THREAD_ID_IN_GROUP_X + dim));
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::createGroupId(unsigned int dim)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_DCL_SystemValue,
        this->getFloatTy());
    return this->CreateBitCast(
        this->CreateCall(pFunc, this->getInt32(IGC::THREAD_GROUP_ID_X + dim)), this->getInt32Ty());
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateSin(llvm::Value* V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* sin =
        llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::sin, V->getType());
    return this->CreateCall(sin, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateCos(llvm::Value* V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* cos =
        llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::cos, V->getType());
    return this->CreateCall(cos, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateSqrt(llvm::Value* V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* sqrt =
        llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::sqrt, V->getType());
    return this->CreateCall(sqrt, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateFPow(llvm::Value *LHS, llvm::Value *RHS)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* fpow =
        llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::pow, LHS->getType());
    return this->CreateCall2(fpow, LHS, RHS);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateFMax(llvm::Value *LHS, llvm::Value *RHS)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* fmax =
        llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::maxnum, LHS->getType());
    return this->CreateCall2(fmax, LHS, RHS);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateFMin(llvm::Value *LHS, llvm::Value *RHS)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* fmin =
        llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::minnum, LHS->getType());
    return this->CreateCall2(fmin, LHS, RHS);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateIMulH(llvm::Value *LHS, llvm::Value *RHS)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* imulh =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_imulH, LHS->getType());
    return this->CreateCall2(imulh, LHS, RHS);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateUMulH(llvm::Value *LHS, llvm::Value *RHS)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* umulh =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_umulH, LHS->getType());
    return this->CreateCall2(umulh, LHS, RHS);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDiscard(llvm::Value* V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* discard =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_discard);
    return this->CreateCall(discard, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateFLog(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* flog =
        llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::log2, V->getType());
    return this->CreateCall(flog, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateFExp(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* fexp =
        llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::exp2, V->getType());
    return this->CreateCall(fexp, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDFloor(llvm::Value* src)
{
    llvm::Module* const mod = this->GetInsertBlock()->getParent()->getParent();
    IGC_ASSERT(nullptr != mod);
    llvm::Function* func = mod->getFunction("__builtin_floor_f64");
    if (func != nullptr)
    {
        return this->CreateCall(func, src);
    }

    // from OCL builtin: double @__builtin_spirv_floor_f64(double %x)
    static const char* const code =
        "define double @__builtin_floor_f64(double %x)                              \n"
        "    alwaysinline nounwind readnone {                                       \n"
        "  %1 = bitcast double %x to i64                                            \n"
        "  %2 = lshr i64 %1, 32                                                     \n"
        "  %3 = trunc i64 %2 to i32                                                 \n"
        "  %4 = lshr i64 %1, 52                                                     \n"
        "  %5 = trunc i64 %4 to i32                                                 \n"
        "  %6 = and i32 %5, 2047                                                    \n"
        "  %7 = sub nsw i32 1023, %6                                                \n"
        "  %8 = add nsw i32 %7, 52                                                  \n"
        "  %9 = add nsw i32 %7, 20                                                  \n"
        "  %10 = icmp sgt i32 %8, 32                                                \n"
        "  %11 = select i1 %10, i32 32, i32 %8                                      \n"
        "  %12 = icmp sgt i32 %9, 20                                                \n"
        "  %13 = select i1 %12, i32 20, i32 %9                                      \n"
        "  %14 = icmp sgt i32 %11, 0                                                \n"
        "  %15 = select i1 %14, i32 %11, i32 0                                      \n"
        "  %16 = icmp sgt i32 %13, 0                                                \n"
        "  %17 = select i1 %16, i32 %13, i32 0                                      \n"
        "  %18 = and i32 %15, 31                                                    \n"
        "  %19 = shl i32 -1, %18                                                    \n"
        "  %20 = and i32 %17, 31                                                    \n"
        "  %21 = shl i32 -1, %20                                                    \n"
        "  %22 = icmp ne i32 %15, 32                                                \n"
        "  %23 = select i1 %22, i32 %19, i32 0                                      \n"
        "  %24 = icmp eq i32 %17, 32                                                \n"
        "  %25 = icmp ult i32 %6, 1023                                              \n"
        "  %or.cond.i = or i1 %25, %24                                              \n"
        "  %maskValHigh32bit.0.i = select i1 %or.cond.i, i32 -2147483648, i32 %21   \n"
        "  %maskValLow32bit.0.i = select i1 %or.cond.i, i32 0, i32 %23              \n"
        "  %26 = trunc i64 %1 to i32                                                \n"
        "  %27 = and i32 %maskValLow32bit.0.i, %26                                  \n"
        "  %28 = and i32 %maskValHigh32bit.0.i, %3                                  \n"
        "  %29 = zext i32 %28 to i64                                                \n"
        "  %30 = shl nuw i64 %29, 32                                                \n"
        "  %31 = zext i32 %27 to i64                                                \n"
        "  %32 = or i64 %30, %31                                                    \n"
        "  %33 = bitcast i64 %32 to double                                          \n"
        "  %34 = sub i64 %1, %32                                                    \n"
        "  %35 = lshr i64 %34, 32                                                   \n"
        "  %36 = or i64 %35, %34                                                    \n"
        "  %37 = trunc i64 %36 to i32                                               \n"
        "  %38 = icmp eq i32 %37, 0                                                 \n"
        "  %39 = ashr i64 %1, 31                                                    \n"
        "  %.op = and i64 %39, -4616189618054758400                                 \n"
        "  %40 = bitcast i64 %.op to double                                         \n"
        "  %41 = select i1 %38, double 0.000000e+00, double %40                     \n"
        "  %42 = fadd double %33, %41                                               \n"
        "  ret double %42                                                           \n"
        "}";

    llvm::MemoryBufferRef codeBuf(code, "<string>");
    llvm::SMDiagnostic diagnostic;
    const bool failed = llvm::parseAssemblyInto(codeBuf, mod, nullptr, diagnostic);
    IGC_ASSERT_MESSAGE(false == failed, "Error parse llvm assembly");

    func = mod->getFunction("__builtin_floor_f64");
    return this->CreateCall(func, src);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateFloor(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    if( V->getType() == this->getDoubleTy() )
    {
        return CreateDFloor(V);
    }
    else
    {
        llvm::Function* floor =
            llvm::Intrinsic::getDeclaration( module, llvm::Intrinsic::floor, V->getType() );
        return this->CreateCall( floor, V );
    }
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDCeil(llvm::Value *src)
{
    llvm::Module* const mod = this->GetInsertBlock()->getParent()->getParent();
    IGC_ASSERT(nullptr != mod);
    llvm::Function* func = mod->getFunction("__builtin_ceil_f64");
    if (func != nullptr)
    {
        return this->CreateCall(func, src);
    }

    // from OCL builtin: double @__builtin_spirv_ceil_f64(double %x)
    static const char* const code =
        "define double @__builtin_ceil_f64(double %x)                               \n"
        "    alwaysinline nounwind readnone {                                       \n"
        "  %1 = bitcast double %x to i64                                            \n"
        "  %2 = lshr i64 %1, 32                                                     \n"
        "  %3 = trunc i64 %2 to i32                                                 \n"
        "  %4 = lshr i64 %1, 52                                                     \n"
        "  %5 = trunc i64 %4 to i32                                                 \n"
        "  %6 = and i32 %5, 2047                                                    \n"
        "  %7 = sub nsw i32 1023, %6                                                \n"
        "  %8 = add nsw i32 %7, 52                                                  \n"
        "  %9 = add nsw i32 %7, 20                                                  \n"
        "  %10 = icmp sgt i32 %8, 32                                                \n"
        "  %11 = select i1 %10, i32 32, i32 %8                                      \n"
        "  %12 = icmp sgt i32 %9, 20                                                \n"
        "  %13 = select i1 %12, i32 20, i32 %9                                      \n"
        "  %14 = icmp sgt i32 %11, 0                                                \n"
        "  %15 = select i1 %14, i32 %11, i32 0                                      \n"
        "  %16 = icmp sgt i32 %13, 0                                                \n"
        "  %17 = select i1 %16, i32 %13, i32 0                                      \n"
        "  %18 = and i32 %15, 31                                                    \n"
        "  %19 = shl i32 -1, %18                                                    \n"
        "  %20 = and i32 %17, 31                                                    \n"
        "  %21 = shl i32 -1, %20                                                    \n"
        "  %22 = icmp ne i32 %15, 32                                                \n"
        "  %23 = select i1 %22, i32 %19, i32 0                                      \n"
        "  %24 = icmp eq i32 %17, 32                                                \n"
        "  %25 = icmp ult i32 %6, 1023                                              \n"
        "  %or.cond.i = or i1 %25, %24                                              \n"
        "  %maskValHigh32bit.0.i = select i1 %or.cond.i, i32 -2147483648, i32 %21   \n"
        "  %maskValLow32bit.0.i = select i1 %or.cond.i, i32 0, i32 %23              \n"
        "  %26 = trunc i64 %1 to i32                                                \n"
        "  %27 = and i32 %maskValLow32bit.0.i, %26                                  \n"
        "  %28 = and i32 %maskValHigh32bit.0.i, %3                                  \n"
        "  %29 = zext i32 %28 to i64                                                \n"
        "  %30 = shl nuw i64 %29, 32                                                \n"
        "  %31 = zext i32 %27 to i64                                                \n"
        "  %32 = or i64 %30, %31                                                    \n"
        "  %33 = bitcast i64 %32 to double                                          \n"
        "  %34 = sub i64 %1, %32                                                    \n"
        "  %35 = lshr i64 %34, 32                                                   \n"
        "  %36 = or i64 %35, %34                                                    \n"
        "  %37 = trunc i64 %36 to i32                                               \n"
        "  %38 = icmp eq i32 %37, 0                                                 \n"
        "  %39 = ashr i64 %1, 31                                                    \n"
        "  %40 = and i64 %39, -4607182418800017408                                  \n"
        "  %.op = add nsw i64 %40, 4607182418800017408                              \n"
        "  %41 = bitcast i64 %.op to double                                         \n"
        "  %42 = select i1 %38, double 0.000000e+00, double %41                     \n"
        "  %43 = fadd double %33, %42                                               \n"
        "  ret double %43                                                           \n"
        "}";

    llvm::MemoryBufferRef codeBuf(code, "<string>");
    llvm::SMDiagnostic diagnostic;
    const bool failed = llvm::parseAssemblyInto(codeBuf, mod, nullptr, diagnostic);
    IGC_ASSERT_MESSAGE(false == failed, "Error parse llvm assembly");

    func = mod->getFunction("__builtin_ceil_f64");

    return this->CreateCall(func, src);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateCeil(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    if( V->getType() == this->getDoubleTy() )
    {
        return CreateDCeil(V);
    }
    else
    {
        llvm::Function* ceil =
            llvm::Intrinsic::getDeclaration( module, llvm::Intrinsic::ceil, V->getType() );
        return this->CreateCall( ceil, V );
    }
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDTrunc(llvm::Value *src)
{
    llvm::Module* const mod = this->GetInsertBlock()->getParent()->getParent();
    IGC_ASSERT(nullptr != mod);
    llvm::Function* func = mod->getFunction("__builtin_trunc_f64");
    if (func != nullptr)
    {
        return this->CreateCall(func, src);
    }

    // from OCL builtin: double @__builtin_spirv_trunc_f64(double %x)
    static const char* const code =
        "define double @__builtin_trunc_f64(double %x)                        \n"
        "    alwaysinline nounwind readnone {                                       \n"
        "  %1 = bitcast double %x to i64                                            \n"
        "  %2 = lshr i64 %1, 32                                                     \n"
        "  %3 = trunc i64 %2 to i32                                                 \n"
        "  %4 = lshr i64 %1, 52                                                     \n"
        "  %5 = trunc i64 %4 to i32                                                 \n"
        "  %6 = and i32 %5, 2047                                                    \n"
        "  %7 = sub nsw i32 1023, %6                                                \n"
        "  %8 = add nsw i32 %7, 52                                                  \n"
        "  %9 = add nsw i32 %7, 20                                                  \n"
        "  %10 = icmp sgt i32 %8, 32                                                \n"
        "  %11 = select i1 %10, i32 32, i32 %8                                      \n"
        "  %12 = icmp sgt i32 %9, 20                                                \n"
        "  %13 = select i1 %12, i32 20, i32 %9                                      \n"
        "  %14 = icmp sgt i32 %11, 0                                                \n"
        "  %15 = select i1 %14, i32 %11, i32 0                                      \n"
        "  %16 = icmp sgt i32 %13, 0                                                \n"
        "  %17 = select i1 %16, i32 %13, i32 0                                      \n"
        "  %18 = and i32 %15, 31                                                    \n"
        "  %19 = shl i32 -1, %18                                                    \n"
        "  %20 = and i32 %17, 31                                                    \n"
        "  %21 = shl i32 -1, %20                                                    \n"
        "  %22 = icmp ne i32 %15, 32                                                \n"
        "  %23 = select i1 %22, i32 %19, i32 0                                      \n"
        "  %24 = icmp eq i32 %17, 32                                                \n"
        "  %25 = icmp ult i32 %6, 1023                                              \n"
        "  %or.cond = or i1 %25, %24                                                \n"
        "  %maskValHigh32bit.0 = select i1 %or.cond, i32 -2147483648, i32 %21       \n"
        "  %maskValLow32bit.0 = select i1 %or.cond, i32 0, i32 %23                  \n"
        "  %26 = trunc i64 %1 to i32                                                \n"
        "  %27 = and i32 %maskValLow32bit.0, %26                                    \n"
        "  %28 = and i32 %maskValHigh32bit.0, %3                                    \n"
        "  %29 = zext i32 %28 to i64                                                \n"
        "  %30 = shl nuw i64 %29, 32                                                \n"
        "  %31 = zext i32 %27 to i64                                                \n"
        "  %32 = or i64 %30, %31                                                    \n"
        "  %33 = bitcast i64 %32 to double                                          \n"
        "  ret double %33                                                           \n"
        "}";

    llvm::MemoryBufferRef codeBuf(code, "<string>");
    llvm::SMDiagnostic diagnostic;
    const bool failed = llvm::parseAssemblyInto(codeBuf, mod, nullptr, diagnostic);
    IGC_ASSERT_MESSAGE(false == failed, "Error parse llvm assembly");

    func = mod->getFunction("__builtin_trunc_f64");

    return this->CreateCall(func, src);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateRoundZ(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    if (V->getType() == this->getDoubleTy())
    {
        return CreateDTrunc(V);
    }
    else
    {
        llvm::Function* trunc =
            llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::trunc, V->getType());
        return this->CreateCall(trunc, V);
    }
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDRoundNE(llvm::Value *src)
{
    llvm::Module* const mod = this->GetInsertBlock()->getParent()->getParent();
    IGC_ASSERT(nullptr != mod);
    llvm::Function* func = mod->getFunction("__builtin_roundne_f64");
    if (func != nullptr)
    {
        return this->CreateCall(func, src);
    }

    // From OCL builtin: double @__builtin_spirv_rint_f64(double %x)
    static const char* const code =
        "define double @__builtin_roundne_f64(double %x)                            \n"
        "    alwaysinline nounwind readnone {                                       \n"
        "  %1 = bitcast double %x to i64                                            \n"
        "  %2 = and i64 %1, 9223372036854775807                                     \n"
        "  %3 = bitcast i64 %2 to double                                            \n"
        "  %4 = lshr i64 %2, 52                                                     \n"
        "  %5 = trunc i64 %4 to i32                                                 \n"
        "  %6 = icmp ult i32 %5, 1075                                               \n"
        "  %7 = zext i1 %6 to i32                                                   \n"
        "  %8 = sitofp i32 %7 to double                                             \n"
        "  %9 = fmul double %8, 5.000000e-01                                        \n"
        "  %10 = fadd double %3, %9                                                 \n"
        "  %11 = bitcast double %10 to i64                                          \n"
        "  %12 = lshr i64 %11, 32                                                   \n"
        "  %13 = trunc i64 %12 to i32                                               \n"
        "  %14 = lshr i64 %11, 52                                                   \n"
        "  %15 = trunc i64 %14 to i32                                               \n"
        "  %16 = and i32 %15, 2047                                                  \n"
        "  %17 = sub nsw i32 1023, %16                                              \n"
        "  %18 = add nsw i32 %17, 52                                                \n"
        "  %19 = add nsw i32 %17, 20                                                \n"
        "  %20 = icmp sgt i32 %18, 32                                               \n"
        "  %21 = select i1 %20, i32 32, i32 %18                                     \n"
        "  %22 = icmp sgt i32 %19, 20                                               \n"
        "  %23 = select i1 %22, i32 20, i32 %19                                     \n"
        "  %24 = icmp sgt i32 %21, 0                                                \n"
        "  %25 = select i1 %24, i32 %21, i32 0                                      \n"
        "  %26 = icmp sgt i32 %23, 0                                                \n"
        "  %27 = select i1 %26, i32 %23, i32 0                                      \n"
        "  %28 = and i32 %25, 31                                                    \n"
        "  %29 = shl i32 -1, %28                                                    \n"
        "  %30 = and i32 %27, 31                                                    \n"
        "  %31 = shl i32 -1, %30                                                    \n"
        "  %32 = icmp ne i32 %25, 32                                                \n"
        "  %33 = select i1 %32, i32 %29, i32 0                                      \n"
        "  %34 = icmp eq i32 %27, 32                                                \n"
        "  %35 = icmp ult i32 %16, 1023                                             \n"
        "  %or.cond.i = or i1 %35, %34                                              \n"
        "  %maskValHigh32bit.0.i = select i1 %or.cond.i, i32 -2147483648, i32 %31   \n"
        "  %maskValLow32bit.0.i = select i1 %or.cond.i, i32 0, i32 %33              \n"
        "  %36 = trunc i64 %11 to i32                                               \n"
        "  %37 = and i32 %maskValLow32bit.0.i, %36                                  \n"
        "  %38 = and i32 %maskValHigh32bit.0.i, %13                                 \n"
        "  %39 = zext i32 %38 to i64                                                \n"
        "  %40 = shl nuw i64 %39, 32                                                \n"
        "  %41 = zext i32 %37 to i64                                                \n"
        "  %42 = or i64 %40, %41                                                    \n"
        "  %43 = bitcast i64 %42 to double                                          \n"
        "  %44 = fptoui double %43 to i64                                           \n"
        "  %.tr = trunc i64 %44 to i32                                              \n"
        "  %45 = fsub double %43, %3                                                \n"
        "  %46 = fcmp oeq double %45, 5.000000e-01                                  \n"
        "  %47 = zext i1 %46 to i32                                                 \n"
        "  %48 = and i32 %.tr, %47                                                  \n"
        "  %49 = uitofp i32 %48 to double                                           \n"
        "  %50 = fsub double %43, %49                                               \n"
        "  %51 = and i64 %1, -9223372036854775808                                   \n"
        "  %52 = bitcast double %50 to i64                                          \n"
        "  %53 = or i64 %52, %51                                                    \n"
        "  %54 = bitcast i64 %53 to double                                          \n"
        "  ret double %54                                                           \n"
        "}";

    llvm::MemoryBufferRef codeBuf(code, "<string>");
    llvm::SMDiagnostic diagnostic;
    const bool failed = llvm::parseAssemblyInto(codeBuf, mod, nullptr, diagnostic);
    IGC_ASSERT_MESSAGE(false == failed, "Error parse llvm assembly");

    func = mod->getFunction("__builtin_roundne_f64");

    return this->CreateCall(func, src);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateRoundNE(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    if( V->getType() == this->getDoubleTy() )
    {
        return CreateDRoundNE(V);
    }
    else if( V->getType() == this->getHalfTy() )
    {
        V = this->CreateFPExt(V, this->getFloatTy());
        llvm::Function* roundne =
            llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_ROUNDNE);
        V = this->CreateCall(roundne, V);
        return this->CreateFPTrunc(V, this->getHalfTy());
    }
    else
    {
        llvm::Function* roundne =
            llvm::GenISAIntrinsic::getDeclaration( module, llvm::GenISAIntrinsic::GenISA_ROUNDNE );
        return this->CreateCall( roundne, V );
    }
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateIsNan(llvm::Value* V)
{
    //fcmp_uno yields true if either operand is a QNAN. Since we compare the same numer with itself.
    //If V is not NAN it will return false
    return this->CreateFCmp(llvm::FCmpInst::FCMP_UNO, V, V);
}


template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateCtpop(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* ctpop =
        llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::ctpop, V->getType());
    return this->CreateCall(ctpop, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::getHalf(float f)
{
    return llvm::ConstantFP::get(this->getHalfTy(), f);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::getFloat(float f)
{
    return llvm::ConstantFP::get(this->getFloatTy(), f);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::getDouble(double d)
{
    return llvm::ConstantFP::get(this->getDoubleTy(), d);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDeriveRTX(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* floor =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_GradientX,
        V->getType());
    return this->CreateCall(floor, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDeriveRTX_Fine(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* floor =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_GradientXfine, V->getType());
    return this->CreateCall(floor, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDeriveRTY(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* floor =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_GradientY,
    V->getType());
    return this->CreateCall(floor, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDeriveRTY_Fine(llvm::Value *V)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* floor =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_GradientYfine, V->getType());
    return this->CreateCall(floor, V);
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::Create_MAD_Scalar(llvm::Value* float_src0, llvm::Value* float_src1, llvm::Value* float_src2)
{
    llvm::Module* const module = this->GetInsertBlock()->getParent()->getParent();
    IGC_ASSERT(nullptr != module);
    IGC_ASSERT(nullptr != float_src0);

    // Builtin Signature: float (float, float, float)
    IGC_ASSERT_MESSAGE((float_src0->getType() == llvm::Type::getHalfTy(module->getContext()) || float_src0->getType() == this->getFloatTy() || float_src0->getType() == this->getDoubleTy()), "Type check @MAD.scalar arg: 0");
    IGC_ASSERT_MESSAGE((float_src1->getType() == llvm::Type::getHalfTy(module->getContext()) || float_src1->getType() == this->getFloatTy() || float_src1->getType() == this->getDoubleTy()), "Type check @MAD.scalar arg: 1");
    IGC_ASSERT_MESSAGE((float_src2->getType() == llvm::Type::getHalfTy(module->getContext()) || float_src2->getType() == this->getFloatTy() || float_src2->getType() == this->getDoubleTy()), "Type check @MAD.scalar arg: 2");

    llvm::Function* madFunc = llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::fma, float_src0->getType());
    llvm::Value* args[] = { float_src0, float_src1, float_src2 };
    llvm::Value* float_madres_s = this->CreateCall(madFunc, args);

    return float_madres_s;
}

template<bool preserveNames, typename T, typename Inserter>
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreatePow(llvm::Value* src0, llvm::Value* src1)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* powFunc = llvm::Intrinsic::getDeclaration(module, llvm::Intrinsic::pow, src0->getType());
    llvm::Value* args[] = { src0, src1 };
    llvm::Value* powres_s = this->CreateCall(powFunc, args);

    return powres_s;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::Create_SAMPLEBC(
    llvm::Value* float_ref_value,
    llvm::Value* bias_value,
    llvm::Value* address_u,
    llvm::Value* address_v,
    llvm::Value* address_r,
    llvm::Value* address_ai,
    llvm::Value* int32_textureIdx,
    llvm::Value* int32_sampler,
    llvm::Value* int32_offsetU,
    llvm::Value* int32_offsetV,
    llvm::Value* int32_offsetW,
    llvm::Type* returnType)
{
    llvm::Value * packed_tex_params[] = {
        float_ref_value,
        bias_value,
        address_u,
        address_v,
        address_r,
        address_ai,
        int32_textureIdx,
        int32_sampler,
        int32_offsetU,
        int32_offsetV,
        int32_offsetW
    };

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Type* dstType = ( returnType != nullptr ) ? returnType : this->getFloatTy();
    llvm::Type* types[] = { IGCLLVM::FixedVectorType::get(dstType, 4), float_ref_value->getType(), int32_textureIdx->getType(), int32_sampler->getType() };
    llvm::Function* func_llvm_GenISA_sampleBCptr_v4f32_f32 = llvm::GenISAIntrinsic::getDeclaration
        (module, llvm::GenISAIntrinsic::GenISA_sampleBCptr, llvm::ArrayRef<llvm::Type*>(types, 4));

    llvm::CallInst* packed_tex_call = this->CreateCall(func_llvm_GenISA_sampleBCptr_v4f32_f32, packed_tex_params);
    return packed_tex_call;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateEvalSampleIndex(
    llvm::Value* inputIndex,
    llvm::Value* sampleIndex,
    llvm::Value* perspective)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* pullBarys =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_PullSampleIndexBarys);
    llvm::Value* bary = this->CreateCall2(pullBarys, sampleIndex, perspective);
    llvm::Function* interpolate =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_Interpolate);
    return this->CreateCall2(interpolate, inputIndex, bary);
}


template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateEvalSnapped(
    llvm::Value* inputIndex,
    llvm::Value* xOffset,
    llvm::Value* yOffset,
    llvm::Value* perspective)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();

    llvm::Function* pullBarys =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_PullSnappedBarys);
    llvm::Value* bary = this->CreateCall3(pullBarys, xOffset, yOffset, perspective);
    llvm::Function* interpolate =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_Interpolate);
    return this->CreateCall2(interpolate, inputIndex, bary);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateSetStream(
    llvm::Value* StreamId, llvm::Value* emitCount)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* fn =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_SetStream);
    return this->CreateCall2(fn, StreamId, emitCount);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateEndPrimitive(
    llvm::Value* emitCount)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* fn =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_EndPrimitive);
    return this->CreateCall(fn, emitCount);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateControlPointId()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* fn =
        llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_DCL_HSControlPointID);
    return this->CreateCall(fn);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreatePrimitiveID()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_DCL_SystemValue,
        this->getFloatTy());
    return this->CreateBitCast(
        this->CreateCall(pFunc, this->getInt32(IGC::PRIMITIVEID)), this->getInt32Ty());
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateInstanceID()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_DCL_SystemValue,
        this->getFloatTy());
    return this->CreateBitCast(
        this->CreateCall(pFunc, this->getInt32(IGC::GS_INSTANCEID)), this->getInt32Ty());
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateSampleIndex()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_DCL_SystemValue,
        this->getFloatTy());
    return this->CreateBitCast(
        this->CreateCall(pFunc, this->getInt32(IGC::SAMPLEINDEX)), this->getInt32Ty());
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateCoverage()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_DCL_SystemValue,
        this->getFloatTy());
    return this->CreateBitCast(
        this->CreateCall(pFunc, this->getInt32(IGC::INPUT_COVERAGE_MASK)), this->getInt32Ty());
}


template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateDomainPointInput(unsigned int dim)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_DCL_SystemValue,
        this->getFloatTy());
    return this->CreateCall(pFunc, this->getInt32(IGC::DOMAIN_POINT_ID_X + dim));
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_inputVecF32(llvm::Value* inputIndex, llvm::Value* interpolationMode)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
     module,
     llvm::GenISAIntrinsic::GenISA_DCL_inputVec,
     this->getFloatTy());
    return this->CreateCall2(pFunc, inputIndex, interpolationMode);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_discard(llvm::Value* condition)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_discard);
    return this->CreateCall(pFunc, condition);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_runtime(llvm::Value* offset)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_RuntimeValue);
    return this->CreateCall(pFunc, offset);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_uavSerializeAll()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_uavSerializeAll);
    return this->CreateCall(pFunc);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::CallInst* LLVM3DBuilder<preserveNames, T, Inserter>::create_countbits(llvm::Value* src)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::Intrinsic::getDeclaration(
        module,
        llvm::Intrinsic::ctpop,
        this->getInt32Ty());
    return this->CreateCall(pFunc, src);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value*
LLVM3DBuilder<preserveNames, T, Inserter>::create_waveInverseBallot(
    llvm::Value* src)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_WaveInverseBallot);
    return this->CreateCall(pFunc, src);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_waveBallot(llvm::Value* src)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_WaveBallot);
    return this->CreateCall(pFunc, src);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_waveshuffleIndex(llvm::Value* src, llvm::Value* index, llvm::Value* helperLaneMode)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_WaveShuffleIndex,
        src->getType());
    return this->CreateCall3(pFunc, src, index, (helperLaneMode ? helperLaneMode : this->getInt32(0)));
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_waveAll(llvm::Value* src, llvm::Value* type)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_WaveAll,
        src->getType());
    return this->CreateCall2(pFunc, src, type);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_wavePrefix(
    llvm::Value* src, llvm::Value* type, bool inclusive, llvm::Value *Mask)
{
    // If a nullptr is passed in for 'Mask' (as is the default), just include
    // all lanes.
    Mask = Mask ? Mask : this->getInt1(true);

    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_WavePrefix,
        src->getType());
    return this->CreateCall4(pFunc, src, type, this->getInt1(inclusive), Mask);
}

    // We currently use the combination of 'convergent' and
    // 'inaccessiblememonly' to prevent code motion of
    // wave intrinsics.  Removing 'readnone' from a callsite
    // is not sufficient to stop LICM from looking back up to the
    // function definition for the attribute.  We can short circuit that
    // by creating an operand bundle.  The name "nohoist" is not
    // significant; anything will do.
inline llvm::CallInst* setUnsafeToHoistAttr(llvm::CallInst *CI)
    {
        CI->setConvergent();
#if LLVM_VERSION_MAJOR >= 7
        CI->setOnlyAccessesInaccessibleMemory();
        CI->removeAttribute(llvm::AttributeList::FunctionIndex, llvm::Attribute::ReadNone);
#else
        CI->addAttribute(
            llvm::AttributeSet::FunctionIndex, llvm::Attribute::InaccessibleMemOnly);
        CI->removeAttribute(llvm::AttributeSet::FunctionIndex, llvm::Attribute::ReadNone);
#endif
        llvm::OperandBundleDef OpDef("nohoist", llvm::None);

        // An operand bundle cannot be appended onto a call after creation.
        // clone the instruction but add our operandbundle on as well.
        llvm::SmallVector<llvm::OperandBundleDef, 1> OpBundles;
        CI->getOperandBundlesAsDefs(OpBundles);
        OpBundles.push_back(OpDef);
        llvm::CallInst *NewCall = llvm::CallInst::Create(CI, OpBundles, CI);
        CI->replaceAllUsesWith(NewCall);
        return NewCall;
    }

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value*
LLVM3DBuilder<preserveNames, T, Inserter>::create_wavePrefixBitCount(
    llvm::Value* src, llvm::Value *Mask)
{
    //bits = ballot(bBit);
    //laneMaskLT = (1 << WaveGetLaneIndex()) - 1;
    //prefixBitCount = countbits(bits & laneMaskLT);
    llvm::Value* ballot = this->create_waveBallot(src);
    if (Mask)
        ballot = this->CreateAnd(ballot, Mask);
    llvm::Value* shlLaneId = this->CreateShl(
        this->getInt32(1), this->get32BitLaneID());
    llvm::Value* laneMask = this->CreateSub(shlLaneId, this->getInt32(1));
    llvm::Value *mask = this->CreateAnd(ballot, laneMask);

    // update llvm.ctpop so it won't be hoisted/sunk out of the loop.
    auto *PopCnt = this->create_countbits(mask);
    auto *NoHoistPopCnt = setUnsafeToHoistAttr(PopCnt);
    PopCnt->eraseFromParent();
    return NoHoistPopCnt;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_waveMatch(
    llvm::Instruction *inst,
    llvm::Value       *src)
{

    // Note that we will stay in the loop above as long as there is at least
    // one active lane remaining.

    // We will split the basic blocks twice.  The first will create a
    // pre-header for the loop code.  The second will separate the WaveMatch
    // from code after it so it can be broken down into a sequence of
    // instructions and then branch to the remaining code when done.

    auto *PreHeader = inst->getParent();
    auto *BodyBlock = PreHeader->splitBasicBlock(inst, "wavematch-body");
    auto *EndBlock = BodyBlock->splitBasicBlock(
        inst->getNextNode(), "wavematch-end");

    // Make sure that we set the insert point again as we've just invalidated
    // it with the splitBasicBlock() calls above.
    this->SetInsertPoint(inst);

    // Now generate the code for a single iteration of the code
    auto *FirstValue = this->readFirstLane(src);
    llvm::Value *CmpRes = nullptr;
    if (src->getType()->isFloatingPointTy())
        CmpRes = this->CreateFCmpOEQ(FirstValue, src);
    else
        CmpRes = this->CreateICmpEQ(FirstValue, src);

    auto *Mask = this->create_waveBallot(CmpRes);

    // Replace the current terminator to either exit the loop
    // or branch back for another iteration.
    auto *Br = BodyBlock->getTerminator();
    this->SetInsertPoint(Br);
    this->CreateCondBr(CmpRes, EndBlock, BodyBlock);
    Br->eraseFromParent();

    // Now, gather up the output struct outside of the loop
    this->SetInsertPoint(&*EndBlock->getFirstInsertionPt());

    return Mask;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value*
LLVM3DBuilder<preserveNames, T, Inserter>::create_waveMultiPrefix(
    llvm::Instruction *I,
    llvm::Value *Val,
    llvm::Value *Mask,
    IGC::WaveOps OpKind)
{
    // This implementation is similar create_waveMatch() in that we loop
    // until all subsets of lanes are processed.
    auto *PreHeader = I->getParent();
    auto *BodyBlock = PreHeader->splitBasicBlock(I, "multiprefix-body");
    auto *EndBlock = BodyBlock->splitBasicBlock(
        I->getNextNode(), "multiprefix-end");

    // Make sure that we set the insert point again as we've just invalidated
    // it with the splitBasicBlock() calls above.
    this->SetInsertPoint(I);

    // Now generate the code for a single iteration of the code
    auto *FirstValue = this->readFirstLane(Mask);
    auto *ParticipatingLanes = this->create_waveInverseBallot(FirstValue);

    auto *WavePrefix = this->create_wavePrefix(
        Val, this->getInt8((uint8_t)OpKind), false, ParticipatingLanes);

    // Replace the current terminator to either exit the loop
    // or branch back for another iteration.
    auto *Br = BodyBlock->getTerminator();
    this->SetInsertPoint(Br);
    this->CreateCondBr(ParticipatingLanes, EndBlock, BodyBlock);
    Br->eraseFromParent();

    this->SetInsertPoint(&*EndBlock->getFirstInsertionPt());

    return WavePrefix;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value*
LLVM3DBuilder<preserveNames, T, Inserter>::create_waveMultiPrefixBitCount(
    llvm::Instruction *I,
    llvm::Value *Val,
    llvm::Value *Mask)
{
    // Similar structure to waveMatch and waveMultiPrefix
    auto *PreHeader = I->getParent();
    auto *BodyBlock = PreHeader->splitBasicBlock(I, "multiprefixbitcount-body");
    auto *EndBlock = BodyBlock->splitBasicBlock(
        I->getNextNode(), "multiprefixbitcount-end");

    // Make sure that we set the insert point again as we've just invalidated
    // it with the splitBasicBlock() calls above.
    this->SetInsertPoint(I);

    // Now generate the code for a single iteration of the code
    auto *FirstValue = this->readFirstLane(Mask);

    auto *Count = this->create_wavePrefixBitCount(Val, FirstValue);

    // Replace the current terminator to either exit the loop
    // or branch back for another iteration.
    auto *Br = BodyBlock->getTerminator();
    this->SetInsertPoint(Br);
    auto *ParticipatingLanes = this->create_waveInverseBallot(FirstValue);
    this->CreateCondBr(ParticipatingLanes, EndBlock, BodyBlock);
    Br->eraseFromParent();

    this->SetInsertPoint(&*EndBlock->getFirstInsertionPt());

    return Count;
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::create_quadPrefix(llvm::Value* src, llvm::Value* type, bool inclusive)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_QuadPrefix,
        src->getType());
    return this->CreateCall3(pFunc, src, type, this->getInt1(inclusive));
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::get32BitLaneID()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_simdLaneId);
    llvm::Value* int16LaneId =  this->CreateCall(pFunc);
    return this->CreateZExt(int16LaneId, this->getInt32Ty());
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::getSimdSize()
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(module, llvm::GenISAIntrinsic::GenISA_simdSize);
    return this->CreateCall(pFunc);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::getFirstLaneID()
{
    //fbl(WaveBallot(true))
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Value* ballot = this->create_waveBallot(this->getInt1(1));
    llvm::Function* pFunc = llvm::GenISAIntrinsic::getDeclaration(
        module,
        llvm::GenISAIntrinsic::GenISA_firstbitLo);
    return this->CreateCall(pFunc, ballot);
}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::readFirstLane(llvm::Value* src)
{
    llvm::Value* firstLaneID = this->getFirstLaneID();
    return this->create_waveshuffleIndex(src, firstLaneID);
}

///////////////////////////////////////////////////////////////////////////////
/// @brief Internal helper method which fills in all emulation related info
///     used by typed image conversion methods for Gen8 HW.
/// @see Description of GetSubstituteImageFormat() method.
/// @param format Surface format of the typed image (original i.e. from shader)
/// @param info Output structure with emulation info about the input format
///
template<bool preserveNames, typename T, typename Inserter>
inline
void LLVM3DBuilder<preserveNames, T, Inserter>::GetGen8ImageFormatInfo(
    const IGC::SURFACE_FORMAT format, ///< input image format
    typename LLVM3DBuilder<preserveNames, T, Inserter>::ImageFormatInfo& info) const ///< output image format info
{
    switch (format)
    {
    case IGC::SURFACE_FORMAT_R32G32B32A32_FLOAT:
        info = { IGC::SURFACE_FORMAT_R32G32B32A32_FLOAT, 4, 32, true, IGC::SURFACE_FORMAT_R16G16B16A16_UINT,  true };
        break;
    case IGC::SURFACE_FORMAT_R16G16B16A16_FLOAT:
        info = { IGC::SURFACE_FORMAT_R16G16B16A16_FLOAT, 4, 16, true,  IGC::SURFACE_FORMAT_R16G16B16A16_UINT, false };
        break;
    case IGC::SURFACE_FORMAT_R32G32_FLOAT:
        info = { IGC::SURFACE_FORMAT_R32G32_FLOAT,       2, 32, true,  IGC::SURFACE_FORMAT_R16G16B16A16_UINT, false };
        break;
    case IGC::SURFACE_FORMAT_R16G16_FLOAT:
        info = { IGC::SURFACE_FORMAT_R16G16_FLOAT,       2, 16, true,  IGC::SURFACE_FORMAT_R16G16_UINT,       false };
        break;
    case  IGC::SURFACE_FORMAT_R11G11B10_FLOAT:
        info = { IGC::SURFACE_FORMAT_R11G11B10_FLOAT,    3, 0,  true,  IGC::SURFACE_FORMAT_R32_UINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R32_FLOAT:
        info = { IGC::SURFACE_FORMAT_R32_FLOAT,          1, 32, false, IGC::SURFACE_FORMAT_R32_FLOAT,         false };
        break;
    case IGC::SURFACE_FORMAT_R16_FLOAT:
        info = { IGC::SURFACE_FORMAT_R16_FLOAT,          1, 16, true,  IGC::SURFACE_FORMAT_R16_UINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R16G16B16A16_UNORM:
        info = { IGC::SURFACE_FORMAT_R16G16B16A16_UNORM, 4, 16, true,  IGC::SURFACE_FORMAT_R16G16B16A16_UINT, false };
        break;
    case IGC::SURFACE_FORMAT_R10G10B10A2_UNORM:
        info = { IGC::SURFACE_FORMAT_R10G10B10A2_UNORM,  4, 0,  true,  IGC::SURFACE_FORMAT_R32_UINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R8G8B8A8_UNORM:
        info = { IGC::SURFACE_FORMAT_R8G8B8A8_UNORM,     4, 8,  true,  IGC::SURFACE_FORMAT_R8G8B8A8_UINT,     false };
        break;
    case IGC::SURFACE_FORMAT_R16G16_UNORM:
        info = { IGC::SURFACE_FORMAT_R16G16_UNORM,       2, 8,  true,  IGC::SURFACE_FORMAT_R16G16_UINT,       false };
        break;
    case IGC::SURFACE_FORMAT_R8G8_UNORM:
        info = { IGC::SURFACE_FORMAT_R8G8_UNORM,         2, 8,  true,  IGC::SURFACE_FORMAT_R8G8_UINT,         false };
        break;
    case IGC::SURFACE_FORMAT_R16_UNORM:
        info = { IGC::SURFACE_FORMAT_R16_UNORM,          1, 16, true,  IGC::SURFACE_FORMAT_R16_UINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R8_UNORM:
        info = { IGC::SURFACE_FORMAT_R8_UNORM,           1, 8,  true,  IGC::SURFACE_FORMAT_R8_UINT,           false };
        break;
    case IGC::SURFACE_FORMAT_R16G16B16A16_SNORM:
        info = { IGC::SURFACE_FORMAT_R16G16B16A16_SNORM, 4, 16, true,  IGC::SURFACE_FORMAT_R16G16B16A16_UINT, false };
        break;
    case IGC::SURFACE_FORMAT_R8G8B8A8_SNORM:
        info = { IGC::SURFACE_FORMAT_R8G8B8A8_SNORM,     4, 8,  true,  IGC::SURFACE_FORMAT_R8G8B8A8_UINT,     false };
        break;
    case IGC::SURFACE_FORMAT_R16G16_SNORM:
        info = { IGC::SURFACE_FORMAT_R16G16_SNORM,       2, 16, true,  IGC::SURFACE_FORMAT_R16G16_UINT,       false };
        break;
    case IGC::SURFACE_FORMAT_R8G8_SNORM:
        info = { IGC::SURFACE_FORMAT_R8G8_SNORM,         2, 8,  true,  IGC::SURFACE_FORMAT_R8G8_UINT,         false };
        break;
    case IGC::SURFACE_FORMAT_R16_SNORM:
        info = { IGC::SURFACE_FORMAT_R16_SNORM,          1, 16, true,  IGC::SURFACE_FORMAT_R16_UINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R8_SNORM:
        info = { IGC::SURFACE_FORMAT_R8_SNORM,           1, 8,  true,  IGC::SURFACE_FORMAT_R8_UINT,           false };
        break;
    case IGC::SURFACE_FORMAT_R32G32B32A32_SINT:
        info = { IGC::SURFACE_FORMAT_R32G32B32A32_SINT,  4, 32, true,  IGC::SURFACE_FORMAT_R16G16B16A16_UINT, true  };
        break;
    case IGC::SURFACE_FORMAT_R16G16B16A16_SINT:
        info = { IGC::SURFACE_FORMAT_R16G16B16A16_SINT,  4, 16, true,  IGC::SURFACE_FORMAT_R16G16B16A16_UINT, false };
        break;
    case IGC::SURFACE_FORMAT_R8G8B8A8_SINT:
        info = { IGC::SURFACE_FORMAT_R8G8B8A8_SINT,      4, 8,  true,  IGC::SURFACE_FORMAT_R8G8B8A8_UINT,     false };
        break;
    case IGC::SURFACE_FORMAT_R32G32_SINT:
        info = { IGC::SURFACE_FORMAT_R32G32_SINT,        2, 32, true,  IGC::SURFACE_FORMAT_R32G32_UINT,       false };
        break;
    case IGC::SURFACE_FORMAT_R16G16_SINT:
        info = { IGC::SURFACE_FORMAT_R16G16_SINT,        2, 16, true,  IGC::SURFACE_FORMAT_R16G16_UINT,       false };
        break;
    case IGC::SURFACE_FORMAT_R8G8_SINT:
        info = { IGC::SURFACE_FORMAT_R8G8_SINT,          2, 8,  true,  IGC::SURFACE_FORMAT_R8G8_UINT,         false };
        break;
    case IGC::SURFACE_FORMAT_R32_SINT:
        info = { IGC::SURFACE_FORMAT_R32_SINT,           1, 32, false, IGC::SURFACE_FORMAT_R32_SINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R16_SINT:
        info = { IGC::SURFACE_FORMAT_R16_SINT,           1, 16, true,  IGC::SURFACE_FORMAT_R16_UINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R8_SINT:
        info = { IGC::SURFACE_FORMAT_R8_SINT,            1, 8,  true,  IGC::SURFACE_FORMAT_R8_UINT,           false };
        break;
    case IGC::SURFACE_FORMAT_R32G32B32A32_UINT:
        info = { IGC::SURFACE_FORMAT_R32G32B32A32_UINT,  4, 32, true,  IGC::SURFACE_FORMAT_R16G16B16A16_UINT, true  };
        break;
    case IGC::SURFACE_FORMAT_R16G16B16A16_UINT:
        info = { IGC::SURFACE_FORMAT_R16G16B16A16_UINT,  4, 16, false, IGC::SURFACE_FORMAT_R16G16B16A16_UINT, false };
        break;
    case IGC::SURFACE_FORMAT_R10G10B10A2_UINT:
        info = { IGC::SURFACE_FORMAT_R10G10B10A2_UINT,   4, 0,  true,  IGC::SURFACE_FORMAT_R32_UINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R8G8B8A8_UINT:
        info = { IGC::SURFACE_FORMAT_R8G8B8A8_UINT,      4, 8,  false, IGC::SURFACE_FORMAT_R8G8B8A8_UINT,     false };
        break;
    case IGC::SURFACE_FORMAT_R32G32_UINT:
        info = { IGC::SURFACE_FORMAT_R32G32_UINT,        2, 32, true,  IGC::SURFACE_FORMAT_R32G32_UINT,       false };
        break;
    case IGC::SURFACE_FORMAT_R16G16_UINT:
        info = { IGC::SURFACE_FORMAT_R16G16_UINT,        2, 16, false, IGC::SURFACE_FORMAT_R16G16_UINT,       false };
        break;
    case IGC::SURFACE_FORMAT_R8G8_UINT:
        info = { IGC::SURFACE_FORMAT_R8G8_UINT,          2, 8,  false, IGC::SURFACE_FORMAT_R8G8_UINT,         false };
        break;
    case IGC::SURFACE_FORMAT_R32_UINT:
        info = { IGC::SURFACE_FORMAT_R32_UINT,           1, 32, false, IGC::SURFACE_FORMAT_R32_UINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R16_UINT:
        info = { IGC::SURFACE_FORMAT_R16_UINT,           1, 16, false, IGC::SURFACE_FORMAT_R16_UINT,          false };
        break;
    case IGC::SURFACE_FORMAT_R8_UINT:
        info = { IGC::SURFACE_FORMAT_R8_UINT,            1, 8,  false, IGC::SURFACE_FORMAT_R8_UINT,           false };
        break;
    default:
        info = { format,                                 0, 0,  false, format,                                false };
        break;
    }
}


///////////////////////////////////////////////////////////////////////////////
/// @brief Returns information about image format used for typed image read
///        emulation.
///
///     Gen HW has supports only limited number of surface formats through data
/// port data cache typed read messages. Complete lists of formats supported
/// for read is available in Programmer's Reference Manual.
/// Some of the unsupported formats are  mandatory in Vulkan and OGL.
/// In order to support these formats the driver and the compiler implement the
/// following emulation:
///
/// GEN8:
///     Gen8 HW doesn't return any usable data when reading from unsupported
/// surface format. SW maps the same image (resource) to an additional surface
/// state which uses one of the supported formats. Frontends use this emulated,
/// additional resource for all typed reads. Data returned by typed read
/// messages from the emulated resource needs to be converted to original,
/// unsupported image format. Frontends perform this conversion using
/// CreateImageDataConversion() method. Surface format of the additional
/// resource MUST match the surface format returned by this method. The second
/// output parameter "requiresDoubleUSize" when set to true informs the driver
/// that the "U" size of the image should be doubled. This is used in emulation
/// of 128 bit formats for which we set a 64 bit format in the emulated surface
/// state. Also when RequiresDoubleUSize() returns true then frontends need to
/// adjust the U coordinate and read 2 chunks of data from 2*U and 2*U+1.
/// Frontends can query the need for additional surface state by calling
/// this method. If returned and input surface formats are different a new
/// surface state is required.
///
/// GEN9+:
///     Since Gen9 HW typed read messages return raw data when reading from an
/// unsupported format. This removes the need for the additional surface state.
/// It's enough to call the conversion method CreateImageDataConversion() using
/// data returned from typed read messages.
///
/// @param format Surface format of the typed image
/// @returns IGC::SURFACE_FORMAT Surface format of the additional resource
///
template<bool preserveNames, typename T, typename Inserter>
inline
IGC::SURFACE_FORMAT LLVM3DBuilder<preserveNames, T, Inserter>::GetSubstituteImageFormat(
    const IGC::SURFACE_FORMAT format) const
{
    if (m_Platform->GetPlatformFamily() == IGFX_GEN8_CORE)
    {
        ImageFormatInfo info;
        this->GetGen8ImageFormatInfo(format, info);
        if (info.m_RequiresConversion)
        {
            return info.m_SubstituteFormat;
        }
    }
    return format;
}


///////////////////////////////////////////////////////////////////////////////
/// @brief Returns true when 128 bit format emulation requires to double the
///     U size of the additional resource.
///
/// Gen8 HW doesn't support any of the 128bit formats. For all required 128bit
/// formats the substitute format set in the additional resource is a 64bit and
/// hence the need for double U size.
///
/// @see Description of GetSubstituteImageFormat() method.
/// @param format Surface format of the typed image (original i.e. from shader)
/// @param data Data returned by typed read message
/// @param dataHi Data returned by the second read form a 128 bit format image
/// @returns bool True for 128 bit format emulation.
///
template<bool preserveNames, typename T, typename Inserter>
inline
bool LLVM3DBuilder<preserveNames, T, Inserter>::SubstituteResourceRequiresDoubleUSize(
    const IGC::SURFACE_FORMAT format) const
{
    if (m_Platform->GetPlatformFamily() == IGFX_GEN8_CORE)
    {
        ImageFormatInfo info;
        this->GetGen8ImageFormatInfo(format, info);
        if (info.m_RequiresConversion)
        {
            return info.m_Is128b;
        }
    }
    return false;
}


///////////////////////////////////////////////////////////////////////////////
/// @brief Creates data conversion for typed image reads.
/// @see Description of GetSubstituteImageFormat() method.
/// @param format Surface format of the typed image (original i.e. from shader)
/// @param data Data returned by typed read message
/// @param dataHi Data returned by the second read form a 128 bit format image
/// @returns llvm::Value* Vector of data converted to the input surface format.
///
template<bool preserveNames, typename T, typename Inserter>
inline
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateImageDataConversion(
    IGC::SURFACE_FORMAT format,
    llvm::Value* data,
    llvm::Value* dataHi)
{
    if (m_Platform->GetPlatformFamily() >= IGFX_GEN9_CORE)
    {
        IGC_ASSERT(dataHi == nullptr);
        return this->CreateGen9PlusImageDataConversion(format, data);
    }
    else
    {
        struct LLVM3DBuilder<preserveNames, T, Inserter>::ImageFormatInfo info;
        this->GetGen8ImageFormatInfo(format, info);

        if (!info.m_RequiresConversion)
        {
            IGC_ASSERT(dataHi == nullptr);
            return data;
        }

        if (info.m_Is128b)
        {
            IGC_ASSERT(dataHi != nullptr);
            return this->CreateGen8ImageDataConversion(format, data, dataHi);
        }
        else
        {
            IGC_ASSERT(dataHi == nullptr);
            return this->CreateGen8ImageDataConversion(format, data);
        }
    }
}


///////////////////////////////////////////////////////////////////////////////
/// @brief Extract all scalars from a vector
/// @param  vector Llvm value of a vector
/// @param  outScalars pointer to the output array of scalars
/// @param  maxSize Size of the output array
/// @param  initializer optional parameter to set to unused elements
///
template<bool preserveNames, typename T, typename Inserter>
inline
void LLVM3DBuilder<preserveNames, T, Inserter>::VectorToScalars(
    llvm::Value* vector,
    llvm::Value** outScalars,
    unsigned maxSize,
    llvm::Value* initializer)
{
    IGC_ASSERT(nullptr != vector);
    IGC_ASSERT(nullptr != vector->getType());
    IGC_ASSERT(vector->getType()->isVectorTy());

    const unsigned count = (unsigned)llvm::cast<llvm::VectorType>(vector->getType())->getNumElements();
    IGC_ASSERT(1 < count);
    IGC_ASSERT(count <= 4);
    IGC_ASSERT(count <= maxSize);

    for (unsigned vecElem = 0; vecElem < maxSize; vecElem++)
    {
        if (vecElem >= count)
        {
            outScalars[vecElem] = initializer;
            continue;
        }
        outScalars[vecElem] = this->CreateExtractElement(
            vector,
            this->getInt32(vecElem));
    }
}


///////////////////////////////////////////////////////////////////////////////
/// @brief Aggregates scalar values to a vector
/// @param  scalars Array of scalars
/// @param  vectorElementCnt The number of elements in the vector to create.
/// @return Vector of type resultType
///
template<bool preserveNames, typename T, typename Inserter>
inline
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::ScalarsToVector(
    llvm::Value* (&scalars)[4],
    unsigned vectorElementCnt)
{
    llvm::Type* const resultType = IGCLLVM::FixedVectorType::get(scalars[0]->getType(), vectorElementCnt);
    IGC_ASSERT(nullptr != resultType);
    llvm::Value* result = llvm::UndefValue::get(resultType);

    for (unsigned i = 0; i < llvm::cast<llvm::VectorType>(resultType)->getNumElements(); i++)
    {
        IGC_ASSERT(nullptr != scalars[i]);
        IGC_ASSERT(llvm::cast<llvm::VectorType>(resultType)->getElementType() == scalars[i]->getType());

        result = this->CreateInsertElement(
            result,
            scalars[i],
            this->getInt32(i));
    }
    return result;
}


///////////////////////////////////////////////////////////////////////////////
/// @brief Returns the normalization factor for UNORM formats
/// @param  bits Number of bits in the UNORM value
/// @return llvm::Constant* unorm factor
template<bool preserveNames, typename T, typename Inserter>
inline
llvm::Constant* LLVM3DBuilder<preserveNames, T, Inserter>::GetUnormFactor(unsigned bits)
{
    float maxUint = (float)((1 << bits) - 1);
    return llvm::ConstantFP::get(this->getFloatTy(), (1.0f / maxUint));
};


///////////////////////////////////////////////////////////////////////////////
/// @brief Returns the normalization factor for SNORM formats
/// @param  bits Number of bits in the SNORM value
/// @return llvm::Constant* snorm factor
template<bool preserveNames, typename T, typename Inserter>
inline
llvm::Constant* LLVM3DBuilder<preserveNames, T, Inserter>::GetSnormFactor(unsigned bits)
{
    float maxSint = (float)(((1 << bits) - 1) / 2);
    return llvm::ConstantFP::get(this->getFloatTy(), (1.0f / maxSint));
};


///////////////////////////////////////////////////////////////////////////////
/// @brief Creates data conversion for typed image reads for Gen8 HW.
/// @see Description of GetSubstituteImageFormat() method.
/// @param format Surface format of the typed image (original i.e. from shader)
/// @param data Data returned by typed read message
/// @returns llvm::Value* Vector of data converted to the input surface format.
///
template<bool preserveNames, typename T, typename Inserter>
inline
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateGen8ImageDataConversion(
    IGC::SURFACE_FORMAT format,
    llvm::Value* data)
{
    IGC_ASSERT(nullptr != m_Platform);
    IGC_ASSERT(m_Platform->GetPlatformFamily() == IGFX_GEN8_CORE);
    if (data == nullptr)
    {
        IGC_ASSERT_MESSAGE(0, "Invalid arguments!");
        return nullptr;
    }

    ImageFormatInfo info;
    this->GetGen8ImageFormatInfo(format, info);

    IGC_ASSERT(info.m_RequiresConversion);

    llvm::Constant* zeroFloat = llvm::ConstantFP::get(this->getFloatTy(), 0);
    llvm::Constant* posOneFloat = llvm::ConstantFP::get(this->getFloatTy(), -1.0f);
    llvm::Constant* negOneFloat = llvm::ConstantFP::get(this->getFloatTy(), -1.0f);

    llvm::Constant* zeroInt = llvm::ConstantInt::get(this->getInt32Ty(), 0);
    llvm::Constant* posOneInt = llvm::ConstantInt::get(this->getInt32Ty(), 1);

    llvm::Value* rawData[4];
    this->VectorToScalars(data, &rawData[0], 4, zeroFloat);

    for (unsigned i = 0; i < 4; i++)
    {
        rawData[i] = this->CreateBitCast(
            rawData[i],
            this->getInt32Ty());
    }

    llvm::Value* outData[4] = { zeroFloat, zeroFloat, zeroFloat, posOneFloat };

    switch (format)
    {
    // Unorm image formats
    case IGC::SURFACE_FORMAT_R8_UNORM:
    case IGC::SURFACE_FORMAT_R8G8_UNORM:
    case IGC::SURFACE_FORMAT_R8G8B8A8_UNORM:
    case IGC::SURFACE_FORMAT_R16_UNORM:
    case IGC::SURFACE_FORMAT_R16G16_UNORM:
    case IGC::SURFACE_FORMAT_R16G16B16A16_UNORM:
    {
        llvm::Constant* factor = this->GetUnormFactor(info.m_BPE);
        unsigned mask = (1 << info.m_BPE) - 1;

        for (unsigned i = 0; i < info.m_NumComponents; i++)
        {
            outData[i] = this->CreateAnd(rawData[i], this->getInt32(mask));
            outData[i] = this->CreateUIToFP(outData[i], this->getFloatTy());
            outData[i] = this->CreateFMul(factor, outData[i]);
        }
        break;
    }

    // _SNORM image formats.
    case IGC::SURFACE_FORMAT_R8_SNORM:
    case IGC::SURFACE_FORMAT_R8G8_SNORM:
    case IGC::SURFACE_FORMAT_R8G8B8A8_SNORM:
    case IGC::SURFACE_FORMAT_R16_SNORM:
    case IGC::SURFACE_FORMAT_R16G16_SNORM:
    case IGC::SURFACE_FORMAT_R16G16B16A16_SNORM:
    {
        llvm::Constant* factor = this->GetSnormFactor(info.m_BPE);

        for (unsigned i = 0; i < info.m_NumComponents; i++)
        {
            IGC_ASSERT((info.m_BPE == 8) || (info.m_BPE == 16) || (info.m_BPE == 32));

            outData[i] = this->CreateTrunc(rawData[i], this->getIntNTy(info.m_BPE));
            outData[i] = this->CreateSIToFP(outData[i], this->getFloatTy());
            outData[i] = this->CreateFMul(factor, outData[i]);
            llvm::Value* flag = this->CreateFCmp(llvm::FCmpInst::FCMP_OGE, outData[i], negOneFloat);
            outData[i] = this->CreateSelect(flag, outData[i], negOneFloat);
        }
        break;
    }

    // 2-channel 64bit integer formats
    case IGC::SURFACE_FORMAT_R32G32_UINT:
    case IGC::SURFACE_FORMAT_R32G32_SINT:
    {
        outData[0] = outData[1] = outData[2] = zeroInt;
        outData[3] = posOneInt;
        for (unsigned i = 0; i < 2; i++)
        {
            llvm::Value* lo = this->CreateAnd(rawData[2 * i], this->getInt32(0xffff));
            llvm::Value* hi = this->CreateShl(rawData[2 * i + 1], this->getInt32(16));
            outData[i] = this->CreateOr(lo, hi);
        }
        break;
    }

    // 2-channel 64bit float format
    case IGC::SURFACE_FORMAT_R32G32_FLOAT:
    {
        for (unsigned i = 0; i < 2; i++)
        {
            llvm::Value* lo = this->CreateAnd(rawData[2 * i], this->getInt32(0xffff));
            llvm::Value* hi = this->CreateShl(rawData[2 * i + 1], this->getInt32(16));
            outData[i] = this->CreateOr(lo, hi);
            outData[i] = this->CreateBitCast(outData[i], this->getFloatTy());
        }
        break;
    }

    // Half float image formats.
    case IGC::SURFACE_FORMAT_R16_FLOAT:
    case IGC::SURFACE_FORMAT_R16G16_FLOAT:
    case IGC::SURFACE_FORMAT_R16G16B16A16_FLOAT:
    {
        for (unsigned i = 0; i < info.m_NumComponents; i++)
        {
            outData[i] = this->CreateTrunc(rawData[i], this->getInt16Ty());
            outData[i] = this->CreateBitCast(outData[i], this->getHalfTy());
            outData[i] = this->CreateFPExt(outData[i], this->getFloatTy());
        }
        break;
    }

    case IGC::SURFACE_FORMAT_R11G11B10_FLOAT:
    {
        outData[0] = this->CreateAnd(rawData[0], this->getInt32(0x7ff));
        outData[0] = this->CreateShl(outData[0], this->getInt32(4));
        outData[1] = this->CreateLShr(rawData[0], this->getInt32(7));
        outData[1] = this->CreateAnd(outData[1], this->getInt32(0x7ff0));
        outData[2] = this->CreateLShr(rawData[0], this->getInt32(17));
        outData[2] = this->CreateAnd(outData[2], this->getInt32(0x7fe0));
        for (unsigned i = 0; i < 3; i++)
        {
            outData[i] = this->CreateTrunc(outData[i], this->getInt16Ty());
            outData[i] = this->CreateBitCast(outData[i], this->getHalfTy());
            outData[i] = this->CreateFPExt(outData[i], this->getFloatTy());
        }
        outData[3] = posOneFloat;
        break;
    }

    case IGC::SURFACE_FORMAT_R10G10B10A2_UNORM:
    {
        outData[0] = this->CreateAnd(rawData[0], this->getInt32(0x3ff));
        outData[1] = this->CreateLShr(rawData[0], this->getInt32(10));
        outData[1] = this->CreateAnd(outData[1], this->getInt32(0x3ff));
        outData[2] = this->CreateLShr(rawData[0], this->getInt32(20));
        outData[2] = this->CreateAnd(outData[2], this->getInt32(0x3ff));
        outData[3] = this->CreateLShr(rawData[0], this->getInt32(30));
        outData[3] = this->CreateAnd(outData[3], this->getInt32(0x3));
        for (unsigned i = 0; i < 3; i++)
        {
            outData[i] = this->CreateUIToFP(outData[i], this->getFloatTy());
            outData[i] = this->CreateFMul(this->GetUnormFactor(10), outData[i]);
        }
        outData[3] = this->CreateUIToFP(outData[3], this->getFloatTy());
        outData[3] = this->CreateFMul(this->GetUnormFactor(2), outData[3]);
        break;
    }

    case IGC::SURFACE_FORMAT_R10G10B10A2_UINT:
    {
        outData[0] = this->CreateAnd(rawData[0], this->getInt32(0x3ff));
        outData[1] = this->CreateLShr(rawData[0], this->getInt32(10));
        outData[1] = this->CreateAnd(outData[1], this->getInt32(0x3ff));
        outData[2] = this->CreateLShr(rawData[0], this->getInt32(20));
        outData[2] = this->CreateAnd(outData[2], this->getInt32(0x3ff));
        outData[3] = this->CreateLShr(rawData[0], this->getInt32(30));
        outData[3] = this->CreateAnd(outData[3], this->getInt32(0x3));
        break;
    }

    // Int formats
    case IGC::SURFACE_FORMAT_R8_SINT:
    case IGC::SURFACE_FORMAT_R8G8_SINT:
    case IGC::SURFACE_FORMAT_R8G8B8A8_SINT:
    case IGC::SURFACE_FORMAT_R16_SINT:
    case IGC::SURFACE_FORMAT_R16G16_SINT:
    case IGC::SURFACE_FORMAT_R16G16B16A16_SINT:
    {
        outData[0] = outData[1] = outData[2] = zeroInt;
        outData[3] = posOneInt;
        llvm::Type* dstType = llvm::IntegerType::get(this->getContext(), info.m_BPE);
        for (unsigned i = 0; i < info.m_NumComponents; i++)
        {
            outData[i] = this->CreateTrunc(rawData[i], dstType);
            outData[i] = this->CreateSExt(outData[i], this->getInt32Ty());
        }
        break;
    }
    default:
        break;
    }

    return this->ScalarsToVector(outData, 4);
};


///////////////////////////////////////////////////////////////////////////////
/// @brief Creates data conversion for typed image reads for 128 bit formats
///        on Gen8 HW
/// @see Description of GetSubstituteImageFormat() method.
/// @param format Surface format of the typed image (original i.e. from shader)
/// @param data Data returned by typed read message
/// @param dataHi Data returned by the second read form a 128 bit format image
/// @returns llvm::Value* Vector of data converted to the input surface format.
///
template<bool preserveNames, typename T, typename Inserter>
inline
llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateGen8ImageDataConversion(
    IGC::SURFACE_FORMAT format,
    llvm::Value* rawDataRGVec,
    llvm::Value* rawDataBAVec)
{
    if (rawDataBAVec == nullptr || rawDataRGVec == nullptr)
    {
        IGC_ASSERT_MESSAGE(0, "Invalid arguments!");
        return nullptr;
    }

    ImageFormatInfo info;
    this->GetGen8ImageFormatInfo(format, info);

    IGC_ASSERT(info.m_RequiresConversion);
    IGC_ASSERT(info.m_NumComponents == 4);
    IGC_ASSERT(info.m_BPE == 32);
    IGC_ASSERT((format == IGC::SURFACE_FORMAT_R32G32B32A32_FLOAT) || (format == IGC::SURFACE_FORMAT_R32G32B32A32_UINT) || (format == IGC::SURFACE_FORMAT_R32G32B32A32_SINT));

    llvm::Constant* zeroFloat = llvm::ConstantFP::get(this->getFloatTy(), 0);
    llvm::Value* rawData[8];

    this->VectorToScalars(rawDataRGVec, &rawData[0], 4, zeroFloat);
    this->VectorToScalars(rawDataBAVec, &rawData[4], 4, zeroFloat);

    for (unsigned i = 0; i < 8; i++)
    {
        rawData[i] = this->CreateBitCast(rawData[i], this->getInt32Ty());
    }

    llvm::Value* outData[4];
    for (unsigned i = 0; i < 4; i++)
    {
        llvm::Value* lo = this->CreateAnd(rawData[2 * i], this->getInt32(0xffff));
        llvm::Value* hi = this->CreateShl(rawData[2 * i + 1], this->getInt32(16));
        outData[i] = this->CreateOr(lo, hi);
        if (format == IGC::SURFACE_FORMAT_R32G32B32A32_FLOAT)
        {
            outData[i] = this->CreateBitCast(outData[i], this->getFloatTy());
        }
    }
    return this->ScalarsToVector(outData, 4);
};

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateCPSRqstCoarseSize(
    llvm::Value* pSrcVal)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function*  pFunc = llvm::GenISAIntrinsic::getDeclaration(
                                module,
                                llvm::GenISAIntrinsic::GenISA_DCL_SystemValue,
                                this->getFloatTy());

    llvm::Value* sizeX = this->CreateCall(pFunc, this->getInt32(IGC::REQUESTED_COARSE_SIZE_X));
    llvm::Value* sizeY = this->CreateCall(pFunc, this->getInt32(IGC::REQUESTED_COARSE_SIZE_Y));
    llvm::Value* vec = this->CreateInsertElement(
                    llvm::UndefValue::get(pSrcVal->getType()),
                    sizeX,
                    this->getInt32(0));
    return this->CreateInsertElement(
            vec,
            sizeY,
            this->getInt32(1));

}

template<bool preserveNames, typename T, typename Inserter>
inline llvm::Value* LLVM3DBuilder<preserveNames, T, Inserter>::CreateCPSActualCoarseSize(
    llvm::Value* pSrcVal)
{
    llvm::Module* module = this->GetInsertBlock()->getParent()->getParent();
    llvm::Function*  pFunc = llvm::GenISAIntrinsic::getDeclaration(
                                module,
                                llvm::GenISAIntrinsic::GenISA_DCL_SystemValue,
                                this->getFloatTy());
    llvm::Value* sizeX = this->CreateCall(pFunc, this->getInt32(IGC::ACTUAL_COARSE_SIZE_X));
    llvm::Value* sizeY = this->CreateCall(pFunc, this->getInt32(IGC::ACTUAL_COARSE_SIZE_Y));
    llvm::Value* vec = this->CreateInsertElement(
                    llvm::UndefValue::get(pSrcVal->getType()),
                    sizeX,
                    this->getInt32(0));
    return this->CreateInsertElement(
            vec,
            sizeY,
            this->getInt32(1));

}



#endif // BUILTINS_FRONTEND_DEFINITIONS_HPP
