1
0
mirror of https://github.com/RPCS3/llvm-mirror.git synced 2024-10-22 12:33:33 +02:00
llvm-mirror/lib/Target/AMDGPU/R600Instructions.td
Yaxun Liu da52f0e643 [AMDGPU] Get address space mapping by target triple environment
As we introduced target triple environment amdgiz and amdgizcl, the address
space values are no longer enums. We have to decide the value by target triple.

The basic idea is to use struct AMDGPUAS to represent address space values.
For address space values which are not depend on target triple, use static
const members, so that they don't occupy extra memory space and is equivalent
to a compile time constant.

Since the struct is lightweight and cheap, it can be created on the fly at
the point of usage. Or it can be added as member to a pass and created at
the beginning of the run* function.

Differential Revision: https://reviews.llvm.org/D31284

llvm-svn: 298846
2017-03-27 14:04:01 +00:00

1748 lines
53 KiB
TableGen

//===-- R600Instructions.td - R600 Instruction defs -------*- tablegen -*-===//
//
// The LLVM Compiler Infrastructure
//
// This file is distributed under the University of Illinois Open Source
// License. See LICENSE.TXT for details.
//
//===----------------------------------------------------------------------===//
//
// TableGen definitions for instructions which are available on R600 family
// GPUs.
//
//===----------------------------------------------------------------------===//
include "R600Intrinsics.td"
include "R600InstrFormats.td"
class InstR600ISA <dag outs, dag ins, string asm, list<dag> pattern = []> :
InstR600 <outs, ins, asm, pattern, NullALU> {
let Namespace = "AMDGPU";
}
def MEMxi : Operand<iPTR> {
let MIOperandInfo = (ops R600_TReg32_X:$ptr, i32imm:$index);
let PrintMethod = "printMemOperand";
}
def MEMrr : Operand<iPTR> {
let MIOperandInfo = (ops R600_Reg32:$ptr, R600_Reg32:$index);
}
// Operands for non-registers
class InstFlag<string PM = "printOperand", int Default = 0>
: OperandWithDefaultOps <i32, (ops (i32 Default))> {
let PrintMethod = PM;
}
// src_sel for ALU src operands, see also ALU_CONST, ALU_PARAM registers
def SEL : OperandWithDefaultOps <i32, (ops (i32 -1))> {
let PrintMethod = "printSel";
}
def BANK_SWIZZLE : OperandWithDefaultOps <i32, (ops (i32 0))> {
let PrintMethod = "printBankSwizzle";
}
def LITERAL : InstFlag<"printLiteral">;
def WRITE : InstFlag <"printWrite", 1>;
def OMOD : InstFlag <"printOMOD">;
def REL : InstFlag <"printRel">;
def CLAMP : InstFlag <"printClamp">;
def NEG : InstFlag <"printNeg">;
def ABS : InstFlag <"printAbs">;
def UEM : InstFlag <"printUpdateExecMask">;
def UP : InstFlag <"printUpdatePred">;
// XXX: The r600g finalizer in Mesa expects last to be one in most cases.
// Once we start using the packetizer in this backend we should have this
// default to 0.
def LAST : InstFlag<"printLast", 1>;
def RSel : Operand<i32> {
let PrintMethod = "printRSel";
}
def CT: Operand<i32> {
let PrintMethod = "printCT";
}
def FRAMEri : Operand<iPTR> {
let MIOperandInfo = (ops R600_Reg32:$ptr, i32imm:$index);
}
def ADDRParam : ComplexPattern<i32, 2, "SelectADDRParam", [], []>;
def ADDRDWord : ComplexPattern<i32, 1, "SelectADDRDWord", [], []>;
def ADDRVTX_READ : ComplexPattern<i32, 2, "SelectADDRVTX_READ", [], []>;
def ADDRGA_CONST_OFFSET : ComplexPattern<i32, 1, "SelectGlobalValueConstantOffset", [], []>;
def ADDRGA_VAR_OFFSET : ComplexPattern<i32, 2, "SelectGlobalValueVariableOffset", [], []>;
def R600_Pred : PredicateOperand<i32, (ops R600_Predicate),
(ops PRED_SEL_OFF)>;
let mayLoad = 0, mayStore = 0, hasSideEffects = 0 in {
// Class for instructions with only one source register.
// If you add new ins to this instruction, make sure they are listed before
// $literal, because the backend currently assumes that the last operand is
// a literal. Also be sure to update the enum R600Op1OperandIndex::ROI in
// R600Defines.h, R600InstrInfo::buildDefaultInstruction(),
// and R600InstrInfo::getOperandIdx().
class R600_1OP <bits<11> inst, string opName, list<dag> pattern,
InstrItinClass itin = AnyALU> :
InstR600 <(outs R600_Reg32:$dst),
(ins WRITE:$write, OMOD:$omod, REL:$dst_rel, CLAMP:$clamp,
R600_Reg32:$src0, NEG:$src0_neg, REL:$src0_rel, ABS:$src0_abs, SEL:$src0_sel,
LAST:$last, R600_Pred:$pred_sel, LITERAL:$literal,
BANK_SWIZZLE:$bank_swizzle),
!strconcat(" ", opName,
"$clamp $last $dst$write$dst_rel$omod, "
"$src0_neg$src0_abs$src0$src0_abs$src0_rel, "
"$pred_sel $bank_swizzle"),
pattern,
itin>,
R600ALU_Word0,
R600ALU_Word1_OP2 <inst> {
let src1 = 0;
let src1_rel = 0;
let src1_neg = 0;
let src1_abs = 0;
let update_exec_mask = 0;
let update_pred = 0;
let HasNativeOperands = 1;
let Op1 = 1;
let ALUInst = 1;
let DisableEncoding = "$literal";
let UseNamedOperandTable = 1;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
}
class R600_1OP_Helper <bits<11> inst, string opName, SDPatternOperator node,
InstrItinClass itin = AnyALU> :
R600_1OP <inst, opName,
[(set R600_Reg32:$dst, (node R600_Reg32:$src0))], itin
>;
// If you add or change the operands for R600_2OP instructions, you must
// also update the R600Op2OperandIndex::ROI enum in R600Defines.h,
// R600InstrInfo::buildDefaultInstruction(), and R600InstrInfo::getOperandIdx().
class R600_2OP <bits<11> inst, string opName, list<dag> pattern,
InstrItinClass itin = AnyALU> :
InstR600 <(outs R600_Reg32:$dst),
(ins UEM:$update_exec_mask, UP:$update_pred, WRITE:$write,
OMOD:$omod, REL:$dst_rel, CLAMP:$clamp,
R600_Reg32:$src0, NEG:$src0_neg, REL:$src0_rel, ABS:$src0_abs, SEL:$src0_sel,
R600_Reg32:$src1, NEG:$src1_neg, REL:$src1_rel, ABS:$src1_abs, SEL:$src1_sel,
LAST:$last, R600_Pred:$pred_sel, LITERAL:$literal,
BANK_SWIZZLE:$bank_swizzle),
!strconcat(" ", opName,
"$clamp $last $update_exec_mask$update_pred$dst$write$dst_rel$omod, "
"$src0_neg$src0_abs$src0$src0_abs$src0_rel, "
"$src1_neg$src1_abs$src1$src1_abs$src1_rel, "
"$pred_sel $bank_swizzle"),
pattern,
itin>,
R600ALU_Word0,
R600ALU_Word1_OP2 <inst> {
let HasNativeOperands = 1;
let Op2 = 1;
let ALUInst = 1;
let DisableEncoding = "$literal";
let UseNamedOperandTable = 1;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
}
class R600_2OP_Helper <bits<11> inst, string opName,
SDPatternOperator node = null_frag,
InstrItinClass itin = AnyALU> :
R600_2OP <inst, opName,
[(set R600_Reg32:$dst, (node R600_Reg32:$src0,
R600_Reg32:$src1))], itin
>;
// If you add our change the operands for R600_3OP instructions, you must
// also update the R600Op3OperandIndex::ROI enum in R600Defines.h,
// R600InstrInfo::buildDefaultInstruction(), and
// R600InstrInfo::getOperandIdx().
class R600_3OP <bits<5> inst, string opName, list<dag> pattern,
InstrItinClass itin = AnyALU> :
InstR600 <(outs R600_Reg32:$dst),
(ins REL:$dst_rel, CLAMP:$clamp,
R600_Reg32:$src0, NEG:$src0_neg, REL:$src0_rel, SEL:$src0_sel,
R600_Reg32:$src1, NEG:$src1_neg, REL:$src1_rel, SEL:$src1_sel,
R600_Reg32:$src2, NEG:$src2_neg, REL:$src2_rel, SEL:$src2_sel,
LAST:$last, R600_Pred:$pred_sel, LITERAL:$literal,
BANK_SWIZZLE:$bank_swizzle),
!strconcat(" ", opName, "$clamp $last $dst$dst_rel, "
"$src0_neg$src0$src0_rel, "
"$src1_neg$src1$src1_rel, "
"$src2_neg$src2$src2_rel, "
"$pred_sel"
"$bank_swizzle"),
pattern,
itin>,
R600ALU_Word0,
R600ALU_Word1_OP3<inst>{
let HasNativeOperands = 1;
let DisableEncoding = "$literal";
let Op3 = 1;
let UseNamedOperandTable = 1;
let ALUInst = 1;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
}
class R600_REDUCTION <bits<11> inst, dag ins, string asm, list<dag> pattern,
InstrItinClass itin = VecALU> :
InstR600 <(outs R600_Reg32:$dst),
ins,
asm,
pattern,
itin>;
} // End mayLoad = 1, mayStore = 0, hasSideEffects = 0
def TEX_SHADOW : PatLeaf<
(imm),
[{uint32_t TType = (uint32_t)N->getZExtValue();
return (TType >= 6 && TType <= 8) || TType == 13;
}]
>;
def TEX_RECT : PatLeaf<
(imm),
[{uint32_t TType = (uint32_t)N->getZExtValue();
return TType == 5;
}]
>;
def TEX_ARRAY : PatLeaf<
(imm),
[{uint32_t TType = (uint32_t)N->getZExtValue();
return TType == 9 || TType == 10 || TType == 16;
}]
>;
def TEX_SHADOW_ARRAY : PatLeaf<
(imm),
[{uint32_t TType = (uint32_t)N->getZExtValue();
return TType == 11 || TType == 12 || TType == 17;
}]
>;
class EG_CF_RAT <bits <8> cfinst, bits <6> ratinst, bits<4> ratid, bits<4> mask,
dag outs, dag ins, string asm, list<dag> pattern> :
InstR600ISA <outs, ins, asm, pattern>,
CF_ALLOC_EXPORT_WORD0_RAT, CF_ALLOC_EXPORT_WORD1_BUF {
let rat_id = ratid;
let rat_inst = ratinst;
let rim = 0;
// XXX: Have a separate instruction for non-indexed writes.
let type = 1;
let rw_rel = 0;
let elem_size = 0;
let array_size = 0;
let comp_mask = mask;
let burst_count = 0;
let vpm = 0;
let cf_inst = cfinst;
let mark = 0;
let barrier = 1;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
let IsExport = 1;
}
class VTX_READ <string name, dag outs, list<dag> pattern>
: InstR600ISA <outs, (ins MEMxi:$src_gpr, i8imm:$buffer_id), !strconcat(" ", name, ", #$buffer_id"), pattern>,
VTX_WORD1_GPR {
// Static fields
let DST_REL = 0;
// The docs say that if this bit is set, then DATA_FORMAT, NUM_FORMAT_ALL,
// FORMAT_COMP_ALL, SRF_MODE_ALL, and ENDIAN_SWAP fields will be ignored,
// however, based on my testing if USE_CONST_FIELDS is set, then all
// these fields need to be set to 0.
let USE_CONST_FIELDS = 0;
let NUM_FORMAT_ALL = 1;
let FORMAT_COMP_ALL = 0;
let SRF_MODE_ALL = 0;
let Inst{63-32} = Word1;
// LLVM can only encode 64-bit instructions, so these fields are manually
// encoded in R600CodeEmitter
//
// bits<16> OFFSET;
// bits<2> ENDIAN_SWAP = 0;
// bits<1> CONST_BUF_NO_STRIDE = 0;
// bits<1> MEGA_FETCH = 0;
// bits<1> ALT_CONST = 0;
// bits<2> BUFFER_INDEX_MODE = 0;
// VTX_WORD2 (LLVM can only encode 64-bit instructions, so WORD2 encoding
// is done in R600CodeEmitter
//
// Inst{79-64} = OFFSET;
// Inst{81-80} = ENDIAN_SWAP;
// Inst{82} = CONST_BUF_NO_STRIDE;
// Inst{83} = MEGA_FETCH;
// Inst{84} = ALT_CONST;
// Inst{86-85} = BUFFER_INDEX_MODE;
// Inst{95-86} = 0; Reserved
// VTX_WORD3 (Padding)
//
// Inst{127-96} = 0;
let VTXInst = 1;
}
class LoadParamFrag <PatFrag load_type> : PatFrag <
(ops node:$ptr), (load_type node:$ptr),
[{ return isConstantLoad(cast<LoadSDNode>(N), 0) ||
(cast<LoadSDNode>(N)->getAddressSpace() == AMDGPUASI.PARAM_I_ADDRESS); }]
>;
def vtx_id3_az_extloadi8 : LoadParamFrag<az_extloadi8>;
def vtx_id3_az_extloadi16 : LoadParamFrag<az_extloadi16>;
def vtx_id3_load : LoadParamFrag<load>;
class LoadVtxId1 <PatFrag load> : PatFrag <
(ops node:$ptr), (load node:$ptr), [{
const MemSDNode *LD = cast<MemSDNode>(N);
return LD->getAddressSpace() == AMDGPUASI.GLOBAL_ADDRESS ||
(LD->getAddressSpace() == AMDGPUASI.CONSTANT_ADDRESS &&
!isa<GlobalValue>(GetUnderlyingObject(
LD->getMemOperand()->getValue(), CurDAG->getDataLayout())));
}]>;
def vtx_id1_az_extloadi8 : LoadVtxId1 <az_extloadi8>;
def vtx_id1_az_extloadi16 : LoadVtxId1 <az_extloadi16>;
def vtx_id1_load : LoadVtxId1 <load>;
class LoadVtxId2 <PatFrag load> : PatFrag <
(ops node:$ptr), (load node:$ptr), [{
const MemSDNode *LD = cast<MemSDNode>(N);
return LD->getAddressSpace() == AMDGPUASI.CONSTANT_ADDRESS &&
isa<GlobalValue>(GetUnderlyingObject(
LD->getMemOperand()->getValue(), CurDAG->getDataLayout()));
}]>;
def vtx_id2_az_extloadi8 : LoadVtxId2 <az_extloadi8>;
def vtx_id2_az_extloadi16 : LoadVtxId2 <az_extloadi16>;
def vtx_id2_load : LoadVtxId2 <load>;
def isR600 : Predicate<"Subtarget->getGeneration() <= R600Subtarget::R700">;
def isR600toCayman
: Predicate<
"Subtarget->getGeneration() <= R600Subtarget::NORTHERN_ISLANDS">;
//===----------------------------------------------------------------------===//
// R600 SDNodes
//===----------------------------------------------------------------------===//
def INTERP_PAIR_XY : AMDGPUShaderInst <
(outs R600_TReg32_X:$dst0, R600_TReg32_Y:$dst1),
(ins i32imm:$src0, R600_TReg32_Y:$src1, R600_TReg32_X:$src2),
"INTERP_PAIR_XY $src0 $src1 $src2 : $dst0 dst1",
[]>;
def INTERP_PAIR_ZW : AMDGPUShaderInst <
(outs R600_TReg32_Z:$dst0, R600_TReg32_W:$dst1),
(ins i32imm:$src0, R600_TReg32_Y:$src1, R600_TReg32_X:$src2),
"INTERP_PAIR_ZW $src0 $src1 $src2 : $dst0 dst1",
[]>;
def CONST_ADDRESS: SDNode<"AMDGPUISD::CONST_ADDRESS",
SDTypeProfile<1, -1, [SDTCisInt<0>, SDTCisPtrTy<1>]>,
[SDNPVariadic]
>;
def DOT4 : SDNode<"AMDGPUISD::DOT4",
SDTypeProfile<1, 8, [SDTCisFP<0>, SDTCisVT<1, f32>, SDTCisVT<2, f32>,
SDTCisVT<3, f32>, SDTCisVT<4, f32>, SDTCisVT<5, f32>,
SDTCisVT<6, f32>, SDTCisVT<7, f32>, SDTCisVT<8, f32>]>,
[]
>;
def COS_HW : SDNode<"AMDGPUISD::COS_HW",
SDTypeProfile<1, 1, [SDTCisFP<0>, SDTCisFP<1>]>
>;
def SIN_HW : SDNode<"AMDGPUISD::SIN_HW",
SDTypeProfile<1, 1, [SDTCisFP<0>, SDTCisFP<1>]>
>;
def TEXTURE_FETCH_Type : SDTypeProfile<1, 19, [SDTCisFP<0>]>;
def TEXTURE_FETCH: SDNode<"AMDGPUISD::TEXTURE_FETCH", TEXTURE_FETCH_Type, []>;
multiclass TexPattern<bits<32> TextureOp, Instruction inst, ValueType vt = v4f32> {
def : Pat<(TEXTURE_FETCH (i32 TextureOp), vt:$SRC_GPR,
(i32 imm:$srcx), (i32 imm:$srcy), (i32 imm:$srcz), (i32 imm:$srcw),
(i32 imm:$offsetx), (i32 imm:$offsety), (i32 imm:$offsetz),
(i32 imm:$DST_SEL_X), (i32 imm:$DST_SEL_Y), (i32 imm:$DST_SEL_Z),
(i32 imm:$DST_SEL_W),
(i32 imm:$RESOURCE_ID), (i32 imm:$SAMPLER_ID),
(i32 imm:$COORD_TYPE_X), (i32 imm:$COORD_TYPE_Y), (i32 imm:$COORD_TYPE_Z),
(i32 imm:$COORD_TYPE_W)),
(inst R600_Reg128:$SRC_GPR,
imm:$srcx, imm:$srcy, imm:$srcz, imm:$srcw,
imm:$offsetx, imm:$offsety, imm:$offsetz,
imm:$DST_SEL_X, imm:$DST_SEL_Y, imm:$DST_SEL_Z,
imm:$DST_SEL_W,
imm:$RESOURCE_ID, imm:$SAMPLER_ID,
imm:$COORD_TYPE_X, imm:$COORD_TYPE_Y, imm:$COORD_TYPE_Z,
imm:$COORD_TYPE_W)>;
}
//===----------------------------------------------------------------------===//
// Interpolation Instructions
//===----------------------------------------------------------------------===//
def INTERP_VEC_LOAD : AMDGPUShaderInst <
(outs R600_Reg128:$dst),
(ins i32imm:$src0),
"INTERP_LOAD $src0 : $dst">;
def INTERP_XY : R600_2OP <0xD6, "INTERP_XY", []> {
let bank_swizzle = 5;
}
def INTERP_ZW : R600_2OP <0xD7, "INTERP_ZW", []> {
let bank_swizzle = 5;
}
def INTERP_LOAD_P0 : R600_1OP <0xE0, "INTERP_LOAD_P0", []>;
//===----------------------------------------------------------------------===//
// Export Instructions
//===----------------------------------------------------------------------===//
class ExportWord0 {
field bits<32> Word0;
bits<13> arraybase;
bits<2> type;
bits<7> gpr;
bits<2> elem_size;
let Word0{12-0} = arraybase;
let Word0{14-13} = type;
let Word0{21-15} = gpr;
let Word0{22} = 0; // RW_REL
let Word0{29-23} = 0; // INDEX_GPR
let Word0{31-30} = elem_size;
}
class ExportSwzWord1 {
field bits<32> Word1;
bits<3> sw_x;
bits<3> sw_y;
bits<3> sw_z;
bits<3> sw_w;
bits<1> eop;
bits<8> inst;
let Word1{2-0} = sw_x;
let Word1{5-3} = sw_y;
let Word1{8-6} = sw_z;
let Word1{11-9} = sw_w;
}
class ExportBufWord1 {
field bits<32> Word1;
bits<12> arraySize;
bits<4> compMask;
bits<1> eop;
bits<8> inst;
let Word1{11-0} = arraySize;
let Word1{15-12} = compMask;
}
multiclass ExportPattern<Instruction ExportInst, bits<8> cf_inst> {
def : Pat<(R600_EXPORT (v4f32 R600_Reg128:$src), (i32 imm:$base), (i32 imm:$type),
(i32 imm:$swz_x), (i32 imm:$swz_y), (i32 imm:$swz_z), (i32 imm:$swz_w)),
(ExportInst R600_Reg128:$src, imm:$type, imm:$base,
imm:$swz_x, imm:$swz_y, imm:$swz_z, imm:$swz_w, cf_inst, 0)
>;
}
multiclass SteamOutputExportPattern<Instruction ExportInst,
bits<8> buf0inst, bits<8> buf1inst, bits<8> buf2inst, bits<8> buf3inst> {
// Stream0
def : Pat<(int_r600_store_stream_output (v4f32 R600_Reg128:$src),
(i32 imm:$arraybase), (i32 0), (i32 imm:$mask)),
(ExportInst R600_Reg128:$src, 0, imm:$arraybase,
4095, imm:$mask, buf0inst, 0)>;
// Stream1
def : Pat<(int_r600_store_stream_output (v4f32 R600_Reg128:$src),
(i32 imm:$arraybase), (i32 1), (i32 imm:$mask)),
(ExportInst $src, 0, imm:$arraybase,
4095, imm:$mask, buf1inst, 0)>;
// Stream2
def : Pat<(int_r600_store_stream_output (v4f32 R600_Reg128:$src),
(i32 imm:$arraybase), (i32 2), (i32 imm:$mask)),
(ExportInst $src, 0, imm:$arraybase,
4095, imm:$mask, buf2inst, 0)>;
// Stream3
def : Pat<(int_r600_store_stream_output (v4f32 R600_Reg128:$src),
(i32 imm:$arraybase), (i32 3), (i32 imm:$mask)),
(ExportInst $src, 0, imm:$arraybase,
4095, imm:$mask, buf3inst, 0)>;
}
// Export Instructions should not be duplicated by TailDuplication pass
// (which assumes that duplicable instruction are affected by exec mask)
let usesCustomInserter = 1, isNotDuplicable = 1 in {
class ExportSwzInst : InstR600ISA<(
outs),
(ins R600_Reg128:$gpr, i32imm:$type, i32imm:$arraybase,
RSel:$sw_x, RSel:$sw_y, RSel:$sw_z, RSel:$sw_w, i32imm:$inst,
i32imm:$eop),
!strconcat("EXPORT", " $gpr.$sw_x$sw_y$sw_z$sw_w"),
[]>, ExportWord0, ExportSwzWord1 {
let elem_size = 3;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
let IsExport = 1;
}
} // End usesCustomInserter = 1
class ExportBufInst : InstR600ISA<(
outs),
(ins R600_Reg128:$gpr, i32imm:$type, i32imm:$arraybase,
i32imm:$arraySize, i32imm:$compMask, i32imm:$inst, i32imm:$eop),
!strconcat("EXPORT", " $gpr"),
[]>, ExportWord0, ExportBufWord1 {
let elem_size = 0;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
let IsExport = 1;
}
//===----------------------------------------------------------------------===//
// Control Flow Instructions
//===----------------------------------------------------------------------===//
def KCACHE : InstFlag<"printKCache">;
class ALU_CLAUSE<bits<4> inst, string OpName> : AMDGPUInst <(outs),
(ins i32imm:$ADDR, i32imm:$KCACHE_BANK0, i32imm:$KCACHE_BANK1,
KCACHE:$KCACHE_MODE0, KCACHE:$KCACHE_MODE1,
i32imm:$KCACHE_ADDR0, i32imm:$KCACHE_ADDR1,
i32imm:$COUNT, i32imm:$Enabled),
!strconcat(OpName, " $COUNT, @$ADDR, "
"KC0[$KCACHE_MODE0], KC1[$KCACHE_MODE1]"),
[] >, CF_ALU_WORD0, CF_ALU_WORD1 {
field bits<64> Inst;
let CF_INST = inst;
let ALT_CONST = 0;
let WHOLE_QUAD_MODE = 0;
let BARRIER = 1;
let isCodeGenOnly = 1;
let UseNamedOperandTable = 1;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
}
class CF_WORD0_R600 {
field bits<32> Word0;
bits<32> ADDR;
let Word0 = ADDR;
}
class CF_CLAUSE_R600 <bits<7> inst, dag ins, string AsmPrint> : AMDGPUInst <(outs),
ins, AsmPrint, [] >, CF_WORD0_R600, CF_WORD1_R600 {
field bits<64> Inst;
bits<4> CNT;
let CF_INST = inst;
let BARRIER = 1;
let CF_CONST = 0;
let VALID_PIXEL_MODE = 0;
let COND = 0;
let COUNT = CNT{2-0};
let CALL_COUNT = 0;
let COUNT_3 = CNT{3};
let END_OF_PROGRAM = 0;
let WHOLE_QUAD_MODE = 0;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
}
class CF_CLAUSE_EG <bits<8> inst, dag ins, string AsmPrint> : AMDGPUInst <(outs),
ins, AsmPrint, [] >, CF_WORD0_EG, CF_WORD1_EG {
field bits<64> Inst;
let CF_INST = inst;
let BARRIER = 1;
let JUMPTABLE_SEL = 0;
let CF_CONST = 0;
let VALID_PIXEL_MODE = 0;
let COND = 0;
let END_OF_PROGRAM = 0;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
}
def CF_ALU : ALU_CLAUSE<8, "ALU">;
def CF_ALU_PUSH_BEFORE : ALU_CLAUSE<9, "ALU_PUSH_BEFORE">;
def CF_ALU_POP_AFTER : ALU_CLAUSE<10, "ALU_POP_AFTER">;
def CF_ALU_CONTINUE : ALU_CLAUSE<13, "ALU_CONTINUE">;
def CF_ALU_BREAK : ALU_CLAUSE<14, "ALU_BREAK">;
def CF_ALU_ELSE_AFTER : ALU_CLAUSE<15, "ALU_ELSE_AFTER">;
def FETCH_CLAUSE : AMDGPUInst <(outs),
(ins i32imm:$addr), "Fetch clause starting at $addr:", [] > {
field bits<8> Inst;
bits<8> num;
let Inst = num;
let isCodeGenOnly = 1;
}
def ALU_CLAUSE : AMDGPUInst <(outs),
(ins i32imm:$addr), "ALU clause starting at $addr:", [] > {
field bits<8> Inst;
bits<8> num;
let Inst = num;
let isCodeGenOnly = 1;
}
def LITERALS : AMDGPUInst <(outs),
(ins LITERAL:$literal1, LITERAL:$literal2), "$literal1, $literal2", [] > {
let isCodeGenOnly = 1;
field bits<64> Inst;
bits<32> literal1;
bits<32> literal2;
let Inst{31-0} = literal1;
let Inst{63-32} = literal2;
}
def PAD : AMDGPUInst <(outs), (ins), "PAD", [] > {
field bits<64> Inst;
}
let Predicates = [isR600toCayman] in {
//===----------------------------------------------------------------------===//
// Common Instructions R600, R700, Evergreen, Cayman
//===----------------------------------------------------------------------===//
def ADD : R600_2OP_Helper <0x0, "ADD", fadd>;
// Non-IEEE MUL: 0 * anything = 0
def MUL : R600_2OP_Helper <0x1, "MUL NON-IEEE">;
def MUL_IEEE : R600_2OP_Helper <0x2, "MUL_IEEE", fmul>;
// TODO: Do these actually match the regular fmin/fmax behavior?
def MAX : R600_2OP_Helper <0x3, "MAX", AMDGPUfmax_legacy>;
def MIN : R600_2OP_Helper <0x4, "MIN", AMDGPUfmin_legacy>;
// According to https://msdn.microsoft.com/en-us/library/windows/desktop/cc308050%28v=vs.85%29.aspx
// DX10 min/max returns the other operand if one is NaN,
// this matches http://llvm.org/docs/LangRef.html#llvm-minnum-intrinsic
def MAX_DX10 : R600_2OP_Helper <0x5, "MAX_DX10", fmaxnum>;
def MIN_DX10 : R600_2OP_Helper <0x6, "MIN_DX10", fminnum>;
// For the SET* instructions there is a naming conflict in TargetSelectionDAG.td,
// so some of the instruction names don't match the asm string.
// XXX: Use the defs in TargetSelectionDAG.td instead of intrinsics.
def SETE : R600_2OP <
0x08, "SETE",
[(set f32:$dst, (selectcc f32:$src0, f32:$src1, FP_ONE, FP_ZERO, COND_OEQ))]
>;
def SGT : R600_2OP <
0x09, "SETGT",
[(set f32:$dst, (selectcc f32:$src0, f32:$src1, FP_ONE, FP_ZERO, COND_OGT))]
>;
def SGE : R600_2OP <
0xA, "SETGE",
[(set f32:$dst, (selectcc f32:$src0, f32:$src1, FP_ONE, FP_ZERO, COND_OGE))]
>;
def SNE : R600_2OP <
0xB, "SETNE",
[(set f32:$dst, (selectcc f32:$src0, f32:$src1, FP_ONE, FP_ZERO, COND_UNE_NE))]
>;
def SETE_DX10 : R600_2OP <
0xC, "SETE_DX10",
[(set i32:$dst, (selectcc f32:$src0, f32:$src1, -1, 0, COND_OEQ))]
>;
def SETGT_DX10 : R600_2OP <
0xD, "SETGT_DX10",
[(set i32:$dst, (selectcc f32:$src0, f32:$src1, -1, 0, COND_OGT))]
>;
def SETGE_DX10 : R600_2OP <
0xE, "SETGE_DX10",
[(set i32:$dst, (selectcc f32:$src0, f32:$src1, -1, 0, COND_OGE))]
>;
// FIXME: This should probably be COND_ONE
def SETNE_DX10 : R600_2OP <
0xF, "SETNE_DX10",
[(set i32:$dst, (selectcc f32:$src0, f32:$src1, -1, 0, COND_UNE_NE))]
>;
// FIXME: Need combine for AMDGPUfract
def FRACT : R600_1OP_Helper <0x10, "FRACT", AMDGPUfract>;
def TRUNC : R600_1OP_Helper <0x11, "TRUNC", ftrunc>;
def CEIL : R600_1OP_Helper <0x12, "CEIL", fceil>;
def RNDNE : R600_1OP_Helper <0x13, "RNDNE", frint>;
def FLOOR : R600_1OP_Helper <0x14, "FLOOR", ffloor>;
def MOV : R600_1OP <0x19, "MOV", []>;
// This is a hack to get rid of DUMMY_CHAIN nodes.
// Most DUMMY_CHAINs should be eliminated during legalization, but undef
// values can sneak in some to selection.
let isPseudo = 1, isCodeGenOnly = 1 in {
def DUMMY_CHAIN : AMDGPUInst <
(outs),
(ins),
"DUMMY_CHAIN",
[(R600dummy_chain)]
>;
} // end let isPseudo = 1, isCodeGenOnly = 1
let isPseudo = 1, isCodeGenOnly = 1, usesCustomInserter = 1 in {
class MOV_IMM <ValueType vt, Operand immType> : AMDGPUInst <
(outs R600_Reg32:$dst),
(ins immType:$imm),
"",
[]
>;
} // end let isPseudo = 1, isCodeGenOnly = 1, usesCustomInserter = 1
def MOV_IMM_I32 : MOV_IMM<i32, i32imm>;
def : Pat <
(imm:$val),
(MOV_IMM_I32 imm:$val)
>;
def MOV_IMM_GLOBAL_ADDR : MOV_IMM<iPTR, i32imm>;
def : Pat <
(AMDGPUconstdata_ptr tglobaladdr:$addr),
(MOV_IMM_GLOBAL_ADDR tglobaladdr:$addr)
>;
def MOV_IMM_F32 : MOV_IMM<f32, f32imm>;
def : Pat <
(fpimm:$val),
(MOV_IMM_F32 fpimm:$val)
>;
def PRED_SETE : R600_2OP <0x20, "PRED_SETE", []>;
def PRED_SETGT : R600_2OP <0x21, "PRED_SETGT", []>;
def PRED_SETGE : R600_2OP <0x22, "PRED_SETGE", []>;
def PRED_SETNE : R600_2OP <0x23, "PRED_SETNE", []>;
let hasSideEffects = 1 in {
def KILLGT : R600_2OP <0x2D, "KILLGT", []>;
} // end hasSideEffects
def AND_INT : R600_2OP_Helper <0x30, "AND_INT", and>;
def OR_INT : R600_2OP_Helper <0x31, "OR_INT", or>;
def XOR_INT : R600_2OP_Helper <0x32, "XOR_INT", xor>;
def NOT_INT : R600_1OP_Helper <0x33, "NOT_INT", not>;
def ADD_INT : R600_2OP_Helper <0x34, "ADD_INT", add>;
def SUB_INT : R600_2OP_Helper <0x35, "SUB_INT", sub>;
def MAX_INT : R600_2OP_Helper <0x36, "MAX_INT", smax>;
def MIN_INT : R600_2OP_Helper <0x37, "MIN_INT", smin>;
def MAX_UINT : R600_2OP_Helper <0x38, "MAX_UINT", umax>;
def MIN_UINT : R600_2OP_Helper <0x39, "MIN_UINT", umin>;
def SETE_INT : R600_2OP <
0x3A, "SETE_INT",
[(set i32:$dst, (selectcc i32:$src0, i32:$src1, -1, 0, SETEQ))]
>;
def SETGT_INT : R600_2OP <
0x3B, "SETGT_INT",
[(set i32:$dst, (selectcc i32:$src0, i32:$src1, -1, 0, SETGT))]
>;
def SETGE_INT : R600_2OP <
0x3C, "SETGE_INT",
[(set i32:$dst, (selectcc i32:$src0, i32:$src1, -1, 0, SETGE))]
>;
def SETNE_INT : R600_2OP <
0x3D, "SETNE_INT",
[(set i32:$dst, (selectcc i32:$src0, i32:$src1, -1, 0, SETNE))]
>;
def SETGT_UINT : R600_2OP <
0x3E, "SETGT_UINT",
[(set i32:$dst, (selectcc i32:$src0, i32:$src1, -1, 0, SETUGT))]
>;
def SETGE_UINT : R600_2OP <
0x3F, "SETGE_UINT",
[(set i32:$dst, (selectcc i32:$src0, i32:$src1, -1, 0, SETUGE))]
>;
def PRED_SETE_INT : R600_2OP <0x42, "PRED_SETE_INT", []>;
def PRED_SETGT_INT : R600_2OP <0x43, "PRED_SETGE_INT", []>;
def PRED_SETGE_INT : R600_2OP <0x44, "PRED_SETGE_INT", []>;
def PRED_SETNE_INT : R600_2OP <0x45, "PRED_SETNE_INT", []>;
def CNDE_INT : R600_3OP <
0x1C, "CNDE_INT",
[(set i32:$dst, (selectcc i32:$src0, 0, i32:$src1, i32:$src2, COND_EQ))]
>;
def CNDGE_INT : R600_3OP <
0x1E, "CNDGE_INT",
[(set i32:$dst, (selectcc i32:$src0, 0, i32:$src1, i32:$src2, COND_SGE))]
>;
def CNDGT_INT : R600_3OP <
0x1D, "CNDGT_INT",
[(set i32:$dst, (selectcc i32:$src0, 0, i32:$src1, i32:$src2, COND_SGT))]
>;
//===----------------------------------------------------------------------===//
// Texture instructions
//===----------------------------------------------------------------------===//
let mayLoad = 0, mayStore = 0, hasSideEffects = 0 in {
class R600_TEX <bits<11> inst, string opName> :
InstR600 <(outs R600_Reg128:$DST_GPR),
(ins R600_Reg128:$SRC_GPR,
RSel:$srcx, RSel:$srcy, RSel:$srcz, RSel:$srcw,
i32imm:$offsetx, i32imm:$offsety, i32imm:$offsetz,
RSel:$DST_SEL_X, RSel:$DST_SEL_Y, RSel:$DST_SEL_Z, RSel:$DST_SEL_W,
i32imm:$RESOURCE_ID, i32imm:$SAMPLER_ID,
CT:$COORD_TYPE_X, CT:$COORD_TYPE_Y, CT:$COORD_TYPE_Z,
CT:$COORD_TYPE_W),
!strconcat(" ", opName,
" $DST_GPR.$DST_SEL_X$DST_SEL_Y$DST_SEL_Z$DST_SEL_W, "
"$SRC_GPR.$srcx$srcy$srcz$srcw "
"RID:$RESOURCE_ID SID:$SAMPLER_ID "
"CT:$COORD_TYPE_X$COORD_TYPE_Y$COORD_TYPE_Z$COORD_TYPE_W"),
[],
NullALU>, TEX_WORD0, TEX_WORD1, TEX_WORD2 {
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
let TEX_INST = inst{4-0};
let SRC_REL = 0;
let DST_REL = 0;
let LOD_BIAS = 0;
let INST_MOD = 0;
let FETCH_WHOLE_QUAD = 0;
let ALT_CONST = 0;
let SAMPLER_INDEX_MODE = 0;
let RESOURCE_INDEX_MODE = 0;
let TEXInst = 1;
}
} // End mayLoad = 0, mayStore = 0, hasSideEffects = 0
def TEX_SAMPLE : R600_TEX <0x10, "TEX_SAMPLE">;
def TEX_SAMPLE_C : R600_TEX <0x18, "TEX_SAMPLE_C">;
def TEX_SAMPLE_L : R600_TEX <0x11, "TEX_SAMPLE_L">;
def TEX_SAMPLE_C_L : R600_TEX <0x19, "TEX_SAMPLE_C_L">;
def TEX_SAMPLE_LB : R600_TEX <0x12, "TEX_SAMPLE_LB">;
def TEX_SAMPLE_C_LB : R600_TEX <0x1A, "TEX_SAMPLE_C_LB">;
def TEX_LD : R600_TEX <0x03, "TEX_LD">;
def TEX_LDPTR : R600_TEX <0x03, "TEX_LDPTR"> {
let INST_MOD = 1;
}
def TEX_GET_TEXTURE_RESINFO : R600_TEX <0x04, "TEX_GET_TEXTURE_RESINFO">;
def TEX_GET_GRADIENTS_H : R600_TEX <0x07, "TEX_GET_GRADIENTS_H">;
def TEX_GET_GRADIENTS_V : R600_TEX <0x08, "TEX_GET_GRADIENTS_V">;
def TEX_SET_GRADIENTS_H : R600_TEX <0x0B, "TEX_SET_GRADIENTS_H">;
def TEX_SET_GRADIENTS_V : R600_TEX <0x0C, "TEX_SET_GRADIENTS_V">;
def TEX_SAMPLE_G : R600_TEX <0x14, "TEX_SAMPLE_G">;
def TEX_SAMPLE_C_G : R600_TEX <0x1C, "TEX_SAMPLE_C_G">;
defm : TexPattern<0, TEX_SAMPLE>;
defm : TexPattern<1, TEX_SAMPLE_C>;
defm : TexPattern<2, TEX_SAMPLE_L>;
defm : TexPattern<3, TEX_SAMPLE_C_L>;
defm : TexPattern<4, TEX_SAMPLE_LB>;
defm : TexPattern<5, TEX_SAMPLE_C_LB>;
defm : TexPattern<6, TEX_LD, v4i32>;
defm : TexPattern<7, TEX_GET_TEXTURE_RESINFO, v4i32>;
defm : TexPattern<8, TEX_GET_GRADIENTS_H>;
defm : TexPattern<9, TEX_GET_GRADIENTS_V>;
defm : TexPattern<10, TEX_LDPTR, v4i32>;
//===----------------------------------------------------------------------===//
// Helper classes for common instructions
//===----------------------------------------------------------------------===//
class MUL_LIT_Common <bits<5> inst> : R600_3OP <
inst, "MUL_LIT",
[]
>;
class MULADD_Common <bits<5> inst> : R600_3OP <
inst, "MULADD",
[]
>;
class MULADD_IEEE_Common <bits<5> inst> : R600_3OP <
inst, "MULADD_IEEE",
[(set f32:$dst, (fmad f32:$src0, f32:$src1, f32:$src2))]
>;
class FMA_Common <bits<5> inst> : R600_3OP <
inst, "FMA",
[(set f32:$dst, (fma f32:$src0, f32:$src1, f32:$src2))], VecALU
>;
class CNDE_Common <bits<5> inst> : R600_3OP <
inst, "CNDE",
[(set f32:$dst, (selectcc f32:$src0, FP_ZERO, f32:$src1, f32:$src2, COND_OEQ))]
>;
class CNDGT_Common <bits<5> inst> : R600_3OP <
inst, "CNDGT",
[(set f32:$dst, (selectcc f32:$src0, FP_ZERO, f32:$src1, f32:$src2, COND_OGT))]
> {
let Itinerary = VecALU;
}
class CNDGE_Common <bits<5> inst> : R600_3OP <
inst, "CNDGE",
[(set f32:$dst, (selectcc f32:$src0, FP_ZERO, f32:$src1, f32:$src2, COND_OGE))]
> {
let Itinerary = VecALU;
}
let isCodeGenOnly = 1, isPseudo = 1, Namespace = "AMDGPU" in {
class R600_VEC2OP<list<dag> pattern> : InstR600 <(outs R600_Reg32:$dst), (ins
// Slot X
UEM:$update_exec_mask_X, UP:$update_pred_X, WRITE:$write_X,
OMOD:$omod_X, REL:$dst_rel_X, CLAMP:$clamp_X,
R600_TReg32_X:$src0_X, NEG:$src0_neg_X, REL:$src0_rel_X, ABS:$src0_abs_X, SEL:$src0_sel_X,
R600_TReg32_X:$src1_X, NEG:$src1_neg_X, REL:$src1_rel_X, ABS:$src1_abs_X, SEL:$src1_sel_X,
R600_Pred:$pred_sel_X,
// Slot Y
UEM:$update_exec_mask_Y, UP:$update_pred_Y, WRITE:$write_Y,
OMOD:$omod_Y, REL:$dst_rel_Y, CLAMP:$clamp_Y,
R600_TReg32_Y:$src0_Y, NEG:$src0_neg_Y, REL:$src0_rel_Y, ABS:$src0_abs_Y, SEL:$src0_sel_Y,
R600_TReg32_Y:$src1_Y, NEG:$src1_neg_Y, REL:$src1_rel_Y, ABS:$src1_abs_Y, SEL:$src1_sel_Y,
R600_Pred:$pred_sel_Y,
// Slot Z
UEM:$update_exec_mask_Z, UP:$update_pred_Z, WRITE:$write_Z,
OMOD:$omod_Z, REL:$dst_rel_Z, CLAMP:$clamp_Z,
R600_TReg32_Z:$src0_Z, NEG:$src0_neg_Z, REL:$src0_rel_Z, ABS:$src0_abs_Z, SEL:$src0_sel_Z,
R600_TReg32_Z:$src1_Z, NEG:$src1_neg_Z, REL:$src1_rel_Z, ABS:$src1_abs_Z, SEL:$src1_sel_Z,
R600_Pred:$pred_sel_Z,
// Slot W
UEM:$update_exec_mask_W, UP:$update_pred_W, WRITE:$write_W,
OMOD:$omod_W, REL:$dst_rel_W, CLAMP:$clamp_W,
R600_TReg32_W:$src0_W, NEG:$src0_neg_W, REL:$src0_rel_W, ABS:$src0_abs_W, SEL:$src0_sel_W,
R600_TReg32_W:$src1_W, NEG:$src1_neg_W, REL:$src1_rel_W, ABS:$src1_abs_W, SEL:$src1_sel_W,
R600_Pred:$pred_sel_W,
LITERAL:$literal0, LITERAL:$literal1),
"",
pattern,
AnyALU> {
let UseNamedOperandTable = 1;
}
}
def DOT_4 : R600_VEC2OP<[(set R600_Reg32:$dst, (DOT4
R600_TReg32_X:$src0_X, R600_TReg32_X:$src1_X,
R600_TReg32_Y:$src0_Y, R600_TReg32_Y:$src1_Y,
R600_TReg32_Z:$src0_Z, R600_TReg32_Z:$src1_Z,
R600_TReg32_W:$src0_W, R600_TReg32_W:$src1_W))]>;
class DOT4_Common <bits<11> inst> : R600_2OP <inst, "DOT4", []>;
let mayLoad = 0, mayStore = 0, hasSideEffects = 0 in {
multiclass CUBE_Common <bits<11> inst> {
def _pseudo : InstR600 <
(outs R600_Reg128:$dst),
(ins R600_Reg128:$src0),
"CUBE $dst $src0",
[(set v4f32:$dst, (int_r600_cube v4f32:$src0))],
VecALU
> {
let isPseudo = 1;
let UseNamedOperandTable = 1;
}
def _real : R600_2OP <inst, "CUBE", []>;
}
} // End mayLoad = 0, mayStore = 0, hasSideEffects = 0
class EXP_IEEE_Common <bits<11> inst> : R600_1OP_Helper <
inst, "EXP_IEEE", fexp2
> {
let Itinerary = TransALU;
}
class FLT_TO_INT_Common <bits<11> inst> : R600_1OP_Helper <
inst, "FLT_TO_INT", fp_to_sint
> {
let Itinerary = TransALU;
}
class INT_TO_FLT_Common <bits<11> inst> : R600_1OP_Helper <
inst, "INT_TO_FLT", sint_to_fp
> {
let Itinerary = TransALU;
}
class FLT_TO_UINT_Common <bits<11> inst> : R600_1OP_Helper <
inst, "FLT_TO_UINT", fp_to_uint
> {
let Itinerary = TransALU;
}
class UINT_TO_FLT_Common <bits<11> inst> : R600_1OP_Helper <
inst, "UINT_TO_FLT", uint_to_fp
> {
let Itinerary = TransALU;
}
class LOG_CLAMPED_Common <bits<11> inst> : R600_1OP <
inst, "LOG_CLAMPED", []
>;
class LOG_IEEE_Common <bits<11> inst> : R600_1OP_Helper <
inst, "LOG_IEEE", flog2
> {
let Itinerary = TransALU;
}
class LSHL_Common <bits<11> inst> : R600_2OP_Helper <inst, "LSHL", shl>;
class LSHR_Common <bits<11> inst> : R600_2OP_Helper <inst, "LSHR", srl>;
class ASHR_Common <bits<11> inst> : R600_2OP_Helper <inst, "ASHR", sra>;
class MULHI_INT_Common <bits<11> inst> : R600_2OP_Helper <
inst, "MULHI_INT", mulhs> {
let Itinerary = TransALU;
}
class MULHI_INT24_Common <bits<11> inst> : R600_2OP_Helper <
inst, "MULHI_INT24", AMDGPUmulhi_i24> {
let Itinerary = VecALU;
}
class MULHI_UINT_Common <bits<11> inst> : R600_2OP_Helper <
inst, "MULHI", mulhu> {
let Itinerary = TransALU;
}
class MULHI_UINT24_Common <bits<11> inst> : R600_2OP_Helper <
inst, "MULHI_UINT24", AMDGPUmulhi_u24> {
let Itinerary = VecALU;
}
class MULLO_INT_Common <bits<11> inst> : R600_2OP_Helper <
inst, "MULLO_INT", mul> {
let Itinerary = TransALU;
}
class MULLO_UINT_Common <bits<11> inst> : R600_2OP <inst, "MULLO_UINT", []> {
let Itinerary = TransALU;
}
class RECIP_CLAMPED_Common <bits<11> inst> : R600_1OP <
inst, "RECIP_CLAMPED", []
> {
let Itinerary = TransALU;
}
class RECIP_IEEE_Common <bits<11> inst> : R600_1OP <
inst, "RECIP_IEEE", [(set f32:$dst, (AMDGPUrcp f32:$src0))]
> {
let Itinerary = TransALU;
}
class RECIP_UINT_Common <bits<11> inst> : R600_1OP_Helper <
inst, "RECIP_UINT", AMDGPUurecip
> {
let Itinerary = TransALU;
}
// Clamped to maximum.
class RECIPSQRT_CLAMPED_Common <bits<11> inst> : R600_1OP_Helper <
inst, "RECIPSQRT_CLAMPED", AMDGPUrsq_clamp
> {
let Itinerary = TransALU;
}
class RECIPSQRT_IEEE_Common <bits<11> inst> : R600_1OP_Helper <
inst, "RECIPSQRT_IEEE", AMDGPUrsq> {
let Itinerary = TransALU;
}
// TODO: There is also RECIPSQRT_FF which clamps to zero.
class SIN_Common <bits<11> inst> : R600_1OP <
inst, "SIN", [(set f32:$dst, (SIN_HW f32:$src0))]>{
let Trig = 1;
let Itinerary = TransALU;
}
class COS_Common <bits<11> inst> : R600_1OP <
inst, "COS", [(set f32:$dst, (COS_HW f32:$src0))]> {
let Trig = 1;
let Itinerary = TransALU;
}
def CLAMP_R600 : CLAMP <R600_Reg32>;
def FABS_R600 : FABS<R600_Reg32>;
def FNEG_R600 : FNEG<R600_Reg32>;
//===----------------------------------------------------------------------===//
// Helper patterns for complex intrinsics
//===----------------------------------------------------------------------===//
// FIXME: Should be predicated on unsafe fp math.
multiclass DIV_Common <InstR600 recip_ieee> {
def : Pat<
(fdiv f32:$src0, f32:$src1),
(MUL_IEEE $src0, (recip_ieee $src1))
>;
def : RcpPat<recip_ieee, f32>;
}
//===----------------------------------------------------------------------===//
// R600 / R700 Instructions
//===----------------------------------------------------------------------===//
let Predicates = [isR600] in {
def MUL_LIT_r600 : MUL_LIT_Common<0x0C>;
def MULADD_r600 : MULADD_Common<0x10>;
def MULADD_IEEE_r600 : MULADD_IEEE_Common<0x14>;
def CNDE_r600 : CNDE_Common<0x18>;
def CNDGT_r600 : CNDGT_Common<0x19>;
def CNDGE_r600 : CNDGE_Common<0x1A>;
def DOT4_r600 : DOT4_Common<0x50>;
defm CUBE_r600 : CUBE_Common<0x52>;
def EXP_IEEE_r600 : EXP_IEEE_Common<0x61>;
def LOG_CLAMPED_r600 : LOG_CLAMPED_Common<0x62>;
def LOG_IEEE_r600 : LOG_IEEE_Common<0x63>;
def RECIP_CLAMPED_r600 : RECIP_CLAMPED_Common<0x64>;
def RECIP_IEEE_r600 : RECIP_IEEE_Common<0x66>;
def RECIPSQRT_CLAMPED_r600 : RECIPSQRT_CLAMPED_Common<0x67>;
def RECIPSQRT_IEEE_r600 : RECIPSQRT_IEEE_Common<0x69>;
def FLT_TO_INT_r600 : FLT_TO_INT_Common<0x6b>;
def INT_TO_FLT_r600 : INT_TO_FLT_Common<0x6c>;
def FLT_TO_UINT_r600 : FLT_TO_UINT_Common<0x79>;
def UINT_TO_FLT_r600 : UINT_TO_FLT_Common<0x6d>;
def SIN_r600 : SIN_Common<0x6E>;
def COS_r600 : COS_Common<0x6F>;
def ASHR_r600 : ASHR_Common<0x70>;
def LSHR_r600 : LSHR_Common<0x71>;
def LSHL_r600 : LSHL_Common<0x72>;
def MULLO_INT_r600 : MULLO_INT_Common<0x73>;
def MULHI_INT_r600 : MULHI_INT_Common<0x74>;
def MULLO_UINT_r600 : MULLO_UINT_Common<0x75>;
def MULHI_UINT_r600 : MULHI_UINT_Common<0x76>;
def RECIP_UINT_r600 : RECIP_UINT_Common <0x78>;
defm DIV_r600 : DIV_Common<RECIP_IEEE_r600>;
def : POW_Common <LOG_IEEE_r600, EXP_IEEE_r600, MUL>;
def : Pat<(fsqrt f32:$src), (MUL $src, (RECIPSQRT_CLAMPED_r600 $src))>;
def : RsqPat<RECIPSQRT_IEEE_r600, f32>;
def R600_ExportSwz : ExportSwzInst {
let Word1{20-17} = 0; // BURST_COUNT
let Word1{21} = eop;
let Word1{22} = 0; // VALID_PIXEL_MODE
let Word1{30-23} = inst;
let Word1{31} = 1; // BARRIER
}
defm : ExportPattern<R600_ExportSwz, 39>;
def R600_ExportBuf : ExportBufInst {
let Word1{20-17} = 0; // BURST_COUNT
let Word1{21} = eop;
let Word1{22} = 0; // VALID_PIXEL_MODE
let Word1{30-23} = inst;
let Word1{31} = 1; // BARRIER
}
defm : SteamOutputExportPattern<R600_ExportBuf, 0x20, 0x21, 0x22, 0x23>;
def CF_TC_R600 : CF_CLAUSE_R600<1, (ins i32imm:$ADDR, i32imm:$CNT),
"TEX $CNT @$ADDR"> {
let POP_COUNT = 0;
}
def CF_VC_R600 : CF_CLAUSE_R600<2, (ins i32imm:$ADDR, i32imm:$CNT),
"VTX $CNT @$ADDR"> {
let POP_COUNT = 0;
}
def WHILE_LOOP_R600 : CF_CLAUSE_R600<6, (ins i32imm:$ADDR),
"LOOP_START_DX10 @$ADDR"> {
let POP_COUNT = 0;
let CNT = 0;
}
def END_LOOP_R600 : CF_CLAUSE_R600<5, (ins i32imm:$ADDR), "END_LOOP @$ADDR"> {
let POP_COUNT = 0;
let CNT = 0;
}
def LOOP_BREAK_R600 : CF_CLAUSE_R600<9, (ins i32imm:$ADDR),
"LOOP_BREAK @$ADDR"> {
let POP_COUNT = 0;
let CNT = 0;
}
def CF_CONTINUE_R600 : CF_CLAUSE_R600<8, (ins i32imm:$ADDR),
"CONTINUE @$ADDR"> {
let POP_COUNT = 0;
let CNT = 0;
}
def CF_JUMP_R600 : CF_CLAUSE_R600<10, (ins i32imm:$ADDR, i32imm:$POP_COUNT),
"JUMP @$ADDR POP:$POP_COUNT"> {
let CNT = 0;
}
def CF_PUSH_ELSE_R600 : CF_CLAUSE_R600<12, (ins i32imm:$ADDR),
"PUSH_ELSE @$ADDR"> {
let CNT = 0;
let POP_COUNT = 0; // FIXME?
}
def CF_ELSE_R600 : CF_CLAUSE_R600<13, (ins i32imm:$ADDR, i32imm:$POP_COUNT),
"ELSE @$ADDR POP:$POP_COUNT"> {
let CNT = 0;
}
def CF_CALL_FS_R600 : CF_CLAUSE_R600<19, (ins), "CALL_FS"> {
let ADDR = 0;
let CNT = 0;
let POP_COUNT = 0;
}
def POP_R600 : CF_CLAUSE_R600<14, (ins i32imm:$ADDR, i32imm:$POP_COUNT),
"POP @$ADDR POP:$POP_COUNT"> {
let CNT = 0;
}
def CF_END_R600 : CF_CLAUSE_R600<0, (ins), "CF_END"> {
let CNT = 0;
let POP_COUNT = 0;
let ADDR = 0;
let END_OF_PROGRAM = 1;
}
}
//===----------------------------------------------------------------------===//
// Regist loads and stores - for indirect addressing
//===----------------------------------------------------------------------===//
defm R600_ : RegisterLoadStore <R600_Reg32, FRAMEri, ADDRIndirect>;
// Hardcode channel to 0
// NOTE: LSHR is not available here. LSHR is per family instruction
def : Pat <
(i32 (load_private ADDRIndirect:$addr) ),
(R600_RegisterLoad FRAMEri:$addr, (i32 0))
>;
def : Pat <
(store_private i32:$val, ADDRIndirect:$addr),
(R600_RegisterStore i32:$val, FRAMEri:$addr, (i32 0))
>;
//===----------------------------------------------------------------------===//
// Pseudo instructions
//===----------------------------------------------------------------------===//
let isPseudo = 1 in {
def PRED_X : InstR600 <
(outs R600_Predicate_Bit:$dst),
(ins R600_Reg32:$src0, i32imm:$src1, i32imm:$flags),
"", [], NullALU> {
let FlagOperandIdx = 3;
}
let isTerminator = 1, isBranch = 1 in {
def JUMP_COND : InstR600 <
(outs),
(ins brtarget:$target, R600_Predicate_Bit:$p),
"JUMP $target ($p)",
[], AnyALU
>;
def JUMP : InstR600 <
(outs),
(ins brtarget:$target),
"JUMP $target",
[], AnyALU
>
{
let isPredicable = 1;
let isBarrier = 1;
}
} // End isTerminator = 1, isBranch = 1
let usesCustomInserter = 1 in {
let mayLoad = 0, mayStore = 0, hasSideEffects = 1 in {
def MASK_WRITE : AMDGPUShaderInst <
(outs),
(ins R600_Reg32:$src),
"MASK_WRITE $src",
[]
>;
} // End mayLoad = 0, mayStore = 0, hasSideEffects = 1
def TXD: InstR600 <
(outs R600_Reg128:$dst),
(ins R600_Reg128:$src0, R600_Reg128:$src1, R600_Reg128:$src2,
i32imm:$resourceId, i32imm:$samplerId, i32imm:$textureTarget),
"TXD $dst, $src0, $src1, $src2, $resourceId, $samplerId, $textureTarget", [],
NullALU > {
let TEXInst = 1;
}
def TXD_SHADOW: InstR600 <
(outs R600_Reg128:$dst),
(ins R600_Reg128:$src0, R600_Reg128:$src1, R600_Reg128:$src2,
i32imm:$resourceId, i32imm:$samplerId, i32imm:$textureTarget),
"TXD_SHADOW $dst, $src0, $src1, $src2, $resourceId, $samplerId, $textureTarget",
[], NullALU> {
let TEXInst = 1;
}
} // End isPseudo = 1
} // End usesCustomInserter = 1
//===----------------------------------------------------------------------===//
// Constant Buffer Addressing Support
//===----------------------------------------------------------------------===//
let usesCustomInserter = 1, isCodeGenOnly = 1, isPseudo = 1, Namespace = "AMDGPU" in {
def CONST_COPY : Instruction {
let OutOperandList = (outs R600_Reg32:$dst);
let InOperandList = (ins i32imm:$src);
let Pattern =
[(set R600_Reg32:$dst, (CONST_ADDRESS ADDRGA_CONST_OFFSET:$src))];
let AsmString = "CONST_COPY";
let hasSideEffects = 0;
let isAsCheapAsAMove = 1;
let Itinerary = NullALU;
}
} // end usesCustomInserter = 1, isCodeGenOnly = 1, isPseudo = 1, Namespace = "AMDGPU"
def TEX_VTX_CONSTBUF :
InstR600ISA <(outs R600_Reg128:$dst), (ins MEMxi:$ptr, i32imm:$buffer_id), "VTX_READ_eg $dst, $ptr",
[(set v4i32:$dst, (CONST_ADDRESS ADDRGA_VAR_OFFSET:$ptr, (i32 imm:$buffer_id)))]>,
VTX_WORD1_GPR, VTX_WORD0_eg {
let VC_INST = 0;
let FETCH_TYPE = 2;
let FETCH_WHOLE_QUAD = 0;
let SRC_REL = 0;
let SRC_SEL_X = 0;
let DST_REL = 0;
let USE_CONST_FIELDS = 0;
let NUM_FORMAT_ALL = 2;
let FORMAT_COMP_ALL = 1;
let SRF_MODE_ALL = 1;
let MEGA_FETCH_COUNT = 16;
let DST_SEL_X = 0;
let DST_SEL_Y = 1;
let DST_SEL_Z = 2;
let DST_SEL_W = 3;
let DATA_FORMAT = 35;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
// LLVM can only encode 64-bit instructions, so these fields are manually
// encoded in R600CodeEmitter
//
// bits<16> OFFSET;
// bits<2> ENDIAN_SWAP = 0;
// bits<1> CONST_BUF_NO_STRIDE = 0;
// bits<1> MEGA_FETCH = 0;
// bits<1> ALT_CONST = 0;
// bits<2> BUFFER_INDEX_MODE = 0;
// VTX_WORD2 (LLVM can only encode 64-bit instructions, so WORD2 encoding
// is done in R600CodeEmitter
//
// Inst{79-64} = OFFSET;
// Inst{81-80} = ENDIAN_SWAP;
// Inst{82} = CONST_BUF_NO_STRIDE;
// Inst{83} = MEGA_FETCH;
// Inst{84} = ALT_CONST;
// Inst{86-85} = BUFFER_INDEX_MODE;
// Inst{95-86} = 0; Reserved
// VTX_WORD3 (Padding)
//
// Inst{127-96} = 0;
let VTXInst = 1;
}
def TEX_VTX_TEXBUF:
InstR600ISA <(outs R600_Reg128:$dst), (ins MEMxi:$ptr, i32imm:$buffer_id), "TEX_VTX_EXPLICIT_READ $dst, $ptr">,
VTX_WORD1_GPR, VTX_WORD0_eg {
let VC_INST = 0;
let FETCH_TYPE = 2;
let FETCH_WHOLE_QUAD = 0;
let SRC_REL = 0;
let SRC_SEL_X = 0;
let DST_REL = 0;
let USE_CONST_FIELDS = 1;
let NUM_FORMAT_ALL = 0;
let FORMAT_COMP_ALL = 0;
let SRF_MODE_ALL = 1;
let MEGA_FETCH_COUNT = 16;
let DST_SEL_X = 0;
let DST_SEL_Y = 1;
let DST_SEL_Z = 2;
let DST_SEL_W = 3;
let DATA_FORMAT = 0;
let Inst{31-0} = Word0;
let Inst{63-32} = Word1;
// LLVM can only encode 64-bit instructions, so these fields are manually
// encoded in R600CodeEmitter
//
// bits<16> OFFSET;
// bits<2> ENDIAN_SWAP = 0;
// bits<1> CONST_BUF_NO_STRIDE = 0;
// bits<1> MEGA_FETCH = 0;
// bits<1> ALT_CONST = 0;
// bits<2> BUFFER_INDEX_MODE = 0;
// VTX_WORD2 (LLVM can only encode 64-bit instructions, so WORD2 encoding
// is done in R600CodeEmitter
//
// Inst{79-64} = OFFSET;
// Inst{81-80} = ENDIAN_SWAP;
// Inst{82} = CONST_BUF_NO_STRIDE;
// Inst{83} = MEGA_FETCH;
// Inst{84} = ALT_CONST;
// Inst{86-85} = BUFFER_INDEX_MODE;
// Inst{95-86} = 0; Reserved
// VTX_WORD3 (Padding)
//
// Inst{127-96} = 0;
let VTXInst = 1;
}
//===---------------------------------------------------------------------===//
// Flow and Program control Instructions
//===---------------------------------------------------------------------===//
class ILFormat<dag outs, dag ins, string asmstr, list<dag> pattern>
: Instruction {
let Namespace = "AMDGPU";
dag OutOperandList = outs;
dag InOperandList = ins;
let Pattern = pattern;
let AsmString = !strconcat(asmstr, "\n");
let isPseudo = 1;
let Itinerary = NullALU;
bit hasIEEEFlag = 0;
bit hasZeroOpFlag = 0;
let mayLoad = 0;
let mayStore = 0;
let hasSideEffects = 0;
let isCodeGenOnly = 1;
}
multiclass BranchConditional<SDNode Op, RegisterClass rci, RegisterClass rcf> {
def _i32 : ILFormat<(outs),
(ins brtarget:$target, rci:$src0),
"; i32 Pseudo branch instruction",
[(Op bb:$target, (i32 rci:$src0))]>;
def _f32 : ILFormat<(outs),
(ins brtarget:$target, rcf:$src0),
"; f32 Pseudo branch instruction",
[(Op bb:$target, (f32 rcf:$src0))]>;
}
// Only scalar types should generate flow control
multiclass BranchInstr<string name> {
def _i32 : ILFormat<(outs), (ins R600_Reg32:$src),
!strconcat(name, " $src"), []>;
def _f32 : ILFormat<(outs), (ins R600_Reg32:$src),
!strconcat(name, " $src"), []>;
}
// Only scalar types should generate flow control
multiclass BranchInstr2<string name> {
def _i32 : ILFormat<(outs), (ins R600_Reg32:$src0, R600_Reg32:$src1),
!strconcat(name, " $src0, $src1"), []>;
def _f32 : ILFormat<(outs), (ins R600_Reg32:$src0, R600_Reg32:$src1),
!strconcat(name, " $src0, $src1"), []>;
}
//===---------------------------------------------------------------------===//
// Custom Inserter for Branches and returns, this eventually will be a
// separate pass
//===---------------------------------------------------------------------===//
let isTerminator = 1, usesCustomInserter = 1, isBranch = 1, isBarrier = 1 in {
def BRANCH : ILFormat<(outs), (ins brtarget:$target),
"; Pseudo unconditional branch instruction",
[(br bb:$target)]>;
defm BRANCH_COND : BranchConditional<IL_brcond, R600_Reg32, R600_Reg32>;
}
//===---------------------------------------------------------------------===//
// Return instruction
//===---------------------------------------------------------------------===//
let isTerminator = 1, isReturn = 1, hasCtrlDep = 1,
usesCustomInserter = 1 in {
def RETURN : ILFormat<(outs), (ins variable_ops),
"RETURN", [(AMDGPUendpgm)]
>;
}
//===----------------------------------------------------------------------===//
// Branch Instructions
//===----------------------------------------------------------------------===//
def IF_PREDICATE_SET : ILFormat<(outs), (ins R600_Reg32:$src),
"IF_PREDICATE_SET $src", []>;
let isTerminator=1 in {
def BREAK : ILFormat< (outs), (ins),
"BREAK", []>;
def CONTINUE : ILFormat< (outs), (ins),
"CONTINUE", []>;
def DEFAULT : ILFormat< (outs), (ins),
"DEFAULT", []>;
def ELSE : ILFormat< (outs), (ins),
"ELSE", []>;
def ENDSWITCH : ILFormat< (outs), (ins),
"ENDSWITCH", []>;
def ENDMAIN : ILFormat< (outs), (ins),
"ENDMAIN", []>;
def END : ILFormat< (outs), (ins),
"END", []>;
def ENDFUNC : ILFormat< (outs), (ins),
"ENDFUNC", []>;
def ENDIF : ILFormat< (outs), (ins),
"ENDIF", []>;
def WHILELOOP : ILFormat< (outs), (ins),
"WHILE", []>;
def ENDLOOP : ILFormat< (outs), (ins),
"ENDLOOP", []>;
def FUNC : ILFormat< (outs), (ins),
"FUNC", []>;
def RETDYN : ILFormat< (outs), (ins),
"RET_DYN", []>;
// This opcode has custom swizzle pattern encoded in Swizzle Encoder
defm IF_LOGICALNZ : BranchInstr<"IF_LOGICALNZ">;
// This opcode has custom swizzle pattern encoded in Swizzle Encoder
defm IF_LOGICALZ : BranchInstr<"IF_LOGICALZ">;
// This opcode has custom swizzle pattern encoded in Swizzle Encoder
defm BREAK_LOGICALNZ : BranchInstr<"BREAK_LOGICALNZ">;
// This opcode has custom swizzle pattern encoded in Swizzle Encoder
defm BREAK_LOGICALZ : BranchInstr<"BREAK_LOGICALZ">;
// This opcode has custom swizzle pattern encoded in Swizzle Encoder
defm CONTINUE_LOGICALNZ : BranchInstr<"CONTINUE_LOGICALNZ">;
// This opcode has custom swizzle pattern encoded in Swizzle Encoder
defm CONTINUE_LOGICALZ : BranchInstr<"CONTINUE_LOGICALZ">;
defm IFC : BranchInstr2<"IFC">;
defm BREAKC : BranchInstr2<"BREAKC">;
defm CONTINUEC : BranchInstr2<"CONTINUEC">;
}
//===----------------------------------------------------------------------===//
// Indirect addressing pseudo instructions
//===----------------------------------------------------------------------===//
let isPseudo = 1 in {
class ExtractVertical <RegisterClass vec_rc> : InstR600 <
(outs R600_Reg32:$dst),
(ins vec_rc:$vec, R600_Reg32:$index), "",
[],
AnyALU
>;
let Constraints = "$dst = $vec" in {
class InsertVertical <RegisterClass vec_rc> : InstR600 <
(outs vec_rc:$dst),
(ins vec_rc:$vec, R600_Reg32:$value, R600_Reg32:$index), "",
[],
AnyALU
>;
} // End Constraints = "$dst = $vec"
} // End isPseudo = 1
def R600_EXTRACT_ELT_V2 : ExtractVertical <R600_Reg64Vertical>;
def R600_EXTRACT_ELT_V4 : ExtractVertical <R600_Reg128Vertical>;
def R600_INSERT_ELT_V2 : InsertVertical <R600_Reg64Vertical>;
def R600_INSERT_ELT_V4 : InsertVertical <R600_Reg128Vertical>;
class ExtractVerticalPat <Instruction inst, ValueType vec_ty,
ValueType scalar_ty> : Pat <
(scalar_ty (extractelt vec_ty:$vec, i32:$index)),
(inst $vec, $index)
>;
def : ExtractVerticalPat <R600_EXTRACT_ELT_V2, v2i32, i32>;
def : ExtractVerticalPat <R600_EXTRACT_ELT_V2, v2f32, f32>;
def : ExtractVerticalPat <R600_EXTRACT_ELT_V4, v4i32, i32>;
def : ExtractVerticalPat <R600_EXTRACT_ELT_V4, v4f32, f32>;
class InsertVerticalPat <Instruction inst, ValueType vec_ty,
ValueType scalar_ty> : Pat <
(vec_ty (insertelt vec_ty:$vec, scalar_ty:$value, i32:$index)),
(inst $vec, $value, $index)
>;
def : InsertVerticalPat <R600_INSERT_ELT_V2, v2i32, i32>;
def : InsertVerticalPat <R600_INSERT_ELT_V2, v2f32, f32>;
def : InsertVerticalPat <R600_INSERT_ELT_V4, v4i32, i32>;
def : InsertVerticalPat <R600_INSERT_ELT_V4, v4f32, f32>;
//===----------------------------------------------------------------------===//
// ISel Patterns
//===----------------------------------------------------------------------===//
// CND*_INT Patterns for f32 True / False values
class CND_INT_f32 <InstR600 cnd, CondCode cc> : Pat <
(selectcc i32:$src0, 0, f32:$src1, f32:$src2, cc),
(cnd $src0, $src1, $src2)
>;
def : CND_INT_f32 <CNDE_INT, SETEQ>;
def : CND_INT_f32 <CNDGT_INT, SETGT>;
def : CND_INT_f32 <CNDGE_INT, SETGE>;
//CNDGE_INT extra pattern
def : Pat <
(selectcc i32:$src0, -1, i32:$src1, i32:$src2, COND_SGT),
(CNDGE_INT $src0, $src1, $src2)
>;
// KIL Patterns
def KILP : Pat <
(int_AMDGPU_kilp),
(MASK_WRITE (KILLGT (f32 ONE), (f32 ZERO)))
>;
def KIL : Pat <
(int_AMDGPU_kill f32:$src0),
(MASK_WRITE (KILLGT (f32 ZERO), $src0))
>;
def : Extract_Element <f32, v4f32, 0, sub0>;
def : Extract_Element <f32, v4f32, 1, sub1>;
def : Extract_Element <f32, v4f32, 2, sub2>;
def : Extract_Element <f32, v4f32, 3, sub3>;
def : Insert_Element <f32, v4f32, 0, sub0>;
def : Insert_Element <f32, v4f32, 1, sub1>;
def : Insert_Element <f32, v4f32, 2, sub2>;
def : Insert_Element <f32, v4f32, 3, sub3>;
def : Extract_Element <i32, v4i32, 0, sub0>;
def : Extract_Element <i32, v4i32, 1, sub1>;
def : Extract_Element <i32, v4i32, 2, sub2>;
def : Extract_Element <i32, v4i32, 3, sub3>;
def : Insert_Element <i32, v4i32, 0, sub0>;
def : Insert_Element <i32, v4i32, 1, sub1>;
def : Insert_Element <i32, v4i32, 2, sub2>;
def : Insert_Element <i32, v4i32, 3, sub3>;
def : Extract_Element <f32, v2f32, 0, sub0>;
def : Extract_Element <f32, v2f32, 1, sub1>;
def : Insert_Element <f32, v2f32, 0, sub0>;
def : Insert_Element <f32, v2f32, 1, sub1>;
def : Extract_Element <i32, v2i32, 0, sub0>;
def : Extract_Element <i32, v2i32, 1, sub1>;
def : Insert_Element <i32, v2i32, 0, sub0>;
def : Insert_Element <i32, v2i32, 1, sub1>;
// bitconvert patterns
def : BitConvert <i32, f32, R600_Reg32>;
def : BitConvert <f32, i32, R600_Reg32>;
def : BitConvert <v2f32, v2i32, R600_Reg64>;
def : BitConvert <v2i32, v2f32, R600_Reg64>;
def : BitConvert <v4f32, v4i32, R600_Reg128>;
def : BitConvert <v4i32, v4f32, R600_Reg128>;
// DWORDADDR pattern
def : DwordAddrPat <i32, R600_Reg32>;
} // End isR600toCayman Predicate
def getLDSNoRetOp : InstrMapping {
let FilterClass = "R600_LDS_1A1D";
let RowFields = ["BaseOp"];
let ColFields = ["DisableEncoding"];
let KeyCol = ["$dst"];
let ValueCols = [[""""]];
}