llvm-project/llvm/test/TableGen/GlobalISelEmitterCustomPredicate.td
Min-Yih Hsu d36d8d67f5
[TableGen][GISel] Fix incorrect binding of predicate operands upon PredicateUsesOperands = 1 (#68125)
When `PredicateUsesOperands` is set to true, GlobalISelEmitter preserves
the original index of predicate operands and uses that information on
each predicate usage. However, previously it only looked up the original
index for "actual" operands (i.e. operands of a predicate usage) that
are leaf nodes, which is an incorrect assumption.
This patch fix it by generalizing the acceptable kinds of actual
operands for predicate as well as checking the existance of bound
predicate operands.
2023-10-05 08:57:15 -07:00

290 lines
15 KiB
TableGen

// RUN: llvm-tblgen %s -gen-global-isel -optimize-match-table=false -I %p/../../include -I %p/Common -o - | FileCheck %s
// Verify that all MI predicates are enumerated.
//
// CHECK: // PatFrag predicates.
// CHECK-NEXT: enum {
// CHECK-NEXT: GICXXPred_MI_Predicate_and_or_pat = GICXXPred_Invalid + 1,
// CHECK-NEXT: GICXXPred_MI_Predicate_mul_pat,
// CHECK-NEXT: GICXXPred_MI_Predicate_or_oneuse,
// CHECK-NEXT: GICXXPred_MI_Predicate_patfrags_test_pat,
// CHECK-NEXT: GICXXPred_MI_Predicate_sub3_pat,
// CHECK-NEXT: };
// Verify that we emit cases for all MI predicates.
//
// CHECK: bool MyTargetInstructionSelector::testMIPredicate_MI(
// CHECK: case GICXXPred_MI_Predicate_and_or_pat: {
// CHECK: return doesComplexCheck(MI);
// CHECK: case GICXXPred_MI_Predicate_mul_pat: {
// CHECK: return doesComplexCheck(MI);
// CHECK: case GICXXPred_MI_Predicate_or_oneuse: {
// CHECK: return MRI.hasOneNonDBGUse(MI.getOperand(0).getReg());
// CHECK: case GICXXPred_MI_Predicate_patfrags_test_pat: {
// CHECK: return doesComplexCheck(MI);
// CHECK: case GICXXPred_MI_Predicate_sub3_pat: {
// CHECK: return doesComplexCheck(MI);
include "llvm/Target/Target.td"
include "GlobalISelEmitterCommon.td"
// Boilerplate code for setting up some registers with subregs.
class MyReg<string n, list<Register> subregs = []>
: Register<n> {
let SubRegs = subregs;
}
class MyClass<int size, list<ValueType> types, dag registers>
: RegisterClass<"Test", types, size, registers> {
let Size = size;
}
def sub0 : SubRegIndex<16>;
def sub1 : SubRegIndex<16, 16>;
def S0 : MyReg<"s0">;
def S1 : MyReg<"s1">;
def SRegs : MyClass<16, [i16], (sequence "S%u", 0, 1)>;
let SubRegIndices = [sub0, sub1] in {
def D0 : MyReg<"d0", [S0, S1]>;
}
def DRegs : MyClass<32, [i32], (sequence "D%u", 0, 0)>;
def DOP : RegisterOperand<DRegs>;
def AND_OR : I<(outs DRegs:$dst), (ins DOP:$src0, DOP:$src1, DOP:$src2), []>;
def MUL_OR : I<(outs DRegs:$dst), (ins DOP:$src0, DOP:$src1, DOP:$src2), []>;
def or_oneuse : PatFrag<
(ops node:$x, node:$y),
(or node:$x, node:$y), [{ return foo(); }]> {
let GISelPredicateCode = [{
return MRI.hasOneNonDBGUse(MI.getOperand(0).getReg());
}];
}
// FIXME: GISelPredicateCode ignored if DAG predicate not set.
def and_or_pat : PatFrag<
(ops node:$x, node:$y, node:$z),
(and (or node:$x, node:$y), node:$z), [{ return foo(); }]> {
let GISelPredicateCode = [{
return doesComplexCheck(MI);
}];
let PredicateCodeUsesOperands = 1;
}
// CHECK: GIM_Try, /*On fail goto*//*Label 0*/ 99, // Rule ID 7 //
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_AND,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/0, /*Op*/1, /*StoreIdx*/2, // Name : pred:3:z
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[0] Operand 2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/1, /*MI*/0, /*OpIdx*/2, // MIs[1]
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/1, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/1, TargetOpcode::G_OR,
// CHECK-NEXT: // MIs[1] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[1] src0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/1, /*Op*/1, /*StoreIdx*/0, // Name : pred:3:x
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/1, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[1] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/1, /*Op*/2, /*StoreIdx*/1, // Name : pred:3:y
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/2, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: GIM_CheckCxxInsnPredicate, /*MI*/0, /*FnId*/GICXXPred_MI_Predicate_and_or_pat,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/1,
// CHECK-NEXT: // (and:{ *:[i32] } DOP:{ *:[i32] }:$src2:$pred:3:z, (or:{ *:[i32] } DOP:{ *:[i32] }:$src0:$pred:3:x, DOP:{ *:[i32] }:$src1:$pred:3:y))<<P:3:Predicate_and_or_pat>> => (AND_OR:{ *:[i32] } DOP:{ *:[i32] }:$src0, DOP:{ *:[i32] }:$src1, DOP:{ *:[i32] }:$src2)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::AND_OR,
// CHECK: GIM_Try, /*On fail goto*//*Label 1*/ 198, // Rule ID 3 //
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_AND,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/1, /*MI*/0, /*OpIdx*/1, // MIs[1]
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/1, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/1, TargetOpcode::G_OR,
// CHECK-NEXT: // MIs[1] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[1] src0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/1, /*Op*/1, /*StoreIdx*/0, // Name : pred:3:x
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/1, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[1] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/1, /*Op*/2, /*StoreIdx*/1, // Name : pred:3:y
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/2, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/0, /*Op*/2, /*StoreIdx*/2, // Name : pred:3:z
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/2, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: GIM_CheckCxxInsnPredicate, /*MI*/0, /*FnId*/GICXXPred_MI_Predicate_and_or_pat,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/1,
// CHECK-NEXT: // (and:{ *:[i32] } (or:{ *:[i32] } DOP:{ *:[i32] }:$src0:$pred:3:x, DOP:{ *:[i32] }:$src1:$pred:3:y), DOP:{ *:[i32] }:$src2:$pred:3:z)<<P:3:Predicate_and_or_pat>> => (AND_OR:{ *:[i32] } DOP:{ *:[i32] }:$src0, DOP:{ *:[i32] }:$src1, DOP:{ *:[i32] }:$src2)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::AND_OR,
// Test commutative, standalone pattern.
def : Pat<
(i32 (and_or_pat DOP:$src0, DOP:$src1, DOP:$src2)),
(AND_OR DOP:$src0, DOP:$src1, DOP:$src2)
>;
def mul_pat : PatFrag<
(ops node:$x, node:$y),
(mul node:$x, node:$y), [{ return foo(); }]> {
let GISelPredicateCode = [{
return doesComplexCheck(MI);
}];
let PredicateCodeUsesOperands = 1;
}
// CHECK: GIM_Try, /*On fail goto*//*Label 2*/ 293, // Rule ID 4 //
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_MUL,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/0, /*Op*/1, /*StoreIdx*/0, // Name : pred:4:x
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/1, /*MI*/0, /*OpIdx*/1, // MIs[1]
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/1, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/1, TargetOpcode::G_OR,
// CHECK-NEXT: // MIs[1] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[1] src0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/1, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[1] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/2, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/0, /*Op*/2, /*StoreIdx*/1, // Name : pred:4:y
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/2, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: GIM_CheckCxxInsnPredicate, /*MI*/0, /*FnId*/GICXXPred_MI_Predicate_mul_pat,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/1,
// CHECK-NEXT: // (mul:{ *:[i32] } (or:{ *:[i32] } DOP:{ *:[i32] }:$src0, DOP:{ *:[i32] }:$src1):$pred:4:x, DOP:{ *:[i32] }:$src2:$pred:4:y)<<P:4:Predicate_mul_pat>> => (MUL_OR:{ *:[i32] } DOP:{ *:[i32] }:$src0, DOP:{ *:[i32] }:$src1, DOP:{ *:[i32] }:$src2)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MUL_OR,
// CHECK: GIM_Try, /*On fail goto*//*Label 3*/ 388, // Rule ID 8 //
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_MUL,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/0, /*Op*/1, /*StoreIdx*/1, // Name : pred:4:y
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/1, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[0] Operand 2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/0, /*Op*/2, /*StoreIdx*/0, // Name : pred:4:x
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/1, /*MI*/0, /*OpIdx*/2, // MIs[1]
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/1, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/1, TargetOpcode::G_OR,
// CHECK-NEXT: // MIs[1] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[1] src0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/1, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[1] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/1, /*Op*/2, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: GIM_CheckCxxInsnPredicate, /*MI*/0, /*FnId*/GICXXPred_MI_Predicate_mul_pat,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/1,
// CHECK-NEXT: // (mul:{ *:[i32] } DOP:{ *:[i32] }:$src2:$pred:4:y, (or:{ *:[i32] } DOP:{ *:[i32] }:$src0, DOP:{ *:[i32] }:$src1):$pred:4:x)<<P:4:Predicate_mul_pat>> => (MUL_OR:{ *:[i32] } DOP:{ *:[i32] }:$src0, DOP:{ *:[i32] }:$src1, DOP:{ *:[i32] }:$src2)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::MUL_OR,
// Test commutative patterns where named operands in the source pattern are not
// directly bound to PatFrag's operands.
def : Pat<
(i32 (mul_pat (or DOP:$src0, DOP:$src1), DOP:$src2)),
(MUL_OR DOP:$src0, DOP:$src1, DOP:$src2)
>;
def sub3_pat : PatFrag<
(ops node:$x, node:$y, node:$z),
(sub (sub node:$x, node:$y), node:$z), [{ return foo(); }]> {
let GISelPredicateCode = [{
return doesComplexCheck(MI);
}];
let PredicateCodeUsesOperands = 1;
}
// CHECK: GIM_Try, /*On fail goto*//*Label 4*/ 475, // Rule ID 0 //
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/0, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/0, TargetOpcode::G_SUB,
// CHECK-NEXT: // MIs[0] dst
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_CheckRegBankForClass, /*MI*/0, /*Op*/0, /*RC*/Test::DRegsRegClassID,
// CHECK-NEXT: // MIs[0] Operand 1
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordInsn, /*DefineMI*/1, /*MI*/0, /*OpIdx*/1, // MIs[1]
// CHECK-NEXT: GIM_CheckNumOperands, /*MI*/1, /*Expected*/3,
// CHECK-NEXT: GIM_CheckOpcode, /*MI*/1, TargetOpcode::G_SUB,
// CHECK-NEXT: // MIs[1] Operand 0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/0, /*Type*/GILLT_s32,
// CHECK-NEXT: // MIs[1] src0
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/1, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/1, /*Op*/1, /*StoreIdx*/0, // Name : pred:1:x
// CHECK-NEXT: // MIs[1] src1
// CHECK-NEXT: GIM_CheckType, /*MI*/1, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/1, /*Op*/2, /*StoreIdx*/1, // Name : pred:1:y
// CHECK-NEXT: // MIs[0] src2
// CHECK-NEXT: GIM_CheckType, /*MI*/0, /*Op*/2, /*Type*/GILLT_s32,
// CHECK-NEXT: GIM_RecordNamedOperand, /*MI*/0, /*Op*/2, /*StoreIdx*/2, // Name : pred:1:z
// CHECK-NEXT: GIM_CheckCxxInsnPredicate, /*MI*/0, /*FnId*/GICXXPred_MI_Predicate_sub3_pat,
// CHECK-NEXT: GIM_CheckIsSafeToFold, /*InsnID*/1,
// CHECK-NEXT: // (sub:{ *:[i32] } (sub:{ *:[i32] } i32:{ *:[i32] }:$src0:$pred:1:x, i32:{ *:[i32] }:$src1:$pred:1:y), i32:{ *:[i32] }:$src2:$pred:1:z)<<P:1:Predicate_sub3_pat>> => (SUB3:{ *:[i32] } i32:{ *:[i32] }:$src0, i32:{ *:[i32] }:$src1, i32:{ *:[i32] }:$src2)
// CHECK-NEXT: GIR_BuildMI, /*InsnID*/0, /*Opcode*/MyTarget::SUB3,
// Test a non-commutative pattern.
def SUB3 : I<(outs DRegs:$dst),
(ins DOP:$src0, DOP:$src1, DOP:$src2),
[(set DRegs:$dst, (sub3_pat i32:$src0, i32:$src1, i32:$src2))]
>;
def patfrags_test_pat : PatFrags<
(ops node:$x, node:$y, node:$z),
[ (xor (add node:$x, node:$y), node:$z),
(xor (sub node:$x, node:$y), node:$z)
], [{ return foo(); }]> {
let GISelPredicateCode = [{
return doesComplexCheck(MI);
}];
let PredicateCodeUsesOperands = 1;
}
// CHECK: GIM_Try, /*On fail goto*//*Label 5*/ 562, // Rule ID 1 //
// CHECK: // (xor:{ *:[i32] } (add:{ *:[i32] } i32:{ *:[i32] }:$src0:$pred:2:x, i32:{ *:[i32] }:$src1:$pred:2:y), i32:{ *:[i32] }:$src2:$pred:2:z)<<P:2:Predicate_patfrags_test_pat>> => (PATFRAGS:{ *:[i32] } i32:{ *:[i32] }:$src0, i32:{ *:[i32] }:$src1, i32:{ *:[i32] }:$src2)
// CHECK: GIM_Try, /*On fail goto*//*Label 6*/ 649, // Rule ID 2 //
// CHECK: // (xor:{ *:[i32] } (sub:{ *:[i32] } i32:{ *:[i32] }:$src0:$pred:2:x, i32:{ *:[i32] }:$src1:$pred:2:y), i32:{ *:[i32] }:$src2:$pred:2:z)<<P:2:Predicate_patfrags_test_pat>> => (PATFRAGS:{ *:[i32] } i32:{ *:[i32] }:$src0, i32:{ *:[i32] }:$src1, i32:{ *:[i32] }:$src2)
// CHECK: GIM_Try, /*On fail goto*//*Label 7*/ 736, // Rule ID 5 //
// CHECK: // (xor:{ *:[i32] } i32:{ *:[i32] }:$src2:$pred:2:z, (add:{ *:[i32] } i32:{ *:[i32] }:$src0:$pred:2:x, i32:{ *:[i32] }:$src1:$pred:2:y))<<P:2:Predicate_patfrags_test_pat>> => (PATFRAGS:{ *:[i32] } i32:{ *:[i32] }:$src0, i32:{ *:[i32] }:$src1, i32:{ *:[i32] }:$src2)
// CHECK: GIM_Try, /*On fail goto*//*Label 8*/ 823, // Rule ID 6 //
// CHECK: // (xor:{ *:[i32] } i32:{ *:[i32] }:$src2:$pred:2:z, (sub:{ *:[i32] } i32:{ *:[i32] }:$src0:$pred:2:x, i32:{ *:[i32] }:$src1:$pred:2:y))<<P:2:Predicate_patfrags_test_pat>> => (PATFRAGS:{ *:[i32] } i32:{ *:[i32] }:$src0, i32:{ *:[i32] }:$src1, i32:{ *:[i32] }:$src2)
// Test a commutative pattern using multiple patterns using PatFrags.
def PATFRAGS : I<(outs DRegs:$dst),
(ins DOP:$src0, DOP:$src1, DOP:$src2),
[(set DRegs:$dst, (patfrags_test_pat i32:$src0, i32:$src1, i32:$src2))]
>;