//===----------------------------------------------------------------------===//
//Rdd[+]=vrmpybsu(Rss,Rtt)
-let Predicates = [HasV5T], isCodeGenOnly = 0 in {
+let Predicates = [HasV5T] in {
def M5_vrmpybsu: T_XTYPE_Vect<"vrmpybsu", 0b110, 0b001, 0>;
def M5_vrmacbsu: T_XTYPE_Vect_acc<"vrmpybsu", 0b110, 0b001, 0>;
// Vector multiply bytes
// Rdd=vmpyb[s]u(Rs,Rt)
-let Predicates = [HasV5T], isCodeGenOnly = 0 in {
+let Predicates = [HasV5T] in {
def M5_vmpybsu: T_XTYPE_mpy64 <"vmpybsu", 0b010, 0b001, 0, 0, 0>;
def M5_vmpybuu: T_XTYPE_mpy64 <"vmpybu", 0b100, 0b001, 0, 0, 0>;
def A5_vaddhubs: T_S3op_1 <"vaddhub", IntRegs, 0b01, 0b001, 0, 1>;
}
-let isCodeGenOnly = 0 in
def S2_asr_i_p_rnd : S_2OpInstImm<"asr", 0b110, 0b111, u6Imm,
[(set I64:$dst,
(sra (i64 (add (i64 (sra I64:$src1, u6ImmPred:$src2)), 1)),
: MInst<(outs DoubleRegs:$dst), (ins DoubleRegs:$src1, u6Imm:$src2),
"$dst = asrrnd($src1, #$src2)">;
-let isCodeGenOnly = 0 in
def C4_fastcorner9 : T_LOGICAL_2OP<"fastcorner9", 0b000, 0, 0>,
Requires<[HasV5T]> {
let Inst{13,7,4} = 0b111;
}
-let isCodeGenOnly = 0 in
def C4_fastcorner9_not : T_LOGICAL_2OP<"!fastcorner9", 0b000, 0, 0>,
Requires<[HasV5T]> {
let Inst{20,13,7,4} = 0b1111;
def HexagonPOPCOUNT: SDNode<"HexagonISD::POPCOUNT", SDTHexagonI32I64>;
-let hasNewValue = 1, validSubTargets = HasV5SubT, isCodeGenOnly = 0 in
+let hasNewValue = 1, validSubTargets = HasV5SubT in
def S5_popcountp : ALU64_rr<(outs IntRegs:$Rd), (ins DoubleRegs:$Rss),
"$Rd = popcount($Rss)",
[(set I32:$Rd, (HexagonPOPCOUNT I64:$Rss))], "", S_2op_tc_2_SLOT23>,
let Inst{4-0} = Rd;
}
-let isCommutable = 1, isCodeGenOnly = 0 in {
+let isCommutable = 1 in {
def F2_sfadd : T_MInstFloat < "sfadd", 0b000, 0b000>;
def F2_sfmpy : T_MInstFloat < "sfmpy", 0b010, 0b000>;
}
-let isCodeGenOnly = 0 in
def F2_sfsub : T_MInstFloat < "sfsub", 0b000, 0b001>;
def: Pat<(f32 (fadd F32:$src1, F32:$src2)),
def: Pat<(f32 (fmul F32:$src1, F32:$src2)),
(F2_sfmpy F32:$src1, F32:$src2)>;
-let Itinerary = M_tc_3x_SLOT23, isCodeGenOnly = 0 in {
+let Itinerary = M_tc_3x_SLOT23 in {
def F2_sfmax : T_MInstFloat < "sfmax", 0b100, 0b000>;
def F2_sfmin : T_MInstFloat < "sfmin", 0b100, 0b001>;
}
-let isCodeGenOnly = 0 in {
def F2_sffixupn : T_MInstFloat < "sffixupn", 0b110, 0b000>;
def F2_sffixupd : T_MInstFloat < "sffixupd", 0b110, 0b001>;
-}
// F2_sfrecipa: Reciprocal approximation for division.
let isPredicateLate = 1, isFP = 1,
-hasSideEffects = 0, hasNewValue = 1, isCodeGenOnly = 0 in
+hasSideEffects = 0, hasNewValue = 1 in
def F2_sfrecipa: MInst <
(outs IntRegs:$Rd, PredRegs:$Pe),
(ins IntRegs:$Rs, IntRegs:$Rt),
let Inst{27-21} = 0b0111111;
}
-let isCodeGenOnly = 0 in {
def F2_dfcmpeq : T_fcmp64<"dfcmp.eq", setoeq, 0b000>;
def F2_dfcmpgt : T_fcmp64<"dfcmp.gt", setogt, 0b001>;
def F2_dfcmpge : T_fcmp64<"dfcmp.ge", setoge, 0b010>;
def F2_sfcmpuo : T_fcmp32<"sfcmp.uo", setuo, 0b001>;
def F2_sfcmpeq : T_fcmp32<"sfcmp.eq", setoeq, 0b011>;
def F2_sfcmpgt : T_fcmp32<"sfcmp.gt", setogt, 0b100>;
-}
//===----------------------------------------------------------------------===//
// Multiclass to define 'Def Pats' for ordered gt, ge, eq operations.
}
// Convert single precision to double precision and vice-versa.
-let isCodeGenOnly = 0 in {
def F2_conv_sf2df : F2_RDD_RS_CONVERT <"convert_sf2df", 0b000,
fextend, F64, F32>;
def F2_conv_sf2w : F2_RD_RS_CONVERT <"convert_sf2w", 0b100, 0b000,
fp_to_sint, I32, F32>;
}
-}
// Fix up radicand.
-let isFP = 1, hasNewValue = 1, isCodeGenOnly = 0 in
+let isFP = 1, hasNewValue = 1 in
def F2_sffixupr: SInst<(outs IntRegs:$Rd), (ins IntRegs:$Rs),
"$Rd = sffixupr($Rs)",
[], "" , S_2op_tc_3or4x_SLOT23>, Requires<[HasV5T]> {
let Inst{4-0} = Rx;
}
-let isCodeGenOnly = 0 in {
def F2_sffma: T_sfmpy_acc <0, 0>;
def F2_sffms: T_sfmpy_acc <1, 0>;
def F2_sffma_lib: T_sfmpy_acc <0, 1>;
def F2_sffms_lib: T_sfmpy_acc <1, 1>;
-}
// Floating-point fused multiply add w/ additional scaling (2**pu).
-let isFP = 1, hasNewValue = 1, isCodeGenOnly = 0 in
+let isFP = 1, hasNewValue = 1 in
def F2_sffma_sc: MInst <
(outs IntRegs:$Rx),
(ins IntRegs:$dst2, IntRegs:$Rs, IntRegs:$Rt, PredRegs:$Pu),
let Inst{5} = isSat;
let Inst{4-0} = Rd;
}
-let isCodeGenOnly = 0 in {
+
def S5_asrhub_rnd_sat : T_ASRHUB <0>;
def S5_asrhub_sat : T_ASRHUB <1>;
-}
let isAsmParserOnly = 1 in
def S5_asrhub_rnd_sat_goodsyntax
"$Rd = vasrhub($Rss, #$u4):rnd:sat">, Requires<[HasV5T]>;
// S5_vasrhrnd: Vector arithmetic shift right by immediate with round.
-let hasSideEffects = 0, isCodeGenOnly = 0 in
+let hasSideEffects = 0 in
def S5_vasrhrnd : SInst <(outs DoubleRegs:$Rdd),
(ins DoubleRegs:$Rss, u4Imm:$u4),
"$Rdd = vasrh($Rss, #$u4):raw">,
// Floating point reciprocal square root approximation
let Uses = [USR], isPredicateLate = 1, isFP = 1,
hasSideEffects = 0, hasNewValue = 1, opNewValue = 0,
- validSubTargets = HasV5SubT, isCodeGenOnly = 0 in
+ validSubTargets = HasV5SubT in
def F2_sfinvsqrta: SInst <
(outs IntRegs:$Rd, PredRegs:$Pe),
(ins IntRegs:$Rs),
}
// Complex multiply 32x16
-let Defs = [USR_OVF], Itinerary = S_3op_tc_3x_SLOT23, isCodeGenOnly = 0 in {
+let Defs = [USR_OVF], Itinerary = S_3op_tc_3x_SLOT23 in {
def M4_cmpyi_whc : T_S3op_8<"cmpyiwh", 0b101, 1, 1, 1, 1>;
def M4_cmpyr_whc : T_S3op_8<"cmpyrwh", 0b111, 1, 1, 1, 1>;
}
// Classify floating-point value
-let isFP = 1, isCodeGenOnly = 0 in
+let isFP = 1 in
def F2_sfclass : T_TEST_BIT_IMM<"sfclass", 0b111>;
-let isFP = 1, isCodeGenOnly = 0 in
+let isFP = 1 in
def F2_dfclass: ALU64Inst<(outs PredRegs:$Pd), (ins DoubleRegs:$Rss, u5Imm:$u5),
"$Pd = dfclass($Rss, #$u5)",
[], "" , ALU64_tc_2early_SLOT23 > , Requires<[HasV5T]> {
let Inst{4-0} = dst;
}
-let isCodeGenOnly = 0 in {
def F2_sfimm_p : T_fimm <"sfmake", IntRegs, 0b0110, 0>;
def F2_sfimm_n : T_fimm <"sfmake", IntRegs, 0b0110, 1>;
def F2_dfimm_p : T_fimm <"dfmake", DoubleRegs, 0b1001, 0>;
def F2_dfimm_n : T_fimm <"dfmake", DoubleRegs, 0b1001, 1>;
-}
def : Pat <(fabs (f32 IntRegs:$src1)),
(S2_clrbit_i (f32 IntRegs:$src1), 31)>,