namespace {
enum RegisterKind {
GR32Reg,
+ GRH32Reg,
GR64Reg,
GR128Reg,
ADDR32Reg,
// Used by the TableGen code to check for particular operand types.
bool isGR32() const { return isReg(GR32Reg); }
+ bool isGRH32() const { return isReg(GRH32Reg); }
bool isGR64() const { return isReg(GR64Reg); }
bool isGR128() const { return isReg(GR128Reg); }
bool isADDR32() const { return isReg(ADDR32Reg); }
return parseRegister(Operands, RegGR, SystemZMC::GR32Regs, GR32Reg);
}
OperandMatchResultTy
+ parseGRH32(SmallVectorImpl<MCParsedAsmOperand*> &Operands) {
+ return parseRegister(Operands, RegGR, SystemZMC::GRH32Regs, GRH32Reg);
+ }
+ OperandMatchResultTy
parseGR64(SmallVectorImpl<MCParsedAsmOperand*> &Operands) {
return parseRegister(Operands, RegGR, SystemZMC::GR64Regs, GR64Reg);
}
SystemZ::R12L, SystemZ::R13L, SystemZ::R14L, SystemZ::R15L
};
+const unsigned SystemZMC::GRH32Regs[16] = {
+ SystemZ::R0H, SystemZ::R1H, SystemZ::R2H, SystemZ::R3H,
+ SystemZ::R4H, SystemZ::R5H, SystemZ::R6H, SystemZ::R7H,
+ SystemZ::R8H, SystemZ::R9H, SystemZ::R10H, SystemZ::R11H,
+ SystemZ::R12H, SystemZ::R13H, SystemZ::R14H, SystemZ::R15H
+};
+
const unsigned SystemZMC::GR64Regs[16] = {
SystemZ::R0D, SystemZ::R1D, SystemZ::R2D, SystemZ::R3D,
SystemZ::R4D, SystemZ::R5D, SystemZ::R6D, SystemZ::R7D,
let isCodeGenOnly = 1 in
def RISBLG32 : RotateSelectRIEf<"risblg", 0xEC51, GR32, GR32>,
Requires<[FeatureHighWord]>;
-def RISBHG : RotateSelectRIEf<"risbhg", 0xEC5D, GR64, GR64>,
+def RISBHG : RotateSelectRIEf<"risbhg", 0xEC5D, GRH32, GR64>,
Requires<[FeatureHighWord]>;
-def RISBLG : RotateSelectRIEf<"risblg", 0xEC51, GR64, GR64>,
+def RISBLG : RotateSelectRIEf<"risblg", 0xEC51, GR32, GR64>,
Requires<[FeatureHighWord]>;
// Rotate second operand left and perform a logical operation with selected
}
// One of the 16 64-bit general-purpose registers.
-class GPR64<bits<16> num, string n, GPR32 low>
- : SystemZRegWithSubregs<n, [low]> {
+class GPR64<bits<16> num, string n, GPR32 low, GPR32 high>
+ : SystemZRegWithSubregs<n, [low, high]> {
let HWEncoding = num;
- let SubRegIndices = [subreg_l32];
+ let SubRegIndices = [subreg_l32, subreg_h32];
}
// 8 even-odd pairs of GPR64s.
-class GPR128<bits<16> num, string n, GPR64 high, GPR64 low>
- : SystemZRegWithSubregs<n, [high, low]> {
+class GPR128<bits<16> num, string n, GPR64 low, GPR64 high>
+ : SystemZRegWithSubregs<n, [low, high]> {
let HWEncoding = num;
let SubRegIndices = [subreg_l64, subreg_h64];
}
// General-purpose registers
foreach I = 0-15 in {
def R#I#L : GPR32<I, "r"#I>;
- def R#I#D : GPR64<I, "r"#I, !cast<GPR32>("R"#I#"L")>, DwarfRegNum<[I]>;
+ def R#I#H : GPR32<I, "r"#I>;
+ def R#I#D : GPR64<I, "r"#I, !cast<GPR32>("R"#I#"L"), !cast<GPR32>("R"#I#"H")>,
+ DwarfRegNum<[I]>;
}
foreach I = [0, 2, 4, 6, 8, 10, 12, 14] in {
/// Allocate the callee-saved R6-R13 backwards. That way they can be saved
/// together with R14 and R15 in one prolog instruction.
-defm GR32 : SystemZRegClass<"GR32", i32, 32, (add (sequence "R%uL", 0, 5),
- (sequence "R%uL", 15, 6))>;
-defm GR64 : SystemZRegClass<"GR64", i64, 64, (add (sequence "R%uD", 0, 5),
- (sequence "R%uD", 15, 6))>;
+defm GR32 : SystemZRegClass<"GR32", i32, 32, (add (sequence "R%uL", 0, 5),
+ (sequence "R%uL", 15, 6))>;
+defm GRH32 : SystemZRegClass<"GRH32", i32, 32, (add (sequence "R%uH", 0, 5),
+ (sequence "R%uH", 15, 6))>;
+defm GR64 : SystemZRegClass<"GR64", i64, 64, (add (sequence "R%uD", 0, 5),
+ (sequence "R%uD", 15, 6))>;
// The architecture doesn't really have any i128 support, so model the
// register pairs as untyped instead.
}
// 8 pairs of FPR64s, with a one-register gap inbetween.
-class FPR128<bits<16> num, string n, FPR64 high, FPR64 low>
- : SystemZRegWithSubregs<n, [high, low]> {
+class FPR128<bits<16> num, string n, FPR64 low, FPR64 high>
+ : SystemZRegWithSubregs<n, [low, high]> {
let HWEncoding = num;
let SubRegIndices = [subreg_l64, subreg_h64];
}