return STI.getFeatureBits() & Mips::FeatureMips16;
}
// TODO: see how can we get this info.
- bool mipsSEUsesSoftFloat() const { return false; }
+ bool abiUsesSoftFloat() const { return false; }
/// Warn if RegNo is the current assembler temporary.
void WarnIfAssemblerTemporary(int RegNo, SMLoc Loc);
template <class PredicateLibrary>
void setCPR1SizeFromPredicates(const PredicateLibrary &P) {
- if (P.mipsSEUsesSoftFloat())
+ if (P.abiUsesSoftFloat())
CPR1Size = AFL_REG_NONE;
else if (P.hasMSA())
CPR1Size = AFL_REG_128;
// Set up the register classes
addRegisterClass(MVT::i32, &Mips::CPU16RegsRegClass);
- if (Subtarget->inMips16HardFloat())
+ if (!TM.Options.UseSoftFloat)
setMips16HardFloatLibCalls();
setOperationAction(ISD::ATOMIC_FENCE, MVT::Other, Expand);
CCInfo, SpecialCallingConv);
MipsCCInfo.analyzeCallOperands(Outs, IsVarArg,
- Subtarget->mipsSEUsesSoftFloat(),
+ Subtarget->abiUsesSoftFloat(),
Callee.getNode(), CLI.getArgs());
// Get a count of how many bytes are to be pushed on the stack.
MipsCC MipsCCInfo(CallConv, Subtarget->isABI_O32(), Subtarget->isFP64bit(),
CCInfo);
- MipsCCInfo.analyzeCallResult(Ins, Subtarget->mipsSEUsesSoftFloat(),
+ MipsCCInfo.analyzeCallResult(Ins, Subtarget->abiUsesSoftFloat(),
CallNode, RetTy);
// Copy all of the result registers out of their specified physreg.
CCInfo);
Function::const_arg_iterator FuncArg =
DAG.getMachineFunction().getFunction()->arg_begin();
- bool UseSoftFloat = Subtarget->mipsSEUsesSoftFloat();
+ bool UseSoftFloat = Subtarget->abiUsesSoftFloat();
MipsCCInfo.analyzeFormalArguments(Ins, UseSoftFloat, FuncArg);
MipsFI->setFormalArgInfo(CCInfo.getNextStackOffset(),
CCInfo);
// Analyze return values.
- MipsCCInfo.analyzeReturn(Outs, Subtarget->mipsSEUsesSoftFloat(),
+ MipsCCInfo.analyzeReturn(Outs, Subtarget->abiUsesSoftFloat(),
MF.getFunction()->getReturnType());
SDValue Flag;
setTargetDAGCombine(ISD::XOR);
}
- if (!Subtarget->mipsSEUsesSoftFloat()) {
+ if (!Subtarget->abiUsesSoftFloat()) {
addRegisterClass(MVT::f32, &Mips::FGR32RegClass);
// When dealing with single precision only, use libcalls
// Initialize scheduling itinerary for the specified CPU.
InstrItins = getInstrItineraryForCPU(CPUName);
- if (InMips16Mode && !TM->Options.UseSoftFloat) {
- // Hard float for mips16 means essentially to compile as soft float
- // but to use a runtime library for soft float that is written with
- // native mips32 floating point instructions (those runtime routines
- // run in mips32 hard float mode).
- TM->Options.UseSoftFloat = true;
- TM->Options.FloatABIType = FloatABI::Soft;
+ if (InMips16Mode && !TM->Options.UseSoftFloat)
InMips16HardFloat = true;
- }
return *this;
}
assert(FrameLowering && "null frame lowering SE");
}
-bool MipsSubtarget::mipsSEUsesSoftFloat() const {
+bool MipsSubtarget::abiUsesSoftFloat() const {
return TM->Options.UseSoftFloat && !InMips16HardFloat;
}
bool inMips16ModeDefault() const {
return InMips16Mode;
}
+ // Hard float for mips16 means essentially to compile as soft float
+ // but to use a runtime library for soft float that is written with
+ // native mips32 floating point instructions (those runtime routines
+ // run in mips32 hard float mode).
bool inMips16HardFloat() const {
return inMips16Mode() && InMips16HardFloat;
}
bool hasStandardEncoding() const { return !inMips16Mode(); }
- bool mipsSEUsesSoftFloat() const;
+ bool abiUsesSoftFloat() const;
bool enableLongBranchPass() const {
return hasStandardEncoding() || allowMixed16_32();