bool
CallPolicy::adjustInputs(MInstruction *ins)
{
MCall *call = ins->toCall();
MDefinition *func = call->getFunction();
if (func->type() == MIRType_Object)
return true;
// If the function is impossible to call,
// bail out by causing a subsequent unbox to fail.
if (func->type() != MIRType_Value)
func = boxAt(call, func);
MInstruction *unbox = MUnbox::New(func, MIRType_Object, MUnbox::Fallible);
call->block()->insertBefore(call, unbox);
call->replaceFunction(unbox);
return true;
}
bool
CallPolicy::adjustInputs(TempAllocator &alloc, MInstruction *ins)
{
MCall *call = ins->toCall();
MDefinition *func = call->getFunction();
if (func->type() != MIRType_Object) {
MInstruction *unbox = MUnbox::New(alloc, func, MIRType_Object, MUnbox::Fallible);
call->block()->insertBefore(call, unbox);
call->replaceFunction(unbox);
if (!unbox->typePolicy()->adjustInputs(alloc, unbox))
return false;
}
for (uint32_t i = 0; i < call->numStackArgs(); i++)
EnsureOperandNotFloat32(alloc, call, MCall::IndexOfStackArg(i));
return true;
}
bool
CallPolicy::adjustInputs(TempAllocator &alloc, MInstruction *ins)
{
MCall *call = ins->toCall();
MDefinition *func = call->getFunction();
if (func->type() != MIRType_Object) {
// If the function is impossible to call,
// bail out by causing a subsequent unbox to fail.
if (func->type() != MIRType_Value)
func = boxAt(alloc, call, func);
MInstruction *unbox = MUnbox::New(alloc, func, MIRType_Object, MUnbox::Fallible);
call->block()->insertBefore(call, unbox);
call->replaceFunction(unbox);
}
for (uint32_t i = 0; i < call->numStackArgs(); i++)
EnsureOperandNotFloat32(alloc, call, MCall::IndexOfStackArg(i));
return true;
}