Pass target_features set instead of has_feature closure

This avoids unnecessary monomorphizations in codegen backends
This commit is contained in:
bjorn3 2022-01-10 15:48:05 +01:00
parent 991cbd1503
commit 042aa379a5
8 changed files with 63 additions and 62 deletions

View file

@ -81,14 +81,14 @@ macro_rules! def_regs {
pub fn parse(
_arch: super::InlineAsmArch,
mut _has_feature: impl FnMut(rustc_span::Symbol) -> bool,
_target_features: &rustc_data_structures::fx::FxHashSet<Symbol>,
_target: &crate::spec::Target,
name: &str,
) -> Result<Self, &'static str> {
match name {
$(
$($alias)|* | $reg_name => {
$($filter(_arch, &mut _has_feature, _target)?;)?
$($filter(_arch, _target_features, _target)?;)?
Ok(Self::$reg)
}
)*
@ -102,7 +102,7 @@ macro_rules! def_regs {
pub(super) fn fill_reg_map(
_arch: super::InlineAsmArch,
mut _has_feature: impl FnMut(rustc_span::Symbol) -> bool,
_target_features: &rustc_data_structures::fx::FxHashSet<Symbol>,
_target: &crate::spec::Target,
_map: &mut rustc_data_structures::fx::FxHashMap<
super::InlineAsmRegClass,
@ -112,7 +112,7 @@ macro_rules! def_regs {
#[allow(unused_imports)]
use super::{InlineAsmReg, InlineAsmRegClass};
$(
if $($filter(_arch, &mut _has_feature, _target).is_ok() &&)? true {
if $($filter(_arch, _target_features, _target).is_ok() &&)? true {
if let Some(set) = _map.get_mut(&InlineAsmRegClass::$arch($arch_regclass::$class)) {
set.insert(InlineAsmReg::$arch($arch_reg::$reg));
}
@ -289,7 +289,7 @@ impl InlineAsmReg {
pub fn parse(
arch: InlineAsmArch,
has_feature: impl FnMut(Symbol) -> bool,
target_features: &FxHashSet<Symbol>,
target: &Target,
name: Symbol,
) -> Result<Self, &'static str> {
@ -298,43 +298,43 @@ impl InlineAsmReg {
let name = name.as_str();
Ok(match arch {
InlineAsmArch::X86 | InlineAsmArch::X86_64 => {
Self::X86(X86InlineAsmReg::parse(arch, has_feature, target, name)?)
Self::X86(X86InlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::Arm => {
Self::Arm(ArmInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::Arm(ArmInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::AArch64 => {
Self::AArch64(AArch64InlineAsmReg::parse(arch, has_feature, target, name)?)
Self::AArch64(AArch64InlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::RiscV32 | InlineAsmArch::RiscV64 => {
Self::RiscV(RiscVInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::RiscV(RiscVInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::Nvptx64 => {
Self::Nvptx(NvptxInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::Nvptx(NvptxInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::PowerPC | InlineAsmArch::PowerPC64 => {
Self::PowerPC(PowerPCInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::PowerPC(PowerPCInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::Hexagon => {
Self::Hexagon(HexagonInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::Hexagon(HexagonInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::Mips | InlineAsmArch::Mips64 => {
Self::Mips(MipsInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::Mips(MipsInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::S390x => {
Self::S390x(S390xInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::S390x(S390xInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::SpirV => {
Self::SpirV(SpirVInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::SpirV(SpirVInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::Wasm32 | InlineAsmArch::Wasm64 => {
Self::Wasm(WasmInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::Wasm(WasmInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::Bpf => {
Self::Bpf(BpfInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::Bpf(BpfInlineAsmReg::parse(arch, target_features, target, name)?)
}
InlineAsmArch::Avr => {
Self::Avr(AvrInlineAsmReg::parse(arch, has_feature, target, name)?)
Self::Avr(AvrInlineAsmReg::parse(arch, target_features, target, name)?)
}
})
}
@ -695,73 +695,73 @@ impl fmt::Display for InlineAsmType {
// falling back to an external assembler.
pub fn allocatable_registers(
arch: InlineAsmArch,
has_feature: impl FnMut(Symbol) -> bool,
target_features: &FxHashSet<Symbol>,
target: &crate::spec::Target,
) -> FxHashMap<InlineAsmRegClass, FxHashSet<InlineAsmReg>> {
match arch {
InlineAsmArch::X86 | InlineAsmArch::X86_64 => {
let mut map = x86::regclass_map();
x86::fill_reg_map(arch, has_feature, target, &mut map);
x86::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::Arm => {
let mut map = arm::regclass_map();
arm::fill_reg_map(arch, has_feature, target, &mut map);
arm::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::AArch64 => {
let mut map = aarch64::regclass_map();
aarch64::fill_reg_map(arch, has_feature, target, &mut map);
aarch64::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::RiscV32 | InlineAsmArch::RiscV64 => {
let mut map = riscv::regclass_map();
riscv::fill_reg_map(arch, has_feature, target, &mut map);
riscv::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::Nvptx64 => {
let mut map = nvptx::regclass_map();
nvptx::fill_reg_map(arch, has_feature, target, &mut map);
nvptx::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::PowerPC | InlineAsmArch::PowerPC64 => {
let mut map = powerpc::regclass_map();
powerpc::fill_reg_map(arch, has_feature, target, &mut map);
powerpc::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::Hexagon => {
let mut map = hexagon::regclass_map();
hexagon::fill_reg_map(arch, has_feature, target, &mut map);
hexagon::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::Mips | InlineAsmArch::Mips64 => {
let mut map = mips::regclass_map();
mips::fill_reg_map(arch, has_feature, target, &mut map);
mips::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::S390x => {
let mut map = s390x::regclass_map();
s390x::fill_reg_map(arch, has_feature, target, &mut map);
s390x::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::SpirV => {
let mut map = spirv::regclass_map();
spirv::fill_reg_map(arch, has_feature, target, &mut map);
spirv::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::Wasm32 | InlineAsmArch::Wasm64 => {
let mut map = wasm::regclass_map();
wasm::fill_reg_map(arch, has_feature, target, &mut map);
wasm::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::Bpf => {
let mut map = bpf::regclass_map();
bpf::fill_reg_map(arch, has_feature, target, &mut map);
bpf::fill_reg_map(arch, target_features, target, &mut map);
map
}
InlineAsmArch::Avr => {
let mut map = avr::regclass_map();
avr::fill_reg_map(arch, has_feature, target, &mut map);
avr::fill_reg_map(arch, target_features, target, &mut map);
map
}
}
@ -794,7 +794,7 @@ impl InlineAsmClobberAbi {
/// clobber ABIs for the target.
pub fn parse(
arch: InlineAsmArch,
has_feature: impl FnMut(Symbol) -> bool,
target_features: &FxHashSet<Symbol>,
target: &Target,
name: Symbol,
) -> Result<Self, &'static [&'static str]> {
@ -819,7 +819,7 @@ impl InlineAsmClobberAbi {
},
InlineAsmArch::AArch64 => match name {
"C" | "system" | "efiapi" => {
Ok(if aarch64::reserved_x18(arch, has_feature, target).is_err() {
Ok(if aarch64::reserved_x18(arch, target_features, target).is_err() {
InlineAsmClobberAbi::AArch64NoX18
} else {
InlineAsmClobberAbi::AArch64