[AArch64] i64x2 support for min/max (#4575)

Also added interpreter support for vector min/max.

Copyright (c) 2022, Arm Limited.
This commit is contained in:
Sam Parker
2022-08-02 19:42:05 +01:00
committed by GitHub
parent c77bec4dcb
commit 37cd96beff
4 changed files with 117 additions and 32 deletions

View File

@@ -693,15 +693,27 @@
(rule (lower (has_type ty @ (not_i64x2) (imin x y))) (rule (lower (has_type ty @ (not_i64x2) (imin x y)))
(vec_rrr (VecALUOp.Smin) x y (vector_size ty))) (vec_rrr (VecALUOp.Smin) x y (vector_size ty)))
(rule (lower (has_type $I64X2 (imin x y)))
(bsl $I64X2 (vec_rrr (VecALUOp.Cmgt) y x (VectorSize.Size64x2)) x y))
(rule (lower (has_type ty @ (not_i64x2) (umin x y))) (rule (lower (has_type ty @ (not_i64x2) (umin x y)))
(vec_rrr (VecALUOp.Umin) x y (vector_size ty))) (vec_rrr (VecALUOp.Umin) x y (vector_size ty)))
(rule (lower (has_type $I64X2 (umin x y)))
(bsl $I64X2 (vec_rrr (VecALUOp.Cmhi) y x (VectorSize.Size64x2)) x y))
(rule (lower (has_type ty @ (not_i64x2) (imax x y))) (rule (lower (has_type ty @ (not_i64x2) (imax x y)))
(vec_rrr (VecALUOp.Smax) x y (vector_size ty))) (vec_rrr (VecALUOp.Smax) x y (vector_size ty)))
(rule (lower (has_type $I64X2 (imax x y)))
(bsl $I64X2 (vec_rrr (VecALUOp.Cmgt) x y (VectorSize.Size64x2)) x y))
(rule (lower (has_type ty @ (not_i64x2) (umax x y))) (rule (lower (has_type ty @ (not_i64x2) (umax x y)))
(vec_rrr (VecALUOp.Umax) x y (vector_size ty))) (vec_rrr (VecALUOp.Umax) x y (vector_size ty)))
(rule (lower (has_type $I64X2 (umax x y)))
(bsl $I64X2 (vec_rrr (VecALUOp.Cmhi) x y (VectorSize.Size64x2)) x y))
;;;; Rules for `uextend` ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;; ;;;; Rules for `uextend` ;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;;
;; General rule for extending input to an output which fits in a single ;; General rule for extending input to an output which fits in a single

View File

@@ -0,0 +1,39 @@
test run
test interpret
target aarch64
function %imin_i64x2(i64x2, i64x2) -> i64x2 {
block0(v0: i64x2, v1: i64x2):
v2 = imin v0, v1
return v2
}
; run: %imin_i64x2([0xC00FFFEE 0xBADAB00F], [0x98763210 0x43216789]) == [ 0x98763210 0x43216789 ]
; run: %imin_i64x2([0x80000000C00FFFEE 0xBADAB00F], [0x98763210 0x43216789]) == [ 0x80000000C00FFFEE 0x43216789 ]
function %imax_i64x2(i64x2, i64x2) -> i64x2 {
block0(v0: i64x2, v1: i64x2):
v2 = imax v0, v1
return v2
}
; run: %imax_i64x2([0xC00FFFEE 0xBADAB00F], [0x98763210 0x43216789]) == [ 0xC00FFFEE 0xBADAB00F ]
; run: %imax_i64x2([0xC00FFFEE 0x80000000BADAB00F], [0x98763210 0x43216789]) == [ 0xC00FFFEE 0x43216789 ]
function %umin_i64x2(i64x2, i64x2) -> i64x2 {
block0(v0: i64x2, v1: i64x2):
v2 = umin v0, v1
return v2
}
; run: %umin_i64x2([0xDEADBEEF 0xBADAB00F], [0x12349876 0x43216789]) == [ 0x12349876 0x43216789 ]
; run: %umin_i64x2([0xC00FFFEE 0x80000000BADAB00F], [0x98763210 0x43216789]) == [ 0x98763210 0x43216789 ]
function %umax_i64x2(i64x2, i64x2) -> i64x2 {
block0(v0: i64x2, v1: i64x2):
v2 = umax v0, v1
return v2
}
; run: %umax_i64x2([0xBAADF00D 0xBADAB00F], [0xCA11ACAB 0x43216789]) == [ 0xCA11ACAB 0xBADAB00F ]
; run: %umax_i64x2([0xC00FFFEE 0x80000000BADAB00F], [0x98763210 0x43216789]) == [ 0xC00FFFEE 0x80000000BADAB00F ]

View File

@@ -1,4 +1,5 @@
test run test run
test interpret
target aarch64 target aarch64
target x86_64 target x86_64
target s390x target s390x

View File

@@ -488,24 +488,52 @@ where
} }
ControlFlow::Continue ControlFlow::Continue
} }
Opcode::Imin => choose(Value::gt(&arg(1)?, &arg(0)?)?, arg(0)?, arg(1)?), Opcode::Imin => {
Opcode::Umin => choose( if ctrl_ty.is_vector() {
Value::gt( let icmp = icmp(ctrl_ty, IntCC::SignedGreaterThan, &arg(1)?, &arg(0)?)?;
&arg(1)?.convert(ValueConversionKind::ToUnsigned)?, assign(vselect(&icmp, &arg(0)?, &arg(1)?, ctrl_ty)?)
&arg(0)?.convert(ValueConversionKind::ToUnsigned)?, } else {
)?, choose(Value::gt(&arg(1)?, &arg(0)?)?, arg(0)?, arg(1)?)
arg(0)?, }
arg(1)?, }
), Opcode::Umin => {
Opcode::Imax => choose(Value::gt(&arg(0)?, &arg(1)?)?, arg(0)?, arg(1)?), if ctrl_ty.is_vector() {
Opcode::Umax => choose( let icmp = icmp(ctrl_ty, IntCC::UnsignedGreaterThan, &arg(1)?, &arg(0)?)?;
Value::gt( assign(vselect(&icmp, &arg(0)?, &arg(1)?, ctrl_ty)?)
&arg(0)?.convert(ValueConversionKind::ToUnsigned)?, } else {
&arg(1)?.convert(ValueConversionKind::ToUnsigned)?, choose(
)?, Value::gt(
arg(0)?, &arg(1)?.convert(ValueConversionKind::ToUnsigned)?,
arg(1)?, &arg(0)?.convert(ValueConversionKind::ToUnsigned)?,
), )?,
arg(0)?,
arg(1)?,
)
}
}
Opcode::Imax => {
if ctrl_ty.is_vector() {
let icmp = icmp(ctrl_ty, IntCC::SignedGreaterThan, &arg(0)?, &arg(1)?)?;
assign(vselect(&icmp, &arg(0)?, &arg(1)?, ctrl_ty)?)
} else {
choose(Value::gt(&arg(0)?, &arg(1)?)?, arg(0)?, arg(1)?)
}
}
Opcode::Umax => {
if ctrl_ty.is_vector() {
let icmp = icmp(ctrl_ty, IntCC::UnsignedGreaterThan, &arg(0)?, &arg(1)?)?;
assign(vselect(&icmp, &arg(0)?, &arg(1)?, ctrl_ty)?)
} else {
choose(
Value::gt(
&arg(0)?.convert(ValueConversionKind::ToUnsigned)?,
&arg(1)?.convert(ValueConversionKind::ToUnsigned)?,
)?,
arg(0)?,
arg(1)?,
)
}
}
Opcode::AvgRound => { Opcode::AvgRound => {
let sum = Value::add(arg(0)?, arg(1)?)?; let sum = Value::add(arg(0)?, arg(1)?)?;
let one = Value::int(1, arg(0)?.ty())?; let one = Value::int(1, arg(0)?.ty())?;
@@ -897,20 +925,7 @@ where
} }
Opcode::Vsplit => unimplemented!("Vsplit"), Opcode::Vsplit => unimplemented!("Vsplit"),
Opcode::Vconcat => unimplemented!("Vconcat"), Opcode::Vconcat => unimplemented!("Vconcat"),
Opcode::Vselect => { Opcode::Vselect => assign(vselect(&arg(0)?, &arg(1)?, &arg(2)?, ctrl_ty)?),
let c = extractlanes(&arg(0)?, ctrl_ty)?;
let x = extractlanes(&arg(1)?, ctrl_ty)?;
let y = extractlanes(&arg(2)?, ctrl_ty)?;
let mut new_vec = SimdVec::new();
for (c, (x, y)) in c.into_iter().zip(x.into_iter().zip(y.into_iter())) {
if Value::eq(&c, &Value::int(0, ctrl_ty.lane_type())?)? {
new_vec.push(y);
} else {
new_vec.push(x);
}
}
assign(vectorizelanes(&new_vec, ctrl_ty)?)
}
Opcode::VanyTrue => assign(fold_vector( Opcode::VanyTrue => assign(fold_vector(
arg(0)?, arg(0)?,
ctrl_ty, ctrl_ty,
@@ -1296,3 +1311,21 @@ where
vectorizelanes(&result, vector_type) vectorizelanes(&result, vector_type)
} }
fn vselect<V>(c: &V, x: &V, y: &V, vector_type: types::Type) -> ValueResult<V>
where
V: Value,
{
let c = extractlanes(c, vector_type)?;
let x = extractlanes(x, vector_type)?;
let y = extractlanes(y, vector_type)?;
let mut new_vec = SimdVec::new();
for (c, (x, y)) in c.into_iter().zip(x.into_iter().zip(y.into_iter())) {
if Value::eq(&c, &Value::int(0, vector_type.lane_type())?)? {
new_vec.push(y);
} else {
new_vec.push(x);
}
}
vectorizelanes(&new_vec, vector_type)
}