blob: e8ab19aa5a48921cfa3c40969581f361ad28e326 [file] [log] [blame]
// Copyright 2023 The Tint Authors.
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
#include "src/tint/ir/transform/builtin_polyfill_spirv.h"
#include <utility>
#include "src/tint/ir/transform/test_helper.h"
#include "src/tint/type/atomic.h"
#include "src/tint/type/builtin_structs.h"
#include "src/tint/type/depth_texture.h"
#include "src/tint/type/sampled_texture.h"
namespace tint::ir::transform {
namespace {
using namespace tint::builtin::fluent_types; // NOLINT
using namespace tint::number_suffixes; // NOLINT
using IR_BuiltinPolyfillSpirvTest = TransformTest;
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicAdd_Storage) {
auto* var = b.Var(ty.ptr(storage, ty.atomic(ty.i32())));
var->SetBindingPoint(0, 0);
b.RootBlock()->Append(var);
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicAdd, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<storage, atomic<i32>, read_write> = var @binding_point(0, 0)
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = atomicAdd %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<storage, atomic<i32>, read_write> = var @binding_point(0, 0)
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = spirv.atomic_iadd %1, 1u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicAdd_Workgroup) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicAdd, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = atomicAdd %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = spirv.atomic_iadd %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicAnd) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicAnd, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = atomicAnd %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = spirv.atomic_and %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicCompareExchangeWeak) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* cmp = b.FunctionParam("cmp", ty.i32());
auto* val = b.FunctionParam("val", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({cmp, val});
b.With(func->Block(), [&] {
auto* result_ty = type::CreateAtomicCompareExchangeResult(ty, mod.symbols, ty.i32());
auto* result =
b.Call(result_ty, builtin::Function::kAtomicCompareExchangeWeak, var, cmp, val);
b.Return(func, b.Access(ty.i32(), result, 0_u));
});
auto* src = R"(
__atomic_compare_exchange_result_i32 = struct @align(4) {
old_value:i32 @offset(0)
exchanged:bool @offset(4)
}
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%cmp:i32, %val:i32):i32 -> %b2 {
%b2 = block {
%5:__atomic_compare_exchange_result_i32 = atomicCompareExchangeWeak %1, %cmp, %val
%6:i32 = access %5, 0u
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
__atomic_compare_exchange_result_i32 = struct @align(4) {
old_value:i32 @offset(0)
exchanged:bool @offset(4)
}
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%cmp:i32, %val:i32):i32 -> %b2 {
%b2 = block {
%5:i32 = spirv.atomic_compare_exchange %1, 2u, 0u, 0u, %val, %cmp
%6:bool = eq %5, %cmp
%7:__atomic_compare_exchange_result_i32 = construct %5, %6
%8:i32 = access %7, 0u
ret %8
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicExchange) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicExchange, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = atomicExchange %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = spirv.atomic_exchange %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicLoad) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* func = b.Function("foo", ty.i32());
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicLoad, var);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func():i32 -> %b2 {
%b2 = block {
%3:i32 = atomicLoad %1
ret %3
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func():i32 -> %b2 {
%b2 = block {
%3:i32 = spirv.atomic_load %1, 2u, 0u
ret %3
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicMax_I32) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicMax, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = atomicMax %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = spirv.atomic_smax %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicMax_U32) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.u32()))));
auto* arg1 = b.FunctionParam("arg1", ty.u32());
auto* func = b.Function("foo", ty.u32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.u32(), builtin::Function::kAtomicMax, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<u32>, read_write> = var
}
%foo = func(%arg1:u32):u32 -> %b2 {
%b2 = block {
%4:u32 = atomicMax %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<u32>, read_write> = var
}
%foo = func(%arg1:u32):u32 -> %b2 {
%b2 = block {
%4:u32 = spirv.atomic_umax %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicMin_I32) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicMin, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = atomicMin %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = spirv.atomic_smin %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicMin_U32) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.u32()))));
auto* arg1 = b.FunctionParam("arg1", ty.u32());
auto* func = b.Function("foo", ty.u32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.u32(), builtin::Function::kAtomicMin, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<u32>, read_write> = var
}
%foo = func(%arg1:u32):u32 -> %b2 {
%b2 = block {
%4:u32 = atomicMin %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<u32>, read_write> = var
}
%foo = func(%arg1:u32):u32 -> %b2 {
%b2 = block {
%4:u32 = spirv.atomic_umin %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicOr) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicOr, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = atomicOr %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = spirv.atomic_or %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicStore) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.void_());
func->SetParams({arg1});
b.With(func->Block(), [&] {
b.Call(ty.void_(), builtin::Function::kAtomicStore, var, arg1);
b.Return(func);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):void -> %b2 {
%b2 = block {
%4:void = atomicStore %1, %arg1
ret
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):void -> %b2 {
%b2 = block {
%4:void = spirv.atomic_store %1, 2u, 0u, %arg1
ret
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicSub) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicSub, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = atomicSub %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = spirv.atomic_isub %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, AtomicXor) {
auto* var = b.RootBlock()->Append(b.Var(ty.ptr(workgroup, ty.atomic(ty.i32()))));
auto* arg1 = b.FunctionParam("arg1", ty.i32());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kAtomicXor, var, arg1);
b.Return(func, result);
});
auto* src = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = atomicXor %1, %arg1
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%b1 = block { # root
%1:ptr<workgroup, atomic<i32>, read_write> = var
}
%foo = func(%arg1:i32):i32 -> %b2 {
%b2 = block {
%4:i32 = spirv.atomic_xor %1, 2u, 0u, %arg1
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, Dot_Vec4f) {
auto* arg1 = b.FunctionParam("arg1", ty.vec4<f32>());
auto* arg2 = b.FunctionParam("arg2", ty.vec4<f32>());
auto* func = b.Function("foo", ty.f32());
func->SetParams({arg1, arg2});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.f32(), builtin::Function::kDot, arg1, arg2);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%arg1:vec4<f32>, %arg2:vec4<f32>):f32 -> %b1 {
%b1 = block {
%4:f32 = dot %arg1, %arg2
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%arg1:vec4<f32>, %arg2:vec4<f32>):f32 -> %b1 {
%b1 = block {
%4:f32 = spirv.dot %arg1, %arg2
ret %4
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, Dot_Vec2i) {
auto* arg1 = b.FunctionParam("arg1", ty.vec2<i32>());
auto* arg2 = b.FunctionParam("arg2", ty.vec2<i32>());
auto* func = b.Function("foo", ty.i32());
func->SetParams({arg1, arg2});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kDot, arg1, arg2);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%arg1:vec2<i32>, %arg2:vec2<i32>):i32 -> %b1 {
%b1 = block {
%4:i32 = dot %arg1, %arg2
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%arg1:vec2<i32>, %arg2:vec2<i32>):i32 -> %b1 {
%b1 = block {
%4:i32 = access %arg1, 0u
%5:i32 = access %arg2, 0u
%6:i32 = mul %4, %5
%7:i32 = access %arg1, 1u
%8:i32 = access %arg2, 1u
%9:i32 = mul %7, %8
%10:i32 = add %6, %9
ret %10
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, Dot_Vec4u) {
auto* arg1 = b.FunctionParam("arg1", ty.vec4<u32>());
auto* arg2 = b.FunctionParam("arg2", ty.vec4<u32>());
auto* func = b.Function("foo", ty.u32());
func->SetParams({arg1, arg2});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.u32(), builtin::Function::kDot, arg1, arg2);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%arg1:vec4<u32>, %arg2:vec4<u32>):u32 -> %b1 {
%b1 = block {
%4:u32 = dot %arg1, %arg2
ret %4
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%arg1:vec4<u32>, %arg2:vec4<u32>):u32 -> %b1 {
%b1 = block {
%4:u32 = access %arg1, 0u
%5:u32 = access %arg2, 0u
%6:u32 = mul %4, %5
%7:u32 = access %arg1, 1u
%8:u32 = access %arg2, 1u
%9:u32 = mul %7, %8
%10:u32 = add %6, %9
%11:u32 = access %arg1, 2u
%12:u32 = access %arg2, 2u
%13:u32 = mul %11, %12
%14:u32 = add %10, %13
%15:u32 = access %arg1, 3u
%16:u32 = access %arg2, 3u
%17:u32 = mul %15, %16
%18:u32 = add %14, %17
ret %18
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, Select_ScalarCondition_ScalarOperands) {
auto* argf = b.FunctionParam("argf", ty.i32());
auto* argt = b.FunctionParam("argt", ty.i32());
auto* cond = b.FunctionParam("cond", ty.bool_());
auto* func = b.Function("foo", ty.i32());
func->SetParams({argf, argt, cond});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.i32(), builtin::Function::kSelect, argf, argt, cond);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%argf:i32, %argt:i32, %cond:bool):i32 -> %b1 {
%b1 = block {
%5:i32 = select %argf, %argt, %cond
ret %5
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%argf:i32, %argt:i32, %cond:bool):i32 -> %b1 {
%b1 = block {
%5:i32 = spirv.select %cond, %argt, %argf
ret %5
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, Select_VectorCondition_VectorOperands) {
auto* argf = b.FunctionParam("argf", ty.vec4<i32>());
auto* argt = b.FunctionParam("argt", ty.vec4<i32>());
auto* cond = b.FunctionParam("cond", ty.vec4<bool>());
auto* func = b.Function("foo", ty.vec4<i32>());
func->SetParams({argf, argt, cond});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.vec4<i32>(), builtin::Function::kSelect, argf, argt, cond);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%argf:vec4<i32>, %argt:vec4<i32>, %cond:vec4<bool>):vec4<i32> -> %b1 {
%b1 = block {
%5:vec4<i32> = select %argf, %argt, %cond
ret %5
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%argf:vec4<i32>, %argt:vec4<i32>, %cond:vec4<bool>):vec4<i32> -> %b1 {
%b1 = block {
%5:vec4<i32> = spirv.select %cond, %argt, %argf
ret %5
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, Select_ScalarCondition_VectorOperands) {
auto* argf = b.FunctionParam("argf", ty.vec4<i32>());
auto* argt = b.FunctionParam("argt", ty.vec4<i32>());
auto* cond = b.FunctionParam("cond", ty.bool_());
auto* func = b.Function("foo", ty.vec4<i32>());
func->SetParams({argf, argt, cond});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.vec4<i32>(), builtin::Function::kSelect, argf, argt, cond);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%argf:vec4<i32>, %argt:vec4<i32>, %cond:bool):vec4<i32> -> %b1 {
%b1 = block {
%5:vec4<i32> = select %argf, %argt, %cond
ret %5
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%argf:vec4<i32>, %argt:vec4<i32>, %cond:bool):vec4<i32> -> %b1 {
%b1 = block {
%5:vec4<bool> = construct %cond, %cond, %cond, %cond
%6:vec4<i32> = spirv.select %5, %argt, %argf
ret %6
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSample_1D) {
auto* t =
b.FunctionParam("t", ty.Get<type::SampledTexture>(type::TextureDimension::k1d, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.f32());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.f32(), builtin::Function::kTextureSample, t, s, coords);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_1d<f32>, %s:sampler, %coords:f32):vec4<f32> -> %b1 {
%b1 = block {
%5:f32 = textureSample %t, %s, %coords
ret %5
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_1d<f32>, %s:sampler, %coords:f32):vec4<f32> -> %b1 {
%b1 = block {
%5:spirv.sampled_image = spirv.sampled_image %t, %s
%6:vec4<f32> = spirv.image_sample_implicit_lod %5, %coords, 0u
ret %6
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSample_2D) {
auto* t =
b.FunctionParam("t", ty.Get<type::SampledTexture>(type::TextureDimension::k2d, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords});
b.With(func->Block(), [&] {
auto* result = b.Call(ty.vec4<f32>(), builtin::Function::kTextureSample, t, s, coords);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%5:vec4<f32> = textureSample %t, %s, %coords
ret %5
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%5:spirv.sampled_image = spirv.sampled_image %t, %s
%6:vec4<f32> = spirv.image_sample_implicit_lod %5, %coords, 0u
ret %6
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSample_2D_Offset) {
auto* t =
b.FunctionParam("t", ty.Get<type::SampledTexture>(type::TextureDimension::k2d, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.vec4<f32>(), builtin::Function::kTextureSample, t, s, coords,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%5:vec4<f32> = textureSample %t, %s, %coords, vec2<i32>(1i)
ret %5
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%5:spirv.sampled_image = spirv.sampled_image %t, %s
%6:vec4<f32> = spirv.image_sample_implicit_lod %5, %coords, 8u, vec2<i32>(1i)
ret %6
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSample_2DArray_Offset) {
auto* t = b.FunctionParam(
"t", ty.Get<type::SampledTexture>(type::TextureDimension::k2dArray, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* array_idx = b.FunctionParam("array_idx", ty.i32());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, array_idx});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.vec4<f32>(), builtin::Function::kTextureSample, t, s, coords, array_idx,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d_array<f32>, %s:sampler, %coords:vec2<f32>, %array_idx:i32):vec4<f32> -> %b1 {
%b1 = block {
%6:vec4<f32> = textureSample %t, %s, %coords, %array_idx, vec2<i32>(1i)
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d_array<f32>, %s:sampler, %coords:vec2<f32>, %array_idx:i32):vec4<f32> -> %b1 {
%b1 = block {
%6:spirv.sampled_image = spirv.sampled_image %t, %s
%7:f32 = convert %array_idx
%8:vec3<f32> = construct %coords, %7
%9:vec4<f32> = spirv.image_sample_implicit_lod %6, %8, 8u, vec2<i32>(1i)
ret %9
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleBias_2D) {
auto* t =
b.FunctionParam("t", ty.Get<type::SampledTexture>(type::TextureDimension::k2d, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* bias = b.FunctionParam("bias", ty.f32());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, bias});
b.With(func->Block(), [&] {
auto* result =
b.Call(ty.vec4<f32>(), builtin::Function::kTextureSampleBias, t, s, coords, bias);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %bias:f32):vec4<f32> -> %b1 {
%b1 = block {
%6:vec4<f32> = textureSampleBias %t, %s, %coords, %bias
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %bias:f32):vec4<f32> -> %b1 {
%b1 = block {
%6:spirv.sampled_image = spirv.sampled_image %t, %s
%7:vec4<f32> = spirv.image_sample_implicit_lod %6, %coords, 1u, %bias
ret %7
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleBias_2D_Offset) {
auto* t =
b.FunctionParam("t", ty.Get<type::SampledTexture>(type::TextureDimension::k2d, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* bias = b.FunctionParam("bias", ty.f32());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, bias});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.vec4<f32>(), builtin::Function::kTextureSampleBias, t, s, coords, bias,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %bias:f32):vec4<f32> -> %b1 {
%b1 = block {
%6:vec4<f32> = textureSampleBias %t, %s, %coords, %bias, vec2<i32>(1i)
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %bias:f32):vec4<f32> -> %b1 {
%b1 = block {
%6:spirv.sampled_image = spirv.sampled_image %t, %s
%7:vec4<f32> = spirv.image_sample_implicit_lod %6, %coords, 9u, %bias, vec2<i32>(1i)
ret %7
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleBias_2DArray_Offset) {
auto* t = b.FunctionParam(
"t", ty.Get<type::SampledTexture>(type::TextureDimension::k2dArray, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* array_idx = b.FunctionParam("array_idx", ty.i32());
auto* bias = b.FunctionParam("bias", ty.f32());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, array_idx, bias});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.vec4<f32>(), builtin::Function::kTextureSampleBias, t, s, coords, array_idx, bias,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d_array<f32>, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %bias:f32):vec4<f32> -> %b1 {
%b1 = block {
%7:vec4<f32> = textureSampleBias %t, %s, %coords, %array_idx, %bias, vec2<i32>(1i)
ret %7
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d_array<f32>, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %bias:f32):vec4<f32> -> %b1 {
%b1 = block {
%7:spirv.sampled_image = spirv.sampled_image %t, %s
%8:f32 = convert %array_idx
%9:vec3<f32> = construct %coords, %8
%10:vec4<f32> = spirv.image_sample_implicit_lod %7, %9, 9u, %bias, vec2<i32>(1i)
ret %10
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleCompare_2D) {
auto* t = b.FunctionParam("t", ty.Get<type::DepthTexture>(type::TextureDimension::k2d));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* dref = b.FunctionParam("dref", ty.f32());
auto* func = b.Function("foo", ty.f32());
func->SetParams({t, s, coords, dref});
b.With(func->Block(), [&] {
auto* result =
b.Call(ty.f32(), builtin::Function::kTextureSampleCompare, t, s, coords, dref);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_depth_2d, %s:sampler, %coords:vec2<f32>, %dref:f32):f32 -> %b1 {
%b1 = block {
%6:f32 = textureSampleCompare %t, %s, %coords, %dref
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_depth_2d, %s:sampler, %coords:vec2<f32>, %dref:f32):f32 -> %b1 {
%b1 = block {
%6:spirv.sampled_image = spirv.sampled_image %t, %s
%7:f32 = spirv.image_sample_dref_implicit_lod %6, %coords, %dref, 0u
ret %7
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleCompare_2D_Offset) {
auto* t = b.FunctionParam("t", ty.Get<type::DepthTexture>(type::TextureDimension::k2d));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* dref = b.FunctionParam("dref", ty.f32());
auto* func = b.Function("foo", ty.f32());
func->SetParams({t, s, coords, dref});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.f32(), builtin::Function::kTextureSampleCompare, t, s, coords, dref,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_depth_2d, %s:sampler, %coords:vec2<f32>, %dref:f32):f32 -> %b1 {
%b1 = block {
%6:f32 = textureSampleCompare %t, %s, %coords, %dref, vec2<i32>(1i)
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_depth_2d, %s:sampler, %coords:vec2<f32>, %dref:f32):f32 -> %b1 {
%b1 = block {
%6:spirv.sampled_image = spirv.sampled_image %t, %s
%7:f32 = spirv.image_sample_dref_implicit_lod %6, %coords, %dref, 8u, vec2<i32>(1i)
ret %7
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleCompare_2DArray_Offset) {
auto* t = b.FunctionParam("t", ty.Get<type::DepthTexture>(type::TextureDimension::k2dArray));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* array_idx = b.FunctionParam("array_idx", ty.i32());
auto* bias = b.FunctionParam("bias", ty.f32());
auto* func = b.Function("foo", ty.f32());
func->SetParams({t, s, coords, array_idx, bias});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.f32(), builtin::Function::kTextureSampleCompare, t, s, coords, array_idx, bias,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_depth_2d_array, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %bias:f32):f32 -> %b1 {
%b1 = block {
%7:f32 = textureSampleCompare %t, %s, %coords, %array_idx, %bias, vec2<i32>(1i)
ret %7
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_depth_2d_array, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %bias:f32):f32 -> %b1 {
%b1 = block {
%7:spirv.sampled_image = spirv.sampled_image %t, %s
%8:f32 = convert %array_idx
%9:vec3<f32> = construct %coords, %8
%10:f32 = spirv.image_sample_dref_implicit_lod %7, %9, %bias, 8u, vec2<i32>(1i)
ret %10
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleCompareLevel_2D) {
auto* t = b.FunctionParam("t", ty.Get<type::DepthTexture>(type::TextureDimension::k2d));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* dref = b.FunctionParam("dref", ty.f32());
auto* func = b.Function("foo", ty.f32());
func->SetParams({t, s, coords, dref});
b.With(func->Block(), [&] {
auto* result =
b.Call(ty.f32(), builtin::Function::kTextureSampleCompareLevel, t, s, coords, dref);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_depth_2d, %s:sampler, %coords:vec2<f32>, %dref:f32):f32 -> %b1 {
%b1 = block {
%6:f32 = textureSampleCompareLevel %t, %s, %coords, %dref
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_depth_2d, %s:sampler, %coords:vec2<f32>, %dref:f32):f32 -> %b1 {
%b1 = block {
%6:spirv.sampled_image = spirv.sampled_image %t, %s
%7:f32 = spirv.image_sample_dref_implicit_lod %6, %coords, %dref, 2u, 0.0f
ret %7
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleCompareLevel_2D_Offset) {
auto* t = b.FunctionParam("t", ty.Get<type::DepthTexture>(type::TextureDimension::k2d));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* dref = b.FunctionParam("dref", ty.f32());
auto* func = b.Function("foo", ty.f32());
func->SetParams({t, s, coords, dref});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.f32(), builtin::Function::kTextureSampleCompareLevel, t, s, coords, dref,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_depth_2d, %s:sampler, %coords:vec2<f32>, %dref:f32):f32 -> %b1 {
%b1 = block {
%6:f32 = textureSampleCompareLevel %t, %s, %coords, %dref, vec2<i32>(1i)
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_depth_2d, %s:sampler, %coords:vec2<f32>, %dref:f32):f32 -> %b1 {
%b1 = block {
%6:spirv.sampled_image = spirv.sampled_image %t, %s
%7:f32 = spirv.image_sample_dref_implicit_lod %6, %coords, %dref, 10u, 0.0f, vec2<i32>(1i)
ret %7
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleCompareLevel_2DArray_Offset) {
auto* t = b.FunctionParam("t", ty.Get<type::DepthTexture>(type::TextureDimension::k2dArray));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* array_idx = b.FunctionParam("array_idx", ty.i32());
auto* bias = b.FunctionParam("bias", ty.f32());
auto* func = b.Function("foo", ty.f32());
func->SetParams({t, s, coords, array_idx, bias});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.f32(), builtin::Function::kTextureSampleCompareLevel, t, s, coords, array_idx, bias,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_depth_2d_array, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %bias:f32):f32 -> %b1 {
%b1 = block {
%7:f32 = textureSampleCompareLevel %t, %s, %coords, %array_idx, %bias, vec2<i32>(1i)
ret %7
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_depth_2d_array, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %bias:f32):f32 -> %b1 {
%b1 = block {
%7:spirv.sampled_image = spirv.sampled_image %t, %s
%8:f32 = convert %array_idx
%9:vec3<f32> = construct %coords, %8
%10:f32 = spirv.image_sample_dref_implicit_lod %7, %9, %bias, 10u, 0.0f, vec2<i32>(1i)
ret %10
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleGrad_2D) {
auto* t =
b.FunctionParam("t", ty.Get<type::SampledTexture>(type::TextureDimension::k2d, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* ddx = b.FunctionParam("ddx", ty.vec2<f32>());
auto* ddy = b.FunctionParam("ddy", ty.vec2<f32>());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, ddx, ddy});
b.With(func->Block(), [&] {
auto* result =
b.Call(ty.vec4<f32>(), builtin::Function::kTextureSampleBias, t, s, coords, ddx, ddy);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %ddx:vec2<f32>, %ddy:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%7:vec4<f32> = textureSampleBias %t, %s, %coords, %ddx, %ddy
ret %7
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %ddx:vec2<f32>, %ddy:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%7:spirv.sampled_image = spirv.sampled_image %t, %s
%8:vec4<f32> = spirv.image_sample_implicit_lod %7, %coords, 9u, %ddx, %ddy
ret %8
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleGrad_2D_Offset) {
auto* t =
b.FunctionParam("t", ty.Get<type::SampledTexture>(type::TextureDimension::k2d, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* ddx = b.FunctionParam("ddx", ty.vec2<f32>());
auto* ddy = b.FunctionParam("ddy", ty.vec2<f32>());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, ddx, ddy});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.vec4<f32>(), builtin::Function::kTextureSampleBias, t, s, coords, ddx, ddy,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %ddx:vec2<f32>, %ddy:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%7:vec4<f32> = textureSampleBias %t, %s, %coords, %ddx, %ddy, vec2<i32>(1i)
ret %7
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %ddx:vec2<f32>, %ddy:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%7:spirv.sampled_image = spirv.sampled_image %t, %s
%8:vec4<f32> = spirv.image_sample_implicit_lod %7, %coords, 9u, %ddx, %ddy
ret %8
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleGrad_2DArray_Offset) {
auto* t = b.FunctionParam(
"t", ty.Get<type::SampledTexture>(type::TextureDimension::k2dArray, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* array_idx = b.FunctionParam("array_idx", ty.i32());
auto* ddx = b.FunctionParam("ddx", ty.vec2<f32>());
auto* ddy = b.FunctionParam("ddy", ty.vec2<f32>());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, array_idx, ddx, ddy});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.vec4<f32>(), builtin::Function::kTextureSampleBias, t, s, coords, array_idx, ddx,
ddy,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d_array<f32>, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %ddx:vec2<f32>, %ddy:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%8:vec4<f32> = textureSampleBias %t, %s, %coords, %array_idx, %ddx, %ddy, vec2<i32>(1i)
ret %8
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d_array<f32>, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %ddx:vec2<f32>, %ddy:vec2<f32>):vec4<f32> -> %b1 {
%b1 = block {
%8:spirv.sampled_image = spirv.sampled_image %t, %s
%9:f32 = convert %array_idx
%10:vec3<f32> = construct %coords, %9
%11:vec4<f32> = spirv.image_sample_implicit_lod %8, %10, 9u, %ddx, %ddy
ret %11
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleLevel_2D) {
auto* t =
b.FunctionParam("t", ty.Get<type::SampledTexture>(type::TextureDimension::k2d, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* lod = b.FunctionParam("lod", ty.f32());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, lod});
b.With(func->Block(), [&] {
auto* result =
b.Call(ty.vec4<f32>(), builtin::Function::kTextureSampleLevel, t, s, coords, lod);
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %lod:f32):vec4<f32> -> %b1 {
%b1 = block {
%6:vec4<f32> = textureSampleLevel %t, %s, %coords, %lod
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %lod:f32):vec4<f32> -> %b1 {
%b1 = block {
%6:spirv.sampled_image = spirv.sampled_image %t, %s
%7:vec4<f32> = spirv.image_sample_explicit_lod %6, %coords, 2u, %lod
ret %7
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleLevel_2D_Offset) {
auto* t =
b.FunctionParam("t", ty.Get<type::SampledTexture>(type::TextureDimension::k2d, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* lod = b.FunctionParam("lod", ty.f32());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, lod});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.vec4<f32>(), builtin::Function::kTextureSampleLevel, t, s, coords, lod,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %lod:f32):vec4<f32> -> %b1 {
%b1 = block {
%6:vec4<f32> = textureSampleLevel %t, %s, %coords, %lod, vec2<i32>(1i)
ret %6
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d<f32>, %s:sampler, %coords:vec2<f32>, %lod:f32):vec4<f32> -> %b1 {
%b1 = block {
%6:spirv.sampled_image = spirv.sampled_image %t, %s
%7:vec4<f32> = spirv.image_sample_explicit_lod %6, %coords, 10u, %lod, vec2<i32>(1i)
ret %7
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
TEST_F(IR_BuiltinPolyfillSpirvTest, TextureSampleLevel_2DArray_Offset) {
auto* t = b.FunctionParam(
"t", ty.Get<type::SampledTexture>(type::TextureDimension::k2dArray, ty.f32()));
auto* s = b.FunctionParam("s", ty.sampler());
auto* coords = b.FunctionParam("coords", ty.vec2<f32>());
auto* array_idx = b.FunctionParam("array_idx", ty.i32());
auto* lod = b.FunctionParam("lod", ty.f32());
auto* func = b.Function("foo", ty.vec4<f32>());
func->SetParams({t, s, coords, array_idx, lod});
b.With(func->Block(), [&] {
auto* result = b.Call(
ty.vec4<f32>(), builtin::Function::kTextureSampleLevel, t, s, coords, array_idx, lod,
b.Constant(mod.constant_values.Splat(ty.vec2<i32>(), mod.constant_values.Get(1_i), 2)));
b.Return(func, result);
});
auto* src = R"(
%foo = func(%t:texture_2d_array<f32>, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %lod:f32):vec4<f32> -> %b1 {
%b1 = block {
%7:vec4<f32> = textureSampleLevel %t, %s, %coords, %array_idx, %lod, vec2<i32>(1i)
ret %7
}
}
)";
EXPECT_EQ(src, str());
auto* expect = R"(
%foo = func(%t:texture_2d_array<f32>, %s:sampler, %coords:vec2<f32>, %array_idx:i32, %lod:f32):vec4<f32> -> %b1 {
%b1 = block {
%7:spirv.sampled_image = spirv.sampled_image %t, %s
%8:f32 = convert %array_idx
%9:vec3<f32> = construct %coords, %8
%10:vec4<f32> = spirv.image_sample_explicit_lod %7, %9, 10u, %lod, vec2<i32>(1i)
ret %10
}
}
)";
Run<BuiltinPolyfillSpirv>();
EXPECT_EQ(expect, str());
}
} // namespace
} // namespace tint::ir::transform