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TheRock/rocm-libraries/projects/miopen/test/gtest/unit_batchnorm_applicability.cpp
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Flatten subprojects into a single base monorepo
2026-09-02 16:34:47 -07:00

372 lines
13 KiB
C++

/*******************************************************************************
*
* MIT License
*
* Copyright (c) 2025 Advanced Micro Devices, Inc.
*
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
* copies of the Software, and to permit persons to whom the Software is
* furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in all
* copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
* OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
* SOFTWARE.
*
*******************************************************************************/
#include <gtest/gtest.h>
#include <miopen/batchnorm/solvers.hpp>
#include <miopen/batchnorm/problem_description.hpp>
#include <miopen/tensor.hpp>
#include <miopen/activ.hpp>
#include <miopen/handle.hpp>
#include <miopen/execution_context.hpp>
#include <miopen/datatype.hpp>
using namespace miopen;
using namespace miopen::batchnorm;
using namespace miopen::solver::batchnorm;
namespace {
struct ApplicabilityParams
{
miopenDataType_t x_type;
miopenDataType_t y_type;
miopenDataType_t scale_type;
miopenDataType_t bias_type;
miopenDataType_t mean_type;
miopenDataType_t var_type;
bool expect_applicable;
std::string test_name;
friend std::ostream& operator<<(std::ostream& os, const ApplicabilityParams& p)
{
os << "ApplicabilityParams(";
os << "x_type=" << GetDataType(p.x_type) << ", ";
os << "y_type=" << GetDataType(p.y_type) << ", ";
os << "scale_type=" << GetDataType(p.scale_type) << ", ";
os << "bias_type=" << GetDataType(p.bias_type) << ", ";
os << "mean_type=" << GetDataType(p.mean_type) << ", ";
os << "var_type=" << GetDataType(p.var_type) << ", ";
os << "expect_applicable=" << (p.expect_applicable ? "true" : "false") << ", ";
os << "test_name=" << p.test_name;
os << ")";
return os;
}
};
TensorDescriptor MakeTensorDesc(miopenDataType_t type)
{
return TensorDescriptor(type, {1, 2, 3, 4});
}
ActivationDescriptor MakeActivationDesc(miopenActivationMode_t mode = miopenActivationPASTHRU)
{
ActivationDescriptor desc(mode, 1.0, 1.0, 1.0);
return desc;
}
ExecutionContext MakeContext()
{
ExecutionContext ctx;
return ctx;
}
std::vector<ApplicabilityParams> GetParams()
{
std::vector<ApplicabilityParams> params;
// Valid cases
for(auto dt : {miopenFloat, miopenHalf, miopenBFloat16})
{
params.push_back({dt,
dt,
miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
true,
"X_Y_" + GetDataType(dt) + "_Stats_" + GetDataType(miopenFloat)});
}
// Invalid: X & Y are invalid types
params.push_back({miopenInt8,
miopenInt8,
miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
false,
"X_INT8_Y_INT8"});
params.push_back({miopenInt32,
miopenInt32,
miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
false,
"X_INT32_Y_INT32"});
// Invalid: X & Y are mixed
params.push_back({miopenFloat,
miopenHalf,
miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
false,
"X_FP32_Y_FP16"});
params.push_back({miopenHalf,
miopenBFloat16,
miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
false,
"X_FP16_Y_BFP16"});
params.push_back({miopenBFloat16,
miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
false,
"X_BFP16_Y_FP32"});
// Invalid: stats not FP32
params.push_back({miopenFloat,
miopenFloat,
miopenHalf,
miopenFloat,
miopenFloat,
miopenFloat,
false,
"Scale_FP16"});
params.push_back({miopenFloat,
miopenFloat,
miopenFloat,
miopenHalf,
miopenFloat,
miopenFloat,
false,
"Bias_FP16"});
params.push_back({miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
miopenHalf,
miopenFloat,
false,
"Mean_FP16"});
params.push_back({miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
miopenFloat,
miopenHalf,
false,
"Var_FP16"});
// Invalid: all stats not FP32
params.push_back({miopenHalf,
miopenHalf,
miopenHalf,
miopenHalf,
miopenHalf,
miopenHalf,
false,
"AllStats_FP16"});
return params;
}
} // namespace
class CPU_BatchNormFwdTrainingSpatialApplicabilityTest_NONE
: public ::testing::TestWithParam<ApplicabilityParams>
{
};
TEST_P(CPU_BatchNormFwdTrainingSpatialApplicabilityTest_NONE, IsApplicable)
{
const auto& p = GetParam();
auto ctx = MakeContext();
auto xDesc = MakeTensorDesc(p.x_type);
auto yDesc = MakeTensorDesc(p.y_type);
auto scaleDesc = MakeTensorDesc(p.scale_type);
auto biasDesc = MakeTensorDesc(p.bias_type);
auto meanDesc = MakeTensorDesc(p.mean_type);
auto varDesc = MakeTensorDesc(p.var_type);
auto actDesc = MakeActivationDesc();
ProblemDescription problem(miopenBNSpatial,
xDesc,
yDesc,
scaleDesc,
biasDesc,
meanDesc,
varDesc,
1.0,
1e-5,
true,
true,
1,
actDesc);
BnFwdTrainingSpatial solver;
EXPECT_EQ(solver.IsApplicable(ctx, problem), p.expect_applicable) << p.test_name;
}
INSTANTIATE_TEST_SUITE_P(Smoke,
CPU_BatchNormFwdTrainingSpatialApplicabilityTest_NONE,
::testing::ValuesIn(GetParams()));
class CPU_BatchNormFwdTrainingPerActivationApplicabilityTest_NONE
: public ::testing::TestWithParam<ApplicabilityParams>
{
};
TEST_P(CPU_BatchNormFwdTrainingPerActivationApplicabilityTest_NONE, IsApplicable)
{
const auto& p = GetParam();
auto ctx = MakeContext();
auto xDesc = MakeTensorDesc(p.x_type);
auto yDesc = MakeTensorDesc(p.y_type);
auto scaleDesc = MakeTensorDesc(p.scale_type);
auto biasDesc = MakeTensorDesc(p.bias_type);
auto meanDesc = MakeTensorDesc(p.mean_type);
auto varDesc = MakeTensorDesc(p.var_type);
auto actDesc = MakeActivationDesc();
ProblemDescription problem(miopenBNPerActivation,
xDesc,
yDesc,
scaleDesc,
biasDesc,
meanDesc,
varDesc,
1.0,
1e-5,
true,
true,
1,
actDesc);
BnFwdTrainingPerActivation solver;
EXPECT_EQ(solver.IsApplicable(ctx, problem), p.expect_applicable) << p.test_name;
}
INSTANTIATE_TEST_SUITE_P(Smoke,
CPU_BatchNormFwdTrainingPerActivationApplicabilityTest_NONE,
::testing::ValuesIn(GetParams()));
class CPU_BatchNormFwdInferenceApplicabilityTest_NONE
: public ::testing::TestWithParam<ApplicabilityParams>
{
};
TEST_P(CPU_BatchNormFwdInferenceApplicabilityTest_NONE, IsApplicable)
{
const auto& p = GetParam();
auto ctx = MakeContext();
auto xDesc = MakeTensorDesc(p.x_type);
auto yDesc = MakeTensorDesc(p.y_type);
auto scaleDesc = MakeTensorDesc(p.scale_type);
auto biasDesc = MakeTensorDesc(p.bias_type);
auto meanDesc = MakeTensorDesc(p.mean_type);
auto varDesc = MakeTensorDesc(p.var_type);
auto actDesc = MakeActivationDesc();
ProblemDescription problem(
miopenBNSpatial, xDesc, yDesc, scaleDesc, biasDesc, meanDesc, varDesc, 1e-5, actDesc);
BnFwdInference solver;
EXPECT_EQ(solver.IsApplicable(ctx, problem), p.expect_applicable) << p.test_name;
}
INSTANTIATE_TEST_SUITE_P(Smoke,
CPU_BatchNormFwdInferenceApplicabilityTest_NONE,
::testing::ValuesIn(GetParams()));
class CPU_BatchNormBwdTrainingSpatialApplicabilityTest_NONE
: public ::testing::TestWithParam<ApplicabilityParams>
{
};
TEST_P(CPU_BatchNormBwdTrainingSpatialApplicabilityTest_NONE, IsApplicable)
{
const auto& p = GetParam();
auto ctx = MakeContext();
auto xDesc = MakeTensorDesc(p.x_type);
auto dyDesc = MakeTensorDesc(p.y_type);
auto dxDesc = MakeTensorDesc(p.y_type); // dx usually same type as y
auto scaleDesc = MakeTensorDesc(p.scale_type);
auto biasDesc = MakeTensorDesc(p.bias_type);
auto meanDesc = MakeTensorDesc(p.mean_type);
auto varDesc = MakeTensorDesc(p.var_type);
auto actDesc = MakeActivationDesc();
ProblemDescription problem(miopenBNSpatial,
xDesc,
dyDesc,
dxDesc,
scaleDesc,
biasDesc,
meanDesc,
varDesc,
1e-5,
false,
1,
actDesc);
BnBwdTrainingSpatial solver;
EXPECT_EQ(solver.IsApplicable(ctx, problem), p.expect_applicable) << p.test_name;
}
INSTANTIATE_TEST_SUITE_P(Smoke,
CPU_BatchNormBwdTrainingSpatialApplicabilityTest_NONE,
::testing::ValuesIn(GetParams()));
class CPU_BatchNormBwdTrainingPerActivationApplicabilityTest_NONE
: public ::testing::TestWithParam<ApplicabilityParams>
{
};
TEST_P(CPU_BatchNormBwdTrainingPerActivationApplicabilityTest_NONE, IsApplicable)
{
const auto& p = GetParam();
auto ctx = MakeContext();
auto xDesc = MakeTensorDesc(p.x_type);
auto dyDesc = MakeTensorDesc(p.y_type);
auto dxDesc = MakeTensorDesc(p.y_type); // dx usually same type as y
auto scaleDesc = MakeTensorDesc(p.scale_type);
auto biasDesc = MakeTensorDesc(p.bias_type);
auto meanDesc = MakeTensorDesc(p.mean_type);
auto varDesc = MakeTensorDesc(p.var_type);
auto actDesc = MakeActivationDesc();
ProblemDescription problem(miopenBNPerActivation,
xDesc,
dyDesc,
dxDesc,
scaleDesc,
biasDesc,
meanDesc,
varDesc,
1e-5,
false,
1,
actDesc);
BnBwdTrainingPerActivation solver;
EXPECT_EQ(solver.IsApplicable(ctx, problem), p.expect_applicable) << p.test_name;
}
INSTANTIATE_TEST_SUITE_P(Smoke,
CPU_BatchNormBwdTrainingPerActivationApplicabilityTest_NONE,
::testing::ValuesIn(GetParams()));