TEST( gpu_device_load_and_unload, callbacks_test )
{
// Run in a loop: load, validate,work_item, unload
for( int i = 0; i < 2; ++i )
{
// nn_device_load
EXPECT_LT( nn_device_load( nullptr ), 0 ); // no error on invalid pointer
nn_device_description_t dd;
const auto invalid_first = static_cast< decltype( dd.version_first ) >( -1 );
const auto invalid_last = static_cast< decltype( dd.version_first ) >( -2 );
dd.version_first = invalid_first;
dd.version_last = invalid_last;
EXPECT_EQ( 0, nn_device_load( &dd ) ); // non-zero return code on valid call
EXPECT_NE( invalid_first, dd.version_first ); // nn_device_description_t::version_first is incorrect
EXPECT_NE( invalid_last, dd.version_last ); // nn_device_description_t::version_last is incorrect
EXPECT_LE( dd.version_first, dd.version_last ); // nn_device_description_t::version_first is greater than
// ::version_last
// nn_device_interface_open & close
{
uint8_t buffer[4096];
// nn_device_interface_open parameter validation
EXPECT_GT( 0, nn_device_interface_open( invalid_last, buffer ) ); // no error on invalid
// version
EXPECT_GT( 0, nn_device_interface_open( dd.version_first, nullptr) ); // no error on invalid
// buffer
// nn_device_interface_close parameter validation
EXPECT_GT( 0, nn_device_interface_close( nullptr ) ); // no error on invalid
// interface pointer
}
{ // interface version 0
const uint16_t interface_version = 0;
nn_device_interface_0_t di;
if( ( interface_version >= dd.version_first ) && ( interface_version <= dd.version_last ) )
{
EXPECT_EQ( 0, nn_device_interface_open( interface_version, &di ) );
EXPECT_EQ( interface_version, di.version ); // returned version matches requested
EXPECT_NE( nullptr, di.device ); // non-null device returned
EXPECT_NE( nullptr, di.workflow_item_validate_function ); // non-null function pointer returned
EXPECT_NE( nullptr, di.workflow_item_delete_function ); // non-null function pointer returned
EXPECT_NE( nullptr, di.parameter_set_function ); // non-null function pointer returned
EXPECT_NE( nullptr, di.parameter_get_function ); // non-null function pointer returned
}
EXPECT_EQ( true, run_convolve_test( di, 1, 1, 2, 2, 1, 1, 1, 1, 1, NN_ACTIVATION_FUNCTION_NONE ) );
EXPECT_EQ( 0, nn_device_interface_close( &di ) ); // successful close of interface
}
// nn_device_unload
EXPECT_EQ( 0, nn_device_unload() ); // successful unload
}
}
TEST( cpu_int16_device_load_and_unload, callbacks_test )
{
// nn_device_load
EXPECT_LT(nn_device_load(nullptr), 0); // no error on invalid pointer
nn_device_description_t dd;
const auto invalid_first = static_cast<decltype(dd.version_first)>(-1);
const auto invalid_last = static_cast<decltype(dd.version_first)>(-2);
dd.version_first = invalid_first;
dd.version_last = invalid_last;
EXPECT_EQ(0, nn_device_load(&dd)); // non-zero return code on valid call
EXPECT_NE(invalid_first, dd.version_first); // nn_device_description_t::version_first is incorrect
EXPECT_NE(invalid_last, dd.version_last); // nn_device_description_t::version_last is incorrect
EXPECT_LE(dd.version_first, dd.version_last); // nn_device_description_t::version_first is greater than ::version_last
// nn_device_interface_open & close
{
uint8_t buffer[4096];
// nn_device_interface_open parameter validation
EXPECT_GT(0, nn_device_interface_open(invalid_last, buffer)); // no error on invalid version
EXPECT_GT(0, nn_device_interface_open(dd.version_first, nullptr)); // no error on invalid buffer
// nn_device_interface_close parameter validation
EXPECT_GT(0, nn_device_interface_close(nullptr)); // no error on invalid interface pointer
}
{ // interface version 0
const uint16_t interface_version = 0;
nn_device_interface_0_t di;
if(interface_version>=dd.version_first && interface_version<=dd.version_last) {
EXPECT_EQ(0, nn_device_interface_open(interface_version, &di));
EXPECT_EQ(interface_version, di.version); // returned version matches requested
EXPECT_NE(nullptr, di.device); // non-null device returned
EXPECT_NE(nullptr, di.workflow_create_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.workflow_delete_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.workflow_metrics_query_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.workflow_metrics_delete_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.workflow_compile_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.workload_execute_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.workload_delete_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.workflow_item_create_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.workflow_item_validate_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.workflow_item_delete_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.parameter_get_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.parameter_set_function); // non-null function pointer returned
EXPECT_NE(nullptr, di.translate_api_status_function); // non-null function pointer returned
EXPECT_EQ(0, nn_device_interface_close(&di)); // successful close of interface
}
}
// nn_device_unload
EXPECT_EQ(0, nn_device_unload()); // successful unload
}
static bool ult_nn_fc_interface_run(nn_workload_item* work_item)
{
bool retvalue = true;
// Use optimized routine.
nn_device_description_t device_description;
nn_device_interface_0_t device_interface_0;
nn_device_load(&device_description);
nn_device_interface_open(0, &device_interface_0);
int16_fixedpoint::run_multithreaded_fully_connected_fixedpoint_work_item(work_item, reinterpret_cast<nn_device_internal*>(device_interface_0.device));
nn_device_interface_close(&device_interface_0);
nn_device_unload();
return retvalue;
}
TEST( gpu_device_interface_0, start_work_item_test )
{
// 1. Initialize and check if interface 0 is supported
nn_device_description_t dd;
const auto invalid_first = static_cast< decltype( dd.version_first ) >( -1 );
const auto invalid_last = static_cast< decltype( dd.version_first ) >( -2 );
dd.version_first = invalid_first;
dd.version_last = invalid_last;
EXPECT_EQ( 0, nn_device_load( &dd ) ); // non-zero return code on valid call
EXPECT_NE( invalid_first, dd.version_first ); // nn_device_description_t::version_first is incorrect
EXPECT_EQ( 0, dd.version_first ); // First supported interface version should be 0
// 2. Get interface 0
const uint16_t interface_version = 0;
nn_device_interface_0_t di;
if( ( interface_version >= dd.version_first ) && ( interface_version <= dd.version_last ) )
{
EXPECT_EQ( 0, nn_device_interface_open( interface_version, &di) );
EXPECT_EQ( interface_version, di.version ); // returned version matches requested
EXPECT_NE( nullptr, di.device ); // non-null device returned
EXPECT_NE( nullptr, di.workflow_item_validate_function ); // non-null function pointer returned
EXPECT_NE( nullptr, di.workflow_item_delete_function ); // non-null function pointer returned
EXPECT_NE( nullptr, di.parameter_set_function ); // non-null function pointer returned
EXPECT_NE( nullptr, di.parameter_get_function ); // non-null function pointer returned
//assert(0);//TODO: Add other interface functions just above
}
EXPECT_EQ( NN_API_STATUS_ERROR_INVALID_POINTER, di.workflow_item_validate_function( di.device, nullptr ) ); // test invalid pointer case
EXPECT_EQ( true, run_softmax_test( di, // interface
10, // length of input to be processed (softmax normalize)
3) );
EXPECT_EQ( 0, nn_device_interface_close( &di ) ); // successful close of interface
//// nn_device_unload
EXPECT_EQ( 0, nn_device_unload() ); // successful unload
}
static void ult_nn_fc_initialize_work_item(
nn_workload_item* &work_item,
nn_workload_item* &input_item,
int16_t *const input,
int32_t*const biases,
T_output_type *const output,
int16_t *const kernel,
uint32_t num_input_neurons,
uint32_t num_output_neurons,
uint32_t batch_size,
uint8_t accumulator_fraction,
uint8_t output_fraction,
NN_ACTIVATION_FUNCTION activation)
{
nn_workload_data_layout_t in_layout = nn::layout_t<nn::layout_pnzxyq_i16>::layout;
nn_workload_data_layout_t out_layout = std::is_same<T_output_type, int16_t>::value ? nn::layout_t<nn::layout_pnzxyq_i16>::layout : nn::layout_t<nn::layout_pnzxyq_i32>::layout;
nn_workload_data_layout_t bias_layout = nn::layout_t<nn::layout_xzynpq_i32>::layout;
nn_workload_data_layout_t weight_layout = nn::layout_t<nn::layout_xzynpq_i16>::layout;
nn_workload_data_coords_t input_coords =
{
batch_size,
1,
1,
num_input_neurons / 2,
2,
1
};
nn_workload_data_coords_t output_coords =
{
batch_size,
1,
1,
num_output_neurons / 2,
2,
1
};
nn_workload_data_coords_t bias_coords =
{
1,
1,
1,
num_output_neurons,
1,
1
};
nn_workload_data_coords_t weight_coords =
{
1,
2,
num_input_neurons / 2,
C_simd_width, //8
num_output_neurons / C_simd_width,
1
};
nn::workload_data<T_output_type> *output_data = new nn::workload_data<T_output_type>(output_coords, out_layout);
nn::workload_data<int32_t> *bias_data = new nn::workload_data<int32_t>(bias_coords, bias_layout);
nn::workload_data<int16_t> *weight_data = new nn::workload_data<int16_t>(weight_coords, weight_layout);
work_item = new nn_workload_item();
work_item->type = work_item_helper<T_output_type>::work_item_type;
auto &arguments = work_item_helper<T_output_type>::get_arguments(work_item);
arguments.activation.basic_arguments.function = activation;
arguments.activation.fractions.accumulator = accumulator_fraction;
arguments.activation.fractions.output = output_fraction;
work_item->output.push_back(output_data);
arguments.biases = bias_data;
arguments.weights = weight_data;
memcpy(work_item->output[0]->parent->data_buffer, output, work_item->output[0]->parent->buffer_size);
memcpy(arguments.biases->parent->data_buffer, biases, arguments.biases->parent->buffer_size);
memcpy(arguments.weights->parent->data_buffer, kernel, arguments.weights->parent->buffer_size);
input_item = new nn_workload_item();
input_item->type = NN_WORK_ITEM_TYPE_INPUT;
input_item->primitive = nullptr;
nn::workload_data<int16_t> *input_data = new nn::workload_data<int16_t>(input_coords, in_layout);
memcpy(input_data->parent->data_buffer, input, input_data->parent->buffer_size);
input_item->output.push_back(input_data);
work_item->input.push_back({ input_item, 0 });
// Create primitive
nn_device_description_t device_description;
nn_device_interface_0_t device_interface_0;
nn_device_load(&device_description);
nn_device_interface_open(0, &device_interface_0);
work_item->primitive = new int16_fixedpoint::fully_connected_i16<T_output_type>(
num_input_neurons,
num_output_neurons,
arguments.activation,
batch_size,
reinterpret_cast<nn_device_internal*>(device_interface_0.device));
// Create primitive output
delete work_item->output[0];
work_item->output[0] = static_cast<int16_fixedpoint::fully_connected_i16<T_output_type> *>(work_item->primitive)->create_outputs(false)[0];
}
