Function postcallback_complex_to_complex

src/tests/accuracy_test_common.h:212–292

// tightly packed is inferred from strides.empty()
template< class T, class cl_T, class fftw_T >
void postcallback_complex_to_complex( data_pattern pattern, direction::direction_t direction,
	std::vector<size_t> lengths, size_t batch,
	std::vector<size_t> input_strides, std::vector<size_t> output_strides,
	size_t input_distance, size_t output_distance,
	layout::buffer_layout_t in_layout, layout::buffer_layout_t out_layout,
	placeness::placeness_t placeness, T scale = 1.0f, bool hasUserDatatype = false )
{
	clfft<T, cl_T> test_fft( static_cast<clfftDim>(lengths.size()), &lengths[0],
		input_strides.empty() ? NULL : &input_strides[0],
		output_strides.empty() ? NULL : &output_strides[0],
		batch, input_distance, output_distance,
		cl_layout(in_layout), cl_layout(out_layout),
		cl_placeness(placeness) );

	fftw<T, fftw_T> reference( lengths.size(), &lengths[0], batch, c2c );

	//initialize input
	if( pattern == sawtooth )
	{
		test_fft.set_input_to_sawtooth( 1.0f );
		reference.set_data_to_sawtooth( 1.0f );
	}
	else if( pattern == value )
	{
		test_fft.set_input_to_value( 2.0f, 2.5f );
		reference.set_all_data_to_value( 2.0f, 2.5f );
	}
	else if( pattern == impulse )
	{
		test_fft.set_input_to_impulse();
		reference.set_data_to_impulse();
	}
	else if( pattern == erratic )
	{
		test_fft.set_input_to_random();
		reference.set_data_to_random();
	}
	else
	{
		throw std::runtime_error( "invalid pattern type in complex_to_complex()" );
	}

	// if we're starting with unequal data, we're destined for failure
	EXPECT_EQ( true, test_fft.input_buffer() == reference.input_buffer() );

	//set postcallback values
	if (hasUserDatatype)
	{
		//test_fft.set_input_precallback_userdatatype();
	}
	else
	{
		test_fft.set_output_postcallback();
	}
	
	if( direction == direction::forward )
	{
		test_fft.set_forward_transform();