int main(int argc, char* argv[]) {
struct Options options;
struct TestInfo info;
int failed_count = 0;
SetDefaultOptions(&options, 1, MAX_FFT_ORDER);
ProcessCommandLine(&options,
argc,
argv,
UsageMessage());
verbose = options.verbose_;
info.real_only_ = options.real_only_;
info.min_fft_order_ = options.min_fft_order_;
info.max_fft_order_ = options.max_fft_order_;
info.do_forward_tests_ = options.do_forward_tests_;
info.do_inverse_tests_ = options.do_inverse_tests_;
/* No known failures */
info.known_failures_ = 0;
SetThresholds(&info);
if (verbose > 255)
DumpOptions(stderr, &options);
if (options.test_mode_) {
failed_count = RunAllTests(&info);
} else {
TestOneFFT(options.fft_log_size_,
options.signal_type_,
options.signal_value_,
&info,
"Float Real FFT");
}
FinishedMessage();
return failed_count > 0 ? 1 : 0;
}
void main(int argc, char* argv[]) {
struct Options options;
struct TestInfo info;
SetDefaultOptions(&options, 1, MAX_FFT_ORDER);
ProcessCommandLine(&options, argc, argv,
"Test forward and inverse real floating-point FFT\n");
verbose = options.verbose_;
if (verbose > 255)
DumpOptions(stderr, &options);
info.real_only_ = options.real_only_;
info.min_fft_order_ = options.min_fft_order_;
info.max_fft_order_ = options.max_fft_order_;
info.do_forward_tests_ = options.do_forward_tests_;
info.do_inverse_tests_ = options.do_inverse_tests_;
/* No known failures */
info.known_failures_ = 0;
#ifdef BIG_FFT_TABLE
info.forward_threshold_ = 136.07;
info.inverse_threshold_ = 140.76;
#else
info.forward_threshold_ = 136.07;
info.inverse_threshold_ = 142.41;
#endif
if (options.test_mode_) {
RunAllTests(&info);
} else {
TestOneFFT(options.fft_log_size_,
options.signal_type_,
options.signal_value_,
&info,
"Float Real FFT");
}
}
