assert_almost_equal ( r[0], impulse, decimal = 6)
assert_almost_equal ( r[1:], 0)
+class aubio_fft_odd_sizes(TestCase):
+
+ def test_reconstruct_with_odd_size(self):
+ win_s = 29
+ self.recontruct(win_s, 'odd sizes not supported')
+
+ def test_reconstruct_with_radix15(self):
+ win_s = 2 ** 4 * 15
+ self.recontruct(win_s, 'radix 15 supported')
+
+ def test_reconstruct_with_radix5(self):
+ win_s = 2 ** 4 * 5
+ self.recontruct(win_s, 'radix 5 supported')
+
+ def test_reconstruct_with_radix3(self):
+ win_s = 2 ** 4 * 3
+ self.recontruct(win_s, 'radix 3 supported')
+
+ def recontruct(self, win_s, skipMessage):
+ try:
+ f = fft(win_s)
+ except RuntimeError:
+ self.skipTest(skipMessage)
+ input_signal = fvec(win_s)
+ input_signal[win_s//2] = 1
+ c = f(input_signal)
+ output_signal = f.rdo(c)
+ assert_almost_equal(input_signal, output_signal)
+
+class aubio_fft_wrong_params(TestCase):
+
def test_large_input_timegrain(self):
win_s = 1024
f = fft(win_s)
with self.assertRaises(ValueError):
f.rdo(s)
-class aubio_fft_wrong_params(TestCase):
-
def test_wrong_buf_size(self):
win_s = -1
with self.assertRaises(ValueError):
fft(win_s)
- def test_buf_size_not_power_of_two(self):
- # when compiled with fftw3, aubio supports non power of two fft sizes
- win_s = 320
- try:
- with self.assertRaises(RuntimeError):
- fft(win_s)
- except AssertionError:
- self.skipTest('creating aubio.fft with size %d did not fail' % win_s)
-
def test_buf_size_too_small(self):
win_s = 1
with self.assertRaises(RuntimeError):