def make_d4_z2_indices(ksize):
assert ksize % 2 == 1 # TODO
x = np.random.randn(1, ksize, ksize)
f = Z2FuncArray(v=x)
uv = f.left_translation_indices(D4.flatten()[:, None, None, None])
mr = np.zeros(uv.shape[:-1] + (1,))
mruv = np.c_[mr, uv]
return mruv.astype('int32')
def make_d4_z2_indices(ksize):
assert ksize % 2 == 1 # TODO
x = np.random.randn(1, ksize, ksize)
f = Z2FuncArray(v=x)
uv = f.left_translation_indices(D4.flatten()[:, None, None, None])
mr = np.zeros(uv.shape[:-1] + (1, ))
mruv = np.c_[mr, uv]
return mruv.astype('int32')
def make_d4_z2_indices(ksize):
assert ksize % 2 == 1 # TODO
x = np.random.randn(1, ksize, ksize) # 1 relates to stabilizer size of input channel
f = Z2FuncArray(v=x) # input channel related
uv = f.left_translation_indices(D4.flatten()[:, None, None, None]) # this adds the output channel stabilizer # output channel related
mr = np.zeros(uv.shape[:-1] + (1,))
mruv = np.c_[mr, uv]
return mruv.astype('int32')
def make_d4_p4m_indices(ksize):
assert ksize % 2 == 1 # TODO
x = np.random.randn(8, ksize, ksize) # 8 3 3
f = P4MFuncArray(v=x)
li = f.left_translation_indices(D4.flatten()[:, None, None,
None]) #8 8 3 3 3
#print(li.astype('int32'))
#print('li.shape', li.shape)
return li.astype('int32')
def make_d4_p4m_indices(ksize):
assert ksize % 2 == 1 # TODO
x = np.random.randn(8, ksize, ksize)
f = P4MFuncArray(v=x)
li = f.left_translation_indices(D4.flatten()[:, None, None, None])
return li.astype('int32')
def make_d4_p4m_indices(ksize):
assert ksize % 2 == 1 # TODO
x = np.random.randn(8, ksize, ksize)
f = P4MFuncArray(v=x)
li = f.left_translation_indices(D4.flatten()[:, None, None, None])
return li.astype('int32')
def make_d4_p4m_indices(ksize):
assert ksize % 2 == 1 # TODO
x = np.random.randn(8, ksize, ksize) # input channel related
f = P4MFuncArray(v=x) # input channel related
li = f.left_translation_indices(D4.flatten()[:, None, None, None]) # output channel related
return li.astype('int32')
