print(label)
print(predicted_cluster)
v = v_measure_score(label, predicted_cluster)
print('oMHMM v-measure: {}'.format(v))
acc = accuracy_score(label, predicted_cluster)
print('oMHMM acc: {}'.format(acc))
###################################################################################################
mhmm = MHMM.SpaMHMM(n_nodes=1,
mix_dim=M,
n_components=S,
n_features=l,
graph=None,
n_iter=100,
verbose=True,
name='mhmm')
mhmm.fit(data.flatten()[:, np.newaxis], y, lengths)
pi_nk, transitions = mhmm._compute_mixture_posteriors(
data.flatten()[:, np.newaxis], y, lengths)
print(transitions.reshape(M, S, S))
print(np.exp(pi_nk))
predicted_cluster = []
label_0 = [0 for i in range(len(data1[:, 0]))]
label_1 = [1 for i in range(len(data2[:, 0]))]
for n in range(num_of_cells):
rates_1 = np.random.uniform(low=80, high=100, size=(num_of_states, ))
rates_2 = np.random.uniform(low=80, high=100, size=(num_of_states, ))
rates = np.concatenate((rates_1, rates_2), axis=0).reshape(2, num_of_states)
data, len_0, pi = generate_data(num_of_cells, [.5, .5], rates, seq_len, trans,
start_prob, num_of_states)
y = np.zeros(num_of_cells, dtype=int)
M = 2
lengths = (np.ones(num_of_cells, dtype=int) * seq_len).tolist()
mhmm = spamhmm_init_B.SpaMHMM(n_nodes=1,
mix_dim=M,
n_components=num_of_states,
n_features=seq_len,
graph=None,
n_iter=100,
verbose=True,
name='mhmm')
mhmm.fit(data.flatten()[:, np.newaxis], y, lengths)
pi_nk, transitions = mhmm._compute_mixture_posteriors(
data.flatten()[:, np.newaxis], y, lengths)
predicted_cluster = []
label = []
for n in range(num_of_cells):
cell = np.float64(pi_nk[n])
truth = np.float64(pi[n])
predicted_cluster = np.append(predicted_cluster,
np.where(cell == max(cell))[0][0])
label = np.append(label, np.where(truth == max(truth))[0][0])
print(label)
