def comparison_argparse(debug=True):
ap = argparse.ArgumentParser()
ap.add_argument("--device", required=True)
ap.add_argument("--n-ally", type=int, nargs='+', required=False)
ap.add_argument("--n-advr", type=int, nargs='+', required=False)
ap.add_argument("--dim", type=int, required=True)
ap.add_argument("--hidden-dim", type=int, required=True)
ap.add_argument("--leaky", type=int, required=True)
ap.add_argument("--epsilon", type=float, required=False)
ap.add_argument("--test-size", type=float, required=True)
ap.add_argument("--batch-size", type=int, required=True)
ap.add_argument("--n-epochs", type=int, required=True)
ap.add_argument("--shuffle", type=int, required=True)
ap.add_argument("--lr", type=float, required=False)
ap.add_argument("--lr-ally", type=float, nargs='+', required=False)
ap.add_argument("--lr-advr", type=float, nargs='+', required=False)
ap.add_argument("--expt", required=True)
ap.add_argument("--pca-ckpt", required=False)
ap.add_argument("--autoencoder-ckpt", required=False)
ap.add_argument("--encoder-ckpt", required=False)
args = vars(ap.parse_args())
if debug:
sep()
logging.info(json.dumps(args, indent=2))
return args
def main(
model,
time_stamp,
ally_classes,
advr_1_classes,
advr_2_classes,
test_size,
expl_var,
expt,
):
X, y_ally, y_advr_1, y_advr_2 = load_processed_data(
expt, 'processed_data_X_y_ally_y_advr_y_advr_2.pkl')
log_shapes([X, y_ally, y_advr_1, y_advr_2], locals(), 'Dataset loaded')
X_train, X_valid = train_test_split(
X,
test_size=test_size,
stratify=pd.DataFrame(
np.concatenate((
y_ally.reshape(-1, ally_classes),
y_advr_1.reshape(-1, advr_1_classes),
y_advr_2.reshape(-1, advr_2_classes),
),
axis=1)))
log_shapes([
X_train,
X_valid,
], locals(), 'Data size after train test split')
scaler = StandardScaler()
X_train_normalized = scaler.fit_transform(X_train)
X_valid_normalized = scaler.transform(X_valid)
log_shapes([X_train_normalized, X_valid_normalized], locals())
pca = PCABasic(expl_var)
X_train_pca = pca.train(X_train_normalized)
X_valid_pca = pca.eval(X_valid_normalized)
sep()
logging.info('\nExplained Variance: {}\nNum Components: {}'.format(
str(expl_var),
pca.num_components,
))
config_summary = 'dim_{}'.format(pca.num_components)
model_ckpt = 'checkpoints/{}/{}_sklearn_model_{}_{}.pkl'.format(
expt, model, time_stamp, config_summary)
sep()
logging.info('Saving: {}'.format(model_ckpt))
joblib.dump(pca, model_ckpt)
def pca_argparse(debug=True):
ap = argparse.ArgumentParser()
ap.add_argument("--n-ally", type=int, nargs='+', required=False)
ap.add_argument("--n-advr", type=int, nargs='+', required=False)
ap.add_argument("--test-size", type=float, required=False)
ap.add_argument("--expl-var", type=float, required=True)
ap.add_argument("--expt", required=True)
args = vars(ap.parse_args())
if debug:
sep()
logging.info(json.dumps(args, indent=2))
return args
def eigan_argparse(debug=True):
ap = argparse.ArgumentParser()
ap.add_argument("--device", required=True)
ap.add_argument("--n-gpu", type=int, required=False)
ap.add_argument("--n-nodes", type=int, required=False)
ap.add_argument("--n-ally", type=int, nargs='+', required=False)
ap.add_argument("--n-advr", type=int, nargs='+', required=False)
ap.add_argument("--n-channels", type=int, required=False)
ap.add_argument("--n-filters", type=int, required=False)
ap.add_argument("--dim", type=int, required=False)
ap.add_argument("--hidden-dim", type=int, required=False)
ap.add_argument("--leaky", type=int, required=False)
ap.add_argument("--activation", required=False)
ap.add_argument("--test-size", type=float, required=False)
ap.add_argument("--batch-size", type=int, required=True)
ap.add_argument("--n-epochs", type=int, required=True)
ap.add_argument("--shuffle", type=int, required=False)
ap.add_argument("--init-w", type=int, required=False)
ap.add_argument("--lr-encd", type=float, required=True)
ap.add_argument("--lr-ally", type=float, nargs='+', required=True)
ap.add_argument("--lr-advr", type=float, nargs='+', required=False)
ap.add_argument("--alpha", type=float, required=False)
ap.add_argument("--g-reps", type=int, required=False)
ap.add_argument("--d-reps", type=int, required=False)
ap.add_argument("--num-allies", type=int, required=False)
ap.add_argument("--num-adversaries", type=int, required=False)
ap.add_argument("--expt", required=True)
ap.add_argument("--encd-ckpt", required=False)
ap.add_argument("--ally-ckpts", nargs="+", required=False)
ap.add_argument("--advr-ckpts", nargs="+", required=False)
args = vars(ap.parse_args())
if debug:
sep()
logging.info(json.dumps(args, indent=2))
return args
def main(
model,
time_stamp,
expl_var,
expt,
):
X_train, X_valid,\
y_train, y_valid = get_data(expt)
pca = PCABasic(expl_var)
pca.train(X_train.reshape(cfg.num_trains[expt], -1))
sep()
logging.info('\nExplained Variance: {}\nNum Components: {}'.format(
str(expl_var),
pca.num_components,
))
model_ckpt = 'ckpts/{}/models/{}_{}.pkl'.format(expt, model, marker)
sep()
logging.info('Saving: {}'.format(model_ckpt))
joblib.dump(pca, model_ckpt)
def main(
model,
time_stamp,
device,
encoding_dim,
hidden_dim,
leaky,
test_size,
batch_size,
n_epochs,
shuffle,
lr,
expt,
pca_ckpt,
autoencoder_ckpt,
encoder_ckpt,
):
device = torch_device(device=device)
X, targets = load_processed_data(
expt, 'processed_data_X_targets.pkl')
log_shapes(
[X] + [targets[i] for i in targets],
locals(),
'Dataset loaded'
)
targets = {i: elem.reshape(-1, 1) for i, elem in targets.items()}
X_train, X_valid, \
y_adt_train, y_adt_valid = train_test_split(
X,
targets['admission_type'],
test_size=test_size,
stratify=pd.DataFrame(np.concatenate(
(
targets['admission_type'],
), axis=1)
)
)
log_shapes(
[
X_train, X_valid,
y_adt_train, y_adt_valid,
],
locals(),
'Data size after train test split'
)
y_train = y_adt_train
y_valid = y_adt_valid
scaler = StandardScaler()
X_normalized_train = scaler.fit_transform(X_train)
X_normalized_valid = scaler.transform(X_valid)
log_shapes([X_normalized_train, X_normalized_valid], locals())
ckpts = {
# 123A: checkpoints/mimic/n_ind_gan_training_history_02_03_2020_17_41_09.pkl
# 0: 'checkpoints/mimic/n_eigan_torch_model_02_03_2020_16_13_39_A_n_1_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_0_encd_0.0471_advr_0.5991.pkl',
# 28B: checkpoints/mimic/n_ind_gan_training_history_02_05_2020_00_23_29.pkl
# 1: 'checkpoints/mimic/n_eigan_torch_model_02_04_2020_22_51_11_B_n_2_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_1_encd_0.0475_advr_0.5992.pkl',
# 123A: checkpoints/mimic/n_ind_gan_training_history_02_03_2020_17_41_09.pkl
# 2: 'checkpoints/mimic/n_eigan_torch_model_02_03_2020_16_14_37_A_n_3_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_2_encd_0.0464_advr_0.5991.pkl',
# 224A: checkpoints/mimic/n_ind_gan_training_history_02_03_2020_20_09_39.pkl
# 3: 'checkpoints/mimic/n_eigan_torch_model_02_03_2020_18_08_09_A_n_4_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_3_encd_0.0469_advr_0.5991.pkl',
# 24A: checkpoints/mimic/n_ind_gan_training_history_02_04_2020_00_21_50.pkl
# 4: 'checkpoints/mimic/n_eigan_torch_model_02_03_2020_23_12_05_A_n_5_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_4_encd_0.0468_advr_0.5994.pkl',
# 67A: checkpoints/mimic/n_ind_gan_training_history_02_04_2020_05_30_09.pkl
# 5: 'checkpoints/mimic/n_eigan_torch_model_02_04_2020_00_15_28_A_n_6_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_5_encd_0.0462_advr_0.5991.pkl',
# 67A: checkpoints/mimic/n_ind_gan_training_history_02_04_2020_05_30_09.pkl
# 6: 'checkpoints/mimic/n_eigan_torch_model_02_04_2020_00_42_31_A_n_7_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_6_encd_0.0453_advr_0.5992.pkl',
# 28B: checkpoints/mimic/n_ind_gan_training_history_02_05_2020_00_23_29.pkl
# 7: 'checkpoints/mimic/n_eigan_torch_model_02_04_2020_22_54_21_B_n_8_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_7_encd_0.0477_advr_0.5992.pkl',
# 9B: checkpoints/mimic/n_ind_gan_training_history_02_05_2020_18_09_03.pkl
# 8: 'checkpoints/mimic/n_eigan_torch_model_02_05_2020_00_48_34_B_n_9_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_8_encd_0.0473_advr_0.6000.pkl',
# nA: heckpoints/mimic/n_ind_gan_training_history_02_04_2020_20_13_29.pkl
# 9: 'checkpoints/mimic/n_eigan_torch_model_02_04_2020_18_51_01_A_n_10_device_cuda_dim_256_hidden_512_batch_32768_epochs_1001_ally_9_encd_0.0420_advr_0.5992.pkl',
}
h = {}
for idx, ckpt in ckpts.items():
encoder = torch.load(ckpt, map_location=device)
encoder.eval()
optim = torch.optim.Adam
criterionBCEWithLogits = nn.BCEWithLogitsLoss()
h[idx] = {
'epoch_train': [],
'epoch_valid': [],
'advr_train': [],
'advr_valid': [],
}
dataset_train = utils.TensorDataset(
torch.Tensor(X_normalized_train),
torch.Tensor(y_train),
)
dataset_valid = utils.TensorDataset(
torch.Tensor(X_normalized_valid),
torch.Tensor(y_valid),
)
def transform(input_arg):
return encoder(input_arg)
dataloader_train = torch.utils.data.DataLoader(
dataset_train,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1
)
dataloader_valid = torch.utils.data.DataLoader(
dataset_valid,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1
)
clf = DiscriminatorFCN(
encoding_dim, hidden_dim, 1,
leaky).to(device)
clf.apply(weights_init)
sep('{} {}'.format(idx+1, 'ally'))
summary(clf, input_size=(1, encoding_dim))
optimizer = optim(clf.parameters(), lr=lr)
# adversary 1
sep("adversary with {} ally encoder".format(idx+1))
logging.info('{} \t {} \t {}'.format(
'Epoch',
'Advr Train',
'Advr Valid',
))
for epoch in range(n_epochs):
clf.train()
nsamples = 0
iloss_advr = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = transform(data[0].to(device))
y_advr_train_torch = data[1].to(device)
optimizer.zero_grad()
y_advr_train_hat_torch = clf(X_train_torch)
loss_advr = criterionBCEWithLogits(
y_advr_train_hat_torch, y_advr_train_torch)
loss_advr.backward()
optimizer.step()
nsamples += 1
iloss_advr += loss_advr.item()
h[idx]['advr_train'].append(iloss_advr/nsamples)
h[idx]['epoch_train'].append(epoch)
if epoch % int(n_epochs/10) != 0:
continue
clf.eval()
nsamples = 0
iloss_advr = 0
correct = 0
total = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = transform(data[0].to(device))
y_advr_valid_torch = data[1].to(device)
y_advr_valid_hat_torch = clf(X_valid_torch)
valid_loss_advr = criterionBCEWithLogits(
y_advr_valid_hat_torch, y_advr_valid_torch,)
predicted = y_advr_valid_hat_torch > 0.5
nsamples += 1
iloss_advr += valid_loss_advr.item()
total += y_advr_valid_torch.size(0)
correct += (predicted == y_advr_valid_torch).sum().item()
h[idx]['advr_valid'].append(iloss_advr/nsamples)
h[idx]['epoch_valid'].append(epoch)
logging.info(
'{} \t {:.8f} \t {:.8f} \t {:.8f}'.
format(
epoch,
h[idx]['advr_train'][-1],
h[idx]['advr_valid'][-1],
correct/total
))
checkpoint_location = \
'checkpoints/{}/{}_training_history_{}.pkl'.format(
expt, model, time_stamp)
sep()
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump(h, open(checkpoint_location, 'wb'))
def main(
model,
device,
encoding_dim,
batch_size,
n_epochs,
shuffle,
lr,
expt,
):
device = torch_device(device=device)
X_train, X_valid, \
y_train, y_valid = get_data(expt)
dataset_train = utils.TensorDataset(
torch.Tensor(X_train.reshape(cfg.num_trains[expt], -1)))
dataloader_train = torch.utils.data.DataLoader(dataset_train,
batch_size=batch_size,
shuffle=shuffle,
num_workers=2)
dataset_valid = utils.TensorDataset(
torch.Tensor(X_valid.reshape(cfg.num_tests[expt], -1)))
dataloader_valid = torch.utils.data.DataLoader(dataset_valid,
batch_size=batch_size,
shuffle=False,
num_workers=2)
auto_encoder = AutoEncoderBasic(input_size=cfg.input_sizes[expt],
encoding_dim=encoding_dim).to(device)
criterion = torch.nn.MSELoss()
adam_optim = torch.optim.Adam
optimizer = adam_optim(auto_encoder.parameters(), lr=lr)
summary(auto_encoder, input_size=(1, cfg.input_sizes[expt]))
h_epoch = []
h_valid = []
h_train = []
auto_encoder.train()
sep()
logging.info("epoch \t train \t valid")
best = math.inf
config_summary = 'device_{}_dim_{}_batch_{}_epochs_{}_lr_{}'.format(
device,
encoding_dim,
batch_size,
n_epochs,
lr,
)
for epoch in range(n_epochs):
nsamples = 0
iloss = 0
for data in dataloader_train:
optimizer.zero_grad()
X_torch = data[0].to(device)
X_torch_hat = auto_encoder(X_torch)
loss = criterion(X_torch_hat, X_torch)
loss.backward()
optimizer.step()
nsamples += 1
iloss += loss.item()
if epoch % int(n_epochs / 10) != 0:
continue
h_epoch.append(epoch)
h_train.append(iloss / nsamples)
nsamples = 0
iloss = 0
for data in dataloader_valid:
X_torch = data[0].to(device)
X_torch_hat = auto_encoder(X_torch)
loss = criterion(X_torch_hat, X_torch)
nsamples += 1
iloss += loss.item()
h_valid.append(iloss / nsamples)
if h_valid[-1] < best:
best = h_valid[-1]
model_ckpt = 'ckpts/{}/models/{}_{}_{}.best'.format(
expt, model, config_summary, marker)
logging.info('Saving: {}'.format(model_ckpt))
torch.save(auto_encoder.state_dict(), model_ckpt)
logging.info('{} \t {:.8f} \t {:.8f}'.format(
h_epoch[-1],
h_train[-1],
h_valid[-1],
))
fig = plt.figure(figsize=(5, 4))
ax = fig.add_subplot(111)
ax.plot(h_epoch, h_train, 'r.:')
ax.plot(h_epoch, h_valid, 'rs-.')
ax.set_xlabel('epochs')
ax.set_ylabel('loss (MSEE)')
plt.legend(['train loss', 'valid loss'])
plot_location = 'ckpts/{}/plots/{}_{}_{}.png'.format(
expt, model, config_summary, marker)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location)
checkpoint_location = 'ckpts/{}/history/{}_{}_{}.pkl'.format(
expt, model, config_summary, marker)
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump((h_epoch, h_train, h_valid), open(checkpoint_location, 'wb'))
model_ckpt = 'ckpts/{}/models/{}_{}_{}.stop'.format(
expt, model, config_summary, marker)
logging.info('Saving: {}'.format(model_ckpt))
torch.save(auto_encoder.state_dict(), model_ckpt)
def main(model, time_stamp, device, ngpu, num_nodes, ally_classes,
advr_1_classes, advr_2_classes, encoding_dim, hidden_dim, leaky,
activation, test_size, batch_size, n_epochs, shuffle, init_weight,
lr_encd, lr_ally, lr_advr_1, lr_advr_2, alpha, g_reps, d_reps, expt,
marker):
device = torch_device(device=device)
X, y_ally, y_advr_1, y_advr_2 = load_processed_data(
expt, 'processed_data_X_y_ally_y_advr_y_advr_2.pkl')
log_shapes([X, y_ally, y_advr_1, y_advr_2], locals(), 'Dataset loaded')
X_train, X_valid, \
y_ally_train, y_ally_valid, \
y_advr_1_train, y_advr_1_valid, \
y_advr_2_train, y_advr_2_valid = train_test_split(
X,
y_ally,
y_advr_1,
y_advr_2,
test_size=test_size,
stratify=pd.DataFrame(np.concatenate(
(
y_ally.reshape(-1, ally_classes),
y_advr_1.reshape(-1, advr_1_classes),
y_advr_2.reshape(-1, advr_2_classes),
), axis=1)
)
)
log_shapes([
X_train,
X_valid,
y_ally_train,
y_ally_valid,
y_advr_1_train,
y_advr_1_valid,
y_advr_2_train,
y_advr_2_valid,
], locals(), 'Data size after train test split')
num_features = X_train.shape[1]
split_pts = num_features // num_nodes
X_train, X_valid = np.split(X_train, num_nodes,
axis=1), np.split(X_valid, num_nodes, axis=1)
log_shapes(X_train + X_valid, locals(),
'Data size after splitting data among nodes')
scaler = StandardScaler()
X_normalized_train, X_normalized_valid = [], []
for train, valid in zip(X_train, X_valid):
X_normalized_train.append(scaler.fit_transform(train))
X_normalized_valid.append(scaler.transform(valid))
log_shapes(X_normalized_train + X_normalized_valid, locals())
encoders = []
allies = []
adversaries_1 = []
adversaries_2 = []
for train in X_normalized_train:
encoders.append(
GeneratorFCN(train.shape[1], hidden_dim, encoding_dim // num_nodes,
leaky, activation).to(device))
allies.append(
DiscriminatorFCN(encoding_dim // num_nodes, hidden_dim,
ally_classes, leaky).to(device))
adversaries_1.append(
DiscriminatorFCN(encoding_dim // num_nodes, hidden_dim,
advr_1_classes, leaky).to(device))
adversaries_2.append(
DiscriminatorFCN(encoding_dim // num_nodes, hidden_dim,
advr_2_classes, leaky).to(device))
sep('encoders')
for k in range(num_nodes):
summary(encoders[k], input_size=(1, X_normalized_train[k].shape[1]))
sep('ally')
for k in range(num_nodes):
summary(allies[k], input_size=(1, encoding_dim // num_nodes))
sep('advr_1')
for k in range(num_nodes):
summary(adversaries_1[k], input_size=(1, encoding_dim // num_nodes))
sep('advr_2')
for k in range(num_nodes):
summary(adversaries_2[k], input_size=(1, encoding_dim // num_nodes))
optim = torch.optim.Adam
criterionBCEWithLogits = nn.BCEWithLogitsLoss()
optimizers_encd = []
for encoder in encoders:
optimizers_encd.append(optim(encoder.parameters(), lr=lr_encd))
optimizers_ally = []
for ally in allies:
optimizers_ally.append(optim(ally.parameters(), lr=lr_ally))
optimizers_advr_1 = []
for advr_1 in adversaries_1:
optimizers_advr_1.append(optim(advr_1.parameters(), lr=lr_advr_1))
optimizers_advr_2 = []
for advr_2 in adversaries_2:
optimizers_advr_2.append(optim(advr_2.parameters(), lr=lr_advr_2))
for k in range(num_nodes):
sep('Node {}'.format(k))
dataset_train = utils.TensorDataset(
torch.Tensor(X_normalized_train[k]),
torch.Tensor(y_ally_train.reshape(-1, ally_classes)),
torch.Tensor(y_advr_1_train.reshape(-1, advr_1_classes)),
torch.Tensor(y_advr_2_train.reshape(-1, advr_2_classes)),
)
dataloader_train = torch.utils.data.DataLoader(dataset_train,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1)
dataset_valid = utils.TensorDataset(
torch.Tensor(X_normalized_valid[k]),
torch.Tensor(y_ally_valid.reshape(-1, ally_classes)),
torch.Tensor(y_advr_1_valid.reshape(-1, advr_1_classes)),
torch.Tensor(y_advr_2_valid.reshape(-1, advr_2_classes)),
)
dataloader_valid = torch.utils.data.DataLoader(dataset_valid,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1)
epochs_train = []
epochs_valid = []
encd_loss_train = []
encd_loss_valid = []
ally_loss_train = []
ally_loss_valid = []
advr_1_loss_train = []
advr_1_loss_valid = []
advr_2_loss_train = []
advr_2_loss_valid = []
logging.info(
'{} \t {} \t {} \t {} \t {} \t {} \t {} \t {} \t {}'.format(
'Epoch',
'Encd Train',
'Encd Valid',
'Ally Train',
'Ally Valid',
'Advr 1 Train',
'Advr 1 Valid',
'Advr 2 Train',
'Advr 2 Valid',
))
encoder = encoders[k]
ally = allies[k]
advr_1 = adversaries_1[k]
advr_2 = adversaries_2[k]
optimizer_encd = optimizers_encd[k]
optimizer_ally = optimizers_ally[k]
optimizer_advr_1 = optimizers_advr_1[k]
optimizer_advr_2 = optimizers_advr_2[k]
for epoch in range(n_epochs):
encoder.train()
ally.eval()
advr_1.eval()
advr_2.eval()
for __ in range(g_reps):
nsamples = 0
iloss = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = data[0].to(device)
y_ally_train_torch = data[1].to(device)
y_advr_1_train_torch = data[2].to(device)
y_advr_2_train_torch = data[3].to(device)
optimizer_encd.zero_grad()
# Forward pass
X_train_encoded = encoder(X_train_torch)
y_ally_train_hat_torch = ally(X_train_encoded)
y_advr_1_train_hat_torch = advr_1(X_train_encoded)
y_advr_2_train_hat_torch = advr_2(X_train_encoded)
# Compute Loss
loss_ally = criterionBCEWithLogits(y_ally_train_hat_torch,
y_ally_train_torch)
loss_advr_1 = criterionBCEWithLogits(
y_advr_1_train_hat_torch, y_advr_1_train_torch)
loss_advr_2 = criterionBCEWithLogits(
y_advr_2_train_hat_torch, y_advr_2_train_torch)
loss_encd = alpha * loss_ally - (1 - alpha) / 2 * (
loss_advr_1 + loss_advr_2)
# Backward pass
loss_encd.backward()
optimizer_encd.step()
nsamples += 1
iloss += loss_encd.item()
epochs_train.append(epoch)
encd_loss_train.append(iloss / nsamples)
encoder.eval()
ally.train()
advr_1.train()
advr_2.train()
for __ in range(d_reps):
nsamples = 0
iloss_ally = 0
iloss_advr_1 = 0
iloss_advr_2 = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = data[0].to(device)
y_ally_train_torch = data[1].to(device)
y_advr_1_train_torch = data[2].to(device)
y_advr_2_train_torch = data[3].to(device)
optimizer_ally.zero_grad()
X_train_encoded = encoder(X_train_torch)
y_ally_train_hat_torch = ally(X_train_encoded)
loss_ally = criterionBCEWithLogits(y_ally_train_hat_torch,
y_ally_train_torch)
loss_ally.backward()
optimizer_ally.step()
optimizer_advr_1.zero_grad()
X_train_encoded = encoder(X_train_torch)
y_advr_1_train_hat_torch = advr_1(X_train_encoded)
loss_advr_1 = criterionBCEWithLogits(
y_advr_1_train_hat_torch, y_advr_1_train_torch)
loss_advr_1.backward()
optimizer_advr_1.step()
optimizer_advr_2.zero_grad()
X_train_encoded = encoder(X_train_torch)
y_advr_2_train_hat_torch = advr_2(X_train_encoded)
loss_advr_2 = criterionBCEWithLogits(
y_advr_2_train_hat_torch, y_advr_2_train_torch)
loss_advr_2.backward()
optimizer_advr_2.step()
nsamples += 1
iloss_ally += loss_ally.item()
iloss_advr_1 += loss_advr_1.item()
iloss_advr_2 += loss_advr_2.item()
ally_loss_train.append(iloss_ally / nsamples)
advr_1_loss_train.append(iloss_advr_1 / nsamples)
advr_2_loss_train.append(iloss_advr_2 / nsamples)
if epoch % int(n_epochs / 10) != 0:
continue
encoder.eval()
ally.eval()
advr_1.eval()
advr_2.eval()
nsamples = 0
iloss = 0
iloss_ally = 0
iloss_advr_1 = 0
iloss_advr_2 = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = data[0].to(device)
y_ally_valid_torch = data[1].to(device)
y_advr_1_valid_torch = data[2].to(device)
y_advr_2_valid_torch = data[3].to(device)
X_valid_encoded = encoder(X_valid_torch)
y_ally_valid_hat_torch = ally(X_valid_encoded)
y_advr_1_valid_hat_torch = advr_1(X_valid_encoded)
y_advr_2_valid_hat_torch = advr_2(X_valid_encoded)
valid_loss_ally = criterionBCEWithLogits(
y_ally_valid_hat_torch, y_ally_valid_torch)
valid_loss_advr_1 = criterionBCEWithLogits(
y_advr_1_valid_hat_torch, y_advr_1_valid_torch)
valid_loss_advr_2 = criterionBCEWithLogits(
y_advr_2_valid_hat_torch, y_advr_2_valid_torch)
valid_loss_encd = alpha*valid_loss_ally - (1-alpha)/2*(valid_loss_advr_1 + \
valid_loss_advr_2)
nsamples += 1
iloss += valid_loss_encd.item()
iloss_ally += valid_loss_ally.item()
iloss_advr_1 += valid_loss_advr_1.item()
iloss_advr_2 += valid_loss_advr_2.item()
epochs_valid.append(epoch)
encd_loss_valid.append(iloss / nsamples)
ally_loss_valid.append(iloss_ally / nsamples)
advr_1_loss_valid.append(iloss_advr_1 / nsamples)
advr_2_loss_valid.append(iloss_advr_2 / nsamples)
logging.info(
'{} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f}'
.format(
epoch,
encd_loss_train[-1],
encd_loss_valid[-1],
ally_loss_train[-1],
ally_loss_valid[-1],
advr_1_loss_train[-1],
advr_1_loss_valid[-1],
advr_2_loss_train[-1],
advr_2_loss_valid[-1],
))
config_summary = '{}_node_{}_{}_device_{}_dim_{}_hidden_{}_batch_{}_epochs_{}_lrencd_{}_lrally_{}_tr_{:.4f}_val_{:.4f}'\
.format(
marker,
num_nodes,
k,
device,
encoding_dim,
hidden_dim,
batch_size,
n_epochs,
lr_encd,
lr_ally,
encd_loss_train[-1],
advr_1_loss_valid[-1],
)
plt.plot(epochs_train, encd_loss_train, 'r')
plt.plot(epochs_valid, encd_loss_valid, 'r--')
plt.plot(epochs_train, ally_loss_train, 'b')
plt.plot(epochs_valid, ally_loss_valid, 'b--')
plt.plot(epochs_train, advr_1_loss_train, 'g')
plt.plot(epochs_valid, advr_1_loss_valid, 'g--')
plt.plot(epochs_train, advr_2_loss_train, 'y')
plt.plot(epochs_valid, advr_2_loss_valid, 'y--')
plt.legend([
'encoder train',
'encoder valid',
'ally train',
'ally valid',
'advr 1 train',
'advr 1 valid',
'advr 2 train',
'advr 2 valid',
])
plt.title("{}:{}/{} on {} training".format(model, k, num_nodes, expt))
plot_location = 'plots/{}/{}_{}_{}_training_{}_{}.png'.format(
expt, model, num_nodes, k, time_stamp, config_summary)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location)
checkpoint_location = \
'checkpoints/{}/{}_{}_{}_training_history_{}_{}.pkl'.format(
expt, model, num_nodes, k, time_stamp, config_summary)
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump((
epochs_train,
epochs_valid,
encd_loss_train,
encd_loss_valid,
ally_loss_train,
ally_loss_valid,
advr_1_loss_train,
advr_1_loss_valid,
advr_2_loss_train,
advr_2_loss_valid,
), open(checkpoint_location, 'wb'))
model_ckpt = 'checkpoints/{}/{}_{}_{}_torch_model_{}_{}.pkl'.format(
expt, model, num_nodes, k, time_stamp, config_summary)
logging.info('Saving: {}'.format(model_ckpt))
torch.save(encoder, model_ckpt)
def main(expt, model):
pca_1 = pkl.load(
open(
'checkpoints/mimic/ind_pca_training_history_01_20_2020_23_31_01.pkl',
'rb'))
pca_2 = pkl.load(
open(
'checkpoints/mimic/ind_pca_training_history_01_21_2020_00_19_41.pkl',
'rb'))
auto_1 = pkl.load(
open(
'checkpoints/mimic/ind_autoencoder_training_history_01_24_2020_13_50_25.pkl',
'rb'))
dp_1 = pkl.load(
open(
'checkpoints/mimic/ind_dp_training_history_01_24_2020_07_31_44.pkl',
'rb'))
gan_1 = pkl.load(
open(
'checkpoints/mimic/ind_gan_training_history_01_24_2020_13_16_16.pkl',
'rb'))
gan_2 = pkl.load(
open(
'checkpoints/mimic/ind_gan_training_history_01_25_2020_02_04_34.pkl',
'rb'))
# gan_1 = pkl.load(open('checkpoints/mimic/ind_gan_training_history_01_27_2020_00_57_38.pkl', 'rb'))
# gan_2 = gan_1
# print(pca_1.keys(), pca_2.keys(), auto_1.keys(), auto_2.keys(), dp_1.keys(), gan_1.keys())
# return
plt.figure()
fig = plt.figure(figsize=(15, 3))
ax3 = fig.add_subplot(131)
ax1 = fig.add_subplot(132)
ax2 = fig.add_subplot(133)
t3, t1, t2 = '(a)', '(b)', '(c)'
ax3.plot(pca_1['epoch']['valid'], gan_1['encoder']['ally_valid'], 'r')
ax3.plot(pca_1['epoch']['valid'], pca_1['pca']['ally_valid'], 'g')
ax3.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['ally_valid'], 'b')
ax3.plot(pca_1['epoch']['valid'], dp_1['dp']['ally_valid'], 'y')
ax3.legend([
'EIGAN ally',
'Autoencoder ally',
'PCA ally',
'DP ally',
])
ax3.set_title(t3, y=-0.3)
ax3.set_xlabel('epochs')
ax3.set_ylabel('log loss')
ax3.grid()
ax3.text(320, 0.618, 'Lower is better', fontsize=12, color='r')
ax3.set_ylim(bottom=0.58)
ax1.plot(pca_1['epoch']['valid'], gan_2['encoder']['advr_1_valid'], 'r--')
ax1.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['advr_1_valid'],
'b--')
ax1.plot(pca_1['epoch']['valid'], pca_1['pca']['advr_1_valid'], 'g--')
ax1.plot(pca_1['epoch']['valid'], dp_1['dp']['advr_1_valid'], 'y--')
ax1.legend([
'EIGAN adversary 1',
'Autoencoder adversary 1',
'PCA adversary 1',
'DP adversary 1',
])
ax1.set_title(t1, y=-0.3)
ax1.set_xlabel('epochs')
ax1.set_ylabel('log loss')
ax1.grid()
ax1.text(320, 0.67, 'Higher is better', fontsize=12, color='r')
ax1.set_ylim(bottom=0.66)
ax2.plot(pca_1['epoch']['valid'], gan_1['encoder']['advr_2_valid'], 'r--')
ax2.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['advr_2_valid'],
'b--')
ax2.plot(pca_1['epoch']['valid'], pca_2['pca']['advr_2_valid'], 'g--')
ax2.plot(pca_1['epoch']['valid'], dp_1['dp']['advr_2_valid'], 'y--')
ax2.legend([
'EIGAN adversary 2',
'Autoencoder adversary 2',
'PCA adversary 2',
'DP adversary 2',
])
ax2.set_title(t2, y=-0.3)
ax2.set_xlabel('epochs')
ax2.set_ylabel('log loss')
ax2.grid()
ax2.text(320, 0.56, 'Higher is better', fontsize=12, color='r')
ax2.set_ylim(bottom=0.54, top=0.64)
fig.subplots_adjust(wspace=0.3)
plot_location = 'plots/{}/{}_{}.png'.format(expt, 'all', model)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location, bbox_inches='tight')
def main(
model,
time_stamp,
device,
ngpu,
ally_classes,
advr_1_classes,
advr_2_classes,
encoding_dim,
hidden_dim,
leaky,
activation,
test_size,
batch_size,
n_epochs,
shuffle,
init_weight,
lr_encd,
lr_ally,
lr_advr_1,
lr_advr_2,
alpha,
g_reps,
d_reps,
expt,
marker
):
device = torch_device(device=device)
X, y_ally, y_advr_1, y_advr_2 = load_processed_data(
expt, 'processed_data_X_y_ally_y_advr_y_advr_2.pkl')
log_shapes(
[X, y_ally, y_advr_1, y_advr_2],
locals(),
'Dataset loaded'
)
X_train, X_valid, \
y_ally_train, y_ally_valid, \
y_advr_1_train, y_advr_1_valid, \
y_advr_2_train, y_advr_2_valid = train_test_split(
X,
y_ally,
y_advr_1,
y_advr_2,
test_size=test_size,
stratify=pd.DataFrame(np.concatenate(
(
y_ally.reshape(-1, ally_classes),
y_advr_1.reshape(-1, advr_1_classes),
y_advr_2.reshape(-1, advr_2_classes),
), axis=1)
)
)
log_shapes(
[
X_train, X_valid,
y_ally_train, y_ally_valid,
y_advr_1_train, y_advr_1_valid,
y_advr_2_train, y_advr_2_valid,
],
locals(),
'Data size after train test split'
)
scaler = StandardScaler()
X_normalized_train = scaler.fit_transform(X_train)
X_normalized_valid = scaler.transform(X_valid)
log_shapes([X_normalized_train, X_normalized_valid], locals())
encoder = GeneratorFCN(
X_normalized_train.shape[1], hidden_dim, encoding_dim,
leaky, activation).to(device)
ally = DiscriminatorFCN(
encoding_dim, hidden_dim, ally_classes,
leaky).to(device)
advr_1 = DiscriminatorFCN(
encoding_dim, hidden_dim, advr_1_classes,
leaky).to(device)
advr_2 = DiscriminatorFCN(
encoding_dim, hidden_dim, advr_2_classes,
leaky).to(device)
if init_weight:
sep()
logging.info('applying weights_init ...')
encoder.apply(weights_init)
ally.apply(weights_init)
advr_1.apply(weights_init)
advr_2.apply(weights_init)
sep('encoder')
summary(encoder, input_size=(1, X_normalized_train.shape[1]))
sep('ally')
summary(ally, input_size=(1, encoding_dim))
sep('advr_1')
summary(advr_1, input_size=(1, encoding_dim))
sep('advr_2')
summary(advr_2, input_size=(1, encoding_dim))
optim = torch.optim.Adam
criterionBCEWithLogits = nn.BCEWithLogitsLoss()
criterionCrossEntropy = nn.CrossEntropyLoss()
optimizer_encd = optim(
encoder.parameters(),
lr=lr_encd,
weight_decay=lr_encd
)
optimizer_ally = optim(
ally.parameters(),
lr=lr_ally,
weight_decay=lr_ally
)
optimizer_advr_1 = optim(
advr_1.parameters(),
lr=lr_advr_1,
weight_decay=lr_advr_1
)
optimizer_advr_2 = optim(
advr_2.parameters(),
lr=lr_advr_2,
weight_decay=lr_advr_2
)
dataset_train = utils.TensorDataset(
torch.Tensor(X_normalized_train),
torch.Tensor(y_ally_train.reshape(-1, 1)),
torch.Tensor(y_advr_1_train.reshape(-1, 1)),
torch.Tensor(y_advr_2_train.reshape(-1, 3)),
)
dataloader_train = torch.utils.data.DataLoader(
dataset_train,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1
)
dataset_valid = utils.TensorDataset(
torch.Tensor(X_normalized_valid),
torch.Tensor(y_ally_valid.reshape(-1, 1)),
torch.Tensor(y_advr_1_valid.reshape(-1, 1)),
torch.Tensor(y_advr_2_valid.reshape(-1, 3)),
)
dataloader_valid = torch.utils.data.DataLoader(
dataset_valid,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1
)
epochs_train = []
epochs_valid = []
encd_loss_train = []
encd_loss_valid = []
ally_loss_train = []
ally_loss_valid = []
advr_1_loss_train = []
advr_1_loss_valid = []
advr_2_loss_train = []
advr_2_loss_valid = []
logging.info('{} \t {} \t {} \t {} \t {} \t {} \t {} \t {} \t {}'.format(
'Epoch',
'Encd Train',
'Encd Valid',
'Ally Train',
'Ally Valid',
'Advr 1 Train',
'Advr 1 Valid',
'Advr 2 Train',
'Advr 2 Valid',
))
for epoch in range(n_epochs):
encoder.train()
ally.eval()
advr_1.eval()
advr_2.eval()
for __ in range(g_reps):
nsamples = 0
iloss = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = data[0].to(device)
y_ally_train_torch = data[1].to(device)
y_advr_1_train_torch = data[2].to(device)
y_advr_2_train_torch = data[3].to(device)
optimizer_encd.zero_grad()
# Forward pass
X_train_encoded = encoder(X_train_torch)
y_ally_train_hat_torch = ally(X_train_encoded)
y_advr_1_train_hat_torch = advr_1(X_train_encoded)
y_advr_2_train_hat_torch = advr_2(X_train_encoded)
# Compute Loss
loss_ally = criterionBCEWithLogits(
y_ally_train_hat_torch, y_ally_train_torch)
loss_advr_1 = criterionBCEWithLogits(
y_advr_1_train_hat_torch,
y_advr_1_train_torch)
loss_advr_2 = criterionCrossEntropy(
y_advr_2_train_hat_torch,
torch.argmax(y_advr_2_train_torch, 1))
loss_encd = loss_ally - loss_advr_1 - loss_advr_2
# Backward pass
loss_encd.backward()
optimizer_encd.step()
nsamples += 1
iloss += loss_encd.item()
epochs_train.append(epoch)
encd_loss_train.append(iloss/nsamples)
encoder.eval()
ally.train()
advr_1.train()
advr_2.train()
for __ in range(d_reps):
nsamples = 0
iloss_ally = 0
iloss_advr_1 = 0
iloss_advr_2 = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = data[0].to(device)
y_ally_train_torch = data[1].to(device)
y_advr_1_train_torch = data[2].to(device)
y_advr_2_train_torch = data[3].to(device)
optimizer_ally.zero_grad()
X_train_encoded = encoder(X_train_torch)
y_ally_train_hat_torch = ally(X_train_encoded)
loss_ally = criterionBCEWithLogits(
y_ally_train_hat_torch, y_ally_train_torch)
loss_ally.backward()
optimizer_ally.step()
optimizer_advr_1.zero_grad()
X_train_encoded = encoder(X_train_torch)
y_advr_1_train_hat_torch = advr_1(X_train_encoded)
loss_advr_1 = criterionBCEWithLogits(
y_advr_1_train_hat_torch,
y_advr_1_train_torch)
loss_advr_1.backward()
optimizer_advr_1.step()
optimizer_advr_2.zero_grad()
X_train_encoded = encoder(X_train_torch)
y_advr_2_train_hat_torch = advr_2(X_train_encoded)
loss_advr_2 = criterionCrossEntropy(
y_advr_2_train_hat_torch,
torch.argmax(y_advr_2_train_torch, 1))
loss_advr_2.backward()
optimizer_advr_2.step()
nsamples += 1
iloss_ally += loss_ally.item()
iloss_advr_1 += loss_advr_1.item()
iloss_advr_2 += loss_advr_2.item()
ally_loss_train.append(iloss_ally/nsamples)
advr_1_loss_train.append(iloss_advr_1/nsamples)
advr_2_loss_train.append(iloss_advr_2/nsamples)
if epoch % int(n_epochs/10) != 0:
continue
encoder.eval()
ally.eval()
advr_1.eval()
advr_2.eval()
nsamples = 0
iloss = 0
iloss_ally = 0
iloss_advr_1 = 0
iloss_advr_2 = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = data[0].to(device)
y_ally_valid_torch = data[1].to(device)
y_advr_1_valid_torch = data[2].to(device)
y_advr_2_valid_torch = data[3].to(device)
X_valid_encoded = encoder(X_valid_torch)
y_ally_valid_hat_torch = ally(X_valid_encoded)
y_advr_1_valid_hat_torch = advr_1(X_valid_encoded)
y_advr_2_valid_hat_torch = advr_2(X_valid_encoded)
valid_loss_ally = criterionBCEWithLogits(
y_ally_valid_hat_torch, y_ally_valid_torch)
valid_loss_advr_1 = criterionBCEWithLogits(
y_advr_1_valid_hat_torch, y_advr_1_valid_torch)
valid_loss_advr_2 = criterionCrossEntropy(
y_advr_2_valid_hat_torch,
torch.argmax(y_advr_2_valid_torch, 1))
valid_loss_encd = valid_loss_ally - valid_loss_advr_1 - \
valid_loss_advr_2
nsamples += 1
iloss += valid_loss_encd.item()
iloss_ally += valid_loss_ally.item()
iloss_advr_1 += valid_loss_advr_1.item()
iloss_advr_2 += valid_loss_advr_2.item()
epochs_valid.append(epoch)
encd_loss_valid.append(iloss/nsamples)
ally_loss_valid.append(iloss_ally/nsamples)
advr_1_loss_valid.append(iloss_advr_1/nsamples)
advr_2_loss_valid.append(iloss_advr_2/nsamples)
logging.info(
'{} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f} \t {:.8f}'.
format(
epoch,
encd_loss_train[-1],
encd_loss_valid[-1],
ally_loss_train[-1],
ally_loss_valid[-1],
advr_1_loss_train[-1],
advr_1_loss_valid[-1],
advr_2_loss_train[-1],
advr_2_loss_valid[-1],
))
config_summary = '{}_device_{}_dim_{}_hidden_{}_batch_{}_epochs_{}_lrencd_{}_lrally_{}_tr_{:.4f}_val_{:.4f}'\
.format(
marker,
device,
encoding_dim,
hidden_dim,
batch_size,
n_epochs,
lr_encd,
lr_ally,
encd_loss_train[-1],
advr_1_loss_valid[-1],
)
plt.plot(epochs_train, encd_loss_train, 'r')
plt.plot(epochs_valid, encd_loss_valid, 'r--')
plt.plot(epochs_train, ally_loss_train, 'b')
plt.plot(epochs_valid, ally_loss_valid, 'b--')
plt.plot(epochs_train, advr_1_loss_train, 'g')
plt.plot(epochs_valid, advr_1_loss_valid, 'g--')
plt.plot(epochs_train, advr_2_loss_train, 'y')
plt.plot(epochs_valid, advr_2_loss_valid, 'y--')
plt.legend([
'encoder train', 'encoder valid',
'ally train', 'ally valid',
'advr 1 train', 'advr 1 valid',
'advr 2 train', 'advr 2 valid',
])
plt.title("{} on {} training".format(model, expt))
plot_location = 'plots/{}/{}_training_{}_{}.png'.format(
expt, model, time_stamp, config_summary)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location)
checkpoint_location = \
'checkpoints/{}/{}_training_history_{}_{}.pkl'.format(
expt, model, time_stamp, config_summary)
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump((
epochs_train, epochs_valid,
encd_loss_train, encd_loss_valid,
ally_loss_train, ally_loss_valid,
advr_1_loss_train, advr_1_loss_valid,
advr_2_loss_train, advr_2_loss_valid,
), open(checkpoint_location, 'wb'))
model_ckpt = 'checkpoints/{}/{}_torch_model_{}_{}.pkl'.format(
expt, model, time_stamp, config_summary)
logging.info('Saving: {}'.format(model_ckpt))
torch.save(encoder, model_ckpt)
def main(expt, model):
pca_1 = pkl.load(open('checkpoints/mimic_centralized/ind_pca_training_history_01_20_2020_23_31_01.pkl', 'rb'))
pca_2 = pkl.load(open('checkpoints/mimic_centralized/ind_pca_training_history_01_21_2020_00_19_41.pkl', 'rb'))
auto_1 = pkl.load(open('checkpoints/mimic_centralized/ind_autoencoder_training_history_01_24_2020_13_50_25.pkl', 'rb'))
dp_1 = pkl.load(open('checkpoints/mimic_centralized/ind_dp_training_history_01_24_2020_07_31_44.pkl', 'rb'))
gan_1 = pkl.load(open('checkpoints/mimic_centralized/ind_gan_training_history_01_24_2020_13_16_16.pkl', 'rb'))
gan_2 = pkl.load(open('checkpoints/mimic_centralized/ind_gan_training_history_01_25_2020_02_04_34.pkl', 'rb'))
st_1_2 = pkl.load(open('checkpoints/mimic/ind_gan_dist_s1_2_training_history_04_07_2020_15_44_42.pkl', 'rb'))
st_1_3 = pkl.load(open('checkpoints/mimic/ind_gan_dist_s1_nodes_3_training_history_04_16_2020_23_06_10.pkl', 'rb'))
st_1_4 = pkl.load(open('checkpoints/mimic/ind_gan_dist_s1_nodes_4_training_history_04_17_2020_00_29_50.pkl', 'rb'))
st_1_6 = pkl.load(open('checkpoints/mimic/ind_gan_dist_s1_nodes_6_training_history_04_17_2020_01_23_53.pkl', 'rb'))
st_1_8 = pkl.load(open('checkpoints/mimic/ind_gan_dist_s1_nodes_8_training_history_04_17_2020_12_58_18.pkl', 'rb'))
st_1_12 = pkl.load(open('checkpoints/mimic/ind_gan_dist_s1_nodes_12_training_history_04_17_2020_14_40_30.pkl', 'rb'))
# gan_1 = pkl.load(open('checkpoints/mimic/ind_gan_training_history_01_27_2020_00_57_38.pkl', 'rb'))
# gan_2 = gan_1
s = pkl.load(open('checkpoints/mimic_centralized/n_eigan_training_history_02_03_2020_00_59_27_B_device_cuda_dim_256_hidden_512_batch_16384_epochs_1001_ally_0_encd_0.0276_advr_0.5939.pkl','rb'))
# print(pca_1.keys(), pca_2.keys(), auto_1.keys(), auto_2.keys(), dp_1.keys(), gan_1.keys())
# return
plt.figure()
fig = plt.figure(figsize=(15, 4))
ax1 = fig.add_subplot(131)
ax3 = fig.add_subplot(132)
ax2 = fig.add_subplot(133)
t1, t3, t2 = '(a)', '(b)', '(c)'
ax3.plot(pca_1['epoch']['valid'], gan_1['encoder']['ally_valid'], 'r')
# ax3.plot(pca_1['epoch']['valid'], st_1_2['encoder']['ally_valid'], 'k*')
# ax3.plot(pca_1['epoch']['valid'], st_1_3['encoder']['ally_valid'], 'k--')
# ax3.plot(pca_1['epoch']['valid'], st_1_4['encoder']['ally_valid'], 'k+')
# ax3.plot(pca_1['epoch']['valid'], st_1_6['encoder']['ally_valid'], 'ks')
# ax3.plot(pca_1['epoch']['valid'], st_1_8['encoder']['ally_valid'], 'k.')
# ax3.plot(pca_1['epoch']['valid'], st_1_12['encoder']['ally_valid'], 'k')
ax3.plot(pca_1['epoch']['valid'], pca_1['pca']['ally_valid'], 'g')
ax3.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['ally_valid'], 'b')
ax3.plot(pca_1['epoch']['valid'], dp_1['dp']['ally_valid'], 'y')
ax3.legend([
'EIGAN',
# '2 nodes',
# '3 nodes',
# '4 nodes',
# '6 nodes',
# '8 nodes',
# '12 nodes',
'Autoencoder',
'PCA',
'DP',
],prop={'size':10})
ax3.set_title(t3, y=-0.32)
ax3.set_xlabel('epochs')
ax3.set_ylabel('ally log loss')
ax3.grid()
ax3.text(320,0.618, 'Lower is better', fontsize=14, color='r')
ax3.set_ylim(bottom=0.58, top=0.8)
ax3.set_xlim(left=0, right=1000)
ax1.plot(pca_1['epoch']['valid'], gan_2['encoder']['advr_1_valid'], 'r', label='EIGAN')
ax1.plot(pca_1['epoch']['valid'], gan_1['encoder']['advr_2_valid'], 'r--')
# ax1.plot(pca_1['epoch']['valid'], st_1_2['encoder']['advr_1_valid'], 'k*', label='2 nodes')
# ax1.plot(pca_1['epoch']['valid'], st_1_3['encoder']['advr_1_valid'], 'k--', label='3 nodes')
# ax1.plot(pca_1['epoch']['valid'], st_1_4['encoder']['advr_1_valid'], 'k+', label='4 nodes')
# ax1.plot(pca_1['epoch']['valid'], st_1_6['encoder']['advr_1_valid'], 'ks', label='6 nodes')
# ax1.plot(pca_1['epoch']['valid'], st_1_8['encoder']['advr_1_valid'], 'k.', label='8 nodes')
# ax1.plot(pca_1['epoch']['valid'], st_1_12['encoder']['advr_1_valid'], 'k', label='12 nodes')
ax1.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['advr_1_valid'], 'b', label='Autoencoder')
ax1.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['advr_2_valid'], 'b--')
ax1.plot(pca_1['epoch']['valid'], pca_1['pca']['advr_1_valid'], 'g', label='PCA')
ax1.plot(pca_1['epoch']['valid'], pca_2['pca']['advr_2_valid'], 'g--')
ax1.plot(pca_1['epoch']['valid'], dp_1['dp']['advr_1_valid'], 'y', label='DP')
ax1.plot(pca_1['epoch']['valid'], dp_1['dp']['advr_2_valid'], 'y--')
# ax1.legend(prop={'size':10})
ax1.set_title(t1, y=-0.32)
ax1.set_xlabel('epochs')
ax1.set_ylabel('adversary log loss')
ax1.grid()
ax1.text(320,0.58, 'Higher is better', fontsize=14, color='r')
ax1.set_ylim(bottom=0.53, top=0.81)
ax1.set_xlim(left=0, right=1000)
# ax2.plot(pca_1['epoch']['valid'], gan_1['encoder']['advr_2_valid'], 'r', label='EIGAN Adversary 2')
# ax2.plot(pca_1['epoch']['valid'], st_1_2['encoder']['advr_2_valid'], 'k*', label='2 nodes')
# ax2.plot(pca_1['epoch']['valid'], st_1_3['encoder']['advr_2_valid'], 'k--', label='3 nodes')
# ax2.plot(pca_1['epoch']['valid'], st_1_4['encoder']['advr_2_valid'], 'k+', label='4 nodes')
# ax2.plot(pca_1['epoch']['valid'], st_1_6['encoder']['advr_2_valid'], 'ks', label='6 nodes')
# ax2.plot(pca_1['epoch']['valid'], st_1_8['encoder']['advr_2_valid'], 'k.', label='8 nodes')
# ax2.plot(pca_1['epoch']['valid'], st_1_12['encoder']['advr_2_valid'], 'k', label='12 nodes')
# ax2.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['advr_2_valid'], 'b', label='autoencoder')
# ax2.plot(pca_1['epoch']['valid'], pca_2['pca']['advr_2_valid'], 'g', label='PCA')
# ax2.plot(pca_1['epoch']['valid'], dp_1['dp']['advr_2_valid'], 'y', label='DP')
ax2.plot(s[0], s[2], 'r', label='encoder loss')
ax2.set_title('(c)', y=-0.32)
ax2.plot(np.nan, 'b', label = 'adversary loss')
ax2.legend(prop={'size':10})
ax2.set_xlabel('epochs')
ax2.set_ylabel('log loss')
ax2.grid()
ax2.set_xlim(left=0,right=500)
ax4 = ax2.twinx()
ax4.plot(s[0], s[6], 'b')
ax4.set_ylabel('adversary loss')
fig.subplots_adjust(wspace=0.4)
plot_location = 'plots/{}/{}_{}.png'.format(expt, 'all', model)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location, bbox_inches='tight', dpi=300)
def main(expt, model):
pca_1 = pkl.load(
open(
'checkpoints/mnist/ind_pca_training_history_01_30_2020_23_28_51.pkl',
'rb'))
auto_1 = pkl.load(
open(
'checkpoints/mnist/ind_autoencoder_training_history_01_30_2020_23_35_33.pkl',
'rb'))
# dp_1 = pkl.load(open('checkpoints/mnist/ind_dp_training_history_02_01_2020_02_35_49.pkl', 'rb'))
gan_1 = pkl.load(
open(
'checkpoints/mnist/ind_gan_training_history_01_31_2020_16_05_44.pkl',
'rb'))
u = pkl.load(
open(
'checkpoints/mnist/eigan_training_history_02_05_2020_19_54_36_A_device_cuda_dim_1024_hidden_2048_batch_4096_epochs_501_lrencd_0.01_lrally_1e-05_lradvr_1e-05_tr_0.4023_val_1.7302.pkl',
'rb'))
# print(pca_1.keys(), pca_2.keys(), auto_1.keys(), auto_2.keys(), dp_1.keys(), gan_1.keys())
# return
plt.figure()
fig = plt.figure(figsize=(15, 4))
ax1 = fig.add_subplot(131)
ax3 = fig.add_subplot(132)
ax2 = fig.add_subplot(133)
t3, t1, t2 = '(b)', '(a)', '(c)'
ax3.plot(pca_1['epoch']['valid'], gan_1['encoder']['advr_1_valid'], 'r')
ax3.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['advr_1_valid'],
'b')
ax3.plot(pca_1['epoch']['valid'], pca_1['pca']['advr_1_valid'], 'g')
# ax3.plot(pca_1['epoch']['valid'], dp_1['dp']['ally_valid'], 'y')
ax3.legend([
'EIGAN',
'Autoencoder',
'PCA',
'DP',
], prop={'size': 10})
ax3.set_title(t3, y=-0.32)
ax3.set_xlabel('epochs')
ax3.set_ylabel('ally log loss')
ax3.grid()
ax3.text(320, 1.68, 'Lower is better', fontsize=12, color='r')
ax3.set_ylim(bottom=1.4)
ax1.plot(pca_1['epoch']['valid'], gan_1['encoder']['ally_valid'], 'r--')
ax1.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['ally_valid'],
'b--')
ax1.plot(pca_1['epoch']['valid'], pca_1['pca']['ally_valid'], 'g--')
# ax1.plot(pca_1['epoch']['valid'], dp_1['dp']['advr_1_valid'], 'y--')
# ax1.legend([
# 'EIGAN adversary',
# 'Autoencoder adversary',
# 'PCA adversary',
# 'DP adversary',
# ],prop={'size':10})
ax1.set_title(t1, y=-0.32)
ax1.set_xlabel('epochs')
ax1.set_ylabel('adversary log loss')
ax1.grid()
ax1.text(320, 0.57, 'Higher is better', fontsize=12, color='r')
ax1.set_ylim(bottom=0.5)
ax2.plot(u[0], u[2], 'r', label='encoder loss')
ax2.plot(np.nan, 'b', label='adversary loss')
ax4 = ax2.twinx()
ax4.plot(u[0], u[6], 'b')
ax2.set_title('(c)', y=-0.32)
ax2.legend(prop={'size': 10})
ax2.set_xlabel('epochs')
ax2.set_ylabel('encoder loss')
ax2.grid()
ax4.set_ylabel('adversary loss')
fig.subplots_adjust(wspace=0.4)
plot_location = 'plots/{}/{}_{}.png'.format(expt, 'all', model)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location, bbox_inches='tight', dpi=300)
def main(
model,
time_stamp,
device,
ally_classes,
advr_1_classes,
advr_2_classes,
encoding_dim,
hidden_dim,
leaky,
test_size,
batch_size,
n_epochs,
shuffle,
lr_ally,
lr_advr_1,
lr_advr_2,
expt,
pca_ckpt,
autoencoder_ckpt,
encoder_ckpt,
):
device = torch_device(device=device)
X_normalized_train, X_normalized_valid,\
y_ally_train, y_ally_valid, \
y_advr_1_train, y_advr_1_valid, \
y_advr_2_train, y_advr_2_valid = get_data(expt, test_size)
pca = joblib.load(pca_ckpt)
optim = torch.optim.Adam
criterionBCEWithLogits = nn.BCEWithLogitsLoss()
criterionCrossEntropy = nn.CrossEntropyLoss()
h = {
'epoch': {
'train': [],
'valid': [],
},
'pca': {
'ally_train': [],
'ally_valid': [],
'advr_1_train': [],
'advr_1_valid': [],
'advr_2_train': [],
'advr_2_valid': [],
},
}
for _ in ['pca']:
if _ == 'pca':
dataset_train = utils.TensorDataset(
torch.Tensor(pca.eval(X_normalized_train)),
torch.Tensor(y_ally_train.reshape(-1, ally_classes)),
torch.Tensor(y_advr_1_train.reshape(-1, advr_1_classes)),
torch.Tensor(y_advr_2_train.reshape(-1, advr_2_classes)),
)
dataset_valid = utils.TensorDataset(
torch.Tensor(pca.eval(X_normalized_valid)),
torch.Tensor(y_ally_valid.reshape(-1, ally_classes)),
torch.Tensor(y_advr_1_valid.reshape(-1, advr_1_classes)),
torch.Tensor(y_advr_2_valid.reshape(-1, advr_2_classes)),
)
dataloader_train = torch.utils.data.DataLoader(dataset_train,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1)
dataloader_valid = torch.utils.data.DataLoader(dataset_valid,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1)
ally = DiscriminatorFCN(encoding_dim, hidden_dim, ally_classes,
leaky).to(device)
advr_1 = DiscriminatorFCN(encoding_dim, hidden_dim, advr_1_classes,
leaky).to(device)
advr_2 = DiscriminatorFCN(encoding_dim, hidden_dim, advr_2_classes,
leaky).to(device)
ally.apply(weights_init)
advr_1.apply(weights_init)
advr_2.apply(weights_init)
sep('{}:{}'.format(_, 'ally'))
summary(ally, input_size=(1, encoding_dim))
sep('{}:{}'.format(_, 'advr 1'))
summary(advr_1, input_size=(1, encoding_dim))
sep('{}:{}'.format(_, 'advr 2'))
summary(advr_2, input_size=(1, encoding_dim))
optimizer_ally = optim(ally.parameters(), lr=lr_ally)
optimizer_advr_1 = optim(advr_1.parameters(), lr=lr_advr_1)
optimizer_advr_2 = optim(advr_2.parameters(), lr=lr_advr_2)
# adversary 1
sep("adversary 1")
logging.info('{} \t {} \t {}'.format(
'Epoch',
'Advr 1 Train',
'Advr 1 Valid',
))
for epoch in range(n_epochs):
advr_1.train()
nsamples = 0
iloss_advr = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = data[0].to(device)
y_advr_train_torch = data[2].to(device)
optimizer_advr_1.zero_grad()
y_advr_train_hat_torch = advr_1(X_train_torch)
loss_advr = criterionCrossEntropy(
y_advr_train_hat_torch,
torch.argmax(y_advr_train_torch, 1))
loss_advr.backward()
optimizer_advr_1.step()
nsamples += 1
iloss_advr += loss_advr.item()
h[_]['advr_1_train'].append(iloss_advr / nsamples)
if epoch % int(n_epochs / 10) != 0:
continue
advr_1.eval()
nsamples = 0
iloss_advr = 0
correct = 0
total = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = data[0].to(device)
y_advr_valid_torch = data[2].to(device)
y_advr_valid_hat_torch = advr_1(X_valid_torch)
valid_loss_advr = criterionCrossEntropy(
y_advr_valid_hat_torch,
torch.argmax(y_advr_valid_torch, 1))
tmp, predicted = torch.max(y_advr_valid_hat_torch, 1)
tmp, actual = torch.max(y_advr_valid_torch, 1)
nsamples += 1
iloss_advr += valid_loss_advr.item()
total += actual.size(0)
correct += (predicted == actual).sum().item()
h[_]['advr_1_valid'].append(iloss_advr / nsamples)
logging.info('{} \t {:.8f} \t {:.8f} \t {:.8f}'.format(
epoch, h[_]['advr_1_train'][-1], h[_]['advr_1_valid'][-1],
correct / total))
# adversary
sep("adversary 2")
logging.info('{} \t {} \t {}'.format(
'Epoch',
'Advr 2 Train',
'Advr 2 Valid',
))
for epoch in range(n_epochs):
advr_2.train()
nsamples = 0
iloss_advr = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = data[0].to(device)
y_advr_train_torch = data[3].to(device)
optimizer_advr_2.zero_grad()
y_advr_train_hat_torch = advr_2(X_train_torch)
loss_advr = criterionBCEWithLogits(y_advr_train_hat_torch,
y_advr_train_torch)
loss_advr.backward()
optimizer_advr_2.step()
nsamples += 1
iloss_advr += loss_advr.item()
h[_]['advr_2_train'].append(iloss_advr / nsamples)
if epoch % int(n_epochs / 10) != 0:
continue
advr_2.eval()
nsamples = 0
iloss_advr = 0
correct = 0
total = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = data[0].to(device)
y_advr_valid_torch = data[3].to(device)
y_advr_valid_hat_torch = advr_2(X_valid_torch)
valid_loss_advr = criterionBCEWithLogits(
y_advr_valid_hat_torch, y_advr_valid_torch)
predicted = y_advr_valid_hat_torch > 0.5
nsamples += 1
iloss_advr += valid_loss_advr.item()
total += y_advr_valid_torch.size(0)
correct += (predicted == y_advr_valid_torch).sum().item()
h[_]['advr_2_valid'].append(iloss_advr / nsamples)
logging.info('{} \t {:.8f} \t {:.8f} \t {:.8f}'.format(
epoch, h[_]['advr_2_train'][-1], h[_]['advr_2_valid'][-1],
correct / total))
#ally
sep("ally")
logging.info('{} \t {} \t {} \t {}'.format(
'Epoch',
'Ally Train',
'Ally Valid',
'Accuracy',
))
for epoch in range(n_epochs):
ally.train()
nsamples = 0
iloss_ally = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = data[0].to(device)
y_ally_train_torch = data[1].to(device)
optimizer_ally.zero_grad()
y_ally_train_hat_torch = ally(X_train_torch)
loss_ally = criterionBCEWithLogits(y_ally_train_hat_torch,
y_ally_train_torch)
loss_ally.backward()
optimizer_ally.step()
nsamples += 1
iloss_ally += loss_ally.item()
if epoch not in h['epoch']['train']:
h['epoch']['train'].append(epoch)
h[_]['ally_train'].append(iloss_ally / nsamples)
if epoch % int(n_epochs / 10) != 0:
continue
ally.eval()
nsamples = 0
iloss_ally = 0
correct = 0
total = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = data[0].to(device)
y_ally_valid_torch = data[1].to(device)
y_ally_valid_hat_torch = ally(X_valid_torch)
valid_loss_ally = criterionBCEWithLogits(
y_ally_valid_hat_torch, y_ally_valid_torch)
predicted = y_ally_valid_hat_torch > 0.5
nsamples += 1
iloss_ally += valid_loss_ally.item()
total += y_ally_valid_torch.size(0)
correct += (predicted == y_ally_valid_torch).sum().item()
if epoch not in h['epoch']['valid']:
h['epoch']['valid'].append(epoch)
h[_]['ally_valid'].append(iloss_ally / nsamples)
logging.info('{} \t {:.8f} \t {:.8f} \t {:.8f}'.format(
epoch, h[_]['ally_train'][-1], h[_]['ally_valid'][-1],
correct / total))
checkpoint_location = \
'checkpoints/{}/{}_training_history_{}.pkl'.format(
expt, model, time_stamp)
sep()
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump(h, open(checkpoint_location, 'wb'))
def main(expt, model):
gan_d_128 = pkl.load(
open(
'checkpoints/titanic/eigan_training_history_01_25_2020_22_26_59_F_device_cuda_dim_128_hidden_256_batch_1024_epochs_1001_lrencd_1e-05_lrally_1e-05_tr_-0.1927_val_0.6559.pkl',
'rb'))
gan_d_256 = pkl.load(
open(
'checkpoints/titanic/eigan_training_history_01_25_2020_22_29_45_F_device_cuda_dim_256_hidden_512_batch_1024_epochs_1001_lrencd_1e-05_lrally_1e-05_tr_-0.1852_val_0.6548.pkl',
'rb'))
gan_d_512 = pkl.load(
open(
'checkpoints/titanic/eigan_training_history_01_25_2020_22_32_52_F_device_cuda_dim_512_hidden_1024_batch_1024_epochs_1001_lrencd_1e-05_lrally_1e-05_tr_-0.1820_val_0.6553.pkl',
'rb'))
gan_d_1024 = pkl.load(
open(
'checkpoints/titanic/eigan_training_history_01_25_2020_22_36_17_F_device_cuda_dim_1024_hidden_2048_batch_1024_epochs_1001_lrencd_1e-05_lrally_1e-05_tr_-0.1834_val_0.6484.pkl',
'rb'))
gan_d_2048 = pkl.load(
open(
'checkpoints/titanic/eigan_training_history_01_25_2020_22_40_32_F_device_cuda_dim_2048_hidden_4086_batch_1024_epochs_1001_lrencd_1e-05_lrally_1e-05_tr_-0.1826_val_0.6424.pkl',
'rb'))
# print(pca_1.keys(), pca_2.keys(), auto_1.keys(), auto_2.keys(), dp_1.keys(), gan_1.keys())
# return
plt.figure()
fig = plt.figure(figsize=(15, 5))
ax3 = fig.add_subplot(131)
ax1 = fig.add_subplot(132)
ax2 = fig.add_subplot(133)
t3, t1, t2 = '(a)', '(b)', '(c)'
ax3.plot(pca_1['epoch']['valid'], gan_1['encoder']['ally_valid'], 'r')
ax3.plot(pca_1['epoch']['valid'], pca_1['pca']['ally_valid'], 'g')
ax3.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['ally_valid'], 'b')
ax3.plot(pca_1['epoch']['valid'], dp_1['dp']['ally_valid'], 'y')
ax3.legend([
'gan ally',
'autoencoder ally',
'pca ally',
'dp ally',
])
ax3.set_title(t3, y=-0.2)
ax3.set_xlabel('iterations (scale adjusted)')
ax3.set_ylabel('loss')
ax1.plot(pca_1['epoch']['valid'], gan_1['encoder']['advr_1_valid'], 'r--')
ax1.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['advr_1_valid'],
'b--')
ax1.plot(pca_1['epoch']['valid'], pca_1['pca']['advr_1_valid'], 'g--')
ax1.plot(pca_1['epoch']['valid'], dp_1['dp']['advr_1_valid'], 'y--')
ax1.legend([
'gan adversary 1',
'autoencoder adversary 1',
'pca adversary 1',
'dp adversary 1',
])
ax1.set_title(t1, y=-0.2)
ax1.set_xlabel('iterations (scale adjusted)')
ax1.set_ylabel('loss')
ax2.plot(pca_1['epoch']['valid'], gan_1['encoder']['advr_2_valid'], 'r--')
ax2.plot(pca_1['epoch']['valid'], auto_2['autoencoder']['advr_2_valid'],
'b--')
ax2.plot(pca_1['epoch']['valid'], pca_2['pca']['advr_2_valid'], 'g--')
ax2.plot(pca_1['epoch']['valid'], dp_1['dp']['advr_2_valid'], 'y--')
ax2.legend([
'gan adversary 2',
'autoencoder adversary 2',
'pca adversary 2',
'dp adversary 2',
])
ax2.set_title(t2, y=-0.2)
ax2.set_xlabel('iterations (scale adjusted)')
ax2.set_ylabel('loss')
plot_location = 'plots/{}/{}_{}_b4096.png'.format(expt, 'all', model)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location, bbox_inches='tight')
model = 'ind_gan'
marker = 'H'
pr_time, fl_time = time_stp()
logger(expt, model, fl_time, marker)
log_time('Start', pr_time)
args = comparison_argparse()
main(model=model,
time_stamp=fl_time,
device=args['device'],
ally_classes=args['n_ally'],
advr_1_classes=args['n_advr_1'],
advr_2_classes=args['n_advr_2'],
encoding_dim=args['dim'],
hidden_dim=args['hidden_dim'],
leaky=args['leaky'],
test_size=args['test_size'],
batch_size=args['batch_size'],
n_epochs=args['n_epochs'],
shuffle=args['shuffle'] == 1,
lr_ally=args['lr_ally'],
lr_advr_1=args['lr_advr_1'],
lr_advr_2=args['lr_advr_2'],
expt=args['expt'],
pca_ckpt=args['pca_ckpt'],
autoencoder_ckpt=args['autoencoder_ckpt'],
encoder_ckpt=args['encoder_ckpt'])
log_time('End', time_stp()[0])
sep()
def main(
model,
time_stamp,
device,
ngpu,
encoding_dim,
hidden_dim,
leaky,
activation,
test_size,
batch_size,
n_epochs,
shuffle,
init_weight,
lr_encd,
lr_ally,
lr_advr,
alpha,
expt,
num_allies,
marker
):
device = torch_device(device=device)
X, targets = load_processed_data(
expt, 'processed_data_X_targets.pkl')
log_shapes(
[X] + [targets[i] for i in targets],
locals(),
'Dataset loaded'
)
targets = {i: elem.reshape(-1, 1) for i, elem in targets.items()}
X_train, X_valid, \
y_hef_train, y_hef_valid, \
y_exf_train, y_exf_valid, \
y_gdr_train, y_gdr_valid, \
y_lan_train, y_lan_valid, \
y_mar_train, y_mar_valid, \
y_rel_train, y_rel_valid, \
y_ins_train, y_ins_valid, \
y_dis_train, y_dis_valid, \
y_adl_train, y_adl_valid, \
y_adt_train, y_adt_valid, \
y_etn_train, y_etn_valid = train_test_split(
X,
targets['hospital_expire_flag'],
targets['expire_flag'],
targets['gender'],
targets['language'],
targets['marital_status'],
targets['religion'],
targets['insurance'],
targets['discharge_location'],
targets['admission_location'],
targets['admission_type'],
targets['ethnicity'],
test_size=test_size,
stratify=pd.DataFrame(np.concatenate(
(
targets['admission_type'],
), axis=1)
)
)
log_shapes(
[
X_train, X_valid,
y_hef_train, y_hef_valid,
y_exf_train, y_exf_valid,
y_gdr_train, y_gdr_valid,
y_lan_train, y_lan_valid,
y_mar_train, y_mar_valid,
y_rel_train, y_rel_valid,
y_ins_train, y_ins_valid,
y_dis_train, y_dis_valid,
y_adl_train, y_adl_valid,
y_adt_train, y_adt_valid,
y_etn_train, y_etn_valid
],
locals(),
'Data size after train test split'
)
y_ally_trains = [
y_hef_train,
y_exf_train,
y_gdr_train,
y_lan_train,
y_mar_train,
y_rel_train,
y_ins_train,
y_dis_train,
y_adl_train,
y_etn_train,
]
y_ally_valids = [
y_hef_valid,
y_exf_valid,
y_gdr_valid,
y_lan_valid,
y_mar_valid,
y_rel_valid,
y_ins_valid,
y_dis_valid,
y_adl_valid,
y_etn_valid,
]
y_advr_train = y_adt_train
y_advr_valid = y_adt_valid
scaler = StandardScaler()
X_normalized_train = scaler.fit_transform(X_train)
X_normalized_valid = scaler.transform(X_valid)
log_shapes([X_normalized_train, X_normalized_valid], locals())
for i in [num_allies-1]:
sep('NUMBER OF ALLIES: {}'.format(i+1))
encoder = GeneratorFCN(
X_normalized_train.shape[1], hidden_dim, encoding_dim,
leaky, activation).to(device)
ally = {}
for j in range(i+1):
ally[j] = DiscriminatorFCN(
encoding_dim, hidden_dim, 1,
leaky).to(device)
advr = DiscriminatorFCN(
encoding_dim, hidden_dim, 1,
leaky).to(device)
if init_weight:
sep()
logging.info('applying weights_init ...')
encoder.apply(weights_init)
for j in range(i+1):
ally[j].apply(weights_init)
advr.apply(weights_init)
sep('encoder')
summary(encoder, input_size=(1, X_normalized_train.shape[1]))
for j in range(i+1):
sep('ally:{}'.format(j))
summary(ally[j], input_size=(1, encoding_dim))
sep('advr')
summary(advr, input_size=(1, encoding_dim))
optim = torch.optim.Adam
criterionBCEWithLogits = nn.BCEWithLogitsLoss()
optimizer_encd = optim(encoder.parameters(), lr=lr_encd)
optimizer_ally = {}
for j in range(i+1):
optimizer_ally[j] = optim(ally[j].parameters(), lr=lr_ally)
optimizer_advr = optim(advr.parameters(), lr=lr_advr)
dataset_train = utils.TensorDataset(
torch.Tensor(X_normalized_train),
torch.Tensor(y_advr_train),
)
for y_ally_train in y_ally_trains:
dataset_train.tensors = (*dataset_train.tensors, torch.Tensor(y_ally_train))
dataloader_train = torch.utils.data.DataLoader(
dataset_train,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1
)
dataset_valid = utils.TensorDataset(
torch.Tensor(X_normalized_valid),
torch.Tensor(y_advr_valid),
)
for y_ally_valid in y_ally_valids:
dataset_valid.tensors = (*dataset_valid.tensors, torch.Tensor(y_ally_valid))
dataloader_valid = torch.utils.data.DataLoader(
dataset_valid,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1
)
epochs_train = []
epochs_valid = []
encd_loss_train = []
encd_loss_valid = []
ally_loss_train = {}
ally_loss_valid = {}
for j in range(i+1):
ally_loss_train[j] = []
ally_loss_valid[j] = []
advr_loss_train = []
advr_loss_valid = []
log_list = ['epoch', 'encd_train', 'encd_valid', 'advr_train', 'advr_valid'] + \
['ally_{}_train \t ally_{}_valid'.format(str(j), str(j)) for j in range(i+1)]
logging.info(' \t '.join(log_list))
for epoch in range(n_epochs):
encoder.train()
for j in range(i+1):
ally[i].eval()
advr.eval()
nsamples = 0
iloss = 0
for data in dataloader_train:
X_train_torch = data[0].to(device)
y_advr_train_torch = data[1].to(device)
y_ally_train_torch = {}
for j in range(i+1):
y_ally_train_torch[j] = data[j+2].to(device)
optimizer_encd.zero_grad()
# Forward pass
X_train_encoded = encoder(X_train_torch)
y_advr_train_hat_torch = advr(X_train_encoded)
y_ally_train_hat_torch = {}
for j in range(i+1):
y_ally_train_hat_torch[j] = ally[j](X_train_encoded)
# Compute Loss
loss_ally = {}
for j in range(i+1):
loss_ally[j] = criterionBCEWithLogits(
y_ally_train_hat_torch[j], y_ally_train_torch[j])
loss_advr = criterionBCEWithLogits(
y_advr_train_hat_torch,
y_advr_train_torch)
loss_encd = alpha/num_allies * sum([loss_ally[_].item() for _ in loss_ally]) - (1-alpha) * loss_advr
# Backward pass
loss_encd.backward()
optimizer_encd.step()
nsamples += 1
iloss += loss_encd.item()
epochs_train.append(epoch)
encd_loss_train.append(iloss/nsamples)
encoder.eval()
for j in range(i+1):
ally[j].train()
advr.train()
nsamples = 0
iloss_ally = {}
for j in range(i+1):
iloss_ally[j] = 0
iloss_advr = 0
for data in dataloader_train:
X_train_torch = data[0].to(device)
y_advr_train_torch = data[1].to(device)
y_ally_train_torch = {}
for j in range(i+1):
y_ally_train_torch[j] = data[j+2].to(device)
y_ally_train_hat_torch = {}
loss_ally = {}
for j in range(i+1):
optimizer_ally[j].zero_grad()
X_train_encoded = encoder(X_train_torch)
y_ally_train_hat_torch[j] = ally[j](X_train_encoded)
loss_ally[j] = criterionBCEWithLogits(
y_ally_train_hat_torch[j], y_ally_train_torch[j])
loss_ally[j].backward()
optimizer_ally[j].step()
optimizer_advr.zero_grad()
X_train_encoded = encoder(X_train_torch)
y_advr_train_hat_torch = advr(X_train_encoded)
loss_advr = criterionBCEWithLogits(
y_advr_train_hat_torch,
y_advr_train_torch)
loss_advr.backward()
optimizer_advr.step()
nsamples += 1
for j in range(i+1):
iloss_ally[j] += loss_ally[j].item()
iloss_advr += loss_advr.item()
for j in range(i+1):
ally_loss_train[j].append(iloss_ally[j]/nsamples)
advr_loss_train.append(iloss_advr/nsamples)
if epoch % int(n_epochs/10) != 0:
continue
encoder.eval()
for j in range(i+1):
ally[j].eval()
advr.eval()
nsamples = 0
iloss = 0
iloss_ally = {}
for j in range(i+1):
iloss_ally[j] = 0
iloss_advr = 0
for data in dataloader_valid:
X_valid_torch = data[0].to(device)
y_advr_valid_torch = data[1].to(device)
y_ally_valid_torch = {}
for j in range(i+1):
y_ally_valid_torch[j] = data[j+2].to(device)
X_valid_encoded = encoder(X_valid_torch)
y_ally_valid_hat_torch = {}
for j in range(i+1):
y_ally_valid_hat_torch[j] = ally[j](X_valid_encoded)
y_advr_valid_hat_torch = advr(X_valid_encoded)
valid_loss_ally = {}
for j in range(i+1):
valid_loss_ally[j] = criterionBCEWithLogits(
y_ally_valid_hat_torch[j], y_ally_valid_torch[j])
valid_loss_advr = criterionBCEWithLogits(
y_advr_valid_hat_torch, y_advr_valid_torch)
valid_loss_encd = alpha/num_allies*sum(
[valid_loss_ally[_].item() for _ in valid_loss_ally]
) - (1-alpha)* valid_loss_advr
nsamples += 1
iloss += valid_loss_encd.item()
for j in range(i+1):
iloss_ally[j] += valid_loss_ally[j].item()
iloss_advr += valid_loss_advr.item()
epochs_valid.append(epoch)
encd_loss_valid.append(iloss/nsamples)
for j in range(i+1):
ally_loss_valid[j].append(iloss_ally[j]/nsamples)
advr_loss_valid.append(iloss_advr/nsamples)
log_line = [str(epoch), '{:.8f}'.format(encd_loss_train[-1]), '{:.8f}'.format(encd_loss_valid[-1]),
'{:.8f}'.format(advr_loss_train[-1]), '{:.8f}'.format(advr_loss_valid[-1]),
] + \
[
'{:.8f} \t {:.8f}'.format(
ally_loss_train[_][-1],
ally_loss_valid[_][-1]
) for _ in ally_loss_train]
logging.info(' \t '.join(log_line))
config_summary = '{}_n_{}_device_{}_dim_{}_hidden_{}_batch_{}_epochs_{}_ally_{}_encd_{:.4f}_advr_{:.4f}'\
.format(
marker,
num_allies,
device,
encoding_dim,
hidden_dim,
batch_size,
n_epochs,
i,
encd_loss_train[-1],
advr_loss_valid[-1],
)
plt.figure()
plt.plot(epochs_train, encd_loss_train, 'r', label='encd train')
plt.plot(epochs_valid, encd_loss_valid, 'r--', label='encd valid')
# sum_loss = [0] * len(ally_loss_train[0])
# for j in range(i+1):
# for k in ally_loss_valid:
# sum_loss[j] += ally_loss_train[j]
# sum_loss = [sum_loss[j]/len(ally_loss_valid) for j in sum_loss]
# plt.plot(
# epochs_train,
# sum([ally_loss_train[j] for j in range(i+1)])/len(ally_loss_train),
# 'b', label='ally_sum_train')
# sum_loss = [0] * len(ally_loss_valid)
# for j in range(i+1):
# sum_loss[j] += ally_loss_valid[j]
# sum_loss = [sum_loss[j]/len(ally_loss_valid) for j in sum_loss]
# plt.plot(epochs_valid, sum_loss, 'b', label='ally_sum_valid')
plt.plot(epochs_train, advr_loss_train, 'g', label='advr_train')
plt.plot(epochs_valid, advr_loss_valid, 'g--', label='advr_valid')
plt.legend()
plt.title("{} on {} training".format(model, expt))
plot_location = 'plots/{}/{}_training_{}_{}.png'.format(
expt, model, time_stamp, config_summary)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location)
checkpoint_location = \
'checkpoints/{}/{}_training_history_{}_{}.pkl'.format(
expt, model, time_stamp, config_summary)
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump((
epochs_train, epochs_valid,
encd_loss_train, encd_loss_valid,
ally_loss_train, ally_loss_valid,
advr_loss_train, advr_loss_valid,
), open(checkpoint_location, 'wb'))
model_ckpt = 'checkpoints/{}/{}_torch_model_{}_{}.pkl'.format(
expt, model, time_stamp, config_summary)
logging.info('Saving: {}'.format(model_ckpt))
torch.save(encoder, model_ckpt)
def main(
model,
time_stamp,
device,
ally_classes,
advr_1_classes,
advr_2_classes,
encoding_dim,
test_size,
batch_size,
n_epochs,
shuffle,
lr,
expt,
):
device = torch_device(device=device)
# refer to PrivacyGAN_Titanic for data preparation
X, y_ally, y_advr_1, y_advr_2 = load_processed_data(
expt, 'processed_data_X_y_ally_y_advr_y_advr_2.pkl')
log_shapes(
[X, y_ally, y_advr_1, y_advr_2],
locals(),
'Dataset loaded'
)
X_train, X_valid = train_test_split(
X,
test_size=test_size,
stratify=pd.DataFrame(np.concatenate(
(
y_ally.reshape(-1, ally_classes),
y_advr_1.reshape(-1, advr_1_classes),
y_advr_2.reshape(-1, advr_2_classes),
), axis=1)
)
)
log_shapes(
[
X_train, X_valid,
],
locals(),
'Data size after train test split'
)
scaler = StandardScaler()
X_train_normalized = scaler.fit_transform(X_train)
X_valid_normalized = scaler.transform(X_valid)
log_shapes([X_train_normalized, X_valid_normalized], locals())
dataset_train = utils.TensorDataset(torch.Tensor(X_train_normalized))
dataloader_train = torch.utils.data.DataLoader(
dataset_train, batch_size=batch_size, shuffle=shuffle, num_workers=2)
dataset_valid = utils.TensorDataset(torch.Tensor(X_valid_normalized))
dataloader_valid = torch.utils.data.DataLoader(
dataset_valid, batch_size=batch_size, shuffle=False, num_workers=2)
auto_encoder = AutoEncoderBasic(
input_size=X_train_normalized.shape[1],
encoding_dim=encoding_dim
).to(device)
criterion = torch.nn.MSELoss()
adam_optim = torch.optim.Adam
optimizer = adam_optim(auto_encoder.parameters(), lr=lr)
summary(auto_encoder, input_size=(1, X_train_normalized.shape[1]))
h_epoch = []
h_valid = []
h_train = []
auto_encoder.train()
sep()
logging.info("epoch \t Aencoder_train \t Aencoder_valid")
for epoch in range(n_epochs):
nsamples = 0
iloss = 0
for data in dataloader_train:
optimizer.zero_grad()
X_torch = data[0].to(device)
X_torch_hat = auto_encoder(X_torch)
loss = criterion(X_torch_hat, X_torch)
loss.backward()
optimizer.step()
nsamples += 1
iloss += loss.item()
if epoch % int(n_epochs/10) != 0:
continue
h_epoch.append(epoch)
h_train.append(iloss/nsamples)
nsamples = 0
iloss = 0
for data in dataloader_valid:
X_torch = data[0].to(device)
X_torch_hat = auto_encoder(X_torch)
loss = criterion(X_torch_hat, X_torch)
nsamples += 1
iloss += loss.item()
h_valid.append(iloss/nsamples)
logging.info('{} \t {:.8f} \t {:.8f}'.format(
h_epoch[-1],
h_train[-1],
h_valid[-1],
))
config_summary = 'device_{}_dim_{}_batch_{}_epochs_{}_lr_{}_tr_{:.4f}_val_{:.4f}'\
.format(
device,
encoding_dim,
batch_size,
n_epochs,
lr,
h_train[-1],
h_valid[-1],
)
plt.plot(h_epoch, h_train, 'r--')
plt.plot(h_epoch, h_valid, 'b--')
plt.legend(['train_loss', 'valid_loss'])
plt.title("autoencoder training {}".format(config_summary))
plot_location = 'plots/{}/{}_training_{}_{}.png'.format(
expt, model, time_stamp, config_summary)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location)
checkpoint_location = \
'checkpoints/{}/{}_training_history_{}_{}.pkl'.format(
expt, model, time_stamp, config_summary)
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump((h_epoch, h_train, h_valid), open(checkpoint_location, 'wb'))
model_ckpt = 'checkpoints/{}/{}_torch_model_{}_{}.pkl'.format(
expt, model, time_stamp, config_summary)
logging.info('Saving: {}'.format(model_ckpt))
torch.save(auto_encoder, model_ckpt)
def main(
model,
time_stamp,
device,
ally_classes,
advr_1_classes,
advr_2_classes,
encoding_dim,
hidden_dim,
leaky,
test_size,
batch_size,
n_epochs,
shuffle,
lr,
expt,
pca_ckpt,
autoencoder_ckpt,
encoder_ckpt,
):
device = torch_device(device=device)
X, targets = load_processed_data(expt, 'processed_data_X_targets.pkl')
log_shapes([X] + [targets[i] for i in targets], locals(), 'Dataset loaded')
h = {}
for name, target in targets.items():
sep(name)
target = target.reshape(-1, 1)
X_train, X_valid, \
y_train, y_valid = train_test_split(
X,
target,
test_size=test_size,
stratify=target
)
log_shapes([
X_train,
X_valid,
y_train,
y_valid,
], locals(), 'Data size after train test split')
scaler = StandardScaler()
X_normalized_train = scaler.fit_transform(X_train)
X_normalized_valid = scaler.transform(X_valid)
log_shapes([X_normalized_train, X_normalized_valid], locals())
optim = torch.optim.Adam
criterionBCEWithLogits = nn.BCEWithLogitsLoss()
h[name] = {
'epoch_train': [],
'epoch_valid': [],
'y_train': [],
'y_valid': [],
}
dataset_train = utils.TensorDataset(
torch.Tensor(X_normalized_train),
torch.Tensor(y_train.reshape(-1, 1)))
dataset_valid = utils.TensorDataset(
torch.Tensor(X_normalized_valid),
torch.Tensor(y_valid.reshape(-1, 1)),
)
dataloader_train = torch.utils.data.DataLoader(dataset_train,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1)
dataloader_valid = torch.utils.data.DataLoader(dataset_valid,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1)
clf = DiscriminatorFCN(encoding_dim, hidden_dim, 1, leaky).to(device)
clf.apply(weights_init)
sep('{}:{}'.format(name, 'summary'))
summary(clf, input_size=(1, encoding_dim))
optimizer = optim(clf.parameters(), lr=lr)
# adversary 1
sep("TRAINING")
logging.info('{} \t {} \t {}'.format(
'Epoch',
'Train',
'Valid',
))
for epoch in range(n_epochs):
clf.train()
nsamples = 0
iloss_train = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = data[0].to(device)
y_train_torch = data[1].to(device)
optimizer.zero_grad()
y_train_hat_torch = clf(X_train_torch)
loss_train = criterionBCEWithLogits(y_train_hat_torch,
y_train_torch)
loss_train.backward()
optimizer.step()
nsamples += 1
iloss_train += loss_train.item()
h[name]['y_train'].append(iloss_train / nsamples)
h[name]['epoch_train'].append(epoch)
if epoch % int(n_epochs / 10) != 0:
continue
clf.eval()
nsamples = 0
iloss_valid = 0
correct = 0
total = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = data[0].to(device)
y_valid_torch = data[1].to(device)
y_valid_hat_torch = clf(X_valid_torch)
valid_loss = criterionBCEWithLogits(
y_valid_hat_torch,
y_valid_torch,
)
predicted = y_valid_hat_torch > 0.5
nsamples += 1
iloss_valid += valid_loss.item()
total += y_valid_torch.size(0)
correct += (predicted == y_valid_torch).sum().item()
h[name]['y_valid'].append(iloss_valid / nsamples)
h[name]['epoch_valid'].append(epoch)
logging.info('{} \t {:.8f} \t {:.8f} \t {:.8f}'.format(
epoch, h[name]['y_train'][-1], h[name]['y_valid'][-1],
correct / total))
checkpoint_location = \
'checkpoints/{}/{}_training_history_{}.pkl'.format(
expt, model, time_stamp)
sep()
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump(h, open(checkpoint_location, 'wb'))
def main(expt, model):
pca_1 = pkl.load(
open(
'checkpoints/titanic/ind_pca_training_history_01_15_2020_23_25_44.pkl',
'rb'))
pca_2 = pkl.load(
open(
'checkpoints/titanic/ind_pca_training_history_01_15_2020_23_45_00.pkl',
'rb'))
auto_1 = pkl.load(
open(
'checkpoints/titanic/ind_autoencoder_training_history_01_16_2020_03_53_53.pkl',
'rb'))
auto_2 = pkl.load(
open(
'checkpoints/titanic/ind_autoencoder_training_history_01_16_2020_04_30_49.pkl',
'rb'))
dp_1 = pkl.load(
open(
'checkpoints/titanic/ind_dp_training_history_01_30_2020_14_11_06.pkl',
'rb'))
gan_1 = pkl.load(
open(
'checkpoints/titanic/ind_gan_training_history_01_16_2020_21_56_04.pkl',
'rb'))
s = pkl.load(
open(
'checkpoints/titanic/eigan_training_history_01_15_2020_22_43_42_E_device_cuda_dim_1400_hidden_2800_batch_1024_epochs_1001_lrencd_1e-05_lrally_1e-05_tr_-0.1852_val_0.6462.pkl',
'rb'))
# checkpoints/titanic/ind_gan_training_history_01_16_2020_21_56_04.pkl
# print(pca_1.keys(), pca_2.keys(), auto_1.keys(), auto_2.keys(), dp_1.keys(), gan_1.keys())
# return
plt.figure()
fig = plt.figure(figsize=(15, 3))
ax3 = fig.add_subplot(131)
ax1 = fig.add_subplot(132)
ax2 = fig.add_subplot(133)
t3, t1, t2 = '(a)', '(b)', '(c)'
ax3.plot(pca_1['epoch']['valid'], gan_1['encoder']['ally_valid'], 'r')
ax3.plot(pca_1['epoch']['valid'], pca_1['pca']['ally_valid'], 'g')
ax3.plot(pca_1['epoch']['valid'], auto_1['autoencoder']['ally_valid'], 'b')
ax3.plot(pca_1['epoch']['valid'], dp_1['dp']['ally_valid'], 'y')
ax3.legend([
'EIGAN ally',
'Autoencoder ally',
'PCA ally',
'DP ally',
],
prop={'size': 10})
ax3.set_title(t3, y=-0.32)
ax3.set_xlabel('epochs')
ax3.set_ylabel('log loss')
ax3.grid()
ax3.set_xlim(left=0, right=1000)
ax3.text(320, 0.67, 'Lower is better', fontsize=12, color='r')
ax1.plot(pca_1['epoch']['valid'],
gan_1['encoder']['advr_1_valid'],
'r',
label='EIGAN adversary')
ax1.plot(pca_1['epoch']['valid'],
auto_1['autoencoder']['advr_1_valid'],
'b',
label='Autoencoder adversary')
ax1.plot(pca_1['epoch']['valid'],
pca_1['pca']['advr_1_valid'],
'g',
label='PCA adversary')
ax1.plot(pca_1['epoch']['valid'],
dp_1['dp']['advr_1_valid'],
'y',
label='DP adversary')
ax1.plot(pca_1['epoch']['valid'], gan_1['encoder']['advr_2_valid'], 'r--')
ax1.plot(pca_1['epoch']['valid'], auto_2['autoencoder']['advr_2_valid'],
'b--')
ax1.plot(pca_1['epoch']['valid'], pca_2['pca']['advr_2_valid'], 'g--')
ax1.plot(pca_1['epoch']['valid'], dp_1['dp']['advr_2_valid'], 'y--')
ax1.legend(prop={'size': 10})
ax1.set_title(t1, y=-0.32)
ax1.set_xlabel('epochs')
ax1.set_ylabel('log loss')
ax1.grid()
ax1.set_xlim(left=0, right=1000)
ax1.text(320, 0.66, 'Higher is better', fontsize=12, color='r')
ax2.plot(s[0], s[2], 'r', label='encoder loss')
ax2.set_title('(c)', y=-0.32)
ax2.plot(np.nan, 'b', label='adversary loss')
ax2.legend(prop={'size': 10})
ax2.set_xlabel('epochs')
ax2.set_ylabel('encoder loss')
ax2.grid()
ax2.set_xlim(left=0, right=1000)
ax4 = ax2.twinx()
ax4.plot(s[0], s[6], 'b')
ax4.set_ylabel('adversary loss')
fig.subplots_adjust(wspace=0.3)
plot_location = 'plots/{}/{}_{}_.png'.format(expt, 'all', model)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location, bbox_inches='tight', dpi=300)
def main(
model,
time_stamp,
device,
ally_classes,
advr_1_classes,
advr_2_classes,
encoding_dim,
hidden_dim,
leaky,
test_size,
batch_size,
n_epochs,
shuffle,
lr_ally,
lr_advr_1,
lr_advr_2,
expt,
pca_ckpt,
autoencoder_ckpt,
encoder_ckpt,
):
device = torch_device(device=device)
X, y_ally, y_advr_1, y_advr_2 = load_processed_data(
expt, 'processed_data_X_y_ally_y_advr_y_advr_2.pkl')
log_shapes([X, y_ally, y_advr_1, y_advr_2], locals(), 'Dataset loaded')
X_train, X_valid, \
y_ally_train, y_ally_valid, \
y_advr_1_train, y_advr_1_valid, \
y_advr_2_train, y_advr_2_valid = train_test_split(
X,
y_ally,
y_advr_1,
y_advr_2,
test_size=test_size,
stratify=pd.DataFrame(np.concatenate(
(
y_ally.reshape(-1, ally_classes),
y_advr_1.reshape(-1, advr_1_classes),
y_advr_2.reshape(-1, advr_2_classes),
), axis=1)
)
)
log_shapes([
X_train,
X_valid,
y_ally_train,
y_ally_valid,
y_advr_1_train,
y_advr_1_valid,
y_advr_2_train,
y_advr_2_valid,
], locals(), 'Data size after train test split')
scaler = StandardScaler()
X_normalized_train = scaler.fit_transform(X_train)
X_normalized_valid = scaler.transform(X_valid)
log_shapes([X_normalized_train, X_normalized_valid], locals())
encoder = torch.load(encoder_ckpt)
encoder.eval()
optim = torch.optim.Adam
criterionBCEWithLogits = nn.BCEWithLogitsLoss()
criterionCrossEntropy = nn.CrossEntropyLoss()
h = {
'epoch': {
'train': [],
'valid': [],
},
'encoder': {
'ally_train': [],
'ally_valid': [],
'advr_1_train': [],
'advr_1_valid': [],
'advr_2_train': [],
'advr_2_valid': [],
},
}
for _ in ['encoder']:
dataset_train = utils.TensorDataset(
torch.Tensor(X_normalized_train),
torch.Tensor(y_ally_train.reshape(-1, ally_classes)),
torch.Tensor(y_advr_1_train.reshape(-1, advr_1_classes)),
torch.Tensor(y_advr_2_train.reshape(-1, advr_2_classes)),
)
dataset_valid = utils.TensorDataset(
torch.Tensor(X_normalized_valid),
torch.Tensor(y_ally_valid.reshape(-1, ally_classes)),
torch.Tensor(y_advr_1_valid.reshape(-1, advr_1_classes)),
torch.Tensor(y_advr_2_valid.reshape(-1, advr_2_classes)),
)
def transform(input_arg):
return encoder(input_arg)
dataloader_train = torch.utils.data.DataLoader(dataset_train,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1)
dataloader_valid = torch.utils.data.DataLoader(dataset_valid,
batch_size=batch_size,
shuffle=shuffle,
num_workers=1)
ally = DiscriminatorFCN(encoding_dim, hidden_dim, ally_classes,
leaky).to(device)
advr_1 = DiscriminatorFCN(encoding_dim, hidden_dim, advr_1_classes,
leaky).to(device)
advr_2 = DiscriminatorFCN(encoding_dim, hidden_dim, advr_2_classes,
leaky).to(device)
ally.apply(weights_init)
advr_1.apply(weights_init)
advr_2.apply(weights_init)
sep('{}:{}'.format(_, 'ally'))
summary(ally, input_size=(1, encoding_dim))
sep('{}:{}'.format(_, 'advr 1'))
summary(advr_1, input_size=(1, encoding_dim))
sep('{}:{}'.format(_, 'advr 2'))
summary(advr_2, input_size=(1, encoding_dim))
optimizer_ally = optim(ally.parameters(), lr=lr_ally)
optimizer_advr_1 = optim(advr_1.parameters(), lr=lr_advr_1)
optimizer_advr_2 = optim(advr_2.parameters(), lr=lr_advr_2)
# adversary 1
sep("adversary 1")
logging.info('{} \t {} \t {}'.format(
'Epoch',
'Advr 1 Train',
'Advr 1 Valid',
))
for epoch in range(n_epochs):
advr_1.train()
nsamples = 0
iloss_advr = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = transform(data[0].to(device))
y_advr_train_torch = data[2].to(device)
optimizer_advr_1.zero_grad()
y_advr_train_hat_torch = advr_1(X_train_torch)
loss_advr = criterionBCEWithLogits(y_advr_train_hat_torch,
y_advr_train_torch)
loss_advr.backward()
optimizer_advr_1.step()
nsamples += 1
iloss_advr += loss_advr.item()
h[_]['advr_1_train'].append(iloss_advr / nsamples)
if epoch % int(n_epochs / 10) != 0:
continue
advr_1.eval()
nsamples = 0
iloss_advr = 0
correct = 0
total = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = transform(data[0].to(device))
y_advr_valid_torch = data[2].to(device)
y_advr_valid_hat_torch = advr_1(X_valid_torch)
valid_loss_advr = criterionBCEWithLogits(
y_advr_valid_hat_torch,
y_advr_valid_torch,
)
predicted = y_advr_valid_hat_torch > 0.5
nsamples += 1
iloss_advr += valid_loss_advr.item()
total += y_advr_valid_torch.size(0)
correct += (predicted == y_advr_valid_torch).sum().item()
h[_]['advr_1_valid'].append(iloss_advr / nsamples)
logging.info('{} \t {:.8f} \t {:.8f} \t {:.8f}'.format(
epoch, h[_]['advr_1_train'][-1], h[_]['advr_1_valid'][-1],
correct / total))
# adversary
sep("adversary 2")
logging.info('{} \t {} \t {}'.format(
'Epoch',
'Advr 2 Train',
'Advr 2 Valid',
))
for epoch in range(n_epochs):
advr_2.train()
nsamples = 0
iloss_advr = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = transform(data[0].to(device))
y_advr_train_torch = data[3].to(device)
optimizer_advr_2.zero_grad()
y_advr_train_hat_torch = advr_2(X_train_torch)
loss_advr = criterionBCEWithLogits(y_advr_train_hat_torch,
y_advr_train_torch)
loss_advr.backward()
optimizer_advr_2.step()
nsamples += 1
iloss_advr += loss_advr.item()
h[_]['advr_2_train'].append(iloss_advr / nsamples)
if epoch % int(n_epochs / 10) != 0:
continue
advr_2.eval()
nsamples = 0
iloss_advr = 0
correct = 0
total = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = transform(data[0].to(device))
y_advr_valid_torch = data[3].to(device)
y_advr_valid_hat_torch = advr_2(X_valid_torch)
valid_loss_advr = criterionBCEWithLogits(
y_advr_valid_hat_torch, y_advr_valid_torch)
predicted = y_advr_valid_hat_torch > 0.5
nsamples += 1
iloss_advr += valid_loss_advr.item()
total += y_advr_valid_torch.size(0)
correct += (predicted == y_advr_valid_torch).sum().item()
h[_]['advr_2_valid'].append(iloss_advr / nsamples)
logging.info('{} \t {:.8f} \t {:.8f} \t {:.8f}'.format(
epoch, h[_]['advr_2_train'][-1], h[_]['advr_2_valid'][-1],
correct / total))
sep("ally")
logging.info('{} \t {} \t {}'.format(
'Epoch',
'Ally Train',
'Ally Valid',
))
for epoch in range(n_epochs):
ally.train()
nsamples = 0
iloss_ally = 0
for i, data in enumerate(dataloader_train, 0):
X_train_torch = transform(data[0].to(device))
y_ally_train_torch = data[1].to(device)
optimizer_ally.zero_grad()
y_ally_train_hat_torch = ally(X_train_torch)
loss_ally = criterionBCEWithLogits(y_ally_train_hat_torch,
y_ally_train_torch)
loss_ally.backward()
optimizer_ally.step()
nsamples += 1
iloss_ally += loss_ally.item()
if epoch not in h['epoch']['train']:
h['epoch']['train'].append(epoch)
h[_]['ally_train'].append(iloss_ally / nsamples)
if epoch % int(n_epochs / 10) != 0:
continue
ally.eval()
nsamples = 0
iloss_ally = 0
correct = 0
total = 0
for i, data in enumerate(dataloader_valid, 0):
X_valid_torch = transform(data[0].to(device))
y_ally_valid_torch = data[1].to(device)
y_ally_valid_hat_torch = ally(X_valid_torch)
valid_loss_ally = criterionBCEWithLogits(
y_ally_valid_hat_torch, y_ally_valid_torch)
predicted = y_ally_valid_hat_torch > 0.5
nsamples += 1
iloss_ally += valid_loss_ally.item()
total += y_ally_valid_torch.size(0)
correct += (predicted == y_ally_valid_torch).sum().item()
if epoch not in h['epoch']['valid']:
h['epoch']['valid'].append(epoch)
h[_]['ally_valid'].append(iloss_ally / nsamples)
logging.info('{} \t {:.8f} \t {:.8f} \t {:.8f}'.format(
epoch, h[_]['ally_train'][-1], h[_]['ally_valid'][-1],
correct / total))
checkpoint_location = \
'checkpoints/{}/{}_training_history_{}.pkl'.format(
expt, model, time_stamp)
sep()
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump(h, open(checkpoint_location, 'wb'))
def main(
model,
time_stamp,
device,
ally_classes,
advr_classes,
batch_size,
n_epochs,
shuffle,
init_weight,
lr_encd,
lr_ally,
lr_advr,
alpha,
expt,
encoder_ckpt,
ally_ckpts,
advr_ckpts,
marker
):
device = torch_device(device=device)
encoder = define_G(cfg.num_channels[expt],
cfg.num_channels[expt],
64, gpu_id=device)
encoder.load_state_dict(torch.load(encoder_ckpt))
sep()
logging.info("Loaded: {}".format(encoder_ckpt))
allies = [Net(num_classes=_).to(device) for _ in ally_classes]
advrs = [Net(num_classes=_).to(device) for _ in advr_classes]
for ally, ckpt in zip(allies, ally_ckpts):
logging.info("Loaded: {}".format(ckpt))
ally.load_state_dict(torch.load(ckpt))
for advr, ckpt in zip(advrs, advr_ckpts):
logging.info("Loaded: {}".format(ckpt))
advr.load_state_dict(torch.load(ckpt))
sep()
optim = torch.optim.Adam
criterionNLL = nn.NLLLoss()
optimizer_encd = optim(encoder.parameters(), lr=lr_encd)
optimizer_ally = [optim(ally.parameters(), lr=lr)
for lr, ally in zip(lr_ally, allies)]
optimizer_advr = [optim(advr.parameters(), lr=lr)
for lr, advr in zip(lr_advr, advrs)]
dataloader_train = get_loader(expt, batch_size, True)
dataloader_valid = get_loader(expt, batch_size, False)
epochs_train = []
epochs_valid = []
encd_loss_train = []
encd_loss_valid = []
ally_loss_train = []
ally_loss_valid = []
advr_loss_train = []
advr_loss_valid = []
template = '{}_{}_{}'.format(expt, model, marker)
log_head = '{} \t {} \t {}'.format(
'Epoch',
'Encd Tr',
'Encd Val',
)
for _ in range(len(ally_classes)):
log_head += ' \t {} \t {}'.format(
'A{} tr'.format(_), 'A{} val'.format(_))
for _ in range(len(advr_classes)):
log_head += ' \t {} \t {}'.format(
'V{} tr'.format(_), 'V{} val'.format(_))
logging.info(log_head)
encoder.train()
for ally in allies:
ally.train()
for advr in advrs:
advr.train()
for epoch in range(n_epochs):
nsamples = 0
iloss = 0
for i, data in tqdm(enumerate(dataloader_train, 0),
total=len(dataloader_train)):
X_train_torch = data[0].to(device)
y_ally_train_torch = [
(data[1] % 2 == 0).type(torch.int64).to(device)]
y_advr_train_torch = [
data[1].to(device),
# (data[1] >= 5).type(torch.int64).to(device)
]
optimizer_encd.zero_grad()
# Forward pass
X_train_encoded = encoder(X_train_torch)
y_ally_train_hat_torch = [ally(X_train_encoded) for ally in allies]
y_advr_train_hat_torch = [advr(X_train_encoded) for advr in advrs]
# Compute Loss
loss_ally = [criterionNLL(y_hat, y)
for y_hat, y in zip(y_ally_train_hat_torch,
y_ally_train_torch)]
loss_advr = [criterionNLL(y_hat, y)
for y_hat, y in zip(
y_advr_train_hat_torch,
y_advr_train_torch)]
loss_encd = sum(loss_ally) + sum(loss_advr)
# Backward pass
loss_encd.backward()
optimizer_encd.step()
nsamples += 1
iloss += loss_encd.item()
epochs_train.append(epoch)
encd_loss_train.append(iloss/nsamples)
nsamples = 0
iloss_ally = np.array([0] * len(allies))
iloss_advr = np.array([0] * len(advrs))
for i, data in tqdm(enumerate(dataloader_train, 0),
total=len(dataloader_train)):
X_train_torch = data[0].to(device)
y_ally_train_torch = [
(data[1] % 2 == 0).type(torch.int64).to(device)]
y_advr_train_torch = [
data[1].to(device),
# (data[1] >= 5).type(torch.int64).to(device)
]
[opt_ally.zero_grad() for opt_ally in optimizer_ally]
X_train_encoded = encoder(X_train_torch)
y_ally_train_hat_torch = [ally(X_train_encoded) for ally in allies]
loss_ally = [criterionNLL(y_hat, y)
for y_hat, y in zip(y_ally_train_hat_torch,
y_ally_train_torch)]
[l_ally.backward() for l_ally in loss_ally]
[opt_ally.step() for opt_ally in optimizer_ally]
[opt_advr.zero_grad() for opt_advr in optimizer_advr]
X_train_encoded = encoder(X_train_torch)
y_advr_train_hat_torch = [advr(X_train_encoded) for advr in advrs]
loss_advr = [criterionNLL(y_hat, y)
for y_hat, y in zip(y_advr_train_hat_torch,
y_advr_train_torch)]
[l_advr.backward(retain_graph=True) for l_advr in loss_advr]
[opt_advr.step() for opt_advr in optimizer_advr]
nsamples += 1
iloss_ally = iloss_ally + \
np.array([l_ally.item() for l_ally in loss_ally])
iloss_advr = iloss_advr + \
np.array([l_advr.item() for l_advr in loss_advr])
ally_loss_train.append(iloss_ally/nsamples)
advr_loss_train.append(iloss_advr/nsamples)
if epoch % int(n_epochs/10) != 0:
continue
nsamples = 0
iloss = 0
iloss_ally = np.array([0] * len(allies))
iloss_advr = np.array([0] * len(advrs))
for i, data in tqdm(enumerate(dataloader_valid, 0),
total=len(dataloader_valid)):
X_valid_torch = data[0].to(device)
y_ally_valid_torch = [
(data[1] % 2 == 0).type(torch.int64).to(device)]
y_advr_valid_torch = [
data[1].to(device),
# (data[1] >= 5).type(torch.int64).to(device)
]
X_valid_encoded = encoder(X_valid_torch)
y_ally_valid_hat_torch = [ally(X_valid_encoded) for ally in allies]
y_advr_valid_hat_torch = [advr(X_valid_encoded) for advr in advrs]
# Compute Loss
loss_ally = [criterionNLL(y_hat, y)
for y_hat, y in zip(y_ally_valid_hat_torch,
y_ally_valid_torch)]
loss_advr = [criterionNLL(y_hat, y)
for y_hat, y in zip(y_advr_valid_hat_torch,
y_advr_valid_torch)]
loss_encd = sum(loss_ally) - sum(loss_advr)
if i < 4:
sample = X_valid_torch[0].cpu().detach().squeeze().numpy()
ax = plt.subplot(2, 4, i+1)
plt.imshow(sample)
ax.axis('off')
output = X_valid_encoded[0].cpu().detach().squeeze().numpy()
ax = plt.subplot(2, 4, i+5)
plt.imshow(output)
ax.axis('off')
if i == 3:
validation_plt = 'ckpts/{}/validation/{}_{}.jpg'.format(
expt, template, epoch)
print('Saving: {}'.format(validation_plt))
plt.savefig(validation_plt)
nsamples += 1
iloss += loss_encd.item()
iloss_ally = iloss_ally + \
np.array([l_ally.item() for l_ally in loss_ally])
iloss_advr = iloss_advr + \
np.array([l_advr.item() for l_advr in loss_advr])
epochs_valid.append(epoch)
encd_loss_valid.append(iloss/nsamples)
ally_loss_valid.append(iloss_ally/nsamples)
advr_loss_valid.append(iloss_advr/nsamples)
logging.info('{} \t {:.4f} \t {:.4f} \t {:.4f} \t {:.4f} \t {:.4f} \t {:.4f}'.
format(
epoch,
encd_loss_train[-1],
encd_loss_valid[-1],
ally_loss_train[-1][0],
ally_loss_valid[-1][0],
advr_loss_train[-1][0],
advr_loss_valid[-1][0],
))
ally_loss_train = np.vstack(ally_loss_train)
ally_loss_valid = np.vstack(ally_loss_valid)
advr_loss_train = np.vstack(advr_loss_train)
advr_loss_valid = np.vstack(advr_loss_valid)
fig = plt.figure(figsize=(15, 4))
ax1 = fig.add_subplot(131)
ax2 = fig.add_subplot(132)
ax3 = fig.add_subplot(133)
# ax4 = fig.add_subplot(224)
ax1.plot(epochs_train, encd_loss_train, 'r', label='encd tr')
ax1.plot(epochs_valid, encd_loss_valid, 'r--', label='encd val')
ax1.legend()
for col, c, ax in zip(range(ally_loss_train.shape[1]), ['b'], [ax2]):
ax.plot(epochs_train, ally_loss_train[:, col],
'{}.:'.format(c), label='ally {} tr'.format(col))
ax.plot(epochs_valid, ally_loss_valid[:, col],
'{}s-.'.format(c), label='ally {} val'.format(col))
ax.legend()
for col, c, ax in zip(range(advr_loss_train.shape[1]), ['g'], [ax3]):
ax.plot(epochs_train, advr_loss_train[:, col],
'{}.:'.format(c), label='advr {} tr'.format(col))
ax.plot(epochs_valid, advr_loss_valid[:, col],
'{}s-.'.format(c), label='advr {} val'.format(col))
ax.legend()
plot_location = 'ckpts/{}/plots/{}.png'.format(
expt, template)
sep()
logging.info('Saving: {}'.format(plot_location))
plt.savefig(plot_location)
checkpoint_location = 'ckpts/{}/history/{}.pkl'.format(
expt, template)
logging.info('Saving: {}'.format(checkpoint_location))
pkl.dump((
epochs_train, epochs_valid,
encd_loss_train, encd_loss_valid,
ally_loss_train, ally_loss_valid,
advr_loss_train, advr_loss_valid,
), open(checkpoint_location, 'wb'))
model_ckpt = 'ckpts/{}/models/{}.pkl'.format(
expt, template)
logging.info('Saving: {}'.format(model_ckpt))
torch.save(encoder.state_dict(), model_ckpt)
