def processData(device_index, start_samples, samples, federated,
full_data_size, number_of_batches, parameter_server,
sample_distribution):
pause(5) # PS server (if any) starts first
checkpointpath1 = 'results/model{}.h5'.format(device_index)
outfile = 'results/dump_train_variables{}.npz'.format(device_index)
outfile_models = 'results/dump_train_model{}.npy'.format(device_index)
global_model = 'results/model_global.npy'
np.random.seed(1)
tf.random.set_seed(1) # common initialization
learning_rate = args.mu
learning_rate_local = learning_rate
B = np.ones((devices, devices)) - tf.one_hot(np.arange(devices), devices)
Probabilities = B[device_index, :] / (devices - 1)
training_signal = False
# check for backup variables on start
if os.path.isfile(checkpointpath1):
train_start = False
# backup the model and the model target
model = models.load_model(checkpointpath1)
data_history = []
label_history = []
local_model_parameters = np.load(outfile_models, allow_pickle=True)
model.set_weights(local_model_parameters.tolist())
dump_vars = np.load(outfile, allow_pickle=True)
frame_count = dump_vars['frame_count']
epoch_loss_history = dump_vars['epoch_loss_history'].tolist()
running_loss = np.mean(epoch_loss_history[-5:])
epoch_count = dump_vars['epoch_count']
else:
train_start = True
model = create_q_model()
data_history = []
label_history = []
frame_count = 0
# Experience replay buffers
epoch_loss_history = []
epoch_count = 0
running_loss = math.inf
training_end = False
# create a data object (here radar data)
if args.noniid_assignment == 0:
data_handle = CIFARData(device_index, start_samples, samples,
full_data_size, args.random_data_distribution)
else:
data_handle = CIFARData_task(device_index, start_samples, samples,
full_data_size,
args.random_data_distribution)
# create a consensus object
cfa_consensus = CFA_process(devices, device_index, args.N)
while True: # Run until solved
# collect 1 batch
frame_count += 1
obs, labels = data_handle.getTrainingData(batch_size)
data_batch = preprocess_observation(obs, batch_size)
# Save data and labels in the current learning session
data_history.append(data_batch)
label_history.append(labels)
# Local learning update every "number of batches" batches
if frame_count % number_of_batches == 0 and not training_signal:
epoch_count += 1
for i in range(number_of_batches):
data_sample = np.array(data_history[i])
label_sample = np.array(label_history[i])
# Create a mask to calculate loss
masks = tf.one_hot(label_sample, n_outputs)
with tf.GradientTape() as tape:
# Train the model on data samples
classes = model(data_sample)
# Apply the masks
class_v = tf.reduce_sum(tf.multiply(classes, masks),
axis=1)
# Calculate loss
loss = loss_function(label_sample, class_v)
# Backpropagation
grads = tape.gradient(loss, model.trainable_variables)
optimizer.apply_gradients(zip(grads,
model.trainable_variables))
del data_history
del label_history
data_history = []
label_history = []
model_weights = np.asarray(model.get_weights())
model.save(checkpointpath1,
include_optimizer=True,
save_format='h5')
np.savez(outfile,
frame_count=frame_count,
epoch_loss_history=epoch_loss_history,
training_end=training_end,
epoch_count=epoch_count,
loss=running_loss)
np.save(outfile_models, model_weights)
# Consensus round
# update local model
cfa_consensus.update_local_model(model_weights)
# neighbor = cfa_consensus.get_connectivity(device_index, args.N, devices) # fixed neighbor
# neighbor = np.random.choice(np.arange(devices), args.N, p=Probabilities, replace=False) # choose neighbor
neighbor = np.random.choice(np.arange(devices),
args.N,
replace=False) # choose neighbor
while neighbor == device_index:
neighbor = np.random.choice(np.arange(devices),
args.N,
replace=False)
if not train_start:
if federated and not training_signal:
eps_c = 1 / (args.N + 1)
# apply consensus for model parameter
print(
"Consensus from neighbor {} for device {}, local loss {:.2f}"
.format(neighbor, device_index, loss.numpy()))
model.set_weights(
cfa_consensus.federated_weights_computing(
neighbor, args.N, frame_count, eps_c, max_lag))
if cfa_consensus.getTrainingStatusFromNeightbor():
# a neighbor completed the training, with loss < target, transfer learning is thus applied (the device will copy and reuse the same model)
training_signal = True # stop local learning, just do validation
else:
print("Warm up")
train_start = False
# check if parameter server is enabled
stop_aggregation = False
if parameter_server:
pause(refresh_server)
while not os.path.isfile(global_model):
# implementing consensus
print("waiting")
pause(1)
try:
model_global = np.load(global_model, allow_pickle=True)
except:
pause(5)
print("retrying opening global model")
try:
model_global = np.load(global_model, allow_pickle=True)
except:
print("halting aggregation")
stop_aggregation = True
if not stop_aggregation:
# print("updating from global model inside the parmeter server")
for k in range(cfa_consensus.layers):
# model_weights[k] = model_weights[k]+ 0.5*(model_global[k]-model_weights[k])
model_weights[k] = model_global[k]
model.set_weights(model_weights.tolist())
del model_weights
# validation tool for device 'device_index'
if epoch_count > validation_start and frame_count % number_of_batches == 0:
avg_cost = 0.
for i in range(number_of_batches_for_validation):
obs_valid, labels_valid = data_handle.getTestData(
batch_size, i)
# obs_valid, labels_valid = data_handle.getRandomTestData(batch_size)
data_valid = preprocess_observation(np.squeeze(obs_valid),
batch_size)
data_sample = np.array(data_valid)
label_sample = np.array(labels_valid)
# Create a mask to calculate loss
masks = tf.one_hot(label_sample, n_outputs)
classes = model(data_sample)
# Apply the masks
class_v = tf.reduce_sum(tf.multiply(classes, masks), axis=1)
# Calculate loss
loss = loss_function(label_sample, class_v)
avg_cost += loss / number_of_batches_for_validation # Training loss
epoch_loss_history.append(avg_cost)
print("Device {} epoch count {}, validation loss {:.2f}".format(
device_index, epoch_count, avg_cost))
# mean loss for last 5 epochs
running_loss = np.mean(epoch_loss_history[-5:])
if running_loss < target_loss or training_signal: # Condition to consider the task solved
print(
"Solved for device {} at epoch {} with average loss {:.2f} !".
format(device_index, epoch_count, running_loss))
training_end = True
model_weights = np.asarray(model.get_weights())
model.save(checkpointpath1,
include_optimizer=True,
save_format='h5')
# model_target.save(checkpointpath2, include_optimizer=True, save_format='h5')
np.savez(outfile,
frame_count=frame_count,
epoch_loss_history=epoch_loss_history,
training_end=training_end,
epoch_count=epoch_count,
loss=running_loss)
np.save(outfile_models, model_weights)
if federated:
dict_1 = {
"epoch_loss_history": epoch_loss_history,
"federated": federated,
"parameter_server": parameter_server,
"devices": devices,
"neighbors": args.N,
"active_devices": args.Ka_consensus,
"batches": number_of_batches,
"batch_size": batch_size,
"samples": samples,
"noniid": args.noniid_assignment,
"data_distribution": args.random_data_distribution
}
elif parameter_server:
dict_1 = {
"epoch_loss_history": epoch_loss_history,
"federated": federated,
"parameter_server": parameter_server,
"devices": devices,
"active_devices": active_devices_per_round,
"batches": number_of_batches,
"batch_size": batch_size,
"samples": samples,
"noniid": args.noniid_assignment,
"data_distribution": args.random_data_distribution
}
else:
dict_1 = {
"epoch_loss_history": epoch_loss_history,
"federated": federated,
"parameter_server": parameter_server,
"devices": devices,
"batches": number_of_batches,
"batch_size": batch_size,
"samples": samples,
"noniid": args.noniid_assignment,
"data_distribution": args.random_data_distribution
}
if federated:
sio.savemat(
"results/matlab/CFA_device_{}_samples_{}_devices_{}_active_{}_neighbors_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat"
.format(device_index, samples, devices, args.Ka_consensus,
args.N, number_of_batches, batch_size,
args.noniid_assignment, args.run,
args.random_data_distribution), dict_1)
sio.savemat(
"CFA_device_{}_samples_{}_devices_{}_neighbors_{}_batches_{}_size{}.mat"
.format(device_index, samples, devices, args.N,
number_of_batches, batch_size), dict_1)
elif parameter_server:
sio.savemat(
"results/matlab/FA2_device_{}_samples_{}_devices_{}_active_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat"
.format(device_index, samples, devices,
active_devices_per_round, number_of_batches,
batch_size, args.noniid_assignment, args.run,
args.random_data_distribution), dict_1)
sio.savemat(
"FA2_device_{}_samples_{}_devices_{}_active_{}_batches_{}_size{}.mat"
.format(device_index, samples, devices,
active_devices_per_round, number_of_batches,
batch_size), dict_1)
else: # CL
sio.savemat(
"results/matlab/CL_samples_{}_devices_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat"
.format(samples, devices, number_of_batches, batch_size,
args.noniid_assignment, args.run,
args.random_data_distribution), dict_1)
break
if epoch_count > max_epochs: # stop simulation
print("Unsolved for device {} at epoch {}!".format(
device_index, epoch_count))
training_end = True
model_weights = np.asarray(model.get_weights())
model.save(checkpointpath1,
include_optimizer=True,
save_format='h5')
# model_target.save(checkpointpath2, include_optimizer=True, save_format='h5')
np.savez(outfile,
frame_count=frame_count,
epoch_loss_history=epoch_loss_history,
training_end=training_end,
epoch_count=epoch_count,
loss=running_loss)
np.save(outfile_models, model_weights)
if federated:
dict_1 = {
"epoch_loss_history": epoch_loss_history,
"federated": federated,
"parameter_server": parameter_server,
"devices": devices,
"neighbors": args.N,
"active_devices": args.Ka_consensus,
"batches": number_of_batches,
"batch_size": batch_size,
"samples": samples,
"noniid": args.noniid_assignment,
"data_distribution": args.random_data_distribution
}
elif parameter_server:
dict_1 = {
"epoch_loss_history": epoch_loss_history,
"federated": federated,
"parameter_server": parameter_server,
"devices": devices,
"active_devices": active_devices_per_round,
"batches": number_of_batches,
"batch_size": batch_size,
"samples": samples,
"noniid": args.noniid_assignment,
"data_distribution": args.random_data_distribution
}
else:
dict_1 = {
"epoch_loss_history": epoch_loss_history,
"federated": federated,
"parameter_server": parameter_server,
"devices": devices,
"batches": number_of_batches,
"batch_size": batch_size,
"samples": samples,
"noniid": args.noniid_assignment,
"data_distribution": args.random_data_distribution
}
if federated:
sio.savemat(
"results/matlab/CFA_device_{}_samples_{}_devices_{}_active_{}_neighbors_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat"
.format(device_index, samples, devices, args.Ka_consensus,
args.N, number_of_batches, batch_size,
args.noniid_assignment, args.run,
args.random_data_distribution), dict_1)
sio.savemat(
"CFA_device_{}_samples_{}_devices_{}_neighbors_{}_batches_{}_size{}.mat"
.format(device_index, samples, devices, args.N,
number_of_batches, batch_size), dict_1)
elif parameter_server:
sio.savemat(
"results/matlab/FA2_device_{}_samples_{}_devices_{}_active_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat"
.format(device_index, samples, devices,
active_devices_per_round, number_of_batches,
batch_size, args.noniid_assignment, args.run,
args.random_data_distribution), dict_1)
sio.savemat(
"FA2_device_{}_samples_{}_devices_{}_active_{}_batches_{}_size{}.mat"
.format(device_index, samples, devices,
active_devices_per_round, number_of_batches,
batch_size), dict_1)
else: # CL
sio.savemat(
"results/matlab/CL_samples_{}_devices_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat"
.format(samples, devices, number_of_batches, batch_size,
args.noniid_assignment, args.run,
args.random_data_distribution), dict_1)
break
def processData(device_index, start_samples, samples, federated, full_data_size, number_of_batches, parameter_server, sample_distribution):
pause(5) # PS server (if any) starts first
checkpointpath1 = 'results/model{}.h5'.format(device_index)
outfile = 'results/dump_train_variables{}.npz'.format(device_index)
outfile_models = 'results/dump_train_model{}.npy'.format(device_index)
outfile_models_grad = 'results/dump_train_grad{}.npy'.format(device_index)
global_model = 'results/model_global.npy'
global_epoch = 'results/epoch_global.npy'
#np.random.seed(1)
#tf.random.set_seed(1) # common initialization
learning_rate = args.mu
learning_rate_local = learning_rate
B = np.ones((devices, devices)) - tf.one_hot(np.arange(devices), devices)
Probabilities = B[device_index, :]/(devices - 1)
training_signal = False
# check for backup variables on start
if os.path.isfile(checkpointpath1):
train_start = False
# backup the model and the model target
model = models.load_model(checkpointpath1)
model_transmitted = create_q_model()
data_history = []
label_history = []
local_model_parameters = np.load(outfile_models, allow_pickle=True)
model.set_weights(local_model_parameters.tolist())
dump_vars = np.load(outfile, allow_pickle=True)
frame_count = dump_vars['frame_count']
epoch_loss_history = dump_vars['epoch_loss_history'].tolist()
running_loss = np.mean(epoch_loss_history[-5:])
epoch_count = dump_vars['epoch_count']
else:
train_start = True
model = create_q_model()
model_transmitted = create_q_model()
data_history = []
label_history = []
frame_count = 0
# Experience replay buffers
epoch_loss_history = []
epoch_count = 0
running_loss = math.inf
if parameter_server:
epoch_global = 0
training_end = False
#a = model.get_weights()
# set an arbitrary optimizer, here Adam is used
#optimizer = keras.optimizers.Adam(learning_rate=args.mu, clipnorm=1.0)
#optimizer2 = keras.optimizers.SGD(learning_rate=args.mu2)
optimizer2 = keras.optimizers.Adam(learning_rate=args.mu2, clipnorm=1.0)
# create a data object (here radar data)
# start = time.time()
if args.noniid_assignment == 1:
data_handle = CIFARData_task(device_index, start_samples, samples, full_data_size, args.random_data_distribution)
else:
data_handle = CIFARData(device_index, start_samples, samples, full_data_size, args.random_data_distribution)
# end = time.time()
# time_count = (end - start)
# print(Training time"time_count)
# create a consensus object
cfa_consensus = CFA_process(devices, device_index, args.N)
while True: # Run until solved
# collect 1 batch
frame_count += 1
obs, labels = data_handle.getTrainingData(batch_size)
data_batch = preprocess_observation(obs, batch_size)
# Save data and labels in the current learning session
data_history.append(data_batch)
label_history.append(labels)
if frame_count % number_of_batches == 0:
if not parameter_server:
epoch_count += 1
# check scheduling for federated
if federated:
if epoch_count == 1 or scheduling_tx[device_index, epoch_count] == 1:
training_signal = False
else:
# stop all computing, just save the previous model
training_signal = True
model_weights = np.asarray(model.get_weights())
model.save(checkpointpath1, include_optimizer=True, save_format='h5')
np.savez(outfile, frame_count=frame_count, epoch_loss_history=epoch_loss_history,
training_end=training_end, epoch_count=epoch_count, loss=running_loss)
np.save(outfile_models, model_weights)
# Local learning update every "number of batches" batches
# time_count = 0
if frame_count % number_of_batches == 0 and not training_signal:
# run local batches
for i in range(number_of_batches):
start = time.time()
data_sample = np.array(data_history[i])
label_sample = np.array(label_history[i])
# Create a mask to calculate loss
masks = tf.one_hot(label_sample, n_outputs)
with tf.GradientTape() as tape:
# Train the model on data samples
classes = model(data_sample)
# Apply the masks
class_v = tf.reduce_sum(tf.multiply(classes, masks), axis=1)
# Calculate loss
loss = loss_function(label_sample, class_v)
# Backpropagation
grads = tape.gradient(loss, model.trainable_variables)
optimizer.apply_gradients(zip(grads, model.trainable_variables))
#end = time.time()
#time_count = time_count + (end-start)/number_of_batches
del data_history
del label_history
data_history = []
label_history = []
model_weights = np.asarray(model.get_weights())
model.save(checkpointpath1, include_optimizer=True, save_format='h5')
np.savez(outfile, frame_count=frame_count, epoch_loss_history=epoch_loss_history,
training_end=training_end, epoch_count=epoch_count, loss=running_loss)
np.save(outfile_models, model_weights)
cfa_consensus.update_local_model(model_weights)
grads_v = []
for d in range(len(grads)):
grads_v.append(grads[d].numpy())
grads_v = np.asarray(grads_v)
cfa_consensus.update_local_gradient(grads_v)
# compute gradients for selected neighbors in get_tx_connectvity, obtain a new test observation from local database
obs_t, labels_t = data_handle.getTrainingData(batch_size)
data_batch_t = preprocess_observation(obs_t, batch_size)
masks_t = tf.one_hot(labels_t, n_outputs)
gradient_neighbor = cfa_consensus.get_tx_connectivity(device_index, args.N, devices)
outfile_n = 'results/dump_train_variables{}.npz'.format(gradient_neighbor)
outfile_models_n = 'results/dump_train_model{}.npy'.format(gradient_neighbor)
neighbor_model_for_gradient, success = cfa_consensus.get_neighbor_weights(epoch_count, outfile_n, outfile_models_n, epoch=0, max_lag=1)
if success:
model_transmitted.set_weights(neighbor_model_for_gradient.tolist())
else:
print("failed retrieving the model for gradient computation")
with tf.GradientTape() as tape2:
# Train the model on data samples
classes = model_transmitted(data_batch_t)
# Apply the masks
class_v = tf.reduce_sum(tf.multiply(classes, masks_t), axis=1)
# Calculate loss
loss = loss_function(labels_t, class_v)
# getting and save neighbor gradients
grads_t = tape2.gradient(loss, model_transmitted.trainable_variables)
grads_v = []
for d in range(len(grads_t)):
grads_v.append(grads_t[d].numpy())
grads_v = np.asarray(grads_v)
np.save(outfile_models_grad, grads_v)
np.random.seed(1)
tf.random.set_seed(1) # common initialization
if not train_start:
if federated and not training_signal:
eps_c = args.eps
# apply consensus for model parameter
neighbor = cfa_consensus.get_connectivity(device_index, args.N, devices) # fixed neighbor
#if args.gradients == 0 or running_loss < 0.5:
if args.gradients == 0:
# random selection of neighor
# neighbor = np.random.choice(indexes_tx[:, epoch_count - 1], args.N, replace=False) # choose neighbor
# while neighbor == device_index:
# neighbor = np.random.choice(indexes_tx[:, epoch_count - 1], args.N,
# replace=False) # choose neighbor
print("Consensus from neighbor {} for device {}, local loss {:.2f}".format(neighbor, device_index,
loss.numpy()))
model.set_weights(cfa_consensus.federated_weights_computing(neighbor, args.N, epoch_count, eps_c, max_lag))
if cfa_consensus.getTrainingStatusFromNeightbor():
training_signal = True # stop local learning, just do validation
else:
# compute gradients as usual
print("Consensus from neighbor {} for device {}, local loss {:.2f}".format(neighbor, device_index,
loss.numpy()))
print("Applying gradient updates...")
# model.set_weights(cfa_consensus.federated_weights_computing(neighbor, args.N, epoch_count, eps_c, max_lag))
model_averaging = cfa_consensus.federated_weights_computing(neighbor, args.N, epoch_count, eps_c, max_lag)
model.set_weights(model_averaging)
if cfa_consensus.getTrainingStatusFromNeightbor():
# model.set_weights(model_averaging)
training_signal = True # stop local learning, just do validation
else:
grads = cfa_consensus.federated_grads_computing(neighbor, args.N, epoch_count, args.eps_grads, max_lag)
optimizer2.apply_gradients(zip(grads, model.trainable_variables))
else:
print("Warm up")
train_start = False
del model_weights
#start = time.time()
# validation tool for device 'device_index'
if epoch_count > validation_start and frame_count % number_of_batches == 0:
avg_cost = 0.
for i in range(number_of_batches_for_validation):
obs_valid, labels_valid = data_handle.getTestData(batch_size, i)
# obs_valid, labels_valid = data_handle.getRandomTestData(batch_size)
data_valid = preprocess_observation(np.squeeze(obs_valid), batch_size)
data_sample = np.array(data_valid)
label_sample = np.array(labels_valid)
# Create a mask to calculate loss
masks = tf.one_hot(label_sample, n_outputs)
classes = model(data_sample)
# Apply the masks
class_v = tf.reduce_sum(tf.multiply(classes, masks), axis=1)
# Calculate loss
loss = loss_function(label_sample, class_v)
avg_cost += loss / number_of_batches_for_validation # Training loss
epoch_loss_history.append(avg_cost)
print("Device {} epoch count {}, validation loss {:.2f}".format(device_index, epoch_count,
avg_cost))
# mean loss for last 5 epochs
running_loss = np.mean(epoch_loss_history[-1:])
#end = time.time()
#time_count = (end - start)
#print(time_count)
if running_loss < target_loss: # Condition to consider the task solved
print("Solved for device {} at epoch {} with average loss {:.2f} !".format(device_index, epoch_count, running_loss))
training_end = True
model_weights = np.asarray(model.get_weights())
model.save(checkpointpath1, include_optimizer=True, save_format='h5')
# model_target.save(checkpointpath2, include_optimizer=True, save_format='h5')
np.savez(outfile, frame_count=frame_count, epoch_loss_history=epoch_loss_history,
training_end=training_end, epoch_count=epoch_count, loss=running_loss)
np.save(outfile_models, model_weights)
if federated:
dict_1 = {"epoch_loss_history": epoch_loss_history, "federated": federated,
"parameter_server": parameter_server, "devices": devices, "neighbors": args.N,
"active_devices": args.Ka_consensus,
"batches": number_of_batches, "batch_size": batch_size, "samples": samples, "noniid": args.noniid_assignment, "data_distribution": args.random_data_distribution}
elif parameter_server:
dict_1 = {"epoch_loss_history": epoch_loss_history, "federated": federated,
"parameter_server": parameter_server, "devices": devices,
"active_devices": active_devices_per_round,
"batches": number_of_batches, "batch_size": batch_size, "samples": samples,
"noniid": args.noniid_assignment, "data_distribution": args.random_data_distribution}
else:
dict_1 = {"epoch_loss_history": epoch_loss_history, "federated": federated,
"parameter_server": parameter_server, "devices": devices,
"batches": number_of_batches, "batch_size": batch_size, "samples": samples,
"noniid": args.noniid_assignment, "data_distribution": args.random_data_distribution}
if federated:
sio.savemat(
"results/matlab/CFA_device_{}_samples_{}_devices_{}_active_{}_neighbors_{}_batches_{}_size{}_noniid{}_run{}_distribution{}_gradients{}.mat".format(
device_index, samples, devices, args.Ka_consensus, args.N, number_of_batches, batch_size, args.noniid_assignment, args.run, args.random_data_distribution, args.gradients), dict_1)
sio.savemat(
"CFA_device_{}_samples_{}_devices_{}_neighbors_{}_batches_{}_size{}.mat".format(
device_index, samples, devices, args.N, number_of_batches, batch_size), dict_1)
elif parameter_server:
sio.savemat(
"results/matlab/FA_device_{}_samples_{}_devices_{}_active_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat".format(
device_index, samples, devices, active_devices_per_round, number_of_batches, batch_size, args.noniid_assignment,args.run, args.random_data_distribution), dict_1)
sio.savemat(
"FA_device_{}_samples_{}_devices_{}_active_{}_batches_{}_size{}.mat".format(
device_index, samples, devices, active_devices_per_round, number_of_batches, batch_size), dict_1)
else: # CL
sio.savemat(
"results/matlab/CL_samples_{}_devices_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat".format(samples, devices, number_of_batches, batch_size,
args.noniid_assignment, args.run, args.random_data_distribution), dict_1)
break
if epoch_count > max_epochs: # stop simulation
print("Unsolved for device {} at epoch {}!".format(device_index, epoch_count))
training_end = True
model_weights = np.asarray(model.get_weights())
model.save(checkpointpath1, include_optimizer=True, save_format='h5')
# model_target.save(checkpointpath2, include_optimizer=True, save_format='h5')
np.savez(outfile, frame_count=frame_count, epoch_loss_history=epoch_loss_history,
training_end=training_end, epoch_count=epoch_count, loss=running_loss)
np.save(outfile_models, model_weights)
if federated:
dict_1 = {"epoch_loss_history": epoch_loss_history, "federated": federated,
"parameter_server": parameter_server, "devices": devices, "neighbors": args.N,
"active_devices": args.Ka_consensus,
"batches": number_of_batches, "batch_size": batch_size, "samples": samples,
"noniid": args.noniid_assignment, "data_distribution": args.random_data_distribution}
elif parameter_server:
dict_1 = {"epoch_loss_history": epoch_loss_history, "federated": federated,
"parameter_server": parameter_server, "devices": devices,
"active_devices": active_devices_per_round,
"batches": number_of_batches, "batch_size": batch_size, "samples": samples,
"noniid": args.noniid_assignment, "data_distribution": args.random_data_distribution}
else:
dict_1 = {"epoch_loss_history": epoch_loss_history, "federated": federated,
"parameter_server": parameter_server, "devices": devices,
"batches": number_of_batches, "batch_size": batch_size, "samples": samples,
"noniid": args.noniid_assignment, "data_distribution": args.random_data_distribution}
if federated:
sio.savemat(
"results/matlab/CFA_device_{}_samples_{}_devices_{}_active_{}_neighbors_{}_batches_{}_size{}_noniid{}_run{}_distribution{}_gradients{}.mat".format(
device_index, samples, devices, args.Ka_consensus, args.N, number_of_batches, batch_size,
args.noniid_assignment, args.run, args.random_data_distribution, args.gradients), dict_1)
sio.savemat(
"CFA_device_{}_samples_{}_devices_{}_neighbors_{}_batches_{}_size{}.mat".format(
device_index, samples, devices, args.N, number_of_batches, batch_size), dict_1)
elif parameter_server:
sio.savemat(
"results/matlab/FA_device_{}_samples_{}_devices_{}_active_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat".format(
device_index, samples, devices, active_devices_per_round, number_of_batches, batch_size,
args.noniid_assignment, args.run, args.random_data_distribution), dict_1)
sio.savemat(
"FA_device_{}_samples_{}_devices_{}_active_{}_batches_{}_size{}.mat".format(
device_index, samples, devices, active_devices_per_round, number_of_batches, batch_size),
dict_1)
else: # CL
sio.savemat(
"results/matlab/CL_samples_{}_devices_{}_batches_{}_size{}_noniid{}_run{}_distribution{}.mat".format(
samples, devices, number_of_batches, batch_size,
args.noniid_assignment, args.run, args.random_data_distribution), dict_1)
break