def fit_validate(exp_params, k, data_path, write_path, others=None, custom_tag=''):
"""Fit model and compute metrics on train and validation set. Intended for hyperparameter search.
Only logs final metrics and scatter plot of final embedding.
Args:
exp_params(dict): Parameter dict. Should at least have keys model_name, dataset_name & random_state. Other
keys are assumed to be model parameters.
k(int): Fold identifier.
data_path(str): Data directory.
write_path(str): Where to write temp files.
others(dict): Other things to log to Comet experiment.
custom_tag(str): Custom tag for comet experiment.
"""
# Comet experiment
exp = Experiment(parse_args=False)
exp.disable_mp()
custom_tag += '_validate'
exp.add_tag(custom_tag)
exp.log_parameters(exp_params)
if others is not None:
exp.log_others(others)
# Parse experiment parameters
model_name, dataset_name, random_state, model_params = parse_params(exp_params)
# Fetch and split dataset.
data_train = getattr(grae.data, dataset_name)(split='train', random_state=random_state, data_path=data_path)
data_train, data_val = data_train.validation_split(random_state=FOLD_SEEDS[k])
# Model
m = getattr(grae.models, model_name)(random_state=FOLD_SEEDS[k], **model_params)
m.write_path = write_path
m.data_val = data_val
with exp.train():
m.fit(data_train)
# Log plot
m.comet_exp = exp
m.plot(data_train, data_val, title=f'{model_name} : {dataset_name}')
# Probe embedding
prober = EmbeddingProber()
prober.fit(model=m, dataset=data_train, mse_only=True)
train_z, train_metrics = prober.score(data_train, is_train=True)
# Log train metrics
exp.log_metrics(train_metrics)
with exp.validate():
val_z, val_metrics = prober.score(data_val)
# Log train metrics
exp.log_metrics(val_metrics)
# Log marker to mark successful experiment
exp.log_other('success', 1)
def __init__(self, config_file, tag_list):
self.tag_list = tag_list
super().__init__()
with open(config_file, 'r') as f:
comet_config = json.load(f)
comet_exp = Experiment(**comet_config)
for tag in tag_list:
comet_exp.add_tag(tag)
self.exp = comet_exp
def main():
device = 'cuda' if torch.cuda.is_available() else 'cpu'
generator = Generator(n_res_blocks=16, n_ps_blocks=2)
hst_path = "../data/samples/hst/filtered_restricted"
hsc_path = "../data/samples/hsc/filtered_restricted"
api_key = os.environ['COMET_ML_ASTRO_API_KEY']
# Create an experiment with your api key
experiment = Experiment(
api_key=api_key,
project_name="Super Resolution GAN: HSC->HST",
workspace="samkahn-astro",
)
experiment.add_tag("test tag")
dataloader = torch.utils.data.DataLoader(SR_HST_HSC_Dataset(
hst_path=hst_path,
hsc_path=hsc_path,
hr_size=[600, 600],
lr_size=[100, 100],
transform_type="log_scale"),
batch_size=1,
pin_memory=True,
shuffle=True,
collate_fn=collate_fn)
generator = train_srresnet(generator,
dataloader,
device,
experiment,
lr=1e-4,
total_steps=1e5,
display_step=50)
torch.save(generator, 'srresnet_median_scale.pt')
generator = torch.load('srresnet_median_scale.pt')
discriminator = Discriminator(n_blocks=1, base_channels=8)
generator, discriminator = train_srgan(generator,
discriminator,
dataloader,
device,
experiment,
lr=1e-4,
total_steps=1e5,
display_step=1000)
torch.save(generator, 'srresnet_median_scale.pt')
torch.save(discriminator, 'srdiscriminator_median_scale.pt')
def start_comet(args):
exp = None
if args.comet is not None and len(args.comet) > 0:
workspace, project, apikey = args.comet.split("/")
exp = Experiment(api_key=apikey,
project_name=project,
workspace=workspace)
exp.set_name("td3")
if len(args.comet_tags) > 0:
comet_tags = args.comet_tags.split(",")
for tag in comet_tags:
exp.add_tag(tag)
return exp
def run(loss, lr, loss_a1, loss_a2):
exp = Experiment(workspace="pose-refinement",
project_name="02-batch-shuffle-pretrained")
exp.add_tag("no bad frames")
if args.output is None:
output_path = f"../models/{exp.get_key()}"
else:
output_path = args.output
params = {
"num_epochs": 15,
"preprocess_2d": "DepthposeNormalize2D",
"preprocess_3d": "SplitToRelativeAbsAndMeanNormalize3D",
"shuffle": True,
"ordered_batch": True,
# training
"optimiser": "adam",
"adam_amsgrad": True,
"learning_rate": lr,
"sgd_momentum": 0,
"batch_size": 1024,
"train_time_flip": False, # True,
"test_time_flip": True,
"lr_scheduler": {
"type": "multiplicative",
"multiplier": 0.95,
"step_size": 1,
},
# dataset
"train_data": "mpii+muco",
"pose2d_type": "hrnet",
"pose3d_scaling": "normal",
"megadepth_type": "megadepth_at_hrnet",
"cap_25fps": True,
"stride": 2,
"simple_aug":
False, # True, # augments data by duplicating each frame
"weights": "29cbfa0fc1774b9cbb06a3573b7fb711",
"model": {
"loss": loss,
"loss_a1": loss_a1,
"loss_a2": loss_a2
},
}
run_experiment(output_path, params, exp)
eval.main(output_path, False, exp)
def main(cfg):
shapes = cfg.model.shapes
opt_params = cfg.optimizer.params
experiment = Experiment(log_code=False)
experiment.set_code(filename=hydra.utils.to_absolute_path(__file__))
experiment.add_tag("with_hydra")
experiment.log_parameters({"hydra-cfg": [cfg]})
model = layers.MLP(shapes)
optimizer = optim.Adam(model.parameters(), **opt_params)
runner = tasks.ClassificationRunner(
model,
optimizer=optimizer,
criterion=nn.CrossEntropyLoss(),
experiment=experiment
)
runner.fit(x, y, epochs=10, checkpoint_path="./checkpoints")
runner.save()
def setup_comet(args, init_distributed):
if init_distributed and args.distributed_rank>0: # Only the rank 0 process handled comet
args.comet = False
if args.comet: # This will only be true if the user set the --comet flag, and the rank is 0
print('Activating comet')
experiment = Experiment(api_key=api_key,
project_name=args.comet_project, workspace=workspace,
auto_param_logging=False, auto_metric_logging=False,
parse_args=True, auto_output_logging=True, log_env_gpu=False
)
# experiment.disable_mp() # Turn off monkey patching
experiment.log_parameters(vars(args))
# experiment.add_tag(args.comet_tag)
experiment.set_name(args.comet_tag)
experiment.add_tag(args.comet_real_tag)
print("* Finished comet setup... ")
return experiment
else:
return None
def log_hyperparameters_to_comet(clf, experiment):
for i in range(len(clf.cv_results_["params"])):
exp = Experiment(
workspace="s0lvang",
project_name="ideal-pancake-hyperparameter",
api_key=globals.flags.comet_api_key,
)
exp.add_tag("hp_tuning")
exp.add_tags(globals.comet_logger.get_tags())
for k, v in clf.cv_results_.items():
if k == "params":
exp.log_parameters(v[i])
else:
exp.log_metric(k, v[i])
exp.end()
old_experiment = ExistingExperiment(
api_key=globals.flags.comet_api_key,
previous_experiment=experiment.get_key(),
)
globals.comet_logger = old_experiment
def test_comet(self):
"""Test with a comet hook."""
from comet_ml import Experiment
comet = Experiment(project_name="Testing",
auto_output_logging="native")
comet.log_dataset_info(name="Karcher", path="shonan")
comet.add_tag("GaussNewton")
comet.log_parameter("method", "GaussNewton")
time = datetime.now()
comet.set_name("GaussNewton-" + str(time.month) + "/" + str(time.day) +
" " + str(time.hour) + ":" + str(time.minute) + ":" +
str(time.second))
# I want to do some comet thing here
def hook(optimizer, error):
comet.log_metric("Karcher error", error, optimizer.iterations())
gtsam_optimize(self.optimizer, self.params, hook)
comet.end()
actual = self.optimizer.values()
self.gtsamAssertEquals(actual.atRot3(KEY), self.expected)
def train_nn(
dataset: str, batch_size: int, depth: int, epochs: int
) -> Tuple[CNN, Tuple[Union[np.ndarray, np.ndarray], Union[
np.ndarray, np.ndarray]], Tuple[Union[np.ndarray, np.ndarray], Union[
np.ndarray, np.ndarray]]]:
experiment = Experiment(project_name="cphap", auto_output_logging=False)
experiment.add_tag(dataset)
experiment.add_tag("NN-depth-{}".format(depth))
(x_train, y_train), (x_test, y_test) = fetch_dataset(dataset)
scaler = TimeSeriesScalerMeanVariance()
x_train: np.ndarray = scaler.fit_transform(x_train)
x_test: np.ndarray = scaler.transform(x_test)
x_train = x_train.transpose((0, 2, 1)).astype(np.float32)
x_test = x_test.transpose((0, 2, 1)).astype(np.float32)
n_features = x_train.shape[1]
n_targets = len(np.unique(y_train))
train_ds = get_dataset(x_train, y_train)
test_ds = get_dataset(x_test, y_test)
train_loader = DataLoader(train_ds, batch_size=batch_size, shuffle=True)
test_loader = DataLoader(test_ds, batch_size=batch_size, shuffle=False)
model = CNN(n_features, 32, n_targets, depth=depth)
optimizer = optim.Adam(model.parameters())
criterion = nn.CrossEntropyLoss()
runner = ClassificationRunner(model, optimizer, criterion, experiment)
runner.add_loader("train", train_loader)
runner.add_loader("test", test_loader)
runner.train_config(epochs=epochs)
runner.run()
runner.quite()
return runner.model.eval(), (x_train, x_test), (y_train, y_test)
if args.Xaugment: args.augment = True
if args.Xbatchsize: args.batchsize = 250
if args.Xlrnrate: args.lrnrate = .2
if args.Xoptimizer: args.optimizer = 'sgd'
if args.Xnet:
args.net = 'ConvNet'
args.lrnrate = .05
print(args)
if rank == 0:
experiment = Experiment(project_name='metapoison-victim',
auto_param_logging=False,
auto_metric_logging=False)
experiment.log_parameters(vars(args))
experiment.log_parameter('nmeta', nmeta)
experiment.set_name(args.key)
experiment.add_tag(args.tag)
experiment.log_model("CIFAR10", "../models/victim_model_1_run")
# args.gpu = set_available_gpus(args)
# again, hardcode the number of the GPU to avoid the error
args.gpu = [1]
if args.name == '': args.name = args.net
def victim():
def comet_pull_next_poison():
# grab next poison from comet that hasn't been processed
impatience = 0
# while not has_exitflag(args.key, api) or impatience < 5: # patience before ending victim process
# Get rid off has_exitflag condition and also only keep the impagtience condition
while impatience < 5: # patience before ending victim process
if hparams['cometml_log_audio']:
audio_loggers = {
'enhancement':
cometml_audio_logger.AudioLogger(fs=hparams["fs"],
bs=1,
n_sources=hparams['max_num_sources'])
}
experiment = Experiment(API_KEY, project_name=hparams['project_name'])
experiment.log_parameters(hparams)
experiment_name = '_'.join(hparams['cometml_tags'])
log_dir = os.path.join(FED_LOG_DIR, experiment_name)
if not os.path.exists(log_dir):
os.makedirs(log_dir)
for tag in hparams['cometml_tags']:
experiment.add_tag(tag)
if hparams['experiment_name'] is not None:
experiment.set_name(hparams['experiment_name'])
else:
experiment.set_name(experiment_name)
os.environ['CUDA_VISIBLE_DEVICES'] = ','.join(
[cad for cad in hparams['cuda_available_devices']])
val_losses = {}
all_losses = []
for val_set in [x for x in val_generators if not x == 'train']:
val_losses[val_set] = {}
for num_noises in [1, 2]:
metric_name = 'SISDRi_enhancement_{}_noises'.format(num_noises)
all_losses.append(val_set + '_{}'.format(metric_name))
def train(normal_digit, anomalies, folder, file, p_train, p_test):
# Create an experiment
experiment = Experiment(project_name="deep-stats-thesis",
workspace="stecaron",
disabled=True)
experiment.add_tag("mnist_kpca")
# General parameters
DOWNLOAD_MNIST = True
PATH_DATA = os.path.join(os.path.expanduser("~"), 'Downloads/mnist')
# Define training parameters
hyper_params = {
"TRAIN_SIZE": 2000,
"TRAIN_NOISE": p_train,
"TEST_SIZE": 800,
"TEST_NOISE": p_test,
# on which class we want to learn outliers
"CLASS_SELECTED": [normal_digit],
# which class we want to corrupt our dataset with
"CLASS_CORRUPTED": anomalies,
"INPUT_DIM": 28 * 28, # In the case of MNIST
"ALPHA": p_test, # level of significance for the test
# hyperparameters gamma in rbf kPCA
"GAMMA": [1],
"N_COMP": [30]
}
# Log experiment parameterso0p
experiment.log_parameters(hyper_params)
# Load data
train_data, test_data = load_mnist(PATH_DATA, download=DOWNLOAD_MNIST)
# Normalize data
train_data.data = train_data.data / 255.
test_data.data = test_data.data / 255.
# Build "train" and "test" datasets
id_maj_train = numpy.random.choice(numpy.where(
numpy.isin(train_data.train_labels,
hyper_params["CLASS_SELECTED"]))[0],
int((1 - hyper_params["TRAIN_NOISE"]) *
hyper_params["TRAIN_SIZE"]),
replace=False)
id_min_train = numpy.random.choice(numpy.where(
numpy.isin(train_data.train_labels,
hyper_params["CLASS_CORRUPTED"]))[0],
int(hyper_params["TRAIN_NOISE"] *
hyper_params["TRAIN_SIZE"]),
replace=False)
id_train = numpy.concatenate((id_maj_train, id_min_train))
id_maj_test = numpy.random.choice(numpy.where(
numpy.isin(test_data.test_labels, hyper_params["CLASS_SELECTED"]))[0],
int((1 - hyper_params["TEST_NOISE"]) *
hyper_params["TEST_SIZE"]),
replace=False)
id_min_test = numpy.random.choice(numpy.where(
numpy.isin(test_data.test_labels, hyper_params["CLASS_CORRUPTED"]))[0],
int(hyper_params["TEST_NOISE"] *
hyper_params["TEST_SIZE"]),
replace=False)
id_test = numpy.concatenate((id_min_test, id_maj_test))
train_data.data = train_data.data[id_train]
train_data.targets = train_data.targets[id_train]
test_data.data = test_data.data[id_test]
test_data.targets = test_data.targets[id_test]
train_data.targets = numpy.isin(train_data.train_labels,
hyper_params["CLASS_CORRUPTED"])
test_data.targets = numpy.isin(test_data.test_labels,
hyper_params["CLASS_CORRUPTED"])
# Flatten the data and transform to numpy array
train_data.data = train_data.data.view(-1, 28 * 28).numpy()
test_data.data = test_data.data.view(-1, 28 * 28).numpy()
# Train kPCA
# param_grid = [{"gamma": hyper_params["GAMMA"],
# "n_components": hyper_params["N_COMP"]}]
param_grid = [{"n_components": hyper_params["N_COMP"]}]
# kpca = KernelPCA(fit_inverse_transform=True,
# kernel="rbf",
# remove_zero_eig=True,
# n_jobs=-1)
kpca = PCA()
#my_scorer2 = make_scorer(my_scorer, greater_is_better=True)
# grid_search = GridSearchCV(kpca, param_grid, cv=ShuffleSplit(
# n_splits=3), scoring=my_scorer)
kpca.fit(train_data.data)
X_kpca = kpca.transform(train_data.data)
X_train_back = kpca.inverse_transform(X_kpca)
X_test_back = kpca.inverse_transform(kpca.transform(test_data.data))
# Compute the distance between original data and reconstruction
dist_train = numpy.linalg.norm(train_data.data - X_train_back,
ord=2,
axis=1)
dist_test = numpy.linalg.norm(test_data.data - X_test_back, ord=2, axis=1)
# Test performances on train
train_anomalies_ind = numpy.argsort(dist_train)[int(
(1 - hyper_params["ALPHA"]) *
hyper_params["TRAIN_SIZE"]):int(hyper_params["TRAIN_SIZE"])]
train_predictions = numpy.zeros(hyper_params["TRAIN_SIZE"])
train_predictions[train_anomalies_ind] = 1
train_recall = metrics.recall_score(train_data.targets, train_predictions)
train_precision = metrics.precision_score(train_data.targets,
train_predictions)
train_f1_score = metrics.f1_score(train_data.targets, train_predictions)
train_auc = metrics.roc_auc_score(train_data.targets, train_predictions)
print(f"Train Precision: {train_precision}")
print(f"Train Recall: {train_recall}")
print(f"Train F1 Score: {train_f1_score}")
print(f"Train AUC: {train_auc}")
experiment.log_metric("train_precision", train_precision)
experiment.log_metric("train_recall", train_recall)
experiment.log_metric("train_f1_score", train_f1_score)
experiment.log_metric("train_auc", train_auc)
# Test performances on test
test_probs = numpy.array(
[numpy.sum(xi >= dist_train) / len(dist_train) for xi in dist_test],
dtype=float)
test_anomalies_ind = numpy.argwhere(
test_probs >= 1 - hyper_params["ALPHA"])
test_predictions = numpy.zeros(hyper_params["TEST_SIZE"])
test_predictions[test_anomalies_ind] = 1
test_recall = metrics.recall_score(test_data.targets, test_predictions)
test_precision = metrics.precision_score(test_data.targets,
test_predictions)
test_f1_score = metrics.f1_score(test_data.targets, test_predictions)
test_auc = metrics.roc_auc_score(test_data.targets, test_probs)
test_average_precision = metrics.average_precision_score(
test_data.targets, test_predictions)
print(f"Test Precision: {test_precision}")
print(f"Test Recall: {test_recall}")
print(f"Test F1 Score: {test_f1_score}")
print(f"Test AUC: {test_auc}")
print(f"Test average Precision: {test_average_precision}")
experiment.log_metric("test_precision", test_precision)
experiment.log_metric("test_recall", test_recall)
experiment.log_metric("test_f1_score", test_f1_score)
experiment.log_metric("test_auc", test_auc)
experiment.log_metric("test_average_precision", test_average_precision)
# Save the results in the output file
col_names = [
"timestamp", "precision", "recall", "f1_score", "average_precision",
"auc"
]
results_file = os.path.join(folder, "results_" + file + ".csv")
if os.path.exists(results_file):
df_results = pandas.read_csv(results_file, names=col_names, header=0)
else:
df_results = pandas.DataFrame(columns=col_names)
df_results = df_results.append(pandas.DataFrame(numpy.concatenate(
(numpy.array(
datetime.datetime.fromtimestamp(
time.time()).strftime('%Y-%m-%d %H:%M:%S')).reshape(1),
test_precision.reshape(1), test_recall.reshape(1),
test_f1_score.reshape(1), test_average_precision.reshape(1),
test_auc.reshape(1))).reshape(1, -1),
columns=col_names),
ignore_index=True)
df_results.to_csv(results_file)
'max_steps': MAX_STEPS,
'use_predictors': USE_PREDICTORS,
'batch_size': BATCH_SIZE,
'hidden_sizes': str(HIDDEN_SIZES),
'step_size': STEP_SIZE,
'predictor_lr': PREDICTOR_LR,
'lr': LR,
'epochs': EPOCHS,
# 'max_grad_norm': MAX_GRAD_NORM,
'solver': 'MAX_GRAD_NORM',
'predictor_optimizer': 'SGD',
# 'exploration_prob': EXPLORATION_PROB,
'nonlinearity_after_predictor': True,
'fixed_zero_grad': True,
# 'predictor_hidden': PREDICTOR_HIDDEN,
'stopping_criterion': 'MaxGradNormSolver',
# 'predictor_n_opt_steps': PREDICTOR_N_OPT_STEPS
}
EXP = Experiment(project_name='EqProp', auto_metric_logging=False)
EXP.add_tag('linear predictor')
EXP.log_parameters(hparams)
comment = f'{MAX_STEPS}_steps'
if USE_PREDICTORS:
comment += '_predictors'
main()
EXP.end()
def train(config):
print(config.n_classes)
if config.use_quadruplet:
assert config.use_embeddings, "Cannot use quadruplet loss without Embedding model"
experiment = Experiment(api_key="Cbyqfs9Z8auN5ivKsbv2Z6Ogi",
project_name="gta-crime-classification-2",
workspace="beardedwhale")
params = {
'ft_index': config.ft_begin_index,
'model': config.base_model,
'model_type': config.model_type,
'model_depth': config.model_depth,
'finetuning_block': config.finetune_block
}
experiment.log_parameters(params)
experiment.log_parameters(vars(config))
experiment.add_tag(config.model_type)
if config.use_quadruplet:
experiment.add_tag('quadruplet_loss')
model, params = generate_model(config)
summary(model,
input_size=(3, config.sample_duration, config.sample_size,
config.sample_size))
dataset_path = config.dataset_path
jpg_path = config.jpg_dataset_path
config.scales = [config.initial_scale]
for _ in range(1, config.n_scales):
config.scales.append(config.scales[-1] * config.scale_step)
config.arch = '{}-{}'.format(config.base_model, config.model_depth)
config.mean = get_mean(config.norm_value, dataset=config.mean_dataset)
config.std = get_std(config.norm_value, 'gta') # TODO handle gta?
with open(os.path.join(config.result_path, 'config.json'),
'w') as opt_file:
json.dump(vars(config), opt_file)
if config.no_mean_norm and not config.std_norm:
norm_method = Normalize([0, 0, 0], [1, 1, 1])
elif not config.std_norm:
norm_method = Normalize(config.mean, [1, 1, 1])
else:
norm_method = Normalize(config.mean, config.std)
loaders: Dict[STEP, torch.utils.data.DataLoader] = {}
loggers: Dict[STEP, Logger] = {}
steps: [STEP] = []
metrics = []
if config.use_quadruplet:
metrics.append('QUADRUPLET_LOSS')
metrics.append('CLASSIFICATION_LOSS')
if not config.no_train:
assert config.train_crop in ['random', 'corner', 'center']
if config.train_crop == 'random':
crop_method = MultiScaleRandomCrop(config.scales,
config.sample_size)
elif config.train_crop == 'corner':
crop_method = MultiScaleCornerCrop(config.scales,
config.sample_size)
elif config.train_crop == 'center':
crop_method = MultiScaleCornerCrop(config.scales,
config.sample_size,
crop_positions=['c'])
spatial_transform = Compose([
crop_method,
RandomHorizontalFlip(),
ToTensor(config.norm_value), norm_method
])
temporal_transform = TemporalRandomCrop(config.sample_duration)
target_transform = ClassLabel()
assert os.path.exists(dataset_path)
training_data = GTA_crime(dataset_path,
jpg_path,
'train',
spatial_transform=spatial_transform,
temporal_transform=temporal_transform,
target_transform=target_transform,
sample_duration=config.sample_duration,
dataset_conf_path=config.dataset_conf_path)
train_loader = torch.utils.data.DataLoader(
training_data,
batch_size=config.batch_size,
shuffle=True,
num_workers=config.n_threads,
pin_memory=True)
train_logger = Logger(experiment,
STEP.TRAIN,
n_classes=config.n_finetune_classes,
topk=[1, 2, 3],
class_map=list(training_data.class_map.keys()),
metrics=metrics)
loaders[STEP.TRAIN] = train_loader
loggers[STEP.TRAIN] = train_logger
steps.append(STEP.TRAIN)
if not config.no_val:
val_data = GTA_crime(dataset_path,
jpg_path,
'test',
spatial_transform=spatial_transform,
temporal_transform=temporal_transform,
target_transform=target_transform,
sample_duration=config.sample_duration,
dataset_conf_path=config.dataset_conf_path)
log.info(f'Loaded validation data: {len(val_data)} samples')
val_loader = torch.utils.data.DataLoader(val_data,
batch_size=config.batch_size,
shuffle=True,
num_workers=config.n_threads,
pin_memory=True)
val_logger = Logger(experiment,
STEP.VAL,
n_classes=config.n_finetune_classes,
topk=[1, 2, 3],
class_map=list(val_data.class_map.keys()),
metrics=metrics)
loaders[STEP.VAL] = val_loader
loggers[STEP.VAL] = val_logger
steps.append(STEP.VAL)
criterion = nn.CrossEntropyLoss()
optimizer = optim.SGD(lr=config.learning_rate, params=model.parameters())
for epoch in range(config.n_epochs):
epoch_step(epoch,
conf=config,
criterion=criterion,
loaders=loaders,
model=model,
loggers=loggers,
optimizer=optimizer)
class CorefSolver():
def __init__(self, args):
self.args = args
self.data_utils = data_utils(args)
self.disable_comet = args.disable_comet
self.model = self.make_model(
src_vocab=self.data_utils.vocab_size,
tgt_vocab=self.data_utils.vocab_size,
N=args.num_layer,
dropout=args.dropout,
entity_encoder_type=args.entity_encoder_type)
print(self.model)
if self.args.train:
self.outfile = open(self.args.logfile, 'w')
self.model_dir = make_save_dir(args.model_dir)
# self.logfile = os.path.join(args.logdir, args.exp_name)
# self.log = SummaryWriter(self.logfile)
self.w_valid_file = args.w_valid_file
def make_model(self,
src_vocab,
tgt_vocab,
N=6,
dropout=0.1,
d_model=512,
entity_encoder_type='linear',
d_ff=2048,
h=8):
"Helper: Construct a model from hyperparameters."
c = copy.deepcopy
attn = MultiHeadedAttention(h, d_model)
attn_ner = MultiHeadedAttention(1, d_model, dropout)
ff = PositionwiseFeedForward(d_model, d_ff, dropout)
position = PositionalEncoding(d_model, dropout)
embed = Embeddings(d_model, src_vocab)
word_embed = nn.Sequential(embed, c(position))
print('pgen', self.args.pointer_gen)
if entity_encoder_type == 'transformer':
# entity_encoder = nn.Sequential(embed, Encoder(EncoderLayer(d_model, c(attn), c(ff), dropout), 1))
print('transformer')
entity_encoder = Seq_Entity_Encoder(
embed,
Encoder(EncoderLayer(d_model, c(attn), c(ff), dropout), 2))
elif entity_encoder_type == 'albert':
albert_tokenizer = AlbertTokenizer.from_pretrained(
'albert-base-v2')
albert = AlbertModel.from_pretrained('albert-base-v2')
entity_encoder = Albert_Encoder(albert, albert_tokenizer, d_model)
elif entity_encoder_type == 'gru':
entity_encoder = RNNEncoder(embed,
'GRU',
d_model,
d_model,
num_layers=1,
dropout=0.1,
bidirectional=True)
print('gru')
elif entity_encoder_type == 'lstm':
entity_encoder = RNNEncoder(embed,
'LSTM',
d_model,
d_model,
num_layers=1,
dropout=0.1,
bidirectional=True)
print('lstm')
if self.args.ner_at_embedding:
model = EncoderDecoderOrg(
Encoder(EncoderLayer(d_model, c(attn), c(ff), dropout), N),
DecoderOrg(
DecoderLayerOrg(d_model, c(attn), c(attn), c(ff), dropout),
N, d_model, tgt_vocab, self.args.pointer_gen), word_embed,
word_embed, entity_encoder)
else:
if self.args.ner_last:
decoder = Decoder(
DecoderLayer(d_model, c(attn), c(attn), c(ff),
dropout), N, d_model, tgt_vocab,
self.args.pointer_gen, self.args.ner_last)
else:
decoder = Decoder(
DecoderLayer_ner(d_model, c(attn), c(attn), attn_ner,
c(ff), dropout, self.args.fusion), N,
d_model, tgt_vocab, self.args.pointer_gen,
self.args.ner_last)
model = EncoderDecoder(
Encoder(EncoderLayer(d_model, c(attn), c(ff), dropout), N),
decoder, word_embed, word_embed, entity_encoder)
# This was important from their code.
# Initialize parameters with Glorot / fan_avg.
for p in model.parameters():
if p.dim() > 1:
nn.init.xavier_uniform_(p)
# levels = 3
# num_chans = [d_model] * (args.levels)
# k_size = 5
# tcn = TCN(embed, d_model, num_channels, k_size, dropout=dropout)
return model.cuda()
def train(self):
if not self.disable_comet:
# logging
hyper_params = {
"num_layer": self.args.num_layer,
"pointer_gen": self.args.pointer_gen,
"ner_last": self.args.ner_last,
"entity_encoder_type": self.args.entity_encoder_type,
"fusion": self.args.fusion,
"dropout": self.args.dropout,
}
COMET_PROJECT_NAME = 'summarization'
COMET_WORKSPACE = 'timchen0618'
self.exp = Experiment(
api_key='mVpNOXSjW7eU0tENyeYiWZKsl',
project_name=COMET_PROJECT_NAME,
workspace=COMET_WORKSPACE,
auto_output_logging='simple',
auto_metric_logging=None,
display_summary=False,
)
self.exp.log_parameters(hyper_params)
self.exp.add_tags([
'%s entity_encoder' % self.args.entity_encoder_type,
self.args.fusion
])
if self.args.ner_last:
self.exp.add_tag('ner_last')
if self.args.ner_at_embedding:
self.exp.add_tag('ner_at_embedding')
self.exp.set_name(self.args.exp_name)
self.exp.add_tag('coreference')
print('ner_last ', self.args.ner_last)
print('ner_at_embedding', self.args.ner_at_embedding)
# dataloader & optimizer
data_yielder = self.data_utils.data_yielder(num_epoch=100)
optim = torch.optim.Adam(self.model.parameters(),
lr=1e-7,
betas=(0.9, 0.998),
eps=1e-8,
amsgrad=True) #get_std_opt(self.model)
# entity_optim = torch.optim.Adam(self.entity_encoder.parameters(), lr=1e-7, betas=(0.9, 0.998), eps=1e-8, amsgrad=True)
total_loss = []
start = time.time()
print('*' * 50)
print('Start Training...')
print('*' * 50)
start_step = 0
# if loading from checkpoint
if self.args.load_model:
state_dict = torch.load(self.args.load_model)['state_dict']
self.model.load_state_dict(state_dict)
print("Loading model from " + self.args.load_model + "...")
# encoder_state_dict = torch.load(self.args.entity_encoder)['state_dict']
# self.entity_encoder.load_state_dict(encoder_state_dict)
# print("Loading entity_encoder from %s" + self.args.entity_encoder + "...")
start_step = int(torch.load(self.args.load_model)['step'])
print('Resume training from step %d ...' % start_step)
warmup_steps = 10000
d_model = 512
lr = 1e-7
for step in range(start_step, self.args.total_steps):
self.model.train()
batch = data_yielder.__next__()
optim.zero_grad()
# entity_optim.zero_grad()
#update lr
if step % 400 == 1:
lr = (1 / (d_model**0.5)) * min(
(1 / (step / 4)**0.5), step * (1 / (warmup_steps**1.5)))
for param_group in optim.param_groups:
param_group['lr'] = lr
# for param_group in entity_optim.param_groups:
# param_group['lr'] = lr
batch['src'] = batch['src'].long()
batch['tgt'] = batch['tgt'].long()
batch['ner'] = batch['ner'].long()
batch['src_extended'] = batch['src_extended'].long()
# forward the model
if self.args.entity_encoder_type == 'albert':
d = self.model.entity_encoder.tokenizer.batch_encode_plus(
batch['ner_text'],
return_attention_masks=True,
max_length=10,
add_special_tokens=False,
pad_to_max_length=True,
return_tensors='pt')
ner_mask = d['attention_mask'].cuda().unsqueeze(1)
ner = d['input_ids'].cuda()
# print('ner', ner.size())
# print('ner_mask', ner_mask.size())
# print('src_mask', batch['src_mask'].size())
if self.args.entity_encoder_type == 'gru' or self.args.entity_encoder_type == 'lstm':
ner_feat = self.model.entity_encoder(
batch['ner'].transpose(0, 1), batch['cluster_len'])[1]
elif self.args.entity_encoder_type == 'transformer':
mask = gen_mask(batch['cluster_len'])
ner_feat = self.model.entity_encoder(batch['ner'], mask)
ner, ner_mask = self.data_utils.pad_ner_feature(
ner_feat.squeeze(), batch['num_clusters'],
batch['src'].size(0))
# print('ner', ner.size())
# print('ner_mask', ner_mask.size())
if self.args.ner_at_embedding:
out = self.model.forward(batch['src'], batch['tgt'], ner,
batch['src_mask'], batch['tgt_mask'],
batch['src_extended'],
len(batch['oov_list']))
else:
out = self.model.forward(batch['src'], batch['tgt'], ner,
batch['src_mask'], batch['tgt_mask'],
batch['src_extended'],
len(batch['oov_list']), ner_mask)
# print out info
pred = out.topk(1, dim=-1)[1].squeeze().detach().cpu().numpy()[0]
gg = batch['src_extended'].long().detach().cpu().numpy()[0][:100]
tt = batch['tgt'].long().detach().cpu().numpy()[0]
yy = batch['y'].long().detach().cpu().numpy()[0]
#compute loss & update
loss = self.model.loss_compute(out, batch['y'].long())
loss.backward()
optim.step()
# entity_optim.step()
total_loss.append(loss.detach().cpu().numpy())
# logging information
if step % self.args.print_every_steps == 1:
elapsed = time.time() - start
print("Epoch Step: %d Loss: %f Time: %f lr: %6.6f" %
(step, np.mean(total_loss), elapsed,
optim.param_groups[0]['lr']))
self.outfile.write("Epoch Step: %d Loss: %f Time: %f\n" %
(step, np.mean(total_loss), elapsed))
print(
'src:\n',
self.data_utils.id2sent(gg, False, False,
batch['oov_list']))
print(
'tgt:\n',
self.data_utils.id2sent(yy, False, False,
batch['oov_list']))
print(
'pred:\n',
self.data_utils.id2sent(pred, False, False,
batch['oov_list']))
print('oov_list:\n', batch['oov_list'])
if ner_mask != None and not self.args.ner_at_embedding:
pp = self.model.greedy_decode(
batch['src_extended'].long()[:1], ner[:1],
batch['src_mask'][:1], 100, self.data_utils.bos,
len(batch['oov_list']), self.data_utils.vocab_size,
True, ner_mask[:1])
else:
pp = self.model.greedy_decode(
batch['src_extended'].long()[:1], ner[:1],
batch['src_mask'][:1], 100, self.data_utils.bos,
len(batch['oov_list']), self.data_utils.vocab_size,
True)
pp = pp.detach().cpu().numpy()
print(
'pred_greedy:\n',
self.data_utils.id2sent(pp[0], False, False,
batch['oov_list']))
print()
start = time.time()
if not self.disable_comet:
# self.log.add_scalar('Loss/train', np.mean(total_loss), step)
self.exp.log_metric('Train Loss',
np.mean(total_loss),
step=step)
self.exp.log_metric('Learning Rate',
optim.param_groups[0]['lr'],
step=step)
self.exp.log_text('Src: ' + self.data_utils.id2sent(
gg, False, False, batch['oov_list']))
self.exp.log_text('Tgt:' + self.data_utils.id2sent(
yy, False, False, batch['oov_list']))
self.exp.log_text('Pred:' + self.data_utils.id2sent(
pred, False, False, batch['oov_list']))
self.exp.log_text('Pred Greedy:' + self.data_utils.id2sent(
pp[0], False, False, batch['oov_list']))
self.exp.log_text('OOV:' + ' '.join(batch['oov_list']))
total_loss = []
##########################
# validation
##########################
if step % self.args.valid_every_steps == 2:
print('*' * 50)
print('Start Validation...')
print('*' * 50)
self.model.eval()
val_yielder = self.data_utils.data_yielder(1, valid=True)
total_loss = []
fw = open(self.w_valid_file, 'w')
for batch in val_yielder:
with torch.no_grad():
batch['src'] = batch['src'].long()
batch['tgt'] = batch['tgt'].long()
batch['ner'] = batch['ner'].long()
batch['src_extended'] = batch['src_extended'].long()
### ner ######
if self.args.entity_encoder_type == 'albert':
d = self.model.entity_encoder.tokenizer.batch_encode_plus(
batch['ner_text'],
return_attention_masks=True,
max_length=10,
add_special_tokens=False,
pad_to_max_length=True,
return_tensors='pt')
ner_mask = d['attention_mask'].cuda().unsqueeze(1)
ner = d['input_ids'].cuda()
if self.args.entity_encoder_type == 'gru' or self.args.entity_encoder_type == 'lstm':
ner_feat = self.model.entity_encoder(
batch['ner'].transpose(0, 1),
batch['cluster_len'])[1]
elif self.args.entity_encoder_type == 'transformer':
mask = gen_mask(batch['cluster_len'])
ner_feat = self.model.entity_encoder(
batch['ner'], mask)
ner, ner_mask = self.data_utils.pad_ner_feature(
ner_feat.squeeze(), batch['num_clusters'],
batch['src'].size(0))
### ner ######
if self.args.ner_at_embedding:
out = self.model.forward(batch['src'],
batch['tgt'], ner,
batch['src_mask'],
batch['tgt_mask'],
batch['src_extended'],
len(batch['oov_list']))
else:
out = self.model.forward(batch['src'],
batch['tgt'], ner,
batch['src_mask'],
batch['tgt_mask'],
batch['src_extended'],
len(batch['oov_list']),
ner_mask)
loss = self.model.loss_compute(out, batch['y'].long())
total_loss.append(loss.item())
if self.args.ner_at_embedding:
pred = self.model.greedy_decode(
batch['src_extended'].long(), ner,
batch['src_mask'], self.args.max_len,
self.data_utils.bos, len(batch['oov_list']),
self.data_utils.vocab_size)
else:
pred = self.model.greedy_decode(
batch['src_extended'].long(),
ner,
batch['src_mask'],
self.args.max_len,
self.data_utils.bos,
len(batch['oov_list']),
self.data_utils.vocab_size,
ner_mask=ner_mask)
for l in pred:
sentence = self.data_utils.id2sent(
l[1:], True, self.args.beam_size != 1,
batch['oov_list'])
fw.write(sentence)
fw.write("\n")
fw.close()
# files_rouge = FilesRouge()
# scores = files_rouge.get_scores(self.w_valid_file, self.args.valid_tgt_file, avg=True)
scores = cal_rouge_score(self.w_valid_file,
self.args.valid_ref_file)
r1_score = scores['rouge1']
r2_score = scores['rouge2']
print('=============================================')
print('Validation Result -> Loss : %6.6f' %
(sum(total_loss) / len(total_loss)))
print(scores)
print('=============================================')
self.outfile.write(
'=============================================\n')
self.outfile.write('Validation Result -> Loss : %6.6f\n' %
(sum(total_loss) / len(total_loss)))
self.outfile.write(
'=============================================\n')
# self.model.train()
# self.log.add_scalar('Loss/valid', sum(total_loss)/len(total_loss), step)
# self.log.add_scalar('Score/valid', r1_score, step)
if not self.disable_comet:
self.exp.log_metric('Valid Loss',
sum(total_loss) / len(total_loss),
step=step)
self.exp.log_metric('R1 Score', r1_score, step=step)
self.exp.log_metric('R2 Score', r2_score, step=step)
#Saving Checkpoint
w_step = int(step / 10000)
print('Saving ' + str(w_step) + 'w_model.pth!\n')
self.outfile.write('Saving ' + str(w_step) + 'w_model.pth\n')
model_name = str(w_step) + 'w_' + '%6.6f' % (
sum(total_loss) / len(total_loss)
) + '%2.3f_' % r1_score + '%2.3f_' % r2_score + 'model.pth'
state = {'step': step, 'state_dict': self.model.state_dict()}
torch.save(state, os.path.join(self.model_dir, model_name))
# entity_encoder_name = str(w_step) + '0w_' + '%6.6f'%(sum(total_loss)/len(total_loss)) + '%2.3f_'%r1_score + 'entity_encoder.pth'
# state = {'step': step, 'state_dict': self.entity_encoder.state_dict()}
# torch.save(state, os.path.join(self.model_dir, entity_encoder_name))
def test(self):
#prepare model
path = self.args.load_model
# entity_encoder_path = self.args.entity_encoder
state_dict = torch.load(path)['state_dict']
max_len = self.args.max_len
model = self.model
model.load_state_dict(state_dict)
# entity_encoder_dict = torch.load(entity_encoder_path)['state_dict']
# self.entity_encoder.load_state_dict(entity_encoder_dict)
pred_dir = make_save_dir(self.args.pred_dir)
filename = self.args.filename
#start decoding
data_yielder = self.data_utils.data_yielder(num_epoch=1)
total_loss = []
start = time.time()
#file
f = open(os.path.join(pred_dir, filename), 'w')
self.model.eval()
# decode_strategy = BeamSearch(
# self.beam_size,
# batch_size=batch.batch_size,
# pad=self._tgt_pad_idx,
# bos=self._tgt_bos_idx,
# eos=self._tgt_eos_idx,
# n_best=self.n_best,
# global_scorer=self.global_scorer,
# min_length=self.min_length, max_length=self.max_length,
# return_attention=attn_debug or self.replace_unk,
# block_ngram_repeat=self.block_ngram_repeat,
# exclusion_tokens=self._exclusion_idxs,
# stepwise_penalty=self.stepwise_penalty,
# ratio=self.ratio)
step = 0
for batch in data_yielder:
#print(batch['src'].data.size())
step += 1
if step % 100 == 0:
print('%d batch processed. Time elapsed: %f min.' %
(step, (time.time() - start) / 60.0))
start = time.time()
### ner ###
if self.args.entity_encoder_type == 'albert':
d = self.model.entity_encoder.tokenizer.batch_encode_plus(
batch['ner_text'],
return_attention_masks=True,
max_length=10,
add_special_tokens=False,
pad_to_max_length=True,
return_tensors='pt')
ner_mask = d['attention_mask'].cuda().unsqueeze(1)
ner = d['input_ids'].cuda()
else:
ner_mask = None
ner = batch['ner'].long()
with torch.no_grad():
if self.args.beam_size == 1:
if self.args.ner_at_embedding:
out = self.model.greedy_decode(
batch['src_extended'].long(),
self.model.entity_encoder(ner),
batch['src_mask'], max_len, self.data_utils.bos,
len(batch['oov_list']), self.data_utils.vocab_size)
else:
out = self.model.greedy_decode(
batch['src_extended'].long(),
self.model.entity_encoder(ner),
batch['src_mask'],
max_len,
self.data_utils.bos,
len(batch['oov_list']),
self.data_utils.vocab_size,
ner_mask=ner_mask)
else:
ret = self.beam_decode(batch, max_len,
len(batch['oov_list']))
out = ret['predictions']
for l in out:
sentence = self.data_utils.id2sent(l[1:], True,
self.args.beam_size != 1,
batch['oov_list'])
#print(l[1:])
f.write(sentence)
f.write("\n")
def beam_decode(self, batch, max_len, oov_nums):
src = batch['src'].long()
src_mask = batch['src_mask']
src_extended = batch['src_extended'].long()
bos_token = self.data_utils.bos
beam_size = self.args.beam_size
vocab_size = self.data_utils.vocab_size
batch_size = src.size(0)
def rvar(a):
return a.repeat(beam_size, 1, 1)
def rvar2(a):
return a.repeat(beam_size, 1)
def bottle(m):
return m.view(batch_size * beam_size, -1)
def unbottle(m):
return m.view(beam_size, batch_size, -1)
### ner ###
if self.args.entity_encoder_type == 'albert':
d = self.model.entity_encoder.tokenizer.batch_encode_plus(
batch['ner_text'],
return_attention_masks=True,
max_length=10,
add_special_tokens=False,
pad_to_max_length=True,
return_tensors='pt')
ner_mask = d['attention_mask'].cuda().unsqueeze(1)
ner = d['input_ids'].cuda()
else:
ner_mask = None
ner = batch['ner'].long()
ner = self.model.entity_encoder(ner)
if self.args.ner_at_embedding:
memory = self.model.encode(src, src_mask, ner)
else:
memory = self.model.encode(src, src_mask)
assert batch_size == 1
beam = [
Beam(beam_size,
self.data_utils.pad,
bos_token,
self.data_utils.eos,
min_length=self.args.min_length) for i in range(batch_size)
]
memory = rvar(memory)
ner = rvar(ner)
src_mask = rvar(src_mask)
src_extended = rvar2(src_extended)
for i in range(self.args.max_len):
if all((b.done() for b in beam)):
break
# Construct batch x beam_size nxt words.
# Get all the pending current beam words and arrange for forward.
inp = torch.stack([b.get_current_state()
for b in beam]).t().contiguous().view(-1, 1)
#inp -> [1, 3]
inp_mask = inp < self.data_utils.vocab_size
inp = inp * inp_mask.long()
decoder_input = inp
if self.args.ner_at_embedding:
final_dist = self.model.decode(memory, ner, src_mask,
decoder_input, None,
src_extended, oov_nums)
else:
final_dist = self.model.decode(memory,
ner,
src_mask,
decoder_input,
None,
src_extended,
oov_nums,
ner_mask=ner_mask)
# final_dist, decoder_hidden, attn_dist_p, p_gen = self.seq2seq_model.model_copy.decoder(
# decoder_input, decoder_hidden,
# post_encoder_outputs, post_enc_padding_mask,
# extra_zeros, post_enc_batch_extend_vocab
# )
# # Run one step.
# print('inp', inp.size())
# decoder_outputs: beam x rnn_size
# (b) Compute a vector of batch*beam word scores.
out = unbottle(final_dist)
out[:, :, 2] = 0 #no unk
# out.size -> [3, 1, vocab]
# (c) Advance each beam.
for j, b in enumerate(beam):
b.advance(out[:, j])
# decoder_hidden = self.beam_update(j, b.get_current_origin(), beam_size, decoder_hidden)
# (4) Extract sentences from beam.
ret = self._from_beam(beam)
return ret
def _from_beam(self, beam):
ret = {"predictions": [], "scores": []}
for b in beam:
n_best = self.args.n_best
scores, ks = b.sort_finished(minimum=n_best)
hyps = []
for i, (times, k) in enumerate(ks[:n_best]):
hyp = b.get_hyp(times, k)
hyps.append(hyp)
ret["predictions"].append(hyps)
ret["scores"].append(scores)
return ret
def train(normal_digit, anomalies, folder, file, p_train, p_test):
# Create an experiment
experiment = Experiment(project_name="deep-stats-thesis",
workspace="stecaron",
disabled=True)
experiment.add_tag("mnist_conv_ae")
# General parameters
DOWNLOAD_MNIST = True
PATH_DATA = os.path.join(os.path.expanduser("~"), 'Downloads/mnist')
device = torch.device("cuda:0" if torch.cuda.is_available() else "cpu")
# Define training parameters
hyper_params = {
"EPOCH": 75,
"NUM_WORKERS": 10,
"BATCH_SIZE": 256,
"LR": 0.001,
"TRAIN_SIZE": 4000,
"TRAIN_NOISE": p_train,
"TEST_SIZE": 800,
"TEST_NOISE": p_test,
# on which class we want to learn outliers
"CLASS_SELECTED": [normal_digit],
# which class we want to corrupt our dataset with
"CLASS_CORRUPTED": anomalies,
"ALPHA": p_test,
"MODEL_NAME": "mnist_ae_model",
"LOAD_MODEL": False,
"LOAD_MODEL_NAME": "mnist_ae_model"
}
# Log experiment parameters
experiment.log_parameters(hyper_params)
# Load data
train_data, test_data = load_mnist(PATH_DATA, download=DOWNLOAD_MNIST)
# Train the autoencoder
model = ConvAutoEncoder2()
optimizer = torch.optim.Adam(model.parameters(), lr=hyper_params["LR"])
#loss_func = nn.MSELoss()
loss_func = nn.BCELoss()
# Build "train" and "test" datasets
id_maj_train = numpy.random.choice(numpy.where(
numpy.isin(train_data.train_labels, hyper_params["CLASS_SELECTED"]))[0],
int((1 - hyper_params["TRAIN_NOISE"]) *
hyper_params["TRAIN_SIZE"]),
replace=False)
id_min_train = numpy.random.choice(numpy.where(
numpy.isin(train_data.train_labels, hyper_params["CLASS_CORRUPTED"]))[0],
int(hyper_params["TRAIN_NOISE"] *
hyper_params["TRAIN_SIZE"]),
replace=False)
id_train = numpy.concatenate((id_maj_train, id_min_train))
id_maj_test = numpy.random.choice(numpy.where(
numpy.isin(test_data.test_labels, hyper_params["CLASS_SELECTED"]))[0],
int((1 - hyper_params["TEST_NOISE"]) *
hyper_params["TEST_SIZE"]),
replace=False)
id_min_test = numpy.random.choice(numpy.where(
numpy.isin(test_data.test_labels, hyper_params["CLASS_CORRUPTED"]))[0],
int(hyper_params["TEST_NOISE"] *
hyper_params["TEST_SIZE"]),
replace=False)
id_test = numpy.concatenate((id_min_test, id_maj_test))
train_data.data = train_data.data[id_train]
train_data.targets = train_data.targets[id_train]
test_data.data = test_data.data[id_test]
test_data.targets = test_data.targets[id_test]
train_data.targets = torch.from_numpy(
numpy.isin(train_data.train_labels,
hyper_params["CLASS_CORRUPTED"])).type(torch.int32)
test_data.targets = torch.from_numpy(
numpy.isin(test_data.test_labels,
hyper_params["CLASS_CORRUPTED"])).type(torch.int32)
train_loader = Data.DataLoader(dataset=train_data,
batch_size=hyper_params["BATCH_SIZE"],
shuffle=True,
num_workers=hyper_params["NUM_WORKERS"])
test_loader = Data.DataLoader(dataset=test_data,
batch_size=test_data.data.shape[0],
shuffle=False,
num_workers=hyper_params["NUM_WORKERS"])
model.train()
if hyper_params["LOAD_MODEL"]:
model = torch.load(hyper_params["LOAD_MODEL_NAME"])
else:
train_mnist(train_loader,
model,
criterion=optimizer,
n_epoch=hyper_params["EPOCH"],
experiment=experiment,
device=device,
model_name=hyper_params["MODEL_NAME"],
loss_func=loss_func,
loss_type="binary")
# Compute p-values
model.to(device)
pval, test_errors = compute_reconstruction_pval(
train_loader, model, test_loader, device)
pval_order = numpy.argsort(pval)
# Plot p-values
x_line = numpy.arange(0, len(test_data), step=1)
y_line = numpy.linspace(0, 1, len(test_data))
y_adj = numpy.arange(0, len(test_data),
step=1) / len(test_data) * hyper_params["ALPHA"]
zoom = int(0.2 * len(test_data)) # nb of points to zoom
#index = numpy.isin(test_data.test_labels, hyper_params["CLASS_CORRUPTED"]).astype(int)
index = numpy.array(test_data.targets).astype(int)
fig, (ax1, ax2) = plt.subplots(2, 1)
ax1.scatter(numpy.arange(0, len(pval), 1),
pval[pval_order],
c=index[pval_order].reshape(-1))
ax1.plot(x_line, y_line, color="green")
ax1.plot(x_line, y_adj, color="red")
ax1.set_title(
f'Entire test dataset with {int(hyper_params["TEST_NOISE"] * 100)}% of noise'
)
ax1.set_xticklabels([])
ax2.scatter(numpy.arange(0, zoom, 1),
pval[pval_order][0:zoom],
c=index[pval_order].reshape(-1)[0:zoom])
ax2.plot(x_line[0:zoom], y_line[0:zoom], color="green")
ax2.plot(x_line[0:zoom], y_adj[0:zoom], color="red")
ax2.set_title('Zoomed in')
ax2.set_xticklabels([])
experiment.log_figure(figure_name="empirical_test_hypothesis",
figure=fig,
overwrite=True)
plt.savefig(os.path.join(folder, "pvalues_" + file + ".png"))
plt.show()
# Compute some stats
precision, recall, f1_score, average_precision, roc_auc = test_performances(
pval, index, hyper_params["ALPHA"])
print(f"Precision: {precision}")
print(f"Recall: {recall}")
print(f"F1 Score: {f1_score}")
print(f"AUC: {roc_auc}")
print(f"Average Precison: {average_precision}")
experiment.log_metric("precision", precision)
experiment.log_metric("recall", recall)
experiment.log_metric("f1_score", f1_score)
experiment.log_metric("auc", roc_auc)
experiment.log_metric("average_precision", average_precision)
# Show some examples
fig, axs = plt.subplots(5, 5)
fig.tight_layout()
axs = axs.ravel()
for i in range(25):
image = test_data.data[pval_order[i]]
axs[i].imshow(image, cmap='gray')
axs[i].axis('off')
experiment.log_figure(figure_name="rejetcted_observations",
figure=fig,
overwrite=True)
plt.show()
fig, axs = plt.subplots(5, 5)
fig.tight_layout()
axs = axs.ravel()
for i in range(25):
image = test_data.data[pval_order[int(len(pval) - 1) - i]]
axs[i].imshow(image, cmap='gray')
axs[i].axis('off')
experiment.log_figure(figure_name="better_observations",
figure=fig,
overwrite=True)
plt.show()
# Save the results in the output file
col_names = ["timestamp", "precision", "recall", "f1_score",
"average_precision", "auc"]
results_file = os.path.join(folder, "results_" + file + ".csv")
if os.path.exists(results_file):
df_results = pandas.read_csv(results_file, names=col_names, header=0)
else:
df_results = pandas.DataFrame(columns=col_names)
df_results = df_results.append(
pandas.DataFrame(
numpy.concatenate(
(numpy.array(
datetime.datetime.fromtimestamp(
time.time()).strftime('%Y-%m-%d %H:%M:%S')).reshape(1),
precision.reshape(1), recall.reshape(1),
f1_score.reshape(1), average_precision.reshape(1),
roc_auc.reshape(1))).reshape(1, -1), columns=col_names), ignore_index=True)
df_results.to_csv(results_file)
def train(rank, defparams, hyper):
params = {}
for param in defparams.keys():
params[param] = defparams[param]
hyperp = {}
for hp in hyper.keys():
hyperp[hp] = hyper[hp]
experiment = Experiment(api_key="keGmeIz4GfKlQZlOP6cit4QOi",
project_name="hadron-shower",
workspace="engineren")
experiment.add_tag(params['exp'])
experiment.log_parameters(hyperp)
device = torch.device("cuda")
torch.manual_seed(params["seed"])
world_size = int(os.environ["SLURM_NNODES"])
rank = int(os.environ["SLURM_PROCID"])
dist.init_process_group(backend='nccl',
world_size=world_size,
rank=rank,
init_method=params["DDP_init_file"])
aD = DCGAN_D(hyperp["ndf"]).to(device)
aG = DCGAN_G(hyperp["ngf"], hyperp["z"]).to(device)
aE = energyRegressor().to(device)
aP = PostProcess_Size1Conv_EcondV2(48,
13,
3,
128,
bias=True,
out_funct='none').to(device)
optimizer_g = torch.optim.Adam(aG.parameters(),
lr=hyperp["L_gen"],
betas=(0.5, 0.9))
optimizer_d = torch.optim.Adam(aD.parameters(),
lr=hyperp["L_crit"],
betas=(0.5, 0.9))
optimizer_e = torch.optim.SGD(aE.parameters(), lr=hyperp["L_calib"])
optimizer_p = torch.optim.Adam(aP.parameters(),
lr=hyperp["L_post"],
betas=(0.5, 0.9))
assert torch.backends.cudnn.enabled, "NVIDIA/Apex:Amp requires cudnn backend to be enabled."
torch.backends.cudnn.benchmark = True
# Initialize Amp
models, optimizers = amp.initialize([aG, aD], [optimizer_g, optimizer_d],
opt_level="O1",
num_losses=2)
#aD = nn.DataParallel(aD)
#aG = nn.DataParallel(aG)
#aE = nn.DataParallel(aE)
aG, aD = models
optimizer_g, optimizer_d = optimizers
aG = nn.parallel.DistributedDataParallel(aG, device_ids=[0])
aD = nn.parallel.DistributedDataParallel(aD, device_ids=[0])
aE = nn.parallel.DistributedDataParallel(aE, device_ids=[0])
aP = nn.parallel.DistributedDataParallel(aP, device_ids=[0])
experiment.set_model_graph(str(aG), overwrite=False)
experiment.set_model_graph(str(aD), overwrite=False)
if params["restore_pp"]:
aP.load_state_dict(
torch.load(params["restore_path_PP"] + params["post_saved"],
map_location=torch.device(device)))
if params["restore"]:
checkpoint = torch.load(params["restore_path"])
aG.load_state_dict(checkpoint['Generator'])
aD.load_state_dict(checkpoint['Critic'])
optimizer_g.load_state_dict(checkpoint['G_optimizer'])
optimizer_d.load_state_dict(checkpoint['D_optimizer'])
itr = checkpoint['iteration']
else:
aG.apply(weights_init)
aD.apply(weights_init)
itr = 0
if params["c0"]:
aE.apply(weights_init)
elif params["c1"]:
aE.load_state_dict(
torch.load(params["calib_saved"],
map_location=torch.device(device)))
one = torch.tensor(1.0).to(device)
mone = (one * -1).to(device)
print('loading data...')
paths_list = [
'/beegfs/desy/user/eren/data_generator/pion/hcal_only/pion40part1.hdf5',
'/beegfs/desy/user/eren/data_generator/pion/hcal_only/pion40part2.hdf5',
'/beegfs/desy/user/eren/data_generator/pion/hcal_only/pion40part3.hdf5',
'/beegfs/desy/user/eren/data_generator/pion/hcal_only/pion40part4.hdf5',
'/beegfs/desy/user/eren/data_generator/pion/hcal_only/pion40part5.hdf5',
'/beegfs/desy/user/eren/data_generator/pion/hcal_only/pion40part6.hdf5',
'/beegfs/desy/user/eren/data_generator/pion/hcal_only/pion40part7.hdf5'
]
train_data = PionsDataset(paths_list, core=True)
train_sampler = torch.utils.data.distributed.DistributedSampler(
train_data, num_replicas=world_size, rank=rank)
dataloader = DataLoader(train_data,
batch_size=hyperp["batch_size"],
num_workers=0,
shuffle=False,
drop_last=True,
pin_memory=True,
sampler=train_sampler)
print('done')
#scheduler_g = optim.lr_scheduler.StepLR(optimizer_g, step_size=1, gamma=params["gamma_g"])
#scheduler_d = optim.lr_scheduler.StepLR(optimizer_d, step_size=1, gamma=params["gamma_crit"])
#scheduler_e = optim.lr_scheduler.StepLR(optimizer_e, step_size=1, gamma=params["gamma_calib"])
#writer = SummaryWriter()
e_criterion = nn.L1Loss() # for energy regressor training
dataiter = iter(dataloader)
BATCH_SIZE = hyperp["batch_size"]
LATENT = hyperp["z"]
EXP = params["exp"]
KAPPA = hyperp["kappa"]
LAMBD = hyperp["lambda"]
## Post-Processing
LDP = hyperp["LDP"]
wMMD = hyperp["wMMD"]
wMSE = hyperp["wMSE"]
## IO paths
OUTP = params['output_path']
for iteration in range(50000):
iteration += itr + 1
#---------------------TRAIN D------------------------
for p in aD.parameters(): # reset requires_grad
p.requires_grad_(True) # they are set to False below in training G
for e in aE.parameters(): # reset requires_grad (constrainer)
e.requires_grad_(True) # they are set to False below in training G
for i in range(hyperp["ncrit"]):
aD.zero_grad()
aE.zero_grad()
noise = np.random.uniform(-1, 1, (BATCH_SIZE, LATENT))
noise = torch.from_numpy(noise).float()
noise = noise.view(
-1, LATENT, 1, 1,
1) #[BS, nz] --> [Bs,nz,1,1,1] Needed for Generator
noise = noise.to(device)
batch = next(dataiter, None)
if batch is None:
dataiter = iter(dataloader)
batch = dataiter.next()
real_label = batch['energy'] ## energy label
real_label = real_label.to(device)
with torch.no_grad():
noisev = noise # totally freeze G, training D
fake_data = aG(noisev, real_label).detach()
real_data = batch['shower'] # 48x48x48 calo image
real_data = real_data.to(device)
real_data.requires_grad_(True)
#### supervised-training for energy regressor!
if params["train_calib"]:
output = aE(real_data.float())
e_loss = e_criterion(output, real_label.view(BATCH_SIZE, 1))
e_loss.backward()
optimizer_e.step()
######
# train with real data
disc_real = aD(real_data.float(), real_label.float())
# train with fake data
fake_data = fake_data.unsqueeze(
1) ## transform to [BS, 1, 48, 48, 48]
disc_fake = aD(fake_data, real_label.float())
# train with interpolated data
gradient_penalty = calc_gradient_penalty(aD,
real_data.float(),
fake_data,
real_label,
BATCH_SIZE,
device,
DIM=13)
## wasserstein-1 distace
w_dist = torch.mean(disc_fake) - torch.mean(disc_real)
# final disc cost
disc_cost = torch.mean(disc_fake) - torch.mean(
disc_real) + LAMBD * gradient_penalty
with amp.scale_loss(disc_cost, optimizer_d) as scaled_loss:
scaled_loss.backward()
optimizer_d.step()
#--------------Log to COMET ML ----------
if i == hyperp["ncrit"] - 1:
experiment.log_metric("L_crit", disc_cost, step=iteration)
experiment.log_metric("gradient_pen",
gradient_penalty,
step=iteration)
experiment.log_metric("Wasserstein Dist",
w_dist,
step=iteration)
if params["train_calib"]:
experiment.log_metric("L_const", e_loss, step=iteration)
#---------------------TRAIN G------------------------
for p in aD.parameters():
p.requires_grad_(False) # freeze D
for c in aE.parameters():
c.requires_grad_(False) # freeze C
gen_cost = None
for i in range(hyperp["ngen"]):
aG.zero_grad()
noise = np.random.uniform(-1, 1, (BATCH_SIZE, LATENT))
noise = torch.from_numpy(noise).float()
noise = noise.view(
-1, LATENT, 1, 1,
1) #[BS, nz] --> [Bs,nz,1,1,1] Needed for Generator
noise = noise.to(device)
batch = next(dataiter, None)
if batch is None:
dataiter = iter(dataloader)
batch = dataiter.next()
real_label = batch['energy'] ## energy label
real_label = real_label.to(device)
noise.requires_grad_(True)
real_data = batch['shower'] # 48x48x48 calo image
real_data = real_data.to(device)
fake_data = aG(noise, real_label.float())
fake_data = fake_data.unsqueeze(
1) ## transform to [BS, 1, 48, 48, 48]
## calculate loss function
gen_cost = aD(fake_data.float(), real_label.float())
## label conditioning
#output_g = aE(fake_data)
#output_r = aE(real_data.float())
output_g = 0.0 #for now
output_r = 0.0 #for now
aux_fake = (output_g - real_label)**2
aux_real = (output_r - real_label)**2
aux_errG = torch.abs(aux_fake - aux_real)
## Total loss function for generator
g_cost = -torch.mean(gen_cost) + KAPPA * torch.mean(aux_errG)
with amp.scale_loss(g_cost, optimizer_g) as scaled_loss_G:
scaled_loss_G.backward()
optimizer_g.step()
#--------------Log to COMET ML ----------
experiment.log_metric("L_Gen", g_cost, step=iteration)
## plot example image
if iteration % 100 == 0.0 or iteration == 1:
image = fake_data.view(-1, 48, 13, 13).cpu().detach().numpy()
cmap = mpl.cm.viridis
cmap.set_bad('white', 1.)
figExIm = plt.figure(figsize=(6, 6))
axExIm1 = figExIm.add_subplot(1, 1, 1)
image1 = np.sum(image[0], axis=0)
masked_array1 = np.ma.array(image1, mask=(image1 == 0.0))
im1 = axExIm1.imshow(masked_array1,
filternorm=False,
interpolation='none',
cmap=cmap,
vmin=0.01,
vmax=100,
norm=mpl.colors.LogNorm(),
origin='lower')
figExIm.patch.set_facecolor('white')
axExIm1.set_xlabel('y [cells]', family='serif')
axExIm1.set_ylabel('x [cells]', family='serif')
figExIm.colorbar(im1)
experiment.log_figure(figure=plt, figure_name="x-y")
figExIm = plt.figure(figsize=(6, 6))
axExIm2 = figExIm.add_subplot(1, 1, 1)
image2 = np.sum(image[0], axis=1)
masked_array2 = np.ma.array(image2, mask=(image2 == 0.0))
im2 = axExIm2.imshow(masked_array2,
filternorm=False,
interpolation='none',
cmap=cmap,
vmin=0.01,
vmax=100,
norm=mpl.colors.LogNorm(),
origin='lower')
figExIm.patch.set_facecolor('white')
axExIm2.set_xlabel('y [cells]', family='serif')
axExIm2.set_ylabel('z [layers]', family='serif')
figExIm.colorbar(im2)
experiment.log_figure(figure=plt, figure_name="y-z")
figExIm = plt.figure(figsize=(6, 6))
axExIm3 = figExIm.add_subplot(1, 1, 1)
image3 = np.sum(image[0], axis=2)
masked_array3 = np.ma.array(image3, mask=(image3 == 0.0))
im3 = axExIm3.imshow(masked_array3,
filternorm=False,
interpolation='none',
cmap=cmap,
vmin=0.01,
vmax=100,
norm=mpl.colors.LogNorm(),
origin='lower')
figExIm.patch.set_facecolor('white')
axExIm3.set_xlabel('x [cells]', family='serif')
axExIm3.set_ylabel('z [layers]', family='serif')
figExIm.colorbar(im3)
#experiment.log_metric("L_aux", aux_errG, step=iteration)
experiment.log_figure(figure=plt, figure_name="x-z")
## E-sum monitoring
figEsum = plt.figure(figsize=(6, 6 * 0.77 / 0.67))
axEsum = figEsum.add_subplot(1, 1, 1)
etot_real = getTotE(real_data.cpu().detach().numpy(),
xbins=13,
ybins=13)
etot_fake = getTotE(image, xbins=13, ybins=13)
axEsumReal = axEsum.hist(etot_real,
bins=25,
range=[0, 1500],
weights=np.ones_like(etot_real) /
(float(len(etot_real))),
label="orig",
color='blue',
histtype='stepfilled')
axEsumFake = axEsum.hist(etot_fake,
bins=25,
range=[0, 1500],
weights=np.ones_like(etot_fake) /
(float(len(etot_fake))),
label="generated",
color='red',
histtype='stepfilled')
axEsum.text(0.25,
0.81,
"WGAN",
horizontalalignment='left',
verticalalignment='top',
transform=axEsum.transAxes,
color='red')
axEsum.text(0.25,
0.87,
'GEANT 4',
horizontalalignment='left',
verticalalignment='top',
transform=axEsum.transAxes,
color='blue')
experiment.log_figure(figure=plt, figure_name="E-sum")
#end = timer()
#print(f'---train G elapsed time: {end - start}')
if params["train_postP"]:
#---------------------TRAIN P------------------------
for p in aD.parameters():
p.requires_grad_(False) # freeze D
for c in aG.parameters():
c.requires_grad_(False) # freeze G
lossP = None
for i in range(1):
noise = np.random.uniform(-1, 1, (BATCH_SIZE, LATENT))
noise = torch.from_numpy(noise).float()
noise = noise.view(
-1, LATENT, 1, 1,
1) #[BS, nz] --> [Bs,nz,1,1,1] Needed for Generator
noise = noise.to(device)
batch = next(dataiter, None)
if batch is None:
dataiter = iter(dataloader)
batch = dataiter.next()
real_label = batch['energy'] ## energy label
real_label = real_label.to(device)
noise.requires_grad_(True)
real_data = batch['shower'] # calo image
real_data = real_data.to(device)
## forward pass to generator
fake_data = aG(noise, real_label.float())
fake_data = fake_data.unsqueeze(
1) ## transform to [BS, 1, layer, size, size]
### first LossD_P
fake_dataP = aP(fake_data.float(), real_label.float())
lossD_P = aD(fake_dataP.float(), real_label.float())
lossD_P = lossD_P.mean()
## lossFixP
real_sorted = real_data.view(BATCH_SIZE, -1)
fake_sorted = fake_dataP.view(BATCH_SIZE, -1)
real_sorted, _ = torch.sort(real_sorted,
dim=1,
descending=True) #.view(900,1)
fake_sorted, _ = torch.sort(fake_sorted,
dim=1,
descending=True) #.view(900,1)
lossFixPp1 = mmd_hit_sortKernel(real_sorted.float(),
fake_sorted,
kernel_size=100,
stride=50,
cutoff=2000,
alpha=200)
lossFixPp2 = F.mse_loss(fake_dataP.view(BATCH_SIZE, -1),
fake_data.detach().view(
BATCH_SIZE, -1),
reduction='mean')
lossFixP = wMMD * lossFixPp1 + wMSE * lossFixPp2
lossP = LDP * lossD_P - lossFixP
lossP.backward(mone)
optimizer_p.step()
if iteration % 100 == 0 or iteration == 1:
print('iteration: {}, critic loss: {}'.format(
iteration,
disc_cost.cpu().data.numpy()))
if rank == 0:
torch.save(
{
'Generator': aG.state_dict(),
'Critic': aD.state_dict(),
'G_optimizer': optimizer_g.state_dict(),
'D_optimizer': optimizer_d.state_dict(),
'iteration': iteration
}, OUTP + '{0}/wgan_itrs_{1}.pth'.format(EXP, iteration))
if params["train_calib"]:
torch.save(
aE.state_dict(),
OUTP + '/{0}/netE_itrs_{1}.pth'.format(EXP, iteration))
if params["train_postP"]:
torch.save(
aP.state_dict(),
OUTP + '{0}/netP_itrs_{1}.pth'.format(EXP, iteration))
#Test main tree module, only run comet experiment locally to debug callbacks
import glob
import geopandas as gpd
import os
is_travis = 'TRAVIS' in os.environ
if not is_travis:
from comet_ml import Experiment
experiment = Experiment(project_name="neontrees", workspace="bw4sz")
experiment.add_tag("testing")
else:
experiment = None
import numpy as np
import pytest
import pandas as pd
import rasterio
import tensorflow as tf
from DeepTreeAttention.utils import metrics
from DeepTreeAttention import trees
from DeepTreeAttention.generators import boxes
from matplotlib.pyplot import imshow
from tensorflow.keras import metrics as keras_metrics
#random label predictions just for testing
test_predictions = "data/raw/2019_BART_5_320000_4881000_image_small.shp"
#Use a small rgb crop as a example tile
test_sensor_tile = "data/raw/2019_BART_5_320000_4881000_image_crop.tif"
print("Train a XGBoost model")
val_size = 100000
# train = train.sort(['Date'])
print(train.tail(1)["Date"])
X_train, X_test = train_test_split(train, test_size=0.01)
# X_train, X_test = train.head(len(train) - val_size), train.tail(val_size)
dtrain = xgb.DMatrix(X_train[features], np.log(X_train["Sales"] + 1))
dvalid = xgb.DMatrix(X_test[features], np.log(X_test["Sales"] + 1))
dtest = xgb.DMatrix(test[features])
watchlist = [(dvalid, "eval"), (dtrain, "train")]
## Experiment 1: everything as normal, using .train():
experiment = Experiment()
experiment.add_tag("metrics")
results = {}
gbm = xgb.train(
params,
dtrain,
num_trees,
evals=watchlist,
early_stopping_rounds=50,
feval=rmspe_xg,
verbose_eval=True,
evals_result=results,
)
experiment.end()
## Experiment 2: no results (thus no metrics), using .train():
experiment = Experiment()
hyper_params = {
"sequence_length": 28,
"input_size": 28,
"hidden_size": 128,
"num_layers": 3,
"num_classes": 10,
"batch_size": 100,
"num_epochs": 2,
"learning_rate": 0.02
}
experiment = Experiment(api_key="YOUR_API_KEY",
project_name="YOUR PROJECT",
workspace="YOUR WORKSPACE")
experiment.add_tag('pytorch')
# MNIST Dataset
train_dataset = dsets.MNIST(root='./data/',
train=True,
transform=transforms.ToTensor(),
download=True)
test_dataset = dsets.MNIST(root='./data/',
train=False,
transform=transforms.ToTensor())
# Data Loader (Input Pipeline)
train_loader = torch.utils.data.DataLoader(
dataset=train_dataset,
batch_size=hyper_params['batch_size'],
from comet_ml import Experiment
import tensorflow as tf
from DeepTreeAttention.trees import AttentionModel
from DeepTreeAttention.models import metadata
from DeepTreeAttention.callbacks import callbacks
import pandas as pd
model = AttentionModel(config="/home/b.weinstein/DeepTreeAttention/conf/tree_config.yml")
model.create()
#Log config
experiment = Experiment(project_name="neontrees", workspace="bw4sz")
experiment.log_parameters(model.config["train"])
experiment.log_parameters(model.config["evaluation"])
experiment.log_parameters(model.config["predict"])
experiment.add_tag("HSI")
##Train
#Train see config.yml for tfrecords path with weighted classes in cross entropy
model.read_data()
class_weight = model.calc_class_weight()
##Train subnetwork
experiment.log_parameter("Train subnetworks", True)
with experiment.context_manager("HSI_spatial_subnetwork"):
print("Train HSI spatial subnetwork")
model.read_data(mode="HSI_submodel")
model.train(submodel="spatial", sensor="hyperspectral",class_weight=[class_weight, class_weight, class_weight], experiment=experiment)
with experiment.context_manager("HSI_spectral_subnetwork"):
class Solver():
def __init__(self, args):
self.args = args
self.data_utils = DataUtils(args)
if args.save_checkpoints:
self.model_dir = make_save_dir(os.path.join(args.model_dir, args.sampler_label, args.exp_name))
self.disable_comet = args.disable_comet
colorama.init(autoreset=True)
def make_model(self, src_vocab, tgt_vocab, N=6,
d_model=512, d_ff=2048, h=8, dropout=0.1, g_drop=0.1):
"Helper: Construct a model from hyperparameters."
c = copy.deepcopy
attn = MultiHeadedAttention(h, d_model)
ff = PositionwiseFeedForward(d_model, d_ff, dropout)
position = PositionalEncoding(d_model, dropout)
word_embed = nn.Sequential(Embeddings(d_model, src_vocab), c(position))
model = Sampler(Encoder(EncoderLayer(d_model, c(attn), c(ff), dropout), N), word_embed, Generator(d_model, self.args.num_classes, g_drop))
print(model)
# This was important from their code.
# Initialize parameters with Glorot / fan_avg.
for p in model.parameters():
if p.dim() > 1:
nn.init.xavier_uniform_(p)
return model.cuda()
def train(self):
# logging
if not self.disable_comet:
COMET_PROJECT_NAME = 'weibo-stc'
COMET_WORKSPACE = 'timchen0618'
self.exp = Experiment(project_name=COMET_PROJECT_NAME,
workspace=COMET_WORKSPACE,
auto_output_logging='simple',
auto_metric_logging=None,
display_summary=False,
)
self.exp.add_tag(self.args.sampler_label)
self.exp.add_tag('Sampler')
if self.args.processed:
self.exp.add_tag('processed')
else:
self.exp.add_tag('unprocessed')
self.exp.set_name(self.args.exp_name)
###### loading .... ######
vocab_size = self.data_utils.vocab_size
print("============================")
print("=======start to build=======")
print("============================")
print("Vocab Size: %d"%(vocab_size))
#make model
self.model = self.make_model(src_vocab=vocab_size,
tgt_vocab=vocab_size,
N=self.args.num_layer,
dropout=self.args.dropout,
g_drop=self.args.generator_drop
)
self.model.load_embedding(self.args.pretrain_model)
# sys.exit(0)
lr = 1e-7
generator_lr = 1e-4
d_model = 512
warmup_steps = self.args.warmup_steps
# optim = torch.optim.Adam([
# {'params':list(self.model.encoder.parameters())+list(self.model.src_embed.parameters())},
# {'params':self.model.generator.parameters(), 'lr':generator_lr}
# ], lr=lr, betas=(0.9, 0.98), eps=1e-9)
optim = torch.optim.AdamW([
{'params':list(self.model.encoder.parameters())+list(self.model.src_embed.parameters())},
{'params':self.model.generator.parameters(), 'lr':generator_lr}
], lr=lr, betas=(0.9, 0.98), eps=1e-9)
# optim = torch.optim.Adam(self.model.parameters(), lr=lr, betas=(0.9, 0.98), eps=1e-9)
total_loss = []
train_accs = []
start = time.time()
step = 0
for epoch in range(self.args.num_epoch):
self.model.train()
train_data = self.data_utils.data_yielder(epo=epoch)
for batch in train_data:
optim.zero_grad()
if step % 20 == 1:
lr = self.args.lr * (1/(d_model**0.5))*min((1/(step)**0.5), step * (1/(warmup_steps**1.5)))
optim.param_groups[0]['lr'] = lr
lr2 = self.args.g_lr * (1/(d_model**0.5))*min((1/(step)**0.5), step * (1/(warmup_steps**1.5)))
optim.param_groups[1]['lr'] = lr2
# for param_group in optim.param_groups:
# param_group['lr'] = lr
src = batch['src'].long()
src_mask = batch['src_mask'].long()
y = batch['y']
#forward model
out = self.model.forward(src, src_mask)
# print out
pred = out.topk(5, dim=-1)[1].squeeze().detach().cpu().numpy()
gg = batch['src'].long().detach().cpu().numpy()
yy = batch['y']
#compute loss
loss = self.model.loss_compute(out, y, self.args.multi)
# else:
# loss = self.model.loss_compute(out, y.long().unsqueeze(1), self.args.multi)
#compute acc
acc = self.model.compute_acc(out, batch['y'], self.args.multi)
loss.backward()
# print('emb_size', self.model.src_embed[0].lut.weight.size())
# print('emb', self.model.src_embed[0].lut.weight.grad.sum())
# print('enc_out', self.model.encoder.layers[0].feed_forward.w_1.weight.grad)
optim.step()
total_loss.append(loss.detach().cpu().numpy())
train_accs.append(acc)
if step % self.args.print_every_step == 1:
elapsed = time.time() - start
print(Fore.GREEN + "[Step: %d]"%step +
Fore.WHITE + " Loss: %f | Time: %f | Acc: %4.4f | Lr: %4.6f" %(np.mean(total_loss), elapsed, sum(train_accs)/len(train_accs), optim.param_groups[0]['lr']))
print(Fore.RED + 'src:', Style.RESET_ALL, self.id2sent(self.data_utils, gg[0][:150]))
print(Fore.RED + 'y:', Style.RESET_ALL, yy[0])
print(Fore.RED + 'pred:', Style.RESET_ALL, pred[0])
# print(train_accs)
# self.log.add_scalar('Loss/train', np.mean(total_loss), step)
if not self.disable_comet:
self.exp.log_metric('Train Loss', np.mean(total_loss), step=step)
self.exp.log_metric('Train Acc', sum(train_accs)/len(train_accs), step=step)
self.exp.log_metric('Learning Rate', lr, step=step)
# print('grad', self.model.src_embed.grad)
print(Style.RESET_ALL)
start = time.time()
total_loss = []
train_accs = []
if step % self.args.valid_every_step == self.args.valid_every_step-1:
val_yielder = self.data_utils.data_yielder(epo=0, valid=True)
self.model.eval()
valid_losses = []
valid_accs = []
for batch in val_yielder:
with torch.no_grad():
out = self.model.forward(batch['src'].long(), batch['src_mask'].long())
loss = self.model.loss_compute(out, batch['y'], self.args.multi)
acc = self.model.compute_acc(out, batch['y'], self.args.multi)
valid_accs.append(acc)
valid_losses.append(loss.item())
print('=============================================')
print('Validation Result -> Loss : %6.6f | Acc : %6.6f' %(sum(valid_losses)/len(valid_losses), sum(valid_accs)/ len(valid_accs)))
print('=============================================')
self.model.train()
# self.log.add_scalar('Loss/valid', sum(valid_losses)/len(valid_losses), step)
if not self.disable_comet:
self.exp.log_metric('Valid Loss', sum(valid_losses)/ len(valid_losses), step=step)
self.exp.log_metric('Valid Acc', sum(valid_accs)/ len(valid_accs), step=step)
if self.args.save_checkpoints:
print('saving!!!!')
model_name = str(int(step/1000)) + 'k_' + '%6.6f_%6.6f'%(sum(valid_losses)/len(valid_losses), sum(valid_accs)/ len(valid_accs)) + 'model.pth'
state = {'step': step, 'state_dict': self.model.state_dict()}
#state = {'step': step, 'state_dict': self.model.state_dict(),
# 'optimizer' : optim_topic_gen.state_dict()}
torch.save(state, os.path.join(self.model_dir, model_name))
step += 1
def test(self):
#prepare model
path = self.args.load_model
max_len = self.args.max_len
state_dict = torch.load(path)['state_dict']
vocab_size = self.data_utils.vocab_size
self.model = self.make_model(src_vocab = vocab_size,
tgt_vocab = vocab_size,
N = self.args.num_layer,
dropout = self.args.dropout,
g_drop = self.args.generator_drop
)
model = self.model
model.load_state_dict(state_dict)
pred_dir = make_save_dir(self.args.pred_dir)
filename = self.args.filename
#start decoding
data_yielder = self.data_utils.data_yielder()
total_loss = []
start = time.time()
#file
f = open(os.path.join(pred_dir, filename), 'w')
self.model.eval()
step = 0
total_loss = []
corr, total = 0.0, 0.0
for batch in data_yielder:
step += 1
if step % 10 == 1:
print('Step ', step)
# out = self.model.greedy_decode(batch['src'].long(), batch['src_mask'], max_len, self.data_utils.bos)
with torch.no_grad():
out = self.model.forward(batch['src'].long(), batch['src_mask'].long())
if self.args.multi:
# if True:
print('out', out.size())
print('y', batch['y'])
loss = self.model.loss_compute(out, batch['y'], self.args.multi)
c = self.model.compute_acc(out, batch['y'], self.args.multi)
corr += c*len(batch['y'])
total += len(batch['y'])
preds = out.argmax(dim=-1)
for x in preds:
f.write(str(x.item()))
f.write('\n')
# f.write(str(p.item()))
# f.write('\n')
else:
loss = self.model.loss_compute(out, batch['y'], self.args.multi)
# preds = out.argmax(dim = -1)
_, preds = out.topk(dim = -1, k=10)
print(preds.size())
for p in preds:
for x in p:
f.write(str(x.item()))
f.write(' ')
f.write('\n')
# f.write(str(p.item()))
# f.write('\n')
total_loss.append(loss.item())
print(total_loss)
print(sum(total_loss)/ len(total_loss))
print('acc: ', corr/float(total))
print(corr, ' ', total)
def compute_acc(self, out, y):
corr = 0.
pred = out.argmax(dim = -1)
for i, target in enumerate(y):
# print(target)
# print(pred[i])
if pred[i] in target:
corr += 1
return corr, len(y)
def id2sent(self, data_utils, indices, test=False):
#print(indices)
sent = []
word_dict={}
for index in indices:
if test and (index == data_utils.word2id['</s>'] or index in word_dict):
continue
sent.append(data_utils.index2word[index])
word_dict[index] = 1
return ' '.join(sent)
import tensorflow as tf
from DeepTreeAttention.trees import AttentionModel
from DeepTreeAttention.models import metadata
from DeepTreeAttention.callbacks import callbacks
import pandas as pd
model = AttentionModel(
config="/home/b.weinstein/DeepTreeAttention/conf/tree_config.yml")
model.create()
#Log config
experiment = Experiment(project_name="neontrees", workspace="bw4sz")
experiment.log_parameters(model.config["train"])
experiment.log_parameters(model.config["evaluation"])
experiment.log_parameters(model.config["predict"])
experiment.add_tag("metadata")
##Train
#Train see config.yml for tfrecords path with weighted classes in cross entropy
model.read_data(mode="metadata")
#Cree
inputs, outputs = metadata.metadata_model(
classes=model.config["train"]["classes"])
meta_model = tf.keras.Model(inputs=inputs,
outputs=outputs,
name="DeepTreeAttention")
meta_model.compile(loss='categorical_crossentropy',
optimizer='adam',
metrics=["acc"])
def run(args, train, sparse_evidences, claims_dict):
BATCH_SIZE = args.batch_size
LEARNING_RATE = args.learning_rate
DATA_SAMPLING = args.data_sampling
NUM_EPOCHS = args.epochs
MODEL = args.model
RANDOMIZE = args.no_randomize
PRINT = args.print
use_cuda = torch.cuda.is_available()
device = torch.device("cuda:0" if use_cuda else "cpu")
logger = Logger('./logs/{}'.format(time.localtime()))
if MODEL:
print("Loading pretrained model...")
model = torch.load(MODEL)
model.load_state_dict(torch.load(MODEL).state_dict())
else:
model = cdssm.CDSSM()
model = model.cuda()
model = model.to(device)
# model = cdssm.CDSSM()
# model = model.cuda()
# model = model.to(device)
if torch.cuda.device_count() > 0:
print("Let's use", torch.cuda.device_count(), "GPU(s)!")
model = nn.DataParallel(model)
print("Created model with {:,} parameters.".format(
putils.count_parameters(model)))
# if MODEL:
# print("TEMPORARY change to loading!")
# model.load_state_dict(torch.load(MODEL).state_dict())
print("Created dataset...")
# use an 80/20 train/validate split!
train_size = int(len(train) * 0.80)
#test = int(len(train) * 0.5)
train_dataset = pytorch_data_loader.WikiDataset(
train[:train_size],
claims_dict,
data_sampling=DATA_SAMPLING,
sparse_evidences=sparse_evidences,
randomize=RANDOMIZE)
val_dataset = pytorch_data_loader.WikiDataset(
train[train_size:],
claims_dict,
data_sampling=DATA_SAMPLING,
sparse_evidences=sparse_evidences,
randomize=RANDOMIZE)
train_dataloader = DataLoader(train_dataset,
batch_size=BATCH_SIZE,
num_workers=0,
shuffle=True,
collate_fn=pytorch_data_loader.PadCollate())
val_dataloader = DataLoader(val_dataset,
batch_size=BATCH_SIZE,
num_workers=0,
shuffle=True,
collate_fn=pytorch_data_loader.PadCollate())
# Loss and optimizer
criterion = torch.nn.NLLLoss()
# criterion = torch.nn.SoftMarginLoss()
# if torch.cuda.device_count() > 0:
# print("Let's parallelize the backward pass...")
# criterion = DataParallelCriterion(criterion)
optimizer = torch.optim.Adam(model.parameters(),
lr=LEARNING_RATE,
weight_decay=1e-3)
OUTPUT_FREQ = max(int((len(train_dataset) / BATCH_SIZE) * 0.02), 20)
parameters = {
"batch size": BATCH_SIZE,
"epochs": NUM_EPOCHS,
"learning rate": LEARNING_RATE,
"optimizer": optimizer.__class__.__name__,
"loss": criterion.__class__.__name__,
"training size": train_size,
"data sampling rate": DATA_SAMPLING,
"data": args.data,
"sparse_evidences": args.sparse_evidences,
"randomize": RANDOMIZE,
"model": MODEL
}
experiment = Experiment(api_key="YLsW4AvRTYGxzdDqlWRGCOhee",
project_name="clsm",
workspace="moinnadeem")
experiment.add_tag("train")
experiment.log_asset("cdssm.py")
experiment.log_dataset_info(name=args.data)
experiment.log_parameters(parameters)
model_checkpoint_dir = "models/saved_model"
for key, value in parameters.items():
if type(value) == str:
value = value.replace("/", "-")
if key != "model":
model_checkpoint_dir += "_{}-{}".format(key.replace(" ", "_"),
value)
print("Training...")
beginning_time = time.time()
best_loss = torch.tensor(float("inf"),
dtype=torch.float) # begin loss at infinity
for epoch in range(NUM_EPOCHS):
beginning_time = time.time()
mean_train_acc = 0.0
train_running_loss = 0.0
train_running_accuracy = 0.0
model.train()
experiment.log_current_epoch(epoch)
with experiment.train():
for train_batch_num, inputs in enumerate(train_dataloader):
claims_tensors, claims_text, evidences_tensors, evidences_text, labels = inputs
claims_tensors = claims_tensors.cuda()
evidences_tensors = evidences_tensors.cuda()
labels = labels.cuda()
#claims = claims.to(device).float()
#evidences = evidences.to(device).float()
#labels = labels.to(device)
y_pred = model(claims_tensors, evidences_tensors)
y = (labels)
# y = y.unsqueeze(0)
# y = y.unsqueeze(0)
# y_pred = parallel.gather(y_pred, 0)
y_pred = y_pred.squeeze()
# y = y.squeeze()
loss = criterion(y_pred, torch.max(y, 1)[1])
# loss = criterion(y_pred, y)
y = y.float()
binary_y = torch.max(y, 1)[1]
binary_pred = torch.max(y_pred, 1)[1]
accuracy = (binary_y == binary_pred).to("cuda")
accuracy = accuracy.float()
accuracy = accuracy.mean()
train_running_accuracy += accuracy.item()
mean_train_acc += accuracy.item()
train_running_loss += loss.item()
if PRINT:
for idx in range(len(y)):
print(
"Claim: {}, Evidence: {}, Prediction: {}, Label: {}"
.format(claims_text[0], evidences_text[idx],
torch.exp(y_pred[idx]), y[idx]))
if (train_batch_num %
OUTPUT_FREQ) == 0 and train_batch_num > 0:
elapsed_time = time.time() - beginning_time
binary_y = torch.max(y, 1)[1]
binary_pred = torch.max(y_pred, 1)[1]
print(
"[{}:{}:{:3f}s] training loss: {}, training accuracy: {}, training recall: {}"
.format(
epoch, train_batch_num /
(len(train_dataset) / BATCH_SIZE), elapsed_time,
train_running_loss / OUTPUT_FREQ,
train_running_accuracy / OUTPUT_FREQ,
recall_score(binary_y.cpu().detach().numpy(),
binary_pred.cpu().detach().numpy())))
# 1. Log scalar values (scalar summary)
info = {
'train_loss': train_running_loss / OUTPUT_FREQ,
'train_accuracy': train_running_accuracy / OUTPUT_FREQ
}
for tag, value in info.items():
experiment.log_metric(tag,
value,
step=train_batch_num *
(epoch + 1))
logger.scalar_summary(tag, value, train_batch_num + 1)
## 2. Log values and gradients of the parameters (histogram summary)
for tag, value in model.named_parameters():
tag = tag.replace('.', '/')
logger.histo_summary(tag,
value.detach().cpu().numpy(),
train_batch_num + 1)
logger.histo_summary(tag + '/grad',
value.grad.detach().cpu().numpy(),
train_batch_num + 1)
train_running_loss = 0.0
beginning_time = time.time()
train_running_accuracy = 0.0
optimizer.zero_grad()
loss.backward()
optimizer.step()
# del loss
# del accuracy
# del claims_tensors
# del claims_text
# del evidences_tensors
# del evidences_text
# del labels
# del y
# del y_pred
# torch.cuda.empty_cache()
print("Running validation...")
model.eval()
pred = []
true = []
avg_loss = 0.0
val_running_accuracy = 0.0
val_running_loss = 0.0
beginning_time = time.time()
with experiment.validate():
for val_batch_num, val_inputs in enumerate(val_dataloader):
claims_tensors, claims_text, evidences_tensors, evidences_text, labels = val_inputs
claims_tensors = claims_tensors.cuda()
evidences_tensors = evidences_tensors.cuda()
labels = labels.cuda()
y_pred = model(claims_tensors, evidences_tensors)
y = (labels)
# y_pred = parallel.gather(y_pred, 0)
y_pred = y_pred.squeeze()
loss = criterion(y_pred, torch.max(y, 1)[1])
y = y.float()
binary_y = torch.max(y, 1)[1]
binary_pred = torch.max(y_pred, 1)[1]
true.extend(binary_y.tolist())
pred.extend(binary_pred.tolist())
accuracy = (binary_y == binary_pred).to("cuda")
accuracy = accuracy.float().mean()
val_running_accuracy += accuracy.item()
val_running_loss += loss.item()
avg_loss += loss.item()
if (val_batch_num % OUTPUT_FREQ) == 0 and val_batch_num > 0:
elapsed_time = time.time() - beginning_time
print(
"[{}:{}:{:3f}s] validation loss: {}, accuracy: {}, recall: {}"
.format(
epoch,
val_batch_num / (len(val_dataset) / BATCH_SIZE),
elapsed_time, val_running_loss / OUTPUT_FREQ,
val_running_accuracy / OUTPUT_FREQ,
recall_score(binary_y.cpu().detach().numpy(),
binary_pred.cpu().detach().numpy())))
# 1. Log scalar values (scalar summary)
info = {'val_accuracy': val_running_accuracy / OUTPUT_FREQ}
for tag, value in info.items():
experiment.log_metric(tag,
value,
step=val_batch_num * (epoch + 1))
logger.scalar_summary(tag, value, val_batch_num + 1)
## 2. Log values and gradients of the parameters (histogram summary)
for tag, value in model.named_parameters():
tag = tag.replace('.', '/')
logger.histo_summary(tag,
value.detach().cpu().numpy(),
val_batch_num + 1)
logger.histo_summary(tag + '/grad',
value.grad.detach().cpu().numpy(),
val_batch_num + 1)
val_running_accuracy = 0.0
val_running_loss = 0.0
beginning_time = time.time()
# del loss
# del accuracy
# del claims_tensors
# del claims_text
# del evidences_tensors
# del evidences_text
# del labels
# del y
# del y_pred
# torch.cuda.empty_cache()
accuracy = accuracy_score(true, pred)
print("[{}] mean accuracy: {}, mean loss: {}".format(
epoch, accuracy, avg_loss / len(val_dataloader)))
true = np.array(true).astype("int")
pred = np.array(pred).astype("int")
print(classification_report(true, pred))
best_loss = torch.tensor(
min(avg_loss / len(val_dataloader),
best_loss.cpu().numpy()))
is_best = bool((avg_loss / len(val_dataloader)) <= best_loss)
putils.save_checkpoint(
{
"epoch": epoch,
"model": model,
"best_loss": best_loss
},
is_best,
filename="{}_loss_{}".format(model_checkpoint_dir,
best_loss.cpu().numpy()))
from comet_ml import Experiment
from film_test.cifar import qa_cifar
experiment = Experiment(
api_key="ZfKpzyaedH6ajYSiKmvaSwyCs",
project_name="film-test",
workspace="fgolemo")
experiment.add_tag("qa")
experiment.add_tag("vanilla-resnet")
from torch import nn, optim
from tqdm import trange
from film_test.resnet import resnet18
from film_test.traintest import train, test, device
EPOCHS = 24
net = resnet18(num_classes=2)
net = net.to(device)
criterion = nn.CrossEntropyLoss()
optimizer = optim.SGD(net.parameters(), lr=0.1, momentum=0.9, weight_decay=5e-4)
trainloader, testloader = qa_cifar()
for epoch in trange(EPOCHS):
experiment.log_metric("epoch", epoch)
train(
net,
npa = np.array
device = torch.device("cuda" if torch.cuda.is_available() else "cpu")
pi = torch.Tensor([np.pi]).float().to(device)
exp_name = "24-newReparam"
exp_dir = "experiments/" + exp_name + "-" + strftime("%Y%m%d%H%M%S")
experiment = Experiment(api_key="ZfKpzyaedH6ajYSiKmvaSwyCs",
project_name="rezende",
workspace="fgolemo")
experiment.log_parameters(params)
experiment.set_name(exp_name)
experiment.add_tag("random-shape")
def normal(x, mu, sigma_sq):
a = (-1 * (x - mu).pow(2) / (2 * sigma_sq)).exp()
b = 1 / (2 * sigma_sq * pi.expand_as(sigma_sq)).sqrt()
return a * b
class Policy(nn.Module):
def __init__(self, num_latents, num_outputs):
super(Policy, self).__init__()
self.relu = nn.ReLU()
action='store_true',
help='resume from checkpoint')
args = parser.parse_args()
# Ideas
# Pretrain network without permuted convolutions. Then train it using permuted/shuffled convolutions
################################################
num_channels_permuted = "5, 10"
# model_name = "DenseNet_reduced_1x1_regularized_conv1-2"
# model_name = "small_CNN_1x1_3x3_no_bias_LBFGS"
model_name = "PermSmallCNN_SGD_LR_0.0001_LRS_no_bias"
gpu_id = 3
reg_lambda = 5e-3
################################################
experiment.add_tag(model_name)
experiment.add_tag(num_channels_permuted)
experiment.log_other("Network", model_name)
experiment.log_other("Dataset", "CIFAR-100")
experiment.log_other("Type", model_name)
# experiment.log_other("Regularizer", reg_lambda)
device = 'cuda:' + str(gpu_id) if torch.cuda.is_available() else 'cpu'
# device = 'cpu'
best_acc = 0 # best test accuracy
start_epoch = 0 # start from epoch 0 or last checkpoint epoch
train_batch_size = 250
test_batch_size = 250
# Data
print('==> Preparing data..')
def main():
# Argument parser to select model type
parser = argparse.ArgumentParser(description="Train a reinforcement learning flight controller.")
parser.add_argument('-m','--model', help="RL Agent to train on.")
args = vars(parser.parse_args())
# Create a Comet experiment with an API key
experiment = Experiment(api_key="Bq3mQixNCv2jVzq2YBhLdxq9A",
project_name="rl-flight-controller", workspace="alexbarnett12",
log_env_gpu = False, log_env_cpu = False, log_env_host= False,
log_git_metadata = False, log_git_patch = False)
# Load training parameters
cfg = configparser.ConfigParser()
cfg.read(TRAINING_CONFIG)
params = cfg["PARAMETERS"]
# Set training parameters
learning_rate_max = float(params["learning_rate_max"])
learning_rate_min = float(params["learning_rate_min"])
n_steps = int(params["N_steps"])
noptepochs = int(params["Noptepochs"])
nminibatches = int(params["Nminibatches"])
gamma = float(params["Gamma"])
lam = float(params["Lam"])
clip = float(params["Clip"])
ent_coeff = float(params["Ent_coeff"])
total_timesteps = int(params["Total_timesteps"])
# Linearly decreasing learning rate (only for PPO2)
lr_callback = create_lr_callback(learning_rate_max, learning_rate_min)
# Report hyperparameters to Comet
hyper_params = {"learning_rate": learning_rate_max,
"steps": n_steps,
"epochs": noptepochs,
"minibatches": nminibatches,
"gamma": gamma,
"lambda": lam,
"clip_range": clip,
"ent_coeff": ent_coeff,
"total_timesteps": total_timesteps}
experiment.log_parameters(hyper_params)
# You can set the level to logger.DEBUG or logger.WARN if you
# want to change the amount of output.
logger.set_level(logger.DEBUG)
# Create save directory and various save paths
model_log_dir = create_model_log_dir()
save_path = "./logs/" + model_log_dir + "/ckpts/"
best_model_save_path = "./logs/" + model_log_dir + "/best_model/"
log_path = "./logs/" + model_log_dir + "/results/"
tensorboard_dir = "./logs/" + model_log_dir + "/tensorboard/"
model_save_path = "./logs/saved_models/" + model_log_dir
# Save training and reward params to model directory
shutil.copy("./gymfc/reward_params.config", "./logs/" + model_log_dir + "/reward_params.config")
shutil.copy("./gymfc/training_params.config", "./logs/" + model_log_dir + "/training_params.config")
# Create a callback to save model checkpoints
checkpoint_callback = CheckpointCallback(save_freq=100000, save_path=save_path,
name_prefix='rl_model')
# Create a separate evaluation environment
#eval_env = gym.make('attitude-fc-v0')
# Callback to evaluate the model during training
#eval_callback = EvalCallback(eval_env, best_model_save_path=best_model_save_path,
# log_path=log_path, eval_freq=100000)
# Create training environment
env = gym.make('attitude-fc-v0')
# Callback to add max penalty watchers to Tensorboard
tb_callback = TensorboardCallback(env)
# Create the callback list
#callback = CallbackList([checkpoint_callback, eval_callback, tb_callback])
callback = CallbackList([checkpoint_callback, tb_callback])
# RL Agent; Current options are PPO1 or PPO2
# Note: PPO2 does not work w/o vectorized environments (gymfc is not vectorized)
if args["model"] == "PPO2":
print("PPO2!")
model = PPO2(MlpPolicy,
env,
n_steps=n_steps,
learning_rate=lr_callback,
noptepochs=noptepochs,
nminibatches=nminibatches,
gamma=gamma,
lam=lam,
cliprange=clip,
ent_coef=ent_coeff,
tensorboard_log=tensorboard_dir,
policy_kwargs= {layers: [32,32]})
experiment.add_tag("PPO2")
else:
model = PPO1(MlpPolicy,
env,
timesteps_per_actorbatch=n_steps,
optim_stepsize = learning_rate_max,
schedule="linear",
optim_epochs=noptepochs,
optim_batchsize=nminibatches,
gamma=gamma,
lam=lam,
clip_param=clip,
entcoeff=ent_coeff,
tensorboard_log=tensorboard_dir)
experiment.add_tag("PPO1")
# Train the model. Clean up environment on user cancellation
try:
model.learn(total_timesteps=total_timesteps, callback=callback)
except KeyboardInterrupt:
print("INFO: Ctrl-C caught. Cleaning up...")
env.close()
eval_env.close()
model.save(model_save_path)
env.close()
eval_env.close()
import numpy
import matplotlib.pyplot as plt
from comet_ml import Experiment
from mpl_toolkits.mplot3d import Axes3D
from sklearn.covariance import MinCovDet
from src.utils.pvalues import compute_pvalues
experiment = Experiment(project_name="deep-stats-thesis",
workspace="stecaron",
disabled=False)
experiment.add_tag("simulations_chi2")
# Set distributions parameters
hyper_params = {"N_DIM": 25, "N_OBS": 1000, "NOISE_PRC": 0.01}
# Log experiment parameters
experiment.log_parameters(hyper_params)
MU = numpy.repeat(0, hyper_params["N_DIM"])
SIGMA = numpy.identity(hyper_params["N_DIM"])
# Simulate data
dt = numpy.random.multivariate_normal(mean=MU,
cov=SIGMA,
size=hyper_params["N_OBS"])
# Plot normal data
fig = plt.figure()
ax = fig.add_subplot(111, projection='3d')