def test_mnist_registry(key: str, pretrained: Union[bool, str], test_input: bool): with tf_compat.Graph().as_default(): inputs = tf_compat.placeholder(tf_compat.float32, [None, 28, 28, 1], name="inputs") logits = ModelRegistry.create(key, inputs) with tf_compat.Session() as sess: if test_input: sess.run(tf_compat.global_variables_initializer()) out = sess.run( logits, feed_dict={inputs: numpy.random.random((1, 28, 28, 1))}) assert out.sum() != 0 if pretrained: ModelRegistry.load_pretrained(key, pretrained) if test_input: out = sess.run(logits, feed_dict={ inputs: numpy.random.random( (1, 28, 28, 1)) }) assert out.sum() != 0
def test_trainable_params_modifier_with_training(): modifier = TrainableParamsModifier( params=["mlp_net/fc1/weight"], trainable=False, params_strict=False, ) manager = ScheduledModifierManager([modifier]) steps_per_epoch = 5 batch_size = 2 with tf_compat.Graph().as_default() as graph: logits, inputs = mlp_net() labels = tf_compat.placeholder(tf_compat.float32, [None, *logits.shape[1:]]) loss = batch_cross_entropy_loss(logits, labels) global_step = tf_compat.train.get_or_create_global_step() num_trainable_variabls_init = len(tf_compat.trainable_variables()) mod_ops, mod_extras = manager.create_ops(steps_per_epoch) assert len( tf_compat.trainable_variables()) < num_trainable_variabls_init # Get the variables returned by the trainable_params modifier non_trainable_vars = mod_extras[EXTRAS_KEY_VAR_LIST] trainable_vars = tf_compat.trainable_variables() train_op = tf_compat.train.AdamOptimizer(learning_rate=1e-4).minimize( loss, global_step=global_step) with tf_compat.Session(graph=graph) as sess: sess.run(tf_compat.global_variables_initializer()) manager.initialize_session(sess) init_non_trainable_vars = [ var.eval(session=sess) for var in non_trainable_vars ] init_trainable_vars = [ var.eval(session=sess) for var in trainable_vars ] batch_lab = numpy.random.random((batch_size, *logits.shape[1:])) batch_inp = numpy.random.random((batch_size, *inputs.shape[1:])) for epoch in range(10): for step in range(steps_per_epoch): sess.run(train_op, feed_dict={ inputs: batch_inp, labels: batch_lab }) sess.run(global_step) # Compare initial and final variable values for idx, init_non_trainable_var in enumerate( init_non_trainable_vars): final_non_trainable_var = non_trainable_vars[idx].eval( session=sess) assert numpy.array_equal(init_non_trainable_var, final_non_trainable_var) for idx, init_trainable_var in enumerate(init_trainable_vars): final_trainable_var = trainable_vars[idx].eval(session=sess) assert not numpy.array_equal(init_trainable_var, final_trainable_var) manager.complete_graph()
def mlp_graph_lambda(): graph = tf_compat.Graph() with graph.as_default(): mlp_net() return graph
def test_loss_sensitivity(net_const: Callable, inp_arr: numpy.ndarray, labs_arr: numpy.ndarray): with tf_compat.Graph().as_default(): out, inp = net_const() labels = tf_compat.placeholder(tf_compat.float32, [None, *labs_arr.shape[1:]], name="logits") loss = batch_cross_entropy_loss(out, labels) op_vars = pruning_loss_sens_op_vars() with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) def add_ops_creator(step: int): return [] def feed_dict_creator(step: int): return {inp: inp_arr, labels: labs_arr} analysis = pruning_loss_sens_one_shot(op_vars, loss, 5, add_ops_creator, feed_dict_creator) for res in analysis.results: assert res.name assert isinstance(res.index, int) assert len(res.sparse_measurements) > 0 assert len(res.averages) > 0 assert res.sparse_average > 0 assert res.sparse_integral > 0
def conv_graph_lambda(): graph = tf_compat.Graph() with graph.as_default(): conv_net() return graph
def test_get_prunable_ops(net_const, expected_ops: List[str]): with tf_compat.Graph().as_default(): net_const() ops = get_prunable_ops() assert len(ops) == len(expected_ops) for op in ops: assert op[0] in expected_ops
def test_op_var_name(): graph = tf_compat.Graph() with graph.as_default(): var = tf_compat.Variable(tf_compat.random_normal([64]), dtype=tf_compat.float32, name="test_var_name") name = clean_tensor_name(var) assert name == "test_var_name"
def test_op_input_var(): with tf_compat.Graph().as_default() as graph: mlp_net() ops = get_prunable_ops(graph) for op in ops: inp = get_op_input_var(op[1]) assert inp is not None assert isinstance(inp, tf_compat.Tensor)
def test_resnets(key: str, pretrained: Union[bool, str], test_input: bool, const: Callable): input_shape = ModelRegistry.input_shape(key) # test out the stand alone constructor with tf_compat.Graph().as_default(): inputs = tf_compat.placeholder(tf_compat.float32, [None, *input_shape], name="inputs") logits = const(inputs, training=False) if test_input: with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) out = sess.run( logits, feed_dict={inputs: numpy.random.random((1, *input_shape))}) assert out.sum() != 0 # test out the registry with tf_compat.Graph().as_default(): inputs = tf_compat.placeholder(tf_compat.float32, [None, *input_shape], name="inputs") logits = ModelRegistry.create(key, inputs, training=False) with tf_compat.Session() as sess: if test_input: sess.run(tf_compat.global_variables_initializer()) out = sess.run( logits, feed_dict={inputs: numpy.random.random((1, *input_shape))}) assert out.sum() != 0 if pretrained: ModelRegistry.load_pretrained(key, pretrained) if test_input: out = sess.run( logits, feed_dict={ inputs: numpy.random.random((1, *input_shape)) }, ) assert out.sum() != 0
def test_mnist(): with tf_compat.Graph().as_default(): inputs = tf_compat.placeholder(tf_compat.float32, [None, 28, 28, 1], name="inputs") logits = mnist_net(inputs) with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) out = sess.run( logits, feed_dict={inputs: numpy.random.random((1, 28, 28, 1))}) assert out.sum() != 0
def export( args, save_dir, checkpoint_path=None, skip_samples=False, num_classes=None, opset=None, ): assert not skip_samples or num_classes # dataset creation if not skip_samples: val_dataset, num_classes = _create_dataset(args, train=False) with tf_compat.Graph().as_default(): input_shape = ModelRegistry.input_shape(args.arch_key) inputs = tf_compat.placeholder(tf_compat.float32, [None] + list(input_shape), name="inputs") outputs = _create_model(args, num_classes, inputs) with tf_compat.Session() as sess: _load_model(args, sess, checkpoint_path=checkpoint_path or args.checkpoint_path) exporter = GraphExporter(save_dir) if not skip_samples: # Export a batch of samples and expected outputs tf_dataset = val_dataset.build(args.num_samples, repeat_count=1, num_parallel_calls=1) tf_iter = tf_compat.data.make_one_shot_iterator(tf_dataset) features, _ = tf_iter.get_next() inputs_val = sess.run(features) exporter.export_samples([inputs], [inputs_val], [outputs], sess) # Export model to tensorflow checkpoint format LOGGER.info("exporting tensorflow in {}".format(save_dir)) exporter.export_checkpoint(sess=sess) # Export model to pb format LOGGER.info("exporting pb in {}".format(exporter.pb_path)) exporter.export_pb(outputs=[outputs]) # Export model to onnx format LOGGER.info("exporting onnx in {}".format(exporter.onnx_path)) exporter.export_onnx([inputs], [outputs], opset=opset or args.onnx_opset)
def test_get_ops_and_inputs_by_name_or_regex( net_const, var_names, expected_ops, expected_tens, ): with tf_compat.Graph().as_default() as graph: net_const() ops_and_inputs = get_ops_and_inputs_by_name_or_regex(var_names, graph) assert len(ops_and_inputs) == len(expected_ops) for op, inp in ops_and_inputs: assert op.name in expected_ops assert clean_tensor_name(inp.name) in expected_tens
def test_approx_ks_loss_sensitivity(net_const: Callable): with tf_compat.Graph().as_default() as graph: out, inp = net_const() with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) analysis = pruning_loss_sens_magnitude(graph) for res in analysis.results: assert res.name assert isinstance(res.index, int) assert len(res.sparse_measurements) > 0 assert len(res.averages) > 0 assert res.sparse_average > 0 assert res.sparse_integral > 0
def test_multi_step_lr_schedule(start_step: int, milestone_steps: List[int], init_lr: float, gamma: float): with tf_compat.Graph().as_default(): global_step = tf_compat.placeholder(dtype=tf_compat.int64, shape=[]) learning_rate = multi_step_lr_schedule(global_step, start_step, milestone_steps, init_lr, gamma) with tf_compat.Session() as sess: for step in range(start_step + milestone_steps[-1] + 10): measured = sess.run(learning_rate, feed_dict={global_step: step}) gammas = sum([ 1 for mile in milestone_steps if step >= mile + start_step ]) expected = init_lr * gamma**gammas assert abs(measured - expected) < 1e-5
def test_step_lr_schedule(start_step: int, end_step: int, init_lr: float, step_size: int, gamma: float): with tf_compat.Graph().as_default(): global_step = tf_compat.placeholder(dtype=tf_compat.int64, shape=[]) learning_rate = step_lr_schedule(global_step, start_step, end_step, step_size, init_lr, gamma) with tf_compat.Session() as sess: expected = init_lr for step in range(end_step + 10): measured = sess.run(learning_rate, feed_dict={global_step: step}) if (step - start_step ) % step_size == 0 and start_step < step <= end_step: expected = expected * gamma assert abs(measured - expected) < 1e-5
def test_apply_op_vars_masks( sparsity_val: float, net_const: Callable, inp_arr: numpy.ndarray, var_names: List[str], ): group = "test-group" with tf_compat.Graph().as_default() as graph: out, inp = net_const() sparsity = tf_compat.placeholder(dtype=tf_compat.float32, name="sparsity_placeholder") update_ready = tf_compat.placeholder(dtype=tf_compat.bool, name="update_ready") pruning_op_vars = get_or_create_graph_ops_pruning( graph, var_names, sparsity, update_ready, True, None, group, UnstructuredPruningMaskCreator(), ) with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) for op_vars in pruning_op_vars: sess.run( op_vars.update, feed_dict={ sparsity: sparsity_val, update_ready: True }, ) apply_op_vars_masks(pruning_op_vars, group, sess) for op_vars in pruning_op_vars: var_sparsity = eval_tensor_sparsity(op_vars.op_input) assert abs(var_sparsity - sparsity_val) < 1e-2
def _validate(dataset: ImageFolderDataset, size: int): with tf_compat.Graph().as_default(): batch_size = 16 with tf_compat.device("/cpu:0"): print("loading datasets") dataset_len = len(dataset) assert dataset_len > 0 tf_dataset = dataset.build( batch_size, repeat_count=2, shuffle_buffer_size=10, prefetch_buffer_size=batch_size, num_parallel_calls=4, ) handle, iterator, (tf_iter, ) = create_split_iterators_handle( [tf_dataset]) images, labels = iterator.get_next() with tf_compat.Session() as sess: sess.run([ tf_compat.global_variables_initializer(), tf_compat.local_variables_initializer(), ]) iter_handle = sess.run(tf_iter.string_handle()) sess.run(tf_iter.initializer) for _ in range(5): batch_x, batch_lab = sess.run([images, labels], feed_dict={handle: iter_handle}) assert batch_x.shape[0] == 16 assert batch_x.shape[1] == size assert batch_x.shape[2] == size assert batch_x.shape[3] == 3 assert batch_lab.shape[0] == 16 assert batch_lab.shape[1] == 10
def test_get_or_create_ks_schedule_ops( begin_step: int, end_step: int, update_step_freq: int, init_sparsity: float, final_sparsity: float, exponent: float, ): group = "test-group" with tf_compat.Graph().as_default(): global_step = tf_compat.train.get_or_create_global_step() step_placeholder = tf_compat.placeholder(dtype=tf_compat.int64, name="step") global_assign = global_step.assign(step_placeholder) update_ready, sparsity = get_or_create_ks_schedule_ops( global_step, begin_step, end_step, update_step_freq, init_sparsity, final_sparsity, exponent, group, ) update_ready_sec, sparsity_sec = get_or_create_ks_schedule_ops( global_step, begin_step, end_step, update_step_freq, init_sparsity, final_sparsity, exponent, group, ) assert update_ready == update_ready_sec assert sparsity == sparsity_sec with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) last_update_step = None last_update_sparsity = None for step in range(end_step + 10): sess.run(global_assign, feed_dict={step_placeholder: step}) update_ready_val = sess.run(update_ready) sparsity_val = sess.run(sparsity) if step < begin_step: assert not update_ready_val assert abs(sparsity_val) < 1e-5 elif step <= begin_step: assert update_ready_val assert abs(sparsity_val - init_sparsity) < 1e-5 last_update_step = step last_update_sparsity = sparsity_val elif step == end_step: assert update_ready_val assert abs(sparsity_val - final_sparsity) < 1e-5 last_update_step = step last_update_sparsity = sparsity_val elif step > end_step: assert not update_ready_val assert abs(sparsity_val - final_sparsity) < 1e-5 else: # check if update should be ready check_ready = (last_update_step is None or step >= last_update_step + update_step_freq) assert sparsity_val > last_update_sparsity if check_ready: assert update_ready_val last_update_step = step last_update_sparsity = sparsity_val else: assert not update_ready_val
def test_create_op_pruning_fc(sparsity_val): group = "test-group" with tf_compat.Graph().as_default() as graph: inp = tf_compat.placeholder(tf_compat.float32, [None, 64]) with tf_compat.name_scope("fc"): weights = tf_compat.Variable(tf_compat.random_normal([64, 64]), name="weights") bias = tf_compat.Variable(tf_compat.random_normal([64]), name="bias") matmul = tf_compat.matmul(inp, weights, name="matmul") add = tf_compat.add(matmul, bias, name="bias_add") relu = tf_compat.nn.relu(add, name="relu") sparsity = tf_compat.placeholder(dtype=tf_compat.float32, name="sparsity_placeholder") update_ready = tf_compat.placeholder(dtype=tf_compat.bool, name="update_ready") matmul_op = graph.get_operation_by_name("fc/matmul") matmul_op_input = get_op_input_var(matmul_op, VAR_INDEX_FROM_TRAINABLE) pruning_op_vars = create_op_pruning( matmul_op, matmul_op_input, sparsity, update_ready, True, None, group, UnstructuredPruningMaskCreator(), ) with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) sess.run( pruning_op_vars.update, feed_dict={ sparsity: sparsity_val, update_ready: False }, ) mask_sparsity = eval_tensor_sparsity(pruning_op_vars.mask) weight_sparsity = eval_tensor_sparsity(pruning_op_vars.op_input) assert mask_sparsity < 1e-3 assert mask_sparsity == weight_sparsity masked_sparsity = eval_tensor_sparsity(pruning_op_vars.masked) assert masked_sparsity < 1e-3 sess.run( pruning_op_vars.update, feed_dict={ sparsity: sparsity_val, update_ready: True }, ) mask_sparsity = eval_tensor_sparsity(pruning_op_vars.mask) assert abs(mask_sparsity - sparsity_val) < 1e-3 masked_sparsity = eval_tensor_sparsity(pruning_op_vars.masked) assert abs(masked_sparsity - sparsity_val) < 1e-3 res = sess.run(relu, feed_dict={inp: numpy.random.random((4, 64))}) assert res.sum() > 0.0
def pruning_loss_sensitivity(args, save_dir): input_shape = ModelRegistry.input_shape(args.arch_key) train_dataset, num_classes = _create_dataset(args, train=True, image_size=input_shape[1]) with tf_compat.Graph().as_default() as graph: # create model graph inputs = tf_compat.placeholder(tf_compat.float32, [None] + list(input_shape), name="inputs") outputs = _create_model(args, num_classes, inputs) with tf_compat.Session() as sess: _load_model(args, sess, checkpoint_path=args.checkpoint_path) if args.approximate: LOGGER.info( "Running weight magnitude loss sensitivity analysis...") analysis = pruning_loss_sens_magnitude(graph, sess) else: op_vars = pruning_loss_sens_op_vars(graph) train_steps = math.ceil(len(train_dataset) / args.batch_size) train_dataset = _build_dataset(args, train_dataset, args.batch_size) handle, iterator, dataset_iter = create_split_iterators_handle( [train_dataset]) dataset_iter = dataset_iter[0] images, labels = iterator.get_next() loss = batch_cross_entropy_loss(outputs, labels) tensor_names = ["inputs:0", labels.name] sess.run(dataset_iter.initializer) def feed_dict_creator( step: int) -> Dict[str, tf_compat.Tensor]: assert step < train_steps batch_data = [ tens.eval(session=sess) for tens in dataset_iter.get_next() ] return dict(zip(tensor_names, batch_data)) LOGGER.info("Running one shot loss sensitivity analysis...") analysis = pruning_loss_sens_one_shot( op_vars=op_vars, loss_tensor=loss, steps_per_measurement=args.steps_per_measurement, feed_dict_creator=feed_dict_creator, sess=sess, ) # saving and printing results LOGGER.info("completed...") LOGGER.info("Saving results in {}".format(save_dir)) analysis.save_json( os.path.join( save_dir, "ks_approx_sensitivity.json" if args.approximate else "ks_one_shot_sensitivity.json", )) analysis.plot( os.path.join( save_dir, os.path.join( save_dir, "ks_approx_sensitivity.png" if args.approximate else "ks_one_shot_sensitivity.png", ), ), plot_integral=True, ) analysis.print_res()
def test_get_or_create_ks_scheduled_graph_ops( begin_step: int, end_step: int, update_step_freq: int, init_sparsity: float, final_sparsity: float, exponent: float, net_const: Callable, inp_arr: numpy.ndarray, var_names: List[str], ): group = "test-group" with tf_compat.Graph().as_default() as graph: global_step = tf_compat.train.get_or_create_global_step() step_placeholder = tf_compat.placeholder(dtype=tf_compat.int64, name="step") global_assign = global_step.assign(step_placeholder) out, inp = net_const() ( update_op, pruning_op_vars, update_ready, sparsity, ) = get_or_create_ks_scheduled_graph_ops( graph, global_step, var_names, begin_step, end_step, update_step_freq, init_sparsity, final_sparsity, exponent, True, group, UnstructuredPruningMaskCreator(), ) ( update_op_sec, pruning_op_vars_sec, update_ready, sparsity, ) = get_or_create_ks_scheduled_graph_ops( graph, global_step, var_names, begin_step, end_step, update_step_freq, init_sparsity, final_sparsity, exponent, True, group, UnstructuredPruningMaskCreator(), ) assert update_op == update_op_sec assert update_ready == update_ready assert sparsity == sparsity assert len(pruning_op_vars) == 3 assert len(pruning_op_vars) >= len( var_names) # at least 1 regex match per name for op_vars, op_vars_sec in zip(pruning_op_vars, pruning_op_vars_sec): assert op_vars.op == op_vars_sec.op assert op_vars.update == op_vars_sec.update assert op_vars.mask == op_vars_sec.mask assert op_vars.masked == op_vars_sec.masked with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) last_update_sparsity = None for step in range(end_step + 10): sess.run(global_assign, feed_dict={step_placeholder: step}) update_ready_val = sess.run(update_ready) sparsity_val = sess.run(sparsity) sess.run(update_op) for op_var in pruning_op_vars: mask_sparsity = eval_tensor_sparsity(op_var.mask) masked_sparsity = eval_tensor_sparsity(op_var.masked) weight_sparsity = eval_tensor_sparsity(op_vars.op_input) assert abs(mask_sparsity - masked_sparsity) < 1e-5 if step < begin_step: assert abs(masked_sparsity) < 1e-2 assert not update_ready_val elif step == begin_step: assert abs(masked_sparsity - init_sparsity) < 1e-2 assert abs(sparsity_val - init_sparsity) < 1e-5 assert update_ready_val last_update_sparsity = masked_sparsity elif step == end_step: assert update_ready_val assert abs(masked_sparsity - final_sparsity) < 1e-2 assert abs(sparsity_val - final_sparsity) < 1e-5 last_update_sparsity = masked_sparsity elif step > end_step: assert not update_ready_val assert abs(masked_sparsity - final_sparsity) < 1e-2 else: assert masked_sparsity >= last_update_sparsity - 1e-2 assert sparsity_val >= last_update_sparsity - 1e-2 assert abs(weight_sparsity - masked_sparsity) <= 1e-2 last_update_sparsity = masked_sparsity if step < end_step and update_ready_val: steps_count = sess.run(global_step) - begin_step steps_range = end_step - begin_step expected = _expected_sparsity( steps_count, steps_range, init_sparsity, final_sparsity, exponent, ) assert abs(sparsity_val - expected) < 1e-5 res = sess.run(out, feed_dict={inp: inp_arr}) assert res.sum() >= 0.0
def test_gm_pruning_training_with_manager(): modifier = GMPruningModifier( params=["mlp_net/fc1/weight", "mlp_net/fc3/weight"], init_sparsity=0.05, final_sparsity=0.8, start_epoch=2.0, end_epoch=7.0, update_frequency=1.0, ) sec_modifier = GMPruningModifier( params=["mlp_net/fc2/weight"], init_sparsity=0.05, final_sparsity=0.8, start_epoch=2.0, end_epoch=7.0, update_frequency=1.0, ) manager = ScheduledModifierManager([modifier, sec_modifier]) steps_per_epoch = 5 batch_size = 2 with tf_compat.Graph().as_default() as graph: logits, inputs = mlp_net() labels = tf_compat.placeholder(tf_compat.float32, [None, *logits.shape[1:]]) loss = batch_cross_entropy_loss(logits, labels) global_step = tf_compat.train.get_or_create_global_step() train_op = tf_compat.train.AdamOptimizer(learning_rate=1e-4).minimize( loss, global_step=global_step) mod_ops, mod_extras = manager.create_ops(steps_per_epoch) last_sparsities = [0.0 for _ in range(len(modifier.prune_op_vars))] with tf_compat.Session(graph=graph) as sess: sess.run(tf_compat.global_variables_initializer()) manager.initialize_session(sess) batch_lab = numpy.random.random((batch_size, *logits.shape[1:])) batch_inp = numpy.random.random((batch_size, *inputs.shape[1:])) for epoch in range(int(modifier.end_epoch + 2.0)): for step in range(steps_per_epoch): sess.run(train_op, feed_dict={ inputs: batch_inp, labels: batch_lab }) sess.run(global_step) sess.run(mod_ops) update_ready_val = sess.run(modifier.update_ready) sess.run(modifier.sparsity) for index, op_vars in enumerate(modifier.prune_op_vars): mask_sparsity = eval_tensor_sparsity(op_vars.mask) masked_sparsity = eval_tensor_sparsity(op_vars.masked) assert abs(mask_sparsity - masked_sparsity) < 1e-5 if epoch < modifier.start_epoch: assert masked_sparsity < 1e-2 assert not update_ready_val elif epoch >= modifier.end_epoch: assert abs(masked_sparsity - modifier.final_sparsity) < 1e-2 assert not update_ready_val else: assert masked_sparsity >= last_sparsities[ index] - 1e-2 last_sparsities[index] = masked_sparsity manager.complete_graph() for op_vars in modifier.prune_op_vars: assert (abs(modifier.final_sparsity - eval_tensor_sparsity(op_vars.op_input)) < 1e-2)
def test_get_or_create_graph_ops_pruning( sparsity_val: float, net_const: Callable, inp_arr: numpy.ndarray, var_names: List[str], mask_creator: PruningMaskCreator, ): group = "test-group" is_grouped_mask = isinstance(mask_creator, GroupedPruningMaskCreator) with tf_compat.Graph().as_default() as graph: out, inp = net_const() sparsity = tf_compat.placeholder(dtype=tf_compat.float32, name="sparsity_placeholder") update_ready = tf_compat.placeholder(dtype=tf_compat.bool, name="update_ready") pruning_op_vars = get_or_create_graph_ops_pruning( graph, var_names, sparsity, update_ready, True, None, group, mask_creator, ) pruning_op_vars_sec = get_or_create_graph_ops_pruning( graph, var_names, sparsity, update_ready, True, None, group, mask_creator, ) assert len(pruning_op_vars) >= len( var_names) # get at least 1 match per regex assert len(pruning_op_vars) == len(pruning_op_vars_sec) for op_vars, op_vars_sec in zip(pruning_op_vars, pruning_op_vars_sec): assert op_vars.op == op_vars_sec.op # import pdb # pdb.set_trace() assert op_vars.update == op_vars_sec.update assert op_vars.mask == op_vars_sec.mask assert op_vars.masked == op_vars_sec.masked with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) for op_vars in pruning_op_vars: sess.run( op_vars.update, feed_dict={ sparsity: sparsity_val, update_ready: False }, ) print(op_vars.mask.shape) # When we reduce the values a mask can take, there can be higher error err_threshold = 1e-2 if not is_grouped_mask else 1e-1 mask_sparsity = eval_tensor_sparsity(op_vars.mask) weight_sparsity = eval_tensor_sparsity(op_vars.op_input) assert mask_sparsity < err_threshold assert weight_sparsity == mask_sparsity masked_sparsity = eval_tensor_sparsity(op_vars.masked) assert masked_sparsity < err_threshold sess.run( op_vars.update, feed_dict={ sparsity: sparsity_val, update_ready: True }, ) mask_sparsity = eval_tensor_sparsity(op_vars.mask) assert abs(mask_sparsity - sparsity_val) < err_threshold masked_sparsity = eval_tensor_sparsity(op_vars.masked) assert abs(masked_sparsity - sparsity_val) < err_threshold res = sess.run(out, feed_dict={inp: inp_arr}) assert res.sum() > 0.0 if is_grouped_mask: # Check that every value in the mask_creator grouping # is the same within the mask. Assumes grouping applies # an absolte mean to each grouping grouped_mask = mask_creator.group_tensor(op_vars.mask) mask_vals_are_grouped = tf_compat.reduce_all( tf_compat.logical_or( tf_compat.equal(grouped_mask, 0.0), tf_compat.equal(grouped_mask, 1.0), )) assert sess.run(mask_vals_are_grouped)
# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. # See the License for the specific language governing permissions and # limitations under the License. # flake8: noqa import math from sparseml.tensorflow_v1.optim import ( EXTRAS_KEY_LEARNING_RATE, EXTRAS_KEY_SUMMARIES, ScheduledModifierManager, ) from sparseml.tensorflow_v1.utils import tf_compat with tf_compat.Graph().as_default() as graph: CREATE_MODEL_GRAPH = None global_step = tf_compat.train.get_or_create_global_step() manager = ScheduledModifierManager.from_yaml("/PATH/TO/config.yaml") mod_ops, mod_extras = manager.create_ops( steps_per_epoch=math.ceil(len(TRAIN_DATASET) / TRAIN_BATCH_SIZE)) summary_ops = mod_extras[EXTRAS_KEY_SUMMARIES] learning_rate = mod_extras[EXTRAS_KEY_LEARNING_RATE] with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) for epoch in range(manager.max_epochs): for batch in range(TRAIN_BATCH_SIZE): sess.run(TRAIN_OP)
def test_create_op_pruning_conv(sparsity_val: float, mask_creator: PruningMaskCreator): group = "test-group" is_grouped_mask = isinstance(mask_creator, GroupedPruningMaskCreator) with tf_compat.Graph().as_default() as graph: inp = tf_compat.placeholder(tf_compat.float32, [None, 8, 8, 64]) with tf_compat.name_scope("conv"): weights = tf_compat.Variable(tf_compat.random_normal( [3, 3, 64, 64]), name="weights") bias = tf_compat.Variable(tf_compat.random_normal([64]), name="bias") conv = tf_compat.nn.conv2d(inp, weights, strides=[1, 1, 1, 1], padding="SAME", name="conv") add = tf_compat.add(conv, bias, name="bias_add") relu = tf_compat.nn.relu(add, name="relu") sparsity = tf_compat.placeholder(dtype=tf_compat.float32, name="sparsity_placeholder") update_ready = tf_compat.placeholder(dtype=tf_compat.bool, name="update_ready") conv_op = graph.get_operation_by_name("conv/conv") conv_op_input = get_op_input_var(conv_op, VAR_INDEX_FROM_TRAINABLE) pruning_op_vars = create_op_pruning( conv_op, conv_op_input, sparsity, update_ready, True, None, group, mask_creator=mask_creator, ) with tf_compat.Session() as sess: sess.run(tf_compat.global_variables_initializer()) sess.run( pruning_op_vars.update, feed_dict={ sparsity: sparsity_val, update_ready: False }, ) err_threshold = 1e-3 if not is_grouped_mask else 0.05 mask_sparsity = eval_tensor_sparsity(pruning_op_vars.mask) weight_sparsity = eval_tensor_sparsity(pruning_op_vars.op_input) assert mask_sparsity < err_threshold assert abs(mask_sparsity - weight_sparsity) <= 1e-4 masked_sparsity = eval_tensor_sparsity(pruning_op_vars.masked) assert masked_sparsity < err_threshold sess.run( pruning_op_vars.update, feed_dict={ sparsity: sparsity_val, update_ready: True }, ) mask_sparsity = eval_tensor_sparsity(pruning_op_vars.mask) assert abs(mask_sparsity - sparsity_val) < err_threshold masked_sparsity = eval_tensor_sparsity(pruning_op_vars.masked) assert abs(masked_sparsity - sparsity_val) < err_threshold res = sess.run(relu, feed_dict={inp: numpy.random.random((4, 8, 8, 64))}) assert res.sum() > 0.0 if is_grouped_mask: # Check that every value in the mask_creator grouping # is the same within the mask. Assumes grouping applies # an absolte mean to each grouping grouped_mask = mask_creator.group_tensor(pruning_op_vars.mask) mask_vals_are_grouped = tf_compat.reduce_all( tf_compat.logical_or( tf_compat.equal(grouped_mask, 0.0), tf_compat.equal(grouped_mask, 1.0), )) assert sess.run(mask_vals_are_grouped)