def test_testnet_checkpointall():
model = get_keras_model("test")
g = dfgraph_from_keras(mod=model)
assert g.size_fwd == 6
scheduler_result = solve_checkpoint_all(g)
assert scheduler_result.feasible
assert scheduler_result.schedule_aux_data.cpu == sum(g.cost_cpu.values())
def test_checkmate_to_simrd_analytical_cost():
if not have_checkmate:
return
test_log_filename = 'data/checkmate_simrd.log'
batch_size = 1
with open(test_log_filename, 'w') as test_log:
for name in MODEL_NAMES:
try:
model = get_keras_model(name)
dfg = dfgraph_from_keras(model,
batch_size=batch_size,
loss_cpu_cost=0,
loss_ram_cost=(4 * batch_size))
g = from_dfgraph(dfg)
rt, result, pr = run_baseline(g.get_closure(),
stats=True,
trace=True)
print('Baseline simrd results for {}:'.format(name),
file=test_log)
print(json.dumps(result, indent=2), file=test_log)
print(file=test_log)
except Exception as e:
print('Failed for {}:'.format(name), file=test_log)
print(traceback.format_exc(), file=test_log)
print(file=test_log)
print(
'saved Checkmate -> simrd test log to [{}]'.format(test_log_filename))
def execute_one(log_base: str,
solve_strategy: SolveStrategy,
model_name: str,
batch_size: int,
platform: str,
input_shape=None,
model_version="v1",
num_runs=16,
buffer_mem: int = 0) -> Tuple[Optional[RSResult], str, int]:
logger = setup_logger("eval_one")
results_and_keys = get_solutions_to_evaluate(solve_strategy, model_name,
batch_size, platform,
input_shape, model_version,
buffer_mem)
if not results_and_keys:
logger.info("No results found")
return None, "", 0
if not EAGER:
tf1.disable_eager_execution()
for result, result_key in results_and_keys:
tf.keras.backend.clear_session()
model = get_keras_model(model_name, input_shape=input_shape)
tf2 = TF2ExtractorParams(model,
batch_size=batch_size,
log_base=log_base)
loss_fn = categorical_cross_entropy # TODO: vgg_unet may need a different loss
graph = tf2.g
# TODO TEST THIS VS TENSORSPEC
runner = TF2Runner(model,
graph,
result.schedule,
loss_fn=loss_fn,
eager=EAGER,
log_base=log_base,
batch_size=batch_size)
try:
throughput = evaluate_solved_model(result=result,
runner=runner,
warmup=10 if EAGER else 64,
trials=num_runs,
batch_size=batch_size)
logger.info(
f"Successfully executed model with predicted memory usage {result.peak_ram}, "
f"predicted cpu {result.cpu}, actual throughput {throughput}")
return result, result_key, throughput
except Exception as e:
logger.error("Error running model with predicted mem usage %s: %s",
result.peak_ram, e)
logger.error("Traceback: %s", e.__traceback__)
logger.error("Skipping result, going to next candidate.")
return None, "", 0
def test_testnet_optimalilp():
try:
import gurobipy as _
except ImportError as e:
logging.exception(e)
logging.warning("Continuing with tests, gurobi not installed")
return
from remat.core.solvers.strategy_optimal_ilp import solve_ilp_gurobi
model = get_keras_model("test")
g = dfgraph_from_keras(mod=model)
assert g.size_fwd == 6
budget = sum(g.cost_ram.values()) + g.cost_ram_parameters
scheduler_result = solve_ilp_gurobi(g, budget)
assert scheduler_result.feasible
assert scheduler_result.schedule_aux_data.cpu <= sum(g.cost_cpu.values())
assert scheduler_result.schedule_aux_data.activation_ram <= sum(
g.cost_cpu.values())
assert scheduler_result.schedule_aux_data.peak_ram <= budget
from remat.core.solvers.strategy_checkpoint_all import solve_checkpoint_all, solve_checkpoint_all_ap
from remat.core.solvers.strategy_checkpoint_last import solve_checkpoint_last_node
from remat.core.solvers.strategy_chen import solve_chen_greedy, solve_chen_sqrtn
from remat.core.solvers.strategy_griewank import solve_griewank
from experiments.common.load_keras_model import get_keras_model
from remat.core.solvers.strategy_checkpoint_all import solve_checkpoint_all
from remat.tensorflow2.extraction import dfgraph_from_keras
if __name__ == "__main__":
model = get_keras_model("test")
g = dfgraph_from_keras(mod=model)
scheduler_result = solve_checkpoint_all(g)
print(scheduler_result.schedule)
def main():
tf1.logging.set_verbosity('ERROR')
parser = argparse.ArgumentParser()
parser.add_argument('-n',
'--model-name',
default='MobileNet',
choices=MODEL_NAMES)
parser.add_argument('-b', '--batch-size', type=int, default=1)
parser.add_argument('-s', '--input-shape', type=int, nargs='+', default=[])
parser.add_argument('-o', '--output-file', default=None)
parser.add_argument('-f', '--folder', default='profiles')
parser.add_argument('-l',
'--loss-function',
default='softmax_cross_entropy')
parser.add_argument('-c',
'--num-runs',
type=int,
default=1,
help='Number of runs of the operator. '
'Increase to reduce variance')
args = parser.parse_args()
input_shape = args.input_shape if args.input_shape else None
output_file = args.output_file
model_name = args.model_name
batch_size = args.batch_size
if output_file is None:
output_file = model_name + "_runtimes"
output_file = osp.join(args.folder, output_file)
model = get_keras_model(model_name, input_shape=input_shape)
loss_fn = eval("tf1.losses.{}".format(args.loss_function))
print("Num layers:", len(model.layers))
# Run first layer a few times (4). On GPUs, it seems the first graph run has some additional overhead.
print("Dummy runs of the first layer...")
get_exec_time_timeline(model.layers[1], batch_size, num_runs=3)
# Profile forward pass
print("Profile network start...")
forwards = [
get_exec_time_timeline(lyr, batch_size, num_runs=args.num_runs)
for lyr in model.layers[1:]
]
forwards_times, forwards_stds = map(list, zip(*forwards))
# Profile backward pass
backwards = [
get_exec_time_timeline(lyr,
batch_size,
get_grads=True,
num_runs=args.num_runs)
for lyr in reversed(model.layers[1:])
]
backwards_times, backwards_stds = map(list, zip(*backwards))
# Profile loss
logits_shape = (batch_size, *model.output.shape[1:])
print("logits_shape", logits_shape, "model output shape",
model.output.shape, "batch size", batch_size)
loss_time, loss_std = get_exec_time_loss(loss_fn,
logits_shape,
num_runs=args.num_runs)
runtimes = forwards_times + [loss_time] + backwards_times
stds = forwards_stds + [loss_std] + backwards_stds
print()
for t, std, lyr in zip(forwards_times, forwards_stds, model.layers[1:]):
print("fwd", t, "+-", std / t * 100, "%", lyr.__class__.__name__)
for t, std, lyr in zip(backwards_times, backwards_stds,
reversed(model.layers[1:])):
print("bwd", t, "+-", std / t * 100, "%", lyr.__class__.__name__)
print("loss", loss_time, "+-", loss_std / loss_time * 100, "%")
print()
np.save(output_file, (runtimes, stds))
from experiments.common.load_keras_model import MODEL_NAMES, get_keras_model
# MODEL_NAMES = ['VGG16', 'VGG19', 'MobileNet', 'fcn_8', 'pspnet', 'vgg_unet', 'unet', 'segnet', 'resnet50_segnet']
if __name__ == "__main__":
for name in MODEL_NAMES:
print(name, end=" ")
try:
model = get_keras_model(name, input_shape=None)
print(model.layers[0].input_shape)
except Exception as e:
print("ERROR for model", name, e)
if args.platform == "flops":
cost_model = None
else:
cost_model = CostModel(model_name, args.platform, log_base, quantization=5)
cost_model.fit()
# gen redis key
if cost_model is None:
key_list = ["flops", args.batch_size]
else:
key_list = [cost_model.platform, cost_model.quantization, args.batch_size]
redis_cost_key = "_".join(map(str, key_list))
# load model from Keras
logger.info(f"Loading model {model_name}")
model = get_keras_model(model_name, input_shape=args.input_shape)
g = dfgraph_from_keras(model, batch_size=args.batch_size, cost_model=cost_model,
loss_cpu_cost=0, loss_ram_cost=(4 * args.batch_size))
result_dict = pickle.load((log_base / 'result_dict.pickle').open('rb'))
simrd_eval_points = pickle.load((log_base / 'simrd_eval_points.pickle').open('rb'))
simrd_results = []
for heuristic in SIMRD_HEURISTICS:
simrd_results.append(run_simrd(g, heuristic, simrd_eval_points, SIMRD_LIVENESS))
# save simrd results and heuristics used
pickle.dump(simrd_results, (log_base / 'simrd_results.pickle').open('wb'), \
protocol=pickle.HIGHEST_PROTOCOL)
pickle.dump(SIMRD_HEURISTICS, (log_base / 'simrd_heuristics.pickle').open('wb'), \
protocol=pickle.HIGHEST_PROTOCOL)