def test_mlp_pp(self):
global _global_parallel_strategy
_global_parallel_strategy = "pp"
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh(mesh=[0, 1])
global PP_MESH_0
PP_MESH_0 = auto.ProcessMesh(mesh=[0])
global PP_MESH_1
PP_MESH_1 = auto.ProcessMesh(mesh=[1])
train_program = paddle.static.Program()
startup_program = paddle.static.Program()
dist_context = DistributedContext()
rank_id = 1
dist_main_prog, dist_startup_prog = get_dist_prog(
train_program, startup_program, dist_context, rank_id)
for key in list(_g_process_group_map.keys()):
del _g_process_group_map[key]
reshard(dist_main_prog, dist_startup_prog, rank_id, dist_context)
# print_program_with_dist_attr(dist_main_prog, dist_context)
# check send and recv result
self.assertTrue(check_send_recv_result(dist_main_prog, rank_id))
# parameter initialization of every rank should be different in the pipeline scene
self.assertTrue(check_initialization(dist_startup_prog, rank_id))
def get_model(self, place, gradient_merge, batch_size, max_step):
paddle.seed(2021)
random.seed(2021)
np.random.seed(2021)
hidden_size = 128
global _global_parallel_strategy
global _global_process_mesh
world_size = paddle.distributed.get_world_size()
if world_size == 1:
_global_parallel_strategy = "dp"
_global_process_mesh = auto.ProcessMesh([0])
elif world_size == 2:
_global_parallel_strategy = "dp"
_global_process_mesh = auto.ProcessMesh([0, 1])
train_program = static.Program()
startup_program = static.Program()
dist_strategy = fleet.DistributedStrategy()
dist_strategy.semi_auto = True
#if gradient_merge:
# dist_strategy.gradient_merge = True
# dist_strategy.gradient_merge_configs = {"k_steps": 4, "avg": True}
fleet.init(is_collective=True, strategy=dist_strategy)
with static.program_guard(train_program, startup_program), \
utils.unique_name.guard():
input = static.data(name="input",
shape=[batch_size, hidden_size],
dtype='float32')
label = static.data(name="label",
shape=[batch_size, 1],
dtype='float32')
input.stop_gradient = False
loss = mlp_forward(input, label, hidden_size)
optimizer = paddle.fluid.optimizer.SGDOptimizer(learning_rate=0.01)
#optimizer = paddle.fluid.optimizer.Adam(learning_rate=0.01)
optimizer = fleet.distributed_optimizer(optimizer)
_, self._params_grads, dist_startup_prog, dist_main_prog = optimizer.minimize(
loss, startup_program)
input_data = np.random.random(size=(128,
hidden_size)).astype('float32')
label_data = np.random.random(size=(128, 1)).astype('float32')
def reader():
for i in range(max_step):
x_data = input_data[i * batch_size:(i + 1) * batch_size, :]
y_data = label_data[i * batch_size:(i + 1) * batch_size, :]
yield x_data, y_data
return dist_main_prog, dist_startup_prog, [input,
label], [loss], reader
def test_input_invalid(self):
set_default_distributed_context(None)
global _global_parallel_strategy
_global_parallel_strategy = "mp"
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh([0, 1])
dist_main_prog, _, _ = get_distributed_program()
with self.assertRaises(TypeError):
save_distributed_checkpoint(dist_main_prog, [""], [""],
addition_info=[0])
with self.assertRaises(ValueError):
save_distributed_checkpoint(dist_main_prog, [""], [""],
addition_info={"step": 0})
with self.assertRaises(ValueError):
save_distributed_checkpoint(dist_main_prog, [""], [""],
addition_info={"batch": 0.0})
with self.assertRaises(ValueError):
load_checkpoint_into_program(["./model_state_rank.pdmodel"],
["./dist_attr_rank.pdattr"],
dist_main_prog)
with self.assertRaises(ValueError):
load_distributed_checkpoint(["./model_state_rank.pdmodel"],
["./dist_attr_rank.pdattr"])
with self.assertRaises(TypeError):
load_distributed_checkpoint({"0": "./model_state_rank.pdmodel"},
{"1": "./dist_attr_rank.pdattr"})
def train():
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh(mesh=[0, 1])
dist_strategy = fleet.DistributedStrategy()
dist_strategy.amp = False
dist_strategy.pipeline = False
dist_strategy.recompute = False
# init parallel optimizer
dist_strategy.semi_auto = True
fleet.init(is_collective=True, strategy=dist_strategy)
train_program = static.Program()
start_program = static.Program()
loss, train_program, start_program, loader = mlp_pretrain_forward(
train_program, start_program)
optimizer = paddle.fluid.optimizer.AdamOptimizer(learning_rate=0.00001,
beta1=0.9,
beta2=0.999,
epsilon=1e-08,
grad_clip=None)
optimizer = fleet.distributed_optimizer(optimizer)
_, _, distributed_startup_program, distributed_main_program = optimizer.minimize(
loss, start_program)
places = static.cuda_places()
loader.set_batch_generator(batch_generator_creator(), places=places)
exe = paddle.static.Executor(places[0])
exe.run(distributed_startup_program)
for data in loader():
exe.run(distributed_main_program, feed=data, fetch_list=[loss])
def test_new_local_tensor(self):
test_auto_parallel_reshard._global_process_mesh = auto.ProcessMesh(
mesh=[0, 1])
test_auto_parallel_reshard._global_parallel_strategy = "dp"
train_program = paddle.static.Program()
startup_program = paddle.static.Program()
dist_context = DistributedContext()
rank_id = 0
dist_main_prog, dist_startup_prog, complete_train_program = get_dist_prog(
train_program, startup_program, dist_context, rank_id)
dist_context.dist_main_programs[rank_id] = dist_main_prog
dist_context.dist_startup_programs[rank_id] = dist_startup_prog
name = "layer_norm_1.tmp_2"
dist_tensor = dist_context.get_dist_tensor_for_program(
complete_train_program.global_block().vars[name])
dist_tensor._dist_context = dist_context
intermediate_var_0 = dist_tensor.new_local_tensor(
name="intermediate_var_0")
self.assertEqual(intermediate_var_0.shape, (2, 1024))
self.assertEqual(intermediate_var_0.name, "intermediate_var_0")
rank_id = 1
train_program = paddle.static.Program()
startup_program = paddle.static.Program()
dist_context = DistributedContext()
dist_main_prog, dist_startup_prog, complete_train_program = get_dist_prog(
train_program, startup_program, dist_context, rank_id, None)
dist_context.dist_main_programs[rank_id] = dist_main_prog
dist_context.dist_startup_programs[rank_id] = dist_startup_prog
name = "layer_norm_1.tmp_2"
dist_tensor = dist_context.get_dist_tensor_for_program(
complete_train_program.global_block().vars[name])
dist_tensor._dist_context = dist_context
intermediate_var_1 = dist_tensor.new_local_tensor(
rank=rank_id, name="intermediate_var_1")
self.assertEqual(intermediate_var_0.shape, (2, 1024))
self.assertEqual(intermediate_var_1.name, "intermediate_var_1")
name = "linear_0.w_0"
dist_tensor = dist_context.get_dist_tensor_for_program(
complete_train_program.global_block().vars[name])
dist_tensor._dist_context = dist_context
intermediate_var_1 = dist_tensor.new_local_tensor(
rank=rank_id, name="linear_0.w_0_intermediate")
self.assertEqual(intermediate_var_1.shape, (1024, 4096))
self.assertEqual(intermediate_var_1.name, "linear_0.w_0_intermediate")
copied_dist_context = copy.deepcopy(dist_context)
self.assertIsNotNone(copied_dist_context)
self.assertEqual(
id(copied_dist_context),
id(
copied_dist_context.get_dist_tensor_for_program(
dist_tensor.serial_tensor).dist_context))
def test_update(self):
train_program = paddle.static.Program()
startup_program = paddle.static.Program()
_, train_program, startup_program = mlp_forward(
train_program, startup_program)
global_process_mesh = auto.ProcessMesh(mesh=[0, 1])
dist_context = DistributedContext()
set_default_dist_attr(train_program, dist_context, global_process_mesh)
ops = train_program.global_block().ops
vars = train_program.global_block().vars
from paddle.distributed.auto_parallel.operators.common import get_distributed_operator_impl_container
from paddle.distributed.auto_parallel.operators.common import is_elementwise_op
from paddle.distributed.auto_parallel.dist_op import DistributedOperator
for op in ops:
dist_op_impl_container = get_distributed_operator_impl_container(
op.type)
if dist_op_impl_container is None:
op_dist_attr = dist_context.get_op_dist_attr_for_program(op)
dist_op = DistributedOperator(op, op_dist_attr)
if is_elementwise_op(op.type):
changed = update_op_dims_mapping_by_elementwise_like_dist_impl(
dist_op)
self.assertFalse(changed)
dist_op.dist_attr.set_output_dims_mapping(
op.output_arg_names[0], [0] + [
-1 for i in range(
1, len(vars[op.output_arg_names[0]].shape))
])
try:
changed = update_op_dims_mapping_by_elementwise_like_dist_impl(
dist_op)
except:
continue
self.assertTrue(changed)
else:
changed = update_op_dims_mapping_by_default_dist_impl(
dist_op)
self.assertFalse(changed)
dist_op.dist_attr.set_output_dims_mapping(
op.output_arg_names[0], [0] + [
-1 for i in range(
1, len(vars[op.output_arg_names[0]].shape))
])
try:
changed = update_op_dims_mapping_by_default_dist_impl(
dist_op)
except:
continue
self.assertTrue(changed)
def make_program_serial():
main_program = paddle.fluid.Program()
start_program = paddle.fluid.Program()
with paddle.static.program_guard(main_program, start_program):
x = paddle.static.data(name='x', shape=[4, 5, 6], dtype='float32')
x.stop_gradient = False
auto.shard_tensor(x,
dist_attr={
"process_mesh": auto.ProcessMesh([0]),
"dims_mapping": [-1, -1, -1]
})
tmp_0 = paddle.norm(x, p=2)
return main_program, start_program, tmp_0
def test_allgather(self):
train_program = paddle.static.Program()
startup_program = paddle.static.Program()
process_mesh = auto.ProcessMesh(mesh=[0, 3])
with static.program_guard(train_program, startup_program):
x = paddle.static.data(name="x", shape=[4, 4], dtype='float32')
x = auto.shard_tensor(x,
dist_attr={
"process_mesh": process_mesh,
"dims_mapping": [0, -1]
})
w = paddle.static.data(name="w", shape=[4, 4], dtype='float32')
w = auto.shard_tensor(w,
dist_attr={
"process_mesh": process_mesh,
"dims_mapping": [-1, -1]
})
# y = paddle.distributed.shard_op(paddle.matmul, process_mesh, {
# x.name: [-1, -1],
# w.name: [-1, -1]
# }, **{"x": x,
# "y": w})[0]
y = paddle.distributed.shard_op(paddle.matmul,
dist_attr={
"process_mesh": process_mesh,
x: {
"dims_mapping": [-1, -1]
},
w: {
"dims_mapping": [-1, -1]
}
})(x, w)[0]
rank_id = 0
dist_context = DistributedContext()
dist_strategy = fleet.DistributedStrategy()
partitioner = Partitioner(dist_context, rank_id)
completer = Completer(dist_context)
complete_train_program = completer.complete_forward_annotation(
train_program)
dist_context.block_state.parse_forward_blocks(complete_train_program)
partitioned_main_prog, partitioned_startup_prog, partitioned_params_grads = partitioner.partition(
complete_train_program, startup_program, [])
resharder = Resharder(partitioned_main_prog, partitioned_startup_prog,
rank_id, dist_context, partitioned_params_grads)
resharder.reshard()
# the x should not be slice
self.assertTrue(check_allgather(partitioned_main_prog))
def test_decoder_dp(self):
global _global_parallel_strategy
_global_parallel_strategy = "dp"
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh(mesh=[0, 1, 2, 3])
train_program = static.Program()
start_program = static.Program()
dist_context = DistributedContext()
train_program, start_program = decoder_pretrain_forward(
train_program, start_program)
completer = Completer(dist_context)
complete_train_program = completer.complete_forward_annotation(
train_program)
self.assertTrue(dist_context.validate_dist_attr_for_program())
def test_mlp_serial(self):
global _global_parallel_strategy
_global_parallel_strategy = None
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh(mesh=[0])
train_program = paddle.static.Program()
startup_program = paddle.static.Program()
dist_context = get_default_distributed_context()
rank_id = 0
dist_main_prog, dist_startup_prog = get_dist_prog_with_parallelizer(
train_program, startup_program, dist_context)
# send and recv should not exist in serial scene.
self.assertFalse(check_send_recv_result(dist_main_prog, rank_id))
def make_program_dp2():
main_program = paddle.fluid.Program()
start_program = paddle.fluid.Program()
with paddle.static.program_guard(main_program, start_program):
x = paddle.static.data(name='x', shape=[4, 5, 6], dtype='float32')
auto.shard_tensor(x,
dist_attr={
"process_mesh": auto.ProcessMesh([0, 1]),
"dims_mapping": [0, -1, -1]
})
tmp_0 = x[0]
tmp_1 = x[:, 0, :]
tmp_2 = x[:, :, 1]
tmp_3 = x[:2, :2, :2]
return main_program, start_program
def test_attn_dp(self):
global _global_parallel_strategy
_global_parallel_strategy = "dp"
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh(mesh=[0, 1, 2, 3])
train_program = static.Program()
start_program = static.Program()
dist_context = DistributedContext()
train_program, start_program = attn_pretrain_forward(
train_program, start_program)
complete_train_program = auto.complete_annotation(
train_program, dist_context)
# print_program_with_dist_attr(complete_train_program,
# dist_context)
self.assertTrue(dist_context.validate_dist_attr_for_program())
def make_program_dp2():
main_program = paddle.fluid.Program()
start_program = paddle.fluid.Program()
with paddle.static.program_guard(main_program, start_program):
x = paddle.static.data(name='x', shape=[4, 4, 8], dtype='float32')
x.stop_gradient = False
auto.shard_tensor(x,
dist_attr={
"process_mesh": auto.ProcessMesh([0, 1]),
"dims_mapping": [0, -1, -1]
})
tmp_0 = paddle.reshape(x, shape=[0, 0, 4, 2])
tmp_1 = paddle.reshape(tmp_0, shape=[0, 0, 8])
tmp_2 = tmp_1.reshape((tmp_1.shape[0], tmp_1.shape[1], -1))
return main_program, start_program
def test_mlp_mp(self):
global _global_parallel_strategy
_global_parallel_strategy = "mp"
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh([0, 1])
dist_main_prog, dist_start_prog, loss = get_distributed_program()
place = paddle.set_device("gpu")
exe = paddle.static.Executor(place)
exe.run(dist_start_prog)
input = np.random.random(size=(80, 64)).astype('float32')
label = np.random.random(size=(80, 1)).astype('float32')
for step in range(20):
if step == 10:
path = "./output_mp{}".format(paddle.distributed.get_rank())
os.makedirs(path, exist_ok=True)
save_distributed_checkpoint(dist_main_prog, path, path)
res = exe.run(dist_main_prog,
feed={
"input": input[step * 4:(step + 1) * 4, :],
"label": label[step * 4:(step + 1) * 4, :]
},
fetch_list=[loss])
last_res = res[0]
ckpt_path = [
"./output_mp0/model_state_rank0.pdmodel",
"./output_mp1/model_state_rank1.pdmodel"
]
dist_attr_path = [
"./output_mp0/dist_attr_rank0.pdattr",
"./output_mp1/dist_attr_rank1.pdattr"
]
load_checkpoint_into_program(ckpt_path, dist_attr_path, dist_main_prog)
for step in range(10, 20):
res = exe.run(dist_main_prog,
feed={
"input": input[step * 4:(step + 1) * 4, :],
"label": label[step * 4:(step + 1) * 4, :]
},
fetch_list=[loss])
self.assertEqual(last_res, res[0])
shutil.rmtree("./output_mp{}".format(paddle.distributed.get_rank()))
def test_instance_method(self):
tensor_dist_attr = TensorDistributedAttribute()
tensor_dist_attr.dims_mapping = [1, 0]
tensor_dist_attr.process_mesh = auto.ProcessMesh(
mesh=[[0, 1, 2], [3, 4, 5]])
serial_tensor = paddle.static.data(name="data",
shape=[6, 6],
dtype='float32')
dist_tensor = DistributedTensor(serial_tensor, tensor_dist_attr)
# rank 0 [(0, 2), (0, 3)]
# rank 1 [(2, 4), (0, 3)]
# rank 4 [(2, 4), (3, 6)]
rank = 0
local_sizes = dist_tensor.local_sizes(rank)
self.assertEqual(local_sizes, [2, 3])
local_offsets = dist_tensor.local_offsets(rank)
self.assertEqual(local_offsets, [0, 0])
local_shard = dist_tensor.local_shard(rank)
self.assertEqual(local_shard, [(0, 2), (0, 3)])
self.assertEqual(local_sizes, dist_tensor.local_sizes(rank))
self.assertEqual(local_offsets, dist_tensor.local_offsets(rank))
self.assertEqual(local_shard, dist_tensor.local_shard(rank))
self.assertEqual(local_sizes, dist_tensor.local_sizes())
self.assertEqual(local_offsets, dist_tensor.local_offsets())
self.assertEqual(local_shard, dist_tensor.local_shard())
rank = 1
local_sizes = dist_tensor.local_sizes(rank)
self.assertEqual(local_sizes, [2, 3])
local_offsets = dist_tensor.local_offsets(rank)
self.assertEqual(local_offsets, [2, 0])
local_shard = dist_tensor.local_shard(rank)
self.assertEqual(local_shard, [(2, 4), (0, 3)])
rank = 4
local_sizes = dist_tensor.local_sizes(rank)
self.assertEqual(local_sizes, [2, 3])
local_offsets = dist_tensor.local_offsets(rank)
self.assertEqual(local_offsets, [2, 3])
local_shard = dist_tensor.local_shard(rank)
self.assertEqual(local_shard, [(2, 4), (3, 6)])
global_sizes = dist_tensor.global_sizes()
self.assertEqual(global_sizes, (6, 6))
def test_mlp_dp(self):
global _global_parallel_strategy
_global_parallel_strategy = "dp"
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh(mesh=[0, 1])
train_program = paddle.static.Program()
startup_program = paddle.static.Program()
dist_context = DistributedContext()
rank_id = 0
dist_main_prog, dist_startup_prog = get_dist_prog(
train_program, startup_program, dist_context, rank_id)
reshard(dist_main_prog, dist_startup_prog, rank_id, dist_context)
# send and recv should not exist in dp scene.
self.assertFalse(check_send_recv_result(dist_main_prog, rank_id))
# all parameters should be initialized in dp scene
self.assertTrue(check_initialization_for_dp(dist_startup_prog))
def create_model(train_program, start_program):
with paddle.static.program_guard(train_program, start_program):
MESH_0 = auto.ProcessMesh([0, 1])
input = paddle.static.data(name='input', shape=[8, 8])
label = paddle.static.data(name='label', shape=[8, 8])
weight_attr = paddle.ParamAttr(
initializer=nn.initializer.Normal(mean=0.0, std=0.02))
linear0 = nn.Linear(8, 8, weight_attr)
linear1 = nn.Linear(8, 8, weight_attr)
auto.shard_tensor(input,
dist_attr={
"process_mesh": MESH_0,
"dims_mapping": [-1, -1]
})
auto.shard_tensor(label,
dist_attr={
"process_mesh": MESH_0,
"dims_mapping": [-1, -1]
})
auto.shard_tensor(linear0.weight,
dist_attr={
"process_mesh": MESH_0,
"dims_mapping": [-1, 0]
})
auto.shard_tensor(linear1.weight,
dist_attr={
"process_mesh": MESH_0,
"dims_mapping": [0, -1]
})
linear0_out = linear0(input)
gelu_out = F.gelu(linear0_out)
linear1_out = linear1(gelu_out)
error_cost = paddle.nn.functional.square_error_cost(
linear1_out, label)
loss = paddle.mean(error_cost)
return train_program, start_program, loss, input, label
def test_complete_backward_annotation(self):
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh(mesh=[0, 1])
train_program = paddle.static.Program()
startup_program = paddle.static.Program()
dist_context = DistributedContext()
rank_id = 0
dist_main_prog, dist_startup_prog = get_dist_prog(
train_program, startup_program, dist_context, 0)
op_need_check = None
for op in dist_main_prog.global_block().ops:
if op.type == "gelu_grad":
op_need_check = op
break
# print_program_with_dist_attr(dist_main_prog, dist_context)
# grad op should have dist attr
self.assertTrue(
check_backward_dist_attr(dist_context, dist_main_prog,
op_need_check))
def init_prog(self):
# block = self.main_program.global_block()
# block = self.main_program.global_block()
self.w = self.layer_help.create_parameter(
dtype="float", shape=[20], attr=None)
self.w_grad = paddle.static.data(
name='w_grad', shape=[20], dtype='float')
self.tmp1 = paddle.static.data(name='tmp1', shape=[20], dtype='float')
self.tmp2 = paddle.static.data(name='tmp2', shape=[20], dtype='float')
self.batch_reduced = paddle.static.data(
name='batch_reduced', shape=[1], dtype='float')
self.attrs = {}
default_dist_context = get_default_distributed_context()
_global_process_mesh = auto.ProcessMesh(list(range(nranks)))
tensor_dist_attr = set_var_dist_attr(
default_dist_context,
self.tmp1, [-1],
_global_process_mesh,
mark_annotated=True)
tensor_dist_attr = set_var_dist_attr(
default_dist_context,
self.tmp1, [-1],
_global_process_mesh,
mark_annotated=True)
op = self.layer_help.append_op(
type="add_p",
inputs={'X': self.tmp1,
'Y': self.w},
outputs={'Z': self.w_grad},
attrs=self.attrs)
op = self.layer_help.append_op(
type="reduce_p",
inputs={'X': self.tmp2},
outputs={'Y': self.batch_reduced},
attrs={"axis": [0]})
def test_mlp_serial(self):
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh(mesh=[0, 1])
dist_strategy = fleet.DistributedStrategy()
dist_strategy.amp = False
dist_strategy.pipeline = False
dist_strategy.recompute = False
# init parallel optimizer
dist_strategy.semi_auto = True
fleet.init(is_collective=True, strategy=dist_strategy)
train_program = static.Program()
start_program = static.Program()
loss, train_program, start_program = mlp_pretrain_forward(
train_program, start_program)
optimizer = paddle.fluid.optimizer.AdamOptimizer(learning_rate=0.00001,
beta1=0.9,
beta2=0.999,
epsilon=1e-08,
grad_clip=None)
optimizer = fleet.distributed_optimizer(optimizer)
_, _, distributed_startup_program, distributed_main_program = optimizer.minimize(
loss, start_program)
suffix = core.kAutoParallelSuffix()
for block in distributed_main_program.blocks:
for op in block.ops:
for attr_name in op.attr_names:
self.assertTrue(suffix not in attr_name)
# print_program_with_dist_attr(distributed_main_program)
self.assertIsNotNone(distributed_startup_program)
self.assertIsNotNone(distributed_main_program)
def get_gpt_model(self, strategy, place, batch_size, sequence_len,
vocab_size):
modeling.init_global()
if strategy == "dp":
modeling._global_parallel_strategy = "dp"
modeling._global_process_mesh = auto.ProcessMesh(mesh=[0, 1])
elif strategy == "mp":
modeling._global_parallel_strategy = "mp"
modeling._global_process_mesh = auto.ProcessMesh(mesh=[0, 1])
else:
raise ValueError("'get_gpt_model' only support dp and mp.")
tokens = paddle.static.data(name="tokens",
shape=[batch_size, sequence_len],
dtype='int64')
position_ids = paddle.static.data(name="position_ids",
shape=[batch_size, sequence_len],
dtype='int64')
attention_mask = paddle.static.data(
name="attention_mask",
shape=[batch_size, 1, sequence_len, sequence_len],
dtype='float32')
labels = paddle.static.data(name="labels",
shape=[batch_size, sequence_len],
dtype='int64')
loss_mask = paddle.static.data(name="loss_mask",
shape=[batch_size, sequence_len],
dtype='float32')
data_holder = [tokens, position_ids, attention_mask, labels, loss_mask]
if modeling._global_parallel_strategy == "dp":
auto.shard_tensor(tokens,
dist_attr={
"process_mesh":
modeling._global_process_mesh,
"dims_mapping": [0, -1]
})
elif modeling._global_parallel_strategy == "pp":
auto.shard_tensor(tokens,
dist_attr={
"process_mesh": modeling.PP_MESH_LIST[0],
"dims_mapping": [-1, -1]
})
auto.shard_tensor(attention_mask,
dist_attr={
"process_mesh": modeling.PP_MESH_LIST[0],
"dims_mapping": [-1, -1, -1, -1]
})
gpt = GPTModel(vocab_size=1000,
hidden_size=64,
num_hidden_layers=2,
num_attention_heads=8,
intermediate_size=256,
hidden_act="gelu",
hidden_dropout_prob=0.0,
attention_probs_dropout_prob=0.0,
max_position_embeddings=1024,
type_vocab_size=1,
initializer_range=0.02,
pad_token_id=0,
eos_token_id=7,
bos_token_id=0,
eol_token_id=3)
model = GPTForPretraining(gpt,
vocab_size=1000,
hidden_size=64,
initializer_range=0.02)
preds = model(tokens, position_ids, attention_mask)
criterion = GPTPretrainingCriterion()
loss = criterion(preds, labels, loss_mask)
clip = paddle.nn.ClipGradByNorm(clip_norm=1.0)
optimizer = paddle.fluid.optimizer.AdamOptimizer(learning_rate=0.00001,
beta1=0.9,
beta2=0.999,
epsilon=1e-08,
grad_clip=clip)
optimizer = fleet.distributed_optimizer(optimizer)
startup_program = paddle.static.default_startup_program()
_, _, dist_startup_prog, dist_main_prog = optimizer.minimize(
loss, startup_program)
def gen_data():
np.random.seed(2021)
for _ in range(10):
tokens = []
position_ids = []
attention_mask = []
labels = []
loss_mask = []
for _ in range(batch_size):
tokens.append(
np.random.randint(vocab_size, size=sequence_len))
position_ids.append(np.arange(sequence_len))
attention_mask.append([np.tril(np.ones(sequence_len))])
labels.append(
np.random.randint(vocab_size, size=sequence_len))
loss_mask.append(np.ones(sequence_len))
yield tokens, position_ids, attention_mask, labels, loss_mask
return dist_main_prog, dist_startup_prog, data_holder, [loss], gen_data
def enum_valid_dist_attr_for_program(program,
process_mesh_topology,
is_pipeline=False):
"""Enumerate valid distributed attributes for all ops in program."""
valid_dist_attr_dict = OrderedDict()
ops = program.global_block().ops
vars = program.global_block().vars
processes = reduce(lambda x, y: x * y, process_mesh_topology)
global_group = [i for i in range(processes)]
global_process_mesh = None
pipeline_process_meshes = None
# in the pipeline mode, there are some process meshes
if is_pipeline:
pipeline_stages = process_mesh_topology[-1]
op_count_per_stage = len(ops) // pipeline_stages
if len(process_mesh_topology) > 1:
process_mesh_shape = process_mesh_topology[:-1]
per_process_mesh_group = processes // pipeline_stages
pipeline_process_meshes = [auto.ProcessMesh(mesh=np.array(global_group[i*per_process_mesh_group: \
(i+1)*per_process_mesh_group]).reshape(process_mesh_shape).tolist()) for i in range(pipeline_stages)]
elif len(process_mesh_topology) == 1:
pipeline_process_meshes = [
auto.ProcessMesh(mesh=[i]) for i in range(pipeline_stages)
]
else:
if len(process_mesh_topology) > 1:
global_process_mesh = auto.ProcessMesh(mesh=np.array(
global_group).reshape(process_mesh_topology).tolist())
else:
global_process_mesh = auto.ProcessMesh(mesh=global_group)
# enumerate valid distributed attribute for each op in the program
for idx, op in enumerate(ops):
op_valid_dist_attrs = None
op_process_mesh = global_process_mesh
pipeline_stage = -1
if pipeline_process_meshes is not None:
pipeline_stage = idx // op_count_per_stage if idx // op_count_per_stage < len(
pipeline_process_meshes) else idx // op_count_per_stage - 1
if pipeline_stage >= len(pipeline_process_meshes):
pipeline_stage = len(pipeline_process_meshes) - 1
op_process_mesh = pipeline_process_meshes[pipeline_stage]
if op.type in PlanSpace.not_enum_ops:
op_dist_attr = OperatorDistributedAttribute()
op_dist_attr.process_mesh = op_process_mesh
for var_name in op.input_arg_names:
if var_name in PlanSpace.special_vars:
op_dist_attr.set_input_dims_mapping(var_name, [])
else:
dims_mapping = [-1 for i in vars[var_name].shape]
op_dist_attr.set_input_dims_mapping(
var_name, dims_mapping)
for var_name in op.output_arg_names:
if var_name in PlanSpace.special_vars:
op_dist_attr.set_output_dims_mapping(var_name, [])
else:
dims_mapping = [-1 for i in vars[var_name].shape]
op_dist_attr.set_output_dims_mapping(
var_name, dims_mapping)
op_valid_dist_attrs = [op_dist_attr]
pipeline_stage = 0 if pipeline_stage != -1 else pipeline_stage
else:
op_valid_dist_attrs = PlanSpace._enum_valid_dist_attr_for_op(
program, op, op_process_mesh)
assert op_valid_dist_attrs is not None, "Enumerate {} valid distributed attribute failed.".format(
op)
valid_dist_attr_dict[op.desc.id()] = [
op_valid_dist_attrs, pipeline_stage
]
return valid_dist_attr_dict, pipeline_process_meshes, global_process_mesh
import paddle.nn.functional as F
import paddle.utils as utils
import paddle.distributed.auto_parallel as auto
from paddle.distributed.auto_parallel.completion import Completer
from paddle.distributed.auto_parallel.dist_context import DistributedContext
from paddle.distributed import fleet
from paddle.distributed.auto_parallel.partitioner import Partitioner
from paddle.distributed.auto_parallel.parallelizer import AutoParallelizer
from paddle.distributed.auto_parallel.reshard import Resharder
from paddle.distributed.auto_parallel.cost_model import estimate_cost
import paddle.fluid.core as core
from paddle.distributed.auto_parallel.utils import print_program_with_dist_attr
paddle.enable_static()
_global_parallel_strategy = "dp_mp_pp"
PP_MESH_0 = auto.ProcessMesh([[0, 1], [4, 5]])
PP_MESH_1 = auto.ProcessMesh([[2, 3], [6, 7]])
NUM_RANKS = 8
STAGE_0_CNT = 5
STAGE_1_CNT = 10
pp_cfg = [[0, 1, 4, 5], [2, 3, 6, 7]]
device = "gpu" if core.is_compiled_with_cuda() else "cpu"
class MLPLayer(nn.Layer):
def __init__(self,
hidden_size=256,
intermediate_size=4 * 256,
initializer_range=0.02,
is_distributed=True):
import subprocess
import paddle
import paddle.nn as nn
import paddle.fluid as fluid
import paddle.static as static
import paddle.nn.functional as F
import paddle.utils as utils
from paddle.fluid import layers
from paddle.io import Dataset, IterableDataset, DataLoader
from paddle.static import InputSpec
from paddle.distributed import fleet
import paddle.distributed.auto_parallel as auto
from paddle.distributed.auto_parallel.engine import Engine
paddle.enable_static()
global_process_mesh = auto.ProcessMesh(mesh=[0, 1])
PP_MESH_0 = auto.ProcessMesh([0])
PP_MESH_1 = auto.ProcessMesh([1])
batch_size = 1
batch_num = 10
hidden_size = 1024
sequence_len = 512
image_size = hidden_size
class_num = 10
paddle.seed(44)
class MyDataset(Dataset):
def __init__(self, num_samples):
super(MyDataset, self).__init__()
from paddle.distributed import fleet
from paddle.distributed.auto_parallel.completion import Completer
from paddle.distributed.auto_parallel.partitioner import Partitioner
from paddle.distributed.auto_parallel.utils import make_data_unshard
from paddle.distributed.auto_parallel.dist_attribute import OperatorDistributedAttribute, TensorDistributedAttribute
from paddle.distributed.auto_parallel.dist_context import DistributedContext, get_default_distributed_context
from paddle.distributed.auto_parallel.operators import find_compatible_distributed_operator_impls
from paddle.distributed.auto_parallel.utils import print_program_with_dist_attr
paddle.enable_static()
batch_size = 4
epoch_num = 10
hidden_size = 1024
sequence_len = 512
_g_process_mesh = auto.ProcessMesh([0, 1])
def get_random_inputs_and_labels(input_shape, label_shape):
input = np.random.random(size=input_shape).astype('float32')
label = np.random.random(size=label_shape).astype('float32')
return input, label
def batch_generator_creator():
def __reader__():
for _ in range(batch_size):
batch_input, batch_label = get_random_inputs_and_labels(
[batch_size, sequence_len, hidden_size],
[batch_size, sequence_len, 1])
yield batch_input, batch_label
def test_mlp_pp2mp(self):
set_default_distributed_context(None)
global _global_parallel_strategy
_global_parallel_strategy = "pp"
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh([0, 1])
global PP_MESH_0
PP_MESH_0 = auto.ProcessMesh(mesh=[0])
global PP_MESH_1
PP_MESH_1 = auto.ProcessMesh(mesh=[1])
input = np.random.random(size=(80, 64)).astype('float32')
label = np.random.random(size=(80, 1)).astype('float32')
dist_main_prog, dist_start_prog, loss = get_distributed_program()
place = paddle.set_device("gpu")
exe = paddle.static.Executor(place)
exe.run(dist_start_prog)
for step in range(20):
if step == 10:
add_info = {"batch": step, "batch_size": 4}
save_distributed_checkpoint(dist_main_prog, ".", ".", add_info)
if paddle.distributed.get_rank() in [0]:
res = exe.run(dist_main_prog,
feed={
"input": input[step * 4:(step + 1) * 4, :],
"label": label[step * 4:(step + 1) * 4, :]
})
else:
res = exe.run(dist_main_prog,
feed={
"input": input[step * 4:(step + 1) * 4, :],
"label": label[step * 4:(step + 1) * 4, :]
},
fetch_list=[loss])
if paddle.distributed.get_rank() in [1]:
last_res = res[0]
set_default_distributed_context(None)
_global_parallel_strategy = "mp"
_global_process_mesh = auto.ProcessMesh([0, 1])
dist_main_prog_load, dist_start_prog_load, loss_load = get_distributed_program(
)
place = paddle.set_device("gpu")
exe = paddle.static.Executor(place)
exe.run(dist_start_prog_load)
ckpt_path = [
"./model_state_rank0.pdmodel", "./model_state_rank1.pdmodel"
]
dist_attr_path = [
"./dist_attr_rank0.pdattr", "./dist_attr_rank1.pdattr"
]
param_dict, pre_dist_attr, add_info = load_distributed_checkpoint(
ckpt_path, dist_attr_path)
batch = add_info["batch"]
batch_size = add_info["batch_size"]
start_index = batch * batch_size
input = input[start_index:, :]
label = label[start_index:, :]
cur_dist_attr = get_dist_attr(dist_main_prog_load)
sliced_param_dict = merge_and_slice_parameter(param_dict,
pre_dist_attr,
cur_dist_attr)
load_parameter_into_program(sliced_param_dict, dist_main_prog_load)
for step in range(10):
res = exe.run(dist_main_prog_load,
feed={
"input": input[step * 4:(step + 1) * 4, :],
"label": label[step * 4:(step + 1) * 4, :]
},
fetch_list=[loss_load])
if paddle.distributed.get_rank() in [1]:
self.assertEqual(last_res, res[0])
import paddle.nn as nn
import paddle.static as static
import paddle.nn.functional as F
import paddle.utils as utils
import paddle.distributed.auto_parallel as auto
from paddle.distributed.auto_parallel.completion import Completer
from paddle.distributed.auto_parallel.dist_context import DistributedContext
from paddle.distributed import fleet
from paddle.distributed.auto_parallel.parallelizer import AutoParallelizer
from paddle.distributed.auto_parallel.partitioner import Partitioner
from paddle.distributed.auto_parallel.reshard import Resharder
from paddle.distributed.auto_parallel.utils import print_program_with_dist_attr
paddle.enable_static()
_global_parallel_strategy = "dp_mp_pp"
_global_process_mesh = auto.ProcessMesh([[[0, 1], [4, 5]], [[2, 3], [6, 7]]])
PP_MESH_0 = auto.ProcessMesh([[0, 1], [4, 5]])
PP_MESH_1 = auto.ProcessMesh([[2, 3], [6, 7]])
class MLPLayer(nn.Layer):
def __init__(self,
hidden_size=1024,
intermediate_size=4 * 1024,
initializer_range=0.02):
super(MLPLayer, self).__init__()
d_model = hidden_size
dim_feedforward = intermediate_size
weight_attr = paddle.ParamAttr(
initializer=nn.initializer.Normal(mean=0.0, std=initializer_range))
bias_attr = None
import paddle
import paddle.nn as nn
import paddle.static as static
import paddle.nn.functional as F
import paddle.utils as utils
import paddle.distributed.auto_parallel as auto
from paddle.distributed.auto_parallel.dist_context import DistributedContext
from paddle.distributed import fleet
from paddle.distributed.auto_parallel.parallelizer import AutoParallelizer
from paddle.distributed.auto_parallel.partitioner import Partitioner
from paddle.distributed.auto_parallel.reshard import reshard
from paddle.distributed.auto_parallel.utils import print_program_with_dist_attr
paddle.enable_static()
_global_parallel_strategy = "mp_pp"
_global_process_mesh = auto.ProcessMesh([[0, 1], [2, 3]])
PP_MESH_0 = auto.ProcessMesh([0, 1])
PP_MESH_1 = auto.ProcessMesh([2, 3])
class MLPLayer(nn.Layer):
def __init__(self,
hidden_size=1024,
intermediate_size=4 * 1024,
initializer_range=0.02):
super(MLPLayer, self).__init__()
d_model = hidden_size
dim_feedforward = intermediate_size
weight_attr = paddle.ParamAttr(
initializer=nn.initializer.Normal(mean=0.0, std=initializer_range))
bias_attr = None
def test_mlp_mp2pp(self):
set_default_distributed_context(None)
global _global_parallel_strategy
_global_parallel_strategy = "mp"
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh([0, 1])
input = np.random.random(size=(80, 64)).astype('float32')
label = np.random.random(size=(80, 1)).astype('float32')
dist_main_prog, dist_start_prog, loss = get_distributed_program()
place = paddle.set_device("gpu")
exe = paddle.static.Executor(place)
exe.run(dist_start_prog)
for step in range(20):
if step == 10:
save_distributed_checkpoint(dist_main_prog,
".",
dist_attr_path=".")
res = exe.run(dist_main_prog,
feed={
"input": input[step * 4:(step + 1) * 4, :],
"label": label[step * 4:(step + 1) * 4, :]
},
fetch_list=[loss])
last_res = res[0]
set_default_distributed_context(None)
_global_parallel_strategy = "pp"
_global_process_mesh = auto.ProcessMesh([0, 1])
global PP_MESH_0
PP_MESH_0 = auto.ProcessMesh(mesh=[0])
global PP_MESH_1
PP_MESH_1 = auto.ProcessMesh(mesh=[1])
dist_main_prog_load, dist_start_prog_load, loss_load = get_distributed_program(
)
place = paddle.set_device("gpu")
exe = paddle.static.Executor(place)
exe.run(dist_start_prog_load)
ckpt_path = [
"./model_state_rank0.pdmodel", "./model_state_rank1.pdmodel"
]
dist_attr_path = [
"./dist_attr_rank0.pdattr", "./dist_attr_rank1.pdattr"
]
load_checkpoint_into_program(ckpt_path, dist_attr_path,
dist_main_prog_load)
for step in range(10, 20):
if paddle.distributed.get_rank() in [0]:
res = exe.run(dist_main_prog_load,
feed={
"input": input[step * 4:(step + 1) * 4, :],
"label": label[step * 4:(step + 1) * 4, :]
})
else:
res = exe.run(dist_main_prog_load,
feed={
"input": input[step * 4:(step + 1) * 4, :],
"label": label[step * 4:(step + 1) * 4, :]
},
fetch_list=[loss_load])
if paddle.distributed.get_rank() in [1]:
self.assertEqual(last_res, res[0])
def test_gpt_dp_mp(self):
global _global_parallel_strategy
_global_parallel_strategy = "dp_mp"
global _global_process_mesh
_global_process_mesh = auto.ProcessMesh(
mesh=[[0, 1, 2, 3], [4, 5, 6, 7]])
train_program = static.Program()
startup_program = static.Program()
parallelizer = AutoParallelizer(FakeFleet())
dist_context = parallelizer._dist_context
dist_context.process_mesh = _global_process_mesh
train_program, startup_program, loss = gpt_pretrain_forward(
train_program, startup_program)
complete_train_program = auto.complete_annotation(
train_program, dist_context)
# serial backward pass
params_grads = parallelizer._generate_backward(complete_train_program,
startup_program,
loss,
parameter_list=None,
no_grad_set=None,
callbacks=None)
rank_id = 3
partitioner = Partitioner(dist_context, rank_id)
auto_parallel_main_prog, auto_parallel_startup_prog, params_grads = partitioner.partition(
complete_train_program, startup_program, params_grads)
with open("./test_auto_parallel_partitioner_serial_main_new.txt",
"w") as fw:
fw.write(str(train_program))
with open("./test_auto_parallel_partitioner_serial_startup_new.txt",
"w") as fw:
fw.write(str(startup_program))
from paddle.distributed.auto_parallel.dist_context import set_default_distributed_context
set_default_distributed_context(dist_context)
with open("./test_auto_parallel_partitioner_main_new.txt1", "w") as fw:
fw.write(str(auto_parallel_main_prog))
with open("./test_auto_parallel_partitioner_startup_new.txt1",
"w") as fw:
fw.write(str(auto_parallel_startup_prog))
# with open("./test_auto_parallel_partitioner_main_completed.txt", "w") as fw:
# from paddle.distributed.auto_parallel.completion import complete_backward_annotation
# complete_backward_annotation(auto_parallel_main_prog)
# fw.write(str(auto_parallel_main_prog))
nrank = 4
# col parallel
weights = [
'linear_0.w_0',
'linear_6.w_0',
'linear_10.w_0',
]
self.assertTrue(
check_tensor_split(auto_parallel_main_prog, weights,
complete_train_program, weights, 1, nrank))
# row parallel
weights = ['word_embeddings', 'linear_9.w_0', 'linear_11.w_0']
self.assertTrue(
check_tensor_split(auto_parallel_main_prog, weights,
complete_train_program, weights, 0, nrank))
weights = ['pos_embeddings', 'layer_norm_0.b_0', 'layer_norm_4.w_0']
self.assertTrue(
check_tensor_split(auto_parallel_main_prog, weights,
complete_train_program, weights, 0, 1))
all_params = sorted(
[param.name for param in startup_program.all_parameters()])
allreduce_grads = [
'layer_norm_5.tmp_2', 'layer_norm_5.tmp_2', 'layer_norm_5.tmp_2',
'layer_norm_6.tmp_2', 'layer_norm_7.tmp_2', 'layer_norm_7.tmp_2',
'layer_norm_7.tmp_2', 'layer_norm_8.tmp_2'
]
process_mesh = _global_process_mesh
mp_parallel_axis = 1
dp_parallel_axis = 0
group_ranks = _get_comm_group(process_mesh.processes,
process_mesh.topology, mp_parallel_axis,
3)
mp_ring_id = new_process_group(group_ranks).id
group_ranks = _get_comm_group(process_mesh.processes,
process_mesh.topology, dp_parallel_axis,
3)
dp_ring_id = new_process_group(group_ranks).id
tensor_parallel_allreduce_vars = sorted([
op.desc.output_arg_names()[0].split("@")[0]
for op in auto_parallel_main_prog.global_block().ops
if (op.type == "c_allreduce_sum" and op.attr('op_role') == 1
and op.desc.attr("ring_id") == mp_ring_id)
])
data_parallel_allreduce_vars = sorted([
op.desc.output_arg_names()[0].split("@")[0]
for op in auto_parallel_main_prog.global_block().ops
if (op.type == "c_allreduce_sum"
and op.desc.attr("ring_id") == dp_ring_id)
])
self.assertTrue(all_params == data_parallel_allreduce_vars)
self.assertTrue(allreduce_grads == tensor_parallel_allreduce_vars)
self.assertTrue(
is_valid_completed_program(dist_context, auto_parallel_main_prog))