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paddlepaddle--paddle/python/paddle/distributed/passes/ps_trainer_pass.py
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2026-07-13 12:40:42 +08:00

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# Copyright (c) 2022 PaddlePaddle Authors. All Rights Reserved.
#
# Licensed under the Apache License, Version 2.0 (the "License");
# you may not use this file except in compliance with the License.
# You may obtain a copy of the License at
#
# http://www.apache.org/licenses/LICENSE-2.0
#
# Unless required by applicable law or agreed to in writing, software
# distributed under the License is distributed on an "AS IS" BASIS,
# 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.
import os
from _collections import defaultdict
import paddle
from paddle.base import framework
from paddle.distributed.passes.pass_base import PassBase, register_pass
from paddle.framework import core
from paddle.static import Parameter, Program
from ..ps.utils.public import * # noqa: F403
@register_pass("append_send_ops_pass")
class AppendSendOpsPass(PassBase): # 该 pass 被多种模式复用
def __init__(self):
super().__init__()
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _append_send_op(
self, program, union_vars, queue, is_sparse, table_id, ps_mode
):
if queue == STEP_COUNTER:
send_input_vars = []
else:
send_input_vars = [
program.global_block().vars[union_var]
for union_var in union_vars
]
dummy_output = []
if ps_mode in [DistributedMode.SYNC, DistributedMode.HALF_ASYNC]:
dummy_output = program.global_block().create_var(
name=framework.generate_control_dev_var_name()
)
program.global_block().append_op(
type="send",
inputs={"X": send_input_vars},
outputs={"Out": dummy_output},
attrs={
"send_varnames": [queue],
"is_sparse": is_sparse,
"table_id": table_id,
RPC_OP_ROLE_ATTR_NAME: RPC_OP_ROLE_ATTR_VALUE,
},
)
return dummy_output
def _append_barrier_op(self, program, dummys, trainer_id):
program.global_block().append_op(
type="send_barrier",
inputs={"X": dummys},
outputs={"Out": []},
attrs={
"trainer_id": trainer_id,
"half_async": True,
RPC_OP_ROLE_ATTR_NAME: RPC_OP_ROLE_ATTR_VALUE,
},
)
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
attrs = pass_ctx._attrs
ps_mode = attrs['ps_mode']
# if ps_mode == DistributedMode.GEO:
# send_ctx = get_geo_trainer_send_context(attrs) # geo 模式, 没必要
send_ctx = get_the_one_send_context(
attrs, split_dense_table=attrs['is_heter_ps_mode']
) # async、sync 等各种模式
dummys = []
for merged_name, send in send_ctx.items(): # embedding_0.w_0@GRAD
if send.is_sparse() and ps_mode != DistributedMode.GEO:
continue
if (not send.is_sparse()) and ps_mode == DistributedMode.GEO:
continue
if send.program_id() != id(attrs['loss'].block.program):
continue
if len(send.remote_sparse_ids()) > 0:
continue
is_sparse = 1 if send.is_sparse() else 0
is_sparse = 2 if send.is_distributed() else is_sparse
dummys.append(
self._append_send_op(
main_program,
send.origin_varnames(),
merged_name,
is_sparse,
send.table_id(),
ps_mode,
)
)
if ps_mode in [DistributedMode.SYNC, DistributedMode.HALF_ASYNC]:
trainer_id = get_role_id(attrs['role_maker'])
self._append_barrier_op(main_program, dummys, trainer_id)
@register_pass("distributed_ops_pass")
class DistributedOpsPass(PassBase):
def __init__(self):
super().__init__()
self.w_2_table_id = {}
self.emb_size = {}
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _push_sparse_fuse(self, _program, push_sparse_ops, attrs, use_cvm_op):
if attrs['use_ps_gpu']:
return
if len(push_sparse_ops) == 0:
return
show = None
clk = None
use_entry = False
for param, ops in push_sparse_ops.items():
op_first = ops[0]
break
if op_first.has_attr("entry"):
entry = op_first.attr("entry")
entry = entry.split(':')
if len(entry) == 3 and entry[0] == 'show_click_entry':
show_var_name = entry[1]
click_var_name = entry[2]
if (
show_var_name in _program.global_block().vars
and click_var_name in _program.global_block().vars
):
show = _program.global_block().vars[show_var_name]
clk = _program.global_block().vars[click_var_name]
use_entry = True
else:
warnings.warn(
'ShowClickEntry configured, but cannot find show/click var, will not use'
)
if not use_entry:
print('ShowClickEntry not configured, will not use')
show = _program.global_block().create_var(
name="show",
dtype=core.VarDesc.VarType.FP32,
persistable=False,
stop_gradient=True,
)
_program.global_block()._insert_op(
index=0,
type='fill_constant',
inputs={},
outputs={'Out': show},
attrs={
'shape': [1],
'dtype': show.dtype,
'value': 1,
},
)
clk = _program.global_block().create_var(
name="clk",
dtype=core.VarDesc.VarType.FP32,
persistable=False,
stop_gradient=True,
)
_program.global_block()._insert_op(
index=0,
type='fill_constant',
inputs={},
outputs={'Out': clk},
attrs={
'shape': [1],
'dtype': clk.dtype,
'value': 0,
},
)
for param, ops in push_sparse_ops.items():
all_ops = _program.global_block().ops
op_idxs = [all_ops.index(op) for op in ops]
inputs = [
_program.global_block().vars[op.input("Ids")[0]] for op in ops
]
w = _program.global_block().vars[ops[0].output("W@GRAD")[0]]
table_id = self.w_2_table_id[param]
padding_idx = ops[0].attr("padding_idx")
is_distributed = ops[0].attr("is_distributed")
op_type = ops[0].type
slots = [op.attr("slot") for op in ops]
print('debug zcb slots: ', slots)
outputs = [
_program.global_block().vars[op.input("Out@GRAD")[0]]
for op in ops
]
for idx in op_idxs[::-1]:
_program.global_block()._remove_op(idx)
_program.global_block().append_op(
type="distributed_push_sparse",
inputs={
"Ids": inputs,
'W': w,
"Outputs": outputs,
"Shows": show,
"Clicks": clk,
},
outputs={"Outputs": outputs},
attrs={
"is_distributed": is_distributed,
"padding_idx": padding_idx,
"table_id": table_id,
"size": self.emb_size[param],
"use_cvm_op": use_cvm_op,
"slots": slots,
},
)
def _pull_sparse_fuse(self, _program, pull_sparse_ops, attrs, send_ctx):
def dag_check_up_and_reorder(program, inputs, outputs):
global_block = program.global_block()
min_output_index = len(global_block.ops)
max_input_index = -1
input_indexes = [0] * len(global_block.ops)
output_indexes = [0] * len(global_block.ops)
for idx, op in enumerate(global_block.ops):
for i in range(0, len(op.output_names)):
if input_indexes[idx] == 1:
break
outs = op.output(op.output_names[i])
for in_id, in_var in enumerate(inputs):
if in_var.name in outs:
input_indexes[idx] = 1
max_input_index = max(max_input_index, idx)
break
for i in range(0, len(op.input_names)):
if output_indexes[idx] == 1:
break
ins = op.input(op.input_names[i])
for out_id, out_var in enumerate(outputs):
if out_var.name in ins:
output_indexes[idx] = 1
min_output_index = min(min_output_index, idx)
for i in range(len(global_block.ops)):
if input_indexes[i] == 1 and output_indexes[i] == 1:
warnings.warn(
"unable to re-arrange dags order to combine distributed embedding ops because a op both needs embedding table's output as input and produces ids as the same embedding table's input"
)
return
if min_output_index < max_input_index:
move_ops = []
for i in range(min_output_index + 1, len(input_indexes)):
if input_indexes[i] == 1:
move_ops.append((global_block.ops[i], i))
for i, op in enumerate(move_ops):
queue = []
visited = set()
queue.append(op[1])
visited.add(op[0])
start = 0
while start < len(queue):
pos = queue[start]
op = global_block.ops[pos]
op_inputs = []
for k in range(0, len(op.input_names)):
ins = op.input(op.input_names[k])
op_inputs.append(ins)
for j in range(pos - 1, min_output_index - 1, -1):
op1 = global_block.ops[j]
if op1 in visited:
continue
found = False
for k in range(0, len(op1.output_names)):
outs = op1.output(op1.output_names[k])
for t in range(len(op_inputs)):
for y in op_inputs[t]:
if y in outs:
found = True
break
if found:
break
if found:
break
if found:
if output_indexes[j]:
warnings.warn(
"unable to re-arrange dags order to combine distributed embedding ops"
)
return
queue.append(j)
visited.add(global_block.ops[j])
start = start + 1
queue.sort()
for index in queue:
desc = global_block.desc._insert_op(min_output_index)
desc.copy_from(global_block.ops[index].desc)
global_block.desc._remove_op(index + 1, index + 2)
global_block.ops[index].desc = desc
insert_op = global_block.ops.pop(index)
input_state = input_indexes.pop(index)
output_state = output_indexes.pop(index)
global_block.ops.insert(min_output_index, insert_op)
input_indexes.insert(min_output_index, input_state)
output_indexes.insert(min_output_index, output_state)
min_output_index = min_output_index + 1
assert global_block.desc.op_size() == len(global_block.ops)
for i in range(len(global_block.ops)):
assert global_block.desc.op(i) == global_block.ops[i].desc
if attrs['use_ps_gpu']:
gpups_inputs_idxs = []
gpups_outputs_idxs = []
gpups_inputs = []
gpups_outputs = []
gpups_w_size = []
gpups_min_distributed_idx = len(_program.global_block().ops) + 1
for param, ops in pull_sparse_ops.items():
all_ops = _program.global_block().ops
op_device = ""
if attrs['is_heter_ps_mode']:
op_device = ops[0].attr("op_device")
inputs = [
_program.global_block().vars[op.input("Ids")[0]] for op in ops
]
w = _program.global_block().vars[ops[0].input("W")[0]]
self.emb_size[param] = w.shape[1]
grad_name = attrs['param_name_to_grad_name'][w.name]
table_id = -1
for name, ctx in send_ctx.items():
if grad_name in ctx.origin_varnames():
table_id = ctx.table_id()
if table_id == -1:
raise ValueError(
"can not find suitable sparse table, please check"
)
self.w_2_table_id[param] = table_id
padding_idx = ops[0].attr("padding_idx")
is_distributed = ops[0].attr("is_distributed")
op_type = ops[0].type
outputs = [
_program.global_block().vars[op.output("Out")[0]] for op in ops
]
dag_check_up_and_reorder(_program, inputs, outputs)
op_idxs = [all_ops.index(op) for op in ops]
for idx in op_idxs[::-1]:
_program.global_block()._remove_op(idx)
inputs_idxs = [-1] * len(inputs)
outputs_idxs = [len(_program.global_block().ops) + 1] * len(outputs)
for idx, op in enumerate(_program.global_block().ops):
for i in range(0, len(op.output_names)):
outs = op.output(op.output_names[i])
for in_id, in_var in enumerate(inputs):
if in_var.name in outs:
inputs_idxs[in_id] = max(idx, inputs_idxs[in_id])
for i in range(0, len(op.input_names)):
ins = op.input(op.input_names[i])
for out_id, out_var in enumerate(outputs):
if out_var.name in ins:
outputs_idxs[out_id] = min(
idx, outputs_idxs[out_id]
)
if attrs['use_ps_gpu']:
gpups_inputs_idxs.extend(inputs_idxs)
gpups_outputs_idxs.extend(outputs_idxs)
gpups_inputs.extend(inputs)
gpups_outputs.extend(outputs)
gpups_w_size.extend([w.shape[1]] * len(inputs))
gpups_min_distributed_idx = min(
*op_idxs, gpups_min_distributed_idx
)
continue
if min(outputs_idxs) - max(inputs_idxs) >= 1:
if max(inputs_idxs) == -1:
distributed_idx = min(op_idxs)
else:
distributed_idx = max(inputs_idxs) + 1
_program.global_block()._insert_op(
index=distributed_idx,
type="distributed_lookup_table",
inputs={"Ids": inputs, 'W': w},
outputs={"Outputs": outputs},
attrs={
"is_distributed": is_distributed,
"padding_idx": padding_idx,
"table_id": table_id,
"lookup_table_version": op_type,
"op_device": op_device,
},
)
else:
for i in range(len(inputs_idxs)):
distributed_idx = op_idxs[i]
_program.global_block()._insert_op(
index=distributed_idx,
type="distributed_lookup_table",
inputs={"Ids": [inputs[i]], 'W': w},
outputs={"Outputs": [outputs[i]]},
attrs={
"is_distributed": is_distributed,
"padding_idx": padding_idx,
"table_id": table_id,
"lookup_table_version": op_type,
"op_device": op_device,
},
)
if attrs['use_ps_gpu'] and len(gpups_inputs) > 0:
if max(gpups_inputs_idxs) > 0:
raise ValueError("There can't be ops before embedding in gpups")
_program.global_block()._insert_op(
index=gpups_min_distributed_idx,
type="pull_gpups_sparse",
inputs={
"Ids": gpups_inputs,
},
outputs={"Out": gpups_outputs},
attrs={
"size": gpups_w_size,
"is_distributed": True,
"is_sparse": True,
},
)
PSGPU = core.PSGPU()
try:
gpu_slot = [int(var.name) for var in gpups_inputs]
except ValueError:
raise ValueError(
"The slot name in gpups Should be able to convert to integer."
)
PSGPU.set_slot_vector(gpu_slot)
gpu_mf_sizes = [x - 3 for x in gpups_w_size]
PSGPU.set_slot_dim_vector(gpu_mf_sizes)
def _get_pull_sparse_ops(self, _program, attrs):
pull_sparse_ops = {}
pull_sparse_ids = {}
push_sparse_ops = {}
ops = {}
use_cvm_op = False
for op in _program.global_block().ops:
if (
op.type in SPARSE_OP_TYPE_DICT.keys()
and op.attr('remote_prefetch') is True
):
param_name = op.input(SPARSE_OP_TYPE_DICT[op.type])[0]
if attrs['is_heter_ps_mode'] and not attrs['is_fl_ps_mode']:
# TODO: trick for matchnet, need to modify for heter_ps
param_name += op.input("Ids")[0][0]
if param_name in attrs['local_sparse']: # for recall/ncf model
continue
ops = pull_sparse_ops.get(param_name, [])
ops.append(op)
pull_sparse_ops[param_name] = ops
ids = pull_sparse_ids.get(param_name, [])
ids.append(op.input("Ids")[0])
pull_sparse_ids[param_name] = ids
if op.type == 'cvm':
use_cvm_op = True
for op in _program.global_block().ops:
if op.type in SPARSE_GRAD_OP_TYPE_DICT.keys():
param_name = op.input(SPARSE_GRAD_OP_TYPE_DICT[op.type])[0]
if (
param_name in pull_sparse_ids
and op.input("Ids")[0] in pull_sparse_ids[param_name]
):
ops = push_sparse_ops.get(param_name, [])
ops.append(op)
push_sparse_ops[param_name] = ops
return pull_sparse_ops, push_sparse_ops, use_cvm_op
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
attrs = pass_ctx._attrs
(
pull_sparse_ops,
push_sparse_ops,
use_cvm_op,
) = self._get_pull_sparse_ops(main_program, attrs)
print(
"is_heter_ps_mode in distributed_ops_pass {}?".format(
attrs['is_heter_ps_mode']
)
)
send_ctx = get_the_one_send_context(
attrs, split_dense_table=attrs['is_heter_ps_mode']
)
self._pull_sparse_fuse(main_program, pull_sparse_ops, attrs, send_ctx)
self._push_sparse_fuse(main_program, push_sparse_ops, attrs, use_cvm_op)
@register_pass("delete_optimizer_pass")
class DeleteOptimizesPass(PassBase):
def __init__(self):
super().__init__()
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _delete_optimizer_op_and_vars(
self, _program, remote_optimize_ops, local_optimize_ops
):
local_optimize_vars = []
remote_optimize_vars = []
remote_optimize_op_role_vars = []
optimize_need_delete_vars = []
for op in local_optimize_ops:
local_optimize_vars.extend(op.input_arg_names)
for op in remote_optimize_ops:
remote_optimize_vars.extend(op.input_arg_names)
remote_optimize_op_role_vars.extend(op.attr("op_role_var"))
remote_optimize_vars = list(
set(remote_optimize_vars)
) # param + grad + optimizer_state + learning_rate
remote_optimize_op_role_vars = list(
set(remote_optimize_op_role_vars)
) # param + grad
print(
f"remote_optimize_vars: {remote_optimize_vars}, remote_optimize_op_role_vars: {remote_optimize_op_role_vars}, local_optimize_vars: {local_optimize_vars}"
)
for var in remote_optimize_vars:
if var in local_optimize_vars:
continue
if var not in remote_optimize_op_role_vars:
optimize_need_delete_vars.append(var)
need_delete_optimize_vars = list(set(optimize_need_delete_vars))
delete_ops(_program.global_block(), remote_optimize_ops)
for var in need_delete_optimize_vars:
if _program.global_block().has_var(var):
_program.global_block()._remove_var(var)
def _add_lr_var(self, main_program, attrs):
# Todo: hard code for pe
lr_var = (
attrs['origin_main_program'].global_block().vars["learning_rate_0"]
)
main_program.global_block().create_var(
name=lr_var.name,
shape=lr_var.shape,
dtype=lr_var.dtype,
type=lr_var.type,
lod_level=lr_var.lod_level,
persistable=True,
)
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
attrs = pass_ctx._attrs
all_optimize_ops = get_optimize_ops(main_program)
remote_optimize_ops = get_optimize_ops(
main_program, attrs['remote_sparse']
)
lr_ops = get_lr_ops(main_program)
remote_optimize_ops.extend(lr_ops)
local_optimize_ops = list(
set(all_optimize_ops) - set(remote_optimize_ops)
)
self._delete_optimizer_op_and_vars(
main_program, remote_optimize_ops, local_optimize_ops
)
if hasattr(attrs['origin_main_program'], 'lr_scheduler'):
self._add_lr_var(main_program, attrs)
@register_pass("delete_extra_optimizer_pass")
class DeleteExtraOptimizerPass(PassBase):
def __init__(self):
super().__init__()
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
attrs = pass_ctx._attrs
remote_optimize_vars = []
remote_optimize_op_role_vars = []
optimize_need_delete_vars = []
all_optimize_ops = get_optimize_ops(main_program)
remote_optimize_ops = get_optimize_ops(
main_program, attrs['remote_sparse']
)
local_optimize_ops = list(
set(all_optimize_ops) - set(remote_optimize_ops)
)
local_optimize_vars = []
for op in local_optimize_ops:
local_optimize_vars.extend(op.input_arg_names)
for op in remote_optimize_ops:
remote_optimize_vars.extend(op.input_arg_names)
remote_optimize_op_role_vars.extend(op.attr("op_role_var"))
remote_optimize_vars = list(set(remote_optimize_vars))
remote_optimize_op_role_vars = list(set(remote_optimize_op_role_vars))
for var in remote_optimize_vars:
if var in local_optimize_vars:
continue
if 'learning_rate_0' == var:
continue
if var not in remote_optimize_op_role_vars:
optimize_need_delete_vars.append(var)
need_delete_optimize_vars = list(set(optimize_need_delete_vars))
init_ops = []
for var in need_delete_optimize_vars:
param_init_op = []
for op in startup_program.global_block().ops:
if var in op.output_arg_names:
param_init_op.append(op)
init_ops.extend(param_init_op)
delete_ops(startup_program.global_block(), init_ops)
for var in need_delete_optimize_vars:
if startup_program.global_block().has_var(var):
startup_program.global_block()._remove_var(var)
@register_pass("fake_init_ops_pass")
class FakeInitOpsPass(PassBase):
def __init__(self):
super().__init__()
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _get_sparse_table_names(self, attrs):
dist_varnames = get_sparse_tablenames(
attrs['origin_main_programs'], True
)
sparse_varnames = get_sparse_tablenames(
attrs['origin_main_programs'], False
)
return list(set(dist_varnames + sparse_varnames))
def _fake_init_sparsetable(
self, startup_program, sparse_table_names, attrs
):
# delete table init op
for table_name in sparse_table_names:
table_var = startup_program.global_block().vars[table_name]
if (
str(table_var).split(":")[0].strip().split()[-1]
in attrs['local_sparse']
):
continue
table_param_init_op = []
for op in startup_program.global_block().ops:
if table_name in op.output_arg_names:
table_param_init_op.append(op)
init_op_num = len(table_param_init_op)
if init_op_num != 1:
raise ValueError(
"table init op num should be 1, now is " + str(init_op_num)
)
table_init_op = table_param_init_op[0]
startup_program.global_block().append_op(
type="fake_init",
inputs={},
outputs={"Out": table_var},
attrs={"shape": table_init_op.attr('shape')},
)
delete_ops(startup_program.global_block(), table_param_init_op)
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
attrs = pass_ctx._attrs
sparse_tables = self._get_sparse_table_names(attrs)
self._fake_init_sparsetable(startup_program, sparse_tables, attrs)
@register_pass("ps_gpu_pass")
class PsGpuPass(PassBase):
def __init__(self):
super().__init__()
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _add_push_box_sparse_op(self, program):
insert_index = -1
for idx, op in list(enumerate(program.global_block().ops)):
if op.type == "lookup_table_grad":
insert_index = idx
for op in program.global_block().ops:
if op.type != "pull_box_sparse" and op.type != "pull_gpups_sparse":
continue
grad_op_desc, op_grad_to_var = core.get_grad_op_desc(
op.desc, set(), []
)
for op_desc in grad_op_desc:
new_op_desc = program.global_block().desc._insert_op(
insert_index + 1
)
new_op_desc.copy_from(op_desc)
new_op_desc._set_attr(op_role_attr_name, backward)
new_op = paddle.static.Operator(
program.global_block(), new_op_desc
)
program.global_block().ops.insert(insert_index + 1, new_op)
program.global_block()._sync_with_cpp()
def _remove_optimizer_var(self, program):
embedding_w = {}
for idx, op in list(enumerate(program.global_block().ops)):
if op.type == "lookup_table_grad":
for name in op.input("W"):
embedding_w[name] = 1
optimize_vars = []
optimize_op_role_vars = []
optimize_need_delete_vars = []
for op in get_optimize_ops(program):
# print("op=%s, input_names=%s" % (op, op.input_names))
if "Param" not in op.input_names:
continue
for name in op.input("Param"):
if name in embedding_w:
optimize_op_role_vars.extend(op.attr("op_role_var"))
for key_name in op.input_names:
if key_name == "LearningRate":
continue
for var in op.input(key_name):
optimize_vars.append(var)
optimize_vars = list(set(optimize_vars))
optimize_op_role_vars = list(set(optimize_op_role_vars))
for var in optimize_vars:
if var not in optimize_op_role_vars:
optimize_need_delete_vars.append(var)
need_delete_optimize_vars = list(set(optimize_need_delete_vars))
for name in need_delete_optimize_vars:
if program.global_block().has_var(name):
program.global_block()._remove_var(name)
def _remove_lookup_table_grad_op_and_var(self, program):
lookup_table_grad_var = {}
remove_op_index = []
remove_var = []
for idx, op in list(enumerate(program.global_block().ops)):
if op.type == "lookup_table_grad":
for name in op.output("W@GRAD"):
lookup_table_grad_var[name] = 1
remove_op_index.append(idx)
remove_var.append(name)
for name in op.input("W"):
lookup_table_grad_var[name] = 1
for idx, op in list(enumerate(program.global_block().ops)):
if op.type == "pull_box_sparse" or op.type == "pull_gpups_sparse":
continue
for key_name in op.input_names:
for var in op.input(key_name):
if var in lookup_table_grad_var:
remove_op_index.append(idx)
break
remove_op_index = list(set(remove_op_index))
remove_op_index.sort(reverse=True)
for idx in remove_op_index:
program.global_block()._remove_op(idx)
for name in remove_var:
program.global_block()._remove_var(name)
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
attrs = pass_ctx._attrs
self._add_push_box_sparse_op(main_program)
self._remove_optimizer_var(main_program)
self._remove_lookup_table_grad_op_and_var(main_program)
@register_pass("ps_transpile_pass")
class PsTranspilePass(PassBase):
def __init__(self):
super().__init__()
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
attrs = pass_ctx._attrs
if attrs['use_gpu_graph'] == 0:
from ..transpiler.collective import MultiThread
t = MultiThread()
print("ps_transpile_pass use MultiThread for non_gpu_graph mode")
else:
from ..transpiler.collective import SingleProcessMultiThread
t = SingleProcessMultiThread()
print(
"ps_transpile_pass use SingleProcessMultiThread for gpu_graph mode"
)
attrs = pass_ctx._attrs
env = get_dist_env()
t.transpile(
startup_program=startup_program,
main_program=main_program,
rank=env["trainer_id"],
endpoints=env["trainer_endpoints"],
current_endpoint=env['current_endpoint'],
wait_port=False,
)
@register_pass("split_heter_worker_ops_pass")
class SplitHeterWorkerOpsPass(PassBase):
def __init__(self):
super().__init__()
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _create_heter_program(
self,
program,
attrs,
heter_program,
program_block_ops_list,
heter_ops,
block_var_detail,
):
# This function mainly includes the following contents:
# 1. For every heter block:
# a) copy heter device op from origin program
# b) create variables which belong to heter op:
# -> if variable is persistable, clone it in global_scope
# -> if variable is temp, create it in heter block
# c) create communicate related op as follow:
# joint_var.0_1 -> slice -> reshape -> origin_var
# origin_var -> origin_program
# reshape -> concat -> joint_var.1_2
# d) copy send op from origin program for var@grad which located in current heter block
# e) re-check every op in current block if its device is not current heter device
# 2. Create send op for step counter in last heter-block
# 3. Create Listen&Serv OP and Send&Recv OP for distributed training
# 4. update CompileTimeStrategy for heter_program
optimizer_block = []
grad_to_block_id = []
send_grad_var_list = []
pre_block_idx = heter_program.num_blocks - 1
role_maker = attrs['role_maker']
current_device = role_maker._heter_device_type().lower()
stage_id = int(role_maker._get_stage_id())
heter_block_ops_forward = program_block_ops_list[stage_id - 1][
"forward"
]
heter_block_ops_backward = program_block_ops_list[stage_id - 1][
"backward"
]
heter_block = heter_program._create_block(pre_block_idx)
optimizer_block.append(heter_block)
for _, op in enumerate(heter_block_ops_forward):
block_append_op(heter_program, program, heter_block, op)
entrance_vars = block_var_detail[stage_id - 1]["forward"]["entrance"]
add_vars_by_var_list(entrance_vars, program, heter_program, heter_block)
exit_vars = block_var_detail[stage_id - 1]["forward"]["exit"]
add_vars_by_var_list(exit_vars, program, heter_program, heter_block)
first_op_index_fp = len(heter_block.ops)
if stage_id < len(program_block_ops_list):
heter_block_bp = heter_program._create_block(pre_block_idx)
optimizer_block.append(heter_block_bp)
for _, op in enumerate(heter_block_ops_backward):
block_append_op(heter_program, program, heter_block_bp, op)
bp_entrance_vars = block_var_detail[stage_id - 1]["backward"][
"entrance"
]
add_vars_by_var_list(
bp_entrance_vars, program, heter_program, heter_block_bp
)
bp_exit_vars = block_var_detail[stage_id - 1]["backward"]["exit"]
add_vars_by_var_list(
bp_exit_vars, program, heter_program, heter_block_bp
)
backward_comm_info = get_communicate_var_info(
program, stage_id, bp_entrance_vars, type="backward"
)
grad_to_block_id.append(
backward_comm_info["block_input_var_name"]
+ ":"
+ str(heter_block_bp.idx)
)
else:
for _, op in enumerate(heter_block_ops_backward):
block_append_op(heter_program, program, heter_block, op)
bp_entrance_vars = block_var_detail[stage_id - 1]["backward"][
"entrance"
]
add_vars_by_var_list(
bp_entrance_vars, program, heter_program, heter_block
)
bp_exit_vars = block_var_detail[stage_id - 1]["backward"]["exit"]
add_vars_by_var_list(
bp_exit_vars, program, heter_program, heter_block
)
heter_block_bp = heter_block
forward_comm_info = get_communicate_var_info(
program, stage_id, entrance_vars, type="forward"
)
grad_to_block_id.append(
forward_comm_info["block_input_var_name"]
+ ":"
+ str(heter_block.idx)
)
first_op_index_bp = len(heter_block_bp.ops)
if stage_id <= len(block_var_detail) - 1:
static_var = insert_communicate_op(
program,
role_maker,
heter_block,
stage_id,
first_op_index_fp,
block_var_detail,
current_device,
)
static_var_bp = insert_communicate_op(
program,
role_maker,
heter_block_bp,
stage_id,
first_op_index_bp,
block_var_detail,
current_device,
False,
)
# add send op
send_grad_var_list = add_send_op(
program,
heter_block_bp,
block_var_detail[stage_id - 1]["backward"]["persistables"],
)
# add step counter
send_input_vars = []
dummy_output = []
pserver_endpoints = get_ps_endpoints(role_maker)
attrs = {
"message_to_block_id": grad_to_block_id,
"optimize_blocks": optimizer_block,
# runtime attribute
"endpoint": get_heter_worker_endpoint(role_maker),
"fanin": len(get_previous_stage_trainers(role_maker)),
"pserver_id": get_role_id(role_maker),
"distributed_mode": attrs['ps_mode'],
"rpc_exec_thread_num": int(os.getenv("CPU_NUM", 32)),
RPC_OP_ROLE_ATTR_NAME: RPC_OP_ROLE_ATTR_VALUE,
}
# append the listen_and_serv op
heter_program.global_block().append_op(
type="heter_listen_and_serv",
inputs={'X': []},
outputs={},
attrs=attrs,
)
# TODO check heter program
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
"""
split heter worker program from origin-program
1. find heter op (located on different device)
2. find input&output of every heter-block
3. create heter worker program, add listen&serv op
"""
attrs = pass_ctx._attrs
default_device = "cpu"
program, heter_ops, _, program_block_ops = find_heter_ops(
main_program, default_device
)
if len(heter_ops) == 0:
warnings.warn(
"Currently running in Heter Parameter Server mode, but no OP running on heterogeneous devices, Please check your code."
)
main_program = program
return
program_block_ops = union_forward_gradient_op(program_block_ops)
block_vars_detail = find_block_joints(
program, program_block_ops, heter_ops
)
heter_program = paddle.framework.Program()
self._create_heter_program(
program,
attrs,
heter_program,
program_block_ops,
heter_ops,
block_vars_detail,
)
main_program = heter_program
@register_pass("split_trainer_ops_pass")
class SplitTrainerOpsPass(PassBase):
def __init__(self):
super().__init__()
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _replace_ops_by_communicate_op(
self, program, attrs, heter_block_index, ops_list, block_var_detail
):
all_op = program.global_block().ops
start_op = ops_list[0]
first_op_idx = -1
for op in all_op:
if str(op) == str(start_op):
first_op_idx = all_op.index(op)
break
assert first_op_idx != -1
delete_same_ops(program.global_block(), ops_list)
entrance_var = []
role_maker = attrs['role_maker']
if heter_block_index == 1:
next_heter_worker_endpoints = get_next_stage_trainers(role_maker)
entrance_var = block_var_detail[heter_block_index]["forward"][
"entrance"
]
comm_info = get_communicate_var_info(
program, heter_block_index + 1, entrance_var
)
program.global_block()._insert_op(
index=first_op_idx,
type="send_and_recv",
inputs={"X": program.global_block().vars[entrance_var[0]]},
outputs={"Out": []},
attrs={
"mode": "forward",
"send_var_name": [*entrance_var, "microbatch_id"],
"recv_var_name": [],
"message_name": comm_info["block_input_var_name"],
"next_endpoints": next_heter_worker_endpoints,
"previous_endpoints": [],
"trainer_id": get_role_id(role_maker),
RPC_OP_ROLE_ATTR_NAME: RPC_OP_ROLE_ATTR_VALUE,
},
)
return entrance_var
def _remove_var_pair_by_grad(self, var_name, attrs):
for index, pair in enumerate(attrs['merged_variables_pairs']):
var = pair[0]
var_grad = pair[1]
if var_grad.merged_var.name == var_name:
del attrs['merged_variables_pairs'][index]
for index, pair in enumerate(attrs['merged_dense_pairs']):
var = pair[0]
var_grad = pair[1]
if var_grad.merged_var.name == var_name:
del attrs['merged_dense_pairs'][index]
return
for index, pair in enumerate(attrs['merged_sparse_pairs']):
var = pair[0]
var_grad = pair[1]
if var_grad.merged_var.name == var_name:
del attrs['merged_sparse_pairs'][index]
return
def _remove_trainer_send_op(
self, program, attrs, heter_block_index, block_var_detail
):
# if trainer do FF->BP->SEND, it has follow vars: var, var@GRAD
# if trainer only do SEND, it has one var: var@GRAD
# Delete Send op ,if trainer doesn't has pair var (var<->var@GRAD)
persistables = (
block_var_detail[heter_block_index]["forward"]["persistables"]
+ block_var_detail[heter_block_index]["backward"]["persistables"]
)
need_remove_send_op = []
need_remove_grad_var = []
for op in find_send_op(program):
input_list, _ = find_op_input_output(
program, program.global_block(), op
)
for var_name in input_list:
origin_var_name = var_name.split("@GRAD")[0]
if origin_var_name in persistables:
need_remove_send_op.append(op)
need_remove_grad_var.append(var_name)
need_remove_send_op = list(set(need_remove_send_op))
delete_ops(program.global_block(), need_remove_send_op)
for grad_var_name in need_remove_grad_var:
self._remove_var_pair_by_grad(grad_var_name, attrs)
def _create_trainer_program(
self,
program,
origin_program,
attrs,
program_block_ops_list,
block_var_detail,
):
# This function mainly includes the following contents:
# 1. For every heter block in origin program
# a) delete heter op and related variables
# b) add send&recv op
# c) add communicate ops as follows:
# origin_var -> reshape -> concat -> joint_var.0_1
# send&recv op(send joint_var.0_1; recv joint_var.1_2)
# joint_var.1_2 -> slice -> reshape -> origin_var
# d) remove send op which related var@grad is not in trainer program
# 2. check every op's device
static_var = []
for heter_block_index in range(1, len(program_block_ops_list)):
ops_list = (
program_block_ops_list[heter_block_index]["forward"]
+ program_block_ops_list[heter_block_index]["backward"]
)
static_var += self._replace_ops_by_communicate_op(
program, attrs, heter_block_index, ops_list, block_var_detail
)
self._remove_trainer_send_op(
program, attrs, heter_block_index, block_var_detail
)
optimizer_block = []
grad_to_block_id = []
bp_ops_list = program_block_ops_list[0]["backward"]
delete_same_ops(program.global_block(), bp_ops_list)
delete_trainer_useless_var(program, static_var)
backward_block = create_backward_block(
program, origin_program, bp_ops_list, block_var_detail
)
bp_entrance_vars = block_var_detail[0]["backward"]["entrance"]
backward_comm_info = get_communicate_var_info(
origin_program, 1, bp_entrance_vars, type="backward"
)
grad_to_block_id.append(
backward_comm_info["block_input_var_name"]
+ ":"
+ str(backward_block.idx)
)
optimizer_block.append(backward_block)
role_maker = attrs['role_maker']
attrs = {
"message_to_block_id": grad_to_block_id,
"optimize_blocks": optimizer_block,
# runtime attribute
"endpoint": get_trainer_endpoint(
role_maker
), # get trainer endpoint
"fanin": 0, # get heter worker
"pserver_id": get_role_id(role_maker),
"distributed_mode": attrs['ps_mode'],
"rpc_exec_thread_num": int(os.getenv("CPU_NUM", 32)),
RPC_OP_ROLE_ATTR_NAME: RPC_OP_ROLE_ATTR_VALUE,
}
# append the listen_and_serv op
program.global_block()._insert_op(
index=0,
type="heter_listen_and_serv",
inputs={'X': []},
outputs={},
attrs=attrs,
)
# TODO add check for bp block
# check_op_device(program.global_block(), DEFAULT_DEVICE)
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
"""
split cpu-trainer program from origin-program
1. find heter op (located on different device)
2. find input&output of every heter-block
3. create cpu-trainer program, add send&recv op
"""
attrs = pass_ctx._attrs
default_device_ = 'cpu'
program, heter_ops, default_ops, program_block_ops = find_heter_ops(
main_program, default_device_
)
program_block_ops = union_forward_gradient_op(program_block_ops)
block_vars_detail = find_block_joints(
program, program_block_ops, heter_ops
)
trainer_program = program.clone()
self._create_trainer_program(
trainer_program,
program,
attrs,
program_block_ops,
block_vars_detail,
)
main_program = trainer_program
@register_pass("set_heter_pipeline_opt_pass")
class SetHeterPipelineOptPass(PassBase):
def __init__(self):
super().__init__()
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
attrs = pass_ctx._attrs
role_maker = attrs['role_maker']
num_microbatches = attrs['user_defined_strategy'].pipeline_configs[
'accumulate_steps'
]
startup_program._heter_pipeline_opt = {
"startup_program": startup_program,
"pipeline_stage": int(role_maker._get_stage_id()) - 1,
"heter_place": role_maker._heter_device(),
"is_fl_mode": 1,
}
main_program._heter_pipeline_opt = {
"trainer": "HeterPipelineTrainer",
"device_worker": "HeterSection",
"trainers": role_maker._get_stage_trainers(), # trainer num in each stage
"trainer_id": int(role_maker._role_id()),
"pipeline_stage": int(role_maker._get_stage_id()) - 1,
"num_pipeline_stages": int(role_maker._get_num_stage()),
"section_program": main_program,
"num_microbatches": num_microbatches,
"heter_place": role_maker._heter_device(),
"is_fl_mode": 1,
}
@register_pass("split_fl_ops_pass")
class SplitFlOpsPass(PassBase):
def __init__(self):
super().__init__()
self.PART_A_DEVICE_FlAG = 'gpu:0'
self.PART_A_JOINT_OP_DEVICE_FlAG = 'gpu:2'
self.PART_B_DEVICE_FlAG = 'gpu:1'
self.PART_B_JOINT_OP_DEVICE_FlAG = 'gpu:3'
def _check_self(self):
return True
def _check_conflict(self, other_pass):
return True
def _insert_encrypt_op(self):
pass
def _insert_decrypt_op(self):
pass
def _clear_op_device_flag(self, program):
for block in program.blocks:
for op in block.ops:
device = op.attr(OP_DEVICE_KEY)
op._set_attr(OP_DEVICE_KEY, '') if device != '' else None
def _split_fl_program(self):
self.partA_ops = []
self.partB_ops = []
party_program_map = defaultdict(Program)
block = self.ori_main_program.block(0)
for op in block.ops:
device = op.attr(OP_DEVICE_KEY)
if (
device == self.PART_A_DEVICE_FlAG
or device == ''
or device == self.PART_A_JOINT_OP_DEVICE_FlAG
):
program = party_program_map['a']
self.partA_ops.append(op)
elif (
device == self.PART_B_DEVICE_FlAG
or device == self.PART_B_JOINT_OP_DEVICE_FlAG
):
program = party_program_map['b']
self.partB_ops.append(op)
op_desc = op.desc
ap_op = program.global_block().desc.append_op()
ap_op.copy_from(op_desc)
ap_op._set_attr(OP_DEVICE_KEY, device)
for key in ['a', 'b']:
program = party_program_map[key]
program._sync_with_cpp()
return party_program_map
def _insert_partA_communicate_op(self, block, idx):
comm_info = f"forward_joint_{1}_{2}@fl_ps"
block._insert_op(
idx,
type='send_and_recv',
inputs={'X': self.partA_to_partB_tensor},
outputs={'Out': []},
attrs={
'mode': 'forward', # mode 直接关联前向和反向 channel 选择
'send_var_name': [
*self.partA_to_partB_tensor_name,
"microbatch_id",
],
'recv_var_name': [],
'message_name': comm_info,
'next_endpoints': get_next_stage_trainers(
self.role_maker
), # partB_endpoints
'previous_endpoints': get_previous_stage_trainers(
self.role_maker
),
'trainer_id': get_role_id(self.role_maker), # global id
RPC_OP_ROLE_ATTR_NAME: RPC_OP_ROLE_ATTR_VALUE,
},
)
def _insert_partB_communicate_op(self, block, idx):
comm_info = f"backward_joint_{2}_{1}@fl_ps"
block._insert_op(
idx,
type='send_and_recv',
inputs={'X': self.partB_to_partA_grad},
outputs={'Out': []},
attrs={
'mode': 'backward',
'send_var_name': [
*self.partB_to_partA_grad_name,
"microbatch_id",
],
'recv_var_name': [],
'message_name': comm_info,
'next_endpoints': get_next_stage_trainers(
self.role_maker
), # partA_endpoints
'previous_endpoints': get_previous_stage_trainers(
self.role_maker
),
'trainer_id': get_role_id(self.role_maker), # global id
RPC_OP_ROLE_ATTR_NAME: RPC_OP_ROLE_ATTR_VALUE,
},
)
def _create_var_for_block(self, vars, block):
for var in vars:
if block._find_var_recursive(str(var)):
continue
source_var = self.ori_main_block._var_recursive(str(var))
if isinstance(var, Parameter):
dest_var = block.create_parameter(
name=source_var.name,
shape=source_var.shape,
dtype=source_var.dtype,
type=source_var.type,
lod_level=source_var.lod_level,
stop_gradient=source_var.stop_gradient,
trainable=source_var.trainable,
optimize_attr=source_var.optimize_attr,
regularizer=source_var.regularizer,
error_clip=source_var.error_clip,
)
else:
dest_var = block._clone_variable(source_var, False)
dest_var.stop_gradient = source_var.stop_gradient
if hasattr(source_var, 'is_distributed'):
dest_var.is_distributed = source_var.is_distributed
def _get_block_by_idx(self, op_list, program, block_idx):
if block_idx < len(program.blocks):
new_block = program.block(block_idx)
else:
new_block = program._create_block()
for _, op in enumerate(op_list):
ap_op = new_block.desc.append_op()
ap_op.copy_from(op.desc)
ap_op._set_attr(OP_DEVICE_KEY, op.attr(OP_DEVICE_KEY))
vars = op.desc.input_arg_names() + op.desc.output_arg_names()
self._create_var_for_block(vars, new_block)
new_block._sync_with_cpp()
return new_block
def _find_joint_forward_op(self, block, flag):
op_idx = 0
for op in block.ops:
if is_forward_op(op) and op.attr(OP_DEVICE_KEY) == flag:
return op_idx
else:
op_idx += 1
return op_idx
def _find_joint_backward_op(self, block, flag):
op_idx = 0
for op in block.ops:
if is_backward_op(op) and op.attr(OP_DEVICE_KEY) == flag:
return op_idx
else:
op_idx += 1
return op_idx
def _get_partB_to_partA_grad(self, block, flag):
op_idx = self._find_joint_backward_op(block, flag)
op = block.ops[op_idx]
vars1 = op.desc.input_arg_names()
op_idx = self._find_joint_forward_op(block, flag)
op = block.ops[op_idx]
vars2 = op.desc.output_arg_names()
self.partB_to_partA_grad_name = list(set(vars1) - set(vars2))
self.partB_to_partA_grad = []
for var_name in self.partB_to_partA_grad_name:
self.partB_to_partA_grad.append(self.ori_main_block.var(var_name))
def _find_dense_grad_vars(self, bp_op_list):
program = self.ori_main_program
bp_op_input, bp_op_output = find_ops_list_input_output(
program, bp_op_list
)
return screen_persistables(program, bp_op_input) + screen_persistables(
program, bp_op_output
)
def _get_partA_program(self, block):
# 1. create block 0
# 1.1 insert send op
op_idx = self._find_joint_forward_op(
block, self.PART_A_JOINT_OP_DEVICE_FlAG
)
op_list = []
for i in range(len(block.ops)):
op = block.ops[i]
op_list.append(op)
if i == op_idx:
out_name = op.desc.output_arg_names()[0]
self.partA_to_partB_tensor_name = op.desc.output_arg_names()
self.partA_to_partB_tensor = self.ori_main_block.var(out_name)
break
first_block = self._get_block_by_idx(op_list, self.partA_program, 0)
self._insert_partA_communicate_op(first_block, op_idx + 1)
# logger.info('partA-first_block:{}'.format(first_block))
# 2. create block 1
bp_op_list = get_bp_op_list(block)
push_sparse_op_list = get_distributed_push_sparse_op_list(block)
# logger.info('bp_op_list: {}'.format(bp_op_list))
second_block = self._get_block_by_idx(
bp_op_list + push_sparse_op_list, self.partA_program, 1
)
# 2.1. insert partA recv op
block_input_flag = f"backward_joint_{2}_{1}@fl_ps"
grad_to_block_id = block_input_flag + ":" + str(second_block.idx)
attrs = {
"message_to_block_id": [grad_to_block_id],
"optimize_blocks": [second_block],
"endpoint": get_trainer_endpoint(self.role_maker),
"fanin": 0,
"pserver_id": get_role_id(self.role_maker),
"distributed_mode": self.ps_mode,
"rpc_exec_thread_num": int(os.getenv("CPU_NUM", 32)),
RPC_OP_ROLE_ATTR_NAME: RPC_OP_ROLE_ATTR_VALUE,
}
second_block._insert_op(
index=0,
type='heter_listen_and_serv',
inputs={'X': []},
outputs={},
attrs=attrs,
)
# 2.2 insert push dense grad op
send_ops = find_send_op(self.ori_main_program) # push dense
delete_same_ops(block, send_ops)
dense_grad_vars = self._find_dense_grad_vars(bp_op_list)
add_send_op(self.ori_main_program, second_block, dense_grad_vars)
# logger.info('partA-second_block:{}'.format(second_block))
def _get_partB_program(self, block):
op_idx1 = self._find_joint_forward_op(
block, self.PART_B_JOINT_OP_DEVICE_FlAG
) # elementwise_add op
op_idx2 = self._find_joint_backward_op(
block, self.PART_B_JOINT_OP_DEVICE_FlAG
)
op_cnt = 0
op_list1 = []
op_list2 = []
op_list3 = []
for op in block.ops:
if op_cnt < op_idx1:
op_list1.append(op)
elif op_cnt <= op_idx2:
op_list2.append(op)
else:
op_list3.append(op)
op_cnt += 1
# 1. create block 0
first_block = self._get_block_by_idx(op_list1, self.partB_program, 0)
# 2. create block 1
second_block = self._get_block_by_idx(op_list2, self.partB_program, 1)
# 2.1 insert send op
self._insert_partB_communicate_op(second_block, len(op_list2))
# 2.2 insert remain ops
second_block = self._get_block_by_idx(op_list3, self.partB_program, 1)
# 2.3 insert push dense grad op
bp_op_list = get_bp_op_list(second_block)
dense_grad_vars = self._find_dense_grad_vars(bp_op_list)
add_send_op(self.ori_main_program, second_block, dense_grad_vars)
# 3. insert partB recv op
block_input_flag = f"forward_joint_{1}_{2}@fl_ps"
grad_to_block_id = block_input_flag + ":" + str(second_block.idx)
attrs = {
"message_to_block_id": [grad_to_block_id],
"optimize_blocks": [second_block], # what to do?
"endpoint": get_heter_worker_endpoint(self.role_maker),
"fanin": len(get_previous_stage_trainers(self.role_maker)),
"pserver_id": 1, # TODO
"distributed_mode": self.ps_mode,
"rpc_exec_thread_num": int(os.getenv("CPU_NUM", 32)),
RPC_OP_ROLE_ATTR_NAME: RPC_OP_ROLE_ATTR_VALUE,
}
first_block._insert_op(
index=len(op_list1),
type="heter_listen_and_serv",
inputs={'X': []},
outputs={},
attrs=attrs,
)
# logger.info('partB-first_block:{}'.format(first_block))
# logger.info('partB-second_block:{}'.format(second_block))
def _apply_single_impl(self, main_program, startup_program, pass_ctx):
attrs = pass_ctx._attrs
self.role_maker = attrs['role_maker']
self.ps_mode = attrs['ps_mode']
self.is_part_b = attrs['is_heter_worker'] # TODO
self.ori_main_program = main_program
self.ori_main_block = main_program.block(0)
party_program_map = self._split_fl_program()
prog_a = party_program_map['a']
_main_file = ps_log_root_dir + '6_fl_A_main_program.prototxt'
debug_program(_main_file, prog_a)
self._get_partB_to_partA_grad(
prog_a.global_block(), self.PART_A_JOINT_OP_DEVICE_FlAG
)
prog_b = party_program_map['b']
_main_file = ps_log_root_dir + '6_fl_B_main_program.prototxt'
debug_program(_main_file, prog_b)
if not self.is_part_b:
self.partA_program = paddle.framework.Program()
self._get_partA_program(prog_a.global_block())
pass_ctx._attrs['part_a_main_program'] = self.partA_program
self._clear_op_device_flag(self.partA_program)
check_program(self.partA_program)
else:
self.partB_program = paddle.framework.Program()
self._get_partB_program(prog_b.global_block())
pass_ctx._attrs['part_b_main_program'] = self.partB_program
self._clear_op_device_flag(self.partB_program)
check_program(self.partB_program)