[XPU] add speculate_step_system_cache (#5397)

* [XPU] add speculate_step_system_cache

* [XPU] add speculate_step_system_cache

---------

Co-authored-by: cmcamdy <1027740945@qq.com>
This commit is contained in:
RuohengMa
2025-12-09 14:40:11 +08:00
committed by GitHub
parent e1c4a12e34
commit 8178e3fc6a
8 changed files with 684 additions and 82 deletions

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@@ -0,0 +1,317 @@
# Copyright (c) 2025 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
import unittest
import numpy as np
import paddle
from fastdeploy.model_executor.ops.xpu import speculate_step_system_cache
# 固定随机种子,保证测试可复现
np.random.seed(2023)
paddle.seed(2023)
def generate_test_data():
"""
生成测试数据的辅助函数。
这部分逻辑从 pytest 的 fixture 转换而来,作为一个普通函数供测试方法调用。
"""
# max_bs = 128
max_bs = 8
bs = max_bs
max_seq_len = 8192
block_size = 64
block_bs = 8
block_ratio = 0.75
max_draft_tokens = 1
encoder_decoder_block_num = 1
# 生成原始测试数据(完全复用原有逻辑)
stop_flags = np.random.randint(0, 2, [max_bs]).astype("bool")
seq_lens_this_time = np.zeros([bs], "int32")
seq_lens_encoder = np.zeros([max_bs], "int32")
seq_lens_decoder = np.zeros([max_bs], "int32")
accept_num = np.random.randint(1, 3, [max_bs]).astype("int32")
for i in range(bs):
seq_lens_decoder[i] = 2 + i * 2
seq_lens_this_time[i] = 1
ori_seq_lens_encoder = np.zeros([max_bs], "int32")
ori_seq_lens_encoder[:] = seq_lens_decoder[:] // 2
ori_seq_lens_decoder = np.random.randint(1, 10, (max_bs), "int32")
step_idx = (seq_lens_decoder - ori_seq_lens_encoder).astype("int64")
max_block_num = block_bs * max_seq_len // block_size
free_list_len = int(max_block_num * (1 - block_ratio))
free_list_len = np.full([1], free_list_len, "int32")
free_list = np.arange(
max_block_num - 1, max_block_num - free_list_len.item() - 1, -1, dtype="int32" # 加 .item() 转为标量
)
encoder_block_lens = np.zeros([max_bs], "int32")
used_list_len = np.zeros([max_bs], "int32")
block_tables = np.full([max_bs, 128], -1, "int32")
encoder_block_id = 0
for i in range(bs):
enc_block_num = (ori_seq_lens_encoder[i] + block_size - 1) // block_size
encoder_block_lens[i] = enc_block_num
dec_block_num = (seq_lens_decoder[i] + block_size - 1) // block_size - enc_block_num
used_list_len[i] = dec_block_num
block_tables[i, :enc_block_num] = np.arange(encoder_block_id, encoder_block_id + enc_block_num, 1, "int32")
encoder_block_id += enc_block_num
if dec_block_num > 0:
block_tables[i, enc_block_num : enc_block_num + dec_block_num] = free_list[
free_list_len[0] - 1 - dec_block_num : free_list_len[0] - 1
]
free_list[free_list_len[0] - 1 - dec_block_num : free_list_len[0] - 1] = -1
free_list_len[0] -= dec_block_num
assert free_list_len[0] >= 0, "free_list_len should not be negative"
is_block_step = np.zeros([max_bs], "bool")
is_block_step[:bs] = np.random.randint(0, 2, [bs]).astype("bool")
step_block_list = np.full([max_bs], -1, "int32")
step_lens = np.full([1], 0, "int32")
for i in range(bs):
if is_block_step[i]:
step_block_list[step_lens[0]] = i
step_lens[0] += 1
recover_lens = np.full([1], 0, "int32")
recover_block_list = np.full([max_bs], -1, "int32")
need_block_len = np.full([1], 0, "int32")
need_block_list = np.full([max_bs], -1, "int32")
input_ids = np.random.randint(0, 1000, [max_bs, max_seq_len], "int64")
pre_ids = np.random.randint(0, 1000, [max_bs, max_seq_len], "int64")
next_tokens = np.random.randint(0, 1000, [max_bs], "int64")
first_token_ids = np.random.randint(0, 1000, [max_bs], "int64")
paddle.set_device("cpu")
# 转换为 paddle tensor保持原有逻辑
data_cpu = {
"stop_flags": paddle.to_tensor(stop_flags),
"seq_lens_this_time": paddle.to_tensor(seq_lens_this_time),
"seq_lens_encoder": paddle.to_tensor(seq_lens_encoder),
"seq_lens_decoder": paddle.to_tensor(seq_lens_decoder),
"ori_seq_lens_encoder": paddle.to_tensor(ori_seq_lens_encoder),
"ori_seq_lens_decoder": paddle.to_tensor(ori_seq_lens_decoder),
"block_tables": paddle.to_tensor(block_tables),
"encoder_block_lens": paddle.to_tensor(encoder_block_lens),
"is_block_step": paddle.to_tensor(is_block_step),
"step_block_list": paddle.to_tensor(step_block_list),
"step_lens": paddle.to_tensor(step_lens),
"recover_block_list": paddle.to_tensor(recover_block_list),
"recover_lens": paddle.to_tensor(recover_lens),
"need_block_list": paddle.to_tensor(need_block_list),
"need_block_len": paddle.to_tensor(need_block_len),
"used_list_len": paddle.to_tensor(used_list_len),
"free_list_len": paddle.to_tensor(free_list_len),
"free_list": paddle.to_tensor(free_list),
"input_ids": paddle.to_tensor(input_ids),
"pre_ids": paddle.to_tensor(pre_ids),
"step_idx": paddle.to_tensor(step_idx),
"next_tokens": paddle.to_tensor(next_tokens),
"first_token_ids": paddle.to_tensor(first_token_ids),
"accept_num": paddle.to_tensor(accept_num),
"block_size": block_size,
"encoder_decoder_block_num": encoder_decoder_block_num,
"max_draft_tokens": max_draft_tokens,
}
paddle.set_device("xpu:0")
data_xpu = {
"stop_flags": paddle.to_tensor(stop_flags),
"seq_lens_this_time": paddle.to_tensor(seq_lens_this_time),
"seq_lens_encoder": paddle.to_tensor(seq_lens_encoder),
"seq_lens_decoder": paddle.to_tensor(seq_lens_decoder),
"ori_seq_lens_encoder": paddle.to_tensor(ori_seq_lens_encoder),
"ori_seq_lens_decoder": paddle.to_tensor(ori_seq_lens_decoder),
"block_tables": paddle.to_tensor(block_tables),
"encoder_block_lens": paddle.to_tensor(encoder_block_lens),
"is_block_step": paddle.to_tensor(is_block_step),
"step_block_list": paddle.to_tensor(step_block_list),
"step_lens": paddle.to_tensor(step_lens),
"recover_block_list": paddle.to_tensor(recover_block_list),
"recover_lens": paddle.to_tensor(recover_lens),
"need_block_list": paddle.to_tensor(need_block_list),
"need_block_len": paddle.to_tensor(need_block_len),
"used_list_len": paddle.to_tensor(used_list_len),
"free_list_len": paddle.to_tensor(free_list_len),
"free_list": paddle.to_tensor(free_list),
"input_ids": paddle.to_tensor(input_ids),
"pre_ids": paddle.to_tensor(pre_ids),
"step_idx": paddle.to_tensor(step_idx),
"next_tokens": paddle.to_tensor(next_tokens),
"first_token_ids": paddle.to_tensor(first_token_ids),
"accept_num": paddle.to_tensor(accept_num),
"block_size": block_size,
"encoder_decoder_block_num": encoder_decoder_block_num,
"max_draft_tokens": max_draft_tokens,
}
# 恢复默认设备,避免影响其他测试
paddle.set_device("cpu")
return data_cpu, data_xpu
def speculate_step_paddle_execution(test_data):
"""测试 speculate_step_system_cache 函数的执行性和输出合理性"""
# 提取输入数据
stop_flags = test_data["stop_flags"] # 克隆避免影响夹具数据
seq_lens_this_time = test_data["seq_lens_this_time"]
ori_seq_lens_encoder = test_data["ori_seq_lens_encoder"]
ori_seq_lens_decoder = test_data["ori_seq_lens_decoder"]
seq_lens_encoder = test_data["seq_lens_encoder"]
seq_lens_decoder = test_data["seq_lens_decoder"]
block_tables = test_data["block_tables"]
encoder_block_lens = test_data["encoder_block_lens"]
is_block_step = test_data["is_block_step"]
step_block_list = test_data["step_block_list"]
step_lens = test_data["step_lens"]
recover_block_list = test_data["recover_block_list"]
recover_lens = test_data["recover_lens"]
need_block_list = test_data["need_block_list"]
need_block_len = test_data["need_block_len"]
used_list_len = test_data["used_list_len"]
free_list = test_data["free_list"]
free_list_len = test_data["free_list_len"]
input_ids = test_data["input_ids"]
pre_ids = test_data["pre_ids"]
step_idx = test_data["step_idx"]
next_tokens = test_data["next_tokens"]
first_token_ids = test_data["first_token_ids"]
accept_num = test_data["accept_num"]
block_size = test_data["block_size"]
encoder_decoder_block_num = test_data["encoder_decoder_block_num"]
max_draft_tokens = test_data["max_draft_tokens"]
# 可选:打印执行前关键信息(如需调试可开启)
if os.environ.get("STEP_TEST_DEBUG", "0") == "1":
print("-" * 50 + "before step op" + "-" * 50)
# ... (省略打印内容以保持简洁)
# 执行目标函数(核心测试步骤)
speculate_step_system_cache(
stop_flags,
seq_lens_this_time,
ori_seq_lens_encoder,
ori_seq_lens_decoder,
seq_lens_encoder,
seq_lens_decoder,
block_tables,
encoder_block_lens,
is_block_step,
step_block_list,
step_lens,
recover_block_list,
recover_lens,
need_block_list,
need_block_len,
used_list_len,
free_list,
free_list_len,
input_ids,
pre_ids,
step_idx,
next_tokens,
first_token_ids,
accept_num,
block_size,
encoder_decoder_block_num,
max_draft_tokens,
)
# 可选:打印执行后关键信息(如需调试可开启)
if os.environ.get("STEP_TEST_DEBUG", "0") == "1":
print("-" * 50 + "after step op" + "-" * 50)
# ... (省略打印内容以保持简洁)
return test_data
class TestSpeculateStepSystemCache(unittest.TestCase):
"""
测试类,继承自 unittest.TestCase。
所有以 'test_' 开头的方法都会被视为测试用例。
"""
def assert_test_data_equal(self, test_data1, test_data2, rtol=1e-05, atol=1e-08):
"""
自定义的断言方法,用于比较两个 test_data 结构和数据。
在 unittest 中,自定义断言通常以 'assert' 开头。
"""
# 1. 先校验两个 test_data 的字段名完全一致
keys1 = set(test_data1.keys())
keys2 = set(test_data2.keys())
self.assertEqual(
keys1,
keys2,
msg=f"两个 test_data 字段不一致!\n仅在第一个中存在:{keys1 - keys2}\n仅在第二个中存在:{keys2 - keys1}",
)
# 2. 逐字段校验数据
for key in keys1:
data1 = test_data1[key]
data2 = test_data2[key]
# 区分paddle Tensor需转 numpy和 普通标量/数组(直接使用)
if isinstance(data1, paddle.Tensor):
np1 = data1.detach().cpu().numpy()
else:
np1 = np.asarray(data1)
if isinstance(data2, paddle.Tensor):
np2 = data2.detach().cpu().numpy()
else:
np2 = np.asarray(data2)
# 3. 校验数据
if np1.dtype in (np.bool_, np.int8, np.int16, np.int32, np.int64, np.uint8):
# 布尔/整数型:必须完全相等
np.testing.assert_array_equal(np1, np2, err_msg=f"字段 {key} 数据不一致!")
else:
# 浮点型:允许 rtol/atol 范围内的误差
np.testing.assert_allclose(np1, np2, rtol=rtol, atol=atol, err_msg=f"字段 {key} 浮点数据不一致!")
print("✅ 两个 test_data 结构和数据完全一致!")
def test_speculate_step_system_cache_execution(self):
"""
核心测试用例方法。
该方法会调用 generate_test_data 获取数据,
分别在 CPU 和 XPU 上执行测试函数,
并使用自定义的断言方法比较结果。
"""
print("\nRunning test: test_speculate_step_system_cache_execution")
# 1. 获取测试数据
data_cpu, data_xpu = generate_test_data()
# 2. 执行测试函数
result_xpu = speculate_step_paddle_execution(data_xpu)
result_cpu = speculate_step_paddle_execution(data_cpu)
# 3. 断言结果一致
self.assert_test_data_equal(result_xpu, result_cpu)
if __name__ == "__main__":
# 使用 unittest 的主程序来运行所有测试用例
unittest.main()