chore: T-P-1 工作区收敛——并行会话成果与历史未入库文件整理入库

- 入库历史遗漏源码/测试:router_system 9 模块(agent/executors/inference/knowledge/
  memory/planner/skills/trace)、tests 11 个测试文件、config/knowledge 领域知识
- 入库根目录方案文档(v2/v3/可行性×2)、references 文献(arxiv 14-18/cnki_open/
  参考文献清单)、research 论文素材(routerarena/paper/中文文献 PDF)
- 前端构建产物刷新(新 hash);webapp 误写文档删除
- gitignore 增补:deepseek-harness、research/_refs、.mimosa/.zcode、网关日志/pid、
  临时调试脚本、tests/e2e/node_modules、AI代理功能开发/prefix
- 基线确认:318 passed
This commit is contained in:
tzt
2026-09-05 08:28:25 +08:00
parent 747d85c3ba
commit ce0f6170d3
82 changed files with 74132 additions and 36 deletions
+370
View File
@@ -0,0 +1,370 @@
"""执行器体系(L0 默认专家 + NodeExecutor 后端抽象)。
设计对齐"专家系统风格"(《可行性调研与落地实现路线报告》第八章):
- 输出 = 结构化模板填充(回显查询、知识库事实、领域结构),不追求自然语言流畅度
- 确定性:同输入 → 同输出(无采样随机)
- 最小参数:零模型参数;L2 模式下同一节点可改由本地小模型执行(Router 按配置切换)
kind(子任务动作类型)与模板对应:
analyze 需求/条件分析 | design 方案设计 | implement 代码实现 | solve 数学求解
diagnose 错误定位 | fix 修复方案 | retrieve 知识检索 | conclude 结论
advise 一般建议 | explain 展开解释 | disclaimer 免责/警示 | verify 自检
"""
from __future__ import annotations
from typing import Any, Dict, Optional
from .experts import Expert, extract_content_terms
from .knowledge import KnowledgeBase
from .memory import TaskNode, WorkingMemory
from .models import ExpertResponse
# 各领域"分析"步骤的目标描述
_GOALS = {
"code": "输出可运行的代码实现",
"math": "得到问题的解并给出推导",
"legal": "给出法律结论与依据",
"medical": "给出科普性建议",
"finance": "给出理财/金融建议与风险提示",
"life": "给出实用生活建议",
"education": "给出学习/行动方案",
"general": "给出结构化说明",
}
# 各领域"约束/边界"提示
_CONSTRAINTS = {
"code": "边界条件(空输入、极端值);复杂度目标",
"math": "定义域、无解/多解情况、特殊值",
"legal": "以现行有效法律为准,个案需咨询律师",
"medical": "个体差异;非诊断,请遵医嘱",
"finance": "市场有风险,投资需谨慎;不构成投资建议",
"life": "结合个人实际情况,安全第一",
"education": "结合个人基础与目标,循序渐进",
"general": "围绕核心问题,避免无关展开",
}
# 各领域"验证"清单
_VERIFY_CHECKS = {
"code": ["输入输出覆盖", "边界条件", "复杂度合理", "可运行性"],
"math": ["中间步骤正确", "结果代入验证", "边界/特殊值", "单位与符号"],
"legal": ["法条依据充分", "事实对应", "免责提示", "结论可执行"],
"medical": ["建议有依据", "警示信号明确", "免责提示", "不构成诊断"],
"finance": ["风险提示完整", "数据/规则准确", "免责提示", "建议可执行"],
"life": ["建议实用", "安全提示", "贴合场景"],
"education": ["方案可执行", "目标可衡量", "符合个人基础"],
"general": ["要点覆盖", "逻辑连贯", "无事实错误"],
}
def _kw(query: str, n: int = 6) -> str:
terms = extract_content_terms(query)
return "".join(terms[:n]) if terms else "该主题"
class RuleExecutor(Expert):
"""规则执行器:实现 Expert 接口;L0 模式的默认领域执行器。"""
name = "rule-executor"
def __init__(self, name: str = "rule-executor", domain: str = "general",
kb: Optional[KnowledgeBase] = None):
self.name = name
self.domain = domain
self.kb = kb
async def generate(self, query: str, difficulty: str,
memory: Optional[WorkingMemory] = None,
node: Optional[TaskNode] = None) -> ExpertResponse:
"""按节点 kind 生成确定性输出。兼容 Expert 基类签名(后两参可选)。"""
kind = node.kind if node is not None else "explain"
domain = node.domain if node is not None else self.domain
text = self._template(kind, domain, query, difficulty, memory)
tokens = max(8, int(len(text) / 2.2))
return ExpertResponse(
text=text,
model_used=f"rule:{domain}:{kind}",
latency_ms=0.0,
tokens=tokens,
cost_est=0.0, # 零参数执行器无推理成本
)
# ---------------------------------------------------------------
def _template(self, kind: str, domain: str, query: str, difficulty: str,
memory: Optional[WorkingMemory]) -> str:
facts: Dict[str, Any] = memory.facts if memory else {}
goal = _GOALS.get(domain, _GOALS["general"])
constraints = _CONSTRAINTS.get(domain, _CONSTRAINTS["general"])
kw = _kw(query)
if kind == "analyze":
return (
f"{domain} 分析】\n"
f"- 任务:{query}\n"
f"- 关键要素:{kw}\n"
f"- 目标:{goal}\n"
f"- 约束/边界:{constraints}\n"
f"- 难度评估:{difficulty}"
)
if kind == "design":
return (
f"{domain} 方案设计】\n"
f"针对「{query}」的设计思路:\n"
f"1. 明确核心目标与验收标准\n"
f"2. 选择合适的方法/数据结构(依据:{kw}\n"
f"3. 拆解实现步骤并标注复杂度\n"
f"4. 预留边界处理与异常路径\n"
f"5. 设计自测用例(正常/边界/异常)"
)
if kind == "implement":
return (
f"{domain} 实现】\n"
f"```python\n"
f"def solve() -> None:\n"
f" # 关键点:{kw}\n"
f" # 1. 校验输入与边界条件\n"
f" # 2. 核心逻辑(依据 design 步骤)\n"
f" # 3. 输出结果\n"
f" pass\n"
f"```\n"
f"要点:{kw};复杂度与边界说明见 design/verify 步骤。"
)
if kind == "solve":
return (
f"{domain} 求解】\n"
f"题目:{query}\n"
f"步骤:\n"
f"1. 提取已知条件({kw}\n"
f"2. 选择方法:代数变形/公式代入/逐步推导\n"
f"3. 求解并化简中间结果\n"
f"4. 检查特殊值与边界\n"
f"结论:在标准假设下可得到闭合形式解;完整推导见正式解答。"
)
if kind == "diagnose":
return (
f"{domain} 诊断】\n"
f"错误现象:{query}\n"
f"排查步骤:\n"
f"1. 复现并定位出错行\n"
f"2. 检查变量类型与取值(重点:{kw}\n"
f"3. 核对函数签名、作用域与返回值\n"
f"4. 打印中间变量验证假设\n"
f"5. 用最小样例隔离问题"
)
if kind == "fix":
return (
f"{domain} 修复方案】\n"
f"针对「{query}」:\n"
f"1. 根因:见 diagnose 步骤\n"
f"2. 修复:调整类型/增加空值判断/修正逻辑分支\n"
f"```python\n"
f"def fixed() -> None:\n"
f" # 修复点:{kw}\n"
f" pass\n"
f"```\n"
f"3. 回归:补充对应单测后重跑"
)
if kind == "retrieve":
return self._retrieve(domain, query, memory)
if kind == "conclude":
return (
f"{domain} 结论】\n"
f"综合「{query}」:\n"
f"1. 事实梳理:{kw}\n"
f"2. 适用规则/依据(见 retrieve 步骤)\n"
f"3. 结论:在所述前提下,按上述规则处理\n"
f"4. 注意事项:个案差异,必要时咨询专业人士"
)
if kind == "advise":
return (
f"{domain} 建议】\n"
f"关于「{query}」的一般性建议:\n"
f"1. 基础注意事项({kw}\n"
f"2. 可操作建议:分步执行并观察效果\n"
f"3. 警示信号:出现下列情况应及时就医(见 warning 步骤)"
)
if kind == "explain":
if domain == "code":
return (
f"【code 代码讲解】\n"
f"代码/片段:{query}\n"
f"讲解结构:\n"
f"1. 整体目的:这段代码要解决什么问题({kw}\n"
f"2. 执行流程:按行/按函数梳理数据流与调用链\n"
f"3. 关键点:数据结构、边界处理、异常路径\n"
f"4. 可改进点:命名/复杂度/可读性建议"
)
return (
f"{domain} 说明】\n"
f"主题:{query}\n"
f"1. 背景与定义\n"
f"2. 核心要点:{kw}\n"
f"3. 分类/维度/机制\n"
f"4. 实际应用与注意事项\n"
f"如需更深入分析,可补充上下文。"
)
if kind == "disclaimer":
if domain == "legal":
return (
"⚠️ 提示:以上为一般性法律分析,不构成正式法律意见;"
"个案请咨询执业律师。"
)
if domain == "medical":
return (
"⚠️ 提示:以上内容仅供健康科普,不能替代医生诊断;"
"如有不适请及时就医。"
)
if domain == "finance":
return (
"⚠️ 提示:以上为一般性金融科普,不构成投资建议;"
"投资有风险,决策前请结合自身情况并咨询专业人士。"
)
return ""
if kind == "verify":
checks = _VERIFY_CHECKS.get(domain, _VERIFY_CHECKS["general"])
items = "\n".join(f"- {c}" for c in checks)
return f"{domain} 自检】\n{items}"
if kind == "refactor":
return (
f"【code 重构方案】\n"
f"针对「{query}」:\n"
f"1. 现状问题:重复代码/长函数/命名不清/耦合({kw}\n"
f"2. 重构手法:提取函数、消除魔法数字、引入类或模块、统一命名\n"
f"3. 目标结构:单一职责、清晰分层、可测试性\n"
f"4. 验证:重构前后行为等价(跑通全部测试)"
)
if kind == "testcase":
return (
f"【code 测试用例】\n"
f"针对「{query}」设计测试:\n"
f"```python\n"
f"def test_xxx():\n"
f" # 正常路径:{kw}\n"
f" pass\n\n"
f"def test_edge():\n"
f" # 边界:空输入/极值/None\n"
f" pass\n\n"
f"def test_error():\n"
f" # 异常路径:非法参数\n"
f" pass\n"
f"```\n"
f"覆盖策略:正常 + 边界 + 异常三组,断言明确"
)
if kind == "complexity":
return (
f"【code 复杂度分析】\n"
f"针对「{query}」:\n"
f"1. 时间复杂度:核心循环/递归层数 → 平均与最坏情况({kw}\n"
f"2. 空间复杂度:辅助数据结构占用\n"
f"3. 优化建议:若可接受,给出降复杂度的替代思路"
)
if kind == "optimize":
return (
f"【math 最优化求解】\n"
f"问题:{query}\n"
f"步骤:\n"
f"1. 建立目标函数与约束({kw}\n"
f"2. 求导/配方/不等式法找候选极值点\n"
f"3. 比较候选值并与边界比较\n"
f"4. 结论:给出最大值/最小值及取到条件"
)
if kind == "draft":
return (
f"【写作初稿】\n"
f"主题:{query}\n"
f"结构:\n"
f"1. 开头:点明主题与背景({kw}\n"
f"2. 主体:分点展开,每点配一个例子或依据\n"
f"3. 结尾:总结观点 + 行动建议\n"
f"(初稿完成,待 polish 步骤润色)"
)
if kind == "polish":
return (
f"【写作润色】\n"
f"基于初稿检查:\n"
f"1. 语法与错别字\n"
f"2. 逻辑衔接与段落过渡\n"
f"3. 语气统一(正式/亲切)与受众匹配\n"
f"4. 长度控制与重点突出({kw}"
)
# 未知 kind 兜底
return f"(规则执行器)「{query}」:{kw}"
# ---------------------------------------------------------------
def _retrieve(self, domain: str, query: str,
memory: Optional[WorkingMemory]) -> str:
"""知识检索:从知识库事实表取命中的条目;无命中则给出查阅建议。"""
if self.kb is None:
return (
f"{domain} 知识检索】\n"
f"未配置知识库,建议查阅权威资料({_kw(query)})。"
)
facts = self.kb.facts(domain)
hits = [f for f in facts if any(k in query for k in f.get("keywords", []))]
if hits:
lines = [f"- {f['statement']}" for f in hits]
return f"{domain} 知识检索】\n" + "\n".join(lines)
return (
f"{domain} 知识检索】\n"
f"未命中知识库条目;建议以现行有效法规/最新指南为准,"
f"并结合个案情况分析({_kw(query)})。"
)
# ===============================================================
# NodeExecutor:子任务执行后端抽象(T1:整体项目部分拆解·先行实现)
#
# Router._execute_node 不再内联 if-else 分支,而是依赖 NodeExecutor 接口:
# - RuleNodeExecutor L0 规则执行器(零参数、确定性)
# - ModelNodeExecutorL2 专家池小模型(≤8B,按需加载)
# - 未来可加:多路采样执行器、API 执行器、组内模型执行器……
# 工厂按配置选择后端,新增后端无需改动 Router。
# ===============================================================
class NodeExecutor:
"""子任务执行后端抽象接口。"""
name: str = "node-executor"
async def execute(self, node: TaskNode, domain: str, difficulty: str,
memory: WorkingMemory) -> ExpertResponse:
raise NotImplementedError
class RuleNodeExecutor(NodeExecutor):
"""L0:规则执行器后端(零参数、确定性、零成本)。"""
name = "rule"
def __init__(self, kb: Optional[KnowledgeBase] = None):
self._rule = RuleExecutor("rule-executor", "general", kb=kb)
async def execute(self, node: TaskNode, domain: str, difficulty: str,
memory: WorkingMemory) -> ExpertResponse:
return await self._rule.generate(node.query, difficulty, memory, node)
class ModelNodeExecutor(NodeExecutor):
"""L2:专家池小模型后端(≤8B;组内模型按需加载,用完即卸载由推理服务管理)。"""
name = "model"
def __init__(self, experts: Dict[str, Expert]):
self._experts = experts
async def execute(self, node: TaskNode, domain: str, difficulty: str,
memory: WorkingMemory) -> ExpertResponse:
expert = self._experts.get(node.domain) or self._experts.get("general")
return await expert.generate(node.query, difficulty)
def build_node_executor(backend: str, kb: Optional[KnowledgeBase] = None,
experts: Optional[Dict[str, Expert]] = None) -> NodeExecutor:
"""按配置选择子任务执行后端。"""
if backend == "rule":
return RuleNodeExecutor(kb=kb)
if backend in ("hf", "api", "model"):
if not experts:
raise ValueError("ModelNodeExecutor 需要专家池(experts")
return ModelNodeExecutor(experts)
raise ValueError(f"未知执行后端: {backend}(支持 rule | hf | api | model")