add:skill&agent

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---
name: add-protocol
description: Guide for adding new experiment protocols to Uni-Lab-OS (添加新实验操作协议). Walks through ROS Action definition, Pydantic model creation, protocol generator implementation, and registration. Use when the user wants to add a new protocol, create a compile function, implement an experiment operation, or mentions 协议/protocol/编译/compile/实验操作.
---
# 添加新实验操作协议Protocol
Protocol 是对实验有意义的完整动作(如泵转移、过滤、溶解),需要多设备协同。`compile/` 中的生成函数根据设备连接图将抽象操作"编译"为设备指令序列。
添加一个 Protocol 需修改 **6 个文件**,按以下流程执行。
---
## 第一步:确认协议信息
向用户确认:
| 信息 | 示例 |
|------|------|
| 协议英文名 | `MyNewProtocol` |
| 操作描述 | 将固体样品研磨至目标粒径 |
| Goal 参数(必需 + 可选) | `vessel: dict`, `time: float = 300.0` |
| Result 字段 | `success: bool`, `message: str` |
| 需要哪些设备协同 | 研磨器、搅拌器 |
---
## 第二步:创建 ROS Action 定义
路径:`unilabos_msgs/action/<ActionName>.action`
三段式结构Goal / Result / Feedback`---` 分隔:
```
# Goal
Resource vessel
float64 time
string mode
---
# Result
bool success
string return_info
---
# Feedback
string status
string current_device
builtin_interfaces/Duration time_spent
builtin_interfaces/Duration time_remaining
```
**类型映射:**
| Python 类型 | ROS 类型 | 说明 |
|------------|----------|------|
| `dict` | `Resource` | 容器/设备引用,自定义消息类型 |
| `float` | `float64` | |
| `int` | `int32` | |
| `str` | `string` | |
| `bool` | `bool` | |
> `Resource` 是 `unilabos_msgs/msg/Resource.msg` 中定义的自定义消息类型。
---
## 第三步:注册 Action 到 CMakeLists
`unilabos_msgs/CMakeLists.txt``set(action_files ...)` 块中添加:
```cmake
"action/MyNewAction.action"
```
> 调试时需编译:`cd unilabos_msgs && colcon build && source ./install/local_setup.sh && cd ..`
> PR 合并后 CI/CD 自动发布,`mamba update ros-humble-unilabos-msgs` 即可。
---
## 第四步:创建 Pydantic 模型
`unilabos/messages/__init__.py` 中添加(位于 `# Start Protocols``# End Protocols` 之间):
```python
class MyNewProtocol(BaseModel):
# === 必需参数 ===
vessel: dict = Field(..., description="目标容器")
# === 可选参数 ===
time: float = Field(300.0, description="操作时间 (秒)")
mode: str = Field("default", description="操作模式")
def model_post_init(self, __context):
"""参数验证和修正"""
if self.time <= 0:
self.time = 300.0
```
**规则:**
- 参数名必须与 `.action` 文件中 Goal 字段完全一致
- `dict` 类型对应 `.action` 中的 `Resource`
- 将类名加入文件末尾的 `__all__` 列表
---
## 第五步:实现协议生成函数
路径:`unilabos/compile/<protocol_name>_protocol.py`
```python
import networkx as nx
from typing import List, Dict, Any
def generate_my_new_protocol(
G: nx.DiGraph,
vessel: dict,
time: float = 300.0,
mode: str = "default",
**kwargs,
) -> List[Dict[str, Any]]:
"""将 MyNewProtocol 编译为设备动作序列。
Args:
G: 设备连接图NetworkX节点为设备/容器,边为物理连接
vessel: 目标容器 {"id": "reactor_1"}
time: 操作时间(秒)
mode: 操作模式
Returns:
动作列表,每个元素为:
- dict: 单步动作
- list[dict]: 并行动作
"""
from unilabos.compile.utils.vessel_parser import get_vessel
vessel_id, vessel_data = get_vessel(vessel)
actions = []
# 查找相关设备(通过图的连接关系)
# 生成动作序列
actions.append({
"device_id": "target_device_id",
"action_name": "some_action",
"action_kwargs": {"param": "value"}
})
# 等待
actions.append({
"action_name": "wait",
"action_kwargs": {"time": time}
})
return actions
```
### 动作字典格式
```python
# 单步动作(发给子设备)
{"device_id": "pump_1", "action_name": "set_position", "action_kwargs": {"position": 10.0}}
# 发给工作站自身
{"device_id": "self", "action_name": "my_action", "action_kwargs": {...}}
# 等待
{"action_name": "wait", "action_kwargs": {"time": 5.0}}
# 并行动作(列表嵌套)
[
{"device_id": "pump_1", "action_name": "set_position", "action_kwargs": {"position": 10.0}},
{"device_id": "stirrer_1", "action_name": "start_stir", "action_kwargs": {"stir_speed": 300}}
]
```
### 关于 `vessel` 参数类型
现有协议的 `vessel` 参数类型不统一:
- 新协议趋势:使用 `dict`(如 `{"id": "reactor_1"}`
- 旧协议:使用 `str`(如 `"reactor_1"`
- 兼容写法:`Union[str, dict]`
**建议新协议统一使用 `dict` 类型**,通过 `get_vessel()` 兼容两种输入。
### 公共工具函数(`unilabos/compile/utils/`
| 函数 | 用途 |
|------|------|
| `get_vessel(vessel)` | 解析容器参数为 `(vessel_id, vessel_data)`,兼容 dict 和 str |
| `find_solvent_vessel(G, solvent)` | 根据溶剂名查找容器(精确→命名规则→模糊→液体类型) |
| `find_reagent_vessel(G, reagent)` | 根据试剂名查找容器(支持固体和液体) |
| `find_connected_stirrer(G, vessel)` | 查找与容器相连的搅拌器 |
| `find_solid_dispenser(G)` | 查找固体加样器 |
### 协议内专属查找函数
许多协议在自己的文件内定义了专属的 `find_*` 函数(不在 `utils/` 中)。编写新协议时,优先复用 `utils/` 中的公共函数;如需特殊查找逻辑,在协议文件内部定义即可:
```python
def find_my_special_device(G: nx.DiGraph, vessel: str) -> str:
"""查找与容器相关的特殊设备"""
for node in G.nodes():
if 'my_device_type' in G.nodes[node].get('class', '').lower():
return node
raise ValueError("未找到特殊设备")
```
### 复用已有协议
复杂协议通常组合已有协议:
```python
from unilabos.compile.pump_protocol import generate_pump_protocol_with_rinsing
actions.extend(generate_pump_protocol_with_rinsing(
G, from_vessel=solvent_vessel, to_vessel=vessel, volume=volume
))
```
### 图查询模式
```python
# 查找与容器相连的特定类型设备
for neighbor in G.neighbors(vessel_id):
node_data = G.nodes[neighbor]
if "heater" in node_data.get("class", ""):
heater_id = neighbor
break
# 查找最短路径(泵转移)
path = nx.shortest_path(G, source=from_vessel_id, target=to_vessel_id)
```
---
## 第六步:注册协议生成函数
`unilabos/compile/__init__.py` 中:
1. 顶部添加导入:
```python
from .my_new_protocol import generate_my_new_protocol
```
2.`action_protocol_generators` 字典中添加映射:
```python
action_protocol_generators = {
# ... 已有协议
MyNewProtocol: generate_my_new_protocol,
}
```
---
## 第七步:配置图文件
在工作站的图文件中,将协议名加入 `protocol_type`
```json
{
"id": "my_station",
"class": "workstation",
"config": {
"protocol_type": ["PumpTransferProtocol", "MyNewProtocol"]
}
}
```
---
## 第八步:验证
```bash
# 1. 模块可导入
python -c "from unilabos.messages import MyNewProtocol; print(MyNewProtocol.model_fields)"
# 2. 生成函数可导入
python -c "from unilabos.compile import action_protocol_generators; print(list(action_protocol_generators.keys()))"
# 3. 启动测试(可选)
unilab -g <graph>.json --complete_registry
```
---
## 工作流清单
```
协议接入进度:
- [ ] 1. 确认协议名、参数、涉及设备
- [ ] 2. 创建 .action 文件 (unilabos_msgs/action/<Name>.action)
- [ ] 3. 注册到 CMakeLists.txt
- [ ] 4. 创建 Pydantic 模型 (unilabos/messages/__init__.py) + 更新 __all__
- [ ] 5. 实现生成函数 (unilabos/compile/<name>_protocol.py)
- [ ] 6. 注册到 compile/__init__.py
- [ ] 7. 配置图文件 protocol_type
- [ ] 8. 验证
```
---
## 高级模式
实现复杂协议时,详见 [reference.md](reference.md)协议运行时数据流、mock graph 测试模式、单位解析工具(`unit_parser.py`)、复杂协议组合模式(以 dissolve 为例)。
---
## 现有协议速查
| 协议 | Pydantic 类 | 生成函数 | 核心参数 |
|------|-------------|---------|---------|
| 泵转移 | `PumpTransferProtocol` | `generate_pump_protocol_with_rinsing` | `from_vessel, to_vessel, volume` |
| 简单转移 | `TransferProtocol` | `generate_pump_protocol` | `from_vessel, to_vessel, volume` |
| 加样 | `AddProtocol` | `generate_add_protocol` | `vessel, reagent, volume` |
| 过滤 | `FilterProtocol` | `generate_filter_protocol` | `vessel, filtrate_vessel` |
| 溶解 | `DissolveProtocol` | `generate_dissolve_protocol` | `vessel, solvent, volume` |
| 加热/冷却 | `HeatChillProtocol` | `generate_heat_chill_protocol` | `vessel, temp, time` |
| 搅拌 | `StirProtocol` | `generate_stir_protocol` | `vessel, time` |
| 分离 | `SeparateProtocol` | `generate_separate_protocol` | `from_vessel, separation_vessel, solvent` |
| 蒸发 | `EvaporateProtocol` | `generate_evaporate_protocol` | `vessel, pressure, temp, time` |
| 清洗 | `CleanProtocol` | `generate_clean_protocol` | `vessel, solvent, volume` |
| 离心 | `CentrifugeProtocol` | `generate_centrifuge_protocol` | `vessel, speed, time` |
| 抽气充气 | `EvacuateAndRefillProtocol` | `generate_evacuateandrefill_protocol` | `vessel, gas` |