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TJWaterServerBinary/app/api/v1/endpoints/simulation.py
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from typing import Any, List, Optional
from datetime import datetime, timedelta
import json
import os
import shutil
import threading
from fastapi import APIRouter, HTTPException, File, UploadFile, Query, Path, Body
from fastapi.responses import PlainTextResponse
import app.services.simulation as simulation
import app.services.globals as globals
from app.services.tjnetwork import (
run_project,
run_project_return_dict,
run_inp,
dump_output,
)
from app.algorithms.simulation.scenarios import (
burst_analysis,
valve_close_analysis,
flushing_analysis,
contaminant_simulation,
age_analysis,
# scheduling_analysis,
pressure_regulation,
)
from app.algorithms.sensor import (
pressure_sensor_placement_sensitivity,
pressure_sensor_placement_kmeans,
)
from app.services.network_import import network_update
from app.services.simulation_ops import (
project_management,
scheduling_simulation,
daily_scheduling_simulation,
)
from app.services.valve_isolation import analyze_valve_isolation
from pydantic import BaseModel, Field
router = APIRouter()
class RunSimulationManuallyByDate(BaseModel):
name: str = Field(..., description="管网名称(或数据库名称)")
simulation_date: str = Field(..., description="模拟基准日期 (YYYY-MM-DD)")
start_time: str = Field(..., description="开始时间 (HH:MM 或 HH:MM:SS)")
duration: int = Field(..., description="持续时间 (分钟)")
class BurstAnalysis(BaseModel):
name: str = Field(..., description="管网名称(或数据库名称)")
modify_pattern_start_time: str = Field(..., description="模式修改开始时间 (ISO 8601)")
burst_ID: List[str] | str | None = Field(None, description="爆管节点/管段ID列表")
burst_size: List[float] | float | int | None = Field(None, description="爆管流量大小")
modify_total_duration: int = Field(900, description="模拟总时长 (秒)")
modify_fixed_pump_pattern: Optional[dict[str, list]] = Field(None, description="定速泵模式修改")
modify_variable_pump_pattern: Optional[dict[str, list]] = Field(None, description="变速泵模式修改")
modify_valve_opening: Optional[dict[str, float]] = Field(None, description="阀门开度修改")
scheme_name: Optional[str] = Field(None, description="方案名称")
class SchedulingAnalysis(BaseModel):
network: str = Field(..., description="管网名称(或数据库名称)")
start_time: str = Field(..., description="开始时间")
pump_control: dict = Field(..., description="泵控制策略")
tank_id: str = Field(..., description="水箱ID")
water_plant_output_id: str = Field(..., description="水厂出水ID")
time_delta: Optional[int] = Field(300, description="时间步长 (秒)")
class PressureRegulation(BaseModel):
network: str = Field(..., description="管网名称(或数据库名称)")
start_time: str = Field(..., description="开始时间")
pump_control: dict = Field(..., description="泵控制策略")
tank_init_level: Optional[dict] = Field(None, description="水箱初始水位")
duration: Optional[int] = Field(900, description="持续时间 (秒)")
scheme_name: Optional[str] = Field(None, description="方案名称")
class ProjectManagement(BaseModel):
network: str = Field(..., description="管网名称(或数据库名称)")
start_time: str = Field(..., description="开始时间")
pump_control: dict = Field(..., description="泵控制策略")
tank_init_level: Optional[dict] = Field(None, description="水箱初始水位")
region_demand: Optional[dict] = Field(None, description="区域需水量控制")
class DailySchedulingAnalysis(BaseModel):
network: str = Field(..., description="管网名称(或数据库名称)")
start_time: str = Field(..., description="开始时间")
pump_control: dict = Field(..., description="泵控制策略")
reservoir_id: str = Field(..., description="水库ID")
tank_id: str = Field(..., description="水箱ID")
water_plant_output_id: str = Field(..., description="水厂出水ID")
time_delta: Optional[int] = Field(300, description="时间步长 (秒)")
class PumpFailureState(BaseModel):
time: str = Field(..., description="故障发生时间")
pump_status: dict = Field(..., description="泵状态字典")
class PressureSensorPlacement(BaseModel):
name: str = Field(..., description="管网名称(或数据库名称)")
scheme_name: str = Field(..., description="方案名称")
sensor_number: int = Field(..., description="传感器数量")
min_diameter: int = Field(0, description="最小管径限制")
username: str = Field(..., description="用户名")
def run_simulation_manually_by_date(
network_name: str, base_date: datetime, start_time: str, duration: int
) -> None:
time_parts = list(map(int, start_time.split(":")))
if len(time_parts) == 2:
start_hour, start_minute = time_parts
start_second = 0
elif len(time_parts) == 3:
start_hour, start_minute, start_second = time_parts
else:
raise ValueError("Invalid start_time format. Use HH:MM or HH:MM:SS")
start_datetime = base_date.replace(
hour=start_hour, minute=start_minute, second=start_second
)
end_datetime = start_datetime + timedelta(minutes=duration)
current_time = start_datetime
while current_time < end_datetime:
iso_time = current_time.strftime("%Y-%m-%dT%H:%M:%S") + "+08:00"
simulation.run_simulation(
name=network_name,
simulation_type="realtime",
modify_pattern_start_time=iso_time,
)
current_time += timedelta(minutes=15)
# 必须用这个PlainTextResponse,不然每个key都有引号
@router.get("/runproject/", response_class=PlainTextResponse, summary="运行项目模拟", description="基于指定的管网项目运行标准水力模拟,返回纯文本格式的模拟报告。")
async def run_project_endpoint(network: str = Query(..., description="管网名称(或数据库名称)")) -> str:
"""
运行项目模拟
- **network**: 管网名称(或数据库名称)
运行指定管网项目的标准水力模拟并返回文本报告。
"""
return run_project(network)
# DingZQ, 2025-02-04, 返回dict[str, Any]
# output 和 report
# output 是 json
# report 是 text
@router.get("/runprojectreturndict/", summary="运行项目模拟(返回字典)", description="基于指定的管网项目运行标准水力模拟,返回JSON格式的字典,包含输出数据和报告文本。")
async def run_project_return_dict_endpoint(network: str = Query(..., description="管网名称(或数据库名称)")) -> dict[str, Any]:
"""
运行项目模拟(返回字典)
- **network**: 管网名称(或数据库名称)
返回字典包含:
- output: JSON格式的模拟输出数据
- report: 文本格式的模拟报告
运行指定管网项目的标准水力模拟并返回字典结果。
"""
return run_project_return_dict(network)
# put in inp folder, name without extension
@router.get("/runinp/", summary="运行INP文件", description="运行指定INP文件格式的管网模型进行水力模拟。INP文件应该放在inp文件夹中,参数为文件名不含扩展名。")
async def run_inp_endpoint(network: str = Query(..., description="inp文件名(不含扩展名)")) -> str:
"""
运行INP文件
- **network**: inp文件名(不含扩展名)
从inp文件夹中读取指定的INP文件并运行模拟。
"""
return run_inp(network)
# path is absolute path
@router.get("/dumpoutput/", summary="导出模拟输出", description="导出指定路径的模拟输出文件内容。参数应为绝对路径。")
async def dump_output_endpoint(output: str = Query(..., description="模拟输出文件的绝对路径")) -> str:
"""
导出模拟输出
- **output**: 模拟输出文件的绝对路径
读取并返回指定路径的模拟输出内容。
"""
return dump_output(output)
# Analysis Endpoints
@router.get("/burst_analysis/", summary="爆管分析(高级)", description="高级版本的爆管分析,支持在指定时间点修改泵控制模式和阀门开度,以分析这些改变对爆管影响的作用。支持固定泵和变速泵的独立控制。")
async def fastapi_burst_analysis(
network: str = Query(..., description="管网名称(或数据库名称)"),
modify_pattern_start_time: str = Query(..., description="模式修改开始时间(ISO 8601格式)"),
burst_ID: list[str] = Query(..., description="爆管节点/管段ID列表"),
burst_size: list[float] = Query(..., description="对应各爆管点的爆管流量大小列表(L/s)"),
modify_total_duration: int = Query(..., description="模拟总时长(秒)"),
scheme_name: str = Query(..., description="分析方案名称"),
) -> str:
"""
爆管分析(高级版本)
- **network**: 管网名称(或数据库名称)
- **modify_pattern_start_time**: 模式修改开始时间
- **burst_ID**: 爆管节点/管段ID列表
- **burst_size**: 爆管流量大小列表(与burst_ID对应)
- **modify_total_duration**: 模拟总时长(秒)
- **scheme_name**: 分析方案名称
支持在指定时间修改泵控制模式和阀门开度。
"""
burst_analysis(
name=network,
modify_pattern_start_time=modify_pattern_start_time,
burst_ID=burst_ID,
burst_size=burst_size,
modify_total_duration=modify_total_duration,
scheme_name=scheme_name,
)
return "success"
@router.get("/valve_close_analysis/", response_class=PlainTextResponse, summary="阀门关闭分析(高级)", description="高级版本的阀门关闭分析,支持同时关闭多个阀门,并在指定持续时间内进行模拟。返回纯文本格式的分析结果。")
async def fastapi_valve_close_analysis(
network: str = Query(..., description="管网名称(或数据库名称)"),
start_time: str = Query(..., description="阀门关闭开始时间(ISO 8601格式)"),
valves: List[str] = Query(..., description="要关闭的阀门ID列表"),
duration: int | None = Query(None, description="模拟持续时间(秒),默认900秒"),
) -> str:
"""
阀门关闭分析(高级版本)
- **network**: 管网名称(或数据库名称)
- **start_time**: 阀门关闭开始时间
- **valves**: 要关闭的阀门ID列表
- **duration**: 模拟持续时间(秒,可选,默认900)
支持同时关闭多个阀门进行分析。
"""
result = valve_close_analysis(
name=network,
modify_pattern_start_time=start_time,
modify_total_duration=duration or 900,
modify_valve_opening={valve_id: 0.0 for valve_id in valves},
)
return result or "success"
@router.get("/valve_isolation_analysis/", summary="阀门隔离分析", description="分析当发生突发事件时,通过关闭指定阀门进行隔离,确定哪些阀门必须关闭、哪些可选关闭,以及隔离的可行性。")
async def valve_isolation_endpoint(
network: str = Query(..., description="管网名称(或数据库名称)"),
accident_element: List[str] = Query(..., description="发生事故的管段/节点ID列表"),
disabled_valves: List[str] = Query(None, description="已故障的阀门ID列表(可选)"),
):
"""
阀门隔离分析
- **network**: 管网名称(或数据库名称)
- **accident_element**: 发生事故的管段/节点ID列表
- **disabled_valves**: 已故障的阀门ID列表(可选)
返回隔离方案,包括:
- must_close_valves: 必须关闭的阀门列表
- optional_valves: 可选关闭的阀门列表
- affected_nodes: 受影响的节点列表
- isolatable: 是否可以有效隔离
"""
# result = {
# "accident_element": "P461309",
# "accident_elements": ["P461309"],
# "affected_nodes": [
# "J316629_A",
# "J317037_B",
# "J317060_B",
# "J408189_B",
# "J499996",
# "J524940",
# "J535933",
# "J58841",
# ],
# "isolatable": True,
# "must_close_valves": ["210521658", "V12974", "V12986", "V12993"],
# "optional_valves": [],
# }
result = analyze_valve_isolation(network, accident_element, disabled_valves)
return result
@router.get("/flushing_analysis/", response_class=PlainTextResponse, summary="冲洗分析(高级)", description="高级版本的冲洗分析,支持同时开启多个阀门进行冲洗,指定排污节点,并设置固定的冲洗流量。返回纯文本格式的分析结果。")
async def fastapi_flushing_analysis(
network: str = Query(..., description="管网名称(或数据库名称)"),
start_time: str = Query(..., description="冲洗开始时间(ISO 8601格式)"),
valves: List[str] = Query(..., description="要开启的阀门ID列表"),
valves_k: List[float] = Query(..., description="对应各阀门的开度列表(0-1"),
drainage_node_ID: str = Query(..., description="排污节点ID"),
flush_flow: float = Query(0, description="冲洗流量(L/s),0表示自动计算"),
duration: int | None = Query(None, description="模拟持续时间(秒),默认900秒"),
scheme_name: str | None = Query(None, description="冲洗方案名称(可选)"),
) -> str:
"""
冲洗分析(高级版本)
- **network**: 管网名称(或数据库名称)
- **start_time**: 冲洗开始时间
- **valves**: 要开启的阀门ID列表
- **valves_k**: 各阀门的开度列表(0-1,与valves对应)
- **drainage_node_ID**: 排污节点ID
- **flush_flow**: 冲洗流量(L/s
- **duration**: 模拟持续时间(秒,可选,默认900)
- **scheme_name**: 冲洗方案名称(可选)
支持多阀联合冲洗操作。
"""
valve_opening = {
valve_id: float(valves_k[idx]) for idx, valve_id in enumerate(valves)
}
result = flushing_analysis(
name=network,
modify_pattern_start_time=start_time,
modify_total_duration=duration or 900,
modify_valve_opening=valve_opening,
drainage_node_ID=drainage_node_ID,
flushing_flow=flush_flow,
scheme_name=scheme_name,
)
return result or "success"
@router.get("/contaminant_simulation/", response_class=PlainTextResponse, summary="污染物模拟", description="对管网中的污染物扩散进行模拟,评估污染源对管网的影响范围和浓度分布。支持指定污染源位置、污染浓度和扩散模式。")
async def fastapi_contaminant_simulation(
network: str = Query(..., description="管网名称(或数据库名称)"),
start_time: str = Query(..., description="污染开始时间(ISO 8601格式)"),
source: str = Query(..., description="污染源节点ID"),
concentration: float = Query(..., description="污染浓度(mg/L"),
duration: int = Query(..., description="模拟持续时间(秒)"),
scheme_name: str | None = Query(None, description="模拟方案名称(可选)"),
pattern: str | None = Query(None, description="污染源模式ID(可选)"),
) -> str:
"""
污染物模拟
- **network**: 管网名称(或数据库名称)
- **start_time**: 污染开始时间
- **source**: 污染源节点ID
- **concentration**: 污染浓度(mg/L
- **duration**: 模拟持续时间(秒)
- **scheme_name**: 模拟方案名称(可选)
- **pattern**: 污染源模式ID(可选)
用于评估管网中污染物的传播和影响范围。
"""
result = contaminant_simulation(
name=network,
modify_pattern_start_time=start_time,
scheme_name=scheme_name,
modify_total_duration=duration,
source=source,
concentration=concentration,
source_pattern=pattern,
)
return result or "success"
@router.get("/age_analysis/", response_class=PlainTextResponse, summary="水龄分析(高级)", description="高级版本的水龄分析,在指定时间点进行分析,支持自定义模拟持续时间。返回纯文本格式的分析结果。")
async def fastapi_age_analysis(
network: str = Query(..., description="管网名称(或数据库名称)"),
start_time: str = Query(..., description="分析开始时间(ISO 8601格式)"),
duration: int = Query(..., description="模拟持续时间(秒)"),
) -> str:
"""
水龄分析(高级版本)
- **network**: 管网名称(或数据库名称)
- **start_time**: 分析开始时间
- **duration**: 模拟持续时间(秒)
分析指定时间段内管网中各节点的水体停留时间。
"""
result = age_analysis(network, start_time, duration)
return result or "success"
# @router.get("/schedulinganalysis/")
# async def scheduling_analysis_endpoint(network: str):
# return scheduling_analysis(network)
@router.get("/pressureregulation/", summary="压力调节(基础)", description="对管网的压力进行调节分析,通过控制泵的运行来维持目标节点的目标压力。此为基础版本。")
async def pressure_regulation_endpoint(
network: str = Query(..., description="管网名称(或数据库名称)"),
target_node: str = Query(..., description="目标节点ID"),
target_pressure: float = Query(..., description="目标压力值(kPa"),
):
"""
压力调节(基础版本)
- **network**: 管网名称(或数据库名称)
- **target_node**: 目标节点ID
- **target_pressure**: 目标压力值(kPa
通过泵控制维持目标节点的压力。
"""
return pressure_regulation(network, target_node, target_pressure)
@router.post("/pressure_regulation/", summary="压力调节(高级)", description="高级版本的压力调节分析,通过JSON请求体提供详细的控制参数,包括固定泵和变速泵的独立控制、水箱初始水位等。")
async def fastapi_pressure_regulation(data: PressureRegulation = Body(..., description="压力调节控制参数")) -> str:
"""
压力调节(高级版本)
请求体参数:
- **network**: 管网名称(或数据库名称)
- **start_time**: 控制开始时间
- **pump_control**: 泵控制策略字典
- **tank_init_level**: 水箱初始水位字典(可选)
- **duration**: 模拟持续时间(秒,可选,默认900)
- **scheme_name**: 控制方案名称(可选)
支持固定泵和变速泵的独立控制。
"""
item = data.dict()
simulation.query_corresponding_element_id_and_query_id(item["network"])
fixed_pumps = set(globals.fixed_pumps_id.keys())
variable_pumps = set(globals.variable_pumps_id.keys())
fixed_pump_pattern: dict[str, list] = {}
variable_pump_pattern: dict[str, list] = {}
for pump_id, values in item["pump_control"].items():
if pump_id in variable_pumps:
variable_pump_pattern[pump_id] = values
else:
fixed_pump_pattern[pump_id] = values
pressure_regulation(
name=item["network"],
modify_pattern_start_time=item["start_time"],
modify_total_duration=item["duration"] or 900,
modify_tank_initial_level=item["tank_init_level"],
modify_fixed_pump_pattern=fixed_pump_pattern or None,
modify_variable_pump_pattern=variable_pump_pattern or None,
scheme_name=item["scheme_name"],
)
return "success"
@router.post("/project_management/", summary="项目管理(高级)", description="高级版本的项目管理,通过JSON请求体提供详细的控制参数,包括泵控制策略、水箱初始水位和区域需水量控制。")
async def fastapi_project_management(data: ProjectManagement = Body(..., description="项目管理控制参数")) -> str:
"""
项目管理(高级版本)
请求体参数:
- **network**: 管网名称(或数据库名称)
- **start_time**: 管理开始时间
- **pump_control**: 泵控制策略字典
- **tank_init_level**: 水箱初始水位字典(可选)
- **region_demand**: 区域需水量控制字典(可选)
支持多维度的项目管理。
"""
item = data.dict()
return project_management(
prj_name=item["network"],
start_datetime=item["start_time"],
pump_control=item["pump_control"],
tank_initial_level_control=item["tank_init_level"],
region_demand_control=item["region_demand"],
)
# @router.get("/dailyschedulinganalysis/")
# async def daily_scheduling_analysis_endpoint(network: str):
# return daily_scheduling_analysis(network)
@router.post("/scheduling_analysis/", summary="排程分析", description="对管网的供水排程进行分析,优化泵的运行时间和出水流量,平衡水厂出水、水箱进出水,满足用户需求。")
async def fastapi_scheduling_analysis(data: SchedulingAnalysis = Body(..., description="排程分析参数")) -> str:
"""
排程分析
请求体参数:
- **network**: 管网名称(或数据库名称)
- **start_time**: 分析开始时间
- **pump_control**: 泵控制策略字典
- **tank_id**: 水箱ID
- **water_plant_output_id**: 水厂出水ID
- **time_delta**: 时间步长(秒,可选,默认300)
用于优化供水排程。
"""
item = data.dict()
return scheduling_simulation(
item["network"],
item["start_time"],
item["pump_control"],
item["tank_id"],
item["water_plant_output_id"],
item["time_delta"],
)
@router.post("/daily_scheduling_analysis/", summary="日排程分析", description="对管网的每日供水排程进行分析,优化水库、水厂、水箱和用户需求的协调,制定合理的每日排程方案。")
async def fastapi_daily_scheduling_analysis(data: DailySchedulingAnalysis = Body(..., description="日排程分析参数")) -> str:
"""
日排程分析
请求体参数:
- **network**: 管网名称(或数据库名称)
- **start_time**: 分析开始时间
- **pump_control**: 泵控制策略字典
- **reservoir_id**: 水库ID
- **tank_id**: 水箱ID
- **water_plant_output_id**: 水厂出水ID
- **time_delta**: 时间步长(秒,可选,默认300)
用于制定每日供水排程方案。
"""
item = data.dict()
return daily_scheduling_simulation(
item["network"],
item["start_time"],
item["pump_control"],
item["reservoir_id"],
item["tank_id"],
item["water_plant_output_id"],
)
@router.post("/network_project/", summary="导入网络项目", description="通过上传INP格式的管网文件导入新的网络项目。系统将自动处理文件并执行模拟。")
async def fastapi_network_project(file: UploadFile = File(..., description="INP格式的管网文件")) -> str:
"""
导入网络项目
- **file**: 上传的INP格式管网文件
系统将上传的文件保存到inp文件夹并执行模拟。
"""
temp_file_dir = "./inp/"
if not os.path.exists(temp_file_dir):
os.mkdir(temp_file_dir)
temp_file_name = f'network_project_{datetime.now().strftime("%Y%m%d")}'
temp_file_path = f"{temp_file_dir}{temp_file_name}.inp"
with open(temp_file_path, "wb") as buffer:
shutil.copyfileobj(file.file, buffer)
return run_inp(temp_file_name)
@router.post("/network_update/", summary="管网更新(高级)", description="通过上传更新文件对管网进行高级的更新操作。系统将处理更新文件并应用到数据库。")
async def fastapi_network_update(file: UploadFile = File(..., description="包含管网更新信息的文件")) -> str:
"""
管网更新(高级版本)
- **file**: 包含管网更新信息的文件
系统将处理上传的文件并应用管网更新。
"""
default_folder = "./"
temp_file_name = f'network_update_{datetime.now().strftime("%Y%m%d")}'
temp_file_path = os.path.join(default_folder, temp_file_name)
try:
with open(temp_file_path, "wb") as buffer:
shutil.copyfileobj(file.file, buffer)
network_update(temp_file_path)
return json.dumps({"message": "管网更新成功"})
except Exception as exc:
raise HTTPException(status_code=500, detail=f"数据库操作失败: {exc}")
# @router.get("/pumpfailure/")
# async def pump_failure_endpoint(network: str, pump_id: str, time: str):
# return pump_failure(network, pump_id, time)
@router.post("/pump_failure/", summary="泵故障管理", description="记录和管理泵的故障状态,包括故障发生时间和受影响的泵列表。系统将记录故障日志并更新泵状态。")
async def fastapi_pump_failure(data: PumpFailureState = Body(..., description="泵故障状态信息")) -> str:
"""
泵故障管理
请求体参数:
- **time**: 故障发生时间
- **pump_status**: 泵状态字典,包含第一阶段和第二阶段泵的故障状态
系统将验证泵信息的有效性并更新故障状态文件。
"""
item = data.dict()
with open("./pump_failure_message.txt", "a", encoding="utf-8-sig") as f1:
f1.write("[{}] {}\n".format(datetime.now().strftime("%Y-%m-%d %H:%M:%S"), item))
with open("./pump_failure_status.txt", "r", encoding="utf-8-sig") as f2:
lines = f2.readlines()
first_stage_pump_status_dict = json.loads(json.dumps(eval(lines[0])))
second_stage_pump_status_dict = json.loads(json.dumps(eval(lines[-1])))
pump_status_dict = {
"first": first_stage_pump_status_dict,
"second": second_stage_pump_status_dict,
}
status_info = item.copy()
for pump_type in status_info["pump_status"].keys():
if pump_type in pump_status_dict.keys():
if all(
pump_id in pump_status_dict[pump_type].keys()
for pump_id in status_info["pump_status"][pump_type].keys()
):
for pump_id in status_info["pump_status"][pump_type].keys():
pump_status_dict[pump_type][pump_id] = int(
status_info["pump_status"][pump_type][pump_id]
)
else:
return json.dumps("ERROR: Wrong Pump ID")
else:
return json.dumps("ERROR: Wrong Pump Type")
with open("./pump_failure_status.txt", "w", encoding="utf-8-sig") as f2_:
f2_.write(
"{}\n{}".format(pump_status_dict["first"], pump_status_dict["second"])
)
return json.dumps("SUCCESS")
@router.get("/pressuresensorplacementsensitivity/", summary="压力传感器放置-灵敏度分析(基础)", description="基于灵敏度分析方法,为指定管网项目确定最优的压力传感器放置位置。此为基础版本。")
async def pressure_sensor_placement_sensitivity_endpoint(
name: str = Query(..., description="管网名称(或数据库名称)"),
scheme_name: str = Query(..., description="放置方案名称"),
sensor_number: int = Query(..., description="传感器数量"),
min_diameter: int = Query(..., description="最小管径限制(毫米)"),
username: str = Query(..., description="用户名"),
):
"""
压力传感器放置-灵敏度分析(基础版本)
- **name**: 管网名称(或数据库名称)
- **scheme_name**: 放置方案名称
- **sensor_number**: 传感器数量
- **min_diameter**: 最小管径限制(毫米)
- **username**: 用户名
基于灵敏度分析方法确定传感器放置位置。
"""
return pressure_sensor_placement_sensitivity(
name, scheme_name, sensor_number, min_diameter, username
)
@router.post("/pressure_sensor_placement_sensitivity/", summary="压力传感器放置-灵敏度分析(高级)", description="高级版本的压力传感器放置分析,通过JSON请求体提供详细参数。基于灵敏度分析方法确定最优放置位置。")
async def fastapi_pressure_sensor_placement_sensitivity(
data: PressureSensorPlacement = Body(..., description="传感器放置分析参数"),
) -> None:
"""
压力传感器放置-灵敏度分析(高级版本)
请求体参数:
- **name**: 管网名称(或数据库名称)
- **scheme_name**: 放置方案名称
- **sensor_number**: 传感器数量
- **min_diameter**: 最小管径限制(毫米)
- **username**: 用户名
基于灵敏度分析方法确定压力传感器的最优放置位置。
"""
item = data.dict()
pressure_sensor_placement_sensitivity(
name=item["name"],
scheme_name=item["scheme_name"],
sensor_number=item["sensor_number"],
min_diameter=item["min_diameter"],
username=item["username"],
)
@router.get("/pressuresensorplacementkmeans/", summary="压力传感器放置-KMeans聚类分析(基础)", description="基于KMeans聚类算法,为指定管网项目确定压力传感器的最优放置位置。此为基础版本。")
async def pressure_sensor_placement_kmeans_endpoint(
name: str = Query(..., description="管网名称(或数据库名称)"),
scheme_name: str = Query(..., description="放置方案名称"),
sensor_number: int = Query(..., description="传感器数量"),
min_diameter: int = Query(..., description="最小管径限制(毫米)"),
username: str = Query(..., description="用户名"),
):
"""
压力传感器放置-KMeans聚类分析(基础版本)
- **name**: 管网名称(或数据库名称)
- **scheme_name**: 放置方案名称
- **sensor_number**: 传感器数量
- **min_diameter**: 最小管径限制(毫米)
- **username**: 用户名
基于KMeans聚类算法确定传感器放置位置。
"""
return pressure_sensor_placement_kmeans(
name, scheme_name, sensor_number, min_diameter, username
)
@router.post("/pressure_sensor_placement_kmeans/", summary="压力传感器放置-KMeans聚类分析(高级)", description="高级版本的压力传感器放置分析,通过JSON请求体提供详细参数。基于KMeans聚类算法确定最优放置位置。")
async def fastapi_pressure_sensor_placement_kmeans(
data: PressureSensorPlacement = Body(..., description="传感器放置分析参数"),
) -> None:
"""
压力传感器放置-KMeans聚类分析(高级版本)
请求体参数:
- **name**: 管网名称(或数据库名称)
- **scheme_name**: 放置方案名称
- **sensor_number**: 传感器数量
- **min_diameter**: 最小管径限制(毫米)
- **username**: 用户名
基于KMeans聚类算法确定压力传感器的最优放置位置。
"""
item = data.dict()
pressure_sensor_placement_kmeans(
name=item["name"],
scheme_name=item["scheme_name"],
sensor_number=item["sensor_number"],
min_diameter=item["min_diameter"],
username=item["username"],
)
@router.post("/sensorplacementscheme/create", summary="传感器放置方案创建", description="创建新的传感器放置方案,支持灵敏度分析和KMeans聚类两种方法。根据指定的方法自动计算最优的传感器放置位置。")
async def fastapi_pressure_sensor_placement(
network: str = Query(..., description="管网名称(或数据库名称)"),
scheme_name: str = Query(..., description="放置方案名称"),
sensor_type: str = Query(..., description="传感器类型"),
method: str = Query(..., description="放置方法('sensitivity''kmeans'"),
sensor_count: int = Query(..., description="传感器数量"),
min_diameter: int = Query(0, description="最小管径限制(毫米),默认0"),
user_name: str = Query(..., description="用户名"),
) -> str:
"""
传感器放置方案创建
- **network**: 管网名称(或数据库名称)
- **scheme_name**: 放置方案名称
- **sensor_type**: 传感器类型
- **method**: 放置方法('sensitivity''kmeans'
- **sensor_count**: 传感器数量
- **min_diameter**: 最小管径限制(毫米,默认0)
- **user_name**: 用户名
支持两种放置方法:
- sensitivity: 基于灵敏度分析
- kmeans: 基于KMeans聚类
"""
if method not in ["sensitivity", "kmeans"]:
raise HTTPException(
status_code=400, detail="Invalid method. Must be 'sensitivity' or 'kmeans'"
)
if method == "sensitivity":
pressure_sensor_placement_sensitivity(
name=network,
scheme_name=scheme_name,
sensor_number=sensor_count,
min_diameter=min_diameter,
username=user_name,
)
elif method == "kmeans":
pressure_sensor_placement_kmeans(
name=network,
scheme_name=scheme_name,
sensor_number=sensor_count,
min_diameter=min_diameter,
username=user_name,
)
return "success"
@router.post("/runsimulationmanuallybydate/", summary="手动运行日期指定模拟", description="根据指定的日期、开始时间和持续时间,手动运行水力模拟。系统将自动查询管网参数并执行模拟。")
async def fastapi_run_simulation_manually_by_date(
data: RunSimulationManuallyByDate = Body(..., description="模拟运行参数"),
) -> dict[str, str]:
"""
手动运行日期指定模拟
请求体参数:
- **name**: 管网名称(或数据库名称)
- **simulation_date**: 模拟基准日期(YYYY-MM-DD格式)
- **start_time**: 开始时间(HH:MM或HH:MM:SS格式)
- **duration**: 模拟持续时间(分钟)
系统将从指定日期和时间开始,按15分钟间隔多次运行模拟。
每次模拟间隔15分钟,直至达到指定的总持续时间。
"""
item = data.dict()
try:
simulation.query_corresponding_element_id_and_query_id(item["name"])
simulation.query_corresponding_pattern_id_and_query_id(item["name"])
region_result = simulation.query_non_realtime_region(item["name"])
globals.source_outflow_region_id = simulation.get_source_outflow_region_id(
item["name"], region_result
)
globals.realtime_region_pipe_flow_and_demand_id = (
simulation.query_realtime_region_pipe_flow_and_demand_id(
item["name"], region_result
)
)
globals.pipe_flow_region_patterns = simulation.query_pipe_flow_region_patterns(
item["name"]
)
globals.non_realtime_region_patterns = (
simulation.query_non_realtime_region_patterns(item["name"], region_result)
)
(
globals.source_outflow_region_patterns,
globals.realtime_region_pipe_flow_and_demand_patterns,
) = simulation.get_realtime_region_patterns(
item["name"],
globals.source_outflow_region_id,
globals.realtime_region_pipe_flow_and_demand_id,
)
base_date = datetime.strptime(item["simulation_date"], "%Y-%m-%d")
run_simulation_manually_by_date(
item["name"], base_date, item["start_time"], item["duration"]
)
return {"status": "success"}
except Exception as exc:
return {"status": "error", "message": str(exc)}