feat: 新增Web GUI界面,支持交互式设计对比

This commit is contained in:
dmy
2026-01-04 11:53:15 +08:00
parent d563905f28
commit 6f2f851a6e
2 changed files with 300 additions and 32 deletions

238
gui.py Normal file
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@@ -0,0 +1,238 @@
import os
import sys
import io
import contextlib
import matplotlib.pyplot as plt
from nicegui import ui, events
from main import compare_design_methods, export_to_dxf, load_data_from_excel, generate_wind_farm_data, visualize_design
import pandas as pd
# 设置matplotlib支持中文显示
plt.rcParams['font.sans-serif'] = ['Microsoft YaHei', 'SimHei', 'Arial']
plt.rcParams['axes.unicode_minus'] = False
class Logger(io.StringIO):
def __init__(self, log_element):
super().__init__()
self.log_element = log_element
def write(self, message):
if message.strip():
self.log_element.push(message.strip())
super().write(message)
# 状态变量
state = {
'excel_path': None,
'results': [],
'substation': None,
'turbines': None,
'temp_dir': '.gemini/tmp/gui_uploads'
}
# 确保临时目录存在
if not os.path.exists(state['temp_dir']):
os.makedirs(state['temp_dir'], exist_ok=True)
@ui.page('/')
def index():
ui.query('body').style('background-color: #f0f2f5; font-family: "Segoe UI", Tahoma, Geneva, Verdana, sans-serif;')
# 定义 UI 元素引用容器,方便在函数中更新
refs = {
'log_box': None,
'results_table': None,
'plot_container': None,
'export_row': None,
'status_label': None,
'upload_widget': None,
'clusters_input': None,
'run_btn': None
}
async def handle_upload(e: events.UploadEventArguments):
try:
filename = None
content = None
if hasattr(e, 'name'):
filename = e.name
if hasattr(e, 'content'):
content = e.content
if content is None and hasattr(e, 'file'):
file_obj = e.file
if not filename:
filename = getattr(file_obj, 'name', getattr(file_obj, 'filename', None))
if hasattr(file_obj, 'file') and hasattr(file_obj.file, 'read'):
content = file_obj.file
elif hasattr(file_obj, 'read'):
content = file_obj
if not filename:
filename = 'uploaded_file.xlsx'
if content is None:
ui.notify('上传失败: 无法解析文件内容', type='negative')
return
path = os.path.join(state['temp_dir'], filename)
if hasattr(content, 'seek'):
try: content.seek(0)
except Exception: pass
data = content.read()
import inspect
if inspect.iscoroutine(data):
data = await data
with open(path, 'wb') as f:
f.write(data)
state['excel_path'] = path
ui.notify(f'文件已上传: {filename}', type='positive')
state['turbines'], state['substation'], _ = load_data_from_excel(path)
except Exception as ex:
ui.notify(f'上传处理失败: {ex}', type='negative')
def update_export_buttons():
if refs['export_row']:
refs['export_row'].clear()
if not state['results'] or not refs['export_row']:
return
with refs['export_row']:
ui.button('下载 Excel 对比表', on_click=lambda: ui.download('wind_farm_design.xlsx')).props('icon=download')
best_idx = 0
for i, res in enumerate(state['results']):
if res['cost'] < state['results'][best_idx]['cost']:
best_idx = i
best_res = state['results'][best_idx]
def export_best_dxf():
dxf_name = 'best_design.dxf'
if state['substation'] is not None:
export_to_dxf(best_res['turbines'], state['substation'], best_res['eval']['details'], dxf_name)
ui.download(dxf_name)
ui.notify(f'已导出推荐方案: {best_res["name"]}', type='positive')
else:
ui.notify('缺少升压站数据,无法导出 DXF', type='negative')
ui.button(f'导出推荐方案 DXF ({best_res["name"]})', on_click=export_best_dxf).props('icon=architecture color=accent')
def update_plot(result):
if refs['plot_container']:
refs['plot_container'].clear()
with refs['plot_container']:
with ui.pyplot(figsize=(10, 8)) as plot:
title = f"{result['name']}\nCost: ¥{result['cost']/10000:.2f}万 | Loss: {result['loss']:.2f} kW"
# 获取当前 ui.pyplot 创建的 axes
ax = plt.gca()
visualize_design(result['turbines'], state['substation'], result['eval']['details'], title, ax=ax)
def handle_row_click(e):
if not e.args or 'data' not in e.args: return
row_name = e.args['data']['name']
selected_res = next((r for r in state['results'] if r['name'] == row_name), None)
if selected_res:
update_plot(selected_res)
ui.notify(f'已切换至方案: {row_name}')
from nicegui import run
import queue
async def run_analysis(n_clusters):
if not state['excel_path']:
ui.notify('请先上传 Excel 坐标文件!', type='warning')
if refs['log_box']:
refs['log_box'].clear()
log_queue = queue.Queue()
class QueueLogger(io.StringIO):
def write(self, message):
if message and message.strip():
log_queue.put(message.strip())
super().write(message)
def process_log_queue():
if refs['log_box']:
while not log_queue.empty():
try:
msg = log_queue.get_nowait()
refs['log_box'].push(msg)
if msg.startswith('--- Scenario'):
scenario_name = msg.replace('---', '').strip()
if refs['status_label']:
refs['status_label'].text = f"正在计算: {scenario_name}..."
elif '开始比较电缆方案' in msg:
if refs['status_label']: refs['status_label'].text = "准备开始计算..."
except queue.Empty: break
log_timer = ui.timer(0.1, process_log_queue)
if refs['status_label']: refs['status_label'].text = "初始化中..."
processing_dialog.open()
try:
# 2. 定义在线程中运行的任务
def task():
# 捕获 stdout 到我们的 QueueLogger
with contextlib.redirect_stdout(QueueLogger()):
return compare_design_methods(
excel_path=state['excel_path'],
n_clusters_override=n_clusters,
interactive=False,
plot_results=False # 禁止后台绘图,避免线程安全问题
)
results = await run.io_bound(task)
state['results'] = results
if not state['excel_path'] and results:
if state['substation'] is None:
_, state['substation'] = generate_wind_farm_data(n_turbines=30, layout='grid', spacing=800)
if refs['results_table']:
table_data = []
for res in results:
table_data.append({'name': res['name'], 'cost_wan': round(res['cost'] / 10000, 2), 'loss_kw': round(res['loss'], 2)})
refs['results_table'].rows = table_data
refs['results_table'].update()
# 计算完成后,自动寻找并显示最佳方案的拓扑图 (不再显示4合1大图)
if results:
best_res = min(results, key=lambda x: x['cost'])
update_plot(best_res)
ui.notify(f'计算完成!已自动加载推荐方案: {best_res["name"]}', type='positive')
update_export_buttons()
if refs['status_label']: refs['status_label'].text = "计算完成!"
except Exception as ex:
ui.notify(f'运行出错: {ex}', type='negative')
finally:
log_timer.cancel()
process_log_queue()
processing_dialog.close()
with ui.dialog() as processing_dialog:
with ui.card().classes('w-96 items-center justify-center p-6'):
ui.label('正在计算方案...').classes('text-xl font-bold text-primary mb-2')
ui.spinner(size='lg', color='primary')
refs['status_label'] = ui.label('准备中...').classes('mt-4 text-sm text-gray-700 font-medium')
with ui.expansion('查看实时日志', icon='terminal', value=True).classes('w-full mt-4 text-sm'):
refs['log_box'] = ui.log(max_lines=100).classes('w-full h-32 text-xs font-mono bg-black text-green-400')
processing_dialog.props('persistent')
with ui.header().classes('bg-primary text-white p-4 shadow-lg'):
ui.label('海上风电场集电线路设计优化系统').classes('text-2xl font-bold')
ui.label('Wind Farm Collector System Design Optimizer').classes('text-sm opacity-80')
with ui.row().classes('w-full p-4 gap-4'):
with ui.card().classes('w-1/4 p-4 shadow-md'):
ui.label('配置面板').classes('text-xl font-semibold mb-4 border-b pb-2')
ui.label('1. 上传坐标文件 (.xlsx)').classes('font-medium')
refs['upload_widget'] = ui.upload(label='选择Excel文件', on_upload=handle_upload, auto_upload=True).classes('w-full mb-4')
ui.label('2. 参数设置').classes('font-medium mt-4')
refs['clusters_input'] = ui.number('指定回路数 (可选)', value=None, format='%d', placeholder='自动计算').classes('w-full mb-4')
refs['run_btn'] = ui.button('运行方案对比', on_click=lambda: run_analysis(refs['clusters_input'].value)).classes('w-full mt-4 py-4').props('icon=play_arrow color=secondary')
with ui.column().classes('w-3/4 gap-4'):
with ui.card().classes('w-full p-4 shadow-md'):
ui.label('方案对比结果 (点击行查看拓扑详情)').classes('text-xl font-semibold mb-2')
columns = [
{'name': 'name', 'label': '方案名称', 'field': 'name', 'required': True, 'align': 'left'},
{'name': 'cost_wan', 'label': '总投资 (万元)', 'field': 'cost_wan', 'sortable': True},
{'name': 'loss_kw', 'label': '线损 (kW)', 'field': 'loss_kw', 'sortable': True},
]
# 移除 selection='single',改为纯行点击交互
refs['results_table'] = ui.table(columns=columns, rows=[]).classes('w-full')
refs['results_table'].on('rowClick', handle_row_click)
with ui.card().classes('w-full p-4 shadow-md'):
ui.label('拓扑可视化').classes('text-xl font-semibold mb-2')
refs['plot_container'] = ui.column().classes('w-full items-center')
with ui.card().classes('w-full p-4 shadow-md'):
ui.label('导出与下载').classes('text-xl font-semibold mb-2')
refs['export_row'] = ui.row().classes('gap-4')
ui.run(title='海上风电场集电线路优化', port=8080)

94
main.py
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@@ -287,20 +287,17 @@ def design_with_capacitated_sweep(turbines, substation, cable_specs=None):
"""
# 1. 获取电缆最大容量
max_mw = get_max_cable_capacity_mw(cable_specs)
# print(f"DEBUG: 扇区扫描算法启动 - 单回路容量限制: {max_mw:.2f} MW")
substation_coord = substation[0]
# 2. 计算角度 (使用 arctan2 返回 -pi 到 pi)
# 避免直接修改原始DataFrame使用副本
work_df = turbines.copy()
dx = work_df['x'] - substation_coord[0]
dy = work_df['y'] - substation_coord[1]
work_df['angle'] = np.arctan2(dy, dx)
# 3. 寻找最佳起始角度 (最大角度间隙)
# 按角度排序
work_df = work_df.sort_values('angle').reset_index(drop=True) # 重置索引方便切片
work_df = work_df.sort_values('angle').reset_index(drop=True)
angles = work_df['angle'].values
n = len(angles)
@@ -392,7 +389,6 @@ def design_with_rotational_sweep(turbines, substation, cable_specs=None):
"""
# 1. 获取电缆最大容量
max_mw = get_max_cable_capacity_mw(cable_specs)
# print(f"DEBUG: 扇区扫描算法启动 - 单回路容量限制: {max_mw:.2f} MW")
substation_coord = substation[0]
@@ -410,6 +406,7 @@ def design_with_rotational_sweep(turbines, substation, cable_specs=None):
best_connections = []
best_turbines_state = None
best_start_idx = -1
best_id_to_cluster = {}
# 遍历所有可能的起始点
for start_idx in range(n_turbines):
@@ -463,8 +460,7 @@ def design_with_rotational_sweep(turbines, substation, cable_specs=None):
# 2. 连接升压站长度
dists = np.sqrt((cluster_rows['x'] - substation_coord[0])**2 +
(cluster_rows['y'] - substation_coord[1])**2)
min_dist = dists.min()
current_total_length += min_dist
current_total_length += dists.min()
# --- 比较并保存最佳结果 ---
if current_total_length < best_cost:
@@ -582,8 +578,8 @@ def evaluate_design(turbines, connections, substation, cable_specs=None, is_offs
try:
# 找到通往升压站的最短路径上的下一个节点
path = nx.shortest_path(graph, source=node, target='substation')
if len(path) > 1:
parent = path[1] # path[0]是node自己path[1]是父节点
if len(path) > 1: # path[0]是node自己path[1]是父节点
parent = path[1]
power_flow[parent] += power_flow[node]
except nx.NetworkXNoPath:
pass
@@ -865,7 +861,7 @@ def export_all_scenarios_to_excel(results, filename):
# 2. 每个方案的详细 Sheet
for res in results:
# 清理 Sheet 名称
safe_name = res['name'].replace(':', '').replace('/', '-').replace('\\', '-')
safe_name = res['name'].replace(':', '').replace('/', '-').replace('\\', '-').replace(' ', '_')
# 截断过长的名称 (Excel限制31字符)
if len(safe_name) > 25:
safe_name = safe_name[:25]
@@ -1004,11 +1000,13 @@ def visualize_design(turbines, substation, connections, title, ax=None, show_cos
return ax
# 7. 主函数:比较两种设计方法
def compare_design_methods(excel_path=None, n_clusters_override=None):
def compare_design_methods(excel_path=None, n_clusters_override=None, interactive=True, plot_results=True):
"""
比较MST和三种电缆方案下的K-means设计方法
:param excel_path: Excel文件路径
:param n_clusters_override: 可选,手动指定簇的数量
:param interactive: 是否启用交互式导出 (CLI模式)
:param plot_results: 是否生成和保存对比图表
"""
cable_specs = None
if excel_path:
@@ -1018,7 +1016,7 @@ def compare_design_methods(excel_path=None, n_clusters_override=None):
scenario_title = "Offshore Wind Farm (Imported Data)"
except Exception:
print("回退到自动生成数据模式...")
return compare_design_methods(excel_path=None, n_clusters_override=n_clusters_override)
return compare_design_methods(excel_path=None, n_clusters_override=n_clusters_override, interactive=interactive, plot_results=plot_results)
else:
print("正在生成海上风电场数据 (规则阵列布局)...")
turbines, substation = generate_wind_farm_data(n_turbines=30, layout='grid', spacing=800)
@@ -1029,7 +1027,12 @@ def compare_design_methods(excel_path=None, n_clusters_override=None):
# 准备三种电缆方案
# 原始 specs 是 5 元素元组: (section, capacity, resistance, cost, is_optional)
# 下游函数期望 4 元素元组: (section, capacity, resistance, cost)
has_optional_cables = False
if cable_specs:
# 检查是否存在 Optional 为 Y 的电缆
has_optional_cables = any(s[4] for s in cable_specs)
# 方案 1: 不含 Optional='Y' (Standard)
specs_1 = [s[:4] for s in cable_specs if not s[4]]
@@ -1049,25 +1052,34 @@ def compare_design_methods(excel_path=None, n_clusters_override=None):
specs_1 = default_specs
specs_2 = default_specs
specs_3 = default_specs[:-1]
# 默认库视为没有 optional
has_optional_cables = False
scenarios = [
("Scenario 1 (Standard)", specs_1),
("Scenario 2 (With Optional)", specs_2),
("Scenario 3 (No Max)", specs_3)
("Scenario 1 (Standard)", specs_1)
]
if has_optional_cables:
scenarios.append(("Scenario 2 (With Optional)", specs_2))
scenarios.append(("Scenario 3 (No Max)", specs_3))
else:
# 重新编号,保证连续性
scenarios.append(("Scenario 2 (No Max)", specs_3))
# 1. MST 方法作为基准 (使用 Scenario 1)
mst_connections = design_with_mst(turbines, substation)
mst_evaluation = evaluate_design(turbines, mst_connections, substation, cable_specs=specs_1, is_offshore=is_offshore, method_name="MST Method")
# 准备画布 2x2
fig, axes = plt.subplots(2, 2, figsize=(20, 18))
axes = axes.flatten()
# 绘制 MST
visualize_design(turbines, substation, mst_evaluation['details'],
f"MST Method (Standard Cables)\nTotal Cost: ¥{mst_evaluation['total_cost']/10000:.2f}",
ax=axes[0])
fig = None
axes = []
if plot_results:
fig, axes = plt.subplots(2, 2, figsize=(20, 18))
axes = axes.flatten()
# 绘制 MST
visualize_design(turbines, substation, mst_evaluation['details'],
f"MST Method (Standard Cables)\nTotal Cost: ¥{mst_evaluation['total_cost']/10000:.2f}",
ax=axes[0])
print(f"\n===== 开始比较电缆方案 =====")
@@ -1184,15 +1196,17 @@ def compare_design_methods(excel_path=None, n_clusters_override=None):
# 可视化 (只画 Base 版本)
ax_idx = i + 1
if ax_idx < 4:
if plot_results and ax_idx < 4:
n_circuits = turbines_base['cluster'].nunique()
title = f"{base_name} ({n_circuits} circuits)\nCost: ¥{eval_base['total_cost']/10000:.2f}"
visualize_design(turbines_base, substation, eval_base['details'], title, ax=axes[ax_idx])
plt.tight_layout()
output_filename = 'wind_farm_design_comparison.png'
plt.savefig(output_filename, dpi=300)
print(f"\n比较图(Base版)已保存至: {output_filename}")
if plot_results:
plt.tight_layout()
output_filename = 'wind_farm_design_comparison.png'
plt.savefig(output_filename, dpi=300)
plt.close()
print(f"\n比较图(Base版)已保存至: {output_filename}")
# 准备文件路径
if excel_path:
@@ -1208,6 +1222,10 @@ def compare_design_methods(excel_path=None, n_clusters_override=None):
if comparison_results:
export_all_scenarios_to_excel(comparison_results, excel_out_filename)
if not interactive:
print(f"非交互模式:已自动导出 Excel 对比报表: {excel_out_filename}")
return comparison_results
# 交互式选择导出 DXF
print("\n===== 方案选择 =====")
best_idx = 0
@@ -1240,13 +1258,25 @@ def compare_design_methods(excel_path=None, n_clusters_override=None):
choice = best_idx
selected_res = comparison_results[choice]
print(f"正在导出 '{selected_res['name']}' 到 DXF: {dxf_filename} ...")
export_to_dxf(selected_res['turbines'], substation, selected_res['eval']['details'], dxf_filename)
# 生成带方案名称的文件名
base_dxf_name, ext = os.path.splitext(dxf_filename)
safe_suffix = selected_res['name'].replace(' ', '_').replace(':', '').replace('(', '').replace(')', '').replace('/', '-')
final_filename = f"{base_dxf_name}_{safe_suffix}{ext}"
print(f"正在导出 '{selected_res['name']}' 到 DXF: {final_filename} ...")
export_to_dxf(selected_res['turbines'], substation, selected_res['eval']['details'], final_filename)
except Exception as e:
print(f"输入处理出错: {e},将使用默认推荐方案。")
selected_res = comparison_results[best_idx]
print(f"正在导出 '{selected_res['name']}' 到 DXF: {dxf_filename} ...")
export_to_dxf(selected_res['turbines'], substation, selected_res['eval']['details'], dxf_filename)
# 生成带方案名称的文件名
base_dxf_name, ext = os.path.splitext(dxf_filename)
safe_suffix = selected_res['name'].replace(' ', '_').replace(':', '').replace('(', '').replace(')', '').replace('/', '-')
final_filename = f"{base_dxf_name}_{safe_suffix}{ext}"
print(f"正在导出 '{selected_res['name']}' 到 DXF: {final_filename} ...")
export_to_dxf(selected_res['turbines'], substation, selected_res['eval']['details'], final_filename)
return comparison_results
@@ -1260,4 +1290,4 @@ if __name__ == "__main__":
# 3. 运行比较
# 如果没有提供excel文件将自动回退到生成数据模式
compare_design_methods(args.excel, n_clusters_override=args.clusters)
compare_design_methods(args.excel, n_clusters_override=args.clusters, interactive=True)