优化这段代码：def readCSVFile(demand_file,depot_file,model): with open(demand_file,'r') as f: demand_reader=csv.DictReader(f) for row in demand_reader: demand = Demand() demand.id = int(row['id']) demand.x_coord = float(row['x_coord']) demand.y_coord = float(row['y_coord']) demand.demand = float(row['demand']) demand.start_time=float(row['start_time']) demand.end_time=float(row['end_time']) demand.service_time=float(row['service_time']) model.demand_dict[demand.id] = demand model.demand_id_list.append(demand.id) model.number_of_demands=len(model.demand_id_list) with open(depot_file, 'r') as f: depot_reader = csv.DictReader(f) for row in depot_reader: vehicle = Vehicle() vehicle.depot_id = row['depot_id'] vehicle.x_coord = float(row['x_coord']) vehicle.y_coord = float(row['y_coord']) vehicle.type = row['vehicle_type'] vehicle.capacity=float(row['vehicle_capacity']) vehicle.free_speed=float(row['vehicle_speed']) vehicle.numbers=float(row['number_of_vehicle']) vehicle.fixed_cost=float(row['fixed_cost']) vehicle.variable_cost=float(row['variable_cost']) vehicle.start_time=float(row['start_time']) vehicle.end_time=float(row['end_time']) model.vehicle_dict[vehicle.type] = vehicle model.vehicle_type_list.append(vehicle.type)

depot_tools工具包

depot_tools工具包 https://commondatastorage.googleapis.com/chrome-infra-docs/flat/depot_tools/docs/html/depot_tools_tutorial.html#_setting_up

亲测可用的depot_toole，没有缺少文件

标题中的"depot_toole"实际上是指Google的depot_tools，这是一个包含了各种源码管理、构建工具的集合，主要用于Google的开源项目，比如V8 JavaScript引擎。这个压缩包表明是已经验证过的，所有文件都完整，可以...

depot_tools工具 — Linux/Mac版本

帮我优化这段代码：def readCSVFile（demand_file，depot_file，model）： with open（demand_file，'r'） as f： demand_reader=csv.demand_reader 中行的 DictReader（f）：需求 = 需求（） demand.id = int（row['id']） demand.x_coord = float（row['x_coord']） demand.y_coord = float（row['y_coord']） demand.demand = float（row['demand']） demand.start_time=float（row['start_time']） demand.end_time=float（row['end_time']） demand.service_time=float（row['service_time']） model.demand_dict[demand.id] = 需求 model.demand_id_list.append（demand.id） model.number_of_demands=len（model.demand_id_list） with open（depot_file， 'r'）作为 f： depot_reader = csv。depot_reader 中行的字典阅读器（f）：车辆 = 车辆（） vehicle.depot_id = 行['depot_id'] vehicle.x_coord = float（row['x_coord']） vehicle.y_coord = float（row['y_coord']） vehicle.type = row['vehicle_type'] vehicle.capacity=float（row['vehicle_capacity']） vehicle.free_speed=float（row['vehicle_speed']） vehicle.numbers=float（row['number_of_vehicle']） vehicle.fixed_cost=float（row['fixed_cost']） vehicle.variable_cost=float（row['variable_cost']） vehicle.start_time=float（row['start_time']） vehicle.end_time=float（row['end_time']） model.vehicle_dict[vehicle.type] = Vehicle model.vehicle_type_list.append（vehicle.type）

def readCSVFile(demand_file, depot_file, model): demand_df = pd.read_csv(demand_file) demand_df['id'] = demand_df['id'].astype(int) demand_df['x_coord'] = demand_df['x_coord'].astype(float) demand...

帮我优化这段代码：def readCSVFile(demand_file,depot_file,model): with open(demand_file,'r') as f: demand_reader=csv.DictReader(f) for row in demand_reader: demand = Demand() demand.id = int(row['id']) demand.x_coord = float(row['x_coord']) demand.y_coord = float(row['y_coord']) demand.demand = float(row['demand']) demand.start_time=float(row['start_time']) demand.end_time=float(row['end_time']) demand.service_time=float(row['service_time']) model.demand_dict[demand.id] = demand model.demand_id_list.append(demand.id) model.number_of_demands=len(model.demand_id_list) with open(depot_file, 'r') as f: depot_reader = csv.DictReader(f) for row in depot_reader: vehicle = Vehicle() vehicle.depot_id = row['depot_id'] vehicle.x_coord = float(row['x_coord']) vehicle.y_coord = float(row['y_coord']) vehicle.type = row['vehicle_type'] vehicle.capacity=float(row['vehicle_capacity']) vehicle.free_speed=float(row['vehicle_speed']) vehicle.numbers=float(row['number_of_vehicle']) vehicle.fixed_cost=float(row['fixed_cost']) vehicle.variable_cost=float(row['variable_cost']) vehicle.start_time=float(row['start_time']) vehicle.end_time=float(row['end_time']) model.vehicle_dict[vehicle.type] = vehicle model.vehicle_type_list.append(vehicle.type)

def readCSVFile(demand_file, depot_file, model): # 读取需求数据 demand_df = pd.read_csv(demand_file) demand_df = demand_df.apply(lambda row: Demand( id=int(row['id']), x_coord=float(row['x_coord'...

降低这段代码重复率：def readCSVFile(demand_file,depot_file,model): with open(demand_file,'r') as f: demand_reader=csv.DictReader(f) for row in demand_reader: demand = Demand() demand.id = int(row['id']) demand.x_coord = float(row['x_coord']) demand.y_coord = float(row['y_coord']) demand.demand = float(row['demand']) demand.start_time=float(row['start_time']) demand.end_time=float(row['end_time']) demand.service_time=float(row['service_time']) model.demand_dict[demand.id] = demand model.demand_id_list.append(demand.id) model.number_of_demands=len(model.demand_id_list) with open(depot_file, 'r') as f: depot_reader = csv.DictReader(f) for row in depot_reader: vehicle = Vehicle() vehicle.depot_id = row['depot_id'] vehicle.x_coord = float(row['x_coord']) vehicle.y_coord = float(row['y_coord']) vehicle.type = row['vehicle_type'] vehicle.capacity=float(row['vehicle_capacity']) vehicle.free_speed=float(row['vehicle_speed']) vehicle.numbers=float(row['number_of_vehicle']) vehicle.fixed_cost=float(row['fixed_cost']) vehicle.variable_cost=float(row['variable_cost']) vehicle.start_time=float(row['start_time']) vehicle.end_time=float(row['end_time']) model.vehicle_dict[vehicle.type] = vehicle model.vehicle_type_list.append(vehicle.type)

with open(csv_file, 'r') as f: csv_reader = csv.DictReader(f) for row in csv_reader: obj = obj_type() for key, value in row.items(): setattr(obj, key, float(value) if value.replace('.', '', 1)....

优化这段代码：降低这段代码重复率：def readCSVFile(demand_file, depot_file, model): model['demand_dict'] = {int(row['id']): Demand(id=int(row['id']), x_coord=float(row['x_coord']), y_coord=float(row['y_coord']), demand=float(row['demand']), start_time=float(row['start_time']), end_time=float(row['end_time']), service_time=float(row['service_time'])) for row in csv.DictReader(open(demand_file))} model['demand_id_list'] = list(model['demand_dict'].keys()) model['number_of_demands'] = len(model['demand_id_list']) model['vehicle_dict'] = {row['vehicle_type']: Vehicle(depot_id=row['depot_id'], x_coord=float(row['x_coord']), y_coord=float(row['y_coord']), type=row['vehicle_type'], capacity=float(row['vehicle_capacity']), free_speed=float(row['vehicle_speed']), numbers=float(row['number_of_vehicle']), fixed_cost=float(row['fixed_cost']), variable_cost=float(row['variable_cost']), start_time=float(row['start_time']), end_time=float(row['end_time'])) for row in csv.DictReader(open(depot_file))} model['vehicle_type_list'] = list(model['vehicle_dict'].keys())

demand_dict = {int(row['id']): parse_demand_row(row) for row in csv.DictReader(open(demand_file))} demand_id_list = list(demand_dict.keys()) number_of_demands = len(demand_id_list) vehicle_dict = {row...

优化这段代码：def run(demand_file,depot_file,epochs,pc,pm,popsize,n_select,opt_type): model=Model() model.pc=pc model.pm=pm model.popsize=popsize model.n_select=n_select model.opt_type=opt_type readCSVFile(demand_file,depot_file,model) calDistanceMatrix(model) generateInitialSol(model) history_best_obj = [] best_sol=Sol() best_sol.obj=float('inf') model.best_sol=best_sol start_time=time.time() for ep in range(epochs): ''' 计算适应度''' calFitness(model) ''' 选择''' selectSol(model) ''' 交叉''' crossSol(model) ''' 变异''' muSol(model) ''' 记录最优目标''' history_best_obj.append(model.best_sol.obj) print("迭代次数: %s，最优目标值: %s，运行时间: %s" % (ep+1,model.best_sol.obj,time.time()-start_time)) plotObj(history_best_obj) plotRoutes(model) outPut(model)

readCSVFile(demand_file, depot_file, model) calDistanceMatrix(model) generateInitialSol(model) best_sol = Sol() best_sol.obj = float('inf') model.best_sol = best_sol def train(model, epochs): ...

降低这段代码重复率：def readCSVFile(demand_file, depot_file, model): model['demand_dict'] = {int(row['id']): Demand(id=int(row['id']), x_coord=float(row['x_coord']), y_coord=float(row['y_coord']), demand=float(row['demand']), start_time=float(row['start_time']), end_time=float(row['end_time']), service_time=float(row['service_time'])) for row in csv.DictReader(open(demand_file))} model['demand_id_list'] = list(model['demand_dict'].keys()) model['number_of_demands'] = len(model['demand_id_list']) model['vehicle_dict'] = {row['vehicle_type']: Vehicle(depot_id=row['depot_id'], x_coord=float(row['x_coord']), y_coord=float(row['y_coord']), type=row['vehicle_type'], capacity=float(row['vehicle_capacity']), free_speed=float(row['vehicle_speed']), numbers=float(row['number_of_vehicle']), fixed_cost=float(row['fixed_cost']), variable_cost=float(row['variable_cost']), start_time=float(row['start_time']), end_time=float(row['end_time'])) for row in csv.DictReader(open(depot_file))} model['vehicle_type_list'] = list(model['vehicle_dict'].keys())

with open(file_path) as f: return {key_fn(row): value_fn(row) for row in csv.DictReader(f)} 然后就可以用这个函数来读取需求和车辆的字典了，代码如下： model['demand_dict'] = readDictFromFile...

降低这段代码的重复率：def run(demand_file,depot_file,epochs,pc,pm,popsize,n_select,opt_type): model=Model() model.pc=pc model.pm=pm model.popsize=popsize model.n_select=n_select model.opt_type=opt_type readCSVFile(demand_file,depot_file,model) calDistanceMatrix(model) generateInitialSol(model) history_best_obj = [] best_sol=Sol() best_sol.obj=float('inf') model.best_sol=best_sol start_time=time.time() for ep in range(epochs): ''' 计算适应度''' calFitness(model) ''' 选择''' selectSol(model) ''' 交叉''' crossSol(model) ''' 变异''' muSol(model) ''' 记录最优目标''' history_best_obj.append(model.best_sol.obj) print("迭代次数: %s，最优目标值: %s，运行时间: %s" % (ep+1,model.best_sol.obj,time.time()-start_time)) plotObj(history_best_obj) plotRoutes(model) outPut(model)

可以将一些重复的代码抽象成函数或方法，例如： ... readCSVFile(demand_file, depot_file, model) calDistanceMatrix(model) def selectSol(model): ... def crossSol(model): ... def muSol(model): ...

翻译：class Vehicle(): def init(self): self.depot_id=0 self.x_coord=0 self.y_coord=0 self.type=0 self.capacity=0 self.free_speed=1 self.fixed_cost=1.0 self.variable_cost=1.0 self.numbers=0 self.start_time=0 self.end_time=1440

这段代码定义了一个类 Vehicle，并且在初始化函数 __init__() 中定义了该类的属性，包括 depot_id、x_coord、y_coord、type、capacity、free_speed、fixed_cost、variable_cost、numbers、...

def generateOwnCarRoute(service_time, model, sol): pickup_node = copy.deepcopy(model.demand_id_list[0: 16]) own_pickup_node = [] own_delivery_node = [] route = [] sol.route_list = [] depot = model.depot_dict['d1'] vehicle_number = depot.depot_capacity departure = 0 arrival = 0 for i in pickup_node: if i not in model.crowd_pickup_node: own_pickup_node.append(i) own_delivery_node.append(i+16) while vehicle_number > 0 and len(own_pickup_node) > 0: route.append(depot.depot_id) minIndex = np.argmin([model.distance_matrix[depot.depot_id, own_pickup_node[i]] for i in range(0, len(own_pickup_node))]) minnode = own_pickup_node[minIndex] route.append(minnode) arrival = model.time_matrix[depot.depot_id, minnode] departure = arrival + service_time route.append(own_delivery_node[minIndex]) arrival = departure + model.time_matrix[minnode, own_delivery_node[minIndex]] departure += arrival + service_time last_node = own_delivery_node[minIndex] own_pickup_node.remove(minnode) own_delivery_node.remove(own_delivery_node[minIndex]) for j in own_pickup_node: next_minIndex = np.argmin([model.distance_matrix[last_node, j]]) next_minnode = own_pickup_node[next_minIndex] arrival = departure + model.time_matrix[last_node, next_minnode] if arrival <= model.demand_dict[next_minnode].end_time and arrival <= depot.dend_time: route.append(next_minnode) departure = arrival + service_time route.append(own_delivery_node[next_minIndex]) arrival = departure + model.time_matrix[next_minnode, own_delivery_node[next_minIndex]] departure += arrival + service_time last_node = own_delivery_node[next_minIndex] own_pickup_node.remove(next_minnode) own_delivery_node.remove(own_delivery_node[next_minIndex]) else: continue route.append(depot.depot_id) sol.route_list.append(route) vehicle_number = vehicle_number - 1 route = [] print(sol.route_list) return sol.route_list 这段代码的问题是有可能vehicle_number为0了，但是owner_pickup_node的长度还不为0，这种情况怎么解决

while vehicle_number > 0 and len(own_pickup_node) > 0 and len(sol.route_list) < model.depot_dict['d1'].depot_capacity: 这样，当所有车辆都被分配任务后，循环就会停止，避免了程序陷入无限循环的情况。

Traceback (most recent call last): File "C:/Users/lmx/PycharmProjects/pythonProject/1.py", line 523, in <module> main(demand_file=demand_file, depot_file=depot_file, epochs=250, v_cap=3) File "C:/Users/lmx/PycharmProjects/pythonProject/1.py", line 503, in main sol3, route_list3 = local_search_two(crowd_route_list1, route_list2, sol, model, node) TypeError: cannot unpack non-iterable NoneType object

这个错误通常出现在你试图对一个 NoneType 对象进行解包操作的时候。在这个具体的错误中，是因为 local_search_two 函数返回了 None，导致解包时出现了这个错误。请检查 local_search_two 函数的实现，确保其...

Traceback (most recent call last): File "C:/Users/lmx/PycharmProjects/pythonProject/1.py", line 589, in <module> main(demand_file=demand_file, depot_file=depot_file, v_cap=3) File "C:/Users/lmx/PycharmProjects/pythonProject/1.py", line 551, in main res1 = local_search_one(crowd_route_list1, route_list1, sol, model, node) File "C:/Users/lmx/PycharmProjects/pythonProject/1.py", line 453, in local_search_one owncar_route.index(0, 'd1') TypeError: slice indices must be integers or have an index method

这个错误通常出现在使用列表的index()方法时参数不正确。根据错误提示，你传递给了owncar_route.index()方法的参数是(0, 'd1')，这个参数是一个元组，其中包含两个元素，第一个元素是0，第二个元素是字符串'd1'...

def calCrowdcarCost(crowd_route_list, model): cost_of_distance = 0 crowd_wait_time = 0 model.crowdcarcost = 0 for route in crowd_route_list: timetable = [] for i in range(len(route)): if i == 0: depot_id = route[i] next_node_id = route[i+1] cost_of_distance = model.distance_matrix[depot_id, next_node_id] travel_time = int(model.distance_matrix[depot_id, next_node_id]) departure = max(0, model.demand_dict[next_node_id].start_time - travel_time) if departure == 0: crowd_wait_time = travel_time - model.demand_dict[next_node_id].start_time timetable.append((departure, departure)) elif 1 <= i <= len(route)-2: last_node_id = route[i-1] current_node_id = route[i] current_node = model.demand_dict[current_node_id] travel_time = int(model.distance_matrix[last_node_id, current_node_id]) cost_of_distance += model.distance_matrix[last_node_id, current_node_id] arrival = max(timetable[-1][1]+travel_time, current_node.start_time) if arrival == timetable[-1][1]+travel_time: crowd_wait_time += timetable[-1][1]+travel_time - current_node.start_time else: break model.crowdcarcost += model.fixcost + model.percost * cost_of_distance return model.crowdcarcost, crowd_wait_time 在这一段代码中我想知道每个点的等待时间总和，等待时间等于到达这个的时间减去它的时间窗上限

在这段代码中，你已经计算了每个点的等待时间，它们被累加到了crowd_wait_time变量中。如果你想得到每个点的等待时间总和，可以在循环中添加一个变量来记录。以下是修改后的代码： python def calCrowdcarCost...

C:\Users\lmx\Anaconda3\python.exe C:/Users/lmx/PycharmProjects/pythonProject/1.py Traceback (most recent call last): File "C:/Users/lmx/PycharmProjects/pythonProject/1.py", line 539, in <module> main(demand_file=demand_file, depot_file=depot_file, epochs=250, v_cap=3) File "C:/Users/lmx/PycharmProjects/pythonProject/1.py", line 503, in main res1 = local_search_one(crowd_route_list1, route_list1, sol, model, node) File "C:/Users/lmx/PycharmProjects/pythonProject/1.py", line 424, in local_search_one a1 = checkPriority(owncar_route) File "C:/Users/lmx/PycharmProjects/pythonProject/1.py", line 273, in checkPriority if route[i] <= 16: TypeError: '<=' not supported between instances of 'str' and 'int'

这个错误是因为你在对一个字符串和整数进行比较时使用了操作符，但这两种类型是不可比较的。你需要检查一下你的 route 这个列表中的元素类型是否正确。如果其中包含了字符串类型的元素，你需要将它们转换为...

def checkTimeWindow(route, model, node): timetable = [] a = 0 node = Node() departure = 0 for i in range(len(route)): if i == 0: next_node_id = route[i + 1] travel_time = int(model.distance_matrix[model.depot_dict[route[i]].depot_id, next_node_id]) departure = max(0, model.demand_dict[next_node_id].start_time - travel_time) timetable.append((int(departure), int(departure))) elif 1 <= i <= len(route) - 2: last_node_id = route[i - 1] current_node_id = route[i] current_node = model.demand_dict[current_node_id] travel_time = int(model.distance_matrix[last_node_id, current_node_id]) arrival = max(timetable[-1][1] + travel_time, current_node.start_time) departure = arrival + current_node.service_time timetable.append((int(arrival), int(departure))) if departure > current_node.end_time: departure = float('inf') a = 1 else: last_node_id = route[i - 1] travel_time = int(model.distance_matrix[last_node_id, model.depot_dict[route[i]].depot_id]) departure = timetable[-1][1] + travel_time timetable.append((int(departure), int(departure))) if departure < node.dend_time: a = a + 0 else: a = a + 1 return a

这段代码看起来像是一个函数，函数名为checkTimeWindow，它有三个参数，分别是route，model和node。它的功能可能是检查给定路径中的时间窗口是否满足要求。在函数内部，它使用列表timetable来存储每个节点的到达和...

while len(own_pickup_node) > 0: route = [depot.depot_id] for i in range(min(len(own_pickup_node), 2)): minIndex = np.argmin([model.distance_matrix[depot.depot_id, own_pickup_node[j]] for j in range(0, len(own_pickup_node))]) minnode = own_pickup_node[minIndex] route.append(minnode) arrival = model.time_matrix[depot.depot_id, minnode] departure = arrival + service_time route.append(own_delivery_node[minIndex]) arrival = departure + model.time_matrix[minnode, own_delivery_node[minIndex]] departure += arrival + service_time last_node = own_delivery_node[minIndex] own_pickup_node.remove(minnode) own_delivery_node.remove(own_delivery_node[minIndex]) for j in own_pickup_node: next_minIndex = np.argmin([model.distance_matrix[last_node, j]]) next_minnode = own_pickup_node[next_minIndex] arrival = departure + model.time_matrix[last_node, next_minnode] if arrival <= model.demand_dict[next_minnode].end_time and arrival <= depot.dend_time: route.append(next_minnode) departure = arrival + service_time route.append(own_delivery_node[next_minIndex]) arrival = departure + model.time_matrix[next_minnode, own_delivery_node[next_minIndex]] departure += arrival + service_time last_node = own_delivery_node[next_minIndex] own_pickup_node.remove(next_minnode) own_delivery_node.remove(own_delivery_node[next_minIndex]) else: continue route.append(depot.depot_id) sol.route_list.append(route) vehicle_number = vehicle_number - 1 if vehicle_number == 0: break

需要注意的是，这段代码中的距离矩阵、时间矩阵、时间窗口等信息都是由 model 对象提供的，而且这里采用了 NumPy 库中的 argmin 函数来查找距离最近的取货点。另外，这段代码中的 sol 对象则是一个 Solution 类的...

input_tours_for_drones = 20 len_input_tours_for_drones = 7 aoi = utility.build_random_aoi(width_area, height_area, n_target, n_depots, hovering_time=5, seed=seed) depots = aoi.depots depot_first_drone = depots[0] tours_first_drone=[build_random_tour(aoi,depot_first_drone,np.random.randint(len_input_tours_for_drones - 5,len_input_tours_for_drones + 5)) for i in range(input_tours_for_drones)] depot_second_drone = depots[1] tours_second_drone=[build_random_tour(aoi,depot_second_drone,np.random.randint(len_input_tours_for_drones-5, len_input_tours_for_drones + 5)) for i in range(input_tours_for_drones)] uavs_to_tours = {drones[0]: tours_first_drone, drones[1]: tours_second_drone model = TotalCoverageModel(aoi, uavs_to_tours, max_rounds, debug=False) model.build() model.optimize() mrs = model.solution assert mrs is not None, "optimal solution not found" print("TC-OPT covers", mrs.coverage_score(), "targets using", mrs.max_rounds, "rounds") mrs.plot("TC-OPT") # for big istances (over 200/300 points) remove this plot mrs.plot_cumulative_coverage_for_round("TC-OPT") 以上为用Gurobi求解最优解问题，请解释以上程序： depot_first_drone = depots[0] tours_first_drone=[build_random_tour(aoi,depot_first_drone,np.random.randint(len_input_tours_for_drones - 5,len_input_tours_for_drones + 5)) for i in range(input_tours_for_drones)] depot_second_drone = depots[1] tours_second_drone=[build_random_tour(aoi,depot_second_drone,np.random.randint(len_input_tours_for_drones-5, len_input_tours_for_drones + 5)) for i in range(input_tours_for_drones)] uavs_to_tours = {drones[0]: tours_first_drone, drones[1]: tours_second_drone是什么意思

8. 调用 model.optimize() 方法求解模型的最优解。 9. 将最优解保存在变量 mrs 中，并打印出覆盖目标点的数量和使用的最大回合数。 10. 最后通过调用 mrs.plot() 方法和 mrs.plot_cumulative_coverage_for_round()...

(源码)基于Python和LSTM的台湾电力负荷预测系统.zip

# 基于Python和LSTM的台湾电力负荷预测系统 ## 项目简介本项目旨在通过机器学习模型预测台湾特定区域的电力负荷情况，为能源管理和分配提供数据支持。系统基于时间序列分析，利用深度学习技术，特别是循环神经网络（RNN）中的LSTM层，对历史电力负荷数据进行学习，并预测未来的电力负荷趋势。 ## 项目的主要特性和功能 1. 数据处理项目能够处理并清洗从CSV文件中读取的电力负荷数据，包括处理缺失值、数据类型转换和日期处理等步骤。 2. 数据归一化使用sklearn的MinMaxScaler对数据进行归一化处理，将数据缩放到模型可处理的范围内。 3. 模型构建项目定义了一个包含两个LSTM层的RNN模型，用于学习电力负荷数据的时间依赖性。模型还包括Dropout层进行正则化，避免过拟合。 4. 模型训练使用历史电力负荷数据训练定义的RNN模型，并设置早期停止回调来避免过度训练。

相关推荐

depot_tools工具包

亲测可用的depot_toole，没有缺少文件

depot_tools工具 — Linux/Mac版本

翻译：class Vehicle(): def __init__(self): self.depot_id=0 self.x_coord=0 self.y_coord=0 self.type=0 self.capacity=0 self.free_speed=1 self.fixed_cost=1.0 self.variable_cost=1.0 self.numbers=0 self.start_time=0 self.end_time=1440

(源码)基于Python和LSTM的台湾电力负荷预测系统.zip

最新推荐

webrtc_Linux源代码获取以及编译

webrtc_android源代码获取以及编译

webrtc_IOS编译

(源码)基于Python和LSTM的台湾电力负荷预测系统.zip

深入浅出：自定义 Grunt 任务的实践指南

管理建模和仿真的文件

数据可视化在缺失数据识别中的作用

ABB机器人在自动化生产线中是如何进行路径规划和任务执行的？请结合实际应用案例分析。

网络物理突变工具的多点路径规划实现与分析

"互动学习：行动中的多样性与论文攻读经历"

翻译：class Vehicle(): def init(self): self.depot_id=0 self.x_coord=0 self.y_coord=0 self.type=0 self.capacity=0 self.free_speed=1 self.fixed_cost=1.0 self.variable_cost=1.0 self.numbers=0 self.start_time=0 self.end_time=1440