import Data, InitPeolple, DrawFirst, Rule, Income
import matplotlib.pyplot as plt
import matplotlib.animation
import numpy as np
import time
init = InitPeolple.InitPeople()
draw = DrawFirst.draw()
# move=Rule.PeopleMove()
income = Income.outDirection()
# allPeople=init.creatPeople()
allPeople = init.creatAppointPeo()
allWall = init.creatWall()
allExit = init.creatExit()
# while Data.flag:
# for p in allPeople:
# income.outDirection(p,allPeople)
# direction=max(p.allInComeBySort.items(),key=lambda x:x[1])[0]
# print('direction ==',direction)
while Data.flag:
for p in allPeople:
income.outDirection(p, allPeople)
direction = max(p.allInComeBySort.items(), key=lambda x: x[1])[0]
Rule.chickOverAround(p, allPeople)
Rule.PeopleMove(p, direction)
# print(p.grendIncome)
# print(p.isInGrend)
print(p.allInComeBySort)
def run_f(case_s, P, R, steps):
resultData = [] #返回总列表
if case_s == 0: #危险源位置设置
Data.FX_N = 19
elif case_s == 1:
Data.FX_N = 15
elif case_s == 2:
Data.FX_N = 10
elif case_s == 3:
Data.FX_N = 5
elif case_s == 4:
Data.FX_N = 2
Data.PEOPLE_DENSYTY = P #行人密度
Data.PEOPLE_NUMBER = int(Data.ROOM_N * Data.ROOM_M *
Data.PEOPLE_DENSYTY) #行人数量
Data.FX_SIGMA_2 = R #危险源大小
Data.FX_R = 2 * np.sqrt(Data.FX_SIGMA_2) # 影响范围半径
Data.FX_P = 2 * Data.FX_SIGMA_2 # 系数 p越大 高斯函数的圆形越大
init = InitPeolple.InitPeople() #实例化 产生行人类
# draw = DrawFirst.draw()#实例化 画图类
# income = Income.outDirection()
allPeople = init.creatPeople() #产生随机行人
# allPeople=init.creatAppointPeo()#产生指定行人
allWall = init.creatWall() #创建墙壁
allExit = init.creatExit() #创建出口
T = [] #疏散时间
S = [] #剩余行人
V = [] #行人速度
Q = [] #出口流量
Q.append(0) #将出口流量[0]设为0 Q列表少一个数
evac_time = 0 #疏散时间
while Data.flag: #循环开始
move_on_num = 0 #本次时间步移动的行人
move_off_num = 0 #本次时间步静止的行人
vector = 0 #本次时间步行人速度
for p in allPeople: #遍历行人
Income.outDirection(p, allPeople) #计算收益
direction = max(p.allInComeBySort.items(),
key=lambda x: x[1])[0] #获取方向
if direction == 5: #如果行人静止
move_off_num = move_off_num + 1 #计数器+1
else:
move_on_num = move_on_num + 1 #计数器+1
Rule.chickOverAround(p, allPeople) #检测是否到达出口
Rule.PeopleMove(p, direction) #行人移动
# draw.drawPeople(allPeople)#绘制行人
# print(evac_time,"---",len(allPeople),"---",move_on_num/len(allPeople))
if len(allPeople) == 0: #如果行人全部疏散完毕
vector = 1 #速度设为1
Data.flag = False #循环标志--停止
else:
vector = move_on_num / len(allPeople) #行人速度=移动的行人/总行人
if vector > 1: #如果行人速度>1
vector = 1.0 #设置为1
T.append(evac_time) #将疏散时间添加到T
S.append(len(allPeople)) #将剩余行人添加到S
V.append(vector) #将行人速度添加到V
evac_time = evac_time + 1 #疏散时间+1
for i in range(len(S) - 1): #遍历行人
quar = S[i] - S[i + 1] #出口流量=上一步的行人总数-下一步的行人总数
Q.append(quar) #将出口流量添加到Q
'''将各种参数添加到返回列表'''
resultData.append(case_s)
resultData.append(P)
resultData.append(R)
resultData.append(steps)
resultData.append(T)
resultData.append(S)
resultData.append(V)
resultData.append(Q)
return resultData