python实现三子棋游戏_python_

def menu():     print('-'*20)     print('1---------------begin')     print('2---------------exit')     print('please select begin or exit')     print('-' * 20)     while(1):         select = input('please input:')         if select == '1':             begin_games()             pass         elif select == '2':             print('exit the game')             break             #pass     pass

chess_board = [[0, 0, 0], [0, 0, 0], [0, 0, 0]]

def init_cheaa_board(chess_board): #先对列表进行初始化     for i in range(MAX_ROW):         for j in range(MAX_COL):             chess_board[i][j] = ' '     pass def print_chess_board(chess_board): #棋盘打印     print('*'+'-'*7+'*'+'-'*7+'*'+'-'*7+'*')     for i in range(MAX_ROW):         print('|'+' '*3+chess_board[i][0]+' '*3+'|'+' '*3+chess_board[i][1]+' '*3+'|'+' '*3+chess_board[i][2]+' '*3+'|')         print('*' + '-' * 7 + '*' + '-' * 7 + '*' + '-' * 7 + '*')         pass     pass

def player_first(chess_board):     while(1):         x = int(input('please input x:'))         y = int(input('please input y:'))         if(chess_board[x][y] != ' '): #若已被置子，则重新选择坐标             print('This position is already occupied!')             pass         elif(x >= MAX_ROW or y >= MAX_COL or x < 0 or y < 0): #所选坐标超出棋盘范围，重新选择坐标             print('This position is beyond the chessboard!')             pass         else: #若坐标可以落子，则将该坐标置为玩家的棋子U             chess_board[x][y] = 'U'             print_chess_board(chess_board)             #return x,y             break             pass     pass

def Intercept_player(chess_board,key):     count2 = 0     index2 = []     intercept_index = {'x':-1,'y':-1}     for i in range(MAX_ROW):         index = []         count = 0         count1 = 0         index1 = []         allindex = [0,1,2]         for j in range(MAX_ROW):             if(chess_board[i][j] == key): #每一行的玩家落子情况                 count += 1                 index.append(j)             if(chess_board[j][i] == key): #每一列的玩家落子情况                 #print('j'+str(j)+',i'+str(i)+'='+chess_board[j][i])                 count1 += 1                 index1.append(j)             if (i == j and chess_board[j][i] == key):  # 在主对角线中的玩家落子情况                 count2 += 1                 index2.append(j)         if(count == 2):    #在每一行中  获取具体的可以拦截的位置坐标  需要排除掉已经填充的位置             result = list(set(allindex).difference(set(index)))             result = result[0]             if(chess_board[i][result] == ' '): #当这个位置可以进行拦截时，进行坐标返回                 #return i,result                 intercept_index['x'] = i                 intercept_index['y'] = result                 return intercept_index         #print(count1,'------->',index1)         if (count1 == 2):  # 在每一列中 获取具体的可以拦截的位置坐标  需要排除掉已经填充的位置             result = list(set(allindex).difference(set(index1)))             result = result[0]             #print('count1==2,result:',result)             if (chess_board[result][i] == ' '):  # 当这个位置可以进行拦截时，进行坐标返回                 intercept_index['x'] = result                 intercept_index['y'] = i                 return intercept_index                 #return i, result         if (count2 == 2):  # 在主对角线上 获取具体的可以拦截的位置坐标  需要排除掉已经填充的位置             result = list(set(allindex).difference(set(index2)))             result = result[0]             if (chess_board[i][result] == ' '):  # 当这个位置可以进行拦截时，进行坐标返回                 intercept_index['x'] = i                 intercept_index['y'] = result                 return intercept_index                 #return i, result     count3 = 0     if(chess_board[0][2] == key):         count3 += 1     if (chess_board[1][1] == key):         count3 += 1     if (chess_board[2][0] == key):         count3 += 1     if(count3 == 2):         if(chess_board[0][2] == ' '):             intercept_index['x'] = 0             intercept_index['y'] = 2         elif (chess_board[1][1] == ' '):             intercept_index['x'] = 1             intercept_index['y'] = 1         elif (chess_board[2][0] == ' '):             intercept_index['x'] = 2             intercept_index['y'] = 0     return intercept_index      def computer_second(chess_board):  #电脑智能出棋     #1、先检查一下电脑是否两子成棋  若已有，则获取空位置坐标 自己先成棋     intercept_index = Intercept_player(chess_board, 'T')     if (intercept_index['x'] == -1 and intercept_index['y'] == -1):         pass     else:  # 电脑可落子         x = intercept_index['x']         y = intercept_index['y']         chess_board[x][y] = 'T'         return     #2、若玩家快成棋   则先进行拦截     intercept_index = Intercept_player(chess_board,'U')   #若玩家已经两子成棋  则获取空位置的坐标     #print('intercept_index---:')     #print(intercept_index)     if(intercept_index['x'] == -1 and intercept_index['y'] == -1):         pass     else:  #电脑可落子         x = intercept_index['x']         y = intercept_index['y']         chess_board[x][y] = 'T'         return     #3、如果没有，则电脑端排棋  以促进成棋     #3.1、 占领中心位置  如若中心位置[1,1]未被占领     if(chess_board[1][1] == ' '):         chess_board[1][1] = 'T'         return     #3.2、 占领四角位置  若[0,0]  [0,2]  [2,0]  [2,2]未被占领     if (chess_board[0][0] == ' '):         chess_board[0][0] = 'T'         return     if (chess_board[0][2] == ' '):         chess_board[0][2] = 'T'         return     if (chess_board[2][0] == ' '):         chess_board[2][0] = 'T'         return     if (chess_board[2][2] == ' '):         chess_board[2][2] = 'T'         return     # 3.3、 占领每一边中心位置  若[0,1]  [1,0]  [1,2]  [2,1]未被占领     if (chess_board[0][1] == ' '):         chess_board[0][1] = 'T'         return     if (chess_board[1][0] == ' '):         chess_board[1][0] = 'T'         return     if (chess_board[1][2] == ' '):         chess_board[1][2] = 'T'         return     if (chess_board[2][1] == ' '):         chess_board[2][1] = 'T'         return

def chess_board_isfull(chess_board):   #判断棋盘是否填充满     for i in range(MAX_ROW):         if (' ' in chess_board[i]):             return 0     return 1     pass      def Win_or_lose(chess_board):     isfull = chess_board_isfull(chess_board)     for i in range(MAX_ROW):  #每一列的判断         if( chess_board[0][i] == chess_board[1][i] == chess_board[2][i]):             return chess_board[0][i]             pass         pass     for i in range(MAX_ROW):  # 每一行的判断         if( chess_board[i][0] == chess_board[i][1] == chess_board[i][2]):             return chess_board[i][0]             pass         pass     if (chess_board[0][0] == chess_board[1][1] == chess_board[2][2]):  # 判断棋盘正对角线         return chess_board[0][0]     if (chess_board[0][2] == chess_board[1][1] == chess_board[2][0]):  # 判断棋盘反对角线         return chess_board[0][2]     if isfull:         return 'D'  # 经过以上的判断，都不满足(既没赢也没输)，但是棋盘也已经填充满，则说明和棋     else:         return ' '

# coding=utf-8import random MAX_ROW = 3 MAX_COL = 3 #array = ['0','0','0'] chess_board = [[0, 0, 0], [0, 0, 0], [0, 0, 0]] #[array] * 3 def init_cheaa_board(chess_board):     for i in range(MAX_ROW):         for j in range(MAX_COL):             chess_board[i][j] = ' '     pass def print_chess_board(chess_board):     print('*'+'-'*7+'*'+'-'*7+'*'+'-'*7+'*')     for i in range(MAX_ROW):         print('|'+' '*3+chess_board[i][0]+' '*3+'|'+' '*3+chess_board[i][1]+' '*3+'|'+' '*3+chess_board[i][2]+' '*3+'|')         print('*' + '-' * 7 + '*' + '-' * 7 + '*' + '-' * 7 + '*')         pass     pass def player_first(chess_board):     while(1):         x = int(input('please input x:'))         y = int(input('please input y:'))         if(chess_board[x][y] != ' '):             print('This position is already occupied!')             pass         elif(x >= MAX_ROW or y >= MAX_COL or x < 0 or y < 0):             print('This position is beyond the chessboard!')             pass         else:             chess_board[x][y] = 'U'             print_chess_board(chess_board)   
                
提示：
                    本文由神整理自网络，如有侵权请联系本站删除！
                    

                    本站声明： 

                    1、本站所有资源均来源于互联网，不保证100%完整、不提供任何技术支持； 

                    2、本站所发布的文章以及附件仅限用于学习和研究目的;不得将用于商业或者非法用途；否则由此产生的法律后果，本站概不负责！
                
                

                

                                            
上一篇：python神经网络Keras构建CNN网络训练_python_
                                                                
下一篇：python 教程之blinker 信号库_python_