Python实现智能贪吃蛇游戏的示例代码
目录
- 前言
- 基本环境配置
- 实现效果
- 实现代码
前言
我想大家都玩过诺基亚上面的贪吃蛇吧，本文将带你一步步用python语言实现一个snake小游戏。
基本环境配置
版本：Python3
系统：Windows
相关模块：pygame
pip install pygame安装即可
实现效果
实现代码
import random, pygame, sys
from pygame.locals import *
import time
'''
'''
FPS = 1
##WINDOWWIDTH = 640
#WINDOWHEIGHT = 480
WINDOWWIDTH = 600
WINDOWHEIGHT = 480
CELLSIZE = 40
assert WINDOWWIDTH % CELLSIZE == 0, "Window width must be a multiple of cell size."
assert WINDOWHEIGHT % CELLSIZE == 0, "Window height must be a multiple of cell size."
CELLWIDTH = int(WINDOWWIDTH / CELLSIZE)
CELLHEIGHT = int(WINDOWHEIGHT / CELLSIZE)
# R G B
WHITE = (255, 255, 255)
BLACK = ( 0, 0, 0)
RED = (255, 0, 0)
GREEN = ( 0, 255, 0)
DARKGREEN = ( 0, 155, 0)
DARKGRAY = ( 40, 40, 40)
BGCOLOR = BLACK
UP = 'up'
DOWN = 'down'
LEFT = 'left'
RIGHT = 'right'
direction = UP
DIRECTION = [UP,DOWN,LEFT,RIGHT]
HEAD = 0 # syntactic sugar: index of the worm's head
distance = []
for y in range(CELLHEIGHT):
distance.append([])
for x in range(CELLWIDTH):
distance[y].append(8888)
def into_queue(grid, queue, visited, worm,apple):
x,y = grid
if (x, y) == (apple['x'],apple['y']):
return False
elif x < 0 or x >= CELLWIDTH:
return False
elif y < 0 or y >= CELLHEIGHT:
return False
elif (x, y) in queue:
return False
elif (x, y) in visited:
return False
else:
return True
def is_snake(x,y,worm):
for body in worm:
if body['x'] == x and body['y'] == y:
return True
return False
def cal_distance(worm,apple):
queue = [(apple['x'],apple['y'])]
visited = []
found = False
for y in range(CELLHEIGHT):
for x in range(CELLWIDTH):
distance[y][x] = 9999
distance[apple['y']][apple['x']] = 0
while len(queue) != 0:
head = queue[0]
visited.append(head)
up_grid = head[0], head[1] - 1
down_grid = head[0], head[1] + 1
left_grid = head[0] - 1, head[1]
right_grid = head[0] + 1, head[1]
for grid in [up_grid, down_grid, left_grid, right_grid]:
if into_queue(grid, queue, visited,worm,apple):
if grid[0] == worm[HEAD]['x'] and grid[1] == worm[HEAD]['y']:
found = True
if not is_snake(grid[0],grid[1],worm):
queue.append(grid)
distance[grid[1]][grid[0]] = distance[head[1]][head[0]] + 1
queue.pop(0)
return found
def main():
global FPSCLOCK, DISPLAYSURF, BASICFONT
pygame.init()
FPSCLOCK = pygame.time.Clock()
DISPLAYSURF = pygame.display.set_mode((WINDOWWIDTH, WINDOWHEIGHT))
BASICFONT = pygame.font.Font('freesansbold.ttf', 18)
pygame.display.set_caption('Snaky')
showStartScreen()
while True:
runGame()
showGameOverScreen()
def can_move(grid, worm):
x,y = grid
if x < 0 or x >= CELLWIDTH:
return False
elif y < 0 or y >= CELLHEIGHT:
return False
elif is_snake(x, y,worm):
return False
elif (x, y) == (worm[HEAD]['x'], worm[HEAD]['y']):
return False
else:
return True
def update_dirc(now, direc):
loc = {'x':0,'y':0}
if direc == UP:
loc = {'x':now['x'],'y':now['y']-1}
elif direc == DOWN:
loc = {'x':now['x'],'y':now['y']+1}
elif direc == RIGHT:
loc = {'x':now['x']+1,'y':now['y']}
elif direc == LEFT:
loc = {'x':now['x']-1,'y':now['y']}
return loc
def virtual_run(wormCoords, apple,direction):
wormCoords = list(wormCoords)
food_eated = False
while not food_eated:
cal_distance(wormCoords,apple)
four_dis = [99999, 99999, 99999, 99999]
if can_move((wormCoords[HEAD]['x'], wormCoords[HEAD]['y'] - 1), wormCoords):
four_dis[0] = distance[wormCoords[HEAD]['y'] - 1][wormCoords[HEAD]['x']]
if can_move((wormCoords[HEAD]['x'] + 1, wormCoords[HEAD]['y']), wormCoords):
four_dis[1] = distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] + 1]
if can_move((wormCoords[HEAD]['x'], wormCoords[HEAD]['y'] + 1), wormCoords):
four_dis[2] = distance[wormCoords[HEAD]['y'] + 1][wormCoords[HEAD]['x']]
if can_move((wormCoords[HEAD]['x'] - 1, wormCoords[HEAD]['y']), wormCoords):
four_dis[3] = distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] - 1]
min_num = min(four_dis)
if four_dis[0] < 99999 and distance[wormCoords[HEAD]['y'] - 1][wormCoords[HEAD]['x']] == min_num and direction != DOWN:
direction = UP
elif four_dis[1] < 99999 and distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] + 1] == min_num and direction != "LEFT":
direction = RIGHT
elif four_dis[2] < 99999 and distance[wormCoords[HEAD]['y'] + 1][wormCoords[HEAD]['x']] == min_num and direction != "UP":
direction = DOWN
elif four_dis[3] < 99999 and distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] - 1] == min_num and direction != RIGHT:
direction = LEFT
if wormCoords[HEAD]['x'] == -1 or wormCoords[HEAD]['x'] == CELLWIDTH or wormCoords[HEAD]['y'] == -1 or wormCoords[HEAD]['y'] == CELLHEIGHT:
return # game over
for wormBody in wormCoords[1:]:
if wormBody['x'] == wormCoords[HEAD]['x'] and wormBody['y'] == wormCoords[HEAD]['y']:
return
# move the worm by adding a segment in the direction it is moving
if direction == UP:
newHead = {'x': wormCoords[HEAD]['x'], 'y': wormCoords[HEAD]['y'] - 1}
elif direction == DOWN:
newHead = {'x': wormCoords[HEAD]['x'], 'y': wormCoords[HEAD]['y'] + 1}
elif direction == LEFT:
newHead = {'x': wormCoords[HEAD]['x'] - 1, 'y': wormCoords[HEAD]['y']}
elif direction == RIGHT:
newHead = {'x': wormCoords[HEAD]['x'] + 1, 'y': wormCoords[HEAD]['y']}
if wormCoords[HEAD]['x'] != apple['x'] or wormCoords[HEAD]['y'] != apple['y']:
food_eated = True
wormCoords.insert(0, newHead)
else:
del wormCoords[-1] # remove worm's tail segment
wormCoords.insert(0, newHead)
result = cal_distance(wormCoords,wormCoords[-1])
for i in range(4):
temp = update_dirc(wormCoords[HEAD],DIRECTION[i])
if temp['x'] == wormCoords[-1]['x'] and temp['y'] == wormCoords[-1]['y']:
result = False
return result
def distance_(x,y):
return abs(x['x']-y['x']) + abs(x['y'] - x['y'])
def any_possible_move(worm,apple,direction):
temp_direc = direction
max_dis = 0
for i in range(4):
temp = update_dirc(worm[0],DIRECTION[i])
if can_move((temp['x'],temp['y']),worm):
if (distance_(temp, apple) > max_dis) and (examine_direction(DIRECTION[i], direction)):
max_dis = distance_(temp, apple)
temp_direc = DIRECTION[i]
return temp_direc
def examine_direction(temp , direction):
if direction == UP:
if temp == DOWN:
return False
elif direction == RIGHT:
if temp == LEFT:
return False
elif direction == LEFT:
if temp == RIGHT:
return False
elif direction == DOWN:
if temp == UP:
return False
return True
def check_head(worm,direction):
for i in range(4):
temp = update_dirc(worm[HEAD], DIRECTION[i])
if can_move((temp['x'],temp['y']),worm) and examine_direction(DIRECTION[i],direction):
if distance[temp['y']][temp['x']] < 9999:
return True
return False
def runGame():
global running_,DIRECTION
# Set a random start point.
startx = random.randint(0, CELLWIDTH -1)
starty = random.randint(0, CELLHEIGHT -1)
wormCoords = [{'x': startx, 'y': starty},
{'x': startx - 1, 'y': starty},
{'x': startx - 2, 'y': starty}]
direction = RIGHT
running_ = True
# Start the apple in a random place.
apple = getRandomLocation(wormCoords)
count = 0
while True: # main game loop
for event in pygame.event.get(): # event handling loop
if event.type == QUIT:
terminate()
new_direction = None
#print distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x']]
if cal_distance(wormCoords,apple):
#print "Test"
if virtual_run(wormCoords, apple, direction):
cal_distance(wormCoords,apple)
four_dis = [99999] * 4
if can_move((wormCoords[HEAD]['x'], wormCoords[HEAD]['y'] - 1), wormCoords):
four_dis[0] = distance[wormCoords[HEAD]['y'] - 1][wormCoords[HEAD]['x']]
if can_move((wormCoords[HEAD]['x'] + 1, wormCoords[HEAD]['y']), wormCoords):
four_dis[1] = distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] + 1]
if can_move((wormCoords[HEAD]['x'], wormCoords[HEAD]['y'] + 1), wormCoords):
four_dis[2] = distance[wormCoords[HEAD]['y'] + 1][wormCoords[HEAD]['x']]
if can_move((wormCoords[HEAD]['x'] - 1, wormCoords[HEAD]['y']), wormCoords):
four_dis[3] = distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] - 1]
max_num = min(four_dis)
if four_dis[0] < 99999 and distance[wormCoords[HEAD]['y'] - 1][wormCoords[HEAD]['x']] == max_num and direction != DOWN:
new_direction = UP
elif four_dis[1] < 99999 and distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] + 1] == max_num and direction != LEFT:
new_direction = RIGHT
elif four_dis[2] < 99999 and distance[wormCoords[HEAD]['y'] + 1][wormCoords[HEAD]['x']] == max_num and direction != UP:
new_direction = DOWN
elif four_dis[3] < 99999 and distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] - 1] == max_num and direction != RIGHT:
new_direction = LEFT
else:
count += 1
print(count)
four_dis = [-1] * 4
cal_distance(wormCoords, wormCoords[-1])
if can_move((wormCoords[HEAD]['x'], wormCoords[HEAD]['y'] - 1), wormCoords):
four_dis[0] = distance[wormCoords[HEAD]['y'] - 1][wormCoords[HEAD]['x']]
if can_move((wormCoords[HEAD]['x'] + 1, wormCoords[HEAD]['y']), wormCoords):
four_dis[1] = distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] + 1]
if can_move((wormCoords[HEAD]['x'], wormCoords[HEAD]['y'] + 1), wormCoords):
four_dis[2] = distance[wormCoords[HEAD]['y'] + 1][wormCoords[HEAD]['x']]
if can_move((wormCoords[HEAD]['x'] - 1, wormCoords[HEAD]['y']), wormCoords):
four_dis[3] = distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] - 1]
max_num = 0
for i in four_dis:
if i != 9999:
if i > max_num:
max_num = i
if four_dis[0] > -1 and distance[wormCoords[HEAD]['y'] - 1][wormCoords[HEAD]['x']] == max_num and direction != DOWN:
new_direction = UP
elif four_dis[1] > -1 and distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] + 1] == max_num and direction != LEFT:
new_direction = RIGHT
elif four_dis[2] > -1 and distance[wormCoords[HEAD]['y'] + 1][wormCoords[HEAD]['x']] == max_num and direction != UP:
new_direction = DOWN
elif four_dis[3] > -1 and distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] - 1] == max_num and direction != RIGHT:
new_direction = LEFT
if count == 10:
new_direction = any_possible_move(wormCoords, apple, direction)
count = 0
else:
four_dis = [-1] * 4
cal_distance(wormCoords, wormCoords[-1])
if can_move((wormCoords[HEAD]['x'], wormCoords[HEAD]['y'] - 1), wormCoords):
four_dis[0] = distance[wormCoords[HEAD]['y'] - 1][wormCoords[HEAD]['x']]
if can_move((wormCoords[HEAD]['x'] + 1, wormCoords[HEAD]['y']), wormCoords):
four_dis[1] = distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] + 1]
if can_move((wormCoords[HEAD]['x'], wormCoords[HEAD]['y'] + 1), wormCoords):
four_dis[2] = distance[wormCoords[HEAD]['y'] + 1][wormCoords[HEAD]['x']]
if can_move((wormCoords[HEAD]['x'] - 1, wormCoords[HEAD]['y']), wormCoords):
four_dis[3] = distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] - 1]
max_num = 0
for i in four_dis:
if i != 9999:
if i > max_num:
max_num = i
if four_dis[0] > -1 and distance[wormCoords[HEAD]['y'] - 1][wormCoords[HEAD]['x']] == max_num and direction != DOWN:
new_direction = UP
elif four_dis[1] > -1 and distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] + 1] == max_num and direction != LEFT:
new_direction = RIGHT
elif four_dis[2] > -1 and distance[wormCoords[HEAD]['y'] + 1][wormCoords[HEAD]['x']] == max_num and direction != UP:
new_direction = DOWN
elif four_dis[3] > -1 and distance[wormCoords[HEAD]['y']][wormCoords[HEAD]['x'] - 1] == max_num and direction != RIGHT:
new_direction = LEFT
if new_direction == None:
direction = any_possible_move(wormCoords, apple, direction)
else:
direction = new_direction
#temp_ = update_dirc(wormCoords[HEAD],direction)
#while not can_move((temp_['x'],temp_['y']), wormCoords):
#direction = any_possible_move(wormCoords, apple, direction)
# check if the worm has hit itself or the edge
if wormCoords[HEAD]['x'] == -1 or wormCoords[HEAD]['x'] == CELLWIDTH or wormCoords[HEAD]['y'] == -1 or wormCoords[HEAD]['y'] == CELLHEIGHT:
return # game over
for wormBody in wormCoords[1:]:
if wormBody['x'] == wormCoords[HEAD]['x'] and wormBody['y'] == wormCoords[HEAD]['y']:
return # game over
# check if worm has eaten an apply
if wormCoords[HEAD]['x'] == apple['x'] and wormCoords[HEAD]['y'] == apple['y']:
# don't remove worm's tail
apple = getRandomLocation(wormCoords)
else:
del wormCoords[-1] # remove worm's tail segment
# move the worm by adding a segment in the direction it is moving
if direction == UP:
newHead = {'x': wormCoords[HEAD]['x'], 'y': wormCoords[HEAD]['y'] - 1}
elif direction == DOWN:
newHead = {'x': wormCoords[HEAD]['x'], 'y': wormCoords[HEAD]['y'] + 1}
elif direction == LEFT:
newHead = {'x': wormCoords[HEAD]['x'] - 1, 'y': wormCoords[HEAD]['y']}
elif direction == RIGHT:
newHead = {'x': wormCoords[HEAD]['x'] + 1, 'y': wormCoords[HEAD]['y']}
wormCoords.insert(0, newHead) # set a new apple somewhere
DISPLAYSURF.fill(BGCOLOR)
drawGrid()
drawWorm(wormCoords)
drawApple(apple)
drawScore(len(wormCoords) - 3)
time.sleep(0.01)
pygame.display.update()
#FPSCLOCK.tick(FPS)
def drawPressKeyMsg():
pressKeySurf = BASICFONT.render('Press a key to play.', True, DARKGRAY)
pressKeyRect = pressKeySurf.get_rect()
pressKeyRect.topleft = (WINDOWWIDTH - 200, WINDOWHEIGHT - 30)
DISPLAYSURF.blit(pressKeySurf, pressKeyRect)
def checkForKeyPress():
if len(pygame.event.get(QUIT)) > 0:
terminate()
keyUpEvents = pygame.event.get(KEYUP)
if len(keyUpEvents) == 0:
return None
if keyUpEvents[0].key == K_ESCAPE:
terminate()
return keyUpEvents[0].key
def showStartScreen():
titleFont = pygame.font.Font('freesansbold.ttf', 100)
titleSurf1 = titleFont.render('Snaky!', True, WHITE, DARKGREEN)
titleSurf2 = titleFont.render('Snaky!', True, GREEN)
degrees1 = 0
degrees2 = 0
while True:
DISPLAYSURF.fill(BGCOLOR)
rotatedSurf1 = pygame.transform.rotate(titleSurf1, degrees1)
rotatedRect1 = rotatedSurf1.get_rect()
rotatedRect1.center = (WINDOWWIDTH / 2, WINDOWHEIGHT / 2)
DISPLAYSURF.blit(rotatedSurf1, rotatedRect1)
rotatedSurf2 = pygame.transform.rotate(titleSurf2, degrees2)
rotatedRect2 = rotatedSurf2.get_rect()
rotatedRect2.center = (WINDOWWIDTH / 2, WINDOWHEIGHT / 2)
DISPLAYSURF.blit(rotatedSurf2, rotatedRect2)
drawPressKeyMsg()
if checkForKeyPress():
pygame.event.get() # clear event queue
return
pygame.display.update()
FPSCLOCK.tick(FPS)
degrees1 += 3 # rotate by 3 degrees each frame
degrees2 += 7 # rotate by 7 degrees each frame
time.sleep(0.1)
def terminate():
pygame.quit()
sys.exit()
def getRandomLocation(worm):
temp = {'x': random.randint(0, CELLWIDTH - 1), 'y': random.randint(0, CELLHEIGHT - 1)}
while test_not_ok(temp, worm):
temp = {'x': random.randint(0, CELLWIDTH - 1), 'y': random.randint(0, CELLHEIGHT - 1)}
return temp
def test_not_ok(temp, worm):
for body in worm:
if temp['x'] == body['x'] and temp['y'] == body['y']:
return True
return False
def showGameOverScreen():
gameOverFont = pygame.font.Font('freesansbold.ttf', 150)
gameSurf = gameOverFont.render('Game', True, WHITE)
overSurf = gameOverFont.render('Over', True, WHITE)
gameRect = gameSurf.get_rect()
overRect = overSurf.get_rect()
gameRect.midtop = (WINDOWWIDTH / 2, 10)
overRect.midtop = (WINDOWWIDTH / 2, gameRect.height + 10 + 25)
DISPLAYSURF.blit(gameSurf, gameRect)
DISPLAYSURF.blit(overSurf, overRect)
drawPressKeyMsg()
pygame.display.update()
pygame.time.wait(5)
checkForKeyPress() # clear out any key presses in the event queue
while True:
if checkForKeyPress():
pygame.event.get() # clear event queue
return
def drawScore(score):
scoreSurf = BASICFONT.render('Score: %s' % (score), True, WHITE)
scoreRect = scoreSurf.get_rect()
scoreRect.topleft = (WINDOWWIDTH - 120, 10)
DISPLAYSURF.blit(scoreSurf, scoreRect)
def drawWorm(wormCoords):
for coord in wormCoords:
x = coord['x'] * CELLSIZE
y = coord['y'] * CELLSIZE
wormSegmentRect = pygame.Rect(x, y, CELLSIZE, CELLSIZE)
pygame.draw.rect(DISPLAYSURF, DARKGREEN, wormSegmentRect)
wormInnerSegmentRect = pygame.Rect(x + 4, y + 4, CELLSIZE - 8, CELLSIZE - 8)
pygame.draw.rect(DISPLAYSURF, GREEN, wormInnerSegmentRect)
def drawApple(coord):
x = coord['x'] * CELLSIZE
y = coord['y'] * CELLSIZE
appleRect = pygame.Rect(x, y, CELLSIZE, CELLSIZE)
pygame.draw.rect(DISPLAYSURF, RED, appleRect)
def drawGrid():
for x in range(0, WINDOWWIDTH, CELLSIZE): # draw vertical lines
pygame.draw.line(DISPLAYSURF, DARKGRAY, (x, 0), (x, WINDOWHEIGHT))
for y in range(0, WINDOWHEIGHT, CELLSIZE): # draw horizontal lines
pygame.draw.line(DISPLAYSURF, DARKGRAY, (0, y), (WINDOWWIDTH, y))
running_ = True
if __name__ == '__main__':
main()
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图示 基本准备 首先,我们需要安装pygame库,小编通过pip install pygame,很快就安装好了.在完成贪吃蛇小游戏的时候,我们需要知道整个游戏分为四部分: 1.游戏显示:游戏界面.结束界面 2.贪吃蛇:头部.身体.食物判断.死亡判断 3.树莓:随机生成 4.按键控制:上.下.左.右 游戏显示 首先,我们来初始化pygame,定义颜色.游戏界面的窗口大小.标题和图标等. 游戏结束界面,我们会显示"Game Over!"和该局游戏所得分数,相关代码如下: 贪吃蛇和树莓 我们
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Python实现自动玩贪吃蛇程序
目录 实现效果 代码 实现效果 先看看效果 这比我手动的快多了,而且是单机的,自动玩没惹骂我,哈哈 ,多人游戏整个自动玩会被骂死~ 代码 没装软件的先安装一下软件,没装模块的安装一下pygame模块. pip install pygame 导入模块 import pygame,sys,time,random from pygame.locals import * 定义颜色变量 redColour = pygame.Color(255,0,0) blackColour = pygame.Color
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Python实现智能贪吃蛇游戏的示例代码
目录 前言 基本环境配置 实现效果 实现代码 前言 我想大家都玩过诺基亚上面的贪吃蛇吧,本文将带你一步步用python语言实现一个snake小游戏. 基本环境配置 版本:Python3 系统:Windows 相关模块:pygame pip install pygame安装即可 实现效果 实现代码 import random, pygame, sys from pygame.locals import * import time ''' ''' FPS = 1 ##WINDOWWIDTH = 64
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Java实现贪吃蛇游戏的示例代码
目录 项目演示 项目实战 1. 游戏的主启动类 2. 游戏的面板 3. 数据中心 4. 绘制静态面板 5. 绘制静态小蛇 6. 绘制动态小蛇 7. 设置游戏状态 8. 让蛇动起来 9. 绘制食物布局 10. 游戏失败判定 11. 积分获取系统 12. 游戏优化 项目演示 项目演示地址 项目实战 1. 游戏的主启动类 作为贪吃蛇游戏的主启动类,构建了顶级窗口,可以容纳各种面板, package Snake; import javax.swing.*; /** * 游戏的主启动类 */ public
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C语言实现简单的贪吃蛇游戏的示例代码
目录 运行效果 代码 一个简单的贪吃蛇游戏本来代码就不多,在保证可读性的情况下,很容易就控制在100以内了. 运行效果 代码 #include <Windows.h> #include <stdio.h> #include <conio.h> #include <time.h> #define PANIC(err) (fprintf(stderr,"PANIC Line %d : %s",__LINE__,err),exit(-1),1)
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Python turtle实现贪吃蛇游戏
本文实例为大家分享了Python turtle实现贪吃蛇游戏的具体代码,供大家参考,具体内容如下 # Simple Snake Game in Python 3 for Beginners import turtle import time import random delay = 0.1 # Score score = 0 high_score = 0 # Set up the screen wn = turtle.Screen() wn.title("Snake Game by @Toky
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使用Python写一个贪吃蛇游戏实例代码
我在程序中加入了分数显示,三种特殊食物,将贪吃蛇的游戏逻辑写到了SnakeGame的类中,而不是在Snake类中. 特殊食物: 1.绿色:普通,吃了增加体型 2.红色:吃了减少体型 3.金色:吃了回到最初体型 4.变色食物:吃了会根据食物颜色改变蛇的颜色 #coding=UTF-8 from Tkinter import * from random import randint import tkMessageBox class Grid(object): def __init__(self,
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python实现简单贪吃蛇游戏
本文实例为大家分享了python实现贪吃蛇游戏的具体代码,供大家参考,具体内容如下 代码: from turtle import * from random import randrange from time import sleep ### 定义变量 snake = [[0,0],[10,0],[20,0],[30,0],[40,0],[50,0]] apple_x = randrange(-20,20)*10 apple_y = randrange(-20,20)*10 aim_x = 1
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python语言实现贪吃蛇游戏
本文实例为大家分享了python实现贪吃蛇游戏的具体代码,供大家参考,具体内容如下 新手自学python(简易贪吃蛇代码) 环境python3.7 刚刚大学毕业进入工作岗位,发现同事基本都会写py脚本,于是自学了一下,并写了一个简单的贪吃蛇代码,我觉得写的还是比较容易看懂,适合新手接触python. # -*- coding: utf-8 -*- import tkinter as tk # 使用Tkinter前需要先导入 import tkinter.messagebox import pic
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Python实现21点小游戏的示例代码
目录 游戏玩法 代码 - v1 测试 代码 - v2 测试 游戏玩法 游戏玩法: 该游戏由 2 到 6 个人玩,使用除大小王之外的 52 张牌, 游戏者的目标是使手中的牌的点数之和不超过 21 点且尽量大. 有着悠久的历史.黑杰克简称为21点,1700年左右法国赌场就有这种21点的纸牌游戏. 1931年,当美国内华达州宣布赌博为合法活动时,21点游戏第一次公开出现在内华达州的赌场俱乐部, 15年内,它取代掷骰子游戏,而一举成为非常流行的赌场庄家参与的赌博游戏. 代码 - v1 import ra
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Java swing框架实现的贪吃蛇游戏完整示例
本文实例讲述了Java swing框架实现的贪吃蛇游戏.分享给大家供大家参考,具体如下: java是门高级语言,做游戏时适合做后台,但是用它也可以做游戏.闲来无事做的时候可以用来写点小游戏,练习练习预防早衰哈哈! 闲话不说了 下面是以前练习的作品,不怕大家笑话,那个时候用了一个礼拜才做出来的. 源码如下供大家学习. 使用的是java的 swing Jframe Jpanel JButton 当然你也可以使用awt 先来看看运行效果: 具体代码: package Tcs; /** * * *
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Java 实现贪吃蛇游戏的示例
游戏界面基本布局 贪吃蛇是基于JFrame的一款小游戏.它主要有两部分组成,一个是显示区域,一个是按钮区域.这两个区域都用JPanel来实现. 首先需要创建一个基于JFrame的类,例如创建一个MyFrame,让其继承于JFrame. 然后创建一个显示区域的类MyPanel,一个按钮区域的类Button,当然了这两个类都基于JPanel. 第三步:在MyFrame类中实例化两个JPanel类.并在MyFrame构造方法中设置窗体的logo.窗体的标题.窗体初始位置.窗体的大小.窗体的背景颜色.窗