当前位置: 首页 > news >正文

使用 Pygame 创建生命游戏(Conway‘s Game of Life)

引言

康威的生命游戏(Conway’s Game of Life)是一种零玩家的细胞自动机,由数学家约翰·霍顿·康威发明。它在一个二维网格上进行,每个单元格可以是“活”的或“死”的状态。游戏遵循一些简单的规则来确定单元格的下一个状态。本文将介绍如何使用 Python 和 Pygame 库来实现这个游戏。

1. 项目概述

我们的目标是创建一个可以模拟生命游戏的程序,用户可以通过鼠标点击来设置初始状态,并通过按键来控制游戏的开始、停止、加速和减速。

2. 环境搭建

首先确保安装了 Python 和 Pygame 库。如果未安装 Pygame,可以通过 pip 安装:

pip install pygame
3. 代码解析

让我们逐行分析代码并解释其作用。

导入必要的模块:

import pygame
from pygame.locals import *
from sys import exit

初始化 Pygame 并创建窗口:

pygame.init()
screen = pygame.display.set_mode((1400, 800), 0, 32)

这里设置了窗口大小为1400x800像素,并指定了颜色深度为32位。

定义颜色和变量:

blue = (0, 0, 255)  # 蓝色
s_dead = set([])    # 死亡的细胞坐标
length = 20          # 单个细胞的边长
run = False          # 控制游戏是否运行
clock = pygame.time.Clock()  # 用于控制帧率
speed = 20           # 游戏速度

初始化字符串表示的生命模式:

abc = '''
bob2o$5o$2o3bo$3b2o$3b2o$6b4o$5bo3bo$4b2o2b2o$o2bo3bo$7o2$7o$o2bo3bo$
4b2o2b2o$5bo3bo$6b4o$3b2o$3b2o$2o3bo$5o$bob2o!
'''

此字符串包含了生命游戏的一个模式,其中b代表空白格,o代表活细胞,$用于换行。

解析字符串并填充活细胞集合:

s_alive = set([])  # 活着的细胞坐标
x = 0
y = 0
for count in range(len(abc)):q = abc[count]t = abc[count-1]e = abc[count-2]if q == '$':  # 如果遇到换行符try:try:y += int(e)*length*10 + int(t)*lengthx = 0except ValueError:y += int(t)*lengthx = 0except ValueError:y += lengthx = 0elif q == 'b':  # 如果遇到空白格try:try:x += int(e)*length*10 + int(t)*lengthexcept ValueError:x += int(t)*lengthexcept ValueError:x += lengthelif q == 'o':  # 如果遇到活细胞try:try:for p in range(int(e)*10 + int(t)):x += lengths_alive.add((x, y))except ValueError:for p in range(int(t)):x += lengths_alive.add((x, y))except ValueError:x += lengths_alive.add((x, y))

这一段代码根据abc字符串构建了活细胞的位置集合。

定义检查周围活细胞数量的函数:

def live(x, y):live = 0positions = [(x-length, y-length), (x, y-length), (x+length, y-length),(x-length, y+length), (x, y+length), (x+length, y+length),(x-length, y), (x+length, y)]for px, py in positions:if (px, py) in s_alive:live += 1return live

此函数用于计算给定位置周围的活细胞数。

主循环:

while True:pos = pygame.mouse.get_pos()pos_x, pos_y = pos[0] // length * length, pos[1] // length * length# 事件处理for event in pygame.event.get():if event.type == QUIT:exit()if event.type == MOUSEBUTTONDOWN:if (pos_x, pos_y) in s_alive:s_alive.remove((pos_x, pos_y))else:s_alive.add((pos_x, pos_y))if event.type == KEYDOWN:if event.key == K_SPACE:run = not runif event.key == K_BACKSPACE:s_dead.clear()s_alive.clear()if event.key == K_RIGHT:speed += 2if event.key == K_LEFT:speed -= 2# 清屏screen.fill((0, 0, 0))# 绘制活细胞for count in s_alive:pygame.draw.rect(screen, blue, Rect(count, (length, length)))# 运行游戏逻辑if run:new_alive = []for cell in s_alive:liv_ = live(*cell)if (liv_ == 2 or liv_ == 3):new_alive.append(cell)for cell in s_dead:liv = live(*cell)if liv == 3:new_alive.append(cell)s_alive = set(new_alive)s_dead = set()  # 清空死亡细胞集合# 更新屏幕pygame.display.update()clock.tick(speed)

这段代码处理了用户的输入事件,并根据当前状态更新活细胞集合。

4. 代码解释

这段代码主要实现了生命游戏的基本逻辑。用户可以通过点击鼠标来改变细胞的状态,并且可以按下空格键来开始或停止游戏,按退格键来重置游戏。

5. 完整代码

以下是完整代码:

import pygame
from pygame.locals import *
from sys import exitpygame.init()
screen = pygame.display.set_mode((1400, 800), 0, 32)blue = (0, 0, 255)
s_dead = set([])
length = 20
run = False
clock = pygame.time.Clock()
speed = 20abc = '''
bob2o$5o$2o3bo$3b2o$3b2o$6b4o$5bo3bo$4b2o2b2o$o2bo3bo$7o2$7o$o2bo3bo$
4b2o2b2o$5bo3bo$6b4o$3b2o$3b2o$2o3bo$5o$bob2o!
'''s_alive = set([])
x = 0
y = 0
for count in range(len(abc)):q = abc[count]t = abc[count-1]e = abc[count-2]if q == '$':try:try:y += int(e)*length*10+int(t)*lengthx = 0except ValueError:y += int(t)*lengthx = 0except ValueError:y += lengthx = 0elif q == 'b':try:try:x += int(e)*length*10+int(t)*lengthexcept ValueError:x += int(t)*lengthexcept ValueError:x += lengthelif q == 'o':try:try:for p in range(int(e)*10+int(t)):x += lengths_alive.add((x,y))except ValueError:for p in range(int(t)):x += lengths_alive.add((x,y))except ValueError:x += lengths_alive.add((x,y))def live(x,y):live = 0if (x-length,y-length) in s_alive:live += 1if (x,y-length) in s_alive:live += 1if (x+length,y-length) in s_alive:live += 1if (x-length,y+length) in s_alive:live += 1if (x,y+length) in s_alive:live += 1if (x+length,y+length) in s_alive:live += 1if (x-length,y) in s_alive:live += 1if (x+length,y) in s_alive:live += 1return livewhile True:pos = pygame.mouse.get_pos()pos_x,pos_y = pos[0]//length*length,pos[1]//length*lengthfor event in pygame.event.get():if event.type == QUIT:exit()if event.type == MOUSEBUTTONDOWN:if (pos_x,pos_y) in s_alive:s_alive.remove((pos_x,pos_y))else:s_alive.add((pos_x,pos_y))if event.type == KEYDOWN:if event.key == K_SPACE:run = not runif event.key == K_BACKSPACE:s_dead.clear()s_alive.clear()if event.key == K_RIGHT:speed += 2if event.key == K_LEFT:speed -= 2for x,y in s_alive:if (x-length,y-length) not in s_alive:s_dead.add((x-length,y-length))if (x,y-length) not in s_alive:s_dead.add((x,y-length))if (x+length,y-length) not in s_alive:s_dead.add((x+length,y-length))if (x-length,y+length) not in s_alive:s_dead.add((x-length,y+length))if (x,y+length) not in s_alive:s_dead.add((x,y+length))if (x+length,y+length) not in s_alive:s_dead.add((x+length,y+length))if (x-length,y) not in s_alive:s_dead.add((x-length,y))if (x+length,y) not in s_alive:s_dead.add((x+length,y))screen.fill((0,0,0))for count in s_alive:pygame.draw.rect(screen, blue, Rect(count,(length,length)))if run:l_alive = list(s_alive)for q in s_alive:liv_ = live(*q)if (liv_ > 3) or (liv_ < 2):l_alive.remove(q)for p in s_dead:liv = live(*p)if liv == 3:l_alive.append(p)s_alive = set(l_alive)s_dead.clear()pygame.display.update()clock.tick(speed)#       [][]
#       [][]#       []
#     [][][]
#   []      []
# []  [][][]  []
#   [][][][][]#             [][][]
#                 []
#               []#         [][][]
#       []      []
#     []          []
#     [][]  []  [][]#           []
#         []  []
#         []  []
#           []#           [][]
#           [][]#bleeder
# 38b4o$37bo3bo12bo2bo$41bo16bo$37bo2bo13bo3bo$55b4o2$31bo$32bo18bobo$
# 30b3o12b3ob2o3bo$42b2o4b4obob2o$40b2o5b5o4bo$26bo13b2o4bo5bo3bo$27bo
# 12b5o8b3o$25b3o14b2o9bo$13b5o$12bo4bo29b2o5bo2bo$17bo3bo24b4o8bo$12bo
# 3bo5bo23b2ob2o3bo3bo$14bo5b3o18b2o5b2o5b4o$30bo8b2ob2o$28bobo4bo3b4o$
# 16bo10bo2bo5bo3b2o$17bo9bo6bo2bo32b2o5b4o$15b3o9bo2bo5bo3b2o26b2ob2o3b
# o3bo$28bobo4bo3b4o25b4o8bo$30bo8b2ob2o25b2o5bo2bo$41b2o$64b2o9bo$30b2o
# 30b5o8b3o$29b4o29b2o4bo5bo3bo$29b2ob2o28b2o5b5o4bo$31b2o31b2o4b4obob2o
# $67b3ob2o3bo$73bobo2$53bo$bo49b2o24b4o$2bo49b2o22bo3bo$3o56b4o17bo12b
# 2o$58bo3bo13bo2bo11b2ob2o13b2o$38bo23bo28b4o13b4o$36b2o20bo2bo30b2o14b
# 2ob2o$5b2o30b2o12bo2bo55b2o$5b2o31bo16bo$38b2o11bo3bo$7b2o14bo16bo11b
# 4o35bo4b2o$7b3o11b2o12bo7b2o2b3o32bo7b3o3b2o9b2o$6b2obo5b2o5b2o10bo8b
# 2o2b3o33b2o4b2ob2o12bo2bo$6bo8b2o18bo7b2o2b3o12b3o17b2o4b3ob3o11bo2b2o
# $5b2o33bo11b4o5b5o22b3ob2o11bo2b2o$6b2o30b2o11bo3bo5b3ob2o23bobo12b4o$
# 4bo50bo8b2o11bo$5bo45bo2bo23b2o$76bob2o8b2o19b2o$75bo2bo7b2ob2o9b4o4b
# 4o$82bo3b4o9bo3bo4b2ob2o$9bo29bo26bo7bo2bo5bo3b2o14bo6b2o$8bobo5b2o20b
# obo5b2o16b5o5bo6bo2bo14bo2bo$8bobo4bobo20bobo4bobo16b2ob3o4bo2bo5bo3b
# 2o$9bo5b2o22bo5b2o17b5o6bobo4bo3b4o$66bo10bo8b2ob2o$88b2o5$90b2o$68bo
# 10bo8b2ob2o$11bo5b2o22bo5b2o17b5o6bobo4bo3b4o$10bobo4bobo20bobo4bobo
# 16b2ob3o4bo2bo5bo3b2o$10bobo5b2o20bobo5b2o16b5o5bo6bo2bo14bo2bo$11bo
# 29bo26bo7bo2bo5bo3b2o14bo6b2o$84bo3b4o9bo3bo4b2ob2o$77bo2bo7b2ob2o9b4o
# 4b4o$78bob2o8b2o19b2o$7bo45bo2bo23b2o$6bo50bo8b2o11bo$8b2o30b2o11bo3bo
# 5b3ob2o23bobo12b4o$7b2o33bo11b4o5b5o22b3ob2o11bo2b2o$8bo8b2o18bo7b2o2b
# 3o12b3o17b2o4b3ob3o11bo2b2o$8b2obo5b2o5b2o10bo8b2o2b3o33b2o4b2ob2o12bo
# 2bo$9b3o11b2o12bo7b2o2b3o32bo7b3o3b2o9b2o$9b2o14bo16bo11b4o35bo4b2o$
# 40b2o11bo3bo$7b2o31bo16bo$7b2o30b2o12bo2bo55b2o$38b2o20bo2bo30b2o14b2o
# b2o$4bo35bo23bo28b4o13b4o$4b2o54bo3bo13bo2bo11b2ob2o13b2o$3bobo55b4o
# 17bo12b2o$54b2o22bo3bo$53b2o24b4o$55bo2$75bobo$69b3ob2o3bo$33b2o31b2o
# 4b4obob2o$31b2ob2o28b2o5b5o4bo$31b4o29b2o4bo5bo3bo$32b2o30b5o8b3o$66b
# 2o9bo$44b4o$19bo12bo10bo3bo23b2o5bo2bo$19b2o10bobo4b2o7bo22b4o8bo$18bo
# bo8b2o2bo3b4o2bo2bo23b2ob2o3bo3bo$27b2obo5bo3b2o30b2o5b4o$29b2o2bo3b4o
# 2bo2bo$24bo6bobo4b2o7bo$24b2o6bo10bo3bo12b2o$18bo4bobo18b4o3b4o4b4o$
# 16bo3bo29bo3bo4b2ob2o$21bo32bo6b2o$16bo4bo7bo20bo2bo$17b5o7b2o$28bobo$
# 42b3o13b2o$41b4o13bobo$34bo6bo3bo12bob2o$34b2o6b3o14b2o$33bobo6b3o3b2o
# 9bo$48b2o2$60b2o$59b4o$59b2ob2o$44b2o15b2o$42b2ob2o$42b4o$43b2o!# gun
# 3b2o$3b2o4$3bo$2b3o$bo3bo$ob3obo$b5o5$6b3o$8bo$7bo7$4b3o$3bo3bo$2bo5bo
# $2b2obob2o3$5bo$4bobo$4bobo$5bo2$5b2o$5b2o!# gun*3
# 13b2o$11bo2bo2$10bo2$11b2o$13bo3$10b2o3b2o$10b2o3b2o$11b5o$12bobo2$12b
# 3o9$11bo$10b3o$9b5o$8b2o3b2o4$10b3o$10b3o2$9bo$8bobo$7bo3bo$8b3o$6b2o
# 3b2o5$7bo$7bo$7bob3o2$12bo$9bob2o$9b2o3$4b2o3b2o$4b2o3b2o$5b5o$6bobo2$
# 6b3o6$10bo$11bo$9b3o$5bo$4b3o$3b5o$2b2o3b2o4$4b3o$4b3o2$3bo$2bobo$bo3b
# o$2b3o$2o3b2o!# big_gun
# 39b2o$37bo2bo$36bo15bobo$24bo11bo10b3o2bo3bo$24b4o8bo19bo$8bo16b4o8bo
# 2bo2b2o7bo4bo$7bobo5b2o8bo2bo10b2o2bo2bobo7bo$5b2o3bo14b4o15b3o5bo3bo
# 3b2o$2o3b2o3bo4bobob2o3b4o24bobo5bobo$2o3b2o3bo5b2o3bo2bo37bo$7bobo10b
# o41b2o$8bo8bo2bo16bo$36bo$36b3o2$27bo$28bo$26b3o5$12b2o$13bo$13bobo4bo
# 9b2o$14b2o3bobo7b4o$18bob2o5b3o2bo2bobo$17b2ob2o9b2o2bo2bo$18bob2o6bo
# 9b2o6b2o$19bobo5bo8bo3b2o4b2o$20bo6bo10b2o$35bo2bo$35bobo!# move_gun
# 2b2o$2ob2o13b2o$4o13b4o$b2o14b2ob2o$19b2o4$16b2o$10b3o3bobo$7b3o6bob2o
# $7bo9b2o$7b3o7bo3$18b2o$9b4o4b4o$8bo3bo4b2ob2o$12bo6b2o$8bo2bo!# slow_ship
# 7bo$4b5o$bobo5bo$2bob2o2bo$6b2o$bo$2obo$bo2bo$bo2bo$2b2o!# slower_ship
# bob2o$5o$2o3bo$3b2o$3b2o$6b4o$5bo3bo$4b2o2b2o$o2bo3bo$7o2$7o$o2bo3bo$
# 4b2o2b2o$5bo3bo$6b4o$3b2o$3b2o$2o3bo$5o$bob2o!
6. 运行效果图

在这里插入图片描述

7. 总结

通过本文,我们学习了如何使用 Python 和 Pygame 库来创建一个生命游戏的模拟器。从环境搭建到代码实现,再到运行测试,每一个步骤都至关重要。希望这篇教程能帮助你理解如何利用 Python 和 Pygame 创建有趣的小工具。

扩展阅读

  • Pygame 官方文档
  • Python 官方文档
  • 康威的生命游戏


http://www.mrgr.cn/news/58810.html

相关文章:

  • 算法笔记day08
  • GPT-4o 和 GPT-4 Turbo 模型之间的对比
  • django5入门【01】环境配置
  • java 17天 TreeSet以及Collections
  • 【WebGis开发 - Cesium】三维可视化项目教程---图层管理拓展图层顺序调整功能
  • [计算机网络]第一周
  • NumPy学习第六课(1):数组的高级索引
  • 【JAVA毕业设计】基于Vue和SpringBoot的房产销售系统
  • 业务开发如何才能独立于框架
  • XSS攻击原理与解决方法
  • STM32基于LL库的USART+DMA使用
  • 数据可视化技术综述(5)数据的存储
  • 如何初始化一个线上的GitHub仓库,在本地已有的仓库中上传到线上
  • 从零开始理解 Trie 树:高效字符串存储与查找的利器【自动补全、拼写检查】
  • 什么是DICOM文件?——认识DICOM:医学影像与信息管理的标准化利器
  • [专有网络VPC]网络ACL概述
  • 道路车辆功能安全 ISO 26262标准(8-7)—支持过程
  • Lua 函数
  • 使用单链表实现集合操作:并集、交集与差集
  • 【2024|滑坡数据集论文解读1】CAS滑坡数据集:用于深度学习滑坡检测的大规模多传感器数据集
  • 借助Agent让大模型应用思考、决策并执行任务
  • 一站式能源解决方案:加油与充电的创新结合
  • 数据治理和数据管理之辨
  • 【人工智能-初级】第18章 如何用Pandas进行数据分析和处理
  • 【Linux 从基础到进阶】集群技术与高可用性配置
  • 【NOIP提高组】Car的旅行路线