最近学了下pygame, 感觉非常有意思, 于是用自己的理解纯手工敲了几个游戏, 下面记录一下我做飞行棋的思路过程:
运行结果
玩家轮流投骰子然后移动飞机, 全程只用鼠标操作, 右上方会提示当前的轮次及操作
基础设置
1) 首先是导包和初始化一些变量, 定义SIZE=40表示长方形的宽, 里面的长方形地区长宽比为2:1, 三角形直角边等于长方形的长, 出发地的边长等于长方形宽度的4倍
2) 游戏里设置了100帧, 设置几百都没问题(只要电脑带的动)
3) 没有导入pygame包的话就在终端输入pip install pygame即可自动下载.
import pygame, random
from pygame.locals import *
# 基础设置 pygame.init() WIDTH = 680 # 正方形棋盘边长 SIZE = 40 # 小格子正方形大小 sur = pygame.display.set_mode((WIDTH+100, WIDTH)) pygame.display.set_caption('FlightChess') # 标题 FPS = 100 # 帧率 fpsClock = pygame.time.Clock()
颜色变量
一些颜色RGB值变量的初始化, RGB值就是用红绿蓝三个色度来表示最终的颜色, 每个色度为0-255, 例如(0, 0, 0)表示黑色
# 颜色变量
# 颜色变量
WHITE = (255, 255, 255)
RED = (255, 0, 0)
GREEN = (0, 128, 0)
BLACK = (0, 0, 0)
YELLOW = (233, 233, 0)
BLUE = (62, 105, 22
画棋盘
首先先看几个函数的定义
1) 在圆心为(x, y)半径为R的圆中画一个颜色为color的飞机
def draw_plane(x, y, color): # 机身 pygame.draw.line(sur, color, (x+9, y), (x-8, y), 3) pygame.draw.line(sur, color, (x+9, y), (x+12, y), 2) # 尾部 pygame.draw.line(sur, color, (x-8, y), (x-11, y-4), 3) pygame.draw.line(sur, color, (x-8, y), (x-11, y+4), 3) # 机翼 pygame.draw.line(sur, color, (x+3, y), (x-3, y-6), 3) pygame.draw.line(sur, color, (x-3, y-6), (x-6, y-9), 2) pygame.draw.line(sur, color, (x+3, y), (x-3, y+6), 3) pygame.draw.line(sur, color, (x-3, y+6), (x-6, y+9), 2)
2) 在圆心为(x, y)的地方画一个白色圆, 半径为R
def draw_circle(x, y): pygame.draw.circle(sur, WHITE, (x, y), R, R) pygame.draw.circle(sur, BLACK, (x, y), R, 1)
3) 在左上角(x, y)坐标处开始画一个三角形, 三角形有4中形态
type==0 时直角在左上角, type==1时直角在右上角, type==2时直角在右下角, type==3时直角在左下角
zdef draw_triangle(x, y, color, type): if not type: pygame.draw.polygon(sur, color, ((x, y), (x+SIZE*2, y), (x, y+SIZE*2))) draw_circle(x+L, y+L) pygame.draw.polygon(sur, BLACK, ((x, y), (x+SIZE*2, y), (x, y+SIZE*2)), 2) elif type == 1: pygame.draw.polygon(sur, color, ((x, y), (x + SIZE * 2, y), (x+SIZE*2, y + SIZE * 2))) draw_circle(x+R+SIZE, y+L) pygame.draw.polygon(sur, BLACK, ((x, y), (x + SIZE * 2, y), (x+SIZE*2, y + SIZE * 2)), 2) elif type == 2: pygame.draw.polygon(sur, color, ((x, y + SIZE * 2), (x + SIZE * 2, y), (x + SIZE * 2, y + SIZE * 2))) draw_circle(x + R+SIZE, SIZE+y + R) pygame.draw.polygon(sur, BLACK, ((x, y+SIZE*2), (x + SIZE * 2, y), (x+SIZE*2, y + SIZE * 2)), 2) else: pygame.draw.polygon(sur, color, ((x, y), (x + SIZE * 2, y + SIZE * 2), (x, y + SIZE * 2))) draw_circle(x + L, y + R+SIZE) pygame.draw.polygon(sur, BLACK, ((x, y), (x + SIZE * 2, y+SIZE*2), (x, y + SIZE * 2)), 2)
4) 在(x, y)画一格颜色为color的长方形
type=0为横着, 1为竖着
def draw_block(x, y, color, type): if type: # 竖 sur.fill(color, (x, y, SIZE, SIZE * 2)) pygame.draw.polygon(sur, BLACK, ((x, y), (x+SIZE, y), (x+SIZE, y+SIZE*2), (x, y+SIZE*2)), 2) draw_circle(x+20, y+40) else: # 横 sur.fill(color, (x, y, SIZE * 2, SIZE)) pygame.draw.polygon(sur, BLACK, ((x, y), (x+SIZE*2, y), (x+SIZE*2, y+SIZE), (x, y+SIZE)), 2) draw_circle(x+40, y+20)
5) 画棋盘
下面是画棋盘的一部分代码
draw_triangle(0, 160, GREEN, 2) draw_block(80, 160, RED, 1) draw_block(120, 160, YELLOW, 1) draw_triangle(160, 160, BLUE, 3) draw_triangle(160, 160, GREEN, 1) draw_block(160, 120, RED, 0) draw_block(160, 80, YELLOW, 0) draw_triangle(160, 0, BLUE, 2) draw_block(240, 0, GREEN, 1) draw_block(280, 0, RED, 1) draw_path((240, 160+L), (440, 183), GREEN) pygame.draw.circle(sur, BLACK, (L, 160+L), R, 2) draw_end_place(YELLOW) draw_start_place(0, 0, RED)
画出了差不多这一部分(不完全准确), 剩下的自行根据坐标来定义即可
变量思路
做完了界面, 就该考虑逻辑怎么实现了
首先我把棋盘分成了三个部分来放飞机, 出发地, 周围一圈, 终点路径
出发地
init_pos = [[0 for _ in range(5)] for _ in range(4)]
周围一圈
grid = [0 for _ in range(52)]
终点路径
end_pos = {RED: [False for _ in range(6)],
YELLOW: [False for _ in range(6)],
BLUE: [False for _ in range(6)],
GREEN: [False for _ in range(6)]}
飞机类, 表示一架飞机, 包含目前的所有信息
class Chess: step = STEP # 还差多少步到终点 start = 0 # 飞机目前的状态, 0未出发, 1在棋盘上, 2在终点路径 color = (0, 0, 0) # 颜色 x, y = 0, 0 # 界面的笛卡尔坐标 idx = 0 # 棋盘对应部分的下标 def __init__(self, color, x, y, start, idx): self.color = color # 飞机颜色 self.x, self.y = x, y
接下来在每次循环里面都画出飞机即可, 遍历每个部分是否有飞机
while True: draw_grid() draw_point() # 画出出生地的飞机 for i in range(len(init_pos)): # 4 for j in range(len(init_pos[0])): # 5 if init_pos[i][j]: draw_plane(init_pos[i][j].x, init_pos[i][j].y, init_pos[i][j].color) # 画出棋盘中的飞机 for c in grid: if c: # 此格有飞机, 画出飞机 draw_plane(c.x, c.y, c.color) # 画终点路径的飞机 for i in end_pos: for c in end_pos[i]: if c: draw_plane(c.x, c.y, c.color)
关于投骰子, 用random随机数来获取点数, 并将其显示在棋盘右边的位置, 投骰子的时间为0.5s, 实现的方法:
t = 0
while True:
...
if not moving and geting_point: # 投色子 t += 1/FPS point = get_point() if t >= 0.5: t = 0 geting_point = False move = True
核心逻辑
大致思路:
1. 点击后判断点击的位置是否在棋盘内
1) 在棋盘内
找到点击位置的飞机, 然后根据一系列规则和更新来维护棋盘
2) 在棋盘外
点击到了骰子, 若条件满足则开始投骰子
3) 无效点击
指点击了没反应, 在棋盘内没点击到棋子或者点击到了不是此轮此的棋子或者无法移动的棋子
在棋盘外点击了除骰子以外的地方或者条件不符合投骰子
2. 中途包含了非常多的细节, 这里就不一一叙述, 感兴趣请看全部代码.
全部代码
规则一览:
1) 点数 >= 5 时飞机才能出发, 若场上没有可移动的飞机, 自动跳过回合
2) 对于可移动的飞机, 点数丢到多少就可移动多少格
3) 飞机落点在同色块时会自动跳到下一个同色块(4格), 若是有虚线的同色块, 则会沿着虚线跨越到对面(12格)
4) 相同颜色飞机无法落在同一格, 此时会无法点击想要移动的飞机
5) 若落点处有不同颜色的飞机, 会将其打回出发点
import pygame, random from pygame.locals import * # 基础设置 pygame.init() WIDTH = 680 # 正方形棋盘边长 SIZE = 40 # 小格子正方形大小 sur = pygame.display.set_mode((WIDTH+100, WIDTH)) pygame.display.set_caption('FlightChess') FPS = 100 fpsClock = pygame.time.Clock() # 颜色变量 WHITE = (255, 255, 255) RED = (255, 0, 0) GREEN = (0, 128, 0) BLACK = (0, 0, 0) YELLOW = (233, 233, 0) BLUE = (62, 105, 225) # 游戏变量 R = 18 # 圆的半径, 框中的偏差量 DIF = SIZE - R L, RR = 23, 57 grid = [0 for _ in range(52)] # 棋盘, 仅包括周围一圈, 不包括飞机的出生点 GRID_COLOR = (GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE, GREEN, RED, YELLOW, BLUE,) # 对应格子的颜色 STEP = 56 # 每个棋子要走的总步数 QUICK_CROSS = 12 # 碰见机场会少走的步数 QUICK_PATH = {RED: 17, YELLOW: 30, BLUE: 43, GREEN: 4} LAST_STEP = 5 # 最后五步会被移出棋盘 START_POINT = 5 # 飞机必须大于等于5才能从机场出发 # pause = False # 是否暂停游戏, 棋子在移动中途自动暂停 # game_start = False # 游戏是否开始 INIT = {RED: 0, YELLOW: 13, BLUE: 26, GREEN: 39} # 各颜色棋子的出发点在棋盘中的索引 init_pos = [[0 for _ in range(5)] for _ in range(4)] # 各棋子出生地和出发地, 红黄蓝绿 INIT_POS = ((40, 40), (40+R*2+DIF*2, 40), (40, 40+R*2+DIF*2), (40+R*2+DIF*2, 40+R*2+DIF*2), (L, 160+L), # 红 (560, 40), (560+R*2+DIF*2, 40), (560, 40+R*2+DIF*2), (560+R*2+DIF*2, 40+R*2+DIF*2), (520-L, L), # 黄 (560, 560), (560+R*2+DIF*2, 560), (560, 560+R*2+DIF*2), (560+R*2+DIF*2, 560+R*2+DIF*2), (680-L, 520-L), # 蓝 (40, 560), (40+R*2+DIF*2, 560), (40, 560+R*2+DIF*2), (40+R*2+DIF*2, 560+R*2+DIF*2), (160+L, 680-L)) # 绿 COLOR_IDX = [RED, YELLOW, BLUE, GREEN] # 数字对应的颜色索引 # 棋盘对应具体坐标 PLACE = ((80-L, 240-L), (100, 200), (140, 200), (160+L, 240-L), (240-L, 160+L), (200, 140), (200, 100), (240-L, 80-L), (260, 40), (300, 40), (340, 40), (380, 40), (420, 40), (440+L, 80-L), (480, 100), (480, 140), (440+L, 160+L), (520-L, 240-L), (540, 200), (580, 200), (600+L, 240-L), (640, 260), (640, 300), (640, 340), (640, 380), (640, 420), (600+L, 440+L), (580, 480), (540, 480), (520-L, 440+L), (440+L, 520-L), (480, 540), (480, 580), (440+L, 600+L), (420, 640), (380, 640), (340, 640), (300, 640), (260, 640), (240-L, 600+L), (200, 580), (200, 540), (240-L, 520-L), (160+L, 440+L), (140, 480), (100, 480), (80-L, 440+L), (40, 420), (40, 380), (40, 340), (40, 300), (40, 260)) # 终点路径的棋子 end_pos = {RED: [False for _ in range(6)], YELLOW: [False for _ in range(6)], BLUE: [False for _ in range(6)], GREEN: [False for _ in range(6)]} # 终点路径的坐标 END_PLACE = {RED: ((), (260, 340), (220, 340), (180, 340), (140, 340), (100, 340)), YELLOW: ((), (340, 260), (340, 220), (340, 180), (340, 140), (340, 100)), BLUE: ((), (420, 340), (460, 340), (500, 340), (540, 340), (580, 340)), GREEN: ((), (340, 420), (340, 460), (340, 500), (340, 540), (340, 580))} mousechess = False # 鼠标上的棋子 prechess = False # 之前一个棋子 point = 0 # 点数 turn = RED # 轮次 TURN = {RED: YELLOW, YELLOW: BLUE, BLUE: GREEN, GREEN: RED} # 轮番顺序 TURN_NAME = {RED: '红色', YELLOW: '黄色', BLUE: '蓝色', GREEN: '绿色'} TURN_IDX = {RED: 0, YELLOW: 1, BLUE: 2, GREEN: 3} # 颜色对应索引 FONT1 = pygame.font.SysFont("SimHei", 15) FONT2 = pygame.font.SysFont("SimHei", 20) FONT3 = pygame.font.SysFont("SimHei", 100) move = False # 为true的时候就该某一色移动棋子 moving = False # 正在移动, 画路径 remain_plane = {RED: 4, YELLOW: 4, BLUE: 4, GREEN: 4} # 未到终点的飞机数量 dif = 0 # 跳跃量 geting_point = False # 正在摇骰子 # 飞机类, 代表一个飞机的个体 class Chess: step = STEP # 还差多少步到终点 start = 0 # 飞机目前的状态, 0未出发, 1在棋盘上, 2在终点路径 color = (0, 0, 0) # 颜色 x, y = 0, 0 # 界面的笛卡尔坐标 idx = 0 # 棋盘对应部分的下标 def __init__(self, color, x, y, start, idx): self.color = color # 飞机颜色 self.x, self.y = x, y def get_point(): return random.randint(1, 6) # 在圆心为(x, y)半径为R的圆中画一个颜色为color的飞机 def draw_plane(x, y, color): # 机身 pygame.draw.line(sur, color, (x+9, y), (x-8, y), 3) pygame.draw.line(sur, color, (x+9, y), (x+12, y), 2) # 尾部 pygame.draw.line(sur, color, (x-8, y), (x-11, y-4), 3) pygame.draw.line(sur, color, (x-8, y), (x-11, y+4), 3) # 机翼 pygame.draw.line(sur, color, (x+3, y), (x-3, y-6), 3) pygame.draw.line(sur, color, (x-3, y-6), (x-6, y-9), 2) pygame.draw.line(sur, color, (x+3, y), (x-3, y+6), 3) pygame.draw.line(sur, color, (x-3, y+6), (x-6, y+9), 2) # 在圆心为(x, y)处画白色圆, 半径为R def draw_circle(x, y): pygame.draw.circle(sur, WHITE, (x, y), R, R) pygame.draw.circle(sur, BLACK, (x, y), R, 1) # 在(x, y)画一格颜色为color的长方形, 长是宽的两倍, type=0为横着, 1为竖着 def draw_block(x, y, color, type): if type: # 竖 sur.fill(color, (x, y, SIZE, SIZE * 2)) pygame.draw.polygon(sur, BLACK, ((x, y), (x+SIZE, y), (x+SIZE, y+SIZE*2), (x, y+SIZE*2)), 2) draw_circle(x+20, y+40) else: # 横 sur.fill(color, (x, y, SIZE * 2, SIZE)) pygame.draw.polygon(sur, BLACK, ((x, y), (x+SIZE*2, y), (x+SIZE*2, y+SIZE), (x, y+SIZE)), 2) draw_circle(x+40, y+20) # 在(x, y)画一格颜色为color的三角形, 长是宽的两倍 # type=0为左上角直角, 1为右上角直角, 2为右下角直角, 3左下角直角 def draw_triangle(x, y, color, type): if not type: pygame.draw.polygon(sur, color, ((x, y), (x+SIZE*2, y), (x, y+SIZE*2))) draw_circle(x+L, y+L) pygame.draw.polygon(sur, BLACK, ((x, y), (x+SIZE*2, y), (x, y+SIZE*2)), 2) elif type == 1: pygame.draw.polygon(sur, color, ((x, y), (x + SIZE * 2, y), (x+SIZE*2, y + SIZE * 2))) draw_circle(x+R+SIZE, y+L) pygame.draw.polygon(sur, BLACK, ((x, y), (x + SIZE * 2, y), (x+SIZE*2, y + SIZE * 2)), 2) elif type == 2: pygame.draw.polygon(sur, color, ((x, y + SIZE * 2), (x + SIZE * 2, y), (x + SIZE * 2, y + SIZE * 2))) draw_circle(x + R+SIZE, SIZE+y + R) pygame.draw.polygon(sur, BLACK, ((x, y+SIZE*2), (x + SIZE * 2, y), (x+SIZE*2, y + SIZE * 2)), 2) else: pygame.draw.polygon(sur, color, ((x, y), (x + SIZE * 2, y + SIZE * 2), (x, y + SIZE * 2))) draw_circle(x + L, y + R+SIZE) pygame.draw.polygon(sur, BLACK, ((x, y), (x + SIZE * 2, y+SIZE*2), (x, y + SIZE * 2)), 2) # 在(x, y)处画颜色为color的出生地 def draw_start_place(x, y, color): sur.fill(color, (x, y, 4 * SIZE, 4 * SIZE)) draw_circle(x+40, y+40) draw_circle(x+40 + R * 2 + DIF * 2, y+40) draw_circle(x+40, y+40 + R * 2 + DIF * 2) draw_circle(x+40 + R * 2 + DIF * 2, y+40 + R * 2 + DIF * 2) pygame.draw.polygon(sur, BLACK, ((x, y), (x+160, y), (x+160, y+160), (x, y+160)), 2) # 画出终点的路 def draw_end_place(color): if color == YELLOW: pygame.draw.polygon(sur, YELLOW, ((320, 0), (360, 0), (360, 280), (400, 280), (340, 340), (280, 280), (320, 280))) pygame.draw.polygon(sur, BLACK, ((320, 0), (360, 0), (360, 280), (400, 280), (340, 340), (280, 280), (320, 280)), 2) draw_circle(340, 40) draw_circle(340, 100) draw_circle(340, 140) draw_circle(340, 180) draw_circle(340, 220) draw_circle(340, 260) draw_circle(340, 300) elif color == BLUE: pygame.draw.polygon(sur, BLUE, ((340, 340), (400, 280), (400, 320), (WIDTH, 320), (WIDTH, 360), (400, 360), (400, 400))) pygame.draw.polygon(sur, BLACK, ((340, 340), (400, 280), (400, 320), (WIDTH, 320), (WIDTH, 360), (400, 360), (400, 400)), 2) draw_circle(640, 340) draw_circle(580, 340) draw_circle(540, 340) draw_circle(500, 340) draw_circle(460, 340) draw_circle(420, 340) draw_circle(380, 340) elif color == GREEN: pygame.draw.polygon(sur, GREEN, ((340, 340), (400, 400), (360, 400), (360, WIDTH), (320, WIDTH), (320, 400), (280, 400))) pygame.draw.polygon(sur, BLACK, ((340, 340), (400, 400), (360, 400), (360, WIDTH), (320, WIDTH), (320, 400), (280, 400)), 2) draw_circle(340, 640) draw_circle(340, 580) draw_circle(340, 540) draw_circle(340, 500) draw_circle(340, 460) draw_circle(340, 420) draw_circle(340, 380) else: # RED pygame.draw.polygon(sur, RED, ((340, 340), (280, 400), (280,360), (0, 360), (0, 320), (280, 320), (280, 280))) pygame.draw.polygon(sur, BLACK, ((340, 340), (280, 400), (280, 360), (0, 360), (0, 320), (280, 320), (280, 280)), 2) draw_circle(40, 340) draw_circle(100, 340) draw_circle(140, 340) draw_circle(180, 340) draw_circle(220, 340) draw_circle(260, 340) draw_circle(300, 340) # 在两点之间画颜色color的虚线 def draw_path(p1, p2, color): if p1[0] == p2[0]: # 画竖线 x = p1[0] for i in range(min(p1[1], p2[1]), max(p1[1], p2[1]), 10): pygame.draw.line(sur, color, (x, i), (x, i+5), 2) else: # 画横线 y = p1[1] for j in range(min(p1[0], p2[0]), max(p1[0], p2[0]), 10): pygame.draw.line(sur, color, (j, y), (j+5, y), 2) # 画棋盘 def draw_grid(): sur.fill(WHITE) draw_triangle(0, 160, GREEN, 2) draw_block(80, 160, RED, 1) draw_block(120, 160, YELLOW, 1) draw_triangle(160, 160, BLUE, 3) draw_triangle(160, 160, GREEN, 1) draw_block(160, 120, RED, 0) draw_block(160, 80, YELLOW, 0) draw_triangle(160, 0, BLUE, 2) draw_block(240, 0, GREEN, 1) draw_block(280, 0, RED, 1) draw_path((240, 160+L), (440, 183), GREEN) pygame.draw.circle(sur, BLACK, (L, 160+L), R, 2) draw_end_place(YELLOW) draw_start_place(0, 0, RED) draw_block(360, 0, BLUE, 1) draw_block(400, 0, GREEN, 1) draw_triangle(440, 0, RED, 3) draw_block(440, 80, YELLOW, 0) draw_block(440, 120, BLUE, 0) draw_triangle(440, 160, GREEN, 0) draw_triangle(440, 160, RED, 2) draw_block(520, 160, YELLOW, 1) draw_block(560, 160, BLUE, 1) draw_triangle(600, 160, GREEN, 3) draw_block(600, 240, RED, 0) draw_block(600, 280, YELLOW, 0) draw_end_place(BLUE) pygame.draw.circle(sur, BLACK, (520-L, L), R, 2) draw_path((440+RR, 240), (440+RR, 440), RED) draw_start_place(520, 0, YELLOW) draw_block(600, 360, GREEN, 0) draw_block(600, 400, RED, 0) draw_triangle(600, 440, YELLOW, 0) draw_block(560, 440, BLUE, 1) draw_block(520, 440, GREEN, 1) draw_triangle(440, 440, RED, 1) draw_triangle(440, 440, YELLOW, 3) draw_block(440, 520, BLUE, 0) draw_block(440, 560, GREEN, 0) draw_triangle(440, 600, RED, 0) draw_block(400, 600, YELLOW, 1) draw_block(360, 600, BLUE, 1) draw_end_place(GREEN) pygame.draw.circle(sur, BLACK, (680-L, 520-L), R, 2) draw_path((240, 440+RR), (440, 440+RR), YELLOW) draw_start_place(0, 520, GREEN) draw_block(280, 600, RED, 1) draw_block(240, 600, YELLOW, 1) draw_triangle(160, 600, BLUE, 1) draw_block(160, 560, GREEN, 0) draw_block(160, 520, RED, 0) draw_triangle(160, 440, BLUE, 0) draw_triangle(160, 440, YELLOW, 2) draw_block(120, 440, GREEN, 1) draw_block(80, 440, RED, 1) draw_triangle(0, 440, YELLOW, 1) draw_block(0, 400, BLUE, 0) draw_block(0, 360, GREEN, 0) draw_block(0, 280, YELLOW, 0) draw_block(0, 240, BLUE, 0) draw_end_place(RED) pygame.draw.circle(sur, BLACK, (160+L, 680-L), R, 2) draw_path((160+L, 240), (160+L, 440), BLUE) draw_start_place(520, 520, BLUE) def draw_point(): pygame.draw.polygon(sur, BLACK, ((WIDTH, 0), (WIDTH, WIDTH), (WIDTH+97, WIDTH), (WIDTH+97, 0)), 10) pygame.draw.polygon(sur, BLACK, ((WIDTH+30, 150), (WIDTH+70, 150), (WIDTH+70, 190), (WIDTH+30, 190)), 2) if point == 1: # 画点数 pygame.draw.circle(sur, RED, (WIDTH+50, 170), 5, 5) elif point == 2: pygame.draw.circle(sur, RED, (WIDTH + 40, 170), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 60, 170), 5, 5) elif point == 3: pygame.draw.circle(sur, RED, (WIDTH + 50, 160), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 40, 180), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 60, 180), 5, 5) elif point == 4: pygame.draw.circle(sur, RED, (WIDTH + 40, 160), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 60, 160), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 40, 180), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 60, 180), 5, 5) elif point == 5: pygame.draw.circle(sur, RED, (WIDTH + 50, 170), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 40, 160), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 60, 160), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 40, 180), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 60, 180), 5, 5) elif point == 6: pygame.draw.circle(sur, RED, (WIDTH + 40, 160), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 60, 160), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 40, 170), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 60, 170), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 40, 180), 5, 5) pygame.draw.circle(sur, RED, (WIDTH + 60, 180), 5, 5) # 检查是否能够移动 def check_movable(): global turn lst = [i for i in init_pos[TURN_IDX[turn]]][:-1] count = 0 for i in lst: if i: count += 1 if remain_plane[turn] == count and point <= 4: # 剩余飞机全部在家且点数小于4无法移动 return False return True # 检查是否有胜者 def check_winner(): winner = False for i in remain_plane: if not remain_plane[i]: winner = i break if winner: for i in TURN: if TURN[i] == winner: TURN[i] = TURN[winner] break def update(i): global move, turn, point, mousechess mousechess.x, mousechess.y = PLACE[i] mousechess.idx = i grid[i] = mousechess move = False turn = TURN[turn] point = 0 # 是否跳过 def jump_4(idx): global mousechess, dif if mousechess.color == GRID_COLOR[idx] and mousechess.step > 6+point: # 到达同色地带, +4 dif += 4 return (idx + 4) % len(grid) return idx def plane_back(idx): global mousechess if not grid[idx]: return True # 可以移动 c = grid[idx] if c.color == mousechess.color: return False # 队友, 不能移动 # 将别人的棋子打回去 x = TURN_IDX[c.color] for i in range(len(init_pos[x])): if not init_pos[x][i]: # 找到空位重新生成一个飞机 c.step = STEP c.x, c.y = INIT_POS[x*5+i] init_pos[x][i] = c return True def draw_moving(): if mousechess.start == prechess.start: # 两者在同一棋盘上移动, 直接画 for i in range(prechess.idx, mousechess.idx+1): if not mousechess.start: # 在出生点 break elif mousechess.start == 1: # 在外圈 pass pass def main(): global point, pause, mousechess, turn, move, game_start, dif, geting_point, moving # 前四个位置填充飞机 for i in range(4): init_pos[0][i] = Chess(RED, INIT_POS[i][0], INIT_POS[i][1], 0, i) init_pos[1][i] = Chess(YELLOW, INIT_POS[i+5][0], INIT_POS[i+5][1], 0, i) init_pos[2][i] = Chess(BLUE, INIT_POS[i+10][0], INIT_POS[i+10][1], 0, i) init_pos[3][i] = Chess(GREEN, INIT_POS[i+15][0], INIT_POS[i+15][1], 0, i) t = 0 # 动画计时 Text1 = FONT1.render("现在轮到", True, BLACK) Text4 = FONT1.render("无法移动", True, BLACK) Text5 = FONT1.render("跳过此玩家", True, BLACK) while True: draw_grid() draw_point() check_winner() # 画出出生地的飞机 for i in range(len(init_pos)): # 4 for j in range(len(init_pos[0])): # 5 if init_pos[i][j]: draw_plane(init_pos[i][j].x, init_pos[i][j].y, init_pos[i][j].color) # 画出棋盘中的飞机 for c in grid: if c: # 此格有飞机, 画出飞机 draw_plane(c.x, c.y, c.color) # 画终点路径的飞机 for i in end_pos: for c in end_pos[i]: if c: draw_plane(c.x, c.y, c.color) Text2 = FONT2.render(TURN_NAME[turn], True, turn) Text3 = FONT2.render("移动" if move else '投掷', True, BLACK) if not moving and geting_point: # 投色子 t += 1/FPS point = get_point() if t >= 0.5: t = 0 geting_point = False move = True if not moving and move and not geting_point and not check_movable(): # True可移动, 否则不可移动, 直接跳到下一个玩家 t += 1/FPS sur.blit(Text4, (WIDTH+10, 250)) sur.blit(Text5, (WIDTH+10, 280)) if t >= 1: point = 0 turn = TURN[turn] move = False game_start = False t = 0 sur.blit(Text1, (WIDTH+10, 50)) sur.blit(Text2, (WIDTH+30, 70)) sur.blit(Text3, (WIDTH+30, 100)) for e in pygame.event.get(): if e.type == QUIT: pygame.quit() exit() elif not moving and e.type == MOUSEBUTTONDOWN: x, y = e.pos # 棋盘内点击 if not geting_point and move and 0 <= x <= WIDTH and 0 <= y <= WIDTH: for i in range(len(INIT_POS)): # 遍历出生点 tx, ty = i // 5, i % 5 if init_pos[tx][ty] and x-R <= init_pos[tx][ty].x <= x+R and y-R <= init_pos[tx][ty].y <= y+R: # 选择到了棋子 mousechess = init_pos[tx][ty] prechess = init_pos[tx][ty] if mousechess.color != turn: continue elif ty == 4: # 在出发点 idx = point+INIT[mousechess.color]-1 idx = jump_4(idx) if plane_back(idx): # 可以移动 mousechess.step -= point+dif mousechess.start = 1 # 到达棋盘1的部分 dif = 0 init_pos[tx][ty] = False # 清空原来的飞机 moving = True update(idx) elif ty < 4 and point >= START_POINT and not init_pos[tx][4]: # 在出生点 mousechess.x, mousechess.y = INIT_POS[tx*5+4] mousechess.idx = 4 init_pos[tx][4] = mousechess init_pos[tx][ty] = False # 清空原来的飞机 move = False turn = TURN[turn] point = 0 for i in range(len(PLACE)): # 遍历棋盘 if grid[i] and x-R <= grid[i].x <= x+R and y-R <= grid[i].y <= y+R: mousechess, prechess = grid[i], grid[i] if mousechess.color != turn: continue grid[i] = False # 清空原来的棋子 if mousechess.step-point < 6: # 走终点路径 mousechess.step -= point if mousechess.step: # 未到达终点 mousechess.x, mousechess.y = END_PLACE[mousechess.color][mousechess.step] mousechess.start, mousechess.idx = 2, mousechess.step end_pos[mousechess.color][mousechess.step] = mousechess point = 0 else: # 到达终点 remain_plane[turn] -= 1 moving = True turn = TURN[turn] else: # 在棋盘上继续移动 idx, tem_i = i, (i+point) % len(grid) if tem_i == QUICK_PATH[turn]: # 到达飞机场 +12 tem_i = (tem_i+12) % len(grid) dif += 12 else: tem_i = jump_4(tem_i) # 到达同色块, +4 if tem_i == QUICK_PATH[turn]: # +4 后到达飞机场 +12 tem_i = (tem_i + 12) % len(grid) dif += 12 if plane_back(tem_i): # 可以移动才会更新idx和step mousechess.step -= dif+point dif = 0 idx = tem_i moving = True update(idx) for i in end_pos: # 访问终点路劲的字典 for j in range(6): if end_pos[i][j] and x-R <= end_pos[i][j].x <= x+R and y-R <= end_pos[i][j].y <= y+R: mousechess = end_pos[i][j] if mousechess.color != turn: continue tem_i = abs(mousechess.step-point) # 计算落点坐标 if end_pos[i][tem_i]: # 落点处有棋子, 自己或者同色 continue # 不能移动直接跳过 prechess = end_pos[i][j] end_pos[i][j] = False # 可以移动, 清空原地棋子 mousechess.step = tem_i move, moving = False, True point = 0 if mousechess.step: # 返回 mousechess.x, mousechess.y = END_PLACE[mousechess.color][mousechess.step] mousechess.idx = mousechess.step end_pos[mousechess.color][mousechess.step] = mousechess else: remain_plane[turn] -= 1 turn = TURN[turn] else: # 棋盘外点击 if not geting_point and not move and WIDTH+30 <= x <= WIDTH+70 and 150 <= y <= 190: # 点击骰子 geting_point = True pygame.display.update() fpsClock.tick(FPS) main()
最后
本人只是一介菜鸡本科生, 代码若有bug或者不足谢谢各位大佬们指出!