python制作俄罗斯方块

小灰灰 2024-03-27 13:13 52阅读 0赞

## python制作俄罗斯方块 ##

### 简介 ###

俄罗斯方块》（Tetris， 俄文：Тетрис）是一款由俄罗斯人阿列克谢·帕基特诺夫于1984年6月发明的休闲游戏。  
该游戏曾经被多家公司代理过。经过多轮诉讼后，该游戏的代理权最终被任天堂获得。 \[1\] 任天堂对于俄罗斯方块来说意义重大，因为将它与GB搭配在一起后，获得了巨大的成功。 \[1\]  
《俄罗斯方块》的基本规则是移动、旋转和摆放游戏自动输出的各种方块，使之排列成完整的一行或多行并且消除得分。

### 编码 ###

#### 搭建基础页面 ####

首先是创建一个python文件  
![在这里插入图片描述][55fc9b64efa946adb835f58d37be571a.png]

*  创建一个窗体，用来显示这个游戏的界面

**代码**

import tkinter as tk
    # 首先创建一个窗体
    win = tk.Tk()
    win.mainloop()

**运行结果**  
![在这里插入图片描述][74f2ce8b3c104aebbf34851837fc345d.png]

*  绘制格子

原理如下  
![在这里插入图片描述][d3c6f7044d9e4e7f98231467a6b3e5d6.png]  
![在这里插入图片描述][4e7a537ef6ec43c794d7f658ce928899.png]

*  画格子,这里主要应用的是tkinter里面Canvas功能。  
    ![在这里插入图片描述][854e73dbe9a94f20980df040569e6d82.png]  
    **代码如下**

import tkinter as tk
    
    # 设置行数和列数
    row = 20
    col = 12
    
    # 设置每个格子的大小
    cell_size = 30
    
    # 设置窗口的高和宽
    height = row * cell_size
    width = col * cell_size
    
    # 首先创建一个窗体
    win = tk.Tk()
    
    # 在画板上绘制格子
    def draw_cell(canvas, col, row, color="#CCCCCC"):
        x0 = col * cell_size
        y0 = row * cell_size
    
        x1 = col * cell_size + cell_size
        y1 = row * cell_size + cell_size
    
        # 创建矩形
        canvas.create_rectangle(x0, y0, x1, y1, fill=color, outline="white", width=2)
    
    def draw_blank_board(canvas):
        for ri in range(row):
            for cj in range(col):
                draw_cell(canvas, cj, ri)
    
    
    # 绘制画布的长宽
    canvas = tk.Canvas(win, width=width, height=height)
    
    # 打包放置组件对象
    canvas.pack()
    
    draw_blank_board(canvas)
    
    win.mainloop()

*  绘制俄罗斯方块  
    现根据这个规则绘制一个看看情况  
    ![在这里插入图片描述][9015bdf2eeec4a728f3a004cf1f9b1f0.png]  
    **代码讲解**

import tkinter as tk
    
    # 设置行数和列数
    Row = 20
    Col = 12
    
    # 设置每个格子的大小
    cell_size = 30
    
    # 设置窗口的高和宽
    height = Row * cell_size
    width = Col * cell_size
    
    # 设置不同形状的格子
    SHAPES = {
        
        "O": [(-1, -1), (0, -1), (-1, 0), (0, 0)]
    }
    
    # 设置格子的颜色
    SHAPESCOLOR = {
        
        "O":"blue"
    }
    
    # 在画板上绘制格子
    def draw_cell_background(canvas, col, row, color="#CCCCCC"):
        x0 = col * cell_size
        y0 = row * cell_size
    
        x1 = col * cell_size + cell_size
        y1 = row * cell_size + cell_size
    
        # 创建矩形
        canvas.create_rectangle(x0, y0, x1, y1, fill=color, outline="white", width=2)
    
    def draw_blank_board(canvas):
        for ri in range(Row):
            for cj in range(Col):
                draw_cell_background(canvas, cj, ri)
    
    def draw_cells(canvas, col, row, cell_list, color="#CCCCCC"):
        """
        :param canvas: 画板对象
        :param col: 这个形状的的原点所在的列
        :param row: 这个形状所的原点所在的行
        :param cell_list: 这个形状各个格子相对于自身的原点所处的位置坐标
        :param color: 这个形状的颜色
        :return:
        """
        for cell in cell_list:
            cell_col, cell_row = cell
            ci = cell_col + col
            ri = cell_row + row
            # 判断是否越界
            if 0 <= col < Col and 0 <= row < Row:
                draw_cell_background(canvas, ci, ri, color)
    
    # 首先创建一个窗体
    win = tk.Tk()
    
    # 绘制画布的长宽
    canvas = tk.Canvas(win, width=width, height=height)
    
    # 打包放置组件对象
    canvas.pack()
    
    # 画背景
    draw_blank_board(canvas)
    
    # 开始画图形了， 这里是先测试一下
    draw_cells(canvas, 3, 3, SHAPES['O'], SHAPESCOLOR['O'])
    
    
    win.mainloop()

运行结果，通过运行结果可以看出来没有太大的问题  
![在这里插入图片描述][029b20d941034459be950f2b57c0c058.png]

*  绘制其他的样式的格子  
    这里是其他的格子的各种坐标，只需要往上面的代码中的SHAPES和SHAPESCOLOR中放就可以了。

![在这里插入图片描述][fec254eefb3b46c6b8c0a6ee7bab4496.png]

**演示代码**

import tkinter as tk
    
    # 设置行数和列数
    Row = 20
    Col = 12
    
    # 设置每个格子的大小
    cell_size = 30
    
    # 设置窗口的高和宽
    height = Row * cell_size
    width = Col * cell_size
    
    # 设置不同形状的格子
    SHAPES = {
        
        "O": [(-1, -1), (0, -1), (-1, 0), (0, 0)],
        "S":[(-1, 0),(0, 0),(0, -1),(1, -1)],
        "T":[(-1, 0),(0, 0),(0, -1),(1, 0)],
        "I":[(0, 1),(0, 0),(0, -1),(0, -2)],
        "L":[(-1, 0),(0, 0),(-1, -1),(-1, -2)],
        "J":[(-1, 0),(0, 0),(0, 1),(0, -2)],
        "Z":[(-1, -1),(0, -1),(0, 0),(1, 0)]
    }
    
    # 设置格子的颜色
    SHAPESCOLOR = {
        
        "O":"blue",
        "S":"red",
        "T":"yellow",
        "I":"green",
        "L":"purple",
        "J":"orange",
        "Z":"Cyan",
    }
    
    # 在画板上绘制格子
    def draw_cell_background(canvas, col, row, color="#CCCCCC"):
        x0 = col * cell_size
        y0 = row * cell_size
    
        x1 = col * cell_size + cell_size
        y1 = row * cell_size + cell_size
    
        # 创建矩形
        canvas.create_rectangle(x0, y0, x1, y1, fill=color, outline="white", width=2)
    
    def draw_blank_board(canvas):
        for ri in range(Row):
            for cj in range(Col):
                draw_cell_background(canvas, cj, ri)
    
    def draw_cells(canvas, col, row, cell_list, color="#CCCCCC"):
        """
        :param canvas: 画板对象
        :param col: 这个形状的的原点所在的列
        :param row: 这个形状所的原点所在的行
        :param cell_list: 这个形状各个格子相对于自身的原点所处的位置坐标
        :param color: 这个形状的颜色
        :return:
        """
        for cell in cell_list:
            cell_col, cell_row = cell
            ci = cell_col + col
            ri = cell_row + row
            # 判断是否越界
            if 0 <= col < Col and 0 <= row < Row:
                draw_cell_background(canvas, ci, ri, color)
    
    # 首先创建一个窗体
    win = tk.Tk()
    
    # 绘制画布的长宽
    canvas = tk.Canvas(win, width=width, height=height)
    
    # 打包放置组件对象
    canvas.pack()
    
    # 画背景
    draw_blank_board(canvas)
    
    # 开始画图形了， 这里是先测试一下
    draw_cells(canvas, 3, 3, SHAPES['O'], SHAPESCOLOR['O'])
    draw_cells(canvas, 3, 8, SHAPES['S'], SHAPESCOLOR['S'])
    draw_cells(canvas, 3, 13, SHAPES['T'], SHAPESCOLOR['T'])
    draw_cells(canvas, 8, 3, SHAPES['I'], SHAPESCOLOR['I'])
    draw_cells(canvas, 8, 8, SHAPES['L'], SHAPESCOLOR['L'])
    draw_cells(canvas, 8, 13, SHAPES['J'], SHAPESCOLOR['J'])
    draw_cells(canvas, 5, 18, SHAPES['Z'], SHAPESCOLOR['Z'])
    
    
    win.mainloop()

**运行结果**  
通过测试这个各种的图形格子是完成了的。  
![在这里插入图片描述][ee441e71b903451d8dc4bdf6bafd785f.png]

#### 让格子动起来 ####

让这个格子使人感觉动起来，主要的原理就是设置一个刷新时间，然后这个格子不断的加载，然后不断的刷新，这样是利用的是`game_loop()`,`draw_block_move(canvas, block, direction=[0,0])`两个函数。

**代码讲解**

import tkinter as tk
    import time
    # 设置行数和列数
    Row = 20
    Col = 12
    
    # 设置每个格子的大小
    cell_size = 30
    
    # 设置窗口的高和宽
    height = Row * cell_size
    width = Col * cell_size
    
    # 设置不同形状的格子
    SHAPES = {
        
        "O": [(-1, -1), (0, -1), (-1, 0), (0, 0)],
        "S":[(-1, 0),(0, 0),(0, -1),(1, -1)],
        "T":[(-1, 0),(0, 0),(0, -1),(1, 0)],
        "I":[(0, 1),(0, 0),(0, -1),(0, -2)],
        "L":[(-1, 0),(0, 0),(-1, -1),(-1, -2)],
        "J":[(-1, 0),(0, 0),(0, 1),(0, -2)],
        "Z":[(-1, -1),(0, -1),(0, 0),(1, 0)]
    }
    
    # 设置格子的颜色
    SHAPESCOLOR = {
        
        "O":"blue",
        "S":"red",
        "T":"yellow",
        "I":"green",
        "L":"purple",
        "J":"orange",
        "Z":"Cyan",
    }
    
    # 在画板上绘制格子
    def draw_cell_background(canvas, col, row, color="#CCCCCC"):
        x0 = col * cell_size
        y0 = row * cell_size
    
        x1 = col * cell_size + cell_size
        y1 = row * cell_size + cell_size
    
        # 创建矩形
        canvas.create_rectangle(x0, y0, x1, y1, fill=color, outline="white", width=2)
    
    def draw_blank_board(canvas):
        for ri in range(Row):
            for cj in range(Col):
                draw_cell_background(canvas, cj, ri)
    
    def draw_cells(canvas, col, row, cell_list, color="#CCCCCC"):
        """
        :param canvas: 画板对象
        :param col: 这个形状的的原点所在的列
        :param row: 这个形状所的原点所在的行
        :param cell_list: 这个形状各个格子相对于自身的原点所处的位置坐标
        :param color: 这个形状的颜色
        :return:
        """
        for cell in cell_list:
            cell_col, cell_row = cell
            ci = cell_col + col
            ri = cell_row + row
            # 判断是否越界
            if 0 <= col < Col and 0 <= row < Row:
                draw_cell_background(canvas, ci, ri, color)
    
    # 首先创建一个窗体
    win = tk.Tk()
    
    # 绘制画布的长宽
    canvas = tk.Canvas(win, width=width, height=height)
    
    # 打包放置组件对象
    canvas.pack()
    
    # 画背景
    draw_blank_board(canvas)
    
    # 开始画图形了， 这里是先测试一下
    # draw_cells(canvas, 3, 3, SHAPES['O'], SHAPESCOLOR['O'])
    # draw_cells(canvas, 3, 8, SHAPES['S'], SHAPESCOLOR['S'])
    # draw_cells(canvas, 3, 13, SHAPES['T'], SHAPESCOLOR['T'])
    # draw_cells(canvas, 8, 3, SHAPES['I'], SHAPESCOLOR['I'])
    # draw_cells(canvas, 8, 8, SHAPES['L'], SHAPESCOLOR['L'])
    # draw_cells(canvas, 8, 13, SHAPES['J'], SHAPESCOLOR['J'])
    # draw_cells(canvas, 5, 18, SHAPES['Z'], SHAPESCOLOR['Z'])
    
    # 设置格子的刷新频率，单位是毫秒
    FPS = 500
    
    # 定义让俄罗斯方块移动的方法
    def draw_block_move(canvas, block, direction=[0,0]):
        """
        :param canvas: 面板对象
        :param block: 俄罗斯方块
        :param direction: 移动的方向
        :return:
        """
        shape_type = block['kind']
        c, r = block['cr']
        cell_list = block['cell_list']
    
        draw_cells(canvas, c, r, cell_list)
    
        dc, dr = direction
        new_c, new_r = c + dc, r + dr
        block['cr'] = [new_c, new_r]
        draw_cells(canvas, new_c, new_r, cell_list, SHAPESCOLOR[shape_type])
    
    # 用字典定义每个形状的属性
    one_block = {
        
        'kind': 'O', # 对应俄罗斯方块的类型
        'cell_list': SHAPES['O'], # 对应的每个俄罗斯方块的坐标
        'cr': [3, 3], # 对应的行列坐标
    }
    
    draw_block_move(canvas, one_block)
    # 让游戏不断循环 通过递归实现
    def game_loop():
        win.update()
    
        # 往下走
        down = [0, 1]
        draw_block_move(canvas, one_block, down)
        win.after(FPS, game_loop) # 注意的是这个game_loop后面不能加括号
    
    game_loop()
    win.mainloop()

**运行结果**  
这里生成了一个，往下掉的小俄罗斯方块。  
![在这里插入图片描述][531b16e9b9ee475c94fd4fae886568e6.png]

#### 生成，固定，变换，移动 ####

##### 生成和固定 #####

**演示代码**

import tkinter as tk
    import random
    
    # 设置行数和列数
    Row = 20
    Col = 12
    
    # 设置格子的刷新频率，单位是毫秒
    FPS = 50
    
    # 设置每个格子的大小
    cell_size = 30
    
    # 设置窗口的高和宽
    height = Row * cell_size
    width = Col * cell_size
    
    # 设置不同形状的格子
    SHAPES = {
        
        "Z": [(-1, -1), (0, -1), (0, 0), (1, 0)],
        "O": [(-1, -1), (0, -1), (-1, 0), (0, 0)],
        "S": [(-1, 0), (0, 0), (0, -1), (1, -1)],
        "T": [(-1, 0), (0, 0), (0, -1), (1, 0)],
        "I": [(0, 1), (0, 0), (0, -1), (0, -2)],
        "L": [(-1, 0), (0, 0), (-1, -1), (-1, -2)],
        "J": [(-1, 0), (0, 0), (0, -1), (0, -2)]
    }
    
    # 设置格子的颜色
    SHAPESCOLOR = {
        
        "O":"blue",
        "S":"red",
        "T":"yellow",
        "I":"green",
        "L":"purple",
        "J":"orange",
        "Z":"Cyan",
    }
    
    # 在画板上绘制格子
    def draw_cell_background(canvas, col, row, color="#CCCCCC"):
        x0 = col * cell_size
        y0 = row * cell_size
    
        x1 = col * cell_size + cell_size
        y1 = row * cell_size + cell_size
    
        # 创建矩形
        canvas.create_rectangle(x0, y0, x1, y1, fill=color, outline="white", width=2)
    
    # 绘制板块
    def draw_blank_board(canvas):
        for ri in range(Row):
            for cj in range(Col):
                draw_cell_background(canvas, cj, ri)
    
    # 绘制单元格
    def draw_cells(canvas, col, row, cell_list, color="#CCCCCC"):
        """
        :param canvas: 画板对象
        :param col: 这个形状的的原点所在的列
        :param row: 这个形状所的原点所在的行
        :param cell_list: 这个形状各个格子相对于自身的原点所处的位置坐标
        :param color: 这个形状的颜色
        :return:
        """
        for cell in cell_list:
            cell_col, cell_row = cell
            ci = cell_col + col
            ri = cell_row + row
            # 判断是否越界
            if 0 <= col < Col and 0 <= row < Row:
                draw_cell_background(canvas, ci, ri, color)
    
    # 首先创建一个窗体
    win = tk.Tk()
    
    # 绘制画布的长宽
    canvas = tk.Canvas(win, width=width, height=height)
    
    # 打包放置组件对象
    canvas.pack()
    
    # 画背景
    draw_blank_board(canvas)
    
    block_list = []
    for i in range(Row):
        i_row = ['' for j in range(Col)]
        block_list.append(i_row)
    
    
    # 开始画图形了， 这里是先测试一下
    # draw_cells(canvas, 3, 3, SHAPES['O'], SHAPESCOLOR['O'])
    # draw_cells(canvas, 3, 8, SHAPES['S'], SHAPESCOLOR['S'])
    # draw_cells(canvas, 3, 13, SHAPES['T'], SHAPESCOLOR['T'])
    # draw_cells(canvas, 8, 3, SHAPES['I'], SHAPESCOLOR['I'])
    # draw_cells(canvas, 8, 8, SHAPES['L'], SHAPESCOLOR['L'])
    # draw_cells(canvas, 8, 13, SHAPES['J'], SHAPESCOLOR['J'])
    # draw_cells(canvas, 5, 18, SHAPES['Z'], SHAPESCOLOR['Z'])
    
    
    # 定义让俄罗斯方块移动的方法
    def draw_block_move(canvas, block, direction=[0,0]):
        """
        :param canvas: 面板对象
        :param block: 俄罗斯方块
        :param direction: 移动的方向
        :return:
        """
        shape_type = block['kind']
        c, r = block['cr']
        cell_list = block['cell_list']
    
        draw_cells(canvas, c, r, cell_list)
    
        dc, dr = direction
        new_c, new_r = c + dc, r + dr
        block['cr'] = [new_c, new_r]
        draw_cells(canvas, new_c, new_r, cell_list, SHAPESCOLOR[shape_type])
    
    # 用字典定义每个形状的属性
    one_block = {
        
        'kind': 'O', # 对应俄罗斯方块的类型
        'cell_list': SHAPES['O'], # 对应的每个俄罗斯方块的坐标
        'cr': [3, 3], # 对应的行列坐标
    }
    
    # 测试代码
    # draw_block_move(canvas, one_block)
    
    def product_new_block():
        # 随机生成新的俄罗斯方块
        kind = random.choice(list(SHAPES.keys()))
    
        cr = [Col // 2, 0]
        new_block = {
        
            "kind": kind,
            "cell_list": SHAPES[kind],
            'cr': cr
        }
        return new_block
    
    def check_move(block, direction=[0,0]):
        """
        :param block:俄罗斯方块的前身
        :param direction: 移动方向
        :return: boolean 是否可以朝着指定的方向移动
        """
        cc, cr = block['cr']
        cell_list = block['cell_list']
    
        for cell in cell_list:
            cell_c, cell_r = cell
            c = cell_c + cc + direction[0]
            r = cell_r + cr + direction[1]
    
            # 判断边界
            if c < 0 or c >= Col or r >= Row:
                return False
            # r >= 0是防止格子下不来的情况
            if r >= 0 and block_list[r][c]:
                return False
        return True
    
    # 保存当前的俄罗斯方块到列表里面
    def save_to_block_list(block):
        shape_type = block['kind']
        cc, cr = block['cr']
        cell_list = block['cell_list']
    
        for cell in cell_list:
            cell_c, cell_r = cell
            c = cell_c + cc
            r = cell_r + cr
    
            block_list[r][c] = shape_type
    
    
    
    
    # 让游戏不断循环 通过递归实现
    def game_loop():
        win.update()
    
        global current_block
        # 如果当前没有俄罗斯方块 产生一个新的
        if current_block is None:
            # 生成新的俄罗斯方块
            new_block = product_new_block()
            draw_block_move(canvas, new_block)
            current_block = new_block
        # 如果当前有了就往下走
        else:
            if check_move(current_block, [0, 1]):
                draw_block_move(canvas, current_block, [0, 1])
            else:
                # 保存当前的俄罗斯方块
                save_to_block_list(current_block)
                current_block = None
        win.after(FPS, game_loop) # 注意的是这个game_loop后面不能加括号
    
    # 当前的俄罗斯方块
    current_block = None
    
    game_loop()
    win.mainloop()

在这这里我们实现了这个俄罗斯方块的不断的生成，和俄罗斯方块的不断的叠加，基本实现了俄罗斯方块的生产功能。

**运行结果**  
![在这里插入图片描述][3f180ca68fa54bc1a2c967b973a8080e.png]

##### 移动 #####

**运行结果**  
这个效果就是可以左右移动，具体代码看下面,主要依靠的是`horizontal_move_block(event)`这个函数的实现。  
![在这里插入图片描述][d1f271edae0e48879d049b91874d7af7.png]  
**完整代码**

import tkinter as tk
    import random
    
    # 设置行数和列数
    Row = 20
    Col = 12
    
    # 设置格子的刷新频率，单位是毫秒
    FPS = 50
    
    # 设置每个格子的大小
    cell_size = 30
    
    # 设置窗口的高和宽
    height = Row * cell_size
    width = Col * cell_size
    
    # 设置不同形状的格子
    SHAPES = {
        
        "Z": [(-1, -1), (0, -1), (0, 0), (1, 0)],
        "O": [(-1, -1), (0, -1), (-1, 0), (0, 0)],
        "S": [(-1, 0), (0, 0), (0, -1), (1, -1)],
        "T": [(-1, 0), (0, 0), (0, -1), (1, 0)],
        "I": [(0, 1), (0, 0), (0, -1), (0, -2)],
        "L": [(-1, 0), (0, 0), (-1, -1), (-1, -2)],
        "J": [(-1, 0), (0, 0), (0, -1), (0, -2)]
    }
    
    # 设置格子的颜色
    SHAPESCOLOR = {
        
        "O":"blue",
        "S":"red",
        "T":"yellow",
        "I":"green",
        "L":"purple",
        "J":"orange",
        "Z":"Cyan",
    }
    
    # 在画板上绘制格子
    def draw_cell_background(canvas, col, row, color="#CCCCCC"):
        x0 = col * cell_size
        y0 = row * cell_size
    
        x1 = col * cell_size + cell_size
        y1 = row * cell_size + cell_size
    
        # 创建矩形
        canvas.create_rectangle(x0, y0, x1, y1, fill=color, outline="white", width=2)
    
    # 绘制板块
    def draw_blank_board(canvas):
        for ri in range(Row):
            for cj in range(Col):
                draw_cell_background(canvas, cj, ri)
    
    # 绘制单元格
    def draw_cells(canvas, col, row, cell_list, color="#CCCCCC"):
        """
        :param canvas: 画板对象
        :param col: 这个形状的的原点所在的列
        :param row: 这个形状所的原点所在的行
        :param cell_list: 这个形状各个格子相对于自身的原点所处的位置坐标
        :param color: 这个形状的颜色
        :return:
        """
        for cell in cell_list:
            cell_col, cell_row = cell
            ci = cell_col + col
            ri = cell_row + row
            # 判断是否越界
            if 0 <= col < Col and 0 <= row < Row:
                draw_cell_background(canvas, ci, ri, color)
    
    # 首先创建一个窗体
    win = tk.Tk()
    
    # 绘制画布的长宽
    canvas = tk.Canvas(win, width=width, height=height)
    
    # 打包放置组件对象
    canvas.pack()
    
    # 画背景
    draw_blank_board(canvas)
    
    block_list = []
    for i in range(Row):
        i_row = ['' for j in range(Col)]
        block_list.append(i_row)
    
    
    # 开始画图形了， 这里是先测试一下
    # draw_cells(canvas, 3, 3, SHAPES['O'], SHAPESCOLOR['O'])
    # draw_cells(canvas, 3, 8, SHAPES['S'], SHAPESCOLOR['S'])
    # draw_cells(canvas, 3, 13, SHAPES['T'], SHAPESCOLOR['T'])
    # draw_cells(canvas, 8, 3, SHAPES['I'], SHAPESCOLOR['I'])
    # draw_cells(canvas, 8, 8, SHAPES['L'], SHAPESCOLOR['L'])
    # draw_cells(canvas, 8, 13, SHAPES['J'], SHAPESCOLOR['J'])
    # draw_cells(canvas, 5, 18, SHAPES['Z'], SHAPESCOLOR['Z'])
    
    
    # 定义让俄罗斯方块移动的方法
    def draw_block_move(canvas, block, direction=[0,0]):
        """
        :param canvas: 面板对象
        :param block: 俄罗斯方块
        :param direction: 移动的方向
        :return:
        """
        shape_type = block['kind']
        c, r = block['cr']
        cell_list = block['cell_list']
    
        draw_cells(canvas, c, r, cell_list)
    
        dc, dr = direction
        new_c, new_r = c + dc, r + dr
        block['cr'] = [new_c, new_r]
        draw_cells(canvas, new_c, new_r, cell_list, SHAPESCOLOR[shape_type])
    
    # 用字典定义每个形状的属性
    one_block = {
        
        'kind': 'O', # 对应俄罗斯方块的类型
        'cell_list': SHAPES['O'], # 对应的每个俄罗斯方块的坐标
        'cr': [3, 3], # 对应的行列坐标
    }
    
    # 测试代码
    # draw_block_move(canvas, one_block)
    
    def product_new_block():
        # 随机生成新的俄罗斯方块
        kind = random.choice(list(SHAPES.keys()))
    
        cr = [Col // 2, 0]
        new_block = {
        
            "kind": kind,
            "cell_list": SHAPES[kind],
            'cr': cr
        }
        return new_block
    
    def check_move(block, direction=[0,0]):
        """
        :param block:俄罗斯方块的前身
        :param direction: 移动方向
        :return: boolean 是否可以朝着指定的方向移动
        """
        cc, cr = block['cr']
        cell_list = block['cell_list']
    
        for cell in cell_list:
            cell_c, cell_r = cell
            c = cell_c + cc + direction[0]
            r = cell_r + cr + direction[1]
    
            # 判断边界
            if c < 0 or c >= Col or r >= Row:
                return False
            # r >= 0是防止格子下不来的情况
            if r >= 0 and block_list[r][c]:
                return False
        return True
    
    # 保存当前的俄罗斯方块到列表里面
    def save_to_block_list(block):
        shape_type = block['kind']
        cc, cr = block['cr']
        cell_list = block['cell_list']
    
        for cell in cell_list:
            cell_c, cell_r = cell
            c = cell_c + cc
            r = cell_r + cr
    
            block_list[r][c] = shape_type
    
    
    def horizontal_move_block(event):
        """
        左右水平移动俄罗斯方块
        event:键盘的监听事件
        """
        # 这里只设置了左右两个方向
        direction = [0, 0]
        if event.keysym == 'Left':
            direction = [-1, 0]
        elif event.keysym == 'Right':
            direction = [1, 0]
        else:
            return
    
        global current_block
        if current_block is not None and check_move(current_block, direction):
            draw_block_move(canvas, current_block, direction)
    
    
    # 让游戏不断循环 通过递归实现
    def game_loop():
        win.update()
    
        global current_block
        # 如果当前没有俄罗斯方块 产生一个新的
        if current_block is None:
            # 生成新的俄罗斯方块
            new_block = product_new_block()
            draw_block_move(canvas, new_block)
            current_block = new_block
        # 如果当前有了就往下走
        else:
            if check_move(current_block, [0, 1]):
                draw_block_move(canvas, current_block, [0, 1])
            else:
                # 保存当前的俄罗斯方块
                save_to_block_list(current_block)
                current_block = None
        win.after(FPS, game_loop) # 注意的是这个game_loop后面不能加括号
    
    # 当前的俄罗斯方块
    current_block = None
    
    # 画布聚焦
    canvas.focus_set()
    # 添加左右移动的事件
    canvas.bind("<KeyPress-Left>", horizontal_move_block)
    canvas.bind("<KeyPress-Right>", horizontal_move_block)
    
    
    game_loop()
    win.mainloop()

##### 变换 #####

这个是让这个俄罗斯方块的角度可以发生变换，主要的是利用这个函数，这个rotate\_block是角度的旋转，这个land是马上下去的功能。

def rotate_block(event):
        global current_block
        if current_block is None:
            return
     
        cell_list = current_block['cell_list']
        rotate_list = []
        for cell in cell_list:
            cell_c, cell_r = cell
            rotate_cell = [cell_r, -cell_c]
            rotate_list.append(rotate_cell)
     
        block_after_rotate = {
        
            'kind': current_block['kind'],  # 对应俄罗斯方块的类型
            'cell_list': rotate_list,
            'cr': current_block['cr']
        }
     
        if check_move(block_after_rotate):
            cc, cr= current_block['cr']
            draw_cells(canvas, cc, cr, current_block['cell_list'])
            draw_cells(canvas, cc, cr, rotate_list,SHAPESCOLOR[current_block['kind']])
            current_block = block_after_rotate
     
     
    def land(event):
        global current_block
        if current_block is None:
            return
     
        cell_list = current_block['cell_list']
        cc, cr = current_block['cr']
        min_height = R
        for cell in cell_list:
            cell_c, cell_r = cell
            c, r = cell_c + cc, cell_r + cr
            if block_list[r][c]:
                return
            h = 0
            for ri in range(r+1, R):
                if block_list[ri][c]:
                    break
                else:
                    h += 1
            if h < min_height:
                min_height = h
     
        down = [0, min_height]
        if check_move(current_block, down):
            draw_block_move(canvas, current_block, down)

**完整的代码**

import tkinter as tk
    import random
    
    # 设置行数和列数
    Row = 20
    Col = 12
    
    # 设置格子的刷新频率，单位是毫秒
    FPS = 250
    
    # 设置每个格子的大小
    cell_size = 30
    
    # 设置窗口的高和宽
    height = Row * cell_size
    width = Col * cell_size
    
    # 设置不同形状的格子
    SHAPES = {
        
        "Z": [(-1, -1), (0, -1), (0, 0), (1, 0)],
        "O": [(-1, -1), (0, -1), (-1, 0), (0, 0)],
        "S": [(-1, 0), (0, 0), (0, -1), (1, -1)],
        "T": [(-1, 0), (0, 0), (0, -1), (1, 0)],
        "I": [(0, 1), (0, 0), (0, -1), (0, -2)],
        "L": [(-1, 0), (0, 0), (-1, -1), (-1, -2)],
        "J": [(-1, 0), (0, 0), (0, -1), (0, -2)]
    }
    
    # 设置格子的颜色
    SHAPESCOLOR = {
        
        "O":"blue",
        "S":"red",
        "T":"yellow",
        "I":"green",
        "L":"purple",
        "J":"orange",
        "Z":"Cyan",
    }
    
    # 在画板上绘制格子
    def draw_cell_background(canvas, col, row, color="#CCCCCC"):
        x0 = col * cell_size
        y0 = row * cell_size
    
        x1 = col * cell_size + cell_size
        y1 = row * cell_size + cell_size
    
        # 创建矩形
        canvas.create_rectangle(x0, y0, x1, y1, fill=color, outline="white", width=2)
    
    # 绘制板块
    def draw_blank_board(canvas):
        for ri in range(Row):
            for cj in range(Col):
                draw_cell_background(canvas, cj, ri)
    
    # 绘制单元格
    def draw_cells(canvas, col, row, cell_list, color="#CCCCCC"):
        """
        :param canvas: 画板对象
        :param col: 这个形状的的原点所在的列
        :param row: 这个形状所的原点所在的行
        :param cell_list: 这个形状各个格子相对于自身的原点所处的位置坐标
        :param color: 这个形状的颜色
        :return:
        """
        for cell in cell_list:
            cell_col, cell_row = cell
            ci = cell_col + col
            ri = cell_row + row
            # 判断是否越界
            if 0 <= col < Col and 0 <= row < Row:
                draw_cell_background(canvas, ci, ri, color)
    
    # 首先创建一个窗体
    win = tk.Tk()
    
    # 绘制画布的长宽
    canvas = tk.Canvas(win, width=width, height=height)
    
    # 打包放置组件对象
    canvas.pack()
    
    # 画背景
    draw_blank_board(canvas)
    
    block_list = []
    for i in range(Row):
        i_row = ['' for j in range(Col)]
        block_list.append(i_row)
    
    
    # 开始画图形了， 这里是先测试一下
    # draw_cells(canvas, 3, 3, SHAPES['O'], SHAPESCOLOR['O'])
    # draw_cells(canvas, 3, 8, SHAPES['S'], SHAPESCOLOR['S'])
    # draw_cells(canvas, 3, 13, SHAPES['T'], SHAPESCOLOR['T'])
    # draw_cells(canvas, 8, 3, SHAPES['I'], SHAPESCOLOR['I'])
    # draw_cells(canvas, 8, 8, SHAPES['L'], SHAPESCOLOR['L'])
    # draw_cells(canvas, 8, 13, SHAPES['J'], SHAPESCOLOR['J'])
    # draw_cells(canvas, 5, 18, SHAPES['Z'], SHAPESCOLOR['Z'])
    
    
    # 定义让俄罗斯方块移动的方法
    def draw_block_move(canvas, block, direction=[0,0]):
        """
        :param canvas: 面板对象
        :param block: 俄罗斯方块
        :param direction: 移动的方向
        :return:
        """
        shape_type = block['kind']
        c, r = block['cr']
        cell_list = block['cell_list']
    
        draw_cells(canvas, c, r, cell_list)
    
        dc, dr = direction
        new_c, new_r = c + dc, r + dr
        block['cr'] = [new_c, new_r]
        draw_cells(canvas, new_c, new_r, cell_list, SHAPESCOLOR[shape_type])
    
    # 用字典定义每个形状的属性
    one_block = {
        
        'kind': 'O', # 对应俄罗斯方块的类型
        'cell_list': SHAPES['O'], # 对应的每个俄罗斯方块的坐标
        'cr': [3, 3], # 对应的行列坐标
    }
    
    # 测试代码
    # draw_block_move(canvas, one_block)
    
    def product_new_block():
        # 随机生成新的俄罗斯方块
        kind = random.choice(list(SHAPES.keys()))
    
        cr = [Col // 2, 0]
        new_block = {
        
            "kind": kind,
            "cell_list": SHAPES[kind],
            'cr': cr
        }
        return new_block
    
    def check_move(block, direction=[0,0]):
        """
        :param block:俄罗斯方块的前身
        :param direction: 移动方向
        :return: boolean 是否可以朝着指定的方向移动
        """
        cc, cr = block['cr']
        cell_list = block['cell_list']
    
        for cell in cell_list:
            cell_c, cell_r = cell
            c = cell_c + cc + direction[0]
            r = cell_r + cr + direction[1]
    
            # 判断边界
            if c < 0 or c >= Col or r >= Row:
                return False
            # r >= 0是防止格子下不来的情况
            if r >= 0 and block_list[r][c]:
                return False
        return True
    
    # 保存当前的俄罗斯方块到列表里面
    def save_to_block_list(block):
        shape_type = block['kind']
        cc, cr = block['cr']
        cell_list = block['cell_list']
    
        for cell in cell_list:
            cell_c, cell_r = cell
            c = cell_c + cc
            r = cell_r + cr
    
            block_list[r][c] = shape_type
    
    
    def horizontal_move_block(event):
        """
        左右水平移动俄罗斯方块
        event:键盘的监听事件
        """
        # 这里只设置了左右两个方向
        direction = [0, 0]
        if event.keysym == 'Left':
            direction = [-1, 0]
        elif event.keysym == 'Right':
            direction = [1, 0]
        else:
            return
    
        global current_block
        if current_block is not None and check_move(current_block, direction):
            draw_block_move(canvas, current_block, direction)
    
    
    def rotate_block(event):
        global current_block
        if current_block is None:
            return
    
        cell_list = current_block['cell_list']
        rotate_list = []
        for cell in cell_list:
            cell_c, cell_r = cell
            rotate_cell = [cell_r, -cell_c]
            rotate_list.append(rotate_cell)
    
        block_after_rotate = {
        
            'kind': current_block['kind'],  # 对应俄罗斯方块的类型
            'cell_list': rotate_list,
            'cr': current_block['cr']
        }
    
        if check_move(block_after_rotate):
            cc, cr = current_block['cr']
            draw_cells(canvas, cc, cr, current_block['cell_list'])
            draw_cells(canvas, cc, cr, rotate_list, SHAPESCOLOR[current_block['kind']])
            current_block = block_after_rotate
    
    
    def land(event):
        global current_block
        if current_block is None:
            return
    
        cell_list = current_block['cell_list']
        cc, cr = current_block['cr']
        min_height = Row
        for cell in cell_list:
            cell_c, cell_r = cell
            c, r = cell_c + cc, cell_r + cr
            if block_list[r][c]:
                return
            h = 0
            for ri in range(r + 1, Row):
                if block_list[ri][c]:
                    break
                else:
                    h += 1
            if h < min_height:
                min_height = h
    
        down = [0, min_height]
        if check_move(current_block, down):
            draw_block_move(canvas, current_block, down)
    
    
    # 让游戏不断循环 通过递归实现
    def game_loop():
        win.update()
    
        global current_block
        # 如果当前没有俄罗斯方块 产生一个新的
        if current_block is None:
            # 生成新的俄罗斯方块
            new_block = product_new_block()
            draw_block_move(canvas, new_block)
            current_block = new_block
        # 如果当前有了就往下走
        else:
            if check_move(current_block, [0, 1]):
                draw_block_move(canvas, current_block, [0, 1])
            else:
                # 保存当前的俄罗斯方块
                save_to_block_list(current_block)
                current_block = None
        win.after(FPS, game_loop) # 注意的是这个game_loop后面不能加括号
    
    # 当前的俄罗斯方块
    current_block = None
    
    # 画布聚焦
    canvas.focus_set()
    # 添加左右移动的事件
    canvas.bind("<KeyPress-Left>", horizontal_move_block)
    canvas.bind("<KeyPress-Right>", horizontal_move_block)
    # 添加变化角度的事件
    canvas.bind("<KeyPress-Up>", rotate_block)
    canvas.bind("<KeyPress-Down>", land)
    
    
    game_loop()
    win.mainloop()

**运行结果**  
现在这个俄罗斯方块可以上下角度变化了。  
![在这里插入图片描述][36fdc92d66a549f492c9c3f1943b4b50.png]

##### 清除与得分 #####

在这版本中，实现了清除与得分的功能，每次清除这个俄罗斯方块，都可以+10的奖励，最后当不可以继续下去了，这个游戏就结束了，然后就退出了。

import tkinter as tk
    from tkinter import messagebox
    import random
    
    # 设置行数和列数
    Row = 20
    Col = 12
    
    # 设置格子的刷新频率，单位是毫秒
    FPS = 150
    
    # 设置每个格子的大小
    cell_size = 30
    
    # 设置窗口的高和宽
    height = Row * cell_size
    width = Col * cell_size
    
    # 设置不同形状的格子
    SHAPES = {
        
        "Z": [(-1, -1), (0, -1), (0, 0), (1, 0)],
        "O": [(-1, -1), (0, -1), (-1, 0), (0, 0)],
        "S": [(-1, 0), (0, 0), (0, -1), (1, -1)],
        "T": [(-1, 0), (0, 0), (0, -1), (1, 0)],
        "I": [(0, 1), (0, 0), (0, -1), (0, -2)],
        "L": [(-1, 0), (0, 0), (-1, -1), (-1, -2)],
        "J": [(-1, 0), (0, 0), (0, -1), (0, -2)]
    }
    
    # 设置格子的颜色
    SHAPESCOLOR = {
        
        "O":"blue",
        "S":"red",
        "T":"yellow",
        "I":"green",
        "L":"purple",
        "J":"orange",
        "Z":"Cyan",
    }
    # 绘制面板，将draw_blank_board方法修改成如下方法
    def draw_board(canvas, block_list):
        for ri in range(Row):
            for ci in range(Col):
                cell_type = block_list[ri][ci]
                if cell_type:
                    draw_cell_background(canvas, ci, ri, SHAPESCOLOR[cell_type])
                else:
                    draw_cell_background(canvas, ci, ri)
    # 在画板上绘制格子
    def draw_cell_background(canvas, col, row, color="#CCCCCC"):
        x0 = col * cell_size
        y0 = row * cell_size
    
        x1 = col * cell_size + cell_size
        y1 = row * cell_size + cell_size
    
        # 创建矩形
        canvas.create_rectangle(x0, y0, x1, y1, fill=color, outline="white", width=2)
    
    # 绘制板块
    def draw_blank_board(canvas):
        for ri in range(Row):
            for cj in range(Col):
                draw_cell_background(canvas, cj, ri)
    
    # 绘制单元格
    def draw_cells(canvas, col, row, cell_list, color="#CCCCCC"):
        """
        :param canvas: 画板对象
        :param col: 这个形状的的原点所在的列
        :param row: 这个形状所的原点所在的行
        :param cell_list: 这个形状各个格子相对于自身的原点所处的位置坐标
        :param color: 这个形状的颜色
        :return:
        """
        for cell in cell_list:
            cell_col, cell_row = cell
            ci = cell_col + col
            ri = cell_row + row
            # 判断是否越界
            if 0 <= col < Col and 0 <= row < Row:
                draw_cell_background(canvas, ci, ri, color)
    
    # 首先创建一个窗体
    win = tk.Tk()
    
    # 绘制画布的长宽
    canvas = tk.Canvas(win, width=width, height=height)
    
    # 打包放置组件对象
    canvas.pack()
    
    # 画背景
    block_list = []
    for i in range(Row):
        i_row = ['' for j in range(Col)]
        block_list.append(i_row)
    
    draw_board(canvas, block_list)
    
    
    # 开始画图形了， 这里是先测试一下
    # draw_cells(canvas, 3, 3, SHAPES['O'], SHAPESCOLOR['O'])
    # draw_cells(canvas, 3, 8, SHAPES['S'], SHAPESCOLOR['S'])
    # draw_cells(canvas, 3, 13, SHAPES['T'], SHAPESCOLOR['T'])
    # draw_cells(canvas, 8, 3, SHAPES['I'], SHAPESCOLOR['I'])
    # draw_cells(canvas, 8, 8, SHAPES['L'], SHAPESCOLOR['L'])
    # draw_cells(canvas, 8, 13, SHAPES['J'], SHAPESCOLOR['J'])
    # draw_cells(canvas, 5, 18, SHAPES['Z'], SHAPESCOLOR['Z'])
    
    
    # 定义让俄罗斯方块移动的方法
    def draw_block_move(canvas, block, direction=[0,0]):
        """
        :param canvas: 面板对象
        :param block: 俄罗斯方块
        :param direction: 移动的方向
        :return:
        """
        shape_type = block['kind']
        c, r = block['cr']
        cell_list = block['cell_list']
    
        draw_cells(canvas, c, r, cell_list)
    
        dc, dr = direction
        new_c, new_r = c + dc, r + dr
        block['cr'] = [new_c, new_r]
        draw_cells(canvas, new_c, new_r, cell_list, SHAPESCOLOR[shape_type])
    
    # 用字典定义每个形状的属性
    one_block = {
        
        'kind': 'O', # 对应俄罗斯方块的类型
        'cell_list': SHAPES['O'], # 对应的每个俄罗斯方块的坐标
        'cr': [3, 3], # 对应的行列坐标
    }
    
    # 测试代码
    # draw_block_move(canvas, one_block)
    
    def product_new_block():
        # 随机生成新的俄罗斯方块
        kind = random.choice(list(SHAPES.keys()))
    
        cr = [Col // 2, 0]
        new_block = {
        
            "kind": kind,
            "cell_list": SHAPES[kind],
            'cr': cr
        }
        return new_block
    
    def check_move(block, direction=[0,0]):
        """
        :param block:俄罗斯方块的前身
        :param direction: 移动方向
        :return: boolean 是否可以朝着指定的方向移动
        """
        cc, cr = block['cr']
        cell_list = block['cell_list']
    
        for cell in cell_list:
            cell_c, cell_r = cell
            c = cell_c + cc + direction[0]
            r = cell_r + cr + direction[1]
    
            # 判断边界
            if c < 0 or c >= Col or r >= Row:
                return False
            # r >= 0是防止格子下不来的情况
            if r >= 0 and block_list[r][c]:
                return False
        return True
    
    # 保存当前的俄罗斯方块到列表里面
    def save_to_block_list(block):
        shape_type = block['kind']
        cc, cr = block['cr']
        cell_list = block['cell_list']
    
        for cell in cell_list:
            cell_c, cell_r = cell
            c = cell_c + cc
            r = cell_r + cr
    
            block_list[r][c] = shape_type
    
    
    def horizontal_move_block(event):
        """
        左右水平移动俄罗斯方块
        event:键盘的监听事件
        """
        # 这里只设置了左右两个方向
        direction = [0, 0]
        if event.keysym == 'Left':
            direction = [-1, 0]
        elif event.keysym == 'Right':
            direction = [1, 0]
        else:
            return
    
        global current_block
        if current_block is not None and check_move(current_block, direction):
            draw_block_move(canvas, current_block, direction)
    
    
    def rotate_block(event):
        global current_block
        if current_block is None:
            return
    
        cell_list = current_block['cell_list']
        rotate_list = []
        for cell in cell_list:
            cell_c, cell_r = cell
            rotate_cell = [cell_r, -cell_c]
            rotate_list.append(rotate_cell)
    
        block_after_rotate = {
        
            'kind': current_block['kind'],  # 对应俄罗斯方块的类型
            'cell_list': rotate_list,
            'cr': current_block['cr']
        }
    
        if check_move(block_after_rotate):
            cc, cr = current_block['cr']
            draw_cells(canvas, cc, cr, current_block['cell_list'])
            draw_cells(canvas, cc, cr, rotate_list, SHAPESCOLOR[current_block['kind']])
            current_block = block_after_rotate
    
    
    def land(event):
        global current_block
        if current_block is None:
            return
    
        cell_list = current_block['cell_list']
        cc, cr = current_block['cr']
        min_height = Row
        for cell in cell_list:
            cell_c, cell_r = cell
            c, r = cell_c + cc, cell_r + cr
            if block_list[r][c]:
                return
            h = 0
            for ri in range(r + 1, Row):
                if block_list[ri][c]:
                    break
                else:
                    h += 1
            if h < min_height:
                min_height = h
    
        down = [0, min_height]
        if check_move(current_block, down):
            draw_block_move(canvas, current_block, down)
    
    
    
    # 在原有的rotate_block方法（外）下面添加
    def check_row_complete(row):
        for cell in row:
            if cell == '':
                return False
    
        return True
    
    
    score = 0
    win.title("SCORES: %s" % score)  # 标题中展示分数
    
    
    def check_and_clear():
        has_complete_row = False
        for ri in range(len(block_list)):
            if check_row_complete(block_list[ri]):
                has_complete_row = True
                # 当前行可消除
                if ri > 0:
                    for cur_ri in range(ri, 0, -1):
                        block_list[cur_ri] = block_list[cur_ri - 1][:]
                    block_list[0] = ['' for j in range(Col)]
                else:
                    block_list[ri] = ['' for j in range(Col)]
                global score
                # 每消除一次 加10分
                score += 10
    
    
        if has_complete_row:
            draw_board(canvas, block_list)
            # 重新绘制
            win.title("SCORES: %s" % score)
    
    
    # 让游戏不断循环 通过递归实现
    def game_loop():
        win.update()
    
        global current_block
        # 如果当前没有俄罗斯方块 产生一个新的
        if current_block is None:
            # 生成新的俄罗斯方块
            new_block = product_new_block()
            draw_block_move(canvas, new_block)
            current_block = new_block
    
            # 游戏结束
            if not check_move(current_block, [0, 0]):
                messagebox.showinfo("Game Over!", "Your Score is %s" % score)
                win.destroy()
                return
    
        # 如果当前有了就往下走
        else:
            if check_move(current_block, [0, 1]):
                draw_block_move(canvas, current_block, [0, 1])
            else:
                # 保存当前的俄罗斯方块
                save_to_block_list(current_block)
                current_block = None
        # 游戏结束
        check_and_clear()
        win.after(FPS, game_loop) # 注意的是这个game_loop后面不能加括号
    
    # 当前的俄罗斯方块
    current_block = None
    
    # 画布聚焦
    canvas.focus_set()
    # 添加左右移动的事件
    canvas.bind("<KeyPress-Left>", horizontal_move_block)
    canvas.bind("<KeyPress-Right>", horizontal_move_block)
    # 添加变化角度的事件
    canvas.bind("<KeyPress-Up>", rotate_block)
    canvas.bind("<KeyPress-Down>", land)
    
    
    game_loop()
    win.mainloop()

**运行结果**  
这个是游戏最后的样子，其实可以后面再加一个数据库的功能，记录每一次的得分结果。  
![在这里插入图片描述][22a5222f9f0f47498393d1304fa300f2.png]  
![在这里插入图片描述][9531772bc49549c59215f800a34b3881.png]

### 完整代码 ###

[55fc9b64efa946adb835f58d37be571a.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/a867b58aae394ceda5b38abcb4973dfc.png
[74f2ce8b3c104aebbf34851837fc345d.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/dd036cd176164b16829cf7de3f65244d.png
[d3c6f7044d9e4e7f98231467a6b3e5d6.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/f63ea7aed5664c4eabdb78ee89f76959.png
[4e7a537ef6ec43c794d7f658ce928899.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/b337d78f272d49ca845b35fbcfe97916.png
[854e73dbe9a94f20980df040569e6d82.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/fde2a350232f445bb695507a6f789ccc.png
[9015bdf2eeec4a728f3a004cf1f9b1f0.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/ad9ff04853b2455d87fc0cf2beac5648.png
[029b20d941034459be950f2b57c0c058.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/4c5b3b7a4be249929ea5c2e31fabeb36.png
[fec254eefb3b46c6b8c0a6ee7bab4496.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/d87477f0e7614acb9f9d0dc3eec72e3d.png
[ee441e71b903451d8dc4bdf6bafd785f.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/750db4d05ebf46b1b5b1391c0a7429de.png
[531b16e9b9ee475c94fd4fae886568e6.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/408633db9b874bbf84014004ff5a304f.png
[3f180ca68fa54bc1a2c967b973a8080e.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/4b3602a17a154b5f8bc1ebed153e4519.png
[d1f271edae0e48879d049b91874d7af7.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/59f383cf26ab43d18ea1f4510746b9a9.png
[36fdc92d66a549f492c9c3f1943b4b50.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/7c2c5581db3f40349773b524e5f27a41.png
[22a5222f9f0f47498393d1304fa300f2.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/09c04c3ad019490c8fe776fc6e23a864.png
[9531772bc49549c59215f800a34b3881.png]: https://image.dandelioncloud.cn/pgy_files/images/2024/03/27/e2803629bcd349db92a6585e5c8e5575.png