『壹』 java版的俄罗斯方块问题。定义方块的形状那个数组和生成新方块的方法没看懂，有高人解释下不
/** 定义方块的形状那个数组和生成新方块的方法没看懂 */
下面这个是(三维数据)shapes中的一个二维元素
//i
{ { 0, 0, 0, 0, 1, 1, 1, 1, 0, 0, 0, 0, 0, 0, 0, 0 },
{ 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0 },
{ 0, 0, 0, 0, 1, 1, 1, 1, 0, 0, 0, 0, 0, 0, 0, 0 },
{ 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0 } },
第一行{ 0, 0, 0, 0, 1, 1, 1, 1, 0, 0, 0, 0, 0, 0, 0, 0 } 画出的图形为:(0代表&,1代表O)
& & & &
O O O O
& & & &
& & & &
第二行{0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0, 0, 1, 0, 0}
& O & &
& O & &
& O & &
& O & &
从上面两个你应该就可以看出这个数组存储各种方块的方式了。
blockType = (int) (Math.random() * 1000) % 7;
turnState = (int) (Math.random() * 1000) % 4;
这里取的7和4的原因是这个三维数组的两个维度的大小是7和4,7种类型的图形,和每个图形的4种形态
反映到数组上就是
newShape[] = shapes[blockType][State] ;
『贰』 急需一份俄罗斯方块源代码，Java写的
使用Java实现小游戏：俄罗斯方块
使用一个二维数组保存游戏的地图：
//游戏地图格子，每个格子保存一个方块，数组纪录方块的状态
privateStatemap[][]=newState[rows][columns];123
游戏前先将所有地图中的格子初始化为空：
/*初始化所有的方块为空*/
for(inti=0;i<map.length;i++){
for(intj=0;j<map[i].length;j++){
map[i][j]=State.EMPTY;
}
}1234567
玩游戏过程中，我们能够看到界面上的方块，那么就得将地图中所有的方块绘制出来，当然，除了需要绘制方块外，游戏积分和游戏结束的字符串在必要的时候也需要绘制：
/**
*绘制窗体内容，包括游戏方块，游戏积分或结束字符串
*/
@Override
publicvoidpaint(Graphicsg){
super.paint(g);
for(inti=0;i<rows;i++){
for(intj=0;j<columns;j++){
if(map[i][j]==State.ACTIVE){//绘制活动块
g.setColor(activeColor);
g.fillRoundRect(j*BLOCK_SIZE,i*BLOCK_SIZE+25,
BLOCK_SIZE-1,BLOCK_SIZE-1,BLOCK_SIZE/5,
BLOCK_SIZE/5);
}elseif(map[i][j]==State.STOPED){//绘制静止块
g.setColor(stopedColor);
g.fillRoundRect(j*BLOCK_SIZE,i*BLOCK_SIZE+25,
BLOCK_SIZE-1,BLOCK_SIZE-1,BLOCK_SIZE/5,
BLOCK_SIZE/5);
}
}
}
/*打印得分*/
g.setColor(scoreColor);
g.setFont(newFont("TimesNewRoman",Font.BOLD,30));
g.drawString("SCORE:"+totalScore,5,70);
//游戏结束，打印结束字符串
if(!isGoingOn){
g.setColor(Color.RED);
g.setFont(newFont("TimesNewRoman",Font.BOLD,40));
g.drawString("GAMEOVER!",this.getWidth()/2-140,
this.getHeight()/2);
}
}
通过随机数的方式产生方块所组成的几种图形，一般七种图形：条形、田形、正7形、反7形、T形、Z形和反Z形，如生成条形：
map[0][randPos]=map[0][randPos-1]=map[0][randPos+1]
=map[0][randPos+2]=State.ACTIVE;123
生成图形后，实现下落的操作。如果遇到阻碍，则不能再继续下落：
isFall=true;//是否能够下落
//从当前行检查，如果遇到阻碍，则停止下落
for(inti=0;i<blockRows;i++){
for(intj=0;j<columns;j++){
//遍历到行中块为活动块，而下一行块为静止块，则遇到阻碍
if(map[rowIndex-i][j]==State.ACTIVE
&&map[rowIndex-i+1][j]==State.STOPED){
isFall=false;//停止下落
break;
}
}
if(!isFall)
break;
}123456789101112131415
如果未遇到阻碍，则下落的时候，方块图形整体向下移动一行：
//图形下落一行
for(inti=0;i<blockRows;i++){
for(intj=0;j<columns;j++){
if(map[rowIndex-i][j]==State.ACTIVE){//活动块向下移动一行
map[rowIndex-i][j]=State.EMPTY;//原活动块变成空块
map[rowIndex-i+1][j]=State.ACTIVE;//下一行块变成活动块
}
}
}12345678910
向左、向右方向移动时是类似的操作：
/**
*向左走
*/
privatevoidleft(){
//标记左边是否有阻碍
booleanhasBlock=false;
/*判断是否左边有阻碍*/
for(inti=0;i<blockRows;i++){
if(map[rowIndex-i][0]==State.ACTIVE){//判断左边是否为墙
hasBlock=true;
break;//有阻碍，不用再循环判断行
}else{
for(intj=1;j<columns;j++){//判断左边是否有其它块
if(map[rowIndex-i][j]==State.ACTIVE
&&map[rowIndex-i][j-1]==State.STOPED){
hasBlock=true;
break;//有阻碍，不用再循环判断列
}
}
if(hasBlock)
break;//有阻碍，不用再循环判断行
}
}
/*左边没有阻碍，则将图形向左移动一个块的距离*/
if(!hasBlock){
for(inti=0;i<blockRows;i++){
for(intj=1;j<columns;j++){
if(map[rowIndex-i][j]==State.ACTIVE){
map[rowIndex-i][j]=State.EMPTY;
map[rowIndex-i][j-1]=State.ACTIVE;
}
}
}
//重绘
repaint();
}
}3738394041
向下加速移动时，就是减小每次正常状态下落的时间间隔：
/**
*向下直走
*/
privatevoiddown(){
//标记可以加速下落
immediate=true;
}12345678
如何变换图形方向，这里仅使用了非常简单的方法来实现方向变换，当然可以有更优的算法实现方向变换操作，大家可以自己研究：
/**
*旋转方块图形
*/
privatevoidrotate(){
try{
if(shape==4){//方形，旋转前后是同一个形状
return;
}elseif(shape==0){//条状
//临时数组，放置旋转后图形
State[][]tmp=newState[4][4];
intstartColumn=0;
//找到图形开始的第一个方块位置
for(inti=0;i<columns;i++){
if(map[rowIndex][i]==State.ACTIVE){
startColumn=i;
break;
}
}
//查找旋转之后是否有阻碍，如果有阻碍，则不旋转
for(inti=0;i<4;i++){
for(intj=0;j<4;j++){
if(map[rowIndex-3+i][j+startColumn]==State.STOPED){
return;
}
}
}
if(map[rowIndex][startColumn+1]==State.ACTIVE){//横向条形，变换为竖立条形
for(inti=0;i<4;i++){
tmp[i][0]=State.ACTIVE;
for(intj=1;j<4;j++){
tmp[i][j]=State.EMPTY;
}
}
blockRows=4;
}else{//竖立条形，变换为横向条形
for(intj=0;j<4;j++){
tmp[3][j]=State.ACTIVE;
for(inti=0;i<3;i++){
tmp[i][j]=State.EMPTY;
}
}
blockRows=1;
}
//将原地图中图形修改为变换后图形
for(inti=0;i<4;i++){
for(intj=0;j<4;j++){
map[rowIndex-3+i][startColumn+j]=tmp[i][j];
}
}
}else{
//临时数组，放置旋转后图形
State[][]tmp=newState[3][3];
intstartColumn=columns;
//找到图形开始的第一个方块位置
for(intj=0;j<3;j++){
for(inti=0;i<columns;i++){
if(map[rowIndex-j][i]==State.ACTIVE){
startColumn=i<startColumn?i:startColumn;
}
}
}
//判断变换后是否会遇到阻碍
for(inti=0;i<3;i++){
for(intj=0;j<3;j++){
if(map[rowIndex-2+j][startColumn+2-i]==State.STOPED)
return;
}
}
//变换
for(inti=0;i<3;i++){
for(intj=0;j<3;j++){
tmp[2-j][i]=map[rowIndex-2+i][startColumn+j];
}
}
//将原地图中图形修改为变换后图形
for(inti=0;i<3;i++){
for(intj=0;j<3;j++){
map[rowIndex-2+i][startColumn+j]=tmp[i][j];
}
}
//重绘
repaint();
//重新修改行指针
for(inti=0;i<3;i++){
for(intj=0;j<3;j++){
if(map[rowIndex-i][startColumn+j]!=null
||map[rowIndex-i][startColumn+j]!=State.EMPTY){
rowIndex=rowIndex-i;
blockRows=3;
return;
}
}
}
}
}catch(Exceptione){
//遇到数组下标越界，说明不能变换图形形状，不作任何处理
}
}3738394
当图形下落遇到阻碍时停止，我们就需要判断这时是否有某一行或几行可以消除掉，这时可以先获取每行中方块的个数，然后再进行判断：
int[]blocksCount=newint[rows];//记录每行有方块的列数
inteliminateRows=0;//消除的行数
/*计算每行方块数量*/
for(inti=0;i<rows;i++){
blocksCount[i]=0;
for(intj=0;j<columns;j++){
if(map[i][j]==State.STOPED)
blocksCount[i]++;
}
}1234567891011
如果有满行的方块，则消除掉该行方块：
/*实现有满行的方块消除操作*/
for(inti=0;i<rows;i++){
if(blocksCount[i]==columns){
//清除一行
for(intm=i;m>=0;m--){
for(intn=0;n<columns;n++){
map[m][n]=(m==0)?State.EMPTY:map[m-1][n];
}
}
eliminateRows++;//记录消除行数
}
}12345678910111213
最后我们再重绘显示积分就可以了。
重复以上的生成图形、图形下落、左右下移动、判断消除行的操作，一个简单的俄罗斯方块就完成了。
『叁』 求一个java俄罗斯方块的设计思路 不要代码 只要思路 本人是初学者
1：首先自己定义一个类，比如MyLabel，继承jlabel，设置大小比如
（40，40）设置成方块，这就是游戏里面最小的单位，下落的图形，就是四个这个样的单位组合到一起，位置不同。
2：定义自己的图形（就是游戏中下落的部分）比如MyPic
,这个类是控制MyLabel的，一般是4个MyLabel组合成一个MyPic,
3：定义自己的面板，大小是
(n*40,m*40
)就是上面最小单位的整数行和列,然后建一个二位数组
int
[n][m],数组里面默认为0，标示这个位置没有MyLabel
，是空的，如果位置有
MyLabel,设置成1
，这个是数组是，图形下落的时候判断是否继续下落还是要停下了，下面有了就停，否则继续下落，下落停止后，根据数组，看某一行是否全部为1
是的话，把这行清空
图形的下落要用定时器或者自己写线程实现，然后就是判断下面是否有东西，是下落，还是停止，
图形的旋转的话，自己研究吧，位置的变换，也不好做
『肆』 用JAVA初级做俄罗斯方块，怎么把所有方块都写出来，最初级简单的就行
你是cs还是bs呀？把方块弄出来需要你看书上的图形部分。不是一句话两句话的问题。
先把方块的总类编号然后用Math.random()可以出随机数。用(Math.random()*10)%你的方块的总类就可以得到总类的编号。
『伍』 求java编的俄罗斯方块代码！ 最好是网络版的！单机版的也好啊！谢谢诶啊
其实java做的俄罗斯方块游戏的源码网上有很多的，我给你一个单击版的吧，希望你喜欢，并且能研究一下，代码如下：
import java.awt.*;
import java.awt.event.*;
import javax.swing.*;
public class Els extends JFrame implements KeyListener,Runnable
{
public Els()
{
setSize(240,320);
setUndecorated(true);
int H=(int) (this.getToolkit().getScreenSize().height);
int W=(int) (this.getToolkit().getScreenSize().width);
setLocation(W/2-120,H/2-160);
setResizable(false);
setDefaultCloseOperation(JFrame.EXIT_ON_CLOSE);
}
public void paint(Graphics g)
{
super.paint(g);
Graphics2D g2=(Graphics2D)g;
g2.setColor(Color.darkGray.brighter().brighter());
//绘制小框格
for(int m=192;m<=232;m+=10)
{
g2.drawLine(m, 52, m,92);
}
for(int m=52;m<=92;m+=10)
{
g2.drawLine(192, m, 232, m);
}
//绘制大框格
for(int m=0;m<=180;m+=15)
{
g2.drawLine(m, 0, m, 300);
}
for(int m=0;m<=300;m+=15)
{
g2.drawLine(0, m, 180, m);
}
//将值不非0的格子涂黑
for(int i=1;i<13;i++)
{
for(int j=0;j<20;j++)
{
g2.setColor(Color.DARK_GRAY);
if (o[i][j]!=0) g2.fillRect(15*i-13, 15*j+2, 13, 13);
}
}
//在小框格中绘制下一个的模型
switch(nextMODE)
{
case 0: g2.fillRect(204, 54, 8, 8);
g2.fillRect(204, 64, 8, 8);
g2.fillRect(204, 74, 8, 8);
g2.fillRect(204, 84, 8, 8);
break;
case 1: g2.fillRect(194, 64, 8, 8);
g2.fillRect(204, 64, 8, 8);
g2.fillRect(214, 64, 8, 8);
g2.fillRect(224, 64, 8, 8);
break;
case 2: g2.fillRect(214, 64, 8, 8);
g2.fillRect(214, 74, 8, 8);
g2.fillRect(214, 84, 8, 8);
g2.fillRect(204, 84, 8, 8);
break;
case 3: g2.fillRect(204, 64, 8, 8);
g2.fillRect(204, 74, 8, 8);
g2.fillRect(214, 74, 8, 8);
g2.fillRect(224, 74, 8, 8);
break;
case 4: g2.fillRect(204, 64, 8, 8);
g2.fillRect(214, 64, 8, 8);
g2.fillRect(204, 74, 8, 8);
g2.fillRect(204, 84, 8, 8);
break;
case 5: g2.fillRect(204, 64, 8, 8);
g2.fillRect(214, 64, 8, 8);
g2.fillRect(224, 64, 8, 8);
g2.fillRect(224, 74, 8, 8);
break;
case 6: g2.fillRect(204, 54, 8, 8);
g2.fillRect(204, 64, 8, 8);
g2.fillRect(204, 74, 8, 8);
g2.fillRect(214, 74, 8, 8);
break;
case 7: g2.fillRect(204, 74, 8, 8);
g2.fillRect(214, 74, 8, 8);
g2.fillRect(224, 74, 8, 8);
g2.fillRect(224, 64, 8, 8);
break;
case 8: g2.fillRect(204, 64, 8, 8);
g2.fillRect(214, 64, 8, 8);
g2.fillRect(214, 74, 8, 8);
g2.fillRect(214, 84, 8, 8);
break;
case 9: g2.fillRect(204, 64, 8, 8);
g2.fillRect(214, 64, 8, 8);
g2.fillRect(224, 64, 8, 8);
g2.fillRect(204, 74, 8, 8);
break;
case 10: g2.fillRect(204, 64, 8, 8);
g2.fillRect(204, 74, 8, 8);
g2.fillRect(214, 74, 8, 8);
g2.fillRect(214, 84, 8, 8);
break;
case 11: g2.fillRect(204, 74, 8, 8);
g2.fillRect(214, 74, 8, 8);
g2.fillRect(214, 64, 8, 8);
g2.fillRect(224, 64, 8, 8);
break;
case 12: g2.fillRect(214, 64, 8, 8);
g2.fillRect(214, 74, 8, 8);
g2.fillRect(204, 74, 8, 8);
g2.fillRect(204, 84, 8, 8);
break;
case 13: g2.fillRect(204, 64, 8, 8);
g2.fillRect(214, 64, 8, 8);
g2.fillRect(214, 74, 8, 8);
g2.fillRect(224, 74, 8, 8);
break;
case 14: g2.fillRect(204, 64, 8, 8);
g2.fillRect(214, 64, 8, 8);
g2.fillRect(204, 74, 8, 8);
g2.fillRect(214, 74, 8, 8);
break;
}
g2.setColor(Color.black);
g2.drawLine(180, 0, 180, 300);
g2.setColor(Color.DARK_GRAY);
g2.drawString("LEVEL", 194, 10);
g2.drawString(""+LEVEL, 210, 28);
g2.drawString("NEXT", 196, 45);
g2.drawString("SCORE",193, 110);
g2.drawString(""+SCORE,205, 130);
g2.drawString("Xiong", 205, 160);
g2.drawString("Xuan", 205, 180);
}
//方块下落的方法
public void down()
{
Y++;
switch(MODE)
{
case 0: o[X+2][Y]=1;
o[X+2][Y+1]=1;
o[X+2][Y+2]=1;
o[X+2][Y+3]++;
o[X+2][Y-1]=0;
break;
case 1: o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+3][Y+1]++;
o[X][Y]=0;
o[X+1][Y]=0;
o[X+2][Y]=0;
o[X+3][Y]=0;
break;
case 2: o[X+2][Y]=1;
o[X+2][Y+1]=1;
o[X+2][Y+2]++;
o[X+1][Y+2]++;
o[X+2][Y-1]=0;
o[X+1][Y+1]=0;
break;
case 3: o[X][Y]=1;
o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X][Y-1]=0;
//o[X][Y]=0;
o[X+1][Y]=0;
o[X+2][Y]=0;
break;
case 4: o[X+1][Y]=1;
o[X+2][Y]++;
o[X+1][Y+1]=1;
o[X+1][Y+2]++;
o[X+1][Y-1]=0;
o[X+2][Y-1]=0;
break;
case 5: o[X][Y]++;
o[X+1][Y]++;
o[X+2][Y]=1;
o[X+2][Y+1]++;
o[X][Y-1]=0;
o[X+1][Y-1]=0;
o[X+2][Y-1]=0;
break;
case 6: o[X+1][Y]=1;
o[X+1][Y+1]=1;
o[X+1][Y+2]++;
o[X+2][Y+2]++;
o[X+1][Y-1]=0;
//o[X+1][Y]=0;
//o[X+1][Y+1]=0;
o[X+2][Y+1]=0;
break;
case 7: o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+2][Y]=1;
o[X][Y]=0;
o[X+1][Y]=0;
//o[X+2][Y]=0;
o[X+2][Y-1]=0;
break;
case 8: o[X+1][Y]++;
o[X+2][Y]=1;
o[X+2][Y+1]=1;
o[X+2][Y+2]++;
o[X+1][Y-1]=0;
o[X+2][Y-1]=0;
//o[X+2][Y]=0;
//o[X+2][Y+1]=0;
break;
case 9: o[X+1][Y]=1;
o[X+2][Y]++;
o[X+3][Y]++;
o[X+1][Y+1]++;
o[X+1][Y-1]=0;
o[X+2][Y-1]=0;
o[X+3][Y-1]=0;
//o[X+1][Y]=0;
break;
case 10:o[X+1][Y]=1;
o[X+1][Y+1]++;
o[X+2][Y+1]=1;
o[X+2][Y+2]++;
o[X+1][Y-1]=0;
//o[X+1][Y]=0;
o[X+2][Y]=0;
//o[X+2][Y+1]=0;
break;
case 11:o[X+2][Y]=1;
o[X+3][Y]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+2][Y-1]=0;
o[X+3][Y-1]=0;
o[X+1][Y]=0;
//o[X+2][Y]=0;
break;
case 12:o[X+1][Y+1]=1;
o[X+2][Y+1]++;
o[X+1][Y+2]++;
o[X+2][Y]=1;
o[X+1][Y]=0;
//o[X+2][Y]=0;
//o[X+1][Y+1]=0;
o[X+2][Y-1]=0;
break;
case 13:o[X+1][Y]++;
o[X+2][Y]=1;
o[X+2][Y+1]++;
o[X+3][Y+1]++;
o[X+1][Y-1]=0;
o[X+2][Y-1]=0;
//o[X+2][Y]=0;
o[X+3][Y]=0;
break;
case 14:o[X+1][Y]=1;
o[X+2][Y]=1;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+1][Y-1]=0;
o[X+2][Y-1]=0;
//o[X+1][Y]=0;
//o[X+2][Y]=0;
break;
}
//如果碰撞，则自动上升一格
for(int i=0;i<13;i++)
{
for(int j=0;j<21;j++)
{
if (o[i][j]==2) up();
}
}
}
//方块上升的方法
public void up()
{
Y--;
switch(MODE)
{
case 0: o[X+2][Y]++;
o[X+2][Y+1]=1;
o[X+2][Y+2]=1;
o[X+2][Y+3]=1;
o[X+2][Y+4]--;
break;
case 1: o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+3][Y+1]++;
o[X][Y+2]--;
o[X+1][Y+2]--;
o[X+2][Y+2]--;
o[X+3][Y+2]--;
break;
case 2: o[X+2][Y]++;
o[X+2][Y+1]=1;
o[X+2][Y+2]=1;
o[X+1][Y+2]++;
o[X+2][Y+3]--;
o[X+1][Y+3]--;
break;
case 3: o[X][Y]++;
o[X][Y+1]=1;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X][Y+2]--;
//o[X][Y]=0;
o[X+1][Y+2]--;
o[X+2][Y+2]--;
break;
case 4: o[X+1][Y]++;
o[X+2][Y]++;
o[X+1][Y+1]=1;
o[X+1][Y+2]=1;
o[X+1][Y+3]--;
o[X+2][Y+1]--;
break;
case 5: o[X][Y]++;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+2][Y+1]=1;
o[X][Y+1]--;
o[X+1][Y+1]--;
o[X+2][Y+2]--;
break;
case 6: o[X+1][Y]++;
o[X+1][Y+1]=1;
o[X+1][Y+2]=1;
o[X+2][Y+2]++;
o[X+1][Y+3]--;
//o[X+1][Y]=0;
//o[X+1][Y+1]=0;
o[X+2][Y+3]--;
break;
case 7: o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]=1;
o[X+2][Y]++;
o[X][Y+2]--;
o[X+1][Y+2]--;
//o[X+2][Y]=0;
o[X+2][Y+2]--;
break;
case 8: o[X+1][Y]++;
o[X+2][Y]++;
o[X+2][Y+1]=1;
o[X+2][Y+2]=1;
o[X+1][Y+1]--;
o[X+2][Y+3]--;
//o[X+2][Y]=0;
//o[X+2][Y+1]=0;
break;
case 9: o[X+1][Y]++;
o[X+2][Y]++;
o[X+3][Y]++;
o[X+1][Y+1]=1;
o[X+1][Y+2]--;
o[X+2][Y+1]--;
o[X+3][Y+1]--;
//o[X+1][Y]=0;
break;
case 10:o[X+1][Y]++;
o[X+1][Y+1]=1;
o[X+2][Y+1]++;
o[X+2][Y+2]=1;
o[X+1][Y+2]--;
//o[X+1][Y]=0;
o[X+2][Y+3]--;
//o[X+2][Y+1]=0;
break;
case 11:o[X+2][Y]++;
o[X+3][Y]++;
o[X+1][Y+1]++;
o[X+2][Y+1]=1;
o[X+2][Y+2]--;
o[X+1][Y+2]--;
o[X+3][Y+1]--;
//o[X+2][Y]=0;
break;
case 12:o[X+1][Y+1]++;
o[X+2][Y+1]=1;
o[X+1][Y+2]=1;
o[X+2][Y]++;
o[X+2][Y+2]--;
//o[X+2][Y]=0;
//o[X+1][Y+1]=0;
o[X+1][Y+3]--;
break;
case 13:o[X+1][Y]++;
o[X+2][Y]++;
o[X+2][Y+1]=1;
o[X+3][Y+1]++;
o[X+1][Y+1]--;
o[X+2][Y+2]--;
//o[X+2][Y]=0;
o[X+3][Y+2]--;
break;
case 14:o[X+1][Y]++;
o[X+2][Y]++;
o[X+1][Y+1]=1;
o[X+2][Y+1]=1;
o[X+1][Y+2]--;
o[X+2][Y+2]--;
//o[X+1][Y]=0;
//o[X+2][Y]=0;
break;
}
for(int i=0;i<20;i++)
{
if (o[1][i]==1&&
o[2][i]==1&&
o[3][i]==1&&
o[4][i]==1&&
o[5][i]==1&&
o[6][i]==1&&
o[7][i]==1&&
o[8][i]==1&&
o[9][i]==1&&
o[10][i]==1&&
o[11][i]==1&&
o[12][i]==1
)
{for(int k=1;k<=12;k++)
{
for(int j=i;j>=1;j--)
{
o[k][j]=o[k][j-1];
}
}
SCORE++;
if(SCORE==5)LEVEL++;
if(SCORE==10)LEVEL++;
}
}
X=5;Y=0;
MODE=nextMODE;
down();
repaint();
nextMODE=(int)(Math.random()*14);
}
public void left()
{
X--;
switch(MODE)
{
case 0:
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
o[X+2][Y+3]++;
o[X+3][Y]--;
o[X+3][Y+1]--;
o[X+3][Y+2]--;
o[X+3][Y+3]--;
break;
case 1:
o[X][Y+1]++;
o[X+1][Y+1]=1;
o[X+2][Y+1]=1;
o[X+3][Y+1]=1;
//o[X+1][Y+1]=0;
//o[X+2][Y+1]=0;
//o[X+3][Y+1]=0;
o[X+4][Y+1]--;
break;
case 2:
//if(X==-2)X++;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]=1;
o[X+1][Y+2]++;
o[X+3][Y]--;
o[X+3][Y+1]--;
o[X+3][Y+2]--;
//o[X+2][Y+2]=0;
break;
case 3: //if(X==-1)X++;
o[X][Y]++;
o[X][Y+1]++;
o[X+1][Y+1]=1;
o[X+2][Y+1]=1;
o[X+1][Y]--;
//o[X+1][Y+1]=0;
//o[X+2][Y+1]=0;
o[X+3][Y+1]--;
break;
case 4: //if(X==-2)X++;
o[X+1][Y]++;
o[X+2][Y]=1;
o[X+1][Y+1]++;
o[X+1][Y+2]++;
//o[X+2][Y]=0;
o[X+3][Y]--;
o[X+2][Y+1]--;
o[X+2][Y+2]--;
break;
case 5: //if(X==-1)X++;
o[X][Y]++;
o[X+1][Y]=1;
o[X+2][Y]=1;
o[X+2][Y+1]++;
//o[X+1][Y]=0;
//o[X+2][Y]=0;
o[X+3][Y]--;
o[X+3][Y+1]--;
break;
case 6: //if(X==-2)X++;
o[X+1][Y]++;
o[X+1][Y+1]++;
o[X+1][Y+2]++;
o[X+2][Y+2]=1;
o[X+2][Y]--;
o[X+2][Y+1]--;
//o[X+2][Y+2]=0;
o[X+3][Y+2]--;
break;
case 7: //if(X==-1)X++;
o[X][Y+1]++;
o[X+1][Y+1]=1;
o[X+2][Y+1]=1;
o[X+2][Y]++;
//o[X+1][Y+1]=0;
//o[X+2][Y+1]=0;
o[X+3][Y+1]--;
o[X+3][Y]--;
break;
case 8: //if(X==-2)X++;
o[X+1][Y]++;
o[X+2][Y]=1;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
//o[X+2][Y]=0;
o[X+3][Y]--;
o[X+3][Y+1]--;
o[X+3][Y+2]--;
break;
case 9: //if(X==-2)X++;
o[X+1][Y]++;
o[X+2][Y]=1;
o[X+3][Y]=1;
o[X+1][Y+1]++;
//o[X+2][Y]=0;
//o[X+3][Y]=0;
o[X+4][Y]--;
o[X+2][Y+1]--;
break;
case 10://if(X==-2)X++;
o[X+1][Y]++;
o[X+1][Y+1]++;
o[X+2][Y+1]=1;
o[X+2][Y+2]++;
o[X+2][Y]--;
//o[X+3][Y+1]=0;
o[X+3][Y+1]--;
o[X+3][Y+2]--;
break;
case 11://if(X==-2)X++;
o[X+2][Y]++;
o[X+3][Y]=1;
o[X+1][Y+1]++;
o[X+2][Y+1]=1;
//o[X+3][Y]=0;
o[X+4][Y]--;
//o[X+2][Y+1]=0;
o[X+3][Y+1]--;
break;
case 12://if(X==-2)X++;
o[X+1][Y+1]++;
o[X+2][Y+1]=1;
o[X+1][Y+2]++;
o[X+2][Y]++;
//o[X+2][Y+1]=0;
o[X+3][Y+1]--;
o[X+2][Y+2]--;
o[X+3][Y]--;
break;
case 13://if(X==-2)X++;
o[X+1][Y]++;
o[X+2][Y]=1;
o[X+2][Y+1]++;
o[X+3][Y+1]=1;
//o[X+2][Y]=0;
o[X+3][Y]--;
//o[X+3][Y+1]=0;
o[X+4][Y+1]--;
break;
case 14://if(X==-2)X++;
o[X+1][Y]++;
o[X+2][Y]=1;
o[X+1][Y+1]++;
o[X+2][Y+1]=1;
//o[X+2][Y]=0;
o[X+3][Y]--;
//o[X+2][Y+1]=0;
o[X+3][Y+1]--;
break;
}
for(int i=0;i<13;i++)
{
for(int j=0;j<21;j++)
{
if (o[i][j]==2) right();
}
}
}
public void right()
{
X++;
switch(MODE)
{
case 0:
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
o[X+2][Y+3]++;
o[X+1][Y]--;
o[X+1][Y+1]--;
o[X+1][Y+2]--;
o[X+1][Y+3]--;
break;
case 1: //if(X==11)X--;
o[X][Y+1]=1;
o[X+1][Y+1]=1;
o[X+2][Y+1]=1;
o[X+3][Y+1]++;
o[X-1][Y+1]--;
//o[X][Y+1]=0;
//o[X+1][Y+1]=0;
//o[X+2][Y+1]=0;
break;
case 2: //if(X==10)X--;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
o[X+1][Y+2]=1;
o[X+1][Y]--;
o[X+1][Y+1]--;
//o[X+1][Y+2]=0;
o[X][Y+2]--;
break;
case 3:
o[X][Y]++;
o[X][Y+1]=1;
o[X+1][Y+1]=1;
o[X+2][Y+1]++;
o[X-1][Y]--;
o[X-1][Y+1]--;
//o[X][Y+1]=0;
//o[X+1][Y+1]=0;
break;
case 4: //if(X==10)X--;
o[X+1][Y]=1;
o[X+2][Y]++;
o[X+1][Y+1]++;
o[X+1][Y+2]++;
o[X][Y]--;
//o[X+1][Y]=0;
o[X][Y+1]--;
o[X][Y+2]--;
break;
case 5://if(X==10)X--;
o[X][Y]=1;
o[X+1][Y]=1;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X-1][Y]--;
//o[X][Y]=0;
//o[X+1][Y]=0;
o[X+1][Y+1]--;
break;
case 6: //if(X==9)X--;
o[X+1][Y]++;
o[X+1][Y+1]++;
o[X+1][Y+2]=1;
o[X+2][Y+2]++;
o[X][Y]--;
o[X][Y+1]--;
o[X][Y+2]--;
//o[X+1][Y+2]=0;
break;
case 7: //if(X==10)X--;
o[X][Y+1]=1;
o[X+1][Y+1]=1;
o[X+2][Y+1]++;
o[X+2][Y]++;
o[X-1][Y+1]--;
//o[X][Y+1]=0;
//o[X+1][Y+1]=0;
o[X+1][Y]--;
break;
case 8: //if(X==10)X--;
o[X+1][Y]=1;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
o[X][Y]--;
//o[X+1][Y]=0;
o[X+1][Y+1]--;
o[X+1][Y+2]--;
break;
case 9: //if(X==11)X--;
o[X+1][Y]=1;
o[X+2][Y]=1;
o[X+3][Y]++;
o[X+1][Y+1]++;
o[X][Y]--;
//o[X+1][Y]=0;
//o[X+2][Y]=0;
o[X][Y+1]--;
break;
case 10://if(X==10)X--;
o[X+1][Y]++;
o[X+1][Y+1]=1;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
o[X][Y]--;
o[X][Y+1]--;
//o[X+1][Y+1]=0;
o[X+1][Y+2]--;
break;
case 11://if(X==11)X--;
o[X+2][Y]=1;
o[X+3][Y]++;
o[X+1][Y+1]=1;
o[X+2][Y+1]++;
o[X+1][Y]--;
//o[X+2][Y]=0;
o[X][Y+1]--;
//o[X+1][Y+1]=0;
break;
case 12://if(X==10)X--;
o[X+1][Y+1]=1;
o[X+2][Y+1]++;
o[X+1][Y+2]++;
o[X+2][Y]++;
o[X][Y+1]--;
//o[X+1][Y+1]=0;
o[X][Y+2]--;
o[X+1][Y]--;
break;
case 13://if(X==11)X--;
o[X+1][Y]=1;
o[X+2][Y]++;
o[X+2][Y+1]=1;
o[X+3][Y+1]++;
o[X][Y]--;
//o[X+1][Y]=0;
o[X+1][Y+1]--;
//o[X+2][Y+1]=0;
break;
case 14://if(X==10)X--;
o[X+1][Y]=1;
o[X+2][Y]++;
o[X+1][Y+1]=1;
o[X+2][Y+1]++;
o[X][Y]--;
//o[X+1][Y]=0;
o[X][Y+1]--;
//o[X+1][Y+1]=0;
break;
}
for(int i=0;i<14;i++)
{
for(int j=0;j<21;j++)
{
if (o[i][j]==2) left();
}
}
}
public void change()
{
switch(MODE)
{
case 0: o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+2][Y+2]--;
o[X+2][Y+3]--;
o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+3][Y+1]++;
MODE=1;
break;
case 1: o[X][Y+1]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+3][Y+1]--;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
o[X+2][Y+3]++;
MODE=0;
break;
case 2: o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+2][Y+2]--;
o[X+1][Y+2]--;
o[X][Y]++;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+2][Y+1]++;
MODE=5;
break;
case 3: o[X][Y]--;
o[X][Y+1]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
o[X+1][Y+2]++;
MODE=2;
break;
case 4: o[X+1][Y]--;
o[X+2][Y]--;
o[X+1][Y+1]--;
o[X+1][Y+2]--;
o[X][Y]++;
o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
MODE=3;
break;
case 5: o[X][Y]--;
o[X+1][Y]--;
o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+1][Y+1]++;
o[X+1][Y+2]++;
MODE=4;
break;
case 6: o[X+1][Y]--;
o[X+1][Y+1]--;
o[X+1][Y+2]--;
o[X+2][Y+2]--;
o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+2][Y]++;
MODE=7;
break;
case 7: o[X][Y+1]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+2][Y]--;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
MODE=8;
break;
case 8: o[X+1][Y]--;
o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+2][Y+2]--;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+3][Y]++;
o[X+1][Y+1]++;
MODE=9;
break;
case 9: o[X+1][Y]--;
o[X+2][Y]--;
o[X+3][Y]--;
o[X+1][Y+1]--;
o[X+1][Y]++;
o[X+1][Y+1]++;
o[X+1][Y+2]++;
o[X+2][Y+2]++;
MODE=6;
break;
case 10:o[X+1][Y]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+2][Y+2]--;
o[X+2][Y]++;
o[X+3][Y]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
MODE=11;
break;
case 11:o[X+2][Y]--;
o[X+3][Y]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+1][Y]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
MODE=10;
break;
case 12:o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+1][Y+2]--;
o[X+2][Y]--;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+3][Y+1]++;
MODE=13;
break;
case 13:o[X+1][Y]--;
o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+3][Y+1]--;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+1][Y+2]++;
o[X+2][Y]++;
MODE=12;
break;
case 14:o[X+1][Y]=1;
o[X+2][Y]=1;
o[X+1][Y+1]=1;
o[X+2][Y+1]=1;
break;
}
for(int i=0;i<14;i++)
{
for(int j=0;j<21;j++)
{
if (o[i][j]==2) changeback();
}
}
}
public void changeback()
{
switch(MODE)
{
case 0:o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+2][Y+2]--;
o[X+2][Y+3]--;
o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+3][Y+1]++;
MODE=1;
break;
case 1:o[X][Y+1]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+3][Y+1]--;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
o[X+2][Y+3]++;
MODE=0;
break;
case 2:o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+2][Y+2]--;
o[X+1][Y+2]--;
o[X][Y]++;
o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
MODE=3;
break;
case 3:o[X][Y]--;
o[X][Y+1]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+1][Y+1]++;
o[X+1][Y+2]++;
MODE=4;
break;
case 4:o[X+1][Y]--;
o[X+2][Y]--;
o[X+1][Y+1]--;
o[X+1][Y+2]--;
o[X][Y]++;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+2][Y+1]++;
MODE=5;
break;
case 5:o[X][Y]--;
o[X+1][Y]--;
o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
o[X+1][Y+2]++;
MODE=2;
break;
case 6:o[X+1][Y]--;
o[X+1][Y+1]--;
o[X+1][Y+2]--;
o[X+2][Y+2]--;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+3][Y]++;
o[X+1][Y+1]++;
MODE=9;
break;
case 7:o[X][Y+1]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+2][Y]--;
o[X+1][Y]++;
o[X+1][Y+1]++;
o[X+1][Y+2]++;
o[X+2][Y+2]++;
MODE=6;
break;
case 8:o[X+1][Y]--;
o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+2][Y+2]--;
o[X][Y+1]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+2][Y]++;
MODE=7;
break;
case 9:o[X+1][Y]--;
o[X+2][Y]--;
o[X+3][Y]--;
o[X+1][Y+1]--;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
MODE=8;
break;
case 10:o[X+1][Y]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+2][Y+2]--;
o[X+2][Y]++;
o[X+3][Y]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
MODE=11;
break;
case 11:o[X+2][Y]--;
o[X+3][Y]--;
o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+1][Y]++;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+2][Y+2]++;
MODE=10;
break;
case 12:o[X+1][Y+1]--;
o[X+2][Y+1]--;
o[X+1][Y+2]--;
o[X+2][Y]--;
o[X+1][Y]++;
o[X+2][Y]++;
o[X+2][Y+1]++;
o[X+3][Y+1]++;
MODE=13;
break;
case 13:o[X+1][Y]--;
o[X+2][Y]--;
o[X+2][Y+1]--;
o[X+3][Y+1]--;
o[X+1][Y+1]++;
o[X+2][Y+1]++;
o[X+1][Y+2]++;
o[X+2][Y]++;
MODE=12;
break;
case 14:o[X+1][Y]=1;
o[X+2][Y]=1;
o[X+1][Y+1]=1;
o[X+2][Y+1]=1;
break;
}
}
不好意思，如果全部代码都发上来的话，就超过了10000字了，所以后面
的代码都发不了了，如果你要的话，留一下你的邮箱，我给你发过去
『陆』 java的俄罗斯方块代码及详细解答和设计思想
java.awt.*;
import java.awt.event.*;
//俄罗斯方块类
public class ERS_Block extends Frame{
public static boolean isPlay=false;
public static int level=1,score=0;
public static TextField scoreField,levelField;
public static MyTimer timer;
GameCanvas gameScr;
public static void main(String[] argus){
ERS_Block ers = new ERS_Block("俄罗斯方块游戏 V1.0 Author:Vincent");
WindowListener win_listener = new WinListener();
ers.addWindowListener(win_listener);
}
//俄罗斯方块类的构造方法
ERS_Block(String title){
super(title);
setSize(600,480);
setLayout(new GridLayout(1,2));
gameScr = new GameCanvas();
gameScr.addKeyListener(gameScr);
timer = new MyTimer(gameScr);
timer.setDaemon(true);
timer.start();
timer.suspend();
add(gameScr);
Panel rightScr = new Panel();
rightScr.setLayout(new GridLayout(2,1,0,30));
rightScr.setSize(120,500);
add(rightScr);
//右边信息窗体的布局
MyPanel infoScr = new MyPanel();
infoScr.setLayout(new GridLayout(4,1,0,5));
infoScr.setSize(120,300);
rightScr.add(infoScr);
//定义标签和初始值
Label scorep = new Label("分数:",Label.LEFT);
Label levelp = new Label("级数:",Label.LEFT);
scoreField = new TextField(8);
levelField = new TextField(8);
scoreField.setEditable(false);
levelField.setEditable(false);
infoScr.add(scorep);
infoScr.add(scoreField);
infoScr.add(levelp);
infoScr.add(levelField);
scorep.setSize(new Dimension(20,60));
scoreField.setSize(new Dimension(20,60));
levelp.setSize(new Dimension(20,60));
levelField.setSize(new Dimension(20,60));
scoreField.setText("0");
levelField.setText("1");
//右边控制按钮窗体的布局
MyPanel controlScr = new MyPanel();
controlScr.setLayout(new GridLayout(5,1,0,5));
rightScr.add(controlScr);
//定义按钮play
Button play_b = new Button("开始游戏");
play_b.setSize(new Dimension(50,200));
play_b.addActionListener(new Command(Command.button_play,gameScr));
//定义按钮Level UP
Button level_up_b = new Button("提高级数");
level_up_b.setSize(new Dimension(50,200));
level_up_b.addActionListener(new Command(Command.button_levelup,gameScr));
//定义按钮Level Down
Button level_down_b =new Button("降低级数");
level_down_b.setSize(new Dimension(50,200));
level_down_b.addActionListener(new Command(Command.button_leveldown,gameScr));
//定义按钮Level Pause
Button pause_b =new Button("游戏暂停");
pause_b.setSize(new Dimension(50,200));
pause_b.addActionListener(new Command(Command.button_pause,gameScr));
//定义按钮Quit
Button quit_b = new Button("退出游戏");
quit_b.setSize(new Dimension(50,200));
quit_b.addActionListener(new Command(Command.button_quit,gameScr));
controlScr.add(play_b);
controlScr.add(level_up_b);
controlScr.add(level_down_b);
controlScr.add(pause_b);
controlScr.add(quit_b);
setVisible(true);
gameScr.requestFocus();
}
}
//重写MyPanel类，使Panel的四周留空间
class MyPanel extends Panel{
public Insets getInsets(){
return new Insets(30,50,30,50);
}
}
//游戏画布类
class GameCanvas extends Canvas implements KeyListener{
final int unitSize = 30; //小方块边长
int rowNum; //正方格的行数
int columnNum; //正方格的列数
int maxAllowRowNum; //允许有多少行未削
int blockInitRow; //新出现块的起始行坐标
int blockInitCol; //新出现块的起始列坐标
int [][] scrArr; //屏幕数组
Block b; //对方快的引用
//画布类的构造方法
GameCanvas(){
rowNum = 15;
columnNum = 10;
maxAllowRowNum = rowNum - 2;
b = new Block(this);
blockInitRow = rowNum - 1;
blockInitCol = columnNum/2 - 2;
scrArr = new int [32][32];
}
//初始化屏幕，并将屏幕数组清零的方法
void initScr(){
for(int i=0;i<rowNum;i++)
for (int j=0; j<columnNum;j++)
scrArr[i][j]=0;
b.reset();
repaint();
}
//重新刷新画布方法
public void paint(Graphics g){
for(int i = 0; i < rowNum; i++)
for(int j = 0; j < columnNum; j++)
drawUnit(i,j,scrArr[i][j]);
}
//画方块的方法
public void drawUnit(int row,int col,int type){
scrArr[row][col] = type;
Graphics g = getGraphics();
switch(type){ //表示画方快的方法
case 0: g.setColor(Color.black);break; //以背景为颜色画
case 1: g.setColor(Color.blue);break; //画正在下落的方块
case 2: g.setColor(Color.magenta);break; //画已经落下的方法
}
g.fill3DRect(col*unitSize,getSize().height-(row+1)*unitSize,unitSize,unitSize,true);
g.dispose();
}
public Block getBlock(){
return b; //返回block实例的引用
}
//返回屏幕数组中(row,col)位置的属性值
public int getScrArrXY(int row,int col){
if (row < 0 || row >= rowNum || col < 0 || col >= columnNum)
return(-1);
else
return(scrArr[row][col]);
}
//返回新块的初始行坐标方法
public int getInitRow(){
return(blockInitRow); //返回新块的初始行坐标
}
//返回新块的初始列坐标方法
public int getInitCol(){
return(blockInitCol); //返回新块的初始列坐标
}
//满行删除方法
void deleteFullLine(){
int full_line_num = 0;
int k = 0;
for (int i=0;i<rowNum;i++){
boolean isfull = true;
L1:for(int j=0;j<columnNum;j++)
if(scrArr[i][j] == 0){
k++;
isfull = false;
break L1;
}
if(isfull) full_line_num++;
if(k!=0 && k-1!=i && !isfull)
for(int j = 0; j < columnNum; j++){
if (scrArr[i][j] == 0)
drawUnit(k-1,j,0);
else
drawUnit(k-1,j,2);
scrArr[k-1][j] = scrArr[i][j];
}
}
for(int i = k-1 ;i < rowNum; i++){
for(int j = 0; j < columnNum; j++){
drawUnit(i,j,0);
scrArr[i][j]=0;
}
}
ERS_Block.score += full_line_num;
ERS_Block.scoreField.setText(""+ERS_Block.score);
}
//判断游戏是否结束方法
boolean isGameEnd(){
for (int col = 0 ; col <columnNum; col ++){
if(scrArr[maxAllowRowNum][col] !=0)
return true;
}
return false;
}
public void keyTyped(KeyEvent e){
}
public void keyReleased(KeyEvent e){
}
//处理键盘输入的方法
public void keyPressed(KeyEvent e){
if(!ERS_Block.isPlay)
return;
switch(e.getKeyCode()){
case KeyEvent.VK_DOWN:b.fallDown();break;
case KeyEvent.VK_LEFT:b.leftMove();break;
case KeyEvent.VK_RIGHT:b.rightMove();break;
case KeyEvent.VK_SPACE:b.leftTurn();break;
}
}
}
//处理控制类
class Command implements ActionListener{
static final int button_play = 1; //给按钮分配编号
static final int button_levelup = 2;
static final int button_leveldown = 3;
static final int button_quit = 4;
static final int button_pause = 5;
static boolean pause_resume = true;
int curButton; //当前按钮
GameCanvas scr;
//控制按钮类的构造方法
Command(int button,GameCanvas scr){
curButton = button;
this.scr=scr;
}
//按钮执行方法
public void actionPerformed (ActionEvent e){
switch(curButton){
case button_play:if(!ERS_Block.isPlay){
scr.initScr();
ERS_Block.isPlay = true;
ERS_Block.score = 0;
ERS_Block.scoreField.setText("0");
ERS_Block.timer.resume();
}
scr.requestFocus();
break;
case button_levelup:if(ERS_Block.level < 10){
ERS_Block.level++;
ERS_Block.levelField.setText(""+ERS_Block.level);
ERS_Block.score = 0;
ERS_Block.scoreField.setText(""+ERS_Block.score);
}
scr.requestFocus();
break;
case button_leveldown:if(ERS_Block.level > 1){
ERS_Block.level--;
ERS_Block.levelField.setText(""+ERS_Block.level);
ERS_Block.score = 0;
ERS_Block.scoreField.setText(""+ERS_Block.score);
}
scr.requestFocus();
break;
case button_pause:if(pause_resume){
ERS_Block.timer.suspend();
pause_resume = false;
}else{
ERS_Block.timer.resume();
pause_resume = true;
}
scr.requestFocus();
break;
case button_quit:System.exit(0);
}
}
}
//方块类
class Block {
static int[][] pattern = {
{0x0f00,0x4444,0x0f00,0x4444},//用十六进至表示，本行表示长条四种状态
{0x04e0,0x0464,0x00e4,0x04c4},
{0x4620,0x6c00,0x4620,0x6c00},
{0x2640,0xc600,0x2640,0xc600},
{0x6220,0x1700,0x2230,0x0740},
{0x6440,0x0e20,0x44c0,0x8e00},
{0x0660,0x0660,0x0660,0x0660}
};
int blockType; //块的模式号（0-6）
int turnState; //块的翻转状态（0-3）
int blockState; //快的下落状态
int row,col; //块在画布上的坐标
GameCanvas scr;
//块类的构造方法
Block(GameCanvas scr){
this.scr = scr;
blockType = (int)(Math.random() * 1000)%7;
turnState = (int)(Math.random() * 1000)%4;
blockState = 1;
row = scr.getInitRow();
col = scr.getInitCol();
}
//重新初始化块，并显示新块
public void reset(){
blockType = (int)(Math.random() * 1000)%7;
turnState = (int)(Math.random() * 1000)%4;
blockState = 1;
row = scr.getInitRow();
col = scr.getInitCol();
dispBlock(1);
}
//实现“块”翻转的方法
public void leftTurn(){
if(assertValid(blockType,(turnState + 1)%4,row,col)){
dispBlock(0);
turnState = (turnState + 1)%4;
dispBlock(1);
}
}
//实现“块”的左移的方法
public void leftMove(){
if(assertValid(blockType,turnState,row,col-1)){
dispBlock(0);
col--;
dispBlock(1);
}
}
//实现块的右移
public void rightMove(){
if(assertValid(blockType,turnState,row,col+1)){
dispBlock(0);
col++;
dispBlock(1);
}
}
//实现块落下的操作的方法
public boolean fallDown(){
if(blockState == 2)
return(false);
if(assertValid(blockType,turnState,row-1,col)){
dispBlock(0);
row--;
dispBlock(1);
return(true);
}else{
blockState = 2;
dispBlock(2);
return(false);
}
}
//判断是否正确的方法
boolean assertValid(int t,int s,int row,int col){
int k = 0x8000;
for(int i = 0; i < 4; i++){
for(int j = 0; j < 4; j++){
if((int)(pattern[t][s]&k) != 0){
int temp = scr.getScrArrXY(row-i,col+j);
if (temp<0||temp==2)
return false;
}
k = k >> 1;
}
}
return true;
}
//同步显示的方法
public synchronized void dispBlock(int s){
int k = 0x8000;
for (int i = 0; i < 4; i++){
for(int j = 0; j < 4; j++){
if(((int)pattern[blockType][turnState]&k) != 0){
scr.drawUnit(row-i,col+j,s);
}
k=k>>1;
}
}
}
}
//定时线程
class MyTimer extends Thread{
GameCanvas scr;
public MyTimer(GameCanvas scr){
this.scr = scr;
}
public void run(){
while(true){
try{
sleep((10-ERS_Block.level + 1)*100);
}
catch(InterruptedException e){}
if(!scr.getBlock().fallDown()){
scr.deleteFullLine();
if(scr.isGameEnd()){
ERS_Block.isPlay = false;
suspend();
}else
scr.getBlock().reset();
}
}
}
}
class WinListener extends WindowAdapter{
public void windowClosing (WindowEvent l){
System.exit(0);
}
}