自家製16x8マトリックス上のArduinoNanoTetr​​isゲーム

必要なツールとマシン

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はんだごて（汎用）

アプリとオンラインサービス

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Arduino IDE

このプロジェクトについて

このテトリスゲームは、自家製の16x8 LEDマトリックス、Arduino Nano、および2つの74hc595シフトレジスタを使用して作成しました。また、いずれかのボタンを押すとビープ音が鳴ります。

コード

• コード

コード Arduino

 / *作成者：Jae Yeong Bae UBC ECE jocker.tistory.com日付：2013年1月18日ファイル：Tetris v2Changelog：v2：ゲームオーバー時のスコアを表示目的：暇つぶし.. +楽しみのためにCircuits + Pins：Led Matrix：2 74HC575シフトレジスタの順序：緑、青、赤のピン：ラッチ=2クロック=2データ=4行のノード=両方のマトリックスボタン間で共有される5〜13（8ピン）（デジタルとして）：A4 =左A5 =下A6 =右A7 =up（rotate）コメント：これは私の2番目のArduinoプロジェクトです。コードは乱雑で非効率的かもしれません。 Arduinoライブラリとデータシートからの参照。* / unsignedcharラッチPin =3; unsigned char clockPin =2; unsigned char dataPin =4; unsigned char rowPin =5; long delays =0; short delay_ =500; long bdelay =0; short buttondelay =150; short btdowndelay =30; short btsidedelay =80; unsigned char blocktype; unsigned char blockrotation; int lines =0; boolean block [8] [18]; // 2追加のrotationbooleanpile [8] [16]; boolean disp [8] [16]; boolean lib [10] [5] [7]; void setup（）{lib [0] [1] [0] =1; lib [0] [2] [0] =1; lib [0] [3] [0] =1; lib [0] [0] [1] =1; lib [0] [4] [ 1] =1; lib [0] [3] [2] =1; lib [0] [0] [2] =1; lib [0] [4] [2] =1; lib [0] [2 ] [3] =1; lib [0] [0] [3] =1; lib [0] [4] [3] =1; lib [0] [1] [4] =1; lib [0] [0] [4] =1; lib [0] [4] [4] =1; lib [0] [0] [5] =1; lib [0] [4] [5] =1; lib [ 0] [1] [6] =1; lib [0] [2] [6] =1; lib [0] [3] [6] =1; lib [1] [2] [0] =1; lib [1] [1] [1] =1; lib [1] [2] [1] =1; lib [1] [2] [2] =1; lib [1] [2] [3] =1; lib [1] [2] [4] =1; lib [1] [2] [5] =1; lib [1] [1] [6] =1; lib [1] [2] [6 ] =1; lib [1] [3] [6] =1; lib [2] [1] [0] =1; lib [2] [2] [0] =1; lib [2] [3] [0] =1; lib [2] [0] [1] =1; lib [2] [4] [1] =1; lib [2] [4] [2] =1; lib [2] [ 3] [3] =1; lib [2] [2] [4] =1; lib [2] [1] [5] =1; lib [2] [0] [6] =1; lib [2 ] [1] [6] =1; lib [2] [2] [6] =1; lib [2] [3] [6] =1; lib [2] [4] [6] =1; lib [3] [0] [0] =1; lib [3] [1] [0] =1; lib [3] [2] [0] =1; lib [3] [3] [0] =1; lib [3] [4] [0] =1; lib [3] [3] [1] =1; lib [3] [2] [2] =1; lib [3] [3] [3] =1; lib [3] [4] [4] =1; lib [3] [0] [5] =1; lib [3] [4] [5] =1; lib [3] [1] [6] =1; lib [3] [2] [6] =1; lib [3] [3] [6] =1; lib [4] [3] [0] =1; lib [4] [2] [1] =1; lib [4] [3] [1] =1; lib [4] [1] [2 ] =1; lib [4] [3] [2] =1; lib [4] [0] [3] =1; lib [4] [3] [3] =1; lib [4] [0] [4] =1; lib [4] [1] [4] =1; lib [4] [2] [4] =1; lib [4] [3] [4] =1; lib [4] [ 4] [4] =1; lib [4] [3] [5] =1; lib [4] [3] [6] =1; lib [5] [0] [0] =1; lib [5 ] [1] [0] =1; lib [5] [2] [0] =1; lib [5] [3] [0] =1; lib [5] [4] [0] =1; lib [5] [0] [1] =1; lib [5] [0] [2] =1; lib [5] [1] [2] =1; lib [5] [2] [2] =1; lib [5] [3] [2] =1; lib [5] [4] [3] =1; lib [5] [4] [4] =1; lib [5] [0] [5] =1; lib [5] [4] [5] =1; lib [5] [1] [6] =1; lib [5] [2] [6] =1; lib [5] [3] [ 6] =1; lib [6] [2] [0] =1; lib [6] [3] [0] =1; lib [6] [1] [1] =1; lib [6] [0 ] [2] =1; lib [6] [0] [3] =1; lib [6] [1] [3] =1; lib [6] [2] [3] =1; lib [6] [3] [3] =1; lib [6] [0] [4] =1; lib [6] [4] [4] =1; lib [6] [0] [5] =1; lib [ 6] [4] [5] =1; lib [6] [1] [6] =1; lib [6] [2] [6] =1; lib [6] [3] [6] =1; lib [7] [0] [0] =1; lib [7] [1] [0] =1; lib [7] [2] [0] =1; lib [7] [3] [0] =1; lib [7] [4] [0] =1; lib [7] [4] [1] =1; lib [7] [3] [2] =1; lib [7] [2] [3 ] =1; lib [7] [1] [4] =1; lib [7] [1] [5] =1; lib [7] [1] [6] =1; lib [8] [1] [0] =1; lib [8] [2] [0 ] =1; lib [8] [3] [0] =1; lib [8] [0] [1] =1; lib [8] [4] [1] =1; lib [8] [0] [2] =1; lib [8] [4] [2] =1; lib [8] [1] [3] =1; lib [8] [2] [3] =1; lib [8] [ 3] [3] =1; lib [8] [0] [4] =1; lib [8] [4] [4] =1; lib [8] [0] [5] =1; lib [8 ] [4] [5] =1; lib [8] [1] [6] =1; lib [8] [2] [6] =1; lib [8] [3] [6] =1; lib [9] [1] [0] =1; lib [9] [2] [0] =1; lib [9] [3] [0] =1; lib [9] [0] [1] =1; lib [9] [4] [1] =1; lib [9] [0] [2] =1; lib [9] [4] [2] =1; lib [9] [1] [3] =1; lib [9] [2] [3] =1; lib [9] [3] [3] =1; lib [9] [4] [3] =1; lib [9] [4] [ 4] =1; lib [9] [3] [5] =1; lib [9] [1] [6] =1; lib [9] [2] [6] =1; int seed =（analogRead（0）+1）*（analogRead（1）+1）*（analogRead（2）+1）*（analogRead（3）+1）; randomSeed（シード）;ランダム（10,9610806）;シード=シード* random（3336,15679912）+ analogRead（random（4））; randomSeed（シード）;ランダム（10,98046）; cli（）; //割り込みの停止// 2kHzでのtimer0割り込みの設定TCCR1A =0; // TCCR0Aレジスタ全体を0に設定TCCR1B =0; // TCCR0Bの場合も同じTCNT1 =0; //カウンタ値を0に初期化//設定一致レジスタを2khz刻みで比較OCR1A =259; // =（16 * 10 ^ 6）/（2000 * 64）-1（<256である必要があります）// CTCモードをオンにしますTCCR1A | =（1 < 0; i-）{for（j =0; j <16; j ++）{block [i] [j] =block [i-1] [j]; }} for（j =0; j <16; j ++）{block [0] [j] =0; } updateLED（）; 1を返します。 } return 0;} int readBut（）{if（bdelay> millis（））{return 0; } if（analogRead（A4）> 500）{//左bdelay =millis（）+ btsidedelay; 3を返します。 } if（analogRead（A5）> 500）{// down bdelay =millis（）+ btdowndelay; 4を返します。 } if（analogRead（A6）> 500）{//右bdelay =millis（）+ btsidedelay; 2を返します。 } if（analogRead（A7）> 500）{// up bdelay =millis（）+ buttondelay; 1を返します。 } return 0;} void updateLED（）{int i; int j; for（i =0; i <8; i ++）{for（j =0; j <16; j ++）{disp [i] [j] =block [i] [j] |パイル[i] [j]; }}} void rotate（）{//正方形のblock（3）をスキップif（blocktype ==3）return; int xi; int yi; int i; int j; //左を検出for（i =7; i> =0; i-）{for（j =0; j <16; j ++）{if（block [i] [j]）{xi =i; }}} //検出する（i =15; i> =0; i-）{for（j =0; j <8; j ++）{if（block [j] [i]）{yi =i; }}} if（blocktype ==0）{if（blockrotation ==0）{if（！space_left（））{if（space_right3（））{if（！moveright（））return; xi ++; } else return; } else if（！space_right（））{if（space_left3（））{if（！moveleft（））return; if（！moveleft（））return; xi--; xi--; } else return; } else if（！space_right2（））{if（space_left2（））{if（！moveleft（））return; xi--; } else return; } block [xi] [yi] =0; block [xi] [yi + 2] =0; block [xi] [yi + 3] =0; block [xi-1] [yi + 1] =1; block [xi + 1] [yi + 1] =1; block [xi + 2] [yi + 1] =1; blockrotation =1; } else {block [xi] [yi] =0; block [xi + 2] [yi] =0; block [xi + 3] [yi] =0; block [xi + 1] [yi-1] =1; block [xi + 1] [yi + 1] =1;ブロック[xi + 1] [yi + 2] =1; blockrotation =0; }} //中程度のxi ++へのオフセット; yi ++; if（blocktype ==1）{if（blockrotation ==0）{block [xi-1] [yi-1] =0; block [xi-1] [yi] =0; block [xi + 1] [yi] =0; block [xi] [yi-1] =1; block [xi + 1] [yi-1] =1; block [xi] [yi + 1] =1; blockrotation =1; } else if（blockrotation ==1）{if（！space_left（））{if（！moveright（））return; xi ++; } xi--; block [xi] [yi-1] =0; block [xi + 1] [yi-1] =0; block [xi] [yi + 1] =0; block [xi-1] [yi] =1; block [xi + 1] [yi] =1; block [xi + 1] [yi + 1] =1; blockrotation =2; } else if（blockrotation ==2）{yi-; block [xi-1] [yi] =0; block [xi + 1] [yi] =0; block [xi + 1] [yi + 1] =0; block [xi] [yi-1] =1; block [xi] [yi + 1] =1; block [xi-1] [yi + 1] =1; blockrotation =3; } else {if（！space_right（））{if（！moveleft（））return; xi--; } block [xi] [yi-1] =0; block [xi] [yi + 1] =0; block [xi-1] [yi + 1] =0; block [xi-1] [yi-1] =1; block [xi-1] [yi] =1; block [xi + 1] [yi] =1; blockrotation =0; }} if（blocktype ==2）{if（blockrotation ==0）{block [xi + 1] [yi-1] =0; block [xi-1] [yi] =0; block [xi + 1] [yi] =0; block [xi] [yi-1] =1; block [xi + 1] [yi + 1] =1; block [xi] [yi + 1] =1; blockrotation =1; } else if（blockrotation ==1）{if（！space_left（））{if（！moveright（））return; xi ++; } xi--; block [xi] [yi-1] =0; block [xi + 1] [yi + 1] =0; block [xi] [yi + 1] =0; block [xi-1] [yi] =1; block [xi + 1] [yi] =1; block [xi-1] [yi + 1] =1; blockrotation =2; } else if（blockrotation ==2）{yi-; block [xi-1] [yi] =0; block [xi + 1] [yi] =0; block [xi-1] [yi + 1] =0; block [xi] [yi-1] =1; block [xi] [yi + 1] =1; block [xi-1] [yi-1] =1; blockrotation =3; } else {if（！space_right（））{if（！moveleft（））return; xi--; } block [xi] [yi-1] =0; block [xi] [yi + 1] =0; block [xi-1] [yi-1] =0; block [xi + 1] [yi-1] =1; block [xi-1] [yi] =1; block [xi + 1] [yi] =1; blockrotation =0; }} if（blocktype ==4）{if（blockrotation ==0）{block [xi + 1] [yi-1] =0; block [xi-1] [yi] =0; block [xi + 1] [yi] =1; block [xi + 1] [yi + 1] =1; blockrotation =1; } else {if（！space_left（））{if（！moveright（））return; xi ++; } xi--; block [xi + 1] [yi] =0; block [xi + 1] [yi + 1] =0; block [xi-1] [yi] =1; block [xi + 1] [yi-1] =1; blockrotation =0; }} if（blocktype ==5）{if（blockrotation ==0）{block [xi] [yi-1] =0; block [xi-1] [yi] =0; block [xi + 1] [yi] =0; block [xi] [yi-1] =1; block [xi + 1] [yi] =1; block [xi] [yi + 1] =1; blockrotation =1; } else if（blockrotation ==1）{if（！space_left（））{if（！moveright（））return; xi ++; } xi--; block [xi] [yi-1] =0; block [xi + 1] [yi] =0; block [xi] [yi + 1] =0; block [xi-1] [yi] =1; block [xi + 1] [yi] =1; block [xi] [yi + 1] =1; blockrotation =2; } else if（blockrotation ==2）{yi-; block [xi-1] [yi] =0; block [xi + 1] [yi] =0; block [xi] [yi + 1] =0; block [xi] [yi-1] =1; block [xi-1] [yi] =1; block [xi] [yi + 1] =1; blockrotation =3; } else {if（！space_right（））{if（！moveleft（））return; xi--; } block [xi] [yi-1] =0; block [xi-1] [yi] =0; block [xi] [yi + 1] =0; block [xi] [yi-1] =1; block [xi-1] [yi] =1; block [xi + 1] [yi] =1; blockrotation =0; }} if（blocktype ==6）{if（blockrotation ==0）{block [xi-1] [yi-1] =0; block [xi] [yi-1] =0; block [xi + 1] [yi-1] =1; block [xi] [yi + 1] =1; blockrotation =1; } else {if（！space_left（））{if（！moveright（））return; xi ++; } xi--; block [xi + 1] [yi-1] =0; block [xi] [yi + 1] =0; block [xi-1] [yi-1] =1; block [xi] [yi-1] =1; blockrotation =0; }} //回転してブロックと杭が重なる場合は、行を上に押し上げますwhile（！check_overlap（））{for（i =0; i <18; i ++）{for（j =0; j <8; j ++）{block [j] [i] =ブロック[j] [i + 1]; }} delays =millis（）+ delay_; } updateLED（）; } void movedown（）{if（space_below（））{//下に移動int i; for（i =15; i> =0; i-）{int j; for（j =0; j <8; j ++）{block [j] [i] =block [j] [i-1]; }} for（i =0; i <7; i ++）{block [i] [0] =0; }} else {//マージして新しいブロックinti; int j; for（i =0; i <8; i ++）{for（j =0; j <16; j ++）{if（block [i] [j]）{pile [i] [j] =1; block [i] [j] =0; }}} newBlock（）; } updateLED（）; } boolean check_overlap（）{int i; int j; for（i =0; i <16; i ++）{for（j =0; j <7; j ++）{if（block [j] [i]）{if（pile [j] [i]）return false; }}} for（i =16; i <18; i ++）{for（j =0; j <7; j ++）{if（block [j] [i]）{return false; }}} return true;} void check_gameover（）{int i; int j; int cnt =0;; for（i =15; i> =0; i-）{cnt =0; for（j =0; j <8; j ++）{if（pile [j] [i]）{cnt ++; }} if（cnt ==8）{lines ++; for（j =0; j <8; j ++）{pile [j] [i] =0; } updateLED（）; delay（50）; int k; for（k =i; k> 0; k-）{for（j =0; j <8; j ++）{pile [j] [k] =tile [j] [k-1]; }} for（j =0; j <8; j ++）{pile [j] [0] =0; } updateLED（）; delay（50）; i ++; }} for（i =0; i <8; i ++）{if（pile [i] [0]）gameover（）; } return;} void gameover（）{int i; int j; //ブラインドを閉じるfor（i =0; i <8; i ++）{for（j =0; j <16; j ++）{if（j％2）{disp [i] [j] =1; } else {disp [7-i] [j] =1; }} delay（60）; } //スコアボードを計算するintnum_lines; num_lines =2;ブールスコア[8] [17]; for（i =0; i <8; i ++）{for（j =0; j <16; j ++）{スコア[i] [j] =0; }} int digit1 =（lines / 10）％10; int digit2 =（行）％10; for（i =0; i <5; i ++）for（j =0; j <8; j ++）{スコア[7-j] [i + 3] =lib [digit1] [i] [j]; } for（i =0; i <5; i ++）for（j =0; j <8; j ++）{スコア[7-j] [i + 9] =lib [digit2] [i] [j]; } for（i =0; i <16; i ++）{スコア[0] [i] =0; } //（i =0; i <8; i ++）{for（j =0; j <16; j ++）{if（j％2）{disp [i] [j] =score [ i] [j]; } else {disp [7-i] [j] =score [7-i] [j]; }} delay（60）; } delay（100）; while（true）{for（i =0; i <8; i ++）{for（j =0; j <16; j ++）{disp [i] [j] =score [i] [j]; }} boolean tmpline [8]; for（i =0; i <8; i ++）{スコア[i] [16] =スコア[i] [0]; } for（i =0; i <8; i ++）{for（j =0; j <16; j ++）{スコア[i] [j] =スコア[i] [j + 1]; }} delay（100）; }} void newBlock（）{check_gameover（）; blocktype =random（7）; if（blocktype ==0）// 0 // 0 // 0 // 0 {block [3] [0] =1;ブロック[3] [1] =1;ブロック[3] [2] =1;ブロック[3] [3] =1; } if（blocktype ==1）// 0 // 0 0 0 {block [2] [0] =1;ブロック[2] [1] =1;ブロック[3] [1] =1;ブロック[4] [1] =1; } if（blocktype ==2）// 0 // 0 0 0 {block [4] [0] =1;ブロック[2] [1] =1;ブロック[3] [1] =1;ブロック[4] [1] =1; } if（blocktype ==3）// 0 0 // 0 0 {block [3] [0] =1;ブロック[3] [1] =1;ブロック[4] [0] =1;ブロック[4] [1] =1; } if（blocktype ==4）// 0 0 // 0 0 {block [4] [0] =1;ブロック[5] [0] =1;ブロック[3] [1] =1;ブロック[4] [1] =1; } if（blocktype ==5）// 0 // 0 0 0 {block [4] [0] =1;ブロック[3] [1] =1;ブロック[4] [1] =1;ブロック[5] [1] =1; } if（blocktype ==6）// 0 0 // 0 0 {block [3] [0] =1;ブロック[4] [0] =1;ブロック[4] [1] =1;ブロック[5] [1] =1; } blockrotation =0;} boolean space_below（）{int i; int j; for（i =15; i> =0; i-）{for（j =0; j <8; j ++）{if（block [j] [i]）{if（i ==15）return false; if（pile [j] [i + 1]）{falseを返す; }}}} return true;} boolean space_left2（）{int i; int j; for（i =15; i> =0; i-）{for（j =0; j <8; j ++）{if（block [j] [i]）{if（j ==0 || j ==1）falseを返します。 if（pile [j-1] [i] | tile [j-2] [i]）{falseを返す; }}}} return true;} boolean space_left3（）{int i; int j; for（i =15; i> =0; i-）{for（j =0; j <8; j ++）{if（block [j] [i]）{if（j ==0 || j ==1 || j ==2）falseを返します。 if（pile [j-1] [i] | tile [j-2] [i] | tile [j-3] [i]）{falseを返す; }}}} return true;} boolean space_left（）{int i; int j; for（i =15; i> =0; i-）{for（j =0; j <8; j ++）{if（block [j] [i]）{if（j ==0）return false; if（pile [j-1] [i]）{falseを返す; }}}} return true;} boolean space_right（）{int i; int j; for（i =15; i> =0; i-）{for（j =0; j <8; j ++）{if（block [j] [i]）{if（j ==7）return false; if（pile [j + 1] [i]）{falseを返す; }}}} return true;} boolean space_right3（）{int i; int j; for（i =15; i> =0; i-）{for（j =0; j <8; j ++）{if（block [j] [i]）{if（j ==7 || j ==6 || j ==5）falseを返します。 if（pile [j + 1] [i] | tile [j + 2] [i] | tile [j + 3] [i]）{falseを返す; }}}} return true;} boolean space_right2（）{int i; int j; for（i =15; i> =0; i-）{for（j =0; j <8; j ++）{if（block [j] [i]）{if（j ==7 || j ==6）falseを返します。 if（pile [j + 1] [i] | pile [j + 2] [i]）{falseを返す; }}}} return true;} ISR（TIMER1_COMPA_vect）{// timer1の場合は0を1に、timer2の場合は2に変更しますLEDRefresh（）;} void LEDRefresh（）{int i; int k; //////////////////////////////////////////////////ピンを間違ってはんだ付けしました。 （01234567の代わりに12345670）。 //したがって、コードのこの部分は、この問題をソフトウェアで修正するためのものです。 boolean tmpdisp [8] [16]; for（k =0; k <16; k ++）{for（i =1; i <8; i ++）{tmpdisp [i] [k] =disp [i-1] [k]; } tmpdisp [0] [k] =disp [7] [k]; } ////////////////////////////////////////////// for（i =0; i <8; i ++）{int j; if（i ==0）j =rowPin + 7;それ以外の場合、j =rowPin + i-1;バイト上位=0; int b; for（b =0; b <8; b ++）{upper <<=1; if（！tmpdisp [b] [i]）upper | =1; }バイト下位=0; for（b =0; b <8; b ++）{下位<<=1; if（！tmpdisp [b] [i + 8]）lower | =1; } digitalWrite（j、LOW）; digitalWrite（latchPin、LOW）; shiftOut（dataPin、clockPin、LSBFIRST、lower）; shiftOut（dataPin、clockPin、LSBFIRST、upper）; digitalWrite（latchPin、HIGH）; digitalWrite（rowPin + i、HIGH）; delay（1）; } digitalWrite（rowPin + 7、LOW）; } 

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