Bekijk onderwerp - Arduino UNO sketch naar MEGA2560 voor led CUBE

door **alsoft** » 01 Jun 2013, 21:03

Hallo ik ben pas nieuw hier en ook een beginner met arduino
Ik heb het volgende probleem, ik heb een 8x8x8 RGB Led Cube gebouwd die wordt aangestuurd door een standalone Arduino of door een UNO en dat werkt perfect ik heb diverse simpele effecten erbij gemaakt maar omdat ik nog meer effecten erin wil hebben wordt het geheugen een beetje krap dus heb ik een Arduino MEGA2560 gekocht en daar werkt de sketch niet goed op (geen fouten met compileren natuurlijk). Om de cube te besturen worden 4 aansluitingen gebruikt pin 2, 4, 11, 13 van de UNO, als ik de sketch niet verandert werkt het niet, willekeurige leds in cube gaan aan en blijven aan. Als ik dan in de pin mapping table kijk van de UNO dan is pin 11 = MOSI en pin 13 = SCK vergelijk ik die met de pin mapping van de MEGA2560 dan kom ik uit op pin 51 voor MOSI en pin 52 voor SCK. Verander ik die twee pinnen in de sketch werkt het ook niet. De sketch is door iemand anders gemaakt en die heeft geen ervaring met de MEGA2560. De cube wordt dus aangestuurd met een Arduino UNO die 25 8bit shift registers (74HC595) aanstuurd die dan weer de 512 rgb leds aansturen en dat werkt goed, alleen met de MEGA2560 gaat het fout om de een of andere reden
Ik heb een filmpje op youtube staan van de bouw van de cube http://www.youtube.com/watch?v=GGhpgE0YRg8
Het programma zelf ziet er zo uit:

Code: Alles selecteren: /* The 8x8x8 RGB LED Cube by Kevin Darrah Latest V12 04/17/2013 Release Notes: V11 - Fixed bug with BAM timing - Moved Blank pin setup to ISR so pins are dead until they are written to V12 bitwise operation to set pins LOW was incorrect should be PORTx &= ~(1<<pinNumber); Disclaimer: Not a professional LED cube builder, this is how I did it, and this is my cube */ #include <SPI.h>// SPI Library used to clock data out to the shift registers #define latch_pin 2// can use any pin you want to latch the shift registers #define blank_pin 4// same, can use any pin you want for this, just make sure you pull up via a 1k to 5V #define data_pin 11// used by SPI, must be pin 11 #define clock_pin 13// used by SPI, must be 13 //***variables***variables***variables***variables***variables***variables***variables***variables //These variables are used by multiplexing and Bit Angle Modulation Code int shift_out;//used in the code a lot in for(i= type loops byte anode[8];//byte to write to the anode shift register, 8 of them, shifting the ON level in each byte in the array //This is how the brightness for every LED is stored, //Each LED only needs a 'bit' to know if it should be ON or OFF, so 64 Bytes gives you 512 bits= 512 LEDs //Since we are modulating the LEDs, using 4 bit resolution, each color has 4 arrays containing 64 bits each byte red0[64], red1[64], red2[64], red3[64]; byte blue0[64], blue1[64], blue2[64], blue3[64]; byte green0[64], green1[64], green2[64], green3[64]; //notice how more resolution will eat up more of your precious RAM int level=0;//keeps track of which level we are shifting data to int anodelevel=0;//this increments through the anode levels int BAM_Bit, BAM_Counter=0; // Bit Angle Modulation variables to keep track of things //These variables can be used for other things unsigned long start;//for a millis timer to cycle through the animations //****setup****setup****setup****setup****setup****setup****setup****setup****setup****setup****setup****setup****setup void setup(){ SPI.setBitOrder(MSBFIRST);//Most Significant Bit First SPI.setDataMode(SPI_MODE0);// Mode 0 Rising edge of data, keep clock low SPI.setClockDivider(SPI_CLOCK_DIV2);//Run the data in at 16MHz/2 - 8MHz //Serial.begin(115200);// if you need it? noInterrupts();// kill interrupts until everybody is set up //We use Timer 1 to refresh the cube TCCR1A = B00000000;//Register A all 0's since we're not toggling any pins TCCR1B = B00001011;//bit 3 set to place in CTC mode, will call an interrupt on a counter match //bits 0 and 1 are set to divide the clock by 64, so 16MHz/64=250kHz TIMSK1 = B00000010;//bit 1 set to call the interrupt on an OCR1A match OCR1A=30; // you can play with this, but I set it to 30, which means: //our clock runs at 250kHz, which is 1/250kHz = 4us //with OCR1A set to 30, this means the interrupt will be called every (30+1)x4us=124us, // which gives a multiplex frequency of about 8kHz // here I just set up the anode array, this is what's written to the anode shift register, to enable each level anode[0]=B00000001; anode[1]=B00000010; anode[2]=B00000100; anode[3]=B00001000; anode[4]=B00010000; anode[5]=B00100000; anode[6]=B01000000; anode[7]=B10000000; // don't hate on how I assigned the values to this register! haha //finally set up the Outputs pinMode(latch_pin, OUTPUT);//Latch pinMode(data_pin, OUTPUT);//MOSI DATA pinMode(clock_pin, OUTPUT);//SPI Clock //pinMode(blank_pin, OUTPUT);//Output Enable important to do this last, so LEDs do not flash on boot up SPI.begin();//start up the SPI library interrupts();//let the show begin, this lets the multiplexing start }//***end setup***end setup***end setup***end setup***end setup***end setup***end setup***end setup***end setup***end setup void loop(){//***start loop***start loop***start loop***start loop***start loop***start loop***start loop***start loop***start loop //Each animation located in a sub routine // To control an LED, you simply: // LED(level you want 0-7, row you want 0-7, column you want 0-7, red brighness 0-15, green brighness 0-15, blue brighness 0-15); delay(750); numbers(); delay(200); all_flicker1(); random_colors(); back_front(); //clean(); right_left(); //clean(); up_down1(); clean(); rainVersionTwo(); //folder(); //sinwaveTwo(); wipe_out(); right_left1(); clean(); bouncyvTwo(); // snake color_wheel(); color_wheelTWO(); clean(); //********************************************************* // parts of harlem shake RGB_color_stripes(); all_flicker(); all_colors_up_down(); random_colors(); clean(); two_birds(); up_down(); clean(); two_birds(); clean(); //********************************************************* }//***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop void LED(int level, int row, int column, byte red, byte green, byte blue){ //****LED Routine****LED Routine****LED Routine****LED Routine //This is where it all starts //This routine is how LEDs are updated, with the inputs for the LED location and its R G and B brightness levels // First, check and make sure nothing went beyond the limits, just clamp things at either 0 or 7 for location, and 0 or 15 for brightness if(level<0) level=0; if(level>7) level=7; if(row<0) row=0; if(row>7) row=7; if(column<0) column=0; if(column>7) column=7; if(red<0) red=0; if(red>15) red=15; if(green<0) green=0; if(green>15) green=15; if(blue<0) blue=0; if(blue>15) blue=15; //There are 512 LEDs in the cube, so when we write to level 2, column 5, row 4, that needs to be translated into a number from 0 to 511 //This looks confusing, I know... int whichbyte = int(((level*64)+(row*8)+column)/8); // The first level LEDs are first in the sequence, then 2nd level, then third, and so on //the (level*64) is what indexes the level's starting place, so level 0 are LEDs 0-63, level 1 are LEDs 64-127, and so on //The column counts left to right 0-7 and the row is back to front 0-7 //This means that if you had level 0, row 0, the bottom back row would count from 0-7, //so if you looked down on the cube, and only looked at the bottom level // 00 01 02 03 04 05 06 07 // 08 09 10 11 12 13 14 15 // 16 17 18 19 20 21 22 23 // 24 25 26 27 28 29 30 31 // 32 33 34 35 36 37 38 39 // 40 41 42 43 44 45 46 47 // 48 49 50 51 52 53 54 55 // 56 57 58 59 60 61 62 63 //Then, if you incremented the level, the top right of the grid above would start at 64 //The reason for doing this, is so you don't have to memorize a number for each LED, allowing you to use level, row, column //Now, what about the divide by 8 in there? //...well, we have 8 bits per byte, and we have 64 bytes in memory for all 512 bits needed for each LED, so //we divide the number we just found by 8, and take the integ7er of it, so we know which byte, that bit is located //confused? that's ok, let's take an example, if we wanted to write to the LED to the last LED in the cube, we would write a 7, 7, 7 // giving (7*64)+(7*8)=7 = 511, which is right, but now let's divide it by 8, 511/8 = 63.875, and take the int of it so, we get 63, //this is the last byte in the array, which is right since this is the last LED // This next variable is the same thing as before, but here we don't divide by 8, so we get the LED number 0-511 int wholebyte=(level*64)+(row*8)+column; //This will all make sense in a sec //This is 4 bit color resolution, so each color contains x4 64 byte arrays, explanation below: bitWrite(red0[whichbyte], wholebyte-(8*whichbyte), bitRead(red, 0)); bitWrite(red1[whichbyte], wholebyte-(8*whichbyte), bitRead(red, 1)); bitWrite(red2[whichbyte], wholebyte-(8*whichbyte), bitRead(red, 2)); bitWrite(red3[whichbyte], wholebyte-(8*whichbyte), bitRead(red, 3)); bitWrite(green0[whichbyte], wholebyte-(8*whichbyte), bitRead(green, 0)); bitWrite(green1[whichbyte], wholebyte-(8*whichbyte), bitRead(green, 1)); bitWrite(green2[whichbyte], wholebyte-(8*whichbyte), bitRead(green, 2)); bitWrite(green3[whichbyte], wholebyte-(8*whichbyte), bitRead(green, 3)); bitWrite(blue0[whichbyte], wholebyte-(8*whichbyte), bitRead(blue, 0)); bitWrite(blue1[whichbyte], wholebyte-(8*whichbyte), bitRead(blue, 1)); bitWrite(blue2[whichbyte], wholebyte-(8*whichbyte), bitRead(blue, 2)); bitWrite(blue3[whichbyte], wholebyte-(8*whichbyte), bitRead(blue, 3)); //Are you now more confused? You shouldn't be! It's starting to make sense now. Notice how each line is a bitWrite, which is, //bitWrite(the byte you want to write to, the bit of the byte to write, and the 0 or 1 you want to write) //This means that the 'whichbyte' is the byte from 0-63 in which the bit corresponding to the LED from 0-511 //Is making sense now why we did that? taking a value from 0-511 and converting it to a value from 0-63, since each LED represents a bit in //an array of 64 bytes. //Then next line is which bit 'wholebyte-(8*whichbyte)' //This is simply taking the LED's value of 0-511 and subracting it from the BYTE its bit was located in times 8 //Think about it, byte 63 will contain LEDs from 504 to 511, so if you took 505-(8*63), you get a 1, meaning that, //LED number 505 is is located in bit 1 of byte 63 in the array //is that it? No, you still have to do the bitRead of the brightness 0-15 you are trying to write, //if you wrote a 15 to RED, all 4 arrays for that LED would have a 1 for that bit, meaning it will be on 100% //This is why the four arrays read 0-4 of the value entered in for RED, GREEN, and BLUE //hopefully this all makes some sense? }//****LED routine end****LED routine end****LED routine end****LED routine end****LED routine end****LED routine end****LED routine end ISR(TIMER1_COMPA_vect){//***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM //This routine is called in the background automatically at frequency set by OCR1A //In this code, I set OCR1A to 30, so this is called every 124us, giving each level in the cube 124us of ON time //There are 8 levels, so we have a maximum brightness of 1/8, since the level must turn off before the next level is turned on //The frequency of the multiplexing is then 124us*8=992us, or 1/992us= about 1kHz PORTD |= 1<<blank_pin;//The first thing we do is turn all of the LEDs OFF, by writing a 1 to the blank pin //Note, in my bread-boarded version, I was able to move this way down in the cube, meaning that the OFF time was minimized //do to signal integrity and parasitic capcitance, my rise/fall times, required all of the LEDs to first turn off, before updating //otherwise you get a ghosting effect on the previous level //This is 4 bit 'Bit angle Modulation' or BAM, There are 8 levels, so when a '1' is written to the color brightness, //each level will have a chance to light up for 1 cycle, the BAM bit keeps track of which bit we are modulating out of the 4 bits //Bam counter is the cycle count, meaning as we light up each level, we increment the BAM_Counter if(BAM_Counter==8) BAM_Bit++; else if(BAM_Counter==24) BAM_Bit++; else if(BAM_Counter==56) BAM_Bit++; BAM_Counter++;//Here is where we increment the BAM counter switch (BAM_Bit){//The BAM bit will be a value from 0-3, and only shift out the arrays corresponding to that bit, 0-3 //Here's how this works, each case is the bit in the Bit angle modulation from 0-4, //Next, it depends on which level we're on, so the byte in the array to be written depends on which level, but since each level contains 64 LED, //we only shift out 8 bytes for each color case 0: for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(red0[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(green0[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(blue0[shift_out]); break; case 1: for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(red1[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(green1[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(blue1[shift_out]); break; case 2: for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(red2[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(green2[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(blue2[shift_out]); break; case 3: for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(red3[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(green3[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(blue3[shift_out]); //Here is where the BAM_Counter is reset back to 0, it's only 4 bit, but since each cycle takes 8 counts, //, it goes 0 8 16 32, and when BAM_counter hits 64 we reset the BAM if(BAM_Counter==120){ BAM_Counter=0; BAM_Bit=0; } break; }//switch_case SPI.transfer(anode[anodelevel]);//finally, send out the anode level byte PORTD |= 1<<latch_pin;//Latch pin HIGH PORTD &= ~(1<<latch_pin);//Latch pin LOW PORTD &= ~(1<<blank_pin);//Blank pin LOW to turn on the LEDs with the new data anodelevel++;//inrement the anode level level = level+8;//increment the level variable by 8, which is used to shift out data, since the next level woudl be the next 8 bytes in the arrays if(anodelevel==8)//go back to 0 if max is reached anodelevel=0; if(level==64)//if you hit 64 on level, this means you just sent out all 63 bytes, so go back level=0; pinMode(blank_pin, OUTPUT);//moved down here so outputs are all off until the first call of this function }//***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END //*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE //*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE //*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE //*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE void wipe_out(){//*****wipe_out*****wipe_out*****wipe_out*****wipe_out*****wipe_out*****wipe_out*****wipe_out*****wipe_out int xxx=0, yyy=0, zzz=0; int fx=random(8), fy=random(8), fz=random(8), direct, fxm=1, fym=1, fzm=1, fxo=0, fyo=0, fzo=0; int ftx=random(8), fty=random(8), ftz=random(8), ftxm=1, ftym=1, ftzm=1, ftxo=0, ftyo=0, ftzo=0; int select, rr, gg, bb, rrt, ggt, bbt; for(xxx=0; xxx<8; xxx++){ for(yyy=0; yyy<8; yyy++){ for(zzz=0; zzz<8; zzz++){ LED(xxx, yyy, zzz, 0, 0, 0); }}} select=random(3); if(select==0){ rr=random(1, 16); gg=random(1, 16); bb=0;} if(select==1){ rr=random(1, 16); gg=0; bb=random(1, 16);} if(select==2){ rr=0; gg=random(1, 16); bb=random(1, 16);} select=random(3); if(select==0){ rrt=random(1, 16); ggt=random(1, 16); bbt=0;} if(select==1){ rrt=random(1, 16); ggt=0; bbt=random(1, 16);} if(select==2){ rrt=0; ggt=random(1, 16); bbt=random(1, 16);} start=millis(); while(millis()-start<100000){ //fx=random(8); fy=random(8); fz=random(8); LED(fxo, fyo, fzo, 0, 0, 0); LED(fxo, fyo, fzo+1, 0, 0, 0); LED(fxo, fyo, fzo-1, 0, 0, 0); LED(fxo+1, fyo, fzo, 0, 0, 0); LED(fxo-1, fyo, fzo, 0, 0, 0); LED(fxo, fyo+1, fzo, 0, 0, 0); LED(fxo, fyo-1, fzo, 0, 0, 0); LED(ftxo, ftyo, ftzo, 0, 0, 0); LED(ftxo, ftyo, ftzo+1, 0, 0, 0); LED(ftxo, ftyo, ftzo-1, 0, 0, 0); LED(ftxo+1, ftyo, ftzo, 0, 0, 0); LED(ftxo-1, ftyo, ftzo, 0, 0, 0); LED(ftxo, ftyo+1, ftzo, 0, 0, 0); LED(ftxo, ftyo-1, ftzo, 0, 0, 0); LED(ftx, fty, ftz, rr, gg, bb); LED(ftx, fty, ftz+1, rr, gg, bb); LED(ftx, fty, ftz-1, rr, gg, bb); LED(ftx+1, fty, ftz, rr, gg, bb); LED(ftx-1, fty, ftz, rr, gg, bb); LED(ftx, fty+1, ftz, rr, gg, bb); LED(ftx, fty-1, ftz, rr, gg, bb); LED(fx, fy, fz, rrt, ggt, bbt); LED(fx, fy, fz+1, rrt, ggt, bbt); LED(fx, fy, fz-1, rrt, ggt, bbt); LED(fx+1, fy, fz, rrt, ggt, bbt); LED(fx-1, fy, fz, rrt, ggt, bbt); LED(fx, fy+1, fz, rrt, ggt, bbt); LED(fx, fy-1, fz, rrt, ggt, bbt); delay(10); fxo=fx; fyo=fy; fzo=fz; ftxo=ftx; ftyo=fty; ftzo=ftz; direct=random(3); if(direct==0) fx= fx+fxm; if(direct==1) fy= fy+fym; if(direct==2) fz= fz+fzm; if(fx<0){ fx=0; fxm=1;} if(fx>7){ fx=7; fxm=-1;} if(fy<0){ fy=0; fym=1;} if(fy>7){ fy=7; fym=-1;} if(fz<0){ fz=0; fzm=1;} if(fz>7){ fz=7; fzm=-1;} direct=random(3); if(direct==0) ftx= ftx+ftxm; if(direct==1) fty= fty+ftym; if(direct==2) ftz= ftz+ftzm; if(ftx<0){ ftx=0; ftxm=1;} if(ftx>7){ ftx=7; ftxm=-1;} if(fty<0){ fty=0; ftym=1;} if(fty>7){ fty=7; ftym=-1;} if(ftz<0){ ftz=0; ftzm=1;} if(ftz>7){ ftz=7; ftzm=-1;} }//while for(xxx=0; xxx<8; xxx++){ for(yyy=0; yyy<8; yyy++){ for(zzz=0; zzz<8; zzz++){ LED(xxx, yyy, zzz, 0, 0, 0); }}} }//wipeout void rainVersionTwo(){//****rainVersionTwo****rainVersionTwo****rainVersionTwo****rainVersionTwo****rainVersionTwo int x[64], y[64], z[64], addr, leds=64, bright=1, ledcolor, colowheel; int xx[64], yy[64], zz[64], xold[64], yold[64], zold[64], slowdown; for(addr=0; addr<64; addr++){ x[addr]=random(8); y[addr]=random(8); z[addr]=random(8); xx[addr]=random(16); yy[addr]=random(16); zz[addr]=random(16); } start=millis(); while(millis()-start<20000){ //wipe_out(); //for(addr=0; addr<leds; addr++) //LED(zold[addr], xold[addr], yold[addr], 0, 0, 0); if(ledcolor<200){ for(addr=0; addr<leds; addr++){ LED(zold[addr], xold[addr], yold[addr], 0, 0, 0); if(z[addr]>=7) LED(z[addr], x[addr], y[addr], 0, 5, 15); if(z[addr]==6) LED(z[addr], x[addr], y[addr], 0, 1, 9); if(z[addr]==5) LED(z[addr], x[addr], y[addr], 0, 0, 10); if(z[addr]==4) LED(z[addr], x[addr], y[addr], 1, 0, 11); if(z[addr]==3) LED(z[addr], x[addr], y[addr], 3, 0, 12); if(z[addr]==2) LED(z[addr], x[addr], y[addr], 10, 0, 15); if(z[addr]==1) LED(z[addr], x[addr], y[addr], 10, 0, 10); if(z[addr]<=0) LED(z[addr], x[addr], y[addr], 10, 0, 1); }}//200 if(ledcolor>=200&&ledcolor<300){ for(addr=0; addr<leds; addr++){ LED(zold[addr], xold[addr], yold[addr], 0, 0, 0); if(z[addr]>=7) LED(z[addr], x[addr], y[addr], 15, 15, 0); if(z[addr]==6) LED(z[addr], x[addr], y[addr], 10, 10, 0); if(z[addr]==5) LED(z[addr], x[addr], y[addr], 15, 5, 0); if(z[addr]==4) LED(z[addr], x[addr], y[addr], 15, 2, 0); if(z[addr]==3) LED(z[addr], x[addr], y[addr], 15, 1, 0); if(z[addr]==2) LED(z[addr], x[addr], y[addr], 15, 0, 0); if(z[addr]==1) LED(z[addr], x[addr], y[addr], 12, 0, 0); if(z[addr]<=0) LED(z[addr], x[addr], y[addr], 10, 0, 0); }}//300 if(ledcolor>=300&&ledcolor<400){ } if(ledcolor>=500&&ledcolor<600){ } ledcolor++; if(ledcolor>=300) ledcolor=0; for(addr=0; addr<leds; addr++){ xold[addr]=x[addr]; yold[addr]=y[addr]; zold[addr]=z[addr]; } delay(15); //for(addr=0; addr<leds; addr++) //LED(z[addr], x[addr], y[addr], 0, 0, 0); for(addr=0; addr<leds; addr++){ //slowdown = random(2); //if(bitRead(z[addr],0)) z[addr] = z[addr]-1; // x[addr] = x[addr]+1; // y[addr] = y[addr]+1; if(z[addr]<random(-100,0)){ x[addr]=random(8); y[addr]=random(8); int select=random(3); if(select==0){ xx[addr]=0; zz[addr]=random(16); yy[addr]=random(16); //zz[addr]=0; } if(select==1){ xx[addr]=random(16); zz[addr]=0; yy[addr]=random(16); //yy[addr]=0; } if(select==2){ xx[addr]=random(16); zz[addr]=random(16); yy[addr]=0; } z[addr]=7; }//-check }//add }//while }//rainv2 void folder(){//****folder****folder****folder****folder****folder****folder****folder****folder****folder int xx, yy, zz, pullback[16], state=0, backorfront=7;//backorfront 7 for back 0 for front int folderaddr[16], LED_Old[16], oldpullback[16], ranx=random(16), rany=random(16), ranz=random(16), ranselect; int bot=0, top=1, right=0, left=0, back=0, front=0, side=0, side_select; folderaddr[0]=-7; folderaddr[1]=-6; folderaddr[2]=-5; folderaddr[3]=-4; folderaddr[4]=-3; folderaddr[5]=-2; folderaddr[6]=-1; folderaddr[7]=0; for(xx=0; xx<8; xx++){ oldpullback[xx]=0; pullback[xx]=0; } start=millis(); while(millis()-start<10000){ if(top==1){ if(side==0){ //top to left-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(7-LED_Old[yy], yy-oldpullback[yy],xx , 0, 0, 0); LED(7-folderaddr[yy], yy-pullback[yy],xx , ranx, rany, ranz); }}} if(side==2){ //top to back-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(7-LED_Old[yy], xx, yy-oldpullback[yy], 0, 0, 0); LED(7-folderaddr[yy], xx, yy-pullback[yy], ranx, rany, ranz); }}} if(side==3){ //top-side to front-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(7-LED_Old[7-yy], xx, yy+oldpullback[yy], 0, 0, 0); LED(7-folderaddr[7-yy], xx, yy+pullback[yy], ranx, rany, ranz); }}} if(side==1){ //top-side to right for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(7-LED_Old[7-yy], yy+oldpullback[yy],xx , 0, 0, 0); LED(7-folderaddr[7-yy], yy+pullback[yy],xx , ranx, rany, ranz); }}} }//top if(right==1){ if(side==4){ //right-side to top for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy+oldpullback[7-yy],7-LED_Old[7-yy],xx , 0, 0, 0); LED( yy+pullback[7-yy],7-folderaddr[7-yy],xx , ranx, rany, ranz); }}} if(side==3){ //right-side to front-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, 7-LED_Old[7-yy],yy+oldpullback[yy], 0, 0, 0); LED(xx,7-folderaddr[7-yy], yy+pullback[yy], ranx, rany, ranz); }}} if(side==2){ //right-side to back-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, 7-LED_Old[yy],yy-oldpullback[yy], 0, 0, 0); LED(xx,7-folderaddr[yy], yy-pullback[yy], ranx, rany, ranz); }}} if(side==5){ //right-side to bottom for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy-oldpullback[yy],7-LED_Old[yy],xx , 0, 0, 0); LED( yy-pullback[yy],7-folderaddr[yy],xx , ranx, rany, ranz); }}} }//right if(left==1){ if(side==4){ //left-side to top for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy+oldpullback[yy],LED_Old[7-yy],xx , 0, 0, 0); LED( yy+pullback[yy],folderaddr[7-yy],xx , ranx, rany, ranz); }}} if(side==3){ //left-side to front-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, LED_Old[7-yy],yy+oldpullback[yy], 0, 0, 0); LED(xx,folderaddr[7-yy], yy+pullback[yy], ranx, rany, ranz); }}} if(side==2){ //left-side to back-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, LED_Old[yy],yy-oldpullback[yy], 0, 0, 0); LED(xx,folderaddr[yy], yy-pullback[yy], ranx, rany, ranz); }}} if(side==5){ //left-side to bottom for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy-oldpullback[yy],LED_Old[yy],xx , 0, 0, 0); LED( yy-pullback[yy],folderaddr[yy],xx , ranx, rany, ranz); }}} }//left if(back==1){ if(side==1){ //back-side to right-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, yy+oldpullback[yy],LED_Old[7-yy], 0, 0, 0); LED(xx, yy+pullback[yy],folderaddr[7-yy], ranx, rany, ranz); }}} if(side==4){ // back-side to top-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy+oldpullback[yy],xx,LED_Old[7-yy] , 0, 0, 0); LED( yy+pullback[yy],xx,folderaddr[7-yy] , ranx, rany, ranz); }}} if(side==5){ // back-side to bottom for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy-oldpullback[yy],xx,LED_Old[yy] , 0, 0, 0); LED( yy-pullback[yy],xx,folderaddr[yy] , ranx, rany, ranz); }}}//state1 if(side==0){ //back-side to left-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, yy-oldpullback[yy],LED_Old[yy], 0, 0, 0); LED(xx, yy-pullback[yy],folderaddr[yy], ranx, rany, ranz); }}} }//back if(bot==1){ if(side==1){ // bottom-side to right-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(LED_Old[7-yy], yy+oldpullback[yy],xx , 0, 0, 0); LED(folderaddr[7-yy], yy+pullback[yy],xx , ranx, rany, ranz); }}} if(side==3){ //bottom to front-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(LED_Old[7-yy], xx, yy+oldpullback[yy], 0, 0, 0); LED(folderaddr[7-yy], xx, yy+pullback[yy], ranx, rany, ranz); }}} if(side==2){ //bottom to back-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(LED_Old[yy], xx, yy-oldpullback[yy], 0, 0, 0); LED(folderaddr[yy], xx, yy-pullback[yy], ranx, rany, ranz); }}} if(side==0){ //bottom to left-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(LED_Old[yy], yy-oldpullback[yy],xx , 0, 0, 0); LED(folderaddr[yy], yy-pullback[yy],xx , ranx, rany, ranz); }}} }//bot if(front==1){ if(side==0){ //front-side to left-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, yy-oldpullback[yy],7-LED_Old[yy], 0, 0, 0); LED(xx, yy-pullback[yy],7-folderaddr[yy], ranx, rany, ranz); }}} if(side==5){ // front-side to bottom for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy-oldpullback[yy],xx,7-LED_Old[yy] , 0, 0, 0); LED( yy-pullback[yy],xx,7-folderaddr[yy] , ranx, rany, ranz); }}} if(side==4){ // front-side to top-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy+oldpullback[yy],xx,7-LED_Old[7-yy] , 0, 0, 0); LED( yy+pullback[yy],xx,7-folderaddr[7-yy] , ranx, rany, ranz); }}} if(side==1){ //front-side to right-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, yy+oldpullback[yy],7-LED_Old[7-yy], 0, 0, 0); LED(xx, yy+pullback[yy],7-folderaddr[7-yy], ranx, rany, ranz); }}} }//front delay(5);// DELAY DELAY DELAY for(xx=0; xx<8; xx++){ LED_Old[xx]=folderaddr[xx]; oldpullback[xx]=pullback[xx]; } if(folderaddr[7]==7){ // pullback=8; for(zz=0; zz<8; zz++) pullback[zz] = pullback[zz]+1; if(pullback[7]==8){//finished with fold delay(10); //state++; //if(state==4) //state=0; ranselect= random(3); if(ranselect==0){ ranx=0; rany=random(1,16); ranz=random(1,16);} if(ranselect==1){ ranx=random(1,16); rany=0; ranz=random(1,16);} if(ranselect==2){ ranx=random(1,16); rany=random(1,16); ranz=0;} side_select=random(3); if(top==1){// TOP top=0; if(side==0){//top to left left=1; if(side_select==0) side=2; if(side_select==1) side=3; //if(side_select==2) side=4; if(side_select==2) side=5;} else if(side==1){//top to right right=1; if(side_select==0) side=5; if(side_select==1) side=2; if(side_select==2) side=3; //if(side_select==3) side=4; } else if(side==2){//top to back back=1; if(side_select==0) side=0; if(side_select==1) side=1; if(side_select==2) side=5; //if(side_select==3) side=4; } else if(side==3){//top to front front=1; if(side_select==0) side=0; if(side_select==1) side=1; if(side_select==2) side=5; //if(side_select==3) side=4; } } else//top if(bot==1){// BOTTOM bot=0; if(side==0){//bot to left left=1; if(side_select==0) side=2; if(side_select==1) side=3; if(side_select==2) side=4; //if(side_select==3) side=5; } else if(side==1){//bot to right right=1; //if(side_select==0) side=5; if(side_select==0) side=2; if(side_select==1) side=3; if(side_select==2) side=4;} else if(side==2){//bot to back back=1; if(side_select==0) side=0; if(side_select==1) side=1; //if(side_select==2) side=5; if(side_select==2) side=4;} else if(side==3){//bot to front front=1; if(side_select==0) side=0; if(side_select==1) side=1; //if(side_select==2) side=5; if(side_select==2) side=4;} } else//bot if(right==1){// RIGHT right=0; if(side==4){//right to top top=1; if(side_select==0) side=2; if(side_select==1) side=3; if(side_select==2) side=0; //if(side_select==3) side=1; } else if(side==5){//right to bot bot=1; if(side_select==0) side=0; if(side_select==1) side=2; if(side_select==2) side=3; //if(side_select==3) side=1; } else if(side==2){//right to back back=1; if(side_select==0) side=0; //if(side_select==1) side=1; if(side_select==1) side=5; if(side_select==2) side=4;} else if(side==3){//right to front front=1; if(side_select==0) side=0; //if(side_select==1) side=1; if(side_select==1) side=5; if(side_select==2) side=4;} } else//bot if(left==1){// LEFT left=0; if(side==4){//left to top top=1; //if(side_select==0) side=2; if(side_select==0) side=3; if(side_select==1) side=2; if(side_select==2) side=1;} else if(side==5){//left to bot bot=1; //if(side_select==0) side=0; if(side_select==0) side=2; if(side_select==1) side=3; if(side_select==2) side=1;} else if(side==2){//left to back back=1; //if(side_select==0) side=0; if(side_select==0) side=1; if(side_select==1) side=5; if(side_select==2) side=4;} else if(side==3){//left to front front=1; //if(side_select==0) side=0; if(side_select==0) side=1; if(side_select==1) side=5; if(side_select==2) side=4;} } else//bot if(front==1){// front front=0; if(side==4){//front to top top=1; if(side_select==0) side=2; //if(side_select==1) side=3; if(side_select==1) side=0; if(side_select==2) side=1;} else if(side==5){//front to bot bot=1; if(side_select==0) side=0; if(side_select==1) side=2; //if(side_select==2) side=3; if(side_select==2) side=1;} else if(side==0){//front to left left=1; if(side_select==0) side=2; // if(side_select==1) side=3; if(side_select==1) side=5; if(side_select==2) side=4;} else if(side==1){//front to right right=1; if(side_select==0) side=2; // if(side_select==1) side=3; if(side_select==1) side=5; if(side_select==2) side=4;} } else//bot if(back==1){// back back=0; if(side==4){//back to top top=1; //if(side_select==0) side=2; if(side_select==0) side=3; if(side_select==1) side=0; if(side_select==2) side=1;} else if(side==5){//back to bot bot=1; if(side_select==0) side=0; //if(side_select==1) side=2; if(side_select==1) side=3; if(side_select==2) side=1;} else if(side==0){//back to left left=1; //if(side_select==0) side=2; if(side_select==0) side=3; if(side_select==1) side=5; if(side_select==2) side=4;} else if(side==1){//back to right right=1; //if(side_select==0) side=2; if(side_select==0) side=3; if(side_select==1) side=5; if(side_select==2) side=4;} } //bot // for(yy=0; yy<8; yy++) //for(xx=0; xx<8; xx++) //LED(LED_Old[yy], xx, yy-oldpullback[yy], 0, 0, 0); for(xx=0; xx<8; xx++){ oldpullback[xx]=0; pullback[xx]=0;} folderaddr[0]=-8; folderaddr[1]=-7; folderaddr[2]=-6; folderaddr[3]=-5; folderaddr[4]=-4; folderaddr[5]=-3; folderaddr[6]=-2; folderaddr[7]=-1; }//pullback==7 }//folderaddr==7 if(folderaddr[7]!=7) for(zz=0; zz<8; zz++) folderaddr[zz] = folderaddr[zz]+1; }//while }//folder void bouncyvTwo(){//****bouncyTwo****bouncyTwo****bouncyTwo****bouncyTwo****bouncyTwo****bouncyTwo****bouncyTwo int wipex, wipey, wipez, ranr, rang, ranb, select, oldx[50], oldy[50], oldz[50]; int x[50], y[50], z[50], addr, ledcount=20, direct, direcTwo; int xx[50], yy[50], zz[50]; int xbit=1, ybit=1, zbit=1; for(addr=0; addr<ledcount+1; addr++){ oldx[addr]=0; oldy[addr]=0; oldz[addr]=0; x[addr]=0; y[addr]=0; z[addr]=0; xx[addr]=0; yy[addr]=0; zz[addr]=0; } start=millis(); while(millis()-start<15000){ direct = random(3); for(addr=1; addr<ledcount+1; addr++){ LED(oldx[addr], oldy[addr],oldz[addr], 0,0,0); LED(x[addr], y[addr], z[addr], xx[addr],yy[addr],zz[addr]); } for(addr=1; addr<ledcount+1; addr++){ oldx[addr]=x[addr]; oldy[addr]=y[addr]; oldz[addr]=z[addr]; } delay(20); //direcTwo=random(3); //if(direcTwo==1) if(direct==0) x[0]= x[0]+xbit; if(direct==1) y[0]= y[0]+ybit; if(direct==2) z[0]= z[0]+zbit; if(direct==3) x[0]= x[0]-xbit; if(direct==4) y[0]= y[0]-ybit; if(direct==5) z[0]= z[0]-zbit; if(x[0]>7){ xbit=-1; x[0]=7; xx[0]=random(16); yy[0]=random(16); zz[0]=0; //wipe_out(); } if(x[0]<0){ xbit=1; x[0]=0; xx[0]=random(16); yy[0]=0; zz[0]=random(16); //wipe_out(); } if(y[0]>7){ ybit=-1; y[0]=7; xx[0]=0; yy[0]=random(16); zz[0]=random(16); //wipe_out(); } if(y[0]<0){ ybit=1; y[0]=0; xx[0]=0; yy[0]=random(16); zz[0]=random(16); //wipe_out(); } if(z[0]>7){ zbit=-1; z[0]=7; xx[0]=random(16); yy[0]=0; zz[0]=random(16); //wipe_out(); } if(z[0]<0){ zbit=1; z[0]=0; xx[0]=random(16); yy[0]=random(16); zz[0]=0; //wipe_out(); } for(addr=ledcount; addr>0; addr--){ x[addr]=x[addr-1]; y[addr]=y[addr-1]; z[addr]=z[addr-1]; xx[addr]=xx[addr-1]; yy[addr]=yy[addr-1]; zz[addr]=zz[addr-1]; } }//while }//bouncyv2 void sinwaveTwo(){//*****sinewaveTwo*****sinewaveTwo*****sinewaveTwo*****sinewaveTwo*****sinewaveTwo*****sinewaveTwo int sinewavearray[8], addr, sinemult[8], colselect, rr=0, gg=0, bb=15, addrt; int sinewavearrayOLD[8], select, subZ=-7, subT=7, multi=0;//random(-1, 2); sinewavearray[0]=0; sinemult[0]=1; sinewavearray[1]=1; sinemult[1]=1; sinewavearray[2]=2; sinemult[2]=1; sinewavearray[3]=3; sinemult[3]=1; sinewavearray[4]=4; sinemult[4]=1; sinewavearray[5]=5; sinemult[5]=1; sinewavearray[6]=6; sinemult[6]=1; sinewavearray[7]=7; sinemult[7]=1; start=millis(); while(millis()-start<15000){ for(addr=0; addr<8; addr++){ if(sinewavearray[addr]==7){ sinemult[addr]=-1; } if(sinewavearray[addr]==0){ sinemult[addr]=1; } sinewavearray[addr] = sinewavearray[addr] + sinemult[addr]; }//addr if(sinewavearray[0]==7){ select=random(3); if(select==0){ rr=random(1, 16); gg=random(1, 16); bb=0;} if(select==1){ rr=random(1, 16); gg=0; bb=random(1, 16);} if(select==2){ rr=0; gg=random(1, 16); bb=random(1, 16);} /* if(multi==1) multi=0; else multi=1; */ } for(addr=0; addr<8; addr++){ LED(sinewavearrayOLD[addr], addr, 0, 0, 0, 0); LED(sinewavearrayOLD[addr], 0, addr, 0, 0, 0); LED(sinewavearrayOLD[addr], subT-addr, 7, 0, 0, 0); LED(sinewavearrayOLD[addr], 7, subT-addr, 0, 0, 0); LED(sinewavearray[addr], addr, 0, rr, gg, bb); LED(sinewavearray[addr], 0, addr, rr, gg, bb); LED(sinewavearray[addr], subT-addr,7, rr, gg, bb); LED(sinewavearray[addr], 7, subT-addr, rr, gg, bb); }//} for(addr=1; addr<7; addr++){ LED(sinewavearrayOLD[addr+multi*1], addr, 1, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*1], 1, addr, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*1], subT-addr, 6, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*1], 6, subT-addr, 0, 0, 0); LED(sinewavearray[addr+multi*1], addr, 1, rr, gg, bb); LED(sinewavearray[addr+multi*1], 1, addr, rr, gg, bb); LED(sinewavearray[addr+multi*1], subT-addr,6, rr, gg, bb); LED(sinewavearray[addr+multi*1], 6, subT-addr, rr, gg, bb); } for(addr=2; addr<6; addr++){ LED(sinewavearrayOLD[addr+multi*2], addr, 2, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*2], 2, addr, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*2], subT-addr, 5, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*2], 5, subT-addr, 0, 0, 0); LED(sinewavearray[addr+multi*2], addr, 2, rr, gg, bb); LED(sinewavearray[addr+multi*2], 2, addr, rr, gg, bb); LED(sinewavearray[addr+multi*2], subT-addr,5, rr, gg, bb); LED(sinewavearray[addr+multi*2], 5, subT-addr, rr, gg, bb); } for(addr=3; addr<5; addr++){ LED(sinewavearrayOLD[addr+multi*3], addr, 3, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*3], 3, addr, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*3], subT-addr, 4, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*3], 4, subT-addr, 0, 0, 0); LED(sinewavearray[addr+multi*3], addr, 3, rr, gg, bb); LED(sinewavearray[addr+multi*3], 3, addr, rr, gg, bb); LED(sinewavearray[addr+multi*3], subT-addr,4, rr, gg, bb); LED(sinewavearray[addr+multi*3], 4, subT-addr, rr, gg, bb); } for(addr=0; addr<8; addr++) sinewavearrayOLD[addr]=sinewavearray[addr]; delay(30); }//while }//SinewaveTwo void color_wheel(){ int xx, yy, zz, ww, rr=1, gg=1, bb=1, ranx, rany, swiper; start=millis(); while(millis()-start<10000){ swiper=random(3); ranx=random(16); rany=random(16); for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, 0, rany); }} delay(50); } ranx=random(16); rany=random(16); for(xx=7;xx>=0;xx--){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx,yy, zz, ranx, rany, 0); }} delay(50); } ranx=random(16); rany=random(16); for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx,yy, zz, 0, ranx, rany); }} delay(50); } ranx=random(16); rany=random(16); for(xx=7;xx>=0;xx--){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx,yy, zz, rany, ranx, 0); }} delay(50); } }//while }//color wheel void color_wheelTWO(){//*****colorWheelTwo*****colorWheelTwo*****colorWheelTwo*****colorWheelTwo*****colorWheelTwo int xx, yy, zz, ww, rr=1, gg=1, bb=1, ranx, rany ,ranz, select, swiper; start=millis(); while(millis()-start<10000){ swiper=random(6); select=random(3); if(select==0){ ranx=0; rany=random(16); ranz=random(16);} if(select==1){ ranx=random(16); rany=0; ranz=random(16);} if(select==2){ ranx=random(16); rany=random(16); ranz=0;} if(swiper==0){ for(yy=0;yy<8;yy++){//left to right for(xx=0;xx<8;xx++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==1){//bot to top for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==2){//back to front for(zz=0;zz<8;zz++){ for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==3){ for(yy=7;yy>=0;yy--){//right to left for(xx=0;xx<8;xx++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==4){//top to bot for(xx=7;xx>=0;xx--){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==5){//front to back for(zz=7;zz>=0;zz--){ for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} }//while }//color wheel // RGB color stripes RGB color stripes RGB color stripes RGB color stripes RGB color stripes RGB color stripes void RGB_color_stripes(){ int greenx = random(1,7),greeny = random(1,7),bluex = random(1,7),bluey = random(1,7),redx = random(1,7),redy = random(1,7); int greenmult=1, bluemult=1, redmult=1; int greenmulty=1, bluemulty=1, redmulty=1; int oredx, oredy,obluex,obluey,ogreenx,ogreeny, cb1=15,cb2=0,cr1=15,cr2=0,cg1=15,cg2=0; int time_counter=10, timemult=2; int m; int c1=1,c2=1,c3=1,xmult=1,ymult=1,zmult=1,x=4,y=4,z=4,color_select, xo, yo, zo; int c21=1,c22=1,c23=1,x2mult=1,y2mult=1,z2mult=1,x2=2,y2=2,z2=2,color_select2, x2o, y2o, z2o; int counter, i, j, k; for(counter=0; counter<85; counter++){ //time of movement red for(i=0; i<8; i++){ LED(i,oredx,oredx,0,0,0); } for(i=0; i<8; i++){ LED(i,redx,redx,15,0,0); } oredx=redx; oredy=redy; for(i=100; i>time_counter; i--) delay(1); // time_counter=time_counter+timemult; // if(time_counter>100||time_counter<10) // timemult=timemult*-1; if(redy>6 || redy<1){ redmulty=redmulty*-1; } if(redx>6 || redx<1){ redmult=redmult*-1; cr1=random(16); cr2=random(16); } redy=redy+redmulty; redx=redx+redmult; }//counter for(counter=0; counter<85; counter++){ //time of movement red green for(i=0; i<8; i++){ LED(i,oredx,oredx,0,0,0); LED(ogreenx,i,ogreeny,0,0,0); } for(i=0; i<8; i++){ LED(i,redx,redx,15,0,0); LED(greenx,i,greeny,0,15,0); } ogreenx=greenx; ogreeny=greeny; oredx=redx; oredy=redy; for(i=100; i>time_counter; i--) delay(1); // time_counter=time_counter+timemult; // if(time_counter>100||time_counter<10) // timemult=timemult*-1; if(greeny>6 || greeny<1) greenmulty=greenmulty*-1; if(redy>6 || redy<1){ redmulty=redmulty*-1; } if(greenx>6 || greenx<1){ greenmult=greenmult*-1; greeny = greeny + greenmulty; cg1=random(16); cg2=random(16); } if(redx>6 || redx<1){ redmult=redmult*-1; cr1=random(16); cr2=random(16); } greenx=greenx+greenmult; redy=redy+redmulty; redx=redx+redmult; }//counter for(counter=0; counter<200; counter++){ //time of movement red green blue for(i=0; i<8; i++){ LED(i,oredx,oredx,0,0,0); LED(obluey,obluex,i,0,0,0); LED(ogreenx,i,ogreeny,0,0,0); } for(i=0; i<8; i++){ LED(i,redx,redx,15,0,0); LED(bluey,bluex,i,0,0,15); LED(greenx,i,greeny,0,15,0); } ogreenx=greenx; ogreeny=greeny; obluex=bluex; obluey=bluey; oredx=redx; oredy=redy; for(i=100; i>time_counter; i--) delay(1); // time_counter=time_counter+timemult; // if(time_counter>100||time_counter<10) // timemult=timemult*-1; if(greeny>6 || greeny<1) greenmulty=greenmulty*-1; if(bluey>6 || bluey<1) bluemulty=bluemulty*-1; if(redy>6 || redy<1){ redmulty=redmulty*-1; } if(greenx>6 || greenx<1){ greenmult=greenmult*-1; greeny = greeny + greenmulty; cg1=random(16); cg2=random(16); } if(bluex>6 || bluex<1){ bluemult=bluemult*-1; bluey=bluey+bluemulty; cb1=random(16); cb2=random(16); } if(redx>6 || redx<1){ redmult=redmult*-1; cr1=random(16); cr2=random(16); } greenx=greenx+greenmult; bluex=bluex+bluemult; redy=redy+redmulty; redx=redx+redmult; }//counter for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,0,0,0); delay(50); }//end color stripes color stripes color stripes color stripes color stripes color stripes // all flicker1 all flicker1 all flicker1 all flicker1 all flicker1 all flicker1 all flicker1 all flicker1 void all_flicker1(){ int counter, i, j, k; for(counter=0; counter<1; counter++){ for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,15,0,0); delay(100); // for(i=0; i<8; i++) // for(j=0; j<8; j++) // for(k=0; k<8; k++) // LED(i,j,k,0,0,0); // delay(50); }//counter } //end all_flicker1 end all_flicker1 end all_flicker1 end all_flicker1 en // all_flicker all_flicker all_flicker all_flicker all_flicker all_flicker all_flicker void all_flicker(){ int counter, i, j, k; for(counter=0; counter<5; counter++){ for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,15,15,15); delay(50); for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,0,0,0); delay(50); }//counter } //end all_flicker end all_flicker end all_flicker end all_flicker end all_flicker // all_colors_up_down all_colors_up_down all_colors_up_down all_colors_up_down void all_colors_up_down(){ int i, j, k, m; for(m=0; m<1; m++){ for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,0,random(16),random(16)); for(i=7; i>=0; i--) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,random(16),0,random(16)); for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,random(16),random(16),0); for(i=7; i>=0; i--) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,random(16),0,random(16)); } } // end all colors up down all colors up down all colors up down all colors up down all colors up down all colors up down // random colors random colors random colors random colors random colors random colors void random_colors(){ int m, k, c1, c2, c3; for(m=0; m<3; m++){ for(k=0; k<750; k++){ // time of effect LED(random(8),random(8),random(8),random(16),random(16),0); LED(random(8),random(8),random(8),random(16),0 ,random(16)); LED(random(8),random(8),random(8),0, random(16),random(16)); c1=random(8); c2=random(8); c3=random(8); LED(c1,c2,c3,15,15,15); // color white } // for(k=0; k<200; k++){ // LED(random(8),random(8),random(8),0,0,0); // } } } // end random colors random colors random colors random colors random colors random colors // two birds two birds two birds two birds two birds void two_birds(){ int counter; int c1=1,c2=1,c3=1,xmult=1,ymult=1,zmult=1,x=4,y=4,z=4,color_select, xo, yo, zo; int c21=1,c22=1,c23=1,x2mult=1,y2mult=1,z2mult=1,x2=2,y2=2,z2=2,color_select2, x2o, y2o, z2o; color_select=random(0,3); if(color_select==0){ c1 = 0; c2 = random(0,16); c3 = random(0,16);} if(color_select==1){ c1 = random(0,16); c2 = 0; c3 = random(0,16);} if(color_select==2){ c1 = random(0,16); c2 = random(0,16); c3 = 0;} color_select2=random(0,3); if(color_select2==0){ c21 = 0; c22 = random(0,16); c23 = random(0,16);} if(color_select2==1){ c21 = random(0,16); c22 = 0; c23 = random(0,16);} if(color_select2==2){ c21 = random(0,16); c22 = random(0,16); c23 = 0;} for(counter=0; counter<200; counter++){ LED(xo,yo,zo,0,0,0); LED(xo+1,yo,zo,0,0,0); LED(xo+2,yo,zo,0,0,0); LED(xo-1,yo,zo,0,0,0); LED(xo-2,yo,zo,0,0,0); LED(xo,yo+1,zo,0,0,0); LED(xo,yo-1,zo,0,0,0); LED(xo,yo+2,zo,0,0,0); LED(xo,yo-2,zo,0,0,0); LED(xo,yo,zo-1,0,0,0); LED(xo,yo,zo+1,0,0,0); LED(xo,yo,zo-2,0,0,0); LED(xo,yo,zo+2,0,0,0); LED(x2o,y2o,z2o,0,0,0); LED(x2o+1,y2o,z2o,0,0,0); LED(x2o+2,y2o,z2o,0,0,0); LED(x2o-1,y2o,z2o,0,0,0); LED(x2o-2,y2o,z2o,0,0,0); LED(x2o,y2o+1,z2o,0,0,0); LED(x2o,y2o-1,z2o,0,0,0); LED(x2o,y2o+2,z2o,0,0,0); LED(x2o,y2o-2,z2o,0,0,0); LED(x2o,y2o,z2o-1,0,0,0); LED(x2o,y2o,z2o+1,0,0,0); LED(x2o,y2o,z2o-2,0,0,0); LED(x2o,y2o,z2o+2,0,0,0); LED(xo+1,yo+1,zo,0,0,0); LED(xo+1,yo-1,zo,0,0,0); LED(xo-1,yo+1,zo,0,0,0); LED(xo-1,yo-1,zo,0,0,0); LED(xo+1,yo+1,zo+1,0,0,0); LED(xo+1,yo-1,zo+1,0,0,0); LED(xo-1,yo+1,zo+1,0,0,0); LED(xo-1,yo-1,zo+1,0,0,0); LED(xo+1,yo+1,zo-1,0,0,0); LED(xo+1,yo-1,zo-1,0,0,0); LED(xo-1,yo+1,zo-1,0,0,0); LED(xo-1,yo-1,zo-1,0,0,0); LED(x2o+1,y2o+1,z2o,0,0,0); LED(x2o+1,y2o-1,z2o,0,0,0); LED(x2o-1,y2o+1,z2o,0,0,0); LED(x2o-1,y2o-1,z2o,0,0,0); LED(x2o+1,y2o+1,z2o+1,0,0,0); LED(x2o+1,y2o-1,z2o+1,0,0,0); LED(x2o-1,y2o+1,z2o+1,0,0,0); LED(x2o-1,y2o-1,z2o+1,0,0,0); LED(x2o+1,y2o+1,z2o-1,0,0,0); LED(x2o+1,y2o-1,z2o-1,0,0,0); LED(x2o-1,y2o+1,z2o-1,0,0,0); LED(x2o-1,y2o-1,z2o-1,0,0,0); LED(x,y,z,c1,c2,c3); LED(x,y,z-1,c1,c2,c3); LED(x,y,z+1,c1,c2,c3); LED(x,y,z-2,c1,c2,c3); LED(x,y,z+2,c1,c2,c3); LED(x+1,y,z,c1,c2,c3); LED(x-1,y,z,c1,c2,c3); LED(x,y+1,z,c1,c2,c3); LED(x,y-1,z,c1,c2,c3); LED(x+2,y,z,c1,c2,c3); LED(x-2,y,z,c1,c2,c3); LED(x,y+2,z,c1,c2,c3); LED(x,y-2,z,c1,c2,c3); LED(x+1,y+1,z,c1,c2,c3); LED(x+1,y-1,z,c1,c2,c3); LED(x-1,y+1,z,c1,c2,c3); LED(x-1,y-1,z,c1,c2,c3); LED(x+1,y+1,z+1,c1,c2,c3); LED(x+1,y-1,z+1,c1,c2,c3); LED(x-1,y+1,z+1,c1,c2,c3); LED(x-1,y-1,z+1,c1,c2,c3); LED(x+1,y+1,z-1,c1,c2,c3); LED(x+1,y-1,z-1,c1,c2,c3); LED(x-1,y+1,z-1,c1,c2,c3); LED(x-1,y-1,z-1,c1,c2,c3); LED(x2,y2,z2,c21,c22,c23); LED(x2,y2,z2-1,c21,c22,c23); LED(x2,y2,z2+1,c21,c22,c23); LED(x2,y2,z2-2,c21,c22,c23); LED(x2,y2,z2+2,c21,c22,c23); LED(x2+1,y2,z2,c21,c22,c23); LED(x2-1,y2,z2,c21,c22,c23); LED(x2,y2+1,z2,c21,c22,c23); LED(x2,y2-1,z2,c21,c22,c23); LED(x2+2,y2,z2,c21,c22,c23); LED(x2-2,y2,z2,c21,c22,c23); LED(x2,y2+2,z2,c21,c22,c23); LED(x2,y2-2,z2,c21,c22,c23); LED(x2+1,y2+1,z2,c21,c22,c23); LED(x2+1,y2-1,z2,c21,c22,c23); LED(x2-1,y2+1,z2,c21,c22,c23); LED(x2-1,y2-1,z2,c21,c22,c23); LED(x2+1,y2+1,z2+1,c21,c22,c23); LED(x2+1,y2-1,z2+1,c21,c22,c23); LED(x2-1,y2+1,z2+1,c21,c22,c23); LED(x2-1,y2-1,z2+1,c21,c22,c23); LED(x2+1,y2+1,z2-1,c21,c22,c23); LED(x2+1,y2-1,z2-1,c21,c22,c23); LED(x2-1,y2+1,z2-1,c21,c22,c23); LED(x2-1,y2-1,z2-1,c21,c22,c23); x2o=x2; y2o=y2; z2o=z2; xo=x; yo=y; zo=z; delay(45); x = x+xmult; y= y+ymult; z= z+zmult; x2 = x2+x2mult; y2= y2+y2mult; z2= z2+z2mult; if(x>=7){ //x=7; xmult=random(-1,1); } if(y>=7){ //y=7; ymult=random(-1,1);} if(z>=7){ //z=7; zmult=random(-1,1);} if(x<=0){ //x=0; xmult=random(0,2);} if(y<=0){ //y=0; ymult=random(0,2);} if(z<=0){ //z=0; zmult=random(0,2); } if(x2>=7){ //x=7; x2mult=random(-1,1); } if(y2>=7){ //y=7; y2mult=random(-1,1);} if(z2>=7){ //z=7; z2mult=random(-1,1);} if(x2<=0){ //x=0; x2mult=random(0,2);} if(y2<=0){ //y=0; y2mult=random(0,2);} if(z<=0){ //z=0; z2mult=random(0,2); } } clean(); } // end two birds // up down up down up down up down up down up down up down up down up down up down void up_down(){ int counter, color_select, c1, c2, c3, i, m; for(counter=0; counter<15; counter++){ color_select=random(0,3); if(color_select==0){ c1 = 0; c2 = random(0,16); c3 = random(0,16);} if(color_select==1){ c1 = random(0,16); c2 = 0; c3 = random(0,16);} if(color_select==2){ c1 = random(0,16); c2 = random(0,16); c3 = 0;} int num1=-1, num2=-4, num3=-6, num4=-10; for(m=0; m<20; m++){ num1++; num2++; num3++; num4++; for(i=3; i<5; i++){ LED(num1, i,3,0,0,0); LED(num1, 3,i,0,0,0); LED(num1, 4,i,0,0,0); LED(num1, i,4,0,0,0); } for(i=3; i<5; i++){ LED(num1+1, i,4,c1,c2,c3); LED(num1+1, 4,i,c1,c2,c3); LED(num1+1, 3,i,c1,c2,c3); LED(num1+1, i,3,c1,c2,c3); } for(i=2; i<6; i++){ LED(num2, i,2,0,0,0); LED(num2, 2,i,0,0,0); LED(num2, 5,i,0,0,0); LED(num2, i,5,0,0,0); } for(i=2; i<6; i++){ LED(num2+1, i,2,c1,c2,c3); LED(num2+1, 2,i,c1,c2,c3); LED(num2+1, 5,i,c1,c2,c3); LED(num2+1, i,5,c1,c2,c3); } for(i=1; i<7; i++){ LED(num3, i,1,0,0,0); LED(num3, 1,i,0,0,0); LED(num3, 6,i,0,0,0); LED(num3, i,6,0,0,0); } for(i=1; i<7; i++){ LED(num3+1, i,1,c1,c2,c3); LED(num3+1, 1,i,c1,c2,c3); LED(num3+1, 6,i,c1,c2,c3); LED(num3+1, i,6,c1,c2,c3); } for(i=0; i<8; i++){ LED(num4, i,0,0,0,0); LED(num4, 0,i,0,0,0); LED(num4, 7,i,0,0,0); LED(num4, i,7,0,0,0); } for(i=0; i<8; i++){ LED(num4+1, i,0,c1,c2,c3); LED(num4+1, 0,i,c1,c2,c3); LED(num4+1, 7,i,c1,c2,c3); LED(num4+1, i,7,c1,c2,c3); } //delay(1); }//m num1=8; num2=11; num3=13; num4=17; for(m=0; m<20; m++){ num1--; num2--; num3--; num4--; for(i=3; i<5; i++){ LED(num1, i,3,0,0,0); LED(num1, 3,i,0,0,0); LED(num1, 4,i,0,0,0); LED(num1, i,4,0,0,0); } for(i=3; i<5; i++){ LED(num1-1, i,4,0,0,15); LED(num1-1, 4,i,0,0,15); LED(num1-1, 3,i,0,0,15); LED(num1-1, i,3,0,0,15); } for(i=2; i<6; i++){ LED(num2, i,2,0,0,0); LED(num2, 2,i,0,0,0); LED(num2, 5,i,0,0,0); LED(num2, i,5,0,0,0); } for(i=2; i<6; i++){ LED(num2-1, i,2,0,0,15); LED(num2-1, 2,i,0,0,15); LED(num2-1, 5,i,0,0,15); LED(num2-1, i,5,0,0,15); } for(i=1; i<7; i++){ LED(num3, i,1,0,0,0); LED(num3, 1,i,0,0,0); LED(num3, 6,i,0,0,0); LED(num3, i,6,0,0,0); } for(i=1; i<7; i++){ LED(num3-1, i,1,0,0,15); LED(num3-1, 1,i,0,0,15); LED(num3-1, 6,i,0,0,15); LED(num3-1, i,6,0,0,15); } for(i=0; i<8; i++){ LED(num4, i,0,0,0,0); LED(num4, 0,i,0,0,0); LED(num4, 7,i,0,0,0); LED(num4, i,7,0,0,0); } for(i=0; i<8; i++){ LED(num4-1, i,0,0,0,15); LED(num4-1, 0,i,0,0,15); LED(num4-1, 7,i,0,0,15); LED(num4-1, i,7,0,0,15); } //delay(1); }//m }//counter } // end up down up down up down up down up down up down up down up down up down up down void clean(){ int ii, jj, kk; for(ii=0; ii<8; ii++) for(jj=0; jj<8; jj++) for(kk=0; kk<8; kk++) LED(ii,jj,kk,0,0,0); }

Ik heb de code van hierboven aangepast want het bericht was toen groter dan 60000 tekens dus had ik wat uit de code weggehaald maar vergeten te controleren of de code dan nog werkte
hieronder een nieuwe aangepaste werkende code maar dus alleen werkende met een UNO en dus niet met een MEGA2560. Ik hoop dat iemand mij kan helpen om het werkende te krijgen op de MEGA

Hier de aangepaste werken code (op de UNO dus)

Code: Alles selecteren: /* The 8x8x8 RGB LED Cube by Kevin Darrah Latest V12 04/17/2013 Release Notes: V11 - Fixed bug with BAM timing - Moved Blank pin setup to ISR so pins are dead until they are written to V12 bitwise operation to set pins LOW was incorrect should be PORTx &= ~(1<<pinNumber); Disclaimer: Not a professional LED cube builder, this is how I did it, and this is my cube */ #include <SPI.h>// SPI Library used to clock data out to the shift registers #define latch_pin 2// can use any pin you want to latch the shift registers #define blank_pin 4// same, can use any pin you want for this, just make sure you pull up via a 1k to 5V #define data_pin 11// used by SPI, must be pin 11 #define clock_pin 13// used by SPI, must be 13 //***variables***variables***variables***variables***variables***variables***variables***variables //These variables are used by multiplexing and Bit Angle Modulation Code int shift_out;//used in the code a lot in for(i= type loops byte anode[8];//byte to write to the anode shift register, 8 of them, shifting the ON level in each byte in the array //This is how the brightness for every LED is stored, //Each LED only needs a 'bit' to know if it should be ON or OFF, so 64 Bytes gives you 512 bits= 512 LEDs //Since we are modulating the LEDs, using 4 bit resolution, each color has 4 arrays containing 64 bits each byte red0[64], red1[64], red2[64], red3[64]; byte blue0[64], blue1[64], blue2[64], blue3[64]; byte green0[64], green1[64], green2[64], green3[64]; //notice how more resolution will eat up more of your precious RAM int level=0;//keeps track of which level we are shifting data to int anodelevel=0;//this increments through the anode levels int BAM_Bit, BAM_Counter=0; // Bit Angle Modulation variables to keep track of things //These variables can be used for other things unsigned long start;//for a millis timer to cycle through the animations //****setup****setup****setup****setup****setup****setup****setup****setup****setup****setup****setup****setup****setup void setup(){ SPI.setBitOrder(MSBFIRST);//Most Significant Bit First SPI.setDataMode(SPI_MODE0);// Mode 0 Rising edge of data, keep clock low SPI.setClockDivider(SPI_CLOCK_DIV2);//Run the data in at 16MHz/2 - 8MHz //Serial.begin(115200);// if you need it? noInterrupts();// kill interrupts until everybody is set up //We use Timer 1 to refresh the cube TCCR1A = B00000000;//Register A all 0's since we're not toggling any pins TCCR1B = B00001011;//bit 3 set to place in CTC mode, will call an interrupt on a counter match //bits 0 and 1 are set to divide the clock by 64, so 16MHz/64=250kHz TIMSK1 = B00000010;//bit 1 set to call the interrupt on an OCR1A match OCR1A=30; // you can play with this, but I set it to 30, which means: //our clock runs at 250kHz, which is 1/250kHz = 4us //with OCR1A set to 30, this means the interrupt will be called every (30+1)x4us=124us, // which gives a multiplex frequency of about 8kHz // here I just set up the anode array, this is what's written to the anode shift register, to enable each level anode[0]=B00000001; anode[1]=B00000010; anode[2]=B00000100; anode[3]=B00001000; anode[4]=B00010000; anode[5]=B00100000; anode[6]=B01000000; anode[7]=B10000000; // don't hate on how I assigned the values to this register! haha //finally set up the Outputs pinMode(latch_pin, OUTPUT);//Latch pinMode(data_pin, OUTPUT);//MOSI DATA pinMode(clock_pin, OUTPUT);//SPI Clock //pinMode(blank_pin, OUTPUT);//Output Enable important to do this last, so LEDs do not flash on boot up SPI.begin();//start up the SPI library interrupts();//let the show begin, this lets the multiplexing start }//***end setup***end setup***end setup***end setup***end setup***end setup***end setup***end setup***end setup***end setup void loop(){//***start loop***start loop***start loop***start loop***start loop***start loop***start loop***start loop***start loop //Each animation located in a sub routine // To control an LED, you simply: // LED(level you want 0-7, row you want 0-7, column you want 0-7, red brighness 0-15, green brighness 0-15, blue brighness 0-15); rainVersionTwo(); sinwaveTwo(); wipe_out(); clean(); bouncyvTwo(); // snake color_wheel(); color_wheelTWO(); clean(); RGB_color_stripes(); all_flicker(); all_colors_up_down(); random_colors(); clean(); two_birds(); up_down(); clean(); //********************************************************* }//***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop***end loop void LED(int level, int row, int column, byte red, byte green, byte blue){ //****LED Routine****LED Routine****LED Routine****LED Routine //This is where it all starts //This routine is how LEDs are updated, with the inputs for the LED location and its R G and B brightness levels // First, check and make sure nothing went beyond the limits, just clamp things at either 0 or 7 for location, and 0 or 15 for brightness if(level<0) level=0; if(level>7) level=7; if(row<0) row=0; if(row>7) row=7; if(column<0) column=0; if(column>7) column=7; if(red<0) red=0; if(red>15) red=15; if(green<0) green=0; if(green>15) green=15; if(blue<0) blue=0; if(blue>15) blue=15; //There are 512 LEDs in the cube, so when we write to level 2, column 5, row 4, that needs to be translated into a number from 0 to 511 //This looks confusing, I know... int whichbyte = int(((level*64)+(row*8)+column)/8); // The first level LEDs are first in the sequence, then 2nd level, then third, and so on //the (level*64) is what indexes the level's starting place, so level 0 are LEDs 0-63, level 1 are LEDs 64-127, and so on //The column counts left to right 0-7 and the row is back to front 0-7 //This means that if you had level 0, row 0, the bottom back row would count from 0-7, //so if you looked down on the cube, and only looked at the bottom level // 00 01 02 03 04 05 06 07 // 08 09 10 11 12 13 14 15 // 16 17 18 19 20 21 22 23 // 24 25 26 27 28 29 30 31 // 32 33 34 35 36 37 38 39 // 40 41 42 43 44 45 46 47 // 48 49 50 51 52 53 54 55 // 56 57 58 59 60 61 62 63 //Then, if you incremented the level, the top right of the grid above would start at 64 //The reason for doing this, is so you don't have to memorize a number for each LED, allowing you to use level, row, column //Now, what about the divide by 8 in there? //...well, we have 8 bits per byte, and we have 64 bytes in memory for all 512 bits needed for each LED, so //we divide the number we just found by 8, and take the integ7er of it, so we know which byte, that bit is located //confused? that's ok, let's take an example, if we wanted to write to the LED to the last LED in the cube, we would write a 7, 7, 7 // giving (7*64)+(7*8)=7 = 511, which is right, but now let's divide it by 8, 511/8 = 63.875, and take the int of it so, we get 63, //this is the last byte in the array, which is right since this is the last LED // This next variable is the same thing as before, but here we don't divide by 8, so we get the LED number 0-511 int wholebyte=(level*64)+(row*8)+column; //This will all make sense in a sec //This is 4 bit color resolution, so each color contains x4 64 byte arrays, explanation below: bitWrite(red0[whichbyte], wholebyte-(8*whichbyte), bitRead(red, 0)); bitWrite(red1[whichbyte], wholebyte-(8*whichbyte), bitRead(red, 1)); bitWrite(red2[whichbyte], wholebyte-(8*whichbyte), bitRead(red, 2)); bitWrite(red3[whichbyte], wholebyte-(8*whichbyte), bitRead(red, 3)); bitWrite(green0[whichbyte], wholebyte-(8*whichbyte), bitRead(green, 0)); bitWrite(green1[whichbyte], wholebyte-(8*whichbyte), bitRead(green, 1)); bitWrite(green2[whichbyte], wholebyte-(8*whichbyte), bitRead(green, 2)); bitWrite(green3[whichbyte], wholebyte-(8*whichbyte), bitRead(green, 3)); bitWrite(blue0[whichbyte], wholebyte-(8*whichbyte), bitRead(blue, 0)); bitWrite(blue1[whichbyte], wholebyte-(8*whichbyte), bitRead(blue, 1)); bitWrite(blue2[whichbyte], wholebyte-(8*whichbyte), bitRead(blue, 2)); bitWrite(blue3[whichbyte], wholebyte-(8*whichbyte), bitRead(blue, 3)); //Are you now more confused? You shouldn't be! It's starting to make sense now. Notice how each line is a bitWrite, which is, //bitWrite(the byte you want to write to, the bit of the byte to write, and the 0 or 1 you want to write) //This means that the 'whichbyte' is the byte from 0-63 in which the bit corresponding to the LED from 0-511 //Is making sense now why we did that? taking a value from 0-511 and converting it to a value from 0-63, since each LED represents a bit in //an array of 64 bytes. //Then next line is which bit 'wholebyte-(8*whichbyte)' //This is simply taking the LED's value of 0-511 and subracting it from the BYTE its bit was located in times 8 //Think about it, byte 63 will contain LEDs from 504 to 511, so if you took 505-(8*63), you get a 1, meaning that, //LED number 505 is is located in bit 1 of byte 63 in the array //is that it? No, you still have to do the bitRead of the brightness 0-15 you are trying to write, //if you wrote a 15 to RED, all 4 arrays for that LED would have a 1 for that bit, meaning it will be on 100% //This is why the four arrays read 0-4 of the value entered in for RED, GREEN, and BLUE //hopefully this all makes some sense? }//****LED routine end****LED routine end****LED routine end****LED routine end****LED routine end****LED routine end****LED routine end ISR(TIMER1_COMPA_vect){//***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM***MultiPlex BAM //This routine is called in the background automatically at frequency set by OCR1A //In this code, I set OCR1A to 30, so this is called every 124us, giving each level in the cube 124us of ON time //There are 8 levels, so we have a maximum brightness of 1/8, since the level must turn off before the next level is turned on //The frequency of the multiplexing is then 124us*8=992us, or 1/992us= about 1kHz PORTD |= 1<<blank_pin;//The first thing we do is turn all of the LEDs OFF, by writing a 1 to the blank pin //Note, in my bread-boarded version, I was able to move this way down in the cube, meaning that the OFF time was minimized //do to signal integrity and parasitic capcitance, my rise/fall times, required all of the LEDs to first turn off, before updating //otherwise you get a ghosting effect on the previous level //This is 4 bit 'Bit angle Modulation' or BAM, There are 8 levels, so when a '1' is written to the color brightness, //each level will have a chance to light up for 1 cycle, the BAM bit keeps track of which bit we are modulating out of the 4 bits //Bam counter is the cycle count, meaning as we light up each level, we increment the BAM_Counter if(BAM_Counter==8) BAM_Bit++; else if(BAM_Counter==24) BAM_Bit++; else if(BAM_Counter==56) BAM_Bit++; BAM_Counter++;//Here is where we increment the BAM counter switch (BAM_Bit){//The BAM bit will be a value from 0-3, and only shift out the arrays corresponding to that bit, 0-3 //Here's how this works, each case is the bit in the Bit angle modulation from 0-4, //Next, it depends on which level we're on, so the byte in the array to be written depends on which level, but since each level contains 64 LED, //we only shift out 8 bytes for each color case 0: for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(red0[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(green0[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(blue0[shift_out]); break; case 1: for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(red1[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(green1[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(blue1[shift_out]); break; case 2: for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(red2[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(green2[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(blue2[shift_out]); break; case 3: for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(red3[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(green3[shift_out]); for(shift_out=level; shift_out<level+8; shift_out++) SPI.transfer(blue3[shift_out]); //Here is where the BAM_Counter is reset back to 0, it's only 4 bit, but since each cycle takes 8 counts, //, it goes 0 8 16 32, and when BAM_counter hits 64 we reset the BAM if(BAM_Counter==120){ BAM_Counter=0; BAM_Bit=0; } break; }//switch_case SPI.transfer(anode[anodelevel]);//finally, send out the anode level byte PORTD |= 1<<latch_pin;//Latch pin HIGH PORTD &= ~(1<<latch_pin);//Latch pin LOW PORTD &= ~(1<<blank_pin);//Blank pin LOW to turn on the LEDs with the new data anodelevel++;//inrement the anode level level = level+8;//increment the level variable by 8, which is used to shift out data, since the next level woudl be the next 8 bytes in the arrays if(anodelevel==8)//go back to 0 if max is reached anodelevel=0; if(level==64)//if you hit 64 on level, this means you just sent out all 63 bytes, so go back level=0; pinMode(blank_pin, OUTPUT);//moved down here so outputs are all off until the first call of this function }//***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END***MultiPlex BAM END //*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE //*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE //*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE //*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE*+*+*+*+*+*+*+*+*+*+*+*+PUT ANIMATIONS DOWN HERE void wipe_out(){//*****wipe_out*****wipe_out*****wipe_out*****wipe_out*****wipe_out*****wipe_out*****wipe_out*****wipe_out int xxx=0, yyy=0, zzz=0; int fx=random(8), fy=random(8), fz=random(8), direct, fxm=1, fym=1, fzm=1, fxo=0, fyo=0, fzo=0; int ftx=random(8), fty=random(8), ftz=random(8), ftxm=1, ftym=1, ftzm=1, ftxo=0, ftyo=0, ftzo=0; int select, rr, gg, bb, rrt, ggt, bbt; for(xxx=0; xxx<8; xxx++){ for(yyy=0; yyy<8; yyy++){ for(zzz=0; zzz<8; zzz++){ LED(xxx, yyy, zzz, 0, 0, 0); }}} select=random(3); if(select==0){ rr=random(1, 16); gg=random(1, 16); bb=0;} if(select==1){ rr=random(1, 16); gg=0; bb=random(1, 16);} if(select==2){ rr=0; gg=random(1, 16); bb=random(1, 16);} select=random(3); if(select==0){ rrt=random(1, 16); ggt=random(1, 16); bbt=0;} if(select==1){ rrt=random(1, 16); ggt=0; bbt=random(1, 16);} if(select==2){ rrt=0; ggt=random(1, 16); bbt=random(1, 16);} start=millis(); while(millis()-start<100000){ //fx=random(8); fy=random(8); fz=random(8); LED(fxo, fyo, fzo, 0, 0, 0); LED(fxo, fyo, fzo+1, 0, 0, 0); LED(fxo, fyo, fzo-1, 0, 0, 0); LED(fxo+1, fyo, fzo, 0, 0, 0); LED(fxo-1, fyo, fzo, 0, 0, 0); LED(fxo, fyo+1, fzo, 0, 0, 0); LED(fxo, fyo-1, fzo, 0, 0, 0); LED(ftxo, ftyo, ftzo, 0, 0, 0); LED(ftxo, ftyo, ftzo+1, 0, 0, 0); LED(ftxo, ftyo, ftzo-1, 0, 0, 0); LED(ftxo+1, ftyo, ftzo, 0, 0, 0); LED(ftxo-1, ftyo, ftzo, 0, 0, 0); LED(ftxo, ftyo+1, ftzo, 0, 0, 0); LED(ftxo, ftyo-1, ftzo, 0, 0, 0); LED(ftx, fty, ftz, rr, gg, bb); LED(ftx, fty, ftz+1, rr, gg, bb); LED(ftx, fty, ftz-1, rr, gg, bb); LED(ftx+1, fty, ftz, rr, gg, bb); LED(ftx-1, fty, ftz, rr, gg, bb); LED(ftx, fty+1, ftz, rr, gg, bb); LED(ftx, fty-1, ftz, rr, gg, bb); LED(fx, fy, fz, rrt, ggt, bbt); LED(fx, fy, fz+1, rrt, ggt, bbt); LED(fx, fy, fz-1, rrt, ggt, bbt); LED(fx+1, fy, fz, rrt, ggt, bbt); LED(fx-1, fy, fz, rrt, ggt, bbt); LED(fx, fy+1, fz, rrt, ggt, bbt); LED(fx, fy-1, fz, rrt, ggt, bbt); delay(10); fxo=fx; fyo=fy; fzo=fz; ftxo=ftx; ftyo=fty; ftzo=ftz; direct=random(3); if(direct==0) fx= fx+fxm; if(direct==1) fy= fy+fym; if(direct==2) fz= fz+fzm; if(fx<0){ fx=0; fxm=1;} if(fx>7){ fx=7; fxm=-1;} if(fy<0){ fy=0; fym=1;} if(fy>7){ fy=7; fym=-1;} if(fz<0){ fz=0; fzm=1;} if(fz>7){ fz=7; fzm=-1;} direct=random(3); if(direct==0) ftx= ftx+ftxm; if(direct==1) fty= fty+ftym; if(direct==2) ftz= ftz+ftzm; if(ftx<0){ ftx=0; ftxm=1;} if(ftx>7){ ftx=7; ftxm=-1;} if(fty<0){ fty=0; ftym=1;} if(fty>7){ fty=7; ftym=-1;} if(ftz<0){ ftz=0; ftzm=1;} if(ftz>7){ ftz=7; ftzm=-1;} }//while for(xxx=0; xxx<8; xxx++){ for(yyy=0; yyy<8; yyy++){ for(zzz=0; zzz<8; zzz++){ LED(xxx, yyy, zzz, 0, 0, 0); }}} }//wipeout void rainVersionTwo(){//****rainVersionTwo****rainVersionTwo****rainVersionTwo****rainVersionTwo****rainVersionTwo int x[64], y[64], z[64], addr, leds=64, bright=1, ledcolor, colowheel; int xx[64], yy[64], zz[64], xold[64], yold[64], zold[64], slowdown; for(addr=0; addr<64; addr++){ x[addr]=random(8); y[addr]=random(8); z[addr]=random(8); xx[addr]=random(16); yy[addr]=random(16); zz[addr]=random(16); } start=millis(); while(millis()-start<20000){ //wipe_out(); //for(addr=0; addr<leds; addr++) //LED(zold[addr], xold[addr], yold[addr], 0, 0, 0); if(ledcolor<200){ for(addr=0; addr<leds; addr++){ LED(zold[addr], xold[addr], yold[addr], 0, 0, 0); if(z[addr]>=7) LED(z[addr], x[addr], y[addr], 0, 5, 15); if(z[addr]==6) LED(z[addr], x[addr], y[addr], 0, 1, 9); if(z[addr]==5) LED(z[addr], x[addr], y[addr], 0, 0, 10); if(z[addr]==4) LED(z[addr], x[addr], y[addr], 1, 0, 11); if(z[addr]==3) LED(z[addr], x[addr], y[addr], 3, 0, 12); if(z[addr]==2) LED(z[addr], x[addr], y[addr], 10, 0, 15); if(z[addr]==1) LED(z[addr], x[addr], y[addr], 10, 0, 10); if(z[addr]<=0) LED(z[addr], x[addr], y[addr], 10, 0, 1); }}//200 if(ledcolor>=200&&ledcolor<300){ for(addr=0; addr<leds; addr++){ LED(zold[addr], xold[addr], yold[addr], 0, 0, 0); if(z[addr]>=7) LED(z[addr], x[addr], y[addr], 15, 15, 0); if(z[addr]==6) LED(z[addr], x[addr], y[addr], 10, 10, 0); if(z[addr]==5) LED(z[addr], x[addr], y[addr], 15, 5, 0); if(z[addr]==4) LED(z[addr], x[addr], y[addr], 15, 2, 0); if(z[addr]==3) LED(z[addr], x[addr], y[addr], 15, 1, 0); if(z[addr]==2) LED(z[addr], x[addr], y[addr], 15, 0, 0); if(z[addr]==1) LED(z[addr], x[addr], y[addr], 12, 0, 0); if(z[addr]<=0) LED(z[addr], x[addr], y[addr], 10, 0, 0); }}//300 if(ledcolor>=300&&ledcolor<400){ } if(ledcolor>=500&&ledcolor<600){ } ledcolor++; if(ledcolor>=300) ledcolor=0; for(addr=0; addr<leds; addr++){ xold[addr]=x[addr]; yold[addr]=y[addr]; zold[addr]=z[addr]; } delay(15); //for(addr=0; addr<leds; addr++) //LED(z[addr], x[addr], y[addr], 0, 0, 0); for(addr=0; addr<leds; addr++){ //slowdown = random(2); //if(bitRead(z[addr],0)) z[addr] = z[addr]-1; // x[addr] = x[addr]+1; // y[addr] = y[addr]+1; if(z[addr]<random(-100,0)){ x[addr]=random(8); y[addr]=random(8); int select=random(3); if(select==0){ xx[addr]=0; zz[addr]=random(16); yy[addr]=random(16); //zz[addr]=0; } if(select==1){ xx[addr]=random(16); zz[addr]=0; yy[addr]=random(16); //yy[addr]=0; } if(select==2){ xx[addr]=random(16); zz[addr]=random(16); yy[addr]=0; } z[addr]=7; }//-check }//add }//while }//rainv2 void folder(){//****folder****folder****folder****folder****folder****folder****folder****folder****folder int xx, yy, zz, pullback[16], state=0, backorfront=7;//backorfront 7 for back 0 for front int folderaddr[16], LED_Old[16], oldpullback[16], ranx=random(16), rany=random(16), ranz=random(16), ranselect; int bot=0, top=1, right=0, left=0, back=0, front=0, side=0, side_select; folderaddr[0]=-7; folderaddr[1]=-6; folderaddr[2]=-5; folderaddr[3]=-4; folderaddr[4]=-3; folderaddr[5]=-2; folderaddr[6]=-1; folderaddr[7]=0; for(xx=0; xx<8; xx++){ oldpullback[xx]=0; pullback[xx]=0; } start=millis(); while(millis()-start<10000){ if(top==1){ if(side==0){ //top to left-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(7-LED_Old[yy], yy-oldpullback[yy],xx , 0, 0, 0); LED(7-folderaddr[yy], yy-pullback[yy],xx , ranx, rany, ranz); }}} if(side==2){ //top to back-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(7-LED_Old[yy], xx, yy-oldpullback[yy], 0, 0, 0); LED(7-folderaddr[yy], xx, yy-pullback[yy], ranx, rany, ranz); }}} if(side==3){ //top-side to front-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(7-LED_Old[7-yy], xx, yy+oldpullback[yy], 0, 0, 0); LED(7-folderaddr[7-yy], xx, yy+pullback[yy], ranx, rany, ranz); }}} if(side==1){ //top-side to right for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(7-LED_Old[7-yy], yy+oldpullback[yy],xx , 0, 0, 0); LED(7-folderaddr[7-yy], yy+pullback[yy],xx , ranx, rany, ranz); }}} }//top if(right==1){ if(side==4){ //right-side to top for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy+oldpullback[7-yy],7-LED_Old[7-yy],xx , 0, 0, 0); LED( yy+pullback[7-yy],7-folderaddr[7-yy],xx , ranx, rany, ranz); }}} if(side==3){ //right-side to front-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, 7-LED_Old[7-yy],yy+oldpullback[yy], 0, 0, 0); LED(xx,7-folderaddr[7-yy], yy+pullback[yy], ranx, rany, ranz); }}} if(side==2){ //right-side to back-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, 7-LED_Old[yy],yy-oldpullback[yy], 0, 0, 0); LED(xx,7-folderaddr[yy], yy-pullback[yy], ranx, rany, ranz); }}} if(side==5){ //right-side to bottom for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy-oldpullback[yy],7-LED_Old[yy],xx , 0, 0, 0); LED( yy-pullback[yy],7-folderaddr[yy],xx , ranx, rany, ranz); }}} }//right if(left==1){ if(side==4){ //left-side to top for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy+oldpullback[yy],LED_Old[7-yy],xx , 0, 0, 0); LED( yy+pullback[yy],folderaddr[7-yy],xx , ranx, rany, ranz); }}} if(side==3){ //left-side to front-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, LED_Old[7-yy],yy+oldpullback[yy], 0, 0, 0); LED(xx,folderaddr[7-yy], yy+pullback[yy], ranx, rany, ranz); }}} if(side==2){ //left-side to back-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, LED_Old[yy],yy-oldpullback[yy], 0, 0, 0); LED(xx,folderaddr[yy], yy-pullback[yy], ranx, rany, ranz); }}} if(side==5){ //left-side to bottom for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy-oldpullback[yy],LED_Old[yy],xx , 0, 0, 0); LED( yy-pullback[yy],folderaddr[yy],xx , ranx, rany, ranz); }}} }//left if(back==1){ if(side==1){ //back-side to right-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, yy+oldpullback[yy],LED_Old[7-yy], 0, 0, 0); LED(xx, yy+pullback[yy],folderaddr[7-yy], ranx, rany, ranz); }}} if(side==4){ // back-side to top-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy+oldpullback[yy],xx,LED_Old[7-yy] , 0, 0, 0); LED( yy+pullback[yy],xx,folderaddr[7-yy] , ranx, rany, ranz); }}} if(side==5){ // back-side to bottom for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy-oldpullback[yy],xx,LED_Old[yy] , 0, 0, 0); LED( yy-pullback[yy],xx,folderaddr[yy] , ranx, rany, ranz); }}}//state1 if(side==0){ //back-side to left-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, yy-oldpullback[yy],LED_Old[yy], 0, 0, 0); LED(xx, yy-pullback[yy],folderaddr[yy], ranx, rany, ranz); }}} }//back if(bot==1){ if(side==1){ // bottom-side to right-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(LED_Old[7-yy], yy+oldpullback[yy],xx , 0, 0, 0); LED(folderaddr[7-yy], yy+pullback[yy],xx , ranx, rany, ranz); }}} if(side==3){ //bottom to front-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(LED_Old[7-yy], xx, yy+oldpullback[yy], 0, 0, 0); LED(folderaddr[7-yy], xx, yy+pullback[yy], ranx, rany, ranz); }}} if(side==2){ //bottom to back-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(LED_Old[yy], xx, yy-oldpullback[yy], 0, 0, 0); LED(folderaddr[yy], xx, yy-pullback[yy], ranx, rany, ranz); }}} if(side==0){ //bottom to left-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(LED_Old[yy], yy-oldpullback[yy],xx , 0, 0, 0); LED(folderaddr[yy], yy-pullback[yy],xx , ranx, rany, ranz); }}} }//bot if(front==1){ if(side==0){ //front-side to left-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, yy-oldpullback[yy],7-LED_Old[yy], 0, 0, 0); LED(xx, yy-pullback[yy],7-folderaddr[yy], ranx, rany, ranz); }}} if(side==5){ // front-side to bottom for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy-oldpullback[yy],xx,7-LED_Old[yy] , 0, 0, 0); LED( yy-pullback[yy],xx,7-folderaddr[yy] , ranx, rany, ranz); }}} if(side==4){ // front-side to top-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(yy+oldpullback[yy],xx,7-LED_Old[7-yy] , 0, 0, 0); LED( yy+pullback[yy],xx,7-folderaddr[7-yy] , ranx, rany, ranz); }}} if(side==1){ //front-side to right-side for(yy=0; yy<8; yy++){ for(xx=0; xx<8; xx++){ LED(xx, yy+oldpullback[yy],7-LED_Old[7-yy], 0, 0, 0); LED(xx, yy+pullback[yy],7-folderaddr[7-yy], ranx, rany, ranz); }}} }//front delay(5);// DELAY DELAY DELAY for(xx=0; xx<8; xx++){ LED_Old[xx]=folderaddr[xx]; oldpullback[xx]=pullback[xx]; } if(folderaddr[7]==7){ // pullback=8; for(zz=0; zz<8; zz++) pullback[zz] = pullback[zz]+1; if(pullback[7]==8){//finished with fold delay(10); //state++; //if(state==4) //state=0; ranselect= random(3); if(ranselect==0){ ranx=0; rany=random(1,16); ranz=random(1,16);} if(ranselect==1){ ranx=random(1,16); rany=0; ranz=random(1,16);} if(ranselect==2){ ranx=random(1,16); rany=random(1,16); ranz=0;} side_select=random(3); if(top==1){// TOP top=0; if(side==0){//top to left left=1; if(side_select==0) side=2; if(side_select==1) side=3; //if(side_select==2) side=4; if(side_select==2) side=5;} else if(side==1){//top to right right=1; if(side_select==0) side=5; if(side_select==1) side=2; if(side_select==2) side=3; //if(side_select==3) side=4; } else if(side==2){//top to back back=1; if(side_select==0) side=0; if(side_select==1) side=1; if(side_select==2) side=5; //if(side_select==3) side=4; } else if(side==3){//top to front front=1; if(side_select==0) side=0; if(side_select==1) side=1; if(side_select==2) side=5; //if(side_select==3) side=4; } } else//top if(bot==1){// BOTTOM bot=0; if(side==0){//bot to left left=1; if(side_select==0) side=2; if(side_select==1) side=3; if(side_select==2) side=4; //if(side_select==3) side=5; } else if(side==1){//bot to right right=1; //if(side_select==0) side=5; if(side_select==0) side=2; if(side_select==1) side=3; if(side_select==2) side=4;} else if(side==2){//bot to back back=1; if(side_select==0) side=0; if(side_select==1) side=1; //if(side_select==2) side=5; if(side_select==2) side=4;} else if(side==3){//bot to front front=1; if(side_select==0) side=0; if(side_select==1) side=1; //if(side_select==2) side=5; if(side_select==2) side=4;} } else//bot if(right==1){// RIGHT right=0; if(side==4){//right to top top=1; if(side_select==0) side=2; if(side_select==1) side=3; if(side_select==2) side=0; //if(side_select==3) side=1; } else if(side==5){//right to bot bot=1; if(side_select==0) side=0; if(side_select==1) side=2; if(side_select==2) side=3; //if(side_select==3) side=1; } else if(side==2){//right to back back=1; if(side_select==0) side=0; //if(side_select==1) side=1; if(side_select==1) side=5; if(side_select==2) side=4;} else if(side==3){//right to front front=1; if(side_select==0) side=0; //if(side_select==1) side=1; if(side_select==1) side=5; if(side_select==2) side=4;} } else//bot if(left==1){// LEFT left=0; if(side==4){//left to top top=1; //if(side_select==0) side=2; if(side_select==0) side=3; if(side_select==1) side=2; if(side_select==2) side=1;} else if(side==5){//left to bot bot=1; //if(side_select==0) side=0; if(side_select==0) side=2; if(side_select==1) side=3; if(side_select==2) side=1;} else if(side==2){//left to back back=1; //if(side_select==0) side=0; if(side_select==0) side=1; if(side_select==1) side=5; if(side_select==2) side=4;} else if(side==3){//left to front front=1; //if(side_select==0) side=0; if(side_select==0) side=1; if(side_select==1) side=5; if(side_select==2) side=4;} } else//bot if(front==1){// front front=0; if(side==4){//front to top top=1; if(side_select==0) side=2; //if(side_select==1) side=3; if(side_select==1) side=0; if(side_select==2) side=1;} else if(side==5){//front to bot bot=1; if(side_select==0) side=0; if(side_select==1) side=2; //if(side_select==2) side=3; if(side_select==2) side=1;} else if(side==0){//front to left left=1; if(side_select==0) side=2; // if(side_select==1) side=3; if(side_select==1) side=5; if(side_select==2) side=4;} else if(side==1){//front to right right=1; if(side_select==0) side=2; // if(side_select==1) side=3; if(side_select==1) side=5; if(side_select==2) side=4;} } else//bot if(back==1){// back back=0; if(side==4){//back to top top=1; //if(side_select==0) side=2; if(side_select==0) side=3; if(side_select==1) side=0; if(side_select==2) side=1;} else if(side==5){//back to bot bot=1; if(side_select==0) side=0; //if(side_select==1) side=2; if(side_select==1) side=3; if(side_select==2) side=1;} else if(side==0){//back to left left=1; //if(side_select==0) side=2; if(side_select==0) side=3; if(side_select==1) side=5; if(side_select==2) side=4;} else if(side==1){//back to right right=1; //if(side_select==0) side=2; if(side_select==0) side=3; if(side_select==1) side=5; if(side_select==2) side=4;} } //bot // for(yy=0; yy<8; yy++) //for(xx=0; xx<8; xx++) //LED(LED_Old[yy], xx, yy-oldpullback[yy], 0, 0, 0); for(xx=0; xx<8; xx++){ oldpullback[xx]=0; pullback[xx]=0;} folderaddr[0]=-8; folderaddr[1]=-7; folderaddr[2]=-6; folderaddr[3]=-5; folderaddr[4]=-4; folderaddr[5]=-3; folderaddr[6]=-2; folderaddr[7]=-1; }//pullback==7 }//folderaddr==7 if(folderaddr[7]!=7) for(zz=0; zz<8; zz++) folderaddr[zz] = folderaddr[zz]+1; }//while }//folder void bouncyvTwo(){//****bouncyTwo****bouncyTwo****bouncyTwo****bouncyTwo****bouncyTwo****bouncyTwo****bouncyTwo int wipex, wipey, wipez, ranr, rang, ranb, select, oldx[50], oldy[50], oldz[50]; int x[50], y[50], z[50], addr, ledcount=20, direct, direcTwo; int xx[50], yy[50], zz[50]; int xbit=1, ybit=1, zbit=1; for(addr=0; addr<ledcount+1; addr++){ oldx[addr]=0; oldy[addr]=0; oldz[addr]=0; x[addr]=0; y[addr]=0; z[addr]=0; xx[addr]=0; yy[addr]=0; zz[addr]=0; } start=millis(); while(millis()-start<15000){ direct = random(3); for(addr=1; addr<ledcount+1; addr++){ LED(oldx[addr], oldy[addr],oldz[addr], 0,0,0); LED(x[addr], y[addr], z[addr], xx[addr],yy[addr],zz[addr]); } for(addr=1; addr<ledcount+1; addr++){ oldx[addr]=x[addr]; oldy[addr]=y[addr]; oldz[addr]=z[addr]; } delay(20); //direcTwo=random(3); //if(direcTwo==1) if(direct==0) x[0]= x[0]+xbit; if(direct==1) y[0]= y[0]+ybit; if(direct==2) z[0]= z[0]+zbit; if(direct==3) x[0]= x[0]-xbit; if(direct==4) y[0]= y[0]-ybit; if(direct==5) z[0]= z[0]-zbit; if(x[0]>7){ xbit=-1; x[0]=7; xx[0]=random(16); yy[0]=random(16); zz[0]=0; //wipe_out(); } if(x[0]<0){ xbit=1; x[0]=0; xx[0]=random(16); yy[0]=0; zz[0]=random(16); //wipe_out(); } if(y[0]>7){ ybit=-1; y[0]=7; xx[0]=0; yy[0]=random(16); zz[0]=random(16); //wipe_out(); } if(y[0]<0){ ybit=1; y[0]=0; xx[0]=0; yy[0]=random(16); zz[0]=random(16); //wipe_out(); } if(z[0]>7){ zbit=-1; z[0]=7; xx[0]=random(16); yy[0]=0; zz[0]=random(16); //wipe_out(); } if(z[0]<0){ zbit=1; z[0]=0; xx[0]=random(16); yy[0]=random(16); zz[0]=0; //wipe_out(); } for(addr=ledcount; addr>0; addr--){ x[addr]=x[addr-1]; y[addr]=y[addr-1]; z[addr]=z[addr-1]; xx[addr]=xx[addr-1]; yy[addr]=yy[addr-1]; zz[addr]=zz[addr-1]; } }//while }//bouncyv2 void sinwaveTwo(){//*****sinewaveTwo*****sinewaveTwo*****sinewaveTwo*****sinewaveTwo*****sinewaveTwo*****sinewaveTwo int sinewavearray[8], addr, sinemult[8], colselect, rr=0, gg=0, bb=15, addrt; int sinewavearrayOLD[8], select, subZ=-7, subT=7, multi=0;//random(-1, 2); sinewavearray[0]=0; sinemult[0]=1; sinewavearray[1]=1; sinemult[1]=1; sinewavearray[2]=2; sinemult[2]=1; sinewavearray[3]=3; sinemult[3]=1; sinewavearray[4]=4; sinemult[4]=1; sinewavearray[5]=5; sinemult[5]=1; sinewavearray[6]=6; sinemult[6]=1; sinewavearray[7]=7; sinemult[7]=1; start=millis(); while(millis()-start<15000){ for(addr=0; addr<8; addr++){ if(sinewavearray[addr]==7){ sinemult[addr]=-1; } if(sinewavearray[addr]==0){ sinemult[addr]=1; } sinewavearray[addr] = sinewavearray[addr] + sinemult[addr]; }//addr if(sinewavearray[0]==7){ select=random(3); if(select==0){ rr=random(1, 16); gg=random(1, 16); bb=0;} if(select==1){ rr=random(1, 16); gg=0; bb=random(1, 16);} if(select==2){ rr=0; gg=random(1, 16); bb=random(1, 16);} /* if(multi==1) multi=0; else multi=1; */ } for(addr=0; addr<8; addr++){ LED(sinewavearrayOLD[addr], addr, 0, 0, 0, 0); LED(sinewavearrayOLD[addr], 0, addr, 0, 0, 0); LED(sinewavearrayOLD[addr], subT-addr, 7, 0, 0, 0); LED(sinewavearrayOLD[addr], 7, subT-addr, 0, 0, 0); LED(sinewavearray[addr], addr, 0, rr, gg, bb); LED(sinewavearray[addr], 0, addr, rr, gg, bb); LED(sinewavearray[addr], subT-addr,7, rr, gg, bb); LED(sinewavearray[addr], 7, subT-addr, rr, gg, bb); }//} for(addr=1; addr<7; addr++){ LED(sinewavearrayOLD[addr+multi*1], addr, 1, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*1], 1, addr, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*1], subT-addr, 6, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*1], 6, subT-addr, 0, 0, 0); LED(sinewavearray[addr+multi*1], addr, 1, rr, gg, bb); LED(sinewavearray[addr+multi*1], 1, addr, rr, gg, bb); LED(sinewavearray[addr+multi*1], subT-addr,6, rr, gg, bb); LED(sinewavearray[addr+multi*1], 6, subT-addr, rr, gg, bb); } for(addr=2; addr<6; addr++){ LED(sinewavearrayOLD[addr+multi*2], addr, 2, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*2], 2, addr, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*2], subT-addr, 5, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*2], 5, subT-addr, 0, 0, 0); LED(sinewavearray[addr+multi*2], addr, 2, rr, gg, bb); LED(sinewavearray[addr+multi*2], 2, addr, rr, gg, bb); LED(sinewavearray[addr+multi*2], subT-addr,5, rr, gg, bb); LED(sinewavearray[addr+multi*2], 5, subT-addr, rr, gg, bb); } for(addr=3; addr<5; addr++){ LED(sinewavearrayOLD[addr+multi*3], addr, 3, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*3], 3, addr, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*3], subT-addr, 4, 0, 0, 0); LED(sinewavearrayOLD[addr+multi*3], 4, subT-addr, 0, 0, 0); LED(sinewavearray[addr+multi*3], addr, 3, rr, gg, bb); LED(sinewavearray[addr+multi*3], 3, addr, rr, gg, bb); LED(sinewavearray[addr+multi*3], subT-addr,4, rr, gg, bb); LED(sinewavearray[addr+multi*3], 4, subT-addr, rr, gg, bb); } for(addr=0; addr<8; addr++) sinewavearrayOLD[addr]=sinewavearray[addr]; delay(30); }//while }//SinewaveTwo void color_wheel(){ int xx, yy, zz, ww, rr=1, gg=1, bb=1, ranx, rany, swiper; start=millis(); while(millis()-start<10000){ swiper=random(3); ranx=random(16); rany=random(16); for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, 0, rany); }} delay(50); } ranx=random(16); rany=random(16); for(xx=7;xx>=0;xx--){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx,yy, zz, ranx, rany, 0); }} delay(50); } ranx=random(16); rany=random(16); for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx,yy, zz, 0, ranx, rany); }} delay(50); } ranx=random(16); rany=random(16); for(xx=7;xx>=0;xx--){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx,yy, zz, rany, ranx, 0); }} delay(50); } }//while }//color wheel void color_wheelTWO(){//*****colorWheelTwo*****colorWheelTwo*****colorWheelTwo*****colorWheelTwo*****colorWheelTwo int xx, yy, zz, ww, rr=1, gg=1, bb=1, ranx, rany ,ranz, select, swiper; start=millis(); while(millis()-start<10000){ swiper=random(6); select=random(3); if(select==0){ ranx=0; rany=random(16); ranz=random(16);} if(select==1){ ranx=random(16); rany=0; ranz=random(16);} if(select==2){ ranx=random(16); rany=random(16); ranz=0;} if(swiper==0){ for(yy=0;yy<8;yy++){//left to right for(xx=0;xx<8;xx++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==1){//bot to top for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==2){//back to front for(zz=0;zz<8;zz++){ for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==3){ for(yy=7;yy>=0;yy--){//right to left for(xx=0;xx<8;xx++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==4){//top to bot for(xx=7;xx>=0;xx--){ for(yy=0;yy<8;yy++){ for(zz=0;zz<8;zz++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} if(swiper==5){//front to back for(zz=7;zz>=0;zz--){ for(xx=0;xx<8;xx++){ for(yy=0;yy<8;yy++){ LED(xx, yy, zz, ranx, ranz, rany); }} delay(30); }} }//while }//color wheel // RGB color stripes RGB color stripes RGB color stripes RGB color stripes RGB color stripes RGB color stripes void RGB_color_stripes(){ int greenx = random(1,7),greeny = random(1,7),bluex = random(1,7),bluey = random(1,7),redx = random(1,7),redy = random(1,7); int greenmult=1, bluemult=1, redmult=1; int greenmulty=1, bluemulty=1, redmulty=1; int oredx, oredy,obluex,obluey,ogreenx,ogreeny, cb1=15,cb2=0,cr1=15,cr2=0,cg1=15,cg2=0; int time_counter=10, timemult=2; int m; int c1=1,c2=1,c3=1,xmult=1,ymult=1,zmult=1,x=4,y=4,z=4,color_select, xo, yo, zo; int c21=1,c22=1,c23=1,x2mult=1,y2mult=1,z2mult=1,x2=2,y2=2,z2=2,color_select2, x2o, y2o, z2o; int counter, i, j, k; for(counter=0; counter<85; counter++){ //time of movement red for(i=0; i<8; i++){ LED(i,oredx,oredx,0,0,0); } for(i=0; i<8; i++){ LED(i,redx,redx,15,0,0); } oredx=redx; oredy=redy; for(i=100; i>time_counter; i--) delay(1); // time_counter=time_counter+timemult; // if(time_counter>100||time_counter<10) // timemult=timemult*-1; if(redy>6 || redy<1){ redmulty=redmulty*-1; } if(redx>6 || redx<1){ redmult=redmult*-1; cr1=random(16); cr2=random(16); } redy=redy+redmulty; redx=redx+redmult; }//counter for(counter=0; counter<85; counter++){ //time of movement red green for(i=0; i<8; i++){ LED(i,oredx,oredx,0,0,0); LED(ogreenx,i,ogreeny,0,0,0); } for(i=0; i<8; i++){ LED(i,redx,redx,15,0,0); LED(greenx,i,greeny,0,15,0); } ogreenx=greenx; ogreeny=greeny; oredx=redx; oredy=redy; for(i=100; i>time_counter; i--) delay(1); // time_counter=time_counter+timemult; // if(time_counter>100||time_counter<10) // timemult=timemult*-1; if(greeny>6 || greeny<1) greenmulty=greenmulty*-1; if(redy>6 || redy<1){ redmulty=redmulty*-1; } if(greenx>6 || greenx<1){ greenmult=greenmult*-1; greeny = greeny + greenmulty; cg1=random(16); cg2=random(16); } if(redx>6 || redx<1){ redmult=redmult*-1; cr1=random(16); cr2=random(16); } greenx=greenx+greenmult; redy=redy+redmulty; redx=redx+redmult; }//counter for(counter=0; counter<200; counter++){ //time of movement red green blue for(i=0; i<8; i++){ LED(i,oredx,oredx,0,0,0); LED(obluey,obluex,i,0,0,0); LED(ogreenx,i,ogreeny,0,0,0); } for(i=0; i<8; i++){ LED(i,redx,redx,15,0,0); LED(bluey,bluex,i,0,0,15); LED(greenx,i,greeny,0,15,0); } ogreenx=greenx; ogreeny=greeny; obluex=bluex; obluey=bluey; oredx=redx; oredy=redy; for(i=100; i>time_counter; i--) delay(1); // time_counter=time_counter+timemult; // if(time_counter>100||time_counter<10) // timemult=timemult*-1; if(greeny>6 || greeny<1) greenmulty=greenmulty*-1; if(bluey>6 || bluey<1) bluemulty=bluemulty*-1; if(redy>6 || redy<1){ redmulty=redmulty*-1; } if(greenx>6 || greenx<1){ greenmult=greenmult*-1; greeny = greeny + greenmulty; cg1=random(16); cg2=random(16); } if(bluex>6 || bluex<1){ bluemult=bluemult*-1; bluey=bluey+bluemulty; cb1=random(16); cb2=random(16); } if(redx>6 || redx<1){ redmult=redmult*-1; cr1=random(16); cr2=random(16); } greenx=greenx+greenmult; bluex=bluex+bluemult; redy=redy+redmulty; redx=redx+redmult; }//counter for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,0,0,0); delay(50); }//end color stripes color stripes color stripes color stripes color stripes color stripes // all flicker1 all flicker1 all flicker1 all flicker1 all flicker1 all flicker1 all flicker1 all flicker1 void all_flicker1(){ int counter, i, j, k; for(counter=0; counter<1; counter++){ for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,15,0,0); delay(100); // for(i=0; i<8; i++) // for(j=0; j<8; j++) // for(k=0; k<8; k++) // LED(i,j,k,0,0,0); // delay(50); }//counter } //end all_flicker1 end all_flicker1 end all_flicker1 end all_flicker1 en // all_flicker all_flicker all_flicker all_flicker all_flicker all_flicker all_flicker void all_flicker(){ int counter, i, j, k; for(counter=0; counter<5; counter++){ for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,15,15,15); delay(50); for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,0,0,0); delay(50); }//counter } //end all_flicker end all_flicker end all_flicker end all_flicker end all_flicker // all_colors_up_down all_colors_up_down all_colors_up_down all_colors_up_down void all_colors_up_down(){ int i, j, k, m; for(m=0; m<1; m++){ for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,0,random(16),random(16)); for(i=7; i>=0; i--) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,random(16),0,random(16)); for(i=0; i<8; i++) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,random(16),random(16),0); for(i=7; i>=0; i--) for(j=0; j<8; j++) for(k=0; k<8; k++) LED(i,j,k,random(16),0,random(16)); } } // end all colors up down all colors up down all colors up down all colors up down all colors up down all colors up down // random colors random colors random colors random colors random colors random colors void random_colors(){ int m, k, c1, c2, c3; for(m=0; m<3; m++){ for(k=0; k<750; k++){ // time of effect LED(random(8),random(8),random(8),random(16),random(16),0); LED(random(8),random(8),random(8),random(16),0 ,random(16)); LED(random(8),random(8),random(8),0, random(16),random(16)); c1=random(8); c2=random(8); c3=random(8); LED(c1,c2,c3,15,15,15); // color white } // for(k=0; k<200; k++){ // LED(random(8),random(8),random(8),0,0,0); // } } } // end random colors random colors random colors random colors random colors random colors // two birds two birds two birds two birds two birds void two_birds(){ int counter; int c1=1,c2=1,c3=1,xmult=1,ymult=1,zmult=1,x=4,y=4,z=4,color_select, xo, yo, zo; int c21=1,c22=1,c23=1,x2mult=1,y2mult=1,z2mult=1,x2=2,y2=2,z2=2,color_select2, x2o, y2o, z2o; color_select=random(0,3); if(color_select==0){ c1 = 0; c2 = random(0,16); c3 = random(0,16);} if(color_select==1){ c1 = random(0,16); c2 = 0; c3 = random(0,16);} if(color_select==2){ c1 = random(0,16); c2 = random(0,16); c3 = 0;} color_select2=random(0,3); if(color_select2==0){ c21 = 0; c22 = random(0,16); c23 = random(0,16);} if(color_select2==1){ c21 = random(0,16); c22 = 0; c23 = random(0,16);} if(color_select2==2){ c21 = random(0,16); c22 = random(0,16); c23 = 0;} for(counter=0; counter<200; counter++){ LED(xo,yo,zo,0,0,0); LED(xo+1,yo,zo,0,0,0); LED(xo+2,yo,zo,0,0,0); LED(xo-1,yo,zo,0,0,0); LED(xo-2,yo,zo,0,0,0); LED(xo,yo+1,zo,0,0,0); LED(xo,yo-1,zo,0,0,0); LED(xo,yo+2,zo,0,0,0); LED(xo,yo-2,zo,0,0,0); LED(xo,yo,zo-1,0,0,0); LED(xo,yo,zo+1,0,0,0); LED(xo,yo,zo-2,0,0,0); LED(xo,yo,zo+2,0,0,0); LED(x2o,y2o,z2o,0,0,0); LED(x2o+1,y2o,z2o,0,0,0); LED(x2o+2,y2o,z2o,0,0,0); LED(x2o-1,y2o,z2o,0,0,0); LED(x2o-2,y2o,z2o,0,0,0); LED(x2o,y2o+1,z2o,0,0,0); LED(x2o,y2o-1,z2o,0,0,0); LED(x2o,y2o+2,z2o,0,0,0); LED(x2o,y2o-2,z2o,0,0,0); LED(x2o,y2o,z2o-1,0,0,0); LED(x2o,y2o,z2o+1,0,0,0); LED(x2o,y2o,z2o-2,0,0,0); LED(x2o,y2o,z2o+2,0,0,0); LED(xo+1,yo+1,zo,0,0,0); LED(xo+1,yo-1,zo,0,0,0); LED(xo-1,yo+1,zo,0,0,0); LED(xo-1,yo-1,zo,0,0,0); LED(xo+1,yo+1,zo+1,0,0,0); LED(xo+1,yo-1,zo+1,0,0,0); LED(xo-1,yo+1,zo+1,0,0,0); LED(xo-1,yo-1,zo+1,0,0,0); LED(xo+1,yo+1,zo-1,0,0,0); LED(xo+1,yo-1,zo-1,0,0,0); LED(xo-1,yo+1,zo-1,0,0,0); LED(xo-1,yo-1,zo-1,0,0,0); LED(x2o+1,y2o+1,z2o,0,0,0); LED(x2o+1,y2o-1,z2o,0,0,0); LED(x2o-1,y2o+1,z2o,0,0,0); LED(x2o-1,y2o-1,z2o,0,0,0); LED(x2o+1,y2o+1,z2o+1,0,0,0); LED(x2o+1,y2o-1,z2o+1,0,0,0); LED(x2o-1,y2o+1,z2o+1,0,0,0); LED(x2o-1,y2o-1,z2o+1,0,0,0); LED(x2o+1,y2o+1,z2o-1,0,0,0); LED(x2o+1,y2o-1,z2o-1,0,0,0); LED(x2o-1,y2o+1,z2o-1,0,0,0); LED(x2o-1,y2o-1,z2o-1,0,0,0); LED(x,y,z,c1,c2,c3); LED(x,y,z-1,c1,c2,c3); LED(x,y,z+1,c1,c2,c3); LED(x,y,z-2,c1,c2,c3); LED(x,y,z+2,c1,c2,c3); LED(x+1,y,z,c1,c2,c3); LED(x-1,y,z,c1,c2,c3); LED(x,y+1,z,c1,c2,c3); LED(x,y-1,z,c1,c2,c3); LED(x+2,y,z,c1,c2,c3); LED(x-2,y,z,c1,c2,c3); LED(x,y+2,z,c1,c2,c3); LED(x,y-2,z,c1,c2,c3); LED(x+1,y+1,z,c1,c2,c3); LED(x+1,y-1,z,c1,c2,c3); LED(x-1,y+1,z,c1,c2,c3); LED(x-1,y-1,z,c1,c2,c3); LED(x+1,y+1,z+1,c1,c2,c3); LED(x+1,y-1,z+1,c1,c2,c3); LED(x-1,y+1,z+1,c1,c2,c3); LED(x-1,y-1,z+1,c1,c2,c3); LED(x+1,y+1,z-1,c1,c2,c3); LED(x+1,y-1,z-1,c1,c2,c3); LED(x-1,y+1,z-1,c1,c2,c3); LED(x-1,y-1,z-1,c1,c2,c3); LED(x2,y2,z2,c21,c22,c23); LED(x2,y2,z2-1,c21,c22,c23); LED(x2,y2,z2+1,c21,c22,c23); LED(x2,y2,z2-2,c21,c22,c23); LED(x2,y2,z2+2,c21,c22,c23); LED(x2+1,y2,z2,c21,c22,c23); LED(x2-1,y2,z2,c21,c22,c23); LED(x2,y2+1,z2,c21,c22,c23); LED(x2,y2-1,z2,c21,c22,c23); LED(x2+2,y2,z2,c21,c22,c23); LED(x2-2,y2,z2,c21,c22,c23); LED(x2,y2+2,z2,c21,c22,c23); LED(x2,y2-2,z2,c21,c22,c23); LED(x2+1,y2+1,z2,c21,c22,c23); LED(x2+1,y2-1,z2,c21,c22,c23); LED(x2-1,y2+1,z2,c21,c22,c23); LED(x2-1,y2-1,z2,c21,c22,c23); LED(x2+1,y2+1,z2+1,c21,c22,c23); LED(x2+1,y2-1,z2+1,c21,c22,c23); LED(x2-1,y2+1,z2+1,c21,c22,c23); LED(x2-1,y2-1,z2+1,c21,c22,c23); LED(x2+1,y2+1,z2-1,c21,c22,c23); LED(x2+1,y2-1,z2-1,c21,c22,c23); LED(x2-1,y2+1,z2-1,c21,c22,c23); LED(x2-1,y2-1,z2-1,c21,c22,c23); x2o=x2; y2o=y2; z2o=z2; xo=x; yo=y; zo=z; delay(45); x = x+xmult; y= y+ymult; z= z+zmult; x2 = x2+x2mult; y2= y2+y2mult; z2= z2+z2mult; if(x>=7){ //x=7; xmult=random(-1,1); } if(y>=7){ //y=7; ymult=random(-1,1);} if(z>=7){ //z=7; zmult=random(-1,1);} if(x<=0){ //x=0; xmult=random(0,2);} if(y<=0){ //y=0; ymult=random(0,2);} if(z<=0){ //z=0; zmult=random(0,2); } if(x2>=7){ //x=7; x2mult=random(-1,1); } if(y2>=7){ //y=7; y2mult=random(-1,1);} if(z2>=7){ //z=7; z2mult=random(-1,1);} if(x2<=0){ //x=0; x2mult=random(0,2);} if(y2<=0){ //y=0; y2mult=random(0,2);} if(z<=0){ //z=0; z2mult=random(0,2); } } clean(); } // end two birds // up down up down up down up down up down up down up down up down up down up down void up_down(){ int counter, color_select, c1, c2, c3, i, m; for(counter=0; counter<15; counter++){ color_select=random(0,3); if(color_select==0){ c1 = 0; c2 = random(0,16); c3 = random(0,16);} if(color_select==1){ c1 = random(0,16); c2 = 0; c3 = random(0,16);} if(color_select==2){ c1 = random(0,16); c2 = random(0,16); c3 = 0;} int num1=-1, num2=-4, num3=-6, num4=-10; for(m=0; m<20; m++){ num1++; num2++; num3++; num4++; for(i=3; i<5; i++){ LED(num1, i,3,0,0,0); LED(num1, 3,i,0,0,0); LED(num1, 4,i,0,0,0); LED(num1, i,4,0,0,0); } for(i=3; i<5; i++){ LED(num1+1, i,4,c1,c2,c3); LED(num1+1, 4,i,c1,c2,c3); LED(num1+1, 3,i,c1,c2,c3); LED(num1+1, i,3,c1,c2,c3); } for(i=2; i<6; i++){ LED(num2, i,2,0,0,0); LED(num2, 2,i,0,0,0); LED(num2, 5,i,0,0,0); LED(num2, i,5,0,0,0); } for(i=2; i<6; i++){ LED(num2+1, i,2,c1,c2,c3); LED(num2+1, 2,i,c1,c2,c3); LED(num2+1, 5,i,c1,c2,c3); LED(num2+1, i,5,c1,c2,c3); } for(i=1; i<7; i++){ LED(num3, i,1,0,0,0); LED(num3, 1,i,0,0,0); LED(num3, 6,i,0,0,0); LED(num3, i,6,0,0,0); } for(i=1; i<7; i++){ LED(num3+1, i,1,c1,c2,c3); LED(num3+1, 1,i,c1,c2,c3); LED(num3+1, 6,i,c1,c2,c3); LED(num3+1, i,6,c1,c2,c3); } for(i=0; i<8; i++){ LED(num4, i,0,0,0,0); LED(num4, 0,i,0,0,0); LED(num4, 7,i,0,0,0); LED(num4, i,7,0,0,0); } for(i=0; i<8; i++){ LED(num4+1, i,0,c1,c2,c3); LED(num4+1, 0,i,c1,c2,c3); LED(num4+1, 7,i,c1,c2,c3); LED(num4+1, i,7,c1,c2,c3); } //delay(1); }//m num1=8; num2=11; num3=13; num4=17; for(m=0; m<20; m++){ num1--; num2--; num3--; num4--; for(i=3; i<5; i++){ LED(num1, i,3,0,0,0); LED(num1, 3,i,0,0,0); LED(num1, 4,i,0,0,0); LED(num1, i,4,0,0,0); } for(i=3; i<5; i++){ LED(num1-1, i,4,0,0,15); LED(num1-1, 4,i,0,0,15); LED(num1-1, 3,i,0,0,15); LED(num1-1, i,3,0,0,15); } for(i=2; i<6; i++){ LED(num2, i,2,0,0,0); LED(num2, 2,i,0,0,0); LED(num2, 5,i,0,0,0); LED(num2, i,5,0,0,0); } for(i=2; i<6; i++){ LED(num2-1, i,2,0,0,15); LED(num2-1, 2,i,0,0,15); LED(num2-1, 5,i,0,0,15); LED(num2-1, i,5,0,0,15); } for(i=1; i<7; i++){ LED(num3, i,1,0,0,0); LED(num3, 1,i,0,0,0); LED(num3, 6,i,0,0,0); LED(num3, i,6,0,0,0); } for(i=1; i<7; i++){ LED(num3-1, i,1,0,0,15); LED(num3-1, 1,i,0,0,15); LED(num3-1, 6,i,0,0,15); LED(num3-1, i,6,0,0,15); } for(i=0; i<8; i++){ LED(num4, i,0,0,0,0); LED(num4, 0,i,0,0,0); LED(num4, 7,i,0,0,0); LED(num4, i,7,0,0,0); } for(i=0; i<8; i++){ LED(num4-1, i,0,0,0,15); LED(num4-1, 0,i,0,0,15); LED(num4-1, 7,i,0,0,15); LED(num4-1, i,7,0,0,15); } //delay(1); }//m }//counter } // end up down up down up down up down up down up down up down up down up down up down void clean(){ int ii, jj, kk; for(ii=0; ii<8; ii++) for(jj=0; jj<8; jj++) for(kk=0; kk<8; kk++) LED(ii,jj,kk,0,0,0); }

door **nicoverduin** » 02 Jun 2013, 10:42

Als eens geprobeert de data pinnen te wijzigen(2 en 4)? Behalve dat Eclipse piept dat er veel ongeinitialiseerde variabelen zijn, compileert hij goed.
Wat je ook nog kan doen, is het geheel langzamer laten lopen en print en stap voor stap er doorheen proberen te gaan.

door **Rudi** » 02 Jun 2013, 12:21

Ik probeer maar even mee te denken en verschillen tussen de beide borden na te gaan.

Verander ik die twee pinnen in de sketch werkt het ook niet.

Het is niet voldoende ze alleen in de sketch aan te passen, hardwarematig moet je deze pinnen 51 en 52 gebruiken i.p.v. 13 en 11.
Maar ik neem aan dat je dat ook wel gedaan hebt :roll:

?

De aansturing van de shiftregisters op zich blijft identiek: SPI voor het versturen van data, een pin voor de latch en eentje om het shiftregister leeg te maken (blank). De Arduino pinnen voor Latch en Blank zouden geen verschil mogen uitmaken om de 74HC595's te latchen en blanken, deze hebben voldoende aan een laag of hoog signaal.

De code gebruikt Timer1. Behalve dat de 2560 intern drie extra 16-bit timers heeft, zou Timer1 identiek zijn aan de ATmega168/268.

Om aan snelheid te winnen wordt

Code: Alles selecteren: PORTD |= 1<<latch_pin;//Latch pin HIGH PORTD &= ~(1<<latch_pin);//Latch pin LOW

gebruikt (ook voor de blank pin) om latch en blank hoog of laag te brengen.
Vervangen door een digitalWrite() al eens uitgeprobeerd? wilde gok hoor. De effecten zullen wel trager verlopen.

door **alsoft** » 02 Jun 2013, 17:38

nicoverduin schreef:Als eens geprobeert de data pinnen te wijzigen(2 en 4)? Behalve dat Eclipse piept dat er veel ongeinitialiseerde variabelen zijn, compileert hij goed.
Wat je ook nog kan doen, is het geheel langzamer laten lopen en print en stap voor stap er doorheen proberen te gaan.

Ik heb pin 2 en 4 verandert naar 3 en 5 en ook met Serial.print gekeken of het programma loopt en dat doet het, alleen worden de shift registers blijkbaar niet goed aangestuurd
Kan je met Serial.print ook waarden zichtbaar maken wat er met de latch, blanc, data (mosi), clock CSK) gebeurt ??

Er is een oscilloscoop onderweg misschien kan ik dan vergelijken ( UNO versus MEGA )wat er op de pinnen gebeurt of niet gebeurt

door **nicoverduin** » 02 Jun 2013, 18:34

Denk dat de scope wel de beste oplossing is om te kijken of die pulse treinen anders zijn.

door **alsoft** » 06 Jun 2013, 22:07

Nico ik heb gemeten met de scope en ik heb geen signal op de latch (pin2) en blank (pin4) pin van de MEGA

Ik heb een UNO en een MEGA met dezefde cube sketch geladen en gelijktijdig eerst de DATA en toen clock van bijde Arduinos vergeleken met de scope en dat kwam overeen
Maar de latch en blank had ik alleen signaal op de UNO op de MEGA had ik geen signaal van die bijde

Ik hoop dat iemand mij hierbij kan helpen

thanks

door **nicoverduin** » 06 Jun 2013, 22:37

Ik heb hier ook een mega liggen. Zal volgende week wel die sketch ff laden en de scope erbij. Mega kapot of had je al een andere geprobeerd?

door **nicoverduin** » 06 Jun 2013, 22:58

ik hem hem even door Eclipse gegooid. En hij piept over de Timer1 en PortD. En als je dit bekijkt: https://spreadsheets.google.com/pub?key ... GPkA&gid=0
Dan zou dat wel eens terecht zijn. Maar ik moet er ff dieper in gaan.

door **alsoft** » 06 Jun 2013, 23:09

Nee ik heb geen andere liggen, maar ik heb net met diverse andere sketches gemeten met de scope op diverse pinnen en ook op pin 2 en 4 en dan zie ik altijd wel een signaal (PWM, High,low) dus de MEGA lijkt mij niet kapot

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Arduino UNO sketch naar MEGA2560 voor led CUBE

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Re: Arduino UNO sketch naar MEGA2560 voor led CUBE

Re: Arduino UNO sketch naar MEGA2560 voor led CUBE

Re: Arduino UNO sketch naar MEGA2560 voor led CUBE

Re: Arduino UNO sketch naar MEGA2560 voor led CUBE

Re: Arduino UNO sketch naar MEGA2560 voor led CUBE

Re: Arduino UNO sketch naar MEGA2560 voor led CUBE

Re: Arduino UNO sketch naar MEGA2560 voor led CUBE

Re: Arduino UNO sketch naar MEGA2560 voor led CUBE

Re: Arduino UNO sketch naar MEGA2560 voor led CUBE

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