#include <Wire.h>
//#include <MPU6050.h>
#include <LedControl.h>

//#define MPU6050_ADDRESS 0x68 // Default MPU6050 address
#define Matrix_A 0
#define Matrix_B 1
int PIN_CS = 6;
int PIN_CLK = 4;
int PIN_DIN = 5;
#define Matrix_Height 8
#define Matrix_Width 8
int buttonPin=7;
//MPU6050 mpu;
void animation1(int);
unsigned long delayTime=200;

LedControl lc = LedControl(PIN_DIN, PIN_CLK, PIN_CS, 2);

/*
#define ACC_LOW -25
#define ACC_HIGH 25
#define PIN_X mpu6050.getAngleX()
#define PIN_Y mpu6050.getAngleY()
*/

/*
#define ROTATION_OFFSET 90

#define DEBOUNCE_THRESHOLD 500

#define DELAY_FRAME 100
#define MODE_HOURGLASS 0
#define MODE_SETMINUTES 1
#define MODE_SETHOURS 2

byte delayHours = 0;
byte delayMinutes = 1;
int mode = MODE_HOURGLASS;
int gravity;

int resetCounter = 0;

long getDelayDrop() {
  // since we have exactly 60 particles we don't have to multiply by 60 and then divide by the number of particles again :)
    return delayMinutes + delayHours * 60;
    }
    */

 void setup(){
pinMode(buttonPin, INPUT_PULLUP);
lc.shutdown(0,false);
lc.setIntensity(0,8);
lc.clearDisplay(0);

Serial.begin(9600);
 Wire.begin();
  //mpu.initialize();



  }

void loop()
 {
 // Read gyro data
 //int16_t gyroX, gyroY, gyroZ;
//mpu.getRotation(&gyroX, &gyroY, &gyroZ);

 // Check if the sensor is flipped
   // Adjust this threshold based on your sensor orientation
   // Display falling LEDs on matrix1
    
int buttonState=digitalRead(buttonPin);
 

 
    lc.clearDisplay(0);
    lc.clearDisplay(1);
    
if(digitalRead(buttonPin)==LOW){
       for (int i = 0; i < Matrix_Height; i++) {
        
     lc.setRow(0, i, B11111111); // Turn on all LEDs in the current row
   delay(300); // Adjust the falling speed
     // Adjust the falling speed
       lc.setRow(1, i, B00000000); // Turn on all LEDs in the current row
   delay(300);                                      
   // Adjust the falling speed
   if (i > 0) {
      lc.setRow(0, i - 1, B00000000);
      delay(300);
   }
      
    lc.setRow(1, i, B11111111); // Turn on all LEDs in the current row
   delay(300);  
       }
 


  
    lc.clearDisplay(0);
    lc.clearDisplay(1);
}
if(digitalRead(buttonPin)==LOW){
     for (int i = 0; i < Matrix_Height; i++) {
      
      lc.setRow(0, i, B01111110); // Turn on all LEDs in the current row
      delay(300); // Adjust the falling speed
      lc.setRow(1, i, B00000000); // Turn on all LEDs in the current row
      delay(300); // Adjust the falling speed
       if (i > 0) {
      lc.setRow(0, i - 1, B00000000);
      delay(300);
   } // Adjust the falling speed
      lc.setRow(1, i, B01111110); // Turn on all LEDs in the current row
      delay(300); // Adjust the falling speed

   
    
  }
}

     
}
  /*void animation1(int buttonReading){
    if(buttonReading==LOW){
       for (int i = 0; i < Matrix_Height; i++) {
     lc.setRow(0, i, B11111111); // Turn on all LEDs in the current row
   delay(2000); // Adjust the falling speed
    lc.setRow(0, i, B11111111); // Turn on all LEDs in the current row
   delay(2000); // Adjust the falling speed
                                             

                                              
    delay(2000);
       }
    }
    */