Chakra Healing Harmonizer – Arduino Meditation

Chakra Healing Harmonizer – Arduino Meditation

A step to combine the technology and spiritualism. Introducing the Chakra Healing Harmonizer – Arduino Meditaion Helper. This project demonstrates the use of electronics and embedded system with Chakra Meditation. This is my step to put forth to help a yoga institution and to create an awareness about Chakra healing.

Video Demo

Step 1: Parts and Material

  • Arduino Uno
  • Relay Module with 7 Relays
  • Arduino MP3 Shield
  • Speaker: 3W, 4 ohms x 2
  • RGB LED panel with 7 LEDs

Step 2: Hardware

First We will build the frame of the Arduino Meditaion center. Cut the Plywood to the required dimension and paste a Glass sheet cover each LED of RGB LED Panel. For powering up the device, a 12V adapter is installed and another adapter is used to light up the LED Panel. We use the the Relay for easily switching the LED Color Panels. Make sure that the supply is isolated. Drill the plywood to mount the PCB.

Step 3: Connections

G:RahulPhotosCollege Days3rd Year_Project__Project_Chakra_Meditation20180609_222550.jpg

*Arduino -> BT MODULE*

TX -> RX

RX -> TX

VCC -> 3.3v

GND -> GND[AdSense-C]

*Arduino -> Relay Board*

IN1 -> A1

IN2 -> A2

IN3 -> A3

IN4 -> A4

IN5 -> A5

IN6 -> A6

IN7 -> A7

VCC -> VCC

GND -> GND

*Arduino -> MP3Module*

TX -> D10

RX -> D11

VCC -> 3.3v

GND -> GND

Step 4: The Code

You can find the sample code below.

//Chakra Healing Harmonizer using Arduino
/*
Visit the Channel for more interesting projects
https://www.youtube.com/channel/UCks-9JSnVb22dlqtMgPjrlg
*/
#include "SoftwareSerial.h"
#include <dfplayer_mini_mp3.h></dfplayer_mini_mp3.h>
SoftwareSerial mySerial(11, 10);
# define Start_Byte 0x7E
# define Version_Byte 0xFF
# define Command_Length 0x06
# define End_Byte 0xEF
# define Acknowledge 0x00 info]
# define ACTIVATED LOW
boolean isPlaying = false;
int but = 12;
int r1= A1, r2 = A2, r3 = A3, r4 = A4, r5 = A5, r6 = A6, r7 = A7;
void setup () {
pinMode(but, INPUT_PULLUP);
digitalWrite(but,HIGH);
pinMode(r1, OUTPUT);
digitalWrite(r1,LOW);
pinMode(r2, OUTPUT);
digitalWrite(r2,LOW);
pinMode(r3, OUTPUT);
digitalWrite(r3,LOW);
pinMode(r4, OUTPUT);
digitalWrite(r4,LOW);
pinMode(r5, OUTPUT);
digitalWrite(r5,LOW);
pinMode(r6, OUTPUT);
digitalWrite(r6,LOW);
pinMode(r7, OUTPUT);
digitalWrite(r7,LOW);
Serial.begin(9600);
mySerial.begin (9600);
mp3_set_serial (mySerial);
mp3_set_volume (25);
}
void loop () {
check_bt();
}
void check_bt()
{
while (Serial.available()){
delay(10);
char c = Serial.read();
if ((c == '~')|| (c == '+')) {break;}
voice += c;
}
if (voice.length() > 0) {
Serial.println(voice);
if(voice == "playc1")
{
voice=""; p1 = 1;relay_1();
mp3_play (1);
wait(hr1,minute1,0);
mp3_stop ();
}
else p1 = 0;
if(voice == "playc2")
{
voice=""; p2 = 1;relay_2();
mp3_play (2);
wait(hr2,minute2,0);
mp3_stop ();
}
else p2 = 0;
if(voice == "playc3")
{
voice=""; p3 = 1;relay_3();
mp3_play (3);
wait(hr3,minute3,0);
mp3_stop ();
}
else p3 = 0;
if(voice == "playc4")
{
voice=""; p4 = 1;relay_4();
mp3_play (4);
wait(hr4,minute4,0);
mp3_stop ();
}
else p4 = 0;
if(voice == "playc5")
{
voice=""; p5 = 1;relay_5();
mp3_play (5);
wait(hr5,minute5,0);
mp3_stop ();
}
else p5 = 0;
if(voice == "playc6")
{
voice=""; p6 = 1;relay_6();
mp3_play (6);
wait(hr6,minute6,0);
mp3_stop ();
}
else p6 = 0;
if(voice == "playc7")
{
voice=""; p7 = 1;relay_7();
mp3_play (7);
wait(hr7,minute7,0);
mp3_stop ();
}
else p7 = 0;
//////////////////////////////////////////////////////////////////////
if(voice == "playal")
{
voice=""; p_cur = 1;
if(p1 == 1)
{
p1 = 0; relay_1();
mp3_play (1);
wait(2,0,0);
mp3_stop ();
}
else if(p2 == 1)
{
p2 = 0; relay_2();
mp3_play (2);
wait(2,0,0);
mp3_stop ();
}
else if(p3 == 1)
{
p3 = 0; relay_3();
mp3_play (3);
wait(2,0,0);
mp3_stop ();
}
else if(p4 == 1)
{
p4 = 0; relay_4();
mp3_play (4);
wait(2,0,0);
mp3_stop ();
}
else if(p5 == 1)
{
p5 = 0; relay_5();
mp3_play (5);
wait(2,0,0);
mp3_stop ();
}
else if(p6 == 1)
{
p6 = 0; relay_6();
mp3_play (6);
wait(2,0,0);
mp3_stop ();
}
else if(p7 == 1)
{
p7 = 0; relay_7();
mp3_play (7);
wait(2,0,0);
mp3_stop ();
}
}
else p_cur = 0;
/////////////////////////////////////////////////////////////////////////////
if(voice == "playrc")
{
voice=""; p_order = 1;
p1 = 1; relay_1();
mp3_play (1);
wait(hr1,minute1,0);
p1 = 0;
mp3_stop ();
wait(0,1,0);
p2 = 1; relay_2();
mp3_play (2);
wait(hr2,minute2,0);
p2 = 0;
mp3_stop ();
wait(0,1,0);
p3 = 1; relay_3();
mp3_play (3);
wait(hr3,minute3,0);
p3 = 0;
mp3_stop ();
wait(0,1,0);
p4 = 1; relay_4();
mp3_play (4);
wait(hr4,minute4,0);
p4 = 0;
mp3_stop ();
wait(0,1,0);
p5 = 1; relay_5();
mp3_play (5);
wait(hr5,minute5,0);
p5 = 0;
mp3_stop ();
wait(0,1,0);
p6 = 1; relay_6();
mp3_play (6);
wait(hr6,minute6,0);
p6 = 0;
mp3_stop ();
wait(0,1,0);
p7 = 1; relay_7();
mp3_play (7);
wait(hr7,minute7,0);
p7 = 0;
mp3_stop ();
}
else p_order = 0;
if(voice == "playst") {mp3_stop (); relay_stop();
p1 = 0; p2 = 0; p3 = 0; p4 = 0; p5 = 0; p6 = 0; p7 = 0;
p_cur = 0; p_order = 0;}
voice="";}
}
void wait(int h,int m,int s)
{
int t = (h*60*60)+(m*60)+s;
for(int i=1;i<t;i++) 1sec="" 1000ms="" {="" for(int="" j="0;j<40;j++)" delay(25);="" check_bt();="" }="" }<="" p=""></t;i++)>
void relay_1()
{
digitalWrite(r1,HIGH);
digitalWrite(r2,LOW);
digitalWrite(r3,LOW);
digitalWrite(r4,LOW);
digitalWrite(r5,LOW);
digitalWrite(r6,LOW);
digitalWrite(r7,LOW);
}
void relay_2()
{
digitalWrite(r1,LOW);
digitalWrite(r2,HIGH);
digitalWrite(r3,LOW);
digitalWrite(r4,LOW);
digitalWrite(r5,LOW);
digitalWrite(r6,LOW);
digitalWrite(r7,LOW);
}
void relay_3()
{
digitalWrite(r1,LOW);
digitalWrite(r2,LOW);
digitalWrite(r3,HIGH);
digitalWrite(r4,LOW);
digitalWrite(r5,LOW);
digitalWrite(r6,LOW);
digitalWrite(r7,LOW);
}
void relay_4()
{
digitalWrite(r1,LOW);
digitalWrite(r2,LOW);
digitalWrite(r3,LOW);
digitalWrite(r4,HIGH);
digitalWrite(r5,LOW);
digitalWrite(r6,LOW);
digitalWrite(r7,LOW);
}
void relay_5()
{
digitalWrite(r1,LOW);
digitalWrite(r2,LOW);
digitalWrite(r3,LOW);
digitalWrite(r4,LOW);
digitalWrite(r5,HIGH);
digitalWrite(r6,LOW);
digitalWrite(r7,LOW);
}
void relay_6()
{
digitalWrite(r1,LOW);
digitalWrite(r2,LOW);
digitalWrite(r3,LOW);
digitalWrite(r4,LOW);
digitalWrite(r5,LOW);
digitalWrite(r6,HIGH);
digitalWrite(r7,LOW);
}
void relay_7()
{
digitalWrite(r1,LOW);
digitalWrite(r2,LOW);
digitalWrite(r3,LOW);
digitalWrite(r4,LOW);
digitalWrite(r5,LOW);
digitalWrite(r6,LOW);
digitalWrite(r7,HIGH);
}
void relay_stop()
{
digitalWrite(r1,LOW);
digitalWrite(r2,LOW);
digitalWrite(r3,LOW);
digitalWrite(r4,LOW);
digitalWrite(r5,LOW);
digitalWrite(r6,LOW);
digitalWrite(r7,LOW);
}
//*************************************************************************************************************************************
void playFirst()
{
execute_CMD(0x3F, 0, 0);
delay(100);
setVolume(25);
delay(100);
execute_CMD(0x11,0,1);
delay(100);
}
void initiate(){
execute_CMD(0x3F, 0, 0);
delay(100);
setVolume(25);
delay(100);}
void pause()
{
execute_CMD(0x0E,0,0);
delay(100);
}
void play()
{
execute_CMD(0x0D,0,1);
delay(100);
}
void playNext()
{
execute_CMD(0x01,0,1);
delay(100);
}
void playPrevious()
{
execute_CMD(0x02,0,1);
delay(100);
}
void setVolume(int volume)
{
execute_CMD(0x06, 0, volume);
delay(2000);
}
void play1()
{
relay_1();
execute_CMD(0x0D,0,1);
delay(100);
isPlaying = true; wait(hr1,minute1,0);
pause();
}
void play2()
{
p2 = 1;
relay_2();
execute_CMD(0x0D,0,2);
delay(100);
isPlaying = true; wait(hr2,minute2,0);
pause();
p2 = 0;
}
void play3()
{
p3 = 1;
relay_3();
execute_CMD(0x0D,0,3);
delay(100);
isPlaying = true; wait(hr3,minute3,0);
pause();
p3 = 0;
}
void play4()
{
p4 = 1;
relay_4();
execute_CMD(0x0D,0,4);
delay(100);
isPlaying = true; wait(hr4,minute4,0);
pause();
p4 = 0;
}
void play5()
{
p5 = 1;
relay_5();
execute_CMD(0x0D,0,5);
delay(100);
isPlaying = true; wait(hr5,minute5,0);
pause();
p5 = 0;
}
void play6()
{
p6 = 1;
relay_6();
execute_CMD(0x0D,0,6);
delay(100);
isPlaying = true; wait(hr6,minute6,0);
pause();
p6 = 0;
}
void play7()
{
p7 = 1;
relay_7();
execute_CMD(0x0D,0,7);
delay(100);
isPlaying = true; wait(hr7,minute7,0);
pause();
p7 = 0;
}
void execute_CMD(byte CMD, byte Par1, byte Par2)
{
word checksum = -(Version_Byte + Command_Length + CMD + Acknowledge + Par1 + Par2);
byte Command_line[10] = { Start_Byte, Version_Byte, Command_Length, CMD, Acknowledge,
Par1, Par2, highByte(checksum), lowByte(checksum), End_Byte};
for (byte k=0; k<10; k++)
{
mySerial.write( Command_line[k]);
}
}

Step 5: Connections

G:RahulPhotosCollege Days3rd Year_Project__Project_Chakra_MeditationFUO1ZTVJK4ULOT3.LARGE.jpg
G:RahulPhotosCollege Days3rd Year_Project__Project_Chakra_MeditationFZT2RHGJK4ULOW5.LARGE.jpg

Step 6: Application

For now we will use the ready-made application.Please check out the below video to know more about the usage of Chakra Healing Harmonizer / Arduino Meditation Device.

I will be adding more on this once certificates are processed.

APP Screenshot:

G:RahulPhotosCollege Days3rd Year_Project__Project_Chakra_MeditationScreenshot_20180617-230521.jpg

Project By: The Lonely Programmer

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