So, now I hope that you have installed both these libraries successfully and are ready to design this DS1307 Arduino based Digital Clock. I have given the Simulation and Code for download below but as I always advise, don't just download the files. Instead design your own simulation and try to write your own code. In this way, you will learn more out of it. So, let's get started with DS1307 Arduino based Digital Clock in Proteus ISIS:
#include <LiquidCrystal.h>
#include <DS1307.h>
#include <Wire.h>
LiquidCrystal lcd(13,12,11,10,9,8);
int clock[7];
void setup(){
for(int i=3;i<8;i++){
pinMode(i,INPUT);
}
lcd.begin(20,2);
DS1307.begin();
DS1307.setDate(16,4,7,0,17,50,04);//ano,mes,dia,semana,horas,minutos,segundos
}
void loop(){
DS1307.getDate(clock);
lcd.setCursor(0,1);
lcd.print("Time: ");
Print(clock[4]);
lcd.print(":");
Print(clock[5]);
lcd.print(":");
Print(clock[6]);
lcd.setCursor(0,0);
lcd.print("Date: ");
Print(clock[1]);
lcd.print("/");
Print(clock[2]);
lcd.print("/");
lcd.print("20");
Print(clock[0]);
if(digitalRead(7)){
clock[5]++;
if(clock[5]>59) clock[5]=0;
DS1307.setDate(clock[0],clock[1],clock[2],0,clock[4],clock[5],clock[6]);
while(digitalRead(7));
}
if(digitalRead(6)){
clock[4]++;
if(clock[4]>23) clock[4]=0;
DS1307.setDate(clock[0],clock[1],clock[2],0,clock[4],clock[5],clock[6]);
while(digitalRead(6));
}
if(digitalRead(5)){
clock[2]++;
if(clock[2]>31) clock[2]=1;
DS1307.setDate(clock[0],clock[1],clock[2],0,clock[4],clock[5],clock[6]);
while(digitalRead(5));
}
if(digitalRead(4)){
clock[1]++;
if(clock[1]>12) clock[1]=1;
DS1307.setDate(clock[0],clock[1],clock[2],0,clock[4],clock[5],clock[6]);
while(digitalRead(4));
}
if(digitalRead(3)){
clock[0]++;
if(clock[0]>99) clock[0]=0;
DS1307.setDate(clock[0],clock[1],clock[2],0,clock[4],clock[5],clock[6]);
while(digitalRead(3));
}
delay(100);
}
void Print(int number){
lcd.print(number/10);
lcd.print(number%10);
}
Anyways coming to today's post, today we are gonna have a look at DS1307 Library for Proteus. Using this library, now you can quite easily simulate DS1307 module in Proteus in a quite stylish way. ;) I have designed it in red color because its available in red color in market. DS1307 module is already available in Proteus but that one is quite basic and it looks quite dull. The one designed by our team looks quite attractive and is also easy to use. I will post its tutorials soon in which I will interface it with Arduino and PIC Microcontroller. You should also have a look at DS1307 Arduino based Digital Clock in Proteus. So, let's get started with DS1307 Library for Proteus:
So, that's all for today. You should also have a look at these New Proteus Libraries for Engineering Students. I hope you are gonna enjoy this DS1307 Library for Proteus. If you have any suggestions or feedback then do let us know in comments. Till next tutorial, take care and have fun!!! :)
If you wanna implement it on hardware then you must have a look at Send SMS with SIM900D module with Arduino which is designed in real hardware but today we are gonna just do the simulation part. Iam not gonna use any Microcontroller today. Instead I will just send the AT commands through virtual Terminal and we will make it work.So, let's get started with Send SMSM with Sim900D in Proteus ISIS.
As its the first version of our GSM Library so its not complete or perfect. It is really the basic model of GSM Library and rite now it will only support some commands, which I will post below. I am still working on it and I will soon update these files and will add more commands in it but till then you have to use these commands only. Moreover, this Library contains only one module in it which is SIM900D module. I will add more soon like SIM900A and Sim300 etc. real soon. I will also interface it with different Microcontrollers like Arduino or PIC Microcontroller etc. and will share their tutorials. So. let's get started with GSM Library for Proteus:
Note: Other Proteus Libraries are as follows:So, for DC Motor Direction Control, I have used Arduino UNO baord, so you should also download this Arduino Library for Proteus so that you can use Arduino boards in Proteus software. I have also provide the simulation and the code for DC Motor Direction Control but I would recommend you to design it on your own so that you learn from it. If you have any problem then ask in comments and I will try to resolve them. In this project, I have used Serial Terminal. So, whenever someone, sends character "C" on serial terminal then the motor will move in Clockwise Direction and when someone sends character "A" then it will move in Anti-clockwise Direction and will stop on character "S". Anyways, lets get started with DC Motor Direction Control with Arduino in Proteus ISIS.
int Motor1 = 2;
int Motor2 = 3;
void setup() {
pinMode(Motor1, OUTPUT);
pinMode(Motor2, OUTPUT);
Serial.begin(9600);
}
void loop() {
if(Serial.available())
{
char data = Serial.read();
Serial.println(data);
if(data == 'C'){MotorClockwise();}
if(data == 'A'){MotorAntiClockwise();}
if(data == 'S'){MotorStop();}
}
}
void MotorAntiClockwise()
{
digitalWrite(Motor1, HIGH);
digitalWrite(Motor2, LOW);
}
void MotorClockwise()
{
digitalWrite(Motor1, LOW);
digitalWrite(Motor2, HIGH);
}
void MotorStop()
{
digitalWrite(Motor1, HIGH);
digitalWrite(Motor2, HIGH);
}
So, that's all for today. Hopefully now you have got the idea of How to do DC Motor Direction Control with Arduino in Proteus ISIS. In the next tutorial, I am gonna add speed control of DC Motor. So, till then take care and have fun. :)
Other bloggers are welcome to share this Bluetooth Library for Proteus on their blogs but do mention our link as a respect to our efforts. These Bluetooth modules are not gonna accept AT Commands rite now as we haven't added much functionality in it but we are gonna add more soon. I will also add more Bluetooth modules in this library and will update it with time. Rite now, it just has two Bluetooth modules in it, which are:
You can do serial communication with these modules quite easily. So, let's get started with Bluetooth Library for Proteus an see How to install it and how to use it in Proteus.
Note: Other Proteus Libraries are as follows:Note:
Before reading any further, I think you must have a look at the below post from where you can download the Bluetooth Library for Proteus, using this library you can easily simulate HC-05 or , HC-06 in Proteus software:
I have also done Bluetooth communication with Android mobiles. In these projects I have sent the data from this Bluetooth module to Android mobiles but in such projects I have also designed Bluetooth app on which this data is received. Anyways, that's a topic of another tutorial. Today, I am gonna connect this Bluetooth module with Arduino board and then will send some data to my computer using Bluetooth. So, let's get started with Arduino Bluetooth communication using HC-05 module.
#include <SoftwareSerial.h>
SoftwareSerial mySerial(2, 3);
void setup()
{
Serial.begin(9600);
mySerial.begin(9600);
}
void loop()
{
if (mySerial.available())
Serial.write(mySerial.read());
if (Serial.available())
mySerial.write(Serial.read());
}
So, that's all for today and I hope you are gonna make it work in the single attempt. If still having problems then ask in comments and I will resolve them. So, today we have done Arduino Bluetooth communication using HC-05 module.
All these 555 Timer Projects and tutorials are written and designed completely by our team so we hold the complete ownership for these projects. Other bloggers are welcome to share them on their blogs to spread knowledge but do mention our post link as we have done a lot of work and effort in designing these tutorials and projects. :)
I will keep on updating this list in future as I am gonna add more projects on 555 Timer, I will add their links below. So, enough with the talking, let's get started with 555 Timer projects.
I have divided these projects and tutorials in different sections depending on their complexity. Follow all these tutorials step by step and you are gonna be expert in 555 Timer real soon. I will keep on updating this list in future, whenever I am gonna add new project on 555 Timer, I will post the link here.
Below tutorials will give you the basics of 555 Timer IC. So these tutorials are kind of must because if you don't know the basics of any integrated chip then how can you use it in your ciruits. So must read them once and then move to next section:
I hope you have read the basics of 555 Timer, so now here's time to get started with 555 Timer Projects. These projects are designed in Proteus simulating software and are working perfectly. Simulations are given for download in most of these tutorials. So, lets get started:
Now I think you are quite expert in 555 Timer and have done the basic projects so now its time to move to the next level and design advance level projects with 555 Timer. In these projects we are gonna interface difference electronic modules with 555 Timer.
PWM, as the name suggests, is simply a pulse width modulation. We take a pulse and then we modulate its width and make it small or big. Another term important while studying PWM is named duty cycle. The duty cycle shows the duration for which the PWM pulse remains HIGH. Now if the pulse remains high for 50% and LOW for 50% then we say that PWM pulse has a duty cycle of 50%. Similarly, if the pulse is HIGH for 70% and Low for 30% then it has a duty cycle of 70%.
Most of the microcontrollers have special pins assigned for PWM as in Arduino UNO it has 6 PWM pins on it. Similarly, PIC Microcontrollers also have PWM pins but unfortunately, the 8051 Microcontroller doesn't have this luxury means there are no special PWM pins available in 8051 Microcontroller. But PWM is necessary so we are going to manually generate the PWM pulse using Timer0 interrupt. So, before reading this tutorial you must first read How to use Timer Interrupt in 8051 Microcontroller so that you understand the functioning of Timer Interrupt. Anyways, let's get started with the generation of PWM in the 8051 Microcontroller.
| Where To Buy? | ||||
|---|---|---|---|---|
| No. | Components | Distributor | Link To Buy | |
| 1 | 8051 Microcontroller | Amazon | Buy Now | |
#include<reg51.h>
// PWM_Pin
sbit PWM_Pin = P2^0; // Pin P2.0 is named as PWM_Pin
// Function declarations
void cct_init(void);
void InitTimer0(void);
void InitPWM(void);
// Global variables
unsigned char PWM = 0; // It can have a value from 0 (0% duty cycle) to 255 (100% duty cycle)
unsigned int temp = 0; // Used inside Timer0 ISR
// PWM frequency selector
/* PWM_Freq_Num can have values in between 1 to 257 only
* When PWM_Freq_Num is equal to 1, then it means highest PWM frequency
* which is approximately 1000000/(1*255) = 3.9kHz
* When PWM_Freq_Num is equal to 257, then it means lowest PWM frequency
* which is approximately 1000000/(257*255) = 15Hz
*
* So, in general you can calculate PWM frequency by using the formula
* PWM Frequency = 1000000/(PWM_Freq_Num*255)
*/
#define PWM_Freq_Num 1 // Highest possible PWM Frequency
// Main Function
int main(void)
{
cct_init(); // Make all ports zero
InitPWM(); // Start PWM
PWM = 127; // Make 50% duty cycle of PWM
while(1) // Rest is done in Timer0 interrupt
{}
}
// Init CCT function
void cct_init(void)
{
P0 = 0x00;
P1 = 0x00;
P2 = 0x00;
P3 = 0x00;
}
// Timer0 initialize
void InitTimer0(void)
{
TMOD &= 0xF0; // Clear 4bit field for timer0
TMOD |= 0x01; // Set timer0 in mode 1 = 16bit mode
TH0 = 0x00; // First time value
TL0 = 0x00; // Set arbitrarily zero
ET0 = 1; // Enable Timer0 interrupts
EA = 1; // Global interrupt enable
TR0 = 1; // Start Timer 0
}
// PWM initialize
void InitPWM(void)
{
PWM = 0; // Initialize with 0% duty cycle
InitTimer0(); // Initialize timer0 to start generating interrupts
// PWM generation code is written inside the Timer0 ISR
}
// Timer0 ISR
void Timer0_ISR (void) interrupt 1
{
TR0 = 0; // Stop Timer 0
if(PWM_Pin) // if PWM_Pin is high
{
PWM_Pin = 0;
temp = (255-PWM)*PWM_Freq_Num;
TH0 = 0xFF - (temp>>8)&0xFF;
TL0 = 0xFF - temp&0xFF;
}
else // if PWM_Pin is low
{
PWM_Pin = 1;
temp = PWM*PWM_Freq_Num;
TH0 = 0xFF - (temp>>8)&0xFF;
TL0 = 0xFF - temp&0xFF;
}
TF0 = 0; // Clear the interrupt flag
TR0 = 1; // Start Timer 0
}
After reading this post, you will also get the skilled hand on timer interrupt and can understand them more easily. In today's post, I am gonna design a digital clock which will increment after every one second and we will calculate this one second increment using timer interrupt. This clock will be displayed on LCD so if you are not familiar with LCD then must read Interfacing of LCD with 8051 Microcontroller. You can also implement this digital clock with any other microcontroller like Arduino or PIC Microcontroller but today we are gonna implement it on 8051 Microcontroller. The complete simulation along with code is given at the end of this post but my suggestion is to design it on your own so that you get most of it. Use our code and simulation as a guide. So, let's get started with Interrupt based Digital clock with 8051 Microcontroller. :)
#include<reg51.h>
//Function declarations
void cct_init(void);
void delay(int);
void lcdinit(void);
void WriteCommandToLCD(int);
void WriteDataToLCD(char);
void ClearLCDScreen(void);
void InitTimer0(void);
void UpdateTimeCounters(void);
void DisplayTimeToLCD(unsigned int,unsigned int,unsigned int);
void WebsiteLogo();
void writecmd(int);
void writedata(char);
//*******************
//Pin description
/*
P2.4 to P2.7 is data bus
P1.0 is RS
P1.1 is E
*/
//********************
// Defines Pins
sbit RS = P1^0;
sbit E = P1^1;
// Define Clock variables
unsigned int usecCounter = 0;
unsigned int msCounter = 0;
unsigned int secCounter = 0;
unsigned int minCounter = 0;
unsigned int hrCounter = 0;
// ***********************************************************
// Main program
//
void main(void)
{
cct_init(); // Make all ports zero
lcdinit(); // Initilize LCD
InitTimer0(); // Start Timer0
// WebsiteLogo();
while(1)
{
if( msCounter == 0 ) // msCounter becomes zero after exact one sec
{
DisplayTimeToLCD(hrCounter, minCounter, secCounter); // Displays time in HH:MM:SS format
}
UpdateTimeCounters(); // Update sec, min, hours counters
}
}
void writecmd(int z)
{
RS = 0; // This is command
P2 = z; //Data transfer
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
}
void writedata(char t)
{
RS = 1; // This is data
P2 = t; //Data transfer
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
}
void cct_init(void)
{
P0 = 0x00; //not used
P1 = 0x00; //not used
P2 = 0x00; //used as data port
P3 = 0x00; //used for generating E and RS
}
void InitTimer0(void)
{
TMOD &= 0xF0; // Clear 4bit field for timer0
TMOD |= 0x02; // Set timer0 in mode 2
TH0 = 0x05; // 250 usec reloading time
TL0 = 0x05; // First time value
ET0 = 1; // Enable Timer0 interrupts
EA = 1; // Global interrupt enable
TR0 = 1; // Start Timer 0
}
void Timer0_ISR (void) interrupt 1 // It is called after every 250usec
{
usecCounter = usecCounter + 250; // Count 250 usec
if(usecCounter==1000) // 1000 usec means 1msec
{
msCounter++;
usecCounter = 0;
}
TF0 = 0; // Clear the interrupt flag
}
void WebsiteLogo()
{
writecmd(0x95);
writedata('w'); //write
writedata('w'); //write
writedata('w'); //write
writedata('.'); //write
writedata('T'); //write
writedata('h'); //write
writedata('e'); //write
writedata('E'); //write
writedata('n'); //write
writedata('g'); //write
writedata('i'); //write
writedata('n'); //write
writedata('e'); //write
writedata('e'); //write
writedata('r'); //write
writedata('i'); //write
writedata('n'); //write
writedata('g'); //write
writecmd(0xd8);
writedata('P'); //write
writedata('r'); //write
writedata('o'); //write
writedata('j'); //write
writedata('e'); //write
writedata('c'); //write
writedata('t'); //write
writedata('s'); //write
writedata('.'); //write
writedata('c'); //write
writedata('o'); //write
writedata('m'); //write
writecmd(0x80);
}
void UpdateTimeCounters(void)
{
if (msCounter==1000)
{
secCounter++;
msCounter=0;
}
if(secCounter==60)
{
minCounter++;
secCounter=0;
}
if(minCounter==60)
{
hrCounter++;
minCounter=0;
}
if(hrCounter==24)
{
hrCounter = 0;
}
}
void DisplayTimeToLCD( unsigned int h, unsigned int m, unsigned int s ) // Displays time in HH:MM:SS format
{
ClearLCDScreen(); // Move cursor to zero location and clear screen
// Display Hour
WriteDataToLCD( (h/10)+0x30 );
WriteDataToLCD( (h%10)+0x30 );
//Display ':'
WriteDataToLCD(':');
//Display Minutes
WriteDataToLCD( (m/10)+0x30 );
WriteDataToLCD( (m%10)+0x30 );
//Display ':'
WriteDataToLCD(':');
//Display Seconds
WriteDataToLCD( (s/10)+0x30 );
WriteDataToLCD( (s%10)+0x30 );
}
void delay(int a)
{
int i;
for(i=0;i<a;i++); //null statement
}
void WriteDataToLCD(char t)
{
RS = 1; // This is data
P2 &= 0x0F; // Make P2.4 to P2.7 zero
P2 |= (t&0xF0); // Write Upper nibble of data
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
P2 &= 0x0F; // Make P2.4 to P2.7 zero
P2 |= ((t<<4)&0xF0);// Write Lower nibble of data
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
}
void WriteCommandToLCD(int z)
{
RS = 0; // This is command
P2 &= 0x0F; // Make P2.4 to P2.7 zero
P2 |= (z&0xF0); // Write Upper nibble of data
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
P2 &= 0x0F; // Make P2.4 to P2.7 zero
P2 |= ((z<<4)&0xF0);// Write Lower nibble of data
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
}
void lcdinit(void)
{
///////////// Reset process from datasheet /////////
delay(15000);
P2 &= 0x0F; // Make P2.4 to P2.7 zero
P2 |= (0x30&0xF0); // Write 0x3
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
delay(4500);
P2 &= 0x0F; // Make P2.4 to P2.7 zero
P2 |= (0x30&0xF0); // Write 0x3
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
delay(300);
P2 &= 0x0F; // Make P2.4 to P2.7 zero
P2 |= (0x30&0xF0); // Write 0x3
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
delay(650);
P2 &= 0x0F; // Make P2.4 to P2.7 zero
P2 |= (0x20&0xF0); // Write 0x2
E = 1; // => E = 1
delay(150);
E = 0; // => E = 0
delay(150);
delay(650);
/////////////////////////////////////////////////////
WriteCommandToLCD(0x28); //function set
WriteCommandToLCD(0x0c); //display on,cursor off,blink off
WriteCommandToLCD(0x01); //clear display
WriteCommandToLCD(0x06); //entry mode, set increment
}
void ClearLCDScreen(void)
{
WriteCommandToLCD(0x01); // Clear screen command
delay(1000);
}