RFID BASED ATTENDANCE SYSTEM USING
ARDUINO AND PYTHON
INTRODUCTION:
The
RFID-based attendance system is a modern and efficient approach to automate the
attendance management process. It utilizes Radio Frequency Identification
(RFID) technology along with Arduino microcontroller and Python programming to
accurately record and store attendance data. This project aims to eliminate the
manual process of taking attendance, reducing human error and saving time for
both students and instructors. This project
not only showcases the application of RFID technology in attendance systems but
also highlights the integration of hardware (Arduino) and software (Python) to
create an effective and user-friendly solution. It provides a foundation for
further enhancements, such as integrating a database or web-based interface for
comprehensive attendance management.
COMPONENTS REQUIRED:
|
Component |
Description |
Quantity |
|
ARDUINO UNO |
Arduino Uno or Arduino
Nano |
1 |
|
RFID READER |
MFRC522 or compatible
RFID reader module |
1 |
|
RFID TAG |
Unique RFID tags
assigned to each student |
1 |
|
LCD DISPLAY |
16x2 or 20x4 character
LCD display |
1 |
|
BUZZER |
Small buzzer for
providing audible indication |
1 |
|
JUMPER WIRES |
Male-to-male and
male-to-female jumper wires |
FEW WIRES |
|
RESISTOR |
Depending on LCD and
buzzer requirements |
2 |
BLOCK DIAGRAM:
WORKING:
The RFID-based attendance system works by using an RFID
reader, LCD display, buzzer, Arduino, and Python script to automate the process
of tracking student attendance. Here's a simplified explanation of how the
system operates.
When a student approaches the RFID reader with their assigned
RFID tag, the reader detects the tag's unique identification code. This
information is then sent to the Arduino, which processes it. The Arduino
triggers the LCD display to show the student's name and register number,
providing a visual representation of the attendance.
Simultaneously, the Arduino activates the buzzer, producing
an audible sound to indicate that the RFID tag has been successfully detected.
This alerts the user or instructor that attendance has been recorded.
The Arduino also establishes a connection with a computer
running a Python script. It transmits the student's attendance information to
the Python script via a serial communication link.
The Python script receives the data from the Arduino and
extracts the relevant information, such as the student's name and register
number. It utilizes the openpyxl library to interact with an Excel file, where
the attendance records are stored.
The Python script then writes the extracted attendance
information to the Excel file, effectively recording the student's attendance.
In summary, the RFID-based attendance system automates the
process of tracking student attendance. It detects RFID tags, displays student
information on an LCD display, triggers a buzzer for acknowledgment, and stores
the attendance data in an Excel file using Arduino and Python. This streamlines
attendance management, eliminates manual effort, and improves accuracy in
tracking student attendance.
CODE:
#include<SPI.h>
#include<MFRC522.h>
#include<LiquidCrystal.h>
#define SS_PIN 10
#define RST_PIN 9
MFRC522 rfid(SS_PIN, RST_PIN);
String rfidCard;
LiquidCrystal lcd(2,3,4,5,6,7);
void returnValue();
void setup() {
Serial.begin(9600);
//Serial.println("Starting the RFID Reader...");
SPI.begin();
rfid.PCD_Init();
pinMode(8, OUTPUT);
lcd.begin(16, 2); // Initialize the LCD module with 16 columns and 2 rows
lcd.clear(); // Clear the LCD screen
lcd.setCursor(0, 0);
lcd.print("RFID Reader");
lcd.setCursor(0, 1);
lcd.print("Ready (Group 4)");
}
void loop() {
digitalWrite(8,HIGH);
//rfidCard="172 222 56 99";
//delay(10000);
if (rfid.PICC_IsNewCardPresent()) {
if (rfid.PICC_ReadCardSerial()) {
rfidCard = String(rfid.uid.uidByte[0]) + " " + String(rfid.uid.uidByte[1]) + " " + String(rfid.uid.uidByte[2]) + " " + String(rfid.uid.uidByte[3]);
//Serial.println(rfidCard);
if (rfidCard == "172 222 56 99") {
//If Card Is True
Serial.println("163EC21031");
lcd.clear(); // Clear the LCD screen
lcd.setCursor(0, 0); // Set the cursor to the first line
lcd.print("163EC21031");
lcd.setCursor(0, 1); // Set the cursor to the second line
lcd.print("Name: Johnson");
delay(2000);
returnValue();
} else if(rfidCard == "28 18 52 100")
{
//If Card Is false
Serial.println("163EC21014");
lcd.clear(); // Clear the LCD screen
lcd.setCursor(0, 0); // Set the cursor to the first line
lcd.print("163EC21014");
lcd.setCursor(0, 1); // Set the cursor to the second line
lcd.print("Name: Harish");
delay(2000);
returnValue();
}
else {
lcd.clear(); // Clear the LCD screen if no card is present
lcd.print("Invalid Tag");
}
}
rfid.PICC_HaltA();
}
}
void returnValue(){
char returnedValues=Serial.read();
if (returnedValues == 't' && Serial.available() && Serial.read() == 'r' && Serial.available() && Serial.read() == 'u') {
lcd.clear();
lcd.print("Attendance");
lcd.setCursor(0,1);
lcd.print("Stored");
delay(2000);
lcd.clear();
lcd.setCursor(0,0);
lcd.print("RFID Reader");
lcd.setCursor(0, 1);
lcd.print("Ready");
}
} Python Code: import xlwings as xw
from datetime import datetime
import serial
# Open the workbook
wb = xw.Book('C:\\Users\\hp\\Documents\\attedanceliststudents.xlsx')
sht1 = wb.sheets['Sheet1']
ser = serial.Serial('COM9', 9600,timeout=0.1)
def store_data(register_number, name):
# Find the next available row in column A (register number column)
empty_row = sht1.cells(sht1.cells.rows.count, 1).end('up').row + 1
# Store the data in the respective columns
sht1.cells(empty_row, 1).value = register_number
sht1.cells(empty_row, 2).value = name
sht1.cells(empty_row, 3).value = datetime.now().date()
sht1.cells(empty_row, 4).value = datetime.now().time().strftime('%H:%M:%S')
# Return the cell address of the stored data
cell_address = f"A{empty_row}"
return cell_address
# Input register number and name
#register_number = input("Enter register number: ")
#name = input("Enter name: ")
###############################################################################################################
while True:
if ser.in_waiting>0:
register_number = ser.readline().decode().strip()
print(register_number)
if(len(register_number)>0):
if register_number=="163EC21031":
status=store_data(register_number,"Johnson")
elif register_number=="163EC21014":
status=store_data(register_number,"Harish")
if status is None:
continue
else:
result="tru"
print("redcord")
ser.write(result.encode())
ADVANTAGES AND DISADVANTAGES:
Advantages of the
RFID-Based Attendance System:
- Automation: The system automates attendance
tracking, reducing manual effort and saving time
- Accuracy: RFID technology ensures accurate
identification of students, minimizing attendance discrepancies.
- Real-time tracking: The system provides real-time
attendance data for immediate access and reporting.
- Easy implementation: The project uses commonly
available components and is relatively easy to set up.
- Data analysis: The stored attendance data can be
used for analysis, providing insights into attendance patterns.
Disadvantages of the RFID-Based
Attendance System:
- RFID tag dependency: Students need to have and
carry their RFID tags for accurate attendance recording.
- Limited range: RFID technology has a limited
range, requiring close proximity between the RFID reader and tags.
- Security concerns: There may be security
considerations related to the storage and management of student data.
APPLICATIONS:
- Schools and
Universities: Streamlining attendance recording for students.
- Corporate Attendance
Management: Automating employee attendance tracking.
- Events and
Conferences: Monitoring attendee presence and access control.
- Research Studies and
Experiments: Accurately tracking participant involvement.
COST OF THE PROJECT:
|
Component |
Cost |
|
Arduino
Uno |
900/- |
|
RFID Reader
And Tag |
100/- |
|
Liquid
Crystal Display (LCD) |
110/- |
|
Buzzer |
15/- |
|
Resistor |
2/- |
|
Total |
1130/- |
CONCLUSION:
In conclusion, the RFID-based attendance system project
successfully developed an automated solution for tracking student attendance.
By integrating RFID technology, an Arduino board, an LCD display, a buzzer, and
Python programming, the project achieved efficient and accurate attendance
management. The system eliminates manual record-keeping, reduces human error,
and provides real-time attendance data. It offers a practical and reliable
solution for streamlining attendance tracking in various educational and
organizational settings.
REFERENCE:
https://how2electronics.com/rfid-based-attendance-system-using-arduino/
https://www.topiccenter.live/2024/06/broadband-amplifier-in-depth-guide.html
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