Smart Two-Wheeler Stand Automation System Based on Arduino with Key-Operated Control

Abstract

The smart two-wheeler stand automation system based on arduino with key-operated control is an innovative project designed to enhance safety, convenience, and automation in modern motorcycles. the system eliminates the need for manually handling the side stand by using a servo motor controlled through an arduino microcontroller. the stand automatically lifts or lowers based on user input via a key-operated switch, ensuring proper operation before the vehicle starts. this prevents common accidents caused by riders forgetting to retract the stand while riding. a 12v battery powers the system, providing reliable performance with minimal power consumption. this project demonstrates the integration of simple electronics and automation to improve vehicle safety and user comfort. the proposed system is cost-effective, user-friendly, and can be easily implemented in existing two-wheelers, making it a practical solution for everyday use.

Introduction

The demand for safer and more convenient vehicle systems has led to the development of a smart automation system for two-wheeler stands. Traditional manual side stands often cause accidents when riders forget to lift them before riding. To address this, a key-operated automatic stand system has been designed using an Arduino Uno microcontroller, servo motor, sensors, and a 12V battery.

Key Features & Objectives:

• Automates the lifting and lowering of the two-wheeler stand based on the ignition key position.

• Ensures rider safety by preventing accidents due to unlifted stands.

• Reduces human effort, saves time, and provides a user-friendly, cost-effective solution.

• Can be retrofitted to various bikes and scooters with minor modifications.

Working Principle:

• When the ignition key is turned ON, the Arduino activates the servo motor to retract the stand.

• When the key is turned OFF, the stand automatically deploys for stable parking.

• Limit switches or sensors ensure precise movement and prevent mechanical damage.

Advantages Over Manual Stands:

• Enhanced safety via authorized key operation.

• Convenience and reduced physical effort for riders.

• Reliable, durable, and energy-efficient design.

• Compact and easily upgradeable for future smart features (e.g., sensors, app integration).

Components Used:

• Arduino Uno – Central controller for processing inputs and controlling the servo.

• Servo Motor MG995 – Provides mechanical movement to lift or lower the stand.

• 12V Battery – Powers the system.

• Sensors/Limit Switches – Detect stand position for accurate operation.

Software Requirements:

• Arduino IDE for programming the Arduino.

• Embedded C for control logic.

• Optional simulation tools like Proteus or Tinkercad for virtual testing.

Conclusion

The \"Smart Two-Wheeler Stand Automation System Based on Arduino with Key-Operated Control\" successfully demonstrates an efficient, reliable, and user-friendly solution for automating two-wheeler stands. The system enhances safety by preventing accidental tipping and reduces manual effort, making it convenient for everyday use. By integrating Arduino-based control with a key-operated mechanism, the project ensures precise operation and security. This automation approach not only simplifies the parking process but also showcases the practical application of electronics and microcontroller technology in improving daily life. Overall, the project meets its objectives and provides a foundation for further enhancements, such as incorporating wireless control or advanced sensors for smarter functionality.

References

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Copyright

Copyright © 2025 Lect. Aishwarya Ginnalwar, Mr. Pranav Amankar, Mr. Ranjit Rathod, Mr. Adarsh Ambepawar, Mr. Shreyash Sawaiwa. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.