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Mechatronics & Mechanical Fabrication Project

Zero Friction Electromagnetic Braking System.

Contactless eddy-current braking project featuring electromagnetic coils, conductive disc, microcontroller control and sensor feedback. Complete working model with fabrication, project report, PPT and viva support for BE, B.Tech, Diploma and MTech students.

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Fabrication Support
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Project Success

Zero Friction Electromagnetic Braking System Project Report

Core mechanical, electronic and electromagnetic parts used in the Zero Friction Electromagnetic Braking System fabrication project.

Electromagnet Coil Aluminium Disc Motor Drive Unit Microcontroller Chassis Frame Power Electronics Speed Sensors Contactless Braking
Zero Friction Electromagnetic Braking System fabrication setup

Zero Friction Electromagnetic Braking System

Mechatronics & Mechanical fabrication final year project with complete documentation support.

Conventional friction brakes generate heat, wear, noise and require regular maintenance. Modern applications demand reliable, wear-free braking solutions for trains, elevators, industrial drives and electric vehicles.

This Zero Friction Electromagnetic Braking System uses the principle of eddy currents induced in a rotating conductive disc by a strong magnetic field, producing a contactless retarding torque — delivering smooth, maintenance-free braking without mechanical wear.

Call: +91 95919 12372

Abstract

Traditional braking systems rely on friction between pads and discs, leading to wear, heat generation, noise and frequent maintenance. This project presents a Zero Friction Electromagnetic Braking System that utilizes eddy-current principles to achieve contactless braking.

When a conductive disc rotates in a magnetic field produced by an electromagnet, circulating eddy currents are induced. These currents interact with the magnetic field to generate a braking torque opposing the motion — without any physical contact.

The system integrates an electromagnet, aluminium disc, DC motor drive, microcontroller-based control, speed sensors and power electronics. It is an ideal final-year project for students interested in mechatronics, automotive engineering, power electronics and advanced braking technologies.

Working Principle

  • A motor spins an aluminium (or copper) disc at controlled speed.
  • When braking is commanded, DC current energizes the electromagnet placed near the disc.
  • Changing magnetic flux induces eddy currents in the conductive disc.
  • Eddy currents produce a magnetic field that opposes the disc motion, creating smooth retarding torque without contact or wear.

Advantages

  • Completely contactless — zero mechanical wear and longer service life.
  • Smooth, progressive braking with minimal noise and vibration.
  • No brake dust or residual friction losses when inactive.
  • Easily controllable via current variation; suitable for regenerative or hybrid systems.

Challenges

  • Heat dissipation in the conductive disc during prolonged braking.
  • Power consumption of the electromagnet for strong braking force.
  • Optimization of air-gap and coil design for maximum torque.
  • Integration with conventional friction brakes for complete stop / parking.

Technical Specifications

Parameter Details
ControllerArduino Uno / Mega or STM32
ActuatorElectromagnet coil (12–24 V DC) with current control
Rotating DiscAluminium / Copper disc (non-magnetic conductive)
Drive MotorDC Geared Motor with speed feedback
SensorsHall / IR / Encoder for RPM measurement
Power Supply12 V / 24 V DC battery or regulated SMPS
ChassisMild steel / Aluminium frame with adjustable air-gap

What We Provide

ProjectsatBangalore offers complete support for the Zero Friction Electromagnetic Braking System Project including working fabrication, project report, PPT, block diagram, viva questions, and demonstration guidance for BE, B.Tech, Diploma, and MTech students in Bangalore.

Working Fabrication
Project Report
PPT Presentation
Block Diagram
Viva Support
Demo Guidance