PRODUCT DEVELOPMENT

This Magnetic levitation-based product, developed by a third-year student as part of the Product Design and Development course, uses electromagnetic suspension and feedback control to levitate objects within an illuminated hexagonal frame. A digital display likely monitoring levitation height combines physics, embedded systems, and industrial design for applications in education, display units, and smart home décor.

SPIC: High-power coil-based system with current regulation, Electromagnetic suspension (EMS), 24V DC with battery-powered.

“It’s an incredible learning experience, integrating physics, embedded systems, and industrial design. Overcoming technical challenges and refining the control system gave me hands-on expertise in real-world product development.”

This Automatic UV Sanitizer, developed by a third-year student in the Product Design and Development course, uses UV-C light for autonomous disinfection. It is a mobile robot equipped with ultraviolet lamps for sterilizing surfaces and air in enclosed spaces like hospitals and offices. Sensor-driven automation ensures efficient, contactless operation, minimizing human exposure to pathogens. Integrating robotics, embedded systems, and IoT, it offers a smart, energy-efficient solution for public health and safety.

“It was an exciting hands-on experience in robotics, embedded systems, and IoT. Overcoming sensor integration and automated mobility challenges strengthened my passion for technology-driven solutions."

This Portable Mini 3D Printer, developed by a third-year student as part of the Product Design and Development course, is a compact, lightweight, and efficient solution for on-the-go 3D printing. Designed for students, hobbyists, and professionals, it offers a user-friendly experience while maintaining high precision and reliability. Its portable design makes it ideal for small-scale rapid prototyping, educational projects, and creative designs.

Spec: Fused Deposition Modeling (FDM), Supports USB and SD card, 0.4 mm Nozzle Diameter.

"Building this mini 3D printer was a hands-on journey into mechanical design, electronics, and software integration. Overcoming challenges in precision control and portability gave me invaluable practical knowledge, making this project an exciting step toward innovative engineering solutions."

The Automatic Tennis Ball Thrower is a smart, motorized device designed to enhance training by launching balls at varying speeds and angles. Developed by a third-year engineering student, it integrates mechanical precision, embedded systems, and automation to simulate real-game scenarios. With adjustable launch speed, spin control, and trajectory settings, it offers a customizable training experience for all skill levels. Sensor-based automation ensures consistency and reliability, allowing players to focus on improving their techniques.

"Building the Tennis Ball Thrower deepened my understanding of automation and real-time control systems. Overcoming challenges in motor control and trajectory precision made this project an exciting and rewarding experience."