OmniFire is an intelligent autonomous robot capable of detecting and extinguishing fires using dual fire extinguishers, 12 ultrasonic sensors, and omnidirectional Mecanum wheels. Powered by an Arduino–Raspberry Pi hybrid control system, it combines precision motion, real-time environment mapping, and autonomous fire suppression for safety applications in homes, factories, and labs.

Compact smart drone integrating custom PCBs, LED switch, and 3-blade propellers — designed for performance, visibility, and innovation.

ModuFrame-5 is a fully 3D-printed modular quadcopter frame designed specifically for 5-inch FPV drones. It combines the accessibility of desktop FDM printing with the durability and repairability needed by drone enthusiasts and professionals alike. Its parametric design allows easy customization and rapid iteration, while modular arms ensure quick repairs after crashes, reducing downtime and costs. Crafted to support common FPV components, ModuFrame-5 offers a low-cost, lightweight, and versatile alternative to traditional carbon fiber frames — making drone building and flying more accessible than ever.

Robotic arm, 6-DOF manipulator, additive manufacturing, 3D printing, parametric design, educational robotics

Build this super simple, portable, USB-C powered 0-30vdc power supply!

Precision meets simplicity- a fully engineered sheet metal enclosure designed for performance, manufacturability, and modern aesthetics.

Fuente de alimentación de alta tensión de 0-2500V.

Bringing the future of flight to your desktop — this Fusion 360 recreation of the EHang 184 Air Taxi captures cutting-edge drone design in 3D printable form. A perfect blend of innovation, precision, and passion for aerial technology.

A complete DIY 3D printer designed and modeled in SolidWorks 2025, inspired by open-source CoreXY and Cartesian architectures. This project demonstrates mechanical design, motion system modeling, and mechatronic integration — providing a fully parameterized 3D model and educational documentation for engineers and makers interested in additive manufacturing

This project presents a hand blender designed and modeled in SolidWorks.The primary goal of this design is to demonstrate how a simple mechanical system can successfully perform its intended function while providing high efficiency and significant energy savings. Although the blender is based on a basic mechanism consisting of only two gears, it achieves effective mixing performance and stands as a clear example of how simplicity in design can lead to reliability, durability, and sustainability. The blender operates using a two-gear transmission system that transfers rotational motion from the motor to the blade assembly. This simple gear mechanism was intentionally selected to reduce mechanical complexity, minimize friction losses, and improve overall system efficiency. As a result, the blender can mix dense or viscous materials efficiently without requiring high power consumption, which directly contributes to electric energy savings.