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Butterfly Assembly Version.3dm

Flaytrap Venus Assembly.3dm

image_2025-01-21_153634727.png

Elephant Assembly Model.3dm

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leen.ino

leen__1_.ino

The Cheetah Project captures the speed and elegance of nature’s fastest animal through a kinetic robotic model. Powered by Arduino, mini servos, and a scissor-lift mechanism, the design recreates the cheetah’s leaping motion, merging biomechanics, engineering, and creativity in an educational exploration of biorobotics.

Click here and make your Robotics Gif

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The Butterfly Project imitates the graceful wing movements of butterflies through biomimetic robotics. Built with Arduino Uno, Mini Servo, Breadboard, and DC Motor, it transforms natural elegance into mechanical motion, blending engineering and art to create an educational, interactive design.

Click here and make your Robotics Gif

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The Butterfly Project imitates the graceful wing movements of butterflies through biomimetic robotics. Built with Arduino Uno, Mini Servo, Breadboard, and DC Motor, it transforms natural elegance into mechanical motion, blending engineering and art to create an educational, interactive design.

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The Butterfly Project imitates the graceful wing movements of butterflies through biomimetic robotics. Built with Arduino Uno, Mini Servo, Breadboard, and DC Motor, it transforms natural elegance into mechanical motion, blending engineering and art to create an educational, interactive design.

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Present

The Butterfly Project imitates the graceful wing movements of butterflies through biomimetic robotics. Built with Arduino Uno, Mini Servo, Breadboard, and DC Motor, it transforms natural elegance into mechanical motion, blending engineering and art to create an educational, interactive design.

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Present

The Flytrap Project draws inspiration from the Venus flytrap, a plant that blurs the line between flora and predator. Using a single ultrasonic sensor and a servo motor controlled by Arduino, the model mimics the rapid snapping motion of the trap. With 3D-printed components and sensor-driven interactivity, the project highlights the fascinating intersection of nature’s mechanisms and robotics, offering a playful yet educational look into responsive bio-inspired design.

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Present

The Flytrap Project draws inspiration from the Venus flytrap, a plant that blurs the line between flora and predator. Using a single ultrasonic sensor and a servo motor controlled by Arduino, the model mimics the rapid snapping motion of the trap. With 3D-printed components and sensor-driven interactivity, the project highlights the fascinating intersection of nature’s mechanisms and robotics, offering a playful yet educational look into responsive bio-inspired design.

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Present

The Flytrap Project draws inspiration from the Venus flytrap, a plant that blurs the line between flora and predator. Using a single ultrasonic sensor and a servo motor controlled by Arduino, the model mimics the rapid snapping motion of the trap. With 3D-printed components and sensor-driven interactivity, the project highlights the fascinating intersection of nature’s mechanisms and robotics, offering a playful yet educational look into responsive bio-inspired design.

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Present

The Flytrap Project draws inspiration from the Venus flytrap, a plant that blurs the line between flora and predator. Using a single ultrasonic sensor and a servo motor controlled by Arduino, the model mimics the rapid snapping motion of the trap. With 3D-printed components and sensor-driven interactivity, the project highlights the fascinating intersection of nature’s mechanisms and robotics, offering a playful yet educational look into responsive bio-inspired design.