ESP32 Wi-Fi + Bluetooth Quadruped Robot Kit | DIY Smart Bionic Robot Mouse / Rabbit with 8 Servo Motors | Programmable STEM Educational Robot for Coding, AI & Robotics Learning | Supports Arduino IDE, MicroPython, Scratch & Mixly

This ESP32-based DIY Quadruped Robot Kit introduces students and robotics enthusiasts to the fascinating world of bionic mechanics, robotics engineering, and AI control. Designed in a unique wooden mouse or rabbit form, it demonstrates how biology inspires robotics by replicating animal motion using precise servo coordination.

Constructed from laser-cut wooden components, the robot features a durable frame and eight servo motors — two for each leg — enabling walking, turning, bowing, dancing, and resting movements. Each servo operates under PWM control, allowing fluid motion that mimics natural gait. The wooden chassis provides lightweight stability and easy assembly, ideal for classroom experiments and DIY learning.

Powered by the ESP32 dual-core Wi-Fi + Bluetooth controller, the robot supports wireless control, IoT communication, and advanced programming. It can be programmed using Arduino IDE, MicroPython, Scratch, or Mixly, making it accessible for both beginners and advanced users. Students can write custom code to adjust walking patterns, servo timing, and sensor reactions, helping them understand real-time processing and control loops.

The kit runs on a 7.4V lithium battery with voltage stabilization and USB power compatibility. Built-in reverse polarity and overcurrent protection ensure safe operation in educational environments. Through wireless connectivity, students can use their mobile devices or PCs to control movement, send commands, or upload new routines remotely.

As a STEM educational platform, the robot provides a foundation in robotics mechanics, programming logic, and AI-driven motion. Teachers can use it to illustrate mechatronics concepts such as servo kinematics, balance control, and modular architecture. The modular design encourages creativity, allowing expansion with ultrasonic sensors, cameras, or voice modules to explore autonomous and interactive behavior.

Beyond education, this project encourages teamwork, creativity, and problem-solving skills. It bridges theory and practice — from understanding animal locomotion to building programmable robotic systems. It’s ideal for schools, maker workshops, and robotics competitions that emphasize applied engineering and AI literacy.

Wi-Fi + Bluetooth Dual Wireless Control
Equipped with the ESP32 module, this robot connects seamlessly to mobile devices and computers for real-time wireless control. Students can send motion commands via Wi-Fi or Bluetooth, experiment with IoT communication, and explore remote programming. This dual connectivity introduces learners to modern network-based robotics systems.

Bionic Quadruped Motion System
Eight servo motors replicate animal-like movement. Each leg has two degrees of freedom, enabling the robot to walk, turn, or bow dynamically. Students learn the principles of mechanical balance, servo synchronization, and gait algorithms — a core concept in bio-inspired robotics.

Multilingual Programming Support
Compatible with Arduino IDE, MicroPython, Scratch, and Mixly, the robot offers a flexible coding environment for all levels. Beginners can use visual programming to control servo sequences, while advanced users can develop complex algorithms involving sensor input and motion logic.

Safe Power and Modular Wooden Design
Built from precision-cut wood, the chassis is eco-friendly, strong, and reusable. The system operates on 7.4V lithium power with voltage regulation and USB charging, ensuring safety and efficiency. Modular components allow fast assembly and customization for repeated classroom use.

Comprehensive STEM Educational Value
This project teaches mechanical structure, control theory, and AI integration in a fun and interactive way. It develops essential STEM skills — coding, logic design, and system optimization — helping students move from basic programming to intelligent robotics innovation.