Product overview A transparent motor smart robot car chassis kit designed for handson DIY projects, classroom learning, and rapid prototyping. The clear chassis exposes the drive and encoder components for easy inspection during assembly and testing. The kit includes encoderequipped motors and a battery box so you can power the vehicle and focus on control, sensing, and software development. Key benefits Learn by seeing: The transparent chassis makes gear, motor, and encoder operation visible, helping users understand mechanical and electrical behavior during setup and troubleshooting. Accurate motion control: Motors with integrated speed encoders provide realtime feedback for precise speed and position control, enabling smoother motion and reliable closedloop algorithms. Ready to power and expand: The included battery box provides mobile power for field testing. The chassis is designed for mounting common sensors, controller boards, and motor drivers, so you can add modules without redesigning the base. Fast assembly and modular upgrades: Components are arranged for straightforward mounting and wiring, reducing time to first run and making swaps or upgrades simple. Features and attributes Function: Motorized mobile chassis with integrated speed encoder feedback for each drive motor, suited for motion control, navigation, and robotics experiments. Material: Transparent chassis material for visual access to mechanical parts; durable enough for repeated assembly and classroom use. Compatibility: Works with common microcontroller platforms and motor driver modules. Standard mounting holes and spacing allow attachment of sensors, single board computers, and control boards. Size and layout: Compact, lowprofile design suitable for desktop workbenches and small robotics projects. Layout supports placement of a battery box and peripheral components without obstructing sensors. Performance: Encoder feedback enables implementation of closedloop speed control and basic odometry. Motors deliver reliable lowvoltage DC drive suitable for educational and prototyping tasks. Typical applications STEM education: Use in classroom labs to teach motor fundamentals, encoder feedback, and control theory with visible hardware and handson exercises. Autonomous robot prototypes: Build line followers, obstacle avoidance vehicles, or mapping testbeds by adding sensors and a microcontroller to the chassis and using encoder data for PID control. Remote control and hobby projects: Assemble a compact rover for indoor exploration, camera mount experiments, or demonstrations of control algorithms. What you get A transparent motorized chassis with encoderequipped motors and a battery box, configured for easy mounting of controllers, sensors, and motor drivers. The design supports stepbystep learning, quick prototyping, and modular expansion for a variety of robot projects.