Dynamic Modeling & Simulation of a Self-Balancing Two-Wheeled Robot using Lagrangian Method, PID & LQR Control – MATLAB Simulink

$383.16 $191.48 MXN

πŸ“¦ Product Description

🎯 Simulate & stabilize your own two-wheeled robot!
This comprehensive simulation models a self-balancing robot (inverted pendulum on wheels) using Lagrangian dynamics and implements both PID and LQR control strategies in MATLAB Simulink.

From physical modeling to real-time control, this package is your complete guide to mastering dynamic systems and balance control!

πŸ“˜ What’s Included:

  • βœ… MATLAB Simulink (.slx) model – Fully editable & commented

  • βœ… Lagrangian-based dynamic modeling of a two-wheeled system

  • βœ… Two control strategies: PID and LQR included

  • βœ… Real-time visualization with robot animation

  • βœ… Scopes for tracking: position, angle, velocity, input force

  • βœ… Documentation & ReadMe for smooth setup

  • βœ… All parameters & equations derived from physics

πŸ’‘ Key Features:

  • 🧠 Dual Control Logic: Switch between PID and LQR to understand control behavior

  • πŸ› οΈ Physics-based system modeled from first principles

  • πŸ“Š Full simulation visualization: angles, positions, velocities

  • βš™οΈ Easily modify system parameters or extend for research

  • 🧩 Ideal for real-world robotics, inverted pendulum demos, or academic control system studies

  • πŸŽ₯ Includes tutorial video on how to run & customize the simulation

πŸ§‘β€πŸŽ“ Perfect For:

  • Control systems students & instructors

  • Robotics, mechatronics & mechanical engineering researchers

  • Final-year projects or simulation-based learning

  • Simulation enthusiasts exploring Simulink + Dynamics

πŸ”§ Built With:

  • MATLAB Simulink (no .m code execution required)

  • Lagrangian Modeling Approach

  • PID & LQR Control Design

  • Scope blocks for signal tracking

  • Realistic dynamic behavior

  • Optional extensions to add sensors, filters, or real-time tuning

πŸ“‚ Files Included:

  • πŸ“ .slx Simulink model file

  • πŸ“ Equations & parameters documentation (PPT)

  • πŸ“Ί Step-by-step tutorial video included

πŸ“¬ Need help?
Email: mregnineer294@gmail.com

πŸ“² Follow for more simulations & robotics projects:
πŸ“§ Email: mregnineer294@gmail.com
πŸ“· Instagram: @engrprogrammer2494
▢️ YouTube: @engrprogrammer

Thanks again, and happy simulating!
β€” engrprogrammer πŸš€

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