Robotics & Autonomous Driving

Reaction Wheel Pendulum

Real-time stabilization of an inherently unstable pendulum using a reaction wheel.

Fall 2024 · Champaign, IL

Control systemsLagrangian dynamicsState feedbackLuenberger observerWincon
Why it sits here. Connects nonlinear dynamics, state estimation, and feedback to real-time equilibrium control.
01 / An open road. A closed loop.STUDY IN SPACE

01 / IMPLEMENTATION & CONTRIBUTION

What the work involves

Modeled the system using Lagrangian dynamics and implemented three-state feedback with a Luenberger observer and friction compensation.

Technical depth

The controller combines a nonlinear mechanical model, state feedback, observer-based state estimation, and real-time actuation through Wincon.

02 / RESULTS

What came out of it

Achieved stable equilibrium control of the unstable nonlinear system.

03 / SUPPORTING EVIDENCE

Follow the source

Implementation notes, project records, and supporting artifacts.

Source context & project scope

Control outcome and implementation details are from Donald’s Fall 2024 project summary.

Stable equilibrium control of a reaction-wheel pendulum using Lagrangian dynamics, three-state feedback, a Luenberger observer, and real-time friction compensation through Wincon. Champaign, Illinois.

CANDIDATE · 2026-09-17
CONTINUE IN ROBOTICS & AUTONOMOUS DRIVING

Multi-robot navigation