George Washington University · Mechanical & Aerospace Engineering

Teaching

Courses connect physical behavior to mathematical models, then use simulation and experiments to test what those models predict.

RoboticsAutonomyControl
Current courseFall 2026

MAE 4182

Electromechanical Control System Design

Modeling and feedback design for real electromechanical systems, emphasizing stability, performance, and robustness in time and frequency domains.

Visible derivations and interactive browser experiments help students connect equations to system response—and defend what each model predicts.

  • Modeling
  • Stability
  • Robustness
  • Controller design
Open the Fall 2026 course
A mobile manipulator integrating cameras, lidar, an arm, and a wheeled base in a robotics laboratory
MAE 6245Spring 2026 · Graduate course

Robotics Systems

A systems-level introduction to how robots sense, reason, and act under uncertainty.

Dynamics and control, sensing and vision, estimation, planning, and learning are studied as one connected pipeline.

View the Spring 2026 course

Follow how errors propagate through an integrated robot.

Small modeling, sensing, and decision errors can compound through the pipeline. Students make assumptions explicit, reason about uncertainty, and evaluate system behavior rather than treating each module in isolation.

01

Manipulation

  • Learning policies from demonstrations and datasets
  • Generalization across objects, scenes, and tasks
  • Benchmarking, sim-to-real transfer, and real-robot testing
02

Navigation

  • Offline and interactive navigation learning
  • Robustness in new environments
  • Comparison with classical planning baselines

The class is research-oriented, with critical reading, student-led paper discussions, and a semester-long open-ended project. Related project topics are welcome with instructor approval.

From simulation to real-system evaluation.

Reference platforms used to explore robotics pipelines, learning, and localization.