Feedback Control
Overview
Feedback control studies how systems use measurements of their behavior to continually adjust actions, helping robots, vehicles, buildings, and industrial processes track goals and reject disturbances. Established approaches include PID and LQR, model-predictive control, and nonlinear designs based on Lyapunov functions, passivity, and control barrier functions; newer work adds reinforcement learning, learned dynamics, and Koopman models. These methods are tested in settings such as robotic manipulation and flight, HVAC and energy systems, vehicle guidance, and networked or multi-agent control, often with delays, partial sensing, actuator limits, and changing dynamics. A central challenge is gaining the adaptability of learning-based control without losing stability, safety, and verifiable performance, motivating hybrid designs with runtime safety filters and formal analysis.
Latest papers
255 papers30 papers in the last four weeks, down 6% on the four weeks before. 0.2% of all new papers.