The field of autonomous systems is witnessing significant advancements in safe and robust control, with a focus on ensuring the reliability and efficiency of controllers in complex environments. Researchers are exploring innovative approaches to handle disturbances, uncertainties, and safety constraints, leveraging techniques such as control barrier functions, model predictive control, and neural networks. These developments aim to provide formal guarantees for safety and performance, enabling the widespread adoption of autonomous systems in various applications. Notably, the integration of machine learning and control theory is leading to more scalable and data-efficient solutions. Some noteworthy papers in this area include: The work on Spacecraft Safe Robust Control Using Implicit Neural Representation, which proposes a novel framework for safe proximity operations using neural signed distance functions. The introduction of CPED-NCBFs, a conformal prediction-based verification strategy for neural control barrier functions, which enhances the reliability of learned safety certificates.
Safe and Robust Control in Autonomous Systems
Sources
Spacecraft Safe Robust Control Using Implicit Neural Representation for Geometrically Complex Targets in Proximity Operations
Safe and Performant Controller Synthesis using Gradient-based Model Predictive Control and Control Barrier Functions