The field of control and robotics is rapidly advancing with a focus on developing innovative solutions to complex problems. Recent research has explored the application of reinforcement learning, neural networks, and optimization techniques to improve control systems, motion planning, and autonomous decision-making. Notably, the development of model-free and data-driven approaches has shown promise in addressing challenges such as uncertainty, nonlinearity, and real-time control. Furthermore, the integration of machine learning and control theory has enabled the creation of more robust, adaptive, and efficient control systems. Overall, the field is moving towards the development of more intelligent, autonomous, and resilient systems. Noteworthy papers include: The paper on 'Hyperproperty-Constrained Secure Reinforcement Learning' which proposes an approach for learning security-aware optimal policies using dynamic Boltzmann softmax RL while satisfying HyperTWTL constraints. The paper on 'Neural Co-state Projection Regulator' which introduces a model-free learning-based optimal control framework that is grounded in Pontryagin's Minimum Principle and capable of solving quadratic regulator problems in nonlinear control-affine systems with input constraints.
Advancements in Control and Robotics
Sources
Neural Co-state Projection Regulator: A Model-free Paradigm for Real-time Optimal Control with Input Constraints
Real-World Evaluation of Protocol-Compliant Denial-of-Service Attacks on C-V2X-based Forward Collision Warning Systems
Modeling and Simulation of an Active Quarter Car Suspension with a Robust LQR Controller under Road Disturbance and Parameter Uncertainty
Optimal Trajectory Planning in a Vertically Undulating Snake Locomotion using Contact-implicit Optimization