Nonconvex Constraint
Nonconvex constraint optimization addresses the challenge of finding optimal solutions within complex, non-linearly defined feasible regions. Current research focuses on developing efficient algorithms, such as those based on proximal augmented Lagrangian methods, normalizing flows, and first-order optimization with expansive projections, to handle these constraints in various applications, including reinforcement learning, federated learning, and optimal control problems. These advancements are crucial for solving real-world problems where constraints are inherently nonconvex, improving the performance and feasibility of solutions in diverse fields like robotics, machine learning, and resource allocation. The development of single-loop algorithms offers a significant improvement in computational efficiency compared to previous multi-loop approaches.