Numerical Schemes for Optimal Control Problems and Differential Games
Numerical Schemes for Optimal Control Problems and Differential Games
Efficient approximation schemes for high dimensional optimal control problems and games via Dynamic Programming schemes. Approximation of optimal feedbacks and optimal trajectories for free and constrained problems. Patchy domain decomposition. Pursuit-evasion games, surveillance games. Approximation of Nash equilibria. Extensions to optimal control problems and differential games for hybrid systems via quasi-variational inequalities. Approximation of PDE systems for single and multi-population Mean Field Games (MFGs) on Eulidean spaces and networks via Semi-Lagrangian schemes, Newton, Gauss-Newton and Policy Iteration methods. Applications of MFGs to Cluster Analysis in Machine Learning (K-means, Expectation-Maximization).
Tentacle-like soft-manipulators modeled by systems of controlled PDAEs (Partial Differential Algebraic Equations). Approximation of optimality systems via numerical methods for constrained optimization (Newton-like, augmented Lagrangian, ADMM) and optimal control of PDEs (adjoint-based projected gradient descent). Applications to reachability, obstacle-avoidance and force-closure grasp problems in soft-robotics.
Components: Alessandro Alla, Simone Cacace and Elisabetta Carlini