Jong-Han Kim - Research Topics

Machine learning based intelligent guidance techniques

  • Online l_1-regularized optimization for optical misalignment cancellation of strap-down seekers.

  • Target shape identification using RF signals based on unsupervised learning.

Integrated guidance and control for constrained precision homing

  • Finite horizon integrated guidance and control for constrained terminal homing of high performance missile systems.

Guidance and control designs for full-scale missile development programs

  • Highly reliable guidance and control design/implementation for several state-of-the-art missile systems development programs.

  • The works include classical, optimal, or robust control for highly unstable airframes and high-fidelity flight simulation techniques.

Optimal decentralized control for large-scale networked systems

  • Theoretical studies on optimal decentralized control using convex analysis and convex optimization.

  • Characterizes convex problems and explicitly solvable problems in optimal control of networked systems under information constraints.

Decentralized control for jet engine systems

  • Suboptimal decentralized H_2/H_infty control synthesis.

  • Convex relaxation and convex approximation of nonconvex optimal control problems.

  • Application to jet engine control systems.

Multiscale/stochastic consensus for decentralized estimation

  • Multiscale concepts to applied to consensus problems, for scalable distributed estimation.

  • Stochastic message passing for convergence acceleration. Application to decentralized estimation problems.

Tactical missile systems integration

  • Mission profile design, operational performance/effectiveness analysis.

  • Flight performance analysis.

  • Engineering level 6-DOF flight dynamics simulation.

Attitude control for small satellites

  • Design and experiments for attitude control of flexible satellites.

  • Ground test modules development.

Co-evolutionary algorithms for constrained optimization

  • Constrained optimization, minimax optimization using evolutionary computation.

  • Applications to design problems or control problems.

  • Convergence acceleration by using artificial neural networks