Certified Stochastic Control via Covariance Steering with Pick-to-Learn
C. Kong, Z. Donovan, M. Lahijanian, and J. McMahon. Accepted to the 65th IEEE Conference on Decision and Control (CDC), 2026.
Aerospace Engineering Sciences
I am a PhD student at the University of Colorado Boulder. I ask: How do we establish confidence in increasingly autonomous and intelligent systems? My research develops theories and algorithms for designing safety-critical, AI-enabled systems with formal guarantees. Applications include uncertainty quantification, rigorous risk evaluation, and certified neural-network control synthesis.
A few selected publication highlights.
C. Kong, Z. Donovan, M. Lahijanian, and J. McMahon. Accepted to the 65th IEEE Conference on Decision and Control (CDC), 2026.
C. Kong, S. Escobar, I. Gracia, J. McMahon, and M. Lahijanian. Presented at the 3rd International Conference on Neuro-Symbolic Systems (NeuS), 2026.
C. Kong, L. Laurenti, J. McMahon, and M. Lahijanian. Proceedings of the Conference on Uncertainty in Artificial Intelligence (UAI), 2025.
C. Kong, J. McMahon, and M. Lahijanian. Proceedings of the IEEE Conference on Decision and Control, 2025.
C. Kong, K. Liu, HE. Tseng, I. Kolmanovsky, and A. Girard. American Control Conference, 2023.
A few ongoing research efforts spanning trustworthy learning, guidance and control, and safety-critical autonomy.
Developing error bounds for PINN solutions of partial differential equations (PDEs) to establish trust in learned models.
Serving as a GNC engineer for LASP on EMA, developing and validating guidance, navigation, and control algorithms for asteroid fly-bys, including image-based navigation, closed-loop attitude and orbit control, and Monte Carlo robustness analysis.
Studying deep learning with hard constraint satisfaction to enable certified neural control policies for dynamical systems under uncertainty.
Selected simulations and control projects from earlier work on spacecraft, robotics, and dynamical systems.
Worked on autonomy software related to NASA Concepts for Ocean Worlds Life Detection Technology, with a focus on scientist-in-the-loop exploration under high-latency, low-bandwidth mission conditions.
Interactive orbital mechanics visualization for two-body motion and trajectory intuition building.
A rigid-body dynamics demo showing six-degree-of-freedom behavior and classical rotational dynamics phenomena.
Linear-quadratic regulation for quadcopter stabilization and control design exploration.
A quadcopter altitude-control experiment using deep neural network ideas alongside simulation.
Simulation of quadcopter flight control under wind disturbance and environmental uncertainty.
Path-following experiments for quadcopter motion planning and closed-loop tracking performance.
A spacecraft attitude-related project focused on star tracking and estimation-oriented simulation.
Earlier quadcopter control experiments centered on reduced-order dynamics and controller behavior.