Strong Convex Relaxations and Tailored Conic Solvers with Applications in Robotics
My MIT EECS dissertation on strong convex relaxations, tailored conic solvers, and scalable optimization methods for robotics.
My MIT EECS dissertation on strong convex relaxations, tailored conic solvers, and scalable optimization methods for robotics.
Parallel decomposition methods and benchmark infrastructure for large graph-of-convex-sets planning relaxations.
A C++ and CUDA solver family for the structured convex programs that appear in robotics, control, and graph-of-convex-sets relaxations.
Formally verifying the safety of complicated trajectories at scale.
Provably correct descriptions of Configuration Space for collision-free motion planning
Solving linear systems of equations is a fundamental subroutine in many algorithms. What structures are amenable to solving linear equations even faster.
Resiliency of control systems and learning algorithms via counter-factual optimization
Guaranteed performance of heuristic strategies for a known, hard problem.