Trajectory Optimization
Trajectory optimization focuses on finding the best possible path for a system, whether a robot, vehicle, or even a simulated process like image restoration, by minimizing a cost function subject to constraints. Current research emphasizes integrating advanced models like diffusion models and neural networks with classical optimization techniques, often employing methods such as Model Predictive Control (MPC), A* search, and various gradient-based approaches to handle complex dynamics and constraints. This field is crucial for advancing robotics, autonomous systems, and other areas requiring efficient and safe path planning, with applications ranging from autonomous driving and manipulation to manufacturing and space exploration.
Papers
Robust Co-Design of Canonical Underactuated Systems for Increased Certifiable Stability
Federico Girlanda, Lasse Shala, Shivesh Kumar, Frank Kirchner
iDb-RRT: Sampling-based Kinodynamic Motion Planning with Motion Primitives and Trajectory Optimization
Joaquim Ortiz-Haro, Wolfgang Hönig, Valentin N. Hartmann, Marc Toussaint, Ludovic Righetti
iDb-A*: Iterative Search and Optimization for Optimal Kinodynamic Motion Planning
Joaquim Ortiz-Haro, Wolfgang Hoenig, Valentin N. Hartmann, Marc Toussaint
Safe and Efficient Trajectory Optimization for Autonomous Vehicles using B-spline with Incremental Path Flattening
Jongseo Choi, Hyuntai Chin, Hyunwoo Park, Daehyeok Kwon, Sanghyun Lee, Doosan Baek