Bayesian Optimization
Bayesian Optimization (BO) is a powerful technique for efficiently finding the optimal settings of a complex system or process by sequentially evaluating candidate solutions guided by a probabilistic model. Current research focuses on extending BO's capabilities to high-dimensional spaces, incorporating noise and cost considerations into the optimization process, handling diverse objectives and constraints (including safety), and improving its efficiency through techniques like transfer learning, multi-fidelity approaches, and integration with other algorithms (e.g., genetic algorithms, large language models). BO's impact spans diverse fields, enabling more efficient exploration of design spaces in areas such as materials science, robotics, drug discovery, and machine learning model optimization, ultimately accelerating scientific discovery and technological advancement.
Papers
Harnessing the Power of Gradient-Based Simulations for Multi-Objective Optimization in Particle Accelerators
Kishansingh Rajput, Malachi Schram, Auralee Edelen, Jonathan Colen, Armen Kasparian, Ryan Roussel, Adam Carpenter, He Zhang, Jay Benesch
Respecting the limit:Bayesian optimization with a bound on the optimal value
Hanyang Wang, Juergen Branke, Matthias Poloczek
Efficient Non-Myopic Layered Bayesian Optimization For Large-Scale Bathymetric Informative Path Planning
Alexander Kiessling, Ignacio Torroba, Chelsea Rose Sidrane, Ivan Stenius, Jana Tumova, John Folkesson
Distributed Thompson sampling under constrained communication
Saba Zerefa, Zhaolin Ren, Haitong Ma, Na Li