Sequential Bayesian experimental designs via reinforcement learning
Hikaru Asano

TL;DR
This paper introduces a reinforcement learning-based approach for Bayesian experimental design that balances information gain, experiment cost, and sample efficiency, demonstrating superior performance in real-world scenarios.
Contribution
It proposes a novel sequential experimental design method using reinforcement learning to optimize information gain and cost efficiency simultaneously.
Findings
Outperforms existing methods in EIG and sampling efficiency
Demonstrates effectiveness across three different examples
Provides a new real-world-oriented experimental environment
Abstract
Bayesian experimental design (BED) has been used as a method for conducting efficient experiments based on Bayesian inference. The existing methods, however, mostly focus on maximizing the expected information gain (EIG); the cost of experiments and sample efficiency are often not taken into account. In order to address this issue and enhance practical applicability of BED, we provide a new approach Sequential Experimental Design via Reinforcement Learning to construct BED in a sequential manner by applying reinforcement learning in this paper. Here, reinforcement learning is a branch of machine learning in which an agent learns a policy to maximize its reward by interacting with the environment. The characteristics of interacting with the environment are similar to the sequential experiment, and reinforcement learning is indeed a method that excels at sequential decision making. By…
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Taxonomy
TopicsOptimal Experimental Design Methods · Advanced Multi-Objective Optimization Algorithms · Machine Learning in Materials Science
