Best Practices for Multi-Fidelity Bayesian Optimization in Materials and Molecular Research
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Abstract (arXiv)
Multi-fidelity Bayesian Optimization (MFBO) is a promising framework to speed up materials and molecular discovery as sources of information of different accuracies are at hand at increasing cost. Despite its potential use in chemical tasks, there is a lack of systematic evaluation of the many parameters playing a role in MFBO. In this work, we provide guidelines and recommendations to decide when to use MFBO in experimental settings. We investigate MFBO methods applied to molecules and materials problems. First, we test two different families of acquisition functions in two synthetic problems and study the effect of the informativeness and cost of the approximate function. We use our implementation and guidelines to benchmark three real discovery problems and compare them against their single-fidelity counterparts. Our results may help guide future efforts to implement MFBO as a routine tool in the chemical sciences.
Key facts. Cited by 7 papers in the map (data through 7 Oct 2026). Builds on 12 of its 49 references that are in the map. First posted on arXiv 1 Oct 2024.
Builds on
12 of 49 references.
References · 12
- 2018A Tutorial on Bayesian Optimizationcited by 734
- 2017Max-value Entropy Search for Efficient Bayesian Optimizationcited by 202
- 2019Practical Multi-fidelity Bayesian Optimization for Hyperparameter Tuningcited by 91
- 2020Mapping the Space of Chemical Reactions Using Attention-Based Neural Networkscited by 70
- 2023A Study of Bayesian Neural Network Surrogates for Bayesian Optimizationcited by 50
- 2020Multi-Fidelity Bayesian Optimization via Deep Neural Networkscited by 46
- 2022Multi-Fidelity Bayesian Optimization with Unreliable Information Sourcescited by 17
- 2022Combining Multi-Fidelity Modelling and Asynchronous Batch Bayesian Optimizationcited by 16
- 2020Data-Driven Discovery of Molecular Photoswitches with Multioutput Gaussian Processescited by 14
- 2023Machine Learning-Assisted Discovery of Flow Reactor Designscited by 8
- 2023Long-run Behaviour of Multi-fidelity Bayesian Optimisationcited by 1
- 2024Applying Multi-Fidelity Bayesian Optimization in Chemistry: Open Challenges and Major Considerationscited by 1
Built on by
Citing papers per year: 2025: 1; 2026: 6.
7 papers.
- 2025Building Trustworthy AI for Materials Discovery: From Autonomous Laboratories to Z-scorescited by 2
- 2026A Critical Examination of Active Learning Workflows in Materials Sciencecited by 0
- 2026Accelerated Dopant Screening in Oxide Semiconductors via Multi-Fidelity Contextual Bandits and a Three-Tier DFT Validation Funnelcited by 0
- 2026Compressing the Validation Bottleneck: An Agentic Self-Driving Lab for Scientific Discoverycited by 0
- 2026Transfer Learning Architectures for Scalable Multi-Fidelity Bayesian Optimizationcited by 0
- 2026Out-Of-The-Loop Multi-Fidelity Bayesian Optimizationcited by 0
- 2026Physics-residual machine learning predicts oxygen-evolution catalyst activity beyond the training range from sparse polarization measurementscited by 0
- 2026Physics-residual machine learning predicts oxygen-evolution catalyst activity beyond the training range from sparse polarization measurements20 Sep 2026
- 2026Out-Of-The-Loop Multi-Fidelity Bayesian Optimization4 Aug 2026
- 2026Transfer Learning Architectures for Scalable Multi-Fidelity Bayesian Optimization26 Jul 2026
- 2026Compressing the Validation Bottleneck: An Agentic Self-Driving Lab for Scientific Discovery5 Jul 2026
- 2026Accelerated Dopant Screening in Oxide Semiconductors via Multi-Fidelity Contextual Bandits and a Three-Tier DFT Validation Funnel11 Apr 2026
- 2026A Critical Examination of Active Learning Workflows in Materials Science9 Jan 2026
- 2025Building Trustworthy AI for Materials Discovery: From Autonomous Laboratories to Z-scores30 Nov 2025