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Bayesian optimization-driven parallel-screening of multiple parameters for the flow synthesis of biaryl compounds

Chemistry

Bayesian optimization-driven parallel-screening of multiple parameters for the flow synthesis of biaryl compounds

M. Kondo, H. D. P. Wathsala, et al.

Discover how Masaru Kondo and colleagues revolutionized the synthesis of biaryl compounds using a flow system and a Brønsted acid catalyst. Their innovative approach, enhanced by Bayesian optimization, achieved impressive yields and streamlined the process, paving the way for efficient gram-scale production.

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~3 min • Beginner • English
Abstract
Traditional optimization methods using one variable at a time approach waste time and chemicals and assume that different parameters are independent from one another. Hence, a simpler, more practical, and rapid process for predicting reaction conditions that can be applied to several manufacturing environmentally sustainable processes is highly desirable. In this study, biaryl compounds were synthesized efficiently using an organic Brønsted acid catalyst in a flow system. Bayesian optimization-assisted multi-parameter screening, which employs one-hot encoding and appropriate acquisition function, rapidly predicted the suitable conditions for the synthesis of 2-amino-2'-hydroxy-biaryls (maximum yield of 96%). The established protocol was also applied in an optimization process for the efficient synthesis of 2,2'-dihydroxy biaryls (up to 97% yield). The optimized reaction conditions were successfully applied to gram-scale synthesis. We believe our algorithm can be beneficial as it can screen a reactor design without complicated quantification and descriptors.
Publisher
Communications Chemistry
Published On
Nov 10, 2022
Authors
Masaru Kondo, H. D. P. Wathsala, Mohamed S. H. Salem, Kazunori Ishikawa, Satoshi Hara, Takayuki Takaai, Takashi Washio, Hiroaki Sasai, Shinobu Takizawa
Tags
biaryl compounds
Brønsted acid catalyst
Bayesian optimization
flow system
multi-parameter screening
gram-scale synthesis
chemical efficiency
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