StructuredHTE Data and Integrated Bayesian OptimizationAccelerate Scalable Amidation Process Development

Abstract We describe the evolution of our early hit-identification workflow for reagent-mediated amidation reactions in support of commercial route development. Over the past decade, our strategy progressed from broad, exhaustive high-throughput experimentation (HTE) with limited data maturity to a modern, enterprise-scale digital platform that embeds data science tools directly into the experimental workflow. By tailoring Katalyst D2D─a commercial electronic laboratory notebook (ELN) for HTE developed by ACD/Laboratories─we established a structured, machine-readable data architecture and enabled seamless integration with the EDBO+ Bayesian optimization engine. Retrospective analysis of historical amidation data sets showed that, despite screening more than 60 reagents, only a small subset consistently translated to commercial processes. This insight motivated a streamlined workflow in which chemists begin with a focused survey of six reaction conditions rooted in empirical performance and commercial precedent, followed by Bayesian optimization within the ELN to identify optimal reagent/base/solvent combinations. This study highlights how treating reaction data as a digital asset─FAIR, interoperable, and directly linked to optimization tools─accelerates the transition from reaction screening to robust process development.

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Publication Details

Journal
ACS Organic & Inorganic Au
Published
2026-08-18
DOI
https://doi.org/10.1021/acsorginorgau.6c00051
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
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article

StructuredHTE Data and Integrated Bayesian OptimizationAccelerate Scalable Amidation Process Development

Stacey DiSomma, Shubhangi Aggarwal, F. E. ROBERTS, Victor W. Rosso et al.
ACS Organic & Inorganic Au
Machine Learning in Materials Science
article

StructuredHTE Data and Integrated Bayesian OptimizationAccelerate Scalable Amidation Process Development

Stacey DiSomma, Shubhangi Aggarwal, F. E. ROBERTS, Victor W. Rosso, Jason M. Stevens, Alexander E. Waked, Lingxiang Lu, David Del Valle, Michael Eng, A.H. Furman, Dung L. Golden, Bilal Hoblos, Cheng Peng, Chengmin Zhang, Jiajie Huo, Eric Saurer, Donggeon Nam, Lauren Grant, Ketleine Miller, Michael Williams, Anton Terekh, Sushant Singh, Dmitriy Snetkov, Mikalai Malashchonak, Diane Hendrix, Nikki Dare, Emily Mumford
article en

Abstract

Abstract We describe the evolution of our early hit-identification workflow for reagent-mediated amidation reactions in support of commercial route development. Over the past decade, our strategy progressed from broad, exhaustive high-throughput experimentation (HTE) with limited data maturity to a modern, enterprise-scale digital platform that embeds data science tools directly into the experimental workflow. By tailoring Katalyst D2D─a commercial electronic laboratory notebook (ELN) for HTE developed by ACD/Laboratories─we established a structured, machine-readable data architecture and enabled seamless integration with the EDBO+ Bayesian optimization engine. Retrospective analysis of historical amidation data sets showed that, despite screening more than 60 reagents, only a small subset consistently translated to commercial processes. This insight motivated a streamlined workflow in which chemists begin with a focused survey of six reaction conditions rooted in empirical performance and commercial precedent, followed by Bayesian optimization within the ELN to identify optimal reagent/base/solvent combinations. This study highlights how treating reaction data as a digital asset─FAIR, interoperable, and directly linked to optimization tools─accelerates the transition from reaction screening to robust process development.

ACS Organic & Inorganic Au
Bristol-Myers Squibb (Germany) (DE), Bristol-Myers Squibb (United States) (US), Bristol-Myers Squibb (United Kingdom) (GB), Advanced Cell Diagnostics (United States) (US)
Industry, innovation and infrastructure
Openalex Percentile: Top 22%
Machine Learning in Materials Science
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