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Autonomous chemistry system identifies high-performing and tunable catalysts

This article was originally posted on Chemical Engineering Online.
Summary
Researchers at North Carolina State University and the University of North Carolina, supported by Eastman Chemical, developed a closed-loop autonomous catalysis platform that discovers and optimizes catalysts. It combines parallel miniaturized pressurized gas–liquid batch reactors with a hierarchical, plate-constrained Bayesian optimization approach that simultaneously tunes discrete variables (like ligand identity) and continuous process conditions. The system identifies high-performing catalyst formulations and reveals how reaction conditions control selectivity, enabling tunable catalysis.

What types of reactions or industries (pharma, fine chemicals, bulk commodities) would benefit most from this mixed-variable, closed-loop optimization, and what constraints or priors would you include to guide it?

Researchers at North Carolina State University (NCSU; Raleigh; www.ncsu.edu) and the University of North Carolina (Chapel Hill; www.unc.edu), with the support of Eastman Chemical Co. (www.eastman.com), have developed a closed-loop autonomous catalysis platform for identifying high-performing catalyst formulations and for investigating how reaction conditions affect selectivity. The new platform couples parallel miniaturized batch reactors for pressurized gas-liquid chemistry with a hierarchical, plate-constrained Bayesian optimization framework for mixed discrete (ligand identity) and continuous (process) variables

The post Autonomous chemistry system identifies high-performing and tunable catalysts appeared first on Chemical Engineering.

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