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· Chemical Engineering Online
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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?

Autonomous chemistry system identifies high-performing and tunable catalysts

This article was originally posted on chemengonline.com.

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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