Automated self-optimisation of multi-step reaction and separation processes using machine learning

A. John Blacker, Richard A. Bourne, Thomas W. Chamberlain, Artur M. Schweidtmann, Alexei A. Lapkin, Adam D. Clayton, Jamie A. Manson, Connor J. Taylor, Graeme Clemens, Carlos González Niño, Nikil Kapur
2019-11-03

SCID:  54.1/yve4hzkc
There has been an increasing interest in the use of automated self-optimising continuous flow platforms for the development and manufacture in synthesis in recent years. Such processes include multiple reactive and work-up steps, which need to be efficiently optimised. Here, we report the combination of multi-objective optimisation based on machine learning methods (TSEMO algorithm) with self-optimising platforms for the optimisation of multi-step continuous reaction processes. This is demonstrated for a pharmaceutically relevant Sonogashira reaction. We demonstrate how optimum reaction conditions are re-evaluated with the changing downstream work-up specifications in the active learning process. Furthermore, a Claisen-Schmidt condensation reaction with subsequent liquid-liquid separation was optimised with respect to three-objectives. This approach provides the ability to simultaneously optimise multi-step processes with respect to multiple objectives, and thus has the potential to make substantial savings in time and resources.
Publication Details
Publication Date
2019-11-03
Journal
Publisher
ISSN
Access Type
Author Information
Authors
A. John Blacker
Richard A. Bourne
Thomas W. Chamberlain
Artur M. Schweidtmann
Alexei A. Lapkin
Adam D. Clayton
Jamie A. Manson
Connor J. Taylor
Graeme Clemens
Carlos González Niño
Nikil Kapur
Explore More Research
Use the citation graph to discover related papers and expand your research horizons.
Click any node to explore
Download PDF
100%