Kilo-Scale Electrochemical Oxidation of a Thioether to a Sulfone: A Workflow for Scaling up Electrosynthesis

Organic electrosynthesis is a rapidly evolving field, providing powerful methods to assemble targets of interest in organic synthesis. Concerns around the scalability of electrochemical methods remain the biggest reason behind their scarce implementation in manufacturing routes for the pharmaceutica...

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Veröffentlicht in:Organic process research & development 2022-08, Vol.26 (8), p.2423-2437
Hauptverfasser: Bottecchia, Cecilia, Lehnherr, Dan, Lévesque, François, Reibarkh, Mikhail, Ji, Yining, Rodrigues, Vailankanni L., Wang, Heather, Lam, Yu-hong, Vickery, Thomas P., Armstrong, Brittany M., Mattern, Keith A., Stone, Kevin, Wismer, Michael K., Singh, Andrew N., Regalado, Erik L., Maloney, Kevin M., Strotman, Neil A.
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container_end_page 2437
container_issue 8
container_start_page 2423
container_title Organic process research & development
container_volume 26
creator Bottecchia, Cecilia
Lehnherr, Dan
Lévesque, François
Reibarkh, Mikhail
Ji, Yining
Rodrigues, Vailankanni L.
Wang, Heather
Lam, Yu-hong
Vickery, Thomas P.
Armstrong, Brittany M.
Mattern, Keith A.
Stone, Kevin
Wismer, Michael K.
Singh, Andrew N.
Regalado, Erik L.
Maloney, Kevin M.
Strotman, Neil A.
description Organic electrosynthesis is a rapidly evolving field, providing powerful methods to assemble targets of interest in organic synthesis. Concerns around the scalability of electrochemical methods remain the biggest reason behind their scarce implementation in manufacturing routes for the pharmaceutical industry. To fill this gap, we report a workflow describing the key reaction parameters toward the successful scale-up of an organic electrosynthetic method from milligram to kilogram scale. The reaction used to demonstrate our workflow and scale-up in a flow setting was the oxidation of a thioether to its corresponding sulfone, a fragment of interest in an active pharmaceutical ingredient under development. The use of online flow nuclear magnetic resonance spectroscopy, offline ion chromatography, cyclic voltammetry, and density functional theory calculations provided insight into the reaction mechanism and side reactions.
doi_str_mv 10.1021/acs.oprd.2c00111
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title Kilo-Scale Electrochemical Oxidation of a Thioether to a Sulfone: A Workflow for Scaling up Electrosynthesis
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