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Accounts of Chemical Research· 2019Q1

A Survival Guide for the “Electro-curious”

Cian Kingston, Maximilian D. Palkowitz, Yusuke Takahira, Julien C. Vantourout et al.

Short summary

Synthetic organic electrochemistry, despite its economic and atom-efficiency benefits, remains underutilized due to perceived complexity and lack of accessible equipment.

AI-generated from the title and abstract; the full text is not read.

Key points

  • Electrochemistry is a highly economical and atom-efficient method for redox reactions, with electrons serving as the reagent.
  • Widespread adoption of electrochemistry is limited by the perception of it being a "black box" and the lack of accessible, standardized equipment.
  • The paper focuses on the pragmatic aspects of designing, optimizing, and scaling up electrochemical reactions, rather than theoretical principles.
  • The goal is to leverage electrochemistry's unique reactivity to enable new bond formations with higher selectivity and unlock novel retrosynthetic pathways.

AI-generated from the title and abstract; the full text is not read.

Abstract

The appeal and promise of synthetic organic electrochemistry have been appreciated over the past century. In terms of redox chemistry, which is frequently encountered when forging new bonds, it is difficult to conceive of a more economical way to add or remove electrons than electrochemistry. Indeed, many of the largest industrial synthetic chemical processes are achieved in a practical way using electrons as a reagent. Why then, after so many years of the documented benefits of electrochemistry, is it not more widely embraced by mainstream practitioners? Erroneous perceptions that electrochemistry is a "black box" combined with a lack of intuitive and inexpensive standardized equipment likely contributed to this stagnation in interest within the synthetic organic community. This barrier to entry is magnified by the fact that many redox processes can already be accomplished using simple chemical reagents even if they are less atom-economic. Time has proven that sustainability and economics are not strong enough driving forces for the adoption of electrochemical techniques within the broader community. Indeed, like many synthetic organic chemists that have dabbled in this age-old technique, our first foray into this area was not by choice but rather through sheer necessity. The unique reactivity benefits of this old redox-modulating technique must therefore be highlighted and leveraged in order to draw organic chemists into the field. Enabling new bonds to be forged with higher levels of chemo- and regioselectivity will likely accomplish this goal. In doing so, it is envisioned that widespread adoption of electrochemistry will go beyond supplanting unsustainable reagents in mundane redox reactions to the development of exciting reactivity paradigms that enable heretofore unimagined retrosynthetic pathways. Whereas the rigorous physical organic chemical principles of electroorganic synthesis have been reviewed elsewhere, it is often the case that such summaries leave out the pragmatic aspects of designing, optimizing, and scaling up preparative electrochemical reactions. Taken together, the task of setting up an electrochemical reaction, much less inventing a new one, can be vexing for even seasoned organic chemists. This Account therefore features a unique format that focuses on addressing this exact issue within the context of our own studies. The graphically rich presentation style pinpoints basic concepts, typical challenges, and key insights for those "electro-curious" chemists who seek to rapidly explore the power of electrochemistry in their research.

The authors' abstract, as published at the source. Accounts of Chemical Research, 2019 · DOI ↗

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Field: Human-Computer Interaction

Human-Computer InteractionComputer Science