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C−H Bond Functionalization under Electrochemical Flow Conditions

  • Tamlal Pokhrel
  • , B. K. Bijaya
  • , Ramesh Giri
  • , Achyut Adhikari
  • , Nisar Ahmed
    • Tribhuvan University
    • Cardiff University

    Research output: Contribution to journal › Review article › peer-review

    23   Link opens in a new tab Citations (SciVal)

    Abstract

    Electrochemical C−H functionalization is a rapidly growing area of interest in organic synthesis. To achieve maximum atom economy, the flow electrolysis process is more sustainable. This allows shorter reaction times, safer working environments, and better selectivities. Using this technology, the problem of overoxidation can be reduced and less emergence of side products or no side products are possible. Flow electro-reactors provide high surface-to-volume ratios and contain electrodes that are closely spaced where the diffusion layers overlap to give the desired product, electrochemical processes can now be managed without the need for a deliberately added supporting electrolyte. Considering the importance of flow electrochemical C−H functionalization, a comprehensive review is presented. Herein, we summarize flow electrolysis for the construction of C−C and C−X (X=O, N, S, and I) bonds formation. Also, benzylic oxidation and access to biologically active molecules are discussed.

    Original languageEnglish
    Article numbere202100338
    Number of pages37
    JournalChemical Record
    Volume22
    Issue number6
    Early online date22 Mar 2022
    DOIs
    Publication statusPublished - 17 Jun 2022

    Bibliographical note

    Publisher Copyright:
    © 2022 The Authors. Published by The Chemical Society of Japan & Wiley-VCH GmbH.

    Acknowledgements

    Support from the Cardiff University to Dr. Nisar Ahmed is gratefully acknowledged. We would like to thank Dr. B. Shirinfar for valuable technical assistance and discussions.

    Keywords

    • C−H bonds activation
    • Flow electrochemistry
    • Green and sustainable chemistry
    • Microreactors
    • Reaction engineering

    ASJC Scopus subject areas

    • General Chemistry
    • Biochemistry
    • General Chemical Engineering
    • Materials Chemistry

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