Recent Advances in the Nickel‐catalysed Electrochemical Coupling Reactions with a Focus on the Type of Bond Formed

Despite being around for many decades, electrochemical metal catalysis has recently widened the realm of electrochemical synthesis by merging sustainable electrosynthesis and tremendous metal catalysis. As the electric current can be controlled to stimulate the development of reactive intermediates...

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Veröffentlicht in:Asian journal of organic chemistry 2023-02, Vol.12 (2), p.n/a
Hauptverfasser: Jose, Jisna, Diana, Elizabeth J., Kanchana, U. S., Mathew, Thomas V.
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Sprache:eng
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Zusammenfassung:Despite being around for many decades, electrochemical metal catalysis has recently widened the realm of electrochemical synthesis by merging sustainable electrosynthesis and tremendous metal catalysis. As the electric current can be controlled to stimulate the development of reactive intermediates and catalysts without the use of external oxidising or reducing agents and considering that it is more selective, generates less waste, and works under reasonable conditions, this strategy represents an eco‐friendly and economically sustainable method. Nickel can be used efficiently in electrochemical metal‐catalysed reactions owing to its inexpensive nature, high reactivity towards less reactive electrophiles and unique single electron transfer (SET) catalytic cycle. This review covers the recent advances in nickel‐catalysed electrochemical coupling reactions from 2017 to 2022, with a focus on different reactions that forge C−C or C‐heteroatom bonds. Recent years have seen a lot of interest in electrochemical metal catalysis as a technology that supports contemporary synthetic chemistry. Nickel can be used effectively in metal‐catalysed electrochemical reactions due to its inexpensive nature, high reactivity towards less reactive electrolytes, and unique single electron transfer (SET) catalytic cycle. Surprisingly, the range of electrochemical nickel‐catalysed reactions can be well expanded due to its feasibility, energy economy, strong selectivity, mild reaction conditions, broad substrate range, cost‐effectiveness and flexibility.
ISSN:2193-5807
2193-5815
DOI:10.1002/ajoc.202200593