The Electrochemical Shono Oxidation of <i>N</i>‐Formylpyrrolidine: Mechanistic Insights from the Computational Ferrocene Electrode Model and Cyclic Voltammetry

Electrochemical processes are of particular interest in modern chemical technologies as they have numerous advantages over classical approaches. While computational support for investigating thermochemical reaction mechanisms is well established, there is still no consistent methodology for modeling electrochemical processes beyond the computational hydrogen electrode. This work addresses this gap through the study of the Shono‐type oxidation of N ‐formylpyrrolidine. Combining density functional theory calculations, the concept of computational Fc + /Fc electrode, Marcus–Hush approach, and Butler–Volmer model, the reaction mechanism is elucidated, including the identification of the role and position of proton‐coupled electron transfer process. Additionally, simulated cyclic voltammograms are in excellent agreement with experimental studies performed in parallel.

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Journal
ChemElectroChem
Published
2025-08-09
DOI
https://doi.org/10.1002/celc.202500202
Primary Topic
Electrochemical Analysis and Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

The Electrochemical Shono Oxidation of N‐Formylpyrrolidine: Mechanistic Insights from the Computational Ferrocene Electrode Model and Cyclic Voltammetry

Felix Studt, Ulrike Krewer, Dmitry Sharapa, L. A. Savintseva et al.
ChemElectroChem
Electrochemical Analysis and Applications
article

The Electrochemical Shono Oxidation of N‐Formylpyrrolidine: Mechanistic Insights from the Computational Ferrocene Electrode Model and Cyclic Voltammetry

Felix Studt, Ulrike Krewer, Dmitry Sharapa, L. A. Savintseva, Philipp Röse, Paul Neugebauer
article en

Abstract

Electrochemical processes are of particular interest in modern chemical technologies as they have numerous advantages over classical approaches. While computational support for investigating thermochemical reaction mechanisms is well established, there is still no consistent methodology for modeling electrochemical processes beyond the computational hydrogen electrode. This work addresses this gap through the study of the Shono‐type oxidation of N ‐formylpyrrolidine. Combining density functional theory calculations, the concept of computational Fc + /Fc electrode, Marcus–Hush approach, and Butler–Volmer model, the reaction mechanism is elucidated, including the identification of the role and position of proton‐coupled electron transfer process. Additionally, simulated cyclic voltammograms are in excellent agreement with experimental studies performed in parallel.

ChemElectroChemVol. 12(19)
Karlsruhe Institute of Technology (DE)
Deutsche Forschungsgemeinschaft
Openalex Percentile: Top 77%
Electrochemical Analysis and Applications
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