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April 3, 2026Organic Letters0 citations

Understanding Catalyst Activation Drives Transition from Iridium to Manganese Catalyzed Hydrogen Autotransfer Chemistry

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SKSeung Wook KimGBGregory L. BeutnerWDWei Ding

Key Points

  • This research aims to explore the use of manganese catalysts as an alternative to iridium in hydrogen autotransfer chemistry.
  • Accessed and employed an Mn2(CO)10-derived pincer complex.
  • Synthesized ketones on scales from milligrams to 500 grams.
  • Conducted mechanistic studies to understand catalyst activation.
  • Successful synthesis of pharmaceutical ketones using manganese catalysts.
  • Light-driven CO dissociation identified as a key step for catalyst activation.
  • Robust promotion of C-C and C-N bond formations using the new method.

Abstract

As an alternative to iridium catalysts, a procedure to access and employ a more earth-adundant Mn2(CO)10-derived pincer complex was successfully demonstrated in the synthesis of a complex pharmaceutically relevant ketone from milligram to 500g scales. Mechanistic studies revealed that the dissociation of CO driven by light is a critical step in forming the active catalyst. This robust and mechanistically informed method reliably promotes hydrogen autotransfer of alcohols, catalyzing a diverse array of C-C and C-N bond formations. This emphasizes the importance of precatalyst selection and understanding catalyst activation to enable rapid and successful uptake of novel methods in sustainable catalysis.

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Cite This Study

Kim et al. (2026) studied this question.

synapsesocial.com/papers/69cf5ebd5a333a821460d5d4https://doi.org/10.1021/acs.orglett.6c00103
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