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May 7, 2026Journal of the Chinese Chemical Society0 citations

Selective Triple Aromatic CH Hydroxylation via Boron‐Mediated Activation of Multiple‐Resonance Compounds

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JSJing-Han ShiCLC.S. LinYLYi‐Cheng Lin

Key Points

  • This research aims to explore a boron-mediated approach for chemoselective hydroxylation of aromatic compounds.
  • Metal-free boron-mediated reactions
  • Utilizing hydrogen peroxide as an oxidant
  • Investigating B/N multiple resonance compounds
  • Assessing ortho selectivity in hydroxylation
  • Achieved selective installation of three hydroxyl groups in one step
  • Demonstrated high ortho selectivity for hydroxylation
  • Provided versatile synthetic handles for further functionalization

Abstract

ABSTRACT A novel, metal‐free, boron‐mediated chemoselective aromatic C–H hydroxylation is reported. This transformation was discovered serendipitously during our investigation of water complexation with the boron/nitrogen (B/N) multiple resonance (MR) compound DtBuCzB. In the presence of hydrogen peroxide, the reaction proceeds via an initial oxidative boration followed by hydroxylation, enabling the installation of three hydroxyl groups in a single step with high ortho selectivity. The resulting polyhydroxylated framework provides versatile synthetic handles for further functionalization, underscoring the broad utility of this methodology. Overall, this strategy offers a convenient and practical route to densely functionalize aromatic compounds. This finding also raises a critical caveat regarding the long‐term storage of B/N‐MR materials, as trace oxidants present in the environment may induce unintended oxidative transformation.

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Cite This Study

Shi et al. (2026) studied this question.

synapsesocial.com/papers/69fbef68164b5133a91a34e9https://doi.org/10.1002/jccs.70208
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