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Kinetically Stable Boron-Heteroatom Bonds.

Created on 30 Jul 2026

Authors

Alina Trofimova, Ben Zhen Huang, Harjeet S Soor, Brandon White, Aleksandra Holownia, Yury Lebedev, Alan J Lough, Travis Dudding, Andrei K Yudin

Published in

Angewandte Chemie (International ed. in English). Pages e6307397. Jul 30, 2026. Epub Jul 30, 2026.

Abstract

Achieving kinetic stability of hydrolytically labile bonds remains a persistent goal of chemistry. The present study investigates the kinetic stability of boron-heteroatom bonds in N-methyliminodiacetic acid (MIDA) boronates. The hemilabile nature of the ligand has enabled the synthesis of molecules that would otherwise be considered too hydrolytically labile. Depending on the structure, acid-promoted migration of the boryl substituent was found to produce molecules with boron bound to nitrogen in different oxidation states. The formation of azidoboronate over aminoboronate is a particularly interesting consequence of kinetic stabilization and is at odds with the expectedly low-energy path to nitrogen gas elimination. By focusing on the unusual stability of boron-heteroatom bonds in different settings, this study contributes to the development of fundamental aspects of organoboron chemistry and offers a path to versatile building blocks that should find widespread utility in chemistry.

PMID:
42530964
Bibliographic data and abstract were imported from PubMed on 30 Jul 2026.

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