Rotating magnetic field-enhanced PPh3-mediated deoxygenative C–N coupling of nitroarenes with boronic acids

Yanan Zhang , Aojie Zhang , Yue Zhang , Qing Liu , Fachao Yan , Qiang Liu , Lizhi Zhang , Maojin Tian , Zengdian Zhao , Hui Liu
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引用次数: 0

Abstract

Diarylamines are privileged motifs in pharmaceuticals, agrochemicals, and functional materials, yet their synthesis typically relies on transition-metal-catalyzed C–N couplings that require prefunctionalized anilines. We report a solvent-free electromagnetic mechanochemical protocol that enables PPh3-promoted deoxygenative C–N coupling of nitroarenes with boronic acids under a rotating magnetic field. The synergistic action of electromagnetic induction and mechanical collision activates simple triphenylphosphine to promote C–N bond formation without silanes, light, electrochemistry, or designer phosphines. Notably, bromo- and iodo-substituted substrates—often incompatible with conventional metal-catalyzed systems—remained completely intact, highlighting the exceptional halogen tolerance of this protocol. The reaction proceeds smoothly in air and without solvent, demonstrating a robust, sustainable, and magnetically driven strategy for C–N bond construction from simple and abundant feedstocks.

Abstract Image

旋转磁场增强pph3介导的硝基芳烃与硼酸的脱氧C-N偶联
二芳胺是药物、农用化学品和功能材料中的特殊基序,但它们的合成通常依赖于过渡金属催化的C-N偶联,这需要预功能化苯胺。我们报道了一种无溶剂的电磁机械化学方案,使pph3促进硝基芳烃与硼酸在旋转磁场下的脱氧C-N偶联。电磁感应和机械碰撞的协同作用激活了简单的三苯基膦,促进了C-N键的形成,而不需要硅烷、光、电化学或设计膦。值得注意的是,溴和碘取代的底物(通常与传统的金属催化体系不相容)保持完整,突出了该方案的特殊卤素耐受性。该反应在空气中无溶剂的情况下顺利进行,证明了用简单而丰富的原料构建C-N键的稳健、可持续和磁性驱动策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
7.80
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