在空气中通过机械化学实现膦氧化物的高效无溶剂脱氧†。

Koji Kubota, Reon Hisazumi, Tamae Seo and Hajime Ito
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摘要

膦氧化物的脱氧是合成有价值的有机膦化合物和回收利用磷资源的重要方法。然而,现有的基于溶液的脱氧方案通常需要较长的反应时间、大量可能有害的有机溶剂和惰性气体环境。此外,溶解性差的膦氧化物的反应具有挑战性,而且通常效率低下。在此,我们展示了一种高温机械化学方案,可在磷酸添加剂存在下实现膦氧化物与氢硅烷的高效无溶剂脱氧反应。这些反应非常迅速,大多数底物的反应都在 30 分钟内完成。值得注意的是,这是首次实用的膦氧化物脱氧反应,所有合成操作均可在空气中进行。此外,还介绍了对机械化学催化维蒂希反应的初步研究。
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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Mechanochemistry enabled highly efficient solvent-free deoxygenation of phosphine oxides in air†

Deoxygenation of phosphine oxides is an important method for the synthesis of valuable organophosphine compounds and recycling of phosphorus resources. However, existing solution-based deoxygenation protocols usually require long reaction times, significant amounts of potentially harmful organic solvents, and inert gas atmospheres. In addition, reactions of poorly soluble phosphine oxides are challenging and often inefficient. Herein, we demonstrate that a high-temperature mechanochemical protocol enables the highly efficient solvent-free deoxygenation of phosphine oxides with hydrosilanes in the presence of a phosphoric acid additive. These reactions were rapid and completed within 30 min for most substrates. Notably, this is the first practical deoxygenation of phosphine oxides in which all synthetic operations can be carried out in air. A preliminary study on the mechanochemical catalytic Wittig reaction is also described.

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