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炔丙基丙二烯的有机金属化学:合成、反应性、分子重排及未来展望。

Organometallic Chemistry of Propargylallenes: Syntheses, Reactivity, Molecular Rearrangements and Future Prospects.

作者信息

McGlinchey Michael J

机构信息

School of Chemistry, University College Dublin, Belfield, D04 V1W8 Dublin 4, Ireland.

出版信息

Molecules. 2024 Nov 29;29(23):5670. doi: 10.3390/molecules29235670.

DOI:10.3390/molecules29235670
PMID:39683828
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11642937/
Abstract

Alkynylallenes offer the varied reactivity patterns of two different multiple bond linkages either separately or in concert. Initially, a short overview of their syntheses, structures, rearrangement mechanisms and synthetic utility, especially when treated with transition metal reagents such as gold(I), silver(I), platinum metals or metal carbonyls, is presented. Subsequently, we focus on the particular case of 1,2-dien-5-ynes (propargylallenes), whereby the shortness of the single atom bridge, and the consequent proximity of the allenyl and alkynyl moieties, facilitates metal-mediated interactions between them. It is shown how these metals can coordinate to either the alkyne or the allene fragment, thus leading to different cyclisation or rearrangement products, dependent also on whether it is the proximal or the distal double bond of the allene that participates in the reaction. Dimerisation of bromo-substituted fluorenylideneallenes bearing silyl or ferrocenyl substituents can occur in either head-to-head or head-to-tail fashion, thereby yielding propargylallene derivatives that undergo unexpected and novel rearrangements, including the formation of molecules possessing unusually long carbon-carbon single bonds. Fluorenyl-bearing propargylallenes react with silver nitrate or iron carbonyl to form novel organic polycyclic systems. Finally, suggestions are offered for future advances in the area.

摘要

炔基丙二烯单独或协同展现出两种不同多重键连接方式的多样反应模式。首先,简要概述它们的合成、结构、重排机理及合成应用,特别是在与金(I)、银(I)、铂系金属或金属羰基等过渡金属试剂作用时的情况。随后,我们聚焦于1,2 - 二烯 - 5 - 炔(炔丙基丙二烯)的特殊情况,其中单原子桥的短小以及随之而来的丙二烯基和炔基部分的接近,促进了它们之间的金属介导相互作用。展示了这些金属如何与炔烃或丙二烯片段配位,从而导致不同的环化或重排产物,这也取决于参与反应的是丙二烯的近端双键还是远端双键。带有硅基或二茂铁基取代基的溴代芴叉丙二烯的二聚反应可以以头对头或头对尾的方式发生,从而生成经历意外且新颖重排的炔丙基丙二烯衍生物,包括形成具有异常长碳 - 碳单键的分子。含芴基的炔丙基丙二烯与硝酸银或羰基铁反应形成新型有机多环体系。最后,针对该领域未来的进展提出了建议。

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