Montagnon Tamsyn, Kalaitzakis Dimitris, Triantafyllakis Myron, Stratakis Manolis, Vassilikogiannakis Georgios
Department of Chemistry, University of Crete, 71003 Iraklion, Crete, Greece.
Chem Commun (Camb). 2014 Dec 21;50(98):15480-98. doi: 10.1039/c4cc02083a. Epub 2014 Oct 15.
The purpose of this article is to give a taste of just how powerful the union between furans and photochemically-generated singlet oxygen is proving to be as a synthetic tool and to suggest that this chemistry is only now really coming of age. In attempting to achieve this goal, its progress from mechanistic curiosity to rapidly maturing applied science will be followed. It will be shown how the field has reached a point where the diversity of product structures attainable is expanding all the time at a tremendous pace and how this expansion allows for a wide variety of important developments from the discovery of new materials and methods for DNA-crosslinking, to the delineation of more sustainable synthetic technologies. To begin with, however, we look briefly at the investigations of the pioneers who laid all the necessary foundations by unravelling the reactions' key characteristics and then we will move on to show how their crucial work has been exploited and applied in increasingly creative ways over the years that have followed.
本文旨在展示呋喃与光化学产生的单线态氧之间的结合作为一种合成工具正展现出多么强大的力量,并表明这种化学方法目前才真正走向成熟。为实现这一目标,我们将追踪其从机理研究的好奇心到迅速成熟的应用科学的发展历程。将展示该领域如何达到这样一个阶段:可获得的产物结构多样性一直在以惊人的速度不断扩展,以及这种扩展如何促成从发现用于DNA交联的新材料和方法到描绘更可持续的合成技术等各种各样的重要进展。然而,首先我们将简要回顾那些先驱者的研究,他们通过揭示反应的关键特征奠定了所有必要的基础,然后我们将继续展示在随后的岁月里,他们的关键工作是如何以越来越有创造性的方式得到利用和应用的。