Kappe C Oliver, Dallinger Doris
Christian Doppler Laboratory for Microwave Chemistry (CDLMC) and Institute of Chemistry, Karl-Franzens-University Graz, Heinrichstrasse 28, 8010, Graz, Austria.
Mol Divers. 2009 May;13(2):71-193. doi: 10.1007/s11030-009-9138-8. Epub 2009 Apr 21.
Direct and rapid heating by microwave irradiation in combination with sealed vessel processing in many cases enables reactions to be carried out in a fraction of the time generally required using conventional conditions. This makes microwave chemistry an ideal tool for rapid reaction scouting and optimization of conditions, allowing very rapid progress through hypotheses-experiment-results iterations. The speed at which multiple variations of reaction conditions can be performed allows a morning discussion of "What should we try?" to become an after-lunch discussion of "What were the results?" Not surprisingly, therefore, many scientists both in academia and industry have turned to microwave synthesis as a front-line methodology for their projects. In this review, more than 220 published examples of microwave-assisted synthetic organic transformations from the 2004 to 2008 literature are discussed. An additional ca. 500 reaction schemes are presented in the Electronic Supplementary Material, providing the reader with an overall number of ca. 930 references in this fast-moving and exciting field.
在许多情况下,微波辐射直接快速加热与密封容器处理相结合,能够使反应在使用传统条件时通常所需时间的一小部分内完成。这使得微波化学成为快速反应探索和条件优化的理想工具,能够通过假设 - 实验 - 结果迭代非常迅速地取得进展。能够快速进行多种反应条件变化,使得上午关于“我们应该尝试什么?”的讨论能在午餐后变成关于“结果如何?”的讨论。因此,毫不奇怪,学术界和工业界的许多科学家都已将微波合成作为其项目的一线方法。在本综述中,讨论了2004年至2008年文献中220多个已发表的微波辅助有机合成转化实例。电子补充材料中还提供了约500个反应方案,为读者提供了这个快速发展且令人兴奋的领域中约930篇参考文献的总数。