Synthesis of Biginelli Compounds using Microwave-Assisted Methods

Pedro Henrique Costa dos Santos, Virgínia Luíza Guimarães Souza, Augusto César Carvalho Santos, Henrique Esteves, L. Modolo, Ângelo de Fátima
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Abstract

Biginelli adducts, also known as dihydropyrimidin-2(1H)-ones/-thiones (DHMPs), exhibit versatile biological activities. Among them, monastrol has gained significant popularity as an inhibitor of kinesin-5 (Eg5), a motor protein crucial for spindle bipolarity. The inhibitory effect of monastrol on Eg5 accounts for its promising anticancer properties, along with its well-established role as an anti-inflammatory agent and calcium channel inhibitor. Since its first report in 1893, the Biginelli reaction has been extensively studied from various angles, including the scope of reagents used, the incorporation or omission of catalysts and solvents, and the application of innovative techniques like mechanochemical and ultrasonic reactors. Among these methods, microwave irradiation (MWI) has shown remarkable promise, aligning with the principles of green chemistry by offering solvent-free conditions, eco-friendly catalysts, and accelerated reaction times, ultimately leading to higher yields with a reduced environmental impact. In this mini-review, we shed light on the literature surrounding the synthesis of Biginelli adducts using MWI and highlight how this heating method can significantly enhance the preparation of this important class of bioactive compounds. By exploring the benefits of MWI, we aim to contribute to the advancement of greener and more efficient synthetic routes for bioactive substances.
利用微波辅助方法合成比吉内利化合物
比吉内利加合物又称二氢嘧啶-2(1H)-酮/硫酮(DHMPs),具有多种生物活性。其中,莫纳司特罗作为驱动蛋白-5(Eg5)的抑制剂而备受青睐,Eg5 是一种对纺锤体双极性至关重要的运动蛋白。莫纳司特罗对 Eg5 的抑制作用使其具有了良好的抗癌特性,同时它还是一种公认的抗炎剂和钙通道抑制剂。自 1893 年首次报道以来,人们从不同角度对 Biginelli 反应进行了广泛研究,包括所用试剂的范围、催化剂和溶剂的加入或省略,以及机械化学反应器和超声波反应器等创新技术的应用。在这些方法中,微波辐照(MWI)已显示出显著的前景,它通过提供无溶剂条件、生态友好型催化剂和加速反应时间,符合绿色化学的原则,最终提高了产率,减少了对环境的影响。在这篇小型综述中,我们将介绍有关使用 MWI 合成比吉奈利加合物的文献,并重点介绍这种加热方法如何显著提高这类重要生物活性化合物的制备水平。通过探讨 MWI 的益处,我们希望为开发更环保、更高效的生物活性物质合成路线做出贡献。
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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