s-Triazine: A Multidisciplinary and International Journey

Anamika Sharma, Z. Almarhoon, Rotimi Sheyi, Rakia Abd Alhameed, B. G. Torre, F. Albericio, Ayman Al-Faham
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Abstract

2,4,6-Trichloro-1,3,5-triazine (TCT) offers the unique ability to undergo sequential nucleophilic substitution reactions using regular nucleophiles (first Cl replacement at 0 °C, second at RT, and third at >90 °C), making s-triazine a privileged scaffold-finding application in drug development with an extension towards the development of new materials. This selective chemical property of TCT fulfills the goal of chemists to control organic structures and make them react in the required conditions for achieving each objective. In this regard, orthogonality and chemoselectivity are two modern organic chemistry concepts which have been exploited in various areas of research, ranging from supramolecular chemistry to organic/bioconjugation chemistry. We have demonstrated the fusion of these two concepts using TCT as “Orthogonal Chemoselectivity” and defined it as discrimination between reactive sites in any order. The usage of azide as one of the nucleophiles modulated the reactivity of the s-triazine core for the last Cl replacement. This allowed us to overcome the barrier of higher temperature (>90 °C) for the last Cl replacement which happened at RT, taking advantage of side chains of Cys, Tyr and Lys in a biological context. In this presentation, we revise the chemistry developed in our laboratories to manipulate the TCT core for application in our medicinal chemistry programs and in bioconjugation.
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s-三嗪:多学科和国际之旅
2,4,6-三氯-1,3,5-三嗪(TCT)具有使用常规亲核试剂进行顺序亲核取代反应的独特能力(第一次Cl取代在0°C,第二次在RT,第三次在>90°C),使s-三嗪在药物开发中具有优越的支架寻找应用,并扩展到开发新材料。TCT的这种选择性化学性质实现了化学家控制有机结构并使其在达到每个目标所需的条件下反应的目标。在这方面,正交性和化学选择性是两个现代有机化学概念,已被应用于从超分子化学到有机/生物偶联化学的各个研究领域。我们已经证明了这两个概念的融合使用TCT作为“正交化学选择性”,并将其定义为在任何顺序的活性位点之间的区分。叠氮化物作为亲核试剂之一的使用调节了s-三嗪核的最后一次Cl取代的反应活性。这使我们能够克服更高温度(>90°C)的障碍,在RT发生最后的Cl替换,利用生物环境中的Cys, Tyr和Lys侧链。在这次演讲中,我们修改了我们实验室开发的化学,以操纵TCT核心用于我们的药物化学项目和生物偶联。
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