氮杂肽是提高生物有效肽活性的有效工具

Karima Tarchoun, Mo’ath Yousef, Z. Bánóczi
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引用次数: 5

摘要

多肽是一种高效的生物活性化合物,具有良好的选择性和结合性,但也存在一些缺点,如酶降解导致体内稳定性低、消除快等。为了克服它们的缺点,各种肽模拟物已经取得了进展。研究了不同的修饰,如肽主链的修饰。其中一个看似简单的修饰是用一个N原子取代CHα基团。这些氨基酸衍生物被称为叠氮氨基酸,而含有叠氮氨基酸的肽被称为叠氮肽。这种交换导致与原始氨基酸的空间和电子差异,从而影响修饰肽的结构和生物活性。本文通过实例介绍了氮杂肽的合成可能性以及氮杂氨基酸掺入对氮杂肽结构和生物活性的影响。综述了氮杂氨基酸引入的不同合成方法和在侧链上的各种构建途径,以说明氮杂氨基酸化学领域的发展。描述了n原子的电子和空间性质的改变对结构的影响。最后,给出了一些具有较强生物活性的例子。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Azapeptides as an Efficient Tool to Improve the Activity of Biologically Effective Peptides
Peptides are highly potent biological active compounds with excellent selectivity and binding, but they have some drawbacks (e.g., low stability in vivo because of the enzymatic degradation, and fast elimination). To overcome their drawbacks, various peptidomimetics have been gaining ground. Different modifications have been examined, such as the modification of peptide backbone. One such seemingly simple modification is the replacement of the CHα group by an N atom. These amino acid derivatives are called azaamino acids, and peptides containing azaamino acid are called azapeptides. This exchange results in both steric and electronic differences from the original amino acids, thus affecting the structure and biological activity of the modified peptide. In this review, the synthesis possibilities of azapeptides and the impact of azaamino acid incorporation on the structure and biological activity are presented through examples. Different synthetic solutions for azaamino acid introduction and the various routes to build in the side chain are summarized to illustrate the improvement of the field of azaamino acid chemistry. The influence of the altered electronic and steric properties of N-atom on the structure is described, too. Finally, some examples are given with potent biological activity.
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