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利用毒液中的化合物进行药物研发。

Utilisation of compounds from venoms in drug discovery.

机构信息

Faculty of Science, Engineering and Social Sciences, Natural and Applied Sciences, School of Psychology and Life Sciences, Canterbury Christ Church University, Canterbury, Kent, United Kingdom.

Venomtech Ltd., Sandwich, Kent, United Kingdom.

出版信息

Prog Med Chem. 2021;60:1-66. doi: 10.1016/bs.pmch.2021.01.001. Epub 2021 Mar 27.

Abstract

Difficult drug targets are becoming the normal course of business in drug discovery, sometimes due to large interacting surfaces or only small differences in selectivity regions. For these, a different approach is merited: compounds lying somewhere between the small molecule and the large antibody in terms of many properties including stability, biodistribution and pharmacokinetics. Venoms have evolved over millions of years to be complex mixtures of stable molecules derived from other somatic molecules, the stability comes from the pressure to be ready for delivery at a moment's notice. Snakes, spiders, scorpions, jellyfish, wasps, fish and even mammals have evolved independent venom systems with complex mixtures in their chemical arsenal. These venom-derived molecules have been proven to be useful tools, such as for the development of antihypotensive angiotensin converting enzyme (ACE) inhibitors and have also made successful drugs such as Byetta® (Exenatide), Integrilin® (Eptifibatide) and Echistatin. Only a small percentage of the available chemical space from venoms has been investigated so far and this is growing. In a new era of biological therapeutics, venom peptides present opportunities for larger target engagement surface with greater stability than antibodies or human peptides. There are challenges for oral absorption and target engagement, but there are venom structures that overcome these and thus provide substrate for engineering novel molecules that combine all desired properties. Venom researchers are characterising new venoms, species, and functions all the time, these provide great substrate for solving the challenges presented by today's difficult targets.

摘要

难成药靶点正在成为药物发现过程中的常态,有时是因为其具有较大的相互作用表面,或者是因为其选择性区域仅有微小差异。对于这些靶点,需要采取不同的方法:与小分子相比,这些化合物在许多特性方面(包括稳定性、生物分布和药代动力学)处于小分子和大分子抗体之间。毒液经过数百万年的进化,成为源自其他体细胞分子的稳定分子的复杂混合物,其稳定性来自于随时准备输送的压力。蛇、蜘蛛、蝎子、水母、黄蜂、鱼类,甚至哺乳动物都进化出了具有复杂混合物的独立毒液系统。这些源自毒液的分子已被证明是有用的工具,例如用于开发抗高血压血管紧张素转换酶(ACE)抑制剂,并且已经成功开发出了一些药物,如 Byetta®(Exenatide)、Integrilin®(Eptifibatide)和 Echistatin。迄今为止,仅研究了毒液中可用化学空间的一小部分,而且这一比例还在不断增加。在生物治疗的新时代,毒液肽具有更大的稳定性和更大的靶标结合表面积的机会,超过了抗体或人类肽。尽管存在口服吸收和靶标结合的挑战,但仍有一些毒液结构克服了这些挑战,从而为设计结合所有理想特性的新型分子提供了基础。毒液研究人员一直在对新的毒液、物种和功能进行分类,这些为解决当今困难靶点带来的挑战提供了很好的基础。

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