Achieving femtomolar affinities in structure-based drug design

IF 2.3 4区 生物学 Q3 BIOPHYSICS
Asta Zubrienė, Maija Kurtenoka, Vaida Paketurytė-Latvė, Janis Leitans, Elena Manakova, Mantas Žvirblis, Andris Kazaks, Vladislava Eimonta, Kaspars Tars, Saulius Gražulis, Vytautas Petrauskas, Jurgita Matulienė, Virginija Dudutienė, Kirill Shubin, Daumantas Matulis
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引用次数: 0

Abstract

Developing small-molecule compounds as effective and safe pharmaceuticals relies on their ability to bind disease-associated proteins with high affinity and selectivity. However, achieving ultra-high affinity in the femtomolar range is a major challenge in medicinal chemistry due to the inherent constraints of protein-ligand interactions. Here, we introduce a novel class of di-meta-substituted fluorinated benzenesulfonamide compounds that achieve an extraordinary dissociation constant of 44 fM for carbonic anhydrase IX (CAIX). CAIX, a transmembrane enzyme implicated in hypoxic tumor progression through the increase of microenvironment acidity, represents a promising target for anticancer therapy. Inhibiting CAIX may help suppress tumor growth and improve cancer treatment outcomes. The newly developed compounds exhibit the highest affinity for CAIX reported to date and rank among the strongest known non-covalent small-molecule inhibitors.

Abstract Image

在基于结构的药物设计中实现飞摩尔亲和力。
开发有效和安全的小分子化合物依赖于它们以高亲和力和选择性结合疾病相关蛋白的能力。然而,由于蛋白质-配体相互作用的固有限制,在飞摩尔范围内实现超高亲和力是药物化学的主要挑战。在这里,我们介绍了一类新的二元取代氟化苯磺酰胺化合物,它们对碳酸酐酶IX (CAIX)的解离常数达到了44 fM。CAIX是一种跨膜酶,通过微环境酸度的增加参与缺氧肿瘤的进展,是抗癌治疗的一个有希望的靶点。抑制CAIX可能有助于抑制肿瘤生长并改善癌症治疗结果。新开发的化合物显示出迄今为止报道的对CAIX的最高亲和力,并且是已知最强的非共价小分子抑制剂之一。
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来源期刊
European Biophysics Journal
European Biophysics Journal 生物-生物物理
CiteScore
4.30
自引率
0.00%
发文量
43
审稿时长
6-12 weeks
期刊介绍: The journal publishes papers in the field of biophysics, which is defined as the study of biological phenomena by using physical methods and concepts. Original papers, reviews and Biophysics letters are published. The primary goal of this journal is to advance the understanding of biological structure and function by application of the principles of physical science, and by presenting the work in a biophysical context. Papers employing a distinctively biophysical approach at all levels of biological organisation will be considered, as will both experimental and theoretical studies. The criteria for acceptance are scientific content, originality and relevance to biological systems of current interest and importance. Principal areas of interest include: - Structure and dynamics of biological macromolecules - Membrane biophysics and ion channels - Cell biophysics and organisation - Macromolecular assemblies - Biophysical methods and instrumentation - Advanced microscopics - System dynamics.
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