共价键
组合化学
肽
化学
纳米技术
超分子化学
电泳剂
非共价相互作用
药物输送
生物结合
共价结合
化学生物学
血浆蛋白结合
材料科学
生物物理学
作者
Fangyu Cao,Ruochen Guo,Zeyu Zhang,Zhilin Yu
标识
DOI:10.1021/acsami.5c18100
摘要
Covalent inhibitors are one of many conventional covalent drugs and have garnered wide attention for their breakthrough advancements in overcoming drug resistance and improving selectivity. Among the component species for covalent inhibitors, peptide moieties have been broadly utilized to develop covalent inhibitors through serving as ligands to delivery vehicles, due to their advantages of large binding interfaces, reliable associating affinity, and excellent biocompatibility. Incorporating peptide ligands with electrophilic warheads with controllable reactivity leads to covalent inhibitors targeting specific proteins and mitigating off-target concern. However, inherent limitations such as poor membrane permeability and insufficient in vivo stability have constrained their clinical translation, necessitating the development of advanced delivery systems. Concurrently, self-assembly of peptides into nanostructures driven by noncovalent interactions gives rise to potential platforms to deliver covalent inhibitors and release them at targeting pathological sites, thus allowing for precise control of covalent inhibition. In this review, we systematically summarize recent progress in covalent inhibitors containing peptide ligands or delivered by peptide assemblies. Starting with the structure and activity mechanism of targeted covalent inhibitors, we introduce the design strategies for conventional peptide covalent inhibitors and their applications in disease-related targets. Following a brief discussion of the advance in controllable reactive electrophilic warheads, we highlight the delivery systems and the role of supramolecular assemblies in inducing proximity between noncovalent ligands and warheads. Eventually, we discuss the current challenges in clinical transformation and future development of covalent inhibitors, providing perspective for the development of the next generation of covalent drugs.
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