疟疾
药物发现
效力
氯喹
计算生物学
抗药性
药理学
蛋白酶抑制剂(药理学)
医学
化学
生物
病毒学
体外
生物化学
免疫学
人类免疫缺陷病毒(HIV)
遗传学
病毒载量
抗逆转录病毒疗法
作者
Manuel de Lera Ruiz,Paola Favuzza,Zhuyan Guo,Lianyun Zhao,Bin Hu,Zhi‐Yu Lei,Dongmei Zhan,Nicholas Murgolo,Christopher W. Boyce,Marissa Vavrek,Jennifer K. Thompson,Anna Ngo,Kate E. Jarman,Johnathan Robbins,Justin A. Boddey,Brad E. Sleebs,Kym N. Lowes,Alan F. Cowman,David B. Olsen,John A. McCauley
标识
DOI:10.1021/acsmedchemlett.2c00355
摘要
Drug resistance to first-line antimalarials-including artemisinin-is increasing, resulting in a critical need for the discovery of new agents with novel mechanisms of action. In collaboration with the Walter and Eliza Hall Institute and with funding from the Wellcome Trust, a phenotypic screen of Merck's aspartyl protease inhibitor library identified a series of plasmepsin X (PMX) hits that were more potent than chloroquine. Inspired by a PMX homology model, efforts to optimize the potency resulted in the discovery of leads that, in addition to potently inhibiting PMX, also inhibit another essential aspartic protease, plasmepsin IX (PMIX). Further potency and pharmacokinetic profile optimization efforts culminated in the discovery of WM382, a very potent dual PMIX/X inhibitor with robust in vivo efficacy at multiple stages of the malaria parasite life cycle and an excellent resistance profile.
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