逆转录酶
蛋白酶
细胞毒性
变构调节
细胞内
体外
病毒学
生物
病毒复制
病毒
细胞培养
化学
细胞生物学
酶
生物化学
核糖核酸
遗传学
基因
作者
Carl J. Balibar,Daniel J. Klein,Beata Zamlynny,Tracy L. Diamond,Zhiyu Fang,Carol Cheney,Jan Kristoff,Meiqing Lu,Marina Bukhtiyarova,Yangsi Ou,Min Xu,Lei Ba,Steven S. Carroll,Abdellatif El Marrouni,John F. Fay,Ashley Forster,Shih Lin Goh,Meigang Gu,Daniel J. Krosky,Daniel I. S. Rosenbloom
出处
期刊:Science Translational Medicine
[American Association for the Advancement of Science (AAAS)]
日期:2023-02-22
卷期号:15 (684): eabn2038-eabn2038
被引量:20
标识
DOI:10.1126/scitranslmed.abn2038
摘要
Antiretroviral therapy inhibits HIV-1 replication but is not curative due to establishment of a persistent reservoir after virus integration into the host genome. Reservoir reduction is therefore an important HIV-1 cure strategy. Some HIV-1 nonnucleoside reverse transcriptase inhibitors induce HIV-1 selective cytotoxicity in vitro but require concentrations far exceeding approved dosages. Focusing on this secondary activity, we found bifunctional compounds with HIV-1–infected cell kill potency at clinically achievable concentrations. These targeted activator of cell kill (TACK) molecules bind the reverse transcriptase–p66 domain of monomeric Gag-Pol and act as allosteric modulators to accelerate dimerization, resulting in HIV-1 + cell death through premature intracellular viral protease activation. TACK molecules retain potent antiviral activity and selectively eliminate infected CD4 + T cells isolated from people living with HIV-1, supporting an immune-independent clearance strategy.
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