Boutton Carlo W, De Bondt Hendrik L, De Jonge Marc R
Tibotec BVBA, Gen. De Wittelaan L11 B3, B-2800 Mechelen, Belgium.
J Med Chem. 2005 Mar 24;48(6):2115-20. doi: 10.1021/jm049596h.
The development of drug-resistant viruses limits the therapeutic success of anti-HIV therapies. Some of these genetic HIV-variants display complex mutational patterns in their pol gene that codes for protease and reverse transcriptase, the most investigated molecular targets for antiretroviral therapy. In this paper, we present a computational structure-based approach to predict the resistance of a HIV-1 protease strain to amprenavir by calculating the interaction energy of the drug with HIV-1 protease. By considering the interaction energy per residue, we can identify what residue mutations contribute to drug-resistance. This approach is presented here as a structure-based tool for the prediction of resistance of HIV-1 protease toward amprenavir, with a view to use the drug-protein interaction-energy pattern in a lead-optimization procedure for the discovery of new anti-HIV drugs.
耐药病毒的出现限制了抗HIV治疗的疗效。这些HIV基因变体中的一些在其编码蛋白酶和逆转录酶的pol基因中呈现出复杂的突变模式,而蛋白酶和逆转录酶是抗逆转录病毒治疗中研究最多的分子靶点。在本文中,我们提出了一种基于结构的计算方法,通过计算药物与HIV-1蛋白酶的相互作用能来预测HIV-1蛋白酶菌株对安普那韦的耐药性。通过考虑每个残基的相互作用能,我们可以确定哪些残基突变会导致耐药性。本文将这种方法作为一种基于结构的工具,用于预测HIV-1蛋白酶对安普那韦的耐药性,以期在先导优化过程中利用药物-蛋白质相互作用能模式来发现新的抗HIV药物。