Xu Chengjie, Wu Songtao, Liu Pengju, Huang Yao, Chen Yuchao, Ding Guoping, Jia Shengnan
Department of General Surgery, Sir Run Run Shaw Hospital, School of Medicine, Zhejiang University, Hangzhou, China.
School of Medicine, Zhejiang University, Hangzhou, China.
Front Chem. 2024 Sep 2;12:1450339. doi: 10.3389/fchem.2024.1450339. eCollection 2024.
Our research is dedicated to combating HIV by targeting its Matrix (MA) domain, which is crucial for viral assembly and replication. This strategy specifically aims to interrupt early-stage infection and deter drug resistance by focusing on this essential domain. Due to the MA domain's conservation across different HIV strains, our approach promises broad-spectrum efficacy, which is particularly crucial in regions marked by significant genetic diversity and resistance issues. In our study, we introduce CNP0269688, a natural product that exhibits high affinity for the HIV-1 Matrix. Through detailed molecular dynamics simulations, we have assessed the compound's structural stability and interaction dynamics, particularly its potential to hinder Protein-tRNA interactions. This analysis lays the groundwork for future experimental investigations. Our efforts are steps toward enhancing HIV treatment, reducing viral transmission, and curbing drug resistance, with the ultimate aim of controlling and eradicating the pandemic, thereby contributing significantly to public health and scientific advancement.
我们的研究致力于通过靶向HIV的基质(MA)结构域来对抗HIV,该结构域对病毒组装和复制至关重要。此策略特别旨在通过聚焦这一关键结构域来阻断早期感染并防止耐药性。由于MA结构域在不同HIV毒株中具有保守性,我们的方法有望具备广谱疗效,这在存在显著基因多样性和耐药问题的地区尤为关键。在我们的研究中,我们引入了CNP0269688,一种对HIV-1基质具有高亲和力的天然产物。通过详细的分子动力学模拟,我们评估了该化合物的结构稳定性和相互作用动力学,特别是其阻碍蛋白质 - tRNA相互作用的潜力。这一分析为未来的实验研究奠定了基础。我们的努力是朝着加强HIV治疗、减少病毒传播和遏制耐药性迈出的步伐,最终目标是控制和根除这一流行病,从而为公共卫生和科学进步做出重大贡献。