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Structure Optimization of Aloperine Derivatives as HIV-1 Entry Inhibitors
Zhao Dang1, Hua Xie2, Lei Zhu1
1Department of Surgery, Duke University Medical Center, Durham, North Carolina 27710, United States.
Abstract:
As a step toward developing novel anti-HIV agents, we have identified a class of quinolizidines, including aloperine, that inhibit HIV at 1-5 μM by blocking viral entry. In this study, we have optimized the structure of aloperine and derived compounds with markedly improved activity. Our structural optimization has yielded an aloperine derivative 19 with approximately a 15-fold increase in anti-HIV-1 activity. Our mechanism of action study reveals that compound 19 does not inhibit binding of HIV-1 to receptors but arrests the virus from fusion with the membrane. Binding of the compound to HIV-1gp120 might be responsible for its anti-HIV-1 entry activity.
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