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Design and Synthesis of Quinolizidine Derivatives as Influenza Virus and HIV-1 Inhibitors.


ABSTRACT:

Background

We have previously reported that a quinolizidine natural product, aloperine, and its analogs can inhibit influenza virus and/or HIV-1 at low μM concentrations.

Objective

The main goal of this study was to further optimize aloperine for improved anti-influenza virus activity.

Methods

Structural modifications have been focused on the N12 position of aloperine scaffold. Conventional chemical synthesis was used to obtain derivatives with improved antiviral activities. The anti-HIV and anti-influenza virus activities of the synthesized compounds were determined using an MT4 cell-based HIV-1 replication assay and an anti- influenza virus infection of MDCK cell assay, respectively.

Results

Aloperine derivatives can be classified into three activity groups: those that exhibit anti-HIV activity only, anti-influenza virus only, or activity against both viruses. Aloperine optimized for potent anti-influenza activity often lost anti-HIV-1 activity, and vice versa. Compound 19 inhibited influenza virus PR8 replication with an IC50 of 0.091 μM, which is approximately 160- and 60-fold more potent than aloperine and the previously reported aloperine derivative compound 3, respectively.

Conclusion

The data suggest that aloperine is a privileged scaffold that can be modified to become a selective antiviral compound with markedly improved potency against influenza virus or HIV-1.

SUBMITTER: Dang Z 

PROVIDER: S-EPMC8711797 | biostudies-literature | 2021

REPOSITORIES: biostudies-literature

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Design and Synthesis of Quinolizidine Derivatives as Influenza Virus and HIV-1 Inhibitors.

Dang Zhao Z   Zhu Lei L   Xie Lan L   Lee Kuo-Hsiung KH   Malik Faisal F   Li Zhijun Z   Huang Li L   Chen Chin-Ho CH  

Current medicinal chemistry 20210101 24


<h4>Background</h4>We have previously reported that a quinolizidine natural product, aloperine, and its analogs can inhibit influenza virus and/or HIV-1 at low μM concentrations.<h4>Objective</h4>The main goal of this study was to further optimize aloperine for improved anti-influenza virus activity.<h4>Methods</h4>Structural modifications have been focused on the N12 position of aloperine scaffold. Conventional chemical synthesis was used to obtain derivatives with improved antiviral activities  ...[more]

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