Abstract
Background: Schistosomiasis (snail fever/bilharzia), a disease caused by parasitic flat-worms (schistosomes), infects millions of people worldwide. Aquaporins from these organisms were found to be a potent drug target. Introduction: We investigate the possible mechanism of inhibition of Aquaporin (AQP) from S.mansoni by 5 drug molecules (Praziquantel, Metrifonate, Artimisinin, Albendazole, and Amos-canate). Methods: 3D molecular structure of Aquaporin was obtained through homology modeling and further protein-ligand docking and MD simulation were performed. Results: VAL-75, ASN-91, ALA-220, ASN-222, ARG-225 amino acids were found to play cru-cial role in ligand binding. TRP-71 and other important residues play major role in hydrophobic interactions stabilizing protein-ligand complexes. Conclusion: We hope that this study (with the newly identified aquaporin target) will support the development of structure and pharmacophore-based novel S. mansoni drugs to control and curb Schistosomiasis. © 2020 Bentham Science Publishers.
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CITATION STYLE
Alazmi, M. (2019). Molecular Modeling and Docking of Aquaporin Inhibitors to Reveal New Insights into Schistosomiasis Treatment. Current Computer-Aided Drug Design, 16(6), 772–785. https://doi.org/10.2174/1573409915666191003124947
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