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Inverse Molecular Docking Study of NS3-Helicase and NS5-RNA Polymerase of Zika Virus as Possible Therapeutic Targets of Ligands Derived from Marcetia taxifolia and Its Implications to Dengue Virus

[Image: see text] Dengue and Zika are two mosquito-borne diseases of great impact on public health around the world in tropical and subtropical countries. DENV and ZIKV belong to the Flaviviridae family and the Flavivirus genus. Currently, there are no effective therapeutic agents to treat or preven...

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Autores principales: Buendia-Atencio, Cristian, Pieffet, Gilles Paul, Montoya-Vargas, Santiago, Martínez Bernal, Jessica A., Rangel, Héctor Rafael, Muñoz, Ana Luisa, Losada-Barragán, Monica, Segura, Nidya Alexandra, Torres, Orlando A., Bello, Felio, Suárez, Alírica Isabel, Rodríguez, Anny Karely
Formato: Online Artículo Texto
Lenguaje:English
Publicado: American Chemical Society 2021
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7948243/
https://www.ncbi.nlm.nih.gov/pubmed/33718704
http://dx.doi.org/10.1021/acsomega.0c04719
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author Buendia-Atencio, Cristian
Pieffet, Gilles Paul
Montoya-Vargas, Santiago
Martínez Bernal, Jessica A.
Rangel, Héctor Rafael
Muñoz, Ana Luisa
Losada-Barragán, Monica
Segura, Nidya Alexandra
Torres, Orlando A.
Bello, Felio
Suárez, Alírica Isabel
Rodríguez, Anny Karely
author_facet Buendia-Atencio, Cristian
Pieffet, Gilles Paul
Montoya-Vargas, Santiago
Martínez Bernal, Jessica A.
Rangel, Héctor Rafael
Muñoz, Ana Luisa
Losada-Barragán, Monica
Segura, Nidya Alexandra
Torres, Orlando A.
Bello, Felio
Suárez, Alírica Isabel
Rodríguez, Anny Karely
author_sort Buendia-Atencio, Cristian
collection PubMed
description [Image: see text] Dengue and Zika are two mosquito-borne diseases of great impact on public health around the world in tropical and subtropical countries. DENV and ZIKV belong to the Flaviviridae family and the Flavivirus genus. Currently, there are no effective therapeutic agents to treat or prevent these pathologies. The main objective of this work was to evaluate potential inhibitors from active compounds obtained from Marcetia taxifolia by performing inverse molecular docking on ZIKV-NS3-helicase and ZIKV-NS5-RNA polymerase as targets. This computational strategy is based on renormalizing the binding scores of the compounds to these two proteins, allowing a direct comparison of the results across the proteins. The crystallographic structures of the ZIKV-NS3-helicase and ZIKV-NS5-RNA-polymerase proteins share a great similarity with DENV homologous proteins. The P-loop active site of the crystallographic structure of ZIKV-NS3-helicase presents a high percentage of homology with the four dengue serotypes. It was found that most ligands of the active compounds (5,3’-dihydroxy-3,6,7,8,4′-pentamethoxyflavone (5DP); 5-hydroxy-3,6,7,8,3′,4′-hexamethoxyflavone (5HH); myricetin-3-O-rhamnoside (M3OR)) from Marcetia taxifolia had a better affinity for ZIKV-NS3-helicase than for ZIKV-NS5-RNA polymerase, as indicated by the negative multiple active site correction (MASC) score, except for M3RG that showed a higher affinity for ZIKV-NS5-RNA polymerase. On the other hand, the AutoDock Vina scores showed that M3OR had the highest score value (−9.60 kcal/mol) and the highest normalized score (1.13) against ZIKV-NS3-helicase. These results in silico demonstrated that the nonstructural proteins NS3-helicase and NS5-RNA polymerase, which share similar molecular structures between the selected viruses, could become therapeutic targets for some bioactive compounds derived from Marcetia taxifolia.
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spelling pubmed-79482432021-03-12 Inverse Molecular Docking Study of NS3-Helicase and NS5-RNA Polymerase of Zika Virus as Possible Therapeutic Targets of Ligands Derived from Marcetia taxifolia and Its Implications to Dengue Virus Buendia-Atencio, Cristian Pieffet, Gilles Paul Montoya-Vargas, Santiago Martínez Bernal, Jessica A. Rangel, Héctor Rafael Muñoz, Ana Luisa Losada-Barragán, Monica Segura, Nidya Alexandra Torres, Orlando A. Bello, Felio Suárez, Alírica Isabel Rodríguez, Anny Karely ACS Omega [Image: see text] Dengue and Zika are two mosquito-borne diseases of great impact on public health around the world in tropical and subtropical countries. DENV and ZIKV belong to the Flaviviridae family and the Flavivirus genus. Currently, there are no effective therapeutic agents to treat or prevent these pathologies. The main objective of this work was to evaluate potential inhibitors from active compounds obtained from Marcetia taxifolia by performing inverse molecular docking on ZIKV-NS3-helicase and ZIKV-NS5-RNA polymerase as targets. This computational strategy is based on renormalizing the binding scores of the compounds to these two proteins, allowing a direct comparison of the results across the proteins. The crystallographic structures of the ZIKV-NS3-helicase and ZIKV-NS5-RNA-polymerase proteins share a great similarity with DENV homologous proteins. The P-loop active site of the crystallographic structure of ZIKV-NS3-helicase presents a high percentage of homology with the four dengue serotypes. It was found that most ligands of the active compounds (5,3’-dihydroxy-3,6,7,8,4′-pentamethoxyflavone (5DP); 5-hydroxy-3,6,7,8,3′,4′-hexamethoxyflavone (5HH); myricetin-3-O-rhamnoside (M3OR)) from Marcetia taxifolia had a better affinity for ZIKV-NS3-helicase than for ZIKV-NS5-RNA polymerase, as indicated by the negative multiple active site correction (MASC) score, except for M3RG that showed a higher affinity for ZIKV-NS5-RNA polymerase. On the other hand, the AutoDock Vina scores showed that M3OR had the highest score value (−9.60 kcal/mol) and the highest normalized score (1.13) against ZIKV-NS3-helicase. These results in silico demonstrated that the nonstructural proteins NS3-helicase and NS5-RNA polymerase, which share similar molecular structures between the selected viruses, could become therapeutic targets for some bioactive compounds derived from Marcetia taxifolia. American Chemical Society 2021-02-26 /pmc/articles/PMC7948243/ /pubmed/33718704 http://dx.doi.org/10.1021/acsomega.0c04719 Text en © 2021 American Chemical Society This is an open access article published under an ACS AuthorChoice License (https://creativecommons.org/licenses/by-nc-nd/4.0/) , which permits copying and redistribution of the article or any adaptations for non-commercial purposes.
spellingShingle Buendia-Atencio, Cristian
Pieffet, Gilles Paul
Montoya-Vargas, Santiago
Martínez Bernal, Jessica A.
Rangel, Héctor Rafael
Muñoz, Ana Luisa
Losada-Barragán, Monica
Segura, Nidya Alexandra
Torres, Orlando A.
Bello, Felio
Suárez, Alírica Isabel
Rodríguez, Anny Karely
Inverse Molecular Docking Study of NS3-Helicase and NS5-RNA Polymerase of Zika Virus as Possible Therapeutic Targets of Ligands Derived from Marcetia taxifolia and Its Implications to Dengue Virus
title Inverse Molecular Docking Study of NS3-Helicase and NS5-RNA Polymerase of Zika Virus as Possible Therapeutic Targets of Ligands Derived from Marcetia taxifolia and Its Implications to Dengue Virus
title_full Inverse Molecular Docking Study of NS3-Helicase and NS5-RNA Polymerase of Zika Virus as Possible Therapeutic Targets of Ligands Derived from Marcetia taxifolia and Its Implications to Dengue Virus
title_fullStr Inverse Molecular Docking Study of NS3-Helicase and NS5-RNA Polymerase of Zika Virus as Possible Therapeutic Targets of Ligands Derived from Marcetia taxifolia and Its Implications to Dengue Virus
title_full_unstemmed Inverse Molecular Docking Study of NS3-Helicase and NS5-RNA Polymerase of Zika Virus as Possible Therapeutic Targets of Ligands Derived from Marcetia taxifolia and Its Implications to Dengue Virus
title_short Inverse Molecular Docking Study of NS3-Helicase and NS5-RNA Polymerase of Zika Virus as Possible Therapeutic Targets of Ligands Derived from Marcetia taxifolia and Its Implications to Dengue Virus
title_sort inverse molecular docking study of ns3-helicase and ns5-rna polymerase of zika virus as possible therapeutic targets of ligands derived from marcetia taxifolia and its implications to dengue virus
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7948243/
https://www.ncbi.nlm.nih.gov/pubmed/33718704
http://dx.doi.org/10.1021/acsomega.0c04719
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