Designing Inhibitors for the SARS CoV Main Protease as Anti-SARS Drugs

Severe Acute Respiratory Syndrome (SARS) is a serious respiratory illness reported in parts of Asia and Canada. A novel coronavirus (CoV) has been isolated and identified as the cause of the SARS for which there is currently no effective treatment. Given the epidemic, the rapid development of effica...

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Main Authors: Hamza Bari, Arif Ali Awan
Format: Article
Language:English
Published: McGill University 2020-12-01
Series:McGill Journal of Medicine
Subjects:
Online Access:https://mjm.mcgill.ca/article/view/377
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spelling doaj-ad9e8f62b865431c94a5e2edb4a743752021-01-22T03:41:59ZengMcGill UniversityMcGill Journal of Medicine1715-81252020-12-018110.26443/mjm.v8i1.377592Designing Inhibitors for the SARS CoV Main Protease as Anti-SARS DrugsHamza BariArif Ali AwanSevere Acute Respiratory Syndrome (SARS) is a serious respiratory illness reported in parts of Asia and Canada. A novel coronavirus (CoV) has been isolated and identified as the cause of the SARS for which there is currently no effective treatment. Given the epidemic, the rapid development of efficacious antiviral drugs is needed. The key replicative enzyme SARS CoV main protease (Mpro) represents an attractive target for antiviral chemotherapy. Detailed structural study of the substrate binding cavity led to the generation of a 3-D pharmacophore. Subsets of chemical structures were extracted from the commercial databases by using the defined pharmacophore. Compound mapping to the pharmacophore were docked into the substrate-binding cavity and scored. The selected chemicals were assayed against the SARS CoV Mpro for their inhibitory activity. Three of the compounds showed significant inhibition of the SARS CoV Mpro at low micromolar concentration. This study provides potential lead compounds for specific SARS CoV protease inhibitors. It also signifies the utility of computational techniques for rapid discovery of inhibitors for novel targets.https://mjm.mcgill.ca/article/view/377severe acute respiratory syndromesars cov
collection DOAJ
language English
format Article
sources DOAJ
author Hamza Bari
Arif Ali Awan
spellingShingle Hamza Bari
Arif Ali Awan
Designing Inhibitors for the SARS CoV Main Protease as Anti-SARS Drugs
McGill Journal of Medicine
severe acute respiratory syndrome
sars cov
author_facet Hamza Bari
Arif Ali Awan
author_sort Hamza Bari
title Designing Inhibitors for the SARS CoV Main Protease as Anti-SARS Drugs
title_short Designing Inhibitors for the SARS CoV Main Protease as Anti-SARS Drugs
title_full Designing Inhibitors for the SARS CoV Main Protease as Anti-SARS Drugs
title_fullStr Designing Inhibitors for the SARS CoV Main Protease as Anti-SARS Drugs
title_full_unstemmed Designing Inhibitors for the SARS CoV Main Protease as Anti-SARS Drugs
title_sort designing inhibitors for the sars cov main protease as anti-sars drugs
publisher McGill University
series McGill Journal of Medicine
issn 1715-8125
publishDate 2020-12-01
description Severe Acute Respiratory Syndrome (SARS) is a serious respiratory illness reported in parts of Asia and Canada. A novel coronavirus (CoV) has been isolated and identified as the cause of the SARS for which there is currently no effective treatment. Given the epidemic, the rapid development of efficacious antiviral drugs is needed. The key replicative enzyme SARS CoV main protease (Mpro) represents an attractive target for antiviral chemotherapy. Detailed structural study of the substrate binding cavity led to the generation of a 3-D pharmacophore. Subsets of chemical structures were extracted from the commercial databases by using the defined pharmacophore. Compound mapping to the pharmacophore were docked into the substrate-binding cavity and scored. The selected chemicals were assayed against the SARS CoV Mpro for their inhibitory activity. Three of the compounds showed significant inhibition of the SARS CoV Mpro at low micromolar concentration. This study provides potential lead compounds for specific SARS CoV protease inhibitors. It also signifies the utility of computational techniques for rapid discovery of inhibitors for novel targets.
topic severe acute respiratory syndrome
sars cov
url https://mjm.mcgill.ca/article/view/377
work_keys_str_mv AT hamzabari designinginhibitorsforthesarscovmainproteaseasantisarsdrugs
AT arifaliawan designinginhibitorsforthesarscovmainproteaseasantisarsdrugs
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