Comparative Modeling and Electronic Molecular Investigation for Designing Potential Inhibitor for Schizencephaly

Schizencephaly (SCH) is congenital brain malformation whose hallmark is the presence of one or more cleft spanning the pial surface and ependymal of one or both cerebral hemispheres associated with Homeobox protein EMX2. In current study, hybrid approach of comparative modeling and molecular docking...

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Main Authors: Muhammad Aqeel, Zaheen Zakir, Seemab Amjad Fateh Khan, Sajjad Ahmad Larra
Format: Article
Language:English
Published: Bulgarian Academy of Sciences 2014-12-01
Series:International Journal Bioautomation
Subjects:
Online Access:http://www.biomed.bas.bg/bioautomation/2014/vol_18.4/files/18.4_02.pdf
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spelling doaj-94994d5becff494ab30ecfacbbff855f2020-11-25T03:14:07ZengBulgarian Academy of SciencesInternational Journal Bioautomation1314-19021314-23212014-12-01184297304Comparative Modeling and Electronic Molecular Investigation for Designing Potential Inhibitor for SchizencephalyMuhammad Aqeel0Zaheen ZakirSeemab Amjad Fateh KhanSajjad Ahmad LarraInstitute of Biochemistry and Biotechnology, University of Veterinary and Animal Sciences, Lahore, PakistanSchizencephaly (SCH) is congenital brain malformation whose hallmark is the presence of one or more cleft spanning the pial surface and ependymal of one or both cerebral hemispheres associated with Homeobox protein EMX2. In current study, hybrid approach of comparative modeling and molecular docking were followed. An inhibitor (C12H15N3O2S) scrutinized from PubChem showed maximum binding affinity against EMX2. Docking studies revealed that Asn-66, Phe-71, Ala-72, Glu-73, Leu-108, Phe-109, Ala-110, Ser-111, Gln-112, Gln-113 and Tyr-127 are critical residues for receptor-ligand interaction. Comparative modeling approach coupled with docking energies and drug likeness rules illustrated that selected inhibitor protein kinase are potential inhibitor compound for targeting EMX2. This study suggests that selected inhibitor might be potent molecule based on the binding energy values and drug score. Further analysis of this inhibitor could be helpful for exploring the details of binding sites. Overall, findings of current effort may be helpful in designing the novel therapeutic targets to cure SCH.http://www.biomed.bas.bg/bioautomation/2014/vol_18.4/files/18.4_02.pdfSchizencephalyBioinformaticsModelingDockingEMX2Computer-aided drug designing
collection DOAJ
language English
format Article
sources DOAJ
author Muhammad Aqeel
Zaheen Zakir
Seemab Amjad Fateh Khan
Sajjad Ahmad Larra
spellingShingle Muhammad Aqeel
Zaheen Zakir
Seemab Amjad Fateh Khan
Sajjad Ahmad Larra
Comparative Modeling and Electronic Molecular Investigation for Designing Potential Inhibitor for Schizencephaly
International Journal Bioautomation
Schizencephaly
Bioinformatics
Modeling
Docking
EMX2
Computer-aided drug designing
author_facet Muhammad Aqeel
Zaheen Zakir
Seemab Amjad Fateh Khan
Sajjad Ahmad Larra
author_sort Muhammad Aqeel
title Comparative Modeling and Electronic Molecular Investigation for Designing Potential Inhibitor for Schizencephaly
title_short Comparative Modeling and Electronic Molecular Investigation for Designing Potential Inhibitor for Schizencephaly
title_full Comparative Modeling and Electronic Molecular Investigation for Designing Potential Inhibitor for Schizencephaly
title_fullStr Comparative Modeling and Electronic Molecular Investigation for Designing Potential Inhibitor for Schizencephaly
title_full_unstemmed Comparative Modeling and Electronic Molecular Investigation for Designing Potential Inhibitor for Schizencephaly
title_sort comparative modeling and electronic molecular investigation for designing potential inhibitor for schizencephaly
publisher Bulgarian Academy of Sciences
series International Journal Bioautomation
issn 1314-1902
1314-2321
publishDate 2014-12-01
description Schizencephaly (SCH) is congenital brain malformation whose hallmark is the presence of one or more cleft spanning the pial surface and ependymal of one or both cerebral hemispheres associated with Homeobox protein EMX2. In current study, hybrid approach of comparative modeling and molecular docking were followed. An inhibitor (C12H15N3O2S) scrutinized from PubChem showed maximum binding affinity against EMX2. Docking studies revealed that Asn-66, Phe-71, Ala-72, Glu-73, Leu-108, Phe-109, Ala-110, Ser-111, Gln-112, Gln-113 and Tyr-127 are critical residues for receptor-ligand interaction. Comparative modeling approach coupled with docking energies and drug likeness rules illustrated that selected inhibitor protein kinase are potential inhibitor compound for targeting EMX2. This study suggests that selected inhibitor might be potent molecule based on the binding energy values and drug score. Further analysis of this inhibitor could be helpful for exploring the details of binding sites. Overall, findings of current effort may be helpful in designing the novel therapeutic targets to cure SCH.
topic Schizencephaly
Bioinformatics
Modeling
Docking
EMX2
Computer-aided drug designing
url http://www.biomed.bas.bg/bioautomation/2014/vol_18.4/files/18.4_02.pdf
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AT seemabamjadfatehkhan comparativemodelingandelectronicmolecularinvestigationfordesigningpotentialinhibitorforschizencephaly
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