Predicting the bioactivity of 2-alkoxycarbonylallyl esters as potential antiproliferative agents against pancreatic cancer (MiaPaCa-2) cell lines: GFA-based QSAR and ELM-based models with molecular docking

Abstract Background The number of cancer-related deaths is on the increase, combating this deadly disease has proved difficult owing to resistance and some serious side effects associated with drugs used to combat it. Therefore, scientists continue to probe into the mechanism of action of cancer cel...

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Main Authors: Oluwatoba Emmanuel Oyeneyin, Babatunde Samuel Obadawo, Adesoji Alani Olanrewaju, Taoreed Olakunle Owolabi, Fahidat Adedamola Gbadamosi, Nureni Ipinloju, Helen Omonipo Modamori
Format: Article
Language:English
Published: SpringerOpen 2021-03-01
Series:Journal of Genetic Engineering and Biotechnology
Subjects:
Online Access:https://doi.org/10.1186/s43141-021-00133-2
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spelling doaj-a6e8aa9233ca4bf1b25551fcf76d2a042021-03-11T12:46:57ZengSpringerOpenJournal of Genetic Engineering and Biotechnology2090-59202021-03-0119111510.1186/s43141-021-00133-2Predicting the bioactivity of 2-alkoxycarbonylallyl esters as potential antiproliferative agents against pancreatic cancer (MiaPaCa-2) cell lines: GFA-based QSAR and ELM-based models with molecular dockingOluwatoba Emmanuel Oyeneyin0Babatunde Samuel Obadawo1Adesoji Alani Olanrewaju2Taoreed Olakunle Owolabi3Fahidat Adedamola Gbadamosi4Nureni Ipinloju5Helen Omonipo Modamori6Theoretical and Computational Chemistry Unit, Adekunle Ajasin UniversityTheoretical and Computational Chemistry Unit, Adekunle Ajasin UniversityChemistry and Industrial Chemistry Programmes, Bowen UniversityDepartment of Physics and Electronics, Adekunle Ajasin UniversityDepartment of Chemistry, University of IbadanTheoretical and Computational Chemistry Unit, Adekunle Ajasin UniversityFederal University of AgricultureAbstract Background The number of cancer-related deaths is on the increase, combating this deadly disease has proved difficult owing to resistance and some serious side effects associated with drugs used to combat it. Therefore, scientists continue to probe into the mechanism of action of cancer cells and designing novel drugs that could combat this disease more safely and effectively. Here, we developed a genetic function approximation model to predict the bioactivity of some 2-alkoxyecarbonyl esters and probed into the mode of interaction of these molecules with an epidermal growth factor receptor (3POZ) using the three-dimensional quantitative structure activity relationship (QSAR), extreme learning machine (ELM), and molecular docking techniques. Results The developed QSAR model with predicted (R 2 pred) of 0.756 showed that the model was fit to be validated parameter for a built model and also proved that the developed model could be used in practical situation, R 2 for training set (0.9929) and test set (0.8397) confirmed that the model could successfully predict the activity of new compounds due to its correlation with the experimental activity, the models generated with ELM models showed improved prediction of the activity of the molecules. The lead compounds (22 and 23) had binding energies of −6.327 and −7.232 kcalmol−1 for 22 and 23 respectively and displayed better inhibition at the binding sites of 3POZ when compared with that of the standard drug, chlorambucil (−6.0 kcalmol−1). This could be attributed to the presence of double bonds and the α-ester groups. Conclusion The QSAR and ELM models had good prognostic ability and could be used to predict the bioactivity of novel anti-proliferative drugs.https://doi.org/10.1186/s43141-021-00133-22-alkoxycarbonyl estersComputer-aided drug designGenetic function approximationExtreme learning machineEpidermal growth factor receptorMolecular docking
collection DOAJ
language English
format Article
sources DOAJ
author Oluwatoba Emmanuel Oyeneyin
Babatunde Samuel Obadawo
Adesoji Alani Olanrewaju
Taoreed Olakunle Owolabi
Fahidat Adedamola Gbadamosi
Nureni Ipinloju
Helen Omonipo Modamori
spellingShingle Oluwatoba Emmanuel Oyeneyin
Babatunde Samuel Obadawo
Adesoji Alani Olanrewaju
Taoreed Olakunle Owolabi
Fahidat Adedamola Gbadamosi
Nureni Ipinloju
Helen Omonipo Modamori
Predicting the bioactivity of 2-alkoxycarbonylallyl esters as potential antiproliferative agents against pancreatic cancer (MiaPaCa-2) cell lines: GFA-based QSAR and ELM-based models with molecular docking
Journal of Genetic Engineering and Biotechnology
2-alkoxycarbonyl esters
Computer-aided drug design
Genetic function approximation
Extreme learning machine
Epidermal growth factor receptor
Molecular docking
author_facet Oluwatoba Emmanuel Oyeneyin
Babatunde Samuel Obadawo
Adesoji Alani Olanrewaju
Taoreed Olakunle Owolabi
Fahidat Adedamola Gbadamosi
Nureni Ipinloju
Helen Omonipo Modamori
author_sort Oluwatoba Emmanuel Oyeneyin
title Predicting the bioactivity of 2-alkoxycarbonylallyl esters as potential antiproliferative agents against pancreatic cancer (MiaPaCa-2) cell lines: GFA-based QSAR and ELM-based models with molecular docking
title_short Predicting the bioactivity of 2-alkoxycarbonylallyl esters as potential antiproliferative agents against pancreatic cancer (MiaPaCa-2) cell lines: GFA-based QSAR and ELM-based models with molecular docking
title_full Predicting the bioactivity of 2-alkoxycarbonylallyl esters as potential antiproliferative agents against pancreatic cancer (MiaPaCa-2) cell lines: GFA-based QSAR and ELM-based models with molecular docking
title_fullStr Predicting the bioactivity of 2-alkoxycarbonylallyl esters as potential antiproliferative agents against pancreatic cancer (MiaPaCa-2) cell lines: GFA-based QSAR and ELM-based models with molecular docking
title_full_unstemmed Predicting the bioactivity of 2-alkoxycarbonylallyl esters as potential antiproliferative agents against pancreatic cancer (MiaPaCa-2) cell lines: GFA-based QSAR and ELM-based models with molecular docking
title_sort predicting the bioactivity of 2-alkoxycarbonylallyl esters as potential antiproliferative agents against pancreatic cancer (miapaca-2) cell lines: gfa-based qsar and elm-based models with molecular docking
publisher SpringerOpen
series Journal of Genetic Engineering and Biotechnology
issn 2090-5920
publishDate 2021-03-01
description Abstract Background The number of cancer-related deaths is on the increase, combating this deadly disease has proved difficult owing to resistance and some serious side effects associated with drugs used to combat it. Therefore, scientists continue to probe into the mechanism of action of cancer cells and designing novel drugs that could combat this disease more safely and effectively. Here, we developed a genetic function approximation model to predict the bioactivity of some 2-alkoxyecarbonyl esters and probed into the mode of interaction of these molecules with an epidermal growth factor receptor (3POZ) using the three-dimensional quantitative structure activity relationship (QSAR), extreme learning machine (ELM), and molecular docking techniques. Results The developed QSAR model with predicted (R 2 pred) of 0.756 showed that the model was fit to be validated parameter for a built model and also proved that the developed model could be used in practical situation, R 2 for training set (0.9929) and test set (0.8397) confirmed that the model could successfully predict the activity of new compounds due to its correlation with the experimental activity, the models generated with ELM models showed improved prediction of the activity of the molecules. The lead compounds (22 and 23) had binding energies of −6.327 and −7.232 kcalmol−1 for 22 and 23 respectively and displayed better inhibition at the binding sites of 3POZ when compared with that of the standard drug, chlorambucil (−6.0 kcalmol−1). This could be attributed to the presence of double bonds and the α-ester groups. Conclusion The QSAR and ELM models had good prognostic ability and could be used to predict the bioactivity of novel anti-proliferative drugs.
topic 2-alkoxycarbonyl esters
Computer-aided drug design
Genetic function approximation
Extreme learning machine
Epidermal growth factor receptor
Molecular docking
url https://doi.org/10.1186/s43141-021-00133-2
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