An Insight into the Anticancer Activities of Ru(II)-Based Metallocompounds Using Docking Methods

Unlike organic molecules, reports on docking of metal complexes are very few; mainly due to the inadequacy of force fields in docking packages to appropriately characterize the metal atoms that consequentially hinder the rational design of metal-based drug complexes. In this study we have made used...

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Main Authors: Peter A. Ajibade, Adebayo A. Adeniyi
Format: Article
Language:English
Published: MDPI AG 2013-09-01
Series:Molecules
Subjects:
Online Access:http://www.mdpi.com/1420-3049/18/9/10829
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spelling doaj-470f2763b7384516bdbe60b56edf1d162020-11-24T23:37:27ZengMDPI AGMolecules1420-30492013-09-01189108291085610.3390/molecules180910829An Insight into the Anticancer Activities of Ru(II)-Based Metallocompounds Using Docking MethodsPeter A. AjibadeAdebayo A. AdeniyiUnlike organic molecules, reports on docking of metal complexes are very few; mainly due to the inadequacy of force fields in docking packages to appropriately characterize the metal atoms that consequentially hinder the rational design of metal-based drug complexes. In this study we have made used Molegro and Autodock to predict the anticancer activities of selected Ru(II) complexes against twelve anticancer targets. We observed that introducing the quantum calculated atomic charges of the optimized geometries significantly improved the docking predictions of these anticancer metallocompounds. Despite several limitations in the docking of metal-based complexes, we obtained results that are highly correlated with the available experimental results. Most of our newly proposed metallocompounds are found theoretically to be better anticancer metallocompounds than all the experimentally proposed RAPTA complexes. An interesting features of a strong interactions of new modeled of metallocompounds against the two base edges of DNA strands suggest similar mechanisms of anticancer activities similar to that of cisplatin. There is possibility of covalent bonding between the metal center of the metallocompounds and the residues of the receptors DNA-1, DNA-2, HDAC7, HIS and RNR. However, the general results suggest the possibility of metals positioning the coordinated ligands in the right position for optimal receptor interactions and synergistic effects, rather than forming covalent bonds.http://www.mdpi.com/1420-3049/18/9/10829ruthenium complexesanticancerdocking methodsreceptors
collection DOAJ
language English
format Article
sources DOAJ
author Peter A. Ajibade
Adebayo A. Adeniyi
spellingShingle Peter A. Ajibade
Adebayo A. Adeniyi
An Insight into the Anticancer Activities of Ru(II)-Based Metallocompounds Using Docking Methods
Molecules
ruthenium complexes
anticancer
docking methods
receptors
author_facet Peter A. Ajibade
Adebayo A. Adeniyi
author_sort Peter A. Ajibade
title An Insight into the Anticancer Activities of Ru(II)-Based Metallocompounds Using Docking Methods
title_short An Insight into the Anticancer Activities of Ru(II)-Based Metallocompounds Using Docking Methods
title_full An Insight into the Anticancer Activities of Ru(II)-Based Metallocompounds Using Docking Methods
title_fullStr An Insight into the Anticancer Activities of Ru(II)-Based Metallocompounds Using Docking Methods
title_full_unstemmed An Insight into the Anticancer Activities of Ru(II)-Based Metallocompounds Using Docking Methods
title_sort insight into the anticancer activities of ru(ii)-based metallocompounds using docking methods
publisher MDPI AG
series Molecules
issn 1420-3049
publishDate 2013-09-01
description Unlike organic molecules, reports on docking of metal complexes are very few; mainly due to the inadequacy of force fields in docking packages to appropriately characterize the metal atoms that consequentially hinder the rational design of metal-based drug complexes. In this study we have made used Molegro and Autodock to predict the anticancer activities of selected Ru(II) complexes against twelve anticancer targets. We observed that introducing the quantum calculated atomic charges of the optimized geometries significantly improved the docking predictions of these anticancer metallocompounds. Despite several limitations in the docking of metal-based complexes, we obtained results that are highly correlated with the available experimental results. Most of our newly proposed metallocompounds are found theoretically to be better anticancer metallocompounds than all the experimentally proposed RAPTA complexes. An interesting features of a strong interactions of new modeled of metallocompounds against the two base edges of DNA strands suggest similar mechanisms of anticancer activities similar to that of cisplatin. There is possibility of covalent bonding between the metal center of the metallocompounds and the residues of the receptors DNA-1, DNA-2, HDAC7, HIS and RNR. However, the general results suggest the possibility of metals positioning the coordinated ligands in the right position for optimal receptor interactions and synergistic effects, rather than forming covalent bonds.
topic ruthenium complexes
anticancer
docking methods
receptors
url http://www.mdpi.com/1420-3049/18/9/10829
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