Predicting DNA binding protein-drug interactions based on network similarity

Abstract Background The study of DNA binding protein (DBP)-drug interactions can open a breakthrough for the treatment of genetic diseases and cancers. Currently, network-based methods are widely used for protein-drug interaction prediction, and many hidden relationships can be found through network...

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Published in:BMC Bioinformatics
Main Authors: Wei Wang, Hehe Lv, Yuan Zhao
Format: Article
Language:English
Published: BMC 2020-07-01
Subjects:
Online Access:http://link.springer.com/article/10.1186/s12859-020-03664-6
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author Wei Wang
Hehe Lv
Yuan Zhao
author_facet Wei Wang
Hehe Lv
Yuan Zhao
author_sort Wei Wang
collection DOAJ
container_title BMC Bioinformatics
description Abstract Background The study of DNA binding protein (DBP)-drug interactions can open a breakthrough for the treatment of genetic diseases and cancers. Currently, network-based methods are widely used for protein-drug interaction prediction, and many hidden relationships can be found through network analysis. We proposed a DCA (drug-cluster association) model for predicting DBP-drug interactions. The clusters are some similarities in the drug-binding site trimmers with their physicochemical properties. First, DBPs-drug binding sites are extracted from scPDB database. Second, each binding site is represented as a trimer which is obtained by sliding the window in the binding sites. Third, the trimers are clustered based on the physicochemical properties. Fourth, we build the network by generating the interaction matrix for representing the DCA network. Fifth, three link prediction methods are detected in the network. Finally, the common neighbor (CN) method is selected to predict drug-cluster associations in the DBP-drug network model. Result This network shows that drugs tend to bind to positively charged sites and the binding process is more likely to occur inside the DBPs. The results of the link prediction indicate that the CN method has better prediction performance than the PA and JA methods. The DBP-drug network prediction model is generated by using the CN method which predicted more accurately drug-trimer interactions and DBP-drug interactions. Such as, we found that Erythromycin (ERY) can establish an interaction relationship with HTH-type transcriptional repressor, which is fitted well with silico DBP-drug prediction. Conclusion The drug and protein bindings are local events. The binding of the drug-DBPs binding site represents this local binding event, which helps to understand the mechanism of DBP-drug interactions.
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spelling doaj-art-2039749d484d49e7bdd12406f4e893f92025-08-19T20:45:46ZengBMCBMC Bioinformatics1471-21052020-07-0121111310.1186/s12859-020-03664-6Predicting DNA binding protein-drug interactions based on network similarityWei Wang0Hehe Lv1Yuan Zhao2Department of Computer Science and Technology, College of Computer and Information Engineering, Henan Normal UniversityDepartment of Computer Science and Technology, College of Computer and Information Engineering, Henan Normal UniversityDepartment of Computer Science and Technology, College of Computer and Information Engineering, Henan Normal UniversityAbstract Background The study of DNA binding protein (DBP)-drug interactions can open a breakthrough for the treatment of genetic diseases and cancers. Currently, network-based methods are widely used for protein-drug interaction prediction, and many hidden relationships can be found through network analysis. We proposed a DCA (drug-cluster association) model for predicting DBP-drug interactions. The clusters are some similarities in the drug-binding site trimmers with their physicochemical properties. First, DBPs-drug binding sites are extracted from scPDB database. Second, each binding site is represented as a trimer which is obtained by sliding the window in the binding sites. Third, the trimers are clustered based on the physicochemical properties. Fourth, we build the network by generating the interaction matrix for representing the DCA network. Fifth, three link prediction methods are detected in the network. Finally, the common neighbor (CN) method is selected to predict drug-cluster associations in the DBP-drug network model. Result This network shows that drugs tend to bind to positively charged sites and the binding process is more likely to occur inside the DBPs. The results of the link prediction indicate that the CN method has better prediction performance than the PA and JA methods. The DBP-drug network prediction model is generated by using the CN method which predicted more accurately drug-trimer interactions and DBP-drug interactions. Such as, we found that Erythromycin (ERY) can establish an interaction relationship with HTH-type transcriptional repressor, which is fitted well with silico DBP-drug prediction. Conclusion The drug and protein bindings are local events. The binding of the drug-DBPs binding site represents this local binding event, which helps to understand the mechanism of DBP-drug interactions.http://link.springer.com/article/10.1186/s12859-020-03664-6DNA binding proteinAmino acid trimerClusterNetwork
spellingShingle Wei Wang
Hehe Lv
Yuan Zhao
Predicting DNA binding protein-drug interactions based on network similarity
DNA binding protein
Amino acid trimer
Cluster
Network
title Predicting DNA binding protein-drug interactions based on network similarity
title_full Predicting DNA binding protein-drug interactions based on network similarity
title_fullStr Predicting DNA binding protein-drug interactions based on network similarity
title_full_unstemmed Predicting DNA binding protein-drug interactions based on network similarity
title_short Predicting DNA binding protein-drug interactions based on network similarity
title_sort predicting dna binding protein drug interactions based on network similarity
topic DNA binding protein
Amino acid trimer
Cluster
Network
url http://link.springer.com/article/10.1186/s12859-020-03664-6
work_keys_str_mv AT weiwang predictingdnabindingproteindruginteractionsbasedonnetworksimilarity
AT hehelv predictingdnabindingproteindruginteractionsbasedonnetworksimilarity
AT yuanzhao predictingdnabindingproteindruginteractionsbasedonnetworksimilarity