A Multilayer Network Approach for Guiding Drug Repositioning in Neglected Diseases

Drug development for neglected diseases has been historically hampered due to lack of market incentives. The advent of public domain resources containing chemical information from high throughput screenings is changing the landscape of drug discovery for these diseases. In this work we took advantag...

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Autores principales: Berenstein, A.J., Magariños, M.P., Chernomoretz, A., Agüero, F.
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Acceso en línea:http://hdl.handle.net/20.500.12110/paper_19352727_v10_n1_p_Berenstein
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spelling todo:paper_19352727_v10_n1_p_Berenstein2023-10-03T16:36:16Z A Multilayer Network Approach for Guiding Drug Repositioning in Neglected Diseases Berenstein, A.J. Magariños, M.P. Chernomoretz, A. Agüero, F. chemical compound peptide deformylase antiparasitic agent Article biological activity drug repositioning genome high throughput screening Kinetoplastida mathematical computing neglected disease nonhuman Plasmodium falciparum protein analysis protein domain sequence analysis Trypanosoma cruzi animal biology drug development drug repositioning human isolation and purification mouse Neglected Diseases procedures Animals Antiparasitic Agents Computational Biology Drug Discovery Drug Repositioning Humans Mice Neglected Diseases Drug development for neglected diseases has been historically hampered due to lack of market incentives. The advent of public domain resources containing chemical information from high throughput screenings is changing the landscape of drug discovery for these diseases. In this work we took advantage of data from extensively studied organisms like human, mouse, E. coli and yeast, among others, to develop a novel integrative network model to prioritize and identify candidate drug targets in neglected pathogen proteomes, and bioactive drug-like molecules. We modeled genomic (proteins) and chemical (bioactive compounds) data as a multilayer weighted network graph that takes advantage of bioactivity data across 221 species, chemical similarities between 1.7 105compounds and several functional relations among 1.67 105proteins. These relations comprised orthology, sharing of protein domains, and shared participation in defined biochemical pathways. We showcase the application of this network graph to the problem of prioritization of new candidate targets, based on the information available in the graph for known compound-target associations. We validated this strategy by performing a cross validation procedure for known mouse and Trypanosoma cruzi targets and showed that our approach outperforms classic alignment-based approaches. Moreover, our model provides additional flexibility as two different network definitions could be considered, finding in both cases qualitatively different but sensible candidate targets. We also showcase the application of the network to suggest targets for orphan compounds that are active against Plasmodium falciparum in high-throughput screens. In this case our approach provided a reduced prioritization list of target proteins for the query molecules and showed the ability to propose new testable hypotheses for each compound. Moreover, we found that some predictions highlighted by our network model were supported by independent experimental validations as found post-facto in the literature. © 2016 Berenstein et al. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_19352727_v10_n1_p_Berenstein
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic chemical compound
peptide deformylase
antiparasitic agent
Article
biological activity
drug repositioning
genome
high throughput screening
Kinetoplastida
mathematical computing
neglected disease
nonhuman
Plasmodium falciparum
protein analysis
protein domain
sequence analysis
Trypanosoma cruzi
animal
biology
drug development
drug repositioning
human
isolation and purification
mouse
Neglected Diseases
procedures
Animals
Antiparasitic Agents
Computational Biology
Drug Discovery
Drug Repositioning
Humans
Mice
Neglected Diseases
spellingShingle chemical compound
peptide deformylase
antiparasitic agent
Article
biological activity
drug repositioning
genome
high throughput screening
Kinetoplastida
mathematical computing
neglected disease
nonhuman
Plasmodium falciparum
protein analysis
protein domain
sequence analysis
Trypanosoma cruzi
animal
biology
drug development
drug repositioning
human
isolation and purification
mouse
Neglected Diseases
procedures
Animals
Antiparasitic Agents
Computational Biology
Drug Discovery
Drug Repositioning
Humans
Mice
Neglected Diseases
Berenstein, A.J.
Magariños, M.P.
Chernomoretz, A.
Agüero, F.
A Multilayer Network Approach for Guiding Drug Repositioning in Neglected Diseases
topic_facet chemical compound
peptide deformylase
antiparasitic agent
Article
biological activity
drug repositioning
genome
high throughput screening
Kinetoplastida
mathematical computing
neglected disease
nonhuman
Plasmodium falciparum
protein analysis
protein domain
sequence analysis
Trypanosoma cruzi
animal
biology
drug development
drug repositioning
human
isolation and purification
mouse
Neglected Diseases
procedures
Animals
Antiparasitic Agents
Computational Biology
Drug Discovery
Drug Repositioning
Humans
Mice
Neglected Diseases
description Drug development for neglected diseases has been historically hampered due to lack of market incentives. The advent of public domain resources containing chemical information from high throughput screenings is changing the landscape of drug discovery for these diseases. In this work we took advantage of data from extensively studied organisms like human, mouse, E. coli and yeast, among others, to develop a novel integrative network model to prioritize and identify candidate drug targets in neglected pathogen proteomes, and bioactive drug-like molecules. We modeled genomic (proteins) and chemical (bioactive compounds) data as a multilayer weighted network graph that takes advantage of bioactivity data across 221 species, chemical similarities between 1.7 105compounds and several functional relations among 1.67 105proteins. These relations comprised orthology, sharing of protein domains, and shared participation in defined biochemical pathways. We showcase the application of this network graph to the problem of prioritization of new candidate targets, based on the information available in the graph for known compound-target associations. We validated this strategy by performing a cross validation procedure for known mouse and Trypanosoma cruzi targets and showed that our approach outperforms classic alignment-based approaches. Moreover, our model provides additional flexibility as two different network definitions could be considered, finding in both cases qualitatively different but sensible candidate targets. We also showcase the application of the network to suggest targets for orphan compounds that are active against Plasmodium falciparum in high-throughput screens. In this case our approach provided a reduced prioritization list of target proteins for the query molecules and showed the ability to propose new testable hypotheses for each compound. Moreover, we found that some predictions highlighted by our network model were supported by independent experimental validations as found post-facto in the literature. © 2016 Berenstein et al.
format JOUR
author Berenstein, A.J.
Magariños, M.P.
Chernomoretz, A.
Agüero, F.
author_facet Berenstein, A.J.
Magariños, M.P.
Chernomoretz, A.
Agüero, F.
author_sort Berenstein, A.J.
title A Multilayer Network Approach for Guiding Drug Repositioning in Neglected Diseases
title_short A Multilayer Network Approach for Guiding Drug Repositioning in Neglected Diseases
title_full A Multilayer Network Approach for Guiding Drug Repositioning in Neglected Diseases
title_fullStr A Multilayer Network Approach for Guiding Drug Repositioning in Neglected Diseases
title_full_unstemmed A Multilayer Network Approach for Guiding Drug Repositioning in Neglected Diseases
title_sort multilayer network approach for guiding drug repositioning in neglected diseases
url http://hdl.handle.net/20.500.12110/paper_19352727_v10_n1_p_Berenstein
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