Parenclitic networks Uncovering new functions in biological data

We introduce a novel method to represent time independent, scalar data sets as complex networks. We apply our method to investigate gene expression in the response to osmotic stress of Arabidopsis thaliana. In the proposed network representation, the most important genes for the plant response turn out to be the nodes with highest centrality in appropriately reconstructed networks. We also performed a target experiment, in which the predicted genes were artificially induced one by one, and the growth of the corresponding phenotypes compared to that of the wild-type. The joint application of the network reconstruction method and of the in vivo experiments allowed identifying 15 previously unknown key genes, and provided models of their mutual relationships. This novel representation extends the use of graph theory to data sets hitherto considered outside of the realm of its application, vastly simplifying the characterization of their underlying structure.

Saved in:
Bibliographic Details
Main Authors: Zanin, M., Medina Alcázar, Joaquín, Vicente Carbajosa, J., Gomez Paez, M., Papo, D., Sousa, P., Menasalvas, E., Boccaletti, S.
Format: journal article biblioteca
Language:English
Published: Nature Research 2014
Online Access:http://hdl.handle.net/20.500.12792/4792
http://hdl.handle.net/10261/294771
Tags: Add Tag
No Tags, Be the first to tag this record!
id dig-inia-es-10261-294771
record_format koha
spelling dig-inia-es-10261-2947712023-02-21T02:45:00Z Parenclitic networks Uncovering new functions in biological data Zanin, M. Medina Alcázar, Joaquín Vicente Carbajosa, J. Gomez Paez, M. Papo, D. Sousa, P. Menasalvas, E. Boccaletti, S. We introduce a novel method to represent time independent, scalar data sets as complex networks. We apply our method to investigate gene expression in the response to osmotic stress of Arabidopsis thaliana. In the proposed network representation, the most important genes for the plant response turn out to be the nodes with highest centrality in appropriately reconstructed networks. We also performed a target experiment, in which the predicted genes were artificially induced one by one, and the growth of the corresponding phenotypes compared to that of the wild-type. The joint application of the network reconstruction method and of the in vivo experiments allowed identifying 15 previously unknown key genes, and provided models of their mutual relationships. This novel representation extends the use of graph theory to data sets hitherto considered outside of the realm of its application, vastly simplifying the characterization of their underlying structure. 2023-02-20T10:41:54Z 2023-02-20T10:41:54Z 2014 journal article Scientific Reports 4: e5112 (2014) http://hdl.handle.net/20.500.12792/4792 http://hdl.handle.net/10261/294771 10.1038/srep05112 2045-2322 en open Nature Research
institution INIA ES
collection DSpace
country España
countrycode ES
component Bibliográfico
access En linea
databasecode dig-inia-es
tag biblioteca
region Europa del Sur
libraryname Biblioteca del INIA España
language English
description We introduce a novel method to represent time independent, scalar data sets as complex networks. We apply our method to investigate gene expression in the response to osmotic stress of Arabidopsis thaliana. In the proposed network representation, the most important genes for the plant response turn out to be the nodes with highest centrality in appropriately reconstructed networks. We also performed a target experiment, in which the predicted genes were artificially induced one by one, and the growth of the corresponding phenotypes compared to that of the wild-type. The joint application of the network reconstruction method and of the in vivo experiments allowed identifying 15 previously unknown key genes, and provided models of their mutual relationships. This novel representation extends the use of graph theory to data sets hitherto considered outside of the realm of its application, vastly simplifying the characterization of their underlying structure.
format journal article
author Zanin, M.
Medina Alcázar, Joaquín
Vicente Carbajosa, J.
Gomez Paez, M.
Papo, D.
Sousa, P.
Menasalvas, E.
Boccaletti, S.
spellingShingle Zanin, M.
Medina Alcázar, Joaquín
Vicente Carbajosa, J.
Gomez Paez, M.
Papo, D.
Sousa, P.
Menasalvas, E.
Boccaletti, S.
Parenclitic networks Uncovering new functions in biological data
author_facet Zanin, M.
Medina Alcázar, Joaquín
Vicente Carbajosa, J.
Gomez Paez, M.
Papo, D.
Sousa, P.
Menasalvas, E.
Boccaletti, S.
author_sort Zanin, M.
title Parenclitic networks Uncovering new functions in biological data
title_short Parenclitic networks Uncovering new functions in biological data
title_full Parenclitic networks Uncovering new functions in biological data
title_fullStr Parenclitic networks Uncovering new functions in biological data
title_full_unstemmed Parenclitic networks Uncovering new functions in biological data
title_sort parenclitic networks uncovering new functions in biological data
publisher Nature Research
publishDate 2014
url http://hdl.handle.net/20.500.12792/4792
http://hdl.handle.net/10261/294771
work_keys_str_mv AT zaninm parencliticnetworksuncoveringnewfunctionsinbiologicaldata
AT medinaalcazarjoaquin parencliticnetworksuncoveringnewfunctionsinbiologicaldata
AT vicentecarbajosaj parencliticnetworksuncoveringnewfunctionsinbiologicaldata
AT gomezpaezm parencliticnetworksuncoveringnewfunctionsinbiologicaldata
AT papod parencliticnetworksuncoveringnewfunctionsinbiologicaldata
AT sousap parencliticnetworksuncoveringnewfunctionsinbiologicaldata
AT menasalvase parencliticnetworksuncoveringnewfunctionsinbiologicaldata
AT boccalettis parencliticnetworksuncoveringnewfunctionsinbiologicaldata
_version_ 1767603656968896512