RegnANN: Reverse Engineering Gene Networks using Artificial Neural Networks.

RegnANN is a novel method for reverse engineering gene networks based on an ensemble of multilayer perceptrons. The algorithm builds a regressor for each gene in the network, estimating its neighborhood independently. The overall network is obtained by joining all the neighborhoods. RegnANN makes no...

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Main Authors: Marco Grimaldi, Roberto Visintainer, Giuseppe Jurman
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2011-01-01
Series:PLoS ONE
Online Access:https://www.ncbi.nlm.nih.gov/pmc/articles/pmid/22216103/pdf/?tool=EBI
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spelling doaj-69fc43ad1ff94d968eead479b26fa5a82021-03-03T20:30:49ZengPublic Library of Science (PLoS)PLoS ONE1932-62032011-01-01612e2864610.1371/journal.pone.0028646RegnANN: Reverse Engineering Gene Networks using Artificial Neural Networks.Marco GrimaldiRoberto VisintainerGiuseppe JurmanRegnANN is a novel method for reverse engineering gene networks based on an ensemble of multilayer perceptrons. The algorithm builds a regressor for each gene in the network, estimating its neighborhood independently. The overall network is obtained by joining all the neighborhoods. RegnANN makes no assumptions about the nature of the relationships between the variables, potentially capturing high-order and non linear dependencies between expression patterns. The evaluation focuses on synthetic data mimicking plausible submodules of larger networks and on biological data consisting of submodules of Escherichia coli. We consider Barabasi and Erdös-Rényi topologies together with two methods for data generation. We verify the effect of factors such as network size and amount of data to the accuracy of the inference algorithm. The accuracy scores obtained with RegnANN is methodically compared with the performance of three reference algorithms: ARACNE, CLR and KELLER. Our evaluation indicates that RegnANN compares favorably with the inference methods tested. The robustness of RegnANN, its ability to discover second order correlations and the agreement between results obtained with this new methods on both synthetic and biological data are promising and they stimulate its application to a wider range of problems.https://www.ncbi.nlm.nih.gov/pmc/articles/pmid/22216103/pdf/?tool=EBI
collection DOAJ
language English
format Article
sources DOAJ
author Marco Grimaldi
Roberto Visintainer
Giuseppe Jurman
spellingShingle Marco Grimaldi
Roberto Visintainer
Giuseppe Jurman
RegnANN: Reverse Engineering Gene Networks using Artificial Neural Networks.
PLoS ONE
author_facet Marco Grimaldi
Roberto Visintainer
Giuseppe Jurman
author_sort Marco Grimaldi
title RegnANN: Reverse Engineering Gene Networks using Artificial Neural Networks.
title_short RegnANN: Reverse Engineering Gene Networks using Artificial Neural Networks.
title_full RegnANN: Reverse Engineering Gene Networks using Artificial Neural Networks.
title_fullStr RegnANN: Reverse Engineering Gene Networks using Artificial Neural Networks.
title_full_unstemmed RegnANN: Reverse Engineering Gene Networks using Artificial Neural Networks.
title_sort regnann: reverse engineering gene networks using artificial neural networks.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2011-01-01
description RegnANN is a novel method for reverse engineering gene networks based on an ensemble of multilayer perceptrons. The algorithm builds a regressor for each gene in the network, estimating its neighborhood independently. The overall network is obtained by joining all the neighborhoods. RegnANN makes no assumptions about the nature of the relationships between the variables, potentially capturing high-order and non linear dependencies between expression patterns. The evaluation focuses on synthetic data mimicking plausible submodules of larger networks and on biological data consisting of submodules of Escherichia coli. We consider Barabasi and Erdös-Rényi topologies together with two methods for data generation. We verify the effect of factors such as network size and amount of data to the accuracy of the inference algorithm. The accuracy scores obtained with RegnANN is methodically compared with the performance of three reference algorithms: ARACNE, CLR and KELLER. Our evaluation indicates that RegnANN compares favorably with the inference methods tested. The robustness of RegnANN, its ability to discover second order correlations and the agreement between results obtained with this new methods on both synthetic and biological data are promising and they stimulate its application to a wider range of problems.
url https://www.ncbi.nlm.nih.gov/pmc/articles/pmid/22216103/pdf/?tool=EBI
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