Concomitant prediction of function and fold at the domain level with GO-based profiles

<p>Abstract</p> <p>Predicting the function of newly sequenced proteins is crucial due to the pace at which these raw sequences are being obtained. Almost all resources for predicting protein function assign functional terms to whole chains, and do not distinguish which particular d...

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Main Authors: Lopez Daniel, Pazos Florencio
Format: Article
Language:English
Published: BMC 2013-02-01
Series:BMC Bioinformatics
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spelling doaj-d24a0e4a74c94cba953ceff5c656f87c2020-11-24T20:46:36ZengBMCBMC Bioinformatics1471-21052013-02-0114Suppl 3S1210.1186/1471-2105-14-S3-S12Concomitant prediction of function and fold at the domain level with GO-based profilesLopez DanielPazos Florencio<p>Abstract</p> <p>Predicting the function of newly sequenced proteins is crucial due to the pace at which these raw sequences are being obtained. Almost all resources for predicting protein function assign functional terms to whole chains, and do not distinguish which particular domain is responsible for the allocated function. This is not a limitation of the methodologies themselves but it is due to the fact that in the databases of functional annotations these methods use for transferring functional terms to new proteins, these annotations are done on a whole-chain basis. Nevertheless, domains are the basic evolutionary and often functional units of proteins. In many cases, the domains of a protein chain have distinct molecular functions, independent from each other. For that reason resources with functional annotations at the domain level, as well as methodologies for predicting function for individual domains adapted to these resources are required.</p> <p>We present a methodology for predicting the molecular function of individual domains, based on a previously developed database of functional annotations at the domain level. The approach, which we show outperforms a standard method based on sequence searches in assigning function, concomitantly predicts the structural fold of the domains and can give hints on the functionally important residues associated to the predicted function.</p>
collection DOAJ
language English
format Article
sources DOAJ
author Lopez Daniel
Pazos Florencio
spellingShingle Lopez Daniel
Pazos Florencio
Concomitant prediction of function and fold at the domain level with GO-based profiles
BMC Bioinformatics
author_facet Lopez Daniel
Pazos Florencio
author_sort Lopez Daniel
title Concomitant prediction of function and fold at the domain level with GO-based profiles
title_short Concomitant prediction of function and fold at the domain level with GO-based profiles
title_full Concomitant prediction of function and fold at the domain level with GO-based profiles
title_fullStr Concomitant prediction of function and fold at the domain level with GO-based profiles
title_full_unstemmed Concomitant prediction of function and fold at the domain level with GO-based profiles
title_sort concomitant prediction of function and fold at the domain level with go-based profiles
publisher BMC
series BMC Bioinformatics
issn 1471-2105
publishDate 2013-02-01
description <p>Abstract</p> <p>Predicting the function of newly sequenced proteins is crucial due to the pace at which these raw sequences are being obtained. Almost all resources for predicting protein function assign functional terms to whole chains, and do not distinguish which particular domain is responsible for the allocated function. This is not a limitation of the methodologies themselves but it is due to the fact that in the databases of functional annotations these methods use for transferring functional terms to new proteins, these annotations are done on a whole-chain basis. Nevertheless, domains are the basic evolutionary and often functional units of proteins. In many cases, the domains of a protein chain have distinct molecular functions, independent from each other. For that reason resources with functional annotations at the domain level, as well as methodologies for predicting function for individual domains adapted to these resources are required.</p> <p>We present a methodology for predicting the molecular function of individual domains, based on a previously developed database of functional annotations at the domain level. The approach, which we show outperforms a standard method based on sequence searches in assigning function, concomitantly predicts the structural fold of the domains and can give hints on the functionally important residues associated to the predicted function.</p>
work_keys_str_mv AT lopezdaniel concomitantpredictionoffunctionandfoldatthedomainlevelwithgobasedprofiles
AT pazosflorencio concomitantpredictionoffunctionandfoldatthedomainlevelwithgobasedprofiles
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