Computational Prediction of Phylogenetically Conserved Sequence Motifs for Five Different Candidate Genes in Type II Diabetic Nephropathy

Background: Computational identification of phylogenetic motifs helps to understand the knowledge about known functional features that includes catalytic site, substrate binding epitopes, and protein-protein interfaces. Furthermore, they are strongly conserved among orthologs, indicating their evolu...

Full description

Bibliographic Details
Main Authors: T Sindhu, S Rajamanikandan, P Srinivasan
Format: Article
Language:English
Published: Tehran University of Medical Sciences 2012-07-01
Series:Iranian Journal of Public Health
Subjects:
Online Access:https://ijph.tums.ac.ir/index.php/ijph/article/view/2542
_version_ 1818907939172253696
author T Sindhu
S Rajamanikandan
P Srinivasan
author_facet T Sindhu
S Rajamanikandan
P Srinivasan
author_sort T Sindhu
collection DOAJ
description Background: Computational identification of phylogenetic motifs helps to understand the knowledge about known functional features that includes catalytic site, substrate binding epitopes, and protein-protein interfaces. Furthermore, they are strongly conserved among orthologs, indicating their evolutionary importance. The study aimed to analyze five candidate genes involved in type II diabetic nephropathy and to predict phylogenetic motifs from their corresponding orthologous protein sequences. Methods: AKR1B1, APOE, ENPP1, ELMO1 and IGFBP1 are the genes that have been identified as an important target for type II diabetic nephropathy through experimental studies. Their corresponding protein sequences, structures, orthologous sequences were retrieved from UniprotKB, PDB, and PHOG database respectively. Multiple sequence alignments were constructed using ClustalW and phylogenetic motifs were identified using MINER. The occurrence of amino acids in the obtained phylogenetic motifs was generated using WebLogo and false positive expectations were calculated against phylogenetic similarity. Results: In total, 17 phylogenetic motifs were identified from the five proteins and the residues such as glycine, leucine, tryptophan, aspartic acid were found in appreciable frequency whereas arginine identified in all the predicted PMs. The result implies that these residues can be important to the functional and structural role of the proteins and calculated false positive expectations implies that they were generally conserved in traditional sense. Conclusion: The prediction of phylogenetic motifs is an accurate method for detecting functionally important conserved residues. The conserved motifs can be used as a potential drug target for type II diabetic nephropathy.
first_indexed 2024-12-19T22:03:05Z
format Article
id doaj.art-b331ce0963fb4178bba5f5d0814e2c26
institution Directory Open Access Journal
issn 2251-6085
2251-6093
language English
last_indexed 2024-12-19T22:03:05Z
publishDate 2012-07-01
publisher Tehran University of Medical Sciences
record_format Article
series Iranian Journal of Public Health
spelling doaj.art-b331ce0963fb4178bba5f5d0814e2c262022-12-21T20:04:06ZengTehran University of Medical SciencesIranian Journal of Public Health2251-60852251-60932012-07-01417Computational Prediction of Phylogenetically Conserved Sequence Motifs for Five Different Candidate Genes in Type II Diabetic NephropathyT Sindhu0S Rajamanikandan1P Srinivasan2 Background: Computational identification of phylogenetic motifs helps to understand the knowledge about known functional features that includes catalytic site, substrate binding epitopes, and protein-protein interfaces. Furthermore, they are strongly conserved among orthologs, indicating their evolutionary importance. The study aimed to analyze five candidate genes involved in type II diabetic nephropathy and to predict phylogenetic motifs from their corresponding orthologous protein sequences. Methods: AKR1B1, APOE, ENPP1, ELMO1 and IGFBP1 are the genes that have been identified as an important target for type II diabetic nephropathy through experimental studies. Their corresponding protein sequences, structures, orthologous sequences were retrieved from UniprotKB, PDB, and PHOG database respectively. Multiple sequence alignments were constructed using ClustalW and phylogenetic motifs were identified using MINER. The occurrence of amino acids in the obtained phylogenetic motifs was generated using WebLogo and false positive expectations were calculated against phylogenetic similarity. Results: In total, 17 phylogenetic motifs were identified from the five proteins and the residues such as glycine, leucine, tryptophan, aspartic acid were found in appreciable frequency whereas arginine identified in all the predicted PMs. The result implies that these residues can be important to the functional and structural role of the proteins and calculated false positive expectations implies that they were generally conserved in traditional sense. Conclusion: The prediction of phylogenetic motifs is an accurate method for detecting functionally important conserved residues. The conserved motifs can be used as a potential drug target for type II diabetic nephropathy.https://ijph.tums.ac.ir/index.php/ijph/article/view/2542Diabetic nephropathyConserved regionsPhylogenetic motifsPHOG1.0MINER
spellingShingle T Sindhu
S Rajamanikandan
P Srinivasan
Computational Prediction of Phylogenetically Conserved Sequence Motifs for Five Different Candidate Genes in Type II Diabetic Nephropathy
Iranian Journal of Public Health
Diabetic nephropathy
Conserved regions
Phylogenetic motifs
PHOG1.0
MINER
title Computational Prediction of Phylogenetically Conserved Sequence Motifs for Five Different Candidate Genes in Type II Diabetic Nephropathy
title_full Computational Prediction of Phylogenetically Conserved Sequence Motifs for Five Different Candidate Genes in Type II Diabetic Nephropathy
title_fullStr Computational Prediction of Phylogenetically Conserved Sequence Motifs for Five Different Candidate Genes in Type II Diabetic Nephropathy
title_full_unstemmed Computational Prediction of Phylogenetically Conserved Sequence Motifs for Five Different Candidate Genes in Type II Diabetic Nephropathy
title_short Computational Prediction of Phylogenetically Conserved Sequence Motifs for Five Different Candidate Genes in Type II Diabetic Nephropathy
title_sort computational prediction of phylogenetically conserved sequence motifs for five different candidate genes in type ii diabetic nephropathy
topic Diabetic nephropathy
Conserved regions
Phylogenetic motifs
PHOG1.0
MINER
url https://ijph.tums.ac.ir/index.php/ijph/article/view/2542
work_keys_str_mv AT tsindhu computationalpredictionofphylogeneticallyconservedsequencemotifsforfivedifferentcandidategenesintypeiidiabeticnephropathy
AT srajamanikandan computationalpredictionofphylogeneticallyconservedsequencemotifsforfivedifferentcandidategenesintypeiidiabeticnephropathy
AT psrinivasan computationalpredictionofphylogeneticallyconservedsequencemotifsforfivedifferentcandidategenesintypeiidiabeticnephropathy