In silico analyses of CD14 molecule reveal significant evolutionary diversity, potentially associated with speciation and variable immune response in mammals

The cluster differentiation gene (CD14) is a family of monocyte differentiating genes that works in conjunction with lipopolysaccharide binding protein, forming a complex with TLR4 or LY96 to mediate innate immune response to pathogens. In this paper, we used different computational methods to eluci...

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Main Authors: Olanrewaju B. Morenikeji, Bolaji N. Thomas
Format: Article
Language:English
Published: PeerJ Inc. 2019-07-01
Series:PeerJ
Subjects:
Online Access:https://peerj.com/articles/7325.pdf
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spelling doaj-6516b7e4f7c945bcb55d5503963436192020-11-25T02:32:25ZengPeerJ Inc.PeerJ2167-83592019-07-017e732510.7717/peerj.7325In silico analyses of CD14 molecule reveal significant evolutionary diversity, potentially associated with speciation and variable immune response in mammalsOlanrewaju B. MorenikejiBolaji N. ThomasThe cluster differentiation gene (CD14) is a family of monocyte differentiating genes that works in conjunction with lipopolysaccharide binding protein, forming a complex with TLR4 or LY96 to mediate innate immune response to pathogens. In this paper, we used different computational methods to elucidate the evolution of CD14 gene coding region in 14 mammalian species. Our analyses identified leucine-rich repeats as the only significant domain across the CD14 protein of the 14 species, presenting with frequencies ranging from one to four. Importantly, we found signal peptides located at mutational hotspots demonstrating that this gene is conserved across these species. Out of the 10 selected variants analyzed in this study, only six were predicted to possess significant deleterious effect. Our predicted protein interactome showed a significant varying protein–protein interaction with CD14 protein across the species. This may be important for drug target and therapeutic manipulation for the treatment of many diseases. We conclude that these results contribute to our understanding of the CD14 molecular evolution, which underlays varying species response to complex disease traits.https://peerj.com/articles/7325.pdfCD14MammalsSpeciesIn silicoEvolutionImmune response
collection DOAJ
language English
format Article
sources DOAJ
author Olanrewaju B. Morenikeji
Bolaji N. Thomas
spellingShingle Olanrewaju B. Morenikeji
Bolaji N. Thomas
In silico analyses of CD14 molecule reveal significant evolutionary diversity, potentially associated with speciation and variable immune response in mammals
PeerJ
CD14
Mammals
Species
In silico
Evolution
Immune response
author_facet Olanrewaju B. Morenikeji
Bolaji N. Thomas
author_sort Olanrewaju B. Morenikeji
title In silico analyses of CD14 molecule reveal significant evolutionary diversity, potentially associated with speciation and variable immune response in mammals
title_short In silico analyses of CD14 molecule reveal significant evolutionary diversity, potentially associated with speciation and variable immune response in mammals
title_full In silico analyses of CD14 molecule reveal significant evolutionary diversity, potentially associated with speciation and variable immune response in mammals
title_fullStr In silico analyses of CD14 molecule reveal significant evolutionary diversity, potentially associated with speciation and variable immune response in mammals
title_full_unstemmed In silico analyses of CD14 molecule reveal significant evolutionary diversity, potentially associated with speciation and variable immune response in mammals
title_sort in silico analyses of cd14 molecule reveal significant evolutionary diversity, potentially associated with speciation and variable immune response in mammals
publisher PeerJ Inc.
series PeerJ
issn 2167-8359
publishDate 2019-07-01
description The cluster differentiation gene (CD14) is a family of monocyte differentiating genes that works in conjunction with lipopolysaccharide binding protein, forming a complex with TLR4 or LY96 to mediate innate immune response to pathogens. In this paper, we used different computational methods to elucidate the evolution of CD14 gene coding region in 14 mammalian species. Our analyses identified leucine-rich repeats as the only significant domain across the CD14 protein of the 14 species, presenting with frequencies ranging from one to four. Importantly, we found signal peptides located at mutational hotspots demonstrating that this gene is conserved across these species. Out of the 10 selected variants analyzed in this study, only six were predicted to possess significant deleterious effect. Our predicted protein interactome showed a significant varying protein–protein interaction with CD14 protein across the species. This may be important for drug target and therapeutic manipulation for the treatment of many diseases. We conclude that these results contribute to our understanding of the CD14 molecular evolution, which underlays varying species response to complex disease traits.
topic CD14
Mammals
Species
In silico
Evolution
Immune response
url https://peerj.com/articles/7325.pdf
work_keys_str_mv AT olanrewajubmorenikeji insilicoanalysesofcd14moleculerevealsignificantevolutionarydiversitypotentiallyassociatedwithspeciationandvariableimmuneresponseinmammals
AT bolajinthomas insilicoanalysesofcd14moleculerevealsignificantevolutionarydiversitypotentiallyassociatedwithspeciationandvariableimmuneresponseinmammals
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