Literature DB >> 25761918

Chrono-proteomics of human saliva: variations of the salivary proteome during human development.

Irene Messana1, Tiziana Cabras1, Federica Iavarone2, Barbara Manconi1, Liling Huang2, Claudia Martelli2, Alessandra Olianas1, Maria Teresa Sanna1, Elisabetta Pisano3, Monica Sanna1, Morena Arba1, Alfredo D'Alessandro1, Claudia Desiderio4, Alberto Vitali4, Davide Pirolli2, Chiara Tirone5, Alessandra Lio5, Giovanni Vento5, Costantino Romagnoli5, Massimo Cordaro6, Armando Manni6, Patrizia Gallenzi6, Antonella Fiorita7, Emanuele Scarano7, Lea Calò7, Giulio Cesare Passali7, Pasqualina Maria Picciotti7, Gaetano Paludetti7, Vassilios Fanos3, Gavino Faa3, Massimo Castagnola2,4.   

Abstract

An important contribution to the variability of any proteome is given by the time dimension that should be carefully considered to define physiological modifications. To this purpose, whole saliva proteome was investigated in a wide age range. Whole saliva was collected from 17 preterm newborns with a postconceptional age at birth of 178-217 days. In these subjects sample collection was performed serially starting immediately after birth and within about 1 year follow-up, gathering a total of 111 specimens. Furthermore, whole saliva was collected from 182 subjects aged between 0 and 17 years and from 23 adults aged between 27 and 57 years. The naturally occurring intact salivary proteome of the 316 samples was analyzed by low- and high-resolution HPLC-ESI-MS platforms. Proteins peculiar of the adults appeared in saliva with different time courses during human development. Acidic proline-rich proteins encoded by PRH2 locus and glycosylated basic proline-rich proteins encoded by PRB3 locus appeared following 180 days of postconceptional age, followed at 7 months (±2 weeks) by histatin 1, statherin, and P-B peptide. The other histatins and acidic proline-rich proteins encoded by PRH1 locus appeared in whole saliva of babies from 1 to 3 weeks after the normal term of delivery, S-type cystatins appeared at 1 year (±3 months), and basic proline-rich proteins appeared at 4 years (±1 year) of age. All of the proteinases involved in the maturation of salivary proteins were more active in preterm than in at-term newborns, on the basis of the truncated forms detected. The activity of the Fam20C kinase, involved in the phosphorylation of various proteins, started around 180 days of postconceptional age, slowly increased reaching values comparable to adults at about 2 years (±6 months) of age. Instead, MAPK14 involved in the phosphorylation of S100A9 was fully active since birth also in preterm newborns.

Entities:  

Keywords:  S-type cystatins; S100A9 protein; chrono-proteomics; histatin; human; preterm newborns; proline-rich proteins; saliva; statherin

Mesh:

Substances:

Year:  2015        PMID: 25761918     DOI: 10.1021/pr501270x

Source DB:  PubMed          Journal:  J Proteome Res        ISSN: 1535-3893            Impact factor:   4.466


  10 in total

1.  Longitudinal analysis of the salivary metabolome of breast-fed and formula-fed infants over the first year of life.

Authors:  Eric Neyraud; Camille Schwartz; Hélène Brignot; Isabelle Jouanin; Marie Tremblay-Franco; Cécile Canlet; Carole Tournier
Journal:  Metabolomics       Date:  2020-03-11       Impact factor: 4.290

2.  Development of a Multiplexed Liquid Chromatography Multiple-Reaction-Monitoring Mass Spectrometry (LC-MRM/MS) Method for Evaluation of Salivary Proteins as Oral Cancer Biomarkers.

Authors:  Yi-Ting Chen; Hsiao-Wei Chen; Chun-Feng Wu; Lichieh Julie Chu; Wei-Fang Chiang; Chih-Ching Wu; Jau-Song Yu; Cheng-Han Tsai; Kung-Hao Liang; Yu-Sun Chang; Maureen Wu; Wei-Ting Ou Yang
Journal:  Mol Cell Proteomics       Date:  2017-02-24       Impact factor: 5.911

3.  In vitro salivary pellicles from adults and children have different protective effects against erosion.

Authors:  Thiago S Carvalho; Tommy Baumann; Adrian Lussi
Journal:  Clin Oral Investig       Date:  2016-01-22       Impact factor: 3.573

4.  Salivary proteomics of healthy dogs: An in depth catalog.

Authors:  Sheila M F Torres; Eva Furrow; Clarissa P Souza; Jennifer L Granick; Ebbing P de Jong; Timothy J Griffin; Xiong Wang
Journal:  PLoS One       Date:  2018-01-12       Impact factor: 3.240

Review 5.  Salivary Diagnostics in Pediatrics: Applicability, Translatability, and Limitations.

Authors:  Mona Hassaneen; Jill L Maron
Journal:  Front Public Health       Date:  2017-04-20

Review 6.  Childhood Allergy Disease, Early Diagnosis, and the Potential of Salivary Protein Biomarkers.

Authors:  N H M Zainal; R Abas; S F Mohamad Asri
Journal:  Mediators Inflamm       Date:  2021-10-08       Impact factor: 4.711

7.  Candida albicans Shed Msb2 and Host Mucins Affect the Candidacidal Activity of Salivary Hst 5.

Authors:  Sumant Puri; Justin Friedman; Darpan Saraswat; Rohitashw Kumar; Rui Li; Donna Ruszaj; Mira Edgerton
Journal:  Pathogens       Date:  2015-10-30

Review 8.  Saliva proteomics updates in biomedicine.

Authors:  Katerina R Katsani; Dimitra Sakellari
Journal:  J Biol Res (Thessalon)       Date:  2019-12-12       Impact factor: 1.889

Review 9.  Proteomic profiling of bladder cancer for precision medicine in the clinical setting: A review for the busy urologist.

Authors:  Jayoung Kim; Peng Jin; Wei Yang; Wun Jae Kim
Journal:  Investig Clin Urol       Date:  2020-11

Review 10.  Saliva, a bodily fluid with recognized and potential diagnostic applications.

Authors:  Mozhgan Boroumand; Alessandra Olianas; Tiziana Cabras; Barbara Manconi; Daniela Fanni; Gavino Faa; Claudia Desiderio; Irene Messana; Massimo Castagnola
Journal:  J Sep Sci       Date:  2021-08-18       Impact factor: 3.614

  10 in total

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