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Major remodeling of brain microvessels during neonatal period in the mouse: A proteomic and transcriptomic study

Preterm infants born before 29 gestation weeks incur major risk of subependymal/intracerebral/intraventricular hemorrhage. In mice, neonate brain endothelial cells are more prone than adult cells to secrete proteases under glutamate challenge, and invalidation of the Serpine 1 gene is accompanied by...

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Published in:Journal of cerebral blood flow and metabolism 2017-02, Vol.37 (2), p.495-513
Main Authors: Porte, Baptiste, Hardouin, Julie, Zerdoumi, Yasmine, Derambure, Céline, Hauchecorne, Michèle, Dupre, Nicolas, Obry, Antoine, Lequerre, Thierry, Bekri, Soumeya, Gonzalez, Bruno, Flaman, Jean M, Marret, Stéphane, Cosette, Pascal, Leroux, Philippe
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cited_by cdi_FETCH-LOGICAL-c468t-71382cdba34f394cd4920466252dff4c78f939e69104ad3bd5bc2b24870d1eb93
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container_title Journal of cerebral blood flow and metabolism
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creator Porte, Baptiste
Hardouin, Julie
Zerdoumi, Yasmine
Derambure, Céline
Hauchecorne, Michèle
Dupre, Nicolas
Obry, Antoine
Lequerre, Thierry
Bekri, Soumeya
Gonzalez, Bruno
Flaman, Jean M
Marret, Stéphane
Cosette, Pascal
Leroux, Philippe
description Preterm infants born before 29 gestation weeks incur major risk of subependymal/intracerebral/intraventricular hemorrhage. In mice, neonate brain endothelial cells are more prone than adult cells to secrete proteases under glutamate challenge, and invalidation of the Serpine 1 gene is accompanied by high brain hemorrhage risk up to five days after birth. We hypothesized that the structural and functional states of microvessels might account for age-dependent vulnerability in mice up to five days after birth and might represent a pertinent paradigm to approach the hemorrhage risk window observed in extreme preterms. Mass spectrometry proteome analyses of forebrain microvessels at days 5, 10 and in adult mice revealed 899 proteins and 36 enriched pathways. Microarray transcriptomic study identified 5873 genes undergoing at least two-fold change between ages and 93 enriched pathways. Both approaches pointed towards extracellular matrix, cell adhesion and junction pathways, indicating delayed microvascular strengthening after P5. Furthermore, glutamate receptors, proteases and their inhibitors exhibited convergent evolutions towards excitatory aminoacid sensitivity and low proteolytic control likely accounting for vascular vulnerability in P5 mice. Thus, age vascular specificities must be considered in future therapeutic interventions in preterms. Data are available on ProteomeXchange (identifier PXD001718) and NCBI Gene-Expression-Omnibus repository (identification GSE67870).
doi_str_mv 10.1177/0271678X16630557
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ispartof Journal of cerebral blood flow and metabolism, 2017-02, Vol.37 (2), p.495-513
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source Sage Journals Online; PubMed Central
subjects Animals
Brain - blood supply
Brain - embryology
Brain - physiology
Cerebral Hemorrhage - etiology
Female
Gene Expression Regulation, Developmental
Life Sciences
Male
Mice - embryology
Mice - genetics
Mice - metabolism
Mice, Inbred C57BL
Microvessels - embryology
Microvessels - physiology
Original
Proteome - analysis
Proteome - genetics
Proteome - metabolism
Proteomics
Transcriptome
Vascular Remodeling
title Major remodeling of brain microvessels during neonatal period in the mouse: A proteomic and transcriptomic study
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