Gene expression analysis of nuclear factor I-A deficient mice indicates delayed brain maturation.

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Gene expression analysis of nuclear factor I-A deficient mice indicates delayed brain maturation. / Wong, Yong Wee; Schulze, Christian; Streichert, Thomas; Gronostajski, Richard M; Schachner, Melitta; Tilling, Thomas.

In: GENOME BIOL, Vol. 8, No. 5, 5, 2007, p. 72.

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Wong, YW, Schulze, C, Streichert, T, Gronostajski, RM, Schachner, M & Tilling, T 2007, 'Gene expression analysis of nuclear factor I-A deficient mice indicates delayed brain maturation.', GENOME BIOL, vol. 8, no. 5, 5, pp. 72. https://doi.org/10.1186/gb-2007-8-5-r72

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@article{bf89d773505d49d09e78f7d49a92269a,
title = "Gene expression analysis of nuclear factor I-A deficient mice indicates delayed brain maturation.",
abstract = "BACKGROUND: Nuclear factor I-A (NFI-A), a phylogenetically conserved transcription/replication protein, plays a crucial role in mouse brain development. Previous studies have shown that disruption of the Nfia gene in mice leads to perinatal lethality, corpus callosum agenesis, and hydrocephalus. RESULTS: To identify potential NFI-A target genes involved in the observed tissue malformations, we analyzed gene expression in brains from Nfia-/- and Nfia+/+ littermate mice at the mRNA level using oligonucleotide microarrays. In young postnatal animals (postnatal day 16), 356 genes were identified as being differentially regulated, whereas at the late embryonic stage (embryonic day 18) only five dysregulated genes were found. An in silico analysis identified phylogenetically conserved NFI binding sites in at least 70 of the differentially regulated genes. Moreover, assignment of gene function showed that marker genes for immature neural cells and neural precursors were expressed at elevated levels in young postnatal Nfia-/- mice. In contrast, marker genes for differentiated neural cells were downregulated at this stage. In particular, genes relevant for oligodendrocyte differentiation were affected. CONCLUSION: Our findings suggest that brain development, especially oligodendrocyte maturation, is delayed in Nfia-/- mice during the early postnatal period, which at least partly accounts for their phenotype. The identification of potential NFI-A target genes in our study should help to elucidate NFI-A dependent transcriptional pathways and contribute to enhanced understanding of this period of brain formation, especially with regard to the function of NFI-A.",
author = "Wong, {Yong Wee} and Christian Schulze and Thomas Streichert and Gronostajski, {Richard M} and Melitta Schachner and Thomas Tilling",
year = "2007",
doi = "10.1186/gb-2007-8-5-r72",
language = "Deutsch",
volume = "8",
pages = "72",
journal = "GENOME BIOL",
issn = "1474-760X",
number = "5",

}

RIS

TY - JOUR

T1 - Gene expression analysis of nuclear factor I-A deficient mice indicates delayed brain maturation.

AU - Wong, Yong Wee

AU - Schulze, Christian

AU - Streichert, Thomas

AU - Gronostajski, Richard M

AU - Schachner, Melitta

AU - Tilling, Thomas

PY - 2007

Y1 - 2007

N2 - BACKGROUND: Nuclear factor I-A (NFI-A), a phylogenetically conserved transcription/replication protein, plays a crucial role in mouse brain development. Previous studies have shown that disruption of the Nfia gene in mice leads to perinatal lethality, corpus callosum agenesis, and hydrocephalus. RESULTS: To identify potential NFI-A target genes involved in the observed tissue malformations, we analyzed gene expression in brains from Nfia-/- and Nfia+/+ littermate mice at the mRNA level using oligonucleotide microarrays. In young postnatal animals (postnatal day 16), 356 genes were identified as being differentially regulated, whereas at the late embryonic stage (embryonic day 18) only five dysregulated genes were found. An in silico analysis identified phylogenetically conserved NFI binding sites in at least 70 of the differentially regulated genes. Moreover, assignment of gene function showed that marker genes for immature neural cells and neural precursors were expressed at elevated levels in young postnatal Nfia-/- mice. In contrast, marker genes for differentiated neural cells were downregulated at this stage. In particular, genes relevant for oligodendrocyte differentiation were affected. CONCLUSION: Our findings suggest that brain development, especially oligodendrocyte maturation, is delayed in Nfia-/- mice during the early postnatal period, which at least partly accounts for their phenotype. The identification of potential NFI-A target genes in our study should help to elucidate NFI-A dependent transcriptional pathways and contribute to enhanced understanding of this period of brain formation, especially with regard to the function of NFI-A.

AB - BACKGROUND: Nuclear factor I-A (NFI-A), a phylogenetically conserved transcription/replication protein, plays a crucial role in mouse brain development. Previous studies have shown that disruption of the Nfia gene in mice leads to perinatal lethality, corpus callosum agenesis, and hydrocephalus. RESULTS: To identify potential NFI-A target genes involved in the observed tissue malformations, we analyzed gene expression in brains from Nfia-/- and Nfia+/+ littermate mice at the mRNA level using oligonucleotide microarrays. In young postnatal animals (postnatal day 16), 356 genes were identified as being differentially regulated, whereas at the late embryonic stage (embryonic day 18) only five dysregulated genes were found. An in silico analysis identified phylogenetically conserved NFI binding sites in at least 70 of the differentially regulated genes. Moreover, assignment of gene function showed that marker genes for immature neural cells and neural precursors were expressed at elevated levels in young postnatal Nfia-/- mice. In contrast, marker genes for differentiated neural cells were downregulated at this stage. In particular, genes relevant for oligodendrocyte differentiation were affected. CONCLUSION: Our findings suggest that brain development, especially oligodendrocyte maturation, is delayed in Nfia-/- mice during the early postnatal period, which at least partly accounts for their phenotype. The identification of potential NFI-A target genes in our study should help to elucidate NFI-A dependent transcriptional pathways and contribute to enhanced understanding of this period of brain formation, especially with regard to the function of NFI-A.

U2 - 10.1186/gb-2007-8-5-r72

DO - 10.1186/gb-2007-8-5-r72

M3 - SCORING: Zeitschriftenaufsatz

VL - 8

SP - 72

JO - GENOME BIOL

JF - GENOME BIOL

SN - 1474-760X

IS - 5

M1 - 5

ER -