Proteomics

Dataset Information

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Mass spectrometry analysis of synaptic proteome of adult Fmr1 KO and wild-type mice.


ABSTRACT: Fragile X syndrome (FXS) is the most common monogenetic cause of inherited intellectual disability and autism in humans. One of the well-characterized molecular phenotypes of Fmr1 KO mice, a model of FXS, is increased translation of synaptic proteins. Although this upregulation stabilizes in the adulthood, abnormalities during the critical period of plasticity have long-term effects on circuit formation and synaptic properties. Using high-resolution quantitative proteomics of synaptoneurosomes isolated from the adult, developed brains of Fmr1 KO mice, we show differential abundance of proteins regulating postsynaptic receptor activity of glutamatergic synapse. This work includes proteomic dataset that was acquired and analyzed to quantify changes in the abundance of proteins in synaptoneurosomes (basal state, unstimulated and in vitro NMDA-R stimulated) isolated from Fmr1 KO mice and their wild-type littermates.

INSTRUMENT(S): Q Exactive HF-X

ORGANISM(S): Mus Musculus (mouse)

TISSUE(S): Brain

DISEASE(S): Fragile X Syndrome

SUBMITTER: Remigiusz Serwa  

LAB HEAD: Magdalena Dziembowska

PROVIDER: PXD043700 | Pride | 2024-01-26

REPOSITORIES: pride

Dataset's files

Source:
Action DRS
MDz_MIX16_fr1.raw Raw
MDz_MIX16_fr2.raw Raw
MDz_MIX16_fr3.raw Raw
MDz_MIX16_fr4.raw Raw
MDz_MIX16_fr5.raw Raw
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Publications

Impaired synaptic incorporation of AMPA receptors in a mouse model of fragile X syndrome.

Chojnacka Magdalena M   Beroun Anna A   Magnowska Marta M   Stawikowska Aleksandra A   Cysewski Dominik D   Milek Jacek J   Dziembowska Magdalena M   Kuzniewska Bozena B  

Frontiers in molecular neuroscience 20231109


Fragile X syndrome (FXS) is the most common monogenetic cause of inherited intellectual disability and autism in humans. One of the well-characterized molecular phenotypes of <i>Fmr1</i> KO mice, a model of FXS, is increased translation of synaptic proteins. Although this upregulation stabilizes in adulthood, abnormalities during the critical period of plasticity have long-term effects on circuit formation and synaptic properties. Using high-resolution quantitative proteomics of synaptoneurosome  ...[more]

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