FKBP51 in glutamatergic forebrain neurons promotes early life stress inoculation in female mice via a Tcf4-mediated pathway
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ABSTRACT:
PROVIDER: PRJNA1079744 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| Other | ||||
| SRR28069069_1.fastq.gz | Fastqsanger.gz | |||
| SRR28069069_2.fastq.gz | Fastqsanger.gz | |||
| SRR28069070_1.fastq.gz | Fastqsanger.gz | |||
| SRR28069070_2.fastq.gz | Fastqsanger.gz |
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Project description:Early life stress (ELS) has often been described as a risk factor for developing psychiatric disease. However, moderate exposure to ELS can also lead to stress inoculation and consequently adaptive changes on brain and behavior. Moreover, the FKBP5 gene, encoding the FKBP51 co-chaperone, has been associated with an increased risk for developing psychiatric disorders, specifically in interaction with ELS exposure. However, the underlying mechanisms behind the interaction of FKBP51 and moderate ELS exposure are still not completely understood and particularly data in the female sex are scarce. In this study, the contribution of FKBP51 in glutamatergic forebrain neurons to the long-term consequences of moderate ELS was investigated in both sexes, by using the Fkbp5Nex conditional knockout line. In female wild-type Fkbp5lox/lox mice, ELS exposure led to an anxiolytic phenotype and improved memory performance in a stressful context, however this ELS effect was absent in in Fkbp5Nexx wild-type mice. Interactive effects of FKBP51 in glutamatergic forebrain neurons and moderate ELS exposure in female mice were also reflected on brain volume of different cortical regions, the subiculum and white matter structures. Furthermore, interactive effects were observed for structural and electrophysiological properties of CA1 pyramidal neurons of the dorsal hippocampus. RNA sequencing of the hippocampus revealed the transcription factor 4 (TCF4) as a potential regulator of these interactive effects. Cre-dependent viral overexpression of TCF4 in female Nex-Cre mice led to similar beneficial effects on behavior as the moderate ELS exposure. Taken together, this study shows that FKBP51 in glutamatergic forebrain neurons mediates adaptive effects of moderate ELS exposure on emotional regulation, cognitive behavior and neuronal structure and function. Moreover, it proposes TCF4 as an underlying target that drives the FKBP51-mediated effects of moderate ELS on brain and behavior.
2024-02-26 | GSE256468 | GEO
Project description:Mental health disorders often arise as a combination of environmental and genetic factors. The FKBP5 gene, encoding the GR co-chaperone FKBP51, has been uncovered as a key genetic risk factor for stress related illness. However, the exact cell type and region-specific mechanisms by which FKBP51 contributes to stress resilience or susceptibility processes remain to be unravelled. FKBP51 functionality is known to interact with the environmental risk factors age and sex, but so far data on behavioral, structural and molecular consequences of these interactions are still largely unknown. Here we report the cell type- and sex-specific contribution of FKBP51 to stress susceptibility and resilience mechanisms under the high-risk environmental conditions of an older age, by using two conditional knockout models within glutamatergic (Fkbp5Nex) and GABAergic (Fkbp5Dlx) neurons of the forebrain. Specific manipulation of Fkbp5 in these two cell types led to opposing effects on behavior, brain structure and gene expression profiles in a highly sex-dependent fashion. The results emphasize the role of FKBP51 as a key player in stress-related illness and the need for more targeted and sex-specific treatment strategies.
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Project description:We report the data generated upon knockdown of TCF4 in hiPSC-derived neural progenitor cells and glutamatergic neurons.
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Project description:Mutations in PARK15, which encodes for the F-box protein FBXO7 have been associated with Parkinsonian Pyramidal syndrome, a rare and complex movement disorder with Parkinsonian symptoms, pyramidal tract signs and juvenile onset. Our previous study showed that systemic loss of Fbxo7 in mice causes motor defects and premature death. We have also demonstrated that FBXO7 has a crucial role in neurons as the specific deletion in tyrosine hydroxylase-positive or glutamatergic forebrain neurons leads to late-onset or early-onset motor dysfunction, respectively. In this study, we examined NEXCre; Fbxo7fl/fl mice, in which Fbxo7 was specifically deleted in glutamatergic projection neurons. The effects of FBXO7 deficiency on striatal integrity were investigated with HPLC and histological analyses. NEX-Cre;Fbxo7fl/fl mice revealed an increase in striatal dopamine concentrations, changes in the glutamatergic, GABAergic and dopaminergic pathways, astrogliosis and microgliosis and little or no neuronal loss in the striatum. To determine the effects on the integrity of the synapse, we purified synaptic membranes, subjected them to quantitative mass spectrometry analysis and found alterations in the complement system, endocytosis and exocytosis pathways. These neuropathological changes coincide with alterations in spontaneous home cage behavior. Taken together, our findings suggest that FBXO7 is crucial for corticostriatal projections and the synaptic integrity of the striatum, and consequently for proper motor control.
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Project description:Mutations of TCF4, which encodes a basic helix-loop-helix transcription factor, cause Pitt-Hopkins syndrome (PTHS) via multiple genetic mechanisms. TCF4 is a complex locus expressing multiple transcripts by alternative splicing and use of multiple promoters. We report a three-generation family segregating mild intellectual disability with an apparently balanced chromosomal translocation t(14;18)(q23.3;q21.2) that we characterized as a complex unbalanced karyotype 46,XY,der(14)del(14)(q23.3q23.3)t(14;18)(q23.3;q21.2)del(18)(q21.2q21.2) del(18)(q21.2q21.2)inv(18)(q21.2q21.2),der(18)t(14 ;18)(q23.3;q21.2) disrupting TCF4. Using whole genome sequencing, transcriptome sequencing, qRT-PCR and nCounter analysis, we characterized the breakpoint junctions from derivative chromosomes and gene expression at the TCF4 locus. Our analyses revealed that family members segregating mild intellectual disability with the complex chromosome aberration had normal expression of genes along chromosomes 14 or 18 and no marked changes in expression of genes other than TCF4. Affected individuals had 12-33 fold higher mRNA levels of TCF4 than did unaffected controls or individuals with PTHS. Increased levels of TCF4 transcript variants originating distal to the translocation breakpoint, not the fusion transcript generated by the derivative chromosome, contributed to this increased. Although validation in additional patients is required, our findings suggest that the dysmorphic features and severe intellectual disability characteristic of PTHS is partially rescued by overexpression of short TCF4 transcripts encoding a nuclear localization signal, a transcription activation domain, and the basic helix-loop-helix domain. Examination of TCF4 Isoform expression comparison between mutant and control skin fibroblast tissues
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Project description:Haplo-insufficiency of TCF4 induced by mutations or microdeletion of TCF4 gene causes Pitt-Hopkins Diseases. Recent gene association studies revealed that mutations of TCF4 is significantly associated with schizophrenia. But the role of TCF4 in developing neocortex is not known. The goal of this study is to identify TCF4 itranscriptional regulatory pathways in developing neocortex by analyzing transcriptomes of dorsal telencephalons of TCF4knockout, TCF4Heterozygote and WT littermates and comparing differential expressed genes between these genotypes.
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Project description:Mutations of TCF4, which encodes a basic helix-loop-helix transcription factor, cause Pitt-Hopkins syndrome (PTHS) via multiple genetic mechanisms. TCF4 is a complex locus expressing multiple transcripts by alternative splicing and use of multiple promoters. We report a three-generation family segregating mild intellectual disability with an apparently balanced chromosomal translocation t(14;18)(q23.3;q21.2) that we characterized as a complex unbalanced karyotype 46,XY,der(14)del(14)(q23.3q23.3)t(14;18)(q23.3;q21.2)del(18)(q21.2q21.2) del(18)(q21.2q21.2)inv(18)(q21.2q21.2),der(18)t(14 ;18)(q23.3;q21.2) disrupting TCF4. Using whole genome sequencing, transcriptome sequencing, qRT-PCR and nCounter analysis, we characterized the breakpoint junctions from derivative chromosomes and gene expression at the TCF4 locus. Our analyses revealed that family members segregating mild intellectual disability with the complex chromosome aberration had normal expression of genes along chromosomes 14 or 18 and no marked changes in expression of genes other than TCF4. Affected individuals had 12-33 fold higher mRNA levels of TCF4 than did unaffected controls or individuals with PTHS. Increased levels of TCF4 transcript variants originating distal to the translocation breakpoint, not the fusion transcript generated by the derivative chromosome, contributed to this increased. Although validation in additional patients is required, our findings suggest that the dysmorphic features and severe intellectual disability characteristic of PTHS is partially rescued by overexpression of short TCF4 transcripts encoding a nuclear localization signal, a transcription activation domain, and the basic helix-loop-helix domain.
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