FOXG1 and DDX5 control PRKAR2B expression via miR200 in a mouse model of atypical Rett-syndrome
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ABSTRACT:
PROVIDER: PRJNA411850 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR6061840.fastq.gz | Fastqsanger.gz | |||
| SRR6061850.fastq.gz | Fastqsanger.gz | |||
| SRR6061841.fastq.gz | Fastqsanger.gz | |||
| SRR6061851.fastq.gz | Fastqsanger.gz | |||
| SRR6061842.fastq.gz | Fastqsanger.gz |
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Project description:Rett syndrome is a complex neurodevelopmental disorder that is mainly caused by mutations in MECP2. However, mutations in FOXG1 cause a less frequent non-congenital form called atypical Rett syndrome. FOXG1 is a key transcription factor implicated in forebrain development, where it maintains the balance between progenitor proliferation and neuronal differentiation. Using quantitative proteomics and genome-wide small RNA sequencing, we identified that FOXG1 interacts with the ATP-dependent RNA helicase, DDX5/p68 and controls the biogenesis of miRNAs. Both, FOXG1 and DDX5 bind to the miR200b/a/429 primary transcript and associate with the microprocessor complex, whereby DDX5 recruits FOXG1 to DROSHA. In vivo and in vitro experiments show that both FOXG1 and DDX5 are necessary for effective maturation of miR200b/a/429. RNAseq analyses of Foxg1-heterozygote hippocampi and miR200b/a/429 overexpressing Neuro-2a cells revealed that the cAMP-dependent protein kinase type II-beta regulatory subunit (PRKAR2B) is a target of miR200 in neural cells. Since it is known that PRKAR2B inhibits postsynaptic functions by attenuating protein kinase A (PKA) activity, increased PRKAR2B levels may contribute to neuronal dysfunctions in FOXG1 Rett syndrome.
2019-09-22 | GSE104169 | GEO
Project description:Rett syndrome is a complex neurodevelopmental disorder that is mainly caused by mutations in MECP2. However, mutations in FOXG1 cause a less frequent non-congenital form called atypical Rett syndrome. FOXG1 is a key transcription factor implicated in forebrain development, where it maintains the balance between progenitor proliferation and neuronal differentiation. Using SILAC based quantitative proteomics and genome-wide small RNA sequencing, we identified that FOXG1 interacts with the ATP-dependent RNA helicase, DDX5/p68 and controls the biogenesis of miRNAs. Both, FOXG1 and DDX5 bind to the miR200b/a/429 primary transcript and associate with the microprocessor complex, whereby DDX5 recruits FOXG1 to DROSHA. In vivo and in vitro experiments show that both FOXG1 and DDX5 are necessary for effective maturation of miR200b/a/429. RNAseq analyses of Foxg1-heterozygote hippocampi and miR200b/a/429 overexpressing Neuro-2a cells revealed that the cAMP-dependent protein kinase type II-beta regulatory subunit (PRKAR2B) is a target of miR200 in neural cells. Since it is known that PRKAR2B inhibits postsynaptic functions by attenuating protein kinase A (PKA) activity, increased PRKAR2B levels may contribute to neuronal dysfunctions in FOXG1 Rett syndrome.
2019-11-11 | PXD007040 | Pride
Project description:Rett syndrome is a complex neurodevelopmental disorder that is mainly caused by mutations in MECP2. However, mutations in FOXG1 cause a less frequent non-congenital form called atypical Rett syndrome. FOXG1 is a key transcription factor implicated in forebrain development, where it maintains the balance between progenitor proliferation and neuronal differentiation. Using quantitative proteomics and genome-wide small RNA sequencing, we identified that FOXG1 interacts with the ATP-dependent RNA helicase, DDX5/p68 and controls the biogenesis of miRNAs. Both, FOXG1 and DDX5 bind to the miR200b/a/429 primary transcript and associate with the microprocessor complex, whereby DDX5 recruits FOXG1 to DROSHA. In vivo and in vitro experiments show that both FOXG1 and DDX5 are necessary for effective maturation of miR200b/a/429. RNAseq analyses of Foxg1-heterozygote hippocampi and miR200b/a/429 overexpressing Neuro-2a cells revealed that the cAMP-dependent protein kinase type II-beta regulatory subunit (PRKAR2B) is a target of miR200 in neural cells. Since it is known that PRKAR2B inhibits postsynaptic functions by attenuating protein kinase A (PKA) activity, increased PRKAR2B levels may contribute to neuronal dysfunctions in FOXG1 Rett syndrome.
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Project description:The forkhead box transcription factor FoxG1 is known to influence forebrain development by determining regional brain specification as well as by regulating expansion of neuronal progenitors and timing of their differentiation. In the adult brain, FoxG1 is expressed in cortex and hippocampus. In the latter it is involved in postnatal neurogenesis in the dentate gyrus by influencing maintenance of the progenitor pool as well as survival and maturation of postmitotic neurons. In humans, haploinsufficiency of FoxG1 causes the congenital version of the Rett syndrome, a progressive neurologic developmental disorder. We use FoxG1 mutant mice to screen for global changes in mRNA expression after partial loss of FoxG1 protein in hippocampi of six week-old mice. Data analysis points to a specific function for FoxG1 in adult hippocampus besides its known involvement in dentate gyrus neurogenesis. We analyse transcriptional changes in the different CA-fields and show that especially the CA-1 field is influenced by lack of FOXG1 protein. Furthermore, data analysis shows altered expression of genes that have also been implicated in the classical form of the Rett syndrome and other autism spectrum disorders.
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Project description:Transcriptome analysis of postmortem brain samples frrom frontal and temporal cortex of Rett Syndrome cases and matched controls. These data identify genes differentially expressed in postmortem brain tissue from Rett Syndrome cases. Total RNA was extracted from 100mg of postmortem brain tissue.
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Project description:Transcriptome analysis of postmortem brain samples frrom frontal and temporal cortex of Rett Syndrome cases and matched controls. These data identify genes differentially expressed in postmortem brain tissue from Rett Syndrome cases.
2015-11-24 | GSE75303 | GEO
Project description:Genome wide DNA methylation profiling of Rett syndrome monozygotic twins. The Illumina Infinium 450k Human DNA methylation Beadchip v1.2 was used to obtain DNA methylation profiles in primary skin fibroblast cells from Rett syndrome monozygotic twins. Bisulphite converted DNA from the 2 samples were hybridised to the Illumina Infinium 450k Human Methylation Beadchip
2012-12-27 | E-GEOD-43141 | biostudies-arrayexpress
Project description:Genome wide DNA methylation profiling of Rett syndrome monozygotic twins. The Illumina Infinium 450k Human DNA methylation Beadchip v1.2 was used to obtain DNA methylation profiles in primary skin fibroblast cells from Rett syndrome monozygotic twins.
2012-12-27 | GSE43141 | GEO
Project description:Transcription profiling of cultured fibroblastic cell lines from Rett syndrome patients. Rett syndrome (symbolized RTT) is caused by mutations in the gene MECP2 located on the X chromosome. We compared cell lines mutated clones versus non mutated.
2009-12-19 | E-MEXP-1956 | biostudies-arrayexpress
Project description:FOXG1 syndrome is a developmental encephalopathy with a high phenotypic variability, which results from FOXG1 mutations. However, the upstream transcriptional regulation of Foxg1 expression remains unclear. Here we report that both deficiency and overexpression of Men1 (protein: menin, a pathogenic gene of MEN1 syndrome) result in autism-like behaviors, including social defects, increased repetitive behaviors and cognition impairments. We employed multifaceted transcriptome analyses and found that Foxg1 signaling is mostly altered in Men1 deficiency mice, through its regulation over Alpha Thalassemia/Mental Retardation Syndrome X-Linked (Atrx) factor. Atrx recruits menin to bind to the transcriptional start region of Foxg1 and mediates the regulation of Foxg1 expression by H3K4me3 modification. Notably, the described changes in menin deficient mice were rescued by over-expression of Foxg1, leading to normalized spine growth and hippocampal synaptic plasticity. Collectively, these results indicate a putative role of menin in maintaining Foxg1 expression, and menin signaling may serve as Foxg1-related encephalopathy therapeutic targets.
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