Search results for "FOXG1"

showing 2 items of 2 documents

Apoptotic Activity of MeCP2 Is Enhanced by C-Terminal Truncating Mutations.

2016

Methyl-CpG binding protein 2 (MeCP2) is a widely abundant, multifunctional protein most highly expressed in post-mitotic neurons. Mutations causing Rett syndrome and related neurodevelopmental disorders have been identified along the entire MECP2 locus, but symptoms vary depending on mutation type and location. C-terminal mutations are prevalent, but little is known about the function of the MeCP2 C-terminus. We employ the genetic efficiency of Drosophila to provide evidence that expression of p.Arg294* (more commonly identified as R294X), a human MECP2 E2 mutant allele causing truncation of the C-terminal domains, promotes apoptosis of identified neurons in vivo. We confirm this novel find…

0301 basic medicineMethyl-CpG-Binding Protein 2lcsh:MedicineApoptosisBiochemistryPhosphoserine0302 clinical medicineAnimal CellsDrosophila ProteinsPost-Translational ModificationPhosphorylationlcsh:ScienceNeuronsMotor NeuronsGeneticsMultidisciplinaryCell DeathbiologyDrosophila MelanogasterAnimal ModelsInsectsFOXG1Cell ProcessesCaspasesPhosphorylationDrosophilaBiological CulturesCellular TypesDrosophila melanogasterResearch ArticleGene isoformcongenital hereditary and neonatal diseases and abnormalitiesArthropodaProtein domainMouse ModelsMotor ActivityResearch and Analysis MethodsTransfectionModels BiologicalMECP203 medical and health sciencesModel OrganismsProtein Domainsmental disordersAnimalsHumansMolecular Biology TechniquesImmunohistochemistry TechniquesMolecular BiologyTranscription factorBinding proteinlcsh:ROrganismsBiology and Life SciencesProteinsCell BiologyCell Culturesbiology.organism_classificationInvertebratesHistochemistry and Cytochemistry TechniquesHEK293 Cells030104 developmental biologyCellular NeuroscienceMutationImmunologic TechniquesMutant Proteinslcsh:Q030217 neurology & neurosurgeryNeuroscienceTranscription FactorsPLoS ONE
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Human brain organoids assemble functionally integrated bilateral optic vesicles

2021

During embryogenesis, optic vesicles develop from the diencephalon via a multistep process of organogenesis. Using induced pluripotent stem cell (iPSC)-derived human brain organoids, we attempted to simplify the complexities and demonstrate formation of forebrain-associated bilateral optic vesicles, cellular diversity, and functionality. Around day 30, brain organoids attempt to assemble optic vesicles, which develop progressively as visible structures within 60 days. These optic vesicle-containing brain organoids (OVB-organoids) constitute a developing optic vesicle's cellular components, including primitive corneal epithelial and lens-like cells, retinal pigment epithelia, retinal progeni…

OrganogenesisInduced Pluripotent Stem Cellsretinal pigment epitheliumiPSCsEmbryonic DevelopmentBiology03 medical and health sciencesDiencephalonchemistry.chemical_compoundProsencephalon0302 clinical medicineGeneticsOrganoidmedicineHumansInduced pluripotent stem cell030304 developmental biology0303 health sciencesforebrain organoidsRetinal pigment epitheliumbrain organoidsVesicleprimordial eye fieldsOVB-organoidsCell DifferentiationRetinalCell BiologyOptic vesicleHuman brainCell biologyOrganoidsmedicine.anatomical_structurenervous systemchemistryMolecular MedicineFOXG1; OVB-organoids; brain organoids; forebrain organoids; iPSCs; optic vesicles; primary cilium; primordial eye fields; retinal pigment epitheliumoptic vesiclesFOXG1030217 neurology & neurosurgeryprimary ciliumCell Stem Cell
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