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Transcriptomic profile of the retinal ganglion cell type J-RGC

ABSTRACT: The goal of this experiment was to identify markers and potential regulators of J-RGC development.

ORGANISM(S): Mus musculus

PROVIDER: GSE102888 | GEO | 2018/04/09

REPOSITORIES: GEO

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Transcriptomic profile of the retinal ganglion cell type J-RGC in Tbr1 KO and control mice

Project description:The goal of this experiment is to identify genes with altered expression in Tbr1 mutant J-RGCs.

2018-04-09 | GSE108789 | GEO

Transcription profiling of chicken whole eye and retinal ganglion cells (RGC) to identify RGC-specific genes

Project description:Identification of genes regulated by ATH5 in a dose-dependent manner.; Identification of retinal ganglion cells (RGC)-specific genes.

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Shtn1, a retinal ganglion cell (RGC) specific gene, regulates RGC neurite development: Insights from an RGC direct somatic cell reprogramming model

Project description:Retinal ganglion cells (RGCs) are the projection neurons of the retina. Proper development of the axon and dendrite of RGCs is the basis for these cells to function as projection neurons to deliver visual information to the brain. The purpose of this study was to investigate the function of a newly identified RGC-specific gene, Shtn1, in neurite development in RGCs. Using IF, we demonstrated that SHTN1 is distinctively expressed in RGCs during the period in which RGCs actively develop and adjust the connections of their neurites with upstream and downstream neurons. Using the iRGC system, we demonstrated that Shtn1 promotes the growth and complexity of neurites, and thus the electrophysiological maturation, of iRGCs. RNA-Seq analyses showed that Shtn1 may also regulate gene expression and neurogenesis in iRGCs. These findings improve our understanding of the molecular machinery governing RGC neurite development, and may help to optimize future RGC regeneration methods.

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Subcellular expression profiling of the growth cones of retinal ganglion cells (RGC)

Project description:Cue-directed axon guidance depends partly on local translation in growth cones. Many mRNA transcripts are known to reside in developing axons yet little is known about their subcellular distribution or, specifically, which transcripts are in growth cones. Laser capture microdissection (LCM) was used to isolate the growth cones of retinal ganglion cell (RGC) axons of two vertebrate species, mouse and Xenopus, coupled with unbiased genome-wide microarray profiling. Localized mRNA from the isolated growth cones of Xenopus laevis and Mus musculus retinal ganglion cells were subjected to microarray analysis

2010-11-23 | E-GEOD-25166 | biostudies-arrayexpress

Subcellular expression profiling of the growth cones of retinal ganglion cells (RGC)

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Global gene expression changes in rat retinal ganglion cells after experimental glaucoma

Project description:Goals of the study: 1. Assess the gene expression profile in rat RGC after experimental IOP elevation to elucidate the molecular mechanisms of RGC death. 2. Identify potentially novel genes and pathways that may contribute to RGC death in glaucoma. Background: Glaucoma is a neurodegenerative disease characterized by the slow, progressive degeneration of RGC. Elevated IOP is the biggest risk factor for developing glaucoma, loss of RGC and optic nerve atrophy. The pathophysiology of glaucomatous neurodegeneration is not fully understood. It is now clear that RGC die by apoptosis in glaucoma. However, what triggers the apoptosis is still unknown. So far, several gene expression studies have been performed on the retina as a whole. These studies revealed up and downregulation of many genes in response to elevated IOP and optic nerve transection. However, the retina is a complex tissue composed of neuronal, glial and vascular cell types. The RGCs only comprise 5% or less of retinal cells. The gene expression profiles from whole retina can not represent of RGC gene expression. In the current study, we sought to investigate the whole genome regulation of the RGCs in glaucoma. The study was carried out in 3 adult male Brown Norway rats with experimental glaucoma. An equal number of RGCs were captured from normal eyes and eyes with elevated IOP. Gene expression in the glaucomatous RGC was compared with that in the fellow RGC by using Affymetrix Gene chip.

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Large-scale screen of novel zebrafish retinal ganglion cell ablation model reveals genetic regulation of retinal regeneration is context specific

Project description:Many genes are known to regulate Müller glia (MG)-dependent retinal regeneration following widespread tissue damage. Conversely, genes controlling regeneration following limited retinal cell loss, per degenerative disease, are undefined. Studying regeneration in the context of selective cell loss is important as evidence suggests injury specifics inform the regenerative process. Here, transgenic zebrafish enabling inducible selective retinal ganglion cell (RGC) ablation were combined with single cell multiomics and CRISPR/Cas9-based knockout methods to screen 101 genes for effects on RGC regeneration. We identified 18 regulators of RGC regeneration- seven knockouts inhibited and eleven promoted RGC regeneration. Surprisingly, 35 of 36 known/implicated regulators of retinal tissue regeneration following widespread damage were not required for RGC regeneration, and seven of these knockouts actually enhanced RGC replacement kinetics, including sox2, olig2, and ascl1a. Mechanistic analyses revealed ascl1a knockout increased the propensity of progenitor cells to produce RGCs; i.e., biased progenitor cell fate. These data demonstrate plasticity in how MG can convert to a stem-like state and context-specificity in how genes function during regeneration. Increased understanding of how disease-relevant cell types can be selectively regenerated will, support the development of disease-tailored regenerative therapeutics.

2024-05-27 | GSE268179 | GEO

Transcriptomic profile of the retinal ganglion cell type J-RGC in Tbr1 KO and control mice

Project description:Transcriptomic profile of the retinal ganglion cell type J-RGC in Tbr1 KO and control mice

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Transcriptomic profiling of retinal cells reveals a subpopulation of microglia/macrophages expressing Rbpms marker of retinal ganglion cells (RGCs) that confound identification of RGCs

Project description:Analysis of retinal ganglion cells (RGCs) by scRNA-seq is emerging as a state-of-the-art method for studying RGC biology and subtypes, as well as for studying the mechanisms of neuroprotection and axon regeneration in the central nervous system (CNS). Rbpms has been established as a pan-RGC marker, and Spp1 has been established as an αRGC type and macrophage marker. Here, we analyzed by scRNA-seq retinal microglia and macrophages, and found Rbpms+ subpopulations of retinal microglia/macrophages, which pose a potential pitfall in scRNA-seq studies involving RGCs. We performed comparative analysis of cellular identity of the presumed RGC cells isolated in recent scRNA-seq studies, and found that Rbpms+ microglia/macrophages confounded identification of RGCs. We also showed using immunohistological analysis that, Rbpms protein localizes to stress granules in a subpopulation of retinal microglia after optic nerve injury, which was further supported by bioinformatics analysis identifying stress granule-associated genes enriched in the Rbpms+ microglia/macrophages. Our findings suggest that the identification of Rbpms+ RGCs by immunostaining after optic nerve injury should exclude cells in which Rbpms signal is restricted to a subcellular granule, and include only those cells in which the Rbpms signal is labeling cell soma diffusely. Finally, we provide solutions for circumventing this potential pitfall of Rbpm-expressing microglia/macrophages in scRNA-seq studies, by including in RGC and αRGC selection criteria other pan-RGC and αRGC markers.

2023-05-23 | GSE228986 | GEO

Regulation of gene expression by Set-beta in rat retinal ganglion cells

Project description:The goal of this experiment was to investigate the molecular mechanism of how Set-beta regulates neurite growth. Set-beta’s subcellular localization is regulated by posttranslational modifications. We found that Set-beta suppresses neurite growth of purified postnatal rat retinal ganglion cell (RGC) primary neurons when it is overexpressed in the nucleus, whereas recruiting Set-beta to cellular membrane by fusing myr-tag to its N-terminus promotes neurite growth. Here, we transfected purified by immunopanning postnatal rat RGC with wild-type Set-beta which localizes to the nucleus, myr-Set-beta which is recruited to cellular membranes, and mCherry control, and analyzed with microarrays Set-beta’s subcellular localization-dependent effects on gene expression. We found that wild-type Set-β regulated expression of significantly more genes than myr-Set-β, consistent with wild-type Set-β’s nuclear localization and previously described roles in regulating transcription. These data reveal potential downstream gene effectors regulating neurite growth, and specific candidate genes could be validated and tested in future experiments.

2014-04-30 | GSE56951 | GEO

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