Sox10 Egfp
Sox10 Egfp - Related Videos
11:43
Easy Measurement of Diffusion Coefficients of EGFP-tagged Plasma Membrane Proteins Using k-Space Image Correlation Spectroscopy
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Cited by 37 •
2014
This paper provides a step by step guide to the fluctuation analysis technique k-Space Image Correlation Spectroscopy (kICS) for measuring diffusion coefficients of fluorescently labeled plasma membrane proteins in live mammalian cells.
10:03
Development of Leishmania Species Strains with Constitutive Expression of eGFP
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2023
Here, we describe the methodology used for generating L. panamensis and L. donovani strains expressing the gene for eGFP as a stable integrated transgene using the pLEXSY system. Transfected parasites were cloned by limiting dilution, and clones with the highest fluorescence intensity in both species were selected for further use in drug screening assays.
06:35
Visualization of Craniofacial Development in the sox10: kaede Transgenic Zebrafish Line Using Time-lapse Confocal Microscopy
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Cited by 7 •
2013
Visualization of experimental data has become a key element in presenting results to the scientific community. Generation of live time-lapse recording of growing embryos contributes to better presentation and understanding of complex developmental processes. This protocol is a step-by-step guide to cell labeling via photoconversion of kaede protein in zebrafish.
10:20
Studying Membrane Protein Trafficking in Drosophila Photoreceptor Cells Using eGFP-Tagged Proteins
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Cited by 1 •
2022
Here, non-invasive methods are described for localization of photoreceptor membrane proteins and assessment of retinal degeneration in the Drosophila compound eye using eGFP fluorescence.
10:54
Reliable Identification of Living Dopaminergic Neurons in Midbrain Cultures Using RNA Sequencing and TH-promoter-driven eGFP Expression
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Cited by 9 •
2017
In Parkinson's Disease (PD), Substantia Nigra (SNc) dopaminergic neurons degenerate, leading to motor dysfunction. Here we report a protocol for culturing ventral midbrain neurons from a mouse expressing eGFP driven by a Tyrosine Hydroxylase (TH) promoter sequence, harvesting individual fluorescent neurons from the cultures, and measuring their transcriptome using RNA-seq.
FAQs
Regulatory elements associated with Sox10 activate EGFP expression in cells where Sox10 regulatory activity is present. The resulting green fluorescence provides a visual readout in living specimens, allowing investigators to locate these cells without antibody staining. Changes in signal distribution can therefore reveal when and where Sox10-associated activity occurs during embryonic development.
The fluorescence pattern can change as Sox10-positive populations migrate, differentiate, or become organized within developing tissues. Examining these changes over embryonic development helps researchers relate Sox10 regulatory activity to developmental events rather than treating expression as a fixed cell label. This makes the reporter useful for studying both cell position and changing developmental state.
Sox10 Egfp supports analysis of Sox10-positive populations that include neural crest-derived cells and glial lineages. Researchers can examine where these populations appear, how they are distributed within tissues, and how their patterns change during development. The reporter therefore connects Sox10-associated activity with the organization and progression of important embryonic cell populations.
Sox10 Egfp enables researchers to detect reporter-positive living cells through green fluorescence, whereas antibody staining is not required for this readout. This distinction supports observation of cell locations and population patterns in living developmental material. Fluorescence microscopy can consequently be used to examine Sox10-associated activity while preserving a direct visual view of tissue organization.
Investigators examine Sox10 Egfp specimens with fluorescence microscopy or related imaging methods, identify green-fluorescent populations, and compare their distribution across embryonic development. The observed patterns can then be evaluated in relation to migration, differentiation, and tissue organization. This workflow uses fluorescence as the primary readout for locating and following Sox10-positive populations.
The reporter is particularly useful when researchers need to visualize developmental populations in their living context, especially neural crest-derived cells and glial lineages. It can help reveal how these cells are positioned and organized as embryonic development proceeds. Such observations support studies of migration and differentiation that depend on spatial patterns within developing tissues.
Fluorescence patterns can provide information about the spatial organization of Sox10-positive populations and about changes in Sox10 regulatory activity over time. By examining these patterns during embryonic development, researchers can connect reporter signal with cell migration, differentiation, and tissue arrangement. The resulting observations help describe how these developmental populations change within their tissue environment.