Developmentally-regulated lectin binding in the embryonic mouse telencephalon
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Cell Surface N-Glycans Influence Electrophysiological Properties and Fate Potential of Neural Stem Cells
2018, Stem Cell ReportsCitation Excerpt :Domains of glycosylated cell surface molecules generate surface undulations to increase surface area (Zhao et al., 2002), create structures extending up to 200 nm from the cell surface to make “thickened” membrane structures (Paszek et al., 2014), and influence the protein makeup of the plasma membrane (Nabi et al., 2015). Glycosylation is critical for normal nervous system development (Haltiwanger and Lowe, 2004), and changes in glycosylation patterns during cortical brain development correlate with developmental periods of increased neuron or astrocyte production (Flaris et al., 1995; Ishii et al., 2007). Treatment of NSPCs with agents that modify cell surface carbohydrates alters their behavior in DEP (Nourse et al., 2014), leading to the hypothesis that glycosylation may impact membrane capacitance and the fate of NSPCs.
Lectin panning method: The prospective isolation of mouse neural progenitor cells by the attachment of cell surface N-glycans to Phaseolus vulgaris erythroagglutinating lectin-coated dishes
2008, NeuroscienceCitation Excerpt :However, the number of cells isolated using WGA was smaller than that isolated using E-PHA and these cells detached from WGA-coated well at day 1. This result is inconsistent with the results of previous studies that indicated a stronger WGA binding to the neurogenic area at E11 brain cells in comparison to that of E-PHA (Flaris et al., 1995). A plausible explanation of the weak cell binding to WGA-coated well observed in the current study is the ineffective coating by WGA, as verified by the krypton fluorescence dye that binds to proteins with basic and hydrophobic amino acid residues.
Cholera toxin binds to differentiating neurons in the developing murine basal ganglia
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