Literature DB >> 8544979

Pyramidal neurons with ectopic dendrites in storage diseases exhibit increased GM2 ganglioside immunoreactivity.

S U Walkley1.   

Abstract

Cortical pyramidal neurons in several types of neuronal storage diseases have been shown by Golgi staining to sprout axon hillock-associated dendritic processes. Based on the relative incidence of this ectopic dendritogenesis, and on quantitative analyses of gangliosides in these same tissues, it has been proposed that abnormal accumulation of a specific metabolic product, GM2 ganglioside, is the pivotal event leading to re-initiation of dendritic sprouting [Siegel D. A. Walkley S.U. (1994) J. Neurochem. 62, 1852-1862]. In the present study, a monoclonal antibody was used to determine the cellular location of this ganglioside within the cerebral cortex of animal models of storage diseases with and without ectopic dendrite growth. Diseases exhibiting ectopic dendritogenesis included inherited and swainsonine-induced (juvenile-onset) alpha-mannosidosis, mucopolysaccharidosis type I, Niemann-Pick disease type C, and GM1 and GM2 gangliosidosis. Conditions lacking ectopic dendrite growth included adult-onset swainsonine-induced alpha-mannosidosis, fucosidosis, neuronal ceroid lipofuscinosis (Batten disease) and normal, mature brain. Immunocytochemical staining for GM2 ganglioside indicated that diseases exhibiting new dendritic sprouting with the exception of GM1 gangliosidosis, exhibited abundant GM2-like immunoreactivity within the cortical pyramidal cell population, whereas diseases without dendritic sprouting had GM2-like immunoreactivity limited to glia and/or to non-pyramidal neurons. Cortical tissues from normal animals at comparable ages and processed by similar procedures exhibited occasional glial cell staining but little or no neuronal labelling. Mechanisms by which normal cortical pyramidal regulate dendritic initiation are poorly understood. However, it is known that this event is developmentally restricted, occurring only during early brain development.(ABSTRACT TRUNCATED AT 250 WORDS)

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Year:  1995        PMID: 8544979     DOI: 10.1016/0306-4522(95)00208-z

Source DB:  PubMed          Journal:  Neuroscience        ISSN: 0306-4522            Impact factor:   3.590


  13 in total

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2.  Metabolic abnormalities in feline Niemann-Pick type C heterozygotes.

Authors:  D E Brown; M A Thrall; S U Walkley; S Wurzelmann; D A Wenger; R W Allison; C A Just
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Authors:  Charles H Vite; Jessica H Bagel; Gary P Swain; Maria Prociuk; Tracey U Sikora; Veronika M Stein; Patricia O'Donnell; Therese Ruane; Sarah Ward; Alexandra Crooks; Su Li; Elizabeth Mauldin; Susan Stellar; Marc De Meulder; Mark L Kao; Daniel S Ory; Cristin Davidson; Marie T Vanier; Steven U Walkley
Journal:  Sci Transl Med       Date:  2015-02-25       Impact factor: 17.956

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Authors:  Chris D Pacheco; Matthew J Elrick; Andrew P Lieberman
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5.  Conditional Niemann-Pick C mice demonstrate cell autonomous Purkinje cell neurodegeneration.

Authors:  Matthew J Elrick; Chris D Pacheco; Ting Yu; Nahid Dadgar; Vikram G Shakkottai; Christopher Ware; Henry L Paulson; Andrew P Lieberman
Journal:  Hum Mol Genet       Date:  2009-12-10       Impact factor: 6.150

Review 6.  The pathogenesis of Niemann-Pick type C disease: a role for autophagy?

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Journal:  Mol Genet Metab       Date:  2007-05-07       Impact factor: 4.797

Review 8.  GM2 ganglioside and pyramidal neuron dendritogenesis.

Authors:  S U Walkley; D A Siegel; K Dobrenis
Journal:  Neurochem Res       Date:  1995-11       Impact factor: 3.996

Review 9.  Secondary lipid accumulation in lysosomal disease.

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10.  Tau normal function influences Niemann-Pick type C disease pathogenesis in mice and modulates autophagy in NPC1-deficient cells.

Authors:  Chris D Pacheco; Mathew J Elrick; Andrew P Lieberman
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