FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2083672927> ?p ?o ?g. }

• W2083672927 endingPage "19" @default.
• W2083672927 startingPage "1" @default.
• W2083672927 abstract "We evaluated the shapes, numbers, and spatial distribution of astrocytes within the glial lamina, an astrocyte-rich region at the junction of the retina and optic nerve. A primary aim was to determine how the population of astrocytes, collectively, partitions the axonal space in this region. Astrocyte processes labeled with glial fibrillary acidic protein (GFAP) compartmentalize ganglion cell axons into bundles, forming “glial tubes,” and giving the glial architecture of the optic nerve head in transverse section a honeycomb appearance. The shapes of individual astrocytes were studied by using transgenic mice that express enhanced green fluorescent protein in isolated astrocytes (hGFAPpr-EGFP). Within the glial lamina the astrocytes were transverse in orientation, with thick, smooth primary processes emanating from a cytoplasmic expansion of the soma. Spaces between the processes of neighboring astrocytes were spatially aligned, to form the apertures through which the bundles of optic axons pass. The processes of individual astrocytes were far-reaching—they could span most of the width of the nerve—and overlapped the anatomical domains of other near and distant astrocytes. Thus, astrocytes in the glial lamina do not tile: each astrocyte participates in ensheathing approximately one-quarter of all of the axon bundles in the nerve, and each glial tube contains the processes of about nine astrocytes. This raises the mechanistic question of how, in glaucoma or other cases of nerve damage, the glial response can be confined to a circumscribed region where damage to axons has occurred. J. Comp. Neurol. 516:1–19, 2009. © 2009 Wiley-Liss, Inc." @default.
• W2083672927 created "2016-06-24" @default.
• W2083672927 creator A5008167322 @default.
• W2083672927 creator A5040994118 @default.
• W2083672927 creator A5045704238 @default.
• W2083672927 creator A5060233023 @default.
• W2083672927 date "2009-09-01" @default.
• W2083672927 modified "2023-10-17" @default.
• W2083672927 title "The morphology and spatial arrangement of astrocytes in the optic nerve head of the mouse" @default.
• W2083672927 cites W1526030258 @default.
• W2083672927 cites W1535641516 @default.
• W2083672927 cites W1547758273 @default.
• W2083672927 cites W1553218248 @default.
• W2083672927 cites W1904875888 @default.
• W2083672927 cites W1969305530 @default.
• W2083672927 cites W1969824248 @default.
• W2083672927 cites W1975250591 @default.
• W2083672927 cites W1975372045 @default.
• W2083672927 cites W1976544104 @default.
• W2083672927 cites W1979099601 @default.
• W2083672927 cites W1982469497 @default.
• W2083672927 cites W1983080207 @default.
• W2083672927 cites W1983422848 @default.
• W2083672927 cites W1983602196 @default.
• W2083672927 cites W1983712592 @default.
• W2083672927 cites W1984401984 @default.
• W2083672927 cites W1990216374 @default.
• W2083672927 cites W1993918206 @default.
• W2083672927 cites W1995192089 @default.
• W2083672927 cites W1995836856 @default.
• W2083672927 cites W1997432783 @default.
• W2083672927 cites W2000119650 @default.
• W2083672927 cites W2000865365 @default.
• W2083672927 cites W2005584774 @default.
• W2083672927 cites W2007329904 @default.
• W2083672927 cites W2009735946 @default.
• W2083672927 cites W2011648464 @default.
• W2083672927 cites W2019885109 @default.
• W2083672927 cites W2023636899 @default.
• W2083672927 cites W2027759472 @default.
• W2083672927 cites W2031611126 @default.
• W2083672927 cites W2032730787 @default.
• W2083672927 cites W2035339623 @default.
• W2083672927 cites W2047675371 @default.
• W2083672927 cites W2049862190 @default.
• W2083672927 cites W2051381362 @default.
• W2083672927 cites W2051565305 @default.
• W2083672927 cites W2052086914 @default.
• W2083672927 cites W2055741851 @default.
• W2083672927 cites W2056251281 @default.
• W2083672927 cites W2056608087 @default.
• W2083672927 cites W2056910228 @default.
• W2083672927 cites W2057226590 @default.
• W2083672927 cites W2060319077 @default.
• W2083672927 cites W2061556393 @default.
• W2083672927 cites W2065142041 @default.
• W2083672927 cites W2066153615 @default.
• W2083672927 cites W2069512783 @default.
• W2083672927 cites W2070169336 @default.
• W2083672927 cites W2070357113 @default.
• W2083672927 cites W2072560781 @default.
• W2083672927 cites W2073698327 @default.
• W2083672927 cites W2079377588 @default.
• W2083672927 cites W2085213635 @default.
• W2083672927 cites W2087942413 @default.
• W2083672927 cites W2089451358 @default.
• W2083672927 cites W2091110685 @default.
• W2083672927 cites W2091778411 @default.
• W2083672927 cites W2091850201 @default.
• W2083672927 cites W2092674687 @default.
• W2083672927 cites W2093026922 @default.
• W2083672927 cites W2094240884 @default.
• W2083672927 cites W2098287644 @default.
• W2083672927 cites W2104968232 @default.
• W2083672927 cites W2117088742 @default.
• W2083672927 cites W2118917448 @default.
• W2083672927 cites W2123371228 @default.
• W2083672927 cites W2123598898 @default.
• W2083672927 cites W2124658196 @default.
• W2083672927 cites W2126497605 @default.
• W2083672927 cites W2127810309 @default.
• W2083672927 cites W2129567809 @default.
• W2083672927 cites W2137577833 @default.
• W2083672927 cites W2143000970 @default.
• W2083672927 cites W2148981717 @default.
• W2083672927 cites W2152457454 @default.
• W2083672927 cites W2154439602 @default.
• W2083672927 cites W2157892812 @default.
• W2083672927 cites W2160935383 @default.
• W2083672927 cites W2161117320 @default.
• W2083672927 cites W2163430558 @default.
• W2083672927 cites W2253426696 @default.
• W2083672927 cites W226713855 @default.
• W2083672927 cites W2505139224 @default.
• W2083672927 cites W4242731554 @default.
• W2083672927 cites W4246878943 @default.
• W2083672927 cites W4297755600 @default.
• W2083672927 doi "https://doi.org/10.1002/cne.22058" @default.

• next