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Distribution of glycinergic neurons in the brain of glycine transporter-2 Tg(glyt2:gfp) transgenic adult zebrafish:Relation with brain-spinal descending systems
Authors
Adrio
Ali
+96 more
Allain
Aprison
Aprison
Aragón
Becker
Berki
Bowery
Brodin
Buchanan
Campistron
Castro
Castro
Clemente
Curtis
Dale
Edds-Walton
Edds-Walton
Filippi
Finger
Guastella
Higashijima
Higashijima
Higashijima
Holstege
Hossaini
Hunter
Imboden
Johnson
Kaslin
Kimmel
Kinkhabwala
Koyama
Kuscha
Landwehr
Lannoo
Lee
Lee
Lee
Legendre
Liao
Lieberoth
Liu
Liu
Ma
McCormick
McCormick
McLean
Meng
Metcalfe
Moly
Mueller
Mueller
Mueller
Nakayama
Parsons
Pierce
Pourcho
Poyatos
Rampon
Redecker
Reichenberger
Reichenberger
Roberts
Rovsing
Saint Marie
Sassa
Sato
Seitanidou
Smith
Tanaka
Tanaka
Triller
Triller
Uematsu
Valle-Maroto
Van den Pol
Vatine
Villar-Cerviño
Villar-Cerviño
Villar-Cerviño
Walberg
Wannier
Wenthold
Wester
Westerfield
Wullimann
Wullimann
Xue
Yamamoto
Yamamoto
Yang
Young
Yáñez
Zafra
Zafra
Zeilhofer
Publication date
1 February 2013
Publisher
'Wiley'
Doi
Abstract
We used a Tg(glyt2:gfp) transgenic zebrafish expressing the green fluorescent protein (GFP) under control of the glycine transporter 2 (GLYT2) regulatory sequences to study for the first time the glycinergic neurons in the brain of an adult teleost. We also performed in situ hybridization using a GLYT2 probe and glycine immunohistochemistry. This study was combined with biocytin tract tracing from the spinal cord to reveal descending glycinergic pathways. A few groups of GFP-positive/GLYT2 negative cells were observed in the midbrain and forebrain, including numerous pinealocytes. Conversely, a small nucleus of the midbrain tegmentum, was GLYT2 positive but GFP negative. Most of the GFP-positive and GLYT2-positive neurons were observed in the rhombencephalon and spinal cord, and a proportion of these cells showed double GLYT2/GFP labeling. In the hindbrain, GFP/GLYT2-positive populations were observed in the medial octavolateral nucleus, the secondary, magnocellular and descending octaval nuclei, the viscerosensory lobes and reticular populations distributed from trigeminal to vagal levels. No glycinergic cells were observed in the cerebellum. Tract tracing revealed three conspicuous pairs of GFP/GLYT2-positive reticular neurons projecting to the spinal cord. In the spinal cord, GFP/GLYT2-positive cells were observed in the dorsal and ventral horns. GFP-positive fibers were observed from the olfactory bulbs to the spinal cord, although its density varied among regions. The Mauthner neurons received very rich GFP-positive innervation, mainly around the axon cap. Comparison of the zebrafish glycinergic system with those of other adult vertebrates reveals shared patterns but also divergent traits in the evolution of this system. J. Comp. Neurol., 2012. © 2012 Wiley Periodicals, Inc
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info:doi/10.1002%2Fcne.23179
Last time updated on 25/03/2021