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Local and target-derived brain-derived neurotrophic factor exert opposing effects on the dendritic arborization of retinal ganglion cells in vivo. , Lom B ., J Neurosci. September 1, 2002; 22 (17): 7639-49.
Topographic mapping in dorsoventral axis of the Xenopus retinotectal system depends on signaling through ephrin-B ligands. , Mann F., Neuron. August 1, 2002; 35 (3): 461-73.
GABA and development of the Xenopus optic projection. , Ferguson SC., J Neurobiol. June 15, 2002; 51 (4): 272-84.
Co-ordinating retinal histogenesis: early cell cycle exit enhances early cell fate determination in the Xenopus retina. , Ohnuma S ., Development. May 1, 2002; 129 (10): 2435-46.
The secreted glycoprotein Noelin-1 promotes neurogenesis in Xenopus. , Moreno TA., Dev Biol. December 15, 2001; 240 (2): 340-60.
Receptor protein tyrosine phosphatases regulate retinal ganglion cell axon outgrowth in the developing Xenopus visual system. , Johnson KG., J Neurobiol. November 5, 2001; 49 (2): 99-117.
Notch signaling can inhibit Xath5 function in the neural plate and developing retina. , Schneider ML., Mol Cell Neurosci. November 1, 2001; 18 (5): 458-72.
Semaphorin 3A elicits stage-dependent collapse, turning, and branching in Xenopus retinal growth cones. , Campbell DS., J Neurosci. November 1, 2001; 21 (21): 8538-47.
Developmental regulation of CPG15 expression in Xenopus. , Nedivi E., J Comp Neurol. July 9, 2001; 435 (4): 464-73.
The bHLH factors Xath5 and XNeuroD can upregulate the expression of XBrn3d, a POU-homeodomain transcription factor. , Hutcheson DA ., Dev Biol. April 15, 2001; 232 (2): 327-38.
The Ath5 proneural genes function upstream of Brn3 POU domain transcription factor genes to promote retinal ganglion cell development. , Liu W., Proc Natl Acad Sci U S A. February 13, 2001; 98 (4): 1649-54.
Pax genes in development and maturation of the vertebrate visual system: implications for optic nerve regeneration. , Ziman MR., Histol Histopathol. January 1, 2001; 16 (1): 239-49.
Nitric oxide modulates retinal ganglion cell axon arbor remodeling in vivo. , Cogen J., J Neurobiol. November 5, 2000; 45 (2): 120-33.
Overexpression of FGF-2 alters cell fate specification in the developing retina of Xenopus laevis. , Patel A., Dev Biol. June 1, 2000; 222 (1): 170-80.
A role for voltage-gated potassium channels in the outgrowth of retinal axons in the developing visual system. , McFarlane S ., J Neurosci. February 1, 2000; 20 (3): 1020-9.
Brain-derived neurotrophic factor differentially regulates retinal ganglion cell dendritic and axonal arborization in vivo. , Lom B ., J Neurosci. November 15, 1999; 19 (22): 9928-38.
Nitric oxide in the retinotectal system: a signal but not a retrograde messenger during map refinement and segregation. , Rentería RC., J Neurosci. August 15, 1999; 19 (16): 7066-76.
Light-induced calcium influx into retinal axons is regulated by presynaptic nicotinic acetylcholine receptor activity in vivo. , Edwards JA., J Neurophysiol. February 1, 1999; 81 (2): 895-907.
Fibroblast growth factor receptor signaling in Xenopus retinal axon extension. , Lom B ., J Neurobiol. December 1, 1998; 37 (4): 633-41.
Math5 encodes a murine basic helix-loop-helix transcription factor expressed during early stages of retinal neurogenesis. , Brown NL ., Development. December 1, 1998; 125 (23): 4821-33.
The genetic sequence of retinal development in the ciliary margin of the Xenopus eye. , Perron M ., Dev Biol. July 15, 1998; 199 (2): 185-200.
Synchronizing retinal activity in both eyes disrupts binocular map development in the optic tectum. , Brickley SG., J Neurosci. February 15, 1998; 18 (4): 1491-504.
Turning of retinal growth cones in a netrin-1 gradient mediated by the netrin receptor DCC. , de la Torre JR., Neuron. December 1, 1997; 19 (6): 1211-24.
Myosin functions in Xenopus retinal ganglion cell growth cone motility in vivo. , Ruchhoeft ML., J Neurobiol. June 5, 1997; 32 (6): 567-78.
Essential role of heparan sulfates in axon navigation and targeting in the developing visual system. , Walz A., Development. June 1, 1997; 124 (12): 2421-30.
Xenopus Brn-3.0, a POU-domain gene expressed in the developing retina and tectum. Not regulated by innervation. , Hirsch N ., Invest Ophthalmol Vis Sci. April 1, 1997; 38 (5): 960-9.
Xefiltin, a new low molecular weight neuronal intermediate filament protein of Xenopus laevis, shares sequence features with goldfish gefiltin and mammalian alpha-internexin and differs in expression from XNIF and NF-L. , Zhao Y., J Comp Neurol. January 20, 1997; 377 (3): 351-64.
The cellular patterns of BDNF and trkB expression suggest multiple roles for BDNF during Xenopus visual system development. , Cohen-Cory S ., Dev Biol. October 10, 1996; 179 (1): 102-15.
Inhibition of FGF receptor activity in retinal ganglion cell axons causes errors in target recognition. , McFarlane S ., Neuron. August 1, 1996; 17 (2): 245-54.
Expression and herbimycin A-sensitive localization of pp125FAK in retinal growth cones. , Worley TL., Neuroreport. April 26, 1996; 7 (6): 1133-7.
Exogenous nitric oxide causes collapse of retinal ganglion cell axonal growth cones in vitro. , Rentería RC., J Neurobiol. April 1, 1996; 29 (4): 415-28.
Inhibition of protein tyrosine kinases impairs axon extension in the embryonic optic tract. , Worley T., J Neurosci. April 1, 1996; 16 (7): 2294-306.
Chimeric integrins expressed in retinal ganglion cells impair process outgrowth in vivo. , Lilienbaum A., Mol Cell Neurosci. April 1, 1995; 6 (2): 139-52.
CNS myelin and oligodendrocytes of the Xenopus spinal cord--but not optic nerve--are nonpermissive for axon growth. , Lang DM., J Neurosci. January 1, 1995; 15 (1 Pt 1): 99-109.
The return of phosphorylated and nonphosphorylated epitopes of neurofilament proteins to the regenerating optic nerve of Xenopus laevis. , Zhao Y., J Comp Neurol. May 1, 1994; 343 (1): 158-72.
BDNF in the development of the visual system of Xenopus. , Cohen-Cory S ., Neuron. April 1, 1994; 12 (4): 747-61.
A discrete group of melanin containing cells are coincident with a major reorganization of retinal ganglion cell axons in the optic nerve of Xenopus. , Taylor JS., J Neurocytol. November 1, 1993; 22 (11): 1007-16.
Function and spatial distribution in developing chick retina of the laminin receptor alpha 6 beta 1 and its isoforms. , de Curtis I., Development. June 1, 1993; 118 (2): 377-88.
Ipsilaterally projecting retinal ganglion cells in Xenopus laevis: an HRP study. , Schütte M., J Comp Neurol. May 22, 1993; 331 (4): 482-94.
Identification and developmental expression of a novel low molecular weight neuronal intermediate filament protein expressed in Xenopus laevis. , Charnas LR., J Neurosci. August 1, 1992; 12 (8): 3010-24.
Spatio-temporal patterns of retinal ganglion cell death during Xenopus development. , Gaze RM., J Comp Neurol. January 15, 1992; 315 (3): 264-74.
The early development of the frog retinotectal projection. , Taylor JS., Development. January 1, 1991; Suppl 2 95-104.
Dynamic changes in optic fiber terminal arbors lead to retinotopic map formation: an in vivo confocal microscopic study. , O'Rourke NA., Neuron. August 1, 1990; 5 (2): 159-71.
The expression of phosphorylated and non-phosphorylated forms of MAP5 in the amphibian CNS. , Viereck C., Dev Biol. February 5, 1990; 508 (2): 257-64.
The directed growth of retinal axons towards surgically transposed tecta in Xenopus; an examination of homing behaviour by retinal ganglion cell axons. , Taylor JS., Development. January 1, 1990; 108 (1): 147-58.
A single-cell analysis of early retinal ganglion cell differentiation in Xenopus: from soma to axon tip. , Holt CE ., J Neurosci. September 1, 1989; 9 (9): 3123-45.
Growth cone interactions with a glial cell line from embryonic Xenopus retina. , Sakaguchi DS ., Dev Biol. July 1, 1989; 134 (1): 158-74.
Gradual appearance of a regulated retinotectal projection pattern in Xenopus laevis. , O'Rourke NA., Dev Biol. March 1, 1989; 132 (1): 251-65.
Is the capacity for optic nerve regeneration related to continued retinal ganglion cell production in the frog? , Taylor JS., Eur J Neurosci. January 1, 1989; 1 (6): 626-38.
Retinal ganglion cell death induced by unilateral tectal ablation in Xenopus. , Straznicky C., Vis Neurosci. January 1, 1989; 2 (4): 339-47.