Literature DB >> 21557506

The vertebrate retina: a model for neuronal polarization in vivo.

Owen Randlett1, Caren Norden, William A Harris.   

Abstract

The vertebrate retina develops rapidly from a proliferative neuroepithelium into a highly ordered laminated structure, with five distinct neuronal cell types. Like all neurons, these cells need to polarize in appropriate orientations order integrate their neuritic connections efficiently into functional networks. Its relative simplicity, amenability to in vivo imaging and experimental manipulation, as well as the opportunity to study varied cell types within a single tissue, make the retina a powerful model to uncover how neurons polarize in vivo. Here we review the progress that has been made thus far in understanding how the different retinal neurons transform from neuroepithelial cells into mature neurons, and how the orientation of polarization may be specified by a combination of pre-established intrinsic cellular polarity set up within neuroepithelial cells, and extrinsic cues acting upon these differentiating neurons.
Copyright © 2010 Wiley Periodicals, Inc.

Mesh:

Year:  2011        PMID: 21557506     DOI: 10.1002/dneu.20841

Source DB:  PubMed          Journal:  Dev Neurobiol        ISSN: 1932-8451            Impact factor:   3.964


  21 in total

1.  Actin Aggregations Mark the Sites of Neurite Initiation.

Authors:  Shu-Xin Zhang; Li-Hui Duan; Hong Qian; Xiang Yu
Journal:  Neurosci Bull       Date:  2016-01-18       Impact factor: 5.203

Review 2.  ArhGEF18 regulated Rho signaling in vertebrate retina development.

Authors:  Felix Loosli
Journal:  Small GTPases       Date:  2013-11-14

3.  Centrosome movements in vivo correlate with specific neurite formation downstream of LIM homeodomain transcription factor activity.

Authors:  Erica F Andersen; Mary C Halloran
Journal:  Development       Date:  2012-08-16       Impact factor: 6.868

4.  Transgenic expression of constitutively active RAC1 disrupts mouse rod morphogenesis.

Authors:  Hongman Song; Ronald A Bush; Camasamudram Vijayasarathy; Robert N Fariss; Sten Kjellstrom; Paul A Sieving
Journal:  Invest Ophthalmol Vis Sci       Date:  2014-04-25       Impact factor: 4.799

Review 5.  PAR3-PAR6-atypical PKC polarity complex proteins in neuronal polarization.

Authors:  Sophie M Hapak; Carla V Rothlin; Sourav Ghosh
Journal:  Cell Mol Life Sci       Date:  2018-04-25       Impact factor: 9.261

Review 6.  Developmental plasticity of dendritic morphology and the establishment of coverage and connectivity in the outer retina.

Authors:  Benjamin E Reese; Patrick W Keeley; Sammy C S Lee; Irene E Whitney
Journal:  Dev Neurobiol       Date:  2011-12       Impact factor: 3.964

7.  Effect of titanium dioxide nanoparticles on zebrafish embryos and developing retina.

Authors:  Ya-Jie Wang; Zi-Zi He; Yang-Wu Fang; Yang Xu; Ya-Nan Chen; Guan-Qun Wang; Yong-Qiang Yang; Zhuo Yang; Yu-Hao Li
Journal:  Int J Ophthalmol       Date:  2014-12-18       Impact factor: 1.779

8.  The oriented emergence of axons from retinal ganglion cells is directed by laminin contact in vivo.

Authors:  Owen Randlett; Lucia Poggi; Flavio R Zolessi; William A Harris
Journal:  Neuron       Date:  2011-04-28       Impact factor: 17.173

9.  Human Müller glia with stem cell characteristics differentiate into retinal ganglion cell (RGC) precursors in vitro and partially restore RGC function in vivo following transplantation.

Authors:  Shweta Singhal; Bhairavi Bhatia; Hari Jayaram; Silke Becker; Megan F Jones; Phillippa B Cottrill; Peng T Khaw; Thomas E Salt; G Astrid Limb
Journal:  Stem Cells Transl Med       Date:  2012-03-07       Impact factor: 6.940

10.  CDC42 is required for tissue lamination and cell survival in the mouse retina.

Authors:  Severin Reinhard Heynen; Isabelle Meneau; Christian Caprara; Marijana Samardzija; Cornelia Imsand; Edward M Levine; Christian Grimm
Journal:  PLoS One       Date:  2013-01-23       Impact factor: 3.240

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