Literature DB >> 1941078

Neurofilament redistribution in transected nerves: evidence for bidirectional transport of neurofilaments.

J D Glass1, J W Griffin.   

Abstract

Nerve fibers of the C57BL/6/Ola mouse exhibit very slow Wallerian degeneration following axotomy, thus allowing prolonged observation of mammalian axons separated from their cell bodies. The present study utilized teased-fiber preparations, silver histochemistry, immunocytochemistry, and electron microscopy to examine the distribution of axonal components in the distal stumps of axotomized sciatic nerves in C57BL/6/Ola mice. In examining nerve segments at varying intervals after nerve transection, we found no evidence of proximal-to-distal "emptying out" of the cytoskeleton, as would be predicted if the cytoskeleton in these transected nerves were undergoing anterograde transport as an assembled structure. Instead, we observed a gradual redistribution of cytoskeletal constituents over time, dominated by the progressive accumulation of neurofilaments at the severed ends of axons. In particular, there were massive accumulations at the proximal ends of the distal stumps. These results strongly suggest that, at least in transected nerve fibers, neurofilaments can be transported bidirectionally.

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Year:  1991        PMID: 1941078      PMCID: PMC6575450     

Source DB:  PubMed          Journal:  J Neurosci        ISSN: 0270-6474            Impact factor:   6.167


  17 in total

1.  Bidirectional translocation of neurofilaments along microtubules mediated in part by dynein/dynactin.

Authors:  J V Shah; L A Flanagan; P A Janmey; J F Leterrier
Journal:  Mol Biol Cell       Date:  2000-10       Impact factor: 4.138

2.  Rapid intermittent movement of axonal neurofilaments observed by fluorescence photobleaching.

Authors:  L Wang; A Brown
Journal:  Mol Biol Cell       Date:  2001-10       Impact factor: 4.138

3.  Theiler's virus infection: Pathophysiology of demyelination and neurodegeneration.

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Journal:  Pathophysiology       Date:  2011-02

4.  Arrival, reversal, and departure of neurofilaments at the tips of growing axons.

Authors:  Atsuko Uchida; Anthony Brown
Journal:  Mol Biol Cell       Date:  2004-06-23       Impact factor: 4.138

Review 5.  Changes in cytoskeletal protein synthesis following axon injury and during axon regeneration.

Authors:  M A Bisby; W Tetzlaff
Journal:  Mol Neurobiol       Date:  1992 Summer-Fall       Impact factor: 5.590

6.  Contrasting roles for axonal degeneration in an autoimmune versus viral model of multiple sclerosis: When can axonal injury be beneficial?

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Journal:  Am J Pathol       Date:  2007-01       Impact factor: 4.307

Review 7.  Axonal transport disruption in peripheral nerve disease: From Jack's discoveries as a resident to recent contributions.

Authors:  Thomas E Lloyd
Journal:  J Peripher Nerv Syst       Date:  2012-12       Impact factor: 3.494

8.  Axonal degeneration as a self-destructive defense mechanism against neurotropic virus infection.

Authors:  Ikuo Tsunoda
Journal:  Future Virol       Date:  2008       Impact factor: 1.831

Review 9.  The importance of NAD in multiple sclerosis.

Authors:  W Todd Penberthy; Ikuo Tsunoda
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10.  The G59S mutation in p150(glued) causes dysfunction of dynactin in mice.

Authors:  Chen Lai; Xian Lin; Jayanth Chandran; Hoon Shim; Wan-Jou Yang; Huaibin Cai
Journal:  J Neurosci       Date:  2007-12-19       Impact factor: 6.167

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