Literature DB >> 29277625

Enhanced axonal transport: A novel form of "plasticity" after primate and rodent spinal cord injury.

J H Brock1, E S Rosenzweig2, H Yang2, M H Tuszynski3.   

Abstract

Deficient axonal transport after injury is believed to contribute to the failure of CNS regeneration. To better elucidate neural mechanisms associated with CNS responses to injury, we transected the dominant voluntary motor system, the corticospinal tract (CST), in the dorsolateral T10 spinal cord of rhesus monkeys. Three months later, a 4.5-fold increase in the number of CST axons located in the spared ventral corticospinal tract at both the lesion site and, surprisingly, remotely in the cervical spinal cord was observed. Additional studies of increases in corticospinal axon numbers in rat and primate models demonstrated that increases were transient and attributable to enhanced axonal transport rather than axonal sprouting. Accordingly, increases in axonal transport occur after CNS injury even in the longest projecting pathways of the non-human primate, likely representing an attempted adaptive response to injury as observed in the PNS. Published by Elsevier Inc.

Entities:  

Keywords:  Axonal transport; Non-human primate; Spinal cord injury

Mesh:

Year:  2017        PMID: 29277625      PMCID: PMC7291621          DOI: 10.1016/j.expneurol.2017.12.009

Source DB:  PubMed          Journal:  Exp Neurol        ISSN: 0014-4886            Impact factor:   5.330


  44 in total

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Journal:  Methods       Date:  1999-08       Impact factor: 3.608

2.  Performance of locomotion and foot grasping following a unilateral thoracic corticospinal tract lesion in monkeys (Macaca mulatta).

Authors:  Grégoire Courtine; Roland R Roy; Joseph Raven; John Hodgson; Heather McKay; Hong Yang; Hui Zhong; Mark H Tuszynski; V Reggie Edgerton
Journal:  Brain       Date:  2005-07-27       Impact factor: 13.501

3.  In vivo anterograde and retrograde axonal transport of the fluorescent rhodamine-dextran-amine, Fluoro-Ruby, within the CNS.

Authors:  L Schmued; K Kyriakidis; L Heimer
Journal:  Brain Res       Date:  1990-08-27       Impact factor: 3.252

Review 4.  Animal models of neurologic disorders: a nonhuman primate model of spinal cord injury.

Authors:  Yvette S Nout; Ephron S Rosenzweig; John H Brock; Sarah C Strand; Rod Moseanko; Stephanie Hawbecker; Sharon Zdunowski; Jessica L Nielson; Roland R Roy; Gregoire Courtine; Adam R Ferguson; V Reggie Edgerton; Michael S Beattie; Jacqueline C Bresnahan; Mark H Tuszynski
Journal:  Neurotherapeutics       Date:  2012-04       Impact factor: 7.620

Review 5.  Molecular control of axon growth: insights from comparative gene profiling and high-throughput screening.

Authors:  Murray G Blackmore
Journal:  Int Rev Neurobiol       Date:  2012       Impact factor: 3.230

Review 6.  Nogo limits neural plasticity and recovery from injury.

Authors:  Martin E Schwab; Stephen M Strittmatter
Journal:  Curr Opin Neurobiol       Date:  2014-03-12       Impact factor: 6.627

Review 7.  Intrinsic Control of Axon Regeneration.

Authors:  Zhigang He; Yishi Jin
Journal:  Neuron       Date:  2016-05-04       Impact factor: 17.173

8.  Fast and slow components in axonal transport of protein.

Authors:  B S McEwen; B Grafstein
Journal:  J Cell Biol       Date:  1968-09       Impact factor: 10.539

Review 9.  The extracellular matrix in plasticity and regeneration after CNS injury and neurodegenerative disease.

Authors:  James W Fawcett
Journal:  Prog Brain Res       Date:  2015-03-29       Impact factor: 2.453

10.  Extensive spontaneous plasticity of corticospinal projections after primate spinal cord injury.

Authors:  Ephron S Rosenzweig; Gregoire Courtine; Devin L Jindrich; John H Brock; Adam R Ferguson; Sarah C Strand; Yvette S Nout; Roland R Roy; Darren M Miller; Michael S Beattie; Leif A Havton; Jacqueline C Bresnahan; V Reggie Edgerton; Mark H Tuszynski
Journal:  Nat Neurosci       Date:  2010-11-14       Impact factor: 24.884

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