Literature DB >> 15217329

Plasticity of the spinal neural circuitry after injury.

V Reggie Edgerton1, Niranjala J K Tillakaratne, Allison J Bigbee, Ray D de Leon, Roland R Roy.   

Abstract

Motor function is severely disrupted following spinal cord injury (SCI). The spinal circuitry, however, exhibits a great degree of automaticity and plasticity after an injury. Automaticity implies that the spinal circuits have some capacity to perform complex motor tasks following the disruption of supraspinal input, and evidence for plasticity suggests that biochemical changes at the cellular level in the spinal cord can be induced in an activity-dependent manner that correlates with sensorimotor recovery. These characteristics should be strongly considered as advantageous in developing therapeutic strategies to assist in the recovery of locomotor function following SCI. Rehabilitative efforts combining locomotor training pharmacological means and/or spinal cord electrical stimulation paradigms will most likely result in more effective methods of recovery than using only one intervention.

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Year:  2004        PMID: 15217329     DOI: 10.1146/annurev.neuro.27.070203.144308

Source DB:  PubMed          Journal:  Annu Rev Neurosci        ISSN: 0147-006X            Impact factor:   12.449


  181 in total

1.  Afferent control of locomotor CPG: insights from a simple neuromechanical model.

Authors:  Sergey N Markin; Alexander N Klishko; Natalia A Shevtsova; Michel A Lemay; Boris I Prilutsky; Ilya A Rybak
Journal:  Ann N Y Acad Sci       Date:  2010-06       Impact factor: 5.691

2.  Rapid changes in corticospinal excitability during force field adaptation of human walking.

Authors:  D Barthélemy; S Alain; M J Grey; J B Nielsen; L J Bouyer
Journal:  Exp Brain Res       Date:  2012-01-13       Impact factor: 1.972

Review 3.  A systematic review of exercise training to promote locomotor recovery in animal models of spinal cord injury.

Authors:  Camila R Battistuzzo; Robert J Callister; Robin Callister; Mary P Galea
Journal:  J Neurotrauma       Date:  2012-04-18       Impact factor: 5.269

4.  The effects of intraspinal microstimulation on spinal cord tissue in the rat.

Authors:  Jeremy A Bamford; Kathryn G Todd; Vivian K Mushahwar
Journal:  Biomaterials       Date:  2010-04-28       Impact factor: 12.479

Review 5.  AMPA-receptor trafficking and injury-induced cell death.

Authors:  Michael S Beattie; Adam R Ferguson; Jacqueline C Bresnahan
Journal:  Eur J Neurosci       Date:  2010-07-14       Impact factor: 3.386

6.  Reactivation of Dormant Relay Pathways in Injured Spinal Cord by KCC2 Manipulations.

Authors:  Bo Chen; Yi Li; Bin Yu; Zicong Zhang; Benedikt Brommer; Philip Raymond Williams; Yuanyuan Liu; Shane Vincent Hegarty; Songlin Zhou; Junjie Zhu; Hong Guo; Yi Lu; Yiming Zhang; Xiaosong Gu; Zhigang He
Journal:  Cell       Date:  2018-07-19       Impact factor: 41.582

7.  Exercise leads to faster postural reflexes, improved balance and mobility, and fewer falls in older persons with chronic stroke.

Authors:  Daniel S Marigold; Janice J Eng; Andrew S Dawson; J Timothy Inglis; Jocelyn E Harris; Sif Gylfadóttir
Journal:  J Am Geriatr Soc       Date:  2005-03       Impact factor: 5.562

8.  BDNF and learning: Evidence that instrumental training promotes learning within the spinal cord by up-regulating BDNF expression.

Authors:  F Gómez-Pinilla; J R Huie; Z Ying; A R Ferguson; E D Crown; K M Baumbauer; V R Edgerton; J W Grau
Journal:  Neuroscience       Date:  2007-08-23       Impact factor: 3.590

Review 9.  Translational spinal cord injury research: preclinical guidelines and challenges.

Authors:  Paul J Reier; Michael A Lane; Edward D Hall; Y D Teng; Dena R Howland
Journal:  Handb Clin Neurol       Date:  2012

10.  Opioid regulation of spinal cord plasticity: evidence the kappa-2 opioid receptor agonist GR89696 inhibits learning within the rat spinal cord.

Authors:  Stephanie N Washburn; Marissa L Maultsby; Denise A Puga; James W Grau
Journal:  Neurobiol Learn Mem       Date:  2007-11-05       Impact factor: 2.877

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