Literature DB >> 25453463

Restoring function after spinal cord injury: towards clinical translation of experimental strategies.

Leanne M Ramer1, Matt S Ramer2, Elizabeth J Bradbury3.   

Abstract

Spinal cord injury is currently incurable and treatment is limited to minimising secondary complications and maximising residual function by rehabilitation. Improved understanding of the pathophysiology of spinal cord injury and the factors that prevent nerve and tissue repair has fuelled a move towards more ambitious experimental treatments aimed at promoting neuroprotection, axonal regeneration, and neuroplasticity. By necessity, these new options are more invasive. However, in view of recent advances in spinal cord injury research and demand from patients, clinicians, and the scientific community to push promising experimental treatments to the clinic, momentum and optimism exist for the translation of candidate experimental treatments to clinical spinal cord injury. The ability to rescue, reactivate, and rewire spinal systems to restore function after spinal cord injury might soon be within reach.
Copyright © 2014 Elsevier Ltd. All rights reserved.

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Mesh:

Year:  2014        PMID: 25453463     DOI: 10.1016/S1474-4422(14)70144-9

Source DB:  PubMed          Journal:  Lancet Neurol        ISSN: 1474-4422            Impact factor:   44.182


  86 in total

1.  Restoring Cellular Energetics Promotes Axonal Regeneration and Functional Recovery after Spinal Cord Injury.

Authors:  Qi Han; Yuxiang Xie; Josue D Ordaz; Andrew J Huh; Ning Huang; Wei Wu; Naikui Liu; Kelly A Chamberlain; Zu-Hang Sheng; Xiao-Ming Xu
Journal:  Cell Metab       Date:  2020-03-03       Impact factor: 27.287

Review 2.  Glial Cells Shape Pathology and Repair After Spinal Cord Injury.

Authors:  Andrew D Gaudet; Laura K Fonken
Journal:  Neurotherapeutics       Date:  2018-07       Impact factor: 7.620

3.  RNAi-mediated ephrin-B2 silencing attenuates astroglial-fibrotic scar formation and improves spinal cord axon growth.

Authors:  Yi Li; Ying Chen; Ling Tan; Jing-Ying Pan; Wei-Wei Lin; Jian Wu; Wen Hu; Xue Chen; Xiao-Dong Wang
Journal:  CNS Neurosci Ther       Date:  2017-08-21       Impact factor: 5.243

4.  Protective effect of D-pinitol on the experimental spinal cord injury in rats.

Authors:  Yan An; Jianing Li; Yajun Liu; Mingxing Fan; Wei Tian
Journal:  Metab Brain Dis       Date:  2020-01-29       Impact factor: 3.584

5.  Sulfonylureas--a novel treatment to reduce tissue damage after acute spinal cord injury?

Authors:  Hagen Kunte; H Francis Farhadi; Kevin N Sheth; J Marc Simard; Golo Kronenberg
Journal:  Lancet Neurol       Date:  2015-04       Impact factor: 44.182

6.  Motoneuron Death after Human Spinal Cord Injury.

Authors:  Robert M Grumbles; Christine K Thomas
Journal:  J Neurotrauma       Date:  2016-08-25       Impact factor: 5.269

7.  Repair mechanism of astrocytes and non-astrocytes in spinal cord injury.

Authors:  Xiang-Yun Liu; Jian-Wei Guo; Jian-Qiang Kou; Yuan-Liang Sun; Xiu-Jun Zheng
Journal:  World J Clin Cases       Date:  2020-03-06       Impact factor: 1.337

8.  Functional outcome of surgically treated U-shaped sacral fractures: experience from 41 cases.

Authors:  Li He; Chengla Yi; David J Hak; Zhiyong Hou
Journal:  Eur Spine J       Date:  2019-01-24       Impact factor: 3.134

9.  Ibuprofen-loaded fibrous patches-taming inhibition at the spinal cord injury site.

Authors:  Liliana R Pires; Cátia D F Lopes; Daniela Salvador; Daniela N Rocha; Ana Paula Pêgo
Journal:  J Mater Sci Mater Med       Date:  2017-09-11       Impact factor: 3.896

10.  Gabapentinoid treatment promotes corticospinal plasticity and regeneration following murine spinal cord injury.

Authors:  Wenjing Sun; Molly Je Larson; Conrad M Kiyoshi; Alexander J Annett; William A Stalker; Juan Peng; Andrea Tedeschi
Journal:  J Clin Invest       Date:  2020-01-02       Impact factor: 14.808

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