Literature DB >> 15246307

Pathophysiology and pharmacologic treatment of acute spinal cord injury.

Brian K Kwon1, Wolfram Tetzlaff, Jonathan N Grauer, John Beiner, Alexander R Vaccaro.   

Abstract

BACKGROUND CONTEXT: The past three decades have witnessed increasing interest in strategies to improve neurologic function after spinal cord injury. As progress is made in our understanding of the pathophysiologic events that occur after acute spinal cord injury, neuroprotective agents are being developed.
PURPOSE: Clinicians who treat acute spinal cord injuries should have a basic understanding of the pathophysiologic processes that are initiated after the spinal cord has been injured. A familiarity with the literature on which the current use of methylprednisolone is based is also essential. STUDY DESIGN/
SETTING: Literature review.
METHODS: Literature review of animal data on pathophysiologic mechanisms, and of both animal and human trials of neuroprotective agents.
RESULTS: The mechanical forces imparted to the spinal cord cause primary damage to the neural tissue, but a complex cascade of pathophysiologic processes that imperil adjacent, initially spared tissue to secondary damage rapidly follows this. Attenuating this secondary damage with neuroprotective strategies requires an understanding of these pathophysiologic processes. Many researchers are investigating the role of such processes as ischemia, inflammation, ionic homeostasis and apoptotic cell death in the secondary injury cascade, with hopes of developing specific therapies to diminish their injurious effects. Beyond methylprednisolone, a number of other pharmacologic treatments have been investigated for the acute treatment of spinal cord injury, and even more are on the horizon as potential therapies.
CONCLUSIONS: This review summarizes some of the important pathophysiologic processes involved in secondary damage after spinal cord injury and discusses a number of pharmacologic therapies that have either been studied or have future potential for this devastating injury.

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Year:  2004        PMID: 15246307     DOI: 10.1016/j.spinee.2003.07.007

Source DB:  PubMed          Journal:  Spine J        ISSN: 1529-9430            Impact factor:   4.166


  172 in total

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4.  Neuroprotective effects of perflurocarbon (oxycyte) after contusive spinal cord injury.

Authors:  Adly Yacoub; Marygrace C Hajec; Richard Stanger; Wen Wan; Harold Young; Bruce E Mathern
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5.  Effects of retrograde gene transfer of brain-derived neurotrophic factor in the rostral spinal cord of a compression model in rat.

Authors:  Tengfei Zhao; Yan Li; Xuesong Dai; Junbo Wang; Yiying Qi; Jianwei Wang; Kan Xu
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Review 6.  Regenerative therapies for central nervous system diseases: a biomaterials approach.

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7.  FoxM1 involvement in astrocyte proliferation after spinal cord injury in rats.

Authors:  Shuangwei Zhang; Honglin Teng; Qiulei Ding; Jinpeng Fan; Wanying Shi; Yan Zhou; Chunwu Zhang
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8.  Evaluation of hyperbaric oxygen therapy for spinal cord injury in rats with different treatment course using diffusion tensor imaging.

Authors:  Fang Liu; Libin Yang; Jianyi Liu; Yijing Zhao; Zebin Xiao; Yingyan Zheng; Zhen Xing; Yuyang Zhang; Dairong Cao
Journal:  Spinal Cord       Date:  2019-01-14       Impact factor: 2.772

9.  Temporal and spatial expression of KIF3B after acute spinal cord injury in adult rats.

Authors:  Xiaowei Yu; Hai Wen; Jianhua Cao; Binbin Sun; Tao Ding; Ming Li; Hao Wu; Long Long; Xinghai Cheng; Guangfei Xu; Feng Zhang
Journal:  J Mol Neurosci       Date:  2012-10-24       Impact factor: 3.444

10.  Spatiotemporal pattern of TRAF3 expression after rat spinal cord injury.

Authors:  Ya Wu; Minqian Zheng; Siqing Wang; Changzhi Song; Chuanbin Wang; Yueping Xiao; Lei Xu; Xiaozu Xu
Journal:  J Mol Histol       Date:  2014-05-07       Impact factor: 2.611

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