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首页> 外文期刊>Trends in Neurosciences >Spinal cord injury: plasticity, regeneration and the challenge of translational drug development.
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Spinal cord injury: plasticity, regeneration and the challenge of translational drug development.

机译:脊髓损伤:可塑性,再生和转化药物开发的挑战。

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摘要

Over the past three decades, multiple mechanisms limiting central nervous system regeneration have been identified. Here, we address plasticity arising from spared systems as a particularly important and often unrecognized mechanism that potentially contributes to functional recovery in studies of 'regeneration' after spinal cord injury. We then discuss complexities involved in translating findings from animal models to human clinical trials in spinal cord injury; current strategies might be too limited in scope to yield detectable benefits in the complex and variable arena of human injury. Our animal models are imperfect, and the very variability that we attempt to control in the course of conducting rigorous research might, ironically, limit our ability to identify the most promising therapies in the human arena. Therapeutic candidates are most likely to have a detectable effect in human trials if they elicit benefits in severe contusion and larger animal models and pass the test of independent replication.
机译:在过去的三十年中,已经发现了限制中枢神经系统再生的多种机制。在这里,我们将备用系统引起的可塑性视为一种特别重要且通常未被认识的机制,它可能在脊髓损伤后“再生”的研究中可能有助于功能恢复。然后,我们讨论将发现的动物模型转化为脊髓损伤的人类临床试验所涉及的复杂性;当前的策略可能范围太有限,无法在复杂多变的人类伤害领域中产生可检测的收益。我们的动物模型是不完善的,具有讽刺意味的是,我们在进行严格研究的过程中试图控制的可变性可能会限制我们识别人类舞台上最有希望的疗法的能力。如果治疗候选物在严重挫伤和较大的动物模型中受益,并通过独立复制的测试,则很可能在人体试验中具有可检测的作用。

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