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Sensory gating: a translational effort from basic to clinical science.

机译:感觉门控:从基础科学到临床科学的转化工作。

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摘要

Sensory gating (SG) is a prevalent physiological process important for information filtering in complex systems. SG is evaluated by presenting repetitious stimuli and measuring the degree of neural inhibition that occurs. SG has been found to be impaired in several psychiatric disorders. Recent animal and human research has made great progress in the study of SG, and in this review we provide an overview of recent research on SG using different methods. Animal research has uncovered findings that suggest (1) SG is displayed by single neurons and can be similar to SG observed from scalp recordings in humans, (2) SG is found in numerous brain structures located in sensory, motor and limbic subregions, (3) SG can be significantly influenced by state changes of the organism, and (4) SG has a diverse pharmacological profile accented by a strong influence from nicotine receptor activation. Human research has addressed similar issues using deep electrode recordings of brain structures. These experiments have revealed that (1) SG can be found in cortical regions surrounding hippocampus, (2) the order of neural processing places hippocampal involvement during a later stage of sensory processing than originally thought, and (3) multiple subtypes of gating exist that could be dependent on different brain circuits and more or less influenced by alterations in organismal state. Animal and human research both have limitations. We emphasize the need for integrative approaches to understand the process and combine information between basic and clinical fields so that a more complete picture of SG will emerge.
机译:感觉门控(SG)是一种普遍的生理过程,对于复杂系统中的信息过滤非常重要。通过提供重复刺激并测量发生的神经抑制程度来评估SG。已经发现SG在几种精神病中受损。最近的动物和人类研究在SG的研究中取得了很大的进展,在这篇综述中,我们提供了使用不同方法对SG进行的最新研究的概述。动物研究发现了以下发现:(1)SG由单个神经元显示,并且与人类头皮记录中观察到的SG相似;(2)SG位于感觉,运动和边缘区域的许多大脑结构中,(3 )SG可能受到生物体状态变化的显着影响,并且(4)SG具有多种药理学特征,其中尼古丁受体激活的强烈影响突显了这种情况。人类研究已经使用大脑结构的深层电极记录解决了类似的问题。这些实验表明,(1)SG可以在海马周围的皮质区域中找到;(2)神经处理的顺序使海马受累的程度比最初认为的要晚,并且(3)存在多种门控亚型可能取决于不同的大脑回路,或多或少地受到机体状态变化的影响。动物和人类研究都有局限性。我们强调需要采用综合方法来了解该过程,并在基础领域和临床领域之间结合信息,以便出现更完整的SG研究。

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