Binocular ocular motility: breaking with the past: how understanding dynamic ocular motor control and central nervous system plasticity promote novel discovery and therapy of nystagmus.

Richard W Hertle
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Abstract

Introduction: The lure of studying the ocular motor system stems from its anatomic and physiological accessibility, ease of measurement and analysis of function, as well as the promise of providing a direct window into the brain. There is an increasing body of knowledge on how the brain responds to peripheral eye muscle manipulation (surgery, medications, denervation, genetic therapy). Investigations in both animals and humans have established that plasticity within the brain occurs after peripheral neuromuscular (medical or surgical) disruption and repair.

Purpose: This paper will review and summarize neurophysiological concepts resulting from recent investigations of the ocular motor system and treatment of involuntary oscillations such as nystagmus.

Methods: Review of both a multidisciplinary literature and the authors 25 years experience evaluating, treating and investigating the ocular motor system.

Conclusions: The ocular motor system in man is a continuously controlled, malleable brain-eye system, which is genetically programmed, environmentally modified and contains powerful reparative processes. It begins during development, extends throughout life and is subject to external manipulation in both health and disease. These ideas challenge the historically significant axiom, i.e., that there is eventual (and a final maturing to an end state) "hard-wiring" of much of both the ocular motor and afferent visual systems. Rather, they now are shown to maintain some degree of plasticity throughout life.

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双目眼运动:打破过去:了解动态眼运动控制和中枢神经系统可塑性如何促进眼球震颤的新发现和治疗。
研究眼运动系统的吸引力在于其解剖学和生理学的可及性,易于测量和分析功能,以及提供直接进入大脑的窗口。关于大脑如何对眼周肌操纵(手术、药物、去神经支配、基因治疗)做出反应的知识越来越多。对动物和人类的研究已经证实,大脑内的可塑性发生在周围神经肌肉(医学或外科)破坏和修复之后。目的:本文将回顾和总结最近对眼运动系统和眼球震颤等非随意振荡治疗的研究所产生的神经生理学概念。方法:回顾多学科文献和作者25年来眼运动系统的评估、治疗和研究经验。结论:人的眼运动系统是一个持续控制的、可塑的脑眼系统,它具有基因编程、环境修饰和强大的修复过程。它始于发育期间,贯穿一生,并在健康和疾病方面受到外部操纵。这些想法挑战了历史上重要的公理,即存在最终(和最终成熟到最终状态)。眼球运动和传入视觉系统的“硬连线”。相反,它们现在被证明在一生中保持一定程度的可塑性。
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