Horn Anja K E, Leigh R John
Department I, Institute of Anatomy and Cell Biology, Ludwig-Maximilian University of Munich, Munich, Germany.
Handb Clin Neurol. 2011;102:21-69. doi: 10.1016/B978-0-444-52903-9.00008-X.
Accurate diagnosis of abnormal eye movements depends upon knowledge of the purpose, properties, and neural substrate of distinct functional classes of eye movement. Here, we summarize current concepts of the anatomy of eye movement control. Our approach is bottom-up, starting with the extraocular muscles and their innervation by the cranial nerves. Second, we summarize the neural circuits in the pons underlying horizontal gaze control, and the midbrain connections that coordinate vertical and torsional movements. Third, the role of the cerebellum in governing and optimizing eye movements is presented. Fourth, each area of cerebral cortex contributing to eye movements is discussed. Last, descending projections from cerebral cortex, including basal ganglionic circuits that govern different components of gaze, and the superior colliculus, are summarized. At each stage of this review, the anatomical scheme is used to predict the effects of lesions on the control of eye movements, providing clinical-anatomical correlation.
准确诊断异常眼球运动取决于对不同功能类别的眼球运动的目的、特性和神经基质的了解。在此,我们总结了当前眼球运动控制解剖学的概念。我们采用自下而上的方法,从眼外肌及其由颅神经支配开始。其次,我们总结了脑桥中水平注视控制的神经回路,以及协调垂直和扭转运动的中脑连接。第三,介绍了小脑在控制和优化眼球运动中的作用。第四,讨论了对眼球运动有贡献的大脑皮层的每个区域。最后,总结了来自大脑皮层的下行投射,包括控制不同注视成分的基底神经节回路和上丘。在本综述的每个阶段,解剖学方案都用于预测病变对眼球运动控制的影响,提供临床与解剖学的相关性。