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恒河猴眼睛在眼调节过程中晶状体屈光力的空间变化。

Spatially variant changes in lens power during ocular accommodation in a rhesus monkey eye.

作者信息

Vilupuru Abhiram S, Roorda Austin, Glasser Adrian

机构信息

College of Optometry, University of Houston, Houston, TX, USA.

出版信息

J Vis. 2004 Apr 22;4(4):299-309. doi: 10.1167/4.4.6.

Abstract

This study investigated the changes in ocular aberrations that occur over the entire lens equatorial diameter during accommodation in iridectomized rhesus monkey eyes to understand the nature of accommodative lenticular deformation. Accommodation was centrally stimulated to a range of different response amplitudes (0 D to approximately 11 D), and ocular aberrations were measured with a Shack-Hartmann wavefront sensor in both eyes of one previously iridectomized 10-year-old rhesus monkey. At the highest amplitude in the two eyes, aberrations were analyzed over entrance pupil diameters ranging from 3 to 8 mm in steps of 1 mm. Root mean square error of the total measured aberrations, excluding defocus, increased systematically with increasing accommodation from about 1 to 3.5 microns. Spherical aberration became systematically more negative, and vertical coma increased significantly in magnitude with accommodation. There was a strong accommodative change in power near the center of the lens and little change in power at the periphery. At the highest accommodative state, decreasing the analyzed entrance pupil diameter from 8 to 3 mm considerably reduced the wavefront error. The greater increase in optical power near the central region of the lens, combined with an accommodative pupillary miosis, would serve to maximize accommodative refractive change while maintaining acceptable image quality.

摘要

本研究调查了虹膜切除的恒河猴眼睛在调节过程中整个晶状体赤道直径上发生的眼像差变化,以了解调节性晶状体变形的本质。向中心刺激调节至一系列不同的反应幅度(0 D至约11 D),并使用Shack-Hartmann波前传感器测量一只先前虹膜切除的10岁恒河猴双眼的眼像差。在双眼的最高幅度下,以1 mm步长分析3至8 mm入瞳直径范围内的像差。排除离焦后,总测量像差的均方根误差随着调节增加从约1微米系统性地增加至3.5微米。球差系统性地变得更负,并且垂直彗差随着调节幅度显著增加。晶状体中心附近的屈光力有强烈的调节变化,而周边的屈光力变化很小。在最高调节状态下,将分析的入瞳直径从8 mm减小至3 mm可显著降低波前误差。晶状体中心区域附近屈光力的更大增加,结合调节性瞳孔缩小,将有助于在保持可接受图像质量的同时最大化调节性屈光变化。

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