节肢动物对空间、光谱和偏振视觉的适应性

E. Warrant, A. Kelber, Rikard Frederiksen
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引用次数: 4

摘要

节肢动物是动物王国中最大的一门,已知的物种有近100万种,占所有动物物种的四分之三以上。仅昆虫和甲壳类动物就占了几乎所有节肢动物的数量,因此它们的复眼是地球上发现的数量最多、分布最广的眼睛。毫不奇怪,节肢动物的巨大适应性和多功能性,以及它们对几乎所有可能的栖息地的征服,导致了一系列显著的视觉专门化的进化,这些视觉专门化既存在于眼睛周围,也存在于负责视觉信息高级处理的大脑中心。昆虫、甲壳类动物和马蹄蟹的复眼(螯合动物中的一种)是由称为小眼的单个光学单元组成的(图1A)。每个透镜通常包含一个或多个透镜(屈光装置),用于捕获和聚焦入射光,以及许多光感受器,它们一起充当光波导,光在其中传播和被吸收。视觉色素(视紫红质)分子密集地聚集在波导的微绒毛膜内,将吸收的光能转换成电信号——视觉反应——由光感受器轴突传送到视觉系统的更高层次进行进一步处理。确切地说,什么样的光会产生电信号取决于许多因素——形态上的和生理上的——这些因素是每一种小眼虫所固有的,而且根据生活方式和栖息地的不同,这些因素在不同物种之间差别很大。眼睛的敏感度…
本文章由计算机程序翻译,如有差异,请以英文原文为准。
6 Ommatidial Adaptations for Spatial, Spectral, and Polarization Vision in Arthropods
The arthropods constitute the largest single phylum of the animal kingdom and, with almost a million known species, more than three-quarters of all animal species. The insects and crustaceans alone account for nearly all arthropods, and their compound eyes are thus the most numerous and widespread eye design found on Earth. Not surprisingly, the great adaptability and versatility of arthropods, and their conquest of almost every conceivable habitat, have led to the evolution of a remarkable range of visual specializations, both peripherally in the eyes themselves and centrally in the brain centers responsible for the higher processing of visual information. The compound eyes of insects, crustaceans, and the horseshoe crab Limulus (a xiphosurid chelicerate) are composed of individual optical units known as ommatidia (Fig. 1A). Each of these generally contains one or more lenses (the dioptric apparatus) that capture and focus the incoming light and a number of photoreceptors that together act as an optical waveguide, within which the light propagates and is absorbed. Visual pigment (rhodopsin) molecules, densely packed within the microvillar membranes of the waveguide, convert the absorbed light energy into an electrical signal—the visual response—that is carried by the photoreceptor axons to higher levels in the visual system for further processing. Exactly which qualities of light lead to an electrical signal depends on a number of factors—both morphological and physiological—that are inherent within each ommatidium, and these differ markedly from species to species according to lifestyle and habitat. The sensitivity of the eye...
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