School of Media and Communication, RMIT University, Melbourne 3001, Australia.
J Exp Biol. 2012 Feb 1;215(Pt 3):387-95. doi: 10.1242/jeb.038190.
Vision is one of the most important modalities for the remote perception of biologically important stimuli. Insects like honeybees and bumblebees use their colour and spatial vision to solve tasks, such as navigation, or to recognise rewarding flowers during foraging. Bee vision is one of the most intensively studied animal visual systems, and several models have been developed to describe its function. These models have largely assumed that bee vision is determined by mechanistic hard-wired circuits, with little or no consideration for behavioural plasticity or cognitive factors. However, recent work on both bee colour vision and spatial vision suggests that cognitive factors are indeed a very significant factor in determining what a bee sees. Individual bumblebees trade-off speed for accuracy, and will decide on which criteria to prioritise depending upon contextual information. With continued visual experience, honeybees can learn to use non-elemental processing, including configural mechanisms and rule learning, and can access top-down information to enhance learning of sophisticated, novel visual tasks. Honeybees can learn delayed-matching-to-sample tasks and the rules governing this decision making, and even transfer learned rules between different sensory modalities. Finally, bees can learn complex categorisation tasks and display numerical processing abilities for numbers up to and including four. Taken together, this evidence suggests that bees do have a capacity for sophisticated visual behaviours that fit a definition for cognition, and thus simple elemental models of bee vision need to take account of how a variety of factors may influence the type of results one may gain from animal behaviour experiments.
视觉是远程感知生物重要刺激的最重要方式之一。像蜜蜂和熊蜂这样的昆虫利用它们的颜色和空间视觉来解决任务,例如导航,或在觅食时识别有奖励的花朵。蜜蜂的视觉是研究最多的动物视觉系统之一,已经开发了几种模型来描述其功能。这些模型在很大程度上假设蜜蜂的视觉是由机械的硬连线电路决定的,很少或根本没有考虑行为可塑性或认知因素。然而,最近对蜜蜂的颜色视觉和空间视觉的研究表明,认知因素确实是决定蜜蜂看到什么的一个非常重要的因素。个别熊蜂在速度和准确性之间进行权衡,并将根据上下文信息决定优先考虑哪些标准。随着持续的视觉经验,蜜蜂可以学会使用非元素处理,包括组合机制和规则学习,并可以访问自上而下的信息来增强对复杂、新颖视觉任务的学习。蜜蜂可以学习延迟匹配样本任务和支配这种决策的规则,甚至可以在不同的感觉模态之间转移所学的规则。最后,蜜蜂可以学习复杂的分类任务,并显示出对 1 到 4 之间的数字的数值处理能力。综上所述,这些证据表明,蜜蜂确实具有复杂的视觉行为能力,符合认知的定义,因此,蜜蜂视觉的简单元素模型需要考虑各种因素可能如何影响从动物行为实验中获得的结果类型。