Division of Biological Science, Graduate School of Science, Nagoya University, Furo, Chikusa, Nagoya, Aichi 464-8602, Japan.
Neurosci Res. 2013 Jul;76(3):113-8. doi: 10.1016/j.neures.2013.04.003. Epub 2013 May 23.
Since the first analysis of the Drosophila courtship song more than 50 years ago, the molecular and neural mechanisms underlying the acoustic communication between fruit flies has been studied extensively. The results of recent studies utilizing a wide array of genetic tools provide novel insights into the anatomic and functional characteristics of the auditory and other mechanosensory systems in the fruit fly. Johnston's hearing organ, the antennal ear of the fruit fly, serves as a complex sensor not only for near-field sound but also for gravity and wind. These auditory and non-auditory signals travel in parallel from the fly ear to the brain, feeding into neural pathways similar to the auditory and vestibular pathways of the human brain. This review discusses these recent findings and outlines auditory neuroscience in flies.
自 50 多年前首次分析果蝇求爱歌曲以来,人们已经广泛研究了果蝇之间声学交流的分子和神经机制。最近利用各种遗传工具进行的研究结果为果蝇听觉和其他机械感觉系统的解剖和功能特征提供了新的见解。约翰斯顿的听觉器官,即果蝇的触角耳,不仅是近场声音的复杂传感器,也是重力和风力的传感器。这些听觉和非听觉信号从果蝇的耳朵平行传输到大脑,进入与人类大脑的听觉和前庭途径相似的神经通路。本文综述了这些最新发现,并概述了果蝇的听觉神经科学。