Department of Earth System Science, Faculty of Science, Fukuoka University, Jonan-ku, Fukuoka 814-0180, Japan.
Sensors (Basel). 2013 Jul 19;13(7):9344-63. doi: 10.3390/s130709344.
Insects use airborne vibrations caused by their own movements to control their behaviors and produce airborne vibrations to communicate with conspecific mates. In this review, I use two examples to introduce how insects use airborne vibrations to accurately control behavior or for communication. The first example is vibration-sensitive sensilla along the wing margin that stabilize wingbeat frequency. There are two specialized sensors along the wing margin for detecting the airborne vibration caused by wingbeats. The response properties of these sensors suggest that each sensor plays a different role in the control of wingbeats. The second example is Johnston's organ that contributes to regulating flying speed and perceiving vector information about food sources to hive-mates. There are parallel vibration processing pathways in the central nervous system related with these behaviors, flight and communication. Both examples indicate that the frequency of airborne vibration are filtered on the sensory level and that on the central nervous system level, the extracted vibration signals are integrated with other sensory signals for executing quick adaptive motor response.
昆虫利用自身运动产生的空气传播振动来控制行为,并产生空气传播振动来与同种配偶进行交流。在这篇综述中,我将用两个例子来介绍昆虫如何利用空气传播振动来精确控制行为或进行交流。第一个例子是沿翅缘的对空气传播振动敏感的感器,它们稳定了翅拍频率。在翅缘有两个专门的传感器来检测由翅拍产生的空气传播振动。这些传感器的反应特性表明,每个传感器在翅拍的控制中都发挥了不同的作用。第二个例子是约翰斯顿氏器官,它有助于调节飞行速度,并感知与蜂巢同伴有关食物源的向量信息。在与这些行为、飞行和交流相关的中枢神经系统中存在平行的振动处理途径。这两个例子都表明,空气传播振动的频率在感觉水平上被过滤,而在中枢神经系统水平上,提取的振动信号与其他感觉信号一起被整合,以执行快速的适应性运动反应。