Elgar Mark A, Zhang Dong, Wang Qike, Wittwer Bernadette, Thi Pham Hieu, Johnson Tamara L, Freelance Christopher B, Coquilleau Marianne
School of BioSciences, The University of Melbourne, Victoria, Australia.
School of Nature Conservation, Beijing Forestry University, Beijing, China.
Yale J Biol Med. 2018 Dec 21;91(4):457-469. eCollection 2018 Dec.
Chemical communication involves the production, transmission, and perception of odors. Most adult insects rely on chemical signals and cues to locate food resources, oviposition sites or reproductive partners and, consequently, numerous odors provide a vital source of information. Insects detect these odors with receptors mostly located on the antennae, and the diverse shapes and sizes of these antennae (and sensilla) are both astonishing and puzzling: what selective pressures are responsible for these different solutions to the same problem - to perceive signals and cues? This review describes the selection pressures derived from chemical communication that are responsible for shaping the diversity of insect antennal morphology. In particular, we highlight new technologies and techniques that offer exciting opportunities for addressing this surprisingly neglected and yet crucial component of chemical communication.
化学通讯涉及气味的产生、传播和感知。大多数成年昆虫依靠化学信号和线索来定位食物资源、产卵地点或繁殖伙伴,因此,众多气味提供了至关重要的信息来源。昆虫通过主要位于触角上的感受器来检测这些气味,而这些触角(以及感器)多样的形状和大小既令人惊讶又令人困惑:对于感知信号和线索这同一问题的这些不同解决方案,是什么选择压力导致的呢?这篇综述描述了源自化学通讯的选择压力,这些压力塑造了昆虫触角形态的多样性。特别是,我们重点介绍了一些新技术,这些技术为解决化学通讯中这个令人惊讶地被忽视却又至关重要的组成部分提供了令人兴奋的机会。