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果蝇温度偏好行为及其昼夜节律的设计与分析

Design and analysis of temperature preference behavior and its circadian rhythm in Drosophila.

作者信息

Goda Tadahiro, Leslie Jennifer R, Hamada Fumika N

机构信息

The Visual Systems Group, Division of Pediatric Ophthalmology, Cincinnati Childrens Hospital Medical Center.

出版信息

J Vis Exp. 2014 Jan 13(83):e51097. doi: 10.3791/51097.

Abstract

The circadian clock regulates many aspects of life, including sleep, locomotor activity, and body temperature (BTR) rhythms(1) (,) (2). We recently identified a novel Drosophila circadian output, called the temperature preference rhythm (TPR), in which the preferred temperature in flies rises during the day and falls during the night (3). Surprisingly, the TPR and locomotor activity are controlled through distinct circadian neurons(3). Drosophila locomotor activity is a well known circadian behavioral output and has provided strong contributions to the discovery of many conserved mammalian circadian clock genes and mechanisms(4). Therefore, understanding TPR will lead to the identification of hitherto unknown molecular and cellular circadian mechanisms. Here, we describe how to perform and analyze the TPR assay. This technique not only allows for dissecting the molecular and neural mechanisms of TPR, but also provides new insights into the fundamental mechanisms of the brain functions that integrate different environmental signals and regulate animal behaviors. Furthermore, our recently published data suggest that the fly TPR shares features with the mammalian BTR(3). Drosophila are ectotherms, in which the body temperature is typically behaviorally regulated. Therefore, TPR is a strategy used to generate a rhythmic body temperature in these flies(5-8). We believe that further exploration of Drosophila TPR will facilitate the characterization of the mechanisms underlying body temperature control in animals.

摘要

生物钟调节生命的许多方面,包括睡眠、运动活动和体温(BTR)节律(1) (,) (2)。我们最近在果蝇中发现了一种新的生物钟输出,称为温度偏好节律(TPR),果蝇在白天的偏好温度上升,在夜间下降(3)。令人惊讶的是,TPR和运动活动是由不同的生物钟神经元控制的(3)。果蝇的运动活动是一种众所周知的生物钟行为输出,为发现许多保守的哺乳动物生物钟基因和机制做出了重要贡献(4)。因此,了解TPR将有助于识别迄今未知的分子和细胞生物钟机制。在这里,我们描述了如何进行和分析TPR测定。这项技术不仅有助于剖析TPR的分子和神经机制,还为整合不同环境信号并调节动物行为的大脑功能的基本机制提供了新的见解。此外,我们最近发表的数据表明,果蝇的TPR与哺乳动物的BTR有共同特征(3)。果蝇是变温动物,其体温通常通过行为调节。因此,TPR是这些果蝇产生节律性体温的一种策略(5-8)。我们相信,对果蝇TPR的进一步探索将有助于阐明动物体温控制的潜在机制。

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