Centre for Neural Circuit and Behaviour, University of Oxford, Mansfield road, OX3 1SR, Oxford, UK.
University Côte d'Azur, CNRS, Inserm, Institute of Biology Valrose Parc Valrose, 06108, Nice, France.
Mol Cell Endocrinol. 2021 Aug 1;533:111339. doi: 10.1016/j.mce.2021.111339. Epub 2021 Jun 1.
Under conditions of nutritional and environmental stress, organismal homeostasis is preserved through inter-communication between multiple organs. To do so, higher organisms have developed a system of interorgan communication through which one tissue can affect the metabolism, activity or fate of remote organs, tissues or cells. In this review, we discuss the latest findings emphasizing Drosophila melanogaster as a powerful model organism to study these interactions and may constitute one of the best documented examples depicting the long-distance communication between organs. In flies, the adipose tissue appears to be one of the main organizing centers for the regulation of insect development and behavior: it senses nutritional and hormonal signals and in turn, orchestrates the release of appropriate adipokines. We discuss the nature and the role of recently uncovered adipokines, their regulations by external cues, their secretory routes and their modes of action to adjust developmental growth and timing accordingly. These findings have the potential for identification of candidate factors and signaling pathways that mediate conserved interorgan crosstalk.
在营养和环境压力条件下,通过多个器官之间的相互通讯来维持生物体的内稳态。为此,高等生物已经发展出一种器官间通讯系统,通过该系统,一种组织可以影响远程器官、组织或细胞的代谢、活性或命运。在这篇综述中,我们讨论了最新的发现,强调了黑腹果蝇作为研究这些相互作用的强大模式生物的作用,它可能是描述器官间长距离通讯的最佳例证之一。在果蝇中,脂肪组织似乎是调节昆虫发育和行为的主要组织中心之一:它感知营养和激素信号,反过来又协调适当的脂肪因子的释放。我们讨论了最近发现的脂肪因子的性质和作用、它们对外界线索的调节、它们的分泌途径以及它们的作用模式,以相应地调整发育生长和时间。这些发现有可能确定候选因子和信号通路,这些因子和信号通路介导保守的器官间串扰。