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果蝇器官大小调控中 Salvador-Warts-Hippo 通路成员的差异需求。

Differential requirement of Salvador-Warts-Hippo pathway members for organ size control in Drosophila melanogaster.

机构信息

Cell Growth and Proliferation Laboratory, Peter MacCallum Cancer Centre, East Melbourne, Victoria 3002, Australia.

出版信息

Development. 2010 Mar;137(5):735-43. doi: 10.1242/dev.042309. Epub 2010 Jan 28.

DOI:10.1242/dev.042309
PMID:20110315
Abstract

The Salvador-Warts-Hippo (SWH) pathway contains multiple growth-inhibitory proteins that control organ size during development by limiting activity of the Yorkie oncoprotein. Increasing evidence indicates that these growth inhibitors act in a complex network upstream of Yorkie. This complexity is emphasised by the distinct phenotypes of tissue lacking different SWH pathway genes. For example, eye tissue lacking the core SWH pathway components salvador, warts or hippo is highly overgrown and resistant to developmental apoptosis, whereas tissue lacking fat or expanded is not. Here we explore the relative contribution of SWH pathway proteins to organ size control by determining their temporal activity profile throughout Drosophila melanogaster eye development. We show that eye tissue lacking fat, expanded or discs overgrown displays elevated Yorkie activity during the larval growth phase of development, but not in the pupal eye when apoptosis ensues. Fat and Expanded do possess Yorkie-repressive activity in the pupal eye, but loss of fat or expanded at this stage of development can be compensated for by Merlin. Fat appears to repress Yorkie independently of Dachs in the pupal eye, which would contrast with the mode of action of Fat during larval development. Fat is more likely to restrict Yorkie activity in the pupal eye together with Expanded, given that pupal eye tissue lacking both these genes resembles that of tissue lacking either gene. This study highlights the complexity employed by different SWH pathway proteins to control organ size at different stages of development.

摘要

萨尔瓦多-沃茨-河马(SWH)通路包含多种生长抑制蛋白,通过限制 Yorkie 癌蛋白的活性来控制发育过程中的器官大小。越来越多的证据表明,这些生长抑制剂在 Yorkie 的上游以复杂的网络形式发挥作用。这种复杂性在缺乏不同 SWH 通路基因的组织的独特表型中得到强调。例如,缺乏核心 SWH 通路成分萨尔瓦多、沃茨或河马的眼部组织过度生长且对发育性细胞凋亡有抗性,而缺乏脂肪或扩大的组织则没有。在这里,我们通过确定它们在果蝇眼睛发育过程中的时间活性谱,探索 SWH 通路蛋白对器官大小控制的相对贡献。我们表明,缺乏脂肪、扩大或过度生长的盘状结构的眼部组织在幼虫生长阶段的发育过程中表现出升高的 Yorkie 活性,但在随后发生凋亡的蛹眼中没有。脂肪和扩大在蛹眼中确实具有抑制 Yorkie 的活性,但在这个发育阶段丧失脂肪或扩大可以由 Merlin 补偿。脂肪在蛹眼中独立于 Dachs 抑制 Yorkie 的活性,这与脂肪在幼虫发育过程中的作用模式形成对比。鉴于缺乏这两个基因的蛹眼组织类似于缺乏任何一个基因的组织,脂肪更有可能与扩大一起限制蛹眼中的 Yorkie 活性。本研究强调了不同 SWH 通路蛋白在发育的不同阶段控制器官大小所采用的复杂性。

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Development. 2010 Mar;137(5):735-43. doi: 10.1242/dev.042309. Epub 2010 Jan 28.
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