Understanding how variable thermal environments affect the molecular mechanisms underlying temperature-sensitive phenotypes: lessons from sex determination.

R. Paitz, Anthony T Breitenbach, Rosario A. Marroquín-Flores, R. Bowden
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Abstract

The thermal environment that organisms experience can affect many aspects of their phenotype. As global temperatures become more unpredictable, it is imperative that we understand the molecular mechanisms by which organisms respond to variable, and often transient, thermal environments. Beyond deciphering the mechanisms through which organisms respond to temperature, we must also appreciate the underlying variation in temperature-dependent processes, as this variation is essential for understanding the potential to adapt to changing climates. In this Commentary, we use temperature-dependent sex determination as an example to explore the mechanistic processes underlying the development of temperature-sensitive phenotypes. We synthesize the current literature on how variable thermal conditions affect these processes and address factors that may limit or allow organisms to respond to variable environments. From these examples, we posit a framework for how the field might move forward in a more systematic way to address three key questions: (1) which genes directly respond to temperature-sensitive changes in protein function and which genes are downstream, indirect responders?; (2) how long does it take different proteins and genes to respond to temperature?; and (3) are the experimental temperature manipulations relevant to the climate the organism experiences or to predicted climate change scenarios? This approach combines mechanistic questions (questions 1 and 2) with ecologically relevant conditions (question 3), allowing us to explore how organisms respond to transient thermal environments and, thus, cope with climate change.
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了解不同的热环境如何影响温度敏感表型的分子机制:来自性别决定的教训。
生物体所经历的热环境可以影响其表型的许多方面。随着全球气温变得越来越不可预测,我们必须了解生物体对可变且通常是短暂的热环境做出反应的分子机制。除了破译生物体对温度的反应机制之外,我们还必须认识到温度依赖过程的潜在变化,因为这种变化对于理解适应气候变化的潜力至关重要。在这篇评论中,我们以温度依赖的性别决定为例,探讨了温度敏感表型发展的机制过程。我们综合了当前关于可变热条件如何影响这些过程的文献,并解决了可能限制或允许生物体对可变环境做出反应的因素。从这些例子中,我们为该领域如何以更系统的方式向前发展提出了一个框架,以解决三个关键问题:(1)哪些基因直接响应蛋白质功能的温度敏感变化,哪些基因是下游的间接应答者?(2)不同的蛋白质和基因对温度的反应需要多长时间?(3)实验温度操纵是否与生物所经历的气候有关,或与预测的气候变化情景有关?这种方法将机械问题(问题1和2)与生态相关条件(问题3)结合起来,使我们能够探索生物如何对短暂的热环境做出反应,从而应对气候变化。
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