生物钟与碳水化合物可得性之间的动态反馈解释了淀粉代谢对长夜的适应性反应

F. Feugier, A. Satake, T. Kinoshita
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引用次数: 1

摘要

我们通过改变叶片内部与昼夜节律相关的蔗糖输出速率和淀粉合成和降解速率来研究蔗糖水平的调节。我们允许这些变化动态变化,以减少在几个光/暗循环条件下的蔗糖饥饿。该模型成功地减少了叶片的饥饿,并显示出许多与观测相似的特征。最后,我们将叶片模型纳入包含根和分生组织的韧皮部网络中,这三者通过渗透压驱动的流动连接并交换蔗糖。全球模式允许器官之间的蔗糖共享和整体较低的饥饿水平。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Dynamical feedback between circadian clock and carbohydrate availability explains adaptive response of starch metabolism to longer night
We study the regulation of sucrose level by shifting the internal circadian related rates of sucrose export, and synthesis and degradation of starch in a leaf. We allow these shifts to change dynamically in order to reduce sucrose starvation in several light/dark cycle conditions. The model successfully reduces starvation in the leaf and show many features similar to observations. Finally we include the leaf model in a phloem network containing a root and a meristem, the three of them connected and exchanging sucrose by osmotic pressure driven flow. The global model allows sucrose sharing among organs and an overall lower starvation level.
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