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光合作用对氮缺乏的生理响应。

The physiological response of photosynthesis to nitrogen deficiency.

机构信息

College of Agronomy, Henan Agricultural University, Zhengzhou, 450002, PR China.

College of Resources and Environment, Qingdao Agricultural University, Qingdao, Shandong, 266109, PR China.

出版信息

Plant Physiol Biochem. 2021 Jan;158:76-82. doi: 10.1016/j.plaphy.2020.11.019. Epub 2020 Nov 17.

DOI:10.1016/j.plaphy.2020.11.019
PMID:33296848
Abstract

Nitrogen (N), as a macro-element, plays a vital role in plant growth and development. N deficiency affects plant productivity by decreasing photosynthesis, leaf area and longevity of green leaf. To date, many studies have reported that the relationship between photosynthesis and N supply. Here, we summarized the physiological response of photosynthesis to N deficiency in leaf structure and N allocation within the leaf. In serious N stress, photosynthetic rate decreases for almost all plants. The reasons as follows:(1) reducing stomatal conductance of mesophyll cell (g) and bundle sheath cells (g) which influences intercellular CO concentration; (2) reducing the content of bioenergetics and light-harvesting protein which inhibits electron transport rate and increase the light energy dissipated as heat; (3) reducing the content and/or activity of photosynthetic enzymes which reduces carboxylation rate. During reproductive stage, N stress induces plant senescence and N components degradation, especially photosynthetic enzymes and thylakoid N, and thus reduces photosynthesis. To keep high grain yield in low N deficiency, we should choose the genotype with higher N allocation within bioenergetics and lower degradation of photosynthetic enzymes. This review provides a generalized N allocation in response to N stress and gives a new prospect for breeding N-efficient genotypes.

摘要

氮(N)作为一种大量元素,对植物的生长和发育起着至关重要的作用。N 缺乏会通过降低光合作用、叶面积和绿叶寿命来影响植物的生产力。迄今为止,许多研究报告了光合作用与 N 供应之间的关系。在这里,我们总结了光合作用对叶片结构和叶片内 N 分配中 N 缺乏的生理响应。在严重的 N 胁迫下,几乎所有植物的光合速率都会下降。原因如下:(1)降低了影响细胞间 CO2 浓度的叶肉细胞(g)和束鞘细胞(g)的气孔导度;(2)降低了生物能和光捕获蛋白的含量,从而抑制电子传递速率并增加光能以热量的形式耗散;(3)降低了光合酶的含量和/或活性,从而降低了羧化速率。在生殖期,N 胁迫会诱导植物衰老和 N 成分降解,特别是光合酶和类囊体 N,从而降低光合作用。为了在低 N 缺乏下保持高谷物产量,我们应该选择具有更高生物能内 N 分配和更低光合酶降解的基因型。本综述提供了对 N 胁迫的一般 N 分配,并为培育 N 高效基因型提供了新的前景。

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