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乙烯和一氧化氮参与调控双子叶植物缺铁和缺磷响应。

Ethylene and Nitric Oxide Involvement in the Regulation of Fe and P Deficiency Responses in Dicotyledonous Plants.

机构信息

Department of Botany, Ecology and Plant Physiology, Campus de Excelencia Internacional Agroalimentario, Universidad de Córdoba, 14071 Córdoba, Spain.

Department of Biochemistry and Molecular Biology, Campus de Excelencia Internacional Agroalimentario, Universidad de Córdoba, 14071 Córdoba, Spain.

出版信息

Int J Mol Sci. 2021 May 5;22(9):4904. doi: 10.3390/ijms22094904.

DOI:10.3390/ijms22094904
PMID:34063156
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC8125717/
Abstract

Iron (Fe) and phosphorus (P) are two essential elements for plant growth. Both elements are abundant in soils but with poor availability for plants, which favor their acquisition by developing morphological and physiological responses in their roots. Although the regulation of the genes related to these responses is not totally known, ethylene (ET) and nitric oxide (NO) have been involved in the activation of both Fe-related and P-related genes. The common involvement of ET and NO suggests that they must act in conjunction with other specific signals, more closely related to each deficiency. Among the specific signals involved in the regulation of Fe- or P-related genes have been proposed Fe-peptides (or Fe ion itself) and microRNAs, like miR399 (P), moving through the phloem. These Fe- or P-related phloem signals could interact with ET/NO and confer specificity to the responses to each deficiency, avoiding the induction of the specific responses when ET/NO increase due to other nutrient deficiencies or stresses. Besides the specificity conferred by these signals, ET itself could confer specificity to the responses to Fe- or P-deficiency by acting through different signaling pathways in each case. Given the above considerations, there are preliminary results suggesting that ET could regulate different nutrient responses by acting both in conjunction with other signals and through different signaling pathways. Because of the close relationship among these two elements, a better knowledge of the physiological and molecular basis of their interaction is necessary to improve their nutrition and to avoid the problems associated with their misuse. As examples of this interaction, it is known that Fe chlorosis can be induced, under certain circumstances, by a P over- fertilization. On the other hand, Fe oxides can have a role in the immobilization of P in soils. Qualitative and quantitative assessment of the dynamic of known Fe- and P-related genes expression, selected ad hoc and involved in each of these deficiencies, would allow us to get a profound knowledge of the processes that regulate the responses to both deficiencies. The better knowledge of the regulation by ET of the responses to these deficiencies is necessary to properly understand the interactions between Fe and P. This will allow the obtention of more efficient varieties in the absorption of P and Fe, and the use of more rational management techniques for P and Fe fertilization. This will contribute to minimize the environmental impacts caused by the use of P and Fe fertilizers (Fe chelates) in agriculture and to adjust the costs for farmers, due to the high prices and/or scarcity of Fe and P fertilizers. This review aims to summarize the latest advances in the knowledge about Fe and P deficiency responses, analyzing the similarities and differences among them and considering the interactions among their main regulators, including some hormones (ethylene) and signaling substances (NO and GSNO) as well as other P- and Fe-related signals.

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/456e/8125717/1d95cab08135/ijms-22-04904-g002.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/456e/8125717/010b39d2caca/ijms-22-04904-g001.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/456e/8125717/1d95cab08135/ijms-22-04904-g002.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/456e/8125717/010b39d2caca/ijms-22-04904-g001.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/456e/8125717/1d95cab08135/ijms-22-04904-g002.jpg
摘要

铁(Fe)和磷(P)是植物生长所必需的两种元素。这两种元素在土壤中含量丰富,但植物可利用性差,因此它们通过在根部发育形态和生理反应来获取这些元素。尽管与这些反应相关的基因的调控还不完全清楚,但乙烯(ET)和一氧化氮(NO)已参与到 Fe 相关基因和 P 相关基因的激活中。ET 和 NO 的共同参与表明,它们必须与其他更接近每种缺乏的特定信号一起作用。在调节 Fe 或 P 相关基因的特定信号中,已经提出了 Fe 肽(或 Fe 离子本身)和 microRNAs,如 miR399(P),通过韧皮部移动。这些 Fe 或 P 相关的韧皮部信号可以与 ET/NO 相互作用,并为每种缺乏症的反应赋予特异性,避免由于其他养分缺乏或胁迫导致 ET/NO 增加时诱导特定反应。除了这些信号赋予的特异性之外,ET 本身还可以通过在每种情况下通过不同的信号通路来作用,为对 Fe 或 P 缺乏的反应赋予特异性。鉴于上述考虑,有初步结果表明,ET 可以通过与其他信号一起作用并通过不同的信号通路来调节不同的养分反应。由于这两种元素之间的密切关系,因此需要更好地了解它们相互作用的生理和分子基础,以改善它们的营养并避免与它们的滥用相关的问题。作为这种相互作用的例子,已知在某些情况下,P 过度施肥会导致 Fe 缺绿症。另一方面,Fe 氧化物在土壤中 P 的固定化中可以发挥作用。专门选择并参与这些缺乏症的已知 Fe 和 P 相关基因表达的定性和定量评估,将使我们能够深入了解调节对这两种缺乏症的反应的过程。更好地了解 ET 对这些缺乏症的反应的调节对于正确理解 Fe 和 P 之间的相互作用是必要的。这将使我们能够获得对 P 和 Fe 吸收更有效的品种,并使用更合理的 P 和 Fe 施肥管理技术。这将有助于最大限度地减少农业中使用 P 和 Fe 肥料(Fe 螯合物)所造成的环境影响,并由于 Fe 和 P 肥料的高价格和/或稀缺性而调整农民的成本。本综述旨在总结关于 Fe 和 P 缺乏反应的最新知识进展,分析它们之间的相似性和差异,并考虑它们的主要调节剂之间的相互作用,包括一些激素(乙烯)和信号物质(NO 和 GSNO)以及其他 P 和 Fe 相关信号。

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