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高等植物磷酸盐饥饿响应的调控。

Regulation of phosphate starvation responses in higher plants.

机构信息

School of Plant Biology, University of Western Australia, Crawley, WA 6009, Australia.

出版信息

Ann Bot. 2010 Apr;105(4):513-26. doi: 10.1093/aob/mcq015. Epub 2010 Feb 24.

Abstract

BACKGROUND

Phosphorus (P) is often a limiting mineral nutrient for plant growth. Many soils worldwide are deficient in soluble inorganic phosphate (P(i)), the form of P most readily absorbed and utilized by plants. A network of elaborate developmental and biochemical adaptations has evolved in plants to enhance P(i) acquisition and avoid starvation.

SCOPE

Controlling the deployment of adaptations used by plants to avoid P(i) starvation requires a sophisticated sensing and regulatory system that can integrate external and internal information regarding P(i) availability. In this review, the current knowledge of the regulatory mechanisms that control P(i) starvation responses and the local and long-distance signals that may trigger P(i) starvation responses are discussed. Uncharacterized mutants that have P(i)-related phenotypes and their potential to give us additional insights into regulatory pathways and P(i) starvation-induced signalling are also highlighted and assessed.

CONCLUSIONS

An impressive list of factors that regulate P(i) starvation responses is now available, as is a good deal of knowledge regarding the local and long-distance signals that allow a plant to sense and respond to P(i) availability. However, we are only beginning to understand how these factors and signals are integrated with one another in a regulatory web able to control the range of responses demonstrated by plants grown in low P(i) environments. Much more knowledge is needed in this agronomically important area before real gains can be made in improving P(i) acquisition in crop plants.

摘要

背景

磷(P)通常是植物生长的限制矿质营养元素。世界上许多土壤中缺乏可溶性无机磷(P(i)),这是植物最容易吸收和利用的磷形式。植物已经进化出了一套复杂的发育和生化适应机制,以增强 P(i)的获取并避免饥饿。

范围

控制植物用于避免 P(i)饥饿的适应机制的部署需要一个复杂的感应和调节系统,该系统可以整合关于 P(i)可用性的外部和内部信息。在这篇综述中,讨论了控制 P(i)饥饿反应的调节机制以及可能触发 P(i)饥饿反应的局部和长距离信号的当前知识。还突出和评估了具有与 P(i)相关表型的未表征突变体及其为我们提供更多关于调节途径和 P(i)饥饿诱导信号的见解的潜力。

结论

现在已经有了一长串调节 P(i)饥饿反应的因素,并且对于允许植物感知和响应 P(i)可用性的局部和长距离信号也有了很好的了解。然而,我们才刚刚开始理解这些因素和信号如何在一个调节网络中相互整合,该网络能够控制在低 P(i)环境中生长的植物所表现出的一系列反应。在这个农业上重要的领域,需要更多的知识,才能在提高作物植物的 P(i)获取方面取得真正的进展。

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