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Ureide metabolism in plant-associated bacteria: purine plant-bacteria interactive scenarios under nitrogen deficiency

机译:植物相关细菌中的硫化物代谢:氮缺乏的嘌呤植物细菌交互式情景

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摘要

The erratic alterations in climate being experienced in agriculture, such as extended periods of drought or heavy rainfalls, are bringing increasing concerns about nitrogen (N) management. Even in high-input farming systems, unpredictable weather patterns can cause N deficiencies and result in nutrient losses that contribute to major pollution issues in groundwater, lakes, and even the oceans. Our present understanding of the beneficial interactions between N-deficient-challenged plants and plant-associated bacteria (PAB), mainly of the phyla Actinobacteria, Bacteroidetes, Firmicutes, and Proteobacteria, is largely based on studies performed at the level of whole-plant fitness and impacts of crop yields via the abilities of bacteria to synthesize indole acetic acid and/or produce the enzyme 1-aminocyclopropane-1-carboxylate deaminase which reduces endogenous ethylene levels. Much less is known about the complex interaction that occur from the PAB's abilities to produce N ureide (allantoin and allantoate) and how these purine intermediaries function as an N source and prime stress signals for the growth of both partners.
机译:在农业中遇到的气候发生不稳定,例如延长干旱或大雨,正在为氮气(n)管理产生越来越多的问题。即使在高投入的农业系统中,也可以导致不可预测的天气模式,导致N缺乏,导致营养损失导致地下水,湖泊甚至海洋的主要污染问题有助于。我们对N缺乏挑战性植物和植物相关细菌(PAB)之间的有益相互作用的了解,主要是Phyla actinobacteria,Bageroidetes,Formicocations,主要基于在全植物健身水平上进行的研究作物产量的影响通过细菌的能力合成吲哚乙酸和/或产生酶1-氨基环丙烷-1-羧酸盐脱氨酶,其降低内源性乙烯水平。关于从PAB产生N uREIDE(祖非素和丙酸盐)的复杂相互作用的复杂相互作用,以及这些嘌呤中间体如何用作两种合作伙伴的生长的N个源和主要应力信号。

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