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磷胁迫对硝酸盐同化的影响。

Phosphorus stress effects on assimilation of nitrate.

机构信息

U.S. Department of Agriculture, Agricultural Research Service, North Carolina State University, Raleigh, NC 27695-7620.

出版信息

Plant Physiol. 1990 Sep;94(1):328-33. doi: 10.1104/pp.94.1.328.

DOI:10.1104/pp.94.1.328
PMID:16667705
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1077228/
Abstract

An experiment was conducted to investigate alterations in uptake and assimilation of NO(3) (-) by phosphorus-stressed plants. Young tobacco plants (Nicotiana tabacum [L.], cv NC 2326) growing in solution culture were deprived of an external phosphorus (P) supply for 12 days. On selected days, plants were exposed to (15)NO(3) (-) during the 12 hour light period to determine changes in NO(3) (-) assimilation as the P deficiency progressed. Decreased whole-plant growth was evident after 3 days of P deprivation and became more pronounced with time, but root growth was unaffected until after day 6. Uptake of (15)NO(3) (-) per gram root dry weight and translocation of absorbed (15)NO(3) (-) out of the root were noticeably restricted in -P plants by day 3, and effects on both increased in severity with time. Whole-plant reduction of (15)NO(3) (-) and (15)N incorporation into insoluble reduced-N in the shoot decreased after day 3. Although the P limitation was associated with a substantial accumulation of amino acids in the shoot, there was no indication of excessive accumulation of soluble reduced-(15)N in the shoot during the 12 hour (15)NO(3) (-) exposure periods. The results indicate that alterations in NO(3) (-) transport processes in the root system are the primary initial responses limiting synthesis of shoot protein in P-stressed plants. Elevated amino acid levels evidently are associated with enhanced degradation of protein rather than inhibition of concurrent protein synthesis.

摘要

进行了一项实验,以研究磷胁迫下植物对硝酸盐(NO3-)吸收和同化的变化。在溶液培养中生长的年轻烟草植物(Nicotiana tabacum [L.], cv NC 2326)在 12 天内被剥夺了外部磷(P)供应。在选定的日子里,植物在 12 小时光照期间暴露于(15)NO3-(-)下,以确定随着 P 缺乏的进展,NO3-(-)同化的变化。在 P 剥夺 3 天后,整个植物的生长明显减少,随着时间的推移变得更加明显,但根的生长直到第 6 天才受到影响。在-P 植物中,每克根干重的(15)NO3-(-)吸收和吸收的(15)NO3-(-)从根部转运出来的量在第 3 天就明显受到限制,随着时间的推移,这两种影响的严重程度都有所增加。整个植物对(15)NO3-(-)的还原和(15)N 掺入到地上部不可溶性还原-N 中的还原减少在第 3 天后发生。尽管 P 限制与地上部氨基酸的大量积累有关,但在 12 小时(15)NO3-(-)暴露期间,地上部并没有出现可溶性还原-(15)N 过度积累的迹象。结果表明,根系中硝酸盐(NO3-)运输过程的改变是限制 P 胁迫下植物地上部蛋白质合成的最初主要反应。氨基酸水平的升高显然与蛋白质的降解增强有关,而不是与同时的蛋白质合成抑制有关。

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