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改变蔗糖代谢活性对马铃薯气孔功能和水分利用效率的影响。

Changes in stomatal function and water use efficiency in potato plants with altered sucrolytic activity.

机构信息

Departamento de Biologia Vegetal, Universidade Federal de Viçosa, 36570-000 Viçosa, MG, Brazil.

出版信息

Plant Cell Environ. 2012 Apr;35(4):747-59. doi: 10.1111/j.1365-3040.2011.02448.x. Epub 2011 Nov 23.

DOI:10.1111/j.1365-3040.2011.02448.x
PMID:21999376
Abstract

As water availability for agriculture decreases, breeding or engineering of crops with improved water use efficiency (WUE) will be necessary. As stomata are responsible for controlling gas exchange across the plant epidermis, metabolic processes influencing solute accumulation in guard cells are potential targets for engineering. In addition to its role as an osmoticum, sucrose breakdown may be required for synthesis of other osmotica or generation of the ATP needed for solute uptake. Thus, alterations in partitioning of sucrose between storage and breakdown may affect stomatal function. In agreement with this hypothesis, potato (Solanum tuberosum) plants expressing an antisense construct targeted against sucrose synthase 3 (SuSy3) exhibited decreased stomatal conductance, a slight reduction in CO(2) fixation and increased WUE. Conversely, plants with increased guard cell acid invertase activity caused by the introduction of the SUC2 gene from yeast had increased stomatal conductance, increased CO(2) fixation and decreased WUE. (14)CO(2) feeding experiments indicated that these effects cannot be attributed to alterations in photosynthetic capacity, and most likely reflect alterations in stomatal function. These results highlight the important role that sucrose breakdown may play in guard cell function and indicate the feasibility of manipulating plant WUE through engineering of guard cell sucrose metabolism.

摘要

随着农业可用水资源的减少,培育或工程改造具有提高水分利用效率(WUE)的作物将是必要的。由于气孔负责控制植物表皮的气体交换,因此影响保卫细胞溶质积累的代谢过程可能是工程改造的潜在目标。除了作为渗透物的作用外,蔗糖分解可能是合成其他渗透物或产生溶质吸收所需的 ATP 所必需的。因此,蔗糖在储存和分解之间的分配的改变可能会影响气孔功能。与该假说一致的是,表达针对蔗糖合酶 3(SuSy3)的反义构建体的马铃薯(Solanum tuberosum)植物表现出气孔导度降低,CO2 固定略微减少和 WUE 增加。相反,通过从酵母引入 SUC2 基因导致保卫细胞酸性转化酶活性增加的植物具有增加的气孔导度、增加的 CO2 固定和降低的 WUE。14CO2 喂养实验表明,这些影响不能归因于光合作用能力的改变,很可能反映了气孔功能的改变。这些结果突出表明蔗糖分解可能在保卫细胞功能中起重要作用,并表明通过工程改造保卫细胞蔗糖代谢来操纵植物 WUE 的可行性。

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