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组成型萎蔫1,水稻YUCCA基因家族的一个成员,是维持水分稳态和适当根冠比所必需的。

Constitutively wilted 1, a member of the rice YUCCA gene family, is required for maintaining water homeostasis and an appropriate root to shoot ratio.

作者信息

Woo Young-Min, Park Hee-Jin, Su'udi Mukhamad, Yang Jung-Il, Park Jong-Jin, Back Kyoungwhan, Park Yong-Mok, An Gynheung

机构信息

National Research Laboratory of Plant Functional Genomics, Division of Molecular and Life Sciences, Pohang University of Science and Technology, Pohang, Korea.

出版信息

Plant Mol Biol. 2007 Sep;65(1-2):125-36. doi: 10.1007/s11103-007-9203-6. Epub 2007 Jul 6.

DOI:10.1007/s11103-007-9203-6
PMID:17619151
Abstract

Increasing its root to shoot ratio is a plant strategy for restoring water homeostasis in response to the long-term imposition of mild water stress. In addition to its important role in diverse fundamental processes, indole-3-acetic acid (IAA) is involved in root growth and development. Recent extensive characterizations of the YUCCA gene family in Arabidopsis and rice have elucidated that member's function in a tryptophan-dependent IAA biosynthetic pathway. Through forward- and reverse-genetics screening, we have isolated Tos17 and T-DNA insertional rice mutants in a CONSTITUTIVELY WILTED1 (COW1) gene, which encodes a new member of the YUCCA protein family. Homozygous plants with either a Tos17 or T-DNA-inserted allele of OsCOW1 exhibit phenotypes of rolled leaves, reduced leaf widths, and lower root to shoot ratios. These phenotypes are evident in seedlings as early as 7-10 d after germination, and remain until maturity. When oscow1 seedlings are grown under low-intensity light and high relative humidity, the rolled-leaf phenotype is greatly alleviated. For comparison, in such conditions, the transpiration rate for WT leaves decreases approx. 5- to 10-fold, implying that this mutant trait results from wilting rather than being a morphogenic defect. Furthermore, a lower turgor potential and transpiration rate in their mature leaves indicates that oscow1 plants are water-deficient, due to insufficient water uptake that possibly stems from that diminished root to shoot ratio. Thus, our observations suggest that OsCOW1-mediated IAA biosynthesis plays an important role in maintaining root to shoot ratios and, in turn, affects water homeostasis in rice.

摘要

提高根冠比是植物在长期受到轻度水分胁迫时恢复水分平衡的一种策略。除了在多种基本过程中发挥重要作用外,吲哚-3-乙酸(IAA)还参与根的生长和发育。最近对拟南芥和水稻中YUCCA基因家族的广泛表征阐明了其成员在色氨酸依赖性IAA生物合成途径中的功能。通过正向和反向遗传学筛选,我们分离出了水稻CONSTITUTIVELY WILTED1(COW1)基因中的Tos17和T-DNA插入突变体,该基因编码YUCCA蛋白家族的一个新成员。具有OsCOW1的Tos17或T-DNA插入等位基因的纯合植株表现出卷叶、叶宽减小和根冠比降低的表型。这些表型在发芽后7-10天的幼苗中就很明显,并一直持续到成熟。当oscow1幼苗在低强度光照和高相对湿度条件下生长时,卷叶表型会大大减轻。相比之下,在这种条件下,野生型叶片的蒸腾速率大约降低5至10倍,这意味着这种突变性状是由萎蔫引起的,而不是形态发生缺陷。此外,它们成熟叶片的较低膨压势和蒸腾速率表明oscow1植株缺水,这可能是由于根冠比降低导致水分吸收不足。因此,我们的观察结果表明,OsCOW1介导的IAA生物合成在维持根冠比中起重要作用,进而影响水稻的水分平衡。

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