Potassium transporter OsHAK17 may contribute to saline-alkaline tolerant mechanisms in rice (Oryza sativa).

IF 2.7 3区 生物学 Q2 PLANT SCIENCES Journal of Plant Research Pub Date : 2024-05-01 Epub Date: 2024-03-01 DOI:10.1007/s10265-024-01529-0
Mami Nampei, Hiromu Ogi, Tanee Sreewongchai, Sho Nishida, Akihiro Ueda
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Abstract

Rice production is seriously affected by saline-alkaline stress worldwide. To elucidate the saline-alkaline tolerance mechanisms in a novel tolerant rice variety, Shwe Nang Gyi (SNG), we investigated ion accumulation in SNG and Koshihikari (KSH), which is a saline-alkaline sensitive rice variety, and the candidates for saline-alkaline inducible genes in SNG using RNA-seq. SNG had superior ion accumulation capacity, such as K and Zn, compared to KSH. In contrast, SNG accumulated the same level of Na content in its leaf blades as KSH despite the higher dry weight of the SNG leaf blades. We further found that the expression of numerous genes, including several K+ transporter/high-affinity K+ transporter/K+ uptake protein/K+ transporter (HAK/KUP/KT) family members, were upregulated in SNG, and that OsHAK17 and OsHAK21 expression levels in the roots were significantly higher in SNG than in KSH. Moreover, yeast complementation analysis revealed that OsHAK17 was involved in K+ uptake under high-Na conditions. These results suggested that SNG has an effective K+ acquisition system supported by OsHAK17 functioning in saline-alkaline environments.

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钾转运体 OsHAK17 可能有助于水稻(Oryza sativa)的耐盐碱机制。
全世界的水稻生产都受到盐碱胁迫的严重影响。为了阐明耐盐碱水稻新品种 Shwe Nang Gyi(SNG)的耐盐碱机制,我们利用 RNA-seq 技术研究了 SNG 和 Koshihikari(KSH)(KSH 是对盐碱敏感的水稻品种)的离子积累情况,以及 SNG 中候选的盐碱诱导基因。与 KSH 相比,SNG 的钾、锌等离子积累能力更强。相比之下,尽管SNG叶片干重较高,但其叶片中积累的Na含量与KSH相同。我们进一步发现,SNG中包括多个K+转运体/高亲和性K+转运体/K+摄取蛋白/K+转运体(HAK/KUP/KT)家族成员在内的许多基因表达上调,根中OsHAK17和OsHAK21的表达水平明显高于KSH。此外,酵母互补分析表明,OsHAK17参与了高Na条件下的K+吸收。这些结果表明,在盐碱环境中,SNG具有一个由OsHAK17支持的有效的K+获取系统。
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来源期刊
Journal of Plant Research
Journal of Plant Research 生物-植物科学
CiteScore
5.40
自引率
3.60%
发文量
59
审稿时长
1 months
期刊介绍: The Journal of Plant Research is an international publication that gathers and disseminates fundamental knowledge in all areas of plant sciences. Coverage extends to every corner of the field, including such topics as evolutionary biology, phylogeography, phylogeny, taxonomy, genetics, ecology, morphology, physiology, developmental biology, cell biology, molecular biology, biochemistry, biophysics, bioinformatics, and systems biology. The journal presents full-length research articles that describe original and fundamental findings of significance that contribute to understanding of plants, as well as shorter communications reporting significant new findings, technical notes on new methodology, and invited review articles.
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