Plant cell walls: Emerging targets of stomata engineering to improve photosynthesis and water use efficiency

Yueyuan Wang, Pan Li, Wan Sun, Tian Zhang
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Abstract

Stomata are tiny pores on leaf surfaces essential for plant transpiration and photosynthesis. As gatekeepers that mediate gas exchange between plants and the atmosphere, stomata exert a major influence on global carbon and water cycles. The shape and function of stomata are physically constrained by stomatal walls. Compared to the extensively studied genetic mechanisms of stomatal development and guard cell signaling, recent progress is only beginning to uncover the role of plant cell walls in stomatal development and dynamics. In this review, we summarize the research on cell walls of the kidney-shaped stomata from dicots and the dumbbell-shaped stomata from grasses. As the dynamic response of grass stomata is closely linked to its anatomical features that are limited by cell walls, we discuss the potential of plant cell walls as crucial targets for crop engineering to enhance carbon assimilation and water use efficiency.

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植物细胞壁:提高光合作用和水分利用效率的气孔工程新目标
气孔是叶片表面的小孔,对植物的蒸腾作用和光合作用至关重要。作为介导植物与大气之间气体交换的守门员,气孔对全球碳循环和水循环产生了重大影响。气孔的形状和功能受到气孔壁的物理限制。与广泛研究的气孔发育和保卫细胞信号传导的遗传机制相比,最近的研究进展才刚刚开始揭示植物细胞壁在气孔发育和动态中的作用。在这篇综述中,我们总结了有关双子叶植物肾形气孔和禾本科植物哑铃形气孔细胞壁的研究。由于禾本科植物气孔的动态响应与其受细胞壁限制的解剖学特征密切相关,我们讨论了植物细胞壁作为作物工程学关键目标的潜力,以提高碳同化和水分利用效率。
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