Stomatal clustering in Begonia improves water use efficiency by modulating stomatal movement and leaf structure.

Q3 Agricultural and Biological Sciences Plant-environment interactions (Hoboken, N.J.) Pub Date : 2022-07-04 eCollection Date: 2022-08-01 DOI:10.1002/pei3.10086
Meng-Ying Tsai, Chi Kuan, Zheng-Lin Guo, Hsun-An Yang, Kuo-Fang Chung, Chin-Min Kimmy Ho
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Abstract

Stomata are a pivotal adaptation of land plants and control gas exchange. While most plants present solitary stomata, some plant species experiencing chronic water deficiency display clustered stomata on their epidermis; for instance, limestone-grown begonias. Moreover, the membrane receptor TOO MANY MOUTHS (TMM) plays a major role in spacing stomata on the epidermis in Arabidopsis, but the function of its Begonia orthologs is unknown. We used two Asian begonias, Begonia formosana (single stomata) and B. hernandioides (clustered stomata), to explore the physiological function of stomatal clustering. We also introduced the Begonia TMMs into Arabidopsis tmm mutants to study the function of Begonia TMMs. B. hernandioides showed higher water use efficiency under high light intensity, smaller stomata, and faster pore opening than B. formosana. The short distance between stomata in a cluster may facilitate cell-to-cell interactions to achieve synchronicity in stomatal movement. Begonia TMMs function similarly to Arabidopsis TMM to inhibit stomatal formation, although complementation by TMM from the clustered species was only partial. Stomatal clustering in begonias may represent a developmental strategy to build small and closer stomata to achieve fast responses to light which provides tight support between stomatal development and environmental adaption.

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海棠的气孔集群通过调节气孔运动和叶片结构提高水分利用效率。
气孔是陆生植物的一种重要适应性,控制着气体交换。虽然大多数植物的气孔是单生的,但一些长期缺水的植物物种表皮上的气孔却是群生的,例如石灰岩生长的秋海棠。此外,膜受体 "过多的嘴"(TMM)在拟南芥表皮气孔间距中起着重要作用,但其海棠直向同源物的功能尚不清楚。我们利用两种亚洲秋海棠--Begonia formosana(单气孔)和B. hernandioides(群集气孔)--来探索气孔群集的生理功能。我们还将海棠TMMs引入拟南芥tmm突变体,以研究海棠TMMs的功能。与B. formosana相比,B. hernandioides在高光照强度下表现出更高的水分利用效率、更小的气孔和更快的气孔开放速度。一簇气孔之间的短距离可能有利于细胞间的相互作用,从而实现气孔运动的同步性。海棠 TMM 在抑制气孔形成方面的功能与拟南芥 TMM 相似,但来自丛生物种的 TMM 只起部分互补作用。秋海棠的气孔集群可能代表了一种发育策略,即建立更小、更紧密的气孔,以实现对光的快速反应,从而在气孔发育和环境适应之间提供紧密的支持。
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审稿时长
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