Aquaporin mediated silicon-enhanced root hydraulic conductance is benefit to cadmium dilution in tobacco seedlings

蒸腾作用 水通道蛋白 化学 含水量 气孔导度 园艺 环境化学 生物物理学 生物 生物化学 光合作用 有机化学 岩土工程 工程类
作者
Zhiguo Liu,Lei Hou,Jiyuan Yan,Parvaiz Ahmad,Mengzhan Qin,R N Li,Mohamed A. El‐Sheikh,Rupesh Deshmukh,Sreeja Sudhakaran,Basharat Ali,Li Zhang,Long Yang,Peng Liu
出处
期刊:Journal of Hazardous Materials [Elsevier BV]
卷期号:476: 134905-134905 被引量:5
标识
DOI:10.1016/j.jhazmat.2024.134905
摘要

Numerous studies shown that silicon (Si) enhanced plants' resistance to cadmium (Cd). Most studies primarily focused on investigating the impact of Si on Cd accumulation. However, there is a lack of how Si enhanced Cd resistance through regulation of water balance. The study demonstrated that Si had a greater impact on increasing fresh weight compared to dry weight under Cd stress. This effect was mainly attributed to Si enhanced plant relative water content (RWC). Plant water content depends on the dynamic balance of water loss and water uptake. Our findings revealed that Si increased transpiration rate and stomatal conductance, leading to higher water loss. This, in turn, negatively impacted water content. The increased water content caused by Si could ascribe to improve root water uptake. The Si treatment significantly increased root hydraulic conductance (Lpr) by 131 % under Cd stress. This enhancement was attributed to Si upregulation genes expression of NtPIP1;1, NtPIP1;2, NtPIP1;3, and NtPIP2;1. Through meticulously designed scientific experiments, this study showed that Si enhanced AQP activity, leading to increased water content that diluted Cd concentration and ultimately improved plant Cd resistance. These findings offered fresh insights into the role of Si in bolstering plant resistance to Cd.
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