Nano-silicon enhances tomato growth and antioxidant defense under salt stress

IF 5.8 2区 环境科学与生态学 Q1 CHEMISTRY, MULTIDISCIPLINARY Environmental Science: Nano Pub Date : 2024-10-08 DOI:10.1039/d4en00770k
Shuaibing Wang, Xiang Shen, Xin Guan, Li Sun, Yang Zhongxue, Dandan Wang, Yinglong Chen, Peiqiang Li, Zhihong Xie
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Abstract

With the rapid expansion of applications in agriculture, nanotechnology has emerged as an effective alternative for alleviating abiotic stress in plants. In this study, the effects of silicon nanoparticles (SiNPs) on Na+ accumulation and salt stress in tomatoes were investigated. The results showed that a concentration of 200 mg·L-1 SiNPs significantly improved tomato growth. Furthermore, photosynthesis and chlorophyll content showed positive responses to SiNPs treatment compared to salt treatment alone. Additionally, the application of 200 mg·L-1 SiNPs effectively mitigated salt-induced oxidative stress by increasing the activity of antioxidant enzymes and reducing the levels of H2O2 (by 41.59% and 34.40%) and MDA (by 45.47% and 49.99%). Simultaneously, SiNPs treatment led to significant increases in the contents of K+ and Si in tomato seedlings, while decreasing the absorption of Na+. qPCR results demonstrated that SiNPs significantly up-regulated the expression of genes related to antioxidant stress defense and salt tolerance. In summary, SiNPs hold promise as potential modifiers to enhance the response and tolerance to salt stress in tomatoes.
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纳米硅提高番茄在盐胁迫下的生长和抗氧化防御能力
随着纳米技术在农业领域应用的迅速扩大,它已成为缓解植物非生物胁迫的一种有效替代方法。本研究调查了硅纳米粒子(SiNPs)对番茄 Na+ 积累和盐胁迫的影响。结果表明,浓度为 200 mg-L-1 的 SiNPs 能显著改善番茄的生长。此外,与单独盐处理相比,SiNPs 处理的光合作用和叶绿素含量也显示出积极的反应。此外,施用 200 mg-L-1 SiNPs 还能提高抗氧化酶的活性,降低 H2O2(41.59% 和 34.40%)和 MDA(45.47% 和 49.99%)的水平,从而有效缓解盐引起的氧化应激。qPCR 结果表明,SiNPs 能显著上调抗氧化应激防御和耐盐性相关基因的表达。总之,SiNPs 有望成为潜在的调节剂,增强番茄对盐胁迫的响应和耐受性。
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来源期刊
Environmental Science: Nano
Environmental Science: Nano CHEMISTRY, MULTIDISCIPLINARY-ENVIRONMENTAL SCIENCES
CiteScore
12.20
自引率
5.50%
发文量
290
审稿时长
2.1 months
期刊介绍: Environmental Science: Nano serves as a comprehensive and high-impact peer-reviewed source of information on the design and demonstration of engineered nanomaterials for environment-based applications. It also covers the interactions between engineered, natural, and incidental nanomaterials with biological and environmental systems. This scope includes, but is not limited to, the following topic areas: Novel nanomaterial-based applications for water, air, soil, food, and energy sustainability Nanomaterial interactions with biological systems and nanotoxicology Environmental fate, reactivity, and transformations of nanoscale materials Nanoscale processes in the environment Sustainable nanotechnology including rational nanomaterial design, life cycle assessment, risk/benefit analysis
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