Nanotechnology Is the Potential Cause of Phytotoxicity

Syeda Hafsa Ali, Syeda Ayesha Ali
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引用次数: 2

Abstract

Nanoparticles due to its unique properties are a serious threat to the environment and health. Nanotechnology is an emerging industry with the use of nanoparticles in more than 800 products and this demand is expected to increase in the next few years. Usage of nano-technological products has spread nanoparticles into the environment during its manufacture, usage or disposal through water, air, and soil. The unintentional spread of nanoparticles have accelerated a robust debate among the scientific community and have drawn attention towards the potential impact of nanotoxicity in the environment. The physiochemical properties and reactivity of nanoparticles differ not only between nanoparticle with different chemical composition but also among identical nanoparticles with different shape, size, surface properties, and crystalline structure. Phytotoxicity occurs as nanoparticles are uptaken, translocated, or localized in a plant. Consequently, affecting germination rate, physiological processes that disrupt cell integrity at the molecular level and causes detrimental effects on plant growth and development of various crops. This toxicity produces Reactive Oxygen Species (ROS) that causes DNA damage and lipid peroxidation. However, these free radicals are actively scavenged by antioxidant enzymes to repair the damage and help the plant to withstand the stress. However, the continuous increase of nanoparticles can permanently damage the plant thereby reducing its ability to withstand. Therefore, cost-effective strategies are required to overcome the risk of nanoparticles.
纳米技术是植物毒性的潜在原因
纳米粒子由于其独特的性质,对环境和健康构成严重威胁。纳米技术是一个新兴产业,在800多种产品中使用纳米颗粒,预计未来几年这种需求将增加。纳米技术产品的使用在其制造、使用或处置过程中通过水、空气和土壤将纳米颗粒扩散到环境中。纳米颗粒的无意传播在科学界引发了激烈的争论,并引起了人们对纳米毒性对环境的潜在影响的关注。纳米粒子的物理化学性质和反应活性不仅在不同化学成分的纳米粒子之间存在差异,而且在相同的纳米粒子之间,不同形状、大小、表面性质和晶体结构的纳米粒子之间也存在差异。当纳米颗粒被植物吸收、转移或定位时,植物毒性就会发生。因此,影响发芽率的生理过程在分子水平上破坏细胞完整性,对各种作物的生长发育产生有害影响。这种毒性产生活性氧(ROS),导致DNA损伤和脂质过氧化。然而,这些自由基被抗氧化酶积极清除,修复损伤,帮助植物抵御压力。然而,纳米颗粒的持续增加会永久性地损害植物,从而降低其承受能力。因此,需要具有成本效益的策略来克服纳米颗粒的风险。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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