Biphasic impacts of graphite-derived engineering carbon-based nanomaterials on plant performance: Effectiveness vs. nanotoxicity

Qingnan Wu , Chenjie Fan , Hezhong Wang , Yanlai Han , Fuju Tai , Jiakai Wu , Hui Li , Rui He
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引用次数: 7

Abstract

Graphite-derived carbon-based nanomaterials (GCNMs) as an exciting class of engineering carbonmaterials have been extensively exploited in environment and agriculture for pollution restorer, environmental purifier, plant growth stimulant, and stress resistance inducer. With the increasing demand of production in past decades, GCNMs were inevitably released into the natural environment and became emerging pollutants.

This review briefly summarized the recent progress on GCNMs-plant interaction with positive and negative sides, and discussed the biphasic (stimulatory-inhibitory) regulation of GCNMs on plant systems. The emphasis was placed on disseminating the latest scientific research, covering various effectiveness of GCNMs on plants and cells as well as nanotoxicity. Particularly, it is highlighted that fullerenes, carbon nanotubes, graphenes, and their functionalized forms as the representative zero-, one-, and two-dimensional GCNMs in optimum quantity have favorable efficacy on plants for seed germination, growth and development, fruit and productivity, and stress tolerance. On the contrary, GCNMs have possibly induced cytotoxicity and phytotoxicity on plant at anatomic, physiological, and genetic levels. The toxic mechanisms were mainly attributed to ion leakage from membrane, chloroplast damage, decreasing the levels of photosynthetic/nonphotosynthetic pigments and plant hormones, downregulating activities of metabolism and enzymatic/non-enzymatic antioxidant systems, or triggering ROS increase for inducing oxidative stress. This comprehensive review provides an in-depth insight of advanced progress made toward the utilization of GCNMs in plant science fields as well as current challenges. Future perspectives on a directional guide for further research in the emerging area of GCNMs-enabled phytonanotechnology are summarized at the end. This will possibly provide an important reference role for further study and rational application of GCNMs in agriculture.

石墨衍生的工程碳基纳米材料对植物性能的双相影响:有效性与纳米毒性
石墨衍生碳基纳米材料(GCNMs)作为一类令人兴奋的工程碳材料,在环境和农业中被广泛开发用于污染修复剂、环境净化器、植物生长促进剂和抗逆性诱导剂。在过去的几十年里,随着生产需求的增加,GCNMs不可避免地被释放到自然环境中,并成为新出现的污染物。本文简要综述了GCNMs与植物正、负相互作用的最新进展,并讨论了GCNMs对植物系统的双相(刺激-抑制)调控。重点是传播最新的科学研究,涵盖GCNMs对植物和细胞的各种有效性以及纳米毒性。特别是,值得强调的是,富勒烯、碳纳米管、石墨烯及其功能化形式作为最佳数量的代表性零、一和二维GCNMs,对植物的种子发芽、生长发育、果实和生产力以及抗逆性具有良好的功效。相反,GCNMs可能在解剖、生理和遗传水平上对植物产生细胞毒性和植物毒性。毒性机制主要归因于膜离子泄漏、叶绿体损伤、降低光合/非光合成色素和植物激素水平、下调代谢和酶促/非酶促抗氧化系统的活性,或触发ROS增加以诱导氧化应激。这篇全面的综述深入了解了GCNMs在植物科学领域的应用进展以及当前的挑战。最后总结了GCNMs支持的植物纳米技术新兴领域进一步研究的方向指南的未来前景。这将为GCNMs在农业中的进一步研究和合理应用提供重要的参考作用。
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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