Fostering nanoscience’s strategies: A new frontier in sustainable crop improvement for abiotic stress tolerance

Biswajit Mohapatra , Shivangi Chamoli , Prafull Salvi , Saurabh C. Saxena
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引用次数: 3

Abstract

Advanced nano-engineering is a convenient technology to attain food security and ensure sustainable agricultural yield and productivity. In addition to addressing the yield barrier, the application of nanoscience emphasizes its potential through innovations such as precision farming, site-targeted delivery of agrochemicals, disease control, and mitigation of environmental stresses in plants. Abiotic stresses negatively influence growth and yield of plants by affecting the physiological, biochemical, and molecular aspects of plants. As seen in recent years, such precedents in plants can be significantly alleviated through the implementation of nanoparticles. The application of nanoparticles helps in understanding the appropriate mechanisms in plants against abiotic stresses and enhances those responses more effectively. Biochemical and physiological adaptations stimulated by nanoparticles include the activation of the antioxidative defense system, stress regulatory gene expressions, stimulation of crucial biochemical pathways, and hormonal regulations. Considering the potential advantages of nanomaterials to date, their full implementation is yet to be a reality in the agricultural sector, largely limited due to concerns regarding the uptake, translocation, bioavailability, and eco-toxicity of nanoparticles. Understanding the underlying mechanisms and responses induced by nanoparticles through molecular approaches is critical in assessing nanomaterials' biological potential. The present review addresses the possible scope of nanotechnology to counter abiotic stress in economically important crops, and their influence on development, growth, absorption, and translocation in plants. Here, an attempt is made to provide an elucidative framework on recent findings related to nanoparticle-induced stress tolerance in plants through a comprehensive insight into molecular mechanisms and biochemical responses that may help to meet the need for adaptive measures in crops during abiotic stress conditions.

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培育纳米科学的战略:可持续作物改良以提高非生物胁迫耐受性的新前沿
先进的纳米工程是实现粮食安全、确保可持续农业产量和生产力的便捷技术。除了解决产量障碍外,纳米科学的应用还通过创新强调了其潜力,如精准农业、农用化学品的现场定向输送、疾病控制和减轻植物的环境压力。非生物胁迫通过影响植物的生理、生化和分子方面,对植物的生长和产量产生负面影响。正如近年来所看到的,通过纳米颗粒的实施,植物中的这种先例可以显著缓解。纳米颗粒的应用有助于理解植物对抗非生物胁迫的适当机制,并更有效地增强这些反应。纳米颗粒刺激的生物化学和生理适应包括抗氧化防御系统的激活、应激调节基因表达、关键生物化学途径的刺激和激素调节。考虑到迄今为止纳米材料的潜在优势,其在农业部门的全面实施尚未成为现实,这在很大程度上是由于对纳米颗粒的吸收、迁移、生物利用度和生态毒性的担忧而受到限制。通过分子方法了解纳米颗粒诱导的潜在机制和反应对于评估纳米材料的生物潜力至关重要。本综述论述了纳米技术对抗经济重要作物中非生物胁迫的可能范围,以及它们对植物发育、生长、吸收和迁移的影响。在这里,试图通过对分子机制和生物化学反应的全面深入了解,为最近与纳米颗粒诱导的植物抗逆性相关的发现提供一个阐明框架,这可能有助于满足作物在非生物胁迫条件下采取适应性措施的需要。
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