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S. V. PRYLUTSKA, T. A. TKACHENKO, and V. V. TKACHENKO
Application of Carbon Nanomaterials for the Regulation of Stress Resistance in Agricultural Plants
923–944 (2023)

PACS numbers: 01.30.Rr, 01.30.Tt, 81.05.U-, 87.85.Rs, 88.05.Qr, 88.20.dj, 91.62.Bf

Carbon nanoallotropes, namely, graphene, fullerene and their derivatives, single- and multiwalled nanotubes, cause the great interest to researchers and their using not only in industry, medicine, pharmacy, but also in agriculture. There is a large number of literary data on the effect of carbon nanomaterials against the plant organism, not only as xenobiotics, but their use in crop production, namely, as: growth and development regulators; substances to increase the resistance of various crops to abiotic stress; targeted means for the delivery of fertilizers, plant protection means; stimulators of the accumulation of pharmaceutically active compounds. Research data are contradictory, as they differ in terms of the type of plant and the stage of its ontogenesis, the peculiarities of its cultivation, the type of nanoallotropes of carbon, the dose, method and duration of exposure, the size and purity of nanoparticles. At high concentrations, carbon nanoparticles cause toxic effects, which are accompanied by an impact on the processes of plant growth and development, inhibition of photosynthetic processes, and the induction of oxidative stress. At the same time, at low and moderate concentrations, carbon nanoparticles mainly stimulate the germination of seeds, the growth and development of vegetative parts of the plant and roots, improve the efficiency of photosynthesis, and contribute to both the protection of the plant from the effects of stressful environmental conditions and the accumulation of pharmaceutically valuable compounds. The presented review summarizes the data of the latest scientific research on the effect of carbon nanoallotropes on the plant organism and the possibility of their use as regulators of stress resistance in the cultivation of agricultural crops.

Key words: carbon nanoparticles, single- and multiwalled nanotubes, graphene, fullerene C60, stress resistance, plants.

https://doi.org/

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