“…Recent studies, the results of which are reported by F. Nisa et al [6] (on the use of nano-MgO biosynthesis technology), M. Kotresh et al [7] (on the temperature regimes of production of nanosize magnesium oxide), Z. Rajabimashhadi et al [8] (on the use of hydrothermal methods for the production of magnesium oxide nanoparticles) in the review parts contain generalisations about the existence of a fairly wide range of technological methods for the production and synthesis of the target nanomaterial, which mostly bear signs of laboratory-scale production and do not form ideas about the generalised optimised technology for the production of nanosize magnesium oxide for industry (except for individual proposals in the form of publications by F. Mirza and H. Makwana [9], in which the co-precipitation method is preferred). Also noteworthy are the studies by J. Veronica et al [10] (which favours the sol-gel method), S. Abinaya et al [11] (which favours the green synthesis method), which in general do not form a stable and consistent vector of commitment to any one prevailing method of producing the target nanoproduct).…”
Section: Introductionmentioning
confidence: 88%
“…The Forcite module integrated into BIOVIA Materials Studio also provides analysis of the radial-distribution function (RDF), concentration distribution, x-ray intensity distribution (and scattering), velocitydistribution profile, pressure-distribution profile, density-field distribution in the form of model visualisation (Figs. [6][7][8][9][10][11].…”
Section: Graphical Representation Of the Process Brief Description Of...mentioning
“…Recent studies, the results of which are reported by F. Nisa et al [6] (on the use of nano-MgO biosynthesis technology), M. Kotresh et al [7] (on the temperature regimes of production of nanosize magnesium oxide), Z. Rajabimashhadi et al [8] (on the use of hydrothermal methods for the production of magnesium oxide nanoparticles) in the review parts contain generalisations about the existence of a fairly wide range of technological methods for the production and synthesis of the target nanomaterial, which mostly bear signs of laboratory-scale production and do not form ideas about the generalised optimised technology for the production of nanosize magnesium oxide for industry (except for individual proposals in the form of publications by F. Mirza and H. Makwana [9], in which the co-precipitation method is preferred). Also noteworthy are the studies by J. Veronica et al [10] (which favours the sol-gel method), S. Abinaya et al [11] (which favours the green synthesis method), which in general do not form a stable and consistent vector of commitment to any one prevailing method of producing the target nanoproduct).…”
Section: Introductionmentioning
confidence: 88%
“…The Forcite module integrated into BIOVIA Materials Studio also provides analysis of the radial-distribution function (RDF), concentration distribution, x-ray intensity distribution (and scattering), velocitydistribution profile, pressure-distribution profile, density-field distribution in the form of model visualisation (Figs. [6][7][8][9][10][11].…”
Section: Graphical Representation Of the Process Brief Description Of...mentioning
“…The methodology detailed in a prior study 16 was applied to biosynthesize MgO NPs from the pulp aqueous extract. Briefly, 10 mL of the conserved pulp aqueous extract was combined with 50 mL of a 0.5 M Mg(NO 3 ) 2 .6H 2 O solution, and the mixture was stirred at 60 °C for 30 min by using a magnetic stirrer.…”
“…Magnesium oxide nanoparticles (MgONPs) have emerged as a promising class of nanomaterials owing to their unique physiochemical properties, biocompatibility, and higher metabolic activity. 11 The physical synthesis method of MgONPs necessitates expensive equipment and consumption of time and energy. Similarly, conventional synthesis methods of MgONPs used toxic substances, and thus, have harmful effects on human health and the surrounding environment.…”
Environmental stress factors including abiotic stresses (heavy metals, drought, and salinity etc.) or biotic pathogens (bacteria, fungi, and nematodes etc.) contribute to major losses to global crop yields and cause...
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