AN OVERVIEW OF NANOPARTICLES: METHODS OF OBTAINING, APPLICATIONS AND CHARACTERISTICS
Keywords:
nanotechnology, nanoparticle, nanomaterial, synthesis, discharge, explosion
Abstract
Lately, the term of “Nanotechnology” becomes very popular. This combines different representations and interpretations of action methods on materials. It means, before proceeding to characterization, methods of obtaining and applications, it is necessary to clarify about which dimensions will be further discussed. Is clear, that the term of “Nanotechnology” becomes obtained from two words: “nano” that means looking into a scale of billionth part (10-9) and “technology” – the application of knowledge in practice. So hard to imagine these dimensions and to clarify a little, it’s important to mention that the thinnest atom of Hydrogen has a diameter of a 10-10 m and especially the DNA spiral has the diameter of 1 nm. So, nanotechnology can be defined as a set of technics and methods, based on manipulation with atoms and molecules in a scale from 1 to 100 nm. The usage of special characteristics of materials in a scale of some couples of nanometers discovers new possibilities of development of process technologies in a strong link with electronics, material study, chemistry, medicine, mechanics and a lot of science branches. Obtaining new materials and development of new methods conduits to a technic-scientific revolution in information technology, obtaining new construction materials, producing medical preparations, construction of super exact devices etc. The overview in the following paper is designed to facilitate informed people and a reference for researchers and professionals regarding the know-how transfer, multidisciplinary collaboration and further development of methods of obtaining, applications and characterization on nanomaterials.
References
1. Kobayashi, N. Introduction to Nanotechnology, Wiley-Interscience, (2008).
2. Taniguchi, N., Arakawa, C., Kobayashi, T., "On the basic concept of nano-technology", Proceedings of the International Conference on Production Engineering, Tokyo, Japan, 26–29 August (1974).
3. Drexler, E., Engines of Creation: The Coming Era of Nanotechnology, (1987).
4. Murtala, N., Rahman, M.R., Mohamad Bin Said, K.A., Mannan, M.A., Patwary, A.M., “A review of nanoparticle synthesis methods, classifications, applications, and characterization", Journal of Environmental Nanotechnology, Monitoring & Management, (2023).
5. Eigler, D., Schweizer, E.m Positioning single atoms with a scanning tunnelling microscope. Nature 344, 524–526, (1990).
6. Azarenkov, N.A., Beresnev, V.M. & al. Nanomaterials, Nanocoatings, Nanotechnologies: Study guide. V.N. Karazin Kharkiv National University, (2009).
7. Taurozzi, J., Hackley, V., Wiesner, M., Preparation of Nanoparticle Dispersions from Powdered Material Using Ultrasonic Disruption, Special Publication (NIST SP), National Institute of Standards and Technology, Gaithersburg, MD, (2012).
8. Balachandran, A., Sreenilayam, S.P., Madanan, K., Thomas, S., Brabazon, D., Nanoparticle production via laser ablation synthesis in solution method and printed electronic application - A brief review, Results in Engineering, Volume 16, (2022).
9. Barcikowski, S., Amendola, V., Lau, M., Marzun, G., Rehbock, C., Reichenberger, S., Zhang, D. and Gökce, B., Handbook of Laser Synthesis of Colloids & Processing, DuEPublico, (2019).
10. Baig, N., Kammakakam, I., Falath, W., Nanomaterials: a review of synthesis methods, properties, recent progress, and challenges, Materials Advances, Volume 2, Issue 6, (2021).
11. Kumari, S., Raturi, S., Kulshrestha, S. & al., A comprehensive review on various techniques used for synthesizing nanoparticles, Journal of Materials Research and Technology, Volume 27, (2023).
12. Elsayd, A., Shash, A.Y., Mattar, H., Löthman, P.A., Mitwally, M.E., The Effect of Milling Time on the Preparation of an Aluminum Matrix Composite Reinforced with Magnetic Nanoparticles, Heliyon, Volume 9, Issue 6, (2023).
13. Zhuang, S., Lee, E.S., Lei, L., Nunna, B.B., Kuang, L., Zhang, W., Synthesis of nitrogen-doped graphene catalyst by high-energy wet ball milling for electrochemical systems, International Journal of Energy Research, 40, (2016).
14. Acharya, T.R., Jang, M., Lee, G.J., Choi, E.H., A comprehensive study on the synthesis, characteristics, and catalytic applications of submerged hydrogen-mixed argon plasma-synthesized silver nanoparticles, Current Applied Physics, Volume 56, (2023).
15. Acharya, T.R., Lee, G.J., Choi, E.H., Influences of Plasma Plume Length on Structural, Optical and Dye Degradation Properties of Citrate-Stabilized Silver Nanoparticles Synthesized by Plasma-Assisted Reduction, Nanomaterials. Volume 12, Issue 14, (2022).
16. Son, H.H., Seo, G.H., Jeong, U., Shin, D.Y., Kim, S.J., Capillary wicking effect of a Cr-sputtered superhydrophilic surface on enhancement of pool boiling critical heat flux, International Journal of Heat and Mass Transfer.Volume 113:115-128, (2017).
17. Wender, H., Migowski, P., Feil, A.F., Teixeira, S.R., Dupont, J., Sputtering deposition of nanoparticles onto liquid substrates: Recent advances and future trends, Coordination Chemistry Reviews 257(17-18):2468-2483, (2013).
18. Muñoz-García, J., Vázquez, L., Cuerno, R., Sánchez-García, J.A, Castro, M., Gago, R., Self-organized surface nanopatterning by ion beam sputtering, Toward Functional Nanomaterials, 323-398, (2009).
19. Nam, J.H., Jang, M.J., Jang, H.Y., Park, W., Wang, X., Choi, S.M., Cho, B., Room-temperature sputtered electrocatalyst WSe2 nanomaterials for hydrogen evolution reaction, Journal of Energy Chemistry, Volume 47, (2020).
20. Nie, M., Sun, K., Meng, D.D., Formation of metal nanoparticles by short-distance sputter deposition in a reactive ion etching chamber, Journal Applied Physics, 106, (2009).
21. Ostermann, R., Cravillon, J., Weidmann, C., Wiebcke, M., Smarsly, B.M., Metal-organic framework nanofibers via electrospinning. Chem Commun (Camb), Volume 7; Issue 47(1), (2011).
22. Badinter, E., Ioisher, A., Monaico, E., Postolache, V., Tiginyanu, I.M., Exceptional integration of metal or semimetal nanowires in human-hair-like glass fiber, Materials Letters, Volume 64, Issue 17, (2010).
23. Kumar, P.S., Sundaramurthy, J., Sundarrajan, S., Babu, V.J., Singh, G., Allakhverdiev, S.I., Ramakrishna, S., Hierarchical electrospun nanofibers for energy harvesting, production and environmental remediation, Energy and Environmental Science, 7, (2014).
24. Gusev, A.I., “Nanocrystalline materials, methods of obtaining and properties”, Ecaterinburg, UrO RAN, (1998).
25. Burtsev, V.A., Kalinin, N.V., Luchinsky, A.B., “Electrical explosion of wires and applications in eletrophysical installations”, M. Energoatom., (1990).
26. Kumar, L.S., Chakravarthy, S.R., Verma, R., Jayaganthan, R., Sarathi, R., Srinivasan, A., Synthesis of multiphase binary eutectic Al–Mg alloy-nanoparticles by electrical wire explosion technique for high-energy applications, its characterisation and size-dependent thermodynamic and kinetic study, Journal of Alloys and Compounds, Volume 838, (2020).
27. Pervikov, A.V., Metal, Metal Composite, and Composited Nanoparticles Obtained by Electrical Explosion of Wires, Nanobiotechnology, Volume 16, Issue 4, (2021).
28. Yin, H., Gao, X., Chen, P.-W., One-step synthesis of FeO(OH) nanoparticles by electric explosion of iron wire underwater, Defence Technology, Volume 18, Issue 1, (2022).
29. Pimpin, A., Srituravanich, W., Review on Micro- and Nanolithography Techniques and their Applications, Engineering Journal, Volume 16, Issue 1, (2012).
30. W.M. Moreau, Semiconductor lithography: Principles, Practices and Materials, Plenum Publishing, 1988.
31. Elliott, D.J.. Integrated circuit fabrication technology, 2nd ed. McGraw-Hill Book, (1989).
32. Ne´meth, A´., Major, Cs., Fried, M., La´badi, Z., Ba´rsony, I., Spectroscopic ellipsometry study of transparent conductive ZnO layers for CIGS solar cell applications, Thin Solid Films 516, (2008).
33. Szabó, Z., Volk, J., Fülöp, E., Deák, A., Bársony, I., Regular ZnO nanopillar arrays by nanosphere photolithography, Photonics and Nanostructures – Fundamentals and Applications 11, (2013).
34. Stöber, W., Fink, A., Bohn, E., Controlled growth of monodisperse silica spheres in the micron size range, Journal of Colloid and Interface Science 24, (1968).
35. Yin, Y., Gates, B., Xia, Y., A Soft Lithography Approach to the Fabrication of Nanostructures of Single Crystalline Silicon withWell-Defined Dimensions and Shapes, Advanced Materials, Volume 12, (2000).
36. Kuo, C.W., Shiu, J.Y., Cho, Y.H., Chen, P., Fabrication of large-area periodic nanopillar arrays for nanoimprint lithography using polymer colloids masks, Advanced Materials, Volume 15, (2003).
37. Matsumoto, R., Adachi, S., Sadki, El H.S., Yamamoto, S., Tanaka, H., Takeya, H., Takano, Y., Maskless Patterning of Gallium-Irradiated Superconducting Silicon Using Focused Ion Beam, ACS Applied Electronic Materials, Volume 2, Issue 3, (2020).
38. Müller, B., Karrer, M., Limberger, F., Becker, M., Schröppel, B., Burkhardt, C.J., Kleiner, R., Goldobin, E., Koelle, D., Josephson Junctions and SQUIDs Created by Focused Helium-Ion-Beam Irradiation of YBa2Cu3O7, Physical Review Applied, Volume 11, (2019).
39. Cybart, S.A., Cho, E.Y., Wong, T.J., Wehlin, B.H., Ma, M.K., Huynh, C., Dynes, R.C., Nano Josephson superconducting tunnel junctions in YBa2Cu3O(7-δ) directly patterned with a focused helium ion beam, National Nanotechnology, Volume 10, Issue 7, (2015).
40. Piner, R.D., Zhu, J., Xu, F., Hong, S., Mirkin, C.A., "Dip-Pen" nanolithography, Science, Volume 283, (1999).
41. Xu, K., Chen, J., High-resolution scanning probe lithography technology: a review, Applied Nanoscience, Volume 10, (2020).
42. Andryushchenko, V.A., Sakhapov, S.Z., Smovzh, D.V., Solnyshkina, O.A., Electric arc synthesis of Al2O3 nanoparticles of various sizes, Ceramics International, Volume 50, Issue 1, Part A, (2024).
43. Zaikovskii, A., Yudin, I., Kozlachkov, D., Nartova, A., Fedorovskaya, E., Gas pressure control of electric arc synthesis of composite Sn–SnO2–C nanomaterials, Vacuum, Volume 195, (2022).
44. Jia, R., Jia, S., Mo, Y., Shi, Z., In situ synthesis of carbon-coated aluminum nanoparticles by argon protective arc ablation in the liquid nitrogen environment, Vacuum, Volume 222, (2024).
45. Vazquez-Pufleau, M., Gomez-Palos, I., Arévalo, L., García-Labanda, J., Vilatela, J.J., Spark discharge generator as a stable and reliable nanoparticle synthesis device: Analysis of the impact of process and circuit variables on the characteristics of synthesized nanoparticles, Advanced Powder Technology, Volume 34, Issue 3, (2023).
46. Ayvazyan, R.G., Jacoby, K., Kinetics and spectroscopic characterization of silica nanoparticles formed while etching quartz in hydrofluoric acid, Materials Chemistry and Physics, Volume 305, (2023).
47. Tsao, C.-W., Shen, P.-C., Maskless patterning of metal nanoparticles and silicon nanostructures by a droplet deposition and etching process, Materials Advances, Volume 4, Issue 24, (2023).
48. Kumar, A., Kumar, R., Mathur, R., Jha, C.B., Metal-Organic Frameworks (MOFs) Nanocarriers-A Novel Approach for the Drug Delivery Along Whith Other Biomedical Applications, AIP Conference Proceedings. 2800, (2023).
49. Innocenzi, P., Understanding sol–gel transition through a picture. A short tutorial, Journal of Sol-Gel Science and Technology 94, (2020).
50. Brinker, J., Scherer, G., Sol–gel science, Academic Press, (1990).
51. Chládová, A., Wiener, J., Luthuli, J., Máková, V., Dyeing of glass fibres by the sol gel method, Autex Research Journal, Volume 11, (2011).
52. Bokov, D., Al-Attabi, A., Chupradit, S., Suksatan, W., Ansari, M., Shewael, I., Valiev, G., Nanomaterial by Sol-Gel Method: Synthesis and Application, Advances in Materials Science and Engineering, (2021).
53. Islam, M.A., Sato, Tetsu, Ara, Ferdous, Basith, M.A., Sol-gel based synthesis to explore structure, magnetic and optical properties of double perovskite Y2FeCrO6 nanoparticles, Journal of Alloys and Compounds, Volume 944, (2023).
54. Castellano-Soria, A., López-Sánchez, J., Serrano, A., Gorni, G., Varela, M., Sardinero, I., Carmona, N., Hernando, A., Marín, P., Navarro, E., Sol-gel synthesis control of iron-cobalt alloy/ferrite core/shell nanoparticles supported by a carbon medium with semi-hard magnetic features, Journal of Alloys and Compounds, Volume 959, (2023).
55. Raciti, D., Calogero, G., Ricciarelli, D., Anzalone, R., Morale, G., Murabito, D., Deretzis, I., Fisicaro, G., La Magna, A., Multiscale atomistic modelling of CVD: From gas-phase reactions to lattice defects, Materials Science in Semiconductor Processing, Volume 167, (2023).
56. Verma, C., Berdimurodov, E., Verma, D.K., Berdimuradov, K., Alfantazi, A., Hussain, C.M., 3D Nanomaterials: The future of industrial, biological, and environmental applications, Inorganic Chemistry Communications, Volume 156, (2023).
57. Paras, Y.K., Kumar, P.T., Chakraborty, S.C., Chakraborty, M., Mohapatra, S.S., Sahoo, A.C., Liang, C.T et al., A Review on Low-Dimensional Nanomaterials: Nanofabrication, Characterization and Applications, Nanomaterials Journal, Volume 13, Issue 1, (2023).
58. Cho, A.Y., Growth of III–V semiconductors by molecular beam epitaxy and their properties, Thin Solid Films, Volume 100, Issue 4, (1983).
59. Cheng, K.-Y., Molecular beam epitaxy technology of III-V compound semiconductors for optoelectronic applications, Proceedings of the IEEE, Volume 85, Number 11, (1997).
60. Volkov, R., Borgardt, N.I., Konovalov, O.V., Fernández-Garrido, S., Brandt, O., Kaganer, V.M., Cross-sectional shape evolution of GaN nanowires during molecular beam epitaxy growth on Si (111), Nanoscale Advances, Volume 4, Issue 2, (2022).
61. Wang, N., West, D., Duan, W., Zhang, S.B., Effective chemical potential for non-equilibrium systems and its application to molecular beam epitaxy of Bi2Se3, Nanoscale Advances, Volume 1, Issue 2, (2019).
62. Guo, Y., Hu, Y., Shi, J., Electrochemical epitaxy of nanostructures, Nano Trends, Volume 4, (2023).
63. Wang, L., Zhang, Y., Sun, H., You, J., Miao, Y., Dong, Z., Liu, T., Jiang, Z., Hu, H., Nanoscale growth of a Sn-guided SiGeSn alloy on Si (111) substrates by molecular beam epitaxy, Nanoscale Advances, Volume 3, Issue 4, (2021).
64. Bordiwala, R.V., Green synthesis and Applications of Metal Nanoparticles – A Review Article, Results in Chemistry, Volume 5, (2023).
65. Kumar, V., Kaushik, N.K., Tiwari, S.K., Singh, D., Singh, B., Green synthesis of iron nanoparticles: Sources and multifarious biotechnological applications, International Journal of Biological Macromolecules, Volume 253, Part 4, (2023).
66. Aigbe, U.O., Osibote, O.A., Green synthesis of metal oxide nanoparticles, and their various applications, Journal of Hazardous Materials Advances, Volume 13, (2024).
67. Moghaddam, B.A., Namvar, F., Moniri, M., Tahir, P., Azizi, S., Mohamad, R., Nanoparticles Biosynthesized by Fungi and Yeast: A Review of Their Preparation, Properties, and Medical Applications, Molecules, Volume 20, Issue 9, (2015).
68. El Messaoudi, N., Cigeroglu, Z., Shenol, Z., Bouich, A., Kazan-Kaya, E., Noureen, L., Americo-Pinheiro, J., Green synthesis of nanoparticles for remediation organic pollutants in wastewater by adsorption, Advances in Chemical Pollution, Environmental Management and Protection, (2023).
69. Golinska, P., Wypij, M., Ingle, A.P. et al. Biogenic synthesis of metal nanoparticles from actinomycetes: biomedical applications and cytotoxicity, Applied Microbiology Biotechnology, Volume 98, (2014).
70. Mohammadi-Dargah, M., Pedram, P., Cabrera-Barjas, G., Delattre, C., Nesic, A., Santagata, G., Cerruti, P., Moeini, A., Biomimetic synthesis of nanoparticles: A comprehensive review on green synthesis of nanoparticles with a focus on Prosopis farcta plant extracts and biomedical applications, Advances in Colloid and Interface Science, Volume 332, (2024).
71. Meyer, R.A., Sunshine, J.C., Green, J.J., Biomimetic particles as therapeutics, Trends in Biotechnology, Volume 33, Issue 9, (2015).
72. Savoia, D., Plant-Derived Antimicrobial Compounds: Alternatives to Antibiotics, Future Microbiology, Volume 7, Issue 8, (2012).
73. Mashwani, Z.-R., Khan, M.A., Khan, T., Nadhman, A., Applications of plant terpenoids in the synthesis of colloidal silver nanoparticles, Advances in Colloid and Interface Science, Volume 234, (2016).
74. Saeed, Z., Pervaiz, M., Ejaz, A., Hussain, S., Shaheen, S., Shehzad, B., Younas, U., Garlic and ginger extracts mediated green synthesis of silver and gold nanoparticles: A review on recent advancements and prospective applications, Biocatalysis and Agricultural Biotechnology, Volume 53, (2023).
75. Kim, J., Rheem, Y., Yoo, B., Chong, Y., Bozhilov, K.N., Kim, D., Sadowsky, M.J., Hur, H.-G., Myung, N.V., Peptide-mediated shape- and size-tunable synthesis of gold nanostructures, Acta Biomaterialia, Volume 6, Issue 7, (2010).
76. Topala, P., Marin, L., Beşliu, V., Applying graphite micropellicles to decrease the coefficient of superficial adhesion. Advanced Manufacturing Technologies, 7th international seminar Advanced Manufacturing Technologies, Sozopol, Bulgaria, pp. 97-104. (2013).
77. Beşliu, V., Structure and Properties of Surface Layers of Pieces Cemented when Interacting with the Plasma Channel of Electric Discharges in Pulse. The annals of „Dunărea de Jos” University of Galaţi, Fascicle V, Technologies in machine bulding, Vol.1, Year XXIV (XXIX), , P.75-82. (2008).
78. Topala, P., Besliu, V., Marin, L., Graphite Films Deposited on Metal Surface by Pulsed Electrical Discharge Machining. In: Tiginyanu, I., Topala, P., Ursaki, V. (eds) Nanostructures and Thin Films for Multifunctional Applications. NanoScience and Technology. Springer, (2016).
79. Howard, J.B., McKinnon, J.T., Makarovsky, Y., Lafleur, A.L., Johnson, M.E., Fullerenes C60 and C70 in flames, Nature 352, (1991).
80. Howard, J., Lafleur, A., Makarovsky, Y., Mitra, S., Pope, C., Yadav, T. Fullerenes synthesis in combustion, Carbon 30 (8), (1992).
81. Kroto, H.W., Heath, J.R., O'Brien, S.C., Curl, R.F., Smalley, R.E., C60: Buckminsterfullerene, (1985).
2. Taniguchi, N., Arakawa, C., Kobayashi, T., "On the basic concept of nano-technology", Proceedings of the International Conference on Production Engineering, Tokyo, Japan, 26–29 August (1974).
3. Drexler, E., Engines of Creation: The Coming Era of Nanotechnology, (1987).
4. Murtala, N., Rahman, M.R., Mohamad Bin Said, K.A., Mannan, M.A., Patwary, A.M., “A review of nanoparticle synthesis methods, classifications, applications, and characterization", Journal of Environmental Nanotechnology, Monitoring & Management, (2023).
5. Eigler, D., Schweizer, E.m Positioning single atoms with a scanning tunnelling microscope. Nature 344, 524–526, (1990).
6. Azarenkov, N.A., Beresnev, V.M. & al. Nanomaterials, Nanocoatings, Nanotechnologies: Study guide. V.N. Karazin Kharkiv National University, (2009).
7. Taurozzi, J., Hackley, V., Wiesner, M., Preparation of Nanoparticle Dispersions from Powdered Material Using Ultrasonic Disruption, Special Publication (NIST SP), National Institute of Standards and Technology, Gaithersburg, MD, (2012).
8. Balachandran, A., Sreenilayam, S.P., Madanan, K., Thomas, S., Brabazon, D., Nanoparticle production via laser ablation synthesis in solution method and printed electronic application - A brief review, Results in Engineering, Volume 16, (2022).
9. Barcikowski, S., Amendola, V., Lau, M., Marzun, G., Rehbock, C., Reichenberger, S., Zhang, D. and Gökce, B., Handbook of Laser Synthesis of Colloids & Processing, DuEPublico, (2019).
10. Baig, N., Kammakakam, I., Falath, W., Nanomaterials: a review of synthesis methods, properties, recent progress, and challenges, Materials Advances, Volume 2, Issue 6, (2021).
11. Kumari, S., Raturi, S., Kulshrestha, S. & al., A comprehensive review on various techniques used for synthesizing nanoparticles, Journal of Materials Research and Technology, Volume 27, (2023).
12. Elsayd, A., Shash, A.Y., Mattar, H., Löthman, P.A., Mitwally, M.E., The Effect of Milling Time on the Preparation of an Aluminum Matrix Composite Reinforced with Magnetic Nanoparticles, Heliyon, Volume 9, Issue 6, (2023).
13. Zhuang, S., Lee, E.S., Lei, L., Nunna, B.B., Kuang, L., Zhang, W., Synthesis of nitrogen-doped graphene catalyst by high-energy wet ball milling for electrochemical systems, International Journal of Energy Research, 40, (2016).
14. Acharya, T.R., Jang, M., Lee, G.J., Choi, E.H., A comprehensive study on the synthesis, characteristics, and catalytic applications of submerged hydrogen-mixed argon plasma-synthesized silver nanoparticles, Current Applied Physics, Volume 56, (2023).
15. Acharya, T.R., Lee, G.J., Choi, E.H., Influences of Plasma Plume Length on Structural, Optical and Dye Degradation Properties of Citrate-Stabilized Silver Nanoparticles Synthesized by Plasma-Assisted Reduction, Nanomaterials. Volume 12, Issue 14, (2022).
16. Son, H.H., Seo, G.H., Jeong, U., Shin, D.Y., Kim, S.J., Capillary wicking effect of a Cr-sputtered superhydrophilic surface on enhancement of pool boiling critical heat flux, International Journal of Heat and Mass Transfer.Volume 113:115-128, (2017).
17. Wender, H., Migowski, P., Feil, A.F., Teixeira, S.R., Dupont, J., Sputtering deposition of nanoparticles onto liquid substrates: Recent advances and future trends, Coordination Chemistry Reviews 257(17-18):2468-2483, (2013).
18. Muñoz-García, J., Vázquez, L., Cuerno, R., Sánchez-García, J.A, Castro, M., Gago, R., Self-organized surface nanopatterning by ion beam sputtering, Toward Functional Nanomaterials, 323-398, (2009).
19. Nam, J.H., Jang, M.J., Jang, H.Y., Park, W., Wang, X., Choi, S.M., Cho, B., Room-temperature sputtered electrocatalyst WSe2 nanomaterials for hydrogen evolution reaction, Journal of Energy Chemistry, Volume 47, (2020).
20. Nie, M., Sun, K., Meng, D.D., Formation of metal nanoparticles by short-distance sputter deposition in a reactive ion etching chamber, Journal Applied Physics, 106, (2009).
21. Ostermann, R., Cravillon, J., Weidmann, C., Wiebcke, M., Smarsly, B.M., Metal-organic framework nanofibers via electrospinning. Chem Commun (Camb), Volume 7; Issue 47(1), (2011).
22. Badinter, E., Ioisher, A., Monaico, E., Postolache, V., Tiginyanu, I.M., Exceptional integration of metal or semimetal nanowires in human-hair-like glass fiber, Materials Letters, Volume 64, Issue 17, (2010).
23. Kumar, P.S., Sundaramurthy, J., Sundarrajan, S., Babu, V.J., Singh, G., Allakhverdiev, S.I., Ramakrishna, S., Hierarchical electrospun nanofibers for energy harvesting, production and environmental remediation, Energy and Environmental Science, 7, (2014).
24. Gusev, A.I., “Nanocrystalline materials, methods of obtaining and properties”, Ecaterinburg, UrO RAN, (1998).
25. Burtsev, V.A., Kalinin, N.V., Luchinsky, A.B., “Electrical explosion of wires and applications in eletrophysical installations”, M. Energoatom., (1990).
26. Kumar, L.S., Chakravarthy, S.R., Verma, R., Jayaganthan, R., Sarathi, R., Srinivasan, A., Synthesis of multiphase binary eutectic Al–Mg alloy-nanoparticles by electrical wire explosion technique for high-energy applications, its characterisation and size-dependent thermodynamic and kinetic study, Journal of Alloys and Compounds, Volume 838, (2020).
27. Pervikov, A.V., Metal, Metal Composite, and Composited Nanoparticles Obtained by Electrical Explosion of Wires, Nanobiotechnology, Volume 16, Issue 4, (2021).
28. Yin, H., Gao, X., Chen, P.-W., One-step synthesis of FeO(OH) nanoparticles by electric explosion of iron wire underwater, Defence Technology, Volume 18, Issue 1, (2022).
29. Pimpin, A., Srituravanich, W., Review on Micro- and Nanolithography Techniques and their Applications, Engineering Journal, Volume 16, Issue 1, (2012).
30. W.M. Moreau, Semiconductor lithography: Principles, Practices and Materials, Plenum Publishing, 1988.
31. Elliott, D.J.. Integrated circuit fabrication technology, 2nd ed. McGraw-Hill Book, (1989).
32. Ne´meth, A´., Major, Cs., Fried, M., La´badi, Z., Ba´rsony, I., Spectroscopic ellipsometry study of transparent conductive ZnO layers for CIGS solar cell applications, Thin Solid Films 516, (2008).
33. Szabó, Z., Volk, J., Fülöp, E., Deák, A., Bársony, I., Regular ZnO nanopillar arrays by nanosphere photolithography, Photonics and Nanostructures – Fundamentals and Applications 11, (2013).
34. Stöber, W., Fink, A., Bohn, E., Controlled growth of monodisperse silica spheres in the micron size range, Journal of Colloid and Interface Science 24, (1968).
35. Yin, Y., Gates, B., Xia, Y., A Soft Lithography Approach to the Fabrication of Nanostructures of Single Crystalline Silicon withWell-Defined Dimensions and Shapes, Advanced Materials, Volume 12, (2000).
36. Kuo, C.W., Shiu, J.Y., Cho, Y.H., Chen, P., Fabrication of large-area periodic nanopillar arrays for nanoimprint lithography using polymer colloids masks, Advanced Materials, Volume 15, (2003).
37. Matsumoto, R., Adachi, S., Sadki, El H.S., Yamamoto, S., Tanaka, H., Takeya, H., Takano, Y., Maskless Patterning of Gallium-Irradiated Superconducting Silicon Using Focused Ion Beam, ACS Applied Electronic Materials, Volume 2, Issue 3, (2020).
38. Müller, B., Karrer, M., Limberger, F., Becker, M., Schröppel, B., Burkhardt, C.J., Kleiner, R., Goldobin, E., Koelle, D., Josephson Junctions and SQUIDs Created by Focused Helium-Ion-Beam Irradiation of YBa2Cu3O7, Physical Review Applied, Volume 11, (2019).
39. Cybart, S.A., Cho, E.Y., Wong, T.J., Wehlin, B.H., Ma, M.K., Huynh, C., Dynes, R.C., Nano Josephson superconducting tunnel junctions in YBa2Cu3O(7-δ) directly patterned with a focused helium ion beam, National Nanotechnology, Volume 10, Issue 7, (2015).
40. Piner, R.D., Zhu, J., Xu, F., Hong, S., Mirkin, C.A., "Dip-Pen" nanolithography, Science, Volume 283, (1999).
41. Xu, K., Chen, J., High-resolution scanning probe lithography technology: a review, Applied Nanoscience, Volume 10, (2020).
42. Andryushchenko, V.A., Sakhapov, S.Z., Smovzh, D.V., Solnyshkina, O.A., Electric arc synthesis of Al2O3 nanoparticles of various sizes, Ceramics International, Volume 50, Issue 1, Part A, (2024).
43. Zaikovskii, A., Yudin, I., Kozlachkov, D., Nartova, A., Fedorovskaya, E., Gas pressure control of electric arc synthesis of composite Sn–SnO2–C nanomaterials, Vacuum, Volume 195, (2022).
44. Jia, R., Jia, S., Mo, Y., Shi, Z., In situ synthesis of carbon-coated aluminum nanoparticles by argon protective arc ablation in the liquid nitrogen environment, Vacuum, Volume 222, (2024).
45. Vazquez-Pufleau, M., Gomez-Palos, I., Arévalo, L., García-Labanda, J., Vilatela, J.J., Spark discharge generator as a stable and reliable nanoparticle synthesis device: Analysis of the impact of process and circuit variables on the characteristics of synthesized nanoparticles, Advanced Powder Technology, Volume 34, Issue 3, (2023).
46. Ayvazyan, R.G., Jacoby, K., Kinetics and spectroscopic characterization of silica nanoparticles formed while etching quartz in hydrofluoric acid, Materials Chemistry and Physics, Volume 305, (2023).
47. Tsao, C.-W., Shen, P.-C., Maskless patterning of metal nanoparticles and silicon nanostructures by a droplet deposition and etching process, Materials Advances, Volume 4, Issue 24, (2023).
48. Kumar, A., Kumar, R., Mathur, R., Jha, C.B., Metal-Organic Frameworks (MOFs) Nanocarriers-A Novel Approach for the Drug Delivery Along Whith Other Biomedical Applications, AIP Conference Proceedings. 2800, (2023).
49. Innocenzi, P., Understanding sol–gel transition through a picture. A short tutorial, Journal of Sol-Gel Science and Technology 94, (2020).
50. Brinker, J., Scherer, G., Sol–gel science, Academic Press, (1990).
51. Chládová, A., Wiener, J., Luthuli, J., Máková, V., Dyeing of glass fibres by the sol gel method, Autex Research Journal, Volume 11, (2011).
52. Bokov, D., Al-Attabi, A., Chupradit, S., Suksatan, W., Ansari, M., Shewael, I., Valiev, G., Nanomaterial by Sol-Gel Method: Synthesis and Application, Advances in Materials Science and Engineering, (2021).
53. Islam, M.A., Sato, Tetsu, Ara, Ferdous, Basith, M.A., Sol-gel based synthesis to explore structure, magnetic and optical properties of double perovskite Y2FeCrO6 nanoparticles, Journal of Alloys and Compounds, Volume 944, (2023).
54. Castellano-Soria, A., López-Sánchez, J., Serrano, A., Gorni, G., Varela, M., Sardinero, I., Carmona, N., Hernando, A., Marín, P., Navarro, E., Sol-gel synthesis control of iron-cobalt alloy/ferrite core/shell nanoparticles supported by a carbon medium with semi-hard magnetic features, Journal of Alloys and Compounds, Volume 959, (2023).
55. Raciti, D., Calogero, G., Ricciarelli, D., Anzalone, R., Morale, G., Murabito, D., Deretzis, I., Fisicaro, G., La Magna, A., Multiscale atomistic modelling of CVD: From gas-phase reactions to lattice defects, Materials Science in Semiconductor Processing, Volume 167, (2023).
56. Verma, C., Berdimurodov, E., Verma, D.K., Berdimuradov, K., Alfantazi, A., Hussain, C.M., 3D Nanomaterials: The future of industrial, biological, and environmental applications, Inorganic Chemistry Communications, Volume 156, (2023).
57. Paras, Y.K., Kumar, P.T., Chakraborty, S.C., Chakraborty, M., Mohapatra, S.S., Sahoo, A.C., Liang, C.T et al., A Review on Low-Dimensional Nanomaterials: Nanofabrication, Characterization and Applications, Nanomaterials Journal, Volume 13, Issue 1, (2023).
58. Cho, A.Y., Growth of III–V semiconductors by molecular beam epitaxy and their properties, Thin Solid Films, Volume 100, Issue 4, (1983).
59. Cheng, K.-Y., Molecular beam epitaxy technology of III-V compound semiconductors for optoelectronic applications, Proceedings of the IEEE, Volume 85, Number 11, (1997).
60. Volkov, R., Borgardt, N.I., Konovalov, O.V., Fernández-Garrido, S., Brandt, O., Kaganer, V.M., Cross-sectional shape evolution of GaN nanowires during molecular beam epitaxy growth on Si (111), Nanoscale Advances, Volume 4, Issue 2, (2022).
61. Wang, N., West, D., Duan, W., Zhang, S.B., Effective chemical potential for non-equilibrium systems and its application to molecular beam epitaxy of Bi2Se3, Nanoscale Advances, Volume 1, Issue 2, (2019).
62. Guo, Y., Hu, Y., Shi, J., Electrochemical epitaxy of nanostructures, Nano Trends, Volume 4, (2023).
63. Wang, L., Zhang, Y., Sun, H., You, J., Miao, Y., Dong, Z., Liu, T., Jiang, Z., Hu, H., Nanoscale growth of a Sn-guided SiGeSn alloy on Si (111) substrates by molecular beam epitaxy, Nanoscale Advances, Volume 3, Issue 4, (2021).
64. Bordiwala, R.V., Green synthesis and Applications of Metal Nanoparticles – A Review Article, Results in Chemistry, Volume 5, (2023).
65. Kumar, V., Kaushik, N.K., Tiwari, S.K., Singh, D., Singh, B., Green synthesis of iron nanoparticles: Sources and multifarious biotechnological applications, International Journal of Biological Macromolecules, Volume 253, Part 4, (2023).
66. Aigbe, U.O., Osibote, O.A., Green synthesis of metal oxide nanoparticles, and their various applications, Journal of Hazardous Materials Advances, Volume 13, (2024).
67. Moghaddam, B.A., Namvar, F., Moniri, M., Tahir, P., Azizi, S., Mohamad, R., Nanoparticles Biosynthesized by Fungi and Yeast: A Review of Their Preparation, Properties, and Medical Applications, Molecules, Volume 20, Issue 9, (2015).
68. El Messaoudi, N., Cigeroglu, Z., Shenol, Z., Bouich, A., Kazan-Kaya, E., Noureen, L., Americo-Pinheiro, J., Green synthesis of nanoparticles for remediation organic pollutants in wastewater by adsorption, Advances in Chemical Pollution, Environmental Management and Protection, (2023).
69. Golinska, P., Wypij, M., Ingle, A.P. et al. Biogenic synthesis of metal nanoparticles from actinomycetes: biomedical applications and cytotoxicity, Applied Microbiology Biotechnology, Volume 98, (2014).
70. Mohammadi-Dargah, M., Pedram, P., Cabrera-Barjas, G., Delattre, C., Nesic, A., Santagata, G., Cerruti, P., Moeini, A., Biomimetic synthesis of nanoparticles: A comprehensive review on green synthesis of nanoparticles with a focus on Prosopis farcta plant extracts and biomedical applications, Advances in Colloid and Interface Science, Volume 332, (2024).
71. Meyer, R.A., Sunshine, J.C., Green, J.J., Biomimetic particles as therapeutics, Trends in Biotechnology, Volume 33, Issue 9, (2015).
72. Savoia, D., Plant-Derived Antimicrobial Compounds: Alternatives to Antibiotics, Future Microbiology, Volume 7, Issue 8, (2012).
73. Mashwani, Z.-R., Khan, M.A., Khan, T., Nadhman, A., Applications of plant terpenoids in the synthesis of colloidal silver nanoparticles, Advances in Colloid and Interface Science, Volume 234, (2016).
74. Saeed, Z., Pervaiz, M., Ejaz, A., Hussain, S., Shaheen, S., Shehzad, B., Younas, U., Garlic and ginger extracts mediated green synthesis of silver and gold nanoparticles: A review on recent advancements and prospective applications, Biocatalysis and Agricultural Biotechnology, Volume 53, (2023).
75. Kim, J., Rheem, Y., Yoo, B., Chong, Y., Bozhilov, K.N., Kim, D., Sadowsky, M.J., Hur, H.-G., Myung, N.V., Peptide-mediated shape- and size-tunable synthesis of gold nanostructures, Acta Biomaterialia, Volume 6, Issue 7, (2010).
76. Topala, P., Marin, L., Beşliu, V., Applying graphite micropellicles to decrease the coefficient of superficial adhesion. Advanced Manufacturing Technologies, 7th international seminar Advanced Manufacturing Technologies, Sozopol, Bulgaria, pp. 97-104. (2013).
77. Beşliu, V., Structure and Properties of Surface Layers of Pieces Cemented when Interacting with the Plasma Channel of Electric Discharges in Pulse. The annals of „Dunărea de Jos” University of Galaţi, Fascicle V, Technologies in machine bulding, Vol.1, Year XXIV (XXIX), , P.75-82. (2008).
78. Topala, P., Besliu, V., Marin, L., Graphite Films Deposited on Metal Surface by Pulsed Electrical Discharge Machining. In: Tiginyanu, I., Topala, P., Ursaki, V. (eds) Nanostructures and Thin Films for Multifunctional Applications. NanoScience and Technology. Springer, (2016).
79. Howard, J.B., McKinnon, J.T., Makarovsky, Y., Lafleur, A.L., Johnson, M.E., Fullerenes C60 and C70 in flames, Nature 352, (1991).
80. Howard, J., Lafleur, A., Makarovsky, Y., Mitra, S., Pope, C., Yadav, T. Fullerenes synthesis in combustion, Carbon 30 (8), (1992).
81. Kroto, H.W., Heath, J.R., O'Brien, S.C., Curl, R.F., Smalley, R.E., C60: Buckminsterfullerene, (1985).
Published
2025-09-30
How to Cite
Botnari, D., & Topala, P. (2025). AN OVERVIEW OF NANOPARTICLES: METHODS OF OBTAINING, APPLICATIONS AND CHARACTERISTICS. Nonconventional Technologies Review, 29(3). Retrieved from http://revtn.ro/index.php/revtn/article/view/535
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Articles
