MODELING ELECTROMAGNETIC NANOSTRUCTURES AND EXPERIMENTING WITH NANOELECTRIC ELEMENTS TO FORM PERIODIC STRUCTURES

W artykule omówiony został proces numerycznego modelowania elektromagnetycznych, węglowych struktur okresowych, w tym grafenu, grafanu, grafitu i grafinu. Materiały te nadają się do czujników submikronowych, przewodów elektrycznych i innych zastosowań, takich jak biomedycyna, fotonika, nano- i optoelektronika. Oprócz tych dziedzin i gałęzi przemysłu, zastosowanie materiałów pokrywa się także na przykład z mikroskopijnymi rozwiązaniami dla nowoczesnych elementów SMART. Proponowane klasyczne i hybrydowe modele numeryczne opierają się na analizie okresowej struktury o wysokiej powtarzalności i wykorzystują koncepcję struktury węglowej o podstawowym wymiarze w nanometrach. Modele mogą symulować procesy harmoniczne i przejściowe, potrafią ocenić rzeczywisty losowy ruch ładunku elektrycznego jako źródła fałszywych sygnałów i uwzględniają parametry propagacji sygnału harmonicznego wzdłuż konstrukcji. Rezultaty uzyskane w wyniku analizy można wykorzystać do projektowania czujników opartych na węglowych strukturach okresowych oraz do eksperymentów z generatorem plazmy. Celem jest zapewnienie szerszego przeglądu specjalistycznego modelowania nanostrukturalnego lub, bardziej konkretnie, zarysu modelu nadającego się do oceny propagacji sygnału wzdłuż powierzchni struktury.

Słowa kluczowe:

nanomateriał, grafen, grafit, modelowanie eksperymentalne, wiązanie wodorowe, struktura okresowa

Bibliografia

ANSYS, Ansys Multiphysics Manuals, 2020, https://www.ansys.com/.

Bartusek K., Drexler P., Fiala P., et al.: Magnetoinductive Lens for Experimental Mid-field MR Tomograph. Progress in Electromagnetics Research Symposium Proceedings 1&2, 2010, 1047–1050.

Bina M.: The coherent interaction between matter and radiation. The European Physical Journal Special Topics 203(1), 2012, 163–183.

Castro Neto A.H., Guinea F., Novoselov K.S., Geim A.K.: The electronic properties of graphene. Reviews of modern physics 81, 2009, 109.

Chao Yan, Kwang-Seop Kim, Seoung-Ki Lee, Sang-Hoon Bae, Byung Hee Hong, Jae-Hyun Kim, Hak-Joo Lee, Jong-Hyun Ahn: Mechanical and Environmental Stability of Polymer Thin-Film-Coated Graphene. ACS Nano 6(3), 2012, 2096–2103.

Drexler P., Fiala P., Dohnal P., Marcon P.: The Electromagnetic Properties of a Multilayered Resonant Structure Formed from Inorganic Elements. Progress in Electromagnetics Research Symposium 2018, 2176–2183 [https://doi.org/10.23919/PIERS.2018.8597705].

Drexler P., Fiala P., Dohnal P., Marcoň P.: The electromagnetic properties of a resonant structure formed from inorganic or organic elements. Progress in Electromagnetics Research Symposium 2017, 970–974 [https://doi.org/10.1109/PIERS-FALL.2017.8293274].

Drexler P., Nespor D., Kadlec R., Cap M.: Numerical Analysis of Metallic Periodic Structures in THz Region. Progress in Electromagnetics Research Symposium, 2016, 2730–2733.

Farhana Faisal T., Islam A., Jouini M. S., Devarapalli R. S., Jouiad M., Sassi M.: Numerical prediction of carbonate elastic properties based on multi-scale imaging. Geomechanics for Energy and the Environment 20, 2019, 100125 [https://doi.org/10.1016/j.gete.2019.100125].

Fiala P., Bartušek K., Bachorec T., Dohnal P.: An Interference EMG Model of Selected Water Samples. Progress in Electromagnetics Research Symposium 2018, 775–781 [https://doi.org/10.23919/PIERS.2018.8597958].

Fiala P., Bartušek K., Dědková J., Dohnal P.: EMG field analysis in dynamic microscopic/nanoscopic models of matter. Informatyka, Automatyka, Pomiary w Gospodarce i Ochronie Środowiska 9(1), 2019, 4–10.

Fiala P., Drexler P., Nespor D.: A resonance-based solar element: a numerical model and micro/nano technology application. Proc. SPIE 8763, 2013, 87632A1-87632A7.

Fiala P., Drexler P., Nespor D.: Principal tests and verification of a resonance-based solar harvester utilizing micro/nano technology. Microsystem Technologies 20(4-5), 2014, 845–860.

Fiala P., Drexler P.: Power supply sources based on resonant energy harvesting. Microsystem Technologies-Micro-And Nanosystems-Information Storage and Processing Systems 18(7-8), 2012, 1181–1192.

Fiala P., Friedl M.: Application of an electromagnetic numerical model in accurate measurement of high velocities. Informatyka, Automatyka, Pomiary w Gospodarce i Ochronie Środowiska 5(3), 2015, 3–10.

Fiala P., Gescheidtova E., Jirku T.: Tuned Structures for Special THz Applications. Progress in Electromagnetics Research Symposium (PIERS 2009) 2009, 151–155.

Fiala P., Kadlec R., Drexler P.: Modeling multilayered samples of inorganic and organic speckle structures. Progress in Electromagnetics Research Symposium, 2019, 2646–2651 [https://doi.org/10.1109/PIERS-Spring46901.2019.9017266].

Fiala P., Machac J., Polivka J.: Microwave noise field behaves like white light. Progress In Electromagnetics Research 111(1), 2011, 311–330.

Fiala P., Maxa J.: Numerical Models of a Multilayered Graphene Structure, Progress in Electromagnetics Research Symposium (PIERS-Toyama) 2018, 527–532 [https://doi.org/10.23919/PIERS.2018.8598000].

Fiala P., Nespor D., Drexler P., Steinbauer M.: Numerical Model of a Nanoelectric Line from a Graphene Component. Microsystem Technologies 1, 2016, 1–18.

Fiala P., Szabó Z., Friedl M.: EMHD models respecting relativistic processes of trivial geometries. Progress in Electromagnetics Research Symposium, 2011, 95–98.

Fiala P., Werner P., Osmera P., Dohnal P.: Using a multiscale toroidal element to model a hydrogen atom. Progress in Electromagnetics Research Symposium - Fall (PIERS - FALL), 2017, 956–960.

Fiala P., Werner P., Osmera P., Gescheidtova E., Drexler P., Kriz T.: Periodical structures and multiscale modelling. Progress in Electromagnetics Research Symposium, 2017, 1698–1703.

Geim A.K., Novoselov K.S.: The rise of graphene. Nature Materials 6(3), 2009, 183-91.

Haňka L.: Teorie elektromagnetického pole, paperback SNTL. Praha 1971.

Heyrovska R., Narayan S.: Structures of Molecules at the Atomic Level: Caffeine and Related Compounds. Philippine Journal of Science 140(2), 2008, 119–124.

Heyrovska R.: Atomic Structures of Graphene, Benzene and Methane with Bond Lengths as Sums of the Single, Double and Resonance Bond Radii of Carbon. General Physics, 2008, arXiv:0804.4086

Heyrovska R.: Methane, benzene and graphene, internal research report. 2008 http://arxiv.org/ftp/arxiv/papers/0804/0804.4086.pdf .

Holmes J., Ishimaru A.: Relativistic communications effects associated with moving space antennas. IEEE Transactions on Antennas and Propagation 17(4), 1969, 484–488.

Hui F., Pan Ch., Shi Y., Ji Y., Grustan-Gutierrez E., Lanza M.: On the use of two dimensional hexagonal boron nitride as dielectric. Microelectronic Engineering 163, 2016, 119–133.

Jović D., Jaćević V., Kuča K., Borišev I., Mrdjanovic J., Petrovic D., Djordjevic A.: The puzzling potential of carbon nanomaterials: General properties, application, and toxicity. Nanomaterials 10(8), 2020, 1–30 [https://doi.org/10.3390/nano10081508].

Kadlec R., Drexler P.: Analysing the Responses of Layered Materials with Varied Parameters. Progress in Electromagnetics Research Symposium, 2017, 988–992.

Kadlec R., Fiala P.: The Response of Layered Materials to EMG Waves from a Pulse Source. Progress In Electromagnetics Research M 42(1), 2015, 179–187.

Kikuchi H.: Electrohydrodynamics in dusty and dirty plasmas, gravito-electrodynamics and EHD. Kluwer, Boston 2001.

Kim H.-J., Kang G.-H., Kim S.-H., Park S.: Enhancement of Electromagnetic Wave Shielding Effectiveness of Carbon Fibers via Chemical Composition Transformation Using H2 Plasma Treatment. Nanomaterials 10, 2020, 1611.

Kragh H.: Niels Bohr and the Quantum Atom: The Bohr Model of Atomic Structure 1913–1925. Oxford Scholarship online, 2012 [https://doi.org/10.1093/acprof:oso/9780199654987.001.0001].

Madrova T.: Supravodivost ve čtvrtém skupenství (Superconductivity in the fourth state) – diploma thesis. Brno University of Technology. Brno 2020.

Marinho B., Ghislandi M., Tkalya E., et al.: Electrical conductivity of compacts of graphene, multi-wall carbon nanotubes, carbon black, and graphite powder. Powder Technology 221, 2012, 351–358.

Maxwell J. C.: A treatise on electricity and magnetism. London Macmillan and co., Publishers to the University of Oxford, Oxford 1873.

Ozmaian M., Fathizadeh A., Jalalvand M. et al.: Diffusion and self-assembly of C60 molecules on monolayer graphyne sheets. Sci Rep 6, 2016, 21910, [https://doi.org/10.1038/srep21910].

Shin E., Lee B., Jo S., Jeong G.: Investigation of early stage of carbon nanotube growth on plasma-pretreated inconel plates and comparison with other superalloys as substrates. Nanomaterials 10(8), 2020, 1–11 [https://doi.org/10.3390/nano10081595].

Steinbauer M., Fiala P., Szabo Z., Bartusek K.: Experiments with accuracy of the air ion field measurement. Advances in Electrical and Electronic Engineering 8(7), 2008, 276–279.

Stratton J. A.: Electromagnetic Theory. Wiley, New York 1941.

Sun Y., Luo S., Sun H. et. al.: Engineering closed-cell structure in lightweight and flexible carbon foam composite for high-efficient electromagnetic interference shielding. Carbon 136, 2018, 299–308.

Szalay S., Barcza G., Szilvási T., et al.: The correlation theory of the chemical bond. Nature-Scientific Reports 7, 2017, 2237 [https://doi.org/10.1038/s41598-017-02447-z].

Urban R., Drexler P., Fiala P., Nespor D.: Numerical Model of a Large Periodic Structure. Proc. PIERS, 2014, 2350–2354.

Van Bladel J.: Motion of a conducting loop in a magnetic field. IEE Proceedings 13.5, Pt. A, no. 4, 1988, 217–222.

Weisstein E. W.: Galerkin Method. MathWorld, 2015, http://mathworld.wolfram.com/GalerkinMethod.html.

Werner P.: Modeling the basic ring structures in elementary particles of matter. DTEEE FEEC BUT, Brno 2018.

Yang S. L., Sobota J. A., Howard C. A., Pickard C. J., Hashimoto M., Lu D. H., Mo S. K., Kirchmann P. S., Shen, Z. X.: Superconducting graphene sheets in CaC6 enabled by phonon-mediated interband interactions. Nature Comunnications 5(1), 2014, 3493.

Yarim C., Daybelge U., Sofyali A.: Search for the general relativistic effects on the motion of a spacecraft. 4th International Conference Recent Advances in Space Technologies RAST’09, 2009, 553–556.

Zhang D., Ranjan B., Tanaka T., Sugioka K.: Multiscale hierarchical micro/nanostructures created by femtosecond laser ablation in liquids for polarization-dependent broadband antireflection. Nanomaterials 10(8), 2020, 1–15 [https://doi.org/10.3390/nano10081573].

MODELOWANIE NANOSTRUKTUR ELEKTROMAGNETYCZNYCH I EKSPERYMENTY Z ELEMENTAMI NANOELEKTRYCZNYMI W CELU TWORZENIA STRUKTUR OKRESOWYCH. (2020). Informatyka, Automatyka, Pomiary w Gospodarce i Ochronie Środowiska, 10(4), 4-14. https://doi.org/10.35784/iapgos.2383

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Numer Tom 10 Nr 4 (2020)

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