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Journal of Advanced Materials and Technologies

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Технологии управляемого получения и характеристики тонкослойных топологических нанообъектов и нанокластеров при лазерном воздействии на твердые мишени: алгоритмы и моделирование, квантовая бистабильность в 1D-микроструктурах, аналогии с углеродными нанотрубками

https://doi.org/10.17277/jamt.2024.01.pp.060-074

Аннотация

Приведены результаты исследований процессов управляемого лазерного синтеза нанокластерных / островковых нанопленок разной топологической конфигурации в десятки и сотни нанометров. Отдельно рассмотрены результаты по структурам с теллуридом свинца (PbTe) и квантовой бистабильности в поляритонно-экситонной системе. Проведен анализ используемых алгоритмов и расчетных моделей для решения данных задач и приведен ряд полученных и наблюдаемых изображений разных поверхностных наноструктур. Такие вопросы рассмотрены и в аспекте их влияния, например, на поверхностную электропроводимость исследуемых образцов, а также и на другие их функциональные характеристики. Конспективно обсуждается явление квантовой бистабильности в модели экситонных поляритонов и соответствующие режимы ее проявления в полупроводниковых 1D-микрорезонаторах столбчатого типа, которые могут быть рассмотрены как аналоги систем с углеродными нанотрубками. Именно современные достижения в технологии их производства в промышленном масштабе, включая пучки и нити нанотрубок, позволяют говорить о возможности их широкого применения, в частности в микрои наноэлектронике, как элементов логических устройств разного типа, а также чувствительных универсальных сенсоров разного предназначения.

Об авторах

Д. Н. Бухаров
Владимирский государственный университет им. Александра Григорьевича и Николая Григорьевича Столетовых
Россия

Бухаров Дмитрий Николаевич - старший преподаватель.

Ул. Горького, 87, Владимир, 600000



Т. А. Худайберганов
Владимирский государственный университет им. Александра Григорьевича и Николая Григорьевича Столетовых
Россия

Худайберганов Тимур Алиевич – ассистент.

Ул. Горького, 87, Владимир, 600000



А. Г. Ткачев
Тамбовский государственный технический университет
Россия

Ткачев Алексей Григорьевич - доктор технических наук, профессор, заведующий кафедрой.

Ул. Советская, 106/5, пом. 2, Тамбов, 392000



С. М. Аракелян
Владимирский государственный университет им. Александра Григорьевича и Николая Григорьевича Столетовых
Россия

Аракелян Сергей Мартиросович - доктор физикоматематических наук, профессор, заведующий кафедрой.

Ул. Горького, 87, Владимир, 600000



Список литературы

1. Sidorova SV, Yurchenko PI. Study of the formation of island nanostructures in a vacuum. Nanoi microsystemnaya tekhnika. 2011;5:9-11. (In Russ.)

2. Freik DM, Yurchishin IK, Lisuk YuV. Quantumsize effects in nanostructures and problems of thermoelectricity. Thermoelectrichestvo. 2012;2:5-30. (In Russ.)

3. Bukharov DN, Kucherik AO, Arakelian SM. Nanocluster fractal electrical conductivity in thin films on a solid surface: dimensional models of different configurations and demonstration of results in a laser experiment. Journal of Advanced Materials and Technologies. 2023;8(3):227-251. DOI:10.17277/jamt.2023.03.pp.227-251

4. Kulbachinsky VA. Semiconductor quantum dots. Sorosovskiy Obrazovatel′nyy Zhurnal. 2001;4:98-104. (In Russ.)

5. Roduner E. Size effects in nanomaterials. Moscow: Tekhnosphere; 2010. 368 p. (In Russ.)

6. Laucht A, Hofbauer F, Hauke N, Angele J, et al. Electrical control of spontaneous emission and strong coupling for a single quantum dot. New Journal of Physics. 2009;11:23-34. DOI:10.1088/1367-2630/11/2/023034

7. Sarkar DK, Zhou X, Tannous A. Growth of selfassembled copper nanostructure on conducting polymer by electrodeposition. Solid State Communications. 2003; 125(7-8):365-368. DOI:10.1016/S0038-1098(02)00883-9

8. Gribachev V. Nanosensors. Componenti i Tekhnologii. 2009;4(93):21-24. (In Russ.)

9. Kryzhanovskaya NV, Maksimov MV, Zhukov AE. Lasers based on quantum dots and microcavities with whispering gallery modes. Kvantovaya Electronica. 2014;44(3):189-200. (In Russ.)

10. Aseev AL. Nanomaterials and nanotechnologies for modern semiconductor electronics. Rossiyskie Nanotechnologii = Nanobiotechnology Reports. 2006; 1(1-2):97-110.(In Russ.)

11. Ilyichev EA, Nabiev RM, Petrukhin GN, Rychkov GS, et al. Carbon materials in electronics: status and problems. Izvestiya Vysshikh Uchebnykh Zavedeniy. Elektronika = Semiconductors. 2011;5(91):18-35. (In Russ.)

12. Garnov SV, Abramov DV, Bukharov DN, Khudayberganov TA, et al. Electrophysics of carbon 1D structures obtained in a laser experiment. Uspehi fizicheskih nauk = Physics-Uspekhi. 2024;194(2):115-137. DOI:10.3367/UFNr.2023.12.039620 (In Russ.)

13. Gryaznov KO, Sineva LV, Asalieva EY, Mordkovich VZ. Comprehensive comparison of highperformance Fischer-Tropsch synthesis cobalt catalysts containing different types of heat-conducting frames. Catalysis in Industry. 2023;15(1):21-35. DOI:10.1134/S2070050423010051

14. Tkachev AG, Mikhaleva ZA, Burakova EA. Study of methods for increasing the activity of catalysts for the production of carbon nanostructured materials. Himicheskaya tekhnologiya = Theoretical Foundations of Chemical Engineering. 2009;10(2):81-86. (In Russ.)

15. Burakova EA, Litovka YuV, Nesterov VA, Sypalo KI, et al. The concept of controlling the characteristics of nanotubes by processing a catalyst precursor for their synthesis. Journal of Computer and Systems Sciences International. 2022;61(5):843-857. DOI:10.1134/S1064230722050057

16. Burakova EA, Litovka YuV, Nesterov VA, Sypalo KI, et al. The concept of controlling the characteristics of nanotubes by processing a catalyst precursor for their synthesis. Izvestiya RAN. Neorii i sistemi upravleniya = Journal of Computer and Systems Sciences International. 2022;(5):102-117. DOI:10.31857/S0002338822050055 (In Russ.)

17. Burakova EA, Filatova EYu, Burakov AE, Tkachev AG. Effect of ultrahigh frequencies on catalytic systems for the synthesis of carbon nanomaterials. Himicheskaya tekhnologiya = Theoretical Foundations of Chemical Engineering. 2011;12(9):539-542. (In Russ.)

18. Burakova EA, Burakov AE, Ivanova IV, Tkachev AG, et al. Study of the activation of metal oxide catalysts for the synthesis of multi-walled carbon nanotubes. Vestnik Tambovskogo Gosudarstvennogo Tekhnicheskogo Universiteta. 2010;16(2):337-342. (In Russ.)

19. Mishchenko SV, Tkachev AG. Carbon Nanomaterials. Production, Properties, Application. Moscow: Mashinostroyenie; 2008. 320 p. (In Russ.)

20. Burakova EA. The concept of control of complex technical systems for the production of carbon nanomaterials. Prikaspijskij zhurnal: upravlenie i vysokie tekhnologii = Caspian Journal: Control and High Technologies. 2023;61:9-18. DOI:10.54398/20741707_2023_1_9 (In Russ.)

21. Ashuiev A, Nobile AG, Trummer D, Klose D, et al. Active Sites in Cr(III)-based Ethylene Polymerization Catalysts from Machine Learning-Supported XAS and EPR Spectroscopy. ChemRxiv. Cambridge: Cambridge Open Engage; 2023. 400 p. DOI:10.26434/chemrxiv-2023-34wl2

22. Cao G, Wang Y. Nanostructures and nanomaterials: Synthesis, Properties and Applications. World Scientific Publishing; 2011. 581 p.

23. Gulyakovich GN, Severtsev VN, Shurchkov IO. Prospects and problems of semiconductor nanoelectronics. Injenerniy Vestnik Dona. 2012;2(20):315-319. (In Russ.)

24. Loktev D, Yamashkin E. Methods and equipment for applying wear-resistant coatings. Nanoindustriya. 2007;4:18-25. (In Russ.)

25. Zuev DA, Lotin AA, Novodvorsky OA, Lebedev FV, et al. Pulsed laser deposition of thin ITO films and their characteristics. Fizika i Tekhnika Poluprovodnikov. 2012;46(3):425-429. (In Russ.)

26. Eroshova OI, Perminov PA, Zabotnov SV, Gongalsky MB, et al. Structural properties of silicon nanoparticles prepared by pulsed laser ablation in liquid media. Kristallografiya = Crystallography Reports. 2012;57(6):942-947. (In Russ.)

27. Domke M, Nobile L, Rapp S Eiselen, Sotrop S, et al. Understanding thin film laser ablation: the role of the effective penetration depth and the film thickness. Physics Procedia. 2014;56:1007-1014. DOI:10.1016/j.phpro.2014.08.012

28. Arakelyan SM, Khudaberganov TA, Istratov AV, Osipov AV, Khorkov KS. Topological laser-induced quantum states in nanocluster structures: fundamental effects and possible applications (electrophysics and optics). Optika i Spektroskopiya. 2019;127(7):125-136. DOI:10.21883/OS.2019.07.47939.113 (In Russ.)

29. Shuleiko DV, Potemkin FV, Romanov IA, Parhomenko IN, et al. Femtosecond laser pulse modification of amorphous silicon films: control of surface anisotropy. Laser Physics Letters. 2018;15:056001. DOI:10.1088/1612-202X/aaacf9

30. Drampyan R, Leonov N, Vartanyan T. Laser controlled deposition of metal microstructures via nondiffracting Bessel beam illumination. Nanophotonics VI. 2016;9884:98841J. DOI:10.1117/12.2227763

31. Emelyanov VI, Zaitsev VB, Plotnikov GS. Formation and evolution of nanostructures on the surface of semiconductors during laser inelastic photodeformation. Poverkhnost'. Rentgenovskiye, sinkhrotronnyye i neytronnyye issledovaniya = Journal of Surface Investigation: X-Ray, Synchrotron and Neutron Techniques. 2008;5:80-87. (In Russ.)

32. Emelyanov VI. Defect-deformation theory of the formation of an ensemble of nanoparticles with a bimodal size distribution during continuous laser irradiation of solids. Kvantovaya Elektronika = Quantum Electronics. 2011;41(8):738-741. (In Russ.)

33. Arakelian SM, Kucherik AO, Kutrovskaya SV, Osipov AV, et al. Laser-induced nanocluster thin-film systems with controlled topology and composition: the possibility of creating superconducting structures based on new physical principles. Crystallography Reports. 2018;63(7):1173-1177. DOI:10.1134/S1063774518070027

34. Fedotov AYu. Modeling of formation processes and properties of nanostructures and nanofilms formed in a gaseous environment. Khimicheskaya Fizika i Mezoskopiya. 2017;19(2):230-249. (In Russ.)

35. Suzdalev IP. Nanotechnology: Physico-Chemistry of Nanoclusters, Nanostructures and Nanomaterials. Moscow: URSS; 2008. 589 p. (In Russ.)

36. Roldugin VI. Fractal structures in dispersed systems. Uspekhi Khimii = Russian Chemical Reviews. 2003;72(10):931-959. (In Russ.)

37. Zyryanov RS. Development of fractal models of aggregation of colloidal particles. Molodoy Ucheniy. 2016;24(128):72-76. (In Russ.)

38. Wei H, Eilers H. From silver nanoparticles to thin films: Evolution of microstructure and electrical conduction on glass substrates. Journal of Physics and Chemistry of Solids. 2009;70:459-465. DOI:10.1016/j.jpcs.2008.11.012

39. Kronover PM. Fractals and chaos in dynamic systems. Fundamentals of theory. Moscow: Postmarket; 2000. 352 p. (In Russ.)

40. Falconer K. Fractal Geometry: mathematical foundations and applications. New York: John Wiley & Sons; 2013. 400 p.

41. Mahanta A, Sarmah H, Paul R, Choudhury G. Julia set and some of its properties. International Journal of Applied Mathematics & Statistical Sciences (IJAMSS). 2016;5(2):99-124.

42. Iudin DI, Koposov EV. Fractals: from simple to complex. N. Novgorod: NNGASU; 2012. 200 p. (In Russ.)

43. Bukharov DN, AbramovAS, Novikova OA, Samyshkin VD. Fractal models of the PbTe nanocluster structures on a solid surface. Journal of Physics: Conference Series. 2022;2316(1):012013. DOI:10.1088/1742-6596/2316/1/012013

44. Arakelyan SM, Bukharov DN, Emelyanov VI, Zimin SP, et al. Bimodal ensemble of nanoparticles on the surface of epitaxial films of lead telluride under the influence of continuous laser radiation. Poverkhnost'. Rentgenovskiye, sinkhrotronnyye i neytronnyye issledovaniya = Journal of Surface Investigation: X-Ray, Synchrotron and Neutron Techniques. 2015;11:41-49. DOI:10.7868/S0207352815110062 (In Russ.)

45. Gonzalez R, Woods R, Eddins S. Digital image processing in the MATLAB environment. Moscow: Tekhnosfera; 2006. 616 p. (In Russ.)

46. Dyakonov VP, Abramenkova IV. MATLAB. Signal and image processing. Special reference book. St. Petersburg: Piter; 2002. 608 p. (In Russ.)

47. Seroklinov G, Goonko A. Comparative analysis of experimental data clustering in MATLAB and Python environment. E3S Web of Conferences. 2023;419:20-25. DOI:10.1051/e3sconf/202341902025

48. Chamundeswari G, Pardasaradhi VG, Satyanarayana Ch. An experimental analysis of K-means using Matlab. International Journal of Engineering Research & Technology. 2012;1(5):1-5.

49. Boltaev AP, Penin NA, Pogosov AO, Pudonin FA. Activation conductivity in island metal films. Zhurnal eksperimental′noy i teoreticheskoy fiziki = Journal of Experimental and Theoretical Physics. 2004;126:945-961. (In Russ.)

50. Rostovshchikova TN, Smirnov VV, Kozhevin VM, Yavsin DA, Gurevich SA. Intercluster interactions in catalysis by nanosized metal particles. Rossiyskiye nanotekhnologii = Nanobiotechnology Reports. 2007; 2(1-2):47-60. (In Russ.)

51. Anfimov IM, Kobeleva SP, Malinkovich MD, Shchemerov IV, et al. Mechanisms of electrical conductivity of silicon–carbon nanocomposites with nanosized tungsten inclusions in the temperature range 20–200 °C. Izvestiya Vysshikh Uchebnykh Zavedeniy. Materialy elektronnoytekhniki = Modern Electronic Materials. 2012;2:58-60. (In Russ.)

52. Ravich YuI, Nemov SA. Hopping conduction through highly localized states of indium in PbTe and solid solutions based on it. Fizika i tekhnika poluprovodnikov = Semiconductors. 2002;36(1):3-23. (In Russ.)

53. Gantmakher VF. Electrons in disordered media. Moscow: FIZMATLIT; 2013. 288 p. (In Russ.)

54. Gallyamov SR, Melchukov SA. Percolation model of conductivity of a two-phase lattice: theory and computer experiment. Izvestiya Instituta matematiki i informatiki Udmurtskogo gosudarstvennogo universiteta. 2010; 4:112-122. (In Russ.)

55. Bleibaum O, Böttger H, Bryksin VV. Randomresistor network description for hopping transport in the presence of Hubbard interaction. Journal of Physics: Condensed Matter. 2003;15:1719. DOI:10.1088/09538984/15/10/319

56. Arakelian SM, Bukharov DN, Emel'yanov VI, Zimin SP, et al. Laser nanostructuring of the PbX thin films for creation of the semiconductor devices with controlled properties. Physics Procedia. 2014;56(C):11151125. DOI:10.1016/j.phpro.2014.08.026

57. Bengfort M, Malchow H, Hilker FM. The Fokker–Planck law of diffusion and pattern formation in heterogeneous environments. Journal of Mathematical Biology. 2016;73:683-704. DOI:10.1007/s00285-016-0966-8

58. Cavaliere E, Ferrini G, Pingue P, Gavioli L. Fractal TiO2 nanostructures by nonthermal laser ablation at ambient pressure. The Journal of Physical Chemistry C. 2013;117(44):23305-23312. DOI:10.1021/jp406603q

59. Cavaliere E, Benetti G, Celardo GL, Archetti D, et al. Aggregation and fractal formation of Au and TiO2 nanostructures obtained by fs-pulsed laser deposition: experiment and simulation. Journal of Nanoparticle Research. 2017;19(9):311. DOI:10.1007/s11051-017-4009-1

60. Budaev VP, Khimchenko LN. Fractal nanoand microstructure of deposited films in thermonuclear installations. Voprosy Atomnoy Nauki i Tekhniki. Seriya Termoyadernyy Sintez. 2008;3:34-61. (In Russ.)

61. Kavokin A, Baumberg JJ, Malpuech G, Laussy FP. Microcavities. Oxford: Oxford University Press; 2017. 500 p.

62. Sanvitto D, Stéphane K-C. The road towards polaritonic devices. Nature Materials. 2016;15(10):10611073. DOI:10.1038/nmat4668

63. Gerard JM, Barrier D, Marzin JY, Kuszelewicz R, Manin L. Quantum boxes as active probes for photonic microstructures: The pillar microcavity case. Applied Physics Letters. 1966;69(449):1-6. DOI:10.1063/1.118135

64. Löffler A, Reithmaier JP, Sęk G, Hofmann C, et al. Semiconductor quantum dot microcavity pillars with high-quality factors and enlarged dot dimensions. Applied Physics Letters. 2005;86(11):1-10. DOI:10.1063/1.1880446

65. Galbiati M. Polariton condensation in photonic molecules. Physical Review Letters. 2012;108(12):126403. DOI:10.1103/PhysRevLett.108.126403

66. Abbarchi M, Amo A, Sala VG, Solnyshkov DD, et al. Macroscopic quantum self-trapping and Josephson oscillations of exciton-polaritons. Nature Phys. 2013;9:275. DOI:10.1038/nphys2609

67. Flayac H, Savona V. Unconventional photon blockade. Physical Review A. 2017;96(5):053810. DOI:10.1103/PhysRevA.96.053810

68. Johansson JR, Nation PD, Nori F. QuTiP: An open-source Python framework for the dynamics of open quantum systems. Computer Physics Communications. 2012;183(8):1760-1772. DOI:10.1016/j.cpc.2012.02.021

69. McCutcheon D, Dara PS. A general approach to quantum dynamics using a variational master equation: Application to phonon-damped Rabi rotations in quantum dots. Physical Review B. 2011;84(8):081305. DOI:10.1103/PhysRevB.84.081305

70. Ohadi H, Gregory RL, Freegarde T, Rubo YG, et al. Nontrivial phase coupling in polariton multiplets. Physics Review X. 2016;6:031032. DOI:10.1103/ PhysRevX.6.031032

71. Rodriguez SRK, Casteels W, Storme F, et al. Probing a dissipative phase transition via dynamical optical hysteresis. Physical Review Letters. 2017;118(24):247402. DOI:10.1103/PhysRevLett.118.247402

72. Walls DF, Milburm GJ. Quantum optics. Dordreht: Springer Science and Business Media; 2007. 370 p.

73. Khudaiberganov T, Arakelian S. Quantum polariton trigger. IOP Conference Series: Materials Science and Engineering. 2020;896(1):12-26. DOI:10.1088/1757-899X/896/1/012126

74. Kharkova AV, Voznesenskaya AA, Kochuev DA, Khorkov KS. Influence of laser irradiation parameters on the temperature of the treated surface. Izvestiya Rossiyskoy akademii nauk. Seriya fizicheskaya. 2022;86(6):864-868. DOI:10.31857/S0367676522060151 (In Russ.)

75. Kharkova AV, Kochuev DA, Davidov NN. Laser synthesis of a weakly agglomerated aluminium oxide nanopowder doped with terbium and ytterbium. Journal of Physics: Conference Series. 2021;2131:052086. DOI:10.1088/1742-6596/2131/5/052086

76. Novikov IV, Krasnikov DV, Shestakova VS, Rogov IP, et al. Boosting CO-based synthesis of singlewalled carbon nanotubes with hydrogen. Chemical Engineering Journal. 2023;476:146527. DOI:10.1016/j.cej.2023.146527

77. Alferov ZhI, Aseev AL, Gaponov SV, Kopyev PS, et al. Nanomaterials and nanotechnologies. Mikrosistemnaya tekhnika. 2003;8:3-13. (In Russ.)

78. Physicists have created a simple method for embedding two-dimensional nanostructures into microchips. Available from: https://www.nanonewsnet.ru/news/2023/fiziki-sozdaliprostoi-metod-vstraivaniya-dvumernykh-nanostruktur-vmikrochipy [Accessed 15 December 2023]. (In Russ.)


Рецензия

Для цитирования:


Бухаров Д.Н., Худайберганов Т.А., Ткачев А.Г., Аракелян С.М. Технологии управляемого получения и характеристики тонкослойных топологических нанообъектов и нанокластеров при лазерном воздействии на твердые мишени: алгоритмы и моделирование, квантовая бистабильность в 1D-микроструктурах, аналогии с углеродными нанотрубками. Journal of Advanced Materials and Technologies. 2024;9(1):60-74. https://doi.org/10.17277/jamt.2024.01.pp.060-074

For citation:


Bukharov D.N., Khudayberganov T.A., Tkachev A.G., Arakelian S.M. Technologies for controlled synthesis and characteristics of thin-layer topological nanoobjects and nanoclusters under laser irradiation on solid targets: algorithms and modeling, quantum bistability in 1D-microstructuresand analogy with carbon nanotubes. Journal of Advanced Materials and Technologies. 2024;9(1):60-74. https://doi.org/10.17277/jamt.2024.01.pp.060-074

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