Positions
Research work
Performance
Performance
2022
- Газизов А.Р., Салахов М.Х., Харинцев С.С. Селективное оптоплазмонное усиление антистоксова комбинационного рассеяния света в тонких плёнках оксида графена // XІ Международная конференция по фотонике и информационной оптике: Сборник научных трудов. М.: НИЯУ МИФИ, 2022. – С.273-274.
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Saparina S.V. Enhanced Raman scattering in amorphous carbon films under cw laser irradiation / S.V.Saparina, A.R.Gazizov, S.S.Kharintsev // Book of abstracts of the 29th International Conference on Advanced Laser Technologies. - 2022. - P. 59.
Book_of_abstracts_22.pdf -
Kharitonov A. V. Designing Two-Dimensional Temperature Profiles with Arrays of Tunable TiON:Si Nanostructures / A. V. Kharitonov, S. S. Kharintsev // Abstracts of the 29th International Conference on Advanced Laser Technologies. – 2022. – C. 54
F_Book_of_abstracts_22_2.pdf - A.V. Kharitonov, S.S. Kharintsev. Broadband Plasmonics with Titanium Oxynitride // Bulletin of the Russian Academy of Sciences: Physics. V.86, № 13. (2022)
- A.V. Kharitonov, S.S. Kharintsev. Designing Two-Dimensional Temperature Profiles with Arrays of Tunable TiON:Si Nanostructures // Сборник трудов конференции «International Conference on Advanced Laser Technologies (ALT). 2022. №22. С. 54.
- А.В. Харитонов, С.С. Харинцев. Оптическая запись двумерных температурных профилей в массивах TiON наноструктур // Материалы Международного семинара по волоконным лазерам 2022. 2022. C. 233-234.
- A.V. Kharitonov, S.S. Kharintsev. Optical printing of two-dimensional temperature profiles in arrays of TiON nanostructures // Russian Fiber Lasers. Journal of the Institute of Automation and Electrometry SB RAS. V. 2, №1. P. 98-99. (2022)
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Shavelev A.A, Nizamutdinov A.S, Shakirov A.A, Characterization of perspective active medium based on mixed crystals Ce3+:LiCaxSr1-xAlF6//2022 International Conference Laser Optics, ICLO 2022 - Proceedingss. - 2022. - Vol., Is.. - .
2021
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Gazizov A.R, Kharitonov A.V, Kharintsev S.S., Amplification of Stimulated Raman Scattering in Media with a Near-Zero Refractive Index//JETP Letters. - 2021. - Vol.113, Is.3. - P.140-144.
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Saparina S.V. Water Enrichment/Depletion of Amorphous Carbon Coatings Probed by Temperature-Dependent Dc Electrical Conductivity and Raman Scattering / S.V.Saparina, A.I.Fishman, A.A.Stolov, J.Li, S.S. Kharintsev // Applied Surface Science.-2021.-N28. -151052
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Abdullin A.L, Aganov A.V, Akchurin A.D, Professor myakzyum khalimulovich salakhov, president of the tatarstan academy of sciences//Magnetic Resonance in Solids. - 2021. - Vol.23, Is.1. - Art. № 21100.
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Saparina S.V, Fishman A.I, Stolov A.A, Water enrichment/depletion of amorphous carbon coatings probed by temperature-dependent dc electrical conductivity and Raman scattering//Applied Surface Science. - 2021. - Vol.570, Is.. - Art. №151052.
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Газизов А.Р., Салахов М.Х., Харинцев С.С. Электронные состояния нитрида и оксинитрида циркония с близкой нулю диэлектрической проницаемостью // ХІІ Международный симпозиум по фотонному эхо и когерентной спектроскопии (ФЭКС-2021) памяти профессора Виталия Владимировича Самарцева. Сборник тезисов: электронное издание. Казань, 2021. -- С. 295-298.
- Gazizov A., Kharitonov A., Salakhov M., Kharintsev S., Plasmon-Enhanced Stimulated Raman Scattering On The Surface Of Metallic Film // 2021 Photonics North (PN). IEEE Xplore. - 2021. - art. no. 9597960
- Харитонов А. В., Харинцев С. С. Усиление эффективности линейных и нелинейных взаимодействий в материалах с близким к нулю показателем преломления // XII международный симпозиум по фотонному эхо и когерентной спектроскопии (ФЭКС-2021) памяти профессора Виталия Владимировича САМАРЦЕВА: Сборник тезисов. - М., 2021. - С. 260-263. ISBN 978-5-89513-501-3
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Kazantseva A.V. Nanoscale investigation of two-photon polymerized
microstructures with tip-enhanced Raman spectroscopy
/ A.V. Kazantseva, E.A. Chernykh, C. Crook, E.P. Garcia, D.A. Fishman, E.O Potma, L. Valdevit, S.S. Kharintsev, T. Baldacchini // Journal of Physics: Photonics. - 2021. - V. 3. - p. 1-11.
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Харитонов А.В., Газизов А.Р., Харинцев C.C., Усиление кубической
нелинейности в средах с близкой к нулю диэлектрической проницаемостью:
невырожденный оптический эффект Керра // Письма в ЖЭТФ. - 2021. - Том
114, вып. 11. - С. 756 – 761.
F_article_34950.pdf
2020
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Gazizov A.R, Salakhov M.K, Kharintsev S.S., Tip-modified Raman tensor of a porphine molecule//Journal of Raman Spectroscopy. - 2020. - Vol.51, Is.. - 442–451.
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Kharintsev S.S, Kharitonov A.V, Gazizov A.R, Disordered Nonlinear Metalens for Raman Spectral Nanoimaging//ACS Applied Materials and Interfaces. - 2020. - Vol.12, Is.3. - P.3862-3872.
- Kuznetsov S.V., Nizamutdinov A.S., Madirov E.I., Voronov V.V., Tsoy K.S., Khadiev A.R., Yapryntsev A.D., Ivanov V.K., Kharintsev S.S., Semashko V.V., Near infrared down-conversion luminescence of Ba4Y3F17:Yb3+:Eu3+ nanoparticles under ultraviolet excitation, NANOSYSTEMS: PHYSICS, CHEMISTRY, MATHEMATICS, 11 (3), 2020, P.316-323.
- Kharintsev S.S. Spectrally Resolving Coherent TERS Spectroscopy of Electrically Biased Carbon-Coated Fibers / S.S. Kharintsev, S.V.Saparina, A.I.Fishman, A.A.Stolov, J.Li// J. Phys. Chem. C.- 2020.- V.124, N27.-P.14752–14758 https://dx.doi.org/10.1021/acs.jpcc.0c05228
- Kuznetsov S. V., Nizamutdinov A. S., Madirov E. I., Near infrared down-conversion luminescence of Ba4Y3F17:Yb3+:EU3+ nanoparticles under ultraviolet excitation//NANOSYSTEMS-PHYSICS CHEMISTRY MATHEMATICS. - 2020. - Vol.11, Is.3. - P.316-323.
- Газизов А. Р., Салахов М.Х., Харинцев С.С. Вынужденное гигантское комбинационное рассеяние света на одиночной молекуле, связанной с плазмонным нанорезонатором // IX Международная конференция по фотонике и информационной оптике. Сборник научных трудов. – М.: НИЯУ МИФИ, 2020. – С. 431-432.
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Saparina S.V, Kharintsev S.S., Study of the modification of the hydrophobic properties of thin carbon films via thermo-assisted Tip-Enhanced Raman Scattering method//AIP Conference Proceedings. - 2020. - Vol.2300, Is.. - Art. № 020106.
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S.S. Kharintsev, A.V. Kharitonov, A.R. Gazizov, S.G. Kazarian. Disordered nonlinear metalens for Raman spectral nanoimaging // ACS Applied Materials and Interfaces, V. 12, №12, -P. 3862-3872, (2020)
- Kharintsev S.S. Spectrally Resolving Coherent TERS Spectroscopy of Electrically Biased Carbon-Coated Fibers /S.S.Kharintsev, S.V.Saparina, A.I.Fishman, A.A.Stolov, J.Li // The Journal of Phys.Chem.C .- 2020.- 124, N27.- P. 14752-14758
- Kharintsev S.S.Water-Anchored Edge Defects in Amorphous Carbon Probed with Thermal- and Electroassisted Raman Spectroscopy and Nanoscopy //S.S.Kharintsev, S.V.Saparina, A.I.Fishman, A.A.Stolov, J.Li //The Journal of Physical Chemistry C.-2020.-124, 29.-15886-15894
- - Near infrared down-conversion luminescence of:Ba 4 Y 3 F 17 :Eu 3+ :Yb 3+ nanoparticles under ultraviolet excitation
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Kharintsev S.S, Saparina S.V, Fishman A.I, Spectrally Resolving Coherent TERS Spectroscopy of Electrically Biased Carbon-Coated Fibers//Journal of Physical Chemistry C. - 2020. - Vol.124, Is.27. - P.14752-14758.
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Gazizov A.R., Kharitonov A.V, Kharintsev S.S., Enhanced wave dynamics at the surface of nonlinear Raman-active plasmonic material // AIP Conference Proceedings. - 2020. - Vol.2300. - Art. № 020035.
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A.V. Kharitonov, S.S. Kharintsev. Tunable optical materials for multi-resonant plasmonics: from TiN to TiON // Optical Materials Express, V. 10, №2, -P. 513-531, (2020)
2019
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Kirsty F. Gibson, Sergei G. Kazarian, Sergey S. Kharintsev, Tip-Enhanced Raman Spectroscopy, Encyclopedia of Analytical Chemistry, 2000, John Wiley & Sons, Ltd.
- Tyugaev M. D., Kharitonov A. V., Gazizov A. R., Fishman A. I. , Salakhov M. Kh., Dedkova A. A., Alekseev A. M., Shelaev A. V., and Kharintsev S. S. Stimulated Raman Scattering in Metal-Dielectric Nanocomposites with Spectrally Degenerate Dielectric Constant//JETP Letters. - 2019. - Vol.110, Is.12. - P.766-770.
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M.D. Tyugaev, A.V. Kharitonov, A.R. Gazizov, A.I. Fishman, M.Kh. Salakhov, A.A. Dedkova, A.M. Alekseev, A.V. Shelaev, S.S. Kharintsev. Stimulated Raman scattering in metal-dielectric nanocomposites with spectrally degenerate dielectric constant // JETP Letters, V. 110, №12, -P. 772-776, (2019)
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S.S. Kharintsev, A.V. Kharitonov, A.M. Alekseev, S.G. Kazarian. Superresolution stimulated Raman scattering microscopy using 2-ENZ nano-composites // Nanoscale, V. 11, №16, -P. 7710-7719, (2019)
- Газизов А. Р., Салахов М.Х., Харинцев С.С. Эффекты деполяризации в спектроскопии усиленного зондом комбинационного рассеяния // XIII Международные чтения по квантовой оптике. Сборник тезисов. – г. Троицк: Изд-во «Тровант» - 2019. – С. 281-283.
2018
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Алексеев А.М., Ал-Афееф A., Хедли Г.Д., Харинцев С.С., Ефимов А.Е., Едрисов А.Т., Дюжев Н.А., Самуэль И.Д.В., Исследование структуры объемного гетероперехода в полимерных солнечных элементах с помощью комбинации ультрамикротомирования и атомно-силовой микроскопии // Физика и техника полупроводников. - 2018. - Т. 52, №1. - С. 110-117.
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Kharintsev S.S, Gazizov A.R, Salakhov M.Kh, Near-field depolarization of tip-enhanced Raman scattering by single azo-chromophores//Physical Chemistry Chemical Physics. - 2018. - Vol.20, Is.37. - P.24088-24098.
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Saparina S.V, Kharintsev S.S., Characterization of carbon nanolayer of optical fibers via near-field raman spectroscopy««//Uchenye Zapiski Kazanskogo Universiteta. Seriya Fiziko-Matematicheskie Nauki. - 2018. - Vol.160, Is.1. - P.126-134.
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A.V. Kharitonov et al. Synthesis and characterization of titanium nitride thin films for enhancement and localization of optical fields // Thin solid films, V. 653, -P. 200-203, (2018)
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Gazizov A.R, Kharintsev S.S, Salakhov M.K., Self-consistent model for enhancement of the raman scattering of polarized light in azo-polymer film with a plasmonic nanoantenna««//Uchenye Zapiski Kazanskogo Universiteta. Seriya Fiziko-Matematicheskie Nauki. - 2018. - Vol.160, Is.1. - P.61-71.
2017
- Kharintsev S.S., Alekseev A.М., Loos J., Etchant-based design of gold tip apexes for plasmon-enhanced Raman spectromicroscopy // Spectrochimica Acta Part A: Molecular and Biomolecular Spectroscopy 171(15) 139–143 (2017)
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S.S. Kharintsev, A.V. Kharitonov, S.K. Saikin, A.M. Alekseev, S.G. Kazarian. Nonlinear Raman effects enhanced by surface plasmon excitation in planar refractory nanoantennas // Nano Letters, V. 17, №9, -P. 5533-5539, (2017)
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Chernykh E. Determination of the Glass Transition Temperature of
Freestanding and Supported Azo-Polymer Thin Films by Thermal Assisted Atomic Force Microscopy/E.Chernykh, S.Kharintsev, A.Fishman, А.Alekseev, М.Salakhov//The European Physical Journal Web of conf.-2017.-v.139.-00007
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Zinnatullin A.L. Synthesis and properties of the molybdenum and tungsten disulfide thin films / A.L. Zinnatullin, I.R. Vakhitov, A.I. Gumarov, Nikitin S.I., S.S. Kharintsev, I.V. Yanilkin, R.V. Yusupov // J. Phys. Conf. Ser. - 2017. - Vol. 789. – P.012073-(1-4).
Zinnatullin_2017_J._Phys.%3A_Conf._Ser._789_012073.pdf -
Kharintsev S.S., Shukhina K.L., Fishman A.I., Saikin S.K., Effect of secondary relaxation transitions on photo-induced anisotropy in glassy azobenzene-functionalized polymers // Journal of Materials Chemistry C 5, 6828-6833 (2017)
- Kharintsev Sergey S., Chernykh Elena A., Fishman Alexandr I., Photoinduced Heating of Freestanding Azo-Polymer Thin Films Monitored by Scanning Thermal Microscopy//JOURNAL OF PHYSICAL CHEMISTRY C. - 2017. - Vol.121, Is.5. - P.3007-3012.
- Kharintsev S.S., Saparina S.V., Stolov A.A., Jie Li, Fishman A.I., Sensing Carbon Allotropes in Protective Coatings on Optical Fibers with Far- and Near-Field Raman Spectroscopy and Microscopy // Journal of Raman Spectroscopy, 1-10, (2017). doi: 10.1002/jrs.5221
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Kharintsev S.S., Kharitonov A.V., Saikin S.K., Alekseev A.M., Kazarian S.G., Nonlinear Raman Effects Enhanced by Surface Plasmon Excitation in Planar Refractory Nanoantennas // Nano letters (2017), doi: 10.1021/acs.nanolett.7b02252.
Nonlinear_Raman_Effects_Enhanced_by_Surface_Plasmon_Excitation_in_Planar_Refractory_Nanoantennas.pdf -
Kharintsev S.S., Kharitonov A.V., Saikin S.K., Alekseev A.M., Kazarian S.G., Plasmon-Enhanced Stimulated Raman Scattering With Refractory Titanium Nitride Nano-Stripes // TERS-6, The 6th International Conference on Tip-Enhanced Raman Spectroscopy Aug. 16-18, 2017, National Institute of Standards and Technology, Gaithersburg, MD 20899, USA.
ters_6_abstracts.pdf -
Chernykh E.A., Kharintsev S.S., Photoinduced heating of thin azopolymer films// Scanning Probe Microscopy. Abstract Book of International Conference (Ekaterinburg, August 28-30, 2017) Ekaterinburg, Ural Federal University, 2017. стр. 110-111.
_SPM_2017_Abstract_book.pdf -
Saparina S.V., Kharintsev S.S., Characterization of carbon nanolayer of optical fibers via Atomic Force Microscopy and Tip-Enhanced Raman spectroscopy // Scanning Probe Microscopy. Abstract Book of International Conference (Ekaterinburg, August 28-30, 2017) Ekaterinburg, Ural Federal University, 2017. стр. 176.
_SPM_2017_Abstract_book.pdf -
Kharintsev S.S. , Alekseev A.M., Fishman A.I., Salakhov M.Kh., 3D polarization-controlled tip-enhanced Raman scattering spectroscopy and microscopy // Scanning Probe Microscopy. Abstract Book of International Conference (Ekaterinburg, August 28-30, 2017) Ekaterinburg, Ural Federal University, 2017- 283 c.
_SPM_2017_Abstract_book.pdf -
Kharintsev S.S, Shukhina K.L, Fishman A.I, Effect of secondary relaxation transitions on photo-induced anisotropy in glassy azobenzene-functionalized polymers//Journal of Materials Chemistry C. - 2017. - Vol.5, Is.27. - P.6828-6833.
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Kharintsev S.S, Saparina S.V, Stolov A.A, Sensing carbon allotropes in protective coatings on optical fibers with far- and near-field Raman spectroscopy and microscopy//Journal of Raman Spectroscopy. - 2017. - V.48, pp.1346-1355
- Mohammed W. M. et al. Electrical properties of titanium nitride films synthesized by reactive magnetron sputtering //Journal of Physics: Conference Series. – IOP Publishing, 2017. – Т. 927. – №. 1. – С. 012036.
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Reactive dc magnetron sputtering was employed to produce thin films of titanium nitride using titanium metallic target, argon as the plasma gas and nitrogen as the reactive gas. A set of the films was studied deposited on the Si, fused silica and crystalline (001) MgO substrates with various deposition conditions. The films deposited on the Si and SiO2 substrates are polycrystalline while deposited at slow rate to the heated to 600C MgO substrate are highly epitaxial according both to XRD and LEED data. Electrical resistivity of the films was measured by means of the four-probe van der Pauw method.
- Kharintsev S.S., Chernykh E.A. , Fishman A.I., Saikin S.K., Alekseev A.M., and Salakhov M.Kh., Photoinduced Heating of Freestanding Azo-Polymer Thin Films Monitored by Scanning Thermal Microscopy, J. Phys. Chem. C, 2017, 121 (5), pp 3007–3012
2016
- S.S. Kharintsev, A. I. Fishman, S. K. Saikin and M.Kh. Salakhov Near-field Raman dichroism for optical switching and storage // Proceedings NANOP 2016, Paris, France Международная конференция по Нанофотонике и микро/нанооптике
- S.S. Kharintsev, A. I. Fishman, S. K. Saikin and S. G. Kazarian, “Optical Near-Field Dichroism Controlled With a Plasmonic Nanoantenna” // ICONO/LAT, Minsk, Belarus, 26-30 Сентября, 2016
- Харинцев С.С., Оптические методы хранения информации. под ред. И.Р. Габитов, В.П. Драчев, Развитие фотоники в России и мире: публичный аналитический доклад. – М.: Битуби, 2016. – 432 с.
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Gazizov A.R, Zohrabi M, Kharintsev S.S, Improvement of near-field enhancement with a grating-assisted gold tapered nanoantenna//Journal of Physics: Conference Series. - 2016. - Vol.714, Is.1. - Art. № 012010.
- Kharintsev S.S., Fishman A.I., Saikin S.K., Kazarian S.G. Near-field Raman dichroism of azo-polymers exposed to nanoscale dc electrical and optical poling // Nanoscale 8, 19867 – 19875 (2016).
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Kharintsev S.S. Near-field dichroism of azo-polymers for optical
switching and image storage / S.S.Kharintsev, A.A.Fishman, S.K.Saikin, S.G.Kazarian, M. Kh.Salakhov // Nanophotonics and Micro/Nano Optics. Book of abstracts of international conference.- Paris, 2016.- P.33-34
2015
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Kharintsev S.S. Polarization of near-field light induced with a plasmonic nanoantenna / S.S. Kharintsev, A.I.Fishman, S.G.Kazarian, M.Kh.Salakhov //Physical Review B.-2015.-N92.-P.115113-1 - 115113-5.
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Kharintsev S.S. Electrochemical design of plasmonic nanoantennas for tip-enhanced optical spectroscopy and imaging performance / S.S. Kharintsev, V.E. Vasilchenko, A.V. Kharitonov, M.Kh. Salakhov // Optical Materials Express. -2015. -V.5 -No.10 -P.2225-2230
- Kharintsev S.S., Kharitonov A.V., Fishman A.I., Kazarian S.G. and Salakhov M.Kh. Accessing a polarization of near-field light through a plasmonic nanoantenna // 2 International Conference on Enhanced Spectroscopies. Book of Abstracts, Messina, Italy. October 12-15, 2015.
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S. Kharintsev, A. Alekseev, V. Vasilchenko, A. Kharitonov, M. Salakhov. Electrochemical design of plasmonic nanoantennas for tip-enhanced optical spectroscopy and imaging performance // Opt. Mater. Express, V. 5. №10, -P. 2225-2230, (2015)
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A. V. Kharitonov, S. S. Kharintsev. Strong focusing higher-order laser modes: transverse and longitudinal optical fields // Journal of Physics: Conference Series, V. 613, 2015. -P. 012010
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A.V. Kharitonov, S.S. Kharintsev. Visualization of longitudinal and transverse components of strongly focused optical field by means of photo-reactive azopolymers // EPJ Web of Conferences, V 103, 2015. -P. 06005
- Gazizov A.R., Kharintsev S.S., and Salakhov M.Kh.The analysis of Raman intensities enhancement by taper nanoantenna for different symmetry modes of molecules // 2 International Conference on Enhanced Spectroscopies. Book of Abstracts, Messina, Italy. October 12-15, 2015.
2014
2013
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Workshop on Specialty Optical Fibers and their Applications,Sigtuna, Sweden, August 28-30, 2013. F2.1
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S.S.Kharintsev, G.G.Hoffmann, A.I.Fishman, M.Kh.Salakhov. Journal of Physics D: Applied Physics. 2013.-V.46, N14.- 145501
- Kharintsev S.S., Rogov A.M., and Kazarian S.G.Nanopatterning and tuning of optical taper antenna apex for tip-enhanced Raman scattering performance // Rev. Sci. Instrum. 2013, 84, 093106
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B V Yavkin, M R Gafurov, S S Kharintsev, G V Mamin, E Goovaerts, M K Salakhov, Y N Osin and S B Orlinskii Perspective of zero-field ODMR to study nano-biological systems J. Phys.: Conf. Ser. 478 012001 doi:10.1088/1742-6596/478/1/012001
- Optics InfoBase Conference Papers 2013 Workshop on Specialty Optical Fibers and their Applications, WSOF 2013; Sigtuna; Sweden; 28 August 2013 through 30 August 2013; Code 104361
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A.A.Stolov, S.S.Kharintsev, A.I.Fishman, J.Li. Workshop on Specialty Optical Fibers and their Applications,Sigtuna, Sweden, August 28-30, 2013. F2.1
2011
2007
2006
Events
2022
2021
2020
2019
2018
2017
2016
2015
Дистационное образование
Лекции: "Наноматериалы и методы их исследований"
skype: kharintsev
Taught disciplines
| Discipline | Curriculum | Authors | File |
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Living System Physics) 2024 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Quantum System Physics and Quantum Technology) 2022 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Living System Physics) 2021 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Quantum System Physics and Quantum Technology) 2021 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Quantum System Physics and Quantum Technology) 2023 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (не предусмотрено) 2016 y. |
Харинцев С.С. |
 |
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Living System Physics) 2023 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (не предусмотрено) 2015 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Living System Physics) 2020 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Living System Physics) 2019 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Quantum System Physics and Quantum Technology) 2024 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Quantum System Physics and Quantum Technology) 2020 y. |
Харинцев С.С. |
|
| Введение в нанотехнологии | 03.03.02 Physics, Bachelor's Degree (Living System Physics) 2022 y. |
Харинцев С.С. |
|
| Наноматериалы и методы их исследований | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2019 y. |
Харинцев С.С. Воронина Е.В. |
|
| Наноматериалы и методы их исследований | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2020 y. |
Харинцев С.С. |
|
| Наноматериалы и методы их исследований | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2024 y. |
Харинцев С.С. |
|
| Наноматериалы и методы их исследований | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2022 y. |
Харинцев С.С. |
|
| Наноматериалы и методы их исследований | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2021 y. |
Харинцев С.С. |
|
| Наноматериалы и методы их исследований | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2023 y. |
Харинцев С.С. |
|
| Нанооптика | 011200.62 Physics, Bachelor's Degree (Nonapplicable) 2012 y. |
Харинцев С.С. |
|
| Нанооптика | 011200.62 Physics, Bachelor's Degree (Nonapplicable) 2011 y. |
Харинцев С.С. |
|
| Нанооптика | 011200.62 Physics, Bachelor's Degree (Nonapplicable) 2013 y. |
Харинцев С.С. |
|
| Наноплазмоника | 03.04.02 Physics, Master's Degree (Физика атомов и молекул) 2016 y. |
Харинцев С.С. |
|
| Наноплазмоника | 011200.68 Physics, Master's Degree (Physics of Atoms and Molecules ) 2013 y. |
Харинцев С.С. |
|
| Наноплазмоника | 03.04.02 Physics, Master's Degree (Физика атомов и молекул) 2015 y. |
Харинцев С.С. |
|
| Наноплазмоника | 03.04.02 Physics, Master's Degree (Физика атомов и молекул) 2014 y. |
Харинцев С.С. |
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| Нанофотоника | 03.04.02 Physics, Master's Degree (Физика атомов и молекул) 2016 y. |
Харинцев С.С. |
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| Нанофотоника | 03.04.02 Physics, Master's Degree (Физика атомов и молекул) 2015 y. |
Харинцев С.С. |
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| Нанофотоника | 011200.68 Physics, Master's Degree (Theoretical and Mathematical Physics) 2013 y. |
Харинцев С.С. |
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| Нанофотоника | 011200.68 Physics, Master's Degree (Physics of complex systems) 2013 y. |
Харинцев С.С. |
|
| Нанофотоника | 011200.68 Physics, Master's Degree (Physics of Atoms and Molecules ) 2013 y. |
Харинцев С.С. |
|
| Нанофотоника | 03.04.02 Physics, Master's Degree (Физика атомов и молекул) 2014 y. |
Харинцев С.С. |
|
| Нанофотоника | 011200.68 Physics, Master's Degree (Physics of Atoms and Molecules ) 2011 y. |
Харинцев С.С. |
|
| Нелинейная оптика | 03.03.02 Physics, Bachelor's Degree (Quantum System Physics and Quantum Technology) 2024 y. |
Харинцев С.С. Сибгатуллин М.Э. |
|
| Нелинейная оптика | 03.03.02 Physics, Bachelor's Degree (Quantum System Physics and Quantum Technology) 2023 y. |
Харинцев С.С. Сибгатуллин М.Э. |
|
| Нелинейные динамические системы, хаос и фракталы | 011200.68 Physics, Master's Degree (Physics of Atoms and Molecules ) 2013 y. |
Харинцев С.С. |
|
| Оптика метаматериалов | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2024 y. |
Харинцев С.С. Газизов А.Р. |
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| Оптика метаматериалов | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2023 y. |
Харинцев С.С. Газизов А.Р. |
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| Основы нанофотоники | 011200.62 Physics, Bachelor's Degree (Nonapplicable) 2013 y. |
Харинцев С.С. |
|
| Основы нанофотоники | 011200.62 Physics, Bachelor's Degree (Nonapplicable) 2012 y. |
Харинцев С.С. |
|
| Основы нанофотоники | 011200.62 Physics, Bachelor's Degree (Nonapplicable) 2011 y. |
Харинцев С.С. |
|
| Современные методы синтеза и исследования наноструктур | 03.04.02 Physics, Master's Degree (Физика сложных систем) 2018 y. |
Харинцев С.С. |
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| Современные методы синтеза и исследования наноструктур | 03.04.02 Physics, Master's Degree (Физика конденсированного состояния) 2018 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (Нанотехнологии и микросистемная техника) 2017 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (Синтез и диагностика наноматериалов, компоненты микро- и наноэлектронной техники) 2020 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (Синтез и диагностика наноматериалов, компоненты микро- и наноэлектронной техники) 2021 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (Синтез и диагностика наноматериалов, компоненты микро- и наноэлектронной техники) 2022 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (Нанотехнологии и микросистемная техника) 2018 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (Синтез и диагностика наноматериалов, компоненты микро- и наноэлектронной техники) 2019 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (не предусмотрено) 2015 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (не предусмотрено) 2016 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (Синтез и диагностика наноматериалов, компоненты микро- и наноэлектронной техники) 2024 y. |
Харинцев С.С. |
|
| Спектроскопические и зондовые методы исследования наноструктур | 28.03.01 Nanotechnology and Microsystem Technology, Bachelor's Degree (Синтез и диагностика наноматериалов, компоненты микро- и наноэлектронной техники) 2023 y. |
Харинцев С.С. |
|
| Специальный физический практикум | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2021 y. |
Скирда В.Д. Харинцев С.С. Дулов Е.Н. |
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| Специальный физический практикум | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2024 y. |
Скирда В.Д. Харинцев С.С. Дулов Е.Н. |
|
| Специальный физический практикум | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2020 y. |
Скирда В.Д. Харинцев С.С. Дулов Е.Н. Недопекин О.В. |
|
| Специальный физический практикум | 03.04.02 Physics, Master's Degree (Физика перспективных материалов) 2023 y. |
Скирда В.Д. Харинцев С.С. Дулов Е.Н. |
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| Work address: | 16a Kremlevskaya Str., Kazan, Building #12 (Faculty of Physics) |
| Office number: | 024 |
| Phone: | 8 (843) 315214 |
| E-mail: | skharint@gmail.com |
| Google scholar: | https://scholar.google.com/citations?user=tehr5P4AAAAJ&hl=ru&oi=ao |
| Experience: |
| Scientific and pedagogical experience: |
| General experience: |
| Experience in KFU: |