sibsutisВестник СибГУТИThe Herald of the Siberian State University of Telecommunications and Information Science1998-6920СибГУТИ10.55648/1998-6920-2025-19-2-25-39sibsutis-935Research ArticleСтатьиПрименения фуллеренов в органических фотодетекторахApplications of fullerenes in organic photodetectorsКусайкинДмитрий ВячеславовичKusaykinDmitry Vyacheslavovich

к.т.н., доцент кафедры многоканальной электрической связи, Уральский технический

институт связи и информатики (филиал) Сибирского государственного университета

телекоммуникаций и информатики

Ph.D., Associate Professor of the Department of Multichannel Electrical Communication, Ural

Technical Institute of Communications and Informatics (branch) Siberian State University of

Telecommunications and Informatics

kusaykin@mail.ruhttps://orcid.org/0000-0001-9744-684XКуанышевВалерий ТаукеновичKuanyshevValery Taukenovich

к.ф.-м.н., заведующий кафедрой

высшей математики и физики, Уральский

технический институт связи и информатики (филиал) Сибирского государственного

университета телекоммуникаций и информатики

Ph.D., Head of the Department of Higher Mathematics and Physics, Ural Technical Institute of

Communications and Informatics (branch) Siberian State University of Telecommunications and Informatics

kuan06@mail.ruhttps://orcid.org/0000-0002-6709-4334БарбинНиколай МихайловичBarbinNikolay Mikhailovich

д.т.н., профессор кафедры высшей математики и физики, Уральский технический

институт связи и информатики (филиал) Сибирского государственного университета

телекоммуникаций и информатики

Dr. of Sci. (Engineering), Professor; Professor of the Department of Higher Mathematics and

Physics, Ural Technical Institute of Communications and Informatics (branch) Siberian State University of

Tele-Communications and Informatics

nmbarbin@mail.ruУральский технический институт связи и информатики (филиал) Сибирского государственного университета телекоммуникаций и информатикиРоссияUral Technical Institute of Communications and Informatics (branch) Siberian State University of Telecommunications and InformaticsRussian FederationУральский технический институт связи и информатики (филиал) Сибирского государственного университета телекоммуникаций и информатикиРоссияUral Technical Institute of Communications and Informatics (branch) Siberian State University of Telecommunications and InformaticsRussian FederationУральский технический институт связи и информатики (филиал) Сибирского государственного университета телекоммуникаций и информатикиРоссияUral Technical Institute of Communications and Informatics (branch) Siberian State University of Tele-Communications and InformaticsRussian Federation202520062025192Вестник СибГУТИ2539Copyright © Кусайкин Д.В., Куанышев В.Т., Барбин Н.М., 20252025Кусайкин Д.В., Куанышев В.Т., Барбин Н.М.Kusaykin D.V., Kuanyshev V.T., Barbin N.M.Данная работа распространяется под лицензией Creative Commons Attribution 4.0.This work is licensed under a Creative Commons Attribution 4.0 License.https://vestnik.sibsutis.ru/jour/article/view/935

Фуллерен в настоящее время привлекает значительное внимание

исследователей, поскольку имеет множество применений в различных областях.

Молекулы фуллерена обладают уникальными структурными, электронными и

оптическими свойствами, которые могут быть использованы при создании

оптоэлектронных устройств. В настоящее время в научной литературе активно

обсуждаются вопросы использования фуллеренов в фотодетекторах. В связи с этим

данный обзор посвящен органическим фотодетекторам, разработанным с использованием

фуллереновых наноструктур. Рассмотрены последние достижения в области

органических фотодетекторов на основе фуллеренов и их применение в системах

беспроводной оптической связи в видимом диапазоне длин волн.

Fullerene is currently attracting considerable attention from researchers because it has

many applications in various fields. Fullerene molecules have unique structural, electronic and

optical properties that can be used to create optoelectronic devices. Currently, the use of

fullerenes in photodetectors is actively discussed in the scientific literature. In this regard, this

review is devoted to organic photodetectors developed using fullerene nanostructures. The latest

achievements in the field of fullerene-based organic photodetectors and their application in

wireless optical communication systems in the visible wavelength range are considered.

фуллереныорганические фотодетекторыгетеропереходоптоэлектронные устройствафотоэлектрические системысистемы связи.fullerenesorganic photodetectorsheterojunctionoptoelectronic devicesphotovoltaic systemscommunication systems.Работа выполнена в рамках Государственного задания № 071-03-2024-008 от 19.01.2024.Работа выполнена в рамках Государственного задания № 071-03-2024-008 от 19.01.2024.ReferencesChoi W., Cho M. Y., Konar A., Lee J. H., Cha G. B., Hong S. C., S. Phototransistors: High-Detectivity Multilayer MoS2 Phototransistors with Spectral Response from Ultraviolet to Infrared // Advanced Materials. 2012. V. 24, no. 43. P. 5902-5902.ReferencesMartinez J., Osorio-Roman I., Gualdron-Reyes A.F. Progress of Organic/Inorganic Luminescent Materials for Optical Wireless Communication Systems. Photonics. 2023. V.10, no. 6. P. 659-676.Martinez J., Osorio-Roman I., Gualdron-Reyes A.F. Progress of Organic/Inorganic Luminescent Materials for Optical Wireless Communication Systems. Photonics. 2023. V.10, no. 6. P. 659-676.Tuktarov A. R., Salikhov R. B., Khuzin A. A., Popodko N. R., Safargalin I. N., Mullagaliev I. N., Dzhemilev U. M. Photocontrolled organic field effect transistors based on the fullerene C60 and spiropyran hybrid molecule, RSC Adv. 2019. V. 9, no. 13, P. 7505-7508.Choi W., Cho M. Y., Konar A., Lee J. H., Cha G. B., Hong S. C., S. Phototransistors: High-Detectivity Multilayer MoS2 Phototransistors with Spectral Response from Ultraviolet to Infrared // Advanced Materials. 2012. V. 24, no. 43. P. 5902-5902.Ollearo R., Ma, X., Akkerman H. B., Fattori M., Dyson M. J., van Breemen A. J. Vitality surveillance at distance using thin-film tandem-like narrowband near-infrared photodiodes with light-enhanced responsivity // Science Advances. 2023. V. 9, no. 7, P.10.Martinez J., Osorio-Roman I., Gualdron-Reyes A.F. Progress of Organic/Inorganic Luminescent Materials for Optical Wireless Communication Systems. Photonics. 2023. V.10, no. 6. P. 659-676.Clark, J., Lanzani, G. Organic photonics for communications // Nature Photonics. 2010. Vol. 4, no. 7. P. 438–446.Tuktarov A. R., Salikhov R. B., Khuzin A. A., Popodko N. R., Safargalin I. N., Mullagaliev I. N., Dzhemilev U. M. Photocontrolled organic field effect transistors based on the fullerene C60 and spiropyran hybrid molecule, RSC Adv. 2019. V. 9, no. 13, P. 7505-7508.Sachdeva S., Singh D., Surya S. K. Study of Electrical Properties of Fullerene Based All-Small-Molecule Organic Devices with and Without Cathode Buffer Layers for Photovoltaic Application // Physica B: Condensed Matter. 2024. V. 695. P. 416552.Ollearo R., Ma, X., Akkerman H. B., Fattori M., Dyson M. J., van Breemen A. J. Vitality surveillance at distance using thin-film tandem-like narrowband near-infrared photodiodes with light-enhanced responsivity // Science Advances. 2023. V. 9, no. 7, P.10.Gong X., Tong M., Xia Y., Cai W., Moon, J. S., Cao, Y. Heeger, A. J. High-Detectivity Polymer Photodetectors with Spectral Response from 300 nm to 1450 nm // Science. 2009. V. 325, no. 5948. P. 1665–1667.Clark, J., Lanzani, G. Organic photonics for communications // Nature Photonics. 2010. Vol. 4, no. 7. P. 438–446.Guo F., Xiao Z., Huang J. Fullerene Photodetectors with a Linear Dynamic Range of 90 dB Enabled by a Cross-Linkable Buffer Layer // Advanced Optical Materials. 2013. V1, no. 4. P. 289–294.Sachdeva S., Singh D., Surya S. K. Study of Electrical Properties of Fullerene Based All-Small-Molecule Organic Devices with and Without Cathode Buffer Layers for Photovoltaic Application // Physica B: Condensed Matter. 2024. V. 695. P. 416552.Yao, Y., Chen, Y., Wang, H., Samorì, P. Organic photodetectors based on supramolecular nanostructures // SmartMat. 2020. V. 1, no. 1. P. 30.Gong X., Tong M., Xia Y., Cai W., Moon, J. S., Cao, Y. Heeger, A. J. High-Detectivity Polymer Photodetectors with Spectral Response from 300 nm to 1450 nm // Science. 2009. V. 325, no. 5948. P. 1665–1667.Liu K, Gao S, Zheng Z. Spatially Confined Growth of Fullerene to Super Long Crystalline Fibers in Supramolecular Gels for High-Performance Photodetector // Adv. Mater. 2019. V.31, no. 18. P.1-10.Guo F., Xiao Z., Huang J. Fullerene Photodetectors with a Linear Dynamic Range of 90 dB Enabled by a Cross-Linkable Buffer Layer // Advanced Optical Materials. 2013. V1, no. 4. P. 289–294.Zheng S., Xiong X., Zheng Z., Xu T., Zhang L., Zhai T., Lu X. Solution-grown large-area C60 single-crystal arrays as organic photodetectors // Carbon. 2018. V .126. P. 299–304.Yao, Y., Chen, Y., Wang, H., Samorì, P. Organic photodetectors based on supramolecular nanostructures // SmartMat. 2020. V. 1, no. 1. P. 30.Zhao X., Liu T., Liu H., Wang S., Li X., Zhang Y. Dennis T. J. S. Organic Single-Crystalline p–n Heterojunctions for High-Performance Ambipolar Field-Effect Transistors and Broadband Photodetectors // ACS Applied Materials & Interfaces. 2018. V.10, no. 49. P. 42715-42722.Liu K, Gao S, Zheng Z. Spatially Confined Growth of Fullerene to Super Long Crystalline Fibers in Supramolecular Gels for High-Performance Photodetector // Adv. Mater. 2019. V.31, no. 18. P.1-10.Du L., Luo X., Zhao F., Lv W., Zhang J., Peng Y., Wang Y. Toward facile broadband high photoresponse of fullerene based phototransistor from the ultraviolet to the near-infrared region // Carbon. 2016. V. 96. P. 685–694.Zheng S., Xiong X., Zheng Z., Xu T., Zhang L., Zhai T., Lu X. Solution-grown large-area C60 single-crystal arrays as organic photodetectors // Carbon. 2018. V .126. P. 299–304.Su M., Hu Y., Yu A., Peng Z., Long W., Gao S., Peng P., Su B., Li F.-F. Molecular engineering for high-performance fullerene broadband photodetectors // Nanoscale Advances. 2021. V. 3. P. 1096-1105.Zhao X., Liu T., Liu H., Wang S., Li X., Zhang Y. Dennis T. J. S. Organic Single-Crystalline p–n Heterojunctions for High-Performance Ambipolar Field-Effect Transistors and Broadband Photodetectors // ACS Applied Materials & Interfaces. 2018. V.10, no. 49. P. 42715-42722.Zheng L., Zhu T., Xu W., Liu L., Zheng J., Gong X., Wudl F. Solution-processed broadband polymer photodetectors with a spectral response of up to 2.5 μm by a low bandgap donor–acceptor conjugated copolymer // Journal of Materials Chemistry C. 2018. V. 6. P. 3634–3641.Du L., Luo X., Zhao F., Lv W., Zhang J., Peng Y., Wang Y. Toward facile broadband high photoresponse of fullerene based phototransistor from the ultraviolet to the near-infrared region // Carbon. 2016. V. 96. P. 685–694.Siegmund B., Mischok A., Benduhn J., Zeika, O., Ullbrich S., Nehm F. Vandewal K. Organic narrowband near-infrared photodetectors based on intermolecular charge-transfer absorption // Nat Commun. 2017. V. 8. P.6.Su M., Hu Y., Yu A., Peng Z., Long W., Gao S., Peng P., Su B., Li F.-F. Molecular engineering for high-performance fullerene broadband photodetectors // Nanoscale Advances. 2021. V. 3. P. 1096-1105.Arredondo B., Romero B., Pena J.M. S., Fernandez-Pacheco A., Alonso E., Vergaz R., De Dios C. Visible light communication system using an organic bulk heterojunction photodetector // Sensors. 2013. V. 13, no. 9. P. 12266–12276.Zheng L., Zhu T., Xu W., Liu L., Zheng J., Gong X., Wudl F. Solution-processed broadband polymer photodetectors with a spectral response of up to 2.5 μm by a low bandgap donor–acceptor conjugated copolymer // Journal of Materials Chemistry C. 2018. V. 6. P. 3634–3641.Ghassemlooy Z., Haigh P.A., Arca F., Tedde S.F., Hayden O., Papakonstantinou I., Rajbhandari S. Visible light communications: 3.75 Mbits/s data rate with a 160 kHz bandwidth organic photodetector and artificial neural network equalization // Photon. Res. 2013. V.1, no. 2. P.65-68.Siegmund B., Mischok A., Benduhn J., Zeika, O., Ullbrich S., Nehm F. Vandewal K. Organic narrowband near-infrared photodetectors based on intermolecular charge-transfer absorption // Nat Commun. 2017. V. 8. P.6.Cho S., Heo C.J., Lim Y., Oh S., Minami D., Yu M., Chun H., Yun S., Seo H., Fang F. Small Molecule Based Organic Photo Signal Receiver for High-Speed Optical Wireless Communications // Adv. Sci. 2022. V. 9. P.1-10.Arredondo B., Romero B., Pena J.M. S., Fernandez-Pacheco A., Alonso E., Vergaz R., De Dios C. Visible light communication system using an organic bulk heterojunction photodetector // Sensors. 2013. V. 13, no. 9. P. 12266–12276.Ohmori Y., Hamasaki T., Kajii H., Morimune T. Organic photo sensors operating at high speed utilizing poly(9,9-dioctylfluorene) derivative and fullerene derivative fabricated by solution process // Optical Sensors. 2009. V. 7356. P.8.Ghassemlooy Z., Haigh P.A., Arca F., Tedde S.F., Hayden O., Papakonstantinou I., Rajbhandari S. Visible light communications: 3.75 Mbits/s data rate with a 160 kHz bandwidth organic photodetector and artificial neural network equalization // Photon. Res. 2013. V.1, no. 2. P.65-68.Tsai W.W., Chao Y.C., Chen E.C., Zan H.W. Increasing organic vertical carrier mobility for the application of high speed bilayered organic photodetector // Applied Physics Letters. 2009. V.95, no.21. P. 3.Cho S., Heo C.J., Lim Y., Oh S., Minami D., Yu M., Chun H., Yun S., Seo H., Fang F. Small Molecule Based Organic Photo Signal Receiver for High-Speed Optical Wireless Communications // Adv. Sci. 2022. V. 9. P.1-10.Zheng J., Yang D., Guo D., Yang L., Li J., Ma D. An Ultrafast Organic Photodetector with Low Dark Current for Optical Communication Systems // ACS Photonics. 2023. V.10, no. 5. P. 1382–1388.Ohmori Y., Hamasaki T., Kajii H., Morimune T. Organic photo sensors operating at high speed utilizing poly(9,9-dioctylfluorene) derivative and fullerene derivative fabricated by solution process // Optical Sensors. 2009. V. 7356. P.8.Wang Y., Kublitski J., Xing S. Narrowband organic photodetectors —Towards miniaturized, spectroscopic sensing // Mater Horiz. 2022. V. P. 220–251.Tsai W.W., Chao Y.C., Chen E.C., Zan H.W. Increasing organic vertical carrier mobility for the application of high speed bilayered organic photodetector // Applied Physics Letters. 2009. V.95, no.21. P. 3.Lan Z., Lau Y.S., Wang Y., Xiao Z., Ding L., Luo D., Zhu F. Filter-free band-selective organic photodetectors // Adv. Opt. Mater. 2020. V. 8, no. 24. P. 12.Zheng J., Yang D., Guo D., Yang L., Li J., Ma D. An Ultrafast Organic Photodetector with Low Dark Current for Optical Communication Systems // ACS Photonics. 2023. V.10, no. 5. P. 1382–1388.Xing S., Wang X., Guo E., Kleemann H., Leo K. Organic thin-film red-light photodiodes with tunable spectral response via selective exciton activation // ACS Appl. Mater. Interfaces. 2020. V. 12. P. 13061–13067.Wang Y., Kublitski J., Xing S. Narrowband organic photodetectors —Towards miniaturized, spectroscopic sensing // Mater Horiz. 2022. V. P. 220–251.Zhang S., Tsonev D., Videv S., Ghosh S., Turnbull G.A. Organic solar cells as high-speed data detectors for visible light communication // Optica. 2015. V.2. P. 607–610.Lan Z., Lau Y.S., Wang Y., Xiao Z., Ding L., Luo D., Zhu F. Filter-free band-selective organic photodetectors // Adv. Opt. Mater. 2020. V. 8, no. 24. P. 12.Vega-Colado C., Arredondo B., Torres J., Lopez-Fraguas E., Vergaz R. An All-Organic Flexible Visible Light Communication System // Sensors. 2018. V. 18,no. 9. P. 12.Xing S., Wang X., Guo E., Kleemann H., Leo K. Organic thin-film red-light photodiodes with tunable spectral response via selective exciton activation // ACS Appl. Mater. Interfaces. 2020. V. 12. P. 13061–13067.Zhou Z., Liao G., Song X. Significant Detectivity Enhancement of Broad Spectral Organic–Inorganic Hybrid Photodiodes by C60 Film as Hole-Blocking Layer // Nanoscale Res Lett. 2022. V. 17, no. 19. P. 9.Zhang S., Tsonev D., Videv S., Ghosh S., Turnbull G.A. Organic solar cells as high-speed data detectors for visible light communication // Optica. 2015. V.2. P. 607–610.Shan T., Hou X., Yin X. Organic photodiodes: device engineering and applications // Front. Optoelectron. 2022. V. 15, no. 49. P.33.Vega-Colado C., Arredondo B., Torres J., Lopez-Fraguas E., Vergaz R. An All-Organic Flexible Visible Light Communication System // Sensors. 2018. V. 18,no. 9. P. 12.Manousiadis P.P., Yoshida K., Turnbull G.A. Organic semiconductors for visible light communications // Phil. Trans. R. Soc. 2020. V. 378. P. 18.Zhou Z., Liao G., Song X. Significant Detectivity Enhancement of Broad Spectral Organic–Inorganic Hybrid Photodiodes by C60 Film as Hole-Blocking Layer // Nanoscale Res Lett. 2022. V. 17, no. 19. P. 9.Yang, D., Ma, D. 1,1-Bis [(di-4-tolylamino) phenyl] cyclohexane for fast response organic photodetectors with high external efficiency and low leakage current // Journal of Materials Chemistry C. 2013. V.1, no.10. P.2054-2060.Shan T., Hou X., Yin X. Organic photodiodes: device engineering and applications // Front. Optoelectron. 2022. V. 15, no. 49. P.33.Su Z., Hou F., Wang X., Gao Y., Jin F., Zhang G., Li W. High-Performance Organic Small-Molecule Panchromatic Photodetectors // ACS Appl. Mater. Interfaces. 2015. V. 7. P. 2529-2534.Manousiadis P.P., Yoshida K., Turnbull G.A. Organic semiconductors for visible light communications // Phil. Trans. R. Soc. 2020. V. 378. P. 18.Zhang H., Jenatsch S., De Jonghe J., Nuesch F., Steim R., Veron A. C., Hany R. Transparent Organic Photodetector using a Near-Infrared Absorbing Cyanine Dye // Sci. Rep. 2015. V.5, P.6.Yang, D., Ma, D. 1,1-Bis [(di-4-tolylamino) phenyl] cyclohexane for fast response organic photodetectors with high external efficiency and low leakage current // Journal of Materials Chemistry C. 2013. V.1, no.10. P.2054-2060.Lee H., Nam S., Kwon H., Lee S. Solution-processable all-small molecular bulk heterojunction films for stable organic photodetectors: near UV and visible light sensing // Journal of Materials Chemistry C. 2015. V. 3, no. 7. P.1513.Su Z., Hou F., Wang X., Gao Y., Jin F., Zhang G., Li W. High-Performance Organic Small-Molecule Panchromatic Photodetectors // ACS Appl. Mater. Interfaces. 2015. V. 7. P. 2529-2534.Wu Z., Yao W., London A. E., Azoulay J. D. Temperature-dependent detectivity of near-infrared organic bulk heterojunction photodiodes // ACS Appl. Mater. Interfaces. 2017. V.9. P.1654–1660.Zhang H., Jenatsch S., De Jonghe J., Nuesch F., Steim R., Veron A. C., Hany R. Transparent Organic Photodetector using a Near-Infrared Absorbing Cyanine Dye // Sci. Rep. 2015. V.5, P.6.Hu X., Dong Y., Huang F., Gong X., Cao Y. Solution-processed high-detectivity near-infrared polymer photodetectors fabricated by a novel low-bandgap semiconducting polymer // Journal of Phys Chem C. 2013. V. 117. P. 6537-6543.Lee H., Nam S., Kwon H., Lee S. Solution-processable all-small molecular bulk heterojunction films for stable organic photodetectors: near UV and visible light sensing // Journal of Materials Chemistry C. 2015. V. 3, no. 7. P.1513.London A.E., Huang L., Zhang B.A. Donor–acceptor polymers with tunable infrared photoresponse // Polym Chem. 2017. V. 8. P. 2922-2930.Wu Z., Yao W., London A. E., Azoulay J. D. Temperature-dependent detectivity of near-infrared organic bulk heterojunction photodiodes // ACS Appl. Mater. Interfaces. 2017. V.9. P.1654–1660.Han J., Yang D., Ma D., Qiao W., Wang Z.Y. Low-bandgap polymers for high-performance photodiodes with maximal EQE near 1200 nm and broad spectral response from 300 to 1700 nm // Adv Opt Mater. 2018. V. 6. P. 7.Hu X., Dong Y., Huang F., Gong X., Cao Y. Solution-processed high-detectivity near-infrared polymer photodetectors fabricated by a novel low-bandgap semiconducting polymer // Journal of Phys Chem C. 2013. V. 117. P. 6537-6543.Wang X., Li H., Su Z. Efficient organic near-infrared photodetectors based on lead phthalocyanine/C60 heterojunction // Org Electron. 2014. V.15. P. 2367-2371.London A.E., Huang L., Zhang B.A. Donor–acceptor polymers with tunable infrared photoresponse // Polym Chem. 2017. V. 8. P. 2922-2930.Choi M., Chae S., Kim H., Kim J. Control of crystallinity in PbPc:C60 blend film and application for inverted near-infrared organic photodetector // ACS Appl Mater Interfaces. 2018. V.10. P. 25614-25620.Han J., Yang D., Ma D., Qiao W., Wang Z.Y. Low-bandgap polymers for high-performance photodiodes with maximal EQE near 1200 nm and broad spectral response from 300 to 1700 nm // Adv Opt Mater. 2018. V. 6. P. 7.Zimmerman J.D., Yu E.K., Diev V.V. Use of additives in porphyrin-tape/C60 near-infrared photodetectors // Org Electron. 2011. V. 12. P. 869-873.Wang X., Li H., Su Z. Efficient organic near-infrared photodetectors based on lead phthalocyanine/C60 heterojunction // Org Electron. 2014. V.15. P. 2367-2371.Li L., Huang Y., Peng J., Cao Y., Peng X. Highly responsive organic near-infrared photodetectors based on a porphyrin small molecule // J Mater Chem C. 2014. V. 2. P. 4.Choi M., Chae S., Kim H., Kim J. Control of crystallinity in PbPc:C60 blend film and application for inverted near-infrared organic photodetector // ACS Appl Mater Interfaces. 2018. V.10. P. 25614-25620.Liu H., Li J., Xia L., Bai Y., Hu S., Liu J. Perfect complementary in absorption spectra with fullerene, nonfullerene acceptors and medium band gap donor for high-performance ternary polymer solar cells // ACS Appl Mater Interfaces. 2018. V. 10. P. 29831–29839.Zimmerman J.D., Yu E.K., Diev V.V. Use of additives in porphyrin-tape/C60 near-infrared photodetectors // Org Electron. 2011. V. 12. P. 869-873.Trippodo E., Campisciano V., Feng L-W., Chen Y., Huang W. Air-stable ternary organic solar cells achieved by using fullerene additives in non-fullerene acceptor-polymer donor blends // Journal of Materials Chemistry C. 2023. V. 11, no. 24. P. 8074–8083.Li L., Huang Y., Peng J., Cao Y., Peng X. Highly responsive organic near-infrared photodetectors based on a porphyrin small molecule // J Mater Chem C. 2014. V. 2. P. 4.Короткова Т. Н., Коротков Л. Н., Панкова М. А. Диэлектрические свойства фуллеритов C60 – C70 и возможности применения материалов в радиоэлектронных компонентах // Вестник Воронежского института МВД России. 2021. № 1. C.169-174.Liu H., Li J., Xia L., Bai Y., Hu S., Liu J. Perfect complementary in absorption spectra with fullerene, nonfullerene acceptors and medium band gap donor for high-performance ternary polymer solar cells // ACS Appl Mater Interfaces. 2018. V. 10. P. 29831–29839.Долженко Д. И., Бородзюля В. Ф., Захарова И. Б., Сударь Н. Т. Влияние тока, ограниченного объемным зарядом, на диэлектрические свойства поликристаллических пленок фуллерита C60 // Журнал технической физики. – 2021. – Т. 91. – №. 1. – С. 58-63.Trippodo E., Campisciano V., Feng L-W., Chen Y., Huang W. Air-stable ternary organic solar cells achieved by using fullerene additives in non-fullerene acceptor-polymer donor blends // Journal of Materials Chemistry C. 2023. V. 11, no. 24. P. 8074–8083.Korotkova T. N., Korotkov L. N., Pankova M. A. Dielektricheskie svojstva fulleritov C60 – C70 i vozmozhnosti primeneniya materialov v radioelektronnyh komponentah // Vestnik Voronezhskogo instituta MVD Rossii. 2021. № 1. C.169-174.Korotkova T. N., Korotkov L. N., Pankova M. A. Dielektricheskie svojstva fulleritov C60 – C70 i vozmozhnosti primeneniya materialov v radioelektronnyh komponentah // Vestnik Voronezhskogo instituta MVD Rossii. 2021. № 1. C.169-174.Dolzhenko D. I., Borodzyulya V. F., Zaharova I. B., Sudar' N. T. Vliyanie toka, ogranichennogo ob"emnym zaryadom, na dielektricheskie svojstva polikristallicheskih plenok fullerita C60 // Zhurnal tekhnicheskoj fiziki. – 2021. – T. 91. – №. 1. – S. 58-63.Dolzhenko D. I., Borodzyulya V. F., Zaharova I. B., Sudar' N. T. Vliyanie toka, ogranichennogo ob"emnym zaryadom, na dielektricheskie svojstva polikristallicheskih plenok fullerita C60 // Zhurnal tekhnicheskoj fiziki. – 2021. – T. 91. – №. 1. – S. 58-63.

The authors declare that there are no conflicts of interest present.