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Powerful Optocouplers Based on Tubular Lamps L&E, Vol.32, No.6, 2024

Light & Engineering 32 (6) 2024

Volume 32
Date of publication 12/12/2024
Pages 29–33

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Powerful Optocouplers Based on Tubular Lamps L&E, Vol.32, No.6, 2024
Articles authors:
Igor G. Kirin

Igor G. Kirin, Ph. D. in Physical and Mathematical Sciences (1982) and Doctor of Technical Sciences (1995), Professor (1997). He graduated from Tashkent State University in 1975 with a degree in physics with a specialization in physical optics. Currently he is a Professor of the Department of Physics and Methods of Teaching Physics at Orenburg State University. He is a full member of the International Academy of Sciences of Ecology, Human Safety and Nature (MANEB). His research interests: interaction of laser radiation with matter, opto-electronics, fibre optics

Abstract:
A coaxial scheme for the construction of optocouplers using tubular lamps and photovoltaic cells is proposed, according to which the optocouplers have a cylindrical shape, and the optical radiation source (tubular lamp) is placed in them on the axis of a cylindrical housing, on the side surface of which photovoltaic cells are located. The designs of optocouplers with tubular xenon arc or LED lamps (as a source of optical radiation) and solar cells (as photovoltaic converters) constructed according to this scheme are described. It is shown that the level of radiant energy losses in the optocoupler of the proposed design can be lower than 30 %, and its output electrical power can reach 20 kW or more.
References:
1. Ivanov, V.I., Aksenov, V.I., Yushin, A.M. Semiconductor optoelectronic devices [Poluprovodnikovye electronnye pribory] / M.: Energoatomizdat, 1989, 448 p.
2. Kirin, I.G. Electrical insulators with light guides [Electricheskie izolyatory so svetodiodami] / M.: Energoatomizdat, 1994, 32 p.
3. Schubert, F. LEDs [Svetodiody]/ Moscow: FIZMATLIT, 2008, 496 p.
4. Reference book on Light and Engineering [Spravochnaya kniga po Svetotechnike] / Edited by J.B. Aizenberg, M.: Znak, 2006, 972 p.
5. Kirin, I.G. Optocoupler with ellipsoidal reflector [Optron c ellipsoidalnym otrazhatelem] / Russian Patent No. 2670706. 2018. Issue No. 34. (in Russian)
6. Kirin, I.G. Optocoupler with catadioptric lens [Optron s catadioptrinoy linzoy] / Russian Patent No. 2627565. 2017. Issue No. 22.
7. Kirin, I.G. Optocoupler with a ball lamp [Optron s sharovoy lampoy] / Russian Patent No. 2618964. 2017. Byul. No. 14.
8. Kirin, I.G. Optocoupler with a semiconductor laser [Optron s poluprovodnikovym lazerom] / Russian Patent No. 2752615. 2021. Byul. No. 22.
9. Kirin, I.G. Optocoupler [Optopara] / Russian Patent No. 2633934. 2017. Byul. No. 29.
10. Kirin, I.G. Optocoupler with a tubular xenon lamp [Optopara s trubchatoy ksenonovoy lampoy] / Russian Patent No. 2672784. 2018. Byul. No. 32.
11. Rokhlin, G.N. Discharge light sources [Razryadnye istochniki sveta] / M.: Energoatomizdat, 1991, 720 p.
12. Rauschenbach, G.P. Handbook on the design of solar panels [Spravochnik po proektirovaniyu solnechnykh batarey] / M.: Energy publishing house, 1983, 357 p.
13. Kirin, I.G. Photoelectronic transformers [Fotoelektronnye transformatory] / M.: University book, 2013, 136 p.
14. Farenbruch, A.D., Byub, R.H. Solar cells: theory and experiment [Solnechnye element: teoriya i eksperiment] / M.: Energy Publishing House, 1978, 261 p.
15. Fraaz, L.P. Advanced solar cells designed for use in systems with radiation concentrators: Modern semiconductor photo-energy elements [Translated from English] / M.: Mir, 1988, pp. 201–261.
16. Mac-Millan, H.F., Hamaker, H.C., Virshyp, G.E., Wethen, J.C. Multijunction III–V solar cells: recent and projectes results / 20‑th IEEE Photovoltaic Spec., 26–30, New York, 1988: Conf. Rec. Vol. 1, # 4, pp. 48–54.
17. Alferov, L.M., Andreev, V.M., Garburov, D.Z., Egorov, B.V., Larinov, V.R., Rumyantsev, V.D., Fedorov, O.M. High-efficiency solar cells with intermediate radiation conversion designed to work with light flux concentrators // Letters to the JETF, 1987, Vol. 4, Issue 18, pp. 1128–1130.
18. Shiriev, R.R. Plasma and semiconductor sources of optical radiation: a textbook / Kazan: Kazan State Energy University, 2018, 136 p.
19. Nesterkina, N.P., Kovalenko, O. Yu., Zhuravleva, Yu.A. Analysis of the characteristics of LED lamps with a T8 bulb from different manufacturers // Light & Engineering, 2019, Vol. 27, # 6, pp. 82–87.
20. Nesterkina, N.P., Zhuravleva, Yu.A., Savonin, A.O., Kovalenko, O. Yu., Mikaeva, S.A. Analysis of changes in the characteristics of LED lamps with a T8 bulb during burning // Light & Engineering, 2022, Vol. 30, # 4, pp. 71–77.
21. Lishik, S.I., Posedko, V.S., Trofimov, Yu.V., Tsvirko, V.I. Current state, trends, and prospects for the development of LEDs for lighting // Light & Engineering, 2017, Vol. 28, # 2, pp. 13–24.
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