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Journal of Solar Energy Research Updates

Articles

Vol. 8 (2021)

History of Solar Car Technology and its Future Especially in Power Electronics

DOI
https://doi.org/10.31875/2410-2199.2021.08.8
Submitted
December 1, 2021
Published
2021-09-29

Abstract

This paper describes the history and evolution of technologies related to the whole electrical system of solar car [1]. The components are the solar cell, maximum power point tracker, boost converter, motor& Inverter and battery. In a solar car, it is difficult to arrange the solar cells on a flat vehicle surface, and solar cells with different incident angles and temperature is different in each cell. This is a problem when many solar cells with different characteristics are connected in series, and the improvement method will be described in detail. Next, we will explain the development of a boost converter using a GaN power device that can improve the overall running efficiency. We will also discuss the technological advances in motors & inverters and batteries over the last 30 years. The evolution of solar cars is largely due to the evolution of semiconductors, including solar cells, and material technologies, but at the same time, we will explain examples of these technologies being first demonstrated in solar car race and then socially implemented

References

  1. Hideki Jonokuchi et al., History of Solar Car and Its Electric Components Advancement and Its Future, (SDM-17) 26 to 28 April, 2017 at the University of Bologna, Bologna, Italy, Springer Publishing Company, Incorporated, ISBN:978-3-319-57077-8.
  2. David M. Roche et al., Speed of Light: The 1996 World Solar Challenge, 1 Feb. 1998.
  3. Brandon Kretchmer et al., Solar Powered Electric Vehicle, Department of Mechanical and Civil Engineering College of Engineering and Sciences Purdue University Northwest April 26, 2017.
  4. DM. Chapin, CS. Fuller, and GL. Pearson, A New Silicon p‐n Junction Photocell for Converting Solar Radiation into Electrical Power, Journal of Applied Physics 1954; 25: 676. http://sunlake.org/solar/archaeology/archaeology_j/japan3/japan_teams2.htm - aisin https://doi.org/10.1063/1.1721711
  5. Hideki Jonokuchi et al., Maximum output point control of solar cells, IEE-Japan Industry Applications Society Conference, No.135. 1992.
  6. Hideki Jonokuchi et al., High efficiency MPPT with boost Chopper, IEEJ conference, Oct. 1993, Sapporo Hokkaido.
  7. Hideki Jonokuchi et al., EV Drive System with Voltage Booster, Conf. Rec., EVS-13, Osaka, Japan 1996; 13-16: pp. 287-294.
  8. Takeshi Nishiuchi et al., Influence of Intergranular Grain Boundary Phases on Coercivity in Nd-Fe-B-based Magnets, Hitachi Metals Ltd. Engineering Journal, 2016; Vol. 32.
  9. Thomas R. Odhiambo et al., The Quest for New Solar Batteries, The New Scientist, 1960; 8(196): 18: 442-443.
  10. Georgia Hitch, World Solar Challenge: innovation has outstripped what event founder dreamed possible 30 years ago, ABC News, Posted Fri 6 Oct 2017 at 4:53am, https://www.abc.net.au/news/2017-10-06/world-solar-challenge-innovation-technology-outstrips-dreams/9019908.
  11. All about the Sensational Solar Car Race (WSC1987 Program).
  12. Racing with the sun. The 1990 world solar challenge. Chester R. Kyle. Society of Automotive Engineers, INC. ISBN 1-56091-1. P.52.
  13. Takahiro Iwata et al., Solar Battery Powered Vehicle 1993, Honda R & D Technical Review, 1994; Vol.6.
  14. GM Sunraycer Case History/M-101, Society of Automotive Engineers; Reprint 1990/12/1, ISBN-10: 1560910135, ISBN-13: 978-1560910138.
  15. Hughes News Quarterly International July-September, 1987; 15.
  16. Liu Chunhua et al., A permanent-magnet hybrid in-wheel motor drive for electric vehicles, Vehicle Power and Propulsion Conference, 2008. VPPC '08. IEEE. https://doi.org/10.1109/VPPC.2008.4677525
  17. Hideki Jonokuchi, Comparison of UNIQUE DC brushless motor and induction motor, IEE-Japan, 4 Feb. 1994.
  18. Masayoshi Umeno, Report of 7th International Photovoltaic Science and Engineering Conference in Nagoya @Nov. 1993, Organizer of 7th International Photovoltaic Science and Engineering Conference, Japan Society of Applied Physics and IEEJ. 1994.
  19. Minoru Kaneiwa et al., Space solar cells using III-V compound semiconductors, Sharp Technical Journal 2002; 83: 54-57.
  20. Douglas R Carroll, The Winning Solar Car : A Design Guide for Solar Race Car Teams (Paperback), SAE International, January, 2003. https://doi.org/10.4271/R-343
  21. Takahiro Iwata et al., Honda Dream development, EVS-9：The 9th Electric Vehicle Symposium (Toronto, Ontario, Canada).
  22. Takahiro Iwata et al., Solar battery-powered vehicle, Honda R & D Technical Review, 1991; 3.
  23. Tomohiro Shimizu et al., Solar Car Driving Strategy System, Automotive Technology, 1995; 49(7).
  24. Takayuki Yoshida, Features of 8096 and application to DC servo motor control, Interface CQ Publishing Co. Ltd., 1998; 14(1): 291-311.
  25. Masaaki Hatoh et al., Ashiya University Solar Car Development Research (3rd Report), Ashiya University report 2003; 38: 117-132.
  26. STMicro, Application note, 300 W PV converter to be integrated into a photovoltaic panel based on SPV1020 and bypass diodes SPV1001N30 and SPV1001N40, Doc ID 023149 Rev 1, April 2012.
  27. STMicro Application note, Designing with SPV1020; interleaved boost converter with MPPT algorithm, AN3392, 02 May 2011.
  28. STMicro, Data sheet, SPV1020; Interleaved DC-DC boost converter with built-in MPPT algorithm.
  29. Maxim Application note 6608, How to optimize performance when using synchronous rectification in nonisolated DC-DC converters, 06 Jun, 2018.
  30. Hideki Jonokuchi, Solar and wind power utilization technology in the eco-era: Solar power generation system and solar car for racing, Transistor technology, Vol. 47 No.3, p118-129.
  31. Hideki Jonokuchi et al., Basics and applications of solar cell utilization, CQ Publishing Co. Ltd. ISBN9784789841290.
  32. Masami Hirata et al., Comparison of motor operating efficiency between PM motor and IM, IEE-Japan, 27 July 1994.
  33. Shinichi Hashimoto et al., Development of high-efficiency drive system for EV, 1996 Achievement Issue Toshiba Review, March 1997.
  34. Jeff Brown, High Efficiency Permanent Magnet Motor, Marand Precision Engineering, 27 October 2010.
  35. Takayuki Yoshida, Features of 8096 and application to DC servo motor control, Interface CQ Publishing Co. Ltd., 1998; 14(1): 291-311.
  36. VS Ramsden et al., design of an in-wheel motor for a solar-powered electric vehicle, IEE Proceedings - Electric Power Applications 1998; 145(5): 402-408. https://doi.org/10.1049/ip-epa:19982167
  37. Oliver Winter et al., Ironless In-Wheel Hub Motor Design by Using Multi-Domain Finite Element Analyses, International Symposium on Power Electronics 2012. https://doi.org/10.1109/SPEEDAM.2012.6264394
  38. Hideki Jonokuchi etc., Analyzing the AshiyaSkyAce TIGA element technology, Machine design, The Nikkan Kogyo Shimbun, 2005; 49(1): ISSN-0387-1045.
  39. Hideki Jonokuchi etc., Analyzing the AshiyaSkyAce TIGA element technology, Vehicle weight reduction, The Nikkan Kogyo, Shimbun, 2005; 49(3): ISSN-0387-1045.
  40. Hideki Jonokuchi etc., Analyzing the AshiyaSkyAce TIGA element technology, Research on electrical / drive systems, The Nikkan Kogyo, 2005; 49(4): ISSN-0387-1045, Shimbun.
  41. Masaaki Hatoh et al., GaAs solar cells and variable magnetic flux motors for racing solar car, Proceeding of Japan Solar Energy Society, Japan Wind Energy Association, 2006; p 39-42.
  42. Kunio Nakagawa et al., Recent status of racing solar cars, Society of Automotive Engineers of Japan, Inc., Vol.63, No.9, p73-78.
  43. Hideki Jonokuchi, Solar Powered Vehicle of NIT challenging WSC2017 in Australia, PV-SEC27, 2017; 12-17, Otsu Prince Hotel, Japan.
  44. Hideki Jonokuchi et al., EV Drive System with Voltage Booster, Conf. Rec., EVS-13, Osaka, Japan, October 1996; 13-16, pp. 287-294.
  45. Akio Nakagawa, Shinohe Takashi, Evolving Technologies for Discrete Semiconductor Devices, Toshiba Review, 2000; 55(1).
  46. Yasuhiro Marukawa et al., Motor Application of NEOMAX® Nd-Fe-B Anisotropic Ring Magnets, Hitachi Metals Engineering Journal, Vol. 35(2019).
  47. Nobuyuki Ishizawa, Actual conditions and future prospects of the in-vehicle and industrial storage battery market, Japan Economic Center Co., Ltd., 2015.
  48. AlyceMoncourtois, Sunraycer; Illuminating the Path toward the Modern Electric Vehicle, Aero Vironment Inc., 2021.
  49. YoshioUetani, Polymer Lithium Battery, CMC Publishing Co. Ltd., 1999.
  50. Tohru Moriya et al., About the electric system measuring instrument and measuring method of the solar car, Solar car prototype workshop, Japan Solar Energy Society, Jan. 2008.
  51. N Chasanah, D Anggraeni, A Wirawan, Analysis of battery charging in the development of BMS for solar UAV application, 6th International Seminar of Aerospace Science and Technology, 2018.
  52. https://doi.org/10.1088/1742-6596/1130/1/012012
  53. Giorgia Longobardi, GaN for power devices: Benefits, applications, and normally-off technologies, 2017 International Semiconductor Conference (CAS), October 2017. https://doi.org/10.1109/SMICND.2017.8101144
  54. Wei Hwang, New trends in low power SoC design technologies, SOC Conference 2006 IEEE International, 2006; pp. 211-214.
  55. Md. Rokonuzzaman et al., Design of a MPPT Solar Charge Controller in Matlab-Simulink GUI Environment, International Conference on Mechanical Engineering and Applied Science (ICMEAS)At: Mirpur Cantonment, Dhaka 2017; Volume: 1st.
  56. JMAG Catalog, JMAG: Motor model-based development example, © 2018-2020 JSOL Corp.
  57. Tetsuzo Ueda, GaN power devices: current status and future challenges, Japanese Journal of Applied Physics 2019; 58(SC): SC0804. https://doi.org/10.7567/1347-4065/ab12c9
  58. Sandor. Halasz, PWM strategies of multi-phase inverters, Industrial Electronics, 2008. IECON 2008. 34th Annual Conference of IEEE, December 2008. https://doi.org/10.1109/IECON.2008.4758075