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Study of a single-frequency retrodirective system with a beam pilot signal using dual-mode dielectric resonator antenna elements

Published online by Cambridge University Press:  16 May 2017

Takayuki Matsumuro ,
Yohei Ishikawa ,
Tomohiko Mitani ,
Naoki Shinohara ,
Masashi Yanagase  and
Mayumi Matsunaga
Takayuki Matsumuro*
Affiliation:
Research Institute for Sustainable Humanosphere, Kyoto University, Gokasho, Uji, Kyoto 611-0011, Japan. Phone: +81 774 38 3864
Yohei Ishikawa
Affiliation:
Research Institute for Sustainable Humanosphere, Kyoto University, Gokasho, Uji, Kyoto 611-0011, Japan. Phone: +81 774 38 3864
Tomohiko Mitani
Affiliation:
Research Institute for Sustainable Humanosphere, Kyoto University, Gokasho, Uji, Kyoto 611-0011, Japan. Phone: +81 774 38 3864
Naoki Shinohara
Affiliation:
Research Institute for Sustainable Humanosphere, Kyoto University, Gokasho, Uji, Kyoto 611-0011, Japan. Phone: +81 774 38 3864
Masashi Yanagase
Affiliation:
Murata Manufacturing Co., Ltd., 1-10-1 Higashikotari, Nagaokakyo, Kyoto 617-8555, Japan
Mayumi Matsunaga
Affiliation:
Research Institute for Sustainable Humanosphere, Kyoto University, Gokasho, Uji, Kyoto 611-0011, Japan. Phone: +81 774 38 3864 Department of Electrical and Electronic Engineering, Ehime University, 3 Bunkyo-cho, Matsuyama, Ehime 790-8577, Japan
*
Corresponding author: T. Matsumuro Email: [email protected]
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Abstract

A terrestrial microwave power transmission system is considered as an effective method for collecting natural energy. In this system, frequency dependence of the refractive index and multipath propagation due to the ground surface poses problems. In the study, a single-frequency retrodirective system was proposed with a beam pilot signal using dual-mode dielectric resonator antenna elements. The results confirmed that the beam pilot signal radiated from the entire surface of the receiving antenna and accurately used the same propagation space as that of microwave power by beam propagation method simulation. A dual-mode dielectric resonator antenna was proposed as a common array antenna element for the beam pilot signal and microwave power. This involves a cross-shaped hemispherical dielectric resonator structure, and an isolation level exceeding 60 dB was experimentally measured between the orthogonal ports of the fabricated antenna. The dual-mode dielectric resonator antenna with an isolation exceeding 60 dB was successfully developed as an enabling device to realize a single-frequency retrodirective system with a beam pilot signal.

Keywords

Microwave power transmissionRetrodirective systemBeam propagation methodDistributed refractive indexDielectric resonator antenna
Type
Research Article
Information
Wireless Power Transfer , Volume 4 , Special Issue 2: Contactless Charging for Electric Vehicles , September 2017 , pp. 132 - 145
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Copyright
Copyright © Cambridge University Press 2017 

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References

REFERENCES

[1] Glaser, P.E.: Power from the sun: its future. Science, 162 (385) (1968), 857–861.Google Scholar
[2] Brown, W.C.; Eves, E.E.: Beamed microwave power transmission and its application to space. IEEE Trans. Microw. Theory Tech., 40 (6) (1992), 1239–1250.CrossRefGoogle Scholar
[3] Matsumoto, H.: Research on solar power satellites and microwave power transmission in Japan. IEEE Microw. Mag., 3 (4) (2002), 36–45.CrossRefGoogle Scholar
[4] Shinohara, N.: Beam control technologies with a high-efficiency phased array for microwave power transmission in Japan. Proc. IEEE, 101 (6) (2013), 1448–1463.Google Scholar
[5] Strassner, B.; Chang, K.: Microwave power transmission: milestones and system components. Proc. IEEE, 101 (6) (2013), 1379–1396.Google Scholar
[6] Sasaki, S.; Tanaka, K.; Maki, K.I.: Microwave power transmission technologies for solar power satellites. Proc. IEEE, 101 (6) (2013), 1438–1447.Google Scholar
[7] Shinohara, N.: Power without wires. IEEE Microw. Mag., 12 (7) (2011), S64–S73.Google Scholar
[8] Brown, W.C.: The history of power transmission by radio waves. IEEE Trans. Microw. Theory Tech., 32 (9) (1984), 1230–1242.CrossRefGoogle Scholar
[9] Yoshida, S.; Hasegawa, N.; Kawasaki, S.: The aerospace wireless sensor network system compatible with microwave power transmission by time- and frequency-division operations. Wireless Power Transf., 2 (1) (2015), 3–14.Google Scholar
[10] Ishikawa, T.; Shinohara, N.: Flat-topped beam forming experiment for microwave power transfer system to a vehicle roof. Wireless Power Transf., 2 (Special Issue 01) (2015), 15–21.Google Scholar
[11] Ishikawa, Y.: Global Smart Grid Conception Using Microwave Mirror Satellite Collaborated with Marine Inverse Dam. Keynote Address of Microwave Workshops and Exhibition, KA01-01, 2014.Google Scholar
[12] Matsumuro, T.; Ishikawa, Y.; Ishikawa, T.; Shinohara, N.: Effective beam forming of phased array antenna for efficient microwave power transmission, in Proc. of Asia-Pacific Microwave Conference (APMC), 2014, 717–719.Google Scholar
[13] Pon, C.: Retrodirective array using the heterodyne technique. IEEE Trans. Antennas Propag., 12 (2) (1964), 176–180.CrossRefGoogle Scholar
[14] Sharp, E.; Diab, M.: Van atta reflector array. IRE Trans. Antennas Propag., 8 (4) (1960), 1951–1953.Google Scholar
[15] Fairouz, M.; Saed, M.A.: A retrodirective array with reduced surface waves for wireless power transfer applications. Prog. Electromagn. Res. C, 55 (2014), 179–186.Google Scholar
[16] Chen, L.; Shi, X.W.; Zhang, T.L.; Cui, C.Y.; Lin, H.J.: Design of a dual-frequency retrodirective array. IEEE Antennas Wireless Propag. Lett., 9 (1) (2010), 478–480.Google Scholar
[17] Guo, Y.C.; Shi, X.W.; Chen, L.: Retrodirective array technology. Prog. Electromagn. Res. B, 5 (2008), 153–167.Google Scholar
[18] Rodenbeck, C.T.; Li, M.; Chang, K.: A phased-array architecture for retrodirective microwave power transmission from the space solar power satellite, in IEEE MTT-S Int. Microwave Symp. Digest, 2004, 1679–1682.Google Scholar
[19] Hsieh, L.H. et al. : Development of a retrodirective wireless microwave power transmission system, in IEEE Antennas and Propagation Society Int. Symp., vol. 2, 2003, 393–396.Google Scholar
[20] Fusco, V.; Buchanan, N.: Dual-mode retrodirective/phased array. Electron. Lett., 45 (3) (2009), 139.Google Scholar
[21] Fusco, V.; Buchanan, N.B.: High-performance IQ modulator-based phase conjugator for modular retrodirective antenna array implementation. IEEE Trans. Microw. Theory Tech., 57 (10) (2009), 2301–2306.Google Scholar
[22] Liu, C.; Guo, J.L.; Huang, Y.H.: A novel dual-polarized antenna with high isolation and low cross polarization for wireless communication. Prog. Electromagn. Res. Lett., 32 (2012), 129–136.Google Scholar
[23] Jin, P.; Ziolkowski, R.W.: Multi-frequency, linear and circular polarized, metamaterial-inspired, near-field resonant parasitic antennas. IEEE Trans. Antennas Propag., 59 (5) (2011), 1446–1459.Google Scholar
[24] Wang, X.M.; Weng, Z.B.; Jiao, Y.C.; Zhang, Z.; Zhang, F.S.: Dual-polarized dielectric resonator antenna with high isolation using hybrid feeding mechanism for WLAN applications. Prog. Electromagn. Res. Lett., 18 (2010), 195–203.Google Scholar
[25] Hang, W.; Leung, L.K.; Man, L.K.: Design of dual-polarized L-probe patch antenna arrays with high isolation. IEEE Trans. Antennas Propag., 52 (1) (2004), 45–52.Google Scholar
[26] Luk, K.; Leung, K.: Dual-polarized dielectric resonator antennas. IEEE Trans. Antennas Propag., 51 (5) (2003), 380.Google Scholar
[27] Popovic, Z.; Reveyrand, T.; Schafer, S.; Litchfield, M.; Ramos, I.; Korhummel, S.: Efficient transmitters and receivers for high-power wireless powering systems, in IEEE Wireless Power Transfer Conf. 2014, IEEE WPTC 2014, 2014, 32–35.Google Scholar
[28] Ishikawa, R.; Honjo, K.: Reversible high efficiency amplifier/rectifier circuit for wireless power transmission system, in Proc. 2013 Asia-Pacific Microwave Conf., 2013, 74–76.Google Scholar
[29] Ishikawa, R.; Honjo, K.: Microwave power transfer evaluation at 2.45 GHz using a high-efficiency GaAs HEMT amplifier and rectifier, in Proc. EuMC2013, 2013, 916–919.Google Scholar
[30] Huang, W.P.; Xu, C.L.; Chu, S.-T.T.; Chaudhuri, S.K.K.: The finite-difference vector beam propagation method – analysis and assessment. J. Lightwave Technol., 10 (3) (1992), 295–305.Google Scholar
[31] Bean, B.; Thayer, G.: Models of the atmospheric radio refractive index. Proc. IRE, 47 (5) (1959), 740–755.Google Scholar
[32] Grabner, M.; Kvicera, V.; Pechac, P.; Jicha, O.: Vertical dependence of refractive index structure constant in lowest troposphere. IEEE Antennas Wireless Propag. Lett., 10 (2011), 1473–1475.Google Scholar
[33] Matsumuro, T.; Ishikawa, Y.; Shinohara, N.: Spherical dielectric resonator as an accurate source of high-order mode spherical wave, in Thailand-Japan MicroWave 2013 (TJMW2013), TU2-11, Bangkok, Thailand, 2–4 December 2013.Google Scholar
[34] Huynh, A.; Håkansson, P.; Gong, S.: Mixed-mode S-parameter conversion for networks with coupled differential signals, in Proc. 37th Eur. Microwave Conf. EUMC, 2007, 238–241.CrossRefGoogle Scholar