Tracking Frequency Resonant Coupling Energy Wireless Transmission Research

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Abstract:

The problem of transceiver coil resonance frequency detuning is solved tentatively on resonant coupling energy wireless transmission in this paper. The circuit model of the wireless transmission system of the resonant coupling electrical energy is first studied, the relationship between the parameters of the system and the transmission efficiency of the various parts is analyzed, and yhe studies have shown that the change in the amount of the transmitting coil inductance greater impact on the transmission efficiency, while the receiving coil inductance change in the amount of efficiency small, and thus the proposed phase locked loop frequency tracking technology, to ensure that the transceiver coil resonant frequency to ensure that the transmission efficiency of the system. The feasibility of the design frequency tracking system is verified with the experimental results.

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56-61

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August 2013

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© 2013 Trans Tech Publications Ltd. All Rights Reserved

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[1] hirai j j, kim t w, kawamura a. wireless transmission of power and information for cableless linear motor drive[j]. ieee transactions on power electronics,2000,15(1):21-27.

DOI: 10.1109/63.817358

Google Scholar

[2] esser a, skudelny h c. a new approach to power supplies for robots [j]. ieee transactions on industry applications,1991,27(5):871-875.

DOI: 10.1109/28.90341

Google Scholar

[3] manolatou c, khan m j, fan shanhui, et al. coupling of modes analysis of resonant channel add-drop filters[j]. ieee journal of quantum electronics,1999,35(9):1322-1331.

DOI: 10.1109/3.784592

Google Scholar

[4] heikkinen j, salonen p, kivikoski m. planar rectennas for 2.45ghz wireless power transfer[c]. radio and wireless conference, denver co usa,2000,63-66.

DOI: 10.1109/rawcon.2000.881856

Google Scholar

[5] Wu Ying, Yan Luguang, the Xushan Gang sports equipment of the coupling characteristics of contactless power supply system [j]. Electrical Engineering and Energy Technology, 2005, 24 (3) :5-8.

Google Scholar

[6] Zhou Wenqi, Ma Hao He Xiangning based on the frequency of the current source of dynamic equations inductively coupled power transmission circuit analysis [j]. CSEE, 2008,28 (3) :119-124.

Google Scholar

[7] field, Zhang Yongxiang, the Ming court Tao. Performance of loosely coupled inductive power factor analysis [j] Electrical Engineering and Energy Technology, 2006,25 (1) :73-76.

Google Scholar

[8] Wang Lu, Chen Min, Xu Dehong. Maglev train non-contact emergency power system engineering design [j] China CSEE, 2007,27 (18) :67-70.

Google Scholar

[9] Wu Ying Yan Luguang, Huang Changgang new non-contact power transmission system performance analysis [j] Electrical Engineering and Energy Technology, 2003,22 (4) :10-13.

Google Scholar

[10] Wu Ying, Yan Luguang, the Xushan Gang new contactless electrical energy transmission system stability [j]. CSEE, 2004,24 (5) :63-66.

Google Scholar

[11] Chen Min, Zhou Dengyan, PROCEEDINGS. Maglev train into the higher harmonic current non-contact power supply method [j] China CSEE, 2005,25 (6) :104-108.

Google Scholar

[12] soljacic m. Wireless energy transfer can potentially recharge laptops, cell phones without cords [r]. San francisco: massachusetts institute of technology, 2006.

Google Scholar

[13] fredy s q, jesús g c, jordi s, et al. wireless power of single-chip systems with integrated coil and external wire-loop resonator [j]. applied physics letters, 2008,92 (7): 074102 (1-3).

DOI: 10.1063/1.2887885

Google Scholar

[14] tsang m, psaltis d. Theory of resonantly enhanced near-field imaging [j]. Optical society of america, 2007,15 (19) :11959-11970.

DOI: 10.1364/oe.15.011959

Google Scholar

[15] PANG Hao, ZU sky, Wang Zanchi a new type of all-digital phase-locked loop [j]. CSEE, 2003,23 (2) :37-40.

Google Scholar