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The aerospace wireless sensor network system compatible with microwave power transmission by time- and frequency-division operations

Part of: WPT for Sustainable Electronics (WiPE)

Published online by Cambridge University Press:  24 April 2015

Satoshi Yoshida ,
Naoki Hasegawa  and
Shigeo Kawasaki
Satoshi Yoshida
Affiliation:
Institute of Space and Astronautical Science, Japan Aerospace Exploration Agency, 3-1-1 Yoshinodai, Chu-oh, Sagamihara 252-5210, Japan. Phone: +81 50 3362 5732
Naoki Hasegawa
Affiliation:
Institute of Space and Astronautical Science, Japan Aerospace Exploration Agency, 3-1-1 Yoshinodai, Chu-oh, Sagamihara 252-5210, Japan. Phone: +81 50 3362 5732 Research Institute for Sustainable Humanosphere, Kyoto University, Gokasho, Uji, Kyoto 611-0011, Japan
Shigeo Kawasaki*
Affiliation:
Institute of Space and Astronautical Science, Japan Aerospace Exploration Agency, 3-1-1 Yoshinodai, Chu-oh, Sagamihara 252-5210, Japan. Phone: +81 50 3362 5732
*
Corresponding author: S. Kawasaki Email: kawasaki.shigeo@jaxa.jp
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Abstract

A novel wireless sensor network system with compatibility of microwave power transmission (MPT) using a Gallium Nitride (GaN) power amplifier has been fabricated and tested. The sensor node operates using electrical power supplied by the MPT system. Time- and frequency-division operations are proposed for the compatibility. Under the frequency-division operation, receiving signal strength indicator of −85 dBm and packet error rate of <1% were measured when the available DC power of a rectifier with 160 mW output power. Under 120-min measurement, sustainable power balance between radio-frequency–DC conversion and power consumption in stable operation of the sensor node was achieved.

Keywords

Wireless power transmissionWireless sensor networkMicrowave power transmission
Type
Research Article
Information
Wireless Power Transfer , Volume 2 , Special Issue 1: Wireless Power Transmission for Sustainable Electronics (WiPE) , March 2015 , pp. 3 - 14
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Copyright
Copyright © Cambridge University Press 2015 

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References

REFERENCES

[1] Kawasaki, S.: The green energy harvesting winds by the RF/microwave power transmission, in Wireless Power Transfer Conf., May 2013, 111–114.Google Scholar
[2] Salas, M.; Focke, O.; Herrmann, A.S.; Lang, W.: Wireless power transmission for structural health monitoring of fiber-reinforced-composite materials. IEEE Sens. J., 14 (7) (2014), 2171–2176.Google Scholar
[3] Hu, X.; Wang, J.; Yu, Q.; Liu, W.; Qin, J.: A wireless sensor network based on ZigBee for telemedicine monitoring system, in Int. Conf. on Bioinformatics and Biomedical Engineering, May 2008, 1367–1370.CrossRefGoogle Scholar
[4] Watthanawisuth, N.; Lomas, T.; Wisitsoraat, A.; Uantranont, A.: Wireless wearable pulse oximeter for health monitoring using ZigBee wireless sensor network, in Int. Conf. on Electrical Engineering/Electronics Computer Telecommunications and Information Technology, May 2010, 575–579.Google Scholar
[5] Teo, T.H.; Lim, G.K.; Sutomo, D.; Tan, K.H.; Gopalakrishnan, P.K.; Singh, R.: Ultra low-power sensor node for wireless health monitoring system, in Proc. IEEE Int. Symp. Circuits Systems, May 2007, 2363–2366.Google Scholar
[6] Moges, M.; Robertazzi, T.G.: Wireless sensor networks: scheduling for measurement and data reporting. IEEE Trans. Aerosp. Electron. Syst., 42 (1) (2006), 327–340.CrossRefGoogle Scholar
[7] Karolys, A.; GenKuong, F.: Multi-drop, simultaneous sampling sensor network system for aerospace testing and monitoring applications, in Sensors Applications Symp., February 2007, 1–6.Google Scholar
[8] Senesky, D.G.; Jamshidi, B.; Cheng, K.B.; Pisano, A.P.: Harsh environment silicon carbide sensors for health and performance monitoring of aerospace systems: a review. IEEE Sens. J., 9 (11) (2009), 1472–1478.Google Scholar
[9] Wagner, R.S.; Barton, R.J.: Performance comparison of wireless sensor network standard protocols in an aerospace environment: ISA100.11a and ZigBee Pro, in IEEE Aerospace Conf., March 2012, 1–14.Google Scholar
[10] Liu, J.; Demirkiran, I.; Yang, T.; Helfrick, A.: Feasibility study of IEEE 802.15.4 for aerospace wireless sensor networks, in Digital Avionics Systems Conf., October 2009, 1.B.3–1–1.B.3–10.CrossRefGoogle Scholar
[11] Takacs, A. et al. : Energy harvesting for powering wireless sensor networks on-board geostationary broadcasting satellites, in Int. Conf. on Green Computing and Communications, November 2012, 637–640.Google Scholar
[12] Zhao, X. et al. : Active health monitoring of an aircraft wing with an embedded piezoelectric sensor/actuator network. Smart Mater. Struct., 16 (2007) (2007), 1218–1225.Google Scholar
[13] Zheng, W.H.; Armstrong, J.T.: Wireless intra-spacecraft communication: the benefits and the challenges, in NASA/ESA Conf. on Adaptive Hardware and Systems, June 2010, 75–78.Google Scholar
[14] Vladimirova, T. et al. : Characterising wireless sensor motes for space applications, in NASA/ESA Conf. on Adaptive Hardware and Systems, August 2007, 43–50.Google Scholar
[15] ICNIRP: Guldelines for limiting exposure to time-varying electric, magnetic and electromagnetic fields (up to 300 GHz). Health Phys., 74 (1998), 494–522.Google Scholar
[16] Oruganti, S.K.; Heo, S.H.; Ma, H.; Bien, F.: Wireless energy transfer-based transceiver systems for power and/or high-data rate transmission through thick metal walls using sheet-like waveguides. Electon. Lett., 50 (12) (2014), 886–888.Google Scholar
[17] Ichihara, T.; Mitani, T.; Shinohara, N.: Study on intermittent microwave power transmission to a ZigBee device, in Int. Microwave Symp. Series – Innovative Wireless Power Transmission, May 2012, 40–43.Google Scholar
[18] Xie, L.; Shi, Y.; Hou, Y.T.; Lou, A.: Wireless power transfer and applications to sensor networks. IEEE Wireless Commun., 20 (4) (2013), 140–145.Google Scholar
[19] Baek, J.; Ahn, C.; Kim, B.-C.; Choi, S.; Kwak, S.: High frequency wireless power transfer system for robot vacuum cleaner, in Int. Conf. on Consumer Electronics, January 2014, 308–310.CrossRefGoogle Scholar
[20] Mayordomo, I.; Drager, T.; Alayon, J.A.; Bernhard, J.: Wireless power transfer for sensors and systems embedded in fiber composites, in Wireless Power Transfer Conf., May 2013, 107–110.Google Scholar
[21] Virili, M.; Alimenti, F.; Roselli, L.; Mezzanotte, P.; Dionigi, M.: Organic frequency doubler RFID tag exploiting 7.5-MHz wireless power transfer, IEEE Wireless Power Transfer Conf., May 2013, 33–36.Google Scholar
[22] Xue, R.-F.; Cheng, K.W.; Je, M.: High-efficiency wireless power transfer for biomedical implants by optimal resonant load transformation. IEEE Trans. Circuits Syst., 60 (4) (2013), 867–874.CrossRefGoogle Scholar
[23] Li, T.; Han, Z.; Ogai, H.; Sawada, K.; Wang, J.: A microchip-controlling wireless power transfer system for sensor network, in Proc. SICE Annual Conf., August 2012, 337–341.Google Scholar
[24] Georgiadis, A.; Collado, A.; Niotaki, K.: Optimal signal selection and rectenna design challenges for electromagnetic energy harvesting and wireless power transfer, in Asia-Pacific Microwave Conf., November 2014, 597–599.Google Scholar
[25] Arbizzani, N.; Prete, M.D.; Masotti, D.; Costanzo, A.: Detection of closely-spaced objects by a low-cost reader at 2.45 GHz, in IEEE MTT-S Int. Microwave Symp. Technical Digest, June 2012, 1–3.Google Scholar
[26] Popovic, Z.; Falkenstein, E.A.; Costinett, D.; Zane, R.: Low-power far-field wireless powering for wireless sensors. Proc. IEEE, 101 (6) (2013), 1397–1409.Google Scholar
[27] Visser, H.J.; Vullers, R.J.M.: RF energy harvesting and transport for wireless sensor network applications: principles and requirements. Proc. IEEE, 101 (6) (2013), 1410–1423.Google Scholar
[28] Yano, Y.: Take the expressway to go greener, in International Solid-State Circuits Conf. Digest of Technical Papers, February 2012, 24–30.CrossRefGoogle Scholar
[29] Guenda, L.; Collado, A.; Carvalho, N.B.; Georgiadis, A.; Niotaki, K.: Electromagnetic geo-referenced footprints for energy harvesting systems, in IEEE Radio and Wireless Symp., January 2012, 339–342.Google Scholar
[30] Lim, T.B.; Lee, N.M.; Poh, B.K.: Feasibility study on ambient RF energy harvesting for wireless sensor network, in IEEE MTT-S Int. Microwave Workshop Series on RF and Wireless Technologies for Biomedical and Healthcare Applications, December 2013, 1–3.Google Scholar
[31] Jung, H.-J.; Lee, S.-W.; Jang, D.-D.: Feasibility study on a new energy harvesting electromagnetic device using aerodynamic instability. IEEE Trans. Magn., 45 (10) (2009), 4376–4379.Google Scholar
[32] Ishizaki, H.; Ikeda, H.; Yoshida, Y.; Maeda, T.; Kuroda, T.; Mizuno, M.: A Battery-less WiFi-BER modulated data transmitter with ambient radio-wave energy harvesting, in 2011 Symp. on VLSI Circuits, June 2011, 162–163.Google Scholar
[33] Vidojkovic, M. et al. : A 2.4 GHz ULP OOK single-chip transceiver for healthcare applications, in ISSCC Digest of Technical Papers, February 2011, 458–460.CrossRefGoogle Scholar
[34] Kawasaki, S.: Microwave WPT to a rover using active integrated phased array antennas, in 5th Eur. Conf. on Antennas and Propagation, April 2011, 3909–3912.Google Scholar
[35] Tashiro, S. et al. : Evaluation of 5-GHz band MIMO communication quality under the wireless power transmission situation in a spacecraft, in Thailand-Japan MicroWave Conf., August 2012, 1–2.Google Scholar