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Electric Field Energy Harvesting Powered Wireless Sensors for Smart Grid
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 Title & Authors
Electric Field Energy Harvesting Powered Wireless Sensors for Smart Grid
Chang, Keun-Su; Kang, Sung-Muk; Park, Kyung-Jin; Shin, Seung-Hwan; Kim, Hyeong-Seok; Kim, Ho-Seong;
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 Abstract
In this paper, a new energy harvesting technology using stray electric field of an electric power line is presented. It is found that energy can be harvested and stored in the storage capacitor that is connected to a cylindrical aluminum foil wrapped around a commercial insulated 220 V power line. The average current flowing into 47 storage capacitor is about 4.53 with 60 cm long cylindrical aluminum foil, and it is possible to operate wireless sensor node to transmit RF data every 42 seconds. The harvested average power is about 47 in this case. Since the energy can be harvested without removing insulating sheath, it is believed that the proposed harvesting technology can be applied to power the sensor nodes in wireless ubiquitous sensor network and smart grid system.
 Keywords
Stray electric field;Energy harvesting;Wireless sensor node;Smart grid;Self-sustaining sensor;
 Language
English
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 References
1.
Cian O' Mathuna, Terence O'Donnell, Rafael V. Martinez-Catala, James Rohan and Brendan O'Flynn, "Energy scavenging for long-term deployable wireless sensor networks", Talanta, vol. 75, issue. 3, pp.613-623, May. 2008. crossref(new window)

2.
Joseph A. Paradiso and Thad Starner, "Energy Scavenging for Mobile and Wireless Electronics", IEEE Pervasive Computing, vol. 4, issue. 1, pp.18-27, Jan/March. 2005. crossref(new window)

3.
Kurt Roth and James Brodrick, "Energy Harvesting For Wireless Sensors", ASHRAE Journal, vol. 50, issue. 5, pp.84-90, May 2008.

4.
Rohit Moghe, Yi Yang, Frank Lambert and Deepak Divan, "A Scoping Study of Electric and Magnetic Field Energy Harvesting for Wireless Sensor Networks in Power System Applications", IEEE Energy Conversion Congress and Exposition, pp.3550-3557, 20-24. Sept. 2009. crossref(new window)

5.
H.S. Kim, S.-M. Kang, K.-J. Park, C.-W. Baek and J.-S. Park, "Power management circuit for wireless ubiquitous sensor nodes powered by scavenged energy", Electronics Letters, vol. 45, issue. 7, pp.373-374, March. 2009. crossref(new window)

6.
Nathan S. Shenck and Joseph A. Paradiso, "Energy Scavenging with Shoe-Mounted Piezoelectrics", IEEE Micro, vol. 21, issue. 3, pp.30-42, May/Jun. 2001. crossref(new window)