Energy Scavenging for Wireless Sensor Networks: with Special Focus on Vibrations
By Shad Roundy, Paul K. Wright, Jan M. Rabaey. 2012
517 citations recorded by the source corpus.
View Paper: https://www.semanticscholar.org/paper/12f69f939f01be6f4121378371d27c6576583c04
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Citations in the corpus
- Kinetic Energy Harvesting Using Piezoelectric and Electromagnetic Technologies—State of the Art (2010, background): “structures such as automobiles and airplanes, and structures such as buildings and bridges, as well as human motion [1].”
- A batteryless thermoelectric energy-harvesting interface circuit with 35mV startup voltage (2010, background): “A 1 cm primary lithium battery has a typical energy storage capacity of 2800 J [1].”
- Experimental and theoretical studies on MEMS piezoelectric vibrational energy harvesters with mass loading (2012, methodology): “[4] has discussed these vibrational energy harvesters in detail.”
- Nonlinear mechanism in MEMS devices for energy harvesting applications (2010, background): “The resonance condition in vibration bandwidth ( 1 kHz [7]) is difficult to match with the microscale dimensions of the converter, and it is hard to maintain when the excitation is not controllable or when vibration frequency moves over a broad bandwidth.”
- Maximum efficiencies of indoor photovoltaic devices (2013, unknown): “, to power electronic devices using ambient energy [1]–[3].”
- An Efficient Piezoelectric Energy Harvesting Interface Circuit Using a Bias-Flip Rectifier and Shared Inductor (2009, unknown): “A 1 cm primary lithium battery has a typical energy storage capacity of 2800J [3].”
- Joint Energy Harvesting and Communication Analysis for Perpetual Wireless Nanosensor Networks in the Terahertz Band (2012, unknown): “For common vibration sources such as the vents of the air conditioning system of an office or the foot steps on a wooden deck, these arrivals follow a Poisson distribution [28].”
- Electrostatic Conversion for Vibration Energy Harvesting (2012, background): “In 2003, Roundy [20] proved that the best structure for electrostatic devices was the in-plane gap closing and would be able to harvest up to 100µW/cm³ with ambient vibrations (2.25m/s²@120Hz).”