IEEE Transactions on Microwave Theory and Techniques · 2015 · 82 citations · 19 references
EngineeringRadio FrequencyEnergy EfficiencyEnergy ConversionWearable TechnologyComplete DesignWireless Implantable DevicePrinted ElectronicsTwo-way Talk RadioElectrical EngineeringEnergy HarvestingWireless Power TransmissionAdditive Fabrication ProcessWearable ElectronicsBiomedical SensorsFlexible ElectronicsBioelectronicsWireless Power TransferTechnologyWearable SensorEnergy Harvesters
A complete design and additive fabrication process of flexible wearable radio-frequency (RF) energy harvesters for off-the-shelf 2 W two-way talk radios utilizing inkjet printing technology is discussed in this paper. As a result of numerous output dc power measurements of fabricated proof-of-concept prototypes, a maximum output power of 146.9 mW and 43.2 mW was achieved with an H-field and E-field harvester, respectively. Also, the effect of misalignment between receiver and hand-held radio on harvesting performance is discussed in detail. To verify their potential in real-world wearable autonomous RF modules, the operation of E- and H-field energy harvesters was verified by utilizing an LED and a microcontroller communication module under on-body and on-bottle conditions, and the effect of the energy harvesters on the performance of the harvested communication systems was inspected through received power measurements in an anechoic chamber.
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Wireless Power Transfer via Strongly Coupled Magnetic Resonances
André Kurs, Aristeidis Karalis, Robert Moffatt et al. · Science · 2007 · 5.5K citations · Full text
Electrical Engineering, Energy Harvesting, Power Transfer +10
An Introduction to RFID Technology
Roy Want · IEEE Pervasive Computing · 2006 · 1.7K citations