We use ultrasound to deliver mechanical energy through skin and liquids and demonstrate a thin implantable vibrating triboelectric generator able to effectively harvest it. The ultrasound can induce micrometer-scale displacement of a polymer thin membrane to generate electrical energy through contact electrification.
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In the present study, we described a FBI-TENG that uses ultrasound energy, a verified and noninvasive energy source for medical use, to generate electric power for transient electronics. To achieve an improved
Unlike most reported wireless energy harvesting technologies represented by electromagnetic coupling, the new generation of ultrasound-induced wireless energy harvesting (UWEH) that
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The efficient conversion of ultrasound into electrical energy remains a highly desirable wireless powering solution, with potentially profound ramifications in energy transfer across virtually all industrial fields, especially for implantable medical devices.
The ultrasound can induce micrometer-scale displacement of a polymer thin membrane to generate electrical energy through contact electrification. We recharge a lithium-ion battery at a rate of 166 microcoulombs per second in water.
The device outputted an instantaneous current of approximately 100 mA and achieved a power density of 0.362 W·cm −2 under an ultrasound frequency of 80 kHz. The calculated power conversion efficiency is as high as 13.1% with an equivalent output galvanostatic current of 1.43 mA.
Given ultrasound’s capabilities to penetrate human tissue with minimal side effects , there has been a surge in attempts to use and harness ultrasound as a power source, both for IMDs , as well as for direct interventional therapy , .
Ultrasound-induced wireless energy harvesting (UWEH) represents an emerging technology that can be integrated into various systems for biomedical, physical, and chemical functions with high resolution, deep penetration, and good-enough security.
An external ultrasonic source can theoretically provide vibrational energy to implanted nanosensors that use the piezoelectric nanowires to generate power. In 2011, a UWEH powered implanted micro-oxygen generator (IMOG) has been demonstrated ( Fig. 16a) [ 158 ].
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