This paper presents the design, microfabrication and characterization of a wireless power delivery system capable of driving a surface acoustic wave sensor (SAW) for biomedical applications. The system consists of two planar, spiral-square microcoils, which have been geometrically optimized in order to maximize the quality factor Q. The integration of the SAW - microcoil system into artificial implant sites will allow a real-time biofilm growth monitoring and treatment, providing countless advantages to the related medical applications.
Caruso, M., Ghodssi, R., Kim, Y., Miceli, R. (2017). Design, microfabrication and characterization of a power delivery system for new biomedical applications. JOURNAL OF ELECTRICAL AND ELECTRONICS ENGINEERING, 10(1), 37-42.
Design, microfabrication and characterization of a power delivery system for new biomedical applications
Caruso, Massimo
;Miceli, Rosario
2017-01-01
Abstract
This paper presents the design, microfabrication and characterization of a wireless power delivery system capable of driving a surface acoustic wave sensor (SAW) for biomedical applications. The system consists of two planar, spiral-square microcoils, which have been geometrically optimized in order to maximize the quality factor Q. The integration of the SAW - microcoil system into artificial implant sites will allow a real-time biofilm growth monitoring and treatment, providing countless advantages to the related medical applications.
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