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Cage-Embedded Crown-Type Dual Coil Wireless Power Transfer Based Microwave Brain Stimulation System for Untethered and Moving Mice

Title
Cage-Embedded Crown-Type Dual Coil Wireless Power Transfer Based Microwave Brain Stimulation System for Untethered and Moving Mice
Authors
Kim J.Park S.Oh S.Huh Y.Cho J.Oh J.
Ewha Authors
조제원박상건
SCOPUS Author ID
조제원scopus; 박상건scopus
Issue Date
2023
Journal Title
IEEE Transactions on Biomedical Circuits and Systems
ISSN
1932-4545JCR Link
Citation
IEEE Transactions on Biomedical Circuits and Systems vol. 17, no. 2, pp. 362 - 374
Keywords
biomedical applicationsbrain stimulation systemmagnetic coupling resonancenear-field couplingWireless power transfer
Publisher
Institute of Electrical and Electronics Engineers Inc.
Indexed
SCIE; SCOPUS WOS scopus
Document Type
Article
Abstract
This study proposes a novel brain-stimulated mouse experiment system which is insensitive to the variations in the position and orientation of a mouse. This is achieved by the proposed novel crown-type dual coil system for magnetically coupled resonant wireless power transfer (MCR-WPT). In the detailed system architecture, the transmitter coil consists of a crown-type outer coil and a solenoid-type inner coil. The crown-type coil was constructed by repeating the rising and falling at an angle of 15° for each side which creates the H-field diverse direction. The solenoid-type inner coil creates a magnetic field distributed uniformly along the location. Therefore, despite using two coils for the Tx system, the system generates the H-field insensitive to the variations in the position and angle of the receiver system. The receiver is comprised of the receiving coil, rectifier, divider, LED indicator, and the MMIC that generates the microwave signal for stimulating the brain of the mouse. The system resonating at 2.84 MHz was simplified to easy fabrication by constructing 2 transmitter coils and 1 receiver coil. A peak PTE of 19.6% and a PDL of 1.93 W were achieved, and the system also achieved an operation time ratio of 89.55% in vivo experiments. As a result, it is confirmed that experiments could proceed for approximately 7 times longer through the proposed system compared to the conventional dual coil system. © 2007-2012 IEEE.
DOI
10.1109/TBCAS.2023.3255248
Appears in Collections:
일반대학원 > 뇌·인지과학과 > Journal papers
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