研究目的
To design and implement a power transfer system architecture that is able to: 1) work over long distance, 2) achieve high power conversion efficiency and 3) provide stable output power for sufficient time duration for optogenetics applications.
研究成果
The developed WPT system achieves high PCE and stable output power over long distances, making it suitable for optogenetics applications. The use of a supercapacitor ensures stable power supply even in insufficient RF power conditions.
研究不足
The system's efficiency decreases with distance and when implanted under tissue, requiring higher stages of voltage multipliers for stable output, which in turn reduces PCE.
1:Experimental Design and Method Selection:
The WPT system was designed to operate at 915 MHz, utilizing a Dickson configuration voltage multiplier for high efficiency.
2:Sample Selection and Data Sources:
The system was tested in free space and implanted in porcine cadaver meat to simulate in-vivo conditions.
3:List of Experimental Equipment and Materials:
Included a Keysight N9310A RF signal generator, ARC-PCA0913B01 panel antenna, W3012 ceramic antenna, and a BQ25570 power management IC with a 100 mF supercapacitor.
4:Experimental Procedures and Operational Workflow:
The system's performance was evaluated by measuring output voltage, power, and PCE at various distances and conditions.
5:Data Analysis Methods:
Output voltage and PCE were calculated from oscilloscope measurements across a load resistor.
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