Ultra-High Efficiency Microwave Rectifier Based on Patterned GaN Schottky Barrier Diode

T. Liu, Tingting Wang, Yang Li, Lin-An Yang, J. Ao, Yi Hao
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Abstract

In this paper, a microwave rectifier operating at 905 MHz is proposed based on a patterned GaN Schottky barrier diode (SBD). First, a heavily-doped and patterned GaN SBD demonstrates a low turn-on voltage of 0.38 V at 1mA, low series resistance of 1.5Ω, suitable zero-biased junction capacitance of 0.93 pF, and a breakdown voltage of 52 V, which is specially proposed for mid- and low-power microwave rectification around 905 MHz. Then by combining circuits techniques such as harmonic harvesting and impedance cancelation, a GaN based microwave rectifier that pursuing the highest efficiency is designed. The measurement shows that over 92% RF-DC conversion efficiency is achieved, while the high-efficiency power range(efficiency>80%) is extended to 16.5 dBm - 25 dBm, which indicate a great potential at the sensorial such as long-distance wireless power transmission and the internet of things.
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基于图像化GaN肖特基势垒二极管的超高效率微波整流器
本文提出了一种基于GaN肖特基势垒二极管(SBD)的工作频率为905mhz的微波整流器。首先,高掺杂和图案化GaN SBD在1mA时具有0.38 V的低导通电压,1.5Ω的低串联电阻,0.93 pF的合适零偏结电容和52 V的击穿电压,特别适用于905 MHz左右的中低功率微波整流。然后结合谐波采集和阻抗抵消等电路技术,设计了一种追求最高效率的氮化镓微波整流器。测量结果表明,该系统的RF-DC转换效率达到92%以上,高效功率范围(效率>80%)扩展到16.5 dBm ~ 25 dBm,在远距离无线电力传输和物联网等传感领域具有很大的潜力。
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