A $K$-Band Frequency Doubler in $0.15-\mu \mathrm{m}$ GaAs pHEMT with an Autonomous Circuit for Stability Analysis

K. Lu, Jyun-Jia Huang, Wei-Cheng Chen, Hong-Yeh Chang, Yu-Chi Wang
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引用次数: 3

Abstract

In this paper, we present a $\boldsymbol{K}$-band frequency doubler using $0.15-{\mu} \mathbf{m}$ E-mode GaAs pHEMT with Gm-boosted technique. The input driving power decreases and the conversion gain enhances due to the boosted input voltage swing of the Gm-boosted technique. Furthermore, an autonomous circuit is employed for nonlinear stability analysis of the proposed frequency doubler, and the oscillation issue can be resolved. The chip size is $0.9 \times 0.8\ \mathbf{mm}^{2}$. As the measured output frequency is from 37 to 43 GHz, the proposed frequency doubler exhibits a conversion gain of 0.9 dB with an input power of 0 dBm, a 15% fractional bandwidth, and a maximum saturated output power of higher than 2 dBm. The circuit performance can be compared with the prior art, and the proposed design methodology can be applied for some nonlinear microwave circuits.
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采用 0.15 \mu \mathrm{m}$ GaAs pHEMT 的 $K$ 波段倍频器与用于稳定性分析的自主电路
本文采用 Gm-boosted 技术,利用 0.15-\{mu} \mathbf{m}$ E 模式砷化镓 pHEMT,提出了一种 $\boldsymbol{K}$ 波段倍频器。由于采用了 Gm 升压技术的升压输入电压摆幅,输入驱动功率降低,转换增益提高。此外,还采用了自主电路对所提出的倍频器进行非线性稳定性分析,从而解决了振荡问题。芯片尺寸为 0.9 美元/times 0.8 (mathbf{mm}^{2}$。由于测量的输出频率为 37 至 43 GHz,因此在输入功率为 0 dBm、带宽为 15%、最大饱和输出功率高于 2 dBm 的情况下,拟议的倍频器显示出 0.9 dB 的转换增益。电路性能可与现有技术进行比较,所提出的设计方法可用于某些非线性微波电路。
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