基于主路电感补偿的ka波段gm增强PS-VGA低相位变化

0 ENGINEERING, ELECTRICAL & ELECTRONIC
Hao Wang;Tongde Huang;Ziyi Hu;Hanzhang Cao;Jin Jin;Hongqi Tao;Wen Wu
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引用次数: 0

摘要

在27-31 GHz频段演示了一种具有gm增强结构的矢量和移相器(VSPS)与低相位变化的可变增益放大器(VGA),即PS-VGA。VSPS采用三耦合变压器(TCT)技术进行gm升压和降噪。提出了一种新的相位补偿技术——主路径电感补偿(MPIC)技术,通过减小断开状态漏源电容(${C} _{\text {ds-}\text {OFF}}$)的影响,极大地抑制了VGA的相位变化。采用65纳米1P9M CMOS技术制造的PS-VGA实现了360°相移范围,6位相位分辨率和15.5 db增益范围,0.5 db增益步长。VSPS的测量均方根相位误差为0.46°-1.58°。VGA的测量有效值增益误差为0.06-0.11 dB,相位变化小于3.85°。据我们所知,在宽增益范围(> - 15db)下,测量到的相位变化是VGA最小的。PS-VGA的总功耗为28.0 mW。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Ka-Band Gm-Boosted PS-VGA With Low Phase Variation by Main-Path Inductor Compensation
A vector-summing phase shifter (VSPS) with gm-boosted structure followed by a variable gain amplifier (VGA) with low phase variation, i.e., PS-VGA, was demonstrated at 27–31 GHz. Triple-coupling transformer (TCT) technique was employed in VSPS for gm boosting and noise reduction. A novel phase compensation technique of main-path inductor compensation (MPIC) was proposed in VGA to greatly suppress the phase variation by mitigating the impact of OFF-state drain–source capacitance ( ${C} _{\text {ds-}\text {OFF}}$ ). The fabricated PS-VGA in 65-nm 1P9M CMOS technology has achieved a 360° phase shifting range with 6-bit phase resolution and a 15.5-dB gain range with 0.5-dB gain step. The measured root-mean-square (rms) phase error for VSPS is 0.46°–1.58°. The measured rms gain error for VGA is 0.06–0.11 dB along with a phase variation of less than 3.85°. To the best of our knowledge, the measured phase variation is the lowest one for VGA with a wide gain range (>15 dB). The total power consumption of PS-VGA is 28.0 mW.
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CiteScore
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