分布式脉冲旋转行波压控振荡器:结构与设计

Prashansa Mukim, Aditya Dalakoti, D. McCarthy, Brandon Pon, Carrie Segal, Merritt Miller, J. Buckwalter, F. Brewer
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引用次数: 0

摘要

本文介绍了脉冲旋转行波压控振荡器的结构和设计,该振荡器采用非线性放大技术来保持波形,从而保持波的谐波。这些振荡器可以提供多个低占空比时钟相位,并且结构修改可以允许在多个物理位置出现相同的时钟相位。采用GFUS 130nm (8RF)技术制作的设计工作频率为5.32 GHz, 45.4 mW时10 MHz偏置相位噪声为-128.15 dBc/Hz,同时产生12个驱动相位输出,相位分辨率为15.66 ps,周期间抖动小于500 fs。可在4.35 GHz ~ 5.4 GHz的频率范围内进行粗调或精调,KV CO分别为1.7 GHz/V和470 MHz/V。振荡器的启动机制最大限度地减少了传输线反射,并允许保持行波形状,与现有设计相比,产生平均3 dB的性能改进。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Distributed Pulse Rotary Traveling Wave VCO: Architecture and Design
This paper describes the architecture and design of pulse rotary traveling wave voltage controlled oscillators that preserve wave shape, and thus wave harmonics using non-linear amplification. These oscillators can provide multiple low dutycycle clock phases and architectural modifications can allow for the same clock phase to be present at multiple physical locations. A design fabricated in GFUS 130nm (8RF) technology operates at 5.32 GHz with a 10 MHz offset phase noise of -128.15 dBc/Hz at 45.4 mW while generating 12 driven phase outputs with 15.66 ps phase resolution and less than 500 fs cycle-to-cycle jitter. It can be coarse or fine tuned within a frequency range of 4.35 GHz to 5.4 GHz with KV CO of 1.7 GHz/V and 470 MHz/V respectively. The start-up mechanism of the oscillator minimizes transmission line reflections and allows maintenance of the traveling wave shape, yielding an average 3 dB figure of merit improvement over existing designs.
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