Mode-coupled stubs-tuned planar resonator based spectral pure signal source for wireless communication systems

U. Rohde, A. Poddar
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引用次数: 0

Abstract

A novel compact coupled planar resonator (CCPR) based VCO (voltage controlled oscillator) using mode-coupling technique was developed in response to expensive high Ceramic and SAW resonators based signal source for wireless communications. One of the problems related to the conventional Ceramic/SAW based resonators (with high Q and low phase noise) is the challenge for integration in IC form. Instead of employing the distributed planar uncoupled transmission line resonator for integration that exhibits low Q and high phase noise, this work describes a CCPR based VCO that supports user-definable frequency band in compact size and amenable for integration in the IC form. The measured phase noise for a carrier frequency 622 MHz is better than -135 dBc/Hz at 10 kHz offset, and to our knowledge, this is the best phase noise performance for this class of VCOs using printed resonator in 0.5'times0.5' circuit board size so far reported. The reported topology is not limited to this frequency, can be extended for other higher frequency by incorporating mode-injection stubs across the CCPR for desired operating frequency.
基于模式耦合存根调谐平面谐振器的无线通信频谱纯信号源
针对昂贵的高陶瓷和SAW谐振器构成的无线通信信号源,采用模式耦合技术,开发了一种新型的基于紧凑耦合平面谐振器(CCPR)的压控振荡器(VCO)。传统的基于陶瓷/SAW的谐振器(具有高Q和低相位噪声)的问题之一是集成到IC形式的挑战。与采用低Q和高相位噪声的分布式平面不耦合传输线谐振器进行集成不同,这项工作描述了一种基于CCPR的VCO,它支持用户自定义的频段,尺寸紧凑,适合集成在IC形式中。载波频率622 MHz的相位噪声在10 kHz偏置时优于-135 dBc/Hz,据我们所知,这是迄今为止报道的使用0.5' × 0.5'电路板尺寸的印刷谐振器的该类vco的最佳相位噪声性能。所报告的拓扑不限于此频率,可以通过在CCPR上合并模式注入存根来扩展到其他更高的频率,以满足所需的工作频率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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