A novel transition from grounded coplanar waveguide to substrate inte grated waveguide for 60 GHz Radio-over-Fiber photonic transmitters

I. Flammia, B. Khani, A. Stohr
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引用次数: 6

Abstract

We present a novel transition from grounded coplanar waveguide (GCPW) to substrate integrated waveguide (SIW), designed on a ROGERS 5880 laminate for 60 GHz Radio-over-Fiber (RoF) photonic transmitters. The transition serves as connection between a 60 GHz photodiode (PD) chip and a suitable SIW antenna. In contrast to previous designs, our approach makes use of a quarter-wave coupled-lines (CL) section to transfer the signal carried by the GCPW to the SIW. This technique, creating a DC-block between the GCPW signal track and the ground layers, allows for correctly biasing the PD. In order to reduce the propagation of parasitic modes as well as the risk of interferences, the transition is fully enclosed by a fence of via holes. Simulations show that in the whole 57-64 GHz band, the return loss (RL) is higher than 17 dB, while the insertion loss (IL) is ~ 0.4 dB. To prevent the loss of RF power through the DC path, a planar RF-choke (RL > 22 dB, IL <; 0.4 dB and RF-to-DC isolation (IS) higher than 28 dB) is additionally integrated.
一种从接地共面波导到衬底集成波导的新型转换,用于60 GHz光纤上无线电光子发射机
我们提出了一种从接地共面波导(GCPW)到衬底集成波导(SIW)的新过渡,设计在ROGERS 5880层叠板上,用于60 GHz无线光纤(RoF)光子发射器。该过渡作为60ghz光电二极管(PD)芯片和合适的SIW天线之间的连接。与以前的设计相比,我们的方法利用四分之一波耦合线(CL)部分将GCPW携带的信号传输到SIW。这种技术在GCPW信号轨道和接地层之间创建一个直流模块,可以正确地偏置PD。为了减少寄生模式的传播以及干扰的风险,过渡被通孔的栅栏完全封闭。仿真结果表明,在整个57 ~ 64 GHz频段内,回波损耗(RL)大于17 dB,插入损耗(IL)为~ 0.4 dB。为了防止RF功率通过直流路径的损耗,平面RF扼流圈(RL > 22 dB, IL <;另外还集成了0.4 dB和RF-to-DC隔离(IS)(高于28 dB)。
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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