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Altered Phase Velocity Lines for Low Crosstalk Microstrip Interconnection of High-Speed Digital Circuits: Design and Experimental Validation

机译:高速数字电路的低串扰微带互连的相速度线:设计和实验验证

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摘要

Altered phase velocity lines are a novel kind of parallel microstrip lines for high-speed interconnection of digital circuits, on which the crosstalk is reduced by the different phase velocities of propagation on the adjacent lines. In this paper, a design method is proposed to optimize the geometry sizes of the altered phase velocity lines. The measured results of a prototype altered phase velocity pair designed by the proposed method are presented to validate the design method. And the effects of the process variation are simulated to analyze the robustness of the prototype in fabrication. The altered phase velocity lines outperform the symmetric parallel microstrip lines in terms of the lower far-end crosstalk (FrdCtk) and the lower dielectric loss. This technique reduces the FrdCtk in the pair of the microstrip transmission lines and does not significantly improve the near-end crosstalk. The prototype works at the speed of 2 Gbps for low crosstalk digital signal transmission, while it can transmit the high-speed clock signal at 10.5 GHz, so the altered phase velocity lines are a useful supplementary to the existing low crosstalk interconnection concepts in the scenario that the parallel microstrips have to be placed closely on printed circuit board.
机译:相位速度线是一种用于数字电路高速互连的新型平行微带线,其上的串扰通过相邻线上传播的不同相位速度而减小。在本文中,提出了一种设计方法来优化相变速度线的几何尺寸。提出了通过该方法设计的原型相变速度对的测量结果,以验证该设计方法。并模拟了工艺变化的影响,以分析原型在制造中的鲁棒性。就较低的远端串扰(FrdCtk)和较低的介电损耗而言,改变后的相速度线要优于对称的平行微带线。此技术可降低一对微带传输线中的FrdCtk,并且不会显着改善近端串扰。该原型以2 Gbps的速度工作,可实现低串扰数字信号传输,同时可以在10.5 GHz的频率下传输高速时钟信号,因此,相速度线的更改是该方案中现有低串扰互连概念的有用补充。平行微带必须紧密放置在印刷电路板上。

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