首页> 外文会议>International Symposium on Microelectronic >Unwanted Coupling in Millimeter-Wave Multilayer Circuits
【24h】

Unwanted Coupling in Millimeter-Wave Multilayer Circuits

机译:在毫米波多层电路中的不需要的耦合

获取原文

摘要

New data are presented on the effects of coupling between conductors in highly integrated, multilayer circuits working at frequencies up to 100 GHz. Whilst multilayer circuits offer many advantages for the microwave circuit designer, unwanted coupling due to dense integration may detract from the electrical performance of the multilayer package. Using a combination of electromagnetic simulation and practical measurement we have established criteria for the optimum spacing of conductors in multilayer ceramic packages. The work was based around the use of photoimageable thick-film conductors and dielectrics; the dielectric had a relative permittivity of 3.9 and the conductors were silver. Two situations were considered in detail, firstly the effect of the crossover of conductors separated by dielectric, and secondly the effect of coupling between parallel conductors on different layers. Both of these geometries were modeled using an electromagnetic simulator (CST - Microwave Studio), and the results of simulation were confirmed by practical measurement. The practical circuits were fabricated on alumina, with the crossover and coupled lines built up with successive layers of photoimageable thick-film paste. Using the experimental data, general design graphs have been developed to summarize the results and provide guidance to the circuit designer on the minimum spacing between conductors in a multilayer package.
机译:在高度集成的多层电路中,在高达100 GHz的频率下工作的导体之间的耦合耦合的效果提出了新的数据。虽然多层电路为微波电路设计者提供了许多优点,但由于致密集成而导致的不需要的耦合可能会减损多层封装的电气性能。使用电磁仿真和实际测量的组合,我们已经建立了多层陶瓷包装中导体的最佳间距的标准。这项工作围绕着光模可厚膜导体和电介质;电介质具有3.9的相对介电常数,导体是银。详细考虑了两种情况,首先是通过电介质分离的导体的交叉的影响,其次是在不同层上的平行导体之间耦合的影响。这些几何形状都是使用电磁模拟器(CST - 微波工作室)进行建模的,并且通过实际测量确认模拟结果。实用的电路在氧化铝上制造,具有与连续的光成像厚膜浆料的交叉和耦合线构成。使用实验数据,已经开发了一般设计图来总结结果并为电路设计者提供了在多层包中导体之间的最小间距的引导。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号