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Numerical Investigation of Glass-Weave Effects on High-Speed Interconnects in Printed Circuit Board

  • Xinxin Tian
  • , Yaojiang Zhang
  • , Jane Lim
  • , Kelvin Qiu
  • , Richard R. Brooks
  • , Ji Zhang
  • , Jun Fan
  • Missouri University of Science and Technology

Research output: Contribution to journal › Article › peer-review

Abstract

Numerical method is used to investigate the glass weave effects on via coupling and trace transmission properties. Studies indicate that a simple two-dimensional periodic structure is accurate enough for via coupling simulations while more complicated three-dimensional glass-weave structures have to be used for studies of trace transmission properties. Analytical formulas are provided to estimate the first resonant frequency of the glass weaves. The impact of trace-glass-weave orientations on resonances of traces has been investigated for both single-ended and differential striplines. It has been demonstrated that statistical Gaussian distribution of pitch sizes due to fabrication tolerance and the dielectric losses can reduce the glass-weave effects. The studies here are useful for better understanding of the high-frequency signal integrity performance of printed circuit boards.

Keywords

  • Analytical formulas
  • Coupling simulation
  • Dielectric losses
  • Electromagnetic compatibility
  • Fabrication tolerances
  • Glass
  • Glass-weave
  • High frequency signals
  • High-speed interconnects
  • Natural frequencies
  • Numerical investigations
  • Numerical methods
  • Printed circuit boards
  • Printed circuits
  • Resonance
  • Scattering parameters
  • Strip telecommunication lines
  • Transmission property
  • Two-dimensional periodic structures
  • Weaving

Disciplines

  • Electrical and Computer Engineering
  • Numerical Analysis and Scientific Computing

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