• DocumentCode
    3521640
  • Title

    Power integrity simulation for SiP using GTLE

  • Author

    Zhou, Yunyan ; Wan, Lixi ; Li, Jun

  • Author_Institution
    Inst. of Microelectron., Chinese Acad. of Sci., Beijing, China
  • fYear
    2009
  • fDate
    10-13 Aug. 2009
  • Firstpage
    425
  • Lastpage
    428
  • Abstract
    Power integrity (PI) simulation for system-in-package (SiP) is a bottleneck in SiP design flow. This paper presents a novel numerical algorithm for PI simulation in packaging structures. This algorithm is based on 2D generalized transmission line equation (GTLE), finite difference frequency domain (FDFD) and mesh division technique. The power distribution network is simulated using mesh division technique where the model of power distribution network is obtained by regarding each cell as a 2D transmission line. 2D GTLE is a group partial equation about voltage and current density distribution on a power/ground plane pair. After reduction, the voltage equation for 2D GTLE is obtained, which is a Helmholtz equation. One method to solve the Helmholtz equation is by the finite-difference scheme. The 2D Laplace operator can be approximated to solve the voltage equation. In this paper, the fringe effect is modeled by the addition of cells around edges which is efficient and easy to implement. Finally, the methodology described in prior sections has been implemented in a CAD tool. The results from our method were compared to those from a full-wave simulator to show efficiency in power integrity simulation.
  • Keywords
    CAD; Helmholtz equations; Laplace equations; current density; finite difference methods; packaging; system-in-package; transmission line theory; 2D Laplace operator; 2D generalized transmission line equation; CAD tool; Helmholtz equation; current density distribution; finite difference frequency domain; fringe effect; full-wave simulator; group partial equation; mesh division technique; numerical algorithm; packaging structures; power distribution network; power integrity simulation; system-in-package; voltage equation; Difference equations; Distributed parameter circuits; Finite difference methods; Frequency domain analysis; Laplace equations; Maxwell equations; Packaging; Power transmission lines; Transmission line theory; Voltage;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Electronic Packaging Technology & High Density Packaging, 2009. ICEPT-HDP '09. International Conference on
  • Conference_Location
    Beijing
  • Print_ISBN
    978-1-4244-4658-2
  • Electronic_ISBN
    978-1-4244-4659-9
  • Type

    conf

  • DOI
    10.1109/ICEPT.2009.5270717
  • Filename
    5270717