Repository logo
Log in(current)
Repository logoMIT Open ScholarshipDSpace@MIT
  1. Home
  2. Singapore-MIT Alliance (SMA)
  3. High Performance Computation for Engineered Systems (HPCES)
  4. Partitioned Conduction Modes in Surface Integral Equation-Based Impedance Extraction

Partitioned Conduction Modes in Surface Integral Equation-Based Impedance Extraction

Thumbnail Image
Download
Name

HPCES023.pdf

Size

11.71 KB

Format

Adobe PDF

Checksum (MD5)

9326a1dfe27b0f93d21a012ea8d5f4cf

Author(s)
Hu, Xin
•
Daniel, Luca
•
White, Jacob K.
Date Issued
January 2004
Series/Report no.
High Performance Computation for Engineered Systems (HPCES);
Abstract
As integrated circuits operate at increasingly higher speed, methods are needed to handle wideband quasi-static and full wave EM analysis of distributed RLC impedances for package and on-chip interconnects. One particular solver that is capable of this type of analysis is a surface-based integral solver called FastImp. This talk will present a method that addresses many issues currently plaguing FastImp. A significant shortcoming of FastImp is its lack of a single uniform approach to model contact current over a wide range of frequencies. In addition, FastImp's handling of contact current at high frequencies cannot optimally and efficiently capture skin effects and proximity effects while its handling of contact current at low frequencies lacks accuracy due to its use of a centroid-collocation scheme. The method discussed in this talk addresses the above difficulties by offering a unified mean of computing contact current over a wide range of frequencies. It will be shown that the electric field on the conductor contact surfaces can be modeled accurately and efficiently by only a few “partitioned” surface-based conduction modes as basis functions. The electric field on the non-contact surface of the conductor is modeled by a set of standard piecewise constant basis functions. The conduction mode basis functions, used in a Galerkin technique, and the piecewise constant basis functions, used in a collocation scheme, are utilized for the discretization of the integral formulation in FastImp. Examples will demonstrate the improvements on accuracy, efficiency and consistency of our method.
Subjects
distributed RLC impedances
FastImp
wideband quasi-static analysis
full wave EM analysis
Persistent DSpace Link
http://hdl.handle.net/1721.1/3888
Repository logo
PrivacyPermissionsAccessibilityContact us
Repository logo
Notify us about copyright concerns.