Enhanced skin effect for partial-element equivalent-circuit (PEEC) models
K.M. Coperich, A.E. Ruehli, Andreas C. Cangellaris
Abstract
K.M. Coperich, A.E. Ruehli, Andreas C. Cangellaris
Abstract
In this paper, a skin-effect modeling approach is presented that is suitable for all frequency regimes of interest and therefore is most appropriate for transient interconnect analysis. Yet, the new formulation lends itself to a model that can be abstracted for use in conjunction with surface integral and finite difference-based electromagnetic tools for interconnect modeling. While a volume filament technique is not computationally feasible at high frequencies, where a fine discretization is necessary, the formulation that is presented avoids this difficulty by carefully casting the behavior of a conductor into the form of a global surface impedance, thus requiring fewer unknowns. Several examples illustrating the ability of the proposed model to accurately capture proximity and skin-effect behaviors will be shown, Interconnect resistance and inductance per-unit-length results are given and compared with those obtained using different models.
OpenAlex reports 131 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
In this paper, a skin-effect modeling approach is presented that is suitable for all frequency regimes of interest and therefore is most appropriate for transient interconnect analysis. Yet, the new formulation lends itself to a model that can be abstracted for use in conjunction with surface integral and finite difference-based electromagnetic tools for interconnect modeling. While a volume filament technique is not computationally feasible at high frequencies, where a fine discretization is necessary, the formulation that is presented avoids this difficulty by carefully casting the behavior of a conductor into the form of a global surface impedance, thus requiring fewer unknowns. Several examples illustrating the ability of the proposed model to accurately capture proximity and skin-effect behaviors will be shown, Interconnect resistance and inductance per-unit-length results are given and compared with those obtained using different models.
Key concepts: Partial element equivalent circuit, Skin effect, Conductor, Electronic engineering, Inductance, Transient (computer programming), Electrical impedance, Equivalent circuit