研究目的
To develop a quasi-static surface-based partial element equivalent circuit (PEEC) model for electromagnetic problems involving coupled conductors and heterogeneous dielectrics of finite size, enabling efficient frequency and time-domain simulations.
研究成果
The proposed quasi-static S-PEEC model effectively reduces the complexity of modeling electromagnetic problems with conductors and dielectrics by eliminating insignificant circuit elements, enabling efficient simulations in both frequency and time domains with good agreement to commercial software results.
研究不足
The model's applicability is limited to problems where the quasi-static approximation is valid, and it may deviate from full-wave solutions at higher frequencies where radiation effects become significant.
1:Experimental Design and Method Selection
The methodology involves the development of a quasi-static S-PEEC model based on the surface equivalence principle, focusing on enforcing tangential null field conditions in null field regions to simplify integral equations under quasi-static assumptions.
2:Sample Selection and Data Sources
Numerical examples include a transmission line structure, an LTCC filter component, and a multilayer interconnection circuit to validate the model's accuracy and effectiveness.
3:List of Experimental Equipment and Materials
Not explicitly mentioned in the paper.
4:Experimental Procedures and Operational Workflow
The process includes discretizing surfaces using triangular meshes and RWG basis functions, applying modified node analysis for S-parameters, and comparing results with commercial software and traditional S-PEEC models.
5:Data Analysis Methods
Results are analyzed in both frequency and time domains, with comparisons made to HFSS and ADS Momentum simulations for validation.
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