Journal: IEEE Transactions on Electromagnetic Compatibility
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Abbreviation
IEEE trans. electromagn. compat.
Publisher
IEEE
35 results
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Publications 1 - 10 of 35
- Rigorous dc Solution of Partial Element Equivalent Circuit Models Including Conductive, Dielectric, and Magnetic MaterialsItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilityRomano, Daniele; Kovacevic-Badstuebner, Ivana; Parise, Mauro; et al. (2020) - The Effect of Diode Response of Electromagnetic Field Probes for the Measurements of Complex SignalsItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilityNadakuduti, J.; Kuhn, S.; Fehr, M.; et al. (2012) - Dependence of the Occupational Exposure to Mobile Phone Base Stations on the Properties of the Antenna and the Human BodyItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilityGosselin, Marie-Christine; Christ, Andreas; Kühn, Sven; et al. (2009) - Total Field Reconstruction in the Near Field Using Pseudo-VectorE-Field MeasurementsItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilityPfeifer, Serge; Carrasco, Eduardo; Crespo-Valero, Pedro; et al. (2019) - Estimation Formulas for the Specific Absorption Rate in Humans Exposed to Base Station AntennasItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilityGosselin, Marie-Christine; Vermeeren, G.; Kuehn, S.; et al. (2011) - An algorithm for the exact evaluation of the underground lightning electromagnetic fieldsItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilityDelfino, Federico; Procopio, Renato; Rossi, Mansueto; et al. (2007) - Efficient PEEC Iterative Solver for Power Electronic ApplicationsItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilityRomano, Daniele; Kovacevic-Badstuebner, Ivana; Antonini, Giulio; et al. (2023)A new formulation of the partial element equivalent circuit (PEEC) is proposed that is well suited to be used along with fast Fourier transform (FFT)-based acceleration techniques. FFT-based techniques are used in conjunction with iterative solvers to accelerate matrix-vector products. Despite the significant memory saving and computational time reduction, these techniques may suffer at high frequencies due to the fine voxelization that they require. In this work, a new surface impedance-based formulation is presented and a novel preconditioner is proposed. Both contributions allow the frequency range of applicability of the FFT-accelerated PEEC method to be extended up to the gigahertz range. The accuracy and efficiency of the proposed solver are demonstrated by applying the proposed modeling strategy to a toy-problem and real-world structures comprising a printed circuit board and a transistor package, involving millions of unknowns. - An International Interlaboratory Comparison of Mobile Phone SAR Calculation with CAD-Based ModelsItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilitySiegbahn, Martin; Bit-Babik, Giorgi; Keshvari, Jafar; et al. (2010) - Human Exposure to Close-Range Resonant Wireless Power Transfer Systems as a Function of Design ParametersItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilityChen, Xi Lin; Umenei, Aghuinyue E.; Baarman, David W.; et al. (2014) - Optimized Analytical Computation of Partial Elements Using a Retarded Taylor Series ExpansionItem type: Journal Article
IEEE Transactions on Electromagnetic CompatibilityRomano, Daniele; Kovacevic-Badstuebner, Ivana; Grossner, Ulrike; et al. (2023)The aim of this article is to efficiently and accurately calculate the integrals of the full-wave (FW) partial element equivalent circuit (PEEC) method. The accuracy of the analytical formulas calculated by the standard precision can be compromised when using nonuniform mesh to properly model the high-frequency effects. The numerical errors can be avoided by using a high-precision arithmetic, i.e., higher number of digits, however, at the expense of significantly higher computation time. This article presents an analytical approach for calculating the FW-PEEC interaction integrals of two elementary volumes/surfaces based on the Taylor expansion, which allows a high computational speed preserving the accuracy with a relative error of less than 0.1%. The proposed solution is verified compared to the high-precision arithmetic and the standard Gaussian integration for two examples of strip lines. Moreover, it is shown that the accuracy of FW-PEEC integrals can affect the convergence of an iterative PEEC matrix solver.
Publications 1 - 10 of 35