The shielding performance of planar conductive nanoscreens against transient sources are studied in detail by means of an approximate semi-analytical formulation based on a Cagniard-De Hoop approach. In the presence of a pulsed electric-line source, such a formulation allows for easily deriving the transient fields as a single convolution integral. Several definitions of time-domain shielding effectiveness, recently introduced in the literature, can thus be discussed and compared with the conventional time-harmonic shielding effectiveness. Comparisons with results obtained numerically through an exact canonical double inverse Fourier transform are also provided, showing the accuracy of the proposed semi-analytical formulation for screens with nanometric thickness.
The shielding performance of planar conductive nanoscreens against transient sources are studied in detail by means of an approximate semi-analytical formulation based on a Cagniard-De Hoop approach. In the presence of a pulsed electricline source, such a formulation allows for easily deriving the transient fields as a single convolution integral. Several definitions of time-domain shielding effectiveness, recently introduced in the literature, can thus be discussed and compared with the conventional time-harmonic shielding effectiveness. Comparisons with results obtained numerically through an exact canonical double inverse Fourier transform are also provided, showing the accuracy of the proposed semi-analytical formulation for screens with nanometric thickness.
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Titolo: | Time-Domain Shielding Effectiveness of Planar Conductive Nanoscreens |
Autori: | |
Data di pubblicazione: | 2014 |
Handle: | http://hdl.handle.net/11573/626041 |
Appartiene alla tipologia: | 04b Atto di convegno in volume |