Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission: Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission

Stefano Piersanti; Francesco de Paulis; Antonio Orlandi; Samuel R. Connor; Bruce Archambeault; Paul Dixon; Mohammad Ali Khorrami; James L. Drewniak

doi:10.1109/TEMC.2017.2674183

Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission: Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission

Stefano Piersanti
, Francesco de Paulis
, Antonio Orlandi
, Samuel R. Connor
, Bruce Archambeault
, Paul Dixon
, Mohammad Ali Khorrami
, James L. Drewniak

Research output: Contribution to journal › Article › peer-review

Abstract

This paper analyzes, in a quantitative way, the properties of the spatial distribution at the interface of the wave impedance as defined by Schelkunoff, in order to understand if and under which assumptions his transmission line theory for the evaluation of the shielding effectiveness can be used in the near-field region of a radiating electric dipole. The spatial distribution of the wave impedance and the reflection, and transmission coefficients are computed by the analytical formulation developed in Part I, and compared to those computed by an accurate 3-D full-wave model.

Original language	American English
Article number	7875480
Pages (from-to)	1203-1210
Number of pages	8
Journal	IEEE Transactions on Electromagnetic Compatibility
Volume	59
Issue number	4
DOIs	https://doi.org/10.1109/TEMC.2017.2674183
State	Published - Aug 1 2017

Keywords

Electric Lines
Shielding
Spatial Distribution
Analytical Formulation
Electric Dipole
Full Wave Modeling
Near Field Region
Shielding Effectiveness
Transmission Coefficients
Very Near Fields
Wave Impedances
Electromagnetic Shielding
Attenuation
Near Field
Reflection
Total Radiated Power
Transmission
Wave Impedance

Disciplines

Electrical and Computer Engineering

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https://doi.org/10.1109/TEMC.2017.2674183

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Piersanti, S., de Paulis, F., Orlandi, A., Connor, S. R., Archambeault, B., Dixon, P., Khorrami, M. A., & Drewniak, J. L. (2017). Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission: Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission. IEEE Transactions on Electromagnetic Compatibility, 59(4), 1203-1210. Article 7875480. https://doi.org/10.1109/TEMC.2017.2674183

Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission: Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission. / Piersanti, Stefano; de Paulis, Francesco; Orlandi, Antonio et al.
In: IEEE Transactions on Electromagnetic Compatibility, Vol. 59, No. 4, 7875480, 01.08.2017, p. 1203-1210.

Research output: Contribution to journal › Article › peer-review

Piersanti, S, de Paulis, F, Orlandi, A, Connor, SR, Archambeault, B, Dixon, P, Khorrami, MA & Drewniak, JL 2017, 'Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission: Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission', IEEE Transactions on Electromagnetic Compatibility, vol. 59, no. 4, 7875480, pp. 1203-1210. https://doi.org/10.1109/TEMC.2017.2674183

Piersanti S, de Paulis F, Orlandi A, Connor SR, Archambeault B, Dixon P et al. Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission: Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission. IEEE Transactions on Electromagnetic Compatibility. 2017 Aug 1;59(4):1203-1210. 7875480. doi: 10.1109/TEMC.2017.2674183

Piersanti, Stefano ; de Paulis, Francesco ; Orlandi, Antonio et al. / Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission : Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission. In: IEEE Transactions on Electromagnetic Compatibility. 2017 ; Vol. 59, No. 4. pp. 1203-1210.

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title = "Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission: Electric Dipole Equations in Very-Near-Field Conditions for Electromagnetic Shielding Assessment-Part II: Wave Impedance, Reflection, and Transmission",

abstract = " This paper analyzes, in a quantitative way, the properties of the spatial distribution at the interface of the wave impedance as defined by Schelkunoff, in order to understand if and under which assumptions his transmission line theory for the evaluation of the shielding effectiveness can be used in the near-field region of a radiating electric dipole. The spatial distribution of the wave impedance and the reflection, and transmission coefficients are computed by the analytical formulation developed in Part I, and compared to those computed by an accurate 3-D full-wave model.",

keywords = "Electric Lines, Shielding, Spatial Distribution, Analytical Formulation, Electric Dipole, Full Wave Modeling, Near Field Region, Shielding Effectiveness, Transmission Coefficients, Very Near Fields, Wave Impedances, Electromagnetic Shielding, Attenuation, Near Field, Reflection, Total Radiated Power, Transmission, Wave Impedance",

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