Inclined Bar in a Rectangular Waveguide as a Position-Controllable Fano-Resonance Stop-Band Component

The resonance behavior of an inclined metallic wire, bar, or strip placed inside a rectangular waveguide is investigated. The structure acts as a stop-band component exhibiting asymmetric reflection and transmission spectra characteristic of Fano resonances. By varying the inclination angle of the conductor, the resonant frequency can be continuously tuned across nearly the entire single-mode frequency band of a rectangular waveguide. Numerical analysis is performed using the mode-matching technique combined with generalized scattering matrices and a stepped approximation for modeling the inclined element. The proposed configuration offers simplicity and robustness compared to previously studied designs of a wire with a step. Furthermore, inspired by plasma-based reflective elements, we propose replacing the metallic conductor with a plasma column, enabling dynamic electronic control of the resonance and reconfigurable filtering functionality.

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Publication Details

Published
2025-09-08
DOI
https://doi.org/10.1109/diped66951.2025.11194392
Primary Topic
Microwave Engineering and Waveguides
Type
article
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article

Inclined Bar in a Rectangular Waveguide as a Position-Controllable Fano-Resonance Stop-Band Component

D. Yu. Кulik, Sergey Ponomarenko, Sergiy Steshenko, А. A. Kirilenko et al.
Microwave Engineering and Waveguides
article

Inclined Bar in a Rectangular Waveguide as a Position-Controllable Fano-Resonance Stop-Band Component

D. Yu. Кulik, Sergey Ponomarenko, Sergiy Steshenko, А. A. Kirilenko, Eduard Khutoryan, Oleksiy Kuleshov
article en

Abstract

The resonance behavior of an inclined metallic wire, bar, or strip placed inside a rectangular waveguide is investigated. The structure acts as a stop-band component exhibiting asymmetric reflection and transmission spectra characteristic of Fano resonances. By varying the inclination angle of the conductor, the resonant frequency can be continuously tuned across nearly the entire single-mode frequency band of a rectangular waveguide. Numerical analysis is performed using the mode-matching technique combined with generalized scattering matrices and a stepped approximation for modeling the inclined element. The proposed configuration offers simplicity and robustness compared to previously studied designs of a wire with a step. Furthermore, inspired by plasma-based reflective elements, we propose replacing the metallic conductor with a plasma column, enabling dynamic electronic control of the resonance and reconfigurable filtering functionality.

Max Planck Institute for Plasma Physics - Greifswald (DE), O.Ya. Usikov Institute for Radiophysics and Electronics (UA)
Openalex Percentile: Top 71%
Microwave Engineering and Waveguides
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