2.5D Frequency Selective Surface for Polarization‐Insensitive Cross‐Polarization Conversion

ABSTRACT A 2.5D frequency selective surface with parallel double wires (FSSPDWs) is proposed for polarization‐insensitive cross‐polarization conversion. The unit cell of FSSPDWs consists of four identical resonant ring‐via‐resonant ring (RVR) modules. Each RVR module is composed of a shielded floor and a receiving resonance ring connected with a radiation resonance ring via parallel double wires and through‐hole structure. Parallel double wires with through‐hole structure function as vias. These vias transform the polarization converter into a 2.5D structure, generating multi‐resonant frequencies to achieve a wide bandwidth. To ensure insensitivity for arbitrary polarization, the unit cell of the FSSPDWs employs four rotationally symmetrical RVR modules. Simulated results demonstrate a cross‐polarization transmission coefficient exceeding −1dB in a wide band from 9.65 to 12.86 GHz (28%), with a polarization conversion rate (PCR) of more than 95% and an energy conversion rate (ECR) of greater than 93.5%. Additionally, the proposed FSSPDWs convert linear polarization to cross‐polarization at arbitrary polarized angles. The converter is manufactured and measured to validate simulations, showing good agreements between the simulated and measured results.

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Publication Details

Journal
Microwave and Optical Technology Letters
Published
2025-08-01
DOI
https://doi.org/10.1002/mop.70349
Primary Topic
Advanced Antenna and Metasurface Technologies
Type
article
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article

2.5D Frequency Selective Surface for Polarization‐Insensitive Cross‐Polarization Conversion

Yuhang Yang, Hailong Yang, Youbiao Zhang, Xuping Li et al.
1 links
Microwave and Optical Technology Letters
Advanced Antenna and Metasurface Technologies
article

2.5D Frequency Selective Surface for Polarization‐Insensitive Cross‐Polarization Conversion

Yuhang Yang, Hailong Yang, Youbiao Zhang, Xuping Li, Hua Lu, Xueyan Song
article en

Abstract

ABSTRACT A 2.5D frequency selective surface with parallel double wires (FSSPDWs) is proposed for polarization‐insensitive cross‐polarization conversion. The unit cell of FSSPDWs consists of four identical resonant ring‐via‐resonant ring (RVR) modules. Each RVR module is composed of a shielded floor and a receiving resonance ring connected with a radiation resonance ring via parallel double wires and through‐hole structure. Parallel double wires with through‐hole structure function as vias. These vias transform the polarization converter into a 2.5D structure, generating multi‐resonant frequencies to achieve a wide bandwidth. To ensure insensitivity for arbitrary polarization, the unit cell of the FSSPDWs employs four rotationally symmetrical RVR modules. Simulated results demonstrate a cross‐polarization transmission coefficient exceeding −1dB in a wide band from 9.65 to 12.86 GHz (28%), with a polarization conversion rate (PCR) of more than 95% and an energy conversion rate (ECR) of greater than 93.5%. Additionally, the proposed FSSPDWs convert linear polarization to cross‐polarization at arbitrary polarized angles. The converter is manufactured and measured to validate simulations, showing good agreements between the simulated and measured results.

Microwave and Optical Technology LettersVol. 67(8)
Xi’an University of Posts and Telecommunications (CN)
Affordable and clean energy
Openalex Percentile: Top 71%
Advanced Antenna and Metasurface Technologies
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