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April 27, 2026Microwave and Optical Technology Letters0 citations

Dual‐Band Low‐RCS Linear Polarized Array Based on II‐Shaped Polarization Conversion Metasurface

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MZMin ZhuJXJinghao XiaoLWLingling Wang

Key Points

  • This research aims to develop a dual-band metasurface that effectively reduces radar cross-section while enhancing antenna radiation performance.
  • Developed an II-shaped polarization conversion metasurface for radome applications, targeting specific frequency bands.
  • Achieved a polarization conversion ratio exceeding 90% across two bands: 5.4–7.92 GHz and 11.43–17.55 GHz.
  • Implemented a checkerboard configuration to induce a 180° reflection phase difference, suppressing co-polarized backward scattering.
  • Demonstrated significant reduction in the monostatic radar cross-section within the target frequency bands.
  • Achieved independent tunability for lower and higher frequency bands through unique design elements.
  • Results show effective manipulation of electromagnetic wave polarization, enhancing overall antenna performance.

Abstract

ABSTRACT This paper presents an II‐shaped polarization conversion metasurface (PCM) for radome applications, aiming to reduce the backward radar cross‐section (RCS) of antennas while enhancing their radiation performance. The proposed II‐shaped unit structure achieves a polarization conversion ratio (PCR) exceeding 90% across two independent frequency bands (5.4–7.92 GHz and 11.43–17.55 GHz), enabling effective manipulation of the polarization state of incident electromagnetic waves. The core innovation of the proposed design lies in its single‐layer structure enabling dual‐band polarization conversion, where the lower frequency band is primarily generated by the outer rectangular metal patch, while the higher frequency band is produced by the central I‐shaped metal strip, with independent tunability for each operating band. Furthermore, by arranging the PCM units in a checkerboard configuration, a 180° reflection phase difference between adjacent units is introduced, leading to significant suppression of co‐polarized backward scattering. Simulation results demonstrate considerable reduction in the monostatic RCS within the target frequency bands. This work provides a practical solution for the design of radomes that combine low observability with improved antenna performance.

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Cite This Study

Zhu et al. (2026) studied this question.

synapsesocial.com/papers/69eefdd1fede9185760d4a01https://doi.org/10.1002/mop.70598
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