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April 5, 2026Journal of Electromagnetic Engineering and Science0 citationsOpen Access

Millimeter-Wave Absorbers with Printed Resistive Metasurface on Polymeric Substrate

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JKJinbong KimHJHong-Kyu JangJOJaecheol Oh

Key Points

  • This research aims to create millimeter-wave absorbers to improve absorption performance for WiGig and 5G applications.
  • Designed absorbers for WiGig and 5G frequency bands
  • Fabricated metasurfaces using a screen-printing technique
  • Utilized carbon ink on polyimide film for printed patterns
  • Attached metasurfaces to polymer substrates and added copper film for grounding
  • Conducted performance verification using free-space measurement equipment.
  • Achieved absorption performance greater than -10 dB at normal incidence
  • Gained absorption performance of -8 dB at 45° oblique incidence
  • Confirmed the effectiveness of the design under various incidence angles.

Abstract

In this paper, millimeter-wave absorbers are proposed for the WiGig communication frequency band (55–68 GHz) and a part of the 5G FR2 frequency band (22–44 GHz). Both proposed absorbers are designed to exhibit absorption performances greater than -10 dB at normal incidence and -8 dB at 45° oblique incidence within the frequency bands of interest. The absorbers feature a laminated structure composed of metasurfaces and polymeric substrates. The metasurfaces are fabricated by printing a conventional square-loop periodic pattern on polyimide film with resistive carbon ink using a screen-printing technique. The square-loop pattern is designed by accounting for the effect of the circuit linewidth of the printed square-loop pattern on the effective sheet resistance of its constituent circuit line. The absorbers are fabricated by attaching the metasurface print onto a polymer substrate and using copper film as a ground to the bottom. The performance of the fabricated millimeter-wave absorbers was verified using free-space measurement equipment, with the results confirming the achievement of the required absorption performance under normal and oblique incidences.

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Cite This Study

Kim et al. (2026) studied this question.

synapsesocial.com/papers/69d1fdb0a79560c99a0a3ed5https://doi.org/10.26866/jees.2026.2.r.356
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