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Dual-Band Patch Antenna Matching Network Comprised of Separated Ground Layers and via Posts for Adjustable Return Current Path

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This paper proposes a dual-band antenna matching network concept for millimeter-wave mobile devices. The method is deduced through an introduction of an additional matching network consisting of inductive distributed elements… Click to show full abstract

This paper proposes a dual-band antenna matching network concept for millimeter-wave mobile devices. The method is deduced through an introduction of an additional matching network consisting of inductive distributed elements to formulate adjustable return current paths. No modification of the antenna radiating element is required. This new class of matching network enables independent adjustment of the resonance frequencies while maintaining nearly-identical radiation patterns at both frequencies. For experimental verifications, the proposed antenna impedance matching network is fabricated using a low-temperature co-fired ceramic process. The measurement of this single element exhibits dual-band operations at 28.0 GHz and 39.0 GHz, obtaining the realized gain of 5.15 dBi and 5.42 dBi, respectively. In addition, a reconfigurable beamforming is demonstrated at 28.0 GHz, in which the peak measured gain is 10.83 dBi. At the second resonance frequency (39.0 GHz), a passive feeding network is employed to evaluation its beam scanning abilities, and the main beam peak realized gain of 10.40 dBi is ascertained. This result can be extended to any other frequencies while maintaining near-identical far-field characteristics.

Keywords: matching network; network; antenna matching; dual band; adjustable return

Journal Title: IEEE Access
Year Published: 2022

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