Single-Feed Multi-Beam W-Band Reflectarray for Ultra-Capacity Fixed Wireless Access

A quad-beam reflectarray fed by a single feed horn is designed in W-band at 105 GHz. The feed horn is designed with the goal of being manufactured in a single metallic piece by a CNC milling process. The reflectarray is circular with a periodicity of 0.857 mm and comprised of 15 380 rectangular patches in a single layer of metallization. The four beams are realized by means of the superposition principle and positioned in a great circle corresponding to (, ) = (30°, 0°). The reflectarray is simulated in HFSS modelling each element as a copper patch with a gold coating to avoid corrosion. Simulations show that more than 30 dBi of gain per beam and a gain variation of 1.1 dB are achieved in the frequency range 103 GHz–109 GHz, making suitable for future 6G ultra-capacity fixed wireless access enabled by travelling wave tubes.

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Publication Details

Journal
Lancaster EPrints (Lancaster University)
Published
2024-12-12
Primary Topic
Machine Learning in Bioinformatics
Type
article
Field-Weighted Citation Impact
0.00

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article

Single-Feed Multi-Beam W-Band Reflectarray for Ultra-Capacity Fixed Wireless Access

Lancaster EPrints (Lancaster University)
Machine Learning in Bioinformatics
article

Single-Feed Multi-Beam W-Band Reflectarray for Ultra-Capacity Fixed Wireless Access

article en

Abstract

A quad-beam reflectarray fed by a single feed horn is designed in W-band at 105 GHz. The feed horn is designed with the goal of being manufactured in a single metallic piece by a CNC milling process. The reflectarray is circular with a periodicity of 0.857 mm and comprised of 15 380 rectangular patches in a single layer of metallization. The four beams are realized by means of the superposition principle and positioned in a great circle corresponding to (, ) = (30°, 0°). The reflectarray is simulated in HFSS modelling each element as a copper patch with a gold coating to avoid corrosion. Simulations show that more than 30 dBi of gain per beam and a gain variation of 1.1 dB are achieved in the frequency range 103 GHz–109 GHz, making suitable for future 6G ultra-capacity fixed wireless access enabled by travelling wave tubes.

Lancaster EPrints (Lancaster University)
Lancaster University (GB)
Samsung Biomedical Research Institute, Engineering and Physical Sciences Research Council
Affordable and clean energy
Openalex Percentile: Top 49%
Machine Learning in Bioinformatics
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