EM and system-level modelling of phased antenna arrays for D-band antenna-in-package and antenna-on-package implementation at 150 GHz

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EM and system-level modelling of phased antenna arrays for D-band antenna-in-package and antenna-on-package implementation at 150 GHz
Title:
EM and system-level modelling of phased antenna arrays for D-band antenna-in-package and antenna-on-package implementation at 150 GHz
Journal Title:
2023 IEEE 25th Electronics Packaging Technology Conference (EPTC)
Keywords:
Publication Date:
18 March 2024
Citation:
Svimonishvili, T., & Rotaru, M. D. (2023, December 5). EM and system-level modelling of phased antenna arrays for D-band antenna-in-package and antenna-on-package implementation at 150 GHz. 2023 IEEE 25th Electronics Packaging Technology Conference (EPTC). https://doi.org/10.1109/eptc59621.2023.10457595
Abstract:
The demand for higher data throughput in wireless communication has led to exploration of the D-band (110-170 GHz) due to its potential for near-100 Gb/s data rates. High- gain antennas and beamforming transceivers are essential for overcoming challenges such as high propagation losses and low output power at these frequencies. Phased antenna arrays, particularly those based on compact patch antennas, show promise for 6G wireless technologies. However, comprehensive system-level modeling for large N-by-N arrays in this frequency range is lacking. This paper presents an innovative approach merging electromagnetic (EM) and system-level modeling to analyze N-by-N phased antenna arrays (3 :S N :S 20) at 150 GHz. The modeling process is detailed, encompassing the design of a 150 GHz patch antenna and array synthesis in HFSS, followed by system-level simulations in SystemVue. The impact of beam steering on directivity and beamwidth is explored, both with and without phase quantization. Additionally, the effect of antenna element failure on directivity is investigated for 5-by-5 and 16-by-16 arrays, highlighting the significance of array size in performance resilience. The power consumption implications of array size are discussed, emphasizing the benefits of larger arrays in achieving a given system gain with fewer amplifiers. Finally, sidelobe level reduction is explored using Taylor tapering, resulting in decreased directivity and increased beamwidth, with specific trade-offs analyzed for different array sizes and steering angles.
License type:
Publisher Copyright
Funding Info:
There was no specific funding for the research done
Description:
© 2024 IEEE.  Personal use of this material is permitted.  Permission from IEEE must be obtained for all other uses, in any current or future media, including reprinting/republishing this material for advertising or promotional purposes, creating new collective works, for resale or redistribution to servers or lists, or reuse of any copyrighted component of this work in other works.
ISSN:
979-8-3503-2957-5
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