Rectangular Phased Array Scanning Loss Error When the Active Element Patterns are Calibrated at Boresight or Approximated by a Unit-cell

Designing phased arrays is simplified by assuming the elements have a common pattern, often the infinite array unitcell or average active element pattern. A similar approach can simplify the phased array calibration, where all the variations between the RF front-end electronics are calibrated out using a single beam direction and the element patterns are assumed to be identical. This paper presents the error in the steered realized gain for a rectangular patch phased array when the active element patterns are approximated using an infinite array unit-cell pattern. The impacts on the realized gain from using a simple boresight gain and phase calibration are also presented. All results are derived from simulation.

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Published
2024-12-01
DOI
https://doi.org/10.1109/lacap63752.2024.10876332
Primary Topic
Antenna Design and Optimization
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article
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article

Rectangular Phased Array Scanning Loss Error When the Active Element Patterns are Calibrated at Boresight or Approximated by a Unit-cell

Christopher G. Hynes, Rodney G. Vaughan
Antenna Design and Optimization
article

Rectangular Phased Array Scanning Loss Error When the Active Element Patterns are Calibrated at Boresight or Approximated by a Unit-cell

Christopher G. Hynes, Rodney G. Vaughan
article en

Abstract

Designing phased arrays is simplified by assuming the elements have a common pattern, often the infinite array unitcell or average active element pattern. A similar approach can simplify the phased array calibration, where all the variations between the RF front-end electronics are calibrated out using a single beam direction and the element patterns are assumed to be identical. This paper presents the error in the steered realized gain for a rectangular patch phased array when the active element patterns are approximated using an infinite array unit-cell pattern. The impacts on the realized gain from using a simple boresight gain and phase calibration are also presented. All results are derived from simulation.

Simon Fraser University (CA)
Openalex Percentile: Top 55%
Antenna Design and Optimization
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