Enhanced Gain Extrapolation Technique: A Third-Order Scattering Approach for High-Accuracy Antenna Gain With Sparse Sampling, at Fresnel Distances

In this paper we describe an enhanced three-antenna gain extrapolation technique that allows one to determine antenna gain with significantly fewer data points and at closer distances than with the well-established traditional three-antenna gain extrapolation technique that has been in use for over five decades. As opposed to the traditional gain extrapolation technique, where high-order scattering is purposely ignored so as to isolate only the direct antenna-to-antenna coupling, we show that by incorporating third-order scattering the enhanced gain extrapolation technique can be obtained. The theoretical foundation using third-order scattering is developed and experimental results are presented comparing the enhanced technique and traditional technique for two sets of internationally recognized NIST reference standard gain horn antennas at X-band and Ku-band. We show that with the enhanced technique, gain values for these antennas are readily obtained to within stated uncertainties of ±0.07 dB using as few as 10 data points per antenna pair, as opposed to ≈ 4000 -to- 8000 data points per antenna pair that is needed with the traditional technique. Furthermore, with the described enhanced technique, antenna-to-antenna distances can be reduced by a factor of three, and up to a factor of six in some cases, compared to the traditional technique - a significant reduction in the overall size requirement of facilities used to perform gain extrapolation measurements.

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Publication Details

Journal
IEEE Transactions on Antennas and Propagation
Published
2024-10-17
DOI
https://doi.org/10.1109/tap.2024.3478330
Citations
1
Primary Topic
Electromagnetic Compatibility and Measurements
Type
article
Field-Weighted Citation Impact
0.21
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article

Enhanced Gain Extrapolation Technique: A Third-Order Scattering Approach for High-Accuracy Antenna Gain With Sparse Sampling, at Fresnel Distances

Benjamin L. Moser, Joshua A. Gordon
1 citations
IEEE Transactions on Antennas and Propagation
Electromagnetic Compatibility and Measurements
0.21
article

Enhanced Gain Extrapolation Technique: A Third-Order Scattering Approach for High-Accuracy Antenna Gain With Sparse Sampling, at Fresnel Distances

Benjamin L. Moser, Joshua A. Gordon
article en
1 citations

Abstract

In this paper we describe an enhanced three-antenna gain extrapolation technique that allows one to determine antenna gain with significantly fewer data points and at closer distances than with the well-established traditional three-antenna gain extrapolation technique that has been in use for over five decades. As opposed to the traditional gain extrapolation technique, where high-order scattering is purposely ignored so as to isolate only the direct antenna-to-antenna coupling, we show that by incorporating third-order scattering the enhanced gain extrapolation technique can be obtained. The theoretical foundation using third-order scattering is developed and experimental results are presented comparing the enhanced technique and traditional technique for two sets of internationally recognized NIST reference standard gain horn antennas at X-band and Ku-band. We show that with the enhanced technique, gain values for these antennas are readily obtained to within stated uncertainties of ±0.07 dB using as few as 10 data points per antenna pair, as opposed to ≈ 4000 -to- 8000 data points per antenna pair that is needed with the traditional technique. Furthermore, with the described enhanced technique, antenna-to-antenna distances can be reduced by a factor of three, and up to a factor of six in some cases, compared to the traditional technique - a significant reduction in the overall size requirement of facilities used to perform gain extrapolation measurements.

IEEE Transactions on Antennas and PropagationVol. 72(12)
National Institute of Standards and Technology (US)
Affordable and clean energy
Openalex Percentile: Top 47%
Electromagnetic Compatibility and Measurements
0.21
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