Sense and Avoid Airborne Radar Implementations on a Low-Cost Weather Radar Platform
Traditionally, multi-mission applications in airborne radar are implemented through very expensive phased array architectures. The emerging applications from civilian surveillance, on the other hand, prefer low-cost and low-SWaP (space, weight and power) systems. This study introduces asoftware-base...
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doaj-b5422b8846d54a41b12de0915ea9120d2020-11-24T21:37:18ZengMDPI AGAerospace2226-43102017-03-01411110.3390/aerospace4010011aerospace4010011Sense and Avoid Airborne Radar Implementations on a Low-Cost Weather Radar PlatformRamesh Nepal0Yan Zhang1William Blake2Intelligent Aerospace Radar Team (IART), School of Electrical and Computer Engineering, Advanced Radar Research Center (ARRC), University of Oklahoma, Norman, OK 73019-0390, USAIntelligent Aerospace Radar Team (IART), School of Electrical and Computer Engineering, Advanced Radar Research Center (ARRC), University of Oklahoma, Norman, OK 73019-0390, USAGarmin Aviation Weather Radar, Garmin International Inc., Olathe, KS 66062-3426, USATraditionally, multi-mission applications in airborne radar are implemented through very expensive phased array architectures. The emerging applications from civilian surveillance, on the other hand, prefer low-cost and low-SWaP (space, weight and power) systems. This study introduces asoftware-basedsolutionthatintendstouselow-costhardwareandadvancedalgorithms/processing backend to meet the remote sensing goals for multi-mission applications. The low-cost airborne radar platform from Garmin International is used as a representative example of the system platform. The focus of this study is the optimal operating mode, data quality and algorithm development in cases of all-weather sense and avoid (SAA) applications. The main challenges for the solution are the resolution limitation due to the small aperture size, limitations from the field-of-view (FOV) and the scan speed from mechanical scanning. We show that the basic operational needs can be satisfied with software processing through various algorithms. The concept and progress of polarimetric airborne radar for dual-function operations at X-band Generation 1 (PARADOX1) based on the platform are also discussed.http://www.mdpi.com/2226-4310/4/1/11multi-missionairborne radariterative adaptive approachadaptive pulse compressionmatched filter |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Ramesh Nepal Yan Zhang William Blake |
spellingShingle |
Ramesh Nepal Yan Zhang William Blake Sense and Avoid Airborne Radar Implementations on a Low-Cost Weather Radar Platform Aerospace multi-mission airborne radar iterative adaptive approach adaptive pulse compression matched filter |
author_facet |
Ramesh Nepal Yan Zhang William Blake |
author_sort |
Ramesh Nepal |
title |
Sense and Avoid Airborne Radar Implementations on a Low-Cost Weather Radar Platform |
title_short |
Sense and Avoid Airborne Radar Implementations on a Low-Cost Weather Radar Platform |
title_full |
Sense and Avoid Airborne Radar Implementations on a Low-Cost Weather Radar Platform |
title_fullStr |
Sense and Avoid Airborne Radar Implementations on a Low-Cost Weather Radar Platform |
title_full_unstemmed |
Sense and Avoid Airborne Radar Implementations on a Low-Cost Weather Radar Platform |
title_sort |
sense and avoid airborne radar implementations on a low-cost weather radar platform |
publisher |
MDPI AG |
series |
Aerospace |
issn |
2226-4310 |
publishDate |
2017-03-01 |
description |
Traditionally, multi-mission applications in airborne radar are implemented through very expensive phased array architectures. The emerging applications from civilian surveillance, on the other hand, prefer low-cost and low-SWaP (space, weight and power) systems. This study introduces asoftware-basedsolutionthatintendstouselow-costhardwareandadvancedalgorithms/processing backend to meet the remote sensing goals for multi-mission applications. The low-cost airborne radar platform from Garmin International is used as a representative example of the system platform. The focus of this study is the optimal operating mode, data quality and algorithm development in cases of all-weather sense and avoid (SAA) applications. The main challenges for the solution are the resolution limitation due to the small aperture size, limitations from the field-of-view (FOV) and the scan speed from mechanical scanning. We show that the basic operational needs can be satisfied with software processing through various algorithms. The concept and progress of polarimetric airborne radar for dual-function operations at X-band Generation 1 (PARADOX1) based on the platform are also discussed. |
topic |
multi-mission airborne radar iterative adaptive approach adaptive pulse compression matched filter |
url |
http://www.mdpi.com/2226-4310/4/1/11 |
work_keys_str_mv |
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