Refining Atmosphere Profiles for Aerial Target Detection Models

Atmospheric path radiance in the infrared is an extremely important quantity in calculating system performance in certain infrared detection systems. For infrared search and track (IRST) system performance calculations, the path radiance competes with the target for precious detector well electrons....

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Autores principales: Robert Grimming, Patrick Leslie, Derek Burrell, Gerald Holst, Brian Davis, Ronald Driggers
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Lenguaje:EN
Publicado: MDPI AG 2021
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Acceso en línea:https://doaj.org/article/7f0d5a84d36c476195e29b6e12bfee72
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spelling oai:doaj.org-article:7f0d5a84d36c476195e29b6e12bfee722021-11-11T19:05:36ZRefining Atmosphere Profiles for Aerial Target Detection Models10.3390/s212170671424-8220https://doaj.org/article/7f0d5a84d36c476195e29b6e12bfee722021-10-01T00:00:00Zhttps://www.mdpi.com/1424-8220/21/21/7067https://doaj.org/toc/1424-8220Atmospheric path radiance in the infrared is an extremely important quantity in calculating system performance in certain infrared detection systems. For infrared search and track (IRST) system performance calculations, the path radiance competes with the target for precious detector well electrons. In addition, the radiance differential between the target and the path radiance defines the signal level that must be detected. Long-range, high-performance, offensive IRST system design depends on accurate path radiance predictions. In addition, in new applications such as drone detection where a dim unresolved target is embedded into a path radiance background, sensor design and performance are highly dependent on atmospheric path radiance. Being able to predict the performance of these systems under particular weather conditions and locations has long been an important topic. MODTRAN has been a critical tool in the analysis of systems and prediction of electro-optical system performance. The authors have used MODTRAN over many years for an average system performance using the typical “pull-down” conditions in the software. This article considers the level of refinement required for a custom MODTRAN atmosphere profile to satisfactorily model an infrared camera’s performance for a specific geographic location, date, and time. The average difference between a measured sky brightness temperature and a MODTRAN predicted value is less than 0.5 °C with sufficient atmosphere profile updates. The agreement between experimental results and MODTRAN predictions indicates the effectiveness of including updated atmospheric composition, radiosonde, and air quality data from readily available Internet sources to generate custom atmosphere profiles.Robert GrimmingPatrick LeslieDerek BurrellGerald HolstBrian DavisRonald DriggersMDPI AGarticleinfrared detectionatmospheric radiationpath radiancesky temperaturesChemical technologyTP1-1185ENSensors, Vol 21, Iss 7067, p 7067 (2021)
institution DOAJ
collection DOAJ
language EN
topic infrared detection
atmospheric radiation
path radiance
sky temperatures
Chemical technology
TP1-1185
spellingShingle infrared detection
atmospheric radiation
path radiance
sky temperatures
Chemical technology
TP1-1185
Robert Grimming
Patrick Leslie
Derek Burrell
Gerald Holst
Brian Davis
Ronald Driggers
Refining Atmosphere Profiles for Aerial Target Detection Models
description Atmospheric path radiance in the infrared is an extremely important quantity in calculating system performance in certain infrared detection systems. For infrared search and track (IRST) system performance calculations, the path radiance competes with the target for precious detector well electrons. In addition, the radiance differential between the target and the path radiance defines the signal level that must be detected. Long-range, high-performance, offensive IRST system design depends on accurate path radiance predictions. In addition, in new applications such as drone detection where a dim unresolved target is embedded into a path radiance background, sensor design and performance are highly dependent on atmospheric path radiance. Being able to predict the performance of these systems under particular weather conditions and locations has long been an important topic. MODTRAN has been a critical tool in the analysis of systems and prediction of electro-optical system performance. The authors have used MODTRAN over many years for an average system performance using the typical “pull-down” conditions in the software. This article considers the level of refinement required for a custom MODTRAN atmosphere profile to satisfactorily model an infrared camera’s performance for a specific geographic location, date, and time. The average difference between a measured sky brightness temperature and a MODTRAN predicted value is less than 0.5 °C with sufficient atmosphere profile updates. The agreement between experimental results and MODTRAN predictions indicates the effectiveness of including updated atmospheric composition, radiosonde, and air quality data from readily available Internet sources to generate custom atmosphere profiles.
format article
author Robert Grimming
Patrick Leslie
Derek Burrell
Gerald Holst
Brian Davis
Ronald Driggers
author_facet Robert Grimming
Patrick Leslie
Derek Burrell
Gerald Holst
Brian Davis
Ronald Driggers
author_sort Robert Grimming
title Refining Atmosphere Profiles for Aerial Target Detection Models
title_short Refining Atmosphere Profiles for Aerial Target Detection Models
title_full Refining Atmosphere Profiles for Aerial Target Detection Models
title_fullStr Refining Atmosphere Profiles for Aerial Target Detection Models
title_full_unstemmed Refining Atmosphere Profiles for Aerial Target Detection Models
title_sort refining atmosphere profiles for aerial target detection models
publisher MDPI AG
publishDate 2021
url https://doaj.org/article/7f0d5a84d36c476195e29b6e12bfee72
work_keys_str_mv AT robertgrimming refiningatmosphereprofilesforaerialtargetdetectionmodels
AT patrickleslie refiningatmosphereprofilesforaerialtargetdetectionmodels
AT derekburrell refiningatmosphereprofilesforaerialtargetdetectionmodels
AT geraldholst refiningatmosphereprofilesforaerialtargetdetectionmodels
AT briandavis refiningatmosphereprofilesforaerialtargetdetectionmodels
AT ronalddriggers refiningatmosphereprofilesforaerialtargetdetectionmodels
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