THE TROPICAL AIR–SEA PROPAGATION STUDY (TAPS)

The purpose of the Tropical Air–Sea Propagation Study (TAPS), which was conducted during November–December 2013, was to gather coordinated atmospheric and radio frequency (RF) data, offshore of northeastern Australia, in order to address the question of how well radio wave propagation can be predict...

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Veröffentlicht in:Bulletin of the American Meteorological Society 2017-03, Vol.98 (3), p.517-538
Hauptverfasser: Kulessa, A. S., Barrios, A., Claverie, J., Garrett, S., Haackck, T., Hackcker, J. M., Hansen, H. J., Horgan, K., Hurtaud, Y., Lemon, C., Marshall, R., McGregor, J., McMillan, M., Périard, C., Pourret, V., Price, J., Rogers, L. T., Short, C., Veasey, M., Wiss, V. R.
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container_end_page 538
container_issue 3
container_start_page 517
container_title Bulletin of the American Meteorological Society
container_volume 98
creator Kulessa, A. S.
Barrios, A.
Claverie, J.
Garrett, S.
Haackck, T.
Hackcker, J. M.
Hansen, H. J.
Horgan, K.
Hurtaud, Y.
Lemon, C.
Marshall, R.
McGregor, J.
McMillan, M.
Périard, C.
Pourret, V.
Price, J.
Rogers, L. T.
Short, C.
Veasey, M.
Wiss, V. R.
description The purpose of the Tropical Air–Sea Propagation Study (TAPS), which was conducted during November–December 2013, was to gather coordinated atmospheric and radio frequency (RF) data, offshore of northeastern Australia, in order to address the question of how well radio wave propagation can be predicted in a clear-air, tropical, littoral maritime environment. Spatiotemporal variations in vertical gradients of the conserved thermodynamic variables found in surface layers, mixing layers, and entrainment layers have the potential to bend or refract RF energy in directions that can either enhance or limit the intended function of an RF system. TAPS facilitated the collaboration of scientists and technologists from the United Kingdom, the United States, France, New Zealand, and Australia, bringing together expertise in boundary layer meteorology, mesoscale numerical weather prediction (NWP), and RF propagation. The focus of the study was on investigating for the first time in a tropical, littoral environment the i) refractivity structure in the marine and coastal inland boundary layers; ii) the spatial and temporal behavior of momentum, heat, and moisture fluxes; and iii) the ability of propagation models seeded with refractive index functions derived from blended NWP and surface-layer models to predict the propagation of radio wave signals of ultrahigh frequency (UHF; 300 MHz–3 GHz), super-high frequency (SHF; 3–30 GHz), and extremely high frequency (EHF; 30–300 GHz). Coordinated atmospheric and RF measurements were made using a small research aircraft, slow-ascent radiosondes, lidar, flux towers, a kitesonde, and land-based transmitters. The use of a ship as an RF-receiving platform facilitated variable-range RF links extending to distances of 80 km from the mainland. Four high-resolution NWP forecasting systems were employed to characterize environmental variability. This paper provides an overview of the TAPS experimental design and field campaign, including a description of the unique data that were collected, preliminary findings, and the envisaged interpretation of the results.
doi_str_mv 10.1175/BAMS-D-14-00284.1
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S. ; Barrios, A. ; Claverie, J. ; Garrett, S. ; Haackck, T. ; Hackcker, J. M. ; Hansen, H. J. ; Horgan, K. ; Hurtaud, Y. ; Lemon, C. ; Marshall, R. ; McGregor, J. ; McMillan, M. ; Périard, C. ; Pourret, V. ; Price, J. ; Rogers, L. T. ; Short, C. ; Veasey, M. ; Wiss, V. R.</creator><creatorcontrib>Kulessa, A. S. ; Barrios, A. ; Claverie, J. ; Garrett, S. ; Haackck, T. ; Hackcker, J. M. ; Hansen, H. J. ; Horgan, K. ; Hurtaud, Y. ; Lemon, C. ; Marshall, R. ; McGregor, J. ; McMillan, M. ; Périard, C. ; Pourret, V. ; Price, J. ; Rogers, L. T. ; Short, C. ; Veasey, M. ; Wiss, V. R.</creatorcontrib><description>The purpose of the Tropical Air–Sea Propagation Study (TAPS), which was conducted during November–December 2013, was to gather coordinated atmospheric and radio frequency (RF) data, offshore of northeastern Australia, in order to address the question of how well radio wave propagation can be predicted in a clear-air, tropical, littoral maritime environment. Spatiotemporal variations in vertical gradients of the conserved thermodynamic variables found in surface layers, mixing layers, and entrainment layers have the potential to bend or refract RF energy in directions that can either enhance or limit the intended function of an RF system. TAPS facilitated the collaboration of scientists and technologists from the United Kingdom, the United States, France, New Zealand, and Australia, bringing together expertise in boundary layer meteorology, mesoscale numerical weather prediction (NWP), and RF propagation. The focus of the study was on investigating for the first time in a tropical, littoral environment the i) refractivity structure in the marine and coastal inland boundary layers; ii) the spatial and temporal behavior of momentum, heat, and moisture fluxes; and iii) the ability of propagation models seeded with refractive index functions derived from blended NWP and surface-layer models to predict the propagation of radio wave signals of ultrahigh frequency (UHF; 300 MHz–3 GHz), super-high frequency (SHF; 3–30 GHz), and extremely high frequency (EHF; 30–300 GHz). Coordinated atmospheric and RF measurements were made using a small research aircraft, slow-ascent radiosondes, lidar, flux towers, a kitesonde, and land-based transmitters. The use of a ship as an RF-receiving platform facilitated variable-range RF links extending to distances of 80 km from the mainland. Four high-resolution NWP forecasting systems were employed to characterize environmental variability. 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R.</creatorcontrib><title>THE TROPICAL AIR–SEA PROPAGATION STUDY (TAPS)</title><title>Bulletin of the American Meteorological Society</title><description>The purpose of the Tropical Air–Sea Propagation Study (TAPS), which was conducted during November–December 2013, was to gather coordinated atmospheric and radio frequency (RF) data, offshore of northeastern Australia, in order to address the question of how well radio wave propagation can be predicted in a clear-air, tropical, littoral maritime environment. Spatiotemporal variations in vertical gradients of the conserved thermodynamic variables found in surface layers, mixing layers, and entrainment layers have the potential to bend or refract RF energy in directions that can either enhance or limit the intended function of an RF system. TAPS facilitated the collaboration of scientists and technologists from the United Kingdom, the United States, France, New Zealand, and Australia, bringing together expertise in boundary layer meteorology, mesoscale numerical weather prediction (NWP), and RF propagation. The focus of the study was on investigating for the first time in a tropical, littoral environment the i) refractivity structure in the marine and coastal inland boundary layers; ii) the spatial and temporal behavior of momentum, heat, and moisture fluxes; and iii) the ability of propagation models seeded with refractive index functions derived from blended NWP and surface-layer models to predict the propagation of radio wave signals of ultrahigh frequency (UHF; 300 MHz–3 GHz), super-high frequency (SHF; 3–30 GHz), and extremely high frequency (EHF; 30–300 GHz). Coordinated atmospheric and RF measurements were made using a small research aircraft, slow-ascent radiosondes, lidar, flux towers, a kitesonde, and land-based transmitters. The use of a ship as an RF-receiving platform facilitated variable-range RF links extending to distances of 80 km from the mainland. Four high-resolution NWP forecasting systems were employed to characterize environmental variability. 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source Jstor Complete Legacy; American Meteorological Society; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals
subjects Air
Aircraft
Aircraft components
Ascent
Atmospheric models
Boundary layer meteorology
Boundary layers
Climatology
Coastal environments
Electronic warfare
Energy
Engineering Sciences
Entrainment
Environmental Sciences
Experimental design
Extremely high frequencies
Fluxes
Gradients
High frequency
High resolution
Investigations
Lidar
Meteorology
Mixing layers (fluids)
Moisture
Momentum
Offshore
Predictions
Propagation
Radar systems
Radio
Radio frequency
Radio wave propagation
Radio waves
Radiosondes
Refractive index
Refractivity
Research aircraft
Ships
Superhigh frequencies
Surface boundary layer
Surface layers
Temperature (air-sea)
Towers
Transmitters
Tropical climate
Variability
Wave propagation
Weather
Weather forecasting
title THE TROPICAL AIR–SEA PROPAGATION STUDY (TAPS)
url https://sfx.bib-bvb.de/sfx_tum?ctx_ver=Z39.88-2004&ctx_enc=info:ofi/enc:UTF-8&ctx_tim=2025-02-18T21%3A10%3A41IST&url_ver=Z39.88-2004&url_ctx_fmt=infofi/fmt:kev:mtx:ctx&rfr_id=info:sid/primo.exlibrisgroup.com:primo3-Article-gale_hal_p&rft_val_fmt=info:ofi/fmt:kev:mtx:journal&rft.genre=article&rft.atitle=THE%20TROPICAL%20AIR%E2%80%93SEA%20PROPAGATION%20STUDY%20(TAPS)&rft.jtitle=Bulletin%20of%20the%20American%20Meteorological%20Society&rft.au=Kulessa,%20A.%20S.&rft.date=2017-03-01&rft.volume=98&rft.issue=3&rft.spage=517&rft.epage=538&rft.pages=517-538&rft.issn=0003-0007&rft.eissn=1520-0477&rft_id=info:doi/10.1175/BAMS-D-14-00284.1&rft_dat=%3Cgale_hal_p%3EA491575438%3C/gale_hal_p%3E%3Curl%3E%3C/url%3E&disable_directlink=true&sfx.directlink=off&sfx.report_link=0&rft_id=info:oai/&rft_pqid=1924678833&rft_id=info:pmid/&rft_galeid=A491575438&rft_jstor_id=26243698&rfr_iscdi=true