A regional GPS receiver network for monitoring equatorial scintillation and total electron content

A network of Global Positioning System (GPS) single‐frequency (L1) receivers has been installed in Australia and Southeast Asia for the purpose of monitoring equatorial ionospheric scintillation during the current peak in solar cycle activity. Dual‐frequency receivers to measure total electron conte...

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Veröffentlicht in:Radio science 2001-11, Vol.36 (6), p.1545-1557
Hauptverfasser: Thomas, R. M., Cervera, M. A., Eftaxiadis, K., Manurung, S. L., Saroso, S., Effendy, Ramli, A. G., Hassan, W. Salwa, Rahman, H., Dalimin, M. N., Groves, K. M., Wang, Y.
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container_end_page 1557
container_issue 6
container_start_page 1545
container_title Radio science
container_volume 36
creator Thomas, R. M.
Cervera, M. A.
Eftaxiadis, K.
Manurung, S. L.
Saroso, S.
Effendy
Ramli, A. G.
Hassan, W. Salwa
Rahman, H.
Dalimin, M. N.
Groves, K. M.
Wang, Y.
description A network of Global Positioning System (GPS) single‐frequency (L1) receivers has been installed in Australia and Southeast Asia for the purpose of monitoring equatorial ionospheric scintillation during the current peak in solar cycle activity. Dual‐frequency receivers to measure total electron content are also operating at some stations and will be described in a later paper. With respect to equatorial scintillation our long‐term intention is to characterize its statistical properties and its effect on GPS link performance within the Asian‐Australian longitude zone (approximately from 100° to 150° E) as a function of time of day, season, sunspot number, and magnetic latitude, for comparison with available models such as WBMOD and in order to quantify the potential for navigational degradation, especially during times of elevated solar activity. In this paper, the scintillation receiver network is described, and preliminary results are presented from the first two years of operation (1998 and 1999). Our initial results include measurements of diurnal and seasonal variations in S4 and an analysis of the performance of multiple satellite links which indicates that just prior to solar maximum, GPS can approach marginal performance because of scintillation.
doi_str_mv 10.1029/2000RS002521
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M. ; Cervera, M. A. ; Eftaxiadis, K. ; Manurung, S. L. ; Saroso, S. ; Effendy ; Ramli, A. G. ; Hassan, W. Salwa ; Rahman, H. ; Dalimin, M. N. ; Groves, K. M. ; Wang, Y.</creator><creatorcontrib>Thomas, R. M. ; Cervera, M. A. ; Eftaxiadis, K. ; Manurung, S. L. ; Saroso, S. ; Effendy ; Ramli, A. G. ; Hassan, W. Salwa ; Rahman, H. ; Dalimin, M. N. ; Groves, K. M. ; Wang, Y.</creatorcontrib><description>A network of Global Positioning System (GPS) single‐frequency (L1) receivers has been installed in Australia and Southeast Asia for the purpose of monitoring equatorial ionospheric scintillation during the current peak in solar cycle activity. Dual‐frequency receivers to measure total electron content are also operating at some stations and will be described in a later paper. With respect to equatorial scintillation our long‐term intention is to characterize its statistical properties and its effect on GPS link performance within the Asian‐Australian longitude zone (approximately from 100° to 150° E) as a function of time of day, season, sunspot number, and magnetic latitude, for comparison with available models such as WBMOD and in order to quantify the potential for navigational degradation, especially during times of elevated solar activity. In this paper, the scintillation receiver network is described, and preliminary results are presented from the first two years of operation (1998 and 1999). 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source Wiley Online Library Journals Frontfile Complete; Wiley Free Content; Wiley-Blackwell AGU Digital Library; EZB-FREE-00999 freely available EZB journals
subjects Global Positioning System
Links
Mathematical models
Monitoring
Networks
Receivers
Satellite navigation systems
Scintillation
title A regional GPS receiver network for monitoring equatorial scintillation and total electron content
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