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A new campaign for oblique-incidence ionospheric sounding over Europe and its data application
Author(s)
Language
English
Obiettivo Specifico
3.9. Fisica della magnetosfera, ionosfera e meteorologia spaziale
Status
Published
JCR Journal
JCR Journal
Peer review journal
Yes
Title of the book
Issue/vol(year)
/ 70 (2008)
Publisher
Elsevier
Pages (printed)
854-865
Issued date
2008
Alternative Location
Abstract
New systematic oblique ionospheric radio sounding measurements over Central Europe, concerning the radio links between Inskip (UK, 53.51N, 2.51W) and Rome (Italy, 41.81N, 12.51E) and between Inskip and Chania (Greece, 35.71N, 24.01E), have been performed since November 2003.
Different long-term (i.e. monthly median) ionospheric predictions and nowcasting techniques have been applied and compared with the oblique-incidence radio sounding measurements.
The MUF (basic maximum usable frequency) measurements observed during the early part of the experiment have been used to compare the performances of different methods. The preliminary analysis has shown good performances for the long-term prediction models, in particular in winter months for ICEPAC (ionospheric communications enhanced profile analysis and circuit) and in equinox/summer months for ASAPS (advanced stand-alone prediction system) and SIRM&LKW (simplified ionospheric regional model & lockwood). The nowcasting methods SIRMUP&LKW (SIRM updating method & lockwood) and ISWIRM (instantaneous space weighted ionospheric regional model) reveal good results for moderate and disturbed geomagnetic conditions when compared with the long-term prediction methods.
Different long-term (i.e. monthly median) ionospheric predictions and nowcasting techniques have been applied and compared with the oblique-incidence radio sounding measurements.
The MUF (basic maximum usable frequency) measurements observed during the early part of the experiment have been used to compare the performances of different methods. The preliminary analysis has shown good performances for the long-term prediction models, in particular in winter months for ICEPAC (ionospheric communications enhanced profile analysis and circuit) and in equinox/summer months for ASAPS (advanced stand-alone prediction system) and SIRM&LKW (simplified ionospheric regional model & lockwood). The nowcasting methods SIRMUP&LKW (SIRM updating method & lockwood) and ISWIRM (instantaneous space weighted ionospheric regional model) reveal good results for moderate and disturbed geomagnetic conditions when compared with the long-term prediction methods.
References
Bradley, P.A., 1995. PRIME (Prediction and Retrospective
Ionospheric Modelling over Europe). COST Action 238 Final
Report.
Davies, K., 1989. Ionospheric Radio. Peter Peregrinus Ltd.,
London, UK, pp. 102–105.
Hanbaba, R., 1999. Improved quality of service in ionospheric
telecommunication systems planning and operation. COST
Action 251 Final Report.
Houminer, Z., Bennet, J.A., Dyson, P.L., 1993. Real-time
ionospheric model updating. Journal of Electrical and
Electronics Engineering, Australia, IE Australia & IREE
Australia 13 (2), 99–104.
Lockwood, M., 1983. A simple M-factor algorithm for improved
estimation of the basic maximum usable frequency of radio
waves reflected from the ionospheric F region. Proceedings of
the IEE 130F, 296–302.
Pietrella, M., Perrone, L., 2005. Instantaneous space weighted
ionospheric regional model for instantaneous mapping of the critical frequency of the F2 layer in the European region.
Radio Science 40 (1).
Reinisch, B.W., Huang, X., 1983. Automatic calculation of
electron density profiles from digital ionograms 3. Processing
of bottomside ionograms. Radio Science 18 (3), 477–492.
Stewart F.G., undated. ICEPAC-Technical Manual. Available
from: /http://www.greg-hand.com/manuals/icepac_tech_
manual.pdfS.
Tsagouri, I., Zolesi, B., Belehaki, A., Cander, L.R., 2005.
Evaluation of the performance of the real-time updated
simplified ionospheric regional model for the European area. Journal of Atmospheric and Solar–Terrestrial Physics 67 (12),
1137–1146.
Zolesi, B., Cander, L.R., De Franceschi, G., 1993. Simplified
ionospheric regional model for telecommunication applications.
Radio Science 28 (4), 603–612.
Zolesi, B., Cander, L.R., De Franceschi, G., 1996. On the potential
applicability of the simplified ionospheric regional model to
different mid-latitude areas. Radio Science 31 (3), 547–552.
Zolesi, B., Belehaki, A., Tsagouri, I., Cander, L.R., 2004. Realtime
updating of the simplified ionospheric regional model for
operational applications. Radio Science 39 (2).
Ionospheric Modelling over Europe). COST Action 238 Final
Report.
Davies, K., 1989. Ionospheric Radio. Peter Peregrinus Ltd.,
London, UK, pp. 102–105.
Hanbaba, R., 1999. Improved quality of service in ionospheric
telecommunication systems planning and operation. COST
Action 251 Final Report.
Houminer, Z., Bennet, J.A., Dyson, P.L., 1993. Real-time
ionospheric model updating. Journal of Electrical and
Electronics Engineering, Australia, IE Australia & IREE
Australia 13 (2), 99–104.
Lockwood, M., 1983. A simple M-factor algorithm for improved
estimation of the basic maximum usable frequency of radio
waves reflected from the ionospheric F region. Proceedings of
the IEE 130F, 296–302.
Pietrella, M., Perrone, L., 2005. Instantaneous space weighted
ionospheric regional model for instantaneous mapping of the critical frequency of the F2 layer in the European region.
Radio Science 40 (1).
Reinisch, B.W., Huang, X., 1983. Automatic calculation of
electron density profiles from digital ionograms 3. Processing
of bottomside ionograms. Radio Science 18 (3), 477–492.
Stewart F.G., undated. ICEPAC-Technical Manual. Available
from: /http://www.greg-hand.com/manuals/icepac_tech_
manual.pdfS.
Tsagouri, I., Zolesi, B., Belehaki, A., Cander, L.R., 2005.
Evaluation of the performance of the real-time updated
simplified ionospheric regional model for the European area. Journal of Atmospheric and Solar–Terrestrial Physics 67 (12),
1137–1146.
Zolesi, B., Cander, L.R., De Franceschi, G., 1993. Simplified
ionospheric regional model for telecommunication applications.
Radio Science 28 (4), 603–612.
Zolesi, B., Cander, L.R., De Franceschi, G., 1996. On the potential
applicability of the simplified ionospheric regional model to
different mid-latitude areas. Radio Science 31 (3), 547–552.
Zolesi, B., Belehaki, A., Tsagouri, I., Cander, L.R., 2004. Realtime
updating of the simplified ionospheric regional model for
operational applications. Radio Science 39 (2).
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