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COST 296 scientific results designed for operational use
Author(s)
Language
English
Obiettivo Specifico
1.7. Osservazioni di alta e media atmosfera
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)
3-4/52 (2009)
Publisher
Editrice Compositori
Pages (printed)
423-435
Issued date
August 2009
Abstract
The main objective of the COST 296 Action «Mitigation of Ionospheric Effects on Radio Systems» is the establishment/
improvement of ionospheric services by coordinating the development of specific algorithms, models, and tools capable of operating in a near-real-time mode.
Key elements of these activities are contributions related to monitoring, modelling, and imaging of customer-relevant
ionospheric quantities. COST stimulates, coordinates, and supports Europe’s goals of development and global cooperation by providing high quality information and knowledge of ionospheric and plasmaspheric conditions enabling high quality and reliable operation of radio systems.
It also provides a platform for sharing such tools as algorithms or models, and for the joint development of advanced
technologies. It takes advantage of many national and European service initiatives, for example DIAS
(http://dias.space.noa.gr), SWACI (http://w3swaci.dlr.de), ESWUA (http://www.eswua.ingv.it/ingv), RWC-Warsaw
(http://www.cbk.waw.pl/rwc), the COST Prompt Ionospheric Database http://www.wdc.rl.ac.uk/cgibin/
digisondes/cost_database.pl, http://www.izmiran.ru/services, and others.
Existing national capabilities are taken into account to develop synergies and avoid duplication. The enhancement of environment monitoring networks and associated instrumentation yields mutual advantages for European and regional services specialized for local user needs.
It structurally increases the integration of limited-area services, and generates a platform employing the same approach to each task differing mostly in input and output data. In doing so it also provides a complementary description of the environmental state within issued information, as well as providing a platform for interaction among local end users, who define what kind of information they need, for system providers, who finalize the
tools necessary to obtain required information, and for local service providers, who do the actual processing of
data, tailoring it to specific users’ needs. Such an initiative creates a unique opportunity for small national services
to consolidate their product design so that is no longer limited to their own activity, but can serve the wider European services.
The development and improvement of techniques for mitigating ionospheric effects on radio systems by the
COST 296 Action prepared those services that implemented the new design techniques for the newly announced EU and ESA policy-Space Situation Awareness (SSA). COST 296 developments applied to nowcasting and forecasting services are an essential input to the Operational SSA Ionosphere.
improvement of ionospheric services by coordinating the development of specific algorithms, models, and tools capable of operating in a near-real-time mode.
Key elements of these activities are contributions related to monitoring, modelling, and imaging of customer-relevant
ionospheric quantities. COST stimulates, coordinates, and supports Europe’s goals of development and global cooperation by providing high quality information and knowledge of ionospheric and plasmaspheric conditions enabling high quality and reliable operation of radio systems.
It also provides a platform for sharing such tools as algorithms or models, and for the joint development of advanced
technologies. It takes advantage of many national and European service initiatives, for example DIAS
(http://dias.space.noa.gr), SWACI (http://w3swaci.dlr.de), ESWUA (http://www.eswua.ingv.it/ingv), RWC-Warsaw
(http://www.cbk.waw.pl/rwc), the COST Prompt Ionospheric Database http://www.wdc.rl.ac.uk/cgibin/
digisondes/cost_database.pl, http://www.izmiran.ru/services, and others.
Existing national capabilities are taken into account to develop synergies and avoid duplication. The enhancement of environment monitoring networks and associated instrumentation yields mutual advantages for European and regional services specialized for local user needs.
It structurally increases the integration of limited-area services, and generates a platform employing the same approach to each task differing mostly in input and output data. In doing so it also provides a complementary description of the environmental state within issued information, as well as providing a platform for interaction among local end users, who define what kind of information they need, for system providers, who finalize the
tools necessary to obtain required information, and for local service providers, who do the actual processing of
data, tailoring it to specific users’ needs. Such an initiative creates a unique opportunity for small national services
to consolidate their product design so that is no longer limited to their own activity, but can serve the wider European services.
The development and improvement of techniques for mitigating ionospheric effects on radio systems by the
COST 296 Action prepared those services that implemented the new design techniques for the newly announced EU and ESA policy-Space Situation Awareness (SSA). COST 296 developments applied to nowcasting and forecasting services are an essential input to the Operational SSA Ionosphere.
References
ARAUJO-PRADERE, E.A., T.J. FULLER-ROWELL and M.V. CODRESCU
(2002): Storm: An empirical storm-time ionospheric
correction model. I, Model Description, Radio
Sci., 37, doi:10.1029/2001RS002467.
BELEHAKI, A., L.R. CANDER, B. ZOLESI, J. BREMER, C. JUREN,
I. STANISLAWSKA, D. DIALETIS and M. HATZOPOULOS
(2006): Monitoring and Forecasting the Ionosphere
Over Europe: The DIAS Project, Space Weather, 4,
S12002, doi:10.1029/2006SW000270.
BILITZA, D. and B. REINISCH (2008): International Reference
Ionosphere 2007: Improvements and new parameters,
J. Adv. Space Res., 42 (4), 599-609,
doi:10.1016/j.asr.2007.07.048.
BREMER, J., L.R. CANDER, J. MIELICH and R. STAMPER
(2006): Derivation and test of ionospheric activity indices
from real-time ionosonde observations in the European
region, J. Atmos. Solar-Terr. Phys., 68 (18),
2075-2090.
CANDER, L.R. (2008): Ionospheric research and space
weather services, J. Atmos. Solar-Terr. Phys.,
doi:10.1016/j.jastp.2008.05.010.
GALKIN, I.A., G.M. KHMYROV, A.V. KOZLOV, B.W.
REINISCH, X. HUANG and V.V. PAZNUKHOV (2008): The
ARTIST 5, in Radio Sounding and Plasma Physics,
AIP Conf. Proc. 974, 150-159.
GULYAEVA, T.L., I. STANISLAWSKA and M. TOMASIK (2008):
Ionospheric weather: Cloning missed foF2 observations
for derivation of variability index, Ann. Geophysicae,
26, 315-321.
GULYAEVA, T.L. and I. STANISLAWSKA (2008): Derivation of
a planetary ionospheric storm index, Ann. Geophysicae,
26, 2645-2648.
GULYAEVA, T.L. (2009): Proxy for the ionospheric peak
plasma density reduced by the solar zenith angle,
Earth, Planets and Space, 61, 629-631.
JAKOWSKI, N., S.M. STANKOV, D. KLAEHN, Y. BENIGUEL and
J. RUEFFER (2004): Operational service for monitoring
and evaluating the space weather impact on precise positioning
applications of GNSS, in Proc. European
Navigation Conference ENC-GNSS2004, (17-19 May
2004, Rotterdam, The Netherlands), Paper No.
GNSS2004-119.
HEISE, S., N. JAKOWSKI, A. WEHRENPFENNIG, CH. REIGBER
and H. LÜKR (2002): Sounding of the Topside Ionosphere/
Plasmasphere Based on GPS Measurements
from CHAMP: Initial Results, Geophysical Research
Letters, 29 (14), doi:10.1029/2002GL014738.
KOUTROUMBAS, K., I. TSAGOURI and A. BELEHAKI (2008):
Time series autoregression technique implemented online
in DIAS system for ionospheric forecast over Europe,
Ann. Geophysicae, 36 (2), 371-386.
PEZZOPANE, M. and C. SCOTTO (2007): The automatic scaling
of critical frequency foF2 and MUF(3000)F2: a comparison
between Autoscala and ARTIST 4.5 on Rome data,
Radio Sci., 42, RS4003, doi:10.1029/2006RS003581.
REINISCH, B.W., I.A. GALKIN, G.M. KHMYROV, A.V. KOZLOV,
I.A. LISYSYAN, K. BIBL, G. CHENEY, D. KITROSSER,
S. STELMASH, K. ROCHE, Y. LUO, V.V. PAAZNUKHOV
and R. HAMEL (2008): Advancing digisonde technology:
the DPS-4D, in Radio Sounding and Plasma
Physics, AIP Conf. Proc., 974, 127-143.
ROMANO, V., S. PAU, M. PEZZOPANE, E. ZUCCHERETTI, B.
ZOLESI, G. DE FRANCESCHI and S. LOCATELLI (2008):
The electronic Space Weather upper atmosphere
(eSWua) project at INGV: advancements and state of
the art, Ann. Geophysicae, 26, 345-351.
STANISLAWSKA, I. and L.R. CANDER (1999): Coordinated
SRC and RAL Centres for ionospheric weather specification
and forecasting, ESA Workshop on Space
Weather, 11-13 November 1998, ESTEC, Noordwijk,
The Netherlands, WPP-155, 499-552, March 1999.
STANKOV, S.M., and N. JAKOWSKI (2008): Topside ionospheric
scale height analysis and modelling based on radio
occultation measurements, J. Atmos. Sol.-Terr.
Phys., 68 (2), 134-162.
TSAGOURI, I., B. ZOLESI, A. BELEHAKI and L.R. CANDER (2005):
Evaluation of the performance of the real-time updated
simplified ionospheric regional model for the European
area, J. Atmos. and Sol.-Terr. Phys., 67 (12), 1137-1146.
ZOLESI, B., A. BELEHAKI, I. TSAGOURI and L.R. CANDER
(2004): Real-time updating of the Simplified Ionospheric
Regional Model for operational applications, Radio
Sci., 39 (2), RS2011, doi:10.1029/2003RS002936.
ZOLESI, B. and L.R. CANDER (2008): From COST 238 to
COST 296: Four European COST Actions on Ionospheric
Physics and Radio Propagation, in Radio Sounding
and Plasma Physics, AIP Conf. Proc., 974, 39-46.
(2002): Storm: An empirical storm-time ionospheric
correction model. I, Model Description, Radio
Sci., 37, doi:10.1029/2001RS002467.
BELEHAKI, A., L.R. CANDER, B. ZOLESI, J. BREMER, C. JUREN,
I. STANISLAWSKA, D. DIALETIS and M. HATZOPOULOS
(2006): Monitoring and Forecasting the Ionosphere
Over Europe: The DIAS Project, Space Weather, 4,
S12002, doi:10.1029/2006SW000270.
BILITZA, D. and B. REINISCH (2008): International Reference
Ionosphere 2007: Improvements and new parameters,
J. Adv. Space Res., 42 (4), 599-609,
doi:10.1016/j.asr.2007.07.048.
BREMER, J., L.R. CANDER, J. MIELICH and R. STAMPER
(2006): Derivation and test of ionospheric activity indices
from real-time ionosonde observations in the European
region, J. Atmos. Solar-Terr. Phys., 68 (18),
2075-2090.
CANDER, L.R. (2008): Ionospheric research and space
weather services, J. Atmos. Solar-Terr. Phys.,
doi:10.1016/j.jastp.2008.05.010.
GALKIN, I.A., G.M. KHMYROV, A.V. KOZLOV, B.W.
REINISCH, X. HUANG and V.V. PAZNUKHOV (2008): The
ARTIST 5, in Radio Sounding and Plasma Physics,
AIP Conf. Proc. 974, 150-159.
GULYAEVA, T.L., I. STANISLAWSKA and M. TOMASIK (2008):
Ionospheric weather: Cloning missed foF2 observations
for derivation of variability index, Ann. Geophysicae,
26, 315-321.
GULYAEVA, T.L. and I. STANISLAWSKA (2008): Derivation of
a planetary ionospheric storm index, Ann. Geophysicae,
26, 2645-2648.
GULYAEVA, T.L. (2009): Proxy for the ionospheric peak
plasma density reduced by the solar zenith angle,
Earth, Planets and Space, 61, 629-631.
JAKOWSKI, N., S.M. STANKOV, D. KLAEHN, Y. BENIGUEL and
J. RUEFFER (2004): Operational service for monitoring
and evaluating the space weather impact on precise positioning
applications of GNSS, in Proc. European
Navigation Conference ENC-GNSS2004, (17-19 May
2004, Rotterdam, The Netherlands), Paper No.
GNSS2004-119.
HEISE, S., N. JAKOWSKI, A. WEHRENPFENNIG, CH. REIGBER
and H. LÜKR (2002): Sounding of the Topside Ionosphere/
Plasmasphere Based on GPS Measurements
from CHAMP: Initial Results, Geophysical Research
Letters, 29 (14), doi:10.1029/2002GL014738.
KOUTROUMBAS, K., I. TSAGOURI and A. BELEHAKI (2008):
Time series autoregression technique implemented online
in DIAS system for ionospheric forecast over Europe,
Ann. Geophysicae, 36 (2), 371-386.
PEZZOPANE, M. and C. SCOTTO (2007): The automatic scaling
of critical frequency foF2 and MUF(3000)F2: a comparison
between Autoscala and ARTIST 4.5 on Rome data,
Radio Sci., 42, RS4003, doi:10.1029/2006RS003581.
REINISCH, B.W., I.A. GALKIN, G.M. KHMYROV, A.V. KOZLOV,
I.A. LISYSYAN, K. BIBL, G. CHENEY, D. KITROSSER,
S. STELMASH, K. ROCHE, Y. LUO, V.V. PAAZNUKHOV
and R. HAMEL (2008): Advancing digisonde technology:
the DPS-4D, in Radio Sounding and Plasma
Physics, AIP Conf. Proc., 974, 127-143.
ROMANO, V., S. PAU, M. PEZZOPANE, E. ZUCCHERETTI, B.
ZOLESI, G. DE FRANCESCHI and S. LOCATELLI (2008):
The electronic Space Weather upper atmosphere
(eSWua) project at INGV: advancements and state of
the art, Ann. Geophysicae, 26, 345-351.
STANISLAWSKA, I. and L.R. CANDER (1999): Coordinated
SRC and RAL Centres for ionospheric weather specification
and forecasting, ESA Workshop on Space
Weather, 11-13 November 1998, ESTEC, Noordwijk,
The Netherlands, WPP-155, 499-552, March 1999.
STANKOV, S.M., and N. JAKOWSKI (2008): Topside ionospheric
scale height analysis and modelling based on radio
occultation measurements, J. Atmos. Sol.-Terr.
Phys., 68 (2), 134-162.
TSAGOURI, I., B. ZOLESI, A. BELEHAKI and L.R. CANDER (2005):
Evaluation of the performance of the real-time updated
simplified ionospheric regional model for the European
area, J. Atmos. and Sol.-Terr. Phys., 67 (12), 1137-1146.
ZOLESI, B., A. BELEHAKI, I. TSAGOURI and L.R. CANDER
(2004): Real-time updating of the Simplified Ionospheric
Regional Model for operational applications, Radio
Sci., 39 (2), RS2011, doi:10.1029/2003RS002936.
ZOLESI, B. and L.R. CANDER (2008): From COST 238 to
COST 296: Four European COST Actions on Ionospheric
Physics and Radio Propagation, in Radio Sounding
and Plasma Physics, AIP Conf. Proc., 974, 39-46.
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