Results 21 to 30 of about 2,961 (224)

Modulation of NTC frequencies by Pc5 ULF pulsations : experimental test of the generation mechanism and magnetoseismology of the emitting surface [PDF]

, 2009
Nonthermal continuum (NTC) radiation is believed to be emitted by the conversion of an electrostatic wave into an electromagnetic one, which takes place at the Earth's magnetic equator.
Anderson, Balogh, Bernstein, C. Foullon, Calvert, Canu, Cheng, Christiansen, Denton, Décréau, Décréau, Décréau, Engebretson, Eriksson, Etcheto, G. Le Rouzic, Gough, Gough, Gurnett, Gurnett, Gustafsson, Hudson, Hughes, Kasaba, Kennel, Kurth, Kurth, Loewe, Loto'Aniu, Mager, Mann, Melrose, Morgan, Oya, P. M. E. Décréau, Pierrard, Rönnmark, S. Grimald, Schäfer, Singer, Takahashi, Tsyganenko, X. Suraud, X. Vallières   +43 more
core   +3 more sources

Proposal for an ionosphere/plasmasphere monitoring system [PDF]

Annales Geophysicae, 1994
A space-based satellite system suited for long-term monitoring of the Earth's ionosphere/plasmasphere systems is proposed. The monitoring system consists of a network of radio beacon satellites capable of measuring the ionospheric and plasmaspheric ...
N. Jakowski, H.-D. Bettac
doaj   +1 more source

Dynamical Simulations of Plasmapause Deformations [PDF]

Space Science Reviews, 2006
Dynamical simulations have been developed at IASB-BIRA to model the deformations of the plasmasphere during geomagnetic substorms and other variations in the level of geomagnetic activity. The simulations are based on the mechanism of plasma instability and use the empirical Kp-dependent electric field E5D.
Viviane Pierrard, Juan Cabrera
openaire   +1 more source

On the cause and extent of outer radiation belt losses during the 30 September 2012 dropout event [PDF]

, 2014
On 30 September 2012, a flux dropout occurred throughout Earth\u27s outer electron radiation belt during the main phase of a strong geomagnetic storm.
Angelopoulos, V., Baker, D. N., Blake, J. B., Boyd, A. J., Claudepierre, S., Henderson, M. G., Huang, Chia-Lin L., Li, W., Morley, S. K., Reeves, Geoffrey, Rodriguez, J. V., Spence, Harlan E., Turner, D. L.   +12 more
core   +3 more sources

Observations of Radiation Belt Losses Due to Cyclotron Wave-Particle Interactions [PDF]

, 2020
Electron loss to the atmosphere plays a critical role in driving dynamics of the Earths Van Allen radiation belts and slot region. This is a review of atmospheric loss of radiation belt electrons caused by plasma wave scattering via Doppler-shifted ...
Abel, Agapitov, Agapitov, Agapitov, Agapitov, Agapitov, Agapitov, Agapitov, Albert, Albert, Albert, Albert, Albert, Albert, Albert, Albert, Albert, Albert, Allen, Anderson, Anderson, Andersson, Angelopoulos, Artemyev, Artemyev, Artemyev, Artemyev, Aryan, Baker, Baker, Baker, Baker, Bellan, Blake, Blake, Blum, Blum, Blum, Blum, Bortnik, Bortnik, Bortnik, Bortnik, Bortnik, Bortnik, Boynton, Brautigam, Breneman, Breneman, Brice, Brown, Burtis, Burton, Cao, Carson, Cattell, Cattell, Cattell, Chaston, Chen, Chen, Chen, Chen, Chen, Chen, Chen, Chum, Church, Claudepierre, Clausen, Clilverd, Clilverd, Clilverd, Clilverd, Clilverd, Comess, Cornwall, Cornwall, Crabtree, Crew, Cully, Darrouzet, de Soria-Santacruz, Delport, Denton, Douma, Douma, Drozdov, Engebretson, Engebretson, Engebretson, Fennell, Foat, Foster, Foster, Foster, Fraser, Friedel, Fu, Fujita, Gamble, Gao, Gao, Gao, Gary, Ginzburg, Glauert, Glauert, Golden, Goldstein, Goldstein, Green, Greifinger, Grison, Halford, Halford, Halford, Haque, Hartley, Hayakawa, Hayakawa, He, He, Helliwell, Hendry, Hendry, Hess, Hikishima, Horne, Horne, Horne, Horne, Horne, Horne, Hsieh, Huang, Hudson, Hudson, Hwang, Imhof, Imhof, Imhof, Inan, Inan, Jaynes, Jaynes, Johnston, Johnstone, Jordanova, Jordanova, Kaiser, Kasahara, Katoh, Katoh, Keika, Kellerman, Kellogg, Kennel, Kennel, Kersten, Kilpua, Kim, Kim, Koons, Kozyra, Laakso, Lakhina, Lam, Lampton, LeDocq, Lee, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Li, Liu, Lorentzen, Lorentzen, Loto’aniu, Lyons, Lyons, Ma, Ma, Ma, Ma, Macúšová, Malaspina, Malaspina, Malaspina, Mann, Mann, Mann, Matsui, Matsui, McCollough, Meredith, Meredith, Meredith, Meredith, Meredith, Meredith, Meredith, Meredith, Meredith, Meredith, Meredith, Meredith, Millan, Millan, Millan, Millan, Min, Mironova, Miyoshi, Morley, Mourenas, Mourenas, Mourenas, Moya, Mozer, Mozer, Murphy, Nakamura, Nakamura, Nakamura, Nakamura, Ni, Ni, Ni, Ni, Nishimura, Nunn, Němec, Němec, Oliven, Omura, Omura, Omura, Omura, Omura, Omura, Orlova, Orlova, Osmane, O’Brien, O’Brien, O’Brien, Parrot, Parrot, Paulikas, Paulson, Perraut, Pham, Pickett, Posch, Reeves, Reeves, Reeves, Remya, Riley, Ripoll, Rodger, Rodger, Rodger, Rodger, Rodger, Rodger, Rodger, Rosenberg, Rosenberg, Rosenberg, Roth, Russell, Russell, Saikin, Saito, Sandanger, Sandel, Santolík, Santolík, Santolík, Santolík, Santolík, Santolík, Santolík, Santolík, Santolík, Sazhin, Schiller, Selesnick, SenGupta, Shekhar, Shi, Shklyar, Shoji, Shprits, Shprits, Shprits, Shprits, Shprits, Shprits, Sigsbee, Silin, Sivadas, Smith, Sonwalkar, Spasojevic, Spasojevic, Spasojevic, Stix, Su, Su, Subbotin, Summers, Summers, Summers, Summers, Summers, Tao, Taubenschuss, Teng, Thorne, Thorne, Thorne, Thorne, Thorne, Thorne, Thorne, Thorne, Titova, Tsintsadze, Tsurutani, Tsurutani, Tsurutani, Tsurutani, Tsurutani, Tsurutani, Tsurutani, Tu, Tu, Turner, Turner, Turner, Turner, Ukhorskiy, Ukhorskiy, Usanova, Usanova, Usanova, Vampola, Van Allen, Villalón, Walt, Wang, Watt, Wilson, Winckler, Woodger, Xiang, Xiao, Xiao, Xiao, Yahnin, Yu, Yu, Yu, Yuan, Yue, Yue, Zhang, Zhao, Zhima, Zhou, Zhu   +388 more
core   +2 more sources

Evaluating the performance of empirical models of total electron density and whistler-mode wave amplitude in the Earth’s inner magnetosphere

Frontiers in Astronomy and Space Sciences, 2023
Empirical models have been previously developed using the large dataset of satellite observations to obtain the global distributions of total electron density and whistler-mode wave power, which are important in modeling radiation belt dynamics.
Qianli Ma, Qianli Ma, Xiangning Chu, Donglai Ma, Sheng Huang, Wen Li, Jacob Bortnik, Xiao-Chen Shen   +7 more
doaj   +1 more source

Low-altitude measurements of 2–6 MeV electron trapping lifetimes at 1.5 ≤ L ≤ 2.5 [PDF]

, 2007
During the Halloween Storm period (October–November 2003), a new Van Allen belt electron population was powerfully accelerated. The inner belt of electrons formed in this process decayed over a period of days to years. We have examined quantitatively the
Baker, D.N., Glauert, S.A., Horne, R.B., Kanekal, S.G., Meredith, N.P.   +4 more
core   +2 more sources

The relationship between plasmapause, solar wind and geomagnetic activity between 2007 and 2011 [PDF]

Annales Geophysicae, 2015
Taking advantage of the Cluster satellite mission and especially the observations made by the instrument WHISPER to deduce the electron number density along the orbit of the satellites, we studied the relationships between the plasmapause positions ...
G. Verbanac, V. Pierrard, V. Pierrard, M. Bandić, F. Darrouzet, J.-L. Rauch, P. Décréau   +6 more
doaj   +1 more source

The distribution of plasmaspheric hiss wave power with respect to plasmapause location

Geophysical Research Letters, 2016
In this work, Van Allen Probes data are used to derive terrestrial plasmaspheric hiss wave power distributions organized by (1) distance away from the plasmapause and (2) plasmapause distance from Earth.
David M. Malaspina, Allison N. Jaynes, Cory Boulé, Jacob Bortnik, Scott A. Thaller, Robert E. Ergun, Craig A. Kletzing, John R. Wygant   +7 more
doaj   +1 more source

Comparisons between EUV/IMAGE observations and numerical simulations of the plasmapause formation [PDF]

Annales Geophysicae, 2005
Simulations of plasmapause formation described in Pierrard and Lemaire (2004) predict the shape and equatorial distance of the plasmapause as a function of the geomagnetic activity index Kp.
V. Pierrard, J. Cabrera
doaj   +1 more source