H. U. Eichelberger
Austrian Academy of Sciences
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Featured researches published by H. U. Eichelberger.
Annales Geophysicae | 2005
T.-L. Zhang; R. Nakamura; M. Volwerk; A. Runov; W. Baumjohann; H. U. Eichelberger; C. M. Carr; A. Balogh; V. A. Sergeev; J. K. Shi; K.-H. Fornacon
Abstract. Previous Cluster observations have shown that the flapping motions of the Earths magnetotail are of internal origin and that kink-like waves are emitted from the central part of the tail and propagate toward the tail flanks. The newly launched Double Star Program (DSP) TC-1 satellite allows us to investigate neutral sheet at 10-13 Re in the tail. Using conjunctions with Cluster we will have simultaneous observations at 10-13 and 16-19 Re of these flapping motions. In this paper, we present the first results of neutral sheet oscillations observed by the Cluster and Double Star satellites on 5 August 2004.
Geophysical Research Letters | 2016
D. Schmid; R. Nakamura; M. Volwerk; F. Plaschke; Y. Narita; W. Baumjohann; W. Magnes; D. Fischer; H. U. Eichelberger; R. B. Torbert; C. T. Russell; R. J. Strangeway; H. K. Leinweber; G. Le; K. R. Bromund; Brian J. Anderson; James A. Slavin; E. L. Kepko
Abstract We present a statistical study of dipolarization fronts (DFs), using magnetic field data from MMS and Cluster, at radial distances below 12 R E and 20 R E, respectively. Assuming that the DFs have a semicircular cross section and are propelled by the magnetic tension force, we used multispacecraft observations to determine the DF velocities. About three quarters of the DFs propagate earthward and about one quarter tailward. Generally, MMS is in a more dipolar magnetic field region and observes larger‐amplitude DFs than Cluster. The major findings obtained in this study are as follows: (1) At MMS ∼57 % of the DFs move faster than 150 km/s, while at Cluster only ∼35 %, indicating a variable flux transport rate inside the flow‐braking region. (2) Larger DF velocities correspond to higher B z values directly ahead of the DFs. We interpret this as a snow plow‐like phenomenon, resulting from a higher magnetic flux pileup ahead of DFs with higher velocities.
Geophysical Research Letters | 2003
A. Runov; R. Nakamura; W. Baumjohann; T. L. Zhang; M. Volwerk; H. U. Eichelberger; A. Balogh
Annales Geophysicae | 2005
C. M. Carr; P. Brown; T. L. Zhang; J. Gloag; T. S. Horbury; Elizabeth A. Lucek; W. Magnes; H. O'Brien; T. Oddy; U. Auster; Patrick Austin; O. Aydogar; A. Balogh; W. Baumjohann; T. J. Beek; H. U. Eichelberger; K.-H. Fornacon; E. Georgescu; Karl-Heinz Glassmeier; M. Ludlam; R. Nakamura; I. Richter
Annales Geophysicae | 2005
M. Volwerk; T. L. Zhang; R. Nakamura; A. Runov; W. Baumjohann; Karl-Heinz Glassmeier; T. Takada; H. U. Eichelberger; C. M. Carr; A. Balogh; B. Klecker; H. Rème
Annales Geophysicae | 2005
R. Nakamura; W. Baumjohann; T. L. Zhang; C. M. Carr; A. Balogh; K.-H. Fornacon; E. Georgescu; H. Rème; I. Dandouras; T. Takada; M. Volwerk; Y. Asano; A. Runov; H. U. Eichelberger; B. Klecker; Christopher Mouikis; L. M. Kistler; O. Amm
Advances in Space Research | 2006
T. L. Zhang; W. Baumjohann; R. Nakamura; A. Runov; M. Volwerk; Y. Asano; Z. Vörös; H. U. Eichelberger; V. A. Sergeev; J. K. Shi; A. Balogh
Advances in Space Research | 2008
E. Georgescu; H. U. Auster; T. Takada; J. Gloag; H. U. Eichelberger; K.-H. Fornacon; P. Brown; C. M. Carr; T. L. Zhang
Archive | 2004
T. L. Zhang; W. Baumjohann; Rumi Nakamura; A. Runov; Martin Volwerk; Zoltan Voeroes; H. U. Eichelberger; V. A. Sergeev; Andre Balogh
Geophysical Research Letters | 2016
D. Schmid; R. Nakamura; M. Volwerk; F. Plaschke; Y. Narita; W. Baumjohann; W. Magnes; D. Fischer; H. U. Eichelberger; R. B. Torbert; C. T. Russell; R. J. Strangeway; H. K. Leinweber; G. Le; K. R. Bromund; Brian J. Anderson; James A. Slavin; E. L. Kepko