Effects of the solar wind and the solar EUV flux on O+ escape rates from Venus
暂无分享,去创建一个
S. Barabash | Y. Futaana | Z. Rong | T. Zhang | A. Fedorov | M. Persson | K. Masunaga
[1] S. Barabash,et al. H+/O+ Escape Rate Ratio in the Venus Magnetotail and its Dependence on the Solar Cycle , 2018, Geophysical Research Letters.
[2] S. Barabash,et al. Solar Wind Interaction and Impact on the Venus Atmosphere , 2017, Space Science Reviews.
[3] S. Barabash,et al. Ablation of Venusian oxygen ions by unshocked solar wind. , 2017, Science bulletin.
[4] Y. Futaana,et al. Properties of planetward ion flows in Venus’ magnetotail , 2016 .
[5] K. Szego,et al. Statistical features of the global polarity reversal of the Venusian induced magnetosphere in response to the polarity change in interplanetary magnetic field , 2016 .
[6] M. Liemohn,et al. Comparative pick-up ion distributions at Mars and Venus: Consequences for atmospheric deposition and escape , 2015 .
[7] S. Barabash,et al. The flapping motion of the Venusian magnetotail: Venus Express observations , 2015 .
[8] S. Barabash,et al. Technique for diagnosing the flapping motion of magnetotail current sheets based on single‐point magnetic field analysis , 2015 .
[9] S. Barabash,et al. Morphology of magnetic field in near‐Venus magnetotail: Venus express observations , 2014 .
[10] S. Barabash,et al. Plasma in the near Venus tail: Venus Express observations , 2013 .
[11] S. Barabash,et al. Venus ion outflow estimates at solar minimum: Influence of reference frames and disturbed solar wind conditions , 2013 .
[12] Naoki Terada,et al. Dependence of O+ escape rate from the Venusian upper atmosphere on IMF directions , 2013 .
[13] C. Russell,et al. Magnetic Reconnection in the Near Venusian Magnetotail , 2012, Science.
[14] H. Lammer,et al. The Kelvin–Helmholtz instability at Venus: What is the unstable boundary? , 2011, Icarus.
[15] S. Barabash,et al. O+ outflow channels around Venus controlled by directions of the interplanetary magnetic field: Observations of high energy O+ ions around the terminator , 2011 .
[16] M. Lester,et al. Atmospheric erosion of Venus during stormy space weather , 2011 .
[17] R. Lundin. Ion Acceleration and Outflow from Mars and Venus: An Overview , 2011 .
[18] C. Ferrier,et al. Measurements of the ion escape rates from Venus for solar minimum , 2011 .
[19] I. Pater,et al. Interplanetary coronal mass ejection influence on high energy pick-up ions at Venus , 2010 .
[20] A. Coates,et al. Plasma environment of Jupiter family comets , 2009 .
[21] H. Lichtenegger,et al. Plasma environment of Venus: Comparison of Venus Express ASPERA‐4 measurements with 3‐D hybrid simulations , 2007 .
[22] C. Russell,et al. The loss of ions from Venus through the plasma wake , 2007, Nature.
[23] Christopher T. Russell,et al. Space weather at Venus and its potential consequences for atmosphere evolution , 2007 .
[24] M. Maggi,et al. The Analyser of Space Plasmas and Energetic Atoms (ASPERA-4) for the Venus Express mission , 2007 .
[25] Jean-Pierre Lebreton,et al. Magnetic field investigation of the Venus plasma environment: Expected new results from Venus Express , 2006 .
[26] Wolfgang Baumjohann,et al. Survey of large-amplitude flapping motions in the midtail current sheet , 2006, Annales Geophysicae.
[27] J. Luhmann,et al. Solar cycle effects on the structure of the electron density profiles in the dayside ionosphere of venus , 1991 .
[28] C. Russell,et al. The ionotail of Venus: Its configuration and evidence for ion escape , 1987 .
[29] J. Luhmann. The solar wind interaction with Venus , 1986 .
[30] J. Mihalov,et al. The distant interplanetary wake of Venus: Plasma observations from Pioneer Venus , 1982 .
[31] J. Luhmann,et al. Holes in the nightside ionosphere of Venus , 1982 .
[32] L. H. Brace,et al. Plasma clouds above the ionopause of Venus and their implications , 1982 .