The Low-Altitude Ionosphere of the Ice Giant Planets

被引:1
|
作者
Molina-Cuberos, G. J. [1 ]
Witasse, O. [2 ]
Toledo, D. [3 ]
Tripathi, S. N. [4 ]
机构
[1] Univ Murcia, Dept Electromagnetism & Elect, Murcia, Spain
[2] European Space Agcy, Sci Directorate, ESA ESTEC, Noordwijk, Netherlands
[3] INTA, Inst Tecn Aerosp, Torrejon De Ardoz Madrid, Spain
[4] Indian Inst Technol, Dept Civil Engn, Kanpur, India
关键词
TRANSFER CROSS-SECTIONS; GALACTIC COSMIC-RAYS; PHYSICAL-CHARACTERISTICS; ELECTRON MOBILITIES; STRATOSPHERIC HAZE; MAGNETIC-FIELDS; ATMOSPHERE; NEPTUNE; URANUS; CONDUCTIVITY;
D O I
10.1029/2022JE007568
中图分类号
P3 [地球物理学]; P59 [地球化学];
学科分类号
0708 ; 070902 ;
摘要
The study of atmospheric electricity of the lower stratosphere and upper troposphere of the ice giant planets can help to understand several physical phenomena such as cloud formation, lightning generation, aerosols growth, or chemical composition. At these depths, galactic radiation is the main energy source able to ionize the atmospheric constituents and to produce a low altitude ionospheric layer that can be similar in magnitude to the upper ionosphere produced by solar radiation and auroral electrons. The presence of aerosols affects the ion-neutral chemistry by capturing electrons and ions depending on the aerosol size and number density. Here, we present a new one dimensional ionospheric model of Uranus and Neptune able to calculate the number densities of electrons and ions as well as the charging of aerosols between 100 Pa and 4 x 10(5) Pa. Since the results depends upon the amount and size of the atmospheric aerosols, as well as on the flux of the incoming cosmic radiation, several aerosol models, solar-cycle conditions, and the effect of the intrinsic magnetic field are considered.
引用
收藏
页数:13
相关论文
共 50 条
  • [41] Measurement of low-altitude infrared propagation
    Zeisse, CR
    Nener, BD
    Dewees, RV
    APPLIED OPTICS, 2000, 39 (06) : 873 - 886
  • [42] LOW-ALTITUDE PLASMA LINE ANISOTROPY
    ORAN, ES
    PALMADESSO, PJ
    GANGULY, S
    JOURNAL OF GEOPHYSICAL RESEARCH-SPACE PHYSICS, 1978, 83 (NA5): : 2190 - 2194
  • [43] The Accuracy of Low-Altitude Photogrammetry of Drones
    Guo, Nan
    Li, Yongbin
    INTERNATIONAL JOURNAL OF PATTERN RECOGNITION AND ARTIFICIAL INTELLIGENCE, 2020, 34 (08)
  • [44] Theseus completes low-altitude checkout
    Dornheim, MA
    AVIATION WEEK & SPACE TECHNOLOGY, 1996, 145 (19): : 29 - 30
  • [45] Ice Velocity in Upstream of Heilongjiang Based on UAV Low-Altitude Remote Sensing and the SIFT Algorithm
    Wang, Enliang
    Hu, Shengbo
    Han, Hongwei
    Li, Yuang
    Ren, Zhifeng
    Du, Shilin
    WATER, 2022, 14 (12)
  • [46] The fate of planetary cores in giant and ice-giant planets
    Mazevet, S.
    Musella, R.
    Guyot, F.
    ASTRONOMY & ASTROPHYSICS, 2019, 631
  • [47] Low-speed and Low-Altitude AUV Control
    Eguchi, K.
    Yashiro, Y.
    Yasuda, S.
    Awaya, I.
    Adachi, T.
    Yamauchi, Y.
    2020 IEEE/OES AUTONOMOUS UNDERWATER VEHICLES SYMPOSIUM (AUV), 2020,
  • [48] Self-Consistent Modeling of Electron Precipitation and Responses in the Ionosphere: Application to Low-Altitude Energization During Substorms
    Yu, Yiqun
    Jordanova, Vania K.
    McGranaghan, Ryan M.
    Solomon, Stanley C.
    GEOPHYSICAL RESEARCH LETTERS, 2018, 45 (13) : 6371 - 6381
  • [49] LOW-ALTITUDE PROTON DISTRIBUTION NEAR PLASMAPAUSE
    FISCHER, S
    KUDELA, K
    VAKULOV, PV
    TRANSACTIONS-AMERICAN GEOPHYSICAL UNION, 1977, 58 (08): : 718 - 718
  • [50] LOW-ALTITUDE TRAPPED PROTONS AT THE GEOMAGNETIC EQUATOR
    GUZIK, TG
    MIAH, MA
    MITCHELL, JW
    WEFEL, JP
    JOURNAL OF GEOPHYSICAL RESEARCH-SPACE PHYSICS, 1989, 94 (A1): : 145 - 150