All Stories

  1. Jupiter high-energy/high-latitude electron environment from Juno’s JEDI and UVS science instrument background noise
  2. Jupiter's Ion Radiation Belts Inward of Europa's Orbit
  3. First Adiabatic Invariants and Phase Space Densities for the Jovian Electron and Proton Radiation Belts—Galileo and GIRE3 Estimates
  4. Jupiter's ion radiation belts inward of Europa's orbit
  5. 1st Adiabatic Invariants and Phase Space Densities for the Jovian Electron and Proton Radiation Belts-Galileo and GIRE3 Estimates
  6. Updating the Jovian Electron Plasma Environment
  7. Space radiation impact on smallsats during maximum and minimum solar activity
  8. Trapped Particle Environments of the Outer Planets
  9. A Physical Model of the Proton Radiation Belts of Jupiter inside Europa's Orbit
  10. The Latest Jovian-Trapped Proton and Heavy Ion Models
  11. Magnetour: Surfing planetary systems on electromagnetic and multi-body gravity fields
  12. 3-D NUMIT: A General 3-D Internal Charging Code
  13. The Europa Charging Environment
  14. Interactions between energetic electrons and realistic whistler mode waves in the Jovian magnetosphere
  15. Active electrostatic flight for airless bodies
  16. Global real-time dose measurements using the Automated Radiation Measurements for Aerospace Safety (ARMAS) system
  17. An empirical model of the high-energy electron environment at Jupiter
  18. Analysis of Tether-Mission Concept for Multiple Flybys of Moon Europa
  19. Updating the Jovian Plasma and Radiation Environments: The Latest Results for 2015
  20. The GIRE2 model and its application to the Europa mission
  21. Guest Editorial Special Issue on Spacecraft Charging Technology
  22. Special issue on spacecraft charging technology
  23. 2014 Spacecraft Charging Technology Conference (2014 SCTC), 23-27 June 2014
  24. Impact-Induced ESD and EMI/EMP Effects on Spacecraft—A Review
  25. Special Issue on Spacecraft Charging Technology 2013
  26. Book review [review of "Guide to Mitigating Spacecraft Charging Effects" (Garrett, H.B. and Whittlesey, A.C.; 2012)]
  27. Special Issue on Spacecraft Charging Technologies
  28. Guide to Mitigating Spacecraft Charging Effects
  29. A Proposed Two-Stage Two-Tether Scientific Mission at Jupiter
  30. Special Issue on Spacecraft Charging Technology 2012
  31. The Jovian Charging Environment and Its Effects—A Review
  32. Announcing the IEEE Transactions on Plasma Science Special Issue on Spacecraft Charging Technology January 2012
  33. Analysis of Single-Event Upset Rates on the Clementine and Cassini Solid State Recorders
  34. Electrodynamic Tether at Jupiter—II: Fast Moon Tour After Capture
  35. An Algorithm for Determining Energy Deposition Profiles in Elemental Slabs by Low ($≪ 100$ keV) Energy Electrons: An Internal Charging Application
  36. Electrodynamic Tether at Jupiter—I: Capture Operation and Constraints
  37. Modeling of the Jovian Auroral Environment and Its Effects on Spacecraft Charging
  38. Review of an Internal Charging Code, NUMIT
  39. Ultrarelativistic Electrons in Jupiter's Inner Magnetosphere: First Observation of Angular Distributions in the 2.5 to 6RJRegion
  40. Long-term observations of the trapped high-energy proton population (L<4) by the NOAA Polar Orbiting Environmental Satellites (POES)
  41. Europa's near-surface radiation environment
  42. A Fast Technology Infusion Model for Aerospace Organizations
  43. Anomaly Trends for Long-Life Robotic Spacecraft
  44. Special Issue on Spacecraft Charging Technology
  45. Comparison of high-energy trapped particle environments at the earth and jupiter
  46. High-energy trapped particle environments at Jupiter: an update
  47. Statistics of the variations of the high-energy electron population between 7 and 28 jovian radii as measured by the Galileo spacecraft
  48. A revised model of Jupiter's inner electron belts: Updating the Divine radiation model
  49. Modeling Jupiter's Internal Electrostatic Discharge Environment
  50. Monte Carlo simulations of the Galileo energetic particle detector
  51. Energetic Ion and Electron Irradiation of the Icy Galilean Satellites
  52. Comparison of spacecraft charging environments at the Earth, Jupiter, and Saturn
  53. Spacecraft charging, an update
  54. Interplanetary Meteoroid Environment Model Update
  55. CMOS charged particle spectrometers
  56. Clementine dosimetry
  57. Clementine Engineering Experiments Program
  58. Estimates of the Clementine Interstage Adapter Satellite tumble rate
  59. Single-event upset effects on the Clementine solid-state data recorder
  60. Solar particle induced upsets in the TDRS-1 attitude control system RAM during the October 1989 solar particle events
  61. Clementine RRELAX SRAM particle spectrometer
  62. Multibody-plasma interactions - Charging in the wake
  63. Mission offers a new look at the Moon and a near-Earth asteroid
  64. High voltages in space: innovation in space insulation
  65. Environment-induced anomalies on the TDRS and the role of spacecraftcharging
  66. Space vehicle glow and its impact on spacecraft systems
  67. Environment-induced electrostatic discharges as the cause of Voyager1 power-on resets
  68. Magnetospheric plasma modeling (0-100 keV)
  69. Charged particle distributions in Jupiter's magnetosphere
  70. History at 1983 IUGG Meeting
  71. A statistical analysis of the low-energy geosynchronous plasma environment—I. Electrons
  72. A statistical analysis of the low-energy geosynchronous plasma environment—II. Ions
  73. The charging of spacecraft surfaces
  74. Review Of The Near-Earth Spacecraft Environment
  75. Comparison between the 30- to 80-keV electron channels on ATS 6 and 1976-059A during conjunction and application to spacecraft charging prediction
  76. Time evolution of ion contaminant clouds at geosynchronous orbit
  77. An analytical simulation of the geosynchronous plasma environment
  78. Review of quantitative models of the 0- to 100-keV near-Earth plasma
  79. Solar tidal wind structures and the E-region dynamo.
  80. Theoretical studies of atmospheric tides
  81. Thermal excitation of atmospheric tides due to insolation absorption by O3and H2O
  82. Spacecraft charging at geosynchronous orbit-generalized solution for eclipse passage
  83. Tidal structure of the thermosphere at equinox
  84. Density variations in the lower thermosphere from analysis of the AE-C accelerometer measurements
  85. Variations in the atmospheric neutral density at 145km
  86. The role of fluctuations in the interplanetary magnetic field in determining the magnitude of substorm activity
  87. Plasma-sheet ions at lunar distance preceding substorm onset