All Stories

  1. Breaking Down the Wall That Historically Separates the Atmosphere, Ionosphere, and Magnetosphere (AIM) Communities: AGU Chapman Conference on AIM Coupling
  2. (Un)Explained EMIC Waves: Understanding Quiet Time EMIC Wave Drivers
  3. Precipitation of Energetic Particles from Magnetosphere and Their Effects on the Atmosphere: An ISSI Team Meeting Review
  4. Generation of Coincident EMIC and Whistler Mode Waves by Solar Wind Compression
  5. Guide for Conducting “Community Challenges” in Space Physics
  6. Observations of electron precipitation correlated with drift echoes
  7. Working towards more equitable  recomendations and nomination letters: Equitable Letters for Space and Physics
  8. Chapman conference: Particle Precipitation: Drivers, Properties, and Impacts on Atmosphere, Ionosphere, Magnetosphere (AIM) Coupling – Feb 2025 at RMIT in Melbourne, AU
  9. Magnetospheric Auroral Asymmetry eXplorer: observing the auroral to uncover how energy flows in space - A Phase A SMEX Mission concept
  10. Statistical Analysis of EMIC waves and Particle Fluxes using POES and Van Allen Probes
  11. Understanding and Modeling the Dynamics of Storm‐Time Atmospheric Neutral Density Using Random Forests
  12. Guide for Conducting "Community Challenges" in Space Physics
  13. A Multi‐Platform Statistical Analysis of the Azimuthal Spatial Extent of the Microburst Precipitation Region
  14. Additions to Space Physics Data Facility and pysatNASA: Increasing Mars Global Surveyor and Mars Atmosphere and Volatile EvolutioN Dataset Utility
  15. A Survey of EMIC Waves in Van Allen Probe Data
  16. A survey of EMIC waves in Van Allen Probe data
  17. Field‐Aligned Currents Associated With Pulsating Auroral Patches: Observation With Magneto‐Impedance Magnetometer (MIM) Onboard Loss Through Auroral Microburst Pulsations (LAMP) Sounding Rocket
  18. Editorial: The future of space physics 2022
  19. Understanding and Modeling the Dynamics of Storm-time Atmospheric Neutral Density using Random Forests
  20. Persistent Pitch Angle Anisotropies of Relativistic Electrons in the Outer Radiation Belts
  21. Simultaneous Precipitation of Sub‐Relativistic Electron Microburst and Pulsating Aurora Electrons
  22. Recognition for All: A Way Forward to Enhance Diversity, Equity and Inclusion in Space Physics
  23. Will we find Martian lightning via Schumann resonances?
  24. The importance of recruitment and retention in Heliophysics: it’s not just a pipeline problem
  25. Observation of an Electron Microburst With an Inverse Time‐Of‐Flight Energy Dispersion
  26. Understanding Quiet and Storm Time EMIC Waves—Van Allen Probes Results
  27. The importance of extreme dynamic signatures in the sub-auroral region
  28. Developing standards, metrics, and systematic approaches for improved model performance verification and validation
  29. Space Weather Mission Extensions: A new look at life extensions and the senior review
  30. Using the Application Usability Levels for tracking the health of Heliophysics
  31. AUL Development Ecosystem
  32. Recommendations on Funding Mission Operations and Historical Datasets
  33. The Next Decade of Sounding Rockets that will lead the next 40 years of NASA Heliophysics missions
  34. Space Weather Operations and the need for Multiple Solar Observational Vantage Points
  35. Understanding the properties, wave drivers, and impacts of electron microburst precipitation: current understanding and critical knowledge gaps
  36. A system science perspective of the drivers of equatorial plasma bubbles
  37. Cross-Scale and Cross-Regime Coupling in the ITM: Studying Weather, not just Climate, in the Middle and Upper Atmosphere
  38. Data Needs to be …
  39. Artemis, Gateway, the return to the Moon and forward to Mars for Heliophysics
  40. Mentorship within Heliophysics
  41. The need for a Solar and Space Physics Knowledge Commons
  42. Responsible Machine Learning in Heliophysics
  43. Expanding the Deep Space Network to support the Heliophysics System Observatory
  44. An Inclusive Heliophysics Community
  45. The need for reference-able and peer reviewed position papers
  46. Raising Awareness on Mental Health in the Heliophysics Community
  47. This is a cry for help
  48. The Importance of Policies: It’s not just a pipeline problem
  49. A Strategic Vision for Understanding Inter-Hemispheric Asymmetries
  50. The Impacts of Lightning Beyond the Troposphere
  51. Improved Observations and Modeling for Aviation Radiation
  52. Expanding Heliophysics to Engage in Interdisciplinary Star-Planet Interactions Studies
  53. Science for all: The case for Citizen Science in all NASA missions
  54. Investigation of the drivers and atmospheric impacts of energetic electron precipitation
  55. Raising awareness on mental health in the heliophysics community
  56. Observation of an Electron Microburst With an Inverse Time-of-Flight Energy Dispersion
  57. Earth’s magnetosphere dynamics during “forced breathing” due to solar wind periodic density structures
  58. Equitable Letters for Space Physics
  59. Magnetospheric Auroral Asymmetry eXplorer: observing the aurora to uncover how energy flows in space
  60. Martian Ionospheric Magnetic Fluctuations
  61. Summary of Actions for a More Diverse Space Physics Research Community
  62. What if… we could observe the aurora in both hemispheres.
  63. Persistent pitch angle anisotropies of relativistic electrons in the outer radiation belts
  64. Simultaneous Precipitation of Sub-Relativistic Electron Microburst and Pulsating Aurora Electrons
  65. The Effect of Compression Induced Chorus Waves on 10–100 s eV Electron Precipitation
  66. Investigation of the drivers and atmospheric impacts of energetic electron precipitation
  67. Using Application Usability Levels to support tracking the health of Heliophysics
  68. Improved space weather observations and modeling for aviation radiation
  69. Cultivating a culture of inclusivity in heliophysics
  70. Star-exoplanet interactions: A growing interdisciplinary field in heliophysics
  71. Tips for writing a good recommendation letter
  72. A system science perspective of the drivers of equatorial plasma bubbles
  73. Expanding the deep space network to support the heliophysics system observatory
  74. Supporting responsible machine learning in heliophysics
  75. Thoughts from a past AGU SPA fellows committee
  76. Data needs to be a priority
  77. Recommendations on simple but transformative diversity, equity, and inclusion measures in Heliophysics over the next decade
  78. sami2py—Overview and applications
  79. How open data and interdisciplinary collaboration improve our understanding of space weather: A risk and resiliency perspective
  80. Correction to: The Van Allen Probes Electric Field and Waves Instrument: Science Results, Measurements, and Access to Data
  81. Science of the Van Allen Probes Science Operations Centers
  82. Impacts of acoustic and gravity waves on the ionosphere
  83. GMAG: An open-source python package for ground-based magnetometers
  84. Understanding the properties, wave drivers, and impacts of electron microburst precipitation: Current understanding and critical knowledge gaps
  85. AuroraX, PyAuroraX, and aurora-asi-lib: A user-friendly auroral all-sky imager analysis framework
  86. Quantifying the Size and Duration of a Microburst‐Producing Chorus Region on 5 December 2017
  87. Proton aurora and relativistic electron microbursts scattered by electromagnetic ion cyclotron waves
  88. Drift Phase Structure Implications for Radiation Belt Transport
  89. Quantifying the size and duration of a microburst-producing chorus region on 5 December 2017
  90. The Effect of Compression Induced Chorus Waves on 10s to 100s eV Electron Precipitation
  91. Drift Phase Structure Implications for Radiation Belt Transport
  92. A Strong Correlation Between Relativistic Electron Microbursts and Patchy Aurora
  93. A Strong Correlation Between Relativistic Electron Microbursts and Patchy Aurora
  94. On the Unexpected Correlation Between Relativistic Electron Microbursts and Patchy Pulsating Aurora
  95. Driving of Outer Belt Electron Loss by Solar Wind Dynamic Pressure Structures: Analysis of Balloon and Satellite Data
  96. Statistical Properties of Electron Curtain Precipitation Estimated With AeroCube‐6
  97. Tiny flying box: A study of upper sky things very close and very far away from each other.
  98. Statistical Properties of Electron Curtain Precipitation Estimated with AeroCube-6
  99. Association between EMIC wave occurrence and enhanced convection periods during ion injections
  100. Developing the LDi and LCi Geomagnetic Indices, an Example of Application of the AULs Framework
  101. Ultralow frequency-wave induced losses
  102. The petitSat mission – Science goals and instrumentation
  103. The Evolution of a Pitch‐Angle “Bite‐Out” Scattering Signature Caused by EMIC Wave Activity: A Case Study
  104. Generation of EMIC Waves and Effects on Particle Precipitation During a Solar Wind Pressure Intensification With B z >0
  105. On the Contribution of EMIC Waves to the Reconfiguration of the Relativistic Electron Butterfly Pitch Angle Distribution Shape on 2014 September 12—A Case Study*
  106. The Space Physics Environment Data Analysis System (SPEDAS)
  107. Application usability levels: a framework for tracking project product progress
  108. How do interplanetary shock impact angles control the size of the geoeffective magnetosphere?
  109. Snakes on a Spaceship - An Overview of Python in Heliophysics
  110. Pitch Angle Scattering and Loss of Radiation Belt Electrons in Broadband Electromagnetic Waves
  111. NASA and University of Houston’s Approach in Engaging and Developing Undergraduate Students’ Skills Through Undergraduate Student Instrumentation Project
  112. Ion Injection Triggered EMIC Waves in the Earth's Magnetosphere
  113. Geomagnetically induced currents caused by interplanetary shocks with different impact angles and speeds
  114. The Role of Localized Compressional Ultra-low Frequency Waves in Energetic Electron Precipitation
  115. The Undergraduate Student Instrumentation Project: A Foray into Instrument Design, Payload Fabrication, and Project Management
  116. Space physics and policy for contemporary society
  117. Investigating energetic electron precipitation through combining ground‐based and balloon observations
  118. EMIC waves and associated relativistic electron precipitation on 25-26 January 2013
  119. Dependence of EMIC wave parameters during quiet, geomagnetic storm, and geomagnetic storm phase times
  120. BARREL observations of a solar energetic electron and solar energetic proton event
  121. Interplanetary shocks and the resulting geomagnetically induced currents at the equator
  122. Observations of coincident EMIC wave activity and duskside energetic electron precipitation on 18-19 January 2013
  123. Global-scale coherence modulation of radiation-belt electron loss from plasmaspheric hiss
  124. A summary of the BARREL campaigns: Technique for studying electron precipitation
  125. Simulation of ULF wave-modulated radiation belt electron precipitation during the 17 March 2013 storm
  126. BARREL observations of an ICME-shock impact with the magnetosphere and the resultant radiation belt electron loss
  127. EMIC waves and plasmaspheric and plume density: CRRES results
  128. New conjunctive CubeSat and balloon measurements to quantify rapid energetic electron precipitation
  129. The Balloon Array for RBSP Relativistic Electron Losses (BARREL)
  130. EMIC wave activity during geomagnetic storm and nonstorm periods: CRRES results
  131. Latitudinal and seasonal variations of quasiperiodic and periodic VLF emissions in the outer magnetosphere