Crucial future observations and directions for unveiling magnetopause dynamics and their geospace impacts

The dynamics of Earth’s magnetopause, driven by several different external/internal physical processes, plays a major role in the geospace energy budget. Given magnetopause motion couples across many space plasma regions, numerous forms of observations may provide valuable information in understanding these dynamics and their impacts. In-situ multi-point spacecraft measurements measure the local plasma environment, dynamics and processes; with upcoming swarms providing the possibility of improved spatiotemporal reconstruction of dynamical phenomena, and multi-mission conjunctions advancing understanding of the “mesoscale” coupling across the geospace “system of systems.” Soft X-ray imaging of the magnetopause should enable boundary motion to be directly remote sensed for the first time. Indirect remote sensing capabilities might be enabled through the field-aligned currents associated with disturbances to the magnetopause; by harnessing data from satellite mega-constellations in low-Earth orbit, and taking advantage of upgraded auroral imaging and ionospheric radar technology. Finally, increased numbers of closely-spaced ground magnetometers in both hemispheres may help discriminate between high-latitude processes in what has previously been a “zone of confusion.” Bringing together these multiple modes of observations for studying magnetopause dynamics is crucial. These may also be aided by advanced data processing techniques, such as physics-based inversions and machine learning methods, along with comparisons to increasingly sophisticated geospace assimilative models and simulations.

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Publication Details

Journal
Frontiers in Astronomy and Space Sciences
Published
2024-08-05
DOI
https://doi.org/10.3389/fspas.2024.1430099
Citations
9
Primary Topic
Ionosphere and magnetosphere dynamics
Type
article
Field-Weighted Citation Impact
2.98

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article

Crucial future observations and directions for unveiling magnetopause dynamics and their geospace impacts

Martin Archer, K. Nykyri, Frances Staples, Maria‐Theresia Walach et al.
9 citations
Frontiers in Astronomy and Space Sciences
Ionosphere and magnetosphere dynamics
2.98
article

Crucial future observations and directions for unveiling magnetopause dynamics and their geospace impacts

Martin Archer, K. Nykyri, Frances Staples, Maria‐Theresia Walach, Xueling Shi, Simone Di Matteo, D. M. Gillies, Michael D. Hartinger
article en
9 citations

Abstract

The dynamics of Earth’s magnetopause, driven by several different external/internal physical processes, plays a major role in the geospace energy budget. Given magnetopause motion couples across many space plasma regions, numerous forms of observations may provide valuable information in understanding these dynamics and their impacts. In-situ multi-point spacecraft measurements measure the local plasma environment, dynamics and processes; with upcoming swarms providing the possibility of improved spatiotemporal reconstruction of dynamical phenomena, and multi-mission conjunctions advancing understanding of the “mesoscale” coupling across the geospace “system of systems.” Soft X-ray imaging of the magnetopause should enable boundary motion to be directly remote sensed for the first time. Indirect remote sensing capabilities might be enabled through the field-aligned currents associated with disturbances to the magnetopause; by harnessing data from satellite mega-constellations in low-Earth orbit, and taking advantage of upgraded auroral imaging and ionospheric radar technology. Finally, increased numbers of closely-spaced ground magnetometers in both hemispheres may help discriminate between high-latitude processes in what has previously been a “zone of confusion.” Bringing together these multiple modes of observations for studying magnetopause dynamics is crucial. These may also be aided by advanced data processing techniques, such as physics-based inversions and machine learning methods, along with comparisons to increasingly sophisticated geospace assimilative models and simulations.

Frontiers in Astronomy and Space SciencesVol. 11
NSF National Center for Atmospheric Research (US), NSF NCAR High Altitude Observatory (US), Space Science Institute (US), Planetary Science Institute (US), Goddard Space Flight Center (US), University of California, Los Angeles (US), University of Calgary (CA), University of America (US), Imperial College London (GB), Lancaster University (GB), Catholic University of America (US), Virginia Tech (US), Mount Royal University (CA)
National Science Foundation, National Aeronautics and Space Administration, UK Research and Innovation, Science and Technology Facilities Council
Peace, Justice and strong institutions
Openalex Percentile: Top 9%
Ionosphere and magnetosphere dynamics
2.98
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