Magnetic reconnection sustains the mass budget of the solar wind

The solar wind originates from open magnetic field regions on the Sun, but the processes relevant to its origin remain unsolved. We present a self-consistent numerical model of the source region of the wind, in which jets similar to those observed on the Sun naturally emerge due to magnetic reconnection between closed and open magnetic fields. In this process, material is transferred from closed to open field lines and fed into the solar wind. We quantified the mass flux through the magnetic field connected to the heliosphere and found that it greatly exceeds the amount required to sustain the wind. This supports a decades-old suspicion based on spectroscopic observations, indicating that magnetic reconnection in the low solar atmosphere could sustain the solar wind.

Publication Details

Journal
Springer Link (Chiba Institute of Technology)
Published
2025-09-30
DOI
https://doi.org/10.1051/0004-6361/202556696/pdf
Primary Topic
Solar and Space Plasma Dynamics
Type
article
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article

Magnetic reconnection sustains the mass budget of the solar wind

Springer Link (Chiba Institute of Technology)
Solar and Space Plasma Dynamics
article

Magnetic reconnection sustains the mass budget of the solar wind

article en

Abstract

The solar wind originates from open magnetic field regions on the Sun, but the processes relevant to its origin remain unsolved. We present a self-consistent numerical model of the source region of the wind, in which jets similar to those observed on the Sun naturally emerge due to magnetic reconnection between closed and open magnetic fields. In this process, material is transferred from closed to open field lines and fed into the solar wind. We quantified the mass flux through the magnetic field connected to the heliosphere and found that it greatly exceeds the amount required to sustain the wind. This supports a decades-old suspicion based on spectroscopic observations, indicating that magnetic reconnection in the low solar atmosphere could sustain the solar wind.

Springer Link (Chiba Institute of Technology)
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Solar and Space Plasma Dynamics
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