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April 19, 2026SHILAP Revista de lepidopterología3 citationsOpen Access

Propagating Kink Waves in Chromospheric Jetlike Structures and Coronal Plumelets

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YQYouqian QiMGMingzhe GuoZHZhenghua Huang

Key Points

  • The study investigates the propagation of kink waves in chromospheric jetlike structures and coronal plumelets.
  • Utilized data from the High Resolution Imager of the Extreme Ultraviolet Imager on Solar Orbiter.
  • Conducted 3D magnetohydrodynamic (MHD) simulation of vertical and transverse perturbations.
  • Measured oscillation periods and displacements of jetlike structures and plumelets.
  • Identified kink waves with a period of approximately 95 s and a displacement of 193 km in the chromosphere.
  • Observed plumelet oscillations with a period of approximately 99 s and a displacement of 315 km.
  • Confirmed that both structures exhibit similar oscillation characteristics, suggesting a common wave origin.

Abstract

Abstract Coronal plumes and chromospheric jetlike structures are believed to be highly dynamic. We report the first direct observations of a propagating kink wave in a chromospheric jetlike structure and its associated plumelet structure in the upper corona of the solar polar region, using data from the High Resolution Imager of the Extreme Ultraviolet Imager on board Solar Orbiter. The dark jetlike structure exhibits transverse oscillation during upward propagation, with a period of approximately 95 s and a displacement of about 193 km. The corresponding plumelet also displays transverse motion, with an oscillation period of around 99 s and a displacement of about 315 km. Given that both the dark jetlike structure and the plumelet share the same magnetic skeleton and have similar oscillation period, we suggest that these oscillations are the same transverse propagating wave originating in the chromosphere. This scenario is further supported by a 3D magnetohydrodynamic (MHD) simulation, in which both vertical and transverse perturbations were introduced in a stratified magnetic flux tube. The simulation successfully reproduces the upward propagation of a kink wave through both the chromospheric jetlike structure and the coronal plumelet. These results highlight the potential role of transverse waves in transferring energy from the lower solar atmosphere to the corona.

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Cite This Study

Qi et al. (2026) studied this question.

synapsesocial.com/papers/69e4702d010ef96374d8d6a1https://doi.org/10.3847/1538-4357/ae5792
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