Barthol P., et al., 2011, Sol. Phys., 268, 1
Beckers J. M., 1968, Sol. Phys., 3, 367
Bonet J. A., Ma´ rquez I., Sa´ nchez Almeida J., Cabello I., Domingo V., 2008,
ApJ, 687, L131
Brandt P. N., Scharmer G. B., Ferguson S., Shine R. A., Tarbell T. D., 1988,
Nature, 335, 238
Hollweg J. V., Jackson S., Galloway D., 1982, Sol. Phys., 75, 35
Iijima H., 2016, PhD thesis, University of Tokyo, Department of Earth and
Planetary Environmental Science
Iijima H., Yokoyama T., 2015, ApJ, 812, L30
Iijima H., Yokoyama T., 2017, ApJ, 848, 38
Joshi J., de la Cruz Rodr´ıguez J., 2018, A&A, 619, A63
Kato Y., Steiner O., Steffen M., Suematsu Y., 2011, ApJ, 730, L24
Kato Y., Steiner O., Hansteen V., Gudiksen B., Wedemeyer S., Carlsson M.,
2016, ApJ, 827, 7
Katsukawa Y. et al., 2020, in Evans C. J., Bryant J. J., Motohara K., eds, Proc.
SPIE Conf. Ser. 11447, Ground-based and Airborne Instrumentation for
Astronomy VIII. SPIE, Bellingham, p. 114470Y
Kitiashvili I. N., Kosovichev A. G., Lele S. K., Mansour N. N., Wray A. A.,
2013, ApJ, 770, 37
Kudoh T., Shibata K., 1999, ApJ, 514, 493
Landi Degl’Innocenti E., Landolfi M., 2004, Polarization in Spectral Lines,
Vol. 307, Kluwer Academic Publishers, Dordrecht
Leenaarts J., Carlsson M., Hansteen V., Rouppe van der Voort L., 2009, ApJ,
694, L128
Morosin R., de la Cruz Rodr´ıguez J., D´ıaz Baso C. J., Leenaarts J., 2022,
A&A, 664, A8
Nelson C. J., Freij N., Bennett S., Erde´ lyi R., Mathioudakis M., 2019, ApJ,
883, 115
Osterbrock D. E., 1961, ApJ, 134, 347
Parker E. N., 1978, ApJ, 221, 368
Quintero Noda C. et al., 2017, MNRAS, 472, 727
Quintero Noda C. et al., 2019, MNRAS, 486, 4203
Quintero Noda C., et al., 2022, A&A, 666, A21
Rimmele T. R., et al., 2020, Sol. Phys., 295, 172
Robustini C., Leenaarts J., de la Cruz Rodr´ıguez J., 2018, A&A, 609, A14
Roy J. R., 1973, Sol. Phys., 28, 95
Shibata K., Nishikawa T., Kitai R., Suematsu Y., 1982, Sol. Phys., 77, 121
Shibata K. et al., 2007, Science, 318, 1591
Siu-Tapia A. L., Bellot Rubio L. R., Orozco Sua´ rez D., Gafeira R., 2020,
A&A, 642, A128
Spruit H. C., 1979, Sol. Phys., 61, 363
Sterling A. C., Hollweg J. V., 1988, ApJ, 327, 950
Tziotziou K., Tsiropoula G., Kontogiannis I., 2020, A&A, 643, A166
Uitenbroek H., 2001, ApJ, 557, 389
Wedemeyer-Bo¨ hm S., Rouppe van der Voort L., 2009, A&A, 507, L9
Wedemeyer-Bo¨ hm S., Scullion E., Steiner O., Rouppe van der Voort L., de
La Cruz Rodriguez J., Fedun V., Erde´ lyi R., 2012, Nature, 486, 505
Yokoyama T., Shibata K., 1996, PASJ, 48, 353
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the RMHD simulation. These properties are the manifestation of
the transition process from the ambient twisted field to the axial
field, which is consistent with the upwardly propagating non-linear
Alfve´ nic waves. The triggering process is still under investigation,
although we considered that the key mechanisms would the flux
merger, downflow along the core, or magnetic reconnection above
the twisted field.
Our prediction will be a useful tool for distinguishing the driving
mechanisms of chromospheric jets when combined with future
observations, such as SUNRISE III, DKIST, or EST. An appropriate
time cadence, integration time, and field of view should be selected
to fully capture the characteristic magnetic field associated with the
chromospheric jets.
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