Bibcode
                                    
                            Bonet, J. A.; Márquez, I.; Sánchez-Almeida, J.; Palacios, J.; Martínez Pillet, V.; Solanki, S. K.; del Toro Iniesta, J. C.; Domingo, V.; Berkefeld, T.; Schmidt, W.; Gandorfer, A.; Barthol, P.; Knölker, M.
    Referencia bibliográfica
                                    The Astrophysical Journal Letters, Volume 723, Issue 2, pp. L139-L143 (2010).
Fecha de publicación:
    
                        11
            
                        2010
            
  Número de citas
                                    116
                            Número de citas referidas
                                    104
                            Descripción
                                    We characterize the observational properties of the convectively driven
vortex flows recently discovered on the quiet Sun, using magnetograms,
Dopplergrams, and images obtained with the 1 m balloon-borne SUNRISE
telescope. By visual inspection of time series, we find some 3.1 ×
10-3 vortices Mm-2 minute-1, which is a
factor of ~1.7 larger than previous estimates. The mean duration of the
individual events turns out to be 7.9 minutes, with a standard deviation
of 3.2 minutes. In addition, we find several events appearing at the
same locations along the duration of the time series (31.6 minutes).
Such recurrent vortices show up in the proper motion flow field map
averaged over the time series. The typical vertical vorticities are
lsim6 × 10-3 s-1, which corresponds to a
period of rotation of some 35 minutes. The vortices show a preferred
counterclockwise sense of rotation, which we conjecture may have to do
with the preferred vorticity impinged by the solar differential
rotation.
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    Los campos magnéticos son uno de los ingredientes fundamentales en la formación de estrellas y su evolución. En el nacimiento de una estrella, los campos magnéticos llegan a frenar su rotación durante el colapso de la nube molecular, y en el fin de la vida de una estrella, el magnetismo puede ser clave en la forma en la que se pierden las capas
            
            Tobías
            
                        Felipe García