The Rotation Of The Deep Solar Layers
S. Couvidat, R. A. García, S. Turck-chièze, T. Corbard, C. J. Henney
Abstract
S. Couvidat, R. A. García, S. Turck-chièze, T. Corbard, C. J. Henney
Abstract
From the analysis of low-order GOLF+MDI sectoral modes (ℓ ≤ 3, 6 ≤ n ≤ 15, |m | = ℓ) and LOWL data (ℓ> 3), we derive the radial rotation profile assuming no latitudinal dependance in the solar core. These low-order acoustic modes contain the most statistically significant information about rotation of the deepest solar layers and should be least influenced by internal variability associated with the solar dynamo. After correction of the sectoral splittings for their contamination by the rotation of the higher latitudes, we obtain a flat rotation profile down to 0.2 R⊙.
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From the analysis of low-order GOLF+MDI sectoral modes (ℓ ≤ 3, 6 ≤ n ≤ 15, |m | = ℓ) and LOWL data (ℓ> 3), we derive the radial rotation profile assuming no latitudinal dependance in the solar core. These low-order acoustic modes contain the most statistically significant information about rotation of the deepest solar layers and should be least influenced by internal variability associated with the solar dynamo. After correction of the sectoral splittings for their contamination by the rotation of the higher latitudes, we obtain a flat rotation profile down to 0.2 R⊙.
Key concepts: Solar rotation, Physics, Rotation (mathematics), Dynamo, Solar physics, Latitude, Astrophysics, Helioseismology