Filament Eruption in NOAA 11093 Leading to a Two-Ribbon M1 Class Flare and CME
arXiv:1103.3168 · doi:10.1007/s11207-011-9903-6
Abstract
We present multi-wavelength analysis of an eruption event that occurred in Active Region (AR) NOAA 11093 on 7 August 2010, using data obtained from SDO, STEREO, RHESSI and GONG H network telescope. From these observations, we inferred that upward slow rising motion of an inverse S-shaped filament lying along the polarity inversion line (PIL) resulted in a CME subsequent to a two-ribbon flare. Interaction of overlying field line across the filament with side lobe field lines, associated EUV brightening, and flux emergence/cancellation around the filament were the observational signatures of the processes leading to its destabilization and the onset of eruption. Moreover, the rising motion profile of filament/flux rope corresponded well with flare characteristics, viz., the reconnection rate and HXR emission profiles. Flux rope accelerated to the maximum velocities as a CME at the peak phase of the flare, followed by deceleration to an average velocity of 590 kms. We suggest that the observed emergence/cancellation of magnetic fluxes near the filament caused it to rise, resulting in the tethers to cut and reconnection to take place beneath the filament; in agreement with the tether cutting model. The corresponding increase/decrease in positive/negative photospheric fluxes found in the post-peak phase of the eruption provides unambiguous evidence of reconnection as a consequence of tether cutting.
arXiv comment19 Pages, 9 figures, Submitted in Solar Physics
References in corpus (7)
- A Model for Solar Coronal Mass Ejections
- Torus instability
- The Magnetic Topology of Solar Eruptions
- Observational Evidence of Back-reaction on the Solar Surface Associated with Coronal Magnetic Restructuring in Solar Eruptions
- The Eruption from a Sigmoidal Solar Active Region on 2005 May 13
- How are Emerging Flux, Flares and CMEs Related to Magnetic Polarity Imbalance in MDI Data?
- A Technique for Automated Determination of Flare-ribbon Separation and Energy Release
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