Aims. We present direct evidence of the detection of the main energy release site in a non-eruptive solar flare, SOL2013-11-09T06:38 UT. This GOES class C2.6 event was characterised by two flaring ribbons and a compact, bright coronal source located between them, which is the focus of our study. Methods. We use imaging from SDO/AIA, and imaging spectroscopy from RHESSI to characterise the thermal and non-thermal emission from the coronal source, and EUV spectroscopy from the Hinode/Extreme ultraviolet Imaging Spectrometer, which scanned the coronal source during the impulsive peak, to analyse Doppler shifts in Fe xi
Context. We present an analysis of a GOES M1.8 flare with excellent observational coverage in UV, ex...
X-ray and extreme ultraviolet (EUV) observations are an important diagnostic of various plasma param...
Context: The impulsive phase of solar flares is a time of rapid energy deposition and heating in the...
Aims. We present direct evidence of the detection of the main energy release site in a non-eruptive ...
We present direct evidence for the detection of the main energy release site in a non-eruptive solar...
Context. Coordinated observations of a GOES B4.8 microflare with SDO’s Atmospheric Imaging...
Context. Coordinated observations of a GOES B4.8 microflare with SDO’s Atmospheric Imaging...
<p>We investigate the release of magnetic energy stored within the solar atmosphere, the driving for...
To solve a number of problems in solar physics related to mechanisms of energy release in solar coro...
We investigate the release of magnetic energy stored within the solar atmosphere, the driving force ...
Context. The impulsive phase of solar flares is a time of rapid energy deposition and heating in the...
Context. The impulsive phase of solar flares is a time of rapid energy deposition and heating in the...
Context. The impulsive phase of solar flares is a time of rapid energy deposition and heating in the...
Context. We present an analysis of a GOES M1.8 flare with excellent observational coverage in UV, ex...
Context. We present an analysis of a GOES M1.8 flare with excellent observational coverage in UV, ex...
Context. We present an analysis of a GOES M1.8 flare with excellent observational coverage in UV, ex...
X-ray and extreme ultraviolet (EUV) observations are an important diagnostic of various plasma param...
Context: The impulsive phase of solar flares is a time of rapid energy deposition and heating in the...
Aims. We present direct evidence of the detection of the main energy release site in a non-eruptive ...
We present direct evidence for the detection of the main energy release site in a non-eruptive solar...
Context. Coordinated observations of a GOES B4.8 microflare with SDO’s Atmospheric Imaging...
Context. Coordinated observations of a GOES B4.8 microflare with SDO’s Atmospheric Imaging...
<p>We investigate the release of magnetic energy stored within the solar atmosphere, the driving for...
To solve a number of problems in solar physics related to mechanisms of energy release in solar coro...
We investigate the release of magnetic energy stored within the solar atmosphere, the driving force ...
Context. The impulsive phase of solar flares is a time of rapid energy deposition and heating in the...
Context. The impulsive phase of solar flares is a time of rapid energy deposition and heating in the...
Context. The impulsive phase of solar flares is a time of rapid energy deposition and heating in the...
Context. We present an analysis of a GOES M1.8 flare with excellent observational coverage in UV, ex...
Context. We present an analysis of a GOES M1.8 flare with excellent observational coverage in UV, ex...
Context. We present an analysis of a GOES M1.8 flare with excellent observational coverage in UV, ex...
X-ray and extreme ultraviolet (EUV) observations are an important diagnostic of various plasma param...
Context: The impulsive phase of solar flares is a time of rapid energy deposition and heating in the...