A simple model facilitates calculation of the influence of magnetic field configuration on the conduction cooling rate of a hot post-flare coronal plasma. The magnetic field is taken to be that produced by a line dipole or point dipole at an arbitrary depth below the chromosphere. For the high temperatures (T greater than or equal to 10 to the 7th power K) produced by flares, the plasma may remain static and isobaric. The influence of the field is such as to increase the heat flux (per unit area) into the chromosphere, but to decrease the total conduction cooling of the flare plasma. This leads to a significant enhancement of the total energy radiated by the flare plasma
In this article, we measure the mean magnetic shear from the morphological evolution of flare ribbon...
A b s t r a c t The currents, I- 10 " A, that are important in solar flares must close deep in ...
Context. Twisted magnetic fields should be ubiquitous in the solar corona, particularly in flare-pro...
The cooling of post-flare plasmas is discussed and the formation of loop prominences is explained as...
ABSTRACT---- We investigate a model for the decay of flare heated coronal loops in which rapid radia...
A one-dimensional loop model for the evaporative cooling of the coronal flare plasma was investigate...
The effect of the differential rotation of the disk of the Galaxy on magnetic field which penetrates...
Statistical properties of flares are a powerful tool for addressing the upper solar atmosphere heati...
Using the “enthalpy-based thermal evolution of loops” (EBTEL) model, we investigate the hydrodynamic...
Recent observational data cast serious doubt on the widely held view that the Sun's corona is heated...
The interaction of magnetic structures and the conversion of magnetic free energy into heating of th...
The chromospheric and coronal heating problems remain one of the foremost open questions in solar an...
Solar flare model atmospheres computed under the assumption of energetic equilibrium in the chromosp...
In order to test different models of coronal heating, we have investigated how the magnetic field st...
Coronal emission comes in two forms, a steady component where the corona is heated to million degree...
In this article, we measure the mean magnetic shear from the morphological evolution of flare ribbon...
A b s t r a c t The currents, I- 10 " A, that are important in solar flares must close deep in ...
Context. Twisted magnetic fields should be ubiquitous in the solar corona, particularly in flare-pro...
The cooling of post-flare plasmas is discussed and the formation of loop prominences is explained as...
ABSTRACT---- We investigate a model for the decay of flare heated coronal loops in which rapid radia...
A one-dimensional loop model for the evaporative cooling of the coronal flare plasma was investigate...
The effect of the differential rotation of the disk of the Galaxy on magnetic field which penetrates...
Statistical properties of flares are a powerful tool for addressing the upper solar atmosphere heati...
Using the “enthalpy-based thermal evolution of loops” (EBTEL) model, we investigate the hydrodynamic...
Recent observational data cast serious doubt on the widely held view that the Sun's corona is heated...
The interaction of magnetic structures and the conversion of magnetic free energy into heating of th...
The chromospheric and coronal heating problems remain one of the foremost open questions in solar an...
Solar flare model atmospheres computed under the assumption of energetic equilibrium in the chromosp...
In order to test different models of coronal heating, we have investigated how the magnetic field st...
Coronal emission comes in two forms, a steady component where the corona is heated to million degree...
In this article, we measure the mean magnetic shear from the morphological evolution of flare ribbon...
A b s t r a c t The currents, I- 10 " A, that are important in solar flares must close deep in ...
Context. Twisted magnetic fields should be ubiquitous in the solar corona, particularly in flare-pro...