43 citations · 85 across the 2 of their papers we have counts for
5 papers
Modelling the solar transition region using an adaptive conduction method
C. D. Johnston, P. J. Cargill, A. W. Hood +3
Modelling the solar Transition Region with the use of an Adaptive Conduction (TRAC) method permits fast and accurate numerical solutions of the field-aligned hydrodynamic equations…
Understanding Heating in Active Region Cores through Machine Learning I. Numerical Modeling and Predicted Observables
W. T. Barnes, S. J. Bradshaw, N. M. Viall
To adequately constrain the frequency of energy deposition in active region cores in the solar corona, systematic comparisons between detailed models and observational data are nee…
A Fast and Accurate Method to Capture the Solar Corona/Transition Region Enthalpy Exchange
C. D. Johnston, S. J. Bradshaw
The brightness of the emission from coronal loops in the solar atmosphere is strongly dependent on the temperature and density of the confined plasma. After a release of energy, th…
Chromospheric Nanoflares as a Source of Coronal Plasma: II. Repeating Nanoflares
Stephen J. Bradshaw, James A. Klimchuk
The million degree plasma of the solar corona must be supplied by the underlying layers of the atmosphere. The mechanism and location of energy release, and the precise source of c…
Diagnosing the time-dependence of active region core heating from the emission measure: II. Nanoflare trains
Jeffrey W. Reep, Stephen J. Bradshaw, James A. Klimchuk
The time-dependence of heating in solar active regions can be studied by analyzing the slope of the emission measure distribution cool-ward of the peak. In a previous study we show…