The structure of radiative slow-mode shocks

Physics

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Magnetic Field Reconnection, Magnetohydrodynamic Waves, Propagation Velocity, Shock Wave Propagation, Solar Flares, Gas Dynamics, Rankine-Hugoniot Relation, Solar Corona, Thermal Conductivity

Scientific paper

The structure of slow-mode MHD shocks in a plasma where both radiation and thermal conduction are important is investigated. In such a plasma, a slow shock dissociates into an extended foreshock, an isothermal subshock, and a downstream radiative cooling region. The present numerical and analytical treatment focuses on the nearly switch-off shocks which are generated by magnetic reconnection in a strong magnetic field. These shocks convert magnetic energy into kinetic energy and heat; for typical flare conditions, about 2/3 of the conversion occurs in the subshock while the remaining 1/3 occurs in the foreshock. No stable, steady-state solutions exist for radiative slow shocks, unless the temperature in the radiative region downstream of the subshock falls below 100,000 K. These results suggest that about 2/3 of the magnetic energy released in flare loops is released at the top of the loop, while the remaining 2/3 is released in the legs of the loop.

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