Effect of coupled electron-proton thermal conductivities on the two-fluid solutions for the quiet solar wind

Statistics – Computation

Scientific paper

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Coupled Modes, Solar Electrons, Solar Protons, Solar Wind, Thermal Conductivity, Two Fluid Models, Computational Fluid Dynamics, Electron Energy, Flux Vector Splitting, Magnetohydrodynamic Waves, Proton Energy, Solar Wind Velocity

Scientific paper

A numerical study of the effect of using coupled electron-proton thermal conduction terms in the two-fluid model equations for the quiet solar wind is presented. Modifications to the standard case solutions at 1 AU which are found to improve the agreement between theoretical predictions and observations include: (1) large increases in the proton temperature and proton thermal conduction energy; (2) a large increase in the bulk (streaming) velocity common to both protons and electrons; and (3) a decrease in the electron temperature and electron thermal conduction energy. A modified shooting-splitting numerical method is discussed.

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