Numerical simulation of compressible convection in dense hydrogen-helium fluids - A novel instability

Astronomy and Astrophysics – Astrophysics

Scientific paper

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Compressible Flow, Convective Flow, Flow Stability, Gas Giant Planets, Helium Hydrogen Atmospheres, Jupiter Atmosphere, Astronomical Models, Computerized Simulation

Scientific paper

Real gas effects can profoundly influence the stability properties of dense material such as that residing in Jovian planetary interiors. The author presents a simplified stability analysis and multidimensional numerical simulation of an isothermal model of a Jovian planet that demonstrates convective instability caused by real gas effects at high densities in a system that is normally considered to be stable. This instability is driven by the significant increase of the specific heat with density that occurs for densities greater than about 0.1 g cm-3. The author also reaches some definite conclusions about the methods and procedures required to produce accurate numerical simulations of compressible convection.

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