src.dycore.physics.gas_dynamics.numerical_flux#

Functions

`hll_solver`(flux, Lefts, Rights, Sol, lmbda, ...)	HLL solver for the Riemann problem.
`recompute_advective_fluxes`(flux, Sol, *args, ...)	Recompute the advective fluxes at the cell interfaces, i.e. the faces.

src.dycore.physics.gas_dynamics.numerical_flux.recompute_advective_fluxes(flux, Sol, *args, **kwargs)#

Recompute the advective fluxes at the cell interfaces, i.e. the faces. This function updates the flux container in-place.

Parameters#

fluxmanagement.variable.States: Data container for the fluxes at the cell interfaces.
Solmanagement.variable.States: Data container for the Solution.

This function is a mess and requires cleaning up.

src.dycore.physics.gas_dynamics.numerical_flux.hll_solver(flux, Lefts, Rights, Sol, lmbda, ud, th)#

HLL solver for the Riemann problem. Chooses the advected quantities from Lefts or Rights based on the direction given by flux.

fluxmanagement.variable.States: Data container for fluxes.
Leftsmanagement.variable.States: Container for the quantities on the left of the cell interfaces.
Rightsmanagement.variable.States: Container for the quantities on the right of the cell interfaces.
Solmanagement.variable.Vars: Solution data container.
lmbdafloat: \(\frac{dt}{dx}\), where \(dx\) is the grid-size in the direction of the substep.
udinputs.user_data.UserDataInit: Class container for the initial condition.
thphysics.gas_dynamics.thermodynamic.init: Class container for the thermodynamical constants.

management.variable.States: flux data container with the solution of the Riemann problem.