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ryujin 2.1.1 revision 665be064db9191ddfc91f0f5f92c0adedb36338b
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#include <source/euler/initial_state_astro_jet.h>
Public Types | |
using | HyperbolicSystem = typename Description::HyperbolicSystem |
using | View = typename Description::template HyperbolicSystemView< dim, Number > |
using | state_type = typename View::state_type |
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using | View = typename Description::template HyperbolicSystemView< dim, Number > |
using | state_type = typename View::state_type |
using | initial_precomputed_type = typename View::initial_precomputed_type |
Public Member Functions | |
AstroJet (const HyperbolicSystem &hyperbolic_system, const std::string subsection) | |
state_type | compute (const dealii::Point< dim > &point, Number) final |
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InitialState (const std::string &name, const std::string &subsection) | |
virtual state_type | compute (const dealii::Point< dim > &point, Number t)=0 |
virtual initial_precomputed_type | initial_precomputations (const dealii::Point< dim > &) |
const auto & | name () const |
The astrophysical jet problem introduced in [18] without radiative cooling. General set up in standard SI units is:
Ambient state: (rho, u, p) = (5, 0, 0.4127); Mach 80 jet: (rho, u, p) = (5, 30, 0.4127), T = 0.07; Mach 200 jet: (rho, u, p) = (5, 800, 0.4127), T = 0.001;
See section 4.4 of reference for more details.
Definition at line 27 of file initial_state_astro_jet.h.
using ryujin::EulerInitialStates::AstroJet< Description, dim, Number >::HyperbolicSystem = typename Description::HyperbolicSystem |
Definition at line 30 of file initial_state_astro_jet.h.
using ryujin::EulerInitialStates::AstroJet< Description, dim, Number >::View = typename Description::template HyperbolicSystemView<dim, Number> |
Definition at line 31 of file initial_state_astro_jet.h.
using ryujin::EulerInitialStates::AstroJet< Description, dim, Number >::state_type = typename View::state_type |
Definition at line 33 of file initial_state_astro_jet.h.
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inline |
Definition at line 35 of file initial_state_astro_jet.h.
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inlinefinalvirtual |
Given a position point
returns the corresponding (conserved) initial state. The function is used to interpolate initial values and enforce Dirichlet boundary conditions. For the latter, the function signature has an additional parameter t
denoting the current time to allow for time-dependent (in-flow) Dirichlet data.
Implements ryujin::InitialState< Description, dim, Number >.
Definition at line 75 of file initial_state_astro_jet.h.