List of FV Ghost Cell Boundary Conditions

A list of the Finite Volume boundary conditions is generated here:

BC 3003

FvBndryCndXD::bc3003()

no-slip adiabatic wall boundary condition
u=v=w=0; drho/dn=dp/dn=0;

BC 4000

FvBndryCndXD::bc4000()

no-slip adiabatic wall boundary condition with velocity component in periodic direction
u=v, w=factor*u_in; drho/dn=dp/dn=0;

BC 4001

FvBndryCndXD::bc4001()

no-slip adiabatic wall boundary condition
u=v=w=0; drho/dn=dp/dn=0;

BC 3011

FvBndryCndXD::bc3011()

no-slip isothermal wall boundary condition
u=v=w=0; drho/dn=dp/dn=0;

BC 3002

FvBndryCndXD::bc3002()

slip adiabatic wall boundary condition
u_n=0; du_t/dn=0; drho/dn=dp/dn=0
dp/dn=0 is only valid for walls without streamwise curvature!

BC 1

FvBndryCndXD::bc01()

Zero boundary condition: ghost cells set to infinity flow conditions (initial condition)
Debug boundary condition
Set of variables: Standard CV
u=v=w=0, rho=1, p=1/gamma

Author

Claudia Guenther

BC 1000

FvBndryCndXD::bc1000()

Zero boundary condition: ghost cells set to quiescent flow (initial condition)
Set of variables: Standard CV
u=v=w=0, rho=1, p=1/gamma

Author

Claudia Guenther

BC 1001

FvBndryCndXD::bc1001()

Subsonic inflow boundary condition.
Set of variables: Standard CV
u=v=w=IF; rho=rhoIF; dp/dn=0;

Author

Daniel Hartmann

Date

November 11, 2006 (3D)

BC 1002

FvBndryCndXD::bc1002()

Subsonic outflow boundary condition. Set of variables: Standard CV
du/dn=dv/dn=dw/dn=0; drho/dn=0; p=pIF;

3D version

Author

Daniel Hartmann

Date

November 11, 2006 (3D)

BC 1009

FvBndryCndXD::bc1009()

Subsonic inflow boundary condition for cavity flow with different Mach number.
Set of variables: Standard CV
u=v=w=IF; rho=rhoIF; dp/dn=0;

Author

Jannik Borgelt

Date

November 01, 2020 (3D)

BC 1091

FvBndryCndXD::bc1091()

Subsonic laminar tube inflow boundary condition normal to the boundary
Set of variables: Standard PV
prescribes a constant stagnation pressure
density and pressure are computed according to massflux
velocity is computed according to massflux such that a parabolic profile is attained
only valid for circular tubes

multiple ghost cells can be handled but MGC formulation is not used surface ghost cells can not be handled

no 2D version available

Author

Claudia Guenther

Date

June 2009, modified Mai 2010

BC 1101

FvBndryCndXD::bc1101()

Subsonic inflow boundary condition for reactants.
Set of variables: Standard CV
u=v=w=IF; rho=rhoIF; dp/dn=0; Yi=Yi81

BC 1102

FvBndryCndXD::bc1102()

Subsonic outflow boundary condition for products.
Set of variables: Standard CV
du/dn=dv/dn=dw/dn=0; drho/dn=0; p=pIF; Yi = Yi82

BC 2907

FvBndryCndXD::bc2907()

Coflow bc
Set of variables: Standard CV
u=w=0, v= v_coflow; drho/dn=dp/dn=0;

BC 3006

FvBndryCndXD::bc3006()

Moving wall Navier-Stokes boundary condition.

Author

Lennart Schneiders

BC 3007

FvBndryCndXD::bc3007()

Moving wall Euler boundary condition.

Author

Lennart Schneiders

BC 3466

FvBndryCndXD::bc3466()

Simple shear flow

BC 3600

FvBndryCndXD::bc3600()

Simple and fast fixed adiabatic wall boundary condition for use with the flux-redistribution method

Author

Lennart Schneiders

BC 100100

FvBndryCndXD::bc100100()

Symmetry boundary condition about x-axis

Author

Claudia Guenther

Date

01/2014

BC 1091 MGC

FvBndryCndXD::bc1091MGC()

Subsonic laminar tube inflow boundary condition normal to the boundary - multiple ghost cells

Set of variables: Standard PV
prescribes a constant stagnation pressure
density and pressure are computed according to massflux
velocity is computed according to massflux such that a parabolic profile is attained
only valid for circular tubes

special formulation for complex boundaries with multiple ghost cells
works also for surface ghost cells (m_surfaceGhostCell = true)

no 2D version available

minimum number of time steps is prescribed for different testcases
which is required to obtain a massflux different from zero

Author

Claudia Guenther

Date

June 2009, modified Mai 2010

BC 1099 MGC

FvBndryCndXD::bc1099MGC()

Subsonic outflow boundary condition - MGC formulation
Set of variables: Standard PV
static pressure is prescribed with the pressure loss L*m_deltaP (see initialCondition)
density and velocities are assumed not to change in normal direction

multiple ghost cells are handled - MGC formulation is used
surface Ghost cells can be handled

L has to be specified for the respective testcase (approximative length between inflow and outflow) used to compute the pressure loss

no 2D version available

Author

Claudia Guenther

Date

Mai 2009, modified April 2010