VK allocate(bc_normal_vec_gradient(2)) VK allocate(bc_trafo_gradient(2))
VK bc_trafo_gradient(1)%identity = .false. VK bc_normal_vec_gradient(1) = .true.
VK ! density for viscous terms VK bc_state_gradient(1,1) = bc_state(1) VK kvp%key = trim(bc_state_gradient(1,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! v_normal for viscous terms VK bc_state_gradient(2,1)%state_name = 'v_norm' VK bc_state_gradient(2,1)%style = 'dirichlet_mirror' VK bc_state_gradient(2,1)%isDefined = .true. VK kvp%key = trim(bc_state_gradient(2,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! v_tan for viscous terms VK call atl_load_bc_state( bc = bc_state_gradient(3,1), & VK & state_name = 'v_tan', & VK & style = 'dirichlet_mirror', & VK & conf = conf, & VK & bc_handle = thandle, & VK & varsys = equation%varsys, & VK & varDict = bc_varDict_gradient )
VK ! v_tan for viscous terms VK call atl_load_bc_state( bc = bc_state_gradient(4,1), & VK & state_name = 'v_tan2', & VK & style = 'dirichlet_mirror', & VK & conf = conf, & VK & bc_handle = thandle, & VK & varsys = equation%varsys, & VK & varDict = bc_varDict_gradient )
VK ! Temperature for viscous terms VK call atl_load_bc_state( bc = bc_state_gradient(pIndex,1), & VK & state_name = 'temperature', & VK & style = 'dirichlet_mirror', & VK & conf = conf, & VK & bc_handle = thandle, & VK & varsys = equation%varsys, & VK & varDict = bc_varDict_gradient )
VK bc_trafo_gradient(1)%identity = .false. VK bc_normal_vec_gradient(1) = .true.
VK ! density for viscous terms VK bc_state_gradient(1,1) = bc_state(1) VK kvp%key = trim(bc_state_gradient(1,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! v_normal for viscous terms VK bc_state_gradient(2,1)%state_name = 'v_norm' VK bc_state_gradient(2,1)%style = 'dirichlet_mirror' VK bc_state_gradient(2,1)%isDefined = .true. VK kvp%key = trim(bc_state_gradient(2,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! v_tan for viscous terms VK bc_state_gradient(3,1)%state_name = 'v_tan' VK bc_state_gradient(3,1)%style = 'dirichlet_mirror' VK bc_state_gradient(3,1)%isDefined = .true. VK kvp%key = trim(bc_state_gradient(3,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! v_tan for viscous terms VK bc_state_gradient(4,1)%state_name = 'v_tan2' VK bc_state_gradient(4,1)%style = 'dirichlet_mirror' VK bc_state_gradient(4,1)%isDefined = .true. VK kvp%key = trim(bc_state_gradient(4,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! Energy for viscous terms VK bc_state_gradient(pIndex,1) = bc_state(pIndex) VK kvp%key = trim(bc_state_gradient(pIndex,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK bc_trafo_gradient(1)%identity = .false. VK bc_normal_vec_gradient(1) = .true.
VK ! density for viscous terms VK bc_state_gradient(1,1) = bc_state(1) VK kvp%key = trim(bc_state_gradient(1,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! v_normal for viscous terms VK bc_state_gradient(2,1)%state_name = 'v_norm' VK bc_state_gradient(2,1)%style = 'dirichlet_mirror' VK bc_state_gradient(2,1)%isDefined = .true. VK kvp%key = trim(bc_state_gradient(2,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! v_tan for viscous terms VK bc_state_gradient(3,1)%state_name = 'v_tan' VK bc_state_gradient(3,1)%style = 'neumann' VK bc_state_gradient(3,1)%isDefined = .true. VK kvp%key = trim(bc_state_gradient(3,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! v_tan for viscous terms VK bc_state_gradient(4,1)%state_name = 'v_tan2' VK bc_state_gradient(4,1)%style = 'neumann' VK bc_state_gradient(4,1)%isDefined = .true. VK kvp%key = trim(bc_state_gradient(4,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK ! Energy for viscous terms VK bc_state_gradient(pIndex,1) = bc_state(pIndex) VK kvp%key = trim(bc_state_gradient(pIndex,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
VK kvp%key = trim(bc_state_gradient(iVar,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp ) VK bc_trafo_gradient(1)%identity = .false. VK bc_normal_vec_gradient(1) = .true.
VK bc_state_gradient(iVar, 1) = bc_state_gradient(iVar,2) VK kvp%key = trim(bc_state_gradient(iVar,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp ) VK bc_trafo_gradient(1)%identity = .false. VK bc_normal_vec_gradient(1) = .true.
VK bc_state_gradient(iVar, 1) = bc_state_gradient(iVar,2) VK kvp%key = trim(bc_state_gradient(iVar,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp ) VK bc_trafo_gradient(1)%identity = .false. VK bc_normal_vec_gradient(1) = .true.
VK bc_state_gradient(iVar,1) = bc_state_gradient(iVar,2) VK kvp%key = trim(bc_state_gradient(iVar,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp ) VK bc_trafo_gradient(1)%identity = .false. VK bc_normal_vec_gradient(1) = .true.
VK bc_state_gradient(iVar,1) = bc_state_gradient(iVar,2) VK kvp%key = trim(bc_state_gradient(iVar,1)%state_name) VK call append( me = bc_varDict_gradient, val = kvp )
Type | Intent | Optional | Attributes | Name | ||
---|---|---|---|---|---|---|
class(atl_Equations_type), | intent(inout) | :: | equation | |||
type(tem_bc_state_type), | intent(out), | allocatable | :: | bc_state(:) | ||
type(tem_bc_state_type), | intent(out), | allocatable | :: | bc_state_gradient(:) | ||
type(grw_stringkeyvaluepairarray_type), | intent(out) | :: | bc_varDict |
Dictionary of boundary variables in bc_state |
||
type(grw_stringkeyvaluepairarray_type), | intent(out) | :: | bc_varDict_gradient |
Dictionary of boundary variables in bc_state_gradient |
||
logical, | intent(out) | :: | bc_normal_vec | |||
logical, | intent(out) | :: | bc_normal_vec_gradient | |||
type(atl_eqn_var_trafo_type), | intent(out) | :: | bc_trafo | |||
type(atl_eqn_var_trafo_type), | intent(out) | :: | bc_trafo_gradient | |||
character(len=*), | intent(in) | :: | bc_label | |||
character(len=*), | intent(in) | :: | bc_kind | |||
integer, | intent(in) | :: | thandle | |||
type(flu_State) | :: | conf |