lua_functions.c

Go to the documentation of this file.

namespace chi_lua
{
//framework/physics/SolverBase/lua/physics_solver_lua_utils.cc
/**Generic lua routine for the creation of solvers.
 * \param params ParameterBlock. A single block with at least one field
 *                   \"type\", which contains a registered solver type.
 * ## _
 *
 * Example:
\code
chiSolverCreate({type=cfem_diffusion.Solver})
\endcode
 
\ingroup doc_PhysicsSolver
\deprecated This function is deprecated and will be removed soon.
*/
void chiSolverCreate(ParameterBloc params){}
/** Initializes the solver at the given handle.
 
\param solver_handle int Handle to the solver.
 
\ingroup doc_PhysicsSolver
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_framework_post_processors_solver_info_01_lua  
\ref test_framework_post_processors_solver_info_02_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
void chiSolverInitialize(int solver_handle){}
/** Executes the solver at the given handle.
 
\param solver_handle int Handle to the solver.
 
\ingroup doc_PhysicsSolver
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
void chiSolverExecute(int solver_handle){}
/** Performs a single timestep for the solver at the given handle.
 
\param solver_handle int Handle to the solver.
 
\ingroup doc_PhysicsSolver
### Usage Examples:
\ref test_framework_post_processors_solver_info_01_lua  
\ref test_framework_post_processors_solver_info_02_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\author Jan*/
void chiSolverStep(int solver_handle){}
/** Advances the time values of the solver at the given handle.
 
\param solver_handle int Handle to the solver.
 
\ingroup doc_PhysicsSolver
### Usage Examples:
\ref test_framework_post_processors_solver_info_01_lua  
\ref test_framework_post_processors_solver_info_02_lua  
\author Jan*/
void chiSolverAdvance(int solver_handle){}
/** Sets a basic option of a solver.
 
\param solver_handle int Handle to the reference solver.
\param option_name   string String-name of the option.
\param option_value  varying The value to assign to the option.
 
\ingroup doc_PhysicsSolver
\deprecated This function is deprecated and will be removed soon.
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\author Jan*/
void chiSolverSetBasicOption(int solver_handle, string option_name, varying option_value){}
/** Returns the text name of the solver.
 
\param solver_handle int Handle to the solver.
 
\ingroup doc_PhysicsSolver
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\author Jan*/
void chiSolverGetName(int solver_handle){}
/**Obtains a named list of the field functions associated with a solver.
 
\param SolverHandle int A handle to the reference solver.
 
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ingroup doc_PhysicsSolver */
void chiSolverGetFieldFunctionList(int SolverHandle){}
/** Returns arbitrary info specific for each solver.
 
\param solver_handle int Handle to the solver.
\param info varying A single string or a table of values to call the solver
with.
 
\ingroup doc_PhysicsSolver
### Usage Examples:
\ref test_framework_post_processors_solver_info_01_lua  
\ref test_framework_post_processors_solver_info_02_lua  
\author Jan*/
void chiSolverGetInfo(int solver_handle, varying info){}
/**Sets a property of a solver.
\param handle int Solver handle.
\param property_table Table Table of properties to set. See solver specific
documentation.
*
\ingroup doc_PhysicsSolver*/
void chiSolverSetProperties(int handle, Table property_table){}
//framework/physics/lua/physics_addmaterial.cc
/** Adds a material to the problem. Materials are added to the global
 * physics handler and is therefore accessible across all meshes and solvers.
 *
\param Name char (Optional) Material name.
 
\return MaterialHandle int Handle to the created material.
 
 
##_
 
### Example\n
Example lua code:
\code
materials = {}
materials[1] = chiPhysicsAddMaterial("Test Material");
\endcode
 
 
\ingroup LuaPhysicsMaterials
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_materials_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
MaterialHandle chiPhysicsAddMaterial(char Name){}
//framework/physics/lua/physics_materialproperties.cc
/** Adds a material property to a material.
 *
\param MaterialHandle int Index to the reference material.
\param PropertyIndex int Property index.
 
##_
 
###PropertyIndex\n
 
SCALAR_VALUE\n
 Simple scalar value property.\n\n
 
TRANSPORT_XSECTIONS\n
 Multi-group transport cross-section supporting numerous features.\n\n
 
ISOTROPIC_MG_SOURCE\n
 Isotropic Multigroup Source.\n\n
 
### Developer Info
Checklist for adding a new material property:
 - Create your property class in its own header file. i.e.
   "physics/PhysicsMaterial/property_xx_myproperty.h"
 - Add the property to the physics namespace
   ("physics/chi_physics_namespace.h"). Make sure to derive from the base
   class.
 - Go define the integer to be associated with your new property in
   chi_physicsmaterial.h
 - Include the header file for your property in this file (i.e. at the top).
 - Add this property integer in the lua register (ChiLua/chi_lua_register.h).
   For testing you can just use the integer value but eventually you'd want
   to supply an easier way for users to enter it.
 - Add another else-if for your property. Just have a look at how the others
   were done, it should be intuitive enough.
 
##_
 
### Example\n
Example lua code:
\code
chiPhysicsMaterialAddProperty(materials[i],TRANSPORT_XSECTIONS)
\endcode
 
\ingroup LuaPhysicsMaterials
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_materials_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
void chiPhysicsMaterialAddProperty(int MaterialHandle, int PropertyIndex){}
/** Sets a material property for a given material.
 *
\param MaterialHandle int Index to the reference material.
\param PropertyIndex int Property index. Or name of property.
\param OperationIndex int Method used for setting the material property.
\param Information varying Varying information depending on the operation.
 
##_
 
###PropertyIndex\n
SCALAR_VALUE         =  Basic Scalar value property.\n
TRANSPORT_XSECTIONS   =  Multi-group transport cross-section supporting numerous
                        features.\n
ISOTROPIC_MG_SOURCE = Isotropic Multigroup Source.\n
 
###OperationIndex\n
SINGLE_VALUE\n
Sets the property based on a single value. Requires a single value as additional
information. As a simple example consider the case where the user would like
to set a single constant thermal conductivity. This can be achieved with \n
FROM_ARRAY\n
Sets a property based on a Lua array indexed from 1 to N. Internally
will be converted to 0 to N-1. This method can be used to set mutligroup
cross-sections or sources.
\n
SIMPLEXS0\n
Makes a simple material with no transfer matrix just \f$\sigma_t \f$. Expects two
values: \n
 - int number of groups \f$G \f$,
 - float \f$\sigma_t \f$.
 
####_
 
SIMPLEXS1\n
Makes a simple material with isotropic transfer matrix (L=0)
and mostly down scattering but with a few of the last groups
subject to up-scattering. Expects three values
values: \n
 - int number of groups (\f$G \f$),
 - float \f$\sigma_t \f$,
 - float scattering to total ratio (\f$c \f$)
 
####_
 
CHI_XSFILE\n
Loads transport cross-sections from CHI type cross-section files. Expects
to be followed by a filepath specifying the xs-file. 
 
####_
 
EXISTING\n
Supply handle to an existing cross-section and simply swap them out.
 
\code
chiPhysicsMaterialSetProperty(materials[1],
                              TRANSPORT_XSECTIONS,
                              CHI_XSFILE,
                              "xs_3_170.cxs",
                              "2518")
\endcode
 
##_
 
### Example 1
Simple temperature independent thermal conductivity:
\code
materials = {}
materials[1] = chiPhysicsAddMaterial("Test Material");
chiPhysicsMaterialAddProperty(materials[0],THERMAL_CONDUCTIVITY)
chiPhysicsMaterialSetProperty(materials[0],THERMAL_CONDUCTIVITY,SINGLE_VALUE,13.7)
\endcode
 
where the thermal conductivity has been set to 13.7.\n
 
### Example 2
Isotropic Multigroup source set from a lua table/array (12 groups):
\code
materials = {}
materials[1] = chiPhysicsAddMaterial("Test Material");
 
chiPhysicsMaterialAddProperty(materials[1],ISOTROPIC_MG_SOURCE)
 
num_groups = 12
src={}
for g=1,num_groups do
    src[g] = 0.0
end
chiPhysicsMaterialSetProperty(materials[1],ISOTROPIC_MG_SOURCE,FROM_ARRAY,src)
\endcode
 
### Developer Info
Checklist for adding a new material property:
 - Make sure you followed the steps depicted in the developer info section for
   the ChiLua::chiPhysicsMaterialAddProperty function.
 - Now under the "If user supplied name then find property index"-section
   add the appropriate code for setting the property index.
 - Add an else-if block for your property similar to the others. It should be
   intuitive if you look at the others.
 - Remember to add the filtering section if you need to support multiple type
   properties.
 
\ingroup LuaPhysicsMaterials
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_materials_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
void chiPhysicsMaterialSetProperty(int MaterialHandle, int PropertyIndex, int OperationIndex, varying Information){}
/** Returns a rich lua data-structure of the required property.
 *
\param MaterialHandle int Index to the reference material.
\param PropertyIndex int Property index. Or name of property.
 
 
\ingroup LuaPhysicsMaterials
\return Lua table of the desired property.
 
### Usage Examples:
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
*/
Lua chiPhysicsMaterialGetProperty(int MaterialHandle, int PropertyIndex){}
//framework/physics/FieldFunction/lua/physics_getfieldfunclist.cc
/**Gets a field-function handle by name.
\param FFname string Name of the field function.
 
\return handle If the field-function was found and a handle identified the valid
               handle will be returned (i.e., a natural number >= 0). If the
               field-function by the given name was not found then the function
               will return null.
 
\ingroup LuaFieldFunc
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
 */
handle chiGetFieldFunctionHandleByName(string FFname){}
//framework/physics/FieldFunction/lua/physics_exportfieldfunc.cc
/** Exports a field function to VTK format.
 *
\param FFHandle int Global handle to the field function.
\param BaseName char Base name for the exported file.
 
\ingroup LuaFieldFunc
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3c_L2_error_MMS_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\author Jan*/
void chiExportFieldFunctionToVTK(int FFHandle, char BaseName){}
/** Exports all the field functions in a list to VTK format.
 *  *
\param listFFHandles table Global handles or names to the field functions
\param BaseName char Base name for the exported file.
 
\ingroup LuaFieldFunc
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
void chiExportMultiFieldFunctionToVTK(table listFFHandles, char BaseName){}
//framework/physics/PhysicsMaterial/MultiGroupXS/lua/multigroup_xs_lua_utils.cc
/**Creates a stand-alone transport cross section.
 *
 *
 
 
\code
xs_graphite_clean = chiPhysicsTransportXSCreate()
chiPhysicsTransportXSSet(xs_grph_clean,
                         CHI_XSFILE,
                         "test/xs_graphite_pure.cxs")
 
chiPhysicsMaterialSetProperty(materials[2],
                              TRANSPORT_XSECTIONS,
                              EXISTING,
                              xs_graphite_clean)
\endcode
 * \return Returns a handle to the cross section.
 *
\ingroup LuaTransportXSs
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_materials_materials_lua  
 */
Returns chiPhysicsTransportXSCreate(){}
/**Sets the properties of a transport cross section.
 
 \param XS_handle int Handle to the cross section to be modified.
 \param OperationIndex int Method used for setting the xs property.
 \param Information varying Varying information depending on the operation.
 
 ##_
 
###OperationIndex
SINGLE_VALUE\n
Sets the property based on a single value. Requires a single value as additional
information. As a simple example consider the case where the user would like
to set a single constant thermal conductivity. This can be achieved with \n
FROM_ARRAY\n
Sets a property based on a Lua array indexed from 1 to N. Internally
will be converted to 0 to N-1. This method can be used to set mutli-group
cross sections or sources.
\n
SIMPLEXS0\n
Makes a simple material with no transfer matrix just \f$\sigma_t \f$. Expects two
values: \n
 - int number of groups \f$G \f$,
 - float \f$\sigma_t \f$.
 
####_
 
SIMPLEXS1\n
Makes a simple material with isotropic transfer matrix (L=0)
and mostly down scattering but with a few of the last groups
subject to up-scattering. Expects three values
values: \n
 - int number of groups (\f$G \f$),
 - float \f$\sigma_t \f$,
 - float scattering to total ratio (\f$c \f$)
 
####_
 
CHI_XSFILE\n
Loads transport cross sections from CHI type cross section files. Expects
to be followed by a filepath specifying the xs-file.
 
 
##_
### Example
Example lua code:
\code
graphite = chiPhysicsTransportXSCreate()
chiPhysicsTransportXSSet(graphite,"xs_3_170.data","2518")
\endcode
 *
 *
\ingroup LuaTransportXSs
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_materials_materials_lua  
*/
void chiPhysicsTransportXSSet(int XS_handle, int OperationIndex, varying Information){}
/**Obtains a lua table of all the cross section values.
 
 \param XS_handle int Handle to the cross section to be modified.
 
 ## _
 
 To print the contents of the table, execute the following:
\code
xs = chiPhysicsTransportXSGet(xs_handle)
for i,v in pairs(xs) do
    print(i,v)
end
\endcode
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_utils_QBlock_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_materials_materials_lua  
\ingroup LuaTransportXSs*/
void chiPhysicsTransportXSGet(int XS_handle){}
/**Makes a combined cross section from multiple other cross sections.
 
 \param Combinations table A lua-table with each element another table
                           containing a handle to an existing xs and a
                           scalar multiplier.
 
 ## _
 
###Example:
Example lua code:
\code
xs_1 = chiPhysicsTransportXSCreate()
xs_2 = chiPhysicsTransportXSCreate()
xs_3 = chiPhysicsTransportXSCreate()
 
chiPhysicsTransportXSSet(xs_1,CHI_XSFILE,"test/xs_graphite_pure.cxs")
chiPhysicsTransportXSSet(xs_2,CHI_XSFILE,"test/xs_3_170.cxs")
chiPhysicsTransportXSSet(xs_3,CHI_XSFILE,"test/xs_air50RH.cxs")
 
combo ={{xs_1, 0.5e5},
        {xs_2, 0.4e3},
        {xs_3, 0.3e2}}
aerated_graphite = chiPhysicsTransportXSMakeCombined(combo)
 
chiPhysicsMaterialSetProperty(materials[1],
                              TRANSPORT_XSECTIONS,
                              EXISTING,
                              aerated_graphite)
\endcode
 
 \return Returns a handle to another cross section object that contains the
         desired combination.
 
\ingroup LuaTransportXSs
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
 */
Returns chiPhysicsTransportXSMakeCombined(table Combinations){}
/**Sets a combined cross section from multiple other cross sections. This
 function can be called multiple times on the same cross section handle.
 
 \param XS_handle int Handle to the cross section to be modified.
 \param Combinations table A lua-table with each element another table
                           containing a handle to an existing xs and a
                           scalar multiplier.
 
 ## _
 
###Example:
Example lua code:
\code
xs_1 = chiPhysicsTransportXSCreate()
xs_2 = chiPhysicsTransportXSCreate()
xs_3 = chiPhysicsTransportXSCreate()
 
chiPhysicsTransportXSSet(xs_1,CHI_XSFILE,"test/xs_graphite_pure.cxs")
chiPhysicsTransportXSSet(xs_2,CHI_XSFILE,"test/xs_3_170.cxs")
chiPhysicsTransportXSSet(xs_3,CHI_XSFILE,"test/xs_air50RH.cxs")
 
combo ={{xs_1, 0.5e5},
        {xs_2, 0.4e3},
        {xs_3, 0.3e2}}
aerated_graphite = chiPhysicsTransportXSMakeCombined(combo)
 
chiPhysicsTransportXSSetCombined(aerated_graphite,combo)
\endcode
 *
\ingroup LuaTransportXSs
 * */
void chiPhysicsTransportXSSetCombined(int XS_handle, table Combinations){}
/** Exports a cross section to ChiTech format.
 *
\param XS_handle int Handle to the cross section to be exported.
\param file_name string The name of the file to which the XS is to be exported.
 
\ingroup LuaTransportXSs
 */
void chiPhysicsTransportXSExportToChiTechFormat(int XS_handle, string file_name){}
//framework/physics/FieldOperations/lua/field_ops_lua.cc
/**Executes a field function operation.
 * \param handle int Handle to the field function operation object.*/
void chiFieldOperationExecute(int handle){}
//framework/mesh/SurfaceMesh/lua/surfacemesh_create.cc
/** \defgroup LuaSurfaceMesh Surface Meshes
 * \ingroup LuaMesh
*/
/** Creates a new empty surface mesh.
 
### Example
Example usage:
\code
surfmesh = chiSurfaceMeshCreate()
\endcode
 
\return Handle int Handle to the created surface mesh.
\ingroup LuaSurfaceMesh
\author Jan*/
Handle chiSurfaceMeshCreate(){}
//framework/mesh/SurfaceMesh/lua/surfacemesh_export.cc
/** Exports mesh as a .obj format.
 *
\param SurfaceHandle int Handle to the surface on which the operation is to be performed.
\param FileName char* Path to the file to be exported.
 
\ingroup LuaSurfaceMesh
\author Jan*/
void chiSurfaceMeshExportToObj(int SurfaceHandle, char* FileName){}
/** Exports mesh as a .poly format.
 *
\param SurfaceHandle int Handle to the surface on which the operation is to be performed.
\param FileName char* Path and basename to the file to be exported.
 
\ingroup LuaSurfaceMesh
\author Jan*/
void chiSurfaceMeshExportPolyFile(int SurfaceHandle, char* FileName){}
//framework/mesh/SurfaceMesh/lua/surfacemesh_extractopenedges.cc
/** Exports all open edges of a surface mesh to file. This is used mostly
 * for graphical error checking.
 *
\param SurfaceHandle int Handle to the surface on which the operation is to be performed.
\param FileName char Filename to which the edges are to be exported.
 
\ingroup LuaSurfaceMesh
\author Jan*/
void chiSurfaceMeshExtractOpenEdgesToObj(int SurfaceHandle, char FileName){}
//framework/mesh/SurfaceMesh/lua/surfacemesh_load.cc
/** Loads mesh data from a wavefront object.
 *
\param SurfaceHandle int Handle to the surface on which the operation is to be performed.
\param FileName string Path to the file to be imported.
\param polyflag bool (Optional)Flag indicating whether triangles
                               are to be read as polygons. [Default: true (read
                               as polygons)].
\param transform table3 (Optional) Translation vector to move all the vertices.
                                   [Default: none].
 
### Note:
If the intent of a surface mesh is to serve as a 3D logical volume then
the `polyFlag` parameter should be set to false.
 
### Example
Example usage:
\code
-- Basic example
surfmesh1 = chiSurfaceMeshCreate()
chiSurfaceMeshImportFromOBJFile(surfmesh1, "MeshFile1.obj")
 
-- Surface mesh used as Logical volume
lv_surfmesh1 = chiSurfaceMeshCreate()
chiSurfaceMeshImportFromOBJFile(lv_surfmesh1, "MeshFile3D.obj", false)
 
lv1 = chiLogicalVolumeCreate(SURFACE, lv_surfmesh1)
 
-- Surface mesh with transform
dx = 1.5
dy = -2.5
lv_surfmesh2 = chiSurfaceMeshCreate()
chiSurfaceMeshImportFromOBJFile(lv_surfmesh2, "MeshFile3D.obj", false, {dx,dy,0.0})
 
lv2 = chiLogicalVolumeCreate(SURFACE, lv_surfmesh2)
\endcode
 
\return success bool Return true if file was successfully loaded and false
 otherwise.
\ingroup LuaSurfaceMesh
\author Jan*/
success chiSurfaceMeshImportFromOBJFile(int SurfaceHandle, string FileName, bool polyflag, table3 transform){}
/** Loads mesh data from a wavefront object.
 *
\param SurfaceHandle int Handle to the surface on which the operation is to be performed.
\param FileName char* Path to the file to be imported.
\param polyflag bool (Optional)Flag indicating whether triangles
 are to be read as polygons. [Default: true)
 
\return success bool Return true if file was successfully loaded and false
 otherwise.
\ingroup LuaSurfaceMesh
\author Jan*/
success chiSurfaceMeshImportFromTriangleFiles(int SurfaceHandle, char* FileName, bool polyflag){}
void chiSurfaceMeshImportFromMshFiles(){}
//framework/mesh/SurfaceMesh/lua/surfacemesh_checkcyles.cc
/** Builds sweep ordering for a number of angles and checks whether any
 * cyclic dependencies are encountered.
 *
\param SurfaceHandle int Handle to the surface on which the operation is to be performed.
\param NumAngles int Number of azimuthal angles to use for checking cycles.
 
\ingroup LuaSurfaceMesh
\author Jan*/
void chiSurfaceMeshCheckCycles(int SurfaceHandle, int NumAngles){}
/** Computes load balancing parameters for given predictive x and y cuts
 * without actually performing cuts.
 *
\param SurfaceHandle int Handle to the surface on which the operation is to be performed.
\param Xcuts table Array of x-values associated with the xcuts.
\param Ycuts table Array of y-values associated with the ycuts.
 
\ingroup LuaSurfaceMesh
\author Jan*/
void chiComputeLoadBalancing(int SurfaceHandle, table Xcuts, table Ycuts){}
//framework/mesh/MeshHandler/lua/meshhandler_exportmesh.cc
/**Exports the mesh to a wavefront.obj format.
\param FileName char Base name of the file to be used.
\param ExportByMaterial bool Default: False. Flag indicating whether to export
                     the extruder's surface mesh by material.
\ingroup LuaMeshHandler
*/
void chiMeshHandlerExportMeshToObj(char FileName, bool ExportByMaterial){}
/**Exports the mesh to vtu format.
\param FileName char Base name of the file to be used.
\ingroup LuaMeshHandler
### Usage Examples:
\ref test_framework_chi_mesh_ReadWavefrontObj1_lua  
\ref test_framework_chi_mesh_MeshGenerators_meshgen_exampleA_lua  
\ref test_framework_chi_mesh_MeshGenerators_meshgen_exampleD_lua  
\ref test_framework_chi_mesh_MeshGenerators_meshgen_exampleB_lua  
\ref test_framework_chi_mesh_MeshGenerators_meshgen_exampleC_lua  
\ref test_framework_chi_mesh_MeshGenerators_meshgen_extruder_KBA_lua  
\ref test_framework_chi_mesh_LogicalVolume_lv_rcc_test1_lua  
\ref test_framework_chi_mesh_LogicalVolume_lv_boolean_test1_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
*/
void chiMeshHandlerExportMeshToVTK(char FileName){}
/**Exports the mesh to exodus format (.e extensions).
\param FileName char Base name of the file to be used.
\param suppress_nodesets bool Optional. Flag to suppress exporting nodesets.
                              Default = `false`.
\param suppress_sidesets bool Optional. Flag to suppress exporting sidesets.
                              Default = `false`.
\ingroup LuaMeshHandler
*/
void chiMeshHandlerExportMeshToExodus(char FileName, bool suppress_nodesets, bool suppress_sidesets){}
//framework/mesh/MeshHandler/lua/meshhandler_lua.cc
/** Creates a mesh handler and sets it as "current".
 
\return Handle int Handle to the created mesh handler.
\ingroup LuaMeshHandler
\author Jan*/
Handle chiMeshHandlerCreate(){}
/** Sets the given mesh handler as "current".
 
\param HandlerHandler int Handle to the mesh handler previously created
       with a call to chiMeshHandlerCreate.
 
\ingroup LuaMeshHandler
\author Jan*/
void chiMeshHandlerSetCurrent(int HandlerHandler){}
//framework/mesh/FieldFunctionInterpolation/lua/ffinterpol_getvalue.cc
/** Gets the value(s) associated with an interpolation provided the
 * interpolation type has an associated value.
 *
\param FFIHandle int Handle to the field function interpolation.
 
###Note:
Currently only the POINT, LINE and VOLUME interpolation supports obtaining a
value. For the POINT and VOLUME types a single value is returned. For the LINE
type a table of tables is returned with the first index being the field function
(in the order it was assigned) and the second index being the point index.
 
\ingroup LuaFFInterpol
### Usage Examples:
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3c_L2_error_MMS_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
void chiFFInterpolationGetValue(int FFIHandle){}
//framework/mesh/FieldFunctionInterpolation/lua/ffinterpol_create.cc
/** Creates a new field function interpolation.
 *
\param FFITypeIndex int Type of field function interpolation.
 
##_
 
###FFITypeIndex\n
POINT           = A point probe. \n
SLICE           = Two dimensional slice of the mesh. \n
LINE            = Line defined by two points.\n
VOLUME          = Volume either referring to the entire volume or that of a
                  logical volume assigned to the interpolator.\n
 
\return Handle int Handle to the created interpolation.
\ingroup LuaFFInterpol
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3c_L2_error_MMS_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
Handle chiFFInterpolationCreate(int FFITypeIndex){}
//framework/mesh/FieldFunctionInterpolation/lua/ffinterpol_export.cc
/** Export interpolation to python line,contour plot depending on the
 * type of interpolation.
 *
\param FFIHandle int Handle to the field function interpolation.
\param BaseName char Base name to be used for exported files.
 
\ingroup LuaFFInterpol
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
void chiFFInterpolationExportPython(int FFIHandle, char BaseName){}
//framework/mesh/FieldFunctionInterpolation/lua/ffinterpol_setproperty.cc
/** Creates a new field function interpolation.
 *
\param FFIHandle int Handle to the field function interpolation.
\param PropertyIndex int Type of property to set.
 
##_
 
###PropertyIndex\n
ADD_FIELDFUNCTION     = Add field function to interpolation.\n
SET_FIELDFUNCTIONS    = Sets the field functions to interpolate using a lua
table.\n PROBEPOINT            = Reference point for POINT type FFIs.\n
SLICE_POINT           = Reference point for SLICE type FFIs.\n
SLICE_NORMAL          = Normal of slice plane.\n
SLICE_TANGENT         = Tangent vector of slice plane.\n
SLICE_BINORM          = Binorm vector of slice plane.\n
LINE_FIRSTPOINT   = Line start point.\n
LINE_SECONDPOINT  = Line end point.\n
LINE_NUMBEROFPOINTS = Number of points to put in the line interpolator.
                          Minimum 2.\n
LINE_CUSTOM_ARRAY = Adds custom array to line interpolator.\n
OPERATION  =  Some interpolations support operation types. See OpTypes.\n
LOGICAL_VOLUME = To be followed by a handle to a logical volume to be
                 used by the interpolator.\n
 
###OpTypes
Basic operations are volume sum, volume average or volume max. The volume
sum is computed from
\f[
Sum = \sum_k \sum_i u_i \int_V N_i .dV.
\f]
The volume average is computed from
\f[
Avg = \frac{\sum_k \sum_i u_i \int_V N_i .dV}{\sum_k \sum_i \int_V N_i .dV}
\f]
The volume max is simply \f$ max_{k,i}(u_i) \f$.\n\n
 
OP_SUM\n
For volume interpolations, computes the volume integral.\n
\n
OP_AVG\n
For volume interpolations, computes the volume average.\n
OP_MAX\n
For volume interpolations, computes the volume max.\n
\n
A modified version of these operations are also available. Instead of OP_SUM,
OP_AVG and OP_MAX, the user may supply OP_SUM_LUA, OP_AVG_LUA and OP_MAX_LUA
which then needs to be followed by a string value `LuaFunctionName` of a lua
function of the following form:
 
\code
function LuaFunctionName(ff_value, mat_id)
 ret_val = 0.0;   --Or some computation
 return ret_val
end
\endcode
 
This code will be called to return a value \f$ f(u_i) \f$ to be used instead of
the field function \f$ u_i \f$.\n
 
Example:
\code
xwing=2.0
function IntegrateMaterialVolume(ff_value,mat_id)
    return xwing
end
ffi2 = chiFFInterpolationCreate(VOLUME)
curffi = ffi2
chiFFInterpolationSetProperty(curffi,OPERATION,OP_SUM_LUA,"IntegrateMaterialVolume")
chiFFInterpolationSetProperty(curffi,LOGICAL_VOLUME,vol0)
chiFFInterpolationSetProperty(curffi,ADD_FIELDFUNCTION,fftemp)
 
chiFFInterpolationInitialize(curffi)
chiFFInterpolationExecute(curffi)
print(chiFFInterpolationGetValue(curffi))
\endcode
 
The code above will return 2.0 times the volume of cells included in the logical
volume `vol0`.
 
 
\return Handle int Handle to the created interpolation.
\ingroup LuaFFInterpol
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3c_L2_error_MMS_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
Handle chiFFInterpolationSetProperty(int FFIHandle, int PropertyIndex){}
//framework/mesh/FieldFunctionInterpolation/lua/ffinterpol_operations.cc
/** Initialize interpolator.
 *
\param FFIHandle int Handle to the field function interpolation.
 
\ingroup LuaFFInterpol
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3c_L2_error_MMS_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
void chiFFInterpolationInitialize(int FFIHandle){}
/** Execute interpolator.
 *
\param FFIHandle int Handle to the field function interpolation.
 
\ingroup LuaFFInterpol
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3c_L2_error_MMS_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
void chiFFInterpolationExecute(int FFIHandle){}
//framework/mesh/MeshModifiers/lua/lua_meshmodifier_apply.cc
//framework/mesh/LogicalVolume/lua/logicvolume_lua.cc
/** Creates a logical volume.
 
\param TypeIndex int Volume type.
\param Values varying Parameters.
 
\warning This function is deprecated
 
##_
 
### TypeIndex
SPHERE_ORIGIN =  Sphere at the origin. [Requires: R]\n
SPHERE  =  Sphere at user supplied location. [Requires: x,y,z,R]\n
RPP=  Rectangular ParalleliPiped. [Requires: xmin,xmax,ymin,ymax,zmin,zmax]\n
RCC=  Right Circular Cylinder. [Requires: x0,y0,z0, vx,vy,vz and R]\n
SURFACE= Logical volume determined from a surface mesh. [Requires: a handle
    to a surface mesh]\n
BOOLEAN= Boolean combination of other volumes.
 [Requires pairs of values: bool,volumeHandle]\n
 
### Examples
Example usage:
\code
-- Sphere at origin radius 1.0
lv1 = chiLogicalVolumeCreate(SPHERE_ORIGIN, 1.0)
 
-- Sphere centered at (0.1,0.2,0.3) with radius 1.0
lv2 = chiLogicalVolumeCreate(SPHERE, 0.1, 0.2, 0.3, 1.0)
 
-- Rectangular parallelepiped
xmin = -1.0; xmax = 1.0
ymin = -2.0; ymax = 1.0
zmin = -1000.0, zmax = 1000.0
lv3 = chiLogicalVolumeCreate(RPP, xmin, xmax, ymin, ymax, zmin, zmax)
 
-- Right Circular Cylinder
basex = 1.0; basey = 0.0; basez = 0.5
upvecx = 0.0; upvecy = 0.0; upvecz = 1.0
R = 1.0
lv4 = chiLogicalVolumeCreate(RPP, basex, basey, basez, upvecx, upvecy, upvecz,
R)
 
-- Surface mesh
lv_surfmesh = chiSurfaceMeshCreate()
chiSurfaceMeshImportFromOBJFile(lv_surfmesh, "MeshFile3D.obj", false)
 
lv5 = chiLogicalVolumeCreate(SURFACE, lv_surfmesh)
 
-- Boolean combination
lv6 = chiLogicalVolumeCreate(BOOLEAN, {{true , lv5},  -- inside logical volume 5
                                       {false, lv1},  -- outside logical volume
1 {false, lv2}}) -- outside logical volume 2 \endcode
 
\return Handle int Handle to the created logical volume.
\ingroup LuaLogicVolumes
\author Jan*/
Handle chiLogicalVolumeCreate(int TypeIndex, varying Values){}
/**Evaluates whether a point is within the logical volume.
\param LVHandle int Handle to the logical volume.
\param Point_x double X-coordinate of the point.
\param Point_y double Y-coordinate of the point.
\param Point_z double Z-coordinate of the point.
 
\return Sense true if inside the logical volume and false if outside.
\ingroup LuaLogicVolumes
### Usage Examples:
\ref test_framework_chi_mesh_LogicalVolume_lv_sphere_test1_lua  
\ref test_framework_chi_mesh_LogicalVolume_lv_rpp_test1_lua  
*/
Sense chiLogicalVolumePointSense(int LVHandle, double Point_x, double Point_y, double Point_z){}
//framework/mesh/VolumeMesher/lua/volumemesher_setuportho_bndries.cc
/** Sets boundary numbers on boundaries orthogonal to the cardinal directions
 * as xmax=0, xmin=1, ymax=2, ymin=3, zmax=4, zmin=5.
 *
\ingroup LuaVolumeMesher
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_DSA_acceleration_diffusion_CFEM_lua  
\ref test_modules_LinearBoltzmannSolvers_DSA_acceleration_diffusion_DFEM_lua  
 */
void chiVolumeMesherSetupOrthogonalBoundaries(){}
//framework/mesh/VolumeMesher/lua/volumemesher_create.cc
/** Creates a new volume mesher.
 *
\param Type int Volume Remesher type.
\param OtherArgs varying Additional arguments depending on `Type`.
 
Remesher types:\n
 VOLUMEMESHER_EXTRUDER = Creates an extruded mesh from a 2D template mesh.
 Requires two additional arguments. `TemplateType` and `handle`. See below.\n
 VOLUMEMESHER_UNPARTITIONED = Create the mesh from the latest UnpartitionedMesh.
 Requires a single additional argument, `handle`, which is a handle to
 a valid unpartitioned mesh.\n
 
##_
 
###Extruder parameters
 
When the mesher type is specified to be VOLUMEMESHER_EXTRUDER then two
additional arguments are required. `TemplateType` and `handle`.\n
 
- `TemplateType` can for now only be
 `ExtruderTemplateType.UNPARTITIONED_MESH`.\n
- `handle` is a handle to the template mesh. When `TemplateType` is
  set to `ExtruderTemplateType.UNPARTITIONED_MESH` then the handle must point
  to a valid unpartitioned mesh.
 
\ingroup LuaVolumeMesher
\author Jan*/
void chiVolumeMesherCreate(int Type, varying OtherArgs){}
//framework/mesh/VolumeMesher/lua/volumemesher_setproperty.cc
/** Sets a volume mesher property.
 
\param PropertyIndex int Index of the property to change. See below
\param PropertyValue varying Value of the property.
 
##_
 
###PropertyIndex:
 FORCE_POLYGONS = <B>PropertyValue:[bool]</B> Forces the 2D Meshing to use
                  polygon cells even if the underlying surface mesh is
                  triangles. Expects a boolean value.\n
 MESH_GLOBAL = <B>PropertyValue:[bool]</B> Generate/Read the full mesh at each
               location. Expects a boolean value [Default=true].\n
 PARTITION_TYPE = <B>PartitionType</B>. See below.\n
 EXTRUSION_LAYER = <B>PropertyValue:[double,(int),(char)]</B> Adds a layer to
the extruder volume mesher if it exists. Expects 1 required parameter, the layer
height, followed by 2 optional parameters: number of subdivisions (defaults to
1), and layer id (char)(defaults to nothing). Only supported if partition-type
is
                   ```KBA_STYLE_XY``` or ```KBA_STYLE_XYZ```. \n
 CUTS_X = Adds a cut at the given x-value. Only supported if partition-type is
                   ```KBA_STYLE_XY``` or ```KBA_STYLE_XYZ```.\n
 CUTS_Y = Adds a cut at the given y-value. Only supported if partition-type is
                   ```KBA_STYLE_XY``` or ```KBA_STYLE_XYZ```.\n
 CUTS_Z = Adds a cut at the given z-value. Only supported if partition-type is
                   ```KBA_STYLE_XY``` or ```KBA_STYLE_XYZ```.\n
 PARTITION_X   = <B>PropertyValue:[int]</B> Number of partitions in X.
                    Only supported if partition-type is
                   ```KBA_STYLE_XY``` or ```KBA_STYLE_XYZ```.\n
 PARTITION_Y   = <B>PropertyValue:[int]</B> Number of partitions in Y.
                    Only supported if partition-type is
                   ```KBA_STYLE_XY``` or ```KBA_STYLE_XYZ```.\n
 PARTITION_Z   = <B>PropertyValue:[int]</B> Number of partitions in Z.
                    Only supported if partition-type is
                   ```KBA_STYLE_XY``` or ```KBA_STYLE_XYZ```.\n
 MATID_FROMLOGICAL = <B>LogicalVolumeHandle:[int],Mat_id:[int],
                     Sense:[bool](Optional, default:true)</B> Sets the material
                     id of cells that meet the sense requirement for the given
                     logical volume.\n
 BNDRYID_FROMLOGICAL = <B>LogicalVolumeHandle:[int],Bndry_name:[string],
                     Sense:[bool](Optional, default:true)</B> Sets the cell
                     boundary id to the specified value for cells
                     that meet the sense requirement for the given
                     logical volume.\n
 MATID_FROM_LUA_FUNCTION = <B>LuaFunctionName:[string]</B>. For each cell, will
                           call a lua function that can change the material id.
                           The lua function must have 4 parameters,
                           the cell's centroid x,y,z values (doubles) and the
                           current cell-material id (int). The function must
                           return a material id.
 BNDRYID_FROM_LUA_FUNCTION = <B>LuaFunctionName:[string]</B>. For each boundary
                           face, will call a lua function that can change the
                           boundary id.
                           The lua function must have 7 parameters,
                           the face's centroid x,y,z values (doubles), the
                           face's normal x,y,z values (double), and the
                           current face-boundary id (int). The function must
                           return a boundary id.
## _
 
### PartitionType
Can be any of the following:
 - KBA_STYLE_XYZ
 - PARMETIS
 
\ingroup LuaVolumeMesher
### Usage Examples:
\ref test_framework_chi_mesh_LogicalVolume_lv_rcc_test1_lua  
\ref test_framework_chi_mesh_LogicalVolume_lv_boolean_test1_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3c_L2_error_MMS_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_utils_QBlock_mesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_utils_QBlock_mesh_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\author Jan*/
void chiVolumeMesherSetProperty(int PropertyIndex, varying PropertyValue){}
/**Sets the Px, Py and Pz partititioning parameters for a
 * KBA-type partitioning. This also fixes the process count required to
 * a total of Px*Py*Pz.
 *
\param Px int Number partitions in x.
\param Py int Number partitions in y.
\param Pz int Number partitions in z.
\ingroup LuaVolumeMesher
 */
void chiVolumeMesherSetKBAPartitioningPxPyPz(int Px, int Py, int Pz){}
/**Sets the x-cuts for KBA type partitioning with a lua array.
\ingroup LuaVolumeMesher
 */
void chiVolumeMesherSetKBACutsX(){}
/**Sets the y-cuts for KBA type partitioning with a lua array.
\ingroup LuaVolumeMesher
 */
void chiVolumeMesherSetKBACutsY(){}
/**Sets the z-cuts for KBA type partitioning with a lua array.
\ingroup LuaVolumeMesher
 */
void chiVolumeMesherSetKBACutsZ(){}
//framework/mesh/VolumeMesher/lua/volumemesher_setallcell_ids.cc
/** Sets all cell-material id's to the supplied value.
\param material_id int The id.
\ingroup LuaVolumeMesher
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_framework_tutorials_fv_test2_lua  
\ref test_framework_tutorials_pwlc_test1_lua  
\ref test_framework_tutorials_pwlc_test2_lua  
\ref test_framework_tutorials_tutorial_91a_pwld_lua  
\ref test_framework_tutorials_fv_test1_lua  
\ref test_framework_tutorials_tutorial_06_wdd_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3c_L2_error_MMS_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_LinearBoltzmannSolvers_DSA_acceleration_diffusion_CFEM_lua  
\ref test_modules_LinearBoltzmannSolvers_DSA_acceleration_diffusion_DFEM_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_utils_QBlock_mesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_utils_QBlock_mesh_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
*/
void chiVolumeMesherSetMatIDToAll(int material_id){}
//framework/mesh/VolumeMesher/lua/volumemesher_execute.cc
/** Executes the volume meshing pipeline.
 
\ingroup LuaVolumeMesher
\author Jan*/
void chiVolumeMesherExecute(){}
//framework/mesh/SurfaceMesher/lua/surfmesher_execute.cc
/** Executes the surface meshing pipeline.
 
\ingroup LuaSurfaceMesher
\author Jan*/
void chiSurfaceMesherExecute(){}
//framework/mesh/SurfaceMesher/lua/surfmesher_setproperty.cc
/** Sets a property of a surface mesher.
 
\param PropertyNumber int Handle of the property to be set.
\param PropertyValue varying Value of the property.
 
Properties:\n
 MAX_AREA = Area constraint.\n
 
\ingroup LuaSurfaceMesher
\author Jan*/
void chiSurfaceMesherSetProperty(int PropertyNumber, varying PropertyValue){}
//framework/mesh/SurfaceMesher/lua/surfmesher_create.cc
/** Creates a surface preprocessor.
 *
\param SurfaceMesherType int Surface Remesher type. See SurfaceMesherType.
 
## _
 
###SurfaceMesherType:\n
SURFACEMESHER_PREDEFINED\n
 Makes no modification to the region surfaces.\n\n
 
\code
chiSurfaceMesherCreate(SURFACEMESHER_PREDEFINED)
\endcode
 
## _
 
\ingroup LuaSurfaceMesher
\author Jan*/
void chiSurfaceMesherCreate(int SurfaceMesherType){}
//framework/mesh/MeshCutting/lua/countcells.cc
/**Counts the number of cells with a logical volume.
*/
void chiCountMeshInLogicalVolume(){}
//framework/mesh/MeshCutting/lua/cutmesh.cc
/**Cuts a mesh.
 
 \param PlanePoint Vec3 A 3 element lua-table containing the reference
                        point of the plane.
 \param PlaneNormal Vec3 A 3 element lua-table containing the plane
                         normal. Will be normalized when applied.
 \param MergeTol double (Optional). Vertices within a distance MergeTol from
                        the plane will be snapped to the plane. Default: 1.0e-3
 \param GeneralTol double (Optional). A general tolerance to be used for
                          comparing whether two real values are equal.
                          Default: 1.0e-10.
 */
void chiCutMesh(Vec3 PlanePoint, Vec3 PlaneNormal, double MergeTol, double GeneralTol){}
//framework/mesh/UnpartitionedMesh/lua/basic_operations.cc
/**Uploads a vertex.
 *
\param handle int Handle to mesh.
\param x      double x-coordinate.
\param y      double y-coordinate.
\param z      double z-coordinate.
 
## _
 
###Example
Example usage
\code
chiUnpartitionedMeshUploadVertex(umesh, 0, 0, 0)
chiUnpartitionedMeshUploadVertex(umesh, 1, 0, 0)
chiUnpartitionedMeshUploadVertex(umesh, 1, 1, 0)
chiUnpartitionedMeshUploadVertex(umesh, 0, 1, 0)
\endcode
 
\ingroup LuaUnpartitionedMesh
 */
void chiUnpartitionedMeshUploadVertex(int handle, double x, double y, double z){}
/**Uploads a cell
 
\param handle int Handle to mesh.
\param cell_table lua_table A Lua-table containing fields of data. See
 cell_table below.
 
## _
 
###cell_table
A lua-table with the following fields:
- `type` <I>string</I>. The value of this field contains the cell's primary type.
 The value can be "SLAB", "POLYGON" or "POLYHEDRON".
- `sub_type` <I>string</I>. The value of this field constains the cell's
 secondary type. The value can be "SLAB", "POLYGON", "TRIANGLE",
 "QUADRILATERAL", "POLYHEDRON", "TETRAHEDRON" or "HEXAHEDRON".
- `num_faces` <I>int</I>. The value of this field represent the number of faces
 specified for this cell. Each face is contained in a field "faceX" where X is
 the face index.
- `material_id` <I>int</I>. (Optional) The value of this field holds a material
 identifier. If not provided, will be defaulted to -1.
- `faceX` <I>table</I>. A field holding a lua-table containing the vertex-ids
 of face X. There must be `num_faces` of these fields, i.e., "face0", "face1", etc.
 
###Example
Example usage
\code
chiUnpartitionedMeshUploadVertex(umesh, 0, 0, 0)
chiUnpartitionedMeshUploadVertex(umesh, 1, 0, 0)
chiUnpartitionedMeshUploadVertex(umesh, 1, 1, 0)
chiUnpartitionedMeshUploadVertex(umesh, 0, 1, 0)
 
chiUnpartitionedMeshUploadVertex(umesh, 0, 0, 1)
chiUnpartitionedMeshUploadVertex(umesh, 1, 0, 1)
chiUnpartitionedMeshUploadVertex(umesh, 1, 1, 1)
chiUnpartitionedMeshUploadVertex(umesh, 0, 1, 1)
 
cell = {}
cell.type        = "POLYHEDRON"
cell.sub_type    = "HEXAHEDRON"
cell.num_faces   = 6
cell.material_id = 0
cell.face0 = {1,2,6,5}
cell.face1 = {0,4,7,3}
cell.face2 = {2,3,7,6}
cell.face3 = {0,1,5,4}
cell.face4 = {4,5,6,7}
cell.face5 = {0,3,2,1}
 
chiUnpartitionedMeshUploadCell(umesh, cell, true)
chiUnpartitionedMeshFinalizeEmpty(umesh)
\endcode
 
\ingroup LuaUnpartitionedMesh
 */
void chiUnpartitionedMeshUploadCell(int handle, lua_table cell_table){}
/**Finalizes a mesh. This usually involves computing centroids and
 * establishing connectivity.
 *
\param handle int Handle to mesh.
 
## _
 
###Example
Example usage
\code
chiUnpartitionedMeshUploadVertex(umesh, 0, 0, 0)
chiUnpartitionedMeshUploadVertex(umesh, 1, 0, 0)
chiUnpartitionedMeshUploadVertex(umesh, 1, 1, 0)
chiUnpartitionedMeshUploadVertex(umesh, 0, 1, 0)
 
chiUnpartitionedMeshUploadVertex(umesh, 0, 0, 1)
chiUnpartitionedMeshUploadVertex(umesh, 1, 0, 1)
chiUnpartitionedMeshUploadVertex(umesh, 1, 1, 1)
chiUnpartitionedMeshUploadVertex(umesh, 0, 1, 1)
 
cell = {}
cell.type        = "POLYHEDRON"
cell.sub_type    = "HEXAHEDRON"
cell.num_faces   = 6
cell.material_id = 0
cell.face0 = {1,2,6,5}
cell.face1 = {0,4,7,3}
cell.face2 = {2,3,7,6}
cell.face3 = {0,1,5,4}
cell.face4 = {4,5,6,7}
cell.face5 = {0,3,2,1}
 
chiUnpartitionedMeshUploadCell(umesh, cell, true)
chiUnpartitionedMeshFinalizeEmpty(umesh)
\endcode
 
\ingroup LuaUnpartitionedMesh
 */
void chiUnpartitionedMeshFinalizeEmpty(int handle){}
//framework/mesh/UnpartitionedMesh/lua/create.cc
/**Creates an empty unpartitioned mesh. An empty unpartitioned mesh
 * is meant to be manipulated with calls to chiUnpartitionedMeshUploadVertex()
 * and chiUnpartitionedMeshUploadCell(). It essentially supports building a mesh
 * manually.
 *
##_
 
###Example
Example usage
\code
umesh = chiCreateEmptyUnpartitionedMesh()
\endcode
 
\ingroup LuaUnpartitionedMesh*/
void chiCreateEmptyUnpartitionedMesh(){}
/**Destroy an unpartitioned mesh. This routine should be called for
 * memory sensitive simulations because each process will have a full
 * copy of this data.
 *
\param handle int Handle to mesh.
 
##_
 
###Example
Example usage
\code
chiDestroyUnpartitionedMesh(umesh)
\endcode
 
\ingroup LuaUnpartitionedMesh*/
void chiDestroyUnpartitionedMesh(int handle){}
/**Creates an unpartitioned mesh from VTK Unstructured mesh files.
 
\param file_name char Filename of the .vtu file.
\param field char Name of the cell data field from which to read
                  material and boundary identifiers (optional).
 
\ingroup LuaUnpartitionedMesh
 
##_
 
### Example
An example mesh creation below:
\code
chiMeshHandlerCreate()
 
umesh = chiUnpartitionedMeshFromVTU("ZMeshTest_0.vtu")
 
chiSurfaceMesherCreate(SURFACEMESHER_PREDEFINED)
chiVolumeMesherCreate(VOLUMEMESHER_UNPARTITIONED, umesh)
 
chiSurfaceMesherExecute()
chiVolumeMesherExecute()
\endcode
 
 
\return Handle A handle to the newly created UnpartitionedMesh*/
Handle chiUnpartitionedMeshFromVTU(char file_name, char field){}
/**Creates an unpartitioned mesh from VTK Partitioned Unstructured mesh files
 * (.pvtu).
 
\param file_name char Filename of the .vtu file.
\param field char Name of the cell data field from which to read
                  material and boundary identifiers (optional).
 
\ingroup LuaUnpartitionedMesh
 
##_
 
### Example
An example mesh creation below:
\code
chiMeshHandlerCreate()
 
umesh = chiUnpartitionedMeshFromPVTU("ZMeshTest_0.vtu")
 
chiSurfaceMesherCreate(SURFACEMESHER_PREDEFINED)
chiVolumeMesherCreate(VOLUMEMESHER_UNPARTITIONED, umesh)
 
chiSurfaceMesherExecute()
chiVolumeMesherExecute()
\endcode
 
 
\return Handle A handle to the newly created UnpartitionedMesh*/
Handle chiUnpartitionedMeshFromPVTU(char file_name, char field){}
/**Creates an unpartitioned mesh from starccm+ exported
Ensight Gold mesh files.
 
\param file_name char Filename of the .case file.
\param scale float Scale to apply to the mesh
 
\ingroup LuaUnpartitionedMesh
 
##_
 
### Example
An example mesh creation below:
\code
chiMeshHandlerCreate()
 
umesh = chiUnpartitionedMeshFromEnsightGold("resources/TestObjects/Sphere.case")
 
chiSurfaceMesherCreate(SURFACEMESHER_PREDEFINED)
chiVolumeMesherCreate(VOLUMEMESHER_UNPARTITIONED, umesh)
 
chiSurfaceMesherExecute()
chiVolumeMesherExecute()
\endcode
 
\return Handle A handle to the newly created UnpartitionedMesh*/
Handle chiUnpartitionedMeshFromEnsightGold(char file_name, float scale){}
/**Creates an unpartitioned mesh from a wavefront .obj file.
 
\param file_name char Filename of the .case file.
 
\ingroup LuaUnpartitionedMesh
 
##_
 
### Example
An example mesh creation below:
\code
chiMeshHandlerCreate()
 
umesh = chiUnpartitionedMeshFromWavefrontOBJ("resources/TestObjects/TriangleMesh2x2.obj")
 
chiSurfaceMesherCreate(SURFACEMESHER_PREDEFINED)
chiVolumeMesherCreate(VOLUMEMESHER_UNPARTITIONED, umesh)
 
chiSurfaceMesherExecute()
chiVolumeMesherExecute()
\endcode
 
\return Handle A handle to the newly created UnpartitionedMesh*/
Handle chiUnpartitionedMeshFromWavefrontOBJ(char file_name){}
/**Creates an unpartitioned mesh from a .msh file.
 
\param file_name char Filename of the .msh file.
 
\ingroup LuaUnpartitionedMesh
 
##_
 
### Example
An example mesh creation below:
\code
chiMeshHandlerCreate()
 
umesh = chiUnpartitionedMeshFromMshFormat("File.msh")
 
chiSurfaceMesherCreate(SURFACEMESHER_PREDEFINED)
chiVolumeMesherCreate(VOLUMEMESHER_UNPARTITIONED, umesh)
 
chiSurfaceMesherExecute()
chiVolumeMesherExecute()
\endcode
 
 
\return Handle A handle to the newly created UnpartitionedMesh*/
Handle chiUnpartitionedMeshFromMshFormat(char file_name){}
/**Creates an unpartitioned mesh from ExodusII format.
 
\param file_name char Filename of the .case file.
\param scale float Scale to apply to the mesh
 
\ingroup LuaUnpartitionedMesh
 
##_
 
### Example
An example mesh creation below:
\code
chiMeshHandlerCreate()
 
umesh = chiUnpartitionedMeshFromExodusII("resources/TestObjects/Mesh.e")
 
chiSurfaceMesherCreate(SURFACEMESHER_PREDEFINED)
chiVolumeMesherCreate(VOLUMEMESHER_UNPARTITIONED, umesh)
 
chiSurfaceMesherExecute()
chiVolumeMesherExecute()
\endcode
 
\return Handle A handle to the newly created UnpartitionedMesh*/
Handle chiUnpartitionedMeshFromExodusII(char file_name, float scale){}
//framework/mesh/OrthoGrids/lua/lua_mesh_orthomacros.cc
/** Creates a 1D Mesh from an array of 1D vertices.
 
\param x_nodes array_float An Array of floating point numbers denoting
                           1D nodes along x-axis.
 
\return Two handles: unpartitioned-mesh, region
 
\ingroup LuaMeshMacros
 
##_
 
### Example
An example 1D mesh creation below:
\code
chiMeshHandlerCreate()
nodes={0.0,0.1,0.2,0.3,0.4,0.5,0.6,0.7,0.8,0.9,1.0}
chiMeshCreateUnpartitioned1DOrthoMesh(nodes)
chiVolumeMesherSetProperty(PARTITION_TYPE,PARMETIS)
chiVolumeMesherExecute();
\endcode
 
 \author Nak*/
Two chiMeshCreateUnpartitioned1DOrthoMesh(array_float x_nodes){}
/** Creates a 2D Orthogonal Mesh from arrays of 1D vertices.
 
\param x_nodes array_float An Array of floating point numbers denoting
                           1D nodes along x-axis.
\param y_nodes array_float An Array of floating point numbers denoting
                           1D nodes along y-axis.
 
\return Two handles: unpartitioned-mesh, region
 
\ingroup LuaMeshMacros
 
##_
 
### Example
An example 2D mesh creation below:
\code
chiMeshHandlerCreate()
nodesx={0.0,0.1,0.2,0.3,0.4,0.5,0.6,0.7,0.8,0.9,1.0}
nodesy={0.0,0.1,0.2,0.3,0.4,0.5,0.6,0.7,0.8,0.9,1.0}
chiMeshCreateUnpartitioned2DOrthoMesh(nodesx,nodesy)
chiVolumeMesherSetProperty(PARTITION_TYPE,PARMETIS)
chiVolumeMesherExecute();
\endcode
 
 \author Nak*/
Two chiMeshCreateUnpartitioned2DOrthoMesh(array_float x_nodes, array_float y_nodes){}
/** Creates a 3D Orthogonal Mesh from arrays of 1D vertices. The
 * underlying mesher is an extruder.
 
\param x_nodes array_float An Array of floating point numbers denoting
                           1D nodes along x-axis.
\param y_nodes array_float An Array of floating point numbers denoting
                           1D nodes along y-axis.
\param z_nodes array_float An Array of floating point numbers denoting
                           1D nodes along z-axis.
 
\return Two handles: unpartitioned-mesh, region
 
\ingroup LuaMeshMacros
 
##_
 
### Example
An example 3D mesh creation below:
\code
chiMeshHandlerCreate()
nodesx={0.0,0.1,0.2,0.3,0.4,0.5,0.6,0.7,0.8,0.9,1.0}
nodesy={0.0,0.1,0.2,0.3,0.4,0.5,0.6,0.7,0.8,0.9,1.0}
nodesz={0.0,0.1,0.2,0.3,0.4,0.5,0.6,0.7,0.8,0.9,1.0}
chiMeshCreateUnpartitioned3DOrthoMesh(nodesx,nodesy,nodesz)
chiVolumeMesherSetProperty(PARTITION_TYPE,PARMETIS)
chiVolumeMesherExecute();
\endcode
 
 \author Nak*/
Two chiMeshCreateUnpartitioned3DOrthoMesh(array_float x_nodes, array_float y_nodes, array_float z_nodes){}
//framework/mesh/DomainDecomposition/lua/decomp2ddomain.cc
/** \defgroup LuaDomainDecomposition Domain decomposition
 * \ingroup LuaMesh
*/
/** Decomposes a surface mesh into block px py elements.
 * \image html "InProgressImage.png" width=200px
 *
\param Surface mesh handler
\param Px int Number of divisions in x.
\param Py int Number of divisions in y.
 
\ingroup LuaDomainDecomposition
\author Jan*/
void chiDecomposeSurfaceMeshPxPy(mesh Surface, int Px, int Py){}
//framework/mesh/MeshGenerator/lua/lua_meshgenerator_execute.cc
void chiMeshGeneratorExecute(){}
void chiMeshGeneratorExecute(){}
//framework/lua/lua_parse_table.cc
//framework/lua/lua_make_object.cc
void chiMakeObject(){}
void chiMakeObjectType(){}
/**Generic lua routine for the creation of objects.
 * \param params ParameterBlock A single block tree that requires a parameter
 *  called chi_obj_type that indicates the type of object to make.
 
*/
void chiMakeObject(ParameterBlock params){}
/**Generic lua routine for the creation of objects.
 * \param type string The type to create.
 * \param params ParameterBlock A single block tree.
 
*/
void chiMakeObjectType(string type, ParameterBlock params){}
//framework/lua/chi_lua.cc
//framework/utils/lua/lua_chiProgramTimer.cc
void chiProgramTime(){}
/**Returns the program time as determined from the home location (involves a
* collective broadcast).*/
void chiProgramTime(){}
//framework/utils/lua/lua_chiSleep.cc
void chiSleep(){}
/**Makes the program sleep for the specified time in milliseconds.
* \param time int Time in milliseconds to sleep for.
* */
void chiSleep(int time){}
//framework/utils/lua/lua_chiExit.cc
void chiExit(){}
/**Gracefully exits ChiTech.
* \param return_code int Return code, defaults to 0 (Success).*/
void chiExit(int return_code){}
//framework/logging/lua/log.cc
/** Sets the verbosity level of the Logger.
 * This lua command will overwrite the currently set value.
 
\param int_level int Integer denoting verbosity level. Can be 0,1 or 2
 [default:0]
 
\ingroup LuaLogging
\author Jan*/
void chiLogSetVerbosity(int int_level){}
/**Logs a message depending on the log type specified.
 
\param LogType int Can be any of the log types specified below.
\param LogMsg char Message or value to be output to the log.
 
##_
 
### LogType
LOG_0\n
Write a log only if location 0.\n
 
LOG_0WARNING\n
Write a log only if location 0 and format it as a warning.\n
 
LOG_0ERROR\n
Write a log only if location 0 and format it as an error.\n
 
LOG_0VERBOSE_0\n
Same as LOG_0.\n
 
LOG_0VERBOSE_1\n
Write a log only if location 0 and the verbosity level is greater
or equal to 1.\n
 
LOG_0VERBOSE_2\n
Write a log only if location 0 and the verbosity level is greater
or equal to 1.\n
 
LOG_ALL, LOG_ALLWARNING, LOG_ALLERROR,\n
LOG_ALLVERBOSE_0, LOG_ALLVERBOSE_1, LOG_ALLVERBOSE_2\n
Has the same meaning as their LOG_0 counterparts but instead applies to
all locations in the parallel context.
 
\ingroup LuaLogging
\author Jan
### Usage Examples:
\ref test_framework_log_timingblock_test_lua  
\ref test_framework_chi_mesh_ReadWavefrontObj1_lua  
\ref test_framework_chi_mesh_LogicalVolume_lv_sphere_test1_lua  
\ref test_framework_chi_mesh_LogicalVolume_lv_rpp_test1_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3c_L2_error_MMS_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_materials_materials_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
*/
void chiLog(int LogType, char LogMsg){}
/**Processes the sub-events of a repeating event and converts it to a
* meaningful value (floating-point).
*
\param event_name string Required. Name of the event.
\param event_operation_name string Required. What kind of operation to be
                           applied. See `chi::ChiLog::EventOperation`
*
* \ingroup LuaLogging
\return double The processed value.
*/
double chiLogProcessEvent(string event_name, string event_operation_name){}
/**Prints the performance graph.
 * \params rank int Optional argument to print the graph for a specific rank.
 *
 * \ingroup LuaLogging
### Usage Examples:
\ref test_framework_log_timingblock_test_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
 * */
void chiLogPrintTimingGraph(int rank){}
//framework/math/Quadratures/SLDFESQ/lua/locally_refine_sldfesq.cc
/** Applies a local refinement of angles.
\param handle int. Handle to the reference quadrature.
\param reference_direction vec3 Reference vector. \f$ \vec{r} \f$
\param cone_size double Cone size in radians. \f$ \theta \f$
\param invert_logic bool Optional[Default:false]. If supplied, interprets
 SQ-splitting as when \f$|\omega \cdot \vec{r}| < \sin(\theta) \f$. Otherwise,
 SQs will be split if \f$ \omega \cdot \vec{r} > \cos(\theta)\f$
 
##_
 
###Example:
Example with refinement level 2 and a triple directional refinement:
\code
pquad = chiCreateSLDFESQAngularQuadrature(2)
chiLocallyRefineSLDFESQAngularQuadrature(pquad,{1,0,0},45.0*math.pi/180,false)
chiLocallyRefineSLDFESQAngularQuadrature(pquad,{1,0,0},23.0*math.pi/180,false)
chiLocallyRefineSLDFESQAngularQuadrature(pquad,{1,0,0},12.0*math.pi/180,false)
\endcode
 
\image html "SLDFESQr.png" width=500px
 
Example with refinement level 2 and a triple planar refinement:
\code
pquad = chiCreateSLDFESQAngularQuadrature(2)
chiLocallyRefineSLDFESQAngularQuadrature(pquad,{1,0,0},22.50*math.pi/180,true)
chiLocallyRefineSLDFESQAngularQuadrature(pquad,{1,0,0},11.75*math.pi/180,true)
chiLocallyRefineSLDFESQAngularQuadrature(pquad,{1,0,0},5.000*math.pi/180,true)
\endcode
 
\image html "SLDFESQp.png" width=500px
 
\ingroup LuaSLDFESQ
\author Jan */
void chiLocallyRefineSLDFESQAngularQuadrature(in handle, vec3 reference_direction, double cone_size, bool invert_logic){}
//framework/math/Quadratures/SLDFESQ/lua/create_sldfesq_quadrature.cc
/** Creates a Simplified Linear Discontinuous Finite Element (SLDFE)
quadrature based on Spherical Quadrilaterals (SQ). Hence SLDFE-SQ.
\param initial_refinement_level int Initial refinement level, \f$n\f$ to
       be used. The total number of angles will be \f$ 8{\times}12(n+1)^2 \f$.
 
##_
 
###Example:
Example with refinement level 2.
\code
pquad = chiCreateSLDFESQAngularQuadrature(2)
\endcode
 
\image html "SLDFESQBasen2.png" width=500px
With direction points:
\image html "SLDFESQBasen2Oct2.png" width=500px
 
\ingroup LuaSLDFESQ
\author Jan */
void chiCreateSLDFESQAngularQuadrature(int initial_refinement_level){}
//framework/math/Quadratures/SLDFESQ/lua/print_sldfesq.cc
/** Outputs the quadrature information to python format.
\param handle int Handle to the reference quadrature.
\param file_name_prefix string Prefix to be used in front of file.
 
##_
 
###Example:
Example of printing a quadrature:
Example with refinement level 2 and a triple directional refinement:
\code
pquad = chiCreateSLDFESQAngularQuadrature(2)
chiLocallyRefineSLDFESQAngularQuadrature(pquad,{1,0,0},45.0*math.pi/180,false)
chiLocallyRefineSLDFESQAngularQuadrature(pquad,{1,0,0},23.0*math.pi/180,false)
chiLocallyRefineSLDFESQAngularQuadrature(pquad,{1,0,0},12.0*math.pi/180,false)
chiPrintToPythonSLDFESQAngularQuadrature(pquad,"YQuad_");
\endcode
 
\image html "SLDFESQr.png" width=500px
 
\ingroup LuaSLDFESQ
\author Jan */
void chiPrintToPythonSLDFESQAngularQuadrature(int handle, string file_name_prefix){}
//framework/math/Quadratures/lua/createlinequadrature.cc
/** Creates a quadrature.
 *
\param QuadratureType int Quadrature identifier.
\param NumberOfPoints int Number of quadrature points.
\param VerboseFlag bool As the name implies. Default: false.
 
##_
 
###QuadratureType:\n
 GAUSS_LEGENDRE = Gauss-Legendre quadrature.
 GAUSS_CHEBYSHEV = Gauss-Chebyshev quadrature.
 
\return Returns a unique handle to the created quadrature rule
 
\ingroup LuaQuadrature
\author Jan*/
Returns chiCreateLineQuadrature(int QuadratureType, int NumberOfPoints, bool VerboseFlag){}
//framework/math/Quadratures/lua/create_angular_quadrature.cc
/** Creates an angular quadrature.
 *
\param azimuthal_angles array A lua table with N entries each being an azimuthal
                              angle.
\param polar_angles array A lua table with N entries each being a polar angle
                              angle.
\param weight array A lua table with N entries each being a quadrature weight.
 
 
\return Returns a unique handle to the created angular quadrature
 
\ingroup LuaQuadrature
\author Jan*/
Returns chiCreateCustomAngularQuadrature(array azimuthal_angles, array polar_angles, array weight){}
//framework/math/Quadratures/lua/create_curvilinear_product_quadrature.cc
/** Creates a curvilinear product quadrature suitable for cylindrical geometries.
 
 \param QuadratureType int Quadrature identifier.
 \param values varying Varying options based on the quadrature type.
 
 ##_
 
 ###QuadratureType:\n
 GAUSS_LEGENDRE_CHEBYSHEV\n
   Gauss-Legendre quadrature for the polar angle and Gauss-Chebyshev quadrature
   for the azimuthal angle.
   Arguments for this quadrature type, in order:
   - Np : (int) number of polar angles
   - Na : (int) number of azimuthal angles (unique number at each polar level), or
          (table<int>) number of azimuthal angles (diverse number at each polar level)
   - verbose : (bool) verbosity flag (optional).
 
 ###QuadratureType:\n
 GAUSS_LEGENDRE_LEGENDRE\n
   Gauss-Legendre quadrature for the polar angle and Gauss-Legendre quadrature
   for the azimuthal angle.
   Arguments for this quadrature type, in order:
   - Np : (int) number of polar angles
   - Na : (int) number of azimuthal angles (unique number at each polar level), or
          (table<int>) number of azimuthal angles (diverse number at each polar level)
   - verbose : (bool) verbosity flag (optional).
 
 
 \return Returns a unique handle to the created product quadrature rule
 
 \ingroup LuaQuadrature
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
 */
Returns chiCreateCylindricalProductQuadrature(int QuadratureType, varying values){}
/** Creates a curvilinear product quadrature suitable for spherical geometries.
 
 \param QuadratureType int Quadrature identifier.
 \param values varying Varying options based on the quadrature type.
 
 ##_
 
 ###QuadratureType:\n
 GAUSS_CHEBYSHEV\n
   Gauss-Chebyshev quadrature for the polar angle and no quadrature
   for the azimuthal angle.
   Arguments for this quadrature type, in order:
   - Np : (int) number of polar angles
   - verbose : (bool) verbosity flag (optional).
 
 ###QuadratureType:\n
 GAUSS_LEGENDRE\n
   Gauss-Legendre quadrature for the polar angle and no quadrature
   for the azimuthal angle.
   Arguments for this quadrature type, in order:
   - Np : (int) number of polar angles
   - verbose : (bool) verbosity flag (optional).
 
 
 \return Returns a unique handle to the created product quadrature rule
 
 \ingroup LuaQuadrature
 */
Returns chiCreateSphericalProductQuadrature(int QuadratureType, varying values){}
//framework/math/Quadratures/lua/getprodquadrature.cc
/** Get the values of a product quadrature
 
\param QuadHandle int Handle to an existing product quadrature.
 
\return Table A lua table with each entry being another table with entries
       .weight .polar .azimuthal.
 
\ingroup LuaQuadrature
\author Jan*/
Table chiGetProductQuadrature(int QuadHandle){}
//framework/math/Quadratures/lua/angular_quadrature_polaropt.cc
/**Optimizes the indicated angular quadrature for polar symmetry.
 *
\param handle        int. Handle to the quadrature to be optimized.
\param normalization double. (Optional) The normalization to be applied to the
                     modified quadrature. Any negative number will inhibit
                     renormalization. [Default=-1.0]
 
 ## _
 
 ###Example:
 Example:
\code
pquad = chiCreateProductQuadrature(GAUSS_LEGENDRE_CHEBYSHEV,2, 1)
chiOptimizeAngularQuadratureForPolarSymmetry(pqaud, 4.0*math.pi)
\endcode
 
\ingroup LuaQuadrature
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
\author Jan */
void chiOptimizeAngularQuadratureForPolarSymmetry(in handle, double normalization){}
//framework/math/Quadratures/lua/createprodquadrature.cc
/** Creates a Product-quadrature.
 *
\param QuadratureType int Quadrature identifier.
\param values varying Varying options based on the quadrature type.
 
##_
 
###QuadratureType:
GAUSS_LEGENDRE\n
 Gauss-Legendre quadrature for the polar angles and no quadrature rule
 for the azimuthal angle. Suitable only for 1D simulations. Expects
 to be followed by the number of angles Np. Optionally a verbosity flag
 can be added.\n\n
 
GAUSS_LEGENDRE_LEGENDRE\n
 Gauss-Legendre quadrature for both the polar and azimuthal dimension.
 Expects to be followed by number of Azimuthal and Polar angles.
 Optionally a verbosity flag can be added.\n\n
 
GAUSS_LEGENDRE_CHEBYSHEV\n
 Gauss-Legendre quadrature for the polar angle but Gauss-Chebyshev
 for the azimuthal angle.
 Expects to be followed by number of Azimuthal and Polar angles.
 Optionally a verbosity flag can be added.\n\n
 
CUSTOM_QUADRATURE\n
 Expects to be followed by three lua tables. The first table is an array,
 of length Na, of the azimuthal angles (radians). The second table is an array,
 of length Np, of the polar angles (radians). The third table is an array, of
 length Na*Np, and contains the weight associated with each angle pair.
 Optionally a verbosity flag can be added.\n\n
 
 
\return Returns a unique handle to the created product quadrature rule
 
\ingroup LuaQuadrature
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
\author Jan*/
Returns chiCreateProductQuadrature(int QuadratureType, varying values){}
//framework/math/Quadratures/LegendrePoly/lua/legendre_lua.cc
/**Provides the function evaluation of Pn at value x.
 
 \param N int The Legendre polynomial.
 \param x double The evaluation point.
 
### Usage Examples:
\ref test_framework_chi_math_Quadrature_quadrature_test1_lua  
\ref test_framework_chi_math_Quadrature_gold_quadrature_test1_lua_gold  
 \ingroup LuaMath*/
void chiLegendre(int N, double x){}
/**Provides the function evaluation of the derivative of Pn at value x
 
 \param N int The Legendre polynomial.
 \param x double The evaluation point.
 
### Usage Examples:
\ref test_framework_chi_math_Quadrature_quadrature_test1_lua  
\ref test_framework_chi_math_Quadrature_gold_quadrature_test1_lua_gold  
 \ingroup LuaMath*/
void chiLegendreDerivative(int N, double x){}
/**Provides the function evaluation of the spherical harmonics.
 
\param ell int The \f$ \ell \f$-th order of the harmonic.
\param m   int The \f$ m \f$-th moment of the harmonic.
\param theta double Radian polar angle \f$ \theta \f$.
\param varphi double Radian azimuthal angle \f$ \varphi \f$.
 
This code has a whitepaper associated with it
<a href="SphericalHarmonics.pdf" target="_blank"><b>Spherical Harmonics</b></a>
 
### Usage Examples:
\ref test_framework_chi_math_Quadrature_quadrature_test1_lua  
\ref test_framework_chi_math_Quadrature_gold_quadrature_test1_lua_gold  
\ingroup LuaMath*/
void chiYlm(int ell, int m, double theta, double varphi){}
//framework/math/Functions/lua/lua_chi_math_function.cc
void chiFunctionDimAToDimBEvaluate(){}
/**Evaluates a function of base type `FunctionXYZDimAToDimB`.
\param handle int. Handle to the function to evaluate.
\param params Varying. Table or individual arguments.
 
\return Varying Either a single number or a table of output values.*/
Varying chiFunctionDimAToDimBEvaluate(in handle, Varying params){}
//framework/post_processors/lua/lua_PostProcessorGetValue.cc
//framework/post_processors/lua/lua_PrintPostProcessors.cc
//framework/post_processors/lua/lua_ExecutePostProcessors.cc
//framework/post_processors/lua/lua_PPPrinterSetOptions.cc
//framework/mpi/lua/mpi_barrier.cc
/** Blocks until all processes in the communicator have reached this routine.
 
\ingroup chiMPI
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_framework_tutorials_fv_test2_lua  
\ref test_framework_tutorials_pwlc_test1_lua  
\ref test_framework_tutorials_pwlc_test2_lua  
\ref test_framework_tutorials_tutorial_91a_pwld_lua  
\ref test_framework_tutorials_fv_test1_lua  
\ref test_framework_tutorials_tutorial_06_wdd_lua  
\ref test_modules_LinearBoltzmannSolvers_DSA_acceleration_diffusion_CFEM_lua  
\ref test_modules_LinearBoltzmannSolvers_DSA_acceleration_diffusion_DFEM_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP1D_1G_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport1D_1G_lua  
\author Jan*/
void chiMPIBarrier(){}
//modules/FVDiffusion/lua/create_solver.cc
/** Creates a Finite Volume Diffusion solver.
 
\param solver_name string Optional. Text name for the solver.
                          [Default:"FVDiffusionSolver"]
 
\return Handle int Handle to the created solver.
\ingroup LuaDiffusion
*/
Handle chiFVDiffusionSolverCreate(string solver_name){}
//modules/FVDiffusion/lua/ds_lua_utils.cc
//modules/FVDiffusion/lua/setBCproperty.cc
/** Sets a property of a Diffusion solver. Please also consult the whitepaper
 * for the Diffusion solver (<a
 * href="../../whitepages/DiffusionSolver/DiffusionSolver.pdf">
 * Diffusion Whitepaper</a>)
 
\n\n Additional basic options can be set as indicated in \ref LuaDiffusionBasicOptions
 
\param SolverHandle int Handle to an existing diffusion solver.
\param PropertyName string Name for a specific property.
\param Values varying Number of inputs associated with the index.<br>
 
##_
 
###PropertyName\n
"boundary_type"\n
 Boundary type. Expects boundary index then <B>BoundaryTypeName</B>
 then type value.\n\n
 
\code
chiDiffusionsetBCproperty(solver,"boundary_type",2,"dirichlet",1.0)
\endcode
 
### BoundaryTypeName
reflecting\n
 Reflecting boundary conditions. Synonymous with Neumann with a
 derivative of 0.0.
             \f[ -D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
dirichlet\n
 Constant value boundary condition.
 Expects to be followed by a value \f$ f \f$ associated with \f$ \phi \f$.
            \f[ \phi = f \f]\n\n
 
neumann\n
 Constant derivative boundary condition. Expects to be followed
 by a constant \f$ f \f$ representing
                    \f[ -D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
vacuum\n
 Vacuum boundary conditions. More appropriate to neutron diffusion.
   \f[ \frac{1}{4}\phi + \frac{1}{2} D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
robin\n
 Robin boundary condition of the form
                   \f[ a \phi + b D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
\ingroup LuaDiffusion
\author Jan*/
void chiFVDiffusionSetBCProperty(int SolverHandle, string PropertyName, varying Values){}
//modules/MGDiffusion/lua/mgds_lua_utils.cc
//modules/MGDiffusion/lua/create_solver.cc
/** Creates a Multigroup CFEM Diffusion solver.
 
\return Handle int Handle to the created solver.
\ingroup LuaDiffusion
*/
Handle chiCFEMMGDiffusionSolverCreate(){}
//modules/MGDiffusion/lua/setBCproperty.cc
/** Sets a property of a Diffusion solver. Please also consult the whitepaper
 * for the Diffusion solver (<a
 * href="../../whitepages/DiffusionSolver/DiffusionSolver.pdf">
 * Diffusion Whitepaper</a>)
 
\n\n Additional basic options can be set as indicated in \ref LuaDiffusionBasicOptions
 
\param SolverHandle int Handle to an existing diffusion solver.
\param PropertyName string Name for a specific property.
\param Values varying Number of inputs associated with the index.<br>
 
##_
 
###PropertyName\n
"boundary_type"\n
 Boundary type. Expects boundary index then <B>BoundaryTypeName</B>
 then type value.\n\n
 
\code
chiCFEMMGDiffusionSetBCProperty(solver,"boundary_type",bdID,"vacuum")
\endcode
 
### BoundaryTypeName
reflecting\n
 Reflecting boundary conditions. Synonymous with Neumann with a
 derivative of 0.0.
             \f[ -D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
neumann\n
 Constant derivative boundary condition. Expects to be followed
 by a constant \f$ f \f$ representing
                    \f[ -D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
vacuum\n
 Vacuum boundary conditions. More appropriate to neutron diffusion.
   \f[ \frac{1}{4}\phi + \frac{1}{2} D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
robin\n
 Robin boundary condition of the form
                   \f[ a \phi + b D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
\ingroup LuaDiffusion
\author Jean*/
void chiCFEMMGDiffusionSetBCProperty(int SolverHandle, string PropertyName, varying Values){}
//modules/PointReactorKinetics/lua/prk_lua_utils.cc
/**Gets a parameter from the prk::TransientSolver.
*
* \param handle int Handle of the solver.
* \param param_name  string Name of the parameter to retrieve.
\return Varying*/
Varying*/ chiPRKGetParam(int handle, string param_name){}
/**Gets a parameter from the prk::TransientSolver.
*
* \param handle int Handle of the solver.
* \param param_name  string Name of the parameter to retrieve.
* \param value Varying The value to be set to the parameter.
\return Varying*/
Varying*/ chiPRKSetParam(int handle, string param_name, Varying value){}
//modules/lua/chi_modules_lua.cc
//modules/CFEMDiffusion/lua/create_solver.cc
/** Creates a CFEM Diffusion solver.
 
\return Handle int Handle to the created solver.
\ingroup LuaDiffusion
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
*/
Handle chiCFEMDiffusionSolverCreate(){}
//modules/CFEMDiffusion/lua/ds_lua_utils.cc
//modules/CFEMDiffusion/lua/setBCproperty.cc
/** Sets a property of a Diffusion solver. Please also consult the whitepaper
 * for the Diffusion solver (<a
 * href="../../whitepages/DiffusionSolver/DiffusionSolver.pdf">
 * Diffusion Whitepaper</a>)
 
\n\n Additional basic options can be set as indicated in \ref LuaDiffusionBasicOptions
 
\param SolverHandle int Handle to an existing diffusion solver.
\param PropertyName string Name for a specific property.
\param Values varying Number of inputs associated with the index.<br>
 
##_
 
###PropertyName\n
"boundary_type"\n
 Boundary type. Expects boundary index then <B>BoundaryTypeName</B>
 then type value.\n\n
 
\code
chiDiffusionsetBCproperty(solver,"boundary_type",2,"dirichlet",1.0)
\endcode
 
### BoundaryTypeName
reflecting\n
 Reflecting boundary conditions. Synonymous with Neumann with a
 derivative of 0.0.
             \f[ -D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
dirichlet\n
 Constant value boundary condition.
 Expects to be followed by a value \f$ f \f$ associated with \f$ \phi \f$.
            \f[ \phi = f \f]\n\n
 
neumann\n
 Constant derivative boundary condition. Expects to be followed
 by a constant \f$ f \f$ representing
                    \f[ -D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
vacuum\n
 Vacuum boundary conditions. More appropriate to neutron diffusion.
   \f[ \frac{1}{4}\phi + \frac{1}{2} D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
robin\n
 Robin boundary condition of the form
                   \f[ a \phi + b D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
\ingroup LuaDiffusion
### Usage Examples:
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_CFEM_Diffusion_cDiffusion_2D_1a_linear_lua  
\author Jan*/
void chiCFEMDiffusionSetBCProperty(int SolverHandle, string PropertyName, varying Values){}
//modules/DiffusionSolver/lua/diffusion_createsolver.cc
/** Creates a Diffusion solver.
 
\return Handle int Handle to the created solver.
\ingroup LuaDiffusion
### Usage Examples:
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\author Jan*/
Handle chiDiffusionCreateSolver(){}
//modules/DiffusionSolver/lua/diffusion_setproperty.cc
/** Sets a property of a Diffusion solver. Please also consult the whitepaper
 * for the Diffusion solver (<a
 * href="../../whitepages/DiffusionSolver/DiffusionSolver.pdf">
 * Diffusion Whitepaper</a>)
 
\n\n Additional basic options can be set as indicated in \ref LuaDiffusionBasicOptions
 
\param SolverHandle int Handle to an existing diffusion solver.
\param PropertyName string Name for a specific property.
\param Values varying Number of inputs associated with the index.<br>
 
##_
 
###PropertyName\n
"boundary_type"\n
 Boundary type. Expects boundary name (string) then <B>BoundaryTypeName</B>
 then type value.\n\n
 
\code
chiDiffusionSetProperty(solver,"boundary_type",2,"dirichlet",1.0)
\endcode
 
### BoundaryTypeName
reflecting\n
 Reflecting boundary conditions. Synonymous with Neumann with a
 derivative of 0.0.
             \f[ -D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
dirichlet\n
 Constant value boundary condition.
 Expects to be followed by a value \f$ f \f$ associated with \f$ \phi \f$.
            \f[ \phi = f \f]\n\n
 
neumann\n
 Constant derivative boundary condition. Expects to be followed
 by a constant \f$ f \f$ representing
                    \f[ -D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
vacuum\n
 Vacuum boundary conditions. More appropriate to neutron diffusion.
   \f[ \frac{1}{4}\phi + \frac{1}{2} D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
robin\n
 Robin boundary condition of the form
                   \f[ a \phi + b D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
\ingroup LuaDiffusion
### Usage Examples:
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\author Jan*/
void chiDiffusionSetProperty(int SolverHandle, string PropertyName, varying Values){}
//modules/DiffusionSolver/lua/diffusion_execute.cc
/** Initialize the Diffusion solver.
 *
\param SolverHandle int Handle to an existing diffusion solver.
 
\return Success bool Returns if initialization failed.
\ingroup LuaDiffusion
### Usage Examples:
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\author Jan*/
Success chiDiffusionExecute(int SolverHandle){}
//modules/DiffusionSolver/lua/diffusion_maindoc_page.cc
//modules/DiffusionSolver/lua/diffusion_initialize.cc
/** Initialize the Diffusion solver.
 *
\param SolverHandle int Handle to an existing diffusion solver.
 
\return Success bool Returns if initialization failed.
\ingroup LuaDiffusion
### Usage Examples:
\ref test_modules_Diffusion_Diffusion1D_IP_lua  
\ref test_modules_Diffusion_Diffusion1D_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_2Ortho_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_lua  
\ref test_modules_Diffusion_Diffusion2D_1Poly_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_4VTU_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_lua  
\ref test_modules_Diffusion_Diffusion1D_KBA_lua  
\ref test_modules_Diffusion_Diffusion2D_2Unstructured_IP_lua  
\ref test_modules_Diffusion_Diffusion3D_3Unstructured_lua  
\author Jan*/
Success chiDiffusionInitialize(int SolverHandle){}
//modules/DiffusionSolver/lua/diffusion_lua.cc
//modules/DFEMDiffusion/lua/create_solver.cc
/** Creates a DFEM Diffusion solver based on the interior penalty method.
 
\return Handle int Handle to the created solver.
\ingroup LuaDiffusion
### Usage Examples:
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
*/
Handle chiDFEMDiffusionSolverCreate(){}
//modules/DFEMDiffusion/lua/ip_lua_utils.cc
//modules/DFEMDiffusion/lua/setBCproperty.cc
/** Sets a property of a Diffusion solver. Please also consult the whitepaper
 * for the Diffusion solver (<a
 * href="../../whitepages/DiffusionSolver/DiffusionSolver.pdf">
 * Diffusion Whitepaper</a>)
 
\n\n Additional basic options can be set as indicated in \ref LuaDiffusionBasicOptions
 
\param SolverHandle int Handle to an existing diffusion solver.
\param PropertyName string Name for a specific property.
\param Values varying Number of inputs associated with the index.<br>
 
##_
 
###PropertyName\n
"boundary_type"\n
 Boundary type. Expects boundary index then <B>BoundaryTypeName</B>
 then type value.\n\n
 
\code
chiDiffusionsetBCproperty(solver,"boundary_type",2,"dirichlet",1.0)
\endcode
 
### BoundaryTypeName
reflecting\n
 Reflecting boundary conditions. Synonymous with Neumann with a
 derivative of 0.0.
             \f[ -D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
dirichlet\n
 Constant value boundary condition.
 Expects to be followed by a value \f$ f \f$ associated with \f$ \phi \f$.
            \f[ \phi = f \f]\n\n
 
neumann\n
 Constant derivative boundary condition. Expects to be followed
 by a constant \f$ f \f$ representing
                    \f[ -D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
vacuum\n
 Vacuum boundary conditions. More appropriate to neutron diffusion.
   \f[ \frac{1}{4}\phi + \frac{1}{2} D \hat{n}\cdot \nabla \phi = 0 \f]\n\n
 
robin\n
 Robin boundary condition of the form
                   \f[ a \phi + b D \hat{n}\cdot \nabla \phi = f \f]\n\n
 
\ingroup LuaDiffusion
### Usage Examples:
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2a_DirBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3a_analytical_coef_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_3b_analytical_coef2_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_2b_RobinBCs_lua  
\ref test_modules_DFEM_Diffusion_dDiffusion_2D_1a_linear_lua  
\author Jan*/
void chiDFEMDiffusionSetBCProperty(int SolverHandle, string PropertyName, varying Values){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_lua_utils.cc
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_init_materials.cc
/**Initializes or reinitializes the materials. This normally happens
 * automatically during solver initialization but if the user wants to
 * swap/change XSs during the run then this will allow the material structures
 * to now deal with the new/changed materials.
 *
\param SolverIndex int Handle to the solver maintaining the information.
 
\ingroup LBSLuaFunctions
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\author Jan*/
void chiLBSInitializeMaterials(int SolverIndex){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_point_sources.cc
/**Adds a point source to an LBS solver.
\param SolverIndex int Handle to the solver.
\param Location_x double X-location.
\param Location_y double Y-location.
\param Location_z double Z-location.
\param Strength table Source strength as a multigroup vector.
 
 \ingroup LBSLuaFunctions
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2a_forward_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3a_forward_lua  
 */
void chiLBSAddPointSource(int SolverIndex, double Location_x, double Location_y, double Location_z, table Strength){}
/**Clears all the point sources from the solver. This is mostly
 * useful for adjoint response calculations.
\param SolverIndex int Handle to the solver.
 
 \ingroup LBSLuaFunctions
 */
void chiLBSClearPointSources(int SolverIndex){}
/**Initializes the point sources. This is mostly
 * useful for adjoint response calculations.
\param SolverIndex int Handle to the solver.
 
 \ingroup LBSLuaFunctions
 */
void chiLBSInitializePointSources(int SolverIndex){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_io_angular_fluxes.cc
/**Writes the angular fluxes of a LBS groupset to file.
 
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
 
\param file_base string Path+Filename_base to use for the output. Each location
                        will append its id to the back plus an extension ".data"
 
*/
void chiLBSWriteGroupsetAngularFlux(int SolverIndex, int GroupsetIndex, string file_base){}
/**Reads the angular fluxes of a LBS groupset from a file.
 
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
 
\param file_base string Path+Filename_base to use for the output. Each location
                        will append its id to the back plus an extension ".data"
 
*/
void chiLBSReadGroupsetAngularFlux(int SolverIndex, int GroupsetIndex, string file_base){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_setproperty.cc
/**Set LBS property.
\param SolverIndex int Handle to the solver for which the set is to be created.
\param PropertyIndex int Code for a specific property.
 
 
##_
 
###PropertyIndex
DISCRETIZATION_METHOD\n
 Discretization method.\n\n
 
BOUNDARY_CONDITION\n
 Boundary condition type. See BoundaryIdentify.\n\n
 
SCATTERING_ORDER\n
 Defines the level of harmonic expansion for the scattering source.Default 1.
 Expects to be followed by an integer.\n\n
 
SWEEP_EAGER_LIMIT\n
 The eager limit to be used in message size during sweep initialization.
 This expects to be followed by a size in bytes (Max 64,0000).Default 32,000.
 See note below.\n\n
 
READ_RESTART_DATA\n
 Indicates the reading of restart data from restart file.
 The value can be followed by two
 optional strings. The first is the folder name which can be relative or
 absolute, and the second is the file base name. These are defaulted to
 "YRestart" and "restart" respectively.\n\n
 
SAVE_ANGULAR_FLUX\n
Sets the flag for saving the angular flux. Expects to be followed by true/false.
[Default=false]\n\n
 
USE_SOURCE_MOMENTS\n
 Flag for using a vector of source moments instead the regular material/boundary
  source. Default false. This expects
 to be followed by a boolean.\n\n
 
VERBOSE_INNER_ITERATIONS\n
 Flag for printing inner iteration information. This is primarily used
 for printing information related to group-set-level iterative methods.
 Default true. Expects to be followed by a boolean.\n\n
 
VERBOSE_OUTER_ITERATIONS\n
 Flag for printing outer iteration information. This is primarily used
 for printing information aggregated over group sets such as k-eigenvalue
 iterations. Default true. Expects to be followed by a boolean.\n\n
 
USE_PRECURSORS\n
 Flag for using delayed neutron precursors. Default false. This expects
 to be followed by a boolean.\n\n
 
\code
chiLBSSetProperty(phys1,READ_RESTART_DATA,"YRestart1")
\endcode
 
WRITE_RESTART_DATA\n
 Indicates the writing of restart data to restart files.
 The value can be followed by two optional strings and a number
 optional strings. The first string is the folder name which can be relative or
 absolute, and the second string is the file base name. The number is the time
 interval (in minutes) for a restart write to be triggered (apart from GMRES
 restarts and the conclusion of groupset completions) .These are defaulted to
 "YRestart", "restart" and 30 minutes respectively.\n\n
 
\code
chiLBSSetProperty(phys1,WRITE_RESTART_DATA,"YRestart1","restart",1)
\endcode
 
###Discretization methods
 PWLD = Piecewise Linear Finite Element.\n
 
###BoundaryIdentify
This value follows the argument BOUNDARY_CONDITION and identifies which
boundary is under consideration. Right now only boundaries aligned with
cartesian axes are considered. Followed by LBSBoundaryType.\n
XMAX = Right boundary \n
XMIN = Left boundary \n
YMAX = Front boundary \n
YMIN = Back boundary \n
ZMAX = Top boundary \n
ZMIN = Bottom boundary \n
 
###LBSBoundaryType
Specifies the type of boundary. Depending on the type this argument needs
to be followed by one or more values. Note: By default all boundaries are
type VACUUM.\n
\n
LBSBoundaryTypes.VACUUM\n
Specifies a vaccuum boundary condition. It is not followed by any value.\n
\code
chiLBSSetProperty(phys1,BOUNDARY_CONDITION,XMIN,
                      LBSBoundaryTypes.VACUUM);
\endcode
\n
LBSBoundaryTypes.INCIDENT_ISOTROPIC\n
Incident isotropic flux. This argument needs to be followed by a lua table
index 1 to G where G is the amount of energy groups. Note internally this
is mapped as 0 to G-1.\n
\code
bsrc={}
for g=1,num_groups do
    bsrc[g] = 0.0
end
bsrc[1] = 1.0
chiLBSSetProperty(phys1,BOUNDARY_CONDITION,XMIN,
                      LBSBoundaryTypes.INCIDENT_ISOTROPIC, bsrc);
\endcode
\n
LBSBoundaryTypes.REFLECTING\n
Reflecting boundary condition. Beware, when opposing reflecting boundary
conditions are used this enduces a cyclic dependency which will increase the
iteration convergence behavior.\n
\code
chiLBSSetProperty(phys1,BOUNDARY_CONDITION,XMIN,
                      LBSBoundaryTypes.REFLECTING);
\endcode
\n
LBSBoundaryTypes.INCIDENT_ANISTROPIC_HETEROGENEOUS\n
Expects to be followed by the name of a lua function. The lua function will get
called with the following parameters:
```
size_t        cell_global_id,
int           cell_material_id,
unsigned int  face_index,
unsigned int  face_node_index,
const chi_mesh::Vector3& face_node_location,
const chi_mesh::Vector3& face_node_normal,
const std::vector<int>& quadrature_angle_indices,
const std::vector<chi_mesh::Vector3>& quadrature_angle_vectors,
const std::vector<std::pair<double,double>>& quadrature_phi_theta_angles,
const std::vector<int>& group_indices,
double evaluation_time;
```
and must return a 1D array of data-values ordered first by angle index, then
by group index, e.g., n0g0, n0g1, n0g2, n1g0, n1g1, n1g2, etc.
 
Example lua function:
\code
function luaBoundaryFunctionA(cell_global_id,
                              material_id,
                              location,
                              normal,
                              quadrature_angle_indices,
                              quadrature_angle_vectors,
                              quadrature_phi_theta_angles,
                              group_indices)
    num_angles = rawlen(quadrature_angle_vectors)
    num_groups = rawlen(group_indices)
    psi = {}
    dof_count = 0
 
    for ni=1,num_angles do
        omega = quadrature_angle_vectors[ni]
        phi_theta = quadrature_phi_theta_angles[ni]
        for gi=1,num_groups do
            g = group_indices[gi]
 
            value = 1.0
 
            dof_count = dof_count + 1
            psi[dof_count] = value
        end
    end
 
    return psi
end
 
chiLBSSetProperty(phys1,BOUNDARY_CONDITION,XMIN,
                      LBSBoundaryTypes.INCIDENT_ANISTROPIC_HETEROGENEOUS,
                      "luaBoundaryFunctionA");
\endcode
 
 
###Note on the Eager limit
The eager limit is the message size limit before which non-blocking MPI send
calls will execute without waiting for a matching receive call. The limit is
platform dependent but in general 64 kb. Some systems have 32 kb as a limit
and therefore we use that as a default limit in ChiTech. There is a fine
interplay between message size and the shear amount of messages that will be
sent. In general smaller messages tend to be more efficient, however, when
there are too many small messages being sent around the communication system
on the given platform will start to suffer. One can gain a small amount of
parallel efficiency by lowering this limit, however, there is a point where
the parallel efficiency will actually get worse so use with caution.
 
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ingroup LBSLuaFunctions*/
void chiLBSSetProperty(int SolverIndex, int PropertyIndex){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_getfieldfuncs.cc
/**Obtains a list of field functions, related only to scalar flux,
from the transport solver.
 
\param SolverIndex int Handle to the solver for which the list is to be
obtained.
 
\return Pair Table and count. Returns an array of handles and the amount of
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_2Multigroup_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_KEigen_KEigenvalueMIP2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_SteadyCBC_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_3Poly_quad_mod_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_5PolyA_AniHeteroBndry_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_5Cycles2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4b_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1a_Extruder_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_4a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6ASplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_6BSplitMesh_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport1D_4_DSA_ortho_inf_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_4Cycles1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1b_Ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_2Unstructured_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_parmetis_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1c_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1b_QBlock_CBC_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_KEigenvalueTransport2D_1a_QBlock_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_3a_DSA_ortho_lua  
\ref test_modules_LinearBoltzmannSolvers_MGDiffusion_Steady_MIPDiffusion3D_1b_Ortho_lua  
elements in it (indexed from 1). \ingroup LBSLuaFunctions \author Jan*/
Pair chiLBSGetScalarFieldFunctionList(int SolverIndex){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_groupset_ops.cc
/**Create a groupset.
\param SolverIndex int Handle to the solver for which the set is to be created.
 
##_
 
Example:
\code
gs0 = chiLBSCreateGroupset(phys1)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSCreateGroupset(int SolverIndex){}
/**Create a group.
\param SolverIndex int Handle to the solver for which the group
is to be created.
\param GroupId int Optional. If not supplied the next logical number
                             is assigned.
 
##_
 
Example:
\code
--========== Groups
grp = {}
for g=1,num_groups do
    grp[g] = chiLBSCreateGroup(phys1)
end
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSCreateGroup(int SolverIndex, int GroupId){}
/**Adds a block of groups to a groupset.
\param SolverIndex int Handle to the solver for which the group
is to be created.
\param GroupsetIndex int Handle to the groupset to which the group is
 to be added.
\param FromIndex int From which group.
\param ToIndex int To which group.
 
##_
 
Example:
\code
grp = {}
for g=1,num_groups do
    grp[g] = chiLBSCreateGroup(phys1)
end
 
chiLBSGroupsetAddGroups(phys1,cur_gs,0,15)
\endcode
 
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSGroupsetAddGroups(int SolverIndex, int GroupsetIndex, int FromIndex, int ToIndex){}
/**Sets the product quadrature used for the groupset
\param SolverIndex int Handle to the solver for which the group
is to be created.
\param GroupsetIndex int Handle to the groupset to which the group is
 to be added.
\param QuadratureIndex int Handle to the quadrature to be set for this
 groupset.
 
 
##_
 
Example:
\code
pquad0 = chiCreateProductQuadrature(GAUSS_LEGENDRE_CHEBYSHEV,2, 2)
 
chiLBSGroupsetSetQuadrature(phys1,cur_gs,pquad0)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSGroupsetSetQuadrature(int SolverIndex, int GroupsetIndex, int QuadratureIndex){}
/**Sets the the type of angle aggregation to use for this groupset.
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
\param AggregationType int See AggregationType.
 
##_
 
###AggregationType
LBSGroupset.ANGLE_AGG_POLAR\n
 Use Polar angle aggregation. This is the default.\n\n
 
LBSGroupset.ANGLE_AGG_SINGLE\n
 Use Single angle aggregation.\n\n
 
LBSGroupset.ANGLE_AGG_AZIMUTHAL\n
 Use Azimuthal angle aggregation.\n\n
 
Example:
\code
chiLBSGroupsetSetAngleAggregationType(phys1,cur_gs,LBSGroupset.ANGLE_AGG_POLAR)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
*/
void chiLBSGroupsetSetAngleAggregationType(int SolverIndex, int GroupsetIndex, int AggregationType){}
/**Sets the angle aggregation divisions
\param SolverIndex int Handle to the solver for which the group
is to be created.
\param GroupsetIndex int Handle to the groupset to which the group is
 to be added.
\param NumDiv int Number of divisions to use for the angle aggregation.
 
Note: by default polar aggregation will combine all polar angles in a hemisphere
 for a given azimuthal angleset. Therefore if there are 24 polar angles and
 4 azimuthal angles the default polar aggregation will create 8 anglesets
 (2 per quadrant to allow top and bottom hemisphere) and each angleset will have the
 12 polar angles associated with a hemisphere. When the number of divisions is
 greater than 1 then the polar angles will be split into divisions. For example
 if the number of divisions is 2 then more angleset will be created, this time
 having 6 polar angles per angleset.
 
##_
 
Example:
\code
chiLBSGroupsetSetAngleAggDiv(phys1,cur_gs,1)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSGroupsetSetAngleAggDiv(int SolverIndex, int GroupsetIndex, int NumDiv){}
/**Sets the number of group-subsets to use for groupset. Default 1.
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
\param NumDiv int Number of divisions of the groupset to use.
 
##_
 
Example:
\code
chiLBSGroupsetSetGroupSubsets(phys1,cur_gs,1)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSGroupsetSetGroupSubsets(int SolverIndex, int GroupsetIndex, int NumDiv){}
/**Sets the number of group-subsets to use for groupset. Default 1.
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
\param IterativeMethod int Iteritve method identifier.
 
##_
 
### IterativeMethod
NPT_CLASSICRICHARDSON\n
Standard source iteration, without using PETSc.\n\n
 
NPT_CLASSICRICHARDSON_CYCLES\n
Standard source iteration, without using PETSc,
with cyclic dependency convergence.\n\n
 
NPT_GMRES\n
Legacy Generalized Minimal Residual formulation for iterations.\n\n
 
NPT_GMRES_CYCLES\n
Legacy Generalized Minimal Residual formulation for iterations with cyclic
dependency convergence.\n\n
 
 
KRYLOV_RICHARDSON\n
Richardson iteration.\n\n
 
KRYLOV_RICHARDSON_CYCLES\n
Richardson iteration with cyclic dependency convergence.\n\n
 
KRYLOV_GMRES\n
Generalized Minimal Residual method.\n\n
 
KRYLOV_GMRES_CYCLES\n
Generalized Minimal Residual method with cyclic dependency convergence.\n\n
 
KRYLOV_BICGSTAB\n
Biconjugate Gradient Stabilized method.\n\n
 
KRYLOV_BICGSTAB_CYCLES\n
Biconjugate Gradient Stabilized method with cyclic dependency convergence.\n\n
 
 
##_
 
### Notes on selecting iterative methods
The iterative methods NPT_CLASSICRICHARDSON, NPT_CLASSICRICHARDSON_CYCLES,
NPT_GMRES and NPT_GMRES_CYCLES are considered legacy. The NPT_GMRES and
NPT_GMRES_CYCLES are now considered deprecated with the inclusion of the
generalized Krylov iteration method-class (which supports all the options
prepended with KRYLOV_).
 
RICHARDSON is probably the least memory consuming but has the poorest
convergence rate.
 
GMRES generally has the best convergence rate but it builds a basis
comprising multiple solutions vectors, the amount of which is controlled via
the gmres-restart parameter, which can dramatically increase memory consumption.
GMRES restarts, i.e. the amount of iterations before the basis is destroyed and
restarted, influences both memory consumptions and convergence behavior, e.g.,
lower restart numbers generally lowers memory consumption but increases the
amount of iteration required to convergence.
 
The required memory and the computational time for one iteration with BiCGStab
is constant, i.e., the time and memory requirements do not increase with the
number of iterations as they do for restarted GMRES. BiCGStab uses approximately
the same amount of memory as GMRES uses for two iterations. Therefore, BiCGStab
typically uses less memory than GMRES. The convergence behavior of BiCGStab is
often more irregular than that of GMRES. Intermediate residuals can even be
orders of magnitude larger than the initial residual, which can affect the
numerical accuracy as well as the rate of convergence. If the algorithm detects
poor accuracy in the residual or the risk of stagnation, it restarts the
iterations with the current solution as the initial guess. In contrast to GMRES,
BiCGStab uses two matrix-vector multiplications each iteration (requiring two
transport sweeps). Also, when using the left-preconditioned BiCGStab, an
additional preconditioning step is required each iteration. That is,
left-preconditioned BiCGStab requires a total of three preconditioning steps in
each iteration. We generally apply Within-group Diffusion Synthetic Acceleration
(WGDSA) and Two-Grid Acceleration (TGDSA) as left-preconditioners and therefore
the total cost of these pre-conditioners will increase when using BiCGStab. Use
BiCGStab when you are running problem with a high scattering order (i.e., L is
large) because this will dramatically increase the GMRES basis.
 
Example:
\code
chiLBSGroupsetSetIterativeMethod(phys1,cur_gs,NPT_CLASSICRICHARDSON)
chiLBSGroupsetSetIterativeMethod(phys1,cur_gs,NPT_GMRES)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
*/
void chiLBSGroupsetSetIterativeMethod(int SolverIndex, int GroupsetIndex, int IterativeMethod){}
/**Sets the residual tolerance for the iterative method of the groupset.
 *
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
\param ResidualTol float residual tolerance (default 1.0e-6)
 
Note this tolerance also gets used for classic-richardson pointwise convergence
tolerance.
 
##_
 
Example:
\code
chiLBSGroupsetSetResidualTolerance(phys1,cur_gs,1.0e-4)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSGroupsetSetResidualTolerance(int SolverIndex, int GroupsetIndex, float ResidualTol){}
/**Sets the maximum number of iterations for the groupset iterative method.
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
\param Numiter int Maximum number of iterations. Default 1000.
 
##_
 
Example:
\code
chiLBSGroupsetSetMaxIterations(phys1,cur_gs,200)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Keigen_c5g7_c5g7_lua  
*/
void chiLBSGroupsetSetMaxIterations(int SolverIndex, int GroupsetIndex, int Numiter){}
/**Sets the restart interval for GMRES if applied to the groupset.
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
\param Intvl int Interval to use for GMRES restarts. Default 30.
 
##_
 
Example:
\code
chiLBSGroupsetSetGMRESRestartIntvl(phys1,cur_gs,15)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_framework_tutorials_tutorial_93_raytracing_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Cyl_Transport2DCyl_1Monoenergetic_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSGroupsetSetGMRESRestartIntvl(int SolverIndex, int GroupsetIndex, int Intvl){}
/**Enables or disables the printing of a sweep log.
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
\param flag bool Flag indicating whether to print sweep log. Default false.
 
##_
 
Example:
\code
chiLBSGroupsetSetEnableSweepLog(phys1,cur_gs,true)
\endcode
 
\ingroup LuaLBSGroupsets
*/
void chiLBSGroupsetSetEnableSweepLog(int SolverIndex, int GroupsetIndex, bool flag){}
/**Sets the Within-Group Diffusion Synthetic Acceleration parameters
 * for this groupset. If this call is being made then it is assumed
 * WGDSA is being applied.
 *
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
\param MaxIters int Maximum amount of iterations to use for WGDSA solvers.
                    Default 30.
\param ResTol float Residual tolerance to use for the WGDSA solve.
 
\param Verbose bool Optional flag indicating verbose output of WGDSA.
                    Default false.
\param PETSCString char Optional. Options string to be inserted
                        during initialization.
 
 
 
##_
 
Example:
\code
petsc_options =                  " -pc_hypre_boomeramg_strong_threshold 0.8"
petsc_options = petsc_options .. " -pc_hypre_boomeramg_max_levels 25"
chiLBSGroupsetSetWGDSA(phys1,cur_gs,30,1.0e-4,false,petsc_options)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSGroupsetSetWGDSA(int SolverIndex, int GroupsetIndex, int MaxIters, float ResTol, bool Verbose, char PETSCString){}
/**Sets the Two-Grid Diffusion Synthetic Acceleration parameters
 * for this groupset. If this call is being made then it is assumed
 * TGDSA is being applied.
 *
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param GroupsetIndex int Index to the groupset to which this function should
                         apply
\param MaxIters int Maximum amount of iterations to use for TGDSA solvers.
                    Default 30.
\param ResTol float Residual tolerance to use for the TGDSA solve.
 
\param Verbose bool Optional flag indicating verbose output of TGDSA.
                    Default false.
\param PETSCString char Optional. Options string to be inserted
                        during initialization.
 
 
 
##_
 
Example:
\code
petsc_options =                  " -pc_hypre_boomeramg_strong_threshold 0.8"
petsc_options = petsc_options .. " -pc_hypre_boomeramg_max_levels 25"
chiLBSGroupsetSetTGDSA(phys1,cur_gs,30,1.0e-4,false,petsc_options)
\endcode
 
\ingroup LuaLBSGroupsets
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
*/
void chiLBSGroupsetSetTGDSA(int SolverIndex, int GroupsetIndex, int MaxIters, float ResTol, bool Verbose, char PETSCString){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_compute_fissrates.cc
/**Computes and returns the fission rate.
 *
\param SolverIndex int Handle to the solver maintaining the information.
\param OldNewOption string "NEW" or "OLD". For steady state solvers, the
                           "OLD" option would give the fission rate for
                           the previous iterate. [Default="NEW"]
 
\return double The fission rate.
 
\ingroup LBSLuaFunctions
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\author Jan*/
double chiLBSComputeFissionRate(int SolverIndex, string OldNewOption){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_io_flux_moments.cc
/**Writes the flux-moments of a LBS solution to file (phi_old_local).
 
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param file_base string Path+Filename_base to use for the output. Each location
                        will append its id to the back plus an extension ".data"
 
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1b_adjoint_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3b_adjoint_lua  
*/
void chiLBSWriteFluxMoments(int SolverIndex, string file_base){}
/**Creates scattered source-moments, based on a LBS solution, and writes them
 * to file.
 
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param file_base string Path+Filename_base to use for the output. Each location
                        will append its id to the back plus an extension ".data"
 
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part1_lua  
*/
void chiLBSCreateAndWriteSourceMoments(int SolverIndex, string file_base){}
/**Reads flux-moments from a file and creates a scattering source from these
 * moments to be used instead of a regular material/boundary source.
 
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param file_base string Path+Filename_base to use for the output. Each location
                        will append its id to the back plus an extension ".data"
 
\param single_file_flag bool (Optional) Flag indicating that the file is a
                             single stand-alone file. The file_base will then
                             be used without adding the location-id, but still
                             with the ".data" appended. Default: false.
 
*/
void chiLBSReadFluxMomentsAndMakeSourceMoments(int SolverIndex, string file_base, bool single_file_flag){}
/**Reads the source-moments from a file to a specific ext_src_moments_local-vector
 * to be used instead of a regular material/boundary source.
 
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param file_base string Path+Filename_base to use for the output. Each location
                        will append its id to the back plus an extension ".data"
 
\param single_file_flag bool (Optional) Flag indicating that the file is a
                             single stand-alone file. The file_base will then
                             be used without adding the location-id, but still
                             with the ".data" appended. Default: false.
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport3D_1Poly_qmom_part2_lua  
*/
void chiLBSReadSourceMoments(int SolverIndex, string file_base, bool single_file_flag){}
/**Reads flux-moments from a file to phi_old_local (the initial flux solution).
 
\param SolverIndex int Handle to the solver for which the group
is to be created.
 
\param file_base string Path+Filename_base to use for the output. Each location
                        will append its id to the back plus an extension ".data"
 
\param single_file_flag bool (Optional) Flag indicating that the file is a
                             single stand-alone file. The file_base will then
                             be used without adding the location-id, but still
                             with the ".data" appended. Default: false.
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_3c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_2c_response_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Adjoint_Adjoint2D_1c_response_lua  
*/
void chiLBSReadFluxMoments(int SolverIndex, string file_base, bool single_file_flag){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_lua_setphi_from_ff.cc
/**Sets the internal phi vector to the value in the associated
field function.
\param handle int Handle to the lbs-based object.
\param specs Table Various options in a table. Detailed below.
 
##_
 
### Example usage
Example:
\code
chiLBSSetPhiFromFieldFunction(phys1,
{
  which_phi = "old",  --Optional
  m_ids = {0,1,2,3},  --Optional Empty means all of them
  g_ids = {}          --Optional Empty means all of them
})
\endcode
 
### Table keys
`which_phi`\n
<I>type=</I><span style="color: blue;"><TT>STRING</TT></span>
Optional. Can be "old" or "new". Denotes which phi version to copy to.
Default: `"old"`.\n\n
 
`m_ids`\n
<I>type=</I><span style="color: blue;"><TT>ARRAY</TT></span>
Optional. Array of moment IDs. If this is empty all the moments will be copied.
Default: `{}`.\n\n
 
`g_ids`\n
<I>type=</I><span style="color: blue;"><TT>ARRAY</TT></span>
Optional. Array of group IDs. If this is empty all the groups will be copied.
Default: `{}`.\n\n
 
*/
void chiLBSSetPhiFromFieldFunction(int handle, Table specs){}
//modules/LinearBoltzmannSolvers/A_LBSSolver/lua/lbs_lua_setoptions.cc
//modules/LinearBoltzmannSolvers/C_DiscreteOrdinatesAdjointSolver/lua/lbsadj_lua_export_impmap_binary.cc
void chiAdjointSolverExportImportanceMapBinary(){}
//modules/LinearBoltzmannSolvers/C_DiscreteOrdinatesAdjointSolver/lua/lbsadj_lua_innerprod.cc
void chiAdjointSolverComputeInnerProduct(){}
//modules/LinearBoltzmannSolvers/C_DiscreteOrdinatesAdjointSolver/lua/lbsadj_lua_addresponsefunc.cc
void chiAdjointSolverAddResponseFunction(){}
//modules/LinearBoltzmannSolvers/C_DiscreteOrdinatesAdjointSolver/lua/lbsadj_lua_buffers.cc
/**Reads flux-moments file to a buffer and returns a handle to that buffer.
 
\param SolverHandle int Handle to the relevant solver.
\param FileBaseName string The base-name of the file(s) from which to read
                           the flux moments.
 
\return handle int A handle that can be used with
                   `chiAdjointSolverApplyFluxMomentBuffer`.*/
handle chiAdjointSolverReadFluxMomentsToBuffer(int SolverHandle, string FileBaseName){}
/**Applies buffered flux-moments data to the current phi-old.
 
\param SolverHandle int Handle to the relevant solver.
\param BufferHandle int The handle to the buffer-position to be applied.
 */
void chiAdjointSolverApplyFluxMomentBuffer(int SolverHandle, int BufferHandle){}
//modules/LinearBoltzmannSolvers/C_DiscreteOrdinatesAdjointSolver/lua/lbsadj_lua_makeexprepfromP1.cc
void chiAdjointSolverMakeExpRepFromP1Moments(){}
//modules/LinearBoltzmannSolvers/B_DiscreteOrdinatesSolver/lua/lbs_compute_leakage.cc
/**Computes the leakage for the specified groupset and boundary id.
 *
\param SolverIndex int Handle to the solver.
\param GroupSetHandle int Handle to the groupset.
\param BoundaryID int Id of the boundary for which leakage is to be computed.
 
\return The leakage on a per group basis.
 
\ingroup LBSLuaFunctions
\author Jan*/
The chiLBSComputeLeakage(int SolverIndex, int GroupSetHandle, int BoundaryID){}
//modules/LinearBoltzmannSolvers/B_DiscreteOrdinatesSolver/lua/lbs_compute_balance.cc
/**Computes balance tables and prints it to the console.
 *
\param SolverIndex int Handle to the solver for which the list is to be
obtained.
 
\ingroup LBSLuaFunctions
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_Balance_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Steady_Transport2D_1Poly_BalanceMG_lua  
\author Jan*/
void chiLBSComputeBalance(int SolverIndex){}
//modules/LinearBoltzmannSolvers/D_DO_Transient/lua/lbts_lua_advancetimedata.cc
/**Advances time dependent data to the next timestep.
 
\param SolverIndex int Handle to the solver..
 
 
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\author Zachary Hardy*/
void chiLBTSAdvanceTimeData(int SolverIndex){}
//modules/LinearBoltzmannSolvers/D_DO_Transient/lua/lbts_lua_create_solver.cc
/**Creates a LBS-TransientSolver.
 
\param SolverName string Optional. The text name of the solver.
                         [Default="LBSTransientSolver"].
 
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\author Zachary Hardy*/
void chiLBSCreateTransientSolver(string SolverName){}
//modules/LinearBoltzmannSolvers/D_DO_Transient/lua/lbts_lua_utils.cc
//modules/LinearBoltzmannSolvers/D_DO_Transient/lua/lbts_lua_setproperty.cc
/**Sets a property of the LBS-TransientSolver or any derived class.
 
\param SolverIndex int Handle to the solver for which the set is to be created.
\param PropertyName string String name for a specific property.
 
 
##_
 
##ProperyName
"TIMESTEP"\n
Expects to be followed by a floating point value representing the timestep.\n\n
 
"TIME"\n
Sets the current time. [Default=0.0]\n\n
 
"TIMESTOP"\n
Sets the termination time. [Default=0.1]\n\n
 
"MAX_TIMESTEPS"\n
Sets the maximum number of timesteps during a call to Execute. A negative
value disable the logic to check for timestep-counters exceeding this amount.
[Default=10]\n\n
 
"INHIBIT_ADVANCE"\n
Sets a flag that prevents the time from advancing. Can be used to reject a
timestep. [Default=false]\n\n
 
"VERBOSITY_LEVEL"\n
Sets the verbosity level. Level 0, nothing gets printed. Level 1, basic info.
 [Default=1]\n\n
 
"TIMESTEP_METHOD"\n
Sets the time-stepping method. Can be "CRANK_NICHOLSON" or "BACKWARD_EULER".
[Default="CRANK_NICHOLSON"]\n\n
 
"CALLBACK"\n
Sets the timestep callback function. [Default=Nothing]\n\n
 
"SCALE_FISSION_XS"\n
Sets a boolean flag to normalize the fission cross-sections by the
k-eigenvalue. [Default=false]\n\n
 
"NORMALIZATION_METHOD"\n
Sets the initial data normalization data. Can be "TOTAL_POWER",
"POWER_DENSITY", or "NONE". [Default="TOTAL_POWER"]\n\n
 
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\author Zachary Hardy*/
void chiLBTSSetProperty(int SolverIndex, string PropertyName){}
//modules/LinearBoltzmannSolvers/D_DO_Transient/lua/lbts_lua_getproperty.cc
/**Gets a property of a LBS-TransientSolver or any derived class.
 
\param SolverIndex int Handle to the solver for which the set is to be created.
\param PropertyName string String name for a specific property.
 
 
##_
 
##ProperyName
"TIMESTEP"\n
Returns the current timestep.\n\n
 
"TIMESTOP"\n
Returns the stop time.\n\n
 
"INHIBIT_ADVANCE"\n
Returns the flag.\n\n
 
"TIME"\n
Returns the simulation time before the latest timestep.\n\n
 
 
### Usage Examples:
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_1_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_3_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport2D_2_lua  
\ref test_modules_LinearBoltzmannSolvers_Transport_Transient_TransientTransport1D_2_lua  
\author Zachary Hardy*/
void chiLBTSGetProperty(int SolverIndex, string PropertyName){}
}//namespace chi_lua