FreeSurface Add initial files#880
Conversation
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Hi @jginternational, I am not a developer of the FreeSurface application but the FluidDEM, are you sure that you need my review? |
jginternational
requested review from
joaquinirazabal
and removed request for
jgonzalezusua
Sorry, my fault. I need some hollidays |
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Hi @jginternational, thanks for creating this branch so quick. |
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Hi, @jginternational, I saw that you include the FreeSurface in the Fluid applications window. It looks great, but let's ask @rubenzorrilla if they want it there or in the main window outside the Fluid applications window.
What do you think, @rubenzorrilla? |
Hey! No problem from my side. Actually, I think it makes sense 👍 . |
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Hi, @jginternational, have you made any progress on this issue? Do you need anything from our side? |
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you can try the app You can also try the 2D example I've created based on your model. It is not properly calibrated.
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Thank you very much, @jginternational! I will take a look. |
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I pushed some changes to solve some errors I found. Do you think they are correct, @jginternational? There are two other problems that I don't know why they occur:
Thanks |
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Well, the first point is fixed now. It was a typo in the name of the icon (windows is case unsensitive so it's difficult to notice) The second one indicates that you are trying to run using the pip packages deployed, and Free Surface is not in the deploy yet. Using Kratos preferences you can switch the Launch mode. Set it to 'Local Compiled' to run using your compilation, that must be placed in kratos.gid/exec/runkratos (as always) |
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Now it is working great, thanks @jginternational. I changed some things in the example to make it work better. |
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Once you aprove it, I will merge it. It would be interesting to add a 3D example also |
joaquinirazabal
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joaquinirazabal
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Let's merge it. Once I am back from my holidays, I will prepare a 3D example. Thank you, @jginternational
4 participants
I'm creating this draft so we can follow the new features and developments.
From the tree, I can see:
Note: Check parameters in attached json file
Note: Find a better public name to Lin Darcy Coef, Linear darcy coefficient?
It will be nice to attach also a running example (compressed gid folder with the model that runs on kratos) and specify if it runs on master or another branch
attached json:
{ "analysis_stage" : "KratosMultiphysics.FreeSurfaceApplication.free_surface_analysis", "problem_data" : { "problem_name" : "Fuids_09", "parallel_type" : "OpenMP", "echo_level" : 0, "start_time" : 0.0, "end_time" : 5 }, "output_processes" : { "gid_output" : [{ "python_module" : "gid_output_process", "kratos_module" : "KratosMultiphysics", "process_name" : "GiDOutputProcess", "Parameters" : { "model_part_name" : "Fuids_09", "postprocess_parameters" : { "result_file_configuration" : { "gidpost_flags" : { "GiDPostMode" : "GiD_PostBinary", "WriteDeformedMeshFlag" : "WriteDeformed", "WriteConditionsFlag" : "WriteConditions", "MultiFileFlag" : "MultipleFiles" }, "file_label" : "time", "output_control_type" : "time", "output_interval" : 0.1, "body_output" : true, "node_output" : false, "skin_output" : false, "plane_output" : [], "nodal_results" : ["VELOCITY","PRESSURE","DISTANCE","LIN_DARCY_COEF","NONLIN_DARCY_COEF","POROSITY","BODY_FORCE"], "gauss_point_results" : [], "nodal_nonhistorical_results" : [] }, "point_data_configuration" : [] }, "output_name" : "gid_output/Fuids_09" } }], "vtk_output" : [{ "python_module" : "vtk_output_process", "kratos_module" : "KratosMultiphysics", "process_name" : "VtkOutputProcess", "Parameters" : { "model_part_name" : "Fuids_09", "output_control_type" : "time", "output_interval" : 0.1, "file_format" : "ascii", "output_precision" : 7, "output_sub_model_parts" : false, "output_path" : "vtk_output", "save_output_files_in_folder" : true, "nodal_solution_step_data_variables" : ["VELOCITY","PRESSURE","DISTANCE","LIN_DARCY_COEF","NONLIN_DARCY_COEF","POROSITY","BODY_FORCE"], "nodal_data_value_variables" : [], "element_data_value_variables" : [], "condition_data_value_variables" : [], "gauss_point_variables_extrapolated_to_nodes" : [] } }] }, "solver_settings" : { "model_part_name" : "Fuids_09", "domain_size" : 3, "max_safety_factor" : 1e-1, "max_time_step_size" : 1e-2, "density" : 1e3, "viscosity" : 1e-6, "wall_law_y" : 0.0, "use_mass_correction" : true, "redistance_frequency" : 5, "extrapolation_layers" : 5, "number_of_initial_time_steps" : 10, "initial_time_step_size" : 1e-5, "reduction_on_failure" : 3e-1, "stabdt_pressure_factor" : 1e0, "stabdt_convection_factor" : 1e-2, "tau2_factor" : 1e0, "assume_constant_pressure" : false, "compute_porous_resistance_law" : "NONE", "echo_level" : 0, "solver_type" : "EdgebasedLevelset", "linear_solver_settings" : { "solver_type" : "amgcl" }, "model_import_settings" : { "input_type" : "mdpa", "input_filename" : "Fuids_09" } }, "processes" : { "initial_conditions_process_list" : [{ "python_module" : "assign_scalar_variable_process", "kratos_module" : "KratosMultiphysics", "process_name" : "AssignScalarVariableProcess", "Parameters" : { "model_part_name" : "Fuids_09.GENERIC_Add_SubModelPart_Auto1", "variable_name" : "DISTANCE", "constrained" : false, "value" : -1.0, "interval" : [0.0,0.0] } },{ "python_module" : "assign_scalar_variable_process", "kratos_module" : "KratosMultiphysics", "process_name" : "AssignScalarVariableProcess", "Parameters" : { "model_part_name" : "Fuids_09.GENERIC_Add_SubModelPart_Auto2", "variable_name" : "DISTANCE", "constrained" : false, "value" : -1.0, "interval" : [0.0,0.0] } }], "boundary_conditions_process_list" : [{ "python_module" : "assign_scalar_variable_process", "kratos_module" : "KratosMultiphysics", "process_name" : "AssignScalarVariableProcess", "Parameters" : { "mesh_id" : 0, "model_part_name" : "Fuids_09.GENERIC_Add_SubModelPart_Auto2", "variable_name" : "LIN_DARCY_COEF", "constrained" : false, "value" : 3000 } },{ "python_module" : "assign_scalar_variable_process", "kratos_module" : "KratosMultiphysics", "process_name" : "AssignScalarVariableProcess", "Parameters" : { "mesh_id" : 0, "model_part_name" : "Fuids_09.GENERIC_Add_SubModelPart_Auto2", "variable_name" : "NONLIN_DARCY_COEF", "constrained" : false, "value" : 8000 } },{ "python_module" : "assign_scalar_variable_process", "kratos_module" : "KratosMultiphysics", "process_name" : "AssignScalarVariableProcess", "Parameters" : { "mesh_id" : 0, "model_part_name" : "Fuids_09.GENERIC_Add_SubModelPart_Auto2", "variable_name" : "POROSITY", "constrained" : false, "value" : 0.5 } },{ "python_module" : "apply_inlet_process", "kratos_module" : "KratosMultiphysics.FluidDynamicsApplication", "process_name" : "ApplyInletProcess", "Parameters" : { "model_part_name" : "Fuids_09.AutomaticInlet3D_Automatic_inlet_velocity_Auto1", "variable_name" : "VELOCITY", "constrained" : true, "interval" : [0.0,"End"], "modulus" : 1, "direction" :[1.0,0.0,0.0] } },{ "python_module" : "apply_outlet_process", "kratos_module" : "KratosMultiphysics.FluidDynamicsApplication", "process_name" : "ApplyOutletProcess", "Parameters" : { "model_part_name" : "Fuids_09.Outlet3D_Outlet_pressure_Auto1", "variable_name" : "PRESSURE", "constrained" : true, "value" : 0.0, "hydrostatic_outlet" : false, "h_top" : 0.0 } },{ "python_module" : "apply_slip_process", "kratos_module" : "KratosMultiphysics.FluidDynamicsApplication", "process_name" : "ApplySlipProcess", "Parameters" : { "model_part_name" : "Fuids_09.Slip3D" } }], "gravity" : [{ "python_module" : "assign_vector_by_direction_process", "kratos_module" : "KratosMultiphysics", "process_name" : "AssignVectorByDirectionProcess", "Parameters" : { "model_part_name" : "Fuids_09", "variable_name" : "BODY_FORCE", "modulus" : 9.81, "constrained" : false, "direction" : [0.0,0.0,-1.0] } }], "auxiliar_process_list" : [] } }