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idaholab / malamute

Advanced manufacturing modeling and simulation
https://mooseframework.inl.gov/malamute
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No variable 'ram_spacer_surface_area' found for use in function parser expression | Tutorial given in malamute demonstration #167

Closed skvarjun closed 2 months ago

skvarjun commented 2 months ago

Bug Description

Don't know whether it is a bug!!!

Steps to Reproduce

I was trying to reproduce the tutorial file given in https://mooseframework.inl.gov/malamute/demonstration/index.html. I used the same input file given in the tutorial but getting an error as;

no variable 'ram_spacer_surface_area' found for use in function parser expression no variable 'powder_radius' found for use in function parser expression no variable 'powder_height' found for use in function parser expression no variable 'ram_cc_sinter_punch_height' found for use in function parser expression

dcs5_5_mm_constant_properties.zip

sapitts commented 2 months ago

Hi @skvarjun, Thanks for trying out our new tutorial. Unfortunately we can't download zip files; would you please attach the full input file you are using as a text file or as a block comment (with the ``` quotes)?

skvarjun commented 2 months ago

`[Variables] [temperature] initial_condition = 300.0 block = 'bottom_ram_spacer bottom_cc_spacer bottom_sinter_spacer bottom_punch powder top_punch top_sinter_spacer top_cc_spacer top_ram_spacer die_wall' order = SECOND [] [potential] block = 'bottom_ram_spacer bottom_cc_spacer bottom_sinter_spacer bottom_punch powder top_punch top_sinter_spacer top_cc_spacer top_ram_spacer die_wall' order = SECOND [] [temperature_bottom_ram_cc_lm] block = 'bottom_ram_cc_secondary_subdomain' order = SECOND [] [potential_bottom_ram_cc_lm] block = 'bottom_ram_cc_secondary_subdomain' order = SECOND [] [temperature_bottom_cc_sinter_lm] block = 'bottom_cc_sinter_secondary_subdomain' order = SECOND [] [potential_bottom_cc_sinter_lm] block = 'bottom_cc_sinter_secondary_subdomain' order = SECOND [] [temperature_bottom_sinter_punch_lm] block = 'bottom_sinter_punch_secondary_subdomain' order = SECOND [] [potential_bottom_sinter_punch_lm] block = 'bottom_sinter_punch_secondary_subdomain' order = SECOND [] [temperature_bottom_punch_powder_lm] block = ' bottom_punch_powder_secondary_subdomain' order = SECOND [] [potential_bottom_punch_powder_lm] block = 'bottom_punch_powder_secondary_subdomain' order = SECOND [] [temperature_powder_top_punch_lm] block = 'powder_top_punch_secondary_subdomain' order = SECOND [] [potential_powder_top_punch_lm] block = ' powder_top_punch_secondary_subdomain' order = SECOND [] [die_wall_thickness] die_wall_thickness = 0.005 [] [temperature_top_punch_sinter_lm] block = 'top_punch_sinter_secondary_subdomain' order = SECOND [] [potential_top_punch_sinter_lm] block = 'top_punch_sinter_secondary_subdomain' order = SECOND [] [temperature_top_sinter_cc_lm] block = 'top_sinter_cc_secondary_subdomain' order = SECOND [] [potential_top_sinter_cc_lm] block = 'top_sinter_cc_secondary_subdomain' order = SECOND [] [temperature_top_cc_ram_lm] block = 'top_cc_ram_secondary_subdomain' order = SECOND [] [potential_top_cc_ram_lm] block = 'top_cc_ram_secondary_subdomain' order = SECOND [] [temperature_inside_low_punch_lm] block = 'inside_low_punch_secondary_subdomain' order = SECOND [] [potential_inside_low_punch_lm] block = 'inside_low_punch_secondary_subdomain' order = SECOND [] [temperature_inside_powder_lm] block = 'inside_powder_secondary_subdomain' order = SECOND [] [potential_inside_powder_lm] block = 'inside_powder_secondary_subdomain' order = SECOND [] [temperature_inside_top_punch_lm] block = 'inside_top_punch_secondary_subdomain' order = SECOND [] [potential_inside_top_punch_lm] block = 'inside_top_punch_secondary_subdomain' order = SECOND []

[temperature_gap_top_sinter_die_lm] block = 'gap_top_sinter_die_secondary_subdomain' order = SECOND [] [temperature_gap_bottom_sinter_die_lm] block = 'gap_bottom_sinter_die_secondary_subdomain' order = SECOND [] []

[AuxVariables] [heat_transfer_radiation] order = SECOND []

[electric_field_x] family = MONOMIAL #prettier pictures with smoother values order = FIRST block = 'bottom_ram_spacer bottom_cc_spacer bottom_sinter_spacer bottom_punch powder top_punch top_sinter_spacer top_cc_spacer top_ram_spacer die_wall' [] [electric_field_y] family = MONOMIAL order = FIRST block = 'bottom_ram_spacer bottom_cc_spacer bottom_sinter_spacer bottom_punch powder top_punch top_sinter_spacer top_cc_spacer top_ram_spacer die_wall' []

[interface_normal_lm] order = FIRST family = LAGRANGE block = 'bottom_ram_cc_secondary_subdomain bottom_cc_sinter_secondary_subdomain bottom_sinter_punch_secondary_subdomain bottom_punch_powder_secondary_subdomain powder_top_punch_secondary_subdomain top_punch_sinter_secondary_subdomain top_sinter_cc_secondary_subdomain top_cc_ram_secondary_subdomain inside_low_punch_secondary_subdomain inside_powder_secondary_subdomain inside_top_punch_secondary_subdomain' initial_condition = 1.0e6 [] []

[Kernels] [HeatDiff_graphite] type = ADHeatConduction variable = temperature thermal_conductivity = graphite_thermal_conductivity extra_vector_tags = 'ref' block = 'bottom_ram_spacer bottom_sinter_spacer bottom_punch top_punch top_sinter_spacer top_ram_spacer die_wall' [] [HeatTdot_graphite] type = ADHeatConductionTimeDerivative variable = temperature specific_heat = graphite_heat_capacity density_name = graphite_density extra_vector_tags = 'ref' block = 'bottom_ram_spacer bottom_sinter_spacer bottom_punch top_punch top_sinter_spacer top_ram_spacer die_wall' [] [electric_graphite] type = ADMatDiffusion variable = potential diffusivity = graphite_electrical_conductivity extra_vector_tags = 'ref' block = 'bottom_ram_spacer bottom_sinter_spacer bottom_punch top_punch top_sinter_spacer top_ram_spacer die_wall' [] [JouleHeating_graphite] type = ADJouleHeatingSource variable = temperature elec = potential electrical_conductivity = graphite_electrical_conductivity

use_displaced_mesh = true

extra_vector_tags = 'ref'
block = 'bottom_ram_spacer bottom_sinter_spacer bottom_punch
         top_punch top_sinter_spacer top_ram_spacer die_wall'

[]

[HeatDiff_anistropic_carbon_fiber] type = ADMatAnisoDiffusion diffusivity = ccfiber_aniso_thermal_conductivity variable = temperature extra_vector_tags = 'ref' block = 'bottom_cc_spacer top_cc_spacer' [] [HeatTdot_carbon_fiber] type = ADHeatConductionTimeDerivative variable = temperature specific_heat = ccfiber_heat_capacity density_name = ccfiber_density extra_vector_tags = 'ref' block = 'bottom_cc_spacer top_cc_spacer' [] [electric_carbon_fiber] type = ADMatDiffusion variable = potential diffusivity = ccfiber_electrical_conductivity extra_vector_tags = 'ref' block = 'bottom_cc_spacer top_cc_spacer' [] [JouleHeating_carbon_fiber] type = ADJouleHeatingSource variable = temperature elec = potential electrical_conductivity = ccfiber_electrical_conductivity

use_displaced_mesh = true

extra_vector_tags = 'ref'
block = 'bottom_cc_spacer top_cc_spacer'

[]

[HeatDiff_powder] type = ADHeatConduction variable = temperature thermal_conductivity = copper_thermal_conductivity extra_vector_tags = 'ref' block = 'powder' [] [HeatTdot_powder] type = ADHeatConductionTimeDerivative variable = temperature specific_heat = copper_heat_capacity density_name = copper_density extra_vector_tags = 'ref' block = 'powder' [] [electric_powder] type = ADMatDiffusion variable = potential diffusivity = copper_electrical_conductivity extra_vector_tags = 'ref' block = 'powder' [] [JouleHeating_powder] type = ADJouleHeatingSource variable = temperature elec = potential electrical_conductivity = copper_electrical_conductivity

use_displaced_mesh = true

extra_vector_tags = 'ref'
block = 'powder'

[] []

[AuxKernels] [heat_transfer_radiation] type = ParsedAux variable = heat_transfer_radiation boundary = 'bottom_ram_spacer_right bottom_ram_spacer_overhang_right bottom_cc_spacer_right bottom_sinter_spacer_right bottom_sinter_spacer_overhang_right uncovered_bottom_punch_right top_sinter_spacer_overhang_right top_sinter_spacer_right die_wall_right uncovered_top_punch_right top_cc_spacer_right top_ram_spacer_overhang_right top_ram_spacer_right' coupled_variables = 'temperature' constant_names = 'boltzmann epsilon temperature_farfield' #published emissivity for graphite is 0.85 constant_expressions = '5.67e-8 0.85 300.0' #roughly room temperature, which is probably too cold expression = '-boltzmannepsilon(temperature^4-temperature_farfield^4)' []

[electrostatic_calculation_x] type = PotentialToFieldAux gradient_variable = potential variable = electric_field_x sign = negative component = x block = 'bottom_ram_spacer bottom_cc_spacer bottom_sinter_spacer bottom_punch powder top_punch top_sinter_spacer top_cc_spacer top_ram_spacer die_wall' [] [electrostatic_calculation_y] type = PotentialToFieldAux gradient_variable = potential variable = electric_field_y sign = negative component = y block = 'bottom_ram_spacer bottom_cc_spacer bottom_sinter_spacer bottom_punch powder top_punch top_sinter_spacer top_cc_spacer top_ram_spacer die_wall' [] []

[Functions] [current_application] type = PiecewiseLinear x = '0 40 60 160 200 230 340 850 890 900 950 1010 1050 1100 1200 1240 1250 1260 1800' y = '0 ${fparse 561/ram_spacer_surface_area} ${fparse 502/ram_spacer_surface_area} ${fparse 500/ram_spacer_surface_area} ${fparse 417/ram_spacer_surface_area} ${fparse 417/ram_spacer_surface_area} ${fparse 566/ram_spacer_surface_area} ${fparse 952/ram_spacer_surface_area} ${fparse 926/ram_spacer_surface_area} ${fparse 926/ram_spacer_surface_area} ${fparse 977/ram_spacer_surface_area} ${fparse 902/ram_spacer_surface_area} ${fparse 902/ram_spacer_surface_area} ${fparse 927/ram_spacer_surface_area} ${fparse 926/ram_spacer_surface_area} ${fparse 903/ram_spacer_surface_area} ${fparse 4/ram_spacer_surface_area} 0 0' scale_factor = 1.0 [] []

[BCs] [temperature_rams] type = ADDirichletBC variable = temperature value = 300.0 boundary = 'top_ram_spacer_top bottom_ram_spacer_bottom' [] [external_surface_temperature] type = CoupledVarNeumannBC variable = temperature v = heat_transfer_radiation boundary = 'bottom_ram_spacer_right bottom_ram_spacer_overhang_right bottom_cc_spacer_right bottom_sinter_spacer_right bottom_sinter_spacer_overhang_right uncovered_bottom_punch_right top_sinter_spacer_overhang_right top_sinter_spacer_right die_wall_right uncovered_top_punch_right top_cc_spacer_right top_ram_spacer_overhang_right top_ram_spacer_right' [] [electric_top] type = ADFunctionNeumannBC variable = potential function = 'current_application' boundary = 'top_ram_spacer_top' [] [electric_bottom] type = ADDirichletBC variable = potential value = 0.0 boundary = 'bottom_ram_spacer_bottom' [] []

[Constraints] [thermal_contact_interface_low_ram_cc_spacers] type = ModularGapConductanceConstraint variable = temperature_bottom_ram_cc_lm secondary_variable = temperature primary_boundary = bottom_ram_spacer_top primary_subdomain = bottom_ram_cc_primary_subdomain secondary_boundary = bottom_cc_spacer_bottom secondary_subdomain = bottom_ram_cc_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_thermal_interface_bottom_ram_cc' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_ram_cc_low_spacers] type = ModularGapConductanceConstraint variable = potential_bottom_ram_cc_lm secondary_variable = potential primary_boundary = bottom_ram_spacer_top primary_subdomain = bottom_ram_cc_primary_subdomain secondary_boundary = bottom_cc_spacer_bottom secondary_subdomain = bottom_ram_cc_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_electric_interface_bottom_ram_cc' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_cc_sinter_low_spacers] type = ModularGapConductanceConstraint variable = temperature_bottom_cc_sinter_lm secondary_variable = temperature primary_boundary = bottom_cc_spacer_top primary_subdomain = bottom_cc_sinter_primary_subdomain secondary_boundary = bottom_sinter_spacer_bottom secondary_subdomain = bottom_cc_sinter_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_thermal_interface_bottom_cc_sinter' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_cc_sinter_low_spacers] type = ModularGapConductanceConstraint variable = potential_bottom_cc_sinter_lm secondary_variable = potential primary_boundary = bottom_cc_spacer_top primary_subdomain = bottom_cc_sinter_primary_subdomain secondary_boundary = bottom_sinter_spacer_bottom secondary_subdomain = bottom_cc_sinter_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_electric_interface_bottom_cc_sinter' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_low_sinter_punch] type = ModularGapConductanceConstraint variable = temperature_bottom_sinter_punch_lm secondary_variable = temperature primary_boundary = bottom_sinter_spacer_top primary_subdomain = bottom_sinter_punch_primary_subdomain secondary_boundary = bottom_punch_bottom secondary_subdomain = bottom_sinter_punch_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_thermal_interface_bottom_sinter_punch' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_low_sinter_punch] type = ModularGapConductanceConstraint variable = potential_bottom_sinter_punch_lm secondary_variable = potential primary_boundary = bottom_sinter_spacer_top primary_subdomain = bottom_sinter_punch_primary_subdomain secondary_boundary = bottom_punch_bottom secondary_subdomain = bottom_sinter_punch_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_electric_interface_bottom_sinter_punch' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_low_punch_powder] type = ModularGapConductanceConstraint variable = temperature_bottom_punch_powder_lm secondary_variable = temperature primary_boundary = bottom_punch_top primary_subdomain = bottom_punch_powder_primary_subdomain secondary_boundary = powder_bottom secondary_subdomain = bottom_punch_powder_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_thermal_interface_bottom_punch_powder' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_low_punch_powder] type = ModularGapConductanceConstraint variable = potential_bottom_punch_powder_lm secondary_variable = potential primary_boundary = bottom_punch_top primary_subdomain = bottom_punch_powder_primary_subdomain secondary_boundary = powder_bottom secondary_subdomain = bottom_punch_powder_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_electric_interface_bottom_punch_powder' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_powder_top_punch] type = ModularGapConductanceConstraint variable = temperature_powder_top_punch_lm secondary_variable = temperature primary_boundary = powder_top primary_subdomain = powder_top_punch_primary_subdomain secondary_boundary = top_punch_bottom secondary_subdomain = powder_top_punch_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_thermal_interface_powder_top_punch' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_powder_top_punch] type = ModularGapConductanceConstraint variable = potential_powder_top_punch_lm secondary_variable = potential primary_boundary = powder_top primary_subdomain = powder_top_punch_primary_subdomain secondary_boundary = top_punch_bottom secondary_subdomain = powder_top_punch_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_electric_interface_powder_top_punch' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_top_punch_sinter] type = ModularGapConductanceConstraint variable = temperature_top_punch_sinter_lm secondary_variable = temperature primary_boundary = top_punch_top primary_subdomain = top_punch_sinter_primary_subdomain secondary_boundary = top_sinter_spacer_bottom secondary_subdomain = top_punch_sinter_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_thermal_interface_top_punch_sinter' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_top_punch_sinter] type = ModularGapConductanceConstraint variable = potential_top_punch_sinter_lm secondary_variable = potential primary_boundary = top_punch_top primary_subdomain = top_punch_sinter_primary_subdomain secondary_boundary = top_sinter_spacer_bottom secondary_subdomain = top_punch_sinter_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_electric_interface_top_punch_sinter' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_top_sinter_cc_spacers] type = ModularGapConductanceConstraint variable = temperature_top_sinter_cc_lm secondary_variable = temperature primary_boundary = top_sinter_spacer_top primary_subdomain = top_sinter_cc_primary_subdomain secondary_boundary = top_cc_spacer_bottom secondary_subdomain = top_sinter_cc_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_thermal_interface_top_sinter_cc_spacer' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_top_sinter_cc_spacers] type = ModularGapConductanceConstraint variable = potential_top_sinter_cc_lm secondary_variable = potential primary_boundary = top_sinter_spacer_top primary_subdomain = top_sinter_cc_primary_subdomain secondary_boundary = top_cc_spacer_bottom secondary_subdomain = top_sinter_cc_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_electric_interface_top_sinter_cc_spacer' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_top_cc_ram_spacers] type = ModularGapConductanceConstraint variable = temperature_top_cc_ram_lm secondary_variable = temperature primary_boundary = top_cc_spacer_top primary_subdomain = top_cc_ram_primary_subdomain secondary_boundary = top_ram_spacer_bottom secondary_subdomain = top_cc_ram_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_thermal_interface_top_cc_ram_spacer' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_top_cc_ram_spacers] type = ModularGapConductanceConstraint variable = potential_top_cc_ram_lm secondary_variable = potential primary_boundary = top_cc_spacer_top primary_subdomain = top_cc_ram_primary_subdomain secondary_boundary = top_ram_spacer_bottom secondary_subdomain = top_cc_ram_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'closed_electric_interface_top_cc_ram_spacer' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_inside_die_low_punch] type = ModularGapConductanceConstraint variable = temperature_inside_low_punch_lm secondary_variable = temperature primary_boundary = die_wall_left primary_subdomain = inside_die_primary_subdomain secondary_boundary = bottom_punch_right secondary_subdomain = inside_low_punch_secondary_subdomain gap_geometry_type = CYLINDER gap_flux_models = 'thermal_conduction_wall_low_punch closed_thermal_interface_inside_die_low_punch' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_inside_die_low_punch] type = ModularGapConductanceConstraint variable = potential_inside_low_punch_lm secondary_variable = potential primary_boundary = die_wall_left primary_subdomain = inside_die_primary_subdomain secondary_boundary = bottom_punch_right secondary_subdomain = inside_low_punch_secondary_subdomain gap_geometry_type = CYLINDER gap_flux_models = 'electrical_conduction_wall_low_punch closed_electric_interface_inside_die_low_punch' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_inside_die_powder] type = ModularGapConductanceConstraint variable = temperature_inside_powder_lm secondary_variable = temperature primary_boundary = die_wall_left primary_subdomain = inside_die_primary_subdomain secondary_boundary = powder_right secondary_subdomain = inside_powder_secondary_subdomain gap_geometry_type = CYLINDER gap_flux_models = 'thermal_conduction_wall_powder closed_thermal_interface_inside_die_powder' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_inside_die_powder] type = ModularGapConductanceConstraint variable = potential_inside_powder_lm secondary_variable = potential primary_boundary = die_wall_left primary_subdomain = inside_die_primary_subdomain secondary_boundary = powder_right secondary_subdomain = inside_powder_secondary_subdomain gap_geometry_type = CYLINDER gap_flux_models = 'electrical_conduction_wall_powder closed_electric_interface_inside_die_powder' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_contact_interface_inside_die_top_punch] type = ModularGapConductanceConstraint variable = temperature_inside_top_punch_lm secondary_variable = temperature primary_boundary = die_wall_left primary_subdomain = inside_die_primary_subdomain secondary_boundary = top_punch_right secondary_subdomain = inside_top_punch_secondary_subdomain gap_geometry_type = CYLINDER gap_flux_models = 'thermal_conduction_wall_top_punch closed_thermal_interface_inside_die_top_punch' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [electrical_contact_interface_inside_die_top_punch] type = ModularGapConductanceConstraint variable = potential_inside_top_punch_lm secondary_variable = potential primary_boundary = die_wall_left primary_subdomain = inside_die_primary_subdomain secondary_boundary = top_punch_right secondary_subdomain = inside_top_punch_secondary_subdomain gap_geometry_type = CYLINDER gap_flux_models = 'electrical_conduction_wall_top_punch closed_electric_interface_inside_die_top_punch' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[]

[thermal_gap_contact_interface_bottom_sinter_die] type = ModularGapConductanceConstraint variable = temperature_gap_bottom_sinter_die_lm secondary_variable = temperature primary_boundary = bottom_sinter_spacer_overhang_top primary_subdomain = gap_bottom_sinter_die_primary_subdomain secondary_boundary = die_wall_bottom secondary_subdomain = gap_bottom_sinter_die_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'gap_thermal_interface_bottom_sinter_die' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] [thermal_gap_contact_interface_top_sinter_die] type = ModularGapConductanceConstraint variable = temperature_gap_top_sinter_die_lm secondary_variable = temperature primary_boundary = top_sinter_spacer_overhang_bottom primary_subdomain = gap_top_sinter_die_primary_subdomain secondary_boundary = die_wall_top secondary_subdomain = gap_top_sinter_die_secondary_subdomain gap_geometry_type = PLATE gap_flux_models = 'gap_thermal_interface_top_sinter_die' extra_vector_tags = 'ref' correct_edge_dropping = true

use_displaced_mesh = true

[] []

[Materials] [carbon_fiber_electro_thermal_properties] type = ADGenericConstantMaterial prop_names = 'ccfiber_density ccfiber_thermal_conductivity ccfiber_heat_capacity ccfiber_electrical_conductivity ccfiber_hardness' prop_values = ' 1.5e3 5.0 1.25e3 4.0e4 1.0' block = 'bottom_cc_spacer top_cc_spacer bottom_ram_cc_secondary_subdomain top_sinter_cc_secondary_subdomain'

density (kg/m^3) and electrical conductivity (S/m) from Schunk CF226 manufacturer's datasheet, available at http://schunk-tokai.pl/en/wp-content/uploads/e_CF-226.pdf

# thermal conductivity (W/m-K), perpendicular to fiber direction, from Schunk CF226 manufacturer's datasheet, available at http://schunk-tokai.pl/en/wp-content/uploads/e_CF-226.pdf
# specific heat capacity (J/kg-K) from Sommers et al. App. Thermal Engineering 30(11-12) (2010) 1277-1291 for Schunk FU2952
# hardness set to unity to remove dependence on that quantity

[] []

[Postprocessors] [applied_current] type = FunctionValuePostprocessor function = current_application []

[pyrometer_point] type = PointValue variable = temperature point = '${fparse powder_radius + 0.004} ${fparse ram_cc_sinter_punch_height + powder_height / 2.0} 0' [] []

[Outputs] color = false csv = true exodus = true perf_graph = true []`

sapitts commented 2 months ago

Is this the full input file? If yes, how did you assemble it / where did you find this version?

I'm trying to understand your process better so that I can determine which correction to implement in the tutorial. Thanks!

skvarjun commented 2 months ago

I took it from the INL repository - see the link https://mooseframework.inl.gov/malamute/demonstration/index.html.

I am also new to the Malamute framework, and any advise would be helpful.

sapitts commented 2 months ago

Try this input file, which is stored directly in our code repository and tested daily against the current version of MALAMUTE: https://github.com/idaholab/malamute/blob/devel/tutorials/efas/introduction/dcs5_copper_constant_properties_electrothermal.i

skvarjun commented 2 months ago

Thank you. It is running in a cluster. I also wonder if there is any parallelization scheme for Malamute using MPI or any other packages, especially running in an HPC cluster.

sapitts commented 2 months ago

Good! I'll change this issue to a feature request and add a direct link in the tutorial to the complete input file from the repository based on your feed back here

sapitts commented 2 months ago

To run in parallel, see the link in the second bullet point under 'Simulations': https://mooseframework.inl.gov/help/faq/index.html

You may also find it useful to work through the MOOSE tutorials that are relevant to you: https://mooseframework.inl.gov/getting_started/examples_and_tutorials/index.html

skvarjun commented 2 months ago

Thank you. I appreciate your help.