FEM: solver calculix, better implementation for document restore method

This commit is contained in:
Bernd Hahnebach
2021-06-18 11:19:24 +02:00
parent a536093b70
commit 147b2ec3c9

View File

@@ -123,12 +123,94 @@ def on_restore_of_document(obj, ccx_prefs):
analysis_type = ccx_prefs.GetInt("AnalysisType", 0)
obj.AnalysisType = ANALYSIS_TYPES[analysis_type]
# BucklingFactors
# TODO
# just call add_attributes but in add_attributes
# every attribute needs to be checked if exist
# see object mesh_gmsh for information
# HACK
# add missing properties
# for example BucklingFactors for all files created before buckle analysis was introduced
add_attributes(obj, ccx_prefs)
def add_attributes(obj, ccx_prefs):
if not hasattr(obj, "AnalysisType"):
obj.addProperty(
"App::PropertyEnumeration",
"AnalysisType",
"Fem",
"Type of the analysis"
)
obj.AnalysisType = ANALYSIS_TYPES
analysis_type = ccx_prefs.GetInt("AnalysisType", 0)
obj.AnalysisType = ANALYSIS_TYPES[analysis_type]
if not hasattr(obj, "GeometricalNonlinearity"):
choices_geom_nonlinear = ["linear", "nonlinear"]
obj.addProperty(
"App::PropertyEnumeration",
"GeometricalNonlinearity",
"Fem",
"Set geometrical nonlinearity"
)
obj.GeometricalNonlinearity = choices_geom_nonlinear
nonlinear_geom = ccx_prefs.GetBool("NonlinearGeometry", False)
if nonlinear_geom is True:
obj.GeometricalNonlinearity = choices_geom_nonlinear[1] # nonlinear
else:
obj.GeometricalNonlinearity = choices_geom_nonlinear[0] # linear
if not hasattr(obj, "MaterialNonlinearity"):
choices_material_nonlinear = ["linear", "nonlinear"]
obj.addProperty(
"App::PropertyEnumeration",
"MaterialNonlinearity",
"Fem",
"Set material nonlinearity (needs geometrical nonlinearity)"
)
obj.MaterialNonlinearity = choices_material_nonlinear
obj.MaterialNonlinearity = choices_material_nonlinear[0]
if not hasattr(obj, "EigenmodesCount"):
obj.addProperty(
"App::PropertyIntegerConstraint",
"EigenmodesCount",
"Fem",
"Number of modes for frequency calculations"
)
noem = ccx_prefs.GetInt("EigenmodesCount", 10)
obj.EigenmodesCount = (noem, 1, 100, 1)
if not hasattr(obj, "EigenmodeLowLimit"):
obj.addProperty(
"App::PropertyFloatConstraint",
"EigenmodeLowLimit",
"Fem",
"Low frequency limit for eigenmode calculations"
)
ell = ccx_prefs.GetFloat("EigenmodeLowLimit", 0.0)
obj.EigenmodeLowLimit = (ell, 0.0, 1000000.0, 10000.0)
if not hasattr(obj, "EigenmodeHighLimit"):
obj.addProperty(
"App::PropertyFloatConstraint",
"EigenmodeHighLimit",
"Fem",
"High frequency limit for eigenmode calculations"
)
ehl = ccx_prefs.GetFloat("EigenmodeHighLimit", 1000000.0)
obj.EigenmodeHighLimit = (ehl, 0.0, 1000000.0, 10000.0)
if not hasattr(obj, "IterationsThermoMechMaximum"):
help_string_IterationsThermoMechMaximum = (
"Maximum Number of thermo mechanical iterations "
"in each time step before stopping jobs"
)
obj.addProperty(
"App::PropertyIntegerConstraint",
"IterationsThermoMechMaximum",
"Fem",
help_string_IterationsThermoMechMaximum
)
niter = ccx_prefs.GetInt("AnalysisMaxIterations", 200)
obj.IterationsThermoMechMaximum = niter
if not hasattr(obj, "BucklingFactors"):
obj.addProperty(
"App::PropertyIntegerConstraint",
@@ -139,244 +221,170 @@ def on_restore_of_document(obj, ccx_prefs):
bckl = ccx_prefs.GetInt("BucklingFactors", 1)
obj.BucklingFactors = bckl
if not hasattr(obj, "TimeInitialStep"):
obj.addProperty(
"App::PropertyFloatConstraint",
"TimeInitialStep",
"Fem",
"Initial time steps"
)
ini = ccx_prefs.GetFloat("AnalysisTimeInitialStep", 1.0)
obj.TimeInitialStep = ini
def add_attributes(obj, ccx_prefs):
if not hasattr(obj, "TimeEnd"):
obj.addProperty(
"App::PropertyFloatConstraint",
"TimeEnd",
"Fem",
"End time analysis"
)
eni = ccx_prefs.GetFloat("AnalysisTime", 1.0)
obj.TimeEnd = eni
obj.addProperty(
"App::PropertyEnumeration",
"AnalysisType",
"Fem",
"Type of the analysis"
)
obj.AnalysisType = ANALYSIS_TYPES
analysis_type = ccx_prefs.GetInt("AnalysisType", 0)
obj.AnalysisType = ANALYSIS_TYPES[analysis_type]
if not hasattr(obj, "ThermoMechSteadyState"):
obj.addProperty(
"App::PropertyBool",
"ThermoMechSteadyState",
"Fem",
"Choose between steady state thermo mech or transient thermo mech analysis"
)
sted = ccx_prefs.GetBool("StaticAnalysis", True)
obj.ThermoMechSteadyState = sted
choices_geom_nonlinear = ["linear", "nonlinear"]
obj.addProperty(
"App::PropertyEnumeration",
"GeometricalNonlinearity",
"Fem",
"Set geometrical nonlinearity"
)
obj.GeometricalNonlinearity = choices_geom_nonlinear
nonlinear_geom = ccx_prefs.GetBool("NonlinearGeometry", False)
if nonlinear_geom is True:
obj.GeometricalNonlinearity = choices_geom_nonlinear[1] # nonlinear
else:
obj.GeometricalNonlinearity = choices_geom_nonlinear[0] # linear
if not hasattr(obj, "IterationsControlParameterTimeUse"):
obj.addProperty(
"App::PropertyBool",
"IterationsControlParameterTimeUse",
"Fem",
"Use the user defined time incrementation control parameter"
)
use_non_ccx_iterations_param = ccx_prefs.GetInt("UseNonCcxIterationParam", False)
obj.IterationsControlParameterTimeUse = use_non_ccx_iterations_param
choices_material_nonlinear = ["linear", "nonlinear"]
obj.addProperty(
"App::PropertyEnumeration",
"MaterialNonlinearity",
"Fem",
"Set material nonlinearity (needs geometrical nonlinearity)"
)
obj.MaterialNonlinearity = choices_material_nonlinear
obj.MaterialNonlinearity = choices_material_nonlinear[0]
if not hasattr(obj, "SplitInputWriter"):
obj.addProperty(
"App::PropertyBool",
"SplitInputWriter",
"Fem",
"Split writing of ccx input file"
)
split = ccx_prefs.GetBool("SplitInputWriter", False)
obj.SplitInputWriter = split
obj.addProperty(
"App::PropertyIntegerConstraint",
"EigenmodesCount",
"Fem",
"Number of modes for frequency calculations"
)
noem = ccx_prefs.GetInt("EigenmodesCount", 10)
obj.EigenmodesCount = (noem, 1, 100, 1)
if not hasattr(obj, "IterationsControlParameterIter"):
ccx_default_time_incrementation_control_parameter = {
# iteration parameter
"I_0": 4,
"I_R": 8,
"I_P": 9,
"I_C": 200, # ccx default = 16
"I_L": 10,
"I_G": 400, # ccx default = 4
"I_S": None,
"I_A": 200, # ccx default = 5
"I_J": None,
"I_T": None,
# cutback parameter
"D_f": 0.25,
"D_C": 0.5,
"D_B": 0.75,
"D_A": 0.85,
"D_S": None,
"D_H": None,
"D_D": 1.5,
"W_G": None}
p = ccx_default_time_incrementation_control_parameter
p_iter = "{0},{1},{2},{3},{4},{5},{6},{7},{8},{9}".format(
p["I_0"],
p["I_R"],
p["I_P"],
p["I_C"],
p["I_L"],
p["I_G"],
"",
p["I_A"],
"",
""
)
p_cutb = "{0},{1},{2},{3},{4},{5},{6},{7}".format(
p["D_f"],
p["D_C"],
p["D_B"],
p["D_A"],
"",
"",
p["D_D"],
""
)
obj.addProperty(
"App::PropertyString",
"IterationsControlParameterIter",
"Fem",
"User defined time incrementation iterations control parameter"
)
obj.IterationsControlParameterIter = p_iter
obj.addProperty(
"App::PropertyFloatConstraint",
"EigenmodeLowLimit",
"Fem",
"Low frequency limit for eigenmode calculations"
)
ell = ccx_prefs.GetFloat("EigenmodeLowLimit", 0.0)
obj.EigenmodeLowLimit = (ell, 0.0, 1000000.0, 10000.0)
if not hasattr(obj, "IterationsControlParameterCutb"):
obj.addProperty(
"App::PropertyString",
"IterationsControlParameterCutb",
"Fem",
"User defined time incrementation cutbacks control parameter"
)
obj.IterationsControlParameterCutb = p_cutb
obj.addProperty(
"App::PropertyFloatConstraint",
"EigenmodeHighLimit",
"Fem",
"High frequency limit for eigenmode calculations"
)
ehl = ccx_prefs.GetFloat("EigenmodeHighLimit", 1000000.0)
obj.EigenmodeHighLimit = (ehl, 0.0, 1000000.0, 10000.0)
if not hasattr(obj, "IterationsUserDefinedIncrementations"):
stringIterationsUserDefinedIncrementations = (
"Set to True to switch off the ccx automatic incrementation completely "
"(ccx parameter DIRECT). Use with care. Analysis may not converge!"
)
obj.addProperty(
"App::PropertyBool",
"IterationsUserDefinedIncrementations",
"Fem",
stringIterationsUserDefinedIncrementations
)
obj.IterationsUserDefinedIncrementations = False
help_string_IterationsThermoMechMaximum = (
"Maximum Number of thermo mechanical iterations "
"in each time step before stopping jobs"
)
obj.addProperty(
"App::PropertyIntegerConstraint",
"IterationsThermoMechMaximum",
"Fem",
help_string_IterationsThermoMechMaximum
)
niter = ccx_prefs.GetInt("AnalysisMaxIterations", 200)
obj.IterationsThermoMechMaximum = niter
if not hasattr(obj, "IterationsUserDefinedTimeStepLength"):
help_string_IterationsUserDefinedTimeStepLength = (
"Set to True to use the user defined time steps. "
"The time steps are set with TimeInitialStep and TimeEnd"
)
obj.addProperty(
"App::PropertyBool",
"IterationsUserDefinedTimeStepLength",
"Fem",
help_string_IterationsUserDefinedTimeStepLength
)
obj.IterationsUserDefinedTimeStepLength = False
obj.addProperty(
"App::PropertyIntegerConstraint",
"BucklingFactors",
"Fem",
"Calculates the lowest buckling modes to the corresponding buckling factors"
)
bckl = ccx_prefs.GetInt("BucklingFactors", 1)
obj.BucklingFactors = bckl
if not hasattr(obj, "MatrixSolverType"):
known_ccx_solver_types = [
"default",
"spooles",
"iterativescaling",
"iterativecholesky"
]
obj.addProperty(
"App::PropertyEnumeration",
"MatrixSolverType",
"Fem",
"Type of solver to use"
)
obj.MatrixSolverType = known_ccx_solver_types
solver_type = ccx_prefs.GetInt("Solver", 0)
obj.MatrixSolverType = known_ccx_solver_types[solver_type]
obj.addProperty(
"App::PropertyFloatConstraint",
"TimeInitialStep",
"Fem",
"Initial time steps"
)
ini = ccx_prefs.GetFloat("AnalysisTimeInitialStep", 1.0)
obj.TimeInitialStep = ini
obj.addProperty(
"App::PropertyFloatConstraint",
"TimeEnd",
"Fem",
"End time analysis"
)
eni = ccx_prefs.GetFloat("AnalysisTime", 1.0)
obj.TimeEnd = eni
obj.addProperty(
"App::PropertyBool",
"ThermoMechSteadyState",
"Fem",
"Choose between steady state thermo mech or transient thermo mech analysis"
)
sted = ccx_prefs.GetBool("StaticAnalysis", True)
obj.ThermoMechSteadyState = sted
obj.addProperty(
"App::PropertyBool",
"IterationsControlParameterTimeUse",
"Fem",
"Use the user defined time incrementation control parameter"
)
use_non_ccx_iterations_param = ccx_prefs.GetInt("UseNonCcxIterationParam", False)
obj.IterationsControlParameterTimeUse = use_non_ccx_iterations_param
obj.addProperty(
"App::PropertyBool",
"SplitInputWriter",
"Fem",
"Split writing of ccx input file"
)
split = ccx_prefs.GetBool("SplitInputWriter", False)
obj.SplitInputWriter = split
ccx_default_time_incrementation_control_parameter = {
# iteration parameter
"I_0": 4,
"I_R": 8,
"I_P": 9,
"I_C": 200, # ccx default = 16
"I_L": 10,
"I_G": 400, # ccx default = 4
"I_S": None,
"I_A": 200, # ccx default = 5
"I_J": None,
"I_T": None,
# cutback parameter
"D_f": 0.25,
"D_C": 0.5,
"D_B": 0.75,
"D_A": 0.85,
"D_S": None,
"D_H": None,
"D_D": 1.5,
"W_G": None}
p = ccx_default_time_incrementation_control_parameter
p_iter = "{0},{1},{2},{3},{4},{5},{6},{7},{8},{9}".format(
p["I_0"],
p["I_R"],
p["I_P"],
p["I_C"],
p["I_L"],
p["I_G"],
"",
p["I_A"],
"",
""
)
p_cutb = "{0},{1},{2},{3},{4},{5},{6},{7}".format(
p["D_f"],
p["D_C"],
p["D_B"],
p["D_A"],
"",
"",
p["D_D"],
""
)
obj.addProperty(
"App::PropertyString",
"IterationsControlParameterIter",
"Fem",
"User defined time incrementation iterations control parameter"
)
obj.IterationsControlParameterIter = p_iter
obj.addProperty(
"App::PropertyString",
"IterationsControlParameterCutb",
"Fem",
"User defined time incrementation cutbacks control parameter"
)
obj.IterationsControlParameterCutb = p_cutb
stringIterationsUserDefinedIncrementations = (
"Set to True to switch off the ccx automatic incrementation completely "
"(ccx parameter DIRECT). Use with care. Analysis may not converge!"
)
obj.addProperty(
"App::PropertyBool",
"IterationsUserDefinedIncrementations",
"Fem",
stringIterationsUserDefinedIncrementations
)
obj.IterationsUserDefinedIncrementations = False
help_string_IterationsUserDefinedTimeStepLength = (
"Set to True to use the user defined time steps. "
"The time steps are set with TimeInitialStep and TimeEnd"
)
obj.addProperty(
"App::PropertyBool",
"IterationsUserDefinedTimeStepLength",
"Fem",
help_string_IterationsUserDefinedTimeStepLength
)
obj.IterationsUserDefinedTimeStepLength = False
known_ccx_solver_types = [
"default",
"spooles",
"iterativescaling",
"iterativecholesky"
]
obj.addProperty(
"App::PropertyEnumeration",
"MatrixSolverType",
"Fem",
"Type of solver to use"
)
obj.MatrixSolverType = known_ccx_solver_types
solver_type = ccx_prefs.GetInt("Solver", 0)
obj.MatrixSolverType = known_ccx_solver_types[solver_type]
obj.addProperty(
"App::PropertyBool",
"BeamShellResultOutput3D",
"Fem",
"Output 3D results for 1D and 2D analysis "
)
dimout = ccx_prefs.GetBool("BeamShellOutput", False)
obj.BeamShellResultOutput3D = dimout
if not hasattr(obj, "BeamShellResultOutput3D"):
obj.addProperty(
"App::PropertyBool",
"BeamShellResultOutput3D",
"Fem",
"Output 3D results for 1D and 2D analysis "
)
dimout = ccx_prefs.GetBool("BeamShellOutput", False)
obj.BeamShellResultOutput3D = dimout
"""