def run(self):
cName = self.parser.casePath()
self.checkCase(cName)
sol = SolutionDirectory(cName, archive=None)
print_("Clearing out old timesteps ....")
sol.clearResults()
self.checkAndCommit(SolutionDirectory(cName, archive=None))
run = BasicRunner(argv=self.parser.getArgs(),
server=self.opts.server,
logname="PyFoamMeshUtility")
self.addLibFunctionTrigger(run, sol)
self.addToCaseLog(cName, "Starting")
run.start()
self.setData(run.data)
sol.reread(force=True)
self.addToCaseLog(cName, "Ending")
if sol.latestDir() != sol.initialDir():
for f in listdir(path.join(sol.latestDir(), "polyMesh")):
system("mv -f " + path.join(sol.latestDir(), "polyMesh", f) +
" " + sol.polyMeshDir())
print_("\nClearing out new timesteps ....")
sol.clearResults()
else:
print_("\n\n No new timestep. Utility propably failed")
def run(self):
cName=self.parser.casePath()
self.checkCase(cName)
sol=SolutionDirectory(cName,archive=None)
print_("Clearing out old timesteps ....")
sol.clearResults()
self.checkAndCommit(SolutionDirectory(cName,archive=None))
run=BasicRunner(argv=self.parser.getArgs(),
server=self.opts.server,
logname="PyFoamMeshUtility")
self.addLibFunctionTrigger(run,sol)
self.addToCaseLog(cName,"Starting")
run.start()
self.setData(run.data)
sol.reread(force=True)
self.addToCaseLog(cName,"Ending")
if sol.latestDir()!=sol.initialDir():
for f in listdir(path.join(sol.latestDir(),"polyMesh")):
system("mv -f "+path.join(sol.latestDir(),"polyMesh",f)+" "+sol.polyMeshDir())
print_("\nClearing out new timesteps ....")
sol.clearResults()
else:
print_("\n\n No new timestep. Utility propably failed")
def main():
solver = 'simpleFoam'
case_dir = '.'
n_proc = 4
decompose_method = 'simple'
decompose_coeffs = '(2 2 1)'
log_file = 'log_' + solver
mesh_points = 333329
turb_type = 'laminar'
turb_model = 'no'
ip.set_turbulence_mode(
case_dir, turb_type,
turb_model) #'laminar' or 'RAS', 'none' or 'kEpsilon' or 'kOmega'
d_hyd = 4 * 0.02562 / 0.804201
nu = 0.00001 # SET IN FILE
I = 0.05
Re_range = range(100, 1100, 100)
glob_folders = [
case_dir + '/' + s
for s in ['processor*', '0/cellLevel', '0/pointLevel']
]
glob_files = [case_dir + '/' + s for s in ['log*', 'PyFoam*']]
for Re in Re_range:
print("Re: {}".format(Re))
print("Remove folders from previous run.")
dir = SolutionDirectory(case_dir)
dir.clearResults()
for glob_exp in glob_folders:
ip.rm_folder(glob_exp)
for glob_exp in glob_files:
ip.rm_file(glob_exp)
ip.rm_folder(case_dir + '/postProcessing')
print("Set inlet velocity.")
U_value = Re * nu / d_hyd
U_file = SolutionFile(dir.initialDir(), "U")
U_file.replaceBoundary("inlet", "(0 %f 0)" % (U_value))
ip.delete_line(case_dir + '/0/U', 'PyFoamRemoved')
print("Set magUInf.")
ip.change_line(case_dir + '/system/controlDict', 'magUInf',
' magUInf ' + str(U_value) + '; ')
print("Set turbulent kinetic energy at inlet.")
k_value = 1.5 * (U_value * I)**2
ip.set_turbulence_boundary(case_dir, 'k', ["inlet", "monkey"], k_value)
print("Set turbulent dissipation at inlet.")
epsilon_value = 0.09**(3 / 4) * k_value**(3 / 2) / (0.07 * d_hyd)
ip.set_turbulence_boundary(case_dir, 'epsilon', ["inlet", "monkey"],
epsilon_value)
print("Set specific turbulent dissipation at inlet.")
omega_value = epsilon_value / k_value
ip.set_turbulence_boundary(case_dir, 'omega', ["inlet", "monkey"],
omega_value)
print("Decompose case.")
ip.set_decomposition(case_dir, n_proc, decompose_method,
decompose_coeffs)
ip.bash_command('cd ' + case_dir + ' && decomposePar -force >> ' +
case_dir + '/' + log_file)
print("Renumber mesh for speedup.")
ip.bash_command('cd ' + case_dir + ' && mpirun -np ' + str(n_proc) +
' renumberMesh -overwrite -parallel >> ' + case_dir +
'/' + log_file)
print(turb_type + " simulation using " + turb_model +
" turbulence model on mesh with " + str(mesh_points) +
" mesh points.")
print("Run " + solver + " in parallel.")
ip.bash_command('cd ' + case_dir + ' && mpirun -np ' + str(n_proc) +
' ' + solver + ' -parallel >> ' + case_dir + '/' +
log_file)
print("Reconstruct case.")
ip.bash_command('cd ' + case_dir + ' && reconstructPar >> ' +
case_dir + '/' + log_file)
print("Copy results into results folder.")
ip.make_folder(case_dir + '/Results')
result_string = turb_type + '_' + turb_model + '_turbmodel_' + str(
mesh_points) + '_meshpoints'
ip.make_folder(case_dir + '/Results/forces_' + result_string)
ip.make_folder(case_dir + '/Results/residuals_' + result_string)
ip.copy_files(
case_dir + '/postProcessing/forces/**/*.dat', case_dir +
'/Results/forces_' + result_string + '/Re_' + str(Re) + '.dat', 9)
ip.copy_files(
case_dir + '/postProcessing/residuals/**/*.dat', case_dir +
'/Results/residuals_' + result_string + '/Re_' + str(Re) + '.dat',
2)
from PyFoam.Execution.AnalyzedRunner import AnalyzedRunner
from PyFoam.LogAnalysis.StandardLogAnalyzer import StandardLogAnalyzer
from PyFoam.Execution.BasicRunner import BasicRunner
from PyFoam.Execution.GnuplotRunner import GnuplotRunner
case = "polarStudy"
caseDir = SolutionDirectory(".",archive="polars")
caseDir.addBackup("postProcessing/forceCoeffs/0/forceCoeffs.dat")
caseDir.addBackup("PyFoamSolve.logfile")
caseDir.addBackup("PyFoamSolve.analyzed")
parameters = ParsedParameterFile("boundaryConditions",noHeader=True,preserveComments=False)
vRange = np.arange(25,31,2.5)
alphaRange = np.arange(0,11,1)
print vRange
caseDir.clearResults()
caseDir.clear(functionObjectData=True)
valueList = []
for i in range(len(vRange)):
for j in range(len(alphaRange)):
valueList.append({'velocity':vRange[i],'alpha':alphaRange[j]})
valueList.append({'velocity':10,'alpha':4})
valueList.append({'velocity':5,'alpha':10})
valueList.append({'velocity':7.5,'alpha':10})
print valueList
for k in range(6,len(valueList)):
vel = valueList[k]['velocity']
and after it has finished runs utilies that postprocess the output.
Collects some results"""
from PyFoam.Execution.ConvergenceRunner import ConvergenceRunner
from PyFoam.Execution.UtilityRunner import UtilityRunner
from PyFoam.LogAnalysis.BoundingLogAnalyzer import BoundingLogAnalyzer
from PyFoam.RunDictionary.SolutionFile import SolutionFile
from PyFoam.RunDictionary.SolutionDirectory import SolutionDirectory
solver="simpleFoam"
case="pitzDaily"
pCmd="calcPressureDifference"
mCmd="calcMassFlow"
dire=SolutionDirectory(case,archive="InletVariation")
dire.clearResults()
dire.addBackup("PyFoamSolve.logfile")
dire.addBackup("PyFoamSolve.analyzed")
dire.addBackup("Pressure.analyzed")
dire.addBackup("MassFlow.analyzed")
sol=SolutionFile(dire.initialDir(),"U")
maximum=1.
nr=10
f=dire.makeFile("InflowVariationResults")
for i in range(nr+1):
# Set the boundary condition at the inlet
val=(maximum*i)/nr
import sys
from PyFoam.RunDictionary.SolutionDirectory import SolutionDirectory
dName = sys.argv[1]
sd = SolutionDirectory(dName)
sd.lastToArchive("test")
sd.clearResults()
CloneCase(args=[refCase, caseName, '--force'])
else:
try:
CloneCase(args=[refCase, caseName])
except BaseException:
print(
'\n' + caseName +
'already exist. Be careful or I\'ll destroy your data'
+ '\n')
i += 1
break
print('toto')
#loading sim files
dire = SolutionDirectory(caseName)
dire.clearResults()
# writing CMC
transprortPpties = ParsedParameterFile(
caseName + '/constant/transportProperties')
transprortPpties['Ccmc'][2] = Ccmc
transprortPpties.writeFile()
# writing Ct BC
solCt = SolutionFile(dire.initialDir(), "Ct")
solCt.replaceBoundary("inlet", "%f" % (Cbd))
# writing initial concentrations in the BC<y<BD
c0 = 'funkySetFields -case ' + \
os.path.join(studyPath, caseName) + ' -field Ct -expression "pos().y <= 0.00010447667906605678 ? ' + \
str(Cbc) + ' : ' + str(Cbd) + '" -time 0'
import sys
from PyFoam.RunDictionary.SolutionDirectory import SolutionDirectory
dName=sys.argv[1]
sd=SolutionDirectory(dName)
sd.lastToArchive("test")
sd.clearResults()