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run_aorta.py
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69 lines (64 loc) · 2.72 KB
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import vessel
import pickle
import os
import time
import numpy as np
def saveVessel(vess):
with open('vessel.pickle', 'wb') as file:
pickle.dump(vess,file)
return
def loadVessel():
with open('vessel.pickle', 'rb') as file:
vess = pickle.load(file)
return vess
os.system("mpiexec python3 utils_init_vessel.py")
startTime = time.time()
if os.path.exists('vessel.pickle'):
simulation_vessel = loadVessel()
simulation_vessel.startTime = simulation_vessel.currTime
else:
simulation_vessel = vessel.Vessel(radius=0.0647, thickness=0.004, length=1.5, numLen=48, numCirc=24, numRad=4)
simulation_vessel.outletPressure = 1333.22*105
simulation_vessel.inletFlow = -97.0
simulation_vessel.gnr_step_size = 1
simulation_vessel.gnr_max_days = 720
simulation_vessel.damping = 1e7
simulation_vessel.penalty = 1e9
simulation_vessel.tolerance = 1e-3
simulation_vessel.simulationExecutable = "~/svFSI-build/svFSI-build/mysvfsi"
simulation_vessel.setInputFileValues()
simulation_vessel.numProcessorsSolid = 72
simulation_vessel.smoothAttributesValue = 0.1
simulation_vessel.aneurysm = 1
simulation_vessel.zod = 0.3
simulation_vessel.zapex = 0
simulation_vessel.thetaod = np.pi/2
simulation_vessel.thetaapex = np.pi
os.system('mkdir -p ' + simulation_vessel.outputDir)
os.system('mkdir -p ' + 'meshIterations')
os.system('mkdir -p ' + 'meshResults')
os.system('mkdir -p ' + 'simulationResults')
os.system('mkdir -p ' + 'materialResults')
simulation_vessel.initializeVessel()
simulation_vessel.estimateFluidIteration()
simulation_vessel.runSolidIteration()
simulation_vessel.estimateFluidIteration()
simulation_vessel.runMaterialIteration()
simulation_vessel.currTime = time.time() - startTime + simulation_vessel.startTime
simulation_vessel.writeStatus(simulation_vessel.currTime, "SG")
simulation_vessel.incrementIteration()
saveVessel(simulation_vessel)
while simulation_vessel.timeStep < simulation_vessel.total_time_steps:
while simulation_vessel.residual > simulation_vessel.tolerance or simulation_vessel.timeIter < 5:
simulation_vessel.runSolidIteration()
simulation_vessel.estimateFluidIteration()
simulation_vessel.runMaterialIteration()
simulation_vessel.currTime = time.time() - startTime + simulation_vessel.startTime
simulation_vessel.writeStatus(simulation_vessel.currTime)
simulation_vessel.incrementIteration()
saveVessel(simulation_vessel)
simulation_vessel.runSystoleDiastole()
simulation_vessel.timeIter = 0
simulation_vessel.residual = simulation_vessel.tolerance*10.0
simulation_vessel.incrementTimestep()
saveVessel(simulation_vessel)