def viz(fields = [],
filename = "RubberBalls-3d"):
dumpPhysicsState(integrator,
filename,
visitDir,
fields = fields,
)
def viz(fields=[], filename="ExpandingTube-3d"):
tdamage = nodesSteel.damage()
etdamage = nodesSteel.effectiveDamage()
tstrain = damageModel.strain()
etstrain = damageModel.effectiveStrain()
sdamage = ScalarField("damage magnitude", nodesSteel)
mindamage = ScalarField("damage magnitude min", nodesSteel)
maxdamage = ScalarField("damage magnitude max", nodesSteel)
esdamage = ScalarField("effective damage magnitude", nodesSteel)
minedamage = ScalarField("effective damage magnitude min", nodesSteel)
maxedamage = ScalarField("effective damage magnitude max", nodesSteel)
sstrain = ScalarField("strain average", nodesSteel)
esstrain = ScalarField("effective strain average", nodesSteel)
for i in xrange(nodesSteel.numInternalNodes):
sdamage[i] = tdamage[i].Trace()
esdamage[i] = etdamage[i].Trace()
ev = tdamage[i].eigenValues()
eev = etdamage[i].eigenValues()
maxdamage[i] = ev.maxElement()
mindamage[i] = ev.minElement()
maxedamage[i] = eev.maxElement()
minedamage[i] = eev.minElement()
sstrain[i] = tstrain[i].Trace() / 3.0
esstrain[i] = etstrain[i].Trace() / 3.0
dumpPhysicsState(
integrator,
filename,
visitDir,
fields=[
damageModel.sumActivationEnergiesPerNode(),
damageModel.numFlawsPerNode(), sdamage, mindamage, maxdamage,
esdamage, minedamage, maxedamage, sstrain, esstrain
] + [x.nodeFlags for x in (VISARa, VISARb, VISARc)] + fields,
)
def viz(nodes, nodesDamaged, damageModel):
if isinstance(damageModel, TensorDamageModel3d):
tdamage = damageModel.damage()
tstrain = damageModel.strain()
sdamage = ScalarField3d("damage magnitude", nodes)
sdamagemin = ScalarField3d("damage magnitude min", nodes)
sdamagemax = ScalarField3d("damage magnitude max", nodes)
sstrain = ScalarField3d("strain average", nodes)
sstrainmin = ScalarField3d("strain min", nodes)
sstrainmax = ScalarField3d("strain max", nodes)
for i in xrange(nodes.numInternalNodes):
sdamage[i] = tdamage[i].Trace()
sdamagemin[i] = tdamage[i].eigenValues().minElement()
sdamagemax[i] = tdamage[i].eigenValues().maxElement()
sstrain[i] = tstrain[i].Trace() / 2.0
sstrainmin[i] = tstrain[i].eigenValues().minElement()
sstrainmax[i] = tstrain[i].eigenValues().maxElement()
dumpPhysicsState(
integrator,
"TensileDisk-3d-visit",
visitDir,
fields=[
damageModel.sumActivationEnergiesPerNode(),
damageModel.numFlawsPerNode(),
sdamage,
sdamagemin,
sdamagemax,
sstrain,
sstrainmin,
sstrainmax,
#ufragIndex
])
else:
raise "We need to add support for your damage model to the viz() function."
def viz(fields = [],
filename = "ExpandingTube-rz"):
damage = damageModel.damage()
dtrace = ScalarField3d("damage magnitude", nodesSteel)
dmin = ScalarField3d("damage min", nodesSteel)
dmax = ScalarField3d("damage max", nodesSteel)
strain = damageModel.strain()
svol = ScalarField3d("strain vol", nodesSteel)
smin = ScalarField3d("strain min", nodesSteel)
smax = ScalarField3d("strain max", nodesSteel)
for i in xrange(nodesSteel.numInternalNodes):
dtrace[i] = damage[i].Trace()
dev = damage[i].eigenValues()
dmin[i] = dev.minElement()
dmax[i] = dev.maxElement()
svol[i] = strain[i].Trace()
sev = strain[i].eigenValues()
smin[i] = sev.minElement()
smax[i] = sev.maxElement()
dumpPhysicsState(integrator,
filename,
visitDir,
fields = [damageModel.sumActivationEnergiesPerNode(),
damageModel.numFlawsPerNode(),
VISARa.nodeFlags,
VISARb.nodeFlags,
VISARc.nodeFlags,
dtrace,
dmin,
dmax,
svol,
smin,
smax] + fields,
)
def viz(nodes, nodesDamaged, damageModel):
if isinstance(damageModel, TensorDamageModel2d):
tdamage = nodes.damage()
tstrain = damageModel.effectiveStrain()
vr = ScalarField2d("radial velocity", nodes)
sdamage = ScalarField2d("damage magnitude", nodes)
sdamagemin = ScalarField2d("damage magnitude min", nodes)
sdamagemax = ScalarField2d("damage magnitude max", nodes)
sstrain = ScalarField2d("strain average", nodes)
sstrainmin = ScalarField2d("strain min", nodes)
sstrainmax = ScalarField2d("strain max", nodes)
for i in xrange(nodes.numInternalNodes):
runit = nodes.positions()[i].unitVector()
vr[i] = nodes.velocity()[i].dot(runit)
sdamage[i] = tdamage[i].Trace()
sdamagemin[i] = tdamage[i].eigenValues().minElement()
sdamagemax[i] = tdamage[i].eigenValues().maxElement()
sstrain[i] = tstrain[i].Trace() / 2.0
sstrainmin[i] = tstrain[i].eigenValues().minElement()
sstrainmax[i] = tstrain[i].eigenValues().maxElement()
dumpPhysicsState(
integrator,
"TensileDisk-2d-visit",
visitDir,
fields=[
vr,
damageModel.sumActivationEnergiesPerNode(),
damageModel.numFlawsPerNode(),
sdamage,
sdamagemin,
sdamagemax,
sstrain,
sstrainmin,
sstrainmax,
#ufragIndex
])
else:
raise "We need to add support for your damage model to the viz() function."
restartBaseName = '%s/%s' % (restartDir, simName)
control = SpheralController(integrator,
WT,
statsStep=statsStep,
initializeMassDensity=True,
restartBaseName=restartBaseName)
output("control")
#print 'max |div B| (0):', maxDivB0
# Restore if desired.
if restoreCycle is not None:
if restoreCycle == -1:
restoreCycle = findLastRestart(simName)
control.loadRestartFile(restoreCycle)
else:
dumpPhysicsState(integrator, simName, visitDir, dumpDerivatives=True)
output("integrator.dtGrowth")
# If we're using a projection scheme to clean div B, advance one step and
# read off our diagnostics.
if mhd.divBCleaner == MHD.BDivergenceCleanerType.GreensFnProjCleaner or \
mhd.divBCleaner == MHD.BDivergenceCleanerType.BiotSavartProjCleaner:
control.advance(control.time() + 1e-10, 1)
maxDivB1 = max(mhd.maxDivB(), abs(mhd.minDivB()))
# Otherwise, go get 'em!
else:
while control.time() < goalTime:
dt = goalTime / 10
control.advance(min(goalTime, control.time() + dt), maxSteps)
control.dropRestartFile()
#-------------------------------------------------------------------------------
if restoreCycle is not None:
control.loadRestartFile(restoreCycle)
else:
control.smoothState(smoothIters)
# Viz the initial conditions.
vx = ScalarField2d("x velocity", nodes)
vy = ScalarField2d("y velocity", nodes)
for i in xrange(nodes.numInternalNodes):
vx[i] = nodes.velocity()[i].x
vy[i] = nodes.velocity()[i].y
dumpPhysicsState(integrator,
"TensileRod-2d-visit",
"dumps-specifiedFlaws-2d",
fields = [vx, vy,
damageModel.sumActivationEnergiesPerNode(),
damageModel.numFlawsPerNode()]
)
#-------------------------------------------------------------------------------
# Advance to the end time.
#-------------------------------------------------------------------------------
while control.time() < goalTime:
nextGoalTime = min(control.time() + dtSample, goalTime)
control.advance(nextGoalTime, maxSteps)
control.dropRestartFile()
# Viz the current state.
vx = ScalarField2d("x velocity", nodes)
vy = ScalarField2d("y velocity", nodes)
output("integrator.dtMax")
output("integrator.dtGrowth")
#-------------------------------------------------------------------------------
# Build the controller.
#-------------------------------------------------------------------------------
control = SpheralController(integrator,
WT,
statsStep=statsStep,
initializeMassDensity=True)
integrator.setCurrentTime(t1)
output("control")
# Initial dump.
dumpPhysicsState(integrator,
"Zeldovich-pancake-SPH-%ix%ix%i-visit" % (nx, ny, nz),
visitDir)
#-------------------------------------------------------------------------------
# Advance.
#-------------------------------------------------------------------------------
#nextGoalTime = min(control.time() + dtSample, goalTime)
print 'Running from t = %g to %g' % (t1, t2)
control.advance(t2, 1000)
dumpPhysicsState(integrator,
"Zeldovich-pancake-SPH-%ix%ix%i-visit" % (nx, ny, nz),
visitDir)
D = gravity.matrix()
psi = gravity.potential()[0]
acc = nodes.DvelocityDt()
#-------------------------------------------------------------------------------
control = SpheralController(integrator,
WT,
statsStep=statsStep,
restartStep=restartStep,
restartBaseName=restartBaseName)
output("control")
# Smooth the initial conditions.
if restoreCycle is not None:
control.loadRestartFile(restoreCycle)
else:
control.iterateIdealH()
control.smoothState(smoothIters)
control.dropRestartFile()
dumpPhysicsState(integrator, "icf-2d", visitDir)
#-------------------------------------------------------------------------------
# Advance to the end time.
#-------------------------------------------------------------------------------
hstats(nodeSet)
while control.time() < goalTime:
nextGoalTime = min(control.time() + dtSample, goalTime)
control.advance(nextGoalTime, maxSteps)
control.dropRestartFile()
dumpPhysicsState(integrator, "icf-2d", visitDir)
#-------------------------------------------------------------------------------
# Plot the results.
#-------------------------------------------------------------------------------
if graphics:
output("integrator.dtMax")
output("integrator.dtGrowth")
#-------------------------------------------------------------------------------
# Build the controller.
#-------------------------------------------------------------------------------
control = SpheralController(integrator, WT,
statsStep = statsStep,
initializeMassDensity = True)
integrator.setCurrentTime(t1)
integrator.setVerbose(1)
plotter = Plotter(gravity, nodes)
if plotEvery is not None:
control.appendPeriodicWork(plotter, plotEvery)
output("control")
# Initial dump.
if os.path.exists(visitDir):
import shutil
shutil.rmtree(visitDir)
dumpPhysicsState(integrator, dumpName, visitDir)
#-------------------------------------------------------------------------------
# Advance.
#-------------------------------------------------------------------------------
print 'Running from t = %g to %g'%(t1, t2)
control.advance(t2, maxSteps)
dumpPhysicsState(integrator, dumpName, visitDir)
psi = gravity.potential()[0]
acc = nodes.DvelocityDt()