def createMesh(self):
# Create BoundedMesh objects.
from ExchangerLib import exchangeBoundedBox, createInterior, createEmptyBoundary
ContainingCoupler.createMesh(self)
# the bounding box of the mesh on remote solver2
self.remoteBBox2 = \
exchangeBoundedBox(self.globalBBox,
self.communicator.handle(),
self.srcCommList2[0].handle(),
self.srcCommList2[0].size - 1)
# the nodes within remoteBBox2
self.interior2, self.myBBox2 = createInterior(self.remoteBBox2,
self.all_variables)
# an empty boundary object,\
# which will be filled by a remote boundary obj.
for i in range(self.remoteSize2):
self.remoteBdryList2[i] = createEmptyBoundary()
return
def createMesh(self):
# Create BoundedMesh objects.
from ExchangerLib import createGlobalBoundedBox, exchangeBoundedBox, createInterior, createEmptyBoundary
# the bounding box of the mesh on this solver
self.globalBBox = createGlobalBoundedBox(self.all_variables)
# the bounding box of the mesh on the other solver
self.remoteBBox = exchangeBoundedBox(self.globalBBox,
self.communicator.handle(),
self.srcCommList[0].handle(),
self.srcCommList[0].size - 1)
# the nodes within remoteBBox
self.interior, self.myBBox = createInterior(self.remoteBBox,
self.all_variables)
self.remoteBdryList = range(self.remoteSize)
for i in range(self.remoteSize):
# an empty boundary object for remote velocity nodes
# will be filled by a remote boundary obj.
self.remoteBdryList[i] = createEmptyBoundary()
return
def exchangeTemperature(self):
if not self.inventory.exchange_initial_temperature:
return
from ExchangerLib import createInterior, Sink_create
interior, bbox = createInterior(self.remoteBBox, self.all_variables)
sink = Sink_create(self.sinkComm.handle(), self.remoteSize, interior)
import Inlet
inlet = Inlet.TInlet(interior, sink, self.all_variables)
inlet.recv()
inlet.impose()
# Any modification of read-in temperature is done here
# Note: modifyT is called after receiving unmodified T from CCPLR.
# If T is modified before sending, ECPLR's T will lose sharp feature.
# CCPLR has to call modifyT too to ensure consistent T field.
#self.modifyT(self.globalBBox)
return
def exchangeTemperature(self):
if not self.inventory.exchange_initial_temperature:
return
from ExchangerLib import createInterior, Sink_create
interior, bbox = createInterior(self.remoteBBox,
self.all_variables)
sink = Sink_create(self.sinkComm.handle(),
self.remoteSize,
interior)
import Inlet
inlet = Inlet.TInlet(interior, sink, self.all_variables)
inlet.recv()
inlet.impose()
# Any modification of read-in temperature is done here
# Note: modifyT is called after receiving unmodified T from CCPLR.
# If T is modified before sending, ECPLR's T will lose sharp feature.
# CCPLR has to call modifyT too to ensure consistent T field.
#self.modifyT(self.globalBBox)
return
def createMesh(self):
# Create BoundedMesh objects.
from ExchangerLib import exchangeBoundedBox, createInterior, createEmptyBoundary
ContainingCoupler.createMesh(self)
# the bounding box of the mesh on remote solver2
self.remoteBBox2 = \
exchangeBoundedBox(self.globalBBox,
self.communicator.handle(),
self.srcCommList2[0].handle(),
self.srcCommList2[0].size - 1)
# the nodes within remoteBBox2
self.interior2, self.myBBox2 = createInterior(self.remoteBBox2,
self.all_variables)
# an empty boundary object,\
# which will be filled by a remote boundary obj.
for i in range(self.remoteSize2):
self.remoteBdryList2[i] = createEmptyBoundary()
return
