def material_write(self,mat_name):
mat=open(mat_name,'w')
print 'Writing '+mat_name+'.....'
for block,flag in zip(self.block_mat,self.block_flag):
hexes=cubit.get_block_hexes(block)
for hexa in hexes:
mat.write(('%10i %10i\n') % (hexa,flag))
mat.close()
def material_write(self, mat_name):
mat = open(mat_name, "w")
print "Writing " + mat_name + "....."
for block, flag in zip(self.block_mat, self.block_flag):
hexes = cubit.get_block_hexes(block)
for hexa in hexes:
mat.write(("%10i %10i\n") % (hexa, flag))
mat.close()
print "Ok"
def material_write(self, mat_name):
mat = open(mat_name, 'w')
print 'Writing ' + mat_name + '.....'
for block, flag in zip(self.block_mat, self.block_flag):
hexes = cubit.get_block_hexes(block)
for hexa in hexes:
mat.write(('%10i %10i\n') % (hexa, flag))
mat.close()
print 'Ok'
def mesh_write(self,mesh_name):
meshfile=open(mesh_name,'w')
print 'Writing '+mesh_name+'.....'
num_elems=cubit.get_hex_count()
print ' total number of elements:',str(num_elems)
meshfile.write(str(num_elems)+'\n')
for block,flag in zip(self.block_mat,self.block_flag):
hexes=cubit.get_block_hexes(block)
print 'block ',block,' hexes ',len(hexes)
for hexa in hexes:
txt=self.create_hexnode_string(hexa)
meshfile.write(txt)
meshfile.close()
def mesh_write(self, mesh_name):
meshfile = open(mesh_name, 'w')
print 'Writing ' + mesh_name + '.....'
num_elems = cubit.get_hex_count()
print ' total number of elements:', str(num_elems)
meshfile.write(str(num_elems) + '\n')
for block, flag in zip(self.block_mat, self.block_flag):
hexes = cubit.get_block_hexes(block)
print 'block ', block, ' hexes ', len(hexes)
for hexa in hexes:
txt = self.create_hexnode_string(hexa)
meshfile.write(txt)
meshfile.close()
def mesh_write(self, mesh_name):
meshfile = open(mesh_name, "w")
print "Writing " + mesh_name + "....."
num_elems = cubit.get_hex_count()
print " number of elements:", str(num_elems)
meshfile.write(str(num_elems) + "\n")
num_write = 0
for block, flag in zip(self.block_mat, self.block_flag):
# print block,flag
hexes = cubit.get_block_hexes(block)
# print len(hexes)
for hexa in hexes:
# print hexa
nodes = cubit.get_connectivity("Hex", hexa)
# nodes=self.jac_check(nodes) #is it valid for 3D? TODO
txt = ("%10i ") % hexa
txt = txt + ("%10i %10i %10i %10i %10i %10i %10i %10i\n") % nodes[:]
meshfile.write(txt)
meshfile.close()
print "Ok"
def mesh_write(self,mesh_name):
meshfile=open(mesh_name,'w')
print 'Writing '+mesh_name+'.....'
num_elems=cubit.get_hex_count()
print ' number of elements:',str(num_elems)
meshfile.write(str(num_elems)+'\n')
num_write=0
for block,flag in zip(self.block_mat,self.block_flag):
#print block,flag
hexes=cubit.get_block_hexes(block)
#print len(hexes)
for hexa in hexes:
#print hexa
nodes=cubit.get_connectivity('Hex',hexa)
#nodes=self.jac_check(nodes) #is it valid for 3D? TODO
txt=('%10i ')% hexa
txt=txt+('%10i %10i %10i %10i %10i %10i %10i %10i\n')% nodes[:]
meshfile.write(txt)
meshfile.close()
print 'Ok'
def mesh_write(self, mesh_name):
meshfile = open(mesh_name, 'w')
print 'Writing ' + mesh_name + '.....'
num_elems = cubit.get_hex_count()
print ' number of elements:', str(num_elems)
meshfile.write(str(num_elems) + '\n')
num_write = 0
for block, flag in zip(self.block_mat, self.block_flag):
#print block,flag
hexes = cubit.get_block_hexes(block)
#print len(hexes)
for hexa in hexes:
#print hexa
nodes = cubit.get_connectivity('Hex', hexa)
#nodes=self.jac_check(nodes) #is it valid for 3D? TODO
txt = ('%10i ') % hexa
txt = txt + (
'%10i %10i %10i %10i %10i %10i %10i %10i\n') % nodes[:]
meshfile.write(txt)
meshfile.close()
print 'Ok'
def getstats(self):
''' Get statistics for differend blocks in the hexmesh '''
############################## READ BLOCKS ######################
try:
blocks=cubit.get_block_id_list()
except:
print('no blocks defined')
nblocks=len(blocks)
print('Found ',nblocks,' Blocks')
# lists of details of all elastic blocks. For each elastic block, append respective values
name=[]
typ=[]
nattrib=[]
vp=[]
vs=[]
rho=[]
minEdge=[]
maxEdge=[]
minEdgeMesh = []
maxEdgeMesh = []
# k: counter of all elastic blocks
k=0
for block in blocks:
minEdgeMeshTmp = []
maxEdgeMeshTmp = []
blockname=cubit.get_exodus_entity_name('block',block)
# only apply stats to elastic blocks
if blockname.find("elastic") >= 0:
# NOW APPEND VALUES OF THIS ELASTIC BLOCK TO LISTS (defined as empty above)
name.append(blockname)
typ.append(cubit.get_block_element_type(block))
# attribute count
nattrib.append(cubit.get_block_attribute_count(block))
# vp
vp.append(cubit.get_block_attribute_value(block,1))
# vs
vs.append(cubit.get_block_attribute_value(block,2))
# rho
rho.append(cubit.get_block_attribute_value(block,3))
hexes=cubit.get_block_hexes(block)
print(block, k,'name: ',name[k],'#hexes:',len(hexes),'type: ',typ[k],'attribute count: ',nattrib[k],'vp: ',vp[k],'vs: ',vs[k],'rho: ',rho[k])
# minimum/maximum edgelength search for this elastic block
# initiate with very large minEdge and very small maxEdge
minEdge.append(1e9)
maxEdge.append(1e-9)
# now search
for hexa in hexes:
nodes=cubit.get_connectivity('Hex',hexa)
# get coordinates of nodes of this hexahedron
node_coords=[]
for node in nodes:
node_coords.append(cubit.get_nodal_coordinates(node))
minv=self.minEdgeHex(node_coords)
minEdgeMeshTmp.append(minv)
maxv=self.maxEdgeHex(node_coords)
maxEdgeMeshTmp.append(maxv)
# is minimum edgelength of this this element smaller than minimum edgelength found before?
if minv < minEdge[k]:
minEdge[k]=minv
# is maximum edgelength of this this element larger than maximum edgelength found before?
if maxv > maxEdge[k]:
maxEdge[k]=maxv
minEdgeMesh.append(minEdgeMeshTmp)
maxEdgeMesh.append(maxEdgeMeshTmp)
# end of processing of this elastic block. incremet counter
k=k+1
# if not "elastic" in this blockname
else:
print(blockname, '--no elastic')
# now calculate maximum frequency for which the mesh is stable
# and maximal dt
# first do that for each block
fmax=[]
dtmax_05=[]
for i in range(len(name)):
fmax.append(self.calcMaxFreq(maxEdge[i],vs[i]))
dtmax_05.append(self.calcMaxDt(minEdge[i],vp[i],cn=0.5))
min_dx = minEdge[i]*0.1727
max_dx = maxEdge[i]*0.3272*sqrt(3.)
print('Block ', name[i], ' min dx: ',min_dx, ' max dx: ',max_dx, 'max frequency: ',fmax[i],
' maximal dt (C=0.5):',dtmax_05[i])
vals,bin_edges = histogram(minEdgeMesh[i],10)
nhexa = sum(vals)
print(' '+str(nhexa)+' HEXAS IN THIS BLOCK')
print(' histogram of minimum edge length of hexa of this block:')
for j,val in enumerate(vals):
print(' %6.3f %% of hexas have minimum edgelength between %3.3f and %3.3f -> dt (C=0.5) is %8.3e'%(100.*val/float(nhexa),bin_edges[j],bin_edges[j+1],self.calcMaxDt(bin_edges[j],vp[i],cn=0.5)))
vals,bin_edges = histogram(maxEdgeMesh[i],10)
nhexa = sum(vals)
print(' '+str(nhexa)+' HEXAS IN THIS BLOCK')
print(' histogram of maximum edge length of hexa of this block:')
for j,val in enumerate(vals):
print(' %6.3f %% of hexas have maximum edgelength between %3.3f and %3.3f -> fmax (5 GLL points per wavelength) is %8.3e'%(100.*val/float(nhexa),bin_edges[j],bin_edges[j+1],self.calcMaxFreq(bin_edges[j+1],vs[i])))
# now compare the values for all the blocks
dtm_05=sorted(dtmax_05)
print('The minimum over all blocks of the respective maximal dt for C=0.5 is: ',dtm_05[0])
fmax_min=sorted(fmax)
print('The minimum over all blocks of the respective maximal frequency is: ',fmax_min[0])
def getstats(self):
''' Get statistics for differend blocks in the hexmesh '''
############################## READ BLOCKS ######################
try:
blocks = cubit.get_block_id_list()
except:
print('no blocks defined')
nblocks = len(blocks)
print('Found ', nblocks, ' Blocks')
# lists of details of all elastic blocks. For each elastic block, append respective values
name = []
typ = []
nattrib = []
vp = []
vs = []
rho = []
minEdge = []
maxEdge = []
minEdgeMesh = []
maxEdgeMesh = []
# k: counter of all elastic blocks
k = 0
for block in blocks:
minEdgeMeshTmp = []
maxEdgeMeshTmp = []
blockname = cubit.get_exodus_entity_name('block', block)
# only apply stats to elastic blocks
if blockname.find("elastic") >= 0:
# NOW APPEND VALUES OF THIS ELASTIC BLOCK TO LISTS (defined as empty above)
name.append(blockname)
typ.append(cubit.get_block_element_type(block))
# attribute count
nattrib.append(cubit.get_block_attribute_count(block))
# vp
vp.append(cubit.get_block_attribute_value(block, 1))
# vs
vs.append(cubit.get_block_attribute_value(block, 2))
# rho
rho.append(cubit.get_block_attribute_value(block, 3))
hexes = cubit.get_block_hexes(block)
print(block, k, 'name: ', name[k], '#hexes:', len(hexes),
'type: ', typ[k], 'attribute count: ', nattrib[k],
'vp: ', vp[k], 'vs: ', vs[k], 'rho: ', rho[k])
# minimum/maximum edgelength search for this elastic block
# initiate with very large minEdge and very small maxEdge
minEdge.append(1e9)
maxEdge.append(1e-9)
# now search
for hexa in hexes:
nodes = cubit.get_connectivity('Hex', hexa)
# get coordinates of nodes of this hexahedron
node_coords = []
for node in nodes:
node_coords.append(cubit.get_nodal_coordinates(node))
minv = self.minEdgeHex(node_coords)
minEdgeMeshTmp.append(minv)
maxv = self.maxEdgeHex(node_coords)
maxEdgeMeshTmp.append(maxv)
# is minimum edgelength of this this element smaller than minimum edgelength found before?
if minv < minEdge[k]:
minEdge[k] = minv
# is maximum edgelength of this this element larger than maximum edgelength found before?
if maxv > maxEdge[k]:
maxEdge[k] = maxv
minEdgeMesh.append(minEdgeMeshTmp)
maxEdgeMesh.append(maxEdgeMeshTmp)
# end of processing of this elastic block. incremet counter
k = k + 1
# if not "elastic" in this blockname
else:
print(blockname, '--no elastic')
# now calculate maximum frequency for which the mesh is stable
# and maximal dt
# first do that for each block
fmax = []
dtmax_05 = []
for i in range(len(name)):
fmax.append(self.calcMaxFreq(maxEdge[i], vs[i]))
dtmax_05.append(self.calcMaxDt(minEdge[i], vp[i], cn=0.5))
min_dx = minEdge[i] * 0.1727
max_dx = maxEdge[i] * 0.3272 * sqrt(3.)
print('Block ', name[i], ' min dx: ', min_dx, ' max dx: ', max_dx,
'max frequency: ', fmax[i], ' maximal dt (C=0.5):',
dtmax_05[i])
vals, bin_edges = histogram(minEdgeMesh[i], 10)
nhexa = sum(vals)
print(' ' + str(nhexa) + ' HEXAS IN THIS BLOCK')
print(' histogram of minimum edge length of hexa of this block:')
for j, val in enumerate(vals):
print(
' %6.3f %% of hexas have minimum edgelength between %3.3f and %3.3f -> dt (C=0.5) is %8.3e'
%
(100. * val / float(nhexa), bin_edges[j], bin_edges[j + 1],
self.calcMaxDt(bin_edges[j], vp[i], cn=0.5)))
vals, bin_edges = histogram(maxEdgeMesh[i], 10)
nhexa = sum(vals)
print(' ' + str(nhexa) + ' HEXAS IN THIS BLOCK')
print(' histogram of maximum edge length of hexa of this block:')
for j, val in enumerate(vals):
print(
' %6.3f %% of hexas have maximum edgelength between %3.3f and %3.3f -> fmax (5 GLL points per wavelength) is %8.3e'
%
(100. * val / float(nhexa), bin_edges[j], bin_edges[j + 1],
self.calcMaxFreq(bin_edges[j + 1], vs[i])))
# now compare the values for all the blocks
dtm_05 = sorted(dtmax_05)
print(
'The minimum over all blocks of the respective maximal dt for C=0.5 is: ',
dtm_05[0])
fmax_min = sorted(fmax)
print(
'The minimum over all blocks of the respective maximal frequency is: ',
fmax_min[0])