def copyCommonData(self):
SLFn = SELAFIN('')
# Meta data
SLFn.TITLE = self.slf.TITLE
SLFn.file = self.slf.file
SLFn.IPARAM = self.slf.IPARAM
# Time
SLFn.DATETIME = self.slf.DATETIME
SLFn.tags = self.slf.tags
# Variables
SLFn.NBV1 = self.slf.NBV1
SLFn.VARNAMES = self.slf.VARNAMES
SLFn.VARUNITS = self.slf.VARUNITS
SLFn.NBV2 = self.slf.NBV2
SLFn.CLDNAMES = self.slf.CLDNAMES
SLFn.CLDUNITS = self.slf.CLDUNITS
SLFn.NVAR = self.slf.NVAR
SLFn.VARINDEX = range(self.slf.NVAR)
# Unchanged numbers
SLFn.NPLAN = self.slf.NPLAN
SLFn.NDP2 = self.slf.NDP2
SLFn.NDP3 = self.slf.NDP3
return SLFn
def copyCommonData(self):
SLFn = SELAFIN("")
# Meta data
SLFn.TITLE = self.slf.TITLE
SLFn.file = self.slf.file
SLFn.IPARAM = self.slf.IPARAM
# Time
SLFn.DATETIME = self.slf.DATETIME
SLFn.tags = self.slf.tags
# Variables
SLFn.NBV1 = self.slf.NBV1
SLFn.VARNAMES = self.slf.VARNAMES
SLFn.VARUNITS = self.slf.VARUNITS
SLFn.NBV2 = self.slf.NBV2
SLFn.CLDNAMES = self.slf.CLDNAMES
SLFn.CLDUNITS = self.slf.CLDUNITS
SLFn.NVAR = self.slf.NVAR
SLFn.VARINDEX = range(self.slf.NVAR)
# Unchanged numbers
SLFn.NPLAN = self.slf.NPLAN
SLFn.NDP2 = self.slf.NDP2
SLFn.NDP3 = self.slf.NDP3
return SLFn
bnd.NBV1 = 5
# /!\ ELEVATION has to be the first variable
# (for possible vertical re-interpolation within TELEMAC)
bnd.VARNAMES = ['ELEVATION Z ', \
'VELOCITY U ','VELOCITY V ', \
'SALINITY ','TEMPERATURE ' ]
bnd.VARUNITS = ['M ', \
'M/S ','M/S ', \
' ',' ' ]
bnd.NVAR = bnd.NBV1
bnd.VARINDEX = range(bnd.NVAR)
# Sizes and mesh connectivity
bnd.NPLAN = slf.NPLAN
bnd.NDP2 = 2
bnd.NDP3 = 4
bnd.NPOIN2 = len(BOR)
bnd.NPOIN3 = bnd.NPOIN2 * slf.NPLAN
bnd.IPARAM = [0, 0, 0, 0, 0, 0, bnd.NPLAN, 0, 0, 0]
bnd.IPOB2 = BOR # /!\ Note that IPOBO keeps the original numbering
print ' +> masking and setting connectivity'
# Set the array that only includes elements of geo.IKLE2 with at least two nodes in BOR
MASK = geo.IKLE2[np.where(
np.sum(np.in1d(geo.IKLE2, np.sort(BOR -
1)).reshape(geo.NELEM2, geo.NDP2),
axis=1) == 2)]
IKLE2 = np.ravel(MASK)[np.in1d(MASK, np.sort(BOR - 1))].reshape(
len(MASK), 2) # this IKLE2 keeps the original numbering
# ~~> re-numbering IKLE2 as a local connectivity matrix
KNOLG, indices = np.unique(np.ravel(IKLE2), return_index=True)
KNOGL = dict(zip(KNOLG, range(len(KNOLG))))
bnd.NBV1 = 5
# /!\ ELEVATION has to be the first variable
# (for possible vertical re-interpolation within TELEMAC)
bnd.VARNAMES = ['ELEVATION Z ', \
'VELOCITY U ','VELOCITY V ', \
'SALINITY ','TEMPERATURE ' ]
bnd.VARUNITS = ['M ', \
'M/S ','M/S ', \
' ',' ' ]
bnd.NVAR = bnd.NBV1
bnd.VARINDEX = range(bnd.NVAR)
# Sizes and mesh connectivity
bnd.NPLAN = slf.NPLAN
bnd.NDP2 = 3
bnd.NDP3 = 6
bnd.NPOIN2 = len(BOR)
bnd.NPOIN3 = bnd.NPOIN2 * slf.NPLAN
bnd.IPARAM = [0, 0, 0, 0, 0, 0, bnd.NPLAN, 0, 0, 0]
bnd.IPOB2 = BOR # /!\ Note that IPOBO keeps the original numbering
print ' +> masking and setting connectivity'
# Set the array that only includes elements of geo.IKLE2 with at least two nodes in BOR
IKLE2 = MASK
# ~~> re-numbering IKLE2 as a local connectivity matrix
KNOLG, indices = np.unique(np.ravel(IKLE2), return_index=True)
KNOGL = dict(zip(KNOLG, range(len(KNOLG))))
bnd.IKLE2 = -np.ones_like(IKLE2, dtype=np.int)
for k in range(len(IKLE2)):
bnd.IKLE2[k] = [
KNOGL[IKLE2[k][0]], KNOGL[IKLE2[k][1]], KNOGL[IKLE2[k][2]]
] # /!\ bnd.IKLE2 has a local numbering, fit to the boundary elements
ini.NBV1 = 5
# /!\ ELEVATION has to be the first variable
# (for possible vertical re-interpolation within TELEMAC)
ini.VARNAMES = ['ELEVATION Z ', \
'VELOCITY U ','VELOCITY V ', \
'SALINITY ','TEMPERATURE ' ]
ini.VARUNITS = ['M ', \
'M/S ','M/S ', \
' ',' ' ]
ini.NVAR = ini.NBV1
ini.VARINDEX = range(ini.NVAR)
# Sizes and mesh connectivity
ini.NPLAN = slf.NPLAN
ini.NDP2 = 3
ini.NDP3 = 6
ini.NPOIN2 = geo.NPOIN2
ini.NPOIN3 = geo.NPOIN2*ini.NPLAN
ini.NELEM2 = geo.NELEM2
ini.NELEM3 = ini.NELEM2*(ini.NPLAN-1)
print ' +> setting connectivity'
ini.IKLE3 = \
np.repeat(geo.NPOIN2*np.arange(ini.NPLAN-1),geo.NELEM2*ini.NDP3).reshape((geo.NELEM2*(ini.NPLAN-1),ini.NDP3)) + \
np.tile(np.add(np.tile(geo.IKLE2,2),np.repeat(geo.NPOIN2*np.arange(2),geo.NDP2)),(ini.NPLAN-1,1))
ini.IPOB3 = np.ravel(np.add(np.repeat(geo.IPOB2,ini.NPLAN).reshape((geo.NPOIN2,ini.NPLAN)),geo.NPOIN2*np.arange(ini.NPLAN)).T)
ini.IPARAM = [0,0,0,0,0,0,ini.NPLAN,0,0,0]
# Mesh coordinates
ini.MESHX = geo.MESHX
ini.MESHY = geo.MESHY
# Meta data and variable names
atm.TITLE = ''
atm.NBV1 = 4
atm.VARNAMES = ['SURFACE PRESSURE', \
'WIND VELOCITY U ','WIND VELOCITY V ', \
'AIR TEMPERATURE ']
atm.VARUNITS = ['UI ', \
'M/S ','M/S ', \
'DEGREES ']
atm.NVAR = atm.NBV1
atm.VARINDEX = range(atm.NVAR)
# Sizes and mesh connectivity
atm.NPLAN = slf.NPLAN # it should be 2D but why the heack not ...
atm.NDP2 = slf.NDP2
atm.NDP3 = slf.NDP3
atm.NPOIN2 = geo.NPOIN2
atm.NPOIN3 = geo.NPOIN2 * atm.NPLAN
atm.NELEM2 = geo.NELEM2
print ' +> setting connectivity'
if atm.NPLAN > 1:
atm.NELEM3 = geo.NELEM2 * (atm.NPLAN - 1)
atm.IKLE2 = geo.IKLE2
atm.IKLE3 = \
np.repeat(geo.NPOIN2*np.arange(atm.NPLAN-1),geo.NELEM2*atm.NDP3).reshape((geo.NELEM2*(atm.NPLAN-1),atm.NDP3)) + \
np.tile(np.add(np.tile(geo.IKLE2,2),np.repeat(geo.NPOIN2*np.arange(2),geo.NDP2)),(atm.NPLAN-1,1))
atm.IPOB2 = geo.IPOB2
atm.IPOB3 = np.ravel(
np.add(
np.repeat(geo.IPOB2,
# now to write the SELAFIN mesh file
slf2d = SELAFIN('')
#print ' +> Set SELAFIN variables'
slf2d.TITLE = 'Converted from gmsh'
slf2d.NBV1 = 1
slf2d.NVAR = 1
slf2d.VARINDEX = range(slf2d.NVAR)
slf2d.VARNAMES.append('BOTTOM ')
slf2d.VARUNITS.append('M ')
#print ' +> Set SELAFIN sizes'
slf2d.NPLAN = 1
slf2d.NDP2 = 3
slf2d.NDP3 = 3
slf2d.NPOIN2 = n
slf2d.NPOIN3 = n
slf2d.NELEM2 = e
slf2d.NELEM3 = e
slf2d.IPARAM = [1, 0, 0, 0, 0, 0, 0, 0, 0, 0]
#print ' +> Set SELAFIN mesh'
slf2d.MESHX = x
slf2d.MESHY = y
#print ' +> Set SELAFIN IPOBO'
junkIPOB = np.zeros(n - len(b))
junkIPOB = junkIPOB.astype(np.int16)
slf2d.IPOB2 = np.hstack((b, junkIPOB))
slf2d.IPOB3 = slf2d.IPOB2
# now to write the SELAFIN mesh file
slf2d = SELAFIN('')
#print ' +> Set SELAFIN variables'
slf2d.TITLE = 'Converted from gmsh'
slf2d.NBV1 = 1
slf2d.NVAR = 1
slf2d.VARINDEX = range(slf2d.NVAR)
slf2d.VARNAMES.append('BOTTOM ')
slf2d.VARUNITS.append('M ')
#print ' +> Set SELAFIN sizes'
slf2d.NPLAN = 1
slf2d.NDP2 = 3
slf2d.NDP3 = 3
slf2d.NPOIN2 = n
slf2d.NPOIN3 = n
slf2d.NELEM2 = e
slf2d.NELEM3 = e
slf2d.IPARAM = [1, 0, 0, 0, 0, 0, 0, 0, 0, 0]
#print ' +> Set SELAFIN mesh'
slf2d.MESHX = x
slf2d.MESHY = y
#print ' +> Set SELAFIN IPOBO'
junkIPOB = np.zeros(n-len(b))
junkIPOB = junkIPOB.astype(np.int16)
slf2d.IPOB2 = np.hstack((b,junkIPOB))
slf2d.IPOB3 = slf2d.IPOB2
