def _read_arr(self, side='lowerface_'):
file_name = side + self.geo_input_name + '.robj'
file_path = join('geometry_files', file_name)
v_arr = read_rsurface(file_path)
filter = self.geo_filter.get(self.geo_input_name, None)
if filter != None:
v_arr = filter(v_arr)
return v_arr
def _read_arr( self, side = 'lowerface_' ):
file_name = side + self.geo_input_name + '.robj'
file_path = join( 'geometry_files', file_name )
v_arr = read_rsurface( file_path )
filter = self.geo_filter.get( self.geo_input_name, None )
if filter != None:
v_arr = filter( v_arr )
return v_arr
def _read_arr(self, side="lowerface_"):
file_name = side + self.geo_input_name + ".robj"
file_path = join("geometry_files", file_name)
v_arr = read_rsurface(file_path)
filter = self.geo_filter.get(self.geo_input_name, None)
if filter != None:
v_arr = filter(v_arr)
return v_arr
def _read_arr(self, side = 'lowerface_'):
'''read the robj-file saved in the subdirectory
'geometry_files'
'''
file_name = side + self.geo_input_name + '.robj'
file_path = join('geometry_files', file_name)
# get an array with the vertice coordinates
#
v_arr = read_rsurface(file_path)
# print 'v_arr before filtering \n', v_arr
# print 'v_arr.shape before filtering \n', v_arr.shape
filter = self.geo_filter.get(self.geo_input_name, None)
if filter != None:
v_arr = filter(v_arr)
# print 'v_arr after filtering \n', v_arr
# print 'v_arr.shape after filtering \n', v_arr.shape
return v_arr
def _get_vl_arr( self ):
vl_arr = read_rsurface( self.geo_file_lower )
if self.cut_off_lowerface == True:
print '--- lower face z-coords cut off ---'
# z-values of the coords from the lower face are cut off.
# From the highest z-coordinate of the lower face the vertical
# distance is 1 m (=delta h). At this limit the lower face is
# cut off. Global z coordinate is assumed to point up.
#
delta_h = 1.0
vl_z_max = max( vl_arr[:, 2] )
vl_z_min = vl_z_max - delta_h
vl_arr_z = where( vl_arr[:, 2] < vl_z_min, vl_z_min, vl_arr[:, 2] )
vl_arr = c_[vl_arr[:, 0:2], vl_arr_z]
return vl_arr
def _get_vl_arr(self):
vl_arr = read_rsurface(self.geo_file_lower)
if self.cut_off_lowerface == True:
print '--- lower face z-coords cut off ---'
# z-values of the coords from the lower face are cut off.
# From the highest z-coordinate of the lower face the vertical
# distance is 1 m (=delta h). At this limit the lower face is
# cut off. Global z coordinate is assumed to point up.
#
delta_h = 1.0
vl_z_max = max(vl_arr[:, 2])
vl_z_min = vl_z_max - delta_h
vl_arr_z = where(vl_arr[:, 2] < vl_z_min, vl_z_min, vl_arr[:, 2])
vl_arr = c_[vl_arr[:, 0:2], vl_arr_z]
return vl_arr
def _read_arr(self, side='lowerface_'):
'''read the robj-file saved in the subdirectory
'geometry_files'
'''
file_name = side + self.geo_input_name + '.robj'
file_path = join('geometry_files', file_name)
# get an array with the vertice coordinates
#
v_arr = read_rsurface(file_path)
# print 'v_arr before filtering \n', v_arr
# print 'v_arr.shape before filtering \n', v_arr.shape
filter = self.geo_filter.get(self.geo_input_name, None)
if filter != None:
v_arr = filter(v_arr)
# print 'v_arr after filtering \n', v_arr
# print 'v_arr.shape after filtering \n', v_arr.shape
return v_arr
def _get_vu_arr( self ):
return read_rsurface( self.geo_file_upper )
def _get_vu_arr(self):
return read_rsurface(self.geo_file_upper)