diff --git a/inputs/namelist_cmems.bdy b/inputs/namelist_cmems.bdy
index 415d4f6af286691e7a46470f3a266715602bee5e..ae34aac19fded3b4926595b72a55b7f336aa87bb 100755
--- a/inputs/namelist_cmems.bdy
+++ b/inputs/namelist_cmems.bdy
@@ -93,18 +93,18 @@
ln_mask_file = .false. ! =T : read mask from file
cn_mask_file = 'mask.nc' ! name of mask file
! (if ln_mask_file=.TRUE.)
- ln_dyn2d = .true. ! boundary conditions for
+ ln_dyn2d = .false. ! boundary conditions for
! barotropic fields
- ln_dyn3d = .true. ! boundary conditions for
+ ln_dyn3d = .false. ! boundary conditions for
! baroclinic velocities
- ln_tra = .true. ! boundary conditions for T and S
+ ln_tra = .false. ! boundary conditions for T and S
ln_ice = .false. ! ice boundary condition
nn_rimwidth = 9 ! width of the relaxation zone
!------------------------------------------------------------------------------
! unstructured open boundaries tidal parameters
!------------------------------------------------------------------------------
- ln_tide = .false. ! =T : produce bdy tidal conditions
+ ln_tide = .true. ! =T : produce bdy tidal conditions
sn_tide_model = 'fes' ! Name of tidal model (fes|tpxo)
clname(1) = 'M2' ! constituent name
clname(2) = 'S2'
@@ -122,7 +122,7 @@
!clname(14) = '2N2'
!clname(15) = 'MU2'
ln_trans = .false. ! interpolate transport rather than velocities
- ln_tide_checker = .true. ! run tide checker on PyNEMO tide output
+ ln_tide_checker = .false. ! run tide checker on PyNEMO tide output
sn_ref_model = 'fes' ! which model to check output against (FES only)
!------------------------------------------------------------------------------
! Time information
diff --git a/pynemo/nemo_bdy_extr_tm3.py b/pynemo/nemo_bdy_extr_tm3.py
index 034dc0ffc36019fd3fcf652359f81994942a16be..ad9a62bd17f2172a3dc5dbf66b53079618206301 100644
--- a/pynemo/nemo_bdy_extr_tm3.py
+++ b/pynemo/nemo_bdy_extr_tm3.py
@@ -921,7 +921,7 @@ class Extract:
f_out = self.settings['dst_dir']+self.settings['fn']+ \
'_bdy'+self.g_type.upper()+ '_y'+str(year)+'m'+'%02d' % month+'.nc'
- ncml_out = glob(self.settings['ncml_out']+'/*'+str(self.g_type.upper())+'.ncml')
+ ncml_out = glob(self.settings['ncml_out']+'/*'+'output_'+str(self.g_type.upper())+'.ncml')
if len(ncml_out) == 0:
raise RuntimeError('NCML out file for grid '+str(self.g_type.upper())+' missing, please add into NCML directory')
ncml_out = ncml_out[0]
diff --git a/pynemo/output_NCML/NEMO_tide_U.ncml b/pynemo/output_NCML/NEMO_tide_U.ncml
new file mode 100644
index 0000000000000000000000000000000000000000..c27e7020be221d27c9d99c5b197a630aaa03aa82
--- /dev/null
+++ b/pynemo/output_NCML/NEMO_tide_U.ncml
@@ -0,0 +1,53 @@
+<?xml version="1.0" encoding="UTF-8"?>
+<netcdf xmlns="http://www.unidata.ucar.edu/namespaces/netcdf/ncml-2.2">
+ <dimension name="y" orgName="y" />
+ <dimension name="x" orgName="x" />
+ <dimension name="yb" orgName="yb" />
+ <dimension name="xb" orgName="xb" />
+ <dimension name="time_counter" orgName="time_counter" isUnlimited="true" />
+ <attribute name="institution" value="National Oceanography Centre, Livepool, U.K." />
+ <variable name="bdy_msk" orgName="bdy_msk" shape="y x" type="float">
+ <attribute name="short_name" value="bdy_msk" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Structured boundary mask" />
+ </variable>
+ <variable name="nav_lat" orgName="nav_lat" shape="y x" type="float">
+ <attribute name="axis" value="Latitude" />
+ <attribute name="short_name" value="nav_lat" />
+ <attribute name="units" value="degrees_east" />
+ <attribute name="long_name" value="Latitude" />
+ </variable>
+ <variable name="nav_lon" orgName="nav_lon" shape="y x" type="float">
+ <attribute name="axis" value="Longitude" />
+ <attribute name="short_name" value="nav_lon" />
+ <attribute name="units" value="degrees_east" />
+ <attribute name="long_name" value="Longitude" />
+ </variable>
+ <variable name="nbidta" orgName="nbidta" shape="yb xb" type="int">
+ <attribute name="short_name" value="nbidta" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Bdy i indices" />
+ </variable>
+ <variable name="nbjdta" orgName="nbjdta" shape="yb xb" type="int">
+ <attribute name="short_name" value="nbjdta" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Bdy j indices" />
+ </variable>
+ <variable name="nbrdta" orgName="nbrdta" shape="yb xb" type="int">
+ <attribute name="short_name" value="nbrdta" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Bdy discrete distance" />
+ </variable>
+ <variable name="u1" orgName="u1" shape="yb xb" type="float">
+ <attribute name="units" value="m/s" />
+ <attribute name="short_name" value="u1" />
+ <attribute name="long_name" value="Tidal east velocity: cosine" />
+ <attribute name="grid" value="bdyU" />
+ </variable>
+ <variable name="u2" orgName="u2" shape="yb xb" type="float">
+ <attribute name="units" value="m/s" />
+ <attribute name="short_name" value="u2" />
+ <attribute name="long_name" value="Tidal east velocity: sine" />
+ <attribute name="grid" value="bdyU" />
+ </variable>
+</netcdf>
\ No newline at end of file
diff --git a/pynemo/output_NCML/NEMO_tide_V.ncml b/pynemo/output_NCML/NEMO_tide_V.ncml
new file mode 100644
index 0000000000000000000000000000000000000000..38dc658d485d368a625d307a3e8b336e181abf3f
--- /dev/null
+++ b/pynemo/output_NCML/NEMO_tide_V.ncml
@@ -0,0 +1,53 @@
+<?xml version="1.0" encoding="UTF-8"?>
+<netcdf xmlns="http://www.unidata.ucar.edu/namespaces/netcdf/ncml-2.2">
+ <dimension name="y" orgName="y" />
+ <dimension name="x" orgName="x" />
+ <dimension name="yb" orgName="yb" />
+ <dimension name="xb" orgName="xb" />
+ <dimension name="time_counter" orgName="time_counter" isUnlimited="true" />
+ <attribute name="institution" value="National Oceanography Centre, Livepool, U.K." />
+ <variable name="bdy_msk" orgName="bdy_msk" shape="y x" type="float">
+ <attribute name="short_name" value="bdy_msk" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Structured boundary mask" />
+ </variable>
+ <variable name="nav_lat" orgName="nav_lat" shape="y x" type="float">
+ <attribute name="axis" value="Latitude" />
+ <attribute name="short_name" value="nav_lat" />
+ <attribute name="units" value="degrees_east" />
+ <attribute name="long_name" value="Latitude" />
+ </variable>
+ <variable name="nav_lon" orgName="nav_lon" shape="y x" type="float">
+ <attribute name="axis" value="Longitude" />
+ <attribute name="short_name" value="nav_lon" />
+ <attribute name="units" value="degrees_east" />
+ <attribute name="long_name" value="Longitude" />
+ </variable>
+ <variable name="nbidta" orgName="nbidta" shape="yb xb" type="int">
+ <attribute name="short_name" value="nbidta" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Bdy i indices" />
+ </variable>
+ <variable name="nbjdta" orgName="nbjdta" shape="yb xb" type="int">
+ <attribute name="short_name" value="nbjdta" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Bdy j indices" />
+ </variable>
+ <variable name="nbrdta" orgName="nbrdta" shape="yb xb" type="int">
+ <attribute name="short_name" value="nbrdta" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Bdy discrete distance" />
+ </variable>
+ <variable name="v1" orgName="v1" shape="yb xb" type="float">
+ <attribute name="units" value="m/s" />
+ <attribute name="short_name" value="v1" />
+ <attribute name="long_name" value="Tidal north velocity: cosine" />
+ <attribute name="grid" value="bdyV" />
+ </variable>
+ <variable name="v2" orgName="v2" shape="yb xb" type="float">
+ <attribute name="units" value="m/s" />
+ <attribute name="short_name" value="v2" />
+ <attribute name="long_name" value="Tidal north velocity: sine" />
+ <attribute name="grid" value="bdyV" />
+ </variable>
+</netcdf>
\ No newline at end of file
diff --git a/pynemo/output_NCML/NEMO_tide_Z.ncml b/pynemo/output_NCML/NEMO_tide_Z.ncml
new file mode 100644
index 0000000000000000000000000000000000000000..db96b6c2632d52f718faa761417039cbb268e839
--- /dev/null
+++ b/pynemo/output_NCML/NEMO_tide_Z.ncml
@@ -0,0 +1,53 @@
+<?xml version="1.0" encoding="UTF-8"?>
+<netcdf xmlns="http://www.unidata.ucar.edu/namespaces/netcdf/ncml-2.2">
+ <dimension name="y" orgName="y" />
+ <dimension name="x" orgName="x" />
+ <dimension name="yb" orgName="yb" />
+ <dimension name="xb" orgName="xb" />
+ <dimension name="time_counter" orgName="time_counter" isUnlimited="true" />
+ <attribute name="institution" value="National Oceanography Centre, Livepool, U.K." />
+ <variable name="bdy_msk" orgName="bdy_msk" shape="y x" type="float">
+ <attribute name="short_name" value="bdy_msk" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Structured boundary mask" />
+ </variable>
+ <variable name="nav_lat" orgName="nav_lat" shape="y x" type="float">
+ <attribute name="axis" value="Latitude" />
+ <attribute name="short_name" value="nav_lat" />
+ <attribute name="units" value="degrees_east" />
+ <attribute name="long_name" value="Latitude" />
+ </variable>
+ <variable name="nav_lon" orgName="nav_lon" shape="y x" type="float">
+ <attribute name="axis" value="Longitude" />
+ <attribute name="short_name" value="nav_lon" />
+ <attribute name="units" value="degrees_east" />
+ <attribute name="long_name" value="Longitude" />
+ </variable>
+ <variable name="nbidta" orgName="nbidta" shape="yb xb" type="int">
+ <attribute name="short_name" value="nbidta" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Bdy i indices" />
+ </variable>
+ <variable name="nbjdta" orgName="nbjdta" shape="yb xb" type="int">
+ <attribute name="short_name" value="nbjdta" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Bdy j indices" />
+ </variable>
+ <variable name="nbrdta" orgName="nbrdta" shape="yb xb" type="int">
+ <attribute name="short_name" value="nbrdta" />
+ <attribute name="units" value="unitless" />
+ <attribute name="long_name" value="Bdy discrete distance" />
+ </variable>
+ <variable name="z1" orgName="z1" shape="yb xb" type="float">
+ <attribute name="units" value="m" />
+ <attribute name="short_name" value="z1" />
+ <attribute name="long_name" value="Tidal elevation: cosine" />
+ <attribute name="grid" value="bdyT" />
+ </variable>
+ <variable name="z2" orgName="z2" shape="yb xb" type="float">
+ <attribute name="units" value="m" />
+ <attribute name="short_name" value="z2" />
+ <attribute name="long_name" value="Tidal elevation: sine" />
+ <attribute name="grid" value="bdyT" />
+ </variable>
+</netcdf>
\ No newline at end of file
diff --git a/pynemo/profile.py b/pynemo/profile.py
index 3d0d9e50aaa584870c6e47fc1cea9ba340d68dcc..49a49adb092c7aae3c0c597046adfca067d3712d 100644
--- a/pynemo/profile.py
+++ b/pynemo/profile.py
@@ -37,6 +37,7 @@ import numpy as np
from PyQt5.QtWidgets import QMessageBox
from calendar import monthrange
import sys
+from glob import glob
#Local imports
@@ -650,30 +651,36 @@ def write_tidal_data(setup_var, dst_coord_var, grid, tide_cons, cons):
setup_var.settings['fn']+ \
'_bdytide_'+const_name+'_grd_'+ \
val['nam'].upper()+'.nc'
-
+
+ ncml_out = glob(setup_var.settings['ncml_out'] + '/*' + 'tide_'+str(val['nam'].upper()) + '.ncml')
+ if len(ncml_out) == 0:
+ raise RuntimeError(
+ 'NCML out tide file for grid ' + str(val['nam'].upper()) + ' missing, please add into NCML directory')
+ ncml_out = ncml_out[0]
+
nemo_bdy_tide_ncgen.CreateBDYTideNetcdfFile(fout_tide,
val['nx'],
dst_coord_var.lonlat['t']['lon'].shape[1],
dst_coord_var.lonlat['t']['lon'].shape[0],
val['des']+tide_con,
- setup_var.settings['fv'], key.upper())
+ setup_var.settings['fv'], key.upper(),ncml_out)
ncpop.write_data_to_file(fout_tide, val['nam']+'1',
- cons['cos'][val['nam']][indx])
+ cons['cos'][val['nam']][indx],ncml_out)
ncpop.write_data_to_file(fout_tide, val['nam']+'2',
- cons['sin'][val['nam']][indx])
+ cons['sin'][val['nam']][indx],ncml_out)
ncpop.write_data_to_file(fout_tide, 'bdy_msk',
- dst_coord_var.bdy_msk)
+ dst_coord_var.bdy_msk,ncml_out)
ncpop.write_data_to_file(fout_tide, 'nav_lon',
- dst_coord_var.lonlat['t']['lon'])
+ dst_coord_var.lonlat['t']['lon'],ncml_out)
ncpop.write_data_to_file(fout_tide, 'nav_lat',
- dst_coord_var.lonlat['t']['lat'])
+ dst_coord_var.lonlat['t']['lat'],ncml_out)
ncpop.write_data_to_file(fout_tide, 'nbidta',
- grid[key].bdy_i[val['ind'], 0]+1)
+ grid[key].bdy_i[val['ind'], 0]+1,ncml_out)
ncpop.write_data_to_file(fout_tide, 'nbjdta',
- grid[key].bdy_i[val['ind'], 1]+1)
+ grid[key].bdy_i[val['ind'], 1]+1,ncml_out)
ncpop.write_data_to_file(fout_tide, 'nbrdta',
- grid[key].bdy_r[val['ind']]+1)
+ grid[key].bdy_r[val['ind']]+1,ncml_out)
# Iterate over constituents
diff --git a/pynemo/tide/nemo_bdy_tide_ncgen.py b/pynemo/tide/nemo_bdy_tide_ncgen.py
index f6701f3b1148eff7815602a79f63515deab68ffa..9a832b5058796094e84e0716f06480be5c4705fb 100644
--- a/pynemo/tide/nemo_bdy_tide_ncgen.py
+++ b/pynemo/tide/nemo_bdy_tide_ncgen.py
@@ -7,8 +7,9 @@ Creates Tide netcdf file ready for population
from netCDF4 import Dataset
import datetime
import logging
+from pynemo import nemo_ncml_parse as ncml_parse
-def CreateBDYTideNetcdfFile(filename, N,I,J,h,fv,grd):
+def CreateBDYTideNetcdfFile(filename, N,I,J,h,fv,grd,ncml_out):
gridNames = ['T', 'U', 'V']
# Dimension Lengths
@@ -21,106 +22,124 @@ def CreateBDYTideNetcdfFile(filename, N,I,J,h,fv,grd):
ncid = Dataset(filename, 'w', clobber=True, format='NETCDF4')
#define dimensions
- dimxbID = ncid.createDimension('xb',xb_len)
- dimybID = ncid.createDimension('yb',yb_len)
- dimxID = ncid.createDimension('x', x_len)
- dimyID = ncid.createDimension('y', y_len)
+ xb = ncml_parse.dst_dims(ncml_out, 'xb')
+ dimxbID = ncid.createDimension(xb,xb_len)
+ yb = ncml_parse.dst_dims(ncml_out, 'yb')
+ dimybID = ncid.createDimension(yb,yb_len)
+ x = ncml_parse.dst_dims(ncml_out, 'x')
+ dimxID = ncid.createDimension(x, x_len)
+ y = ncml_parse.dst_dims(ncml_out, 'y')
+ dimyID = ncid.createDimension(y, y_len)
+
+ #define variable
+ lon_var = ncml_parse.dst_var(ncml_out, 'nav_lon')
+ varlonID = ncid.createVariable(lon_var['name'], lon_var['type'], (lon_var['shape'][0], lon_var['shape'][1], ))
+ lat_var = ncml_parse.dst_var(ncml_out, 'nav_lat')
+ varlatID = ncid.createVariable(lat_var['name'], lat_var['type'], (lat_var['shape'][0], lat_var['shape'][1], ))
- #define variable
- varlonID = ncid.createVariable('nav_lon','f4',('y','x',))
- varlatID = ncid.createVariable('nav_lat','f4',('y','x',))
-
-
if grd =='T':
- varmskID = ncid.createVariable('bdy_msk','f4',('y','x',),fill_value=fv)
- varz1ID = ncid.createVariable('z1','f4',('yb','xb',),fill_value=fv)
- varz2ID = ncid.createVariable('z2','f4',('yb','xb',),fill_value=fv)
+ bdy_msk = ncml_parse.dst_var(ncml_out, 'bdy_msk')
+ varmskID = ncid.createVariable(bdy_msk['name'], bdy_msk['type'], (bdy_msk['shape'][0], bdy_msk['shape'][1],),fill_value=fv)
+ z1 = ncml_parse.dst_var(ncml_out,'z1')
+ varz1ID = ncid.createVariable(z1['name'],z1['type'],(z1['shape'][0],z1['shape'][1],),fill_value=fv)
+ z2 = ncml_parse.dst_var(ncml_out,'z2')
+ varz2ID = ncid.createVariable(z2['name'],z2['type'],(z2['shape'][0],z2['shape'][1],),fill_value=fv)
+
elif grd == 'U':
- varmskID = ncid.createVariable('bdy_msk', 'f4', ('y', 'x',), fill_value=fv)
- varu1ID = ncid.createVariable('u1','f4',('yb','xb',),fill_value=fv)
- varu2ID = ncid.createVariable('u2','f4',('yb','xb',),fill_value=fv)
+ bdy_msk = ncml_parse.dst_var(ncml_out, 'bdy_msk')
+ varmskID = ncid.createVariable(bdy_msk['name'], bdy_msk['type'], (bdy_msk['shape'][0], bdy_msk['shape'][1],),fill_value=fv)
+ u1 = ncml_parse.dst_var(ncml_out,'u1')
+ varu1ID = ncid.createVariable(u1['name'],u1['type'],(u1['shape'][0],u1['shape'][1],),fill_value=fv)
+ u2 = ncml_parse.dst_var(ncml_out,'u2')
+ varu2ID = ncid.createVariable(u2['name'],u2['type'],(u2['shape'][0],u2['shape'][1],),fill_value=fv)
elif grd == 'V':
- varmskID = ncid.createVariable('bdy_msk', 'f4', ('y', 'x',), fill_value=fv)
- varv1ID = ncid.createVariable('v1','f4',('yb','xb',),fill_value=fv)
- varv2ID = ncid.createVariable('v2','f4',('yb','xb',),fill_value=fv)
+ bdy_msk = ncml_parse.dst_var(ncml_out, 'bdy_msk')
+ varmskID = ncid.createVariable(bdy_msk['name'], bdy_msk['type'], (bdy_msk['shape'][0], bdy_msk['shape'][1],),fill_value=fv)
+ v1 = ncml_parse.dst_var(ncml_out,'v1')
+ varv1ID = ncid.createVariable(v1['name'],v1['type'],(v1['shape'][0],v1['shape'][1],),fill_value=fv)
+ v2 = ncml_parse.dst_var(ncml_out,'v2')
+ varv2ID = ncid.createVariable(v2['name'],v2['type'],(v2['shape'][0],v2['shape'][1],),fill_value=fv)
else :
logging.error("Unknown Grid input")
- varnbiID = ncid.createVariable('nbidta','i4',('yb','xb',))
- varnbjID = ncid.createVariable('nbjdta','i4',('yb','xb',))
- varnbrID = ncid.createVariable('nbrdta','i4',('yb','xb',))
+ nbidta = ncml_parse.dst_var(ncml_out,'nbidta')
+ varnbiID = ncid.createVariable(nbidta['name'], nbidta['type'], (nbidta['shape'][0], nbidta['shape'][1], ))
+ nbjdta = ncml_parse.dst_var(ncml_out,'nbjdta')
+ varnbjID = ncid.createVariable(nbjdta['name'], nbjdta['type'], (nbjdta['shape'][0], nbjdta['shape'][1], ))
+ nbrdta = ncml_parse.dst_var(ncml_out, 'nbrdta')
+ varnbrID = ncid.createVariable(nbrdta['name'], nbrdta['type'], (nbrdta['shape'][0], nbrdta['shape'][1], ))
#Global Attributes
ncid.file_name = filename
ncid.creation_date = str(datetime.datetime.now())
ncid.history = h
- ncid.institution = 'National Oceanography Centre, Livepool, U.K.'
+ ncid.institution = ncml_parse.dst_glob_attrib(ncml_out,'institution')
#Longitude axis attributes
- varlonID.axis = 'Longitude'
- varlonID.short_name = 'nav_lon'
- varlonID.units = 'degrees_east'
- varlonID.long_name = 'Longitude'
+ varlonID.axis = ncml_parse.dst_var_attrib(ncml_out,lon_var['name'],'axis')
+ varlonID.short_name = ncml_parse.dst_var_attrib(ncml_out,lon_var['name'],'short_name')
+ varlonID.units = ncml_parse.dst_var_attrib(ncml_out,lon_var['name'],'units')
+ varlonID.long_name = ncml_parse.dst_var_attrib(ncml_out,lon_var['name'],'long_name')
#Latitude axis attributes
- varlatID.axis = 'Latitude'
- varlatID.short_name = 'nav_lat'
- varlatID.units = 'degrees_east'
- varlatID.long_name = 'Latitude'
+ varlatID.axis = ncml_parse.dst_var_attrib(ncml_out,lat_var['name'],'axis')
+ varlatID.short_name = ncml_parse.dst_var_attrib(ncml_out,lat_var['name'],'short_name')
+ varlatID.units = ncml_parse.dst_var_attrib(ncml_out,lat_var['name'],'units')
+ varlatID.long_name = ncml_parse.dst_var_attrib(ncml_out,lat_var['name'],'long_name')
#nbidta attributes
- varnbiID.short_name = 'nbidta'
- varnbiID.units = 'unitless'
- varnbiID.long_name = 'Bdy i indices'
+ varnbiID.short_name = ncml_parse.dst_var_attrib(ncml_out,nbidta['name'],'short_name')
+ varnbiID.units = ncml_parse.dst_var_attrib(ncml_out,nbidta['name'],'units')
+ varnbiID.long_name = ncml_parse.dst_var_attrib(ncml_out,nbidta['name'],'long_name')
#nbjdta attributes
- varnbjID.short_name = 'nbjdta'
- varnbjID.units = 'unitless'
- varnbjID.long_name = 'Bdy j indices'
+ varnbjID.short_name = ncml_parse.dst_var_attrib(ncml_out,nbjdta['name'],'short_name')
+ varnbjID.units = ncml_parse.dst_var_attrib(ncml_out,nbjdta['name'],'units')
+ varnbjID.long_name = ncml_parse.dst_var_attrib(ncml_out,nbjdta['name'],'long_name')
#nbrdta attributes
- varnbrID.short_name = 'nbrdta'
- varnbrID.units = 'unitless'
- varnbrID.long_name = 'Bdy discrete distance'
+ varnbrID.short_name = ncml_parse.dst_var_attrib(ncml_out,nbrdta['name'],'short_name')
+ varnbrID.units = ncml_parse.dst_var_attrib(ncml_out,nbrdta['name'],'units')
+ varnbrID.long_name = ncml_parse.dst_var_attrib(ncml_out,nbrdta['name'],'long_name')
+
if grd == 'T' :
-
- varmskID.short_name = 'bdy_msk'
- varmskID.units = 'unitless'
- varmskID.long_name = 'Structured boundary mask'
+ varmskID.short_name = ncml_parse.dst_var_attrib(ncml_out,varmskID.name,'short_name')
+ varmskID.units = ncml_parse.dst_var_attrib(ncml_out,varmskID.name,'units')
+ varmskID.long_name = ncml_parse.dst_var_attrib(ncml_out,varmskID.name,'long_name')
- varz1ID.units = 'm'
- varz1ID.short_name = 'z1'
- varz1ID.long_name = 'tidal elevation: cosine'
- varz1ID.grid = 'bdyT'
+ varz1ID.units = ncml_parse.dst_var_attrib(ncml_out,varz1ID.name,'units')
+ varz1ID.short_name = ncml_parse.dst_var_attrib(ncml_out,varz1ID.name,'short_name')
+ varz1ID.long_name = ncml_parse.dst_var_attrib(ncml_out,varz1ID.name,'long_name')
+ varz1ID.grid = ncml_parse.dst_var_attrib(ncml_out,varz1ID.name,'grid')
- varz2ID.units = 'm'
- varz2ID.short_name = 'z2'
- varz2ID.long_name = 'tidal elevation: sine'
- varz2ID.grid = 'bdyT'
+ varz2ID.units = ncml_parse.dst_var_attrib(ncml_out,varz2ID.name,'units')
+ varz2ID.short_name = ncml_parse.dst_var_attrib(ncml_out,varz2ID.name,'short_name')
+ varz2ID.long_name = ncml_parse.dst_var_attrib(ncml_out,varz2ID.name,'long_name')
+ varz2ID.grid = ncml_parse.dst_var_attrib(ncml_out,varz2ID.name,'grid')
elif grd == 'U' :
- varu1ID.units = 'm/s'
- varu1ID.short_name = 'u1'
- varu1ID.long_name = 'tidal east velocity: cosine'
- varu1ID.grid = 'bdyU'
+ varu1ID.units = ncml_parse.dst_var_attrib(ncml_out,varu1ID.name,'units')
+ varu1ID.short_name = ncml_parse.dst_var_attrib(ncml_out,varu1ID.name,'short_name')
+ varu1ID.long_name = ncml_parse.dst_var_attrib(ncml_out,varu1ID.name,'long_name')
+ varu1ID.grid = ncml_parse.dst_var_attrib(ncml_out,varu1ID.name,'grid')
- varu2ID.units = 'm/s'
- varu2ID.short_name = 'u2'
- varu2ID.long_name = 'tidal east velocity: sine'
- varu2ID.grid = 'bdyU'
+ varu2ID.units = ncml_parse.dst_var_attrib(ncml_out,varu2ID.name,'units')
+ varu2ID.short_name = ncml_parse.dst_var_attrib(ncml_out,varu2ID.name,'short_name')
+ varu2ID.long_name = ncml_parse.dst_var_attrib(ncml_out,varu2ID.name,'long_name')
+ varu2ID.grid = ncml_parse.dst_var_attrib(ncml_out,varu2ID.name,'grid')
elif grd == 'V':
- varv1ID.units = 'm/s'
- varv1ID.short_name = 'v1'
- varv1ID.long_name = 'tidal north velocity: cosine'
- varv1ID.grid = 'bdyV'
+ varv1ID.units = ncml_parse.dst_var_attrib(ncml_out,varv1ID.name,'units')
+ varv1ID.short_name = ncml_parse.dst_var_attrib(ncml_out,varv1ID.name,'short_name')
+ varv1ID.long_name = ncml_parse.dst_var_attrib(ncml_out,varv1ID.name,'long_name')
+ varv1ID.grid = ncml_parse.dst_var_attrib(ncml_out,varv1ID.name,'grid')
- varv2ID.units = 'm/s'
- varv2ID.short_name = 'v2'
- varv2ID.long_name = 'tidal north velocity: sine'
- varv2ID.grid = 'bdyV'
+ varv2ID.units = ncml_parse.dst_var_attrib(ncml_out,varv2ID.name,'units')
+ varv2ID.short_name = ncml_parse.dst_var_attrib(ncml_out,varv2ID.name,'short_name')
+ varv2ID.long_name = ncml_parse.dst_var_attrib(ncml_out,varv2ID.name,'long_name')
+ varv2ID.grid = ncml_parse.dst_var_attrib(ncml_out,varv2ID.name,'grid')
else :
logging.error('Unknown Grid')