I have a netCDF files with 5 coordinates but 3 dimensions :
xarray.Dataset {
dimensions:
rlat = 183 ;
rlon = 182 ;
time = 1 ;
coordinates:
float32 lat(rlat, rlon) ;
float32 lon(rlat, rlon) ;
datetime64[ns] time (time) ;
float32 rlat(rlat) ;
float32 rlon(rlon) ;
variables:
float32 CaPA_coarse_A_PR_SFC(time, rlat, rlon) ;
float32 rotated_pole() ;
attributes:
product = CaPA_coarse ;
Conventions = CF-1.6 ;
License = These data are provided by the Canadian Surface Prediction Archive CaSPar. You should have received a copy of the License agreement with the data. Otherwise you can find them under http://caspar-data.ca/doc/caspar_license.txt or email caspar.data@uwaterloo.ca. ;
Remarks = Variable names are following the convention <Product>_<Type:A=Analysis,P=Prediction>_<ECCC name>_<Level/Tile/Category>. Variables with level '10000' are at surface level. The height [m] of variables with level '0XXXX' needs to be inferrred using the corresponding fields of geopotential height (GZ_0XXXX-GZ_10000). The variables UUC, VVC, UVC, and WDC are not modelled but inferred from UU and VV for convenience of the users. Precipitation (PR) is reported as 6-hr accumulations for CaPA_fine and CaPA_coarse. Precipitation (PR) are accumulations since beginning of the forecast for GEPS, GDPS, REPS, RDPS, HRDPS, and CaLDAS.}
I would use lon/lat coordinates instead of rlat/rlon but I don't know how !
I've tried to reprojected the netCDF file in WGS84 with epsg code 4326 but I don't know which projection to use in input.
You will need to regrid the data. There are a few options for doing this. You could try my package nctoolkit, which will use CDO to do the regridding. I suspect the grid will be compatible based on the info. The code below will regrid to a regular 1x1 degree grid globally.
import nctoolkit as
ds = nc.open_data(“foo.nc”)
ds.to_latlon(lon = [-179.5,179.5], lat = [-89.5, 89.5], res = 1)
ds.plot()