| 1 | % | % | 
| 2 | % [] = compute_JFz(SNAPSHOT) | % [JFz] = compute_JFz(SNAPSHOT) | 
| 3 | % | % | 
| 4 | % Here we compute the PV flux due to frictionnal forces as | % Here we compute the PV flux due to frictionnal forces as | 
| 5 | % JFz = ( TAUx * dSIGMATHETA/dy - TAUy * dSIGMATHETA/dx ) / RHO / EKL | % JFz = ( TAUx * dSIGMATHETA/dy - TAUy * dSIGMATHETA/dx ) / RHO / EKL | 
| 25 | % 06/27/06 | % 06/27/06 | 
| 26 | % gmaze@mit.edu | % gmaze@mit.edu | 
| 27 |  |  | 
| 28 | function compute_JFz(snapshot) | function varargout = compute_JFz(snapshot) | 
| 29 |  |  | 
| 30 | global sla toshow | global sla toshow | 
| 31 | global netcdf_suff netcdf_domain | global netcdf_suff netcdf_domain | 
| 216 | nc=close(nc); | nc=close(nc); | 
| 217 |  |  | 
| 218 |  |  | 
| 219 |  | % Output: | 
| 220 |  | output = struct('JFz',JFz,'lat',STlat(2:ny-1),'lon',STlon(2:nx-1)); | 
| 221 |  | switch nargout | 
| 222 |  | case 1 | 
| 223 |  | varargout(1) = {output}; | 
| 224 |  | end |