#**************************************************************
# Author: Patrick Brockmann
# Contact: Patrick.Brockmann@cea.fr
# $Date: 2009/05/14 15:09:35 $
# $Name: ATLAS_608_1_5 $
# $Revision: 1.1.1.1 $
# History:
# Modification:
#**************************************************************

##################################################################################################################
#-----------------------------------------------------------------------------------------------------------------
#  field | files patterns | files additionnal | operations | title | units | calcul of area
#-----------------------------------------------------------------------------------------------------------------
#
#   field = name of the field to monitore 
#   files patterns = pattern of the files used to monitore the field (must be discriminant) 
#   files additionnal = additionnal files accessible by $FER_DATA
#   operations = operations to calculate the field 
#   title = variable title
#   units = variable units
#   calcul of area = expression to use for the weight average
#
# Notes:
#   - Comment lines begin by '#' character
#   - Separator between fields is '|' character
#   - Operations must use the ferret syntax
#   - Each variable must be referenced to its dataset ie var[D=x]
#   - files patterns, operations,title,units must be enclosed with character '"'
#   - fields will be presented through an html page with thumbnails global, north, south, land, ocean.
#     Use a field name with one of these pattern to display it under the corresponding thumbnail.
#
##################################################################################################################

color=6D80FF
smooth=12
#-----------------------------------------------------------------------------------------------------------------
#  field | files patterns | files additionnal | operations | title | units | calcul of area
#-----------------------------------------------------------------------------------------------------------------
 sosstsst_global     | "tos"       | ORCA2.3_grid.nc | "(tos[D=1])"                                       | "Sea Surface Temperature (Global)" | "degC"    | "mask[K=1,D=2]*area[D=2]"
 sosaline_global     | "sos"       | ORCA2.3_grid.nc | "(sos[D=1])"                                       | "Sea Surface Salinity (Global)"    | "PSU"     | "mask[K=1,D=2]*area[D=2]"
 sossheig_global     | "zos"       | ORCA2.3_grid.nc | "(zos[D=1])"                                       | "Sea Surface Heigh (Global)"       | "m"       | "mask[K=1,D=2]*area[D=2]"
 wfo_global          | "wfo"       | ORCA2.3_grid.nc | "(wfo[D=1])"                                       | "Total Water flux (Global, upward)"| "kg/m2/s" | "mask[K=1,D=2]*area[D=2]"
 friver_global       | "friver"    | ORCA2.3_grid.nc | "(friver[D=1])"                                    | "River input (Global)"             | "kg/m2/s" | "mask[K=1,D=2]*area[D=2]"
 friver_int          | "friver"    | ORCA2.3_grid.nc | "(friver[d=1]*mask[k=1,d=2]*area[d=2]*1E-9)"                                                                                    | "River input"             | "Sv"  | "2"
 friver_coastal      | "friver"    | ORCA2.3_grid.nc | "(if missing(maskdraw[k=1,d=2],0.1) ne missing(maskdraw[i=@sbx,j=@sbx,k=1,d=2],0.1) then mask[k=1]*area[d=2]*friver[d=1]*1E-9)" | "Coastal river input"     | "Sv"  | "2"
 friver_noncoastal   | "friver"    | ORCA2.3_grid.nc | "(if missing(maskdraw[k=1,d=2],0.1) eq missing(maskdraw[i=@sbx,j=@sbx,k=1,d=2],0.1) then mask[k=1]*area[d=2]*friver[d=1]*1E-9)" | "Non coastal river input" | "Sv"  | "2"
 hc300_global        | "hc300"     | ORCA2.3_grid.nc | "(hc300[D=1])"                                     | "Heat content 300 m (Global)"      | "W"       | "mask[K=1,D=2]*area[D=2]"
 sohefldo_global     | "sohefldo"  | ORCA2.3_grid.nc | "(nshfls[D=1]+rsntds[D=1])"                        | "Net Downward Heat Flux (Global)"  | "W/m^2"   | "mask[K=1,D=2]*area[D=2]"
 nadw_ocean          | "zomsfatl"  |       ""        | "(zomsfatl[Z=500:6000@MAX,J=90:120@MAX,D=1])"      | "North Atlantic Deep Water"        | "Sv"      | "1"
 npdw_ocean          | "zomsfpac"  |       ""        | "(zomsfpac[Z=500:6000@MAX,J=90:120@MAX,D=1])"      | "North Pacific Deep Water"         | "Sv"      | "1"
 aabw_ocean          | "zomsfglo"  |       ""        | "(zomsfglo[Z=2000:6000@MAX,J=37:118@MAX,D=1])"     | "Antarctic Bottom Water"           | "Sv"      | "1"
 deacon_ocean        | "zomsfglo"  |       ""        | "(zomsfglo[Z=2000:6000@MAX,J=2:50@MAX,D=1])"       | "Deacon Cell"                      | "Sv"      | "1"
 somxl010_north      | "mldr10_1"  | ORCA2.3_grid.nc | "(mldr10_1[D=1])" | "Mixed layer depth (North)"    | "m"     | "(IF lat[D=2] GT 0 THEN mask[K=1,D=2]*area[D=2])"
 somxl010_south      | "mldr10_1"  | ORCA2.3_grid.nc | "(mldr10_1[D=1])" | "Mixed layer depth (South)"    | "m"     | "(IF lat[D=2] LT 0 THEN mask[K=1,D=2]*area[D=2])"
 temp_500m_global    | "thetao"    | ORCA2.3_grid.nc | "(thetao[D=1,K=20])"                               | "Temperature at 500m (Global)"     | "degC"    | "mask[K=20,D=2]*area[D=2]"
 temp_1000m_global   | "thetao"    | ORCA2.3_grid.nc | "(thetao[D=1,K=22])"                               | "Temperature at 1000m (Global)"    | "degC"    | "mask[K=22,D=2]*area[D=2]"
 temp_2000m_global   | "thetao"    | ORCA2.3_grid.nc | "(thetao[D=1,K=24:25@AVE])"                        | "Temperature at 2000m (Global)"    | "degC"    | "mask[K=25,D=2]*area[D=2]"
 temp_3000m_global   | "thetao"    | ORCA2.3_grid.nc | "(thetao[D=1,K=26:27@AVE])"                        | "Temperature at 2000m (Global)"    | "degC"    | "mask[K=27,D=2]*area[D=2]"
 temp_4000m_global   | "thetao"    | ORCA2.3_grid.nc | "(thetao[D=1,K=28:29@AVE])"                        | "Temperature at 4000m (Global)"    | "degC"    | "mask[K=29,D=2]*area[D=2]"
 temp_5000m_global   | "thetao"    | ORCA2.3_grid.nc | "(thetao[D=1,K=30])"                               | "Temperature at 5000m (Global)"    | "degC"    | "mask[K=30,D=2]*area[D=2]"
 salini_500m_global  | "so"        | ORCA2.3_grid.nc | "(so[D=1,K=20])"                                   | "Salinity at 500m (Global)"        | "PSU"     | "mask[K=20,D=2]*area[D=2]"
 salini_1000m_global | "so"        | ORCA2.3_grid.nc | "(so[D=1,K=23])"                                   | "Salinity at 1000m (Global)"       | "PSU"     | "mask[K=23,D=2]*area[D=2]"
 salini_2000m_global | "so"        | ORCA2.3_grid.nc | "(so[D=1,K=24:25@AVE])"                            | "Salinity at 2000m (Global)"       | "PSU"     | "mask[K=25,D=2]*area[D=2]"
 salini_3000m_global | "so"        | ORCA2.3_grid.nc | "(so[D=1,K=26:27@AVE])"                            | "Salinity at 2000m (Global)"       | "PSU"     | "mask[K=27,D=2]*area[D=2]"
 salini_4000m_global | "so"        | ORCA2.3_grid.nc | "(so[D=1,K=28:29@AVE])"                            | "Salinity at 4000m (Global)"       | "PSU"     | "mask[K=29,D=2]*area[D=2]"
 salini_5000m_global | "so"        | ORCA2.3_grid.nc | "(so[D=1,K=30])"                                   | "Salinity at 5000m (Global)"       | "PSU"     | "mask[K=30,D=2]*area[D=2]"
 sosstsst_70N_90N    | "tos"       | ORCA2.3_grid.nc | "(tos[D=1])" | "Sea Surface Temperature (70N-90N)" | "degC"  | "(IF lat[D=2] GE  70                     THEN mask[K=1,D=2]*area[D=2])"
 sosstsst_50N_70N    | "tos"       | ORCA2.3_grid.nc | "(tos[D=1])" | "Sea Surface Temperature (50N-70N)" | "degC"  | "(IF lat[D=2] GE  50 AND lat[D=2] LE  70 THEN mask[K=1,D=2]*area[D=2])"
 sosstsst_30N_50N    | "tos"       | ORCA2.3_grid.nc | "(tos[D=1])" | "Sea Surface Temperature (30N-50N)" | "degC"  | "(IF lat[D=2] GE  30 AND lat[D=2] LE  50 THEN mask[K=1,D=2]*area[D=2])"
 sosstsst_10N_30N    | "tos"       | ORCA2.3_grid.nc | "(tos[D=1])" | "Sea Surface Temperature (10N-30N)" | "degC"  | "(IF lat[D=2] GE  10 AND lat[D=2] LE  30 THEN mask[K=1,D=2]*area[D=2])"
 sosstsst_10S_10N    | "tos"       | ORCA2.3_grid.nc | "(tos[D=1])" | "Sea Surface Temperature (10S-10N)" | "degC"  | "(IF lat[D=2] GE -10 AND lat[D=2] LE  10 THEN mask[K=1,D=2]*area[D=2])"
 sosstsst_30S_10S    | "tos"       | ORCA2.3_grid.nc | "(tos[D=1])" | "Sea Surface Temperature (30S-10S)" | "degC"  | "(IF lat[D=2] GE -30 AND lat[D=2] LE -10 THEN mask[K=1,D=2]*area[D=2])"
 sosstsst_50S_30S    | "tos"       | ORCA2.3_grid.nc | "(tos[D=1])" | "Sea Surface Temperature (50S-30S)" | "degC"  | "(IF lat[D=2] GE -50 AND lat[D=2] LE -30 THEN mask[K=1,D=2]*area[D=2])"
 sosstsst_70S_50S    | "tos"       | ORCA2.3_grid.nc | "(tos[D=1])" | "Sea Surface Temperature (70S-50S)" | "degC"  | "(IF                     lat[D=2] LE -50 THEN mask[K=1,D=2]*area[D=2])"
 sosaline_70N_90N    | "sos"       | ORCA2.3_grid.nc | "(sos[D=1])" | "Sea Surface Salinity (70N-90N)"    | "PSU"   | "(IF lat[D=2] GE  70                     THEN mask[K=1,D=2]*area[D=2])"
 sosaline_50N_70N    | "sos"       | ORCA2.3_grid.nc | "(sos[D=1])" | "Sea Surface Salinity (50N-70N)"    | "PSU"   | "(IF lat[D=2] GE  50 AND lat[D=2] LE  70 THEN mask[K=1,D=2]*area[D=2])"
 sosaline_30N_50N    | "sos"       | ORCA2.3_grid.nc | "(sos[D=1])" | "Sea Surface Salinity (30N-50N)"    | "PSU"   | "(IF lat[D=2] GE  30 AND lat[D=2] LE  50 THEN mask[K=1,D=2]*area[D=2])"
 sosaline_10N_30N    | "sos"       | ORCA2.3_grid.nc | "(sos[D=1])" | "Sea Surface Salinity (10N-30N)"    | "PSU"   | "(IF lat[D=2] GE  10 AND lat[D=2] LE  30 THEN mask[K=1,D=2]*area[D=2])"
 sosaline_10S_10N    | "sos"       | ORCA2.3_grid.nc | "(sos[D=1])" | "Sea Surface Salinity (10S-10N)"    | "PSU"   | "(IF lat[D=2] GE -10 AND lat[D=2] LE  10 THEN mask[K=1,D=2]*area[D=2])"
 sosaline_30S_10S    | "sos"       | ORCA2.3_grid.nc | "(sos[D=1])" | "Sea Surface Salinity (30S-10S)"    | "PSU"   | "(IF lat[D=2] GE -30 AND lat[D=2] LE -10 THEN mask[K=1,D=2]*area[D=2])"
 sosaline_50S_30S    | "sos"       | ORCA2.3_grid.nc | "(sos[D=1])" | "Sea Surface Salinity (50S-30S)"    | "PSU"   | "(IF lat[D=2] GE -50 AND lat[D=2] LE -30 THEN mask[K=1,D=2]*area[D=2])"
 sosaline_70S_50S    | "sos"       | ORCA2.3_grid.nc | "(sos[D=1])" | "Sea Surface Salinity (70S-50S)"    | "PSU"   | "(IF                     lat[D=2] LE -50 THEN mask[K=1,D=2]*area[D=2])"