| 1 |
|
| 2 |
%select kBudget: |
| 3 |
if ~isempty(setDiagsParams); |
| 4 |
kBudget=setDiagsParams{1}; |
| 5 |
else; |
| 6 |
kBudget=1; |
| 7 |
end; |
| 8 |
|
| 9 |
%override default file name: |
| 10 |
%--------------------------- |
| 11 |
tmp1=setDiags; |
| 12 |
if kBudget>1; |
| 13 |
tmp1=sprintf('E%02i',kBudget); |
| 14 |
end; |
| 15 |
fileMat=['diags_set_' tmp1]; |
| 16 |
|
| 17 |
if userStep==1;%diags to be computed |
| 18 |
listDiags=['zm_area zm_vol_ocn zm_vol_tot zm_vol_ice']; |
| 19 |
listDiags=[listDiags ' zm_heat_ocn zm_heat_tot zm_heat_ice zm_heat_ocn_diff']; |
| 20 |
listDiags=[listDiags ' zm_salt_ocn zm_salt_tot zm_salt_ice zm_salt_ocn_diff']; |
| 21 |
elseif userStep==2;%input files and variables |
| 22 |
listFlds={ 'ETAN','SIheff','SIhsnow','THETA ','SALT ','PHIBOT','geothFlux'}; |
| 23 |
listFlds={listFlds{:},'SIatmFW ','oceFWflx','SItflux','TFLUX','SFLUX','oceSPflx','SRELAX'}; |
| 24 |
listFlds={listFlds{:},'oceQnet ','SIatmQnt','SIaaflux','SIsnPrcp','SIacSubl'}; |
| 25 |
listFlds={listFlds{:},'TRELAX','WTHMASS','WSLTMASS','oceSflux','oceQsw','oceSPtnd'}; |
| 26 |
if kBudget>1; |
| 27 |
listFlds={listFlds{:},'ADVr_TH','DFrE_TH','DFrI_TH','ADVr_SLT','DFrE_SLT','DFrI_SLT','WVELMASS'}; |
| 28 |
end; |
| 29 |
listFlds={listFlds{:},'UVELMASS','VVELMASS','AB_gT','AB_gS'}; |
| 30 |
listFlds={listFlds{:},'ADVx_TH ','ADVy_TH ','DFxE_TH ','DFyE_TH '}; |
| 31 |
listFlds={listFlds{:},'ADVx_SLT','ADVy_SLT','DFxE_SLT','DFyE_SLT'}; |
| 32 |
listFlds={listFlds{:},'ADVxHEFF','ADVyHEFF','DFxEHEFF','DFyEHEFF'}; |
| 33 |
listFlds={listFlds{:},'ADVxSNOW','ADVySNOW','DFxESNOW','DFyESNOW'}; |
| 34 |
listFldsNames=deblank(listFlds); |
| 35 |
% |
| 36 |
listFiles={'rate_budg2d_snap_set1','budg2d_hflux_set1','budg2d_zflux_set1','budg2d_zflux_set2'}; |
| 37 |
if kBudget==1; |
| 38 |
listFiles={listFiles{:},'rate_budg2d_snap_set2','budg2d_hflux_set2','geothermalFlux'}; |
| 39 |
else; |
| 40 |
tmp1=sprintf('rate_budg2d_snap_set3_%02i',kBudget); |
| 41 |
tmp2=sprintf('budg2d_zflux_set3_%02i',kBudget); |
| 42 |
tmp3=sprintf('budg2d_hflux_set3_%02i',kBudget); |
| 43 |
tmp4=sprintf('geothermalFlux_%02i',kBudget); |
| 44 |
listFiles={listFiles{:},tmp1,tmp2,tmp3,tmp4}; |
| 45 |
end; |
| 46 |
listSubdirs={[dirMat 'BUDG/' ],[dirMat '../BUDG/' ],[dirModel 'diags/BUDG/'],[dirModel 'diags/']}; |
| 47 |
elseif userStep==3;%computational part; |
| 48 |
|
| 49 |
%preliminary tests |
| 50 |
test1=isempty(dir([dirModel 'diags/BUDG/budg2d_snap_set1*'])); |
| 51 |
test2=isempty(dir([dirMat 'BUDG/rate_budg2d_snap_set1*']))&... |
| 52 |
isempty(dir([dirMat '../BUDG/rate_budg2d_snap_set1*'])); |
| 53 |
|
| 54 |
if (strcmp(setDiags,'E')&test1&test2); |
| 55 |
fprintf('\n abort : global and regional budgets, due to missing \n'); |
| 56 |
fprintf(['\n ' dirModel 'diags/BUDG/budg2d_snap_set1* \n']); |
| 57 |
return; |
| 58 |
end; |
| 59 |
|
| 60 |
if (strcmp(setDiags,'E')&test2); |
| 61 |
fprintf('\n abort : global and regional budgets, due to missing \n'); |
| 62 |
fprintf(['\n ' dirModel 'diags/BUDG/rate_budg2d_snap_set1* \n']); |
| 63 |
return; |
| 64 |
end; |
| 65 |
|
| 66 |
%override default file name: |
| 67 |
%--------------------------- |
| 68 |
tmp1=setDiags; |
| 69 |
if kBudget>1; |
| 70 |
tmp1=sprintf('E%02i',kBudget); |
| 71 |
end; |
| 72 |
fileMat=['diags_set_' tmp1 '_' num2str(tt) '.mat']; |
| 73 |
|
| 74 |
%fill in optional fields: |
| 75 |
%------------------------ |
| 76 |
if isempty(who('TRELAX')); TRELAX=0*mygrid.XC; end; |
| 77 |
if isempty(who('SRELAX')); SRELAX=0*mygrid.XC; end; |
| 78 |
if isempty(who('AB_gT')); AB_gT=0*mygrid.XC; end; |
| 79 |
if isempty(who('AB_gS')); AB_gS=0*mygrid.XC; end; |
| 80 |
if isempty(who('oceSPtnd')); oceSPtnd=0*mygrid.XC; end; |
| 81 |
if isempty(who('oceSPflx')); oceSPflx=0*mygrid.XC; end; |
| 82 |
if isempty(who('PHIBOT')); PHIBOT=0*mygrid.XC; end; |
| 83 |
if isempty(who('geothFlux')); geothFlux=0; end; |
| 84 |
|
| 85 |
%=======MASS========= |
| 86 |
|
| 87 |
[budgMo,budgMi,budgMoi]=calc_budget_mass(kBudget); |
| 88 |
|
| 89 |
%bottom pressure for comparison: |
| 90 |
bp=myparms.rhoconst/9.81*PHIBOT; |
| 91 |
|
| 92 |
[tmp1,X,Y,zm_area]=calc_zonmean_T(budgMoi,-2,'extensive'); |
| 93 |
zm_area=zm_area'; |
| 94 |
zm_vol_tot=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 95 |
tmp1=calc_zonmean_T(budgMo,-2,'extensive'); |
| 96 |
zm_vol_ocn=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 97 |
tmp1=calc_zonmean_T(budgMi,-2,'extensive'); |
| 98 |
zm_vol_ice=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 99 |
|
| 100 |
%=======HEAT======= |
| 101 |
|
| 102 |
[budgHo,budgHi,budgHoi]=calc_budget_heat(kBudget); |
| 103 |
|
| 104 |
[tmp1]=calc_zonmean_T(budgHoi,-2,'extensive'); |
| 105 |
zm_heat_tot=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 106 |
tmp1=calc_zonmean_T(budgHo,-2,'extensive'); |
| 107 |
zm_heat_ocn=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 108 |
tmp1=calc_zonmean_T(budgHi,-2,'extensive'); |
| 109 |
zm_heat_ice=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 110 |
|
| 111 |
%ocean diffusion alone |
| 112 |
tmpU=myparms.rcp*(DFxE_TH); tmpV=myparms.rcp*(DFyE_TH); |
| 113 |
budgD.hconv=calc_UV_conv(tmpU,tmpV); |
| 114 |
budgD.tend=0*budgD.hconv; budgD.zconv=0*budgD.hconv; |
| 115 |
[tmp1]=calc_zonmean_T(budgD,-2,'extensive'); |
| 116 |
zm_heat_ocn_diff=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 117 |
|
| 118 |
%=======SALT======= |
| 119 |
|
| 120 |
[budgSo,budgSi,budgSoi]=calc_budget_salt(kBudget); |
| 121 |
|
| 122 |
[tmp1]=calc_zonmean_T(budgSoi,-2,'extensive'); |
| 123 |
zm_salt_tot=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 124 |
tmp1=calc_zonmean_T(budgSo,-2,'extensive'); |
| 125 |
zm_salt_ocn=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 126 |
tmp1=calc_zonmean_T(budgSi,-2,'extensive'); |
| 127 |
zm_salt_ice=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 128 |
|
| 129 |
%ocean diffusion alone |
| 130 |
tmpU=myparms.rhoconst*(DFxE_SLT); tmpV=myparms.rhoconst*(DFyE_SLT); |
| 131 |
budgD.hconv=calc_UV_conv(tmpU,tmpV); |
| 132 |
budgD.tend=0*budgD.hconv; budgD.zconv=0*budgD.hconv; |
| 133 |
[tmp1]=calc_zonmean_T(budgD,-2,'extensive'); |
| 134 |
zm_salt_ocn_diff=[tmp1.tend';tmp1.hconv';tmp1.zconv']; |
| 135 |
|
| 136 |
%===================== COMPUTATIONAL SEQUENCE ENDS =========================% |
| 137 |
%===================== PLOTTING SEQUENCE BEGINS =========================% |
| 138 |
|
| 139 |
elseif userStep==-1;%plotting |
| 140 |
|
| 141 |
if isempty(setDiagsParams); |
| 142 |
choicePlot={'all'}; |
| 143 |
elseif isnumeric(setDiagsParams{1})&length(setDiagsParams)==1; |
| 144 |
choicePlot={'all'}; |
| 145 |
elseif isnumeric(setDiagsParams{1}); |
| 146 |
choicePlot={setDiagsParams{2:end}}; |
| 147 |
else; |
| 148 |
choicePlot=setDiagsParams; |
| 149 |
end; |
| 150 |
|
| 151 |
tt=[1:length(alldiag.listTimes)]; |
| 152 |
TT=alldiag.listTimes(tt); |
| 153 |
nt=length(TT); |
| 154 |
|
| 155 |
if (kBudget==1)&(sum(strcmp(choicePlot,'all'))|sum(strcmp(choicePlot,'mass'))); |
| 156 |
|
| 157 |
%1.1) ocean+seaice mass budgets |
| 158 |
%------------------------------ |
| 159 |
figureL; |
| 160 |
%volume budget: |
| 161 |
subplot(2,1,1); disp_budget_mean_zonal(mygrid.LATS,alldiag.zm_vol_tot,'kg/m2','Mass (incl. ice)'); |
| 162 |
%cumulative integral: |
| 163 |
tmp1=repmat(alldiag.zm_area,[3 1 1]); |
| 164 |
tmp1=tmp1.*alldiag.zm_vol_tot; cumbudg=cumsum(tmp1,2); |
| 165 |
subplot(2,1,2); disp_budget_mean_zonal(mygrid.LATS,cumbudg,'kg','Mass (incl. ice)'); |
| 166 |
%add to tex file |
| 167 |
myCaption={myYmeanTxt,'mass budget (ocean+ice) at each latitude in kg/m2 (upper) and integrated from South (lower).'}; |
| 168 |
if addToTex&multiTimes; write2tex(fileTex,2,myCaption,gcf); end; |
| 169 |
|
| 170 |
%1.2) ice mass budgets |
| 171 |
%--------------------- |
| 172 |
figureL; |
| 173 |
%volume budget: |
| 174 |
subplot(2,1,1); disp_budget_mean_zonal(mygrid.LATS,alldiag.zm_vol_ice,'kg/m2','Mass (only ice)'); |
| 175 |
%cumulative integral: |
| 176 |
tmp1=repmat(alldiag.zm_area,[3 1 1]); |
| 177 |
tmp1=tmp1.*alldiag.zm_vol_ice; cumbudg=cumsum(tmp1,2); |
| 178 |
subplot(2,1,2); disp_budget_mean_zonal(mygrid.LATS,cumbudg,'kg','Mass (only ice)'); |
| 179 |
%add to tex file |
| 180 |
myCaption={myYmeanTxt,'mass budget (only ice) at each latitude in kg/m2 (upper) and integrated from South (lower).'}; |
| 181 |
if addToTex&multiTimes; write2tex(fileTex,2,myCaption,gcf); end; |
| 182 |
end; |
| 183 |
|
| 184 |
if (sum(strcmp(choicePlot,'all'))|sum(strcmp(choicePlot,'mass'))); |
| 185 |
|
| 186 |
%1.3) ocean mass budgets |
| 187 |
%----------------------- |
| 188 |
figureL; |
| 189 |
%volume budget: |
| 190 |
subplot(2,1,1); disp_budget_mean_zonal(mygrid.LATS,alldiag.zm_vol_ocn,'kg/m2','Mass (ocean only)'); |
| 191 |
%cumulative integral: |
| 192 |
tmp1=repmat(alldiag.zm_area,[3 1 1]); |
| 193 |
tmp1=tmp1.*alldiag.zm_vol_ocn; cumbudg=cumsum(tmp1,2); |
| 194 |
subplot(2,1,2); disp_budget_mean_zonal(mygrid.LATS,cumbudg,'kg','Mass (ocean only)'); |
| 195 |
%add to tex file |
| 196 |
myCaption={myYmeanTxt,'mass budget (ocean only) at each latitude in kg/m2 (upper) and integrated from South (lower).'}; |
| 197 |
if addToTex&multiTimes; write2tex(fileTex,2,myCaption,gcf); end; |
| 198 |
|
| 199 |
end; |
| 200 |
|
| 201 |
if (kBudget==1)&(sum(strcmp(choicePlot,'all'))|sum(strcmp(choicePlot,'heat'))); |
| 202 |
|
| 203 |
%1.1) ocean+seaice heat budgets |
| 204 |
%------------------------------ |
| 205 |
figureL; |
| 206 |
%heat budget: |
| 207 |
subplot(2,1,1); disp_budget_mean_zonal(mygrid.LATS,alldiag.zm_heat_tot,'J/m2','Heat (incl. ice)'); |
| 208 |
%cumulative integral: |
| 209 |
tmp1=repmat(alldiag.zm_area,[3 1 1]); |
| 210 |
tmp1=tmp1.*alldiag.zm_heat_tot; cumbudg=cumsum(tmp1,2); |
| 211 |
subplot(2,1,2); disp_budget_mean_zonal(mygrid.LATS,cumbudg,'J','Heat (incl. ice)'); |
| 212 |
%add to tex file |
| 213 |
myCaption={myYmeanTxt,'heat budget (ocean+ice) at each latitude in J/m2 (upper) and integrated from South (lower).'}; |
| 214 |
if addToTex&multiTimes; write2tex(fileTex,2,myCaption,gcf); end; |
| 215 |
|
| 216 |
%1.2) ice heat budgets |
| 217 |
%--------------------- |
| 218 |
figureL; |
| 219 |
%heat budget: |
| 220 |
subplot(2,1,1); disp_budget_mean_zonal(mygrid.LATS,alldiag.zm_heat_ice,'J/m2','Heat (only ice)'); |
| 221 |
%cumulative integral: |
| 222 |
tmp1=repmat(alldiag.zm_area,[3 1 1]); |
| 223 |
tmp1=tmp1.*alldiag.zm_heat_ice; cumbudg=cumsum(tmp1,2); |
| 224 |
subplot(2,1,2); disp_budget_mean_zonal(mygrid.LATS,cumbudg,'J','Heat (only ice)'); |
| 225 |
%add to tex file |
| 226 |
myCaption={myYmeanTxt,'heat budget (only ice) at each latitude in J/m2 (upper) and integrated from South (lower).'}; |
| 227 |
if addToTex&multiTimes; write2tex(fileTex,2,myCaption,gcf); end; |
| 228 |
end; |
| 229 |
|
| 230 |
if (sum(strcmp(choicePlot,'all'))|sum(strcmp(choicePlot,'heat'))); |
| 231 |
|
| 232 |
%1.3) ocean heat budgets |
| 233 |
%----------------------- |
| 234 |
figureL; |
| 235 |
%heat budget: |
| 236 |
subplot(2,1,1); disp_budget_mean_zonal(mygrid.LATS,alldiag.zm_heat_ocn,'J/m2','Heat (ocean only)'); |
| 237 |
%cumulative integral: |
| 238 |
tmp1=repmat(alldiag.zm_area,[3 1 1]); |
| 239 |
tmp1=tmp1.*alldiag.zm_heat_ocn; cumbudg=cumsum(tmp1,2); |
| 240 |
subplot(2,1,2); disp_budget_mean_zonal(mygrid.LATS,cumbudg,'J','Heat (ocean only)'); |
| 241 |
%add to tex file |
| 242 |
myCaption={myYmeanTxt,'heat budget (ocean only) at each latitude in J/m2 (upper) and integrated from South (lower).'}; |
| 243 |
if addToTex&multiTimes; write2tex(fileTex,2,myCaption,gcf); end; |
| 244 |
|
| 245 |
end; |
| 246 |
|
| 247 |
if (kBudget==1)&(sum(strcmp(choicePlot,'all'))|sum(strcmp(choicePlot,'salt'))); |
| 248 |
|
| 249 |
%1.1) ocean+seaice salt budgets |
| 250 |
%------------------------------ |
| 251 |
figureL; |
| 252 |
%salt budget: |
| 253 |
subplot(2,1,1); disp_budget_mean_zonal(mygrid.LATS,alldiag.zm_salt_tot,'g/m2','Salt (incl. ice)'); |
| 254 |
%cumulative integral: |
| 255 |
tmp1=repmat(alldiag.zm_area,[3 1 1]); |
| 256 |
tmp1=tmp1.*alldiag.zm_salt_tot; cumbudg=cumsum(tmp1,2); |
| 257 |
subplot(2,1,2); disp_budget_mean_zonal(mygrid.LATS,cumbudg,'g','Salt (incl. ice)'); |
| 258 |
%add to tex file |
| 259 |
myCaption={myYmeanTxt,'salt budget (ocean+ice) at each latitude in g/m2 (upper) and integrated from South (lower).'}; |
| 260 |
if addToTex&multiTimes; write2tex(fileTex,2,myCaption,gcf); end; |
| 261 |
|
| 262 |
%1.2) ice salt budgets |
| 263 |
%--------------------- |
| 264 |
figureL; |
| 265 |
%salt budget: |
| 266 |
subplot(2,1,1); disp_budget_mean_zonal(mygrid.LATS,alldiag.zm_salt_ice,'g/m2','Salt (only ice)'); |
| 267 |
%cumulative integral: |
| 268 |
tmp1=repmat(alldiag.zm_area,[3 1 1]); |
| 269 |
tmp1=tmp1.*alldiag.zm_salt_ice; cumbudg=cumsum(tmp1,2); |
| 270 |
subplot(2,1,2); disp_budget_mean_zonal(mygrid.LATS,cumbudg,'g','Salt (only ice)'); |
| 271 |
%add to tex file |
| 272 |
myCaption={myYmeanTxt,'salt budget (only ice) at each latitude in g/m2 (upper) and integrated from South (lower).'}; |
| 273 |
if addToTex&multiTimes; write2tex(fileTex,2,myCaption,gcf); end; |
| 274 |
end; |
| 275 |
|
| 276 |
if (sum(strcmp(choicePlot,'all'))|sum(strcmp(choicePlot,'salt'))); |
| 277 |
|
| 278 |
%1.3) ocean salt budgets |
| 279 |
%----------------------- |
| 280 |
figureL; |
| 281 |
%salt budget: |
| 282 |
subplot(2,1,1); disp_budget_mean_zonal(mygrid.LATS,alldiag.zm_salt_ocn,'g/m2','Salt (ocean only)'); |
| 283 |
%cumulative integral: |
| 284 |
tmp1=repmat(alldiag.zm_area,[3 1 1]); |
| 285 |
tmp1=tmp1.*alldiag.zm_salt_ocn; cumbudg=cumsum(tmp1,2); |
| 286 |
subplot(2,1,2); disp_budget_mean_zonal(mygrid.LATS,cumbudg,'g','Salt (ocean only)'); |
| 287 |
%add to tex file |
| 288 |
myCaption={myYmeanTxt,'salt budget (ocean only) at each latitude in g/m2 (upper) and integrated from South (lower).'}; |
| 289 |
if addToTex&multiTimes; write2tex(fileTex,2,myCaption,gcf); end; |
| 290 |
|
| 291 |
end; |
| 292 |
|
| 293 |
end; |
| 294 |
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