37 |
\subsubsection{Input fields} |
\subsubsection{Input fields} |
38 |
~ |
~ |
39 |
|
|
40 |
\begin{table}[h!] |
\begin{table}[!ht] |
41 |
\begin{center} |
\begin{center} |
42 |
\begin{tabular}{lllc} |
\begin{tabular}{lllc} |
43 |
\hline \hline |
\hline \hline |
76 |
Compute global offset between $nYears$ model and T/P mean: |
Compute global offset between $nYears$ model and T/P mean: |
77 |
% |
% |
78 |
\begin{equation} |
\begin{equation} |
79 |
\begin{split} |
\begin{aligned} |
80 |
offset & = \, \overline{tpmean} \, - \, \overline{psmean} \\ |
offset & = \, \overline{tpmean} \, - \, \overline{psmean} \\ |
81 |
~ & = \, \frac{1}{normaliz.} \sum_{i,j} |
~ & = \, \frac{1}{normaliz.} \sum_{i,j} |
82 |
\left\{ tpmean(i,j) \, - \, psmean(i,j) \right\} |
\left\{ tpmean(i,j) \, - \, psmean(i,j) \right\} |
83 |
\cdot cosphi(i,j) \cdot tpmeanmask(i,j) |
\cdot cosphi(i,j) \cdot tpmeanmask(i,j) |
84 |
\end{split} |
\end{aligned} |
85 |
\end{equation} |
\end{equation} |
86 |
% |
% |
87 |
\item |
\item |
90 |
First spatial distribution: |
First spatial distribution: |
91 |
% |
% |
92 |
\begin{equation} |
\begin{equation} |
93 |
\begin{split} |
\begin{aligned} |
94 |
cost\_ssh\_mean(i,j) & = \, |
cost\_ssh\_mean(i,j) & = \, |
95 |
\frac{1}{wp^2} \left\{ \, |
\frac{1}{wp^2} \left\{ \, |
96 |
\left[ \, psmean(i,j) - \overline{psmean} \, \right] \, - \, |
\left[ \, psmean(i,j) - \overline{psmean} \, \right] \, - \, |
97 |
\left[ \, tpmean(i,j) - \overline{tpmean} \, \right] \, \right\}^2 \\ |
\left[ \, tpmean(i,j) - \overline{tpmean} \, \right] \, \right\}^2 \\ |
98 |
~ & = \, \frac{1}{wp^2} \left\{ \, |
~ & = \, \frac{1}{wp^2} \left\{ \, |
99 |
psmean(i,j) \, - \, tpmean(i,j) \, + \, offset \, \right\}^2 |
psmean(i,j) \, - \, tpmean(i,j) \, + \, offset \, \right\}^2 |
100 |
\end{split} |
\end{aligned} |
101 |
\end{equation} |
\end{equation} |
102 |
|
|
103 |
% |
% |
122 |
Compute difference in anomalies: |
Compute difference in anomalies: |
123 |
|
|
124 |
\begin{equation} |
\begin{equation} |
125 |
\begin{split} |
\begin{aligned} |
126 |
cost\_ssh\_anom(i,j,t) & = \, \frac{1}{wtp^2} \left\{ \, |
cost\_ssh\_anom(i,j,t) & = \, \frac{1}{wtp^2} \left\{ \, |
127 |
\left[ \, psbar(i,j,t) - psmean(i,j) \, \right] \, - \, |
\left[ \, psbar(i,j,t) - psmean(i,j) \, \right] \, - \, |
128 |
\left[ \, tpobs(i,j,t) \, \right] \, |
\left[ \, tpobs(i,j,t) \, \right] \, |
129 |
\right\}^2 |
\right\}^2 |
130 |
\end{split} |
\end{aligned} |
131 |
\end{equation} |
\end{equation} |
132 |
% |
% |
133 |
where $t$ denotes time (day) index, and |
where $t$ denotes time (day) index, and |
138 |
Sum over all spatial points and all times |
Sum over all spatial points and all times |
139 |
|
|
140 |
\begin{equation} |
\begin{equation} |
141 |
\begin{split} |
\begin{aligned} |
142 |
\overline{cost\_ssh\_anom} & = \, \sum_{t} \sum_{i,j} |
\overline{cost\_ssh\_anom} & = \, \sum_{t} \sum_{i,j} |
143 |
cost\_ssh\_anom(i,j,t) |
cost\_ssh\_anom(i,j,t) |
144 |
\end{split} |
\end{aligned} |
145 |
\end{equation} |
\end{equation} |
146 |
|
|
147 |
\end{enumerate} |
\end{enumerate} |
261 |
\subsubsection{Input fields} |
\subsubsection{Input fields} |
262 |
~ |
~ |
263 |
|
|
264 |
\begin{table}[h!] |
\begin{table}[!ht] |
265 |
\begin{center} |
\begin{center} |
266 |
\begin{tabular}{lllc} |
\begin{tabular}{lllc} |
267 |
\hline \hline |
\hline \hline |
305 |
\subsubsection{XBT data} |
\subsubsection{XBT data} |
306 |
|
|
307 |
\begin{equation} |
\begin{equation} |
308 |
\begin{split} |
\begin{aligned} |
309 |
cost\_xbt\_t(i,j,k) & = \, |
cost\_xbt\_t(i,j,k) & = \, |
310 |
\left[ \, \frac{fac \cdot ratio}{wti^2 + wtvar^2} \sum_{\tau=1}^{nMonsRec} |
\left[ \, \frac{fac \cdot ratio}{wti^2 + wtvar^2} \sum_{\tau=1}^{nMonsRec} |
311 |
\left\{ Tbar(\tau) \, - \, T2\theta[xbtobs(\tau)] \right\}^2 \, \right](i,j,k) |
\left\{ Tbar(\tau) \, - \, T2\theta[xbtobs(\tau)] \right\}^2 \, \right](i,j,k) |
312 |
\\ |
\\ |
313 |
\end{split} |
\end{aligned} |
314 |
\end{equation} |
\end{equation} |
315 |
|
|
316 |
\subsubsection{WOCE CTD data} |
\subsubsection{WOCE CTD data} |
317 |
|
|
318 |
\begin{equation} |
\begin{equation} |
319 |
\begin{split} |
\begin{aligned} |
320 |
cost\_ctd\_t(i,j,k) & = \, |
cost\_ctd\_t(i,j,k) & = \, |
321 |
\left[ \, \frac{fac \cdot ratio}{wti^2 + wtvar^2} \sum_{\tau=1}^{nMonsRec} |
\left[ \, \frac{fac \cdot ratio}{wti^2 + wtvar^2} \sum_{\tau=1}^{nMonsRec} |
322 |
\left\{ Tbar(\tau) \, - \, ctdTobs(\tau) \right\}^2 \, \right](i,j,k) |
\left\{ Tbar(\tau) \, - \, ctdTobs(\tau) \right\}^2 \, \right](i,j,k) |
325 |
\left[ \, \frac{fac \cdot ratio}{wsi^2 + wsvar^2} \sum_{\tau=1}^{nMonsRec} |
\left[ \, \frac{fac \cdot ratio}{wsi^2 + wsvar^2} \sum_{\tau=1}^{nMonsRec} |
326 |
\left\{ Sbar(\tau) \, - \, ctdSobs(\tau) \right\}^2 \, \right](i,j,k) |
\left\{ Sbar(\tau) \, - \, ctdSobs(\tau) \right\}^2 \, \right](i,j,k) |
327 |
\\ |
\\ |
328 |
\end{split} |
\end{aligned} |
329 |
\end{equation} |
\end{equation} |
330 |
|
|
331 |
\subsubsection{ARGO float data} |
\subsubsection{ARGO float data} |
332 |
|
|
333 |
\begin{equation} |
\begin{equation} |
334 |
\begin{split} |
\begin{aligned} |
335 |
cost\_argo\_t(i,j,k) & = \, |
cost\_argo\_t(i,j,k) & = \, |
336 |
\left[ \, \frac{fac \cdot ratio}{wti^2 + wtvar^2} \sum_{\tau=1}^{nMonsRec} |
\left[ \, \frac{fac \cdot ratio}{wti^2 + wtvar^2} \sum_{\tau=1}^{nMonsRec} |
337 |
\left\{ Tbar(\tau) \, - \, T2\theta[argoTobs(\tau)] \right\}^2 \, \right](i,j,k) |
\left\{ Tbar(\tau) \, - \, T2\theta[argoTobs(\tau)] \right\}^2 \, \right](i,j,k) |
340 |
\left[ \, \frac{fac \cdot ratio}{wsi^2 + wsvar^2} \sum_{\tau=1}^{nMonsRec} |
\left[ \, \frac{fac \cdot ratio}{wsi^2 + wsvar^2} \sum_{\tau=1}^{nMonsRec} |
341 |
\left\{ Sbar(\tau) \, - \, argoSobs(\tau) \right\}^2 \, \right](i,j,k) |
\left\{ Sbar(\tau) \, - \, argoSobs(\tau) \right\}^2 \, \right](i,j,k) |
342 |
\\ |
\\ |
343 |
\end{split} |
\end{aligned} |
344 |
\end{equation} |
\end{equation} |
345 |
|
|
346 |
\subsubsection{Reynolds sea surface T, S data} |
\subsubsection{Reynolds sea surface T, S data} |
347 |
|
|
348 |
\begin{equation} |
\begin{equation} |
349 |
\begin{split} |
\begin{aligned} |
350 |
cost\_sst(i,j) & = \, |
cost\_sst(i,j) & = \, |
351 |
\left[ \, wsst \sum_{\tau=1}^{nMonsRec} |
\left[ \, wsst \sum_{\tau=1}^{nMonsRec} |
352 |
\left\{ Tbar(\tau) \, - \, sstDat(\tau) \right\}^2 \, \right](i,j) |
\left\{ Tbar(\tau) \, - \, sstDat(\tau) \right\}^2 \, \right](i,j) |
355 |
\left[ \, wsss \sum_{\tau=1}^{nMonsRec} |
\left[ \, wsss \sum_{\tau=1}^{nMonsRec} |
356 |
\left\{ Sbar(\tau) \, - \, sssDat(\tau) \right\}^2 \, \right](i,j) |
\left\{ Sbar(\tau) \, - \, sssDat(\tau) \right\}^2 \, \right](i,j) |
357 |
\\ |
\\ |
358 |
\end{split} |
\end{aligned} |
359 |
\end{equation} |
\end{equation} |
360 |
|
|
361 |
\subsubsection{Levitus montly T, S climatological data} |
\subsubsection{Levitus montly T, S climatological data} |
417 |
\item |
\item |
418 |
Take inverse squares: |
Take inverse squares: |
419 |
\[ |
\[ |
420 |
\begin{split} |
\begin{aligned} |
421 |
wtheta(k) & = \, \frac{ratio}{wti(k)^2} \\ |
wtheta(k) & = \, \frac{ratio}{wti(k)^2} \\ |
422 |
wsalt(k) & = \, \frac{ratio}{wsi(k)^2} \\ |
wsalt(k) & = \, \frac{ratio}{wsi(k)^2} \\ |
423 |
\end{split} |
\end{aligned} |
424 |
\] |
\] |
425 |
% |
% |
426 |
\end{enumerate} |
\end{enumerate} |
438 |
\item |
\item |
439 |
Weights are combination of spatially constant and varying parts: |
Weights are combination of spatially constant and varying parts: |
440 |
\[ |
\[ |
441 |
\begin{split} |
\begin{aligned} |
442 |
wtheta2(i,j,k) & = \, \frac{ratio} |
wtheta2(i,j,k) & = \, \frac{ratio} |
443 |
{wti(k)^2 \, + \,wtvar(i,j,k)^2 } \\ |
{wti(k)^2 \, + \,wtvar(i,j,k)^2 } \\ |
444 |
wsalt2(i,j,k) & = \, |
wsalt2(i,j,k) & = \, |
445 |
\frac{ratio} |
\frac{ratio} |
446 |
{wsi(k)^2 \, + \,wsvar(i,j,k)^2 } \\ |
{wsi(k)^2 \, + \,wsvar(i,j,k)^2 } \\ |
447 |
\end{split} |
\end{aligned} |
448 |
\] |
\] |
449 |
% |
% |
450 |
\end{enumerate} |
\end{enumerate} |