| 531 |
\phantom{=}& \phantom{\frac{1}{A_{i,j}^w} \biggl\{} |
\phantom{=}& \phantom{\frac{1}{A_{i,j}^w} \biggl\{} |
| 532 |
+ (\Delta{x}_1\sigma_{21})_{i,j+1}^Z - (\Delta{x}_1\sigma_{21})_{i,j}^Z |
+ (\Delta{x}_1\sigma_{21})_{i,j+1}^Z - (\Delta{x}_1\sigma_{21})_{i,j}^Z |
| 533 |
\biggr\} |
\biggr\} |
| 534 |
\intertext{with} |
\end{align} |
| 535 |
|
with |
| 536 |
|
\begin{align} |
| 537 |
(\Delta{x}_2\sigma_{11})_{i,j}^C =& \phantom{+} |
(\Delta{x}_2\sigma_{11})_{i,j}^C =& \phantom{+} |
| 538 |
\Delta{y}_{i,j}^{F}(\zeta + \eta)^{C}_{i,j} |
\Delta{y}_{i,j}^{F}(\zeta + \eta)^{C}_{i,j} |
| 539 |
\frac{u_{i+1,j}-u_{i,j}}{\Delta{x}_{i,j}^{F}} \\ \notag |
\frac{u_{i+1,j}-u_{i,j}}{\Delta{x}_{i,j}^{F}} \\ \notag |
| 575 |
\phantom{=}& \phantom{\frac{1}{A_{i,j}^s} \biggl\{} |
\phantom{=}& \phantom{\frac{1}{A_{i,j}^s} \biggl\{} |
| 576 |
+ (\Delta{x}_1\sigma_{22})_{i,j}^C - (\Delta{x}_1\sigma_{22})_{i,j-1}^C |
+ (\Delta{x}_1\sigma_{22})_{i,j}^C - (\Delta{x}_1\sigma_{22})_{i,j-1}^C |
| 577 |
\biggr\} |
\biggr\} |
| 578 |
\intertext{with} |
\end{align} |
| 579 |
|
with |
| 580 |
|
\begin{align} |
| 581 |
(\Delta{x}_1\sigma_{12})_{i,j}^Z =& \phantom{+} |
(\Delta{x}_1\sigma_{12})_{i,j}^Z =& \phantom{+} |
| 582 |
\Delta{y}_{i,j}^{U}\overline{\eta}^{Z}_{i,j} |
\Delta{y}_{i,j}^{U}\overline{\eta}^{Z}_{i,j} |
| 583 |
\frac{u_{i,j}-u_{i,j-1}}{\Delta{y}_{i,j}^{U}} |
\frac{u_{i,j}-u_{i,j-1}}{\Delta{y}_{i,j}^{U}} |
| 674 |
diffusive terms for quantities $X=(c\cdot{h}), c, (c\cdot{h}_{s})$. |
diffusive terms for quantities $X=(c\cdot{h}), c, (c\cdot{h}_{s})$. |
| 675 |
% |
% |
| 676 |
From the various advection scheme that are available in the MITgcm, we |
From the various advection scheme that are available in the MITgcm, we |
| 677 |
choose flux-limited schemes \citep[multidimensional 2nd and 3rd-order |
recommend flux-limited schemes \citep[multidimensional 2nd and |
| 678 |
advection scheme with flux limiter][]{roe:85, hundsdorfer94} to |
3rd-order advection scheme with flux limiter][]{roe:85, hundsdorfer94} |
| 679 |
preserve sharp gradients and edges that are typical of sea ice |
to preserve sharp gradients and edges that are typical of sea ice |
| 680 |
distributions and to rule out unphysical over- and undershoots |
distributions and to rule out unphysical over- and undershoots |
| 681 |
(negative thickness or concentration). These scheme conserve volume |
(negative thickness or concentration). These schemes conserve volume |
| 682 |
and horizontal area and are unconditionally stable, so that we can set |
and horizontal area and are unconditionally stable, so that we can set |
| 683 |
$D_{X}=0$. Run-timeflags: \code{SEAICEadvScheme} (default=2), |
$D_{X}=0$. Run-timeflags: \code{SEAICEadvScheme} (default=2, is the |
| 684 |
\code{DIFF1} (default=0.004). |
historic 2nd-order, centered difference scheme), \code{DIFF1} |
| 685 |
|
(default=0.004). |
| 686 |
|
|
| 687 |
There is considerable doubt about the reliability of a ``zero-layer'' |
There is considerable doubt about the reliability of a ``zero-layer'' |
| 688 |
thermodynamic model --- \citet{semtner84} found significant errors in |
thermodynamic model --- \citet{semtner84} found significant errors in |
| 839 |
|
|
| 840 |
%%% Local Variables: |
%%% Local Variables: |
| 841 |
%%% mode: latex |
%%% mode: latex |
| 842 |
%%% TeX-master: "../manual" |
%%% TeX-master: "../../manual" |
| 843 |
%%% End: |
%%% End: |