<div class="description">
<dl><dd>"NPS63-80-003"--Cover</dd>
<dd>"December 1980"--Cover</dd>
<dd>Title from cover</dd>
<dd>"Prepared for: Chief of Naval Research (Code 481), NSTL Station, MS 39529."</dd>
<dd>Includes bibliographical references (p. 42-43)</dd>
<dd>Technical report; 1980</dd>
<dd>The rationale and numerical technique of embedding an oceanic bulk mixed layer model with a multi-level primitive equation model is presented. In addition to the usual prognostic variables that exist in a multi-level primitive equation model, the embedded model predicts the depth of the well mixed layer as well as the jumps in temperature and velocity that occur at the base of that layer. The depth of the mixed layer need not coincide with any of the fixed model levels used in the primitive equations calculations. In addition to advective changes, the mixed layer can deepen by entrainment and it can reform at a shallower depth in the absence of entrainment. When the mixed layer reforms at a shallower depth, the vertical profile of temperature below, the new, shallower mixed layer is adjusted to fit the fixed-level structure used in the primitive equations calculations using a method which conserves heat, momentum and potential energy. Finally, a dynamic stability condition, which includes a consideration of both the vertical current shear and the vertical temperature gradient, is introduced in place of the traditional 'convective adjustment)'. A two-dimensional version of the model is used to test the embedded model formulations and to study the response of the ocean to a stationary axisymmetric hurricane. The model results indicate a strong interdependence between vertical turbulent mixing and advection of heat</dd>
<dd>ck/ 6/10/09</dd></dl><br>Subjects: COMBINATORIAL OPTIMIZATION</div>
<div class="fn value">
Adamec, David;Elsberry, Russell L;Garwood, Roland W;Haney, Robert Lee</div>
Internet Archive identifier