IndexAAbyssal circulation, 146–155, 171Advection, 2, 22, 35–39, 41, 44, 66, 74–75,88–89, 91, 109, 126, 128, 130, 149,167, 169Ageostrophic flow, 108Approximationbeta-plane, 98, 149, 156, 158, 162Boussinesq, 2, 44, 49equatorial beta-plane, 156, 158, 162hydrostatic, 3–4, 24rigid-lid, 43, 55, 62, 66, 69, 75, 79, 131,143, 149Arakawa C-grid, 23–24, 28, 92, 101–102,127–128, 168Aspect ratio, 59, 65, 70, 78BBalancegeostrophic, 97–99, 123hydrostatic, 97–98, 125, 167–168Sverdrup, 99, 122Baroclinic compensation, 111, 118, 122Baroclinic flow, 3, 95Barotropic flow, 3, 95, 136Bernoulli equation, 41Bottom frictionlinear, 80–81quadratic, 62–63, 107, 114, 132Boundary conditionscyclic, 51, 61, 163full-slip, 114no-slip, 135–136, 140, 143, 149radiation, 169–170zero-gradient, 32, 34, 39, 90, 102, 113,119, 131, 135–136, 142, 168–169Boundary-layer equations, 11–13, 18Brackish water, 83, 92Brownian motion, 58, 72Brunt-Väisälä frequency, 4Buoyancy flux, 58, 60, 66–67Buoyancy shutdown, 111, 173Buoyant-slope effect, 80CCFL stability conditionfor advection, 38for wave propagation, 32–33, 35Coastal downwelling, 113Coastal upwelling, 110–118, 125,143–145, 162Coefficientbottom-drag, 62, 69, 80–81saline contraction, 58thermal expansion, 58, 61, 73, 75wind-drag, 11, 143Concentration basin, 138–139Conservationof density, 125, 127of energy, 41, 49of momentum, 1–3, 9–10, 22, 24, 27–28,36, 55, 62, 91, 97, 101, 125–126,128–129of potential vorticity, 99–100of volume, 24, 57, 70, 104, 126, 147,158, 168Continuity equation, 2–3, 23, 28, 36, 91, 94,103, 125–128Control volume, 37–38, 128–129Convection, 57–75, 78, 95, 146Convective entrainment, 65–66Convective mixed-layer deepening, 59–60CoordinatesCartesian, 1–2, 97, 99, 127, 152Sigma, 103tilted Cartesian, 79–81179
- Page 6:
Jochen KämpfAdvanced Ocean Modelli
- Page 12:
viPrefaceconvection model, a proble
- Page 18:
Contentsix3.7.3 Theory . . ........
- Page 24:
xiiContents4.6 Exercise19:EkmanPump
- Page 28:
Chapter 1IntroductionAbstract This
- Page 32:
1.1 Fundamental Physical Laws 3When
- Page 36:
1.3 Modelling with FORTRAN 95 5∂
- Page 40:
1.4 Visualisation with SciLab 7http
- Page 44:
Chapter 21D Models of Ekman LayersA
- Page 48:
2.2 The Surface Ekman Layer 112.2 T
- Page 52:
2.2 The Surface Ekman Layer 13Conse
- Page 56:
2.3 Exercise 1: The Surface Ekman L
- Page 60:
2.3 Exercise 1: The Surface Ekman L
- Page 64:
2.5 Exercise 2: The Bottom Ekman La
- Page 68:
22 3 Basics of Nonhydrostatic Model
- Page 72:
24 3 Basics of Nonhydrostatic Model
- Page 76:
26 3 Basics of Nonhydrostatic Model
- Page 80:
28 3 Basics of Nonhydrostatic Model
- Page 84:
30 3 Basics of Nonhydrostatic Model
- Page 88:
32 3 Basics of Nonhydrostatic Model
- Page 92:
34 3 Basics of Nonhydrostatic Model
- Page 96:
36 3 Basics of Nonhydrostatic Model
- Page 100:
38 3 Basics of Nonhydrostatic Model
- Page 104:
40 3 Basics of Nonhydrostatic Model
- Page 108:
42 3 Basics of Nonhydrostatic Model
- Page 112:
44 3 Basics of Nonhydrostatic Model
- Page 116:
46 3 Basics of Nonhydrostatic Model
- Page 120:
48 3 Basics of Nonhydrostatic Model
- Page 124:
50 3 Basics of Nonhydrostatic Model
- Page 128:
52 3 Basics of Nonhydrostatic Model
- Page 132:
54 3 Basics of Nonhydrostatic Model
- Page 136:
56 3 Basics of Nonhydrostatic Model
- Page 140:
58 3 Basics of Nonhydrostatic Model
- Page 144:
60 3 Basics of Nonhydrostatic Model
- Page 148:
62 3 Basics of Nonhydrostatic Model
- Page 152:
64 3 Basics of Nonhydrostatic Model
- Page 156:
66 3 Basics of Nonhydrostatic Model
- Page 160:
68 3 Basics of Nonhydrostatic Model
- Page 164:
70 3 Basics of Nonhydrostatic Model
- Page 168:
72 3 Basics of Nonhydrostatic Model
- Page 172:
74 3 Basics of Nonhydrostatic Model
- Page 176:
76 3 Basics of Nonhydrostatic Model
- Page 180:
78 3 Basics of Nonhydrostatic Model
- Page 184:
80 3 Basics of Nonhydrostatic Model
- Page 188:
82 3 Basics of Nonhydrostatic Model
- Page 192:
84 3 Basics of Nonhydrostatic Model
- Page 196:
86 3 Basics of Nonhydrostatic Model
- Page 200:
88 3 Basics of Nonhydrostatic Model
- Page 204:
90 3 Basics of Nonhydrostatic Model
- Page 208:
92 3 Basics of Nonhydrostatic Model
- Page 212:
94 3 Basics of Nonhydrostatic Model
- Page 216:
96 3 Basics of Nonhydrostatic Model
- Page 220:
98 4 2.5D Vertical Slice ModellingF
- Page 224:
100 4 2.5D Vertical Slice Modelling
- Page 228:
102 4 2.5D Vertical Slice Modelling
- Page 232:
104 4 2.5D Vertical Slice Modelling
- Page 236:
106 4 2.5D Vertical Slice Modelling
- Page 240:
108 4 2.5D Vertical Slice Modelling
- Page 244:
110 4 2.5D Vertical Slice Modelling
- Page 248:
112 4 2.5D Vertical Slice Modelling
- Page 252:
114 4 2.5D Vertical Slice Modelling
- Page 256:
116 4 2.5D Vertical Slice Modelling
- Page 260:
118 4 2.5D Vertical Slice Modelling
- Page 264:
120 4 2.5D Vertical Slice Modelling
- Page 268:
122 4 2.5D Vertical Slice Modelling
- Page 272:
124 4 2.5D Vertical Slice Modelling
- Page 276:
126 5 3D Level Modellingwhere z is
- Page 280:
128 5 3D Level ModellingFig. 5.1 Th
- Page 284:
130 5 3D Level ModellingFirst-guess
- Page 288:
132 5 3D Level ModellingThe model i
- Page 292:
134 5 3D Level ModellingFig. 5.6 An
- Page 296:
136 5 3D Level ModellingFig. 5.8 Ex
- Page 300:
138 5 3D Level Modelling5.5.2 Medit
- Page 304:
140 5 3D Level Modellingadjustment
- Page 308:
142 5 3D Level Modellingas the Deep
- Page 312:
144 5 3D Level Modellinggeostrophic
- Page 316:
146 5 3D Level Modelling5.7 The The
- Page 320:
148 5 3D Level ModellingFig. 5.17 S
- Page 324:
150 5 3D Level Modelling5.8.3 Resul
- Page 328: 152 5 3D Level ModellingFig. 5.22 E
- Page 332: 154 5 3D Level ModellingFig. 5.24 D
- Page 336: 156 5 3D Level ModellingFig. 5.25 S
- Page 340: 158 5 3D Level Modelling5.10 Equato
- Page 344: 160 5 3D Level ModellingCombination
- Page 348: 162 5 3D Level ModellingIn some yea
- Page 352: 164 5 3D Level Modelling5,000 Lagra
- Page 356: 166 5 3D Level Modelling5.13 Advanc
- Page 360: 168 5 3D Level ModellingFig. 5.30 A
- Page 364: 170 5 3D Level ModellingC = ψ b−
- Page 368: BibliographyArnold, J. R., and W. F
- Page 372: Bibliography 175Stommel, H. M., and
- Page 382: 180 IndexCorilios parameter, 2, 9,