Core library
Q1
100
3D Steady Heat Conduction In Cube
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ cartesian grid
Q1
102
3D Heat Cond, Slab-Wise Solver
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
103
3D Heat Cond. Gauss-Seidel Solver
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ uses Gauss-Seidel solver
___ cartesian grid
Q1
104
3D Unsteady Heat Cond. Thick Pipe
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
Q1
105
1D TRANS FOR H1 WITH FLOW + SOURCE
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
106
Rad Transf From Hot Wall,TGAS=CST
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
109
1D Trans Laminar Flame Propagation
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ chemical sources
___ cartesian grid
Q1
110
Trans Heat Conduction-Uniform Fin
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
111
Fin Non-Uniform Cross-Section
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
112
Fin Non-Uniform Conductivity
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
113
Fin Non-Uniform Specific Heat
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
114
Fin Non-Uniform Surface Coeff.
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
115
Pot. Flow; Perpendicular Plate
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ cartesian grid
Q1
116
Flow Over Double-Wedge Airfoil
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
117
Comp Flow Over Double-Wedge Airfoil
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
118
Transient Tunnel Heat Transfer
___ time-dependent
___ cylindrical grid
___ NX = 1
___ uses neighbour patch (name = NE...)
Q1
119
Wall Distance Distribution Within A Box
___ contains PHOTON USE commands for displaying results
___ computes WALL DISTANCE
___ computes WALL GAP
___ solves for LTLS
___ cartesian grid
Q1
120
Pipe Flow; Effect Of Prandtl No.
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
Q1
121
2DXZ Duct Flow; Effect Of Pr No.
___ NY = 1
___ steady parabolic flow
___ cartesian grid
Q1
122
Pipe Flow With Axial Free Convec
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
Q1
123
Water In A Heated Aluminium Pipe
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ material indices set via SPEDAT
Q1
124
Internally-Finned Pipe; Laminar
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ steady parabolic flow
Q1
125
Free Convection In Horizontal Pipe
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ steady parabolic flow
___ involves buoyancy
Q1
126
Pot. Flow; Inclined Plate
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for VELOCITY POTENTIAL
___ contains sources set by In-Form
___ cartesian grid
Q1
127
Irrotational Flow; Inclined Plate
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
128
F-1 Car; Balsa Wood Blank; Pot. Flow
___ solves for VELOCITY POTENTIAL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
129
Pot. Flow; In-Form-Created Source-Sink
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ contains sources set by In-Form
___ cartesian grid
Q1
130
Steady laminar rotating-disc flow
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ uses In-Form STORED command
Q1
133
Case 123 With Mercury, Not Water
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ material indices set via SPEDAT
Q1
134
Case 123 With Freon, Not Water
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ material indices set via SPEDAT
Q1
135
2D Laminar B-Layer On A Hot Wall
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
136
Free Convec From Hot Vertical Wall
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ involves buoyancy
___ In-Form sets the z-direction grid
___ cartesian grid
Q1
137
Free Convec From Plate In Cross Flow
___ steady parabolic flow
___ involves buoyancy
___ cartesian grid
Q1
138
3D Boundary Layer In A Corner
___ contains PHOTON USE commands for displaying results
___ steady parabolic flow
___ cartesian grid
Q1
140
Case 123 With Steel, Not Aluminium
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ material indices set via SPEDAT
Q1
141
Case 123 With Glass, Not Aluminium
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ material indices set via SPEDAT
Q1
142
Case 123 With LVEL Model
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ material indices set via SPEDAT
Q1
143
Case 123 In Parabolic Mode
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ computes heat transfer
___ material indices set via SPEDAT
Q1
144
Case 142, Parabolic, With Glass
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ material indices set via SPEDAT
Q1
145
Residence-Time Demonstration
___ time-dependent
___ NZ = 1
___ uses density linear in 1/Tabs
___ material indices set via SPEDAT
___ cartesian grid
Q1
150
Plane Jet;Mixing Length Model;Para
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ Prndtl Mixing-Length model
___ cartesian grid
Q1
151
Plane Jet;K-L Turbul Model;Para
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
152
Plane Jet; K-E Turbu Model; Para
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
153
Round Jet;Mixing Length Model;Para
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ Prndtl Mixing-Length model
Q1
154
Round Jet; K-L Turbu Model; Parab
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
Q1
155
Round Jet; K-E Turbu Model; Parab
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
Q1
156
Inclined Supersonic Flow In A Duct
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
157
2D CHANNEL FLOW - NEWTONIAN FLUID
___ NX = 1
___ cartesian grid
Q1
158
2D Flow In A Supersonic Diffuser
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
159
2D Sonic Underexpanded Round Jet
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ uses ideal-gas law for density
Q1
160
2D SUPERSONIC UNDEREXPANDED ROUND JET:16
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ uses ideal-gas law for density
Q1
161
2D Supersonic Rocket Exhaust Plume
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ uses ideal-gas law for density
Q1
162
gas-release with wind angle = 0.785398
___ contains Viewer USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ contains properties set by In-Form
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ uses In-Form BOX function
___ cartesian grid
Q1
163
Steady conduction in electrically-heated
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
170
Channel Flow; Mixing-Length Model
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ Prndtl Mixing-Length model
___ cartesian grid
Q1
171
Channel Flow K-L Model
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
172
Channel Flow K-EPS Model
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
173
Pipe Flow M-Length Turb Model;Para
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ Prndtl Mixing-Length model
Q1
174
Pipe Flow K-L Model;Parabolic
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
Q1
175
Pipe Flow K-E Turbul Model;Parab
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
Q1
176
Channel Flow K-EPS Turblnc. Model
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ cartesian grid
Q1
190
Boundary Layer Mixing-Length Model
___ NX = 1
___ steady parabolic flow
___ Prndtl Mixing-Length model
___ cartesian grid
Q1
191
Boundary Layer K-L Turbulen Model
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
192
Boundary Layer K-E Turbulen Model
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
193
Wall Jet K-E Turbu Model; Parab
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
198
PHOENICS-Letter Masking, CHAM
___ contains PHOTON USE commands for displaying results
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ uses per-cent patch for masking
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
199
PHOENICS-Letter Masking, LOGO
___ contains PHOTON USE commands for displaying results
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ involves buoyancy
___ uses per-cent patch for masking
___ material indices set via SPEDAT
___ cartesian grid
Q1
200
PARALLEL PHOENICS-Letter Masking Feature
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ involves buoyancy
___ uses per-cent patch for masking
___ material indices set via SPEDAT
___ cartesian grid
Q1
210
1D Hydrostatic; X-Direction
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
213
Hydrostatic Equil In Annular Cav.
___ cylindrical grid
___ NZ = 1
___ involves buoyancy
Q1
215
1D Venturi, Y-Direction
___ NX = 1
___ NZ = 1
___ cartesian grid
Q1
217
1D 30-Degree X-Direction Diffuser
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
218
1D Y; Test of u1*r = constant
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
219
1D Y; test of u/r = constant
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
220
Free Vortex In 2 Dimensions
___ cylindrical grid
___ NZ = 1
Q1
221
Rectilinear Flow In Polar Quadrant
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
Q1
222
Jet Injection Into Polar Grid
___ cylindrical grid
___ NZ = 1
Q1
223
2 Quadrant Polar Wind Flow
___ cylindrical grid
___ NZ = 1
Q1
224
Polar Wind 360 Degree
___ cylindrical grid
___ NZ = 1
Q1
225
2D Flow Over A Cylinder Polar Grid
___ cylindrical grid
___ NZ = 1
Q1
226
2D Flow Over A Cylinder K-E Model
___ cylindrical grid
___ NZ = 1
Q1
227
Forced Vortex In A Pipe - Inviscid
___ cylindrical grid
Q1
228
Viscous Heating In Couette Flow
___ NX = 1
___ NZ = 1
___ cartesian grid
Q1
229
Viscous Heating In An Annulus
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
230
Decay Of Turbulence. K-Epsilon Model
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
233
2DY-Directed Free Vortex Test
___ cylindrical grid
___ NZ = 1
Q1
234
De Laval Nozzle X Direction
___ NY = 1
___ NZ = 1
___ uses isentropic-gas law for density
___ cartesian grid
Q1
237
Shallow Sample Cup In Crosswind
___ cylindrical grid
Q1
238
Shallow Sample Cup In Crosswind
___ cylindrical grid
Q1
240
2D Channel Flow
___ NX = 1
___ cartesian grid
Q1
241
2D Restricted Inlet/Outlet Channel
___ NX = 1
___ cartesian grid
Q1
242
Supersonic Flow In Duct
___ NZ = 1
___ uses isentropic-gas law for density
___ cartesian grid
Q1
243
Transonic Flow In A Curved Duct
___ cylindrical grid
___ NZ = 1
___ uses isentropic-gas law for density
Q1
244
Heat Transfer In Pipe; Pr No Effect
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
Q1
245
Heat Trans In Pipe;Pr.Effect;WHL-P
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
Q1
246
Abrupt Enlargement At Pipe Entra
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
Q1
247
Pipe With Internal Restriction
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
Q1
248
Area Restriction With Inlet Swirl
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
Q1
249
Square Cavity With Moving Lid
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses In-Form STORED command
___ cartesian grid
Q1
250
2D Low-Re Flow Past A Plate
___ NX = 1
___ cartesian grid
Q1
251
Laminar Free Convection In Cavity
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ involves buoyancy
___ uses EXPERT dynamic relaxation
___ cartesian grid
Q1
252
Steady Free-Convection In Annular Cavity
___ cylindrical grid
___ NZ = 1
___ involves buoyancy
Q1
253
Benard Convection
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ involves buoyancy
___ uses conjugate-gradient solver
___ cartesian grid
Q1
254
Free Convection Between Vertical Plates
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
255
Potential Flow over Perpendicular Plate
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ darcy flow in porous medium
___ cartesian grid
Q1
256
Steady Free-Convec In Calandria
___ cylindrical grid
___ NZ = 1
___ involves buoyancy
Q1
257
Laminar Free Convection In Cavity
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ involves buoyancy
___ uses EXPERT dynamic relaxation
___ uses conjugate-gradient solver
___ cartesian grid
Q1
260
Conjugate Heat Transf In Air Flow
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ uses volumetric block correction
___ cartesian grid
Q1
261
Conjugate Heat Transf In Air Flow
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ uses volumetric block correction
___ cartesian grid
Q1
262
Conjugate Heat Transfer Problem 2
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ uses volumetric block correction
___ cartesian grid
Q1
263
Conjugate Heat Transfer Problem 3
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ uses volumetric block correction
___ cartesian grid
Q1
264
Conjugate Heat Transfer Problem 4
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ uses volumetric block correction
___ cartesian grid
Q1
270
Impinging Jet In Rectangular Grid
___ cartesian grid
Q1
271
Flow Around A Chimney
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
272
Steady Journal-Bearing Flow, 3D
___ solves for LTLS
___ computes WALL DISTANCE
___ cartesian grid
Q1
273
Mixing At A T-Junction
___ cylindrical grid
Q1
274
3D Nav.Sto.Flow Around A Moving Van
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
275
"Darcy Flow" Around A Moving Van
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ darcy flow in porous medium
___ uses conjugate-gradient solver
___ material indices set via SPEDAT
___ cartesian grid
Q1
276
Potential Flow Around A Moving Van
___ contains PHOTON USE commands for displaying results
___ solves for VELOCITY POTENTIAL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
277
Cubical Cavity With Moving Lid
___ contains PHOTON USE commands for displaying results
___ uses EXPERT dynamic relaxation
___ uses conjugate-gradient solver
___ cartesian grid
Q1
278
Laminar Natural Convec In A Cavity
___ involves buoyancy
___ uses conjugate-gradient solver
___ cartesian grid
Q1
280
Turbulent Pipe Flow; Pr. No. Effect
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
Q1
281
Ricou's Jet In Cylindrical Chamber
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ Prndtl Mixing-Length model
___ Two-scale high-Re model
Q1
289
LVEL model; EGWF= T
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
290
KE-EPS model; Re = 4.5E+04; EGWF= F
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
291
Cav. Flow K-EPS Turbu Model;Ellip
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
292
2D Pipe Flow K-E Model; Re=8.327646E+04
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
Q1
293
Simple Labyrinth; Q1 Made By Menu
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
294
Simple Labyrinth; Heavy Relaxation
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
295
Simple Labyrinth; Expert Relaxation
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses EXPERT dynamic relaxation
___ material indices set via SPEDAT
___ cartesian grid
Q1
296
2D Turbulent Free Convection In A Cavity
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ uses density linear in 1/Tabs
___ Lam=Bremhorst-Re model
___ involves buoyancy
___ cartesian grid
Q1
297
2D Rayleigh-Benard Convection
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ cartesian grid
Q1
298
Test case for rotating grid
___ cylindrical grid
___ uses ROTOR VR Object
___ uses In-Form STORED command
___ contains initial values set by In-Form
Q1
300
Backward-Facing STP KE MDL Y-X POS
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
320
Temporal Decay Of Turbu; K-E Model
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
321
Pressure Waves From Valve Closure
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
322
Laminar Flow In Pipe-Transient
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
Q1
323
Central Obstacle In Laminar Pipe
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
Q1
324
Pipe; Outlet Restriction Added
___ time-dependent
___ cylindrical grid
___ NX = 1
Q1
325
Obstacle,Outlet Restriction And Cart
___ time-dependent
___ NX = 1
___ cartesian grid
Q1
326
Vortex Near A Moving Wall
___ time-dependent
___ NZ = 1
___ cartesian grid
Q1
327
0D Piston-In-Cylinder Study
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses isentropic-gas law for density
___ cartesian grid
Q1
328
1D Piston-With-Bowl Study
___ time-dependent
___ NX = 1
___ NY = 1
___ uses isentropic-gas law for density
___ cartesian grid
Q1
329
1D Piston With Bowl; High Speed
___ time-dependent
___ NX = 1
___ NY = 1
___ uses isentropic-gas law for density
___ cartesian grid
Q1
330
Case 1 AXI-Symmetric Piston Bowl
___ time-dependent
___ cylindrical grid
___ NX = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
331
Two Stroke Loop Scavenge Cycle 3D
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ uses ideal-gas law for density
Q1
332
Shock Tube
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
333
Shock Tube With 2D Obstacle
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
334
Spherical Blast Wave
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
335
1D Transient Shock Tube
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND convgr
___ cartesian grid
Q1
340
Transient Free Convection In A Box
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ involves buoyancy
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
341
Rayleigh-Taylor Instability
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ involves buoyancy
___ cartesian grid
Q1
342
HYD. EQ. In XY Tank With Blockages
___ time-dependent
___ NZ = 1
___ cartesian grid
Q1
343
HYD. EQ. In YZ Tank With Blockages
___ time-dependent
___ NX = 1
___ cartesian grid
Q1
344
2DTrans Buoyant Flow Of Melt In A Ladle
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
___ involves buoyancy
Q1
345
3D Laminar Free Convection In A Cavity
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ involves buoyancy
___ contains properties set by In-Form
___ uses In-Form STORED command
___ In-Form STORED command uses SUM(
___ cartesian grid
Q1
350
Porous Plate (K-E
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ Chen-Kim high-Re model
___ material indices set via SPEDAT
___ plate porosity set via SPEDAT
___ cartesian grid
Q1
351
Porous Plate (Laminar
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ material indices set via SPEDAT
___ plate porosity set via SPEDAT
___ cartesian grid
Q1
360
MOFOR by In-Form: 2D motion of 2 objects
___ contains PHOTON USE commands for displaying results
___ contains Viewer USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses MOFOR
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
362
Slabwise-averaging and display
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ computes heat transfer
___ In-Form used to "MAKE" variables
___ In-Form STORED command uses SUM(
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
___ material indices set via SPEDAT
___ cartesian grid
Q1
363
Slabwise-averaging and display
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ computes heat transfer
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
___ material indices set via SPEDAT
___ cartesian grid
Q1
364
ARR In-Form function
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses ideal-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains properties set by In-Form
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
365
MOFOR by In-Form: Underwater navigation
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ uses MOFOR
___ uses In-Form STORED command
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
366
In-Form equivalent of library case 118
___ time-dependent
___ cylindrical grid
___ NX = 1
___ contains sources set by In-Form
Q1
367
In-Form equivalent of library case 790
___ NY = 1
___ NZ = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
368
In-Form equivalent of library case 791
___ time-dependent
___ NY = 1
___ NZ = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
369
Rotating coordinates
___ NZ = 1
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ cartesian grid
Q1
370
MOFOR - In-Form: BOX linear motion in Z
___ time-dependent
___ NX = 1
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
371
MOFOR - In-Form: BOX linear motion in Y
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
372
MOFOR - In-Form: BOX linear motion in X-
___ time-dependent
___ NY = 1
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
373
MOFOR - In-Form: BOX linear motion X-dir
___ time-dependent
___ NX = 1
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
374
Rotating coordinates
___ NZ = 1
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ cartesian grid
Q1
375
MOFOR/In-Form: diagonal motion in XY
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
376
MOFOR/In-Form: diagonal motion in YZ
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
377
MOFOR/In-Form: diagonal motion in XZ
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
378
MOFOR/In-Form: diagonal motion in XY
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
379
MOFOR/In-Form: diagonal motion in YZ
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
380
MOFOR/In-Form: diagonal motion in XZ
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
381
MOFOR by In-Form,CYLINDR object rotation
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
382
MOFOR by In-Form: BOX object rotation
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
383
Box-shaped In-Form object
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ uses In-Form BOX function
___ cartesian grid
Q1
384
ellipsoid-shaped In-Form object
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ cartesian grid
Q1
385
sub-grid objects POINT, LINE and PLANE
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ cartesian grid
Q1
386
sphere with centre at origin
___ uses In-Form SPHERE function
___ uses In-Form STORED command
___ cartesian grid
Q1
387
patch-limited objects
___ material indices set via SPEDAT
___ cartesian grid
Q1
401
Oil tanker rupture; warm-water layer eff
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ uses In-Form STORED command
Q1
402
Oil tanker rupture - Turbulent plume
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ contains sources set by In-Form
___ uses In-Form STORED command
Q1
413
Transient Radiation From Fin
___ time-dependent
___ NY = 1
___ NZ = 1
___ star-name patch: source=CO*PHI*NAME**VAL
___ contains lines to be read by EARTH via READQ1
___ cartesian grid
Q1
414
X-Spatial Decay Of Turbu, K-Omega
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
415
X-Spatial Decay Of Turbu, K-Vosq
___ NY = 1
___ NZ = 1
___ star-name patch: source=CO*PHI*NAME**VAL
___ cartesian grid
Q1
419
Swirling Flow Test, Inlet U1=1m/s
___ cylindrical grid
Q1
426
1DX Coal Combustion; Secondary Air
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
427
2DYZ Coal-Particle Combustion
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
429
1DY Oil-Droplet Combustion
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
434
0D Transient Reaction Rate
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
435
Gala Example 1D
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
436
Filling Of A 2d Duct - HOL Method
___ NY = 1
___ cartesian grid
Q1
437
Filling Of A 2D Duct - HOL Method
___ NX = 1
___ cartesian grid
Q1
439
Backward-Facing Step KE Mod YZ Pos
___ NX = 1
___ uses ideal-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
448
Vertical Chamber
___ cylindrical grid
___ NZ = 1
___ computes heat transfer
___ material indices set via SPEDAT
Q1
450
Rigid-Surface Flow, 3D Incompress
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
451
Rigid-Surface Flow, 3D Compress
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
452
Free Surface Flow, 3D Surface
___ contains PHOTON USE commands for displaying results
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
453
Free Surface Flow, 2D Incompressi
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
454
Free Surface Flow, 2D Shllw Water
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
455
Free Surface Flow, 3D, Submerged
___ contains PHOTON USE commands for displaying results
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
456
Rigid Surface, 3D, Submerged
___ contains PHOTON USE commands for displaying results
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
457
Variable Porosity, 2D
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
458
Variable Porosity, 3D
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
469
Temperature Solution Demonstration
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
470
Shallow-Water Waves After Exit Shut
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
471
Waves After Shutting Inlet And Outlet
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
472
Flow In Lake After Wind Stops
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
473
Non Unif.Depth Channel.Out.Closure
___ time-dependent
___ NY = 1
___ cartesian grid
Q1
474
Pollutant Flow In A Tidal Harbour
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
476
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
477
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
478
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
479
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
480
1DX Coal-Particle Combustion
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
481
1D Coal-Particle Combustion
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
482
1DZ Coal-Particle Combustion
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
483
1DX Coal-Particle Comb. Equvel=T
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ both phases have equal velocity components
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
484
1DY Coal-Particle Comb. Equvel=T
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ two-phase flow
___ both phases have equal velocity components
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
485
1DZ Coal-Particle Comb. Equvel=T
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ two-phase flow
___ both phases have equal velocity components
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
486
Test Of Whole Field Solver
___ cylindrical grid
Q1
487
Transient Dye Injection Into Steady Flow
___ time-dependent
___ cylindrical grid
Q1
488
Wave Propagation - 1D Scalar
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
489
Wave Propagation - 1D Scalar
___ time-dependent
___ NX = 1
___ NZ = 1
___ cartesian grid
Q1
490
Wave Propagation - 1D Scalar
___ time-dependent
___ NX = 1
___ NY = 1
___ cartesian grid
Q1
491
Simple chemical reaction (SCRS
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses SCRS option for density
___ chemical sources with eddy-break-up model
___ cartesian grid
Q1
492
Idealised Gas-Turbine Combustion Chamber
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ uses SCRS option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains lines to be read by EARTH via READQ1
___ contains properties set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ uses LONGNAME
___ material indices set via SPEDAT
Q1
493
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
494
3D Radiant Heat Transfer In A Box
___ computes heat transfer
___ cartesian grid
Q1
495
Radiative Transfer + Heat Source
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
498
X-D Radiative Equilibrium In Slab
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
500
1D Laminar Pipe Flow And Heat Trans
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ uses fully-developed-flow option
Q1
501
1D Laminar Pipe Flow And Mass Trans
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ uses fully-developed-flow option
Q1
502
1D Turb Pipe Flow + Heat Trans
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ uses fully-developed-flow option
Q1
503
2D Laminar Duct Flow And Heat Trans
___ NZ = 1
___ uses fully-developed-flow option
___ cartesian grid
Q1
504
2D Turb Duct Flow And Heat Trans
___ NZ = 1
___ uses fully-developed-flow option
___ cartesian grid
Q1
505
1D Lam Couette Flow And Heat Trans
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ NZ = 1
___ cartesian grid
Q1
506
1D Laminar MHD Channel Flow
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ uses fully-developed-flow option
___ cartesian grid
Q1
507
1D Laminar MHD Couette Flow
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ NZ = 1
___ cartesian grid
Q1
510
Power-Law Fluid FD Lam Pipe Flow
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ uses fully-developed-flow option
Q1
511
Bingham-Fluid FD Lam Pipe Flow
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ uses fully-developed-flow option
Q1
512
Power-Law Fluid_2D FD Duct Flow
___ NZ = 1
___ uses fully-developed-flow option
___ cartesian grid
Q1
513
Powre-Law_2D Fluid Ellip. Lam Pipe
___ cylindrical grid
___ NX = 1
Q1
514
Bingham Fluid_2D Ellip. Lam Pipe
___ cylindrical grid
___ NX = 1
Q1
520
Link Test In YZ Plane; 2 Dummy Cells
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ uses link patch
___ cartesian grid
Q1
521
Y-Direction Link In XY Plane
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ uses link patch
Q1
522
Y-Direction Link In XY; Xcycle=t
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ uses link patch
Q1
523
East-West Link Test In X-Y Plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses link patch
___ cartesian grid
Q1
524
Duct With 2 Side Branches;XYplane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses link patch
___ cartesian grid
Q1
525
Multi-Blocking By Shear, XY Plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses link patch
___ material indices set via SPEDAT
___ cartesian grid
Q1
526
Rotating Inner And Fixed Outer Grid
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NZ = 1
___ uses link patch
Q1
530
Influences On Convergence; Steady
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
531
Influences On Convergence; Transient
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
550
1D Radiant Heat Transfre In A Box
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
551
2D Radiant Heat Transfer In A Box
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ cartesian grid
Q1
552
3D Radiant Heat Transfer In A Box
___ contains PHOTON USE commands for displaying results
___ cartesian grid
Q1
553
3D Radiant Heat Transfer In A Box
___ contains PHOTON USE commands for displaying results
___ cartesian grid
Q1
565
Air-Cooled Electric-Motor Sector
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ computes heat transfer
___ material indices set via SPEDAT
Q1
566
3D Steady Heat Conduction In Cube
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ star-name patch: source=CO*PHI*NAME**VAL
___ material indices set via SPEDAT
___ cartesian grid
Q1
567
GXTIM Example
___ time-dependent
___ NX = 1
___ NZ = 1
___ uses ideal-gas law for density
___ cartesian grid
Q1
568
Expert Test-The Driven-Cavity Flow
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses In-Form STORED command
___ cartesian grid
Q1
571
GAS_AT_REST._SUDDEN_SUSTAINED_ENTRY_FROM
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ uses ideal-gas law for density
___ cartesian grid
Q1
572
Rect Cav With Moving Lid;Heat Tran
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ cartesian grid
Q1
575
2D Channel Flow Newtonian Fluid
___ NX = 1
___ cartesian grid
Q1
576
2D Channel Flow;Non Newtonian Fluid
___ NX = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
577
Counter Flow Demo
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ material indices set via SPEDAT
Q1
601
3D Heat Cond. Conjug.Grad. Solver
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ uses conjugate-gradient solver
___ cartesian grid
Q1
602
Pot. Flow Around Van; CNGR. Solver
___ contains PHOTON USE commands for displaying results
___ solves for VELOCITY POTENTIAL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses conjugate-gradient solver
___ material indices set via SPEDAT
___ cartesian grid
Q1
603
Pot. Flow; Perp. Plate; Conj.GR.
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ uses conjugate-gradient solver
___ cartesian grid
Q1
604
Diffuser ; Effect Of Prandtl No.
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
Q1
605
Fully-Developed Flow; K-EPS Model
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ NZ = 1
___ cartesian grid
Q1
606
Buoyant Plume in tunnel, 1.0E+06 Cells
___ contains PHOTON USE commands for displaying results
___ steady parabolic flow
___ involves buoyancy
___ cartesian grid
Q1
607
Flow Around A Group Of Buildings
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses conjugate-gradient solver
___ material indices set via SPEDAT
___ cartesian grid
Q1
608
Free Convectn And Radiatn Heat Sink
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ computes heat transfer
___ involves buoyancy
___ star-name patch: source=CO*PHI*NAME**VAL
___ uses conjugate-gradient solver
___ material indices set via SPEDAT
___ cartesian grid
Q1
610
2D Laminar Air-Water Bound. Layer
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
611
Secondary Flow In Curved Duct
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
Q1
612
Conduction In Cube; Expert
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ cartesian grid
Q1
613
Heat Sources; Air-Cooled Box; EGWF
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ computes heat transfer
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
614
Flow Of Glass In T-shaped Channel
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
615
Potl. 2D Flow; Source-Sink Pair
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ uses conjugate-gradient solver
___ cartesian grid
Q1
616
Potl. 2D Flow; Source-Sink Pair
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ uses conjugate-gradient solver
Q1
617
1D Ignition And Extinction
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ chemical sources
___ cartesian grid
Q1
620
Case 100; Various Solver Options
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ cartesian grid
Q1
621
Simulation of a Labyrinth Flow
___ NY = 1
___ computes heat transfer
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
622
Domain faces and Duplication in VRE
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
623
Flow between cylindrical obstacles
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
624
Array and group settings
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
625
Fans and Inlets
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
626
Jetpump
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
627
Flow simulation in a pipe
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
628
Flow around buildings
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
629
Flow over heated bricks
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
630
Introducing contaminants
___ NY = 1
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
631
Editing properties
___ NY = 1
___ computes heat transfer
___ uses ideal-gas law for density
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
632
Duct at 30 degree to the horizontal
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
633
Transient Heat Conduction
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ cartesian grid
Q1
634
Transient Heat Conduction
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
635
Complete Diaphragm Rupture
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
636
Partial Diaphragm Rupture
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
637
2D Axi-Symmetrical Jet Pump
___ cylindrical grid
___ NX = 1
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
638
Swirling flow through an orifice plate
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
639
Swirling flow through an orifice plate
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
640
A duct flow (Immersol)
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
641
Electronic box
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
642
Combustion SCRS
___ cylindrical grid
___ uses SCRS option for density
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ chemical sources with eddy-break-up model
___ material indices set via SPEDAT
Q1
643
ESCRS - Fast Chemistry
___ cylindrical grid
___ NX = 1
___ uses CHEMKIN option for density
___ Chen-Kim high-Re model
___ uses extended SCRS
Q1
644
Combustion: CHEMKIN
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ uses CHEMKIN option for density
___ Constant-effective-viscosity model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
645
KE-EPS model; Re = 45000.00; EGWF= T
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
646
RNG model; Re = 45000.00; EGWF= T
___ NZ = 1
___ RNG high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
647
KECHEN model; Re = 45000.00; EGWF= T
___ NZ = 1
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
648
Simple Labyrinth; LVEL model
___ NZ = 1
___ solves for LTLS
___ computes WALL GAP
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
649
2PHS model; Re = 45000.00; EGWF= T
___ NZ = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
651
Boiling in a pipe (IPSA)
___ cylindrical grid
___ NX = 1
___ two-phase flow
___ Chen-Kim high-Re model
___ involves buoyancy
Q1
652
Flow over a backward-facing step (VOF)
___ time-dependent
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
653
Water pouring into a bund
___ time-dependent
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
654
Droplet falling over wedge - VOF
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
655
Flow in a separator ASM
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
656
Shallow water IN TURNAROUND DUCT: B
___ NX = 1
___ body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
657
A whirlpool in a shallow pond
___ NX = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
658
Inform: Inlet boundary layer profile
___ NY = 1
___ MMK high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
659
2D Warehouse Example
___ NY = 1
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
660
Inlet flow normal to cylinder surface
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
661
Simulation of a Labyrinth Flow
___ NY = 1
___ computes heat transfer
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
662
No title has been set for this run.
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
663
No title has been set for this run.
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
664
No title has been set for this run.
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
665
Flow around buildings
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ contains initial values set by In-Form
___ cartesian grid
Q1
667
3D Nav.Sto.Flow Around A Moving Van
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ contains sources set by In-Form
___ cartesian grid
Q1
668
My first flow simulation
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
669
My first flow simulation
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
670
My first flow simulation
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
671
Linked Angled-in objects
___ NY = 1
___ computes heat transfer
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
672
3D Nav.Sto.Flow Around A Moving Van
___ contains Viewer USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ In-Form used to "MAKE" variables
___ In-Form STORED command uses SUM(
___ special print-out activated via SPEDAT
___ material indices set via SPEDAT
___ cartesian grid
Q1
673
Wind and Solar Heating Example
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ star-name patch: source=CO*PHI*NAME**VAL
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
674
Wind and Solar Heating Example
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ star-name patch: source=CO*PHI*NAME**VAL
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
675
Flow through a Forest
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ contains sources set by In-Form
___ cartesian grid
Q1
690
KE-EPS model; Re = 4.5E+04; EGWF= T
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
700
In-Form equivalent of PLANT case Z100
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains properties set by In-Form
___ uses LONGNAME
___ cartesian grid
Q1
701
In-Form equivalent of PLANT case Z101
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ contains properties set by In-Form
___ uses LONGNAME
___ uses In-Form STORED command
___ cartesian grid
Q1
702
In-Form equivalent of PLANT case Z102
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
703
Extract fin.-vol. equations and diffusio
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains properties set by In-Form
___ uses LONGNAME
___ uses In-Form STORED command
___ cartesian grid
Q1
704
2D UNSTEADY DIFFUSION PROBLEM:Z104
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses conjugate-gradient solver
___ contains initial values set by In-Form
___ time-dependent source set by In-Form
___ cartesian grid
Q1
705
In-Form equivalent of PLANT case Z106
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses In-Form STORED command
___ contains sources set by In-Form
___ cartesian grid
Q1
706
In-Form equivalent of PLANT case Z106
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses In-Form STORED command
___ contains sources set by In-Form
___ cartesian grid
Q1
707
decay of temp. profile in metal slab
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
708
In-Form equivalent of PLANT case Z108
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ cartesian grid
Q1
709
In-Form equivalent of simplified PLANT c
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
710
3D SHELL-AND-TUBE HEAT EXCHANGER:110
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ cartesian grid
Q1
711
In-Form equivalent of PLANT case Z111
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ time-dependent source set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
712
In-Form equivalent of PLANT case Z112
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
713
In-Form equivalent of PLANT case Z113
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains properties set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
717
In-Form equivalent of PLANT case Z117
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
718
In-Form equivalent of PLANT case Z118
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
719
In-Form equivalent of PLANT case Z119
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ time-dependent source set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
720
In-Form equivalent of PLANT case Z120
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
721
In-Form equivalent of PLANT case Z604
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
722
In-Form equivalent of PLANT case Z122
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ cartesian grid
Q1
723
In-Form equivalent of PLANT case Z123
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ contains properties set by In-Form
Q1
724
In-Form equivalent of PLANT case Z124
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ contains properties set by In-Form
___ contains initial values set by In-Form
___ contains sources set by In-Form
Q1
725
In-Form equivalent of PLANT case Z125
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ NY = 1
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains properties set by In-Form
___ cartesian grid
Q1
726
In-Form equivalent of PLANT case Z126
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ two-phase flow
___ contains sources set by In-Form
___ cartesian grid
Q1
727
In-Form equivalent of PLANT case Z127
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
729
In-Form equivalent of PLANT case Z129
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
731
In-Form equivalent of PLANT case Z131
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
733
In-Form equivalent of PLANT case Z133
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ uses SCRS option for density
___ contains sources set by In-Form
Q1
734
In-Form equivalent of PLANT case Z134
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
735
In-Form equivalent of PLANT case Z135
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ cartesian grid
Q1
737
CAREY Oscillating water column
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ time-dependent source set by In-Form
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ contains properties set by In-Form
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
738
In-Form equivalent of PLANT case Z138
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
739
In-Form equivalent of PLANT case Z139
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
740
In-Form equivalent of PLANT case Z140
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ contains properties set by In-Form
___ uses LONGNAME
Q1
741
In-Form equivalent of PLANT case Z141
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains properties set by In-Form
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
742
In-Form equivalent of PLANT case Z142
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
743
p 1.0E+10 1.0E+05 u 1.0E+10 1.0E+10
___ time-dependent
___ NZ = 1
___ solves for VELOCITY POTENTIAL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ special print-out activated via SPEDAT
___ material indices set via SPEDAT
___ cartesian grid
Q1
745
Non-uniform moving-wall velocity
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
746
Heat Transfer In Channel By In-Form.
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ cartesian grid
Q1
747
Injection In Channel By In-Form.
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ cartesian grid
Q1
748
Wall-functions By In-Form.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
749
Shapes made bu sphere; caseno=1
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ uses In-Form SPHERE function
___ material indices set via SPEDAT
___ cartesian grid
Q1
750
In-Form equivalent of PLANT case Z244
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ contains sources set by In-Form
Q1
751
Steady lam. fl. propagation :751
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
752
In-Form equivalent of PLANT case Z132
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
753
Flow straightened by vanes + resistances
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ cartesian grid
Q1
754
Simple shapes by box In-Form object
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ computes heat transfer
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ uses In-Form BOX function
___ material indices set via SPEDAT
___ cartesian grid
Q1
756
Mixing caused by rotating paddle: 756
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ contains properties set by In-Form
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ cartesian grid
Q1
757
Flow in stirred 3D vessel: 757
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ contains properties set by In-Form
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ cartesian grid
Q1
758
Three examples of initialization :758
___ contains PHOTON USE commands for displaying results
___ contains initial values set by In-Form
___ cartesian grid
Q1
759
CO-LOCATED VELOCITY CALCULATION:759
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
760
In-Form Equivalent Of PLANT Case Z101
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ contains properties set by In-Form
___ uses LONGNAME
___ uses In-Form STORED command
___ cartesian grid
Q1
761
SATURATED_WATER
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ uses In-Form STORED command
___ contains properties set by In-Form
___ cartesian grid
Q1
762
3D moving-wall; fluid is AIR..277
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ uses conjugate-gradient solver
___ uses In-Form STORED command
___ contains properties set by In-Form
___ cartesian grid
Q1
763
3D SQUARE CAVITY; various fluids: 763
___ contains PHOTON USE commands for displaying results
___ uses conjugate-gradient solver
___ uses LONGNAME
___ uses In-Form STORED command
___ contains properties set by In-Form
___ cartesian grid
Q1
764
InForm Settings And Sources For Objects
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses conjugate-gradient solver
___ contains properties set by In-Form
___ contains initial values set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
765
In-Form Represents Hot Moving Spheres
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ uses In-Form SPHERE function
___ contains sources set by In-Form
___ cartesian grid
Q1
766
2D Football Trajectory.
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses In-Form SPHERE function
___ contains sources set by In-Form
___ time-dependent source set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
767
3D football trajectory: 767
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ uses In-Form SPHERE function
___ time-dependent source set by In-Form
___ contains sources set by In-Form
___ uses In-Form STORED command
___ cartesian grid
Q1
768
3D heating spiral: 768
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ computes heat transfer
___ uses In-Form STORED command
___ uses In-Form SPHERE function
___ contains initial values set by In-Form
___ contains sources set by In-Form
Q1
769
In-Form makes pyramid: 3D
___ contains PHOTON USE commands for displaying results
___ uses In-Form BOX function
___ uses In-Form STORED command
___ cartesian grid
Q1
770
Unsteady mixing in two paddle-stirred r
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses In-Form STORED command
___ uses In-Form BOX function
___ contains sources set by In-Form
___ cartesian grid
Q1
771
Drilling of Pump chamber, BFC: 771
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses In-Form SPHERE function
___ contains initial values set by In-Form
___ cartesian grid
Q1
772
In-Form, sphere in polar coordinates: 77
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ uses In-Form SPHERE function
___ uses In-Form STORED command
Q1
773
Heat Conductivity: In-Form Source.
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
774
T-Junction: In-Form Source.
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
775
Flow In A Model Furnace: In-Form Source.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
776
In-Form equivalent of PLANT case Z623
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ Prndtl Mixing-Length model
___ In-Form sets the z-direction grid
___ cartesian grid
Q1
777
In-Form equivalent of PLANT case Z622
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ In-Form sets the y-direction grid
___ cartesian grid
Q1
778
In-Form equivalent of PLANT case Z619
___ time-dependent
___ In-Form sets the "time grid"
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ cartesian grid
Q1
779
In-Form equivalent of PLANT case Z613
___ contains PHOTON USE commands for displaying results
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ contains sources set by In-Form
___ cartesian grid
Q1
780
In-Form equivalent of PLANT case Z604
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ computes stresses and strains in solids
___ contains properties set by In-Form
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
781
17-fluid turbulence model
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ contains sources set by In-Form
___ In-Form used to "MAKE" variables
___ In-Form STORED command uses SUM(
___ uses In-Form STORED command
Q1
782
In-Form equivalent of case 240
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
783
3D Piston by In-Form
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ uses ideal-gas law for density
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ uses In-Form BOX function
___ contains sources set by In-Form
Q1
784
Valve motion into 2D Chamber by In-Form
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses In-Form BOX function
___ uses In-Form STORED command
___ contains sources set by In-Form
___ cartesian grid
Q1
785
In-Form equivalent of PLANT case Z615
___ contains PHOTON USE commands for displaying results
___ uses In-Form SPHERE function
___ In-Form used to "MAKE" variables
___ In-Form STORED command uses SUM(
___ uses In-Form STORED command
___ uses LONGNAME
___ contains sources set by In-Form
___ cartesian grid
Q1
786
In-Form equivalent of PLANT case Z350
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ involves buoyancy
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ contains sources set by In-Form
___ In-Form STORED command uses SUM(
___ uses LONGNAME
___ cartesian grid
Q1
787
TWO VESSELS BY IN-FORM
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses In-Form SPHERE function
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
788
Cubical Cavity With Moving Lid
___ contains PHOTON USE commands for displaying results
___ uses In-Form STORED command
___ cartesian grid
Q1
789
Shell-and-tube heat exchanger
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
790
Steady Counterflow Heat Exchanger
___ NY = 1
___ NZ = 1
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
791
Transient Counterflow Heat Exchr.
___ time-dependent
___ NY = 1
___ NZ = 1
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
792
791 + Allowance For Metal Capacity
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
793
Case 4 Steady Crossflow
___ NZ = 1
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
794
Case 5 Transient Crossflow
___ time-dependent
___ NZ = 1
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
795
Case 6; Allowance For Metal CP
___ time-dependent
___ NZ = 1
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
796
Case 7 3D Shell,Tube Heat Exchnger
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
797
Case 8; As For Case 7 But Trans
___ time-dependent
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
798
Case 9; Allowance For Metal Capac
___ time-dependent
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
799
Injection In Channel By In-Form.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ contains sources set by In-Form
___ cartesian grid
Q1
800
3D Shell and (1-pass) Tube Heat Exchange
___ contains PHOTON USE commands for displaying results
___ uses neighbour patch (name = NE...)
___ uses In-Form STORED command
___ contains properties set by In-Form
___ contains sources set by In-Form
___ uses LONGNAME
___ cartesian grid
Q1
801
Inclined Channel; 32,40,1 Grid
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
802
Flow around an inclined tube
___ contains Viewer USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
803
Turn-around duct; Fine Grid
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
804
Turn-Around Duct; 20*40 Grid
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
805
Sphere In A Uniform Stream; Re=40
___ contains Viewer USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
806
Diamond-Shaped Obstacle; 1,18,31 Grid
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
807
2 spheres Re=40. quarter=T finegrid=T
___ contains Viewer USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
808
Cylinder In Uniform Stream; 1,18,31 Grid
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
809
Skewed Box In Uniform Stream; 18,18,31 G
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
810
Free Convection In A Porous Medium
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ involves buoyancy
Q1
811
1D Darcy Flow With Heat Transfer
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
820
1D U1 Diffusion In An Annulus
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
821
1D U1 Diffusion In An Annulus;Rinner=0
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
822
1D U1 Diffusion In A Rotating Cylinder
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
823
1D U1 Diffusion In An Annulus;Omegi=0.
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
824
2D U1 Flow In An Annulus;Omegi=0.0
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NZ = 1
Q1
825
1D U1 Coriolis/Diffusion Test:Rinner.gt.
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
826
2D U1 Coriolis/Diffusion Test:Rinner.gt.
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NZ = 1
Q1
827
2D U1 Coriolis/Diffusion Test:Rinner=0
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
828
1D U1 Diffusion Of A Free Vortex
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
829
1D U1 Diffusion Of A Forced Vortex
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
830
1D U1 Diffusion Of A Combined Vortex
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
831
1D U1 Coriolis/Diff. Test:Rinner.gt.0 An
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
832
2D U1 Coriolis/Diff. Test:Rinner.gt.0 An
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NZ = 1
Q1
833
2D 360 Deg Polar Wind Flow
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
Q1
850
Longwell Bomb; X-Y Model
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ chemical sources
Q1
851
Steady 1D Flame Phenomena
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ chemical sources
___ cartesian grid
Q1
852
Spherical Flame Propagation
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NZ = 1
___ chemical sources
___ involves buoyancy
Q1
853
SCRS Combustion In A Duct
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ uses SCRS option for density
___ cartesian grid
Q1
855
Transfer objects; 1d diffusion; 1st run.
___ NX = 1
___ computes heat transfer
___ cartesian grid
Q1
856
Transfer objects; 2d convection; 1st run
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ contains sources set by In-Form
___ cartesian grid
Q1
857
domain-partitioning technique. First run
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ cartesian grid
Q1
858
ATMOSPHERIC B.L., first run
___ contains PHOTON USE commands for displaying results
___ contains sources set by In-Form
___ uses In-Form STORED command
___ contains properties set by In-Form
___ cartesian grid
Q1
859
ATMOSPHERIC B.L., first run
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ contains sources set by In-Form
___ contains initial values set by In-Form
___ uses In-Form STORED command
___ contains properties set by In-Form
___ cartesian grid
Q1
860
Fire in room.
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
861
Smoke near building
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
862
Smoke in room.
___ cartesian grid
Q1
863
Computer cabinet.
___ contains Viewer USE commands for displaying results
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
864
Computer room.
___ contains Viewer USE commands for displaying results
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
870
Contact Resistance To Heat Condctn
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ cartesian grid
Q1
871
3D Steady Heat Conduction In A Cube
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
887
Slow Jet Entering Fast-Moving Surr
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ Prndtl Mixing-Length model
Q1
890
2D Subsonic Turbulent Round Jet
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ uses ideal-gas law for density
Q1
895
3D Solid-Propellant Rocket
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
896
Fully-Developed, Moving-Wall Duct
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ cartesian grid
Q1
899
macro used by cases 901-906
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ cartesian grid
Q1
900
macro by case 909
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
901
De Laval Nozzle - Htot +X
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ cartesian grid
Q1
902
De LavalL Nozzle - Htot + GXCONV +X
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
___ cartesian grid
Q1
903
De Laval Nozzel - Hst +X
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ cartesian grid
Q1
904
De Laval Nozzle - Hst + GXCONV +X
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
___ cartesian grid
Q1
905
De Laval Nozzle - Hst + GXCONV +X
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
___ cartesian grid
Q1
906
De Laval Nozzle - Using SMART Scheme
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
___ cartesian grid
Q1
907
macro used by cases 908, 909
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ cartesian grid
Q1
908
Supersonic Flow In Duct - Htot YX
___ NZ = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
___ cartesian grid
Q1
909
Supersonic Flow In Duct - Hsta YX
___ NZ = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
___ cartesian grid
Q1
910
Fanno Flow - Subsonic Inlet
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ cartesian grid
Q1
911
2D Supersonic Rocket Exhaust Plume
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
Q1
921
Square Cavity; Steel Block; Water
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
922
Free Conv.; Steel Block In Water
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
923
Free Conv.; Steel Block In Mercury
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
924
Free Conv.; Steel Block In Glycerine
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
925
As For Case 921, But With Turmod(lvel
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ material indices set via SPEDAT
___ cartesian grid
Q1
926
As For Case 921, But With Turmod(lvel
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ material indices set via SPEDAT
___ cartesian grid
Q1
927
As For Case 923, But With Turmod(lvel
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
928
As For Case 924, But With Turmod(lvel
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
933
HotBox N-W Aper N-S Grav XY-Plane
___ NZ = 1
___ uses volumetric block correction
___ computes heat transfer
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
939
HotBox N-W Aper N-S Grav XY-Plane
___ NZ = 1
___ uses volumetric block correction
___ computes heat transfer
___ Two-scale high-Re model
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
947
Couette Flow VX
___ NY = 1
___ NZ = 1
___ uses volumetric block correction
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ Two-scale high-Re model
___ material indices set via SPEDAT
___ cartesian grid
Q1
951
Couette Flow, Reynolds Number = 10.0
___ NX = 1
___ NZ = 1
___ cartesian grid
Q1
958
Couette Flow, K-EPS, Various RE
___ NX = 1
___ NZ = 1
___ cartesian grid
advanced multi-phase
Q1
p100
FILLING OF A 2D DUCT BY HOL:P100
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p101
FILM FORMATION BY HOL :P101
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p102
SLUMPING OF A LIQUID COLUMN BY HOL:P102
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p103
FALLING WATER JET - HOL METHOD:P103
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p104
FILLING OF A 2D DUCT BY SEM :P104
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p105
FILM FORMATION BY SEM METHOD:P105
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p106
SLUMPING OF A LIQUID COLUMN BY SEM:P106
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p107
FALLING WATER JET - SEM METHOD
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p108
Particle accumulation along duct walls:P
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ involves buoyancy
___ cartesian grid
Q1
p109
3D flow in a channel with an obstacle:P1
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p110
3D flow in a circular pipe: P110
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ involves buoyancy
Q1
p111
SETTLING IN A CIRCULAR PIPE: P111
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NZ = 1
___ involves buoyancy
Q1
p112
Trans. phase separation of gas/liq:P112
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ involves buoyancy
___ cartesian grid
Q1
p113
INCLINED JET-PROP FLOW OVER FLAT BED :P1
___ cylindrical grid
___ NX = 1
___ material indices set via SPEDAT
Q1
p114
ASM 1D SETTLING OF PARTICLES P112
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ involves buoyancy
___ cartesian grid
Q1
p115
ASM Workshop: 2D Separator
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p116
SEM Inflow boundary set with InForm
___ contains Viewer USE commands for displaying results
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
p117
FILLING OF A 2D DUCT BY VOF :P117
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p119
SLUMPING OF A LIQUID COLUMN BY VOF:P119
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p120
FALLING WATER JET - VOF METHOD
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p121
XY Water-Paraffin VOF-CICSAM g-y
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p122
___ contains Viewer USE commands for displaying results
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p123
Case 2D VOF-CICSAM 50 ml/min H2O-CO2
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p126
Test Zalesak disk CICSAM
___ contains Viewer USE commands for displaying results
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
p127
XY Water-Paraffin VOF + surface tension
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p128
XY Water-Paraffin VOF-CICSAM x-y hot
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p129
XY Water-Paraffin VOF-CICSAM x-y hot
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p130
2 drops in a 3 fluid setup
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p131
Liquid lens
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p132
3-phase Droplet Levitation
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p133
2-Phase Rising Bubble
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p134
3 Fluid Dam problem
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p135
VOF Cartes slug Water-kero XY CA 1
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
p136
3-phase Rising Bubble - Case 1
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p137
3-phase Rising Bubble - Case 2
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p138
3-phase Rising Bubble - Case 3
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p200
1D PARTICLE FLOW IN UNIFORM GAS STREAM
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
p201
1D SETTLING OF PARTICLES UNDER GRAVITY
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
p202
1D RISING OF AIR BUBBLES IN WATER
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
p203
1D SOLIDS TRANSPORT IN WATER
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
p204
1D VERTICAL PNEUMATIC CONVEYING
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
p205
1D GAS-PARTICLE FLOW WITH HEAT TRANSFER
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
p206
1D VIRTUAL MASS TEST CASES
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
p207
1DX TRANSIENT SEDIMENTATION
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
p216
1D INTERFACIAL-PRESSURE TEST CASE
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
p217
3D PIPE FLOW TEST OF LIFT FORCES
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
p218
BUBBLY AIR/WATER PIPE- Seriwaza upflow
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ two-phase flow
Q1
p219
AIR-SOLIDS FLOW- No turb. Mods
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ two-phase flow
Q1
p220
2D 2-PHASE BUBBLE-STIRRED GAS LADLE
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
p221
TRONDHEIM BUBBLE COLUMN- K-E turb.
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
p222
2D 2-PHASE HILLS BUBBLE COLUMN
___ time-dependent
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
p300
Water pouring into a bund
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
p301
FLOW IN OPEN TURNAROUND CHANNEL
___ NX = 1
___ body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
p302
recirculation in a stilling pond
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
p303
Flow impingement on a blunt body
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
body-fitted coordinates
Q1
b100
3D grid created by menu
___ body-fitted coordinates
___ cartesian grid
Q1
b101
Bent-pipe grid, created by gset
___ body-fitted coordinates
___ cartesian grid
Q1
b102
Helical-pipe grid, made by DO loop :B102
___ body-fitted coordinates
___ cartesian grid
Q1
b103
Parameterised inclined-plated flow :B103
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses general collocated velocities option
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ material indices set via SPEDAT
___ cartesian grid
Q1
b111
No title has been set for this run.
___ NX = 1
___ NY = 1
___ NZ = 1
___ body-fitted coordinates
___ material indices set via SPEDAT
___ cartesian grid
Q1
b112
No title has been set for this run.
___ NX = 1
___ NY = 1
___ NZ = 1
___ body-fitted coordinates
___ material indices set via SPEDAT
___ cartesian grid
Q1
b113
No title has been set for this run.
___ body-fitted coordinates
___ material indices set via SPEDAT
___ cartesian grid
Q1
b114
No title has been set for this run.
___ body-fitted coordinates
___ material indices set via SPEDAT
___ cartesian grid
Q1
b115
No title has been set for this run.
___ body-fitted coordinates
___ uses general collocated velocities option
___ Chen-Kim high-Re model
___ material indices set via SPEDAT
___ cartesian grid
Q1
b116
No title has been set for this run.
___ NZ = 1
___ body-fitted coordinates
___ uses general collocated velocities option
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b200
Data from ICEM CFD
___ body-fitted coordinates
___ uses multi-block grid
___ uses general collocated velocities option
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
b201
GeoGrid Example
___ body-fitted coordinates
___ uses multi-block grid
___ uses general collocated velocities option
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
b202
Data from ICEM CFD
___ body-fitted coordinates
___ uses multi-block grid
___ uses general collocated velocities option
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
b414
POTENTIAL FLOW AROUND 1/2 CYLINDER: B514
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ darcy flow in porous medium
___ cartesian grid
Q1
b422
Plane transonic flow through a nozzle
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ uses ideal-gas law for density
___ cartesian grid
Q1
b459
CONJ.HEAT TRANS.IN A CURVED DUCT: B459
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses volumetric block correction
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
b510
2-D DIFFUSER ;Y-Z CARTESIAN COORD.: B510
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b511
2-D DIFFUSER ;Y-Z CARTESIAN COORD.: B510
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b512
2-D CURVED DUCT; Y-Z PLANE : B512
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b513
PLANE DUCT + ANGLED SPLITTER PLATE: B513
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b514
POTENTIAL FLOW AROUND 1/2 CYLINDER: B514
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ darcy flow in porous medium
___ cartesian grid
Q1
b515
MAGIC-GENERATED 1/2 CYLINDER GRID: B515
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ darcy flow in porous medium
___ cartesian grid
Q1
b516
POT FLOW OVER ELLIPSE;ALGEBR. GRID: B516
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ darcy flow in porous medium
___ cartesian grid
Q1
b517
POT FLOW OVER ELLIPSE;MAGIC GRID: B517
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ darcy flow in porous medium
___ cartesian grid
Q1
b518
As for 517 with Navier-Stokes Soltn:B518
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b519
FLOW OVER ELLIPSE;MAGIC GRID: B519
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b520
POT. FLOW AROUND A HALF-CYL X-Z: B520
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ darcy flow in porous medium
___ cartesian grid
Q1
b521
POT. FLOW AROUND A HALF-CYL X-Y : B521
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ darcy flow in porous medium
___ cartesian grid
Q1
b522
TRANSONIC FLOW THRU A NOZZLE: B522
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
b523
SUPERSONIC FLOW THRU WEDGE CASCADE: B523
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
b524
MIZUKI radial flow impeller: B524
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ cartesian grid
Q1
b525
FLOW THROUGH A REACTION TURBINE: B525
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ uses isentropic-gas law for density
___ uses EXPERT dynamic relaxation
___ cartesian grid
Q1
b526
Flow in Hobson's cascade : B526
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
b527
PLANE FLOW IN TURNAROUND DUCT: B527
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b528
Flow over a symmetric aerofoil: B528
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b529
External flow over a rocket: B529
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses ideal-gas law for density
___ cartesian grid
Q1
b530
FLOW AROUND A SHIP'S STERN : B530
___ body-fitted coordinates
___ cartesian grid
Q1
b531
2D BODY-SECTION IN A WIND TUNNEL: B531
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b532
DEMONSTRATIONS OF GRID GENERATION: B532
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b533
PLANE CHANNEL + SMOOTH EXPANSION.: B533
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b534
FLOW THROUGH A BALL VALVE : B534
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b536
PRANDTL-MEYER turning in the X-Y: B536
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
b537
TURNAROUND DUCT WITH USER CHOICES :B537
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b538
GSET COMMAND TUTORIAL 1 :B538
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b539
TRANSFER_BETWEEN_TWO_SHAPES : B539
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b540
COPY-ROTATE_EXAMPLE:B540
___ body-fitted coordinates
___ cartesian grid
Q1
b541
CURVATURE_FOR_CAR_BODYB541
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b542
SUB-DOMAIN_SMOOTHINGB542
___ NY = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b543
TIME_SETTINGB543
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
b544
GRID_ON_CIRCLE :B544
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b545
FLOW IN A 180 Deg CURVED DUCT
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ material indices set via SPEDAT
___ cartesian grid
Q1
b546
Pipe flow with two semi-circular blocks
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses volumetric block correction
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b551
macro by case 909
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ uses ideal-gas law for density
___ use special GROUND convgr
___ cartesian grid
Q1
b552
macro by case 909
___ NY = 1
___ body-fitted coordinates
___ uses ideal-gas law for density
___ use special GROUND convgr
___ cartesian grid
Q1
b561
Flow through a circular domain :561
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
b562
POLAR GRID DOWNFLOW V RAD., U AZI. :562
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b563
Viscous flow in a S-shaped duct :563
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b565
Radiused slot entry :565
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b566
Case 1 (WUA-CFD meeting in Basel,1994).
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ RNG high-Re model
___ cartesian grid
Q1
b567
Bent-pipe grid, created by GSET :567
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ solves for VELOCITY POTENTIAL
___ cartesian grid
Q1
b568
Twisted-pipe grid; potential flow :568
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ solves for VELOCITY POTENTIAL
___ cartesian grid
Q1
b569
Flow in a curved pipe :569
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ cartesian grid
Q1
b570
XY Duct, GCV Solver, Skew angle 70.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses general collocated velocities option
___ cartesian grid
Q1
b571
Skewed Cavity, Staggered Solver, Angle =
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b572
Flow around a Cylinder at Re = 40.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses general collocated velocities option
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
b573
Flow around a Cylinder at Re = 40.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses general collocated velocities option
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
b574
Flow around a Cylinder at Re = 40.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b575
Flow past Off-set Cylinders - Staggered
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses volumetric block correction
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b576
Case 1 WUA-CFD Basel,1994 - Staggered
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ RNG high-Re model
___ cartesian grid
Q1
b577
CAR body.
___ body-fitted coordinates
___ uses general collocated velocities option
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b578
Stirred reactor with baffles
___ body-fitted coordinates
___ uses multi-block grid
___ uses general collocated velocities option
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b579
CAR body - Staggered Solver
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b580
IAHR Smooth Channel, Re = 10.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ cartesian grid
Q1
b581
Radiused Slot Entry - Staggered
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b582
Pipe Flow with Unstructured Multi-Block
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses multi-block grid
___ uses general collocated velocities option
___ material indices set via SPEDAT
___ cartesian grid
Q1
b583
3D TURBULENT FLOW IN AN ELBOW METER
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses general collocated velocities option
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b584
Sliding grid test case
___ contains Viewer USE commands for displaying results
___ time-dependent
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses general collocated velocities option
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
b585
Pipe Flow with Multi-Block Grid and LVEL
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses multi-block grid
___ uses general collocated velocities option
___ solves for LTLS
___ computes WALL GAP
___ computes WALL DISTANCE
___ LVEL model
___ material indices set via SPEDAT
___ cartesian grid
Q1
b963
expanding closed 3D box
___ time-dependent
___ body-fitted coordinates
___ involves moving body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
b964
expanding open-ended 2D box
___ time-dependent
___ NY = 1
___ body-fitted coordinates
___ involves moving body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
b965
Moving-bfc test; grid distortion :b965
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ body-fitted coordinates
___ involves moving body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
b966
Expanding sphere :B966
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ body-fitted coordinates
___ involves moving body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
b967
cylinder with grid distortion :B967
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ body-fitted coordinates
___ involves moving body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
b968
Expanding sphere :B968
___ time-dependent
___ body-fitted coordinates
___ involves moving body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
advanced chemistry
Q1
c109
NOX Post-Processing Of Case 481
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ cartesian grid
Q1
c110
2-D Coal Combustion With NOX
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses LONGNAME
___ material indices set via SPEDAT
Q1
c111
3-D Coal Combustion In A Furnace
___ contains PHOTON USE commands for displaying results
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND furngr
___ cartesian grid
Q1
c112
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ uses SCRS option for density
___ cartesian grid
Q1
c113
2-D CH4/AIR combustion+thermal NOX: C113
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses SCRS option for density
Q1
c114
1D coal + wood combustion
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses wood-combustion model
___ uses 7gases option for density
___ chemical sources with Arrhenius model
___ chemical sources
___ cartesian grid
Q1
c115
coal- and wood-burning furnace
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses wood-combustion model
___ uses 7gases option for density
___ chemical sources with Arrhenius model
___ chemical sources
___ cartesian grid
Q1
c116
Low Load, Coal and Wood
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses wood-combustion model
___ uses 7gases option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ chemical sources with Arrhenius model
___ chemical sources
___ material indices set via SPEDAT
___ cartesian grid
Q1
c201
CHEMKIN-1DY Plug Flow H2-O2 Reactor 201
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ uses CHEMKIN option for density
___ cartesian grid
Q1
c202
Plug Flow Reactor, Para. PHOENICS solver
___ NX = 1
___ NY = 1
___ steady parabolic flow
___ computes heat transfer
___ uses CHEMKIN option for density
___ cartesian grid
Q1
c203
CHEMKIN - 0D-Transient Reaction
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ uses CHEMKIN option for density
___ cartesian grid
Q1
c204
CHEMKIN - 1DY Premixed H2-Air Flame
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ uses CHEMKIN option for density
___ Constant-effective-viscosity model
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
c205
CHEMKIN - 1DZ Premixed H2-Air Flame
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ computes heat transfer
___ uses CHEMKIN option for density
___ Constant-effective-viscosity model
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
c206
C206: 1DX Thermal Diffusion Test
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ cartesian grid
Q1
c207
C207: 1DY Thermal Diffusion Test
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ cartesian grid
Q1
c208
C208: 1DZ Thermal Diffusion Test
___ NX = 1
___ NY = 1
___ computes heat transfer
___ cartesian grid
Q1
c209
1DX Simple H2=g2H Reaction Test Case
___ NY = 1
___ NZ = 1
___ uses CHEMKIN option for density
___ cartesian grid
Q1
c210
Thermal Diffusion Test-Case: XY-plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ cartesian grid
Q1
c211
Thermal Diffusion Demo.: YZ-plane
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ computes heat transfer
___ cartesian grid
Q1
c301
Premixed CH4 Combustion
___ cylindrical grid
___ NX = 1
___ uses CHEMKIN option for density
___ uses extended SCRS
Q1
c302
Owen Furnace CH4 Diffusion Flame
___ cylindrical grid
___ NX = 1
___ uses CHEMKIN option for density
___ uses extended SCRS
___ special print-out activated via SPEDAT
Q1
c303
Premixed CO Combustion
___ cylindrical grid
___ NX = 1
___ uses CHEMKIN option for density
___ uses extended SCRS
Q1
c304
Premixed CO And H2 Combustion
___ cylindrical grid
___ NX = 1
___ uses CHEMKIN option for density
___ uses extended SCRS
Q1
c305
Premixed 2Step CH4 Combustion
___ cylindrical grid
___ NX = 1
___ uses CHEMKIN option for density
___ uses extended SCRS
Q1
c306
RADIAN: 2D Turbulent Diffusion Flame
___ cylindrical grid
___ NX = 1
___ uses CHEMKIN option for density
___ uses extended SCRS
Q1
c307
Kent-Bilger H2 Diffusion Flame
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ uses CHEMKIN option for density
___ uses extended SCRS
Q1
c308
CO Diffusion Flame
___ cylindrical grid
___ NX = 1
___ uses CHEMKIN option for density
___ uses extended SCRS
Q1
c309
CH4 Statoil Furnace
___ NX = 1
___ body-fitted coordinates
___ uses CHEMKIN option for density
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses extended SCRS
___ material indices set via SPEDAT
___ cartesian grid
Q1
c310
ke_rf220_106
___ body-fitted coordinates
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
c400
Coke Burning In A Grate Stoker
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
c401
Coal-Fired Boiler
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
c402
Rotary Kiln For Particulate Refuse
___ cylindrical grid
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ involves buoyancy
Q1
c403
Transport Of Toxic Spill
___ NX = 1
___ body-fitted coordinates
___ uses general collocated velocities option
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
c404
Building Fire In Cross-Wind
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
c405
Secondary Combustion Chamber
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
c406
Two-step reaction: 1 fluid
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses ideal-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
c407
Wall-fired model furnace
___ contains PHOTON USE commands for displaying results
___ two-phase flow
___ uses ideal-gas law for density
___ uses PLANT to create extra Fortran coding
___ cartesian grid
GENTRA (particle tracking
Q1
g200
Backward-facing step : G200
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
g201
Spray dryer (BFC=T) : G201
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
g204
Particles in radial impeller: G204
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ cartesian grid
Q1
g205
Particles through a ball valve: G205
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
g207
Sample cup in rain: G207
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
Q1
g209
Particles in 2D curved duct: G209
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses volumetric block correction
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
g210
1D Evaporation of a Water Jet in a Duct
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ uses In-Form STORED command
___ cartesian grid
Q1
g301
Particle heating in pipe : G301
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ cylindrical grid
Q1
g302
HEAT-EXCHANGING, 1-D : G302
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
g303
HEAT-EXCHANGING, 1-D, TRANSIENT: G303
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
g401
SOLIDIFYING,1D,TRANSIENT,M=3.0:G401
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
g403
SOLIDIFYING,1D,TRANS.,L=L(T): G403
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
g405
ISOTHER. SOLIDIFYING,1D,TRANS.:G405
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
g502
PARTICLE EVAPORATING IN PIPE: G502
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ cartesian grid
Q1
g505
Evapor. particl.in spray dryer:G505
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses ideal-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
g506
PARTICLES IN 2D CURVED DUCT: G506
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses volumetric block correction
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
g507
ISOTHER. EVAPORN, CONST PROP'S:G507
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
g508
ISOTHER. EVAPORN, CONST PROP'S:G508
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
g704
Test for tracers in BFC: G704
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ cartesian grid
Q1
g706
Beams in reaction turbine: G706
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ uses isentropic-gas law for density
___ cartesian grid
Q1
g721
Particle bouncing in grav field: G721
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ cartesian grid
Q1
g722
Oblique impingement of box on water: G72
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ involves buoyancy
___ contains properties set by In-Form
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ cartesian grid
multi-block and fine-grid embedding
Q1
f100
CCM : Square cavern (Re=10000.).
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses CCM method
___ cartesian grid
Q1
f101
CCM: Back-facing step (2 layer K-E).
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ uses CCM method
___ solves for LTLS
___ computes WALL DISTANCE
___ Second simple low-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
f102
CCM : Re= 1000.; TET= 45.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses CCM method
___ cartesian grid
Q1
f103
CCM : Laminar convection in Annuli.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses CCM method
___ cartesian grid
Q1
f104
CCM: U-duct (Y-Z plane, Re=1000.).
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses CCM method
___ cartesian grid
Q1
f105
CCM: Swirl-flow (Re=100).
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
f106
CCM-SCHM: X-Y convection in skewed flow.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses CCM method
___ cartesian grid
Q1
f107
CCM : Pressure Drop (X-Y).
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses CCM method
___ cartesian grid
Q1
f108
FGE: Backward facing step with KEMODL mo
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
f109
CCM : Salted water flow.
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ body-fitted coordinates
___ uses CCM method
___ cartesian grid
Q1
f110
CCM : Swirling flow; Lin-expan. (Re=200)
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses CCM method
___ cartesian grid
Q1
f111
CCM : 2D-duct with F(Re)-expansion.
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses CCM method
___ cartesian grid
Q1
f112
CCM: Bay flow (3D,K-E
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ body-fitted coordinates
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
f113
PHOENICS: Swirling flow.
___ NX = 1
___ body-fitted coordinates
___ uses CCM method
___ cartesian grid
Q1
f114
NON-ISOTHERMAL 2D LAMINAR MIXING LAYER
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses CCM method
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
f150
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses CCM method
___ cartesian grid
Q1
f200
MB-FGE: 2D Potential flow over airfoil.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ solves for VELOCITY POTENTIAL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f201
MB-FGE: Heat Conduction in a 5-pointed s
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f202
MB-FGE: Laminar flow between two cylinde
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f203
MBFGE: Flow in cavity (5 blocks).
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f204
MB-FGE: 2D skewed cavity with moving lid
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f205
MB-FGE: 2D Flow Over Back-Step (2L K-E).
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ solves for LTLS
___ computes WALL DISTANCE
___ Second simple low-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
f206
MB-FGE: 2D Continuous Caster Model
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
f207
MB-FGE: 2D Turbulent Flow Inside The 'Ar
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ Second simple low-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f208
MB-FGE: Swirl-flow (Re=100).
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f209
FGEM, Gas Leak Example
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
f210
MB-FGE: Case 1 (WUA-CFD-94, Laminar).
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f211
Linked Tank Assembly
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f212
Multi-block BFC grid for T-junction
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f213
MB-FGE: Laminar flow through 'cyclone'.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f214
MBFGE-SCHM: X-Y convection in skewed flo
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f215
MBFGE: Swirling flow; Lin-expan. (Re=200
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f216
MBFGE: Laminar axisymmetric flow.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
f217
SHOCK TUBE;Ideal-Gas P-Ro relation.
___ time-dependent
___ NY = 1
___ NZ = 1
___ uses CCM method
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
f218
MBFGE: 2D Stirred flow (K-E).
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f219
MBFGE: Flow around rotating disk (Re=1).
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f220
MBFGE: 3D (Re=2000.; K-E) sliding grid.
___ time-dependent
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
f221
MBFGE: 2D Moving 'boxes' (K-E).
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f222
MBFGE: 2 phase 2D X-flow (X-Y plane, Re=
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f223
MBFGE: 2 phase 2D X-flow (X-Y plane, Re=
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f224
MBFGE-2P: Mono-Propellant Combustion.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses multi-block grid
___ uses CCM method
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
f301
Flow over a cylinder (FGEB)
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
f302
FGE: 2D Flow around a square object
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
f303
FGE: Jet flow into a large duct
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ cartesian grid
Q1
f304
FGE: 3D Flow through a rectangular duct
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ cartesian grid
Q1
f305
FGE: 3D Flow around a heated object
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
f306
FGE: Backward Facing Step
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
f307
FGE: Flow over backward facing step
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
f308
FGE: Backward facing step with KEMODL mo
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
f309
Simple f301 (tem1, x-y plane)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f310
Simple f301 (tem1 + uniform u1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f311
Simple f301 (tem1 + heat generation)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f312
f309 for x-z plane
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f313
F310 FOR X-Z PLANE
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f314
F311 FOR X-Z PLANE
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f315
Simple f302 (tem1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f316
Simple f302 (tem1 + uniform u1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f317
Simple f303 (tem1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f318
Simple f303 (tem1 + uniform u1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f319
F317 for X-Z PLANE
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f320
F318 WITH X-Z PLANE
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f321
Simple f304 (tem1, 3D)
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f322
Simple f304 (tem1 + uniform u1, 3D)
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f323
Simple f306 (tem1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f324
Simple f306 (tem1 + uniform u1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ uses outer iterations in FGEM solver
___ cartesian grid
Q1
f325
Simple f307 (tem1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f326
Simple f307 (tem1 + uniform u1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f327
Simple f308 (tem1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f328
Simple (tem1 + uniform u1)
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses In-Form STORED command
___ uses fine-grid-embedding
___ cartesian grid
Q1
f329
3D solution of f309 (Tem1)
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses fine-grid-embedding
___ cartesian grid
Q1
f330
3D solution of f310 (tem1 with uniform u
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses outer iterations in FGEM solver
___ uses fine-grid-embedding
___ cartesian grid
Q1
f400
Two tubes in a semi-rectangular chamber
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
f401
Flame holders in an afterburner
___ NZ = 1
___ uses SCRS option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ chemical sources with eddy-break-up model
___ material indices set via SPEDAT
___ cartesian grid
Q1
f402
Two-phase flow in a bifurcation
___ NZ = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
f403
SUPERSONIC FLOW OVER DIAMOND-SHAPE BODY
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
f404
Longitudinal vortex generators
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
f405
Delta-winglets behind a cylinder
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
multi-fluid turbulence
Q1
l100
WSR, 1D (Reactedness) Population
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l101
WSR, 1D Population; Flowa=0.5
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l102
WSR, 1D Population; RATEXP=5.
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l103
AWSR transient, conmix=100. conrea=1.
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses multi-fluid turbulence model
___ contains sources set by In-Form
___ cartesian grid
Q1
l110
2d population, steady; case L110
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l113
2d Population, Transient, L113
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l220
1D Flame Propgn; Conmix=1. Conrea=0.025
___ NY = 1
___ NZ = 1
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l230
MFM; 1dsmoke; conmix=5.
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ uses SCRS option for density
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l231
MFM; 1dsmoke; conmix=5.
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ activates IMMERSOL
___ uses SCRS option for density
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l300
10-Fluid Model Of Mixing Layer; Conmix=5
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ uses dollar: source=(VAL-PHI)*CO*NAME patch
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l301
1d ocean layer; 2d pop. ; v + w as PDAs
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l302
Round Jet; MFM; parabolic
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ uses dollar: source=(VAL-PHI)*CO*NAME patch
___ contains properties set by In-Form
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ uses multi-fluid turbulence model
Q1
l303
Round Jet; MFM; parabolic
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ steady parabolic flow
___ uses dollar: source=(VAL-PHI)*CO*NAME patch
___ contains properties set by In-Form
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ uses multi-fluid turbulence model
Q1
l304
K-EP:KH instability
___ time-dependent
___ NZ = 1
___ involves buoyancy
___ uses In-Form STORED command
___ uses multi-fluid turbulence model
___ cartesian grid
Q1
l310
Round Jet; MFM; parabolic
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ uses dollar: source=(VAL-PHI)*CO*NAME patch
___ uses In-Form STORED command
___ contains properties set by In-Form
___ uses multi-fluid turbulence model
Q1
l400
2D Combustor With Smoke Generation
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses SCRS option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains lines to be read by EARTH via READQ1
___ contains properties set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ uses LONGNAME
___ uses multi-fluid turbulence model
___ material indices set via SPEDAT
Q1
l401
Case 400 With Enlarged EBU Constant, Viz
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses SCRS option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains lines to be read by EARTH via READQ1
___ contains properties set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ uses LONGNAME
___ uses multi-fluid turbulence model
___ material indices set via SPEDAT
Q1
l500
MFM; Stirred Tank; Conmix=5.
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
___ uses In-Form STORED command
___ uses multi-fluid turbulence model
Q1
l501
MFM; Stirred Tank; Nfluids = 21
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
___ uses In-Form STORED command
___ uses multi-fluid turbulence model
Q1
l502
MFM; Stirred Tank; Conmix=50.
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
___ uses In-Form STORED command
___ uses multi-fluid turbulence model
Q1
l530
MFM; 3D Cmbstr; Conmix=5.
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses SCRS option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains lines to be read by EARTH via READQ1
___ contains properties set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ uses LONGNAME
___ uses multi-fluid turbulence model
___ material indices set via SPEDAT
Q1
l600
MFM; 3D Cmbstr; Conmix=5.
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ uses SCRS option for density
___ contains lines to be read by EARTH via READQ1
___ contains properties set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ uses LONGNAME
___ uses multi-fluid turbulence model
___ material indices set via SPEDAT
Q1
l999
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
non-Newtonian
Q1
j100
100 2d pipe flow - Power-law fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes WALL DISTANCE
___ solves for LTLS
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
Q1
j101
101 2d pipe flow - Sisko Power-Law fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes WALL DISTANCE
___ solves for LTLS
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
j102
102 2d pipe flow - Cross fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
j103
103 2d Pipe flow - Carreau-fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
j104
104 2d Pipe flow - Carreau-Yusada fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
j105
105 2d pipe flow - Powell-Eyring fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes WALL DISTANCE
___ solves for LTLS
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
Q1
j106
106 2d pipe flow - Ellis fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes WALL DISTANCE
___ solves for LTLS
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
j107
107 2d pipe flow - Bingham-plastic fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
Q1
j108
108 2d pipe flow-Bingham-Pl-Papan. fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
Q1
j109
109 2d pipe flow-Herschel-Bulkley fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes WALL DISTANCE
___ solves for LTLS
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
j110
110 2d pipe flow-Hers.-Bulk.-Papan.fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes WALL DISTANCE
___ solves for LTLS
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
j111
111 2d pipe flow - Casson fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes WALL DISTANCE
___ solves for LTLS
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
j112
112 2d pipe flow - Casson-Papan. fluid
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes WALL DISTANCE
___ solves for LTLS
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
j113
113 Heat transfer to molten polymer flow
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ computes WALL DISTANCE
___ solves for LTLS
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ In-Form STORED command uses SUM(
___ contains initial values set by In-Form
Q1
j114
114 3D SPARSOL Pipe Flow-1Power-Law
___ contains Autoplot USE commands for displaying results
___ computes WALL DISTANCE
___ computes heat transfer
___ solves for LTLS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
j115
115 3D SPARSOL Pipe Flow-2Carreau-Yusada
___ contains Autoplot USE commands for displaying results
___ computes heat transfer
___ computes WALL DISTANCE
___ solves for LTLS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
j116
116 3D SPARSOL Pipe Flow-3Carreau-Yusada
___ contains Autoplot USE commands for displaying results
___ computes heat transfer
___ computes WALL DISTANCE
___ solves for LTLS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
j117
117 3D SPARSOL Pipe Flow-4 Cross
___ contains Autoplot USE commands for displaying results
___ computes heat transfer
___ computes WALL DISTANCE
___ solves for LTLS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
advanced numerical algorithms
Q1
n101
YX DIAGONAL SCALAR CONVECTION :N101
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses LONGNAME
___ cartesian grid
Q1
n102
YX LAMINAR WALL-DRIVEN CAVITY
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ cartesian grid
Q1
n103
YX LAMINAR BACKWARD-FACING-STEP FLOW
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ cartesian grid
Q1
n104
YX SCALAR CONVECTION WITH RECIRCULATION
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ cartesian grid
Q1
n105
YX TURBULENT BACKWARD-FACING-STEP FLOW
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses conjugate-gradient solver
___ material indices set via SPEDAT
___ cartesian grid
Q1
n106
2DXZ LAMINAR WALL-DRIVEN CAVITY
___ NY = 1
___ cartesian grid
Q1
n107
2DXZ TURBULENT BKWRD FACING STEP: N107
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n108
2DYX LAMINAR FLOW OVER A FENCE: N108
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ cartesian grid
Q1
n109
2D BFC LAMINAR WALL-DRIVEN CAVITY
___ NY = 1
___ body-fitted coordinates
___ cartesian grid
Q1
n110
2D TURBULENT FLOW THROUGH AN ORIFICE
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses LONGNAME
___ material indices set via SPEDAT
Q1
n111
1D SHOCK-FREE TRANSONIC NOZZLE FLOW
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ cartesian grid
Q1
n112
1D SHOCKED TRANSONIC FLOW IN A LAVAL NOZ
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
___ cartesian grid
Q1
n113
2D TRANSONIC UNDEREXPANDED JET: N113
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
Q1
n114
2D BLUFF-BODY STABILISED METHANE JET
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ use special GROUND convgr
Q1
n115
YX BFC DIAGONAL SCALAR CONVECTION
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ cartesian grid
Q1
n116
YX BFC UNIFORM FLOW THROUGH A BOX
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ cartesian grid
Q1
n117
YX BFC UNIFORM FLOW ACROSS SKEWED BOX
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ cartesian grid
Q1
n121
point source, various schemes
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses LONGNAME
___ cartesian grid
Q1
n122
point source, best schemes + CLDA
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses Conservative Low-Dispersion Algorithm
___ uses LONGNAME
___ cartesian grid
Q1
n131
YX DIAGONAL SCALAR CONVECTION :N101
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses LONGNAME
___ cartesian grid
Q1
n201
CORE CASE 290 WITH JACB SOLVER :N201
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n202
CORE CASE 290 WITH GASD SOLVER :N202
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n203
CORE CASE 290 WITH ORLU SOLVER :N203
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n204
CORE CASE 290 WITH MSIP SOLVER :N204
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n205
CORE CASE 290 WITH CRGR SOLVER :N205
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n206
CORE CASE 290 WITH JACD SOLVER :N206
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n207
CORE CASE 290 WITH JACR SOLVER :N207
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n208
CORE CASE 290 WITH LUCG SOLVER :N208
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n209
CORE CASE 290 WITH LUCR SOLVER :N209
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n210
CORE CASE 290 WITH LACM SOLVER :N210
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n211
CORE CASE 290 WITH MACM SOLVER :N211
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n212
CORE CASE 290 WITH ALCM SOLVER :N212
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n213
CORE CASE 290 WITH AMCM SOLVER :N213
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
n301
GXCLDA tests : N301
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses Conservative Low-Dispersion Algorithm
___ contains lines to be read by EARTH via READQ1
___ cartesian grid
Q1
n401
___ NZ = 1
___ cartesian grid
Q1
n402
___ NZ = 1
___ cartesian grid
Q1
n403
___ NX = 1
___ cartesian grid
Q1
n404
___ NX = 1
___ cartesian grid
Q1
n405
___ NX = 1
___ cartesian grid
Q1
n406
___ NX = 1
___ cartesian grid
Q1
n407
___ cartesian grid
PLANT
Q1
z100
SQUARE CAVITY WITH MOVING LID:Z100
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z101
XYLEN FLOW IN CONV.-DIV, DUCT: Z101
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z102
VEHICULAR EXHAUST DISPERSION IN RAINFALL
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z103
PHASE DISTRIBUTION IN A SMOOTH EXPANSION
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ two-phase flow
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z104
2D UNSTEADY DIFFUSION PROBLEM:Z104
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ uses conjugate-gradient solver
___ cartesian grid
Q1
z105
ABSORPTIVE DISPERSAL WITH STEP-TIME DEPE
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z106
FREEZING WATER IN A LID-DRIVEN CAVITY:Z1
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z107
2D CHANNEL FLOW WITH LINEAR INLET PROFIL
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z108
3D STEADY HEAT CONDUCTION IN A CUBE:108
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z109
RECIRCULATION IN A STILLING POND:109
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z110
3D SHELL-AND-TUBE HEAT EXCHANGER:110
___ contains PHOTON USE commands for displaying results
___ uses neighbour patch (name = NE...)
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z111
ABSORPTIVE DISPERSAL WITH TIME DEPENDENT
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z112
COMPLEX CONVECTION DEPENDENT SOURCE:112
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z113
NON-ISOTHERMAL COUETTE FLOW:113
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z114
BRIDGED PIPE HEAT TRANSFER:114
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ uses PLANT to create extra Fortran coding
Q1
z115
SELF-STEERING UNDER-RELAXATION
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z116
Flow in stirred 3D vessel
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z117
2D HEAT CONDUCTION WITH SPACE DEPENDENT
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z118
3D DIFFUSION PROBLEM:118
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z119
2D UNSTEADY DIFFUSION PROBLEM:119
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z120
2D CONVECTIVE-DIFFUSION PROBLEM:120
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z121
1D uniform flow dispersion:121
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z122
3D SHELL-AND-TUBE HEAT EXCHANGER:122
___ contains PHOTON USE commands for displaying results
___ uses neighbour patch (name = NE...)
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z123
CONJUGATE HEAT TRANSFER IN THICK-WALLED
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses PLANT to create extra Fortran coding
Q1
z124
NATURAL STIRRING IN A STABLY FLUID:124
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses PLANT to create extra Fortran coding
Q1
z126
Soil-water flow in a curved channel:126
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ two-phase flow
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z127
Polysized heavy aerosol dispersion:127
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z128
NATURAL STIRRING IN A STABLY FLUID:124
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses PLANT to create extra Fortran coding
Q1
z129
NATURAL CONVECTION BETWEEN FLAT PLATES:1
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z130
BENCHMARK CASE OF MIXED CONVECTION:130
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z131
NATURAL CONVECTION IN POROUS MEDIA:131
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z132
COMPLEX CHEMISTRY EXAMPLE:132
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z133
Three component mixing of different gase
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ uses SCRS option for density
___ uses PLANT to create extra Fortran coding
Q1
z134
Natural cooler in a still atmosphere:134
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z135
3D SHELL-AND-TUBE HEAT EXCHANGER:135
___ contains PHOTON USE commands for displaying results
___ uses neighbour patch (name = NE...)
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z136
FLOW IN A MODEL FURNACE:136
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z137
CANOPY-GENERATED SECONDARY FLOW:137
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z138
VEHICULAR EXHAUST DISPERSION IN SNOW FAL
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z139
FIRE INSIDE BUILDING ARRAY:139
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z140
HEAT TRANSFER IN ABRUPT ENLARGEMENT AT P
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses PLANT to create extra Fortran coding
Q1
z141
EXHAUST DISPERSION IN THE STREET:141
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z142
EXHUAST DISPERSION NEAR TOWER BLOCK:142
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z143
PHASE DISTRIBUTION IN A DUCT:143
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ two-phase flow
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z144
ON-LINE WIND TURBINES:144
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z145
CO-LOCATED VELOCITY CALCULATION:145
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z146
Slumping of a liquid column by SEM meth
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z147
WALL DISTANCE CALCULATOR:147
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z244
Laminar pipe flow with non-linear resist
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses PLANT to create extra Fortran coding
Q1
z250
Flow straightened by vanes + resistances
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z251
Steady lam. fl. prop.; const=(1+y)*0.2
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z252
4fl fl prp; rconst=1.; mconst=0.5
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z350
VENTS LINKED TO REMOTE DETECTOR
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ involves buoyancy
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z450
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z451
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z452
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z453
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z454
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z455
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z456
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z457
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z458
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z459
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z500
3D grid of star-shaped cross section
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z501
3D corrugated circular pipe
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z502
3D S-shaped circular pipe
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z503
3D helically coiled pipe
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z504
Epicycloidal pipe
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z505
3D hypocycloidal beam
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z506
3D periodically enlarged pipe
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z507
3D snail-like chamber
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z508
3D hill-like shell
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z509
3D igloo
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z510
3D chamber with cut cylinder
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z511
2D zigzag channel
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z512
2D periodically broken channel
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z513
2D converging-diverging channel
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z514
Viscous flow in converging-diverging ch
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z515
Flow in gradually corrugated channel
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z601
Drilling star-shaped space
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z602
DRILling BOX: CARTES =T
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z603
DRILling CYLINDER: CARTES=F
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ uses PLANT to create extra Fortran coding
Q1
z604
HEXAGON 2D : SFT ANALYSIS FOR A MODEL
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ uses PLANT to create extra Fortran coding
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
z605
Five examples initialization box
___ contains PHOTON USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z607
Analytical BFC grids : 2D sample-kit.
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z608
Analytical BFC grids : 3D sample-kit.
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z609
Gradually corrugated channel
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ body-fitted coordinates
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z610
Unsteady mixing in two paddle-stirred r
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z611
2D Stress in solid, XY plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z612
SQUARE CAVITY WITH MOVING LID:Z100
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z613
Global and self-steering under-relaxatn
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z614
Conjugate heat transfer of rotating obj
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ uses PLANT to create extra Fortran coding
Q1
z615
Inlet flux scaling: swirling flow in a c
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z616
CONFINED JET FLOW: 17 FLUID MFM
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses PLANT to create extra Fortran coding
Q1
z617
2dxy uniform heating.
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ uses PLANT to create extra Fortran coding
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
z618
Block passing through orifice
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z619
TIME STEP CALCULATIONS
___ time-dependent
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z620
Idealised Gas-Turbine Combustion Chamber
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ uses SCRS option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ contains lines to be read by EARTH via READQ1
___ contains properties set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ uses LONGNAME
___ material indices set via SPEDAT
Q1
z621
Alteration of convection fluxes
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z622
Expanding and contracting the grid
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z623
Plane Jet;Mixing Length Model;Para
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ Prndtl Mixing-Length model
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z711
1D Fine coal-particle combustion
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z712
Convection-only steady combustion of CO
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z713
Combustion of packed bed of coke
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z714
Ore reduction in a packed bed
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z721
Combustion-driven coke flow
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
Q1
z722
Fines-and-coke-combustion-driven solid f
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z723
Combustion-fusion-driven solid flow
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z731
Combustion-melting-driven ore/coke mixtu
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z741
Combustion-driven raceway :coal fines an
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z742
Coal fines flame in a coke bed: raceway
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
z751
SAFIR 2D: blast furnace model
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z761
System level coke combustion simulation
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
z762
Environmental level coke combustion simu
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
advanced radiation
Q1
r100
CVD REACTOR RADIATION EXAMPLE : R100
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
r101
CVD REACTOR RADIATION EXAMPLE(BFC): R101
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
r102
LAMINAR FLOW BETWEEN PARALLEL PLATE:R102
___ contains Viewer USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
r103
TURB. FLOW BETWEEN PARALLEL PLATE: R103
___ contains Viewer USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
r105
1-D Y-DIRECTION SHELL SURFACE: R105
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
r107
1-D Y-DIRECTION SOLID SURFACE : R107
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ star-name patch: source=CO*PHI*NAME**VAL
___ material indices set via SPEDAT
___ cartesian grid
Q1
r108
1-D Y-DIRECTION SHELL SURFACE: R108
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
r111
1-D FIXED SURFACE TEMPERATURE : R111
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r113
1-D FIXED-FLUX FLUID SURFACE : R113
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
r114
1-D FIXED-FLUX SOLID SURFACE : R114
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r115
1-D CARTESIAN Y-DIRECTION : R115
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r116
1-D SOLID-FLUID-SOLID SET-UP: R116
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r118
1-D THIN PLATE : R118
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ cartesian grid
Q1
r119
1-D TRANSIENT : R119
___ contains Viewer USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r120
SQUARE CAV. WITH MOVING LID + RADI:R120
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
r121
1D RADIATIVE EQUILIBRIUM IN SLAB : 121
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ uses In-Form STORED command
___ cartesian grid
Q1
r122
1D RADIATION+HEAT SOURCE IN A SLAB:122
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ cartesian grid
Q1
r123
1D RADIATION+HEAT SOURCE IN A TUBE:123
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
Q1
r124
BFC RADIATION+HEAT SOURCE IN A TUBE:124
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r125
BFC RADIATION+HEAT SOURCE IN A SLAB:125
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ cartesian grid
Q1
r190
Gateway to IMMERSOL library cases
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
r193
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
r194
___ NZ = 1
___ cartesian grid
Q1
r195
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
r196
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
r197
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
r198
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
r199
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
r200
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
r201
IMMERSOL 1D transparent medium :201
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ material indices set via SPEDAT
___ cartesian grid
Q1
r202
IMMERSOL 1D Radiative equilibrium :202
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ material indices set via SPEDAT
___ cartesian grid
Q1
r203
IMMERSOL 1D Radiative equilibrium :203
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r204
2D TEM1 + T3, Participating gas
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
r205
3D TEM1 + T3, Participating ideal gas :2
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ material indices set via SPEDAT
___ cartesian grid
Q1
r206
IMMERSOL-WALL 1D for TEM1 + T3. :206
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ cartesian grid
Q1
r207
IMMERSOL-WALL 1D for H1-T3. :207
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ uses In-Form STORED command
___ cartesian grid
Q1
r208
IMMERSOL- 1D fixed flux through domain
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ cartesian grid
Q1
r209
2D radiative heat exchange,TEM1 + T3:209
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
r210
2D radiative heat exchange,H1 + T3:210
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
r211
2D radiative heat exchange, + SCRS :211
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ uses SCRS option for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ chemical sources with eddy-break-up model
___ material indices set via SPEDAT
___ cartesian grid
Q1
r212
IMMERSOL-SCRS 2D model of burner :212
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ Q1 is used as PROPS file via MATFLG entries
___ chemical sources with eddy-break-up model
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
r213
IMMERSOL-SCRS 2D model of burner :213
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ Q1 is used as PROPS file via MATFLG entries
___ chemical sources with eddy-break-up model
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
r214
IMMERSOL-SCRS 2D model of burner :214
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ Q1 is used as PROPS file via MATFLG entries
___ chemical sources with eddy-break-up model
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
r220
IMMERSOL: empty box; fixed wall temps
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ activates IMMERSOL
___ material indices set via SPEDAT
___ cartesian grid
Q1
r221
IMMERSOL 1D between thick conducting wal
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
r222
IMMERSOL 1D Radiative equilibrium :202
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
r230
No title has been set for this run.
___ NY = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r231
No title has been set for this run.
___ NY = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r232
No title has been set for this run.
___ NX = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r233
No title has been set for this run.
___ NX = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r234
No title has been set for this run.
___ NX = 1
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r235
No title has been set for this run.
___ NX = 1
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r236
No title has been set for this run.
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r237
No title has been set for this run.
___ NY = 1
___ NZ = 1
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r238
No title has been set for this run.
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r239
No title has been set for this run.
___ NY = 1
___ NZ = 1
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r240
No title has been set for this run.
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r241
No title has been set for this run.
___ NY = 1
___ NZ = 1
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r242
No title has been set for this run.
___ NZ = 1
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r243
No title has been set for this run.
___ NZ = 1
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r244
No title has been set for this run.
___ NX = 1
___ NY = 1
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
r245
No title has been set for this run.
___ NX = 1
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ solves for LTLS
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
r333
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ material indices set via SPEDAT
___ cartesian grid
Q1
r400
IMMERSOL for heat-treatment furnace
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
r401
A Radiant Heater Panel
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ cartesian grid
Q1
r402
Buoyancy-induced cooling of a radiating
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
r403
Heat treatment in a direct-fired furnace
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ uses SCRS option for density
___ chemical sources with eddy-break-up model
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ cartesian grid
Q1
r404
Thermal radiation in a compartment fire
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ uses SCRS option for density
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ cartesian grid
Q1
r405
Convection affected by radiation
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
r406
Lid-driven flow in a radiating cavity
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ cartesian grid
Q1
r407
Radiative oven
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ cartesian grid
Q1
r408
A stove with significant radiation
___ contains PHOTON USE commands for displaying results
___ uses SCRS option for density
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
r409
Wall-fired model furnace: P-1 radiation
___ contains PHOTON USE commands for displaying results
___ two-phase flow
___ uses ideal-gas law for density
___ uses PLANT to create extra Fortran coding
___ cartesian grid
stresses in solids
Q1
s101
Cube in X-direction tension; S101
___ NY = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s102
Cube in Y-direction tension; S102
___ NX = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s103
CUBEINX-DIRECTIONTENSION
___ NX = 1
___ NY = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s104
Pressurised long cylinder; 1Dy
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ material indices set via SPEDAT
Q1
s105
bent beam; engineer's theory;s105
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ uses LONGNAME
___ material indices set via SPEDAT
___ cartesian grid
Q1
s106
Stress in a rotating disk; 1Dy
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
s111
bent beam in plane strain; s220
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses LONGNAME
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s200
2D Plate with polynomial stress function
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ uses LONGNAME
___ cartesian grid
Q1
s201
2D xy Plate with square hole; s201
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses LONGNAME
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s202
2D xy Plate with CIRCULAR hole; s202
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ contains sources set by In-Form
___ uses LONGNAME
___ uses In-Form STORED command
___ cartesian grid
Q1
s203
Polar Plate with CIRCULAR hole
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
Q1
s204
2D xy 2-material plate in tension; s204
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s205
2D xz plate in z-direction tension; s205
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses LONGNAME
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s206
2D yz-plate in z-direction tension; s206
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses LONGNAME
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s208
2D xy 2-material plate in tension; s208
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s209
2D xy plate in compression; two material
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses LONGNAME
___ material indices set via SPEDAT
___ cartesian grid
Q1
s210
2D xy Plate of two materials + TEM; s210
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ uses LONGNAME
___ material indices set via SPEDAT
___ cartesian grid
Q1
s211
2D bent beam in plane strain; s211
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses LONGNAME
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s212
Plate; 2D[xy]
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s220
bent beam in plane strain; s220
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s221
square channel;2D[xy]
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s222
Pressurised long cylinder [X,Y]
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
s223
Pressurised long cylinder [R,Z]
___ cylindrical grid
___ NX = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
s224
Pressurised cylinder [R,Z] with Hole
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ material indices set via SPEDAT
Q1
s225
Pressurised cylinder [R,Z] with Hole and
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
s226
Centre-Heated, Edge-Cooled Block
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ computes heat transfer
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s227
Multi-Physics. Reyno= 1000. Unit=12
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL GAP
___ computes WALL DISTANCE
___ activates IMMERSOL
___ computes heat transfer
___ LVEL model
___ computes stresses and strains in solids
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ uses LONGNAME
___ material indices set via SPEDAT
___ cartesian grid
Q1
s228
Pressurised long cylinder [X,Y]
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
s230
Plate with square hole;2D[xy]
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s240
square channel;2D[xy]
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s242
square channel;2D[xy]
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s250
square channel + TEM1;2D[xy]
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s251
Plate with square hole;2D[xy]
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s252
square channel + TEM1;2D[xy]
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s254
square channel + TEM1;2D[xy]
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s258
Plate of two Horizontal materials; 2D[xy
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s259
Plate of two Vertical materials; 2D[xy]
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s260
BiPlate of two materials + TEM; 2D[xy]
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s261
Stress in a rotating disk; 2D[x,y]
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
s262
Model of turbine rotor
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ material indices set via SPEDAT
Q1
s263
Model of turbine rotor with big Blades
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ material indices set via SPEDAT
Q1
s301
3D Prismatic bar + gravity force; s301
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s302
1/2/3D thermal stress in a cub; s302
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains initial values set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s303
3D block in y-direction compression
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses LONGNAME
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s304
3D TORSION of beam; s304
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s305
3D TORSION of thin Beam; s305
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s307
3D block in y-direction compression; s30
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses LONGNAME
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s351
3D Prismatic bar + gravity force
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s352
1/2/3D thermal stress in a cube; s352
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains initial values set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s401
2D Flow Past A Bent Solid Plate; S401
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ plate porosity set via SPEDAT
___ uses In-Form STORED command
___ cartesian grid
Q1
s402
2D Flow Past A Bent Solid Plate; S402
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ plate porosity set via SPEDAT
___ uses In-Form STORED command
___ cartesian grid
Q1
s501
cube in x-direction tension
___ NY = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ uses LONGNAME
___ material indices set via SPEDAT
___ cartesian grid
Q1
s502
cube in y-direction tension
___ NX = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ uses LONGNAME
___ material indices set via SPEDAT
___ cartesian grid
Q1
s504
Pressurised long cylinder; 1Dy
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ contains lines to be read by EARTH via READQ1
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
s508
USP: Stress in a 2D rotating disk; S508
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s511
USP: 2D xy plate in tension;U501
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s512
USP: 2D xy Hot Bi-metallic plate
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s513
USP.USP: 2D Plate in tension with FY=var
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s514
USP:2D xy Plate with CIRCULAR hole; us20
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ contains sources set by In-Form
___ cartesian grid
Q1
s515
USP: 2D xy Plate with square hole; U505
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s516
USP: Cooled long cylinder
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s517
USP: Pressurised long cylinder;U507
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s518
USP: Stress in a 2D rotating disk; S508
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s550
3D Thermal Stress In BLADE
___ computes heat transfer
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s600
2D Plate with polynomial stress function
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s601
2D xy Plate with square hole; S601
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s602
mechanical stress in a cube
___ NX = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s603
Polar Plate with CIRCULAR hole
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
Q1
s604
2D xy 2-material plate in tension; S604
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s605
2D xy plate in y-direction tension; S605
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s606
THERMal stress in a cube
___ NX = 1
___ NY = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s622
Pressurised long cylinder [X,Y]
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ material indices set via SPEDAT
Q1
s624
Pressurised long cylinder with hole;S624
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
s630
Cooled long cylinder [polar]
___ cylindrical grid
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
Q1
s631
Cooled long cylinder [Cartesian]
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s660
Bi-Metalic Plate of two materials + TEM
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s661
Stress in a rotating 2D[x,y] disk; S661
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
Q1
s662
Model of turbine rotor; S662
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses ROTOR VR Object
___ material indices set via SPEDAT
Q1
s670
Wave in 1DX free beam; S670
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains initial values set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s671
Wave in fixed 1D x beam; S671
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s672
2D wave in "T" beam; S672
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s673
Free wave in 2D "tuning-fork" model; S67
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s674
The steep propagating 1DY wave; S674
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s675
The steep propagating 2DXY wave; S675
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s698
Cartesian Pressurised long cylinder;S699
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s699
Cartesian Pressurised long cylinder;S699
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s701
3D Prismatic bar + gravity force; s701
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s702
1/2/3D thermal stress in a cub; s302
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ contains initial values set by In-Form
___ uses In-Form STORED command
___ contains sources set by In-Form
___ cartesian grid
Q1
s703
3D block in y-direction compression
___ contains PHOTON USE commands for displaying results
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses LONGNAME
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s704
3D TORSION of beam; s704
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s705
3D TORSION of thin Beam; s705
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s799
2D VR-bar + gravity force; s799
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s801
2D Fluid flow around an beam; S801
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s802
Thermal Stress In Heated/Cooled Block
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
s803
2D Fluid flow around an elastic beam;S80
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s804
heat exchanger with stress
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ material indices set via SPEDAT
Q1
s901
Steady 2DXY Piezoelectric; S901
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s902
Full Steady 2DXY Piezoelectric; S902
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
Q1
s903
Transient 2DXY Piezoelectric; S903
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ time-dependent source set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
s999
Steady 2DXY Piezoelectric; S903
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ cartesian grid
advanced turbulence
Q1
t100
CHEN-KIM K-E_1D PLANE COUETTE FLOW :T100
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ uses In-Form STORED command
___ cartesian grid
Q1
t101
CHEN-KIM K-E DEVELOPED CHANNEL FLOW:T101
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ Chen-Kim high-Re model
___ uses fully-developed-flow option
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
t102
REAL K-E_1D DEVELOPED PIPE FLOW:T102
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ uses fully-developed-flow option
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
Q1
t103
K-W_BKWRD FACING STEP Y-X :T103
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t104
CHEN KIM K-E MODEL_PARAB PLANE JET :T104
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ Chen-Kim high-Re model
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
t105
CHEN KIM K-E MODEL_PARAB ROUND JET :T105
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ Chen-Kim high-Re model
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
Q1
t106
RNG KE-2D FLOW IN TURNAROUND DUCT :T106
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ RNG high-Re model
___ uses In-Form STORED command
___ cartesian grid
Q1
t107
T107:KE-2D TRANSONIC UNDEREXPANDED JET
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ uses ideal-gas law for density
___ use special GROUND convgr
Q1
t110
K-W_BKWRD FACING STEP Y-Z :T110
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t200
VAN DRIEST_1D PLANE COUETTE FLOW :T200
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ Prndtl Mixing-Length model
___ cartesian grid
Q1
t201
VAN DRIEST_1D DEVELOPED PIPE FLOW :T201
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ Prndtl Mixing-Length model
Q1
t202
VAN DRIEST_2D PARAB BOUNDARY LAYER :T202
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ Prndtl Mixing-Length model
___ cartesian grid
Q1
t204
VAN DRIEST_2D-YX ELLIP CHANNL FLOW :T204
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ Prndtl Mixing-Length model
___ cartesian grid
Q1
t205
LAM-BRE KE_1D PLANE COUETTE FLOW :T205
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ Lam=Bremhorst-Re model
___ uses In-Form STORED command
___ cartesian grid
Q1
t206
LAM-BRE KE_1D DEVEL CHANNL FLOW :T206
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ Lam=Bremhorst-Re model
___ uses fully-developed-flow option
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
t207
Wilcox 1988 K-W_1D DEVELOPED PIPE FLOW:T
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ Wilcox-Kolmogorov low-Re model
___ Q1 is used as PROPS file via MATFLG entries
___ uses fully-developed-flow option
___ uses In-Form STORED command
___ In-Form STORED command uses SUM(
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ material indices set via SPEDAT
Q1
t208
Low-Re LB k-e BF Step Y-X :T208
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ Lam=Bremhorst-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t211
LAM-BRE K-E_2D PARABOLIC PIPE FLOW :T211
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ solves for LTLS
___ computes WALL DISTANCE
___ Lam=Bremhorst-Re model
Q1
t212
LAM-BRE K-E_2D PARAB BNDRY LAYER :T212
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ solves for LTLS
___ computes WALL DISTANCE
___ Lam=Bremhorst-Re model
___ cartesian grid
Q1
t213
SST k-w__2D ABRUPT PIPE EXPANS :T213
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ material indices set via SPEDAT
Q1
t214
LRN KW SST-2D TURNAROUND-DUCT FLOW:T214
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ solves for LTLS
___ computes WALL DISTANCE
___ Chen-Kim high-Re model
___ uses In-Form STORED command
___ cartesian grid
Q1
t215
LAM-BRE_2D Y-Z NOPOR CHANNEL TEST :T215
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ Lam=Bremhorst-Re model
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
t216
LAM-BRE_2D Y-Z POROS CHANNEL TEST :T216
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ Lam=Bremhorst-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t217
LAM-BRE_2D Y-Z CONJ CHANNEL TEST :T217
___ NX = 1
___ computes heat transfer
___ uses volumetric block correction
___ computes WALL DISTANCE
___ solves for LTLS
___ Lam=Bremhorst-Re model
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
t218
LoRe LB K E YAP_2D IMPINGING ROUND JET
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ Lam=Bremhorst-Re model
___ uses In-Form STORED command
Q1
t219
2D Turb. Buoyant Cavity Flow K-E:T219
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ uses density linear in 1/Tabs
___ Lam=Bremhorst-Re model
___ involves buoyancy
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ In-Form STORED command uses SUM(
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
t300
2D Turbulent Free Convection In A Cavity
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ uses density linear in 1/Tabs
___ Lam=Bremhorst-Re model
___ involves buoyancy
___ cartesian grid
Q1
t301
KE-2D BLUFF-BODY STABILISED METHANE JET
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ use special GROUND convgr
___ uses In-Form STORED command
___ contains sources set by In-Form
Q1
t302
T302: Wilcox 1988 k-w Orifice-Plate Flow
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
t303
YAP_KE 2D IMPINGING ROUND JET: T303
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ solves for LTLS
___ computes WALL DISTANCE
Q1
t304
CK KE_1D PIPE POWER-LAW FLUID :T304
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ CHEN-Kim low-Re model
___ uses fully-developed-flow option
Q1
t305
KE_PIPE FLOW OF A BINGHAM FLUID: T305
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ uses fully-developed-flow option
Q1
t306
2D KE ATMOSPHERIC BOUNDARY LAYER: T306
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ cartesian grid
Q1
t307
RK K-E SQUARE RIB FLOW :T307
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t308
RK K-E SURFACE CUBE FLOW :T308
___ contains Autoplot USE commands for displaying results
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t309
Realisable KE_2D Elliptic Round Free Jet
___ cylindrical grid
___ NX = 1
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
Q1
t310
Realisable KE_2D Elliptic Plane Jet
___ NX = 1
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
t311
Realisable_KE Blunt Flat Plate:T311
___ contains Autoplot USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t312
NEUTRAL ABL WIND FLOW - K-F MODEL: T312
___ contains initial values set by In-Form
___ cartesian grid
Q1
t313
NEUTRAL ABL WIND FLOW - K-E MODEL: T313
___ contains initial values set by In-Form
___ cartesian grid
Q1
t314
NEUTRAL ABL WIND FLOW-REAL.K-E MOD:T314
___ contains initial values set by In-Form
___ cartesian grid
Q1
t400
2S K-E MODEL_1D PLANE COUETTE FLOW :T400
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ Two-layer high-Re model
___ cartesian grid
Q1
t401
2S K-E MODEL_1D DEVELOPED PIPE FLOW:T401
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ Two-layer high-Re model
Q1
t402
2S K-E MODEL_1D DVLPD CHANNEL FLOW :T402
___ NX = 1
___ NZ = 1
___ Two-layer high-Re model
___ cartesian grid
Q1
t403
2S K-E MODEL_PARABOLIC PLANE JET :T403
___ NX = 1
___ steady parabolic flow
___ Two-layer high-Re model
___ cartesian grid
Q1
t404
2S K-E MODEL_PARABOLIC ROUND JET :T404
___ cylindrical grid
___ NX = 1
___ steady parabolic flow
___ Two-layer high-Re model
Q1
t405
2S K-E MODEL_BKWRD FACING STEP Y-X :T405
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ Two-layer high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t406
2S K-E_PLANE FLOW, TURNAROUND DUCT :T406
___ NX = 1
___ body-fitted coordinates
___ Two-layer high-Re model
___ cartesian grid
Q1
t500
LAMINAR TEST OF EGWF - SOWF VARIANT
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
t501
LAMINAR TEST OF EGWF - SOWF VARIANT
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
t502
1D Turb Pipe Flow + Heat Trans
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ uses fully-developed-flow option
Q1
t503
USE OF EARTH GENERATED WALL-FUNCTIONS
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ material indices set via SPEDAT
___ cartesian grid
Q1
t600
RSTM_1DY DEVELOPED CHANNEL FLOW :T600
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ uses fully-developed-flow option
___ material indices set via SPEDAT
___ cartesian grid
Q1
t602
RSTM_1D DEVELOPED PIPE FLOW :T602
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ uses fully-developed-flow option
___ material indices set via SPEDAT
Q1
t603
RSTM_2D PARABOLIC PLANE JET :T603
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
t604
RSTM_2D PARABOLIC PLANE WALL JET :T604
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
t605
RSTM_1D ROTATING PIPE FLOW :T605
___ contains Autoplot USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ uses fully-developed-flow option
___ material indices set via SPEDAT
Q1
t606
RSTM_1DY PLANE COUETTE FLOW :T606
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ cartesian grid
Q1
t607
RSTM_2DY-Z PARABOLIC CHANNEL :T60
___ NX = 1
___ steady parabolic flow
___ cartesian grid
Q1
t608
RSTM_3D DVLPD DUCT FLOW/HEAT TRANS :T608
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses fully-developed-flow option
___ cartesian grid
Q1
t609
RSTM_2D IMPINGING ROUND JET :T609
___ cylindrical grid
___ NX = 1
Q1
t610
2D LES SQUARE CYLINDER- steady precursor
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t611
2D LES SQUARE CYLINDER- unsteady run
___ time-dependent
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t701
T701: 2D Z-Y ABL WIND FLOW - k-e model
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ cartesian grid
Q1
t702
T702:2DZY ABL WIND FLOW- Real. k-e model
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ cartesian grid
Q1
t703
T703:2DZY ABL WIND FLOW- Wilcox 1988 k-w
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ cartesian grid
Q1
t704
T704:2DZY ABL WIND FLOW- k-w SST model
___ solves for LTLS
___ computes WALL DISTANCE
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ cartesian grid
Q1
t705
T705:2DZY ABL WIND FLOW- Wilcox 2008 k-w
___ uses In-Form STORED command
___ contains initial values set by In-Form
___ cartesian grid
Q1
t800
2D LES SQUARE CYLINDER- steady precursor
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t801
2D LES SQUARE CYLINDER- unsteady run
___ time-dependent
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
t900
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
t950
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
two-phase flow
Q1
w100
EQUVEL input-file fragment :W100
___ NX = 1
___ NY = 1
___ NZ = 1
___ two-phase flow
___ both phases have equal velocity components
___ cartesian grid
Q1
w350
1D STEADY BOILING IN PIPE: W350
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w351
1D-Z PIPE BOILING PH1-LIQ,PH2-GAS: W351
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ two-phase flow
___ cartesian grid
Q1
w352
1D-Z PIPE BOILING PH1-GAS,PH2-LIQ: W352
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ two-phase flow
___ cartesian grid
Q1
w370
2D STEADY BOILING IN PIPE: W370
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ two-phase flow
___ involves buoyancy
Q1
w371
AREA RESTRICTION AT QUARTER LENGTH: W371
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
w372
2D STEADY BOILING IN PIPE: W370
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ two-phase flow
___ involves buoyancy
Q1
w410
0D UNSTEADY BOILING IN VESSEL: W410
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w411
CLOSED-VESSEL BOILING, L=F(P): W411
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w412
0D BOILING IN VESSEL+PRESS RELIEF: W412
___ time-dependent
___ NX = 1
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w421
SUDDEN TILTING OF TWO-FLUID CHANNEL:W421
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ involves buoyancy
___ cartesian grid
Q1
w422
1D TRANSIENT THERMOSYPHON : W422
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ involves buoyancy
___ cartesian grid
Q1
w423
fluids moving in opposite directions:423
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w425
1D TRANSIENT PIPE FILLING : W425
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w427
THE TILTING OF A BOX : W427
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w428
Oil slick in a gulf with wind: W428
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ two-phase flow
Q1
w430
transient air-lift pump :W430
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
___ two-phase flow
___ uses isentropic-gas law for density
Q1
w440
AREA RESTRICTION AT QUARTER LENGTH: W440
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
w441
TRANSIENT 2PH FLOW WITH MOVING WALL:W441
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w468
EQUVEL input-file fragment :W100
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ two-phase flow
___ both phases have equal velocity components
___ cartesian grid
Q1
w568
PLANE 2PHS FLOW IN TURNAROUND DUCT: W568
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ two-phase flow
___ cartesian grid
Q1
w569
2PHS NON NEWTONIAN FLOW IN DUCT : W569
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ two-phase flow
___ cartesian grid
Q1
w570
MONOPROPELLANT ROCKET : W570
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ cartesian grid
Q1
w571
1D PARTICLE FLOW (cint=grnd7 test): W571
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w573
ROUND JET;K-E 2PHS TURB MODULATION: W573
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
w574
2PH BACKWARD-FACING-STEP K-E MODEL: W574
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
w575
EFFECT OF SWIRL : W575
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
w576
W574 with heat transfer; EQUVEL=T : W576
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ both phases have equal velocity components
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
w577
2 PHASE DEMO - DP = 1.0E-4 : W577
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w578
2PHS FLOW IN TURNAROUND DUCT : W578
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ two-phase flow
___ cartesian grid
Q1
w580
2 PH BACKWARD STEP,WITH GRAVITY :W580
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
w581
2-PHASE STEADY SEDIMENTATION; PARAB:W581
___ contains PHOTON USE commands for displaying results
___ NY = 1
___ steady parabolic flow
___ two-phase flow
___ cartesian grid
Q1
w700
W576 with extra cold light-phase inflow
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ both phases have equal velocity components
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
w771
1-D TRANSIENT SEDIMENTATION :W771
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w772
AS FOR RUN 771 BUT IN Y DIRECTION : W772
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w773
1-D SEDIMENTATION; parametric study:W773
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w775
2D channel flow as in tray column :W775
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w799
3D SHELL-AND-TUBE CONDENSER : W799
___ contains PHOTON USE commands for displaying results
___ two-phase flow
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
w800
AS FOR CASE W799 BUT TRANS. : W800
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ two-phase flow
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
w801
ALLOW FOR METAL CAPACITY : W801
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ two-phase flow
___ uses neighbour patch (name = NE...)
___ cartesian grid
Q1
w802
3D STEAM GENERATOR : W802
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ two-phase flow
Q1
w870
CF=1.E7 RHO2=10. POUT=-.5 W870
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w871
CF=1.E7 RHO2=10. POUT=3.0 : W871
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w872
CF=1.E7 RHO2=10. POUT=6.0 : W872
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w873
CF=0. RHO2=1.E3 POUT=-.5 : W873
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w874
CF=0. RHO2=10. POUT=-.5 : W874
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w875
CF=2.0 RHO2=10. POUT=-.5 : W875
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w876
CF=10. RHO2=10. POUT=-.5 : W876
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w877
CF=1.E3 RHO2=10. POUT=-.5 : W877
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w878
CF=1.E3 RHO2=1.0 POUT=-.5 : W878
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w879
CF=1.E7 RHO2=1.E2 POUT=-.5 : W879
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w880
CF=1.E7 RHO2=1.E3 POUT=-.5 : W880
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w885
Boiling Droplets in a Duct
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ body-fitted coordinates
___ two-phase flow
___ involves buoyancy
___ cartesian grid
Q1
w886
Boiling 2-Phase Flow in S-bend Duct:W886
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ body-fitted coordinates
___ two-phase flow
___ cartesian grid
Q1
w887
BOILING , NO GRAVITY : W887
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w888
BOILING , LONGITUDINAL GRAVITY : W888
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w889
BOILING ,TRANSVERSE GRAVITY : W889
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w890
MONOPROPELLANT ROCKET : W890
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ cartesian grid
Q1
w891
PROBLEM 2.4. SEDIMENTATION : W891
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w892
SEDIMENTATION WITH RHO2=0.2 : W892
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w893
SEDIMENTATION WITH SMALLER FRICTION W893
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w894
WATER DISPLACED BY AIR FROM ABOVE :W894
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w895
WATER DISPLACED BY AIR FROM BELOW :W895
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w896
COMPRESSION OF AIR BY WATER :W896
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NX = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ cartesian grid
Q1
w897
BOILING , NO GRAVITY : W897
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w898
BOILING , LONGITUDINAL GRAVITY : W898
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w899
BOILING ,TRANSVERSE GRAVITY : W899
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w900
STRATIFIED FLOW, CASE 1 CHANNEL : W900
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w901
STRATIFIED FLOW, CASE 2 PIPE : W901
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w902
TRANSIENT DRAINAGE FROM A PIPE W902
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w903
Kelvin-Helmholtz instability : W903
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w904
KELVIN-HELMHOLTZ; RHO1=1.01 : W904
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w905
KELVIN-HELMHOLTZ; RHO2=1.10 : W905
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w906
PROBLEM 3F RHO2=2.0 : W906
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w907
PROBLEM 3F RHO2=10.0 : W907
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w908
PROBLEM 3F RHO2=1.0;U2=0.;U1=2. : W908
___ contains Autoplot USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w909
TEE-JUNCTION : W909
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w917
PROBLEM 4.1 - 2D SEDIMENTATION : W917
___ time-dependent
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w918
STIRRED TANK; RUN1 STRONG STIRRING: W918
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
w919
STIRRED TANK; RUN2 WEAK STIRRING : W919
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
w920
STIRRED TANK; RUN3 NO STIRRING : W920
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ cylindrical grid
___ NX = 1
___ two-phase flow
Q1
w971
Rock2; 2D MONOPROPELLANT ROCKET :W971
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ cartesian grid
Q1
w972
Stafford's saline-layer experiment
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
Q1
w974
Mixing in a duct; Two-Fluid Model :W97
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses two-fluid turbulence model
___ material indices set via SPEDAT
___ cartesian grid
Q1
w975
RUN1 COUETTE BUOY CONST=1.E2 : 975
___ time-dependent
___ NX = 1
___ NZ = 1
___ two-phase flow
___ uses two-fluid turbulence model
___ involves buoyancy
___ cartesian grid
Q1
w976
Backward-Facing Step;2-Fluid Model: 976
___ NX = 1
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses two-fluid turbulence model
___ material indices set via SPEDAT
___ cartesian grid
Q1
w977
Steady 2-fluid ducted flame; parab:W977
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ steady parabolic flow
___ two-phase flow
___ uses ideal-gas law for density
___ uses two-fluid turbulence model
___ chemical sources
___ cartesian grid
Q1
w978
1D PISTON-IN-CYLINDER; 2-FLUID : 978
___ time-dependent
___ NX = 1
___ NY = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ uses two-fluid turbulence model
___ cartesian grid
Q1
w979
1-D transient shock-induced prpgtn :W979
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ NZ = 1
___ two-phase flow
___ uses isentropic-gas law for density
___ chemical sources
___ uses two-fluid turbulence model
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
w980
Flame spread in duct, 1D analysis
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ two-phase flow
___ cartesian grid
USP
Q1
u001
USP. 3D Steady Heat Conduction In Cube
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u002
3D Steady Heat Conduction In Cube
___ computes heat transfer
___ uses UnStructured PHOENICS
___ uses .dat file for VR object
___ cartesian grid
Q1
u003
USP. Conductivity task on divided grid
___ computes heat transfer
___ uses UnStructured PHOENICS
___ uses In-Form STORED command
___ uses .dat file for VR object
___ cartesian grid
Q1
u004
2D HEAT CONDUCTION WITH SPACE DEPENDENT
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ uses In-Form STORED command
___ cartesian grid
Q1
u005
USP 2D UNSTEADY DIFFUSION PROBLEM
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ cartesian grid
Q1
u006
Flow in porous media. USP Test 6.
___ uses UnStructured PHOENICS
___ cartesian grid
Q1
u007
USP labirinth.
___ NZ = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u008
USP labirinth with divided grid.
___ NZ = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u009
USP labirinth with conjugate heat transf
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u010
XY Duct, USP Test
___ NZ = 1
___ uses UnStructured PHOENICS
___ uses In-Form STORED command
___ cartesian grid
Q1
u011
USP. Test 11
___ NZ = 1
___ uses UnStructured PHOENICS
___ cartesian grid
Q1
u012
Pot. Flow; Perpendicular Plate. USP Test
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u013
Flow Over Double-Wedge Airfoil. USP Test
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses .dat file for VR object
___ material indices set via SPEDAT
___ cartesian grid
Q1
u014
2DXZ Duct Flow; Effect Of Pr No. USP Tes
___ NY = 1
___ uses UnStructured PHOENICS
___ cartesian grid
Q1
u015
2D Laminar B-Layer On A Hot Wall
___ NX = 1
___ uses UnStructured PHOENICS
___ cartesian grid
Q1
u016
USP. Temperature in uniform flow
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ uses In-Form STORED command
___ uses .dat file for VR object
___ cartesian grid
Q1
u017
USP. Laminar flow over step.
___ NZ = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u018
2D Flow in LID-DRIVEN cavity
___ NZ = 1
___ uses UnStructured PHOENICS
___ uses .dat file for VR object
___ cartesian grid
Q1
u019
USP. KE model
___ NZ = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u020
Test 20. Laminar flow around of cylinder
___ NY = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u021
Test 21 Flow around of cylinder (fine gr
___ NY = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u022
F-1 Car; Balsa Wood Blank; Visc. Flow
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u023
Test 23. Flow around small body.
___ NY = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u024
Test 24. Simple shapes by box In-Form ob
___ computes heat transfer
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ contains initial values set by In-Form
___ uses In-Form BOX function
___ cartesian grid
Q1
u025
Test 25. Flow around small body on divid
___ NY = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ uses .dat file for VR object
___ cartesian grid
Q1
u026
USP Test 26. Flow around small sphere.
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ uses .dat file for VR object
___ cartesian grid
Q1
u027
Laminar flow around of pyramid.
___ uses UnStructured PHOENICS
___ cartesian grid
Q1
u028
Two spheres In A Uniform Stream
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ uses .dat file for VR object
___ cartesian grid
Q1
u029
Turbulent flow near the wall, ENUT=const
___ uses UnStructured PHOENICS
___ uses .dat file for VR object
___ cartesian grid
Q1
u030
Flow in pipe. Effective viscosity.
___ uses UnStructured PHOENICS
___ material indices set via SPEDAT
___ cartesian grid
Q1
u031
Cubical Building, uniform turbulent Flow
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses .dat file for VR object
___ material indices set via SPEDAT
___ cartesian grid
Q1
u032
USP: T channel+Corr NUL.
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u033
Flow around of pyramid.
___ uses UnStructured PHOENICS
___ cartesian grid
Q1
u034
Flow in closed cavity.
___ NZ = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u035
Turb. flow in Square Cavity With Moving
___ NZ = 1
___ uses UnStructured PHOENICS
___ uses In-Form STORED command
___ cartesian grid
Q1
u036
XY Duct, USP+SP Test
___ NZ = 1
___ cartesian grid
Q1
u037
2D CHANNEL
___ NZ = 1
___ uses UnStructured PHOENICS
___ uses In-Form STORED command
___ cartesian grid
Q1
u101
Couette Flow with Exact solution
___ NZ = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ contains properties set by In-Form
___ contains sources set by In-Form
___ cartesian grid
Q1
u103
Flow in channel with non-uniform viscosi
___ NZ = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ contains properties set by In-Form
___ contains sources set by In-Form
___ cartesian grid
Q1
u105
Stagnation point Flow
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ cartesian grid
Q1
u107
Cavity with moving lid and heat exchange
___ NZ = 1
___ uses UnStructured PHOENICS
___ cartesian grid
Q1
u109
Turn-around duct, laminar flow
___ NZ = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u110
Heat exchange in Tube Bank, trub. flow
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains properties set by In-Form
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u111
Cubical Building, K-E model, uniform Flo
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u113
Flow over backward step. LVEL model
___ NZ = 1
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ uses UnStructured PHOENICS
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u115
STAGUS: Turn-around duct
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ uses UnStructured PHOENICS
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u116
Turn-Around Duct with fastener. K-E mode
___ NX = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u201
Axi-symmetrical heat-conduction.
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u202
Axi-symmetrical heat-conduction.
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u501
USP: 2D xy plate in tension
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u502
USP: 2D xy Hot Bi-metallic plate
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u503
2D Plate in tension with FY=var
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u504
USP:2D xy Plate with CIRCULAR hole
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ material indices set via SPEDAT
___ uses In-Form STORED command
___ contains sources set by In-Form
___ cartesian grid
Q1
u505
USP: 2D xy Plate with square hole
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u506
USP: Cooled long cylinder
___ NZ = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u507
USP: Pressurised long cylinder
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u508
USP: Stress in a 2D rotating disk
___ NZ = 1
___ uses UnStructured PHOENICS
___ Q1 is used as PROPS file via MATFLG entries
___ computes stresses and strains in solids
___ uses In-Form STORED command
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
u701
Body with large Conductivity in uniform
___ NY = 1
___ computes heat transfer
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u710
Turn-around duct; Fine Grid
___ NZ = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
u711
2D Cylinder; 1,10,20 Grid
___ NX = 1
___ uses UnStructured PHOENICS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Chemical vapour deposition
Q1
d100
ASM Single Wafer Si Reactor - Wilke:D100
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d101
ASM Single Wafer Si Reactor - S-M :D101
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d102
ASM Single Wafer Si Reactor-Soret :D102
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d103
ASM Single Wafer Si3N4 Reactor :D103
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ uses CVD option for density
___ LVEL model
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d104
Tungsten Reactor - normal inlet :D104
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d105
Tungsten Reactor - showerhead inlet:D105
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d106
Simple Reactor Test Case :D106
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ uses CVD option for density
___ LVEL model
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d107
Batch Reactor Test Case :D107
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d108
Batch Reactor - super wafers :D108
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d109
Parallel Plate Plasma Reactor :D109
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ uses CVD option for density
___ LVEL model
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d201
SIMPLE FLOW TUBE TEST CASE - BATCH :D201
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d202
SIMPLE FLOW TUBE TEST CASE- COMPLEX:D202
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d203
Parallel Plate Plasma Reactor :D203
___ cylindrical grid
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
Q1
d204
RADIATION TEST CASE - AXISYMMETRIC :D204
___ cylindrical grid
___ NX = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
d205
RADIATION TEST CASE - XY :D205
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
d206
RADIATION TEST CASE - XZ :D206
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
d207
RADIATION TEST CASE - YZ :D207
___ NX = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
d208
RADIATION TEST CASE - XYZ :D208
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
d209
SHOWER PLATE TEST- X :D209
___ NY = 1
___ uses volumetric block correction
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ CVD (chemical vapour deposition)
___ material indices set via SPEDAT
___ cartesian grid
FLAIR (air and heat flow in buildings
Q1
i101
Single room with a fire: I101
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i102
Smoke in a chimney: I102
___ time-dependent
___ NZ = 1
___ body-fitted coordinates
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i103
Fire in a building: I103
___ body-fitted coordinates
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i104
Fire in an underground train: I104
___ NZ = 1
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i105
Air-Conditioning a supermarket: I108
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i106
Cleansing station: I106
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ contains sources set by In-Form
___ cartesian grid
Q1
i107
Exhaust dispersion near tower block:I107
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i108
A room with Sunlight
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i109
Flow in a computer room
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i110
A room with two radiators
___ computes WALL GAP
___ activates IMMERSOL
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i111
Room comfort
___ computes WALL GAP
___ activates IMMERSOL
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i112
Fire in a room
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i113
A cabinet with a fan
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i114
Tunnel Fire
___ time-dependent
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i120
YZ TEST: I120
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i121
Transient XY Test: I121
___ time-dependent
___ NZ = 1
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i128
XY Test: I128
___ NZ = 1
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i129
YZ TEST: I129
___ NX = 1
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i130
1 Round_Diffuser_in_XY_plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i131
Round Diffuser in XY plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i132
Vortex Diffuser in XY plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i133
Square Diffuser in XY plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i134
4-way Directional Diffuser in X-Y plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i135
2 Grille Diffusers in X plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i136
Displacement Diffuser
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i137
Jetfan in XY plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i138
Round Diffuser in XY plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i200
My first flow simulation
___ solves for LTLS
___ computes heat transfer
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ contains sources set by In-Form
___ cartesian grid
Q1
i201
Room air flows; I201; zUP=T
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
i202
Reactor room: I202
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i203
Hackney hall: I203
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i204
Lecture theatre: I204
___ computes heat transfer
___ uses ideal-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i205
Computer room: I205
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i206
Flow inside a building: I206
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i207
Viking Ed Compressor Hazard: I207
___ computes heat transfer
___ uses ideal-gas law for density
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i208
Flow over Big Ben
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ contains initial values set by In-Form
___ cartesian grid
Q1
i209
Fire-Spray in a compartment
___ time-dependent
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ time-dependent source set by In-Form
___ contains sources set by In-Form
___ cartesian grid
Q1
i210
Food Court CFD Simulation: no vents
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
i211
Food Court CFD Simulation: with vents
___ solves for LTLS
___ computes WALL DISTANCE
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
___ cartesian grid
Q1
i212
ASHRAE Displacement Diffuser
___ contains Viewer USE commands for displaying results
___ computes heat transfer
___ RNG high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
i213
Fire-Spray in a compartment
___ contains Viewer USE commands for displaying results
___ solves for LTLS
___ computes WALL DISTANCE
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ uses ideal-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ star-name patch: source=CO*PHI*NAME**VAL
___ FLAIR, for heat and air flow in buildings
___ uses In-Form STORED command
___ contains properties set by In-Form
___ time-dependent source set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
i214
Fire and Smoke Modelling
___ time-dependent
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i215
Fire and Smoke Modelling
___ time-dependent
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i216
Fire and Smoke Modelling
___ time-dependent
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ contains sources set by In-Form
___ cartesian grid
Q1
i301
Square
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i302
round
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i303
Vortex
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i304
wedge - XY plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i305
wedge - XZ plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i306
wedge - YZ plane
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ material indices set via SPEDAT
___ cartesian grid
Q1
i307
square - rotated
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ Chen-Kim high-Re model
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ cartesian grid
Q1
i401
I401: Aerosol deposition in a model room
___ contains PHOTON USE commands for displaying results
___ uses ideal-gas law for density
___ RNG high-Re model
___ FLAIR, for heat and air flow in buildings
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ In-Form STORED command uses SUM(
___ cartesian grid
Q1
i402
I402: Deposition, horizontal duct @9m/s
___ contains PHOTON USE commands for displaying results
___ uses ideal-gas law for density
___ FLAIR, for heat and air flow in buildings
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
i403
I403: Deposition, horizontal duct@5.3m/s
___ contains PHOTON USE commands for displaying results
___ uses ideal-gas law for density
___ FLAIR, for heat and air flow in buildings
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
i404
I404: Deposition, horizontal duct@2.2m/s
___ contains PHOTON USE commands for displaying results
___ uses ideal-gas law for density
___ FLAIR, for heat and air flow in buildings
___ uses In-Form STORED command
___ In-Form used to "MAKE" variables
___ special print-out activated via SPEDAT
___ cartesian grid
Q1
i405
I405: Deposition, downpipe, Re=9.894E3
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ FLAIR, for heat and air flow in buildings
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
i406
I406: Deposition, downpipe, Re=5E4
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ FLAIR, for heat and air flow in buildings
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
Q1
i407
I407: Aerosol deposition in a small room
___ computes heat transfer
___ uses ideal-gas law for density
___ RNG high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ FLAIR, for heat and air flow in buildings
___ In-Form used to "MAKE" variables
___ In-Form STORED command uses SUM(
___ special print-out activated via SPEDAT
___ uses In-Form STORED command
___ contains sources set by In-Form
___ cartesian grid
Furnace
Q1
a100
3-D coal combustion in a furnace : C111
___ contains PHOTON USE commands for displaying results
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses 7gases option for density
___ use special GROUND furngr
___ cartesian grid
HOTBOX (electronics cooling)
Q1
h101
Tilted Box
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h102
Transient Flow In A Box
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NY = 1
___ computes heat transfer
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h103
PCB With 6 Chips
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ computes heat transfer
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h104
System curve calculation: H104
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h105
Experimental Box
___ contains PHOTON USE commands for displaying results
___ body-fitted coordinates
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h106
Cooling Of 12 Chips
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h107
Linear Heat Dissipation
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h108
Electronic System Rack
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ computes heat transfer
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h109
Telephone Exchange
___ contains PHOTON USE commands for displaying results
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h110
Fan matching: H110
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h111
Multiple Fan matching: H111
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h121
The Effect Of Enclosure Orientation
___ NZ = 1
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h122
Natural Cooling Of PQFP In An Enclosure
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h123
Natural Cooling Of PQFP Array
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h124
Thermal Interface Under PQFP
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h125
Typical PQFP On PCB In A Wind Channel
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h126
PCB With 6 Chips In An Angled Flow
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h127
Populated PCB In A Swirling Flow
___ uses volumetric block correction
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h128
AFT Module With Heat Sink
___ uses volumetric block correction
___ computes heat transfer
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h201
Air-Water Flow Through Cooling
___ NY = 1
___ uses volumetric block correction
___ computes heat transfer
___ computes WALL GAP
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h202
3D Model Of PQFP
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ contains initial values set by In-Form
___ cartesian grid
Q1
h205
Cooling Of 12 Chips - Smoke Test
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h206
Cooling of an Electronics Cabinet
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h301
Thermal Analysis Of PC Desktop Enclosure
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ contains initial values set by In-Form
___ cartesian grid
Q1
h302
Electronic System Rack
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h303
Electronic Unit With Heat Sink
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ HOTBOX for electronics cooling
___ uses conjugate-gradient solver
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
h304
Telephone Exchange
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h305
Table Top Control Box
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ HOTBOX for electronics cooling
___ uses conjugate-gradient solver
___ material indices set via SPEDAT
___ cartesian grid
Q1
h306
Cooling Of A Tower Case
___ uses volumetric block correction
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ LVEL model
___ involves buoyancy
___ HOTBOX for electronics cooling
___ uses conjugate-gradient solver
___ material indices set via SPEDAT
___ cartesian grid
Q1
h401
Planar Sources Attached To PCB
___ NX = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses volumetric block correction
___ LVEL model
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ uses SPLINE function
___ cartesian grid
Q1
h402
Planar Sources/Heat Sink On Anisothropic
___ NX = 1
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses volumetric block correction
___ LVEL model
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ uses SPLINE function
___ cartesian grid
Q1
h403
A Composite Model Of PQFP
___ NX = 1
___ solves for LTLS
___ computes WALL GAP
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h404
Recirculating Cooling Of A Package
___ NX = 1
___ solves for LTLS
___ computes WALL GAP
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ contains sources set by In-Form
___ cartesian grid
Q1
h405
Closed Circuit Cooling Of A Package
___ NX = 1
___ solves for LTLS
___ computes WALL GAP
___ computes WALL DISTANCE
___ computes heat transfer
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Q1
h406
A simple model of laptop design: H406
___ NX = 1
___ computes WALL GAP
___ activates IMMERSOL
___ computes heat transfer
___ solves for LTLS
___ computes WALL DISTANCE
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ HOTBOX for electronics cooling
___ material indices set via SPEDAT
___ cartesian grid
Miscellaneous special-purpose programs
Q1
y101
SUPERSONIC FLOW IN DUCT : Y101
___ NZ = 1
___ uses isentropic-gas law for density
___ uses fine-grid-embedding
___ cartesian grid
Q1
y102
Flow over a cylinder: Y102
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y103
Flow over a cylinder: Y103
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y104
Flow over an inclined plate: Y104
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y105
SUPERSONIC FLOW OVER A WEDGE: Y105
___ NZ = 1
___ uses isentropic-gas law for density
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y106
Flow over a wedge: Y106
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y107
3D flow over a diamond-shaped object: Y1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y108
3D flow over a sphere and heat transfer
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y109
Flow over a heated sphere in a chamber
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y110
Flow over a sphere: Y110
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y111
Flow around a pipe junction: Y111
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y112
Turbulent flow around car shaped object
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y113
Drag and lift of two blocks
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
y114
Drag of rectangular box
___ contains PHOTON USE commands for displaying results
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
y115
Flow over an airfoil: Y115
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y116
Flow around submarine: Y116
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y211
1D Fine coal-particle combustion
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
y212
Convection-only steady combustion of CO
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
y213
Combustion of packed bed of coke
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
y214
Ore reduction in a packed bed
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
y221
Combustion-driven coke flow
___ contains PHOTON USE commands for displaying results
___ cylindrical grid
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
Q1
y222
Fines-and-coke-combustion-driven solid f
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y223
Combustion-fusion-driven solid flow
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y231
Combustion-melting-driven ore/coke mixtu
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y241
Combustion-driven raceway :coal fines an
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
y242
Coal fines flame in a coke bed: raceway
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ two-phase flow
___ uses SHADOW method of size calculation
___ uses PLANT to create extra Fortran coding
___ cartesian grid
Q1
y251
SAFIR 2D: blast furnace model
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y261
System-level coke-combustion simulation
___ contains PHOTON USE commands for displaying results
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y262
Environmental level coke combustion simu
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ uses PLANT to create extra Fortran coding
___ material indices set via SPEDAT
___ cartesian grid
Q1
y400
ESTER demonstration, one-phase
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y401
ESTER demonstration, two-phase
___ two-phase flow
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y402
ESTER demo, Transient one-phase - Case 1
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y403
ESTER demo, Transient one-phase - Case 1
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y404
ESTER demo, Transient one-phase - Case 2
___ time-dependent
___ NX = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y405
ESTER demo, Transient one-phase - Case 3
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y406
ESTER demonstration, one-phase, KE-EP
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y407
ESTER demo, Transient one-phase - Case 1
___ time-dependent
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y408
ESTER demo, Transient one-phase - Case 1
___ time-dependent
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y409
ESTER demo, Transient one-phase - Case 2
___ time-dependent
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y410
ESTER demo, Transient one-phase - Case 3
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y411
ESTER demo, one-phase, KE-EP, fine grid
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y412
ESTER demonstration, one-phase
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y494
ESTER - full model of 36 Anode Cell
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y495
ESTER - full model of 24 Anode Cell
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y496
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
y497
ESTER default settings - 24 Anode Cell
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ use special GROUND ESTRgr
___ material indices set via SPEDAT
___ cartesian grid
Q1
y498
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
y499
___ NX = 1
___ NY = 1
___ NZ = 1
___ cartesian grid
Q1
y501
F1 Racing Car - Balsa Wood Blank (Coarse
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y502
F1 Racing Car - Balsa Wood Blank (Medium
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y503
F1 Racing Car - Balsa Wood Blank (Fine)
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y504
GrandPrix Racing Car (Coarse)
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y505
GrandPrix Racing Car (Medium)
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y506
GrandPrix Racing Car (Fine)
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y507
Jaguar Racing Car (Fine)
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
y508
Design 2 R6 (Medium)
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
TACT, for natural-draft cooling towers
Q1
x100
COOLING_TOWER_SIMULATION
___ NX = 1
___ body-fitted coordinates
___ involves buoyancy
___ TACT for natural-draught cooling towers
___ cartesian grid
Q1
x101
COOLING_TOWER_SIMULATION 3D
___ body-fitted coordinates
___ involves buoyancy
___ TACT for natural-draught cooling towers
___ cartesian grid
Power Condensers
Q1
k100
2D Test Condenser
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ uses conjugate-gradient solver
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
k101
3D Test Condenser
___ solves for LTLS
___ computes WALL DISTANCE
___ uses conjugate-gradient solver
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
k102
2d 'Church-window' condenser
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ uses conjugate-gradient solver
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
k103
3d 'church-window' condenser
___ solves for LTLS
___ computes WALL DISTANCE
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses conjugate-gradient solver
___ contains properties set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
virtual reality
Q1
v100
Pressure Drop Across Porous Plate
___ cartesian grid
Q1
v101
T-Junction
___ material indices set via SPEDAT
___ cartesian grid
Q1
v102
Ink-Jet Simulation
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v103
Soaking Pit
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v104
Drill bit
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v105
Two Fans At Baffled Domain Boundary
___ computes heat transfer
___ cartesian grid
Q1
v106
Two Internal Fans; Baffled Domain
___ computes heat transfer
___ cartesian grid
Q1
v107
Two Circular Fans At Baffled Domain Boun
___ computes heat transfer
___ cartesian grid
Q1
v108
Two Circular Internal Fans; Baffled Doma
___ computes heat transfer
___ cartesian grid
Q1
v110
Walking Man
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v111
chemical reaction between stirred fluids
___ contains Viewer USE commands for displaying results
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v112
Falling box with broken tip
___ contains Viewer USE commands for displaying results
___ time-dependent
___ NX = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v113
Moving multiple objects from carrier
___ time-dependent
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v114
Cylinder in chaotic motion
___ time-dependent
___ NX = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v115
Cylinder moving at 45 degrees
___ time-dependent
___ NX = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v116
Flow in crank-shaft-piston mechanism
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v117
Ejection seat
___ time-dependent
___ NX = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v118
Underwater launch
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v119
Cube moving horizontally
___ time-dependent
___ NX = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v120
Rolling cube: translation + rotation
___ time-dependent
___ NX = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v121
Cube rotating about its centre
___ time-dependent
___ NX = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v122
Stirring by rotating paddle
___ time-dependent
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v123
Trains passing in a tunnel
___ time-dependent
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v124
2 cylinders with crossing trajectories
___ time-dependent
___ NX = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v125
2 cylinder engine
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v126
Flow in 2-crank-shaft-piston mechanism
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v127
Moving ski-jumper via MOFOR
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v128
Sphere in horizontal motion
___ time-dependent
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v129
2-D methane-air combustion, EBU model
___ cylindrical grid
___ NX = 1
___ uses SCRS option for density
___ chemical sources with eddy-break-up model
Q1
v130
Heat source on face of 198 XZ plane lam
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v131
Heat source on face of 198 XY plane turb
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v132
Heat source on face of 198 XZ plane turb
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v133
Heat source on face of 198 XY plane lam
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v134
Flow in crank-shaft-piston mechanism
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v135
T-Junction
___ material indices set via SPEDAT
___ cartesian grid
Q1
v136
NACA wing Cd test ( angle 2.8)
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v137
Flow through channels cut from solid
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v138
FGE: 2D Flow around a cylinder - 2 FGV
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
v139
FGE: 2D Flow around a cylinder - 1 FGV
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
v140
FGE: 2D Flow around a cylinder - No FGV
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v141
FGE: 2D Flow around a cylinder PARSOL=F
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v142
Inclined Channel; grid 152,152,1
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v143
cartes hollow ps
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v144
No title has been set for this run.
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v145
Potential Flow Over Circular Cylinder
___ NX = 1
___ solves for VELOCITY POTENTIAL
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v146
Non-uniform heat source in vr-object
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ In-Form used to "MAKE" variables
___ In-Form STORED command uses SUM(
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ contains initial values set by In-Form
___ cartesian grid
Q1
v147
Heat exchange about a array of pipes.
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains initial values set by In-Form
___ contains sources set by In-Form
___ In-Form used to "MAKE" variables
___ In-Form STORED command uses SUM(
___ uses In-Form STORED command
___ special print-out activated via SPEDAT
___ material indices set via SPEDAT
___ contains sources set by In-Form
___ contains initial values set by In-Form
___ cartesian grid
Q1
v148
Heat exchange about a steel conductor
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v149
Heat transfer from air in pipe to outsid
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v150
Device for turning flow
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v151
Device for changing flow direction
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v152
Temperature-controlled fan
___ contains PHOTON USE commands for displaying results
___ time-dependent
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ In-Form used to "MAKE" variables
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v153
Heat exchange about a single pipe
___ contains PHOTON USE commands for displaying results
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v154
Heat exchange by one side internal plate
___ NZ = 1
___ computes heat transfer
___ contains sources set by In-Form
___ cartesian grid
Q1
v155
Heat exchange by two sides internal plat
___ NZ = 1
___ computes heat transfer
___ contains sources set by In-Form
___ cartesian grid
Q1
v156
Heat exchange by external plates.
___ NZ = 1
___ computes heat transfer
___ uses SPLINE function
___ contains sources set by In-Form
___ cartesian grid
Q1
v160
ATMOSPHERIC B.L - XZ LL TEST
___ NY = 1
___ cartesian grid
Q1
v161
ATMOSPHERIC B.L - YZ LL TEST
___ NX = 1
___ cartesian grid
Q1
v162
ATMOSPHERIC B.L - ZX LL TEST
___ NY = 1
___ cartesian grid
Q1
v163
ATMOSPHERIC B.L - ZX PL TEST
___ NY = 1
___ cartesian grid
Q1
v164
ATMOSPHERIC B.L - ZX PL TEST
___ NY = 1
___ cartesian grid
Q1
v165
ATMOSPHERIC B.L - ZX PL TEST
___ NY = 1
___ cartesian grid
Q1
v166
ATMOSPHERIC B.L -3DYZ-E LL TEST
___ cartesian grid
Q1
v167
ATMOSPHERIC B.L - 3DYZW LL TEST
___ cartesian grid
Q1
v168
No title has been set for this run.
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v169
No title has been set for this run.
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v170
MOFOR + porous plate test
___ time-dependent
___ NZ = 1
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v172
Louver flow; 120*135 grid
___ NZ = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v173
No title has been set for this run.
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v174
No title has been set for this run.
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v175
ANGLED-IN Test - Velocity
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v176
No title has been set for this run.
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v177
No title has been set for this run.
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v178
No title has been set for this run.
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v180
Y-dir test of deduced inflow vel at edge
___ NX = 1
___ Chen-Kim high-Re model
___ contains sources set by In-Form
___ cartesian grid
Q1
v181
Y-dir test of deduced inflow vel at edge
___ NX = 1
___ Chen-Kim high-Re model
___ contains sources set by In-Form
___ cartesian grid
Q1
v182
Y-dir test of deduced inflow vel at edge
___ NX = 1
___ Chen-Kim high-Re model
___ contains sources set by In-Form
___ cartesian grid
Q1
v183
Heat source on surface of 198 XZ plane l
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v184
Heat source on surface of 198 XZ plane t
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v201
Flow Around A Car; fine-grid embedding
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses fine-grid-embedding
___ material indices set via SPEDAT
___ cartesian grid
Q1
v202
2D Piston
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v203
Flow Past A Moving Cylinder
___ time-dependent
___ NZ = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses MOFOR
___ material indices set via SPEDAT
___ cartesian grid
Q1
v204
Inlets in Polar Grid
___ cylindrical grid
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
v205
Angled Inlets in Polar Grid
___ cylindrical grid
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
v206
angled plate(s) in xz plane caseno=0
___ contains Viewer USE commands for displaying results
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v207
Moving sphere with constant accelaration
___ contains Viewer USE commands for displaying results
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ time-dependent source set by In-Form
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v208
Moving sphere with varing accelaration
___ contains Viewer USE commands for displaying results
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ time-dependent source set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v209
Falling sphere with air resistance
___ contains Viewer USE commands for displaying results
___ time-dependent
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses PLANT to create extra Fortran coding
___ time-dependent source set by In-Form
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v301
Supersonic Flow In A Duct
___ NZ = 1
___ uses isentropic-gas law for density
___ uses fine-grid-embedding
___ cartesian grid
Q1
v401
Simulation Of A Labyrinth Flow
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v402
Duplication of Objects
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v404
Array And Group Settings
___ NY = 1
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v405
Flow In A Pipe
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v406
Jet Pump
___ NY = 1
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v407
Flow Around Buildings
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v408
Flow Over Heated Bricks
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v409
Fans and Inlets
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v410
Fans And Inlets - Inlet/Outlet
___ NY = 1
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v411
Flow In A Closed Cavity
___ NY = 1
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ cartesian grid
Q1
v412
Axi-symmetric Jet Pump
___ cylindrical grid
___ NX = 1
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
v413
Swirling flow without straightener
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
v414
Swirling flow with straightener
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
v415
Supersonic flow in a duct
___ NZ = 1
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ cartesian grid
Q1
v416
Supersonic flow in a duct - UMIST scheme
___ NZ = 1
___ computes heat transfer
___ uses ideal-gas law for density
___ Prndtl Mixing-Length model
___ cartesian grid
Q1
v500
A Tube With Spiral Rib
___ cylindrical grid
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ involves buoyancy
___ material indices set via SPEDAT
Q1
v501
Flow In A Screw Pump
___ cylindrical grid
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
v502
Two-Pass Tube Heat Exchanger
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v503
Water Currents In A River Course
___ solves for LTLS
___ computes WALL DISTANCE
___ LVEL model
___ material indices set via SPEDAT
___ cartesian grid
Q1
v600
Parallel plates with uniform temperature
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v601
Parallel plates with uniform temperature
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v602
Parallel plates with uniform temperature
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v603
Parallel plates with uniform temperature
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v604
Parallel plates with uniform temperature
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v605
Parallel plates with uniform temperature
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v606
Parallel plates with uniform temperature
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v607
Parallel plates with uniform temperature
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v608
Parallel plates with uniform temperature
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v609
Parallel plates with uniform temperature
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v610
Parallel plates with uniform temperature
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v611
Parallel plates with uniform temperature
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v612
PARSOL 1D HEAT TRANSFER
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v613
PARSOL 1D HEAT TRANSFER
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v614
PARSOL 1D HEAT TRANSFER
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v615
PARSOL 1D HEAT TRANSFER
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v616
PARSOL 1D-X HEAT TRANSFER
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v617
PARSOL 1D-Z HEAT TRANSFER
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v618
PARSOL 1D-X HEAT TRANSFER
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v619
PARSOL 1D-Z HEAT TRANSFER
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v620
PARSOL 1D-X HEAT TRANSFER
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v621
PARSOL 1D-Z HEAT TRANSFER
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v622
PARSOL 1D-X HEAT TRANSFER
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v623
PARSOL 1D-Z HEAT TRANSFER
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v624
PARSOL 1D-X HEAT TRANSFER
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v625
PARSOL 1D-Z HEAT TRANSFER
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ contains sources set by In-Form
___ material indices set via SPEDAT
___ cartesian grid
Q1
v626
CONJUGATE HEAT TRANSFER OF A WEDGE IN F
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v627
CONJUGATE HEAT TRANSFER OF A WEDGE IN F
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v628
CONJUGATE HEAT TRANSFER OF A WEDGE IN F
___ NX = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v629
CONJUGATE HEAT TRANSFER OF A WEDGE IN F
___ NX = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v630
cylinder
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v631
cylinder
___ NX = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v632
cylinder
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v633
cylinder
___ NX = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v634
cylinder
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v635
cylinder
___ NX = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v636
cylinder
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v637
cylinder
___ NX = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v638
Angular Velocity IURVAL=-1 Inflow
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ contains sources set by In-Form
Q1
v639
Angular Velocity IURVAL=-1 Outflow
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ contains sources set by In-Form
Q1
v640
Angular Momentum IURVAL=+1 Inflow
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ contains sources set by In-Form
Q1
v641
Angular Momentum IURVAL=+1 Outflow
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ contains sources set by In-Form
Q1
v642
Velocity IURVAL= 0 Inflow
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
Q1
v643
Velocity IURVAL= 0 Outflow
___ cylindrical grid
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ contains sources set by In-Form
Q1
v650
cut cell heat conduction testing case
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v701
No title has been set for this run.
___ Chen-Kim high-Re model
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v703
NEWPARSOL, 1D heat-conduction in x dir
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v704
NEWPARSOL, 1D heat-conduction in y dir
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v705
NEWPARSOL, 1D heat-conduction in z dir
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v706
NEWPARSOL, 1D heat-conduction in x dir
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NY = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v707
NEWPARSOL, 1D heat-conduction in y dir
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v708
NEWPARSOL, 1D heat-conduction in z dir
___ contains PHOTON USE commands for displaying results
___ contains Autoplot USE commands for displaying results
___ NX = 1
___ NY = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v709
2D PARSOL heat-conduction, xy plane
___ contains PHOTON USE commands for displaying results
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ uses In-Form STORED command
___ material indices set via SPEDAT
___ cartesian grid
Q1
v710
Ellipsoid simulation
___ NZ = 1
___ computes heat transfer
___ Q1 is used as PROPS file via MATFLG entries
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v711
Wall Distance Distribution Within A Box
___ NZ = 1
___ computes WALL DISTANCE
___ computes WALL GAP
___ solves for LTLS
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v712
Couette Flow In Inclined Channel
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid
Q1
v713
Flow near cylinder
___ NZ = 1
___ computes heat transfer
___ fiinit(prps) = -1, so use PIL properties for domain fluid
___ material indices set via SPEDAT
___ cartesian grid