Beispiel #1
0
         "minimum mach number": 0.35
     },
     "turbulence": {
         "model": "sst"
     },
 },
 "material": "air",
 "air": {
     "gamma": 1.4,
     "gas constant": 287.0,
     "Sutherlands const": 110.4,
     "Prandtl No": 0.72,
     "Turbulent Prandtl No": 0.9,
 },
 "IC_1": {
     "temperature": zutil.to_kelvin(540.0),
     "pressure": 101325.0,
     "V": {
         "vector": zutil.vector_from_angle(alpha, 0.0),
         "Mach": 0.15
     },
     #'viscosity' : 0.0,
     "Reynolds No": 6.0e6,
     "Reference Length": 1.0,
     "turbulence intensity": 5.2e-2,
     "eddy viscosity ratio": 1.0,
     "ambient turbulence intensity": 5.2e-2,
     "ambient eddy viscosity ratio": 1.0,
 },
 "BC_1": {
     #'ref' : 3,
Beispiel #2
0
     # Use linear gradients
     'linear gradients': False,
     # Optional (default 'HLLC'):
     # Scheme for inviscid flux: HLLC or Rusanov
     'Inviscid Flux Scheme': 'HLLC',
 },
 'material': 'air',
 'air': {
     'gamma': 1.4,
     'gas constant': 287.0,
     'Sutherlands const': 110.4,
     'Prandtl No': 0.72,
     'Turbulent Prandtl No': 0.9,
 },
 'IC_1': {
     'temperature': zutil.to_kelvin(540.0),
     'pressure': 101325.0,
     'V': {
         'vector': zutil.vector_from_angle(alpha, 0.0),
         'Mach': 0.85,
     },
     # 'viscosity' : 0.0,
     'Reynolds No': 6.0e6,
     'Reference Length': 1.0,
     'turbulence intensity': 5.2e-2,
     'eddy viscosity ratio': 1.0,
     'ambient turbulence intensity': 5.2e-2,
     'ambient eddy viscosity ratio': 1.0,
 },
 'BC_1': {
     # 'ref' : 3,