1 1e+12 -1e+12 1.83e-05 1 SGDH

1 all[] all[] 193.341 617.53 34 193.341 617.53 84 193.341 617.53 134 193.341 617.53 184 193.341 617.53 234 193.341 617.53 284 193.341 617.53 334 193.341 617.53 384 193.341 617.53 434 193.341 617.53 484 193.341 617.53 534 193.341 617.53 584 193.341 617.53 634 193.341 617.53 684 193.341 617.53 734 420 650 1 420 650 51 420 650 101 420 650 151 420 650 201 420 650 251 420 650 301 420 650 351 420 650 401 420 650 451 420 650 501 420 650 551 420 650 601 420 650 651 420 650 701 255 649 54.35 1550 641.5 122 1 100

500 1.2 5 0.3 2 1000 0.1 0.05 0.005 inlet outlet source_polluants symmetry w_bottom 0 0 1 1 0 0 1 1 0 0 1 1 0 1 1 0.001 293.15 1 1 flux = 0.0; 0 0 0 0 0.05 0 1 1 1 1.17862 0.01 # Utilisation de la loi de Sutherland CST = 111; T0 = 273; mu_ref = 17.6e-6; if ( temperature > 0 && temperature < 555) { molecular_viscosity=mu_ref * ((temperature/T0)^(3./2.))*(T0+CST)/(temperature+CST); } else { molecular_viscosity = -999.0; } #molecular_viscosity = 1.83e-05; 1.83e-05 # Loi polynomiale en temperature specific_heat = 1057.5-0.4489*temperature+0.0011407*temperature^2. -0.0000007999*temperature^3.+0.00000000019327*temperature^4.; #specific_heat = 1017.24; 1017.24 # Utilisation de la loi de Sutherland CST = 114; T0 = 273; lambda_ref = 0.0241; if ( temperature > 0 && temperature < 555) { thermal_conductivity=lambda_ref * ((temperature/T0)^(3./2.))*(T0+CST)/(temperature+CST); } else { thermal_conductivity = -999.0; } #thermal_conductivity = 0.02495; 0.02495 101325 293.15 0 0 -9.81 0 0 0 all[] meteo 0 1 temperature = 300.; 1e+12 0 1 SGDH 5 1 1 1 1 3 velocity[0] = 0.; velocity[1] = 0.; velocity[2] = 0.; 2 1 1