| /libCEED/examples/fluids/qfunctions/ |
| H A D | newtonian_state.h | 38 Y[0] = s.pressure; in UnpackState_Y() 62 return e_internal + e_kinetic + s.Y.pressure / s.U.density; in TotalSpecificEnthalpy() 68 …return de_internal + de_kinetic + ds.Y.pressure / s.U.density - s.Y.pressure / Square(s.U.density)… in TotalSpecificEnthalpy_fwd() 78 Y.pressure = (HeatCapacityRatio(gas) - 1) * U.density * e_internal; in StatePrimitiveFromConservative() 94 …dY.pressure = (HeatCapacityRatio(gas) - 1) * (dU.density * e_internal + s.U.density * d… in StatePrimitiveFromConservative_fwd() 101 const CeedScalar rho = Y.pressure / (GasConstant(gas) * Y.temperature); in StateEntropyFromPrimitive() 102 const CeedScalar entropy = log(Y.pressure) - gamma * log(rho); in StateEntropyFromPrimitive() 103 const CeedScalar rho_div_p = rho / Y.pressure; in StateEntropyFromPrimitive() 115 …CeedScalar drho = (dY.pressure * s.Y.temperature - s.Y.pressure * dY.temperature) / (GasCon… in StateEntropyFromPrimitive_fwd() 119 const CeedScalar rho_div_p = s.U.density / s.Y.pressure; in StateEntropyFromPrimitive_fwd() [all …]
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| H A D | riemann_solver.h | 232 + (s_star - u_side) * (s_star + side.Y.pressure / denom) in RiemannFlux_HLLC_Star() 255 + (s_star - u_side) * (s_star + side.Y.pressure / denom) in RiemannFlux_HLLC_Star_fwd() 265 + (ds_star - du_side) * (s_star + side.Y.pressure / denom) // in RiemannFlux_HLLC_Star_fwd() 266 …+ (s_star - u_side) * (ds_star + dside.Y.pressure / denom - side.Y.pressure / Square(denom) * dden… in RiemannFlux_HLLC_Star_fwd() 286 …CeedScalar numer = right.Y.pressure - left.Y.pressure + rhou_left * (s_left - u_left) - rhou_righ… in RiemannFlux_HLLC() 320 CeedScalar numer = right.Y.pressure - left.Y.pressure // in RiemannFlux_HLLC_fwd() 323 CeedScalar dnumer = dright.Y.pressure - dleft.Y.pressure // in RiemannFlux_HLLC_fwd()
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| H A D | bc_freestream.h | 169 // Viscous Outflow boundary condition, setting a constant exterior pressure and 196 y_ext.pressure = outflow->pressure; in RiemannOutflow() 243 // Jacobian for Riemann pressure/temperature outflow boundary condition 270 y_ext.pressure = outflow->pressure; in RiemannOutflow_Jacobian() 272 dy_ext.pressure = 0; in RiemannOutflow_Jacobian() 319 // Outflow boundary condition, weakly setting a constant pressure. This is the 339 s.Y.pressure = outflow->pressure; in PressureOutflow() 384 // Jacobian for weak-pressure outflow boundary condition 410 s.Y.pressure = outflow->pressure; in PressureOutflow_Jacobian() 411 ds.Y.pressure = 0.; in PressureOutflow_Jacobian()
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| H A D | turb_spanstats.h | 29 v[TURB_MEAN_PRESSURE][i] = wdetJ * s.Y.pressure; in ChildStatsCollection() 30 v[TURB_MEAN_PRESSURE_SQUARED][i] = wdetJ * Square(s.Y.pressure); in ChildStatsCollection() 31 v[TURB_MEAN_PRESSURE_VELOCITY_X][i] = wdetJ * s.Y.pressure * s.Y.velocity[0]; in ChildStatsCollection() 32 v[TURB_MEAN_PRESSURE_VELOCITY_Y][i] = wdetJ * s.Y.pressure * s.Y.velocity[1]; in ChildStatsCollection() 33 v[TURB_MEAN_PRESSURE_VELOCITY_Z][i] = wdetJ * s.Y.pressure * s.Y.velocity[2]; in ChildStatsCollection()
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| H A D | densitycurrent.h | 38 // These initial conditions are given in terms of potential temperature and Exner pressure and then… 49 // Exner Pressure: 71 // P0 , Pressure at the surface 74 // cp , Specific heat, constant pressure 117 // -- Exner pressure, hydrostatic balance in Exact_DC()
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| H A D | taylorgreen.h | 27 const CeedScalar density0 = reference.pressure / (reference.temperature * R); in ICsTaylorGreen() 34 …Y[0] = reference.pressure + (density0 * Square(V0) / 16) * (cos(2 * x[0]) + cos(2 * x[1])) * (cos(… in ICsTaylorGreen()
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| H A D | bc_slip.h | 33 …const CeedScalar Y_reflect[5] = {s.Y.pressure, vel_reflect[0], vel_reflect[1], vel_reflect[2], s.Y… in Slip() 86 …const CeedScalar Y_reflect[5] = {s.Y.pressure, vel_reflect[0], vel_reflect[1], vel_reflect[2], s.Y… in Slip_Jacobian() 92 …const CeedScalar dY_reflect[5] = {ds.Y.pressure, dvel_reflect[0], dvel_reflect[1], dvel_reflect[2]… in Slip_Jacobian()
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| H A D | channel.h | 24 CeedScalar P0; // !< Reference Pressure 114 // Find pressure using state inside the domain in Channel_Inflow() 118 const CeedScalar P = s_inside.Y.pressure; in Channel_Inflow() 170 const CeedScalar P = context->P0; // pressure in Channel_Outflow()
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| H A D | bc_freestream_type.h | 23 CeedScalar pressure; member
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| H A D | shocktube.h | 55 // Pressure: 67 // cp , Specific heat, constant pressure 81 const CeedScalar P_high = context->P_high; // Driver section pressure in Exact_ShockTube() 83 const CeedScalar P_low = context->P_low; // Driven section pressure in Exact_ShockTube() 217 // cp , Specific heat, constant pressure 269 P = E_internal * (gamma - 1); // P = pressure in EulerShockTube()
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| H A D | newtonian_types.h | 50 CeedScalar pressure; member
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| H A D | eulervortex.h | 41 // Pressure: 53 // cp , Specific heat, constant pressure 132 …case 3: // Velocity zero, pressure constant (so density and internal energy will be non-constant)… in Exact_Euler() 146 …case 4: // Constant nonzero velocity, pressure constant (so density and internal energy will be n… in Exact_Euler() 265 // cp , Specific heat, constant pressure 310 // Pressure in Euler() 312 P = E_internal * (gamma - 1.); // P = pressure in Euler() 434 P = E_internal * (gamma - 1.); // P = pressure in IFunction_Euler() 620 const CeedScalar P = (E - E_kinetic * rho) * (gamma - 1.); // pressure in Euler_Outflow()
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| H A D | stg_shur14_type.h | 26 CeedScalar P0; // !< Inlet pressure
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| H A D | gaussianwave.h | 56 U[4] = S_infty.Y.pressure / (gamma - 1) * perturbation + e_kinetic; in IC_GaussianWave()
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| /libCEED/examples/fluids/problems/ |
| H A D | bc_freestream.c | 38 …StatePrimitive Y_inf = {.pressure = reference->pressure / Pascal, .velocity = {0}, .temperature = … in FreestreamBCSetup() 44 …cOptionsScalar("-freestream_pressure", "Pressure at freestream condition", NULL, Y_inf.pressure, &… in FreestreamBCSetup() 101 Y_inf.pressure *= Pascal; in FreestreamBCSetup() 127 static const char *const OutflowTypes[] = {"RIEMANN", "PRESSURE", "OutflowType", "OUTFLOW_", NULL}; 143 CeedScalar pressure = reference->pressure / Pascal; in OutflowBCSetup() local 149 …scCall(PetscOptionsScalar("-outflow_pressure", "Pressure at outflow condition", NULL, pressure, &p… in OutflowBCSetup() 158 pressure *= Pascal; in OutflowBCSetup() 211 outflow_ctx->pressure = pressure; in OutflowBCSetup()
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| H A D | newtonian.c | 259 StatePrimitive reference = {.pressure = 1.01e5, .velocity = {0}, .temperature = 288.15}; in NS_NEWTONIAN_IG() 260 …edScalar idl_decay_time = -1, idl_start = 0, idl_length = 0, idl_pressure = reference.pressure; in NS_NEWTONIAN_IG() 324 PetscCall(PetscOptionsScalar("-cp", "Heat capacity at constant pressure", NULL, cp, &cp, NULL)); in NS_NEWTONIAN_IG() 345 …calar("-reference_pressure", "Reference/initial pressure", NULL, reference.pressure, &reference.pr… in NS_NEWTONIAN_IG() 363 …PetscCall(PetscOptionsScalar("-idl_decay_time", "Characteristic timescale of the pressure deviance… in NS_NEWTONIAN_IG() 369 idl_pressure = reference.pressure; in NS_NEWTONIAN_IG() 370 …PetscCall(PetscOptionsScalar("-idl_pressure", "Pressure IDL uses as reference (default is `-refere… in NS_NEWTONIAN_IG() 404 reference.pressure *= Pascal; in NS_NEWTONIAN_IG()
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| H A D | blasius.c | 50 // For an ideal gas at constant pressure, density is inversely proportional to enthalpy. in CompressibleBlasiusResidual() 281 …"Use -pressure_infinity to set pressure at boundary layer edge and -idl_pressure to set the IDL re… in NS_BLASIUS() 282 …PetscCall(PetscOptionsScalar("-pressure_infinity", "Pressure at boundary layer edge", NULL, P_inf,… in NS_BLASIUS() 326 .pressure = P_inf, .velocity = {U_inf, 0, 0}, in NS_BLASIUS() 359 PetscCall(SetupStg(comm, dm, problem, user, weakT, S_infty.Y.temperature, S_infty.Y.pressure)); in NS_BLASIUS()
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| /libCEED/examples/fluids/ |
| H A D | README.md | 267 The simpler `bc_outflow` variant, `outflow_type: pressure`, requires that the flow be a strict outf… 269 The `pressure` variant is retained to facilitate comparison with other codes, such as PHASTA-C, but… 583 - Heat capacity at constant pressure 618 - Characteristic timescale of the pressure deviance decay. The timestep is good starting point 633 - Pressure used for IDL reference pressure 701 - Freestream pressure 755 - Freestream pressure 824 - Atmospheric pressure 863 - Atmospheric pressure 907 - Atmospheric pressure, also sets IDL reference pressure
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| H A D | vortexshedding.yaml | 21 # This choice of pressure and temperature have a density of 1 and acoustic speed 24 pressure: 7143
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| H A D | gaussianwave.yaml | 13 pressure: 71.75
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| H A D | index.md | 28 …rmal conductivity constant, $T$ represents the temperature, and $P$ the pressure, given by the fol… 34 where $c_p$ is the specific heat at constant pressure and $c_v$ is the specific heat at constant vo… 619 …ts it evolve in time. The initial condition contains a Gaussian perturbation in the pressure field: 633 …freestream_riemann hllc`, which is default), which is a linear constant-pressure wave that transpo… 639 The domain is filled with an ideal gas at rest (zero velocity) with temperature 24.92 and pressure … 664 Its initial condition is defined in terms of the Exner pressure, $\pi(\bm{x},t)$, and potential tem… 670 where $P_0$ is the atmospheric pressure. 697 pressure is used for pressure in the inviscid flux terms (all other inviscid 877 The damping is defined in terms of a pressure-primitive anomaly $\bm Y'$ converted to conservative … 924 The reference state is selected using the `-reference_{velocity,pressure,temperature}` flags (Eucli…
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| /libCEED/examples/nek/boxes/ |
| H A D | b1e.rea | 97 0.00000 p093 Number of previous pressure solns saved 99 0.00000 p095 start projecting pressure after p95 step 187 T PRESSURE
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| /libCEED/examples/fluids/tests-output/ |
| H A D | blasius_test.yaml | 28 outflow_type: pressure
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| H A D | blasius_stgtest.yaml | 27 outflow_type: pressure # simpler, but worse than default "riemann"
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| H A D | stats_test.yaml | 31 outflow_type: pressure # simpler, but worse than default "riemann"
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