<?xml version="1.0" encoding="utf-8"?><Code_Saturne_GUI case="0_RANS" solver_version="6.0;7.0;8.0" study="test" version="2.0">
  <additional_scalars>
    <users/>
  </additional_scalars>
  <analysis_control>
    <output>
      <listing_printing_frequency>50</listing_printing_frequency>
      <mesh id="-1" label="Fluid domain" type="cells">
        <all_variables status="on"/>
        <location>all[]</location>
        <writer id="-1"/>
      </mesh>
      <mesh id="-2" label="Boundary" type="boundary_faces">
        <all_variables status="on"/>
        <location>all[]</location>
        <writer id="-1"/>
      </mesh>
      <probe_format choice="DAT"/>
      <probe_recording_frequency>-1</probe_recording_frequency>
      <probes_interpolation choice=""/>
      <probes_snap choice=""/>
      <writer id="-1" label="results">
        <directory name="postprocessing"/>
        <format name="ensight" options="separate_meshes"/>
        <frequency period="none"/>
        <output_at_end status="on"/>
        <time_dependency choice="fixed_mesh"/>
      </writer>
    </output>
    <profiles/>
    <scalar_balances/>
    <time_averages/>
    <time_parameters>
      <max_courant_num>1</max_courant_num>
      <max_fourier_num>10</max_fourier_num>
      <maximum_time>10</maximum_time>
      <property label="CourantNb" name="courant_number"/>
      <property label="FourierNb" name="fourier_number"/>
      <property name="local_time_step" label="LocalTime">
        <postprocessing_recording status="off"/>
        <probes choice="0"/>
      </property>
      <thermal_time_step status="on"/>
      <time_passing>1</time_passing>
      <time_step_max_factor>1000</time_step_max_factor>
      <time_step_min_factor>0.1</time_step_min_factor>
      <time_step_ref>0.01</time_step_ref>
      <time_step_var>0.1</time_step_var>
    </time_parameters>
  </analysis_control>
  <boundary_conditions>
    <boundary label="inlet_1" name="1" nature="inlet">inlet_1</boundary>
    <boundary label="inlet_2" name="2" nature="inlet">inlet_2</boundary>
    <boundary label="outlet" name="3" nature="imposed_p_outlet">outlet</boundary>
    <boundary label="wall" name="4" nature="wall">wall</boundary>
    <imposed_p_outlet label="outlet" field_id="none">
      <dirichlet name="pressure">80000</dirichlet>
    </imposed_p_outlet>
    <inlet field_id="none" label="inlet_1">
      <scalar choice="dirichlet" name="temperature" type="thermal">
        <dirichlet>19</dirichlet>
      </scalar>
      <turbulence choice="hydraulic_diameter">
        <hydraulic_diameter>0.14</hydraulic_diameter>
      </turbulence>
      <velocity_pressure choice="norm" direction="normal">
        <norm>0.585</norm>
      </velocity_pressure>
    </inlet>
    <inlet field_id="none" label="inlet_2">
      <scalar choice="dirichlet" name="temperature" type="thermal">
        <dirichlet>79</dirichlet>
      </scalar>
      <turbulence choice="hydraulic_diameter">
        <hydraulic_diameter>0.1</hydraulic_diameter>
      </turbulence>
      <velocity_pressure choice="norm" direction="normal">
        <direction_x>0</direction_x>
        <direction_y>0</direction_y>
        <direction_z>0</direction_z>
        <norm>0.764</norm>
      </velocity_pressure>
    </inlet>
    <inlet field_id="none" label="None">
      <turbulence choice="hydraulic_diameter">
        <hydraulic_diameter>1</hydraulic_diameter>
      </turbulence>
      <velocity_pressure choice="norm" direction="normal">
        <norm>1</norm>
      </velocity_pressure>
    </inlet>
    <outlet field_id="none" label="None"/>
    <wall field_id="none" label="wall">
      <scalar choice="neumann" name="temperature" type="thermal">
        <neumann>0</neumann>
      </scalar>
      <velocity_pressure choice="off">
        <dirichlet component="0" name="velocity">0</dirichlet>
        <dirichlet component="1" name="velocity">0</dirichlet>
        <dirichlet component="2" name="velocity">0</dirichlet>
      </velocity_pressure>
    </wall>
  </boundary_conditions>
  <calculation_management>
    <block_io/>
    <logging main="stdout"/>
    <partitioning/>
    <start_restart>
      <frozen_field status="off"/>
      <restart_rescue>0</restart_rescue>
    </start_restart>
  </calculation_management>
  <lagrangian model="off"/>
  <numerical_parameters>
    <gradient_transposed status="on"/>
    <pressure_relaxation>0.7</pressure_relaxation>
    <velocity_pressure_algo choice="simplec"/>
    <velocity_pressure_coupling status="on">
      <property name="weight_matrix_X" label="VPsolve1">
        <listing_printing status="off"/>
        <postprocessing_recording status="off"/>
      </property>
      <property name="weight_matrix_Y" label="VPsolve2">
        <listing_printing status="off"/>
        <postprocessing_recording status="off"/>
      </property>
      <property name="weight_matrix_Z" label="VPsolve3">
        <listing_printing status="off"/>
        <postprocessing_recording status="off"/>
      </property>
    </velocity_pressure_coupling>
  </numerical_parameters>
  <physical_properties>
    <fluid_properties>
      <material choice="user_material"/>
      <method choice="user_properties"/>
      <property choice="user_law" label="Density" name="density">
        <formula>a = 1.4078*10^(-5);
b = -5.5855*10^(-3);
c = -2.8886*10^(-3);
d = 1000.4;
density = 
temperature*(temperature*(a*temperature+b)+c)+d;</formula>
        <initial_value>996.0697</initial_value>
        <zone zone_id="2">
          <formula>p = 0.3;
a = 1.4078*10^(-5);
b = -5.5855*10^(-3);
c = -2.8886*10^(-3);
d = 1000.4;
d_f = 
temperature*(temperature*(a*temperature+b)+c)+d;
d_p = 5680;
density = p*d_f + (1-p)*d_p;</formula>
        </zone>
        <zone zone_id="3">
          <formula>p = 0.7;
a = 1.4078*10^(-5);
b = -5.5855*10^(-3);
c = -2.8886*10^(-3);
d = 1000.4;
d_f = 
temperature*(temperature*(a*temperature+b)+c)+d;
d_p = 4199;
density = p*d_f + (1-p)*d_p;</formula>
        </zone>
        <zone zone_id="4">
          <formula>p = 0.9;
a = 1.4078*10^(-5);
b = -5.5855*10^(-3);
c = -2.8886*10^(-3);
d = 1000.4;
d_f = 
temperature*(temperature*(a*temperature+b)+c)+d;
d_p = 2719;
density = p*d_f + (1-p)*d_p;</formula>
        </zone>
        <zone zone_id="5">
          <formula>a = 1.4078*10^(-5);
b = -5.5855*10^(-3);
c = -2.8886*10^(-3);
d = 1000.4;
density = 
temperature*(temperature*(a*temperature+b)+c)+d;</formula>
        </zone>
      </property>
      <property choice="constant" label="DiffDyn" name="dynamic_diffusion">
        <initial_value>0.01</initial_value>
        <listing_printing status="off"/>
        <postprocessing_recording status="off"/>
      </property>
      <property choice="user_law" label="LamVisc" name="molecular_viscosity">
        <formula>a = -1.9296*10^(-9);
b = 4.7256*10^(-7);
c = -4.2088*10^(-5);
d = 1.6947*10^(-3);
molecular_viscosity = temperature*(temperature*(a*temperature+b)+c)+d;</formula>
        <initial_value>0.000877</initial_value>
        <zone zone_id="2">
          <formula>p = 0.5;
ita = 1+2.5*(1-p);
a = -1.9296*10^(-9);
b = 4.7256*10^(-7);
c = -4.2088*10^(-5);
d = 1.6947*10^(-3);
molecular_viscosity =ita*(temperature*(temperature*(a*temperature+b)+c)+d);</formula>
        </zone>
        <zone zone_id="3">
          <formula>p = 0.7;
ita = 1+2.5*(1-p);
a = -1.9296*10^(-9);
b = 4.7256*10^(-7);
c = -4.2088*10^(-5);
d = 1.6947*10^(-3);
molecular_viscosity =(temperature*(temperature*(a*temperature+b)+c)+d);</formula>
        </zone>
        <zone zone_id="4">
          <formula>p = 0.9;
ita = 1+2.5*(1-p);
a = -1.9296*10^(-9);
b = 4.7256*10^(-7);
c = -4.2088*10^(-5);
d = 1.6947*10^(-3);
molecular_viscosity =(temperature*(temperature*(a*temperature+b)+c)+d);</formula>
        </zone>
        <zone zone_id="5">
          <formula>a = -1.9296*10^(-9);
b = 4.7256*10^(-7);
c = -4.2088*10^(-5);
d = 1.6947*10^(-3);
molecular_viscosity = temperature*(temperature*(a*temperature+b)+c)+d;</formula>
        </zone>
      </property>
      <property choice="user_law" label="SpecHeat" name="specific_heat">
        <formula>a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
specific_heat = temperature*(temperature*(a*temperature+b)+c)+d;</formula>
        <initial_value>4181.252</initial_value>
        <zone zone_id="2">
          <formula>p = 0.3;
a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
Cp_f = temperature*(temperature*(a*temperature+b)+c)+d;
Cp_p = 455;
specific_heat = p*Cp_f + (1-p)*Cp_p;</formula>
        </zone>
        <zone zone_id="3">
          <formula>p = 0.7;
a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
Cp_f = temperature*(temperature*(a*temperature+b)+c)+d;
Cp_p = 663;
specific_heat = p*Cp_f + (1-p)*Cp_p;</formula>
        </zone>
        <zone zone_id="4">
          <formula>p = 0.3;
a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
Cp_f = temperature*(temperature*(a*temperature+b)+c)+d;
Cp_p = 871;
specific_heat = p*Cp_f + (1-p)*Cp_p;</formula>
        </zone>
        <zone zone_id="5">
          <formula>a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
specific_heat = temperature*(temperature*(a*temperature+b)+c)+d;</formula>
        </zone>
      </property>
      <property choice="user_law" label="ThermalCond" name="thermal_conductivity">
        <formula>a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
specific_heat = temperature*(temperature*(a*temperature+b)+c)+d;
a2 = -3.0374*10^(-13);
b2 = -2.1701*10^(-9);
c2 = 4.7970*10^(-7);
d2 = 1.3538*10^(-4);
thermal_conductivity = (temperature*(temperature*(a2*temperature+b2)+c2)+d2)*specific_heat;</formula>
        <initial_value>0.613653</initial_value>
        <zone zone_id="2">
          <formula>p = 0.3;
a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
specific_heat = temperature*(temperature*(a*temperature+b)+c)+d;
a2 = -3.0374*10^(-13);
b2 = -2.1701*10^(-9);
c2 = 4.7970*10^(-7);
d2 = 1.3538*10^(-4);
lamda_f = (temperature*(temperature*(a2*temperature+b2)+c2)+d2)*specific_heat;
lamda_p = 2;
thermal_conductivity = p*lamda_f + (1-p)*lamda_p;</formula>
        </zone>
        <zone zone_id="3">
          <formula>p = 0.7;
a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
specific_heat = temperature*(temperature*(a*temperature+b)+c)+d;
a2 = -3.0374*10^(-13);
b2 = -2.1701*10^(-9);
c2 = 4.7970*10^(-7);
d2 = 1.3538*10^(-4);
lamda_f = (temperature*(temperature*(a2*temperature+b2)+c2)+d2)*specific_heat;
lamda_p = 100;
thermal_conductivity = p*lamda_f + (1-p)*lamda_p;</formula>
        </zone>
        <zone zone_id="4">
          <formula>p = 0.9;
a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
specific_heat = temperature*(temperature*(a*temperature+b)+c)+d;
a2 = -3.0374*10^(-13);
b2 = -2.1701*10^(-9);
c2 = 4.7970*10^(-7);
d2 = 1.3538*10^(-4);
lamda_f = (temperature*(temperature*(a2*temperature+b2)+c2)+d2)*specific_heat;
lamda_p = 202.4;
thermal_conductivity = p*lamda_f + (1-p)*lamda_p;</formula>
        </zone>
        <zone zone_id="5">
          <formula>a = -1.0224*10^(-4);
b = 2.9201*10^(-2);
c = -1.822;
d = 4209.9;
specific_heat = temperature*(temperature*(a*temperature+b)+c)+d;
a2 = -3.0374*10^(-13);
b2 = -2.1701*10^(-9);
c2 = 4.7970*10^(-7);
d2 = 1.3538*10^(-4);
thermal_conductivity = (temperature*(temperature*(a2*temperature+b2)+c2)+d2)*specific_heat;</formula>
        </zone>
      </property>
      <reference_pressure>101325</reference_pressure>
      <reference_temperature>20</reference_temperature>
    </fluid_properties>
    <gravity>
      <gravity_x>0</gravity_x>
      <gravity_y>0</gravity_y>
      <gravity_z>-9.81</gravity_z>
    </gravity>
    <notebook/>
    <omega>
      <omega_x>0</omega_x>
      <omega_y>0</omega_y>
      <omega_z>0</omega_z>
    </omega>
    <time_tables/>
  </physical_properties>
  <solution_domain>
    <extrusion/>
    <faces_cutting status="off"/>
    <joining/>
    <mesh_cartesian>
      <x_direction law="constant" max="1.0" min="0.0" ncells="1" prog="1.0"/>
      <y_direction law="constant" max="1.0" min="0.0" ncells="1" prog="1.0"/>
      <z_direction law="constant" max="1.0" min="0.0" ncells="1" prog="1.0"/>
    </mesh_cartesian>
    <mesh_smoothing status="off"/>
    <meshes_list>
      <mesh name="POROUS_0508_coarse.med"/>
    </meshes_list>
    <periodicity/>
    <thin_walls/>
    <volumic_conditions>
      <zone groundwater_law="off" head_losses="off" id="1" initialization="on" label="all_cells" momentum_source_term="off" physical_properties="off" porosity="off" scalar_source_term="off" solid="off" thermal_source_term="off">all[]</zone>
      <zone label="porous_1" id="2" initialization="on" head_losses="off" porosity="on" momentum_source_term="off" thermal_source_term="off" scalar_source_term="off" groundwater_law="off" physical_properties="on" solid="off" initial_value="off">porous_1</zone>
      <zone label="porous_2" id="3" initialization="off" head_losses="off" porosity="on" momentum_source_term="off" thermal_source_term="off" scalar_source_term="off" groundwater_law="off" physical_properties="on" solid="off" initial_value="off">porous_2</zone>
      <zone label="porous_3" id="4" initialization="off" head_losses="off" porosity="on" momentum_source_term="off" thermal_source_term="off" scalar_source_term="off" groundwater_law="off" physical_properties="on" solid="off" initial_value="off">porous_3</zone>
      <zone label="fluid" id="5" initialization="off" head_losses="off" porosity="off" momentum_source_term="off" thermal_source_term="off" scalar_source_term="off" groundwater_law="off" physical_properties="on" solid="off" initial_value="off">fluid</zone>
    </volumic_conditions>
  </solution_domain>
  <thermophysical_models>
    <ale_method/>
    <atmospheric_flows model="off">
      <large_scale_meteo status="off"/>
    </atmospheric_flows>
    <compressible_model model="off"/>
    <conjugate_heat_transfer>
      <external_coupling>
        <syrthes_instances/>
      </external_coupling>
    </conjugate_heat_transfer>
    <gas_combustion model="off">
      <soot_model model="off"/>
      <thermodynamical_pressure status="off"/>
    </gas_combustion>
    <groundwater_model model="off"/>
    <hgn_model model="off"/>
    <immersed_boundaries/>
    <internal_coupling>
      <coupled_scalars/>
      <solid_zones/>
    </internal_coupling>
    <interparticles_radiative_transfer>
      <emissivity>1.0</emissivity>
      <status>off</status>
    </interparticles_radiative_transfer>
    <joule_effect model="off"/>
    <porosities>
      <porosity zone_id="2" model="isotropic">
        <formula>porosity = 0.5;</formula>
      </porosity>
      <porosity zone_id="3" model="isotropic">
        <formula>p1 = 0.5;
p3 = 0.9;
r = sqrt(y^2+z^2);
porosity = (0.068-r)/0.002*(p3-p1)+p1;</formula>
      </porosity>
      <porosity zone_id="4" model="isotropic">
        <formula>porosity = 0.9;</formula>
      </porosity>
    </porosities>
    <radiative_transfer model="off">
      <absorption_coefficient type="constant">0</absorption_coefficient>
      <restart status="on"/>
    </radiative_transfer>
    <reference_values>
      <length/>
    </reference_values>
    <solid_fuels model="off"/>
    <source_terms/>
    <thermal_scalar model="temperature_celsius">
      <property label="Dimensionless Thermal flux" name="boundary_layer_nusselt" support="boundary">
        <postprocessing_recording status="off"/>
      </property>
      <property label="Boundary temperature" name="boundary_temperature" support="boundary"/>
      <property label="Thermal flux" name="thermal_flux" support="boundary"/>
      <property label="Tplus" name="tplus" support="boundary">
        <postprocessing_recording status="off"/>
      </property>
      <variable label="TempC" name="temperature" type="thermal">
        <blending_factor>1</blending_factor>
        <formula zone_id="1">temperature = 19.;</formula>
        <formula zone_id="2">temperature = 19;</formula>
        <max_value>79</max_value>
        <min_value>19</min_value>
        <rhs_reconstruction>1</rhs_reconstruction>
        <turbulent_flux_model>SGDH</turbulent_flux_model>
      </variable>
    </thermal_scalar>
    <turbomachinery model="off">
      <joining/>
    </turbomachinery>
    <turbulence model="k-epsilon-PL">
      <gravity_terms status="on"/>
      <initialization choice="reference_value" zone_id="1"/>
      <initialization zone_id="2" choice="reference_value"/>
      <initialization zone_id="4" choice="reference_value"/>
      <initialization zone_id="3" choice="reference_value"/>
      <initialization zone_id="5" choice="reference_value"/>
      <property label="TurbVisc" name="turbulent_viscosity"/>
      <reference_velocity>0.5</reference_velocity>
      <variable name="epsilon" label="epsilon">
        <blending_factor>0</blending_factor>
        <rhs_reconstruction>1</rhs_reconstruction>
      </variable>
      <variable name="k" label="k">
        <blending_factor>0</blending_factor>
        <rhs_reconstruction>1</rhs_reconstruction>
      </variable>
      <wall_function>3</wall_function>
    </turbulence>
    <velocity_pressure>
      <initialization>
        <formula zone_id="2">velocity[0] = 0.;
velocity[1] = 0.;
velocity[2] = 0.;</formula>
        <formula zone_id="1">velocity[0] = 0;
velocity[1] = 0.;
velocity[2] = 0.;</formula>
        <formula zone_id="3">velocity[0] = 0.;
velocity[1] = 0.;
velocity[2] = 0.;</formula>
        <formula zone_id="4">velocity[0] = 0.;
velocity[1] = 0.;
velocity[2] = 0.;</formula>
        <formula zone_id="5">velocity[0] = 0.;
velocity[1] = 0.;
velocity[2] = 0.;</formula>
      </initialization>
      <property label="Stress" name="stress" support="boundary"/>
      <property label="Stress, normal" name="stress_normal" support="boundary">
        <postprocessing_recording status="off"/>
      </property>
      <property label="Stress, tangential" name="stress_tangential" support="boundary">
        <postprocessing_recording status="off"/>
      </property>
      <property label="total_pressure" name="total_pressure"/>
      <property label="Yplus" name="yplus" support="boundary"/>
      <variable label="Pressure" name="pressure">
        <rhs_reconstruction>2</rhs_reconstruction>
      </variable>
      <variable dimension="3" label="Velocity" name="velocity">
        <blending_factor>1</blending_factor>
        <rhs_reconstruction>1</rhs_reconstruction>
      </variable>
    </velocity_pressure>
  </thermophysical_models>
</Code_Saturne_GUI>