def call_SU2(conditions, settings, geometry): """ calculate total vehicle lift coefficient with SU2 """ half_mesh_flag = settings.half_mesh_flag tag = geometry.tag parallel = settings.parallel processors = settings.processors iters = settings.maximum_iterations SU2_settings = Data() if half_mesh_flag == False: SU2_settings.reference_area = geometry.reference_area else: SU2_settings.reference_area = geometry.reference_area / 2. SU2_settings.mach_number = conditions.aerodynamics.mach SU2_settings.angle_of_attack = conditions.aerodynamics.angle_of_attack / Units.deg SU2_settings.maximum_iterations = iters # Build SU2 configuration file write_SU2_cfg(tag, SU2_settings) # Run SU2 CL, CD = call_SU2_CFD(tag, parallel, processors) return CL, CD
def call_SU2(conditions,settings,geometry): """Calculates lift and drag using SU2 Assumptions: None Source: N/A Inputs: conditions. mach_number [-] angle_of_attack [radians] settings. half_mesh_flag <boolean> Determines if a symmetry plane is used parallel <boolean> processors [-] maximum_iterations [-] geometry. tag reference_area [m^2] Outputs: CL [-] CD [-] Properties Used: N/A """ half_mesh_flag = settings.half_mesh_flag tag = geometry.tag parallel = settings.parallel processors = settings.processors iters = settings.maximum_iterations SU2_settings = Data() if half_mesh_flag == False: SU2_settings.reference_area = geometry.reference_area else: SU2_settings.reference_area = geometry.reference_area/2. SU2_settings.mach_number = conditions.aerodynamics.mach SU2_settings.angle_of_attack = conditions.aerodynamics.angle_of_attack / Units.deg SU2_settings.maximum_iterations = iters # Build SU2 configuration file write_SU2_cfg(tag, SU2_settings) # Run SU2 CL, CD = call_SU2_CFD(tag,parallel,processors) return CL, CD