'you are using snake-{}'.format(snake.__version__))

atol_min, atol_max = 5, 16
time_step = 1500

main_directory = os.path.dirname(__file__)

reference_directory = os.path.join(main_directory,
                                   'atol16')
reference = CuIBMSimulation(directory=reference_directory,
                            description='atol=1.0E-16')
reference.read_forces()
fx_reference = reference.forces[0].values[-1]
fy_reference = reference.forces[1].values[-1]
reference.read_grid()
p_reference = reference.read_pressure(time_step)
qx_reference, qy_reference = reference.read_fluxes(time_step)

fx_errors, fy_errors = [], []
p_errors = []
qx_errors, qy_errors = [], []

for atol in range(atol_min, atol_max):
  directory = os.path.join(main_directory,
                           'atol{}'.format(atol))
  simu = CuIBMSimulation(directory=directory,
                         description='1.0E-{}'.format(atol))
  simu.read_forces()
  fx = simu.forces[0].values[-1]
  fy = simu.forces[1].values[-1]
  simu.read_grid()
refinement_ratio = 2.0

fx, fy = [], []
p = []
qx, qy = [], []

main_directory = os.path.dirname(__file__)

for time_increment, final_time_step in zip(time_increments, final_time_steps):
    directory = os.path.join(main_directory, time_increment.replace('=', ''))
    simu = CuIBMSimulation(directory=directory, description=time_increment)
    simu.read_forces()
    fx.append(simu.forces[0].values[-1])
    fy.append(simu.forces[1].values[-1])
    simu.read_grid()
    p_simu = simu.read_pressure(final_time_step)
    p.append(p_simu.values)
    qx_simu, qy_simu = simu.read_fluxes(final_time_step)
    qx.append(qx_simu.values)
    qy.append(qy_simu.values)

file_path = os.path.join(os.path.dirname(__file__), 'temporalConvergence.txt')
with open(file_path, 'w') as outfile:
    outfile.write('\n* Drag force:\n')
    outfile.write(
        'Value and relative difference with the reference value (smallest dt)\n'
    )
    outfile.write('\t{}: {}\n'.format(time_increments[0], fx[0]))
    for i in (1, 2):
        outfile.write('\t{}: {} ({}%)\n'.format(
            time_increments[i], fx[i], (fx[i] - fx[0]) / fx[0] * 100.0))
示例#3
0
    warnings.warn('The figures were originally created with snake-0.1.2, ' +
                  'you are using snake-{}'.format(snake.__version__))

atol_min, atol_max = 5, 16
time_step = 1500

main_directory = os.path.dirname(__file__)

reference_directory = os.path.join(main_directory, 'atol16')
reference = CuIBMSimulation(directory=reference_directory,
                            description='atol=1.0E-16')
reference.read_forces()
fx_reference = reference.forces[0].values[-1]
fy_reference = reference.forces[1].values[-1]
reference.read_grid()
p_reference = reference.read_pressure(time_step)
qx_reference, qy_reference = reference.read_fluxes(time_step)

fx_errors, fy_errors = [], []
p_errors = []
qx_errors, qy_errors = [], []

for atol in range(atol_min, atol_max):
    directory = os.path.join(main_directory, 'atol{}'.format(atol))
    simu = CuIBMSimulation(directory=directory,
                           description='1.0E-{}'.format(atol))
    simu.read_forces()
    fx = simu.forces[0].values[-1]
    fy = simu.forces[1].values[-1]
    simu.read_grid()
    p = simu.read_pressure(time_step)
refinement_ratio = 2.0

fx, fy = [], []
p = []
qx, qy = [], []

main_directory = os.path.dirname(__file__)

for time_increment, final_time_step in zip(time_increments, final_time_steps):
    directory = os.path.join(main_directory, time_increment.replace("=", ""))
    simu = CuIBMSimulation(directory=directory, description=time_increment)
    simu.read_forces()
    fx.append(simu.forces[0].values[-1])
    fy.append(simu.forces[1].values[-1])
    simu.read_grid()
    p_simu = simu.read_pressure(final_time_step)
    p.append(p_simu.values)
    qx_simu, qy_simu = simu.read_fluxes(final_time_step)
    qx.append(qx_simu.values)
    qy.append(qy_simu.values)


file_path = os.path.join(os.path.dirname(__file__), "temporalConvergence.txt")
with open(file_path, "w") as outfile:
    outfile.write("\n* Drag force:\n")
    outfile.write("Value and relative difference with the reference value (smallest dt)\n")
    outfile.write("\t{}: {}\n".format(time_increments[0], fx[0]))
    for i in (1, 2):
        outfile.write("\t{}: {} ({}%)\n".format(time_increments[i], fx[i], (fx[i] - fx[0]) / fx[0] * 100.0))
    outfile.write(
        "Observed order of convergence: {}\n".format(