# and compares to results from Krishnan et al. (2014).
import os
import sys
from matplotlib import pyplot
import snake
from snake.ibamr.simulation import IBAMRSimulation
from snake.cuibm.simulation import CuIBMSimulation
print('\nPython version:\n{}'.format(sys.version))
print('\nsnake version: {}\n'.format(snake.__version__))
simulation = IBAMRSimulation(
description='IBAMR',
directory=os.path.join(os.environ['HOME'], 'snakeReproducibilityPackages',
'ibamr', 'bodyMarkers', 'Re2000AoA30'))
simulation.read_forces()
simulation.get_mean_forces(limits=[32.0, 64.0])
simulation.get_strouhal(limits=[32.0, 64.0], order=200)
krishnan = CuIBMSimulation(description='Krishnan et al. (2014)')
krishnan.read_forces(file_path=os.path.join(
os.environ['SNAKE'], 'resources', 'flyingSnake2d_cuibm_anush',
'flyingSnake2dRe2000AoA30', 'forces'))
krishnan.get_mean_forces(limits=[32.0, 64.0])
krishnan.get_strouhal(limits=[32.0, 64.0], order=200)
dataframe = simulation.create_dataframe_forces(display_strouhal=True,
display_coefficients=True,
coefficient=-2.0)
"""
Plots the 2D velocity magnitude from a IBAMR simulation at saved time-steps
using the visualization software VisIt.
"""
from snake.ibamr.simulation import IBAMRSimulation
simulation = IBAMRSimulation()
body_name = 'flyingSnake2dAoA35ds004filledInside' # file name (no extension)
simulation.plot_field_contours_visit('velocity-magnitude', (0.0, 2.0),
body=body_name,
solution_folder='numericalSolution',
view=(-0.75, -1.0, 1.50, 1.0),
width=800)
# file: plotVorticitySnake.py # author: Olivier Mesnard ([email protected]) # description: Plots the 2D vorticity field near the snake. # Run this script from the simulation directory. from snake.ibamr.simulation import IBAMRSimulation simulation = IBAMRSimulation() simulation.plot_field_contours_visit( "vorticity", (-5.0, 5.0), body="flyingSnake2dAoA35ds004filledInside", solution_folder="numericalSolution", view=(-0.75, -1.0, 1.50, 1.0), width=800, )
# file: plotForceCoefficients.py # author: Olivier Mesnard ([email protected]) # description: Plots the instantaneous force coefficients. # Run this script from the simulation directory. from snake.ibamr.simulation import IBAMRSimulation simulation = IBAMRSimulation() simulation.read_forces() simulation.get_mean_forces(limits=[32.0, 64.0]) simulation.get_strouhal(limits=[32.0, 64.0], order=200) simulation.plot_forces(display_coefficients=True, coefficient=-2.0, display_extrema=True, order=200, limits=(0.0, 80.0, 0.0, 3.0), save_name='forceCoefficients') simulation.plot_forces(display_coefficients=True, coefficient=-2.0, display_extrema=True, order=200, limits=(0.0, 100.0, 0.0, 3.0), save_name='forceCoefficientsExtended') dataframe = simulation.create_dataframe_forces(display_strouhal=True, display_coefficients=True, coefficient=-2.0) print(dataframe)
# compute mean coefficients of each IBAMR simulations with boundary markers
cd_boundary, cl_boundary = [], []
directory = os.path.join(os.environ['HOME'], 'simulations_IBAMR',
'flyingSnake2d', 'discretizedBoundary')
folders = [
'flyingSnake2dRe1000AoA25_20150717', 'flyingSnake2dRe1000AoA30_20150717',
'flyingSnake2dRe1000AoA35_stabilized_20150907',
'flyingSnake2dRe1000AoA40_20150717',
'flyingSnake2dRe2000AoA25_stabilized_20150728',
'flyingSnake2dRe2000AoA30_stabilized_20150907',
'flyingSnake2dRe2000AoA35_stabilized_20150727',
'flyingSnake2dRe2000AoA40_stabilized_20150907'
]
for folder in folders:
simulation = IBAMRSimulation(directory=os.path.join(directory, folder))
simulation.read_forces()
simulation.get_mean_forces(limits=[32.0, 64.0])
cd_boundary.append(-2.0 * simulation.forces[0].mean['value'])
cl_boundary.append(-2.0 * simulation.forces[1].mean['value'])
# compute mean coefficients of each IBAMR simulations with body markers
cd_body, cl_body = [], []
directory = os.path.join(os.environ['HOME'], 'simulations_IBAMR',
'flyingSnake2d', 'discretizedBody')
folders = [
'flyingSnake2dRe1000AoA25_20151123', 'flyingSnake2dRe1000AoA30_20151123',
'flyingSnake2dRe1000AoA35_20151123', 'flyingSnake2dRe1000AoA40_20151123',
'flyingSnake2dRe2000AoA25_20151119', 'flyingSnake2dRe2000AoA30_20151123',
'flyingSnake2dRe2000AoA35_20151115', 'flyingSnake2dRe2000AoA40_20151123'
]
# and saves it as .png and .pdf files.
import os
import shutil
from snake.ibamr.simulation import IBAMRSimulation
simulation_directory = os.path.join(os.environ['HOME'],
'simulations_IBAMR',
'flyingSnake2d',
'discretizedBoundary',
'flyingSnake2dRe2000AoA35_20150717')
simulation = IBAMRSimulation(directory=simulation_directory)
simulation.plot_field_contours_visit('vorticity', (-5.0, 5.0),
body='flyingSnake2dAoA35ds004',
solution_folder='numericalSolution',
view=(-2.0, -5.0, 15.0, 5.0),
width=600,
states=(56, 57, 1))
file_path_source = os.path.join(simulation.directory,
'images',
'vorticity_-2.00_-5.00_15.00_5.00',
'vorticity0000056.png')
# copy .png file here
file_name_destination = 'ibamr_vorticity56Re2000AoA35_zeroGradientOutlet.png'
shutil.copy(file_path_source, file_name_destination)
# file: plotVorticity.py # author: Olivier Mesnard ([email protected]) # description: Plots the 2D vorticity field # and saves it as .png and .pdf files. import os import shutil from snake.ibamr.simulation import IBAMRSimulation simulation_directory = os.path.join(os.environ['HOME'], 'simulations_IBAMR', 'flyingSnake2d', 'discretizedBoundary', 'flyingSnake2dRe2000AoA35_20150717') simulation = IBAMRSimulation(directory=simulation_directory) simulation.plot_field_contours_visit('vorticity', (-5.0, 5.0), body='flyingSnake2dAoA35ds004', solution_folder='numericalSolution', view=(-2.0, -5.0, 15.0, 5.0), width=600, states=(56, 57, 1)) file_path_source = os.path.join(simulation.directory, 'images', 'vorticity_-2.00_-5.00_15.00_5.00', 'vorticity0000056.png') # copy .png file here file_name_destination = 'ibamr_vorticity56Re2000AoA35_zeroGradientOutlet.png' shutil.copy(file_path_source, file_name_destination) # copy as .pdf here file_name_destination = 'ibamr_vorticity56Re2000AoA35_zeroGradientOutlet.pdf'
# file: plotVorticity.py # author: Olivier Mesnard ([email protected]) # description: Plots the 2D vorticity field. # Run this script from the simulation directory. from snake.ibamr.simulation import IBAMRSimulation simulation = IBAMRSimulation() simulation.plot_field_contours_visit('vorticity', (-5.0, 5.0), body='flyingSnake2dAoA35ds004filledInside', solution_folder='numericalSolution', view=(-2.0, -5.0, 15.0, 5.0), width=800)
# file: plotPressure.py # author: Olivier Mesnard ([email protected]) # description: Plots the 2D pressure field. # Run this script from the simulation directory. from snake.ibamr.simulation import IBAMRSimulation simulation = IBAMRSimulation() simulation.plot_field_contours_visit( 'pressure', (-1.0, 0.5), body='flyingSnake2dAoA35ds004filledInside', solution_folder='numericalSolution', view=(-15.0, -15.0, 15.0, 15.0), width=800)
# author: Olivier Mesnard ([email protected]) # description: Plots the 2D vorticity field # and saves it as .png and .pdf files. import os import sys import shutil import snake from snake.ibamr.simulation import IBAMRSimulation print('\nPython version:\n{}'.format(sys.version)) print('\nsnake version: {}\n'.format(snake.__version__)) simulation = IBAMRSimulation( directory=os.path.join(os.environ['HOME'], 'snakeReproducibilityPackages', 'ibamr', 'zeroGradientOutlet', 'Re2000AoA35')) simulation.plot_field_contours_visit('vorticity', (-5.0, 5.0), body='flyingSnake2dAoA35ds004', solution_folder='numericalSolution', view=(-2.0, -5.0, 15.0, 5.0), width=600, states=(56, 57, 1)) file_path_source = os.path.join(simulation.directory, 'images', 'vorticity_-2.00_-5.00_15.00_5.00', 'vorticity0000056.png') # copy .png file here file_name_destination = 'ibamr_vorticity56Re2000AoA35_zeroGradientOutlet.png' shutil.copy(file_path_source, file_name_destination) # copy as .pdf here
# file: plotLiftCoefficientCompareKrishnanEtAl2014.py # author: Olivier Mesnard ([email protected]) # description: Plots the instantaneous lift coefficient # and compare to results from Krishnan et al. (2014). # Run this script from the simulation directory. import os from snake.ibamr.simulation import IBAMRSimulation from snake.cuibm.simulation import CuIBMSimulation simulation = IBAMRSimulation(description='IBAMR') simulation.read_forces() simulation.get_mean_forces(limits=[32.0, 64.0]) simulation.get_strouhal(limits=[32.0, 64.0], order=200) krishnan = CuIBMSimulation(description='Krishnan et al. (2014)') krishnan.read_forces(file_path='{}/resources/flyingSnake2d_cuibm_anush/' 'flyingSnake2dRe2000AoA35/forces' ''.format(os.environ['SNAKE'])) krishnan.get_mean_forces(limits=[32.0, 64.0]) krishnan.get_strouhal(limits=[32.0, 64.0], order=200) simulation.plot_forces(indices=[1], display_coefficients=True, coefficient=-2.0, display_extrema=True, order=200, limits=(0.0, 80.0, 0.0, 3.0), other_simulations=krishnan,
# file: plotLiftCoefficientCompareKrishnanEtAl2014.py # author: Olivier Mesnard ([email protected]) # description: Plots the instantaneous lift coefficient # and compare to results from Krishnan et al. (2014). # Run this script from the simulation directory. import os from snake.ibamr.simulation import IBAMRSimulation from snake.cuibm.simulation import CuIBMSimulation simulation = IBAMRSimulation(description='IBAMR') simulation.read_forces() simulation.get_mean_forces(limits=[32.0, 64.0]) simulation.get_strouhal(limits=[32.0, 64.0], order=200) krishnan = CuIBMSimulation(description='Krishnan et al. (2014)') krishnan.read_forces(file_path='{}/resources/flyingSnake2d_cuibm_anush/' 'flyingSnake2dRe2000AoA35/forces' ''.format(os.environ['SNAKE'])) krishnan.get_mean_forces(limits=[32.0, 64.0]) krishnan.get_strouhal(limits=[32.0, 64.0], order=200) simulation.plot_forces(indices=[1], display_coefficients=True, coefficient=-2.0, display_extrema=True, order=200, limits=(0.0, 80.0, 0.0, 3.0), other_simulations=krishnan, other_coefficients=2.0,
# file: plotVelocityMagnitudeSnake.py # author: Olivier Mesnard ([email protected]) # description: Plots the 2D velocity-magnitude field near the snake. # Run this script from the simulation directory. from snake.ibamr.simulation import IBAMRSimulation simulation = IBAMRSimulation() simulation.plot_field_contours_visit('velocity-magnitude', (0.0, 2.0), body='flyingSnake2dAoA35ds004filledInside', solution_folder='numericalSolution', view=(-0.75, -1.0, 1.50, 1.0), width=800)
import os
import yaml
import argparse
from matplotlib import pyplot
import snake
from snake.ibamr.simulation import IBAMRSimulation
if snake.__version__ != '0.1.2':
warnings.warn('The figures were originally created with snake-0.1.2, ' +
'you are using snake-{}'.format(snake.__version__))
directory = os.path.join(os.path.dirname(__file__), 'rtol10')
simulation = IBAMRSimulation(description='rtol=1.0E-10', directory=directory)
simulation.read_forces()
simulation.get_mean_forces(limits=[32.0, 64.0])
directory = os.path.join(os.path.dirname(__file__), 'rtol6')
loose = IBAMRSimulation(description='rtol=1.0E-06', directory=directory)
loose.read_forces()
loose.get_mean_forces(limits=[32.0, 64.0])
dataframe = simulation.create_dataframe_forces(display_coefficients=True,
coefficient=-2.0)
dataframe2 = loose.create_dataframe_forces(display_coefficients=True,
coefficient=-2.0)
dataframe = dataframe.append(dataframe2)
print(dataframe)
# file: plotVelocityMagnitudeSnake.py # author: Olivier Mesnard ([email protected]) # description: Plots the 2D velocity-magnitude field near the snake. # Run this script from the simulation directory. from snake.ibamr.simulation import IBAMRSimulation simulation = IBAMRSimulation() simulation.plot_field_contours_visit( 'velocity-magnitude', (0.0, 2.0), body='flyingSnake2dAoA35ds004filledInside', solution_folder='numericalSolution', view=(-0.75, -1.0, 1.50, 1.0), width=800)
# file: plotForceCoefficientsRe2000AoA30.py # author: Olivier Mesnard ([email protected]) # description: Plots the instantaneous force coefficients # and compares to results from Krishnan et al. (2014). import os from matplotlib import pyplot from snake.ibamr.simulation import IBAMRSimulation from snake.cuibm.simulation import CuIBMSimulation simulation = IBAMRSimulation(description='IBAMR', directory=os.path.join( os.environ['HOME'], 'simulations_IBAMR', 'flyingSnake2d', 'discretizedBody', 'flyingSnake2dRe2000AoA30_20151123')) simulation.read_forces() simulation.get_mean_forces(limits=[32.0, 64.0]) simulation.get_strouhal(limits=[32.0, 64.0], order=200) krishnan = CuIBMSimulation(description='Krishnan et al. (2014)') krishnan.read_forces(file_path='{}/resources/flyingSnake2d_cuibm_anush/' 'flyingSnake2dRe2000AoA30/forces' ''.format(os.environ['SNAKE'])) krishnan.get_mean_forces(limits=[32.0, 64.0]) krishnan.get_strouhal(limits=[32.0, 64.0], order=200) dataframe = simulation.create_dataframe_forces(display_strouhal=True, display_coefficients=True, coefficient=-2.0)
parser.add_argument('--save-dir',
dest='save_directory',
type=str,
default=script_directory,
help='directory where to save the figures')
args = parser.parse_args()
with open(args.map, 'r') as infile:
dirs = yaml.load(infile)
# Computes the mean coefficients from the IBAMR simulations with surface markers.
# The force coefficients are averaged between 32 and 64 time-units.
cd_surface, cl_surface = [], []
for re in ['Re1000', 'Re2000']:
for aoa in ['AoA25', 'AoA30', 'AoA35', 'AoA40']:
simulation_directory = dirs['ibamr_forceCoefficientsVsAoA']['surfaceMarkers'][re][aoa]
simulation = IBAMRSimulation(directory=simulation_directory)
simulation.read_forces()
simulation.get_mean_forces(limits=[32.0, 64.0])
cd_surface.append(-2.0*simulation.forces[0].mean['value'])
cl_surface.append(-2.0*simulation.forces[1].mean['value'])
# Computes the mean coefficients from the IBAMR simulations with body markers.
# The force coefficients are averaged between 32 and 64 time-units.
cd_body, cl_body = [], []
for re in ['Re1000', 'Re2000']:
for aoa in ['AoA25', 'AoA30', 'AoA35', 'AoA40']:
simulation_directory = dirs['ibamr_forceCoefficientsVsAoA']['bodyMarkers'][re][aoa]
simulation = IBAMRSimulation(directory=simulation_directory)
simulation.read_forces()
simulation.get_mean_forces(limits=[32.0, 64.0])
cd_body.append(-2.0*simulation.forces[0].mean['value'])
import argparse
from matplotlib import pyplot
import snake
from snake.ibamr.simulation import IBAMRSimulation
if snake.__version__ != '0.1.2':
warnings.warn('The figures were originally created with snake-0.1.2, '+
'you are using snake-{}'.format(snake.__version__))
directory = os.path.join(os.path.dirname(__file__),
'cfl0.1')
simulation = IBAMRSimulation(description='cfl=0.1',
directory=directory)
simulation.read_forces()
simulation.get_mean_forces(limits=[32.0, 64.0])
directory = os.path.join(os.path.dirname(__file__),
'cfl0.3')
loose = IBAMRSimulation(description='cfl=0.3',
directory=directory)
loose.read_forces()
loose.get_mean_forces(limits=[32.0, 64.0])
dataframe = simulation.create_dataframe_forces(display_coefficients=True,
coefficient=-2.0)
dataframe2 = loose.create_dataframe_forces(display_coefficients=True,
coefficient=-2.0)
dataframe = dataframe.append(dataframe2)
"""
Plots the 2D pressure field from a IBAMR simulation at saved time-steps using
the visualization software VisIt.
"""
from snake.ibamr.simulation import IBAMRSimulation
simulation = IBAMRSimulation()
body_name = 'flyingSnake2dAoA35ds004filledInside' # file name (no extension)
simulation.plot_field_contours_visit('pressure', (-1.0, 0.5),
body=body_name,
solution_folder='numericalSolution',
view=(-15.0, -15.0, 15.0, 15.0),
width=800)
"""
Post-processes the force coefficients from a IBAMR simulation.
This script reads the forces, computes the mean forces within a given range,
computes the Strouhal number within a range, plots the force coefficients,
saves the figure, and prints a data-frame that contains the mean values.
"""
from snake.ibamr.simulation import IBAMRSimulation
simulation = IBAMRSimulation()
simulation.read_forces()
time_limits = (32.0, 64.0)
simulation.get_mean_forces(limits=time_limits)
simulation.get_strouhal(limits=time_limits, order=200)
simulation.plot_forces(display_coefficients=True,
coefficient=-2.0,
display_extrema=True, order=200,
limits=(0.0, 80.0, 0.0, 3.0),
style='mesnardo',
save_name='forceCoefficients')
dataframe = simulation.create_dataframe_forces(display_strouhal=True,
display_coefficients=True,
coefficient=-2.0)
print(dataframe)
"""
Plots the 2D velocity magnitude from a IBAMR simulation at saved time-steps
using the visualization software VisIt.
"""
from snake.ibamr.simulation import IBAMRSimulation
simulation = IBAMRSimulation()
body_name = 'flyingSnake2dAoA35ds004filledInside' # file name (no extension)
simulation.plot_field_contours_visit('velocity-magnitude', (0.0, 2.0),
body=body_name,
solution_folder='numericalSolution',
view=(-0.75, -1.0, 1.50, 1.0),
width=800)
"""
Post-processes the force coefficients from a IBAMR simulation and compare them
to cuIBM ones (obtained by Anush Krishnan and
published into Krishnan et al., 2014).
This script reads the forces, computes the mean forces within a given range,
computes the Strouhal number within a range, plots the force coefficients,
saves the figure, and prints a data-frame that contains the mean values.
"""
import os
from snake.ibamr.simulation import IBAMRSimulation
from snake.cuibm.simulation import CuIBMSimulation
simulation = IBAMRSimulation(description='IBAMR')
simulation.read_forces()
time_limits = (32.0, 64.0)
simulation.get_mean_forces(limits=time_limits)
simulation.get_strouhal(limits=time_limits, order=200)
krishnan = CuIBMSimulation(description='Krishnan et al. (2014)')
filepath = os.path.join(os.environ['SNAKE'], 'resources',
'flyingSnake2d_cuibm_anush',
'flyingSnake2dRe2000AoA35', 'forces')
krishnan.read_forces(file_path=filepath)
krishnan.get_mean_forces(limits=time_limits)
krishnan.get_strouhal(limits=time_limits, order=200)
simulation.plot_forces(display_coefficients=True,
coefficient=-2.0,
type=str,
default=os.path.join(script_directory, 'map.yaml'),
help='file containing the list of simulation directories')
parser.add_argument('--save-dir',
dest='save_directory',
type=str,
default=script_directory,
help='directory where to save the figures')
args = parser.parse_args()
with open(args.map, 'r') as infile:
dirs = yaml.load(infile)
# plot the instantaneous force coefficients at Re=2000 and AoA=30deg
# and compare to the results reported in Kirshnan et al. (2014)
simulation_directory = dirs['ibamr_forceCoefficientsRe2000']['AoA30']
simulation = IBAMRSimulation(description='IBAMR',
directory=simulation_directory)
simulation.read_forces()
simulation.get_mean_forces(limits=[32.0, 64.0])
simulation.get_strouhal(limits=[32.0, 64.0], order=200)
krishnan = CuIBMSimulation(description='Krishnan et al. (2014)')
krishnan.read_forces(file_path=os.path.join(
os.environ['SNAKE'], 'resources', 'flyingSnake2d_cuibm_anush',
'flyingSnake2dRe2000AoA30', 'forces'))
krishnan.get_mean_forces(limits=[32.0, 64.0])
krishnan.get_strouhal(limits=[32.0, 64.0], order=200)
dataframe = simulation.create_dataframe_forces(display_strouhal=True,
display_coefficients=True,
coefficient=-2.0)
dataframe2 = krishnan.create_dataframe_forces(display_strouhal=True,
# file: plotPressure.py # author: Olivier Mesnard ([email protected]) # description: Plots the 2D pressure field. # Run this script from the simulation directory. from snake.ibamr.simulation import IBAMRSimulation simulation = IBAMRSimulation() simulation.plot_field_contours_visit('pressure', (-1.0, 0.5), body='flyingSnake2dAoA35ds004filledInside', solution_folder='numericalSolution', view=(-15.0, -15.0, 15.0, 15.0), width=800)
import os
import sys
from matplotlib import pyplot
import snake
from snake.ibamr.simulation import IBAMRSimulation
from snake.cuibm.simulation import CuIBMSimulation
print('\nPython version:\n{}'.format(sys.version))
print('\nsnake version: {}\n'.format(snake.__version__))
simulation = IBAMRSimulation(description='IBAMR',
directory=os.path.join(os.environ['HOME'],
'snakeReproducibilityPackages',
'ibamr',
'bodyMarkers',
'Re2000AoA30'))
simulation.read_forces()
simulation.get_mean_forces(limits=[32.0, 64.0])
simulation.get_strouhal(limits=[32.0, 64.0], order=200)
krishnan = CuIBMSimulation(description='Krishnan et al. (2014)')
krishnan.read_forces(file_path=os.path.join(os.environ['SNAKE'],
'resources',
'flyingSnake2d_cuibm_anush',
'flyingSnake2dRe2000AoA30',
'forces'))
krishnan.get_mean_forces(limits=[32.0, 64.0])
krishnan.get_strouhal(limits=[32.0, 64.0], order=200)
# file: plotForceCoefficientsCompareOther.py # author: Olivier Mesnard ([email protected]) # description: Plots the instantaneous force coefficients # and compare to results from other simulation. # Run this script from the simulation directory. from snake.ibamr.simulation import IBAMRSimulation from snake.petibm.simulation import PetIBMSimulation simulation = IBAMRSimulation(description='IBAMR') simulation.read_forces() simulation.get_mean_forces(limits=[32.0, 64.0]) simulation.get_strouhal(limits=[32.0, 64.0], order=200) other = PetIBMSimulation(description='other', directory='other') other.read_forces() other.get_mean_forces(limits=[32.0, 64.0]) other.get_strouhal(limits=[32.0, 64.0], order=200) simulation.plot_forces(display_coefficients=True, coefficient=-2.0, display_extrema=True, order=200, limits=(0.0, 80.0, 0.0, 3.0), other_simulations=other, other_coefficients=2.0, save_name='forceCoefficientsCompareOther') dataframe = simulation.create_dataframe_forces(display_strouhal=True, display_coefficients=True,
saved in the present directory.
"""
import os
from matplotlib import pyplot
import snake
from snake.ibamr.simulation import IBAMRSimulation
if snake.__version__ != '0.1.2':
warnings.warn('The figures were originally created with snake-0.1.2, ' +
'you are using snake-{}'.format(snake.__version__))
directory = os.path.join(os.path.dirname(__file__), 'h0.002')
simulation = IBAMRSimulation(description='h=0.002', directory=directory)
simulation.read_forces()
simulation.get_mean_forces(limits=[32.0, 64.0])
directory = os.path.join(os.path.dirname(__file__), 'h0.004')
other = IBAMRSimulation(description='h=0.004', directory=directory)
other.read_forces()
other.get_mean_forces(limits=[32.0, 64.0])
dataframe = simulation.create_dataframe_forces(display_coefficients=True,
coefficient=-2.0)
dataframe2 = other.create_dataframe_forces(display_coefficients=True,
coefficient=-2.0)
dataframe = dataframe.append(dataframe2)
print(dataframe)
"""
Plots the 2D vorticity field from a IBAMR simulation at saved time-steps using
the visualization software VisIt.
"""
from snake.ibamr.simulation import IBAMRSimulation
simulation = IBAMRSimulation()
body_name = 'flyingSnake2dAoA35ds004filledInside' # file name (no extension)
simulation.plot_field_contours_visit('vorticity', (-5.0, 5.0),
body=body_name,
solution_folder='numericalSolution',
view=(-2.0, -5.0, 15.0, 5.0),
width=800)