def _save_drop_contour_fit_residuals_figure(drop: IFTDropAnalysis, out_file,
fig_size: Tuple[float, float],
dpi: int) -> None:
residuals = drop.bn_residuals.get()
if residuals is None:
return
fig = simple_grapher(label_x=r'Arclength parameter',
label_y='Residual',
data_x=residuals[:, 0],
data_y=residuals[:, 1],
color='blue',
marker='.',
line_style='',
fig_size=fig_size,
dpi=dpi)
fig.savefig(out_file)
def _save_drop_contour_fit_residuals_figure(drop: PendantAnalysisJob, out_file,
fig_size: Tuple[float, float],
dpi: int) -> None:
arclengths = drop.bn_arclengths.get()
residuals = drop.bn_residuals.get()
if arclengths is None or residuals is None:
return
fig = simple_grapher(label_x=r'Arclength',
label_y='Residual',
data_x=arclengths,
data_y=residuals,
color='blue',
marker='.',
line_style='',
fig_size=fig_size,
dpi=dpi)
fig.savefig(out_file)
def _save_surface_area_figure(drops: Sequence[PendantAnalysisJob], out_file,
fig_size: Tuple[float, float], dpi: int) -> None:
drops = [
drop for drop in drops if math.isfinite(drop.bn_image_timestamp.get())
and math.isfinite(drop.bn_surface_area.get())
]
start_time = min(drop.bn_image_timestamp.get() for drop in drops)
data = ((drop.bn_image_timestamp.get() - start_time,
drop.bn_surface_area.get() * 1e6) for drop in drops)
fig = simple_grapher('Time [s]',
'Surface area [mm²]',
*zip(*data),
marker='.',
line_style='-',
color='green',
fig_size=fig_size,
dpi=dpi)
fig.savefig(out_file)
def _save_ift_figure(drops: Sequence[PendantAnalysisJob], out_file,
fig_size: Tuple[float, float], dpi: int) -> None:
drops = [
drop for drop in drops if math.isfinite(drop.bn_image_timestamp.get())
and math.isfinite(drop.bn_interfacial_tension.get())
]
start_time = min(drop.bn_image_timestamp.get() for drop in drops)
data = ((drop.bn_image_timestamp.get() - start_time,
drop.bn_interfacial_tension.get() * 1e3) for drop in drops)
fig = simple_grapher('Time [s]',
'Interfacial tension [mN m⁻¹]',
*zip(*data),
marker='.',
line_style='-',
color='red',
fig_size=fig_size,
dpi=dpi)
fig.savefig(out_file)
def _save_volume_figure(drops: Sequence[IFTDropAnalysis], out_file,
fig_size: Tuple[float, float], dpi: int) -> None:
drops = [
drop for drop in drops if math.isfinite(drop.bn_image_timestamp.get())
and math.isfinite(drop.bn_volume.get())
]
start_time = min(drop.bn_image_timestamp.get() for drop in drops)
data = ((drop.bn_image_timestamp.get() - start_time,
drop.bn_volume.get() * 1e9) for drop in drops)
fig = simple_grapher('Time (s)',
'Volume (mm³)',
*zip(*data),
marker='.',
line_style='-',
color='blue',
fig_size=fig_size,
dpi=dpi)
fig.savefig(out_file)
def _save_right_angle_figure(drops: Sequence[ConanAnalysis], out_file,
fig_size: Tuple[float, float], dpi: int) -> None:
drops = [
drop for drop in drops if math.isfinite(drop.bn_image_timestamp.get())
and math.isfinite(drop.bn_right_angle.get())
]
data = [
*zip(*((drop.bn_image_timestamp.get(),
math.degrees(drop.bn_right_angle.get())) for drop in drops))
]
fig = simple_grapher('Time (s)',
'Right angle (degrees)',
*data,
marker='.',
line_style='-',
color='blue',
fig_size=fig_size,
dpi=dpi)
fig.savefig(out_file)
def _save_right_angle_plot(
jobs: Sequence[ConanAnalysisJob],
out_file,
fig_size: Tuple[float, float],
dpi: int,
) -> None:
jobs = [ job for job in jobs
if job.timestamp is not None and job.right_angle is not None ]
fig = simple_grapher(
'Time [s]',
'Right CA [°]',
[job.timestamp for job in jobs],
[math.degrees(job.right_angle) for job in jobs],
marker='.',
line_style='-',
color='blue',
fig_size=fig_size,
dpi=dpi
)
fig.savefig(out_file)
