PlotPropertiesVFP
- class sapphireppplot.plot_properties_vfp.PlotPropertiesVFP(series_names=<factory>, labels=<factory>, data_type='POINTS', representation_type='UnstructuredGridRepresentation', use_legacy_pvtu_reader=True, preview_size_1d=<factory>, preview_size_2d=<factory>, camera_view_2d=<factory>, preview_size_3d=<factory>, camera_view_3d=<factory>, background_color=<factory>, screenshot_transparent_background=True, animation_transparent_background=False, animation_frame_stride=1, extracts_frame_stride=1, extracts_compressor='ZLib', extracts_compression_level=5, font_family='Arial', text_color=<factory>, label_size=18, text_size=24, title_size=30, line_colors=<factory>, line_styles=<factory>, line_widths=<factory>, default_line_width=2.0, legend_location='TopRight', legend_symbol_width=30, left_axis_labels=<factory>, bottom_axis_labels=<factory>, show_grid=False, grid_labels=<factory>, grid_color=<factory>, color_map='Viridis (matplotlib)', color_bar_label_format='', color_bar_range_labels=True, color_bar_range_label_format='%-#6.1e', color_bar_orientation='Vertical', color_bar_position='Lower Right Corner', color_bar_length=0.25, color_bar_thickness=16, axes_scale=<factory>, axes_stretch=<factory>, axes_ticks=<factory>, time_format='$t = {time:.2f}$', time_location='Upper Left Corner', sampling_pattern='center', sampling_resolution=None, stream_tracer_maximum_error=1e-06, stream_tracer_minimum_step=0.01, stream_tracer_initial_step=0.2, stream_tracer_maximum_step=0.5, export_precision=5, dimension=2, momentum=True, dim_ps=2, dim_cs=1, logarithmic_p=True, scaled_distribution_function=False, lms_indices=<factory>, debug_input_functions=False, prefix_numeric=False, project=False, interpol=False, annotation_project_interpol='exact', p_label='$p$', _spectral_index=None)
Bases:
PlotPropertiesSpecialized plot properties for VFP plots.
-
dimension:
int= 2 Dimensionality of the results.
-
momentum:
bool= True Does the solution have a momentum dependence?
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dim_ps:
int= 2 Dimension of the reduced phase space.
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dim_cs:
int= 1 Spatial dimension of the results.
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logarithmic_p:
bool= True Does the solution uses logarithmic momentum?
-
scaled_distribution_function:
bool= False Is the distribution function scaled in Sapphire++ as \(g = p^s f\)?
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lms_indices:
Sequence[tuple[int,int,int]] List of lms_indices to display. If left empty it will be set automatically at loading.
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debug_input_functions:
bool= False Show user defined input functions.
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prefix_numeric:
bool= False Use numeric prefix for results?
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project:
bool= False Show projected exact solution?
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interpol:
bool= False Show interpolated exact solution?
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annotation_project_interpol:
str= 'exact' Label annotation for exact solution.
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p_label:
str= '$p$' Label for the \(p\) axis in LineChartView.
- static create_lms_indices(expansion_order)
Create mapping between system index \(i\) and spherical harmonic indices \((l,m,s)\).
- Parameters:
expansion_order (
int) – Expansion orderl_max.- Return type:
list[tuple[int,int,int]]- Returns:
lms_indices (list[tuple[int, int, int]]) – Mapping
lms_indices[i] = (l,m,s).
- f_lms_name(lms_index, prefix='', base_name=None)
Look up of ParaView series names for specific lms_index.
- Parameters:
lms_index (
tuple[int,int,int]) – The index(l,m,s).prefix (
str) – Prefix.base_name (
Optional[str]) – Base name for variable. Defaults to “f”, “g” or “p^s f”.
- Return type:
str- Returns:
quantity_name (str) – The ParaView Series name for the lms_index.
- f_lms_label(lms_index, annotation='', variable_name=None)
Look up of label for lms_index.
- Parameters:
lms_index (
tuple[int|str,int|str,int|str]) – The index(l,m,s).annotation (
str) – Postfix annotation of quantity.variable_name (
Optional[str]) – Name of the variable. Defaults to “f”, “g” or “p^s f”.
- Return type:
str- Returns:
quantity_label (str) – The label for the lms_index.
- set_lms_indices(lms_indices)
Set the
series_namesand labels activating only thelms_indices.- Parameters:
lms_indices (
Sequence[tuple[int,int,int]]) – The lms_indices to activate. Will deactivate all other series names.- Return type:
None
- set_expansion_order(expansion_order)
Set the
series_namesand labels using the expansion order.- Parameters:
expansion_order (
int) – Maximum expansion orderl_maxto display.- Return type:
None
- scale_by_spectral_index(spectral_index, lms_indices)
Set properties to a scaled distribution function with spectral index \(s\).
- Parameters:
spectral_index (
float) – Spectral index \(s\).lms_indices (
Sequence[tuple[int,int,int]]) – The lms_indices to activate. Will deactivate all other and unscaled series names.
- Return type:
None
- convert_lnp_to_log10p()
Display the momentum axes as \(\log_{10}(p)\) instead of \(\ln(p)\) in RenderView.
This only affects the display, it does not rescale the underlying data.
Note
This function only works for RenderView. For LineChartView options see
convert_lnp_to_p().- Return type:
None
- convert_lnp_to_p(p_min=1e-15, p_max=1000000000000000.0, num=31, num_subdivisions=10, show_label_subdivisions=False)
Convert the axes labels for the LineChartView to from \(\ln(p)\) to \(p\).
Note
This function only works for LineChartViews. For RenderView options see
convert_lnp_to_log10p().If more control on the label format is desired, directly modify the bottom_axis_labels instead.
- Parameters:
p_min (
float) – Minimum momentum to label.p_max (
float) – Maximum momentum to label.num (
int) – Number of labelled divisions, logarithmically spaced.num_subdivisions (
int) – Number of unlabelled subdivisions, linearly spaced.show_label_subdivisions (
bool) – Show the label on the subdivision markers as well?
- Return type:
None
-
dimension: