As you probably know, there are not public or private methods in Python, it is
considered that every single line in a Python library is accessible by
everyone. It is an user decision choosing the most convenient depth of usage of
a certain package.
For this reason, I encourage you to use pyny3d the way you feel more
comfortable, from a very superficial usage of a couple of functions to a deep
editing of a class. This library has been made to be as simple as possible for
reasons like this.
But indepently of your implication with the project, it would be a big mistake
on my part not to advise you the most usable or higher-level functions.
Take into account that most this functions are used in the examples shown in
the Guide section, I encourage you to take a closer look there. For
the current section it will be enough just listing them with a short
description.
geoms module:
method |
description |
.move() |
Translate the object |
.rotate() |
Rotates the object about a given axis |
.mirror() |
Generates a symmetry of the object |
.matrix() |
Copy the object along a 3D matrix |
.get_domain() |
Returns the domain of an instance |
.plot() |
Generates a 3D plot |
.save() |
Save the current state of an instance |
.restore() |
Restores a previous state of an instance |
.copy() |
Copy the current state of an instance |
method |
description |
.get_parametric() |
Returns the parametric equation of the polygon’s plane |
.get_path() |
Returns the matplotlib.path.Path of the z=0 projection |
.get_shapely() |
Returns the shapely.Polygon of the z=0 projection |
.get_area() |
Returns the real area |
.get_height() |
Returns the z value for the parametric equation for
a list of points |
.is_convex() |
Returns whether a polygon is convex |
.make_ccw() |
Changes the order of a set of points to be ccw |
.to_2d() |
Generates the real 2D polygon of the 3D polygon |
.contains() |
Points-in-Polygon algorithm for the z=0 projection |
.pip() |
Faster Points-in-Polygon algorithm |
.plot2d() |
2D plot of the z=0 projection |
.lock() |
Precomputes some values to speedup shading |
method |
description |
.get_area() |
Returns the real area |
.get_height() |
Returns the z value for a list of points |
.classify() |
Points-in-Polygon for multiple non-overlapping polygons |
.interct_with() |
Returns the intersection of multiple polygons |
.contiguous() |
Returns whether a set of polygons are contiguous |
.melt() |
Merge groups of coplanar and contiguous polygons |
.add_holes() |
Add holes to the Surface |
.iplot() |
3D plot with polygons/holes color control |
.plot2d() |
2D plot of the z=0 projection |
.lock() |
Precomputes some values to speedup shading |
method |
description |
.get_area() |
Returns the real area |
.by2polygons() |
Create a polyhedron connecting two polygons |
method |
description |
.add_set_of_points() |
Add a set of points |
.clear_set_of_points() |
Remove the points in this place |
.add_extruded_obtacles() |
Add a polyhedra connecting one polyhedron
with the surface |
.get_height() |
Returns the z value for a list of points |
.mesh() |
Generates a list of points homogeneously
distributed |
.add_holes() |
Add holes to the surface |
.iplot() |
3D plot with color and size control |
method |
description |
.add_places() |
Add new places to the space |
.add_space() |
Merge other spaces with this one |
.add_set_of_points() |
Add a set of points |
.clear_set_of_points() |
Remove the points in this place |
.get_map() |
Returns all the points that forms
everything declared in the space |
.map2pyny() |
Creates a Space from a map |
.map2seed() |
Creates a Space from a seed |
.explode() |
Collect all the polygons, holes and points
in the space |
.explode_map() |
Faster version of .explode() |
.get_height() |
Returns the z value for a list of points |
.mesh() |
Generates a list of points homogeneously
distributed |
.photo() |
Change of the reference system to align the
an axis with a given direction |
.iplot() |
3D plot with place, color and size control |
.shadows() |
Initializes the ShadowingManager |
.lock() |
Precomputes some values to speedup
shading |
shadows module:
method |
description |
.to_minutes() |
Generates absolute minutes time series |
.get_sunpos() |
Computes the Sun positions for a time series |
.Voronoi_SH() |
Discretizes the Solar Horizont through a Voronoi
diagram |
.compute_shadows() |
Computes the shading |
.project_data() |
Assign data time series to the places illuminated by
the Sun |
method |
description |
.vor_plot() |
Generates visualizations about the Voronoi
discretization |
.exposure_plot() |
Generates a 3D visualization with the projected data
from the Sun to the pyny.Space |