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In what follows python
is an alias for python3.6
or pypy3.6
or any later version (python3.7
, pypy3.7
and so on).
Install the latest pip
& setuptools
packages versions
python -m pip install --upgrade pip setuptools
Download and install the latest stable version from PyPI
repository
python -m pip install --upgrade clipping
Download the latest version from GitHub
repository
git clone https://github.com/lycantropos/clipping.git
cd clipping
Install dependencies
python -m pip install -r requirements.txt
Install
python setup.py install
>>> from ground.base import get_context
>>> context = get_context()
>>> EMPTY = context.empty
>>> Mix = context.mix_cls
>>> Multipoint = context.multipoint_cls
>>> Multisegment = context.multisegment_cls
>>> Point = context.point_cls
>>> Segment = context.segment_cls
>>> left_edge = Segment(Point(0, 0), Point(0, 1))
>>> right_edge = Segment(Point(1, 0), Point(1, 1))
>>> bottom_edge = Segment(Point(0, 0), Point(1, 0))
>>> top_edge = Segment(Point(0, 1), Point(1, 1))
>>> main_diagonal = Segment(Point(0, 0), Point(1, 1))
>>> trident = Multisegment([left_edge, main_diagonal, bottom_edge])
>>> square_edges = Multisegment([bottom_edge, right_edge, top_edge, left_edge])
>>> from clipping.planar import intersect_multisegments
>>> (intersect_multisegments(trident, square_edges)
... == intersect_multisegments(square_edges, trident)
... == Multisegment([left_edge, bottom_edge]))
True
>>> from clipping.planar import complete_intersect_multisegments
>>> (complete_intersect_multisegments(trident, square_edges)
... == complete_intersect_multisegments(square_edges, trident)
... == Mix(Multipoint([Point(1, 1)]), Multisegment([left_edge, bottom_edge]),
... EMPTY))
True
>>> from clipping.planar import unite_multisegments
>>> (unite_multisegments(trident, square_edges)
... == unite_multisegments(square_edges, trident)
... == Multisegment([left_edge, bottom_edge, main_diagonal, top_edge,
... right_edge]))
True
>>> from clipping.planar import subtract_multisegments
>>> subtract_multisegments(trident, square_edges) == main_diagonal
True
>>> (subtract_multisegments(square_edges, trident)
... == Multisegment([top_edge, right_edge]))
True
>>> from clipping.planar import symmetric_subtract_multisegments
>>> (symmetric_subtract_multisegments(trident, square_edges)
... == symmetric_subtract_multisegments(square_edges, trident)
... == Multisegment([main_diagonal, top_edge, right_edge]))
True
>>> Contour = context.contour_cls
>>> Multipolygon = context.multipolygon_cls
>>> Polygon = context.polygon_cls
>>> first_square = Contour([Point(0, 0), Point(1, 0), Point(1, 1),
... Point(0, 1)])
>>> second_square = Contour([Point(1, 0), Point(2, 0), Point(2, 1),
... Point(1, 1)])
>>> third_square = Contour([Point(1, 1), Point(2, 1), Point(2, 2),
... Point(1, 2)])
>>> fourth_square = Contour([Point(0, 1), Point(1, 1), Point(1, 2),
... Point(0, 2)])
>>> from clipping.planar import intersect_multipolygons
>>> (intersect_multipolygons(Multipolygon([Polygon(first_square, []),
... Polygon(third_square, [])]),
... Multipolygon([Polygon(second_square, []),
... Polygon(fourth_square, [])]))
... is EMPTY)
True
>>> (intersect_multipolygons(Multipolygon([Polygon(first_square, []),
... Polygon(third_square, [])]),
... Multipolygon([Polygon(first_square, []),
... Polygon(third_square, [])]))
... == Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]))
True
>>> from clipping.planar import complete_intersect_multipolygons
>>> (complete_intersect_multipolygons(
... Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]),
... Multipolygon([Polygon(second_square, []),
... Polygon(fourth_square, [])]))
... == Multisegment([Segment(Point(0, 1), Point(1, 1)),
... Segment(Point(1, 0), Point(1, 1)),
... Segment(Point(1, 1), Point(2, 1)),
... Segment(Point(1, 1), Point(1, 2))]))
True
>>> (complete_intersect_multipolygons(
... Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]),
... Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]))
... == Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]))
True
>>> from clipping.planar import unite_multipolygons
>>> (unite_multipolygons(Multipolygon([Polygon(first_square, []),
... Polygon(third_square, [])]),
... Multipolygon([Polygon(second_square, []),
... Polygon(fourth_square, [])]))
... == Polygon(Contour([Point(0, 0), Point(2, 0), Point(2, 2), Point(0, 2)]),
... []))
True
>>> (unite_multipolygons(Multipolygon([Polygon(first_square, []),
... Polygon(third_square, [])]),
... Multipolygon([Polygon(first_square, []),
... Polygon(third_square, [])]))
... == Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]))
True
>>> from clipping.planar import subtract_multipolygons
>>> (subtract_multipolygons(Multipolygon([Polygon(first_square, []),
... Polygon(third_square, [])]),
... Multipolygon([Polygon(first_square, []),
... Polygon(third_square, [])]))
... is EMPTY)
True
>>> (subtract_multipolygons(Multipolygon([Polygon(first_square, []),
... Polygon(third_square, [])]),
... Multipolygon([Polygon(second_square, []),
... Polygon(fourth_square, [])]))
... == Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]))
True
>>> from clipping.planar import symmetric_subtract_multipolygons
>>> (symmetric_subtract_multipolygons(
... Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]),
... Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]))
... is EMPTY)
True
>>> (symmetric_subtract_multipolygons(
... Multipolygon([Polygon(first_square, []), Polygon(third_square, [])]),
... Multipolygon([Polygon(second_square, []),
... Polygon(fourth_square, [])]))
... == Polygon(Contour([Point(0, 0), Point(2, 0), Point(2, 2), Point(0, 2)]),
... []))
True
Install bump2version.
Choose which version number category to bump following semver specification.
Test bumping version
bump2version --dry-run --verbose $CATEGORY
where $CATEGORY
is the target version number category name, possible
values are patch
/minor
/major
.
Bump version
bump2version --verbose $CATEGORY
This will set version to major.minor.patch-alpha
.
Test bumping version
bump2version --dry-run --verbose release
Bump version
bump2version --verbose release
This will set version to major.minor.patch
.
Install dependencies
python -m pip install -r requirements-tests.txt
Plain
pytest
Inside Docker
container:
CPython
docker-compose --file docker-compose.cpython.yml up
PyPy
docker-compose --file docker-compose.pypy.yml up
Bash
script:
with CPython
./run-tests.sh
or
./run-tests.sh cpython
with PyPy
./run-tests.sh pypy
PowerShell
script:
CPython
.\run-tests.ps1
or
.\run-tests.ps1 cpython
PyPy
.\run-tests.ps1 pypy
FAQs
Geometries clipping.
We found that clipping demonstrated a healthy version release cadence and project activity because the last version was released less than a year ago. It has 1 open source maintainer collaborating on the project.
Did you know?
Socket for GitHub automatically highlights issues in each pull request and monitors the health of all your open source dependencies. Discover the contents of your packages and block harmful activity before you install or update your dependencies.
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