def test_paths(self):
for d in self.drawings:
try:
closed = len(d.polygons_closed) == len(d.paths)
except:
log.error('Failed on %s!', d.filename, exc_info=True)
closed = False
self.assertTrue(closed)
for i in range(len(d.paths)):
self.assertTrue(d.polygons_closed[i].is_valid)
self.assertTrue(d.polygons_closed[i].area > tol.zero)
export_dict = d.export(file_type='dict')
export_svg = d.export(file_type='svg')
d.simplify()
split = d.split()
log.info('Split %s into %d bodies, checking identifiers',
d.filename, len(split))
for body in split:
body.identifier
if len(d.root) == 1:
d.apply_obb()
def test_discrete(self):
for d in self.drawings:
self.assertTrue(len(d.polygons_closed) == len(d.paths))
for path in d.paths:
verts = d.discretize_path(path)
dists = np.sum((np.diff(verts, axis=0))**2, axis=1)**.5
self.assertTrue(np.all(dists > tol.zero))
circuit_test = euclidean(verts[0], verts[-1]) < tol.merge
if not circuit_test:
log.error('On file %s First and last vertex distance %f',
d.filename,
euclidean(verts[0], verts[-1]))
self.assertTrue(circuit_test)
is_ccw = vector.polygons.is_ccw(verts)
if not is_ccw:
log.error('%s not ccw: \n%s',
d.filename,
str(verts))
def test_paths(self):
for d in self.drawings:
self.assertTrue(len(d.paths) == len(d.polygons_closed))
for i in range(len(d.paths)):
if not d.polygons_closed[i].is_valid:
r = d.polygons_closed[i].buffer(0.0)
d.show()
self.assertTrue(d.polygons_closed[i].is_valid)
self.assertTrue(d.polygons_closed[i].area > tol.zero)
d.export('dict')
d.export('svg')
d.simplify()
split = d.split()
log.info('Split %s into %d bodies, checking identifiers',
d.filename,
len(split))
for body in split:
try: body.identifier()
except:
log.error('Fatal error in computing identifier for %s!',
d.filename, exc_info=True)
def test_paths(self):
for d in self.drawings:
try:
closed = len(d.polygons_closed) == len(d.paths)
except:
log.error('Failed on %s!', d.filename, exc_info=True)
closed = False
self.assertTrue(closed)
for i in range(len(d.paths)):
self.assertTrue(d.polygons_closed[i].is_valid)
self.assertTrue(d.polygons_closed[i].area > tol.zero)
export_dict = d.export('dict')
export_svg = d.export('svg')
d.simplify()
split = d.split()
log.info('Split %s into %d bodies, checking identifiers',
d.filename,
len(split))
for body in split:
body.identifier()
def test_discrete(self):
for d in self.drawings:
try:
closed = len(d.polygons_closed) == len(d.paths)
except:
log.error('Failed on %s!', d.filename, exc_info=True)
closed = False
self.assertTrue(closed)
for path in d.paths:
verts = d.discretize_path(path)
dists = np.sum((np.diff(verts, axis=0))**2, axis=1)**.5
self.assertTrue(np.all(dists > tol.zero))
circuit_test = euclidean(verts[0], verts[-1]) < tol.merge
if not circuit_test:
log.error('On file %s First and last vertex distance %f',
d.filename, euclidean(verts[0], verts[-1]))
self.assertTrue(circuit_test)
is_ccw = vector.util.is_ccw(verts)
if not is_ccw:
log.error('discrete %s not ccw!', d.filename)
def test_discrete(self):
for d in self.drawings:
try:
closed = len(d.polygons_closed) == len(d.paths)
except:
log.error('Failed on %s!', d.filename, exc_info=True)
closed = False
self.assertTrue(closed)
for path in d.paths:
verts = d.discretize_path(path)
dists = np.sum((np.diff(verts, axis=0))**2, axis=1)**.5
self.assertTrue(np.all(dists > tol.zero))
circuit_test = euclidean(verts[0], verts[-1]) < tol.merge
if not circuit_test:
log.error('On file %s First and last vertex distance %f',
d.filename,
euclidean(verts[0], verts[-1]))
self.assertTrue(circuit_test)
is_ccw = vector.util.is_ccw(verts)
if not is_ccw:
log.error('discrete %s not ccw!', d.filename)
