def issuperset(self, other):
if isinstance(other, type(self)):
return self._delegate >= other._delegate
if not superposition.insuperposition(other):
return self.hasstate(superposition.getstate(other))
other_states = self._make_delegate()
other_states.update(superposition.getstates(other))
return self._delegate >= other_states
def issuperset(self, other):
if isinstance(other, type(self)):
return self._delegate >= other._delegate
if not superposition.insuperposition(other):
return self.hasstate(superposition.getstate(other))
other_states = self._make_delegate()
other_states.update(superposition.getstates(other))
return self._delegate >= other_states
def testCreation(self):
"""Test that creation is reasonable."""
# Providing the same object twice will still build a superposition.
s = superposition.superposition("foo", "foo")
# This object is a superposition type...
self.assertIsInstance(s, superposition.ISuperposition)
# ...but it is not IN superposition.
self.assertFalse(superposition.insuperposition(s))
# Using meld is sometimes more convenient for this.
s = superposition.meld("foo", "foo")
# This object is actually a string.
self.assertIsInstance(s, six.string_types)
# It can still be manipulated with the superposition-aware protocol,
# as can any scalar.
self.assertEqual(s, superposition.getstate(s))
def testCreation(self):
"""Test that creation is reasonable."""
# Providing the same object twice will still build a superposition.
s = superposition.superposition("foo", "foo")
# This object is a superposition type...
self.assertIsInstance(s, superposition.ISuperposition)
# ...but it is not IN superposition.
self.assertFalse(superposition.insuperposition(s))
# Using meld is sometimes more convenient for this.
s = superposition.meld("foo", "foo")
# This object is actually a string.
self.assertIsInstance(s, basestring)
# It can still be manipulated with the superposition-aware protocol,
# as can any scalar.
self.assertEqual(s, superposition.getstate(s))