def test_composite_vec():
"""
Composite: Tests compositing states and density operators.
"""
k1 = rand_ket(5)
k2 = rand_ket(7)
r1 = operator_to_vector(ket2dm(k1))
r2 = operator_to_vector(ket2dm(k2))
r3 = operator_to_vector(rand_dm(3))
r4 = operator_to_vector(rand_dm(4))
assert_(composite(k1, k2) == tensor(k1, k2))
assert_(composite(r3, r4) == super_tensor(r3, r4))
assert_(composite(k1, r4) == super_tensor(r1, r4))
assert_(composite(r3, k2) == super_tensor(r3, r2))
def test_composite_vec():
"""
Composite: Tests compositing states and density operators.
"""
k1 = rand_ket(5)
k2 = rand_ket(7)
r1 = operator_to_vector(ket2dm(k1))
r2 = operator_to_vector(ket2dm(k2))
r3 = operator_to_vector(rand_dm(3))
r4 = operator_to_vector(rand_dm(4))
assert_(composite(k1, k2) == tensor(k1, k2))
assert_(composite(r3, r4) == super_tensor(r3, r4))
assert_(composite(k1, r4) == super_tensor(r1, r4))
assert_(composite(r3, k2) == super_tensor(r3, r2))
def test_composite_oper():
"""
Composite: Tests compositing unitaries and superoperators.
"""
U1 = rand_unitary(3)
U2 = rand_unitary(5)
S1 = to_super(U1)
S2 = to_super(U2)
S3 = rand_super(4)
S4 = rand_super(7)
assert_(composite(U1, U2) == tensor(U1, U2))
assert_(composite(S3, S4) == super_tensor(S3, S4))
assert_(composite(U1, S4) == super_tensor(S1, S4))
assert_(composite(S3, U2) == super_tensor(S3, S2))
def test_composite_oper():
"""
Composite: Tests compositing unitaries and superoperators.
"""
U1 = rand_unitary(3)
U2 = rand_unitary(5)
S1 = to_super(U1)
S2 = to_super(U2)
S3 = rand_super(4)
S4 = rand_super(7)
assert_(composite(U1, U2) == tensor(U1, U2))
assert_(composite(S3, S4) == super_tensor(S3, S4))
assert_(composite(U1, S4) == super_tensor(S1, S4))
assert_(composite(S3, U2) == super_tensor(S3, S2))