Ejemplo n.º 1
0
 def test_compose(self):
     random.seed(SEED)
     circ1 = cliffords(3, 15)
     circ2 = cliffords(3, 20)
     t1 = tensorfy(circ1)
     t2 = tensorfy(circ2)
     comp1 = compose_tensors(t1, t2)
     circ1.compose(circ2)
     comp2 = tensorfy(circ1)
     self.assertTrue(compare_tensors(comp1, comp2))
Ejemplo n.º 2
0
 def test_adjoint(self):
     random.seed(SEED)
     circ = cliffords(3, 16)
     t = tensorfy(circ)
     t_adj = adjoint(t)
     circ_adj = tensorfy(circ.adjoint())
     self.assertTrue(compare_tensors(t_adj, circ_adj))
Ejemplo n.º 3
0
 def test_cliffords_preserves_graph_semantics(self):
     random.seed(SEED)
     g = cliffords(5,30)
     c = Circuit.from_graph(g)
     g2 = c.to_graph()
     t = tensorfy(g)
     t2 = tensorfy(g2)
     self.assertTrue(compare_tensors(t,t2))
Ejemplo n.º 4
0
 def test_clifford_extract(self):
     random.seed(SEED)
     tests = 0
     tries = 0
     while True:
         tries += 1
         circ = cliffords(5,70)
         clifford_simp(circ,quiet=True)
         circ.normalise()
         if circ.depth()>3: continue # It is not in normal form, so skip this one
         tests += 1
         with self.subTest(test=tests,tries=tries):
             t = tensorfy(circ)
             clifford_extract(circ,1,2)
             t2 = tensorfy(circ)
             self.assertTrue(compare_tensors(t,t2))
         if tests>5: break