added todo

lib_q_computer_math.py

@@ -1153,25 +1153,23 @@ def test_quantum_processor():
 
 
 def test_light():
-    global UNIVERSE_STATES
-    UNIVERSE_STATES = []
-    hor = s('|0>', name='→')
-    ver = s('|1>', name='↑')
-    diag1 = hor + ver
-    diag1.name = '🡕'
-    hor_filter = MeasurementOperator.create_from_prob(Matrix(hor.m), name='h')
-    diag_filter = MeasurementOperator.create_from_prob(Matrix(diag1.m), name='d')
-    ver_filter = MeasurementOperator.create_from_prob(Matrix(ver.m), name='v')
+    # TODO: Are these measurement operators the correct way to represent hor/ver/diag filter?
+    hor_filter = MeasurementOperator.create_from_prob(Matrix(_0.m), name='h')
+    diag_filter = MeasurementOperator.create_from_prob(Matrix(_p.m), name='d')
+    ver_filter = MeasurementOperator.create_from_prob(Matrix(_1.m), name='v')
 
-    for i in range(10):
-        random_pol = [[np.random.uniform(0, 1)], [np.random.uniform(0, 1)]]
-        random_light = State(normalize_state(random_pol))
-        qc = QuantumCircuit(1, initial_steps=[[random_light]])
-        qc.add_row([hor_filter, diag_filter, ver_filter])
-        qc.print()
-        qp = QuantumProcessor(qc)
-        # TODO: Dealing with non-normalized state vectors
-        qp.print_sample(qp.get_sample(100))
+    # create random light/photon
+    random_pol = [[np.random.uniform(0, 1)], [np.random.uniform(0, 1)]]
+    random_light = State(normalize_state(random_pol))
+    qc = QuantumCircuit(1, initial_steps=[[random_light]])
+
+    # add three filters as operators
+    qc.add_row([hor_filter, diag_filter, ver_filter])
+    qc.print()
+    qp = QuantumProcessor(qc)
+    # TODO: This doesn't work - dealing with non-normalized state vectors
+    #       - When measured in horizontal filter, the state vector has a positive |0> and 0 for |1>
+    qp.print_sample(qp.get_sample(100))
 
 
 if __name__ == "__main__":