def test_double_qubit_gates(self):
test_q0 = __rand__(0, 2048)
test_q1 = __rand__(0, 2048)
test_gate = 'cx'
test_targets = f'q[{test_q0}], q[{test_q1}]'
expected_value = f'{test_gate} {test_targets};'
actual_value = __g__.gate(test_gate, # Gate Spec
test_q0, # TargetA Spec
test_q1) # TargetB Spec
self.assertEqual(expected_value,
actual_value)
def test_measurements(self):
# Initialize variables
test_q = __rand__(0, 1024)
test_c = __rand__(0, 1024)
# Set expected value
expected_measurements = f"measure q[{test_q}] -> c[{test_c}];"
# Get actual value
actual_measurements = __g__.measurement(test_q,
test_c)
# Check if actual and expected values match as they should
self.assertEqual(expected_measurements,
actual_measurements)
def test_triple_qubit_gates(self):
test_q0 = __rand__(0, 2048)
test_q1 = __rand__(0, 2048)
test_q2 = __rand__(0, 2048)
test_gate = 'cx'
test_targets = f'q[{test_q0}], q[{test_q1}], q[{test_q2}]'
expected_value = f'{test_gate} {test_targets};'
actual_value = __g__.gate(
test_gate, # Gate Spec
test_q0, # TargetA Spec
test_q1, # TargetB Spec
test_q2) # TargetC Spec
expected_equals_actual = __tc__.compare(expected_value, actual_value)
self.assertEqual(expected_equals_actual, True)
def test_single_qubit_gates(self):
test_q = __rand__(0,1024)
expected_value = f"h q[{test_q}];"
actual_value = __g__.gate('h',
targetA=test_q)
self.assertEqual(expected_value,
actual_value)
def test_ry(self):
nrand = 256
tgtA = __rand__(nrand)
theta = float(__pi__ / 2)
ry_gate = __g__.gate('ry', tgtA, theta=theta)
expected_output = f'ry({theta}) q[{tgtA}];'
self.assertEqual(expected_output, ry_gate)
def test_single_qubit_gates(self):
test_q = __rand__(0, 1024)
expected_value = f"h q[{test_q}];"
actual_value = __g__.gate('h', targetA=test_q)
actual_equals_expected = __tc__.compare(expected_value, actual_value)
self.assertEqual(actual_equals_expected, True)