public void CreateGenericControlledOperation()
{
Helper.RunWithMultipleSimulators((s) =>
{
var gen0 = new GenericCallable(s, typeof(Gen0 <>));
Assert.Same(typeof(ControlledOperation <long, QVoid>), gen0.Controlled.FindCallable(typeof((QArray <Qubit>, long)), typeof(QVoid)).GetType());
Assert.Same(typeof(ControlledOperation <long, QVoid>), gen0.Controlled.FindCallable(typeof((LittleEndian, long)), typeof(QVoid)).GetType());
Assert.Same(typeof(ControlledOperation <(long, Result), QVoid>), gen0.Controlled.FindCallable(typeof((QArray <Qubit>, (long, Result))), typeof(QVoid)).GetType());
Assert.Same(typeof(ControlledOperation <((Qubit, bool), Result), QVoid>), gen0.Controlled.FindCallable(typeof((QArray <Qubit>, ((TestQubit, bool), Result))), typeof(QVoid)).GetType());
Assert.Same(typeof(ControlledOperation <long, QVoid>), gen0.Controlled.FindCallable(typeof((QArray <Qubit>, long)), typeof(QVoid)).GetType()); // Twice to check for caching.
// A bunch of Debug.Asserts are hit, but Controlled will create something even if given the wrong type of Input/output,
// here just for check backwards compatibility. Evaluate if we need to change this behavior.
OperationsTestHelper.IgnoreDebugAssert(() =>
{
Assert.Same(typeof(ControlledOperation <int, QVoid>), gen0.Controlled.FindCallable(typeof(Result), typeof(QVoid)).GetType());
});
var gen2 = new GenericCallable(s, typeof(Gen2 <,>));
var r2 = gen2.Controlled.FindCallable(typeof((LittleEndian, (QArray <Qubit>, long, bool))), typeof(QVoid)) as ControlledOperation <(QArray <Qubit>, long, bool), QVoid>;
Assert.NotNull(r2);
Assert.Same(typeof(Gen2 <QArray <Qubit>, bool>), r2.BaseOp.GetType());
var gen4 = new GenericCallable(s, typeof(Gen4 <,>));
var r4 = gen4.Controlled.FindCallable(typeof((QArray <Qubit>, (Result, ((IUnitary <Qubit>, bool), (IAdjointable <(TestQubit, Result)>, Pauli)), Result))), typeof(QVoid)) as ControlledOperation <(Result, ((IUnitary, bool), (IAdjointable, Pauli)), Result), QVoid>;
Assert.NotNull(r4);
Assert.Same(typeof(Gen4 <(IUnitary, bool), (IAdjointable, Pauli)>), r4.BaseOp.GetType());
});
}
public void ArraysByIndex()
{
var longs = new QArray <long> (2, 1, 0);
Assert.NotEmpty(longs);
Assert.Equal(3, longs.Length);
Assert.Equal(2, longs[0]);
Assert.Equal(1, longs[1]);
Assert.Equal(0, longs[2]);
longs = new QArray <long>(new long[5]);
longs.Modify(0, 5);
longs.Modify(2, 3);
longs.Modify(4, 1);
Assert.Equal(5, longs.Length);
Assert.Equal(5, longs[0]);
Assert.Equal(0, longs[1]);
Assert.Equal(3, longs[2]);
Assert.Equal(0, longs[3]);
Assert.Equal(1, longs[4]);
OperationsTestHelper.IgnoreDebugAssert(() =>
{
// Make sure we can call it with a long index:
Assert.Throws <ArgumentOutOfRangeException>(() => longs[-1]);
Assert.Throws <ArgumentOutOfRangeException>(() => longs[int.MaxValue]);
Assert.Throws <ArgumentOutOfRangeException>(() => longs[(long)int.MaxValue + 1]);
});
}
public void SliceArray()
{
var source = new QArray <long>(0);
var range = new QRange(0, 0);
var expected = new QArray <long>(0);
var actual = source.Slice(range);
Assert.Equal(expected, actual);
source = new QArray <long>(0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10);
range = new QRange(0, 2, 10);
expected = new QArray <long>(0, 2, 4, 6, 8, 10);
actual = source.Slice(range);
Assert.Equal(expected, actual);
source = new QArray <long>(0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10);
expected = new QArray <long>(1, 6);
actual = source.Slice(new QRange(1, 5, 10));
Assert.Equal(expected, actual);
OperationsTestHelper.IgnoreDebugAssert(() =>
{
source = new QArray <long>(0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10);
range = null;
expected = new QArray <long>();
actual = source.Slice(range);
Assert.Equal(expected, actual);
});
}
public void NativeIntrinsicOperation()
{
OperationsTestHelper.RunWithMultipleSimulators((sim) =>
{
var actual = IntrinsicBody.Run(sim).Result;
Assert.Equal(IntrinsicBody.RESULT, actual);
});
}
public void NativeGenericOperation()
{
OperationsTestHelper.RunWithMultipleSimulators((sim) =>
{
var actual1 = DefaultBodyGeneric <string> .Run(sim, "hello").Result;
Assert.Equal(IntrinsicBody.RESULT, actual1);
var actual2 = DefaultBodyGeneric <long> .Run(sim, 1234).Result;
Assert.Equal(1234, actual2);
});
}
public void NativeIntrinsicGenericOperation()
{
OperationsTestHelper.RunWithMultipleSimulators((sim) =>
{
var actual = IntrinsicBodyGeneric <string> .Run(sim, "hello").Result;
Assert.Equal(IntrinsicBody.RESULT, actual);
actual = IntrinsicBodyGeneric <long> .Run(sim, 1234).Result;
Assert.Equal("1234", actual);
});
}
public void JoinArrays()
{
var arr1 = new QArray <long>();
var arr2 = new QArray <long>();
var expected = new QArray <long>();
var actual = QArray <long> .Add(arr1, arr2);
Assert.Equal(expected, actual);
arr1 = new QArray <long>(1);
arr2 = new QArray <long>();
expected = new QArray <long>(1);
actual = QArray <long> .Add(arr1, arr2);
Assert.Equal(expected, actual);
arr1 = new QArray <long>();
arr2 = new QArray <long>(1);
expected = new QArray <long>(1);
actual = QArray <long> .Add(arr1, arr2);
Assert.Equal(expected, actual);
arr1 = new QArray <long>(1, 2, 3);
arr2 = new QArray <long>(1, 4, 5, 3, 6);
expected = new QArray <long>(1, 2, 3, 1, 4, 5, 3, 6);
actual = QArray <long> .Add(arr1, arr2);
Assert.Equal(expected, actual);
OperationsTestHelper.IgnoreDebugAssert(() =>
{
arr1 = null;
arr2 = new QArray <long>(1, 4, 5, 3, 6);
expected = new QArray <long>(1, 4, 5, 3, 6);
actual = QArray <long> .Add(arr1, arr2);
Assert.Equal(expected, actual);
arr1 = new QArray <long>(1, 2, 3);
arr2 = null;
expected = new QArray <long>(1, 2, 3);
actual = QArray <long> .Add(arr1, arr2);
Assert.Equal(expected, actual);
arr1 = null;
arr2 = null;
expected = null;
actual = QArray <long> .Add(arr1, arr2);
Assert.Equal(expected, actual);
});
}
public void QSimX()
{
using (var sim = new QuantumSimulator(throwOnReleasingQubitsNotInZeroState: false))
{
var x = sim.Get <Intrinsic.X>();
var measure = sim.Get <Intrinsic.M>();
var set = sim.Get <Measurement.SetToBasisState>();
var ctrlX = x.__ControlledBody__.AsAction();
OperationsTestHelper.ctrlTestShell(sim, ctrlX, (enabled, ctrls, q) =>
{
set.Apply((Result.Zero, q));
var result = measure.Apply(q);
var expected = Result.Zero;
Assert.Equal(expected, result);
x.__ControlledBody__((ctrls, q));
result = measure.Apply(q);
expected = (enabled) ? Result.One : Result.Zero;
Assert.Equal(expected, result);
});
public void ToffoliX()
{
var sim = new ToffoliSimulator();
var x = sim.Get <Intrinsic.X>();
OperationsTestHelper.applyTestShell(sim, x, (q) =>
{
var measure = sim.Get <Intrinsic.M>();
var set = sim.Get <SetQubit>();
set.Apply((Result.Zero, q));
x.Apply(q);
var result = measure.Apply(q);
Assert.Equal(Result.One, result);
x.Apply(q);
result = measure.Apply(q);
Assert.Equal(Result.Zero, result);
x.Apply(q); // The test helper is going to apply another X before releasing
});
public void TestQubitManager()
{
QubitManager qm = new QubitManager(20);
// Test allocation of single qubit
Qubit q1 = qm.Allocate();
Assert.True(q1.Id == 0);
// Test allocation of multiple qubits
var qa1 = qm.Allocate(4);
Assert.True(qa1.Length == 4);
Assert.True(qa1[0].Id == 1);
Assert.True(qa1[1].Id == 2);
Assert.True(qa1[2].Id == 3);
Assert.True(qa1[3].Id == 4);
// Test reuse of deallocated qubits
qm.Release(qa1[1]);
Qubit q2 = qm.Allocate();
Assert.True(q2.Id == 2);
var qa2 = qm.Allocate(3);
Assert.True(qa2.Length == 3);
Assert.True(qa2[0].Id == 5);
Assert.True(qa2[1].Id == 6);
Assert.True(qa2[2].Id == 7);
qm.Release(qa2);
Qubit q3 = qm.Allocate();
Assert.True(q3.Id == 7);
Qubit q4 = qm.Allocate();
Assert.True(q4.Id == 6);
Qubit q5 = qm.Allocate();
Assert.True(q5.Id == 5);
// Test borrowing
Qubit[] exclusion = new Qubit[4];
exclusion[0] = qa1[0];
exclusion[1] = qa1[2];
exclusion[2] = q4;
exclusion[3] = q3;
long qubitsAvailable;
qubitsAvailable = qm.GetFreeQubitsCount();
var qab = qm.Borrow(5, exclusion);
Assert.True(qubitsAvailable - qm.GetFreeQubitsCount() == 1);
Assert.True(qab[0].Id == 0);
Assert.True(qab[1].Id == 2);
Assert.True(qab[2].Id == 4);
Assert.True(qab[3].Id == 5);
Assert.True(qab[4].Id == 8);
Qubit q6 = qm.Allocate();
Assert.True(q6.Id == 9);
// Test borrowing of the same qubit again
qubitsAvailable = qm.GetFreeQubitsCount();
var qb1 = qm.Borrow(1, exclusion);
Assert.True(qubitsAvailable - qm.GetFreeQubitsCount() == 0);
Assert.True(qb1[0].Id == 0);
qm.Return(qb1[0]);
qm.Return(qab);
// Test that qubit allocated for borrowing is freed after being returned
Qubit q7 = qm.Allocate();
Assert.True(q7.Id == 8);
// Test allocation of qubits out of order.
qm.Release(q4);
qm.Release(qa1[2]);
qm.Release(q1);
var qa3 = qm.Allocate(4);
Assert.True(qa3.Length == 4);
Assert.True(qa3[0].Id == 0);
Assert.True(qa3[1].Id == 3);
Assert.True(qa3[2].Id == 6);
Assert.True(qa3[3].Id == 10);
// Test Disabling qubits
Qubit q8 = qm.Allocate();
Assert.True(q8.Id == 11);
qm.Disable(q8);
var qab2 = qm.Borrow(12, null);
Assert.True(qab2[11].Id == 12); // make sure 11 is not borrowed.
qm.Release(q8);
qm.Return(qab2);
var qa4 = qm.Allocate(2);
Assert.True(qa4[0].Id == 12); // make sure 11 is not reused.
Assert.True(qa4[1].Id == 13); // make sure 11 is not reused.
qm.Release(qa4);
// Test allocating qubits over capacity
OperationsTestHelper.IgnoreDebugAssert(() =>
{
IQArray <Qubit> n_q;
Assert.Throws <NotEnoughQubits>(() => n_q = qm.Allocate(10));
Assert.Throws <NotEnoughQubits>(() => n_q = qm.Borrow(25, exclusion));
Assert.Throws <ArgumentException>(() => n_q = qm.Allocate(0));
Assert.Throws <ArgumentException>(() => n_q = qm.Allocate(-2));
Assert.Throws <ArgumentException>(() => n_q = qm.Borrow(0, exclusion));
Assert.Throws <ArgumentException>(() => n_q = qm.Borrow(-2, exclusion));
});
}