void IIntrinsicApplyUncontrolledT.AdjointBody(Qubit target)
{
this.CheckQubit(target);
AdjT(this.Id, (uint)target.Id);
}
/// <summary>
/// Initializes a new instance of the <see cref="Hadamard"/> class.
/// </summary>
/// <param name="registerLength">Length of the register.</param>
public Initalize(Qubit initial) : base("INIT")
{
InitState = initial;
}
public virtual void ControlledH(IQArray <Qubit> controls, Qubit qubit)
{
throw new NotImplementedException();
}
/// <summary>
/// Releases a given qubit.
/// </summary>
public virtual void Release(Qubit qubit)
{
ReleaseOneQubit(qubit, usedOnlyForBorrowing: false);
}
public virtual void R1Frac(long numerator, long power, Qubit qubit)
{
throw new NotImplementedException();
}
public virtual Result M(Qubit qubit)
{
throw new NotImplementedException();
}
public void theta_90_phi_180_Tests()
{
quantumBit = new Qubit(90, 180);
Assert.AreEqual("P(|0>) = 50%", quantumBit.print_zero_probability());
Assert.AreEqual("P(|1>) = 50%", quantumBit.print_one_probability());
}
public virtual void ControlledR(IQArray <Qubit> controls, Pauli axis, double theta, Qubit qubit)
{
throw new NotImplementedException();
}
public override void Apply(Qubit q)
{
sim.OnReleaseQubits?.Invoke(new QArray <Qubit>(new[] { q }));
manager.Release(q);
}
public override void Apply(Qubit q)
{
sim.OnReturnQubits?.Invoke(new QArray <Qubit>(new[] { q }));
sim.QubitManager.Return(q);
}
/// <summary>
/// Returns true if a qubit has been allocated just for borrowing, has been borrowed exactly once,
/// and thus will be released after it is returned.
/// </summary>
public virtual bool ToBeReleasedAfterReturn(Qubit qubit)
{
return(BorrowingRefCountIsOne(qubit.Id));
}
protected virtual void ReturnOneQubit(Qubit qubit)
{
}
/// <summary>
/// Disables a given qubit.
/// Once a qubit is disabled it can never be reallocated.
/// </summary>
public virtual void Disable(Qubit qubit)
{
DisableOneQubit(qubit);
}
public override void Apply(Qubit q)
{
sim.QuantumProcessor.OnReleaseQubits(new QArray <Qubit>(q));
sim.QubitManager.Release(q);
}
public virtual void ApplyUncontrolledRz__Body(double angle, Qubit target)
{
this.CheckQubit(target, nameof(target));
CheckAngle(angle);
R(this.Id, Pauli.PauliZ, angle, (uint)target.Id);
}
private QubitRegister GetQubitRegister(Qubit qubit) => this.qubitRegisters.GetOrCreate(qubit.Id, new QubitRegister(qubit.Id));
public virtual void ApplyUncontrolledRz__AdjointBody(double angle, Qubit target)
{
ApplyUncontrolledRz__Body(-angle, target);
}
public virtual void R1(double theta, Qubit qubit)
{
throw new NotImplementedException();
}
public override void Apply(Qubit q)
{
_qubitsAllocated--;
base.Apply(q);
}
public virtual void ControlledR1Frac(IQArray <Qubit> controls, long numerator, long power, Qubit qubit)
{
throw new NotImplementedException();
}
void IIntrinsicZ.Body(Qubit target)
{
this.CheckQubit(target);
Z(this.Id, (uint)target.Id);
}
public virtual void SWAP(Qubit qubit1, Qubit qubit2)
{
throw new NotImplementedException();
}
Qubit?f(Pauli p, Qubit q) =>
p switch
{
public virtual void S(Qubit qubit)
{
throw new NotImplementedException();
}
static void Main(string[] args)
{
/*ComplexNumber number = new ComplexNumber(8, -6);
* ComplexNumber number2 = ComplexNumber.FromPolarCoordinates(10, 90*Math.PI/180);
* Console.WriteLine("Number 1: {0}", number);
* Console.WriteLine("Number 2: {0}", number2);
* Console.WriteLine("Degree 2: {0}", number2.Degrees);
* Console.WriteLine("Magnitude: {0}", number.Magnitude);
* Console.WriteLine("Magnitude2: {0}", number2.Magnitude);
* Console.WriteLine("Phase: {0}", number.Phase);
* Console.WriteLine("Phase2: {0}", number2.Phase);
* Console.WriteLine("Multiply Complex: {0}", ComplexCalculator.Multiply(number,number2.Conjugate()));
* Console.WriteLine("Multiply: {0}", Calculator.Multiply(number,number2.Conjugate()));
* Console.WriteLine("Add Complex: {0}", ComplexCalculator.Add(number, number2));
* Console.WriteLine("Add: {0}", Calculator.Add(number, number2));
* Console.WriteLine("Substract Complex: {0}", ComplexCalculator.Subtract(number, number2));
* Console.WriteLine("Substract: {0}", Calculator.Subtract(number, number2));
* Console.WriteLine("Divide Complex: {0}", ComplexCalculator.Divide(number, number2));
* Console.WriteLine("Divide: {0}", Calculator.Divide(number, number2));
* Console.WriteLine("Exp Complex: {0}", ComplexCalculator.Exp(number));
* Console.WriteLine("Exp: {0}", Calculator.Exp(number));
* Console.WriteLine("Pow Complex: {0}", ComplexCalculator.Pow(number,3));
* Console.WriteLine("Pow : {0}", Calculator.Pow(number,3));*/
/*Vector v1 = new Vector(new ComplexNumber(-2, 5), new ComplexNumber(8, -6), new ComplexNumber(4, 5));
* Vector v2 = new Vector(new ComplexNumber(5, 7), new ComplexNumber(3, 6), new ComplexNumber(2, 2));
* Console.WriteLine("v1={0}",v1);
* Console.WriteLine("v2={0}",v2);
* Console.WriteLine("Iloczyn skalarny: {0}", Vector.ScalarProduct(v1, v2));
* Console.WriteLine("Suma: {0}", Vector.Add(v1, v2));
* Console.WriteLine("Norma: {0}", Vector.Norm(v2));*/
Qubit q1 = new Qubit();
Console.WriteLine("q1={0}", q1);
Console.WriteLine("Phase alpha: {0}", q1.Alpha.Phase);
Console.WriteLine("Phase beta: {0}", q1.Beta.Phase);
Console.WriteLine("X gate {0}", Qubit.PauliX(q1));
Console.WriteLine("X alpha phase {0}", Qubit.PauliX(q1).Alpha.Phase);
Console.WriteLine("X beta phase {0}", Qubit.PauliX(q1).Beta.Phase);
Console.WriteLine("S gate {0}", Qubit.S(q1));
Console.WriteLine("S alpha phase {0}", Qubit.S(q1).Alpha.Phase);
Console.WriteLine("S beta phase {0}", Qubit.S(q1).Beta.Phase);
Console.WriteLine("T gate {0}", Qubit.T(q1));
Console.WriteLine("T alpha phase {0}", Qubit.T(q1).Alpha.Phase);
Console.WriteLine("T beta phase {0}", Qubit.T(q1).Beta.Phase);
ComplexNumber e = Calculator.Exp(new ComplexNumber(0, Math.PI / 4));
Vector w = new Vector(1, e + 1);
Console.WriteLine("w={0}", Vector.ScalarProduct(w, w));
Console.WriteLine("Magnitude alpha: {0}", Math.Pow(q1.Alpha.Magnitude, 2));
Console.WriteLine("Magnitude beta: {0}", Math.Pow(q1.Beta.Magnitude, 2));
q1 = new Qubit(0, 1);
var w1 = new Vector(4, 2, -1, 4, new ComplexNumber(1, -3), 4, 0, 1, 2, 3, 4);
Console.WriteLine(w1);
Console.WriteLine(q1);
Console.WriteLine("Z: {0}", Qubit.S(q1));
Console.WriteLine("Measure: {0}", Qubit.Measure(q1));
Console.ReadLine();
}