public void PQQRTermFromGeneralHamiltonianTest()
{
var generalHamiltonian = new FermionHamiltonian(nOrbitals: 2, nElectrons: 1);
generalHamiltonian.AddFermionTerm(PQQRTermType, new Int64[] { 0, 1, 2, 0 }, 1.0);
var jwEvolutionSetData = JordanWignerEncoding.Create(generalHamiltonian);
var termData = jwEvolutionSetData.Terms;
using (var qsim = new QuantumSimulator())
{
BlockEncodingStep.Run(qsim, generalHamiltonian.NOrbitals * 2, termData).Wait();
}
}
public void PQTermACFromGeneralHamiltonianTest()
{
var generalHamiltonian = new FermionHamiltonian(nOrbitals: 3, nElectrons: 1);
generalHamiltonian.AddFermionTerm(PQTermType, new Int64[] { 0, 2 }, 2.0);
var jwEvolutionSetData = JordanWignerEncoding.Create(generalHamiltonian);
var identityCoefficient = jwEvolutionSetData.energyOffset;
var termData = jwEvolutionSetData.Terms;
using (var qsim = new QuantumSimulator())
{
BlockEncodingStep.Run(qsim, generalHamiltonian.NOrbitals * 2, termData).Wait();
}
}
public void PQRSTermFromLiquidOrbitalTest()
{
string orbitals = "0,1,0,1=1.0";
var generalHamiltonian = LoadData.LoadFromLiquid(orbitals);
generalHamiltonian.NElectrons = 1L;
var jwEvolutionSetData = JordanWignerEncoding.Create(generalHamiltonian);
var termData = jwEvolutionSetData.Terms;
using (var qsim = new QuantumSimulator())
{
BlockEncodingStep.Run(qsim, generalHamiltonian.NOrbitals * 2, termData).Wait();
}
}
