public void When_ConvertingQubits_To_Groups_TheCorrectGroups_AreReturned()
{
SetUp();
var result = _converter.DivideInputIntoGroupsByQubits(_originalInput, _qubitsGroups);
DefaultAssertion(result);
}
/// <summary>
/// Gets the optimal solution based on user's input, maxResults and filter.
/// </summary>
/// <param name="input">User's input</param>
/// <param name="qubitsResultsFilter">Optional. A filter to filter out the results.</param>
/// <param name="maxResults">Maximum amount of results to return. -1 as default for unlimited amount.</param>
/// <returns></returns>
public IResponse <IEnumerable <IBinaryGroup <InputType> > > Resolve(IEnumerable <InputType> input, Func <IEnumerable <short>, bool> qubitsResultsFilter = null, int maxResults = -1)
{
if (GetBreakingUsecasesResult(input, out var response))
{
return(response); //If input is broken or can be resolved immediately, do it and return.
}
var couplingsAndBiases = _dataExtractionFacade.GetCouplingsAndBiases(input); //Extract couplings and biases
var qubitsResults = _resolver.Resolve(input, couplingsAndBiases.Biases, couplingsAndBiases.Couplings); //Pass extracted data to resolver and get the result
var finalGroups = _qubitsToGroupsConverter.DivideInputIntoGroupsByQubits(input, qubitsResults.Select(item => item.Qubits), maxResults, qubitsResultsFilter); //Convert result to groups
return(CreateResponseFromGroups(finalGroups)); //Wrap the groups into a Response object with error code and message if neccesary.
}
