/// <summary>
/// Setup the group and refiner; it is important to call this method before
/// calling <see cref="Refine(Partition)"/> otherwise the refinement process will fail.
/// </summary>
/// <param name="group">a group (possibly empty) of automorphisms</param>
/// <param name="refiner">the equitable refiner</param>
public void Setup(PermutationGroup group, EquitablePartitionRefiner refiner)
{
this.bestExist = false;
this.best = null;
this.group = group;
this.equitableRefiner = refiner;
}
public void Cube2eneWithBonds()
{
AtomRefinable ar = Make(Cubene(), false);
EquitablePartitionRefiner refiner = new EquitablePartitionRefiner(ar);
Partition finer = refiner.Refine(Partition.Unit(8));
Partition expected = Partition.FromString("0,2,5,7|1,3,4,6");
Assert.AreEqual(expected, finer);
}
public void Cube2eneWithoutBonds()
{
AtomRefinable ar = Make(Cubene(), true);
EquitablePartitionRefiner refiner = new EquitablePartitionRefiner(ar);
Partition finer = refiner.Refine(Partition.Unit(8));
Partition expected = Partition.Unit(8);
Assert.AreEqual(expected, finer);
}
public void RefineTest()
{
EquitablePartitionRefiner refiner = new EquitablePartitionRefiner(MakeExampleTable());
Partition coarser = Partition.FromString("[0|1,2,3]");
Partition finer = refiner.Refine(coarser);
Partition expected = Partition.FromString("[0|1,2|3]");
Assert.AreEqual(expected, finer);
}
/// <summary>
/// A refiner - it is necessary to call <see cref="Setup(PermutationGroup, EquitablePartitionRefiner)"/> before use.
/// </summary>
protected AbstractDiscretePartitionRefiner()
{
this.bestExist = false;
this.best = null;
this.equitableRefiner = null;
}
public void ConstructorTest()
{
EquitablePartitionRefiner refiner = new EquitablePartitionRefiner(MakeExampleTable());
Assert.IsNotNull(refiner);
}
