public LogisticMap(double mu, double r0, double rmax, double dr)
{
mapData.ChartType = SeriesChartType.Point ;
mapData.MarkerSize = 1;
mapData.MarkerColor = Color.Black;
int numberOfThreadsInMap =1 ;
List<double> activeThreadValues;
double eps = .005;
for(double r = r0; r < rmax; r+= dr ){
activeThreadValues = new List<double>();
Func<double, double> log = i => r * i * (1 - Math.Pow(i, mu));
for (int i = 150; i < 260; i++) {
var A = new Sequence(log, .2).GetElementAt(i);
if (A > double.MaxValue || A < double.MinValue) {
break;
}
if (activeThreadValues.Where(j => j < A + eps && j > A - eps).Count() == 0)
activeThreadValues.Add(A);
mapData.Points.AddXY(r, A);
}
if (activeThreadValues.Count > numberOfThreadsInMap) {
Console.WriteLine("Bifurcation point: " + r.ToString() + " " + activeThreadValues.Count.ToString() + " threads.");
numberOfThreadsInMap = activeThreadValues.Count();
eps /= numberOfThreadsInMap;
}
}
}
public void InstructionToNodeConversionWithLeadingAndTrailing()
{
var input = new List<Instruction>
{
X.StartMember<Setter>(c => c.Value),
X.EndMember(),
};
var sut = new InstructionTreeBuilder();
var actual = sut.CreateHierarchy(input).ToList();
var expected = new Sequence<InstructionNode>
{
new InstructionNode
{
Leading = X.StartMember<Setter>(c => c.Value),
Trailing = X.EndMember(),
}
};
Assert.Equal(expected, actual);
}
public void Play()
{
// Build a track object from
// the current session
m_Session.Build();
Track trk = m_Session.Result;
// Create a new sequence
// from the current track
Sequence seq = new Sequence();
seq.Add(trk);
// Load the sequence into
// the sequencer
Sequencer.Sequence = seq;
// Start playing
Sequencer.Start();
CanPlay = false;
CanPause = true;
}