public static Tuple <List <ligne>, Dictionary <string, sectionCercle> > genererLignes(Dictionary <string, List <string> > flux, ref Random r)
{
List <ligne> retour = new List <ligne>();
Dictionary <string, sectionCercle> sections = sectionCercle.genererSections(flux, ref r);
Console.WriteLine("Enregistrement des lignes");
int n = 0;
foreach (KeyValuePair <string, List <string> > kvp in flux)
{
string motCible = kvp.Key;
foreach (string motSource in kvp.Value)
{
if (sections.ContainsKey(motSource))
{
ligne nl = new ligne(sections[motSource].getTetaOutput(), sections[motCible].getTetaInput(), sections[motSource].couleur);
retour.Add(nl);
sections[motCible].nbInputReel++;
sections[motSource].nbOutputReel++;
}
}
n++;
Console.WriteLine(n + " " + flux.Keys.Count);
}
return(new Tuple <List <ligne>, Dictionary <string, sectionCercle> >(retour, sections));
}
static Bitmap diagCirculaire(Dictionary <string, List <string> > flux, int Dim, int R0, int R1, int R2, string font, int maxFont)
{
Bitmap retour = new Bitmap(Dim, Dim);
Random r = new Random();
Tuple <List <ligne>, Dictionary <string, sectionCercle> > precalc = ligne.genererLignes(flux, ref r);
List <ligne> lignes = precalc.Item1;
Dictionary <string, sectionCercle> sections = precalc.Item2;
using (Graphics gr = Graphics.FromImage(retour))
{
int nbAttaches = getNbAttaches(flux);
int largeurConnexion = (int)((Math.PI * 2.0 * R1) / (double)nbAttaches);
double shiftAngle = (largeurConnexion / 2.0) / (R1);
List <int> indices = new List <int>();
for (int i = 0; i < lignes.Count; i++)
{
indices.Add(i);
}
for (int n = 0; n < lignes.Count; n++)
{
int randsel = r.Next(indices.Count);
int indselect = indices.ElementAt(randsel);
indices.RemoveAt(randsel);
ligne l = lignes.ElementAt(indselect);
PointF p0 = new PointF((float)(Math.Cos(l.teta0 + shiftAngle) * R1 + Dim / 2), (float)(Math.Sin(l.teta0 + shiftAngle) * R1 + Dim / 2));
PointF p0_ = new PointF((float)(Math.Cos(l.teta0 + shiftAngle) * (R1 + R0) / 2.0 + Dim / 2), (float)(Math.Sin(l.teta0 + shiftAngle) * (R1 + R0) / 2.0 + Dim / 2));
PointF p2_ = new PointF((float)(Math.Cos(l.teta1 + shiftAngle) * (R1 + R0) / 2.0 + Dim / 2), (float)(Math.Sin(l.teta1 + shiftAngle) * (R1 + R0) / 2.0 + Dim / 2));
PointF p2 = new PointF((float)(Math.Cos(l.teta1 + shiftAngle) * R1 + Dim / 2), (float)(Math.Sin(l.teta1 + shiftAngle) * R1 + Dim / 2));
Pen pen = new Pen(l.couleur, largeurConnexion);
PointF[] pts = new PointF[] { p0, p0_, p2_, p2 };
gr.DrawBeziers(pen, pts);
Console.WriteLine(n + " " + lignes.Count);
}
int epaisseurCercle = R2 - R1;
int coteCarre = R2 * 2 - epaisseurCercle;
double angleMin = 360.0 * 2.0 / (R1 * Math.PI * 2.0);
Rectangle rect = new Rectangle((Dim - coteCarre) / 2, (Dim - coteCarre) / 2, coteCarre, coteCarre);
int u = 0;
Console.WriteLine("Sections");
foreach (KeyValuePair <string, sectionCercle> kvp in sections)
{
u++;
Pen pen = new Pen(kvp.Value.couleur, epaisseurCercle);
float swap = (float)Math.Max(rad2Deg(kvp.Value.tetaF - kvp.Value.tetaI), angleMin);
gr.DrawArc(pen, rect, (float)(rad2Deg(kvp.Value.tetaI)), swap);
ecrireSecteurAngulaire(gr, kvp.Value.tetaI, kvp.Value.tetaF, (R2 + R1) / 2, InverserCouleur(kvp.Value.couleur), kvp.Key, font, maxFont, Dim);
Console.WriteLine(u + " " + sections.Count);
}
}
return(retour);
}
//Ecrire sur les virtual inputs
private void WriteIED(CancellationToken token)
{
if (token.IsCancellationRequested)
{
toolStatus.Text = "Cancellation thrown"; return;
}
if (IEDConnected)
{
try
{
ligne line = new ligne();
if (!Dbisopen)
{
Opendb();
}
string sql = "select * from vinTable";
cmd = new SQLiteCommand(sql, database_connection);
using (SQLiteDataReader read = cmd.ExecuteReader())
{
while (read.Read())
{
line._val = ToBool(read.GetInt32(1));
line._name = read.GetString(0);
ConnectToIED.WriteValue("GEDeviceF650/vinGGIO1." + line._name + "", FunctionalConstraint.CF, new MmsValue(line._val));
}
}
//Closedb();
}
catch (Exception er)
{
toolStatus.Text = er.Message;
IEDCancelation.Cancel();
}
}
else
{
toolStatus.Text = "IED Disconnected";
}
}
