private void CreateMesurements(IPhysicalField field)
{
string name = this.GetRelativeName(field as IAssociatedObject) + "_";
name = name.Replace(".", "_");
name = name.Replace("/", "_");
int n = field.Count;
IList <IMeasurement> lm = new List <IMeasurement>();
IList <ProcessField> pr = new List <ProcessField>();
IList <object> lo = new List <object>();
dic[field] = lm;
proc[field] = pr;
results[field] = lo;
IMeasurement mea = null;
measures.Clear();
for (int i = 0; i < n; i++)
{
object result = null;
ProcessField pf = null;
string na = name + (i + 1);
object type = field.GetType(i);
object tt = field.GetTransformationType(i);
if (type is ArrayReturnType)
{
if (tt.Equals(Field3D_Types.CovariantVector))
{
pf = ProcessCovariantVector;
}
else
{
pf = ProcessInvariantVector;
}
ArrayReturnType art = type as ArrayReturnType;
int dim = art.Dimension[0];
result = new double[dim];
mea = new FieldMeasurement(na, type, result);
}
else
{
pf = ProcessSimpleType;
result = new object[1];
mea = new FieldMeasurementElement(na, type, result as object[]);
}
lm.Add(mea);
pr.Add(pf);
lo.Add(result);
measures.Add(mea);
}
}
public static int[] GetFields(IPhysicalField field, object type,
object transformationType)
{
List <int> l = new List <int>();
int n = field.Count;
for (int i = 0; i < n; i++)
{
object t = field.GetType(i);
object tr = field.GetTransformationType(i);
if (t.Equals(type) & tr.Equals(transformationType))
{
l.Add(i);
}
}
return(l.ToArray());
}
