public static void Main(String[] args)
{
try {
cp = new CP();
cost = cp.NumExpr();
List <IIntervalVar> allTasks = new List <IIntervalVar>();
List <IIntervalVar> joeTasks = new List <IIntervalVar>();
List <IIntervalVar> jimTasks = new List <IIntervalVar>();
List <Int32> joeLocations = new List <Int32>();
List <Int32> jimLocations = new List <Int32>();
MakeHouse(allTasks, joeTasks, jimTasks, joeLocations, jimLocations, 0, 0, 120, 100.0);
MakeHouse(allTasks, joeTasks, jimTasks, joeLocations, jimLocations, 1, 0, 212, 100.0);
MakeHouse(allTasks, joeTasks, jimTasks, joeLocations, jimLocations, 2, 151, 304, 100.0);
MakeHouse(allTasks, joeTasks, jimTasks, joeLocations, jimLocations, 3, 59, 181, 200.0);
MakeHouse(allTasks, joeTasks, jimTasks, joeLocations, jimLocations, 4, 243, 425, 100.0);
ITransitionDistance tt = cp.TransitionDistance(5);
for (int i = 0; i < 5; ++i)
{
for (int j = 0; j < 5; ++j)
{
tt.SetValue(i, j, Math.Abs(i - j));
}
}
IIntervalSequenceVar joe = cp.IntervalSequenceVar(joeTasks.ToArray(), joeLocations.ToArray(), "Joe");
IIntervalSequenceVar jim = cp.IntervalSequenceVar(jimTasks.ToArray(), jimLocations.ToArray(), "Jim");
cp.Add(cp.NoOverlap(joe, tt));
cp.Add(cp.NoOverlap(jim, tt));
cp.Add(cp.Minimize(cost));
cp.SetParameter(CP.IntParam.FailLimit, 50000);
/* EXTRACTING THE MODEL AND SOLVING. */
if (cp.Solve())
{
for (int i = 0; i < allTasks.Count; ++i)
{
Console.WriteLine(cp.GetDomain(allTasks[i]));
}
}
else
{
Console.WriteLine("No solution found.");
}
} catch (ILOG.Concert.Exception e) {
Console.WriteLine(" ERROR: " + e);
}
}
public static void Main(String[] args)
{
CP cp = new CP();
List <IIntExpr> ends = new List <IIntExpr>();
List <IIntervalVar> allTasks = new List <IIntervalVar>();
ITransitionDistance ttime = cp.TransitionDistance(2);
ttime.SetValue(dirty, clean, 1);
workers = cp.CumulFunctionExpr();
IStateFunction[] houseState = new IStateFunction[nbHouses];
for (int i = 0; i < nbHouses; i++)
{
houseState[i] = cp.StateFunction(ttime);
MakeHouse(cp, i, ends, allTasks, houseState[i]);
}
cp.Add(cp.Le(workers, nbWorkers));
cp.Add(cp.Minimize(cp.Max(ends.ToArray())));
/* EXTRACTING THE MODEL AND SOLVING. */
cp.SetParameter(CP.IntParam.FailLimit, 10000);
if (cp.Solve())
{
for (int i = 0; i < allTasks.Count; i++)
{
Console.WriteLine(cp.GetDomain(allTasks[i]));
}
for (int h = 0; h < nbHouses; h++)
{
for (int i = 0; i < cp.GetNumberOfSegments(houseState[h]); i++)
{
Console.Write("House " + h + " has state ");
int s = cp.GetSegmentValue(houseState[h], i);
if (s == clean)
{
Console.Write("Clean");
}
else if (s == dirty)
{
Console.Write("Dirty");
}
else if (s == CP.NoState)
{
Console.Write("None");
}
else
{
Console.Write("Unknown (problem)");
}
Console.Write(" from ");
if (cp.GetSegmentStart(houseState[h], i) == CP.IntervalMin)
{
Console.Write("Min");
}
else
{
Console.Write(cp.GetSegmentStart(houseState[h], i));
}
Console.Write(" to ");
if (cp.GetSegmentEnd(houseState[h], i) == CP.IntervalMax)
{
Console.WriteLine("Max");
}
else
{
Console.WriteLine((cp.GetSegmentEnd(houseState[h], i) - 1));
}
}
}
}
else
{
Console.WriteLine("No solution found. ");
}
}
public static void Main(String[] args)
{
try
{
CP cp = new CP();
ITransitionDistance setup1 = cp.TransitionDistance(NbTypes);
ITransitionDistance setup2 = cp.TransitionDistance(NbTypes);
int i, j;
for (i = 0; i < NbTypes; ++i)
{
for (j = 0; j < NbTypes; ++j)
{
setup1.SetValue(i, j, SetupM1[NbTypes * i + j]);
setup2.SetValue(i, j, SetupM2[NbTypes * i + j]);
}
}
int[] tp = new int[NbTasks];
IIntervalVar[] a = new IIntervalVar[NbTasks];
IIntervalVar[] a1 = new IIntervalVar[NbTasks];
IIntervalVar[] a2 = new IIntervalVar[NbTasks];
String name;
for (i = 0; i < NbTasks; ++i)
{
int type = TaskType[i];
int d = TaskDur[i];
tp[i] = type;
name = "A" + i + "_TP" + type;
a[i] = cp.IntervalVar(d, name);
IIntervalVar[] alt = new IIntervalVar[2];
name = "A" + i + "_M1_TP" + type;
a1[i] = cp.IntervalVar(name);
a1[i].SetOptional();
alt[0] = a1[i];
name = "A" + i + "_M2_TP" + type;
a2[i] = cp.IntervalVar(name);
a2[i].SetOptional();
alt[1] = a2[i];
cp.Add(cp.Alternative(a[i], alt));
}
IIntervalSequenceVar s1 = cp.IntervalSequenceVar(a1, tp);
IIntervalSequenceVar s2 = cp.IntervalSequenceVar(a2, tp);
cp.Add(cp.NoOverlap(s1, setup1, true));
cp.Add(cp.NoOverlap(s2, setup2, true));
IIntExpr nbLongSetups = cp.IntExpr();
for (i = 0; i < NbTasks; ++i)
{
int tpi = TaskType[i];
int[] isLongSetup1 = new int[NbTypes + 1];
int[] isLongSetup2 = new int[NbTypes + 1];
for (j = 0; j < NbTypes; ++j)
{
isLongSetup1[j] = (30 <= SetupM1[NbTypes * tpi + j]) ? 1 : 0;
isLongSetup2[j] = (30 <= SetupM2[NbTypes * tpi + j]) ? 1 : 0;
}
isLongSetup1[NbTypes] = 0; // Last on resource or resource not selected
isLongSetup2[NbTypes] = 0; // Last on resource or resource not selected
nbLongSetups = cp.Sum(nbLongSetups,
cp.Element(isLongSetup1, cp.TypeOfNext(s1, a1[i], NbTypes, NbTypes)));
nbLongSetups = cp.Sum(nbLongSetups,
cp.Element(isLongSetup2, cp.TypeOfNext(s2, a2[i], NbTypes, NbTypes)));
}
cp.Add(cp.Minimize(nbLongSetups));
cp.SetParameter(CP.IntParam.FailLimit, 100000);
cp.SetParameter(CP.IntParam.LogPeriod, 10000);
if (cp.Solve())
{
Console.WriteLine("Machine 1: ");
IIntervalVar x;
for (x = cp.GetFirst(s1); !x.Equals(cp.GetLast(s1)); x = cp.GetNext(s1, x))
{
Console.WriteLine(cp.GetDomain(x));
}
Console.WriteLine(cp.GetDomain(x));
Console.WriteLine("Machine 2: ");
for (x = cp.GetFirst(s2); !x.Equals(cp.GetLast(s2)); x = cp.GetNext(s2, x))
{
Console.WriteLine(cp.GetDomain(x));
}
Console.WriteLine(cp.GetDomain(x));
Console.WriteLine("Number of long transition times \t: " + cp.ObjValue);
}
else
{
Console.WriteLine("No solution found.");
}
}
catch (IloException e)
{
Console.WriteLine("Error: " + e);
}
}
public static void Main(String[] args)
{
try
{
CP cp = new CP();
ITransitionDistance setup1 = cp.TransitionDistance(NbTypes);
ITransitionDistance setup2 = cp.TransitionDistance(NbTypes);
int i, j;
for (i = 0; i < NbTypes; ++i)
{
for (j = 0; j < NbTypes; ++j)
{
int d1 = SetupM1[NbTypes * i + j];
if (d1 < 0)
{
d1 = CP.IntervalMax; // Forbidden transition
}
setup1.SetValue(i, j, d1);
int d2 = SetupM2[NbTypes * i + j];
if (d2 < 0)
{
d2 = CP.IntervalMax; // Forbidden transition
}
setup2.SetValue(i, j, d2);
}
}
int[] tp = new int[NbTasks];
IIntervalVar[] a = new IIntervalVar[NbTasks];
IIntervalVar[] a1 = new IIntervalVar[NbTasks];
IIntervalVar[] a2 = new IIntervalVar[NbTasks];
IIntExpr[] ends = new IIntExpr[NbTasks];
String name;
for (i = 0; i < NbTasks; ++i)
{
int type = TaskType[i];
int d1 = TaskDurM1[i];
int d2 = TaskDurM2[i];
tp[i] = type;
name = "A" + i + "_TP" + type;
a[i] = cp.IntervalVar(name);
IIntervalVar[] alt = new IIntervalVar[2];
name = "A" + i + "_M1_TP" + type;
a1[i] = cp.IntervalVar(d1, name);
a1[i].SetOptional();
alt[0] = a1[i];
name = "A" + i + "_M2_TP" + type;
a2[i] = cp.IntervalVar(d2, name);
a2[i].SetOptional();
alt[1] = a2[i];
cp.Add(cp.Alternative(a[i], alt));
ends[i] = cp.EndOf(a[i]);
}
IIntervalSequenceVar s1 = cp.IntervalSequenceVar(a1, tp);
IIntervalSequenceVar s2 = cp.IntervalSequenceVar(a2, tp);
cp.Add(cp.NoOverlap(s1, setup1, true));
cp.Add(cp.NoOverlap(s2, setup2, true));
cp.Add(cp.Minimize(cp.Max(ends)));
cp.SetParameter(CP.IntParam.FailLimit, 100000);
cp.SetParameter(CP.IntParam.LogPeriod, 10000);
if (cp.Solve())
{
Console.WriteLine("Machine 1: ");
IIntervalVar x;
for (x = cp.GetFirst(s1); !x.Equals(cp.GetLast(s1)); x = cp.GetNext(s1, x))
{
Console.WriteLine(cp.GetDomain(x));
}
Console.WriteLine(cp.GetDomain(x));
Console.WriteLine("Machine 2: ");
for (x = cp.GetFirst(s2); !x.Equals(cp.GetLast(s2)); x = cp.GetNext(s2, x))
{
Console.WriteLine(cp.GetDomain(x));
}
Console.WriteLine(cp.GetDomain(x));
Console.WriteLine("Makespan \t: " + cp.ObjValue);
}
else
{
Console.WriteLine("No solution found.");
}
}
catch (IloException e)
{
Console.WriteLine("Error: " + e);
}
}