public ConservativeUnaryStatefulOperator(int index, Stage <T> collection, bool immutableInput, Expression <Func <S, K> > k, Expression <Func <S, V> > v, bool ignored = true)
: base(index, collection, null)
{
key = k.Compile();
value = v.Compile();
keyExpression = k;
valueExpression = v;
this.inputImmutable = immutableInput;
internTable = new LatticeInternTable <T>();
keyIndices = new Dictionary <K, UnaryKeyIndices>();
inputTrace = createInputTrace();
outputTrace = createOutputTrace();
}
public UnaryStatefulIntKeyedOperator(int index, Stage <T> collection, bool immutableInput, Expression <Func <S, int> > k, Expression <Func <S, V> > v, bool maintainOutputTrace = true)
: base(index, collection, null)
{
key = k.Compile();
value = v.Compile();
keyExpression = k;
valueExpression = v;
MaintainOutputTrace = maintainOutputTrace;
if (immutableInput)
{
this.inputImmutable = true;
}
internTable = new LatticeInternTable <T>();
keyIndices = new UnaryKeyIndices[65536][];
inputTrace = createInputTrace();
outputTrace = createOutputTrace();
//this.Input = new Naiad.Frameworks.RecvFiberBank<Weighted<S>, T>(this, collection.Input);
//if (inputImmutable)
// collection.Input.Register(new ActionReceiver<Weighted<S>, T>(this, x => { this.OnInput(x.s, x.t); this.ScheduleAt(x.t); }));
#if false
if (this.inputImmutable)
{
this.input = new ActionReceiver <Weighted <S>, T>(this, x => { this.OnInput(x.s, x.t); this.ScheduleAt(x.t); });
}
else
{
this.RecvInput = new Naiad.Frameworks.RecvFiberBank <Weighted <S>, T>(this);
this.input = this.RecvInput;
}
#endif
}
