protected override void Initialize()
{
MyFlop = ((FlopCommunity)MyCommunity).MyFlop;
if (DerivedSetup.SuitReduce)
{
FindRepresentative();
// Only initialize if this is a representative branch
if (IsRepresentative())
base.Initialize();
}
else
{
base.Initialize();
}
}
public FlopCommunity(CommunityRoot Parent, Flop flop)
: base(Parent)
{
MyFlop = flop;
ClassifyAvailability();
Weight = ((number)1) / Counting.Choose(Card.N - 4, 3);
Phase = BettingPhase.Flop;
InitiallyActivePlayer = Player.Dealer;
MakeScratchSpace();
CreateBranches();
#if DEBUG
InstanceCount++;
#endif
}
public TurnCommunity(FlopCommunity Parent, Flop flop, int turn)
: base(Parent)
{
#if DEBUG
InstanceCount++;
#endif
MyFlop = flop;
MyTurn = turn;
ClassifyAvailability();
Weight = ((number)1) / (Card.N - 4 - 3);
Phase = BettingPhase.Turn;
InitiallyActivePlayer = Player.Dealer;
MakeScratchSpace();
CreateBranches();
}
public Flop(int c1, int c2, int c3)
{
this.c1 = c1;
this.c2 = c2;
this.c3 = c3;
if (DerivedSetup.SuitReduce)
{
// Get the representative of this flop
if (CurrentRepresentative == null)
CurrentRepresentative = this;
Representative = CurrentRepresentative;
// Determine the mapping between this flop and its representative
for (int s = 0; s < Card.Suits; s++)
SuitMap[s] = -1;
int s1 = Card.GetSuit(c1), s2 = Card.GetSuit(c2), s3 = Card.GetSuit(c3);
int _s1 = Card.GetSuit(Representative.c1), _s2 = Card.GetSuit(Representative.c2), _s3 = Card.GetSuit(Representative.c3);
Assert.That(SuitMap[s1] < 0 || SuitMap[s1] == _s1); SuitMap[s1] = _s1;
Assert.That(SuitMap[s2] < 0 || SuitMap[s2] == _s2); SuitMap[s2] = _s2;
Assert.That(SuitMap[s3] < 0 || SuitMap[s3] == _s3); SuitMap[s3] = _s3;
int NextSuit = Math.Max(_s1, Math.Max(_s2, _s3)) + 1;
for (int s = 0; s < Card.Suits; s++)
{
if (SuitMap[s] < 0)
{
SuitMap[s] = NextSuit++;
Assert.That(SuitMap[s] < Card.Suits);
}
}
Assert.That(SuitMap.Sum(s => 10 * s) == SuitMapSum);
// Use the suit map to determine the card mappings and the pocket mappings
for (int c = 0; c < Card.N; c++)
CardMap[c] = MapCard(c, SuitMap);
for (int p = 0; p < Pocket.N; p++)
PocketMap[p] = MapPocket(p, SuitMap);
}
}
public RiverCommunity(TurnCommunity Parent, Flop flop, int turn, int river)
: base(Parent)
{
#if DEBUG
InstanceCount++;
#endif
MyFlop = flop;
MyTurn = turn;
MyRiver = river;
ClassifyAvailability();
Weight = ((number)1) / (Card.N - 4 - 3 - 1);
Phase = BettingPhase.River;
InitiallyActivePlayer = Player.Dealer;
// Get all pocket values
PocketValue = new uint[Pocket.N];
for (int p = 0; p < Pocket.N; p++)
{
//if (Collision(p))
// PocketValue[p] = 0;//uint.MaxValue;
//else
// PocketValue[p] = Value.Eval(MyFlop, MyTurn, MyRiver, Pocket.Pockets[p]);
if (AvailablePocket[p])
PocketValue[p] = Value.Eval(MyFlop, MyTurn, MyRiver, Pocket.Pockets[p]);
else
PocketValue[p] = 0;//uint.MaxValue;
}
// Sort pockets
SortedPockets = new int[Pocket.N];
for (int i = 0; i < Pocket.N; i++) SortedPockets[i] = i;
SortedPocketValue = new uint[Pocket.N];
PocketValue.CopyTo(SortedPocketValue, 0);
Array.Sort(SortedPocketValue, SortedPockets);
MakeScratchSpace();
}
public static string CommunityToString(Flop flop, int turn = -1, int river = -1)
{
string str = "";
str += string.Format("({0})", flop);
if (turn >= 0) str += string.Format(" {0}", ToString(OutputStyle.Number, turn));
else return str;
if (river >= 0) str += string.Format(" {0}", ToString(OutputStyle.Number, river));
else return str;
return str;
}
public string FileString_Community(Flop flop, int turn, int river)
{
return string.Format("{0}/{1}/{2}/", Flop.IndexOf(flop), turn, river);
}
public string FileString_Community(Flop flop)
{
return string.Format("{0}/", Flop.IndexOf(flop));
}
public static void InitFlops()
{
int TotalFlops = Counting.Choose(Card.N, 3);
Flops = new List<Flop>(TotalFlops);
if (DerivedSetup.SuitReduce)
{
int S = Card.Vals;
int Count = 0;
for (int s = 0; s < Card.Suits; s++)
SuitMapSum += 10 * s;
// Same suit
for (int v1 = 0; v1 < Card.Vals; v1++)
for (int v2 = 0; v2 < v1; v2++)
for (int v3 = 0; v3 < v2; v3++)
{
CurrentRepresentative = null;
for (int Suit = 0; Suit < Card.Suits; Suit++)
Flops.Add(new Flop(v1 + Suit * S, v2 + Suit * S, v3 + Suit * S));
}
Count += Card.Suits * Counting.Choose(Card.Vals, 3);
Assert.That(Count == Flops.Count);
// Two suit
for (int v1 = 0; v1 < Card.Vals; v1++)
for (int v2 = 0; v2 < Card.Vals; v2++)
for (int v3 = 0; v3 < v2; v3++)
{
CurrentRepresentative = null;
for (int Suit1 = 0; Suit1 < Card.Suits; Suit1++)
for (int Suit2 = 0; Suit2 < Card.Suits; Suit2++)
if (Suit1 != Suit2)
Flops.Add(new Flop(v1 + Suit1 * S, v2 + Suit2 * S, v3 + Suit2 * S));
}
Count += Counting.Permute(Card.Suits, 2) * Card.Vals * Counting.Choose(Card.Vals, 2);
Assert.That(Count == Flops.Count);
// Three suit, all different values
for (int v1 = 0; v1 < Card.Vals; v1++)
for (int v2 = 0; v2 < v1; v2++)
for (int v3 = 0; v3 < v2; v3++)
{
CurrentRepresentative = null;
for (int Suit1 = 0; Suit1 < Card.Suits; Suit1++)
for (int Suit2 = 0; Suit2 < Card.Suits; Suit2++)
for (int Suit3 = 0; Suit3 < Card.Suits; Suit3++)
if (Suit1 != Suit2 && Suit1 != Suit3 && Suit2 != Suit3)
Flops.Add(new Flop(v1 + Suit1 * S, v2 + Suit2 * S, v3 + Suit3 * S));
}
Count += Counting.Permute(Card.Suits, 3) * Counting.Choose(Card.Vals, 3);
Assert.That(Count == Flops.Count);
// Three suits, one pair
for (int v1 = 0; v1 < Card.Vals; v1++)
for (int v2 = 0; v2 < Card.Vals; v2++)
{
if (v1 != v2)
{
CurrentRepresentative = null;
for (int Suit1 = 0; Suit1 < Card.Suits; Suit1++)
for (int Suit2 = 0; Suit2 < Card.Suits; Suit2++)
for (int Suit3 = 0; Suit3 < Suit2; Suit3++)
if (Suit2 != Suit1 && Suit3 != Suit1)
Flops.Add(new Flop(v1 + Suit1 * S, v2 + Suit2 * S, v2 + Suit3 * S));
}
}
Count += Card.Suits * Counting.Choose(Card.Suits - 1, 2) * Counting.Permute(Card.Vals, 2);
Assert.That(Count == Flops.Count);
// Three of a kind
for (int v1 = 0; v1 < Card.Vals; v1++)
{
CurrentRepresentative = null;
for (int Suit1 = 0; Suit1 < Card.Suits; Suit1++)
for (int Suit2 = 0; Suit2 < Suit1; Suit2++)
for (int Suit3 = 0; Suit3 < Suit2; Suit3++)
Flops.Add(new Flop(v1 + Suit1 * S, v1 + Suit2 * S, v1 + Suit3 * S));
}
Count += Counting.Choose(Card.Suits, 3) * Card.Vals;
Assert.That(Count == Flops.Count);
Assert.That(Flops.Count == TotalFlops);
}
else
{
for (int c1 = 0; c1 < Card.N; c1++)
for (int c2 = 0; c2 < c1; c2++)
for (int c3 = 0; c3 < c2; c3++)
Flops.Add(new Flop(c1, c2, c3));
}
N = Flops.Count;
}
/// <summary>
/// Get the index of a given flop in the Flop list.
/// </summary>
public static int IndexOf(Flop flop)
{
return Game.FlopLookup[flop.c1, flop.c2, flop.c3];
}
public override void SetFlop(int c1, int c2, int c3)
{
int flop = Game.FlopLookup[c1, c2, c3];
if (DerivedSetup.SuitReduce)
{
TrueFlop = Flop.Flops[flop];
flop = Flop.RepresentativeOf(flop);
TruePocket = Pocket;
Pocket = TrueFlop.PocketMap[Pocket];
}
Head = Head.AdvanceHead(flop);
}
public bool Overlaps(Flop flop)
{
return flop.Contains(Cards[0]) || flop.Contains(Cards[1]);
}
