public CompleteDeckData(DeckData inputDeck)
{
Dictionary <string, int> cards = new Dictionary <string, int>(inputDeck.CardIdToCount);
foreach (var kv in cards)
{
int cardCount = kv.Value;
CardData simpleCard = null;
if (!App.CastedInstance.CardLibrary.TryGetValue(kv.Key, out simpleCard))
{
continue;
}
CompleteCardData completeCard = new CompleteCardData(simpleCard);
for (int i = 0; i < cardCount; i++)
{
Cards.Enqueue(completeCard);
}
}
}
public List <CompleteCardData> GetFullCompleteCardDataList()
{
List <CompleteCardData> resultList = new List <CompleteCardData>();
foreach (var kv in CardIdToCount)
{
int cardCount = kv.Value;
CardData simpleCard = null;
if (!App.CastedInstance.CardLibrary.TryGetValue(kv.Key, out simpleCard))
{
continue;
}
CompleteCardData completeCard = new CompleteCardData(simpleCard);
for (int i = 0; i < cardCount; i++)
{
resultList.Add(completeCard);
}
}
return(resultList);
}
public override ResultBase AnalyzeHandWithCommons(List <CompleteCardData> hand)
{
int highCard = -1;
bool pair1 = false;
int pair1Value = -1;
bool pair2 = false;
int pair2Value = -1;
bool trips = false;
int tripsValue = -1;
bool quads = false;
int quadsValue = -1;
bool flush = false;
Suit flushSuit = null;
int flushValue = -1;
bool straight = false;
Suit straightSuit = null;
int straightValue = -1;
bool straightFlush = false;
int straightFlushValue = -1;
bool royalFlush = false;
List <CompleteCardData> consolidated = new List <CompleteCardData>(m_CommonPool);
foreach (var card in hand)
{
consolidated.Add(card);
}
List <int> overallStrengthCount = new List <int>(CommonsStrengthCount); // the number of cards of said strength
Dictionary <Suit, int> overallSuitToCountDict = new Dictionary <Suit, int>(CommonsSuitToCountDict);
// analyzing hand for card count for each suit and value.
foreach (CompleteCardData cardData in hand)
{
overallStrengthCount[cardData.StrengthValue - m_MinStrength]++;
if (overallSuitToCountDict.ContainsKey(cardData.Suit1))
{
overallSuitToCountDict[cardData.Suit1]++;
}
else
{
overallSuitToCountDict[cardData.Suit1] = 1;
}
}
// matching patterns
for (int i = 0; i < overallStrengthCount.Count; i++)
{
if (overallStrengthCount[i] > 0)
{
highCard = i + m_MinStrength;
}
switch (overallStrengthCount[i])
{
case 2:
if (pair1)
{
pair2 = true;
pair2Value = i + m_MinStrength;
}
else
{
pair1 = true;
pair1Value = i + m_MinStrength;
}
break;
case 3:
trips = true;
tripsValue = i + m_MinStrength;
break;
case 4:
quads = true;
quadsValue = i + m_MinStrength;
break;
}
}
// detecting flushes
foreach (var kv in overallSuitToCountDict)
{
if (kv.Value >= 5)
{
flush = true;
flushSuit = kv.Key;
// Finding highest value of the flush suit
consolidated.ForEach(card =>
{
if (card.Suit1 == flushSuit && card.StrengthValue > flushValue)
{
flushValue = card.StrengthValue;
}
});
break;
}
}
// detecting straights and straight flushes
// Here, we check for a straight for every card by assuming that the card is the first in the pattern.
// todo: Find a better solution for this.
foreach (var card in consolidated)
{
int startingValue = card.StrengthValue;
Suit startingSuit = card.Suit1;
bool foundStraight = true;
// start from aces
if (startingValue == m_MaxStrength)
{
startingValue = m_MinStrength - 1;
}
if (startingValue + 4 > m_MaxStrength)
{
// overflow. not possible to have a straight with the given starting value.
continue;
}
for (int offset = 1; offset < 5; offset++)
{
int desiredValue = startingValue + offset;
int index = desiredValue - m_MinStrength;
if (overallStrengthCount[index] == 0)
{
foundStraight = false;
break;
}
}
// if straight is found AND the startingValue is higher than the current one (a stronger straight)
if (foundStraight && startingValue > straightValue)
{
straight = true;
straightSuit = startingSuit;
straightValue = startingValue + 4;
}
}
// rare, but there's a chance that there is a straight flush
// Brute force looking for a straight flush
// todo: detect a royal flush
if (straight && flush)
{
int suitCardCount = 0;
if (overallSuitToCountDict.TryGetValue(straightSuit, out suitCardCount))
{
if (suitCardCount >= 5)
{
// sort in increasing strength value
consolidated.Sort((c1, c2) => c1.StrengthValue.CompareTo(c2.StrengthValue));
consolidated.RemoveAll(card => card.Suit1 != straightSuit);
int startingIndex = 1;
int currentVal = consolidated[0].StrengthValue;
// Special case: Aces (or highest card that needs to roll back)
// Check for Ace being used as the smallest card first.
// highest card being treated as lowest card.
if (consolidated.Last().StrengthValue == m_MaxStrength) // last card is highest value
{
currentVal = m_MinStrength - 1;
startingIndex = 0;
}
// normal case.
// We go from first card to the last, and check that they are in a straight sequence
int straightPosition = 0;
for (int i = startingIndex; i < consolidated.Count; i++)
{
CompleteCardData next = consolidated[i];
if (next.StrengthValue - currentVal != 1)
{
currentVal = next.StrengthValue;
straightPosition = 0;
continue; // NOT A STRAIGHT, reset.
}
currentVal = next.StrengthValue;
straightPosition++;
if (straightPosition >= 4) // straight flush found!
{
straightFlush = true;
straightFlushValue = currentVal; // the last card.
}
}
}
}
}
if (straightFlush && straightFlushValue == m_MaxStrength)
{
royalFlush = true;
}
if (royalFlush)
{
return(new Result(Pattern.RoyalFlush, 0));
}
else if (straightFlush)
{
return(new Result(Pattern.StraightFlush, straightValue));
}
else if (quads)
{
return(new Result(Pattern.FourOfAKind, quadsValue));
}
else if (trips && pair1)
{
return(new Result(Pattern.FullHouse, tripsValue));
}
else if (flush)
{
return(new Result(Pattern.Flush, highCard));
}
else if (straight)
{
return(new Result(Pattern.Straight, straightValue));
}
else if (trips)
{
return(new Result(Pattern.ThreeOfAKind, tripsValue));
}
else if (pair2)
{
return(new Result(Pattern.TwoPair, Math.Max(pair1Value, pair2Value)));
}
else if (pair1)
{
return(new Result(Pattern.OnePair, pair1Value));
}
else
{
return(new Result(Pattern.None, highCard));
}
}
public void AddCardToHand(CompleteCardData card)
{
hand.Add(card);
}