def test_highCard():
communityCards = np.array(['♢Q', '♢K', '♢8', '♣5', '♡J'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [1, 13, 12, 11, 8, 5]
i = 0
while i < 6:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♢Q', '♢K', '♢8', '♣5', '♢J', '♣6', '♡T'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [1, 13, 12, 11, 10, 8]
i = 0
while i < 6:
assert v[i] == compared[i]
i += 1
def test_trips():
communityCards = np.array(['♢Q', '♢K', '♢8', '♣K', '♡K', "♢2"])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [4, 13, 12, 8]
i = 0
while i < 4:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♢Q', '♢K', '♢8', '♣K', '♡K', '♡3', '♢2'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [4, 13, 12, 8]
i = 0
while i < 4:
assert v[i] == compared[i]
i += 1
def test_pair():
communityCards = np.array(['♢Q', '♢K', '♢8', '♣K', '♡J'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [2, 13, 12, 11, 8]
i = 0
while i < 5:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♢Q', '♢K', '♢8', '♣K', '♡J', '♣A', '♡2'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [2, 13, 14, 12, 11]
i = 0
while i < 5:
assert v[i] == compared[i]
i += 1
def test_twoPair():
communityCards = np.array(['♢Q', '♢K', '♢8', '♣K', '♡Q'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [3, 13, 12, 8]
i = 0
while i < 4:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♢Q', '♢K', '♢2', '♣2', '♡9', '♡K', '♡Q'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [3, 13, 12, 9]
i = 0
while i < 4:
assert v[i] == compared[i]
i += 1
def test_quads():
communityCards = np.array(['♢Q', '♢K', '♠K', '♣K', '♡K'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [8, 13, 12]
i = 0
while i < 3:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♢A', '♢K', '♠K', '♣K', '♡K', '♣A', '♠A'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [8, 13, 14]
i = 0
while i < 3:
assert v[i] == compared[i]
i += 1
def test_fullhouse():
communityCards = np.array(["♣A", "♣T", "♣K", "♣Q", "♢K", "♢Q", "♡K"])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [7, 13, 12]
i = 0
while i < 3:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♢K', '♠A', '♢A', '♠Q', '♣Q', '♠K', '♣K'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [7, 13, 14]
i = 0
while i < 3:
assert v[i] == compared[i]
i += 1
def two_hands_theoretical_by_pickle(name1,name2): ## Takes in pickled files
h1wins=0
h2wins=0
ties=0
h1= "D:\AllValuesByHand\AllRunoutsByHandPickle\\" + name1 + 'Values.pickle'
h2= "D:\AllValuesByHand\AllRunoutsByHandPickle\\" + name2 + 'Values.pickle'
h1file=open(h1, "rb")
h2file=open(h2, "rb")
h1Hands= pickle.load(h1file)
h2Hands= pickle.load(h2file)
h2file.close()
h1file.close()
i=0
while i < 2598960:
currH1=h1Hands[i]
currH2=h2Hands[i]
if currH1[0] != 0 and currH2[0] != 0:
v = HandValueChecker.returnBetterHand(currH1, currH2)
if v == 0:
ties += 1
if v == 1:
h1wins += 1
if v == 2:
h2wins += 1
i+=1
return np.array([(h1wins/ (h1wins+ties+h2wins)),(h2wins/ ((h1wins+ties+h2wins))),(ties/(h1wins+ties+h2wins))])
def test_flush():
communityCards = np.array(['♢Q', '♢K', '♢A', '♢J', '♢8', '♣8', '♣T'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [6, 14, 13, 12, 11, 8]
i = 0
while i < 6:
assert v[i] == compared[i]
i += 1
def test_striaghtflush():
communityCards = np.array(['♢A', '♢K', '♢Q', '♢J', '♢T', '♢9'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [9, 14]
i = 0
while i < 2:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♡A', '♣J', '♡2', '♡3', '♡4', '♡5', '♣J'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [9, 5]
i = 0
while i < 2:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♡6', '♣J', '♡2', '♡3', '♡4', '♡5', '♣J'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [9, 6]
i = 0
while i < 2:
assert v[i] == compared[i]
i += 1
def test_straight(): ## Needs to have ace be 1 or 14
communityCards = np.array(['♢Q', '♢K', '♠A', '♣J', '♡T', '♡2'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [5, 14]
i = 0
while i < 2:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♠A', '♣3', '♡2', '♡3', '♡5', '♡4', '♣5'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [5, 5]
i = 0
while i < 2:
assert v[i] == compared[i]
i += 1
communityCards = np.array(['♠6', '♣3', '♡2', '♡3', '♡5', '♡4', '♣5'])
v = HandValueChecker.returnHandValueNew(communityCards)
compared = [5, 6]
i = 0
while i < 2:
assert v[i] == compared[i]
i += 1
def testWinPercentage(k): ## Seems to Be working +/- 0.001
hand1Cards = np.array(["♡A", '♣2'])
hand2Cards = np.array(['♡K', '♡9'])
deck = PokerWidgets.deckOfCards()
deck = np.delete(deck, np.argwhere(deck == hand1Cards[0]))
deck = np.delete(deck, np.argwhere(deck == hand1Cards[1]))
deck = np.delete(deck, np.argwhere(deck == hand2Cards[0]))
deck = np.delete(deck, np.argwhere(deck == hand2Cards[1]))
hand1 = 0
hand2 = 0
ties = 0
i = 0
while i < k: # v should be 61
print(i)
np.random.shuffle(deck)
handOne = np.array([
hand1Cards[0], hand1Cards[1], deck[0], deck[1], deck[2], deck[3],
deck[4]
])
hand1Value = HandValueChecker.returnHandValueNew(handOne)
handTwo = np.array([
hand2Cards[0], hand2Cards[1], deck[0], deck[1], deck[2], deck[3],
deck[4]
])
hand2Value = HandValueChecker.returnHandValueNew(handTwo)
v = HandValueChecker.returnBetterHand(hand1Value, hand2Value)
if v == 0:
ties += 1
if v == 1:
hand1 += 1
if v == 2:
hand2 += 1
i += 1
v = hand1 / (hand1 + hand2 + ties)
print(v)
print(hand2 / (hand1 + hand2 + ties))
print(ties / (hand1 + hand2 + ties))
def allRunoutsByHandToPickle(name): ## Pickle of the array which contains the value of every single runout for a hand
array = np.full((2598960,6),0)
h2file = open("allCombinatiosOfRunouts.pickle", "rb")
allHands = pickle.load(h2file)
h2file.close()
i=0
while i < 2598960:
cards= np.array([name[0:2],name[2:4],allHands[i][0],allHands[i][1],allHands[i][2],allHands[i][3],allHands[i][4]])
if PokerWidgets.are_not_duplicates(cards)== True:
cardValue = HandValueChecker.returnHandValueNew(cards)
j=0
while j < len(cardValue):
array[i][j]= cardValue[j]
j+=1
i+=1
v="D:\AllValuesByHand\AllRunoutsByHandPickle\\"
file1_pickle = open(v+name+"Values.pickle", "wb")
pickle.dump(array,file1_pickle,pickle.HIGHEST_PROTOCOL)
file1_pickle.close()
def two_hands_theoretical_by_pickle_test(name1,name2): ## Takes in pickled files
h1wins=0
h2wins=0
ties=0
h1= "D:\AllValuesByHand\AllRunoutsByHandPickle\\" + name1 + 'Values.pickle'
h2= "D:\AllValuesByHand\AllRunoutsByHandPickle\\" + name2 + 'Values.pickle'
h1file=open(h1, "rb")
h2file=open(h2, "rb")
h3file=open("allCombinationsOfRunouts.txt","r", encoding='utf-8')
h1Hands= pickle.load(h1file)
h2Hands= pickle.load(h2file)
h2file.close()
h1file.close()
high = 0
pair = 0
twoPair = 0
threeOfAKind = 0
straight = 0
flush = 0
fullHouse = 0
Quads = 0
straightFlush = 0
i=0
while i < 2598960:
readline=h3file.readline()
currH1=h1Hands[i]
currH2=h2Hands[i]
if currH1[0] != 0 and currH2[0] != 0:
v = HandValueChecker.returnBetterHand(currH1, currH2)
if v == 0:
h1Hand=currH1[0]
if h1Hand == 1:
high += 1
if h1Hand == 2:
pair += 1
if h1Hand == 3:
twoPair += 1
if h1Hand == 4:
threeOfAKind += 1
if h1Hand == 5:
straight += 1
if h1Hand == 6:
flush += 1
if h1Hand == 7:
print(name1 + readline[0:10])
print(currH1)
print(name2 + readline[0:10])
print(currH2)
fullHouse += 1
if h1Hand == 8:
Quads += 1
if h1Hand == 9:
straightFlush += 1
ties += 1
if v == 1:
h1wins += 1
if v == 2:
h2wins += 1
i+=1
h3file.close()
total=high+pair+twoPair+threeOfAKind+straight+flush+fullHouse+Quads+straightFlush
print("high card" + str(high / total))
print("pair" + str(pair / total))
print("two pair" + str(twoPair / total))
print("trips" + str(threeOfAKind / total))
print("straight " + str(straight / total))
print("flush" + str(flush / total))
print("full house" + str(fullHouse / total))
print(" quads" + str(Quads / total))
print(" straight flush" + str(straightFlush / total))
print(ties)
print(str(ties+h1wins+h2wins))
return np.array([((h1wins+(ties/2))/ (h1wins+ties+h2wins)),(h2wins+(ties/2))/ ((h1wins+ties+h2wins)),(ties/(h1wins+ties+h2wins))])