def test_cardDeal(): """ Testing that our number of cards goes down by one when dealing a card """ s = Shoe(6) numCards = len(s.getCards()) s.dealCard() numCardsAfter = len(s.getCards()) assert numCardsAfter == numCards - 1
def test_cardCounts(): """ Check correct card counts when creating a shoe """ # Up to eight decks for x in range(1,9): s = Shoe(x) assert len(s.getCards()) == 52*x
def test_cardDistribution(): """ Ensure we're getting the right number of card types (4 of each card) per deck """ # Up to eight decks for numDecks in range(1,9): # For each card name for name in Card.enumName.keys(): # For each card suit for suit in Card.enumSuit: # Create the shoe s = Shoe(numDecks) s.shuffle() # count the number of times this specific card is found in the shoe c = len([myCard for myCard in s.getCards() if myCard.getName() == name and myCard.getSuit() == suit]) # it should be equal to the number of decks in the shoe because there is only one of each card per deck assert c == numDecks
def test_dealSpecificCard(): """ Testing that dealing a specific card really only deals that specific card """ # Up to eight decks for numDecks in range(1,9): # For each card name for name in Card.enumName.keys(): # For each card suit for suit in Card.enumSuit: # Create the shoe s = Shoe(numDecks) s.shuffle() # Remove this card from the shoe s.dealSpecificCard(name,suit) # count the number of times this specific card is found in the shoe c = len([myCard for myCard in s.getCards() if myCard.getName() == name and myCard.getSuit() == suit]) # it should be equal to the number of decks in the shoe minus the one we just dealt assert c == numDecks - 1
