Please improve and organize the following code using information hiding (functions should be separated into modules (separate python files) such as: deck.py, hand.py, flush.py, pair.py, two_pair.py, high_card.py, counts.py, player_sim.py). **Please clearly state in your answer which of the functions from the code below goes into each module (include import statements with each module)

Any larger functions such as pairsCounting() and play_rounds() should be broken up into smaller helper functions for better organization (do not remove any of the existing code, just break them up into smaller helper functions).

The play_rounds() function should be the main function used in the main module player_sim.py to run the entire code. (Should have if __name__ == "__main__":

play_rounds() at the end)

Additionally, please replace single-line comments with one doc string for each function including info on the parameters and return values.

Please do not use classes or objects.

# This program will help someone figure out how likely certain kinds of hands are # in a simplified version of the game of Poker. import random # Function that calculates the number of pairs in hand: def pairsCounting(cards): # Getting list of ranks from cards in hand: all_ranks = [cards[0][0], cards[1][0], cards[2][0], cards[3][0], cards[4][0]] # Getting unique ranks: unique_ranks = [] for i in all_ranks: if i not in unique_ranks: unique_ranks.append(i) # Calculation of frequencies for ranks in hand: counters = [] for i in unique_ranks: counter = 0 for j in all_ranks: if i == j: counter = counter + 1 counters.append(counter) # Calculation of number of pairs: pairs_n = 0 for i in counters: if i == 4: pairs_n = 2 break elif i == 2 or i == 3: pairs_n = pairs_n + 1 return pairs_n # Function that checks if hand is flush: def isFlush(cards): hasHand = False # If suit is the same for all cards in hand, the value True is assigned to variable hasHand: if cards[0][1] == cards[1][1] and cards[1][1] == cards[2][1] and cards[2][1] == cards[3][1] and cards[3][1] == \ cards[4][1]: hasHand = True return hasHand # Function that creates deck of cards: def createDeck(): # Creation of deck as list of tuples: initial_deck = [('A', 'Clubs'), ('2', 'Clubs'), ('3', 'Clubs'), ('4', 'Clubs'), ('5', 'Clubs'), ('6', 'Clubs'), ('7', 'Clubs'), ('8', 'Clubs'), ('9', 'Clubs'), ('10', 'Clubs'), ('J', 'Clubs'), ('Q', 'Clubs'), ('K', 'Clubs'), ('A', 'Diamonds'), ('2', 'Diamonds'), ('3', 'Diamonds'), ('4', 'Diamonds'), ('5', 'Diamonds'), ('6', 'Diamonds'), ('7', 'Diamonds'), ('8', 'Diamonds'), ('9', 'Diamonds'), ('10', 'Diamonds'), ('J', 'Diamonds'), ('Q', 'Diamonds'), ('K', 'Diamonds'), ('A', 'Hearts'), ('2', 'Hearts'), ('3', 'Hearts'), ('4', 'Hearts'), ('5', 'Hearts'), ('6', 'Hearts'), ('7', 'Hearts'), ('8', 'Hearts'), ('9', 'Hearts'), ('10', 'Hearts'), ('J', 'Hearts'), ('Q', 'Hearts'), ('K', 'Hearts'), ('A', 'Spades'), ('2', 'Spades'), ('3', 'Spades'), ('4', 'Spades'), ('5', 'Spades'), ('6', 'Spades'), ('7', 'Spades'), ('8', 'Spades'), ('9', 'Spades'), ('10', 'Spades'), ('J', 'Spades'), ('Q', 'Spades'), ('K', 'Spades')] return initial_deck # Function that shuffles deck: def shuffleDeck(input_deck): random.shuffle(input_deck) # Function that takes hand from deck: def dealCards(input_deck): # First five cards are taken to hand from deck (it is supposed that deck is shuffled): new_hand = [input_deck[0], input_deck[1], input_deck[2], input_deck[3], input_deck[4]] return new_hand # Analogue of main function: def play_rounds(): # Creation of deck: deck = createDeck() # Initialization of counters and containers: iterations_n = 0 pairs_counters = [] two_pairs_counters = [] flushes_counters = [] high_cards_counters = [] pairs_counter = 0 two_pairs_counter = 0 flushes_counter = 0 high_cards_counter = 0 # Making 100,000 iterations: for i in range(1, 100000 + 1): # Deck is shuffled: shuffleDeck(deck) # Hand is taken from deck: hand = dealCards(deck) # Checking rank of hand: if isFlush(hand) == True: flushes_counter = flushes_counter + 1 # If hand is flush, respective counter is increased by 1 elif pairsCounting(hand) == 2: two_pairs_counter = two_pairs_counter + 1 # Else if hand is 2 pairs, respective counter is increased by 1 elif pairsCounting(hand) == 1: pairs_counter = pairs_counter + 1 # Else if hand is pair, respective counter is increased by 1 else: high_cards_counter = high_cards_counter + 1 # Else, counter of high card hands is increased by 1 # Number of iterations is increased by 1: iterations_n = iterations_n + 1 # If number of iterations reaches 10000, append results to respective containers and set 0 to number of iterations: if iterations_n == 10000: pairs_counters.append(pairs_counter) two_pairs_counters.append(two_pairs_counter) flushes_counters.append(flushes_counter) high_cards_counters.append(high_cards_counter) iterations_n = 0 # Create list with bins for number of hands: bins = list(range(10000, 100000 + 1, 10000)) # Create and fill lists for shares of different hands: pairs_shares = [] two_pairs_shares = [] flushes_shares = [] high_cards_shares = [] for i in range(0, len(bins)): pairs_shares.append(100 * pairs_counters[i] / bins[i]) two_pairs_shares.append(100 * two_pairs_counters[i] / bins[i]) flushes_shares.append(100 * flushes_counters[i] / bins[i]) high_cards_shares.append(100 * high_cards_counters[i] / bins[i]) # Print the results table: print("# of hands".rjust(12), end="") print("pairs".rjust(10), end="") print("%".center(10), end="") print("2 pairs".rjust(10), end="") print("%".center(10), end="") print("flushes".rjust(10), end="") print("%".center(10), end="") print("high card".rjust(10), end="") print("%".center(10)) for i in range(0, len(bins)): print(format(bins[i], ',d').rjust(12), end="") print(str(pairs_counters[i]).rjust(10), end="") print("{0:05.2f}".format(pairs_shares[i], '02d').center(10), end="") print(str(two_pairs_counters[i]).rjust(10), end="") print("{0:05.2f}".format(two_pairs_shares[i], '02d').center(10), end="") print(str(flushes_counters[i]).rjust(10), end="") print("{0:05.2f}".format(flushes_shares[i], '02d').center(10), end="") print(str(high_cards_counters[i]).rjust(10), end="") print("{0:05.2f}".format(high_cards_shares[i]).center(10)) # Calling the function play_rounds: play_rounds()