huytd/tien-len-mien-nam-by-bing-gpt.py

## tien-len-mien-nam-by-bing-gpt.py
# Step 1: Import the random module
import random

# Step 2: Define a class for cards
class Card:
    def __init__(self, rank, suit):
        self.rank = rank # an integer from 3 to 15 (3 is lowest and 15 is highest)
        self.suit = suit.lower() # a string from "spades", "clubs", "diamonds", or "hearts"

    def __str__(self):
        # return a string representation of the card using symbols for suits
        rank_dict = {11: "J", 12: "Q", 13: "K", 14: "A", 15: "2"}
        suit_dict = {"spades": "♠", "clubs": "♣", "diamonds": "♦", "hearts": "♥"}
        if self.rank in rank_dict:
            rank_str = rank_dict[self.rank]
        else:
            rank_str = str(self.rank)
        suit_str = suit_dict[self.suit]
        return rank_str + suit_str

    def __lt__(self, other):
        # return True if this card is lower than the other card based on rank and suit
        if self.rank < other.rank:
            return True
        elif self.rank == other.rank:
            if self.suit == "spades":
                return True
            elif self.suit == "clubs" and other.suit != "spades":
                return True
            elif self.suit == "diamonds" and other.suit in ["spades", "clubs"]:
                return True
            elif self.suit == "hearts" and other.suit == "hearts":
                return True
            else:
                return False
        else:
            return False

# Step 3: Define a class for decks
class Deck:
    def __init__(self):
        self.cards = []
        # create 52 cards and add them to the deck
        for rank in range(3, 16):
            for suit in ["spades", "clubs", "diamonds", "hearts"]:
                card = Card(rank, suit)
                self.cards.append(card)

    def shuffle(self):
        # shuffle the deck using the random module
        random.shuffle(self.cards)

    def deal(self):
        # deal one card from the top of the deck and return it
        return self.cards.pop()

# Step 4: Define a class for hands
class Hand:
    def __init__(self):
        self.cards = []

    def add_card(self, card):
        # add a card to the hand
        self.cards.append(card)

    def remove_cards(self, cards):
        # remove a list of cards from the hand
        for card in cards:
            self.cards.remove(card)

    def sort(self):
        # sort the hand by rank and suit using the built-in sorted function
        self.cards = sorted(self.cards)

    def display(self):
        # display the hand as a string of cards separated by spaces
        return " ".join([str(card) for card in self.cards])

# Step 5: Define a class for players
class Player:
    def __init__(self, name):
        self.name = name # a string for the player's name
        self.hand = Hand() # a hand object for the player's cards

    def draw_card(self, deck):
        # draw one card from the deck and add it to the hand
        card = deck.deal()
        self.hand.add_card(card)

    def play_cards(self, cards):
        # play a list of cards from the hand and return them
        self.hand.remove_cards(cards)
        return cards

    def has_card(self, rank, suit):
        # check if the player has a specific card in their hand
        for card in self.hand.cards:
            if card.rank == rank and card.suit == suit:
                return True
        return False

    def is_empty(self):
        # check if the player has no cards left in their hand
        return len(self.hand.cards) == 0

# Step 6: Define a function for comparing two combinations of cards
def compare_combos(combo1, combo2):
    # compare two combinations of cards based on their type and rank
    # return 1 if combo1 is higher than combo2, -1 if combo2 is higher than combo1, or 0 if they are equal or invalid

    # get the type and rank of each combination using helper functions (defined later)
    type1, rank1 = get_combo_type_and_rank(combo1)
    type2, rank2 = get_combo_type_and_rank(combo2)

    # compare the types first
    if type1 > type2:
        return 1
    elif type1 < type2:
        return -1
    else:
        # if the types are equal, compare the ranks
        if rank1 > rank2:
            return 1
        elif rank1 < rank2:
            return -1
        else:
            return 0

# Step 7: Define a function for checking if a combination is valid based on the rules of the game
def is_valid_combo(combo, prev_combo=None):
    # check if a combination of cards is valid based on the rules of the game
    # optionally, check if it can beat the previous combination played

    # get the type and rank of the combination using helper functions (defined later)
    type, rank = get_combo_type_and_rank(combo)

    # if the type is 0, it means the combination is invalid
    if type == 0:
        return False

    # if there is no previous combination, any valid combination can be played
    if prev_combo is None:
        return True

    # otherwise, compare the combination with the previous one using the compare_combos function (defined earlier)
    result = compare_combos(combo, prev_combo)

    # if the result is 1, it means the combination can beat the previous one
    if result == 1:
        return True

    # otherwise, it cannot beat the previous one or it is equal or invalid
    else:
        return False

# Step 8: Define a function for getting user input for playing a combination or passing
def get_user_input(player, prev_combo=None):
    # get user input for playing a combination or passing
    # return a list of cards if the user plays a valid combination
    # return an empty list if the user passes or enters an invalid input

    # display the player's hand and the previous combination (if any)
    print(f"{player.name}, your hand is: {player.hand.display()}")
    if prev_combo is not None:
        print(f"The previous combination is: {display_combo(prev_combo)}")

    # loop until the user enters a valid input
    while True:
        # prompt the user to enter a combination or pass
        user_input = input("Enter a combination of cards or pass: ").strip().upper()

        # if the user enters "pass", return an empty list
        if user_input == "PASS":
            return []

        # otherwise, try to parse the user input into a list of cards
        try:
            cards = []
            splitted = user_input.split()
            for i in range(0, len(splitted), 2):
                rank = splitted[i]
                suit = splitted[i + 1]
                card = Card(int(rank), suit)
                cards.append(card)

            print("INPUT")
            print(*cards, sep=", ")
            print("PLAYER's HAND")
            print(*player.hand.cards, sep=", ")
            # check if the cards are in the player's hand
            for card in cards:
                if not player.has_card(card.rank, card.suit):
                    raise ValueError("You don't have that card in your hand.")

            # check if the combination is valid and can beat the previous one (if any)
            if is_valid_combo(cards, prev_combo):
                # return the list of cards
                return cards
            else:
                raise ValueError("That is not a valid combination.")

        # if there is any error in parsing or validating the user input, display an error message and repeat the loop
        except ValueError as e:
            print(f"Error: {e}")
            print("Please enter a valid combination or pass.")

# Step 9: Define a function for displaying the current state of the game
def display_state(players):
    # display the current state of the game
    # show how many cards each player has left and who is the current leader

    # create a list of tuples containing the player's name and number of cards left
    stats = [(player.name, len(player.hand.cards)) for player in players]

    # sort the list by number of cards in ascending order
    stats.sort(key=lambda x: x[1])

    # print the list as a table with headers
    print("Name\tCards")
    print("----\t-----")
    for name, cards in stats:
        print(f"{name}\t{cards}")

    # print who is the current leader based on the first element of the list
    leader_name, leader_cards = stats[0]
    print(f"The current leader is {leader_name} with {leader_cards} cards left.")

# Step 10: Define a function for simulating the computer's move based on some simple strategy
def get_computer_move(player, prev_combo=None):
    # simulate the computer's move based on some simple strategy
    # return a list of cards if the computer plays a valid combination
    # return an empty list if the computer passes

    # sort the player's hand by rank and suit
    player.hand.sort()

    # if there is no previous combination, play the lowest single card or the 3 of spades (if the player has it)
    if prev_combo is None:
        if player.has_card(3, "spades"):
            return [Card(3, "spades")]
        else:
            return [player.hand.cards[0]]

    # otherwise, try to find the lowest combination that can beat the previous one
    else:
        # get the type and rank of the previous combination using helper functions (defined later)
        prev_type, prev_rank = get_combo_type_and_rank(prev_combo)

        # loop through all possible combinations of cards in the player's hand that have the same type as the previous one
        for i in range(len(player.hand.cards) - prev_type + 1):
            combo = player.hand.cards[i:i+prev_type]

            # check if the combination is valid and can beat the previous one using helper functions (defined earlier)
            if is_valid_combo(combo, prev_combo):
                # return the combination
                return combo

        # if no such combination is found, pass by returning an empty list
        return []

def get_combo_type_and_rank(combo):
    n = len(combo)
    if n == 0:
        return (0, 0)
    elif n == 1:
        rank = combo[0].rank
        return (1, rank)
    elif n == 2:
        if combo[0].rank == combo[1].rank:
            rank = combo[0].rank
            return (2, rank)
        else:
            return (0, 0)
    elif n == 3:
        if combo[0].rank == combo[1].rank == combo[2].rank:
            rank = combo[0].rank
            return (3, rank)
        else:
            return (0, 0)
    elif n == 4:
        if combo[0].rank == combo[1].rank == combo[2].rank == combo[3].rank:
            rank = combo[0].rank
            return (4, rank)
        else:
            return (0, 0)
    else:
        combo = sorted(combo)
        ranks = []
        suits = []
        for card in combo:
            ranks.append(card.rank)
            suits.append(card.suit)
        if len(set(suits)) == 1 and ranks == list(range(min(ranks), max(ranks) + 1)):
            highest_rank = max(ranks)
            return (5, highest_rank)
        else:
            for i in range(1, n - 2):
                if suits[i] != suits[i + 1]:
                    ranks1 = ranks[:i + 1]
                    suits1 = suits[:i + 1]
                    ranks2 = ranks[i + 1:]
                    suits2 = suits[i + 1:]
                    if len(set(suits1)) == len(set(suits2)) == 1 and ranks1 == list(range(min(ranks1), max(ranks1) + 1)) and ranks2 == list(range(min(ranks2), max(ranks2) + 1)):
                        highest_rank = max(max(ranks1), max(ranks2))
                        return (6, highest_rank)
            return (0, 0)

def display_combo(combo):
    return " ".join([str(card) for card in combo])

def main():
    human = Player(input("Enter your name: "))
    computer1 = Player("Alice")
    computer2 = Player("Bob")
    computer3 = Player("Charlie")
    players = [human, computer1, computer2, computer3]
    random.shuffle(players)
    deck = Deck()
    deck.shuffle()
    for i in range(13):
        for player in players:
            player.draw_card(deck)
    for player in players:
        player.hand.sort()
    for i, player in enumerate(players):
        if player.has_card(3, "spades"):
            players = players[i:] + players[:i]
            break
    prev_combo = None
    while True:
        for player in players:
            display_state(players)
            if player == human:
                combo = get_user_input(player, prev_combo)
            else:
                combo = get_computer_move(player, prev_combo)
            if len(combo) == 0:
                print(f"{player.name} passes.")
            else:
                print(f"{player.name} plays: {display_combo(combo)}")
                prev_combo = combo
                if player.is_empty():
                    print(f"{player.name} has no cards left.")
                    if player == human:
                        print("You win!")
                    else:
                        print("You lose!")
                    return
            print()

# run the main function
main()
	# Step 1: Import the random module
	import random

	# Step 2: Define a class for cards
	class Card:
	def __init__(self, rank, suit):
	self.rank = rank # an integer from 3 to 15 (3 is lowest and 15 is highest)
	self.suit = suit.lower() # a string from "spades", "clubs", "diamonds", or "hearts"

	def __str__(self):
	# return a string representation of the card using symbols for suits
	rank_dict = {11: "J", 12: "Q", 13: "K", 14: "A", 15: "2"}
	suit_dict = {"spades": "♠", "clubs": "♣", "diamonds": "♦", "hearts": "♥"}
	if self.rank in rank_dict:
	rank_str = rank_dict[self.rank]
	else:
	rank_str = str(self.rank)
	suit_str = suit_dict[self.suit]
	return rank_str + suit_str

	def __lt__(self, other):
	# return True if this card is lower than the other card based on rank and suit
	if self.rank < other.rank:
	return True
	elif self.rank == other.rank:
	if self.suit == "spades":
	return True
	elif self.suit == "clubs" and other.suit != "spades":
	return True
	elif self.suit == "diamonds" and other.suit in ["spades", "clubs"]:
	return True
	elif self.suit == "hearts" and other.suit == "hearts":
	return True
	else:
	return False
	else:
	return False

	# Step 3: Define a class for decks
	class Deck:
	def __init__(self):
	self.cards = []
	# create 52 cards and add them to the deck
	for rank in range(3, 16):
	for suit in ["spades", "clubs", "diamonds", "hearts"]:
	card = Card(rank, suit)
	self.cards.append(card)

	def shuffle(self):
	# shuffle the deck using the random module
	random.shuffle(self.cards)

	def deal(self):
	# deal one card from the top of the deck and return it
	return self.cards.pop()

	# Step 4: Define a class for hands
	class Hand:
	def __init__(self):
	self.cards = []

	def add_card(self, card):
	# add a card to the hand
	self.cards.append(card)

	def remove_cards(self, cards):
	# remove a list of cards from the hand
	for card in cards:
	self.cards.remove(card)

	def sort(self):
	# sort the hand by rank and suit using the built-in sorted function
	self.cards = sorted(self.cards)

	def display(self):
	# display the hand as a string of cards separated by spaces
	return " ".join([str(card) for card in self.cards])

	# Step 5: Define a class for players
	class Player:
	def __init__(self, name):
	self.name = name # a string for the player's name
	self.hand = Hand() # a hand object for the player's cards

	def draw_card(self, deck):
	# draw one card from the deck and add it to the hand
	card = deck.deal()
	self.hand.add_card(card)

	def play_cards(self, cards):
	# play a list of cards from the hand and return them
	self.hand.remove_cards(cards)
	return cards

	def has_card(self, rank, suit):
	# check if the player has a specific card in their hand
	for card in self.hand.cards:
	if card.rank == rank and card.suit == suit:
	return True
	return False

	def is_empty(self):
	# check if the player has no cards left in their hand
	return len(self.hand.cards) == 0

	# Step 6: Define a function for comparing two combinations of cards
	def compare_combos(combo1, combo2):
	# compare two combinations of cards based on their type and rank
	# return 1 if combo1 is higher than combo2, -1 if combo2 is higher than combo1, or 0 if they are equal or invalid

	# get the type and rank of each combination using helper functions (defined later)
	type1, rank1 = get_combo_type_and_rank(combo1)
	type2, rank2 = get_combo_type_and_rank(combo2)

	# compare the types first
	if type1 > type2:
	return 1
	elif type1 < type2:
	return -1
	else:
	# if the types are equal, compare the ranks
	if rank1 > rank2:
	return 1
	elif rank1 < rank2:
	return -1
	else:
	return 0

	# Step 7: Define a function for checking if a combination is valid based on the rules of the game
	def is_valid_combo(combo, prev_combo=None):
	# check if a combination of cards is valid based on the rules of the game
	# optionally, check if it can beat the previous combination played

	# get the type and rank of the combination using helper functions (defined later)
	type, rank = get_combo_type_and_rank(combo)

	# if the type is 0, it means the combination is invalid
	if type == 0:
	return False

	# if there is no previous combination, any valid combination can be played
	if prev_combo is None:
	return True

	# otherwise, compare the combination with the previous one using the compare_combos function (defined earlier)
	result = compare_combos(combo, prev_combo)

	# if the result is 1, it means the combination can beat the previous one
	if result == 1:
	return True

	# otherwise, it cannot beat the previous one or it is equal or invalid
	else:
	return False

	# Step 8: Define a function for getting user input for playing a combination or passing
	def get_user_input(player, prev_combo=None):
	# get user input for playing a combination or passing
	# return a list of cards if the user plays a valid combination
	# return an empty list if the user passes or enters an invalid input

	# display the player's hand and the previous combination (if any)
	print(f"{player.name}, your hand is: {player.hand.display()}")
	if prev_combo is not None:
	print(f"The previous combination is: {display_combo(prev_combo)}")

	# loop until the user enters a valid input
	while True:
	# prompt the user to enter a combination or pass
	user_input = input("Enter a combination of cards or pass: ").strip().upper()

	# if the user enters "pass", return an empty list
	if user_input == "PASS":
	return []

	# otherwise, try to parse the user input into a list of cards
	try:
	cards = []
	splitted = user_input.split()
	for i in range(0, len(splitted), 2):
	rank = splitted[i]
	suit = splitted[i + 1]
	card = Card(int(rank), suit)
	cards.append(card)

	print("INPUT")
	print(*cards, sep=", ")
	print("PLAYER's HAND")
	print(*player.hand.cards, sep=", ")
	# check if the cards are in the player's hand
	for card in cards:
	if not player.has_card(card.rank, card.suit):
	raise ValueError("You don't have that card in your hand.")

	# check if the combination is valid and can beat the previous one (if any)
	if is_valid_combo(cards, prev_combo):
	# return the list of cards
	return cards
	else:
	raise ValueError("That is not a valid combination.")

	# if there is any error in parsing or validating the user input, display an error message and repeat the loop
	except ValueError as e:
	print(f"Error: {e}")
	print("Please enter a valid combination or pass.")

	# Step 9: Define a function for displaying the current state of the game
	def display_state(players):
	# display the current state of the game
	# show how many cards each player has left and who is the current leader

	# create a list of tuples containing the player's name and number of cards left
	stats = [(player.name, len(player.hand.cards)) for player in players]

	# sort the list by number of cards in ascending order
	stats.sort(key=lambda x: x[1])

	# print the list as a table with headers
	print("Name\tCards")
	print("----\t-----")
	for name, cards in stats:
	print(f"{name}\t{cards}")

	# print who is the current leader based on the first element of the list
	leader_name, leader_cards = stats[0]
	print(f"The current leader is {leader_name} with {leader_cards} cards left.")

	# Step 10: Define a function for simulating the computer's move based on some simple strategy
	def get_computer_move(player, prev_combo=None):
	# simulate the computer's move based on some simple strategy
	# return a list of cards if the computer plays a valid combination
	# return an empty list if the computer passes

	# sort the player's hand by rank and suit
	player.hand.sort()

	# if there is no previous combination, play the lowest single card or the 3 of spades (if the player has it)
	if prev_combo is None:
	if player.has_card(3, "spades"):
	return [Card(3, "spades")]
	else:
	return [player.hand.cards[0]]

	# otherwise, try to find the lowest combination that can beat the previous one
	else:
	# get the type and rank of the previous combination using helper functions (defined later)
	prev_type, prev_rank = get_combo_type_and_rank(prev_combo)

	# loop through all possible combinations of cards in the player's hand that have the same type as the previous one
	for i in range(len(player.hand.cards) - prev_type + 1):
	combo = player.hand.cards[i:i+prev_type]

	# check if the combination is valid and can beat the previous one using helper functions (defined earlier)
	if is_valid_combo(combo, prev_combo):
	# return the combination
	return combo

	# if no such combination is found, pass by returning an empty list
	return []

	def get_combo_type_and_rank(combo):
	n = len(combo)
	if n == 0:
	return (0, 0)
	elif n == 1:
	rank = combo[0].rank
	return (1, rank)
	elif n == 2:
	if combo[0].rank == combo[1].rank:
	rank = combo[0].rank
	return (2, rank)
	else:
	return (0, 0)
	elif n == 3:
	if combo[0].rank == combo[1].rank == combo[2].rank:
	rank = combo[0].rank
	return (3, rank)
	else:
	return (0, 0)
	elif n == 4:
	if combo[0].rank == combo[1].rank == combo[2].rank == combo[3].rank:
	rank = combo[0].rank
	return (4, rank)
	else:
	return (0, 0)
	else:
	combo = sorted(combo)
	ranks = []
	suits = []
	for card in combo:
	ranks.append(card.rank)
	suits.append(card.suit)
	if len(set(suits)) == 1 and ranks == list(range(min(ranks), max(ranks) + 1)):
	highest_rank = max(ranks)
	return (5, highest_rank)
	else:
	for i in range(1, n - 2):
	if suits[i] != suits[i + 1]:
	ranks1 = ranks[:i + 1]
	suits1 = suits[:i + 1]
	ranks2 = ranks[i + 1:]
	suits2 = suits[i + 1:]
	if len(set(suits1)) == len(set(suits2)) == 1 and ranks1 == list(range(min(ranks1), max(ranks1) + 1)) and ranks2 == list(range(min(ranks2), max(ranks2) + 1)):
	highest_rank = max(max(ranks1), max(ranks2))
	return (6, highest_rank)
	return (0, 0)

	def display_combo(combo):
	return " ".join([str(card) for card in combo])

	def main():
	human = Player(input("Enter your name: "))
	computer1 = Player("Alice")
	computer2 = Player("Bob")
	computer3 = Player("Charlie")
	players = [human, computer1, computer2, computer3]
	random.shuffle(players)
	deck = Deck()
	deck.shuffle()
	for i in range(13):
	for player in players:
	player.draw_card(deck)
	for player in players:
	player.hand.sort()
	for i, player in enumerate(players):
	if player.has_card(3, "spades"):
	players = players[i:] + players[:i]
	break
	prev_combo = None
	while True:
	for player in players:
	display_state(players)
	if player == human:
	combo = get_user_input(player, prev_combo)
	else:
	combo = get_computer_move(player, prev_combo)
	if len(combo) == 0:
	print(f"{player.name} passes.")
	else:
	print(f"{player.name} plays: {display_combo(combo)}")
	prev_combo = combo
	if player.is_empty():
	print(f"{player.name} has no cards left.")
	if player == human:
	print("You win!")
	else:
	print("You lose!")
	return
	print()

	# run the main function
	main()