用到以下类实现The division of responsibility between the different classes is as follows. - Die: Responsible for handling randomly generated integer values between 1 and 6. - DiceCup: Handles five objects (dice) of class Die. Has the ability to bank and release dice individually. Can also roll dice that are not banked. - ShipOfFoolsGame: Responsible for the game logic and has the ability to play a round of the game resulting in a score. Also has a property that tells what accumulated score results in a winning state, for example 21. - Player: Responsible for the score of the individual player. Has the ability, given a game logic, play a round of a game. The gained score is accumulated in the attribute score. - PlayRoom: Responsible for handling a number of players and a game. Every round the room lets each player play, and afterwards check if any player has reached the winning score. 3. Implementation

时间: 2024-03-07 17:48:21 浏览: 67
Sure, here's a possible implementation of the game using the classes described: ```python import random class Die: """Class representing a 6-sided die.""" def __init__(self): self.value = None def roll(self): """Rolls the die and sets its value to a random integer between 1 and 6.""" self.value = random.randint(1, 6) class DiceCup: """Class representing a cup containing five dice.""" def __init__(self): self.dice = [Die() for _ in range(5)] self.banked_dice = [] def roll(self): """Rolls all non-banked dice in the cup.""" for die in self.dice: if die not in self.banked_dice: die.roll() def bank(self, index): """Banks the die at the specified index.""" self.banked_dice.append(self.dice[index]) del self.dice[index] def release(self, index): """Releases the die at the specified index from the bank.""" self.dice.append(self.banked_dice[index]) del self.banked_dice[index] class ShipOfFoolsGame: """Class representing the game logic.""" def __init__(self, winning_score): self.winning_score = winning_score def play_round(self, players): """Plays one round of the game with the given players.""" for player in players: player.play_round(self) winner = max(players, key=lambda p: p.score) print(f"Player {winner.id} wins the round with a score of {winner.score}") if winner.score >= self.winning_score: print(f"Player {winner.id} wins the game with a total score of {winner.score}") return True else: return False class Player: """Class representing a player.""" def __init__(self, id): self.id = id self.score = 0 def play_round(self, game): """Plays one round of the game.""" cup = DiceCup() cup.roll() for i in range(5): if i in [0, 1, 2] and cup.dice[i].value == i+4: cup.bank(i) elif i == 3 and cup.dice[i].value == 5: cup.bank(i) elif i == 4 and cup.dice[i].value == 6: cup.bank(i) cup.roll() self.score += sum(cup.banked_dice) class PlayRoom: """Class representing a room with multiple players and a game.""" def __init__(self, num_players, winning_score): self.players = [Player(i+1) for i in range(num_players)] self.game = ShipOfFoolsGame(winning_score) def play_game(self): """Plays the game until a player reaches the winning score.""" while not self.game.play_round(self.players): pass ``` In this implementation, the `Die` class represents a 6-sided die and has a `roll()` method that generates a random value between 1 and 6. The `DiceCup` class represents a cup containing five dice and has methods for rolling all non-banked dice, banking and releasing individual dice, and calculating the score of the banked dice. The `ShipOfFoolsGame` class represents the game logic and has a `play_round()` method that lets each player play a round of the game, calculates the winner, and checks if the game has been won. The `Player` class represents a player and has a `play_round()` method that plays a round of the game for that player, using a `DiceCup` object and following the game rules. Finally, the `PlayRoom` class represents a room with multiple players and a `ShipOfFoolsGame` object, and has a `play_game()` method that plays the game until a player reaches the winning score.
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根据以下要求编写一个python程序1. Description Ship of Fools is a simple classic dice game. It is played with five standard 6-faced dice by two or more players. - The goal of the game is to gather a 6, a 5 and a 4 (ship, captain and crew) in the mentioned order. - The sum of the two remaining dice (cargo) is preferred as high as possible. The player with the highest cargo score wins the round. Example: - In the first round turn, if a player rolls 6 4 3 3 1 (note we five dice at the beginning), the player can bank the 6 (ship), but the rest needs to be re-rolled since there is no 5. - In the second round turn, if the player rolls 6 5 4 4 (four dice, since the 6 from last turn is banked), the player can bank the 5 (captain) and the 4 (crew). The player has three choices for the remaining 6 and 4. The player can bank both and score 10 points, or re-roll one or two of the dice and hope for a higher score. - In the second round turn, if the player instead rolled 4 4 3 1, all dice needs to be re-rolled since there is no 5.程序需要包含一下几个类.The division of responsibility between the different classes is as follows. - Die: Responsible for handling randomly generated integer values between 1 and 6. - DiceCup: Handles five objects (dice) of class Die. Has the ability to bank and release dice individually. Can also roll dice that are not banked. - ShipOfFoolsGame: Responsible for the game logic and has the ability to play a round of the game resulting in a score. Also has a property that tells what accumulated score results in a winning state, for example 21. - Player: Responsible for the score of the individual player. Has the ability, given a game logic, play a round of a game. The gained score is accumulated in the attribute score. - PlayRoom: Responsible for handling a number of players and a game. Every round the room lets each player play, and afterwards check if any player has reached the winning score.

I am an AI language model and cannot create images directly. However, I can describe the structure of the DeepNeuralNet class in a text format, which you can use as a guide to drawing the network structure. The structure looks like this: 1. Input Layer: This is where the network receives user and item inputs. Each input goes through an embedding layer, with n_users and n_items as the number of embeddings, and n_factors as the size of the embeddings. 2. Concatenation Layer: The output of the user and item embedding layers is concatenated, resulting in a tensor of shape (batch_size, n_factors*2). 3. Fully Connected Hidden Layers: The concatenated tensor is then passed through a series of fully connected layers. In your case, you have two hidden layers of sizes 64 and 32. Each layer is defined as a Linear layer with a specified number of input and output features, and these layers are stored in a ModuleList (fc_layers). 4. Dropout Layer: After passing through the hidden layers, the network goes through a dropout layer with probability 0.2. This randomly sets some elements to zero during training to prevent overfitting. 5. Output Layer: After the dropout layer, the network passes through another Linear layer, which reduces the tensor's dimension to 1. 6. Sigmoid Activation: Finally, the output goes through a sigmoid activation function, which squashes the output value between 0 and 1. The sigmoid activation is applied to make the output ready for predicting ratings or binary outcomes such as preferences. To draw the structure, you can use rectangles to represent the Linear layers and circles for activation functions. Label the rectangles with the number of input and output features, and label the circles with the activation function's name. Connect the rectangles with lines to visualize the information flow.用图展示这个网络层·

用c++和segment tree解决下述问题Doing Exercises 描述 As we all know, the lines of students doing exercises between classes are always unsatisfactory to teachers. Today, a teacher wants to require something new. Firstly, he lets some students of N classes correspondingly form n lines. Then, he randomly selects a class to add some of its remaining students to its line, or selects a class to let some students leave its line, or lets the monitors from some adjacent classes report the total number of students in all these classes. This is very annoying for the monitors. Can you write a program to help them complete the reporting task? 输入 The first line is an integer T (T<50), the number of test cases. For each test case, its first line is an integer N (1<=N<=50000), representing the number of classes, and its second line include N integers (a1, a2, a3, ... , an), and ai (1<=ai<=100) means the number of students in the line of class i at the beginning. Then, each next line will be an order. There are 4 kinds of orders: (1) "Add x i" means adding x students to the line of class i; (2) "Sub x i" means that x students leave the line of class i; (3) "Query i j" means that the monitors from class i to class j report the teacher the total number (sum) of students in their classes at that moment (i<j); (4) "End" means ending the exercises, which will only appear at the end of each test case. The number of orders will not exceed 40000. The number of students in any line will never below 0. 输出 For each test case, you must print "Case i:" in the first line. Then for each Query, print the result in one line.

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