jkbrooks
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7 months ago 1. 📝 Indexing
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The issue has been addressed by identifying and storing the relevant code snippet from main.py:1-40. This snippet outlines the structure of the Nomic game engine, including the dynamic system for managing and applying rule changes proposed and voted on by players. It includes:
- Initialization of the game state with players and rules (
main.py:4-11). - Logic for executing player turns, which encompasses proposing rule changes, conducting votes on these proposals, and applying the rule changes if the proposals pass (
main.py:12-40).
This code snippet provides a solid foundation for creating a dynamic system within the Nomic game engine to manage and apply rule changes, ensuring compliance with the current rules through automated checks, and providing a seamless and engaging turn-based gameplay experience for all participants.
View Snippets
https://github.com/jkbrooks/stf-nomic-test/blob/33aeeec9254fcd437f6a74a4af7b69f833c21c60/main.py#L0-L393. 🌐 Planning
I'm creating a plan for the discussion and coding steps.
I have created the following workflow as a basis for how the discussion and coding will be derived.
💡 Steps
Create Rule class
**Action:** `create` **File:** `rule.py` **Lines:** `[1, 6]` **Dependencies:** `[]` **Instructions:** `Create a new file named 'rule.py'. Inside this file, define a class named 'Rule' with an initializer that accepts two parameters: 'description' (a string describing the rule) and 'active' (a boolean indicating if the rule is currently active). The class should store these parameters as instance variables.`Create Player class
**Action:** `create` **File:** `player.py` **Lines:** `[1, 10]` **Dependencies:** `[]` **Instructions:** `Create a new file named 'player.py'. Define a class named 'Player' with an initializer that accepts a 'name' parameter and initializes a 'score' attribute to 0. Include a 'propose_rule' method that prompts the user to input a rule description and returns it. Also, include a 'vote' method that simulates a player vote by randomly returning 1 (for) or 0 (against).`Modify NomicGame to import Rule and Player
**Action:** `modify` **File:** `main.py` **Lines:** `[1, 3]` **Dependencies:** `['Step 1', 'Step 2']` **Instructions:** `At the top of 'main.py', add import statements to import the 'Rule' class from 'rule.py' and the 'Player' class from 'player.py'. This will allow the NomicGame class to utilize these classes for managing players and rules.`Add method to check rule compliance
**Action:** `modify` **File:** `main.py` **Lines:** `[36, 42]` **Dependencies:** `['Step 3']` **Instructions:** `In 'main.py', add a new method to the NomicGame class named 'check_rule_compliance' that takes no parameters. This method should iterate through the 'rules' dictionary, check if each rule is active, and print a message stating whether the game is in compliance with each rule. This method will be called at the beginning of each turn to ensure the game's current state adheres to the active rules.`Call check_rule_compliance at the start of each turn
**Action:** `modify` **File:** `main.py` **Lines:** `[13, 14]` **Dependencies:** `['Step 4']` **Instructions:** `Modify the 'take_turn' method in 'main.py' to call the 'check_rule_compliance' method immediately after printing the player's turn. This ensures that rule compliance is checked at the start of each player's turn.`Implement game loop
**Action:** `modify` **File:** `main.py` **Lines:** `[41, 45]` **Dependencies:** `['Step 3', 'Step 5']` **Instructions:** `At the end of the 'main.py' file, add a game loop that initializes a NomicGame instance with a list of player names. The loop should repeatedly call the 'take_turn' method on the game instance until the 'game_over' attribute is True. This loop will drive the game, allowing turns to be taken in sequence until a winning condition is met.`I have created the following workflow as a basis for how the discussion and coding will be derived.
💡 Steps
Create Rule Class
**Action:** `create` **File:** `src/rule.py` **Lines:** `[1, 20]` **Dependencies:** `[]` **Instructions:** `Create a new file named rule.py in the src directory. Define a class named Rule with attributes for rule ID, description, current state (active/inactive), and any other relevant attributes. This class will serve as the base for representing rules within the game.`Implement Rules Data Structure
**Action:** `create` **File:** `src/rules_manager.py` **Lines:** `[1, 30]` **Dependencies:** `['Step 1']` **Instructions:** `Create a new file named rules_manager.py in the src directory. Import the Rule class from rule.py. Implement a class named RulesManager that uses a hash map or decision tree to store and manage Rule objects efficiently. Include methods for adding, removing, and retrieving rules by their ID.`Develop Rule Verification Checklist
**Action:** `create` **File:** `src/rule_verification.py` **Lines:** `[1, 25]` **Dependencies:** `['Step 1']` **Instructions:** `Create a new file named rule_verification.py in the src directory. Define a function that takes a Rule object and the current game state as parameters and returns a boolean indicating whether the rule can be applied based on the current game state. This function will serve as the checklist for verifying rule applications each turn.`Implement Player Turn Logic
**Action:** `create` **File:** `src/player_turns.py` **Lines:** `[1, 35]` **Dependencies:** `['Step 3']` **Instructions:** `Create a new file named player_turns.py in the src directory. Implement functions to execute player turns, including prompts for rule adherence and confirmations. Integrate the rule verification checklist from rule_verification.py into the turn execution logic to ensure all actions comply with the current rules.`Adopt Observer Pattern for Rule Changes
**Action:** `create` **File:** `src/game_state.py` **Lines:** `[1, 50]` **Dependencies:** `['Step 1', 'Step 2']` **Instructions:** `Create a new file named game_state.py in the src directory. Implement a class named GameState that acts as the subject in the observer pattern. Include methods for attaching, detaching, and notifying observers of changes. Also, create a RuleObserver class that reacts to changes in the GameState. This setup will allow the game to dynamically adapt to rule changes.`Introduce Versioning System for Game States
**Action:** `create` **File:** `src/game_state_history.py` **Lines:** `[1, 40]` **Dependencies:** `['Step 5']` **Instructions:** `Create a new file named game_state_history.py in the src directory. Implement a class named GameStateHistory that stores snapshots of the game state at different points in time. Include methods for adding new states, retrieving previous states, and reverting to a specific state. This versioning system will help maintain game integrity and facilitate testing.`I have created the following workflow as a basis for how the discussion and coding will be derived.
💡 Steps
Create Rule Class
**Action:** `create` **File:** `src/rule.py` **Lines:** `[1, 20]` **Dependencies:** `[]` **Instructions:** `Create a new file named rule.py in the src directory. Define a class named Rule with attributes for rule ID, description, current state (active/inactive), and any other relevant attributes. This class will serve as the base for representing rules within the game.`Implement Rules Data Structure
**Action:** `create` **File:** `src/rules_manager.py` **Lines:** `[1, 30]` **Dependencies:** `['Step 1']` **Instructions:** `Create a new file named rules_manager.py in the src directory. Import the Rule class from rule.py. Implement a class named RulesManager that uses a hash map or decision tree to store and manage Rule objects efficiently. Include methods for adding, removing, and retrieving rules by their ID.`Develop Rule Verification Checklist
**Action:** `create` **File:** `src/rule_verification.py` **Lines:** `[1, 25]` **Dependencies:** `['Step 1']` **Instructions:** `Create a new file named rule_verification.py in the src directory. Define a function that takes a Rule object and the current game state as parameters and returns a boolean indicating whether the rule can be applied based on the current game state. This function will serve as the checklist for verifying rule applications each turn.`Implement Player Turn Logic
**Action:** `create` **File:** `src/player_turns.py` **Lines:** `[1, 35]` **Dependencies:** `['Step 3']` **Instructions:** `Create a new file named player_turns.py in the src directory. Implement functions to execute player turns, including prompts for rule adherence and confirmations. Integrate the rule verification checklist from rule_verification.py into the turn execution logic to ensure all actions comply with the current rules.`Adopt Observer Pattern for Rule Changes
**Action:** `create` **File:** `src/game_state.py` **Lines:** `[1, 50]` **Dependencies:** `['Step 1', 'Step 2']` **Instructions:** `Create a new file named game_state.py in the src directory. Implement a class named GameState that acts as the subject in the observer pattern. Include methods for attaching, detaching, and notifying observers of changes. Also, create a RuleObserver class that reacts to changes in the GameState. This setup will allow the game to dynamically adapt to rule changes.`Introduce Versioning System for Game States
**Action:** `create` **File:** `src/game_state_history.py` **Lines:** `[1, 40]` **Dependencies:** `['Step 5']` **Instructions:** `Create a new file named game_state_history.py in the src directory. Implement a class named GameStateHistory that stores snapshots of the game state at different points in time. Include methods for adding new states, retrieving previous states, and reverting to a specific state. This versioning system will help maintain game integrity and facilitate testing.`5. 🎲 Assignment
Here is the finalized workflow:
Description: Develop a system within the Nomic game engine that dynamically applies rule changes proposed and voted on by players. This system should include:
A method for representing rule changes within the game state. A checklist the game engine runs through each turn to verify rule applications. Player turn execution logic, including prompts for player actions and confirmation of rule adherence.
Goals:
Enable the game to adapt and evolve based on player-made rule changes. Ensure that all players adhere to the current set of rules through automated checks. Facilitate a smooth and engaging turn-based gameplay experience for participants.