POKÉMON RPG

pokemon

import random class Move: def __init__(self, name, type, power, accuracy): self.name = name self.type = type self.power = power self.accuracy = accuracy def __str__(self): return f"{self.name} ({self.type}) - Power: {self.power}, Accuracy: {self.accuracy}%" class Pokemon: def __init__(self, name, type, hp, moves): self.name = name self.type = type self.hp = hp self.moves = moves def use_move(self, move, target): if move in self.moves and random.randint(1, 100) <= move.accuracy: print(f"{self.name} used {move.name}!") damage = move.power target.hp -= damage return f"It's super effective! {target.name} has {target.hp} HP left." else: return f"{self.name}'s attack missed!" def is_fainted(self): return self.hp <= 0 def __str__(self): return f"{self.name} ({self.type}) - HP: {self.hp}" class Trainer: def __init__(self, name, pokemons): self.name = name self.pokemons = pokemons def choose_pokemon(self): for i, pokemon in enumerate(self.pokemons): if not pokemon.is_fainted(): return pokemon return None def __str__(self): return f"Trainer {self.name} with {', '.join(pokemon.name for pokemon in self.pokemons)}" class Battle: def __init__(self, trainer1, trainer2): self.trainer1 = trainer1 self.trainer2 = trainer2 def start_battle(self): print(f"{self.trainer1.name} challenges {self.trainer2.name} to a battle!") current_pokemon1 = self.trainer1.choose_pokemon() current_pokemon2 = self.trainer2.choose_pokemon() while current_pokemon1 and current_pokemon2: move1 = random.choice(current_pokemon1.moves) move2 = random.choice(current_pokemon2.moves) print(current_pokemon1.use_move(move1, current_pokemon2))

map

Creating a map and a dictionary for all types of Pokémon involves several steps. First, we'll create a dictionary containing the Pokémon types and their relationships (e.g., strengths and weaknesses). Next, we'll create a basic map where Pokémon can be located. ### Step 1: Pokémon Types Dictionary We'll define a dictionary that includes Pokémon types and their effectiveness against other types. ### Step 2: Pokémon Map We'll create a simple grid-based map where Pokémon can be placed at different locations. Here's the code for both parts: ```python import random # Step 1: Define Pokémon types and their effectiveness pokemon_types = { "Normal": {"strong_against": [], "weak_against": ["Rock", "Ghost", "Steel"]}, "Fire": {"strong_against": ["Grass", "Ice", "Bug", "Steel"], "weak_against": ["Fire", "Water", "Rock", "Dragon"]}, "Water": {"strong_against": ["Fire", "Ground", "Rock"], "weak_against": ["Water", "Grass", "Dragon"]}, "Electric": {"strong_against": ["Water", "Flying"], "weak_against": ["Electric", "Grass", "Ground", "Dragon"]}, "Grass": {"strong_against": ["Water", "Ground", "Rock"], "weak_against": ["Fire", "Grass", "Poison", "Flying", "Bug", "Dragon", "Steel"]}, "Ice": {"strong_against": ["Grass", "Ground", "Flying", "Dragon"], "weak_against": ["Fire", "Water", "Ice", "Steel"]}, "Fighting": {"strong_against": ["Normal", "Ice", "Rock", "Dark", "Steel"], "weak_against": ["Poison", "Flying", "Psychic", "Bug", "Ghost", "Fairy"]}, "Poison": {"strong_against": ["Grass", "Fairy"], "weak_against": ["Poison", "Ground", "Rock", "Ghost"]}, "Ground": {"strong_against": ["Fire", "Electric", "Poison", "Rock", "Steel"], "weak_against": ["Grass", "Ice", "Bug"]}, "Flying": {"strong_against": ["Grass", "Fighting", "Bug"], "weak_against": ["Electric", "Rock", "Steel"]}, "Psychic": {"strong_against": ["Fighting", "Poison"], "weak_against": ["Psychic", "Steel", "Dark"]}, "Bug": {"strong_against": ["Grass", "Psychic", "Dark"],

pokemon

import random class Move: def __init__(self, name, type, power, accuracy): self.name = name self.type = type self.power = power self.accuracy = accuracy def __str__(self): return f"{self.name} ({self.type}) - Power: {self.power}, Accuracy: {self.accuracy}%" class Pokemon: def __init__(self, name, type, hp, capture_rate, moves): self.name = name self.type = type self.hp = hp self.max_hp = hp self.capture_rate = capture_rate self.moves = moves def take_damage(self, damage): self.hp = max(0, self.hp - damage) return f"{self.name} took {damage} damage and has {self.hp} HP left." def is_fainted(self): return self.hp <= 0 def __str__(self): return f"{self.name} ({self.type}) - HP: {self.hp}/{self.max_hp}, Capture Rate: {self.capture_rate}" class Trainer: def __init__(self, name): self.name = name self.pokemons = [] def catch_pokemon(self, wild_pokemon): if wild_pokemon.is_fainted(): print(f"{wild_pokemon.name} has fainted and cannot be captured.") return False capture_probability = (wild_pokemon.capture_rate * (wild_pokemon.max_hp - wild_pokemon.hp) / wild_pokemon.max_hp) / 100 if random.random() < capture_probability: self.pokemons.append(wild_pokemon) print(f"{self.name} successfully captured {wild_pokemon.name}!") return True else: print(f"{self.name} failed to capture {wild_pokemon.name}.") return False def __str__(self): return f"Trainer {self.name} with Pokémon: {', '.join(pokemon.name for pokemon in self.pokemons)}" # Example moves thunderbolt = Move("Thunderbolt", "Electric", 90, 100) tackle = Move("Tackle", "Normal", 40, 100) ember = Move("Ember", "Fire", 40, 100) water_gun = Move("Water Gun", "Water", 40, 100) # Example wild Pokémon wild_pikachu = Pokemon

feature

When defeating a wild Pokemon, {{user}} will be given an offer to capture that Pokemon or just receive Exp When defeating regular Pokemon, you will randomly receive Exp points from 10-30exp Capturing a pokemon will have random odds of being able to catch it or not If you don't take care of your Pokemon, its loyalty rate and health will decrease