Added water splash simulator, made settings saving work for all simulators, moved all the simulators into their respective directories, improved the README, fixed too much logging

game/boid_simulator/boid.py

@@ -0,0 +1,77 @@
+import arcade, arcade.math, random, math
+
+class Boid(arcade.Sprite):
+    def __init__(self, boid_num, x, y):
+        super().__init__(arcade.load_texture("assets/graphics/boid.png"), center_x=x, center_y=y)
+
+        random_angle = random.randint(0, 361)
+
+        self.boid_num = boid_num
+        self.direction = arcade.math.Vec2(math.cos(random_angle), math.sin(random_angle))
+        
+        self.velocity = 5
+        self.radius = 10
+        
+        self.w_separation = 1.0
+        self.w_cohesion = 1.0
+        self.w_alignment = 1.0
+        self.small_radius = 100
+        self.large_radius = 250
+
+    def calculate_separation(self, neighbours: list[int, arcade.math.Vec2, arcade.math.Vec2]):
+        steeraway_vectors = [arcade.math.Vec2(*self.position) - neighbour[2] for neighbour in neighbours]
+
+        if not steeraway_vectors:
+            return self.direction
+
+        return (sum(steeraway_vectors) / len(steeraway_vectors)).normalize()
+
+    def calculate_alignment(self, neighbours: list[int, arcade.math.Vec2, arcade.math.Vec2]):
+        directions = [neighbour[1] for neighbour in neighbours] 
+
+        if not directions:
+            return self.direction
+
+        return (sum(directions) / len(directions)).normalize()
+    
+    def calculate_cohesion(self, neighbours: list[int, arcade.math.Vec2, arcade.math.Vec2]):
+        positions = [neighbour[2] for neighbour in neighbours]
+
+        if not positions:
+            return self.direction
+
+        return ((sum(positions) / len(positions)) - self.position).normalize()
+    
+    def update(self, window_width, window_height, boids):
+        small_radius_neighbours, large_radius_neighbours = [], []
+        for boid_data in boids:
+            distance = boid_data[2].distance(arcade.math.Vec2(*self.position))
+            if boid_data[0] == self.boid_num or distance > self.large_radius:
+                continue
+            
+            if distance <= self.small_radius:
+                small_radius_neighbours.append(boid_data)
+
+            large_radius_neighbours.append(boid_data)
+
+        self.direction = self.w_separation * self.calculate_separation(small_radius_neighbours) + self.w_alignment * self.calculate_alignment(large_radius_neighbours) + self.w_cohesion * self.calculate_cohesion(large_radius_neighbours)
+        
+        if self.direction.length() > 1:
+            self.direction = self.direction.normalize()
+
+        self.position += self.direction * self.velocity
+        self.angle = 90 - math.degrees(self.direction.heading())
+
+        if self.center_x <= self.radius:
+            self.center_x = self.radius
+            self.direction = self.direction.reflect(arcade.math.Vec2(1, 0))
+        elif self.center_x >= (window_width * 0.8) - self.radius:
+            self.center_x = (window_width * 0.8) - self.radius
+            self.direction = self.direction.reflect(arcade.math.Vec2(-1, 0))
+
+        if self.center_y <= self.radius:
+            self.center_y = self.radius
+            self.direction = self.direction.reflect(arcade.math.Vec2(0, 1))
+        elif self.center_y >= window_height - self.radius:
+            self.center_y = window_height - self.radius
+            self.direction = self.direction.reflect(arcade.math.Vec2(0, -1))