feat: implement MovementStateMachine for handling player movement states and mechanics

movement/movement_state_machine.gd

@@ -221,7 +221,7 @@ func detect_wall_horizontal() -> Vector3:
 		var hit := space_state.intersect_ray(ray)
 		if not hit.is_empty():
 			var collider = hit.get("collider")
-			if collider is PlayerMovementController:
+			if collider is PlayerMovementController or collider is CharacterBody3D or collider.has_method("take_damage"):
 				continue
 			var n: Vector3 = hit.get("normal", Vector3.ZERO)
 			# Wall must be roughly vertical (normal mostly horizontal)
@@ -242,7 +242,7 @@ func detect_wall_horizontal() -> Vector3:
 			var hit := space_state.intersect_ray(ray)
 			if not hit.is_empty():
 				var collider = hit.get("collider")
-				if collider is PlayerMovementController:
+				if collider is PlayerMovementController or collider is CharacterBody3D or collider.has_method("take_damage"):
 					continue
 				var n: Vector3 = hit.get("normal", Vector3.ZERO)
 				if absf(n.y) < 0.3 and n.length_squared() > 0.0:
@@ -294,8 +294,8 @@ func detect_wall_forward() -> Dictionary:
 
 	# Get the normal from the highest point we hit, or the lowest if we only hit low
 	var best_hit = hit_mid if not hit_mid.is_empty() else hit_low
-	
-	if best_hit.get("collider") is PlayerMovementController:
+	var collider = best_hit.get("collider")
+	if collider is PlayerMovementController or collider is CharacterBody3D or collider.has_method("take_damage"):
 		return {"hit": false, "normal": Vector3.ZERO, "is_short": false}
 		
 	var normal: Vector3 = best_hit.get("normal", Vector3.ZERO)

weapons/weapon_manager.gd

@@ -94,10 +94,10 @@ func _process(_delta: float) -> void:
 				# Airborne Drift
 				# Convert player velocity into camera's local space
 				var local_vel = camera.global_transform.basis.inverse() * player.velocity
-				_target_drift_offset = Vector3(local_vel.x * 0.01, local_vel.y * 0.01, 0)
+				_target_drift_offset = Vector3(local_vel.x * 0.004, local_vel.y * 0.004, 0)
 				# Clamp the drift
-				_target_drift_offset.x = clampf(_target_drift_offset.x, -0.1, 0.1)
-				_target_drift_offset.y = clampf(_target_drift_offset.y, -0.1, 0.1)
+				_target_drift_offset.x = clampf(_target_drift_offset.x, -0.05, 0.05)
+				_target_drift_offset.y = clampf(_target_drift_offset.y, -0.05, 0.05)
 			else:
 				_target_drift_offset = Vector3.ZERO
 				
@@ -105,8 +105,8 @@ func _process(_delta: float) -> void:
 			_current_drift_offset = _current_drift_offset.lerp(_target_drift_offset, 15.0 * _delta)
 			
 			vm_camera.translate_object_local(_current_drift_offset)
-			vm_camera.rotate_object_local(Vector3.UP, deg_to_rad(-_current_drift_offset.x * 50.0))
-			vm_camera.rotate_object_local(Vector3.RIGHT, deg_to_rad(_current_drift_offset.y * 50.0))
+			vm_camera.rotate_object_local(Vector3.UP, deg_to_rad(-_current_drift_offset.x * 30.0))
+			vm_camera.rotate_object_local(Vector3.RIGHT, deg_to_rad(_current_drift_offset.y * 30.0))
 					
 			# Visual Recoil
 			_recoil_pitch = lerpf(_recoil_pitch, 0.0, 15.0 * _delta)