diff --git a/src/camera.rs b/src/camera.rs
index 2903d38..5660e80 100644
--- a/src/camera.rs
+++ b/src/camera.rs
@@ -9,23 +9,22 @@ use crate::{
     sampling::square_to_circle,
 };
 
-#[derive(Copy, Clone, Debug)]
-pub struct Camera<'a> {
-    transforms: &'a [Xform],
-    fovs: &'a [f32],
-    tfovs: &'a [f32],
-    aperture_radii: &'a [f32],
-    focus_distances: &'a [f32],
+#[derive(Debug, Clone)]
+pub struct Camera {
+    transforms: Vec<Xform>,
+    fovs: Vec<f32>,
+    tfovs: Vec<f32>,
+    aperture_radii: Vec<f32>,
+    focus_distances: Vec<f32>,
 }
 
-impl<'a> Camera<'a> {
+impl Camera {
     pub fn new(
-        arena: &'a Arena,
         transforms: &[Xform],
         fovs: &[f32],
         mut aperture_radii: &[f32],
         mut focus_distances: &[f32],
-    ) -> Camera<'a> {
+    ) -> Camera {
         assert!(!transforms.is_empty(), "Camera has no transform(s)!");
         assert!(!fovs.is_empty(), "Camera has no fov(s)!");
 
@@ -63,20 +62,20 @@ impl<'a> Camera<'a> {
             .collect();
 
         Camera {
-            transforms: arena.copy_slice(&transforms),
-            fovs: arena.copy_slice(&fovs),
-            tfovs: arena.copy_slice(&tfovs),
-            aperture_radii: arena.copy_slice(&aperture_radii),
-            focus_distances: arena.copy_slice(&focus_distances),
+            transforms: transforms.into(),
+            fovs: fovs.into(),
+            tfovs: tfovs.into(),
+            aperture_radii: aperture_radii.into(),
+            focus_distances: focus_distances.into(),
         }
     }
 
     pub fn generate_ray(&self, x: f32, y: f32, time: f32, wavelength: f32, u: f32, v: f32) -> Ray {
         // Get time-interpolated camera settings
-        let transform = lerp_slice(self.transforms, time).to_full_fast().unwrap();
-        let tfov = lerp_slice(self.tfovs, time);
-        let aperture_radius = lerp_slice(self.aperture_radii, time);
-        let focus_distance = lerp_slice(self.focus_distances, time);
+        let transform = lerp_slice(&self.transforms, time).to_full_fast().unwrap();
+        let tfov = lerp_slice(&self.tfovs, time);
+        let aperture_radius = lerp_slice(&self.aperture_radii, time);
+        let focus_distance = lerp_slice(&self.focus_distances, time);
 
         // Ray origin
         let orig = {
diff --git a/src/parse/psy.rs b/src/parse/psy.rs
index 5db2d92..f56c36b 100644
--- a/src/parse/psy.rs
+++ b/src/parse/psy.rs
@@ -150,10 +150,7 @@ pub fn parse_scene<'a>(
     )?;
 
     // Parse camera
-    let camera = parse_camera(
-        arena,
-        tree.iter_children_with_type("Camera").nth(0).unwrap(),
-    )?;
+    let camera = parse_camera(tree.iter_children_with_type("Camera").nth(0).unwrap())?;
 
     // Parse world
     let world = parse_world(arena, tree.iter_children_with_type("World").nth(0).unwrap())?;
@@ -347,7 +344,7 @@ fn parse_render_settings(tree: &DataTree) -> Result<((u32, u32), u32, u32), PsyP
     };
 }
 
-fn parse_camera<'a>(arena: &'a Arena, tree: &'a DataTree) -> Result<Camera<'a>, PsyParseError> {
+fn parse_camera<'a>(tree: &'a DataTree) -> Result<Camera, PsyParseError> {
     if let DataTree::Internal { ref children, .. } = *tree {
         let mut mats = Vec::new();
         let mut fovs = Vec::new();
@@ -432,13 +429,7 @@ fn parse_camera<'a>(arena: &'a Arena, tree: &'a DataTree) -> Result<Camera<'a>,
             }
         }
 
-        return Ok(Camera::new(
-            arena,
-            &mats,
-            &fovs,
-            &aperture_radii,
-            &focus_distances,
-        ));
+        return Ok(Camera::new(&mats, &fovs, &aperture_radii, &focus_distances));
     } else {
         return Err(PsyParseError::ExpectedInternalNode(
             tree.byte_offset(),
diff --git a/src/scene/mod.rs b/src/scene/mod.rs
index 3e3f872..68064fc 100644
--- a/src/scene/mod.rs
+++ b/src/scene/mod.rs
@@ -18,7 +18,7 @@ pub use self::{
 #[derive(Debug)]
 pub struct Scene<'a> {
     pub name: Option<String>,
-    pub camera: Camera<'a>,
+    pub camera: Camera,
     pub world: World<'a>,
     pub root: Assembly<'a>,
 }