Try to normalise matrix naming

assets/shaders/array_texture.wgsl

@@ -36,7 +36,7 @@ fn fragment(
         is_front,
     );
 
-    pbr_input.is_orthographic = view.projection[3].w == 1.0;
+    pbr_input.is_orthographic = view.clip_from_view[3].w == 1.0;
 
     pbr_input.N = normalize(pbr_input.world_normal);
 

assets/shaders/custom_gltf_2d.wgsl

@@ -1,6 +1,6 @@
 #import bevy_sprite::{
     mesh2d_view_bindings::globals,
-    mesh2d_functions::{get_model_matrix, mesh2d_position_local_to_clip},
+    mesh2d_functions::{get_world_from_local, mesh2d_position_local_to_clip},
 }
 
 struct Vertex {
@@ -19,8 +19,8 @@ struct VertexOutput {
 @vertex
 fn vertex(vertex: Vertex) -> VertexOutput {
     var out: VertexOutput;
-    let model = get_model_matrix(vertex.instance_index);
-    out.clip_position = mesh2d_position_local_to_clip(model, vec4<f32>(vertex.position, 1.0));
+    let world_from_local = get_world_from_local(vertex.instance_index);
+    out.clip_position = mesh2d_position_local_to_clip(world_from_local, vec4<f32>(vertex.position, 1.0));
     out.color = vertex.color;
     out.barycentric = vertex.barycentric;
     return out;

assets/shaders/custom_vertex_attribute.wgsl

@@ -1,4 +1,4 @@
-#import bevy_pbr::mesh_functions::{get_model_matrix, mesh_position_local_to_clip}
+#import bevy_pbr::mesh_functions::{get_world_from_local, mesh_position_local_to_clip}
 
 struct CustomMaterial {
     color: vec4<f32>,
@@ -20,7 +20,7 @@ struct VertexOutput {
 fn vertex(vertex: Vertex) -> VertexOutput {
     var out: VertexOutput;
     out.clip_position = mesh_position_local_to_clip(
-        get_model_matrix(vertex.instance_index),
+        get_world_from_local(vertex.instance_index),
         vec4<f32>(vertex.position, 1.0),
     );
     out.blend_color = vertex.blend_color;

assets/shaders/instancing.wgsl

@@ -1,4 +1,4 @@
-#import bevy_pbr::mesh_functions::{get_model_matrix, mesh_position_local_to_clip}
+#import bevy_pbr::mesh_functions::{get_world_from_local, mesh_position_local_to_clip}
 
 struct Vertex {
     @location(0) position: vec3<f32>,
@@ -18,12 +18,12 @@ struct VertexOutput {
 fn vertex(vertex: Vertex) -> VertexOutput {
     let position = vertex.position * vertex.i_pos_scale.w + vertex.i_pos_scale.xyz;
     var out: VertexOutput;
-    // NOTE: Passing 0 as the instance_index to get_model_matrix() is a hack
+    // NOTE: Passing 0 as the instance_index to get_world_from_local() is a hack
     // for this example as the instance_index builtin would map to the wrong
     // index in the Mesh array. This index could be passed in via another
     // uniform instead but it's unnecessary for the example.
     out.clip_position = mesh_position_local_to_clip(
-        get_model_matrix(0u),
+        get_world_from_local(0u),
         vec4<f32>(position, 1.0)
     );
     out.color = vertex.i_color;

assets/shaders/irradiance_volume_voxel_visualization.wgsl

@@ -3,8 +3,8 @@
 #import bevy_pbr::mesh_view_bindings
 
 struct VoxelVisualizationIrradianceVolumeInfo {
-    transform: mat4x4<f32>,
-    inverse_transform: mat4x4<f32>,
+    world_from_voxel: mat4x4<f32>,
+    voxel_from_world: mat4x4<f32>,
     resolution: vec3<u32>,
     // A scale factor that's applied to the diffuse and specular light from the
     // light probe. This is in units of cd/m² (candela per square meter).
@@ -18,12 +18,12 @@ var<uniform> irradiance_volume_info: VoxelVisualizationIrradianceVolumeInfo;
 fn fragment(mesh: VertexOutput) -> @location(0) vec4<f32> {
     // Snap the world position we provide to `irradiance_volume_light()` to the
     // middle of the nearest texel.
-    var unit_pos = (irradiance_volume_info.inverse_transform *
+    var unit_pos = (irradiance_volume_info.voxel_from_world *
         vec4(mesh.world_position.xyz, 1.0f)).xyz;
     let resolution = vec3<f32>(irradiance_volume_info.resolution);
     let stp = clamp((unit_pos + 0.5) * resolution, vec3(0.5f), resolution - vec3(0.5f));
     let stp_rounded = round(stp - 0.5f) + 0.5f;
-    let rounded_world_pos = (irradiance_volume_info.transform * vec4(stp_rounded, 1.0f)).xyz;
+    let rounded_world_pos = (irradiance_volume_info.world_from_voxel * vec4(stp_rounded, 1.0f)).xyz;
 
     // `irradiance_volume_light()` multiplies by intensity, so cancel it out.
     // If we take intensity into account, the cubes will be way too bright.

crates/bevy_core_pipeline/src/skybox/skybox.wgsl

@@ -24,7 +24,7 @@ fn coords_to_ray_direction(position: vec2<f32>, viewport: vec4<f32>) -> vec3<f32
     // fragment position.
     // Use the position on the near clipping plane to avoid -inf world position
     // because the far plane of an infinite reverse projection is at infinity.
-    let view_position_homogeneous = view.inverse_projection * vec4(
+    let view_position_homogeneous = view.view_from_clip * vec4(
         coords_to_viewport_uv(position, viewport) * vec2(2.0, -2.0) + vec2(-1.0, 1.0),
         1.0,
         1.0,
@@ -34,7 +34,7 @@ fn coords_to_ray_direction(position: vec2<f32>, viewport: vec4<f32>) -> vec3<f32
     // direction to world space. Note that the w element is set to 0.0, as this is a
     // vector direction, not a position, That causes the matrix multiplication to ignore
     // the translations from the view matrix.
-    let ray_direction = (view.view * vec4(view_ray_direction, 0.0)).xyz;
+    let ray_direction = (view.world_from_view * vec4(view_ray_direction, 0.0)).xyz;
 
     return normalize(ray_direction);
 }

crates/bevy_gizmos/src/line_joints.wgsl

@@ -39,9 +39,9 @@ fn vertex_bevel(vertex: VertexInput) -> VertexOutput {
     );
     var position = positions[vertex.index];
 
-    var clip_a = view.view_proj * vec4(vertex.position_a, 1.);
-    var clip_b = view.view_proj * vec4(vertex.position_b, 1.);
-    var clip_c = view.view_proj * vec4(vertex.position_c, 1.);
+    var clip_a = view.clip_from_world * vec4(vertex.position_a, 1.);
+    var clip_b = view.clip_from_world * vec4(vertex.position_b, 1.);
+    var clip_c = view.clip_from_world * vec4(vertex.position_c, 1.);
 
     // Manual near plane clipping to avoid errors when doing the perspective divide inside this shader.
     clip_a = clip_near_plane(clip_a, clip_c);
@@ -97,10 +97,10 @@ fn vertex_miter(vertex: VertexInput) -> VertexOutput {
         vec3(0, 0, 0.5),
     );
     var position = positions[vertex.index];
- 
-    var clip_a = view.view_proj * vec4(vertex.position_a, 1.);
-    var clip_b = view.view_proj * vec4(vertex.position_b, 1.);
-    var clip_c = view.view_proj * vec4(vertex.position_c, 1.);
+
+    var clip_a = view.clip_from_world * vec4(vertex.position_a, 1.);
+    var clip_b = view.clip_from_world * vec4(vertex.position_b, 1.);
+    var clip_c = view.clip_from_world * vec4(vertex.position_c, 1.);
 
     // Manual near plane clipping to avoid errors when doing the perspective divide inside this shader.
     clip_a = clip_near_plane(clip_a, clip_c);
@@ -148,9 +148,9 @@ fn vertex_miter(vertex: VertexInput) -> VertexOutput {
 
 @vertex
 fn vertex_round(vertex: VertexInput) -> VertexOutput {
-    var clip_a = view.view_proj * vec4(vertex.position_a, 1.);
-    var clip_b = view.view_proj * vec4(vertex.position_b, 1.);
-    var clip_c = view.view_proj * vec4(vertex.position_c, 1.);
+    var clip_a = view.clip_from_world * vec4(vertex.position_a, 1.);
+    var clip_b = view.clip_from_world * vec4(vertex.position_b, 1.);
+    var clip_c = view.clip_from_world * vec4(vertex.position_c, 1.);
 
     // Manual near plane clipping to avoid errors when doing the perspective divide inside this shader.
     clip_a = clip_near_plane(clip_a, clip_c);
@@ -245,4 +245,4 @@ struct FragmentOutput {
 fn fragment(in: FragmentInput) -> FragmentOutput {
     // return FragmentOutput(vec4(1, 1, 1, 1));
     return FragmentOutput(in.color);
-}
+}

crates/bevy_gizmos/src/lines.wgsl

@@ -44,8 +44,8 @@ fn vertex(vertex: VertexInput) -> VertexOutput {
     let position = positions[vertex.index];
 
     // algorithm based on https://wwwtyro.net/2019/11/18/instanced-lines.html
-    var clip_a = view.view_proj * vec4(vertex.position_a, 1.);
-    var clip_b = view.view_proj * vec4(vertex.position_b, 1.);
+    var clip_a = view.clip_from_world * vec4(vertex.position_a, 1.);
+    var clip_b = view.clip_from_world * vec4(vertex.position_b, 1.);
 
     // Manual near plane clipping to avoid errors when doing the perspective divide inside this shader.
     clip_a = clip_near_plane(clip_a, clip_b);
@@ -69,13 +69,13 @@ fn vertex(vertex: VertexInput) -> VertexOutput {
     line_width /= clip.w;
 
     // get height of near clipping plane in world space
-    let pos0 = view.inverse_projection * vec4(0, -1, 0, 1); // Bottom of the screen
-    let pos1 = view.inverse_projection * vec4(0, 1, 0, 1); // Top of the screen
+    let pos0 = view.view_from_clip * vec4(0, -1, 0, 1); // Bottom of the screen
+    let pos1 = view.view_from_clip * vec4(0, 1, 0, 1); // Top of the screen
     let near_clipping_plane_height = length(pos0.xyz - pos1.xyz);
 
     // We can't use vertex.position_X because we may have changed the clip positions with clip_near_plane
-    let position_a = view.inverse_view_proj * clip_a;
-    let position_b = view.inverse_view_proj * clip_b;
+    let position_a = view.inverse_clip_from_world * clip_a;
+    let position_b = view.inverse_clip_from_world * clip_b;
     let world_distance = length(position_a.xyz - position_b.xyz);
 
     // Offset to compensate for moved clip positions. If removed dots on lines will slide when position a is ofscreen.
@@ -84,7 +84,7 @@ fn vertex(vertex: VertexInput) -> VertexOutput {
     uv = (clipped_offset + position.y * world_distance) * resolution.y / near_clipping_plane_height / line_gizmo.line_width;
 #else
     // Get the distance of b to the camera along camera axes
-    let camera_b = view.inverse_projection * clip_b;
+    let camera_b = view.view_from_clip * clip_b;
 
     // This differentiates between orthographic and perspective cameras.
     // For orthographic cameras no depth adaptment (depth_adaptment = 1) is needed.

crates/bevy_gltf/src/loader.rs

@@ -601,15 +601,15 @@ async fn load_gltf<'a, 'b, 'c>(
         .skins()
         .map(|gltf_skin| {
             let reader = gltf_skin.reader(|buffer| Some(&buffer_data[buffer.index()]));
-            let inverse_bindposes: Vec<Mat4> = reader
+            let local_to_bone_bind_matrices: Vec<Mat4> = reader
                 .read_inverse_bind_matrices()
                 .unwrap()
                 .map(|mat| Mat4::from_cols_array_2d(&mat))
                 .collect();
 
             load_context.add_labeled_asset(
                 skin_label(&gltf_skin),
-                SkinnedMeshInverseBindposes::from(inverse_bindposes),
+                SkinnedMeshInverseBindposes::from(local_to_bone_bind_matrices),
             )
         })
         .collect();

crates/bevy_pbr/src/deferred/pbr_deferred_functions.wgsl

@@ -95,7 +95,7 @@ fn pbr_input_from_deferred_gbuffer(frag_coord: vec4<f32>, gbuffer: vec4<u32>) ->
     let N = octahedral_decode(octahedral_normal);
 
     let world_position = vec4(position_ndc_to_world(frag_coord_to_ndc(frag_coord)), 1.0);
-    let is_orthographic = view.projection[3].w == 1.0;
+    let is_orthographic = view.clip_from_view[3].w == 1.0;
     let V = pbr_functions::calculate_view(world_position, is_orthographic);
 
     pbr.frag_coord = frag_coord;