141b7673ab
86 Commits
| Author | SHA1 | Message | Date | |
|---|---|---|---|---|
Patrick Walton
|
141b7673ab
|
Key render phases off the main world view entity, not the render world view entity. (#16942)
We won't be able to retain render phases from frame to frame if the keys are unstable. It's not as simple as simply keying off the main world entity, however, because some main world entities extract to multiple render world entities. For example, directional lights extract to multiple shadow cascades, and point lights extract to one view per cubemap face. Therefore, we key off a new type, `RetainedViewEntity`, which contains the main entity plus a *subview ID*. This is part of the preparation for retained bins. --------- Co-authored-by: ickshonpe <david.curthoys@googlemail.com> |
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|
Rob Parrett
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b77e3ef33a
|
Fix a few typos (#17292)
# Objective Stumbled upon a `from <-> form` transposition while reviewing a PR, thought it was interesting, and went down a bit of a rabbit hole. ## Solution Fix em |
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MichiRecRoom
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27802e6975
|
bevy_render: Apply #![deny(clippy::allow_attributes, clippy::allow_attributes_without_reason)] (#17194)
# Objective - https://github.com/bevyengine/bevy/issues/17111 ## Solution Set the `clippy::allow_attributes` and `clippy::allow_attributes_without_reason` lints to `deny`, and bring `bevy_render` in line with the new restrictions. ## Testing `cargo clippy` and `cargo test --package bevy_render` were run, and no errors were encountered. |
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Patrick Walton
|
a8f15bd95e
|
Introduce two-level bins for multidrawable meshes. (#16898)
Currently, our batchable binned items are stored in a hash table that maps bin key, which includes the batch set key, to a list of entities. Multidraw is handled by sorting the bin keys and accumulating adjacent bins that can be multidrawn together (i.e. have the same batch set key) into multidraw commands during `batch_and_prepare_binned_render_phase`. This is reasonably efficient right now, but it will complicate future work to retain indirect draw parameters from frame to frame. Consider what must happen when we have retained indirect draw parameters and the application adds a bin (i.e. a new mesh) that shares a batch set key with some pre-existing meshes. (That is, the new mesh can be multidrawn with the pre-existing meshes.) To be maximally efficient, our goal in that scenario will be to update *only* the indirect draw parameters for the batch set (i.e. multidraw command) containing the mesh that was added, while leaving the others alone. That means that we have to quickly locate all the bins that belong to the batch set being modified. In the existing code, we would have to sort the list of bin keys so that bins that can be multidrawn together become adjacent to one another in the list. Then we would have to do a binary search through the sorted list to find the location of the bin that was just added. Next, we would have to widen our search to adjacent indexes that contain the same batch set, doing expensive comparisons against the batch set key every time. Finally, we would reallocate the indirect draw parameters and update the stored pointers to the indirect draw parameters that the bins store. By contrast, it'd be dramatically simpler if we simply changed the way bins are stored to first map from batch set key (i.e. multidraw command) to the bins (i.e. meshes) within that batch set key, and then from each individual bin to the mesh instances. That way, the scenario above in which we add a new mesh will be simpler to handle. First, we will look up the batch set key corresponding to that mesh in the outer map to find an inner map corresponding to the single multidraw command that will draw that batch set. We will know how many meshes the multidraw command is going to draw by the size of that inner map. Then we simply need to reallocate the indirect draw parameters and update the pointers to those parameters within the bins as necessary. There will be no need to do any binary search or expensive batch set key comparison: only a single hash lookup and an iteration over the inner map to update the pointers. This patch implements the above technique. Because we don't have retained bins yet, this PR provides no performance benefits. However, it opens the door to maximally efficient updates when only a small number of meshes change from frame to frame. The main churn that this patch causes is that the *batch set key* (which uniquely specifies a multidraw command) and *bin key* (which uniquely specifies a mesh *within* that multidraw command) are now separate, instead of the batch set key being embedded *within* the bin key. In order to isolate potential regressions, I think that at least #16890, #16836, and #16825 should land before this PR does. ## Migration Guide * The *batch set key* is now separate from the *bin key* in `BinnedPhaseItem`. The batch set key is used to collect multidrawable meshes together. If you aren't using the multidraw feature, you can safely set the batch set key to `()`. |
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Zachary Harrold
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a371ee3019
|
Remove tracing re-export from bevy_utils (#17161)
# Objective - Contributes to #11478 ## Solution - Made `bevy_utils::tracing` `doc(hidden)` - Re-exported `tracing` from `bevy_log` for end-users - Added `tracing` directly to crates that need it. ## Testing - CI --- ## Migration Guide If you were importing `tracing` via `bevy::utils::tracing`, instead use `bevy::log::tracing`. Note that many items within `tracing` are also directly re-exported from `bevy::log` as well, so you may only need `bevy::log` for the most common items (e.g., `warn!`, `trace!`, etc.). This also applies to the `log_once!` family of macros. ## Notes - While this doesn't reduce the line-count in `bevy_utils`, it further decouples the internal crates from `bevy_utils`, making its eventual removal more feasible in the future. - I have just imported `tracing` as we do for all dependencies. However, a workspace dependency may be more appropriate for version management. |
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Patrick Walton
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7767a8d161
|
Refactor batch_and_prepare_binned_render_phase in preparation for bin retention. (#16922)
This commit makes the following changes: * `IndirectParametersBuffer` has been changed from a `BufferVec` to a `RawBufferVec`. This won about 20us or so on Bistro by avoiding `encase` overhead. * The methods on the `GetFullBatchData` trait no longer have the `entity` parameter, as it was unused. * `PreprocessWorkItem`, which specifies a transform-and-cull operation, now supplies the mesh instance uniform output index directly instead of having the shader look it up from the indirect draw parameters. Accordingly, the responsibility of writing the output index to the indirect draw parameters has been moved from the CPU to the GPU. This is in preparation for retained indirect instance draw commands, where the mesh instance uniform output index may change from frame to frame, while the indirect instance draw commands will be cached. We won't want the CPU to have to upload the same indirect draw parameters again and again if a batch didn't change from frame to frame. * `batch_and_prepare_binned_render_phase` and `batch_and_prepare_sorted_render_phase` now allocate indirect draw commands for an entire batch set at a time when possible, instead of one batch at a time. This change will allow us to retain the indirect draw commands for whole batch sets. * `GetFullBatchData::get_batch_indirect_parameters_index` has been replaced with `GetFullBatchData::write_batch_indirect_parameters`, which takes an offset and writes into it instead of allocating. This is necessary in order to use the optimization mentioned in the previous point. * At the WGSL level, `IndirectParameters` has been factored out into `mesh_preprocess_types.wgsl`. This is because we'll need a new compute shader that zeroes out the instance counts in preparation for a new frame. That shader will need to access `IndirectParameters`, so it was moved to a separate file. * Bins are no longer raw vectors but are instances of a separate type, `RenderBin`. This is so that the bin can eventually contain its retained batches. |
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SpecificProtagonist
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21195a75e6
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track_change_detection: Also track spawns/despawns (#16047)
# Objective
Expand `track_change_detection` feature to also track entity spawns and
despawns. Use this to create better error messages.
# Solution
Adds `Entities::entity_get_spawned_or_despawned_by` as well as `{all
entity reference types}::spawned_by`.
This also removes the deprecated `get_many_entities_mut` & co (and
therefore can't land in 0.15) because we don't yet have no Polonius.
## Testing
Added a test that checks that the locations get updated and these
updates are ordered correctly vs hooks & observers.
---
## Showcase
Access location:
```rust
let mut world = World::new();
let entity = world.spawn_empty().id();
println!("spawned by: {}", world.entity(entity).spawned_by());
```
```
spawned by: src/main.rs:5:24
```
Error message (with `track_change_detection`):
```rust
world.despawn(entity);
world.entity(entity);
```
```
thread 'main' panicked at src/main.rs:11:11:
Entity 0v1#4294967296 was despawned by src/main.rs:10:11
```
and without:
```
thread 'main' panicked at src/main.rs:11:11:
Entity 0v1#4294967296 does not exist (enable `track_change_detection` feature for more details)
```
Similar error messages now also exists for `Query::get`,
`World::entity_mut`, `EntityCommands` creation and everything that
causes `B0003`, e.g.
```
error[B0003]: Could not insert a bundle (of type `MaterialMeshBundle<StandardMaterial>`) for entity Entity { index: 7, generation: 1 }, which was despawned by src/main.rs:10:11. See: https://bevyengine.org/learn/errors/#b0003
```
---------
Co-authored-by: kurk070ff <108901106+kurk070ff@users.noreply.github.com>
Co-authored-by: Freya Pines <freya@MacBookAir.lan>
Co-authored-by: Freya Pines <freya@Freyas-MacBook-Air.local>
Co-authored-by: Matty Weatherley <weatherleymatthew@gmail.com>
|
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Patrick Walton
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f5de3f08fb
|
Use multidraw for opaque meshes when GPU culling is in use. (#16427)
This commit adds support for *multidraw*, which is a feature that allows multiple meshes to be drawn in a single drawcall. `wgpu` currently implements multidraw on Vulkan, so this feature is only enabled there. Multiple meshes can be drawn at once if they're in the same vertex and index buffers and are otherwise placed in the same bin. (Thus, for example, at present the materials and textures must be identical, but see #16368.) Multidraw is a significant performance improvement during the draw phase because it reduces the number of rebindings, as well as the number of drawcalls. This feature is currently only enabled when GPU culling is used: i.e. when `GpuCulling` is present on a camera. Therefore, if you run for example `scene_viewer`, you will not see any performance improvements, because `scene_viewer` doesn't add the `GpuCulling` component to its camera. Additionally, the multidraw feature is only implemented for opaque 3D meshes and not for shadows or 2D meshes. I plan to make GPU culling the default and to extend the feature to shadows in the future. Also, in the future I suspect that polyfilling multidraw on APIs that don't support it will be fruitful, as even without driver-level support use of multidraw allows us to avoid expensive `wgpu` rebindings. |
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Zachary Harrold
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a6adced9ed
|
Deny derive_more error feature and replace it with thiserror (#16684)
# Objective - Remove `derive_more`'s error derivation and replace it with `thiserror` ## Solution - Added `derive_more`'s `error` feature to `deny.toml` to prevent it sneaking back in. - Reverted to `thiserror` error derivation ## Notes Merge conflicts were too numerous to revert the individual changes, so this reversion was done manually. Please scrutinise carefully during review. |
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Benjamin Brienen
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afd0f1322d
|
Move all_tuples to a new crate (#16161)
# Objective Fixes #15941 ## Solution Created https://crates.io/crates/variadics_please and moved the code there; updating references `bevy_utils/macros` is deleted. ## Testing cargo check ## Migration Guide Use `variadics_please::{all_tuples, all_tuples_with_size}` instead of `bevy::utils::{all_tuples, all_tuples_with_size}`. |
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Benjamin Brienen
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1e1b6e5b6d
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Make BinnedRenderPhase fields for accessing batchable and unbatchable entities public (#16142)
# Objective Fixes #16080 ## Solution Make the fields and struct pub as per the suggested solution. ## Testing None |
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charlotte
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dd812b3e49
|
Type safe retained render world (#15756)
# Objective In the Render World, there are a number of collections that are derived from Main World entities and are used to drive rendering. The most notable are: - `VisibleEntities`, which is generated in the `check_visibility` system and contains visible entities for a view. - `ExtractedInstances`, which maps entity ids to asset ids. In the old model, these collections were trivially kept in sync -- any extracted phase item could look itself up because the render entity id was guaranteed to always match the corresponding main world id. After #15320, this became much more complicated, and was leading to a number of subtle bugs in the Render World. The main rendering systems, i.e. `queue_material_meshes` and `queue_material2d_meshes`, follow a similar pattern: ```rust for visible_entity in visible_entities.iter::<With<Mesh2d>>() { let Some(mesh_instance) = render_mesh_instances.get_mut(visible_entity) else { continue; }; // Look some more stuff up and specialize the pipeline... let bin_key = Opaque2dBinKey { pipeline: pipeline_id, draw_function: draw_opaque_2d, asset_id: mesh_instance.mesh_asset_id.into(), material_bind_group_id: material_2d.get_bind_group_id().0, }; opaque_phase.add( bin_key, *visible_entity, BinnedRenderPhaseType::mesh(mesh_instance.automatic_batching), ); } ``` In this case, `visible_entities` and `render_mesh_instances` are both collections that are created and keyed by Main World entity ids, and so this lookup happens to work by coincidence. However, there is a major unintentional bug here: namely, because `visible_entities` is a collection of Main World ids, the phase item being queued is created with a Main World id rather than its correct Render World id. This happens to not break mesh rendering because the render commands used for drawing meshes do not access the `ItemQuery` parameter, but demonstrates the confusion that is now possible: our UI phase items are correctly being queued with Render World ids while our meshes aren't. Additionally, this makes it very easy and error prone to use the wrong entity id to look up things like assets. For example, if instead we ignored visibility checks and queued our meshes via a query, we'd have to be extra careful to use `&MainEntity` instead of the natural `Entity`. ## Solution Make all collections that are derived from Main World data use `MainEntity` as their key, to ensure type safety and avoid accidentally looking up data with the wrong entity id: ```rust pub type MainEntityHashMap<V> = hashbrown::HashMap<MainEntity, V, EntityHash>; ``` Additionally, we make all `PhaseItem` be able to provide both their Main and Render World ids, to allow render phase implementors maximum flexibility as to what id should be used to look up data. You can think of this like tracking at the type level whether something in the Render World should use it's "primary key", i.e. entity id, or needs to use a foreign key, i.e. `MainEntity`. ## Testing ##### TODO: This will require extensive testing to make sure things didn't break! Additionally, some extraction logic has become more complicated and needs to be checked for regressions. ## Migration Guide With the advent of the retained render world, collections that contain references to `Entity` that are extracted into the render world have been changed to contain `MainEntity` in order to prevent errors where a render world entity id is used to look up an item by accident. Custom rendering code may need to be changed to query for `&MainEntity` in order to look up the correct item from such a collection. Additionally, users who implement their own extraction logic for collections of main world entity should strongly consider extracting into a different collection that uses `MainEntity` as a key. Additionally, render phases now require specifying both the `Entity` and `MainEntity` for a given `PhaseItem`. Custom render phases should ensure `MainEntity` is available when queuing a phase item. |
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Zachary Harrold
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8718adc74f
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Remove thiserror from bevy_render (#15765)
# Objective - Contributes to #15460 ## Solution - Removed `thiserror` from `bevy_render` |
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Zachary Harrold
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d70595b667
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Add core and alloc over std Lints (#15281)
# Objective - Fixes #6370 - Closes #6581 ## Solution - Added the following lints to the workspace: - `std_instead_of_core` - `std_instead_of_alloc` - `alloc_instead_of_core` - Used `cargo +nightly fmt` with [item level use formatting](https://rust-lang.github.io/rustfmt/?version=v1.6.0&search=#Item%5C%3A) to split all `use` statements into single items. - Used `cargo clippy --workspace --all-targets --all-features --fix --allow-dirty` to _attempt_ to resolve the new linting issues, and intervened where the lint was unable to resolve the issue automatically (usually due to needing an `extern crate alloc;` statement in a crate root). - Manually removed certain uses of `std` where negative feature gating prevented `--all-features` from finding the offending uses. - Used `cargo +nightly fmt` with [crate level use formatting](https://rust-lang.github.io/rustfmt/?version=v1.6.0&search=#Crate%5C%3A) to re-merge all `use` statements matching Bevy's previous styling. - Manually fixed cases where the `fmt` tool could not re-merge `use` statements due to conditional compilation attributes. ## Testing - Ran CI locally ## Migration Guide The MSRV is now 1.81. Please update to this version or higher. ## Notes - This is a _massive_ change to try and push through, which is why I've outlined the semi-automatic steps I used to create this PR, in case this fails and someone else tries again in the future. - Making this change has no impact on user code, but does mean Bevy contributors will be warned to use `core` and `alloc` instead of `std` where possible. - This lint is a critical first step towards investigating `no_std` options for Bevy. --------- Co-authored-by: François Mockers <francois.mockers@vleue.com> |
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SpecificProtagonist
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5e6b141c13
|
List components for QueryEntityError::QueryDoesNotMatch (#15435)
# Objective Make it easier to debug why an entity doesn't match a query. ## Solution List the entities components in `QueryEntityError::QueryDoesNotMatch`'s message, e.g. `The query does not match the entity 0v1, which has components foo::Bar, foo::Baz`. This covers most cases as expected components are typically known and filtering for change detection is rare when assessing a query by entity id. ## Testing Added a test confirming the new message matches the entity's components. ## Migration Guide - `QueryEntityError` now has a lifetime. Convert it to a custom error if you need to store it. --------- Co-authored-by: Alice Cecile <alice.i.cecile@gmail.com> Co-authored-by: poopy <gonesbird@gmail.com> |
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Pēteris Pakalns
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e567669c31
|
TrackedRenderPass internal tracking state reset (#14948)
# Objective Fixes https://github.com/bevyengine/bevy/issues/13225 ## Solution Invalidate `TrackedRenderPass` internal state upon accessing internal `wgpu::RenderPass`. ## Testing - Tested by calling `set_bind_group` on `RenderPass` returned by `TrackedRenderPass::wgpu_pass` and checking if in later `set_bind_group` calls on `TrackedRenderPass` correct bind group is restored. |
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akimakinai
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4648f7bf72
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Make TrackedRenderPass::set_vertex_buffer aware of slice size (#14916)
# Objective - Fixes #14841 ## Solution - Compute BufferSlice size manually and use it for comparison in `TrackedRenderPass` ## Testing - Gizmo example does not crash with #14721 (without system ordering), and `slice` computes correct size there --- ## Migration Guide - `TrackedRenderPass::set_vertex_buffer` function has been modified to update vertex buffers when the same buffer with the same offset is provided, but its size has changed. Some existing code may rely on the previous behavior, which did not update the vertex buffer in this scenario. --------- Co-authored-by: Zachary Harrold <zac@harrold.com.au> |
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EdJoPaTo
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938d810766
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Apply unused_qualifications lint (#14828)
# Objective Fixes #14782 ## Solution Enable the lint and fix all upcoming hints (`--fix`). Also tried to figure out the false-positive (see review comment). Maybe split this PR up into multiple parts where only the last one enables the lint, so some can already be merged resulting in less many files touched / less potential for merge conflicts? Currently, there are some cases where it might be easier to read the code with the qualifier, so perhaps remove the import of it and adapt its cases? In the current stage it's just a plain adoption of the suggestions in order to have a base to discuss. ## Testing `cargo clippy` and `cargo run -p ci` are happy. |
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Tau Gärtli
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aab1f8e435
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Use #[doc(fake_variadic)] to improve docs readability (#14703)
# Objective - Fixes #14697 ## Solution This PR modifies the existing `all_tuples!` macro to optionally accept a `#[doc(fake_variadic)]` attribute in its input. If the attribute is present, each invocation of the impl macro gets the correct attributes (i.e. the first impl receives `#[doc(fake_variadic)]` while the other impls are hidden using `#[doc(hidden)]`. Impls for the empty tuple (unit type) are left untouched (that's what the [standard library](https://doc.rust-lang.org/std/cmp/trait.PartialEq.html#impl-PartialEq-for-()) and [serde](https://docs.rs/serde/latest/serde/trait.Serialize.html#impl-Serialize-for-()) do). To work around https://github.com/rust-lang/cargo/issues/8811 and to get impls on re-exports to correctly show up as variadic, `--cfg docsrs_dep` is passed when building the docs for the toplevel `bevy` crate. `#[doc(fake_variadic)]` only works on tuples and fn pointers, so impls for structs like `AnyOf<(T1, T2, ..., Tn)>` are unchanged. ## Testing I built the docs locally using `RUSTDOCFLAGS='--cfg docsrs' RUSTFLAGS='--cfg docsrs_dep' cargo +nightly doc --no-deps --workspace` and checked the documentation page of a trait both in its original crate and the re-exported version in `bevy`. The description should correctly mention for how many tuple items the trait is implemented. I added `rustc-args` for docs.rs to the `bevy` crate, I hope there aren't any other notable crates that re-export `#[doc(fake_variadic)]` traits. --- ## Showcase `bevy_ecs::query::QueryData`: <img width="1015" alt="Screenshot 2024-08-12 at 16 41 28" src="https://github.com/user-attachments/assets/d40136ed-6731-475f-91a0-9df255cd24e3"> `bevy::ecs::query::QueryData` (re-export): <img width="1005" alt="Screenshot 2024-08-12 at 16 42 57" src="https://github.com/user-attachments/assets/71d44cf0-0ab0-48b0-9a51-5ce332594e12"> ## Original Description <details> Resolves #14697 Submitting as a draft for now, very WIP. Unfortunately, the docs don't show the variadics nicely when looking at reexported items. For example: `bevy_ecs::bundle::Bundle` correctly shows the variadic impl:  while `bevy::ecs::bundle::Bundle` (the reexport) shows all the impls (not good):  Built using `RUSTDOCFLAGS='--cfg docsrs' cargo +nightly doc --workspace --no-deps` (`--no-deps` because of wgpu-core). Maybe I missed something or this is a limitation in the *totally not private* `#[doc(fake_variadic)]` thingy. In any case I desperately need some sleep now :)) </details> |
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IceSentry
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3faca1e549
|
Don't ignore draw errors (#13240)
# Objective - It's possible to have errors in a draw command, but these errors are ignored ## Solution - Return a result with the error ## Changelog Renamed `RenderCommandResult::Failure` to `RenderCommandResult::Skip` Added a `reason` string parameter to `RenderCommandResult::Failure` ## Migration Guide If you were using `RenderCommandResult::Failure` to just ignore an error and retry later, use `RenderCommandResult::Skip` instead. This wasn't intentional, but this PR should also help with https://github.com/bevyengine/bevy/issues/12660 since we can turn a few unwraps into error messages now. --------- Co-authored-by: Charlotte McElwain <charlotte.c.mcelwain@gmail.com> |
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Lura
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856b39d821
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Apply Clippy lints regarding lazy evaluation and closures (#14015)
# Objective - Lazily evaluate [default](https://rust-lang.github.io/rust-clippy/master/index.html#/unwrap_or_default)~~/[or](https://rust-lang.github.io/rust-clippy/master/index.html#/or_fun_call)~~ values where it makes sense - ~~`unwrap_or(foo())` -> `unwrap_or_else(|| foo())`~~ - `unwrap_or(Default::default())` -> `unwrap_or_default()` - etc. - Avoid creating [redundant closures](https://rust-lang.github.io/rust-clippy/master/index.html#/redundant_closure), even for [method calls](https://rust-lang.github.io/rust-clippy/master/index.html#/redundant_closure_for_method_calls) - `map(|something| something.into())` -> `map(Into:into)` ## Solution - Apply Clippy lints: - ~~[or_fun_call](https://rust-lang.github.io/rust-clippy/master/index.html#/or_fun_call)~~ - [unwrap_or_default](https://rust-lang.github.io/rust-clippy/master/index.html#/unwrap_or_default) - [redundant_closure_for_method_calls](https://rust-lang.github.io/rust-clippy/master/index.html#/redundant_closure_for_method_calls) ([redundant closures](https://rust-lang.github.io/rust-clippy/master/index.html#/redundant_closure) is already enabled) ## Testing - Tested on Windows 11 (`stable-x86_64-pc-windows-gnu`, 1.79.0) - Bevy compiles without errors or warnings and examples seem to work as intended - `cargo clippy` ✅ - `cargo run -p ci -- compile` ✅ --------- Co-authored-by: Alice Cecile <alice.i.cecile@gmail.com> |
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Patrick Walton
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44db8b7fac
|
Allow phase items not associated with meshes to be binned. (#14029)
As reported in #14004, many third-party plugins, such as Hanabi, enqueue entities that don't have meshes into render phases. However, the introduction of indirect mode added a dependency on mesh-specific data, breaking this workflow. This is because GPU preprocessing requires that the render phases manage indirect draw parameters, which don't apply to objects that aren't meshes. The existing code skips over binned entities that don't have indirect draw parameters, which causes the rendering to be skipped for such objects. To support this workflow, this commit adds a new field, `non_mesh_items`, to `BinnedRenderPhase`. This field contains a simple list of (bin key, entity) pairs. After drawing batchable and unbatchable objects, the non-mesh items are drawn one after another. Bevy itself doesn't enqueue any items into this list; it exists solely for the application and/or plugins to use. Additionally, this commit switches the asset ID in the standard bin keys to be an untyped asset ID rather than that of a mesh. This allows more flexibility, allowing bins to be keyed off any type of asset. This patch adds a new example, `custom_phase_item`, which simultaneously serves to demonstrate how to use this new feature and to act as a regression test so this doesn't break again. Fixes #14004. ## Changelog ### Added * `BinnedRenderPhase` now contains a `non_mesh_items` field for plugins to add custom items to. |
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Jan Hohenheim
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6273227e09
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Fix lints introduced in Rust beta 1.80 (#13899)
Resolves #13895 Mostly just involves being more explicit about which parts of the docs belong to a list and which begin a new paragraph. - found a few docs that were malformed because of exactly this, so I fixed that by introducing a paragraph - added indentation to nearly all multiline lists - fixed a few minor typos - added `#[allow(dead_code)]` to types that are needed to test annotations but are never constructed ([here](https://github.com/bevyengine/bevy/pull/13899/files#diff-b02b63604e569c8577c491e7a2030d456886d8f6716eeccd46b11df8aac75dafR1514) and [here](https://github.com/bevyengine/bevy/pull/13899/files#diff-b02b63604e569c8577c491e7a2030d456886d8f6716eeccd46b11df8aac75dafR1523)) - verified that `cargo +beta run -p ci -- lints` passes - verified that `cargo +beta run -p ci -- test` passes |
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Ricky Taylor
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9b9d3d81cb
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Normalise matrix naming (#13489)
# Objective - Fixes #10909 - Fixes #8492 ## Solution - Name all matrices `x_from_y`, for example `world_from_view`. ## Testing - I've tested most of the 3D examples. The `lighting` example particularly should hit a lot of the changes and appears to run fine. --- ## Changelog - Renamed matrices across the engine to follow a `y_from_x` naming, making the space conversion more obvious. ## Migration Guide - `Frustum`'s `from_view_projection`, `from_view_projection_custom_far` and `from_view_projection_no_far` were renamed to `from_clip_from_world`, `from_clip_from_world_custom_far` and `from_clip_from_world_no_far`. - `ComputedCameraValues::projection_matrix` was renamed to `clip_from_view`. - `CameraProjection::get_projection_matrix` was renamed to `get_clip_from_view` (this affects implementations on `Projection`, `PerspectiveProjection` and `OrthographicProjection`). - `ViewRangefinder3d::from_view_matrix` was renamed to `from_world_from_view`. - `PreviousViewData`'s members were renamed to `view_from_world` and `clip_from_world`. - `ExtractedView`'s `projection`, `transform` and `view_projection` were renamed to `clip_from_view`, `world_from_view` and `clip_from_world`. - `ViewUniform`'s `view_proj`, `unjittered_view_proj`, `inverse_view_proj`, `view`, `inverse_view`, `projection` and `inverse_projection` were renamed to `clip_from_world`, `unjittered_clip_from_world`, `world_from_clip`, `world_from_view`, `view_from_world`, `clip_from_view` and `view_from_clip`. - `GpuDirectionalCascade::view_projection` was renamed to `clip_from_world`. - `MeshTransforms`' `transform` and `previous_transform` were renamed to `world_from_local` and `previous_world_from_local`. - `MeshUniform`'s `transform`, `previous_transform`, `inverse_transpose_model_a` and `inverse_transpose_model_b` were renamed to `world_from_local`, `previous_world_from_local`, `local_from_world_transpose_a` and `local_from_world_transpose_b` (the `Mesh` type in WGSL mirrors this, however `transform` and `previous_transform` were named `model` and `previous_model`). - `Mesh2dTransforms::transform` was renamed to `world_from_local`. - `Mesh2dUniform`'s `transform`, `inverse_transpose_model_a` and `inverse_transpose_model_b` were renamed to `world_from_local`, `local_from_world_transpose_a` and `local_from_world_transpose_b` (the `Mesh2d` type in WGSL mirrors this). - In WGSL, in `bevy_pbr::mesh_functions`, `get_model_matrix` and `get_previous_model_matrix` were renamed to `get_world_from_local` and `get_previous_world_from_local`. - In WGSL, `bevy_sprite::mesh2d_functions::get_model_matrix` was renamed to `get_world_from_local`. |
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Patrick Walton
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9da0b2a0ec
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Make render phases render world resources instead of components. (#13277)
This commit makes us stop using the render world ECS for `BinnedRenderPhase` and `SortedRenderPhase` and instead use resources with `EntityHashMap`s inside. There are three reasons to do this: 1. We can use `clear()` to clear out the render phase collections instead of recreating the components from scratch, allowing us to reuse allocations. 2. This is a prerequisite for retained bins, because components can't be retained from frame to frame in the render world, but resources can. 3. We want to move away from storing anything in components in the render world ECS, and this is a step in that direction. This patch results in a small performance benefit, due to point (1) above. ## Changelog ### Changed * The `BinnedRenderPhase` and `SortedRenderPhase` render world components have been replaced with `ViewBinnedRenderPhases` and `ViewSortedRenderPhases` resources. ## Migration Guide * The `BinnedRenderPhase` and `SortedRenderPhase` render world components have been replaced with `ViewBinnedRenderPhases` and `ViewSortedRenderPhases` resources. Instead of querying for the components, look the camera entity up in the `ViewBinnedRenderPhases`/`ViewSortedRenderPhases` tables. |
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Patrick Walton
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16531fb3e3
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Implement GPU frustum culling. (#12889)
This commit implements opt-in GPU frustum culling, built on top of the infrastructure in https://github.com/bevyengine/bevy/pull/12773. To enable it on a camera, add the `GpuCulling` component to it. To additionally disable CPU frustum culling, add the `NoCpuCulling` component. Note that adding `GpuCulling` without `NoCpuCulling` *currently* does nothing useful. The reason why `GpuCulling` doesn't automatically imply `NoCpuCulling` is that I intend to follow this patch up with GPU two-phase occlusion culling, and CPU frustum culling plus GPU occlusion culling seems like a very commonly-desired mode. Adding the `GpuCulling` component to a view puts that view into *indirect mode*. This mode makes all drawcalls indirect, relying on the mesh preprocessing shader to allocate instances dynamically. In indirect mode, the `PreprocessWorkItem` `output_index` points not to a `MeshUniform` instance slot but instead to a set of `wgpu` `IndirectParameters`, from which it allocates an instance slot dynamically if frustum culling succeeds. Batch building has been updated to allocate and track indirect parameter slots, and the AABBs are now supplied to the GPU as `MeshCullingData`. A small amount of code relating to the frustum culling has been borrowed from meshlets and moved into `maths.wgsl`. Note that standard Bevy frustum culling uses AABBs, while meshlets use bounding spheres; this means that not as much code can be shared as one might think. This patch doesn't provide any way to perform GPU culling on shadow maps, to avoid making this patch bigger than it already is. That can be a followup. ## Changelog ### Added * Frustum culling can now optionally be done on the GPU. To enable it, add the `GpuCulling` component to a camera. * To disable CPU frustum culling, add `NoCpuCulling` to a camera. Note that `GpuCulling` doesn't automatically imply `NoCpuCulling`. |
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Patrick Walton
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11817f4ba4
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Generate MeshUniforms on the GPU via compute shader where available. (#12773)
Currently, `MeshUniform`s are rather large: 160 bytes. They're also somewhat expensive to compute, because they involve taking the inverse of a 3x4 matrix. Finally, if a mesh is present in multiple views, that mesh will have a separate `MeshUniform` for each and every view, which is wasteful. This commit fixes these issues by introducing the concept of a *mesh input uniform* and adding a *mesh uniform building* compute shader pass. The `MeshInputUniform` is simply the minimum amount of data needed for the GPU to compute the full `MeshUniform`. Most of this data is just the transform and is therefore only 64 bytes. `MeshInputUniform`s are computed during the *extraction* phase, much like skins are today, in order to avoid needlessly copying transforms around on CPU. (In fact, the render app has been changed to only store the translation of each mesh; it no longer cares about any other part of the transform, which is stored only on the GPU and the main world.) Before rendering, the `build_mesh_uniforms` pass runs to expand the `MeshInputUniform`s to the full `MeshUniform`. The mesh uniform building pass does the following, all on GPU: 1. Copy the appropriate fields of the `MeshInputUniform` to the `MeshUniform` slot. If a single mesh is present in multiple views, this effectively duplicates it into each view. 2. Compute the inverse transpose of the model transform, used for transforming normals. 3. If applicable, copy the mesh's transform from the previous frame for TAA. To support this, we double-buffer the `MeshInputUniform`s over two frames and swap the buffers each frame. The `MeshInputUniform`s for the current frame contain the index of that mesh's `MeshInputUniform` for the previous frame. This commit produces wins in virtually every CPU part of the pipeline: `extract_meshes`, `queue_material_meshes`, `batch_and_prepare_render_phase`, and especially `write_batched_instance_buffer` are all faster. Shrinking the amount of CPU data that has to be shuffled around speeds up the entire rendering process. | Benchmark | This branch | `main` | Speedup | |------------------------|-------------|---------|---------| | `many_cubes -nfc` | 17.259 | 24.529 | 42.12% | | `many_cubes -nfc -vpi` | 302.116 | 312.123 | 3.31% | | `many_foxes` | 3.227 | 3.515 | 8.92% | Because mesh uniform building requires compute shader, and WebGL 2 has no compute shader, the existing CPU mesh uniform building code has been left as-is. Many types now have both CPU mesh uniform building and GPU mesh uniform building modes. Developers can opt into the old CPU mesh uniform building by setting the `use_gpu_uniform_builder` option on `PbrPlugin` to `false`. Below are graphs of the CPU portions of `many-cubes --no-frustum-culling`. Yellow is this branch, red is `main`. `extract_meshes`:  It's notable that we get a small win even though we're now writing to a GPU buffer. `queue_material_meshes`:  There's a bit of a regression here; not sure what's causing it. In any case it's very outweighed by the other gains. `batch_and_prepare_render_phase`:  There's a huge win here, enough to make batching basically drop off the profile. `write_batched_instance_buffer`:  There's a massive improvement here, as expected. Note that a lot of it simply comes from the fact that `MeshInputUniform` is `Pod`. (This isn't a maintainability problem in my view because `MeshInputUniform` is so simple: just 16 tightly-packed words.) ## Changelog ### Added * Per-mesh instance data is now generated on GPU with a compute shader instead of CPU, resulting in rendering performance improvements on platforms where compute shaders are supported. ## Migration guide * Custom render phases now need multiple systems beyond just `batch_and_prepare_render_phase`. Code that was previously creating custom render phases should now add a `BinnedRenderPhasePlugin` or `SortedRenderPhasePlugin` as appropriate instead of directly adding `batch_and_prepare_render_phase`. |
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Cameron
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01649f13e2
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Refactor App and SubApp internals for better separation (#9202)
# Objective This is a necessary precursor to #9122 (this was split from that PR to reduce the amount of code to review all at once). Moving `!Send` resource ownership to `App` will make it unambiguously `!Send`. `SubApp` must be `Send`, so it can't wrap `App`. ## Solution Refactor `App` and `SubApp` to not have a recursive relationship. Since `SubApp` no longer wraps `App`, once `!Send` resources are moved out of `World` and into `App`, `SubApp` will become unambiguously `Send`. There could be less code duplication between `App` and `SubApp`, but that would break `App` method chaining. ## Changelog - `SubApp` no longer wraps `App`. - `App` fields are no longer publicly accessible. - `App` can no longer be converted into a `SubApp`. - Various methods now return references to a `SubApp` instead of an `App`. ## Migration Guide - To construct a sub-app, use `SubApp::new()`. `App` can no longer convert into `SubApp`. - If you implemented a trait for `App`, you may want to implement it for `SubApp` as well. - If you're accessing `app.world` directly, you now have to use `app.world()` and `app.world_mut()`. - `App::sub_app` now returns `&SubApp`. - `App::sub_app_mut` now returns `&mut SubApp`. - `App::get_sub_app` now returns `Option<&SubApp>.` - `App::get_sub_app_mut` now returns `Option<&mut SubApp>.` |
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Patrick Walton
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4dadebd9c4
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Improve performance by binning together opaque items instead of sorting them. (#12453)
Today, we sort all entities added to all phases, even the phases that don't strictly need sorting, such as the opaque and shadow phases. This results in a performance loss because our `PhaseItem`s are rather large in memory, so sorting is slow. Additionally, determining the boundaries of batches is an O(n) process. This commit makes Bevy instead applicable place phase items into *bins* keyed by *bin keys*, which have the invariant that everything in the same bin is potentially batchable. This makes determining batch boundaries O(1), because everything in the same bin can be batched. Instead of sorting each entity, we now sort only the bin keys. This drops the sorting time to near-zero on workloads with few bins like `many_cubes --no-frustum-culling`. Memory usage is improved too, with batch boundaries and dynamic indices now implicit instead of explicit. The improved memory usage results in a significant win even on unbatchable workloads like `many_cubes --no-frustum-culling --vary-material-data-per-instance`, presumably due to cache effects. Not all phases can be binned; some, such as transparent and transmissive phases, must still be sorted. To handle this, this commit splits `PhaseItem` into `BinnedPhaseItem` and `SortedPhaseItem`. Most of the logic that today deals with `PhaseItem`s has been moved to `SortedPhaseItem`. `BinnedPhaseItem` has the new logic. Frame time results (in ms/frame) are as follows: | Benchmark | `binning` | `main` | Speedup | | ------------------------ | --------- | ------- | ------- | | `many_cubes -nfc -vpi` | 232.179 | 312.123 | 34.43% | | `many_cubes -nfc` | 25.874 | 30.117 | 16.40% | | `many_foxes` | 3.276 | 3.515 | 7.30% | (`-nfc` is short for `--no-frustum-culling`; `-vpi` is short for `--vary-per-instance`.) --- ## Changelog ### Changed * Render phases have been split into binned and sorted phases. Binned phases, such as the common opaque phase, achieve improved CPU performance by avoiding the sorting step. ## Migration Guide - `PhaseItem` has been split into `BinnedPhaseItem` and `SortedPhaseItem`. If your code has custom `PhaseItem`s, you will need to migrate them to one of these two types. `SortedPhaseItem` requires the fewest code changes, but you may want to pick `BinnedPhaseItem` if your phase doesn't require sorting, as that enables higher performance. ## Tracy graphs `many-cubes --no-frustum-culling`, `main` branch: <img width="1064" alt="Screenshot 2024-03-12 180037" src="https://github.com/bevyengine/bevy/assets/157897/e1180ce8-8e89-46d2-85e3-f59f72109a55"> `many-cubes --no-frustum-culling`, this branch: <img width="1064" alt="Screenshot 2024-03-12 180011" src="https://github.com/bevyengine/bevy/assets/157897/0899f036-6075-44c5-a972-44d95895f46c"> You can see that `batch_and_prepare_binned_render_phase` is a much smaller fraction of the time. Zooming in on that function, with yellow being this branch and red being `main`, we see: <img width="1064" alt="Screenshot 2024-03-12 175832" src="https://github.com/bevyengine/bevy/assets/157897/0dfc8d3f-49f4-496e-8825-a66e64d356d0"> The binning happens in `queue_material_meshes`. Again with yellow being this branch and red being `main`: <img width="1064" alt="Screenshot 2024-03-12 175755" src="https://github.com/bevyengine/bevy/assets/157897/b9b20dc1-11c8-400c-a6cc-1c2e09c1bb96"> We can see that there is a small regression in `queue_material_meshes` performance, but it's not nearly enough to outweigh the large gains in `batch_and_prepare_binned_render_phase`. --------- Co-authored-by: James Liu <contact@jamessliu.com> |
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LeshaInc
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737b719dda
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Add pipeline statistics (#9135)
# Objective It's useful to have access to render pipeline statistics, since they provide more information than FPS alone. For example, the number of drawn triangles can be used to debug culling and LODs. The number of fragment shader invocations can provide a more stable alternative metric than GPU elapsed time. See also: Render node GPU timing overlay #8067, which doesn't provide pipeline statistics, but adds a nice overlay. ## Solution Add `RenderDiagnosticsPlugin`, which enables collecting pipeline statistics and CPU & GPU timings. --- ## Changelog - Add `RenderDiagnosticsPlugin` - Add `RenderContext::diagnostic_recorder` method --------- Co-authored-by: Alice Cecile <alice.i.cecile@gmail.com> |
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James Liu
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512b7463a3
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Disentangle bevy_utils/bevy_core's reexported dependencies (#12313)
# Objective Make bevy_utils less of a compilation bottleneck. Tackle #11478. ## Solution * Move all of the directly reexported dependencies and move them to where they're actually used. * Remove the UUID utilities that have gone unused since `TypePath` took over for `TypeUuid`. * There was also a extraneous bytemuck dependency on `bevy_core` that has not been used for a long time (since `encase` became the primary way to prepare GPU buffers). * Remove the `all_tuples` macro reexport from bevy_ecs since it's accessible from `bevy_utils`. --- ## Changelog Removed: Many of the reexports from bevy_utils (petgraph, uuid, nonmax, smallvec, and thiserror). Removed: bevy_core's reexports of bytemuck. ## Migration Guide bevy_utils' reexports of petgraph, uuid, nonmax, smallvec, and thiserror have been removed. bevy_core' reexports of bytemuck's types has been removed. Add them as dependencies in your own crate instead. |
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Alice Cecile
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8ec65525ab
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Port bevy_core_pipeline to LinearRgba (#12116)
# Objective - We should move towards a consistent use of the new `bevy_color` crate. - As discussed in #12089, splitting this work up into small pieces makes it easier to review. ## Solution - Port all uses of `LegacyColor` in the `bevy_core_pipeline` to `LinearRgba` - `LinearRgba` is the correct type to use for internal rendering types - Added `LinearRgba::BLACK` and `WHITE` (used during migration) - Add `LinearRgba::grey` to more easily construct balanced grey colors (used during migration) - Add a conversion from `LinearRgba` to `wgpu::Color`. The converse was not done at this time, as this is typically a user error. I did not change the field type of the clear color on the cameras: as this is user-facing, this should be done in concert with the other configurable fields. ## Migration Guide `ColorAttachment` now stores a `LinearRgba` color, rather than a Bevy 0.13 `Color`. `set_blend_constant` now takes a `LinearRgba` argument, rather than a Bevy 0.13 `Color`. --------- Co-authored-by: Alice Cecile <alice.i.cecil@gmail.com> |
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Alice Cecile
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de004da8d5
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Rename bevy_render::Color to LegacyColor (#12069)
# Objective The migration process for `bevy_color` (#12013) will be fairly involved: there will be hundreds of affected files, and a large number of APIs. ## Solution To allow us to proceed granularly, we're going to keep both `bevy_color::Color` (new) and `bevy_render::Color` (old) around until the migration is complete. However, simply doing this directly is confusing! They're both called `Color`, making it very hard to tell when a portion of the code has been ported. As discussed in #12056, by renaming the old `Color` type, we can make it easier to gradually migrate over, one API at a time. ## Migration Guide THIS MIGRATION GUIDE INTENTIONALLY LEFT BLANK. This change should not be shipped to end users: delete this section in the final migration guide! --------- Co-authored-by: Alice Cecile <alice.i.cecil@gmail.com> |
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Patrick Walton
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3af8526786
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Stop extracting mesh entities to the render world. (#11803)
This fixes a `FIXME` in `extract_meshes` and results in a performance improvement. As a result of this change, meshes in the render world might not be attached to entities anymore. Therefore, the `entity` parameter to `RenderCommand::render()` is now wrapped in an `Option`. Most applications that use the render app's ECS can simply unwrap the `Option`. Note that for now sprites, gizmos, and UI elements still use the render world as usual. ## Migration guide * For efficiency reasons, some meshes in the render world may not have corresponding `Entity` IDs anymore. As a result, the `entity` parameter to `RenderCommand::render()` is now wrapped in an `Option`. Custom rendering code may need to be updated to handle the case in which no `Entity` exists for an object that is to be rendered. |
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SpecificProtagonist
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21aa5fe2b6
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Use TypeIdMap whenever possible (#11684)
Use `TypeIdMap<T>` instead of `HashMap<TypeId, T>` - ~~`TypeIdMap` was in `bevy_ecs`. I've kept it there because of #11478~~ - ~~I haven't swapped `bevy_reflect` over because it doesn't depend on `bevy_ecs`, but I'd also be happy with moving `TypeIdMap` to `bevy_utils` and then adding a dependency to that~~ - ~~this is a slight change in the public API of `DrawFunctionsInternal`, does this need to go in the changelog?~~ ## Changelog - moved `TypeIdMap` to `bevy_utils` - changed `DrawFunctionsInternal::indices` to `TypeIdMap` ## Migration Guide - `TypeIdMap` now lives in `bevy_utils` - `DrawFunctionsInternal::indices` now uses a `TypeIdMap`. --------- Co-authored-by: Alice Cecile <alice.i.cecile@gmail.com> |
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Alice Cecile
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eb07d16871
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Revert rendering-related associated type name changes (#11027)
# Objective > Can anyone explain to me the reasoning of renaming all the types named Query to Data. I'm talking about this PR https://github.com/bevyengine/bevy/pull/10779 It doesn't make sense to me that a bunch of types that are used to run queries aren't named Query anymore. Like ViewQuery on the ViewNode is the type of the Query. I don't really understand the point of the rename, it just seems like it hides the fact that a query will run based on those types. [@IceSentry](https://discord.com/channels/691052431525675048/692572690833473578/1184946251431694387) ## Solution Revert several renames in #10779. ## Changelog - `ViewNode::ViewData` is now `ViewNode::ViewQuery` again. ## Migration Guide - This PR amends the migration guide in https://github.com/bevyengine/bevy/pull/10779 --------- Co-authored-by: atlas dostal <rodol@rivalrebels.com> |
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Doonv
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189ceaf0d3
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Replace or document ignored doctests (#11040)
# Objective There are a lot of doctests that are `ignore`d for no documented reason. And that should be fixed. ## Solution I searched the bevy repo with the regex ` ```[a-z,]*ignore ` in order to find all `ignore`d doctests. For each one of the `ignore`d doctests, I did the following steps: 1. Attempt to remove the `ignored` attribute while still passing the test. I did this by adding hidden dummy structs and imports. 2. If step 1 doesn't work, attempt to replace the `ignored` attribute with the `no_run` attribute while still passing the test. 3. If step 2 doesn't work, keep the `ignored` attribute but add documentation for why the `ignored` attribute was added. --------- Co-authored-by: François <mockersf@gmail.com> |
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Mantas
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5af2f022d8
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Rename WorldQueryData & WorldQueryFilter to QueryData & QueryFilter (#10779)
# Rename `WorldQueryData` & `WorldQueryFilter` to `QueryData` & `QueryFilter` Fixes #10776 ## Solution Traits `WorldQueryData` & `WorldQueryFilter` were renamed to `QueryData` and `QueryFilter`, respectively. Related Trait types were also renamed. --- ## Changelog - Trait `WorldQueryData` has been renamed to `QueryData`. Derive macro's `QueryData` attribute `world_query_data` has been renamed to `query_data`. - Trait `WorldQueryFilter` has been renamed to `QueryFilter`. Derive macro's `QueryFilter` attribute `world_query_filter` has been renamed to `query_filter`. - Trait's `ExtractComponent` type `Query` has been renamed to `Data`. - Trait's `GetBatchData` types `Query` & `QueryFilter` has been renamed to `Data` & `Filter`, respectively. - Trait's `ExtractInstance` type `Query` has been renamed to `Data`. - Trait's `ViewNode` type `ViewQuery` has been renamed to `ViewData`. - Trait's `RenderCommand` types `ViewWorldQuery` & `ItemWorldQuery` has been renamed to `ViewData` & `ItemData`, respectively. ## Migration Guide Note: if merged before 0.13 is released, this should instead modify the migration guide of #10776 with the updated names. - Rename `WorldQueryData` & `WorldQueryFilter` trait usages to `QueryData` & `QueryFilter` and their respective derive macro attributes `world_query_data` & `world_query_filter` to `query_data` & `query_filter`. - Rename the following trait type usages: - Trait's `ExtractComponent` type `Query` to `Data`. - Trait's `GetBatchData` type `Query` to `Data`. - Trait's `ExtractInstance` type `Query` to `Data`. - Trait's `ViewNode` type `ViewQuery` to `ViewData`' - Trait's `RenderCommand` types `ViewWolrdQuery` & `ItemWorldQuery` to `ViewData` & `ItemData`, respectively. ```rust // Before #[derive(WorldQueryData)] #[world_query_data(derive(Debug))] struct EmptyQuery { empty: (), } // After #[derive(QueryData)] #[query_data(derive(Debug))] struct EmptyQuery { empty: (), } // Before #[derive(WorldQueryFilter)] struct CustomQueryFilter<T: Component, P: Component> { _c: With<ComponentC>, _d: With<ComponentD>, _or: Or<(Added<ComponentC>, Changed<ComponentD>, Without<ComponentZ>)>, _generic_tuple: (With<T>, With<P>), } // After #[derive(QueryFilter)] struct CustomQueryFilter<T: Component, P: Component> { _c: With<ComponentC>, _d: With<ComponentD>, _or: Or<(Added<ComponentC>, Changed<ComponentD>, Without<ComponentZ>)>, _generic_tuple: (With<T>, With<P>), } // Before impl ExtractComponent for ContrastAdaptiveSharpeningSettings { type Query = &'static Self; type Filter = With<Camera>; type Out = (DenoiseCAS, CASUniform); fn extract_component(item: QueryItem<Self::Query>) -> Option<Self::Out> { //... } } // After impl ExtractComponent for ContrastAdaptiveSharpeningSettings { type Data = &'static Self; type Filter = With<Camera>; type Out = (DenoiseCAS, CASUniform); fn extract_component(item: QueryItem<Self::Data>) -> Option<Self::Out> { //... } } // Before impl GetBatchData for MeshPipeline { type Param = SRes<RenderMeshInstances>; type Query = Entity; type QueryFilter = With<Mesh3d>; type CompareData = (MaterialBindGroupId, AssetId<Mesh>); type BufferData = MeshUniform; fn get_batch_data( mesh_instances: &SystemParamItem<Self::Param>, entity: &QueryItem<Self::Query>, ) -> (Self::BufferData, Option<Self::CompareData>) { // .... } } // After impl GetBatchData for MeshPipeline { type Param = SRes<RenderMeshInstances>; type Data = Entity; type Filter = With<Mesh3d>; type CompareData = (MaterialBindGroupId, AssetId<Mesh>); type BufferData = MeshUniform; fn get_batch_data( mesh_instances: &SystemParamItem<Self::Param>, entity: &QueryItem<Self::Data>, ) -> (Self::BufferData, Option<Self::CompareData>) { // .... } } // Before impl<A> ExtractInstance for AssetId<A> where A: Asset, { type Query = Read<Handle<A>>; type Filter = (); fn extract(item: QueryItem<'_, Self::Query>) -> Option<Self> { Some(item.id()) } } // After impl<A> ExtractInstance for AssetId<A> where A: Asset, { type Data = Read<Handle<A>>; type Filter = (); fn extract(item: QueryItem<'_, Self::Data>) -> Option<Self> { Some(item.id()) } } // Before impl ViewNode for PostProcessNode { type ViewQuery = ( &'static ViewTarget, &'static PostProcessSettings, ); fn run( &self, _graph: &mut RenderGraphContext, render_context: &mut RenderContext, (view_target, _post_process_settings): QueryItem<Self::ViewQuery>, world: &World, ) -> Result<(), NodeRunError> { // ... } } // After impl ViewNode for PostProcessNode { type ViewData = ( &'static ViewTarget, &'static PostProcessSettings, ); fn run( &self, _graph: &mut RenderGraphContext, render_context: &mut RenderContext, (view_target, _post_process_settings): QueryItem<Self::ViewData>, world: &World, ) -> Result<(), NodeRunError> { // ... } } // Before impl<P: CachedRenderPipelinePhaseItem> RenderCommand<P> for SetItemPipeline { type Param = SRes<PipelineCache>; type ViewWorldQuery = (); type ItemWorldQuery = (); #[inline] fn render<'w>( item: &P, _view: (), _entity: (), pipeline_cache: SystemParamItem<'w, '_, Self::Param>, pass: &mut TrackedRenderPass<'w>, ) -> RenderCommandResult { // ... } } // After impl<P: CachedRenderPipelinePhaseItem> RenderCommand<P> for SetItemPipeline { type Param = SRes<PipelineCache>; type ViewData = (); type ItemData = (); #[inline] fn render<'w>( item: &P, _view: (), _entity: (), pipeline_cache: SystemParamItem<'w, '_, Self::Param>, pass: &mut TrackedRenderPass<'w>, ) -> RenderCommandResult { // ... } } ``` |
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Mark Wainwright
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f0a8994f55
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Split WorldQuery into WorldQueryData and WorldQueryFilter (#9918)
# Objective - Fixes #7680 - This is an updated for https://github.com/bevyengine/bevy/pull/8899 which had the same objective but fell a long way behind the latest changes ## Solution The traits `WorldQueryData : WorldQuery` and `WorldQueryFilter : WorldQuery` have been added and some of the types and functions from `WorldQuery` has been moved into them. `ReadOnlyWorldQuery` has been replaced with `ReadOnlyWorldQueryData`. `WorldQueryFilter` is safe (as long as `WorldQuery` is implemented safely). `WorldQueryData` is unsafe - safely implementing it requires that `Self::ReadOnly` is a readonly version of `Self` (this used to be a safety requirement of `WorldQuery`) The type parameters `Q` and `F` of `Query` must now implement `WorldQueryData` and `WorldQueryFilter` respectively. This makes it impossible to accidentally use a filter in the data position or vice versa which was something that could lead to bugs. ~~Compile failure tests have been added to check this.~~ It was previously sometimes useful to use `Option<With<T>>` in the data position. Use `Has<T>` instead in these cases. The `WorldQuery` derive macro has been split into separate derive macros for `WorldQueryData` and `WorldQueryFilter`. Previously it was possible to derive both `WorldQuery` for a struct that had a mixture of data and filter items. This would not work correctly in some cases but could be a useful pattern in others. *This is no longer possible.* --- ## Notes - The changes outside of `bevy_ecs` are all changing type parameters to the new types, updating the macro use, or replacing `Option<With<T>>` with `Has<T>`. - All `WorldQueryData` types always returned `true` for `IS_ARCHETYPAL` so I moved it to `WorldQueryFilter` and replaced all calls to it with `true`. That should be the only logic change outside of the macro generation code. - `Changed<T>` and `Added<T>` were being generated by a macro that I have expanded. Happy to revert that if desired. - The two derive macros share some functions for implementing `WorldQuery` but the tidiest way I could find to implement them was to give them a ton of arguments and ask clippy to ignore that. ## Changelog ### Changed - Split `WorldQuery` into `WorldQueryData` and `WorldQueryFilter` which now have separate derive macros. It is not possible to derive both for the same type. - `Query` now requires that the first type argument implements `WorldQueryData` and the second implements `WorldQueryFilter` ## Migration Guide - Update derives ```rust // old #[derive(WorldQuery)] #[world_query(mutable, derive(Debug))] struct CustomQuery { entity: Entity, a: &'static mut ComponentA } #[derive(WorldQuery)] struct QueryFilter { _c: With<ComponentC> } // new #[derive(WorldQueryData)] #[world_query_data(mutable, derive(Debug))] struct CustomQuery { entity: Entity, a: &'static mut ComponentA, } #[derive(WorldQueryFilter)] struct QueryFilter { _c: With<ComponentC> } ``` - Replace `Option<With<T>>` with `Has<T>` ```rust /// old fn my_system(query: Query<(Entity, Option<With<ComponentA>>)>) { for (entity, has_a_option) in query.iter(){ let has_a:bool = has_a_option.is_some(); //todo!() } } /// new fn my_system(query: Query<(Entity, Has<ComponentA>)>) { for (entity, has_a) in query.iter(){ //todo!() } } ``` - Fix queries which had filters in the data position or vice versa. ```rust // old fn my_system(query: Query<(Entity, With<ComponentA>)>) { for (entity, _) in query.iter(){ //todo!() } } // new fn my_system(query: Query<Entity, With<ComponentA>>) { for entity in query.iter(){ //todo!() } } // old fn my_system(query: Query<AnyOf<(&ComponentA, With<ComponentB>)>>) { for (entity, _) in query.iter(){ //todo!() } } // new fn my_system(query: Query<Option<&ComponentA>, Or<(With<ComponentA>, With<ComponentB>)>>) { for entity in query.iter(){ //todo!() } } ``` --------- Co-authored-by: Alice Cecile <alice.i.cecile@gmail.com> |
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wgxer
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4eafd60ce9
|
Add wgpu_pass method to TrackedRenderPass (#10722)
# Objective - Fixes #10707 ## Solution - Add a method to obtain `RenderPass` to `TrackedRenderPass` simillar to `RenderDevice::wgpu_device` --- ## Changelog Added `wgpu_pass` method to `TrackedRenderPass` |
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Marco Buono
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44928e0df4
|
StandardMaterial Light Transmission (#8015)
# Objective
<img width="1920" alt="Screenshot 2023-04-26 at 01 07 34"
src="https://user-images.githubusercontent.com/418473/234467578-0f34187b-5863-4ea1-88e9-7a6bb8ce8da3.png">
This PR adds both diffuse and specular light transmission capabilities
to the `StandardMaterial`, with support for screen space refractions.
This enables realistically representing a wide range of real-world
materials, such as:
- Glass; (Including frosted glass)
- Transparent and translucent plastics;
- Various liquids and gels;
- Gemstones;
- Marble;
- Wax;
- Paper;
- Leaves;
- Porcelain.
Unlike existing support for transparency, light transmission does not
rely on fixed function alpha blending, and therefore works with both
`AlphaMode::Opaque` and `AlphaMode::Mask` materials.
## Solution
- Introduces a number of transmission related fields in the
`StandardMaterial`;
- For specular transmission:
- Adds logic to take a view main texture snapshot after the opaque
phase; (in order to perform screen space refractions)
- Introduces a new `Transmissive3d` phase to the renderer, to which all
meshes with `transmission > 0.0` materials are sent.
- Calculates a light exit point (of the approximate mesh volume) using
`ior` and `thickness` properties
- Samples the snapshot texture with an adaptive number of taps across a
`roughness`-controlled radius enabling “blurry” refractions
- For diffuse transmission:
- Approximates transmitted diffuse light by using a second, flipped +
displaced, diffuse-only Lambertian lobe for each light source.
## To Do
- [x] Figure out where `fresnel_mix()` is taking place, if at all, and
where `dielectric_specular` is being calculated, if at all, and update
them to use the `ior` value (Not a blocker, just a nice-to-have for more
correct BSDF)
- To the _best of my knowledge, this is now taking place, after
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Zachary Harrold
|
450328d15e
|
Replaced parking_lot with std::sync (#9545)
# Objective - Fixes #4610 ## Solution - Replaced all instances of `parking_lot` locks with equivalents from `std::sync`. Acquiring locks within `std::sync` can fail, so `.expect("Lock Poisoned")` statements were added where required. ## Comments In [this comment](https://github.com/bevyengine/bevy/issues/4610#issuecomment-1592407881), the lack of deadlock detection was mentioned as a potential reason to not make this change. From what I can gather, Bevy doesn't appear to be using this functionality within the engine. Unless it was expected that a Bevy consumer was expected to enable and use this functionality, it appears to be a feature lost without consequence. Unfortunately, `cpal` and `wgpu` both still rely on `parking_lot`, leaving it in the dependency graph even after this change. From my basic experimentation, this change doesn't appear to have any performance impacts, positive or negative. I tested this using `bevymark` with 50,000 entities and observed 20ms of frame-time before and after the change. More extensive testing with larger/real projects should probably be done. |
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Robert Swain
|
5c884c5a15
|
Automatic batching/instancing of draw commands (#9685)
# Objective - Implement the foundations of automatic batching/instancing of draw commands as the next step from #89 - NOTE: More performance improvements will come when more data is managed and bound in ways that do not require rebinding such as mesh, material, and texture data. ## Solution - The core idea for batching of draw commands is to check whether any of the information that has to be passed when encoding a draw command changes between two things that are being drawn according to the sorted render phase order. These should be things like the pipeline, bind groups and their dynamic offsets, index/vertex buffers, and so on. - The following assumptions have been made: - Only entities with prepared assets (pipelines, materials, meshes) are queued to phases - View bindings are constant across a phase for a given draw function as phases are per-view - `batch_and_prepare_render_phase` is the only system that performs this batching and has sole responsibility for preparing the per-object data. As such the mesh binding and dynamic offsets are assumed to only vary as a result of the `batch_and_prepare_render_phase` system, e.g. due to having to split data across separate uniform bindings within the same buffer due to the maximum uniform buffer binding size. - Implement `GpuArrayBuffer` for `Mesh2dUniform` to store Mesh2dUniform in arrays in GPU buffers rather than each one being at a dynamic offset in a uniform buffer. This is the same optimisation that was made for 3D not long ago. - Change batch size for a range in `PhaseItem`, adding API for getting or mutating the range. This is more flexible than a size as the length of the range can be used in place of the size, but the start and end can be otherwise whatever is needed. - Add an optional mesh bind group dynamic offset to `PhaseItem`. This avoids having to do a massive table move just to insert `GpuArrayBufferIndex` components. ## Benchmarks All tests have been run on an M1 Max on AC power. `bevymark` and `many_cubes` were modified to use 1920x1080 with a scale factor of 1. I run a script that runs a separate Tracy capture process, and then runs the bevy example with `--features bevy_ci_testing,trace_tracy` and `CI_TESTING_CONFIG=../benchmark.ron` with the contents of `../benchmark.ron`: ```rust ( exit_after: Some(1500) ) ``` ...in order to run each test for 1500 frames. The recent changes to `many_cubes` and `bevymark` added reproducible random number generation so that with the same settings, the same rng will occur. They also added benchmark modes that use a fixed delta time for animations. Combined this means that the same frames should be rendered both on main and on the branch. The graphs compare main (yellow) to this PR (red). ### 3D Mesh `many_cubes --benchmark` <img width="1411" alt="Screenshot 2023-09-03 at 23 42 10" src="https://github.com/bevyengine/bevy/assets/302146/2088716a-c918-486c-8129-090b26fd2bc4"> The mesh and material are the same for all instances. This is basically the best case for the initial batching implementation as it results in 1 draw for the ~11.7k visible meshes. It gives a ~30% reduction in median frame time. The 1000th frame is identical using the flip tool:  ``` Mean: 0.000000 Weighted median: 0.000000 1st weighted quartile: 0.000000 3rd weighted quartile: 0.000000 Min: 0.000000 Max: 0.000000 Evaluation time: 0.4615 seconds ``` ### 3D Mesh `many_cubes --benchmark --material-texture-count 10` <img width="1404" alt="Screenshot 2023-09-03 at 23 45 18" src="https://github.com/bevyengine/bevy/assets/302146/5ee9c447-5bd2-45c6-9706-ac5ff8916daf"> This run uses 10 different materials by varying their textures. The materials are randomly selected, and there is no sorting by material bind group for opaque 3D so any batching is 'random'. The PR produces a ~5% reduction in median frame time. If we were to sort the opaque phase by the material bind group, then this should be a lot faster. This produces about 10.5k draws for the 11.7k visible entities. This makes sense as randomly selecting from 10 materials gives a chance that two adjacent entities randomly select the same material and can be batched. The 1000th frame is identical in flip:  ``` Mean: 0.000000 Weighted median: 0.000000 1st weighted quartile: 0.000000 3rd weighted quartile: 0.000000 Min: 0.000000 Max: 0.000000 Evaluation time: 0.4537 seconds ``` ### 3D Mesh `many_cubes --benchmark --vary-per-instance` <img width="1394" alt="Screenshot 2023-09-03 at 23 48 44" src="https://github.com/bevyengine/bevy/assets/302146/f02a816b-a444-4c18-a96a-63b5436f3b7f"> This run varies the material data per instance by randomly-generating its colour. This is the worst case for batching and that it performs about the same as `main` is a good thing as it demonstrates that the batching has minimal overhead when dealing with ~11k visible mesh entities. The 1000th frame is identical according to flip:  ``` Mean: 0.000000 Weighted median: 0.000000 1st weighted quartile: 0.000000 3rd weighted quartile: 0.000000 Min: 0.000000 Max: 0.000000 Evaluation time: 0.4568 seconds ``` ### 2D Mesh `bevymark --benchmark --waves 160 --per-wave 1000 --mode mesh2d` <img width="1412" alt="Screenshot 2023-09-03 at 23 59 56" src="https://github.com/bevyengine/bevy/assets/302146/cb02ae07-237b-4646-ae9f-fda4dafcbad4"> This spawns 160 waves of 1000 quad meshes that are shaded with ColorMaterial. Each wave has a different material so 160 waves currently should result in 160 batches. This results in a 50% reduction in median frame time. Capturing a screenshot of the 1000th frame main vs PR gives:  ``` Mean: 0.001222 Weighted median: 0.750432 1st weighted quartile: 0.453494 3rd weighted quartile: 0.969758 Min: 0.000000 Max: 0.990296 Evaluation time: 0.4255 seconds ``` So they seem to produce the same results. I also double-checked the number of draws. `main` does 160000 draws, and the PR does 160, as expected. ### 2D Mesh `bevymark --benchmark --waves 160 --per-wave 1000 --mode mesh2d --material-texture-count 10` <img width="1392" alt="Screenshot 2023-09-04 at 00 09 22" src="https://github.com/bevyengine/bevy/assets/302146/4358da2e-ce32-4134-82df-3ab74c40849c"> This generates 10 textures and generates materials for each of those and then selects one material per wave. The median frame time is reduced by 50%. Similar to the plain run above, this produces 160 draws on the PR and 160000 on `main` and the 1000th frame is identical (ignoring the fps counter text overlay).  ``` Mean: 0.002877 Weighted median: 0.964980 1st weighted quartile: 0.668871 3rd weighted quartile: 0.982749 Min: 0.000000 Max: 0.992377 Evaluation time: 0.4301 seconds ``` ### 2D Mesh `bevymark --benchmark --waves 160 --per-wave 1000 --mode mesh2d --vary-per-instance` <img width="1396" alt="Screenshot 2023-09-04 at 00 13 53" src="https://github.com/bevyengine/bevy/assets/302146/b2198b18-3439-47ad-919a-cdabe190facb"> This creates unique materials per instance by randomly-generating the material's colour. This is the worst case for 2D batching. Somehow, this PR manages a 7% reduction in median frame time. Both main and this PR issue 160000 draws. The 1000th frame is the same:  ``` Mean: 0.001214 Weighted median: 0.937499 1st weighted quartile: 0.635467 3rd weighted quartile: 0.979085 Min: 0.000000 Max: 0.988971 Evaluation time: 0.4462 seconds ``` ### 2D Sprite `bevymark --benchmark --waves 160 --per-wave 1000 --mode sprite` <img width="1396" alt="Screenshot 2023-09-04 at 12 21 12" src="https://github.com/bevyengine/bevy/assets/302146/8b31e915-d6be-4cac-abf5-c6a4da9c3d43"> This just spawns 160 waves of 1000 sprites. There should be and is no notable difference between main and the PR. ### 2D Sprite `bevymark --benchmark --waves 160 --per-wave 1000 --mode sprite --material-texture-count 10` <img width="1389" alt="Screenshot 2023-09-04 at 12 36 08" src="https://github.com/bevyengine/bevy/assets/302146/45fe8d6d-c901-4062-a349-3693dd044413"> This spawns the sprites selecting a texture at random per instance from the 10 generated textures. This has no significant change vs main and shouldn't. ### 2D Sprite `bevymark --benchmark --waves 160 --per-wave 1000 --mode sprite --vary-per-instance` <img width="1401" alt="Screenshot 2023-09-04 at 12 29 52" src="https://github.com/bevyengine/bevy/assets/302146/762c5c60-352e-471f-8dbe-bbf10e24ebd6"> This sets the sprite colour as being unique per instance. This can still all be drawn using one batch. There should be no difference but the PR produces median frame times that are 4% higher. Investigation showed no clear sources of cost, rather a mix of give and take that should not happen. It seems like noise in the results. ### Summary | Benchmark | % change in median frame time | | ------------- | ------------- | | many_cubes | 🟩 -30% | | many_cubes 10 materials | 🟩 -5% | | many_cubes unique materials | 🟩 ~0% | | bevymark mesh2d | 🟩 -50% | | bevymark mesh2d 10 materials | 🟩 -50% | | bevymark mesh2d unique materials | 🟩 -7% | | bevymark sprite | 🟥 2% | | bevymark sprite 10 materials | 🟥 0.6% | | bevymark sprite unique materials | 🟥 4.1% | --- ## Changelog - Added: 2D and 3D mesh entities that share the same mesh and material (same textures, same data) are now batched into the same draw command for better performance. --------- Co-authored-by: robtfm <50659922+robtfm@users.noreply.github.com> Co-authored-by: Nicola Papale <nico@nicopap.ch> |
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James O'Brien
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4f1d9a6315
|
Reorder render sets, refactor bevy_sprite to take advantage (#9236)
This is a continuation of this PR: #8062 # Objective - Reorder render schedule sets to allow data preparation when phase item order is known to support improved batching - Part of the batching/instancing etc plan from here: https://github.com/bevyengine/bevy/issues/89#issuecomment-1379249074 - The original idea came from @inodentry and proved to be a good one. Thanks! - Refactor `bevy_sprite` and `bevy_ui` to take advantage of the new ordering ## Solution - Move `Prepare` and `PrepareFlush` after `PhaseSortFlush` - Add a `PrepareAssets` set that runs in parallel with other systems and sets in the render schedule. - Put prepare_assets systems in the `PrepareAssets` set - If explicit dependencies are needed on Mesh or Material RenderAssets then depend on the appropriate system. - Add `ManageViews` and `ManageViewsFlush` sets between `ExtractCommands` and Queue - Move `queue_mesh*_bind_group` to the Prepare stage - Rename them to `prepare_` - Put systems that prepare resources (buffers, textures, etc.) into a `PrepareResources` set inside `Prepare` - Put the `prepare_..._bind_group` systems into a `PrepareBindGroup` set after `PrepareResources` - Move `prepare_lights` to the `ManageViews` set - `prepare_lights` creates views and this must happen before `Queue` - This system needs refactoring to stop handling all responsibilities - Gather lights, sort, and create shadow map views. Store sorted light entities in a resource - Remove `BatchedPhaseItem` - Replace `batch_range` with `batch_size` representing how many items to skip after rendering the item or to skip the item entirely if `batch_size` is 0. - `queue_sprites` has been split into `queue_sprites` for queueing phase items and `prepare_sprites` for batching after the `PhaseSort` - `PhaseItem`s are still inserted in `queue_sprites` - After sorting adjacent compatible sprite phase items are accumulated into `SpriteBatch` components on the first entity of each batch, containing a range of vertex indices. The associated `PhaseItem`'s `batch_size` is updated appropriately. - `SpriteBatch` items are then drawn skipping over the other items in the batch based on the value in `batch_size` - A very similar refactor was performed on `bevy_ui` --- ## Changelog Changed: - Reordered and reworked render app schedule sets. The main change is that data is extracted, queued, sorted, and then prepared when the order of data is known. - Refactor `bevy_sprite` and `bevy_ui` to take advantage of the reordering. ## Migration Guide - Assets such as materials and meshes should now be created in `PrepareAssets` e.g. `prepare_assets<Mesh>` - Queueing entities to `RenderPhase`s continues to be done in `Queue` e.g. `queue_sprites` - Preparing resources (textures, buffers, etc.) should now be done in `PrepareResources`, e.g. `prepare_prepass_textures`, `prepare_mesh_uniforms` - Prepare bind groups should now be done in `PrepareBindGroups` e.g. `prepare_mesh_bind_group` - Any batching or instancing can now be done in `Prepare` where the order of the phase items is known e.g. `prepare_sprites` ## Next Steps - Introduce some generic mechanism to ensure items that can be batched are grouped in the phase item order, currently you could easily have `[sprite at z 0, mesh at z 0, sprite at z 0]` preventing batching. - Investigate improved orderings for building the MeshUniform buffer - Implementing batching across the rest of bevy --------- Co-authored-by: Robert Swain <robert.swain@gmail.com> Co-authored-by: robtfm <50659922+robtfm@users.noreply.github.com> |
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Robert Swain
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0a11af9375
|
Reduce the size of MeshUniform to improve performance (#9416)
# Objective - Significantly reduce the size of MeshUniform by only including necessary data. ## Solution Local to world, model transforms are affine. This means they only need a 4x3 matrix to represent them. `MeshUniform` stores the current, and previous model transforms, and the inverse transpose of the current model transform, all as 4x4 matrices. Instead we can store the current, and previous model transforms as 4x3 matrices, and we only need the upper-left 3x3 part of the inverse transpose of the current model transform. This change allows us to reduce the serialized MeshUniform size from 208 bytes to 144 bytes, which is over a 30% saving in data to serialize, and VRAM bandwidth and space. ## Benchmarks On an M1 Max, running `many_cubes -- sphere`, main is in yellow, this PR is in red: <img width="1484" alt="Screenshot 2023-08-11 at 02 36 43" src="https://github.com/bevyengine/bevy/assets/302146/7d99c7b3-f2bb-4004-a8d0-4c00f755cb0d"> A reduction in frame time of ~14%. --- ## Changelog - Changed: Redefined `MeshUniform` to improve performance by using 4x3 affine transforms and reconstructing 4x4 matrices in the shader. Helper functions were added to `bevy_pbr::mesh_functions` to unpack the data. `affine_to_square` converts the packed 4x3 in 3x4 matrix data to a 4x4 matrix. `mat2x4_f32_to_mat3x3` converts the 3x3 in mat2x4 + f32 matrix data back into a 3x3. ## Migration Guide Shader code before: ``` var model = mesh[instance_index].model; ``` Shader code after: ``` #import bevy_pbr::mesh_functions affine_to_square var model = affine_to_square(mesh[instance_index].model); ``` |
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Marco Buono
|
292e069bb5
|
Apply codebase changes in preparation for StandardMaterial transmission (#8704)
# Objective - Make #8015 easier to review; ## Solution - This commit contains changes not directly related to transmission required by #8015, in easier-to-review, one-change-per-commit form. --- ## Changelog ### Fixed - Clear motion vector prepass using `0.0` instead of `1.0`, to avoid TAA artifacts on transparent objects against the background; ### Added - The `E` mathematical constant is now available for use in shaders, exposed under `bevy_pbr::utils`; - A new `TAA` shader def is now available, for conditionally enabling shader logic via `#ifdef` when TAA is enabled; (e.g. for jittering texture samples) - A new `FallbackImageZero` resource is introduced, for when a fallback image filled with zeroes is required; - A new `RenderPhase<I>::render_range()` method is introduced, for render phases that need to render their items in multiple parceled out “steps”; ### Changed - The `MainTargetTextures` struct now holds both `Texture` and `TextureViews` for the main textures; - The fog shader functions under `bevy_pbr::fog` now take the a `Fog` structure as their first argument, instead of relying on the global `fog` uniform; - The main textures can now be used as copy sources; ## Migration Guide - `ViewTarget::main_texture()` and `ViewTarget::main_texture_other()` now return `&Texture` instead of `&TextureView`. If you were relying on these methods, replace your usage with `ViewTarget::main_texture_view()`and `ViewTarget::main_texture_other_view()`, respectively; - `ViewTarget::sampled_main_texture()` now returns `Option<&Texture>` instead of a `Option<&TextureView>`. If you were relying on this method, replace your usage with `ViewTarget::sampled_main_texture_view()`; - The `apply_fog()`, `linear_fog()`, `exponential_fog()`, `exponential_squared_fog()` and `atmospheric_fog()` functions now take a configurable `Fog` struct. If you were relying on them, update your usage by adding the global `fog` uniform as their first argument; |
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François
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71842c5ac9
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Webgpu support (#8336)
# Objective - Support WebGPU - alternative to #5027 that doesn't need any async / await - fixes #8315 - Surprise fix #7318 ## Solution ### For async renderer initialisation - Update the plugin lifecycle: - app builds the plugin - calls `plugin.build` - registers the plugin - app starts the event loop - event loop waits for `ready` of all registered plugins in the same order - returns `true` by default - then call all `finish` then all `cleanup` in the same order as registered - then execute the schedule In the case of the renderer, to avoid anything async: - building the renderer plugin creates a detached task that will send back the initialised renderer through a mutex in a resource - `ready` will wait for the renderer to be present in the resource - `finish` will take that renderer and place it in the expected resources by other plugins - other plugins (that expect the renderer to be available) `finish` are called and they are able to set up their pipelines - `cleanup` is called, only custom one is still for pipeline rendering ### For WebGPU support - update the `build-wasm-example` script to support passing `--api webgpu` that will build the example with WebGPU support - feature for webgl2 was always enabled when building for wasm. it's now in the default feature list and enabled on all platforms, so check for this feature must also check that the target_arch is `wasm32` --- ## Migration Guide - `Plugin::setup` has been renamed `Plugin::cleanup` - `Plugin::finish` has been added, and plugins adding pipelines should do it in this function instead of `Plugin::build` ```rust // Before impl Plugin for MyPlugin { fn build(&self, app: &mut App) { app.insert_resource::<MyResource> .add_systems(Update, my_system); let render_app = match app.get_sub_app_mut(RenderApp) { Ok(render_app) => render_app, Err(_) => return, }; render_app .init_resource::<RenderResourceNeedingDevice>() .init_resource::<OtherRenderResource>(); } } // After impl Plugin for MyPlugin { fn build(&self, app: &mut App) { app.insert_resource::<MyResource> .add_systems(Update, my_system); let render_app = match app.get_sub_app_mut(RenderApp) { Ok(render_app) => render_app, Err(_) => return, }; render_app .init_resource::<OtherRenderResource>(); } fn finish(&self, app: &mut App) { let render_app = match app.get_sub_app_mut(RenderApp) { Ok(render_app) => render_app, Err(_) => return, }; render_app .init_resource::<RenderResourceNeedingDevice>(); } } ``` |
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Wybe Westra
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abf12f3b3b
|
Fixed several missing links in docs. (#8117)
Links in the api docs are nice. I noticed that there were several places where structs / functions and other things were referenced in the docs, but weren't linked. I added the links where possible / logical. --------- Co-authored-by: Alice Cecile <alice.i.cecile@gmail.com> Co-authored-by: François <mockersf@gmail.com> |
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Mikkel Rasmussen
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e9312254d8
|
Non-breaking change* from UK spellings to US (#8291)
Fixes issue mentioned in PR #8285. _Note: By mistake, this is currently dependent on #8285_ # Objective Ensure consistency in the spelling of the documentation. Exceptions: `crates/bevy_mikktspace/src/generated.rs` - Has not been changed from licence to license as it is part of a licensing agreement. Maybe for further consistency, https://github.com/bevyengine/bevy-website should also be given a look. ## Solution ### Changed the spelling of the current words (UK/CN/AU -> US) : cancelled -> canceled (Breaking API changes in #8285) behaviour -> behavior (Breaking API changes in #8285) neighbour -> neighbor grey -> gray recognise -> recognize centre -> center metres -> meters colour -> color ### ~~Update [`engine_style_guide.md`]~~ Moved to #8324 --- ## Changelog Changed UK spellings in documentation to US ## Migration Guide Non-breaking changes* \* If merged after #8285 |
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dis-da-moe
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8853bef6df |
implement TypeUuid for primitives and fix multiple-parameter generics having the same TypeUuid (#6633)
# Objective - Fixes #5432 - Fixes #6680 ## Solution - move code responsible for generating the `impl TypeUuid` from `type_uuid_derive` into a new function, `gen_impl_type_uuid`. - this allows the new proc macro, `impl_type_uuid`, to call the code for generation. - added struct `TypeUuidDef` and implemented `syn::Parse` to allow parsing of the input for the new macro. - finally, used the new macro `impl_type_uuid` to implement `TypeUuid` for the standard library (in `crates/bevy_reflect/src/type_uuid_impl.rs`). - fixes #6680 by doing a wrapping add of the param's index to its `TYPE_UUID` Co-authored-by: dis-da-moe <84386186+dis-da-moe@users.noreply.github.com> |
