The error screen uses an orthographic projection when rendered in a
window, so the text is always the same size instead of scaling with the
window size.
Also you can close it with escape.
- lovr.headset.getPassthrough returns current passthrough mode
- lovr.headset.setPassthrough sets the passthrough mode
- nil --> uses the default passthrough mode for the headset
- bool --> false = opaque, true = one of the transparent modes
- string --> explicit PassthroughMode
- lovr.headset.getPassthroughModes returns a table of supported modes
Creates a lightweight copy of a Model, for situations where a single
model needs to be rendered with multiple poses in a single frame, which
is currently not possible.
Enables automatic CPU/GPU timing for all passes. Defaults to true
when graphics debugging is active, but can be enabled/disabled manually.
When active, Pass:getStats will return submitTime and gpuTime table
keys, respectively indicating CPU time the Pass took to record and the
time the Pass took to run on the GPU. These have a delay of a few
frames.
This doesn't include a way to get "global" timing info for a submit.
This information would be useful because it doesn't require lovrrs to
sum all the timing info for all the passes and it would include other
work like transfers, synchronization, and CPU waits. However, this is
more challenging to implement under the current architecture and will be
deferred to later. Even if this were added, these per-pass timings will
remain useful.
- Make sure to reset barriers for compute/canvas resources too
- Delay stream ending so OpenXR layout transitions actually go in an
active command buffer.
If you switch to/from a compute shader and the other shader is either
nil or a graphics shader, clear bindings.
Maybe if you switch to/from nil the bindings shouldn't be cleared, but
this is a bit more complicated to implement and it's not clear that
there's any reason not to treat nil shaders as graphics shaders.
Previously, if you wanted to run compute operations that depend on the
results of prior compute operations, you had to put these in 2 different
passes, because logically all of the compute calls in a pass run "at the
same time" (or we're at least giving the GPU the freedom to do that).
Having to set up an entirely new pass just to synchronize 2 :compute
calls is pretty cumbersome, and incurs extra overhead. It would be
possible to change things so *every* :compute call waits for previous
computes to finish, but this would destroy GPU parallelism.
The Pass:barrier method lets compute calls within a pass synchronize
with each other, without requiring multiple passes. Adding a barrier
basically means "hey, wait for all the :compute calls before the barrier
to finish before running future :computes".
This lets things remain highly parallel but allows them to be easily
synchronized when needed.
