We'll use it in 1.20 mixins.
Unclear what minimal fabric-loader version it requires, so in the interest of
keeping older versions compatible with OptiFabric (old versions of which aren't
compatible with the latest fabric-loader), we'll add it to 1.16.4+ only.
The `Timeline` type is mutable, so we need to create a copy before we pass it to
GuiKeyframeRepository because we don't want anything stored in there (or more
specifically in render queue which can also be added to from that gui) to be
affected by subsequent changes.
It's only required for legacy Optifine doesn't even apply any more as of 1.18,
so we can just disable it on modern versions so it doesn't spam the log.
The respawn packet re-creates the player entity, so we need to re-send its
armor (and technically also the riding and sleeping state, though that probably
wouldn't ever have caused issues in practice because a respawn will implicitly
reset those, unlike your inventory which is preserved).
Because on 1.11+ a `null` item stack is not something that should exist.
This then also allows us to compare item stacks by value rather than only by
reference, potentially saving a few redundant entity equipment update
packets (but more importantly, also allows us to store a copy instead of the
original, which will be important for the next commit).
We cannot filter this packet purely on the netty thread because our filter
depends on the current camera position (if it's too far, we do want to teleport
it closer) and accessing the camera is only safe from the main thread.
Previously the second part had not been considered which could lead to race
conditions where the camera may not yet exist on the netty thread at time of
handling. These appear to have gotten the wholly inappropriate "just put a null
check around it" treatment, but that means that the filter sometimes doesn't
work (hence the bug report).
This commit changes handling such that all access to `allowMovement` is always
done on the main thread and then moves the filtering there as well. And
therefore filtering should now work properly.
Sharing the temporary `row` and `rowSwap` buffers between different calls to the
processor is not safe because it will be used by multiple threads.
As a result some of the rows in the image could randomly get corrupted.
This commit gets rid of the cached buffers (the value of which questionable
anyway) and simply re-uses the same code which other processors use.
No clue why `getResourceLocationForPlayerUUID` was implemented the way it was,
that commit dates back to 2015 (332c36a), but if the skin isn't loaded yet, it
won't load it, so sometimes it just won't show properly in first person and in
the Player Overview.
This commit just calls `AbstractClientPlayer.getSkinTexture` instead.
Unclear which MC versions are affected. At some point before 1.16.4 something
else was introduced which loads the skin for us, hence why modern versions were
not affected.
On my system, a single scroll tick results in 120 calls, which is fine for the
vanilla camera controller because it has a range of 2000, but the classic
controller only has a range of 36, making it impossible to select anything but
the extremes.
This commit changes the size of the range to match that of the vanilla controller.
That way we can simply use whatever version we want and aren't tied to the
version of lwjgl which MC provides.
This fixes the OpenEXR export on 1.19 crashing either due to the windows
workaround or due to differing lwjgl versions (depending on OS).
And also enables OpenEXR export on MC versions using lwjgl2 (1.12.2 and below).
Until now, recording worked by injecting right before the vanilla packet
handler. At that point it was receiving packet classes and had to re-encode them
to store them in the replay file. However, not all decoded packets can
necessarily be re-encoded without errors, requiring us to have a bunch of
workarounds.
This commit changes the way recording works by injecting right before the
decoder. It therefore receives the raw bytebufs and no longer has to deal with
the re-encode issue.
Terrain culling is only updated when the camera position or rotation changes.
For omnidirectional rendering, we don't change the camera directly though, we
rotate way earlier so we can consistently get before any other effects. As a
result, the terrain frustum culling wasn't updated between render passes
resulting in missing terrain.
This was largely masked by the fact that we used to call GameRenderer.onResize
every pass (even when the size hadn't changed) but fixing that made this issue
become apparent.
Instead of setting the the values via accessor and calling the handler directly.
This allows mods like ResolutionControl+ to properly resize its internal
framebuffers as well.
The only thing we care about is the framebuffer size, cause that will differ
between game and progress gui rendering. The window size will be the same (real)
size for both.
