Splitting part of OGLShaderProgram.h out into OGLShaderConfig.h makes it
easier to keep GLContext.h included in OGLShaderProgram.h for inlining
purposes.
Differential Revision: https://phabricator.services.mozilla.com/D20017
--HG--
extra : moz-landing-system : lando
Splitting part of OGLShaderProgram.h out into OGLShaderConfig.h makes it
easier to keep GLContext.h included in OGLShaderProgram.h for inlining
purposes.
Differential Revision: https://phabricator.services.mozilla.com/D20017
--HG--
extra : moz-landing-system : lando
By accident, WrExternalImageBufferType::TextureRectHandle was set in SurfaceTextureHost::CreateRenderTexture() instead of WrExternalImageBufferType::TextureExternalHandle in Bug 1499255.
Differential Revision: https://phabricator.services.mozilla.com/D13050
--HG--
extra : moz-landing-system : lando
glFenceSync/glClientWaitSync just seem to be more well supported
on nvidia hardware, and they work fine as well on AMD/intel, so
I'm transitioning to that.
Depends on D6463
Differential Revision: https://phabricator.services.mozilla.com/D6464
--HG--
extra : moz-landing-system : lando
Now that the shader problems are fixed it's a simple switch.
MozReview-Commit-ID: 6MJlEVITwii
--HG--
extra : rebase_source : cb33bd45196eca26476c52c2c50e51f03f6129f8
Now that the shader problems are fixed it's a simple switch.
MozReview-Commit-ID: 6MJlEVITwii
--HG--
extra : rebase_source : 7c91165633d5bc4fb07135781774998b0e1f1cf0
There's a lot going on here, but it all fits under the idea of
being able to communicate about texture locking statuses
without spinning on IsReadLocked. This is a bit of a trade -
we could just always allocate/grab a texture from the pool,
which would put a smaller cap on the amount of time we can
possibly spend when a texture is locked. However, this eats
up more CPU and memory than waiting on the textures to unlock,
and could take longer, especially if there were a large number
of textures which we just need to wait for for a short amount
of time. In any case, we very rarely hit the case where we
actually need to wait on the sync IPC to the compositor - most
of the time the textures are already unlocked.
There is also an async IPC call in here, which we make before
flushing async paints. This just causes the compositor to
check whether the GPU is done with its textures or not and
unlock them if it is. This helps us avoid the case where we
take a long time painting asynchronously, turn IPC back on at
the end of that, and then have to wait for the compositor
to to get into TiledLayerBufferComposite::UseTiles before
getting a response. Specifically this eliminates several talos
regressions which use ASAP mode.
Lastly, there seem to be no other cases of static Monitors
being used. This seems like it falls under similar use cases
as StaticMutexes, so I added it in. I can move it into its own
file if we think it might be generally useful in the future.
MozReview-Commit-ID: IYQLwUqMxg2
--HG--
extra : rebase_source : 4f05832f51dae6db98773dcad03cb008a80eca6c
The DirectMapTextureSource could let the compositor to read the buffer directly.
That could get rid of some memory copy operations during texture uploading.
MozReview-Commit-ID: CHhoR96P7VG
--HG--
extra : rebase_source : 65c167644096a1b72fe5dfbb55837842f41377bb
The "mExternallyOwned" is used for gralloc buffer. We don't use the gralloc buffer now.
MozReview-Commit-ID: 7Gurpa3kdp0
--HG--
extra : rebase_source : 5c0bf4facba5ed2cc8772df78bb702965e77a4ab
There's a lot going on here, but it all fits under the idea of
being able to communicate about texture locking statuses
without spinning on IsReadLocked. This is a bit of a trade -
we could just always allocate/grab a texture from the pool,
which would put a smaller cap on the amount of time we can
possibly spend when a texture is locked. However, this eats
up more CPU and memory than waiting on the textures to unlock,
and could take longer, especially if there were a large number
of textures which we just need to wait for for a short amount
of time. In any case, we very rarely hit the case where we
actually need to wait on the sync IPC to the compositor - most
of the time the textures are already unlocked.
There is also an async IPC call in here, which we make before
flushing async paints. This just causes the compositor to
check whether the GPU is done with its textures or not and
unlock them if it is. This helps us avoid the case where we
take a long time painting asynchronously, turn IPC back on at
the end of that, and then have to wait for the compositor
to to get into TiledLayerBufferComposite::UseTiles before
getting a response. Specifically this eliminates several talos
regressions which use ASAP mode.
Lastly, there seem to be no other cases of static Monitors
being used. This seems like it falls under similar use cases
as StaticMutexes, so I added it in. I can move it into its own
file if we think it might be generally useful in the future.
MozReview-Commit-ID: IYQLwUqMxg2
--HG--
extra : rebase_source : 67f6fee8b89933561a48e6f7f531b6969893a574
The DirectMapTextureSource could let the compositor to read the buffer directly.
That could get rid of some memory copy operations during texture uploading.
MozReview-Commit-ID: CHhoR96P7VG
--HG--
extra : rebase_source : 65c167644096a1b72fe5dfbb55837842f41377bb
The "mExternallyOwned" is used for gralloc buffer. We don't use the gralloc buffer now.
MozReview-Commit-ID: 7Gurpa3kdp0
--HG--
extra : rebase_source : 5c0bf4facba5ed2cc8772df78bb702965e77a4ab
There's a lot going on here, but it all fits under the idea of
being able to communicate about texture locking statuses
without spinning on IsReadLocked. This is a bit of a trade -
we could just always allocate/grab a texture from the pool,
which would put a smaller cap on the amount of time we can
possibly spend when a texture is locked. However, this eats
up more CPU and memory than waiting on the textures to unlock,
and could take longer, especially if there were a large number
of textures which we just need to wait for for a short amount
of time. In any case, we very rarely hit the case where we
actually need to wait on the sync IPC to the compositor - most
of the time the textures are already unlocked.
There is also an async IPC call in here, which we make before
flushing async paints. This just causes the compositor to
check whether the GPU is done with its textures or not and
unlock them if it is. This helps us avoid the case where we
take a long time painting asynchronously, turn IPC back on at
the end of that, and then have to wait for the compositor
to to get into TiledLayerBufferComposite::UseTiles before
getting a response. Specifically this eliminates several talos
regressions which use ASAP mode.
Lastly, there seem to be no other cases of static Monitors
being used. This seems like it falls under similar use cases
as StaticMutexes, so I added it in. I can move it into its own
file if we think it might be generally useful in the future.
MozReview-Commit-ID: IYQLwUqMxg2
--HG--
extra : rebase_source : 3624ad04aa01dac1cd38efb47764dc3a8fbd5fbd
The DirectMapTextureSource could let the compositor to read the buffer directly.
That could get rid of some memory copy operations during texture uploading.
MozReview-Commit-ID: CHhoR96P7VG
--HG--
extra : rebase_source : fbca3bd3b8af29939626e697909cc67e9a5b34cc
The "mExternallyOwned" is used for gralloc buffer. We don't use the gralloc buffer now.
MozReview-Commit-ID: 7Gurpa3kdp0
--HG--
extra : rebase_source : 00d74c0bc8e8e164571e05942768cf18d9cbce4d
Add a new TextureClientData type, AndroidNativeWindowTextureData,
backed by a SurfaceTexture in single-buffer mode. It uses the
NativeWindow API, which provides producer-side access to the buffer.
This provides a DrawTarget which can be used to paint directly in to
the SurfaceTexture, which can then be composited using a SurfaceTextureHost.
Due to API restrictions it is not possible to read from a NativeWindow
while the corresponding SurfaceTexture has ownership of the
buffer. TiledContentClient now handles that by painting the additional
region that it cannot copy from the front buffer, if required.
MozReview-Commit-ID: 1NZq6MQqwFq
--HG--
extra : rebase_source : 9d1db721d4892f3df033d43127489a85421e8863
This patch was generated automatically by the "modeline.py" script, available
here: https://github.com/amccreight/moz-source-tools/blob/master/modeline.py
For every file that is modified in this patch, the changes are as follows:
(1) The patch changes the file to use the exact C++ mode lines from the
Mozilla coding style guide, available here:
https://developer.mozilla.org/en-US/docs/Mozilla/Developer_guide/Coding_Style#Mode_Line
(2) The patch deletes any blank lines between the mode line & the MPL
boilerplate comment.
(3) If the file previously had the mode lines and MPL boilerplate in a
single contiguous C++ comment, then the patch splits them into
separate C++ comments, to match the boilerplate in the coding style.
MozReview-Commit-ID: 77D61xpSmIl
--HG--
extra : rebase_source : c6162fa3cf539a07177a19838324bf368faa162b
This patch was automatically generated. I found the files to be fixed in this
patch with the following command:
grep -r "^\* This Source Code" gfx
...and then I modified each of these files with the following script
(where $1 is the filename to be modified):
###
line1="\* This Source Code Form is subject to the terms of the Mozilla Public"
line2="\* License, v\. 2\.0\. If a copy of the MPL was not distributed with this"
line3="\* file, You can obtain one at http://mozilla\.org/MPL/2\.0/\. \*/"
# Insert 1 space at beginning:
sed -i s%"^$line1"%" $line1"% $1
sed -i s%"^$line2"%" $line2"% $1
sed -i s%"^$line3"%" $line3"% $1
###
MozReview-Commit-ID: HXBMrfnhlVr
--HG--
extra : rebase_source : de4c78563711f8366e2978c5199a5041875fbe38
