Let's reuse the logic from scalecache and call cserve2
functions when the scalecache should be used.
So, now, cserve2 server will not scale any image... This is
too computationally intensive for the server's main thread.
This is not optimal but makes a hell of a lot more sense for
the moment. (since cserve2 manages the SHM segments)
Wayland subsurfaces can be used as video surfaces too, similarly to
Ecore_X windows. However, they support a different set of features. Some
of them, like subsurface clipping and scaling, might be added in the
future, but so far we must work with what we have.
This commit allows to set an enum bitfield to the Video_Surface, with
the default value being one that will keep the same behavior as before,
for Ecore_X window. Thus, backward compatibility should not be broken.
It's possible to inform Evas that the surface in question is not able to
resize or scale, or that it's above or below the original canvas
surface. This allows Evas to show the surface itself, or use a buffer of
pixels instead, when the capabilities are not available.
If we are running on async render, some operations must be delayed, so
they will happen at the same time that the canvas rendering result gets
updated on the window/surface.
This reverts commit 1714fe93f4.
We actually want this type, it makes things clearer.
Conflicts:
src/tests/eo/function_overrides/function_overrides_inherit2.c
src/tests/eo/function_overrides/function_overrides_simple.c
src/tests/eo/suite/eo_test_class_simple.c
NOTE: I am tempted to mark evas_object_memfile_set() as deprecated due
to the forced memcpy it introduced and the fact that it is now a 3 lines
of code to do the same in a more efficient way.
Evas_Common.h should be used for the public header, and rather rename
evas_common.h internal header to another name.
Sa:
Evas_Common_Header.h -> Evas_Common.h
evas_common.h -> evas_common_private.h
Shouldn't have both Evas_Common.h and evas_common.h because of case
insensitive filesystems.
Evas_GL Direct rendering is an optimization path that renders
directly to the window if conditions are met. Because evas gl
backend used to re-render the entire screen, evas_gl direct
rendering didin't have to concern with partial region rendering.
Now that partial rendering/swapping has been applied to evas gl-
backend, evas_gl direct rendering also had to take into account
clip regions. in order to properly apply it, some adjustments
were made to the engine functions and etc.
For native surface rendering (glX, egl) in gl-backend, if pixel get callback
function is called for native rendering, there is a case where evas will
try to call evas_gl_common_context_flush() to flush its remaining commands
in its command queue while the context is set current to the native surface/
context that is called within the pixel get callback. So, I've added an
engine function that forces a flush before it enters the pixel get callback
function.
Instead of moving the objects by adding the framespace offset to them,
use this offset when rendering them. This way there's no change in the
object's geometry/position, it works correctly with map, and will be
automatically updated in case that the framespace values change (for
instance if one sets a window to borderless).
There are 2 main places where changes were needed:
- output redraws, when they come from an object being changed, must be
add the framespace offset to their damaged area;
- checks to see if the object is inside a given rendering area, must
also add this offset, since the object is actually being rendered on
a different position;