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weston/src/rpi-renderer.c

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rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
/*
* Copyright © 2012-2013 Raspberry Pi Foundation
*
* Permission to use, copy, modify, distribute, and sell this software and
* its documentation for any purpose is hereby granted without fee, provided
* that the above copyright notice appear in all copies and that both that
* copyright notice and this permission notice appear in supporting
* documentation, and that the name of the copyright holders not be used in
* advertising or publicity pertaining to distribution of the software
* without specific, written prior permission. The copyright holders make
* no representations about the suitability of this software for any
* purpose. It is provided "as is" without express or implied warranty.
*
* THE COPYRIGHT HOLDERS DISCLAIM ALL WARRANTIES WITH REGARD TO THIS
* SOFTWARE, INCLUDING ALL IMPLIED WARRANTIES OF MERCHANTABILITY AND
* FITNESS, IN NO EVENT SHALL THE COPYRIGHT HOLDERS BE LIABLE FOR ANY
* SPECIAL, INDIRECT OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES WHATSOEVER
* RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN ACTION OF
* CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF OR IN
* CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE.
*/
configure.ac: Enable AC_USE_SYSTEM_EXTENSIONS AC_USE_SYSTEM_EXTENSIONS enables _XOPEN_SOURCE, _GNU_SOURCE and similar macros to expose the largest extent of functionality supported by the underlying system. This is required since these macros are often limiting rather than merely additive, e.g. _XOPEN_SOURCE will actually on some systems hide declarations which are not part of the X/Open spec. Since this goes into config.h rather than the command line, ensure all source is consistently including config.h before anything else, including system libraries. This doesn't need to be guarded by a HAVE_CONFIG_H ifdef, which was only ever a hangover from the X.Org modular transition. Signed-off-by: Daniel Stone <daniel@fooishbar.org> [pq: rebased and converted more files]
12 years ago
#include "config.h"
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
#include <stdlib.h>
#include <assert.h>
#include <string.h>
#ifdef HAVE_BCM_HOST
# include <bcm_host.h>
#else
# include "rpi-bcm-stubs.h"
#endif
#include "compositor.h"
#include "rpi-renderer.h"
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
#ifdef ENABLE_EGL
#include <EGL/egl.h>
#include <EGL/eglext.h>
#include "weston-egl-ext.h"
#endif
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
/*
* Dispmanx API offers alpha-blended overlays for hardware compositing.
* The final composite consists of dispmanx elements, and their contents:
* the dispmanx resource assigned to the element. The elements may be
* scanned out directly, or composited to a temporary surface, depending on
* how the firmware decides to handle the scene. Updates to multiple elements
* may be queued in a single dispmanx update object, resulting in atomic and
* vblank synchronized display updates.
*
* To avoid tearing and display artifacts, the current dispmanx resource in a
* dispmanx element must not be touched. Therefore each element must be
* double-buffered, using two resources, the front and the back. While a
* dispmanx update is running, the both resources must be considered in use.
*
* A resource may be destroyed only, when the update removing the element has
* completed. Otherwise you risk showing an incomplete composition.
*/
#ifndef ELEMENT_CHANGE_LAYER
/* copied from interface/vmcs_host/vc_vchi_dispmanx.h of userland.git */
#define ELEMENT_CHANGE_LAYER (1<<0)
#define ELEMENT_CHANGE_OPACITY (1<<1)
#define ELEMENT_CHANGE_DEST_RECT (1<<2)
#define ELEMENT_CHANGE_SRC_RECT (1<<3)
#define ELEMENT_CHANGE_MASK_RESOURCE (1<<4)
#define ELEMENT_CHANGE_TRANSFORM (1<<5)
#endif
#if 0
#define DBG(...) \
weston_log(__VA_ARGS__)
#else
#define DBG(...) do {} while (0)
#endif
/* If we had a fully featured vc_dispmanx_resource_write_data()... */
/*#define HAVE_RESOURCE_WRITE_DATA_RECT 1*/
struct rpi_resource {
DISPMANX_RESOURCE_HANDLE_T handle;
int width;
int height; /* height of the image (valid pixel data) */
int stride; /* bytes */
int buffer_height; /* height of the buffer */
VC_IMAGE_TYPE_T ifmt;
};
struct rpir_output;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
struct rpir_egl_buffer {
struct weston_buffer_reference buffer_ref;
DISPMANX_RESOURCE_HANDLE_T resource_handle;
};
enum buffer_type {
BUFFER_TYPE_NULL,
BUFFER_TYPE_SHM,
BUFFER_TYPE_EGL
};
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
struct rpir_surface {
struct weston_surface *surface;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct wl_list views;
int visible_views;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
int need_swap;
int single_buffer;
struct rpi_resource resources[2];
struct rpi_resource *front;
struct rpi_resource *back;
pixman_region32_t prev_damage;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
struct rpir_egl_buffer *egl_front;
struct rpir_egl_buffer *egl_back;
struct rpir_egl_buffer *egl_old_front;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
struct weston_buffer_reference buffer_ref;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
enum buffer_type buffer_type;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
};
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct rpir_view {
struct rpir_surface *surface;
struct wl_list surface_link;
struct weston_view *view;
/* If link is empty, the view is guaranteed to not be on screen,
* i.e. updates removing Elements have completed.
*/
struct wl_list link;
DISPMANX_ELEMENT_HANDLE_T handle;
int layer;
};
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
struct rpir_output {
DISPMANX_DISPLAY_HANDLE_T display;
DISPMANX_UPDATE_HANDLE_T update;
struct weston_matrix matrix;
/* all Elements currently on screen */
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct wl_list view_list; /* struct rpir_surface::link */
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
/* Elements just removed, waiting for update completion */
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct wl_list view_cleanup_list; /* struct rpir_surface::link */
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
struct rpi_resource capture_buffer;
uint8_t *capture_data;
};
struct rpi_renderer {
struct weston_renderer base;
int single_buffer;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
#ifdef ENABLE_EGL
EGLDisplay egl_display;
PFNEGLBINDWAYLANDDISPLAYWL bind_display;
PFNEGLUNBINDWAYLANDDISPLAYWL unbind_display;
PFNEGLQUERYWAYLANDBUFFERWL query_buffer;
#endif
int has_bind_display;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
};
static inline struct rpir_surface *
to_rpir_surface(struct weston_surface *surface)
{
return surface->renderer_state;
}
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
static inline struct rpir_view *
to_rpir_view(struct weston_view *view)
{
return view->renderer_state;
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
static inline struct rpir_output *
to_rpir_output(struct weston_output *output)
{
return output->renderer_state;
}
static inline struct rpi_renderer *
to_rpi_renderer(struct weston_compositor *compositor)
{
return container_of(compositor->renderer, struct rpi_renderer, base);
}
static inline int
int_max(int a, int b)
{
return a > b ? a : b;
}
static inline void
int_swap(int *a, int *b)
{
int tmp = *a;
*a = *b;
*b = tmp;
}
static uint8_t
float2uint8(float f)
{
int v = roundf(f * 255.0f);
return v < 0 ? 0 : (v > 255 ? 255 : v);
}
static void
rpi_resource_init(struct rpi_resource *resource)
{
resource->handle = DISPMANX_NO_HANDLE;
}
static void
rpi_resource_release(struct rpi_resource *resource)
{
if (resource->handle == DISPMANX_NO_HANDLE)
return;
vc_dispmanx_resource_delete(resource->handle);
DBG("resource %p release\n", resource);
resource->handle = DISPMANX_NO_HANDLE;
}
static int
rpi_resource_realloc(struct rpi_resource *resource, VC_IMAGE_TYPE_T ifmt,
int width, int height, int stride, int buffer_height)
{
uint32_t dummy;
if (resource->handle != DISPMANX_NO_HANDLE &&
resource->width == width &&
resource->height == height &&
resource->stride == stride &&
resource->buffer_height == buffer_height &&
resource->ifmt == ifmt)
return 0;
rpi_resource_release(resource);
/* NOTE: if stride is not a multiple of 16 pixels in bytes,
* the vc_image_* functions may break. Dispmanx elements
* should be fine, though. Buffer_height probably has similar
* constraints, too.
*/
resource->handle =
vc_dispmanx_resource_create(ifmt,
width | (stride << 16),
height | (buffer_height << 16),
&dummy);
if (resource->handle == DISPMANX_NO_HANDLE)
return -1;
resource->width = width;
resource->height = height;
resource->stride = stride;
resource->buffer_height = buffer_height;
resource->ifmt = ifmt;
DBG("resource %p alloc\n", resource);
return 1;
}
/* A firmware workaround for broken ALPHA_PREMULT + ALPHA_MIX hardware. */
#define PREMULT_ALPHA_FLAG (1 << 31)
static VC_IMAGE_TYPE_T
Add a weston_buffer structure to replace wl_buffer This commit adds a weston_buffer structure to replace wl_buffer. This way we can hold onto buffers by just their resource. In order to do this, the every renderer.attach function has to fill in the weston_buffer.width and weston_buffer.height fields. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
12 years ago
shm_buffer_get_vc_format(struct wl_shm_buffer *buffer)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
{
switch (wl_shm_buffer_get_format(buffer)) {
case WL_SHM_FORMAT_XRGB8888:
return VC_IMAGE_XRGB8888;
case WL_SHM_FORMAT_ARGB8888:
return VC_IMAGE_ARGB8888 | PREMULT_ALPHA_FLAG;
rpi: Add support for SHM buffers in RGB565 format
11 years ago
case WL_SHM_FORMAT_RGB565:
return VC_IMAGE_RGB565;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
default:
/* invalid format */
return VC_IMAGE_MIN;
}
}
static int
Add a weston_buffer structure to replace wl_buffer This commit adds a weston_buffer structure to replace wl_buffer. This way we can hold onto buffers by just their resource. In order to do this, the every renderer.attach function has to fill in the weston_buffer.width and weston_buffer.height fields. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
12 years ago
rpi_resource_update(struct rpi_resource *resource, struct weston_buffer *buffer,
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
pixman_region32_t *region)
{
pixman_region32_t write_region;
pixman_box32_t *r;
VC_RECT_T rect;
VC_IMAGE_TYPE_T ifmt;
uint32_t *pixels;
int width;
int height;
int stride;
int ret;
#ifdef HAVE_RESOURCE_WRITE_DATA_RECT
int n;
#endif
if (!buffer)
return -1;
Add a weston_buffer structure to replace wl_buffer This commit adds a weston_buffer structure to replace wl_buffer. This way we can hold onto buffers by just their resource. In order to do this, the every renderer.attach function has to fill in the weston_buffer.width and weston_buffer.height fields. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
12 years ago
ifmt = shm_buffer_get_vc_format(buffer->shm_buffer);
width = wl_shm_buffer_get_width(buffer->shm_buffer);
height = wl_shm_buffer_get_height(buffer->shm_buffer);
stride = wl_shm_buffer_get_stride(buffer->shm_buffer);
pixels = wl_shm_buffer_get_data(buffer->shm_buffer);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
ret = rpi_resource_realloc(resource, ifmt & ~PREMULT_ALPHA_FLAG,
width, height, stride, height);
if (ret < 0)
return -1;
pixman_region32_init_rect(&write_region, 0, 0, width, height);
if (ret == 0)
pixman_region32_intersect(&write_region,
&write_region, region);
#ifdef HAVE_RESOURCE_WRITE_DATA_RECT
/* XXX: Can this do a format conversion, so that scanout does not have to? */
r = pixman_region32_rectangles(&write_region, &n);
while (n--) {
vc_dispmanx_rect_set(&rect, r[n].x1, r[n].y1,
r[n].x2 - r[n].x1, r[n].y2 - r[n].y1);
ret = vc_dispmanx_resource_write_data_rect(resource->handle,
ifmt, stride,
pixels, &rect,
rect.x, rect.y);
DBG("%s: %p %ux%u@%u,%u, ret %d\n", __func__, resource,
rect.width, rect.height, rect.x, rect.y, ret);
if (ret)
break;
}
#else
/* vc_dispmanx_resource_write_data() ignores ifmt,
* rect.x, rect.width, and uses stride only for computing
* the size of the transfer as rect.height * stride.
* Therefore we can only write rows starting at x=0.
* To be able to write more than one scanline at a time,
* the resource must have been created with the same stride
* as used here, and we must write full scanlines.
*/
r = pixman_region32_extents(&write_region);
vc_dispmanx_rect_set(&rect, 0, r->y1, width, r->y2 - r->y1);
ret = vc_dispmanx_resource_write_data(resource->handle,
ifmt, stride, pixels, &rect);
DBG("%s: %p %ux%u@%u,%u, ret %d\n", __func__, resource,
width, r->y2 - r->y1, 0, r->y1, ret);
#endif
pixman_region32_fini(&write_region);
return ret ? -1 : 0;
}
static struct rpir_surface *
rpir_surface_create(struct rpi_renderer *renderer)
{
struct rpir_surface *surface;
surface = calloc(1, sizeof *surface);
if (!surface)
return NULL;
rpi: Initialize surface's list of views
11 years ago
wl_list_init(&surface->views);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
surface->visible_views = 0;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
surface->single_buffer = renderer->single_buffer;
rpi_resource_init(&surface->resources[0]);
rpi_resource_init(&surface->resources[1]);
surface->front = &surface->resources[0];
if (surface->single_buffer)
surface->back = &surface->resources[0];
else
surface->back = &surface->resources[1];
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
surface->buffer_type = BUFFER_TYPE_NULL;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
pixman_region32_init(&surface->prev_damage);
return surface;
}
static void
rpir_surface_destroy(struct rpir_surface *surface)
{
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (surface->visible_views)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
weston_log("ERROR rpi: destroying on-screen element\n");
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
assert(wl_list_empty(&surface->views));
if (surface->surface)
surface->surface->renderer_state = NULL;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
pixman_region32_fini(&surface->prev_damage);
rpi_resource_release(&surface->resources[0]);
rpi_resource_release(&surface->resources[1]);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
DBG("rpir_surface %p destroyed (%u)\n", surface, surface->visible_views);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
if (surface->egl_back != NULL) {
weston_buffer_reference(&surface->egl_back->buffer_ref, NULL);
free(surface->egl_back);
surface->egl_back = NULL;
}
if (surface->egl_front != NULL) {
weston_buffer_reference(&surface->egl_front->buffer_ref, NULL);
free(surface->egl_front);
surface->egl_front = NULL;
}
if (surface->egl_old_front != NULL) {
weston_buffer_reference(&surface->egl_old_front->buffer_ref, NULL);
free(surface->egl_old_front);
surface->egl_old_front = NULL;
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
free(surface);
}
static int
Add a weston_buffer structure to replace wl_buffer This commit adds a weston_buffer structure to replace wl_buffer. This way we can hold onto buffers by just their resource. In order to do this, the every renderer.attach function has to fill in the weston_buffer.width and weston_buffer.height fields. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
12 years ago
rpir_surface_damage(struct rpir_surface *surface, struct weston_buffer *buffer,
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
pixman_region32_t *damage)
{
pixman_region32_t upload;
int ret;
if (!pixman_region32_not_empty(damage))
return 0;
DBG("rpir_surface %p update resource %p\n", surface, surface->back);
/* XXX: todo: if no surface->handle, update front buffer directly
* to avoid creating a new back buffer */
if (surface->single_buffer) {
ret = rpi_resource_update(surface->front, buffer, damage);
} else {
pixman_region32_init(&upload);
pixman_region32_union(&upload, &surface->prev_damage, damage);
ret = rpi_resource_update(surface->back, buffer, &upload);
pixman_region32_fini(&upload);
}
pixman_region32_copy(&surface->prev_damage, damage);
surface->need_swap = 1;
return ret;
}
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
static struct rpir_view *
rpir_view_create(struct rpir_surface *surface)
{
struct rpir_view *view;
view = calloc(1, sizeof *view);
if (!view)
return NULL;
view->surface = surface;
wl_list_insert(&surface->views, &view->surface_link);
wl_list_init(&view->link);
view->handle = DISPMANX_NO_HANDLE;
return view;
}
static void
rpir_view_destroy(struct rpir_view *view)
{
wl_list_remove(&view->link);
if (view->handle != DISPMANX_NO_HANDLE) {
view->surface->visible_views--;
weston_log("ERROR rpi: destroying on-screen element\n");
}
if (view->view)
view->view->renderer_state = NULL;
wl_list_remove(&view->surface_link);
if (wl_list_empty(&view->surface->views) && view->surface->surface == NULL)
rpir_surface_destroy(view->surface);
DBG("rpir_view %p destroyed (%d)\n", view, view->handle);
free(view);
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
static void
matrix_type_str(struct weston_matrix *matrix, char *buf, int len)
{
static const char types[33] = "TSRO";
unsigned mask = matrix->type;
int i = 0;
while (mask && i < len - 1) {
if (mask & (1u << i))
*buf++ = types[i];
mask &= ~(1u << i);
i++;
}
*buf = '\0';
}
static void
log_print_matrix(struct weston_matrix *matrix)
{
char typestr[6];
float *d = matrix->d;
matrix_type_str(matrix, typestr, sizeof typestr);
weston_log_continue("%14.6e %14.6e %14.6e %14.6e\n",
d[0], d[4], d[8], d[12]);
weston_log_continue("%14.6e %14.6e %14.6e %14.6e\n",
d[1], d[5], d[9], d[13]);
weston_log_continue("%14.6e %14.6e %14.6e %14.6e\n",
d[2], d[6], d[10], d[14]);
weston_log_continue("%14.6e %14.6e %14.6e %14.6e type: %s\n",
d[3], d[7], d[11], d[15], typestr);
}
static void
warn_bad_matrix(struct weston_matrix *total, struct weston_matrix *output,
struct weston_matrix *surface)
{
static int n_warn;
char typestr[6];
if (n_warn++ == 10)
weston_log("%s: not showing more warnings\n", __func__);
if (n_warn > 10)
return;
weston_log("%s: warning: total transformation is not renderable:\n",
__func__);
log_print_matrix(total);
matrix_type_str(surface, typestr, sizeof typestr);
weston_log_continue("surface matrix type: %s\n", typestr);
matrix_type_str(output, typestr, sizeof typestr);
weston_log_continue("output matrix type: %s\n", typestr);
}
/*#define SURFACE_TRANSFORM */
static int
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
rpir_view_compute_rects(struct rpir_view *view,
VC_RECT_T *src_rect, VC_RECT_T *dst_rect,
VC_IMAGE_TRANSFORM_T *flipmask)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
{
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct weston_output *output_base = view->view->surface->output;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
struct rpir_output *output = to_rpir_output(output_base);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct weston_matrix matrix = view->view->transform.matrix;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
VC_IMAGE_TRANSFORM_T flipt = 0;
int src_x, src_y;
int dst_x, dst_y;
int src_width, src_height;
int dst_width, dst_height;
struct weston_vector p1 = {{ 0.0f, 0.0f, 0.0f, 1.0f }};
struct weston_vector p2 = {{ 0.0f, 0.0f, 0.0f, 1.0f }};
int t;
int over;
/* XXX: take buffer transform into account */
/* src is in 16.16, dst is in 32.0 fixed point.
* Negative values are not allowed in VC_RECT_T.
* Clip size to output boundaries, firmware ignores
* huge elements like 8192x8192.
*/
src_x = 0 << 16;
src_y = 0 << 16;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (view->surface->buffer_type == BUFFER_TYPE_EGL) {
struct weston_buffer *buffer =
view->surface->egl_front->buffer_ref.buffer;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
src_width = buffer->width << 16;
src_height = buffer->height << 16;
} else {
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
src_width = view->surface->front->width << 16;
src_height = view->surface->front->height << 16;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
weston_matrix_multiply(&matrix, &output->matrix);
#ifdef SURFACE_TRANSFORM
if (matrix.type >= WESTON_MATRIX_TRANSFORM_OTHER) {
#else
if (matrix.type >= WESTON_MATRIX_TRANSFORM_ROTATE) {
#endif
warn_bad_matrix(&matrix, &output->matrix,
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
&view->view->transform.matrix);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
} else {
if (matrix.type & WESTON_MATRIX_TRANSFORM_ROTATE) {
if (fabsf(matrix.d[0]) < 1e-4f &&
fabsf(matrix.d[5]) < 1e-4f) {
flipt |= TRANSFORM_TRANSPOSE;
} else if (fabsf(matrix.d[1]) < 1e-4 &&
fabsf(matrix.d[4]) < 1e-4) {
/* no transpose */
} else {
warn_bad_matrix(&matrix, &output->matrix,
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
&view->view->transform.matrix);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
}
}
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
p2.f[0] = view->view->geometry.width;
p2.f[1] = view->view->geometry.height;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
/* transform top-left and bot-right corner into screen coordinates */
weston_matrix_transform(&matrix, &p1);
weston_matrix_transform(&matrix, &p2);
/* Compute the destination rectangle on screen, converting
* negative dimensions to flips.
*/
dst_width = round(p2.f[0] - p1.f[0]);
if (dst_width < 0) {
dst_x = round(p2.f[0]);
dst_width = -dst_width;
if (!(flipt & TRANSFORM_TRANSPOSE))
flipt |= TRANSFORM_HFLIP;
else
flipt |= TRANSFORM_VFLIP;
} else {
dst_x = round(p1.f[0]);
}
dst_height = round(p2.f[1] - p1.f[1]);
if (dst_height < 0) {
dst_y = round(p2.f[1]);
dst_height = -dst_height;
if (!(flipt & TRANSFORM_TRANSPOSE))
flipt |= TRANSFORM_VFLIP;
else
flipt |= TRANSFORM_HFLIP;
} else {
dst_y = round(p1.f[1]);
}
if (dst_width == 0 || dst_height == 0) {
DBG("ignored, zero surface area before clipping\n");
return -1;
}
#ifdef SURFACE_TRANSFORM
/* Dispmanx works as if you flipped the whole screen, when
* you flip an element. But, we want to flip an element in place.
* XXX: fixme
*/
if (flipt & TRANSFORM_HFLIP)
dst_x = output_base->width - dst_x;
if (flipt & TRANSFORM_VFLIP)
dst_y = output_base->height - dst_y;
if (flipt & TRANSFORM_TRANSPOSE) {
int_swap(&dst_x, &dst_y);
int_swap(&dst_width, &dst_height);
}
#else
switch (output_base->transform) {
case WL_OUTPUT_TRANSFORM_FLIPPED:
flipt = TRANSFORM_HFLIP;
break;
case WL_OUTPUT_TRANSFORM_NORMAL:
flipt = 0;
break;
case WL_OUTPUT_TRANSFORM_FLIPPED_90:
flipt = TRANSFORM_HFLIP | TRANSFORM_VFLIP | TRANSFORM_TRANSPOSE;
break;
case WL_OUTPUT_TRANSFORM_90:
flipt = TRANSFORM_VFLIP | TRANSFORM_TRANSPOSE;
break;
case WL_OUTPUT_TRANSFORM_FLIPPED_180:
flipt = TRANSFORM_VFLIP;
break;
case WL_OUTPUT_TRANSFORM_180:
flipt = TRANSFORM_HFLIP | TRANSFORM_VFLIP;
break;
case WL_OUTPUT_TRANSFORM_FLIPPED_270:
flipt = TRANSFORM_TRANSPOSE;
break;
case WL_OUTPUT_TRANSFORM_270:
flipt = TRANSFORM_HFLIP | TRANSFORM_TRANSPOSE;
break;
default:
break;
}
#endif
/* clip destination rectangle to screen dimensions */
if (dst_x < 0) {
t = (int64_t)dst_x * src_width / dst_width;
src_width += t;
dst_width += dst_x;
src_x -= t;
dst_x = 0;
}
if (dst_y < 0) {
t = (int64_t)dst_y * src_height / dst_height;
src_height += t;
dst_height += dst_y;
src_y -= t;
dst_y = 0;
}
over = dst_x + dst_width - output_base->width;
if (over > 0) {
t = (int64_t)over * src_width / dst_width;
src_width -= t;
dst_width -= over;
}
over = dst_y + dst_height - output_base->height;
if (over > 0) {
t = (int64_t)over * src_height / dst_height;
src_height -= t;
dst_height -= over;
}
src_width = int_max(src_width, 0);
src_height = int_max(src_height, 0);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
DBG("rpir_view %p %dx%d: p1 %f, %f; p2 %f, %f\n", view,
view->view->geometry.width,
view->view->geometry.height,
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
p1.f[0], p1.f[1], p2.f[0], p2.f[1]);
DBG("src rect %d;%d, %d;%d, %d;%dx%d;%d\n",
src_x >> 16, src_x & 0xffff,
src_y >> 16, src_y & 0xffff,
src_width >> 16, src_width & 0xffff,
src_height >> 16, src_height & 0xffff);
DBG("dest rect %d, %d, %dx%d%s%s%s\n",
dst_x, dst_y, dst_width, dst_height,
(flipt & TRANSFORM_HFLIP) ? " hflip" : "",
(flipt & TRANSFORM_VFLIP) ? " vflip" : "",
(flipt & TRANSFORM_TRANSPOSE) ? " transp" : "");
assert(src_x >= 0);
assert(src_y >= 0);
assert(dst_x >= 0);
assert(dst_y >= 0);
if (dst_width < 1 || dst_height < 1) {
DBG("ignored, zero surface area after clipping\n");
return -1;
}
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
/* EGL buffers will be upside-down related to what DispmanX expects */
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (view->surface->buffer_type == BUFFER_TYPE_EGL)
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
flipt ^= TRANSFORM_VFLIP;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
vc_dispmanx_rect_set(src_rect, src_x, src_y, src_width, src_height);
vc_dispmanx_rect_set(dst_rect, dst_x, dst_y, dst_width, dst_height);
*flipmask = flipt;
return 0;
}
static DISPMANX_TRANSFORM_T
vc_image2dispmanx_transform(VC_IMAGE_TRANSFORM_T t)
{
/* XXX: uhh, are these right? */
switch (t) {
case VC_IMAGE_ROT0:
return DISPMANX_NO_ROTATE;
case VC_IMAGE_MIRROR_ROT0:
return DISPMANX_FLIP_HRIZ;
case VC_IMAGE_MIRROR_ROT180:
return DISPMANX_FLIP_VERT;
case VC_IMAGE_ROT180:
return DISPMANX_ROTATE_180;
case VC_IMAGE_MIRROR_ROT90:
return DISPMANX_ROTATE_90 | DISPMANX_FLIP_HRIZ;
case VC_IMAGE_ROT270:
return DISPMANX_ROTATE_270;
case VC_IMAGE_ROT90:
return DISPMANX_ROTATE_90;
case VC_IMAGE_MIRROR_ROT270:
return DISPMANX_ROTATE_270 | DISPMANX_FLIP_VERT;
default:
assert(0 && "bad VC_IMAGE_TRANSFORM_T");
return DISPMANX_NO_ROTATE;
}
}
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
static DISPMANX_RESOURCE_HANDLE_T
rpir_surface_get_resource(struct rpir_surface *surface)
{
switch (surface->buffer_type) {
case BUFFER_TYPE_SHM:
case BUFFER_TYPE_NULL:
return surface->front->handle;
case BUFFER_TYPE_EGL:
if (surface->egl_front != NULL)
return surface->egl_front->resource_handle;
default:
return DISPMANX_NO_HANDLE;
}
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
static int
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
rpir_view_dmx_add(struct rpir_view *view, struct rpir_output *output,
DISPMANX_UPDATE_HANDLE_T update, int layer)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
{
/* Do not use DISPMANX_FLAGS_ALPHA_PREMULT here.
* If you define PREMULT and ALPHA_MIX, the hardware will not
* multiply the source color with the element alpha, leading to
* bad colors. Instead, we define PREMULT during pixel data upload.
*/
VC_DISPMANX_ALPHA_T alphasetup = {
DISPMANX_FLAGS_ALPHA_FROM_SOURCE |
DISPMANX_FLAGS_ALPHA_MIX,
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
float2uint8(view->view->alpha), /* opacity 0-255 */
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
0 /* mask resource handle */
};
VC_RECT_T dst_rect;
VC_RECT_T src_rect;
VC_IMAGE_TRANSFORM_T flipmask;
int ret;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
DISPMANX_RESOURCE_HANDLE_T resource_handle;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
resource_handle = rpir_surface_get_resource(view->surface);
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
if (resource_handle == DISPMANX_NO_HANDLE) {
weston_log("%s: no buffer yet, aborting\n", __func__);
return 0;
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
ret = rpir_view_compute_rects(view, &src_rect, &dst_rect, &flipmask);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
if (ret < 0)
return 0;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
view->handle = vc_dispmanx_element_add(
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
update,
output->display,
layer,
&dst_rect,
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
resource_handle,
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
&src_rect,
DISPMANX_PROTECTION_NONE,
&alphasetup,
NULL /* clamp */,
vc_image2dispmanx_transform(flipmask));
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
DBG("rpir_surface %p add %u, alpha %f resource %d\n", view,
view->handle, view->view->alpha, resource_handle);
if (view->handle == DISPMANX_NO_HANDLE)
return -1;
view->surface->visible_views++;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
return 1;
}
static void
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
rpir_view_dmx_swap(struct rpir_view *view,
DISPMANX_UPDATE_HANDLE_T update)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
{
VC_RECT_T rect;
pixman_box32_t *r;
/* XXX: skip, iff resource was not reallocated, and single-buffering */
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
vc_dispmanx_element_change_source(update, view->handle,
view->surface->front->handle);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
/* This is current damage now, after rpir_surface_damage() */
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
r = pixman_region32_extents(&view->surface->prev_damage);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
vc_dispmanx_rect_set(&rect, r->x1, r->y1,
r->x2 - r->x1, r->y2 - r->y1);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
vc_dispmanx_element_modified(update, view->handle, &rect);
DBG("rpir_view %p swap\n", view);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
static int
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
rpir_view_dmx_move(struct rpir_view *view,
DISPMANX_UPDATE_HANDLE_T update, int layer)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
{
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
uint8_t alpha = float2uint8(view->view->alpha);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
VC_RECT_T dst_rect;
VC_RECT_T src_rect;
VC_IMAGE_TRANSFORM_T flipmask;
int ret;
/* XXX: return early, if all attributes stay the same */
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (view->surface->buffer_type == BUFFER_TYPE_EGL) {
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
DISPMANX_RESOURCE_HANDLE_T resource_handle;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
resource_handle = rpir_surface_get_resource(view->surface);
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
if (resource_handle == DISPMANX_NO_HANDLE) {
weston_log("%s: no buffer yet, aborting\n", __func__);
return 0;
}
vc_dispmanx_element_change_source(update,
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
view->handle,
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
resource_handle);
}
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
ret = rpir_view_compute_rects(view, &src_rect, &dst_rect, &flipmask);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
if (ret < 0)
return 0;
ret = vc_dispmanx_element_change_attributes(
update,
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
view->handle,
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
ELEMENT_CHANGE_LAYER |
ELEMENT_CHANGE_OPACITY |
ELEMENT_CHANGE_TRANSFORM |
ELEMENT_CHANGE_DEST_RECT |
ELEMENT_CHANGE_SRC_RECT,
layer,
alpha,
&dst_rect,
&src_rect,
DISPMANX_NO_HANDLE,
/* This really is DISPMANX_TRANSFORM_T, no matter
* what the header says. */
vc_image2dispmanx_transform(flipmask));
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
DBG("rpir_view %p move\n", view);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
if (ret)
return -1;
return 1;
}
static void
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
rpir_view_dmx_remove(struct rpir_view *view,
DISPMANX_UPDATE_HANDLE_T update)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
{
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (view->handle == DISPMANX_NO_HANDLE)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
return;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
vc_dispmanx_element_remove(update, view->handle);
DBG("rpir_view %p remove %u\n", view, view->handle);
view->handle = DISPMANX_NO_HANDLE;
view->surface->visible_views--;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
static void
rpir_surface_swap_pointers(struct rpir_surface *surface)
{
struct rpi_resource *tmp;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (surface->buffer_type == BUFFER_TYPE_EGL) {
if (surface->egl_back != NULL) {
assert(surface->egl_old_front == NULL);
surface->egl_old_front = surface->egl_front;
surface->egl_front = surface->egl_back;
surface->egl_back = NULL;
}
} else {
tmp = surface->front;
surface->front = surface->back;
surface->back = tmp;
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
DBG("new back %p, new front %p\n", surface->back, surface->front);
}
static int
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
is_view_not_visible(struct weston_view *view)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
{
/* Return true, if surface is guaranteed to be totally obscured. */
int ret;
pixman_region32_t unocc;
pixman_region32_init(&unocc);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
pixman_region32_subtract(&unocc, &view->transform.boundingbox,
&view->clip);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
ret = !pixman_region32_not_empty(&unocc);
pixman_region32_fini(&unocc);
return ret;
}
static void
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
rpir_view_update(struct rpir_view *view, struct rpir_output *output,
DISPMANX_UPDATE_HANDLE_T update, int layer)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
{
int ret;
int obscured;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
obscured = is_view_not_visible(view->view);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
if (obscured) {
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
DBG("rpir_view %p totally obscured.\n", view);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_remove(&view->link);
if (view->handle == DISPMANX_NO_HANDLE) {
wl_list_init(&view->link);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
} else {
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
rpir_view_dmx_remove(view, update);
wl_list_insert(&output->view_cleanup_list,
&view->link);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
goto out;
}
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (view->handle == DISPMANX_NO_HANDLE) {
ret = rpir_view_dmx_add(view, output, update, layer);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
if (ret == 0) {
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_remove(&view->link);
wl_list_init(&view->link);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
} else if (ret < 0) {
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
weston_log("ERROR rpir_view_dmx_add() failed.\n");
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
} else {
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (view->surface->need_swap)
rpir_view_dmx_swap(view, update);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
ret = rpir_view_dmx_move(view, update, layer);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
if (ret == 0) {
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
rpir_view_dmx_remove(view, update);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_remove(&view->link);
wl_list_insert(&output->view_cleanup_list,
&view->link);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
} else if (ret < 0) {
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
weston_log("ERROR rpir_view_dmx_move() failed.\n");
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
}
out:
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
view->layer = layer;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
static int
rpi_renderer_read_pixels(struct weston_output *base,
pixman_format_code_t format, void *pixels,
uint32_t x, uint32_t y,
uint32_t width, uint32_t height)
{
struct rpir_output *output = to_rpir_output(base);
struct rpi_resource *buffer = &output->capture_buffer;
VC_RECT_T rect;
uint32_t fb_width, fb_height;
uint32_t dst_pitch;
uint32_t i;
int ret;
Rename current, origin, scale, origin_scale This patch renames that fields to have consistent names.
11 years ago
fb_width = base->current_mode->width;
fb_height = base->current_mode->height;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
DBG("%s(%u, %u, %u, %u), resource %p\n", __func__,
x, y, width, height, buffer);
if (format != PIXMAN_a8r8g8b8) {
weston_log("rpi-renderer error: bad read_format\n");
return -1;
}
dst_pitch = fb_width * 4;
if (buffer->handle == DISPMANX_NO_HANDLE) {
free(output->capture_data);
output->capture_data = NULL;
ret = rpi_resource_realloc(buffer, VC_IMAGE_ARGB8888,
fb_width, fb_height,
dst_pitch, fb_height);
if (ret < 0) {
weston_log("rpi-renderer error: "
"allocating read buffer failed\n");
return -1;
}
ret = vc_dispmanx_snapshot(output->display, buffer->handle,
VC_IMAGE_ROT0);
if (ret) {
weston_log("rpi-renderer error: "
"vc_dispmanx_snapshot returned %d\n", ret);
return -1;
}
DBG("%s: snapshot done.\n", __func__);
}
/*
* If vc_dispmanx_resource_read_data was able to read sub-rectangles,
* we could read directly into 'pixels'. But it cannot, it does not
* use rect.x or rect.width, and does this:
* host_start = (uint8_t *)dst_address + (dst_pitch * p_rect->y);
* In other words, it is only good for reading the full buffer in
* one go.
*/
vc_dispmanx_rect_set(&rect, 0, 0, fb_width, fb_height);
if (x == 0 && y == 0 && width == fb_width && height == fb_height) {
ret = vc_dispmanx_resource_read_data(buffer->handle, &rect,
pixels, dst_pitch);
if (ret) {
weston_log("rpi-renderer error: "
"resource_read_data returned %d\n", ret);
return -1;
}
DBG("%s: full frame done.\n", __func__);
return 0;
}
if (!output->capture_data) {
output->capture_data = malloc(fb_height * dst_pitch);
if (!output->capture_data) {
weston_log("rpi-renderer error: "
"out of memory\n");
return -1;
}
ret = vc_dispmanx_resource_read_data(buffer->handle, &rect,
output->capture_data,
dst_pitch);
if (ret) {
weston_log("rpi-renderer error: "
"resource_read_data returned %d\n", ret);
return -1;
}
}
for (i = 0; i < height; i++) {
uint8_t *src = output->capture_data +
(y + i) * dst_pitch + x * 4;
uint8_t *dst = (uint8_t *)pixels + i * width * 4;
memcpy(dst, src, width * 4);
}
return 0;
}
static void
rpir_output_dmx_remove_all(struct rpir_output *output,
DISPMANX_UPDATE_HANDLE_T update)
{
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct rpir_view *view;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
while (!wl_list_empty(&output->view_list)) {
view = container_of(output->view_list.next,
struct rpir_view, link);
rpir_view_dmx_remove(view, update);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_remove(&view->link);
wl_list_insert(&output->view_cleanup_list, &view->link);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
}
static void
output_compute_matrix(struct weston_output *base)
{
struct rpir_output *output = to_rpir_output(base);
struct weston_matrix *matrix = &output->matrix;
const float half_w = 0.5f * base->width;
const float half_h = 0.5f * base->height;
float mag;
float dx, dy;
weston_matrix_init(matrix);
weston_matrix_translate(matrix, -base->x, -base->y, 0.0f);
#ifdef SURFACE_TRANSFORM
weston_matrix_translate(matrix, -half_w, -half_h, 0.0f);
switch (base->transform) {
case WL_OUTPUT_TRANSFORM_FLIPPED:
weston_matrix_scale(matrix, -1.0f, 1.0f, 1.0f);
case WL_OUTPUT_TRANSFORM_NORMAL:
/* weston_matrix_rotate_xy(matrix, 1.0f, 0.0f); no-op */
weston_matrix_translate(matrix, half_w, half_h, 0.0f);
break;
case WL_OUTPUT_TRANSFORM_FLIPPED_90:
weston_matrix_scale(matrix, -1.0f, 1.0f, 1.0f);
case WL_OUTPUT_TRANSFORM_90:
weston_matrix_rotate_xy(matrix, 0.0f, 1.0f);
weston_matrix_translate(matrix, half_h, half_w, 0.0f);
break;
case WL_OUTPUT_TRANSFORM_FLIPPED_180:
weston_matrix_scale(matrix, -1.0f, 1.0f, 1.0f);
case WL_OUTPUT_TRANSFORM_180:
weston_matrix_rotate_xy(matrix, -1.0f, 0.0f);
weston_matrix_translate(matrix, half_w, half_h, 0.0f);
break;
case WL_OUTPUT_TRANSFORM_FLIPPED_270:
weston_matrix_scale(matrix, -1.0f, 1.0f, 1.0f);
case WL_OUTPUT_TRANSFORM_270:
weston_matrix_rotate_xy(matrix, 0.0f, -1.0f);
weston_matrix_translate(matrix, half_h, half_w, 0.0f);
break;
default:
break;
}
#endif
if (base->zoom.active) {
/* The base->zoom stuff is in GL coordinate system */
mag = 1.0f / (1.0f - base->zoom.spring_z.current);
dx = -(base->zoom.trans_x + 1.0f) * half_w;
dy = -(base->zoom.trans_y + 1.0f) * half_h;
weston_matrix_translate(matrix, dx, dy, 0.0f);
weston_matrix_scale(matrix, mag, mag, 1.0f);
weston_matrix_translate(matrix, half_w, half_h, 0.0f);
}
}
/* Note: this won't work right for multiple outputs. A DispmanX Element
* is tied to one DispmanX Display, i.e. output.
*/
static void
rpi_renderer_repaint_output(struct weston_output *base,
pixman_region32_t *output_damage)
{
struct weston_compositor *compositor = base->compositor;
struct rpir_output *output = to_rpir_output(base);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct weston_view *wv;
struct rpir_view *view;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
struct wl_list done_list;
int layer = 1;
assert(output->update != DISPMANX_NO_HANDLE);
output_compute_matrix(base);
rpi_resource_release(&output->capture_buffer);
free(output->capture_data);
output->capture_data = NULL;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
/* Swap resources on surfaces as needed */
wl_list_for_each_reverse(wv, &compositor->view_list, link)
wv->surface->touched = 0;
wl_list_for_each_reverse(wv, &compositor->view_list, link) {
view = to_rpir_view(wv);
if (!wv->surface->touched) {
wv->surface->touched = 1;
if (view->surface->need_swap)
rpir_surface_swap_pointers(view->surface);
}
if (view->surface->egl_front->buffer_ref.buffer == NULL) {
weston_log("warning: client unreffed current front buffer\n");
wl_list_remove(&view->link);
if (view->handle == DISPMANX_NO_HANDLE) {
wl_list_init(&view->link);
} else {
rpir_view_dmx_remove(view, output->update);
wl_list_insert(&output->view_cleanup_list,
&view->link);
}
}
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
/* update all renderable surfaces */
wl_list_init(&done_list);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_for_each_reverse(wv, &compositor->view_list, link) {
if (wv->plane != &compositor->primary_plane)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
continue;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
view = to_rpir_view(wv);
assert(!wl_list_empty(&view->link) ||
view->handle == DISPMANX_NO_HANDLE);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_remove(&view->link);
wl_list_insert(&done_list, &view->link);
rpir_view_update(view, output, output->update, layer++);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
/* Mark all surfaces as swapped */
wl_list_for_each_reverse(wv, &compositor->view_list, link)
to_rpir_surface(wv->surface)->need_swap = 0;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
/* Remove all surfaces that are still on screen, but were
* not rendered this time.
*/
rpir_output_dmx_remove_all(output, output->update);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_insert_list(&output->view_list, &done_list);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
output->update = DISPMANX_NO_HANDLE;
/* The frame_signal is emitted in rpi_renderer_finish_frame(),
* so that the firmware can capture the up-to-date contents.
*/
}
static void
rpi_renderer_flush_damage(struct weston_surface *base)
{
/* Called for every surface just before repainting it, if
* having an shm buffer.
*/
struct rpir_surface *surface = to_rpir_surface(base);
Add a weston_buffer structure to replace wl_buffer This commit adds a weston_buffer structure to replace wl_buffer. This way we can hold onto buffers by just their resource. In order to do this, the every renderer.attach function has to fill in the weston_buffer.width and weston_buffer.height fields. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
12 years ago
struct weston_buffer *buffer = surface->buffer_ref.buffer;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
int ret;
assert(buffer);
Add a weston_buffer structure to replace wl_buffer This commit adds a weston_buffer structure to replace wl_buffer. This way we can hold onto buffers by just their resource. In order to do this, the every renderer.attach function has to fill in the weston_buffer.width and weston_buffer.height fields. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
12 years ago
assert(wl_shm_buffer_get(buffer->resource));
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
ret = rpir_surface_damage(surface, buffer, &base->damage);
if (ret)
weston_log("%s error: updating Dispmanx resource failed.\n",
__func__);
weston_buffer_reference(&surface->buffer_ref, NULL);
}
static void
Add a weston_buffer structure to replace wl_buffer This commit adds a weston_buffer structure to replace wl_buffer. This way we can hold onto buffers by just their resource. In order to do this, the every renderer.attach function has to fill in the weston_buffer.width and weston_buffer.height fields. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
12 years ago
rpi_renderer_attach(struct weston_surface *base, struct weston_buffer *buffer)
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
{
/* Called every time a client commits an attach. */
struct rpir_surface *surface = to_rpir_surface(base);
assert(surface);
if (!surface)
return;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
if (surface->buffer_type == BUFFER_TYPE_SHM) {
if (!surface->single_buffer)
/* XXX: need to check if in middle of update */
rpi_resource_release(surface->back);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (!surface->visible_views)
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
/* XXX: cannot do this, if middle of an update */
rpi_resource_release(surface->front);
weston_buffer_reference(&surface->buffer_ref, NULL);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
/* If buffer is NULL, Weston core unmaps the surface, the surface
* will not appear in repaint list, and so rpi_renderer_repaint_output
* will remove the DispmanX element. Later, for SHM, also the front
* buffer will be released in the cleanup_list processing.
*/
if (!buffer)
return;
Add a weston_buffer structure to replace wl_buffer This commit adds a weston_buffer structure to replace wl_buffer. This way we can hold onto buffers by just their resource. In order to do this, the every renderer.attach function has to fill in the weston_buffer.width and weston_buffer.height fields. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
12 years ago
if (wl_shm_buffer_get(buffer->resource)) {
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
surface->buffer_type = BUFFER_TYPE_SHM;
Add a weston_buffer structure to replace wl_buffer This commit adds a weston_buffer structure to replace wl_buffer. This way we can hold onto buffers by just their resource. In order to do this, the every renderer.attach function has to fill in the weston_buffer.width and weston_buffer.height fields. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
12 years ago
buffer->shm_buffer = wl_shm_buffer_get(buffer->resource);
buffer->width = wl_shm_buffer_get_width(buffer->shm_buffer);
buffer->height = wl_shm_buffer_get_height(buffer->shm_buffer);
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
weston_buffer_reference(&surface->buffer_ref, buffer);
} else {
#if ENABLE_EGL
struct rpi_renderer *renderer = to_rpi_renderer(base->compositor);
rpi: Remove redundant cast
11 years ago
struct wl_resource *wl_resource = buffer->resource;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
if (!renderer->has_bind_display ||
!renderer->query_buffer(renderer->egl_display,
wl_resource,
EGL_WIDTH, &buffer->width)) {
weston_log("unhandled buffer type!\n");
weston_buffer_reference(&surface->buffer_ref, NULL);
surface->buffer_type = BUFFER_TYPE_NULL;
}
renderer->query_buffer(renderer->egl_display,
wl_resource,
EGL_HEIGHT, &buffer->height);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
surface->buffer_type = BUFFER_TYPE_EGL;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
if(surface->egl_back == NULL)
surface->egl_back = calloc(1, sizeof *surface->egl_back);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
weston_buffer_reference(&surface->egl_back->buffer_ref, buffer);
surface->egl_back->resource_handle =
vc_dispmanx_get_handle_from_wl_buffer(wl_resource);
#else
weston_log("unhandled buffer type!\n");
weston_buffer_reference(&surface->buffer_ref, NULL);
surface->buffer_type = BUFFER_TYPE_NULL;
#endif
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
static int
rpi_renderer_create_surface(struct weston_surface *base)
{
struct rpi_renderer *renderer = to_rpi_renderer(base->compositor);
struct rpir_surface *surface;
assert(base->renderer_state == NULL);
surface = rpir_surface_create(renderer);
if (!surface)
return -1;
surface->surface = base;
base->renderer_state = surface;
return 0;
}
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
static int
rpi_renderer_create_view(struct weston_view *base)
{
struct rpir_surface *surface = to_rpir_surface(base->surface);
struct rpir_view *view;
assert(base->renderer_state == NULL);
view = rpir_view_create(surface);
if (!view)
return -1;
view->view = base;
base->renderer_state = view;
return 0;
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
static void
rpi_renderer_surface_set_color(struct weston_surface *base,
float red, float green, float blue, float alpha)
{
struct rpir_surface *surface = to_rpir_surface(base);
uint8_t color[4];
VC_RECT_T rect;
int ret;
assert(surface);
ret = rpi_resource_realloc(surface->back, VC_IMAGE_ARGB8888,
1, 1, 4, 1);
if (ret < 0) {
weston_log("Error: %s: rpi_resource_realloc failed.\n",
__func__);
return;
}
color[0] = float2uint8(blue);
color[1] = float2uint8(green);
color[2] = float2uint8(red);
color[3] = float2uint8(alpha);
vc_dispmanx_rect_set(&rect, 0, 0, 1, 1);
ret = vc_dispmanx_resource_write_data(surface->back->handle,
VC_IMAGE_ARGB8888,
4, color, &rect);
if (ret) {
weston_log("Error: %s: resource_write_data failed.\n",
__func__);
return;
}
DBG("%s: resource %p solid color BGRA %u,%u,%u,%u\n", __func__,
surface->back, color[0], color[1], color[2], color[3]);
/*pixman_region32_copy(&surface->prev_damage, damage);*/
surface->need_swap = 1;
}
static void
rpi_renderer_destroy_surface(struct weston_surface *base)
{
struct rpir_surface *surface = to_rpir_surface(base);
assert(surface);
assert(surface->surface == base);
if (!surface)
return;
surface->surface = NULL;
base->renderer_state = NULL;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (wl_list_empty(&surface->views))
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
rpir_surface_destroy(surface);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
static void
rpi_renderer_destroy_view(struct weston_view *base)
{
struct rpir_view *view = to_rpir_view(base);
assert(view);
assert(view->view == base);
if (!view)
return;
/* If guaranteed to not be on screen, just detroy it. */
if (wl_list_empty(&view->link))
rpir_view_destroy(view);
/* Otherwise, the view is either on screen and needs
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
* to be removed by a repaint update, or it is in the
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
* view_cleanup_list, and will be destroyed by
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
* rpi_renderer_finish_frame().
*/
}
static void
rpi_renderer_destroy(struct weston_compositor *compositor)
{
struct rpi_renderer *renderer = to_rpi_renderer(compositor);
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
#if ENABLE_EGL
if (renderer->has_bind_display)
renderer->unbind_display(renderer->egl_display,
compositor->wl_display);
#endif
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
free(renderer);
compositor->renderer = NULL;
}
WL_EXPORT int
rpi_renderer_create(struct weston_compositor *compositor,
const struct rpi_renderer_parameters *params)
{
struct rpi_renderer *renderer;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
#if ENABLE_EGL
const char *extensions;
EGLBoolean ret;
EGLint major, minor;
#endif
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
weston_log("Initializing the DispmanX compositing renderer\n");
renderer = calloc(1, sizeof *renderer);
if (renderer == NULL)
return -1;
renderer->single_buffer = params->single_buffer;
renderer->base.read_pixels = rpi_renderer_read_pixels;
renderer->base.repaint_output = rpi_renderer_repaint_output;
renderer->base.flush_damage = rpi_renderer_flush_damage;
renderer->base.attach = rpi_renderer_attach;
renderer->base.create_surface = rpi_renderer_create_surface;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
renderer->base.create_view = rpi_renderer_create_view;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
renderer->base.surface_set_color = rpi_renderer_surface_set_color;
renderer->base.destroy_surface = rpi_renderer_destroy_surface;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
renderer->base.destroy_view = rpi_renderer_destroy_view;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
renderer->base.destroy = rpi_renderer_destroy;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
#ifdef ENABLE_EGL
renderer->egl_display = eglGetDisplay(EGL_DEFAULT_DISPLAY);
if (renderer->egl_display == EGL_NO_DISPLAY) {
weston_log("failed to create EGL display\n");
return -1;
}
if (!eglInitialize(renderer->egl_display, &major, &minor)) {
weston_log("failed to initialize EGL display\n");
return -1;
}
renderer->bind_display =
(void *) eglGetProcAddress("eglBindWaylandDisplayWL");
renderer->unbind_display =
(void *) eglGetProcAddress("eglUnbindWaylandDisplayWL");
renderer->query_buffer =
(void *) eglGetProcAddress("eglQueryWaylandBufferWL");
extensions = (const char *) eglQueryString(renderer->egl_display,
EGL_EXTENSIONS);
if (!extensions) {
weston_log("Retrieving EGL extension string failed.\n");
return -1;
}
if (strstr(extensions, "EGL_WL_bind_wayland_display"))
renderer->has_bind_display = 1;
if (renderer->has_bind_display) {
ret = renderer->bind_display(renderer->egl_display,
compositor->wl_display);
if (!ret)
renderer->has_bind_display = 0;
}
#endif
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
compositor->renderer = &renderer->base;
compositor->read_format = PIXMAN_a8r8g8b8;
/* WESTON_CAP_ROTATION_ANY not supported */
rpi: Add support for SHM buffers in RGB565 format
11 years ago
wl_display_add_shm_format(compositor->wl_display, WL_SHM_FORMAT_RGB565);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
return 0;
}
WL_EXPORT int
rpi_renderer_output_create(struct weston_output *base,
DISPMANX_DISPLAY_HANDLE_T display)
{
struct rpir_output *output;
assert(base->renderer_state == NULL);
output = calloc(1, sizeof *output);
if (!output)
return -1;
output->display = display;
output->update = DISPMANX_NO_HANDLE;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_init(&output->view_list);
wl_list_init(&output->view_cleanup_list);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
rpi_resource_init(&output->capture_buffer);
base->renderer_state = output;
return 0;
}
WL_EXPORT void
rpi_renderer_output_destroy(struct weston_output *base)
{
struct rpir_output *output = to_rpir_output(base);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct rpir_view *view;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
DISPMANX_UPDATE_HANDLE_T update;
rpi_resource_release(&output->capture_buffer);
free(output->capture_data);
output->capture_data = NULL;
update = vc_dispmanx_update_start(0);
rpir_output_dmx_remove_all(output, update);
vc_dispmanx_update_submit_sync(update);
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
while (!wl_list_empty(&output->view_cleanup_list)) {
view = container_of(output->view_cleanup_list.next,
struct rpir_view, link);
rpir_view_destroy(view);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
free(output);
base->renderer_state = NULL;
}
WL_EXPORT void
rpi_renderer_set_update_handle(struct weston_output *base,
DISPMANX_UPDATE_HANDLE_T handle)
{
struct rpir_output *output = to_rpir_output(base);
output->update = handle;
}
WL_EXPORT void
rpi_renderer_finish_frame(struct weston_output *base)
{
struct rpir_output *output = to_rpir_output(base);
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
struct weston_compositor *compositor = base->compositor;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
struct weston_view *wv;
struct rpir_view *view;
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
while (!wl_list_empty(&output->view_cleanup_list)) {
view = container_of(output->view_cleanup_list.next,
struct rpir_view, link);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (view->view) {
/* The weston_view still exists, but is
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
* temporarily not visible, and hence its Element
* was removed. The current front buffer contents
* must be preserved.
*/
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (!view->surface->visible_views)
rpi_resource_release(view->surface->back);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_remove(&view->link);
wl_list_init(&view->link);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
} else {
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
rpir_view_destroy(view);
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
}
}
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
wl_list_for_each(wv, &compositor->view_list, link) {
view = to_rpir_view(wv);
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (view->surface->buffer_type != BUFFER_TYPE_EGL)
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
continue;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
if (view->surface->egl_old_front == NULL)
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
continue;
Split the geometry information from weston_surface out into weston_view The weston_surface structure is split into two structures: * The weston_surface structure storres everything required for a client-side or server-side surface. This includes buffers; callbacks; backend private data; input, damage, and opaque regions; and a few other bookkeeping bits. * The weston_view structure represents an entity in the scenegraph and storres all of the geometry information. This includes clip region, alpha, position, and the transformation list as well as all of the temporary information derived from the geometry state. Because a view, and not a surface, is a scenegraph element, the view is what is placed in layers and planes. There are a few things worth noting about the surface/view split: 1. This is *not* a modification to the protocol. It is, instead, a modification to Weston's internal scenegraph to allow a single surface to exist in multiple places at a time. Clients are completely unaware of how many views to a particular surface exist. 2. A view is considered a direct child of a surface and is destroyed when the surface is destroyed. Because of this, the view.surface pointer is always valid and non-null. 3. The compositor's surface_list is replaced with a view_list. Due to subsurfaces, building the view list is a little more complicated than it used to be and involves building a tree of views on the fly whenever subsurfaces are used. However, this means that backends can remain completely subsurface-agnostic. 4. Surfaces and views both keep track of which outputs they are on. 5. The weston_surface structure now has width and height fields. These are populated when a new buffer is attached before surface.configure is called. This is because there are many surface-based operations that really require the width and height and digging through the views didn't work well. Signed-off-by: Jason Ekstrand <jason@jlekstrand.net>
11 years ago
weston_buffer_reference(&view->surface->egl_old_front->buffer_ref, NULL);
free(view->surface->egl_old_front);
view->surface->egl_old_front = NULL;
rpi: Add support for EGL buffers The EGL implementation on the RPi allocates a front and a back DispmanX resources for each EGLSurface, which we composite along the others.
11 years ago
}
rpi: add a Dispmanx renderer Dispmanx is the prorietary display API on the Raspberry Pi, which provides hardware compositing. Every visible surface is assigned a Dispmanx element, and the hardware or firmware will do all compositing onto screen. The API supports translation, scaling, flips, discrete rotations in 90-degree steps, alpha channel on the surfaces, and full-surface alpha on top. Previously, Dispmanx capabilities were used via the weston_plane mechanism, where surfaces were assigned to planes when possible, and otherwise transparently falling back to GLESv2 compositing. Because we have no way to use the same memory buffer as a GL texture and a Dispmanx resource, we had to prepare for both. In the worst case, that means one GL texture, and two (double-buffered case) Dispmanx resources, all the size of a whole surface, for all surfaces. This was eating memory fast. To make things worse (and less slow), the wl_shm buffer was kept around, since it was copied to either a texture or a resource as needed. This caused all clients to need two buffers. In a Dispmanx-only renderer, we can drop the GL texture, and we can release wl_shm buffer immediately after the first copy, so clients become effectively single-buffered. So from the worst case of 5 buffers per surface, we go down to 3 or just 2 (single-buffered Dispmanx element, one wl_shm buffer in the client) buffers per surface. As this will replace the GL renderer on rpi, we cannot fall back to the GLESv2 compositing anymore. We lose arbitrary surface rotation, but we lose also the GL fallback, which caused glitches. This patch depends on new RaspberryPi firmware. Older firmware may not render ARGB surfaces correctly, solid color surfaces maybe cause a performance hit, and the output may completely fail in case the firmware does not fall back internal off-line compositing properly as needed. This new rpi-renderer support surface translation and scaling, but not rotation or transpose (not even in 90-deg steps). In theory, 90-deg step surface rotation is possible to support. Output transformations are supported, but flipped variants do not seem to work right. As a detail, menus and other surfaces that are simply translated with respect to another surface caused falling back to the GL renderer. The rpi-renderer handles them directly. This patch only adds the new renderer, but does not hook it up into use. Signed-off-by: Pekka Paalanen <pekka.paalanen@collabora.co.uk>
12 years ago
wl_signal_emit(&base->frame_signal, base);
}