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My problem: After some time playing WoW (about 1-2 minutes) the whole screen turns white. Everything else seems to work perfectly, I still have sound and I still can interact with my character. I can even open a terminal (blindfolded) and type 'killall WoW.exe' to quit WoW and make the white screen go away. wine --version outputs 'wine-1.1.37' I use the propiertary nVidia drivers

...gt; - struct vbox_bo *bo = gem_to_vbox_bo(to_vbox_framebuffer(fb)->obj); > + struct drm_gem_ttm_object *gbo = > + drm_gem_ttm_of_gem(to_vbox_framebuffer(fb)->obj); > u32 width = plane->state->crtc_w; > u32 height = plane->state->crtc_h; > size_t data_size, mask_size; > @@ -405,7 +407,7 @@ static void vbox_cursor_atomic_update(struct drm_plane *plane, > vbox_crtc->cursor_enabled = true; > > /* pinning is done in prepare/cleanup framebuffer */ > - src = vbox_bo_kmap(bo); > + src = drm_gem_ttm_kmap(gbo, true); > if (IS_ERR(src)...

...e Goede <hdegoede at redhat.com> */ + +#include <linux/dma-buf-map.h> #include <linux/export.h> #include <drm/drm_atomic.h> @@ -384,6 +386,8 @@ static void vbox_cursor_atomic_update(struct drm_plane *plane, u32 height = plane->state->crtc_h; size_t data_size, mask_size; u32 flags; + struct dma_buf_map map; + int ret; u8 *src; /* @@ -397,8 +401,8 @@ static void vbox_cursor_atomic_update(struct drm_plane *plane, vbox_crtc->cursor_enabled = true; - src = drm_gem_vram_vmap(gbo); - if (IS_ERR(src)) { + ret = drm_gem_vram_vmap(gbo, &map); + if (ret...

...e Goede <hdegoede at redhat.com> */ + +#include <linux/dma-buf-map.h> #include <linux/export.h> #include <drm/drm_atomic.h> @@ -384,6 +386,8 @@ static void vbox_cursor_atomic_update(struct drm_plane *plane, u32 height = plane->state->crtc_h; size_t data_size, mask_size; u32 flags; + struct dma_buf_map map; + int ret; u8 *src; /* @@ -397,8 +401,8 @@ static void vbox_cursor_atomic_update(struct drm_plane *plane, vbox_crtc->cursor_enabled = true; - src = drm_gem_vram_vmap(gbo); - if (IS_ERR(src)) { + ret = drm_gem_vram_vmap(gbo, &map); + if (ret...

...gt; + > +#include <linux/dma-buf-map.h> > #include <linux/export.h> > > #include <drm/drm_atomic.h> > @@ -384,6 +386,8 @@ static void vbox_cursor_atomic_update(struct drm_plane *plane, > u32 height = plane->state->crtc_h; > size_t data_size, mask_size; > u32 flags; > + struct dma_buf_map map; > + int ret; > u8 *src; > > /* > @@ -397,8 +401,8 @@ static void vbox_cursor_atomic_update(struct drm_plane *plane, > > vbox_crtc->cursor_enabled = true; > > - src = drm_gem_vram_vmap(gbo); > - if...

DRM's fbdev console uses regular load and store operations to update framebuffer memory. The bochs driver on sparc64 requires the use of I/O-specific load and store operations. We have a workaround, but need a long-term solution to the problem. This patchset changes GEM's vmap/vunmap interfaces to forward pointers of type struct dma_buf_map and updates the generic fbdev emulation to use

DRM's fbdev console uses regular load and store operations to update framebuffer memory. The bochs driver on sparc64 requires the use of I/O-specific load and store operations. We have a workaround, but need a long-term solution to the problem. This patchset changes GEM's vmap/vunmap interfaces to forward pointers of type struct dma_buf_map and updates the generic fbdev emulation to use

DRM's fbdev console uses regular load and store operations to update framebuffer memory. The bochs driver on sparc64 requires the use of I/O-specific load and store operations. We have a workaround, but need a long-term solution to the problem. This patchset changes GEM's vmap/vunmap interfaces to forward pointers of type struct dma_buf_map and updates the generic fbdev emulation to use

DRM's fbdev console uses regular load and store operations to update framebuffer memory. The bochs driver on sparc64 requires the use of I/O-specific load and store operations. We have a workaround, but need a long-term solution to the problem. This patchset changes GEM's vmap/vunmap interfaces to forward pointers of type struct dma_buf_map and updates the generic fbdev emulation to use

DRM's fbdev console uses regular load and store operations to update framebuffer memory. The bochs driver on sparc64 requires the use of I/O-specific load and store operations. We have a workaround, but need a long-term solution to the problem. This patchset changes GEM's vmap/vunmap interfaces to forward pointers of type struct dma_buf_map and updates the generic fbdev emulation to use

DRM's fbdev console uses regular load and store operations to update framebuffer memory. The bochs driver on sparc64 requires the use of I/O-specific load and store operations. We have a workaround, but need a long-term solution to the problem. This patchset changes GEM's vmap/vunmap interfaces to forward pointers of type struct dma_buf_map and updates the generic fbdev emulation to use

DRM's fbdev console uses regular load and store operations to update framebuffer memory. The bochs driver on sparc64 requires the use of I/O-specific load and store operations. We have a workaround, but need a long-term solution to the problem. This patchset changes GEM's vmap/vunmap interfaces to forward pointers of type struct dma_buf_map and updates the generic fbdev emulation to use

DRM's fbdev console uses regular load and store operations to update framebuffer memory. The bochs driver on sparc64 requires the use of I/O-specific load and store operations. We have a workaround, but need a long-term solution to the problem. This patchset changes GEM's vmap/vunmap interfaces to forward pointers of type struct dma_buf_map and updates the generic fbdev emulation to use

Several simple framebuffer drivers copy most of the TTM code from each other. The implementation is always the same; except for the name of some data structures. As recently discussed, this patch set provides generic memory-management code for simple framebuffers with dedicated video memory. It further converts the respective drivers to the generic code. The shared code is basically the same

Several simple framebuffer drivers copy most of the TTM code from each other. The implementation is always the same; except for the name of some data structures. As recently discussed, this patch set provides generic memory-management code for simple framebuffers with dedicated video memory. It further converts the respective drivers to the generic code. The shared code is basically the same

Several simple framebuffer drivers copy most of the TTM code from each other. The implementation is always the same; except for the name of some data structures. As recently discussed, this patch set provides generic memory-management code for simple framebuffers with dedicated video memory. It further converts the respective drivers to the generic code. The shared code is basically the same

Several simple framebuffer drivers copy most of the TTM code from each other. The implementation is always the same; except for the name of some data structures. As recently discussed, this patch set provides generic memory-management code for simple framebuffers with dedicated video memory. It further converts the respective drivers to the generic code. The shared code is basically the same

Several simple framebuffer drivers copy most of the TTM code from each other. The implementation is always the same; except for the name of some data structures. As recently discussed, this patch set provides generic memory-management code for simple framebuffers with dedicated video memory. It further converts the respective drivers to the generic code. The shared code is basically the same

Several simple framebuffer drivers copy most of the TTM code from each other. The implementation is always the same; except for the name of some data structures. As recently discussed, this patch set provides generic memory-management code for simple framebuffers with dedicated video memory. It further converts the respective drivers to the generic code. The shared code is basically the same