Dave Airlie a1c1ba7d56 radv: handle transfer_write as a dst flag.
It appears we can get image barriers like:
    srcStageMask:                   VkPipelineStageFlags = 4096 (VK_PIPELINE_STAGE_TRANSFER_BIT)
    dstStageMask:                   VkPipelineStageFlags = 4096 (VK_PIPELINE_STAGE_TRANSFER_BIT)
    dependencyFlags:                VkDependencyFlags = 0
    memoryBarrierCount:             uint32_t = 0
    pMemoryBarriers:                const VkMemoryBarrier* = NULL
    bufferMemoryBarrierCount:       uint32_t = 0
    pBufferMemoryBarriers:          const VkBufferMemoryBarrier* = NULL
    imageMemoryBarrierCount:        uint32_t = 1
    pImageMemoryBarriers:           const VkImageMemoryBarrier* = 0x7ffc882367b0
        pImageMemoryBarriers[0]:        const VkImageMemoryBarrier = 0x7ffc882367b0:
            sType:                          VkStructureType = VK_STRUCTURE_TYPE_IMAGE_MEMORY_BARRIER (45)
            pNext:                          const void* = NULL
            srcAccessMask:                  VkAccessFlags = 4096 (VK_ACCESS_TRANSFER_WRITE_BIT)
            dstAccessMask:                  VkAccessFlags = 4096 (VK_ACCESS_TRANSFER_WRITE_BIT)
            oldLayout:                      VkImageLayout = VK_IMAGE_LAYOUT_TRANSFER_DST_OPTIMAL (7)
            newLayout:                      VkImageLayout = VK_IMAGE_LAYOUT_GENERAL (1)
            srcQueueFamilyIndex:            uint32_t = 4294967295
            dstQueueFamilyIndex:            uint32_t = 4294967295
            image:                          VkImage = 0x2df55e0
            subresourceRange:               VkImageSubresourceRange = 0x7ffc882367e0:
                aspectMask:                     VkImageAspectFlags = 1 (VK_IMAGE_ASPECT_COLOR_BIT)
                baseMipLevel:                   uint32_t = 0
                levelCount:                     uint32_t = 1
                baseArrayLayer:                 uint32_t = 0
                layerCount:                     uint32_t = 1

This fixes all the CTS dEQP-VK.memory.pipeline_barrier.transfer_dst tests here,
not sure if this is a too large hammer.

Reviewed-by: Bas Nieuwenhuizen <bas@basnieuwenhuizen.nl>
Cc: "17.0" <mesa-stable@lists.freedesktop.org>
Signed-off-by: Dave Airlie <airlied@redhat.com>
2017-01-31 04:42:21 +10:00
2016-08-30 16:44:00 -04:00
2016-08-25 13:55:52 -07:00
2016-05-25 12:23:12 -06:00
2017-01-19 15:38:30 +00:00

File: docs/README.WIN32

Last updated: 21 June 2013


Quick Start
----- -----

Windows drivers are build with SCons.  Makefiles or Visual Studio projects are
no longer shipped or supported.

Run

  scons libgl-gdi

to build gallium based GDI driver.

This will work both with MSVS or Mingw.


Windows Drivers
------- -------

At this time, only the gallium GDI driver is known to work.

Source code also exists in the tree for other drivers in
src/mesa/drivers/windows, but the status of this code is unknown.

Recipe
------

Building on windows requires several open-source packages. These are
steps that work as of this writing.

- install python 2.7
- install scons (latest)
- install mingw, flex, and bison
- install pywin32 from here: http://www.lfd.uci.edu/~gohlke/pythonlibs
  get pywin32-218.4.win-amd64-py2.7.exe
- install git
- download mesa from git
  see http://www.mesa3d.org/repository.html
- run scons

General
-------

After building, you can copy the above DLL files to a place in your
PATH such as $SystemRoot/SYSTEM32.  If you don't like putting things
in a system directory, place them in the same directory as the
executable(s).  Be careful about accidentially overwriting files of
the same name in the SYSTEM32 directory.

The DLL files are built so that the external entry points use the
stdcall calling convention.

Static LIB files are not built.  The LIB files that are built with are
the linker import files associated with the DLL files.

The si-glu sources are used to build the GLU libs.  This was done
mainly to get the better tessellator code.

If you have a Windows-related build problem or question, please post
to the mesa-dev or mesa-users list.
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