status-im
/
Vulkan-Docs
mirror of https://github.com/status-im/Vulkan-Docs.git
2
0
Fork 0
Code Issues Projects Releases Wiki Activity

Change log for August 12, 2016 Vulkan 1.0.24 spec update: 

* Bump API patch number and header version number to 24 for this update.

Github Issues:

  * Fix type mismatch in swapchain image equivalency table (public issue
    289).
  * Fix a copy-and-paste error in the description of
    flink:vkGetSwapchainImagesKHR::pname:pSwapchainImages, that said it
    was an array of ``sname:VkSwapchainImageKHR structures'' instead of
    an array of ``sname:VkImage handles'' (public issue 292).
  * Specify that ename:VK_IMAGE_CREATE_CUBE_COMPATIBLE_BIT is only valid
    for ename:VK_IMAGE_TYPE_2D images (public issue 293).
  * Add a valid usage statement to flink:vkCmdExecuteCommands saying
    that when called outside a render pass instance, the secondary
    command buffers must not have been created with the
    ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT (public issue
    297).
  * Fix description of +VK_NO_STDINT_H+ in the
    <<boilerplate-platform-macros,platform macros>> section (public
    issue 314).

Internal Issues:

  * Normalize the language for the remaining built-in variables in the
    <<interfaces-builtin-variables,Built-In Variables>> section. Fix
    code:FrontFacing and code:HelperInvocation, as they should be of
    code:boolean type rather than code:integer (internal issue 323).
  * Clarify that when ename:VK_WHOLE_SIZE is used for a buffer
    descriptor range, the effective range must still be within the max
    buffer range (internal issue 426).
  * Clarify that command buffers and descriptor sets are allocated
    rather than created. Also clarify when the recording state of a
    command buffer is relevant (internal issue 434).
This commit is contained in:
Jon Leech 2016-08-12 04:25:36 -07:00
parent 2b7c8f3428
commit 2dd2b3579b
21 changed files with 627 additions and 383 deletions
Show Stats Download Patch File Download Diff File Expand all files Collapse all files

37
ChangeLog.txt
View File

@ -1139,3 +1139,40 @@ Other Commits:
sname:VkPipelineInputAssemblyStateCreateInfo are described to match
their order in the structures.
-----------------------------------------------------
Change log for August 12, 2016 Vulkan 1.0.24 spec update:
* Bump API patch number and header version number to 24 for this update.
Github Issues:
* Fix type mismatch in swapchain image equivalency table (public issue
289).
* Fix a copy-and-paste error in the description of
flink:vkGetSwapchainImagesKHR::pname:pSwapchainImages, that said it
was an array of ``sname:VkSwapchainImageKHR structures'' instead of
an array of ``sname:VkImage handles'' (public issue 292).
* Specify that ename:VK_IMAGE_CREATE_CUBE_COMPATIBLE_BIT is only valid
for ename:VK_IMAGE_TYPE_2D images (public issue 293).
* Add a valid usage statement to flink:vkCmdExecuteCommands saying
that when called outside a render pass instance, the secondary
command buffers must not have been created with the
ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT (public issue
297).
* Fix description of +VK_NO_STDINT_H+ in the
<<boilerplate-platform-macros,platform macros>> section (public
issue 314).
Internal Issues:
* Normalize the language for the remaining built-in variables in the
<<interfaces-builtin-variables,Built-In Variables>> section. Fix
code:FrontFacing and code:HelperInvocation, as they should be of
code:boolean type rather than code:integer (internal issue 323).
* Clarify that when ename:VK_WHOLE_SIZE is used for a buffer
descriptor range, the effective range must still be within the max
buffer range (internal issue 426).
* Clarify that command buffers and descriptor sets are allocated
rather than created. Also clarify when the recording state of a
command buffer is relevant (internal issue 434).

2
doc/specs/vulkan/Makefile
View File

@ -134,7 +134,7 @@ GENDEPENDS = api/timeMarker validity/timeMarker hostsynctable/timeMarker
COMMONDOCS = $(CHAPTERS) $(GENINCLUDE) $(GENDEPENDS)
# A generated included file with the spec version, date, and git commit
SPECVERSION = specversion.txt
SPECREVISION = 1.0.23
SPECREVISION = 1.0.24
SPECREMARK =
# Spec targets

2
doc/specs/vulkan/api/defines/VK_HEADER_VERSION.txt
View File

@ -8,6 +8,6 @@ ifdef::doctype-manpage[]
endif::doctype-manpage[]
------------------------------------------------------------------------------
// Version of this file
#define VK_HEADER_VERSION 23
#define VK_HEADER_VERSION 24
------------------------------------------------------------------------------

11
doc/specs/vulkan/appendices/boilerplate.txt
View File

@ -272,11 +272,12 @@ dname:VKAPI_ATTR or dname:VKAPI_CALL, depending on the compiler.
// @refBegin VK_NO_STDINT_H - control definition of +<stdint.h>+ types
If the +VK_NO_STDINT_H+ macro is defined at compile time, it indicates that
the system +<stdint.h>+ does not define some required integer types, and
+vk_platform.h+ will declare fallback definitions of those types. This is
included for backwards compatibility with very old compilers, such as
Microsoft Visual Studio version 2008 or before.
If the +VK_NO_STDINT_H+ macro is defined by the application at compile time,
extended integer types required by +vulkan.h+, such as +uint8_t+, must: also
be defined by the application. Otherwise, +vulkan.h+ will not compile. If
+VK_NO_STDINT_H+ is not defined, the system +<stdint.h>+ is used to define
these types, or there is a fallback path when Microsoft Visual Studio
version 2008 and earlier versions are detected at compile time.
// @refEnd VK_NO_STDINT_H

2
doc/specs/vulkan/appendices/glossary.txt
View File

@ -394,7 +394,7 @@ Image View::
Immutable Sampler::
A sampler descriptor provided at descriptor set layout creation time,
and that is used for that binding in all descriptor sets created from
and that is used for that binding in all descriptor sets allocated from
the layout, and cannot be changed.
Implicitly-Enabled Layer::

30
doc/specs/vulkan/chapters/cmdbuffers.txt
View File

@ -136,7 +136,7 @@ include::../api/enums/VkCommandPoolCreateFlagBits.txt[]
only be reset in bulk by calling fname:vkResetCommandPool.
* pname:queueFamilyIndex designates a queue family as described in section
<<devsandqueues-queueprops,Queue Family Properties>>. All command
buffers created from this command pool must: be submitted on queues
buffers allocated from this command pool must: be submitted on queues
from the same queue family.
include::../validity/structs/VkCommandPoolCreateInfo.txt[]
@ -327,18 +327,21 @@ be inherited from the primary command buffer:
include::../api/structs/VkCommandBufferInheritanceInfo.txt[]
* pname:renderPass is a sname:VkRenderPass object that must: be
<<renderpass-compatibility, compatible>> with the one that is bound when
the sname:VkCommandBuffer is executed if the command buffer was
allocated with the
ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT set.
* pname:renderPass is a sname:VkRenderPass object defining which
render passes the sname:VkCommandBuffer will be
<<renderpass-compatibility, compatible>> with and can: be executed
within. If the sname:VkCommandBuffer will not be executed within a
render pass instance, pname:renderPass is ignored.
* pname:subpass is the index of the subpass within pname:renderPass that
the sname:VkCommandBuffer will be rendering against if it was allocated
with the ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT set.
* pname:framebuffer refers to the sname:VkFramebuffer object that the
sname:VkCommandBuffer will be rendering to if it was allocated with
the ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT set. It can:
be dlink:VK_NULL_HANDLE if the framebuffer is not known.
the sname:VkCommandBuffer will be executed within. If the
sname:VkCommandBuffer will not be executed within a render pass
instance, pname:subpass is ignored.
* pname:framebuffer optionally refers to the sname:VkFramebuffer
object that the sname:VkCommandBuffer will be rendering to if it is
executed within a render pass instance. It can:
be dlink:VK_NULL_HANDLE if the framebuffer is not known, or if the
sname:VkCommandBuffer will not be executed within a render pass
instance.
+
[NOTE]
.Note
@ -543,8 +546,7 @@ primary command buffer with the command:
include::../api/protos/vkCmdExecuteCommands.txt[]
* pname:commandBuffer is a handle to a primary command buffer that the
secondary command buffers are submitted to, and must: be in the
recording state.
secondary command buffers are executed in.
* pname:commandBufferCount is the length of the pname:pCommandBuffers
array.
* pname:pCommandBuffers is an array of secondary command buffer handles,

16
doc/specs/vulkan/chapters/descriptorsets.txt
View File

@ -1433,7 +1433,21 @@ include::../api/structs/VkDescriptorBufferInfo.txt[]
* pname:range is the size in bytes that is used for this descriptor
update, or ename:VK_WHOLE_SIZE to use the range from pname:offset to the
end of the buffer.
+
--
[NOTE]
.Note
====
When using ename:VK_WHOLE_SIZE, the effective range mustnot: be larger
than the maximum range for the descriptor type
(<<features-limits-maxUniformBufferRange, maxUniformBufferRange>> or
<<features-limits-maxStorageBufferRange, maxStorageBufferRange>>). This
means that ename:VK_WHOLE_SIZE is not typically useful in the common
case where uniform buffer descriptors are suballocated from a buffer
that is much larger than pname:maxUniformBufferRange.
====
--
+
For ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC and
ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC descriptor types,
pname:offset is the base offset from which the dynamic offset is applied and

755
doc/specs/vulkan/chapters/interfaces.txt
View File

@ -379,7 +379,7 @@ constant interface and the descriptor set interface.
=== Push Constant Interface
The shader variables defined with a storage class of code:PushConstant
that are statically used by the shader entry points for the pipeline
that are statically used by the shader entry-points for the pipeline
define the _push constant interface_. They must: be:
* typed as code:OpTypeStruct,
@ -389,7 +389,7 @@ define the _push constant interface_. They must: be:
<<interfaces-resources-layout,Offset and Stride Assignment>>.
There must: be no more than one push constant block statically used per
shader entry point.
shader entry-point.
Each variable in a push constant block must: be placed at an code:Offset
such that the entire constant value is entirely contained within the
@ -410,7 +410,7 @@ only be accessed with dynamically uniform indices.
The _descriptor set interface_ is comprised of the shader variables with the
storage class of code:Uniform or code:UniformConstant (including the variables
in the <<interfaces-inputattachment,fragment input attachment interface>>)
that are statically used by the shader entry points for the pipeline.
that are statically used by the shader entry-points for the pipeline.
These variables must: have code:DescriptorSet and code:Binding decorations
specified, which are assigned and matched with the
@ -551,7 +551,7 @@ that was specified in slink:VkPipelineLayoutCreateInfo.
The range of descriptor sets is between zero and
pname:maxBoundDescriptorSets minus one. If a descriptor set value
is statically used by an entry point there must: be an associated
is statically used by an entry-point there must: be an associated
pname:pSetLayout in the corresponding pipeline layout as described in
<<descriptorsets-pipelinelayout-consistency,Pipeline Layouts consistency>>.
@ -572,12 +572,12 @@ There is a limit on the number of resources of each type that can: be
accessed by a pipeline stage as shown in
<<interfaces-resources-limits,Shader Resource Limits>>.
The ``Resources Per Stage'' column gives the limit on the number each type
of resource that can: be statically used for an entry point in any given
of resource that can: be statically used for an entry-point in any given
stage in a pipeline. The ``Resource Types'' column lists which resource
types are counted against the limit. Some resource types count against
multiple limits.
If multiple entry points in the same pipeline refer to the same set and
If multiple entry-points in the same pipeline refer to the same set and
binding, all variable definitions with that code:DescriptorSet and
code:Binding must: have the same basic type.
@ -679,7 +679,7 @@ The *std430 layout* in GLSL satisfies these rules.
== Built-In Variables
Built-in variables are accessed in shaders by declaring a variable decorated
using a code:BuiltIn decoration. The meaning of each code:BuiltIn decoration
with a code:BuiltIn decoration. The meaning of each code:BuiltIn decoration
is as follows. In the remainder of this section, the name of a built-in is
used interchangeably with a term equivalent to a variable decorated with
that particular built-in. Built-ins that represent integer values can: be
@ -687,121 +687,155 @@ declared as either signed or unsigned 32-bit integers.
code:ClipDistance::
Variables decorated with the code:ClipDistance decoration provide the
mechanism for controlling user clipping. Declared as an array, the i^th^
element of the variable decorated as code:ClipDistance specifies a clip
distance for plane i. A clip distance of 0 means the vertex is on the plane,
a positive distance means the vertex is inside the clip half-space, and a
Decorating a variable with the code:ClipDistance built-in decoration will make
that variable contain the mechanism for controlling user clipping.
code:ClipDistance is an array such that the i^th^ element of the array specifies
the clip distance for plane i. A clip distance of 0 means the vertex is on the
plane, a positive distance means the vertex is inside the clip half-space, and a
negative distance means the point is outside the clip half-space.
+
The code:ClipDistance array is explicitly sized by the shader.
The code:ClipDistance decoration must: be used only within vertex, fragment,
tessellation control, tessellation evaluation, and geometry shaders.
+
The code:ClipDistance decoration can: be applied to array inputs in
tessellation control, tessellation evaluation and geometry shader stages
which will contain the values written by the previous stage. It can: be
applied to outputs in vertex, tessellation evaluation and geometry shaders.
In the last vertex processing stage, these values will be linearly
interpolated across the primitive and the portion of the primitive with
interpolated distances less than 0 will be considered outside the clip
volume.
In vertex shaders, any variable decorated with code:ClipDistance must: be
declared using the output storage class.
+
In the fragment shader, the code:ClipDistance decoration can: be applied to
an array of floating-point input variables and contains the linearly
interpolated values described above.
In fragment shaders, any variable decorated with code:ClipDistance must: be
declared using the input storage class.
+
code:ClipDistance mustnot: be used in compute shaders.
In tessellation control, tessellation evaluation, or geometry shaders, any
variable decorated with code:ClipDistance must: not be in a storage class other
than input or output.
+
code:ClipDistance must: be declared as an array of 32-bit floating-point
values.
code:CullDistance::
A variable decorated as code:CullDistance provides a mechanism for a vertex
processing stage to reject an entire primitive. code:CullDistance can: be
applied to an array variable. If any member of this array is assigned a
negative value for all vertices belonging to a primitive, then the primitive
is discarded before rasterization. code:CullDistance can: be applied to an
output variable in the last vertex processing stage (vertex, tessellation
evaluation or geometry shader).
+
If applied to an input variable, that variable will contain the
corresponding output in the previous shader stage. code:CullDistance
mustnot: be applied to an input in the vertex shader or to an output in the
fragment shader, and mustnot: be used in compute shaders.
+
In fragment shaders, the values of the code:CullDistance array are linearly
interpolated across each primitive.
+
code:CullDistance must: be declared as an array of 32-bit floating-point
values.
code:FragCoord::
This variable contains the framebuffer coordinate
latexmath:[$(x,y,z,\frac{1}{w})$] of the fragment being processed. The (x,y)
coordinate (0,0) is the upper left corner of the upper left pixel in the
framebuffer. The x and y components of code:FragCoord reflect
the location of the center of the pixel
(latexmath:[$(0.5,0.5)$]) when sample shading is not enabled, and the
location of the sample corresponding to the shader invocation when using
sample shading.
+
The z component of code:FragCoord is the interpolated depth value of the
primitive, and the w component is the interpolated
latexmath:[$\frac{1}{w}$].
+
The code:FragCoord decoration must: be used only within fragment shaders. The
code:Centroid interpolation decoration is ignored on code:FragCoord.
+
code:FragCoord must: be declared as a four-component vector of 32-bit
floating-point values.
code:FragDepth::
Writing to an output variable decorated with code:FragDepth from the
fragment shader establishes a new depth value for all samples covered by the
fragment. This value will be used for depth testing and, if the depth test
passes, any subsequent write to the depth/stencil attachment. To write to
code:FragDepth, a shader must: declare the code:DepthReplacing execution
mode. If a shader declares the code:DepthReplacing execution mode and there
is an execution path through the shader that does not set code:FragDepth,
then the fragment's depth value is undefined for executions of the shader
that take that path.
+
The code:FragDepth decoration must: be used only within fragment shaders.
+
code:FragDepth must: be declared as a scalar 32-bit floating-point value.
code:FrontFacing::
The code:FrontFacing decoration can: be applied to an input variable in the
fragment shader. This variable is non-zero if the current
fragment is considered to be part of a
<<primsrast-polygons-basic,front-facing>> primitive and is zero if the
fragment is considered to be part of a back-facing primitive.
+
--
The code:FrontFacing decoration is not available to shader stages other than
fragment.
code:FrontFacing must: be declared as a scalar 32-bit integer.
Any variable decorated with code:ClipDistance must: be declared as an array of
32-bit floating-point values.
[NOTE]
.Note
====
In GLSL, code:gl_FrontFacing is declared as a code:bool. To achieve
similar semantics in SPIR-V, a variable of code:OpTypeBool can: be declared
and initialized as the result of the code:OpINotEqual operation with the
operands of the code:FrontFacing variable and an appropriately typed
constant zero.
The array variable decorated with code:ClipDistance is explicitly sized by the
shader.
====
--
[NOTE]
.Note
====
In the last vertex processing stage, these values will be linearly interpolated
across the primitive and the portion of the primitive with interpolated
distances less than 0 will be considered outside the clip volume. If
code:ClipDistance is then used by a fragment shader, code:ClipDistance contains
these linearly interpolated values.
====
code:CullDistance::
Decorating a variable with the code:CullDistance built-in decoration will make
that variable contain the mechanism for controlling user culling. If any member
of this array is assigned a negative value for all vertices belonging to a
primitive, then the primitive is discarded before rasterization.
+
The code:CullDistance decoration must: be used only within vertex, fragment,
tessellation control, tessellation evaluation, and geometry shaders.
+
In vertex shaders, any variable decorated with code:CullDistance must: be
declared using the output storage class.
+
In fragment shaders, any variable decorated with code:CullDistance must: be
declared using the input storage class.
+
In tessellation control, tessellation evaluation, or geometry shaders, any
variable decorated with code:CullDistance must: not be declared in a storage
class other than input or output.
+
Any variable decorated with code:CullDistance must: be declared as an array of
32-bit floating-point values.
[NOTE]
.Note
====
In fragment shaders, the values of the code:CullDistance array are linearly
interpolated across each primitive.
====
[NOTE]
.Note
====
If code:CullDistance decorates an input variable, that variable will contain the
corresponding value from the code:CullDistance decorated output variable from
the previous shader stage.
====
code:FragCoord::
Decorating a variable with the code:FragCoord built-in decoration will make that
variable contain the framebuffer coordinate latexmath:[$(x,y,z,\frac{1}{w})$] of
the fragment being processed. The latexmath:[$(x,y)$] coordinate
latexmath:[$(0,0)$] is the upper left corner of the upper left pixel in the
framebuffer.
+
When sample shading is enabled, the latexmath:[$x$] and latexmath:[$y$]
components of code:FragCoord reflect the location of the sample corresponding
to the shader invocation.
+
When sample shading is not enabled, the x and y components of code:FragCoord
reflect the location of the center of the pixel, latexmath:[$(0.5,0.5)$].
+
The latexmath:[$z$] component of code:FragCoord is the interpolated depth value
of the primitive.
+
The latexmath:[$w$] component is the interpolated latexmath:[$\frac{1}{w}$].
+
The code:FragCoord decoration must: be used only within fragment shaders.
+
The variable decorated with code:FragCoord must: be declared using the input
storage class.
+
The code:Centroid interpolation decoration is ignored on code:FragCoord.
+
The variable decorated with code:FragCoord must: be declared as a four-component
vector of 32-bit floating-point values.
code:FragDepth::
Decorating a variable with the code:FragDepth built-in decoration will make that
variable contain the new depth value for all samples covered by the fragment.
This value will be used for depth testing and, if the depth test passes, any
subsequent write to the depth/stencil attachment.
+
To write to code:FragDepth, a shader must: declare the code:DepthReplacing
execution mode. If a shader declares the code:DepthReplacing execution mode and
there is an execution path through the shader that does not set code:FragDepth,
then the fragment's depth value is undefined for executions of the shader that
take that path.
+
The code:FragDepth decoration must: be used only within fragment shaders.
+
The variable decorated with code:FragDepth must: be declared using the output
storage class.
+
The variable decorated with code:FragDepth must: be declared as a scalar 32-bit
floating-point value.
code:FrontFacing::
Decorating a variable with the code:FrontFacing built-in decoration will make
that variable contain whether a primitive is front or back facing. This variable
is non-zero if the current fragment is considered to be part of a
<<primsrast-polygons-basic,front-facing>> primitive and is zero if the fragment
is considered to be part of a back-facing primitive.
+
The code:FrontFacing decoration must: be used only within fragment shaders.
+
The variable decorated with code:FrontFacing must: be declared using the
input storage class.
+
The variable decorated with code:FrontFacing must: be declared as a boolean.
code:GlobalInvocationId::
The code:GlobalInvocationId built-in decoration can: be applied to a variable
that represents the location of the current invocation within the global
workgroup. Each component is equal to the index of the local workgroup
Decorating a variable with the code:GlobalInvocationId built-in decoration will
make that variable contain the location of the current invocation within the
global workgroup. Each component is equal to the index of the local workgroup
multiplied by the size of the local workgroup plus code:LocalInvocationId.
+
The code:GlobalInvocationId decoration must: be used only within compute
@ -811,20 +845,25 @@ The variable decorated with code:GlobalInvocationId must: be declared using the
input storage class.
+
The variable decorated with code:GlobalInvocationId must: be declared as a
three-component vector of 32-bit unsigned integers.
three-component vector of 32-bit integers.
code:HelperInvocation::
This variable is non-zero if the fragment being shaded is a helper
invocation and zero otherwise. A helper invocation is an invocation of
Decorating a variable with the code:HelperInvocation built-in decoration will
make that variable contain whether the current invocation is a helper
invocation. This variable is non-zero if the current fragment being shaded is a
helper invocation and zero otherwise. A helper invocation is an invocation of
the shader that is produced to satisfy internal requirements such as the
generation of derivatives.
+
--
The code:HelperInvocation decoration must: be used only within fragment
shaders.
code:HelperInvocation must: be declared as a scalar 32-bit integer.
+
The variable decorated with code:HelperInvocation must: be declared using the
input storage class.
+
The variable decorated with code:HelperInvocation must: be declared as a
boolean.
[NOTE]
.Note
@ -833,73 +872,78 @@ It is very likely that a helper invocation will have a value of
code:SampleMask fragment shader input value that is zero.
====
[NOTE]
.Note
====
In GLSL, code:HelperInvocation is declared as a code:bool. To achieve
similar semantics in SPIR-V, a variable of code:OpTypeBool can: be declared
and initialized as the result of the code:OpINotEqual operation with the
operands of the code:HelperInvocation variable and an appropriately typed
constant zero.
====
--
code:InvocationId::
In a geometry shader, an input variable decorated with the code:InvocationId
decoration contains the index of the current shader invocation, which ranges
Decorating a variable with the code:InvocationId built-in decoration will make
that variable contain the index of the current shader invocation in a geometry
shader, or the index of the output patch vertex in a tessellation control
shader.
+
In a geometry shader, the index of the current shader invocation ranges
from zero to the number of <<geometry-invocations,instances>> declared in
the shader minus one. If the instance count of the geometry shader is one or
is not specified, then code:InvocationId will be zero.
+
In tessellation control shaders, and input variable decorated with the
code:InvocationId decoration contains the index of the output patch vertex
assigned to the tessellation control shader invocation.
The code:InvocationId decoration must: be used only within tessellation control
and geometry shaders.
+
The code:InvocationId decoration mustnot: be used in vertex, tessellation
evaluation, fragment, or compute shaders.
The variable decorated with code:InvocationId must: be declared using the input
storage class.
+
code:InvocationId must: be declared as a scalar 32-bit integer.
The variable decorated with code:InvocationId must: be declared as a scalar
32-bit integer.
code:InstanceIndex::
The code:InstanceIndex decoration can: be applied to a vertex shader input
which will be filled with the index of the instance that is being processed
by the current vertex shader invocation. code:InstanceIndex
begins at the pname:firstInstance parameter to flink:vkCmdDraw
or flink:vkCmdDrawIndexed or at the pname:firstInstance member
of a structure consumed by flink:vkCmdDrawIndirect or
flink:vkCmdDrawIndexedIndirect.
Decorating a variable with the code:InstanceIndex built-in decoration will make
that variable contain the index of the instance that is being processed by the
current vertex shader invocation. code:InstanceIndex begins at the
pname:firstInstance parameter to flink:vkCmdDraw or flink:vkCmdDrawIndexed or at
the pname:firstInstance member of a structure consumed by
flink:vkCmdDrawIndirect or flink:vkCmdDrawIndexedIndirect.
+
The code:InstanceIndex decoration mustnot: be used in any shader stage other
than vertex.
The code:InstanceIndex decoration must: be used only within vertex shaders.
+
code:InstanceIndex must: be declared as a scalar 32-bit integer.
The variable decorated with code:InstanceIndex must: be declared using the
input storage class.
+
The variable decorated with code:InstanceIndex must: be declared as a
scalar 32-bit integer.
code:Layer::
The code:Layer decoration can: be applied to an output variable in the
geometry shader that is written with the framebuffer layer index to which
the primitive produced by the geometry shader will be directed. If a
geometry shader entry point's interface does not include an output variable
decorated with code:Layer, then the first layer is used. If a geometry
shader entry point's interface includes an output variable decorated with
Decorating a variable with the code:Layer built-in decoration will make that
variable contain the select layer of a multi-layer framebuffer attachment.
+
In a geometry shader, any variable decorated with code:Layer can be written with
the framebuffer layer index to which the primitive produced by the geometry
shader will be directed. If a geometry shader entry-point's interface does not
include a variable decorated with code:Layer, then the first layer is used. If
a geometry shader entry-point's interface includes a variable decorated with
code:Layer, it must: write the same value to code:Layer for all output
vertices of a given primitive. When used in a fragment shader, an input
variable decorated with code:Layer contains the layer index of the primitive
that the fragment invocation belongs to.
vertices of a given primitive.
+
In a fragment shader, a variable decorated with code:Layer contains the layer
index of the primitive that the fragment invocation belongs to.
+
The code:Layer decoration must: be used only within geometry and fragment
shaders.
+
code:Layer must: be declared as a scalar 32-bit integer.
In a geometry shader, any variable decorated with code:Layer must: be declared
using the output storage class.
+
In a fragment shader, any variable decorated with code:Layer must: be declared
using the input storage class.
+
Any variable decorated with code:Layer must: be declared as a scalar 32-bit
integer.
code:LocalInvocationId::
The code:LocalInvocationId built-in decoration can: be applied to a variable
that represents the location of the current compute shader invocation within
the local workgroup. Each component ranges from zero through to the size of the
workgroup in that dimension minus one.
Decorating a variable with the code:LocalInvocationId built-in decoration will
make that variable contain the location of the current compute shader invocation
within the local workgroup. Each component ranges from zero through to the size
of the workgroup in that dimension minus one.
+
The code:LocalInvocationId decoration must: be used only within compute
shaders.
@ -908,7 +952,7 @@ The variable decorated with code:LocalInvocationId must: be declared using the
input storage class.
+
The variable decorated with code:LocalInvocationId must: be declared as a
three-component vector of 32-bit unsigned integers.
three-component vector of 32-bit integers.
[NOTE]
.Note
@ -922,11 +966,12 @@ code:LocalInvocationId.y and code:LocalInvocationId.z will be zero.
code:NumWorkgroups::
The code:NumWorkgroups built-in decoration can: be applied to a variable that
represents the number of local workgroups that are part of the dispatch that the
invocation belongs to. Each component is equal to the values of the parameters
passed into flink:vkCmdDispatch or read from the sname:VkDispatchIndirectCommand
structure read through a call to flink:vkCmdDispatchIndirect.
Decorating a variable with the code:NumWorkgroups built-in decoration will make
that variable contain the number of local workgroups that are part of the
dispatch that the invocation belongs to. Each component is equal to the values
of the parameters passed into flink:vkCmdDispatch or read from the
sname:VkDispatchIndirectCommand structure read through a call to
flink:vkCmdDispatchIndirect.
+
The code:NumWorkgroups decoration must: be used only within compute shaders.
+
@ -938,121 +983,169 @@ three-component vector of 32-bit integers.
code:PatchVertices::
An input variable decorated with code:PatchVertices in the tessellation
control or evaluation shader is an integer specifying the number of
vertices in the input patch being processed by the shader. A single
tessellation control or evaluation shader can: read patches of differing
sizes, so the code:PatchVertices variable may: differ between patches.
Decorating a variable with the code:PatchVertices built-in decoration will make
that variable contain the number of vertices in the input patch being processed
by the shader. A single tessellation control or tessellation evaluation shader
can: read patches of differing sizes, so the value of the code:PatchVertices
variable may: differ between patches.
+
The code:PatchVertices decoration must: be used only within tessellation
control and evaluation shaders.
control and tessellation evaluation shaders.
+
code:PatchVertices must: be declared as scalar 32-bit integer.
The variable decorated with code:PatchVertices must: be declared using the input
storage class.
+
The variable decorated with code:PatchVertices must: be declared as scalar
32-bit integer.
code:PointCoord::
During point rasterization, a variable decorated with code:PointCoord
contains the coordinate of the current fragment within the point being
rasterized, normalized to the size of the point with origin in the upper
Decorating a variable with the code:PointCoord built-in decoration will make
that variable contain the coordinate of the current fragment within the point
being rasterized, normalized to the size of the point with origin in the upper
left corner of the point, as described in <<primsrast-points-basic,Basic
Point Rasterization>>. If the primitive the fragment shader invocation
belongs to is not a point, then code:PointCoord is undefined.
belongs to is not a point, then the variable decorated with code:PointCoord
contains an undefined value.
+
--
The code:PointCoord decoration must: be used only within fragment shaders.
code:PointCoord must: be declared as two-component vector of 32-bit
floating-point values.
+
The variable decorated with code:PointCoord must: be declared using the
input storage class.
+
The variable decorated with code:PointCoord must: be declared as two-component
vector of 32-bit floating-point values.
[NOTE]
.Note
====
Depending on how the point is rasterized, code:PointCoord may: never
reach (0,0) or (1,1).
reach latexmath:[$(0,0)$] or latexmath:[$(1,1)$].
====
--
code:PointSize::
The code:PointSize built-in decoration is used to pass the size of point
primitives between shader stages. It can: be applied to inputs to
tessellation control and geometry shaders. It can: be applied to output
variables in vertex, tessellation evaluation and geometry shaders. The value
written to the variable decorated as code:PointSize by the last vertex
processing stage in the pipeline is used as the framebuffer space size of
points produced by rasterization. As an input, it reflects the value written
to the output decorated with code:PointSize in the previous shader stage.
Decorating a variable with the code:PointSize built-in decoration will make that
variable contain the size of point primitives. The value written to the variable
decorated with code:PointSize by the last vertex processing stage in the
pipeline is used as the framebuffer-space size of points produced by
rasterization.
+
The code:PointSize decoration mustnot: be applied to inputs in the vertex
shader and mustnot: be used in fragment or compute shaders.
The code:PointSize decoration must: be used only within vertex, tessellation
control, tessellation evaluation, and geometry shaders.
+
code:PointSize must: be declared as a scalar 32-bit floating-point value.
In a vertex shader, any variable decorated with code:PointSize must: be
declared using the output storage class.
+
In a tesselation control, tessellation evaluation, or geometry shader, any
variable decorated with code:PointSize must: be declared using either the
input or output storage class.
+
Any variable decorated with code:PointSize must: be declared as a scalar 32-bit
floating-point value.
[NOTE]
.Note
====
When code:PointSize decorates a variable in the input storage class, it contains
the data written to the output variable decorated with code:PointSize from the
previous shader stage.
====
code:Position::
The code:Position built-in decoration can: be used on variables declared as
input to tessellation control, tessellation evaluation and geometry shaders.
It can: be used on variables declared as outputs in the vertex, tessellation
control, tessellation evaluation and geometry shaders. As an input, it
contains the data written to the output variable decorated as code:Position
in the previous shader stage. As an output, the data written to a variable
decorated as code:Position is passed to the next shader stage. In the last
vertex processing stage, the output position is used in subsequent primitive
assembly, clipping and rasterization operations.
Decorating a variable with the code:Position built-in decoration will make that
variable contain the position of the current vertex. In the last vertex
processing stage, the value of the variable decorated with code:Position is used
in subsequent primitive assembly, clipping, and rasterization operations.
+
Variables decorated as code:Position mustnot: be used as inputs in vertex
shaders and mustnot: be used in fragment or compute shaders.
The code:Position decoration must: be used only within vertex, tessellation
control, tessellation evaluation, and geometry shaders.
+
code:Position must: be declared as a four-component vector of 32-bit
floating-point values.
In a vertex shader, any variable decorated with code:Position must: be declared
using the output storage class.
+
In a tesselation control, tessellation evaluation, or geometry shader, any
variable decorated with code:Position must: not be declared in a storage class
other than input or output.
+
Any variable decorated with code:Position must: be declared as a four-component
vector of 32-bit floating-point values.
[NOTE]
.Note
====
When code:Position decorates a variable in the input storage class, it contains
the data written to the output variable decorated with code:Position from the
previous shader stage.
====
code:PrimitiveId::
When the code:PrimitiveId decoration is applied to an input variable in the
tessellation control or tessellation evaluation shader, it will be filled
with the index of the patch within the current set of rendering primitives
that corresponds to the shader invocation.
Decorating a variable with the code:PrimitiveId built-in decoration will make
that variable contain the index of the current primitive.
+
When the code:PrimitiveId decoration is applied to an input variable in the
geometry shader, it will be filled with the number of primitives presented
as input to the geometry shader since the current set of rendering
primitives was started. When code:PrimitiveId is applied to an output in the
geometry shader, the resulting value is seen as an input to the fragment
shader.
In tessellation control and tessellation evaluation shaders, it will contain
the index of the patch within the current set of rendering primitives that
correspond to the shader invocation.
+
When code:PrimitiveId is applied to an input in the fragment shader, it will
be filled with the primitive index written by the geometry shader if a
geometry shader is present, or with the value that would have been presented
as input to the geometry shader had it been present. If a geometry shader is
present and the fragment shader reads from an input variable decorated with
code:PrimitiveId, then the geometry shader must: write to an output variable
decorated with code:PrimitiveId in all execution paths; otherwise the
code:PrimitiveId input in the fragment shader is undefined.
In a geometry shader, it will contain the number of primitives presented as
input to the shader since the current set of rendering primitives was started.
+
The code:PrimitiveId decoration mustnot: be used in vertex or compute
shaders. code:PrimitiveId mustnot: be used on output variables in
tessellation control, tessellation evaluation, or fragment shaders.
In a fragment shader, it will contain the primitive index written by the
geometry shader if a geometry shader is present, or with the value that would
have been presented as input to the geometry shader had it been present.
+
code:PrimitiveId must: be declared as scalar 32-bit integer.
If a geometry shader is present and the fragment shader reads from an input
variable decorated with code:PrimitiveId, then the geometry shader must: write
to an output variable decorated with code:PrimitiveId in all execution paths.
+
The code:PrimitiveId decoration must: be used only within fragment, tessellation
control, tessellation evaluation, and geometry shaders.
+
In a fragment, tesselation control or tessellation evaluation shader, any
variable decorated with code:PrimitiveId must: be declared using the output
storage class.
+
In a geometry shader, any variable decorated with code:PrimitiveId must: be
declared using either the input or output storage class.
+
Any variable decorated with code:PrimitiveId must: be declared as scalar 32-bit
integer.
[NOTE]
.Note
====
When the code:PrimitiveId decoration is applied to an output variable in the
geometry shader, the resulting value is seen through the code:PrimitiveId
decorated input variable in the fragment shader.
====
code:SampleId::
The code:SampleId decoration can: be applied to an integer input variable in
the fragment shader. This variable will contain the zero-based index of the
sample the invocation corresponds to. code:SampleId ranges from
zero to the number of samples in the framebuffer minus one. If a fragment
shader entry point's interface includes an input variable decorated with
code:SampleId, per-sample shading is enabled for draws that use that
fragment shader.
Decorating a variable with the code:SampleId built-in decoration will make that
variable contain the zero-based index of the sample the invocation corresponds to.
code:SampleId ranges from zero to the number of samples in the framebuffer
minus one. If a fragment shader entry-point's interface includes an input
variable decorated with code:SampleId, per-sample shading is enabled for draws
that use that fragment shader.
+
code:SampleId is not available in shader stages other than fragment.
The code:SampleId decoration must: be used only within fragment shaders.
+
code:SampleId must: be declared as a scalar 32-bit integer.
The variable decorated with code:SampleId must: be declared using the input
storage class.
+
The variable decorated with code:SampleId must: be declared as a scalar 32-bit
integer.
code:SampleMask::
A fragment input variable decorated with code:SampleMask will contain a
bitmask of the set of samples covered by the primitive generating the
Decorating a variable with the code:SampleMask built-in decoration will make
any variable contain the sample coverage mask for the current fragment shader
invocation.
+
A variable in the input storage class decorated with code:SampleMask will
contain a bitmask of the set of samples covered by the primitive generating the
fragment during rasterization. It has a sample bit set if and only if the
sample is considered covered for this fragment shader invocation.
code:SampleMask[] is an array of integers. Bits are mapped to samples in a
@ -1065,10 +1158,10 @@ specifies the subset of the covered samples for the fragment that correspond
to the invocation. In this case, the bit corresponding to each covered
sample will be set in exactly one fragment shader invocation.
+
A fragment output variable decorated with code:SampleMask is an array of
integers forming a bit array in a manner similar an input variable decorated
with code:SampleMask, but where each bit represents coverage as computed by
the shader. Modifying the sample mask by writing zero to a bit of
A variable in the output storage class decorated with code:SampleMask is an
array of integers forming a bit array in a manner similar an input variable
decorated with code:SampleMask, but where each bit represents coverage as
computed by the shader. Modifying the sample mask by writing zero to a bit of
code:SampleMask causes the sample to be considered uncovered. However,
setting sample mask bits to one will never enable samples not covered by the
original primitive. If the fragment shader is being evaluated at any
@ -1077,82 +1170,113 @@ to the current fragment shader invocation are ignored. This array must: be
sized in the fragment shader either implicitly or explicitly, to be no
larger than the implementation-dependent maximum sample-mask (as an array of
32-bit elements), determined by the maximum number of samples. If a fragment
shader entry point's interface includes an output variable decorated with
shader entry-point's interface includes an output variable decorated with
code:SampleMask, the sample mask will be undefined for any array elements of
any fragment shader invocations that fail to assign a value. If a fragment
shader entry point's interface does not include an output variable decorated
shader entry-point's interface does not include an output variable decorated
with code:SampleMask, the sample mask has no effect on the processing of a
fragment.
+
The code:SampleMask decoration must: be used only within fragment shaders.
+
code:SampleMask must: be declared as an array of 32-bit integers.
Any variable decorated with code:SampleMask must: be declared using either the
input or output storage class.
+
Any variable decorated with code:SampleMask must: be declared as an array of
32-bit integers.
code:SamplePosition::
This variable contains the sub-pixel position of the sample being shaded.
The top left of the pixel is considered to be at coordinate (0,0) and the
bottom right of the pixel is considered to be at coordinate (1,1). If a
fragment shader entry point's interface includes an input variable decorated
with code:SamplePosition, per-sample shading is enabled for draws that use
that fragment shader.
Decorating a variable with the code:SamplePosition built-in decoration will make
that variable contain the sub-pixel position of the sample being shaded.
The top left of the pixel is considered to be at coordinate latexmath:[$(0,0)$]
and the bottom right of the pixel is considered to be at coordinate
latexmath:[$(1,1)$]. If a fragment shader entry-point's interface includes an
input variable decorated with code:SamplePosition, per-sample shading is enabled
for draws that use that fragment shader.
+
The code:SamplePosition decoration must: be used only within fragment shaders.
+
code:SamplePosition must: be declared as a two-component vector of
floating-point values.
The variable decorated with code:SamplePosition must: be declared using the
input storage class.
+
The variable decorated with code:SamplePosition must: be declared as a
two-component vector of 32-bit floating-point values.
code:TessCoord::
The code:TessCoord is applied to an input variable in tessellation
evaluation shaders and specifies the three-dimensional (u,v,w) barycentric
coordinate of the tessellated vertex within the patch. u, v,
and w are in the range latexmath:[$[0,1\]$] and vary linearly across the
primitive being subdivided. For the tessellation modes of code:Quads or
code:IsoLines, the third component is always zero.
Decorating a variable with the code:TessCoord built-in decoration will make that
variable contain the three-dimensional latexmath:[$(u,v,w)$] barycentric
coordinate of the tessellated vertex within the patch. latexmath:[$u$],
latexmath:[$v$], and latexmath:[$w$] are in the range latexmath:[$[0,1\]$] and
vary linearly across the primitive being subdivided. For the tessellation modes
of code:Quads or code:IsoLines, the third component is always zero.
+
The code:TessCoord decoration must: be used only within tessellation
evaluation shaders.
+
code:TessCoord must: be declared as three-component vector of 32-bit
floating-point values.
The variable decorated with code:TessCoord must: be declared using the
input storage class.
+
The variable decorated with code:TessCoord must: be declared as three-component
vector of 32-bit floating-point values.
code:TessLevelOuter::
The code:TessLevelOuter decoration is used in tessellation control
shaders to decorate an output variable to contain the outer tessellation
factors for the resulting patch. These values are used by the tessellator
to control primitive tessellation and can: be read by
tessellation evaluation shaders. When applied to an input variable in a
tessellation evaluation shader, the shader can: read the values written by
the tessellation control shader.
Decorating a variable with the code:TessLevelOuter built-in decoration will make
that variable contain the outer tessellation levels for the current patch.
+
In tessellation control shaders, the variable decorated with code:TessLevelOuter
can: be written to which controls the tessellation factors for the resulting
patch. These values are used by the tessellator to control primitive
tessellation and can: be read by tessellation evaluation shaders.
+
In tessellation evaluation shaders, the variable decorated with
code:TessLevelOuter can: read the values written by the tessellation control
shader.
+
The code:TessLevelOuter decoration must: be used only within
tessellation control and evaluation shaders.
tessellation control and tessellation evaluation shaders.
+
code:TessLevelOuter must: be declared as an array of size four,
containing 32-bit floating-point values.
In a tessellation control shader, any variable decorated with
code:TessLevelOuter must: be declared using the output storage class.
+
In a tessellation evaluation shader, any variable decorated with
code:TessLevelOuter must: be declared using the input storage class.
+
Any variable decorated with code:TessLevelOuter must: be declared as an array
of size four, containing 32-bit floating-point values.
code:TessLevelInner::
The code:TessLevelInner decoration is used in tessellation control
shaders to decorate an output variable to contain the inner tessellation
factors for the resulting patch. These values are used by the tessellator to
control primitive tessellation and can: be read by
tessellation evaluation shaders. When applied to an input variable in a
tessellation evaluation shader, the shader can: read the values written by
the tessellation control shader.
Decorating a variable with the code:TessLevelInner built-in decoration will make
that variable contain the inner tessellation levels for the current patch.
+
In tessellation control shaders, the variable decorated with code:TessLevelInner
can: be written to, which controls the tessellation factors for the resulting
patch. These values are used by the tessellator to control primitive
tessellation and can: be read by tessellation evaluation shaders.
+
In tessellation evaluation shaders, the variable decorated with
code:TessLevelInner can: read the values written by the tessellation control
shader.
+
The code:TessLevelInner decoration must: be used only within
tessellation control and evaluation shaders.
tessellation control and tessellation evaluation shaders.
+
code:TessLevelInner must: be declared as an array of size two,
containing 32-bit floating-point values.
In a tessellation control shader, any variable decorated with
code:TessLevelInner must: be declared using the output storage class.
+
In a tessellation evaluation shader, any variable decorated with
code:TessLevelInner must: be declared using the input storage class.
+
Any variable decorated with code:TessLevelInner must: be declared as an array
of size two, containing 32-bit floating-point values.
code:VertexIndex::
The code:VertexIndex decoration can: be applied to a vertex shader input
which will be filled with the index of the vertex that is being processed by
Decorating a variable with the code:VertexIndex built-in decoration will make
that variable contain the index of the vertex that is being processed by
the current vertex shader invocation. For non-indexed draws,
this variable begins at the pname:firstVertex parameter to
flink:vkCmdDraw or the pname:firstVertex member of a structure consumed by
@ -1162,39 +1286,58 @@ vertex plus the pname:vertexOffset parameter to
flink:vkCmdDrawIndexed or the pname:vertexOffset member of the structure
consumed by flink:vkCmdDrawIndexedIndirect.
+
code:VertexIndex starts at the same starting value for each instance.
+
The code:VertexIndex decoration must: be used only within vertex shaders.
+
code:VertexIndex must: be declared as a 32-bit integer.
The variable decorated with code:VertexIndex must: be declared using the
input storage class.
+
The variable decorated with code:VertexIndex must: be declared as a scalar
32-bit integer.
[NOTE]
.Note
====
code:VertexIndex starts at the same starting value for each instance.
====
code:ViewportIndex::
The code:ViewportIndex decoration can: be applied to an output variable in
the geometry shader that is written with the viewport index to which the
primitive produced by the geometry shader will be directed. The selected
Decorating a variable with the code:ViewportIndex built-in decoration will make
that variable contain the index of the viewport.
+
In a geometry shader, the variable decorated with code:ViewportIndex can be
written to with the viewport index to which the primitive produced by the
geometry shader will be directed. The selected
viewport index is used to select the viewport transform and scissor
rectangle. If a geometry shader entry point's interface does not include an
output variable decorated with code:ViewportIndex, then the first viewport
is used. If a geometry shader entry point's interface includes an output
variable decorated with code:ViewportIndex, it must: write the same value to
code:ViewportIndex for all output vertices of a given primitive. When used
in a fragment shader, an input variable decorated with code:ViewportIndex
rectangle. If a geometry shader entry-point's interface does not include a
variable decorated with code:ViewportIndex, then the first viewport
is used. If a geometry shader entry-point's interface includes a variable
decorated with code:ViewportIndex, it must: write the same value to
code:ViewportIndex for all output vertices of a given primitive.
+
In a fragment shader, the variable decorated with code:ViewportIndex
contains the viewport index of the primitive that the fragment invocation
belongs to.
+
The code:ViewportIndex decoration must: be used only within geometry and
fragment shaders.
+
code:ViewportIndex must: be declared as a 32-bit integer.
In a geometry shader, any variable decorated with code:ViewportIndex must: be
declared using the output storage class.
+
In a fragment shader, any variable decorated with code:ViewportIndex must: be
declared using the input storage class.
+
Any variable decorated with code:ViewportIndex must: be declared as a scalar
32-bit integer.
code:WorkgroupId::
The code:WorkgroupId built-in decoration can: be applied to a variable that
represents the global workgroup that the current invocation is a member of.
Each component ranges from zero to the values of the parameters passed into
flink:vkCmdDispatch or read from the sname:VkDispatchIndirectCommand structure
read through a call to flink:vkCmdDispatchIndirect.
Decorating a variable with the code:WorkgroupId built-in decoration will make
that variable contain theglobal workgroup that the current invocation is a
member of. Each component ranges from zero to the values of the parameters
passed into flink:vkCmdDispatch or read from the sname:VkDispatchIndirectCommand
structure read through a call to flink:vkCmdDispatchIndirect.
+
The code:WorkgroupId decoration must: be used only within compute shaders.
+
@ -1202,14 +1345,14 @@ The variable decorated with code:WorkgroupId must: be declared using the input
storage class.
+
The variable decorated with code:WorkgroupId must: be declared as a
three-component vector of 32-bit unsigned integers.
three-component vector of 32-bit integers.
code:WorkgroupSize::
The code:WorkgroupSize built-in decoration can: be applied to an object that
represents the dimensions of a local workgroup. If an object is decorated with
the code:WorkgroupSize decoration, this must: take precedence over any execution
mode set for code:LocalSize.
Decorating a variable with the code:WorkgroupSize built-in decoration will make
that variable contain the dimensions of a local workgroup. If an object is
decorated with the code:WorkgroupSize decoration, this must: take precedence
over any execution mode set for code:LocalSize.
+
The code:WorkgroupSize decoration must: be used only within compute shaders.
+
@ -1217,4 +1360,4 @@ The object decorated with code:WorkgroupSize must: be a specialization constant
or a constant.
+
The object decorated with code:WorkgroupSize must: be declared as a
three-component vector of 32-bit unsigned integers.
three-component vector of 32-bit integers.

6
doc/specs/vulkan/chapters/memory.txt
View File

@ -307,7 +307,7 @@ they are associated with.
If an allocator is provided to a ftext:vkCreate* command, a _compatible_
allocator must: be provided to the corresponding ftext:vkDestroy* command.
Two sname:VkAllocationCallbacks structures are compatible if memory created
Two sname:VkAllocationCallbacks structures are compatible if memory allocated
with pname:pfnAllocation or pname:pfnReallocation in each can: be freed with
pname:pfnReallocation or pname:pfnFree in the other. An allocator must: not
be provided to a ftext:vkDestroy* command if an allocator was not provided
@ -355,7 +355,7 @@ situations:
** fname:vkCreateCommandPool
** fname:vkAllocateCommandBuffers for the pname:commandPool member of its
pname:pAllocateInfo parameter
** any ftext:vkCmd* command whose pname:commandBuffer was created from
** any ftext:vkCmd* command whose pname:commandBuffer was allocated from
that sname:VkCommandPool
* Host memory scoped to the lifetime of any other object may: only be
allocated in that object's ftext:vkCreate* command.
@ -374,7 +374,7 @@ pname:pfnFree may: be called in the following situations:
* Host memory scoped to the lifetime of a sname:VkCommandPool may: be
freed from:
** any command that takes the pool as a direct argument
** fname:vkResetCommandBuffer whose pname:commandBuffer was created from
** fname:vkResetCommandBuffer whose pname:commandBuffer was allocated from
that sname:VkCommandPool
* Host memory scoped to the lifetime of any other object may: be freed in
that object's ftext:vkDestroy* command.

25
doc/specs/vulkan/man/VkCommandBufferInheritanceInfo.txt
View File

@ -24,18 +24,21 @@ include::../api/structs/VkCommandBufferInheritanceInfo.txt[]
Members
-------
* pname:renderPass is a sname:VkRenderPass object that must: be
<<renderpass-compatibility, compatible>> with the one that is bound when
the sname:VkCommandBuffer is executed if the command buffer was
allocated with the
ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT set.
* pname:renderPass is a sname:VkRenderPass object defining which
render passes the sname:VkCommandBuffer will be
<<renderpass-compatibility, compatible>> with and can: be executed
within. If the sname:VkCommandBuffer will not be executed within a
render pass instance, pname:renderPass is ignored.
* pname:subpass is the index of the subpass within pname:renderPass that
the sname:VkCommandBuffer will be rendering against if it was allocated
with the ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT set.
* pname:framebuffer refers to the sname:VkFramebuffer object that the
sname:VkCommandBuffer will be rendering to if it was allocated with
the ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT set. It can:
be dlink:VK_NULL_HANDLE if the framebuffer is not known.
the sname:VkCommandBuffer will be executed within. If the
sname:VkCommandBuffer will not be executed within a render pass
instance, pname:subpass is ignored.
* pname:framebuffer optionally refers to the sname:VkFramebuffer
object that the sname:VkCommandBuffer will be rendering to if it is
executed within a render pass instance. It can:
be dlink:VK_NULL_HANDLE if the framebuffer is not known, or if the
sname:VkCommandBuffer will not be executed within a render pass
instance.
+
[NOTE]
.Note

2
doc/specs/vulkan/man/VkCommandPoolCreateInfo.txt
View File

@ -47,7 +47,7 @@ include::../api/enums/VkCommandPoolCreateFlagBits.txt[]
only be reset in bulk by calling fname:vkResetCommandPool.
* pname:queueFamilyIndex designates a queue family as described in section
<<devsandqueues-queueprops,Queue Family Properties>>. All command
buffers created from this command pool must: be submitted on queues
buffers allocated from this command pool must: be submitted on queues
from the same queue family.

24
doc/specs/vulkan/man/VkDescriptorBufferInfo.txt
View File

@ -29,16 +29,30 @@ Members
* pname:range is the size in bytes that is used for this descriptor
update, or ename:VK_WHOLE_SIZE to use the range from pname:offset to the
end of the buffer.
Description
-----------
+
--
[NOTE]
.Note
====
When using ename:VK_WHOLE_SIZE, the effective range mustnot: be larger
than the maximum range for the descriptor type
(<<features-limits-maxUniformBufferRange, maxUniformBufferRange>> or
<<features-limits-maxStorageBufferRange, maxStorageBufferRange>>). This
means that ename:VK_WHOLE_SIZE is not typically useful in the common
case where uniform buffer descriptors are suballocated from a buffer
that is much larger than pname:maxUniformBufferRange.
====
--
+
For ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC and
ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC descriptor types,
pname:offset is the base offset from which the dynamic offset is applied and
pname:range is the static size used for all dynamic offsets.
Description
-----------
include::../validity/structs/VkDescriptorBufferInfo.txt[]

3
doc/specs/vulkan/man/vkCmdExecuteCommands.txt
View File

@ -25,8 +25,7 @@ Parameters
----------
* pname:commandBuffer is a handle to a primary command buffer that the
secondary command buffers are submitted to, and must: be in the
recording state.
secondary command buffers are executed in.
* pname:commandBufferCount is the length of the pname:pCommandBuffers
array.
* pname:pCommandBuffers is an array of secondary command buffer handles,

6
doc/specs/vulkan/validity/protos/vkCmdBeginQuery.txt
View File

@ -18,9 +18,9 @@ endif::doctype-manpage[]
* If the <<features-features-occlusionQueryPrecise,precise occlusion queries>> feature is not enabled, or the pname:queryType used to create pname:queryPool was not ename:VK_QUERY_TYPE_OCCLUSION, pname:flags mustnot: contain ename:VK_QUERY_CONTROL_PRECISE_BIT
* pname:queryPool must: have been created with a pname:queryType that differs from that of any other queries that have been made <<queries-operation-active,active>>, and are currently still active within pname:commandBuffer
* pname:query must: be less than the number of queries in pname:queryPool
* If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_OCCLUSION, the sname:VkCommandPool that pname:commandBuffer was created from must: support graphics operations
* If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_PIPELINE_STATISTICS and any of the pname:pipelineStatistics indicate graphics operations, the sname:VkCommandPool that pname:commandBuffer was created from must: support graphics operations
* If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_PIPELINE_STATISTICS and any of the pname:pipelineStatistics indicate compute operations, the sname:VkCommandPool that pname:commandBuffer was created from must: support compute operations
* If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_OCCLUSION, the sname:VkCommandPool that pname:commandBuffer was allocated from must: support graphics operations
* If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_PIPELINE_STATISTICS and any of the pname:pipelineStatistics indicate graphics operations, the sname:VkCommandPool that pname:commandBuffer was allocated from must: support graphics operations
* If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_PIPELINE_STATISTICS and any of the pname:pipelineStatistics indicate compute operations, the sname:VkCommandPool that pname:commandBuffer was allocated from must: support compute operations
ifndef::doctype-manpage[]
********************************************************************************
endif::doctype-manpage[]

2
doc/specs/vulkan/validity/protos/vkCmdBindDescriptorSets.txt
View File

@ -16,7 +16,7 @@ endif::doctype-manpage[]
* The sname:VkCommandPool that pname:commandBuffer was allocated from must: support graphics, or compute operations
* pname:descriptorSetCount must: be greater than `0`
* Each of pname:commandBuffer, pname:layout, and the elements of pname:pDescriptorSets must: have been created, allocated, or retrieved from the same sname:VkDevice
* Any given element of pname:pDescriptorSets must: have been created with a sname:VkDescriptorSetLayout that matches (is the same as, or defined identically to) the sname:VkDescriptorSetLayout at set _n_ in pname:layout, where _n_ is the sum of pname:firstSet and the index into pname:pDescriptorSets
* Any given element of pname:pDescriptorSets must: have been allocated with a sname:VkDescriptorSetLayout that matches (is the same as, or defined identically to) the sname:VkDescriptorSetLayout at set _n_ in pname:layout, where _n_ is the sum of pname:firstSet and the index into pname:pDescriptorSets
* pname:dynamicOffsetCount must: be equal to the total number of dynamic descriptors in pname:pDescriptorSets
* The sum of pname:firstSet and pname:descriptorSetCount must: be less than or equal to sname:VkPipelineLayoutCreateInfo::pname:setLayoutCount provided when pname:layout was created
* pname:pipelineBindPoint must: be supported by the pname:commandBuffer's parent sname:VkCommandPool's queue family

9
doc/specs/vulkan/validity/protos/vkCmdExecuteCommands.txt
View File

@ -14,10 +14,10 @@ endif::doctype-manpage[]
* pname:commandBuffer must: be a primary sname:VkCommandBuffer
* pname:commandBufferCount must: be greater than `0`
* Both of pname:commandBuffer, and the elements of pname:pCommandBuffers must: have been created, allocated, or retrieved from the same sname:VkDevice
* pname:commandBuffer must: have been created with a pname:level of ename:VK_COMMAND_BUFFER_LEVEL_PRIMARY
* Any given element of pname:pCommandBuffers must: have been created with a pname:level of ename:VK_COMMAND_BUFFER_LEVEL_SECONDARY
* Any given element of pname:pCommandBuffers mustnot: be already pending execution in pname:commandBuffer, or appear twice in pname:pCommandBuffers, unless it was created with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT flag
* Any given element of pname:pCommandBuffers mustnot: be already pending execution in any other sname:VkCommandBuffer, unless it was created with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT flag
* pname:commandBuffer must: have been allocated with a pname:level of ename:VK_COMMAND_BUFFER_LEVEL_PRIMARY
* Any given element of pname:pCommandBuffers must: have been allocated with a pname:level of ename:VK_COMMAND_BUFFER_LEVEL_SECONDARY
* Any given element of pname:pCommandBuffers mustnot: be already pending execution in pname:commandBuffer, or appear twice in pname:pCommandBuffers, unless it was recorded with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT flag
* Any given element of pname:pCommandBuffers mustnot: be already pending execution in any other sname:VkCommandBuffer, unless it was recorded with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT flag
* Any given element of pname:pCommandBuffers must: be in the executable state
* Any given element of pname:pCommandBuffers must: have been allocated from a sname:VkCommandPool that was created for the same queue family as the sname:VkCommandPool from which pname:commandBuffer was allocated
* If fname:vkCmdExecuteCommands is being called within a render pass instance, that render pass instance must: have been begun with the pname:contents parameter of fname:vkCmdBeginRenderPass set to ename:VK_SUBPASS_CONTENTS_SECONDARY_COMMAND_BUFFERS
@ -25,6 +25,7 @@ endif::doctype-manpage[]
* If fname:vkCmdExecuteCommands is being called within a render pass instance, any given element of pname:pCommandBuffers must: have been recorded with sname:VkCommandBufferInheritanceInfo::pname:subpass set to the index of the subpass which the given command buffer will be executed in
* If fname:vkCmdExecuteCommands is being called within a render pass instance, any given element of pname:pCommandBuffers must: have been recorded with a render pass that is compatible with the current render pass - see <<renderpass-compatibility>>
* If fname:vkCmdExecuteCommands is being called within a render pass instance, and any given element of pname:pCommandBuffers was recorded with sname:VkCommandBufferInheritanceInfo::pname:framebuffer not equal to dlink:VK_NULL_HANDLE, that sname:VkFramebuffer must: match the sname:VkFramebuffer used in the current render pass instance
* If fname:vkCmdExecuteCommands is not being called within a render pass instance, any given element of pname:pCommandBuffers mustnot: have been recorded with the ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT
* If the <<features-features-inheritedQueries,inherited queries>> feature is not enabled, pname:commandBuffer mustnot: have any queries <<queries-operation-active,active>>
* If pname:commandBuffer has a ename:VK_QUERY_TYPE_OCCLUSION query <<queries-operation-active,active>>, then each element of pname:pCommandBuffers must: have been recorded with sname:VkCommandBufferInheritanceInfo::pname:occlusionQueryEnable set to ename:VK_TRUE
* If pname:commandBuffer has a ename:VK_QUERY_TYPE_OCCLUSION query <<queries-operation-active,active>>, then each element of pname:pCommandBuffers must: have been recorded with sname:VkCommandBufferInheritanceInfo::pname:queryFlags having all bits set that are set for the query

1
doc/specs/vulkan/validity/structs/VkImageCreateInfo.txt
View File

@ -24,6 +24,7 @@ endif::doctype-manpage[]
* The pname:width, pname:height, and pname:depth members of pname:extent must: all be greater than `0`
* pname:mipLevels must: be greater than `0`
* pname:arrayLayers must: be greater than `0`
* If pname:flags contains ename:VK_IMAGE_CREATE_CUBE_COMPATIBLE_BIT, pname:imageType must be ename:VK_IMAGE_TYPE_2D
* If pname:imageType is ename:VK_IMAGE_TYPE_1D, pname:extent.width must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxImageDimension1D, or sname:VkImageFormatProperties::pname:maxExtent.width (as returned by fname:vkGetPhysicalDeviceImageFormatProperties with pname:format, pname:type, pname:tiling, pname:usage, and pname:flags equal to those in this structure) - whichever is higher
* If pname:imageType is ename:VK_IMAGE_TYPE_2D and pname:flags does not contain ename:VK_IMAGE_CREATE_CUBE_COMPATIBLE_BIT, pname:extent.width and pname:extent.height must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxImageDimension2D, or sname:VkImageFormatProperties::pname:maxExtent.width/height (as returned by fname:vkGetPhysicalDeviceImageFormatProperties with pname:format, pname:type, pname:tiling, pname:usage, and pname:flags equal to those in this structure) - whichever is higher
* If pname:imageType is ename:VK_IMAGE_TYPE_2D and pname:flags contains ename:VK_IMAGE_CREATE_CUBE_COMPATIBLE_BIT, pname:extent.width and pname:extent.height must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxImageDimensionCube, or sname:VkImageFormatProperties::pname:maxExtent.width/height (as returned by fname:vkGetPhysicalDeviceImageFormatProperties with pname:format, pname:type, pname:tiling, pname:usage, and pname:flags equal to those in this structure) - whichever is higher

8
doc/specs/vulkan/validity/structs/VkSubmitInfo.txt
View File

@ -19,11 +19,11 @@ endif::doctype-manpage[]
* Any given element of pname:pCommandBuffers must: either have been recorded with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT, or not currently be executing on the device
* Any given element of pname:pCommandBuffers must: be in the executable state
* If any given element of pname:pCommandBuffers contains commands that execute secondary command buffers, those secondary command buffers must: have been recorded with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT, or not currently be executing on the device
* If any given element of pname:pCommandBuffers was created with ename:VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT, it mustnot: have been previously submitted without re-recording that command buffer
* If any given element of pname:pCommandBuffers contains commands that execute secondary command buffers created with ename:VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT, each such secondary command buffer mustnot: have been previously submitted without re-recording that command buffer
* If any given element of pname:pCommandBuffers was recorded with ename:VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT, it mustnot: have been previously submitted without re-recording that command buffer
* If any given element of pname:pCommandBuffers contains commands that execute secondary command buffers recorded with ename:VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT, each such secondary command buffer mustnot: have been previously submitted without re-recording that command buffer
* Any given element of pname:pCommandBuffers mustnot: contain commands that execute a secondary command buffer, if that secondary command buffer has been recorded in another primary command buffer after it was recorded into this sname:VkCommandBuffer
* Any given element of pname:pCommandBuffers must: have been created on a sname:VkCommandPool that was created for the same queue family that the calling command's pname:queue belongs to
* Any given element of pname:pCommandBuffers mustnot: have been created with ename:VK_COMMAND_BUFFER_LEVEL_SECONDARY
* Any given element of pname:pCommandBuffers must: have been allocated from a sname:VkCommandPool that was created for the same queue family that the calling command's pname:queue belongs to
* Any given element of pname:pCommandBuffers mustnot: have been allocated with ename:VK_COMMAND_BUFFER_LEVEL_SECONDARY
* Any given element of sname:VkSemaphore in pname:pWaitSemaphores must: refer to a prior signal of that sname:VkSemaphore that will not be consumed by any other wait on that semaphore
* If the <<features-features-geometryShader,geometry shaders>> feature is not enabled, any given element of pname:pWaitDstStageMask mustnot: contain ename:VK_PIPELINE_STAGE_GEOMETRY_SHADER_BIT
* If the <<features-features-tessellationShader,tessellation shaders>> feature is not enabled, any given element of pname:pWaitDstStageMask mustnot: contain ename:VK_PIPELINE_STAGE_TESSELLATION_CONTROL_SHADER_BIT or ename:VK_PIPELINE_STAGE_TESSELLATION_EVALUATION_SHADER_BIT

6
doc/specs/vulkan/validity/structs/VkWriteDescriptorSet.txt
View File

@ -19,14 +19,14 @@ endif::doctype-manpage[]
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_SAMPLER, ename:VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, ename:VK_DESCRIPTOR_TYPE_SAMPLED_IMAGE, ename:VK_DESCRIPTOR_TYPE_STORAGE_IMAGE, or ename:VK_DESCRIPTOR_TYPE_INPUT_ATTACHMENT, pname:pImageInfo must: be a pointer to an array of pname:descriptorCount valid sname:VkDescriptorImageInfo structures
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_TEXEL_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_TEXEL_BUFFER, pname:pTexelBufferView must: be a pointer to an array of pname:descriptorCount valid sname:VkBufferView handles
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER, ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER, ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, pname:pBufferInfo must: be a pointer to an array of pname:descriptorCount valid sname:VkDescriptorBufferInfo structures
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_SAMPLER or ename:VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, and pname:dstSet was not created with a layout that included immutable samplers for pname:dstBinding with pname:descriptorType, the pname:sampler member of any given element of pname:pImageInfo must: be a valid sname:VkSampler object
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_SAMPLER or ename:VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, and pname:dstSet was not allocated with a layout that included immutable samplers for pname:dstBinding with pname:descriptorType, the pname:sampler member of any given element of pname:pImageInfo must: be a valid sname:VkSampler object
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, ename:VK_DESCRIPTOR_TYPE_SAMPLED_IMAGE, ename:VK_DESCRIPTOR_TYPE_STORAGE_IMAGE, or ename:VK_DESCRIPTOR_TYPE_INPUT_ATTACHMENT, the pname:imageView and pname:imageLayout members of any given element of pname:pImageInfo must: be a valid sname:VkImageView and elink:VkImageLayout, respectively
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER or ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, the pname:offset member of any given element of pname:pBufferInfo must: be a multiple of sname:VkPhysicalDeviceLimits::pname:minUniformBufferOffsetAlignment
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, the pname:offset member of any given element of pname:pBufferInfo must: be a multiple of sname:VkPhysicalDeviceLimits::pname:minStorageBufferOffsetAlignment
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER or ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, the pname:buffer member of any given element of pname:pBufferInfo must: have been created with ename:VK_BUFFER_USAGE_UNIFORM_BUFFER_BIT set
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, the pname:buffer member of any given element of pname:pBufferInfo must: have been created with ename:VK_BUFFER_USAGE_STORAGE_BUFFER_BIT set
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER or ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, the pname:range member of any given element of pname:pBufferInfo must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxUniformBufferRange
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, the pname:range member of any given element of pname:pBufferInfo must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxStorageBufferRange
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER or ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, the pname:range member of any given element of pname:pBufferInfo, or the effective range if pname:range is ename:VK_WHOLE_SIZE, must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxUniformBufferRange
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, the pname:range member of any given element of pname:pBufferInfo, or the effective range if pname:range is ename:VK_WHOLE_SIZE, must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxStorageBufferRange
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_TEXEL_BUFFER, the sname:VkBuffer that any given element of pname:pTexelBufferView was created from must: have been created with ename:VK_BUFFER_USAGE_UNIFORM_TEXEL_BUFFER_BIT set
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_TEXEL_BUFFER, the sname:VkBuffer that any given element of pname:pTexelBufferView was created from must: have been created with ename:VK_BUFFER_USAGE_STORAGE_TEXEL_BUFFER_BIT set
* If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_IMAGE or ename:VK_DESCRIPTOR_TYPE_INPUT_ATTACHMENT, the pname:imageView member of any given element of pname:pImageInfo must: have been created with the identity swizzle

48
src/spec/vk.xml
View File

@ -101,7 +101,7 @@ maintained in the master branch of the Khronos Vulkan Github project.
<type category="define">// Vulkan 1.0 version number
#define <name>VK_API_VERSION_1_0</name> <type>VK_MAKE_VERSION</type>(1, 0, 0)</type> <!-- The patch version here should never be set to anything other than 0 -->
<type category="define">// Version of this file
#define <name>VK_HEADER_VERSION</name> 23</type>
#define <name>VK_HEADER_VERSION</name> 24</type>
<type category="define">
#define <name>VK_DEFINE_HANDLE</name>(object) typedef struct object##_T* object;</type>
@ -626,14 +626,14 @@ maintained in the master branch of the Khronos Vulkan Github project.
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_SAMPLER, ename:VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, ename:VK_DESCRIPTOR_TYPE_SAMPLED_IMAGE, ename:VK_DESCRIPTOR_TYPE_STORAGE_IMAGE, or ename:VK_DESCRIPTOR_TYPE_INPUT_ATTACHMENT, pname:pImageInfo must: be a pointer to an array of pname:descriptorCount valid sname:VkDescriptorImageInfo structures</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_TEXEL_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_TEXEL_BUFFER, pname:pTexelBufferView must: be a pointer to an array of pname:descriptorCount valid sname:VkBufferView handles</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER, ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER, ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, pname:pBufferInfo must: be a pointer to an array of pname:descriptorCount valid sname:VkDescriptorBufferInfo structures</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_SAMPLER or ename:VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, and pname:dstSet was not created with a layout that included immutable samplers for pname:dstBinding with pname:descriptorType, the pname:sampler member of any given element of pname:pImageInfo must: be a valid sname:VkSampler object</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_SAMPLER or ename:VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, and pname:dstSet was not allocated with a layout that included immutable samplers for pname:dstBinding with pname:descriptorType, the pname:sampler member of any given element of pname:pImageInfo must: be a valid sname:VkSampler object</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_COMBINED_IMAGE_SAMPLER, ename:VK_DESCRIPTOR_TYPE_SAMPLED_IMAGE, ename:VK_DESCRIPTOR_TYPE_STORAGE_IMAGE, or ename:VK_DESCRIPTOR_TYPE_INPUT_ATTACHMENT, the pname:imageView and pname:imageLayout members of any given element of pname:pImageInfo must: be a valid sname:VkImageView and elink:VkImageLayout, respectively</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER or ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, the pname:offset member of any given element of pname:pBufferInfo must: be a multiple of sname:VkPhysicalDeviceLimits::pname:minUniformBufferOffsetAlignment</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, the pname:offset member of any given element of pname:pBufferInfo must: be a multiple of sname:VkPhysicalDeviceLimits::pname:minStorageBufferOffsetAlignment</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER or ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, the pname:buffer member of any given element of pname:pBufferInfo must: have been created with ename:VK_BUFFER_USAGE_UNIFORM_BUFFER_BIT set</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, the pname:buffer member of any given element of pname:pBufferInfo must: have been created with ename:VK_BUFFER_USAGE_STORAGE_BUFFER_BIT set</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER or ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, the pname:range member of any given element of pname:pBufferInfo must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxUniformBufferRange</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, the pname:range member of any given element of pname:pBufferInfo must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxStorageBufferRange</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER or ename:VK_DESCRIPTOR_TYPE_UNIFORM_BUFFER_DYNAMIC, the pname:range member of any given element of pname:pBufferInfo, or the effective range if pname:range is ename:VK_WHOLE_SIZE, must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxUniformBufferRange</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER or ename:VK_DESCRIPTOR_TYPE_STORAGE_BUFFER_DYNAMIC, the pname:range member of any given element of pname:pBufferInfo, or the effective range if pname:range is ename:VK_WHOLE_SIZE, must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxStorageBufferRange</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_UNIFORM_TEXEL_BUFFER, the sname:VkBuffer that any given element of pname:pTexelBufferView was created from must: have been created with ename:VK_BUFFER_USAGE_UNIFORM_TEXEL_BUFFER_BIT set</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_TEXEL_BUFFER, the sname:VkBuffer that any given element of pname:pTexelBufferView was created from must: have been created with ename:VK_BUFFER_USAGE_STORAGE_TEXEL_BUFFER_BIT set</usage>
<usage>If pname:descriptorType is ename:VK_DESCRIPTOR_TYPE_STORAGE_IMAGE or ename:VK_DESCRIPTOR_TYPE_INPUT_ATTACHMENT, the pname:imageView member of any given element of pname:pImageInfo must: have been created with the identity swizzle</usage>
@ -804,6 +804,7 @@ maintained in the master branch of the Khronos Vulkan Github project.
<usage>The pname:width, pname:height, and pname:depth members of pname:extent must: all be greater than `0`</usage>
<usage>pname:mipLevels must: be greater than `0`</usage>
<usage>pname:arrayLayers must: be greater than `0`</usage>
<usage>If pname:flags contains ename:VK_IMAGE_CREATE_CUBE_COMPATIBLE_BIT, pname:imageType must be ename:VK_IMAGE_TYPE_2D</usage>
<usage>If pname:imageType is ename:VK_IMAGE_TYPE_1D, pname:extent.width must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxImageDimension1D, or sname:VkImageFormatProperties::pname:maxExtent.width (as returned by fname:vkGetPhysicalDeviceImageFormatProperties with pname:format, pname:type, pname:tiling, pname:usage, and pname:flags equal to those in this structure) - whichever is higher</usage>
<usage>If pname:imageType is ename:VK_IMAGE_TYPE_2D and pname:flags does not contain ename:VK_IMAGE_CREATE_CUBE_COMPATIBLE_BIT, pname:extent.width and pname:extent.height must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxImageDimension2D, or sname:VkImageFormatProperties::pname:maxExtent.width/height (as returned by fname:vkGetPhysicalDeviceImageFormatProperties with pname:format, pname:type, pname:tiling, pname:usage, and pname:flags equal to those in this structure) - whichever is higher</usage>
<usage>If pname:imageType is ename:VK_IMAGE_TYPE_2D and pname:flags contains ename:VK_IMAGE_CREATE_CUBE_COMPATIBLE_BIT, pname:extent.width and pname:extent.height must: be less than or equal to sname:VkPhysicalDeviceLimits::pname:maxImageDimensionCube, or sname:VkImageFormatProperties::pname:maxExtent.width/height (as returned by fname:vkGetPhysicalDeviceImageFormatProperties with pname:format, pname:type, pname:tiling, pname:usage, and pname:flags equal to those in this structure) - whichever is higher</usage>
@ -1938,11 +1939,11 @@ maintained in the master branch of the Khronos Vulkan Github project.
<usage>Any given element of pname:pCommandBuffers must: either have been recorded with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT, or not currently be executing on the device</usage>
<usage>Any given element of pname:pCommandBuffers must: be in the executable state</usage>
<usage>If any given element of pname:pCommandBuffers contains commands that execute secondary command buffers, those secondary command buffers must: have been recorded with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT, or not currently be executing on the device</usage>
<usage>If any given element of pname:pCommandBuffers was created with ename:VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT, it mustnot: have been previously submitted without re-recording that command buffer</usage>
<usage>If any given element of pname:pCommandBuffers contains commands that execute secondary command buffers created with ename:VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT, each such secondary command buffer mustnot: have been previously submitted without re-recording that command buffer</usage>
<usage>If any given element of pname:pCommandBuffers was recorded with ename:VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT, it mustnot: have been previously submitted without re-recording that command buffer</usage>
<usage>If any given element of pname:pCommandBuffers contains commands that execute secondary command buffers recorded with ename:VK_COMMAND_BUFFER_USAGE_ONE_TIME_SUBMIT_BIT, each such secondary command buffer mustnot: have been previously submitted without re-recording that command buffer</usage>
<usage>Any given element of pname:pCommandBuffers mustnot: contain commands that execute a secondary command buffer, if that secondary command buffer has been recorded in another primary command buffer after it was recorded into this sname:VkCommandBuffer</usage>
<usage>Any given element of pname:pCommandBuffers must: have been created on a sname:VkCommandPool that was created for the same queue family that the calling command's pname:queue belongs to</usage>
<usage>Any given element of pname:pCommandBuffers mustnot: have been created with ename:VK_COMMAND_BUFFER_LEVEL_SECONDARY</usage>
<usage>Any given element of pname:pCommandBuffers must: have been allocated from a sname:VkCommandPool that was created for the same queue family that the calling command's pname:queue belongs to</usage>
<usage>Any given element of pname:pCommandBuffers mustnot: have been allocated with ename:VK_COMMAND_BUFFER_LEVEL_SECONDARY</usage>
<usage>Any given element of sname:VkSemaphore in pname:pWaitSemaphores must: refer to a prior signal of that sname:VkSemaphore that will not be consumed by any other wait on that semaphore</usage>
<usage>If the &lt;&lt;features-features-geometryShader,geometry shaders&gt;&gt; feature is not enabled, any given element of pname:pWaitDstStageMask mustnot: contain ename:VK_PIPELINE_STAGE_GEOMETRY_SHADER_BIT</usage>
<usage>If the &lt;&lt;features-features-tessellationShader,tessellation shaders&gt;&gt; feature is not enabled, any given element of pname:pWaitDstStageMask mustnot: contain ename:VK_PIPELINE_STAGE_TESSELLATION_CONTROL_SHADER_BIT or ename:VK_PIPELINE_STAGE_TESSELLATION_EVALUATION_SHADER_BIT</usage>
@ -3945,7 +3946,7 @@ maintained in the master branch of the Khronos Vulkan Github project.
<param optional="true"><type>uint32_t</type> <name>dynamicOffsetCount</name></param>
<param len="dynamicOffsetCount">const <type>uint32_t</type>* <name>pDynamicOffsets</name></param>
<validity>
<usage>Any given element of pname:pDescriptorSets must: have been created with a sname:VkDescriptorSetLayout that matches (is the same as, or defined identically to) the sname:VkDescriptorSetLayout at set _n_ in pname:layout, where _n_ is the sum of pname:firstSet and the index into pname:pDescriptorSets</usage>
<usage>Any given element of pname:pDescriptorSets must: have been allocated with a sname:VkDescriptorSetLayout that matches (is the same as, or defined identically to) the sname:VkDescriptorSetLayout at set _n_ in pname:layout, where _n_ is the sum of pname:firstSet and the index into pname:pDescriptorSets</usage>
<usage>pname:dynamicOffsetCount must: be equal to the total number of dynamic descriptors in pname:pDescriptorSets</usage>
<usage>The sum of pname:firstSet and pname:descriptorSetCount must: be less than or equal to sname:VkPipelineLayoutCreateInfo::pname:setLayoutCount provided when pname:layout was created</usage>
<usage>pname:pipelineBindPoint must: be supported by the pname:commandBuffer's parent sname:VkCommandPool's queue family</usage>
@ -4428,9 +4429,9 @@ maintained in the master branch of the Khronos Vulkan Github project.
<usage>If the &lt;&lt;features-features-occlusionQueryPrecise,precise occlusion queries&gt;&gt; feature is not enabled, or the pname:queryType used to create pname:queryPool was not ename:VK_QUERY_TYPE_OCCLUSION, pname:flags mustnot: contain ename:VK_QUERY_CONTROL_PRECISE_BIT</usage>
<usage>pname:queryPool must: have been created with a pname:queryType that differs from that of any other queries that have been made &lt;&lt;queries-operation-active,active&gt;&gt;, and are currently still active within pname:commandBuffer</usage>
<usage>pname:query must: be less than the number of queries in pname:queryPool</usage>
<usage>If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_OCCLUSION, the sname:VkCommandPool that pname:commandBuffer was created from must: support graphics operations</usage>
<usage>If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_PIPELINE_STATISTICS and any of the pname:pipelineStatistics indicate graphics operations, the sname:VkCommandPool that pname:commandBuffer was created from must: support graphics operations</usage>
<usage>If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_PIPELINE_STATISTICS and any of the pname:pipelineStatistics indicate compute operations, the sname:VkCommandPool that pname:commandBuffer was created from must: support compute operations</usage>
<usage>If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_OCCLUSION, the sname:VkCommandPool that pname:commandBuffer was allocated from must: support graphics operations</usage>
<usage>If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_PIPELINE_STATISTICS and any of the pname:pipelineStatistics indicate graphics operations, the sname:VkCommandPool that pname:commandBuffer was allocated from must: support graphics operations</usage>
<usage>If the pname:queryType used to create pname:queryPool was ename:VK_QUERY_TYPE_PIPELINE_STATISTICS and any of the pname:pipelineStatistics indicate compute operations, the sname:VkCommandPool that pname:commandBuffer was allocated from must: support compute operations</usage>
</validity>
</command>
<command queues="graphics,compute" renderpass="both" cmdbufferlevel="primary,secondary">
@ -4537,10 +4538,10 @@ maintained in the master branch of the Khronos Vulkan Github project.
<param><type>uint32_t</type> <name>commandBufferCount</name></param>
<param len="commandBufferCount">const <type>VkCommandBuffer</type>* <name>pCommandBuffers</name></param>
<validity>
<usage>pname:commandBuffer must: have been created with a pname:level of ename:VK_COMMAND_BUFFER_LEVEL_PRIMARY</usage>
<usage>Any given element of pname:pCommandBuffers must: have been created with a pname:level of ename:VK_COMMAND_BUFFER_LEVEL_SECONDARY</usage>
<usage>Any given element of pname:pCommandBuffers mustnot: be already pending execution in pname:commandBuffer, or appear twice in pname:pCommandBuffers, unless it was created with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT flag</usage>
<usage>Any given element of pname:pCommandBuffers mustnot: be already pending execution in any other sname:VkCommandBuffer, unless it was created with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT flag</usage>
<usage>pname:commandBuffer must: have been allocated with a pname:level of ename:VK_COMMAND_BUFFER_LEVEL_PRIMARY</usage>
<usage>Any given element of pname:pCommandBuffers must: have been allocated with a pname:level of ename:VK_COMMAND_BUFFER_LEVEL_SECONDARY</usage>
<usage>Any given element of pname:pCommandBuffers mustnot: be already pending execution in pname:commandBuffer, or appear twice in pname:pCommandBuffers, unless it was recorded with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT flag</usage>
<usage>Any given element of pname:pCommandBuffers mustnot: be already pending execution in any other sname:VkCommandBuffer, unless it was recorded with the ename:VK_COMMAND_BUFFER_USAGE_SIMULTANEOUS_USE_BIT flag</usage>
<usage>Any given element of pname:pCommandBuffers must: be in the executable state</usage>
<usage>Any given element of pname:pCommandBuffers must: have been allocated from a sname:VkCommandPool that was created for the same queue family as the sname:VkCommandPool from which pname:commandBuffer was allocated</usage>
<usage>If fname:vkCmdExecuteCommands is being called within a render pass instance, that render pass instance must: have been begun with the pname:contents parameter of fname:vkCmdBeginRenderPass set to ename:VK_SUBPASS_CONTENTS_SECONDARY_COMMAND_BUFFERS</usage>
@ -4548,6 +4549,7 @@ maintained in the master branch of the Khronos Vulkan Github project.
<usage>If fname:vkCmdExecuteCommands is being called within a render pass instance, any given element of pname:pCommandBuffers must: have been recorded with sname:VkCommandBufferInheritanceInfo::pname:subpass set to the index of the subpass which the given command buffer will be executed in</usage>
<usage>If fname:vkCmdExecuteCommands is being called within a render pass instance, any given element of pname:pCommandBuffers must: have been recorded with a render pass that is compatible with the current render pass - see &lt;&lt;renderpass-compatibility&gt;&gt;</usage>
<usage>If fname:vkCmdExecuteCommands is being called within a render pass instance, and any given element of pname:pCommandBuffers was recorded with sname:VkCommandBufferInheritanceInfo::pname:framebuffer not equal to dlink:VK_NULL_HANDLE, that sname:VkFramebuffer must: match the sname:VkFramebuffer used in the current render pass instance</usage>
<usage>If fname:vkCmdExecuteCommands is not being called within a render pass instance, any given element of pname:pCommandBuffers mustnot: have been recorded with the ename:VK_COMMAND_BUFFER_USAGE_RENDER_PASS_CONTINUE_BIT</usage>
<usage>If the &lt;&lt;features-features-inheritedQueries,inherited queries&gt;&gt; feature is not enabled, pname:commandBuffer mustnot: have any queries &lt;&lt;queries-operation-active,active&gt;&gt;</usage>
<usage>If pname:commandBuffer has a ename:VK_QUERY_TYPE_OCCLUSION query &lt;&lt;queries-operation-active,active&gt;&gt;, then each element of pname:pCommandBuffers must: have been recorded with sname:VkCommandBufferInheritanceInfo::pname:occlusionQueryEnable set to ename:VK_TRUE</usage>
<usage>If pname:commandBuffer has a ename:VK_QUERY_TYPE_OCCLUSION query &lt;&lt;queries-operation-active,active&gt;&gt;, then each element of pname:pCommandBuffers must: have been recorded with sname:VkCommandBufferInheritanceInfo::pname:queryFlags having all bits set that are set for the query</usage>
@ -5542,5 +5544,19 @@ maintained in the master branch of the Khronos Vulkan Github project.
<enum value="&quot;VK_NV_extension_54&quot;" name="VK_NV_EXTENSION_54_EXTENSION_NAME"/>
</require>
</extension>
<extension name="VK_IMG_format_pvrtc" number="55" author="IMG" contact="Tobias Hector @tobias" supported="vulkan">
<require>
<enum value="1" name="VK_IMG_FORMAT_PVRTC_SPEC_VERSION"/>
<enum value="&quot;VK_IMG_format_pvrtc&quot;" name="VK_IMG_FORMAT_PVRTC_EXTENSION_NAME"/>
<enum offset="0" extends="VkFormat" name="VK_FORMAT_PVRTC1_2BPP_UNORM_BLOCK_IMG"/>
<enum offset="1" extends="VkFormat" name="VK_FORMAT_PVRTC1_4BPP_UNORM_BLOCK_IMG"/>
<enum offset="2" extends="VkFormat" name="VK_FORMAT_PVRTC2_2BPP_UNORM_BLOCK_IMG"/>
<enum offset="3" extends="VkFormat" name="VK_FORMAT_PVRTC2_4BPP_UNORM_BLOCK_IMG"/>
<enum offset="4" extends="VkFormat" name="VK_FORMAT_PVRTC1_2BPP_SRGB_BLOCK_IMG"/>
<enum offset="5" extends="VkFormat" name="VK_FORMAT_PVRTC1_4BPP_SRGB_BLOCK_IMG"/>
<enum offset="6" extends="VkFormat" name="VK_FORMAT_PVRTC2_2BPP_SRGB_BLOCK_IMG"/>
<enum offset="7" extends="VkFormat" name="VK_FORMAT_PVRTC2_4BPP_SRGB_BLOCK_IMG"/>
</require>
</extension>
</extensions>
</registry>

15
src/vulkan/vulkan.h
View File

@ -43,7 +43,7 @@ extern "C" {
#define VK_VERSION_MINOR(version) (((uint32_t)(version) >> 12) & 0x3ff)
#define VK_VERSION_PATCH(version) ((uint32_t)(version) & 0xfff)
// Version of this file
#define VK_HEADER_VERSION 23
#define VK_HEADER_VERSION 24
#define VK_NULL_HANDLE 0
@ -430,6 +430,14 @@ typedef enum VkFormat {
VK_FORMAT_ASTC_12x10_SRGB_BLOCK = 182,
VK_FORMAT_ASTC_12x12_UNORM_BLOCK = 183,
VK_FORMAT_ASTC_12x12_SRGB_BLOCK = 184,
VK_FORMAT_PVRTC1_2BPP_UNORM_BLOCK_IMG = 1000054000,
VK_FORMAT_PVRTC1_4BPP_UNORM_BLOCK_IMG = 1000054001,
VK_FORMAT_PVRTC2_2BPP_UNORM_BLOCK_IMG = 1000054002,
VK_FORMAT_PVRTC2_4BPP_UNORM_BLOCK_IMG = 1000054003,
VK_FORMAT_PVRTC1_2BPP_SRGB_BLOCK_IMG = 1000054004,
VK_FORMAT_PVRTC1_4BPP_SRGB_BLOCK_IMG = 1000054005,
VK_FORMAT_PVRTC2_2BPP_SRGB_BLOCK_IMG = 1000054006,
VK_FORMAT_PVRTC2_4BPP_SRGB_BLOCK_IMG = 1000054007,
VK_FORMAT_BEGIN_RANGE = VK_FORMAT_UNDEFINED,
VK_FORMAT_END_RANGE = VK_FORMAT_ASTC_12x12_SRGB_BLOCK,
VK_FORMAT_RANGE_SIZE = (VK_FORMAT_ASTC_12x12_SRGB_BLOCK - VK_FORMAT_UNDEFINED + 1),
@ -3956,6 +3964,11 @@ typedef struct VkDedicatedAllocationMemoryAllocateInfoNV {
#define VK_IMG_format_pvrtc 1
#define VK_IMG_FORMAT_PVRTC_SPEC_VERSION 1
#define VK_IMG_FORMAT_PVRTC_EXTENSION_NAME "VK_IMG_format_pvrtc"
#ifdef __cplusplus
}
#endif