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* Add interface for new gfx features.
* Add cuda implementation.
* Code review fixes.
* Fix.
Co-authored-by: Yong He <yhe@nvidia.com>
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* GFX: implement mutable shader objects.
* Revert unnecessary changes
* Revert more changes.
* Fix clang errors.
* Fix clang/gcc errors.
* Fix clang errors.
* Remove CPU test.
* Fix after merge.
* Fix after merge.
* Remove gl test
* Code review fixes.
* Fixing all vk validation errors.
* Flush test output more often.
* Fix a crash in `specializeDynamicAssociatedTypeLookup`.
* temporarily disable std-lib-serialize test to see what happens
* Fix crashes.
* Make sure cpu gfx unit tests are properly disabled on TeamCity.
* Disable cpu test.
* Fix.
* Fix cuda.
* Disable nv-ray-tracing-motion-blur
Co-authored-by: Yong He <yhe@nvidia.com>
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* Added getNativeHandle() to TextureResource and BufferResource; Implemented getNativeHandle() in Vulkan and D3D12; Added new unit test files for the aforementioned implementation
* Added missing getNativeHandle() implementations to renderer-shared.cpp and CUDA
* Finished new getNativeHandle() unit tests for ITextureResource and IBufferResource; Modified ICommandQueue and ICommandBuffer unit tests to call QueryInterface to convert to IUnknown then back and compare resulting pointers for equality
* Unit tests updated and pass locally
* Cast m_buffer.m_buffer and m_image to uint64_t
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* Added a getNativeHandle() method that retrieves the natively created handles; Modified RendererBase, VKDevice, D3D12Device, and DebugDevice to implement this new method
* Moved ExistingDeviceHandles out of Desc directly inside IDevice and renamed to NativeHandles; Modified calls accessing the struct accordingly in RendererBase, DebugDevice, VKDevice, and D3D12Device
* Minor cleanup changes (renames, etc.)
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* Experimental DXR1.0 support in gfx.
- Add `dispatchRays` command.
- Add `createRayTracingPipelineState` method to construct a D3D ray tracing state object from a linked slang program and user specified shader table.
Limitations/simplifications: no local root signature support, shader table entries contains only shader identifiers and is specified at pipeline creation time, owned by the pipeline state object.
* Root object binding for raytracing pipelines.
* `maybeSpecializePipeline` implementation for raytracing pipelines.
* Add ray-tracing-pipeline example.
* Fixes.
* Update README.md
* Update comments on the lifespan of specialized pipelines
Co-authored-by: Yong He <yhe@nvidia.com>
Co-authored-by: jsmall-nvidia <jsmall@nvidia.com>
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* Minor refactor to gfx D3D12 implementation.
- Allow more flexible collection of shader stages in a shader program.
- Add `createRayTracingPipelineState` public interface. (no implementation).
* Fix Vulkan initialization.
Co-authored-by: Yong He <yhe@nvidia.com>
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* Update VS projects to 2019.
* Empty commit to trigger build
* Implement gfx inline ray tracing on D3D12.
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* Support timestamp queries in `gfx`.
* Fix tab
Co-authored-by: Yong He <yhe@nvidia.com>
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* Allow overriding specialization args via `IShaderObject`.
* Fixes.
Co-authored-by: T. Foley <tfoleyNV@users.noreply.github.com>
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Co-authored-by: T. Foley <tfoleyNV@users.noreply.github.com>
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* `gfx` DebugCallback and debug layer.
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* Fix `model-viewer` crash when using Vulkan.
Fixing an issue in shader object layout creation for to make sure a correct descriptor set layout is calculated for types that need an implicit constant buffer.
* Fix formatting.
* Fixes.
* Fix memory leak in vulkan.
* Remove resource `Usage` from `gfx` interface.
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* Fixing `PseudoPtr` legalization and `gfx` lifetime issues.
* Fixing `model-viewer` example.
This change contains various fixes to bring `model-viewer` example to fully functional. These fixes include:
1. Add `spReflectionTypeLayout_getSubObjectRangeSpaceOffset` function to return the space index for a sub object referenced through a `ParameterBlock` binding.
2. Make sure `D3D12Device` specifies column major matrix order creating a Slang session.
3. Fix `platform::Window::close()` and `platform::Application::quit()`.
4. Fix memory leak during `model-viewer''s model loading.
5. Fix command buffer recording in `model-viewer`.
With these changes, model viewer can now produce an image with a gray cube. The lighting is still incorrect becuase the `gfx` shader object implementation still does not handle "pending layout" resulting from global existential parameters.
* Fix d3d12 root signature creation.
* Use row-major matrix layout in model-viewer
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* Improve robustness of gfx lifetime management.
* fix clang error
* fix clang error
* Fix clang warning
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* Reimplement Vulkan shader objects.
This change reimplements Vulkan shader objects in the `gfx` layer so that it is no longer layered on top of the `DescriptorSet` abstraction. Since this is the last implementation that uses `DescriptorSet`, the change also removes all `DescriptorSet` related API from public `gfx` interface.
The Vulkan implementation now passes all test cases, but it still have two issues:
1. The PushConstant setting is not correct, this is because we don't seem to be able to get correct reflection data about the size of push constants for an entry-point.
2. The `shader-toy` example can't run on Vulkan, because it currently sets nullptr to `Texture` bindings, and this change doesn't properly handle setting resource to null in `ShaderObject`s yet. If we can use the `nullDescriptor` feature on vulkan, this implementation will be simple. However we still want to decide whether we want to use a Vulkan 1.2 feature for this.
* Fix up
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* Add a CPU renderer implementation
This change adds a CPU back-end to `gfx` and ensures that most of our existing CPU tests pass when using it.
Detailed notes:
* Most of the CPU renderer implementation is copy-pasted from the CUDA case, so they share a lot of similar logic
* The main addition to the CPU renderer is a semi-complete implementation of host-memory textures. The logic here handles all the main shapes (Buffer, 1D, 2D, 3D, Cube) and all the currently-supported `Format`s that are sample-able as-is (no D24S8). The implementation is not intended to be fast, and it currently only does nearest-neighbor sampling, but otherwise it tries to avoid cutting too many corners and should be ar reasonable starting point for a more complete (but not performance-oriented) implementation.
* Refactored the CPU prelude `IRWTexture` interface to inherit from `ITexture`, since in most cases a single type will end up implementing both. It might be worth it to collapse it all down to a single interface later.
* Changed the CPU prelude `ITexture`/`IRWTexture` interface so that it takes both a pointer *and* a size for output arguments. This change seems necessary to allow a shader variable declared as a `Texture2D<float>` to fetch a single `float` when the underlying texture might be using RGBA32F.
* Added to the `IComponentType` public API so that we can query a "host callable" for an entry point and not just a binary.
* Turned off the `-shaderobj` flag on two tests that weren't yet compatible with shader objects but still had the flag left in on the path (since previously the CPU path always used the non-`gfx` non-shader-object logic anyway)
* Disabled one test (`dynamic-dispatch-11`) that relied on the `ConstantBuffer<IInterface>` idiom that we know we are planning to chagne soon anyway.
* Made a few changes to the CUDA path to bring it into line with what I added for the CPU path. These were mostly bug fixes around indexing logic for sub-objects and resources.
* fixup
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* Swapchain resize
* Fix.
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* Refactor `gfx` to surface `CommandBuffer` interface.
* Fixes.
* Fix code review issues, and make vulkan runnable on devices without VK_EXT_extended_dynamic_states.
* Update solution files
* Move out-of-date examples to examples/experimental
Co-authored-by: Yong He <yhe@nvidia.com>
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* Shader object specialization work-in-progress
The big change here is in the `setObject()` implementations, where we now take write the witness table ID and data for the value being assigned in both the CUDA and graphics-API paths (it is possible the code could be shared...). The logic for deciding whether a value "fits" in the existential value payload should actually be correct here, since it uses the reflection data.
The other relevant change is that the logic for writing out the ordinary/uniform data for a shader object on the graphics-API path has been updated so that it only allocates the GPU buffer *after* it knows the specialized layout, and can thus allocate space for any extra parameter data that wasn't in the original layout but got added by specialization. There is some inactive code in place that tries to sketch how the implementation should handle writing the data of sub-objects for interface-type fields into the appropriate areas of the allocated buffer for a parent object, but that is stubbed out for now pending implementation of the relevant reflection information.
This change also introduces logic in the graphics-API path to create a specialized layout for a shader object on-demand (so that it will only be created after the specialization arguments are known or can be inferred). The implementation needs to treat ordinary shader objects and root shader objects differently because the Slang API handles specialization differently for ordinary types vs. `IComponentType`s.
Some notes and caveats:
* The CUDA path doesn't need to compute specialized layouts the way the graphics-API path does because layout doesn't change based on specialization for that path (just as it won't for the CPU path)
* This code just skips over the RTTI field in existential values because it seems that we currently aren't using it in generated code.
* We are completely missing the logic for recursively writing the resource ranges of sub-objects bound to interface-type fields into the descriptor set(s) of the parent object. The missing link there is reflection API support, just as it is for filling in the ordinary/uniform data. We need a way to get the binding range offset (and binding array stride) for the "pending" data of a specialized interface-type field.
* The logic for computing specialization arguments based on the shader objects bound to interface-type fields has a lot of holes. Some of the indexing math is flat-out incorrect, and it also doesn't make any attempt to handle sub-object ranges with more than one element in them. I tweaked some of the code there to make it *more* correct, but that doesn't mean it is actually correct at this point.
* The logic for computing a specialized `IComponentType` for a `ProgramVars` in the graphics-API path seems to have a lot of overlap with `maybeSpecializeProgram()`, so we should look into ways to avoid the duplication over time.
* clang error fix
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* Explicit swapchain interface in `gfx`.
* Correctly return nullptr when `IRenderer` creation failed.
* Fix crashes on CUDA tests.
* Cleanups.
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* Make gfx library visible to external user.
* Fixup
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This change kind of rolls together two different simplifications:
1. The `createShaderObject()` shouldn't really need to take an `IShaderObjectLayout` because it could just take the `slang::TypeLayoutReflection` instead and create the shader-object layout behind the scenes.
2. For that matter, it needn't take a `slang::TypeLayoutReflection` either, becaues it could just take a `slang::TypeReflection` and query the layout of that type behind the scenes.
The combination of these two changes means:
* `IShaderObjectLayout` is gone from the public API, as is `createShaderObjectLayout()`
* `createShaderObject()` directly takes a `slang::TypeReflection` and allocates a shader object of that type
The result is simpler and more streamlined application code.
Note that under the hood the implementation still has shader-object layouts, using the `ShaderObjectLayoutBase` class. A few locations had to change to use `RefPtr`s instead of `ComPtr`s now that the class is no longer a public COM-lite API type.
The hope is that this change makes it easier to allocate/cache layouts for things like specialized types "under the hood," as is needed to implement parameter setting for static specialization.
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* COM-ify all slang-gfx interfaces.
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