GLSL tagged news

Shader Conductor is one of several open-source projects for going from one shading language to another. With Microsoft's Shader Conductor the focus is on converting HLSL to GLSL or SPIR-V (OpenGL/Vulkan), ESSL (OpenGL ES), MSL (Apple Metal), and older HLSL shader models. Shader Conductor can handle all shader stages, including geometry and compute shaders. Learn more about this new Open Source project from Microsoft.

Khronos has released a provisional Vulkan Memory Model Specification that includes extensions for Vulkan, SPIR-V, and GLSL and gives Vulkan developers additional control over how their shaders synchronize access to should cooperate safely over memory operations in a parallel execution environment. In tandem with the extension specification, Khronos has released memory model extension conformance tests to enable implementers to do early tests on their shader compilers to ensure that the specified memory synchronization is implemented correctly. The memory model will have an Alloy description of the extension functionality to enable formal modeling and experimentation.

GSN Composer: Online GLSL shader editorThe GSN Composer is an online node-based visual programming environment that allows generating custom nodes using GLSL/WebGL. For every uniform variable that is created within the GLSL shader code editor, an input slot is automatically added to the corresponding shader node, which can be connected to other nodes of the dataflow graph. This makes online shader prototyping very fast and intuitive and frees the developer of writing many lines of support code to fill the GLSL uniform variables with values. The GSN Composer requires no login and is free-of-charge. All that is needed to get started is a web-browser and your creativity. Several simple GLSL examples are provided such that this tool is also suited as starting point for GLSL/WebGL beginners.

Many applications porting to Vulkan also need a way to port their HLSL shaders to SPIR-V. Glslang provides a method to translate HLSL shaders to SPIR-V, which is now available and ready to use. Currently the HLSL mode of the glslang frontend is complete enough to run complex, real-world workloads such as Dota 2 and Ashes of the Singularity. It accepts shaders for any shader stage, and handles common language constructs for functions, control flow, variable and type declarations, registers and pack offsets, most DX10 and later texture methods, most intrinsic functions, most preprocessor functionality, most built-in semantics, and attributes that affect stage functionality. To learn more about the HLSL to SPIR-V translator, visit this FAQ at the glslang GitHub.

The latest PowerVR SDK v3.4 includes several exciting new features, including the addition of the latest compilers for PowerVR Series6 (FP16 and FP32) and Series6XT GPUs to PVRShaderEditor, providing more up-to-date shader profiling. PVRShaderEditor also adds new functionality to access the GLSL disassembly for these compilers as well as full instruction set documentation for PowerVR Rogue GPUs. A new WebGL SDK has been included in the package.

NME 3.5.5 has been released with WebGL support. NME is a framework for building games and applications for mobile, desktop and web platforms. OpenGLView was introduced in NME 3.5, and support for HTML5, using WebGL has now been added. The new “HerokuShaders” sample is a great cross-platform illustration of GLSL shaders at work. The sample will run on Windows, Mac, Linux, BlackBerry and HTML5, and will run on other mobile platforms once GLES2 support is official.

The NVIDIA Developer Tools team is proud to announce the first full featured release candidate of NVIDIA Nsight Visual Studio Edition 3.0. This new release officially supports OpenGL frame debugging and profiling, GLSL GPU shader debugging, local single GPU shader debugging, the new Kepler GK110 architecture found in Tesla® K20 and CUDA 5.0.

Shaderific is an educational app for iPad, iPhone and iPod touch that makes it possible to write, compile and test OpenGL ES 2.0 shader programs directly on any iOS device. Version 2.4 adds a built-in reference for the OpenGL Shading Language (GLSL) and context-sensitive help. The reference comprises a detailed description of all GLSL data types, qualifiers, variables, constants, statements and functions. Context-sensitive help can be invoked while editing code by pressing the tab button on the extended keyboard.

Version 1.0.0 of the free open-source, cross-platform 3D application framework PixelLight has been released. We're using OpenGL as well as GLSL within our main-renderer and OpenGL ES 2.0 for Android. The primary focus of this release was on quality assurance. On the graphics side, tesselation as well as instancing support was added to the rendering system. Further we added the capability of rendering volume data.

Version 0.9.11 of the free open-source, cross-platform 3D application framework PixelLight has been released. We're using OpenGL as well as GLSL within our main-renderer and OpenGL ES 2.0 for Android. Highlight of this release is the new Qt based viewer. This tool makes it possible to inspect complete scenes via the GUI and offers basic edit features for visual debugging. On the renderer side, we've added "Fast Approximate Anti-Aliasing" (FXAA) and support for volume texture compression (VTC).

GLSL Studio lets you experiment with examples and learn as you go. With camera texture streaming you can create your own animated video filters and view the results instantly. Anything you point the camera at is run through your current program. Programming + Imagination = Fun! GLSL Studio is a full OpenGL programming environment supporting both vertex and fragment shaders. Programs can be easily exported for use on any platform that supports OpenGL ES 2.0.

Version 0.9.10 of the free open-source, cross-platform 3D application framework PixelLight has been released. We're using OpenGL as well as GLSL within our main-renderer and OpenGL ES 2.0 for Android. From this release on we officially support 64 bit. New developers joint the team and enabled us to do further bug fixing, stabilisation of the technology and to enhance the CMake based build system to make it easier to build PixelLight from it's sources.