Vulkan Ray Tracing Tutorial KHR

Visualizing GL_NV_shader_sm_builtins

Using GL_NV_shader_sm_builtins to visualize Streaming Multiprocessors and Warps

Unreal Engine 4 Rendering Part 1: Introduction

Learning to write custom shaders!

Sparse Virtual Shadow Maps

Devlogs and tutorials about GPGPU and graphics programming

Command Buffers :: Vulkan Documentation Project

Command buffers are objects used to record commands which can be subsequently submitted to a device queue for execution. There are two levels of command buffers - primary command buffers, which can execute secondary command buffers, and which are submitted to queues, and secondary command buffers, which can be executed by primary command buffers, and which are not directly submitted to queues.

Modern rendering culling techniques | krupitskas 🌦️

🏠🏠🏠🌲🌲🌲🏠🌲🌲🏠🌲🌲🏠🌲🏠🌲❌🏠🌲🌲🌲

expenses/vulkan-without-abstractions

Contribute to expenses/vulkan-without-abstractions development by creating an account on GitHub.

Realtime Raytracing in Bevy 0.18 (Solari)

Bevy, Rust, Graphics, etc

Understanding The Math Behind ReSTIR GI

Recently, I had the pleasure of contributing to Nvidia’s Zorah project, the flagship demo for the RTX 50 Series GPUs. My primary role was to provide technical support for light transport in Zorah, which included collaborating with my colleague Daqi Lin to implement a brand new ReSTIR-based global illumination solution, specifically, ReSTIR PT[1], within the NvRTX branch of Unreal Engine. A GDC presentation video on Zorah was released a few weeks ago.

A guide to fast voxel ray tracing using sparse 64-trees

If you have ever tried to ray trace voxels before, you might have heard about Sparse Voxel Octrees. They are one of those ideas that are just simple and clever enough to be intriguing, but not so great to hold in practice at the basic premise.

Hash Functions for GPU Rendering – Nathan Reed’s coding blog

Pixels and polygons and shaders, oh my!

Rendering Particles with Compute Shaders

Overview I developed a technique to render single-pixel particles (using additive blending) with compute shaders rather than the usual fixed-function rasterization with vertex and fragment shaders. My approach runs 31–350% faster than rasterization on the cases I tested and is particularly faster for some “pathological” cases (which for my application are not actually that uncommon). I observed these speedups on both NVIDIA and AMD GPUs. Using this technique allowed me to ship an app that runs on minimum-spec hardware without sacrificing visual fidelity.

Welcome to the Strix Halo Wiki!

Welcome to the Strix Halo Wiki! The purpose of this website it to gather important information and practical guides for systems powered by AMD Ryzen AI MAX and MAX+ processors. Our guides cover various topics and of course there is a separate section…

anadodik/iskra

A geometry processing library.

OpenGL Overview

OpenGL Overview