GPU-T is a Linux desktop utility for comprehensive GPU information and monitoring, positioned as a GPU-Z alternative for Linux. It provides real-time sensor data (clocks, temperatures, power, fan speeds), static hardware specifications from JSON databases and sysfs, and detection of API capabilities (Vulkan, OpenCL, CUDA, etc.) through a modular probe system. The application follows the MVVM pattern with Avalonia UI and features a sidecar process for NVIDIA-specific NVAPI/NVML interactions to ensure stability and isolate native interop. Hardware detection relies on sysfs paths, external tool execution, and vendor-specific databases, with user override capabilities for hardware specifications. The modular design separates concerns into probes for hardware polling, advanced providers for feature detection, and utilities for common tasks like settings management and shell command execution.
Kaiju Engine is a full-featured 2D/3D game engine written in Go, backed by Vulkan for rendering. It includes a built-in editor that runs as a game within the engine, providing workspaces for stage management, shader design, render graph editing, terrain painting, and content browsing. The engine core handles entity management, physics (custom Graviton engine with rigid bodies, constraints, and collision detection), audio (SoLoud via CGo), networking (UDP with reliability), UI (custom HTML/CSS markup engine with flexbox/grid layout), asset pipeline (glTF, FBX, textures, fonts), and cross-platform support (Windows, Linux, macOS, Android). The editor adds undo/redo history, action system with key bindings, Lua scripting, a Web API, and a plugin system. The codebase is a monorepo with heavy use of Go build tags for platform-specific code and feature flags.
rspirv is a Rust workspace providing comprehensive SPIR-V module processing functionality. It includes a core library (rspirv) with a low-level data representation (DR) for raw instructions and a higher-level structured representation (SR) with type-safe indices. The project also features a binary parser, an assembler, a disassembler CLI (rspirv-dis), and a code generator (rspirv-autogen) that derives Rust types from the official SPIR-V JSON grammar. The parser supports custom consumers via the Consumer trait, enabling streaming or custom processing. The builder (dr/build) allows programmatic construction of SPIR-V modules. The lift module converts from DR to SR, bridging the two representations. The codebase is heavily auto-generated from the SPIR-V specification, ensuring spec compliance, but this also introduces risks of drift if the grammar submodule is not updated. The project is actively maintained with CI/CD pipelines, and the multi-crate workspace is designed for both library reuse and standalone tool usage.
This repository is the Intel XeSS SDK, a comprehensive set of libraries and APIs for integrating AI-powered super resolution (XeSS-SR), frame generation (XeSS-FG), and low-latency optimization (XeLL) into games and applications. It provides C-callable functions for DirectX 11, DirectX 12, and Vulkan, along with sample applications demonstrating each technology. The SDK is distributed as precompiled DLLs, header files, and documentation. The samples render a simple animated triangle and show the complete integration flow: context creation, initialization, per-frame execution, and resource management. The codebase is well-structured with consistent error handling, versioning, and logging patterns across all three technology areas.
This repository implements a dual-console emulator targeting PlayStation 3 (RPCS3) and PlayStation 4 (RPCSX/Orbis). The codebase is a large C++ project with a modular architecture: kernel emulation layers for both consoles (syscalls, threads, memory management), CPU emulation (PPU/SPU for PS3, GCN for PS4), GPU emulation (RSX for PS3 with OpenGL/Vulkan backends, GCN shader compiler for PS4), audio backends (Cubeb, FAudio, ALSA), input handlers (DS3, DS4, XInput, PS Move, etc.), network emulation (RPCN, UPnP), and a custom overlay UI system. The project is under active development with frequent commits, though many PS3 firmware modules remain as stubs or placeholders. The architecture separates PS3 and PS4 emulation into distinct directories (`rpcs3/` and `rpcsx/`), sharing a common utility library (`rx/`) that provides synchronization primitives, memory management, and debugging tools. The GPU emulation is particularly sophisticated, featuring a custom shader intermediate representation (IR) for AMD GCN instructions with optimization passes and SPIR-V/GLSL backends. The codebase also includes a comprehensive serialization framework for savestates, a YAML-based configuration system, and a texture cache predictor for GPU performance. Key entry points include the main emulator executables (built from `rpcs3/` and `rpcsx/`), the kernel syscall handlers in `kernel/orbis/` and `kernel/cellos/`, the GPU renderers in `rpcs3/Emu/RSX/` and `rpcsx/gpu/`, and the PS3 firmware HLE modules in `ps3fw/`. External dependencies include Vulkan, OpenGL, FFmpeg, WolfSSL, SDL2, libusb, and several audio libraries. The project is primarily a software application for console emulation, with significant reverse-engineering and research components.
This is a Nintendo Switch emulator, a direct fork of the defunct yuzu emulator rebranded as 'Citron Neo'. It provides full system emulation through high-level emulation (HLE) of Switch system services, kernel, GPU (Vulkan), audio, and input. The application has three frontends: a desktop Qt GUI, an Android app (Kotlin/JNI), and an iOS app (Swift/Metal). It supports loading Switch game formats (NSP, XCI, NCA), executing ARM code via Dynarmic, and rendering graphics via Vulkan with custom post-processing (FSR, frame interpolation). The codebase is actively developed with additions like frame skipping, a mod manager, performance overlays, and debugger tools, but retains many stub implementations from upstream, indicating incomplete feature coverage. It is primarily a desktop emulator with mobile ports.
Razix is a multi-platform 3D game engine built in C++ with a focus on modern graphics APIs (Vulkan, DirectX 12, OpenGL). It features a custom rendering hardware interface (RHI), a frame graph system for efficient render pass scheduling, an entity-component system (ECS) for scene management, and a built-in editor with ImGui integration. The engine includes a Lua scripting system, physics integration via Jolt Physics, and a comprehensive memory management layer with custom allocators. Despite its ambitious scope and active development, the codebase exhibits a mix of well-engineered subsystems and areas of legacy code (e.g., LIMBO_STATE). The project provides testing frameworks for both engine core and graphics pipelines, and maintains a dedicated game project ('Tanu') as a showcase.
Cocos Creator engine runtime is a cross-platform 2D/3D game engine framework written in TypeScript and C++. It provides a component-entity architecture with scene graph, rendering pipelines (forward/deferred/custom), physics (PhysX, Bullet, Box2D, builtin), animation (marionette state machine, pose graph, Spine, DragonBones), audio, UI, particle systems, and asset management. The engine is designed to be used with the Cocos Creator editor but can run standalone. It abstracts platform-specific APIs (graphics, input, audio, system) behind a common interface, supporting Web, iOS, Android, Windows, macOS, Linux, and various mini-game platforms. Key entry points include the Director, Scene, Node, Component, and the rendering pipeline. External dependencies include graphics APIs (Vulkan, Metal, GLES, WebGPU), physics libraries (PhysX, Bullet, Box2D), and scripting engines (V8, SpiderMonkey, JavaScriptCore).
CrystalEngine is a full-featured, cross-platform game engine with an integrated editor, built from scratch in C++. It features a custom Vulkan/Metal rendering backend with a directed acyclic frame graph for render pass scheduling, a physically-based rendering pipeline with IBL and shadow mapping, and a modular architecture with dynamic module loading. The engine includes a comprehensive asset pipeline (import, compression, serialization), a job system for parallelism, and a physics integration via Jolt. A notable aspect is the dual UI framework: the older CrystalWidgets (CSS-styled) and the newer Fusion framework (declarative, property-based), both used in the editor. The editor provides dockable windows, property editors, material editing, scene outliner, and asset browser. The codebase demonstrates strong engineering with clean abstractions (RHI, RPI, frame graph, job system) but shows signs of ongoing migration (two UI frameworks) and some incomplete features. It is actively maintained and suitable for learning or extending a modern game engine architecture.
Xenia is a research-grade emulator for the Xbox 360, written in C++ with a focus on accuracy and performance. It translates PowerPC (PPC) guest code into x64 machine code via a custom JIT compiler (HIR → x64 backend) and emulates the Xenos GPU using D3D12 and Vulkan backends, including shader translation from Xbox ucode to HLSL/SPIR-V. The system also emulates kernel subsystems (XAM, Xboxkrnl), audio (XMA decoding via XAudio2/SDL), input (XInput, keyboard, SDL), and the virtual file system (STFS containers, disc images, host paths). The architecture is modular with clear subsystem boundaries (base, cpu, gpu, apu, hid, kernel, vfs, ui), each with platform-specific implementations for Windows, Linux, and Android. Key entry points include the main emulator window (xenia_main.cc), the CPU processor (processor.h), the GPU graphics system (graphics_system.h), and the kernel state manager (kernel_state.h). The emulator is primarily a desktop application but includes Android support and several standalone tools for shader compilation, GPU trace analysis, and API scanning.