Resonance Audio for Wwise is a plugin package that integrates Google's spatial audio engine into the Wwise authoring and runtime pipeline. It provides two plugins: a Renderer that spatializes sound sources binaurally via Wwise's Ambisonic bus pipeline (supporting up to third-order Ambisonics), and a Room Effects plugin that simulates early reflections and late reverberation based on parametric room geometry.
The integration targets desktop (Windows, macOS, Linux) and mobile (Android, iOS) platforms. You set up an Ambisonic audio bus in Wwise Authoring, attach the Resonance Audio Renderer as a mixer plugin, and route sound sources through it. Room effects are applied per-source, letting you vary acoustic character across game spaces without baking impulse responses. Requires Wwise 2017.1.0.6302 or newer.
This is useful when you need consistent, cross-platform binaural output from Wwise without relying on platform-native spatial audio APIs.
A cross-platform spatializer plugin that integrates spatial audio processing into Unity projects. The plugin uses efficient DSP algorithms to render head-related transfer functions (HRTF) for immersive 3D audio positioning. Designed to fit Unity's audio engine architecture, it supports both Windows and Android platforms.
Version 2.0 represents a complete rewrite focused on performance optimization and cross-platform compatibility. The plugin uses a multi-source mixer architecture that reduces CPU overhead compared to previous implementations. While an older HoloLens 2-specific version (v1) offered hardware DSP offload, the current version prioritizes flexibility and integration with Unity's audio pipeline.
Note: the GitHub repository was archived (made read-only) in July 2024 and is no longer actively developed, though it remains usable for existing projects. It enables realistic directional audio cues essential for VR, AR, and immersive gaming experiences.
JPL Spatial Application is a Windows desktop demo that exercises the JPL Spatial library's full signal chain: direct sound spatialization via MDAP, ray-traced specular early reflections using the Image Source method panned with VBAP, and late reverberation rendered by a Filter Delay Network with 4-band crossover decay filters. Propagation delay (including Doppler), inverse-law distance attenuation, and air/material absorption are all configurable at runtime.
The GUI (Dear ImGui) exposes a shoebox room model with adjustable dimensions, source/listener positions, surface material absorption coefficients, and RT60 estimates per frequency band. A built-in audio player, spectrogram/waveform preview, loudness meter, and VBAP/MDAP vector visualization make it practical for evaluating spatialization behavior without needing a game engine integration.
The project is Windows-only and requires building from source via the provided Visual Studio batch scripts using C++20. It is licensed under ISC and depends on JPL Spatial, MiniaudioCpp, and a CMake fork of Walnut.
libmysofa
Standalone libmysofa is a C library for reading and processing Head-Related Transfer Function (HRTF) data stored in AES SOFA files conforming to the AES69-2015 standard. It provides functions to load SOFA files, extract HRTF filters for specific spatial coordinates, and convert between Cartesian and spherical coordinate systems.
The library handles automatic normalization of HRTF data, nearest-neighbor interpolation for arbitrary listener positions, and efficient caching of multiple SOFA files. It supports both integer and floating-point filter extraction with configurable sample rates and neighbor search parameters.
Designed for integration into spatial audio engines and renderers, libmysofa offers both simple and advanced APIs for developers who need direct access to HRTF data without implementing SOFA parsing from scratch.