SoundVista is a novel method for synthesizing binaural ambient sound from arbitrary viewpoints in a scene. It leverages pre-acquired audio recordings and panoramic visual data to generate spatially accurate sound without requiring detailed knowledge of individual sound sources.

In this work, we introduces a novel neural network model for rendering binaural audio directly from ambisonic recordings.

In this work, we introduces a neural speech codec that uses complex spectral input to ease the information loss and avoid the issues with temporal and high-dimensional compression.

We present the Real Acoustic Fields (RAF) dataset that captures real acoustic room data from multiple modalities. The dataset includes high-quality and densely captured room impulse response data paired with multi-view images, and precise 6DoF pose tracking data for sound emitters and listeners in the rooms.

We developed a score-based diffusion post-filter (SPF) in the complex spectral domain to eliminate the challenging and opaque GAN training used in neural codecs. As a result, we achieved impressive coded audio quality for full-band 48 kHz speech with human-level naturalness and well-preserved phase information.

We introduces a neural audio codec designed for real-time, high-quality audio compression and streaming applications.

We introduces a novel objective metric designed to evaluate the spatialization quality (SQ) between pairs of binaural audio signals, independent of speech content and signal duration.

We introduces a novel metric for evaluating both listening quality (LQ) and spatialization quality (SQ) between pairs of binaural audio signals without relying on subjective data.

This work presents an End-to-end framework that integrates a low-bitrate audio codec with a binaural audio decoder to accurately synthesize spatialized speech. We used a modified vector-quantized variational autoencoder, trained with carefully designed objectives, including an adversarial loss, to improve the authenticity of the generated audio.

This work presents a novel neural rendering approach for real-time binaural sound synthesis. The proposed network converts single-channel audio into two-channel binaural sound, conditioned on the listener's relative position and orientation to the source.

This work introduces a data-driven approach to implicitly learn Head-Related Transfer Functions (HRTFs) using neural networks. Traditional HRTF measurement methods are often cumbersome, requiring listener-specific recordings at numerous spatial positions within anechoic chambers. In contrast, this study proposes capturing data in non-anechoic environments and employing a neural network to model HRTFs.

This work introduces a novel framework for evaluating spatial localization differences between binaural recordings.

This paper discusses the implementation of a system for large area sound field recording and reconstruction and proposes an improved sound field reconstruction algorithm.

This paper addresses the problem of soundfield reconstruction over a large area using a distributed array of higher-order microphones.

This paper proposes a novel audio-visual tracking approach that exploits constructively audio and visual modalities in order to estimate trajectories of multiple people in a joint state space. The tracking problem is modeled using a sequential Bayesian filtering framework