SonicGauss: Position-Aware Physical Sound Synthesis for 3D Gaussian Representations

While 3D Gaussian representations (3DGS) have proven effective for modeling the geometry and appearance of objects, their potential for capturing other physical attributes-such as sound-remains largely unexplored. In this paper, we present a novel framework dubbed SonicGauss for synthesizing impact sounds from 3DGS representations by leveraging their inherent geometric and material properties. Specifically, we integrate a diffusion-based sound synthesis model with a PointTransformer-based feature extractor to infer material characteristics and spatial-acoustic correlations directly from Gaussian ellipsoids. Our approach supports spatially varying sound responses conditioned on impact locations and generalizes across a wide range of object categories. Experiments on the ObjectFolder dataset and real-world recordings demonstrate that our method produces realistic, position-aware auditory feedback. The results highlight the framework's robustness and generalization ability, offering a promising step toward bridging 3D visual representations and interactive sound synthesis.

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Publication Details

Published
2025-10-25
DOI
https://doi.org/10.1145/3746027.3755035
Primary Topic
Music Technology and Sound Studies
Type
article
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article

SonicGauss: Position-Aware Physical Sound Synthesis for 3D Gaussian Representations

Yawei Luo, Chunshi Wang, H. Li
Music Technology and Sound Studies
article

SonicGauss: Position-Aware Physical Sound Synthesis for 3D Gaussian Representations

Yawei Luo, Chunshi Wang, H. Li
article en

Abstract

While 3D Gaussian representations (3DGS) have proven effective for modeling the geometry and appearance of objects, their potential for capturing other physical attributes-such as sound-remains largely unexplored. In this paper, we present a novel framework dubbed SonicGauss for synthesizing impact sounds from 3DGS representations by leveraging their inherent geometric and material properties. Specifically, we integrate a diffusion-based sound synthesis model with a PointTransformer-based feature extractor to infer material characteristics and spatial-acoustic correlations directly from Gaussian ellipsoids. Our approach supports spatially varying sound responses conditioned on impact locations and generalizes across a wide range of object categories. Experiments on the ObjectFolder dataset and real-world recordings demonstrate that our method produces realistic, position-aware auditory feedback. The results highlight the framework's robustness and generalization ability, offering a promising step toward bridging 3D visual representations and interactive sound synthesis.

Ningbo University (CN), Zhejiang University (CN)
Openalex Percentile: Top 70%
Music Technology and Sound Studies
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SonicGauss: Position-Aware Physical Sound Synthesis for 3D Gaussian Representations — Yawei Luo, Chunshi Wang, et al. · (2025) | TGRS Research Map | TGRS