Permutation-Invariant Physics-Informed Neural Network for Region-to-Region Sound Field Reconstruction

Fuente: arXiv
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Main Authors: Chen, Xingyu, Zhao, Sipei, Ma, Fei, Cheng, Eva, Burnett, Ian S.
Format: Preprint
Published: 2026
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author Chen, Xingyu
Zhao, Sipei
Ma, Fei
Cheng, Eva
Burnett, Ian S.
author_facet Chen, Xingyu
Zhao, Sipei
Ma, Fei
Cheng, Eva
Burnett, Ian S.
contents Most existing sound field reconstruction methods target point-to-region reconstruction, interpolating the Acoustic Transfer Functions (ATFs) between a fixed-position sound source and a receiver region. The applicability of these methods is limited because real-world ATFs tend to varying continuously with respect to the positions of sound sources and receiver regions. This paper presents a permutation-invariant physics-informed neural network for region-to-region sound field reconstruction, which aims to interpolate the ATFs across continuously varying sound sources and measurement regions. The proposed method employs a deep set architecture to process the receiver and sound source positions as an unordered set, preserving acoustic reciprocity. Furthermore, it incorporates the Helmholtz equation as a physical constraint to guide network training, ensuring physically consistent predictions.
format Preprint
id arxiv_https___arxiv_org_abs_2601_19491
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Permutation-Invariant Physics-Informed Neural Network for Region-to-Region Sound Field Reconstruction
Chen, Xingyu
Zhao, Sipei
Ma, Fei
Cheng, Eva
Burnett, Ian S.
Audio and Speech Processing
Most existing sound field reconstruction methods target point-to-region reconstruction, interpolating the Acoustic Transfer Functions (ATFs) between a fixed-position sound source and a receiver region. The applicability of these methods is limited because real-world ATFs tend to varying continuously with respect to the positions of sound sources and receiver regions. This paper presents a permutation-invariant physics-informed neural network for region-to-region sound field reconstruction, which aims to interpolate the ATFs across continuously varying sound sources and measurement regions. The proposed method employs a deep set architecture to process the receiver and sound source positions as an unordered set, preserving acoustic reciprocity. Furthermore, it incorporates the Helmholtz equation as a physical constraint to guide network training, ensuring physically consistent predictions.
title Permutation-Invariant Physics-Informed Neural Network for Region-to-Region Sound Field Reconstruction
topic Audio and Speech Processing
url https://arxiv.org/abs/2601.19491