EigeNet: Geometry-Informed Multi-Modal Learning for Few-shot Novel View RIR Prediction

Fuente: arXiv
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Main Authors: Jing, Chong, Lan, Zitong, Zhang, Junan, Wu, Zhizheng
Format: Preprint
Published: 2026
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author Jing, Chong
Lan, Zitong
Zhang, Junan
Wu, Zhizheng
author_facet Jing, Chong
Lan, Zitong
Zhang, Junan
Wu, Zhizheng
contents Predicting spatially varying Room Impulse Response (RIR) from sparse observations is a critical but highly challenging inverse problem for immersive spatial audio rendering. In this work, we present EIGENET, a geometry-informed multi-modal framework for few-shot novel view RIR prediction. At its core is a Cross-view Alternate-attention Transformer that iteratively refines local intra-view acoustic structures and global cross-view spatial relationships. We empirically demonstrate that this architecture is capable of making full use of the multi-view multi-modal context while performing spatial-temporal reasoning for RIR prediction. Inspired by acoustic ray tracing, we design a geometry-informed modulation block to formulate the connection between geometric features and RIR power spectrum. In the mean time, an auxiliary loss is introduced to transform the single-target waveform prediction into a multi-task learning framework. Through ablation studies, we demonstrate that this design yields consistent performance gains regardless of the underlying backbone, thereby confirming its foundational utility and architecture-agnostic generalizability for RIR prediction task. Evaluated on both simulated and real-world benchmarks, EIGENET achieves both state-of-the-art performance in few-shot novel view RIR prediction and sim-to-real generalization. Codes and checkpoints are available on https://github.com/FEAfeatherTHER/EigeNet.
format Preprint
id arxiv_https___arxiv_org_abs_2605_28101
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle EigeNet: Geometry-Informed Multi-Modal Learning for Few-shot Novel View RIR Prediction
Jing, Chong
Lan, Zitong
Zhang, Junan
Wu, Zhizheng
Sound
Artificial Intelligence
Multimedia
Predicting spatially varying Room Impulse Response (RIR) from sparse observations is a critical but highly challenging inverse problem for immersive spatial audio rendering. In this work, we present EIGENET, a geometry-informed multi-modal framework for few-shot novel view RIR prediction. At its core is a Cross-view Alternate-attention Transformer that iteratively refines local intra-view acoustic structures and global cross-view spatial relationships. We empirically demonstrate that this architecture is capable of making full use of the multi-view multi-modal context while performing spatial-temporal reasoning for RIR prediction. Inspired by acoustic ray tracing, we design a geometry-informed modulation block to formulate the connection between geometric features and RIR power spectrum. In the mean time, an auxiliary loss is introduced to transform the single-target waveform prediction into a multi-task learning framework. Through ablation studies, we demonstrate that this design yields consistent performance gains regardless of the underlying backbone, thereby confirming its foundational utility and architecture-agnostic generalizability for RIR prediction task. Evaluated on both simulated and real-world benchmarks, EIGENET achieves both state-of-the-art performance in few-shot novel view RIR prediction and sim-to-real generalization. Codes and checkpoints are available on https://github.com/FEAfeatherTHER/EigeNet.
title EigeNet: Geometry-Informed Multi-Modal Learning for Few-shot Novel View RIR Prediction
topic Sound
Artificial Intelligence
Multimedia
url https://arxiv.org/abs/2605.28101