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arXiv · 2610.34183

AudioFM: Towards General Purpose Audio Representation Learning

Abstract

Learning audio representations that effectively bridge holistic global soundscapes with fine-grained acoustic moments is a long-standing goal in self-supervised learning. Recording-level contrastive objectives encourage agreement between pooled audio representations, but do not explicitly supervise local time-frequency representations. We introduce AudioFM, a self-supervised framework that combines recording-level contrast with patch-wise masked latent discrimination. Using visible acoustic context, a student predicts representations of masked patches and identifies their corresponding full-view teacher targets among candidates from other recordings. We further incorporate weaker supervision from eligible temporal neighbors to encourage local temporal consistency. Extensive evaluations show that AudioFM achieves state-of-the-art performance across diverse audio domains in linear probing, fine-tuning, and zero-shot transfer, demonstrating superior event detection, robust scene-level understanding, and strong domain generalizability.

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Yamin Li, Ruidong Zhang, Anran Wang, Eduardo Fonseca, Dan Ellis, Zechen Li, Simon A. Lee, Tao Pang, Jake Garrison, Maxwell A. Xu, Yicheng Wang, Jitian Zhang, Weizhi Zhang, Haichao Zhang, Catie Chang, Xin Liu, Anupam Pathak, Daniel McDuff, Shwetak Patel, Jake Sunshine, Yuzhe Yang, Xiaoran Fan. 2026-10-25. AudioFM: Towards General Purpose Audio Representation Learning. https://arxiv.org/abs/2610.34183

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