How Should We Extract Discrete Audio Tokens from Self-Supervised Models?

Discrete audio tokens have recently gained attention for their potential to bridge the gap between audio and language processing.Ideal audio tokens must preserve content, paralinguistic elements, speaker identity, and many other audio details.Current audio tokenization methods fall into two categories: Semantic tokens, acquired through quantization of Self-Supervised Learning (SSL) models, and Neural compression-based tokens (codecs).Although previous studies have benchmarked codec models to identify optimal configurations, the ideal setup for quantizing pretrained SSL models remains unclear.This paper explores the optimal configuration of semantic tokens across discriminative and generative tasks.We propose a scalable solution to train a universal vocoder across multiple SSL layers.Furthermore, an attention mechanism is employed to identify task-specific influential layers, enhancing the adaptability and performance of semantic tokens in diverse audio applications.

Authors

Publication Details

Published
2024-09-01
DOI
https://doi.org/10.21437/interspeech.2024-2135
Citations
3
Primary Topic
Music and Audio Processing
Type
article
Field-Weighted Citation Impact
1.05
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article

How Should We Extract Discrete Audio Tokens from Self-Supervised Models?

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3 citations
Music and Audio Processing
1.05
article

How Should We Extract Discrete Audio Tokens from Self-Supervised Models?

Jarod Duret, Cem Subakan, Pooneh Mousavi, Mirco Ravanelli, Salah Zaiem, Artem Ploujnikov, Luca Della Libera
article en
3 citations

Abstract

Discrete audio tokens have recently gained attention for their potential to bridge the gap between audio and language processing.Ideal audio tokens must preserve content, paralinguistic elements, speaker identity, and many other audio details.Current audio tokenization methods fall into two categories: Semantic tokens, acquired through quantization of Self-Supervised Learning (SSL) models, and Neural compression-based tokens (codecs).Although previous studies have benchmarked codec models to identify optimal configurations, the ideal setup for quantizing pretrained SSL models remains unclear.This paper explores the optimal configuration of semantic tokens across discriminative and generative tasks.We propose a scalable solution to train a universal vocoder across multiple SSL layers.Furthermore, an attention mechanism is employed to identify task-specific influential layers, enhancing the adaptability and performance of semantic tokens in diverse audio applications.

Openalex Percentile: Top 24%
Music and Audio Processing
1.05
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