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This research tackles the challenge of maintaining Automatic Speech Recognition (ASR) performance on disfluent speech without suffering from catastrophic forgetting when adapting models to new datasets. By leveraging continual learning techniques with explicit disfluency tokens, the study identifies a shared cross-attention mechanism that balances accurate transcription of hesitations against general-domain knowledge retention.
Learning to Hear Hesitation: Continual Learning for Disfluency-Aware ASR
arXiv:2606.14391v1 Announce Type: cross Abstract: Despite advances in large-scale Automatic Speech Recognition (ASR), disfluent speech remains challenging, as state-of-the-art systems are often optimized to omit disfluencies, leading to information loss and hallucinations. Prior work has focused on verbatim transcription and the integration of disfluency markers, but adapting models on limited datasets can lead to catastrophic forgetting of general-domain knowledge. We address this gap by leveraging continual learning (CL) with explicit disfluency tokens. We first introduce these tokens into a pretrained ASR model to establish stable token mechanisms, and then continue training on additional datasets with varying disfluency distributions. Through a detailed analysis of model dynamics during training, we identify a trade-off between marker learning and ASR performance, and a consistent cross-attention head mechanism shared across CL methods.
Abstract:Despite advances in large-scale Automatic Speech Recognition (ASR), disfluent speech remains challenging, as state-of-the-art systems are often optimized to omit disfluencies, leading to information loss and hallucinations. Prior work has focused on verbatim transcription and the integration of disfluency markers, but adapting models on limited datasets can lead to catastrophic forgetting of general-domain knowledge. We address this gap by leveraging continual learning (CL) with explicit disfluency tokens. We first introduce these tokens into a pretrained ASR model to establish stable token mechanisms, and then continue training on additional datasets with varying disfluency distributions. Through a detailed analysis of model dynamics during training, we identify a trade-off between marker learning and ASR performance, and a consistent cross-attention head mechanism shared across CL methods.
Computation and Language (cs.CL); Artificial Intelligence (cs.AI); Sound (cs.SD)
arXiv:2606.14391 [cs.CL]
(or arXiv:2606.14391v1 [cs.CL] for this version)
https://doi.org/10.48550/arXiv.2606.14391 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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