End-to-end spoken language understanding using transformer networks and self-supervised pre-trained features
Edmilson Morais, Hong-Kwang J. Kuo, Samuel Thomas, Zoltan Tuske and, Brian Kingsbury

TL;DR
This paper demonstrates that self-supervised pre-trained acoustic features significantly improve end-to-end spoken language understanding with transformer networks, especially when combined with multi-task training, reducing reliance on pre-trained model initialization.
Contribution
It introduces a modular E2E SLU transformer architecture that effectively integrates self-supervised pre-trained acoustic features and multi-task training, advancing SLU performance.
Findings
Self-supervised features outperform filterbank features in SLU tasks.
Multi-task training with self-supervised features reduces the need for pre-trained model initialization.
The approach achieves state-of-the-art results on the ATIS dataset.
Abstract
Transformer networks and self-supervised pre-training have consistently delivered state-of-art results in the field of natural language processing (NLP); however, their merits in the field of spoken language understanding (SLU) still need further investigation. In this paper we introduce a modular End-to-End (E2E) SLU transformer network based architecture which allows the use of self-supervised pre-trained acoustic features, pre-trained model initialization and multi-task training. Several SLU experiments for predicting intent and entity labels/values using the ATIS dataset are performed. These experiments investigate the interaction of pre-trained model initialization and multi-task training with either traditional filterbank or self-supervised pre-trained acoustic features. Results show not only that self-supervised pre-trained acoustic features outperform filterbank features in…
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