Publication | Closed Access
Using Recurrent Neural Networks for Slot Filling in Spoken Language Understanding
466
Citations
67
References
2014
Year
EngineeringMachine LearningSlot FillingSpoken Language ProcessingSpoken Dialog SystemMultilingual PretrainingLarge Language ModelRecurrent Neural NetworkSpeech RecognitionNatural Language ProcessingSyntaxData ScienceComputational LinguisticsRecurrent Neural NetworksLanguage StudiesSpoken Language UnderstandingMachine TranslationSequence ModellingComputer ScienceDeep LearningSpeech CommunicationSemantic Slot FillingSpeech ProcessingSpeech InputLinguisticsFuture Temporal Dependencies
Semantic slot filling is one of the most challenging problems in spoken language understanding (SLU). The study proposes using recurrent neural networks (RNNs) with novel architectures to model temporal dependencies for slot filling in SLU. The authors implemented and compared Elman, Jordan, and hybrid RNN variants using Theano, evaluating them on the ATIS benchmark and two custom entertainment and movies SLU datasets. RNN-based models achieved a 2% absolute error reduction over the CRF baseline on ATIS, and improved state‑of‑the‑art performance by 0.5% in the Entertainment domain and 6.7% in the movies domain.
Semantic slot filling is one of the most challenging problems in spoken language understanding (SLU). In this paper, we propose to use recurrent neural networks (RNNs) for this task, and present several novel architectures designed to efficiently model past and future temporal dependencies. Specifically, we implemented and compared several important RNN architectures, including Elman, Jordan, and hybrid variants. To facilitate reproducibility, we implemented these networks with the publicly available Theano neural network toolkit and completed experiments on the well-known airline travel information system (ATIS) benchmark. In addition, we compared the approaches on two custom SLU data sets from the entertainment and movies domains. Our results show that the RNN-based models outperform the conditional random field (CRF) baseline by 2% in absolute error reduction on the ATIS benchmark. We improve the state-of-the-art by 0.5% in the Entertainment domain, and 6.7% for the movies domain.
| Year | Citations | |
|---|---|---|
Page 1
Page 1