Simply Trainable Nearest Neighbour Machine Translation with GPU Inference

• URL: http://arxiv.org/abs/2407.19965v2
• Date: Mon, 19 Aug 2024 08:48:59 GMT
• Title: Simply Trainable Nearest Neighbour Machine Translation with GPU Inference
• Authors: Hossam Amer, Abdelrahman Abouelenin, Mohamed Maher, Evram Narouz, Mohamed Afify, Hany Awadallah,
• Abstract summary: This paper proposes a trainable nearest neighbor machine translation on GPU. We first adaptively construct a small datastore for each input sentence. Second, we train a single-layer network for the adaption between the knnMT and pre-trained result to automatically interpolate in different domains.
• Score: 2.3420045370973828
• License: http://creativecommons.org/licenses/by/4.0/
• Abstract: Nearest neighbor machine translation is a successful approach for fast domain adaption, which interpolates the pre-trained transformers with domain-specific token-level k-nearest-neighbor (kNN) retrieval without retraining. Despite kNN MT's success, searching large reference corpus and fixed interpolation between the kNN and pre-trained model led to computational complexity and translation quality challenges. Among other papers, Dai et al. proposed methods to obtain a small number of reference samples dynamically for which they introduced a distance-aware interpolation method using an equation that includes free parameters. This paper proposes a simply trainable nearest neighbor machine translation and carry out inference experiments on GPU. Similar to Dai et al., we first adaptively construct a small datastore for each input sentence. Second, we train a single-layer network for the interpolation coefficient between the knnMT and pre-trained result to automatically interpolate in different domains. Experimental results on different domains show that our proposed method either improves or sometimes maintain the translation quality of methods in Dai et al. while being automatic. In addition, our GPU inference results demonstrate that knnMT can be integrated into GPUs with a drop of only 5% in terms of speed.

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