Forest Rescoring: Faster Decoding with Integrated Language Models
By Liang Huang, David Chiang. 2007
331 citations recorded by the source corpus.
Subfields: Natural Language Processing, Model Architectures
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Natural Language Processing
- Philipp Koehn
- Graham Neubig
- Rico Sennrich
- Felix Stahlberg
- Yonatan Belinkov
- Barry Haddow
- Nadir Durrani
- Luke S. Zettlemoyer
In Model Architectures
- Mirella Lapata
- Minh-Thang Luong
- Chris Dyer
- Philipp Koehn
- Jan Niehues
- A. Waibel
- Rico Sennrich
- Christopher D. Manning
Citations in the corpus
- Edinburgh’s Phrase-based Machine Translation Systems for WMT-14 (2014, background): “We trained our systems with the following settings: a maximum sentence length of 80, grow-diag-final-and symmetrization of GIZA++ alignments, an interpolated Kneser-Ney smoothed 5-gram language model with KenLM (Heafield, 2011) used at runtime, hierarchical lexicalized re-ordering (Galley and Manning,”
- A Challenge Set Approach to Evaluating Machine Translation (2017, methodology): “Decoding used the cube-pruning algorithm of Huang and Chiang (2007), with a distortion limit of 7.”
- EU-BRIDGE MT: Combined Machine Translation (2014, background): “, 2012), a distortion limit of 6, a maximum phrase length of 5, 100-best translation options, Minimum Bayes Risk decoding (Kumar and Byrne, 2004), cube pruning (Huang and Chiang, 2007), with a stack size of 1000 during tuning and 5000 during testing and the no-reordering-overpunctuation heuristic.”
- Encoding Source Language with Convolutional Neural Network for Machine Translation (2015, methodology): “For the dependency-to-string decoder, we set rule-threshold and stack-threshold to 10−3, rule-limit to 100, stack-limit to 200.”
- On the Impact of Various Types of Noise on Neural Machine Translation (2018, background): “…phrase length, and count bin features (Blunsom and Osborne, 2008; Chiang et al., 2009), a maximum phrase-length of 5, compact phrase table (Junczys-Dowmunt, 2012) minimum Bayes risk decoding (Kumar and Byrne, 2004), cube pruning (Huang and Chiang, 2007), with a stack-size of 1000 during tuning.”
- The Edinburgh/JHU Phrase-based Machine Translation Systems for WMT 2015 (2015, methodology): “In decoding we applied cube pruning (Huang and Chiang, 2007) with a stack size of 5000 (reduced to 1000 for tuning), Minimum Bayes Risk decoding (Kumar and Byrne, 2004), a maximum phrase length of 5, a distortion limit of 6, 100-best translation options and the no-reordering-over-punctuation…”
- Integrating an Unsupervised Transliteration Model into Statistical Machine Translation (2014, neutral): “See Table 1 Baseline Settings: We trained a Moses system replicating the settings used in competition-grade systems (Durrani et al., 2013b; Birch et al., 2013): a maximum sentence length of 80, GDFA sym-metrization of GIZA++ alignments (Och and Ney, 2003), an interpolated Kneser-Ney smoothed 5-gram ”
- Models and Inference for Prefix-Constrained Machine Translation (2016, methodology): “2We choose cube pruning (Huang and Chiang, 2007) as the beam-filling strategy.”
- Phrasal: A Toolkit for New Directions in Statistical Machine Translation (2014, background): “The default is the phrase-based variant of cube pruning (Huang and Chiang, 2007).”
- The QT21/HimL Combined Machine Translation System (2016, methodology): “In decoding, we use MBR (Kumar and Byrne, 2004), cube-pruning (Huang and Chiang, 2007) with a pop-limit of 5000, and the Moses ”monotone at punctuation” switch (to prevent reordering across punctuation) (Koehn and Haddow, 2009).”
- Edinburgh’s Statistical Machine Translation Systems for WMT16 (2016, methodology): “In decoding we applied cube pruning (Huang and Chiang, 2007) with a stack size of 5000 (reduced to 1000 for tuning), Minimum Bayes Risk decoding (Kumar and Byrne, 2004), a maximum phrase length of 5, a distortion limit of 6, 100-best translation options and the no-reordering-over-punctuation…”
- Edinburgh’s Submission to all Tracks of the WMT 2009 Shared Task with Reordering and Speed Improvements to Moses (2009, methodology): “Note that this early discarding is related to ideas behind cube pruning (Huang and Chiang, 2007), which generates the top n most promising hypotheses, but in our method the decision not to generate hypotheses is guided by the quality of hypotheses on the result stack.”
- The JHU Machine Translation Systems for WMT 2016 (2016, background): “, 2009), a distortion limit of 6, maximum phrase-length of 5, 100-best translation options, compact phrase table (JunczysDowmunt, 2012) minimum Bayes risk decoding (Kumar and Byrne, 2004), cube pruning (Huang and Chiang, 2007), with a stack-size of 1000 during tuning and 5000 during test and the nor”
- cdec: A Decoder, Alignment, and Learning Framework for Finite- State and Context-Free Translation Models (2010, background): “, Markov features, but not generally practical for translation), cube pruning, and cube growing (Huang and Chiang, 2007).”
- Forest Reranking: Discriminative Parsing with Non-Local Features (2008, methodology): “For non-local features, we adapt cube pruning from forest rescoring (Chiang, 2007; Huang and Chiang, 2007), since the situation here is analogous to machine translation decoding with integrated language models: we can view the scores of unit non-local features as the language model cost, computed…”
- Human Effort and Machine Learnability in Computer Aided Translation (2014, methodology): “The default Phrasal search algorithm is cube pruning (Huang and Chiang, 2007).”