Coreference Semantics from Web Features
Summary
Bansal and Klein tackle a weakness of coreference resolution: many hard decisions depend on world knowledge, such as knowing that "Obama" can be "the president", rather than on syntax. Structured knowledge bases cover only part of this knowledge. The authors instead draw shallow but broad semantic signals from the Google n-grams corpus. They start from the mention-pair model in Reconcile, replacing its averaged perceptron with a decision tree. For each pair of mention headwords, they then compute Web-count features in five groups:
- plain co-occurrence
- Hearst-pattern (hypernymy) co-occurrence
- overlap of entity-based context seeds
- matching of distributional cluster ids
- substitution of candidate antecedents into the context around a pronoun
The features are tuned only on the ACE04 development set and reused without retuning on ACE05 and ACE05-ALL. They yield significant MUC and B³ gains over the decision-tree baseline and beat Haghighi and Klein (2010) on most settings. At publication, these were the best reported end-to-end results with system-detected mentions. The work shows that aggregated Web statistics can supply useful semantics cheaply.
Key points
- Resources and implementation:
- Web source: Google n-grams (Brants and Franz, 2006), covering n = 1–5 and built from roughly 1 trillion tokens and 95 billion sentences.
- All queries are answered in a single pass using the trie-based hashing of Bansal and Klein (2011).
- Cluster features rely on the clusters of Lin et al. (2010).
- Baseline: Reconcile (over 80 core features) with Weka's J48 (C4.5) decision tree. This outperformed the default averaged perceptron, likely because trees capture non-linear feature interactions.
- Feature construction: Co-occurrence counts allow 1–3 wildcards between the headwords. Counts are normalized by unigram frequencies (similar to scaled MI), then log10-binned.
- Example: the pair (leader, president) has a count of 11383, versus 95 for (voter, president).
- Significance: Gains are significant under the bootstrap test, except ACE05 with MUC (p < 0.12). ACE05-ALL shows larger gains at p < 0.001. Untuned B³ None on ACE05-ALL: P=69.9, R=65.9, F1=67.8.
- Tree analysis: About 30% of the learned tree's nodes are Web features. Leaves on these features have only around 2.5% classification error. Corrected errors include pairs like "Iran ; the country" and "Barry Bonds ; the best baseball player".
Cited by
- Toward Gender-Inclusive Coreference Resolution: An Analysis of Gender and Bias Throughout the Machine Learning Lifecycle*
- A Constrained Latent Variable Model for Coreference Resolution
- Decentralized Entity-Level Modeling for Coreference Resolution
- Easy Victories and Uphill Battles in Coreference Resolution
- A Joint Model for Entity Analysis: Coreference, Typing, and Linking
- Latent Trees for Coreference Resolution
- Joint Coreference Resolution and Named-Entity Linking with Multi-Pass Sieves
- Intra-sentential Zero Anaphora Resolution using Subject Sharing Recognition
- Improving pairwise coreference models through feature space hierarchy learning
- Deterministic Coreference Resolution Based on Entity-Centric, Precision-Ranked Rules
- Conundrums in Entity Coreference Resolution: Making Sense of the State of the Art
- Recall Error Analysis for Coreference Resolution
- Translation of "It" in a Deep Syntax Framework
- Solving Hard Coreference Problems
- Mind the GAP: A Balanced Corpus of Gendered Ambiguous Pronouns
Cite
@inproceedings{bansal2012coreference,
title = {{Coreference Semantics from Web Features}},
author = {Bansal, Mohit and Klein, Dan},
booktitle = {Proceedings of the 50th Annual Meeting of the Association for Computational Linguistics (Volume 1: Long Papers)},
year = {2012},
url = {https://aclanthology.org/P12-1041/}
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