Some simple effective approximations to the 2-Poisson model for probabilistic weighted retrieval
By Stephen E. Robertson, S. Walker. 1994
Subfields: Information Retrieval & Search
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In Information Retrieval & Search
- Jimmy J. Lin
- Jamie Callan
- W. Bruce Croft
- Hamed Zamani
- Zhuyun Dai
- Chenyan Xiong
- Andrew Yates
- Rodrigo Nogueira
Citations in the corpus
- A Deep Relevance Matching Model for Ad-hoc Retrieval (2016, background): “For example, on ClueWeb-09-Cat-B topic titles, the relative improvement of our model over the best perform-Table ing baseline (i.e., BM25) is about 11 .”
- Learning to Ask: Neural Question Generation for Reading Comprehension (2017, methodology): “, 2016) using three automatic evaluation metrics, we find that our system significantly outperforms a collection of strong baselines, including an information retrieval-based system (Robertson and Walker, 1994), a statistical machine translation approach (Koehn et al.”
- Improving Machine Translation Performance by Exploiting Non-Parallel Corpora (2005, neutral): “Utiyama et al. (2003) use the BM25 (Robertson and Walker 1994) similarity measure.”
- Probabilistic models of information retrieval based on measuring the divergence from randomness (2002, methodology): “(8) We show in the following sections that the two approximations P and D are experimentally equivalent under the Probability Ranking Principle [Robertson 1986].”
- TTPDrill: Automatic and Accurate Extraction of Threat Actions from Unstructured Text of CTI Sources (2017, methodology): “We use an enhanced BM25 weighting function for the TF-IDF method[25] to match candidate actions to threat actions in the”
- A cross-benchmark comparison of 87 learning to rank methods (2015, methodology): “Research in the field of ranking models has long been based on manually designed ranking functions, such as the well-known BM25 model (Robertson & Walker, 1994).”
- Direct Maximization of Average Precision by Hill-Climbing, with a Comparison to a Maximum Entropy Approach (2004, methodology): “For any document, the model predicts the probability of relevance for that document based on the Okapi term frequency (tf ) scores (Robertson and Walker, 1994) for the query terms within it.”
- A formal study of information retrieval heuristics (2004, methodology): “The Okapi formula is another highly effective retrieval formula that represents the classical probabilistic retrieval model [8].”
- A Survey of Text Clustering Algorithms (2012, background): “One effective way to assign weights to terms when representing a document as a weighted term vector is the BM25 term weighting method [78], where the normalized TF not only addresses length normalization, but also has an upper bound which improves the robustness as it avoids overly rewarding the…”
- To Clean or Not to Clean (2018, methodology): “To test the effect of document preprocessing on probabilistic and information theoretic methods, we also experimented with BM25 [60, 61] and Divergence from Randomness [2] retrieval models.”
- A dynamic bayesian network click model for web search ranking (2009, unknown): “Labs Yahoo!”
- Response Ranking with Deep Matching Networks and External Knowledge in Information-seeking Conversation Systems (2018, methodology): “multi-turn conversation response ranking method as the following: BM25. This method uses the dialog context as the query to retrieve response candidates for response selection. We consider BM25 model [24] as the retrieval model. ARC-II. ARC-II is an interaction focused deep text matching architectur”
- Interpreting TF-IDF term weights as making relevance decisions (2008, methodology): “We have tested the IDF factor used in the BM11 term weight and the IDF here.”
- SparTerm: Learning Term-based Sparse Representation for Fast Text Retrieval (2020, methodology): “…terms and expand some terms not appearing in the passage but very semantically relevant, even the terms in the target query such as “sign”. as bag-of-words (BoW), such as TF-IDF [15] and BM25 [14], can efficiently perform literal matching, thus playing a core role in industrial IR systems.”
- Yahoo! Learning to Rank Challenge Overview (2010, methodology): “Web page ranking has traditionally been based on a manually designed ranking function such as BM25 (Robertson and Walker, 1994).”
- An anatomy for neural search engines (2019, methodology): “Handcrafting ranking formulas like BM25 is not an easy task; we are most of times tuning it based on our intuitions and extensive experimentation.”
- Learning to Rank for Information Retrieval and Natural Language Processing (2011, unknown): “A>B, B>C) – Implicit relevance judgment: derived from click-through data • Creation of List – List (or permutation) of documents is given – Ideal but difficult to implement Implicit Relevance Judgment Doc A Doc B Doc C B > A ranking of documents at search system users often clicked on Doc B ordered ”
- A Dual Embedding Space Model for Document Ranking (2016, background): “In the probabilistic approach, the 2-Poisson model forms the basis for counting term frequency [6, 15, 36].”