mlsanityData to 7 Oct 2026

Learning to Substitute Spans towards Improving Compositional Generalization

arXiv 2306.02840 ↗First posted 5 Jun 2023cs.CL cs.LGcited by 8

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Abstract (arXiv)

Despite the rising prevalence of neural sequence models, recent empirical evidences suggest their deficiency in compositional generalization. One of the current de-facto solutions to this problem is compositional data augmentation, aiming to incur additional compositional inductive bias. Nonetheless, the improvement offered by existing handcrafted augmentation strategies is limited when successful systematic generalization of neural sequence models requires multi-grained compositional bias (i.e., not limited to either lexical or structural biases only) or differentiation of training sequences in an imbalanced difficulty distribution. To address the two challenges, we first propose a novel compositional augmentation strategy dubbed Span Substitution (SpanSub) that enables multi-grained composition of substantial substructures in the whole training set. Over and above that, we introduce the Learning to Substitute Span (L2S2) framework which empowers the learning of span substitution probabilities in SpanSub in an end-to-end manner by maximizing the loss of neural sequence models, so as to outweigh those challenging compositions with elusive concepts and novel surroundings. Our empirical results on three standard compositional generalization benchmarks, including SCAN, COGS and GeoQuery (with an improvement of at most 66.5%, 10.3%, 1.2%, respectively), demonstrate the superiority of SpanSub, %the learning framework L2S2 and their combination.

Key facts. Cited by 8 papers in the map (data through 7 Oct 2026). Builds on 32 of its 48 references that are in the map. First posted on arXiv 5 Jun 2023.

Builds on

32 of 48 references.

References · 32

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20 more
  1. 2020Compositional Generalization and Natural Language Variation: Can a Semantic Parsing Approach Handle Both?cited by 147
  2. 2018Improving Text-to-SQL Evaluation Methodologycited by 133
  3. 2016Data Recombination for Neural Semantic Parsingcited by 111
  4. 2019Compositional generalization through meta sequence-to-sequence learningcited by 98
  5. 2020Compositional Generalization in Semantic Parsing: Pre-training vs. Specialized Architecturescited by 95
  6. 2020Span-based Semantic Parsing for Compositional Generalizationcited by 77
  7. 2021Making Transformers Solve Compositional Taskscited by 72
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  11. 2019Compositional Generalization for Primitive Substitutionscited by 48
  12. 2021Improving Compositional Generalization with Latent Structure and Data Augmentationcited by 46
  13. 2021Disentangled Sequence to Sequence Learning for Compositional Generalizationcited by 30
  14. 2022Unobserved Local Structures Make Compositional Generalization Hardcited by 29
  15. 2021Lexicon Learning for Few-Shot Neural Sequence Modelingcited by 28
  16. 2021Finding needles in a haystack: Sampling Structurally-diverse Training Sets from Synthetic Data for Compositional Generalizationcited by 27
  17. 2022Equi-Tuning: Group Equivariant Fine-Tuning of Pretrained Modelscited by 22
  18. 2020Revisiting Iterative Back-Translation from the Perspective of Compositional Generalizationcited by 19
  19. 2022SUBS: Subtree Substitution for Compositional Semantic Parsingcited by 16
  20. 2022Mutual Exclusivity Training and Primitive Augmentation to Induce Compositionalitycited by 8

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Cited by year (2026 to 7 Oct)

Citing papers per year: 2023: 3; 2024: 2; 2025: 2; 2026: 1.

8 papers.