Word Embeddings & Lexical Semantics
Robustness Benchmarking of Lexical Semantics Methods Under Language Model Scarcity and Distribution Shift
Generated automatically from the limitations stated in 3 papers (EMNLP), listed under Evidence. It is not a paper, and it does not come from papers submitted to CSPaper.
The problem
Current lexical semantics and semantic change methods assume the availability of high-quality, off-the-shelf pretrained language models trained on massive, well-matched text distributions. When applied to historical texts, low-resource languages, or niche domains where such models do not exist or perform poorly, practitioners have no empirical evidence on how severely these methods degrade. This dependence leaves lexical semantics largely untested across ancient corpora, morphologically non-standard texts, and non-mainstream model architectures.
Why it matters
Establishes empirical operating boundaries for lexical semantics methods across non-standard linguistic domains and provides clear guidelines on when static or lightweight methods should be preferred over poorly matched language models.
Ways to approach it
Prior-work checks are free with an account. Results someone already ran are shown to everyone.
- 1
Multi-domain and historical stress-testing: Evaluate standard LM-based lexical representation and semantic change detection methods across ancient, historical, and low-resource corpora alongside static embedding baselines, measuring semantic shift detection accuracy and nearest-neighbor stability as LM suitability varies.
No prior work found in 10 papersNone of the retrieved papers systematically benchmark the robustness and degradation of LM-based lexical semantics and change detection methods against static embeddings under conditions of LM scarcity, distribution shift, or across ancient and low-resource corpora.
Papers read (10)
- [1]Time-Out: Temporal Referencing for Robust Modeling of Lexical Semantic ChangeACL 2019
- [2]A Systematic Comparison of Contextualized Word Embeddings for Lexical Semantic ChangeNAACL 2024
- [3]Diachronic Word Embeddings Reveal Statistical Laws of Semantic ChangeACL 2016
- [4]Sequential Modelling of the Evolution of Word Representations for Semantic Change DetectionEMNLP 2020
- [5]Current Semantic-change Quantification Methods Struggle with Discovery in the WildEMNLP 2025
- [6]A Wind of Change: Detecting and Evaluating Lexical Semantic Change across Times and DomainsACL 2019
- [7]Lexical Semantic Change DiscoveryACL 2021
- [8]Letters From the Past: Modeling Historical Sound Change Through Diachronic Character EmbeddingsACL 2022
- [9]Exploring Diachronic Lexical Semantics with JeSemEACL 2017
- [10]Simple, Interpretable and Stable Method for Detecting Words with Usage Change across CorporaACL 2020
Checked 10/20/2026. Automated checks find about a third of existing work, so “no prior work found” doesn't mean the idea is new.
- 2
Architecture and context-length scaling benchmark: Run a controlled comparison of lexical semantic extraction across diverse LM families, context window lengths, and parameter scales to measure the exact point of performance degradation when moving from high-capacity modern LMs to restricted or smaller models.
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Why it might fail
Broad multilingual foundation models may improve historical and low-resource coverage rapidly enough to dissolve the practical gaps identified across target domains.
Evidence
Each paper's own statement of the limitation, verbatim.
- Variance Matters: Detecting Semantic Differences without Corpus/Word AlignmentEMNLP 2023
Requires an off-the-shelf language model that models the target language well, so it would not apply to ancient languages or data far from the LM's training distribution; also assumes constant word form as meaning changes
- Spoiler Detection as Semantic Text MatchingEMNLP 2023
Only 4 language models are benchmarked due to resource restrictions, leaving many long-range models unevaluated
- M3Seg: A Maximum-Minimum Mutual Information Paradigm for Unsupervised Topic Segmentation in ASR TranscriptsEMNLP 2023
Performance depends on the quality and availability of pre-trained language models, which may not exist or be suitable for all applications/domains
Nearest existing work
- A Systematic Comparison of Contextualized Word Embeddings for Lexical Semantic ChangeNAACL 2024
- Time-Out: Temporal Referencing for Robust Modeling of Lexical Semantic ChangeACL 2019
- Analyzing Semantic Change through Lexical ReplacementsACL 2024
- Diachronic Word Embeddings Reveal Statistical Laws of Semantic ChangeACL 2016
- Towards Better Context-aware Lexical Semantics:Adjusting Contextualized Representations through Static AnchorsEMNLP 2020
- Exploring Diachronic Lexical Semantics with JeSemEACL 2017
- Sequential Modelling of the Evolution of Word Representations for Semantic Change DetectionEMNLP 2020
- Substitution-based Semantic Change Detection using Contextual EmbeddingsACL 2023
- Letters From the Past: Modeling Historical Sound Change Through Diachronic Character EmbeddingsACL 2022
- RedditEM: Unveiling Diachronic Semantic Shifts in Social Network DiscourseACML 2024
- Measure and Evaluation of Semantic Divergence across Two LanguagesACL 2021
- Cultural Shift or Linguistic Drift? Comparing Two Computational Measures of Semantic ChangeEMNLP 2016
- A Large-Scale Comparison of Historical Text Normalization SystemsNAACL 2019
- Interpretable Word Sense Representations via Definition Generation: The Case of Semantic Change AnalysisACL 2023
- Analyzing the Surprising Variability in Word Embedding Stability Across LanguagesEMNLP 2021