Papers for

academic publishing teams

Papers whose findings have a practical use for this group, as judged from the abstract. Open a paper to read what it means in practice.

Open citation data improves author name disambiguation benchmarks

OC-AND: A Citation-Enriched Benchmark for Author Name Disambiguation

Abstract: Author Name Disambiguation benchmarks are predominantly derived from closed infrastructures that may not reflect conditions in open bibliographic environments. We present OC-AND, an open citation-enriched benchmark for AND constructed by remapping the WhoIsWho dataset with bibliographic and citation metadata from OpenCitations. The dataset is produced through a reproducible five-stage pipeline involving DOI verification, metadata validation, OpenCitations enrichment, and author-centric transformation. OC-AND retains the WhoIsWho ground-truth files and partition structure unchanged, while its publication files are restricted to publications that could be matched to a validated DOI and an OpenCitations record. It introduces realistic characteristics of open environments: heterogeneous metadata completeness, absent abstracts and affiliations, asymmetric citation coverage, and sparse graph connectivity. The dataset contains author records with associated citations, enabling evaluation of AND methods in settings closer to real-world open scholarly infrastructure scenarios. OC-AND is released as open data with complete provenance documentation and pipeline code, supporting reproducible research and the development of citation-aware disambiguation approaches.

Fri 9 OctDigital Libraries
The gist
It is hard to tell which authors wrote which papers when different authors have similar or identical names. The authors of this work created a new open dataset called OC-AND to test how well computer programs can solve this problem. They combined existing author name data with freely available citation information, making it more like the messy real world of open research data. This new dataset lets people test their author-matching methods under realistic conditions where some information is missing. The dataset and method to create it are fully open, so others can reproduce and build on their work.
Open → 2610.13462v1

Rater agreement model with AI weights improves multi-category scoring reliability

The Rater Ising-Potts Model with LLM-Derived Weights: An Application to Multi-Category Scoring Reliability

Abstract: The Ising model is extended to the Potts model for multinomial data. We introduce a Rater Ising-Potts model that uses agreement indicators between pairs of raters and category labels, with weights derived from LLM embeddings. The model does not presuppose ordered category thresholds or equidistant scoring; instead, it focuses directly on pairwise agreement among raters and assigns category-specific positive weights, making it particularly suited for multi-category scoring reliability when raters evaluate responses using a scoring guide. We demonstrate the model's effectiveness on diverse constructed-response tasks, including balanced short-answer items and more challenging, imbalanced essay prompts from the AERA dataset. Across these settings, the model achieves strong agreement with human scores, with the vast majority of misclassifications occurring between adjacent score levels, confirming its ability to preserve the ordinal structure of scoring rubrics without imposing rigid assumptions. A practical similarity normalization and optional power transformation is introduced as a tunable preprocessing step that sharpens semantic distinctions and can be adapted to different datasets. These findings suggest that LLM-derived semantic similarities, combined with this parsimonious Potts-type formulation and flexible similarity scaling, offer a robust and interpretable framework for reliability auditing in educational assessment contexts. Extensions to multiple raters and hierarchical rating processes are discussed.

Tue 8 SeptComputation and Language
The gist
Measuring how much different people agree when scoring answers can be tricky, especially with multiple score categories. The authors created a new model that looks at how pairs of raters agree and uses AI to understand how similar score categories are. This model doesn’t assume the scores have to be evenly spaced or ordered in a strict way but still keeps the natural order intact. It worked well on different types of test answers, including harder essays, and most mistakes happened between nearby scores, showing the model respects the scoring rules.
Open → 2609.08797v1

LLM helps measure true impact of research beyond citations

From Citations to Contributions: LLM-Assisted Credit Scoring of Research Articles

Abstract: Citation-based measures of scientific influence typically treat citations as uniform signals, ignoring the different roles that cited works play in a paper's contribution. We introduce contribution-based credit scoring for research articles: a structured citation analysis that decomposes a paper's credit between its own original contribution and the prior work it builds on. Motivated by a cooperative-game view of scientific credit, we propose the contribution tree, a hierarchical framework that conserves importance across the document structure and separates original from citation-derived contribution. To make this framework scalable, we use LLMs as noisy comparative estimators of local importance. We further extend the model to article collections by propagating contributions through weighted citation graphs, yielding corpus-level contributions and normalized influence scores. Our experiments suggest that our framework captures contribution signals beyond surface-level heuristics. Our code is available at https://github.com/sanaebrahimi/Importance_Scoring/

Mon 7 SeptDigital LibrariesArtificial IntelligenceComputation and Language
The gist
Counting how many times a research paper is cited doesn't always show how much it actually contributed to science. The authors created a way to figure out what part of a paper is original and what part builds on earlier work. They use large language models to estimate how important each part of the paper is, then spread that credit through connected papers to understand influence better. This method helps see the real contributions papers make, not just how often they are mentioned.
Open → 2609.07673v1