ScholarCatalyst: A Benchmark for Retrieving Papers That Inspire New Research
Sohyeon Kim, Yoonho Lee, Bo Liu, Dayoon Ko, Rulin Shao, Seungone Kim, Graham Neubig, Pang Wei Koh and 6 others
Stanford University · Seoul National University · University of Washington · Carnegie Mellon University · Allen Institute for AI · MIT
Published October 1, 2026 · on the feed October 2, 2026 · ▲ 12 · arXiv 2610.02202
The abstract
What makes great scientists great? Even as AI systems start to make progress on open problems, scientists remain far ahead of them at sensing which prior idea, buried in an ever-growing archive of research, a new problem needs. To study this skill, we draw on researchers who know firsthand which earlier work advanced their completed projects, with papers serving as pointers to the ideas within. Using our automated pipeline that makes author annotation scalable, we build ScholarCatalyst by having 184 lead authors of 207 recent computer science papers label which candidates did or could have advanced their project, each with a detailed rationale. We introduce a retrieval task with author-provided judgments: given an initial research question, retrieve these papers from only the literature available when the project began. Agentic search does no better than embedding retrieval (0.42 vs. 0.48 Recall@20) despite calling that same retriever as a tool. Even an agent built on Claude Fable 5.1, which may have seen the completed papers during training, reaches only 0.51 R@20. These results highlight the need for new training recipes that equip models with expert intuition for searching broad corpora. We envision ScholarCatalyst as a step toward scientific agents that can take a half-formed idea and point to the prior research it needs.
The Brief
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Transcript
ScholarCatalyst. A Benchmark for Retrieving Papers That Inspire New Research. By Sohyeon Kim and thirteen others, from Stanford University, Seoul National University, and four other institutions. Published on the first of October. Its code repository is public and real: about thirty source files.
What makes great scientists great? The authors point to one skill in particular. Even as AI systems begin to make progress on open problems, scientists stay far ahead of them at sensing which prior idea, buried in an ever-growing archive of research, a new problem actually needs. Studying that skill requires knowing, for a real project, which earlier work truly helped, and the people who know that firsthand are the researchers who did the work. An outsider can guess which earlier papers look relevant. The author knows which ones actually moved the project forward.
ScholarCatalyst turns that knowledge into a retrieval task. A system is given the initial research question of a project, and has to retrieve the papers that advanced it. It may search only the literature that existed when the project began. Papers serve as pointers to the ideas inside them, and the judgments of what counts come from the authors themselves. The time limit is what makes it a test of foresight. The system has to find the ingredients as they stood on the day the project started, without the finished project to point the way.
An automated pipeline makes author annotation scalable. Using it, one hundred and eighty-four lead authors of two hundred and seven recent computer science papers labelled which candidate papers did advance their project, or could have, and each label carries a detailed rationale. Including papers that could have helped, not only those that did, means the answer key is not limited to what the authors happened to find at the time.
Agentic search does no better than plain embedding retrieval. Its recall at twenty is zero point four two, against zero point four eight for embeddings, even though the agent calls that very same retriever as one of its tools. An agent built on Claude Fable 5.1 reaches only zero point five one recall at twenty, and that model may have seen the completed papers during its training.
Here the people who did the research mark the answer key, and the systems under test are asked to reproduce their hindsight from the question alone. Neither agentic search nor the strongest model named recovers much more than half of what the authors marked within the top twenty. The authors read this as a call for new training recipes that give models an expert's intuition for searching broad corpora, and they see the benchmark as a step toward scientific agents that can take a half-formed idea and point to the prior research it needs.
Paper Quest · 7 chapters · about 39 min
Play this paper
Learn it by doing: make the calls the authors made, guess the result before you see it, and defend it in a viva graded on your own words. Chapter 1 is right here.
Chapter 1 🧩 · The problem
Every quest starts with a wall. Here it is a skill no reference list can grade.
You want to test whether AI can do what great scientists do: given a half-formed research idea, point to the earlier work it really needs. To score that, you need right answers for real projects.
The road ahead
- 1 · The problem ~6 min To test whether AI can point a half-formed research idea to the earlier work it needs, you first need answers you can trust.
- 2 · What came before ~3 min
- 3 · The key idea ~8 min Lead authors, helped by an automated drafting pipeline, label which earlier papers did or could have advanced their project; systems must find them from the early question alone.
- 4 · Choose your own research ~3 min
- 5 · Build the method ~8 min A pipeline drafts annotations, authors label the candidates, then a system takes the early question and searches only earlier literature.
- 6 · The experiment ~6 min You’ll guess: Did an agentic search system, which calls the same embedding retriever as a tool, beat plain embedding retrieval at finding the papers?
- 7 · The viva ~5 min Three questions from the examiners, answered in your own words. Win it for the paper’s trophy.
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