run_group large_stringclasses 3
values | asset_set large_stringclasses 2
values | system large_stringclasses 8
values | harness large_stringclasses 2
values | model large_stringclasses 8
values | cohort_id large_stringclasses 91
values | cutoff_date large_stringdate 2025-08-31 00:00:00 2026-01-12 00:00:00 | status large_stringclasses 2
values | valid bool 2
classes | created_at large_stringlengths 27 27 | total_cost_usd float64 0.24 119 β | total_tokens float64 704 29.6M β | duration_ms float64 67.3k 13.9M β | proposal large_stringlengths 13.7k 57.3k β |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_001_02_03_w2 | 2025-11-11 | succeeded | true | 2026-06-07T04:48:37.953004Z | 7.362256 | 20,323 | 520,854 | # Safety Subspace Monitoring and Restoration for Compound Model Modification Pipelines
## Introduction
Safety alignment in large language models (LLMs) is fragile: a few harmful fine-tuning examples can undo alignment achieved through extensive RLHF training (Qi et al., 2023), benign fine-tuning on purely utility-ori... |
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_001_02_06_w1 | 2025-08-31 | succeeded | true | 2026-06-07T04:48:38.142504Z | 9.356429 | 27,980 | 872,272 | # Dependency-Aware Bayesian Evidence Aggregation for Frontier AI Safety Cases
## Introduction
Frontier AI safety cases β structured arguments, supported by evidence, that a system is acceptably safe to deploy β are emerging as a central governance tool for managing catastrophic risk from advanced AI systems (Clymer e... |
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_001_02_06_w2 | 2025-10-01 | succeeded | true | 2026-06-07T04:48:38.402796Z | 8.719618 | 35,766 | 866,342 | # Consistency-Constrained Capability Auditing: Detecting Strategic Underperformance via Cross-Domain Capability Structure
## Introduction
Capability evaluations serve as a critical safety mechanism in frontier AI governance. AI labs and regulators rely on them to determine whether models possess dangerous capabilitie... |
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_001_06_01_w1 | 2025-09-01 | succeeded | true | 2026-06-07T04:48:38.661618Z | 9.700619 | 24,334 | 698,550 | # Contrastive Circuit Arbitration: Characterizing How Shared Transformer Components Resolve Conflicting Task Demands
## Introduction
Mechanistic interpretability has made significant progress in identifying computational circuits β minimal subgraphs responsible for specific model behaviors β within transformer langua... |
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_001_06_01_w2 | 2025-10-02 | succeeded | true | 2026-06-07T04:48:38.944224Z | 12.010585 | 40,846 | 1,052,790 | # Contrastive Role Decomposition: Characterizing Context-Dependent Functional Roles of Shared Circuit Components
## Introduction
Mechanistic interpretability aims to reverse-engineer the computational mechanisms of neural networks by identifying circuits β minimal subgraphs of a model's computational graph that expla... |
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_001_06_01_w3 | 2025-12-21 | succeeded | true | 2026-06-07T04:48:39.183048Z | 10.734429 | 25,192 | 589,331 | # Context-Conditioned Functional Decomposition: Mapping How Input Context Selects the Role of Shared Circuit Components
## Introduction
Mechanistic interpretability aims to reverse-engineer neural networks by identifying computational circuitsβsparse subgraphs of model components responsible for specific behaviors (W... |
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_002_01_06_w1 | 2025-09-14 | succeeded | true | 2026-06-07T04:48:39.450156Z | 14.392247 | 40,077 | 890,415 | # Confidence-Gated Adaptive Halting for Latent Reasoning
## Introduction
Large reasoning models achieve strong performance by generating extended chain-of-thought (CoT) sequences, but the computational cost of producing thousands of tokens per problem remains a critical bottleneck for deployment. A promising class of... |
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_002_02_01_w1 | 2025-09-18 | succeeded | true | 2026-06-07T04:48:39.728666Z | 11.299708 | 30,115 | 654,991 | "# Complexity-Adaptive Reward Decomposition for Fine-Grained Credit Assignment in Multi-Step Reasoni(...TRUNCATED) |
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_002_02_02_w1 | 2025-09-01 | succeeded | true | 2026-06-07T04:48:39.963672Z | 11.467901 | 32,406 | 821,692 | "# Diversity-Deficit Triggered Exploration: Per-Problem Adaptive Entropy Control for Sustained Reaso(...TRUNCATED) |
blog_table | simple | Opus 4.6 + Claude Code | claude | global.anthropic.claude-opus-4-6-v1 | l1_002_02_03_w1 | 2025-09-01 | succeeded | true | 2026-06-07T04:48:40.275245Z | 12.172811 | 35,570 | 772,947 | "# Surprise-Weighted Advantage Decomposition for Token-Level Credit Assignment in Critic-Free LLM Re(...TRUNCATED) |
IdeaEval-Bench
The ideation benchmark from IdeaEval. It has 91 cohorts across 40 research topics. Each cohort is a group of real papers that worked on the same research question within the same 31-day window, rewritten as pre-experiment research proposals. An ideation system receives the cohort's research direction and cutoff date, writes one proposal using only literature from before the cutoff, and is compared against every human proposal in the cohort.
π Blog post Β· π» Code (construction pipeline: benchmark/docs/PIPELINE.md)
Read this first. We never obtained an evaluator we trust on human-vs-AI comparisons (see the blog post and the IdeaEval-Calibration card). The cohorts and proposals are released as a resource. The win rates in the blog post are not a validated leaderboard.
How the cohorts were built
- Corpus: 35,505 arXiv AI papers, Sep 2025 β Jan 2026 (IdeaEval-Corpus).
- Research questions: tree clustering adapted from TaxoAdapt on each paper's title, research problem, task formulation and benchmarks. Levels were split until every leaf held 10β50 papers. The top two levels were deduplicated by hand. A paper could belong to 1β3 nodes.
- Topics: subtrees holding at most 150 papers. 70 reasonably active topics were hand-picked.
- Cohorts: each topic was split into 31-day windows. Zero-citation papers were dropped, and papers were audited for topic fit, presence of experiments and paper type. Papers that were public before their arXiv date (journal versions, OpenReview submissions) were removed or re-dated (
date_remapped). Cohorts with at least 10 remaining papers were kept: 91 cohorts over 40 topics. - Cutoff: the day before the earliest paper in the cohort.
- Proposals: every paper was converted into a proposal with a fixed structure (Introduction with core insight, falsifiable hypothesis and failure modes; Proposed Approach; Related Work; Experiments; Success Criteria; Impact Statement; References). Experimental design is kept in full, and the proposed method's numbers in the main results table are replaced with TBD. The converter is
benchmark/paper2proposal(Claude Opus 4.6).
Files
cohorts.parquet (91 rows)
| Field | Description |
|---|---|
cohort_id |
e.g. l1_001_02_03_w2 (topic id + window index) |
topic_id, topic_label, topic_question, topic_description |
The research topic |
window_start, window_end |
The 31-day window |
cutoff_date |
Literature cutoff for ideation systems |
ideation_prompt |
The 30β50 word research-direction description given to ideation systems |
n_papers, citation_stats |
Cohort size and citation distribution |
papers |
paper_id, title, date, date_remapped, citations, research_problem, task_formulation, application_domain |
ideation_inputs.json holds the same cohort_id / ideation_prompt / cutoff_date triples in the format the baseline runner reads.
human_proposals.parquet (1,330 rows)
paper_id (arXiv id), title, cohort_ids, proposal (Markdown).
baseline_proposals.parquet (1,274 rows)
Proposals from the ideation baselines in baselines/, one row per (run, cohort):
run_group |
Asset set | Systems | Notes |
|---|---|---|---|
blog_table |
simple |
Opus 4.6, DeepSeek-V4-Pro, Kimi-K2.6, GLM-5.1 (Claude Code); GPT-5.4 (Codex) | The runs behind the win-rate table in the blog post |
annotation_pool |
simple |
Opus 4.6, Kimi-K2.6, GLM-5.1 (Claude Code) | Re-runs used as a source of AI proposals for human-vs-AI annotation |
hypothesis_generator |
scientific-hypothesis-generator |
Opus 4.6, Opus 4.8, DeepSeek-V4-Pro, GLM-5.2 (Claude Code); GPT-5.4, GPT-5.5 (Codex) | Later, stronger harness with skills, a reviewer subagent and artifact gates |
Other fields: system, harness, model (as sent to the provider), cohort_id, cutoff_date, status, valid (passed the structure check), created_at, total_cost_usd, total_tokens, duration_ms, proposal. Two annotation-pool runs have no proposal.
lit_reviews/<cohort_id>/
The evaluator's literature-review workspace for each cohort, built only from pre-cutoff sources: literature_review.md, key_findings.md, coverage_gaps.md, research_plan.md and paper_summaries/. The reviews were written by GPT-5.4 and the paper summaries by DeepSeek-V4-Flash. The scraped full texts of the reviewed papers are not included.
Known limitations
- Hindsight. Proposals reconstructed from finished papers inherit the paper's structure and choices, so they are more coherent and more conservative than proposals written before the experiments.
- Cohort = same Kt is an approximation. Papers in a cohort share a topic and a time window, not necessarily an identical research question.
- Contamination. The window postdates the GPT-5.4 and Opus 4.6 knowledge cutoffs. Newer models may have seen these papers.
- Converter and judge share a model family. Proposals were produced by Claude Opus 4.6, which is also one of the judge models used in the blog post.
License and takedown
Proposals are LLM-generated rewrites of arXiv papers. They are released under CC BY-NC 4.0 for research use; the underlying papers keep their own licenses and are not redistributed here. If you are an author and want a proposal derived from your paper removed, please open an issue at https://github.com/02hyc/IdeaEval.
Citation
@misc{huang2026ideaeval,
title = {IdeaEval: Impact-Oriented Evaluation of Scientific Hypothesis Generation},
author = {Huang, Yanchen and Niu, Yuchen and Hu, Xiangkun},
year = {2026},
url = {https://02hyc.github.io/Blog/posts/ideaeval/}
}
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