Datasets:
id stringlengths 17 29 | source stringclasses 1
value | split stringclasses 1
value | paper_id stringclasses 100
values | comment stringlengths 15 932 | reviewer_type stringclasses 2
values | label stringclasses 2
values | error_type stringclasses 4
values | label_origin stringclasses 1
value |
|---|---|---|---|---|---|---|---|---|
rc|human|rc0|review#1|14 | rc | test | rc0 | I'm confused about the question() prompt. I thought these contained "task-agnostic examples of how to transform statements to various questions", but it seems like the format is not the same for all tasks? (Appendix H) | human | correct | null | expert |
rc|human|rc0|review#2|17 | rc | test | rc0 | Clarity, Quality, Novelty And Reproducibility: | human | correct | null | expert |
rc|human|rc0|review#2|19 | rc | test | rc0 | ok I really found this paper hard to follow. | human | correct | null | expert |
rc|human|rc0|review#2|20 | rc | test | rc0 | After reading the main paper the reader is left wondering as to what was actually proposed. | human | error | Neglect | expert |
rc|human|rc0|review#2|21 | rc | test | rc0 | The intro should really focus more on Figure 1 and highlight the overall algorithm better (generate the questions, generate the answers for these generated questions, aggregate the output). | human | correct | null | expert |
rc|human|rc0|review#2|22 | rc | test | rc0 | I feel that Figure 1+ Appendix F should form a good chunk of the main paper, showing what happens, why you believe that questions and answers that were generated by AMA are of good quality. | human | correct | null | expert |
rc|human|rc0|review#2|23 | rc | test | rc0 | Additionally, apart from "insights" as to what makes good questions, authors don't provide enough details of what is being generated. | human | correct | null | expert |
rc|human|rc0|review#2|24 | rc | test | rc0 | How many templates do you end up using? Is it task dependent? Were these templates selected for each dataset manually? Finally, the weak supervision should be also described in the main paper, as it is an integral part of the approach. | human | correct | null | expert |
rc|human|rc0|review#2|26 | rc | test | rc0 | after having (finally) understood the approach, I do find it witty. | human | correct | null | expert |
rc|human|rc0|review#2|27 | rc | test | rc0 | Authors are generating a number of prompts that hopefully highlight different angles of the input, and combine the outputs of the model based on these prompts to come up with a final solution. | human | correct | null | expert |
rc|human|rc0|review#2|29 | rc | test | rc0 | see my comments on clarity. As far as I understand authors open source their code (I have not seen where???) so this should help reproducibility, but overall just by reading the paper, I don't think I would have enough details to reproduce the approach. | human | error | Neglect | expert |
rc|human|rc0|review#2|30 | rc | test | rc0 | Summary Of The Review: | human | correct | null | expert |
rc|human|rc0|review#2|31 | rc | test | rc0 | Update: in light of additional comparison with prompt tuning, i am raising my score. | human | correct | null | expert |
rc|human|rc0|review#2|32 | rc | test | rc0 | I appreciate all the additional experiments authors ran. | human | correct | null | expert |
rc|human|rc0|review#2|33 | rc | test | rc0 | I still encourage to improve the flow/the story/the presentation, but the method deserves to be seem | human | correct | null | expert |
rc|human|rc0|review#2|34 | rc | test | rc0 | Update: i am keeping my score of marginally above. I do think the narrative can be improved, but it is also an interesting peace of work and it is pretty witty to make the model generate the questions and answers to improve the prompting. | human | correct | null | expert |
rc|human|rc0|review#2|35 | rc | test | rc0 | Overall It is a very good idea of forcing the model to write the prompts that it is able to respond to. | human | correct | null | expert |
rc|human|rc0|review#2|36 | rc | test | rc0 | I do think the main paper should be reworked to include more examples/explanations of what is being proposed plus WS part. | human | correct | null | expert |
rc|human|rc0|review#2|38 | rc | test | rc0 | Are all the models you tested are next token (perfix) trained, not span corruption trained correct? | human | correct | null | expert |
rc|human|rc0|review#2|39 | rc | test | rc0 | With respect to having less of improvement on closed book tasks - do you think it is because that the answers you show in the "anwers" part of the chain don't draw on closed book knowledge? | human | correct | null | expert |
rc|human|rc0|review#2|40 | rc | test | rc0 | I assume your "answers" templates are the same for various tasks so they don't include that closed book knowledge? | human | correct | null | expert |
rc|human|rc0|review#2|42 | rc | test | rc0 | You say in Table 1 that prompts can abstain from the predictions. What does it mean? Don't you get an output for each of your prompt chains? | human | correct | null | expert |
rc|human|rc0|review#2|43 | rc | test | rc0 | Are questions prompts and answer prompts task specific? How did you create them How many chains do you create for each input during inference? | human | correct | null | expert |
rc|human|rc0|review#2|44 | rc | test | rc0 | Building on this Isn't it the case that AMA performance will depend greatly on question() step? If the questions are not well done then when you create answer prompts, the model will not produce the result you are looking for | human | correct | null | expert |
rc|human|rc0|review#2|45 | rc | test | rc0 | This seems to work well on simpler tasks (yes or no, question answering), but i am struggling to understand how the combining of the results will work for more generative tasks like summary tasks where variance of the predictions will be much higher | human | correct | null | expert |
rc|human|rc0|review#3|14 | rc | test | rc0 | I found the story line a little confusing. | human | correct | null | expert |
rc|human|rc0|review#3|15 | rc | test | rc0 | The aggregation based on weak supervision is touted as main accomplishment, but this actually only gives a small improvement in Table 1 (but this small push does give edge over GPT-3 sometimes). | human | correct | null | expert |
rc|human|rc0|review#3|16 | rc | test | rc0 | In many of the tasks the 6B model already beats the 175B without weak supervision based aggregation. | human | correct | null | expert |
rc|human|rc0|review#3|17 | rc | test | rc0 | Also this table is not really apples-to-apples comparison making it hard to interpret. | human | correct | null | expert |
rc|human|rc0|review#3|18 | rc | test | rc0 | Should make it more clear what is the goal in this table --- is GPT-3 simply used more like a reference than a baseline? | human | correct | null | expert |
rc|human|rc0|review#3|20 | rc | test | rc0 | To explain more previous weakness, I was not clear when reading if it is enough to do prompt re-formatting or aggregation is also necessary. | human | correct | null | expert |
rc|human|rc0|review#3|21 | rc | test | rc0 | I think still I am a little not sure, also about whether re-formatting is necessary for aggregation to work well. | human | correct | null | expert |
rc|human|rc0|review#3|22 | rc | test | rc0 | In general, it could help to tailor overall story as being primarily about prompt re-formating or aggregation. | human | correct | null | expert |
rc|human|rc0|review#3|23 | rc | test | rc0 | It is well known that aggregating can be effective for prompting, and there are existing techniques like (self-consistency combined with chain of thought) that typically yield good improvements. | human | correct | null | expert |
rc|human|rc0|review#3|24 | rc | test | rc0 | Perhaps worth using those as baselines, or mentioning why they weren't used. | human | correct | null | expert |
rc|human|rc0|review#3|25 | rc | test | rc0 | Maybe CoT is not effective for smaller models? | human | correct | null | expert |
rc|human|rc0|review#3|26 | rc | test | rc0 | Clarity, Quality, Novelty And Reproducibility: | human | correct | null | expert |
rc|human|rc0|review#3|28 | rc | test | rc0 | It would be helpful to have finetuning baselines. | human | correct | null | expert |
rc|human|rc0|review#3|29 | rc | test | rc0 | For example Brown et al mention such baselines for BoolQ (91), CB (96.9), etc. in their Table 3.8. Others: DROP (89.1), NQ (44.5), WebQS (45.5). | human | correct | null | expert |
rc|human|rc0|review#3|30 | rc | test | rc0 | Sometimes the improvement over GPT-3 is great but still far behind finetuning. | human | correct | null | expert |
rc|human|rc0|review#3|32 | rc | test | rc0 | Self-consistency is a very crucial baseline / related work. | human | correct | null | expert |
rc|human|rc0|review#3|33 | rc | test | rc0 | Unlike the text says, it does not require additional training. | human | correct | null | expert |
rc|human|rc0|review#3|34 | rc | test | rc0 | It is an insightful innovation that plurality vote is effective when you have different reasoning paths, which runs counterintuitive for how samples from a standard prompt behave. | human | correct | null | expert |
rc|human|rc0|review#3|35 | rc | test | rc0 | Another related work with diverse prompting is Li et al. On the Advance of Making Language Models Better Reasoners. https://arxiv.org/abs/2206.02336 | human | correct | null | expert |
rc|human|rc0|review#3|36 | rc | test | rc0 | There is a lot of other works that describe strategies for exemplar selection. | human | correct | null | expert |
rc|human|rc0|review#3|37 | rc | test | rc0 | One particular relevant example is Shi et al. (https://arxiv.org/pdf/2204.11454), which found aggregating 5 prompts (3 distinct exemplars each) is better than single prompt with 15 exemplars. | human | correct | null | expert |
rc|human|rc0|review#3|38 | rc | test | rc0 | There are other works that do sequential prompting like least-to-most and SeqZero. | human | correct | null | expert |
rc|human|rc0|review#3|40 | rc | test | rc0 | The analysis / diagnostic in Fig 5 is great, and builds confidence that sub-tasks are related to final performance. | human | correct | null | expert |
rc|human|rc0|review#3|41 | rc | test | rc0 | It was not always clear to me what is the source of weak supervision... Are you using the labels from the task, and if so, isn't this standard supervision? Are the prompts themselves considered the source of noise? | human | correct | null | expert |
rc|human|rc0|review#3|42 | rc | test | rc0 | It was not immediately clear to me what was meant by "highly-correlated outputs". | human | correct | null | expert |
rc|human|rc0|review#3|43 | rc | test | rc0 | nit: Are you taking majority vote or plurality vote? | human | correct | null | expert |
rc|human|rc0|review#3|44 | rc | test | rc0 | nit: The framing of perfect vs. imperfect prompts is not the strongest. | human | correct | null | expert |
rc|human|rc0|review#3|45 | rc | test | rc0 | Perhaps it is sufficient to reframe and say you are introducing an efficient and effective ensembling method? | human | correct | null | expert |
rc|human|rc0|review#4|12 | rc | test | rc0 | To apply AMA in real use cases, AMA needs 1000 training examples from the training set of the target task (specified in Appendix A.3.). | human | correct | null | expert |
rc|human|rc0|review#4|13 | rc | test | rc0 | This is an unrealistic setting because only a few training instances might be present depending on the task. | human | correct | null | expert |
rc|human|rc0|review#4|14 | rc | test | rc0 | What if only a few training examples are present for a task (similar to few-shot setting)? Also, we need to train the probabilistic graphical model for each task. | human | correct | null | expert |
rc|human|rc0|review#4|15 | rc | test | rc0 | This introduces additional latency for task adaptation. | human | correct | null | expert |
rc|human|rc0|review#4|16 | rc | test | rc0 | For the AMA prompts on Appendix H, it seems that some tasks (DROP, SST, BoolQ, COPA) only do either prompt() or answer() stage, not both. How can we decide "automatically" when to do only prompt() or answer() or both depending on the target task? | human | error | Misunderstanding | expert |
rc|human|rc0|review#4|17 | rc | test | rc0 | This paper is quite unclear on how the predictions are mapped to the output space. Are the predictions mapped to the output space using a predefined rule? (ex) no -> False for Figure 1) | human | correct | null | expert |
rc|human|rc0|review#4|18 | rc | test | rc0 | Are there any results on a large-scale LM evaluation (175 OPT, GPT, BLOOM, etc,) comparing using AMA or not on the evaluation setting of Table 1 and 2? | human | correct | null | expert |
rc|human|rc0|review#4|19 | rc | test | rc0 | The structure of Section 3.2 and Section3.4 is divided into observation and solution (AMA). | human | correct | null | expert |
rc|human|rc0|review#4|20 | rc | test | rc0 | However, the observation experiments are not extensive enough. Is there a reason for selecting 3 tasks (CB, WSC, RTE)? | human | correct | null | expert |
rc|human|rc0|review#4|21 | rc | test | rc0 | Observing the findings on more tasks would make the findings more general and the motivation of AMA stronger. | human | correct | null | expert |
rc|human|rc0|review#4|22 | rc | test | rc0 | I think that StoryCloze should be included in Natural Language Understanding instead of NLI for Table 1 and 2. | human | correct | null | expert |
rc|human|rc0|review#4|23 | rc | test | rc0 | Clarity, Quality, Novelty And Reproducibility: | human | correct | null | expert |
rc|human|rc0|review#4|24 | rc | test | rc0 | The proposed method is novel in that it is effective and scalable. | human | correct | null | expert |
rc|human|rc0|review#4|25 | rc | test | rc0 | However, this paper contains some unclearness, especially on weak supervision and how the predictions are mapped to the output space. See Weakness part for details. | human | correct | null | expert |
rc|human|rc1|review#1|22 | rc | test | rc1 | 1.It is claimed that these three tasks require understanding of both structure and content of the web-page. | human | correct | null | expert |
rc|human|rc1|review#1|23 | rc | test | rc1 | While it is easy to see that textual content plays a key role in each of the three tasks, the role played by the structure of the web-page is not clear. | human | correct | null | expert |
rc|human|rc1|review#1|24 | rc | test | rc1 | It can be argued that no significant HTML structure analysis or understanding is needed for these tasks. | human | correct | null | expert |
rc|human|rc1|review#1|25 | rc | test | rc1 | For example, in Semantic Classification, what is most important for classifying HTML element 'input' into, say, 'username' is the value of its two attributes, 'type' and 'id'. | human | correct | null | expert |
rc|human|rc1|review#1|26 | rc | test | rc1 | As these attributes are in the close neighbourhood of 'input', parsing of HTML is not strictly necessary. | human | correct | null | expert |
rc|human|rc1|review#1|27 | rc | test | rc1 | Therefore, it might a good idea to do some experiments that demonstrate unequivocally the need for HTML structure analysis or understanding in these tasks. | human | correct | null | expert |
rc|human|rc1|review#1|28 | rc | test | rc1 | One such experiment could be to map all HTML tags in the web-page except the salient tags to the same token (say, ***) so that the input is now a sequence of salient tags, and ***. | human | correct | null | expert |
rc|human|rc1|review#1|31 | rc | test | rc1 | The submission is well written and easy to understand. | human | correct | null | expert |
rc|human|rc1|review#1|32 | rc | test | rc1 | The three canonical tasks are described well and the adaptation of the various LLM for building models for these tasks are well explained. | human | correct | null | expert |
rc|human|rc1|review#1|33 | rc | test | rc1 | The proposed solution is simple and appears to be effective for the tasks considered and the datasets chosen. | human | correct | null | expert |
rc|human|rc1|review#1|35 | rc | test | rc1 | Experiments are designed well and should be easy to reproduce. | human | correct | null | expert |
rc|human|rc1|review#1|36 | rc | test | rc1 | Datasets used in the experiments have been promised to be released. | human | correct | null | expert |
rc|human|rc1|review#1|37 | rc | test | rc1 | The work should be interesting for practitioners. | human | correct | null | expert |
rc|human|rc1|review#1|39 | rc | test | rc1 | This work asks the question can off-the-shelf LLM trained on natural language text be used effectively for tasks that involve HTML pages. | human | correct | null | expert |
rc|human|rc1|review#1|40 | rc | test | rc1 | It proposes three tasks as canonical tasks in understanding HTML. | human | correct | null | expert |
rc|human|rc1|review#1|41 | rc | test | rc1 | It employs a variety of LLM to build models for the three tasks using a small amount of HTML data for fine tuning. | human | correct | null | expert |
rc|human|rc1|review#1|42 | rc | test | rc1 | It shows that LLM does help these tasks significantly. | human | correct | null | expert |
rc|human|rc1|review#1|43 | rc | test | rc1 | One key question not answered in this context is how much of HTML structure analysis and understanding is truly required for these questions. | human | correct | null | expert |
rc|human|rc1|review#2|9 | rc | test | rc1 | Models that are trained on task specific data to compare against is questionable. | human | correct | null | expert |
rc|human|rc1|review#2|10 | rc | test | rc1 | I expect to see more task-specific models such as StructuralLM [1], MarkupLM [2] that respect the tree structure of HTML (or some other methods mentioned in the paper) to be evaluated against. | human | correct | null | expert |
rc|human|rc1|review#2|11 | rc | test | rc1 | However, the results seem to focus on LLMs only. | human | correct | null | expert |
rc|human|rc1|review#2|12 | rc | test | rc1 | I don't see the point of compare different variants of LLMs with or without pre-training. | human | correct | null | expert |
rc|human|rc1|review#2|13 | rc | test | rc1 | Basically, I need to see the following question answered: "For specific web tasks, do I want to use a HTML specific model trained on the small dataset or just to fine-tune LLMs"? | human | correct | null | expert |
rc|human|rc1|review#2|14 | rc | test | rc1 | [1] Li, C., Bi, B., Yan, M., Wang, W., Huang, S., Huang, F. and Si, L., 2021. StructuralLM: Structural Pre-training for Form Understanding. arXiv preprint arXiv:2105.11210. | human | correct | null | expert |
rc|human|rc1|review#2|15 | rc | test | rc1 | [1] Li, J., Xu, Y., Cui, L. and Wei, F., 2021. MarkupLM: Pre-training of text and markup language for visually-rich document understanding. arXiv preprint arXiv:2110.08518. | human | correct | null | expert |
rc|human|rc1|review#2|17 | rc | test | rc1 | Clarity: The paper is easy to follow as the content of the paper is simple. | human | correct | null | expert |
rc|human|rc1|review#2|18 | rc | test | rc1 | Quality: The experiments seem to be well-done. | human | correct | null | expert |
rc|human|rc1|review#2|19 | rc | test | rc1 | Novelty: The novelty is limited in terms of methodology. | human | correct | null | expert |
rc|human|rc1|review#2|20 | rc | test | rc1 | It is mostly an empirical study for large LLMs on HTML texts. | human | correct | null | expert |
rc|human|rc1|review#2|21 | rc | test | rc1 | Reproducibility: Some details are missing. | human | correct | null | expert |
rc|human|rc1|review#2|22 | rc | test | rc1 | Either code or more detailed experimental setup should be provided in the supplementary material | human | correct | null | expert |
rc|human|rc1|review#3|10 | rc | test | rc1 | The novelty is primarily empirical, and the technical approach is essentially an application of known techniques (the standard pretrain-finetune paradigm of LLMs). | human | correct | null | expert |
rc|human|rc1|review#3|11 | rc | test | rc1 | I examined the supplementary material provided by the authors and only found the data files. | human | correct | null | expert |
ReviewFact: Factual Errors in Peer-Review Comments
ReviewFact is the benchmark of the paper PremiseCheck: Efficient Fact-Checking of Human and AI Peer Reviews.
Dingjie Song1, Zhiling Yan1, Ziqian Zhang1, Yuxuan Zhang2,3, Lichao Sun1
1Lehigh University, 2University of British Columbia, 3Vector Institute
(a) The task on a real ReviewFact comment that claims a baseline is missing although the paper reports it. (b) ReviewFact labels come from the expert annotations of three datasets. For PeerReview Bench, two authors independently re-check which errors are factual on 178 comments.
TL;DR
- Task. Given a paper and one comment from a review of it, decide whether the comment contains a factual error about the paper, that is, says something about the paper that the paper does not support.
- Labels. Every label starts from an expert judgment in an existing dataset: ReviewCritique (NLP), ReviewScore (machine learning) and PeerReview Bench (natural sciences). No new comments or papers were added.
- Reviewers. Comments come from human reviews in all three parts and from AI (LLM) reviews in the NLP and natural-science parts.
- Size. The full benchmark has 9,267 comments on 217 papers. This repository distributes the NLP and natural-science parts (9,051 comments on 178 papers). The machine-learning part (216 comments) is rebuilt locally from its source with a script.
- Metric. AUROC with factual errors as the class to detect, reported together with the cost and latency of the system.
- Use. Evaluation only. Do not train models on ReviewFact.
Dataset structure
Configs
| config | file | rows | papers | errors | content |
|---|---|---|---|---|---|
nlp (default) |
data/nlp/test.jsonl |
6,466 | 100 | 308 | review comments, NLP (ReviewCritique) |
nlp_papers |
data/nlp/papers.jsonl |
100 | paper texts for nlp |
||
science |
data/science/test.jsonl |
2,585 | 78 | 65 | review comments, natural sciences (PeerReview Bench) |
science_papers |
data/science/papers.jsonl |
78 | paper texts for science |
||
| machine learning | not distributed | 216 | 39 | 46 | rebuilt from ReviewScore, see below |
Every config has a single test split. There is no training split.
Comments by reviewer type (correct / error):
| part | human-written | AI-written |
|---|---|---|
| NLP | 5,783 / 278 | 375 / 30 |
| Natural sciences | 1,686 / 40 | 834 / 25 |
| Machine learning | 170 / 46 | none |
Comment fields (nlp, science)
| field | type | description |
|---|---|---|
id |
string | unique comment id (prefix rc| for the NLP part, prb| for the natural-science part) |
source |
string | source dataset: rc (ReviewCritique) or prb (PeerReview Bench) |
split |
string | always test |
paper_id |
string | key into the matching papers config |
comment |
string | the review comment (a segment of a review in the NLP part, a review item in the natural-science part) |
reviewer_type |
string | human or ai (the review was written by a person or by an LLM) |
label |
string | error or correct |
error_type |
string or null | source error category for error rows (Misunderstanding, Neglect, Unstated statement, Inaccurate Summary); null for correct rows |
label_origin |
string | expert (label taken from the source's expert judgment) or expert+llm-filter (the expert judged the comment incorrect and an LLM decided from the expert's rationale that the error is factual, see Human verification) |
Paper fields (nlp_papers, science_papers)
| field | type | description |
|---|---|---|
paper_id |
string | paper id |
title |
string | paper title |
text |
string | full text of the paper. The systems in the paper read the first 24k tokens (o200k tokenizer). |
Example
The comment shown in the figure, from a human review of LoRA: Low-Rank Adaptation of Large Language Models
(paper_id rc71). The paper reports full fine-tuning as a baseline in Section 5.1, so the experts labeled the
comment a Neglect error.
{
"id": "rc|human|rc71|review#4|27",
"source": "rc",
"split": "test",
"paper_id": "rc71",
"comment": "The authors did not report any baselines outside of the efficient fine-tuning setting.",
"reviewer_type": "human",
"label": "error",
"error_type": "Neglect",
"label_origin": "expert"
}
Quick start
from datasets import load_dataset
nlp = load_dataset("songdj/ReviewFact", "nlp", split="test") # comments
nlp_papers = load_dataset("songdj/ReviewFact", "nlp_papers", split="test") # paper texts
science = load_dataset("songdj/ReviewFact", "science", split="test")
science_papers = load_dataset("songdj/ReviewFact", "science_papers", split="test")
# join comments to papers on paper_id
papers = {p["paper_id"]: p for p in nlp_papers}
example = nlp[0]
paper_text = papers[example["paper_id"]]["text"]
# binary target: 1 = factual error
y = [int(label == "error") for label in nlp["label"]]
To score a system, compute AUROC over all comments of a part with error as the positive class, for example with
sklearn.metrics.roc_auc_score(y, error_scores). The PremiseCheck code
provides premisecheck eval, which also reports cost, latency and the paired paper-bootstrap difference to a
reference run. To download the raw files instead:
hf download songdj/ReviewFact --repo-type dataset --local-dir data/ReviewFact
Task and labels
A comment contains a factual error when it says something about the paper that the paper does not support. ReviewFact adopts the four factual error types of ReviewCritique:
- Misunderstanding: the comment misreads the paper.
- Neglect: the comment claims that the paper lacks something it contains.
- Unstated statement: the comment asserts something with no basis in the paper.
- Inaccurate summary: the comment misstates the content of the paper.
Errors of judgment, such as whether a concern is important, are outside the task.
Each source dataset was built for a broader goal, so its annotations are mapped to one label and comments outside the task are left out:
| part | source | annotators | correct | error | left out |
|---|---|---|---|---|---|
| NLP | ReviewCritique (Du et al., 2024) | 40 NLP researchers, two per paper, disagreements resolved by an expert with area-chair experience | segment judged reliable | segment judged deficient with type Misunderstanding, Neglect, Unstated statement or Inaccurate Summary | other deficiencies, summary and strength segments, segments of fewer than four words |
| Natural sciences | PeerReview Bench (Kim et al., 2026) | 45 scientists in the physical, biological and health sciences | comment judged correct | comment judged incorrect, and the error is factual (decided from the expert's rationale, see below) | other incorrect comments, incorrect comments without a rationale |
| Machine learning | ReviewScore (Ryu et al., 2025) | 15 graduate students in AI, median of three ratings per premise | lowest premise rating above 3 | lowest premise rating below 3 | arguments at exactly 3, claims and questions |
In the machine-learning part, only arguments (comments that give reasons for a conclusion) are kept, because ReviewScore rates the premises of arguments only. This is why its share of errors is higher.
Human verification
Many comments that the PeerReview Bench experts judged incorrect are errors of judgment rather than factual errors.
GPT-5.5 decides from the expert's rationale whether the error is factual (label_origin = expert+llm-filter; all
correct rows are expert). Two of the authors independently repeated this decision on the 178 comments that have
a rationale. Each saw the comment, the expert rationale and the paper text, but not the GPT-5.5 label or the other
annotator's label. The two annotators agree with Cohen's κ = 0.70, and GPT-5.5 agrees with them with κ = 0.76 and
0.77. The released labels are the GPT-5.5 labels.
Machine-learning part (ReviewScore)
ReviewScore states no license, so its comments and papers are not included here. To evaluate on it, download the
source data from github.com/Hyun-Ryu/ReivewScore (the repository name is
spelled this way) and run scripts/build_reviewscore.py from the
PremiseCheck code repository:
git clone https://github.com/Hyun-Ryu/ReivewScore
python scripts/build_reviewscore.py --reviewscore ReivewScore --out data/ReviewFact
# rs: 216 comments, 46 errors, 39 papers [ok]
The script applies the label rule above and writes the comments and papers in the same format as the other parts (39 papers, 216 comments, 46 errors).
Intended use
ReviewFact is for evaluating and benchmarking systems that detect factual errors in review comments.
Do not use ReviewFact to train models. The licenses of both distributed sources restrict them to evaluation: the ReviewCritique license forbids use for training AI models, and PeerReview Bench is intended for evaluation and not for training.
All parts are test data. The prompts and thresholds of PremiseCheck were developed on ReviewScore and PeerReview Bench, so its results on those parts are not held out.
Licenses and attribution
This dataset is a combination of two derived parts with different licenses (hence license: other). Each part is
governed by the license of its source.
- NLP part (
data/nlp/): derived from ReviewCritique (Du et al., 2024, github.com/jiangshdd/ReviewCritique), licensed under the Apache NON-AI License 2.0 (seeLICENSE_ReviewCritique). Research use only; allowed for evaluation and benchmarking; must not be used to train models.data/nlp/test.jsonlanddata/nlp/papers.jsonlare modified files derived fromReviewCritique.jsonlandReviewCritique_LLM.jsonl. The changes are label mapping, segment selection and new ids. - Natural-science part (
data/science/): derived from PeerReview Bench (Kim et al., 2026, arXiv:2605.20668, github.com/prometheus-eval/cmu-paper-reviewer), licensed under CC-BY-4.0 (seeLICENSE_PeerReviewBench.md) and intended for evaluation, not training.data/science/test.jsonlanddata/science/papers.jsonlare derived from it; the changes are label mapping, the factual-error filter above, comment selection and new ids. - Machine-learning part: ReviewScore (Ryu et al., 2025) states no license, so nothing from it is redistributed.
- Overview figure (
assets/overview.png): from the PremiseCheck paper.
Known issues
- ReviewCritique segments of fewer than four words (241, all labeled correct, mostly headers such as "Weaknesses:") are removed. Some short header-like segments of four words or more remain (for example "Clarity, Quality, Novelty And Reproducibility:"), all labeled correct.
- Errors are rare (4.8% of NLP comments, 2.5% of natural-science comments, 21% of machine-learning items), and the natural-science and machine-learning parts have only 65 and 46 errors, so confidence intervals on those parts are wide.
- Natural-science error labels depend on an LLM filter over the expert rationale (κ = 0.76 and 0.77 against two human annotators); some disagreement with a human reading is expected.
- Nine natural-science comments have an empty
commentstring in the source data (prb|37|Human_1|3–5,prb|70|Gemini|1–4,prb|82|GPT|5,prb|82|Gemini|4), all labeled correct. They are kept so that the counts match the paper; you may drop them. - Paper texts are automatic PDF extractions and contain extraction artifacts (broken small caps, LaTeX fragments, hyphenation).
Citation
If you use ReviewFact, please cite the paper:
@misc{song2026premisecheck,
title = {{PremiseCheck}: Efficient Fact-Checking of Human and {AI} Peer Reviews},
author = {Song, Dingjie and Yan, Zhiling and Zhang, Ziqian and Zhang, Yuxuan and Sun, Lichao},
year = {2026},
note = {Preprint},
url = {https://www.alphaxiv.org/abs/2610.premisecheck-peer-review-fact-checking}
}
Please also cite the source datasets of the parts you use:
@inproceedings{du2024reviewcritique,
title = {{LLM}s Assist {NLP} Researchers: Critique Paper (Meta-)Reviewing},
author = {Du, Jiangshu and Wang, Yibo and Zhao, Wenting and Deng, Zhongfen and Liu, Shuaiqi and Lou, Renze and Zou, Henry Peng and Narayanan Venkit, Pranav and Zhang, Nan and Srinath, Mukund and Zhang, Haoran Ranran and Gupta, Vipul and Li, Yinghui and Li, Tao and Wang, Fei and Liu, Qin and Liu, Tianlin and Gao, Pengzhi and Xia, Congying and Xing, Chen and Jiayang, Cheng and Wang, Zhaowei and Su, Ying and Shah, Raj Sanjay and Guo, Ruohao and Gu, Jing and Li, Haoran and Wei, Kangda and Wang, Zihao and Cheng, Lu and Ranathunga, Surangika and Fang, Meng and Fu, Jie and Liu, Fei and Huang, Ruihong and Blanco, Eduardo and Cao, Yixin and Zhang, Rui and Yu, Philip S. and Yin, Wenpeng},
booktitle = {Proceedings of EMNLP 2024},
pages = {5081--5099},
year = {2024},
doi = {10.18653/v1/2024.emnlp-main.292}
}
@article{kim2026peerreviewbench,
title = {On the limits and opportunities of {AI} reviewers: Reviewing the reviews of {Nature}-family papers with 45 expert scientists},
author = {Kim, Seungone and Yoon, Dongkeun and Gashteovski, Kiril and Suk, Juyoung and Baek, Jinheon and Aggarwal, Pranjal and Wu, Ian and Zaverkin, Viktor and Petkoski, Spase and Schrider, Daniel R. and Dukovski, Ilija and Santini, Francesco and Mitreska, Biljana and Jeong, Yong and Kwon, Kyeongha and Sim, Young Min and Manasova, Dragana and Porto, Arthur and Mojsoska, Biljana and Takamoto, Makoto and Shuntov, Marko and Liu, Ruoqi and Lee, Hyunjoo Jenny and Din{\c{c}}, Niyazi Ulas and Jo, Yehhyun and Han, Sunkyu and Lee, Chungwoo and Li, Huishan and Tsai, Esther H. R. and Simsek, Ergun and Shafi, Khushboo and Chung, Yeonseung and Park, Jihye and Shulevski, Aleksandar and Christiansen, Henrik and Son, Yoosang and Knight, Elly and Montoya, Amanda and Ahn, Jeongyoun and Langkammer, Christian and Moon, Heera and Yoon, Changwon and Stikov, Nikola and Jang, Mooseok and Choi, Edward and Kim, Junhan and Jung, Yeon Sik and Kim, Woo Youn and Kim, Jae Kyoung and Anjum, Ishraq Md and Kim, Hyun Uk and Bridges, Drew and Lawrence, Carolin and Yue, Xiang and Oh, Alice and Asai, Akari and Welleck, Sean and Neubig, Graham},
journal = {arXiv preprint arXiv:2605.20668},
year = {2026}
}
@article{ryu2025reviewscore,
title = {{ReviewScore}: Misinformed Peer Review Detection with Large Language Models},
author = {Ryu, Hyun and Jang, Doohyuk and Lee, Hyemin S. and Jeong, Joonhyun and Kim, Gyeongman and Cho, Donghyeon and Chu, Gyouk and Hwang, Minyeong and Jang, Hyeongwon and Kim, Changhun and Kim, Haechan and Kim, Jina and Kim, Joowon and Kim, Yoonjeon and Lee, Kwanhyung and Park, Chanjae and Yun, Heecheol and Betz, Gregor and Yang, Eunho},
journal = {arXiv preprint arXiv:2509.21679},
year = {2025}
}
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