paper-review
Guides self-review of YOUR OWN academic paper before submission with adversarial stress-testing. Core method: 5-aspect checklist (contribution sufficiency, writing clarity, results quality, testing completeness, method design), counterintuitive protocol (reject-first simulation, delete unsupported claims, score trust, promote limitations, attack novelty), reverse-outlining, and figure/table quality checks. Use when: user wants to self-review or self-check their own paper draft before submission, stress-test their claims, prepare for reviewer criticism, or mentions 'self-review', 'check my draft', 'is my paper ready'. Do NOT use for writing a peer review of someone else's paper, and do NOT use after receiving actual reviews (use paper-rebuttal instead).
What this skill does
# Paper Review
A systematic approach to self-reviewing academic papers before submission. Covers a 5-aspect review checklist, reverse-outlining for structural clarity, figure/table quality checks, and rebuttal preparation.
## When to Use This Skill
- User wants to review or check a paper draft before submission
- User asks for feedback on paper quality or completeness
- User wants to prepare for potential reviewer criticism
- User mentions "review paper", "check my draft", "self-review"
> If the user has already received reviewer comments and needs to write a rebuttal, use the `paper-rebuttal` skill instead.
## Prerequisites
Before starting review, confirm the `paper-writing` handoff checklist is satisfied: all sections drafted, claims anchored to evidence, limitation section present, figures finalized, and no unresolved `\todo{}` markers. If any item is incomplete, finish writing before reviewing.
---
## The Perfectionist Approach
> Strive for perfection: review your own paper, consider every question a reviewer might ask, and address them one by one.
The best defense against negative reviews is a thorough self-review:
1. **Adversarial review**: Read your own paper as a critical reviewer would
2. **Seek advisor feedback**: Ask your advisor to review — the more feedback, the better
3. **Address everything**: For every potential weakness you find, either fix it or prepare a defense
## Counterintuitive Review Protocol
Run this protocol before final polishing:
1. **Reject-first simulation**: Force yourself to write a one-paragraph reject summary before writing any positive comments.
2. **Delete one unsupported strong claim**: If a strong claim lacks direct evidence, remove it instead of defending it.
3. **Score trust, not only score gains**: Papers with slightly lower gains but higher fairness and reproducibility often receive better review outcomes.
4. **Promote one explicit limitation**: Move one meaningful limitation from hidden notes into the paper; transparency can increase confidence.
5. **Attack your novelty claim**: Ask "Could a strong PhD derive this in one afternoon?" If yes, narrow and sharpen the novelty statement.
See [references/counterintuitive-review.md](references/counterintuitive-review.md)
---
## 5-Aspect Self-Review Checklist
### Aspect 1: Contribution Sufficiency
> The paper does not provide readers with new knowledge.
Ask these questions to evaluate whether the contribution is sufficient:
- [ ] **Are the failure cases common?** If the failure cases are frequent and obvious, reviewers may question whether the method is ready for publication.
- [ ] **Is the proposed technique well-explored?** If the technique is already widely studied, what new insight or improvement do we bring?
- [ ] **Is the improvement foreseeable / well-known?** If the improvement was predictable from combining known ideas, the novelty may be questioned.
- [ ] **Is the technique too straightforward?** A straightforward application of existing techniques may lack sufficient contribution.
**Red flag**: If "yes" to any of these, strengthen the contribution narrative or add more technical depth.
### Aspect 2: Writing Clarity
> Missing technical details, not reproducible; a method module lacks motivation.
- [ ] **Missing technical details?** Would a reader be able to reproduce the method from the paper alone?
- [ ] **Missing module motivation?** Does every module in the Method section explain *why* it exists, not just *what* it does?
- [ ] **Paragraph structure**: Does each paragraph have a clear topic? Does the first sentence state the point?
- [ ] **Flow**: Is the logical flow between paragraphs and sections smooth?
- [ ] **Terminology**: Are terms used consistently throughout?
**Red flag**: If reproducibility is in doubt, add implementation details or supplementary material.
### Aspect 3: Experimental Results Quality
> Only slightly better than previous methods; or better than previous methods but still not good enough.
- [ ] **Marginal improvement?** If the improvement over SOTA is very small, is it statistically significant?
- [ ] **Absolute quality insufficient?** Even if better than baselines, is the output quality good enough for the application?
- [ ] **Visual quality**: Do qualitative results look convincing? Are improvements visible?
**Red flag**: If improvements are marginal, emphasize other advantages (speed, generalizability, simplicity) or add more challenging test cases.
### Aspect 4: Experimental Testing Completeness
> Missing ablation studies; missing important baselines; missing important evaluation metrics; data too simple.
- [ ] **Missing ablation studies?** Is every core contribution ablated?
- [ ] **Missing important baselines?** Are recent SOTA methods included?
- [ ] **Missing evaluation metrics?** Are all standard metrics for this task reported?
- [ ] **Datasets too simple?** Do the benchmarks truly test the method's capabilities?
- [ ] **No failure case analysis?** Honest failure analysis increases credibility.
**Red flag**: Missing ablations or baselines is one of the most common reasons for rejection.
### Aspect 5: Method Design Issues
> Experimental setting is impractical; method has technical flaws; method is not robust; new method's costs outweigh its benefits.
- [ ] **Impractical experimental setting?** Are assumptions realistic for the intended use case?
- [ ] **Technical flaws?** Does the method have theoretical or conceptual weaknesses?
- [ ] **Not robust?** Does the method require per-scene hyperparameter tuning?
- [ ] **Benefit < Limitation?** Does the new module introduce limitations that outweigh its benefits?
**Red flag**: If the method requires significant tuning per scenario, add robustness experiments or acknowledge and address the limitation.
---
## Critical Reminder: Claims Must Have Support
> Every claim in the paper (especially in the Abstract and Introduction) must be correct and supported by experiments. Some reviewers will reject a paper directly for unsupported claims.
Go through every claim in the Abstract and Introduction. For each claim:
- [ ] Is it factually correct?
- [ ] Is there an experiment or analysis that supports it?
- [ ] Is the supporting experiment clearly referenced?
An unsupported claim — especially in the Abstract or Introduction — can be grounds for rejection.
---
## Reverse-Outlining Technique
> Extract the writing plan from finished paragraphs and check whether the flow is smooth.
After writing a section (or the entire paper):
1. **Read each paragraph** one at a time
2. **Write down the main message** of each paragraph in one sentence
3. **Read the sequence of messages** — does it flow logically?
4. **Identify breaks**: Where does the flow feel abrupt or illogical?
5. **Fix**: Reorganize paragraphs, add transitions, or split/merge paragraphs
Apply this to:
- Introduction (check narrative flow)
- Method (check if modules are presented in logical order)
- Experiments (check if results are presented in a meaningful sequence)
---
## Figure and Table Quality Checklist
### Figures
- [ ] Pipeline figure highlights novelty (not just explanation)
- [ ] Pipeline figure looks distinct from prior work
- [ ] Teaser figure is compelling and self-contained
- [ ] All figures have clear captions
- [ ] Resolution is high enough for print
- [ ] Color-blind friendly (avoid red-green only distinctions)
- [ ] Figures are referenced in the text
### Tables
- [ ] Captions are above the table
- [ ] No vertical lines
- [ ] Using booktabs (`\toprule`, `\midrule`, `\bottomrule`)
- [ ] Best results highlighted (bold/color)
- [ ] Metric direction indicated (↑/↓)
- [ ] Captions describe setup/notation, not results
- [ ] All tables are referenced in the text
---
## Conclusion and Limitation Check
- [ ] Conclusion summarizes contributions and key results
- [ ] **Limitation section is present** (reviewers frequently flag its absence)
- [ ] Limitations are about task/settinRelated in Design
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