You have ten minutes to read a paper’s abstract, method figure, and main result table. Critique the work and propose the next experiment.
State the paper’s strongest claim in the authors’ own terms, then go after the single threat most likely to explain the headline result. Ten generic faults (“small gain, few datasets, more baselines”) get you down-leveled; the signal is fair, prioritized, falsifiable judgment under incomplete information.
A reading order
- Claim: what does the paper say is new and true?
- Evidence: which result supports each part of the claim?
- Comparison: are the baselines strong, current, and fairly resourced?
- Validity: could leakage, selection, tuning, or variance explain the result?
- Mechanism: do the ablations isolate why it works?
- Scope: where should the conclusion generalize, and where should it break?
- Value: is the gain meaningful relative to compute and complexity?
- Next experiment: what single result would most change your belief?
Be fair before you criticize
Open by stating the strongest contribution in the authors’ own terms, then separate:
- A correct result with an overstated claim
- A useful engineering improvement without novel science
- A plausible mechanism with insufficient evidence
- A flawed evaluation that invalidates the headline
What an L4 answer sounds like
“The gain is small, there are not enough datasets, and they should compare to more baselines.”
These may be true, but they are generic and never identify the highest-impact threat.
What an L5 answer adds
An L5 answer ties each criticism to the claim: if the claim is efficiency, compare matched wall time and hardware utilization; if robustness, define the shift and the uncertainty; if a mechanism, demand a discriminating ablation; if the gain is small, compare it against seed variance and tuning budget. It proposes one feasible next experiment, not a wish list.
What an L6 answer adds
An L6 answer judges strategic value: is the benchmark saturated or misaligned with real use, does the method move the cost or reliability frontier, which result is likely to survive scale, what capability would be needed to reproduce it, and is the contribution a new primitive, a recipe, or a local optimization. It updates visibly when the evidence contradicts a first impression.
Tells that get you a strong-hire vote
- Criticism is prioritized by impact on the central claim.
- Baseline and compute fairness are explicit.
- You separate absence of evidence from evidence of failure.
- You propose a falsifiable next experiment.
- You name a real strength before the limitations.
Tells that get you down-leveled
- Judging the venue or the authors rather than the evidence.
- Demanding more datasets without saying what they would test.
- Calling a small gain meaningless with no uncertainty or cost context.
- Missing leakage or matched-compute issues.
- Ten criticisms and no decision.
Common follow-ups
- Would you spend a month reproducing this paper?
- Which claim would you narrow?
- What is the strongest alternative explanation?
- How would you test whether the result survives scale?
- What if the method is slower but easier to operate?
Related: design an ablation study, bias-variance of estimators, and lessons from Marin 8B.