Skills Data Science Robustness and Sensitivity Testing Battery

Robustness and Sensitivity Testing Battery

v20260724
eer-robustness
A comprehensive guide for building a 'robustness battery' to validate empirical findings. It instructs researchers on thoroughly testing results against potential weaknesses in specification, sample selection, measurement, estimator choice, and inference assumptions. Essential for publishing rigorous, credible quantitative research.
Get Skill
446 downloads
Overview

Robustness & Sensitivity (eer-robustness)

When to trigger

  • The headline estimate exists but its fragility has not been probed
  • A referee (or co-author) suspects the result is driven by one sample/spec choice
  • Inference assumptions (clustering, dependence, multiple testing) are unexamined
  • A structural/quantitative result's sensitivity to parameters is not shown

The EER robustness bar

A general-interest result must be believable beyond the authors' favorite specification. EER referees — methods-aware under single-anonymized review — expect a disciplined battery, not a scattershot appendix: vary the things that could plausibly overturn the result, report them transparently, and say which (if any) move the estimate. The goal is a result that is robust where it matters and honest where it is fragile. Robustness is not infinite specification mining; choose tests with a reason.

The robustness battery (choose by design)

Dimension Test Why it matters
Specification add/drop controls; alternative functional form; FE structure shows the estimate is not a control artifact
Sample leave-one-out (unit/region/year); alternative windows; trimming outliers shows no single observation drives it
Measurement alternative outcome/treatment definitions; alternative data source shows it is not a coding choice
Estimator heterogeneity-robust DiD vs TWFE; alternative IV/RDD bandwidth shows method-robustness
Inference clustering level; wild-cluster bootstrap (few clusters); spatial/cross-sectional dependence; randomization inference shows SEs are valid under real dependence
Multiple testing Romano–Wolf / Bonferroni–Holm across families guards against cherry-picked significance
Structural parameter sensitivity; alternative calibration targets; grid/tuning shows quantity is not a tuning artifact
Pre-trends honest-DiD sensitivity (Rambachan–Roth); placebo timing bounds violations of parallel trends

How to organize it

  1. Pick the threats that could actually overturn the claim — tie each test to a specific objection.
  2. Lead with the most dangerous test, not the easiest one.
  3. Report a coefficient-stability table or specification curve so the reader sees the distribution of estimates.
  4. State the verdict honestly: "the estimate ranges X–Y across N specifications; it loses significance only when Z."
  5. Push the long tail to the Supplementary material, keep the load-bearing tests in-text.

Execution bridge (StatsPAI / Stata MCP)

Run the battery, don't just enumerate it. Full map: execution-with-mcp. EER is a general economics field journal; the DiD/IV/RDD chain serves its applied lane.

  • Many outcomes / specifications: romano_wolf (step-down FWER) or benjamini_hochberg.
  • OVB sensitivity: oster_delta / sensemakr.
  • Inference: wild_cluster_bootstrap (few clusters), twoway_cluster / conley.
  • Re-fit off one handle: audit_result(result_id) lists missing checks + the exact suggest_function for each.
  • Exhibits: etable / did_summary_to_latex from the handle — no retyped numbers.

Decisive checks in the body, exhaustive battery in the appendix. JF execution walkthrough.

Checklist

  • Each robustness test is tied to a named objection (not decorative)
  • Sample robustness: leave-one-out and alternative windows shown
  • Inference robustness: clustering justified; few-cluster / dependence handled
  • Estimator robustness: modern vs naive estimator agree (or the gap is explained)
  • Multiple-testing correction where several outcomes are tested
  • Structural: parameter/calibration sensitivity reported
  • A coefficient-stability table or spec curve summarizes the distribution
  • Fragilities stated honestly, not hidden

Anti-patterns

  • A robustness appendix that only adds controls and never threatens the result
  • Reporting 20 specs that all "confirm" the result while omitting the one that breaks it
  • Clustering at a convenient level to shrink standard errors
  • Specification mining presented as robustness (no rationale per test)
  • Burying a fragility the referee will find anyway — better to disclose and bound it
  • Significance stars substituting for a coefficient-stability view

Worked vignette (illustrative)

An IO paper finds a merger raised prices 4%. A weak appendix re-runs with more controls. An EER battery: leave-one-market-out (range 3.1–4.6%, illustrative), alternative price index, synthetic-control placebo on untreated markets, wild-cluster bootstrap (28 markets), and a Romano–Wolf correction across the three outcomes. Verdict stated plainly: "the price effect is 3.1–4.6% and significant in all but the trimmed-outlier sample, where it is 2.0% (s.e. 1.1)." The reader trusts the number because its fragility was mapped.

Output format

【Core claim under test】one sentence
【Threats probed】[spec / sample / measurement / estimator / inference / MHT / structural]
【Most dangerous test + result】[...]
【Estimate range across specs】X–Y (where it breaks: Z)
【Honest fragilities】[...]
【Next step】eer-tables-figures (present the battery) or eer-referee-strategy
Info
Category Data Science
Name eer-robustness
Version v20260724
Size 5.67KB
Updated At 2026-07-28
Language