This prompt is designed for analysts, verification engineers, and data teams who need to validate statistical significance claims found in reports, papers, marketing materials, or internal analyses. Use it when you have a claim that includes a p-value, a significance statement, or a hypothesis test conclusion and you need to verify whether the test was appropriate, the p-value is correctly reported, effect sizes are disclosed, and multiple comparison corrections were applied where needed. The primary job-to-be-done is methodological auditing of a stated claim, not re-running the original analysis against raw data. You provide the claim text, the reported test details, and any available context about the study design, and the prompt returns a structured assessment of reporting completeness, test appropriateness, and common failure patterns such as p-hacking or significance threshold shopping.
Prompt
Statistical Significance and P-Value Verification Prompt

When to Use This Prompt
Defines the job-to-be-done, ideal user, required context, and limitations for the Statistical Significance and P-Value Verification Prompt.
This prompt belongs in verification pipelines that process quantitative claims after content or analysis exists. It is not a replacement for running the actual statistical test against raw data; it validates the reporting and methodological soundness of the claim as stated. The prompt assumes you can provide the claim text, the reported test details (test type, sample size, p-value, effect size if available), and any available context about the study design. For regulated or high-stakes domains such as clinical trials or drug approvals, always route outputs to human review before any decision. The prompt is most effective when paired with a structured output schema that forces the model to separate factual reporting checks (e.g., 'is the p-value within valid range?') from judgment calls (e.g., 'is the test appropriate for this data structure?').
Do not use this prompt when you need to compute a p-value from raw data, when the claim involves Bayesian methods without frequentist reporting, or when the statistical test is so domain-specific that general verification heuristics do not apply. The prompt is also insufficient for detecting sophisticated fraud such as fabricated data; it checks reporting consistency and methodological soundness, not data integrity. Before deploying, define your evaluation criteria: what counts as a pass for test appropriateness, what severity levels you assign to missing effect sizes versus missing corrections, and at what confidence threshold you route to human review. Start with a small set of known-true and known-false claims to calibrate the prompt's behavior before scaling to production volumes.
Use Case Fit
Where this prompt works and where it does not. Understand the operational boundaries before wiring it into a verification pipeline.
Good Fit: Peer-Reviewed Statistical Claims
Use when: verifying p-values, significance levels, and hypothesis test results reported in academic papers, clinical studies, or formal research where methodology is documented. Why: the prompt expects explicit test names, sample sizes, and effect sizes that are standard in scholarly reporting.
Bad Fit: Vague 'Significant' Language
Avoid when: the input contains colloquial uses of 'significant' without a reported p-value, test statistic, or methodology. Risk: the model will hallucinate statistical rigor onto marketing copy or executive summaries. Guardrail: pre-filter claims with a keyword check for p-values, confidence intervals, or named tests before invoking this prompt.
Required Inputs: Test Name and Reported Value
What to watch: the prompt needs the claimed test type (t-test, ANOVA, chi-square), reported p-value, sample size, and ideally effect size. Guardrail: if any of these fields are missing, route to a human analyst rather than forcing the model to guess the test family from context alone.
Operational Risk: P-Hacking Pattern Blindness
What to watch: the prompt checks a single claim in isolation and may miss p-hacking patterns across multiple comparisons in the same study. Guardrail: always run this prompt alongside a multiple-comparison correction check and flag studies reporting only 'significant' results without adjusted thresholds.
Operational Risk: Significance Threshold Shopping
What to watch: claims may report p < 0.05 when the original study design specified p < 0.01, or switch between one-tailed and two-tailed tests post hoc. Guardrail: require the pre-registered significance threshold as a separate input field and compare it against the reported value before accepting the verification output.
Pipeline Integration: Human Review Escalation
What to watch: borderline p-values (0.04–0.06), missing effect sizes, or non-standard test choices should not be auto-verified. Guardrail: set a confidence threshold on the prompt output; route any verification with 'low confidence' or 'insufficient information' flags to a statistician review queue with the full claim context attached.
Copy-Ready Prompt Template
A ready-to-use prompt for verifying statistical significance claims, p-values, and hypothesis test reporting against source data or methodology descriptions.
This prompt template is designed to be pasted directly into your verification workflow. It instructs the model to act as a statistical auditor, checking a provided claim for test appropriateness, p-value accuracy, effect size reporting, and common pitfalls like p-hacking or significance threshold shopping. Replace the square-bracket placeholders with the specific claim text, the available source data or methodology description, and your required output structure before sending it to the model.
textYou are a statistical verification auditor. Your task is to evaluate a statistical significance claim against provided context. You must be precise, skeptical, and flag all assumptions. ## CLAIM TO VERIFY [CLAIM_TEXT] ## AVAILABLE CONTEXT [CONTEXT] ## OUTPUT SCHEMA Return a single JSON object with the following fields: - claim_summary: A one-sentence restatement of the statistical claim being made. - test_identified: The name of the hypothesis test or statistical method used (e.g., 'two-tailed t-test', 'chi-squared test of independence'). - test_appropriateness: An assessment ('APPROPRIATE', 'INAPPROPRIATE', 'UNCLEAR') with a brief justification. - p_value_reported: The p-value stated in the claim, or null if not provided. - p_value_verifiable: A boolean indicating if the p-value can be recalculated from the context. - effect_size_reported: A boolean indicating if an effect size (e.g., Cohen's d, odds ratio) is reported alongside the p-value. - multiple_comparison_correction: An assessment ('NOTED', 'NOT_MENTIONED', 'NOT_APPLICABLE') indicating if corrections for multiple comparisons were addressed. - p_hacking_indicators: A list of strings describing any red flags for p-hacking, such as 'no pre-registered primary outcome', 'multiple uncorrected tests', or 'flexible exclusion criteria'. - significance_threshold: The alpha level used (e.g., 0.05), or null if not stated. - threshold_shopping_risk: An assessment ('LOW', 'MEDIUM', 'HIGH') of the risk that the significance threshold was chosen after seeing the data. - overall_verdict: A final assessment ('SUPPORTED', 'UNSUPPORTED', 'PARTIALLY_SUPPORTED', 'INSUFFICIENT_CONTEXT'). - verdict_rationale: A concise explanation of the overall verdict, referencing specific checks. - requires_human_review: A boolean indicating if the claim involves high-stakes decisions or complex methodology requiring expert review. ## CONSTRAINTS - Do not invent data. If the context is insufficient to verify a calculation, state that clearly. - Distinguish between 'statistical significance' and 'practical significance' in your rationale. - If the claim uses causal language (e.g., 'leads to', 'increases'), flag it unless the study design supports causal inference. - If the p-value is reported as 'p < 0.05' without an exact value, note this as a precision limitation.
To adapt this template, start by pasting the exact text of the claim into [CLAIM_TEXT]. For [CONTEXT], provide the methodology section of the study, a data summary table, or the full dataset if available. The more context you provide, the more the model can verify calculations directly rather than just assessing reporting quality. If you are integrating this into an automated pipeline, parse the JSON output and use the requires_human_review boolean to route high-risk or complex claims to a subject-matter expert. For high-stakes domains like clinical trials or financial risk models, always set a policy that a human must review any verdict that is not SUPPORTED.
Prompt Variables
Required and optional inputs for the Statistical Significance and P-Value Verification Prompt. Provide all available fields; missing inputs will be flagged as MISSING in the output to prevent silent verification failures.
| Placeholder | Purpose | Example | Validation Notes |
|---|---|---|---|
[CLAIM_TEXT] | The full text of the statistical claim to verify, including any reported p-value, significance threshold, and test description | The treatment group showed a statistically significant improvement (p=0.03, two-tailed t-test) over control with n=45 per group | Must contain a p-value or significance assertion. If missing, verification cannot proceed and returns INSUFFICIENT_INPUT. Max 2000 characters. |
[SOURCE_DATA_SUMMARY] | Available summary statistics, sample sizes, effect sizes, or data descriptions that accompany the claim | Group A: mean=12.4, SD=3.2, n=45; Group B: mean=10.1, SD=3.5, n=45; alpha=0.05 | Must include sample size per group if available. Null allowed if claim is being checked for reporting completeness only. Validate numeric parse on means, SDs, and counts. |
[TEST_TYPE_HINT] | The statistical test the claim asserts was used, or null if the prompt should infer appropriateness | two-tailed independent t-test | Must match known test types: t-test, chi-square, ANOVA, Mann-Whitney, Fisher exact, etc. Null triggers test-appropriateness check as primary output. Validate against controlled vocabulary. |
[ALPHA_THRESHOLD] | The significance threshold stated or implied in the claim, defaulting to 0.05 if unspecified | 0.05 | Must be a float between 0 and 1. If claim uses multiple thresholds or 'trend-level' language, capture all values. Validate numeric parse and range check. |
[MULTIPLE_COMPARISONS_CONTEXT] | Information about how many tests were run, whether corrections were applied, and the family of hypotheses | 12 outcome variables tested; no correction mentioned; primary endpoint was pre-registered as variable 3 | Null allowed if unknown. If provided, must include count of comparisons or explicit statement that number is unknown. Triggers multiplicity correction verification in output. |
[EFFECT_SIZE_REPORTED] | Any effect size metric reported alongside the p-value, or null if absent | Cohen's d=0.42 | Must parse as numeric with optional CI bounds. Null triggers effect-size-absent flag in output. Validate that effect size type matches test type where possible. |
[PRE_REGISTRATION_STATUS] | Whether the analysis was pre-registered, including registry and registration ID if available | Pre-registered at OSF; registration doi:10.17605/OSF.IO/ABC123; primary outcome: variable 3 | Null allowed. If provided, must include registry name or explicit 'not pre-registered' statement. Triggers outcome-switching check when combined with MULTIPLE_COMPARISONS_CONTEXT. |
[CONFIDENCE_INTERVAL_DATA] | Confidence intervals reported for the effect, or null if only p-value is provided | 95% CI for difference in means: [0.21, 4.39] | Must include confidence level and bounds. Null triggers CI-absent flag. Validate that CI bounds are ordered (lower < upper) and confidence level is parseable. |
Implementation Harness Notes
How to wire the statistical significance verification prompt into an application or verification pipeline with validation, retries, and human review gates.
This prompt is designed to operate as a verification microservice within a larger fact-checking pipeline. It expects a structured input payload containing the claim text, the reported statistical test details, and the source data or summary statistics. The output is a structured verification result that downstream systems can consume directly. Do not use this prompt in isolation for high-stakes decisions—always pair it with programmatic validation of the output schema, tolerance checks on reported values, and a human review gate when the prompt flags potential p-hacking, threshold shopping, or test appropriateness violations.
Wiring the prompt into an application requires a pre-processing layer that normalizes inputs before the model call. Extract the claim from upstream claim decomposition, parse the reported test type (t-test, chi-square, ANOVA, etc.), reported p-value, sample size, and effect size if available. Package these into the [CLAIM_DETAILS] placeholder as structured JSON. For the [SOURCE_DATA] placeholder, provide either raw data arrays or summary statistics (means, standard deviations, counts) depending on what's available. The [CONSTRAINTS] placeholder should include your organization's significance threshold (e.g., alpha=0.05), correction method expectations (Bonferroni, Benjamini-Hochberg), and minimum effect size reporting requirements. After the model returns its verification result, run a schema validator to confirm the output matches the expected JSON structure with required fields: test_appropriateness, p_value_accuracy, effect_size_reported, correction_applied, p_hacking_indicators, overall_verdict, and confidence_score. Reject and retry any response that fails schema validation, with a maximum of two retries before escalating to human review.
Model choice and tool integration matter here. Use a model with strong quantitative reasoning capabilities (GPT-4o, Claude 3.5 Sonnet, or equivalent). For the [TOOLS] placeholder, you can optionally provide a calculator function if your harness supports tool-use loops—this allows the model to recompute test statistics from raw data rather than relying solely on internal reasoning. If you implement tool-use, log every tool call and its result for auditability. Retry logic should distinguish between schema failures (retry with the same prompt plus the validation error message) and low-confidence outputs (retry with explicit instruction to flag uncertainties rather than guess). For RAG integration, if your pipeline retrieves methodological guidelines or domain-specific significance conventions, inject them into the [CONTEXT] placeholder before the model call. This is particularly important for fields like clinical trials where significance thresholds and correction methods are regulated.
Production hardening requires attention to several failure modes. First, the prompt can hallucinate p-value recalculations when given incomplete summary statistics—always cross-validate any model-computed p-value against a deterministic statistical library in your application code. Second, the prompt may over-flag or under-flag p-hacking indicators depending on how strictly you define the pattern taxonomy in [CONSTRAINTS]; calibrate this with a labeled test set of known p-hacking cases. Third, when the source data contains multiple comparisons without explicit correction, the model may inconsistently detect this—add a programmatic check that counts the number of hypothesis tests in the input and flags any claim where correction_applied is false but test count exceeds 1. Human review routing should trigger when: (a) the model's confidence score falls below your threshold (suggest 0.7 for initial deployment), (b) p-hacking indicators are detected, (c) the test type is flagged as inappropriate, or (d) the schema validator fails after retry exhaustion. Package the full prompt input, model output, validation results, and any tool-call logs into a review packet for the human analyst.
What to avoid: Do not treat this prompt as a replacement for a statistical computing environment. It verifies claims, it does not perform original analysis. Do not skip the programmatic p-value cross-check—model arithmetic errors on statistical calculations are well-documented. Do not deploy without a labeled evaluation set covering common failure patterns: p-hacking (data dredging, optional stopping, outcome switching), threshold shopping (reporting p<0.05 when p=0.049 vs p=0.051), test assumption violations (using parametric tests on non-normal data), and multiple comparison neglect. Run this eval set on every prompt version change and gate deployment on maintaining or improving F1 scores for each failure category.
Expected Output Contract
Fields, types, and validation rules for the structured verification result returned by the Statistical Significance and P-Value Verification Prompt.
| Field or Element | Type or Format | Required | Validation Rule |
|---|---|---|---|
verification_id | string (UUID v4) | Must be a valid UUID v4 string; generated by the harness, not the model. | |
claim_summary | string | Must be non-empty and contain the original p-value or significance claim text from [INPUT_CLAIM]. | |
reported_p_value | number or null | Must be a float between 0.0 and 1.0 if provided; null if the claim does not state a specific p-value. | |
significance_threshold | number | Must be a float between 0.0 and 1.0; defaults to 0.05 if not specified in [INPUT_CLAIM]; reject values outside 0.0-1.0. | |
test_appropriateness | string (enum) | Must be one of: 'appropriate', 'inappropriate', 'uncertain'. If 'inappropriate', the 'test_appropriateness_reasoning' field must be non-empty. | |
effect_size_reported | boolean | Must be true if an effect size metric (e.g., Cohen's d, eta-squared) is mentioned in [INPUT_CLAIM]; false otherwise. | |
multiple_comparison_correction | string (enum) | Must be one of: 'applied', 'not_applied', 'not_applicable', 'unknown'. If 'not_applied' and multiple tests are implied, flag in 'risk_flags'. | |
p_hacking_risk_flags | array of strings | Must be a list of identified risk patterns from [P_HACKING_PATTERNS]; empty array if none detected. Each string must match a known pattern key. | |
verification_verdict | string (enum) | Must be one of: 'supported', 'unsupported', 'partially_supported', 'requires_human_review'. 'requires_human_review' is mandatory if p_hacking_risk_flags is non-empty or test_appropriateness is 'inappropriate'. | |
evidence_summary | string | Must be non-empty and reference specific evidence from [SOURCE_DATA] or [METHODOLOGY_CONTEXT]; cannot be a generic statement. | |
confidence_score | number | Must be a float between 0.0 and 1.0; must be <= 0.7 if verification_verdict is 'requires_human_review'. | |
requires_human_review | boolean | Must be true if verification_verdict is 'requires_human_review'; must be false if verdict is 'supported' and confidence_score > 0.9. |
Common Failure Modes
Statistical significance and p-value verification is prone to specific, predictable failures that can invalidate an entire analysis. These cards identify the most common breaks and provide concrete guardrails to embed in your verification harness.
P-Hacking and Significance Shopping
What to watch: The model validates a claim by accepting the first significant p-value without checking for multiple comparisons, outcome switching, or optional stopping. This is the most common failure in automated verification. Guardrail: Require the prompt to explicitly list all tested hypotheses and apply a Bonferroni or Benjamini-Hochberg correction when multiple comparisons are present. Flag any claim that reports only significant results without disclosing the full family of tests.
Confusing Statistical and Practical Significance
What to watch: The model treats a tiny p-value as proof of a meaningful effect, ignoring effect size, confidence intervals, and real-world relevance. A large sample can make a trivial 0.1% lift statistically significant. Guardrail: Add an output field for effect size assessment with domain-specific thresholds. The prompt must compare the reported effect magnitude against a minimum practically significant effect, not just the p-value threshold.
Test Assumption Violation
What to watch: The model accepts a test result without verifying whether the data meets the test's assumptions—normality, independence, equal variance, or appropriate sample size. A t-test on skewed data or dependent observations produces misleading p-values. Guardrail: Include a pre-check step in the prompt that validates test assumptions before interpreting results. If assumptions are violated, the output must recommend an alternative non-parametric test or data transformation.
Misinterpreting Non-Significance as No Effect
What to watch: The model concludes that a non-significant result proves the null hypothesis, ignoring statistical power, sample size limitations, and the possibility of a Type II error. Absence of evidence is not evidence of absence. Guardrail: Require the prompt to calculate and report statistical power for the observed effect size and sample size. When power is low, the output must explicitly state that the study was underpowered to detect a meaningful effect.
Ignoring Confidence Interval Width
What to watch: The model focuses solely on whether a confidence interval excludes the null value, ignoring interval width as a measure of precision. A wide interval that barely excludes zero indicates high uncertainty even if technically significant. Guardrail: Add a precision check that flags confidence intervals wider than a domain-relevant threshold. The prompt must report the interval bounds and assess whether the precision is sufficient for decision-making, not just statistical significance.
Post-Hoc Hypothesis Framing
What to watch: The model validates a claim where the hypothesis was clearly formulated after seeing the results, treating exploratory findings as confirmatory. This inflates false positive rates and undermines reproducibility. Guardrail: Require the prompt to distinguish between pre-registered hypotheses and exploratory analyses. When no pre-registration evidence exists, the output must downgrade the claim's verification status and label it as hypothesis-generating rather than confirmatory.
Evaluation Rubric
Run these checks against a golden dataset of known significance claims with verified outcomes. Each criterion targets a specific failure mode in p-value reporting and statistical significance interpretation.
| Criterion | Pass Standard | Failure Signal | Test Method |
|---|---|---|---|
P-Value Accuracy | Reported p-value matches recalculation within 0.001 tolerance given same test and data | P-value discrepancy > 0.001 or test statistic mismatch | Recalculate from raw summary statistics or provided data; compare to claimed p-value |
Test Appropriateness | Selected test matches data type, distribution, and comparison structure | Wrong test family used (e.g., parametric for ordinal data, independent test for paired design) | Classify test against decision tree: normality, independence, measurement level, group count |
Effect Size Reporting | Effect size measure present and correctly calculated from reported statistics | Effect size absent when p < 0.05 is claimed as meaningful, or effect size calculation error > 5% | Extract or compute Cohen's d, eta-squared, odds ratio, or equivalent; verify against claim |
Multiple Comparison Correction | Correction method stated and applied when > 1 hypothesis tested | Uncorrected p-values presented as significant with no correction for family-wise or false discovery rate | Count distinct hypothesis tests; verify Bonferroni, Holm, or FDR adjustment applied if count > 1 |
P-Hacking Pattern Detection | No evidence of selective reporting, optional stopping, or outcome switching | Degrees of freedom inconsistent with sample size, rounded p-values clustered just below 0.05, or primary outcome differs from preregistration | Check p-value distribution shape, df consistency, and outcome alignment with methods section or registry |
Significance Threshold Shopping | Single alpha level stated before results and used consistently | Multiple thresholds used (0.05, 0.01, 0.10) without adjustment, or 'marginally significant' language without correction | Scan for threshold shifts across results; flag 'trend toward significance' or 'approaching significance' language |
Confidence Interval Consistency | Confidence interval bounds align with p-value conclusion at stated alpha | CI includes null value but p < alpha claimed, or CI excludes null but p > alpha reported | Compute CI from reported estimate and SE; verify null value inclusion matches p-value threshold |
Sample Size and Power Disclosure | Sample size stated and post-hoc power or precision reported for non-significant results | Non-significant result interpreted as 'no effect' without power analysis or confidence interval width discussion | Check for absence-of-evidence vs evidence-of-absence framing; verify sample size against degrees of freedom |
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Adapt This Prompt
How to adapt
Use the base prompt with a single model call and manual review of outputs. Replace [OUTPUT_SCHEMA] with a simple JSON structure containing only the fields you need for initial testing. Run against 10-20 known significance claims from published papers to calibrate expectations.
Watch for
- The model accepting p-values without checking test appropriateness
- Missing effect size extraction when the prompt doesn't enforce it
- Overly verbose explanations that bury the verification result

About the author
Prasad Kumkar
CEO & MD, Inference Systems
Prasad Kumkar is the CEO & MD of Inference Systems and writes about AI systems architecture, LLM infrastructure, model serving, evaluation, and production deployment. Over 5+ years, he has worked across computer vision models, L5 autonomous vehicle systems, and LLM research, with a focus on taking complex AI ideas into real-world engineering systems.
His work and writing cover AI systems, large language models, AI agents, multimodal systems, autonomous systems, inference optimization, RAG, evaluation, and production AI engineering.
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