Calibration-Failures
Training/eval data for the skill of predicting when a claim is about to be wrong.
Every row is one calibration case: a reasoner makes a claim and states a confidence, and the output gives the honest grade — what actually happened, a one-word verdict, the named error type, and the lesson (the cue that tells you when this kind of claim tends to be wrong).
The product is a catalogue of recurring overconfidence patterns — the structural reasons a claim outruns its evidence — taught on clean, external examples.
Measured composition
| metric | value | command |
|---|---|---|
| rows | 22 | wc -l < calibration_failures.jsonl |
distinct domain values |
22 | python3 -c "import json;print(len({json.loads(l)['domain'] for l in open('calibration_failures.jsonl')}))" |
distinct error_type values |
21 | same with ['error_type'] |
rows with verdict OVERCONFIDENT |
19 | python3 -c "import json,collections;print(collections.Counter(json.loads(l)['verdict'] for l in open('calibration_failures.jsonl')))" |
rows with verdict WELL-CALIBRATED |
3 | as above |
rows with empty input |
22 | as above on input |
domain is one distinct value per row (22 distinct across 22 rows), i.e. no domain
repeats. error_type has 21 distinct values across 22 rows, so
20 error types appear on more than one row
(outcome_misidentification appears twice; every other error type appears once).
Verdict values and counts
| verdict | rows |
|---|---|
OVERCONFIDENT |
19 |
WELL-CALIBRATED |
3 |
The set is intentionally skewed toward overconfidence — the dominant real failure mode — with 3 calibrated counter-examples so a model does not learn "always say overconfident."
Schema
{"instruction", "input", "output"} plus metadata fields domain, verdict,
error_type:
| field | rows containing it |
|---|---|
instruction |
22 |
input |
22 |
output |
22 |
domain |
22 |
verdict |
22 |
error_type |
22 |
instruction— a domain, a claim, and the confidence a reasoner stated in it; asks for a calibration grade.input— optional context (empty in this release).output—Honest grade:→What actually happened:→Calibration verdict:plus the named error type →Lesson:.verdict—OVERCONFIDENTorWELL-CALIBRATED.error_type— a snake_case identifier for the recurring pattern.
Example row
instruction: Domain: software / build automation. … Claim: "Our nightly refactor bot has run 80+ automated cleanup passes this month, so code quality has measurably improved." Stated confidence: 0.80
output:
Honest grade: OVERCONFIDENT.
What actually happened: When a real metric was finally checked, the duplicated-code ratio had drifted slightly worse, and most of the bot's passes had touched the same few files. High activity, no movement on the outcome metric.
Calibration verdict: OVERCONFIDENT. Error type: outcome_misidentification — activity was conflated with the measured outcome.
Lesson: Volume of work is not evidence of improvement. Pick the honest outcome metric BEFORE counting activity; if you can't name the metric that should move, your confidence in 'improvement' is unsupported no matter how busy the system looks.
Error-type vocabulary
The named patterns include outcome_misidentification, planning_vs_execution,
status_conflation, completion_illusion, failure_point_mislocation,
self-check_mistaken_for_a_gate, synthetic_quoted_as_real, power_neglect,
small_sample_overconfidence, unverified_novelty, coverage_gap,
partial_case_coverage, documentation_trusted_as_verification,
single_defense_generalized, unverified_dependency_trust, manual_sync_assumed,
planned_mechanism_credited, artifact_undetected, plus the calibrated
counter-example types pre_registered_prediction, appropriately_uncertain, and
scope_correct_narrow.
Honest notes (this dataset grades itself too)
- Provenance: the patterns are derived from observed, documented overconfidence cases. The surface text is rewritten into clean external domains (software, ML, statistics, security, fitness, compliance). It is not verbatim incident data and is not a factual knowledge base — treat it as calibration style/method training, not ground truth. Numbers inside the examples are illustrative.
- Size: 22 rows, curated rather than bulk. Use as a seed/eval set or to bootstrap a larger synthetic expansion.
- Balance: skewed toward overconfidence by design, with 3 calibrated counter-examples.
- Leak-scanned: every row passes a regex leak scan (
leak_scan.py, included); rows that hit a pattern are dropped, not patched. - No held-out split is shipped; make your own.
Files
calibration_failures.jsonl— 26017 B, 22 rows.build.py— deterministic regeneration of the jsonl.leak_scan.py— the regex gate described above.LICENSE— CC-BY-4.0.
Reproducing
python3 build.py # writes calibration_failures.jsonl deterministically
python3 leak_scan.py # gate: drops any leaking row, fails if the card leaks
Licence
CC-BY-4.0. Free to use with attribution, including commercially.
Copyright 2026 Christopher Betances (catqualia.com)
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