ms-ai-architect/tests/kb-eval/test-transform-criterion.test.mjs
Kjell Tore Guttormsen 2240f1efdd feat(ms-ai-architect): generator-anti-regresjon Fase 1c — composeKbFile + TOC-gate
Nye ref-filer fodes best-practice-konforme sa neste KB-update ikke
reverserer TOC-arbeidet (write-path-regresjon). MA fore 1b.

- buildToc(body): deterministisk ## Innhold fra ##-seksjoner, GitHub-slugs,
  fence-aware, idempotent (lister aldri seg selv)
- composeKbFile(meta, body): generatoren — header + (store filer >100 linjer) TOC
  + brodtekst; erstatter bar buildKbHeader+body-konkatenering
- validateKbFile: stor fil uten TOC -> missing:['toc'] (write-path-gaten)
- Terskel 100 speiler eval.mjs N4_LARGE_FILE_LINES; bundet atferdsmessig via
  test som importerer ekte checkN4 (anti-regresjons-orakel), ikke cross-import
- Wiret composeKbFile inn i transform-prompt.md + kb-update.md (create + in-place)

TDD: +11 transform-tester. kb-update 349/349, kb-eval 154/154 (503 totalt).
Fikset pre-eksisterende skjor assertion i criterion-testen (stale
'Azure AI Foundry' -> 'AI Foundry'; produktet omdopt) — var rod for 1c.
2026-06-26 10:59:40 +02:00

96 lines
4.8 KiB
JavaScript

// tests/kb-eval/test-transform-criterion.test.mjs
// Sesjon 5 ACCEPTANCE CRITERION (roadmap rad 5): "Regenerer 1 fil → eval-score ≥ baseline".
//
// Two halves, both runnable, no LLM:
// (1) The live deterministic eval for a target skill is ≥ the recorded baseline
// — the literal criterion, a regression guard over eval-baseline.json.
// (2) Regenerating one REAL reference file through the lag-4 pipeline (real body
// composed via composeKbFile) yields a file that is valid, dated, source-anchored,
// routed back to the same skill dir, and preserves the body verbatim — so
// writing it in place is score-preserving (same path → same ref count → same
// deterministic eval). It is in fact strictly BETTER on two axes: the pre-lag-4
// file has no **Source:** header (the 0%-coverage failure mode) and no TOC (N4) —
// the regenerated one carries both (composeKbFile births a TOC for large files,
// so `valid: true` here transitively proves the large file is TOC'd: Fase 1c).
import { test } from 'node:test';
import assert from 'node:assert/strict';
import { readFileSync } from 'node:fs';
import { dirname, join, basename } from 'node:path';
import { fileURLToPath } from 'node:url';
import { evalSkill } from '../../scripts/kb-eval/eval.mjs';
import { composeKbFile, validateKbFile, resolveTargetPath } from '../../scripts/kb-update/lib/transform.mjs';
import { loadTaxonomy } from '../../scripts/kb-update/lib/taxonomy.mjs';
const __dirname = dirname(fileURLToPath(import.meta.url));
const PLUGIN_ROOT = join(__dirname, '..', '..');
const baseline = JSON.parse(
readFileSync(join(PLUGIN_ROOT, 'scripts/kb-eval/data/eval-baseline.json'), 'utf8'),
);
const TARGET = 'ms-ai-infrastructure';
const base = baseline.skills.find((s) => s.name === TARGET);
// --- (1) live deterministic eval ≥ baseline -----------------------------------
test(`live deterministic eval ≥ baseline for ${TARGET}`, () => {
const live = evalSkill(TARGET);
const dl = live.deterministic;
const db = base.deterministic;
// ref count not reduced
assert.ok(live.refFilesActual >= base.refFilesActual,
`refFilesActual regressed: ${live.refFilesActual} < ${base.refFilesActual}`);
// no pass→fail regression on any deterministic check (true≥true ok, false≥true fails)
assert.ok(dl.K2_descriptionFormat.pass >= db.K2_descriptionFormat.pass, 'K2 regressed');
assert.ok(dl.K3_bodyLength.pass >= db.K3_bodyLength.pass, 'K3 regressed');
assert.ok(dl.K5_progressiveDisclosure.pass >= db.K5_progressiveDisclosure.pass, 'K5 regressed');
assert.ok(dl.K6_routingTable.pass >= db.K6_routingTable.pass, 'K6 regressed');
assert.ok(dl.refCountConsistency.consistent >= db.refCountConsistency.consistent, 'refConsistency regressed');
});
// --- (2) regenerating one real file is score-preserving (and Source-improving) --
// Split a KB file into (header, body) at the first `---` rule line.
function splitBody(content) {
const m = content.match(/\n---\n/);
return m ? content.slice(m.index + m[0].length) : content;
}
test('regenerate 1 real file → valid, dated, source-anchored, body preserved, same path', () => {
const tax = loadTaxonomy();
const refRel = base.judgeInputs.refFileSample[0]; // a real repo-relative path
const original = readFileSync(join(PLUGIN_ROOT, refRel), 'utf8');
const body = splitBody(original);
// The pre-lag-4 file has no **Source:** header — the 0%-coverage failure mode.
assert.ok(validateKbFile(original).missing.includes('source'),
'expected the pre-lag-4 file to lack a header Source');
// category key + filename from the real path: skills/<skill>/references/<category>/<file>
const parts = refRel.split('/');
const category = parts[3];
const filename = basename(refRel);
const regenerated = composeKbFile({
title: 'AI Foundry Disaster Recovery Planning',
status: 'GA',
category,
source: 'https://learn.microsoft.com/azure/ai-foundry/concepts/disaster-recovery',
lastUpdated: '2026-06',
}, body);
// Strictly better than the original: now valid (Source present + TOC for the large
// body), still dated. validateKbFile requires a TOC on large files, so valid:true
// here is also the Fase 1c anti-regression proof.
const v = validateKbFile(regenerated);
assert.equal(v.valid, true, `regenerated file invalid: ${v.missing}`);
// Body preserved verbatim — transformation does not drop content.
assert.ok(regenerated.includes(body), 'body not preserved');
// Spot-check a stable body marker. ("Azure AI Foundry" was the old product name;
// the file now uses "Microsoft Foundry"/"AI Foundry" after the rename.)
assert.ok(regenerated.includes('AI Foundry'), 'expected body content missing');
// Routes back to the SAME skill/category dir → in-place → count-preserving → eval-score preserved.
assert.equal(resolveTargetPath(tax, category, filename), refRel);
});