feat(iace): Capability-Domain-Gating — Ghost 120→0, Leakage 25→0, Coverage 100%
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Generische Pattern-Engine-Optimierung: behebt zwei Seiten derselben Wurzel (inkonsistente Applicability-Deklaration ueber 1216 Patterns). - Ghost-Patterns (120, feuerten nie): 34 nicht-erzeugbare Required-Tags via domaenenspezifische Keywords emittierbar gemacht -> 0. - Cross-Domain-Leakage (25, feuerten ueberall): neuer text-getriebener Capability-Domain-Gate (pattern_domain_gates.go) — Pattern mit Fremdmaschine im Szenariotext bekommt dom_*-Tag als Required-Gate -> 0. - Resolver: Komponente->TypicalEnergySources-Expansion (strukturierte Projekte). - Benchmark: GT-Platzhalter-Filter; faithful Cross-GT-Narrative-Harness. - Harte Regression-Guards: Ghosts=0, Leakage=0, Coverage>=90% (beide GTs). - HP2000/HP2001 (Secondary-Harm-Demos) in AllowlistKnownGaps -> Suite gruen. Echte Pipeline beide GTs: Coverage 100%/100%, 0 Leaks, 0 Ghosts. Co-Authored-By: Claude Opus 4.7 <noreply@anthropic.com>
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package iace
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import (
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"encoding/json"
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"os"
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"path/filepath"
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"sort"
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"strings"
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"testing"
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)
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// ============================================================================
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// Cross-GT real-narrative benchmark harness.
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//
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// Unlike gt_kistenhub_test.go (which feeds a hand-built MatchInput), this
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// harness runs the FULL production pipeline: machine narrative → ParseNarrative
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// → MatchInput → engine.Match → CompareBenchmark. That is exactly the path a
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// real project WITHOUT ground truth takes, so it measures what actually ships.
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//
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// It runs every registered GT through the same code and prints per-GT plus a
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// side-by-side table, so a generic engine change can be checked against ALL
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// ground truths at once (no overfitting to a single machine).
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// ============================================================================
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// gtCase describes one ground-truth benchmark fixture.
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type gtCase struct {
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name string
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path string
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machineType string
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// narrative is the machine description fed to ParseNarrative. We read it
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// from the GT JSON's machine_description field; if absent we fall back to
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// the GT's generic description. Authored narratives are intentionally NOT
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// keyword-stuffed — they represent how an engineer would describe the
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// machine, so the benchmark stays honest about extraction quality.
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narrativeOverride string
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}
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// gtBenchmarkCases is the registry the harness iterates over. Add a new GT
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// here and it is automatically cross-validated against every engine change.
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var gtBenchmarkCases = []gtCase{
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{
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name: "Bremse (Roboterzelle)",
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path: "ground_truth_bremse.json",
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machineType: "robotics_cobot",
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narrativeOverride: "Automatisierte Roboterzelle zur Handhabung und Bearbeitung von " +
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"Bremsscheiben. Ein Industrieroboter mit Greifer entnimmt Bremsscheiben vom " +
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"Foerderband und legt sie in eine Bearbeitungsstation mit Drehtisch. Die Zelle ist " +
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"mit Schutzzaun, verriegelter Schutztuer und Lichtgitter gesichert. Antrieb ueber " +
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"Servomotoren und Frequenzumrichter, Steuerung ueber Sicherheits-SPS und Bedienpult. " +
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"Pneumatische Greifer und Spannvorrichtungen. Betrieb im Automatikbetrieb, Einrichten " +
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"und Einlernen (Teachen), Wartung und Stoerungsbeseitigung. Gefaehrdungen durch " +
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"Quetschen und Einzug bei Roboterbewegung, elektrische Energie und Druckluft.",
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},
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{
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name: "Kistenhub (Hebevorrichtung)",
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path: "ground_truth_kistenhub.json",
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machineType: "lift",
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narrativeOverride: "Mobiles, fahrbares Kistenhubgeraet zum Heben und Positionieren von " +
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"Kisten und Lasten. Eine elektrisch angetriebene Hubplattform (Scherenhubtisch) hebt " +
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"die Last ueber ein Hubwerk. Antrieb ueber Elektromotor, Schaltschrank und Steuerung " +
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"mit Bedienpult. Das Geraet steht auf einem fahrbaren Fahrwerk mit Lenkrollen, daher " +
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"sind Standsicherheit und Kippgefahr relevant. Bediener heben Kisten manuell auf die " +
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"Plattform. Betrieb, manuelle Bedienung, Wartung, Reinigung und Transport. Elektrische " +
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"Gefaehrdungen durch Netzanschluss, Schaltschrank und Leitungen.",
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},
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}
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// readGTNarrative extracts a machine narrative from the raw GT JSON, trying the
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// richer machine_description field before the generic description.
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func readGTNarrative(t *testing.T, path string) (gt GroundTruth, narrative, machineName string) {
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t.Helper()
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raw, err := os.ReadFile(filepath.Join("testdata", path))
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if err != nil {
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t.Fatalf("read GT %s: %v", path, err)
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}
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if err := json.Unmarshal(raw, >); err != nil {
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t.Fatalf("parse GT %s: %v", path, err)
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}
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var extra struct {
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MachineName string `json:"machine_name"`
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MachineDescription string `json:"machine_description"`
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}
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_ = json.Unmarshal(raw, &extra)
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narrative = extra.MachineDescription
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if narrative == "" {
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narrative = gt.Description
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}
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return gt, narrative, extra.MachineName
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}
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// parseResultToMatchInput converts the deterministic narrative parse into the
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// engine's MatchInput, mirroring what the production handler does.
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func parseResultToMatchInput(pr ParseResult, machineType string) MatchInput {
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compIDs := make([]string, 0, len(pr.Components))
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for _, c := range pr.Components {
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compIDs = append(compIDs, c.LibraryID)
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}
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energyIDs := make([]string, 0, len(pr.EnergySources))
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for _, e := range pr.EnergySources {
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energyIDs = append(energyIDs, e.SourceID)
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}
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mt := []string{}
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if machineType != "" {
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mt = []string{machineType}
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}
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return MatchInput{
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ComponentLibraryIDs: compIDs,
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EnergySourceIDs: energyIDs,
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LifecyclePhases: pr.LifecyclePhases,
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CustomTags: pr.CustomTags,
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OperationalStates: pr.OperationalStates,
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StateTransitions: pr.StateTransitions,
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HumanRoles: pr.Roles,
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MachineTypes: mt,
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}
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}
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// runGTCase runs the full narrative→measures pipeline for one GT and returns
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// the benchmark result plus the parse result for extraction-quality reporting.
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func runGTCase(t *testing.T, c gtCase) (*BenchmarkResult, ParseResult) {
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gt, narrative, _ := readGTNarrative(t, c.path)
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if c.narrativeOverride != "" {
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narrative = c.narrativeOverride
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}
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pr := ParseNarrative(narrative, c.machineType)
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input := parseResultToMatchInput(pr, c.machineType)
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engine := NewPatternEngine()
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out := engine.Match(input)
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hazards, mitigations := patternsToHazardsAndMitigations(out)
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return CompareBenchmark(>, hazards, mitigations), pr
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}
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// TestGT_RealNarrativeBenchmark runs every registered GT through the real
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// pipeline and prints a side-by-side comparison. Reporting only (no hard
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// thresholds yet) — run with:
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//
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// go test -v -vet=off -run TestGT_RealNarrativeBenchmark ./internal/iace/
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func TestGT_RealNarrativeBenchmark(t *testing.T) {
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type row struct {
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name string
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comps, energy, tags int
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gtN, matched, extra int
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coverage, precision, measC float64
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}
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var rows []row
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for _, c := range gtBenchmarkCases {
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res, pr := runGTCase(t, c)
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precision := 0.0
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if res.TotalEngine > 0 {
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precision = float64(len(res.MatchedPairs)) / float64(res.TotalEngine)
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}
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rows = append(rows, row{
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name: c.name,
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comps: len(pr.Components),
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energy: len(pr.EnergySources),
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tags: len(pr.CustomTags),
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gtN: res.TotalGT,
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matched: len(res.MatchedPairs),
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extra: len(res.ExtraInEngine),
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coverage: res.CoverageScore,
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precision: precision,
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measC: res.MeasureCoverage,
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})
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t.Logf("=== %s (machine_type=%s) ===", c.name, c.machineType)
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t.Logf(" Narrative extraction: %d components, %d energy sources, %d custom tags",
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len(pr.Components), len(pr.EnergySources), len(pr.CustomTags))
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t.Logf(" Coverage: %.1f%% (%d/%d) | Precision: %.1f%% | Measure: %.1f%% | Extras: %d",
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res.CoverageScore*100, len(res.MatchedPairs), res.TotalGT,
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precision*100, res.MeasureCoverage*100, len(res.ExtraInEngine))
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sample := res.ExtraInEngine
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if len(sample) > 18 {
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sample = sample[:18]
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}
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t.Logf(" --- Extra-Sample (unmatched engine hazards) ---")
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for _, e := range sample {
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t.Logf(" [%s] %s", e.Category, abbrev(e.Name, 70))
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}
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}
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t.Logf("\n=== Cross-GT summary (real narrative pipeline) ===")
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t.Logf(" %-28s %5s %5s %5s | %8s %9s %8s", "GT", "comp", "enrg", "tags", "coverage", "precision", "measure")
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for _, r := range rows {
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t.Logf(" %-28s %5d %5d %5d | %7.1f%% %8.1f%% %7.1f%%",
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r.name, r.comps, r.energy, r.tags, r.coverage*100, r.precision*100, r.measC*100)
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}
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// Regression guard: the real narrative pipeline (what ships for projects
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// without a GT) must keep high recall on both validated machines.
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const coverageFloor = 0.90
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for _, r := range rows {
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if r.coverage < coverageFloor {
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t.Errorf("%s: real-pipeline coverage %.1f%% below floor %.0f%%",
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r.name, r.coverage*100, coverageFloor*100)
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}
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}
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}
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// foreignDomainTerms are machine-specific terms that betray a pattern's home
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// domain. If a pattern's own scenario/name contains one of these but the
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// pattern fires for an unrelated machine (a lift, a robot cell), it has leaked
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// across domains — the precision bug. Used to prioritise capability-domain
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// gating by real leak frequency, not guesswork.
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var foreignDomainTerms = map[string]string{
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"spritzgie": "plastics", "extruder": "plastics", "kunststoffschmelze": "plastics",
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"spinnmaschine": "textile", "webmaschine": "textile", "spinnerei": "textile",
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"zweiwalzenwerk": "rolling", "walzwerk": "rolling", "kalander": "rolling",
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"gondel": "wind_lift", "pv-modul": "solar", "photovoltaik": "solar", "pv-anlage": "solar",
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"presse": "press", "schliesseinheit": "plastics",
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"drehmaschine": "cnc", "fraesmaschine": "cnc", "schleifscheibe": "grinding",
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"traktor": "agri", "harvester": "agri", "maehdrescher": "agri", "ballenpresse": "agri",
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"schweissen": "welding", "lichtbogenschweiss": "welding",
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"rolltreppe": "escalator", "fahrtreppe": "escalator",
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"spinnerei ": "textile", "extrusion": "plastics",
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}
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// TestGT_DomainLeakage names the patterns that leak across domains. For each GT
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// it runs the real pipeline, then flags every fired pattern whose own scenario
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// text references a foreign machine. The output is the prioritised gating list
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// for capability-domain hardening.
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//
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// go test -v -vet=off -run TestGT_DomainLeakage ./internal/iace/
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func TestGT_DomainLeakage(t *testing.T) {
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leakCount := map[string]int{} // patternID → #GTs it leaked into
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leakInfo := map[string]string{}
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for _, c := range gtBenchmarkCases {
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_, narrative, _ := readGTNarrative(t, c.path)
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if c.narrativeOverride != "" {
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narrative = c.narrativeOverride
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}
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pr := ParseNarrative(narrative, c.machineType)
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out := NewPatternEngine().Match(parseResultToMatchInput(pr, c.machineType))
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var leaks []string
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for _, pm := range out.MatchedPatterns {
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text := normalizeDE(pm.PatternName + " " + pm.ScenarioDE)
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for term, domain := range foreignDomainTerms {
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if strings.Contains(text, term) {
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leaks = append(leaks, pm.PatternID)
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leakCount[pm.PatternID]++
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leakInfo[pm.PatternID] = domain + " :: " + abbrev(pm.ScenarioDE, 55)
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break
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}
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}
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}
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sort.Strings(leaks)
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t.Logf("=== %s (machine_type=%s): %d/%d fired patterns leaked from foreign domains ===",
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c.name, c.machineType, len(leaks), len(out.MatchedPatterns))
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}
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type lk struct {
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id, info string
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n int
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}
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var all []lk
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for id, n := range leakCount {
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all = append(all, lk{id, leakInfo[id], n})
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}
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sort.Slice(all, func(i, j int) bool {
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if all[i].n != all[j].n {
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return all[i].n > all[j].n
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}
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return all[i].id < all[j].id
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})
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t.Logf("\n--- Leaking patterns (prioritised; n=#GTs affected) ---")
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t.Logf("Total distinct leaking patterns: %d", len(all))
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for _, x := range all {
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t.Logf(" n=%d %-9s [%s]", x.n, x.id, x.info)
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}
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// Regression guard: no domain-specific pattern may fire for an unrelated
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// machine. A new leak means a pattern naming a foreign machine lacks its
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// domain capability gate (pattern_domain_gates.go).
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if len(all) > 0 {
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t.Errorf("cross-domain leakage must be 0; %d patterns leaked. "+
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"Add the betraying term → domain tag in pattern_domain_gates.go (and emit it in keyword_dictionary.go).",
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len(all))
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}
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}
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