Files
glpi-neural-brain/internal/engine/autonomous_research_test.go
jbergner 440423c5b6
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RC-3
2026-08-09 11:29:13 +02:00

267 lines
12 KiB
Go

package engine
import (
"strings"
"testing"
"time"
"github.com/local/glpi-neural-brain/internal/graph"
"github.com/local/glpi-neural-brain/internal/model"
)
func TestBuildAutonomousCandidatesPrioritizesContradictionWithoutEvidence(t *testing.T) {
now := time.Now().UTC()
snapshot := model.Snapshot{
Nodes: []model.Node{
{ID: "a", Kind: "knowledge", Label: "ZFS Restore", Status: "production", UpdatedAt: now.Add(-400 * 24 * time.Hour), Metadata: map[string]any{"source": "internal-category"}},
{ID: "b", Kind: "knowledge", Label: "ZFS Key Import", Status: "production", UpdatedAt: now, Metadata: map[string]any{"source": "internal-category"}},
},
Edges: []model.Edge{{ID: "e", Source: "a", Target: "b", Type: "contradicts", Status: "accepted"}},
}
candidates := buildAutonomousCandidates(snapshot, graph.NodeFilter{Sources: []string{"internal-category"}}, 8)
if len(candidates) == 0 {
t.Fatal("expected a research candidate")
}
candidate := candidates[0]
if candidate.Priority < .75 {
t.Fatalf("expected contradiction/no-evidence candidate to be high priority, got %.3f", candidate.Priority)
}
if len(candidate.SeedNodeIDs) < 2 {
t.Fatalf("expected related production nodes as seeds, got %#v", candidate.SeedNodeIDs)
}
if got := candidate.Signals["contradictions"]; got != 1 {
t.Fatalf("expected contradiction signal, got %#v", got)
}
}
func TestBuildAutonomousCandidatesHonorsExactThinkingSource(t *testing.T) {
snapshot := model.Snapshot{Nodes: []model.Node{
{ID: "a", Kind: "knowledge", Label: "Allowed", Status: "production", Metadata: map[string]any{"source": "internal-category"}},
{ID: "b", Kind: "knowledge", Label: "Wrong case", Status: "production", Metadata: map[string]any{"source": "Internal-Category"}},
}}
candidates := buildAutonomousCandidates(snapshot, graph.NodeFilter{Sources: []string{"internal-category"}}, 8)
for _, candidate := range candidates {
if candidate.Topic == "Wrong case" {
t.Fatal("candidate source matching must stay exact and case-sensitive")
}
}
}
func TestBuildAutonomousQueryQueueUsesBothLanguagesAndRounds(t *testing.T) {
queue := buildAutonomousQueryQueue(
[]string{"Wie wird ein Restore validiert?", "Welche Schlüssel werden benötigt?"},
[]string{"ZFS Restore validieren", "ZFS Schlüssel importieren", "ZFS Ersatzsystem"},
[]string{"ZFS restore validation", "ZFS key import"},
3,
)
if len(queue) != 5 {
t.Fatalf("expected five planned queries, got %d", len(queue))
}
languages := map[string]bool{}
maxRound := 0
for _, item := range queue {
languages[item.Language] = true
if item.Round > maxRound {
maxRound = item.Round
}
}
if !languages["de-DE"] || !languages["en-US"] {
t.Fatalf("expected German and English queries, got %#v", languages)
}
if maxRound < 2 || maxRound > 3 {
t.Fatalf("unexpected round assignment: %d", maxRound)
}
}
func TestAutonomousDedupeKeyIsStableAcrossSeedOrder(t *testing.T) {
a := autonomousDedupeKey(" ZFS Restore ", []string{"b", "a"})
b := autonomousDedupeKey("zfs restore", []string{"a", "b"})
if a != b {
t.Fatalf("dedupe key should normalize topic spacing/case and seed order: %q != %q", a, b)
}
}
func TestAutonomousResearchRuntimeAllowedDoesNotDependOnThinking(t *testing.T) {
settings := RuntimeSettings{AutonomousResearchEnabled: true, ThinkingEnabled: false}
if !autonomousResearchRuntimeAllowed(settings, true) {
t.Fatal("autonomous research must remain available when Thinking is disabled")
}
if autonomousResearchRuntimeAllowed(settings, false) {
t.Fatal("autonomous research must still require the research backend")
}
settings.AutonomousResearchEnabled = false
if autonomousResearchRuntimeAllowed(settings, true) {
t.Fatal("disabled autonomous research must stay disabled")
}
}
func TestBuildAutonomousCandidatesPromotesSpecificOrphanCluster(t *testing.T) {
snapshot := model.Snapshot{Nodes: []model.Node{
{ID: "a", Kind: "knowledge", Label: "ZFS Snapshot Restore", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "b", Kind: "knowledge", Label: "ZFS Snapshot Validation", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "c", Kind: "knowledge", Label: "ZFS Snapshot Rollback", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "d", Kind: "knowledge", Label: "Unrelated ZFS Item", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "zfs", Kind: "concept", Label: "ZFS"},
{ID: "snapshot", Kind: "concept", Label: "Snapshot"},
}}
for _, id := range []string{"a", "b", "c", "d"} {
snapshot.Edges = append(snapshot.Edges, model.Edge{ID: "zfs-" + id, Source: id, Target: "zfs", Type: "mentions", Status: "verified"})
}
for _, id := range []string{"a", "b", "c"} {
snapshot.Edges = append(snapshot.Edges, model.Edge{ID: "snapshot-" + id, Source: id, Target: "snapshot", Type: "mentions", Status: "verified"})
}
candidates := buildAutonomousCandidates(snapshot, graph.NodeFilter{Sources: []string{"kb"}}, 8)
if len(candidates) == 0 {
t.Fatal("expected autonomous candidates")
}
var cluster *autonomousCandidate
for i := range candidates {
if candidates[i].Signals["signal_type"] == "orphan_cluster" {
cluster = &candidates[i]
break
}
}
if cluster == nil {
t.Fatalf("expected a specific orphan-cluster signal, got %#v", candidates)
}
if got := cluster.Signals["cluster_size"]; got != 3 {
t.Fatalf("expected three-node orphan cluster, got %#v", got)
}
if cluster.Priority <= .65 {
t.Fatalf("expected orphan cluster to be stronger than a single weak orphan, got %.3f", cluster.Priority)
}
if len(cluster.SeedNodeIDs) != 3 {
t.Fatalf("expected only the three nodes sharing both features, got %#v", cluster.SeedNodeIDs)
}
}
func TestBuildAutonomousCandidatesDoesNotClusterOnSingleBroadFeature(t *testing.T) {
snapshot := model.Snapshot{Nodes: []model.Node{
{ID: "a", Kind: "knowledge", Label: "A", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "b", Kind: "knowledge", Label: "B", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "c", Kind: "knowledge", Label: "C", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "security", Kind: "category", Label: "IT-Security"},
}}
for _, id := range []string{"a", "b", "c"} {
snapshot.Edges = append(snapshot.Edges, model.Edge{ID: "category-" + id, Source: id, Target: "security", Type: "categorized_as", Status: "verified"})
}
candidates := buildAutonomousCandidates(snapshot, graph.NodeFilter{Sources: []string{"kb"}}, 8)
for _, candidate := range candidates {
if candidate.Signals["signal_type"] == "orphan_cluster" {
t.Fatalf("a single shared category must not create an orphan cluster: %#v", candidate)
}
}
}
func TestAutonomousDecisionRejectionCountsExplainsEveryCandidate(t *testing.T) {
decisions := []autonomousOpportunityDecision{
{Accepted: true},
{RejectionReason: "model_not_worthy"},
{RejectionReason: "priority_below_threshold"},
{},
}
counts := autonomousDecisionRejectionCounts(decisions)
if counts["accepted"] != 1 || counts["model_not_worthy"] != 1 || counts["priority_below_threshold"] != 1 || counts["unknown"] != 1 {
t.Fatalf("unexpected rejection summary: %#v", counts)
}
}
func TestBuildAutonomousCandidatesRejectsTaxonomyTokenNoise(t *testing.T) {
snapshot := model.Snapshot{Nodes: []model.Node{
{ID: "a", Kind: "knowledge", Label: "Noise A", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "b", Kind: "knowledge", Label: "Noise B", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "c", Kind: "knowledge", Label: "Noise C", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "found", Kind: "concept", Label: "Found"},
{ID: "not", Kind: "concept", Label: "Not"},
{ID: "permission", Kind: "concept", Label: "Permission"},
}}
for _, id := range []string{"a", "b", "c"} {
for _, feature := range []string{"found", "not", "permission"} {
snapshot.Edges = append(snapshot.Edges, model.Edge{ID: id + "-" + feature, Source: id, Target: feature, Type: "mentions", Status: "verified"})
}
}
candidates := buildAutonomousCandidates(snapshot, graph.NodeFilter{Sources: []string{"kb"}}, 8)
for _, candidate := range candidates {
if candidate.Signals["signal_type"] == "orphan_cluster" {
t.Fatalf("token noise must not create an orphan cluster: %#v", candidate)
}
}
}
func TestBuildAutonomousCandidatesDoesNotChainOrphanComponentsTransitively(t *testing.T) {
nodes := []model.Node{
{ID: "a", Kind: "knowledge", Label: "A", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "b", Kind: "knowledge", Label: "B", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "c", Kind: "knowledge", Label: "C", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "d", Kind: "knowledge", Label: "D", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "e", Kind: "knowledge", Label: "E", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "f", Kind: "knowledge", Label: "F", Status: "production", Metadata: map[string]any{"source": "kb"}},
{ID: "alpha", Kind: "concept", Label: "AlphaFeature"},
{ID: "beta", Kind: "concept", Label: "BetaFeature"},
{ID: "gamma", Kind: "concept", Label: "GammaFeature"},
{ID: "delta", Kind: "concept", Label: "DeltaFeature"},
}
snapshot := model.Snapshot{Nodes: nodes}
attach := func(ids []string, features ...string) {
for _, id := range ids {
for _, feature := range features {
snapshot.Edges = append(snapshot.Edges, model.Edge{ID: id + "-" + feature, Source: id, Target: feature, Type: "mentions", Status: "verified"})
}
}
}
// Two legitimate three-node groups share node c/d through different feature
// pairs. The old connected-component implementation could chain them into one
// six-node topic; v6 must keep exact shared-feature cores separate.
attach([]string{"a", "b", "c"}, "alpha", "beta")
attach([]string{"c", "d", "e"}, "gamma", "delta")
attach([]string{"f"}, "alpha", "gamma")
candidates := buildAutonomousCandidates(snapshot, graph.NodeFilter{Sources: []string{"kb"}}, 16)
maxCluster := 0
clusterCount := 0
for _, candidate := range candidates {
if candidate.Signals["signal_type"] != "orphan_cluster" {
continue
}
clusterCount++
if size, _ := candidate.Signals["cluster_size"].(int); size > maxCluster {
maxCluster = size
}
if candidate.Signals["cluster_density"] != 1.0 || candidate.Signals["core_feature_coverage"] != 1.0 {
t.Fatalf("expected cohesive exact-core cluster, got %#v", candidate.Signals)
}
}
if clusterCount < 2 {
t.Fatalf("expected two separate cohesive clusters, got %d: %#v", clusterCount, candidates)
}
if maxCluster > 3 {
t.Fatalf("transitive chaining created an oversized cluster of %d nodes", maxCluster)
}
}
func TestAutonomousArticleSynthesisFocusNarrowsMultiErrorClusterToBestEvidence(t *testing.T) {
task := model.ResearchTask{
Topic: "CBS / Servicing / Windows Update",
Questions: []string{
"Wie wird 0x80242014 diagnostiziert?",
"Wie wird 0x80D02002 DELIVERY_OPTIMIZATION_TIMEOUT diagnostiziert?",
},
}
seeds := []model.Node{
{ID: "a", Kind: "knowledge", Label: "Windows Update 0x80242014", Summary: "Post reboot still pending"},
{ID: "b", Kind: "knowledge", Label: "Delivery Optimization 0x80D02002", Summary: "Download timeout"},
{ID: "c", Kind: "knowledge", Label: "CBS Servicing", Summary: "Allgemeine CBS Diagnose"},
}
evidence := []model.ResearchResult{{Title: "Troubleshoot Windows Update download errors", Content: "The error 0x80D02002 is DELIVERY_OPTIMIZATION_TIMEOUT. Check Delivery Optimization and retry the download.", Relevant: true, Relevance: .97, SourceQuality: "primary", SourceQualityScore: .9}}
topic, focusedSeeds, focusedEvidence, focused := autonomousArticleSynthesisFocus(task, seeds, evidence)
if !focused || !strings.Contains(strings.ToLower(topic), "0x80d02002") {
t.Fatalf("expected evidence-backed focus on 0x80D02002, got focused=%v topic=%q", focused, topic)
}
if len(focusedEvidence) != 1 {
t.Fatalf("expected matching evidence to remain attached, got %#v", focusedEvidence)
}
if len(focusedSeeds) == 0 || focusedSeeds[0].ID != "b" {
t.Fatalf("expected matching error-code seed first, got %#v", focusedSeeds)
}
}