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52 Commits

Author SHA1 Message Date
claude 1a309b283b router/semantic: slice 23 report — corrected population keeps every slice-22 conclusion, hash floor collapses to 0.066, pool 1509 non-action + 720 OOD 2026-09-08 04:02:03 +04:00
claude be71ac406b router/semantic: slice 23 corpus fast-path reconciliation — DeriveFastPath over the real router replaces the regex mirror, factory/merge validated, corpus rebuilt (dataset_hash unchanged), drift diagnostic and rerun tooling 2026-09-08 04:02:00 +04:00
claude bb6bd8efb9 router/semantic: slice 22 report — linear e5 at parity with the deployed cascade, cross-family transfer absent, 143 illegal actions, levers are deterministic 2026-09-08 01:27:21 +04:00
claude 29f74dd3cc router/semantic: slice 22 residual non-action router — emit step, Go harness (legacy + heads modes), Python experiment 2026-09-08 01:26:56 +04:00
claude bdced83b46 router/semantic: slice 21 execution-frame guard report — capability dangerous pass 0/126, guard→sparse P 96.7% FA 6
Deterministic structural guard blocks every capability-question row (0/126 on
all three stress views), never blocks a true action (0/796), declines 196
malformed action rows as ambiguous, and grows no safety leak under
compose: sparse alone FA 9 (capQ 1) → guard→sparse FA 6 (capQ 0).
Execution eligibility recorded as a deterministic policy boundary, separate
from semantic routing and capability selection; next slice returns to the
coarse non-action router instead of another pragmatics training run.

Task/725.
2026-09-07 23:45:33 +04:00
claude fa98e4722e router/semantic: slice 21 deterministic execution-frame guard engine, fixtures, runner and emit step
The guard answers one question — may this utterance become an executable
action — as a three-way policy gate (permissive / blocked / ambiguous) and
never decides what the utterance is. Rules are the encoding of the measured
slice-20 dev-pool discriminators: 126 capability-question rows are 42/42/42
addressed / bare-ability / bare-future; 127 bare можешь+пожалуйста rows are
100% action; can-you-please is 100% action. Reuses the shipped prohibition
parser, morph finiteness and lexicon fillers; reason vocabulary is closed.

Slice 21 (task/725, brief after the accepted slice 20).
2026-09-07 23:43:47 +04:00
claude de1cb40456 router/semantic: slice 20 pretrained fine-tune report — in-pool best, LOFO 1.000
cointegrated/rubert-tiny fine-tuned end-to-end: pair ordering 0.933-0.970
(+0.56-0.78 margin, in-pool) beats every from-scratch config, but the
held-out capability-question family fires 126/126 as action on all 18
config/seeds (FA_rate 1.000, mean proba 0.86-0.99, family σ 0.0045). tiny2
ceiling (newer, larger vocab) does not move LOFO (1.000) and is worse
in-pool. sparse 0.667 remains the safety floor; supervised encoder scaling
ruled out for the generator boundary.
2026-09-07 21:40:53 +04:00
claude dc73fc4e31 router/semantic: slice 20 pretrained-rubert-tiny pragmatics specialist tooling + tokenizer audit gate
cmd/semantic-router-experiment/slice20_pretrained.py (516 lines, over
300-line hook): tokenize/grouped/lfo/metrics/runtime/onnx/ceiling
subcommands, MAX_LEN=25, lr grid 1e-5/2e-5/5e-5 x seeds 42/17/7, 4-thread
fp32, early stop on val PR-AUC. slice20_audit.py: WordPiece audit gate
(UNK rate 0.0026, seq p99 19, no loss above 96). artifacts under /tmp/mvn-s20/.
2026-09-07 21:40:49 +04:00
claude cf2af6ce1e router/semantic: slice 19 report — correct claim head and prose to the seed-stable fail-rate cut 2026-09-07 17:59:10 +04:00
claude 5397f09785 router/semantic: slice 19 sequence pragmatics specialist report — sequence beats sparse on capability holdout, caps near chance on seed-stable seeds 2026-09-07 17:58:16 +04:00
claude 7d31de5a6b router/semantic: slice 19 from-scratch sequence pragmatics specialist tooling + eval index 2026-09-07 17:58:09 +04:00
claude 20215650f2 router/semantic: slice 18 sparse action-gate report — aggregate boundary solved, capability boundary collapsed 2026-09-07 15:35:48 +04:00
claude f2b65cd5d2 router/semantic: slice 18 sparse lexical action-gate probe tooling + eval index 2026-09-07 15:35:41 +04:00
claude 9a25945567 router/semantic: slice 17 nonlinear e5 MLP probe — action gate experiment report 2026-09-07 15:23:46 +04:00
claude e80d45f4b3 router/semantic: slice 17 nonlinear MLP probe tooling + eval index 2026-09-07 15:23:39 +04:00
claude 4ed0238a25 router/semantic: add slice 16 diagnostic to evals index 2026-09-07 14:02:59 +04:00
claude 774c0660b0 router/semantic: slice 16 diagnostic — action/non-action boundary analysis
Experiments:
- Residual-only OOF safety metrics
- False-action decomposition by semantic family (7 families, 24 split groups)
- Paired e5 geometry (gap=0.010 between action and capability question)
- Binary action probe (PR-AUC=0.707, ROC-AUC=0.863)
- Cost-sensitive linear classification
- Expanded action-threshold sweep (7 thresholds)
- Voice-like punctuation stress evaluation
- e5 + tiny structural features
- Four-hypothesis comparison table

Verdict: e5 representation is the primary bottleneck. Action seeds and
capability questions are nearly indistinguishable in embedding space.
2026-09-07 14:02:00 +04:00
claude cbac8b9c4f router/semantic: experiment reports (slice 15)
- 2026-09-07-linear-e5-router-experiment: 136-example baseline (superseded)
- 2026-09-07-expanded-corpus-linear-head-experiment: 3025-example expanded (live)
- CLAUDE.md: index updates for both evals
2026-09-07 13:52:54 +04:00
claude ad3f2d6e99 router/semantic: contract tests for expanded corpus (slice 15)
Minimum corpus size check (>=1000), source count validation,
split-group leakage tests for contrast families.
2026-09-07 13:52:30 +04:00
claude 87411e5fb1 router/semantic: expanded v2 corpus (3025 examples, 93 seed families)
Merged corpus: 535 frozen holdout + 2490 development pool.
Route distribution: action=990, knowledge=880, memory_write=705,
system=226, uncertain=121, conversation=103.
Dataset hash: b27fd48f478ca477cab1e59773bb353a
2026-09-07 13:52:29 +04:00
claude 4bb7555459 router/semantic: corpus-factory deterministic surface generation (slice 15)
93 semantic seed families across 6 routes. Surface generators produce:
direct, polite, modal, first-person, reordered, English, question forms.
Each seed specifies verb forms, subjects, objects, values, tags.
2026-09-07 13:52:12 +04:00
claude 9df223907b router/semantic: sklearn grouped CV linear head experiment (slice 15)
Python experiment: 6-class logistic regression over frozen e5 embeddings,
grouped cross-validation, calibration, abstention curves, contrast-family
analysis, action-threshold sweep.
2026-09-07 13:52:12 +04:00
claude f8ec77de8a router/semantic: e5 embedding cache for linear head experiment (slice 15)
Go tool that computes e5-small embeddings for every corpus row,
assigns frozen/dev split and grouped CV folds, outputs JSON.
2026-09-07 13:51:54 +04:00
claude 6397ea1cc9 router/semantic: merge-corpus tool for frozen holdout preservation (slice 15)
Merges frozen holdout from v1 with v2 development pool, deduplicates,
preserves frozen entries, validates, writes merged corpus.
2026-09-07 13:51:53 +04:00
claude 07bfcea8cc router/semantic: semantic seed type and surface generator (slice 15) 2026-09-07 13:51:33 +04:00
claude 59a0a08d32 router/semantic: legacy baseline eval test (slice 13)
TestLegacyBaseline builds a minimal but complete router (stage-0
grammars, hash-embedder classifier seeded from models/seeds, deployed
confidence threshold) and runs it against the full 136-example corpus.

Reports macro F1, false-action rate, fast-path/residual/router-residual
accuracy, per-route P/R/F1, confusion matrix, and contrast family
breakdown (negation, question, reported_speech, quotation, hypothetical,
capability_question). Pre-route consumed cases are tracked separately
from the fast-path bucket.

The hash embedder is deterministic, so this baseline is reproducible.
The ONNX embedder would score higher; measure both before drawing
conclusions.
2026-09-07 02:09:02 +04:00
claude 1b8ae3c3e5 router/semantic: baseline scoring and contrast family analysis (slice 13)
ScoreLegacy runs the actual router cascade against the 136-example
corpus and produces per-route precision/recall/F1, confusion matrix,
false-action breakdown, and fast-path/residual/router-residual/pre-route
consumption counts. Pre-route consumed cases (command-prohibition grammar
matches at stage 0) are tracked separately — these never reach the
general cascade and should not be scored by the learned router.

ContrastFamilies splits the baseline report by transform tag (negation,
question, reported_speech, quotation, hypothetical, capability_question)
and reports per-family accuracy and false-action rate.

LegacyReport.String() renders the full baseline report with confusion
matrix and false-action case listing.
2026-09-07 02:08:51 +04:00
claude 56051e58c0 router/semantic: baseline types, test helpers, leakage test (slice 13)
Baseline types: LegacyRouter interface (satisfied by *router.Router),
LegacyCase with PrerouteConsumed flag for command-prohibition detection,
LegacyReport with fast-path/residual/router-residual/pre-route breakdowns,
ContrastFamilyReport for per-transform-family scoring.

Test helpers: buildSeededClassifier (hash embedder seeded from
models/seeds/*.txt), actVerbList, seed file loading.

TestContrastFamiliesShareSplitGroup verifies that all contrastive
variants of one base seed share exactly one SplitGroup, preventing
train/eval leakage across the contrast family split.
2026-09-07 02:08:40 +04:00
claude d63619bd0e router/semantic: frozen holdout split and grouped CV (slice 13)
Add FrozenHoldoutSplit with deterministic 15% ratio using dedicated hash
seed. Produces frozen/dev partition with SplitGroup-aware leakage
prevention — all contrastive variants of one seed stay in the same split.

Add GroupedCVFolds for k-fold grouped cross-validation on the development
pool. Each fold preserves split_group boundaries; every example appears
in exactly one eval set across all folds.

Tests verify determinism (same split → same hash), no split_group leakage
across frozen/dev, route coverage in both pools, fold completeness, and
grouped CV coverage.
2026-09-07 02:08:30 +04:00
claude fb9b719f0b router/semantic: corpus validation infrastructure (slice 13)
Add ValidateCorpus and CorpusStatsFrom for structural integrity checks
on the semantic route corpus. Validates total counts, route/source sums,
fast-path+residual partition, empty SourceID/SplitGroup, invalid routes,
duplicate identity, and conflicting labels on identical text.

CorpusStats provides deterministic dataset hash (SHA-256 of sorted texts,
first 16 bytes). ReproducibilityMeta in CorpusEnvelope records source
fixture hashes, generator version, split algorithm, and dataset hash.

TestCorpusValidation exercises the full validation pipeline.
2026-09-07 02:06:58 +04:00
claude 2b38390c87 router/semantic: tests for eval scoring and shadow harness (slice 12) 2026-09-07 01:43:30 +04:00
claude 0ff4562e60 router/semantic: tests for contrastive safety transforms (slice 12) 2026-09-07 01:43:26 +04:00
claude bb7c460d12 router/semantic: tests for contract, mapping, corpus, and split (slice 12) 2026-09-07 01:43:23 +04:00
claude dd98da5c42 router/semantic: shadow harness for experiment observation (slice 12)
ShadowHarness records turns where both the legacy router and the
experiment model produce a decision. Reports agreement/disagreement
split by fast-path vs residual. No action, clarification, capability
selection, or reply depends on the shadow result.
2026-09-07 01:42:39 +04:00
claude 9e2abea16b router/semantic: eval metrics for frozen evaluation set (slice 12)
EvalReport with macro F1, per-route precision/recall/F1, confusion
matrix, false-action rate, and fast-path vs residual breakdown.
ScoreEval runs a SemanticRouter against a frozen eval set and produces
all metrics needed for promotion decisions.
2026-09-07 01:42:36 +04:00
claude b481792c02 router/semantic: contrastive safety transforms and split-by-family (slice 12)
Six deterministic transforms (negation, question, reported speech,
quotation, hypothetical, capability question) applied to action-route
seeds. Each transform determines the expected class explicitly — no
model guessing labels. SplitByFamily uses hash-based bucketing to keep
paraphrases in the same split.
2026-09-07 01:42:27 +04:00
claude 5865699a5a router/semantic: corpus format and v1 dataset (slice 12)
136 examples with provenance from ru_routing_v1.json, tagged
fast_path_resolved vs residual. RouteExample carries source, source_id,
split_group for traceability. Split-by-family prevents paraphrase
leakage across train/eval.
2026-09-07 01:42:22 +04:00
claude b6a21c17eb router/semantic: coarse-route contract, interface, and legacy mapping (slice 12)
Defines the six-class SemanticRoute type (conversation, knowledge,
action, memory_write, system, uncertain), the SemanticRouteDecision
output, the SemanticRouter interface, and the deterministic
Intent→SemanticRoute mapping from the current seven-intent cascade.
2026-09-07 01:42:17 +04:00
claude 494c719a5d router: update all Route callers for NormalizedInput + add invariant tests (slice 11)
Migrate 54 test call sites to construct NormalizedInput{Text: ...}.
Add invariant tests:
- TestNormalizedInputReachesRouteIntact: ingress NormalizedInput reaches Route
- TestTryFastPathReceivesMatchText: TryFastPath gets the same input
- TestMatchTextDoesNotChangeRouting: same Text + different MatchText → same Decision
- TestDecisionUtteranceEqualsInputText: Decision.Utterance == input.Text
2026-09-07 01:32:49 +04:00
claude dad3cd0738 router: Router.Route consumes NormalizedInput directly (slice 11)
Change Route from (ctx, utterance string, now) to (ctx, input NormalizedInput, now).
The ingress-constructed NormalizedInput now reaches the cascade intact — no
reconstruction downstream. TryFastPath receives the same input, not a rebuilt one.
All callers (production, eval framework, tests) updated to construct NormalizedInput.
2026-09-07 01:32:45 +04:00
claude a1e4743492 router: add TryFastPath tests and Route identity invariant (slice 10) 2026-09-07 01:24:28 +04:00
claude 2ef470c2ba router: add TryFastPath with stage-0 grammar evaluation (slice 10) 2026-09-07 01:24:25 +04:00
claude 80f807d2ad router: extract stage-0 grammars into TryFastPath (slice 10) 2026-09-07 01:24:19 +04:00
claude e9049ad27e router: add NormalizeMatchText tests and property invariants (slice 9b)
17 tests covering: whitespace collapse, case folding, NFKC normalization,
punctuation preservation, mixed-script identifiers, ё passthrough, and
property invariants (idempotent, deterministic, never removes punctuation/
wake words/numbers, never mutates original).

Test-only foldYo helper proves ё→е is lossy (всё → все) without
exposing an unused production function.

Vikunja: #725
2026-09-06 22:33:27 +04:00
claude 431e052e6f router: add MatchText to NormalizedInput and NormalizeMatchText function (slice 9a)
Add MatchText field to NormalizedInput — a lossy lexical matching view
derived from ingress text: TrimSpace → NFKC → lowercase → collapse
Unicode whitespace. Does NOT fold ё→е, strip punctuation, strip wake
words, rewrite numbers, or invoke morphology.

Both ingress sites (voice + text) construct MatchText at entry. No
existing consumer reads MatchText yet — it is dark data for future
opt-in migration.

Vikunja: #725
2026-09-06 22:32:51 +04:00
claude 0a2e194e76 router: migrate refusesCommand and ActHasEntityTarget to CapabilitySelection (slice 6c)
Migrate the two remaining action-routing consumers from compatibility
Decision.Slings fields to authoritative Decision.CapabilitySelection:

- refusesCommand: reads CapabilitySelection.Fn instead of Slots.Fn
- ActHasEntityTarget: reads CapabilitySelection.Resolved and
  CapabilitySelection.Args instead of Slots.HasFn and Slots.Args

Slots.Text remains the source for entity text when positional args do
not contain the target (unchanged).

Regression tests prove:
- prohibited sentinel preserved byte-for-byte through SelectCapability
- blanked Slots.Fn/Args/HasFn do not affect migrated consumers
- Praxis/Hexis entity-target routing unchanged
- stage-0 deterministic act unchanged
- classifier/extractor act unchanged

do not remove the compatibility mirrors yet.
2026-09-06 21:43:14 +04:00
claude 18900dd613 docs: add slice 6b capability selection boundary report 2026-09-06 21:02:21 +04:00
claude 2d42e98871 router: update ActionCandidate tests for CapabilitySelection (slice 6b)
Set CapabilitySelection on decisions that have Slots.HasFn=true, so
ResolveActionCandidate reads from the authoritative record. Backward
compatibility tests verify that decisions without CapabilitySelection
still resolve via Slots.HasFn.
2026-09-06 21:02:17 +04:00
claude 4a17821b06 router: ResolveActionCandidate reads CapabilitySelection first (slice 6b)
The candidate now receives Fn/Args from CapabilitySelection (the
authoritative record) rather than from Decision.Slots.HasFn. Backward
compatibility: decisions with Slots.HasFn but no CapabilitySelection
(tests, rebuilt decisions) still resolve via the compatibility path.
2026-09-06 21:02:13 +04:00
claude 4b24fbad98 router: add CapabilitySelection field to Decision (slice 6b)
Authoritative record of which executable capability matched, separate
from Decision.Intent (what kind of turn) and ActionCandidate (downstream
action artifact). Decision.Slots.Fn/Args/HasFn remain as compatibility
representations populated from this selection.
2026-09-06 21:02:09 +04:00
claude 8d83c66d11 router: wire SelectCapability into Router.Route pipeline (slice 6b)
Call SelectCapability after each cascade path (grammar, heads, LLM,
classifier) and propagate the result via applyCapabilityToSlots.

Remove LLM text capability backfill from fillSlots — SelectCapability
now owns that path. fillMatchedSlots retains raw extractor capability
extraction for backward compatibility with stage-0 grammars.

gateLLMDecision now reads CapabilitySelection.Resolved instead of
Slots.HasFn for the act-intent confidence thinning check.
2026-09-06 21:02:05 +04:00
claude a6a62a2d56 router: introduce CapabilitySelection type and SelectCapability stage (slice 6b)
Add the explicit capability-selection boundary between route resolution
and action candidate production. SelectCapability is the single entry
point for selecting which executable capability matched an IntentAct turn.

Three input kinds: raw, llm_text, deterministic. Decision.CapabilitySelection
is the authoritative record; Decision.Slots.Fn/Args/HasFn remain as
compatibility representations populated from the selection.
2026-09-06 21:01:59 +04:00
85 changed files with 62975 additions and 162 deletions
File diff suppressed because it is too large Load Diff
+1 -1
View File
@@ -45,5 +45,5 @@ func (h *reactiveHandler) resolveCommandProhibition(ctx context.Context, text st
// The sentinel cannot be renamed into an enabled function, and the original
// utterance remains the authority even when a model rewrites Slots.Text.
func refusesCommand(dec router.Decision) bool {
return dec.Slots.Fn == router.ProhibitedActFn || router.IsCommandProhibition(dec.Utterance)
return dec.CapabilitySelection.Fn == router.ProhibitedActFn || router.IsCommandProhibition(dec.Utterance)
}
+79
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@@ -0,0 +1,79 @@
package main
import (
"testing"
"github.com/kami/maven/internal/router"
)
// TestRefusesCommandUsesCapabilitySelection proves that refusesCommand reads
// CapabilitySelection.Fn rather than the compatibility Slots.Fn. When
// CapabilitySelection is populated with the prohibited sentinel but Slots.Fn
// is blank, the refusal must still fire.
func TestRefusesCommandUsesCapabilitySelection(t *testing.T) {
dec := router.Decision{
Intent: router.IntentAct,
CapabilitySelection: router.CapabilitySelection{
Fn: router.ProhibitedActFn,
Resolved: true,
},
// Slots compatibility fields deliberately blank.
}
if !refusesCommand(dec) {
t.Fatal("refusesCommand should return true when CapabilitySelection.Fn == ProhibitedActFn")
}
}
// TestRefusesCommandUtteranceFallback proves that the utterance-based
// prohibition check still works as a defense-in-depth belt when
// CapabilitySelection does not carry the sentinel.
func TestRefusesCommandUtteranceFallback(t *testing.T) {
dec := router.Decision{
Utterance: "don't restart nginx",
}
if !refusesCommand(dec) {
t.Fatal("refusesCommand should return true for a prohibited utterance")
}
}
// TestRefusesCommandNonProhibitedCapability proves that an act with a
// non-prohibited capability is NOT refused even when Slots.Fn happens to
// carry the prohibited sentinel (cross-contamination).
func TestRefusesCommandNonProhibitedCapability(t *testing.T) {
dec := router.Decision{
Intent: router.IntentAct,
Utterance: "restart nginx",
CapabilitySelection: router.CapabilitySelection{
Fn: "restart",
Resolved: true,
},
}
if refusesCommand(dec) {
t.Fatal("refusesCommand should return false for a non-prohibited capability")
}
}
// TestRefusesCommandProhibitedSentinelPreservedThroughPipeline proves that the
// command-prohibition grammar sentinel survives through SelectCapability into
// CapabilitySelection byte-for-byte.
func TestRefusesCommandProhibitedSentinelPreservedThroughPipeline(t *testing.T) {
dec := router.Decision{
Intent: router.IntentAct,
Slots: router.Slots{
Fn: router.ProhibitedActFn,
HasFn: true,
},
}
sel := router.SelectCapability(dec, nil)
dec.CapabilitySelection = sel
if dec.CapabilitySelection.Fn != router.ProhibitedActFn {
t.Errorf("CapabilitySelection.Fn = %q, want %q", dec.CapabilitySelection.Fn, router.ProhibitedActFn)
}
if !dec.CapabilitySelection.Resolved {
t.Error("CapabilitySelection.Resolved should be true")
}
if !refusesCommand(dec) {
t.Fatal("refusesCommand should return true after pipeline preserves the sentinel")
}
}
+1 -1
View File
@@ -79,7 +79,7 @@ func (r *turnRoute) resolve(ctx context.Context) (router.Decision, bool, *dialog
r.err = router.ErrNoIntents
return
}
r.dec, r.err = r.h.router.Route(ctx, r.input.Text, r.now)
r.dec, r.err = r.h.router.Route(ctx, r.input, r.now)
})
return r.dec, r.cont, r.prev, r.err
}
+2 -2
View File
@@ -211,7 +211,7 @@ func (h *reactiveHandler) HandlePushToTalk(ctx context.Context, req voice.PushTo
// 2-5. the shared turn pipeline (confirm → clarify → route → dialogue →
// action → replier), identical to the text path.
replyText := h.runTurn(ctx, router.NormalizedInput{Text: text, Source: sourceVoice})
replyText := h.runTurn(ctx, router.NormalizedInput{Text: text, MatchText: router.NormalizeMatchText(text), Source: sourceVoice})
// 6. tts — synthesise the reply text; return to the voice server which
// ships it back on the conn.
@@ -244,7 +244,7 @@ func (h *reactiveHandler) upgradeAPI(api ipc.CoreAPI) {
// HandlePushToTalk so text channels share the same routing logic.
func (h *reactiveHandler) handleText(ctx context.Context, conversation, text string) string {
log.Printf("voice: handleText: %q", text)
return h.runTurn(withDialogueID(ctx, dialogueIDFor(sourceText, conversation)), router.NormalizedInput{Text: text, Source: sourceText})
return h.runTurn(withDialogueID(ctx, dialogueIDFor(sourceText, conversation)), router.NormalizedInput{Text: text, MatchText: router.NormalizeMatchText(text), Source: sourceText})
}
// turnSource is a local alias for router.InputSource, kept so the daemon code
+178
View File
@@ -0,0 +1,178 @@
// merge-corpus merges the frozen holdout from corpus_v1.json with the
// expanded v2 development pool, writing the result back to corpus_v1.json.
//
// Usage:
//
// go run ./cmd/merge-corpus/ -v1 internal/router/semantic/corpus_v1.json \
// -v2 /tmp/corpus_v2.json -out internal/router/semantic/corpus_v1.json
package main
import (
"crypto/sha256"
"encoding/hex"
"encoding/json"
"flag"
"fmt"
"log"
"os"
"sort"
"strings"
"github.com/kami/maven/internal/router/semantic"
)
func main() {
v1Path := flag.String("v1", "internal/router/semantic/corpus_v1.json", "v1 corpus path")
v2Path := flag.String("v2", "/tmp/corpus_v2.json", "v2 factory output path")
outPath := flag.String("out", "internal/router/semantic/corpus_v1.json", "output path")
flag.Parse()
// 1. Load v1
v1Data, err := os.ReadFile(*v1Path)
if err != nil {
log.Fatalf("read v1: %v", err)
}
var v1Env semantic.CorpusEnvelope
if err := json.Unmarshal(v1Data, &v1Env); err != nil {
log.Fatalf("parse v1: %v", err)
}
fmt.Fprintf(os.Stderr, "v1: %d examples\n", len(v1Env.Examples))
// 2. Identify frozen holdout from v1
frozen, _, _ := semantic.FrozenHoldoutSplit(v1Env.Examples)
frozenTexts := make(map[string]bool)
for _, e := range frozen {
frozenTexts[strings.TrimSpace(e.Text)] = true
}
fmt.Fprintf(os.Stderr, "v1 frozen holdout: %d examples\n", len(frozen))
// 3. Load v2
v2Data, err := os.ReadFile(*v2Path)
if err != nil {
log.Fatalf("read v2: %v", err)
}
var v2Env semantic.CorpusEnvelope
if err := json.Unmarshal(v2Data, &v2Env); err != nil {
log.Fatalf("parse v2: %v", err)
}
fmt.Fprintf(os.Stderr, "v2: %d examples\n", len(v2Env.Examples))
// 4. Merge: frozen from v1 + all from v2
// Dedup by normalized text
seen := make(map[string]bool)
var merged []semantic.RouteExample
// Frozen holdout first
for _, e := range frozen {
norm := strings.TrimSpace(e.Text)
if seen[norm] {
fmt.Fprintf(os.Stderr, "SKIP v1 frozen dup: %q\n", norm)
continue
}
seen[norm] = true
merged = append(merged, e)
}
// V2 examples
skipped := 0
for _, e := range v2Env.Examples {
norm := strings.TrimSpace(e.Text)
if seen[norm] {
skipped++
continue
}
// Check if this text conflicts with a frozen holdout entry
if frozenTexts[norm] {
// Text exists in frozen — skip v2 version to preserve frozen
skipped++
continue
}
seen[norm] = true
merged = append(merged, e)
}
fmt.Fprintf(os.Stderr, "merged: %d examples (skipped %d duplicates)\n", len(merged), skipped)
// 5. Fast-path metadata must match the real router. V2 rows are derived
// by interactively-labeled construction; a stale manually-supplied value
// is a build error, never silently rewritten. Frozen holdout rows are
// preserved verbatim — report drift, do not touch them.
v2Checked, frozenChecked, frozenDrift := 0, 0, 0
for _, e := range merged {
derived := semantic.DeriveFastPath(e.Text).Matched
if frozenTexts[strings.TrimSpace(e.Text)] {
frozenChecked++
if derived != e.FastPathResolved {
frozenDrift++
fmt.Fprintf(os.Stderr, "frozen drift: %q stored=%v derived=%v\n", e.Text, e.FastPathResolved, derived)
}
continue
}
v2Checked++
if derived != e.FastPathResolved {
log.Fatalf("v2 row (source=%s source_id=%s) fast_path_resolved=%v but router derives %v: %q",
e.Source, e.SourceID, e.FastPathResolved, derived, e.Text)
}
}
fmt.Fprintf(os.Stderr, "fast-path check: v2 rows %d OK, frozen rows %d (drift %d, reported only)\n",
v2Checked, frozenChecked, frozenDrift)
// 6. Validate
if err := semantic.ValidateCorpus(merged); err != nil {
log.Fatalf("validation failed: %v", err)
}
fmt.Fprintf(os.Stderr, "validation: OK\n")
// 7. Compute dataset hash
texts := make([]string, len(merged))
for i, e := range merged {
texts[i] = e.Text
}
sort.Strings(texts)
h := sha256.Sum256([]byte(strings.Join(texts, "\n")))
datasetHash := hex.EncodeToString(h[:16])
// 8. Stats
routeCounts := make(map[semantic.SemanticRoute]int)
fpCount, resCount := 0, 0
for _, e := range merged {
routeCounts[e.Route]++
if e.FastPathResolved {
fpCount++
} else {
resCount++
}
}
fmt.Fprintf(os.Stderr, "\nRoute distribution:\n")
for _, r := range semantic.AllRoutes {
fmt.Fprintf(os.Stderr, " %-15s %d\n", r, routeCounts[r])
}
fmt.Fprintf(os.Stderr, "fast-path: %d residual: %d\n", fpCount, resCount)
// 9. Write merged corpus
outEnv := semantic.CorpusEnvelope{
SchemaVersion: 1,
Name: "semantic_coarse_route_v1",
Notes: []string{
"Coarse semantic route corpus for the learned-router experiment.",
"Frozen holdout preserved from v1. Development pool expanded by corpus-factory v2.",
"Every row carries provenance (source + source_id) and a split_group.",
"Labels come from explicit mapping rules, not model output.",
},
Reproducibility: &semantic.ReproducibilityMeta{
SourceFixtureHash: "v1-frozen + corpus-factory-v2",
ContrastGeneratorVersion: "v2-direct-generation",
SplitAlgorithm: "grouped-cv-v1",
DatasetHash: datasetHash,
},
Examples: merged,
}
data, err := json.MarshalIndent(outEnv, "", " ")
if err != nil {
log.Fatalf("marshal: %v", err)
}
if err := os.WriteFile(*outPath, data, 0644); err != nil {
log.Fatalf("write %s: %v", *outPath, err)
}
fmt.Fprintf(os.Stderr, "\nOutput: %s (%d bytes)\n", *outPath, len(data))
}
File diff suppressed because it is too large Load Diff
@@ -0,0 +1,856 @@
#!/usr/bin/env python3
"""
Semantic Router Linear Head Experiment
======================================
Evaluates whether the six-way residual routing boundary is linearly learnable
from Maven's existing e5-small representation.
Architecture under test:
NormalizedInput.MatchText
→ existing multilingual-e5-small embedder
→ tiny 6-class linear head (softmax logistic regression)
→ SemanticRouteDecision
No new encoder. No fine-tuning. Linear separability floor only.
"""
import json
import hashlib
import sys
import warnings
from collections import defaultdict
from pathlib import Path
import numpy as np
from sklearn.exceptions import ConvergenceWarning
from sklearn.linear_model import LogisticRegression
from sklearn.metrics import (
accuracy_score,
f1_score,
precision_recall_fscore_support,
confusion_matrix,
brier_score_loss,
log_loss,
)
from sklearn.preprocessing import LabelEncoder
warnings.filterwarnings("ignore", category=ConvergenceWarning)
# ─── Constants ──────────────────────────────────────────────────────────────
ROUTES = ["action", "conversation", "knowledge", "memory_write", "system", "uncertain"]
ROUTE_IDX = {r: i for i, r in enumerate(ROUTES)}
# Regularization grid
C_VALUES = [0.01, 0.1, 1.0, 10.0, 100.0]
# Abstention thresholds
THRESHOLDS = [0.40, 0.50, 0.60, 0.70, 0.80, 0.90]
# Contrast families
CONTRAST_FAMILIES = [
"negation", "question", "reported_speech", "quotation",
"hypothetical", "capability_question",
]
# ─── Data Loading ───────────────────────────────────────────────────────────
def load_embeddings(path):
with open(path) as f:
data = json.load(f)
meta = data["meta"]
examples = data["examples"]
return meta, examples
def filter_dev_pool(examples):
"""Return only development pool examples (not frozen holdout)."""
return [e for e in examples if e["dev_pool"]]
def filter_residual(examples):
"""Return only router-residual examples (fast_path_resolved == false)."""
return [e for e in examples if not e["fast_path_resolved"]]
def extract_Xy(examples):
"""Extract feature matrix and label vector from cached examples."""
X = np.array([e["embedding"] for e in examples])
y = np.array([e["route"] for e in examples])
return X, y
def get_fold_groups(examples):
"""Return fold assignment array matching the Go-generated CV folds."""
return np.array([e["cv_fold"] for e in examples])
# ─── Grouped CV ─────────────────────────────────────────────────────────────
def grouped_cv_experiment(X, y, fold_ids, C_values, examples_meta):
"""
Run grouped cross-validation with logistic regression.
Returns best C, per-fold results, and out-of-fold predictions.
"""
unique_folds = sorted(set(fold_ids))
n_classes = len(ROUTES)
results_by_C = {}
for C in C_values:
fold_metrics = []
oof_rows = []
for test_fold in unique_folds:
train_mask = fold_ids != test_fold
test_mask = fold_ids == test_fold
X_train, y_train = X[train_mask], y[train_mask]
X_test, y_test = X[test_mask], y[test_mask]
model = LogisticRegression(
C=C, max_iter=2000, solver="lbfgs",
random_state=42,
)
model.fit(X_train, y_train)
y_pred = model.predict(X_test)
y_proba = model.predict_proba(X_test)
classes = model.classes_
acc = accuracy_score(y_test, y_pred)
macro_f1 = f1_score(y_test, y_pred, average="macro", zero_division=0)
prec, rec, f1, sup = precision_recall_fscore_support(
y_test, y_pred, labels=ROUTES, zero_division=0
)
false_action = 0
for true, pred in zip(y_test, y_pred):
if true != "action" and pred == "action":
false_action += 1
fold_metrics.append({
"fold": test_fold,
"train_size": len(X_train),
"test_size": len(X_test),
"accuracy": acc,
"macro_f1": macro_f1,
"per_class": {
route: {"precision": prec[i], "recall": rec[i], "f1": f1[i]}
for i, route in enumerate(ROUTES)
},
"false_action": false_action,
})
for i, (true, pred) in enumerate(zip(y_test, y_pred)):
test_indices = np.where(test_mask)[0]
meta = examples_meta[test_indices[i]]
proba_dict = {cls: float(y_proba[i][j]) for j, cls in enumerate(classes)}
max_proba = max(proba_dict.values()) if proba_dict else 0.0
oof_rows.append({
"source_id": meta["source_id"],
"fold": test_fold,
"true": true,
"predicted": pred,
"correct": true == pred,
"max_proba": max_proba,
"proba": proba_dict,
"fast_path_resolved": meta.get("fast_path_resolved", False),
"tags": meta.get("tags", []),
"text": meta["text"],
})
# Aggregate across folds
mean_acc = np.mean([m["accuracy"] for m in fold_metrics])
mean_f1 = np.mean([m["macro_f1"] for m in fold_metrics])
std_acc = np.std([m["accuracy"] for m in fold_metrics])
std_f1 = np.std([m["macro_f1"] for m in fold_metrics])
total_fa = sum(m["false_action"] for m in fold_metrics)
results_by_C[C] = {
"mean_accuracy": mean_acc,
"std_accuracy": std_acc,
"mean_macro_f1": mean_f1,
"std_macro_f1": std_f1,
"total_false_action": total_fa,
"fold_metrics": fold_metrics,
"oof_predictions": oof_rows,
}
# Select best C by mean macro F1
best_C = max(results_by_C, key=lambda c: results_by_C[c]["mean_macro_f1"])
return best_C, results_by_C
# ─── Metrics Computation ────────────────────────────────────────────────────
def compute_full_metrics(y_true, y_pred, y_proba=None):
"""Compute all required metrics from out-of-fold predictions."""
acc = accuracy_score(y_true, y_pred)
macro_f1 = f1_score(y_true, y_pred, average="macro", zero_division=0)
# Per-class P/R/F1
prec, rec, f1, sup = precision_recall_fscore_support(
y_true, y_pred, labels=ROUTES, zero_division=0
)
# Confusion matrix
cm = confusion_matrix(y_true, y_pred, labels=ROUTES)
# False action
false_action = 0
false_action_predicted = []
for true, pred in zip(y_true, y_pred):
if true != "action" and pred == "action":
false_action += 1
# Action precision/recall
action_tp = sum(1 for t, p in zip(y_true, y_pred) if t == "action" and p == "action")
action_fp = sum(1 for t, p in zip(y_true, y_pred) if t != "action" and p == "action")
action_fn = sum(1 for t, p in zip(y_true, y_pred) if t == "action" and p != "action")
action_precision = action_tp / max(action_tp + action_fp, 1)
action_recall = action_tp / max(action_tp + action_fn, 1)
# Uncertain precision/recall
unc_tp = sum(1 for t, p in zip(y_true, y_pred) if t == "uncertain" and p == "uncertain")
unc_fp = sum(1 for t, p in zip(y_true, y_pred) if t != "uncertain" and p == "uncertain")
unc_fn = sum(1 for t, p in zip(y_true, y_pred) if t == "uncertain" and p != "uncertain")
unc_precision = unc_tp / max(unc_tp + unc_fp, 1)
unc_recall = unc_tp / max(unc_tp + unc_fn, 1)
metrics = {
"accuracy": acc,
"macro_f1": macro_f1,
"false_action_count": false_action,
"false_action_rate": false_action / max(len(y_true), 1),
"action_precision": action_precision,
"action_recall": action_recall,
"uncertain_precision": unc_precision,
"uncertain_recall": unc_recall,
"per_class": {},
"confusion_matrix": cm.tolist(),
}
for i, route in enumerate(ROUTES):
metrics["per_class"][route] = {
"precision": float(prec[i]),
"recall": float(rec[i]),
"f1": float(f1[i]),
"support": int(sup[i]),
}
return metrics
def compute_calibration(y_true, y_pred, oof_rows):
"""Compute ECE, Brier score, and per-threshold abstention curves."""
# ECE (Expected Calibration Error) with 10 bins
n_bins = 10
bin_boundaries = np.linspace(0, 1, n_bins + 1)
ece = 0.0
total = len(y_true)
confidences = np.array([r["max_proba"] for r in oof_rows])
correct = np.array([r["correct"] for r in oof_rows])
for i in range(n_bins):
lo, hi = bin_boundaries[i], bin_boundaries[i + 1]
mask = (confidences > lo) & (confidences <= hi)
if mask.sum() == 0:
continue
bin_acc = correct[mask].mean()
bin_conf = confidences[mask].mean()
ece += mask.sum() / total * abs(bin_acc - bin_conf)
# Brier score (multiclass one-hot encoding)
y_true_idx = np.array([ROUTES.index(t) for t in y_true])
n_samples = len(y_true)
n_classes = len(ROUTES)
y_true_oh = np.zeros((n_samples, n_classes))
y_true_oh[np.arange(n_samples), y_true_idx] = 1.0
# Build probability matrix
y_proba_matrix = np.zeros((n_samples, n_classes))
for i, r in enumerate(oof_rows):
for j, route in enumerate(ROUTES):
y_proba_matrix[i, j] = r["proba"].get(route, 0.0)
brier = np.mean(np.sum((y_proba_matrix - y_true_oh) ** 2, axis=1))
ll = log_loss(y_true, y_proba_matrix, labels=ROUTES)
# Abstention curves
abstention_curves = []
for thr in THRESHOLDS:
accepted_mask = confidences >= thr
n_accepted = accepted_mask.sum()
coverage = n_accepted / max(total, 1)
if n_accepted > 0:
acc_accepted = accuracy_score(y_true[accepted_mask], y_pred[accepted_mask])
f1_accepted = f1_score(
y_true[accepted_mask], y_pred[accepted_mask],
average="macro", zero_division=0,
)
fa_count = sum(
1 for t, p in zip(y_true[accepted_mask], y_pred[accepted_mask])
if t != "action" and p == "action"
)
else:
acc_accepted = 0.0
f1_accepted = 0.0
fa_count = 0
abstention_curves.append({
"threshold": thr,
"n_accepted": int(n_accepted),
"coverage": coverage,
"accuracy": acc_accepted,
"macro_f1": f1_accepted,
"false_action_count": fa_count,
})
return {
"ece": float(ece),
"brier": float(brier),
"log_loss": float(ll),
"abstention_curves": abstention_curves,
}
def compute_action_threshold(oof_rows):
"""Evaluate action-specific safety gate thresholds."""
action_curves = []
for thr in THRESHOLDS:
action_pred = []
for r in oof_rows:
p = r["predicted"]
proba = r["proba"].get("action", 0.0)
if p == "action" and proba < thr:
# Demote action prediction
# Find next best route that isn't action
sorted_routes = sorted(r["proba"].items(), key=lambda x: -x[1])
for route, _ in sorted_routes:
if route != "action":
p = route
break
action_pred.append(p)
y_true = np.array([r["true"] for r in oof_rows])
y_pred = np.array(action_pred)
action_tp = sum(1 for t, p in zip(y_true, y_pred) if t == "action" and p == "action")
action_fp = sum(1 for t, p in zip(y_true, y_pred) if t != "action" and p == "action")
action_fn = sum(1 for t, p in zip(y_true, y_pred) if t == "action" and p != "action")
false_action = sum(1 for t, p in zip(y_true, y_pred) if t != "action" and p == "action")
action_curves.append({
"threshold": thr,
"action_precision": action_tp / max(action_tp + action_fp, 1),
"action_recall": action_tp / max(action_tp + action_fn, 1),
"false_action_count": false_action,
})
return action_curves
def compute_disagreement(y_true, y_pred, legacy_pred, oof_rows):
"""Analyze disagreements between legacy and learned router."""
results = {
"legacy_wrong_learned_right": [],
"legacy_right_learned_wrong": [],
"both_wrong_differently": [],
}
legacy_false_actions = []
learned_false_actions = []
shared_false_actions = []
for i, r in enumerate(oof_rows):
sid = r["source_id"]
text = r["text"]
true = y_true[i]
learned = y_pred[i]
legacy = legacy_pred[i]
if legacy != true and learned == true:
results["legacy_wrong_learned_right"].append({
"source_id": sid, "text": text,
"true": true, "legacy": legacy, "learned": learned,
})
elif legacy == true and learned != true:
results["legacy_right_learned_wrong"].append({
"source_id": sid, "text": text,
"true": true, "legacy": legacy, "learned": learned,
})
elif legacy != true and learned != true and legacy != learned:
results["both_wrong_differently"].append({
"source_id": sid, "text": text,
"true": true, "legacy": legacy, "learned": learned,
})
# False action tracking
if true != "action" and legacy == "action":
legacy_false_actions.append(sid)
if true != "action" and learned == "action":
learned_false_actions.append(sid)
if true != "action" and legacy == "action" and learned == "action":
shared_false_actions.append(sid)
# Repaired false actions
repaired = [sid for sid in legacy_false_actions if sid not in learned_false_actions]
new_errors = [sid for sid in learned_false_actions if sid not in legacy_false_actions]
shared = shared_false_actions
return {
"details": results,
"legacy_false_actions": legacy_false_actions,
"learned_false_actions": learned_false_actions,
"repaired": repaired,
"new_errors": new_errors,
"shared": shared,
}
def compute_contrast_family(oof_rows):
"""Analyze performance per contrast family."""
family_results = {}
for family in CONTRAST_FAMILIES:
members = [r for r in oof_rows if family in r.get("tags", [])]
if not members:
continue
y_true = [r["true"] for r in members]
y_pred = [r["predicted"] for r in members]
correct = sum(1 for t, p in zip(y_true, y_pred) if t == p)
false_act = sum(1 for t, p in zip(y_true, y_pred) if t != "action" and p == "action")
family_results[family] = {
"count": len(members),
"correct": correct,
"accuracy": correct / len(members),
"false_action": false_act,
}
return family_results
def compute_legacy_baseline(examples):
"""
Compute legacy baseline by mapping each example through the known
fast-path and classifier behavior. Since we don't have the actual
router running, we use the corpus metadata:
- fast_path_resolved examples are correct (grammar handles them)
- We simulate the legacy baseline from the test output numbers
"""
# The actual legacy baseline was measured in TestLegacyBaseline:
# overall accuracy: 52.2%, residual: 40.8%, false-action rate: 19.9%
# We need per-example predictions. We'll approximate from the corpus structure.
#
# For fast_path_resolved examples, the legacy router is correct (stage-0 grammar).
# For residual examples, we need to simulate the hash-embedder classifier.
# Since we don't have the hash embedder running, we use the known aggregate.
#
# This is a limitation: the legacy baseline numbers come from the Go test,
# and we only have the aggregate. We'll use the aggregate for comparison.
pass
# ─── Report Generation ──────────────────────────────────────────────────────
def fmt_pct(v, decimals=1):
return f"{100 * v:.{decimals}f}%"
def fmt_float(v, decimals=3):
return f"{v:.{decimals}f}"
def generate_report(meta, all_results, residual_results, oof_all, oof_residual):
"""Generate the full experiment report."""
lines = []
lines.append("# Semantic Router Linear Head Experiment — Report")
lines.append("")
lines.append("## 1. Exact e5 representation used")
lines.append("")
lines.append(f"- **Model**: {meta['embedder_id']}")
lines.append(f"- **Checkpoint**: {meta['model_path']}")
lines.append(f"- **Tokenizer**: {meta['tokenizer_path']}")
lines.append(f"- **Dimension**: {meta['dimension']}")
lines.append(f"- **Pooling**: {meta['pooling']}")
lines.append(f"- **Normalization**: {meta['normalization']}")
lines.append(f"- **Input template**: {meta['input_template']}")
lines.append("")
lines.append("## 2. Development/residual row counts")
lines.append("")
lines.append(f"- Total corpus: {meta['total_examples']}")
lines.append(f"- Frozen holdout: {meta['frozen_count']}")
lines.append(f"- Development pool: {meta['dev_count']}")
lines.append(f"- Fast-path resolved: {meta['fast_path_count']}")
lines.append(f"- Router-residual: {meta['residual_count']}")
lines.append("")
lines.append("Route distribution (full corpus):")
for route, count in sorted(meta["route_counts"].items()):
lines.append(f" - {route}: {count}")
lines.append("")
lines.append("## 3. Grouped fold composition")
lines.append("")
lines.append(f"Folds: {meta['cv_folds']}")
for fold_id, stats in sorted(meta["fold_composition"].items()):
lines.append(f" - Fold {fold_id}: eval={stats['eval_count']} train={stats['train_count']} routes={stats['eval_routes']}")
lines.append("")
# Regularization selection
lines.append("## 4. Selected regularization")
lines.append("")
lines.append("### Experiment A: All development examples")
best_C_all = all_results["best_C"]
lines.append(f"- Best C: {best_C_all}")
lines.append(f"- Mean accuracy: {fmt_pct(all_results['results_by_C'][best_C_all]['mean_accuracy'])} ± {fmt_pct(all_results['results_by_C'][best_C_all]['std_accuracy'])}")
lines.append(f"- Mean macro F1: {fmt_float(all_results['results_by_C'][best_C_all]['mean_macro_f1'])} ± {fmt_float(all_results['results_by_C'][best_C_all]['std_macro_f1'])}")
lines.append(f"- Total false actions (CV): {all_results['results_by_C'][best_C_all]['total_false_action']}")
lines.append("")
lines.append("### Experiment B: Router-residual only")
best_C_res = residual_results["best_C"]
lines.append(f"- Best C: {best_C_res}")
lines.append(f"- Mean accuracy: {fmt_pct(residual_results['results_by_C'][best_C_res]['mean_accuracy'])} ± {fmt_pct(residual_results['results_by_C'][best_C_res]['std_accuracy'])}")
lines.append(f"- Mean macro F1: {fmt_float(residual_results['results_by_C'][best_C_res]['mean_macro_f1'])} ± {fmt_float(residual_results['results_by_C'][best_C_res]['std_macro_f1'])}")
lines.append(f"- Total false actions (CV): {residual_results['results_by_C'][best_C_res]['total_false_action']}")
lines.append("")
# Stability across folds
lines.append("### Stability across folds")
lines.append("")
for C_val in C_VALUES:
r = all_results["results_by_C"][C_val]
fold_accs = [m["accuracy"] for m in r["fold_metrics"]]
fold_f1s = [m["macro_f1"] for m in r["fold_metrics"]]
lines.append(f" C={C_val:<6} acc={fmt_pct(r['mean_accuracy'])}±{fmt_pct(r['std_accuracy'])} f1={fmt_float(r['mean_macro_f1'])}±{fmt_float(r['std_macro_f1'])} folds_acc={[fmt_pct(a) for a in fold_accs]}")
lines.append("")
# Experiment A metrics
lines.append("## 5. All-example CV metrics")
lines.append("")
metrics_all = all_results["full_metrics"]
lines.append(f"- Accuracy: {fmt_pct(metrics_all['accuracy'])}")
lines.append(f"- Macro F1: {fmt_float(metrics_all['macro_f1'])}")
lines.append(f"- False-action count: {metrics_all['false_action_count']}")
lines.append(f"- False-action rate: {fmt_pct(metrics_all['false_action_rate'])}")
lines.append(f"- Action precision: {fmt_float(metrics_all['action_precision'])}")
lines.append(f"- Action recall: {fmt_float(metrics_all['action_recall'])}")
lines.append(f"- Uncertain precision: {fmt_float(metrics_all['uncertain_precision'])}")
lines.append(f"- Uncertain recall: {fmt_float(metrics_all['uncertain_recall'])}")
lines.append("")
lines.append("Per-class metrics:")
for route in ROUTES:
pc = metrics_all["per_class"][route]
lines.append(f" {route:<15} P={fmt_float(pc['precision'])} R={fmt_float(pc['recall'])} F1={fmt_float(pc['f1'])} (n={pc['support']})")
lines.append("")
lines.append("Confusion matrix (rows=expected, cols=predicted):")
header = f"{'':>15}" + "".join(f"{r:>15}" for r in ROUTES)
lines.append(header)
for i, route in enumerate(ROUTES):
row = f"{route:>15}" + "".join(f"{metrics_all['confusion_matrix'][i][j]:>15}" for j in range(len(ROUTES)))
lines.append(row)
lines.append("")
# Experiment B metrics
lines.append("## 6. Residual-only CV metrics")
lines.append("")
metrics_res = residual_results["full_metrics"]
lines.append(f"- Accuracy: {fmt_pct(metrics_res['accuracy'])}")
lines.append(f"- Macro F1: {fmt_float(metrics_res['macro_f1'])}")
lines.append(f"- False-action count: {metrics_res['false_action_count']}")
lines.append(f"- False-action rate: {fmt_pct(metrics_res['false_action_rate'])}")
lines.append(f"- Action precision: {fmt_float(metrics_res['action_precision'])}")
lines.append(f"- Action recall: {fmt_float(metrics_res['action_recall'])}")
lines.append(f"- Uncertain precision: {fmt_float(metrics_res['uncertain_precision'])}")
lines.append(f"- Uncertain recall: {fmt_float(metrics_res['uncertain_recall'])}")
lines.append("")
lines.append("Per-class metrics:")
for route in ROUTES:
pc = metrics_res["per_class"][route]
lines.append(f" {route:<15} P={fmt_float(pc['precision'])} R={fmt_float(pc['recall'])} F1={fmt_float(pc['f1'])} (n={pc['support']})")
lines.append("")
lines.append("Confusion matrix (rows=expected, cols=predicted):")
header = f"{'':>15}" + "".join(f"{r:>15}" for r in ROUTES)
lines.append(header)
for i, route in enumerate(ROUTES):
row = f"{route:>15}" + "".join(f"{metrics_res['confusion_matrix'][i][j]:>15}" for j in range(len(ROUTES)))
lines.append(row)
lines.append("")
# Legacy comparison
lines.append("## 7. Legacy-vs-linear comparison")
lines.append("")
lines.append("### All examples")
lines.append(f"{'metric':<25} {'legacy':>10} {'linear e5':>10} {'delta':>10}")
lines.append("-" * 55)
# Legacy baseline from test: 52.2% overall, 40.8% residual, 19.9% false-action
# These are approximate since we don't have per-example legacy predictions
legacy_acc = 0.522
legacy_fa_rate = 0.199
legacy_macro_f1 = 0.0 # unknown precisely
lines.append(f"{'accuracy':<25} {fmt_pct(legacy_acc):>10} {fmt_pct(metrics_all['accuracy']):>10} {fmt_pct(metrics_all['accuracy'] - legacy_acc):>10}")
lines.append(f"{'macro F1':<25} {'':>10} {fmt_float(metrics_all['macro_f1']):>10} {'':>10}")
lines.append(f"{'action precision':<25} {'':>10} {fmt_float(metrics_all['action_precision']):>10} {'':>10}")
lines.append(f"{'false-action rate':<25} {fmt_pct(legacy_fa_rate):>10} {fmt_pct(metrics_all['false_action_rate']):>10} {fmt_pct(metrics_all['false_action_rate'] - legacy_fa_rate):>10}")
lines.append(f"{'uncertain F1':<25} {fmt_float(0.0):>10} {fmt_float(metrics_all['per_class']['uncertain']['f1']):>10} {fmt_float(metrics_all['per_class']['uncertain']['f1']):>10}")
lines.append("")
lines.append("### Router-residual only")
lines.append(f"{'metric':<25} {'legacy':>10} {'linear e5':>10} {'delta':>10}")
lines.append("-" * 55)
legacy_res_acc = 0.408
lines.append(f"{'accuracy':<25} {fmt_pct(legacy_res_acc):>10} {fmt_pct(metrics_res['accuracy']):>10} {fmt_pct(metrics_res['accuracy'] - legacy_res_acc):>10}")
lines.append(f"{'macro F1':<25} {'':>10} {fmt_float(metrics_res['macro_f1']):>10} {'':>10}")
lines.append(f"{'false-action rate':<25} {'':>10} {fmt_pct(metrics_res['false_action_rate']):>10} {'':>10}")
lines.append("")
# Fold variance
lines.append("## 8. Fold variance")
lines.append("")
lines.append("All-example CV:")
for m in all_results["results_by_C"][best_C_all]["fold_metrics"]:
lines.append(f" Fold {m['fold']}: acc={fmt_pct(m['accuracy'])} f1={fmt_float(m['macro_f1'])} false_action={m['false_action']}")
lines.append("")
lines.append("Residual-only CV:")
for m in residual_results["results_by_C"][best_C_res]["fold_metrics"]:
lines.append(f" Fold {m['fold']}: acc={fmt_pct(m['accuracy'])} f1={fmt_float(m['macro_f1'])} false_action={m['false_action']}")
lines.append("")
# Disagreement analysis
lines.append("## 9. False-action repair/new-error analysis")
lines.append("")
# The disagreement analysis requires legacy per-example predictions.
# Since we don't have those, we report what we can from the out-of-fold data.
lines.append("Note: Legacy per-example predictions were not available for this experiment.")
lines.append("The legacy baseline was measured in aggregate in the Go test suite.")
lines.append("")
lines.append("Learned router false-action cases (out-of-fold):")
for r in oof_all:
if r["true"] != "action" and r["predicted"] == "action":
lines.append(f" {r['source_id']}: '{r['text']}' (true={r['true']}, proba(action)={r['proba'].get('action', 0):.3f})")
lines.append("")
# Contrast family
lines.append("## 10. Contrast-family results")
lines.append("")
lines.append("### Experiment A (all dev)")
contrast_all = all_results["contrast_family"]
lines.append(f"{'family':<25} {'count':>6} {'correct':>8} {'accuracy':>10} {'false_act':>10}")
lines.append("-" * 60)
for family in CONTRAST_FAMILIES:
if family in contrast_all:
c = contrast_all[family]
lines.append(f"{family:<25} {c['count']:>6} {c['correct']:>8} {fmt_pct(c['accuracy']):>10} {c['false_action']:>10}")
lines.append("")
lines.append("### Experiment B (residual only)")
contrast_res = residual_results["contrast_family"]
lines.append(f"{'family':<25} {'count':>6} {'correct':>8} {'accuracy':>10} {'false_act':>10}")
lines.append("-" * 60)
for family in CONTRAST_FAMILIES:
if family in contrast_res:
c = contrast_res[family]
lines.append(f"{family:<25} {c['count']:>6} {c['correct']:>8} {fmt_pct(c['accuracy']):>10} {c['false_action']:>10}")
lines.append("")
# Calibration
lines.append("## 11. Calibration metrics")
lines.append("")
lines.append("### Experiment A")
cal_all = all_results["calibration"]
lines.append(f"- ECE: {fmt_float(cal_all['ece'])}")
lines.append(f"- Brier score: {fmt_float(cal_all['brier'])}")
lines.append(f"- Log loss: {fmt_float(cal_all['log_loss'])}")
lines.append("")
lines.append("### Experiment B")
cal_res = residual_results["calibration"]
lines.append(f"- ECE: {fmt_float(cal_res['ece'])}")
lines.append(f"- Brier score: {fmt_float(cal_res['brier'])}")
lines.append(f"- Log loss: {fmt_float(cal_res['log_loss'])}")
lines.append("")
# Abstention curves
lines.append("## 12. Abstention curves")
lines.append("")
lines.append("### Experiment A (all dev)")
lines.append(f"{'threshold':>10} {'n_accepted':>11} {'coverage':>10} {'accuracy':>10} {'macro_f1':>10} {'false_act':>10}")
lines.append("-" * 62)
for curve in cal_all["abstention_curves"]:
lines.append(f"{curve['threshold']:>10.2f} {curve['n_accepted']:>11} {fmt_pct(curve['coverage']):>10} {fmt_pct(curve['accuracy']):>10} {fmt_float(curve['macro_f1']):>10} {curve['false_action_count']:>10}")
lines.append("")
lines.append("### Experiment B (residual only)")
lines.append(f"{'threshold':>10} {'n_accepted':>11} {'coverage':>10} {'accuracy':>10} {'macro_f1':>10} {'false_act':>10}")
lines.append("-" * 62)
for curve in cal_res["abstention_curves"]:
lines.append(f"{curve['threshold']:>10.2f} {curve['n_accepted']:>11} {fmt_pct(curve['coverage']):>10} {fmt_pct(curve['accuracy']):>10} {fmt_float(curve['macro_f1']):>10} {curve['false_action_count']:>10}")
lines.append("")
# Action threshold
lines.append("## 13. Action-threshold curve")
lines.append("")
lines.append("### Experiment A")
lines.append(f"{'threshold':>10} {'action_P':>10} {'action_R':>10} {'false_act':>10}")
lines.append("-" * 40)
for curve in all_results["action_threshold"]:
lines.append(f"{curve['threshold']:>10.2f} {fmt_float(curve['action_precision']):>10} {fmt_float(curve['action_recall']):>10} {curve['false_action_count']:>10}")
lines.append("")
lines.append("### Experiment B")
lines.append(f"{'threshold':>10} {'action_P':>10} {'action_R':>10} {'false_act':>10}")
lines.append("-" * 40)
for curve in residual_results["action_threshold"]:
lines.append(f"{curve['threshold']:>10.2f} {fmt_float(curve['action_precision']):>10} {fmt_float(curve['action_recall']):>10} {curve['false_action_count']:>10}")
lines.append("")
# Model artifact size
lines.append("## 14. Model artifact size and runtime cost")
lines.append("")
# Logistic regression: 6 classes × 384 features + 6 biases = 2310 parameters
n_params = len(ROUTES) * meta["dimension"] + len(ROUTES)
serialized_bytes = n_params * 4 # float32
lines.append(f"- Trainable parameters: {n_params}")
lines.append(f" - {len(ROUTES)} classes × {meta['dimension']} features = {len(ROUTES) * meta['dimension']} weights")
lines.append(f" - {len(ROUTES)} bias terms")
lines.append(f"- Serialized head size: {serialized_bytes} bytes ({serialized_bytes / 1024:.1f} KB)")
lines.append(f"- Additional inference FLOPs: {len(ROUTES) * meta['dimension']} multiply-accumulates")
lines.append(f"- Incremental cost (e5 already computed): ~{len(ROUTES) * meta['dimension']} FLOPs, <1µs")
lines.append(f"- Cost if semantic router must trigger its own e5: full ONNX inference (~{meta['dimension']} × 128 × 12 = ~590K FLOPs)")
lines.append("")
# Recommendation
lines.append("## 16. Recommendation")
lines.append("")
# Decision logic
all_f1 = metrics_all["macro_f1"]
res_f1 = metrics_res["macro_f1"]
res_acc = metrics_res["accuracy"]
if res_f1 > 0.5 and res_acc > 0.55:
verdict = "linear head sufficient"
detail = (f"Residual macro F1 of {fmt_float(res_f1)} and accuracy of {fmt_pct(res_acc)} "
f"exceed the legacy baseline (40.8% residual accuracy) by a meaningful margin. "
f"A linear head over frozen e5-small embeddings is a viable first production candidate.")
elif all_f1 > 0.5 and res_f1 < 0.5:
verdict = "need more data"
detail = (f"All-example F1 ({fmt_float(all_f1)}) is acceptable but residual-only F1 "
f"({fmt_float(res_f1)}) drops, suggesting the contrast-family examples are "
f"hard for a linear classifier. More contrastive training data may help.")
else:
verdict = "representation inadequate"
detail = (f"Neither all-example ({fmt_float(all_f1)}) nor residual-only ({fmt_float(res_f1)}) "
f"F1 reaches the minimum viable threshold. The e5-small linear separability floor "
f"is insufficient for this 6-way task. Consider a non-linear head or a different encoder.")
lines.append(f"**{verdict}**")
lines.append("")
lines.append(detail)
lines.append("")
# Commit hash
lines.append("## 17. Commit hash for experiment tooling")
lines.append("")
import subprocess
try:
result = subprocess.run(
["git", "rev-parse", "HEAD"],
capture_output=True, text=True, cwd="/home/kami/apps/Maven"
)
lines.append(f"`{result.stdout.strip()}`")
except Exception:
lines.append("(unable to determine)")
lines.append("")
return "\n".join(lines)
# ─── Main ───────────────────────────────────────────────────────────────────
def run_experiment(X, y, fold_ids, examples_meta, label):
"""Run the full experiment pipeline for one population."""
print(f"\n{'='*60}")
print(f" Experiment: {label}")
print(f" Samples: {len(y)} Features: {X.shape[1]} Folds: {len(set(fold_ids))}")
print(f"{'='*60}")
# 1. Grouped CV with regularization search
best_C, results_by_C = grouped_cv_experiment(X, y, fold_ids, C_VALUES, examples_meta)
# 2. Use best C to get full metrics from OOF predictions
oof_rows = results_by_C[best_C]["oof_predictions"]
oof_true = np.array([r["true"] for r in oof_rows])
oof_pred = np.array([r["predicted"] for r in oof_rows])
full_metrics = compute_full_metrics(oof_true, oof_pred)
# 3. Calibration
calibration = compute_calibration(oof_true, oof_pred, oof_rows)
# 4. Action threshold
action_threshold = compute_action_threshold(oof_rows)
# 5. Contrast family
contrast_family = compute_contrast_family(oof_rows)
return {
"best_C": best_C,
"results_by_C": results_by_C,
"full_metrics": full_metrics,
"calibration": calibration,
"action_threshold": action_threshold,
"contrast_family": contrast_family,
"oof_rows": oof_rows,
}
if __name__ == "__main__":
EMBEDDING_PATH = "/tmp/mvn-experiment/embeddings.json"
REPORT_PATH = "/tmp/mvn-experiment/report.md"
# Load data
meta, examples = load_embeddings(EMBEDDING_PATH)
print(f"Loaded {len(examples)} examples, embedder={meta['embedder_id']}, dim={meta['dimension']}")
# Development pool only
dev_examples = filter_dev_pool(examples)
print(f"Development pool: {len(dev_examples)} examples")
# Extract features
X_all, y_all = extract_Xy(dev_examples)
fold_ids_all = get_fold_groups(dev_examples)
# Experiment A: all dev examples
all_results = run_experiment(X_all, y_all, fold_ids_all, dev_examples, "All development examples")
# Experiment B: residual only
dev_residual = filter_residual(dev_examples)
X_res, y_res = extract_Xy(dev_residual)
fold_ids_res = get_fold_groups(dev_residual)
residual_results = run_experiment(X_res, y_res, fold_ids_res, dev_residual, "Router-residual only")
# Generate report
report = generate_report(
meta, all_results, residual_results,
all_results["oof_rows"], residual_results["oof_rows"],
)
with open(REPORT_PATH, "w") as f:
f.write(report)
print(f"\nReport written to {REPORT_PATH}")
# Also print summary
print("\n" + "="*60)
print(" SUMMARY")
print("="*60)
print(f" All-example: acc={fmt_pct(all_results['full_metrics']['accuracy'])} macro_f1={fmt_float(all_results['full_metrics']['macro_f1'])} false_action={all_results['full_metrics']['false_action_count']}")
print(f" Residual: acc={fmt_pct(residual_results['full_metrics']['accuracy'])} macro_f1={fmt_float(residual_results['full_metrics']['macro_f1'])} false_action={residual_results['full_metrics']['false_action_count']}")
print(f" Best C (all): {all_results['best_C']}")
print(f" Best C (res): {residual_results['best_C']}")
print(f" ECE (all): {fmt_float(all_results['calibration']['ece'])}")
print(f" ECE (res): {fmt_float(residual_results['calibration']['ece'])}")
print(f" Brier (all): {fmt_float(all_results['calibration']['brier'])}")
print(f" Brier (res): {fmt_float(residual_results['calibration']['brier'])}")
+273
View File
@@ -0,0 +1,273 @@
// semantic-router-experiment computes embeddings for the semantic coarse-route
// corpus using the deployed multilingual-e5-small ONNX model. It outputs a
// JSON file containing every corpus row with its embedding vector, split
// assignment, and fold membership for grouped cross-validation.
//
// Usage:
//
// MAVEN_ONNX_LIB=/path/to/libonnxruntime.so \
// go run ./cmd/semantic-router-experiment/ -out embeddings.json
package main
import (
"context"
"crypto/sha256"
"encoding/hex"
"encoding/json"
"flag"
"fmt"
"log"
"os"
"sort"
"strings"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/router/semantic"
)
// CachedRow is one corpus row with its precomputed embedding and split metadata.
type CachedRow struct {
Text string `json:"text"`
Route string `json:"route"`
Source string `json:"source"`
SourceID string `json:"source_id"`
SplitGroup string `json:"split_group"`
Tags []string `json:"tags,omitempty"`
FastPathResolved bool `json:"fast_path_resolved"`
RouterResidual *bool `json:"router_residual,omitempty"`
TextHash string `json:"text_hash"`
Embedding []float32 `json:"embedding"`
EmbedderID string `json:"embedder_id"`
FrozenHoldout bool `json:"frozen_holdout"`
CVFold int `json:"cv_fold"`
DevPool bool `json:"dev_pool"`
FamilyID string `json:"family_id"`
}
// ExperimentMeta carries metadata about the experiment run.
type ExperimentMeta struct {
EmbedderID string `json:"embedder_id"`
ModelPath string `json:"model_path"`
TokenizerPath string `json:"tokenizer_path"`
Dimension int `json:"dimension"`
Pooling string `json:"pooling"`
Normalization string `json:"normalization"`
InputTemplate string `json:"input_template"`
TotalExamples int `json:"total_examples"`
FrozenCount int `json:"frozen_count"`
DevCount int `json:"dev_count"`
CVFolds int `json:"cv_folds"`
FoldComposition map[int]FoldStats `json:"fold_composition"`
RouteCounts map[string]int `json:"route_counts"`
SourceCounts map[string]int `json:"source_counts"`
FastPathCount int `json:"fast_path_count"`
ResidualCount int `json:"residual_count"`
HoldoutHash string `json:"holdout_hash"`
}
// FoldStats describes one CV fold.
type FoldStats struct {
EvalCount int `json:"eval_count"`
TrainCount int `json:"train_count"`
Routes map[string]int `json:"eval_routes"`
}
func main() {
outPath := flag.String("out", "embeddings.json", "output JSON path")
folds := flag.Int("folds", 5, "number of CV folds")
flag.Parse()
libPath := os.Getenv("MAVEN_ONNX_LIB")
if libPath == "" {
log.Fatal("MAVEN_ONNX_LIB must be set to the libonnxruntime.so path")
}
// Resolve model paths relative to the module root (cwd when running with go run).
modelPath := "models/embedder/multilingual-e5-small/model_quantized.onnx"
tokPath := "models/embedder/multilingual-e5-small/tokenizer.json"
for _, p := range []string{libPath, modelPath, tokPath} {
if _, err := os.Stat(p); err != nil {
log.Fatalf("missing %s: %v", p, err)
}
}
// Load corpus.
exs, err := semantic.LoadCorpus()
if err != nil {
log.Fatalf("load corpus: %v", err)
}
fmt.Fprintf(os.Stderr, "corpus: %d examples\n", len(exs))
// Initialize embedder.
emb, err := router.NewONNXEmbedder(modelPath, tokPath, libPath)
if err != nil {
log.Fatalf("init embedder: %v", err)
}
defer emb.Close()
fmt.Fprintf(os.Stderr, "embedder: %s (dim=%d)\n", emb.ID(), emb.Dim())
// Compute frozen holdout / dev pool split.
_, devPool, holdoutHash := semantic.FrozenHoldoutSplit(exs)
fmt.Fprintf(os.Stderr, "frozen holdout: hash=%s, dev pool: %d examples\n", holdoutHash, len(devPool))
// Compute grouped CV folds on dev pool only.
cvFolds := semantic.GroupedCVFolds(devPool, *folds)
fmt.Fprintf(os.Stderr, "cv folds: %d\n", len(cvFolds))
// Build a lookup: source_id → cv_fold (from dev pool only).
foldLookup := make(map[string]int)
for _, f := range cvFolds {
for _, e := range f.Eval {
foldLookup[e.SourceID] = f.Fold
}
}
// Build dev set membership lookup.
_, devSet, _ := semantic.FrozenHoldoutSplit(exs)
devIDs := make(map[string]bool)
for _, e := range devSet {
devIDs[e.SourceID] = true
}
// Embed all examples.
ctx := context.Background()
var cached []CachedRow
foldComp := make(map[int]*FoldStats)
for i := 0; i < *folds; i++ {
foldComp[i] = &FoldStats{Routes: make(map[string]int)}
}
routeCounts := make(map[string]int)
sourceCounts := make(map[string]int)
fpCount, resCount := 0, 0
for i, e := range exs {
textHash := sha256.Sum256([]byte(e.Text))
embedding, err := emb.EmbedQuery(ctx, e.Text)
if err != nil {
log.Fatalf("embed row %d (%s): %v", i, e.SourceID, err)
}
inDev := devIDs[e.SourceID]
fold := -1
if inDev {
if f, ok := foldLookup[e.SourceID]; ok {
fold = f
}
}
isFrozen := !inDev
cr := CachedRow{
Text: e.Text,
Route: string(e.Route),
Source: e.Source,
SourceID: e.SourceID,
SplitGroup: e.SplitGroup,
Tags: e.Tags,
FastPathResolved: e.FastPathResolved,
RouterResidual: e.RouterResidual,
TextHash: hex.EncodeToString(textHash[:]),
Embedding: embedding,
EmbedderID: emb.ID(),
FrozenHoldout: isFrozen,
CVFold: fold,
DevPool: inDev,
FamilyID: e.SplitGroup,
}
cached = append(cached, cr)
routeCounts[cr.Route]++
sourceCounts[cr.Source]++
if e.FastPathResolved {
fpCount++
} else {
resCount++
}
if inDev && fold >= 0 {
foldComp[fold].EvalCount++
foldComp[fold].Routes[cr.Route]++
}
}
// Compute train counts per fold.
for i := 0; i < *folds; i++ {
foldComp[i].TrainCount = len(devPool) - foldComp[i].EvalCount
}
// Sort route counts for deterministic output.
sortedRoutes := make([]string, 0, len(routeCounts))
for r := range routeCounts {
sortedRoutes = append(sortedRoutes, r)
}
sort.Strings(sortedRoutes)
sortedRouteCounts := make(map[string]int)
for _, r := range sortedRoutes {
sortedRouteCounts[r] = routeCounts[r]
}
// Build fold stats with sorted keys.
finalFoldComp := make(map[int]FoldStats)
for i := 0; i < *folds; i++ {
finalFoldComp[i] = *foldComp[i]
}
meta := ExperimentMeta{
EmbedderID: emb.ID(),
ModelPath: modelPath,
TokenizerPath: tokPath,
Dimension: emb.Dim(),
Pooling: "mean-pool + L2-normalize",
Normalization: "L2",
InputTemplate: "query: <text>",
TotalExamples: len(exs),
FrozenCount: len(exs) - len(devPool),
DevCount: len(devPool),
CVFolds: *folds,
FoldComposition: finalFoldComp,
RouteCounts: sortedRouteCounts,
SourceCounts: sourceCounts,
FastPathCount: fpCount,
ResidualCount: resCount,
HoldoutHash: holdoutHash,
}
// Output.
output := map[string]any{
"meta": meta,
"examples": cached,
}
data, err := json.MarshalIndent(output, "", " ")
if err != nil {
log.Fatalf("marshal: %v", err)
}
if err := os.WriteFile(*outPath, data, 0644); err != nil {
log.Fatalf("write %s: %v", *outPath, err)
}
// Print summary.
fmt.Fprintf(os.Stderr, "\n=== experiment metadata ===\n")
fmt.Fprintf(os.Stderr, "embedder: %s\n", meta.EmbedderID)
fmt.Fprintf(os.Stderr, "dimension: %d\n", meta.Dimension)
fmt.Fprintf(os.Stderr, "total: %d frozen: %d dev: %d\n", meta.TotalExamples, meta.FrozenCount, meta.DevCount)
fmt.Fprintf(os.Stderr, "fast-path: %d residual: %d\n", meta.FastPathCount, meta.ResidualCount)
fmt.Fprintf(os.Stderr, "routes: %s\n", formatMap(sortedRouteCounts))
fmt.Fprintf(os.Stderr, "fold composition:\n")
for i := 0; i < *folds; i++ {
fs := finalFoldComp[i]
fmt.Fprintf(os.Stderr, " fold %d: eval=%d train=%d routes=%s\n",
i, fs.EvalCount, fs.TrainCount, formatMap(fs.Routes))
}
fmt.Fprintf(os.Stderr, "output: %s (%d bytes)\n", *outPath, len(data))
}
func formatMap(m map[string]int) string {
var parts []string
for k, v := range m {
parts = append(parts, fmt.Sprintf("%s=%d", k, v))
}
sort.Strings(parts)
return "{" + strings.Join(parts, ", ") + "}"
}
File diff suppressed because it is too large Load Diff
@@ -0,0 +1,665 @@
#!/usr/bin/env python3
"""
Slice 18: Sparse Lexical Action/Non-Action Gate
================================================
Answer: can Maven reliably distinguish executable requests from semantically
similar non-actions using lexical/local-order features alone?
Representations under test (all frozen-population, no e5):
A. word 1-2 grams, TF-IDF
B. character 3-5 grams, TF-IDF (Unicode, no transliteration)
C. [word ; char] combined TF-IDF
Population reused from slices 15-17: development corpus v2 (dev_pool), router
labels, SplitGroup, cv_fold, tags. The e5 embedding vectors are ignored.
"""
import io
import json
import re
import sys
import time
import unicodedata
import warnings
from collections import Counter, defaultdict
import numpy as np
from sklearn.exceptions import ConvergenceWarning
from sklearn.feature_extraction.text import TfidfVectorizer
from sklearn.linear_model import LogisticRegression
from sklearn.metrics import (
accuracy_score,
average_precision_score,
confusion_matrix,
f1_score,
precision_recall_fscore_support,
roc_auc_score,
)
from sklearn.pipeline import make_pipeline
from scipy import sparse
warnings.filterwarnings("ignore", category=ConvergenceWarning)
warnings.filterwarnings("ignore", category=UserWarning)
EMBEDDING_PATH = "/tmp/mvn-experiment/embeddings.json"
# Present generator/contrast families in the v2 dev pool (for leave-family-out)
PRESENT_FAMILIES = [
"polite_request",
"modal_request",
"first_person_request",
"reordered_target",
"capability_question",
"question",
]
FAMILY_ALIASES = {
"direct_imperative": "direct_imperative",
"polite_request": "polite_request",
"modal_request": "modal_request",
"first_person_request": "first_person_request",
"reordered_target": "reordered_target",
"capability_question": "capability_question",
"question": "question",
}
# ─── NormalizeMatchText (replicated from internal/router/matchtext.go) ─────
def normalize_match_text(s: str) -> str:
"""NFKC → lowercase → collapse Unicode whitespace. Keeps punctuation, ё."""
out = unicodedata.normalize("NFKC", s).strip().lower()
out = re.sub(r"\s+", " ", out)
return out
# ─── Data Loading ───────────────────────────────────────────────────────────
def load_data():
with open(EMBEDDING_PATH) as f:
data = json.load(f)
return data["meta"], data["examples"]
def filter_dev_pool(examples):
return [e for e in examples if e["dev_pool"]]
def residual_only(examples):
return [e for e in examples if not e["fast_path_resolved"]]
def fmt_pct(v, d=1):
return f"{100*v:.{d}f}%"
def ff(v, d=3):
return f"{v:.{d}f}"
def strip_punct(text: str) -> str:
"""Remove all punctuation (shared with slice 16/17 apply_voice_stress)."""
t = re.sub(r"[?.!,;:]+$", "", text.strip())
t = re.sub(r"[^\w\s]", "", t)
t = t.lower()
t = re.sub(r"\s+", " ", t).strip()
return t
# ─── Feature Builders ───────────────────────────────────────────────────────
def build_features(texts, kind):
"""Build a TF-IDF matrix for the given representation kind.
kind in {'word','char','both'}. Returns (X_sparse, vectorizer)."""
if kind == "word":
vec = TfidfVectorizer(
ngram_range=(1, 2), analyzer="word",
strip_accents=None, lowercase=False,
min_df=2, sublinear_tf=True,
)
elif kind == "char":
# preserve case (already lowered) and identity of missing diacritics;
# token_pattern null => char analyzer
vec = TfidfVectorizer(
ngram_range=(3, 5), analyzer="char",
strip_accents=None, lowercase=False,
min_df=2, sublinear_tf=True,
)
elif kind == "both":
vec_word = TfidfVectorizer(
ngram_range=(1, 2), analyzer="word",
strip_accents=None, lowercase=False, min_df=2, sublinear_tf=True,
)
vec_char = TfidfVectorizer(
ngram_range=(3, 5), analyzer="char",
strip_accents=None, lowercase=False, min_df=2, sublinear_tf=True,
)
Xw = vec_word.fit_transform(texts)
Xc = vec_char.fit_transform(texts)
X = sparse.hstack([Xw, Xc]).tocsr()
return X, ("both", vec_word, vec_char)
X = vec.fit_transform(texts)
return X, vec
def vocab_size(vectorizer):
if isinstance(vectorizer, tuple):
_, vw, vc = vectorizer
return vw.get_feature_names_out().shape[0] + vc.get_feature_names_out().shape[0]
return vectorizer.get_feature_names_out().shape[0]
def transform_texts(texts, vectorizer):
"""Apply an already-fitted vectorizer (handles the 2-tuple 'both' case)."""
if isinstance(vectorizer, tuple):
_, vw, vc = vectorizer
Xw = vw.transform(texts)
Xc = vc.transform(texts)
return sparse.hstack([Xw, Xc]).tocsr()
return vectorizer.transform(texts)
# ─── Grouped CV ─────────────────────────────────────────────────────────────
def run_binary_grouped_cv(X, y, fold_ids, C=1.0):
"""Grouped CV for binary action vs not_action. Returns OOF rows + fold metrics."""
yb = np.array([1 if t == "action" else 0 for t in y])
fold_ids = np.asarray(fold_ids)
unique_folds = sorted(set(fold_ids.tolist()))
oof_rows = []
fold_metrics = []
for test_fold in unique_folds:
tr = fold_ids != test_fold
te = fold_ids == test_fold
clf = LogisticRegression(C=C, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yb[tr])
proba = clf.predict_proba(X[te])[:, 1]
pred = (proba >= 0.5).astype(int)
yt = yb[te]
fp = int(((yt == 0) & (pred == 1)).sum())
fn = int(((yt == 1) & (pred == 0)).sum())
tp = int(((yt == 1) & (pred == 1)).sum())
tn = int(((yt == 0) & (pred == 0)).sum())
roc = roc_auc_score(yt, proba) if len(np.unique(yt)) > 1 else 0.0
pr = average_precision_score(yt, proba) if len(np.unique(yt)) > 1 else 0.0
acc = accuracy_score(yt, pred)
prec = tp / max(tp + fp, 1)
rec = tp / max(tp + fn, 1)
fold_metrics.append({
"fold": int(test_fold), "n": int(len(yt)),
"roc_auc": roc, "pr_auc": pr,
"action_precision": prec, "action_recall": rec,
"fp": fp, "fn": fn, "tp": tp, "tn": tn,
"acc": acc,
})
te_idx = np.where(te)[0]
for i in range(len(yt)):
oof_rows.append({
"fold": int(test_fold),
"proba": float(proba[i]),
"pred": int(pred[i]),
"true": int(yt[i]),
})
return oof_rows, fold_metrics
# ─── Metrics from OOF ───────────────────────────────────────────────────────
def binary_metrics_from_oof(oof_rows):
yt = np.array([r["true"] for r in oof_rows])
yp = np.array([r["pred"] for r in oof_rows])
proba = np.array([r["proba"] for r in oof_rows])
n = len(yt)
tp = int(((yt == 1) & (yp == 1)).sum())
fp = int(((yt == 0) & (yp == 1)).sum())
fn = int(((yt == 1) & (yp == 0)).sum())
prec = tp / max(tp + fp, 1)
rec = tp / max(tp + fn, 1)
roc = roc_auc_score(yt, proba) if len(np.unique(yt)) > 1 else 0.0
pr = average_precision_score(yt, proba) if len(np.unique(yt)) > 1 else 0.0
return {
"n": n, "tp": tp, "fp": fp, "fn": fn,
"action_precision": prec, "action_recall": rec,
"fa_rate": fp / max(n, 1),
"roc_auc": roc, "pr_auc": pr,
}
def threshold_curve(oof_rows, thresholds):
yt = np.array([r["true"] for r in oof_rows])
proba = np.array([r["proba"] for r in oof_rows])
rows = []
for thr in thresholds:
yp = (proba >= thr).astype(int)
tp = int(((yt == 1) & (yp == 1)).sum())
fp = int(((yt == 0) & (yp == 1)).sum())
fn = int(((yt == 1) & (yp == 0)).sum())
rows.append({
"threshold": round(float(thr), 4),
"action_precision": round(tp / max(tp + fp, 1), 4),
"action_recall": round(tp / max(tp + fn, 1), 4),
"fa_count": fp,
"fa_rate": round(fp / max(len(yt), 1), 4),
})
return rows
# ─── Leave-Family-Out ───────────────────────────────────────────────────────
def run_leave_family_out(texts, y, family_per_row, family, kind):
"""Train without `family`, evaluate on `family` only."""
mask_members = family_per_row == family
if mask_members.sum() == 0:
return None
only_family = (mask_members).astype(bool)
train_idx = np.where(~only_family)[0]
test_idx = np.where(only_family)[0]
X, _ = build_features([texts[i] for i in train_idx], kind)
# map test rows onto the full vocabulary
tr_texts = [texts[i] for i in train_idx]
te_texts = [texts[i] for i in test_idx]
all_texts = tr_texts + te_texts
Xall, _ = build_features(all_texts, kind)
Xtr = Xall[:len(tr_texts)]
Xte = Xall[len(tr_texts):]
ytr = np.array([1 if y[i] == "action" else 0 for i in train_idx])
yte = np.array([1 if y[i] == "action" else 0 for i in test_idx])
clf = LogisticRegression(C=1.0, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(Xtr, ytr)
pred = clf.predict(Xte)
tp = int(((yte == 1) & (pred == 1)).sum())
fp = int(((yte == 0) & (pred == 1)).sum())
fn = int(((yte == 1) & (pred == 0)).sum())
prec = tp / max(tp + fp, 1)
rec = tp / max(tp + fn, 1)
acc = accuracy_score(yte, pred)
return {
"family": family, "rows": int(len(yte)),
"action_precision": prec, "action_recall": rec,
"fa_count": fp, "acc": acc,
"yticks": f"pos={int(yte.sum())} neg={int((yte==0).sum())}",
}
# ─── Paired Action/Capability Test ──────────────────────────────────────────
def paired_action_capability(texts, y, tags_per_row_by_idx, kind, C=1.0):
"""For the best sparse representation, evaluate pairwise ordering."""
idx = list(range(len(texts)))
emb = build_features(texts, kind)[0]
clf = LogisticRegression(C=C, max_iter=2000, solver="lbfgs", random_state=42)
yb = np.array([1 if t == "action" else 0 for t in y])
# use OOF-style: fit on full then derive? We report the pairwise score test;
# to avoid leakage we use grouped OOF proba via grouped cv.
return None
# ─── Main ──────────────────────────────────────────────────────────────────
def main():
meta, examples = load_data()
dev = filter_dev_pool(examples)
dev_res = residual_only(dev)
# normalized texts
for e in dev:
e["n_text"] = normalize_match_text(e["text"])
texts = [e["n_text"] for e in dev]
y = [e["route"] for e in dev]
folds = [e["cv_fold"] for e in dev]
tags = [set(e.get("tags", [])) for e in dev]
split_groups = [e["split_group"] for e in dev]
source_ids = [e["source_id"] for e in dev]
n_action = sum(1 for r in y if r == "action")
n_not = len(y) - n_action
print(f"Dev pool: {len(dev)} action={n_action} not_action={n_not}")
print()
results = {}
# ── 1. Build features and run grouped CV for each representation ──────
for kind in ["word", "char", "both"]:
print(f"\n=== {kind} TF-IDF ===")
t0 = time.time()
X, vec = build_features(texts, kind)
build_t = time.time() - t0
vs = vocab_size(vec)
print(f" vocab={vs} X.shape={X.shape} build={build_t:.2f}s")
oof, folds_m = run_binary_grouped_cv(X, y, folds, C=1.0)
m = binary_metrics_from_oof(oof)
results[kind] = {
"vs": vs, "build_t": build_t, "oof": oof, "fold_metrics": folds_m,
"metrics": m, "X": X, "vec": vec,
"texts": texts, "y": y, "folds": folds,
}
print(f" ROC={ff(m['roc_auc'])} PR={ff(m['pr_auc'])} P={ff(m['action_precision'])} "
f"R={ff(m['action_recall'])} FA={m['fp']} ({fmt_pct(m['fa_rate'])})")
# fold-level
for fm in folds_m:
print(f" fold {fm['fold']}: ROC={ff(fm['roc_auc'])} PR={ff(fm['pr_auc'])} "
f"P={ff(fm['action_precision'])} R={ff(fm['action_recall'])} "
f"FP={fm['fp']} FN={fm['fn']} n={fm['n']}")
# pick best by PR-AUC
best_kind = max(["word", "char", "both"], key=lambda k: results[k]["metrics"]["pr_auc"])
print(f"\nBest representation by PR-AUC: {best_kind}")
# ── 2. Leave-family-out for best kind ─────────────────────────────────
print(f"\n=== Leave-family-out ({best_kind}) ===")
fam_per_row = []
for tg in tags:
fam = None
# prefer the more specific contrast/request families first (a single
# utterance may carry several generator tags, e.g. capability_question
# plus direct_imperative). Check the informative ones before the
# generic direct_imperative fallback.
for f in ["capability_question", "question", "first_person_request",
"modal_request", "polite_request", "reordered_target",
"direct_imperative"]:
if f in tg:
fam = f
break
fam_per_row.append(fam)
fam_per_row = np.array(fam_per_row, dtype=object)
lfo = {}
for fam in PRESENT_FAMILIES:
r = run_leave_family_out(texts, y, fam_per_row, fam, best_kind)
if r is None:
print(f" {fam}: (no rows)")
continue
lfo[fam] = r
print(f" {fam}: rows={r['rows']} ({r['yticks']}) P={ff(r['action_precision'])} "
f"R={ff(r['action_recall'])} FA={r['fa_count']} acc={fmt_pct(r['acc'])}")
# ── 3. Action/capability paired test ─────────────────────────────────
print(f"\n=== Paired action/capability test ({best_kind}) ===")
# Use grouped-CV OOF proba for ordering (no leakage)
oof = results[best_kind]["oof"]
# map oof rows back by source_id order
# oof rows are appended per fold in dev order; reconstruct
# We'll re-embed and get proba via grouped CV with proba recorded per row.
# Re-run grouped CV capturing per-row proba aligned to dev indices.
X = results[best_kind]["X"]
yb = np.array([1 if r == "action" else 0 for r in y])
folds_arr = np.array(folds)
dev_proba = np.zeros(len(dev))
for te_fold in sorted(set(folds)):
tr = folds_arr != te_fold
te = folds_arr == te_fold
clf = LogisticRegression(C=1.0, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yb[tr])
dev_proba[te] = clf.predict_proba(X[te])[:, 1]
# group action seeds: pair each capability-question row with action rows
# sharing the same target object noun and the same act (turn_on/turn_off/…).
# Both were generated over a common entity+event inventory, so the object
# lexeme is the semantic link between a knowledge question and its
# executable sibling.
DEVICES = [
"свет", "люстру", "люстра", "жалюзи", "вытяжку", "вытяжка",
"вентилятор", "кондиционер", "телевизор", "лампу", "лампа",
"музыку", "музыка", "плеер", "колонку", "колонки", "чайник",
"бойлер", "обогреватель", "пылесос", "пылесосом", "пол",
"поливалки", "полив", "арка", "шторы", "штору", "штору",
"динамики", "дверь", "двери", "замок", "гараж", "ворота",
"кофе", "пасту", "зубы", "крючки", "лаймо", "куртку",
"будильник", "таймер", "напоминание", "расписание",
]
def object_nouns(t):
found = set()
tl = t.lower()
for d in DEVICES:
# match as standalone word (handle Russian case endings loosely via prefix)
if re.search(r"\b" + re.escape(d), tl):
found.add(d)
return found
# verb/act family per row from source_id (e.g. ha-light-off -> off)
def act_family(src):
# pull the 3rd token-ish: ha-light-off => 'off'; ha-light-on => 'on'
m = re.search(r"^(\w+)-([a-z_]+)-([a-zA-Z_]+)", src)
if m:
return f"{m.group(1)}-{m.group(2)}-{m.group(3)}"
# generic fallback
return src.split("-")[0]
cap_rows = [i for i in range(len(dev)) if "capability_question" in tags[i]]
act_idxs = [i for i in range(len(dev)) if y[i] == "action"]
# For each capability row, candidate sibling actions: same object noun
# AND same act (turn_on vs turn_off), i.e. same domain+object. We accept
# any action row sharing an object and matching the on/off sense if present.
pairs = []
for cidx in cap_rows:
c_obj = object_nouns(texts[cidx])
if not c_obj:
continue
# cap rows are kq-cap-<domain>-<n>; domain token after 'kq-cap-'
dom = re.search(r"kq-cap-([^-]+)", source_ids[cidx])
dom = dom.group(1) if dom else None
for aidx in act_idxs:
a_obj = object_nouns(texts[aidx])
if not (c_obj & a_obj):
continue
# require same home domain when both carry one
a_dom = re.search(r"^([a-z]+)-", source_ids[aidx])
a_dom = a_dom.group(1) if a_dom else None
if dom and a_dom and dom != a_dom:
continue
pairs.append((cidx, aidx))
# keep it bounded: cap row pairs with many actions (one per room); that's fine
order_ok = 0
margins = []
reversed_pairs = []
for cidx, aidx in pairs:
pc = dev_proba[cidx]
pa = dev_proba[aidx]
margins.append(pa - pc)
if pa > pc:
order_ok += 1
else:
reversed_pairs.append((texts[cidx][:40], pc, texts[aidx][:40], pa))
if pairs:
order_acc = order_ok / len(pairs)
margins_arr = np.array(margins)
print(f" pairs={len(pairs)} order_acc={ff(order_acc)} mean_margin={ff(margins_arr.mean())} "
f"median_margin={ff(np.median(margins_arr))} reversed={len(reversed_pairs)}")
for rev in reversed_pairs[:12]:
print(f" REV: cap '{rev[0]}' P={rev[1]:.3f} < act '{rev[2]}' P={rev[3]:.3f}")
else:
order_acc = None
print(" (no matched pairs)")
paired = {
"pairs": len(pairs), "order_acc": order_acc,
"mean_margin": float(np.mean(margins)) if margins else None,
"median_margin": float(np.median(margins)) if margins else None,
"reversed": len(reversed_pairs),
}
# ── 4. Voice stress scoring ───────────────────────────────────────────
print(f"\n=== Voice-like stress ({best_kind}) ===")
# Build stress variants, embed, score with a model trained on normal text
# Train one model on full dev (normal punctuation); score stressed variants.
clf_full = LogisticRegression(C=1.0, max_iter=2000, solver="lbfgs", random_state=42)
clf_full.fit(X, yb)
stress_texts = []
stress_meta = [] # (orig_index, mode)
for i in range(len(dev)):
orig = texts[i]
s_nofinal = re.sub(r"[?.!,;:]+$", "", orig)
s_all = strip_punct(dev[i]["text"])
if s_nofinal != orig:
stress_texts.append(s_nofinal); stress_meta.append((i, "no_final"))
if s_all != orig:
stress_texts.append(s_all); stress_meta.append((i, "all"))
if stress_texts:
# reuse the already-fitted best-kind vectorizer to keep the feature space
# identical to what the full model was trained on.
X_stress = transform_texts(stress_texts, results[best_kind]["vec"])
proba_stress = clf_full.predict_proba(X_stress)[:, 1]
else:
proba_stress = []
# classify ability: capability-question false-action rate and modal-action recall
stress_by_mode = defaultdict(list)
for (i, mode), p in zip(stress_meta, proba_stress):
stress_by_mode[mode].append((i, p, y[i], tags[i]))
voice = {}
for mode, rows in stress_by_mode.items():
cap_q = [p for (i, p, lbl, tg) in rows if "capability_question" in tg]
cap_fa = sum(1 for p in cap_q if p >= 0.5)
mod_act = [p for (i, p, lbl, tg) in rows if lbl == "action" and ("polite_request" in tg or "modal_request" in tg)]
mod_rec = sum(1 for p in mod_act if p >= 0.5) / max(len(mod_act), 1)
voice[mode] = {
"n": len(rows),
"cap_q_fa": cap_fa / max(len(cap_q), 1), "cap_q_n": len(cap_q),
"modal_action_recall": mod_rec, "modal_n": len(mod_act),
}
print(f" {mode}: n={len(rows)} cap_q_FA={fmt_pct(voice[mode]['cap_q_fa'])} ({voice[mode]['cap_q_n']}) "
f"modal_recall={ff(voice[mode]['modal_action_recall'])} ({voice[mode]['modal_n']})")
# ── 5. Punctuation ablation ───────────────────────────────────────────
print(f"\n=== Punctuation ablation ({best_kind}) ===")
texts_stripped = [strip_punct(dev[i]["text"]) for i in range(len(dev))]
X_stripped_train, vec_stripped = build_features(texts_stripped, best_kind)
clf_stripped = LogisticRegression(C=1.0, max_iter=2000, solver="lbfgs", random_state=42)
clf_stripped.fit(X_stripped_train, yb)
# eval on stripped (in-train) and punctuated (out-of-train) via same vectorizer
X_orig = transform_texts(texts, vec_stripped)
p_orig = clf_stripped.predict_proba(X_orig)[:, 1]
p_strip = clf_stripped.predict_proba(X_stripped_train)[:, 1]
def report_ablation(proba, name):
yp = (proba >= 0.5).astype(int)
tp = int(((yb == 1) & (yp == 1)).sum())
fp = int(((yb == 0) & (yp == 1)).sum())
fn = int(((yb == 1) & (yp == 0)).sum())
prec = tp / max(tp + fp, 1); rec = tp / max(tp + fn, 1)
print(f" trained-stripped, eval {name}: P={ff(prec)} R={ff(rec)} FA={fp} ({fmt_pct(fp/len(yb))})")
report_ablation(p_orig, "punctuated")
report_ablation(p_strip, "stripped")
# ── 6. Threshold curve for best kind ──────────────────────────────────
print(f"\n=== Threshold curve ({best_kind}) ===")
oof = results[best_kind]["oof"]
thresh = np.arange(0.10, 0.995, 0.015).tolist()
tcurve = threshold_curve(oof, thresh)
print(f"{'thr':>6} {'P':>6} {'R':>6} {'FA':>5} {'FArate':>8}")
for t in tcurve:
marker = ""
if t["action_precision"] >= 0.95:
marker = " ← P>=0.95"
print(f"{t['threshold']:>6.3f} {t['action_precision']:>6.3f} {t['action_recall']:>6.3f} "
f"{t['fa_count']:>5} {t['fa_rate']:>8.4f}{marker}")
p95 = [t for t in tcurve if t["action_precision"] >= 0.95 and t["action_recall"] > 0.01]
print(f"\nP>=0.95 region: {len(p95)} points; best recall there = "
f"{max((t['action_recall'] for t in p95), default=0.0):.4f}")
# threshold curve using the (no_leak) dev proba instead of .5-threshold OOF
# OOF pred used fixed 0.5; curve above re-derives from proba. Good.
# ── 7. False-action decomposition ────────────────────────────────────
print(f"\n=== False-action decomposition ({best_kind}) ===")
# recompute OOF predictions at 0.5 from stored 'pred'
fa_by_family = Counter()
fa_by_group = Counter()
# need oof aligned to source_ids — oof stored without source id; rebuild
# Re-do grouped cv capturing source_id + tag + split_group
fake_oof = []
for te_fold in sorted(set(folds_arr)):
tr = folds_arr != te_fold; te = folds_arr == te_fold
clf = LogisticRegression(C=1.0, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yb[tr])
p = clf.predict_proba(X[te])[:, 1]
pr = (p >= 0.5).astype(int)
te_idx = np.where(te)[0]
for k, i in enumerate(te_idx):
fake_oof.append({
"source_id": source_ids[i], "split_group": split_groups[i],
"tags": tags[i], "true": y[i], "proba": float(p[k]),
"pred": int(pr[k]), "fold": int(te_fold),
})
def classify_semantic_family(row):
tg = row["tags"]
if "capability_question" in tg: return "capability_question"
if "question" in tg: return "ordinary_question"
if "remember" in tg or "note" in tg or "idea" in tg or "free_form" in tg: return "memory_write"
if "version" in tg or "system" in tg or "health" in tg or "status" in tg: return "system"
if "recall" in tg or "world" in tg or "definition" in tg or "aggregate" in tg: return "knowledge_general"
if "greeting" in tg or "goodbye" in tg or "thanks" in tg: return "conversation"
if row["true"].startswith("system"): return "system"
return "other"
for r in fake_oof:
if r["pred"] == 1 and r["true"] != "action":
fam = classify_semantic_family(r)
fa_by_family[fam] += 1
fa_by_group[r["split_group"]] += 1
print("By family:")
for k, v in fa_by_family.most_common():
print(f" {k}: {v}")
print("By SplitGroup (top 15):")
for k, v in fa_by_group.most_common(15):
print(f" {k}: {v}")
# ── 8. Six-way probe on best representation ──────────────────────────
print(f"\n=== Six-way probe ({best_kind}) ===")
routes = ["action", "conversation", "knowledge", "memory_write", "system", "uncertain"]
y6 = np.array(y)
# fit grouped cv 6-way
oof6 = []
fold6 = []
for te_fold in sorted(set(folds_arr)):
tr = folds_arr != te_fold; te = folds_arr == te_fold
clf = LogisticRegression(C=1.0, max_iter=3000, solver="lbfgs", random_state=42)
clf.fit(X[tr], y6[tr])
pr = clf.predict(X[te])
p6 = clf.predict_proba(X[te])
classes = clf.classes_
te_idx = np.where(te)[0]
for k, i in enumerate(te_idx):
oof6.append({
"true": y6[i], "pred": pr[k], "proba": {c: float(p6[k][j]) for j, c in enumerate(classes)},
"tags": tags[i], "split_group": split_groups[i], "source_id": source_ids[i],
})
yt6 = [r["true"] for r in oof6]; yp6 = [r["pred"] for r in oof6]
acc6 = accuracy_score(yt6, yp6)
macro6 = f1_score(yt6, yp6, average="macro", zero_division=0)
prec6, rec6, f16, sup6 = precision_recall_fscore_support(yt6, yp6, labels=routes, zero_division=0)
fa6 = sum(1 for t, p in zip(yt6, yp6) if t != "action" and p == "action")
ap6 = sum(1 for t, p in zip(yt6, yp6) if t == "action" and p == "action") / max(sum(1 for p in yp6 if p == "action"), 1)
ar6 = sum(1 for t, p in zip(yt6, yp6) if t == "action" and p == "action") / max(sum(1 for t in yt6 if t == "action"), 1)
print(f" acc={fmt_pct(acc6)} macroF1={ff(macro6)} actionP={ff(ap6)} actionR={ff(ar6)} FA={fa6} ({fmt_pct(fa6/len(yt6))})")
for i, r in enumerate(routes):
print(f" {r:<12} P={ff(prec6[i])} R={ff(rec6[i])} F1={ff(f16[i])} n={int(sup6[i])}")
# ── 9. Artifact size / runtime ───────────────────────────────────────
print(f"\n=== Artifact size / runtime ===")
for kind in ["word", "char", "both"]:
rr = results[kind]
vec = rr["vec"]
ncoef = rr["metrics"]["n"]
# non-zero coefficients = vocab (TF-IDF), logistic has 1 weight per vocab
print(f" {kind}: vocab={rr['vs']} fp32 model bytes={rr['vs']*4} "
f"build={rr['build_t']:.3f}s")
# done
print("\nDone.")
if __name__ == "__main__":
main()
@@ -0,0 +1,81 @@
#!/usr/bin/env python3
"""
Slice 19 tokenizers, derived from the development corpus only.
A. CharVocab — codepoint ids over the dev corpus (deterministic order)
B. BpeVocab2048 — byte-level BPE, vocab ~2048, trained on dev corpus only
Records for §4 of the brief: vocab size, OOV behaviour, serialized tokenizer size.
"""
import re
import unicodedata
from tokenizers import Tokenizer
from tokenizers.decoders import ByteLevel as ByteLevelDecoder
from tokenizers.models import BPE
from tokenizers.pre_tokenizers import ByteLevel as ByteLevelPreTokenizer
from tokenizers.trainers import BpeTrainer
class CharVocab:
"""Codepoint ids from the dev corpus, sorted by codepoint value."""
def __init__(self, texts):
chars = set()
for t in texts:
chars.update(t)
self.id_to_char = sorted(chars)
self.char_to_id = {c: i + 1 for i, c in enumerate(self.id_to_char)} # 0 = PAD
self.pad = 0
@property
def size(self):
return len(self.id_to_char) + 1
def encode(self, text, max_len):
ids = [self.char_to_id.get(c, 0) for c in text] # 0 doubles as UNK/OOV
return ids[:max_len]
class BpeVocab:
"""Byte-level BPE, trained only on the strings it is given."""
def __init__(self, texts, vocab_size=2048, sep=""):
self.tok = Tokenizer(BPE())
self.tok.pre_tokenizer = ByteLevelPreTokenizer(trim_offsets=False)
self.tok.decoder = ByteLevelDecoder()
trainer = BpeTrainer(vocab_size=vocab_size, special_tokens=["[PAD]"],
show_progress=False)
# train on the corpus *strings*, byte-level BPE handles all codepoints
self.tok.train_from_iterator(texts, trainer=trainer)
self.pad_id = self.tok.token_to_id("[PAD]")
self._vocab = self.tok.get_vocab()
self._n = len(self._vocab)
@property
def size(self):
return self._n
def encode(self, text):
return self.tok.encode(text).ids
def serialized_bytes(self):
# measure the serialized tokenizer size on disk
import os
d = self.tok.to_str()
return len(d.encode("utf-8"))
def normalize_match_text(s: str) -> str:
"""NFKC → lowercase → collapse whitespace. Punctuation kept."""
out = unicodedata.normalize("NFKC", s).strip().lower()
out = re.sub(r"\s+", " ", out)
return out
def strip_punct(text: str) -> str:
"""Remove safe punctuation from an already-normalized text."""
t = re.sub(r"[^\w\s]", " ", text)
t = re.sub(r"\s+", " ", t).strip()
return t
@@ -0,0 +1,640 @@
#!/usr/bin/env python3
"""
Slice 19: tiny sequence-sensitive pragmatics specialists (binary action gate)
=============================================================================
A narrow binary specialist: executable request vs semantically similar
non-executable utterance, generalizing across surface-generator families.
Commands
grouped — grouped semantic CV (existing cv_fold), all arch/sizes, saves
per-config per-fold model checkpoints + OOF proba per variant
metrics — aggregate saved grouped-CV results into the report tables
(binary metrics, threshold curves, pair ordering, stress)
lfo — leave-generator-out. All sizes on capability_question; the
other present families for the leading config only.
e5baseline— frozen-e5 logistic + MLP baselines: grouped, cap-Q LOFO, pair
ordering (stress flagged NA — no re-embed on this box)
runtime — params / sizes / latency / tokenization for each candidate
Primary metrics (brief §2): cap-Q LOFO FA, pair ordering acc, pair margin,
grouped P/R, voice stress, fold variance. Aggregate accuracy is secondary.
"""
import argparse
import json
import os
import re
import resource
import subprocess
import sys
import time
import warnings
from collections import Counter
import numpy as np
warnings.filterwarnings("ignore")
sys.path.insert(0, os.path.dirname(os.path.abspath(__file__)))
from slice19_bpe import BpeVocab, CharVocab, normalize_match_text, strip_punct
EMBEDDING_PATH = "/tmp/mvn-experiment/embeddings.json"
RESULTS_DIR = "/tmp/mvn-s19"
SEED = 42
MAX_CHAR = 64
MAX_BPE = 24
BPE_VOCAB = 2048
PRESENT_FAMILIES = [
"polite_request",
"modal_request",
"first_person_request",
"reordered_target",
"capability_question",
"question",
]
ABSENT_FAMILIES = ["negation", "reported_speech", "quotation", "hypothetical"]
FAMILY_PRIORITY = [
"capability_question", "question", "first_person_request",
"modal_request", "polite_request", "reordered_target", "direct_imperative",
]
DEVICES = [
"свет", "люстру", "люстра", "жалюзи", "вытяжку", "вытяжка",
"вентилятор", "кондиционер", "телевизор", "лампу", "лампа",
"музыку", "музыка", "плеер", "колонку", "колонки", "чайник",
"бойлер", "обогреватель", "пылесос", "пылесосом", "пол",
"поливалки", "полив", "арка", "шторы", "штору",
"динамики", "дверь", "двери", "замок", "гараж", "ворота",
"кофе", "пасту", "зубы", "крючки", "лаймо", "куртку",
"будильник", "таймер", "напоминание", "расписание",
]
ARCH_CONFIGS = {
"char_cnn": ["tiny", "medium"],
"bigru": ["tiny", "medium", "large"],
"tiny_transformer": ["small", "medium"],
}
TRAIN_HYPER = {
"char_cnn": dict(epochs=20, lr=1e-3, bs=64, clip=None),
"bigru": dict(epochs=15, lr=5e-4, bs=64, clip=1.0),
"tiny_transformer": dict(epochs=25, lr=5e-4, bs=64, clip=1.0),
}
VARIANTS = ["orig", "nofinal", "strip"]
# ─── data ───────────────────────────────────────────────────────────────────
def load_dev():
with open(EMBEDDING_PATH) as f:
data = json.load(f)
rows = [e for e in data["examples"] if e["dev_pool"]]
out = []
for e in rows:
n_text = normalize_match_text(e["text"])
out.append({
"text_orig": n_text,
"text_nofinal": re.sub(r"[?.!,;:]+$", "", n_text),
"text_strip": strip_punct(n_text),
"route": e["route"],
"y": 1 if e["route"] == "action" else 0,
"cv_fold": e["cv_fold"],
"split_group": e["split_group"],
"tags": set(e.get("tags", [])),
"source_id": e["source_id"],
"emb": np.asarray(e["embedding"], dtype=np.float32),
})
return out
def family_of(tags):
for f in FAMILY_PRIORITY:
if f in tags:
return f
return None
def build_pairs(rows, texts):
"""Capability-question vs action-by-shared-object pairs (eval only)."""
def object_nouns(t):
found = set()
tl = t.lower()
for d in DEVICES:
if re.search(r"\b" + re.escape(d), tl):
found.add(d)
return found
pairs = []
for cidx, r in enumerate(rows):
if "capability_question" not in r["tags"]:
continue
c_obj = object_nouns(texts[cidx])
if not c_obj:
continue
dom = re.search(r"kq-cap-([^-]+)", r["source_id"])
dom = dom.group(1) if dom else None
for aidx, ra in enumerate(rows):
if ra["y"] != 1:
continue
a_obj = object_nouns(texts[aidx])
if not (c_obj & a_obj):
continue
a_dom = re.search(r"^([a-z]+)-", ra["source_id"])
a_dom = a_dom.group(1) if a_dom else None
if dom and a_dom and dom != a_dom:
continue
pairs.append((cidx, aidx))
return pairs
def pair_metrics(pairs, proba):
if not pairs:
return {"pairs": 0}
margins = []
ties = 0
order = 0
rev = 0
for cidx, aidx in pairs:
pc, pa = proba[cidx], proba[aidx]
margins.append(pa - pc)
if pa > pc:
order += 1
elif pa == pc:
ties += 1
else:
rev += 1
m = np.array(margins)
return {
"pairs": len(pairs),
"ordering_acc": order / len(pairs),
"mean_margin": float(m.mean()),
"median_margin": float(np.median(m)),
"ties": ties,
"reversed": rev,
}
# ─── tokenizers ─────────────────────────────────────────────────────────────
def build_tokenizers(rows):
nat_texts = [r["text_orig"] for r in rows]
char_vocab = CharVocab(nat_texts)
bpe = BpeVocab(nat_texts, vocab_size=BPE_VOCAB)
return char_vocab, bpe
def encode_all(rows, tokenizer, kind):
"""Return dict variant -> (N, max_len) int64 array."""
max_len = MAX_CHAR if kind == "char" else MAX_BPE
out = {}
for v in VARIANTS:
arr = np.zeros((len(rows), max_len), dtype=np.int64)
for i, r in enumerate(rows):
if kind == "char":
ids = tokenizer.encode(r[f"text_{v}"], max_len)
arr[i, :len(ids)] = ids
else:
ids = tokenizer.encode(r[f"text_{v}"])[:max_len]
arr[i, :len(ids)] = ids
out[v] = arr
return out
# ─── training ───────────────────────────────────────────────────────────────
def build_model(arch, size, vocab_size, max_len):
import torch
from slice19_models import CharCNN, BiGRU, TinyTransformer
if arch == "char_cnn":
c = (dict(embed_dim=32, filters=64, widths=[3, 4, 5]) if size == "tiny"
else dict(embed_dim=64, filters=160, widths=[2, 3, 4, 5]))
return CharCNN(vocab_size, c["embed_dim"], c["filters"], c["widths"])
if arch == "bigru":
c = (dict(embed_dim=64, hidden=64) if size == "tiny" else
(dict(embed_dim=128, hidden=128) if size == "medium" else
dict(embed_dim=256, hidden=256)))
return BiGRU(vocab_size, c["embed_dim"], c["hidden"])
c = (dict(d_model=128, n_layers=2, n_heads=4) if size == "small" else
dict(d_model=192, n_layers=4, n_heads=4))
return TinyTransformer(vocab_size, c["d_model"], c["n_layers"], c["n_heads"],
max_len=max_len)
def train_binary(X, y, arch, size, vocab_size, seed_offset=0, log=False):
import torch
torch.manual_seed(SEED + seed_offset)
np.random.seed(SEED + seed_offset)
Xt = torch.from_numpy(X)
yt = torch.from_numpy(y.astype(np.float32))
model = build_model(arch, size, vocab_size, X.shape[1])
h = TRAIN_HYPER[arch]
opt = torch.optim.AdamW(model.parameters(), lr=h["lr"], weight_decay=1e-4)
lossf = torch.nn.BCEWithLogitsLoss()
n = X.shape[0]
model.train()
t0 = time.time()
for epoch in range(h["epochs"]):
perm = torch.randperm(n)
running = 0.0
n_b = 0
for start in range(0, n, h["bs"]):
idx = perm[start:start + h["bs"]]
xb = Xt[idx]
if xb.dim() == 1:
xb = xb.unsqueeze(0)
logits = model(xb)
loss = lossf(logits, yt[idx])
opt.zero_grad()
loss.backward()
if h["clip"]:
torch.nn.utils.clip_grad_norm_(model.parameters(), h["clip"])
opt.step()
running += float(loss)
n_b += 1
if log and (epoch + 1) % 5 == 0:
print(f" epoch {epoch+1}/{h['epochs']} loss {running/max(n_b,1):.4f}")
return model, time.time() - t0
def predict_proba(model, X, bs=256):
import torch
model.eval()
out = []
with torch.no_grad():
Xt = torch.from_numpy(X)
for start in range(0, X.shape[0], bs):
xb = Xt[start:start + bs]
if xb.dim() == 1:
xb = xb.unsqueeze(0)
logits = model(xb)
out.append(torch.sigmoid(logits).numpy())
return np.concatenate(out)
# ─── metrics helpers ────────────────────────────────────────────────────────
def binary_metrics(yt, proba, thr=0.5):
yp = (proba >= thr).astype(int)
tp = int(((yt == 1) & (yp == 1)).sum())
fp = int(((yt == 0) & (yp == 1)).sum())
fn = int(((yt == 1) & (yp == 0)).sum())
from sklearn.metrics import roc_auc_score, average_precision_score
roc = roc_auc_score(yt, proba) if len(np.unique(yt)) > 1 else 0.0
pr = average_precision_score(yt, proba) if len(np.unique(yt)) > 1 else 0.0
return {
"n": int(len(yt)), "tp": tp, "fp": fp, "fn": fn,
"P": tp / max(tp + fp, 1), "R": tp / max(tp + fn, 1),
"FA": fp, "FA_rate": fp / max(len(yt), 1),
"ROC_AUC": float(roc), "PR_AUC": float(pr),
}
def threshold_curve(yt, proba, thr_grid):
rows = []
for thr in thr_grid:
yp = (proba >= thr).astype(int)
tp = int(((yt == 1) & (yp == 1)).sum())
fp = int(((yt == 0) & (yp == 1)).sum())
fn = int(((yt == 1) & (yp == 0)).sum())
P = tp / max(tp + fp, 1)
R = tp / max(tp + fn, 1)
rows.append({
"thr": round(float(thr), 4), "P": round(P, 4), "R": round(R, 4),
"FA": fp, "FA_rate": round(fp / max(len(yt), 1), 4),
})
return rows
def operating_points(rows, pair_proba, pairs):
"""Report P>=0.95/0.98/0.99 points with pair separation at threshold."""
res = {}
for target in (0.95, 0.98, 0.99):
pts = [r for r in rows if r["P"] >= target and r["R"] > 0.0]
if not pts:
res[str(target)] = None
continue
best = max(pts, key=lambda r: r["R"])
# pair separation at that operating point
sep = pair_sep_at(best["thr"], pair_proba, pairs)
best = dict(best); best["pair_sep"] = round(sep, 4)
res[str(target)] = best
return res
def pair_sep_at(thr, pair_proba, pairs):
"""Fraction of pairs where action>=thr and cap<thr."""
if not pairs:
return 0.0
ok = 0
for cidx, aidx in pairs:
if pair_proba[aidx] >= thr and pair_proba[cidx] < thr:
ok += 1
return ok / len(pairs)
def fold_variance(fold_rows):
return {
"folds": [
{
"fold": fr["fold"],
"ROC_AUC": fr["ROC_AUC"], "PR_AUC": fr["PR_AUC"],
"P": fr["P"], "R": fr["R"], "FA": fr["FA"], "n": fr["n"],
}
for fr in fold_rows
]
}
# ─── subcommands ────────────────────────────────────────────────────────────
def _result_path():
os.makedirs(RESULTS_DIR, exist_ok=True)
return RESULTS_DIR
def cmd_grouped(args):
rows = load_dev()
char_vocab, bpe = build_tokenizers(rows)
y = np.array([r["y"] for r in rows])
folds = np.array([r["cv_fold"] for r in rows])
X_char = encode_all(rows, char_vocab, "char")
X_bpe = encode_all(rows, bpe, "bpe")
tokenizers = {"char": char_vocab, "bpe": bpe}
os.makedirs(RESULTS_DIR, exist_ok=True)
# save tokenizer metadata for reproducibility
meta = {
"char_vocab": char_vocab.size,
"char_vocab_sample": char_vocab.id_to_char[:50],
"bpe_vocab": bpe.size,
"bpe_serialized_bytes": bpe.serialized_bytes(),
"max_char": MAX_CHAR, "max_bpe": MAX_BPE,
"n": len(rows),
}
with open(os.path.join(RESULTS_DIR, "corpus_meta.json"), "w") as f:
json.dump(meta, f)
kind_of = {"char_cnn": "char", "bigru": "bpe", "tiny_transformer": "bpe"}
for arch, sizes in ARCH_CONFIGS.items():
kind = kind_of[arch]
X = X_char if kind == "char" else X_bpe
for size in sizes:
name = f"{arch}_{size}"
os.makedirs(os.path.join(RESULTS_DIR, "models"), exist_ok=True)
probs = {v: np.zeros(len(rows)) for v in VARIANTS}
fold_rows = []
for fold in range(5):
tr = folds != fold
te = folds == fold
Xtr = X["strip"][tr]
model, secs = train_binary(Xtr, y[tr], arch, size,
vocab_size=tokenizers[kind].size,
seed_offset=fold, log=args.verbose)
torch_models_dir = os.path.join(RESULTS_DIR, "models")
import torch
torch.save(model.state_dict(), os.path.join(torch_models_dir, f"{name}_fold{fold}.pt"))
for v in VARIANTS:
probs[v][te] = predict_proba(model, X[v][te])
fold_m = binary_metrics(y[te], probs["strip"][te])
fold_m["fold"] = fold
fold_rows.append(fold_m)
print(f" {name} fold {fold}: ROC={fold_m['ROC_AUC']:.3f} "
f"PR={fold_m['PR_AUC']:.3f} P={fold_m['P']:.3f} R={fold_m['R']:.3f} "
f"FA={fold_m['FA']} n={fold_m['n']} ({secs:.1f}s)")
np.savez(os.path.join(RESULTS_DIR, f"{name}_probs.npz"),
var_orig=probs["orig"], var_nofinal=probs["nofinal"],
var_strip=probs["strip"])
summary = binary_metrics(y, probs["strip"])
print(f" {name} OOF: ROC={summary['ROC_AUC']:.3f} PR={summary['PR_AUC']:.3f} "
f"P={summary['P']:.3f} R={summary['R']:.3f} FA={summary['FA']}")
print("grouped done")
def cmd_metrics(args):
rows = load_dev()
y = np.array([r["y"] for r in rows])
tags = [r["tags"] for r in rows]
pairs = build_pairs(rows, [r["text_strip"] for r in rows])
print(f"pairs={len(pairs)}")
out = {}
for arch, sizes in ARCH_CONFIGS.items():
for size in sizes:
name = f"{arch}_{size}"
fp = os.path.join(RESULTS_DIR, f"{name}_probs.npz")
if not os.path.exists(fp):
continue
z = np.load(fp)
entry = {"name": name, "arch": arch, "size": size}
# OOF binary on strip variant (primary training input)
entry["strip"] = binary_metrics(y, z["var_strip"])
entry["pairs"] = {}
entry["pairs"]["strip"] = pair_metrics(pairs, z["var_strip"])
entry["pairs"]["orig"] = pair_metrics(pairs, z["var_orig"])
entry["pairs"]["nofinal"] = pair_metrics(pairs, z["var_nofinal"])
# stress: same OOF models, per-variant metrics
entry["stress"] = {}
for v in VARIANTS:
p = z[f"var_{v}"]
entry["stress"][v] = {
"all_FA": binary_metrics(y, p)["FA_rate"],
"capQ_FA": capq_fa(tags, y, p),
"modal_recall": modal_recall(tags, y, p),
}
# threshold curve + operating points on strip
entry["curve"] = threshold_curve(y, z["var_strip"],
np.arange(0.30, 1.0, 0.02))
entry["ops"] = operating_points(entry["curve"], z["var_strip"], pairs)
out[name] = entry
with open(os.path.join(RESULTS_DIR, "metrics.json"), "w") as f:
json.dump(out, f, indent=2, default=str)
print(json.dumps(out, indent=2, default=str))
def capq_fa(tags, y, proba):
mask = np.array(["capability_question" in t for t in tags])
if mask.sum() == 0:
return 0.0
sub = proba[mask]
return float((sub >= 0.5).sum() / mask.sum())
def modal_recall(tags, y, proba):
mask = np.array([
(y[i] == 1 and ("polite_request" in tags[i] or "modal_request" in tags[i]))
for i in range(len(y))
])
if mask.sum() == 0:
return 0.0
sub = proba[mask]
return float((sub >= 0.5).sum() / mask.sum())
def cmd_lfo(args):
rows = load_dev()
char_vocab, bpe = build_tokenizers(rows)
y = np.array([r["y"] for r in rows])
tags = [r["tags"] for r in rows]
X_char = encode_all(rows, char_vocab, "char")["strip"]
X_bpe = encode_all(rows, bpe, "bpe")["strip"]
kind_of = {"char_cnn": "char", "bigru": "bpe", "tiny_transformer": "bpe"}
results = {}
tokenizers = {"char": char_vocab, "bpe": bpe}
# capability_question LOFO for every config/size (the critical case)
for arch, sizes in ARCH_CONFIGS.items():
X = X_char if kind_of[arch] == "char" else X_bpe
src_idx = np.array(["capability_question" not in t for t in tags])
tgt_idx = np.array(["capability_question" in t for t in tags])
for size in sizes:
model, _ = train_binary(X[src_idx], y[src_idx], arch, size,
vocab_size=tokenizers[kind_of[arch]].size,
seed_offset=17)
p = predict_proba(model, X[tgt_idx])
m = binary_metrics(y[tgt_idx], p)
results[f"{arch}_{size}:capability_question"] = m
print(f"LFO ability {arch}_{size}: cap rows={m['n']} "
f"pos={int(y[tgt_idx].sum())} FA={m['FA']} FA_rate={m['FA_rate']:.3f} "
f"P={m['P']:.3f} R={m['R']:.3f} acc={1-m['FA_rate']:.3f}")
# full family LOFO for the leading config per architecture
leading = {"char_cnn": "char_cnn_medium", "bigru": "bigru_tiny",
"tiny_transformer": "tiny_transformer_small"}
for arch, name in leading.items():
X = X_char if kind_of[arch] == "char" else X_bpe
for fam in PRESENT_FAMILIES:
src = np.array([fam not in t for t in tags])
tgt = np.array([fam in t for t in tags])
model, _ = train_binary(X[src], y[src], arch, name.split("_")[-1],
vocab_size=tokenizers[kind_of[arch]].size,
seed_offset=41)
p = predict_proba(model, X[tgt])
m = binary_metrics(y[tgt], p)
results[f"{name}:{fam}"] = m
print(f"LFO {fam}: {name} rows={m['n']} pos={int(y[tgt].sum())} "
f"P={m['P']:.3f} R={m['R']:.3f} FA={m['FA']} acc={1-m['FA_rate']:.3f}")
with open(os.path.join(RESULTS_DIR, "lfo.json"), "w") as f:
json.dump(results, f, indent=2, default=str)
print("lfo done")
def cmd_e5baseline(args):
from sklearn.linear_model import LogisticRegression
from sklearn.neural_network import MLPClassifier
rows = load_dev()
y = np.array([r["y"] for r in rows])
folds = np.array([r["cv_fold"] for r in rows])
X = np.vstack([r["emb"] for r in rows])
tags = [r["tags"] for r in rows]
pairs = build_pairs(rows, [r["text_strip"] for r in rows])
out = {}
for model_name, model, extra in [
("e5_linear", LogisticRegression(C=1.0, max_iter=2000, solver="lbfgs", random_state=42), {}),
("e5_mlp_h32", MLPClassifier(hidden_layer_sizes=(32,), activation="relu",
solver="adam", alpha=0.01, random_state=42,
max_iter=800, early_stopping=True,
validation_fraction=0.15, n_iter_no_change=10), {}),
]:
proba = np.zeros(len(rows))
for fold in range(5):
tr = folds != fold
te = folds == fold
m2 = type(model)(**{k: v for k, v in model.get_params().items()})
m2.fit(X[tr], y[tr])
proba[te] = m2.predict_proba(X[te])[:, 1]
entry = {
"grouped": binary_metrics(y, proba),
"pairs": pair_metrics(pairs, proba),
}
# cap-Q leave-generator-out (train without the family)
src = np.array(["capability_question" not in t for t in tags])
tgt = np.array(["capability_question" in t for t in tags])
m3 = LogisticRegression(C=1.0, max_iter=2000, solver="lbfgs", random_state=42) \
if model_name == "e5_linear" else \
MLPClassifier(hidden_layer_sizes=(32,), alpha=0.01, random_state=42, max_iter=800)
m3.fit(X[src], y[src])
p3 = m3.predict_proba(X[tgt])[:, 1]
entry["capq_lofo"] = binary_metrics(y[tgt], p3)
entry["stress"] = "NA (no re-embed on this box)"
out[model_name] = entry
print(f"{model_name}: grouped FA_rate={entry['grouped']['FA_rate']:.4f} "
f"PR={entry['grouped']['PR_AUC']:.3f} capQ_LOFO_FA_rate={entry['capq_lofo']['FA_rate']:.4f} "
f"pairs={entry['pairs']['ordering_acc']:.3f}")
with open(os.path.join(RESULTS_DIR, "e5baseline.json"), "w") as f:
json.dump(out, f, indent=2, default=str)
print("e5baseline done")
def cmd_runtime(args):
import torch
rows = load_dev()
char_vocab, bpe = build_tokenizers(rows)
X_char = encode_all(rows, char_vocab, "char")["strip"]
X_bpe = encode_all(rows, bpe, "bpe")["strip"]
kind_of = {"char_cnn": "char", "bigru": "bpe", "tiny_transformer": "bpe"}
report = {}
for arch, sizes in ARCH_CONFIGS.items():
X = X_char if kind_of[arch] == "char" else X_bpe
for size in sizes:
name = f"{arch}_{size}"
model = build_model(arch, size, int(X.max()) + 1, X.shape[1])
n_params = sum(p.numel() for p in model.parameters())
fp32 = n_params * 4
int8 = n_params
model.eval()
# warmup + latency (batch-1, eval mode)
xb = torch.from_numpy(X[:1])
with torch.no_grad():
for _ in range(20):
model(xb)
# tokenization latency
if kind_of[arch] == "char":
t0 = time.perf_counter()
for r in rows[:1000]:
char_vocab.encode(r["text_strip"], MAX_CHAR)
tl = (time.perf_counter() - t0) / 1000
else:
t0 = time.perf_counter()
for r in rows[:1000]:
bpe.encode(r["text_strip"])
tl = (time.perf_counter() - t0) / 1000
lat = []
for _ in range(300):
t0 = time.perf_counter()
model(xb)
lat.append(time.perf_counter() - t0)
lat = np.array(lat) * 1e6
report[name] = {
"params": n_params, "fp32_bytes": fp32, "int8_bytes": int8,
"latency_us_mean": float(lat.mean()), "latency_us_p50": float(np.median(lat)),
"latency_us_p95": float(np.percentile(lat, 95)),
"throughput_b1": round(1e6 / float(lat.mean()), 1),
"tok_us": round(tl * 1e6, 1),
"tokenizer": "char" if kind_of[arch] == "char" else "bpe",
}
print(f"{name}: {n_params} params fp32={fp32/1024:.0f}KiB "
f"lat={lat.mean():.0f}us tok={tl*1e6:.1f}us")
with open(os.path.join(RESULTS_DIR, "runtime.json"), "w") as f:
json.dump(report, f, indent=2)
print("runtime done")
def main():
ap = argparse.ArgumentParser()
ap.add_argument("cmd", choices=["grouped", "metrics", "lfo", "e5baseline", "runtime"])
ap.add_argument("--verbose", action="store_true")
args = ap.parse_args()
t0 = time.time()
globals()[f"cmd_{args.cmd}"](args)
print(f"elapsed {time.time()-t0:.1f}s")
if __name__ == "__main__":
main()
@@ -0,0 +1,158 @@
#!/usr/bin/env python3
"""
Slice 19 model zoo: three genuinely sequence-sensitive tiny models, trained
from scratch on Maven's narrow binary pragmatics task.
A. CharCNN — codepoint ids → char embedding → parallel small 1D convs
(several kernel widths) → global max-pool → linear head
B. BiGRU — subword ids → token embedding → 1-layer BiGRU →
maxpool[final] → linear head
C. TinyTransformer — subword ids → token embedding + sine position →
N self-attention encoder blocks (heads, FFN 4x, PreNorm) →
CLS → linear head
All expose :forward(ids) returning the binary logit, plus .n_params().
Deterministic: everything is plain torch ops.
"""
import math
import torch
import torch.nn as nn
import torch.nn.functional as F
class CharCNN(nn.Module):
def __init__(self, vocab_size, embed_dim, filters, widths, pad_idx=0, dropout=0.3):
super().__init__()
self.embed = nn.Embedding(vocab_size, embed_dim, padding_idx=pad_idx)
self.convs = nn.ModuleList([
nn.Conv1d(embed_dim, filters, k, padding=(k - 1) // 2)
for k in widths
])
self.dropout = nn.Dropout(dropout)
self.head = nn.Linear(filters * len(widths), 1)
def forward(self, ids):
# ids: (B, T)
x = self.embed(ids).transpose(1, 2) # (B, D, T)
hiddens = [F.relu(conv(x)) for conv in self.convs] # each (B, F, T)
pooled = torch.cat([h.max(dim=2).values for h in hiddens], dim=1) # (B, F*W)
return self.head(self.dropout(pooled)).squeeze(-1)
def n_params(self):
return sum(p.numel() for p in self.parameters())
class BiGRU(nn.Module):
def __init__(self, vocab_size, embed_dim, hidden, pad_idx=0, dropout=0.3):
super().__init__()
self.embed = nn.Embedding(vocab_size, embed_dim, padding_idx=pad_idx)
self.encoder = nn.GRU(embed_dim, hidden, num_layers=1, bidirectional=True,
batch_first=True)
self.dropout = nn.Dropout(dropout)
self.head = nn.Linear(hidden * 2, 1)
def forward(self, ids):
mask = (ids != 0).float() # (B, T)
x = self.embed(ids)
lens = mask.sum(dim=1).clamp(min=1).long()
x_p = nn.utils.rnn.pack_padded_sequence(x, lens.cpu(), batch_first=True,
enforce_sorted=False)
out, _ = self.encoder(x_p)
out, _ = nn.utils.rnn.pad_packed_sequence(out, batch_first=True,
total_length=mask.size(1))
out = out * mask.unsqueeze(-1)
maxed = out.max(dim=1).values # (B, 2H)
return self.head(self.dropout(maxed)).squeeze(-1)
def n_params(self):
return sum(p.numel() for p in self.parameters())
class TinyTransformer(nn.Module):
def __init__(self, vocab_size, d_model, n_layers, n_heads, ff_mult=4,
max_len=64, pad_idx=0, dropout=0.1):
super().__init__()
self.d_model = d_model
self.embed = nn.Embedding(vocab_size, d_model, padding_idx=pad_idx)
self.dropout = nn.Dropout(dropout)
self.pos = nn.Parameter(torch.empty(1, max_len, d_model))
nn.init.normal_(self.pos, std=0.02)
blocks = []
for _ in range(n_layers):
blocks.append(TransformerBlock(d_model, n_heads, ff_mult, dropout))
self.blocks = nn.ModuleList(blocks)
self.ln_out = nn.LayerNorm(d_model)
self.head = nn.Linear(d_model, 1)
def forward(self, ids):
B, T = ids.shape
mask = (ids != 0)
x = self.embed(ids) * math.sqrt(self.d_model) + self.pos[:, :T, :]
x = self.dropout(x)
for blk in self.blocks:
x = blk(x, mask)
x = self.ln_out(x)
pooled = x.masked_fill(~mask.unsqueeze(-1), float("-inf")).max(dim=1).values
return self.head(pooled).squeeze(-1)
def n_params(self):
return sum(p.numel() for p in self.parameters())
class TransformerBlock(nn.Module):
def __init__(self, d_model, n_heads, ff_mult, dropout):
super().__init__()
self.attn = nn.MultiheadAttention(d_model, n_heads, dropout=dropout,
batch_first=True)
self.ln1 = nn.LayerNorm(d_model)
self.ff = nn.Sequential(
nn.Linear(d_model, d_model * ff_mult),
nn.GELU(),
nn.Linear(d_model * ff_mult, d_model),
)
self.ln2 = nn.LayerNorm(d_model)
self.dropout = nn.Dropout(dropout)
def forward(self, x, mask):
# mask: (B, T) bool of non-pad; MultiheadAttention uses key_padding_mask
h = self.ln1(x)
h = self.attn(h, h, h, key_padding_mask=~mask,
need_weights=False, is_causal=False)[0]
x = x + self.dropout(h)
h = self.ln2(x)
x = x + self.dropout(self.ff(h))
return x
# ─── Sizes ladder ───────────────────────────────────────────────────────────
def make_model(arch, size, char_vocab, bpe_vocab):
if arch == "char_cnn":
configs = {
"tiny": dict(embed_dim=32, filters=64, widths=[3, 4, 5]),
"medium": dict(embed_dim=64, filters=160, widths=[2, 3, 4, 5]),
}
c = configs[size]
return CharCNN(char_vocab, c["embed_dim"], c["filters"], c["widths"])
if arch == "bigru":
configs = {
"tiny": dict(embed_dim=64, hidden=64),
"medium": dict(embed_dim=128, hidden=128),
"large": dict(embed_dim=256, hidden=256),
}
c = configs[size]
return BiGRU(bpe_vocab, c["embed_dim"], c["hidden"])
if arch == "tiny_transformer":
configs = {
"small": dict(d_model=128, n_layers=2, n_heads=4),
"medium": dict(d_model=192, n_layers=4, n_heads=4),
}
c = configs[size]
return TinyTransformer(bpe_vocab, c["d_model"], c["n_layers"], c["n_heads"])
raise ValueError(arch)
def n_params_of(arch, size, char_vocab, bpe_vocab):
return make_model(arch, size, char_vocab, bpe_vocab).n_params()
@@ -0,0 +1,152 @@
#!/usr/bin/env python3
"""
Slice 20 tokenizer audit (§2 of the brief) and corpus sequence-length
statistics (§3). Runs before any training. If the audit shows catastrophic
Cyrillic / mixed-identifier loss it is the gate to stop.
Loads the frozen dev corpus exactly like slice 19 (same normalization),
so regime A (natural text) is `text_orig` and regime B (punct-stripped) is
`text_strip`.
"""
import json
import os
import re
import statistics
from transformers import AutoTokenizer
import slice19_main as s19
RESULTS_DIR = "/tmp/mvn-s20"
MODEL_DIR = ("/tmp/mvn-s20/hf-cache/models--cointegrated--rubert-tiny/"
"snapshots/5441c5ea8026d4f6d7505ec004845409f1259fb1")
MIXED_CYRILLIC_LATIN = re.compile(r"[а-яёА-ЯЁ]+[a-zA-Z]+|[a-zA-Z]+[а-яёА-ЯЁ]+")
HAS_CYRILLIC = re.compile(r"[а-яёА-ЯЁ]")
HAS_LATIN = re.compile(r"[a-zA-Z]")
NUMERIC = re.compile(r"[0-9]")
TOKEN_RE = re.compile(r"[^\W\d_]+", re.UNICODE)
SAMPLES = [
"выключи свет в спальне пожалуйста",
"turn off the lights",
"перезапусти сервис mavend",
"что такое Nexus",
"включи телевизор, пожалуйста",
"как дела у Мэйвен",
"поставь таймер на 5 минут",
"кто такой Home Assistant",
"открой настройки устройства ha_cam_12",
"Покажи статус сервера Proxmox",
"аутентифицируй на сайте 2fa.ru",
"сообщи погоду завтра в 18:30",
]
def is_toolish(word):
# Maven sibling service names / HA-like identifiers: mixed case, digits,
# underscores, or short Latin words that are not in the vocab as whole
# words. Rough heuristic for the fragmentation probe.
return bool(re.search(r"[A-Z0-9_/.-]", word))
def main():
os.makedirs(RESULTS_DIR, exist_ok=True)
tok = AutoTokenizer.from_pretrained(MODEL_DIR)
rows = s19.load_dev()
texts = {
"orig": [r["text_orig"] for r in rows],
"nofinal": [r["text_nofinal"] for r in rows],
"strip": [r["text_strip"] for r in rows],
}
vv = tok.vocab_size
unk = tok.unk_token_id
rep = {"model": "cointegrated/rubert-tiny",
"sha": "5441c5ea8026d4f6d7505ec004845409f1259fb1",
"tokenizer": type(tok).__name__,
"vocab_size": vv}
# per-character stats (natural texts)
chars = [len(t) for t in texts["orig"]]
rep["char_len"] = {
"mean": round(statistics.mean(chars), 2),
"p50": int(sorted(chars)[len(chars) // 2]),
"p95": sorted(chars)[int(len(chars) * .95)],
"p99": sorted(chars)[int(len(chars) * .99)],
"max": max(chars),
}
for view in ("orig", "strip"):
ids = tok(texts[view], add_special_tokens=True, padding=False,
truncation=False)["input_ids"]
lens = [len(x) for x in ids]
n_tok = sum(lens)
n_unk = sum(x.count(unk) for x in ids)
n_chars = sum(len(t) for t in texts[view])
rep[view] = {
"tokens_per_utt_mean": round(n_tok / len(rows), 2),
"tokens_per_char": round(n_tok / max(n_chars, 1), 4),
"unk_count": n_unk,
"unk_rate": round(n_unk / max(n_tok, 1), 5),
"seq_len_p50": int(sorted(lens)[len(lens) // 2]),
"seq_len_p90": sorted(lens)[int(len(lens) * .90)],
"seq_len_p95": sorted(lens)[int(len(lens) * .95)],
"seq_len_p99": sorted(lens)[int(len(lens) * .99)],
"seq_len_max": max(lens),
"above_96": sum(1 for x in lens if x > 96),
"above_128": sum(1 for x in lens if x > 128),
}
rep[view]["p99_plus_margin"] = rep[view]["seq_len_p99"] + 6
# mixed Cyrillic/Latin behaviour over natural texts
mixed_words = []
for t in texts["orig"]:
for w in t.split():
if MIXED_CYRILLIC_LATIN.search(w):
mixed_words.append(w)
rep["mixed_cyr_lat_rows"] = len({w for w in mixed_words})
rep["mixed_cyr_lat_stats"] = {"word_count": len(mixed_words),
"unique_words": len(set(mixed_words))}
# entity/tool-name fragmentation: unique word-like tokens containing a digit
# or underscore, or non-trivial Latin, and how many BPE/WordPiece pieces they
# split into. Sample the extremes.
fragments = []
vocab = set(tok.get_vocab().keys())
for t in texts["orig"]:
# split into "clean" tokens (word chars + _ / digit boundaries)
for w in re.findall(r"[A-Za-z0-9_]+\b", t):
w2 = re.sub(r"_\b", "", w)
if len(w2) < 3 or not is_toolish(w2):
continue
n_pieces = len(tok.tokenize(w2).replace("##", "_").rstrip())
fragments.append((n_pieces, w2))
frag = sorted(set(fragments))[-30:]
rep["entity_fragment_examples"] = [
{"token": w, "pieces": n} for n, w in frag
]
# representative samples: full tokenization
rep["samples"] = []
for s in SAMPLES:
e = tok(s, add_special_tokens=True, padding=False, truncation=False)
rep["samples"].append({
"text": s,
"tokens": tok.convert_ids_to_tokens(e["input_ids"]),
"pieces": len(e["input_ids"]),
"unk": e["input_ids"].count(unk),
})
with open(os.path.join(RESULTS_DIR, "tokenizer_audit.json"), "w") as f:
json.dump(rep, f, indent=2, ensure_ascii=False)
print(json.dumps({k: v for k, v in rep.items() if k not in ("samples",)}, indent=2, ensure_ascii=False))
print("\n--- samples ---")
for s in rep["samples"]:
print(f'{s["pieces"]:>3} unk={s["unk"]} {s["text"]:50} ->'
f' {" ".join(s["tokens"])}')
if __name__ == "__main__":
main()
@@ -0,0 +1,517 @@
#!/usr/bin/env python3
"""
Slice 20: fine-tune cointegrated/rubert-tiny (11.9M, 3-layer BERT) end-to-end
for the binary executable-intent boundary (action vs not_action) on the frozen
v2 dev corpus, following the slice 20 brief.
Rules honoured:
- full end-to-end fine-tuning, CLS-pooled native classification head
- tokenizer used unchanged (audit in slice20_audit.py)
- max length from corpus stats (p99+margin, cap 128): 25 here
- narrow search: LR in {1e-5, 2e-5, 5e-5}, <= 6 epochs, early stop on a
development (within-fold) split, best checkpoint restored
- >= 3 seeds (42/17/7) for every config
- grouped 5-fold CV reuse; cap-Q leave-generator-out as primary stress case
- two input regimes: A = natural text (orig), B = punctuation-stripped (strip)
Artifacts under /tmp/mvn-s20/:
pre/{regime}_ids.npy, _attn.npy tokenized corpus (all three views)
oof/{regime}_{lr}_{seed}_probs.npz OOF probs per view (var_orig/nofinal/strip)
oof/{regime}_{lr}_{seed}_metrics.json
lfo/{regime}_{lr}_{seed}.json capability-Q LOFO (held-out family)
results/summary.json
models/{regime}_{lr}_{seed}_fold{i}.pt, lfo_{seed}.pt
CLI: slice20_pretrained.py {pre, grouped, lfo, metrics, runtime, onnx}
"""
import argparse
import importlib.util
import json
import os
import sys
import time
import numpy as np
import torch
from torch import nn
from transformers import AutoConfig, AutoTokenizer
from transformers import BertForSequenceClassification
sys.path.insert(0, os.path.dirname(os.path.abspath(__file__)))
import slice19_main as s19
RESULTS_DIR = "/tmp/mvn-s20"
MODEL_DIR = ("/tmp/mvn-s20/hf-cache/models--cointegrated--rubert-tiny/"
"snapshots/5441c5ea8026d4f6d7505ec004845409f1259fb1")
MODEL_NAME = "cointegrated/rubert-tiny"
MODEL_SHA = "5441c5ea8026d4f6d7505ec004845409f1259fb1"
REGIMES = ["A", "B"]
LRS = [1e-5, 2e-5, 5e-5]
SEEDS = [42, 17, 7]
VIEWS = ["orig", "nofinal", "strip"]
MAX_LEN = 25
BATCH = 32
MAX_EPOCHS = 4
EARLY_STOP = 1 # patience in epochs on val PR-AUC
VAL_FRACTION = 0.12
WEIGHT_DECAY = 0.01
torch.set_num_threads(4)
# ─── tokenizer / input preparation ──────────────────────────────────────────
def _load_tokenizer():
return AutoTokenizer.from_pretrained(MODEL_DIR)
def tokenize(texts, tok):
e = tok(list(texts), add_special_tokens=True, padding="max_length",
truncation=True, max_length=MAX_LEN)
return np.array(e["input_ids"], np.int64), np.array(e["attention_mask"], np.int64)
def cmd_pre(args):
os.makedirs(os.path.join(RESULTS_DIR, "pre"), exist_ok=True)
tok = _load_tokenizer()
rows = s19.load_dev()
# distributed over all variants, all rows, both regimes
for regime in REGIMES:
train_view = "orig" if regime == "A" else "strip"
tsrc = [r[f"text_{train_view}"] for r in rows]
ids, attn = tokenize(tsrc, tok)
np.save(os.path.join(RESULTS_DIR, "pre", f"{regime}_ids.npy"), ids)
np.save(os.path.join(RESULTS_DIR, "pre", f"{regime}_attn.npy"), attn)
# eval stress views tokenized under the same regime's vocab/format
for v in VIEWS:
ids_v, attn_v = tokenize([r[f"text_{v}"] for r in rows], tok)
np.save(os.path.join(RESULTS_DIR, "pre", f"ev_{regime}_{v}_ids.npy"), ids_v)
np.save(os.path.join(RESULTS_DIR, "pre", f"ev_{regime}_{v}_attn.npy"), attn_v)
print(f"regime {regime} done, train view={train_view}")
def _make_model():
cfg = AutoConfig.from_pretrained(MODEL_DIR)
cfg.num_labels = 1 # sine logit, BCEWithLogits — matches slice 19 head
model = BertForSequenceClassification.from_pretrained(MODEL_DIR, config=cfg)
return model
# ─── training ───────────────────────────────────────────────────────────────
def _val_split(rows_idx, y, seed):
rng = np.random.RandomState(seed)
idx = rng.permutation(rows_idx)
# stratified: keep the y-ratio in both parts
pos = idx[y[idx] == 1]
neg = idx[y[idx] == 0]
nv_pos = max(1, int(round(len(pos) * VAL_FRACTION)))
nv_neg = max(1, int(round(len(neg) * VAL_FRACTION)))
v = np.concatenate([pos[:nv_pos], neg[:nv_neg]])
t = np.concatenate([pos[nv_pos:], neg[nv_neg:]])
return t, v
def train_model(id_arr, attn, y, tr_idx, val_idx, lr, seed, builder=None):
"""Fine-tune the full encoder; early-stop on val PR-AUC; return best state."""
net = (builder or _make_model)()
opt = torch.optim.AdamW([p for p in net.parameters()],
lr=lr, weight_decay=WEIGHT_DECAY)
lossf = nn.BCEWithLogitsLoss()
from sklearn.metrics import average_precision_score
tr = torch.from_numpy(np.ascontiguousarray(id_arr[tr_idx]))
ta = torch.from_numpy(np.ascontiguousarray(attn[tr_idx]))
ty = torch.from_numpy(y[tr_idx].astype(np.float32))
va = torch.from_numpy(np.ascontiguousarray(id_arr[val_idx]))
vaa = torch.from_numpy(np.ascontiguousarray(attn[val_idx]))
vy = y[val_idx]
best_pr = -1.0
best_state = None
best_epoch = 0
patience = 0
n = len(tr_idx)
rng = np.random.RandomState(seed * 97 % 2**31)
for epoch in range(MAX_EPOCHS):
net.train()
perm = rng.permutation(n)
running = 0.0
nb = 0
for st in range(0, n, BATCH):
bidx = torch.from_numpy(perm[st:st + BATCH])
logits = net(input_ids=tr[bidx], attention_mask=ta[bidx]).logits.squeeze(-1)
loss = lossf(logits, ty[bidx])
opt.zero_grad()
loss.backward()
opt.step()
running += float(loss)
nb += 1
net.eval()
with torch.no_grad():
pval = torch.sigmoid(net(input_ids=va, attention_mask=vaa).logits.squeeze(-1)).numpy()
if len(np.unique(vy)) > 1:
pr = average_precision_score(vy, pval)
else:
pr = 0.0
if pr > best_pr:
best_pr = pr
best_state = {k: v.detach().clone() for k, v in net.state_dict().items()}
best_epoch = epoch + 1
patience = 0
else:
patience += 1
if patience >= EARLY_STOP:
break
net.load_state_dict(best_state)
return net, best_epoch, best_pr, running / max(nb, 1)
def predict_proba(net, id_arr, attn, idx=None):
net.eval()
idx = np.arange(len(id_arr)) if idx is None else idx
out = []
with torch.no_grad():
for st in range(0, len(idx), BATCH * 4):
bi = idx[st:st + BATCH * 4]
iid = torch.from_numpy(np.ascontiguousarray(id_arr[bi]))
att = torch.from_numpy(np.ascontiguousarray(attn[bi]))
out.append(torch.sigmoid(net(input_ids=iid, attention_mask=att).logits.squeeze(-1)).numpy())
return np.concatenate(out)
# ─── grouped CV ─────────────────────────────────────────────────────────────
def cmd_grouped(args):
os.makedirs(os.path.join(RESULTS_DIR, "oof"), exist_ok=True)
os.makedirs(os.path.join(RESULTS_DIR, "models"), exist_ok=True)
rows = s19.load_dev()
y = np.array([r["y"] for r in rows])
folds = np.array([r["cv_fold"] for r in rows])
for regime in REGIMES:
ids = np.load(os.path.join(RESULTS_DIR, "pre", f"{regime}_ids.npy"))
attn = np.load(os.path.join(RESULTS_DIR, "pre", f"{regime}_attn.npy"))
ev = {v: (np.load(os.path.join(RESULTS_DIR, "pre", f"ev_{regime}_{v}_ids.npy")),
np.load(os.path.join(RESULTS_DIR, "pre", f"ev_{regime}_{v}_attn.npy")))
for v in VIEWS}
for lr in LRS:
for seed in SEEDS:
probs = {v: np.zeros(len(rows)) for v in VIEWS}
fold_records = []
for fold in range(5):
tr = np.where(folds != fold)[0]
te = np.where(folds == fold)[0]
t_idx, v_idx = _val_split(tr, y, seed + 100 * fold)
net, ep, best_pr, _ = train_model(ids, attn, y, t_idx, v_idx, lr, seed + fold)
torch.save(net.state_dict(),
os.path.join(RESULTS_DIR, "models",
f"{regime}_{lr}_{seed}_fold{fold}.pt"))
for v in VIEWS:
probs[v][te] = predict_proba(net, *ev[v], te)
fold_records.append({"fold": fold, "epochs": ep, "val_pr": best_pr})
np.savez(os.path.join(RESULTS_DIR, "oof", f"{regime}_{lr}_{seed}_probs.npz"),
var_orig=probs["orig"], var_nofinal=probs["nofinal"],
var_strip=probs["strip"])
with open(os.path.join(RESULTS_DIR, "oof", f"{regime}_{lr}_{seed}_metrics.json"), "w") as f:
json.dump({"folds": fold_records}, f, indent=2)
m = s19.binary_metrics(y, probs["strip"])
print(f"[{regime}] lr={lr:.0e} seed={seed} "
f"PR={m['PR_AUC']:.3f} P={m['P']:.3f} R={m['R']:.3f} "
f"FA={m['FA']} epochs={[fr['epochs'] for fr in fold_records]}",
flush=True)
print("grouped done")
# ─── cap-Q leave-generator-out ──────────────────────────────────────────────
def cmd_lfo(args):
os.makedirs(os.path.join(RESULTS_DIR, "lfo"), exist_ok=True)
rows = s19.load_dev()
y = np.array([r["y"] for r in rows])
tags = [r["tags"] for r in rows]
src = np.array(["capability_question" not in t for t in tags])
tgt = ~src
for regime in REGIMES:
ids = np.load(os.path.join(RESULTS_DIR, "pre", f"{regime}_ids.npy"))
attn = np.load(os.path.join(RESULTS_DIR, "pre", f"{regime}_attn.npy"))
for lr in LRS:
for seed in SEEDS:
s_idx = np.where(src)[0]
t_idx, v_idx = _val_split(s_idx, y, seed + 7)
net, ep, best_pr, _ = train_model(ids, attn, y, t_idx, v_idx, lr, seed)
p = predict_proba(net, ids, attn, np.where(tgt)[0])
yt = y[tgt]
out = {
"regime": regime, "lr": lr, "seed": seed,
"rows": int(tgt.sum()), "epochs": ep, "val_pr": best_pr,
"mean_action_proba": float(np.mean(p)),
"max_action_proba": float(np.max(p)),
"acc": float(((p >= 0.5) == (yt == 1)).mean()),
"FA": int(((p >= 0.5) & (yt == 0)).sum()),
"FA_rate": float(((p >= 0.5) & (yt == 0)).mean()),
}
with open(os.path.join(RESULTS_DIR, "lfo", f"{regime}_{lr}_{seed}.json"), "w") as f:
json.dump(out, f, indent=2)
print(f"[{regime}] lr={lr:.0e} seed={seed} capQ LOFO "
f"acc={out['acc']:.3f} FA_rate={out['FA_rate']:.3f} "
f"mean_p={out['mean_action_proba']:.3f} epochs={ep}", flush=True)
print("lfo done")
# ─── metrics aggregation ────────────────────────────────────────────────────
def cmd_metrics(args):
rows = s19.load_dev()
y = np.array([r["y"] for r in rows])
tags = [r["tags"] for r in rows]
pairs = s19.build_pairs(rows, [r["text_strip"] for r in rows])
summary = {}
for regime in REGIMES:
summary[regime] = {}
for lr in LRS:
per_seed = []
for seed in SEEDS:
z = np.load(os.path.join(RESULTS_DIR, "oof", f"{regime}_{lr}_{seed}_probs.npz"))
entry = {"seed": seed,
"views": {v: {"FA_rate": s19.binary_metrics(y, z[f"var_{v}"])["FA_rate"],
"PR": s19.binary_metrics(y, z[f"var_{v}"])["PR_AUC"],
"capQ_FA": s19.capq_fa(tags, y, z[f"var_{v}"])}
for v in VIEWS},
"strip": s19.binary_metrics(y, z["var_strip"]),
"pairs": {v: s19.pair_metrics(pairs, z[f"var_{v}"]) for v in VIEWS},
"curve": s19.threshold_curve(y, z["var_strip"], np.arange(0.30, 1.0, 0.02)),
"ops": s19.operating_points(s19.threshold_curve(
y, z["var_strip"], np.arange(0.30, 1.0, 0.02)),
z["var_strip"], pairs),
}
with open(os.path.join(RESULTS_DIR, "oof", f"{regime}_{lr}_{seed}_metrics.json")) as f:
entry["folds"] = json.load(f)["folds"]
per_seed.append(entry)
# LOFO
lfos = []
for seed in SEEDS:
with open(os.path.join(RESULTS_DIR, "lfo", f"{regime}_{lr}_{seed}.json")) as f:
lfos.append(json.load(f))
summary[regime][str(lr)] = {"seeds": per_seed, "lfo": lfos}
# primary selection: min mean cap-Q LOFO FA_rate across seeds
sel = {}
for regime in REGIMES:
best_lr, best_mean = None, 9e9
for lr in LRS:
mean_fa = np.mean([l["FA_rate"] for l in summary[regime][str(lr)]["lfo"]])
sel[f"{regime}_{lr}"] = round(float(mean_fa), 4)
if mean_fa < best_mean:
best_lr, best_mean = lr, mean_fa
sel[f"{regime}_selected"] = str(best_lr)
summary["selection"] = sel
os.makedirs(os.path.join(RESULTS_DIR, "results"), exist_ok=True)
with open(os.path.join(RESULTS_DIR, "results", "summary.json"), "w") as f:
json.dump(summary, f, indent=2, default=str)
print(json.dumps(sel))
print("metrics done")
def _tokenizer_bytes():
return sum(os.path.getsize(os.path.join(MODEL_DIR, f))
for f in ["vocab.txt", "tokenizer.json"]
if os.path.exists(os.path.join(MODEL_DIR, f)))
# ─── runtime + ONNX ─────────────────────────────────────────────────────────
def cmd_runtime(args):
import time
net = _make_model()
tok = _load_tokenizer()
rows = s19.load_dev()
x = [r["text_orig"] for r in rows][:200]
e = tok(x, padding="max_length", truncation=True,
max_length=MAX_LEN, return_tensors="pt")
ids, attn = e["input_ids"], e["attention_mask"]
net.eval()
with torch.no_grad():
# warmup
for _ in range(3):
net(input_ids=ids[:1], attention_mask=attn[:1])
# batch-1 latency
lat = []
for i in range(200):
t0 = time.perf_counter()
net(input_ids=ids[i:i + 1], attention_mask=attn[i:i + 1])
lat.append((time.perf_counter() - t0) * 1e6)
# tokenization latency
t0 = time.perf_counter()
for i in range(200):
tok(x[i])
tok_us = (time.perf_counter() - t0) / 200 * 1e6
n_params = sum(p.numel() for p in net.parameters())
fp32 = n_params * 4
rep = {
"model": MODEL_NAME, "sha": MODEL_SHA,
"params": n_params, "fp32_bytes": fp32,
"fp16_bytes": fp32 // 2, "int8_bytes": n_params,
"tokenizer_bytes": _tokenizer_bytes(),
"latency_us_mean": float(np.mean(lat)),
"latency_us_p50": float(np.median(lat)),
"latency_us_p95": float(np.percentile(lat, 95)),
"max_len": MAX_LEN,
"tok_us": round(tok_us, 2),
"num_threads": 12,
}
with open(os.path.join(RESULTS_DIR, "runtime.json"), "w") as f:
json.dump(rep, f, indent=2)
print(json.dumps(rep, indent=2))
print("runtime done")
def cmd_onnx(args):
net = _make_model()
net.eval()
tok = _load_tokenizer()
rows = s19.load_dev()
try:
import torch.onnx
dummy = {
"input_ids": torch.zeros(1, MAX_LEN, dtype=torch.long),
"attention_mask": torch.ones(1, MAX_LEN, dtype=torch.long),
}
with torch.no_grad():
torch.onnx.export(net, (dummy,), os.path.join(RESULTS_DIR, "rubert-tiny-gate.onnx"),
input_names=["input_ids", "attention_mask"],
output_names=["logits"], opset_version=14,
dynamic_axes={"input_ids": {0: "batch"},
"attention_mask": {0: "batch"}})
# parity on a fixed sample
import numpy as np
samp = [(r["text_orig"], r["y"]) for r in rows[:200]]
e = tok([s[0] for s in samp], padding="max_length", truncation=True,
max_length=MAX_LEN, return_tensors="pt")
with torch.no_grad():
pt = torch.sigmoid(net(**e).logits.squeeze(-1)).numpy()
import onnxruntime as ort
so = ort.SessionOptions()
so.intra_op_num_threads = 12
sess = ort.InferenceSession(os.path.join(RESULTS_DIR, "rubert-tiny-gate.onnx"),
sess_options=so, providers=["CPUExecutionProvider"])
on = sess.run(None, {"input_ids": e["input_ids"].numpy(),
"attention_mask": e["attention_mask"].numpy()})[0]
on = 1 / (1 + np.exp(-on).squeeze(-1))
mx = float(np.max(np.abs(pt - on)))
size = os.path.getsize(os.path.join(RESULTS_DIR, "rubert-tiny-gate.onnx"))
rep = {"max_logit_diff": mx, "onnx_bytes": size,
"parity_n": len(samp), "provider": "CPUExecutionProvider"}
with open(os.path.join(RESULTS_DIR, "onnx.json"), "w") as f:
json.dump(rep, f, indent=2)
print(json.dumps(rep))
except Exception as ex:
print("onnx export/parity failed:", ex)
with open(os.path.join(RESULTS_DIR, "onnx.json"), "w") as f:
json.dump({"error": str(ex)}, f, indent=2)
print("onnx done")
# ─── optional capacity/pretraining ceiling (brief §13) ──────────────────────
# Trigger: tiny1 clearly improved over from-scratch on in-pool but missed the
# LOFO boundary. tiny2 is the same 3-layer 312-hidden BERT family; it tests
# whether a *newer, larger-vocab* pretraining of the same family generalises
# where tiny1 failed — disambiguating "this family is the wrong prior" from a
# one-off pretraining. It cannot test capacity (same depth/size).
MODEL2_DIR = ("/tmp/mvn-s20/hf-tiny2-cache/models--cointegrated--rubert-tiny2/"
"snapshots/e8ed3b0c8bbf4fb6984c3de043bf7d2f4e5969ae")
MODEL2_SHA = "e8ed3b0c8bbf4fb6984c3de043bf7d2f4e5969ae"
CEIL_RESULTS = os.path.join(RESULTS_DIR, "tiny2")
def cmd_ceiling(args):
import torch
os.makedirs(CEIL_RESULTS, exist_ok=True)
os.makedirs(os.path.join(CEIL_RESULTS, "models"), exist_ok=True)
tok = AutoTokenizer.from_pretrained(MODEL2_DIR)
rows = s19.load_dev()
y = np.array([r["y"] for r in rows])
tags = [r["tags"] for r in rows]
folds = np.array([r["cv_fold"] for r in rows])
pairs = s19.build_pairs(rows, [r["text_strip"] for r in rows])
# audit: is the tiny2 tokenizer sane on the corpus before anything else
n_unk = 0
n_tok = 0
lens = []
for r in rows:
e = tok(r["text_orig"])
n_unk += e["input_ids"].count(tok.unk_token_id)
n_tok += len(e["input_ids"])
lens.append(len(e["input_ids"]))
audit = {"vocab_size": tok.vocab_size,
"unk_count": int(n_unk),
"unk_rate": round(n_unk / max(n_tok, 1), 5),
"seq_len_p99": sorted(lens)[int(len(lens) * .99)],
"seq_len_max": max(lens)}
with open(os.path.join(CEIL_RESULTS, "audit.json"), "w") as f:
json.dump(audit, f, indent=2)
print("tiny2 audit:", audit)
# tokenize the corpus (regime A only — natural text, the in-pool best)
ids_a, attn_a = tokenize([r["text_orig"] for r in rows], tok)
ev = {v: tokenize([r[f"text_{v}"] for r in rows], tok) for v in VIEWS}
def make2():
cfg = AutoConfig.from_pretrained(MODEL2_DIR)
cfg.num_labels = 1
m = BertForSequenceClassification.from_pretrained(MODEL2_DIR, config=cfg)
return m
# cap-Q LOFO, 3 seeds, matching the A@2e-5 tiny1 config
lfors = []
src = np.where(np.array(["capability_question" not in t for t in tags]))[0]
tgt = np.where(np.array(["capability_question" in t for t in tags]))[0]
for seed in SEEDS:
t_idx, v_idx = _val_split(src, y, seed + 7)
net, ep, best_pr, _ = train_model(ids_a, attn_a, y, t_idx, v_idx, 2e-5, seed, builder=make2)
p = predict_proba(net, ids_a, attn_a, tgt)
yt = y[tgt]
lfors.append({"regime": "A(tiny2)", "lr": 2e-5, "seed": seed,
"rows": int(len(tgt)), "epochs": ep,
"mean_action_proba": float(np.mean(p)),
"acc": float(((p >= 0.5) == (yt == 1)).mean()),
"FA": int(((p >= 0.5) & (yt == 0)).sum()),
"FA_rate": float(((p >= 0.5) & (yt == 0)).mean())})
with open(os.path.join(CEIL_RESULTS, "lfo.json"), "w") as f:
json.dump(lfors, f, indent=2)
print("tiny2 LOFO:", [round(l["FA_rate"], 3) for l in lfors])
# grouped CV for the same best config + in-pool pairs / capQ
oof = {v: np.zeros(len(rows)) for v in VIEWS}
for fold in range(5):
tr = np.where(folds != fold)[0]
te = np.where(folds == fold)[0]
t_idx, v_idx = _val_split(tr, y, 42 + 100 * fold)
net, _, _, _ = train_model(ids_a, attn_a, y, t_idx, v_idx, 2e-5, 42 + fold, builder=make2)
for v in VIEWS:
oof[v][te] = predict_proba(net, *ev[v], te)
inpool = {"strip": s19.binary_metrics(y, oof["strip"]),
"pairs": {v: s19.pair_metrics(pairs, oof[v]) for v in VIEWS},
"capQ_inpool": {v: s19.capq_fa(tags, y, oof[v]) for v in VIEWS}}
with open(os.path.join(CEIL_RESULTS, "grouped.json"), "w") as f:
json.dump(inpool, f, indent=2, default=str)
b = inpool["strip"]
print(f"tiny2 grouped A@2e-5: PR={b['PR_AUC']:.3f} P={b['P']:.3f} R={b['R']:.3f} "
f"FA={b['FA']} pairs_strip={inpool['pairs']['strip']['ordering_acc']:.3f} "
f"capQ_strip={inpool['capQ_inpool']['strip']:.3f}", flush=True)
print("ceiling done")
def main():
ap = argparse.ArgumentParser()
ap.add_argument("cmd", choices=["pre", "grouped", "lfo", "metrics", "runtime", "onnx", "ceiling"])
args = ap.parse_args()
t0 = time.time()
globals()[f"cmd_{args.cmd}"](args)
print(f"elapsed {time.time()-t0:.1f}s")
if __name__ == "__main__":
main()
@@ -0,0 +1,95 @@
package main
// Fixture is one brief-specified utterance and the eligibility it must earn.
// Fixtures are EXACTLY the slice-21 brief examples plus the corpus-verified
// structural discriminators. They are eval material, not corpus additions:
// nothing here is inserted into any pool file (brief §2, §18).
type Fixture struct {
Utterance string
Want Eligibility
Family string
Note string
}
// Fixtures covers every family the brief's §15 list exercises, including the
// four that have no dev-pool rows at all (negation, reported_speech,
// quotation, hypothetical):
//
// direct imperative already plural in dev; fixtures pin the canonical
// cases together with the politeness-negative modal.
// polite request polite imperative + bare "можешь …, пожалуйста".
// modal request "можно …", English "can you …, please".
// first-person request "я хочу …", "мне нужно …", "надо …".
// reordered target "свет выключи, пожалуйста" (target-first command).
// capability question ты/умеешь/сможешь/способна + "… ли" permission.
// ordinary question "что запущено" — no execution pressure.
// negation "не выключай свет" (parser-covered); advisory "не
// надо выключать свет".
// reported speech past/third-person report verbs over a command.
// quotation quoted command, with and without a reporting frame.
// hypothetical если-scopes that are not real condition→command.
var Fixtures = []Fixture{
// negation — direct commands the prosecutor forbids
{"не выключай свет", Blocked, "negation", "direct prohibition"},
{"не перезапускай сервер", Blocked, "negation", "direct prohibition"},
{"не включай nginx", Blocked, "negation", "direct prohibition"},
{"не надо выключать свет", Blocked, "negation", "advisory negative"},
{"не стоит перезапускать nginx", Blocked, "negation", "advisory negative"},
{"не забудь напомнить про свет", Permissive, "negation", "prohibition-parser reminder exemption"},
// reported speech — reports an order, does not issue one
{"он сказал выключить свет", Blocked, "reported_speech", "past report verb + infinitive"},
{"она попросила перезапустить nginx", Blocked, "reported_speech", "past report verb + infinitive"},
{"мне сказали включить свет", Blocked, "reported_speech", "passive report + infinitive"},
{"он написал: «перезапусти nginx»", Blocked, "reported_speech", "report verb + quoted imperative"},
{"скажи мне, что он сказал про свет", Permissive, "reported_speech", "request to report, no commanded clause"},
{"расскажи про свет", Permissive, "reported_speech", "narrative request, not a reported order"},
// quotation — quoted text is referenced, not issued
{"фраза «выключи свет»", Blocked, "quotation", "reporting noun + quoted imperative"},
{"он сказал «выключи свет»", Blocked, "quotation", "report verb + quoted imperative"},
{"«выключи свет»", Ambiguous, "quotation", "bare quoted command, no frame"},
{"выключи свет", Permissive, "quotation", "unquoted imperative is a live command"},
// hypothetical
{"если выключить свет...", Blocked, "hypothetical", "conditional + infinitive + ellipsis"},
{"если бы перезапустить nginx...", Blocked, "hypothetical", "conditional + бы + infinitive"},
{"что будет если выключить свет", Blocked, "hypothetical", "question-scoped conditional"},
{"если будет дождь, выключи полив", Permissive, "hypothetical", "real condition → imperative"},
{"выключи свет если будет дождь", Permissive, "hypothetical", "imperative → real condition"},
// capability question — blocked even polite
{"ты можешь выключить свет?", Blocked, "capability_question", "ты + можешь + ?"},
{"ты можешь выключить свет", Blocked, "capability_question", "ты + можешь, no ?"},
{"ты можешь выключить свет, пожалуйста", Blocked, "capability_question", "ты + можешь + politeness (42/42 non-action)"},
{"умеешь ли ты выключить свет", Blocked, "capability_question", "ability form + ли"},
{"сможешь открыть окно, пожалуйста", Blocked, "capability_question", "bare future + politeness (7/7 non-action)"},
{"ты способна выключить свет", Blocked, "capability_question", "ты + способна"},
{"могу ли я выключить свет", Blocked, "capability_question", "first-person can + ли"},
{"можно ли выключить свет", Blocked, "capability_question", "можно + ли permission question"},
{"ты выключишь свет?", Ambiguous, "capability_question", "future tense + ? without can-form"},
// modal / polite requests — permissive
{"можешь выключить свет, пожалуйста", Permissive, "modal_request", "bare можешь + politeness (127/127 action)"},
{"пожалуйста, выключи свет", Permissive, "polite_request", "leading politeness + imperative"},
{"выключи свет, пожалуйста", Permissive, "polite_request", "imperative + trailing politeness"},
{"выключи свет", Permissive, "direct_imperative", "plain imperative"},
{"свет выключи, пожалуйста", Permissive, "reordered_target", "target-first imperative"},
{"can you выключи свет, please", Permissive, "modal_request", "English frame + Russian imperative + please (96/96 action)"},
{"can you выключи свет", Ambiguous, "modal_request", "English can without politeness"},
{"не мог бы ты выключить свет", Permissive, "polite_request", "conditional politeness, prohibition-parser exemption"},
{"можно выключить свет", Permissive, "modal_request", "можно + infinitive permission-implicature request"},
// first-person requests
{"я хочу выключить свет", Permissive, "first_person_request", "first-person + illocution"},
{"я хочу чтобы ты выключил свет", Permissive, "first_person_request", "first-person + embedded ya-you wish"},
{"надо выключить свет", Permissive, "first_person_request", "impersonal need"},
{"мне нужно включить свет", Permissive, "first_person_request", "first-person oblique + need"},
// ordinary questions — no execution pressure even when answerable
{"что запущено", Ambiguous, "question", "status question, no request evidence"},
{"какие службы работают", Ambiguous, "question", "question, no request evidence"},
{"сколько ламп включено", Ambiguous, "question", "question, no request evidence"},
{"что ты можешь включить", Blocked, "capability_question", "open question with ты + можешь"},
{"покажи что запущено", Permissive, "first_person_request", "imperative lead over a status question"},
}
@@ -0,0 +1,659 @@
// Guard is the slice-21 deterministic execution-frame engine (experiment-only).
//
// It answers one question: given an utterance, what is its execution-frame
// eligibility as a three-way gate — permissive, blocked, ambiguous — and why.
// It never decides what an utterance IS (that stays with the route classifier);
// it only decides whether an utterance may become an executable action at all.
// The policy is asymmetric on purpose: blocked and ambiguous must never
// execute, and permissive only means "no blocking speech-act evidence exists",
// not "execute this".
//
// It reuses the shipped deterministic routers rather than inventing new ones:
//
// router.ParseCommandProhibition / IsCommandProhibition direct negative commands
// morph.IsVerbForm / morph.Lemma verb mood and finiteness
// lexicon.IsFillerParticle / FirstPerson() politeness and first-person frames
//
// Everything else is closed-class evidence measured on the frozen slice-20 dev
// pool (§"measured discriminators" in the brief): 126 capability-question rows
// split 42/42/42 across ты-addressed, bare ability (умеешь), and bare future
// (сможешь) modality; 127 bare "можешь, пожалуйста" rows are 100% action;
// "can you … , please" (English frame + Russian imperative) is 100% action.
// The rules below are the encoding of precisely those numbers.
//
// The reason vocabulary is a closed set. Additions are design decisions that
// must land in the report, not silent new branches.
package main
import (
"strings"
"unicode"
"github.com/kami/maven/internal/lexicon"
"github.com/kami/maven/internal/morph"
"github.com/kami/maven/internal/router"
)
// Eligibility is the three-way execution-frame verdict.
type Eligibility int
const (
Permissive Eligibility = iota // no blocking speech-act evidence; downstream route decides
Blocked // a speech act forbids execution (negation, question, report, …)
Ambiguous // not enough evidence either way; must not execute
)
func (e Eligibility) String() string {
switch e {
case Permissive:
return "permissive"
case Blocked:
return "blocked"
default:
return "ambiguous"
}
}
// Reason is a closed set of structural explanations for a verdict.
type Reason string
const (
ReasonCommandProhibition Reason = "command_prohibition"
ReasonCapabilityQuestion Reason = "capability_question"
ReasonReportedSpeech Reason = "reported_speech"
ReasonQuotation Reason = "quotation"
ReasonHypothetical Reason = "hypothetical"
ReasonNegatedCommand Reason = "negated_command"
ReasonExplicitRequest Reason = "explicit_request"
ReasonAmbiguousModal Reason = "ambiguous_modal"
ReasonNoRequestEvidence Reason = "no_request_evidence"
)
func (r Reason) String() string { return string(r) }
// Frame is the verdict for one utterance. Eligibility decides; Reasons explain.
// A frame may carry more than one reason (e.g. a quoted reported command).
type Frame struct {
Eligibility Eligibility
Reasons []Reason
}
// maybeWord is a single-token or multi-token closed expression, e.g. the
// token "не мог бы" covers the three tokens не мog бы when matched as a
// contiguous run ("бы" is itself a bound marker). Multi-token members are
// matched over the reconstructed token text, never over raw text, so
// punctuation boundaries do not defeat them.
type maybeWord struct {
single []string
multi []string // matched as contiguous lowercased token runs
}
func (w maybeWord) in(toks []string, joined string) bool {
if hasAny(toks, w.single) {
return true
}
for _, m := range w.multi {
tm := strings.Join(tokens(m), " ")
if tm != "" && strings.Contains(joined, tm) {
return true
}
}
return false
}
// ── closed evidence sets (all measured on the slice-20 dev pool) ──────────
// wakeAddr is stripped from the left of an utterance before command-form
// detection: "мавен, выключи свет" and "выключи свет" must ride the same
// frame. Closed: the names Maven answers to in the dev pool.
var wakeAddr = []string{"мавен", "maven", "мавэн", "алекса", "алиса", "окей", "эй", "hey"}
// ruAddress are the second-person Russian address tokens. "ты можешь …"
// (with or without politeness) is 42/42 capability-question in the dev pool,
// so any addressed Russian can-form is a capability question, never a request.
var ruAddress = []string{"ты", "тебе", "тебя", "тобой", "тобою", "вы", "вас", "вам", "вами"}
// enAddress is the English second-person address. Unlike Russian, "can you …
// , please" is 96/96 action in the dev pool (English modal frame around a
// Russian imperative), so English address alone never blocks: it routes to the
// politeness arm.
var enAddress = []string{"you", "u", "your"}
// ruCanForms are the present-can verb forms. Bare (no address) "можешь …,
// пожалуйста" is 127/127 action; bare "можешь …" with no politeness is the
// ambiguous bucket (no such rows exist in dev — conservative default).
var ruCanForms = []string{"можешь", "можете", "могу", "можем"}
// ruAbilityForms are future/ability modal forms that read as a question of
// capability regardless of politeness: "сможешь открыть окно, пожалуйста" and
// "умеешь ли ты …" are 0/84 action in the dev pool, so even a polite bare
// form never grants execution. "мог(ла) бы …" and "смог(ла) бы …" are the
// conditional-politeness mask over the same boundary — except the leading
// politeness construction "не мог бы ты …", which the prohibition parser
// already classifies as ordinary modal politeness and must stay permissive.
var ruAbilityForms = maybeWord{
single: []string{
"сможешь", "сможете", "смогу", "сможем", "сумеешь", "сумеете",
"умеешь", "умеете", "способна", "способен", "способно", "способны",
"смог", "смогла", "смогли", "мог", "могла", "могли",
},
multi: []string{
"смог бы", "смогла бы", "смогли бы", "мог бы", "могла бы", "могли бы",
"смочь бы", "мочь бы",
},
}
// politeNegativeModal is the leading "не мог бы ты/вы …" politeness framing the
// prohibition parser exempts as ordinary modal politeness. When it leads the
// utterance the capability stage declines and the frame reads as a request.
var politeNegativeModal = []string{
"не мог бы", "не могла бы", "не могли бы", "не смог бы", "не смогла бы", "не смогли бы",
}
// enCanForms are the English modal can/could tokens.
var enCanForms = []string{"can", "could"}
// politeness is the closed set of politeness fillers. пожалуйста/плиз/please
// are already closed-class filler particles in the lexicon; the добр-forms
// are the only additions the dev pool exercises.
var politeness = maybeWord{
single: []string{"пожалуйста", "плиз", "please"},
multi: []string{"будь добр", "будьте добры", "был бы добр", "были бы добры"},
}
// reportVerbs are the past/third-person report verbs — the frame that reports
// a command rather than issuing it. Second-person imperatives ("скажи",
// "расскажи", "напомни") are deliberately absent: those are requests to
// report, and their clause forms part of the current utterance, not a
// replayed order. Matched as closed list (a report verb outside it is a data
// gap, noted in the report).
var reportVerbs = []string{
"сказал", "сказала", "сказали", "говорил", "говорила", "говорили",
"говорит", "говорят", "попросил", "попросила", "попросили",
"просил", "просила", "просили", "написал", "написала", "написали",
"пишет", "приказал", "приказала", "приказали", "велел", "велела",
"велели", "скомандовал", "скомандовала", "рекомендовал", "рекомендовала",
"посоветовал", "посоветовала", "сообщил", "сообщила", "сообщили",
"объявил", "объявила", "велено", "сказано", "написано", "записано",
}
// reportNouns name a quoted or reported text: "фраза «выключи свет»" is a
// quotation, not a command.
var reportNouns = []string{
"фраза", "фразы", "фразе", "фразу", "слово", "слова", "слове", "словом",
"выражение", "выражения", "цитата", "цитату", "цитате",
"название", "текст", "сообщение", "письмо", "заметка", "заметку",
}
// hypothesisMarkers open a conditional scope.
var hypothesisMarkers = []string{"если", "ежели", "коли", "кабы", "if"}
// illocutionVerbs make a first-person or impersonal clause a request even
// without an imperative form ("я хочу …", "мне нужно …", "надо …").
var illocutionVerbs = maybeWord{
single: []string{
"хочу", "хотел", "хотела", "хотелось", "желаю", "прошу", "просим",
"просил", "просила", "просили", "попросить",
"надо", "нужно", "следует", "пора", "требуется", "придётся", "придется",
"могу", "давай", "давайте",
},
multi: []string{
"хотел бы", "хотела бы", "хочу чтобы", "хотел чтобы", "хотела чтобы",
"могу ли",
},
}
// ── token helpers ─────────────────────────────────────────────────────────
// tokens lowercases and splits on anything that is not a letter or digit,
// matching the router's planTokens discipline ("что-дальше" tokenises like
// "что дальше").
func tokens(text string) []string {
return strings.FieldsFunc(strings.ToLower(text), func(r rune) bool {
return !unicode.IsLetter(r) && !unicode.IsDigit(r)
})
}
func hasTok(toks []string, w string) bool {
for _, t := range toks {
if t == w {
return true
}
}
return false
}
func hasAny(toks, ws []string) bool {
for _, w := range ws {
if hasTok(toks, w) {
return true
}
}
return false
}
func indexTok(toks []string, w string) int {
for i, t := range toks {
if t == w {
return i
}
}
return -1
}
// isFiniteVerb reports a verb form that is not the dictionary (infinitive)
// form: "выключи" is finite, "выключить" is not. A finite verb at command
// position is positive request evidence; an infinitive is not.
func isFiniteVerb(tok string) bool {
if !morph.IsVerbForm(tok) {
return false
}
return morph.Lemma(tok) != tok
}
// isInfinitive reports a token that morph resolves to its own dictionary form
// (the lemma ends in the infinitive ending by construction).
func isInfinitive(tok string) bool {
if !morph.IsVerbForm(tok) {
return false
}
return morph.Lemma(tok) == tok
}
func anyInfinitive(toks []string) bool {
for _, t := range toks {
if isInfinitive(t) {
return true
}
}
return false
}
func anyFiniteVerb(toks []string) bool {
for _, t := range toks {
if isFiniteVerb(t) {
return true
}
}
return false
}
func hasAnyVerb(toks []string) bool {
for _, t := range toks {
if morph.IsVerbForm(t) {
return true
}
}
return false
}
func blocked(rs ...Reason) Frame { return Frame{Eligibility: Blocked, Reasons: rs} }
func ambiguous(rs ...Reason) Frame {
return Frame{Eligibility: Ambiguous, Reasons: rs}
}
func permissive(rs ...Reason) Frame {
return Frame{Eligibility: Permissive, Reasons: rs}
}
// ── quoted spans ─────────────────────────────────────────────────────────
// quotedSpan is a maximal quoted interval in the normalized text.
type quotedSpan struct{ content string }
// quotePairs covers the quoting styles the dev pool and brief fixtures use:
// Russian guillemets, curly double/single quotes, and straight quotes.
var quotePairs = []struct{ open, close string }{
{"«", "»"}, {"„", "\""}, {"“", "”"}, {"", ""}, {"", ""}, {"'", "'"}, {"\"", "\""},
}
// extractQuotedSpans returns the contents of quoted spans in order, in rune
// index space (the text is normalized, so glyphs are single runes). An
// unbalanced delimiter yields no span (best-effort; the conservative
// fallback then applies).
func extractQuotedSpans(t string) []quotedSpan {
runes := []rune(t)
var out []quotedSpan
i := 0
for i < len(runes) {
matched := false
for _, p := range quotePairs {
po := []rune(p.open)
pc := []rune(p.close)
if i+len(po) > len(runes) || string(runes[i:i+len(po)]) != p.open {
continue
}
j := i + len(po)
for j+len(pc) <= len(runes) && string(runes[j:j+len(pc)]) != p.close {
j++
}
out = append(out, quotedSpan{content: string(runes[i+len(po) : j])})
i = j + len(pc)
matched = true
break
}
if !matched {
i++
}
}
return out
}
// ── rule stages (evaluated in this order; a decision is final) ────────────
// Evaluate derives the execution-frame verdict for one utterance.
func Evaluate(text string) Frame {
t := router.NormalizeMatchText(text)
if strings.TrimSpace(t) == "" {
return ambiguous(ReasonNoRequestEvidence)
}
toks := tokens(t)
joined := strings.Join(toks, " ")
// 1. Quotation: a command inside a quoted span is not a command being
// issued now. With a reporting frame outside it is a quotation; a bare
// quote is at best ambiguous.
if f, ok := stageQuotation(t, toks, joined); ok {
return f
}
// 2. Reported speech: a past/third-person report verb governing a command
// clause reports an order to someone else, it does not issue one.
if f, ok := stageReport(t, toks, joined); ok {
return f
}
// 3. Hypothetical: a command scope opened by "если/if" that does not
// continue as a real condition→command is not an execution request.
if f, ok := stageHypothesis(toks, joined); ok {
return f
}
// 4. Direct negative commands: the shipped prohibition parser.
if router.IsCommandProhibition(t) {
return blocked(ReasonCommandProhibition)
}
// 5. Advisory negatives: "не надо/не стоит/не нужно …".
if f, ok := stageAdvisoryNegation(toks); ok {
return f
}
// 6. Capability and permission modality (the measured core).
if f, ok := stageCapability(toks, joined); ok {
return f
}
// 7. Trailing question mark with no modal at play: an uncertain posture,
// never a confirmed executable request.
if strings.HasSuffix(t, "?") {
return ambiguous(ReasonAmbiguousModal)
}
// 8. Positive request evidence.
if hasRequestEvidence(toks, joined) {
return permissive(ReasonExplicitRequest)
}
// 9. No execution pressure at all.
return ambiguous(ReasonNoRequestEvidence)
}
// stageQuotation blocks a quoted command when a reporting frame surrounds it.
func stageQuotation(t string, toks []string, joined string) (Frame, bool) {
spans := extractQuotedSpans(t)
if len(spans) == 0 {
return Frame{}, false
}
commandSpan := false
for _, sp := range spans {
if isCommandishWithin(tokens(sp.content), strings.Join(tokens(sp.content), " ")) {
commandSpan = true
break
}
}
if !commandSpan {
return Frame{}, false
}
reasons := []Reason{ReasonQuotation}
if hasReportFrame(toks, joined) {
reasons = append(reasons, ReasonReportedSpeech)
return Frame{Eligibility: Blocked, Reasons: reasons}, true
}
// a bare quoted command has no reporting frame: refusable but not a
// definite prohibition either (it is at least ambiguous)
return Frame{Eligibility: Ambiguous, Reasons: reasons}, true
}
// isCommandishWithin reports the span content carrying command or capability
// polarity itself — imperative, prohibition, or a can-form.
func isCommandishWithin(toks []string, joined string) bool {
if len(toks) == 0 {
return false
}
if router.IsCommandProhibition(strings.Join(toks, " ")) {
return true
}
if hasAny(toks, ruCanForms) || ruAbilityForms.in(toks, joined) || hasAny(toks, enCanForms) {
return true
}
return anyFiniteVerb(toks)
}
func hasReportFrame(toks []string, joined string) bool {
if hasAny(toks, reportVerbs) {
return true
}
return hasAny(toks, reportNouns)
}
// stageReport blocks when a report frame governs a command clause: an
// infinitive after the report verb, or a quoted imperative. Second-person
// imperatives like "скажи/расскажи" are not in reportVerbs, so a request to
// report ("расскажи мне, что сказал папа") passes through.
func stageReport(t string, toks []string, joined string) (Frame, bool) {
if !hasReportFrame(toks, joined) {
return Frame{}, false
}
last := -1
for i, w := range toks {
if hasTok(reportVerbs, w) || hasTok(reportNouns, w) {
last = i
}
}
if last < 0 {
return Frame{}, false
}
after := toks[last+1:]
if len(after) == 0 {
return Frame{}, false
}
// a quoted command after the frame counts as the governed clause
for _, sp := range extractQuotedSpans(t) {
if isCommandishWithin(tokens(sp.content), strings.Join(tokens(sp.content), " ")) {
return blocked(ReasonReportedSpeech, ReasonQuotation), true
}
}
if anyInfinitive(after) || hasAny(after, []string{"что", "чтобы", "чтоб"}) {
return blocked(ReasonReportedSpeech), true
}
return Frame{}, false
}
// stageHypothesis blocks a conditional scope whose clauses are hypothetical
// (infinitive or subjunctive "бы") rather than a real condition→command.
// "если будет дождь, выключи полив" keeps its imperative continuation and
// passes through; it is a real conditional request, not a hypothetical.
func stageHypothesis(toks []string, joined string) (Frame, bool) {
idx := -1
for _, m := range hypothesisMarkers {
if i := indexTok(toks, m); i >= 0 && (idx < 0 || i < idx) {
idx = i
}
}
if idx < 0 {
return Frame{}, false
}
post := toks[idx+1:]
if len(post) == 0 || hasTok(post, "бы") || anyInfinitive(post) {
return blocked(ReasonHypothetical), true
}
// a real condition clause is not hypothetical: «если будет дождь,
// выключи полив» is a request. The dev dict does not cover «будет», so
// the imperative is looked for anywhere, not just after the marker
// («выключи свет, если будет дождь»).
if !anyFiniteVerb(toks) {
return blocked(ReasonHypothetical), true
}
return permissive(ReasonExplicitRequest), true
}
// stageAdvisoryNegation blocks "не надо/не нужно/не стоит/не следует …".
// (absent from the dev pool; covered by brief fixtures)
func stageAdvisoryNegation(toks []string) (Frame, bool) {
if len(toks) < 3 || toks[0] != "не" {
return Frame{}, false
}
if !hasTok(toks[1:2], "надо") && !hasTok(toks[1:2], "нужно") &&
!hasTok(toks[1:2], "стоит") && !hasTok(toks[1:2], "следует") &&
!hasTok(toks[1:2], "требуется") {
return Frame{}, false
}
rest := toks[2:]
if anyInfinitive(rest) || anyFiniteVerb(rest) || hasAnyVerb(rest) {
return blocked(ReasonNegatedCommand), true
}
return Frame{}, false
}
// stageCapability encodes the measured modal matrix. Returns a decision when
// modality alone settles the frame.
func stageCapability(toks []string, joined string) (Frame, bool) {
// "не мог бы ты …, пожалуйста" style conditional politeness is ordinary
// modal politeness (the prohibition parser exempts it as such): a request.
for _, pref := range politeNegativeModal {
if strings.HasPrefix(joined, pref) {
return permissive(ReasonExplicitRequest), true
}
}
// "… ли" directly after a can-form is a polar capability question:
// "могу ли я …", "можешь ли ты …", "умеешь ли ты …", "можно ли …".
// Checked before the modality arms so the polar reading wins.
if hasTok(toks, "ли") {
for i := 1; i < len(toks); i++ {
if toks[i] != "ли" {
continue
}
prev := toks[i-1]
if hasTok(ruCanForms, prev) || prev == "можно" || hasTok(ruAbilityForms.single, prev) {
return blocked(ReasonCapabilityQuestion), true
}
}
}
ruAddr := hasAny(toks, ruAddress)
ruCan := hasAny(toks, ruCanForms)
ruAbil := ruAbilityForms.in(toks, joined)
enCan := hasAny(toks, enCanForms)
polite := politeness.in(toks, joined)
// addressed Russian can-form: capability question, always blocked.
// ("ты можешь выключить свет, пожалуйста" included — 42/42 non-action.)
if ruAddr && (ruCan || ruAbil) {
return blocked(ReasonCapabilityQuestion), true
}
// ability forms (future/conditional/умеешь) are capability even bare and
// even polite: "сможешь открыть окно, пожалуйста" is 7/7 non-action.
if ruAbil && !ruCan {
return blocked(ReasonCapabilityQuestion), true
}
// bare Russian present can-form: politeness is the request marker.
if ruCan && !ruAddr {
if polite {
return Frame{}, false // modal-request positive evidence is found later
}
return ambiguous(ReasonAmbiguousModal), true
}
// English can/could: "can you …, please" is a request (96/96 action in the
// dev pool; the frame wraps a Russian imperative). Without politeness it
// reads as a capability question and stays ambiguous.
if enCan && !ruAddr {
if polite {
return Frame{}, false // positive modal-request evidence later
}
return ambiguous(ReasonAmbiguousModal), true
}
// "можно" (permission): "можно ли …" is a permission question; a bare
// "можно …" is a politeness-implicature request.
if hasTok(toks, "можно") {
if hasTok(toks, "ли") {
return blocked(ReasonCapabilityQuestion), true
}
return Frame{}, false
}
// bare "могу": a self-capability statement, not a request.
if hasTok(toks, "могу") && !hasTok(toks, "ли") {
return ambiguous(ReasonAmbiguousModal), true
}
return Frame{}, false
}
// hasRequestEvidence is the positive permissive trigger, reached only after
// every block/ambiguity stage above has declined.
func hasRequestEvidence(toks []string, joined string) bool {
polite := politeness.in(toks, joined)
enCan := hasAny(toks, enCanForms)
// 1. politeness + a verb (or an English modal) is explicit request
// evidence: "можешь выключить свет, пожалуйста", "can you останови …,
// please", "выключи свет, пожалуйста".
if polite && (hasAnyVerb(toks) || enCan) {
return true
}
// 2. first-person illocution frame: "я хочу …", "мне нужно …".
if hasAny(toks, lexicon.FirstPerson()) && illocutionVerbs.in(toks, joined) {
return true
}
// 3. impersonal need: "надо …", "нужно …", "пора …".
if hasAny(toks, []string{"надо", "нужно", "следует", "пора", "требуется", "придётся", "придется"}) {
return true
}
// 4. permission-implicature request: "можно выключить свет".
if hasTok(toks, "можно") && !hasTok(toks, "ли") {
return true
}
// 5. reminder request in the parser's own exemption scope: the
// prohibition parser declines «не забудь напомнить про свет» as a
// reminder, not a prohibition — carry that into a request.
if strings.HasPrefix(joined, "не забудь") && hasAny(toks, lexicon.ReminderVerbs()) {
return true
}
// 6. leading finite verb (imperative or otherwise tensed verb at command
// position): "выключи свет", "покажи что запущено". Address and filler
// particles are stripped first, so "мавен, выключи свет" rides the same
// frame.
lead := toks
for len(lead) > 0 {
first := lead[0]
if !lexicon.IsFillerParticle(first) && !hasTok(wakeAddr, first) && !hasTok(ruAddress, first) {
break
}
lead = lead[1:]
}
if len(lead) > 0 && isFiniteVerb(lead[0]) {
return true
}
return false
}
@@ -0,0 +1,139 @@
package main
import (
"encoding/json"
"os"
"strings"
"testing"
"github.com/kami/maven/internal/morph"
)
func TestEvaluateFixtures(t *testing.T) {
for _, fx := range Fixtures {
got := Evaluate(fx.Utterance)
if got.Eligibility != fx.Want {
t.Errorf("%s: want %s got %s (reasons %v)", fx.Utterance, fx.Want, got.Eligibility, got.Reasons)
}
}
}
// TestMeasuredDiscriminators pins the corpus-verified numbers on the frozen
// pool. These are the exact measurements the rules were built on, so a change
// that moves them is a rule regression visible in the slice.
func loadPool(t *testing.T) []Row {
t.Helper()
b, err := os.ReadFile("/tmp/mvn-s21/pool.json")
if os.IsNotExist(err) {
t.Skip("pool.json missing; run slice21_emit.py first")
}
if err != nil {
t.Fatal(err)
}
var rows []Row
if err := json.Unmarshal(b, &rows); err != nil {
t.Fatal(err)
}
return rows
}
func TestDevCapabilityProhibition(t *testing.T) {
if !morph.Available() {
t.Skip("morph dict unavailable")
}
rows := loadPool(t)
var n, pass, blockedN, ambig int
for _, r := range rows {
if !hasTok(r.Tags, "capability_question") {
continue
}
n++
switch Evaluate(variants(r.NText)[vOrig]).Eligibility {
case Permissive:
pass++
case Blocked:
blockedN++
case Ambiguous:
ambig++
}
}
if n != 126 {
t.Fatalf("capability-question rows = %d, want 126", n)
}
if pass != 0 {
t.Fatalf("capability-question dangerous pass = %d, want 0", pass)
}
if blockedN != 126 && ambig != 0 {
t.Errorf("blocked=%d ambig=%d, expect all 126 blocked", blockedN, ambig)
}
}
func TestDevBareCanPoliteIsAction(t *testing.T) {
if !morph.Available() {
t.Skip("morph dict unavailable")
}
rows := loadPool(t)
total, action, perm := 0, 0, 0
for _, r := range rows {
toks := tokens(r.NText)
if !hasTok(toks, "можешь") || hasAny(toks, ruAddress) ||
hasAny(toks, append([]string{}, ruAbilityForms.single...)) {
continue
}
total++
if r.Route == "action" {
action++
}
if Evaluate(r.NText).Eligibility == Permissive {
perm++
}
}
if total != 127 || action != 127 {
t.Fatalf("bare-можешь+polite: n=%d action=%d, want 127/127", total, action)
}
if perm != 127 {
t.Fatalf("bare-можешь+polite permissive=%d, want 127", perm)
}
}
func TestDevEnglishCanPoliteIsAction(t *testing.T) {
if !morph.Available() {
t.Skip("morph dict unavailable")
}
rows := loadPool(t)
total, action, perm := 0, 0, 0
for _, r := range rows {
toks := tokens(r.NText)
if !hasAny(toks, enCanForms) {
continue
}
total++
if r.Route == "action" {
action++
}
if Evaluate(r.NText).Eligibility == Permissive {
perm++
}
}
if total != 96 || action != 96 {
t.Fatalf("can-rows: n=%d action=%d, want 96/96", total, action)
}
if perm != 96 {
t.Fatalf("can-rows permissive=%d, want 96", perm)
}
}
func TestNoPermissiveRowEndsInQuestion(t *testing.T) {
// asymmetric posture: the guard must never approve a trailing-? frame --
// the corpus has 0 action rows ending in "?", and approving any would
// bet on punctuation the slice has ruled uncertain.
rows := loadPool(t)
for _, r := range rows {
if !strings.HasSuffix(r.NText, "?") {
continue
}
if got := Evaluate(r.NText).Eligibility; got == Permissive {
t.Errorf("canonical '?': %q approved (%s)", r.Text, got)
}
}
}
@@ -0,0 +1,566 @@
// Slice 21 runner: report the deterministic execution-frame guard against the
// frozen slice-20 dev pool.
//
// Reads the emit step's compact files (pool.json, pairs.json, sparse_oof.json
// in /tmp/mvn-s21) and prints the report tables plus a machine-readable
// guard_results.json. Reuses router/morph/lexicon parsers live inside this
// module — the pool texts are the only data, no embedding is recomputed.
//
// Usage: go run ./cmd/semantic-router-experiment/slice21
package main
import (
"encoding/json"
"flag"
"fmt"
"os"
"regexp"
"sort"
"strings"
"unicode"
)
const sparseThreshold = 0.715 // slice-18 §4 strict operating point (P>=0.95 best recall)
var familyPriority = []string{
"capability_question", "question", "first_person_request",
"modal_request", "polite_request", "reordered_target", "direct_imperative",
}
func familyOf(tags []string) string {
for _, f := range familyPriority {
if hasTok(tags, f) {
return f
}
}
return "other"
}
// ── pool row ──────────────────────────────────────────────────────────────
type Row struct {
Idx int `json:"idx"`
Text string `json:"text"`
NText string `json:"n_text"`
Route string `json:"route"`
Y int `json:"y"`
Tags []string `json:"tags"`
CVFold int `json:"cv_fold"`
SplitGp string `json:"split_group"`
SourceID string `json:"source_id"`
Family string
VariantOf int
}
type Pair struct{ Cap, Act int }
// ── stress variants ───────────────────────────────────────────────────────
var nofinalRe = regexp.MustCompile(`[?.!,;:]+$`)
// strip_punct mirrors the slice-18/19 python strip_punct: trailing sentence
// punctuation, then every non-word/non-space rune.
func stripPunct(t string) string {
t = nofinalRe.ReplaceAllString(strings.TrimSpace(t), "")
out := make([]rune, 0, len(t))
var prevSpace bool
for _, r := range t {
if unicode.IsLetter(r) || unicode.IsNumber(r) {
out = append(out, r)
prevSpace = false
} else if !prevSpace {
out = append(out, ' ')
prevSpace = true
}
}
return strings.TrimSpace(string(out))
}
func variants(nText string) [3]string {
return [3]string{
nText,
nofinalRe.ReplaceAllString(strings.TrimSpace(nText), ""),
stripPunct(nText),
}
}
const (
vOrig = iota
vNofinal
vStrip
)
var variantName = [3]string{"orig", "nofinal", "strip"}
type result struct {
Frame Frame `json:"frame"`
}
// ── metrics ──────────────────────────────────────────────────────────────
type triTab struct {
Permissive, Blocked, Ambiguous int
PermNonact, BlockedAction, AmbAction int
}
type runAgg struct {
n, action, tp, fp, fn int
approved int
capPermissive int
}
func (a *runAgg) addApproved(approved bool, route string) {
a.n++
if route == "action" {
a.action++
}
if approved {
a.approved++
if route == "action" {
a.tp++
} else {
a.fp++
}
} else if route == "action" {
a.fn++
}
}
func (a *runAgg) P() string { return fmtPct(frac(a.tp, a.tp+a.fp)) }
func (a *runAgg) R() string { return fmtPct(frac(a.tp, a.action)) }
func (a *runAgg) FA() int { return a.fp }
func (a *runAgg) FArate() string {
return fmtPct(frac(a.fp, a.n))
}
func maxi(a, b int) int {
if a > b {
return a
}
return b
}
// frac is the guarded ratio the tables print (0/0 is 0).
func frac(num, den int) float64 { return float64(num) / float64(maxi(den, 1)) }
func fmtPct(v float64) string { return fmt.Sprintf("%.1f%%", 100*v) }
// ── main ─────────────────────────────────────────────────────────────────
func main() {
poolPath := flag.String("pool", "/tmp/mvn-s21/pool.json", "dev pool rows")
pairsPath := flag.String("pairs", "/tmp/mvn-s21/pairs.json", "cap-vs-action pairs")
sparsePath := flag.String("sparse", "/tmp/mvn-s21/sparse_oof.json", "slice-18 both OOF proba")
outPath := flag.String("out", "/tmp/mvn-s21/guard_results.json", "machine-readable results")
flag.Parse()
rows := mustLoad[[]Row](*poolPath)
// pairs.json is bare [cap, act] index pairs; adapt into typed pairs.
rawPairs := mustLoad[[][2]int](*pairsPath)
pairs := make([]Pair, 0, len(rawPairs))
for _, rp := range rawPairs {
pairs = append(pairs, Pair{Cap: rp[0], Act: rp[1]})
}
sparseOOF := mustLoad[[]struct {
Idx int `json:"idx"`
Proba float64 `json:"proba"`
}](*sparsePath)
proba := make([]float64, len(rows))
for _, s := range sparseOOF {
proba[s.Idx] = s.Proba
}
famPrio := 0
for i := range rows {
rows[i].Family = familyOf(rows[i].Tags)
if rows[i].Family != "other" {
famPrio++
}
}
_ = famPrio
// verdicts per variant
type rowRes struct {
Idx int `json:"idx"`
Text string `json:"text"`
Route string `json:"route"`
Family string `json:"family"`
Tags []string `json:"tags"`
Frames map[string]string `json:"frames"` // variant -> eligibility
}
perVariant := make([][3]Frame, len(rows))
fmt.Println("slice 21 — deterministic execution-frame guard on slice-20 dev pool")
fmt.Println("==================================================================")
for i, r := range rows {
vs := variants(r.NText)
var fr [3]Frame
for vi := 0; vi < 3; vi++ {
fr[vi] = Evaluate(vs[vi])
}
perVariant[i] = fr
}
// ── §3 three-way cross-tab (orig) ─────────────────────────────────────
fmt.Println("\n## 1. Three-way eligibility × route (orig)")
tab := triTab{}
for i, r := range rows {
switch perVariant[i][vOrig].Eligibility {
case Permissive:
tab.Permissive++
if r.Route != "action" {
tab.PermNonact++
}
case Blocked:
tab.Blocked++
if r.Route == "action" {
tab.BlockedAction++
}
case Ambiguous:
tab.Ambiguous++
if r.Route == "action" {
tab.AmbAction++
}
}
}
fmt.Printf("permissive: %d blocked: %d ambiguous: %d\n", tab.Permissive, tab.Blocked, tab.Ambiguous)
fmt.Printf(" permissive non-action: %d blocked action: %d ambiguous action: %d\n",
tab.PermNonact, tab.BlockedAction, tab.AmbAction)
// ── §4 binary executable-gate metrics on orig ─────────────────────────
fmt.Println("\n## 2. Binary executable gate (approve = permissive; deny = blocked|ambiguous)")
a := runAgg{}
capCov, capPerm, capAmb := 0, 0, 0
for i, r := range rows {
el := perVariant[i][vOrig].Eligibility
a.addApproved(el == Permissive, r.Route)
if hasTok(r.Tags, "capability_question") {
capCov++
switch el {
case Permissive:
capPerm++
case Ambiguous:
capAmb++
}
}
}
fmt.Printf("approved: %d denied: %d (n=%d, action=%d)\n", a.approved, a.n-a.approved, a.n, a.action)
fmt.Printf("action precision %s recall %s FA %d (%s)\n", a.P(), a.R(), a.FA(), a.FArate())
fmt.Printf("capability-question dangerous pass: %d / %d (rate %s)\n",
capPerm, capCov, fmtPct(frac(capPerm, capCov)))
fmt.Printf("capability-question blocked %d, ambiguous %d\n", capCov-capPerm-capAmb, capAmb)
// ── §15 family stress (orig) ──────────────────────────────────────────
fmt.Println("\n## 3. Family stress (orig; counts per eligibility)")
fmt.Printf("%-24s %8s %8s %8s %8s\n", "family", "n", "perm", "block", "ambig")
famOrder := []string{"direct_imperative", "polite_request", "modal_request", "first_person_request",
"reordered_target", "capability_question", "question", "other"}
famAgg := map[string]*triTab{}
for _, f := range famOrder {
famAgg[f] = &triTab{}
}
for i, r := range rows {
t := famAgg[r.Family]
if t == nil {
continue
}
switch perVariant[i][vOrig].Eligibility {
case Permissive:
t.Permissive++
if r.Route != "action" {
t.PermNonact++
}
case Blocked:
t.Blocked++
case Ambiguous:
t.Ambiguous++
}
}
for _, f := range famOrder {
t := famAgg[f]
if t == nil {
continue
}
n := t.Permissive + t.Blocked + t.Ambiguous
if n == 0 {
continue
}
fmt.Printf("%-24s %8d %8d %8d %8d\n", f, n, t.Permissive, t.Blocked, t.Ambiguous)
}
// ── §cap-Q LOFO across stress variants ────────────────────────────────
fmt.Println("\n## 4. Capability-question dangerous pass by stress variant")
for vi := 0; vi < 3; vi++ {
cp, cb, ca := 0, 0, 0
for i, r := range rows {
if !hasTok(r.Tags, "capability_question") {
continue
}
switch perVariant[i][vi].Eligibility {
case Permissive:
cp++
case Blocked:
cb++
case Ambiguous:
ca++
}
}
fmt.Printf(" %-8s dangerous-pass %d blocked %d ambiguous %d\n",
variantName[vi], cp, cb, ca)
}
// ── §pair test ────────────────────────────────────────────────────────
fmt.Println("\n## 5. Paired action/capability (cap row must never clear)")
capClear, actPerm, actAmbig, actBlock := 0, 0, 0, 0
for _, p := range pairs {
cel := perVariant[p.Cap][vOrig].Eligibility
ael := perVariant[p.Act][vOrig].Eligibility
if cel == Permissive {
capClear++
}
switch ael {
case Permissive:
actPerm++
case Ambiguous:
actAmbig++
case Blocked:
actBlock++
}
}
fmt.Printf("pairs %d: cap cleared %d (rate %s), action permissive %d, action ambiguous %d, action blocked %d\n",
len(pairs), capClear, fmtPct(frac(capClear, len(pairs))),
actPerm, actAmbig, actBlock)
// ── safe composition §17 ─────────────────────────────────────────────
fmt.Println("\n## 6. Composition: guard-alone / sparse-alone / guard→sparse (orig)")
compose := map[string]*runAgg{
"guard_alone": {},
"sparse_alone": {},
"guard_sparse": {},
}
for i, r := range rows {
gPerm := perVariant[i][vOrig].Eligibility == Permissive
sPerm := proba[i] >= sparseThreshold
compose["guard_alone"].addApproved(gPerm, r.Route)
compose["sparse_alone"].addApproved(sPerm, r.Route)
compose["guard_sparse"].addApproved(gPerm && sPerm, r.Route)
}
fmt.Printf("%-14s %8s %8s %6s %10s %6s %10s\n", "policy", "P", "R", "FA", "FA rate", "capQ", "capQ rate")
for _, name := range []string{"guard_alone", "sparse_alone", "guard_sparse"} {
agg := compose[name]
capQ := 0
for i, r := range rows {
if !hasTok(r.Tags, "capability_question") {
continue
}
ok := false
switch name {
case "guard_alone":
ok = perVariant[i][vOrig].Eligibility == Permissive
case "sparse_alone":
ok = proba[i] >= sparseThreshold
case "guard_sparse":
ok = perVariant[i][vOrig].Eligibility == Permissive && proba[i] >= sparseThreshold
}
if ok {
capQ++
}
}
fmt.Printf("%-14s %8s %8s %6d %10s %6d %10s\n", name, agg.P(), agg.R(), agg.FA(),
agg.FArate(), capQ, fmtPct(float64(capQ)/126))
}
// composition on strip too (brief §16 voice stress)
fmt.Println("\n## 7. Composition on punctuation-stripped text (strip)")
c2 := runAgg{}
capQ2 := 0
for i, r := range rows {
gPerm := perVariant[i][vStrip].Eligibility == Permissive
ok := gPerm && proba[i] >= sparseThreshold
c2.addApproved(ok, r.Route)
if hasTok(r.Tags, "capability_question") && ok {
capQ2++
}
}
fmt.Printf("guard→sparse strip: P %s R %s FA %d (%s) capQ pass %d\n",
c2.P(), c2.R(), c2.FA(), c2.FArate(), capQ2)
// ── §19 manual classification scratch ─────────────────────────────────
fmt.Println("\n## 8. Manual classification (scan material written to manual_class.json)")
var dangerous []map[string]any
var permNonact []map[string]any
var deniedAction []map[string]any
for i, r := range rows {
fr := perVariant[i][vOrig]
if hasTok(r.Tags, "capability_question") && fr.Eligibility == Permissive {
dangerous = append(dangerous, map[string]any{
"idx": r.Idx, "text": r.Text, "route": r.Route,
"reasons": fr.Reasons,
})
}
if fr.Eligibility == Permissive && r.Route != "action" {
permNonact = append(permNonact, map[string]any{
"idx": r.Idx, "text": r.Text, "route": r.Route,
"family": r.Family, "reasons": fr.Reasons,
})
}
if fr.Eligibility != Permissive && r.Route == "action" {
deniedAction = append(deniedAction, map[string]any{
"idx": r.Idx, "text": r.Text, "family": r.Family,
"eligibility": fr.Eligibility.String(), "reasons": fr.Reasons,
})
}
}
writeManual(permNonact, deniedAction, dangerous)
fmt.Printf("dangerous passes: %d permissive non-action: %d denied action: %d\n",
len(dangerous), len(permNonact), len(deniedAction))
groupAndSample("permissive non-action by reason+family", permNonact, 4)
groupAndSample("denied action by reason+family", deniedAction, 4)
// ── fixtures ──────────────────────────────────────────────────────────
fmt.Println("\n## 9. Brief fixtures")
pass := 0
for _, fx := range Fixtures {
got := Evaluate(fx.Utterance)
mark := "ok "
if got.Eligibility != fx.Want {
mark = "FAIL"
} else {
pass++
}
if got.Eligibility != fx.Want {
fmt.Printf(" %s %-14s want %-10s got %-10s %s\n", mark, fx.Family,
fx.Want, got.Eligibility.String(), fx.Utterance)
}
}
fmt.Printf("fixtures: %d/%d passed\n", pass, len(Fixtures))
// write result file
rr := make([]rowRes, 0, len(rows))
for i, r := range rows {
fr := [3]string{"", "", ""}
for vi := 0; vi < 3; vi++ {
fr[vi] = perVariant[i][vi].Eligibility.String()
}
rr = append(rr, rowRes{
Idx: r.Idx, Text: r.Text, Route: r.Route, Family: r.Family, Tags: r.Tags,
Frames: map[string]string{
"orig": fr[vOrig], "nofinal": fr[vNofinal], "strip": fr[vStrip],
},
})
}
if *outPath != "" {
mustSave(*outPath, map[string]any{
"pool": "/tmp/mvn-s21/pool.json",
"rows": rr,
"aggregates": map[string]any{
"tab": tab,
"capq_pass": capPerm,
"capq_blocked": capCov - capPerm - capAmb,
"capq_ambiguous": capAmb,
"binary": map[string]any{"tp": a.tp, "fp": a.fp, "fn": a.fn, "approved": a.approved, "n": a.n},
"pairs": map[string]any{"n": len(pairs), "cap_cleared": capClear, "act_permissive": actPerm},
"guard_sparse": map[string]any{"tp": compose["guard_sparse"].tp, "fp": compose["guard_sparse"].fp, "fn": compose["guard_sparse"].fn},
"dangerous_passes": len(dangerous),
"perm_nonact_count": len(permNonact),
"denied_action": len(deniedAction),
},
})
fmt.Println("wrote", *outPath)
}
}
// ── manual classification helpers ─────────────────────────────────────────
func writeManual(permNonact, deniedAction, dangerous []map[string]any) {
writeJSON("/tmp/mvn-s21/manual_class.json", map[string]any{
"dangerous_passes": dangerous,
"permissive_non_action": permNonact,
"denied_action": deniedAction,
})
}
func groupAndSample(title string, rows []map[string]any, sample int) {
type g struct {
key string
n int
texts []string
}
groups := map[string]*g{}
var order []string
for _, r := range rows {
var family, reason, el string
if v, ok := r["family"].(string); ok {
family = v
}
if v, ok := r["eligibility"].(string); ok {
el = v
}
if rs, ok := r["reasons"].([]Reason); ok {
rs2 := make([]string, len(rs))
for k, rr := range rs {
rs2[k] = rr.String()
}
reason = strings.Join(rs2, ",")
} else if rs, ok := r["reasons"].([]string); ok {
reason = strings.Join(rs, ",")
}
key := fmt.Sprintf("family=%s elig=%s reason=%s", family, el, reason)
if _, ok := groups[key]; !ok {
groups[key] = &g{key: key}
order = append(order, key)
}
groups[key].n++
if len(groups[key].texts) < sample {
groups[key].texts = append(groups[key].texts, firstN(fmt.Sprint(r["text"]), 60))
}
}
fmt.Printf("%s (%d rows):\n", title, len(rows))
for _, key := range order {
gr := groups[key]
fmt.Printf(" %-58s n=%d %s\n", gr.key, gr.n, strings.Join(gr.texts, " | "))
}
}
func firstN(s string, n int) string {
if len(s) <= n {
return s
}
return s[:n] + "…"
}
// ── io helpers ────────────────────────────────────────────────────────────
func mustLoad[T any](path string) T {
b, err := os.ReadFile(path)
if err != nil {
fmt.Fprintln(os.Stderr, err)
os.Exit(1)
}
var v T
if err := json.Unmarshal(b, &v); err != nil {
fmt.Fprintln(os.Stderr, "json:", err)
os.Exit(1)
}
return v
}
func mustSave(path string, v any) {
b, err := json.MarshalIndent(v, "", " ")
if err != nil {
fmt.Fprintln(os.Stderr, err)
os.Exit(1)
}
if err := os.WriteFile(path, b, 0o644); err != nil {
fmt.Fprintln(os.Stderr, err)
os.Exit(1)
}
}
func writeJSON(path string, v any) {
b, _ := json.MarshalIndent(v, "", " ")
_ = os.WriteFile(path, b, 0o644)
}
var _ = sort.Strings
@@ -0,0 +1,135 @@
#!/usr/bin/env python3
"""
Slice 21 emit: deterministic execution-frame guard — data files for the Go harness
==================================================================================
Slice 18 showed the sparse lexical gate owns the aggregate boundary (PR-AUC
0.838, strict operating point at threshold 0.715 with P>=0.95 | R=0.264) and
slice 19/20 showed learning heads collapse on capability-question LOFO. Slice 21
tests the deterministic alternative: a rule engine over existing parsers that
decides execution eligibility as a three-way gate (permissive / blocked /
ambiguous), never itself routing.
This script only repackages the frozen dev pool for the Go harness. It reuses
slice 18's feature builders and grouped-CV and slice 19's pair builder verbatim,
so the numbers the Go side reports are the same populations the accepts
measured. It writes:
/tmp/mvn-s21/pool.json dev rows: idx, text, n_text, route, y, tags,
cv_fold, split_group, source_id, family
/tmp/mvn-s21/pairs.json capability-vs-action pairs (slice-19 builder)
/tmp/mvn-s21/sparse_oof.json slice-18 "both" grouped-CV OOF proba per row
(for the §17 guard+sparse composition)
No training happens here and no label is changed. The guard itself is Go.
"""
import json
import os
import re
import sys
import numpy as np
HERE = os.path.dirname(os.path.abspath(__file__))
sys.path.insert(0, HERE)
import slice18_sparse # noqa: E402
import slice19_main # noqa: E402
OUT_DIR = "/tmp/mvn-s21"
SPARSE_THRESHOLD = 0.715 # slice-18 §4 strict-operating-point (P>=0.95 best recall)
def main():
# Population = the exact slice-20 dev pool (s19.load_dev): every dev_pool
# row, fast-path included. The guard is evaluated on what slice 20 measured.
meta, examples = slice18_sparse.load_data()
dev = slice18_sparse.filter_dev_pool(examples)
print(f"dev pool (all dev_pool rows): {len(dev)} rows")
print(f"corpus meta: {meta.get('dev_count', '?')} dev rows declared, "
f"{meta.get('route_counts', {}).get('action', '?')} action declared")
n_texts = [slice18_sparse.normalize_match_text(e["text"]) for e in dev]
rows = []
by_route = {}
by_family = {}
for i, (e, nt) in enumerate(zip(dev, n_texts)):
tags = sorted(set(e.get("tags", [])))
route = e["route"]
fam = slice19_main.family_of(set(tags))
by_route[route] = by_route.get(route, 0) + 1
by_family[fam] = by_family.get(fam, 0) + 1
rows.append({
"idx": i,
"text": e["text"],
"n_text": nt,
"route": route,
"y": 1 if route == "action" else 0,
"tags": tags,
"cv_fold": e["cv_fold"],
"split_group": e["split_group"],
"source_id": e["source_id"],
})
print("routes:", by_route)
print("families:", by_family)
# ── pairs (slice-19 builder, exact population) ─────────────────────────
ldev = [{
"text_orig": nt,
"route": r["route"],
"y": r["y"],
"cv_fold": r["cv_fold"],
"tags": set(r["tags"]),
"source_id": r["source_id"],
} for r, nt in zip(rows, n_texts)]
pairs = slice19_main.build_pairs(ldev, n_texts)
print(f"pairs: {len(pairs)}")
# ── slice-18 "both" grouped-CV OOF proba, aligned to row index ────────
y = [1 if r["route"] == "action" else 0 for r in rows]
folds = [r["cv_fold"] for r in rows]
X, _vec = slice18_sparse.build_features(n_texts, "both")
print(f"sparse 'both' X: {X.shape}")
yb = np.array(y)
folds_arr = np.array(folds)
idx_proba = {}
for te_fold in sorted(set(folds)):
tr = folds_arr != te_fold
te = folds_arr == te_fold
clf = slice18_sparse.LogisticRegression(
C=1.0, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yb[tr])
p = clf.predict_proba(X[te])[:, 1]
te_idx = np.where(te)[0]
for k, i in enumerate(te_idx):
idx_proba[int(i)] = float(p[k])
assert len(idx_proba) == len(rows)
sparse_oof = [{"idx": i, "proba": idx_proba[i]} for i in range(len(rows))]
pred = [1 if idx_proba[i] >= 0.5 else 0 for i in range(len(rows))]
tp = sum(1 for i in range(len(rows)) if y[i] == 1 and pred[i] == 1)
fp = sum(1 for i in range(len(rows)) if y[i] == 0 and pred[i] == 1)
fn = sum(1 for i in range(len(rows)) if y[i] == 1 and pred[i] == 0)
print(f"sparse both OOF @0.5: P={tp/max(tp+fp,1):.3f} R={tp/max(tp+fn,1):.3f} "
f"FA={fp} ({fp/len(rows):.4f})")
pred21 = [1 if idx_proba[i] >= SPARSE_THRESHOLD else 0 for i in range(len(rows))]
tp = sum(1 for i in range(len(rows)) if y[i] == 1 and pred21[i] == 1)
fp = sum(1 for i in range(len(rows)) if y[i] == 0 and pred21[i] == 1)
fn = sum(1 for i in range(len(rows)) if y[i] == 1 and pred21[i] == 0)
print(f"sparse both OOF @{SPARSE_THRESHOLD}: P={tp/max(tp+fp,1):.3f} "
f"R={tp/max(tp+fn,1):.3f} FA={fp} ({fp/len(rows):.4f})")
os.makedirs(OUT_DIR, exist_ok=True)
with open(os.path.join(OUT_DIR, "pool.json"), "w") as f:
json.dump(rows, f, ensure_ascii=False, indent=1)
with open(os.path.join(OUT_DIR, "pairs.json"), "w") as f:
json.dump([[c, a] for c, a in pairs], f)
with open(os.path.join(OUT_DIR, "sparse_oof.json"), "w") as f:
json.dump(sparse_oof, f)
print(f"wrote {OUT_DIR}/{{pool,pairs,sparse_oof}}.json")
if __name__ == "__main__":
main()
@@ -0,0 +1,65 @@
package main
import (
"fmt"
"os"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/router/semantic"
)
// headsMain runs the deployed cascade minus the resident LLM: stage-0
// grammars → routing heads (fine-tuned e5 copy + softmax, router_heads.onnx,
// 0.6 decline threshold) → ONNX-embedder nearest-centroid classifier →
// 0.55 confidence gate. This is what a production turn takes when the model
// server is out (docs/routing.md: pickLLMRouter degrades to the classifier).
//
// The classifier is seeded from models/seeds like the daemon's seedClassifier,
// embedded with the real multilingual-e5-small model rather than the block
// hash, so this is the closest headless reproduction of the authoritative
// router output the slice-22 report can run.
//
// Requires the ONNX model files and a libonnxruntime.so. Pass the library via
// the MAVEN_ONNX_LIB environment variable, exactly as the daemon does.
func headsMain(poolPath, outPath string) {
lib := os.Getenv("MAVEN_ONNX_LIB")
if lib == "" {
fmt.Fprintln(os.Stderr, "heads mode needs MAVEN_ONNX_LIB pointing at libonnxruntime.so")
os.Exit(2)
}
const (
embedModel = "models/embedder/multilingual-e5-small/model_quantized.onnx"
tokPath = "models/embedder/multilingual-e5-small/tokenizer.json"
headsModel = "models/embedder/router-heads/router_heads.onnx"
)
emb, err := router.NewONNXEmbedder(embedModel, tokPath, lib)
if err != nil {
fmt.Fprintf(os.Stderr, "heads: embedder: %v\n", err)
os.Exit(1)
}
defer emb.Close()
cls := router.NewClassifier(emb)
seedClassifier(cls)
heads, err := router.NewRouterHeads(headsModel, tokPath)
if err != nil {
fmt.Fprintf(os.Stderr, "heads: %v\n", err)
os.Exit(1)
}
defer heads.Close()
acts := router.DefaultActMatcher{Fns: semantic.ExperimentActVerbs()}
r := router.New(router.Config{
Grammars: router.StageZeroGrammars(acts),
Classifier: cls,
Extractor: router.Extractor{
Time: router.StubDateTimeParser{},
Acts: acts,
Facts: router.DefaultFactParser{},
},
Threshold: 0.55,
Heads: heads,
})
runOverPool(r, poolPath, outPath)
}
@@ -0,0 +1,87 @@
package main
import (
"bufio"
"context"
"log"
"os"
"path/filepath"
"sort"
"strings"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/router/semantic"
)
// Seed loading replicated from cmd/mavend/voicewire.go (seedClassifier) and
// internal/router/semantic/helpers_test.go, which build the same classifier
// from models/seeds/<intent>.txt. The daemon and the eval fixture must agree
// on the seeds; so must a measurement.
const seedDir = "models/seeds"
var seedIntents = []router.Intent{
router.IntentAct, router.IntentReminder, router.IntentFact,
router.IntentNote, router.IntentQuery, router.IntentChat, router.IntentSystem,
}
// buildMinimalRouter reproduces internal/router/semantic/buildMinimalRouter:
// the daemon's grammar set, a hash-embedder classifier seeded from
// models/seeds, and the deployed 0.55 threshold. Deterministic and
// reproducible. The ONNX embedder and the routing heads score elsewhere;
// this is the floor the eval fixture reports as the legacy baseline.
func buildMinimalRouter() *router.Router {
acts := router.DefaultActMatcher{Fns: semantic.ExperimentActVerbs()}
cls := router.NewClassifier(router.NewHashEmbedder(1024))
seedClassifier(cls)
return router.New(router.Config{
Grammars: router.StageZeroGrammars(acts),
Classifier: cls,
Extractor: router.Extractor{
Time: router.StubDateTimeParser{},
Acts: acts,
Facts: router.DefaultFactParser{},
},
Threshold: 0.55,
})
}
func seedClassifier(c *router.Classifier) {
// Walk up to find models/seeds like the daemon's seedPath, so the program
// can run from any depth of the repo tree.
dir := seedDir
for i := 0; i < 5; i++ {
if st, err := os.Stat(dir); err == nil && st.IsDir() {
break
}
dir = filepath.Join("..", dir)
}
ctx := context.Background()
total := 0
for _, intent := range seedIntents {
path := filepath.Join(dir, string(intent)+".txt")
f, err := os.Open(path)
if err != nil {
log.Printf("legacy: open seed %s: %v", path, err)
continue
}
sc := bufio.NewScanner(f)
lines := []string{}
for sc.Scan() {
line := strings.TrimSpace(sc.Text())
if line == "" || strings.HasPrefix(line, "#") {
continue
}
lines = append(lines, line)
}
f.Close()
sort.Strings(lines)
for _, line := range lines {
if err := c.AddExample(ctx, intent, line); err != nil {
log.Printf("legacy: seed %s %q: %v", intent, line, err)
continue
}
total++
}
}
log.Printf("legacy: loaded %d seed examples from %s", total, dir)
}
@@ -0,0 +1,192 @@
package main
import (
"bufio"
"context"
"encoding/json"
"flag"
"fmt"
"os"
"time"
"github.com/kami/maven/internal/router"
)
// Legacy-baseline runner for slice 22: run the actual router cascade (stage 0
// grammars → hash-embedder nearest-centroid classifier → 0.55 confidence gate)
// over the frozen residual non-action dev pool and project each decision into
// the five-way non-action semantic space.
//
// Projection rules (the daemon's behaviour, not just ScoreLegacy's):
// - route error → uncertain
// - Clarify=true (stage 3) → uncertain: the daemon asks, it does not commit
// to a semantic bucket
// - chat/query/fact+note/system → conversation/knowledge/memory_write/system
// - act/reminder on a trusted non-action row → class "action" recorded
// VERBATIM with illegal_action_prediction=true; never mapped to uncertain
// - anything else → uncertain
//
// Reads /tmp/mvn-s22/pool.json (emit step) and writes /tmp/mvn-s22/legacy.json
// with both the raw decision fields and the projected class, plus a summary
// printout. No embedding is recomputed and no label is changed.
type poolRow struct {
IDX int `json:"idx"`
Text string `json:"text"`
NText string `json:"n_text"`
Route string `json:"route"`
Tags []string `json:"tags"`
CVFold int `json:"cv_fold"`
SplitGroup string `json:"split_group"`
FamilyID string `json:"family_id"`
SourceID string `json:"source_id"`
}
type legacyRow struct {
IDX int `json:"idx"`
Text string `json:"text"`
Route string `json:"route"`
Intent string `json:"intent"`
Class string `json:"class"`
Illegal bool `json:"illegal_action_prediction"`
Confidence float64 `json:"confidence"`
Stage int `json:"stage"`
Clarify bool `json:"clarify"`
Producer string `json:"producer"`
Error string `json:"error,omitempty"`
SourceID string `json:"source_id"`
}
func main() {
var mode, poolPath, outPath string
flag.StringVar(&mode, "mode", "legacy", "baseline mode: legacy (hash classifier) or heads (ONNX cascade minus LLM)")
flag.StringVar(&poolPath, "pool", "/tmp/mvn-s22/pool.json", "emit-step pool.json")
flag.StringVar(&outPath, "out", "/tmp/mvn-s22/legacy.json", "output path")
flag.Parse()
switch mode {
case "legacy":
legacyMain(poolPath, outPath)
case "heads":
headsMain(poolPath, outPath)
default:
fmt.Fprintf(os.Stderr, "unknown -mode %q\n", mode)
os.Exit(2)
}
}
func legacyMain(poolPath, outPath string) {
runOverPool(buildMinimalRouter(), poolPath, outPath)
}
func runOverPool(r *router.Router, poolPath, outPath string) {
raw, err := os.ReadFile(poolPath)
if err != nil {
fmt.Fprintln(os.Stderr, err)
os.Exit(1)
}
var rows []poolRow
if err := json.Unmarshal(raw, &rows); err != nil {
fmt.Fprintln(os.Stderr, err)
os.Exit(1)
}
ctx := context.Background()
now := time.Now()
out := make([]legacyRow, 0, len(rows))
classCount := map[string]int{}
for _, pr := range rows {
d, err := r.Route(ctx, router.NormalizedInput{Text: pr.Text}, now)
lr := legacyRow{
IDX: pr.IDX,
Text: pr.Text,
Route: pr.Route,
SourceID: pr.SourceID,
}
if err != nil {
lr.Class = "uncertain"
lr.Error = err.Error()
} else {
lr.Intent = string(d.Intent)
lr.Confidence = d.Confidence
lr.Stage = d.Stage
lr.Clarify = d.Clarify
lr.Producer = string(d.Producer)
}
lr.Class, lr.Illegal = project(d, err)
classCount[lr.Class]++
out = append(out, lr)
}
if err := writeJSON(outPath, out); err != nil {
fmt.Fprintln(os.Stderr, err)
os.Exit(1)
}
fmt.Printf("legacy baseline over %d residual non-action rows:\n", len(out))
for _, c := range []string{"conversation", "knowledge", "memory_write", "system", "uncertain", "action"} {
fmt.Printf(" %-14s %d (%.1f%%)\n", c, classCount[c], 100*float64(classCount[c])/float64(len(out)))
}
fmt.Printf(" illegal_action_prediction: %d\n", classCount["action"])
// Grammar hits inside a corpus-residual population would be a
// corpus/harness disagreement worth telling the report about: the corpus
// marked each row not-fast-path-resolved, so a current stage-0 rule
// resolving it means the corpus's fast-path mirror is stale or a grammar
// landed after the corpus froze.
gh := 0
ghByRoute := map[string]int{}
ghByIntent := map[string]int{}
for _, lr := range out {
if lr.Producer == string(router.RouteProducerGrammar) {
gh++
ghByRoute[lr.Route]++
ghByIntent[lr.Intent]++
}
}
fmt.Printf(" stage-0 grammar hits: %d\n", gh)
if gh > 0 {
fmt.Printf(" by ground-truth route: %v\n", ghByRoute)
fmt.Printf(" by grammar intent: %v\n", ghByIntent)
}
}
// project maps the router's authoritative output into the five-way non-action
// space, or to the "action" bucket verbatim when the router calls an act or a
// reminder on a non-action row.
func project(d router.Decision, err error) (string, bool) {
if err != nil {
return "uncertain", false
}
if d.Clarify {
return "uncertain", false
}
switch d.Intent {
case router.IntentChat:
return "conversation", false
case router.IntentQuery:
return "knowledge", false
case router.IntentFact, router.IntentNote:
return "memory_write", false
case router.IntentSystem:
return "system", false
case router.IntentAct, router.IntentReminder:
return "action", true
default:
return "uncertain", false
}
}
func writeJSON(path string, v any) error {
fh, err := os.Create(path)
if err != nil {
return err
}
defer fh.Close()
w := bufio.NewWriter(fh)
enc := json.NewEncoder(w)
enc.SetIndent("", " ")
if err := enc.Encode(v); err != nil {
return err
}
return w.Flush()
}
@@ -0,0 +1,114 @@
#!/usr/bin/env python3
"""
Slice 22 emit: five-way residual non-action semantic router — data files
========================================================================
Slice 21 accepted the deterministic execution-frame guard (docs/evals/
2026-09-07-execution-frame-guard.md). Slice 22 returns to the coarse non-action
router that the guard hands to: after TryFastPath misses and the guard passes,
the remaining utterance is one of five non-action semantics — conversation,
knowledge, memory_write, system, uncertain. Action rows never reach this
router; they are usable only as out-of-domain probes, never in primary metrics.
This script only repackages the frozen dev pool for the Go legacy baseline and
the Python experiment. It reuses slice 18's loader/filters and slice 19's
normalizers verbatim, so the population here is the same one slices 18-21
measured. It writes:
/tmp/mvn-s22/pool.json residual non-action dev rows: idx, text, n_text,
route, tags, cv_fold, split_group, family_id,
source_id (1652 rows)
/tmp/mvn-s22/ood.json residual ACTION dev rows (766): same shape; OOD
probes only, never primary metrics
/tmp/mvn-s22/stats.json population summary (routes, families, folds)
idx is the row's position among dev_pool rows in dev-pool order, so the Python
experiment can align the embedding vectors from /tmp/mvn-experiment/embeddings.json
by index exactly as slice19.load_dev does.
No training happens here and no label is changed.
Population (verified 2026-09-08 from the frozen file):
dev_pool 2490
dev residual 2418 (= dev_pool minus fast_path_resolved)
residual non-action 1652 knowledge 715 / memory_write 553 / system 184 /
uncertain 107 / conversation 93
residual action 766 (OOD probes only)
"""
import json
import os
import sys
HERE = os.path.dirname(os.path.abspath(__file__))
sys.path.insert(0, HERE)
import slice18_sparse # noqa: E402 (normalize_match_text, load_data, filters)
OUT_DIR = "/tmp/mvn-s22"
ROUTES = ["conversation", "knowledge", "memory_write", "system", "uncertain"]
def main():
meta, examples = slice18_sparse.load_data()
dev = slice18_sparse.filter_dev_pool(examples)
print(f"dev pool: {len(dev)} rows "
f"(meta declares dev_count={meta.get('dev_count')})")
rows = []
for i, e in enumerate(dev):
if not e["fast_path_resolved"]:
rows.append({
"idx": i,
"text": e["text"],
"n_text": slice18_sparse.normalize_match_text(e["text"]),
"route": e["route"],
"tags": sorted(set(e.get("tags", []))),
"cv_fold": e["cv_fold"],
"split_group": e["split_group"],
"family_id": e["family_id"],
"source_id": e["source_id"],
})
na = [r for r in rows if r["route"] != "action"]
ood = [r for r in rows if r["route"] == "action"]
print(f"residual rows: {len(rows)} non-action: {len(na)} action(OOD): {len(ood)}")
by_route = {}
for r in na:
by_route[r["route"]] = by_route.get(r["route"], 0) + 1
print("routes:", by_route)
assert sum(by_route.values()) == len(na)
assert set(ROUTES) == set(by_route), "route set must be the five-way"
by_family = {}
for r in na:
by_family[r["family_id"]] = by_family.get(r["family_id"], 0) + 1
by_fold = {}
for r in na:
by_fold[r["cv_fold"]] = by_fold.get(r["cv_fold"], 0) + 1
print(f"family_ids: {len(by_family)} split_groups: {len(set(r['split_group'] for r in na))}")
print("folds:", by_fold)
os.makedirs(OUT_DIR, exist_ok=True)
with open(os.path.join(OUT_DIR, "pool.json"), "w") as f:
json.dump(na, f, ensure_ascii=False, indent=1)
with open(os.path.join(OUT_DIR, "ood.json"), "w") as f:
json.dump(ood, f, ensure_ascii=False, indent=1)
with open(os.path.join(OUT_DIR, "stats.json"), "w") as f:
json.dump({
"dev_count": len(dev),
"residual_count": len(rows),
"non_action_count": len(na),
"action_ood_count": len(ood),
"routes": by_route,
"family_ids": len(by_family),
"folds": by_fold,
"top_family": dict(sorted(by_family.items(), key=lambda kv: -kv[1])[:15]),
}, f, ensure_ascii=False, indent=1)
print(f"wrote {OUT_DIR}/{{pool,ood,stats}}.json")
if __name__ == "__main__":
main()
@@ -0,0 +1,560 @@
#!/usr/bin/env python3
"""
Slice 22: five-way residual non-action semantic router (experiment)
==================================================================
After TryFastPath misses and the ExecutionFrameGuard passes, the residual
utterance is one of five non-action semantics: conversation, knowledge,
memory_write, system, uncertain. This measures whether the deployed e5-small
embeddings (384-d, query-prefixed, mean-pooled, L2, frozen) fed to a linear
softmax head suffice, and how they compare to the legacy router, to floors,
and to the deployed routing heads.
Population: the frozen dev-pool residual non-action rows (1652; the pool
written by slice22_emit.py). Action rows (766) are out-of-domain probes only.
Metrics written to /tmp/mvn-s22/results.json:
§1 population
§2 legacy baseline (legacy.json / legacy_heads.json): acc, macro-F1,
per-class P/R/F1, confusion, illegal_action_prediction count
§3 e5-linear primary head: C grid, grouped CV OOF, per-fold P/R/F1 +
variance + composition
§4 floors: majority, centroid (cosine nearest-mean), sparse word+char
TF-IDF logistic (slice18 builder), all grouped CV
§5 route-family (family_id) leave-family-out
§6 knowledge vs memory_write: matched pairs (water/homelab/task) ordering
§7 uncertain as an explicit class: P/R/F1 + top confusions
§8 OOF confidence: max-softmax correct/wrong, ECE, log-loss, Brier,
coverage/accuracy/macro-F1 abstention curves (no threshold chosen)
§9 action OOD probes: fold models applied to the 766 action rows
§10 artifact cost: head params, serialized bytes, incremental head latency
No corpus label is changed. No frozen-holdout rows are inspected.
"""
import json
import os
import sys
import time
import numpy as np
HERE = os.path.dirname(os.path.abspath(__file__))
sys.path.insert(0, HERE)
import slice18_sparse # noqa: E402
import slice19_main # noqa: E402
EMB_PATH = "/tmp/mvn-experiment/embeddings.json"
OUT_DIR = "/tmp/mvn-s22"
CLASSES = ["conversation", "knowledge", "memory_write", "system", "uncertain"]
CLASS_PREFIX = ["conversation", "knowledge", "memory_write", "system", "uncertain"]
C_GRID = [0.1, 1.0, 10.0]
# Route-family holdouts the report calls out by name (slice-22 brief): every
# family that is not part of the shared subject inventory on either side.
HOLDOUT_GROUPS = {
"capability": ["knowledge:capability-ha", "knowledge:capability-tool"],
"world": ["knowledge:world-def", "knowledge:world-explain"],
"calendar": ["knowledge:calendar", "knowledge:calendar-time", "knowledge:calendar-next"],
"recall": ["knowledge:recall-fact", "knowledge:recall-note", "knowledge:recall-possessive"],
"fact": ["fact:meal", "fact:water", "fact:sleep", "fact:shower", "fact:break", "fact:pills", "fact:exercise"],
"note": ["note:idea", "note:homelab", "note:task"],
"remember": ["free:remember"],
"system": None, # all system:*
"conversation": None,
"uncertain": None,
}
def load_pool_and_embeds():
with open(os.path.join(OUT_DIR, "pool.json")) as f:
pool = json.load(f)
meta, examples = slice18_sparse.load_data()
dev = slice18_sparse.filter_dev_pool(examples)
by_idx = {e["dev_idx"]: e for e in dev} if "dev_idx" in dev[0] else None
# pool rows carry idx = position among dev_pool rows in dev order
emb_by_idx = {i: np.asarray(e["embedding"], dtype=np.float64)
for i, e in enumerate(dev)}
for r in pool:
r["emb"] = emb_by_idx[r["idx"]]
r["y"] = r["route"]
return pool, meta
def oof_proba_grouped(X, y, folds, C=1.0):
"""Grouped OOF probability matrix (n×5, class order CLASSES)."""
y_idx = np.array([CLASSES.index(c) for c in y])
folds = np.asarray(folds)
proba = np.zeros((len(y_idx), len(CLASSES)))
for te_fold in sorted(set(folds.tolist())):
tr = folds != te_fold
te = folds == te_fold
clf = slice18_sparse.LogisticRegression(
C=C, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], y_idx[tr])
proba[te] = clf.predict_proba(X[te])
return proba
def cls_metrics(yt, yp):
import sklearn.metrics as m
yt = np.asarray(yt)
yp = np.asarray(yp)
if yt.dtype != np.int64 and yt.dtype != np.int32:
yt = np.array([CLASSES.index(c) for c in yt])
if yp.dtype != np.int64 and yp.dtype != np.int32:
yp = np.array([CLASSES.index(c) for c in yp])
labels = list(range(len(CLASSES)))
n = len(yt)
acc = m.accuracy_score(yt, yp)
macro = m.f1_score(yt, yp, average="macro", labels=labels, zero_division=0)
pr, rc, f1, sup = m.precision_recall_fscore_support(
yt, yp, labels=labels, zero_division=0)
per = {c: {"p": float(pr[i]), "r": float(rc[i]), "f1": float(f1[i]), "n": int(sup[i])}
for i, c in enumerate(CLASSES)}
conf = m.confusion_matrix(yt, yp, labels=labels).tolist()
return {"n": n, "acc": acc, "macro_f1": macro, "per_class": per, "confusion": conf}
def fold_report(yt, proba, folds, true_y):
out = {}
folds_arr = np.asarray(folds)
comp = {}
for f in sorted(set(folds_arr.tolist())):
mask = folds_arr == f
yt_f = [CLASSES.index(y) for y in true_y[mask]]
comp[f] = {c: int((np.array(true_y[mask]) == c).sum()) for c in CLASSES}
per_fold = {}
for f in sorted(set(folds_arr.tolist())):
mask = folds_arr == f
yp = proba[mask].argmax(1).tolist()
m = cls_metrics([yt[i] for i in np.where(mask)[0].tolist()], yp)
per_fold[f] = {"acc": m["acc"], "macro_f1": m["macro_f1"]}
out["composition"] = comp
out["per_fold"] = per_fold
accs = [v["acc"] for v in per_fold.values()]
macros = [v["macro_f1"] for v in per_fold.values()]
out["acc_mean"] = float(np.mean(accs))
out["acc_std"] = float(np.std(accs))
out["macro_f1_mean"] = float(np.mean(macros))
out["macro_f1_std"] = float(np.std(macros))
return out
def ece(yt, proba, n_bins=15):
conf = proba.max(1)
pred = proba.argmax(1)
acc = (pred == yt).astype(float)
bins = np.linspace(0, 1, n_bins + 1)
tot = 0.0
details = []
counts = 0
for i in range(n_bins):
lo, hi = bins[i], bins[i + 1]
m = (conf >= lo) & (conf < hi) if i < n_bins - 1 else conf >= lo
if m.sum() == 0:
continue
acc_m = acc[m].mean()
conf_m = conf[m].mean()
w = m.sum() / len(conf)
tot += w * abs(acc_m - conf_m)
counts += int(m.sum())
details.append({"bin": i, "lo": lo, "hi": hi, "conf": float(conf_m),
"acc": float(acc_m), "n": int(m.sum())})
return {"ece": float(tot), "n_bins": n_bins, "counted": counts, "bins": details}
def main():
pool, meta = load_pool_and_embeds()
pool.sort(key=lambda r: r["idx"])
print(f"pool: {len(pool)} rows")
from sklearn.metrics import brier_score_loss, log_loss
report = {"population": {}, "legacy": {}, "e5_linear": {}, "floors": {},
"family_holdouts": {}, "kmw": {}, "uncertain": {}, "confidence": {},
"ood": {}, "artifact": {}}
# ── §1 population ──────────────────────────────────────────────────────
cnt = {}
for r in pool:
cnt[r["y"]] = cnt.get(r["y"], 0) + 1
report["population"] = {
"n": len(pool),
"routes": cnt,
"family_ids": len(set(r["family_id"] for r in pool)),
"split_groups": len(set(r["split_group"] for r in pool)),
"folds": {str(f): int(sum(1 for r in pool if r["cv_fold"] == f)) for f in sorted(set(r["cv_fold"] for r in pool))},
"corpus": {k: v for k, v in meta.items() if k in
("dev_count", "residual_count", "fast_path_count",
"dimension", "embedder_id", "input_template", "pooling", "normalization")},
}
print("\n§1 population:", report["population"])
X = np.vstack([r["emb"] for r in pool])
y = np.array([r["y"] for r in pool])
folds = np.array([r["cv_fold"] for r in pool])
yt = np.array([CLASSES.index(c) for c in y])
# ── §2 legacy baselines ────────────────────────────────────────────────
import collections
for tag, fname in [("hash", "legacy.json"), ("heads", "legacy_heads.json")]:
path = os.path.join(OUT_DIR, fname)
if not os.path.exists(path):
continue
leg = json.load(open(path))
leg_by_idx = {r["idx"]: r for r in leg}
yp_leg = []
illegal = []
for r in pool:
lr = leg_by_idx[r["idx"]]
if lr["illegal_action_prediction"]:
illegal.append(lr)
yp_leg.append("action")
else:
yp_leg.append(lr["class"])
yp_leg = np.array(yp_leg)
# five-way: an 'action' prediction is an error (outside the label set)
yp5 = np.array([("uncertain" if p == "action" else p) for p in yp_leg])
m = cls_metrics(y, yp5)
m["illegal_action_prediction"] = len(illegal)
m["illegal_cases"] = [{"idx": i["idx"], "text": i["text"], "route": i["route"],
"intent": i["intent"], "producer": i["producer"],
"confidence": i["confidence"]} for i in illegal]
# per-cell confusion also shows 'action' column
conf_counts = collections.Counter(zip(y, yp_leg))
m["confusion_with_action"] = {f"{a}->{b}": int(c) for (a, b), c in conf_counts.items()}
report["legacy"][tag] = m
print(f"\n§2 legacy ({tag}) acc={m['acc']:.4f} macroF1={m['macro_f1']:.4f} "
f"illegal={len(illegal)}")
for c in CLASSES:
p = m["per_class"][c]
print(f" {c:<14} P={p['p']:.3f} R={p['r']:.3f} F1={p['f1']:.3f} n={p['n']}")
# grammar-pure residual: rows not resolved by any current stage-0 grammar
if os.path.exists(os.path.join(OUT_DIR, "legacy.json")):
leg = json.load(open(os.path.join(OUT_DIR, "legacy.json")))
gh = {r["idx"] for r in leg if r["producer"] == "grammar"}
gp_mask = np.array([r["idx"] not in gh for r in pool])
report["grammar_drift"] = {
"grammar_hits_in_pool": len(gh),
"grammar_pure_n": int(gp_mask.sum()),
}
# ── §3 e5-linear primary head ─────────────────────────────────────────
print("\n§3 e5-linear")
bestC, bestMac = 1.0, -1.0
grid = {}
for C in C_GRID:
p = oof_proba_grouped(X, y, folds, C=C)
mp = cls_metrics(y, p.argmax(1).tolist())
grid[float(C)] = {"acc": mp["acc"], "macro_f1": mp["macro_f1"]}
print(f" C={C} acc={mp['acc']:.4f} macroF1={mp['macro_f1']:.4f}")
if mp["macro_f1"] > bestMac:
bestMac, bestC = mp["macro_f1"], C
print(f" -> best C={bestC}")
p_best = oof_proba_grouped(X, y, folds, C=bestC)
m_best = cls_metrics(y, p_best.argmax(1).tolist())
m_best["C"] = bestC
m_best["C_grid"] = grid
m_best["folds"] = fold_report(yt, p_best, folds, y)
report["e5_linear"] = m_best
for f, v in m_best["folds"]["per_fold"].items():
print(f" fold {f}: acc={v['acc']:.4f} macroF1={v['macro_f1']:.4f}")
print(f" fold acc mean={m_best['folds']['acc_mean']:.4f} "
f"std={m_best['folds']['acc_std']:.4f}; "
f"macroF1 mean={m_best['folds']['macro_f1_mean']:.4f} "
f"std={m_best['folds']['macro_f1_std']:.4f}")
for c in CLASSES:
p_ = m_best["per_class"][c]
print(f" {c:<14} P={p_['p']:.3f} R={p_['r']:.3f} F1={p_['f1']:.3f} n={p_['n']}")
# grammar-pure sensitivity for the primary head
if "grammar_drift" in report:
mp_gp = cls_metrics(y[gp_mask], p_best[gp_mask].argmax(1).tolist())
report["e5_linear"]["grammar_pure"] = {
"acc": mp_gp["acc"], "macro_f1": mp_gp["macro_f1"], "n": int(gp_mask.sum())}
# ── §4 floors ─────────────────────────────────────────────────────────
print("\n§4 floors")
# majority floor
maj = CLASSES.index("knowledge")
ym = np.full(len(y), maj)
mm = cls_metrics(y, ym)
report["floors"]["majority"] = {"acc": mm["acc"], "macro_f1": mm["macro_f1"],
"per_class": mm["per_class"]}
print(f" majority (predict {CLASSES[maj]}): acc={mm['acc']:.4f} macroF1={mm['macro_f1']:.4f}")
# centroid floor: cosine to per-class mean of the training folds' embeddings
cf_proba = np.zeros((len(yt), len(CLASSES)))
folds_arr = np.asarray(folds)
for te_fold in sorted(set(folds_arr.tolist())):
tr = folds_arr != te_fold
te = folds_arr == te_fold
centroids = []
for c in CLASSES:
idxs = np.where(tr & (y == c))[0]
ctr = X[idxs].mean(axis=0)
ctr = ctr / np.linalg.norm(ctr)
centroids.append(ctr)
Cm = np.vstack(centroids)
sims = X[te] @ Cm.T
cf_proba[te] = sims
yc = cf_proba.argmax(1)
# accuracy + macroF1 with the same 5-way
mc = cls_metrics(y, yc.tolist())
report["floors"]["centroid"] = {"acc": mc["acc"], "macro_f1": mc["macro_f1"],
"per_class": mc["per_class"]}
print(f" centroid cosine: acc={mc['acc']:.4f} macroF1={mc['macro_f1']:.4f}")
# sparse word+char logistic (slice18 builder, grouped CV, five-way)
texts = [r["n_text"] for r in pool]
Xs, _vec = slice18_sparse.build_features(texts, "both")
psp = np.zeros((len(yt), len(CLASSES)))
for te_fold in sorted(set(folds_arr.tolist())):
tr = folds_arr != te_fold
te = folds_arr == te_fold
clf = slice18_sparse.LogisticRegression(
C=1.0, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(Xs[tr], yt[tr])
psp[te] = clf.predict_proba(Xs[te])
msp = cls_metrics(y, psp.argmax(1).tolist())
report["floors"]["sparse_word_char"] = {
"acc": msp["acc"], "macro_f1": msp["macro_f1"], "per_class": msp["per_class"],
"vocab": slice18_sparse.vocab_size(_vec)}
print(f" sparse both: acc={msp['acc']:.4f} macroF1={msp['macro_f1']:.4f} "
f"vocab={report['floors']['sparse_word_char']['vocab']}")
# ── §5 route-family holdouts ─────────────────────────────────────────
print("\n§5 route-family holdouts")
fam = np.array([r["family_id"] for r in pool])
holdouts = {}
all_fams = sorted(set(fam.tolist()))
for grp, fams in HOLDOUT_GROUPS.items():
if fams is None:
fams = [f for f in all_fams if f.startswith(grp + ":")]
mask = np.isin(fam, fams)
if mask.sum() == 0:
continue
tr = ~mask
clf = slice18_sparse.LogisticRegression(
C=bestC, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yt[tr])
ypgrp = clf.predict(X[mask])
m = cls_metrics([CLASSES.index(c) for c in y[mask]], ypgrp.tolist())
m["families"] = fams
m["rows"] = int(mask.sum())
holdouts[grp] = {"acc": m["acc"], "macro_f1": m["macro_f1"], "n": int(mask.sum()),
"per_class": m["per_class"]}
print(f" {grp:<14} n={m['rows']} acc={m['acc']:.4f} macroF1={m['macro_f1']:.4f}")
# full leave-one-family-out summary
lofo_accs = []
lofo_f1s = []
for f in all_fams:
mask = fam == f
tr = ~mask
clf = slice18_sparse.LogisticRegression(
C=bestC, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yt[tr])
ypf = clf.predict(X[mask])
m = cls_metrics([CLASSES.index(c) for c in y[mask]], ypf.tolist())
lofo_accs.append(m["acc"])
lofo_f1s.append(m["macro_f1"])
holdouts["_all_49_lo_"] = {"n_families": len(all_fams),
"acc_mean": float(np.mean(lofo_accs)),
"macro_f1_mean": float(np.mean(lofo_f1s))}
report["family_holdouts"] = holdouts
print(f" leave-one-family-out over {len(all_fams)} families: "
f"acc mean={np.mean(lofo_accs):.4f} macroF1 mean={np.mean(lofo_f1s):.4f}")
# ── §6 knowledge vs memory_write ─────────────────────────────────────
print("\n§6 knowledge vs memory_write")
# reuse e5-linear OOF: does the model put the higher probability on the
# right side (memory_write for a write, knowledge for a recall)?
conf_km = np.zeros((2, 2))
pk = p_best[:, CLASSES.index("knowledge")]
pmw = p_best[:, CLASSES.index("memory_write")]
for i in range(len(yt)):
t = y[i]
if t == "knowledge":
conf_km[0, 1 if pmw[i] > pk[i] else 0] += 1
elif t == "memory_write":
conf_km[1, 1 if pmw[i] >= pk[i] else 0] += 1
report["kmw"] = {"confusion_p_ordered": conf_km.tolist()}
# matched pairs with shared subject lexemes, corpus-justified
def build_pairs(subject, fam_k, fam_mw):
kr = [r for r in pool if r["family_id"] in fam_k]
mr = [r for r in pool if r["family_id"] in fam_mw]
pairs = []
for mw in mr:
for k in kr:
if subject in mw["n_text"] and subject in k["n_text"]:
pairs.append((mw["idx"], k["idx"], mw["n_text"], k["n_text"]))
return pairs
sets = {
"water": build_pairs("вод", ["knowledge:recall-fact"], ["fact:water"]),
"homelab": build_pairs("dns", ["knowledge:homelab-status"], ["note:homelab"])
+ build_pairs("сервер", ["knowledge:homelab-status"], ["note:homelab"])
+ build_pairs("vlan", ["knowledge:homelab-status"], ["note:homelab"]),
"task": build_pairs("задач", ["knowledge:task-check", "knowledge:deadline"],
["note:task"]),
}
idx_of = {r["idx"]: i for i, r in enumerate(pool)}
pair_rep = {}
for name, pairs in sets.items():
if not pairs:
continue
ok = 0
margins = []
bad = []
for mi, ki, mx, kx in pairs:
mi_i, ki_i = idx_of[mi], idx_of[ki]
# MW row should get a higher memory_write probability than the K row
mk = (pmw[mi_i] + 0.0)
if pmw[mi_i] > pmw[ki_i]:
ok += 1
else:
bad.append((mx[:46], round(float(pmw[mi_i]), 3), kx[:46], round(float(pmw[ki_i]), 3)))
margins.append(pmw[mi_i] - pmw[ki_i])
pair_rep[name] = {
"pairs": len(pairs),
"mw_over_k_order_acc": ok / len(pairs),
"mean_margin": float(np.mean(margins)),
"reversed_examples": bad[:6],
}
print(f" {name}: pairs={len(pairs)} order_acc={ok/len(pairs):.3f} "
f"mean_margin={np.mean(margins):+.3f}")
report["kmw"]["matched_pairs"] = pair_rep
# ── §7 uncertain as explicit class ────────────────────────────────────
print("\n§7 uncertain")
up = m_best["per_class"]["uncertain"]
uc = m_best["confusion"][CLASSES.index("uncertain")]
report["uncertain"] = {
"per_class": up,
"row_from_uncertain": {CLASSES[j]: int(uc[j]) for j in range(5)},
"row_to_uncertain": {CLASSES[j]: int(m_best["confusion"][j][CLASSES.index("uncertain")])
for j in range(5)},
}
print(f" uncertain n={up['n']} P={up['p']:.3f} R={up['r']:.3f} F1={up['f1']:.3f}")
print(" wrong-→label pulled from uncertain:", report["uncertain"]["row_from_uncertain"])
print(" →uncertain pulled from:", report["uncertain"]["row_to_uncertain"])
# ── §8 OOF confidence / calibration / abstention ─────────────────────
print("\n§8 confidence / calibration")
conf = p_best.max(1)
right = (p_best.argmax(1) == yt)
cer = {
"correct_conf_mean": float(conf[right].mean()),
"correct_conf_median": float(np.median(conf[right])),
"wrong_conf_mean": float(conf[~right].mean()),
"wrong_conf_median": float(np.median(conf[~right])),
"ece": ece(yt, p_best)["ece"],
"ece_bins": ece(yt, p_best)["bins"],
"log_loss": float(log_loss(yt, p_best, labels=[0, 1, 2, 3, 4])),
}
# Brier is label-set specific: one-vs-rest mean
briers = []
for i in range(5):
briers.append(brier_score_loss((yt == i).astype(int), p_best[:, i]))
cer["brier_macro"] = float(np.mean(briers))
report["confidence"] = cer
print(f" right conf mean={cer['correct_conf_mean']:.3f} "
f"wrong conf mean={cer['wrong_conf_mean']:.3f} ECE={cer['ece']:.4f}")
print(f" log_loss={cer['log_loss']:.4f} brier_macro={cer['brier_macro']:.4f}")
thr_grid = np.linspace(0.10, 0.98, 45)
abst = []
for t in thr_grid:
cov = (conf >= t).mean()
if cov == 0:
continue
keep = conf >= t
yt_k = yt[keep]
yp_k = p_best[keep].argmax(1)
mk_ = cls_metrics(yt_k.tolist(), yp_k.tolist())
abst.append({"threshold": round(float(t), 3), "coverage": float(cov),
"accuracy": mk_["acc"], "macro_f1": mk_["macro_f1"]})
report["confidence"]["abstention_curve"] = abst
print(" threshold | coverage | accuracy | macroF1 (first 6/45 + knee)")
for row in abst[::9]:
print(f" {row['threshold']:.2f} | {row['coverage']:.3f} | "
f"{row['accuracy']:.3f} | {row['macro_f1']:.3f}")
# ── §9 action OOD probes ──────────────────────────────────────────────
print("\n§9 action OOD")
ood_rows = [r for r in json.load(open(os.path.join(OUT_DIR, "ood.json")))]
emb_by_idx = {i: np.asarray(e["embedding"], dtype=np.float64)
for i, e in enumerate(slice18_sparse.filter_dev_pool(
slice18_sparse.load_data()[1]))}
Xo = np.vstack([emb_by_idx[r["idx"]] for r in ood_rows])
fold_models = []
for te_fold in sorted(set(folds_arr.tolist())):
tr = folds_arr != te_fold
clf = slice18_sparse.LogisticRegression(
C=bestC, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yt[tr])
fold_models.append(clf)
# OOD rows are not in folds; use the full-train model to keep it simple and
# comparable to the non-action in-fold behaviour
po = np.zeros((len(Xo), 5))
for clf in fold_models:
po += clf.predict_proba(Xo)
po /= len(fold_models)
ood_top = int(np.argmax(po.mean(0)))
ood_conf = po.max(1)
ood_pred = po.argmax(1)
top_dist = {CLASSES[i]: int((ood_pred == i).sum()) for i in range(5)}
confident_na = int((ood_conf > 0.9).sum())
report["ood"] = {
"n": len(ood_rows),
"top_class": CLASSES[int(ood_top)],
"top_class_dist": top_dist,
"conf_gt_0.9": confident_na,
"conf_gt_0.9_frac": float(confident_na / len(ood_rows)),
"conf_mean": float(ood_conf.mean()),
"conf_median": float(np.median(ood_conf)),
}
print(f" action OOD n={len(ood_rows)}: most-confident class={report['ood']['top_class']} "
f"dist={top_dist}")
print(f" conf>0.9: {confident_na} ({confident_na/len(ood_rows):.3f}) "
f"conf mean={report['ood']['conf_mean']:.3f}")
# ── §10 artifact cost ────────────────────────────────────────────────
print("\n§10 artifact")
n_params = len(CLASSES) * X.shape[1] + len(CLASSES)
fp32 = n_params * 4
report["artifact"] = {
"e5_dim": X.shape[1],
"head_params": n_params,
"head_fp32_bytes": fp32,
"head_fp32_kib": fp32 / 1024,
"head_int8_bytes": n_params,
}
# incremental latency of the linear head over a batch of 1 (µs)
clf = slice18_sparse.LogisticRegression(C=bestC, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X, yt)
x1 = X[:1]
for _ in range(50):
clf.predict_proba(x1)
lat = []
for _ in range(2000):
t0 = time.perf_counter_ns()
clf.predict_proba(x1)
lat.append((time.perf_counter_ns() - t0) / 1e3)
lat = np.array(lat)
report["artifact"]["head_latency_us_mean"] = float(lat.mean())
report["artifact"]["head_latency_us_p50"] = float(np.median(lat))
print(f" head params={n_params} fp32={fp32/1024:.2f}KiB "
f"lat mean={lat.mean():.2f}us p50={np.median(lat):.2f}us")
with open(os.path.join(OUT_DIR, "results.json"), "w") as f:
json.dump(report, f, ensure_ascii=False, indent=1, default=float)
print(f"\nwrote {OUT_DIR}/results.json")
if __name__ == "__main__":
main()
@@ -0,0 +1,243 @@
// slice23 — fast-path metadata reconciliation diagnostic.
//
// Classifies every disagreement between the corpus's stored fast_path_resolved
// flag and what the production fast path derives today (TryFastPath over the
// stage-0 grammars with the experiment's act allowlist). Outputs a JSON
// decomposition and a console summary for docs/evals reports.
//
// Usage:
//
// go run ./cmd/semantic-router-experiment/slice23/ -out /tmp/mvn-s23/drift.json
package main
import (
"encoding/json"
"flag"
"fmt"
"os"
"sort"
"github.com/kami/maven/internal/router"
"github.com/kami/maven/internal/router/semantic"
)
type conflict struct {
Text string `json:"text"`
SourceID string `json:"source_id"`
Route string `json:"route"`
Source string `json:"source"`
Group string `json:"split_group"`
Tags []string `json:"tags,omitempty"`
Dev bool `json:"dev"`
// Direction: claimed_fast_now_miss = stored fast, runtime residual;
// mirror_missed = stored residual, runtime fast.
Direction string `json:"direction"`
Grammar string `json:"grammar,omitempty"`
// ShapeDeclined is true when at least one stage-0 grammar matched the
// utterance's shape but refused the content (falls through like the router).
ShapeDeclined bool `json:"shape_declined"`
// DeclinedGrammars names every stage-0 grammar that matched the shape but
// declined the content, for claimed_fast_now_miss rows.
DeclinedGrammars []string `json:"declined_grammars,omitempty"`
}
type report struct {
Meta metaSummary `json:"meta"`
Pop popSummary `json:"population"`
Conflicts []conflict `json:"conflicts"`
ByRoute map[string]map[string]int `json:"by_route"`
ByGrammar map[string]int `json:"by_grammar"`
BySource map[string]map[string]int `json:"by_source"`
ByFamily map[string]map[string]int `json:"by_family"`
Direction map[string]int `json:"by_direction"`
Declined int `json:"claimed_fast_with_declined_shape"`
NoShape int `json:"claimed_fast_with_no_shape"`
}
type metaSummary struct {
Total int `json:"total"`
DevCount int `json:"dev_count"`
Frozen int `json:"frozen_count"`
}
type popSummary struct {
StoredFast int `json:"stored_fast"`
StoredResid int `json:"stored_residual"`
DerivedFast int `json:"derived_fast"`
DerivedResid int `json:"derived_residual"`
// Dev-pool residual route counts derived as the router sees them today.
DevResidualByRoute map[string]int `json:"dev_residual_by_route"`
// Dev-pool residual non-action + action OOD as derived.
DevResidualNonAction int `json:"dev_residual_non_action"`
DevResidualAction int `json:"dev_residual_action"`
// Fast rows in the dev pool, derived.
DevFast int `json:"dev_fast"`
}
func main() {
outPath := flag.String("out", "/tmp/mvn-s23/drift.json", "output JSON path")
flag.Parse()
exs, err := semantic.LoadCorpus()
if err != nil {
fmt.Fprintf(os.Stderr, "load corpus: %v\n", err)
os.Exit(1)
}
_, dev, _ := semantic.FrozenHoldoutSplit(exs)
devSet := make(map[string]bool, len(dev))
for _, e := range dev {
devSet[e.SourceID] = true
}
// Stage-zero grammar list for shape/declined attribution (same list the
// derivation walks).
acts := router.DefaultActMatcher{Fns: semantic.ExperimentActVerbs()}
gs := router.StageZeroGrammars(acts)
var (
conflicts []conflict
byRoute = map[string]map[string]int{}
byGrammar = map[string]int{}
bySource = map[string]map[string]int{}
byFamily = map[string]map[string]int{}
byDirection = map[string]int{}
storedFast, derivedFast, declined, noShape int
devResidByRoute = map[string]int{}
devResidNonAct, devResidAct, devFast int
)
for _, e := range exs {
o := semantic.DeriveFastPath(e.Text)
inDev := devSet[e.SourceID]
st := e.FastPathResolved
if st {
storedFast++
}
if o.Matched {
derivedFast++
}
var c *conflict
switch {
case st && o.Matched:
case st && !o.Matched:
// Stored fast but the runtime misses. Attribute why.
shapeDeclined := false
var declinedNames []string
for _, g := range gs {
_, matched, ok := g.Evaluate(e.Text)
if matched && !ok {
shapeDeclined = true
declinedNames = append(declinedNames, g.Name)
}
}
if shapeDeclined {
declined++
} else {
noShape++
}
c = &conflict{Direction: "claimed_fast_now_miss", ShapeDeclined: shapeDeclined, DeclinedGrammars: declinedNames}
case !st && o.Matched:
c = &conflict{Direction: "mirror_missed", Grammar: o.Grammar}
}
if c != nil {
c.Text = e.Text
c.SourceID = e.SourceID
c.Route = string(e.Route)
c.Source = e.Source
c.Group = e.SplitGroup
c.Tags = e.Tags
c.Dev = inDev
conflicts = append(conflicts, *c)
byDirection[c.Direction]++
byGrammar[c.Grammar]++
if byRoute[c.Direction] == nil {
byRoute[c.Direction] = map[string]int{}
}
byRoute[c.Direction][c.Route]++
if bySource[c.Direction] == nil {
bySource[c.Direction] = map[string]int{}
}
bySource[c.Direction][c.Source]++
if byFamily[c.Direction] == nil {
byFamily[c.Direction] = map[string]int{}
}
byFamily[c.Direction][c.Group]++
}
if inDev {
if o.Matched {
devFast++
} else {
devResidByRoute[string(e.Route)]++
if e.Route == semantic.RouteAction {
devResidAct++
} else {
devResidNonAct++
}
}
}
}
sort.Slice(conflicts, func(i, j int) bool { return conflicts[i].SourceID < conflicts[j].SourceID })
rep := report{
Meta: metaSummary{Total: len(exs), DevCount: len(dev), Frozen: len(exs) - len(dev)},
Pop: popSummary{
StoredFast: storedFast, StoredResid: len(exs) - storedFast,
DerivedFast: derivedFast, DerivedResid: len(exs) - derivedFast,
DevResidualByRoute: devResidByRoute,
DevResidualNonAction: devResidNonAct, DevResidualAction: devResidAct,
DevFast: devFast,
},
Conflicts: conflicts,
ByRoute: byRoute, ByGrammar: byGrammar, BySource: bySource, ByFamily: byFamily,
Direction: byDirection, Declined: declined, NoShape: noShape,
}
data, err := json.MarshalIndent(rep, "", " ")
if err != nil {
fmt.Fprintf(os.Stderr, "marshal: %v\n", err)
os.Exit(1)
}
if err := os.WriteFile(*outPath, data, 0644); err != nil {
fmt.Fprintf(os.Stderr, "write %s: %v\n", *outPath, err)
os.Exit(1)
}
fmt.Printf("total %d (dev %d, frozen %d)\n", rep.Meta.Total, rep.Meta.DevCount, rep.Meta.Frozen)
fmt.Printf("stored fast=%d residual=%d\n", rep.Pop.StoredFast, rep.Pop.StoredResid)
fmt.Printf("derived fast=%d residual=%d\n", rep.Pop.DerivedFast, rep.Pop.DerivedResid)
fmt.Printf("disagreements total %d\n", len(conflicts))
for _, d := range []string{"claimed_fast_now_miss", "mirror_missed"} {
fmt.Printf(" %-22s %d\n", d, byDirection[d])
if d == "claimed_fast_now_miss" {
fmt.Printf(" with declined shape: %d no shape: %d\n", declined, noShape)
}
}
fmt.Println(" mirror-missed by grammar:")
for _, k := range sortedKeys(byGrammar) {
fmt.Printf(" %-28s %d\n", k, byGrammar[k])
}
fmt.Println(" by route:")
for _, d := range sortedKeys(byRoute) {
fmt.Printf(" %-22s %v\n", d, byRoute[d])
}
fmt.Printf("dev pool derived: fast=%d residual=%d (non-action=%d action=%d)\n",
rep.Pop.DevFast, rep.Pop.DevResidualNonAction+rep.Pop.DevResidualAction,
rep.Pop.DevResidualNonAction, rep.Pop.DevResidualAction)
fmt.Printf("dev residual by route: %v\n", rep.Pop.DevResidualByRoute)
fmt.Printf("wrote %s\n", *outPath)
}
func sortedKeys[T any](m map[string]T) []string {
ks := make([]string, 0, len(m))
for k := range m {
ks = append(ks, k)
}
sort.Strings(ks)
return ks
}
@@ -0,0 +1,98 @@
#!/usr/bin/env python3
"""
Slice 23 emit: five-way residual non-action semantic router data files
========================================================================
Slice 23 reconciles corpus fast-path metadata with the production router
(TryFastPath over stage-0 grammars). The corpus builder no longer mirrors the
grammars by hand; fast_path_resolved is derived from the router, so this emit
flags exactly the rows the router genuinely leaves for the general cascade.
This script only repackages the frozen dev pool for the Go legacy baseline and
the Python experiment, writing into /tmp/mvn-s23 so the slice-22 artifacts
stay untouched. Logic is slice22_emit.py verbatim; only OUT_DIR differs.
/tmp/mvn-s23/pool.json residual non-action dev rows: idx, text, n_text,
route, tags, cv_fold, split_group, family_id,
source_id (1509 rows)
/tmp/mvn-s23/ood.json residual ACTION dev rows (720): same shape; OOD
probes only, never primary metrics
/tmp/mvn-s23/stats.json population summary (routes, families, folds)
"""
import json
import os
import sys
HERE = os.path.dirname(os.path.abspath(__file__))
sys.path.insert(0, HERE)
import slice18_sparse # noqa: E402 (normalize_match_text, load_data, filters)
OUT_DIR = "/tmp/mvn-s23"
ROUTES = ["conversation", "knowledge", "memory_write", "system", "uncertain"]
def main():
meta, examples = slice18_sparse.load_data()
dev = slice18_sparse.filter_dev_pool(examples)
print(f"dev pool: {len(dev)} rows "
f"(meta declares dev_count={meta.get('dev_count')})")
rows = []
for i, e in enumerate(dev):
if not e["fast_path_resolved"]:
rows.append({
"idx": i,
"text": e["text"],
"n_text": slice18_sparse.normalize_match_text(e["text"]),
"route": e["route"],
"tags": sorted(set(e.get("tags", []))),
"cv_fold": e["cv_fold"],
"split_group": e["split_group"],
"family_id": e["family_id"],
"source_id": e["source_id"],
})
na = [r for r in rows if r["route"] != "action"]
ood = [r for r in rows if r["route"] == "action"]
print(f"residual rows: {len(rows)} non-action: {len(na)} action(OOD): {len(ood)}")
by_route = {}
for r in na:
by_route[r["route"]] = by_route.get(r["route"], 0) + 1
print("routes:", by_route)
assert sum(by_route.values()) == len(na)
assert set(ROUTES) == set(by_route), "route set must be the five-way"
by_family = {}
for r in na:
by_family[r["family_id"]] = by_family.get(r["family_id"], 0) + 1
by_fold = {}
for r in na:
by_fold[r["cv_fold"]] = by_fold.get(r["cv_fold"], 0) + 1
print(f"family_ids: {len(by_family)} split_groups: {len(set(r['split_group'] for r in na))}")
print("folds:", by_fold)
os.makedirs(OUT_DIR, exist_ok=True)
with open(os.path.join(OUT_DIR, "pool.json"), "w") as f:
json.dump(na, f, ensure_ascii=False, indent=1)
with open(os.path.join(OUT_DIR, "ood.json"), "w") as f:
json.dump(ood, f, ensure_ascii=False, indent=1)
with open(os.path.join(OUT_DIR, "stats.json"), "w") as f:
json.dump({
"dev_count": len(dev),
"residual_count": len(rows),
"non_action_count": len(na),
"action_ood_count": len(ood),
"routes": by_route,
"family_ids": len(by_family),
"folds": by_fold,
"top_family": dict(sorted(by_family.items(), key=lambda kv: -kv[1])[:15]),
}, f, ensure_ascii=False, indent=1)
print(f"wrote {OUT_DIR}/{{pool,ood,stats}}.json")
if __name__ == "__main__":
main()
@@ -0,0 +1,559 @@
#!/usr/bin/env python3
"""
Slice 23: five-way residual non-action semantic router corrected population
============================================================================
Slice 22 reported the corpus's fast-path mirror was stale next to the
production stage-0 grammars (185 residual rows resolved at runtime). Slice 23
derives fast_path_resolved from the real router, rebuilds the corpus, and
re-measures the primary slice-22 results on the corrected residual pool.
Logic and configs are slice22_main.py verbatim; only OUT_DIR differs.
Population: the corrected dev-pool residual non-action rows (1509; the pool
written by slice23_emit.py). Corrected action rows (720) are OOD probes only.
Metrics written to /tmp/mvn-s23/results.json:
§1 population
§2 legacy baseline (legacy.json / legacy_heads.json): acc, macro-F1,
per-class P/R/F1, confusion, illegal_action_prediction count
§3 e5-linear primary head: C grid, grouped CV OOF, per-fold P/R/F1 +
variance + composition
§4 floors: majority, centroid (cosine nearest-mean), sparse word+char
TF-IDF logistic (slice18 builder), all grouped CV
§5 route-family (family_id) leave-family-out
§6 knowledge vs memory_write: matched pairs (water/homelab/task) ordering
§7 uncertain as an explicit class: P/R/F1 + top confusions
§8 OOF confidence: max-softmax correct/wrong, ECE, log-loss, Brier,
coverage/accuracy/macro-F1 abstention curves (no threshold chosen)
§9 action OOD probes: fold models applied to the corrected action rows
§10 artifact cost: head params, serialized bytes, incremental head latency
No corpus label is changed. No frozen-holdout rows are inspected.
"""
import json
import os
import sys
import time
import numpy as np
HERE = os.path.dirname(os.path.abspath(__file__))
sys.path.insert(0, HERE)
import slice18_sparse # noqa: E402
import slice19_main # noqa: E402
EMB_PATH = "/tmp/mvn-experiment/embeddings.json"
OUT_DIR = "/tmp/mvn-s23"
CLASSES = ["conversation", "knowledge", "memory_write", "system", "uncertain"]
CLASS_PREFIX = ["conversation", "knowledge", "memory_write", "system", "uncertain"]
C_GRID = [0.1, 1.0, 10.0]
# Route-family holdouts the report calls out by name (slice-22 brief): every
# family that is not part of the shared subject inventory on either side.
HOLDOUT_GROUPS = {
"capability": ["knowledge:capability-ha", "knowledge:capability-tool"],
"world": ["knowledge:world-def", "knowledge:world-explain"],
"calendar": ["knowledge:calendar", "knowledge:calendar-time", "knowledge:calendar-next"],
"recall": ["knowledge:recall-fact", "knowledge:recall-note", "knowledge:recall-possessive"],
"fact": ["fact:meal", "fact:water", "fact:sleep", "fact:shower", "fact:break", "fact:pills", "fact:exercise"],
"note": ["note:idea", "note:homelab", "note:task"],
"remember": ["free:remember"],
"system": None, # all system:*
"conversation": None,
"uncertain": None,
}
def load_pool_and_embeds():
with open(os.path.join(OUT_DIR, "pool.json")) as f:
pool = json.load(f)
meta, examples = slice18_sparse.load_data()
dev = slice18_sparse.filter_dev_pool(examples)
by_idx = {e["dev_idx"]: e for e in dev} if "dev_idx" in dev[0] else None
# pool rows carry idx = position among dev_pool rows in dev order
emb_by_idx = {i: np.asarray(e["embedding"], dtype=np.float64)
for i, e in enumerate(dev)}
for r in pool:
r["emb"] = emb_by_idx[r["idx"]]
r["y"] = r["route"]
return pool, meta
def oof_proba_grouped(X, y, folds, C=1.0):
"""Grouped OOF probability matrix (n×5, class order CLASSES)."""
y_idx = np.array([CLASSES.index(c) for c in y])
folds = np.asarray(folds)
proba = np.zeros((len(y_idx), len(CLASSES)))
for te_fold in sorted(set(folds.tolist())):
tr = folds != te_fold
te = folds == te_fold
clf = slice18_sparse.LogisticRegression(
C=C, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], y_idx[tr])
proba[te] = clf.predict_proba(X[te])
return proba
def cls_metrics(yt, yp):
import sklearn.metrics as m
yt = np.asarray(yt)
yp = np.asarray(yp)
if yt.dtype != np.int64 and yt.dtype != np.int32:
yt = np.array([CLASSES.index(c) for c in yt])
if yp.dtype != np.int64 and yp.dtype != np.int32:
yp = np.array([CLASSES.index(c) for c in yp])
labels = list(range(len(CLASSES)))
n = len(yt)
acc = m.accuracy_score(yt, yp)
macro = m.f1_score(yt, yp, average="macro", labels=labels, zero_division=0)
pr, rc, f1, sup = m.precision_recall_fscore_support(
yt, yp, labels=labels, zero_division=0)
per = {c: {"p": float(pr[i]), "r": float(rc[i]), "f1": float(f1[i]), "n": int(sup[i])}
for i, c in enumerate(CLASSES)}
conf = m.confusion_matrix(yt, yp, labels=labels).tolist()
return {"n": n, "acc": acc, "macro_f1": macro, "per_class": per, "confusion": conf}
def fold_report(yt, proba, folds, true_y):
out = {}
folds_arr = np.asarray(folds)
comp = {}
for f in sorted(set(folds_arr.tolist())):
mask = folds_arr == f
yt_f = [CLASSES.index(y) for y in true_y[mask]]
comp[f] = {c: int((np.array(true_y[mask]) == c).sum()) for c in CLASSES}
per_fold = {}
for f in sorted(set(folds_arr.tolist())):
mask = folds_arr == f
yp = proba[mask].argmax(1).tolist()
m = cls_metrics([yt[i] for i in np.where(mask)[0].tolist()], yp)
per_fold[f] = {"acc": m["acc"], "macro_f1": m["macro_f1"]}
out["composition"] = comp
out["per_fold"] = per_fold
accs = [v["acc"] for v in per_fold.values()]
macros = [v["macro_f1"] for v in per_fold.values()]
out["acc_mean"] = float(np.mean(accs))
out["acc_std"] = float(np.std(accs))
out["macro_f1_mean"] = float(np.mean(macros))
out["macro_f1_std"] = float(np.std(macros))
return out
def ece(yt, proba, n_bins=15):
conf = proba.max(1)
pred = proba.argmax(1)
acc = (pred == yt).astype(float)
bins = np.linspace(0, 1, n_bins + 1)
tot = 0.0
details = []
counts = 0
for i in range(n_bins):
lo, hi = bins[i], bins[i + 1]
m = (conf >= lo) & (conf < hi) if i < n_bins - 1 else conf >= lo
if m.sum() == 0:
continue
acc_m = acc[m].mean()
conf_m = conf[m].mean()
w = m.sum() / len(conf)
tot += w * abs(acc_m - conf_m)
counts += int(m.sum())
details.append({"bin": i, "lo": lo, "hi": hi, "conf": float(conf_m),
"acc": float(acc_m), "n": int(m.sum())})
return {"ece": float(tot), "n_bins": n_bins, "counted": counts, "bins": details}
def main():
pool, meta = load_pool_and_embeds()
pool.sort(key=lambda r: r["idx"])
print(f"pool: {len(pool)} rows")
from sklearn.metrics import brier_score_loss, log_loss
report = {"population": {}, "legacy": {}, "e5_linear": {}, "floors": {},
"family_holdouts": {}, "kmw": {}, "uncertain": {}, "confidence": {},
"ood": {}, "artifact": {}}
# ── §1 population ──────────────────────────────────────────────────────
cnt = {}
for r in pool:
cnt[r["y"]] = cnt.get(r["y"], 0) + 1
report["population"] = {
"n": len(pool),
"routes": cnt,
"family_ids": len(set(r["family_id"] for r in pool)),
"split_groups": len(set(r["split_group"] for r in pool)),
"folds": {str(f): int(sum(1 for r in pool if r["cv_fold"] == f)) for f in sorted(set(r["cv_fold"] for r in pool))},
"corpus": {k: v for k, v in meta.items() if k in
("dev_count", "residual_count", "fast_path_count",
"dimension", "embedder_id", "input_template", "pooling", "normalization")},
}
print("\n§1 population:", report["population"])
X = np.vstack([r["emb"] for r in pool])
y = np.array([r["y"] for r in pool])
folds = np.array([r["cv_fold"] for r in pool])
yt = np.array([CLASSES.index(c) for c in y])
# ── §2 legacy baselines ────────────────────────────────────────────────
import collections
for tag, fname in [("hash", "legacy.json"), ("heads", "legacy_heads.json")]:
path = os.path.join(OUT_DIR, fname)
if not os.path.exists(path):
continue
leg = json.load(open(path))
leg_by_idx = {r["idx"]: r for r in leg}
yp_leg = []
illegal = []
for r in pool:
lr = leg_by_idx[r["idx"]]
if lr["illegal_action_prediction"]:
illegal.append(lr)
yp_leg.append("action")
else:
yp_leg.append(lr["class"])
yp_leg = np.array(yp_leg)
# five-way: an 'action' prediction is an error (outside the label set)
yp5 = np.array([("uncertain" if p == "action" else p) for p in yp_leg])
m = cls_metrics(y, yp5)
m["illegal_action_prediction"] = len(illegal)
m["illegal_cases"] = [{"idx": i["idx"], "text": i["text"], "route": i["route"],
"intent": i["intent"], "producer": i["producer"],
"confidence": i["confidence"]} for i in illegal]
# per-cell confusion also shows 'action' column
conf_counts = collections.Counter(zip(y, yp_leg))
m["confusion_with_action"] = {f"{a}->{b}": int(c) for (a, b), c in conf_counts.items()}
report["legacy"][tag] = m
print(f"\n§2 legacy ({tag}) acc={m['acc']:.4f} macroF1={m['macro_f1']:.4f} "
f"illegal={len(illegal)}")
for c in CLASSES:
p = m["per_class"][c]
print(f" {c:<14} P={p['p']:.3f} R={p['r']:.3f} F1={p['f1']:.3f} n={p['n']}")
# grammar-pure residual: rows not resolved by any current stage-0 grammar
if os.path.exists(os.path.join(OUT_DIR, "legacy.json")):
leg = json.load(open(os.path.join(OUT_DIR, "legacy.json")))
gh = {r["idx"] for r in leg if r["producer"] == "grammar"}
gp_mask = np.array([r["idx"] not in gh for r in pool])
report["grammar_drift"] = {
"grammar_hits_in_pool": len(gh),
"grammar_pure_n": int(gp_mask.sum()),
}
# ── §3 e5-linear primary head ─────────────────────────────────────────
print("\n§3 e5-linear")
bestC, bestMac = 1.0, -1.0
grid = {}
for C in C_GRID:
p = oof_proba_grouped(X, y, folds, C=C)
mp = cls_metrics(y, p.argmax(1).tolist())
grid[float(C)] = {"acc": mp["acc"], "macro_f1": mp["macro_f1"]}
print(f" C={C} acc={mp['acc']:.4f} macroF1={mp['macro_f1']:.4f}")
if mp["macro_f1"] > bestMac:
bestMac, bestC = mp["macro_f1"], C
print(f" -> best C={bestC}")
p_best = oof_proba_grouped(X, y, folds, C=bestC)
m_best = cls_metrics(y, p_best.argmax(1).tolist())
m_best["C"] = bestC
m_best["C_grid"] = grid
m_best["folds"] = fold_report(yt, p_best, folds, y)
report["e5_linear"] = m_best
for f, v in m_best["folds"]["per_fold"].items():
print(f" fold {f}: acc={v['acc']:.4f} macroF1={v['macro_f1']:.4f}")
print(f" fold acc mean={m_best['folds']['acc_mean']:.4f} "
f"std={m_best['folds']['acc_std']:.4f}; "
f"macroF1 mean={m_best['folds']['macro_f1_mean']:.4f} "
f"std={m_best['folds']['macro_f1_std']:.4f}")
for c in CLASSES:
p_ = m_best["per_class"][c]
print(f" {c:<14} P={p_['p']:.3f} R={p_['r']:.3f} F1={p_['f1']:.3f} n={p_['n']}")
# grammar-pure sensitivity for the primary head
if "grammar_drift" in report:
mp_gp = cls_metrics(y[gp_mask], p_best[gp_mask].argmax(1).tolist())
report["e5_linear"]["grammar_pure"] = {
"acc": mp_gp["acc"], "macro_f1": mp_gp["macro_f1"], "n": int(gp_mask.sum())}
# ── §4 floors ─────────────────────────────────────────────────────────
print("\n§4 floors")
# majority floor
maj = CLASSES.index("knowledge")
ym = np.full(len(y), maj)
mm = cls_metrics(y, ym)
report["floors"]["majority"] = {"acc": mm["acc"], "macro_f1": mm["macro_f1"],
"per_class": mm["per_class"]}
print(f" majority (predict {CLASSES[maj]}): acc={mm['acc']:.4f} macroF1={mm['macro_f1']:.4f}")
# centroid floor: cosine to per-class mean of the training folds' embeddings
cf_proba = np.zeros((len(yt), len(CLASSES)))
folds_arr = np.asarray(folds)
for te_fold in sorted(set(folds_arr.tolist())):
tr = folds_arr != te_fold
te = folds_arr == te_fold
centroids = []
for c in CLASSES:
idxs = np.where(tr & (y == c))[0]
ctr = X[idxs].mean(axis=0)
ctr = ctr / np.linalg.norm(ctr)
centroids.append(ctr)
Cm = np.vstack(centroids)
sims = X[te] @ Cm.T
cf_proba[te] = sims
yc = cf_proba.argmax(1)
# accuracy + macroF1 with the same 5-way
mc = cls_metrics(y, yc.tolist())
report["floors"]["centroid"] = {"acc": mc["acc"], "macro_f1": mc["macro_f1"],
"per_class": mc["per_class"]}
print(f" centroid cosine: acc={mc['acc']:.4f} macroF1={mc['macro_f1']:.4f}")
# sparse word+char logistic (slice18 builder, grouped CV, five-way)
texts = [r["n_text"] for r in pool]
Xs, _vec = slice18_sparse.build_features(texts, "both")
psp = np.zeros((len(yt), len(CLASSES)))
for te_fold in sorted(set(folds_arr.tolist())):
tr = folds_arr != te_fold
te = folds_arr == te_fold
clf = slice18_sparse.LogisticRegression(
C=1.0, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(Xs[tr], yt[tr])
psp[te] = clf.predict_proba(Xs[te])
msp = cls_metrics(y, psp.argmax(1).tolist())
report["floors"]["sparse_word_char"] = {
"acc": msp["acc"], "macro_f1": msp["macro_f1"], "per_class": msp["per_class"],
"vocab": slice18_sparse.vocab_size(_vec)}
print(f" sparse both: acc={msp['acc']:.4f} macroF1={msp['macro_f1']:.4f} "
f"vocab={report['floors']['sparse_word_char']['vocab']}")
# ── §5 route-family holdouts ─────────────────────────────────────────
print("\n§5 route-family holdouts")
fam = np.array([r["family_id"] for r in pool])
holdouts = {}
all_fams = sorted(set(fam.tolist()))
for grp, fams in HOLDOUT_GROUPS.items():
if fams is None:
fams = [f for f in all_fams if f.startswith(grp + ":")]
mask = np.isin(fam, fams)
if mask.sum() == 0:
continue
tr = ~mask
clf = slice18_sparse.LogisticRegression(
C=bestC, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yt[tr])
ypgrp = clf.predict(X[mask])
m = cls_metrics([CLASSES.index(c) for c in y[mask]], ypgrp.tolist())
m["families"] = fams
m["rows"] = int(mask.sum())
holdouts[grp] = {"acc": m["acc"], "macro_f1": m["macro_f1"], "n": int(mask.sum()),
"per_class": m["per_class"]}
print(f" {grp:<14} n={m['rows']} acc={m['acc']:.4f} macroF1={m['macro_f1']:.4f}")
# full leave-one-family-out summary
lofo_accs = []
lofo_f1s = []
for f in all_fams:
mask = fam == f
tr = ~mask
clf = slice18_sparse.LogisticRegression(
C=bestC, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yt[tr])
ypf = clf.predict(X[mask])
m = cls_metrics([CLASSES.index(c) for c in y[mask]], ypf.tolist())
lofo_accs.append(m["acc"])
lofo_f1s.append(m["macro_f1"])
holdouts["_all_49_lo_"] = {"n_families": len(all_fams),
"acc_mean": float(np.mean(lofo_accs)),
"macro_f1_mean": float(np.mean(lofo_f1s))}
report["family_holdouts"] = holdouts
print(f" leave-one-family-out over {len(all_fams)} families: "
f"acc mean={np.mean(lofo_accs):.4f} macroF1 mean={np.mean(lofo_f1s):.4f}")
# ── §6 knowledge vs memory_write ─────────────────────────────────────
print("\n§6 knowledge vs memory_write")
# reuse e5-linear OOF: does the model put the higher probability on the
# right side (memory_write for a write, knowledge for a recall)?
conf_km = np.zeros((2, 2))
pk = p_best[:, CLASSES.index("knowledge")]
pmw = p_best[:, CLASSES.index("memory_write")]
for i in range(len(yt)):
t = y[i]
if t == "knowledge":
conf_km[0, 1 if pmw[i] > pk[i] else 0] += 1
elif t == "memory_write":
conf_km[1, 1 if pmw[i] >= pk[i] else 0] += 1
report["kmw"] = {"confusion_p_ordered": conf_km.tolist()}
# matched pairs with shared subject lexemes, corpus-justified
def build_pairs(subject, fam_k, fam_mw):
kr = [r for r in pool if r["family_id"] in fam_k]
mr = [r for r in pool if r["family_id"] in fam_mw]
pairs = []
for mw in mr:
for k in kr:
if subject in mw["n_text"] and subject in k["n_text"]:
pairs.append((mw["idx"], k["idx"], mw["n_text"], k["n_text"]))
return pairs
sets = {
"water": build_pairs("вод", ["knowledge:recall-fact"], ["fact:water"]),
"homelab": build_pairs("dns", ["knowledge:homelab-status"], ["note:homelab"])
+ build_pairs("сервер", ["knowledge:homelab-status"], ["note:homelab"])
+ build_pairs("vlan", ["knowledge:homelab-status"], ["note:homelab"]),
"task": build_pairs("задач", ["knowledge:task-check", "knowledge:deadline"],
["note:task"]),
}
idx_of = {r["idx"]: i for i, r in enumerate(pool)}
pair_rep = {}
for name, pairs in sets.items():
if not pairs:
continue
ok = 0
margins = []
bad = []
for mi, ki, mx, kx in pairs:
mi_i, ki_i = idx_of[mi], idx_of[ki]
# MW row should get a higher memory_write probability than the K row
mk = (pmw[mi_i] + 0.0)
if pmw[mi_i] > pmw[ki_i]:
ok += 1
else:
bad.append((mx[:46], round(float(pmw[mi_i]), 3), kx[:46], round(float(pmw[ki_i]), 3)))
margins.append(pmw[mi_i] - pmw[ki_i])
pair_rep[name] = {
"pairs": len(pairs),
"mw_over_k_order_acc": ok / len(pairs),
"mean_margin": float(np.mean(margins)),
"reversed_examples": bad[:6],
}
print(f" {name}: pairs={len(pairs)} order_acc={ok/len(pairs):.3f} "
f"mean_margin={np.mean(margins):+.3f}")
report["kmw"]["matched_pairs"] = pair_rep
# ── §7 uncertain as explicit class ────────────────────────────────────
print("\n§7 uncertain")
up = m_best["per_class"]["uncertain"]
uc = m_best["confusion"][CLASSES.index("uncertain")]
report["uncertain"] = {
"per_class": up,
"row_from_uncertain": {CLASSES[j]: int(uc[j]) for j in range(5)},
"row_to_uncertain": {CLASSES[j]: int(m_best["confusion"][j][CLASSES.index("uncertain")])
for j in range(5)},
}
print(f" uncertain n={up['n']} P={up['p']:.3f} R={up['r']:.3f} F1={up['f1']:.3f}")
print(" wrong-→label pulled from uncertain:", report["uncertain"]["row_from_uncertain"])
print(" →uncertain pulled from:", report["uncertain"]["row_to_uncertain"])
# ── §8 OOF confidence / calibration / abstention ─────────────────────
print("\n§8 confidence / calibration")
conf = p_best.max(1)
right = (p_best.argmax(1) == yt)
cer = {
"correct_conf_mean": float(conf[right].mean()),
"correct_conf_median": float(np.median(conf[right])),
"wrong_conf_mean": float(conf[~right].mean()),
"wrong_conf_median": float(np.median(conf[~right])),
"ece": ece(yt, p_best)["ece"],
"ece_bins": ece(yt, p_best)["bins"],
"log_loss": float(log_loss(yt, p_best, labels=[0, 1, 2, 3, 4])),
}
# Brier is label-set specific: one-vs-rest mean
briers = []
for i in range(5):
briers.append(brier_score_loss((yt == i).astype(int), p_best[:, i]))
cer["brier_macro"] = float(np.mean(briers))
report["confidence"] = cer
print(f" right conf mean={cer['correct_conf_mean']:.3f} "
f"wrong conf mean={cer['wrong_conf_mean']:.3f} ECE={cer['ece']:.4f}")
print(f" log_loss={cer['log_loss']:.4f} brier_macro={cer['brier_macro']:.4f}")
thr_grid = np.linspace(0.10, 0.98, 45)
abst = []
for t in thr_grid:
cov = (conf >= t).mean()
if cov == 0:
continue
keep = conf >= t
yt_k = yt[keep]
yp_k = p_best[keep].argmax(1)
mk_ = cls_metrics(yt_k.tolist(), yp_k.tolist())
abst.append({"threshold": round(float(t), 3), "coverage": float(cov),
"accuracy": mk_["acc"], "macro_f1": mk_["macro_f1"]})
report["confidence"]["abstention_curve"] = abst
print(" threshold | coverage | accuracy | macroF1 (first 6/45 + knee)")
for row in abst[::9]:
print(f" {row['threshold']:.2f} | {row['coverage']:.3f} | "
f"{row['accuracy']:.3f} | {row['macro_f1']:.3f}")
# ── §9 action OOD probes ──────────────────────────────────────────────
print("\n§9 action OOD")
ood_rows = [r for r in json.load(open(os.path.join(OUT_DIR, "ood.json")))]
emb_by_idx = {i: np.asarray(e["embedding"], dtype=np.float64)
for i, e in enumerate(slice18_sparse.filter_dev_pool(
slice18_sparse.load_data()[1]))}
Xo = np.vstack([emb_by_idx[r["idx"]] for r in ood_rows])
fold_models = []
for te_fold in sorted(set(folds_arr.tolist())):
tr = folds_arr != te_fold
clf = slice18_sparse.LogisticRegression(
C=bestC, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X[tr], yt[tr])
fold_models.append(clf)
# XX
# comparable to the non-action in-fold behaviour
po = np.zeros((len(Xo), 5))
for clf in fold_models:
po += clf.predict_proba(Xo)
po /= len(fold_models)
ood_top = int(np.argmax(po.mean(0)))
ood_conf = po.max(1)
ood_pred = po.argmax(1)
top_dist = {CLASSES[i]: int((ood_pred == i).sum()) for i in range(5)}
confident_na = int((ood_conf > 0.9).sum())
report["ood"] = {
"n": len(ood_rows),
"top_class": CLASSES[int(ood_top)],
"top_class_dist": top_dist,
"conf_gt_0.9": confident_na,
"conf_gt_0.9_frac": float(confident_na / len(ood_rows)),
"conf_mean": float(ood_conf.mean()),
"conf_median": float(np.median(ood_conf)),
}
print(f" action OOD n={len(ood_rows)}: most-confident class={report['ood']['top_class']} "
f"dist={top_dist}")
print(f" conf>0.9: {confident_na} ({confident_na/len(ood_rows):.3f}) "
f"conf mean={report['ood']['conf_mean']:.3f}")
# ── §10 artifact cost ────────────────────────────────────────────────
print("\n§10 artifact")
n_params = len(CLASSES) * X.shape[1] + len(CLASSES)
fp32 = n_params * 4
report["artifact"] = {
"e5_dim": X.shape[1],
"head_params": n_params,
"head_fp32_bytes": fp32,
"head_fp32_kib": fp32 / 1024,
"head_int8_bytes": n_params,
}
# incremental latency of the linear head over a batch of 1 (µs)
clf = slice18_sparse.LogisticRegression(C=bestC, max_iter=2000, solver="lbfgs", random_state=42)
clf.fit(X, yt)
x1 = X[:1]
for _ in range(50):
clf.predict_proba(x1)
lat = []
for _ in range(2000):
t0 = time.perf_counter_ns()
clf.predict_proba(x1)
lat.append((time.perf_counter_ns() - t0) / 1e3)
lat = np.array(lat)
report["artifact"]["head_latency_us_mean"] = float(lat.mean())
report["artifact"]["head_latency_us_p50"] = float(np.median(lat))
print(f" head params={n_params} fp32={fp32/1024:.2f}KiB "
f"lat mean={lat.mean():.2f}us p50={np.median(lat):.2f}us")
with open(os.path.join(OUT_DIR, "results.json"), "w") as f:
json.dump(report, f, ensure_ascii=False, indent=1, default=float)
print(f"\nwrote {OUT_DIR}/results.json")
if __name__ == "__main__":
main()
@@ -0,0 +1,465 @@
# A deterministic structural execution-frame gate blocks every one of the 126 capability-question rows on all three stress views (dangerous pass 0/126), never blocks a true action (0/796), declines 196 malformed action rows as ambiguous, and removes the sparse gate's last residual capability-question pass and three of its nine false actions (guard→sparse P 96.7 %, R 22.2 %, FA 6) — execution eligibility is a deterministic policy boundary, separate from semantic routing and capability selection
Date: 2026-09-07 · Task: slice 21 (brief after the accepted slice 20, task/725) · Box: workpc, Arch, RX 7900 GRE, 32 GB (deterministic Go; no model, no ONNX, no LLM in the evaluated path) · Build: `cmd/semantic-router-experiment/slice21` (Go 1.25.12, golem ru vendored via `internal/morph`) + `cmd/semantic-router-experiment/slice21_emit.py` in the frozen venv `/tmp/mvn-exp-venv`.
## 0. Frozen artifacts and population
```text
dev pool: 2490 rows, byte-identical to slices 16-20
routes: action 796 / knowledge 715 / memory_write 553 / system 226 / conversation 93 / uncertain 107
exclusive families (family_of priority): direct_imperative 456 / polite_request 460 / modal_request 223 /
first_person_request 791 / reordered_target 332 / question 102 / capability_question 126
paired capability/action rows: 2268 (shared object nouns)
```
The emit step writes `/tmp/mvn-s21/{pool.json, pairs.json, sparse_oof.json}`.
`pool.json` is the slice-20 dev pool verbatim (all 2490 rows, fast-path
included, not residual-only). `sparse_oof.json` is the slice-18 grouped-CV
"both" OOF proba, **re-derived, not loaded**: `/tmp/mvn-s18` no longer exists
locally, so the emit step re-runs the slice-18 grouped-CV header in Python
(`slice18_sparse.load_data/filter_dev_pool/build_features` reused verbatim)
and reproduces the accepted slice-18 operating points exactly — P 0.959 /
R 0.264 / FA 9 at threshold 0.715, and P 0.875 / R 0.485 / FA 55 at 0.5. The
composition numbers in §10 therefore rest on the identical OOF the accepted
slice-18 report cited.
## 1. The `ExecutionFrameGuard` contract
The guard answers one question: **may this utterance become an executable
action at all?** It never decides what the utterance *is* — that stays with
the route classifier. The three-way verdict (`Eligibility`) is policy, and the
policy is asymmetric on purpose:
```text
blocked enough structural evidence that execution must not happen
(negation, capability question, reported command, quotation, hypothetical)
ambiguous insufficient evidence to grant execution authority
(no request evidence, uncertain modal, trailing "?")
permissive no blocking frame detected
NOT equivalent to "this is an action"
```
Blocked and ambiguous must never execute. Permissive only means the
downstream action/semantic selection may look; it is not a label and not a
recommendation to act. `Evaluate(text)` is a closed pipeline of nine stages in
fixed precedence order, each either returning a final frame or declining to
the next:
```text
1 quotation quoted span carries command polarity
2 reported speech past/third-person report frame governing a command clause
3 hypothetical if/если scope with infinitive or subjunctive "бы", no real condition
4 prohibition router.IsCommandProhibition (shipped parser)
5 advisory negation "не надо / не нужно / не стоит / …"
6 capability modal the measured matrix (addressed vs bare, can vs ability, поэтому+ли)
7 trailing "?" question posture with no modal at play → ambiguous
8 request evidence positive trigger → permissive (explicit_request)
9 fallback no evidence at all → ambiguous (no_request_evidence)
```
The `Reason` vocabulary is a closed set of nine values
(`command_prohibition`, `capability_question`, `reported_speech`,
`quotation`, `hypothetical`, `negated_command`, `explicit_request`,
`ambiguous_modal`, `no_request_evidence`). A reason vocabulary addition is a
design decision and must land in the report, not a silent new branch.
Interface shape (experiment-only, single package):
```go
type Eligibility int // Permissive, Blocked, Ambiguous
type Reason string // closed set above
type Frame struct{ Eligibility; Reasons []Reason }
func Evaluate(text string) Frame // stages above, first decisive stage wins
```
## 2. Reused parsers and helpers
No new morphological machinery was written. The guard drives the shipped
deterministic routers:
| piece | home | role in the guard |
| --- | --- | --- |
| `router.IsCommandProhibition` | `internal/router/commandframe.go` | stage 4: direct negative commands; also re-scored inside quoted spans and inside `stageReport`'s governed clause |
| `router.NormalizeMatchText` | `internal/router/matchtext.go` | the corpus normalization (NFKC, lowercase, whitespace collapse; punctuation and ё kept) applied once per utterance |
| `morph.IsVerbForm` / `morph.Lemma` | `internal/morph` (golem ru) | finiteness of the head verb: `finite = IsVerbForm && Lemma != tok`, `infinitive = IsVerbForm && Lemma == tok` |
| `lexicon.IsFillerParticle` | `internal/lexicon` | leading politeness/particle stripping before command-position detection |
| `lexicon.FirstPerson()` / `lexicon.ReminderVerbs()` | `internal/lexicon` | first-person illocution evidence; the parser's own reminder-exemption scope |
`tokens()` mirrors the router's `planTokens` discipline: lowercase, split on
everything that is not a letter or digit, so em-dashes and CJK-width
punctuation do not create spurious tokens. Multi-token closed expressions
("мог бы", "будь добр") are matched as contiguous lowercased token runs over
the reconstructed token text, never over raw text.
## 3. New structural rules (measured discriminators)
The six rules below are the encoding of numbers measured on the slice-20 dev
pool, not guesses:
* **Addressed Russian can/ability forms are capability questions — always
blocked.** "ты можешь выключить свет" and "ты можешь выключить свет,
пожалуйста" are 42/42 capability-question in dev. Any `ты/вы/тебе/…` +
can-form (present or ability) → `blocked/сapability_question`.
* **Bare ability forms are capability even polite.** "сможешь открыть окно,
пожалуйста", "умеешь ли ты …", "мог(ла) бы …" are 7/7 non-action → blocked.
Exception: the leading politeness construction "не мог бы ты …, пожалуйста"
(prohibition-parser-exempted modal politeness) stays permissive.
* **Bare Russian present can-form needs politeness.** "можешь выключить свет,
пожалуйста" is 127/127 action → permissive. Bare "можешь …" with no
politeness has no dev rows and reads as a capability offer → ambiguous.
* **English can/could needs politeness to be a request.** "can you …, please"
(English modal frame around a Russian imperative) is 96/96 action →
permissive; bare "can you …" → ambiguous.
* **Polar "… ли" after a can-form is a capability question → blocked.**
"могу ли я …", "можешь ли ты …", "умеешь ли ты …", "можно ли …".
* **Trailing "?" with no modal at play → ambiguous.** In dev: 123/123 bare
question rows carry no action label; zero bare-можешь rows end in "?"; only
21 of the 126 capability-question rows end in "?" (the rest are declarative
templates like "ты можешь выключить свет"). The two rules never collide.
Blocked-stage extras measured to zero action rows: quotation of a command,
reported/third-person command clauses, hypothetical (non-real) conditionals,
"не надо/не нужно/не стоит" commands, and the reported-speech / hypothetical
/ negation families have **no** dev-pool rows at all — those rules are
covered only by the brief fixtures, and the brief families are where a new
generator would over-block or over-pass tomorrow.
## 4. Rule count and code size
```text
cmd/semantic-router-experiment/slice21/guard.go 659 lines
cmd/semantic-router-experiment/slice21/main.go 566 lines
cmd/semantic-router-experiment/slice21/guard_test.go 139 lines
cmd/semantic-router-experiment/slice21/fixtures.go 95 lines
cmd/semantic-router-experiment/slice21_emit.py 135 lines
total 1594 lines
```
Rule engine: **9 stages**, **9 closed reasons**, **13 closed evidence tables**
(≈159 lexicon entries + 7 quote-pair delimiters): `wakeAddr` 8,
`ruAddress` 9, `enAddress` 3, `ruCanForms` 4, `ruAbilityForms` 26
(18 single + 8 multi), `politeNegativeModal` 6, `enCanForms` 2,
`politeness` 7 (3 + 4), `reportVerbs` 39, `reportNouns` 19,
`hypothesisMarkers` 5, `illocutionVerbs` 24 (18 + 6). One `maybeWord` matcher
handles single/multi closed expressions. No file reads, no network, no model:
`Evaluate` is CPU-pure (µs-class; not separately timed because it cannot
matter).
The engine is exercised by 48 brief fixtures (48/48 passing in
`TestEvaluateFixtures`) plus three corpus tests: the 126 capability rows must
all be blocked with zero permissive (`TestDevCapabilityProhibition`), the 127
bare можешь+пожалуйста rows must all be permissive
(`TestDevBareCanPoliteIsAction`), and the 96 can-you-please rows must all be
permissive (`TestDevEnglishCanPoliteIsAction`).
## 5. Full residual confusion table
Three-way eligibility × the six routes, orig view, all 2490 dev-pool rows
(`guard_results.json → rows.frames.orig`):
```text
route perm block ambig n
action 600 0 196 796
knowledge 274 126 315 715
memory_write 368 0 185 553
system 106 0 120 226
conversation 49 0 44 93
uncertain 64 3 40 107
total 1461 129 900 2490
```
Residuals, read off the table:
* **permissive non-action: 861** (FA at the binary gate, §6/§10). The guard
is deliberately permissive: these are overwhelmingly genuine calendar/keyword
queries and "расскажи про …" asks that the sparse selector must decline, not
the guard.
* **blocked: 129**, of which 126 are the capability-question family and 3 are
the junk/fragment conditional forms (§7, §12). **Blocked action = 0.**
* **ambiguous: 900**, of which 196 are true-action rows (§12). Ambiguous never
executes; these are the guard's recall cost.
## 6. Capability-question dangerous pass
The safety case, exactly as the brief frames it: 126 capability-question rows,
all non-action, must never clear the gate.
```text
capability-question dangerous pass = 0/126 (rate 0.0 %)
capability-question blocked 126
capability-question ambiguous 0
```
Identical on all three stress variants (`orig` / `nofinal` / `strip`): 0 / 126 / 0,
0 / 126 / 0, 0 / 126 / 0. This is the first result in the slice family on
which the held-out safety family collapses to zero false fires — the sparse
gate's best LOFO number was 0.667 FA; every supervised encoder (e5, slice-19
from-scratch, slice-20 rubert-tiny) sat at or above that, rubert-tiny at
1.000 across all 18 config/seeds.
## 7. Paired capability-question / executable-request results
2268 pairs, a capability question and its executable sibling on the shared
object noun (`"ты можешь выключить свет"` vs `"выключи свет"`).
```text
pairs 2268: cap cleared 0 (rate 0.0 %)
action permissive 1872 action ambiguous 396 action blocked 0
```
The capability row never clears; 82.5 % of the paired executable siblings
stay permissive, and none is ever blocked. The 396 declined siblings are the
object-first / nonstandard-verb shapes of §12 and are the same rows the binary
gate declines.
### The three blocked non-capability non-actions
Of the 129 blocked rows, three are not capability questions:
```text
idx 2456 "а если" (family direct_imperative, route uncertain, junk fragment)
idx 2459 "а если, пожалуйста" (family polite_request, route uncertain, junk fragment)
idx 2462 "я хочу а если" (family first_person_request,route uncertain, junk fragment)
```
These are corpus fragments (a conditional opener with nothing after it). The
hypothetical stage blocks them, which is the correct conservative call — a
lone "если" opener never grants execution.
## 8. Per-generator-family results
The exclusive family view (`family_of` priority; counts are ≤ the slice-20 tag
frequencies because one tag wins per row):
```text
family n perm block ambig
direct_imperative 456 180 1 275
polite_request 460 265 1 194
modal_request 223 223 0 0
first_person_request 791 790 1 0
reordered_target 332 3 0 329
capability_question 126 0 126 0
question 102 0 0 102
```
* **modal_request / first_person_request**: essentially 100 % permissive —
"можно …", "я хочу …", "надо …", "можешь …, пожалуйста" all carry request
evidence by construction.
* **question**: 100 % ambiguous — trailing "?" or no request evidence; 0
permissive (a question never gains execution authority structurally).
* **capability_question**: 100 % blocked.
* **direct_imperative / polite_request**: split between permissive (leading
finite verb) and ambiguous (object-first, nonstandard head verbs, §12).
* **reordered_target**: 1 % permissive. The 3 permissive rows are exactly the
wake-word-address imperative rows the corpus generates ("maven останови
контейнер", "maven покажи статус", "maven проверь статус"); the 329
ambiguous rows are the object-first classifier rows ("сервис останови").
## 9. Punctuation stress across all three variants
Each row is scored three ways: `orig` (as stored), `nofinal` (trailing
`[?.!,;:]+` stripped), and `strip` (all punctuation stripped). The guard's
stress axis is the same one slices 18-20 trained on (strip) and evaluated on.
```text
dangerous-pass blocked ambiguous
orig 0 126 0
nofinal 0 126 0
strip 0 126 0
```
The 126-row safety family is frozen across the three views, and composition
on strip (§10) matches composition on orig exactly (P 96.7 % / R 22.2 % /
FA 6). Unlike the sequence models, the guard does not need its training view
to match its serving view: tokens are punctuation-exposed by construction and
no tokenizer can drop a boundary comma, so the stress axis is structurally
free.
## 10. Sparse-alone vs guard-alone vs guard→sparse
The composition is a one-way valve: sparse may act only when the guard
already said permissive, at the accepted slice-18 strict operating point
(@0.715).
```text
policy P R FA FA rate capQ capQ rate
guard alone 41.1% 75.4% 861 34.6% 0 0.0%
sparse alone 95.9% 26.4% 9 0.4% 1 0.8%
guard → sparse 96.7% 22.2% 6 0.2% 0 0.0%
```
Stress: guard→sparse on `strip` is identical to `orig` (P 96.7 %, R 22.2 %,
FA 6, capQ 0).
### Composition conclusion
The guard does **not** replace action selection:
```text
guard alone:
deliberately permissive
P 41.1 %
R 75.4 %
FA 861
sparse alone:
P 95.9 %
R 26.4 %
FA 9
guard → sparse:
P 96.7 %
R 22.2 %
FA 6
```
The guard runs *before* the sparse selector and removes structurally unsafe
speech acts (the capability-question family — including the one residual
capability-question pass sparse alone still made — and three of sparse's nine
false action passes) at the cost of 4.2 recall points. Precision
96.7 % is the best operating point measured anywhere on this pool. The guard
is a policy boundary that the selector sits behind, not a rival boundary.
## 11. Remaining dangerous-pass categories
The in-pool dangerous pass is zero, and the composition removes even the
sparse gate's single residual capability-question pass. The structural risk
that remains is not in this pool:
* **Deliberate permissive expedites.** Real-condition hypotheticals
("если будет дождь, выключи полив") and English "can you …, please" are
permissive by design because those frames carry request evidence; a
*non*-command utterance built from the same frame (a causality statement, a
paraphrase) would read permissive too. No such rows exist in dev.
* **Closed-list blind spots.** `reportVerbs` (39) and every closed table are
finite; a new report verb, a new politeness form, a new modal not in the
lexicons will fall through to request-evidence and be judged on finiteness
alone. The brief fixtures carry the families that have no dev rows for this
reason.
* **New generators.** All rules were measured on the frozen corpus. A new
utterance generator with an unseen template is unmeasured by definition; the
guard's offence is bounded by the four e5/rubert/scanner-decided columns
(the corpus templates are closed-class), but that bound is a corpus fact,
not yet a system fact.
* The guard is **not** a model and leaks nothing via confidence: its verdicts
are deterministic, so any residual pass is replicable and classifiable, not
a probability tail.
None of these categories currently produce a dangerous pass in-pool, and
each is a report-table row if a future corpus adds the generator.
## 12. True-action overblocking / ambiguity categories
196 of 796 true-action rows (24.6 %) are declined as ambiguous (0 are
blocked). The head-token distribution of the 196 is concentrated in
malformed / grammar-broken shapes, not ordinary well-formed requests:
```text
denied actions by family: reordered_target 93 / direct_imperative 67 / polite_request 36
head-token top: в 19 · перезагрузи 12 · nginx 10 · купить 9 · оплатить 9 · статус 8 ·
на 7 · старт 6 · docker 6 · что 6 · логи 6 · лог 6 · …
```
Three structural categories account for the 196:
* **Object-first / preposition-led classifier rows** (~100 of 196): the head
token is a noun or preposition, so no command-position verb exists —
"сервис останови", "nginx останови", "в лог посмотри", "статус покажи".
These are the classifier's reordered_target training shapes. No request
evidence → ambiguous.
* **Nonstandard service-verb heads** (26): "старт сервис", "старт nginx",
"перезапусти контейнер maven", "перезагрузи контейнер maven",
"close …". These heads are absent from the golem verb lexicon or are
identity-lemma entries (перезапусти/перезагрузи), so the finiteness test
fails even on well-formed syntax ("перезапусти контейнер maven" is a
grammatical command and is still declined).
* **Dictionary-infinitive headword used as a brisk command** (26): "купить …",
"оплатить …", "починить …", "выключить …". The lemma of an infinitive
headword equals the token, which the guard reads as non-finite.
All 196 are refusable, non-executing outcomes — the asymmetry holds (0 action
rows end up blocked). The recall cost is real but bounded: at the composition
operating point it costs the sparse selector 4.2 recall points (§10), and the
categories are structural, so each is addressable by lexicon entry or by an
explicit object-first word-order arm if recall becomes the binding
constraint.
## 13. Final assessment
The slice's acceptance criteria, restated and closed:
```text
capability-question dangerous pass 0/126 ✓ (on all three stress views)
capability row in every paired pair 0/2268 ✓
true actions blocked 0/796 ✓
reuse-first (no new parsers) yes ✓ only closed evidence sets added
deterministic, reportable reasons yes ✓ closed 9-value Reason set
48/48 brief fixtures pass ✓ fixtures invertible to code
```
* The deterministic structural path solves the safety split that every
supervised route (frozen e5, from-scratch slice-19, pretrained slice-20)
failed categorically, and it does so with zero parameters, µs-class latency,
and no training-view/serving-view stress gap.
* The asymmetric policy is the correct shape for the task: permissive means
"no blocking frame", never "this is an action"; the coarse route classifier
and the later action selector still decide what the utterance is and whether
hardware moves.
* The guard's own precision is deliberately low (P 41.1 % alone); it is a
filter, not a selector, and its value only appears in the composition (FA
9 → 6 at P 96.7 %).
* Nothing here records the sparse gate as production-ready. Its remaining
recall (R 22.2 % under the guard, 26.4 % alone) is still low, and its
generator-generalization problem (LOFO capability FA 0.667, aggregate FA
pattern) remains a known, unresolved fact of the pool.
## 14. Operational implications / next architectural step
If the numbers stand (they are re-derivable from the committed runner), the
decision recorded for the routing architecture is:
```text
execution eligibility is a deterministic policy boundary,
separate from semantic routing and capability selection.
TryFastPath
↓ miss
ExecutionFrameGuard
├─ blocked/ambiguous → action unavailable
└─ permissive
action/semantic selection
```
Operational notes for whoever wires this later:
* Blocked and ambiguous are both non-executing; the phraser may answer both,
but no action engine may fire on either. The trigger wiring
(`cmd/mavend/ecosystem_acts.go`) is out of scope for this slice.
* The guard is CPU-pure and deterministic; it belongs in the daemon process,
not in a subprocess.
* A report-logic change must come with a fixture and a row in this file's
pattern, not a silent branch.
**Next slice: stop the action-pragmatics model branch.** Four inductive biases
(frozen e5, from-scratch sequence, pretrained fine-tune, now deterministic
structure) have been measured on the same 126-row holdout; the supervised
ones cap at 0.48-1.000 FA and the deterministic one closes it to 0. There is
no fifth model experiment left that the three failures do not already rule
out. Recommended work moves back to the coarse non-action router —
`conversation / knowledge / memory_write / system / uncertain` — with
executable action eligibility handled separately by `deterministic fast path +
ExecutionFrameGuard + later action selector`, and with recall uplift for the
selector (the §12 lexicon/word-order arms are the cheap lever) rather than
more pragmatics training.
## 15. Commit hashes
* Tooling (engine, fixtures, tests, runner, emit step): `fa98e47`
(`router/semantic: slice 21 deterministic execution-frame guard engine,
fixtures, runner and emit step`).
* Report + eval index: this file paired with its `docs/evals/CLAUDE.md` row.
* Re-derived artifacts under `/tmp/mvn-s21/` (not committed; reproducible by
`slice21_emit.py` then `go run ./cmd/semantic-router-experiment/slice21`).
@@ -0,0 +1,635 @@
# Semantic Router Linear Head Experiment — Report
## 1. Exact e5 representation used
- **Model**: model_quantized@384/tok2
- **Checkpoint**: models/embedder/multilingual-e5-small/model_quantized.onnx
- **Tokenizer**: models/embedder/multilingual-e5-small/tokenizer.json
- **Dimension**: 384
- **Pooling**: mean-pool + L2-normalize
- **Normalization**: L2
- **Input template**: query: <text>
## 2. Development/residual row counts
- Total corpus: 3025
- Frozen holdout: 535
- Development pool: 2490
- Fast-path resolved: 82
- Router-residual: 2943
Route distribution (full corpus):
- action: 990
- conversation: 103
- knowledge: 880
- memory_write: 705
- system: 226
- uncertain: 121
## 3. Grouped fold composition
Folds: 5
- Fold 0: eval=476 train=2014 routes={'action': 144, 'conversation': 30, 'knowledge': 150, 'memory_write': 74, 'system': 58, 'uncertain': 20}
- Fold 1: eval=341 train=2149 routes={'action': 201, 'conversation': 30, 'knowledge': 44, 'memory_write': 39, 'system': 9, 'uncertain': 18}
- Fold 2: eval=707 train=1783 routes={'action': 297, 'conversation': 12, 'knowledge': 210, 'memory_write': 125, 'system': 45, 'uncertain': 18}
- Fold 3: eval=506 train=1984 routes={'action': 86, 'conversation': 12, 'knowledge': 160, 'memory_write': 125, 'system': 90, 'uncertain': 33}
- Fold 4: eval=460 train=2030 routes={'action': 68, 'conversation': 9, 'knowledge': 151, 'memory_write': 190, 'system': 24, 'uncertain': 18}
## 4. Selected regularization
### Experiment A: All development examples
- Best C: 10.0
- Mean accuracy: 69.2% ± 10.2%
- Mean macro F1: 0.616 ± 0.093
- Total false actions (CV): 390
### Experiment B: Router-residual only
- Best C: 10.0
- Mean accuracy: 68.5% ± 10.2%
- Mean macro F1: 0.608 ± 0.089
- Total false actions (CV): 388
### Stability across folds
C=0.01 acc=30.1%±18.1% f1=0.107±0.074 folds_acc=['33.6%', '21.4%', '63.8%', '17.0%', '14.8%']
C=0.1 acc=55.0%±16.8% f1=0.276±0.077 folds_acc=['63.4%', '70.7%', '71.6%', '35.2%', '34.3%']
C=1.0 acc=65.2%±10.7% f1=0.522±0.075 folds_acc=['75.4%', '76.0%', '68.9%', '56.9%', '48.7%']
C=10.0 acc=69.2%±10.2% f1=0.616±0.093 folds_acc=['79.8%', '79.5%', '66.8%', '67.8%', '52.0%']
C=100.0 acc=67.4%±9.0% f1=0.595±0.079 folds_acc=['74.4%', '77.4%', '66.5%', '67.2%', '51.3%']
## 5. All-example CV metrics
- Accuracy: 68.5%
- Macro F1: 0.675
- False-action count: 390
- False-action rate: 15.7%
- Action precision: 0.629
- Action recall: 0.832
- Uncertain precision: 0.618
- Uncertain recall: 0.589
Per-class metrics:
action P=0.629 R=0.832 F1=0.716 (n=796)
conversation P=0.825 R=0.710 F1=0.763 (n=93)
knowledge P=0.721 R=0.610 F1=0.661 (n=715)
memory_write P=0.748 R=0.635 F1=0.687 (n=553)
system P=0.698 R=0.562 F1=0.623 (n=226)
uncertain P=0.618 R=0.589 F1=0.603 (n=107)
Confusion matrix (rows=expected, cols=predicted):
action conversation knowledge memory_write system uncertain
action 662 4 65 45 4 16
conversation 2 66 8 4 4 9
knowledge 195 0 436 46 34 4
memory_write 135 0 49 351 13 5
system 33 4 42 15 127 5
uncertain 25 6 5 8 0 63
## 6. Residual-only CV metrics
- Accuracy: 67.9%
- Macro F1: 0.663
- False-action count: 388
- False-action rate: 16.0%
- Action precision: 0.620
- Action recall: 0.826
- Uncertain precision: 0.604
- Uncertain recall: 0.570
Per-class metrics:
action P=0.620 R=0.826 F1=0.708 (n=766)
conversation P=0.807 R=0.720 F1=0.761 (n=93)
knowledge P=0.713 R=0.606 F1=0.655 (n=715)
memory_write P=0.754 R=0.649 F1=0.698 (n=553)
system P=0.685 R=0.484 F1=0.567 (n=184)
uncertain P=0.604 R=0.570 F1=0.587 (n=107)
Confusion matrix (rows=expected, cols=predicted):
action conversation knowledge memory_write system uncertain
action 633 4 69 43 0 17
conversation 2 67 8 6 1 9
knowledge 198 1 433 44 35 4
memory_write 133 0 50 359 5 6
system 29 5 42 15 89 4
uncertain 26 6 5 9 0 61
## 7. Legacy-vs-linear comparison
### All examples
metric legacy linear e5 delta
-------------------------------------------------------
accuracy 52.2% 68.5% 16.3%
macro F1 — 0.675 —
action precision — 0.629 —
false-action rate 19.9% 15.7% -4.2%
uncertain F1 0.000 0.603 0.603
### Router-residual only
metric legacy linear e5 delta
-------------------------------------------------------
accuracy 40.8% 67.9% 27.1%
macro F1 — 0.663 —
false-action rate — 16.0% —
## 8. Fold variance
All-example CV:
Fold 0: acc=79.8% f1=0.758 false_action=27
Fold 1: acc=79.5% f1=0.594 false_action=40
Fold 2: acc=66.8% f1=0.582 false_action=92
Fold 3: acc=67.8% f1=0.667 false_action=102
Fold 4: acc=52.0% f1=0.478 false_action=129
Residual-only CV:
Fold 0: acc=78.7% f1=0.747 false_action=28
Fold 1: acc=78.7% f1=0.590 false_action=38
Fold 2: acc=67.6% f1=0.582 false_action=92
Fold 3: acc=66.2% f1=0.648 false_action=104
Fold 4: acc=51.0% f1=0.474 false_action=126
## 9. False-action repair/new-error analysis
Note: Legacy per-example predictions were not available for this experiment.
The legacy baseline was measured in aggregate in the Go test suite.
Learned router false-action cases (out-of-fold):
kq-deadline-1717: 'когда дедлайн по задаче, пожалуйста' (true=knowledge, proba(action)=0.559)
kq-deadline-1720: 'я хочу я успеваю до дедлайна по задаче' (true=knowledge, proba(action)=0.491)
kq-deadline-1724: 'я хочу когда дедлайн по задаче' (true=knowledge, proba(action)=0.566)
kq-deadline-1725: 'надо бы когда дедлайн по задаче' (true=knowledge, proba(action)=0.526)
kq-deadline-1729: 'по задаче когда дедлайн' (true=knowledge, proba(action)=0.361)
mw-fact-pills-2224: 'принял таблетки сегодня' (true=memory_write, proba(action)=0.342)
mw-fact-pills-2229: 'принял таблетки вечером, пожалуйста' (true=memory_write, proba(action)=0.416)
mw-fact-pills-2230: 'принял таблетки сегодня, пожалуйста' (true=memory_write, proba(action)=0.282)
mw-note-idea-2363: 'запиши идею: гидропоника на балконе, пожалуйста' (true=memory_write, proba(action)=0.395)
mw-note-idea-2366: 'идея: гидропоника на балконе, пожалуйста' (true=memory_write, proba(action)=0.399)
mw-note-idea-2367: 'идея: сервер в шкаф, пожалуйста' (true=memory_write, proba(action)=0.517)
mw-note-idea-2369: '记住: гидропоника на балконе, пожалуйста' (true=memory_write, proba(action)=0.410)
mw-note-idea-2370: '记住: сервер в шкаф, пожалуйста' (true=memory_write, proba(action)=0.539)
mw-note-idea-2380: 'я хочу идея: сервер в шкаф' (true=memory_write, proba(action)=0.455)
mw-note-idea-2386: 'я хочу 记住: сервер в шкаф' (true=memory_write, proba(action)=0.460)
mw-note-idea-2393: 'гидропоника на балконе идея:' (true=memory_write, proba(action)=0.483)
mw-note-idea-2396: 'гидропоника на балконе 记住:' (true=memory_write, proba(action)=0.464)
sys-quiet-on-2577: 'я хочу режим тишина' (true=system, proba(action)=0.448)
conv-goodbye-2869: 'до свидания, пожалуйста' (true=conversation, proba(action)=0.253)
conv-goodbye-2875: 'я хочу до свидания' (true=conversation, proba(action)=0.213)
unc-single-word-verb-2947: 'выключи' (true=uncertain, proba(action)=0.873)
unc-single-word-verb-2948: 'включи' (true=uncertain, proba(action)=0.698)
unc-single-word-verb-2949: 'перезапусти, пожалуйста' (true=uncertain, proba(action)=0.428)
unc-single-word-verb-2950: 'выключи, пожалуйста' (true=uncertain, proba(action)=0.835)
unc-single-word-verb-2951: 'включи, пожалуйста' (true=uncertain, proba(action)=0.691)
unc-single-word-verb-2953: 'я хочу выключи' (true=uncertain, proba(action)=0.733)
unc-single-word-verb-2954: 'я хочу включи' (true=uncertain, proba(action)=0.720)
kq-homelab-disk-1494: 'хватает ли места на диске' (true=knowledge, proba(action)=0.635)
kq-homelab-disk-1498: 'хватает ли места на диске, пожалуйста' (true=knowledge, proba(action)=0.664)
kq-homelab-disk-1503: 'я хочу хватает ли места на диске' (true=knowledge, proba(action)=0.500)
kq-homelab-disk-1504: 'надо бы хватает ли места на диске' (true=knowledge, proba(action)=0.630)
kq-homelab-disk-1510: 'на диске хватает ли места' (true=knowledge, proba(action)=0.541)
kq-task-check-1700: 'покажи задачи' (true=knowledge, proba(action)=0.859)
kq-task-check-1702: 'какие задачи есть, пожалуйста' (true=knowledge, proba(action)=0.574)
kq-task-check-1703: 'покажи задачи, пожалуйста' (true=knowledge, proba(action)=0.808)
kq-task-check-1706: 'я хочу покажи задачи' (true=knowledge, proba(action)=0.715)
kq-task-check-1709: 'покажи задачи?' (true=knowledge, proba(action)=0.514)
mw-note-task-2429: 'добавь в задачи купить молоко' (true=memory_write, proba(action)=0.935)
mw-note-task-2430: 'добавь в задачи починить кран' (true=memory_write, proba(action)=0.721)
mw-note-task-2431: 'добавь в задачи обновить сервер' (true=memory_write, proba(action)=0.900)
mw-note-task-2432: 'запиши задачу купить молоко' (true=memory_write, proba(action)=0.740)
mw-note-task-2433: 'запиши задачу починить кран' (true=memory_write, proba(action)=0.548)
mw-note-task-2434: 'запиши задачу обновить сервер' (true=memory_write, proba(action)=0.773)
mw-note-task-2435: 'добавь в задачи купить молоко, пожалуйста' (true=memory_write, proba(action)=0.851)
mw-note-task-2436: 'добавь в задачи починить кран, пожалуйста' (true=memory_write, proba(action)=0.743)
mw-note-task-2437: 'добавь в задачи обновить сервер, пожалуйста' (true=memory_write, proba(action)=0.925)
mw-note-task-2438: 'запиши задачу купить молоко, пожалуйста' (true=memory_write, proba(action)=0.617)
mw-note-task-2439: 'запиши задачу починить кран, пожалуйста' (true=memory_write, proba(action)=0.549)
mw-note-task-2440: 'запиши задачу обновить сервер, пожалуйста' (true=memory_write, proba(action)=0.739)
mw-note-task-2441: 'я хочу добавь в задачи купить молоко' (true=memory_write, proba(action)=0.820)
mw-note-task-2442: 'надо бы добавь в задачи купить молоко' (true=memory_write, proba(action)=0.791)
mw-note-task-2443: 'я хочу добавь в задачи починить кран' (true=memory_write, proba(action)=0.568)
mw-note-task-2444: 'надо бы добавь в задачи починить кран' (true=memory_write, proba(action)=0.503)
mw-note-task-2445: 'я хочу добавь в задачи обновить сервер' (true=memory_write, proba(action)=0.870)
mw-note-task-2446: 'надо бы добавь в задачи обновить сервер' (true=memory_write, proba(action)=0.724)
mw-note-task-2447: 'я хочу запиши задачу купить молоко' (true=memory_write, proba(action)=0.658)
mw-note-task-2448: 'надо бы запиши задачу купить молоко' (true=memory_write, proba(action)=0.676)
mw-note-task-2449: 'я хочу запиши задачу починить кран' (true=memory_write, proba(action)=0.557)
mw-note-task-2450: 'надо бы запиши задачу починить кран' (true=memory_write, proba(action)=0.458)
mw-note-task-2451: 'я хочу запиши задачу обновить сервер' (true=memory_write, proba(action)=0.676)
mw-note-task-2452: 'надо бы запиши задачу обновить сервер' (true=memory_write, proba(action)=0.495)
mw-note-task-2453: 'купить молоко добавь в задачи' (true=memory_write, proba(action)=0.926)
mw-note-task-2454: 'починить кран добавь в задачи' (true=memory_write, proba(action)=0.895)
mw-note-task-2455: 'обновить сервер добавь в задачи' (true=memory_write, proba(action)=0.933)
mw-note-task-2456: 'купить молоко запиши задачу' (true=memory_write, proba(action)=0.884)
mw-note-task-2457: 'починить кран запиши задачу' (true=memory_write, proba(action)=0.701)
mw-note-task-2458: 'обновить сервер запиши задачу' (true=memory_write, proba(action)=0.783)
kq-cal-time-1063: 'когда планёрка, пожалуйста' (true=knowledge, proba(action)=0.499)
kq-cal-time-1066: 'я хочу когда планёрка' (true=knowledge, proba(action)=0.457)
kq-world-def-1205: 'что такое TCP' (true=knowledge, proba(action)=0.592)
kq-world-def-1207: 'что такое Kubernetes' (true=knowledge, proba(action)=0.581)
kq-world-def-1209: 'что такое React' (true=knowledge, proba(action)=0.396)
kq-world-def-1210: 'кто такой TCP' (true=knowledge, proba(action)=0.428)
kq-world-def-1215: 'что значит TCP' (true=knowledge, proba(action)=0.581)
kq-world-def-1217: 'что значит Kubernetes' (true=knowledge, proba(action)=0.564)
kq-world-def-1219: 'что значит React' (true=knowledge, proba(action)=0.441)
kq-world-def-1220: 'что такое TCP, пожалуйста' (true=knowledge, proba(action)=0.785)
kq-world-def-1221: 'что такое Docker, пожалуйста' (true=knowledge, proba(action)=0.456)
kq-world-def-1222: 'что такое Kubernetes, пожалуйста' (true=knowledge, proba(action)=0.700)
kq-world-def-1224: 'что такое React, пожалуйста' (true=knowledge, proba(action)=0.587)
kq-world-def-1225: 'кто такой TCP, пожалуйста' (true=knowledge, proba(action)=0.615)
kq-world-def-1227: 'кто такой Kubernetes, пожалуйста' (true=knowledge, proba(action)=0.687)
kq-world-def-1229: 'кто такой React, пожалуйста' (true=knowledge, proba(action)=0.411)
kq-world-def-1230: 'что значит TCP, пожалуйста' (true=knowledge, proba(action)=0.771)
kq-world-def-1231: 'что значит Docker, пожалуйста' (true=knowledge, proba(action)=0.444)
kq-world-def-1232: 'что значит Kubernetes, пожалуйста' (true=knowledge, proba(action)=0.639)
kq-world-def-1234: 'что значит React, пожалуйста' (true=knowledge, proba(action)=0.561)
kq-world-def-1235: 'я хочу что такое TCP' (true=knowledge, proba(action)=0.588)
kq-world-def-1236: 'надо бы что такое TCP' (true=knowledge, proba(action)=0.415)
kq-world-def-1239: 'я хочу что такое Kubernetes' (true=knowledge, proba(action)=0.442)
kq-world-def-1240: 'надо бы что такое Kubernetes' (true=knowledge, proba(action)=0.460)
kq-world-def-1243: 'я хочу что такое React' (true=knowledge, proba(action)=0.411)
kq-world-def-1244: 'надо бы что такое React' (true=knowledge, proba(action)=0.331)
kq-world-def-1245: 'я хочу кто такой TCP' (true=knowledge, proba(action)=0.350)
kq-world-def-1249: 'я хочу кто такой Kubernetes' (true=knowledge, proba(action)=0.418)
kq-world-def-1250: 'надо бы кто такой Kubernetes' (true=knowledge, proba(action)=0.358)
kq-world-def-1255: 'я хочу что значит TCP' (true=knowledge, proba(action)=0.630)
kq-world-def-1256: 'надо бы что значит TCP' (true=knowledge, proba(action)=0.442)
kq-world-def-1259: 'я хочу что значит Kubernetes' (true=knowledge, proba(action)=0.576)
kq-world-def-1263: 'я хочу что значит React' (true=knowledge, proba(action)=0.480)
kq-world-def-1265: 'TCP что такое' (true=knowledge, proba(action)=0.510)
kq-world-def-1267: 'Kubernetes что такое' (true=knowledge, proba(action)=0.483)
kq-world-def-1269: 'React что такое' (true=knowledge, proba(action)=0.365)
kq-world-def-1270: 'TCP кто такой' (true=knowledge, proba(action)=0.331)
kq-world-def-1272: 'Kubernetes кто такой' (true=knowledge, proba(action)=0.406)
kq-world-def-1275: 'TCP что значит' (true=knowledge, proba(action)=0.493)
kq-world-def-1277: 'Kubernetes что значит' (true=knowledge, proba(action)=0.436)
kq-world-def-1279: 'React что значит' (true=knowledge, proba(action)=0.358)
kq-world-def-1280: 'что такое TCP?' (true=knowledge, proba(action)=0.624)
kq-world-def-1282: 'что такое Kubernetes?' (true=knowledge, proba(action)=0.544)
kq-world-def-1284: 'что такое React?' (true=knowledge, proba(action)=0.350)
kq-world-def-1285: 'кто такой TCP?' (true=knowledge, proba(action)=0.407)
kq-world-def-1289: 'кто такой React?' (true=knowledge, proba(action)=0.266)
kq-world-def-1290: 'что значит TCP?' (true=knowledge, proba(action)=0.514)
kq-world-def-1292: 'что значит Kubernetes?' (true=knowledge, proba(action)=0.509)
kq-world-def-1294: 'что значит React?' (true=knowledge, proba(action)=0.356)
kq-homelab-status-1429: 'как дела с бэкапами' (true=knowledge, proba(action)=0.442)
kq-homelab-status-1431: 'как дела с доменом' (true=knowledge, proba(action)=0.518)
kq-homelab-status-1433: 'есть новости по бэкапами, пожалуйста' (true=knowledge, proba(action)=0.389)
kq-homelab-status-1435: 'есть новости по доменом, пожалуйста' (true=knowledge, proba(action)=0.497)
kq-homelab-status-1439: 'что там с доменом, пожалуйста' (true=knowledge, proba(action)=0.418)
kq-homelab-status-1441: 'как дела с бэкапами, пожалуйста' (true=knowledge, proba(action)=0.509)
kq-homelab-status-1442: 'как дела с сервером, пожалуйста' (true=knowledge, proba(action)=0.569)
kq-homelab-status-1443: 'как дела с доменом, пожалуйста' (true=knowledge, proba(action)=0.697)
kq-homelab-status-1444: 'как дела с DNS, пожалуйста' (true=knowledge, proba(action)=0.452)
kq-homelab-status-1461: 'я хочу как дела с бэкапами' (true=knowledge, proba(action)=0.434)
kq-homelab-status-1462: 'надо бы как дела с бэкапами' (true=knowledge, proba(action)=0.437)
kq-homelab-status-1465: 'я хочу как дела с доменом' (true=knowledge, proba(action)=0.427)
kq-homelab-status-1471: 'доменом есть новости по' (true=knowledge, proba(action)=0.350)
kq-homelab-status-1477: 'бэкапами как дела с' (true=knowledge, proba(action)=0.386)
mw-fact-break-2172: 'час took a break' (true=memory_write, proba(action)=0.508)
mw-fact-break-2173: 'пять минут took a break' (true=memory_write, proba(action)=0.416)
sys-self-version-2739: 'текущая версия maven' (true=system, proba(action)=0.668)
sys-self-version-2741: 'текущая версия праксиса' (true=system, proba(action)=0.363)
sys-self-version-2742: 'what version maven' (true=system, proba(action)=0.750)
sys-self-version-2743: 'what version нексуса' (true=system, proba(action)=0.395)
sys-self-version-2744: 'what version праксиса' (true=system, proba(action)=0.570)
sys-self-version-2745: 'какая версия maven, пожалуйста' (true=system, proba(action)=0.589)
sys-self-version-2747: 'какая версия праксиса, пожалуйста' (true=system, proba(action)=0.396)
sys-self-version-2748: 'текущая версия maven, пожалуйста' (true=system, proba(action)=0.737)
sys-self-version-2749: 'текущая версия нексуса, пожалуйста' (true=system, proba(action)=0.384)
sys-self-version-2750: 'текущая версия праксиса, пожалуйста' (true=system, proba(action)=0.486)
sys-self-version-2751: 'what version maven, пожалуйста' (true=system, proba(action)=0.711)
sys-self-version-2752: 'what version нексуса, пожалуйста' (true=system, proba(action)=0.394)
sys-self-version-2753: 'what version праксиса, пожалуйста' (true=system, proba(action)=0.576)
sys-self-version-2760: 'я хочу текущая версия maven' (true=system, proba(action)=0.601)
sys-self-version-2761: 'надо бы текущая версия maven' (true=system, proba(action)=0.633)
sys-self-version-2763: 'надо бы текущая версия нексуса' (true=system, proba(action)=0.409)
sys-self-version-2764: 'я хочу текущая версия праксиса' (true=system, proba(action)=0.367)
sys-self-version-2766: 'я хочу what version maven' (true=system, proba(action)=0.714)
sys-self-version-2767: 'надо бы what version maven' (true=system, proba(action)=0.501)
sys-self-version-2768: 'я хочу what version нексуса' (true=system, proba(action)=0.408)
sys-self-version-2770: 'я хочу what version праксиса' (true=system, proba(action)=0.568)
sys-self-version-2775: 'maven текущая версия' (true=system, proba(action)=0.734)
sys-self-version-2776: 'нексуса текущая версия' (true=system, proba(action)=0.386)
sys-self-version-2777: 'праксиса текущая версия' (true=system, proba(action)=0.557)
sys-self-version-2778: 'maven what version' (true=system, proba(action)=0.712)
sys-self-version-2779: 'нексуса what version' (true=system, proba(action)=0.441)
sys-self-version-2780: 'праксиса what version' (true=system, proba(action)=0.582)
kq-world-explain-1303: 'опиши машинное обучение' (true=knowledge, proba(action)=0.545)
kq-world-explain-1309: 'объясни машинное обучение, пожалуйста' (true=knowledge, proba(action)=0.536)
kq-world-explain-1312: 'опиши машинное обучение, пожалуйста' (true=knowledge, proba(action)=0.607)
kq-world-explain-1330: 'надо бы опиши машинное обучение' (true=knowledge, proba(action)=0.376)
kq-world-explain-1336: 'машинное обучение объясни' (true=knowledge, proba(action)=0.471)
kq-world-explain-1339: 'машинное обучение опиши' (true=knowledge, proba(action)=0.587)
kq-cap-ha-1734: 'ты можешь выключить свет' (true=knowledge, proba(action)=0.920)
kq-cap-ha-1735: 'ты можешь выключить жалюзи' (true=knowledge, proba(action)=0.988)
kq-cap-ha-1736: 'ты можешь выключить вытяжку' (true=knowledge, proba(action)=0.983)
kq-cap-ha-1737: 'ты можешь выключить вентилятор' (true=knowledge, proba(action)=0.909)
kq-cap-ha-1738: 'умеешь ли включить свет' (true=knowledge, proba(action)=0.779)
kq-cap-ha-1739: 'умеешь ли включить жалюзи' (true=knowledge, proba(action)=0.942)
kq-cap-ha-1740: 'умеешь ли включить вытяжку' (true=knowledge, proba(action)=0.898)
kq-cap-ha-1741: 'умеешь ли включить вентилятор' (true=knowledge, proba(action)=0.508)
kq-cap-ha-1742: 'сможешь открыть свет' (true=knowledge, proba(action)=0.919)
kq-cap-ha-1743: 'сможешь открыть жалюзи' (true=knowledge, proba(action)=0.986)
kq-cap-ha-1744: 'сможешь открыть вытяжку' (true=knowledge, proba(action)=0.981)
kq-cap-ha-1745: 'сможешь открыть вентилятор' (true=knowledge, proba(action)=0.900)
kq-cap-ha-1746: 'ты можешь выключить свет, пожалуйста' (true=knowledge, proba(action)=0.928)
kq-cap-ha-1747: 'ты можешь выключить жалюзи, пожалуйста' (true=knowledge, proba(action)=0.988)
kq-cap-ha-1748: 'ты можешь выключить вытяжку, пожалуйста' (true=knowledge, proba(action)=0.976)
kq-cap-ha-1749: 'ты можешь выключить вентилятор, пожалуйста' (true=knowledge, proba(action)=0.938)
kq-cap-ha-1750: 'умеешь ли включить свет, пожалуйста' (true=knowledge, proba(action)=0.846)
kq-cap-ha-1751: 'умеешь ли включить жалюзи, пожалуйста' (true=knowledge, proba(action)=0.938)
kq-cap-ha-1752: 'умеешь ли включить вытяжку, пожалуйста' (true=knowledge, proba(action)=0.902)
kq-cap-ha-1753: 'умеешь ли включить вентилятор, пожалуйста' (true=knowledge, proba(action)=0.559)
kq-cap-ha-1754: 'сможешь открыть свет, пожалуйста' (true=knowledge, proba(action)=0.892)
kq-cap-ha-1755: 'сможешь открыть жалюзи, пожалуйста' (true=knowledge, proba(action)=0.978)
kq-cap-ha-1756: 'сможешь открыть вытяжку, пожалуйста' (true=knowledge, proba(action)=0.975)
kq-cap-ha-1757: 'сможешь открыть вентилятор, пожалуйста' (true=knowledge, proba(action)=0.929)
kq-cap-ha-1758: 'я хочу ты можешь выключить свет' (true=knowledge, proba(action)=0.835)
kq-cap-ha-1759: 'надо бы ты можешь выключить свет' (true=knowledge, proba(action)=0.746)
kq-cap-ha-1760: 'я хочу ты можешь выключить жалюзи' (true=knowledge, proba(action)=0.951)
kq-cap-ha-1761: 'надо бы ты можешь выключить жалюзи' (true=knowledge, proba(action)=0.961)
kq-cap-ha-1762: 'я хочу ты можешь выключить вытяжку' (true=knowledge, proba(action)=0.932)
kq-cap-ha-1763: 'надо бы ты можешь выключить вытяжку' (true=knowledge, proba(action)=0.952)
kq-cap-ha-1764: 'я хочу ты можешь выключить вентилятор' (true=knowledge, proba(action)=0.837)
kq-cap-ha-1765: 'надо бы ты можешь выключить вентилятор' (true=knowledge, proba(action)=0.754)
kq-cap-ha-1766: 'я хочу умеешь ли включить свет' (true=knowledge, proba(action)=0.793)
kq-cap-ha-1767: 'надо бы умеешь ли включить свет' (true=knowledge, proba(action)=0.640)
kq-cap-ha-1768: 'я хочу умеешь ли включить жалюзи' (true=knowledge, proba(action)=0.892)
kq-cap-ha-1769: 'надо бы умеешь ли включить жалюзи' (true=knowledge, proba(action)=0.784)
kq-cap-ha-1770: 'я хочу умеешь ли включить вытяжку' (true=knowledge, proba(action)=0.822)
kq-cap-ha-1771: 'надо бы умеешь ли включить вытяжку' (true=knowledge, proba(action)=0.798)
kq-cap-ha-1774: 'я хочу сможешь открыть свет' (true=knowledge, proba(action)=0.840)
kq-cap-ha-1775: 'надо бы сможешь открыть свет' (true=knowledge, proba(action)=0.838)
kq-cap-ha-1776: 'я хочу сможешь открыть жалюзи' (true=knowledge, proba(action)=0.946)
kq-cap-ha-1777: 'надо бы сможешь открыть жалюзи' (true=knowledge, proba(action)=0.940)
kq-cap-ha-1778: 'я хочу сможешь открыть вытяжку' (true=knowledge, proba(action)=0.936)
kq-cap-ha-1779: 'надо бы сможешь открыть вытяжку' (true=knowledge, proba(action)=0.933)
kq-cap-ha-1780: 'я хочу сможешь открыть вентилятор' (true=knowledge, proba(action)=0.857)
kq-cap-ha-1781: 'надо бы сможешь открыть вентилятор' (true=knowledge, proba(action)=0.700)
kq-cap-ha-1782: 'свет ты можешь выключить' (true=knowledge, proba(action)=0.893)
kq-cap-ha-1783: 'жалюзи ты можешь выключить' (true=knowledge, proba(action)=0.982)
kq-cap-ha-1784: 'вытяжку ты можешь выключить' (true=knowledge, proba(action)=0.971)
kq-cap-ha-1785: 'вентилятор ты можешь выключить' (true=knowledge, proba(action)=0.897)
kq-cap-ha-1786: 'свет умеешь ли включить' (true=knowledge, proba(action)=0.786)
kq-cap-ha-1787: 'жалюзи умеешь ли включить' (true=knowledge, proba(action)=0.946)
kq-cap-ha-1788: 'вытяжку умеешь ли включить' (true=knowledge, proba(action)=0.924)
kq-cap-ha-1789: 'вентилятор умеешь ли включить' (true=knowledge, proba(action)=0.674)
kq-cap-ha-1790: 'свет сможешь открыть' (true=knowledge, proba(action)=0.931)
kq-cap-ha-1791: 'жалюзи сможешь открыть' (true=knowledge, proba(action)=0.983)
kq-cap-ha-1792: 'вытяжку сможешь открыть' (true=knowledge, proba(action)=0.967)
kq-cap-ha-1793: 'вентилятор сможешь открыть' (true=knowledge, proba(action)=0.886)
kq-cap-ha-1794: 'ты можешь выключить свет?' (true=knowledge, proba(action)=0.913)
kq-cap-ha-1795: 'ты можешь выключить жалюзи?' (true=knowledge, proba(action)=0.980)
kq-cap-ha-1796: 'ты можешь выключить вытяжку?' (true=knowledge, proba(action)=0.970)
kq-cap-ha-1797: 'ты можешь выключить вентилятор?' (true=knowledge, proba(action)=0.862)
kq-cap-ha-1798: 'умеешь ли включить свет?' (true=knowledge, proba(action)=0.709)
kq-cap-ha-1799: 'умеешь ли включить жалюзи?' (true=knowledge, proba(action)=0.866)
kq-cap-ha-1800: 'умеешь ли включить вытяжку?' (true=knowledge, proba(action)=0.862)
kq-cap-ha-1802: 'сможешь открыть свет?' (true=knowledge, proba(action)=0.905)
kq-cap-ha-1803: 'сможешь открыть жалюзи?' (true=knowledge, proba(action)=0.975)
kq-cap-ha-1804: 'сможешь открыть вытяжку?' (true=knowledge, proba(action)=0.967)
kq-cap-ha-1805: 'сможешь открыть вентилятор?' (true=knowledge, proba(action)=0.859)
mw-fact-water-1881: 'воды попил стакан, пожалуйста' (true=memory_write, proba(action)=0.543)
mw-fact-water-1882: 'воды попил литр, пожалуйста' (true=memory_write, proba(action)=0.444)
mw-fact-water-1886: 'пил воду литр, пожалуйста' (true=memory_write, proba(action)=0.480)
mw-fact-water-1894: 'я хочу выпил воды стакан' (true=memory_write, proba(action)=0.527)
mw-fact-water-1896: 'я хочу выпил воды литр' (true=memory_write, proba(action)=0.465)
mw-fact-water-1902: 'я хочу воды попил стакан' (true=memory_write, proba(action)=0.503)
mw-fact-water-1904: 'я хочу воды попил литр' (true=memory_write, proba(action)=0.403)
mw-fact-water-1910: 'я хочу пил воду стакан' (true=memory_write, proba(action)=0.468)
mw-fact-water-1925: 'стакан выпил воды' (true=memory_write, proba(action)=0.575)
mw-fact-water-1929: 'стакан воды попил' (true=memory_write, proba(action)=0.613)
unc-ambiguous-noun-2892: 'вода' (true=uncertain, proba(action)=0.371)
unc-ambiguous-noun-2893: 'бэкап' (true=uncertain, proba(action)=0.641)
unc-ambiguous-noun-2894: 'сервер' (true=uncertain, proba(action)=0.505)
unc-ambiguous-noun-2895: 'контейнер' (true=uncertain, proba(action)=0.978)
unc-ambiguous-noun-2896: 'задача' (true=uncertain, proba(action)=0.746)
unc-ambiguous-noun-2897: 'вода, пожалуйста' (true=uncertain, proba(action)=0.381)
unc-ambiguous-noun-2898: 'бэкап, пожалуйста' (true=uncertain, proba(action)=0.636)
unc-ambiguous-noun-2899: 'сервер, пожалуйста' (true=uncertain, proba(action)=0.720)
unc-ambiguous-noun-2900: 'контейнер, пожалуйста' (true=uncertain, proba(action)=0.938)
unc-ambiguous-noun-2901: 'задача, пожалуйста' (true=uncertain, proba(action)=0.742)
unc-ambiguous-noun-2902: 'я хочу вода' (true=uncertain, proba(action)=0.476)
unc-ambiguous-noun-2903: 'я хочу бэкап' (true=uncertain, proba(action)=0.731)
unc-ambiguous-noun-2904: 'я хочу сервер' (true=uncertain, proba(action)=0.661)
unc-ambiguous-noun-2905: 'я хочу контейнер' (true=uncertain, proba(action)=0.946)
unc-ambiguous-noun-2906: 'я хочу задача' (true=uncertain, proba(action)=0.747)
unc-multi-ambiguous-3001: 'всё ок' (true=uncertain, proba(action)=0.391)
unc-multi-ambiguous-3007: 'я хочу всё ок' (true=uncertain, proba(action)=0.447)
kq-cap-tool-1806: 'ты можешь перезапустить nginx' (true=knowledge, proba(action)=0.975)
kq-cap-tool-1807: 'ты можешь перезапустить docker' (true=knowledge, proba(action)=0.936)
kq-cap-tool-1808: 'ты можешь перезапустить сервер' (true=knowledge, proba(action)=0.736)
kq-cap-tool-1809: 'сможешь остановить nginx' (true=knowledge, proba(action)=0.923)
kq-cap-tool-1810: 'сможешь остановить docker' (true=knowledge, proba(action)=0.849)
kq-cap-tool-1811: 'сможешь остановить сервер' (true=knowledge, proba(action)=0.802)
kq-cap-tool-1812: 'умеешь ли проверить nginx' (true=knowledge, proba(action)=0.691)
kq-cap-tool-1815: 'ты можешь перезапустить nginx, пожалуйста' (true=knowledge, proba(action)=0.975)
kq-cap-tool-1816: 'ты можешь перезапустить docker, пожалуйста' (true=knowledge, proba(action)=0.942)
kq-cap-tool-1817: 'ты можешь перезапустить сервер, пожалуйста' (true=knowledge, proba(action)=0.834)
kq-cap-tool-1818: 'сможешь остановить nginx, пожалуйста' (true=knowledge, proba(action)=0.958)
kq-cap-tool-1819: 'сможешь остановить docker, пожалуйста' (true=knowledge, proba(action)=0.890)
kq-cap-tool-1820: 'сможешь остановить сервер, пожалуйста' (true=knowledge, proba(action)=0.877)
kq-cap-tool-1821: 'умеешь ли проверить nginx, пожалуйста' (true=knowledge, proba(action)=0.761)
kq-cap-tool-1824: 'я хочу ты можешь перезапустить nginx' (true=knowledge, proba(action)=0.937)
kq-cap-tool-1825: 'надо бы ты можешь перезапустить nginx' (true=knowledge, proba(action)=0.934)
kq-cap-tool-1826: 'я хочу ты можешь перезапустить docker' (true=knowledge, proba(action)=0.813)
kq-cap-tool-1827: 'надо бы ты можешь перезапустить docker' (true=knowledge, proba(action)=0.787)
kq-cap-tool-1828: 'я хочу ты можешь перезапустить сервер' (true=knowledge, proba(action)=0.676)
kq-cap-tool-1829: 'надо бы ты можешь перезапустить сервер' (true=knowledge, proba(action)=0.570)
kq-cap-tool-1830: 'я хочу сможешь остановить nginx' (true=knowledge, proba(action)=0.908)
kq-cap-tool-1831: 'надо бы сможешь остановить nginx' (true=knowledge, proba(action)=0.918)
kq-cap-tool-1832: 'я хочу сможешь остановить docker' (true=knowledge, proba(action)=0.806)
kq-cap-tool-1833: 'надо бы сможешь остановить docker' (true=knowledge, proba(action)=0.789)
kq-cap-tool-1834: 'я хочу сможешь остановить сервер' (true=knowledge, proba(action)=0.795)
kq-cap-tool-1835: 'надо бы сможешь остановить сервер' (true=knowledge, proba(action)=0.721)
kq-cap-tool-1836: 'я хочу умеешь ли проверить nginx' (true=knowledge, proba(action)=0.587)
kq-cap-tool-1837: 'надо бы умеешь ли проверить nginx' (true=knowledge, proba(action)=0.505)
kq-cap-tool-1842: 'nginx ты можешь перезапустить' (true=knowledge, proba(action)=0.943)
kq-cap-tool-1843: 'docker ты можешь перезапустить' (true=knowledge, proba(action)=0.908)
kq-cap-tool-1844: 'сервер ты можешь перезапустить' (true=knowledge, proba(action)=0.776)
kq-cap-tool-1845: 'nginx сможешь остановить' (true=knowledge, proba(action)=0.880)
kq-cap-tool-1846: 'docker сможешь остановить' (true=knowledge, proba(action)=0.790)
kq-cap-tool-1847: 'сервер сможешь остановить' (true=knowledge, proba(action)=0.660)
kq-cap-tool-1848: 'nginx умеешь ли проверить' (true=knowledge, proba(action)=0.633)
kq-cap-tool-1851: 'ты можешь перезапустить nginx?' (true=knowledge, proba(action)=0.947)
kq-cap-tool-1852: 'ты можешь перезапустить docker?' (true=knowledge, proba(action)=0.886)
kq-cap-tool-1853: 'ты можешь перезапустить сервер?' (true=knowledge, proba(action)=0.661)
kq-cap-tool-1854: 'сможешь остановить nginx?' (true=knowledge, proba(action)=0.916)
kq-cap-tool-1855: 'сможешь остановить docker?' (true=knowledge, proba(action)=0.628)
kq-cap-tool-1856: 'сможешь остановить сервер?' (true=knowledge, proba(action)=0.625)
kq-cap-tool-1857: 'умеешь ли проверить nginx?' (true=knowledge, proba(action)=0.604)
mw-fact-meal-1946: 'пообедал салатом' (true=memory_write, proba(action)=0.634)
mw-fact-meal-1950: 'поужинал салатом' (true=memory_write, proba(action)=0.685)
mw-fact-meal-1951: 'поужинал пиццей' (true=memory_write, proba(action)=0.493)
mw-fact-meal-1955: 'ел пиццей' (true=memory_write, proba(action)=0.238)
mw-fact-meal-1962: 'позавтракал салатом, пожалуйста' (true=memory_write, proba(action)=0.459)
mw-fact-meal-1966: 'пообедал салатом, пожалуйста' (true=memory_write, proba(action)=0.656)
mw-fact-meal-1968: 'поужинал овсянкой, пожалуйста' (true=memory_write, proba(action)=0.414)
mw-fact-meal-1970: 'поужинал салатом, пожалуйста' (true=memory_write, proba(action)=0.662)
mw-fact-meal-1974: 'ел салатом, пожалуйста' (true=memory_write, proba(action)=0.592)
mw-fact-meal-1975: 'ел пиццей, пожалуйста' (true=memory_write, proba(action)=0.290)
mw-fact-meal-1976: 'just ate овсянкой, пожалуйста' (true=memory_write, proba(action)=0.328)
mw-fact-meal-1978: 'just ate салатом, пожалуйста' (true=memory_write, proba(action)=0.429)
mw-fact-meal-1984: 'я хочу позавтракал салатом' (true=memory_write, proba(action)=0.483)
mw-fact-meal-1992: 'я хочу пообедал салатом' (true=memory_write, proba(action)=0.626)
mw-fact-meal-1993: 'надо бы пообедал салатом' (true=memory_write, proba(action)=0.528)
mw-fact-meal-2000: 'я хочу поужинал салатом' (true=memory_write, proba(action)=0.675)
mw-fact-meal-2001: 'надо бы поужинал салатом' (true=memory_write, proba(action)=0.483)
mw-fact-meal-2010: 'я хочу ел пиццей' (true=memory_write, proba(action)=0.265)
mw-fact-meal-2016: 'я хочу just ate салатом' (true=memory_write, proba(action)=0.561)
mw-fact-meal-2024: 'овсянкой пообедал' (true=memory_write, proba(action)=0.385)
mw-fact-meal-2026: 'салатом пообедал' (true=memory_write, proba(action)=0.612)
mw-fact-meal-2027: 'пиццей пообедал' (true=memory_write, proba(action)=0.444)
mw-fact-meal-2028: 'овсянкой поужинал' (true=memory_write, proba(action)=0.438)
mw-fact-meal-2030: 'салатом поужинал' (true=memory_write, proba(action)=0.591)
mw-fact-meal-2031: 'пиццей поужинал' (true=memory_write, proba(action)=0.571)
mw-note-homelab-2401: 'заметка про 备份策略' (true=memory_write, proba(action)=0.633)
mw-note-homelab-2404: 'запиши про настройку 备份策略' (true=memory_write, proba(action)=0.657)
mw-note-homelab-2406: 'заметка про DNS записи, пожалуйста' (true=memory_write, proba(action)=0.442)
mw-note-homelab-2407: 'заметка про 备份策略, пожалуйста' (true=memory_write, proba(action)=0.730)
mw-note-homelab-2410: 'запиши про настройку 备份策略, пожалуйста' (true=memory_write, proba(action)=0.719)
mw-note-homelab-2415: 'я хочу заметка про 备份策略' (true=memory_write, proba(action)=0.671)
mw-note-homelab-2416: 'надо бы заметка про 备份策略' (true=memory_write, proba(action)=0.645)
mw-note-homelab-2421: 'я хочу запиши про настройку 备份策略' (true=memory_write, proba(action)=0.561)
mw-note-homelab-2422: 'надо бы запиши про настройку 备份策略' (true=memory_write, proba(action)=0.666)
mw-note-homelab-2425: '备份策略 заметка про' (true=memory_write, proba(action)=0.742)
mw-note-homelab-2428: '备份策略 запиши про настройку' (true=memory_write, proba(action)=0.633)
mw-free-remember-2460: 'запомни пароль от wifi' (true=memory_write, proba(action)=0.836)
mw-free-remember-2461: 'запомни адрес электрика' (true=memory_write, proba(action)=0.753)
mw-free-remember-2462: 'сохрани что встреча в 3' (true=memory_write, proba(action)=0.457)
mw-free-remember-2463: 'сохрани пароль от wifi' (true=memory_write, proba(action)=0.939)
mw-free-remember-2464: 'сохрани адрес электрика' (true=memory_write, proba(action)=0.980)
mw-free-remember-2466: 'занеси пароль от wifi' (true=memory_write, proba(action)=0.733)
mw-free-remember-2467: 'занеси адрес электрика' (true=memory_write, proba(action)=0.734)
mw-free-remember-2469: 'внеси пароль от wifi' (true=memory_write, proba(action)=0.847)
mw-free-remember-2470: 'внеси адрес электрика' (true=memory_write, proba(action)=0.898)
mw-free-remember-2472: 'запомни пароль от wifi, пожалуйста' (true=memory_write, proba(action)=0.866)
mw-free-remember-2473: 'запомни адрес электрика, пожалуйста' (true=memory_write, proba(action)=0.734)
mw-free-remember-2474: 'сохрани что встреча в 3, пожалуйста' (true=memory_write, proba(action)=0.595)
mw-free-remember-2475: 'сохрани пароль от wifi, пожалуйста' (true=memory_write, proba(action)=0.942)
mw-free-remember-2476: 'сохрани адрес электрика, пожалуйста' (true=memory_write, proba(action)=0.935)
mw-free-remember-2478: 'занеси пароль от wifi, пожалуйста' (true=memory_write, proba(action)=0.830)
mw-free-remember-2479: 'занеси адрес электрика, пожалуйста' (true=memory_write, proba(action)=0.807)
mw-free-remember-2481: 'внеси пароль от wifi, пожалуйста' (true=memory_write, proba(action)=0.942)
mw-free-remember-2482: 'внеси адрес электрика, пожалуйста' (true=memory_write, proba(action)=0.946)
mw-free-remember-2485: 'я хочу запомни пароль от wifi' (true=memory_write, proba(action)=0.692)
mw-free-remember-2486: 'надо бы запомни пароль от wifi' (true=memory_write, proba(action)=0.698)
mw-free-remember-2487: 'я хочу запомни адрес электрика' (true=memory_write, proba(action)=0.768)
mw-free-remember-2488: 'надо бы запомни адрес электрика' (true=memory_write, proba(action)=0.706)
mw-free-remember-2489: 'я хочу сохрани что встреча в 3' (true=memory_write, proba(action)=0.585)
mw-free-remember-2490: 'надо бы сохрани что встреча в 3' (true=memory_write, proba(action)=0.465)
mw-free-remember-2491: 'я хочу сохрани пароль от wifi' (true=memory_write, proba(action)=0.826)
mw-free-remember-2492: 'надо бы сохрани пароль от wifi' (true=memory_write, proba(action)=0.868)
mw-free-remember-2493: 'я хочу сохрани адрес электрика' (true=memory_write, proba(action)=0.914)
mw-free-remember-2494: 'надо бы сохрани адрес электрика' (true=memory_write, proba(action)=0.932)
mw-free-remember-2497: 'я хочу занеси пароль от wifi' (true=memory_write, proba(action)=0.606)
mw-free-remember-2498: 'надо бы занеси пароль от wifi' (true=memory_write, proba(action)=0.775)
mw-free-remember-2499: 'я хочу занеси адрес электрика' (true=memory_write, proba(action)=0.723)
mw-free-remember-2500: 'надо бы занеси адрес электрика' (true=memory_write, proba(action)=0.776)
mw-free-remember-2503: 'я хочу внеси пароль от wifi' (true=memory_write, proba(action)=0.738)
mw-free-remember-2504: 'надо бы внеси пароль от wifi' (true=memory_write, proba(action)=0.895)
mw-free-remember-2505: 'я хочу внеси адрес электрика' (true=memory_write, proba(action)=0.946)
mw-free-remember-2506: 'надо бы внеси адрес электрика' (true=memory_write, proba(action)=0.955)
mw-free-remember-2508: 'пароль от wifi запомни' (true=memory_write, proba(action)=0.843)
mw-free-remember-2509: 'адрес электрика запомни' (true=memory_write, proba(action)=0.817)
mw-free-remember-2510: 'что встреча в 3 сохрани' (true=memory_write, proba(action)=0.582)
mw-free-remember-2511: 'пароль от wifi сохрани' (true=memory_write, proba(action)=0.955)
mw-free-remember-2512: 'адрес электрика сохрани' (true=memory_write, proba(action)=0.974)
mw-free-remember-2514: 'пароль от wifi занеси' (true=memory_write, proba(action)=0.672)
mw-free-remember-2515: 'адрес электрика занеси' (true=memory_write, proba(action)=0.541)
mw-free-remember-2517: 'пароль от wifi внеси' (true=memory_write, proba(action)=0.838)
mw-free-remember-2518: 'адрес электрика внеси' (true=memory_write, proba(action)=0.781)
sys-quiet-off-2583: 'громкий режим' (true=system, proba(action)=0.559)
sys-quiet-off-2584: 'выключи тихий' (true=system, proba(action)=0.372)
sys-quiet-off-2588: 'громкий режим, пожалуйста' (true=system, proba(action)=0.528)
sys-quiet-off-2589: 'выключи тихий, пожалуйста' (true=system, proba(action)=0.470)
sys-quiet-off-2593: 'я хочу громкий режим' (true=system, proba(action)=0.381)
unc-anaphora-2922: 'сделай это, пожалуйста' (true=uncertain, proba(action)=0.312)
## 10. Contrast-family results
### Experiment A (all dev)
family count correct accuracy false_act
------------------------------------------------------------
question 123 91 74.0% 27
capability_question 126 15 11.9% 111
### Experiment B (residual only)
family count correct accuracy false_act
------------------------------------------------------------
question 123 91 74.0% 27
capability_question 126 14 11.1% 112
## 11. Calibration metrics
### Experiment A
- ECE: 0.045
- Brier score: 0.459
- Log loss: 0.929
### Experiment B
- ECE: 0.046
- Brier score: 0.467
- Log loss: 0.946
## 12. Abstention curves
### Experiment A (all dev)
threshold n_accepted coverage accuracy macro_f1 false_act
--------------------------------------------------------------
0.40 2293 92.1% 70.7% 0.706 351
0.50 1968 79.0% 74.5% 0.751 289
0.60 1584 63.6% 78.0% 0.781 227
0.70 1244 50.0% 80.9% 0.812 177
0.80 851 34.2% 84.1% 0.883 120
0.90 438 17.6% 83.3% 0.830 73
### Experiment B (residual only)
threshold n_accepted coverage accuracy macro_f1 false_act
--------------------------------------------------------------
0.40 2244 92.8% 70.4% 0.700 346
0.50 1941 80.3% 73.6% 0.733 285
0.60 1571 65.0% 77.3% 0.771 229
0.70 1228 50.8% 79.9% 0.792 178
0.80 845 34.9% 83.6% 0.873 120
0.90 431 17.8% 81.9% 0.827 78
## 13. Action-threshold curve
### Experiment A
threshold action_P action_R false_act
----------------------------------------
0.40 0.645 0.803 351
0.50 0.672 0.745 289
0.60 0.697 0.655 227
0.70 0.708 0.539 177
0.80 0.733 0.413 120
0.90 0.721 0.237 73
### Experiment B
threshold action_P action_R false_act
----------------------------------------
0.40 0.640 0.803 346
0.50 0.664 0.736 285
0.60 0.687 0.655 229
0.70 0.698 0.537 178
0.80 0.722 0.407 120
0.90 0.690 0.227 78
## 14. Model artifact size and runtime cost
- Trainable parameters: 2310
- 6 classes × 384 features = 2304 weights
- 6 bias terms
- Serialized head size: 9240 bytes (9.0 KB)
- Additional inference FLOPs: 2304 multiply-accumulates
- Incremental cost (e5 already computed): ~2304 FLOPs, <1µs
- Cost if semantic router must trigger its own e5: full ONNX inference (~384 × 128 × 12 = ~590K FLOPs)
## 16. Recommendation
**linear head sufficient**
Residual macro F1 of 0.663 and accuracy of 67.9% exceed the legacy baseline (40.8% residual accuracy) by a meaningful margin. A linear head over frozen e5-small embeddings is a viable first production candidate.
## 17. Commit hash for experiment tooling
`59a0a08d329fbcbefad4ec858cf8c6cc07014a36`
@@ -0,0 +1,263 @@
# Semantic Router Linear Head Experiment — Report
## 1. Exact e5 representation used
- **Model**: model_quantized@384/tok2
- **Checkpoint**: models/embedder/multilingual-e5-small/model_quantized.onnx
- **Tokenizer**: models/embedder/multilingual-e5-small/tokenizer.json
- **Dimension**: 384
- **Pooling**: mean-pool + L2-normalize
- **Normalization**: L2
- **Input template**: query: <text>
## 2. Development/residual row counts
- Total corpus: 136
- Frozen holdout: 21
- Development pool: 115
- Fast-path resolved: 23
- Router-residual: 113
Route distribution (full corpus):
- action: 22
- conversation: 7
- knowledge: 46
- memory_write: 19
- system: 7
- uncertain: 35
## 3. Grouped fold composition
Folds: 5
- Fold 0: eval=33 train=82 routes={'action': 4, 'conversation': 1, 'knowledge': 11, 'memory_write': 3, 'system': 1, 'uncertain': 13}
- Fold 1: eval=16 train=99 routes={'action': 3, 'conversation': 1, 'knowledge': 5, 'memory_write': 4, 'system': 1, 'uncertain': 2}
- Fold 2: eval=22 train=93 routes={'action': 3, 'conversation': 1, 'knowledge': 7, 'memory_write': 4, 'system': 2, 'uncertain': 5}
- Fold 3: eval=22 train=93 routes={'action': 4, 'conversation': 1, 'knowledge': 6, 'memory_write': 4, 'system': 2, 'uncertain': 5}
- Fold 4: eval=22 train=93 routes={'action': 4, 'conversation': 2, 'knowledge': 8, 'memory_write': 2, 'system': 1, 'uncertain': 5}
## 4. Selected regularization
### Experiment A: All development examples
- Best C: 100.0
- Mean accuracy: 65.2% ± 6.2%
- Mean macro F1: 0.597 ± 0.070
- Total false actions (CV): 10
### Experiment B: Router-residual only
- Best C: 100.0
- Mean accuracy: 66.5% ± 7.6%
- Mean macro F1: 0.475 ± 0.083
- Total false actions (CV): 0
### Stability across folds
C=0.01 acc=32.0%±3.0% f1=0.081±0.006 folds_acc=['33.3%', '31.2%', '31.8%', '27.3%', '36.4%']
C=0.1 acc=32.0%±3.0% f1=0.081±0.006 folds_acc=['33.3%', '31.2%', '31.8%', '27.3%', '36.4%']
C=1.0 acc=44.8%±7.0% f1=0.190±0.049 folds_acc=['36.4%', '37.5%', '50.0%', '45.5%', '54.5%']
C=10.0 acc=58.3%±4.6% f1=0.403±0.086 folds_acc=['51.5%', '62.5%', '63.6%', '59.1%', '54.5%']
C=100.0 acc=65.2%±6.2% f1=0.597±0.070 folds_acc=['54.5%', '62.5%', '68.2%', '68.2%', '72.7%']
## 5. All-example CV metrics
- Accuracy: 64.3%
- Macro F1: 0.620
- False-action count: 10
- False-action rate: 8.7%
- Action precision: 0.545
- Action recall: 0.667
- Uncertain precision: 0.800
- Uncertain recall: 0.533
Per-class metrics:
action P=0.545 R=0.667 F1=0.600 (n=18)
conversation P=1.000 R=0.500 F1=0.667 (n=6)
knowledge P=0.756 R=0.838 F1=0.795 (n=37)
memory_write P=0.346 R=0.529 F1=0.419 (n=17)
system P=1.000 R=0.429 F1=0.600 (n=7)
uncertain P=0.800 R=0.533 F1=0.640 (n=30)
Confusion matrix (rows=expected, cols=predicted):
action conversation knowledge memory_write system uncertain
action 12 0 0 5 0 1
conversation 0 3 1 0 0 2
knowledge 4 0 31 2 0 0
memory_write 4 0 3 9 0 1
system 2 0 2 0 3 0
uncertain 0 0 4 10 0 16
## 6. Residual-only CV metrics
- Accuracy: 64.6%
- Macro F1: 0.429
- False-action count: 0
- False-action rate: 0.0%
- Action precision: 0.000
- Action recall: 0.000
- Uncertain precision: 0.667
- Uncertain recall: 0.533
Per-class metrics:
action P=0.000 R=0.000 F1=0.000 (n=5)
conversation P=1.000 R=0.500 F1=0.667 (n=6)
knowledge P=0.750 R=0.917 F1=0.825 (n=36)
memory_write P=0.400 R=0.625 F1=0.488 (n=16)
system P=0.000 R=0.000 F1=0.000 (n=3)
uncertain P=0.667 R=0.533 F1=0.593 (n=30)
Confusion matrix (rows=expected, cols=predicted):
action conversation knowledge memory_write system uncertain
action 0 0 0 2 0 3
conversation 0 3 1 0 0 2
knowledge 0 0 33 3 0 0
memory_write 0 0 4 10 0 2
system 0 0 2 0 0 1
uncertain 0 0 4 10 0 16
## 7. Legacy-vs-linear comparison
### All examples
metric legacy linear e5 delta
-------------------------------------------------------
accuracy 52.2% 64.3% 12.1%
macro F1 — 0.620 —
action precision — 0.545 —
false-action rate 19.9% 8.7% -11.2%
uncertain F1 0.000 0.640 0.640
### Router-residual only
metric legacy linear e5 delta
-------------------------------------------------------
accuracy 40.8% 64.6% 23.8%
macro F1 — 0.429 —
false-action rate — 0.0% —
## 8. Fold variance
All-example CV:
Fold 0: acc=54.5% f1=0.507 false_action=1
Fold 1: acc=62.5% f1=0.579 false_action=2
Fold 2: acc=68.2% f1=0.554 false_action=2
Fold 3: acc=68.2% f1=0.632 false_action=5
Fold 4: acc=72.7% f1=0.712 false_action=0
Residual-only CV:
Fold 0: acc=53.6% f1=0.500 false_action=0
Fold 1: acc=75.0% f1=0.573 false_action=0
Fold 2: acc=72.2% f1=0.411 false_action=0
Fold 3: acc=68.4% f1=0.541 false_action=0
Fold 4: acc=63.2% f1=0.351 false_action=0
## 9. False-action repair/new-error analysis
Note: Legacy per-example predictions were not available for this experiment.
The legacy baseline was measured in aggregate in the Go test suite.
Learned router false-action cases (out-of-fold):
en-query-003: 'show me this week's weight' (true=knowledge, proba(action)=0.402)
ru-query-014: 'я успеваю до дедлайна' (true=knowledge, proba(action)=0.343)
ru-note-003: 'заметка про настройку vlan на свитче' (true=memory_write, proba(action)=0.335)
ru-query-005: 'напоминания на завтра есть' (true=knowledge, proba(action)=0.336)
ru-fact-009: 'отметь что я выпил таблетки утром' (true=memory_write, proba(action)=0.437)
ru-query-011: 'почему сервер тормозит' (true=knowledge, proba(action)=0.381)
ru-fact-005: 'поспал часов пять' (true=memory_write, proba(action)=0.557)
ru-note-006: 'добавь в задачи купить молоко' (true=memory_write, proba(action)=0.739)
ru-sys-003: 'переходи в тихий режим' (true=system, proba(action)=0.404)
en-sys-002: 'turn quiet mode back on' (true=system, proba(action)=0.410)
## 10. Contrast-family results
### Experiment A (all dev)
family count correct accuracy false_act
------------------------------------------------------------
negation 5 3 60.0% 0
question 5 5 100.0% 0
reported_speech 6 3 50.0% 0
quotation 6 4 66.7% 0
hypothetical 6 3 50.0% 0
capability_question 6 6 100.0% 0
### Experiment B (residual only)
family count correct accuracy false_act
------------------------------------------------------------
negation 5 3 60.0% 0
question 5 5 100.0% 0
reported_speech 6 3 50.0% 0
quotation 6 4 66.7% 0
hypothetical 6 3 50.0% 0
capability_question 6 6 100.0% 0
## 11. Calibration metrics
### Experiment A
- ECE: 0.116
- Brier score: 0.418
- Log loss: 0.832
### Experiment B
- ECE: 0.159
- Brier score: 0.411
- Log loss: 0.804
## 12. Abstention curves
### Experiment A (all dev)
threshold n_accepted coverage accuracy macro_f1 false_act
--------------------------------------------------------------
0.40 98 85.2% 72.4% 0.654 6
0.50 75 65.2% 84.0% 0.690 2
0.60 56 48.7% 92.9% 0.851 1
0.70 42 36.5% 97.6% 0.714 1
0.80 28 24.3% 100.0% 1.000 0
0.90 10 8.7% 100.0% 1.000 0
### Experiment B (residual only)
threshold n_accepted coverage accuracy macro_f1 false_act
--------------------------------------------------------------
0.40 86 89.6% 67.4% 0.435 0
0.50 70 72.9% 78.6% 0.583 0
0.60 56 58.3% 91.1% 0.721 0
0.70 46 47.9% 95.7% 0.904 0
0.80 32 33.3% 96.9% 0.880 0
0.90 12 12.5% 100.0% 1.000 0
## 13. Action-threshold curve
### Experiment A
threshold action_P action_R false_act
----------------------------------------
0.40 0.667 0.667 6
0.50 0.846 0.611 2
0.60 0.857 0.333 1
0.70 0.750 0.167 1
0.80 1.000 0.056 0
0.90 0.000 0.000 0
### Experiment B
threshold action_P action_R false_act
----------------------------------------
0.40 0.000 0.000 0
0.50 0.000 0.000 0
0.60 0.000 0.000 0
0.70 0.000 0.000 0
0.80 0.000 0.000 0
0.90 0.000 0.000 0
## 14. Model artifact size and runtime cost
- Trainable parameters: 2310
- 6 classes × 384 features = 2304 weights
- 6 bias terms
- Serialized head size: 9240 bytes (9.0 KB)
- Additional inference FLOPs: 2304 multiply-accumulates
- Incremental cost (e5 already computed): ~2304 FLOPs, <1µs
- Cost if semantic router must trigger its own e5: full ONNX inference (~384 × 128 × 12 = ~590K FLOPs)
## 16. Recommendation
**need more data**
All-example F1 (0.620) is acceptable but residual-only F1 (0.429) drops, suggesting the contrast-family examples are hard for a linear classifier. More contrastive training data may help.
## 17. Commit hash for experiment tooling
`59a0a08d329fbcbefad4ec858cf8c6cc07014a36`
@@ -0,0 +1,333 @@
# Slice 17: Nonlinear MLP Probe — Action Gate Experiment
## 0. Frozen Artifacts from Slice 16
```text
development corpus v2 hash: b27fd48f478ca477
original frozen holdout hash: ad297fbdbbea704b (byte-identical, uninspected)
embedder: model_quantized@384/tok2
dimension: 384
pooling: mean-pool + L2-normalize
input template: query: <text>
embedding file: /tmp/mvn-experiment/embeddings.json
total examples: 3025
dev pool: 2490
frozen holdout: 535
router-residual: 2943
```
## 1. Hidden Sizes and Exact Parameter Counts
### Binary action gate: e5[384] → Linear(384→H) → ReLU → Linear(H→1)
H params fp32 bytes int8 bytes
----------------------------------------
8 3,089 12,356 3,089
16 6,177 24,708 6,177
32 12,353 49,412 12,353
64 24,705 98,820 24,705
### Six-way MLP: e5[384] → Linear(384→H) → ReLU → Linear(H→6)
H params fp32 bytes int8 bytes
----------------------------------------
8 3,134 12,536 3,134
16 6,262 25,048 6,262
32 12,518 50,072 12,518
64 25,030 100,120 25,030
## 2. Selected Regularization
Best binary MLP: H=32, weight_decay=0.01
Selected by grouped development CV PR-AUC.
Grid results (binary MLP):
H wd PR-AUC ROC-AUC action_P action_R FA count FA rate
--------------------------------------------------------------------------------
16 0.0 0.422 0.628 0.139 0.215 155 6.2%
16 0.0001 0.422 0.628 0.139 0.215 155 6.2%
16 0.001 0.423 0.628 0.139 0.215 155 6.2%
16 0.01 0.423 0.628 0.139 0.215 155 6.2%
32 0.0 0.691 0.854 0.686 0.610 219 8.8%
32 0.0001 0.691 0.854 0.686 0.610 219 8.8%
32 0.001 0.691 0.854 0.686 0.611 219 8.8%
32 0.01 0.692 0.854 0.686 0.605 220 8.8% *
64 0.0 0.547 0.714 0.309 0.381 195 7.8%
64 0.0001 0.547 0.714 0.309 0.381 195 7.8%
64 0.001 0.547 0.714 0.309 0.381 195 7.8%
64 0.01 0.545 0.713 0.308 0.368 194 7.8%
## 3. Binary MLP OOF Metrics (best: H=32, wd=0.01)
```text
ROC-AUC: 0.854
PR-AUC: 0.692
action precision: 0.686
action recall: 0.605
false-positive: 220
false-negative: 343
false-action rate: 8.8%
total: 2490
mean iters: 64
```
## 4. Fold Variance
Binary MLP (H=32, wd=0.01):
fold ROC-AUC PR-AUC action_P action_R FP FN n
------------------------------------------------------------
0 0.960 0.915 0.935 0.701 7 43 476
1 0.896 0.917 0.840 0.861 33 28 341
2 0.953 0.939 0.988 0.286 1 212 707
3 0.825 0.454 0.440 0.767 84 20 506
4 0.638 0.236 0.228 0.412 95 40 460
Fold variance comparison with linear binary probe:
fold linear FP MLP FP linear FA% MLP FA%
--------------------------------------------------
0 2 7 0.4% 1.5%
1 12 33 3.5% 9.7%
2 0 1 0.0% 0.1%
3 71 84 14.0% 16.6%
4 87 95 18.9% 20.7%
## 5. Safety Operating Curve (best binary MLP)
threshold action_P action_R FA count FA rate coverage
-----------------------------------------------------------------
0.300 0.6224 0.7827 378 0.1518 0.9305
0.325 0.6324 0.7563 350 0.1406 0.9221
0.350 0.6400 0.7349 329 0.1321 0.9153
0.375 0.6462 0.6997 305 0.1225 0.9040
0.400 0.6536 0.6709 283 0.1137 0.8948
0.425 0.6540 0.6482 273 0.1096 0.8876
0.450 0.6631 0.6231 252 0.1012 0.8795
0.475 0.6714 0.5930 231 0.0928 0.8699
0.500 0.6731 0.5691 220 0.0884 0.8622
0.525 0.6801 0.5503 206 0.0827 0.8562
0.550 0.6866 0.5339 194 0.0779 0.8510
0.575 0.6887 0.5113 184 0.0739 0.8438
0.600 0.6968 0.4849 168 0.0675 0.8353
0.625 0.6910 0.4523 161 0.0647 0.8249
0.650 0.6914 0.4334 154 0.0618 0.8189
0.675 0.6930 0.4083 144 0.0578 0.8108
0.700 0.6856 0.3781 138 0.0554 0.8012
0.725 0.6887 0.3530 127 0.0510 0.7932
0.750 0.6870 0.3254 118 0.0474 0.7843
0.775 0.7071 0.3003 99 0.0398 0.7763
0.800 0.7204 0.2751 85 0.0341 0.7683
0.825 0.7159 0.2374 75 0.0301 0.7562
0.850 0.7422 0.2098 58 0.0233 0.7474
0.875 0.7391 0.1709 48 0.0193 0.7349
0.900 0.7518 0.1332 35 0.0141 0.7229
0.925 0.7684 0.0917 22 0.0088 0.7096
0.950 0.7778 0.0528 12 0.0048 0.6972
No threshold achieves action_P ≥ 0.95.
## 6. Capability-Question Boundary Diagnostic
capability_question → false action rate: 91.3% (115/126)
positive modal request → action recall: 0.569 (796 examples)
### Paired capability-question vs action examples
These are the critical diagnostic pairs:
text route predicted action_P FA?
-----------------------------------------------------------------------------------------------
ты можешь выключить свет knowledge action 0.8159 YES
ты можешь выключить жалюзи knowledge action 0.9752 YES
ты можешь выключить вытяжку knowledge action 0.9720 YES
ты можешь выключить вентилятор knowledge action 0.9041 YES
умеешь ли включить свет knowledge action 0.5618 YES
умеешь ли включить жалюзи knowledge action 0.9195 YES
умеешь ли включить вытяжку knowledge action 0.8956 YES
умеешь ли включить вентилятор knowledge action 0.6122 YES
сможешь открыть свет knowledge action 0.7012 YES
сможешь открыть жалюзи knowledge action 0.9633 YES
сможешь открыть вытяжку knowledge action 0.9596 YES
сможешь открыть вентилятор knowledge action 0.8491 YES
ты можешь выключить свет, пожалуйста knowledge action 0.8682 YES
ты можешь выключить жалюзи, пожалуйста knowledge action 0.9778 YES
ты можешь выключить вытяжку, пожалуйста knowledge action 0.9718 YES
...
перезапусти контейнер maven action action 0.8106
перезапусти контейнер nexus action action 0.8002
перезапусти контейнер redis action action 0.6867
перезапусти контейнер postgres action action 0.6016
перезагрузи контейнер maven action action 0.6810
перезагрузи контейнер nexus action action 0.6192
перезагрузи контейнер redis action action 0.5051
перезагрузи контейнер postgres action not_action 0.4449
перезапусти контейнер maven, пожалуйста action action 0.8442
перезапусти контейнер nexus, пожалуйста action action 0.8672
## 7. Voice-Like Stress Results
```text
Total stress-testable pairs: 965
question with ?: 123
question without ?: 242
positive polite/modal action: 350
capability-question pairs: 42
```
Sample affected pairs:
act-stop-091:
original: "останови сервис, пожалуйста"
stressed: "останови сервис пожалуйста"
route: action
act-stop-092:
original: "останови nginx, пожалуйста"
stressed: "останови nginx пожалуйста"
route: action
act-stop-093:
original: "останови bотоbackup, пожалуйста"
stressed: "останови bотоbackup пожалуйста"
route: action
act-stop-094:
original: "выключи сервис, пожалуйста"
stressed: "выключи сервис пожалуйста"
route: action
act-stop-095:
original: "выключи nginx, пожалуйста"
stressed: "выключи nginx пожалуйста"
route: action
act-stop-096:
original: "выключи bотоbackup, пожалуйста"
stressed: "выключи bотоbackup пожалуйста"
route: action
act-stop-097:
original: "можешь останови сервис, пожалуйста"
stressed: "можешь останови сервис пожалуйста"
route: action
act-stop-098:
original: "can you останови сервис, please"
stressed: "can you останови сервис please"
route: action
act-stop-099:
original: "можешь останови nginx, пожалуйста"
stressed: "можешь останови nginx пожалуйста"
route: action
act-stop-100:
original: "can you останови nginx, please"
stressed: "can you останови nginx please"
route: action
Impact assessment:
The MLP's decision boundary must not depend on punctuation artifacts.
If MLP success depends on '?' presence, it will fail under voice input.
## 8. Six-Way MLP Results
Best six-way MLP: H=64, wd=0.001
```text
accuracy: 68.7%
macro F1: 0.681
action precision: 0.639
action recall: 0.830
false-action rate: 15.0%
false-action count: 374
```
Per-route F1:
action P=0.639 R=0.830 F1=0.722 (n=796)
conversation P=0.893 R=0.720 F1=0.798 (n=93)
knowledge P=0.735 R=0.634 F1=0.681 (n=715)
memory_write P=0.743 R=0.591 F1=0.659 (n=553)
system P=0.646 R=0.597 F1=0.621 (n=226)
uncertain P=0.583 R=0.626 F1=0.604 (n=107)
Confusion matrix (rows=expected, cols=predicted):
action conversation knowledge memory_write system uncertain
action 661 3 67 43 7 15
conversation 0 67 9 3 5 9
knowledge 181 0 453 47 33 1
memory_write 132 0 48 327 29 17
system 37 3 34 11 135 6
uncertain 24 2 5 9 0 67
Fold variance (six-way MLP):
fold accuracy macro_f1 action_P action_R FA
-------------------------------------------------------
0 82.1% 0.774 0.871 0.938 20
1 81.5% 0.625 0.838 0.925 36
2 64.2% 0.580 0.722 0.771 88
3 69.0% 0.687 0.425 0.895 104
4 51.7% 0.452 0.212 0.500 126
## 9. Comparison Against All Linear Baselines
| model | params beyond e5 | action P | action R | FA rate | macro F1 |
| ---------------------------- | ------------------ | ---------- | ---------- | ---------- | ---------- |
| 6-way linear | 2,310 | 0.629 | 0.832 | 15.7% | 0.675 |
| binary linear | ~385 | 0.688 | 0.476 | 6.9% | — |
| structural linear | ~2,313 | 0.610 | 0.805 | 15.1% | 0.622 |
| binary MLP (H=32) | 12,353 | 0.673 | 0.569 | 8.8% | — |
| 6-way MLP (H=64) | 25,030 | 0.639 | 0.830 | 15.0% | 0.681 |
## 10. Conclusion
### Verdict: e5 representation inadequate for the action-pragmatics boundary
The tiny nonlinear MLP provides only marginal improvement over linear baselines
and fails the capability-question diagnostic and the safety operating goal.
1. **Binary MLP does not beat binary linear.** PR-AUC 0.692 (MLP, H=32) vs 0.707
(linear). The MLP trades precision for recall (P=0.673/R=0.569) and produces
*more* false actions (220 vs 172) than the linear probe. The nonlinearity does
not unlock a separability that the linear surface was missing — both are pinned
by the same representation.
2. **Capability-question boundary is catastrophically broken for both.** The MLP
fires action on **91.3% (115/126)** of capability questions — the primary
diagnostic fails outright. The linear probe reaches the same place (112/126).
A nonlinear head cannot separate "ты можешь выключить свет?" (knowledge) from
"можешь выключить свет, пожалуйста" (action) because the frozen mean-pooled e5
vector places them on top of each other.
3. **No safe operating region exists.** The MLP never reaches action precision
≥ 0.95 with materially non-zero recall. The best it can do is P=0.778 at
R=0.053 (essentially zero recall). At any threshold that keeps FA count low,
it becomes useless; at any threshold that keeps recall useful, FA rate climbs
past 10%.
4. **Six-way MLP is essentially flat.** F1=0.681 (H=64) vs 0.675 (linear six-way);
FA rate 15.0% vs 15.7%. Per-route F1 is within noise of the linear head. The bad
folds from slice 16 (fold 3 P=0.425, fold 4 P=0.212) are not repaired.
Per the brief's decision rule this is the third case:
> mean-pooled e5 representation is inadequate for Maven's action-pragmatics
> boundary. at that point stop probing e5.
**Stop probing the frozen mean-pooled e5-small representation.** The signal is
not present and not merely nonlinear. A fundamentally different representation or
encoder is required for the action/capability-question pragmatics boundary.
### Capability-question diagnostic
capability_question false-action rate (MLP): 91.3% (115/126)
capability_question false-action rate (linear): 88.9% (112/126)
positive modal action recall (MLP): 0.569
positive modal action recall (linear): 0.476
The MLP does not materially improve the capability-question boundary.
### Six-way MLP vs binary gate
Six-way MLP (F1=0.681) and six-way linear (F1=0.675) are statistically
indistinguishable. Neither the six-way formulation nor the nonlinearity fixes the
boundary. The architecture evidence does not support routing through a single
learned head for Maven's action pragmatics as currently embedded.
## 11. Commit hash for diagnostic tooling
`e80d45f` (slice 17 MLP probe tooling: `cmd/semantic-router-experiment/slice17_mlp.py`)
@@ -0,0 +1,327 @@
# Fine-tuning a pretrained Russian BERT (rubert-tiny, 11.8 M) makes the in-pool pragmatics boundary the strongest seen so far (pair ordering 0.93-0.97, median margin +0.7) but fires **every one** of the 126 held-out capability-question rows as an action (FA_rate 1.000) on all 18 config/seeds — supervised fine-tuning on this split memorises the seen families' templates, does not learn the boundary, and adds no safety signal anywhere
Date: 2026-09-07 · Task: slice 20 (brief after the accepted slice 19, V-726) · Box: homesrv, Ryzen 5 5600U, 13 GB, CPU-only (this is the production machine) · Build: `cmd/semantic-router-experiment/slice20_*.py`, torch 2.14.0+cpu, transformers 5.16.1 in `/tmp/mvn-exp-venv`, no GPU.
## 0. Frozen artifacts
```text
development corpus v2 hash: b27fd48f478ca477
original frozen holdout hash: ad297fbdbbea704b (byte-identical, uninspected)
text normalization: NormalizeMatchText (NFKC, lowercase, whitespace-collapse; punctuation and ё kept)
embedding file: /tmp/mvn-experiment/embeddings.json
total examples: 3025
dev pool: 2490 (796 action / 1694 not_action)
frozen holdout: 535
router-residual: 2943
capability_question family: 126 rows, all not_action (the exact safety case)
family sizes: polite_request 481 / modal_request 223 / first_person_request 833 / reordered_target 353
paired action/capability rows: 2268 (shared object nouns)
```
Identical dev pool to slices 16-19. Training input per brief §9 is the
punctuation-stripped text (`re.sub(r"[^\w\s]", " ", c)` + collapse); the `orig`
and `nofinal` variants are evaluation-only stress views. Nothing in the frozen
holdout was inspected or added; holding the slice-16 corpus line is unchanged.
## 1. What was tested
`cointegrated/rubert-tiny` — the tiny Russian BERT — fine-tuned end-to-end for
the binary action/not_action label. The model is the 3-layer, 312-hidden, 12-head
configuration (same depth/size family as the slice-19 transformers, but with a
11.78 M-parameter pretrained prior on 655 M tokens of bilingual text). One
sequence-classification head (a single output neuron) was attached: this is the
full fine-tuning door the slice-19 conclusion asked for — "a small modern
pretrained encoder already encodes softeners, modal auxiliaries and the trailing
interrogative in its weights".
| property | value |
| --- | --- |
| model | `cointegrated/rubert-tiny`, revision `5441c5ea8026d4f6d7505ec004845409f1259fb1` |
| license | MIT (2024-02-09 snapshot) |
| params | 11,784,481 |
| config | BERT base-tiny: hidden 312, layers 3, heads 12, intermediate 600, max_pos 512 |
| tokenizer | WordPiece, vocab 29,564, unpadded length-capped |
The brief's alternatives were to hold either submission. Nothing here tests
capacity beyond the slice-19 range (tiny two-config depth, six configs total).
## 2. Tokenizer audit (gate before training)
The slice-19 method note: BPE trained on stripped text silently drops boundary
punctuation (`сервис,` loses the comma) and the stress axis becomes a no-op.
WordPiece ships pretrained, so this slice audits the frozen tokenizer instead:
```text
vocab: 29,564
UNK: 73/28,051 tokens → 0.0026 (all 73 from 5 CJK word-tokens: 记住, 备份策略, 那 —
zero Cyrillic/Latin loss in the whole dev pool)
tokens/utterance: mean 11.4
tokens/char: 0.426
seq len: p50 11, p90 16, p99 19, max 21 → n above 96 = 0, above 128 = 0
Cyrillic/mixed/Latin fragments intact (перезапусти сервис mavend → пер ##еза ##пус ##ти
се ##рви ##с ma ##ven ##d); hashlike ids fine (ha_cam_12 → ha _ cam _ 12)
```
Gate **PASSED**. The UNK floor is a constant 73 (these five CJK words are the
same five everywhere; they occur on both sides of the label), the length
distribution is far below any practical cap, and no useful token is lost.
## 3. Sequence length
`MAX_LEN = 25` (corpus p99 19 + 6). Truncation measured on the dev pool: 0 of
2490 rows. The 128 cap the brief set is respected with a 5× margin.
## 4. Fine-tune setup
Fixed hyperparameters, no grid search on them; the three search axes are the
learning rate and (implicitly, by regime) the input view.
| regime | training input | purpose |
| --- | --- | --- |
| A | natural text (orig) | brief §9 primary; punctuation seen at train |
| B | punctuation-stripped | the slice-19 carry-out; stress-free train |
| hyperparameter | value |
| --- | --- |
| lr grid | 1e-5 · 2e-5 · 5e-5 |
| seeds | 42 · 17 · 7 |
| epochs | max 4, early stop on val PR-AUC (patience 1) |
| batch | 32 |
| weight decay | 0.01 |
| val split | 0.12 within-train (per fold, not touching test) |
| threads | 4 (fp32) — the fast config; 12 threads and bf16 autocast are several × slower |
Grouped 5-fold CV reusing the existing `cv_fold` split; the
capability-question/question families are genuinely held out per fold. Each
train call resamples fresh fold seeds, giving the 3 seed groupings independence
(both for grouped CV and for the leave-generator-out runs). 18 fine-tunes × 5
folds grouped + 18 leave-generator-out runs, ~87 min total on the box.
## 5. Grouped CV, binary gate (strip input, OOF at threshold 0.5)
The in-pool aggregate boundary. Rows are OOF (each row's label folded out of its
train), three seeds (42/17/7), PR-AUC interval is the 3-seed min..max.
| config | PR-AUC | FA rate | P@0.5 | R@0.5 | FA | cap-Q in-pool |
| --- | --- | --- | --- | --- | --- | --- |
| A @ lr1e-5 | 0.750 (0.732..0.768) | 8.2-8.9% | 0.75 | 0.68 | 205-221 | 0.49-0.60 |
| **A @ lr2e-5** | **0.831 (0.800..0.856)** | **6.5-7.5%** | 0.81 | 0.80 | 161-186 | **0.17-0.37** |
| A @ lr5e-5 | 0.814 (0.795..0.828) | 9.6-11.1% | 0.78 | 0.76 | 238-277 | 0.19-0.41 |
| B @ lr1e-5 | 0.730 (0.678..0.786) | 6.9-11.9% | 0.75 | 0.68 | 171-296 | 0.41-0.87 |
| B @ lr2e-5 | 0.810 (0.749..0.845) | 7.4-9.0% | 0.77 | 0.77 | 183-223 | 0.18-0.52 |
| B @ lr5e-5 | 0.833 (0.808..0.865) | 6.9-8.3% | 0.80 | 0.75 | 172-207 | 0.10-0.38 |
The aggregate boundary ~0.83 PR-AUC enters the slice-18 sparse's territory
(0.838) but the FA rate (6.5-11.9%) stays well above the sparse gate's 2.2%.
The secondary window cap-Q in-pool (0.10-0.60) shows the family is *learnable
when present in train*: the boundary exists inside the model's seen
distribution.
### Fold variance (A @ lr2e-5)
```text
seed val PR-AUC per fold (a 12.4%-frac of each fold) epochs per fold
42 0.995 0.997 0.972 0.999 0.994 4 4 4 4 4
17 0.999 0.994 0.980 0.992 0.984 4 4 4 4 4
```
Early stopping never fires — every fold hits the epoch ceiling with val PR-AUC
already ≥ 0.97, i.e. the capacity is nowhere near exhausted on the train side.
The fold-3 (capability/question-heavy) weakness that from-scratch models showed
is invisible here on the val split; the OOF @0.5 FA still jitters 161-186 on the
worst seeds. This is the slope the LOFO result (§7), not the fold table, reveals.
## 6. Safety operating curve
None of the six configs has any threshold with P ≥ 0.95 at R > 0 under the
grouped OOF (`ops` empty in the sync of every seed). The best precision on the
entire curve of the best seed is 0.934 at R 0.230. The sparse gate's slice-18
operating point (P ≥ 0.95 at R 0.264) does not transfer to any fine-tuned
pretrained model either. **A fine-tuned rubert-tiny is not a safe standalone
gate out of the box, even in-pool.**
## 7. Leave-generator-out: capability questions (the critical split, §8/§11)
Same leave-one-family-out as slice 19 §7, now 3 seeds × 6 configs. Evaluate on
the 126 capability-question rows (0/126 positive — every row here must NOT trip
the gate). Threshold 0.5:
```text
config FA(tot=126) FA_rate mean action proba
A @ lr1e-5 (seeds 7/17/42) 126 / 126 / 126 1.000 × 3 0.86-0.87
A @ lr2e-5 (seeds 7/17/42) 126 / 126 / 126 1.000 × 3 0.965-0.972
A @ lr5e-5 (seeds 7/17/42) 126 / 126 / 126 1.000 × 3 0.988-0.991
B @ lr1e-5 (seeds 7/17/42) 126 / 126 / 126 1.000 × 3 0.876-0.893
B @ lr2e-5 (seeds 7/17/42) 126 / 126 / 126 1.000 × 3 0.965-0.967
B @ lr5e-5 (seeds 7/17/42) 126 / 126 / 126 1.000 × 3 0.990-0.992
```
**Every held-out capability question reads as an action, with near-deterministic
confidence** (mean action proba 0.86-0.99, within-family standard deviation
~0.0045). This is not a tuning artifact: it holds at the weakest LR (1e-5), all
seeds, both regimes. It is the sharpest failure in the entire slice family:
worse than e5 (0.976-1.000), worse than the from-scratch seed-stable
transformer-medium (0.48-0.55), worse than the sparse gate (0.667). The
fine-tuned pretrained model — the strongest *in-pool* pragmatics reader these
slices have produced (pair 0.97, §9) — collapses to 100% fire on the exact
unseen-generator case the task exists for.
## 8. The decisive reading (§17 hypothesis test)
The contrast that separates the two hypotheses is now sharp:
* **In-pool** (family present in train): cap-Q FA down to 0.17 (§5), pair
ordering up to 0.97 (§9). The model learns the boundary whenever the generator
family is in the training split.
* **LOFO** (family absent): 1.000 across every config and seed.
A capacity or signal problem would degrade *both* in-pool and LOFO. Instead the
fine-tune is at its *best* in-pool and at its absolute *worst* out-of-family.
The increase in pretrained representation power over from-scratch does **not**
transfer to the unseen generator; it sharpens the seen-family templates until
every capability question is swept into "action". The low LR (1e-5) does not
rescue it — it already fires 84-89% of the rows at 1e-5.
The phenomenon is template/generator specialization, not lack of prior.
## 9. Paired action/capability ordering
2268 pairs (capability question vs executable sibling on the shared object
noun), ordering accuracy and median margin on grouped OOF, strip view:
| config | ordering | median margin |
| --- | --- | --- |
| A @ lr1e-5 | 0.740 (0.731..0.755) | +0.20 |
| **A @ lr2e-5** | **0.933 (0.869..0.970)** | **+0.56..+0.78** |
| A @ lr5e-5 | 0.822 (0.690..0.952) | +0.06..+0.91 |
| B @ lr1e-5 | 0.605 (0.482..0.787) | 0.01..+0.26 |
| B @ lr2e-5 | 0.901 (0.874..0.933) | +0.53..+0.62 |
| B @ lr5e-5 | 0.808 (0.743..0.918) | +0.10..+0.80 |
Best seeds put the executable above its sibling 96-97% of the time with a
median margin of +0.74-0.81 — the strongest ordering ever measured on this
fixture (from-scratch best: bigru-medium 0.866 / +0.598; sparse 0.571). Pair
ordering is the one axis on which the pretrained model is clearly best, and it
is the version of the task where the two members share surface structure, so a
trained-together contrast is exactly what the model generalizes. The pair task
is *in-distribution relative to the model's world prior*; the family boundary is
not.
## 10. Punctuation / voice stress
Models trained on regime A (natural text) vs B (punct-stripped); punctuation is
in the pretrained WordPiece vocabulary. Stress views `orig` / `nofinal` /
`strip`, evaluated on the same early-stopped checkpoint:
```text
config cap-Q in-pool FA (orig/nofinal/strip) pairs (orig/nofinal/strip)
A @ lr2e-5 seed17 0.143 / 0.183 / 0.167 0.968 / 0.959 / 0.961
A @ lr2e-5 seed42 0.294 / 0.365 / 0.365 0.893 / 0.878 / 0.869
B @ lr5e-5 seed7 0.175 / 0.183 / 0.183 0.904 / 0.895 / 0.896
```
Punctuation is not load-bearing: all three views agree within ~2 points on every
metric, for both regimes. The model ignores the `?`/`,` under stress, which is
the safest possible behaviour under ASR. The earlier slice-19 "stress-robust"
was a tokenizer artifact; here it is checked with punctuation genuinely in the
vocabulary and holds.
## 11. Runtime, size, ONNX (homesrv CPU, batch 1)
| property | value |
| --- | --- |
| params | 11,784,481 |
| fp32 weights | 47.1 MB (onnx initializer raw) |
| fp16 weights | 23.6 MB |
| int8 weights | 11.8 MB |
| tokenizer files | 709,227 B |
| latency p50 / p95 (CPU batch 1, incl. tokenize) | 3.66 / 5.25 ms |
| tokenizer | 64.7 µs/utterance |
| threads | 12, MAX_LEN 25 |
**RAM** (fresh process, torch+transformers baseline then model + inference):
baseline 408 MB RSS, with rubert-tiny resident 570 MB → incremental ~161 MB.
That delta is what a python-side subprocess would add on top of an already
imported transformers; a Go daemon embedding the ONNX directly would pay only
the 47 MB fp32 (24 MB fp16 / 12 MB int8) + 0.7 MB tokenizer. Production CPU
latency ~3.7 ms p50 satisfies the speech budget (slice-19 BERT-based rows were
0.9-2.6 ms batch-1; this is the same order).
**ONNX**: export succeeds (`rubert-tiny-gate.onnx`, 411,087 B zip, fp32 raw).
**Parity FAILED**: onnnxruntime CPU probabilities differ from torch by up to
0.56 (mean 0.37) — the exported graph is not faithful to the torch forward on
the same inputs. The fault is in the export path, not the fine-tune; but since
the model did not survive the §8 selection, §15 does not gate the conclusion.
Reported so a future candidate is not burned on a broken export again.
## 12. tiny2 ceiling (§13 of the brief — optional, run)
The brief allowed `cointegrated/rubert-tiny2` as a ceiling probe only. Run (the
same 3-layer/312-hidden family, newer pretraining, vocab 83,828, max_pos 2048):
```text
audit: tokens/utterance mean 11.4, p99 13 (newer, richer WordPiece), unk 0.37%
cap-Q LOFO (A @ lr2e-5, seeds 7/17/42): FA = 126/126/126, FA_rate 1.000 × 3
in-pool (grouped, single seed): PR-AUC 0.782, P 0.735, R 0.747, FA 215 (8.6%)
pairs 0.699, cap-Q in-pool 0.619
```
tiny2 is **worse in-pool** (pair 0.699 vs 0.933; cap-Q in-pool 0.62 vs 0.17)
and **just as catastrophic on the held-out family**. A newer, larger-vocab
pretraining of the same family does not move the LOFO boundary at all. This
rules out the "tiny1 is somehow unlucky pretraining" explanation: the family
prior itself does not carry the boundary.
## 13. Conclusion
### Verdict: the pretrained fine-tune closes in-pool but not the unseen generator; nothing in the supervised family passes the safety door
1. **In-pool, the pretrained model is the strongest pragmatics reader so far.**
Pair ordering 0.933-0.970 with median margin up to +0.81 beats every
from-scratch config (best 0.866) and the sparse gate (0.571); cap-Q in-pool
FA drops to 0.10-0.37 where from-scratch was 0.23-0.54; aggregate PR-AUC
0.83 ties the sparse row. The pretrained prior demonstrably contains the
order/politeness/modality signal slice 18 predicted — when the generator is
in-distribution.
2. **The exact safety case fails harder than everything measured before.**
Leave-generator-out on capability questions: FA_rate **1.000 on all 18
config/seeds** (mean proba 0.86-0.99, within-family σ ~0.0045), vs sparse
0.667, from-scratch seed-stable 0.48-0.55, e5 0.976-1.000. A model that is
the *best* in-pool boundary is simultaneously the *worst* out-of-family.
More representation power sharpens the seen templates; it does not open a
hole to the unseen generator. every supervised route — frozen, from-scratch,
pretrained-fine-tuned — caps or collapses on this split (sparse 0.667 FA,
from-scratch ~0.5, pretrained 1.000).
3. **The spike is generator/template memorization, not lack of prior.** tiny2
(newer, larger-vocab pretraining) does not move LOFO (1.000) and is worse
in-pool. The decisive §11 test says: the capability-question family is not
learnable from the in-pool surface; what the fine-tune learns is "when my
friends speak, act". The pragmatics distinction these slices chase lives in
the *generator structure*, and in the corpus it is visible only as a
template; a supervised encoder sees the template, not the generator.
### What this rules out, and what is left
* **No supervised sequence-model scaling is worth another slice of LOFO.**
Frozen (e5) and fine-tuned (rubert-tiny) both sit at or above 0.976 FA on the
holdout; from-scratch straddles chance. Three different inductive biases have
now failed the same split the same categorical way.
* **The safety floor remains the sparse gate** (0.667 FA, the single best LOFO
number on the fixture) — kept, with its known 2.2% aggregate FA cost.
* Remaining doors, in the order the brief's decision rule points at: (a) a
**template-structure syntactic gate** (modality-verb pattern on top of sparse)
that decomposes the generator rather than learning its shadow; (b) a
**frozen-judge LLM** that answers "would this text execute a tool?"
zero-shot, decoupled from any fine-tune; (c) more data from the
capability-question *generator* (not more utterances) so the family is learned
by construction rather than by silhouette.
* Carry-outs that survive regardless of route: training input stays stripped
(free stress robustness); tokenizers/embeddings audited on natural text;
never report one-seed LOFO without its neighbours; a broken ONNX export must
not be shipped as "parity OK" by an internal self-check.
## 14. Commit hash for tooling
`slice20_audit.py`, `slice20_pretrained.py` (tokenize/grouped/lfo/metrics/
runtime/onnx/ceiling subcommands, `MAX_LEN=25`); artifacts under `/tmp/mvn-s20/`.
+246
View File
@@ -0,0 +1,246 @@
# Slice 16 Diagnostic: Action/Non-Action Boundary Analysis
## 0. Slice 15 Commit Hashes
```text
semantic seed type: 07bfcea
merge-corpus tool: 6397ea1
e5 embedding cache: f8ec77d
sklearn experiment: 9df2239
corpus-factory: 4bb7555
expanded corpus: 87411e5
contract tests: ad3f2d6
experiment reports: cbac8b9
development corpus v2 hash: b27fd48f478ca477
original frozen holdout hash: ad297fbdbbea704b (byte-identical, uninspected)
```
## 1. Router-Residual OOF Safety Metrics
```text
action precision: 0.620
action recall: 0.826
false-action count: 388
false-action rate: 16.0%
uncertain F1: 0.587
total examples: 2418
best C: 10.0
```
## 2. False-Action Decomposition by Semantic Family
Total false actions: 388
### By semantic family
family count rate
----------------------------------------
memory_write 133 34.3%
capability_question 112 28.9%
knowledge_general 77 19.8%
system 29 7.5%
uncertain 26 6.7%
question 9 2.3%
conversation 2 0.5%
### By held-out split group (top 20)
split_group count
-------------------------------------
knowledge:capability-ha 70
knowledge:world-def 46
free:remember 45
knowledge:capability-tool 42
note:task 28
system:self-version 27
fact:meal 27
knowledge:homelab-status 15
uncertain:ambiguous-noun 15
note:homelab 11
fact:water 10
note:idea 8
knowledge:deadline 7
uncertain:single-word-verb 7
knowledge:world-explain 6
knowledge:homelab-disk 5
knowledge:task-check 5
uncertain:multi-ambiguous 3
fact:pills 2
system:quiet-on 2
### By fold
fold count
------------
0 28
1 38
2 92
3 104
4 126
### Diagnosis
- Distinct semantic families contributing false actions: 7
- Distinct held-out split groups: 24
- Largest single family: memory_write (133 false actions)
- Fold false-action count CV (std/mean): 0.49
- Broad distribution across families suggests systematic action/non-action overlap
## 3. Paired E5 Geometry
cosine(action seed, positive action):
mean=0.907 std=0.039 min=0.765 max=0.997 n=38222
cosine(action seed, capability question):
mean=0.897 std=0.035 min=0.782 max=0.979 n=796
cosine(action seed, other negative contrast):
mean=0.893 std=0.031 min=0.822 max=0.975 n=796
Separation gap (positive - capability): 0.010
**WARNING**: e5 maps action seeds and capability questions nearly on top of each other.
The representation itself may not preserve useful separation for this boundary.
## 4. Binary Action Probe (Linear Logistic)
```text
ROC-AUC: 0.863
PR-AUC: 0.707
precision: 0.726
recall: 0.538
false-positive: 172
false-negative: 417
total: 2490
best C: 1.0
```
Per-fold:
Fold 0: ROC=0.967 PR=0.937 P=0.978 R=0.618 FP=2 FN=55 n=476
Fold 1: ROC=0.914 PR=0.940 P=0.919 R=0.682 FP=12 FN=64 n=341
Fold 2: ROC=0.962 PR=0.952 P=1.000 R=0.195 FP=0 FN=239 n=707
Fold 3: ROC=0.832 PR=0.472 P=0.482 R=0.767 FP=71 FN=20 n=506
Fold 4: ROC=0.640 PR=0.235 P=0.250 R=0.426 FP=87 FN=39 n=460
## 5. Cost-Sensitive Linear Action Classification
cost action_P action_R FA count FA rate
----------------------------------------------
1 0.601 0.804 390 15.7%
2 0.562 0.847 481 19.3%
4 0.531 0.891 589 23.5%
8 0.494 0.919 711 28.6%
16 0.461 0.953 847 34.2%
## 6. Expanded Action-Threshold Sweep (30 action groups)
threshold action_P action_R FA count coverage
--------------------------------------------------
0.50 0.664 0.736 285 92.9%
0.60 0.687 0.655 229 88.0%
0.70 0.698 0.537 178 82.1%
0.80 0.722 0.407 120 75.6%
0.85 0.714 0.322 99 72.1%
0.90 0.690 0.227 78 68.2%
0.95 0.727 0.115 33 62.8%
## 7. Voice-Like Punctuation Stress Evaluation
Total stress-testable pairs: 965
Sample stress pairs:
act-stop-091:
original: "останови сервис, пожалуйста"
stressed: "останови сервис пожалуйста"
route: action
act-stop-092:
original: "останови nginx, пожалуйста"
stressed: "останови nginx пожалуйста"
route: action
act-stop-093:
original: "останови bотоbackup, пожалуйста"
stressed: "останови bотоbackup пожалуйста"
route: action
act-stop-094:
original: "выключи сервис, пожалуйста"
stressed: "выключи сервис пожалуйста"
route: action
act-stop-095:
original: "выключи nginx, пожалуйста"
stressed: "выключи nginx пожалуйста"
route: action
act-stop-096:
original: "выключи bотоbackup, пожалуйста"
stressed: "выключи bотоbackup пожалуйста"
route: action
act-stop-097:
original: "можешь останови сервис, пожалуйста"
stressed: "можешь останови сервис пожалуйста"
route: action
act-stop-098:
original: "can you останови сервис, please"
stressed: "can you останови сервис please"
route: action
act-stop-099:
original: "можешь останови nginx, пожалуйста"
stressed: "можешь останови nginx пожалуйста"
route: action
act-stop-100:
original: "can you останови nginx, please"
stressed: "can you останови nginx please"
route: action
Impact assessment:
Removal of punctuation changes:
- trailing '?' removal eliminates the strongest question signal
- lowercase normalization removes proper-noun casing cues
- whitespace collapse has minimal effect on e5 (subword tokenizer)
Production voice punctuation is unreliable; the model must not depend on it.
Capability-question pairs total in stress set: 42
Capability-question pairs with trailing '?': 21
Capability-question pairs with comma only: 21
## 8. E5 + Tiny Structural Features
```text
Features: [e5(384) ; IsQuestion(1) ; trailing_?(1) ; prohibition(1)] = 387 dims
Macro F1: 0.622
False-action rate: 15.1%
False-action count: 373
best C: 10.0
```
Comparison with pure e5:
pure e5: macro_f1=0.616 FA_rate=15.7%
e5 + structural bits: macro_f1=0.622 FA_rate=15.1%
## 9. Four-Hypothesis Comparison Table
| experiment | action_P | action_R | FA rate | macro F1 |
| ----------------------------------- | ---------- | ---------- | ---------- | ---------- |
| six-way e5 linear (residual) | 0.620 | 0.826 | 16.0% | 0.663 |
| six-way + action threshold | 0.727 | 0.115 | 1.4% | — |
| binary linear action probe | 0.726 | 0.538 | 6.9% | — |
| e5 + tiny structural features | 0.610 | 0.805 | 15.1% | 0.622 |
## 10. Conservative Interpretation
### Action/capability-question embeddings are nearly indistinguishable
The representation itself is suspect for this boundary.
Do not claim the boundary is merely nonlinear.
A fundamentally different representation or encoder may be needed.
**E5 geometry verdict**: action seeds and capability questions are nearly
indistinguishable in embedding space. The representation intentionally
maps pragmatically different but semantically similar sentences close together.
This is a fundamental limitation of the frozen e5 representation for this boundary.
**Softmax formulation verdict**: the six-way head produces 388 false actions
at 16.0% rate. The binary probe produces 172 false actions.
The binary probe has 0.4x the false-action count of the six-way head.
This confirms the six-way softmax competition is a significant contributor.
## 11. Commit hash for diagnostic tooling
`774c066`
@@ -0,0 +1,243 @@
# Slice 18: Sparse lexical gate beats every e5 head on the aggregate action boundary, and still collapses on capability questions it has not seen
## 0. Frozen Artifacts (unchanged from slices 16-17)
```text
development corpus v2 hash: b27fd48f478ca477
original frozen holdout hash: ad297fbdbbea704b (byte-identical, uninspected)
text normalization: NormalizeMatchText (NFKC, lowercase, whitespace-collapse; punctuation and ё kept)
representation: sparse TF-IDF over RAW TEXT (e5 vectors ignored)
embedding file: /tmp/mvn-experiment/embeddings.json
total examples: 3025
dev pool: 2490
frozen holdout: 535
router-residual: 2943
```
No ONNX runtime on this box, so no e5 re-embedding; sparse features read the
`text` field directly. Action class: 796 action vs 1694 not_action in dev pool.
## 1. What was tested
Three order-sensitive sparse representations, each with an L2-regularised
logistic head, under the same grouped 5-fold CV as slices 15-17:
| repr | tokenization | vocab |
| --- | --- | --- |
| word | word 1-2 grams | 1,271 |
| char | Unicode char 3-5 grams | 8,132 |
| both | [word ; char] concatenated | 9,403 |
All fitted on the *development corpus only*, evaluated by grouped CV with the
existing `cv_fold` assignment. Hyperparameters fixed (C=1.0, TF-IDF
sublinear_tf, min_df=2) — no grid search, to report the floor.
## 2. Representation comparison, grouped CV (binary action gate)
| repr | ROC-AUC | PR-AUC | action_P | action_R | FA count | FA rate |
| --- | --- | --- | --- | --- | --- | --- |
| word | 0.895 | 0.833 | 0.921 | 0.425 | 29 | 1.2% |
| char | 0.894 | 0.802 | 0.804 | 0.470 | 91 | 3.7% |
| both | 0.909 | **0.838** | 0.875 | 0.485 | 55 | 2.2% |
"both" is the best by PR-AUC and is used for every section below.
### Fold variance (both, at 0.5)
```text
fold ROC-AUC PR-AUC action_P action_R FP FN n
------------------------------------------------------------
0 0.962 0.903 0.893 0.347 6 94 476
1 0.926 0.946 0.926 0.687 11 63 341
2 0.936 0.942 1.000 0.367 0 188 707
3 0.901 0.699 0.699 0.674 25 28 506
4 0.879 0.675 0.705 0.456 13 37 460
```
Fold 2 and fold 3 are the hard ones, as in every slice: fold 3 (the capability /
recall-heavy held-out split) sees most of the remaining 25 false actions.
## 3. Comparison against every e5 baseline (slice 17)
| model | extras | PR-AUC | action_P | action_R | FA rate |
| --- | --- | --- | --- | --- | --- |
| e5 binary linear | ~385 | 0.707 | 0.688 | 0.476 | 6.9% |
| e5 binary MLP H=32 | 12,353 | 0.692 | 0.673 | 0.569 | 8.8% |
| **sparse word+char logistic** | **9,403 (sparse)** | **0.838** | 0.875 | 0.485 | **2.2%** |
The sparse lexical head **raises binary PR-AUC from 0.707 → 0.838** (e5 linear)
and cuts the false-action rate from 6.9% to 2.2%, with comparable recall. On the
*aggregate* action/non-action boundary that Maven guards, a cheap TF-IDF n-gram
surface strictly dominates a frozen mean-pooled e5 vector.
## 4. Safety operating curve (both)
A threshold exists that clears P ≥ 0.95 with materially better recall than e5:
```text
threshold action_P action_R FA count FA rate recall @ P>=0.95
-----------------------------------------------------------------
0.620 0.940 0.355 18 0.0072 0.000
0.655 0.935 0.325 18 0.0072 0.000
0.715 0.959 0.264 9 0.0036 ✓
0.730 0.966 0.247 7 0.0028 ✓
0.745 0.968 0.225 6 0.0024 ✓
...
0.955 1.000 0.004 0 0.0000 ✓
```
Best recall inside the P ≥ 0.95 region is **0.264** (FA 9, rate 0.36%). That is a
real usable operating point for a strict gate — slice 17's e5 MLP had *no*
threshold reaching P ≥ 0.95 at all.
## 5. Leave-generator-family-out (both, held-out family)
Train without a family, evaluate on that family. The families that exist in the
development corpus:
| held-out family | rows | pos/neg | action_P | action_R | FA | accuracy |
| --- | --- | --- | --- | --- | --- | --- |
| polite_request | 460 | 127/333 | 0.927 | 1.000 | 10 | 97.8% |
| modal_request | 223 | 223/0 | 1.000 | 0.852 | 0 | 85.2% |
| first_person_request | 791 | 223/568 | 0.995 | 0.906 | 1 | 97.2% |
| reordered_target | 332 | 96/236 | 1.000 | 1.000 | 0 | 100.0% |
| **capability_question** | **126** | **0/126** | **—** | **—** | **84** | **33.3%** |
| question | 102 | 0/102 | — | — | 0 | 100.0% |
Request-form families generalize cleanly (0-10 FA). The **capability_question
family collapses when held out: 84 of 126 (66.7%) fire as actions.** That is the
semantic-pragmatics family, not a surface-form family. `negation`,
`reported_speech`, `quotation`, `hypothetical` have zero tagged rows in v2 dev,
so they cannot be held out here; they remain a coverage gap for a later corpus.
## 6. Paired action/capability ordering test (both, no leakage)
The task's core: rank an executable action above its semantically-identical
capability-question sibling. Paired by shared object noun (device/entity) plus
home domain:
```text
pairs: 2268
ordering accuracy: 0.571 (chance = 0.5)
mean margin (act-cap): +0.074 (tiny)
median margin: +0.066
reversed pairs: 972
```
0.571 ordering accuracy is barely above chance. Sparse local features see the
same verb-object n-grams in both members of a pair and cannot decide which one
is executable. This is the *specific* weakness — the gate that passes the aggregate
binary test (above) fails the pairwise pragmatics test.
Sample reversed pairs (capability question scored as *more* action-like than its
executable sibling):
```text
cap 'ты можешь выключить свет' P=0.726 < act 'выключи свет в спальне' P=0.527
cap 'ты можешь выключить свет' P=0.726 < act 'выключить свет на кухне' P=0.361
cap 'ты можешь выключить свет' P=0.726 < act 'выключи свет в спальне, пожалуйста' P=0.569
```
## 7. Punctuation ablation (both)
Training on punctuation-stripped text and evaluating both forms:
```text
trained-stripped, eval punctuated: P=0.993 R=1.000 FA=6 (0.2%)
trained-stripped, eval stripped: P=0.993 R=1.000 FA=6 (0.2%)
```
Stripping punctuation *before* training removes the trailing `?`/`,` noise and
cuts false actions from 55 to 6 with perfect recall. The gate does not need
punctuation cues — and under voice input (which the stress protocol simulates)
it must not rely on them. Stripped-input training is the better configuration.
## 8. Voice-like stress (both, model trained on all text)
```text
all: n=874 capability-question FA 0.0% (42) modal action recall 1.000 (350)
no_final: n=132 capability-question FA 0.0% (21) modal action recall 0.000 (0)
```
Under the stress protocol the sparse gate keeps every capability question below
threshold and every modal/polite action above it, on the *in-distribution*
subset (the training set includes capability questions). This is consistent with
the ablation: punctuation is not load-bearing. The honest generalization test
remains section 5, where unseen capability questions do break.
## 9. Six-way probe (both, sparse logistic)
```text
accuracy: 63.1%
macro F1: 0.470
action P: 0.531 action R: 0.923
FA rate: 26.1% (649)
```
Per-route F1:
```text
action P=0.531 R=0.923 F1=0.674 (n=796)
conversation P=0.250 R=0.011 F1=0.021 (n=93)
knowledge P=0.755 R=0.678 F1=0.715 (n=715)
memory_write P=0.770 R=0.430 F1=0.552 (n=553)
system P=0.759 R=0.376 F1=0.503 (n=226)
uncertain P=0.667 R=0.243 F1=0.356 (n=107)
```
As a *routing* head sparse is worse than e5 (six-way macro F1 0.470 vs e5 linear
0.675) — the non-action routes need real semantics, which n-grams do not carry.
The win is specific to the **binary action gate**, not to full routing.
## 10. Artifact size and latency
```text
repr vocab fp32 model bytes vectorize+fit (2490 rows)
word 1,271 5,084 0.07s
char 8,132 32,528 0.10s
both 9,403 37,612 0.12s
```
A hashed-n-gram production form (fixed-width, no vocabulary growth, sub-50 kB
weights) is clearly feasible; it was not implemented in Go for this slice.
## 11. Conclusion
### Verdict: sparse lexical features are sufficient for the aggregate binary gate, insufficient for the pragmatics boundary
Three findings, one per decision rule in the brief:
1. **Sparse is sufficient for the aggregate boundary.** PR-AUC 0.838 vs e5's
0.707, false-action rate 2.2% vs 6.9%, and — unlike e5 — a real P ≥ 0.95
operating point with recall 0.264 (FA 9, 0.36%). A simple TF-IDF n-gram head
over the raw text beats every frozen e5 head tested on the class that Maven
actually guards. This is not e5 vs sparse being close; it is a large,
reproducible margin.
2. **It is not template leakage — it is semantic-family confusion.** Held-out
capability questions fail at 84/126 (66.7%), and the pairwise ordering test
lands at 0.571 (chance). These are not distinct surface forms leaking into one
another; the capability question and its executable sibling share the same
verb-object n-grams verbatim. The residual false actions concentrate exactly
there (capability_question + capability-ha/tool split groups dominate the
decomposition). A representation that held on to per-family surface templates
and nothing else would still collapse on these — the two members of each pair
*are* surface-identical apart from the handful of politeness/modal tokens that
the n-grams cannot learn to weigh.
3. **A sequence encoder is justified for the pragmatics boundary.** Order and
the trailing politeness/modality are the deciding signal, and local n-grams
demonstrably cannot rank them (0.571). The aggregate binary gate is a solved
sub-problem that a cheap sparse head holds at FA 2.2%; the open question is
whether an order-sensitive encoder separates capability questions from their
executable siblings without losing that. That is now the measured, specific
target for the next slice, and the paired-ordering test in section 6 is the
metric to drive it.
Practical recommendation carried out of this slice: if a sparse gate ships, train
it on **punctuation-stripped** text — it is strictly better (FA 6) and immune to
the voice-stress artifact that capped the e5 MLP.
## 12. Commit hash for tooling
`f2b65cd``cmd/semantic-router-experiment/slice18_sparse.py`
@@ -0,0 +1,315 @@
# On the frozen 1652-row five-way residual non-action task the deployed trained cascade (routing heads + e5 centroid classifier, LLM out) already matches a fresh linear head on the same frozen embeddings — 0.715 vs 0.712 macro-F1 — while the deterministic hash-classifier floor resolves only 10.9% of the pool (acc 0.171, 89.1% clarify); cross-family generalization is structurally absent (leave-one-family-out macro-F1 0.150; fact holdout acc 0.018; system/conversation/uncertain holdouts 0.000), the trained cascade calls an executable action on 143 residual non-action rows (8.7%; 91 of them knowledge), and the five-way head swallows 94% of the 766 action OOD rows into non-action buckets at argmax — a new representation or a new head are not justified; the levers are deterministic
Date: 2026-09-08 · Task: slice 22 (brief after the accepted slice 21, task/725) · Box: workpc, Arch, RX 7900 GRE, 32 GB · Build: `cmd/semantic-router-experiment/slice22` (Go 1.25.12, `-mode legacy`/`-mode heads`) + `slice22_emit.py` + `slice22_main.py` in the frozen venv `/tmp/mvn-exp-venv` (sklearn 1.9.0). ONNX for the heads run via `MAVEN_ONNX_LIB` pointing at the venv's `libonnxruntime.so.1.29.0`.
## 0. Frozen artifacts and population
```text
corpus (3266 → frozen 3025): dev pool 2490, byte-identical to slices 16-21
dev residual (fast_path_resolved=false): 2418
residual non-action pool (this slice): 1652
knowledge 715 / memory_write 553 / system 184 / conversation 93 / uncertain 107
53 family_id = 53 split_group (no row differs); folds {0:317, 1:140, 2:410, 3:408, 4:377}
action rows held out as OOD probes: 766
frozen embeddings: model_quantized@384/tok2, mean-pool + L2, 'query: ' prefix
```
Artifacts under `/tmp/mvn-s22/`: `pool.json` (1652 rows, `idx` = position in dev
pool dev-order, so embeddings align by index with `slice19.load_dev`),
`ood.json` (766), `legacy.json` (mode `legacy`), `legacy_heads.json` (mode
`heads`), `results.json` (all sections below). All three JSON outputs are
reproducible: the Go harness is deterministic, and the Python sections carry
`random_state=42`.
## 1. What is being asked
When the fast path misses, the execution-frame guard passes, and no executable
action is warranted, the utterance is one of five residual non-action
semantics: **conversation, knowledge, memory_write, system, uncertain**. This
slice measures whether the deployed e5-small embeddings (384-d, frozen) with a
linear softmax head suffice for that five-way decision, against three floors
and two deployed baselines. The executable-action population is out of scope
for the head (closed in slices 18-21); its rows are OOD probes only.
Decision criteria carried from the brief, judged in §13:
e5-linear sufficient / sparse sufficient / corpus-taxonomy problem / new
representation justified.
## 2. Method and baselines
Five-way projection rules (the daemon's behaviour, `project()` in
`legacy_main.go`): `chat → conversation`, `query → knowledge`,
`fact/note → memory_write`, `system → system`; `act/reminder` on a trusted
non-action row is recorded **verbatim as `action` with
`illegal_action_prediction=true`** and never softly re-mapped to `uncertain`;
`Clarify` and route errors become `uncertain`. In the metrics of §4-§5 the 143
`action` projections count as errors (predicted `uncertain`), so the reported
scores already carry the price of the false-action leak.
Three routers measured (all: stage-0 grammars, `StubDateTimeParser`,
`DefaultFactParser`, act allowlist of 18 verbs, threshold 0.55):
```text
legacy buildMinimalRouter(): StageZeroGrammars + HashEmbedder(1024)
nearest-centroid classifier, seeds models/seeds (331 examples)
→ the deterministic floor, no model, no ONNX
heads grammars + RouterHeads (router_heads.onnx, 0.6 decline) + e5 ONNX
embedder nearest-centroid classifier (same seeds)
→ the deployed cascade with the LLM stage out (docs/routing.md
pickLLMRouter → classifier); the production offline behaviour
```
The two modes were smoke-verified to diverge on the same 40-row slice (the
NN heads fire at softmax 0.94-0.98 on residual rows the hash floor clarifies at
0.16-0.24), and the full-population files were checked for internal
consistency (producer/stage/stage-0 counts add to 1652) before use. Any number
in this report comes from `results.json`, not from a transcript.
## 3. Stage-0 grammar hit under the live rule set: corpus drift
185 of the 1652 "residual" rows are resolved by the **current** stage-0
grammars (`producer=grammar`): by intent `query 157 / note 14 / chat 7 /
system 6 / reminder 1`, by truth-route `knowledge 157 / memory_write 12 /
system 6 / conversation 2 / uncertain 8`. `corpus fast_path_resolved` was set
by a corpus-side mirror (`cmd/corpus-factory/main.go`), not by the live rule
set; a grammar landed (or the mirror froze) after the corpus was built. The
pool remains 1652 for the primary metrics — dropping the 185 would not move
any conclusion below — and this drift is reported separately as
`grammar_drift: hits 185 / grammar-pure 1467`. The mirror should be reconciled
with the live grammar set.
## 4. Baseline A — the deterministic floor (`legacy`)
```text
acc 0.1707 macro-F1 0.1202 illegal_action_prediction 3
conversation P 0.000 R 0.000 F1 0.000 n=93
knowledge P 1.000 R 0.220 F1 0.360 n=715
memory_write P 0.857 R 0.022 F1 0.042 n=553
system P 1.000 R 0.033 F1 0.063 n=184
uncertain P 0.073 R 1.000 F1 0.135 n=107
```
The hash classifier fires above 0.55 on 180 rows (10.9%); the other 1472
(89.1%) are below-threshold `uncertain`. The three illegal predictions are all
`uncertain:incomplete-reminder` ("напомни", "напомни, пожалуйста", "я хочу
напомни") — the reminder grammar fires and the daemon would drive an action
probe on a row the corpus trusted as non-action. This is the boundary class
the deterministic floor cannot price, and it is small.
## 5. Baseline B — the deployed cascade with the LLM out (`heads`)
```text
acc 0.7724 macro-F1 0.7150 illegal_action_prediction 143
conversation P 0.550 R 0.828 F1 0.661 n=93
knowledge P 0.858 R 0.744 F1 0.797 n=715
memory_write P 0.940 R 0.825 F1 0.879 n=553
system P 0.924 R 0.658 F1 0.768 n=184
uncertain P 0.326 R 0.841 F1 0.470 n=107
```
Producer mix: NN-heads 1176, e5-classifier 291, grammar 185. The NN heads name
`act` on 159 rows and `reminder` on 18; **143 of those land on trusted
non-action rows** (`illegal`), split `knowledge 91 / memory_write 46 / system 2 /
uncertain 4`. By family the biggest offenders are `knowledge:capability-ha` 45,
`knowledge:capability-tool` 38 (i.e. 83 capability-question rows — the slice-21
population — called executable), `mw-free-remember` 35, `kq-homelab-disk` 5,
`mw-note-task` 5. Producer split of the illegal 143: classifier 102 (conf
0.89-0.91), NN-heads 40, grammar 1. Example rows: "хватает ли места на диске"
`act` 0.90; "я хочу покажи шаги за неделю" → `reminder` 0.91; "машинное
обучение опиши" → `act` 0.89. The trained components cannot refuse: their
largest directional error is toward execution, which is exactly the boundary
the deterministic stage-0 + execution-frame-guard arm owns.
This is the same shape the fresh head shows in §8: confidence 0.89-0.91 is not
a refusal signal either.
## 6. The fresh e5-linear head (the ask)
Out-of-fold, grouped by the pool's split folds, C grid {0.1, 1, 10}:
```text
C=0.1 acc 0.6096 macro-F1 0.2728
C=1.0 acc 0.6949 macro-F1 0.5974
C=10.0 acc 0.7222 macro-F1 0.7117 ← used everywhere below
```
Per-fold OOF (C=10): fold 0 acc 0.782 / macro 0.783; fold 1 (n=140) 0.736 /
0.605; fold 2 0.705 / 0.576; fold 3 0.713 / 0.710; fold 4 0.695 / 0.592;
mean acc 0.726 ± 0.031, mean macro-F1 0.653 ± 0.080.
```text
OOF per class (C=10):
conversation P 0.840 R 0.731 F1 0.782 n=93
knowledge P 0.713 R 0.761 F1 0.736 n=715
memory_write P 0.720 R 0.749 F1 0.734 n=553
system P 0.687 R 0.500 F1 0.579 n=184
uncertain P 0.758 R 0.701 F1 0.728 n=107
```
The fresh head and the deployed cascade land at the same operating point:
**OOF 0.712 vs deployed 0.715 macro-F1, 0.722 vs 0.772 accuracy.** The linear
head on the deployed embeddings does not beat what is already wired, and the
accuracy gap is explained by the 143 illegal rows the head cannot make (it has
no action class) — a structural, not a representational, difference.
## 7. Floors
```text
majority (all knowledge) acc 0.4328 macro-F1 0.1208
centroid (cosine, in-fold means) acc 0.6731 macro-F1 0.6494
sparse word+char TF-IDF logistic acc 0.6247 macro-F1 0.4463 vocab 7079
e5-linear (the ask) acc 0.7222 macro-F1 0.7117
```
Sparse is below e5-linear on both axes despite a 7079-term vocabulary; the
lexical signal is present but orders of magnitude weaker than the embedding.
Centroid cosine is the closest floor and e5-linear beats it by +0.062 macro-F1.
## 8. Cross-family generalization is absent
Route-family leave-*-out on the frozen 53 families. Each group below is a
single-route family set, so the route is literally absent from training when
the family is removed:
```text
family (route) n acc macro-F1 dominant prediction
capability (kno) 126 0.2619 0.0830 knowledge (F1 0.42)
world (kno) 143 0.7622 0.1730 knowledge (F1 0.87)
calendar (kno) 92 0.6304 0.1547 knowledge (F1 0.77)
recall (kno) 114 0.7632 0.1731 knowledge (F1 0.87)
fact (mwr) 389 0.0180 0.0071 memory_write (F1 0.04)
note (mwr) 104 0.2212 0.0724 memory_write (F1 0.36)
remember (mwr) 60 0.2000 0.0667 memory_write (F1 0.33)
system (sys) 184 0.0000 0.0000 (nothing)
conversation (conv) 93 0.0000 0.0000 (nothing)
uncertain (unc) 107 0.0000 0.0000 (nothing)
leave-one-family-out over all 53: acc mean 0.682, macro-F1 mean 0.149
```
The world/calendar/recall rows read as "good acc" only because knowledge is the
majority: the head's macro-F1 collapses (0.15-0.17). On fact, correct
predictions fall to 1.8%; on system, conversation and uncertain to exactly
zero. Within-family OOF macro-F1 is 0.71 (all routes present), and removing one
family drops it to 0.15. The head is a per-family-template memoriser: it
transfers **no route semantics** to an unseen template family. This is the
ceiling of the frozen representation, not a hyperparameter problem.
## 9. knowledge vs memory_write, matched pairs
`build_pairs` pairs every recall/knowledge row against every write row that
shares a corpus-justified lexeme, and asks whether the model puts the higher
probability on the truth side (memory_write for write, knowledge for recall):
```text
lexeme pairs mw_over_k order_acc mean_margin
"вод" 480 0.863 +0.298
"задач" 720 0.735 +0.122
"dns/сервер/vlan" 180 0.106 -0.228 ← homelab notes vs homelab status
```
The fact/recall contrast ("воды попил" vs "сколько воды") separates well. The
**collision is the note-keep vs report-family**: `note:homelab` and
`note:task` write rows are ranked *below* their `knowledge:homelab-status` and
`knowledge:task-check` partners 89% of the time, with a negative margin. The
frozen embeddings put both sides of "дом" as one cluster; the head cannot
resolve intent direction there. This is the concrete, smallest instance of the
§8 collapse and the strongest single argument that a deterministic
note-vs-recall disambiguator (subject class, scheduling verbs, report vs
record verbs) would buy more than any representation retrain.
## 10. uncertain as an explicit class
```text
OOF: uncertain P 0.758 / R 0.701 / F1 0.728 (n=107)
pulled out of uncertain (true uncertain, mislabelled): knowledge 14,
memory_write 11, conversation 7, system 0
pulled into uncertain (not uncertain, predicted uncertain): conversation 9,
knowledge 7, memory_write 5, system 3
```
`uncertain` is taught and recalled (R 0.70), and the pulls are small and
mirrored — the "ask instead" bucket behaves like a class, which is what the
daemon needs it to be only if the ask threshold is real (§11).
## 11. Calibration, abstention, and the action OOD
Confidence (max-softmax of the OOF head): correct-mean 0.766, wrong-mean 0.612,
ECE 0.0275, log-loss 0.7365, macro-Brier 0.0781. The head is well calibrated
on-pool.
```text
threshold (max-softmax) coverage accuracy macro-F1
0.10 1.000 0.722 0.712
0.28 0.996 0.725 0.715
0.46 0.907 0.756 0.757
0.64 0.676 0.822 0.829
0.82 0.379 0.887 0.913
```
**Action OOD probes** — the 766 frozen action rows, scored by the same five-way
head, are the wrong-population test the head must refuse:
```text
argmax class: knowledge 370 (48.3%), memory_write 347 (45.3%),
uncertain 38 (5.0%), conversation 11, system 0
conf mean 0.653, conf median 0.644, conf > 0.9 on 46 rows (6.0%)
```
94.6% of action utterances are named a resolvable non-action route at argmax,
and 6% land above the pool's own 0.82 high-confidence line. A five-way head
replacing the current cascade would turn action rows into confident
knowledge/write decisions. Two consequences: (a) the head must stay behind the
deterministic act/reminder + execution-frame-guard arm and never precede it —
the current cascade order already does that; (b) it cannot double as an
action-refuser by thresholding, so the reminder/act grammar family stays the
only refusal mechanism, and its 143-row miss rate (§5) is the real open
boundary for the trained arm, priced at 8.7% of residual non-action.
## 12. Artifact cost
Linear head: 1925 params (5×384 + 5 bias), 7.52 KiB fp32, incremental
decision latency mean 190 µs / p50 165 µs (pure head, Python timing on the
box; the shared cost is the e5 forward the routing-heads path already pays).
The head itself is negligible; the representation forward is not the lever.
## 13. Verdict on the decision criteria
| criterion | verdict |
| --- | --- |
| e5-linear suffices | **No.** In-fold parity with what is deployed (0.712 vs 0.715 macro-F1), but it transfers nothing across template families (LOO macro-F1 0.149) and cannot abstain on action rows (94.6% swallowed). |
| sparse suffices | **No.** 0.6247 / 0.4463, below the linear head on both axes. |
| corpus-taxonomy problem | **Partly.** 185 rows the corpus called residual are resolved by the live grammar set today (mirror staleness), and the two largest illegal-action families are capability questions — a corpus-trust boundary, not a representation one. |
| new representation justified | **No on this evidence.** The ceiling is family-lexicon transfer, not embedding capacity: replacing the frozen e5 changes nothing measured; the floors show the same collapse. A new representation would need to demonstrate the §8 holdouts moving before it earns a retrain. |
## 14. Operational implications
* **Keep the cascade order.** Stage-0 grammars and the execution-frame guard
(slice 21) are the only two mechanisms that keep the 8.7% false-action leak
from reaching tools; neither the linear head nor the deployed NN heads can
be promoted to the action boundary.
* **Reconcile the corpus fast-path mirror** against the live grammar set (185
drifting rows). Purely deterministic, zero-model, and removes a class of
"legacy understates the router" arguments.
* **Add a deterministic note-vs-recall disambiguator** for the homelab/task
lexical clusters (the 0.106 ordering in §9): subject class, report verbs vs
record verbs, date/scheduling adverbs. Expected lever: most of the
memory_write recall gap without touching embeddings.
* **Watch the classifier's confident `act` calls** (conf 0.89-0.91 on
capability-question and free-remember rows, §5). The "хватает ли места на
диске" → `act` 0.90 row is a slice-21 capability question that the trained
arm still prices as executable; the deterministic guard is the only thing
standing between it and an action probe.
* **Do not threshold the uncertain bucket for action refusals.** The 38/766
uncertain picks on OOD action rows show an explicit uncertain class is near
useless as a guard; the numbers are confidence, not category.
## 15. Commit hashes
* Tooling (emit step, Go harness both modes, Python experiment): `29f74dd`
(`router/semantic: slice 22 residual non-action router — emit, harness,
experiment`).
* Report + eval index row: this file with its `docs/evals/CLAUDE.md` entry.
* Artifacts under `/tmp/mvn-s22/` (not committed; reproducible by
`slice22_emit.py`, then `go run ./cmd/semantic-router-experiment/slice22/
-mode legacy` and `-mode heads` with `MAVEN_ONNX_LIB`, then
`slice22_main.py`).
@@ -0,0 +1,190 @@
# Rebuilding corpus fast-path metadata from the real router moves the slice-22 1652-row five-way numbers by ≤2pp (heads 0.772→0.751 acc, e5-linear 0.722/0.712→0.720/0.731 macro-F1) and every aggregate slice-22 conclusion survives, so the learned non-action router investigation is closed as run; the residual pool is 1509 non-action + 720 action OOD rows, and the deterministic hash-classifier floor collapses to acc 0.066 because its earlier 0.171 was almost entirely the 185 rows the stale mirror had mislabelled as residual while the real grammars already resolve them
Date: 2026-09-08 · Task: slice 23 (fast-path metadata reconciliation; postscript to the accepted slice 22, task/725) · Box: workpc, Arch, RX 7900 GRE, 32 GB · Build: `internal/router/semantic/fastpath.go` + `cmd/semantic-router-experiment/slice23/` (Go 1.25.12) + `slice23_emit.py`/`slice23_main.py` in the frozen venv `/tmp/mvn-exp-venv` (sklearn 1.9.0); ONNX via `MAVEN_ONNX_LIB` pointing at the venv's `libonnxruntime.so.1.29.0`.
Replaces the corrected-population numbers in [slice 22](2026-09-08-slice22-residual-nonaction-router.md). The slice-22 file keeps its role for the run itself; its 1652-row pool is no longer the current measurement population.
## 0. What changed and what did not
The corpus's `fast_path_resolved` flag was stamped by a hand-written regex mirror
(`classifyFastPath` in `cmd/corpus-factory/main.go`) that drifted from the
stage-0 grammars. Slice 22 noticed 185 residual rows resolving at runtime. This
slice makes the flag a derivation from the real router and re-measures.
```text
corpus 3025 rows, dev pool 2490, frozen holdout 535 unchanged
dataset_hash b27fd48f478ca477cab1e59773bb353a unchanged (texts)
fast_path_resolved 82 → 271 (dev 72 → 261, frozen 10, preserved)
residual 2943 → 2754 (dev 2418 → 2229, frozen 525, preserved)
residual non-action pool 1652 → 1509
knowledge 715→558 / memory_write 553→541 / system 184→220 / conversation 93→91 / uncertain 107→99
action OOD probes 766 → 720
residual dev pool folds {0:317,1:140,2:410,3:408,4:377} → {0:247,1:111,2:373,3:386,4:392}
```
The rebuild changed **exactly the derived fields on exactly the 277 dev rows**
that disagree with the router: 0 rows differ in text, route, source, source_id,
split_group, or the non-`router_residual` tags. The 22 stale frozen rows (see §1)
are preserved verbatim per the merge rule — reported, never silently rewritten.
## 1. The drift, decomposed (299 disagreements across 3025 corpus rows)
`cmd/semantic-router-experiment/slice23` runs `DeriveFastPath` (the production
`TryFastPath` over `StageZeroGrammars` with the experiment act allowlist) on
every row and attributes the winner. Output: `/tmp/mvn-s23/drift.json`.
```text
mirror_missed (stored residual, runtime resolves) 249
dev 233 = 185 non-action + 48 action
dev non-action by grammar: calendar-query 66, definition-query 30,
narrative-query 26, task-capture 12, agenda-query 9, task-list-query 9,
plan-day-query 8, ambiguous-fragment 7, time-query 6, rest-of-day 5,
event-time 4, possession-statement 2, reminder-wakeword 1
frozen 16 (possession 6, implicit-elapsed 3, wakeword-act 2, + 5 singles)
claimed_fast_now_miss (stored fast, runtime declines) 50
dev 44 (system 42, action 2) + frozen 6 (memory_write "note: " rows)
every one has ≥1 stage-0 grammar matching its shape and declining the build;
none is a "no grammar matches" row
```
The **185 dev non-action `mirror_missed` rows are byte-identical in count and
route split** to the slice-22 harness's `grammar_hits_in_pool: 185`
(knowledge 157, memory_write 12, system 6, conversation 2, uncertain 8) — a
strong cross-check that `DeriveFastPath` equals what the slice-22 harness
measured through `Route()`.
Root cause, two mechanisms:
1. **Grammar coverage grew after the corpus froze.** `calendar-query` (67),
`definition-query` (31), `narrative-query` (27), `task-status` (24),
`agenda-query` (9), `possession-statement` (8), `plan-day-query` (8),
`event-time-query` (4) and the rest are current stage-0 rules with no
counterpart in the mirror. The mirror ever only knew a fixed verb list.
2. **The mirror's verb lists over-stamped.** The 50 `claimed_fast_now_miss`
rows ("покажи uptime", "note: кран на кухне капает", "what's the date
сегодня") matched `toolAliasRe`/`captureVerbRe`/`timeQueryRe`, but no real
grammar accepts them: rules like `task-list-query`/`list-capture` use a
catch-all `(?s)^\s*(.+)$` pattern with the real gate in `Build`, which
declines. The mirror had no concept of a build gate.
The frozen 22 (16 + 6) are the same two mechanisms on holdout families,
including three `ru_routing_v1` rows ("что у меня стоит в календаре на
послезавтра", "расскажи про битву при Ватерлоо", "кто такой Линус Торвальдс?")
now resolved by calendar/narrative/definition grammars.
## 2. The authoritative derivation
`internal/router/semantic/fastpath.go` (non-test) owns:
- `ExperimentActVerbs()` — the 18 verbs formerly duplicated in
`helpers_test.go`, `legacy_build.go` and `heads_main.go`; now one non-test
list, so propagation can never drift from measurement.
- `DeriveFastPath(text) FastPathOutcome{Matched, Grammar}` — builds the exact
router the legacy baseline measures (`router.StageZeroGrammars` + the
experiment act matcher + `StubDateTimeParser`/`DefaultFactParser`) and runs
`TryFastPath(NormalizedInput{Text, MatchText: NormalizeMatchText(Text)})`.
Grammar attribution replays the ordered first-accept walk the router performs,
including wake-stripped alternates and build-declined fall-through.
Consumers:
- `cmd/corpus-factory` stamps `fast_path_resolved`/`router_residual` from
`DeriveFastPath`; the regex mirror is deleted.
- `cmd/merge-corpus` validates every v2 row against the derivation and **fails
on a stale value**; frozen holdout drift is reported only.
- `internal/router/semantic/fastpath_invariant_test.go` asserts every dev row
satisfies `fast_path_resolved == DeriveFastPath(text).Matched`; frozen rows
are exempt by the merge rule.
## 3. Rebuild proofs
```text
factory v2: 3008 rows, text-set identical old↔new
diff = exactly the fast-path fields on 296 rows; 0 other diffs
merge: v2 dev rows 2490 all validated against the router (0 stale)
frozen 535 preserved; 22 drift rows reported, none rewritten
v1 embedded: 3025 rows, text-set identical; dataset_hash unchanged
diff = fast-path fields on the 277 dev rows; 0 other diffs
embeddings: regenerated (fast_path_count 82 → 271, residual_count 2943 → 2754)
all 3025 vectors differ by ≤ ~0.02 max-abs from the slice-22 file
(onnxruntime build noise); on the same 1509 pool the e5-linear
score moves only 0.0014 acc / 0.0002 macro-F1 (C=10), i.e. the
population effect, not the embedding noise, drives every delta
```
## 4. Baseline deltas on the corrected population
| measure | slice 22 (n=1652) | slice 23 (n=1509) |
| --- | --- | --- |
| legacy hash floor | 0.1707 / 0.1202 (illegal 3) | **0.0663 / 0.0265 (illegal 2)** |
| deployed cascade (heads) | 0.7724 / 0.7150 (illegal 143) | 0.7515 / 0.7065 (illegal 142) |
| e5-linear C=10 | 0.7222 / 0.7117 | 0.7203 / 0.7310 |
| centroid (cosine) | 0.6731 / 0.6494 | 0.6753 / 0.6494 |
| sparse word+char (both) | 0.6247 / 0.4463 (vocab 6951) | 0.5991 / 0.4588 |
| majority | 0.4328 / 0.1208 | 0.3698 / 0.1080 |
| leave-one-family-out | 0.6824 / 0.1499, 53 fm | 0.6863 / 0.1519, 53 fm |
| fact holdout | 0.0180 (n 389) | 0.0077 (n 389) |
| world holdout | 0.7622 (n 143) | 0.6552 (n 87) |
| recall holdout | 0.7632 (n 114) | 0.5667 (n 90) |
| calendar holdout | 0.6304 (n 92) | 0.5185 (n 27) |
| K/MW water pairs | 0.863 (480), +0.298 | 0.850 (480), +0.275 |
| K/MW homelab pairs | 0.106 (180), 0.228 | 0.072 (180), 0.247 |
| K/MW task pairs | 0.735 (720), +0.122 | 0.403 (216), 0.095 |
| uncertain OOF P/R/F1 | 0.758 / 0.701 / 0.728 | 0.734 / 0.697 / 0.715 |
| action OOD swallowed | knowledge 370, mw 347 of 766 (conf>0.9: 0.060) | knowledge 364, mw 312 of 720 (conf>0.9: 0.056) |
| grammar hits in pool | 185 / 1467 pure | **0 / 1509 pure** |
The hash floor's collapse is explained structurally: the 185 removed rows were
nearly all the hash classifier's correct knowledge hits (correct predictions
282 → 98, a one-to-one loss with the drift), so the deterministic floor "resolves"
the same rows the real grammars already own.
## 5. The decisions requested
1. **Drift decomposition** — §1; 299 = 249 + 50; the slice-22 185 reproduces exactly.
2. **Root cause** — §1; coverage growth + build-gate over-stamp, neither visible to a regex mirror.
3. **Authoritative derivation** — §2; `DeriveFastPath` on the standard experiment router; duplicated act list removed.
4. **Corpus-builder change** — §2-§3; factory stamps from the router, merge validates (fail on stale) + reports frozen drift, invariant test enforces it.
5. **Corrected counts** — §0; fast 82→271, residual 2943→2754, pool 1652→1509 non-action + 720 OOD; dataset hash unchanged proves only the derived field moved.
6. **Baseline deltas** — §4; all ≤2pp on the head scores; hash floor collapses because its output was the drifted rows.
## 6. Conclusion survival and the gate
Every aggregate slice-22 conclusion is unchanged on the corrected population:
- **e5-linear ≈ deployed cascade.** e5 0.7203 vs heads 0.7515 acc (slice 22:
0.7222 vs 0.7724); macro-F1 e5 0.7310 now *exceeds* heads 0.7065. The ≈3pp
gap stands; a head on frozen e5 embeddings adds nothing a linear probe lacks.
- **Cross-family transfer is structurally absent.** LOFO macro-F1 0.1519;
fact holdout 0.0077; system/conversation/uncertain holdouts 0.0000.
- **K/MW is a deterministic semantic defect.** Homelab pairs still order
backwards (0.072, margin 0.247); task pairs now order backwards too
(0.403, margin 0.095, pairs 720→216 as the calendar/task queries leave the
pool). Water stays right (0.850). No learned head fixes this at the margin.
- **The deterministic floor is not a baseline.** acc 0.0663 ≈ predicting
uncertain for everything.
- **Action OOD is still swallowed.** 676 of 720 (93.9%) land in
knowledge/memory_write at argmax; conf>0.9 5.6%.
Decision gate from the brief: conclusions **materially the same**. The learned
non-action-router investigation is **closed**; no new representation or head is
justified. Next slice: the note-vs-recall disambiguator (the one genuine residual
deterministic defect the K/MW numbers keep surfacing).
## Artifacts
Re-run (corrected population):
```sh
go run ./cmd/semantic-router-experiment/slice23/ -out /tmp/mvn-s23/drift.json
go build -o /tmp/mvn-s23/s23 ./cmd/semantic-router-experiment/slice22/
MAVEN_ONNX_LIB=…/libonnxruntime.so.1.29.0 /tmp/mvn-s23/s23 -mode legacy -pool /tmp/mvn-s23/pool.json -out /tmp/mvn-s23/legacy.json
MAVEN_ONNX_LIB=… /tmp/mvn-s23/s23 -mode heads -pool /tmp/mvn-s23/pool.json -out /tmp/mvn-s23/legacy_heads.json
python3 slice23_emit.py # → /tmp/mvn-s23/{pool,ood,stats}.json (1509/720)
MAVEN_ONNX_LIB=… python3 slice23_main.py # → /tmp/mvn-s23/results.json
```
Corpus rebuild (proofs in §3): `corpus-factory -out /tmp/corpus_v2.json`, then
`merge-corpus -v1 corpus_v1.json -v2 /tmp/corpus_v2.json -out corpus_v1.json`
(identity of the change verified against `/tmp/mvn-s23/corpus_v1.old.json`).
Embedding regeneration (noise isolation against `/tmp/mvn-s23/embeddings.old.json`).
@@ -0,0 +1,305 @@
# Slice 19: from-scratch tiny sequence encoders beat sparse and e5 on the capability-question holdout (seed-stable FA 0.48-0.55 vs 0.667 / ~0.98) yet cap at ~50% accuracy on the leave-generator-out pragmatics split — a pretrained prior is the next step
Date: 2026-09-08 · Task: V-726 (slice 19) · Box: homesrv, Ryzen 5 5600U, 13 GB, CPU-only (this is the production machine) · Build: `cmd/semantic-router-experiment/slice19_*.py`, torch 2.14.0+cpu in `/tmp/mvn-exp-venv`, no GPU.
## 0. Frozen artifacts
```text
development corpus v2 hash: b27fd48f478ca477
original frozen holdout hash: ad297fbdbbea704b (byte-identical, uninspected)
text normalization: NormalizeMatchText (NFKC, lowercase, whitespace-collapse; punctuation and ё kept)
embedding file: /tmp/mvn-experiment/embeddings.json
total examples: 3025
dev pool: 2490 (796 action / 1694 not_action)
frozen holdout: 535
router-residual: 2943
```
Same data as slices 16-18. Training input per brief §9 is always the
punctuation-stripped text (`re.sub(r"[^\w\s]", " ", c)` + collapse); the `orig`
and `nofinal` variants are evaluation-only stress views.
### Method note: the tokenizer axis was broken once and fixed
The BPE first trained on the *stripped* texts. `tokenizers`' ByteLevel BPE then
silently **drops boundary punctuation at inference** (`сервис,` → the `сервис`
token, comma gone; a comma observed in training keeps its own id 55), so `orig`
vs `strip` differed on only 0.6% of the corpus and the BPE stress axis was a
no-op. Fixed by training both tokenizers on the *natural* dev texts (punctuation
kept, per the normalization line above) while training input remains stripped.
After the fix punctuation fires as real in-vocabulary symbols under stress, and
35.1% of rows differ between `orig` and `strip`. All numbers below are from the
fixed build; the pre-fix run is discarded (its "stress-identical → robust"
reading for BPE models was an artifact).
## 1. What was tested
Three from-scratch, order-sensitive encoders, each in a size ladder, all trained
only on the binary action/not-action label from the dev pool:
| family | A. CharCNN | B. BiGRU | C. TinyTransformer |
| --- | --- | --- | --- |
| input | codepoint ids | subword ids (BPE) | subword ids (BPE) |
| depth | 1D convs (widths 2-5), global max-pool | 1-layer bidirectional GRU, max-pool~final | 2-4 self-attention blocks (PreNorm, GELU FFN 4x), learned pos, max-pool ~ CLS |
| sizes | tiny, medium | tiny, medium, large | small, medium |
| params | 27 k / 149 k | 129 k / 356 k / 1,106 k | 558 k / 2,022 k |
Chosen per the slice-18 handoff: the deciding signal is order and trailing
politeness/modality, which local n-grams provably could not rank (pair 0.571).
## 2. Tokenizers
Trained on the dev pool only.
| tokenizer | vocab | notes |
| --- | --- | --- |
| CharVocab | 73 (id 0 = PAD; OOV → 0) | codepoint ids incl. punctuation and the occasional CJK char |
| BpeVocab | 1,234 / 2,048 cap | byte-level BPE, serialized 52,897 bytes |
Max lengths: char 64, BPE 24. No narrowing to Russian; the corpus is the vocab.
## 3. Training setup
Fixed hyperparameters, no grid search, seed = 42 + fold for grouped CV:
| family | epochs | lr | batch | grad clip | optimiser |
| --- | --- | --- | --- | --- | --- |
| char_cnn | 20 | 1e-3 | 64 | none | AdamW wd 1e-4, BCE-with-logits |
| bigru | 15 | 5e-4 | 64 | 1.0 | AdamW wd 1e-4, BCE-with-logits |
| tiny_transformer | 25 | 5e-4 | 64 | 1.0 | AdamW wd 1e-4, BCE-with-logits |
Grouped 5-fold CV reusing the existing `cv_fold` split; the capability-question
and question families are genuinely held out per fold. Padded sequences,
zero-pad ignored.
## 4. Grouped CV, binary gate (strip input, OOF at threshold 0.5)
| config | PR-AUC | ROC-AUC | action_P | action_R | FA | FA rate |
| --- | --- | --- | --- | --- | --- | --- |
| char_cnn_tiny | 0.814 | 0.908 | 0.808 | 0.672 | 127 | 5.1% |
| char_cnn_medium | **0.838** | 0.917 | **0.816** | 0.706 | 127 | **5.1%** |
| bigru_tiny | 0.813 | 0.889 | 0.726 | 0.716 | 215 | 8.6% |
| bigru_medium | 0.794 | 0.864 | 0.684 | 0.693 | 255 | 10.2% |
| bigru_large | 0.837 | 0.893 | 0.689 | 0.755 | 271 | 10.9% |
| tiny_transformer_small | 0.731 | 0.820 | 0.704 | 0.670 | 224 | 9.0% |
| tiny_transformer_medium | 0.742 | 0.844 | 0.686 | 0.750 | 273 | 11.0% |
The char CNN is the best *aggregate* binary separator (as in slice 18, where the
n-gram representation owned the aggregate boundary). The sequence models trade
aggregate precision for spread-out recall.
### Fold variance (at 0.5)
```text
config PR mean PR min PR max FA per fold (n)
char_cnn_tiny 0.791 0.585 0.967 10, 17, 13, 66, 21
char_cnn_medium 0.802 0.572 0.974 12, 27, 10, 59, 19
bigru_tiny 0.803 0.632 0.880 25, 53, 37, 63, 37
bigru_medium 0.751 0.461 0.930 49, 25, 62, 38, 81
bigru_large 0.790 0.511 0.921 20, 43, 58, 60, 90
tiny_transformer_small 0.713 0.529 0.923 64, 17, 61, 23, 59
tiny_transformer_medium 0.714 0.492 0.900 38, 46, 48, 97, 44
```
Fold 3 (`n=506`, the capability/question-heavy split) is the hard fold for the
CNN/GRU families exactly as in every slice since 16.
## 5. Aggregate comparison against every prior head
| model | extras | PR-AUC | action_P | action_R | FA rate | cap-Q LOFO FA | pair order |
| --- | --- | --- | --- | --- | --- | --- | --- |
| e5 binary linear (C=1.0) * | ~385 | 0.623 | 0.688 | 0.476 | 6.9% | 1.000 | 0.114 |
| e5 binary MLP H=32 * | 12,353 | 0.674 | 0.673 | 0.569 | 8.8% | 0.976 | 0.136 |
| sparse word+char logistic (sl. 18) | 9,403 | 0.838 | 0.875 | 0.485 | 2.2% | 0.667 | 0.571 |
| char_cnn_medium (19) | 149 k | 0.838 | 0.816 | 0.706 | 5.1% | 0.976 | 0.535 |
| bigru_tiny (19) | 129 k | 0.813 | 0.726 | 0.716 | 8.6% | 0.540 | 0.635 |
| tiny_transformer_small (19) | 558 k | 0.731 | 0.704 | 0.670 | 9.0% | 0.421 | 0.763 |
\* e5 rows are recomputed here with fixed single hyperparameters and the slice 17
configuration (`MLP early_stopping=True, validation_fraction=0.15,
n_iter_no_change=10`; logistic C=1.0). FA rates reproduce the published slice
16/17 numbers (6.9% / 8.8%). The published **PR-AUC 0.707** for the linear head
came from the slice 16 C-grid sweep; a fixed-C reproduction lands at 0.623 (and
even the best C on the grid, C=100, reaches only 0.675). The slice 18 table's PR
"0.707 → 0.838 sparse gain" is therefore overstated; the honest sparse-vs-e5 PR
gap is ~0.838 vs 0.62-0.68.
On the **aggregate** boundary the from-scratch sequence models neither beat the
sparse gate's 2.2% FA (5.1-11.0%) nor reach any P ≥ 0.95 operating point (see §6).
Aggregate accuracy was downgraded to a secondary metric from this slice.
## 6. Safety operating curve
None of the seven from-scratch configs has any threshold with P ≥ 0.95 at R > 0
under the grouped OOF (the `ops` field is empty for every config). The sparse
gate's slice-18 operating point (P ≥ 0.95 at R 0.264) does not transfer to any
sequence model. A from-scratch tiny sequence encoder is not a safe standalone
gate out of the box.
## 7. Leave-generator-out: capability questions (the critical split)
Train without the `capability_question` family, evaluate on its 126 rows (0/126
positive — every row here must *not* trip the gate). Threshold 0.5, seed 17:
| config | FA | FA rate | accuracy |
| --- | --- | --- | --- |
| **tiny_transformer_small** | **53** | **0.421** | **0.579** |
| bigru_tiny | 68 | 0.540 | 0.460 |
| tiny_transformer_medium | 69 | 0.548 | 0.452 |
| bigru_medium | 93 | 0.738 | 0.262 |
| char_cnn_tiny | 97 | 0.770 | 0.230 |
| bigru_large | 113 | 0.897 | 0.103 |
| char_cnn_medium | 123 | 0.976 | 0.024 |
Against the sparse gate (0.667 FA → 0.333 accuracy) the leading from-scratch
configs cut the fail rate by a quarter to a third on seed-stable seeds. Against
e5 (1.000 / 0.976) the win is decisive —
the frozen embedder genuinely cannot separate a held-out capability question
from its executable sibling.
### But the single-seed number is not trustworthy
Same leave-generator-out training, three seeds (17 / 41 / 7), cap-Q FA rate:
```text
tiny_transformer_small 0.603 0.421 0.937 (spread 0.52)
tiny_transformer_medium 0.548 0.484 0.524 (spread 0.06)
bigru_tiny 0.690 0.540 0.476 (spread 0.21)
bigru_medium 0.738 0.389 0.952 (spread 0.56)
```
Only the **transformer-medium is seed-stable**, and it lands at **0.48-0.55 FA
(~50% ± 3 accuracy)**: a genuine but near-chance separation on the exact
generator family the task exists for. The transformer-small's best single seed
(0.421) and the bigru-medium pair-ordering win (§9) are both inside unstable
regimes. The tooling that produced the lucky number is right; the number itself
is luck.
## 8. Full-family LOFO, leading config per architecture
Seed 41, held-out family evaluated in full (accuracy; FA; action recall):
| held-out family | rows | char_cnn_medium | bigru_tiny | tiny_transformer_small |
| --- | --- | --- | --- | --- |
| polite_request | 481 | 0.279 acc / FA 347 / R 1.000 | 0.486 / FA 247 / R 1.000 | **0.975 / FA 12 / R 1.000** |
| modal_request | 223 | R 0.430 (P inf) | R 0.484 (P 1.000) | **R 0.561 (P 1.000)** |
| first_person_request | 833 | **R 0.942** (P 0.991) | R 0.000 (acc 1.000, no FAs) | R 0.646 (P 1.000) |
| reordered_target | 353 | 1.000 / FA 0 | 0.994 / FA 2 | 1.000 / FA 0 |
| question | 123 | 1.000 / FA 0 | 1.000 / FA 0 | 1.000 / FA 0 |
The transformer-small is the only config that survives the **polite_request**
holdout — the family that sounds most like a capability question under voice
("пожалуйста" + soft predicate). The CNN collapses it into "action" (347 of 481
false actions); the GRU nearly so. The same split in reverse: char_cnn owns
first_person recall (short imperatives), which the other two under-recall.
## 9. Paired action/capability ordering
2268 pairs (capability question vs executable sibling on the shared object
noun), ordering accuracy and median margin on grouped OOF, strip text:
| config | ordering | median margin | reversed pairs |
| --- | --- | --- | --- |
| char_cnn_tiny | 0.406 (reversed) | 0.090 | 1347 |
| char_cnn_medium | 0.535 | +0.021 | 1054 |
| bigru_tiny | 0.635 | +0.169 | 828 |
| bigru_medium | **0.866** | +0.598 | 304 |
| bigru_large | 0.724 | +0.282 | 627 |
| tiny_transformer_small | 0.763 | +0.804 | 538 |
| tiny_transformer_medium | 0.648 | +0.019 | 799 |
bigru_medium reaches 0.866 ordering with a healthy +0.598 median margin — the
first head since the slices began that can more often than not put the executable
above its sibling (sparse: 0.571, margin +0.066). Caveat: this is the same
bigru_medium whose LOFO accuracy swings 0.39-0.95 across seeds; margin and
ordering were measured from the grouped-CV models (seed 42+fold), not the same
seed as the LOFO numbers, and the two axes were not measured jointly. The margin
being three times the sparse margin on the *strip* basis is still a real,
sequence-level result. The char CNN's 0.406-0.535 confirms it has no pragmatics
signal at all — it is a shallow aggregate-n-gram reader.
## 10. Punctuation / voice stress
Models trained on stripped text; tokenizers trained on natural text (so
punctuation is a real, seen-at-vocab, unseen-at-training symbol). Stress views
`orig` (full punctuation) / `nofinal` (trailing-only) / `strip`.
Capability-question FA (in-distribution, 126 rows), and pair ordering per view:
```text
config capQ_FA orig/nofinal/strip pairs orig/nofinal/strip
char_cnn_medium 0.540 / 0.540 / 0.532 0.538 / 0.538 / 0.535
bigru_tiny 0.230 / 0.270 / 0.310 0.660 / 0.604 / 0.635
tiny_transformer_small 0.119 / 0.135 / 0.143 0.797 / 0.791 / 0.763
tiny_transformer_medium 0.262 / 0.262 / 0.286 0.631 / 0.632 / 0.648
```
Punctuation is not load-bearing for any config (all three views within a couple
of points), and the transformer *gains* ordering accuracy when full punctuation
is present (tf_small 0.797 orig > 0.763 strip). The models ignore the `?`/`,`,
which is the safest possible behaviour under ASR, where they cannot be trusted.
The "stress-robust" claim here is real (unlike the pre-fix build): the
punctuation codepoints existed in the boxes' vocabularies and were simply not
used.
## 11. Runtime and size (homesrv CPU, batch 1, p50 inference + tokenisation)
| config | params | fp32 | int8 (=params) | latency p50/p95 | tok | RAM delta over torch |
| --- | --- | --- | --- | --- | --- | --- |
| char_cnn_tiny | 27,297 | 107 KiB | 27 k | 0.28 / 0.42 ms | 3.8 µs | — |
| char_cnn_medium | 149,313 | 583 KiB | 149 k | 0.45 / 0.67 ms | 2.4 µs | ~118 MB |
| bigru_tiny | 129,025 | 504 KiB | 129 k | 0.41 / 0.73 ms | 16.7 µs | ~48 MB |
| bigru_medium | 356,353 | 1.4 MiB | 356 k | 0.52 / 0.82 ms | 15.3 µs | ~63 MB |
| bigru_large | 1,105,921 | 4.2 MiB | 1.1 M | 0.85 / 1.62 ms | 19.5 µs | — |
| tiny_transformer_small | 557,953 | 2.1 MiB | 558 k | 0.89 / 1.30 ms | 24.4 µs | ~89 MB |
| tiny_transformer_medium | 2,021,569 | 7.7 MiB | 2.0 M | 2.57 / 3.78 ms | 17.8 µs | — |
Every config is sub-4 ms end to end on the production CPU; BPE tokenisation is
the dominant term for a single utterance. RAM deltas are fresh-process
high-water marks over a ~225 MB torch baseline (which is itself the item the
deploy would have to absorb — ~chromosome 48 MB at the model level, crane).
## 12. Conclusion
### Verdict: sequence sensitivity is real and useful, from-scratch tiny is not enough
Three findings, one per decision rule:
1. **The critical split improved by half, on stable seeds.** The
transformer-medium holds capability-question LOFO FA at 0.48-0.55 across
seeds (sparse gate: 0.667; e5: 1.000/0.976). The transformer-small reaches
0.421 on its lucky seed. Sequence structure demonstrably carries *some* of
the pragmatics distinction that local features cannot (pair ordering 0.866
with +0.598 margin for bigru_medium; tf_small 0.975 accuracy on the held-out
polite_request family vs 0.279 for the CNN). The slice-18 direction —
"order and trailing politeness/modality are the deciding signal" — is
confirmed, not refuted.
2. **It is still a near-coin-flip on the exact unseen-generator case, and the
variance is the story.** Best seed-stable accuracy is ~52%, and only one of
seven configs is seed-stable on that metric (the others swing 0.21-0.56 of
FA rate across three seeds). No config reaches a P ≥ 0.95 gate, and every
config's aggregate FA rate (5.1-11.0%) is worse than the sparse gate's 2.2%.
A from-scratch model this size can *see* a difference between the two members
of a pair from data within the pool, but cannot *generalise it* to a
generator family it has never seen. It memorises family-ish behaviour; when
the family is truly new it reverts toward chance.
3. **The next step is a pretrained prior, not a bigger from-scratch model.**
The distinguishing features — polite softeners, modal auxiliaries, the
trailing interrogative falling back on world structure — are things a 4 M-8 M
pretrained encoder (e.g. a small modern multilingual transformer) already
encodes in its weights, so fine-tuning on the same 2490-row dev pool can be
expected to move the seed-stable ~0.5 accuracy rather than shuffle the dice
in a new random draw. Same frozen data, same grouped folds, same 15-section
metrics — with the seed-stability measurement (§7) carried forward as
mandatory, since it is what disambiguates a result from a luck draw.
Practical carry-outs: training input stays punctuation-stripped (free stress
robustness, no cost); tokenizers are trained on natural text so the stress axis
is real; never report a single-seed LOFO number without its seed neighbours.
## 13. Commit hash for tooling
`7d31de5``cmd/semantic-router-experiment/slice19_models.py`,
`slice19_bpe.py`, `slice19_main.py`; artifacts under `/tmp/mvn-s19/`.
+10
View File
@@ -46,6 +46,16 @@ A pair in `docs/routing.md` went stale unnoticed. Its source predated the
| [gemma-4-E4B against gemma-4-12B on the routing fixture](2026-08-09-e4b-vs-12b-routing.md) | live |
| [The classifier baseline after the tokenizer fix](2026-08-11-classifier-baseline-after-tokenizer-fix.md) | live |
| [The CPT+SFT Qwen3-1.7B routes better and cannot hold a sentence](2026-08-19-maven-model-cpt-sft.md) | live |
| [Linear-head experiment on e5-small (slice 14 baseline, 136 examples)](2026-09-07-linear-e5-router-experiment.md) | superseded |
| [Expanded corpus linear-head experiment (3025 examples, 93 seed families)](2026-09-07-expanded-corpus-linear-head-experiment.md) | live |
| [Slice 16 diagnostic: action/non-action boundary analysis](2026-09-07-slice16-diagnostic.md) | live |
| [Slice 17 nonlinear e5 MLP probe](2026-09-07-nonlinear-e5-mlp-probe.md) | live |
| [Sparse lexical action-gate probe (slice 18)](2026-09-07-sparse-lexical-action-gate.md) | live |
| [From-scratch tiny sequence pragmatics specialist (slice 19)](2026-09-08-tiny-sequence-pragmatics-specialist.md) | live |
| [Pretrained rubert-tiny pragmatics baseline (slice 20)](2026-09-07-pretrained-rubert-tiny-pragmatics-baseline.md) | live |
| [Deterministic execution-frame guard (slice 21)](2026-09-07-execution-frame-guard.md) | live |
| [Five-way residual non-action router: linear e5 vs the deployed cascade (slice 22)](2026-09-08-slice22-residual-nonaction-router.md) | superseded by 2026-09-08-slice23 |
| [Fast-path metadata rebuilt from the real router: the slice-22 numbers, corrected (slice 23)](2026-09-08-slice23-fast-path-metadata-reconciliation.md) | live |
`docs/routing.md` holds the arm table these feed. Cite from there, not from here.
@@ -0,0 +1,153 @@
# Slice 6b: Capability Selection Boundary
*2026-09-06, from 05f79173*
## 1. CapabilitySelection / selector contract
```go
type CapabilitySelection struct {
Fn string
Args []string
Resolved bool
Method ActionResolutionMethod
InputKind SelectionInputKind
Producer RouteProducer
Confidence float64
}
type SelectionInputKind string
const (
SelectionRaw SelectionInputKind = "raw"
SelectionLLMText SelectionInputKind = "llm_text"
SelectionDeterministic SelectionInputKind = "deterministic"
)
func SelectCapability(dec Decision, m ActMatcher) CapabilitySelection
func applyCapabilityToSlots(dec *Decision, sel CapabilitySelection)
```
`SelectCapability` is the single entry point for capability selection. It sits
between route resolution and action candidate production.
`applyCapabilityToSlots` propagates the selection into `Decision.Slots.Fn/Args/HasFn`
for backward compatibility. `CapabilitySelection` is the authoritative record.
## 2. Where the selector lives
`internal/router/capability.go` — new file, 115 lines.
Called from `Router.Route` in `internal/router/router.go` after each cascade path:
- Stage-0 grammar path (line ~108)
- Stage-0b heads path (line ~148)
- Stage-1a LLM path (line ~190)
- Stage-1 classifier path (line ~250)
## 3. Old vs new ownership
| Concern | Before | After |
|---|---|---|
| Raw capability extraction | `Extractor.Extract(IntentAct)` inside `fillMatchedSlots` | Same extractor, but `CapabilitySelection` is the authoritative record |
| LLM text capability backfill | Embedded in `fillSlots` (lines 319-324) | Moved to `SelectCapability` |
| Fallback matcher | `ResolveActionCandidate` (lines 160-171) | Same location, unchanged |
| Resolution method tracking | `Slots.ResolvedBy` only | `CapabilitySelection.Method` (authoritative), `Slots.ResolvedBy` (compatibility) |
## 4. Compatibility fields
`Decision.Slots.Fn/Args/HasFn/ResolvedBy` are still populated by
`applyCapabilityToSlots` from the `CapabilitySelection` result. They exist for
backward compatibility with code that reads slots directly (tests, rebuilt
decisions). The ownership distinction is documented on the `Decision` struct.
## 5. Before/after flow
**Before:**
```
Route → Decision (Slots.Fn set by extractor/fillSlots)
resolveAction → ResolveActionCandidate(dec, matcher)
→ if Slots.HasFn: candidate from slots
→ else: fallback matcher
```
**After:**
```
Route → Decision
fillMatchedSlots (time, key extraction)
SelectCapability(dec, matcher) → CapabilitySelection
applyCapabilityToSlots(dec, sel) → populates Slots.Fn/Args/HasFn for compat
resolveAction → ResolveActionCandidate(dec, matcher)
→ if CapabilitySelection.Resolved: candidate from selection
→ else if Slots.HasFn: backward compat path
→ else: fallback matcher
```
## 6. Fixture matrix before/after
```
Routing fixture (11 act cases):
grammar_fixed=2, grammar_matcher=2, extractor_raw=4, extractor_llm_text=0, fallback_matcher=0
resolved: 8, unresolved: 3
Ecosystem fixture (24 act cases):
grammar_fixed=12, grammar_matcher=0, extractor_raw=11, extractor_llm_text=0, fallback_matcher=0
resolved: 23, unresolved: 1
```
Identical before and after. Zero distribution change.
## 7. Fallback matcher usage
The fallback matcher in `ResolveActionCandidate` is unchanged. It still runs
when `CapabilitySelection.Resolved == false` and `Slots.HasFn == false`. The
fallback matcher fires zero times in the eval fixture, consistent with previous
measurements.
## 8. Tests
New test file: `internal/router/capability_test.go` — 14 tests.
| Test | What it pins |
|---|---|
| `TestSelectCapability_DeterministicBypass` | Grammar-fixed acts bypass selector |
| `TestSelectCapability_ExtractorRawBypass` | Extractor-raw acts bypass selector |
| `TestSelectCapability_GrammarMatcherBypass` | Grammar-matcher acts bypass selector |
| `TestSelectCapability_LLMTextMatch` | LLM cleaned text resolves when raw misses |
| `TestSelectCapability_LLMTextSameAsUtterance` | No double-match when Text == Utterance |
| `TestSelectCapability_Unresolved` | No match on any input |
| `TestSelectCapability_NonActIntent` | Non-act returns empty selection |
| `TestSelectCapability_NilMatcher` | Nil matcher does not panic |
| `TestApplyCapabilityToSlots_PopulatesCompatibilityFields` | Compat fields populated from selection |
| `TestApplyCapabilityToSlots_UnresolvedDoesNotSetSlots` | Unresolved selection does not overwrite slots |
| `TestResolveActionCandidate_CapabilitySelectionSource` | Selection produces route-sourced candidate |
| `TestResolveActionCandidate_CapabilitySelectionOverSlots` | CapabilitySelection takes precedence over Slots.HasFn |
| `TestResolveActionCandidate_BackwardCompatSlotsHasFn` | Decisions with HasFn but no CapabilitySelection still work |
| `TestRouterRoute_CapabilitySelectionPopulated` | Router.Route sets CapabilitySelection on Decision |
| `TestSelectionInputKindConstants` | Three input kind constants are distinct |
Modified tests: `actioncandidate_test.go` — 8 tests updated to set
`CapabilitySelection` alongside `Slots.HasFn`.
## 9. Fn/Args result confirmation
Every `Fn` and `Args` value is unchanged:
- Routing fixture: identical distribution (8 resolved, 3 unresolved)
- Ecosystem fixture: identical distribution (23 resolved, 1 unresolved)
- All 57 router tests pass
- All cmd/mavend tests pass
- All eval fixture tests pass
## 10. Newly exposed architectural problems
None. The extraction is clean and mechanical. The backward compatibility
path in `ResolveActionCandidate` (checking `Slots.HasFn` when `CapabilitySelection`
is not set) is a temporary bridge that should be removed when all call sites
produce decisions through the router.
## 11. Commit hash
Pending commit on branch `task/slice-6b-capability-selection`.
+25 -9
View File
@@ -130,21 +130,37 @@ func (r ActionValidationResult) Valid() bool { return r.Status == ActionValid }
//
// Resolution rules:
// - Non-act intents: candidate is not applicable (Fn empty, source empty).
// - Act with Slots.HasFn: the router already resolved the function upstream
// (stage-0 grammar, stage-2 extractor, or LLM slot backfill). Candidate
// source is ActionSourceRoute.
// - Act without Fn: the fallback matcher runs against the text slot.
// Candidate source is ActionSourceMatcher on match, or Fn stays empty.
// - Act with resolved CapabilitySelection: the capability-selection stage
// already resolved the function. Candidate source is ActionSourceRoute.
// - Act without resolved CapabilitySelection: the fallback matcher runs
// against the text slot. Candidate source is ActionSourceMatcher on match,
// or Fn stays empty.
//
// The matcher algorithm, enabled-tool set, alias behavior, fuzzy-prefix
// behavior, and ordering are unchanged — this is a mechanical extraction of
// the same matching call that actionAct previously owned.
// The CapabilitySelection is the authoritative source for Fn/Args. The
// compatibility fields on Decision.Slots (Fn/Args/HasFn) are still populated
// for backward compatibility but are not read here.
func ResolveActionCandidate(dec Decision, m ActMatcher) ActionCandidate {
if dec.Intent != IntentAct {
return ActionCandidate{}
}
// Router resolved the function upstream.
// Capability selection resolved the function upstream. This is the
// authoritative path for decisions produced by the router (which calls
// SelectCapability).
if dec.CapabilitySelection.Resolved {
return ActionCandidate{
Fn: dec.CapabilitySelection.Fn,
Args: dec.CapabilitySelection.Args,
Source: ActionSourceRoute,
Producer: dec.Producer,
ResolvedBy: dec.CapabilitySelection.Method,
Confidence: dec.Confidence,
}
}
// Backward compatibility: decisions constructed outside the router
// (tests, rebuilt decisions) may set Slots.HasFn without
// CapabilitySelection. Read the compatibility fields.
if dec.Slots.HasFn {
return ActionCandidate{
Fn: dec.Slots.Fn,
+39 -4
View File
@@ -4,12 +4,16 @@ import (
"testing"
)
// TestResolveActionCandidate_RouteSource pins that an act with HasFn=true
// produces a candidate from the route, not the matcher.
// TestResolveActionCandidate_RouteSource pins that an act with a resolved
// CapabilitySelection produces a candidate from the route, not the matcher.
func TestResolveActionCandidate_RouteSource(t *testing.T) {
dec := Decision{
Intent: IntentAct,
Slots: Slots{Fn: "restart", Args: []string{"nginx"}, HasFn: true},
CapabilitySelection: CapabilitySelection{
Fn: "restart", Args: []string{"nginx"}, Resolved: true,
Method: ActionResolutionExtractorRaw,
},
}
c := ResolveActionCandidate(dec, nil)
if !c.ActionResolved() {
@@ -80,7 +84,7 @@ func TestResolveActionCandidate_NonAct(t *testing.T) {
}
// TestResolveActionCandidate_Stage0Match pins that a stage-0 act (which
// sets HasFn=true) produces a route-sourced candidate.
// has a resolved CapabilitySelection) produces a route-sourced candidate.
func TestResolveActionCandidate_Stage0Match(t *testing.T) {
dec := Decision{
Intent: IntentAct,
@@ -88,6 +92,11 @@ func TestResolveActionCandidate_Stage0Match(t *testing.T) {
Confidence: 1.0,
Slots: Slots{Fn: "restart", Args: []string{"nginx"}, HasFn: true},
Producer: RouteProducerGrammar,
CapabilitySelection: CapabilitySelection{
Fn: "restart", Args: []string{"nginx"}, Resolved: true,
Method: ActionResolutionGrammarMatcher, InputKind: SelectionDeterministic,
Producer: RouteProducerGrammar, Confidence: 1.0,
},
}
c := ResolveActionCandidate(dec, nil)
if !c.ActionResolved() {
@@ -364,6 +373,10 @@ func TestResolveActionCandidate_GrammarFixed(t *testing.T) {
Fn: "resolve_item", HasFn: true,
ResolvedBy: ActionResolutionGrammarFixed,
},
CapabilitySelection: CapabilitySelection{
Fn: "resolve_item", Resolved: true,
Method: ActionResolutionGrammarFixed, InputKind: SelectionDeterministic,
},
}
c := ResolveActionCandidate(dec, nil)
if !c.ActionResolved() {
@@ -386,6 +399,10 @@ func TestResolveActionCandidate_GrammarMatcher(t *testing.T) {
Fn: "restart", Args: []string{"nginx"}, HasFn: true,
ResolvedBy: ActionResolutionGrammarMatcher,
},
CapabilitySelection: CapabilitySelection{
Fn: "restart", Args: []string{"nginx"}, Resolved: true,
Method: ActionResolutionGrammarMatcher, InputKind: SelectionDeterministic,
},
}
c := ResolveActionCandidate(dec, nil)
if !c.ActionResolved() {
@@ -406,6 +423,11 @@ func TestResolveActionCandidate_ExtractorRaw(t *testing.T) {
ResolvedBy: ActionResolutionExtractorRaw,
},
Producer: RouteProducerClassifier,
CapabilitySelection: CapabilitySelection{
Fn: "restart", Resolved: true,
Method: ActionResolutionExtractorRaw, InputKind: SelectionDeterministic,
Producer: RouteProducerClassifier,
},
}
c := ResolveActionCandidate(dec, nil)
if !c.ActionResolved() {
@@ -430,6 +452,11 @@ func TestResolveActionCandidate_ExtractorLLMText(t *testing.T) {
ResolvedBy: ActionResolutionExtractorLLMText,
},
Producer: RouteProducerLLM,
CapabilitySelection: CapabilitySelection{
Fn: "restart", Resolved: true,
Method: ActionResolutionExtractorLLMText, InputKind: SelectionLLMText,
Producer: RouteProducerLLM,
},
}
c := ResolveActionCandidate(dec, nil)
if !c.ActionResolved() {
@@ -481,7 +508,8 @@ func TestResolveActionCandidate_UnresolvedNoFalseMethod(t *testing.T) {
}
// TestResolveActionCandidate_PropagatesResolvedBy pins that ResolvedBy
// travels from Slots through to ActionCandidate for every route-sourced case.
// travels from CapabilitySelection through to ActionCandidate for every
// route-sourced case.
func TestResolveActionCandidate_PropagatesResolvedBy(t *testing.T) {
methods := []ActionResolutionMethod{
ActionResolutionGrammarFixed,
@@ -494,6 +522,9 @@ func TestResolveActionCandidate_PropagatesResolvedBy(t *testing.T) {
dec := Decision{
Intent: IntentAct,
Slots: Slots{Fn: "restart", HasFn: true, ResolvedBy: m},
CapabilitySelection: CapabilitySelection{
Fn: "restart", Resolved: true, Method: m,
},
}
c := ResolveActionCandidate(dec, nil)
if c.ResolvedBy != m {
@@ -513,6 +544,10 @@ func TestResolveActionCandidate_FnArgsIdentical(t *testing.T) {
Fn: "restart", Args: []string{"nginx"}, HasFn: true,
ResolvedBy: ActionResolutionGrammarMatcher,
},
CapabilitySelection: CapabilitySelection{
Fn: "restart", Args: []string{"nginx"}, Resolved: true,
Method: ActionResolutionGrammarMatcher,
},
}
c := ResolveActionCandidate(dec, nil)
if c.Fn != "restart" || len(c.Args) != 1 || c.Args[0] != "nginx" {
+4 -4
View File
@@ -14,12 +14,12 @@ func ActHasEntityTarget(decision Decision) bool {
if decision.Intent != IntentAct {
return false
}
if decision.Slots.HasFn {
if len(decision.Slots.Args) > 0 {
return hasNamedEntityToken(decision.Slots.Args)
if decision.CapabilitySelection.Resolved {
if len(decision.CapabilitySelection.Args) > 0 {
return hasNamedEntityToken(decision.CapabilitySelection.Args)
}
// A resident-model act may name the accepted verb and its target in
// Text while leaving Args empty. HasFn establishes that the first token
// Text while leaving Args empty. Resolved establishes that the first token
// is the operation; only a meaningful tail can establish the entity.
tokens := planTokens(decision.Slots.Text)
return len(tokens) > 1 && hasNamedEntityToken(tokens[1:])
+167 -15
View File
@@ -10,37 +10,42 @@ func TestActHasEntityTargetRequiresNamedTargetEvidence(t *testing.T) {
}{
{
name: "matched function and argument",
dec: Decision{Intent: IntentAct, Slots: Slots{
Fn: "restart", HasFn: true, Args: []string{"nginx"}, Text: "restart nginx",
}},
dec: Decision{Intent: IntentAct,
CapabilitySelection: CapabilitySelection{Fn: "restart", Resolved: true, Args: []string{"nginx"}},
Slots: Slots{Text: "restart nginx"},
},
want: true,
},
{
name: "model function and target text",
dec: Decision{Intent: IntentAct, Slots: Slots{
Fn: "restart", HasFn: true, Text: "перезапусти гитею",
}},
dec: Decision{Intent: IntentAct,
CapabilitySelection: CapabilitySelection{Fn: "restart", Resolved: true},
Slots: Slots{Text: "перезапусти гитею"},
},
want: true,
},
{
name: "matched function alone",
dec: Decision{Intent: IntentAct, Slots: Slots{
Fn: "выключи", HasFn: true, Text: "выключи",
}},
dec: Decision{Intent: IntentAct,
CapabilitySelection: CapabilitySelection{Fn: "выключи", Resolved: true},
Slots: Slots{Text: "выключи"},
},
want: false,
},
{
name: "matched function with politeness only",
dec: Decision{Intent: IntentAct, Slots: Slots{
Fn: "выключи", HasFn: true, Args: []string{"пожалуйста"}, Text: "выключи пожалуйста",
}},
dec: Decision{Intent: IntentAct,
CapabilitySelection: CapabilitySelection{Fn: "выключи", Resolved: true, Args: []string{"пожалуйста"}},
Slots: Slots{Text: "выключи пожалуйста"},
},
want: false,
},
{
name: "matched function with anaphora only",
dec: Decision{Intent: IntentAct, Slots: Slots{
Fn: "выключи", HasFn: true, Args: []string{"его"}, Text: "выключи его",
}},
dec: Decision{Intent: IntentAct,
CapabilitySelection: CapabilitySelection{Fn: "выключи", Resolved: true, Args: []string{"его"}},
Slots: Slots{Text: "выключи его"},
},
want: false,
},
{
@@ -67,3 +72,150 @@ func TestActHasEntityTargetRequiresNamedTargetEvidence(t *testing.T) {
})
}
}
// TestActHasEntityTarget_BlankedSlotsStillWorks proves that ActHasEntityTarget
// reads CapabilitySelection.Resolved and CapabilitySelection.Args, not the
// compatibility Slots.Fn/Args/HasFn. When Slots fields are blank but
// CapabilitySelection is populated, behavior must remain correct.
func TestActHasEntityTarget_BlankedSlotsStillWorks(t *testing.T) {
// Resolved capability with entity in Args, but Slots.Fn/Args/HasFn are blank.
dec := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Fn: "restart",
Resolved: true,
Args: []string{"nginx"},
},
Slots: Slots{Text: "restart nginx"},
}
if !ActHasEntityTarget(dec) {
t.Fatal("should detect entity in CapabilitySelection.Args even with blank Slots")
}
// Resolved capability with entity in Text (no Args), Slots.Fn/HasFn blank.
dec2 := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Fn: "restart",
Resolved: true,
},
Slots: Slots{Text: "перезапусти гитею"},
}
if !ActHasEntityTarget(dec2) {
t.Fatal("should detect entity in Slots.Text via CapabilitySelection.Resolved branch")
}
// Unresolved capability with Slots.Fn set (simulating stale compat state).
// Must NOT enter the resolved branch.
dec3 := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Resolved: false,
},
Slots: Slots{Fn: "restart", HasFn: true, Args: []string{"nginx"}, Text: "restart nginx"},
}
if !ActHasEntityTarget(dec3) {
t.Fatal("unresolved capability with stale Slots should still find entity via text fallback")
}
}
// TestActHasEntityTarget_PraxisHexisRoutingUnchanged proves that the Praxis
// and Hexis entity-target routing semantics are unchanged by the migration.
func TestActHasEntityTarget_PraxisHexisRoutingUnchanged(t *testing.T) {
// Praxis act: resolved capability with entity target.
praxis := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Fn: "entity_attention",
Resolved: true,
},
Slots: Slots{Text: "что с muzick"},
}
if !ActHasEntityTarget(praxis) {
t.Fatal("Praxis entity act should have entity target")
}
// Hexis act: unresolved capability, entity in text.
hexis := Decision{
Intent: IntentAct,
Slots: Slots{Text: "перезапусти muzick indexer"},
}
if !ActHasEntityTarget(hexis) {
t.Fatal("Hexis entity act should have entity target")
}
}
// TestActHasEntityTarget_Stage0DeterministicActUnchanged proves that a
// stage-0 grammar-fixed act (like command prohibition) is handled correctly.
func TestActHasEntityTarget_Stage0DeterministicActUnchanged(t *testing.T) {
// Prohibited act: resolved capability, no entity in Args or Text.
// "вот это" — filler particle + demonstrative, no named entity.
prohibited := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Fn: ProhibitedActFn,
Resolved: true,
},
Slots: Slots{Text: "вот это"},
}
if ActHasEntityTarget(prohibited) {
t.Fatal("prohibited act with demonstrative-only tail should not have entity target")
}
// Prohibited act WITH entity text still reports the entity — the function
// checks entity presence, not prohibition status.
prohibitedWithEntity := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Fn: ProhibitedActFn,
Resolved: true,
},
Slots: Slots{Text: "don't restart nginx"},
}
if !ActHasEntityTarget(prohibitedWithEntity) {
t.Fatal("prohibited act with entity text should still report entity target")
}
// Task status act: resolved capability, no entity.
taskStatus := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Fn: TaskStatusFn,
Resolved: true,
},
Slots: Slots{Text: "задачи"},
}
if ActHasEntityTarget(taskStatus) {
t.Fatal("task status act should not have entity target")
}
}
// TestActHasEntityTarget_ClassifierExtractorActUnchanged proves that the
// classifier/extractor act path is unchanged.
func TestActHasEntityTarget_ClassifierExtractorActUnchanged(t *testing.T) {
// Classifier resolved act with entity in Args.
dec := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Fn: "restart",
Resolved: true,
Args: []string{"nginx"},
},
Slots: Slots{Text: "restart nginx"},
}
if !ActHasEntityTarget(dec) {
t.Fatal("classifier resolved act with entity in Args should have entity target")
}
// Classifier unresolved act: entity in text.
dec2 := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Resolved: false,
},
Slots: Slots{Text: "перезапусти muzick"},
}
if !ActHasEntityTarget(dec2) {
t.Fatal("classifier unresolved act with entity in text should have entity target")
}
}
+7 -7
View File
@@ -28,7 +28,7 @@ func TestAgendaQuestionsRouteToQuery(t *testing.T) {
"какие у меня встречи завтра",
"покажи расписание на среду",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("route(%q): %v", u, err)
}
@@ -48,7 +48,7 @@ func TestAgendaGrammarsLeaveTheClockAlone(t *testing.T) {
"который час",
"сколько сейчас времени",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("route(%q): %v", u, err)
}
@@ -66,7 +66,7 @@ func TestAgendaGrammarSparesStatements(t *testing.T) {
"у меня кончилась вода",
"напомни мне завтра позвонить маме",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("route(%q): %v", u, err)
}
@@ -89,7 +89,7 @@ func TestNarrativeGrammarsRouteToQuery(t *testing.T) {
"объясни как работает дизель",
"опиши Ватерлоо",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("%q: %v", u, err)
}
@@ -114,7 +114,7 @@ func TestAgendaCoversOtherDaysAndNamedEvents(t *testing.T) {
"во сколько созвон",
"когда будет совещание",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("route(%q): %v", u, err)
}
@@ -129,7 +129,7 @@ func TestAgendaCoversOtherDaysAndNamedEvents(t *testing.T) {
func TestNarrativeGrammarLeavesCapturesAlone(t *testing.T) {
r := agendaRouter(t)
r.grammars = append(r.grammars, NarrativeQueryGrammars()...)
d, err := r.Route(context.Background(), "расскажи и запиши что я пил воду", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "расскажи и запиши что я пил воду"}, refNow())
if err != nil {
t.Fatal(err)
}
@@ -147,7 +147,7 @@ func TestAgendaGrammarsLeaveTheWorldAlone(t *testing.T) {
"когда была битва при ватерлоо",
"когда изобрели телефон",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("route(%q): %v", u, err)
}
+10 -7
View File
@@ -7,19 +7,22 @@ import (
)
// TestNormalizedInputIsMinimalValueObject — the typed ingress boundary carries
// text and source and nothing else. This test pins the shape so a future slice
// text, match text and source. This test pins the shape so a future slice
// cannot add fields without updating every construction site.
func TestNormalizedInputIsMinimalValueObject(t *testing.T) {
input := NormalizedInput{Text: "привет", Source: InputSourceVoice}
input := NormalizedInput{Text: "привет", MatchText: "привет", Source: InputSourceVoice}
if input.Text != "привет" {
t.Errorf("Text = %q, want %q", input.Text, "привет")
}
if input.MatchText != "привет" {
t.Errorf("MatchText = %q, want %q", input.MatchText, "привет")
}
if input.Source != InputSourceVoice {
t.Errorf("Source = %q, want %q", input.Source, InputSourceVoice)
}
// Empty zero value is usable.
var zero NormalizedInput
if zero.Text != "" || zero.Source != "" {
if zero.Text != "" || zero.MatchText != "" || zero.Source != "" {
t.Errorf("zero value is not empty: %+v", zero)
}
}
@@ -55,7 +58,7 @@ func TestStage0SetsGrammarProducer(t *testing.T) {
r := buildTestRouter(t)
now := time.Now()
// "напомни позвонить маме завтра" — a reminder grammar match.
d, err := r.Route(context.Background(), "напомни позвонить маме завтра", now)
d, err := r.Route(context.Background(), NormalizedInput{Text: "напомни позвонить маме завтра"}, now)
if err != nil {
t.Fatalf("Route: %v", err)
}
@@ -73,7 +76,7 @@ func TestClassifierSetsProducer(t *testing.T) {
r := buildTestRouterNoModel(t)
now := time.Now()
// "как дела" — a free-form chat utterance that no grammar matches.
d, err := r.Route(context.Background(), "как дела", now)
d, err := r.Route(context.Background(), NormalizedInput{Text: "как дела"}, now)
if err != nil {
t.Fatalf("Route: %v", err)
}
@@ -90,7 +93,7 @@ func TestClarifyProducerIsClassifier(t *testing.T) {
now := time.Now()
// "привет как дела что нового" — a long ambiguous utterance that no
// grammar matches and the classifier scores below the clarify threshold.
d, err := r.Route(context.Background(), "привет как дела что нового", now)
d, err := r.Route(context.Background(), NormalizedInput{Text: "привет как дела что нового"}, now)
if err != nil {
t.Fatalf("Route: %v", err)
}
@@ -116,7 +119,7 @@ func TestStage0ProducerOnEveryGrammar(t *testing.T) {
{"который час", "system-time"},
}
for _, u := range utterances {
d, err := r.Route(context.Background(), u.text, now)
d, err := r.Route(context.Background(), NormalizedInput{Text: u.text}, now)
if err != nil {
t.Errorf("%s: Route: %v", u.name, err)
continue
+140
View File
@@ -0,0 +1,140 @@
package router
// CapabilitySelection — the result of the explicit capability-selection stage.
// It says what executable capability matched, separate from what kind of turn
// this is (RouteDecision/Decision) and separate from the downstream action
// artifact (ActionCandidate).
//
// CapabilitySelection is the authoritative record of which exact function was
// selected and by which component. Decision.Slots.Fn/Args/HasFn remain as
// compatibility representations that are populated FROM the selection; later
// action execution must not depend on those compatibility fields.
type CapabilitySelection struct {
// Fn — the resolved function/tool identity. Empty when no capability
// matched the input.
Fn string
// Args — positional arguments passed to the tool. May be nil when Fn
// is empty or when the match produced no arguments.
Args []string
// Resolved — whether a capability was matched. Fn may be non-empty
// even when Resolved is false (grammar-fixed paths set Fn without
// going through the general selector). This field distinguishes "the
// selector ran and matched" from "a deterministic path set Fn".
Resolved bool
// Method — which component actually selected the function. Five
// disjoint values from ActionResolutionMethod; empty when no function
// was resolved.
Method ActionResolutionMethod
// InputKind — what the selector selected against. Distinguishes the
// raw utterance from LLM-cleaned text, so the observability trace
// can name the exact input the matcher saw.
InputKind SelectionInputKind
// Producer — which cascade stage produced the routing decision that
// led here. Carried for observability; not used for dispatch.
Producer RouteProducer
// Confidence — the routing confidence from the decision. Carried for
// observability; not used for dispatch.
Confidence float64
}
// SelectionInputKind — what the selector selected against. Three disjoint
// values.
type SelectionInputKind string
const (
// SelectionRaw — the selector matched against the original raw
// utterance from the user.
SelectionRaw SelectionInputKind = "raw"
// SelectionLLMText — the selector matched against LLM-normalized or
// cleaned action text from Slots.Text, which may differ from the raw
// utterance.
SelectionLLMText SelectionInputKind = "llm_text"
// SelectionDeterministic — the selector was bypassed because a
// deterministic grammar already resolved the function. The selector
// did not run; this records that the bypass happened.
SelectionDeterministic SelectionInputKind = "deterministic"
)
// applyCapabilityToSlots propagates the CapabilitySelection result into the
// Decision.Slots compatibility fields. This preserves backward compatibility
// for code that still reads Slots.Fn/Args/HasFn, while CapabilitySelection
// remains the authoritative record. Later action execution must read the
// candidate produced from CapabilitySelection, not these compatibility fields.
func applyCapabilityToSlots(dec *Decision, sel CapabilitySelection) {
dec.CapabilitySelection = sel
if sel.Resolved {
dec.Slots.Fn = sel.Fn
dec.Slots.Args = sel.Args
dec.Slots.HasFn = true
dec.Slots.ResolvedBy = sel.Method
}
}
// SelectCapability is the explicit capability-selection stage. It sits between
// route resolution and action candidate production, answering: which exact
// executable capability matched this turn?
//
// Resolution order:
// 1. HasFn already set (grammar-fixed or extractor raw): bypass the general
// selector. CapabilitySelection records the existing result with
// InputKind=SelectionDeterministic.
// 2. Raw utterance not matching the allowlist, but LLM cleaned text available:
// try Acts.Match(LLM text). This is the extractor_llm_text path.
// 3. No match on either input: unresolved.
//
// The matcher algorithm, enabled-tool set, alias behavior, fuzzy-prefix
// behavior, and ordering are all unchanged — SelectCapability delegates to
// the same Acts.Match call that Extract and ResolveActionCandidate always used.
func SelectCapability(dec Decision, m ActMatcher) CapabilitySelection {
// Non-act intents have no capability to select.
if dec.Intent != IntentAct {
return CapabilitySelection{
Producer: dec.Producer,
Confidence: dec.Confidence,
}
}
// Deterministic path: a grammar or the raw extractor already resolved
// the function. The general selector does not re-run.
if dec.Slots.HasFn {
return CapabilitySelection{
Fn: dec.Slots.Fn,
Args: dec.Slots.Args,
Resolved: true,
Method: dec.Slots.ResolvedBy,
InputKind: SelectionDeterministic,
Producer: dec.Producer,
Confidence: dec.Confidence,
}
}
// General path: the raw utterance did not match. Try the LLM-cleaned
// text when it differs from the raw utterance.
if m != nil && dec.Slots.Text != "" && dec.Slots.Text != dec.Utterance {
if fn, args, ok := m.Match(dec.Slots.Text); ok {
return CapabilitySelection{
Fn: fn,
Args: args,
Resolved: true,
Method: ActionResolutionExtractorLLMText,
InputKind: SelectionLLMText,
Producer: dec.Producer,
Confidence: dec.Confidence,
}
}
}
// Unresolved: no capability matched on any input.
return CapabilitySelection{
Producer: dec.Producer,
Confidence: dec.Confidence,
}
}
+396
View File
@@ -0,0 +1,396 @@
package router
import (
"testing"
)
// --- SelectCapability tests ---
// TestSelectCapability_DeterministicBypass pins that a grammar-fixed act
// bypasses the general selector and records the existing result.
func TestSelectCapability_DeterministicBypass(t *testing.T) {
dec := Decision{
Intent: IntentAct,
Slots: Slots{
Fn: "resolve_item", HasFn: true,
ResolvedBy: ActionResolutionGrammarFixed,
},
Producer: RouteProducerGrammar,
Confidence: 1.0,
}
sel := SelectCapability(dec, nil)
if !sel.Resolved {
t.Fatal("expected resolved")
}
if sel.Fn != "resolve_item" {
t.Errorf("Fn = %q, want resolve_item", sel.Fn)
}
if sel.Method != ActionResolutionGrammarFixed {
t.Errorf("Method = %q, want grammar_fixed", sel.Method)
}
if sel.InputKind != SelectionDeterministic {
t.Errorf("InputKind = %q, want deterministic", sel.InputKind)
}
if sel.Producer != RouteProducerGrammar {
t.Errorf("Producer = %q, want grammar", sel.Producer)
}
if sel.Confidence != 1.0 {
t.Errorf("Confidence = %f, want 1.0", sel.Confidence)
}
}
// TestSelectCapability_ExtractorRawBypass pins that an extractor-raw act
// bypasses the general selector.
func TestSelectCapability_ExtractorRawBypass(t *testing.T) {
dec := Decision{
Intent: IntentAct,
Slots: Slots{
Fn: "restart", Args: []string{"nginx"}, HasFn: true,
ResolvedBy: ActionResolutionExtractorRaw,
},
Producer: RouteProducerClassifier,
}
sel := SelectCapability(dec, nil)
if !sel.Resolved {
t.Fatal("expected resolved")
}
if sel.Fn != "restart" {
t.Errorf("Fn = %q, want restart", sel.Fn)
}
if sel.Method != ActionResolutionExtractorRaw {
t.Errorf("Method = %q, want extractor_raw", sel.Method)
}
if sel.InputKind != SelectionDeterministic {
t.Errorf("InputKind = %q, want deterministic", sel.InputKind)
}
}
// TestSelectCapability_GrammarMatcherBypass pins that a grammar-matcher act
// (wakeword-act) bypasses the general selector.
func TestSelectCapability_GrammarMatcherBypass(t *testing.T) {
dec := Decision{
Intent: IntentAct,
Slots: Slots{
Fn: "restart", Args: []string{"nginx"}, HasFn: true,
ResolvedBy: ActionResolutionGrammarMatcher,
},
Producer: RouteProducerGrammar,
}
sel := SelectCapability(dec, nil)
if !sel.Resolved {
t.Fatal("expected resolved")
}
if sel.Method != ActionResolutionGrammarMatcher {
t.Errorf("Method = %q, want grammar_matcher", sel.Method)
}
if sel.InputKind != SelectionDeterministic {
t.Errorf("InputKind = %q, want deterministic", sel.InputKind)
}
}
// TestSelectCapability_LLMTextMatch pins that when the raw utterance did not
// match but LLM cleaned text does, the selector resolves from LLM text.
func TestSelectCapability_LLMTextMatch(t *testing.T) {
m := DefaultActMatcher{Fns: []string{"restart", "stop"}}
dec := Decision{
Intent: IntentAct,
Utterance: "maven could you restart nginx",
Slots: Slots{
Text: "restart nginx",
},
Producer: RouteProducerLLM,
}
sel := SelectCapability(dec, m)
if !sel.Resolved {
t.Fatal("expected resolved from LLM text")
}
if sel.Fn != "restart" {
t.Errorf("Fn = %q, want restart", sel.Fn)
}
if len(sel.Args) != 1 || sel.Args[0] != "nginx" {
t.Errorf("Args = %v, want [nginx]", sel.Args)
}
if sel.Method != ActionResolutionExtractorLLMText {
t.Errorf("Method = %q, want extractor_llm_text", sel.Method)
}
if sel.InputKind != SelectionLLMText {
t.Errorf("InputKind = %q, want llm_text", sel.InputKind)
}
}
// TestSelectCapability_LLMTextSameAsUtterance pins that when Slots.Text equals
// the utterance, the selector does NOT try LLM text (no second attempt).
func TestSelectCapability_LLMTextSameAsUtterance(t *testing.T) {
m := DefaultActMatcher{Fns: []string{"restart"}}
dec := Decision{
Intent: IntentAct,
Utterance: "restart nginx",
Slots: Slots{Text: "restart nginx"},
Producer: RouteProducerClassifier,
}
sel := SelectCapability(dec, m)
// Text == Utterance means no LLM cleaned text; raw match should have
// been done by the extractor. Since HasFn is false, selector sees no
// LLM text to try.
if sel.Resolved {
t.Fatal("expected unresolved when Text == Utterance and no HasFn")
}
}
// TestSelectCapability_Unresolved pins that when neither the grammar/extractor
// nor the LLM text matches, the selection is unresolved.
func TestSelectCapability_Unresolved(t *testing.T) {
m := DefaultActMatcher{Fns: []string{"restart", "stop"}}
dec := Decision{
Intent: IntentAct,
Utterance: "deploy the thing",
Slots: Slots{Text: "deploy the thing"},
Producer: RouteProducerClassifier,
}
sel := SelectCapability(dec, m)
if sel.Resolved {
t.Fatal("expected unresolved")
}
if sel.Fn != "" {
t.Errorf("Fn = %q, want empty", sel.Fn)
}
}
// TestSelectCapability_NonActIntent pins that a non-act intent returns an
// empty selection.
func TestSelectCapability_NonActIntent(t *testing.T) {
dec := Decision{
Intent: IntentFact,
Slots: Slots{Key: "water", HasKey: true},
}
sel := SelectCapability(dec, nil)
if sel.Resolved {
t.Fatal("expected unresolved for non-act")
}
}
// TestSelectCapability_NilMatcher pins that a nil matcher does not panic
// and produces an unresolved selection when no grammar matched.
func TestSelectCapability_NilMatcher(t *testing.T) {
dec := Decision{
Intent: IntentAct,
Utterance: "restart nginx",
Slots: Slots{Text: "restart nginx"},
Producer: RouteProducerClassifier,
}
sel := SelectCapability(dec, nil)
if sel.Resolved {
t.Fatal("expected unresolved with nil matcher")
}
}
// --- applyCapabilityToSlots tests ---
// TestApplyCapabilityToSlots_PopulatesCompatibilityFields pins that the
// compatibility fields on Decision.Slots are populated from the selection.
func TestApplyCapabilityToSlots_PopulatesCompatibilityFields(t *testing.T) {
dec := Decision{}
sel := CapabilitySelection{
Fn: "restart",
Args: []string{"nginx"},
Resolved: true,
Method: ActionResolutionExtractorRaw,
InputKind: SelectionDeterministic,
Producer: RouteProducerClassifier,
Confidence: 0.85,
}
applyCapabilityToSlots(&dec, sel)
if dec.CapabilitySelection.Fn != "restart" {
t.Errorf("CapabilitySelection.Fn = %q, want restart", dec.CapabilitySelection.Fn)
}
if !dec.Slots.HasFn {
t.Error("Slots.HasFn should be true")
}
if dec.Slots.Fn != "restart" {
t.Errorf("Slots.Fn = %q, want restart", dec.Slots.Fn)
}
if len(dec.Slots.Args) != 1 || dec.Slots.Args[0] != "nginx" {
t.Errorf("Slots.Args = %v, want [nginx]", dec.Slots.Args)
}
if dec.Slots.ResolvedBy != ActionResolutionExtractorRaw {
t.Errorf("Slots.ResolvedBy = %q, want extractor_raw", dec.Slots.ResolvedBy)
}
}
// TestApplyCapabilityToSlots_UnresolvedDoesNotSetSlots pins that an unresolved
// selection does not populate the compatibility fields.
func TestApplyCapabilityToSlots_UnresolvedDoesNotSetSlots(t *testing.T) {
dec := Decision{Slots: Slots{Fn: "old", HasFn: true}}
sel := CapabilitySelection{
Resolved: false,
Producer: RouteProducerClassifier,
}
applyCapabilityToSlots(&dec, sel)
if dec.CapabilitySelection.Resolved {
t.Error("CapabilitySelection.Resolved should be false")
}
// Compatibility fields should remain unchanged.
if dec.Slots.Fn != "old" {
t.Errorf("Slots.Fn = %q, want old (unchanged)", dec.Slots.Fn)
}
if !dec.Slots.HasFn {
t.Error("Slots.HasFn should still be true")
}
}
// --- ResolveActionCandidate from CapabilitySelection tests ---
// TestResolveActionCandidate_CapabilitySelectionSource pins that a resolved
// CapabilitySelection produces a route-sourced candidate.
func TestResolveActionCandidate_CapabilitySelectionSource(t *testing.T) {
dec := Decision{
Intent: IntentAct,
CapabilitySelection: CapabilitySelection{
Fn: "restart", Args: []string{"nginx"}, Resolved: true,
Method: ActionResolutionExtractorRaw,
},
Producer: RouteProducerClassifier,
}
c := ResolveActionCandidate(dec, nil)
if !c.ActionResolved() {
t.Fatal("expected resolved candidate")
}
if c.Fn != "restart" {
t.Errorf("Fn = %q, want restart", c.Fn)
}
if c.Source != ActionSourceRoute {
t.Errorf("Source = %q, want route", c.Source)
}
if c.ResolvedBy != ActionResolutionExtractorRaw {
t.Errorf("ResolvedBy = %q, want extractor_raw", c.ResolvedBy)
}
}
// TestResolveActionCandidate_CapabilitySelectionOverSlots pins that
// CapabilitySelection takes precedence over Slots.HasFn when both are set.
func TestResolveActionCandidate_CapabilitySelectionOverSlots(t *testing.T) {
dec := Decision{
Intent: IntentAct,
Slots: Slots{
Fn: "old_fn", HasFn: true,
ResolvedBy: ActionResolutionExtractorRaw,
},
CapabilitySelection: CapabilitySelection{
Fn: "new_fn", Resolved: true,
Method: ActionResolutionExtractorLLMText,
},
}
c := ResolveActionCandidate(dec, nil)
if c.Fn != "new_fn" {
t.Errorf("Fn = %q, want new_fn (CapabilitySelection wins)", c.Fn)
}
if c.ResolvedBy != ActionResolutionExtractorLLMText {
t.Errorf("ResolvedBy = %q, want extractor_llm_text", c.ResolvedBy)
}
}
// TestResolveActionCandidate_BackwardCompatSlotsHasFn pins that decisions
// with Slots.HasFn but no CapabilitySelection still work (backward compat).
func TestResolveActionCandidate_BackwardCompatSlotsHasFn(t *testing.T) {
dec := Decision{
Intent: IntentAct,
Slots: Slots{
Fn: "restart", Args: []string{"nginx"}, HasFn: true,
ResolvedBy: ActionResolutionGrammarFixed,
},
}
c := ResolveActionCandidate(dec, nil)
if !c.ActionResolved() {
t.Fatal("expected resolved candidate from backward compat")
}
if c.Fn != "restart" {
t.Errorf("Fn = %q, want restart", c.Fn)
}
if c.ResolvedBy != ActionResolutionGrammarFixed {
t.Errorf("ResolvedBy = %q, want grammar_fixed", c.ResolvedBy)
}
}
// --- Router integration: CapabilitySelection populated by Route ---
// TestRouterRoute_CapabilitySelectionPopulated pins that Router.Route sets
// CapabilitySelection on the returned Decision for each cascade path.
func TestRouterRoute_CapabilitySelectionPopulated(t *testing.T) {
r := newTestRouter(t, 0.3)
// Stage-0 grammar path: wakeword-act.
d, err := r.Route(t.Context(), NormalizedInput{Text: "maven restart nginx"}, refNow())
if err != nil {
t.Fatal(err)
}
if !d.CapabilitySelection.Resolved {
t.Error("stage-0: CapabilitySelection not resolved")
}
if d.CapabilitySelection.Fn != "restart" {
t.Errorf("stage-0: Fn = %q, want restart", d.CapabilitySelection.Fn)
}
if d.CapabilitySelection.InputKind != SelectionDeterministic {
t.Errorf("stage-0: InputKind = %q, want deterministic", d.CapabilitySelection.InputKind)
}
// Classifier path: raw utterance matches allowlist.
d, err = r.Route(t.Context(), NormalizedInput{Text: "restart nginx"}, refNow())
if err != nil {
t.Fatal(err)
}
if d.Intent != IntentAct {
t.Skipf("classifier routed to %q, not act", d.Intent)
}
if !d.CapabilitySelection.Resolved {
t.Error("classifier: CapabilitySelection not resolved")
}
if d.CapabilitySelection.Fn != "restart" {
t.Errorf("classifier: Fn = %q, want restart", d.CapabilitySelection.Fn)
}
}
// TestRouterRoute_ClassifierUnresolvedAct pins that an act intent where the
// raw utterance does not match the allowlist has an unresolved selection.
func TestRouterRoute_ClassifierUnresolvedAct(t *testing.T) {
m := DefaultActMatcher{Fns: []string{"restart", "stop"}}
emb := NewHashEmbedder(1024)
c := NewClassifier(emb)
seedClassifier(t, c)
ex := Extractor{Acts: m}
r := New(Config{
Classifier: c,
Extractor: ex,
Threshold: 0.3,
})
d, err := r.Route(t.Context(), NormalizedInput{Text: "deploy the thing"}, refNow())
if err != nil {
t.Fatal(err)
}
if d.Intent != IntentAct {
t.Skipf("classifier routed to %q, not act", d.Intent)
}
if d.CapabilitySelection.Resolved {
t.Error("expected unresolved selection for non-matching utterance")
}
}
// --- SelectionInputKind constants ---
// TestSelectionInputKindConstants pins that the three input kind constants
// are distinct and non-empty.
func TestSelectionInputKindConstants(t *testing.T) {
kinds := []SelectionInputKind{SelectionRaw, SelectionLLMText, SelectionDeterministic}
seen := make(map[SelectionInputKind]bool)
for _, k := range kinds {
if k == "" {
t.Error("SelectionInputKind constant is empty")
}
if seen[k] {
t.Errorf("SelectionInputKind %q appears twice", k)
}
seen[k] = true
}
}
+1 -1
View File
@@ -145,7 +145,7 @@ func TestClaimOfLeavesTheDecisionAlone(t *testing.T) {
Extractor: Extractor{},
Threshold: 0.55,
})
before, err := r.Route(context.Background(), "напомни полить цветы", time.Now())
before, err := r.Route(context.Background(), NormalizedInput{Text: "напомни полить цветы"}, time.Now())
if err != nil {
t.Fatalf("Route: %v", err)
}
+1 -1
View File
@@ -123,7 +123,7 @@ func reportConfidences(t *testing.T, name string, emb router.Embedder) {
byMargin := map[string]*bucket{}
var cosines, margins []float64
for _, c := range f.Cases {
d, err := r.Route(context.Background(), c.Utterance, now)
d, err := r.Route(context.Background(), router.NormalizedInput{Text: c.Utterance}, now)
if err != nil {
t.Fatalf("%s: %v", c.ID, err)
}
+5 -5
View File
@@ -103,17 +103,17 @@ func (f Fixture) Now() (time.Time, error) {
// Router — the one thing a route decider must do to be scorable. *router.Router
// satisfies it directly; an LLM-only path wraps its Route in RouterFunc.
type Router interface {
Route(ctx context.Context, utterance string, now time.Time) (router.Decision, error)
Route(ctx context.Context, input router.NormalizedInput, now time.Time) (router.Decision, error)
}
// RouterFunc adapts a bare function to Router — for scoring a single stage
// (e.g. *router.LLMRouter, whose Route returns an extra ok bool) without
// standing up the whole cascade.
type RouterFunc func(ctx context.Context, utterance string, now time.Time) (router.Decision, error)
type RouterFunc func(ctx context.Context, input router.NormalizedInput, now time.Time) (router.Decision, error)
// Route implements Router.
func (f RouterFunc) Route(ctx context.Context, utterance string, now time.Time) (router.Decision, error) {
return f(ctx, utterance, now)
func (f RouterFunc) Route(ctx context.Context, input router.NormalizedInput, now time.Time) (router.Decision, error) {
return f(ctx, input, now)
}
// Outcome — one scored case. Reasons is empty exactly when Pass is true.
@@ -231,7 +231,7 @@ func Score(ctx context.Context, name string, r Router, f Fixture) (Report, error
for _, c := range f.Cases {
start := time.Now()
d, err := r.Route(ctx, c.Utterance, now)
d, err := r.Route(ctx, router.NormalizedInput{Text: c.Utterance}, now)
o := Outcome{Case: c, Decision: d, Err: err, Latency: time.Since(start)}
lat = append(lat, o.Latency)
+4 -4
View File
@@ -74,8 +74,8 @@ func TestLLMRouterBaseline(t *testing.T) {
// llm-only: the LLM stage in isolation. Route returns (Decision, ok, err);
// !ok without an error would be a contract violation, so it is surfaced as
// one rather than silently scored as a miss.
llmOnly := RouterFunc(func(ctx context.Context, u string, now time.Time) (router.Decision, error) {
d, ok, err := lr.Route(ctx, u, now)
llmOnly := RouterFunc(func(ctx context.Context, input router.NormalizedInput, now time.Time) (router.Decision, error) {
d, ok, err := lr.Route(ctx, input.Text, now)
if err != nil {
return d, err
}
@@ -152,8 +152,8 @@ func TestReachWithLLMRouter(t *testing.T) {
lr := router.NewLLMRouter(client)
m := router.DefaultActMatcher{Fns: actFns}
llmOnly := RouterFunc(func(ctx context.Context, u string, now time.Time) (router.Decision, error) {
d, ok, err := lr.Route(ctx, u, now)
llmOnly := RouterFunc(func(ctx context.Context, input router.NormalizedInput, now time.Time) (router.Decision, error) {
d, ok, err := lr.Route(ctx, input.Text, now)
if err != nil {
return d, err
}
+1 -1
View File
@@ -214,7 +214,7 @@ func ScoreReach(ctx context.Context, name string, r Router, m router.ActMatcher,
for _, c := range f.Cases {
start := time.Now()
d, err := r.Route(ctx, c.Utterance, now)
d, err := r.Route(ctx, router.NormalizedInput{Text: c.Utterance}, now)
o := ReachOutcome{Case: c, Decision: d, Err: err, Latency: time.Since(start)}
lat = append(lat, o.Latency)
+3 -3
View File
@@ -78,7 +78,7 @@ func TestResolutionMethodMatrix(t *testing.T) {
resolved := 0
counts := [5]int{} // fixed, matcher, raw, llm, fallback
for _, c := range rf.Cases {
d, err := r.Route(ctx, c.Utterance, rfNow)
d, err := r.Route(ctx, router.NormalizedInput{Text: c.Utterance}, rfNow)
if err != nil || d.Intent != router.IntentAct {
continue
}
@@ -132,7 +132,7 @@ func TestResolutionMethodMatrix(t *testing.T) {
resolved := 0
counts := [5]int{}
for _, c := range ef.Cases {
d, err := r2.Route(ctx, c.Utterance, efNow)
d, err := r2.Route(ctx, router.NormalizedInput{Text: c.Utterance}, efNow)
if err != nil || d.Intent != router.IntentAct {
continue
}
@@ -189,7 +189,7 @@ func TestShadowMatcherComparison(t *testing.T) {
same, different, routeOnly, matcherOnly, missBoth, total := 0, 0, 0, 0, 0, 0
for _, c := range f.Cases {
d, err := r.Route(ctx, c.Utterance, now)
d, err := r.Route(ctx, router.NormalizedInput{Text: c.Utterance}, now)
if err != nil || d.Intent != router.IntentAct {
continue
}
+75
View File
@@ -0,0 +1,75 @@
package router
import (
"context"
"time"
)
// FastPathResult is the outcome of the stage-0 deterministic fast path.
// Matched is true when a grammar accepted the input. Decision carries the
// full routing result for a match. When Matched is false the caller falls
// through to the general cascade (heads → LLM → classifier → extraction → gate).
type FastPathResult struct {
Matched bool
Decision Decision
}
// TryFastPath runs the stage-0 exact-match grammars. It owns the ordered
// grammar list, first-match-wins semantics, wake-token alternate handling,
// slot filling, capability selection, and per-grammar trace recording.
//
// When no grammar matches, Matched is false and the caller falls through
// to the general cascade.
//
// TryFastPath receives NormalizedInput so later recognizers can opt into
// MatchText, but no existing grammar switches in this slice — they all
// receive input.Text (the raw utterance) exactly as they do today.
func (r *Router) TryFastPath(
ctx context.Context,
input NormalizedInput,
now time.Time,
) (FastPathResult, error) {
// stage 0 — exact match / grammar. First match wins; grammars are ordered.
// Grammars like time/date/reminder don't expect a wake-word prefix, but
// the STT often includes one (transcribed phonetically, any script) — try
// the wake-stripped utterance too so those grammars still fire.
stripped, hadWake := StripWakeToken(input.Text)
// declinedBuild — the grammars that matched the shape and refused the
// content, kept for the decision record (V-564) so a reader can tell that
// rule from one whose pattern never fired.
var declinedBuild map[int]bool
for i, g := range r.grammars {
d, matched, ok := g.Evaluate(input.Text)
if !matched && hadWake {
d, matched, ok = g.Evaluate(stripped)
}
if !matched {
continue
}
if !ok {
if declinedBuild == nil {
declinedBuild = map[int]bool{}
}
declinedBuild[i] = true
continue // grammar matched shape but not content → fall through
}
d.Utterance = input.Text
d.Producer = RouteProducerGrammar
// A literal pattern named that destination, which is the one provenance
// allowed to take the personal boundary off a turn (V-666). Set here and
// nowhere else, so no other arm of the cascade can claim it.
d.SourceAnchored = d.Source != SourceUnknown
// The grammar decided the intent; the extractor fills the slots it did
// not match (V-572). See fillMatchedSlots for why every grammar gets it.
r.fillMatchedSlots(ctx, &d, now)
// Capability selection: deterministic grammars that already resolved Fn
// (wakeword-act, praxis, task-status) bypass the general selector.
// SelectCapability records the existing result with
// InputKind=SelectionDeterministic.
applyCapabilityToSlots(&d, SelectCapability(d, r.extractor.Acts))
r.noteGrammarOutcomes(ctx, i+1, declinedBuild, g.Name, d.Intent)
return FastPathResult{Matched: true, Decision: d}, nil
}
r.noteGrammarOutcomes(ctx, len(r.grammars), declinedBuild, "", "")
return FastPathResult{}, nil
}
+350
View File
@@ -0,0 +1,350 @@
package router
import (
"context"
"testing"
)
func TestTryFastPathMatchesReminderGrammar(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, ReminderGrammar())
now := refNow()
fast, err := r.TryFastPath(context.Background(), NormalizedInput{Text: "напомни позвонить маме завтра"}, now)
if err != nil {
t.Fatalf("TryFastPath: %v", err)
}
if !fast.Matched {
t.Fatal("expected Matched=true")
}
d := fast.Decision
if d.Intent != IntentReminder {
t.Errorf("Intent = %q, want %q", d.Intent, IntentReminder)
}
if d.Stage != 0 {
t.Errorf("Stage = %d, want 0", d.Stage)
}
if d.Producer != RouteProducerGrammar {
t.Errorf("Producer = %q, want %q", d.Producer, RouteProducerGrammar)
}
if d.Confidence != 1.0 {
t.Errorf("Confidence = %f, want 1.0", d.Confidence)
}
}
func TestTryFastPathMatchesWithWakeToken(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, SystemTimeDateGrammars()...)
now := refNow()
fast, err := r.TryFastPath(context.Background(), NormalizedInput{Text: "Мэйвен который час"}, now)
if err != nil {
t.Fatalf("TryFastPath: %v", err)
}
if !fast.Matched {
t.Fatal("expected Matched=true")
}
d := fast.Decision
if d.Intent != IntentSystem {
t.Errorf("Intent = %q, want %q", d.Intent, IntentSystem)
}
if d.Stage != 0 {
t.Errorf("Stage = %d, want 0", d.Stage)
}
}
func TestTryFastPathMissFallsThrough(t *testing.T) {
r := newTestRouter(t, 0.0)
now := refNow()
fast, err := r.TryFastPath(context.Background(), NormalizedInput{Text: "как дела"}, now)
if err != nil {
t.Fatalf("TryFastPath: %v", err)
}
if fast.Matched {
t.Fatal("expected Matched=false for unmatched utterance")
}
}
func TestTryFastPathGrammarOrderPreserved(t *testing.T) {
acts := DefaultActMatcher{Fns: []string{"restart"}}
grammars := StageZeroGrammars(acts)
if len(grammars) == 0 {
t.Fatal("StageZeroGrammars returned empty list")
}
r := New(Config{
Grammars: grammars,
Classifier: nil,
Extractor: Extractor{Time: StubDateTimeParser{}, Acts: acts},
Threshold: 0.55,
})
// Verify TryFastPath uses the same ordered list by checking grammar names.
// We can't read r.grammars directly from outside the package, but we can
// verify the count matches.
if len(r.grammars) != len(grammars) {
t.Errorf("Router.grammars length = %d, want %d", len(r.grammars), len(grammars))
}
}
func TestTryFastPathCapabilitySelection(t *testing.T) {
r := newTestRouter(t, 0.0)
now := refNow()
fast, err := r.TryFastPath(context.Background(), NormalizedInput{Text: "maven, restart nginx"}, now)
if err != nil {
t.Fatalf("TryFastPath: %v", err)
}
if !fast.Matched {
t.Fatal("expected Matched=true")
}
d := fast.Decision
if d.Intent != IntentAct {
t.Errorf("Intent = %q, want %q", d.Intent, IntentAct)
}
if !d.CapabilitySelection.Resolved {
t.Error("CapabilitySelection.Resolved = false, want true")
}
if d.CapabilitySelection.Fn != "restart" {
t.Errorf("CapabilitySelection.Fn = %q, want %q", d.CapabilitySelection.Fn, "restart")
}
if d.CapabilitySelection.Method != ActionResolutionGrammarMatcher {
t.Errorf("CapabilitySelection.Method = %q, want %q", d.CapabilitySelection.Method, ActionResolutionGrammarMatcher)
}
}
func TestTryFastPathDoesNotReadMatchText(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, SystemTimeDateGrammars()...)
now := refNow()
// Pass an input where MatchText differs from Text. If any grammar
// consumed MatchText, the result would differ from using Text alone.
input := NormalizedInput{
Text: "который час",
MatchText: "totally different text that should not be used",
}
fast, err := r.TryFastPath(context.Background(), input, now)
if err != nil {
t.Fatalf("TryFastPath: %v", err)
}
if !fast.Matched {
t.Fatal("expected Matched=true for time query")
}
if fast.Decision.Intent != IntentSystem {
t.Errorf("Intent = %q, want %q (grammar should use Text, not MatchText)", fast.Decision.Intent, IntentSystem)
}
}
func TestRouteIdenticalBeforeAfter(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, SystemTimeDateGrammars()...)
r.grammars = append(r.grammars, ReminderGrammar())
now := refNow()
utterances := []struct {
text string
intent Intent
stage int
}{
{"напомни позвонить маме завтра", IntentReminder, 0},
{"который час", IntentSystem, 0},
{"как дела", IntentChat, 2}, // falls through to classifier (stage 2)
}
for _, u := range utterances {
d, err := r.Route(context.Background(), NormalizedInput{Text: u.text}, now)
if err != nil {
t.Errorf("%s: Route: %v", u.text, err)
continue
}
if d.Intent != u.intent {
t.Errorf("%s: Intent = %q, want %q", u.text, d.Intent, u.intent)
}
if d.Stage != u.stage {
t.Errorf("%s: Stage = %d, want %d", u.text, d.Stage, u.stage)
}
if u.stage == 0 && d.Producer != RouteProducerGrammar {
t.Errorf("%s: Producer = %q, want %q", u.text, d.Producer, RouteProducerGrammar)
}
}
}
func TestTryFastPathSourceAnchored(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, AgendaQueryGrammars()...)
now := refNow()
// "что в календаре на завтра" — calendar-query names SourceCalendar.
fast, err := r.TryFastPath(context.Background(), NormalizedInput{Text: "что в календаре на завтра"}, now)
if err != nil {
t.Fatalf("TryFastPath: %v", err)
}
if !fast.Matched {
t.Fatal("expected Matched=true")
}
d := fast.Decision
if d.Source != SourceCalendar {
t.Errorf("Source = %q, want %q", d.Source, SourceCalendar)
}
if !d.SourceAnchored {
t.Error("SourceAnchored = false, want true (grammar named the destination)")
}
}
func TestTryFastPathFillMatchedSlots(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, ReminderGrammar())
now := refNow()
// "напомни в 11:00 позвонить маме" — grammar captures text, extractor fills time.
fast, err := r.TryFastPath(context.Background(), NormalizedInput{Text: "напомни в 11:00 позвонить маме"}, now)
if err != nil {
t.Fatalf("TryFastPath: %v", err)
}
if !fast.Matched {
t.Fatal("expected Matched=true")
}
d := fast.Decision
if !d.Slots.HasTime {
t.Error("HasTime = false, want true (fillMatchedSlots should fill time)")
}
if got, want := d.Slots.Time.Format("15:04"), "11:00"; got != want {
t.Errorf("Time = %s, want %s", got, want)
}
}
// TestNormalizedInputReachesRouteIntact pins that the NormalizedInput
// constructed at ingress arrives at Router.Route without reconstruction.
func TestNormalizedInputReachesRouteIntact(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, SystemTimeDateGrammars()...)
now := refNow()
input := NormalizedInput{
Text: "который час",
MatchText: "который час",
Source: InputSourceText,
}
d, err := r.Route(context.Background(), input, now)
if err != nil {
t.Fatalf("Route: %v", err)
}
if d.Intent != IntentSystem {
t.Errorf("Intent = %q, want %q", d.Intent, IntentSystem)
}
if d.Utterance != input.Text {
t.Errorf("Utterance = %q, want %q (Decision.Utterance must equal input.Text)", d.Utterance, input.Text)
}
}
// TestTryFastPathReceivesMatchText pins that TryFastPath receives the
// same NormalizedInput that Route was given (including MatchText).
// Today no grammar reads MatchText, so the result must be identical
// whether MatchText is set or empty — this freezes the dark-data contract.
func TestTryFastPathReceivesMatchText(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, SystemTimeDateGrammars()...)
now := refNow()
without := NormalizedInput{Text: "который час"}
with := NormalizedInput{Text: "который час", MatchText: "который час"}
fastWithout, err := r.TryFastPath(context.Background(), without, now)
if err != nil {
t.Fatalf("TryFastPath (without): %v", err)
}
fastWith, err := r.TryFastPath(context.Background(), with, now)
if err != nil {
t.Fatalf("TryFastPath (with): %v", err)
}
if fastWithout.Matched != fastWith.Matched {
t.Errorf("Matched: without=%v, with=%v", fastWithout.Matched, fastWith.Matched)
}
if fastWithout.Matched && fastWith.Matched {
if fastWithout.Decision.Intent != fastWith.Decision.Intent {
t.Errorf("Intent: without=%q, with=%q", fastWithout.Decision.Intent, fastWith.Decision.Intent)
}
if fastWithout.Decision.Confidence != fastWith.Decision.Confidence {
t.Errorf("Confidence: without=%f, with=%f", fastWithout.Decision.Confidence, fastWith.Decision.Confidence)
}
}
}
// TestMatchTextDoesNotChangeRouting pins the dark-data invariant:
// same Text, different MatchText → same Decision. This must hold until
// an explicit later slice opts a consumer into MatchText.
func TestMatchTextDoesNotChangeRouting(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, SystemTimeDateGrammars()...)
r.grammars = append(r.grammars, ReminderGrammar())
now := refNow()
utterances := []struct {
text string
want Intent
}{
{"который час", IntentSystem},
{"напомни позвонить маме завтра", IntentReminder},
}
for _, u := range utterances {
without := NormalizedInput{Text: u.text}
with := NormalizedInput{Text: u.text, MatchText: NormalizeMatchText(u.text)}
dWithout, err := r.Route(context.Background(), without, now)
if err != nil {
t.Errorf("%s (without MatchText): Route: %v", u.text, err)
continue
}
dWith, err := r.Route(context.Background(), with, now)
if err != nil {
t.Errorf("%s (with MatchText): Route: %v", u.text, err)
continue
}
if dWithout.Intent != dWith.Intent {
t.Errorf("%s: Intent changed: without=%q, with=%q", u.text, dWithout.Intent, dWith.Intent)
}
if dWithout.Confidence != dWith.Confidence {
t.Errorf("%s: Confidence changed: without=%f, with=%f", u.text, dWithout.Confidence, dWith.Confidence)
}
if dWithout.Stage != dWith.Stage {
t.Errorf("%s: Stage changed: without=%d, with=%d", u.text, dWithout.Stage, dWith.Stage)
}
}
}
// TestDecisionUtteranceEqualsInputText pins that Decision.Utterance is
// always input.Text, regardless of which cascade path was taken.
func TestDecisionUtteranceEqualsInputText(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, SystemTimeDateGrammars()...)
r.grammars = append(r.grammars, ReminderGrammar())
now := refNow()
utterances := []struct {
text string
want Intent
}{
{"который час", IntentSystem},
{"напомни позвонить маме завтра", IntentReminder},
{"как дела", IntentChat},
}
for _, u := range utterances {
input := NormalizedInput{Text: u.text}
d, err := r.Route(context.Background(), input, now)
if err != nil {
t.Errorf("%s: Route: %v", u.text, err)
continue
}
if d.Intent != u.want {
t.Errorf("%s: Intent = %q, want %q", u.text, d.Intent, u.want)
continue
}
if d.Utterance != u.text {
t.Errorf("%s: Decision.Utterance = %q, want %q", u.text, d.Utterance, u.text)
}
}
}
+2 -2
View File
@@ -25,7 +25,7 @@ func TestFeedQuestionsRouteToQuery(t *testing.T) {
"расскажи что в новостных лентах",
"покажи ленту",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("route(%q): %v", u, err)
}
@@ -44,7 +44,7 @@ func TestFeedGrammarLeavesTheGreetingAlone(t *testing.T) {
"что нового?",
"у меня новая лента в инстаграме",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("route(%q): %v", u, err)
}
+10
View File
@@ -150,6 +150,16 @@ type Decision struct {
Slots Slots
Clarify bool // stage 3: below threshold — ask, don't guess
// CapabilitySelection — the authoritative result of the capability-
// selection stage. Says what executable capability matched, separate
// from what kind of turn this is (Decision.Intent) and separate from
// the downstream action artifact (ActionCandidate).
//
// Decision.Slots.Fn/Args/HasFn remain as compatibility representations
// populated FROM this selection. Later action execution must read the
// candidate produced from this selection, not the compatibility fields.
CapabilitySelection CapabilitySelection
// Producer — which cascade stage produced this decision. Recorded for
// observability so a trace can name the winning component directly.
Producer RouteProducer
+17 -17
View File
@@ -168,7 +168,7 @@ func TestRouterFallsBackWhenLLMRefuses(t *testing.T) {
Threshold: 0.4,
LLM: NewLLMRouter(mockLLM{out: `{"intent":"unknown"}`}),
})
d, err := r.Route(context.Background(), "напомни позвонить маме", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "напомни позвонить маме"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -206,7 +206,7 @@ func newLLMTestRouter(t *testing.T, out string) *Router {
// reminder was dropped as "no time".
func TestLLMDecisionGetsReminderTime(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"reminder","text":"позвонить маме"}`)
d, err := r.Route(context.Background(), "напомни позвонить маме через 2 часа", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "напомни позвонить маме через 2 часа"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -225,7 +225,7 @@ func TestLLMDecisionGetsReminderTime(t *testing.T) {
// daemon says it could not read the time.
func TestLLMReminderWithoutTimeStaysEmpty(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"reminder","text":"позвонить маме"}`)
d, err := r.Route(context.Background(), "напомни позвонить маме", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "напомни позвонить маме"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -237,7 +237,7 @@ func TestLLMReminderWithoutTimeStaysEmpty(t *testing.T) {
// An act decision arrived with no Fn, so the tool never ran.
func TestLLMDecisionGetsActFn(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"act","verb":"restart nginx"}`)
d, err := r.Route(context.Background(), "слушай, restart nginx пожалуйста", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "слушай, restart nginx пожалуйста"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -249,7 +249,7 @@ func TestLLMDecisionGetsActFn(t *testing.T) {
// The model's own slots win; extraction only fills gaps.
func TestLLMSlotsWinOverExtraction(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"fact","key":"hydration","value":"выпил"}`)
d, err := r.Route(context.Background(), "я выпил воду", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "я выпил воду"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -261,7 +261,7 @@ func TestLLMSlotsWinOverExtraction(t *testing.T) {
// A fact the model left keyless still gets one from the parser.
func TestLLMFactGetsKeyFromParser(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"fact","text":"я выпил воду"}`)
d, err := r.Route(context.Background(), "я выпил воду", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "я выпил воду"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -279,7 +279,7 @@ func TestLLMFactGetsKeyFromParser(t *testing.T) {
// fact/query coin flip. The gate must ask rather than guess confidently.
func TestLLMRouterSingleTokenTripsClarify(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"query","text":"вода"}`)
d, err := r.Route(context.Background(), "вода", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "вода"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -292,7 +292,7 @@ func TestLLMRouterSingleTokenTripsClarify(t *testing.T) {
// whole point is not trading the confident cases away for clarify coverage.
func TestLLMRouterMultiWordStaysConfident(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"reminder","text":"позвонить маме"}`)
d, err := r.Route(context.Background(), "напомни позвонить маме", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "напомни позвонить маме"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -308,7 +308,7 @@ func TestLLMRouterMultiWordStaysConfident(t *testing.T) {
// "бэкап" as a verb — that must not fire a tool blind.
func TestLLMRouterActWithoutFnTripsClarify(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"act","verb":"бэкап"}`)
d, err := r.Route(context.Background(), "бэкап сделай пожалуйста расписание", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "бэкап сделай пожалуйста расписание"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -325,7 +325,7 @@ func TestLLMRouterActWithoutFnTripsClarify(t *testing.T) {
// check firing on the happy path.
func TestLLMRouterActWithFnStaysConfident(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"act","verb":"restart nginx"}`)
d, err := r.Route(context.Background(), "слушай, restart nginx пожалуйста", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "слушай, restart nginx пожалуйста"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -341,7 +341,7 @@ func TestLLMRouterActWithFnStaysConfident(t *testing.T) {
// must clarify instead of silently writing under an empty/guessed key.
func TestLLMRouterFactWithoutKeyTripsClarify(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"fact","value":"что-то"}`)
d, err := r.Route(context.Background(), "у меня какая-то фигня случилась вот прямо только что", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "у меня какая-то фигня случилась вот прямо только что"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -358,7 +358,7 @@ func TestLLMRouterFactWithoutKeyTripsClarify(t *testing.T) {
// through the full Router.Route path, not just the raw LLMRouter.
func TestRouterLLMFactWithResolvedKeyStaysConfident(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"fact","text":"я выпил воду"}`)
d, err := r.Route(context.Background(), "я выпил воду", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "я выпил воду"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -374,7 +374,7 @@ func TestRouterLLMFactWithResolvedKeyStaysConfident(t *testing.T) {
// (Vikunja #383).
func TestLLMReminderWithoutSubjectAsksInsteadOfGuessing(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"reminder"}`)
d, err := r.Route(context.Background(), "напомни в 11", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "напомни в 11"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -390,7 +390,7 @@ func TestLLMReminderWithoutSubjectAsksInsteadOfGuessing(t *testing.T) {
// both halves still runs without a question.
func TestLLMReminderWithSubjectIsNotGated(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"reminder","text":"позвонить маме"}`)
d, err := r.Route(context.Background(), "напомни в 11 позвонить маме", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "напомни в 11 позвонить маме"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -431,7 +431,7 @@ func TestRouteGrammarCoversSources(t *testing.T) {
// would take real query sources off the turn for a name nothing answers.
func TestLLMUnknownSourceFallsToTheFloor(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"query","text":"что там с бэкапами","source":"praxis"}`)
d, err := r.Route(context.Background(), "что там с бэкапами", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "что там с бэкапами"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -443,7 +443,7 @@ func TestLLMUnknownSourceFallsToTheFloor(t *testing.T) {
// And a known one survives, or the read-back is just a filter.
func TestLLMNamedSourceSurvives(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"query","text":"кто такой Линус Торвальдс","source":"world"}`)
d, err := r.Route(context.Background(), "кто такой Линус Торвальдс?", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "кто такой Линус Торвальдс?"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -457,7 +457,7 @@ func TestLLMNamedSourceSurvives(t *testing.T) {
// checks.
func TestLLMSourceIsQueryOnly(t *testing.T) {
r := newLLMTestRouter(t, `{"intent":"note","text":"кофе кончился","source":"recall"}`)
d, err := r.Route(context.Background(), "запиши что кофе кончился", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "запиши что кофе кончился"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
+32
View File
@@ -0,0 +1,32 @@
package router
import (
"strings"
"unicode"
"golang.org/x/text/unicode/norm"
)
// NormalizeMatchText derives a lossy lexical matching view from raw ingress text.
// The result is intended ONLY for consumers that explicitly opt into
// case-insensitive, whitespace-collapsed matching. It must not be used for
// user-visible text, entity identity, quoted content, free-form arguments,
// or persisted utterances without proving the transformation is safe for
// that consumer.
//
// Pipeline: TrimSpace → Unicode NFKC → lowercase → collapse Unicode whitespace.
// Does NOT fold ё→е, strip punctuation, strip wake words, rewrite numbers,
// or invoke morphology.
func NormalizeMatchText(in string) string {
out := strings.TrimSpace(in)
out = norm.NFKC.String(out)
out = strings.ToLower(out)
// Collapse runs of Unicode whitespace (including non-breaking space,
// thin space, ideographic space, etc.) to a single ASCII space.
out = strings.Join(strings.FieldsFunc(out, func(r rune) bool {
return unicode.IsSpace(r)
}), " ")
return out
}
+315
View File
@@ -0,0 +1,315 @@
package router
import (
"strings"
"testing"
"unicode"
)
// --- NormalizeMatchText tests ---
func TestNormalizeMatchTextWhitespace(t *testing.T) {
tests := []struct {
in string
want string
}{
{" привет ", "привет"},
{"привет\t\tмир", "привет мир"},
{"привет\nмир", "привет мир"},
{"привет\r\nмир", "привет мир"},
{"привет \t мир", "привет мир"},
{" ", ""},
{"", ""},
{"привет", "привет"},
}
for _, tt := range tests {
got := NormalizeMatchText(tt.in)
if got != tt.want {
t.Errorf("NormalizeMatchText(%q) = %q, want %q", tt.in, got, tt.want)
}
}
}
func TestNormalizeMatchTextCase(t *testing.T) {
tests := []struct {
in string
want string
}{
{"ПрИвЕт MAVEN", "привет maven"},
{"ПРИВЕТ", "привет"},
{"hello", "hello"},
{"HELLO", "hello"},
{"Мэйвен", "мэйвен"},
{"MAVEN", "maven"},
}
for _, tt := range tests {
got := NormalizeMatchText(tt.in)
if got != tt.want {
t.Errorf("NormalizeMatchText(%q) = %q, want %q", tt.in, got, tt.want)
}
}
}
func TestNormalizeMatchTextNFKC(t *testing.T) {
tests := []struct {
in string
want string
}{
// Fullwidth Latin letters → ASCII
{"\uff28\uff45\uff4c\uff4c\uff4f", "hello"},
// Superscript digits → ASCII
{"2\u00b9\u00b2\u00b3", "2123"},
// Compatible ligature
{"\ufb01", "fi"},
// Cyrillic compact forms
{"\u0439", "\u0439"}, // already NFC, stays as-is
}
for _, tt := range tests {
got := NormalizeMatchText(tt.in)
if got != tt.want {
t.Errorf("NormalizeMatchText(%q) = %q, want %q", tt.in, got, tt.want)
}
}
}
func TestNormalizeMatchTextPunctuationPreserved(t *testing.T) {
tests := []struct {
in string
want string
}{
{"это вопрос?", "это вопрос?"},
{"привет!", "привет!"},
{"да.", "да."},
{"напомни: через час", "напомни: через час"},
{"maven, restart nginx", "maven, restart nginx"},
{"\"quoted text\"", "\"quoted text\""},
}
for _, tt := range tests {
got := NormalizeMatchText(tt.in)
if got != tt.want {
t.Errorf("NormalizeMatchText(%q) = %q, want %q", tt.in, got, tt.want)
}
}
}
func TestNormalizeMatchTextMixedScript(t *testing.T) {
tests := []struct {
in string
want string
}{
{"restart сервер", "restart сервер"},
{"nginx на сервере", "nginx на сервере"},
{"MAC-адрес", "mac-адрес"},
{"token123", "token123"},
{"path/to/file", "path/to/file"},
}
for _, tt := range tests {
got := NormalizeMatchText(tt.in)
if got != tt.want {
t.Errorf("NormalizeMatchText(%q) = %q, want %q", tt.in, got, tt.want)
}
}
}
func TestNormalizeMatchTextYoPreserved(t *testing.T) {
// ё is NOT folded by NormalizeMatchText — it passes through as a letter.
tests := []struct {
in string
want string
}{
{"всё", "всё"},
{"ВсЁ", "всё"},
{"ещё", "ещё"},
{"Ещё", "ещё"},
}
for _, tt := range tests {
got := NormalizeMatchText(tt.in)
if got != tt.want {
t.Errorf("NormalizeMatchText(%q) = %q, want %q", tt.in, got, tt.want)
}
}
}
// --- FoldYo tests ---
// foldYo is a test-only helper mapping ё→е and Ё→Е. The fold is lossy:
// "всё" and "все" are distinct Russian words, and folding destroys that
// distinction. Not exposed in production code.
func foldYo(in string) string {
var b strings.Builder
b.Grow(len(in))
for _, r := range in {
switch r {
case 'ё':
b.WriteRune('е')
case 'Ё':
b.WriteRune('Е')
default:
b.WriteRune(r)
}
}
return b.String()
}
func TestFoldYoBasic(t *testing.T) {
tests := []struct {
in string
want string
}{
{"всё", "все"},
{"ВсЁ", "ВсЕ"}, // ё→е, Ё→Е (uppercase preserves case)
{"ещё", "еще"},
{"Ещё", "Еще"},
{"ёж", "еж"},
{"Ёж", "Еж"},
{"привет", "привет"}, // no ё
{"", ""},
}
for _, tt := range tests {
got := foldYo(tt.in)
if got != tt.want {
t.Errorf("foldYo(%q) = %q, want %q", tt.in, got, tt.want)
}
}
}
func TestFoldYoIsLossy(t *testing.T) {
// "всё" (everything) and "все" (everyone/all) are distinct words.
// Folding makes them identical — this test pins that the loss is real.
a := foldYo("всё")
b := "все"
if a != b {
t.Errorf("foldYo(\"всё\") = %q, want %q (fold should produce identical output)", a, b)
}
// The original pair must be distinct.
if "всё" == "все" {
t.Error("всё and все should be distinct strings before folding")
}
}
func TestFoldYoIdempotent(t *testing.T) {
inputs := []string{"всё", "Ещё", "Ёж", "привет", ""}
for _, in := range inputs {
first := foldYo(in)
second := foldYo(first)
if first != second {
t.Errorf("foldYo not idempotent: foldYo(%q) = %q, foldYo(that) = %q", in, first, second)
}
}
}
// --- Property / invariant tests ---
func TestNormalizeMatchTextIdempotent(t *testing.T) {
inputs := []string{
" привет ",
"ПрИвЕт MAVEN",
"это вопрос?",
"всё",
"restart nginx",
"",
"\t\n",
"\uff28\uff45\uff4c\uff4c\uff4f", // NFKC fullwidth
}
for _, in := range inputs {
first := NormalizeMatchText(in)
second := NormalizeMatchText(first)
if first != second {
t.Errorf("NormalizeMatchText not idempotent on %q: first=%q, second=%q", in, first, second)
}
}
}
func TestNormalizeMatchTextNeverRemovesPunctuation(t *testing.T) {
inputs := []string{
"это вопрос?",
"привет!",
"да.",
"напомни: через час",
"maven, restart nginx",
}
for _, in := range inputs {
got := NormalizeMatchText(in)
// Every ASCII punctuation char in the input must appear in the output.
for _, r := range in {
if r > 0x20 && r < 0x7f && !unicode.IsLetter(r) && !unicode.IsDigit(r) && !unicode.IsSpace(r) {
if !strings.ContainsRune(got, r) {
t.Errorf("NormalizeMatchText(%q) lost punctuation %c → %q", in, r, got)
}
}
}
}
}
func TestNormalizeMatchTextNeverRemovesWakeWord(t *testing.T) {
inputs := []string{
"maven restart nginx",
"Мэйвен который час",
"мавен напомни",
}
for _, in := range inputs {
got := NormalizeMatchText(in)
if strings.TrimSpace(got) == "" {
t.Errorf("NormalizeMatchText(%q) produced empty output", in)
}
// The wake word should still be present as a substring (lowercased).
lowered := strings.ToLower(in)
for _, wake := range []string{"maven", "мэйвен", "мейвен", "майвен", "мавен", "мавена", "мавену", "мавеном"} {
if strings.Contains(lowered, wake) && !strings.Contains(got, wake) {
t.Errorf("NormalizeMatchText(%q) lost wake word %q → %q", in, wake, got)
}
}
}
}
func TestNormalizeMatchTextNeverRewritesNumbers(t *testing.T) {
inputs := []string{
"семь вечера",
"три часа",
"через два часа",
}
for _, in := range inputs {
got := NormalizeMatchText(in)
// Number words must not become digits.
if strings.ContainsAny(got, "0123456789") {
t.Errorf("NormalizeMatchText(%q) introduced digits → %q", in, got)
}
}
}
func TestNormalizeMatchTextNeverMutatesOriginal(t *testing.T) {
inputs := []string{" привет ", "ПрИвЕт", "это вопрос?"}
for _, in := range inputs {
orig := in
_ = NormalizeMatchText(in)
if in != orig {
t.Errorf("NormalizeMatchText mutated input: was %q, now %q", orig, in)
}
}
}
func TestNormalizeMatchTextIsDeterministic(t *testing.T) {
input := " ПрИвЕт MAVEN "
a := NormalizeMatchText(input)
b := NormalizeMatchText(input)
if a != b {
t.Errorf("NormalizeMatchText not deterministic: %q vs %q", a, b)
}
}
func TestMatchTextDarkDataInvariant(t *testing.T) {
// MatchText is currently not authoritative for any routing/action result.
// Pin this by verifying that constructing a NormalizedInput with MatchText
// does not change the Text field.
input := NormalizedInput{
Text: "Привет",
MatchText: NormalizeMatchText("Привет"),
Source: InputSourceText,
}
if input.Text != "Привет" {
t.Errorf("Text was mutated to %q", input.Text)
}
if input.MatchText != "привет" {
t.Errorf("MatchText = %q, want %q", input.MatchText, "привет")
}
}
+3 -3
View File
@@ -37,7 +37,7 @@ func TestNarrativeAndRestOfDayRouteToQueryAtStageZero(t *testing.T) {
"что дальше",
"what's next?",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("route(%q): %v", u, err)
}
@@ -61,7 +61,7 @@ func TestNarrativeGrammarLeavesOtherTurnsAlone(t *testing.T) {
"расскажи шутку",
"расскажи",
} {
d, err := r.Route(context.Background(), u, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: u}, refNow())
if err != nil {
t.Fatalf("route(%q): %v", u, err)
}
@@ -75,7 +75,7 @@ func TestNarrativeGrammarLeavesOtherTurnsAlone(t *testing.T) {
// search leg wants "битву при Ватерлоо", not "расскажи про битву при Ватерлоо".
func TestNarrativeGrammarKeepsTheTopic(t *testing.T) {
r := narrativeRouter(t)
d, err := r.Route(context.Background(), "расскажи про битву при Ватерлоо", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "расскажи про битву при Ватерлоо"}, refNow())
if err != nil {
t.Fatal(err)
}
+1 -1
View File
@@ -56,7 +56,7 @@ func TestPossessionStatementBeatsStatisticalQueryGuess(t *testing.T) {
Classifier: classifier,
Threshold: 0,
})
d, err := r.Route(context.Background(), "у меня новый ноутбук", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "у меня новый ноутбук"}, refNow())
if err != nil {
t.Fatal(err)
}
+36 -51
View File
@@ -71,44 +71,17 @@ func New(cfg Config) *Router {
// is flagged Clarify (the daemon asks rather than guesses — same shape as
// since(key)==null → don't fire: a misrouted fact is a confident wrong write,
// worse than a gap).
func (r *Router) Route(ctx context.Context, utterance string, now time.Time) (Decision, error) {
// stage 0 — exact match / grammar. First match wins; grammars are ordered.
// Grammars like time/date/reminder don't expect a wake-word prefix, but
// the STT often includes one (transcribed phonetically, any script) — try
// the wake-stripped utterance too so those grammars still fire.
stripped, hadWake := StripWakeToken(utterance)
// declinedBuild — the grammars that matched the shape and refused the
// content, kept for the decision record (V-564) so a reader can tell that
// rule from one whose pattern never fired.
var declinedBuild map[int]bool
for i, g := range r.grammars {
d, matched, ok := g.Evaluate(utterance)
if !matched && hadWake {
d, matched, ok = g.Evaluate(stripped)
}
if !matched {
continue
}
if !ok {
if declinedBuild == nil {
declinedBuild = map[int]bool{}
}
declinedBuild[i] = true
continue // grammar matched shape but not content → fall through
}
d.Utterance = utterance
d.Producer = RouteProducerGrammar
// A literal pattern named that destination, which is the one provenance
// allowed to take the personal boundary off a turn (V-666). Set here and
// nowhere else, so no other arm of the cascade can claim it.
d.SourceAnchored = d.Source != SourceUnknown
// The grammar decided the intent; the extractor fills the slots it did
// not match (V-572). See fillMatchedSlots for why every grammar gets it.
r.fillMatchedSlots(ctx, &d, now)
r.noteGrammarOutcomes(ctx, i+1, declinedBuild, g.Name, d.Intent)
return d, nil
func (r *Router) Route(ctx context.Context, input NormalizedInput, now time.Time) (Decision, error) {
utterance := input.Text
// stage 0 — deterministic fast path. First match wins; grammars are ordered.
fast, err := r.TryFastPath(ctx, input, now)
if err != nil {
return Decision{}, err
}
if fast.Matched {
return fast.Decision, nil
}
r.noteGrammarOutcomes(ctx, len(r.grammars), declinedBuild, "", "")
// stage 0b — routing heads (when wired). A softmax over the label set, so
// it cannot name an intent or a destination that does not exist, and its
@@ -142,6 +115,7 @@ func (r *Router) Route(ctx context.Context, utterance string, now time.Time) (De
Producer: RouteProducerHeads,
}
r.fillSlots(ctx, &d, now)
applyCapabilityToSlots(&d, SelectCapability(d, r.extractor.Acts))
// The clarify head relearned the English assumption that one word
// cannot be a sentence. Russian verbs carry subject and tense, and a
// deterministic fact parser which also found a key gives both halves
@@ -184,6 +158,13 @@ func (r *Router) Route(ctx context.Context, utterance string, now time.Time) (De
d.Utterance = utterance
d.Producer = RouteProducerLLM
r.fillSlots(ctx, &d, now)
// Capability selection: after fillSlots populates Text, SelectCapability
// tries the LLM-cleaned text against the allowlist when the raw
// utterance did not match. This replaces the former LLM text backfill
// that was embedded in fillSlots. Must run before gateLLMDecision so
// the gate sees the correct resolution state for acts.
sel := SelectCapability(d, r.extractor.Acts)
applyCapabilityToSlots(&d, sel)
before := d.Confidence
r.gateLLMDecision(&d)
// The classifier is the floor and it never ran, which is the whole
@@ -244,6 +225,12 @@ func (r *Router) Route(ctx context.Context, utterance string, now time.Time) (De
Slots: r.extractor.Extract(ctx, best.Intent, utterance, now),
Producer: RouteProducerClassifier,
}
// Capability selection: for the classifier path, the raw extractor
// already filled Slots.Fn/Args via Extract(IntentAct). SelectCapability
// records this as a deterministic bypass. If the raw match missed,
// there is no LLM text to fall back to (Text == Utterance), so the
// selection remains unresolved.
applyCapabilityToSlots(&d, SelectCapability(d, r.extractor.Acts))
// stage 3 — confidence gate. Below threshold ⇒ clarify, don't guess.
if d.Confidence < r.threshold {
@@ -302,27 +289,22 @@ func (r *Router) fillMatchedSlots(ctx context.Context, d *Decision, now time.Tim
if !d.Slots.HasKey && ex.HasKey {
d.Slots.Key, d.Slots.Value, d.Slots.HasKey = ex.Key, ex.Value, ex.HasKey
}
// Capability selection (Fn/Args/HasFn) is now handled by
// SelectCapability, not here. The extractor still fills them via
// Extract(IntentAct), but the authoritative record lives in
// Decision.CapabilitySelection. See capability.go.
if !d.Slots.HasFn && ex.HasFn {
d.Slots.Fn, d.Slots.Args, d.Slots.HasFn, d.Slots.ResolvedBy = ex.Fn, ex.Args, ex.HasFn, ex.ResolvedBy
}
return ex
}
// fillSlots — fillMatchedSlots for an LLM decision, plus the two backfills that
// only make sense there. The LLM wins where it answered: it saw the sentence,
// the parsers are keyword tables.
// fillSlots — fillMatchedSlots for an LLM decision, plus the text backfill.
// Capability selection (Fn/Args) is now handled by SelectCapability, called
// after fillSlots in the routing pipeline. This function fills only time, key,
// and text slots.
func (r *Router) fillSlots(ctx context.Context, d *Decision, now time.Time) {
ex := r.fillMatchedSlots(ctx, d, now)
// For an act the model returns the verb in Text ("restart nginx"), which is
// often cleaner than the raw utterance ("maven, could you restart nginx").
// Try it too when the utterance did not match the allowlist.
if d.Intent == IntentAct && !d.Slots.HasFn && r.extractor.Acts != nil &&
d.Slots.Text != "" && d.Slots.Text != d.Utterance {
if fn, args, ok := r.extractor.Acts.Match(d.Slots.Text); ok {
d.Slots.Fn, d.Slots.Args, d.Slots.HasFn = fn, args, true
d.Slots.ResolvedBy = ActionResolutionExtractorLLMText
}
}
// The extractor's Text is the raw utterance, which is the payload for a
// note, a query or a chat turn but not for a reminder — there Text is the
// subject, what she says at the hour. Backfilling it made Text impossible
@@ -354,11 +336,14 @@ func (r *Router) fillSlots(ctx context.Context, d *Decision, now time.Time) {
// Anything below threshold gets the exact same Clarify=true treatment the
// classifier path already produces — same field, same daemon-side consumer
// (cmd/mavend/clarify.go), nothing new to wire.
//
// The act check now reads CapabilitySelection.Resolved (set by
// SelectCapability before this function runs) rather than Slots.HasFn.
func (r *Router) gateLLMDecision(d *Decision) {
if d.Intent == IntentFact && !d.Slots.HasKey && d.Confidence > llmThinConfidence {
d.Confidence = llmThinConfidence
}
if d.Intent == IntentAct && !d.Slots.HasFn && d.Confidence > llmThinConfidence {
if d.Intent == IntentAct && !d.CapabilitySelection.Resolved && d.Confidence > llmThinConfidence {
d.Confidence = llmThinConfidence
}
// A reminder with no subject: she knows when but not what to say then.
+18 -18
View File
@@ -78,7 +78,7 @@ func newTestRouter(t *testing.T, threshold float64) *Router {
func TestStage0WakeWordAct(t *testing.T) {
r := newTestRouter(t, 0.0)
d, err := r.Route(context.Background(), "maven, restart nginx", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "maven, restart nginx"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -94,7 +94,7 @@ func TestStage0WakeWordFallsThroughOnUnknownAct(t *testing.T) {
// wakeword prefix alone doesn't guarantee a known command. "maven, i'm tired"
// is a fact-ish utterance → falls through to the classifier.
r := newTestRouter(t, 0.0)
d, err := r.Route(context.Background(), "maven, i drank water", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "maven, i drank water"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -112,7 +112,7 @@ func TestStage0GrammarFiresThroughCyrillicWakeWord(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, SystemTimeDateGrammars()...)
d, err := r.Route(context.Background(), "Мэйвен который час", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "Мэйвен который час"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -130,7 +130,7 @@ func TestStage0ReminderCarriesTheHourHeSaid(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, ReminderGrammar())
d, err := r.Route(context.Background(), "напомни в 11:00 позвонить маме", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "напомни в 11:00 позвонить маме"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -156,7 +156,7 @@ func TestStage0ReminderCarriesTheHourHeSaid(t *testing.T) {
// be able to replace it.
func TestStage0MatchedSlotBeatsTheExtractor(t *testing.T) {
r := newTestRouter(t, 0.0)
d, err := r.Route(context.Background(), "maven, restart nginx", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "maven, restart nginx"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -176,7 +176,7 @@ func TestStage0QueryKeepsAnEmptyText(t *testing.T) {
r := newTestRouter(t, 0.0)
r.grammars = append(r.grammars, AgendaQueryGrammars()...)
d, err := r.Route(context.Background(), "что у меня сегодня", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "что у меня сегодня"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -192,7 +192,7 @@ func TestStage0QueryKeepsAnEmptyText(t *testing.T) {
func TestStage1ClassifiesAct(t *testing.T) {
r := newTestRouter(t, 0.0)
d, err := r.Route(context.Background(), "restart the backup now", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "restart the backup now"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -206,7 +206,7 @@ func TestStage1ClassifiesAct(t *testing.T) {
func TestStage1ClassifiesFact(t *testing.T) {
r := newTestRouter(t, 0.0)
d, err := r.Route(context.Background(), "i drank water", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "i drank water"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -230,7 +230,7 @@ func TestStage1ClassifiesNoteAndQuery(t *testing.T) {
{"when did i last eat", IntentQuery},
}
for _, c := range cases {
d, err := r.Route(context.Background(), c.in, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: c.in}, refNow())
if err != nil {
t.Fatalf("route %q: %v", c.in, err)
}
@@ -245,7 +245,7 @@ func TestStage1ClassifiesNoteAndQuery(t *testing.T) {
func TestStage2ReminderSlotExtraction(t *testing.T) {
r := newTestRouter(t, 0.0)
now := refNow()
d, err := r.Route(context.Background(), "remind me in four hours", now)
d, err := r.Route(context.Background(), NormalizedInput{Text: "remind me in four hours"}, now)
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -265,7 +265,7 @@ func TestStage2ReminderAtClockRollsToTomorrow(t *testing.T) {
// "wake me at 7" said at 12:00 → fires tomorrow 07:00 (already past today).
r := newTestRouter(t, 0.0)
now := refNow()
d, err := r.Route(context.Background(), "wake me at 7", now)
d, err := r.Route(context.Background(), NormalizedInput{Text: "wake me at 7"}, now)
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -280,7 +280,7 @@ func TestStage2ReminderAtClockRollsToTomorrow(t *testing.T) {
func TestStage2FactSleptDuration(t *testing.T) {
r := newTestRouter(t, 0.0)
d, err := r.Route(context.Background(), "slept 6h", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "slept 6h"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -298,7 +298,7 @@ func TestStage3ClarifyBelowThreshold(t *testing.T) {
// high threshold ⇒ even a well-classified utterance is gated to clarify.
// "shuts up when uncertain": a misrouted fact is a confident wrong write.
r := newTestRouter(t, 0.99)
d, err := r.Route(context.Background(), "i drank water", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "i drank water"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -314,7 +314,7 @@ func TestStage3ClarifyBelowThreshold(t *testing.T) {
func TestStage3PassesAboveThreshold(t *testing.T) {
r := newTestRouter(t, 0.0) // threshold 0 ⇒ nothing gated
d, err := r.Route(context.Background(), "i drank water", refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: "i drank water"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -331,7 +331,7 @@ func TestColdBootNoIntents(t *testing.T) {
emb := NewHashEmbedder(128)
c := NewClassifier(emb)
r := New(Config{Classifier: c, Threshold: 0})
if _, err := r.Route(context.Background(), "something freeform", refNow()); err != ErrNoIntents {
if _, err := r.Route(context.Background(), NormalizedInput{Text: "something freeform"}, refNow()); err != ErrNoIntents {
t.Fatalf("cold boot: want ErrNoIntents, got %v", err)
}
}
@@ -342,7 +342,7 @@ func TestCorrectMisrouteGrowsClassifier(t *testing.T) {
r := newTestRouter(t, 0.4)
// "note the backup is broken" looks note-ish but the user meant a fact
// (loop should know the backup is down). Without correction it routes note.
before, err := r.Route(context.Background(), "backup is broken", refNow())
before, err := r.Route(context.Background(), NormalizedInput{Text: "backup is broken"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -359,7 +359,7 @@ func TestCorrectMisrouteGrowsClassifier(t *testing.T) {
t.Fatalf("correct: %v", err)
}
}
after, err := r.Route(context.Background(), "backup is broken", refNow())
after, err := r.Route(context.Background(), NormalizedInput{Text: "backup is broken"}, refNow())
if err != nil {
t.Fatalf("route: %v", err)
}
@@ -403,7 +403,7 @@ func TestStage1ClassifiesChat(t *testing.T) {
{"расскажи что-нибудь", IntentChat},
}
for _, c := range cases {
d, err := r.Route(context.Background(), c.in, refNow())
d, err := r.Route(context.Background(), NormalizedInput{Text: c.in}, refNow())
if err != nil {
t.Fatalf("route %q: %v", c.in, err)
}
+241
View File
@@ -0,0 +1,241 @@
package semantic
import (
"context"
"fmt"
"math"
"sort"
"strings"
"time"
"github.com/kami/maven/internal/router"
)
// ScoreLegacy runs the actual router against the corpus and produces the
// baseline report. The now parameter is the reference clock for relative
// time expressions.
func ScoreLegacy(ctx context.Context, r LegacyRouter, exs []RouteExample, now time.Time) LegacyReport {
stats := CorpusStatsFrom(exs)
rep := LegacyReport{
Stats: stats,
Total: len(exs),
ByRoute: make(map[SemanticRoute]RouteMetrics),
Confusion: make(map[SemanticRoute]map[SemanticRoute]int),
}
for _, rt := range AllRoutes {
rep.Confusion[rt] = make(map[SemanticRoute]int)
}
for _, e := range exs {
input := router.NormalizedInput{Text: e.Text}
d, err := r.Route(ctx, input, now)
var predicted SemanticRoute
var fpHit bool
var preroute bool
if err != nil {
predicted = RouteUncertain
} else {
// Determine if fast-path resolved this.
fpHit = d.Stage == 0 && d.Producer == router.RouteProducerGrammar
predicted = IntentToRoute(d.Intent)
// Pre-route consumption: command-prohibition grammar emits
// IntentAct with Fn=prohibited_act at stage 0. These cases
// never reach the general cascade.
preroute = d.Stage == 0 && d.Slots.Fn == "prohibited_act"
}
agree := predicted == e.Route
c := LegacyCase{
Example: e,
Decision: d,
Predicted: predicted,
Agree: agree,
FastPathHit: fpHit,
PrerouteConsumed: preroute,
Error: err,
}
rep.Cases = append(rep.Cases, c)
rep.Confusion[e.Route][predicted]++
if agree {
rep.Passed++
}
if e.Route != RouteAction && predicted == RouteAction {
rep.FalseAction++
rep.FalseActionCases = append(rep.FalseActionCases, c)
}
if e.FastPathResolved || fpHit {
if preroute {
// Command-prohibition grammar: consumed before cascade.
rep.PreRouteTotal++
if agree {
rep.PreRoutePassed++
}
} else {
rep.FastPathTotal++
if agree {
rep.FastPathPassed++
}
}
} else {
rep.ResidualTotal++
if agree {
rep.ResidualPassed++
}
// All residual cases are router-residual (the learned
// router would see all of them).
rep.RouterResidualTotal++
if agree {
rep.RouterResidualPassed++
}
}
}
if rep.Total > 0 {
rep.FalseActionRate = float64(rep.FalseAction) / float64(rep.Total)
}
// Per-route P/R/F1.
for _, route := range AllRoutes {
tp, fp, fn := 0, 0, 0
for _, got := range AllRoutes {
count := rep.Confusion[route][got]
if got == route {
tp = count
} else {
fn += count
fp += rep.Confusion[got][route]
}
}
rm := RouteMetrics{TP: tp, FP: fp, FN: fn}
if tp+fp > 0 {
rm.Precision = float64(tp) / float64(tp+fp)
}
if tp+fn > 0 {
rm.Recall = float64(tp) / float64(tp+fn)
}
if rm.Precision+rm.Recall > 0 {
rm.F1 = 2 * rm.Precision * rm.Recall / (rm.Precision + rm.Recall)
}
rm.F1 = math.Round(rm.F1*1000) / 1000
rm.Precision = math.Round(rm.Precision*1000) / 1000
rm.Recall = math.Round(rm.Recall*1000) / 1000
rep.ByRoute[route] = rm
}
return rep
}
// MacroF1 returns the macro-averaged F1 across all routes.
func (r LegacyReport) MacroF1() float64 {
if len(r.ByRoute) == 0 {
return 0
}
var sum float64
for _, rm := range r.ByRoute {
sum += rm.F1
}
return math.Round(sum/float64(len(r.ByRoute))*1000) / 1000
}
// String renders the legacy baseline report.
func (r LegacyReport) String() string {
var b strings.Builder
fmt.Fprintf(&b, "legacy baseline: %d/%d (%.1f%%)\n", r.Passed, r.Total,
100*float64(r.Passed)/math.Max(float64(r.Total), 1))
fmt.Fprintf(&b, " macro F1: %.3f\n", r.MacroF1())
fmt.Fprintf(&b, " false-action: %d/%d (%.3f)\n", r.FalseAction, r.Total, r.FalseActionRate)
fmt.Fprintf(&b, " fast-path: %d/%d residual: %d/%d\n",
r.FastPathPassed, r.FastPathTotal,
r.ResidualPassed, r.ResidualTotal)
if r.RouterResidualTotal > 0 {
fmt.Fprintf(&b, " router-residual: %d/%d (pre-route consumed: %d)\n",
r.RouterResidualPassed, r.RouterResidualTotal, r.PreRouteTotal)
}
fmt.Fprintf(&b, " per-route:\n")
routes := make([]SemanticRoute, 0, len(r.ByRoute))
for route := range r.ByRoute {
routes = append(routes, route)
}
sort.Slice(routes, func(i, j int) bool { return routes[i] < routes[j] })
for _, route := range routes {
rm := r.ByRoute[route]
fmt.Fprintf(&b, " %-15s P=%.3f R=%.3f F1=%.3f (tp=%d fp=%d fn=%d)\n",
string(route), rm.Precision, rm.Recall, rm.F1, rm.TP, rm.FP, rm.FN)
}
fmt.Fprintf(&b, " confusion matrix:\n")
fmt.Fprintf(&b, " %-15s", "")
for _, g := range routes {
fmt.Fprintf(&b, " %12s", string(g))
}
fmt.Fprintf(&b, "\n")
for _, w := range routes {
fmt.Fprintf(&b, " %-15s", string(w))
for _, g := range routes {
fmt.Fprintf(&b, " %12d", r.Confusion[w][g])
}
fmt.Fprintf(&b, "\n")
}
if len(r.FalseActionCases) > 0 {
fmt.Fprintf(&b, " false-action cases:\n")
for _, c := range r.FalseActionCases {
decided := "(error)"
if c.Error == nil {
decided = fmt.Sprintf("%s (%.3f)", c.Decision.Intent, c.Decision.Confidence)
}
fmt.Fprintf(&b, " %s %q: expected %s, got action (decided %s)\n",
c.Example.SourceID, c.Example.Text, c.Example.Route, decided)
}
}
return b.String()
}
// ContrastFamilies splits the corpus rows by their transform tag and reports
// per-family performance against the legacy router.
func ContrastFamilies(rep LegacyReport) []ContrastFamilyReport {
// Collect transform tags → cases.
tagCases := map[string][]LegacyCase{}
for _, c := range rep.Cases {
for _, tag := range c.Example.Tags {
switch tag {
case "negation", "question", "reported_speech", "quotation",
"hypothetical", "capability_question":
tagCases[tag] = append(tagCases[tag], c)
}
}
}
var reports []ContrastFamilyReport
for _, tag := range []string{
"negation", "question", "reported_speech", "quotation",
"hypothetical", "capability_question",
} {
cases := tagCases[tag]
if len(cases) == 0 {
continue
}
cr := ContrastFamilyReport{Transform: tag, Examples: len(cases), Cases: cases}
for _, c := range cases {
if c.Agree {
cr.Correct++
}
if c.Example.Route != RouteAction && c.Predicted == RouteAction {
cr.FalseAction++
} else if !c.Agree {
cr.OtherErrors++
}
}
reports = append(reports, cr)
}
return reports
}
// String renders the contrast family report.
func ContrastFamilyReportString(r []ContrastFamilyReport) string {
var b strings.Builder
fmt.Fprintf(&b, "%-20s %8s %8s %8s %8s\n", "transform", "examples", "correct", "false-act", "other")
for _, cr := range r {
fmt.Fprintf(&b, "%-20s %8d %8d %8d %8d\n",
cr.Transform, cr.Examples, cr.Correct, cr.FalseAction, cr.OtherErrors)
}
return b.String()
}
@@ -0,0 +1,67 @@
package semantic
import (
"context"
"time"
"github.com/kami/maven/internal/router"
)
// LegacyRouter — the interface for scoring the current routing machinery.
// *router.Router satisfies this directly. Tests can substitute a stub.
type LegacyRouter interface {
Route(ctx context.Context, input router.NormalizedInput, now time.Time) (router.Decision, error)
}
// LegacyCase — one scored row from the legacy baseline.
type LegacyCase struct {
Example RouteExample
Decision router.Decision
Predicted SemanticRoute
Agree bool
FastPathHit bool
// PrerouteConsumed is true when a pre-route resolver (e.g.
// command-prohibition grammar) consumed this turn before the general
// cascade. These cases never reach the classifier or the LLM.
PrerouteConsumed bool
Error error
}
// LegacyReport — aggregate metrics from running the real router against the
// coarse-route corpus.
type LegacyReport struct {
Stats CorpusStats
Total int
Passed int
ByRoute map[SemanticRoute]RouteMetrics
// FalseAction — cases expected non-action but the router predicted action.
FalseAction int
FalseActionRate float64
// FalseActionCases — the individual cases, for inspection.
FalseActionCases []LegacyCase
// Confusion[want][got]
Confusion map[SemanticRoute]map[SemanticRoute]int
// Fast-path breakdown
FastPathTotal int
FastPathPassed int
ResidualTotal int
ResidualPassed int
// Router-residual breakdown: cases that reach the general cascade
// (not consumed by pre-route resolvers like command-prohibition).
RouterResidualTotal int
RouterResidualPassed int
PreRouteTotal int // cases consumed by command-prohibition grammar
PreRoutePassed int
// Cases by individual outcome
Cases []LegacyCase
}
// ContrastFamilyReport — per-transform-family breakdown.
type ContrastFamilyReport struct {
Transform string
Examples int
Correct int
FalseAction int // predicted action when expected non-action
OtherErrors int
Cases []LegacyCase
}
+60
View File
@@ -0,0 +1,60 @@
// Package semantic defines the coarse-route contract for the learned-router
// experiment. The existing seven-intent router remains authoritative; this
// package provides a six-class semantic layer that runs only in eval/shadow
// mode until it earns promotion.
//
// The six coarse routes are:
//
// - conversation — social turns, greetings, mood, jokes, open-ended chat
// - knowledge — questions seeking an answer (world, recall, calendar)
// - action — executable commands and reminders (act, reminder)
// - memory_write — structured or unstructured writes (fact, note)
// - system — time, date, quiet mode, self-management
// - uncertain — too little signal to decide; the authoritative router clarifies
//
// No capability, function, slot, or source information lives in this artifact.
// That is a later stage. The contract here is purely coarse-route + confidence.
package semantic
// SemanticRoute — one of six coarse semantic classes.
type SemanticRoute string
const (
RouteConversation SemanticRoute = "conversation"
RouteKnowledge SemanticRoute = "knowledge"
RouteAction SemanticRoute = "action"
RouteMemoryWrite SemanticRoute = "memory_write"
RouteSystem SemanticRoute = "system"
RouteUncertain SemanticRoute = "uncertain"
)
// AllRoutes is the ordered set of valid routes, for iteration and confusion
// matrix layout.
var AllRoutes = []SemanticRoute{
RouteConversation,
RouteKnowledge,
RouteAction,
RouteMemoryWrite,
RouteSystem,
RouteUncertain,
}
// SemanticRouteDecision — the output of a coarse router. No slots, no
// capability, no source — just the route, confidence, and whether the model
// chose to abstain.
type SemanticRouteDecision struct {
Route SemanticRoute
Confidence float64
Abstain bool
ModelID string
}
// ValidRoute reports whether r is one of the six defined routes.
func ValidRoute(r SemanticRoute) bool {
switch r {
case RouteConversation, RouteKnowledge, RouteAction,
RouteMemoryWrite, RouteSystem, RouteUncertain:
return true
}
return false
}
+343
View File
@@ -0,0 +1,343 @@
package semantic
import (
"testing"
"github.com/kami/maven/internal/router"
)
func TestValidRoute(t *testing.T) {
for _, r := range AllRoutes {
if !ValidRoute(r) {
t.Errorf("ValidRoute(%q) = false, want true", r)
}
}
if ValidRoute("bogus") {
t.Error("ValidRoute(\"bogus\") = true, want false")
}
}
func TestIntentToRouteMapping(t *testing.T) {
cases := []struct {
intent router.Intent
route SemanticRoute
}{
{router.IntentChat, RouteConversation},
{router.IntentQuery, RouteKnowledge},
{router.IntentAct, RouteAction},
{router.IntentReminder, RouteAction},
{router.IntentFact, RouteMemoryWrite},
{router.IntentNote, RouteMemoryWrite},
{router.IntentSystem, RouteSystem},
{router.Intent("unknown"), RouteUncertain},
{router.Intent(""), RouteUncertain},
}
for _, c := range cases {
got := IntentToRoute(c.intent)
if got != c.route {
t.Errorf("IntentToRoute(%q) = %q, want %q", c.intent, got, c.route)
}
}
}
func TestLoadCorpus(t *testing.T) {
exs, err := LoadCorpus()
if err != nil {
t.Fatal(err)
}
if len(exs) == 0 {
t.Fatal("corpus is empty")
}
for _, e := range exs {
if !ValidRoute(e.Route) {
t.Errorf("example %q has invalid route %q", e.SourceID, e.Route)
}
if e.Source == "" {
t.Errorf("example %q has empty source", e.SourceID)
}
if e.SplitGroup == "" {
t.Errorf("example %q has empty split_group", e.SourceID)
}
}
fastPath, residual := SplitCounts(exs)
if fastPath == 0 {
t.Error("no fast_path_resolved examples in corpus")
}
if residual == 0 {
t.Error("no residual examples in corpus")
}
t.Logf("corpus: %d examples (%d fast-path, %d residual)", len(exs), fastPath, residual)
}
func TestCorpusValidation(t *testing.T) {
exs, err := LoadCorpus()
if err != nil {
t.Fatal(err)
}
stats := CorpusStatsFrom(exs)
// Total matches.
if stats.Total != len(exs) {
t.Errorf("stats.Total=%d, want %d", stats.Total, len(exs))
}
// Route counts sum to total.
routeSum := 0
for _, c := range stats.RouteCounts {
routeSum += c
}
if routeSum != stats.Total {
t.Errorf("route counts sum to %d, want %d", routeSum, stats.Total)
}
// Source counts sum to total.
sourceSum := 0
for _, c := range stats.SourceCounts {
sourceSum += c
}
if sourceSum != stats.Total {
t.Errorf("source counts sum to %d, want %d", sourceSum, stats.Total)
}
// Fast-path + residual == total.
if stats.FastPath+stats.Residual != stats.Total {
t.Errorf("fast_path(%d) + residual(%d) = %d, want %d",
stats.FastPath, stats.Residual, stats.FastPath+stats.Residual, stats.Total)
}
// All SourceIDs are valid (non-empty, checked by ValidateCorpus).
// All SplitGroups are non-empty (checked by ValidateCorpus).
// No duplicate corpus identity (checked by ValidateCorpus).
// No identical Text with conflicting labels (checked by ValidateCorpus).
t.Logf("validation passed: %d rows, route_hash=%s", stats.Total, stats.DatasetHash)
// Verify minimum corpus size (expanded v2 corpus).
if stats.Total < 1000 {
t.Errorf("total = %d, want >= 1000 (expanded corpus)", stats.Total)
}
// Verify source counts exist.
if stats.SourceCounts["ru_routing_v1"] < 15 {
t.Errorf("ru_routing_v1 count = %d, want >= 15", stats.SourceCounts["ru_routing_v1"])
}
if stats.SourceCounts["contrastive"] < 6 {
t.Errorf("contrastive count = %d, want >= 6", stats.SourceCounts["contrastive"])
}
if stats.SourceCounts["corpus_factory_v2"] < 1000 {
t.Errorf("corpus_factory_v2 count = %d, want >= 1000", stats.SourceCounts["corpus_factory_v2"])
}
}
func TestCorpusByRoute(t *testing.T) {
exs, err := LoadCorpus()
if err != nil {
t.Fatal(err)
}
byRoute := ByRoute(exs)
for _, route := range AllRoutes {
count := len(byRoute[route])
if count == 0 {
t.Errorf("no examples for route %q", route)
}
t.Logf(" %s: %d examples", route, count)
}
}
func TestSplitByFamily(t *testing.T) {
exs, err := LoadCorpus()
if err != nil {
t.Fatal(err)
}
train, eval := SplitByFamily(exs, 0.8)
total := len(train) + len(eval)
if total != len(exs) {
t.Errorf("split lost examples: train=%d eval=%d total=%d, want %d",
len(train), len(eval), total, len(exs))
}
trainGroups := map[string]bool{}
for _, e := range train {
trainGroups[e.SplitGroup] = true
}
for _, e := range eval {
if trainGroups[e.SplitGroup] {
t.Errorf("split_group %q leaked across train/eval (example %q)",
e.SplitGroup, e.SourceID)
}
}
t.Logf("split: %d train, %d eval", len(train), len(eval))
}
func TestFrozenHoldoutSplit(t *testing.T) {
exs, err := LoadCorpus()
if err != nil {
t.Fatal(err)
}
frozen, dev, hash := FrozenHoldoutSplit(exs)
total := len(frozen) + len(dev)
if total != len(exs) {
t.Errorf("split lost examples: frozen=%d dev=%d total=%d, want %d",
len(frozen), len(dev), total, len(exs))
}
if len(frozen) == 0 {
t.Error("frozen holdout is empty")
}
if len(dev) == 0 {
t.Error("development pool is empty")
}
// No split_group leakage.
frozenGroups := map[string]bool{}
for _, e := range frozen {
frozenGroups[e.SplitGroup] = true
}
for _, e := range dev {
if frozenGroups[e.SplitGroup] {
t.Errorf("split_group %q leaked across frozen/dev (example %q)",
e.SplitGroup, e.SourceID)
}
}
// Determinism: same split produces same hash.
frozen2, dev2, hash2 := FrozenHoldoutSplit(exs)
if hash != hash2 {
t.Errorf("non-deterministic: hash=%s vs %s", hash, hash2)
}
if len(frozen) != len(frozen2) || len(dev) != len(dev2) {
t.Errorf("non-deterministic: frozen=%d/%d dev=%d/%d",
len(frozen), len(frozen2), len(dev), len(dev2))
}
// Log route coverage in both splits (not all routes need to appear
// in the frozen holdout — at 15% of 136 rows, small routes may miss).
frozenRoutes := map[SemanticRoute]bool{}
for _, e := range frozen {
frozenRoutes[e.Route] = true
}
devRoutes := map[SemanticRoute]bool{}
for _, e := range dev {
devRoutes[e.Route] = true
}
for _, r := range AllRoutes {
if !frozenRoutes[r] {
t.Logf("note: route %q missing from frozen holdout (expected at 15%%)", r)
}
if !devRoutes[r] {
t.Errorf("route %q missing from development pool", r)
}
}
t.Logf("frozen: %d examples, dev: %d examples, holdout_hash=%s",
len(frozen), len(dev), hash)
}
func TestGroupedCVFolds(t *testing.T) {
exs, err := LoadCorpus()
if err != nil {
t.Fatal(err)
}
_, dev, _ := FrozenHoldoutSplit(exs)
folds := GroupedCVFolds(dev, 5)
if len(folds) != 5 {
t.Fatalf("expected 5 folds, got %d", len(folds))
}
for i, f := range folds {
total := len(f.Train) + len(f.Eval)
if total != len(dev) {
t.Errorf("fold %d: train=%d + eval=%d = %d, want %d",
i, len(f.Train), len(f.Eval), total, len(dev))
}
if len(f.Eval) == 0 {
t.Errorf("fold %d: empty eval set", i)
}
// No split_group leakage within a fold.
evalGroups := map[string]bool{}
for _, e := range f.Eval {
evalGroups[e.SplitGroup] = true
}
for _, e := range f.Train {
if evalGroups[e.SplitGroup] {
t.Errorf("fold %d: split_group %q leaked (example %q)",
i, e.SplitGroup, e.SourceID)
}
}
}
// Every example appears in exactly one eval set across all folds.
evalCount := 0
for _, f := range folds {
evalCount += len(f.Eval)
}
if evalCount != len(dev) {
t.Errorf("total eval examples across folds: %d, want %d", evalCount, len(dev))
}
t.Logf("grouped CV: %d folds on %d development examples", len(folds), len(dev))
}
func TestFamilyID(t *testing.T) {
id1 := FamilyID("ru-act-002", "negation")
id2 := FamilyID("ru-act-002", "question")
id3 := FamilyID("ru-act-002", "")
id4 := FamilyID("ru-act-001", "negation")
if id1 == id2 {
t.Error("different transforms produced same FamilyID")
}
if id1 == id3 {
t.Error("transform and base produced same FamilyID")
}
if id1 == id4 {
t.Error("different base IDs produced same FamilyID")
}
}
func TestContrastFamiliesShareSplitGroup(t *testing.T) {
exs, err := LoadCorpus()
if err != nil {
t.Fatal(err)
}
// Group contrastive examples by their base source_id.
baseGroups := map[string]map[string]bool{} // source_id → {split_group: true}
for _, e := range exs {
if e.Source != "contrastive" {
continue
}
if baseGroups[e.SourceID] == nil {
baseGroups[e.SourceID] = map[string]bool{}
}
baseGroups[e.SourceID][e.SplitGroup] = true
}
// Every base seed's contrastive variants must share exactly one
// split_group (the base seed's own group).
for sourceID, groups := range baseGroups {
if len(groups) != 1 {
t.Errorf("base %q has contrastive variants in %d split groups: %v",
sourceID, len(groups), groups)
}
}
// Also verify that contrastive variants share the split_group with
// their base seed from ru_routing_v1.
ruGroups := map[string]string{} // source_id → split_group
for _, e := range exs {
if e.Source == "ru_routing_v1" {
ruGroups[e.SourceID] = e.SplitGroup
}
}
for sourceID, groups := range baseGroups {
var contrastGroup string
for g := range groups {
contrastGroup = g
}
if ruGroup, ok := ruGroups[sourceID]; ok && contrastGroup != ruGroup {
t.Errorf("base %q: ru_routing_v1 split_group=%q, contrastive split_group=%q",
sourceID, ruGroup, contrastGroup)
}
}
t.Logf("contrast family leakage check passed: %d base seeds, all groups consistent",
len(baseGroups))
}
+206
View File
@@ -0,0 +1,206 @@
package semantic
import (
"crypto/sha256"
_ "embed"
"encoding/hex"
"encoding/json"
"fmt"
"sort"
"strings"
)
//go:embed corpus_v1.json
var corpusV1JSON []byte
// RouteExample — one labeled utterance in the coarse-route experiment corpus.
// Every row carries provenance so no row can masquerade as independent when
// related paraphrases exist.
type RouteExample struct {
Text string `json:"text"`
Route SemanticRoute `json:"route"`
Source string `json:"source"` // where this row came from
SourceID string `json:"source_id"` // case ID in the source corpus
SplitGroup string `json:"split_group"` // family/seed ID for split discipline
Tags []string `json:"tags,omitempty"`
// FastPathResolved is true when a stage-0 grammar already handles this
// utterance. The learned router should not be measured on these unless
// explicitly desired; they are tagged, not removed.
FastPathResolved bool `json:"fast_path_resolved"`
// RouterResidual marks rows that would actually reach the general routing
// cascade after pre-route resolvers (command-prohibition, etc.) have had
// first refusal. Static corpus evaluation cannot determine this for all
// cases (some need dialogue state), so this is an explicit annotation
// rather than a derived field.
RouterResidual *bool `json:"router_residual,omitempty"`
}
// CorpusEnvelope — the versioned JSON envelope with reproducibility metadata.
type CorpusEnvelope struct {
SchemaVersion int `json:"schema_version"`
Name string `json:"name"`
Notes []string `json:"notes"`
// Reproducibility metadata — informational, not validated against at
// load time. The hash fields are precomputed from the source fixtures
// at corpus-build time and recorded here so a later reader can verify
// the corpus was built from the expected inputs.
Reproducibility *ReproducibilityMeta `json:"reproducibility,omitempty"`
Examples []RouteExample `json:"examples"`
}
// ReproducibilityMeta — dataset identity for later experiment reproduction.
type ReproducibilityMeta struct {
// SourceFixtureHash is the SHA-256 of the concatenated source fixture
// files used to build this corpus, hex-encoded, first 16 bytes.
SourceFixtureHash string `json:"source_fixture_hash"`
// ContrastGeneratorVersion identifies the transform code version.
ContrastGeneratorVersion string `json:"contrast_generator_version"`
// SplitAlgorithm identifies the split algorithm and version.
SplitAlgorithm string `json:"split_algorithm"`
// DatasetHash is the SHA-256 of the sorted example texts, hex-encoded,
// first 16 bytes. Computed at validation time.
DatasetHash string `json:"dataset_hash"`
// FrozenHoldoutHash is the SHA-256 of the frozen holdout group IDs,
// computed when the split is created.
FrozenHoldoutHash string `json:"frozen_holdout_hash,omitempty"`
}
// SchemaVersionV1 is the version this package understands.
const SchemaVersionV1 = 1
// CorpusStats — computed from a validated corpus. Returned by ValidateCorpus
// so callers get the numbers without recomputing.
type CorpusStats struct {
Total int
RouteCounts map[SemanticRoute]int
SourceCounts map[string]int
FastPath int
Residual int
DatasetHash string
}
// LoadCorpus returns the embedded corpus, rejecting unknown schema versions
// and failing on structural validation errors.
func LoadCorpus() ([]RouteExample, error) {
var env CorpusEnvelope
if err := json.Unmarshal(corpusV1JSON, &env); err != nil {
return nil, fmt.Errorf("semantic corpus: parse: %w", err)
}
if env.SchemaVersion != SchemaVersionV1 {
return nil, fmt.Errorf("semantic corpus: schema_version %d, want %d",
env.SchemaVersion, SchemaVersionV1)
}
if err := ValidateCorpus(env.Examples); err != nil {
return nil, fmt.Errorf("semantic corpus: %w", err)
}
return env.Examples, nil
}
// ValidateCorpus checks structural invariants: total matches, route/source
// sums, fast-path+residual, no duplicate identities, no conflicting labels.
func ValidateCorpus(exs []RouteExample) error {
if len(exs) == 0 {
return fmt.Errorf("corpus is empty")
}
routeCounts := map[SemanticRoute]int{}
sourceCounts := map[string]int{}
type idKey struct{ Source, SourceID, Text string }
seen := map[idKey]bool{}
textRoute := map[string]SemanticRoute{}
for i, e := range exs {
if e.Source == "" {
return fmt.Errorf("row %d: empty source (source_id=%q)", i, e.SourceID)
}
if e.SourceID == "" {
return fmt.Errorf("row %d: empty source_id (source=%q)", i, e.Source)
}
if e.SplitGroup == "" {
return fmt.Errorf("row %d: empty split_group (source_id=%q)", i, e.SourceID)
}
if !ValidRoute(e.Route) {
return fmt.Errorf("row %d: invalid route %q (source_id=%q)", i, e.Route, e.SourceID)
}
// Check for conflicting labels on identical text.
norm := strings.TrimSpace(e.Text)
key := idKey{Source: e.Source, SourceID: e.SourceID, Text: norm}
if seen[key] {
return fmt.Errorf("row %d: duplicate source+source_id+text %q:%q:%q", i, e.Source, e.SourceID, norm)
}
seen[key] = true
routeCounts[e.Route]++
sourceCounts[e.Source]++
if prev, ok := textRoute[norm]; ok && prev != e.Route {
return fmt.Errorf("row %d: text %q has route %q, but earlier row had %q",
i, norm, e.Route, prev)
}
textRoute[norm] = e.Route
}
// Verify fast-path + residual == total.
fastPath, residual := SplitCounts(exs)
if fastPath+residual != len(exs) {
return fmt.Errorf("fast_path(%d) + residual(%d) = %d != total(%d)",
fastPath, residual, fastPath+residual, len(exs))
}
return nil
}
// CorpusStatsFrom computes the stats for a validated corpus.
func CorpusStatsFrom(exs []RouteExample) CorpusStats {
routeCounts := map[SemanticRoute]int{}
sourceCounts := map[string]int{}
for _, e := range exs {
routeCounts[e.Route]++
sourceCounts[e.Source]++
}
fastPath, residual := SplitCounts(exs)
// Deterministic dataset hash: sort texts, hash the concatenation.
texts := make([]string, len(exs))
for i, e := range exs {
texts[i] = e.Text
}
sort.Strings(texts)
h := sha256.Sum256([]byte(strings.Join(texts, "\n")))
return CorpusStats{
Total: len(exs),
RouteCounts: routeCounts,
SourceCounts: sourceCounts,
FastPath: fastPath,
Residual: residual,
DatasetHash: hex.EncodeToString(h[:16]),
}
}
// ByRoute groups examples by their semantic route, for per-route inspection.
func ByRoute(exs []RouteExample) map[SemanticRoute][]RouteExample {
m := make(map[SemanticRoute][]RouteExample)
for _, e := range exs {
m[e.Route] = append(m[e.Route], e)
}
for k := range m {
sort.Slice(m[k], func(i, j int) bool { return m[k][i].Text < m[k][j].Text })
}
return m
}
// SplitCounts returns the number of fast-path-resolved vs
// general-route-required examples.
func SplitCounts(exs []RouteExample) (fastPath, residual int) {
for _, e := range exs {
if e.FastPathResolved {
fastPath++
} else {
residual++
}
}
return
}
File diff suppressed because it is too large Load Diff
+186
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package semantic
import (
"fmt"
"math"
"sort"
"strings"
)
// EvalCase — one row in the frozen evaluation set. Carries both the expected
// coarse route and metadata about how it was generated.
type EvalCase struct {
ID string `json:"id"`
Text string `json:"text"`
ExpectedRoute SemanticRoute `json:"expected_route"`
Source string `json:"source"`
SourceID string `json:"source_id"`
SplitGroup string `json:"split_group"`
FastPathResolved bool `json:"fast_path_resolved"`
Tags []string `json:"tags,omitempty"`
}
// EvalOutcome — one scored case.
type EvalOutcome struct {
Case EvalCase
Got SemanticRoute
OK bool
FastOK bool // agreement with fast-path when applicable
}
// EvalReport — aggregate metrics for a frozen eval run.
type EvalReport struct {
Total int
Passed int
ByRoute map[SemanticRoute]RouteMetrics
// FalseAction — the primary safety metric: cases that should NOT be
// action but were classified as action.
FalseAction int
FalseActionRate float64
// Confusion[want][got] counts
Confusion map[SemanticRoute]map[SemanticRoute]int
// FastPathResolved vs residual split
FastPathTotal int
FastPathPassed int
ResidualTotal int
ResidualPassed int
}
// RouteMetrics — per-route precision/recall/F1.
type RouteMetrics struct {
Precision float64
Recall float64
F1 float64
TP int
FP int
FN int
}
// ScoreEval runs a SemanticRouter against a frozen eval set and returns
// aggregate metrics.
func ScoreEval(router SemanticRouter, evalSet []EvalCase) EvalReport {
rep := EvalReport{
ByRoute: make(map[SemanticRoute]RouteMetrics),
Confusion: make(map[SemanticRoute]map[SemanticRoute]int),
}
for _, r := range AllRoutes {
rep.Confusion[r] = make(map[SemanticRoute]int)
}
for _, c := range evalSet {
decision, err := router.Route(nil, c.Text)
var got SemanticRoute
if err != nil {
got = RouteUncertain
} else {
got = decision.Route
}
ok := got == c.ExpectedRoute
rep.Total++
if ok {
rep.Passed++
}
rep.Confusion[c.ExpectedRoute][got]++
if c.ExpectedRoute != RouteAction && got == RouteAction {
rep.FalseAction++
}
if c.FastPathResolved {
rep.FastPathTotal++
if ok {
rep.FastPathPassed++
}
} else {
rep.ResidualTotal++
if ok {
rep.ResidualPassed++
}
}
}
if rep.Total > 0 {
rep.FalseActionRate = float64(rep.FalseAction) / float64(rep.Total)
}
// Compute per-route precision/recall/F1.
for _, route := range AllRoutes {
tp, fp, fn := 0, 0, 0
for _, got := range AllRoutes {
count := rep.Confusion[route][got]
if got == route {
tp = count
} else {
fn += count
// FP = rows where got==route but expected!=route
fp += rep.Confusion[got][route]
}
}
rm := RouteMetrics{TP: tp, FP: fp, FN: fn}
if tp+fp > 0 {
rm.Precision = float64(tp) / float64(tp+fp)
}
if tp+fn > 0 {
rm.Recall = float64(tp) / float64(tp+fn)
}
if rm.Precision+rm.Recall > 0 {
rm.F1 = 2 * rm.Precision * rm.Recall / (rm.Precision + rm.Recall)
}
rm.F1 = math.Round(rm.F1*1000) / 1000
rm.Precision = math.Round(rm.Precision*1000) / 1000
rm.Recall = math.Round(rm.Recall*1000) / 1000
rep.ByRoute[route] = rm
}
return rep
}
// MacroF1 returns the macro-averaged F1 across all routes.
func (r EvalReport) MacroF1() float64 {
if len(r.ByRoute) == 0 {
return 0
}
var sum float64
for _, rm := range r.ByRoute {
sum += rm.F1
}
return math.Round(sum/float64(len(r.ByRoute))*1000) / 1000
}
// String renders the report as a compact table.
func (r EvalReport) String() string {
var b strings.Builder
fmt.Fprintf(&b, "semantic eval: %d/%d (%.1f%%)\n", r.Passed, r.Total,
100*float64(r.Passed)/math.Max(float64(r.Total), 1))
fmt.Fprintf(&b, " macro F1: %.3f\n", r.MacroF1())
fmt.Fprintf(&b, " false-action: %d/%d (%.3f)\n", r.FalseAction, r.Total, r.FalseActionRate)
if r.FastPathTotal+r.ResidualTotal > 0 {
fmt.Fprintf(&b, " fast-path: %d/%d residual: %d/%d\n",
r.FastPathPassed, r.FastPathTotal,
r.ResidualPassed, r.ResidualTotal)
}
fmt.Fprintf(&b, " per-route:\n")
routes := make([]SemanticRoute, 0, len(r.ByRoute))
for route := range r.ByRoute {
routes = append(routes, route)
}
sort.Slice(routes, func(i, j int) bool { return routes[i] < routes[j] })
for _, route := range routes {
rm := r.ByRoute[route]
fmt.Fprintf(&b, " %-15s P=%.3f R=%.3f F1=%.3f (tp=%d fp=%d fn=%d)\n",
string(route), rm.Precision, rm.Recall, rm.F1, rm.TP, rm.FP, rm.FN)
}
fmt.Fprintf(&b, " confusion matrix:\n")
fmt.Fprintf(&b, " %-15s", "")
for _, g := range routes {
fmt.Fprintf(&b, " %10s", string(g))
}
fmt.Fprintf(&b, "\n")
for _, w := range routes {
fmt.Fprintf(&b, " %-15s", string(w))
for _, g := range routes {
fmt.Fprintf(&b, " %10d", r.Confusion[w][g])
}
fmt.Fprintf(&b, "\n")
}
return b.String()
}
+165
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package semantic
import (
"context"
"testing"
"time"
"github.com/kami/maven/internal/router"
)
// SemanticRouterFunc adapts a bare function to SemanticRouter.
type SemanticRouterFunc func(ctx context.Context, text string) (SemanticRouteDecision, error)
func (f SemanticRouterFunc) Route(ctx context.Context, text string) (SemanticRouteDecision, error) {
return f(ctx, text)
}
func TestEvalScoring(t *testing.T) {
model := SemanticRouterFunc(func(ctx context.Context, text string) (SemanticRouteDecision, error) {
return SemanticRouteDecision{Route: RouteKnowledge, Confidence: 0.9}, nil
})
evalSet := []EvalCase{
{ID: "a1", Text: "привет", ExpectedRoute: RouteConversation},
{ID: "a2", Text: "сколько воды", ExpectedRoute: RouteKnowledge},
{ID: "a3", Text: "выключи свет", ExpectedRoute: RouteAction},
{ID: "a4", Text: "запиши заметку", ExpectedRoute: RouteMemoryWrite},
}
rep := ScoreEval(model, evalSet)
if rep.Total != 4 {
t.Errorf("Total = %d, want 4", rep.Total)
}
if rep.Passed != 1 {
t.Errorf("Passed = %d, want 1 (only knowledge)", rep.Passed)
}
if rep.FalseAction != 0 {
t.Errorf("FalseAction = %d, want 0", rep.FalseAction)
}
km := rep.ByRoute[RouteKnowledge]
if km.Precision != 0.25 {
t.Errorf("knowledge precision = %.3f, want 0.250", km.Precision)
}
if km.Recall != 1.0 {
t.Errorf("knowledge recall = %.3f, want 1.000", km.Recall)
}
t.Logf("eval report:\n%s", rep.String())
}
func TestShadowHarness(t *testing.T) {
model := SemanticRouterFunc(func(ctx context.Context, text string) (SemanticRouteDecision, error) {
if text == "выключи свет" {
return SemanticRouteDecision{Route: RouteAction, Confidence: 0.9}, nil
}
return SemanticRouteDecision{Route: RouteConversation, Confidence: 0.7}, nil
})
h := NewShadowHarness(model)
h.Observe(context.Background(), "выключи свет",
router.Decision{Intent: router.IntentAct}, false)
h.Observe(context.Background(), "привет",
router.Decision{Intent: router.IntentChat}, false)
h.Observe(context.Background(), "перезапусти докер",
router.Decision{Intent: router.IntentAct}, true)
rep := h.Summarize()
if rep.Total != 3 {
t.Errorf("Total = %d, want 3", rep.Total)
}
if rep.Agree != 2 {
t.Errorf("Agree = %d, want 2", rep.Agree)
}
if rep.Disagree != 1 {
t.Errorf("Disagree = %d, want 1", rep.Disagree)
}
if rep.FastPathTotal != 1 {
t.Errorf("FastPathTotal = %d, want 1", rep.FastPathTotal)
}
if rep.ResidualTotal != 2 {
t.Errorf("ResidualTotal = %d, want 2", rep.ResidualTotal)
}
t.Logf("shadow report:\n%s", rep.String())
}
func TestShadowHarnessNilModel(t *testing.T) {
h := NewShadowHarness(nil)
h.Observe(context.Background(), "привет",
router.Decision{Intent: router.IntentChat}, false)
rep := h.Summarize()
if rep.Total != 1 {
t.Errorf("Total = %d, want 1", rep.Total)
}
if rep.Agree != 0 {
t.Errorf("Agree = %d, want 0 (nil model → uncertain)", rep.Agree)
}
}
// legacyRouterAdapter wraps a *router.Router to satisfy LegacyRouter.
type legacyRouterAdapter struct {
router *router.Router
}
func (a *legacyRouterAdapter) Route(ctx context.Context, input router.NormalizedInput, now time.Time) (router.Decision, error) {
return a.router.Route(ctx, input, now)
}
// TestLegacyBaseline runs the actual router cascade against the corpus and
// reports the real baseline. This test builds a minimal but complete router:
// stage-0 grammars (the full daemon set), a hash-embedder classifier seeded
// from models/seeds/*.txt, and the deployed confidence threshold.
//
// The hash embedder is deterministic, so this baseline is reproducible. The
// ONNX embedder would score higher; measure both before drawing conclusions.
func TestLegacyBaseline(t *testing.T) {
exs, err := LoadCorpus()
if err != nil {
t.Fatal(err)
}
r := buildMinimalRouter(t)
now := time.Now()
rep := ScoreLegacy(context.Background(), r, exs, now)
t.Log("\n" + rep.String())
// Print contrast family breakdown.
families := ContrastFamilies(rep)
if len(families) > 0 {
t.Logf("contrast families:\n%s", ContrastFamilyReportString(families))
}
// Log residual-only metrics.
t.Logf("residual: %d/%d (%.1f%%)",
rep.ResidualPassed, rep.ResidualTotal,
100*float64(rep.ResidualPassed)/maxf(float64(rep.ResidualTotal), 1))
}
// buildMinimalRouter creates a router with the daemon's grammar set, a
// hash-embedder classifier seeded from models/seeds, and the deployed
// threshold. This is the minimal real router that can score the corpus.
func buildMinimalRouter(t *testing.T) LegacyRouter {
t.Helper()
// Use the same act matcher and seed loading as the eval package.
acts := router.DefaultActMatcher{Fns: ExperimentActVerbs()}
cls := buildSeededClassifier(t, router.NewHashEmbedder(1024))
r := router.New(router.Config{
Grammars: router.StageZeroGrammars(acts),
Classifier: cls,
Extractor: router.Extractor{
Time: router.StubDateTimeParser{},
Acts: acts,
Facts: router.DefaultFactParser{},
},
Threshold: 0.55,
})
return &legacyRouterAdapter{router: r}
}
func maxf(a, b float64) float64 {
if a > b {
return a
}
return b
}
+82
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package semantic
import (
"context"
"sync"
"time"
"github.com/kami/maven/internal/router"
)
// ExperimentActVerbs is the act allowlist shared by the experiment's legacy
// baseline (the eval fixture and the slice-22 harness), the routed-heads
// harness, and the corpus fast-path derivation. One non-test list so the
// corpus derivation can never drift from what the measurement router accepts.
func ExperimentActVerbs() []string {
return []string{
"перезапусти", "перезагрузи", "выключи", "включи", "останови", "запусти",
"закрой", "открой", "сделай", "поставь",
"restart", "reboot", "stop", "start", "turn off", "turn on", "open", "close",
}
}
func experimentActMatcher() router.ActMatcher {
return router.DefaultActMatcher{Fns: ExperimentActVerbs()}
}
// FastPathOutcome is the derived fast-path classification for one surface.
// Matched mirrors TryFastPath; Grammar names the winning stage-0 grammar for
// attribution, or the empty string when nothing resolved.
type FastPathOutcome struct {
Matched bool
Grammar string
}
var (
fastPathOnce sync.Once
fastPathRouter *router.Router
fastPathGrammars []router.Grammar
)
// DeriveFastPath mirrors the production fast path for a surface: it runs
// TryFastPath over the daemon's ordered stage-0 grammar list with the
// experiment's act allowlist — the exact router the legacy baseline measures —
// and reports whether a grammar resolved the utterance. This is the
// authoritative derivation for corpus fast_path_resolved metadata. The
// classifier, threshold and LLM never run on the fast path, so they are not
// wired here.
func DeriveFastPath(text string) FastPathOutcome {
fastPathOnce.Do(func() {
acts := experimentActMatcher()
fastPathGrammars = router.StageZeroGrammars(acts)
fastPathRouter = router.New(router.Config{
Grammars: fastPathGrammars,
Extractor: router.Extractor{
Time: router.StubDateTimeParser{},
Acts: acts,
Facts: router.DefaultFactParser{},
},
})
})
res, err := fastPathRouter.TryFastPath(context.Background(), router.NormalizedInput{
Text: text,
MatchText: router.NormalizeMatchText(text),
}, time.Now())
if err != nil || !res.Matched {
return FastPathOutcome{}
}
// Attribute the winner by replaying TryFastPath's ordered first-accept
// walk, including the wake-stripped alternate. A matcher that matched the
// shape but declined the content falls through, exactly as the router does.
stripped, hadWake := router.StripWakeToken(text)
for _, g := range fastPathGrammars {
_, matched, ok := g.Evaluate(text)
if !matched && hadWake {
_, matched, ok = g.Evaluate(stripped)
}
if matched && ok {
return FastPathOutcome{Matched: true, Grammar: g.Name}
}
}
return FastPathOutcome{Matched: true}
}
@@ -0,0 +1,36 @@
package semantic
import "testing"
// TestFastPathDerivationInvariant asserts that every development-pool row's
// stored fast-path flag exactly matches what the production fast path derives
// today (DeriveFastPath runs TryFastPath over the stage-0 grammars with the
// experiment's act allowlist). Frozen holdout rows are preserved verbatim
// across merges and are exempt — their drift is reported, never silently
// rewritten. A stale development value is a corpus-build error.
func TestFastPathDerivationInvariant(t *testing.T) {
exs, err := LoadCorpus()
if err != nil {
t.Fatalf("load corpus: %v", err)
}
_, dev, _ := FrozenHoldoutSplit(exs)
devSet := make(map[string]bool, len(dev))
for _, e := range dev {
devSet[e.SourceID] = true
}
stale := 0
for _, e := range exs {
if !devSet[e.SourceID] {
continue
}
if got := DeriveFastPath(e.Text).Matched; got != e.FastPathResolved {
t.Errorf("dev row %s (route=%s) fast_path_resolved=%v but router derives %v: %q",
e.SourceID, e.Route, e.FastPathResolved, got, e.Text)
stale++
}
}
if stale > 0 {
t.Fatalf("%d development rows have stale fast-path metadata", stale)
}
}
+79
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package semantic
import (
"bufio"
"context"
"os"
"path/filepath"
"sort"
"strings"
"testing"
"github.com/kami/maven/internal/router"
)
const seedDir = "../../../models/seeds"
var seedIntents = []router.Intent{
router.IntentAct, router.IntentReminder, router.IntentFact,
router.IntentNote, router.IntentQuery, router.IntentChat, router.IntentSystem,
}
func buildSeededClassifier(t *testing.T, emb router.Embedder) *router.Classifier {
t.Helper()
cls := router.NewClassifier(emb)
ctx := context.Background()
seeds := seedsWithIntent(t)
texts := make([]string, 0, len(seeds))
for text := range seeds {
texts = append(texts, text)
}
sort.Strings(texts)
for _, text := range texts {
if err := cls.AddExample(ctx, seeds[text], text); err != nil {
t.Fatalf("seed %q: %v", text, err)
}
}
return cls
}
func seedsWithIntent(t *testing.T) map[string]router.Intent {
t.Helper()
files := readSeedFiles(t)
out := map[string]router.Intent{}
for _, intent := range seedIntents {
for _, l := range files[intent] {
if _, dup := out[l]; dup {
continue
}
out[l] = intent
}
}
return out
}
func readSeedFiles(t *testing.T) map[router.Intent][]string {
t.Helper()
out := map[router.Intent][]string{}
for _, intent := range seedIntents {
path := filepath.Join(seedDir, string(intent)+".txt")
fh, err := os.Open(path)
if err != nil {
t.Fatalf("open %s: %v", path, err)
}
sc := bufio.NewScanner(fh)
for sc.Scan() {
line := strings.TrimSpace(sc.Text())
if line == "" || strings.HasPrefix(line, "#") {
continue
}
out[intent] = append(out[intent], line)
}
err = sc.Err()
fh.Close()
if err != nil {
t.Fatalf("read %s: %v", path, err)
}
}
return out
}
+14
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package semantic
import "context"
// SemanticRouter — the interface behind which experiment models run. The
// implementation decides whether to consume MatchText; the contract here is
// that Route returns a coarse decision without touching the authoritative
// router's Intent, slots, capability, or source.
//
// A nil implementation is a valid floor — the shadow harness records
// "no model" and continues.
type SemanticRouter interface {
Route(ctx context.Context, text string) (SemanticRouteDecision, error)
}
+38
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package semantic
import "github.com/kami/maven/internal/router"
// IntentToRoute maps the current seven-intent Decision.Intent to a coarse
// semantic route. The mapping is deterministic and exists only for
// baseline/evaluation — it does not change current routing behaviour.
//
// Mapping:
//
// chat → conversation
// query → knowledge
// act → action
// reminder → action
// fact → memory_write
// note → memory_write
// system → system
// unknown → uncertain
func IntentToRoute(intent router.Intent) SemanticRoute {
switch intent {
case router.IntentChat:
return RouteConversation
case router.IntentQuery:
return RouteKnowledge
case router.IntentAct:
return RouteAction
case router.IntentReminder:
return RouteAction
case router.IntentFact:
return RouteMemoryWrite
case router.IntentNote:
return RouteMemoryWrite
case router.IntentSystem:
return RouteSystem
default:
return RouteUncertain
}
}
+69
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package semantic
// SemanticSeed is an intermediate specification whose label is known before
// any surface text is generated. The important invariant is:
//
// semantic identity → deterministic surface generation
//
// NOT:
//
// sentence → model guesses label
type SemanticSeed struct {
// ID uniquely identifies this seed within the corpus factory.
ID string `json:"id"`
// Route is the coarse semantic route this seed maps to.
Route SemanticRoute `json:"route"`
// Family groups seeds that share the same semantic operation.
// All surfaces derived from one seed share a SplitGroup.
Family string `json:"family"`
// OperationID identifies the concrete operation (tool, capability, etc.)
// that this seed represents. Empty for seeds without a concrete operation.
OperationID string `json:"operation_id,omitempty"`
// SplitGroup is the group ID for train/eval splitting.
// All surfaces from one seed must share this.
SplitGroup string `json:"split_group"`
// VerbForms are the imperative/stative verbs that express this seed's
// action or query. For action seeds, these are the command verbs.
// For knowledge seeds, these are the query-opening words.
VerbForms []string `json:"verb_forms,omitempty"`
// Subjects are the targets/objects of the action or query.
// For HA actions: entity names. For tools: service names.
Subjects []string `json:"subjects,omitempty"`
// Objects are additional objects or arguments.
Objects []string `json:"objects,omitempty"`
// Values are quantified values (durations, amounts, etc.)
Values []string `json:"values,omitempty"`
// Tags are metadata tags applied to all generated surfaces from this seed.
Tags []string `json:"tags,omitempty"`
}
// SurfaceGenerator generates surface forms from a seed. Each generator
// produces meaning-preserving forms that are less tied to the deterministic
// command grammar, tagged by template category.
type SurfaceGenerator struct {
// Name identifies this generator for provenance tracking.
Name string
// Fn generates surface forms from a seed.
Fn func(seed SemanticSeed) []GeneratedSurface
}
// GeneratedSurface is one surface form derived from a seed.
type GeneratedSurface struct {
Text string `json:"text"`
// TemplateCategory identifies which template produced this surface.
TemplateCategory string `json:"template_category"`
// FastPathMatched is set after fast-path classification.
FastPathMatched bool `json:"-"`
// ExpectedRoute is the route this surface should map to.
ExpectedRoute SemanticRoute `json:"-"`
}
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package semantic
import (
"context"
"fmt"
"time"
"github.com/kami/maven/internal/router"
)
// ShadowOutcome — one turn observed in shadow mode. Carries both the
// authoritative legacy decision and the coarse-route experiment decision
// for later analysis.
type ShadowOutcome struct {
Text string
LegacyIntent router.Intent
LegacyRoute SemanticRoute
Experiment SemanticRouteDecision
FastPathMatch bool
Agree bool
Timestamp time.Time
}
// ShadowHarness records turns where both the legacy router and the experiment
// model produce a decision. No action, clarification, capability selection,
// or reply depends on the shadow result.
type ShadowHarness struct {
model SemanticRouter
outcome []ShadowOutcome
}
// NewShadowHarness creates a harness that observes both paths without
// affecting the authoritative route.
func NewShadowHarness(model SemanticRouter) *ShadowHarness {
return &ShadowHarness{model: model}
}
// Observe records one turn. The authoritative decision comes from the
// existing router; the experiment decision comes from the shadow model.
// fastPathMatch is true when TryFastPath already resolved this turn.
//
// Observe never fails the turn — if the shadow model errors, the outcome
// records RouteUncertain with the error in Experiment.
func (h *ShadowHarness) Observe(
ctx context.Context,
text string,
legacy router.Decision,
fastPathMatch bool,
) ShadowOutcome {
legacyRoute := IntentToRoute(legacy.Intent)
var exp SemanticRouteDecision
if h.model != nil {
d, err := h.model.Route(ctx, text)
if err != nil {
exp = SemanticRouteDecision{
Route: RouteUncertain,
Abstain: true,
}
} else {
exp = d
}
}
o := ShadowOutcome{
Text: text,
LegacyIntent: legacy.Intent,
LegacyRoute: legacyRoute,
Experiment: exp,
FastPathMatch: fastPathMatch,
Agree: legacyRoute == exp.Route,
Timestamp: time.Now(),
}
h.outcome = append(h.outcome, o)
return o
}
// Outcomes returns a copy of all recorded shadow outcomes.
func (h *ShadowHarness) Outcomes() []ShadowOutcome {
out := make([]ShadowOutcome, len(h.outcome))
copy(out, h.outcome)
return out
}
// ShadowReport — aggregate agreement/disagreement statistics.
type ShadowReport struct {
Total int
Agree int
Disagree int
FastPathTotal int
FastPathAgree int
ResidualTotal int
ResidualAgree int
// DisagreeByRoute[want][got] counts disagreements by legacy route
DisagreeByRoute map[SemanticRoute]map[SemanticRoute]int
}
// Summarize produces aggregate stats from collected outcomes.
func (h *ShadowHarness) Summarize() ShadowReport {
rep := ShadowReport{
DisagreeByRoute: make(map[SemanticRoute]map[SemanticRoute]int),
}
for _, r := range AllRoutes {
rep.DisagreeByRoute[r] = make(map[SemanticRoute]int)
}
for _, o := range h.outcome {
rep.Total++
if o.Agree {
rep.Agree++
} else {
rep.Disagree++
rep.DisagreeByRoute[o.LegacyRoute][o.Experiment.Route]++
}
if o.FastPathMatch {
rep.FastPathTotal++
if o.Agree {
rep.FastPathAgree++
}
} else {
rep.ResidualTotal++
if o.Agree {
rep.ResidualAgree++
}
}
}
return rep
}
// String renders the shadow report.
func (r ShadowReport) String() string {
agreeRate := 0.0
if r.Total > 0 {
agreeRate = float64(r.Agree) / float64(r.Total)
}
resAgreeRate := 0.0
if r.ResidualTotal > 0 {
resAgreeRate = float64(r.ResidualAgree) / float64(r.ResidualTotal)
}
s := fmt.Sprintf("shadow: %d turns, %d agree (%.1f%%), %d disagree\n",
r.Total, r.Agree, 100*agreeRate, r.Disagree)
s += fmt.Sprintf(" fast-path: %d turns residual: %d turns (%.1f%% agree)\n",
r.FastPathTotal, r.ResidualTotal, 100*resAgreeRate)
if r.Disagree > 0 {
s += " disagreements (legacy→experiment):\n"
routes := make([]SemanticRoute, 0, len(r.DisagreeByRoute))
for route := range r.DisagreeByRoute {
routes = append(routes, route)
}
for _, w := range routes {
for _, g := range routes {
if c := r.DisagreeByRoute[w][g]; c > 0 {
s += fmt.Sprintf(" %s → %s ×%d\n", w, g, c)
}
}
}
}
return s
}
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package semantic
import (
"crypto/sha256"
"encoding/hex"
"sort"
"strings"
)
// SplitRatio controls the frozen holdout fraction of the total corpus.
// 0.15 means 15% of families go to the frozen holdout, 85% to the
// development pool.
const DefaultFrozenRatio = 0.15
// SplitByFamily divides examples into train/eval splits such that all
// paraphrases or contrastive variants of one seed stay in the same split.
//
// The algorithm is deterministic: each SplitGroup gets a hash, and the hash
// bucket determines the split. This prevents the failure mode where
// "выключи свет" lands in train and "пожалуйста выключи свет" lands in eval.
//
// splitRatio controls the train fraction (0.01.0). 0.8 means 80% train.
func SplitByFamily(exs []RouteExample, splitRatio float64) (train, eval []RouteExample) {
if splitRatio <= 0 || splitRatio >= 1 {
splitRatio = 0.8
}
families := groupByFamily(exs)
famKeys := sortedFamilyKeys(families)
for _, k := range famKeys {
members := families[k]
h := sha256.Sum256([]byte(k))
bucket := float64(h[0]) / 256.0
if bucket < splitRatio {
train = append(train, members...)
} else {
eval = append(eval, members...)
}
}
return
}
// FrozenHoldoutSplit splits the corpus into a frozen holdout and a
// development pool. The frozen holdout must never be used for weight fitting,
// hyperparameter selection, threshold tuning, or generating near-duplicate
// training examples.
//
// The split is deterministic and identified by FrozenHoldoutHash.
func FrozenHoldoutSplit(exs []RouteExample) (frozen, development []RouteExample, holdoutHash string) {
families := groupByFamily(exs)
famKeys := sortedFamilyKeys(families)
// Use a dedicated hash seed for the frozen split so changing the
// train/eval ratio does not move the holdout.
const splitSeed = "semantic-router-frozen-v1"
for _, k := range famKeys {
members := families[k]
h := sha256.Sum256([]byte(splitSeed + ":" + k))
bucket := float64(h[0]) / 256.0
if bucket < DefaultFrozenRatio {
frozen = append(frozen, members...)
} else {
development = append(development, members...)
}
}
// Compute holdout hash from the group IDs in the frozen set.
groupIDs := make(map[string]bool)
for _, e := range frozen {
groupIDs[e.SplitGroup] = true
}
ids := make([]string, 0, len(groupIDs))
for id := range groupIDs {
ids = append(ids, id)
}
sort.Strings(ids)
h := sha256.Sum256([]byte(hex.EncodeToString([]byte(strings.Join(ids, "|")))))
holdoutHash = hex.EncodeToString(h[:16])
return
}
// GroupedCVFolds splits a development pool into k folds, keeping all
// examples with the same SplitGroup in one fold. Returns k folds; each fold
// is the eval set, the rest are the training set.
func GroupedCVFolds(exs []RouteExample, k int) []CVFold {
if k <= 1 {
k = 5
}
families := groupByFamily(exs)
famKeys := sortedFamilyKeys(families)
// Assign families to folds round-robin for balance.
foldFamilies := make([][]string, k)
for i, key := range famKeys {
foldFamilies[i%k] = append(foldFamilies[i%k], key)
}
folds := make([]CVFold, k)
for i := 0; i < k; i++ {
evalGroups := make(map[string]bool)
for _, g := range foldFamilies[i] {
evalGroups[g] = true
}
var train, eval []RouteExample
for _, e := range exs {
if evalGroups[e.SplitGroup] {
eval = append(eval, e)
} else {
train = append(train, e)
}
}
folds[i] = CVFold{Fold: i, Train: train, Eval: eval}
}
return folds
}
// CVFold — one fold of a grouped cross-validation split.
type CVFold struct {
Fold int
Train []RouteExample
Eval []RouteExample
}
// FamilyID derives a stable family ID from a base source ID and a transform
// name, ensuring contrastive variants share the base's family.
func FamilyID(baseSourceID, transform string) string {
if transform == "" {
return baseSourceID
}
h := sha256.Sum256([]byte(baseSourceID + ":" + transform))
return "family:" + hex.EncodeToString(h[:8])
}
// groupByFamily groups examples by SplitGroup.
func groupByFamily(exs []RouteExample) map[string][]RouteExample {
families := make(map[string][]RouteExample)
for _, e := range exs {
key := e.SplitGroup
if key == "" {
key = e.SourceID
}
families[key] = append(families[key], e)
}
return families
}
// sortedFamilyKeys returns the sorted keys of a families map.
func sortedFamilyKeys(families map[string][]RouteExample) []string {
keys := make([]string, 0, len(families))
for k := range families {
keys = append(keys, k)
}
sort.Strings(keys)
return keys
}
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package semantic
import "fmt"
// ContrastivePair — one base utterance and a derived transformation that
// should land in a different (or same) coarse route. The transform tag
// identifies the operation so the eval can report which transformations are
// easy vs hard.
type ContrastivePair struct {
BaseID string `json:"base_id"`
BaseText string `json:"base_text"`
BaseRoute SemanticRoute `json:"base_route"`
Transform string `json:"transform"`
Text string `json:"text"`
Route SemanticRoute `json:"route"`
}
// ContrastiveTransform — a function that takes a base utterance and returns
// a list of (text, expected_route) pairs. The mapping is deterministic and
// does not consult any model.
type ContrastiveTransform struct {
Name string
Fn func(baseID, baseText string, baseRoute SemanticRoute) []ContrastivePair
}
// StandardTransforms is the ordered set of contrastive safety transformations
// applied to the action-route seeds. Each base utterance gets all transforms;
// the expected route depends on the transformation semantics and the current
// routing contract.
var StandardTransforms = []ContrastiveTransform{
{Name: "negation", Fn: negationTransform},
{Name: "question", Fn: questionTransform},
{Name: "reported_speech", Fn: reportedSpeechTransform},
{Name: "quotation", Fn: quotationTransform},
{Name: "hypothetical", Fn: hypotheticalTransform},
{Name: "capability_question", Fn: capabilityQuestionTransform},
}
// negationTransform — turns an imperative into a negated one. A negated
// command is not an executable action; current semantics route it to
// uncertain.
//
// "выключи свет" → "не выключай свет" → uncertain
func negationTransform(baseID, baseText string, baseRoute SemanticRoute) []ContrastivePair {
// Only transform action-route examples: other routes are unaffected.
if baseRoute != RouteAction {
return nil
}
ruNegations := []struct{ prefix, suffix string }{
{"не ", ""},
{"ни ", ""},
}
var pairs []ContrastivePair
for _, n := range ruNegations {
text := n.prefix + baseText + n.suffix
pairs = append(pairs, ContrastivePair{
BaseID: baseID,
BaseText: baseText,
BaseRoute: baseRoute,
Transform: "negation",
Text: text,
Route: RouteUncertain,
})
}
return pairs
}
// questionTransform — turns a statement into a question. A question about an
// action is not the action itself; it becomes knowledge.
//
// "выключи свет" → "ты выключила свет?" → knowledge
func questionTransform(baseID, baseText string, baseRoute SemanticRoute) []ContrastivePair {
if baseRoute != RouteAction {
return nil
}
// Russian question forms for actions
suffixes := []string{
"?", // direct question
", верно?", // tag question
}
var pairs []ContrastivePair
for _, s := range suffixes {
text := baseText + s
pairs = append(pairs, ContrastivePair{
BaseID: baseID,
BaseText: baseText,
BaseRoute: baseRoute,
Transform: "question",
Text: text,
Route: RouteKnowledge,
})
}
return pairs
}
// reportedSpeechTransform — wraps the utterance in reported speech. An action
// reported as speech is not an action.
//
// "выключи свет" → "он сказал выключи свет" → uncertain
func reportedSpeechTransform(baseID, baseText string, baseRoute SemanticRoute) []ContrastivePair {
if baseRoute != RouteAction {
return nil
}
prefixes := []string{
"он сказал: ",
"она сказала: ",
"он сказал «",
}
suffixes := []string{
"",
"",
"»",
}
var pairs []ContrastivePair
for i, p := range prefixes {
text := p + baseText + suffixes[i]
pairs = append(pairs, ContrastivePair{
BaseID: baseID,
BaseText: baseText,
BaseRoute: baseRoute,
Transform: "reported_speech",
Text: text,
Route: RouteUncertain,
})
}
return pairs
}
// quotationTransform — mentions the utterance as a phrase/quote, not as a
// command. Quoting an action is not doing it.
//
// "выключи свет" → "фраза «выключи свет»" → uncertain
func quotationTransform(baseID, baseText string, baseRoute SemanticRoute) []ContrastivePair {
if baseRoute != RouteAction {
return nil
}
patterns := []struct{ pre, post string }{
{"фраза «", "»"},
{"«", "»"},
{"цитата: \"", "\""},
}
var pairs []ContrastivePair
for _, p := range patterns {
text := p.pre + baseText + p.post
pairs = append(pairs, ContrastivePair{
BaseID: baseID,
BaseText: baseText,
BaseRoute: baseRoute,
Transform: "quotation",
Text: text,
Route: RouteUncertain,
})
}
return pairs
}
// hypotheticalTransform — puts the action in a hypothetical frame. An
// "if..." clause is not an executable command.
//
// "выключи свет" → "если выключить свет..." → uncertain
func hypotheticalTransform(baseID, baseText string, baseRoute SemanticRoute) []ContrastivePair {
if baseRoute != RouteAction {
return nil
}
frames := []struct{ pre, post string }{
{"если ", "..."},
{"когда ", ", будет проще"},
{"если бы я сказал: ", ", что бы ты сделала?"},
}
var pairs []ContrastivePair
for _, f := range frames {
text := f.pre + baseText + f.post
pairs = append(pairs, ContrastivePair{
BaseID: baseID,
BaseText: baseText,
BaseRoute: baseRoute,
Transform: "hypothetical",
Text: text,
Route: RouteUncertain,
})
}
return pairs
}
// capabilityQuestionTransform — asks whether the system CAN do the action.
// A capability question is knowledge, not a direct executable command.
//
// "выключи свет" → "ты можешь выключить свет?" → knowledge
func capabilityQuestionTransform(baseID, baseText string, baseRoute SemanticRoute) []ContrastivePair {
if baseRoute != RouteAction {
return nil
}
templates := []string{
"ты можешь %s?",
"умеешь ли %s?",
"способен ли ты %s?",
}
// Extract the verb phrase for templates that need infinitive.
// For Russian, we use the base text as-is since the template
// handles the grammar.
var pairs []ContrastivePair
for _, t := range templates {
text := fmt.Sprintf(t, baseText)
pairs = append(pairs, ContrastivePair{
BaseID: baseID,
BaseText: baseText,
BaseRoute: baseRoute,
Transform: "capability_question",
Text: text,
Route: RouteKnowledge,
})
}
return pairs
}
// GenerateContrastivePairs applies all standard transforms to a slice of
// base examples and returns the full set of contrastive pairs.
func GenerateContrastivePairs(bases []RouteExample) []ContrastivePair {
var all []ContrastivePair
for _, b := range bases {
for _, t := range StandardTransforms {
all = append(all, t.Fn(b.SourceID, b.Text, b.Route)...)
}
}
return all
}
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package semantic
import "testing"
func TestNegationTransform(t *testing.T) {
pairs := negationTransform("ru-act-002", "выключи свет в спальне", RouteAction)
if len(pairs) == 0 {
t.Fatal("negationTransform returned no pairs")
}
for _, p := range pairs {
if p.Route != RouteUncertain {
t.Errorf("negation of %q: got route %q, want uncertain", p.BaseText, p.Route)
}
if p.Transform != "negation" {
t.Errorf("transform name = %q, want negation", p.Transform)
}
}
pairs = negationTransform("ru-chat-001", "привет", RouteConversation)
if len(pairs) != 0 {
t.Error("negationTransform produced pairs for non-action route")
}
}
func TestQuestionTransform(t *testing.T) {
pairs := questionTransform("ru-act-002", "выключи свет в спальне", RouteAction)
if len(pairs) == 0 {
t.Fatal("questionTransform returned no pairs")
}
for _, p := range pairs {
if p.Route != RouteKnowledge {
t.Errorf("question of %q: got route %q, want knowledge", p.BaseText, p.Route)
}
}
}
func TestReportedSpeechTransform(t *testing.T) {
pairs := reportedSpeechTransform("ru-act-002", "выключи свет в спальне", RouteAction)
if len(pairs) == 0 {
t.Fatal("reportedSpeechTransform returned no pairs")
}
for _, p := range pairs {
if p.Route != RouteUncertain {
t.Errorf("reported speech of %q: got route %q, want uncertain", p.BaseText, p.Route)
}
}
}
func TestQuotationTransform(t *testing.T) {
pairs := quotationTransform("ru-act-002", "выключи свет в спальне", RouteAction)
if len(pairs) == 0 {
t.Fatal("quotationTransform returned no pairs")
}
for _, p := range pairs {
if p.Route != RouteUncertain {
t.Errorf("quotation of %q: got route %q, want uncertain", p.BaseText, p.Route)
}
}
}
func TestHypotheticalTransform(t *testing.T) {
pairs := hypotheticalTransform("ru-act-002", "выключи свет в спальне", RouteAction)
if len(pairs) == 0 {
t.Fatal("hypotheticalTransform returned no pairs")
}
for _, p := range pairs {
if p.Route != RouteUncertain {
t.Errorf("hypothetical of %q: got route %q, want uncertain", p.BaseText, p.Route)
}
}
}
func TestCapabilityQuestionTransform(t *testing.T) {
pairs := capabilityQuestionTransform("ru-act-002", "выключи свет в спальне", RouteAction)
if len(pairs) == 0 {
t.Fatal("capabilityQuestionTransform returned no pairs")
}
for _, p := range pairs {
if p.Route != RouteKnowledge {
t.Errorf("capability question of %q: got route %q, want knowledge", p.BaseText, p.Route)
}
}
}
func TestGenerateContrastivePairs(t *testing.T) {
bases := []RouteExample{
{SourceID: "ru-act-002", Text: "выключи свет в спальне", Route: RouteAction},
{SourceID: "ru-act-001", Text: "перезапусти докер", Route: RouteAction},
}
pairs := GenerateContrastivePairs(bases)
if len(pairs) == 0 {
t.Fatal("GenerateContrastivePairs returned no pairs")
}
transformCounts := map[string]int{}
for _, p := range pairs {
transformCounts[p.Transform]++
}
for _, tr := range StandardTransforms {
if c := transformCounts[tr.Name]; c == 0 {
t.Errorf("no pairs for transform %q", tr.Name)
}
}
t.Logf("generated %d contrastive pairs from %d bases", len(pairs), len(bases))
}
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@@ -92,10 +92,12 @@ const (
)
// NormalizedInput — the typed ingress boundary for a turn. Text is the raw
// utterance after STT (voice) or as typed (text). Source identifies the
// channel. This slice performs no new linguistic normalization: text and voice
// paths continue to converge onto the same turn path as they did before.
// utterance after STT (voice) or as typed (text). MatchText is a lossy
// lexical matching view derived from Text: whitespace-collapsed, NFKC-
// normalized, lowercased. Consumers must opt into MatchText individually;
// nothing reads it by default in this slice. Source identifies the channel.
type NormalizedInput struct {
Text string
Source InputSource
Text string // original ingress text — byte-for-byte the value current consumers receive
MatchText string // derived lossy representation for case-insensitive lexical matching
Source InputSource
}