microresolve 0.1.4

Pre-LLM decision engine: intent classification, tool selection, request triage. ~30μs per call, CPU-only, continuous learning.
Documentation
# MicroResolve Router — Benchmark Results

All benchmarks run against MicroResolve's full L0→L4 pipeline with **zero LLM calls**.
Two passes per dataset: seed phrases only, then after direct learning from misses
(miss query → added as training phrase via `POST /api/intents/{id}/phrases`).

Server: MicroResolve v0.1.0 · Rust release build · Intel × Linux

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## Track 1 — Intent Classification

| Dataset | Intents | Seeds/intent | Seed-only | +Learning | Delta | p50 latency |
|---------|---------|-------------|-----------|-----------|-------|-------------|
| CLINC150 | 150 | 20 | 64.5% | 93.5% | +29.0pp | 9.5ms |
| BANKING77 |||||||
| HWU64 |||||||
| MASSIVE (en) |||||||
| MASSIVE (es) |||||||
| MASSIVE (fr) |||||||
| MASSIVE (ja) |||||||
| MASSIVE (ar) |||||||

*Remaining datasets running — will update.*

### CLINC150 detail
- 150 intents, 20 seed phrases each (3,000 total seeds)
- Test set: 4,500 queries (30 per intent)
- Seed-only: **64.5%** top-1 accuracy — pure keyword matching, no embeddings
- After learning: **93.5%** top-1 accuracy — 1,597 miss queries added as direct training
- Any-correct (top-N): 97.1% after learning
- Latency p50: 9.5ms seed-only → 23.8ms after learning (larger L2 index)

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## Track 4 — Multi-Intent Classification

| Dataset | Test | Multi% | Exact Match | Partial Match | F1 | Recall | p50 latency |
|---------|------|--------|-------------|---------------|-----|--------|-------------|
| MixSNIPS | 2,199 | 80% | 33.4% | **96.8%** | **77.3%** | 71.3% | 2.8ms |
| MixATIS | 828 | 83% | 20.4% | **84.3%** | **61.3%** | 54.3% | 2.4ms |

*Results after direct learning from misses. Seed-only F1: MixSNIPS 77.3%, MixATIS 61.9%.*

### Track 4 notes
- **Partial match** is the practical metric: 96.8% / 84.3% means MicroResolve correctly identifies at least one of the expected intents in nearly all queries
- **Exact match** (all intents correct, none extra) is harder — multi-intent decomposition is inherently ambiguous
- **Learning had no significant effect** on F1 — multi-intent miss queries have overlapping vocabulary, so adding them as phrases doesn't help disambiguation
- Latency: 2.4–2.8ms p50 — significantly faster than single-intent (no token consumption pass needed for small intent sets)

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## Architecture

```
Query → L0 (char-ngram typo correction)
      → L1 (LexicalGraph: morphology + abbreviation rewriting; synonym
            and semantic edges stored for inspection only, not injected)
      → L2 (IntentIndex: IDF-weighted sparse word→intent scoring with
            asymptotic Hebbian learning + token consumption for multi-intent)
      → confidence/disposition + cross-provider disambiguation
```

All layers owned by `Engine` + `NamespaceHandle` in the library. No
server-side sync required for embedded use. Learning =
`namespace.correct(query, wrong, right)` → atomic L2 weight update.

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## Notes

- **No LLM used** at any point during benchmarking
- **Seed-only baseline** reflects cold-start performance with minimal training data
- **+Learning pass** simulates one round of direct feedback (user confirms correct intent)
- CLINC150 +29pp jump shows how quickly MicroResolve absorbs corrections
- MixSNIPS/MixATIS learning delta ≈0 because multi-intent vocabularies heavily overlap