API.md [component] deterministic
# Sovereign Intelligence Stack — API Documentation **Version:** 1.0.0 **Last Updated:** July 5, 2026 **Repository:** [sovereign-intelligence-stack](https:/
Sovereign Intelligence Stack — API Documentation
**Version:** 1.0.0 **Last Updated:** July 5, 2026 **Repository:** [sovereign-intelligence-stack](https://github.com/kliewerdaniel/sovereign-intelligence-stack)
---
Overview
The Sovereign Intelligence Stack provides a unified API for capturing, routing, evaluating, and compounding AI decisions. This document describes the public API surface.
**Key Principles:** - Every interaction is captured as an immutable recipe - Recipes form a persistent knowledge graph - The system improves autonomously through evaluation loops - All components are designed for local-first operation
---
Core API
1. Recipe Compiler (src/recipe_compiler/)
**Purpose:** Capture AI interactions as immutable recipes.
**Key Classes:**
- Recipe — Immutable AI decision record
- RecipeStorage — SQLite-based recipe storage with FTS5
- RecipeAPI — FastAPI HTTP endpoints for ingestion
#### Recipe Dataclass
```python from src.recipe_compiler.models import Recipe
Create a recipe recipe = Recipe( objective="Explain quantum computing", model="qwen3.5", memory_version=1, evaluation_score=0.92, outcome="accepted", tags=["quantum", "explanation"] )
Access recipe data print(recipe.id) print(recipe.objective) print(recipe.evaluation_score) ```
#### RecipeStorage Class
```python from src.recipe_compiler.storage import RecipeStorage
Initialize storage storage = RecipeStorage("recipes.db")
Store a recipe recipe_id = storage.create_recipe(recipe)
Search recipes results = storage.search("quantum computing")
Update a recipe storage.update_recipe(recipe.id, evaluation_score=0.95)
Delete a recipe storage.delete_recipe(recipe.id) ```
#### RecipeAPI Endpoints
**POST /recipes** — Create a new recipe
``bash
curl -X POST http://localhost:8000/recipes \
-H "Content-Type: application/json" \
-d '{
"objective": "Explain quantum computing",
"model": "qwen3.5",
"evaluation_score": 0.92,
"outcome": "accepted"
}'
**GET /recipes** — Search recipes
``bash
curl "http://localhost:8000/recipes?q=quantum"
**GET /recipes/{id}** — Get a specific recipe
``bash
curl "http://localhost:8000/recipes/recipe-20260705-123456-abc123"
**PUT /recipes/{id}** — Update a recipe
``bash
curl -X PUT "http://localhost:8000/recipes/recipe-20260705-123456-abc123" \
-H "Content-Type: application/json" \
-d '{"evaluation_score": 0.95}'
**DELETE /recipes/{id}** — Delete a recipe
``bash
curl -X DELETE "http://localhost:8000/recipes/recipe-20260705-123456-abc123"
---
2. Signal Router (src/signal_router/)
**Purpose:** Classify incoming tasks and route them through optimal evaluation paths.
**Key Classes:**
- SignalClassifier — Signal classification (cheap / expert / hybrid)
- SignalRouter — Routing logic with evaluation path selection
#### SignalClassifier Class
```python from src.signal_router.classifier import SignalClassifier, SignalType
classifier = SignalClassifier()
Classify a signal signal_type = classifier.classify( objective="Explain quantum computing", context="user_query", available_models=["qwen3.5", "llama3.1", "gpt-4"] )
Check signal type if signal_type == SignalType.CHEAP: # Route to fast, lightweight model pass elif signal_type == SignalType.EXPERT: # Route to capable model with full context pass elif signal_type == SignalType.HYBRID: # Route to multi-stage evaluation pass ```
#### SignalRouter Class
```python from src.signal_router.router import SignalRouter
router = SignalRouter()
Route a signal routing_result = router.route( signal_type=SignalType.CHEAP, available_models=["qwen3.5"], context="user_query" )
Get routing recommendations print(routing_result.recommended_model) print(routing_result.evaluation_path) ```
---
3. Evaluation Loop (src/evaluation/)
**Purpose:** Autonomous self-improvement through continuous test generation and drift detection.
**Key Classes:**
- EvaluationLoop — Autonomous evaluation loop
- DriftDetector — Signal drift detection
- TestGenerator — Synthetic test case generation
#### EvaluationLoop Class
```python from src.evaluation.loop import EvaluationLoop
loop = EvaluationLoop()
Run evaluation loop results = loop.run( recipes=recipe_storage.search("quantum"), evaluation_metrics=["accuracy", "completeness", "relevance"] )
Get evaluation summary print(results.summary())
Get drift alerts print(results.drift_alerts) ```
#### DriftDetector Class
```python from src.evaluation.drifter import DriftDetector
detector = DriftDetector()
Detect drift drift_report = detector.detect_drift( old_recipes=recipe_storage.search("quantum", limit=100), new_recipes=recipe_storage.search("quantum", limit=100) )
Check if drift occurred if drift_report.drift_detected: print(f"Drift detected: {drift_report.drift_score}") print(f"Drift type: {drift_report.drift_type}") ```
---
4. Knowledge Systems (src/knowledge/, src/memory/)
**Purpose:** Persistent knowledge representation combining graph and memory systems.
**Key Classes:**
- GraphStore — NetworkX-based knowledge graph
- VectorStore — ChromaDB-based vector embeddings
- MemoryStorage — SQLite-based memory storage
- MemoryManager — Memory lifecycle with relevance scoring
#### GraphStore Class
```python from src.knowledge.graph_store import GraphStore
graph = GraphStore()
Add nodes graph.add_node("quantum_computing", type="concept", importance=0.8) graph.add_node("qubit", type="concept", importance=0.7)
Add edges graph.add_edge("quantum_computing", "qubit", relation="uses")
Query graph subgraph = graph.get_subgraph("quantum_computing", depth=2) print(subgraph.nodes) print(subgraph.edges) ```
#### VectorStore Class
```python from src.knowledge.vector_store import VectorStore
store = VectorStore("chroma.db")
Add documents store.add_documents([
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