LNMP is a deterministic information flow architecture - designed like a nervous system for data routing.
LNMP is not trying to replace JSON, Protocol Buffers, or any existing format. Instead, it provides:
- Deterministic structure for predictable, verifiable information flow
- Neural pathway metaphor with field IDs acting as routing identifiers
- Token-efficient encoding optimized for LLM context windows
- Universal routing layer that works WITH existing ecosystems
Think of it as the nervous system that routes information through your application - not the cells themselves.
Every message follows the same structure:
F1=sensor-001;F20=45.5;F21=23
Benefits:
- Same input β always same output (verifiable)
- No parsing ambiguity
- Reproducible across systems
- Easy to debug and trace
Like neurons: Each field ID (F1, F20, F21) is a neural pathway - always routes the same way.
LNMP provides the routing infrastructure for information:
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β LNMP Information Flow (Like Nervous System) β
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β β
β Sensors β Envelope β Priority Router β Context β LLM β
β β β β β β β
β Signal Metadata Fast/Slow Importance Decision β
β β
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Components:
- Envelope: Packet metadata (source, trace ID, timestamp)
- Sanitize: Input validation (security)
- Network: Priority routing (QoS, TTL)
- SFE Context: Importance scoring (freshness, trust)
- Spatial: Position delta encoding
Each component is like a neural layer processing information.
Not about "size" - about information density for LLMs:
JSON: {"sensorId":"sensor-001","speed":45.5,"count":23}
β 30 tokens (OpenAI tiktoken)
LNMP: F1=sensor-001;F20=45.5;F21=23
β 19 tokens (37% fewer!)
Real simulation results (200 sensors, 3200 messages):
- JSON tokens per critical event: ~22 tokens
- LNMP tokens per critical event: ~19 tokens
- Measured reduction: ~13-15% on average
Why it matters:
- More sensors fit in same context window
- Lower API costs (tokens = $$$)
- Faster LLM processing
Note: Token savings vary by use case. Simple field IDs (F1, F20) save ~10-15%. Complex nested objects can save 30-40%.
LNMP works with existing systems:
// Receive JSON from legacy API
let json_data = api.get_sensor_data();
// Route through LNMP for intelligence
let lnmp_msg = convert_to_lnmp(json_data);
let analysis = llm_agent.analyze(lnmp_msg); // Token-efficient!
// Send back as JSON if needed
let response = convert_to_json(analysis);Not replacement - complement!
LNMP offers three levels of optimization:
JSON: {"sensorId":"traffic-001","speed":45.5,"vehicleCount":23}
220 bytes
LNMP: F1=traffic-001;F20=45.5;F21=23
33 bytes (85% smaller!)
Use for: Human-readable, LLM prompts, debugging
LNMP Text: 33 bytes
LNMP Binary: ~12 bytes (64% smaller than text!)
(95% smaller than JSON!)
Use for: Network transmission, storage, high-frequency data
Full position update: 60 bytes Γ 1,000 vehicles = 60 KB
Delta update: 8 bytes Γ 1,000 vehicles = 8 KB
(87% reduction!)
Use for: Real-time tracking, streaming data, synchronized state
Real measurements from CityPulse simulation:
10,000 sensors, 100 messages each:
JSON: 62.36 MB
LNMP Text: 29.70 MB (52% reduction)
LNMP Binary: 1.15 MB (98% reduction!)
LNMP Binary+Delta: ~0.5 MB (99.2% reduction!)
This is why binary + delta matters!
β Perfect for:
- LLM/AI integration - Token efficiency = lower costs
- Deterministic routing - Audit trails, compliance, debugging
- High-frequency data - IoT sensors, telemetry, metrics
- Mixed priority workloads - QoS routing (emergency fast-lane)
- Multi-hop tracing - Distributed systems with trace context
- Real-time streaming - Delta encoding for efficient updates
β Use JSON when:
- Human-readable config files
- One-off API responses
- Web browser compatibility required
- Team unfamiliar with LNMP
- Schema changes frequently
// External API (JSON) β Internal processing (LNMP) β Response (JSON)
// 1. Receive JSON from external world
let sensor_data = external_api.fetch_json();
// 2. Convert to LNMP for internal routing
let lnmp = LnmpConverter::from_json(sensor_data);
// 3. Route through LNMP stack (envelope, priority, trace)
let routed = lnmp_router.process(lnmp); // Deterministic!
// 4. LLM analysis (token-efficient)
let analysis = llm_agent.analyze(&routed); // Saves tokens!
// 5. Return as JSON if client expects it
let response = analysis.to_json();
api.send_response(response);Key insight: LNMP is the internal routing layer - doesn't matter what formats you use externally!
| Feature | JSON | Protocol Buffers | LNMP |
|---|---|---|---|
| Human Readable | β Yes | β No | |
| Deterministic | β No (key order) | β Yes | β Yes |
| Schema Required | β No | β Yes | |
| Token Efficient | β No | β Yes (text+binary) | |
| Trace Context | β External | β External | β Built-in (Envelope) |
| Priority Routing | β No | β No | β Built-in (Network) |
| Delta Encoding | β No | β No | β Built-in (Spatial/Embedding) |
| Context Profiling | β No | β No | β Built-in (SFE) |
| Best Use Case | APIs, configs | RPC, storage | Information flow architecture |
Bottom line: Use the right tool for the job. LNMP excels at deterministic routing with intelligence.
Production-scale demonstration with all LNMP features working together.
Traffic Sensors (10,000):
Sensors update β LNMP encoding β Neural routing β LLM analysis
Results (measured with tiktoken):
- Token efficiency: ~13-15% reduction per message (real world avg)
- Bandwidth savings: %52 (Text), %58 (Binary), %97.7 (Binary+Delta) vs JSON
- Semantic accuracy: 100% - AI correctly interprets field mappings
- Delta updates: 87% reduction for position tracking
- Context capacity: More sensors fit in same window
- All features active: Envelope, Sanitize, SFE, Spatial, Network
cd showcase/city-pulse
# 1. Real token measurement (OpenAI tiktoken)
echo "F1=sensor-001;F20=45;F21=23" | python3 scripts/count_tokens.py --verbose
# 2. Full simulation (all LNMP stack)
cargo run --bin simulation -- 1000 30
# 3. LLM integration demo
cargo run --bin llm_demoshowcase/
βββ city-pulse/ # Production-scale smart city platform
βββ src/
β βββ simulation.rs # Full LNMP stack demo β
β βββ llm_demo.rs # Token efficiency with tiktoken
β βββ benchmark.rs # Encoding performance
βββ scripts/
β βββ count_tokens.py # Real OpenAI token counter
βββ schemas/ # Field ID mappings
βββ docs/ # Architecture guides
βββ benchmarks/ # Performance results
Think of LNMP like a biological nervous system:
| Biological | LNMP | Purpose |
|---|---|---|
| Neurons | Field IDs (F1, F20...) | Signal routing pathways |
| Synapses | Envelope metadata | Connection context |
| Neural layers | Processing stack | Information transformation |
| Brain | LLM Agent | Decision making |
| Action | Commands | System response |
Deterministic paths = predictable, debuggable, scalable
"LNMP is not about being smaller or faster than X.
It's about creating a deterministic information flow architecture -
predictable pathways for information to flow through your system,
just like a nervous system routes signals through the body."
- CityPulse Overview - Full scenario
- Schemas - Field ID mappings
- LLM Integration - Token efficiency
- LNMP Spec - Protocol details
Remember: LNMP is a routing architecture, not a format war. Use it to create deterministic information flows alongside JSON, Protobuf, or whatever else you need!