Status: Speculative / architectural concept Last Updated: 2026-02-03
This document describes the probabilistic mesh — the dense network of soft, informing connections that permeates the entire Synome architecture, overlaid on the sparse deontic skeleton.
Two Networks, One System
The Synome is a probabilistic-deontic architecture with two fundamentally different types of connections:
| Deontic Skeleton | Probabilistic Mesh | |
|---|---|---|
| Nature | Hard, deterministic, authoritative | Soft, weighted, informing |
| Density | Sparse (what we draw in diagrams) | Dense (permeates everything) |
| Structure | Hierarchical (layers, containment) | Non-hierarchical (everything can inform everything) |
| Flow | Top-down authority | Multi-directional evidence |
| Change | Requires governance to update | Constantly flowing, learning |
| Purpose | Load-bearing, must be followed | Decision support, pattern discovery |
The deontic skeleton is what we draw in architecture diagrams — the hard connections between layers.
The probabilistic mesh is too dense to draw — it's essentially "everything can potentially inform everything else" within access constraints.
Authority Within the Mesh
Even within the probabilistic mesh, there's a hierarchy of authority:
synart ────────────── Highest authority (governance-vetted, alignment-safe)
│
▼
telart ────────────── Mission-specific (derived from synart)
│
▼
embart ────────────── Local observations (least vetted, most contextual)
Terminology note: "synart/telart/embart" refer to the curated probabilistic knowledge at each level — structured, queryable, with (strength, confidence) values. This is distinct from "Local Data" (raw logs/observations) and "ephemeral context" (runtime scratchpad). See
synome-layers.mdfor definitions.
When an embodiment makes a decision, it can reference:
- Local probabilities (embart) — Fast, contextual, but least authoritative
- Teleonome probabilities (telart) — Mission-aligned, more vetted
- Synomic probabilities (synart) — Highest authority, most alignment-safe
Why higher-level probabilities have more authority:
- More thoroughly vetted by governance
- Derived from Atlas chain (alignment guarantee)
- Using them reduces risk of penalties
- More likely to be correct long-term
- Better for avoiding drift
The incentive structure: Embodiments are naturally incentivized to "look up" to higher-authority knowledge sources when making decisions. Using only local reasoning is riskier — it might drift from alignment and trigger penalties.
What Flows Through the Mesh
The probabilistic mesh carries:
Evidence
- Observations from the World flowing back to Libraries
- Outcomes of decisions feeding back as data
- Sensor data, metrics, measurements
Patterns
- Regularities discovered in evidence
- Correlations, causal models, predictive patterns
- (strength, confidence) weighted by evidence
Queries
- Embodiments querying knowledge bases
- Pattern-matching requests
- Similarity searches
Meta-information
- What queries were useful
- Which patterns led to good outcomes
- Strategy effectiveness data
The Crystallization Interface
Governance sits at the interface between probabilistic and deontic:
┌─────────────────────────────────────────────────────────────┐
│ PROBABILISTIC MESH │
│ │
│ Evidence, patterns, queries, meta-information │
│ Flowing constantly, multi-directional │
│ (strength, confidence) weighted │
│ │
└─────────────────────────┬───────────────────────────────────┘
│
▼
┌───────────────────────┐
│ GOVERNANCE │
│ │
│ - Deliberates │
│ - Weighs evidence │
│ - Makes decisions │
│ - Sets rules │
│ │
└───────────┬───────────┘
│
▼
┌─────────────────────────────────────────────────────────────┐
│ DEONTIC SKELETON │
│ │
│ Axioms, Directives, instantiation, control │
│ Hard, authoritative, (1,1) truth value │
│ Must be followed │
│ │
└─────────────────────────────────────────────────────────────┘
Governance consumes probabilistic evidence, patterns, recommendations. Governance produces deontic commitments, rules, decisions.
Once crystallized, decisions are clean and deterministic — the system couldn't function otherwise.
RSI: Recursive Self-Improvement
The synart and telart knowledge bases don't just store knowledge — they actively improve at meta-level tasks.
The Levels
Level 0: Raw knowledge
(patterns, probabilities, evidence)
│
▼
Level 1: Using knowledge
(making decisions, executing tasks)
│
▼
Level 2: Strategies for pattern-mining
(how to effectively query and use knowledge)
│
▼
Level 3: Meta-strategies (RSI)
(getting better at finding better strategies)
│
└──────── recursive ────────┘
What RSI Improves
The synart and telart recursively improve at:
- Pattern discovery — Finding useful regularities in accumulated evidence
- Query optimization — Developing better search and retrieval strategies
- Relevance prediction — Anticipating what knowledge embodiments will need
- Strategy evaluation — Assessing which approaches lead to good outcomes
- Meta-learning — Learning how to learn more effectively
The RSI Loop
Embodiment uses synart/telart
│
▼
Discovers patterns, makes decisions
│
▼
Outcomes feed back as evidence
│
▼
Library analyzes what worked
│
▼
Pattern-mining strategies improve
│
▼
Better strategies → better patterns → better decisions
│
└──────────── recursive ────────────┘
RSI Across Layers
| Layer | RSI Focus |
|---|---|
| synart | Improving strategies that benefit all aligned entities |
| telart | Improving strategies specific to this teleonome's mission |
| embart | Local optimizations (may propose improvements to telart) |
Improvements discovered at lower layers can be proposed upward:
- embart discovers useful pattern → proposes to telart
- telart validates and incorporates → may propose to synart
- synart governance reviews → if general, becomes canonical
Implications for Design
1. The Mesh is Implicit, Not Drawn
Architecture diagrams show the deontic skeleton. The probabilistic mesh is assumed — any node can potentially query any knowledge base it has access to.
2. Access Controls Matter
Not everything should connect to everything. The mesh operates within constraints:
- Embodiments access their embart, telart, synart (not other teleonomes' telarts)
- Queries flow up the authority hierarchy (embart → telart → synart)
- Evidence flows down and up (World → all layers that should know)
3. Caching and Locality
High-authority synart queries may be expensive. Systems will naturally:
- Cache frequently-used synart patterns locally
- Prefer local (embart) knowledge when sufficient
- "Look up" to synart for important/uncertain decisions
4. The Mesh Enables Alignment
By making synart knowledge highest-authority, embodiments are incentivized to align with it. The mesh isn't just information flow — it's an alignment mechanism.
5. RSI is Continuous
The system is always improving its ability to improve. This isn't a feature to add later — it's core to how the knowledge bases function.
Connection to Dreaming
Dreamarts (Layer 3) are where the RSI loop can run safely:
- Spawn experimental embodiments
- Try new strategies in simulation
- Evaluate outcomes without real-world risk
- Successful experiments improve telart
- Potentially propose improvements to synart
Dreaming is how the system explores the strategy space safely before committing to deontic changes.
Summary
| Concept | Description |
|---|---|
| Probabilistic mesh | Dense network of soft, informing connections overlaid on deontic skeleton |
| Authority hierarchy | synart > telart > embart for probabilistic knowledge |
| Crystallization | Governance converts probabilistic evidence into deontic rules |
| RSI | Knowledge bases recursively improve their pattern-mining strategies |
| Meta-learning | Getting better at getting better at finding useful patterns |
| Alignment incentive | Higher-authority knowledge = safer = embodiments naturally look up |
Related Documents
| Document | Relationship |
|---|---|
synome-layers.md |
The 5-layer architecture and artifact hierarchy (synart, telart, embart) |
retrieval-policy.md |
Invariants for querying the probabilistic mesh |
security-and-resources.md |
The update problem — how ossification prevents self-corruption |
dreamer-perspective.md |
How dreamers use the mesh for exploration and RSI |
actuator-perspective.md |
How actuators use the mesh for decision-making |
short-term-experiments.md |
Phase 1 dreamer implementation pathway |