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TrajectoryOS Architecture

TrajectoryOS is a life-trajectory modeling system composed of cooperating services that infer your skills, alignment, constraints, and escape velocity through continuous interrogation and artifact analysis.

Embodied Trajectory Systems architecture technical paper candidate score 30 .md

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TrajectoryOS Architecture

System Overview

TrajectoryOS is a life-trajectory modeling system composed of cooperating services that infer your skills, alignment, constraints, and escape velocity through continuous interrogation and artifact analysis.

Core Principles

1. Latent State Model: Your life is represented as a time-series of latent vectors `z_t` from which all observable quantities derive
2. Bayesian Inference: Skills and competencies are probabilistic beliefs updated through evidence
3. Physics-Based Metaphor: Thrust, Alignment, Gravity, Mass, and Escape Index provide interpretable metrics
4. Future Embodied Integration: Designed to consume Echelon's movement dynamics when available

Architecture Layers

### Layer 1: User Interface
- web-dashboard: Next.js dashboard for visualizing trajectory, skills, and escape index
- api-gateway: HTTP REST + WebSocket server for sessions and real-time updates

### Layer 2: Orchestration
- agent-orchestrator: LLM-driven interview agent and background plan generator
- Conducts voice/text interviews
- Runs background cognition loops
- Resolves contradictions in evidence

### Layer 3: Core Models
- trajectory-core: Life physics engine (TypeScript/Node)
- Maintains latent state `z_t`
- Computes skill graph, alignment, gravity, mass, escape index
- Emits state change events

### Layer 4: ML Models (Python)
- skill_graph: Bayesian competency graph with message passing
- alignment: Project coherence scorer using embeddings
- gravity_mass: Constraint and inertia estimators
- life_state: State transition dynamics (`z_{t+1} = h(z_t, u_t)`)

### Layer 5: Memory & Ingestion
- vector-store: Semantic memory (embeddings of artifacts, transcripts, plans)
- artifact-ingestor: Pipelines for docs, code, calendar, etc.

### Layer 6: Future Integration
- echelon-bridge (stub): Will map embodied signals (tension, flow, drift) to life variables

Data Flow

User Interview → Agent Orchestrator → Evidence Extraction
                                    ↓
                          Trajectory Core ← Python Models
                                    ↓
                          State Update (z_t, η_t, etc.)
                                    ↓
                          Dashboard + Events

Key Concepts

### Life State `z_t`
A latent vector encoding:
- Capability profile across skills
- Alignment between projects
- Environmental constraints (gravity)
- System inertia (mass)
- Momentum and trajectory direction

Escape Index `η`

η = Thrust / (Gravity × Mass)
  • η < 1: Stuck in gravity well
  • η ≈ 1: At escape velocity threshold
  • η > 1: Self-sustaining upward trajectory

### The Moat
When Echelon integrates, TrajectoryOS becomes the only system that can:
- Detect alignment through embodied flow states
- Measure gravity through movement tension
- Track momentum through rhythm coupling
- Validate verbal claims against physical reality

This makes the system unreplicable without years of embodied research.

Service Communication

Services communicate via:
- REST APIs for synchronous queries
- Event bus (PostgreSQL LISTEN/NOTIFY or message queue) for state changes
- Shared database for trajectory state and time-series

Future Phases

1. Phase 1 (current): Core trajectory modeling without embodied signals
2. Phase 2: Echelon integration for embodied state fusion
3. Phase 3: Multi-user, coaching, and enterprise features

Promotion Decision

Promote into a technical note or architecture paper with implementation anchors.

Source Anchor

Comp-Core/backend/cc-trajectory/docs/architecture/overview.md

Detected Structure

Method · Architecture