Skip to content
Technology How it works Breeder — Hyperion Burner — Aegis Burner — MetroVolt AI-Native Architecture Magnets Fuel cycle Safety Roadmap
Solutions AI & Data Centers Defense & Government Grid & Baseload Neutron Detection Quantum
Learn Technical Library
Proof Publications Whitepapers Technical Library Open Science & Reproducibility The Honest Gates
Company About / Mission Leadership Environment Health & Safety Investors Careers Press Contact
3D Model
AI Architecture › L2 · Data Fabric
L2 · Data Fabric

L2 Data Fabric Overview

The Data Fabric turns raw analog plasma telemetry into pristine, governed, AI-ready features for both machines, with lineage from feedthrough to feature store.

THE STACK · click to jumpL7Ecosystem & StrategyL6Experience & VisualizationL5Applications & CopilotsL4OrchestrationL3Twin Modeling & AIL2Data FabricL1Control PlaneL0Foundation▲tlmctl▼L2 · DATA FABRICTelemetry, validation, and the machine's memory.160+ Port Telemetrysensor bus2Signal Validationrange & sanity3Feature Engineeringderived signals4Time-Series Archivefull history5Feature Storetraining-ready6Vector DBembeddings for RAGMACHINE TIEIngests from diagnostics; serves the twin (L3) and copilots (L5).KRONOS FUSION ENERGYAI-NATIVE S.M.A.R.T. GENERATORDATA FABRICSHEET 04REV. 2026-08L2 · AI-NATIVE STACK
L2 · Data Fabric — its place in the stack (left, click any layer) and its internal components (right). Telemetry rises; control descends.

What L2 is for

Layer 2 sits between the microsecond control plane (L1) and the twin-and-AI layer (L3). Its single job is to convert the physical reality of a fusion shot into trustworthy numbers: it acquires 60+ analog channels, validates them, normalizes them into physics coordinates, engineers features, retains them at full fidelity, and serves them with provenance. Everything downstream — GNN imputation, PINN equilibria, anomaly ensembles, MPC — is only as good as this fabric.

The fabric is machine-agnostic by design. The same acquisition, validation, and governance layer runs for the breeder (Hyperion), a D-T spherical tokamak whose signals describe equilibrium, the negative-triangularity shape (delta -0.30) and disruption precursors, and for the burner, a D-3He tandem-mirror generator whose signals describe end-plug density, the ambipolar potential, and the direct-energy-conversion train.

The five stages

Design constraints

The fabric must be lossless where physics demands it (raw Mirnov and Thomson traces feed disruption forensics), lossy only where information theory permits, and always auditable. Every feature carries the identity of the channels, the calibration, and the transform that produced it, so any twin prediction can be traced to the exact bytes it rested on. These are design and simulation targets: construction of the breeder begins Q2 2027, with first-of-a-kind tritium near 2030.

This section documents the fabric end to end: the sensor front end, the acquisition chain, validation, normalization, feature engineering, the diagnostics constellation, storage, retrieval, and the governance and information theory that hold it together.

Content reviewed August 2026 · design-and-simulation stage