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
Defense › Strategic Isotopes for Defense
Strategic Isotopes for Defense

Extraction and Processing

Bred tritium must be recovered from the blanket, separated from hydrogen isotopes, purified, and accounted for before it becomes a usable product.

From blanket to bottle

Tritium bred in a lithium blanket does not arrive ready to use. It must be recovered from the breeding medium, separated from ordinary hydrogen and deuterium, purified to specification, and measured for accountancy. Each step is a place where inventory can be lost, so the processing train is engineered to minimize hold-up and leakage.

Blanketbred T + HeRecoverygas captureIsotope sep.H/D/T splitPurificationto specAccountancyassay + storeSUPPLY FLOW
Tritium processing train from blanket recovery to accounted storage.

Isotope separation

Hydrogen, deuterium, and tritium are chemically nearly identical, so separation relies on small physical differences — for example in molecular mass and vapor pressure. Cryogenic distillation and related methods enrich the tritium fraction. The same separation capability that purifies product also lets a fusion fuel cycle recycle unburned fuel.

Losses and hold-up

Because tritium permeates metals and decays continuously, processing is designed for speed and containment together. Shorter residence times mean less decay loss and less permeation; robust barriers keep what is recovered inside the system.

LAYERED BARRIERSProcess boundarypiping, valves, pumpsSecondary enclosureglovebox / cellCleanup + monitoringdetritiation, assay
Processing operates inside layered containment with continuous monitoring.

Speed and containment together

The two design goals of a processing train — minimizing loss and preventing release — point in the same direction: keep residence times short and hold-up low. Tritium retained in materials both reduces usable yield and increases the inventory at risk, while every hour in process is an hour of decay and permeation. Continuous accountancy through the train lets operators detect where inventory is accumulating and reconcile it against the decay curve. These are established capabilities in tritium science; the breeder specifies them as engineering requirements to be demonstrated during commissioning.

In the breeder program these steps are specified as engineering targets; measured recovery fractions and purities are FOAK-era deliverables, not present-day results.

Honest gateThe breeder (Hyperion) is a design and simulation study. Construction begins Q2 2027; first-of-a-kind (FOAK) first tritium is targeted for ~2030. No hardware net-gain or delivered-isotope claim is made before FOAK.
Content reviewed August 2026 · design-and-simulation stage