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Comparisons & Context

Kronos vs the Mainstream D–T Tokamak

The mainstream bet is one big D–T tokamak that makes electricity. Kronos makes a different bet.

Comparisons & ContextUpdated 2026-08-11
Mainstream
One D–T tokamak → electricity
Kronos
Breeder + low-neutron burner

A conventional D–T tokamak puts ~80% of its energy into 14 MeV neutrons and must convert heat through a steam cycle. Kronos instead uses a compact D–T breeder to make fuel and neutrons, and a low-neutron D–³He burner (5.44% neutrons) to make electricity by direct conversion.

The payoff is a saleable product (isotopes, tritium) before net electricity is proven, and a cleaner, disruption-free electricity machine. The cost is running two machines and a harder burner fuel.

Both share hard physicsThe breeder still faces tokamak confinement questions; the burner faces its plug-density requirement. Kronos does not claim to have escaped hard physics — only to have arranged it more favourably.

Common questions

How is Kronos different from a normal fusion tokamak?

Instead of one D–T tokamak racing to net electricity, Kronos uses a D–T breeder to make fuel and neutrons, and a low-neutron D–³He burner to make electricity by direct conversion.

← PreviousKronos in Context: ITER and the Big-Science PathNext →Tandem Mirror vs Tokamak
Content reviewed August 2026 · design-and-simulation stage