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Aegis › The Machine
The Machine

Machine Architecture Overview

Aegis is the Kronos burner (Aegis / MetroVolt) in a fixed-installation housing: a D–³He tandem-mirror generator with direct energy conversion.

The burner (Aegis / MetroVolt) is a linear, open-ended magnetic confinement machine rather than a closed torus. Fusion fuel is confined along a straight axis by a magnetic mirror at each end, and charged particles that leak past the mirrors are captured by a direct-energy-conversion (DEC) train instead of a steam cycle. Aegis is the fixed-defense-installation housing of that machine; it shares its core physics exactly with the MetroVolt data-center housing.

The machine has five architectural regions arranged along one axis: two high-field plugs at 26.49 T, the magnetic throats at 17 T that define the mirror, the central cell where the D–³He plasma burns, the expander regions where the exhaust plasma fans out, and the DEC collectors that turn escaping ion energy directly into electricity.

Tandem-mirror axis (plug — central cell — plug)26.49 T26.49 T~8 T equiv. cell field17 T throat17 T throatCentral cellD–³He burnPlughigh-fieldPlughigh-fieldDECexpanderDECexpanderNot to scale — design & simulation geometry

Why an open geometry

A linear machine trades the closed-field confinement quality of a tokamak for mechanical simplicity, steady-state operation, and an exhaust that is naturally aimed at a converter. There are no disruptions in the tokamak sense, and the axis can be opened at either end for the DEC. The cost is end losses: particles stream out of the mirror, and the plug fields must be extreme to hold the central-cell plasma against that loss.

Design and simulation status

Every parameter here is a design-and-simulation figure. The burner has not been built. A test burner is targeted around 2032 and a commercial-class unit around 2036. The architecture is honest about its open physics gates — plug coil stress, plug operating regime, He-3 fuel supply, and availability — which are stated plainly on their own pages.

Content reviewed August 2026 · design-and-simulation stage