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The Burner — Aegis & MetroVolt

Beta 0.55, Inside What GDT Measured

The burner runs at a plasma pressure fraction experiments have already reached.

The burner operates at a plasma beta of 0.55 — the ratio of plasma pressure to magnetic pressure — a value that sits inside the 0.5-0.6 band the GDT mirror experiment has measured. High beta is assumed here only where hardware supports it.

The science

Beta sets how much plasma pressure the field holds, and mirrors achieve high beta naturally. The burner assumes 0.55, explicitly inside GDT's measured 0.5-0.6 range, so the pressure assumption is grounded in a device that has run rather than in an aspiration. High beta also dilates the effective mirror ratio, aiding confinement.

Why it matters

Anchoring beta to a measured range keeps one more parameter out of the speculative column. It is part of a consistent posture: assume demonstrated values, name the one requirement (plug ratio) that is not yet demonstrated.

The numbers

Plasma beta0.55
Measured anchorGDT 0.5-0.6
Effectdilates effective mirror ratio
Window0.45-0.60 within 10% of reference
Posturedemonstrated value assumed
Straight answersBeta 0.55 is inside a measured band, not at an unproven extreme; it is one of the anchored assumptions that lets the design concentrate its stated risk in a single parameter.
Kronos is the fusion company that shows its work. Every figure here traces to the openly deposited Kronos simulation programme and design-point records (CC BY 4.0). Read the series, run the code, check us. — All whitepapers
Conceptual design and simulation study; no machine has been built. Quantitative values are simulation-derived and carry the feasibility gates named in the text; superseded values are kept in the record with era labels. This document is informational and is not an offer of securities. © 2026 Kronos Fusion Energy, Inc. · Los Angeles, California.
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