Burner Honest Gates for Defense
Four physics gates separate the burner resilience concept from a fielded generator; each is stated as a design-and-simulation finding, not softened.
The four gates, stated plainly
Full-physics candor requires naming the gates that stand between the burner (Aegis / MetroVolt) concept and a real defense generator. These are physics facts from design and simulation, not economics. Any defense evaluation should treat them as the entry conditions for the technology to become relevant.
Gate one: the plug magnet is overstressed by roughly 3-3.9x at the design bore, so the machine is infeasible as specified until the magnet problem is solved. Gate two: the plug operating regime sits 166-830x beyond any device ever built, so its behavior cannot be validated against experience. Gate three: helium-3 fuel demand is about 400x domestic supply per commercial unit. Gate four: availability of 0.86-0.995 falls 30-100x short of the 0.99982 hyperscale Tier III expects.
- Gate 1: plug coil overstressed 3-3.9x -> infeasible as specified
- Gate 2: regime 166-830x beyond any device -> un-post-dictable
- Gate 3: He-3 demand ~400x domestic supply -> fuel gap
- Gate 4: availability 0.86-0.995 vs 0.99982 -> 30-100x short
The gates are also ordered by how they might be closed. The plug-coil and regime gates are physics-and-engineering problems internal to the machine; the helium-3 gate is an external supply-chain problem; the availability gate is a systems-and-redundancy problem. A defense evaluator can therefore assign each gate to a different program and timeline, which is more useful than treating readiness as a single undifferentiated question.
None of these is translated into cost; all are stated as physics. They are the reason the breeder-bred and lunar helium-3 pathways, and the availability discussion, appear throughout this section.