Deep Tech

The First Reactor Ran on Graphite in 1942.
Why Does Today's?

Aircraft, engines, and computers have each been reinvented many times since the Chicago Pile. Reactor materials, and the way we run them, largely have not. Six active research programs change that, making the core lighter, tougher, and transport-ready, and unlocking capabilities conventional fission cannot reach.

Six active R&D programs

Each is an active research program that turns a hard limit of conventional fission into a defensible advantage.

Graded metal-ceramic joint absorbing a large thermal-expansion mismatch
01 · Joining

Metal-Ceramic Bonding

An elastic bond that stays intact across a 100-200% thermal-expansion mismatch, no cracking.

Neutron and gamma rays attenuating through a graded shadow shield
02 · Shielding

Compact Shielding

Shielding can outweigh the reactor 5-10×. We hold the dose while cutting hundreds of kilograms.

Monolithic block heat pipe with vapor channels and a symmetric core-tube inset
03 · Thermal

Monolithic Heat Pipes

No tubes: the structural block itself becomes the heat pipe.

Smart material routing fission heat around the moderator to the coolant holes
04 · Architected

Living Heat-Transport

Smart materials that route heat around the moderator to the coolant, by design.

One material moderating a neutron, reflecting it back inward, and bearing structural load
05 · Novel Materials

Multifunctional Materials

One material that moderates, reflects, and bears load, three subsystems collapsed into one.

An additively-manufactured smart topology whose orientation adds or removes reactivity, no actuator
06 · Reactivity

Orientation-Based Reactivity

Reactivity set by an additively-manufactured smart topology, no drums, no actuators.

This Is Where Fission Goes Next.

If your mission needs it lighter, tougher, or transport-ready, these are the problems we work.