Flagship energy program
Lattice Confinement Fusion
Paradox Research studies whether fusion inside deuterated metal lattices can become a compact, high-density energy source for AI datacenters, aerial transport, and skyborne infrastructure.
Reference science
NASA Glenn has shown a credible experimental path worth engineering against.
NASA describes lattice confinement fusion as a method where deuterium fuel is confined inside the spaces between atoms in a metal solid. Their experiments used deuterated metals, including erbium deuteride, and reported evidence of fusion reactions after irradiation.
The key mechanism is different from tokamak-style plasma confinement: the metal lattice holds densely packed deuterons, while energetic neutrons or photon-triggered events accelerate some deuterons into fusion-relevant collisions. NASA also highlights electron screening inside the lattice, where metal lattice electrons help reduce the effective electrostatic barrier between positively charged nuclei.
Paradox treats this as a research frontier, not a finished product. NASA notes that reaction rates must increase substantially before appreciable power levels are possible, so our program focuses on diagnostics, materials, multiplication pathways, and energy-system integration.
NASA Glenn lattice confinement fusion referenceTechnical agenda
From observed nuclear activity to useful power architecture.
Materials
Explore deuterium loading, lattice stability, radiation tolerance, thermal pathways, and repeatable material preparation.
Diagnostics
Instrument neutron spectra, gamma exposure, heat signatures, transmutation evidence, and control runs with enough rigor to separate signal from artifact.
Systems
Convert experimental milestones into models for datacenter power, Aether Transit vehicles, and Skylands platform energy budgets.
Next