Nanoscale Plasma Fusion

Ultrafast light meets plasmonic nanostructures
‍By matching shaped pulses and advanced polarization states to the localized surface plasmon resonances of anisotropic nanoparticles, we amplify the near‑field, boost absorption, and create the sub‑cycle fields that accelerate ions, all at low numerical aperture for stability and throughput. The required morphologies are commercially accessible and integrate directly into the renewing jet.
 
A nanoplasma fusion core
Instead of compressing a macroscopic fuel volume, the core defines a micro‑scale interaction region set by optics and nanostructure geometry. Energy is delivered impulsively and locally, producing fusion‑relevant ions before thermalization can dilute the impulse. This non‑thermal architecture is compact, modular, and designed for high duty cycle: an operational profile aligned with plant‑level scaling and bankable balance‑of‑plant integration.

From laser physics to power markets
Our singular objective is fusion power. The engineered coupling from light to ions, the renewing target, and high‑repetition optical drivers together create a credible route from laboratory modules to multi‑module power blocks, with thermal conversion handled by proven high‑temperature cycles. The platform’s economics improve by repetition rate and arraying, not by escalating facility scale, offering a capital‑efficient pathway to net‑energy systems.