Solid-state hardware that senses, learns and acts in microseconds, in every node, so nothing moves that we cannot see. Data centers first. The grid is the end game.
We are working to ready the grid, the backbone that underpins our society, for what comes next.
Everything we are trying to build next, every model trained, every town electrified, every mile driven, arrives at the same question. Is there power for this? Increasingly, the answer is no.
Communities know this before anyone tells them. They fight new projects because they can see what is coming: higher bills, drained water, a grid that fails on the day it matters.
The layer that distributes power has not been rethought in a century. It converts, and every conversion becomes heat. It cools that heat with water. It fills rooms with metal that has to move to work. It passes every surge straight out to the grid.
So we changed it. Power that goes DC stays DC. Protection with no moving parts. Intelligence in every node, acting in microseconds, catching a surge before it ever leaves the building.
Data centers first, because that is where the limit is biting hardest today. The grid after, because it is the backbone under everything else.
A facility that communities can live beside.
Our founders started in telecom in the 1990s, watching a regulated industry deregulate while a disruptive technology and a disruptive business model arrived at the same time. Everything that followed came out of that: distributed energy, smart grid research, microgrids, bidirectional charging, and solid-state roadmaps built for some of the largest names in electrical equipment. The same pattern is repeating in energy now, and we recognized it early.
We knew which algorithms we needed to train before we laid down a single chip, because physical AI cannot be added to hardware that was not designed for it. We designed the UL strategy into the first architecture decision rather than bolting it on, because UL is what levels the playing field and gets a product deployed. Eight patents cover the result, including hot-swap at 800 VDC.
