Atomarine · Offshore Power & Compute Infrastructure

Problem Platform Scale Power Contact

Offshore power & compute infrastructure Nuclear data centers at sea. Floating platforms for high-performance computing. Standalone power, seawater cooling, location-agnostic deployment.

4–5× faster deployment than on land 1.5 GW deployed per year ~1.1 PUE seawater cooling, modeled 20–40 yr infrastructure life

01The constraint AI's bottleneck is access to power 01A grid connection takes four to seven years, while new chips install in months. 02Firm power is projected to fall 35 to 49 gigawatts short by 2030. 03On land, cooling and water are among a site's largest costs. 04A land campus locks billions into one site, chosen for queues and zoning rather than demand.

02The platform We move compute offshore. 70% of the world is water. Humanity can already start taking advantage of it.

Compute barge · Standardized platform · 75–100 MW

01Power on site Generation is built into the campus. No interconnection queue. 02Location Agnostic Standalone systems can deploy anywhere on Earth. 03Centralized manufacturing Standardized units, produced in shipyards with tight deliverability. 04Cooled by seawater A closed seawater loop, no cooling towers, modeled PUE around 1.1.

03Scale The campus grows with demand. Each platform is built in a shipyard, towed to site, and moored beside the last. From first barge to 450 megawatts, without breaking ground.

04Power Gas today, nuclear tomorrow. Each campus is powered by a vessel moored alongside it, so the energy source can change without touching the data halls.

Today · Gas turbines Tomorrow · Marine reactors The first power vessels run on natural gas, proven equipment that already exists. As compact marine reactors come online, a nuclear vessel takes the same berth and the campus switches to steady, carbon-free power.

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