Co-Founder & CEO
Since Jun 2026 · 5 mos
Profile summary: Amazon Graduate Research Intern

Atomarine builds scalable compute platforms with standalone power generation, seawater-based cooling, and location-agnostic deployment. The systems are prefabricated at shipyards, enabling deployment four times faster than land-based construction, with each shipyard capable of delivering 1.5 GW of compute capacity annually. Seawater cooling achieves a power usage effectiveness below 1.1 PUE without traditional water consumption.
Funding not disclosed


Co-Founder & CEO
Since Jun 2026 · 5 mos
Profile summary: Amazon Graduate Research Intern
Co-Founder
Since Jun 2026 · 5 mos
Profile summary: MIT Dept. of Nuclear Science and Engineering • Research Assistant · MS Chem. Eng. (2020-2022) at Ghent University
Grid connection timelines for new data center capacity are approaching a decade, and more than 50% of standalone energy projects are denied due to water use, emissions, and price pressure. Projected power shortfalls of 50 GW by 2030 and infrastructure upgrade costs of up to $1 billion for standalone projects add further constraints.
Atomarine provides scalable compute platforms with standalone power generation, seawater-based cooling, and location-agnostic deployment. The systems are manufactured at shipyards, which the company states allows deployment four times faster than traditional land-based construction. Each shipyard is capable of delivering 1.5 GW of compute capacity per year. The moveable generation units remove the dependence on grid connections and the need for capacity overbuild. Seawater cooling supports a power usage effectiveness below 1.1 PUE without traditional water consumption or emissions. The platforms are designed for deployment in remote or constrained locations, with an intended operational life of 20 to 40 years.
Primary customers are hyperscale cloud providers, colocation operators, and enterprise data center developers facing grid connection delays or seeking deployable compute capacity in remote or constrained locations.