EneaD provides a single‑phase dielectric immersion cooling system that submerges GPUs in a microbubble‑enhanced fluid, delivering roughly 2 W per hotspot and up to 20× lower energy consumption than conventional cold‑plate cooling. The plug‑and‑play tanks support all standard GPU form factors, eliminate water leakage, and enable waste‑heat recovery for building or industrial heating, allowing higher equipment density and reduced carbon emissions.
Funding
Funding not disclosed
Founders
Product
Problem
Data centers that run high‑performance GPUs rely on traditional cold‑plate or water‑based cooling systems, which consume large amounts of energy, create leakage risks, and limit equipment density. These constraints increase operational costs and prevent effective reuse of waste heat, hindering sustainability goals for AI and HPC workloads.
Solution
EneaD delivers a patented single‑phase immersion cooling platform that submerges GPUs in a specially formulated dielectric fluid. The system uses microbubble injection to boost thermal conductivity, enabling efficient heat removal with only about 2 W per hotspot and up to 20 × lower energy consumption than conventional cooling. By eliminating cold plates and water circuits, the solution removes leakage concerns and supports any GPU form factor, simplifying installation and maintenance. The fluid can operate at temperatures up to 60 °C, allowing waste heat to be captured for building heating or industrial processes. This approach increases rack‑level equipment density while extending hardware lifespan and reducing carbon emissions.
Target Audience
Primary customers are hyperscale cloud operators, enterprise data centers, and high‑performance computing facilities that require dense GPU deployments for AI, machine learning, and scientific workloads.
Features
- Dielectric immersion tank with plug‑and‑play GPU mounting, compatible with all standard GPU form factors
- Microbubble injection technology that enhances fluid thermal conductivity and accelerates heat transfer
- Single‑phase operation that avoids phase‑change complexities and maintains stable fluid temperature control up to 60 °C
- Energy‑efficient cooling delivering ~2 W per hotspot, resulting in roughly 20 × lower power draw compared with cold‑plate systems
- Zero water usage and sealed design that eliminates leakage risk and reduces routine maintenance
- Modular tank architecture for scalable deployment across rack, row, or pod configurations
- Integrated waste‑heat recovery capability for secondary use in building HVAC or industrial processes, supporting decarbonization targets
- CFD‑optimized fluid flow paths that enable higher equipment density without hot‑spot formation