Discover how immersion cooling unlocks scalable compute

Engineering the Future of High-Performance Compute and AI

Infinium Edge™ applies the proven science, engineering, and chemistry behind Infinium Energy™ to build whats next for scalable infrastructure - immersion-cooled data centers delivering performance without compromise.

As a manufacturer of proprietary immersion fluids and the systems designed around them, Infinium Edge™ moves beyond conventional liquid cooling/direct-to-chip. We engineer fluids at the molecular level, optimizing thermal transfer, stability, and longevity, and then integrate them into a complete thermal ecosystem that supports high-density compute at scale.

Infinium Edge Immersion cooling places servers directly into our non-conductive fluid that absorbs heat at the source, eliminating hot spots and thermal bottlenecks. Compared to traditional liquid cooling, immersion delivers higher efficiency, greater power density, and simpler, more reliable infrastructure.

Our approach creates a reliable, high-density thermal platform purpose-built for AI compute environments.

Explore Infinium Edge™

INFINIUM EDGE IMMERSION FLUIDS MANUFACTURED IN THE USA

Infinium Edge™ elevates immersion cooling—REDUCING power, eliminating fresh water, and unleashing maximum chip performance.

60%

savings in space compared to today's data center builds

> 95%

reduction in water use vs conventional cooling options

< 1.05

PUE (Power Usage Effectiveness)
Traditional air cooled data center PUE = ~1.50

  • Edge™ Engineered Immersion Fluids

    Infinium Edge™ Immersion Fluids are advanced, low-carbon dielectric liquids engineered for superior heat transfer and material compatibility. Produced from proprietary synthetic process chemistry, they set the foundation for high-density, sustainable compute. When produced at Infinium Energy’s eFuel facilities, Edge Immersion Fluids are carbon-negative products, enabling data center deployments to achieve a reduced overall carbon footprint.

  • Edge™ Modular AI Factories

    Infinium Edge takes a holistic approach to the cooling solution for data centers. Our AI Factory designs combine power, immersion cooling, and compute into a unified, rapidly deployable platform. Built for consistency and scale, they enable repeatable high-performance deployments—from distributed sites to hyperscale.

Engineered for the Real-World Challenges of Modern Compute

As power densities of GPUs, CPUs, and supporting components continue to rise, cooling has emerged as one of the primary constraints to data center performance, efficiency, siting, and scale. The Infinium Immersion Solution is purpose-built to meet these demands with high thermal performance and low operational overhead.

  • Superior Thermal Performance

    Maximizes heat removal per unit of pump energy through optimized molecular structure

    Reduces cooling energy requirements by up to 50% compared to legacy air cooling

    Maintains predictable flow and cooling performance with viscosity optimized for natural and forced convection

    Supports ultra-high-density rack configurations

  • Performance-Grade Material Compatibility

    Maintains stability under elevated chip frequencies and extreme thermal loads

    Withstands prolonged operation without material degradation

    Supports higher power densities through chemical and mechanical resilience in immersion environments

    Enables compatibility with advanced semiconductor packaging, preserving overclocking headroom

    Protects connectors, seals, coatings, and PCB components under sustained high-frequency stress

  • Sustainability & Reliability

    Builds fluids from carbon and hydrogen molecular building blocks, rather than refining from crude oil

    Extends system life by submerging IT equipment in stable, non-conductive, non-corrosive formulation

    Reduces lifecycle carbon impact with a low-carbon fluid designed for long-term use

    Avoids PFAS chemistry, eliminating long-term regulatory and environmental concerns

    Delivers consistent thermal and electrical performance under forced-convection immersion