Cooling and power systems decide how much AI computing a data center can run, and how reliably. See why the two must be planned together, and how RexEdge designs, builds and tests SFN, PFN, transformers and switchgear as one engineered system.
Liquid cooling is now the default for AI data centers. This report covers the latest deals, Nvidia’s Vera Rubin push, market forecasts from five research firms, and India’s first 30 MW direct-to-chip deployment.
What is a secondary fluid network, and why do AI data centres depend on it? This plain-English guide explains how an SFN works, its main parts, the key technical numbers, and what to look for in a supplier.
The primary fluid network carries heat from every CDU to the chillers and dry coolers. This guide explains how to size, lay out, protect and test a PFN, so your liquid-cooled data centre runs reliably at scale.
The secondary fluid network is the piping that carries coolant from the CDU to every rack. This guide covers how to size it, choose materials, keep it clean and test it, so your liquid cooling system performs reliably from day one.
As rack power densities climb, the Coolant Distribution Unit (CDU) has become the control point of liquid cooling. Learn how the CDU connects the Primary Fluid Network (PFN) and Secondary Fluid Network (SFN), why the two loops stay separate, and what to look for when choosing a CDU.
Data center cooling systems do more than remove heat. Learn how engineers manage thermal loads using cooling infrastructure, heat exchangers, cooling skids, and secondary fluid networks to support reliable high-density computing.
Selecting a data center transformer is more than matching kVA to load. Engineers must consider voltage, harmonics, redundancy, efficiency, installation, and future AI-driven power growth.
Reliable power infrastructure is the backbone of every hyperscale data center. Explore transformers, switchgear, substations, UPS, backup power, and distribution systems for the growing U.S. data center market.
Selecting the right transformer is fundamental to building a reliable, efficient, and scalable data center power infrastructure. This guide explores transformer types, sizing considerations, redundancy strategies, efficiency, and key engineering factors to help design resilient power systems for modern data centers.
