Why Electrical Rooms Matter More Than Ceilings for Edge Data Center Conversions

When most commercial real estate brokers walk into an industrial building, they look at ceiling height and loading docks. Logan Freeman, founder of Kansas City-based Midwest CRE Advisors, heads straight for the electrical room. That difference, he says, is why his firm is closing edge data center transactions in secondary Midwest markets while others are still learning what an inference facility is.

Freeman has developed a repeatable evaluation process for industrial buildings considered for edge data center conversion. It starts before he walks through the front door. The first thing he looks for is external utility infrastructure: a transformer pad, a substation, and the service entrance size. Those answers determine whether a building is worth a closer look. "If I see a 2,000-amp service on a 40,000-square-foot building, I’m interested," he explains. "If I see a 400-amp panel, I’m moving on unless there’s a clear utility upside story."

Once inside, his first stop is the electrical room. He examines the switchgear, panel configuration, and existing load capacity—not just what is there, but what it would cost to upgrade. A building with marginal power but a nearby substation and known expansion headroom presents a different investment case than one with marginal power and no upstream capacity.

Floor load is a deal-breaker most people miss. Data center equipment is heavy, and most industrial buildings are not built to handle it. A standard warehouse floor rated for 125 pounds per square foot falls short of what edge data centers require: 200 to 300 pounds per square foot. When structural capacity is not there, remediation costs can make an otherwise promising building unworkable. Clear height matters too, but differently than for distribution warehouses. For a small to mid-size data center, 12 to 16 feet is sufficient. More important is column spacing. Data center operators arrange rows of cabinets across open floor space, and obstructions create layout problems. Column-free or wide-bay floor plans command a premium.

HVAC and cooling infrastructure are the third area Freeman examines. He looks for raised floors, existing HVAC units, and any history of the building being used as a critical-environment facility. Former telecom central offices and switching facilities are particularly valuable. They were built for continuous, 24-hour operation and often already have battery rooms, generator connections, and redundant cooling systems. "They were designed for 24/7 uptime," Freeman says. Buildings with that kind of prior use can bypass years of fit-up work and millions in capital expenditure. With supply chain delays pushing lead times on critical equipment such as behind-the-meter turbines to 24 to 36 months, starting with infrastructure already on site can compress a deployment timeline by two years or more.

Beyond power and structure, Freeman checks fiber entry points and road access for equipment delivery. Both matter, but neither is the issue that most often kills deals. "I’m always looking at the roof," he says. "Prior water intrusion on IT equipment is a conversation stopper."

Freeman brings specialists in electrical, structural, and mechanical systems with him on walkthroughs. "A thorough walkthrough for a serious prospect takes about an hour," he says. "By the end of that hour I have a pretty clear picture of whether the adaptive reuse story is a two-million-dollar fit-up or a twenty-million-dollar gut renovation."

The broader principle Freeman applies across every market he operates in is this: the question to ask about an old industrial site is not what the building is, but what it is connected to. Most buyers only think to ask the first question. The ones asking the second are the ones finding the deals. For more on Midwest CRE Advisors’ approach, visit their client success stories.