Transforming 350 Acres for Data Centers
Discover how 350 acres of former industrial land are transforming into data centers, shaping the future of infrastructure and clean energy.
When a former industrial site sits idle, it’s easy to see it as a liability — contaminated soil, aging infrastructure, zoning headaches. But a growing number of developers are looking at exactly these properties and seeing something else entirely: the ideal foundation for the next generation of data centers.
The numbers behind this particular project are hard to ignore. Nine buildings. 275,000 square feet each. Nearly 2.5 million square feet of data center space total, spread across 350 acres of repurposed industrial land. Projects at this scale don’t just reshape a single market — they rewrite the rules for how the infrastructure industry thinks about land.
A Project Built at a Different Scale
Most data center campuses are measured in tens of acres. A 350-acre footprint puts this development in a category occupied by very few projects anywhere in the world. To put it in perspective, 350 acres is roughly the size of 265 NFL football fields. That’s not a data center — that’s a data center district.
The nine-building structure is significant beyond the raw square footage. Phased construction across multiple buildings gives the developer flexibility: early phases can come online and generate revenue while later phases are still being permitted or built. It also allows anchor tenants — hyperscalers like Microsoft, Amazon Web Services, or Google, who routinely pre-lease capacity in 100MW+ blocks — to commit to a long-term campus relationship rather than a single facility. Phased development at this scale is essentially a hedge against demand uncertainty while still signaling the kind of long-term commitment that attracts institutional capital.
The former industrial designation of the site is not incidental to the story. It’s the story.
Why Industrial Sites Are Winning the Data Center Land Race
Industrial land has become the preferred acquisition target for data center developers, and it’s not hard to understand why once you look past the surface-level challenges.
Legacy industrial sites typically come with heavy electrical infrastructure already in place — substations, high-capacity transmission lines, and sometimes on-site generation assets. For a data center campus that might eventually draw 500MW to 1GW of power, inheriting even a fraction of that electrical backbone can shave years off the development timeline and tens of millions off the interconnection costs.
There’s also the zoning angle. Industrial-zoned land is politically easier to convert to data center use than agricultural or residential parcels. Communities that have watched manufacturing jobs disappear are often receptive to redevelopment proposals that bring construction employment, permanent technical jobs, and a dramatically expanded property tax base — even if a data center doesn’t deliver the same headcount as the factory it replaced.
The most sophisticated developers aren’t just buying cheap land — they’re buying entitlement pathways and infrastructure adjacency that would cost far more to build from scratch.
The regulatory process for converting a brownfield industrial site varies significantly by jurisdiction, but the general arc involves environmental remediation review (Phase I and Phase II environmental site assessments), rezoning or conditional use permit applications, and utility coordination for new interconnection agreements. Each of these has the potential to add 12 to 36 months to a project timeline, which is why experienced developers run these tracks in parallel rather than sequentially.
Economic Gravity
A 2.5-million-square-foot data center campus doesn’t land quietly. The construction phase alone for a project this size will employ thousands of workers — electricians, ironworkers, concrete crews, low-voltage specialists — for years. Data center construction is among the most electrically intensive build types in commercial real estate, which means the skilled trades demand is disproportionately high relative to the square footage.
The permanent employment picture is more nuanced. Data centers are notoriously efficient operators; a modern hyperscale facility can manage enormous compute capacity with a lean on-site team. But the indirect employment effects are substantial. Fiber providers, cooling system vendors, security contractors, and facility maintenance firms all orbit large data center campuses. Municipalities that understand this ecosystem structure tend to negotiate better economic development agreements — capturing more of the value through infrastructure investments and tax arrangements rather than relying solely on direct job creation numbers.
For investors, data center land plays have become one of the most competitive segments in commercial real estate. Cap rates on stabilized data center assets have compressed sharply as institutional money — from sovereign wealth funds to pension funds — has flooded into the sector. Greenfield and brownfield development projects offer the remaining opportunity to acquire exposure at reasonable basis, which is exactly what a 350-acre industrial conversion represents at the project inception stage.
The Energy Equation
A campus producing 2.5 million square feet of data center space will consume power at a scale that fundamentally challenges local grid infrastructure. This is no longer a secondary consideration in data center development — it’s often the primary constraint.
The most forward-thinking operators are responding by co-locating clean energy generation with their campuses. Solar installations on the scale of 50 to 200MW are increasingly common as a first layer of power strategy, paired with battery storage systems that can buffer demand spikes and provide resilience during grid events. Some operators are going further, pursuing dedicated offtake agreements with wind facilities or exploring on-site small modular reactor capacity for longer-horizon power security.
Beyond the operational cost argument — and electricity is consistently the largest operating expense for a data center — there is a customer pressure component that is intensifying. Enterprise clients and hyperscalers are under their own sustainability mandates. They want to demonstrate to their stakeholders that their compute infrastructure is powered by clean energy, which means data center operators who can credibly offer renewable energy matching or direct clean power sourcing have a genuine competitive advantage in lease negotiations.
Clean energy infrastructure is no longer a marketing overlay on data center development — it’s a procurement differentiator that affects which tenants you can attract and at what price.
The long-term environmental calculus on industrial-to-data-center conversions is also worth examining honestly. Redeveloping a contaminated industrial site removes a persistent environmental liability from a community. But a massive data center campus introduces its own environmental considerations: water consumption for cooling, heat rejection into local air and water systems, and the long-term carbon footprint of the power load. Projects that take these seriously — through advanced cooling architectures like rear-door heat exchangers or liquid cooling, closed-loop water systems, and genuine renewable procurement — will face fewer regulatory headwinds as environmental scrutiny of the sector intensifies.
Where This Is All Heading
The data center industry is absorbing AI-driven demand growth at a rate that has caught even optimistic analysts off guard. Training large language models and running inference workloads at scale requires compute density — and power density — that previous data center design assumptions simply didn’t account for. Rack power densities that averaged 8 to 10 kilowatts five years ago are now pushing 40 to 80 kilowatts in AI-optimized facilities, with some specialized deployments going higher.
This has direct implications for land development strategy. Higher power density means more power infrastructure per acre, which puts a premium on sites with robust transmission access. It also means cooling infrastructure becomes a larger physical footprint relative to compute space, which favors larger land parcels — exactly the kind of 350-acre sites that were previously considered oversized for data center use.
Expect the industrial site transformation trend to accelerate. Former steel mills, automotive plants, chemical facilities, and power generation sites all represent potential acquisition targets for data center developers who have the capital, the remediation expertise, and the patience to work through complex entitlement processes. The sites that seemed like problems — too big, too complicated, too contaminated — are increasingly the sites that everyone wants.
The developers who establish positions in these assets now, before the demand curve makes the economics obvious to everyone, are the ones who will define what data center land development looks like for the next decade. A 350-acre industrial conversion at 2.5 million square feet isn’t just a construction project — it’s an early indicator of where the entire sector is moving.
Ready to explore the future of data centers? Visit our marketplace for opportunities in industrial land conversion and more! [InfraSale Marketplace](https://infrasale.com/marketplace)