Data Center Development, Answered
Data Center Development FAQ
A plain-English question bank on data center land, power, brownfields, water, fiber, and investment — each answer self-contained. For deeper treatment, follow the links to the full guides.
What Should Landowners Know About Data Center Land and Sites?
Data center land is defined first by power: a site that can be served with large amounts of reliable electricity, plus enough acreage, buildable topography, low flood risk, fiber, water and suitable zoning. A 100 MW data center typically needs roughly 20 to over 100 acres, depending on design, density and room for expansion.
What is data center land?
Real estate suitable for building a data center — most importantly, land that can be served with large amounts of reliable electrical power, plus adequate acreage, buildable topography, low flood risk, fiber, water, and appropriate zoning. The defining feature is power availability, which is why it overlaps with powered land. See
Data Center Land Requirements.
How much land does a 100 MW data center require?
Roughly 20 to over 100 acres depending on design and density, accounting for buildings, substation, generators, cooling, setbacks, and expansion. Lower-density designs use more land; dense multi-story designs use less. See
Data Center Land Requirements.
What makes a site shovel ready?
Entitlements, zoning, environmental clearances, and utility commitments in place so construction can start with minimal delay. Adding secured electrical capacity makes it shovel-ready powered land — the most valuable raw input in the industry. See
What Is Powered Land Worth Per Acre?.
How Much Power Do Data Centers Need, and Why Does It Matter Most?
Data centers range from under 1 MW for small edge sites to 50 to 150 MW for a hyperscale building and 500 MW to over 1 GW for large AI campuses. Power matters more than land because land is abundant, while deliverable, reliable, near-term power is scarce, expensive and slow to add.
How much power does a data center need?
From under 1 MW for small edge or enterprise sites to 50 to 150 MW for a hyperscale building or phase, up to 500 MW to over 1 GW for large AI and cloud mega-campuses. See
How Much Power Does a Data Center Need?
What is a megawatt?
One million watts of power. Data center capacity is measured in megawatts of critical IT load — the power available to the computing equipment — rather than in square feet. See
How Much Power Does a Data Center Need?.
Why does power matter more than land for data centers?
Land is abundant and cheap; deliverable, reliable, near-term power is scarce, expensive, and slow. A site can be graded in months, but a new interconnection and substation can take years. So value and competitive advantage migrate to whoever can deliver megawatts. See
What Is My Land Worth to a Data Center?.
What is an interconnection queue?
The line of projects waiting for the studies and approvals needed to connect new load or generation to the grid. Queues have become heavily backlogged, with multi-year waits common, making queue position — or the ability to avoid it — a critical variable. See
What Is Powered Land Worth Per Acre?.
What is a substation?
Electrical infrastructure that transforms high-voltage transmission power down to usable levels and serves as the connection point to the grid. An on-site or nearby substation with available capacity is one of the most valuable features a site can have. See
What Is Powered Land Worth Per Acre?.
What is behind-the-meter generation?
Power produced on-site, on the customer's side of the utility meter — natural gas turbines, fuel cells, solar, or future small modular reactors — letting a data center come online without waiting for grid interconnection. See
What Is Powered Land Worth Per Acre?.
What is the difference between available power and requested power?
Available power is capacity the serving utility has confirmed it can deliver to the site — already energized, under a signed service agreement, or committed in writing with a date. Requested power is only what someone has applied for: a load request or queue position that still depends on studies, grid upgrades and the utility's approval. Buyers pay for available power and discount requested power heavily, so every megawatt figure in a listing should say which one it is. See
What Is Powered Land Worth Per Acre?.
What utility documents prove a site's power capacity?
In rising order of strength: a capacity or feasibility letter from the serving utility, a completed load or system-impact study, a will-serve letter that names the megawatts and an energization date, and a signed electric service or interconnection agreement. Informal emails and verbal assurances carry little weight with institutional buyers. Ask for the documents and their dates up front, because utility positions change as queues fill. See
What Is My Land Worth to a Data Center?.
Can a Brownfield or Retired Power Plant Become a Data Center?
Yes. Brownfields often come with existing power infrastructure, industrial zoning, utility connections and large contiguous land. Retired coal plants are especially valuable because their grid interconnection, switchyard, cooling water and rail remain, which can save years of interconnection time. The trade-off is potential remediation, demolition and verifying the usable capacity of existing infrastructure.
Can a brownfield become a data center?
Yes. Brownfields often arrive with existing power infrastructure, industrial zoning, utility connections, and large contiguous land. The trade-off is potential remediation, demolition, and verifying the usable capacity of existing infrastructure. See
Brownfield & Coal Plant Conversion.
Why are retired coal plants valuable for data centers?
When a coal plant retires, its grid interconnection, switchyard, and high-voltage ties remain, along with cooling water, rail, and large acreage. A data center can import large load through that existing interconnection, saving years and large capital versus a greenfield. See
Brownfield & Coal Plant Data Center Conversion.
What Do Colocation, Hyperscale, Redundancy, Water and Fiber Mean for a Site?
Colocation providers build data centers and lease space and power to customers, while hyperscale facilities are built for major cloud and AI operators at tens to hundreds of megawatts. Redundancy levels such as N+1 and 2N protect against equipment failure, and every site also needs dependable cooling water and fiber connectivity to serve tenants.
What is colocation?
A model where a provider builds and operates the data center and leases space and power to customers. Retail colocation serves many tenants renting racks or cages; wholesale colocation leases large dedicated blocks of power to single large customers. See
What Does It Take to Build a Data Center in 2026?.
What is a hyperscale data center?
A very large facility built by or for major cloud and AI operators, designed for massive, standardized, rapidly scalable capacity, commonly from tens of megawatts into the hundreds or beyond. See
What Does It Take to Build a Data Center in 2026?.
What are N+1 and 2N redundancy?
N+1 means the components needed to carry the load plus one spare, so a single failure does not interrupt operations. 2N means fully duplicating the system — two complete independent sets — so an entire side can fail and operations continue. 2N is more expensive but more fault-tolerant. See
What Does It Take to Build a Data Center in 2026?.
How much water does a data center use?
It depends on cooling design. Evaporative cooling can use large volumes; air-cooled, closed-loop liquid, and immersion cooling can sharply reduce or nearly eliminate water use, often by trading some energy efficiency for water savings. See
Data Center Water & Cooling.
What is dark fiber?
Fiber-optic cable that has been installed but not yet lit with active equipment — spare capacity in the ground that lets an operator light its own high-capacity connections quickly. See
Data Center Fiber & Connectivity.
How Do Data Center Economics Work for Landowners and Investors?
Data center returns come from the development spread, the gap between yield on cost and the market exit cap rate, which is capitalized into value. For a landowner, the first test of whether land suits a data center is power: distance to high-voltage transmission and a substation with capacity, then acreage, topography, flood risk, fiber, water and zoning.
What is a development spread?
The gap between yield on cost (stabilized NOI divided by total development cost) and the market exit cap rate. That spread is the development profit, capitalized into value, and wide spreads from scarce powered land are drawing capital into the sector. See
Data Center Economics & Underwriting.
How can a landowner tell if their land is good for a data center?
Start with power: how close is high-voltage transmission and a substation with available capacity, and what does the serving utility say about available load. Then acreage and contiguity, topography, flood risk, environmental condition, fiber, water, and zoning. Land near transmission, a substation, or a brownfield with existing power is the strongest candidate. See
10 Signs Your Industrial Property Is Worth More Than Its Current Use.
How do you determine the highest and best use of an obsolete industrial site?
Run four tests in order:
legally permissible (zoning, deed restrictions, environmental status),
physically possible (acreage, topography, flood risk, structural condition),
financially feasible (what each use costs to deliver versus what the market pays), and
maximally productive (which feasible use yields the highest residual land value). For obsolete factories the answer is often not re-tenanting the building — it is powered land for a data center, an Industrial Outdoor Storage (IOS) or Enclosed Industrial Outdoor Storage (EIOS) yard, or land redevelopment, because the land plus infrastructure is worth more than the aging structure. See
How to Determine the Highest & Best Use of an Obsolete Industrial Site.
What are the signs my industrial property is worth more than its current use?
Watch for these ten signals: (1) proximity to high-voltage transmission or a substation with available capacity; (2) a large or upgradable electrical service; (3) 10+ contiguous, mostly flat, buildable acres; (4) active or dormant rail access; (5) nearby fiber routes; (6) water and sewer capacity; (7) heavy-industrial or flexible zoning; (8) a functionally obsolete building on a still-valuable site; (9) location in the path of growth, near highways or a port; and (10) active buyers — data center developers, IOS/EIOS operators, or institutional investors — in your submarket. Several together usually mean the land outvalues the current operation. See
10 Signs Your Industrial Property Is Worth More Than Its Current Use.
How do you sell an industrial campus to institutional buyers?
Use a seller playbook: (1) define the real product — powered land, redevelopment site, or stabilized asset; (2) assemble a diligence package (survey, title, environmental, utility will-serve letters, power capacity, zoning); (3) quantify and document available power, the primary value driver; (4) resolve or disclose environmental and brownfield status; (5) position the highest and best use (data center, IOS, EIOS, logistics); (6) market to the right institutional buyers — funds, developers, REITs, and their brokers — not the local retail pool; and (7) structure terms (option, phased close, ground lease) that fit institutional underwriting. Clean diligence and a documented power story are what move institutional pricing. See
How to Sell an Industrial Campus to Institutional Buyers.
How is data center land priced — per acre or per megawatt?
Sites with firm power increasingly trade on price per megawatt of deliverable capacity rather than price per acre, because power is the scarce input. Acreage without a utility commitment still prices like industrial land. The per-megawatt value depends on how firm the power is, the energization date, fiber, water and zoning, so two sites of the same size can be worth very different amounts. See
What Does a Data Center Cost Per MW?.
Have a question about a specific site?
Carson Jones helps landowners, developers, and investors with powered land, brownfields, and data center sites across Tennessee and the Southeast. Get in touch or visit Passive Investments.
Educational information only — not legal, tax, engineering, or investment advice.
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Carson Jones
Founder · Passive Investments · eXp Commercial
Carson Jones is the host of Carson's Corner: Commercial Real Estate, author of The Red Flag Playbook, a licensed commercial real estate advisor and business broker, and the founder of Passive Investments. With 18 years of experience as an entrepreneur and 12 years specializing in passive investing, Carson works with high-net-worth individuals, family offices, business owners, and sophisticated investors as a broker and principal.
Carson holds a BBA in Finance from Baylor University and his Tennessee commercial real estate license (#382989). He actively pursues acquisition and equity opportunities across the United States and abroad through a worldwide network of qualified buyers, family offices, institutional investors, and top-tier developers.
This article is for informational and educational purposes only and should not be considered tax, legal, accounting, or investment advice. Tax laws are complex and change frequently. Always consult your CPA, attorney, and financial advisor before making any financial, tax, or investment decisions. All investments and property ownership carry risk, including the potential loss of principal. Carson Jones, Passive Investments, and the author make no guarantees regarding the tax treatment, performance, or outcome of any specific investment strategy described in this article.
Pricing disclaimer. The $300,000–$600,000 per-MW figures used on this page are an illustrative pricing range, not a guaranteed valuation. Actual pricing depends heavily on confirmed power capacity, delivery timelines, utility costs, location, and development readiness.
