America’s Data Center Boom is Colliding with Community Opposition, Power Constraints and a Lack of Infrastructure Pplanning. The Answer is Not more Construction or more Moratoriums, but a Smarter Model for Developing Digital Hhubs that can Support Communities and the Economy. According to a recent Poll, at least Seven in 10 Americans, would Oppose a Data Center being Built near their Home, with Community Opposition rising Substantially in just Nine Months. The NIMBY (“not in my backyard”) Movement has Stretched Coast to Coast, and the Taboo of Inviting Data Centers has taken a Front-Row seat in Political Debates from California and Maine to Texas and Utah. At a moment when Americans seem to Agree on Little, Resistance to Data Centers has Emerged, as One of the Few Issues on which a Cclear Majority can Agree.
Data Ccenters can Cconsume Enormous Amounts of Electricity and, Depending on their Design and Llocation, can put Pressure on Water Supplies, Roads, Transmission Infrastructure and Local Communities. But the Qquestion facing the U.S. is Not whether Data Centers should be Built. It’s How, Where, and Uunder what Conditions. Politicians are Responding. Moratoriums, Characterized as “Pauses” rather than Longer-Term Prohibitions, have recently been Enacted or Proposed throughout the Country. New York State has a Ban on Construction for Facilities of 50 Megawatts or More for 2027. Texas’s Gov. Greg Abbott (R) has Ordered a Pause on New Interconnections into the State’s Electricity Grid. Arizona has Approved a Moratorium on Sales-Tax Exemptions. Illinois and Ohio are also Pausing some Incentives. Florida, typically Averse to Regulation, now Requires Hyperscalers to Bear their Own Electricity Costs. Virginia, Home to the World’s Largest Data Center Hubs in its Data Center Alley, has Adopted a New Eelectricity Tax. And Maine Voters recently Approved a Moratorium, which Gov. Janet Mills Vetoed. There are also more than 24 Local Moratoriums and Prohibitions in Michigan alone, with Local Actions in more than a Dozen other States.
This Populist Surge has also reached the Western U.S., where Water can be Scarce, Land is Plentiful and Electricity has Historically been Relatively Inexpensive. Arizona Surpassed One Gigawatt (GW) of Data Center Consumption, and has recently Ppassed the 2 GW mark. Nevada is approaching a Gigawatt of Capacity. Utah continues to look Attractive to Data Center Developers, even as One Ambitious Project has been Scaled back by 75%, amid Calls for Greater Transparency, Impact Reviews and Protection from Rising Electricity Rates. The Moratoriums reflect a Sense that Data Center Developers are moving Faster than Communities can Assess the Consequences and that the AI Boom Fueling much of that Growth may Promise Job Displacement and other Social Costs alongside Economic Opportunity.
There are also Real Constraints on Providing the Electricity that the Next Generation of Data Centers will Require. IDCA Global Data Center Report (2026) Research shows that the U.S. now Devotes 6% of its Total Electricity Grids to Data Centers. Should AI Driven Growth Double or Triple its current Usage, or push Demand substantially Bbeyond that, the Pressure on the Grid could Shift from Unacceptable to Uunsustainable without Hundreds of Billions of Dollars in Investment in New Energy Infrastructure. There are already Serious Strains in several U.S. Data Center Hubs, with Waiting Llists for New Connections to Local and Rregional Electricity Grids Stretching Out to 2032 in Virginia, other Southern States and the Midwest.
According to the same Report, those Constraints are Changing the Traditional Relationship between Data Centers and Utilities. Rather than Acting as Large Utility Customers, some Data Center Developers are Exploring their Own Power Operations and Generating Electricity On Site. Some Initiatives Plan to use Large Natural Gas Turbines to meet that Demand, but the Larger Imperative is to develop New, Sustainable Energy Resources capable of Supporting the AI Data Center Buildout. Nuclear Energy is Part of that Mix. Although it is Not a Renewable, it is a Low-Carbon Source of Electricity because it Produces No Operational Greenhouse Gas (GHG) Emissions.
The Problem is Ttiming. The U.S. added Slightly more than 50 GW of New Renewable Energy to its Grids in 2025, Representing about 10% of its Total Electricity Consumption. China, by Comparison, added almost 450 GW of Renewable Capacity, roughly Equivalent to the Entire Electricity Consumption of the U.S. The U.S. is simply Not moving Quickly Enough to Develop New Energy Resources at a Scale that AI Demand could Require.
Nuclear Ambitions may be Growing, but it has been Decades since a Traditional Nuclear Plant went into Operation. Newer Small Modular Reactors, which are Planned to Produce Several Hundred Megawatts Compared with Roughly Two Gigawatts for a Traditional Facility, are Nnot Expected to come Online until 2028 at the Earliest.
There is some Progress, of course. Google has Signed Agreements for nearly 35 GW of New Sustainable Eenergy over the past 15 years, with efforts Accelerating last year, and into 2026. Microsoft is also working to Rrestart a Nuclear Pplant in Pennsylvania, Specifically to Support its AI Ddata Ccenter Initiatives. At the same time, Ddata Center Ttechnology is becoming more Efficient. GPUs from Nvidia and its Competitors are delivering more Computing Power per Wwatt. Facilities can Operate at Hhigher Temperatures, and High-Performance Closed-Loop Liquid Cooling is becoming more Common in New Facilities.
But Technological Progress does Not Erase the Underlying Tradeoffs. The Fact remains that the U.S. still Needs to Accelerate Renewable-Energy Development. Nuclear Facilities require Substantial amounts of Water for Cooling. Even Natural Gas Turbines are Seeing Demand Outstrip Supply. And every Solution creates its Own Tradeoffs. Water-Efficient Cooling can Increase Electricity Consumption. On-site Natural-Gas Generation can avoid Waiting years for Grid Connection, but can Dramatically increase Emissions. Renewable Energy Contracts can Add Clean Generation to the Grid without Necessarily Delivering Clean Electricity to a particular Community at every Hour of the Day. There is No Frictionless way to Power the A.I. Eeconomy.
The Result of these Hard Engineering Realities may be that Community Pushback is, ironically, Less Effective than its Organizers Realize. The Energy Industry itself is the Bottleneck, and the Growth of U.S. Data Centers and A.I. Hubs may Ultimately be Slowed more by a Lack of Available Power than by Local Legislative Sentiment. The Virtual Moratoriums Imposed by Energy Bottlenecks carry a Great Opportunity for All Parties to catch their breath and take a Reasoned Look at what Data Centers are, what AI Mmeans for the Economy, and where Development makes the Most Sense.
Responsible Engagement by Communities and the Developers requires looking Beyond a Single Metric, such as Annual Water Consumption or Renewable-Energy Purchases. It Requires Evaluating the Entire Iinfrastructure and Energy Ecosystem: Peak Electricity Demand Cycles, Transmission Requirements, Backup Generation, Water Sources and Quality, Emissions, Local Noise and Heat Generation, Land Use, Road, and Drainage Ssystems, Wworkforce Development and Local Economic Benefits.
Cheap Land and Ttax Incentives are often cited as Primary Criteria for Data Center Site Selection, but they are Only Part of the Equation. Loudoun County, Virginia, is a Good example. The County, on the Western Side of the Washington, D.C., Metro area, is Home to Data Center Alley, the World’s Largest Data Center Hhub. Land in this Area was never the least Expensive in the State, and Today it can Sell for an Astounding $6 Million per Acre forDdevelopment. Even then, many Parcels cannot be made Data-Center ready until 2032,due to Ppower Cconstraints.
Historically, Iincentives have not been the Primary Ddraw for Developers in Loudoun County. Site Selection there, and throughout the U.S., involves a Complicated Mix of Available Power, Transmission Ccapacity, Fiber Connectivity, Lland Ccharacteristics, Cooling Requirements, Permitting Ttaxes, Wworkforce Considerations, Security, Economic Predictability and the Ability to Expand. Today, Power Availability is becoming an even more Decisive Factor. Some Developers are Considering Acquiring or Developing their Own Generation, including Power Generated “behind the grid,” separate from Local Grid Connectivity.
Although there is Interest in Developing Data Centers in some Rural Areas of the Southern States and more Remote Areas of the American West, Developers remain Cognizant of Local Infrastructure, Available Workforces and the Ability to Attract Requisite Talent as Development plans play out. The Best Sites are found where Existing Physical Iinfrastructure is already Adequate, Sufficient Wwater is Genuinely Available, New Power Generation can be Added Proportionally, Connectivity, is Strong and the Land-Use Consequences are Compatible with the Surrounding Community. In other Words, the Best Data Center Strategy is to Find the Right Eecosystems.
NYC Wins When Everyone Can Vote! Michael H. Drucker
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