Electricity, water, and higher bills? Is this the price we pay for AI development?
Today, it is hard to find anyone who hasn't encountered artificial intelligence technology. Even if we have missed the headlines of business news outlets, we have certainly stumbled upon AI-generated videos on TikTok or Instagram. Behind this widespread digital noise, which might amuse us on a daily basis, lies a brutal and costly reality. In 2025 alone, tech giants allocated around $400 billion to AI infrastructure. This is no longer gradual expansion and development, but a complete all-in bet on a single card called "data centers."
Currently, more capital is flowing into the construction of these digital factories than into residential housing in many regions of the world. On paper, it looks like unstoppable growth, yet the market is preparing for a collision with physical limitations. The data center boom is raising—and for good reason—growing social concerns, ranging from gigantic energy consumption and water supply disruptions to a tangible impact on utility bills. Will this massive race ultimately improve our quality of life, or, on the contrary, will Instagram's AI slop become a costly burden for us?
What is an AI data center?
Before we evaluate whether billion-dollar investments will translate into higher electricity bills and a lack of running water, we must take a step back. To understand where this gigantic appetite of data centers for water and energy comes from, and why investors have rushed into this race, it is worth grasping what this digital colossus actually is and how it differs from the server rooms we have known so far.
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Think of a traditional data center as a digital warehouse: it serves to store files, host websites, and maintain basic corporate software. It is functional, but it does not "think." An AI data center, on the other hand, is a factory of high-performance engines.
These facilities are densely packed with thousands of advanced graphics processing units (GPUs)—chips designed to solve billions of mathematical problems simultaneously using matrix multiplication. Because these chips generate massive amounts of heat and require gigantic voltage, these buildings resemble industrial power plants more than office spaces. If a regular data center is a library, an AI data center is a super-powered brain running at full speed, consuming vast amounts of electricity to transform raw data into intelligence.
Why did this topic explode only now?
The first true facilities dedicated entirely to machine learning began to emerge around 2016, when Google deployed its proprietary TPU chips, and Microsoft built a giant supercomputer with over 10,000 GPUs for OpenAI. For years, however, this infrastructure developed quietly, in the shadows and away from the public eye.
Everything changed with the debut of ChatGPT in late 2022. Suddenly, the technology ceased to be an abstract concept from technical laboratories and became a tool of everyday use for hundreds of millions of people. This avalanche of interest forced an unprecedented race. The AI Empire began to grow, the demand for computing power exploded overnight, and tech giants started massively constructing buildings with extremely high electricity and cooling requirements.
This rapid leap caused the topic to move beyond industry business portals and into public debate. People began to realize that every generated image or prompt sent to a language model leaves its very own physical footprint on Earth.
The bill for Artificial Intelligence: Water, electricity, and neighboring a giant
Today, social concerns are no longer just about the mere existence of artificial intelligence, but about the cost we bear as a community: the strain on local power grids, the consumption of millions of liters of drinking water to cool servers, and the potential impact of these factors on the increase in our daily bills. The question, "Is an AI center being built in my neighborhood?" is no longer surprising, as residents increasingly notice that the digital cloud requires thousands of liters of drinking water daily and massive access to the power grid.
The biggest concern is the fact that vast amounts of water are used to cool servers handling highly demanding AI tasks. With continuous intake, this leads to a drop in groundwater levels and the drying out of surrounding areas. Instead of promises of "modern jobs," local communities see the specter of dry taps and overloaded electrical grids.
This has caused tech giants to encounter a level of resistance they had never known before. Residents are beginning to actively protest and block investments:
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USA (Virginia) and the Netherlands: In the so-called "data center valley" in the state of Virginia and in cities in the Netherlands, pressure from residents and activists has led to the introduction of temporary moratoriums on the construction of new facilities due to the threat to the local water and energy balance.
Key data centers in the USA
Below is a compilation of 50 key data centers in the USA, prepared based on data from the datacente.rs platform:
|
Data center name |
Company |
White space |
Gross power |
|
120 E. Van Buren |
Digital Realty Trust |
16200 m² |
33840 kW |
|
12001-12245 North Freeway |
Digital Realty Trust |
2787 m² |
25075 kW |
|
17836 Gilette Avenue |
Cyxtera |
10908 m² |
19500 kW |
|
2121 S. Price Road |
Digital Realty Trust |
16000 m² |
51000 kW |
|
2323 Bryan Street |
Digital Realty Trust |
14500 m² |
24247 kW |
|
2820 Northwestern Parkway |
Digital Realty Trust |
3716 m² |
50000 kW |
|
3 Corporate Place |
Digital Realty Trust |
2323 m² |
26000 kW |
|
350 E Cermak Rd. Chicago |
Digital Realty Trust |
35000 m² |
100000 kW |
|
350 East Cermak, 4th floor |
Cyxtera |
3465 m² |
18000 kW |
|
365 S Randolphville |
Digital Realty Trust |
22000 m² |
22000 kW |
|
43881 Devin Shafron Dr |
Digital Realty Trust |
5500 m² |
16000 kW |
|
43940 Digital Loudoun Plaza |
Digital Realty Trust |
12000 m² |
44000 kW |
|
44060 Digital Loudoun Plaza |
Digital Realty Trust |
8500 m² |
32000 kW |
|
44100 Digital Loudoun Plaza |
Digital Realty Trust |
6500 m² |
25000 kW |
|
4650 Old Ironsides Drive |
Cyxtera |
8211 m² |
18100 kW |
|
4700 Old Ironsides Drive |
Cyxtera |
6583 m² |
18100 kW |
|
904 Quality Way |
Digital Realty Trust |
3716 m² |
20000 kW |
|
9110 Commerce Center Circle |
Cyxtera |
764 m² |
21900 kW |
|
9180 Commerce Center Circle |
Cyxtera |
4772 m² |
21900 kW |
|
9333, 9355 & 9377 Grand Ave. |
Digital Realty Trust |
16723 m² |
60000 kW |
|
Atlanta Metro |
Quality Technology Services (QTS) |
49331 m² |
100000 kW |
|
Aurora |
CyrusOne |
9941 m² |
184000 kW |
|
Austin |
vXchnge |
4500 m² |
26000 kW |
|
Austin 3 |
CyrusOne |
11148 m² |
18000 kW |
|
Beaumeade II |
DBT DATA |
- |
20000 kW |
|
Chicago |
ServerFarm |
12449 m² |
38000 kW |
|
Chicago 2 (North Railroad) |
Ascent Corp |
23225 m² |
54000 kW |
|
DeKalb |
Meta |
33723 m² |
60000 kW |
|
East Twin Cities Data Center |
DataBank |
4645 m² |
20000 kW |
|
Houston 2 |
Data Foundry |
32516 m² |
60000 kW |
|
Infomart Dallas |
Equinix |
48310 m² |
50000 kW |
|
Intergate.Manhattan |
Sabey Data Centers |
278709 m² |
18000 kW |
|
Intergate.Quincy |
Sabey Data Centers |
37904 m² |
60000 kW |
|
Intergate.Seattle-East |
Sabey Data Centers |
111484 m² |
77000 kW |
|
Intergate.Seattle-West |
Sabey Data Centers |
16072 m² |
77000 kW |
|
Irving |
Quality Technology Services (QTS) |
27128 m² |
120000 kW |
|
Las Vegas 7 |
Switch |
23000 m² |
100000 kW |
|
Lenoir |
|
- |
30000 kW |
|
McClellan Park/Sacramento |
Advanced Data Centers |
21367 m² |
50000 kW |
|
Montgomery Country |
Amazon |
- |
138000 kW |
|
Moses Lake, Washington |
ServerFarm |
12635 m² |
24000 kW |
|
New Jersey |
Iron Mountain |
19788 m² |
48000 kW |
|
North Cincinnati |
CyrusOne |
8826 m² |
16000 kW |
|
North Dallas Data Center |
DataBank |
3902 m² |
20000 kW |
|
Norwalk |
CyrusOne |
6968 m² |
16000 kW |
|
Phoenix |
H5 Data Center |
5574 m² |
30000 kW |
|
RACK59 Data Center |
RACK59 |
3500 m² |
25000 kW |
|
Raleigh-Durham |
CyrusOne |
9755 m² |
50000 kW |
|
Reno |
Switch |
65000 m² |
130000 kW |
|
San Antonio 1 |
CyrusOne |
4088 m² |
20000 kW |
|
Sarpy (Papillion) |
Meta |
80000 m² |
320000 kW |
|
Savvis CH |
Cyxtera |
15879 m² |
25600 kW |
|
Schaumburg |
CBRE |
- |
40000 kW |
|
Somerset |
CyrusOne |
9987 m² |
50000 kW |
|
South Hill Data Center 2 |
The Benaroya Company |
- |
17500 kW |
|
Sterling 5 |
CyrusOne |
92903 m² |
105000 kW |
|
T5@Charlotte |
T5 Data Centers |
3484 m² |
18000 kW |
|
Totowa |
CyrusOne |
4645 m² |
16000 kW |
|
W Capovilla Ave 5225 |
Cyxtera |
40529 m² |
315000 kW |
What does the distribution of data centers in the US look like?
The map clearly indicates that American digital infrastructure is heavily consolidated around a few key technological and financial hubs. The East Coast, with the New York area and Northern Virginia, remains the absolute leader with as many as 322 facilities, followed closely by California (158) and Texas (170). Industrial and logistics zones in the Midwest also play a significant role, including the Chicago area with 127 facilities and Ohio with 148. It is evident that investments are concentrated in locations with strategic access to fiber-optic infrastructure and massive power reserves, bypassing less urbanized central states.

What does an AI center look like?
An AI data center is essentially a self-sustaining city. Although its primary purpose is computation, the facility is defined by its extreme auxiliary infrastructure. These are not open-space offices; they are high-security fortresses featuring tall fences, anti-ramming barriers, and multi-factor authentication (including biometrics and badges) at every entry point. Inside, thousands of servers sit within industrial-grade enclosed cages, connected by miles of high-speed fiber optics and powered by massive local energy distribution systems and battery banks that ensure "thinking" never stops.
The most striking feature of a modern AI data center is how it addresses the physical limits of hardware. As GPU density increases—with some server racks now demanding up to 600 kW of power—traditional air cooling is no longer sufficient. To prevent silicon from melting, these facilities have transitioned to direct liquid cooling, where coolant is pumped directly to the chips to dissipate heat efficiently. This shift has transformed these buildings into heavy industrial plants requiring high-capacity electrical substations and, in many cases, rows of backup diesel generators to guarantee uninterrupted power delivery under the continuous, massive loads required for 24/7 inference.
Which US data center is the largest?
The answer depends on how "size" is defined whether by power capacity or floor area:
-
By computing power capacity (for an AI footprint): Currently, the largest complex dedicated strictly to artificial intelligence is xAI's Colossus in Shelby, Tennessee, with a target capacity exceeding 1.5 GW.
-
By single building size: The title belongs to Switch's TAHOE RENO 1 facility in Nevada, spanning a massive 1.3 million square feet (approximately 120,000 m²).
Are we facing an AI Boom without profits?
Despite all the enthusiasm surrounding artificial intelligence, a troubling consensus is growing within the industry: most companies have still not figured out how to generate stable and predictable revenue from it.
At this point, the undisputed winners remain infrastructure providers and chip manufacturers. For them, the mere fact that tech companies are racing to purchase hardware is enough; they do not need the end applications to generate a return on investment (ROI). This creates a dangerous feedback loop: spending increases exponentially while the business case on the software side remains in the stage of promises.
Currently, the entire AI infrastructure operates within the tightly sealed framework of the so-called AI Bubble. The market values new ventures not based on generated income, but on pure market speculation and the fear of missing out (FOMO). Experts are increasingly referring to it directly as a classic investment bubble. Furthermore, allegations are emerging that the current AI model relies on multi-layered ties between tech giants and an unprecedented physical drain on valuable natural resources (energy and water), which so far has failed to deliver proportional added value to the economy or society.
The contradiction at the heart of the boom
Coupled with this financial speculation is another glaring contradiction. At the very moment giants announce new multi-billion-dollar investments, a significant portion of data center construction projects is experiencing severe delays or being quietly scaled back. Some never progress beyond the early earthwork stages.
If demand is supposedly exploding, why is the infrastructure failing to keep pace? Part of the answer lies in marketing. The capacity announced in the media sounds impressive, but headlines like "under construction" cover everything in practice from an almost finished facility to an empty plot with a poured foundation. The gulf between what was promised to investors on paper and what actually operates and generates revenue is wider today than ever.
Summary
The AI data center boom combines features of a digital breakthrough with market speculation, yet the scales are tipping increasingly toward an investment bubble fueled by the fear of missing out (FOMO).
On one hand, it represents a visionary technological leap that builds the foundation for future innovation. On the other hand, the current pace of expenditure is colliding with a harsh reality. The true constraint is no longer the availability of GPU chips, but physical, finite resources. The main bottleneck of the entire system has become energy infrastructure: transformer shortages, a lack of grid connections, and severely constrained electricity and water supplies. Consequently, fully constructed facilities stand empty waiting for the grid to catch up, while new projects are routinely postponed.
In parallel, uncertainties surround the profitability of the technology itself, and the actual business value of AI is growing increasingly uncertain. Instead of stable profits, the visible model is driven by massive resource consumption without proportional added value. This stands in sharp contrast to the concept of a circular economy: rather than heat recovery, resource reconfiguration, or energy reuse, the AI production line currently functions on a model of extensive, linear depletion. As long as the construction of "digital factories" outpaces power grid capacity, sustainability principles, and actual application revenue, the entire industry remains on exceptionally thin ice.
Sources:
"The $400B AI Boom is real - but power bottlenecks and overbuilding threaten to redefine the global data center landscape" - Global Data Center Hub, October 18, 2025
Data Center Expansion in Virginia: Closing critical gaps for informed water planning and permitting, 2024-2025
xAI Supercomputer - Memphis & The Colossus Data Center Cluster, Wikipedia
Global & U.S Data Center Directory & Technical specifications, continually updated dataset (2024-2025)


