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6/17/2026
WT Staff
 Got water questions? Give us a call at 877-52-WATER (877-529-2837), or email us at info@wtny.us
June 17, 2026 209 pm EDT
New hyperscale, AI data centers are coming to rural USA, where 22.5 million households rely on unregulated and unprotected private groundwater wells
EPA advises rural householders to seek water quality assurances directly from data center developers. For all the water-positive talk from Big Tech companies, the public is pushing back for the right to clean water in America
In late July 2025, news media including WTGA.us reported on brown water flowing from a rural Georgia residential tap. Newton County residents said their private well water changed after a large data center facility started operations nearby.
On May 21, 2026, the US Environmental Protection Agency (EPA) Assistant Administrator for Water told US House Energy and Commerce Subcommittee on Oversight and Investigations, the EPA is dealing with concerns about water sufficiency for new data centers. Not at all surprising, following the second driest January to April since 1895, and increasing reports of groundwater being depleted faster than aquifers can recharge. Upon questioning, the EPA rep claimed no knowledge of water quality complaints related to data centers. The representative from New York, Alexandria Ocasio-Cortez, countered with jars of rust-brown water, allegedly collected from household taps in Morgan County, demanding a response from the EPA.
The story was reported by CBS Atlanta, Yahoo.com and other medias, where residents near Meta's Stanton Springs data center in Georgia are experiencing reduced water pressure from their wells, and damaged home appliances from the rust-colored water. The report mentioned increasing dependence on bottled water for cooking and drinking, with domestic water expenses expected to rise significantly, 33%. (Newton, Morgan, Walton and Jasper Counties converge near the site of Meta Stanton Springs campus, the same data center implicated with the Newton County water quality complaint of last summer.
Indeed, the magnitude of the disruption to water is growing. The majority of new data center projects under construction and proposed for development over the next four years are "hyperscale", meaning millions of square feet, housing acres of electronics, with chips running interactive video games and machine learning processes. Hyperscale facilities require huge tracts of land and a tremendous load of electricity. These heavy-duty processing facilities throw off many times more heat units than the traditional data centers currently operating in urban environments, with a corresponding demand for cooling. Electric generation and cooling require copious amounts of fresh water. For water cooling systems, whether closed loop or evaporation, the water must be replaced, placing a new demand on rural water sources.
As new data centers propose the rezoning of millions of acres of agricultural land, they are moving in on the same fresh water sources supplying rural households domestic water needs, competing with agriculture and other essential industries. According to Pew Research Center, data centers are presently 87% urban, with new developments primarily rural. Hyperscale data center developments are coming to the countryside; rural siting is projected to account for 67% of data centers in the future.
Private wells are not regulated, or protected in the USA.
US EPA estimates 16% of Americans rely on private groundwater wells for their domestic water needs. Approximately 22.5 million households, including private estates and family farms fall outside the service area of licensed public potable water supplies. Private wells are managed by the household owner, who is solely responsible for the safety of the water coming out of the tap.
Sources of potential groundwater contamination have always been outside the control of individual well owners and public drinking water facilities. Flooding, fires and firefighting runoff, mining, oil and gas extraction, agriculture, manufacturing, motor vehicle and other accidents contribute to groundwater contamination on a regular basis. Industrial development planning and permitting procedures have changed to accelerate development across all industries, including that of data centers.
Prior to the expedited permitting of data centers in July 2025, federal and state authorities coordinated efforts to ensure all industries are accountable to the public for protection of water resources. Corporations and individuals operating across all industries have been subject to national and state discharge permits supporting the Clean Water Act. EPA's Toxic Release Inventory provides specialized training, encouraging private corporations to involve management and employees in environmental compliance, voluntarily implementing site-specific spill control plans to mitigate contamination events. To the degree these protective efforts are rushed or omitted, damage to the fresh water resource is expected.
Groundwater aquifers are characterized with a susceptibility rating based on depth to water and the composition of the sediment layers above. The aquifer susceptibility rating is taken into consideration during state permitting processes for new industrial developments. In cases where dangerous spills could occur, or where the industrial water use will compromise the volume available for other users, the proposed development may have to find a more suitable location.
With permitting diligence suspended for new data centers, the risk of negative water impacts fall heaviest on those least equipped to deal with it. In cities and towns, public water treatment plants are designed to handle contaminants in the raw water, whether surface water or groundwater. Regulated water facilities employ professional water technicians around the clock, operating sophisticated filtration equipment, well able to ensure the quality of water delivered to connected households meets National Primary Drinking Water Regulations. Even hazardous material spills impacting a raw water source from time to time can be taken in stride by licensed public drinking water facilities. In rare cases where water quality does not meet safety regulations for a period of time, drinking water advisories are issued to warn impacted residents and businesses. The same cannot be said for private groundwater wells.
Public drinking water facilities are required to publish water quality reports annually, detailing the characteristics of the water source and disclosing any deviations from the Safe Drinking Water Act regulations. Private wells are not required to test water quality on a regular schedule, nor are most private well owners equipped to manage groundwater contamination. The US Environmental Protection Agency (EPA) enforces the Safe Drinking Water Act for public facilities. As private wells are not regulated, the EPA advises private well owners do the work to monitor new industrial developments, and attend public meetings to demand protection from industry.
US EPA says:
"Private well owners are responsible for delivering safe drinking water to their households. The quality and safety of drinking water from private domestic wells are not regulated by the Federal Government under the Safe Drinking Water Act nor by most state governments and laws."
Private well owners are encouraged to seek out the local health department and/or State environmental agency officials to find out the physical and chemical properties of the aquifer that supplies their households. The onus is on the private well owner, to keep up with changes, to stay up to date on potential sources of contamination, including new construction, new industries planning to operate in the area.
EPA advises 16% of Americans, "find out about existing and proposed facilities that may pollute your drinking water. Check the local paper for announcements or call your planning or zoning commission to find hearings or zoning appeals on development, construction or industrial projects. Attend these hearings, planning meetings, or zoning appeals. Ask questions to ensure your drinking water will be protected during construction and operation of a facility. Make sure the project has plans for managing storm water and any wastewater it might produce. Request the project's environmental impact statement to confirm it includes a review of drinking water sources."
Existing AI data centers and negative impacts reported on private drinking water supplies
Meta Stanton Springs Campus located at 100 Move Fast Way in Social Circle, GA. Shovels broke ground in 2018 for the initial project, with a total investment of $750 million. According to a current information sheet from Meta, Facebook's 12th data center (9th in the US) has cost the company $1.5B. The doubling of the 2018 project cost is consistent with reporting by local Covington News in December 2021. A second bond matching the value of the first, $42 million, was issued by the Joint Development Authority for Jasper, Newton, Morgan and Walton Counties to a subsidiary of Facebook, Morning Hornet LLC in 2021. Covington News reports purchase of another 628 acres of land for the second project under development at Stanton Springs, due to open in December 2026.
Meta claims 1300 people were employed during peak construction, with 400 long term employees staying on. 100 grants and scholarships are reported invested in the local area; $4.5 million has gone to local schools and non-profits since 2019, says Meta. It seems the Stanton Springs Campus may be twice the initial size announced. Data Center Maps shows five buildings in operation currently, with none listed under construction. A Google Earth image from late 2025 shows a large area cleared near the existing data center. WT has inquired about the full extent of the facility. No response had been received as of the date of publication.
Meta's Stanton Springs Campus summary information sheet claims, "Our data centers' electricity use is matched with 100% clean and renewable energy, and our global operations have reached net zero emissions. As for water use, the "goal is to be water positive in 2030, where Meta will restore more water than we consume globally." Amazon, Microsoft, Google and Meta have all declared intent to be water positive by 2030.
Meta states in a fact sheet on the Stanton Springs Campus:
"We optimize data center operations globally, driving efficiency and sustainability through design improvements and site-specific solutions. The Stanton Springs Data Center prioritizes on-site water efficiency by:
- Using cooling technology that is significantly more water efficient than the industry standard.
- Reusing water numerous times before discharging it as wastewater.
- Landscaping with native vegetation where possible to reduce irrigation demands.
- Capturing and infiltrating rainwater on site.
- Incorporating water-saving fixtures and technologies within data center facilities.
Given private wells in the area have experienced no water to sludgy brown water, with major media including MSN, CBS, New York Times and Forbes drawing attention to the matter, the public is right to be concerned.
Chattahoochee Riverkeeper reports, "Rural Georgia depends on clean groundwater for economic and public health reasons. Of the more than 10 million people living in Georgia, the University of Georgia estimates that approximately 1.7 million people rely on 681,000 household water wells for drinking, cooking, and bathing. While this estimate represents approximately 17 percent of all Georgians, there is no centralized source of information or data on household groundwater drinking well quality or quantity; and there are limited regulatory measures in place to protect the quality of the well's water source."
Data Center Map lists 253 data centers in Georgia, at various stages of operation, construction and/or planning. In operation currently, 104 facilities, largely based in urban areas, mainly Atlanta. Less than half of these, 43% of these have disclosed their electric capacity, available to the public from Data Center Maps. Extrapolating from facilities with declared electrical capacity, we calculate the average data center in operation in Georgia today offers 37 MW.
Of data centers under construction in Georgia, 13 of 38 disclose their fully-built energy capacity. These facilities due to open in the next year or two are more than three times the capacity of those in operation now: average 117.5 MW. The proposed projects for Georgia are even bigger. The largest proposed hyperscale facility on the list is 12 million sq ft, with corresponding higher energy and water demands.
Of 111 planned or land-banked data centers coming to Georgia in the next five years, 23 have disclosed electric capacity, the extrapolated average is 204 MW.
If all presently proposed and land-banked projects are developed, the total electrical demand of data centers in GA will surpass thirty thousand MW by 2030. According to the US Energy Information Administration, Georgia's total summer electrical output was 39,746 MW in 2024.
It is important to understand, facilities proposed and under construction are mainly rural, where many residents rely on private wells for drinking water. This scenario supports the findings of Pew Research Center, projecting new data centers will be sited in rural areas, bringing the rural data center share from 13% to 67% overall.
Data center developers have agreed to provide their own power. What about water?
Representatives of the biggest tech companies in the USA gathered in Washington, DC in March 2026, to sign a non-binding declaration of energy self-sufficiency. The Ratepayer Protection Pledge made by the biggest data center owners and operators, including Amazon, Google, Meta, Microsoft signed the informal document promising to cover their own energy infrastructure cost, sparing the public any base rate hikes to support data centers. The sentiment is nice, however unenforceable. Natural Resource Defense Council and others point to a report from Synapse Energy Economics showing large load users have driven up household electric bills. States will have to do the work to protect residents from soaring energy bills. Residents may also need to reconsider their engagement with AI, if they do not wish to pay for its room and board.
Business Insider reports 43% of new data center projects are proposed in areas with high to extreme water stress. With drought conditions in the USA at an all-time high, agricultural draws for irrigation are depleting aquifers faster than the recharge rate. Critical low water levels reported in the Oglalla aquifer, extending 174,000 sq mi (450,000 km2) of central USA, from South Dakota to Texas would normally impede new permits for proposed industrial water draws. Instead, new data centers planned for the extreme water stress states of Nebraska, Wyoming, Colorado, Kansas, Oklahoma and New Mexico appear to have a White House hall pass to go right on ahead, no bother about getting a water permit.
Amazon, Google, Microsoft and Meta have made voluntary pledges in their ESG reports and public communications, claiming to be "water-positive" by 2030. The concept is based on off-setting, in practise, the data center can draw down an aquifer to dregs, depleting available fresh water for private wells in the region as long as they invest in streambank erosion projects in a higher profile location of their choosing. The good vibes statements thrown out by hired consultants in reports written for big tech don't hold water.
As an example from the US Big Tech set, Meta's ESG and water use reports contain creative accounting language, not appearing in official geo-hydrological source documents. "Volumetric Water Benefits" is a notional term used to convey positive water vibes to investors in Big Tech stocks. In all our reporting on fresh water in North America, we had not encountered this terminology. Water conservation concepts touted in the Environmental, Social and Governance reports of the tech industry seem to have been created by paid consultants, referencing another paid consultant.
Positive intention statements around water use have not so far convinced the public. Ironically, the public has acquired what is known of data centers' impact on private wells through digital news sources and social media sharing. The majority of Americans are right to be concerned.
Meta's ESG reports make no reference to the official hydrological datasets and trends of the US National Oceanographic and Atmospheric Administration (NOAA). No reference is made to the US Geological Survey (USGS) network of Water Science Centers, with real-time sensors monitoring water quantity and quality in US aquifers, lakes, rivers and streams. There is no mention of US Environmental Protection Agency (EPA), responsible for enforcing the Clean Water and Safe Drinking Water Acts on corporations, owners, executive and employees. Any and all of these have been held to account for contamination of US Waters, prosecuted for crimes against the public fresh water supply.
In the pursuit of economic freedom for the individual, every State must ensure new developments proceed with iron-clad protection for the nation's vital public resources. Where companies have attempted to satisfy the siting and permitting officials by referencing paid consultants, the public is right to demand more credible assurances. Remember, America's private wells are not protected by the EPA.
How hot are we talking here? How much water will it take to cool the data centers?
Hyperscale AI data centers use more than five times more electricity on average than traditional data centers storing our digital documents. The electrical circuits and chips grinding through intense rounds of calculations, processing reams of published information to answer our queries generate more heat, therefore require more energy and chemical refrigerants for chilling, or water for cooling. The true impact of data centers on fresh water is clouded with uncertainty.
The machines themselves calculate a 50 MW data center could use up to 2 million gallons of water per day. As the average new data center proposed in Georgia has an average energy footprint just over 200 MW, we calculate a potential water draw of 800 million gallons per day, over and above what is currently demanded from Georgia's drought-addled aquifers. Considering the existing reports from the counties surrounding a single rural data center campus, the water impact does not look positive for the 111 proposed Georgia data center developments. (locations of proposed and land-banked data centers provided by Data Center Map)
Andrea Marinoni is an Associate Professor in Applied Remote Sensing with the Earth Observation group, Centre for Integrated Remote Sensing and Forecasting for Arctic Operations (CIRFA), Dept. of Physics and Technology, UiT the Arctic University of Norway. Marinoni and his colleagues released a study for preliminary review in March 2026, showing the increase in ground and air temperature around 6000 rural, hyperscale AI data centers worldwide. CNN reported the heat island effect, averaging 2 degrees Celsius or 3.6 degrees Fahrenheit, up to 16 F, felt up to 6 miles away, impacting 340 million people.
Data centers coming to rural America have been excused from the standard permitting process since July 2025
The issue is expanding across a dangerously dry country much faster than negative impacts can be anticipated, let alone mitigated. White House Executive Order, "Accelerating Federal Permitting of Data Center Infrastructure", allows data center speculators and developers to proceed with construction before completing the standard construction permitting process. The shortcut around permitting came right around the time of the first media reports of brown tap water near the Meta Stanton Springs Campus.
WT has direct experience with the accelerated permitting of data centers. In January 2026, WTLA.us took a call from the site of Meta's "Hyperion" data center, under construction in Richland Parish, LA. The caller was looking for potable water information, including where to connect, and the chloride content of the water. It seemed the project had been sited without consideration of the water sufficiency or quality.
US Geological Survey Lower Mississippi-Gulf Water Science Center keeps detailed records of water use in Richland Parish. Groundwater aquifers supply thirteen licensed public drinking water facilities serving approximately twenty-five thousand residents plus commercial connections. Outside the areas served by licensed potable water facilities, there are many households with private wells relying on the Mississippi River alluvial aquifer. This water supply also supports agriculture and other industrial withdrawals, the total removals being 41.73 million gallons per day, or 15.2 billion gallons per year. According to an AI source, Meta's 4 million-square foot data center under construction in Richland County could use 2 billion gallons of water every year. This draw-down represents a considerable increase in water demand, raising concerns for water sufficiency and quality in a good year. What is to happen during a drought season like 2026? The public is right to ask State water authorities, which industry or users will go short of potable water, if push comes to shove?
See the WTLA.us report on River Road Water System, here.
Public response: four out of five Americans have something to say about the development of new AI data centers in their back yards.
Pew Research Center has released results of its first public survey on AI data centers, polling 8512 adults in late January 2026. Three out of four respondents report having awareness of data centers, from a great deal of information to a little knowledge. An order of magnitude, almost ten times more US adults believe data centers will have a detrimental impact on the environment than those remaining neutral or indicating belief of a positive environmental impact.
More of those surveyed anticipate higher home energy costs will come along with AI data center development (38% vs 6%), and five times more respondents believe data centers will degrade the quality of life for those living nearby (30% vs 6%). PRC found most people believe data centers will have a positive impact on jobs and tax revenue, however, these potential benefits are less likely to be expressed.
These survey findings are consistent with the groundswell of opposition to new data center proposals across the USA. In late March this year, a Senate Bill was tabled to freeze new data center developments, at least long enough for the public and local decision makers to properly assess the true environmental impact of proposed projects. S.4214 - Artificial Intelligence Data Center Moratorium Act will hold off construction of new data centers until legislation can be enacted to safeguard the public, including protection of the public trust, clean water for drinking and recreation.
A Level 1 Drought State of Emergency was declared by the State of Georgia in April. January to April 2026 is the second driest winter on record since 1895; according to NOAA's National Integrated Drought Information System (NIDIS), 83% of Georgia residents are presently impacted by the drought. Residents and businesses are urged to conserve water, yet more than 100 new data center developments in Georgia alone, race to break ground. The activity is similar in other states, equally burdened by drought.
In such times of water scarcity, where does the priority lie? Data centers compete with private wells, municipal potable water demand, agricultural and other industrial requirements. When push comes to shove, who gets the clean water? The answer may be up to you.
AI is the science of making machines capable of learning to perform tasks that traditionally required human intelligence. AI is emerging as a general-purpose technology, much like electricity.
International Energy Agency report, Energy and AI
If respect for land and water is linked to respect for humanity, it remains to be seen how much respect for humanity will survive the rise of AI in our midst. Each person requires the same amount of water and energy to maintain life and health, whether we think for ourselves or not. Now we are challenged to share our potable water resources with a digital version of ourselves, supported by hot circuits in a data center somewhere, possibly in another country where our most intimate and private information has no protection. Does Planet Earth have enough fresh water to support a population of 14 billion, accounting for humanity and our digital twins?
International human rights laws adopted in 1948 promise to defend all living men and women from trespass by their governments. It is important to note, our human right to life and liberty can be waived or voluntarily ceded to private interests. To the extent the global population has embraced the digital age, we accepted the terms, clicked to agree to entrust our personal details to a few corporations, run by a handful of ultra-rich men. According to Samuel Greengard, humanity has been rewired for the digital age, where the digital and physical realms have been grafted together. MIT Press Essential Knowledge Series 2015 publication The Internet of Things very accurately projected the trajectory of this shift. All information is now digital, and one must truck digital or be left behind.
Try walking up to a sports venue to buy tickets, you cannot. Fans must have a smart phone, credit card and a TicketMaster account. Digital is now the only path to fandom, in spite of regular, catastrophic data breaches exposing credit card details to hackers. The Royal Bank of Canada is not the only charter financial institution that cannot and will not verify client identity in person at the branch. Before engaging in the most basic financial transaction, clients must present a digital ID, vetted off-site at a data processing center. We checked, there are no alternative pathways open any more and the Bank Act calls this step "administration", not covered by the regulations for accessibility and fair treatment.
There are 8.3 billion humans residing on the planet, says the LIVE Worldometer. Google estimates 8.31 billion mobile phones (as of January 2026), not to mention tablets and personal computers. The information highway connecting all these devices is composed of wire and fiber optic cable, with switches and routers handling our thoughts, images and experiences back and forth, moment by moment, the average person picking up a device every five minutes of our waking hours. The transmission lines running in and out of the storage and processing facilities have not expanded at the rate hyperscale data centers are planned. Bear this in mind for the rest of the read. (Note, we present these ideas in the simplest text format, specifically to minimize loading on the system.)
Surveying the subject from high above, we see the bottleneck. With 100% of our vital information in digital format, consider now the square footage and energy consumption of the storage and processing equipment and facilities supporting our digital lives. It is looking like a city on an island, designed and built for millions of residents. Notice here what the tech hardware community understands and talks about among themselves. Each hyperscale data center is an island accessed by the routing network, that route appears more like a single lane, covered wooden bridge.
File compression has reached a tactical maximum, with no next level solution in sight. Line loads are very near maxed now, says an anonymous tech developer, sharing the sentiments of seasoned others that gave us the equipment and architecture of transmission of our streaming videos and snaps of dinner. When we asked about the capacity of the network's switches and routers to handle the incoming tsunami of proposed data processing centers, the answer did not come in English, per se. It came in the form of humanity, the universal language. Laughter.
Very real, physical constraints on digital traffic is the limiting factor.
Until 2023, data centers have been little more than storage vaults for essential digital records. Governments, institutions and industry have maintained data centers, mostly in urban centers to maintain citizen health, financial, banking and insurance records. These were at one time secure from on-line incursion, connected only to the necessary users via peer to peer transmission infrastructure. As secure networks have given way to connected networks, that connectivity extends broadly to households, housing everything from security camera footage to fixtures and appliances settings. As of now, nothing is secure, all data moving on the open world wide web can be intercepted. It is just a matter of time before encrypted messages can be opened. The only security comes in unplugging from the network.
See our report on cybersecurity, here.
That which cannot be physically disconnected remains exposed. We have accepted the exposure of our most sensitive bits to absolutely any actor that wants a peek. We have eagerly digitized our memories in photos and videos, accepting our personal lives stored in the "cloud", read, someone else's private facilities. Having our personal digital files backed up is essential, though the more secure option is hardware that you own and control, housed in a fire-proof safe under your own lock and key. Now that most of society has acquiesced to using equipment owned and controlled by unknown others, with machines trained to think and respond in our place, here we are contemplating the cost of the energy and water demand.
The Guardian published a report recently suggesting the Information and Services sector uses less water and energy resources than food production and manufacturing. The author concludes, clearly, we need to shift away from primary industries like food production, with the vast majority of effort on information and services.
This makes sense for water and energy conservation, if humanity is optional. We used to evaluate and allocate resources in support of humanity. If Maslow was here today, what would that pyramid of need look like, now? How many of the 8.3 billion humans alive today, if stranded on a desert island, would choose clean water over connectivity? The hierarchy of needs is different today, as Samuel Greengard surmises in the The Internet of Things, our brains have been rewired. Generations have grown up connected, losing faculties by the minute as machines train to take over our natural processing capacities, note that our lives require the same about of clean water and energy to maintain life, whether we do our own thinking, or not.
Thermal Energy shed from a data center is valuable.
Amid the talk of data centers and fresh water consumption for cooling, there is a golden lining. Heat units shed from processing centers can be diverted heat domestic water in a school, hospital, hotel or residential neighborhood. It is not the case that heat shed from the servers must necessarily heat up the ground and air around the DC, in water-stressed regions.
Lyle Fabian has been pulling fiber for decades, installing switches in ground stations mobilizing data around Canada's north. The founder of Katlotech has a plan. Siting data centers in consistently cold regions makes the most of the endless polar winds for cooling, and the heat generated by machine code learning can be routed to heat buildings, where people live, study, work and play.
The northern siting solution makes more sense than undersea or outer space data centers. The down-side for the US Tech giants is loss of their grip on personal data. Canada is moving at the speed of government to restrict the ability of big tech to invade personal privacy, don't let the social media propaganda fool you, Bill C-22 is a day late and a dollar short to close the door on foreign governments' free access to private citizens comings and goings.
The US Cloud Act assures the United States government access to anything shared or housed by the digital technology corporations. When those corporations through their attractive apps gain access to Canadian citizens private lives, the US government gains access by proxy.
Canada has already been invaded by the USA and successfully defended (by Indigenous forces, by the way). It appears Indigenous northerners may be the ones to secure the digital sovereignty of the north, while proposing the best solution for data center siting seen to date.
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