The Future of Data Centers
A Straight forward Look at the Concerns, the Context, and the Facts of Data Centers
Artificial Intelligence
&
Data Centers
The less visible story is equally important.
Setting the Stage
A complex conversation deserves complete information
The debate over data centers is getting louder, but the facts aren’t keeping pace.
Most people have never thought about data centers. Yet, they’ve thought about their email, their bank accounts, their Netflix queue, the 911 call that saved a neighbor’s life, and whether their paycheck clears on time. Every transaction, every text, every emergency call, even the basic infrastructure that we take for granted in our daily lives, and all of it runs through a data center.
Hardly a week passes without a new round of headlines: communities pushing back on zoning approvals, politicians making data centers a campaign issue, and local news stories warning about power grids and water supplies. In many cases, these concerns are spreading faster than the facts behind them.
Here’s the reality: Yes, data centers use energy and resources. So does every hospital, office building, and shopping center. The difference is that data centers are the backbone of our modern digital lives — and all of us are demanding more every day.
The goal here isn’t to score points or assign blame. The overall landscape is changing faster than anyone anticipated, and the questions communities are asking deserve more than talking points. This is a complex moment for everyone involved, including utilities, regulators, legislators, operators, and the neighborhoods where this infrastructure lives.
We want to put honest, accurate information on the table and work through it together.
No Banking,
No Cell Phone,
No Internet,
No TV…
what is a poor boy to do?
IF DATA CENTERS GO DARK
What Would Hapen ?
- 911 dispatch and emergency routing would be compromised • Pharmacies could not fill prescriptions
- Medical devices and monitoring systems would go offline
- Power grid monitoring and load balancing systems would be impaired
- Water treatment and distribution systems could lose automation • Utility outage reporting systems would be unavailable
- Flights would be grounded • GPS navigation systems would become unreliable or unusable
- Traffic management systems (smart signals) could fail • Gas station pumps would not function
- Rideshare services (Uber, Lyft) would stop operating • Grocery and retail supply chains would stop communicating
- Credit and debit card transactions would fail (in-store and online), and ATMs would be unavailable
- Payroll processing would stop • Tax systems and benefit disbursements could pause
- Automatic bill payments and banking would stop • Email systems would go offline
- Stock markets and trading platforms would halt • Cloud-based collaboration tools (Teams, Slack, etc.) would fail
- Online education platforms would go offline • Home security systems would go dark
• Social media platforms would be inaccessible • Streaming services (TV, music) would not work
BY THE NUMBERS:
THE DIGITAL WORLD WE’VE BUILT
• There are currently 7.4 billion smartphones in use worldwide
• There are over 21 billion connected IoT devices worldwide
• The average global user spends 18 hours and 36 minutes using social media each week
• Global e-commerce shoppers’ sales totaled $6.8 trillion in 2025
• Google processes an estimated 8.5 billion searches every single day.
• YouTube Shorts average over 200 billion daily views — cat videos included
Who’s Really Driving Energy Demand
The surge in energy demand making headlines isn’t coming from data centers. It’s coming from all of us, and from the AI revolution that’s accelerating everything. Here’s what that actually means for your electricity bill, the power grid, and the infrastructure debate that isn’t going away anytime soon.
A Day Without Data Centers
Imagine every data center goes quiet for 24 hours.
Not a disaster.
Not an attack.
Just an experiment for one day.
Your alarm doesn’t go off. Your commute navigation goes dark. The coffee app won’t load. Traffic lights aren’t working. At the office, the shared documents are inaccessible, the video call won’t connect, and cash is suddenly everyone’s only option at lunch.
Hospitals must work from paper. Flights are grounded. The 911 dispatch system is running on backup protocols. Your bank app is offline, and so is everyone else’s.
By dinner, the streaming services are unavailable, the food delivery app is down, and your smart home has forgotten everything it knows about you.
Twenty-four hours. That’s all it takes to see something clearly: Data centers don’t exist to consume resources. They exist because we consume services. Every single day. Every one of us.
China Telecom’s Inner Mongolia
The impact of this massive data hub on the industry cannot be overstated. It is a game-changer in the world of data centers and has attracted major clients such as IBM, HP, and Dell
Its cloud computing data center, call centers, warehouse, offices, and living quarters make it a self-contained ecosystem, providing everything a business needs to operate in the digital age
It covers a mind-boggling 10,763,910 square feet and costs a whopping $3 billion. Consuming a staggering 150 MW of power.
Its cloud computing data center alone has a capacity of 50,000 servers, making it one of the most powerful computing facilities in the world.
The United States is definitely behind.
Data center cooling systems
As data centers get hotter, optimal end-to-end efficiency is critical. That’s why data center cooling solutions span the thermal management chain – from chip to ambient, built by some of the world’s most trusted brands. New technologies such as magnetic bearings are pushing the boundaries of operating temperature ranges.
Efficiency
These new systems use up to 40% less power, require 25% less connected load, and use no water, with cooling that can achieve PUE ratings of around 1.2* and WUE ratings of 0L/kWh.
Largest in the United States. 315 acres

Microsoft announces 'world's most powerful' AI data center
315-acre site to house ‘hundreds of thousands’ of Nvidia GPUs and enough fiber to circle the Earth 4.5 times
It uses closed-loop water cooling, which the company suggests will have “zero water waste,” with all of the water supplied once, at construction. In fact, Microsoft says it’s the second-largest water-cooled chiller plant on Earth. The data center’s storage systems alone are “five football fields” long, with 1.2 million square feet in three buildings to house “hundreds of thousands” of Nvidia GB200 and GB300 GPUs.
In comparison to xAI’s Colossus, which uses over 200,000 GPUs and 300 megawatts. Just last year, Microsoft added over 2 gigawatts of new capacity – roughly the output of 2 nuclear power plants.
Your Digital Day, Powered by Data Centers
Every tap, swipe, and transaction
you make runs through one
The alarm on your phone goes off. Data center. You check the weather. Data center. You scroll through the news, fire off a few emails, and order coffee through an app on your way out the door. Data center. Data center. Data center.
On your commute, your navigation reroutes you to avoid an accident in real time. At the office, you jump on a video call, pull up a shared document, and process an invoice. You grab lunch and pay with your phone. Data center. Data center. Data center. Data center.
On the way home, you stream a podcast. Your kid’s school sends an alert through its parent app. You check your bank balance, order dinner, and settle in for a show. Your smart thermostat adjusts the temperature before you even think about it.
Somewhere across town, a hospital is pulling up patient records. A bank is processing thousands of transactions. A 911 dispatcher is routing emergency calls. None of it works without the same infrastructure running quietly in a data center.
By the time you fall asleep scrolling through social media, you’ve touched data center infrastructure thousands of times without thinking about it once.
ELECTRICITY
The Many Reasons Your Electricity Bill Has Gone Up
Rising electricity costs have many causes. Data centers are just one part of a much larger story
Electricity rates are established by utilities based on infrastructure costs, generation expenses, and regulatory requirements, then approved by state regulators. Data centers purchase power at rates determined by the market or state regulators, just like any other large commercial customer. They don’t set rates. They pay them.
What is driving electricity demand higher is the digitization and electrification of everyday life. Streaming, cloud storage, e-commerce, remote work, electric vehicles, and AI are pushing demand for digital services higher. That requires more infrastructure and more power. Data centers aren’t the cause of rising energy costs. They’re a reflection of how much the world depends on the services running inside them.
The country needs more power. It also needs smarter, more modern ways to move it. That’s not a data center conversation. It’s a national energy conversation that is decades overdue.
Aging equipment replacement infrastructure
Natural gas prices rose 56% in 2025
- Natural gas prices rose 56% in 2025. After Russia’s invasion of Ukraine, Europe and Asia began competing for liquefied natural gas, driving U.S. exports up, tightening supply, and increasing prices
- Local and state policy costs — including taxes, mandates, and clean energy program fees — are passed directly to ratepayers.
Rate increases are real,
and the frustration behind them is understandable.
Aging equipment replacement infrastructure
- Utility infrastructure spending has risen sharply in recent years, driven by aging equipment replacement, wildfire and weather mitigation requirements, grid hardening, the cost of connecting new generation sources to population centers, and other factors.
A Lawrence Berkeley National Laboratory analysis found that large-load growth from data centers likely contributed to lower electricity rates on average through 2025
Local and state policy costs
- Growing overall electricity demand from consumers, EV adoption, home electrification, and industrial reshoring is straining the grid
- Extreme weather events have added significant grid hardening costs across multiple regions.
Data centers are part of a much larger story — one that utilities, regulators, and policymakers have been navigating long
before the current wave
of data center development.
Inflation across labor, materials, and construction has driven up
- Inflation across labor, materials, and construction has driven up the cost of nearly every grid investment.
- Data centers, as infrastructure for the digital economy, can be counted among these drivers
PG&E projects that data center growth could reduce average household bills by up to 2%
Power Has to Come from Somewhere
Understanding how data centers pay for the energy that keeps the digital world running
Data centers consume energy to run the applications and services that businesses and consumers depend on to operate. Hospitals managing patient records. Utility providers managing community power and water. Banks processing transactions. Schools managing parent and student communications. Retailers running e-commerce platforms. Streaming services delivering entertainment to millions. Social media platforms connecting billions of users worldwide. These aren’t frivolous applications. They’re how modern organizations serve their customers and communities.
Understanding how data centers consume the energy that keeps the digital world running
Data centers consume energy to run the applications and services that businesses and consumers depend on to operate. Hospitals managing patient records. Utility providers managing community power and water. Banks processing transactions. Schools managing parent and student communications. Retailers running e-commerce platforms. Streaming services delivering entertainment to millions. Social media platforms connecting billions of users worldwide. These aren’t frivolous applications. They’re how modern organizations serve their customers and communities.
Those organizations put their infrastructure in data centers because that’s where the computational power, cooling, and security are built to operate at scale. Who uses those services? You do. Everyone does.
The business model varies by market. In regulated states, data centers pay standard commercial or industrial rates set by utilities. In deregulated markets, they negotiate rates competitively. Either way, they pay for what they use, and the relationship between large commercial loads and residential rates is more nuanced than most headlines suggest.
Check out how people are using
DATA CENTERS
Most people know the everyday story of data centers: the emails, streaming queues, or navigation apps running quietly in the background. Yet, that’s only part of what’s happening inside them.
“In Health & Medicine”
• Using molecular simulation to accelerate cancer drug discovery, helping bring promising new treatments to human trials years faster than traditional research methods allow.
• Modeling the spread of infectious disease in real time, including national-scale COVID-19 simulations that gave federal and state policymakers the data they needed to make critical decisions during the pandemic.
Create Better
“In Climate & Environment”
• Running the supercomputer models behind hurricane forecasts that give coastal communities days of advance warning, with accuracy improvements saving an estimated $2 billion per landfall since 2007….
• Generating the long-range climate projections that help scientists, city planners, and policymakers understand and prepare for sea-level rise, extreme heat, and shifting weather patterns.
Cable Room
“Scientific Discovery”
• Enabling materials science research at the atomic level, including simulations of entirely new materials that could be stronger than diamond and have applications across aerospace, medicine, and clean energy.
Cable Room
“Energy and Grid Research”
• Supporting more than 425 energy research projects in a single year, including work to optimize how renewable energy is integrated into the grid and improve the efficiency of energy storage technologies.
• Supporting federal initiatives like the Department of Energy’s HPC for Energy Innovation program, which uses supercomputing to improve energy efficiency and accelerate clean energy development.
Who’s Really Driving Energy Demand?
Spoiler: It’s all of us.
The surge in energy demand making headlines isn’t coming from data centers. It’s coming from all of us, and from the AI revolution that’s accelerating everything. Here’s what that actually means for your electricity bill, the power grid, and the infrastructure debate that isn’t going away anytime soon.
Emails, streaming queues, or navigation apps are only part of what’s happening inside Data Centers.
Most people know the everyday story of data centers: the emails, streaming queues, or navigation apps running quietly in the background. Yet, that’s only part of what’s happening inside them.
Not All Data Centers Are the Same
SEVEN DIFFERENT TYPES
When communities debate data centers, they often picture the same thing: a massive, power-hungry industrial facility with little regard for its surroundings. The reality is considerably more varied.
Data centers range from the hyperscale campuses built by global technology companies to handle billions of daily interactions to the smaller, specialized facilities.
Understanding the differences matters
“Edge Data Centers”
An edge data center is a smaller, localized facility positioned close to the people and businesses it serves rather than in a centralized hub. By processing data closer to where it is generated, edge facilities reduce the lag time (or latency) that affects applications requiring near-instant response, such as financial transactions, autonomous vehicle operations, real-time manufacturing systems, or remote medical monitoring.
“Multi-Tenant Colocation Data Center”
A colocation data center is a shared facility where multiple businesses house their servers and networking equipment under one roof, rather than building and maintaining their own infrastructure. The colocation provider supplies the physical space, power, cooling, and security, while each customer manages its own equipment.
This is the model DataBank operates, and it serves a wide range of organizations, from regional businesses to global enterprises looking for reliable, scalable infrastructure without the cost and complexity of running their own facilities.
“Enterprise Data Center”
An enterprise data center is a private facility owned and operated by a single organization to support its own internal computing needs. Unlike colocation or cloud facilities, these serve one company exclusively and are typically located on or near the company’s own campus.
“Cloud Data Center
A cloud data center delivers computing resources, storage, and applications over the internet on a pay-as-you-go basis. Rather than owning physical hardware, businesses and individuals access what they need remotely and scale up or down as demand changes. Amazon Web Services, Microsoft Azure, and Google Cloud are the most recognized providers of this model.
Who’s Really Driving Energy Demand?
Spoiler: It’s all of us.
The surge in energy demand making headlines isn’t coming from data centers. It’s coming from all of us, and from the AI revolution that’s accelerating everything. Here’s what that actually means for your electricity bill, the power grid, and the infrastructure debate that isn’t going away anytime soon.
“Hyperscale Data Center”
A hyperscale data center is a massive facility built by the world’s largest technology companies to support operations at extraordinary scale. These are the campuses built by companies like Amazon, Google, Microsoft, and Meta to handle billions of daily interactions across their global platforms. They are among the largest industrial facilities ever built, and their size and power requirements are what most often drive the headlines.
As you can see not every data center is built the same way, serves the same purpose, or has the same impact on the communities around it.
AI Data Center
An AI data center is a specialized facility designed to handle the extraordinary computing demands of artificial intelligence workloads. Unlike traditional data centers, these facilities are built around high-density GPU clusters that require advanced cooling systems and significantly more power per square foot. They represent the fastest-growing and most
The more specific the conversation is, the more productive it tends to be.
The Water Conversation
The facts are more assuring than the headlines suggest.
CIRCULATING, NOT CONSUMING
In a closed-loop cooling system, water isn’t consumed. It circulates. Once the system is charged, ongoing water use for cooling approaches zero.
The Distinction That Changes the Whole Conversation
Not all cooling systems use water the same way Water consumption is one of the most contentious concerns about data centers. It’s also one where a single technical distinction tends to get lost in the coverage.
There are three fundamentally different approaches to cooling a data center:
1 Air-based cooling uses no water at all, relying entirely on traditional air conditioning to manage heat. It’s a common approach in older and smaller facilities, although it is less practical as computing density increases.
2 Evaporative cooling systems dissipate heat by evaporating water. It’s a continuous process; water goes in and doesn’t come back. Many older, large-scale facilities use this approach and achieve impressive energy efficiency ratings as a result. The tradeoff is water consumption; a consideration critics and communities are right to raise.
3 Modern facilities increasingly use closed-loop cooling systems, which work on an entirely different principle. Water circulates continuously within a contained system. It isn’t released or consumed. It just moves. Some systems use glycol-based fluids instead of water. However, closed-loop systems can require more power than evaporative cooling, which is why the choice involves real engineering considerations.
The industry measures water efficiency through Weater Usag Effectiveness
Effectiveness (WUE). In a closed-loop system, once operational, Water Usage Effectiveness (WUE). In a closed-loop system, once operational, the WUE approaches zero.
The point isn’t to dismiss water concerns. It’s to make sure the numbers actually mean something before they drive the conversation.
Not All Water Figures Are Created Equal
The methodology behind a water figure matters as much as the figure itself
Water usage figures for data centers get cited constantly. What rarely gets mentioned is what those figures actually include, and that distinction matters more than most people realize. When evaluating a data center’s water footprint, where exactly do you draw the line? Consider what else could reasonably be included:
• Cooling system water only
• Landscaping
• Employee restroom usage
• Water used during construction
• Water used to generate the electricity powering the facility
Each of those boundaries produces a very different number. A headline citing data center water consumption without specifying the methodology isn’t giving you information. It’s giving you a figure that can mean almost anything.
What the Numbers Look Like Up Close
Methodology arguments are important. Real numbers are better.
A journalism student researching a planned data center facility in New York came to DataBank with a straightforward question: How much water would the facility use? Local municipal government sources had suggested the figure could be as high as 12,000 gallons per day. The estimate came from community meetings and local zoning discussions, and it sounded alarming.
Based on actual measured usage at a comparable facility using closed-loop cooling, the real figure for restrooms, kitchen, and landscaping combined is approximately 260 gallons per day. Core cooling operations consume essentially no ongoing water.
That gap between 12,000 gallons and 260 gallons is not a rounding error. It reflects what happens when the methodology behind a number goes unexamined. A modern facility using closed-loop cooling operates more like a standard office building than the industrial water consumer most people picture.
THE SAME DATA. A 60% DIFFERENCE.
A Lawrence Berkeley National Laboratory report puts daily data center water consumption at 625 million gallons. That figure includes water lost to evaporation at hydroelectric reservoirs, water that would evaporate regardless of whether a data center exists. Remove that variable and the same data produces a figure of 250 million gallons. That’s not a rounding error. That’s a methodology question
A Drop in the Bucket
Water consumption figures for data centers look large in isolation.
In context, they tell a different story..
1%
Data centers consumed an estimated 625 million gallons per day in 2023 — less than 1% of total U.S. daily water use.
1.3T vs.17B
California’s almond industry uses more than 1.3 trillion gallons of water annually, compared to roughly 17 billion gallons used by all U.S. data centers combined.
531 billion
U.S. golf courses collectively used approximately 531 billion gallons of water in 2024 — more than 30 times the direct cooling water used by all U.S. data centers combined.
Closed-loop or air-cooled facilities use no more water than a large office building, and some use less than a typical household.
Let’s Talk About Batteries and Generators
The concerns are understandable. The reality is more assuring than the headlines suggest.
They come up in almost every community conversation about data centers. Here’s what modern facilities actually look like on both fronts.
The Industry Is Moving in the Right Direction
Cooling technology is changing fast. The water story is changing with it.
The move away from evaporative cooling toward closed-loop and liquid cooling systems is underway, and it’s accelerating faster than most people outside the industry realize.
About 22% of data centers worldwide currently use liquid cooling technologies…27 That figure is expected to approach 50% of new hyperscale builds within two to three years, driven largely by the demands of high-density AI workloads, which generate more heat and require more precise thermal management than traditional computing infrastructure…28
Major operators have made firm commitments in this direction. Microsoft has announced zero-water closed-loop cooling for all future builds…29 DataBank’s standard facility design uses closed-loop cooling systems, meaning new builds enter service with a near-zero ongoing water footprint for cooling from day one.
There’s another dimension to the water conversation that rarely makes headlines. Fossil fuel power generation is highly water-intensive, while wind and solar consume virtually none. As data centers drive the adoption of more renewable energy sources, their indirect water footprint shrinks alongside their carbon footprint — a benefit that is real but rarely reflected in the figures critics cite.
Communities in drought-prone regions have legitimate concerns, and those concerns extend beyond cooling water to the water used in electricity generation. Not all data centers are moving at the same pace on these issues, which is exactly why DataBank’s commitment to closed-loop cooling and renewable energy matters. The honest answer is that progress is real, and we want to be specific about what that looks like in our facilities.
The fear of the unknown is real.
So is the gap between what people imagine a data center will be like to live near and what the operational reality actually looks like. The next few pages are about closing that gap
Batteries:
What the Headlines Leave Out
Understanding the real risk, and how modern facilities manage it
High-profile battery fires at data centers in South Korea and Europe have fueled a narrative that lithium-ion backup systems are inherently dangerous. The incidents are real. The conclusions being drawn from them are worth examining more closely.
First, some context. Traditional batteries still account for the majority of data center Uninterruptible Power Supply (UPS) installations worldwide. According to industry research, traditional batteries represent the majority of the data center battery market as of 2025, though lithium-ion adoption is accelerating rapidly.
The industry is beginning to adopt lithium-ion technology for new installations because it occupies 60-70% less space, requires less maintenance, and lasts significantly longer. When properly deployed with modern monitoring and suppression systems, lithium-ion batteries have a strong safety record, and the risk factors that do exist are well understood and actively managed.
Modern data centers using lithium-ion systems employ real-time temperature and voltage monitoring that detects the early warning signs of thermal runaway before it becomes a problem. Specialized fire suppression and physical separation, whether batteries are in dedicated rooms or deployed at the rack level, provide a layered defense that contains and limits any event that does occur.
These facilities are built from the ground up to house mission-critical equipment. For example, advanced fire suppression isn’t an add-on. It’s a design requirement. DataBank also works closely with local fire departments, including familiarizing first responders with facility infrastructure prior to commissioning and providing code access to facility gates.
The incidents that make headlines typically share a common thread: older installations, inadequate safety systems, or failures in maintenance protocols. That’s a very different story than the one most people picture.
BUILT FOR THE WORST CASE
Advanced fire suppression in a data center isn’t an add-on. It’s a design requirement, built in from day one.
Regulated, tested, and running far less than you might think.
When Winter Storm Uri knocked out power across Texas in February 2021, the facilities that kept hospitals communicating, financial systems running, and emergency services coordinated were the ones with robust backup power in place. That capability does not happen by accident. For data centers housing critical infrastructure, reliable on-site generation is not optional. It is a requirement.
Data centers maintain backup generators — diesel or natural gas — that are tested monthly to confirm they’ll work when actually needed. Critics have pointed to those tests as an ongoing environmental burden. The numbers tell a more proportionate story.
Most data center generators run approximately 20 hours per year for testing and maintenance. Six of those hours involve no-load confidence testing, meaning emissions during that time are near zero. Loaded testing accounts for up to 12 additional hours per year. Data centers are also subject to air quality regulations and permitting that limit generator runtime to approved levels.
The industry is also actively working to reduce that footprint further. Selective Catalytic Reduction (SCR) systems reduce particulate matter and nitrogen oxides from generator exhaust. Natural gas generators, renewable diesel, and battery storage systems are all being adopted to shrink the environmental impact of backup power over time.
Reliable backup power is not optional for a facility housing critical infrastructure. The question is how to provide it as cleanly as possible, and that work is already underway.
Data centers go through the same zoning and permitting process as warehouses and distribution
centers. Communities have a voice before construction ever begins.
Data Centers Don’t Appear Without Warning
Communities have more say than most people realize
The resistance many communities feel toward data center development is understandable. When a large industrial facility is proposed nearby, people worry about noise, traffic, visual impact, environmental concerns including air and water quality, and strain on local services. Those concerns deserve a straight answer.
Data centers don’t arrive unannounced
Two concerns worth addressing directly:
Once operational, a data center generates far less vehicle activity than most industrial facilities of comparable size. Shift changes, delivery trucks, and loading dock activity exist but are minimal compared to warehouses or manufacturing facilities of similar scale.
Data centers create fewer permanent positions than a factory or distribution center, but those roles tend to be well-paying technical and operations jobs. Beyond direct employment, each facility supports a larger ecosystem of local contractors, vendors, service providers, and customers’ employees who work on site, making the direct headcount an incomplete measure of total economic impact.
The jobs created are high-quality ones: engineering, operations, security, and technical roles with above-average wages and real career paths. Research shows that every data center job supports six additional jobs in the larger local economy through indirect and induced employment…
THE NUMBERS SPEAK FOR THEMSELVES
In 2023, the data center industry contributed nearly $163 billion in tax revenue across federal, state, and local levels
The Culpeper Model
Culpeper, Virginia
Like many communities across the country, Culpeper, Virginia found itself at a familiar crossroads: The economic benefits of data center investment were real and significant, but so were the concerns about what large-scale industrial development might do to the rural character that makes the community what it is.
The answer was the Culpeper Tech Zone (CTZ); a designated area within the county where data center development is welcome, encouraged, and concentrated. Rather than allowing facilities to scatter across the landscape, the community drew a line. Data centers belong in the zone. Everything outside stays the way it is.
The results now speak for themselves. Tax revenue, jobs, and economic activity have followed the investment, while the open space, rural landscape, and quality of life that residents wanted to protect have remained intact.
The framework also includes requirements for local business engagement, STEM education programs, and workforce development initiatives that extend the benefit beyond the facility fence line and into the broader community.
What It Actually Looks Like to Live Near a Data Center
The day-to-day reality is much calmer than zoning debate suggests
Once a data center is operational, its presence in the community tends to be quiet. Its contributions are anything but.
These facilities don’t generate rush hour traffic or significant wear and tear on local roads. They’re highly secure, access-controlled environments with perimeter lighting, surveillance, and on-site security that tends to deter criminal activity in the surrounding area. The tax revenue they generate funds localschools, roads, and public services, often at a disproportionately high level relative to the land they occupy.
Noise is often the most immediate concern for nearby residents, and it’s worth being specific.
Modern data centers use acoustic louvers, sound barriers, and enclosed mechanical systems to meet local noise ordinances and regulations.
For most neighbors, the facility is simply not something they notice day to day.
That combination of significant economic contribution, minimal disruption, and enhanced local security is what communities that have lived alongside data centers for years tend to report.
Summary and Conclusion
The Conversation Worth Having The concerns are real, yet so is the progress
Data centers are not perfect. They consume real resources, they require real land, and their development affects real communities. None of that is in dispute.
The headlines, however, have not told the full story. On energy, water, air emissions, noise, and community impact, the perceived fears have moved faster than the facts. The concerns driving that debate are legitimate. The conclusions drawn from them often are not.
The digital world isn’t slowing down, and AI is accelerating demand faster than anyone anticipated. The infrastructure supporting it has to grow to keep pace—not just with what we need today, but with what all of us are generating and consuming every day.
The real question has never been whether to build data centers. It has always been how to build them responsibly, with honest conversations about trade-offs, realistic expectations about impact, and a genuine commitment to getting it right.
That’s a conversation worth having.
DataBank Employees
In 2025, DataBank employees contributed more than 850 hours of volunteer time — up from 615 hours the year before. We collected over 1,800 pounds of food for local food banks, removed nearly 4,800 pounds of trash from a Denver-area river, refurbished a New York Little League clubhouse, and supported women’s shelters, military troops, and youth education programs across our markets. In total, DataBank donated more than $26,000 to local charities, shelters, and community events in 2025.
Looking ahead, we’re expanding our community engagement through STEM education partnerships, pollinator gardens at new facilities, youth sports sponsorships, and workforce development programs — including direct collaboration with the Culpeper Technical Education Center’s electrician program, where DataBank engineers provide hands-on guidance to students who may one day work in our facilities.
Data centers and the communities that host them are better off when the relationship is built on trust, transparency, and genuine investment. That’s the kind of neighbor DataBank is committed to being.
For more on our sustainability and community commitments, visit our online Corporate Responsibility page.
https://www.databank.com/about-databank/corporate-responsibility/

