Distribution investment
Growth in nominal distribution capital spending, 2019–2023. More than twice inflation. [1]
A SCIENCE FACT DOUBLE FEATURE
They told you AI would bankrupt your electric bill and drink the reservoirs dry. The national labs and grid researchers checked the math. The doomsday script leaves out the science.
Investigate the evidenceBig machines. Bigger headlines. A field guide for curious humans.

BEFORE YOU RUN FOR THE HILLS
The monster-movie version says bigger computing means inevitable environmental disaster. The evidence tells a much more interesting story: new demand can spread grid costs, flexible computing can support the grid, and modern cooling can slash water consumption.
Look past viral headlines at the research from Berkeley Lab, Duke, MIT and Nature. The blanket catastrophe narrative leaves out measurable engineering gains. Here are four encounters with the facts—and the practical choices that put those gains to work.
THE CASE OF THE RISING ELECTRIC BILL
PULP HYSTERIA! · ISSUE 01
SHOCK!“New demand can only make everyone’s electricity more expensive!”
A FAMILIAR STORY. AN INCOMPLETE SUSPECT LIST.LAB REPORT 01 · CHECK THE HISTORICAL RECORD
MYTH VAPORIZEDhad lower inflation-adjusted average retail electricity prices in 2024 than in 2019, in Berkeley Lab’s 48-state analysis. [1]
Growth spreads fixed grid costs over more electricity sales. In North Dakota, a mix of industrial growth—including data centers—coincided with a nearly 3¢/kWh decline in real average rates. Abundant supply helped make it possible. [1] [7]
THE ACTUAL SUSPECT BOARD · FOLLOW THE MONEY
Growth in nominal distribution capital spending, 2019–2023. More than twice inflation. [1]
Wildfire-related costs placed in California utility rates, 2019–2023. [7]
October 2025 versus a year earlier, as reported in WRI’s December 2025 explainer. [7]
Different measures, dates and regions; these figures are not additive shares of a national electricity bill.
ATOMIC GRID-O-METER · FIXED-COST LAB
Start with a fixed $100 grid-cost pool and 100 units sold. Turn the dial to see what happens when sales grow.
An arithmetic illustration, not a prediction of a household bill.
Illustration excludes energy, new construction, financing and tariff design.
THE LOAD THAT LEARNED TO BEND
PULP HYSTERIA! · ISSUE 02
NO“A data center is a giant load that can never get out of the way.”
BUT WHAT IF THE LOAD… COULD BEND?LAB REPORT 02 · DUKE NICHOLAS INSTITUTE
PLOT TWIST!Computing that can wait or move—and facilities that coordinate storage—can reduce grid demand at its most expensive moments. Duke’s February 2026 study puts dollars on that flexibility. [8]
Estimated cumulative system savings through 2035 in most modeled scenarios, from avoided capital, operating and fuel costs. [8]
Grid services, too. Duke models flexibility as a source of reserves as well as peak relief. Qualified, rapid demand reductions can provide reserve support rather than keeping additional generation spinning. Data centers’ own modeled average electricity prices fall by $2.5–$8/MWh. [8]
MISSION CONTROL · GRID STABILIZER MODE
Animation: illustrative daily load, equal computing energy. Readouts: Duke’s 2026 scenario results through 2035, not outputs calculated by this animation. Retail reductions are modeled outcomes, not individual tariff guarantees. [8]
THE ORIGINAL DISCOVERY · DUKE’S 2025 FIRST-ORDER MODEL
22 major balancing authorities; flexible new loads generally. These percentages describe annual energy curtailed, not simply hours offline. Local network constraints require separate study. [2]
THE CREATURE FROM THE COOLING TOWER
PULP HYSTERIA! · ISSUE 03
THIRST“Every chatbot query needs a bottle of water. Forever.”
ONE NUMBER CANNOT DESCRIBE EVERY MACHINE.LAB REPORT 03 · THE QUERY NUMBER IS NOT A CONSTANT
MYTH VAPORIZEDIn Knowable, UC Riverside researcher Shaolei Ren says his 2024 estimate—500 mL for drafting a short email with GPT-4—is already outdated. [5]
Google’s 2025 estimate for the median Gemini Apps text prompt: 0.26 mL. A company-reported, model-specific measurement—not a universal AI average. [16]
THE GREAT AMERICAN WATER TANK
National annual volumes in billions of U.S. gallons. Select a subject to inspect the evidence.
Berkeley Lab’s estimate for on-site data-center water consumption in 2023. Cooling is a far smaller national volume than familiar outdoor water uses.
Read the source [4] ↗Read the scale correctly: the bars share a linear scale from zero, but compare different measures and years: consumption, irrigation applied and outdoor water use. They are context, not equivalent water footprints. [4] [10] [11]
ITIF estimates that direct cooling plus electricity-related consumption amounts to less than 1% of U.S. consumption, using Berkeley Lab and USGS figures. This is an approximate comparison across assessments. The electricity-related component—about 211 billion gallons in Berkeley Lab’s 2023 estimate—is additional to the 17.4B direct figure. [9] [4]
SCIENCE TO THE RESCUE
PULP HYSTERIA! · ISSUE 04
SCIENCE“You can’t cool powerful computers without endlessly evaporating fresh water.”
THE ENGINEERS WOULD LIKE A WORD.LAB REPORT 04 · CHANGE THE COOLING DESIGN
DOOMSDAY CANCELLED*Direct-to-chip cooling circulates coolant through a sealed loop. Pair it with dry heat rejection and heat moves into the air without evaporating the cooling water. Microsoft has announced new designs that use this approach. [13]
NVIDIA describes 45°C liquid loops that make dry cooling practical for more operating conditions. Warmer coolant widens the gap between air and fluid, helping fans carry heat away. [13]
*The supposed engineering impossibility is cancelled. Performance depends on the chosen equipment and climate.
RECIRCULATE
Closed primary loops reuse fluid. Dry or suitably designed hybrid heat rejection cuts evaporative losses; the full cooling system determines the result. [5] [13]
RECLAIM
In 2023, just over one-third of water used by Virginia data centers was reclaimed wastewater. That is a statewide finding, not a Northern Virginia-only percentage. [12]
RECOVER
Reverse osmosis and zero-liquid-discharge systems recover water from wastewater streams so it can be reused. They complement cooling design; they do not capture water already evaporated. [9]
PEER-REVIEWED POSSIBILITY · NATURE, 2025
Advanced cooling versus an air-cooled reference, in a life-cycle comparison. [6]
Modeled case comparisons, not fleet-wide measurements. Blue water means surface- and groundwater consumption. Authors were Microsoft or WSP employees. [6]
THE REAL VILLAIN · AVOIDABLE BAD DECISIONS
With data centers—just like housing, hospitals, factories or highways—poor siting, sloppy engineering and unfair cost allocation can produce bad results. A thirsty cooling design in a stressed watershed, or a contract that dumps new infrastructure costs on homeowners, deserves scrutiny. Those are choices we can demand be made better.
Modern coolant loops, water reclamation and grid-interactive operation give us the tools to conserve freshwater, flatten peaks and lower system costs. The evidence supports building better, rather than treating every server building as the same monster.
Grid reality. Supply constraints can raise prices; PJM has experienced real capacity-cost pressure. Duke’s headroom estimates do not replace a local network study. [1] [2] [7]
Carbon reality. MIT finds that shifting to cheap hours can increase emissions on fossil-heavy grids. Duke models lower long-run emissions as investment shifts, including fewer new gas plants; these are different models, not a refutation of MIT. [3] [8]
Water reality. National scale does not settle local summer demand. The full cooling chain, reclaimed-water source, power-generation mix and watershed all matter. A sealed chip loop alone does not describe facility-wide consumption. [4] [5]
THE EARTHLING’S FIELD CHECKLIST
The science gives us a playbook. Here are five practical questions that turn promising engineering into accountable projects.
0 / 5 questions ready for mission control
An editorial checklist for evaluating proposals, not a project certification or prediction.
NO SECRET ALIEN KNOWLEDGE REQUIRED
Start with Knowable for water, WRI for bills and Duke’s 2026 report for the economics of flexibility. Follow the source links to inspect the evidence. Reviewed October 17, 2026.
BERKELEY LAB + BRATTLE · JOURNAL ARTICLE & BRIEFING · 2025
The foundation for the bill explainer. Historical state-level relationships have multiple drivers and do not guarantee future results.
DUKE NICHOLAS INSTITUTE · RESEARCH REPORT · FEBRUARY 2025
The source of the 76 / 98 / 126 GW chart. A first-order analysis of flexible new loads, with important network and implementation limits.
MIT RESEARCHERS · iSCIENCE · 2026
Workload shifting lowered modeled system costs, while its carbon effect depended on regional generation. This supersedes the 2025 working-paper version.
LAWRENCE BERKELEY NATIONAL LABORATORY · DECEMBER 2024
The source of our 2023 direct and electricity-related water estimates. Includes separate estimates for facility cooling and electricity generation, with methods and future-demand scenarios.
KNOWABLE MAGAZINE / ANNUAL REVIEWS · AUGUST 24, 2026
Katarina Zimmer’s accessible explainer puts water claims in context while taking drought risk seriously. It discusses why query estimates change and what cooling technologies can do.
NATURE · MAY 2025 · INDUSTRY-AFFILIATED AUTHORS
The basis for the cooling-reduction ranges. Comparative life-cycle modeling shows what better designs can achieve under stated assumptions.
WORLD RESOURCES INSTITUTE · EXPLAINER · 2025
A strong general-reader companion to Berkeley Lab. It describes both the potential to spread fixed costs and the real capacity-market pressure associated with data-center growth in PJM.
DUKE NICHOLAS INSTITUTE · FEBRUARY 17, 2026
Ross and Ewing model flexibility, reserve provision and generation investment through 2035. The $40–150B headline covers most modeled scenarios; the full scenario range is approximately $7–150B, versus inflexible operation.
ITIF · POLICY REPORT · JULY 6, 2026
Robin Gaster’s policy report surveys water-saving technologies and governance, including an approximate national-consumption comparison. A policy argument, distinct from a peer-reviewed engineering study.
U.S. EPA · WATERSENSE
EPA’s estimate of nearly 8B gallons/day of residential outdoor use is annualized in the chart. Most of this water is used for landscaping.
GCSAA · GOLF COURSE ENVIRONMENTAL PROFILE · 2025
The industry’s 2024 estimate is 1.63M acre-feet applied for irrigation, converted here to approximately 531B U.S. gallons. This is water applied, not a measured consumptive footprint.
VIRGINIA JLARC · REPORT 598 · DECEMBER 2024
The state audit reports just over one-third reclaimed wastewater in Virginia data-center water use in 2023 (printed page 62).
NVIDIA · 2026 / MICROSOFT · 2024
Primary vendor explanations of 45°C coolant and new cooling designs. These establish specific technical pathways, not adoption across the whole industry.
LINCOLN INSTITUTE OF LAND POLICY · LAND LINES
A land-and-water perspective that links to golf and landscape estimates while stressing watershed planning. It is included as context, not as an endorsement of this site’s thesis.
THE WASHINGTON POST · SHANNON OSAKA · OCTOBER 25, 2025
Mainstream coverage of Berkeley Lab’s price research. A newspaper subscription may be required.
GOOGLE CLOUD · AUGUST 2025
Google’s measurement of the median Gemini Apps text prompt, including the 0.26mL water figure. Company-reported and specific to that workload and period.
THE END? THE CHOICES ARE STILL OURS.
Less panic. More progress. Better infrastructure—by design.
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