Data Centers

From public opposition to community partner.

De-risk hyperscale campuses with Zero-Day Water Positivity. We turn water scarcity into site enablement by conserving more water in the local watershed than your facility will use, before a shovel hits the dirt.

The challenge

Water is now the #1 threat to data center development.

Across the West, water concerns are driving zoning delays, moratoria, rolled-back incentives and litigation. When a 100 MW campus stalls, the developer loses about $9 million in revenue every month, and a rejected site can strand more than $100 million of capital.

Stalled zoning

Planning boards and water districts are denying or delaying approvals over local supply.

Deferred NOI

Every month of delay pushes back roughly $9M in revenue per 100 MW and can put interconnection queue positions at risk.

Distant projects don't count

Zoning boards increasingly reject paper credits and distant projects that do nothing for the water supply they share with you.

The solution

Hyperlocal water conservation.

You sponsor Aleterra deployments on parks, sports fields, golf courses and other green spaces next to your campus. The biology cuts their irrigation 60–90%, and the water saved stays in the same watershed your facility draws from.

  • Zero infrastructure or civil engineering on your site or theirs
  • Deploys in 30–90 days, not years
  • Visible to the community, including co-branded signage at treated sites
  • Works for greenfield projects and existing campuses facing new scrutiny
  • Verified by live telemetry, so the claim holds up with regulators and ESG auditors
A data center funds soil treatment on nearby parks and golf courses; they use less irrigation, and the water savings are verified by sensors. Your campus sponsors the program Local parks, golf courses, green spaces Aleterra restructures the soil 60–90% less irrigation Local watershed savings stay in the local basin Live telemetry sensors + flow meters prove the savings
Net-positivity by cooling design

Water positive for every cooling architecture.

Annual water conserved by a 500-acre program for a 100 MW campus, compared with that campus's estimated annual demand. Programs scale by acreage to hit any target.

Cooling architectureEst. annual demand (100 MW, all facility)Aleterra annual conservation (500 acres)Net-positivity
Air-cooled / dry-cooled~100,000 to 1,000,000 gal500,000,000 gal500x to 5,000x
Closed-loop / hybrid liquid~50M to 120M gal500,000,000 gal4x to 10x
Legacy evaporative towers~400M to 500M gal500,000,000 gal1.0x to 1.25x

"All facility" includes secondary loads such as domestic plumbing, humidification and site maintenance. Estimates reflect baseline US Southwest conditions.

ROI and risk arbitrage, per 100 MW

A 10-year program for about the cost of one month's delay.

The full 10-year program costs about the same as a single month of delayed NOI. Avoiding just a few weeks of zoning delay pays for it.

11x

ROI

Secure local permission to operate and remove the risk of stranded hyperscale capital.

$100M+

Asset protection

Protect the land and engineering capital already committed to the site.

5B gal

Conserved locally

Water savings build to 500M+ gallons a year while monthly costs stay flat.

28–49 t

CO₂e per acre

Estimated carbon sequestered per acre over 10 years, a Scope 3 co-benefit.

Estimates reflect baseline US Southwest conditions. Timelines and material volumes scale with site-specific telemetry, including local weather, soil compaction and composition.

Comparison

Deploy faster. Save more. Win approval.

Water conservation approachTime to deployGallons per $1Public perception
Water treatment3–5 years< 50Invisible
Leak control1–3 years~100Negative
Rainwater capture1–2 years~200Low
Aleterra30–90 days500–800High

Deploy faster. Save more. Win approval.

Program initiation

From site audit to Day Zero.

Standard procurement: a small mobilization payment up front, then predictable monthly invoices on annual POs, with flat pricing for 10 years.

Step 1

Site audit

Identify target locations and confirm the volumetric water benefit.

  • Select campus
  • Choose benefit zone
  • Validate benefits
Step 2

MSA & PO

Lock in 10-year flat pricing and biological feedstock capacity.

  • Execute MSA
  • Authorize PO
  • Mobilization
Step 3

Day Zero

Use real-time water-benefit telemetry to unblock construction.

  • Deploy sensors
  • Deploy the biology
  • Unblock approvals
Audit-ready data

Proof that your capital caused the savings.

Three layers of data rule out greenwashing. Starting with a four-week baseline, we show that irrigation fell 60–90% while soil moisture stayed healthy, so the savings come from the soil, not from under-watering.

Underground sensors

Wireless sensors buried in the treated soil report moisture and temperature continuously.

Irrigation flow meters

Meters on the irrigation system record exactly how much water goes on the land.

Satellite and weather data

Imagery and local weather establish baselines and track evapotranspiration.

Proof at every level

Validated. Proven. Measured.

Scientific verification

Sandia National Laboratories

A multi-year federal field study (2022–2024) measured a 410% increase in beneficial fungi and a 70% increase in total soil microbiota.

Field validation

Golf courses, city parks and public grounds

Deployed across the arid Southwest. Measured results include 80% less water at Whispering Winds Golf Course within four months and 33% less irrigation at Tularosa City Hall within 29 days.

See where it's been deployed →

Real-time telemetry

Underground sensors + flow meters

Buried sensor arrays and irrigation flow meters set a baseline, then show water reduction live, so the savings are audit-ready.

Send us your toughest zoning battle.

We'll build the site-specific water-benefit model to free it.

Start the conversation →