OEM-Compatible Bolt-On for AI Data-Center Power Generators

“Good Neighbor” Data Centers Solve Pollution & Water Problems = Win-Win for Communities and AI Campus Owners

Easier to Permit — with More Electricity Available for Compute

E2F is a downstream air, water, waste-heat, and community-benefit package of back-end equipment for the prime movers serving AI data centers — (1) natural-gas-fueled turbines and reciprocating engines, and (2) diesel/renewable diesel (HVO)-fueled reciprocating engines.

E2F turns prime mover exhaust heat and emissions into product, not pollution — converting its nitrogen into fertilizer, its carbon into mineral storage and vertical farming crops, its formaldehyde broken down, and its PM2.5 soot scrubbed from the air before it reaches the community.

E2F processes help reduce the local objections that slow approvals — downwind emissions, cooling-water demand, and lack of measurable community benefit — while converting combustion byproducts, recovered waste heat, and farm waste from cost-factors into high-value cooling capacity, nutrient-rich biochar/fertilizers, MRV records, and visible local benefits.

~90%+*
Local Air Pollutants Targeted for Reduction*
0.68B gal*
Evaporative Cooling Water Avoided / yr*
25–40 MW*
Cooling Load Shifted Off Electricity*
MRV
Machine-Verifiable Permit Record

*Engineering estimates pending independent validation.

Why Gas-Fired and Diesel-Fueled AI Campuses Get Stalled

Data Center Problems Are Now a Permit Risk:
Pollution, Water Use, and Community Protest

Gas-fired and Diesel/HVO-Fueled AI campuses can be energized faster than new transmission can be built, but local approvals increasingly turn on air quality, cooling-water demand, land use, and measurable community benefits. In July 2026, two of the largest campuses ever proposed died on exactly those grounds — one terminated, one denied 8–0.

E2F focuses on the two objections most directly tied to rural permits: downwind exhaust impacts and evaporative cooling-water competition.

The point is not to silence communities. The point is to give OEMs and data-center customers an auditable package that reduces the objections before hearings begin.

July 2026 · One Week, Two Verdicts

This Is No Longer a Risk. It Is a Record.

In a single week, the world's densest data-center market terminated one landmark campus and unanimously refused to even study another nearly twice its size — and named combustion emissions and watershed water when it did.

July 2, 2026 · Terminated

The Digital Gateway Is Dead

Developer QTS withdrew its final appeal to the Virginia Supreme Court, terminating the ~2,000-acre Prince William Digital Gateway — once planned as the largest data-center campus in the world, with tens of billions in capital investment. Courts had voided the rezonings; the county and co-developer Compass had already walked. Five years of resident and preservation-group resistance ended it.

  • ▸QTS: a “responsible and orderly termination of project activities”
  • ▸Not a project at risk — a completed kill
July 7, 2026 · Denied 8–0

Dulles South — and They Named Diesel

After a five-hour hearing, Prince William supervisors voted unanimously to deny even the initiation of a plan amendment for the 1,940-acre, 43-million-square-foot Dulles South Innovation Center. A deferral request was voted down 7–1 first. The grievances came from the dais — and they were E2F's exact subject matter.

  • ▸Emissions would rise “through the roof” — primarily from diesel generators, the possibility of gas turbines, and the everyday health effects of PM2.5 particulates (Supervisor Jeter)
  • ▸“We cannot pave over the headwaters for the Occoquan — 8 million people depend on that.” (Supervisor Stewart)
  • ▸A bipartisan denial — not a swing vote, the board's default posture

Read the two grievances again. Combustion air emissions — diesel PM2.5 named first — and watershed water. Those are precisely the two liabilities E2F is engineered to convert into community assets. The build-out is now moving to rural, behind-the-meter gas and diesel sites, where those are the deciding objections.

Evidence & Public Opposition Data
Terminated
The Prince William Digital Gateway — a ~2,000-acre campus once billed as the world's largest — formally killed on July 2, 2026 when its last developer withdrew
8–0
Vote denying the 1,940-acre Dulles South campus on July 7, 2026 — refused at the initiation stage, before the county would even study it
69% → 35%
Collapse in Virginia voters comfortable hosting a data center, 2023 to 2026 (Washington Post–Schar School poll, April 2026)
$156B
Data-center projects blocked or delayed by local opposition in 2025 alone (Data Center Watch / 10a Labs)

Data Center Protest Is Accelerating

Opposition has moved from local irritation to a structural market constraint — and every metric is climbing.

  • ▸In 2025 alone, $156B of data-center projects were blocked or delayed by local opposition, moratoriums, and litigation (Data Center Watch)
  • ▸Project cancellations quadrupled — 6 in 2024 to 25 in 2025
  • ▸Organized groups more than doubled in a quarter: 396 → 833, across 49 states
  • ▸Of projects that draw organized protest, ~66% end up blocked or delayed
  • ▸At least 11 states have introduced legislation to limit or ban data-center construction; Maine passed the first outright ban on large-scale builds

Data Center Air Pollution Objections

Simple-cycle turbine, gas-engine, and diesel-engine exhaust carries criteria pollutants and hazardous air pollutants — diesel PM2.5 soot most visibly of all — the fence-line health concern that anchors Clean Air Act challenges.

  • ▸NOₓ, PM2.5, formaldehyde, CO, and ammonia slip — and shifting winds carry it in every direction, not one corridor
  • ▸One Virginia facility's emissions were pegged at $53–99M/yr in health damages
  • ▸~30 gas turbines at a single Memphis campus drew Clean Air Act challenges
  • ▸At Dulles South, supervisors cited diesel-generator emissions and PM2.5 health effects from the dais while denying the campus 8–0
  • ▸Conventional SCR destroys the nitrogen, returns nothing, and leaks ammonia slip that forms PM2.5

Data Center Water Use & Cooling Competition

Evaporative cooling competes directly with irrigation and municipal supply in the water-stressed basins where these campuses land — the objection that most often decides a rural permit.

  • ▸Texas data centers: ~25B gal/yr today, projected to 29–161B gal/yr by 2030
  • ▸The state now reviews the water plan of every new data center over 5 MW
  • ▸Wet low-NOₓ turbine control can add another 20–43B gal/yr on top of cooling
  • ▸~2 in 3 US data centers built since 2022 sit in water-stressed regions

From Protest to Policy

The resistance has formalized — it is now state legislatures and permit conditions, not just zoning-meeting noise.

  • ▸About a dozen states have moved on data-center moratoriums; New York passed a one-year pause on large permits
  • ▸A 500-group national coalition — Greenpeace, Friends of the Earth, the NAACP — now backs the fight
  • ▸In some counties, opposition organized before a project was even filed — the rumor alone was enough
  • ▸The commercial bite: a month's delay costs tens of millions; a killed project costs everything

Backlash figures compiled from public reporting including Data Center Watch (10a Labs), Fortune, and national polling, 2025–2026; reported ranges vary by source and quarter. July 2026 events and quotations as reported by WTOP, InsideNoVa, Virginia Mercury, WUSA9, and FOX 5 DC (July 2–9, 2026); poll figures from the Washington Post–Schar School survey of Virginia registered voters (conducted late March, released April 15, 2026). Site acreage is reported variously as 1,700–2,100 acres across sources.

For Power-Equipment OEMs

Why OEMs Should Care

E2F gives power-equipment OEMs a permit-enabling environmental package that can help their customers defend gas-fired or diesel-fueled AI power projects before regulators, counties, farmers, and local communities.

By using recovered engine or turbine heat to support absorption refrigeration, E2F can reduce the electric load otherwise consumed by mechanical cooling. That freed electrical capacity can be redirected toward additional compute, operating reserve, resilience, or reduced generator and grid stress — subject to site-specific engineering.

E2F is engineered so the natural gas turbines/engines or diesel engines remain the controlling assets. The downstream E2F system modulates its cooling, emissions-conversion, fertilizer, biochar, airflow, and bypass operations around the prime movers’ actual exhaust conditions — protecting OEM exhaust-backpressure limits and generator availability.

The commercial case & engineering assurances for OEMs

The Commercial Case

Sell more gas-fired and diesel-fueled AI power packages by bundling the air/water mitigation system upfront
Reduce permit-delay risk — address the objections before hearings begin
Differentiate against competing power providers with an OEM-compatible good-neighbor package designed for formal engine/turbine integration review
Add recurring service revenue — monitoring/MRV, ammonia systems, controls, and maintenance
Make the customer's public story defensible — the campus produces cooling, fertilizer, local food, and verified records

The Engineering Assurances

Back-pressure protected. Induced-draft fans, dampers, bypass stacks, and pressure monitoring are designed to keep exhaust back-pressure within machine-specific OEM limits.
Generator availability protected. Integrated bypass and isolation allow the E2F train to be isolated during upset or maintenance conditions.
Minimal power-island disruption. E2F is designed as a downstream exhaust and heat-recovery package tuned to each generator class.
Over-the-fence operating model. A third-party E2F operator can build, own, and operate the facility so the data center does not become a fertilizer or chemical-plant operator.
Measurable permit performance. MRV records quantify air emissions, water avoided, waste converted, fertilizer/biochar output, and community-benefit performance.

First things first. E2F’s first job is to resolve the objections that decide permits — the air and water grievances that stall a multi-billion-dollar build. Its revenues — fertilizer, carbon removal, freed compute, and service — are engineered so the mitigation pays its own way.

Speed to market is the real prize. Objections stall permits, and stalled permits delay revenue. Addressing air and water up front helps turn a multi-year contested permitting fight into a fast-tracked approval — tying social license directly to faster capital deployment and time-to-first-compute.

Natural Gas, Diesel & HVO · Turbines & Reciprocating Engines

Every Prime Mover on the Campus

E2F is prime-mover agnostic. It attaches downstream of the exhaust regardless of machine class or fuel — and each machine type hands the process a different, useful stream.

What E2F Means by “Prime Mover”

A prime mover is the on-site machine that generates a data center’s electricity. E2F is engineered for both classes now being deployed at gigawatt scale:

1. Natural-Gas-Fueled Prime Movers

Both gas turbines (GE Frame 5 / Baker Hughes-class, ~26–34 MW) and natural-gas reciprocating engines (Caterpillar G3500/G3600-class). Clean fuel, high CO₂ tonnage, thermal NOₓ, negligible sulfur.

2. Diesel-Fueled Prime Movers

Diesel and renewable-diesel (HVO) reciprocating engines (Caterpillar 3516E / C175-class, ~1.5–4 MW) in prime and bridge-power duty. The richest CO₂ and highest NOₓ streams, plus sulfur and PM2.5 soot.

Natural-Gas Turbine

GE Frame 5 / Baker Hughes-class · ~26–34 MW

CO₂ ~3–8 vol% (dilute) — one large, high-grade exhaust stream
Thermal NOₓ recovered as ammonium nitrate
Negligible sulfur; exhaust ~483 °C drives the chiller
Wet low-NOₓ water injection can be reduced or retired

Natural-Gas Recip Engine

Caterpillar G3500 / G3600-class

CO₂ ~5–7 vol% — richer than a turbine
Higher NOₓ concentration than a turbine — more fertilizer per unit of exhaust
Formaldehyde broken down across the oxidation stage
Two heat streams: exhaust + ~85–95 °C jacket water

Diesel Recip Engine

Caterpillar 3516E / C175-class · diesel or HVO

CO₂ ~6–10 vol% — roughly 2× a turbine’s partial pressure
NOₓ is ~90–95% NO — conditioned by E2F’s patented stage before nutrient recovery
ULSD sulfur → ammonium sulfate; PM2.5 soot scrubbed and routed to the biochar carbon
Two heat streams: exhaust ~350–500 °C + jacket water

The Diesel Engine Is E2F’s Richest Stream for Producing Fertilizer

~2×

the CO₂ partial pressure of turbine exhaust — a richer stream for the downstream mineral-biochar bed.

Highest

NOₓ of any prime mover — recovered as ammonium-nitrate fertilizer instead of destroyed.

PM2.5

soot — the fence-line health concern — scrubbed from the exhaust and captured as product carbon.

Diesel exhaust is the hardest stream at the front end and the most rewarding at the back. Because roughly 90–95% of engine-out NOₓ is nitric oxide (NO) — nearly insoluble in water — it resists ordinary absorption. E2F’s patented conditioning stage solves that problem before the ammonia scrubber recovers the nitrogen as fertilizer. The underlying absorption chemistry is well proven in heavy industry — what is new, and what the patent filings cover, is the integrated system that applies it downstream of a generator. The integration detail is available under confidentiality agreement.

This is not an abstraction. When Prince William County supervisors killed the 1,940-acre Dulles South campus 8–0 on July 7, 2026, the emissions objection they named from the dais was diesel-generator exhaust and the everyday health effects of PM2.5 — named before gas turbines, before anything else. The pollutant that decides diesel permits is precisely the one E2F scrubs from the air and routes into the biochar as product carbon.

Diesel duty, aftertreatment, and the DEF question

Tier 4 diesel gensets in non-emergency prime or bridge duty rely on selective catalytic reduction (SCR) dosed with Diesel Exhaust Fluid (DEF) — 32.5% urea in deionized water, consumed at roughly 2–3% of fuel burn, stored heated because it freezes at 11.3 °F, and escalating to derate or shutdown if it runs dry or off-spec. On an illustrative 100 MW campus at 4,000 bridge hours, DEF alone runs on the order of $1.6–1.8M/yr, with the SCR hardware, catalyst, dosing, and heated storage pushing the total aftertreatment burden toward $3–6M/yr.

There is an irony worth naming: DEF is urea — a nitrogen fertilizer — purchased in order to destroy the engine’s nitrogen into N₂ and water. E2F runs that transaction in the opposite direction, recovering the nitrogen as fertilizer.

Two deployment postures, both available. On an EPA-certified Tier 4 package the OEM aftertreatment stays in place: E2F installs downstream of an intact SCR, touching nothing certified, and harvests ammonia slip, residual oxidized nitrogen, PM, and the CO₂. On new-build, site-permitted non-emergency installations, oxidation-plus-wet-scrubbing is a recognized control approach with existing BACT precedent on refinery and boiler service, and can be permitted on its own performance — CEMS-verified against the same stack limits.

On renewable diesel (HVO): per Caterpillar’s own published guidance, HVO does not significantly reduce tailpipe CO₂ and delivers broadly similar NOₓ. The HVO buyer still installs SCR, still hauls DEF, and still emits the stack carbon — purchasing a lifecycle-accounting benefit at a real per-gallon premium. E2F addresses the stack itself, and pairs with HVO rather than competing with it: burning biogenic-carbon fuel and mineralizing a portion of that stack CO₂ is the combination that makes a carbon-negative power claim defensible tonne by tonne.

Aftertreatment configuration, certified-engine constraints, and permit pathways are site- and jurisdiction-specific and require licensed environmental counsel and formal OEM integration review. Figures are illustrative engineering-finance estimates dependent on generator model, duty cycle, fuel price, and local permit limits.

One bolt-on, every machine. Natural Gas or Diesel, Turbine or Recip Engine — the same downstream train recovers the nitrogen, scrubs the soot, puts the waste heat to work, and hands the community a verifiable record.

The Big Picture

The E2F Data Center Solution:
A Circular Farm & Data Center Economy

One integrated loop: a natural gas-fired or diesel-fueled AI data center's generator exhaust and waste heat become clean server cooling (reducing water consumption), recovered ammonium fertilizer, and mineral-biochar soil product — anchoring the surrounding farm community.

Data center pollution and water solution diagram: E2F converts AI data center power-generator exhaust (diesel and natural-gas engines and turbines) and waste heat into ammonium-salt fertilizer, mineral-biochar, and low-water absorption cooling for a circular farm and data center economy.

The full E2F loop, from turbine exhaust to farm soil. Pinch to zoom on mobile for detail.

How E2F Works

The Bolt-On Data Center Pollution, Water & Community Solution

E2F attaches downstream of the exhaust and heat recovery on the gas turbines, gas engines, or diesel engines you already ship — converting emissions control from a permit liability into a measurable mitigation package that pays its own way.

1

Bolt On

Ducts downstream of the stack with induced-draft fans and integrated bypass — back-pressure held within OEM limits, generator uptime unaffected by the E2F process

2

Recover Nitrogen, Polish Exhaust

NOₓ is conditioned and recovered through ammonia scrubbing as ammonium nitrate — on diesel engines, where ~90–95% of NOₓ is insoluble NO, E2F’s patented conditioning stage solves the absorption problem first; PM2.5 soot, sulfur, mist, CO, and HAP controls are integrated as required by the site permit and generator exhaust profile

3

Recover the Heat

Waste exhaust heat — and, on both gas and diesel reciprocating engines, jacket-water heat — drives an ammonia-absorption chiller: low-evaporative-water cooling that frees generation for compute

4

Put the Dilute CO₂ to Work

After plant-injurious constituents are reduced, the cleaned but dilute CO₂ stream is blended into adjacent greenhouse air, raising crop yields and anchoring local food

Win · Win · Win

Three Winners, One Bolt-On

E2F does not ask one party to sacrifice for another. The same equipment delivers a distinct, measurable benefit to all three stakeholders at once.

The Data Center

Improves its permit story by reducing the two local objections most likely to slow approvals: downwind exhaust impacts and evaporative cooling-water demand.

Stronger social-license case with measurable local benefits
Site-specific electrical capacity freed by waste-heat-driven cooling
Exhaust mitigation and MRV records packaged with the power project
Fertilizer, biochar, and community-benefit outputs that help make the project defensible

Local Farmers

Turn an agricultural and animal waste disposal liability into revenue and buy fertilizer — made from their own waste — below the cost of urea and DAP.

Manure and crop residue become paid feedstock
Slow-release biochar fertilizer that holds water in soil
USDA EQIP Code 336 covers up to 75% of the cost
Their aquifer is left in the ground

Local Consumers

Get cleaner air, more local food, and lower prices — produced from the data center's own cleaned exhaust and waste heat.

Health-harming pollutants removed at the source
Fresh local produce from co-located greenhouses
More food supply at lower cost
Rural jobs: collection fleet, greenhouses, county hubs
Take the Data Center Out of the Water Fight

Cooling From Waste Heat — Less Dependence on Evaporative Water

The mechanism is an ammonia–water absorption chiller paired with dry or hybrid heat rejection. E2F shifts cooling from electric compressors and evaporative towers to recovered generator heat, reducing the evaporative water demand that drives rural opposition.

Cooling-Water Consumption — Illustrative 150 MW-Thermal Campus

Cooling approach Heat source Evaporative water / yr Vs. baseline
Conventional: electric chillers + evaporative towers Grid / turbine electricity ~0.68 billion gal baseline
E2F ammonia absorption + dry/hybrid rejection Gas-turbine exhaust (~483 °C) ~substantially zero ~0.68B gal eliminated
E2F ammonia absorption + dry/hybrid rejection Gas recip. engine exhaust + jacket water ~substantially zero ~0.68B gal + extra headroom
E2F ammonia absorption + dry/hybrid rejection Diesel recip. engine exhaust + jacket water ~substantially zero ~0.68B gal + extra headroom

Honest note: dry cooling is not literally zero-water and carries an efficiency/capex trade-off — the claim is that E2F eliminates the evaporative consumption that drives the fight (the "million-plus gallons a day" a hyperscale campus loses to evaporation), not that it uses no water at all. ~0.68 billion gallons is roughly 1.9 million gallons a day — the annual indoor water of ~6,800 households, or enough to irrigate ~1,100 acres of corn.

How each machine supplies the cooling — turbine, gas engine, diesel engine

Turbine — High-Mass, High-Temp Flow

A GE Frame / Baker Hughes turbine delivers one large, high-grade exhaust stream at ~483 °C. For a representative six-turbine campus, recovered exhaust heat is estimated to supply the full server-cooling load with margin — the engineering basis is available under NDA.

Shifting cooling off electricity can free an estimated ~25–40 MW of generation for compute in representative designs — subject to site-specific engineering.

Gas Recip Engine — Split High/Low-Grade Heat

A Caterpillar G3500/G3600-class engine offers two recoverable heat streams: ~350–500 °C tailpipe exhaust and ~85–95 °C water-jacket (radiator) heat. The exhaust drives the high-pressure generator, the jacket water the low-temperature stage, and both feed feedstock drying.

Two sources supply more total recoverable heat than a single-source turbine, and the engine's higher-concentration NOₓ raises fertilizer yield per unit of exhaust.

Diesel Recip Engine — Same Split, Richer Exhaust

A Caterpillar 3516E / C175-class diesel genset presents the same two-stream arrangement — ~350–500 °C tailpipe exhaust plus ~85–95 °C jacket water — so the absorption chiller is driven exactly as on the gas engine, with jacket heat carrying the low-temperature stage and feedstock drying.

The difference is upstream chemistry, not cooling: the diesel’s ~6–10 vol% CO₂ and highest NOₓ load make its exhaust the richest feed to the recovery train.

The data center goes from another straw in the shrinking aquifer to the neighbor who brought its own water — cooling itself with the heat it was already throwing away.

The End-Use of the Cleaned CO₂

Vertical Circular Farming Greenhouses

After the pollutants are scrubbed out, the cleaned exhaust still carries a useful stream of dilute CO₂. E2F puts it to work in a co-located vertical farm — stacked, LED-lit growing rooms that raise crop yields on the cleaned CO₂, run on the same recovered waste heat, and root in the mineral-biochar. Because it is food production, E2F counts this as local food and displaced gas, not durable carbon removal.

CO₂ Enrichment Is Proven at Industrial Scale in Europe

~0.6 Mt
CO₂ per year piped by the Dutch OCAP network to 600+ greenhouses for 15+ years, from a Shell refinery and a bioethanol plant
~89%
of France's heated tomato and cucumber greenhouse area uses CO₂ enrichment — mainstream horticulture, not a science experiment
1,000 ppm
target growing-room concentration (vs. ~420 ambient) — raising CO₂ lifts photosynthesis ~50% and yields 20–30%

OCAP's captured CO₂ also saves the greenhouse sector ~0.3 billion m³ of natural gas a year — gas the growers would otherwise burn just to make their own CO₂.

Why the Scrubber Makes It Work

Raw flue gas can damage plants — NOₓ, SOₓ, and ethylene are phytotoxic. E2F's cleanup stage is designed to reduce those constituents, so a controlled share of the cleaned, dilute CO₂-bearing gas can be blended into greenhouse air. Waste heat from the same generators also heats the greenhouses — a major advantage in cold climates — and the mineral-biochar product serves as the growing medium. Power, cleaned CO₂, heat, and fertilizer from one site feed the food grown next door.

Why Vertical, Not Just Glass

A sunlight greenhouse only absorbs CO₂ in daylight — a machine running 24/7 overwhelms it half the day. A vertical farm makes its own light: by staggering LED photoperiods across its stacked zones, some zone is always lit and absorbing, so it drinks the exhaust around the clock — and it stacks onto a small footprint at the fence line, in any climate. Honest framing: this is utilization, not durable removal — the CO₂ returns when the produce is eaten, so the biochar carries the carbon-removal story, and the farm buys its own cheap on-site power for the LEDs.

The Business Case

Emissions Mitigation as a Permit-Enabling Revenue Layer

The fertilizer, biochar, and greenhouse produce are real revenues — and E2F’s first job is to resolve the objections that decide permits. Its revenue streams are engineered so the mitigation pays its own way while unlocking local regulatory construction permits.

Social license: permit approval & avoided delay on a $3B build
Freed compute from waste-heat cooling: ~40 MW returned
SCR flipped from cost to revenue: same ammonia, NOₓ recovered as ammonium nitrate
Recurring O&M / MRV service revenue + biochar carbon-removal credits
Who Actually Pays — Ranked (~200 MW / 6-turbine campus)

The value stack is ranked and quantified — freed compute and social-license value first; biochar carbon removal and fertilizer second; avoided SCR, CCS, and water risk third; with waste-heat services, ammonium salts, and federal credits layered beneath — in SablePower’s engineering-finance model, available to qualified parties under confidentiality agreement.

The Community Benefit Model

How Much Fertilizer Can Your Waste Produce?

This is what a data center can offer local farmers to turn them from opponents into partners. Enter an operation's details and the tool estimates how much E2F mineral-biochar fertilizer its waste can produce — and compares the cost to conventional fertilizer today.

Conventional Fertilizer Price Comparison

Set to your local price — or use current U.S. market averages from DTN/USDA (March 2026)

$ /ton
$ /ton
$ /ton
$ 700 /ton
$300 (Commodity) $700 (Base Case) $1,200 (Premium/Specialty) $1,500

Market prices: Urea $645/ton (NOLA barge, Mar 2026 per Argus/DTN); DAP $847/ton (U.S. retail, DTN Dec 2025); Potash $484/ton (U.S. retail, DTN Dec 2025). Adjust to match your local dealer price.

Your Operation

All fields optional — enter what applies to your farm or ranch.

Crop Residue / Agricultural Waste

Livestock / Dairy / Poultry

Or Enter Total Waste Directly

Your E2F Production Estimate

Enter your farm data on the left to see results.

Total Dry Waste Available
0
tons per year
Biochar Fertilizer Produced
0
tons/year
Potential 45Q / Carbon-Credit Value
0
metric tons/yr (45Q uses metric)
Fertilizer Value
$0
at $700/ton
Potential 45Q / CDR Value
$0
at $85/ton CO₂

Tax credits and carbon-credit values are illustrative only and depend on facility qualification, lifecycle analysis, ownership structure, tax rules, and third-party verification.

Daily Production Rate
0
tons waste/day
0
tons biochar/day
0
Modular pyrolysis units needed

Your Waste-to-Value Flip

Current Cost
-$0
waste disposal/yr
→
E2F Revenue
+$0
feedstock payments + fertilizer value
Your Annual Net Swing
+$0

What You're Paying Now vs. E2F

Product Market Price E2F Price With EQIP 75%
Urea (46-0-0) $645 $700 $175
DAP (18-46-0) $847 — —
Potash (0-0-60) $484 — —
EQIP Code 336 Advantage

USDA pays up to 75% of E2F biochar purchase price through EQIP Code 336 Soil Carbon Amendment. At 75% cost-share, your out-of-pocket for E2F fertilizer is $175/ton — competitive with or below conventional fertilizer, while delivering water retention, carbon storage, and slow-release nutrition that urea and DAP cannot provide.

Estimates based on USDA crop residue ratios, ASAE manure production standards, and E2F pyrolysis conversion at 30% yield. Actual results depend on moisture content, collection efficiency, and facility configuration. Contact us for a detailed site-specific analysis.

Data Center Problems & Solutions

Data Center Pollution, Water & Protest: FAQ

Straight answers to the questions communities, developers, and officials are asking about data center pollution, water use, health effects, and the opposition stalling projects nationwide — and how the E2F solution, invented by Inventor Larry M. Shultz, addresses them.

What is data center pollution?

Data center pollution refers mainly to the air emissions from the on-site power generators — gas turbines and diesel or natural-gas reciprocating engines — that many campuses run to avoid grid delays. These emit nitrogen oxides (NOx), fine particulate matter (PM2.5) soot, formaldehyde, carbon monoxide, and carbon dioxide. The American Lung Association's 2026 State of the Air report named data centers a growing air-pollution concern, and researchers have estimated data center air pollution could contribute to roughly 1,300 premature U.S. deaths per year. E2F captures these pollutants at the exhaust and converts them into fertilizer rather than venting them downwind.

How can data center pollution be reduced?

E2F is a downstream package that attaches to the gas turbines and gas or diesel reciprocating engines powering a data center. It captures NOx, PM2.5 soot, formaldehyde, and CO from the exhaust and converts the recovered nitrogen into ammonium-salt fertilizer and the carbon into mineral-biochar — turning pollution into product instead of venting it. This directly addresses the air-quality objection that anchors Clean Air Act challenges to new campuses. E2F was invented by Inventor Larry M. Shultz.

How much water do data centers use?

A typical data center uses about 300,000 gallons of water per day for cooling — as much as 1,000 households — while a large hyperscale campus can use up to 5 million gallons per day, the equivalent of a town of 10,000 to 50,000 people. Data centers in Texas alone are projected to use 49 billion gallons in 2025, rising to as much as 399 billion gallons by 2030. Up to 85% of that water evaporates and never returns to the local supply.

How can data centers reduce water use?

E2F uses the power generators' own waste heat to drive an ammonia absorption refrigeration cycle, cooling the servers with heat instead of electricity and rejecting that heat dry rather than through evaporative cooling towers. This cuts the evaporative cooling-water that is a leading source of data center community opposition and permit denial.

Why do communities protest data centers?

Community protest centers on air pollution from combustion generators, competition for water, higher household electricity bills, noise, land use, and the absence of visible local benefit. A 2026 Washington Post–Schar School poll found the share of Virginia voters comfortable with a nearby data center fell from 69% in 2023 to 35% in 2026, with 57% saying data centers worsen their electricity bills. E2F is engineered to address the air, water, and local-benefit objections — producing fertilizer, low-water cooling, paid farm-waste offtake, and local food for the surrounding community.

Why are data center projects being denied or delayed?

Local governments are increasingly denying or delaying data centers over air quality, water demand, and land use. Data Center Watch reported roughly $156B of projects blocked or delayed by opposition in 2025. In July 2026, Prince William County, Virginia saw the Digital Gateway terminated and the 1,940-acre Dulles South campus denied in a unanimous 8–0 vote, with supervisors citing diesel-generator emissions, PM2.5, and protection of the Occoquan watershed that serves 8 million people. E2F targets exactly those air and water objections to help projects clear local approval.

Do data centers cause health problems?

Researchers and public-health groups have linked data center air pollution — largely from diesel backup and prime-power generators — to asthma, heart disease, and premature death, with one Caltech and UC Riverside estimate attributing about 1,300 premature U.S. deaths per year to data center air pollution. Noise from around-the-clock cooling equipment has also been associated with sleep disturbance and cardiovascular stress. E2F reduces the combustion air pollutants (NOx, PM2.5) at the source by capturing them before they reach the community.

Do diesel generators at data centers cause pollution?

Yes. Data centers rely on diesel generators for backup and, increasingly, prime power, and these emit fine particulate matter (PM2.5), nitrogen oxides (NOx), and other pollutants linked to respiratory and cardiovascular harm. Because roughly 90 to 95 percent of engine-out NOx from a diesel is nitric oxide, E2F first oxidizes it, then captures it in an ammonia scrubber as fertilizer, while PM2.5 soot is scrubbed from the exhaust and routed into the biochar as product carbon. This diesel-emissions solution was invented by Inventor Larry M. Shultz.

What is the solution to data center environmental problems?

E2F (Emissions-to-Fertilizer) is a downstream solution that converts a data center's power-generator exhaust and waste heat into products: recovered nitrogen becomes ammonium-salt fertilizer, captured carbon becomes mineral-biochar, and waste heat drives low-water absorption cooling. Instead of venting pollution and evaporating water, the campus produces fertilizer, cuts its cooling-water use, and delivers paid farm-waste offtake and local food — turning the air, water, and community objections that stall projects into local benefits. E2F was invented by Larry M. Shultz.

Sources & Assumptions

Illustrative Engineering Estimates

Site results depend on prime-mover/generator model, load factor, exhaust profile, cooling design, local climate, feedstock supply, water baseline, tax-credit eligibility, and permit requirements. E2F models each project against site-specific data before commercial design. Opposition figures are compiled from public reporting including Data Center Watch (10a Labs), Fortune, and national polling (2025–2026); reported ranges vary by source and quarter.

What E2F Does Not Fix

Credibility requires stating the limits as plainly as the claims. E2F is an exhaust, heat, and water package. It addresses the objections that live at the stack and the cooling tower — and no others. It should never be pitched as fixing the rest.

What E2F addresses
  • ▸Combustion air emissions — NOₓ, PM2.5, formaldehyde, CO — captured at the stack
  • ▸Evaporative cooling-water competition — via waste-heat absorption cooling and dry/hybrid rejection
  • ▸Absence of visible local benefit — paid farm-waste offtake, fertilizer, local food, rural jobs
What E2F does not address
  • ▸Household electricity bills — now the leading poll grievance, with 57% of Virginia voters saying data centers worsen them. Freeing chiller load returns capacity to the campus; it does not settle a ratepayer argument.
  • ▸Noise, acreage, and rural character — no stack technology shrinks a footprint
  • ▸Impervious-surface and watershed conversion, historic-ground adjacency — the grounds on which Northern Virginia's largest campuses actually died

Northern Virginia is closing on land-use grounds no technology can cure. That is precisely why the build-out is moving to rural, behind-the-meter gas and diesel sites — where the operative grievances are air, water, and farm-waste burden. Those three, E2F converts into assets. The rest belong to siting, not to engineering.

Selling Natural Gas- or Diesel-Fueled Power Into AI Data-Center Campuses?

Add the bolt-on designed to make your turbines, natural gas engines, and diesel engines easier to permit. E2F attaches to all types of prime mover-class machines and addresses the air and water objections that stall customers' projects. Let's model one 200 MW campus with your natural gas-turbine, natural gas-engine, or diesel-engine package.

Technical briefings. The engineering package — performance modeling, process-flow detail, vendor architecture, and site-specific economics — is available to qualified developers, OEMs, agencies, and investors under confidentiality agreement. Contact Larry@SablePower.com to arrange a briefing.

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