Powers the cloud. Feeds the town.

A data center doesn't have to drain its town. It can feed it.

The same hot water cools the servers and warms a working farm next door — and the town that was handed a power bill and a fight gets food, jobs, and something it can walk into instead. The cloud keeps every watt of its capacity. The community finally gets its half of the bargain. Not the data center or the town. Both.

See how it works Feed your town
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01
What the town gets

A working farm next door — paid for with heat nobody was using.

Capture a thin sliver of the waste heat a data center already throws away, and it becomes a year-round greenhouse beside the campus. The servers draw the same power either way — the town just gets the upside.

300,000
lbs of fresh food a year — four climate zones of winter strawberries, oranges, gourmet mushrooms, and turmeric & ginger
~700
tons of CO₂ avoided a year — waste heat reused instead of burned, about 150 cars taken off the road
~20
local jobs — and produce that travels across town, not across the country
<1%
of the data center's waste heat is all it takes; the facility never notices

Greenhouse figures are engineering design targets for a ~2.5-acre, four-zone flagship · CO₂ avoided vs. natural-gas heat at ~0.18 kg/kWh · illustrative

Winter strawberries on the vine
57°FWinter strawberries
Fresh turmeric and ginger rhizomes
82°FTurmeric & Ginger
Gourmet mushrooms
61°FGourmet mushrooms
Citrus ripening in a greenhouse
68°FOranges
02
Where the fight is

Four climates. One problem.

The waste heat, the crops, even the cooling change with the climate. What never changes is the thing we solve: a community that won't say yes. Here's exactly what that looks like across the four climates defining the fight right now — starting on the coast, where the water question is loudest.

Coastal
Surplus, not scarcity

The fight

Here the water problem inverts — not drought but flooding, sinking ground, and a stressed aquifer. Hampton Roads is sinking about twice as fast as the sea is rising, and the region is spending $1B+ to refill the Potomac Aquifer it can't keep over-drawing.

What Harvest brings

A campus that becomes a stormwater sink instead of a flooding liability — capturing intense rainfall, running on rain and condensate, never pumping the aquifer. Aquifer-neutral we can stand behind today; aquifer-positive the aim. Our committed lead market.

Stormwater sink · aquifer-neutral → positive · the lead
Southeast
The benefit gap

The fight

The largest data-center market on Earth — and the one turning fastest. Voter comfort with a data center nearby fell from 69% in 2023 to 35% in 2026. The objection isn't power. It's "what do we get?"

What Harvest brings

A greenhouse the town can walk into — strawberries, oranges, fresh ginger and gourmet mushrooms — feeding Data Center Alley itself, same-day, with zero food-miles. The most relatable possible answer to the benefit gap.

Mild winters · local-market produce · closed-loop water
Southwest
Water & the heat island

The fight

A statewide drought emergency, the Great Salt Lake collapsing, and a hyperscale campus whose heat critics liken to "23 atomic bombs a day." Now every new data center is being forced to answer for its water and its heat.

What Harvest brings

A closed-loop greenhouse that recycles most of its own water, cools without evaporating, and — where brackish groundwater allows — uses the waste heat to make supply. The heat island turns into food, and the water answer is one you can put on a meter.

Cold winters, hot-dry summers · water-thrifty by design
Cold North / Nordic
The wasted heat

The fight

Long, hard winters where a data center vents its waste heat straight to the sky — while the same campus still faces the same neighbors saying no.

What Harvest brings

Free heat becomes a year-round harvest — strawberries in February, oranges fruiting in the dark. Proof a windowless box can give a town something it could never grow on its own.

Heat is king · winter & exotic crops · the original thesis

The crops and the cooling flex by site. The permission doesn't.

03
Two sides, one answer

Both sides are right.

If you love your town

You're not wrong to ask what a windowless box and a heat plume give back. Lower electricity bills? Rarely. Lasting jobs? A handful. You deserve a real answer — not a tax-revenue slide and a logo on a little-league jersey.

If you're trying to build

You're not the villain. The AI we all use runs on this infrastructure — and you've been handed a permitting fight you can't message your way out of. You need goodwill that's genuine and visible, not another press release nobody believes.

Intelligent Harvest is the answer that finally works for both.
If you live near one

You were handed the noise, the bill, and the worry — and told to call it progress.

You're right to want a real answer. You're also right to be skeptical of one. So we built ours to be audited, not believed — metered food and jobs your community can walk into, and a way to hold us to it.

See the deal — and how to hold us to it
If you're trying to build

You want to build. You're being blocked at every turn.

You're not the villain — you've been handed a permitting fight you can't message your way out of. You need goodwill that's genuine and visible, not another press release nobody believes. A greenhouse beside the campus is the one that's real.

See the operator case
If you lead a town

You want the tax base and the growth. You don't want to feel like you sold your people out to get it.

Attach a benefit to the permit you can actually point to — third-party-metered food and jobs the community can walk into — and the next data center becomes an easier yes instead of the next fight.

See the case for cities & officials
04
The idea

Put the heat to work.

Every data center is already a heat plant — it just throws that heat away into the sky. We capture it, and grow something with it.

STEP 01

Capture

A sealed loop draws the low-grade waste heat off the cooling system. It never touches the servers, and it never changes how the data center runs.

STEP 02

Grow

That heat warms an adjacent community greenhouse, growing fresh food year-round — on land that was only ever going to host a fence.

STEP 03

Give

The town gets food, real jobs, and a place to bring its kids. The data center finally has a story worth telling — and the permit fight becomes a ribbon-cutting.

What the harvest actually feeds

How much produce is 300,000 lbs a year?

~900 people’s fruit and vegetables. Every. Single. Day.

4,660

servings of fresh fruit & vegetables a day

365 days a year · never a season

The math, in full

The World Health Organization counts a serving of fruit or veg as 80 grams — about a handful, or one medium orange. Five of them (400 g) is a full day. So:

300,000 lb produce / year
÷  365 days≈ 822 lb / day
822 lb / day≈ 372,816 g / day
÷  80 g one WHO serving≈ 4,660 servings / day
÷  5 servings one person’s day≈ 900 people / day

That’s not a truckload passing through on the interstate. It’s ~4,660 servings of real produce a day — the berries in a kid’s lunch, the greens on a dinner plate — grown a few miles away instead of three states over, every single day of the year.

Illustrative design targets for a ~2.5-acre, four-zone flagship greenhouse. Serving size and daily intake per the WHO (80 g per serving; 400 g / five servings recommended daily). 300,000 lb ≈ 136,078 kg ≈ 372,816 g per day across 365 days. Figures vary by site.

captured heat → INTELLIGENT HARVEST Powers the cloud. Feeds the town. A working data center next door — and a greenhouse the whole town can walk through. DATA CENTER COMMUNITY GREENHOUSE
05
See it for your town

Real numbers in your hometown.

A data center is coming, or already here. Move the slider to its size, and see what the heat it currently throws away could grow instead — in food, jobs, cleaner air, and warmth put to use. Every number here is a published engineering estimate, scaled honestly. Nothing inflated. You can check all of it.

Data center size 100MW

About the size of a typical hyperscale campus — the electricity of roughly 100,000 homes.

600,000lbs of food / year
Strawberries, oranges, mushrooms, turmeric & ginger — grown across town, not trucked across the country. Enough fresh produce for about 1,900 people’s fruit & vegetables, every day of the year.
40local jobs
Year-round and rooted in place — the kind of work a server hall can’t provide.
1,400tons CO² avoided / year
Heat reused instead of burned — about 304 cars taken off the road.
6,000MWh of heat put to use
Warmth that was venting straight into the sky — a sliver of what the campus rejects, the rest unchanged.
Ask in plain language

What would this mean for your town?

Tell us your town and what worries you. We’ll explain — honestly, in plain words, using the numbers above — what a co-located greenhouse would and wouldn’t do for your community.

Generated to be plain and honest, grounded in the estimates above. It won’t promise lower bills — the honest answer is that’s complicated — and it will say where the limits are.

Estimates scale from a ~2.5-acre, four-zone flagship greenhouse (~300,000 lbs, ~20 year-round jobs, ~700 tons CO², ~3,000 MWh heat reused per year) co-located on the host campus, scaled with the practical greenhouse capacity a site of this size can support and capped at three flagship modules. Reusable-heat basis ~0.75 MWh per MWh of IT load. CO² vs. natural-gas heat at ~0.18 kg/kWh. People-fed equivalent at the WHO-recommended 400 g of fruit & vegetables per day (~322 lbs per person-year); car-equivalent at the EPA average of ~4.6 t CO² per vehicle-year. All figures are engineering design targets, not guarantees — the full basis is in the engineering page and the research brief.

Demi the Drop and Jimmy the Joule, the Intelligent Harvest characters
The story version

Meet Demi & Jimmy — the whole system, told as a story.

A drop of water and a unit of heat walk you through everything on this page — the loop, the wall, the tank, the strawberry in January — in plain language a fourth-grader can follow. Built for kids and classrooms; quietly useful at council meetings too.

Demi & Jimmy's Big Warm Trip

Follow the leftover heat from a humming server all the way to a winter strawberry.

 Take the trip →

Where Does the Cold Come From?

The other half of the loop — how giving warmth away is exactly how the servers stay cool.

 Find out →

Same physics as the engineering page. Considerably more high-fives.

What gets built

A working farm the town can walk into.

A flagship is roughly two and a half acres of greenhouse beside the campus — four climate zones growing food all year, warmed almost entirely by the data center next door. Not a science project. A real farm, open to the people it feeds.

~2.5 acres under glass 4 climate zones Year-round harvest Open to the public
Zone 01

Strawberries

Year-round berries the whole town knows by name — the front door of the farm.

Zone 02

Turmeric & Ginger

Warm-climate roots that thrive on exactly the gentle, steady heat a data center throws off.

Zone 03

Gourmet Mushrooms

Prized varieties that need no sunlight at all — just warmth, and plenty of it.

Zone 04

Oranges

Lemons and oranges through the dead of winter — the kind of thing people drive to see.

The proof

This isn't a hypothesis. It already works.

Data-center heat already warms greenhouses, homes, and farms across four continents — and a wave of U.S. projects is now converging, independently, on exactly this model. The open question was never whether it works. It's who does it cleanly, at community scale.

Boden, Sweden

Hive Digital's 32 MW campus heats a ~90,000 sq ft greenhouse, growing vegetables near the Arctic Circle.

Operating · the greenhouse analogue
Odense, Denmark

Meta channels recovered server heat into the municipal district-heating network for thousands of homes.

Operating · hyperscale
Marietta, Ohio

SAIHEAT already runs liquid-cooled compute heating a local greenhouse — the U.S. pattern, live today.

Operating · community demo
Mason County, WV

Fidelis's Monarch campus would pair up to 1,000 MW with greenhouses and captured CO₂ — the model at scale.

Proposed · the convergence

Sources: Uptime Institute; Visual Capitalist / Hive Digital; ReImagine Appalachia · 2023–26

For engineers

Sizing us up for your team? Good — the math is open.

The loop, the heat grades, the buffer, the deliberately small heat pump — and the open items most decks skip. We're recruiting an engineer of record, and if the physics doesn't hold, we'd rather you tell us now.

Read the research
06
The stakes

The bottleneck isn't power. It's permission.

Permission, not power, is what's stalling the build-out — communities are organizing against projects that hand them nothing but power lines and a bill, and they're winning. The farm next door changes that math: the town gets something real, and the operator gets the yes it couldn't otherwise buy.

$156B+
in projects blocked or stalled by local opposition
188
opposition groups active across 40 states
2 → 25
project cancellations a year, '23 → '25
20+
projects killed in a single quarter (Q1 ’26) — a record

Sources: Data Center Watch / 10a Labs; McKinsey · 2025–26

What everyone gets

Powers the cloud. Feeds the town.

For the community & the planet

    For the operator

      Why we're doing this
      "I believe AI is one of the most genuinely useful advances of our era — and I love this planet. For a long time those two things felt at war. Intelligent Harvest is the peace I went looking for, couldn't find, and decided to build."
      Andrew Potter, Founder · thematchlightgroup.com
      07
      Reach out

      Building one, fighting one, or just curious?

      Contractor interested in getting involved? Operator looking to build? City official looking for a greener option? Reach out — we read every note personally.

      Investor or partner?

      The full document library — the research, the proof, the model, and the paperwork — lives behind the Build Hub. Access is granted to partners with an NDA on file.

      Request Build Hub access →

      We read every note personally. You'll hear back soon.