Data centre heat. Containerised growing. Renewable energy. One integrated stack.
90–95%
Less water per kg vs field CEA
50–70°C
DLC exhaust into the grow loop
20–30%
Site energy as recoverable heat
AgriTechTonic integrates a data centre, grow module, and energy hub. Waste heat at 50 to 70 degrees Celsius flows from the data centre into the grow module. Solar, wind, and a heat pump feed the energy hub, which dispatches renewable energy to the grow module and the data centre.
Data centre
Grow module
Energy hub
AgriTechTonic is modular, containerised infrastructure that turns data centre waste heat into food at zero heating cost. Each node combines an edge data centre, a controlled-environment grow module, and a renewable energy hub into one deployable stack, operated by Gravitonic Ltd.
Data centres waste heat; farms pay to stay warm; the grid cannot keep up. None of them are designed as a single system.
A 500 kW data centre produces 100–150 kW of continuous thermal output. A grow container needs constant warmth. We close that loop on site.
A 20–40 ft ISO container fitted for SME and AI-inference workloads. Direct liquid cooling captures heat that air-cooled halls dump.
20–40 ft
ISO shipping container
DLC
Off-the-shelf liquid loops
50–70°C
Usable for CEA heat
1.2–1.3
20–30% recoverable heat
CEA in a neighbouring ISO container. Heat is the dominant UK operating cost — here it arrives from the data centre at zero extra heating cost.
CEA
Hydroponics, aeroponics, mushrooms
90–95%
Less per kg vs field farming
2–4 ac
Freight Farms 40 ft equivalent
Greens
Herbs, microgreens, mushrooms
Solar, small wind, lithium iron phosphate storage, and a grid connection as fallback. AI can schedule compute against generation.
PV + wind
Sized to the site
LFP BESS
Time-shift and reserve
Grid
Import when weather is thin
SEG / DSR
Export and flexibility, if contracted
Four UK conditions now make this stack practical to deploy.
Industry analysis puts global modular data-centre market growth at around 17% CAGR through the late 2020s. Edge compute and AI inference need capacity that can be placed quickly and locally. Traditional construction cannot match that speed, which is why prefabricated halls are moving from niche to default for distributed loads.
The UK produces approximately 60% of the food it consumes by value. Defra’s 2024 food-security report recorded a 62% production-to-supply ratio for all food in 2023, with a stable ~60:40 domestic-to-import balance. Food security is now a funded policy priority across Innovate UK, DEFRA, and UKRI.
Direct liquid cooling from vendors including HPE and Danfoss is commercially available off the shelf. The 50–70°C exhaust it produces sits in the temperature range CEA heating needs. That match is an engineering fact, not a future research programme.
Long connection queues and rising demand are making off-grid and edge-sited infrastructure more attractive to operators and landowners. A node that can island, export under the Smart Export Guarantee, and still fall back to the grid is a practical response to that constraint — not a slogan about leaving the network.
Select a module for the ISO container, what it exchanges with its neighbours, and the explainer. Engineering facts, not a yield model.
A 20–40 ft ISO container fitted for SME and AI-inference workloads. Direct liquid cooling captures heat that air-cooled halls dump.
20–40 ft
ISO shipping container
DLC
Off-the-shelf liquid loops
50–70°C
Usable for CEA heat
1.2–1.3
20–30% recoverable heat
Move one slider per module. Switch between engineering bands and indicative sterling value — same layout, same sliders. Not a crop-yield model and not a quote.
Recoverable heat
100–150 kW
Continuous thermal band
DLC exhaust
50–70°C
Matches CEA heating
PUE band
1.2–1.3
Liquid-cooled modular hall
20–30% of IT load as heat; 50–70°C DLC exhaust. Engineering band, not a SKU.
Land-yield equivalent
2–4 ac
Freight Farms 40 ft equivalent
Water vs field
90–95%
Less per kg vs field farming
Heat source
From the DC
Zero extra heating opex
Freight Farms Greenery S benchmark, not a guaranteed harvest. Water 90–95% less per kg vs field (peer-reviewed range).
Indicative annual yield
45,000 kWh
UK temperate rule of thumb
Island-mode
Capable
Duration is site engineering
Public network
Grid
Import when weather is thin
~900 kWh/kWp/yr UK temperate indicative. Resource, tilt, and shading change the result.
The same three containers adapt to unused rural land, capacity-constrained IT operators, and places where the grid queue is the constraint.
If you have a pad, a grid connection, or an existing renewable plant, a node can sit beside it without a multi-year data-hall programme.
Containerised inference halls with DLC, useful heat, and a grow neighbour — for operators facing queues, not for hyperscale training marketing.
Solar, wind, and LFP storage keep a defined load inside spec if the public network drops. The grid remains fallback, not the only plan.
Each AgriTechTonic node is island-mode capable. It produces food, processes compute workloads, and generates energy locally. A failure in any other node has zero effect on it. That is the opposite of a system in which one regional outage, one cold-chain breach, or one airline IT fault can halt activity across a continent.
| Stage | Geography |
|---|---|
| Local | South Oxfordshire pilot |
| Regional | UK farms, rural estates, industrial parks |
| National | UK-wide node network |
| Ireland | Cross-border deployment |
| European Union | Sovereign compute and sustainable food |
| UAE | Vision 2031 food security and AI infrastructure |
90–95%
Less irrigation water per kilogram in closed hydroponic CEA versus conventional field farming.
20–30%
Of site energy at PUE 1.2–1.3 is recoverable heat — piped to the grow loop instead of dumped.
2–4 ac
Freight Farms’ 40 ft container land-yield equivalent for leafy crops — an industry benchmark, not a guarantee.
~17%
Modular data-centre market CAGR in independent industry analysis — edge demand the traditional build cannot match.
Investors, landowners and operators, and grant bodies each have a contact type. Gated materials stay off-page.
A credible, fundable thesis: modular heat-to-food infrastructure, UK-first, without a public raise figure or deck on this site.
Unused land, a grid connection, renewable plant, or edge-capacity demand — that is what a Phase 1 conversation looks like.
Food security, net zero, and rural digital infrastructure sit in one stack. Early-stage conversations with Innovate UK, DEFRA, and UKRI-aligned briefs are welcome.
AgriTechTonic is a UK infrastructure venture that co-locates a containerised edge data centre, a controlled-environment grow module, and a renewable energy hub. Waste heat from the data centre warms the grow module at zero marginal heating cost. The venture is operated by Gravitonic Ltd.
A modular data centre is a prefabricated compute facility, often built inside a 20–40 ft ISO shipping container, that can be transported and commissioned far faster than a traditional brick-and-mortar hall. AgriTechTonic uses this format for edge and AI inference workloads, not hyperscale cloud campuses.
Servers convert a large share of electrical input into heat. Direct liquid cooling captures that heat in a fluid loop at 50–70°C instead of dumping it through air chillers. AgriTechTonic pipes the recoverable portion into an adjacent grow module so the heat becomes a useful input rather than waste.
Controlled environment agriculture (CEA) grows crops indoors with managed light, temperature, humidity, and nutrients. Typical methods include hydroponics, aeroponics, and mushroom cultivation. In the UK, keeping that environment warm is a dominant operating cost — which is why co-located data-centre heat matters.
Direct liquid cooling (DLC) removes heat from servers by circulating coolant across cold plates or similar components, rather than relying only on air. Commercial systems from vendors including HPE and Danfoss produce exhaust heat in the 50–70°C range, which matches the temperatures needed to heat a CEA grow space.
Power Usage Effectiveness (PUE) is total facility energy divided by IT equipment energy. A PUE of 1.0 would mean every watt goes to servers. Typical air-cooled halls sit well above 1.4. A well-run liquid-cooled modular hall can target roughly 1.2–1.3, which still leaves 20–30% of site energy as recoverable heat.
Yes. Waste-heat recovery from data centres is a documented engineering practice. AgriTechTonic’s differentiation is integration: the data centre, grow module, and energy hub are designed as one containerised stack so the heat loop is a default, not a retrofit.
Peer-reviewed reviews report that hydroponic and other CEA systems can use around 90–95% less irrigation water per kilogram of crop than conventional field farming, especially in closed, recirculating loops. Actual savings depend on crop, climate, and whether the system recaptures condensate.
Freight Farms specifies that its Greenery S, a 40 ft hydroponic container, has an equivalent land yield of 2–4 acres annually for leafy greens and similar crops. That figure is a yield-equivalence claim for those crop types, not a claim that every crop or climate matches it.
Use Get in touch in the header or email [email protected]. Choose an enquiry type so the right conversation starts: investor, grant, partnership, press, or other. There is no public phone number.