Data Center & AI Infrastructure
AI-ready data center campuses engineered as one system: power generated and used on site, natural cooling from river or sea, surplus energy turned into heat and green hydrogen — and the redundancy, density and compliance that operators and lenders expect.
What we do
- 01
Integrated energy + cooling campus
On-site power plant, renewables and storage operating behind the meter. Energy is produced and consumed on site, with no grid export.
- 02
Natural river or sea cooling
Cooling energy from about one percent of IT load down to below zero — ready for direct liquid cooling at the rack.
- 03
High-density AI halls
Cold-plate, immersion and hybrid liquid cooling designed for the rack densities of AI training and inference.
- 04
Redundancy & reliability
Tier I–IV topologies for power and cooling, N, N+1 and 2N, with concurrent maintainability checked end to end.
- 05
Power distribution & quality
MV/LV distribution, UPS, transformer and cable sizing, power factor and harmonics, short-circuit and selectivity.
- 06
Heat & hydrogen as products
Waste heat to district heating or aquaculture; surplus energy running an on-site green-hydrogen plant instead of being curtailed.
Data Center → Data Renoversity
Energy + cooling + hydrogenData Renoversity™H −2.0.1
Cooling energy −2 / 0 / +1 %. 100 % self‑powered. Surplus becomes hydrogen.
Renoversity = Renewable + University: a self-sustaining campus. H −2.0.1 reads as H for hydrogen and −2 / 0 / 1 for the cooling-energy classes.
Natural river or sea cooling, a campus that powers itself, and surplus energy stored as hydrogen — designed as one system, sited where it works best.
- −2 %H −2Cooling that gives energy back.
- 0 %H 0Cooling with no energy.
- +1 %H 1Cooling at about one percent.
Natural cooling
River or sea cooling, with cooling energy from about one percent down to below zero.
Self-sufficient energy
On-site plant, renewables and BESS behind the meter — in island mode, or grid-connected with the grid on standby only.
Surplus to hydrogen
Energy the campus cannot use runs electrolysers; hydrogen is stored, returned or sold.
Data Renoversity™ is a proprietary concept of WHT Enterprise. Concept, methods and site-selection know-how are confidential.
Energy + cooling + hydrogen. One campus, in balance with itself.
An on-site power plant, renewables and battery storage run behind the meter. Every kilowatt-hour is produced and consumed on site: IT load first, then cooling and heat reuse — and the surplus runs a green-hydrogen plant instead of being curtailed. Stored hydrogen comes back to the campus when renewables fall short.
- −2 / 0 / +1 %Cooling energy as a share of IT load — three options
- 100 %Self-powered: plant, renewables and storage behind the meter
- ≈ 0Grid transfer in grid-standby mode: practically no import, no export
- Tier I–IVRedundancy topologies for power and cooling
Indicative outcomes — every campus is computed on its own site data.
Island mode or grid-connected
- 01
Island mode
The campus runs entirely on its own plant, renewables, storage and hydrogen — no connection required.
- 02
Grid-connected, standby only
Where a connection exists, the grid is held as standby. The design goal is near-zero bidirectional transfer: practically no import, no export.
- 03
Surplus to hydrogen, not to the grid
Instead of exporting, surplus energy runs the electrolysers — so the campus balances itself.
Siting with WaiMAP
The right site makes the concept work. WaiMAP finds and ranks the right sites.
Output: a ranked shortlist of candidate sites, discussed with you in confidence.
Open WaiMAP ↗Natural river or sea cooling
Cooling that gives energy back
In the best sites, cooling is a net energy contributor to the campus.
Cooling with no energy
Where the site allows, cooling needs practically no energy at all.
Cooling at about one percent
Everywhere else, natural cooling at about one percent of IT load.
Ready for AI densities
Natural cooling feeding direct liquid cooling for high-density halls.
Green hydrogen on surplus energy
Because nothing is exported to the grid, surplus renewable and plant energy has a job: it runs on-site electrolysers that follow the surplus — ramping up when there is spare power and down when the IT load needs it.
Electrolysers that follow the surplus
PEM or alkaline electrolysers, sized and dispatched against the hourly surplus of the campus energy balance.
Water on site
Feed water comes from the campus’s own water source, treated to electrolyser quality — including desalination where the source is the sea.
Compression & storage
Hydrogen is compressed and stored on site, sized for daily balancing or seasonal backup.
Back to the campus
During renewable shortfalls, fuel cells or H2-ready engines turn stored hydrogen back into power — seasonal backup that reduces fuel use.
Or out as a product
Hydrogen supplied to industry and mobility when the campus does not need it.
Heat into the loop
Electrolyser waste heat joins the heat-reuse loop with the data halls.
High-density racks
PUE by climate
Indicative design ranges; the model is run hour by hour on the real climate of the site.
| Cold / temperate with water cooling | ≈ 1.1–1.2 |
|---|---|
| Temperate, air-side economiser | ≈ 1.2–1.3 |
| Hot or humid, mechanical cooling | ≈ 1.3–1.5 |
Compliance
- TIA-942
- EN 50600
- NFPA 75
- NFPA 76
- NEC 645
- UL 2755
Modular & prefabricated
Power skids, cooling modules and prefabricated halls built in parallel with site works, so capacity is added in blocks that match the IT roadmap.
Power distribution & power factor
MV ring, transformers, UPS and busway sized together; power factor, harmonics and selectivity studied for the non-linear load of AI hardware.
Finance & PUE sensitivity
LCOE, NPV and IRR with PUE, energy price, utilisation and density as sensitivities — so investors see which assumption moves the answer.
Heat reuse
Low-grade heat from the data halls and electrolysers, upgraded by heat pumps for district heating, or used directly for aquaculture and greenhouses.
Typical deliverables
- 01Site screening and campus siting report
- 02Energy balance and behind-the-meter supply concept
- 03Natural cooling concept
- 04Single-line diagrams, load-flow and short-circuit study
- 05Tier topology and redundancy assessment
- 06PUE model by climate and season
- 07Basis of design and compliance matrix
- 08Finance model with PUE and energy-price sensitivity
- 09Specifications and tender packages
- 10Commissioning and integrated systems test plan
Method
- 01
Site & resource
Water body, climate, hazards, soil and land read for the campus.
- 02
Energy balance
IT load, cooling, electrolysers and heat reuse balanced hour by hour.
- 03
Topology
Tier level, density and cooling architecture fixed with the operator.
- 04
Studies
Load-flow, short-circuit, protection, PUE and finance — verified.
- 05
Delivery
Specification, tender, interfaces and integrated systems testing.
Engagement roles
Advisor
- Site and technology due diligence for investors
- Bankability review of power, cooling and PUE claims
- Feasibility of on-site generation versus grid supply
Technical Consultant
- Concept and basic design of power and cooling
- Owner’s engineer for operators and developers
- Specifications and tender for MEP and energy packages
Technical Partner
- Co-development of energy + cooling campuses
- Interface management between power, cooling and IT fit-out
- Integrated systems testing and operations support
Computed on our platform
- Data center energy & design
- PUE by climate
- Transformer & cable sizing
- Load-flow & short-circuit
- Single-line diagrams
- Hybrid supply sizing
- LCOE / NPV / IRR
- Verified reports
Let’s talk in confidence.
Planning a data center campus? Share your location and load with us under confidentiality — we come back with a first view of what a Data Renoversity could do there.