Open project · Europe & world

The data center
that gives energy back.

A reference blueprint for the data center of the AI era — on-site photovoltaics, advanced liquid cooling and waste-heat recovery into district networks. Designed to be replicated in any digital hub from the Nordics to the Mediterranean and beyond.

~460 TWh global DC electricity demand today · IEA
~1,000 TWh projected annual demand by 2030
~40% share of DC energy used for cooling today
PUE < 1.2 target vs. 1.55 industry average
Stage · Reference concept Scope · 1 – 100 MW+ modular Lead · ITC Europe Open to partners
A data center should not be a black box that burns electricity and dumps heat. It should be a district-scale energy asset — producing its own power where it can, and returning the rest as usable heat to the city next door.
Wolfgang Beick · President, ITC Europe
01 — Why this, why now

Compute is the new industry. Energy is its bottleneck.

The data center industry is entering a step change. AI workloads, the cloud and edge processing will push global data-center electricity consumption from roughly 460 TWh today toward 1,000 TWh by 2030 (IEA). In parts of Europe — Ireland, the Nordics, Frankfurt — data centers already consume more than 15% of national grid capacity.

The question is no longer can we build more. It is how we build them — so that compute growth does not cancel out Europe's climate progress. Every new facility built to the old playbook locks in decades of inefficient cooling and wasted heat.

~2% Share of global electricity consumed by data centers today
~4% Projected share by 2030 without efficiency gains
25–40% Efficiency gain achievable with integrated design
~50 °C Typical waste-heat temperature — usable in district networks
ITC Europe engineer measuring on-site in a server room — live verification on tablet against rack monitors.
Roof-top infrastructure of a modern data center — PV canopy and cooling towers
Site · Modular · 1 – 100 MW+

One design language. Three scales. Infinite sites.

The same architectural principles — renewable integration, liquid cooling, heat recovery — scale from an edge node to a regional hub to a hyperscale campus.

02 — The concept

Three engineering moves, one integrated facility.

Most of the efficiency gap between today's average data center and the theoretical optimum comes down to three engineering decisions — usually made in isolation. We design them as a single system.

Concept rendering — sustainable data center with PV canopy, liquid cooling and district heat link
Concept rendering — integrated facility layout
01

On-site PV and renewable integration

Roof and perimeter photovoltaics, direct PPAs and on-site battery buffering reduce grid dependency and stabilize cost. Designed for Nordic, Atlantic and Continental climate zones alike.

02

Advanced liquid & free cooling

Direct-to-chip liquid cooling, rear-door heat exchangers and climate-appropriate free cooling bring PUE below 1.2 while enabling much higher rack densities for AI workloads.

03

Waste-heat recovery into district networks

Low-grade heat (35–55 °C) is captured and fed into local district heating, industrial pre-heating or greenhouse clusters — turning a thermal loss into a contracted revenue stream.

03 — Scenarios

One architecture, three deployment scales.

Indicative figures based on current European typologies. All numbers are order-of-magnitude guides for early conversations, not engineering commitments.

Scale IT load Target PUE Heat export potential Typical context
A · Edge 1 – 5 MW ≤ 1.25 5 – 25 GWh/yr Urban edge node, local district heating link
B · Regional 5 – 30 MW ≤ 1.20 25 – 150 GWh/yr Regional cloud hub, industrial park symbiosis
C · Hyperscale 30 – 100 MW+ ≤ 1.15 150 – 500+ GWh/yr Full PV + wind PPA, metropolitan heat off-take
04 — Who this is for

Four kinds of partners shape this programme.

Operators

Hyperscalers & colocation

Operators building the next generation of facilities, willing to commit to PUE < 1.2 and heat-export from day one.

  • Cloud
  • Colo
  • Edge
Heat

District heating operators

Municipal and industrial heat network operators looking for a stable, low-carbon base-load input of recovered heat.

  • Municipal
  • Industrial
  • Greenhouses
Energy

Utilities & renewables

Utility partners, PV and wind developers, storage providers and PPA structurers that can match a 24/7 data load.

  • PV
  • Wind
  • Storage
Capital

Investors & developers

Infrastructure funds, project developers and EPC partners co-leading the engineering phase alongside ITC Europe.

  • Infra funds
  • EPC
  • Dev partners
Close-up of rooftop renewables and cooling infrastructure
Detail · PV + Cooling

A rooftop that earns its electrons.

Integrated PV canopies, adiabatic coolers and heat exchangers sized for the local climate — no two sites are the same.

05 — How we work together

A staged path from concept to investment decision.

Step 01

Exploration call

A 30-minute conversation to see if the scope, geography and timeline fit your organisation.

Step 02

Scoped workshop

We map the parts of the programme you can operate, co-fund, off-take or supply. Technical leads from both sides take part.

Step 03

Joint pre-feasibility

A bounded study (3–6 months) producing the numbers needed for an investment decision or a public funding bid.

Step 04

Consortium

If the pre-feasibility lands, the partners form a consortium to carry engineering, permitting and financing.

ITC Europe engineers on-site in a data hall — live audit, not a render
On the ground

Real facilities, real measurements. Now looking for partners.

20+ years of energy audits in banking, industrial and data-center environments inform every parameter in this concept.

06 — Join our vision

Write to us. Bring a question, a capacity, or a site.

We treat every serious message as a conversation, not a pitch. Tell us briefly who you represent and what part of the programme you are curious about — we will come back with a short, specific reply.

Working languages: English · German · Polish.