Summary
- Stender says it is developing the Rødby project for a major data centre operator that remains unnamed under an NDA.
- Preliminary plans cover eight data centre buildings, more than 328,000 square metres, and capacity of up to 960MW.
- Final scale remains dependent on electricity supply, local planning, and regulatory approvals.
The developer behind a proposed 960MW data centre campus near Rødby in Denmark says the project is being developed for a major industry operator, adding new detail to a scheme whose power requirement had already placed it among the country’s most substantial digital-infrastructure proposals.
Stender chief executive Allan Egeris Arentsen told FehmarnBusiness that the client is one of the major operators pursuing a strategy of developing large-scale hyperscale data centres.
The company remains unnamed because Stender is bound by a non-disclosure agreement. Arentsen said the operator does not intend to identify itself publicly until there is greater certainty that the development can be realised.
Preliminary plans cover more than 328,000 square metres and include eight data centre buildings with capacity of up to 960MW. Stender has stressed that the final size will depend on available power, the local development plan, and regulatory approvals.
Operator identity does not remove delivery risk
The disclosure changes the commercial context around the project, but not its infrastructure dependencies. A major hyperscale backer may bring greater balance-sheet capacity and data centre delivery experience than a speculative developer, yet a stated 960MW maximum remains a development ambition until the required electricity, permissions, and construction phases are secured.
DataCentral reported earlier in September on the project’s grid requirement. The latest information adds confirmation that Stender is not developing the scheme without an identified end user.
At this scale, grid access is likely to determine phasing even if the full campus ultimately proceeds. A 960MW upper limit is sufficiently large that treating the project as a single energisation event would obscure the practical sequence of transmission capacity, substations, internal distribution, building delivery, and customer deployment.
The proposed eight-building layout also points towards a campus model in which capacity can be added in stages. That allows individual data halls or buildings to progress while later blocks remain dependent on further power, planning, or commercial milestones.
960MW remains an upper limit
The project is therefore more advanced in commercial identity than it appeared when only the site and power requirement were known, but several fundamental variables remain open.
The operator has not been named, no final campus capacity has been confirmed, and the developer itself has tied the outcome to power supply, local planning, and regulatory approval. There is also no announced timetable for bringing the entire 960MW into service.
Those caveats matter because European data centre pipelines increasingly contain projects whose headline capacity is substantially larger than the power that has actually been energised. Early-stage schemes can change size, move through multiple phases, or be delayed as grid and planning conditions develop.
Stender’s confirmation nevertheless removes one uncertainty: the project has an identified hyperscale client rather than being marketed without a known operator. The next material milestones will be the ones that turn that customer relationship into buildable capacity — particularly planning progress and evidence that the required electricity can be delivered.
Stender says the operator’s identity will be disclosed when the project reaches a stage at which there is greater certainty it can proceed.
