AI Compute Capacity
ANTARES owns and operates the GPU infrastructure, providing managed compute capacity under customer-specific service terms.
ANTARES builds and operates modular GPU infrastructure for enterprise AI inference.
ANTARES owns and operates the GPU infrastructure, providing managed compute capacity under customer-specific service terms.
Customers bring their own GPU hardware. ANTARES provides the facility, power, cooling and connectivity required to operate it.
Production AI depends on available power, cooling, GPUs, network connectivity and an operating environment that meets uptime, security and data-location requirements.
For enterprises, compute capacity is not interchangeable. The relevant questions are where it is located, when it can be commissioned, which hardware it supports and whether it can expand with demand. ANTARES addresses that layer directly by integrating the physical systems required to run AI workloads continuously.
Fast-moving, iterating weekly
Slow-moving, the foundation
Production inference serves live, variable demand. Capacity must be planned around response time, availability, data location and operating cost, not only GPU performance.
ANTARES focuses on sustained inference environments designed for continuous service and measured expansion.
ANTARES integrates enclosure, protected power, liquid cooling, networking and GPU systems into a modular deployment. At power-secured, permit-ready sites, the target is 12 to 18 months to operation; conventional greenfield programs can require five to seven years when power access and site development are included.
ANTARES evaluates locations across European markets according to customer proximity, available power, connectivity, site readiness and jurisdiction. Capacity is not tied to one fixed mega-campus.
Sovereign infrastructure gives customers defined choices over where systems operate, who can access them and which operating model applies. Network design, identity controls, application architecture and contractual responsibilities determine how those choices work in practice.
For production inference, regional placement can shorten network paths to users and support defined workload-location requirements. Separate locations limit shared physical failure, while modular capacity can be added where power, permits and demand are available. Continuity across sites still requires explicit replication, routing and recovery design.
ANTARES coordinates site readiness, system design, equipment integration and the operating model. Suppliers are qualified for each project against compatibility, availability, support and lifecycle requirements.
Power, permits, connectivity and site constraints are validated before the equipment configuration is fixed.
Site preparation and factory fabrication can proceed in parallel. Timing still depends on power, permits, equipment supply and commissioning scope.
Electrical, thermal, compute and network architecture are specified together for the site and intended workload.
Telemetry, access control, maintenance, spares and incident response are defined before commissioning.
The appropriate structure depends on the project, its assets, customer arrangements, financing requirements and participating parties. The examples below explain the available concepts at a high level.
Equity participation in a defined infrastructure project. Outcomes depend on customer contracts, utilization, operating costs, financing and residual asset value.
A project-level debt instrument. Coupon, maturity, security package, covenants and any conversion rights are defined for each issuance.
Direct title to identified GPU hardware, hosted and operated under contract by ANTARES. Returns depend on utilization, pricing, operating costs and the equipment's useful life.
ANTARES designs and integrates modular GPU infrastructure, including power distribution, liquid cooling, compute, networking and the operating environment. Depending on the project, ANTARES either hosts customer-owned GPUs or provides AI compute capacity.
Modular deployment allows capacity to be added in defined increments as power and customer demand become available. It supports phased growth across separate locations while keeping each deployment sized to its site and intended workload.
Revenue comes from two main models: hosting customer-owned GPU hardware and providing AI compute capacity. Pricing and service scope are developed for each project based on the hardware, power, location, workload and operating requirements.
The starting points are customer demand, available power, delivery schedule, equipment selection, investment cost, operating budget and downside assumptions. These show whether the project logic remains understandable when utilization, pricing or timing change.
The most important variables are utilization, rental pricing, electricity cost, operating expenses, deployment timing and the useful life of the GPUs. The calculator makes these assumptions visible so different scenarios can be compared consistently.
Hardware is selected for the intended workload, customer demand, support position and expected economics. The modular design allows systems to be added or replaced in stages instead of requiring the entire infrastructure platform to change at once.
Assessment begins with the selected GPU, expected workload, metered electricity consumption, cooling design and total facility load. Energy source, renewable generation, battery storage and grid services are considered at the level of the individual location.
The most useful information is specific and project-based: location, available power, technical design, selected hardware, delivery stage, customer use case, investment assumptions and operating data. This makes it easier to distinguish the current project position from future plans.
Share the relevant context and we will route your inquiry to the appropriate ANTARES team.