A data center is a jurisdiction with a roof. We translate a nation's power, fiber, and legal geography into a facility design that holds sovereign compute and settlement infrastructure.
Before a slab is poured, the grid interconnect and generation profile define the envelope of everything a site can host.
We assess available capacity at candidate substations, transmission headroom, and the utility's firm-power commitment. The interconnect ceiling sets the maximum IT load the site can ever carry, which anchors rack density and phasing.
Sovereign owners often require power sourced and dispatched in-nation. We map on-grid supply against on-site generation and long-duration storage so the facility can run its critical load without cross-border dependency.
AI and GPU clusters push per-rack draw far beyond conventional enterprise loads. Medium-voltage distribution, busway topology, and transformer placement are designed to the actual cluster profile, not a generic watts-per-rack average.
We select the distribution topology — from single path to fully isolated 2N — against the owner's tolerance for concurrent maintenance and fault. Settlement and key-custody workloads are placed on the most fault-tolerant paths.
Physical routes and carrier diversity are evaluated as a security property, not just a performance one.
We require geographically separated fiber entries with no shared conduit, manhole, or right-of-way. A single backhoe or a single flooded vault must never sever the facility from the network.
Candidate sites are scored on the number of independent carriers reachable and the diversity of long-haul routes. Concentration on one carrier or one corridor is treated as a sovereignty risk, not a commercial convenience.
For CBDC and tokenization workloads, round-trip latency to central-bank systems, participating institutions, and other national nodes shapes site ranking. Placement is optimized for the settlement graph the nation actually operates.
Routing is designed so that in-nation traffic can be kept in-nation. Where data must not traverse foreign jurisdictions, the connectivity design enforces that at the physical and routing layer.
Sovereign facilities are shaped by law, hazard, and control of the land as much as by engineering.
The site sits inside a defined legal residency boundary. Land title, hosting entity, and operating law are structured so that keys, weights, and ledger data remain under national jurisdiction and outside foreign discovery.
We evaluate seismic zone, flood plain, wildfire exposure, and prevailing weather against the continuity requirements of the workload. Structural and siting decisions follow the national hazard code, not a lowest-common-denominator standard.
Perimeter standoff, approach control, and site lines are designed for the threat model of critical financial infrastructure. Physical control of the land supports the cryptographic control of the keys held inside it.
Zoning, environmental permitting, and utility easements are resolved as part of selection. A technically ideal site with an unbuildable permit path is disqualified before design effort is spent.
Power, fiber, and law are reconciled into a buildable topology with the sovereign workload at its center.
The floor is zoned by criticality. Key-custody hardware, ledger nodes, and settlement services occupy the highest-redundancy, highest-security zones; training clusters occupy high-density zones tuned for thermal load.
Cooling is designed to the real heat profile — direct liquid, rear-door, or hybrid air — rather than retrofitted later. The mechanical design and the power topology are engineered together as one system.
Hardware that holds owner keys and model weights is placed in a hardened enclave with independent access control and tamper-evident boundaries, so post-quantum key custody has a matching physical layer.
The design reserves power, cooling, and structural capacity for later phases. A nation can start at proven scale and expand into the reserved envelope without redesigning the core plant.
Talk to us about site selection and design in a sovereign deployment.