Master Planning
Campus-scale planning for compute density, growth and resilience.
AI Gigafactories
Designing the world's first sovereign AI gigafactories.
Every D-AI Gigafactory is a standalone sovereign intelligence engine designed exclusively for one country, one governing authority and one national dataset.
500MW+
Power per campus
100k+
GPUs deployed
Tier IV
Fault tolerance
PUE 1.15
Design efficiency
The National Supercomputer
Not a data center. A nation's intelligence engine.
Conventional data centers were built to host websites, storage and enterprise workloads. Training and serving frontier AI models is a fundamentally different problem — one of extreme power density, exotic cooling and tightly-coupled network fabrics measured in petabits.
A D-AI Gigafactory is purpose-engineered for that mission. Power, thermal, network and security systems are co-designed from first principles so a nation can train its own foundation models, run classified inference and expand capacity — all inside its own borders, under its own laws.
Integrated Systems
Eight engineered systems. One sovereign supercomputer.
Power Infrastructure
Utility, microgrid and on-site generation engineered for 500MW+ loads.
Fiber & Connectivity
Diverse, low-latency routes with sovereign network topology.
Water & Cooling
Closed-loop liquid cooling with minimal water dependency.
Renewable Integration
Solar, storage and hydrogen readiness for low-carbon operation.
Heat Reuse
Recovered thermal energy channeled to district and industrial use.
Security Architecture
Physical and logical defense-in-depth for national assets.
Tier IV Operations
Fault-tolerant design for mission-critical availability.
Scale Tiers
Sized to the sovereign mission.
Every program is scoped to a nation's ambition — from a foundational national node to a frontier-scale gigafactory, all expandable in modular blocks.
National Node
- Power
- 50–100 MW
- GPUs
- Up to 25,000
- AI Compute
- ~10 EFLOPs
- Footprint
- 15,000 m²
Foundational sovereign inference and mid-scale training for a single ministry or agency.
Sovereign Campus
- Power
- 150–300 MW
- GPUs
- 25k–60,000
- AI Compute
- ~40 EFLOPs
- Footprint
- 35,000 m²
Whole-of-government training, cross-sector workloads and national model development.
Gigafactory
- Power
- 500 MW – 1.2 GW
- GPUs
- 100,000+
- AI Compute
- 80+ EFLOPs
- Footprint
- 80,000 m²+
Frontier-scale foundation-model training and a nation-wide intelligence backbone.
Power & Energy
Firm power at gigawatt scale.
AI compute lives and dies by power. We engineer resilient, low-carbon energy systems that keep frontier clusters running without interruption.
Utility-Scale Interconnect
High-voltage grid connections engineered for 500MW+ continuous IT load with redundant substations.
Battery Energy Storage
Grid-scale BESS for peak shaving, frequency response and ride-through resilience.
On-Site Generation
Co-located solar and gas turbine capacity with hydrogen-ready pathways for firm power.
Redundant Distribution
2N and 2N+1 electrical topologies eliminating single points of failure to the rack.
Thermal & Cooling
Engineered for 100kW+ per rack.
Next-generation accelerators run hot. Liquid and immersion cooling let us pack unprecedented density while slashing water and energy overhead.
Direct-to-Chip Liquid
Cold-plate cooling removes heat at the source, supporting 100kW+ per rack densities.
Immersion Ready
Single- and two-phase immersion zones for the highest-density accelerator clusters.
Closed-Loop Design
Recirculating systems minimise water draw, critical for arid and water-stressed regions.
Heat Recovery
Captured waste heat feeds district heating, desalination or industrial processes.
Security Architecture
Defense-in-depth for a national asset.
A sovereign supercomputer is critical national infrastructure. Every layer — from the perimeter to the key store — is hardened.
- Layer 01
Perimeter
Standoff distance, anti-ram barriers, layered fencing and continuous surveillance.
- Layer 02
Facility
Mantraps, biometric access control, 24/7 guard force and compartmentalised zones.
- Layer 03
Data Hall
Cage-level segregation, tamper detection and role-based physical access.
- Layer 04
Logical
Air-gapped enclaves, hardware root-of-trust and sovereign key management.
Sustainability
Frontier compute, minimal footprint.
Efficiency is engineered in, not bolted on. Our design targets set the benchmark for responsible sovereign AI infrastructure.
1.15
Target PUE
Power usage effectiveness
<0.2
WUE (L/kWh)
Water usage effectiveness
90%+
Heat recovered
Redirected to reuse
100%
Renewable pathway
Design-stage commitment
Delivery Lifecycle
From national partnership to national operations.
A disciplined, seven-stage program that de-risks every sovereign gigafactory from concept to live intelligence.
- 01
Partnership
A sovereign agreement defining ownership, governance, data jurisdiction and national objectives.
- 02
Site Screening
Evaluation of power availability, connectivity, climate, water and geopolitical resilience.
- 03
Feasibility & FEED
Front-end engineering design with capacity modelling, cost certainty and risk analysis.
- 04
Engineering
Detailed electrical, mechanical, network and structural design to Tier IV standards.
- 05
EPC Delivery
Procurement and construction managed under a single accountable delivery model.
- 06
Commissioning
Integrated systems testing, GPU burn-in and end-to-end performance validation.
- 07
National Operations
24/7 sovereign operations, SLA management and continuous capacity expansion.
FAQ
Common questions.
What makes a gigafactory different from a data center?
A D-AI Gigafactory is engineered end-to-end around AI training and inference at national scale — power, cooling, network fabric and security are co-designed as one system, rather than retrofitting a conventional colocation facility. Every campus is dedicated to a single sovereign owner.
Who owns and governs the facility?
The nation. D-AI designs, builds and can operate the gigafactory, but ownership, data jurisdiction and governance remain fully sovereign. Nothing is shared with other tenants or external clouds.
How long does a gigafactory take to deliver?
Timelines depend on scale and site readiness. A National Node can reach first power quickly, while a full Gigafactory follows the seven-stage lifecycle from partnership through phased commissioning, with compute brought online in expandable blocks.
Can it run in water-stressed or hot climates?
Yes. Closed-loop liquid and immersion cooling dramatically reduce water dependency, and thermal design accounts for high ambient temperatures — making sovereign compute viable in desert and coastal environments.