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AURORA

Future Compute Architecture

Terrestrial First.
Orbital Ready.

Artificial intelligence infrastructure is beginning to expand beyond a single physical environment. Terrestrial data-centre campuses will remain essential for sovereign data custody, secure storage, regulated workloads, local access, high-volume datasets, hardware maintenance and long-duration customer infrastructure.

Emerging satellite and orbital-compute systems may create additional opportunities for space-generated data, solar-powered processing, resilient global capacity and specialised workloads. Quantum Aurora’s proposed Phase 1 remains a land-based, renewable-powered 50MW AI and HPC campus.

ConceptUnder ReviewOrbital compute is excluded from the Phase 1 base case

We are not betting against orbital compute. We are building the sovereign terrestrial platform an orbital-compute economy will still require.

Aurora Earth-to-Orbit Architecture

Four layers. One sovereign anchor.

04 · FUTURE ORBITAL-COMPUTE INTERFACEFuture orbital-compute interface — Long-term option. Hybrid ground-to-orbit workload routing under study.03 · SATELLITE AND GROUND CONNECTIVITYSatellite and ground connectivity — Diverse links, remote operations and backup communications.02 · SPACE-DATA GATEWAYSpace-data gateway — Satellite-data ingestion with sovereign Australian storage.01 · SOVEREIGN TERRESTRIAL ANCHORSovereign terrestrial anchor — The Phase 1 asset: a renewable-powered WA AI and HPC campus.WA CAMPUS
Indicative architecture concept. The terrestrial campus remains the anchor asset; orbital interoperability is a long-term design consideration, not part of Phase 1.

Layer 01

Sovereign terrestrial anchor

Concept
  • Australian-hosted AI compute
  • Secure data storage
  • Model training
  • Sovereign cloud
  • Government workloads
  • Biomedical AI
  • Mining AI
  • University research
  • Regulated enterprise

Layer 02

Space-data gateway

Under Review
  • Satellite-data ingestion
  • Earth-observation analytics
  • Environmental monitoring
  • Mining and agriculture intelligence
  • Emergency-response data
  • Secure Australian data storage
  • Scientific research

Layer 03

Satellite and ground connectivity

Under Review
  • Diverse connectivity
  • Remote operations
  • Construction connectivity
  • Backup communications
  • Ground-station readiness
  • Optical and radio-frequency link assessment
  • Remote community applications

Layer 04

Future orbital-compute interface

Vision
  • Hybrid workload orchestration
  • Ground-to-orbit data routing
  • Orbital processing
  • Terrestrial persistence
  • Sovereign controls
  • Disaster-resilient compute
  • Vendor-neutral future integration

Investor-grade layer · NDA required

Layer-by-layer technical and capital detail.

Publicly we describe the four architecture layers and their status. Capacity staging, capital allocation per layer and the technical gating conditions are diligence material.

  • Phase 1 capacity staging by layer
  • Indicative capital allocation per layer
  • Technical gating conditions and sequencing
  • Interface and vendor-neutrality requirements
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Strategic Optionality · Preliminary Concept

A potential future collaboration pathway — not a current partnership.

Quantum Aurora is monitoring the emergence of terrestrial and orbital AI infrastructure, including industry developments involving SpaceXAI, Starmind, Starlink and other future compute and communications platforms.

  • Enterprise satellite connectivity
  • Remote-site communications
  • Australian space-data processing
  • Southern Hemisphere data gateways
  • Terrestrial compute capacity
  • Orbital-compute interoperability
  • Research collaboration
  • Government and emergency-services applications

Mandatory disclosure

Quantum Aurora has not entered into a partnership, investment agreement, offtake agreement or formal collaboration with SpaceX, SpaceXAI, Starlink, Starshield or Starmind. Any future engagement would be subject to technical assessment, commercial agreement, regulatory review and formal documentation.

Investor-grade layer · NDA required

Engagement pathway status.

No partnership exists with any orbital or satellite operator. The engagement register — who has been approached, at what stage and on what terms any discussion would proceed — is disclosed only under confidentiality.

  • Engagement register and current stage
  • Preconditions for any formal discussion
  • Substitutability analysis if no engagement proceeds
  • Base-case impact assessment (nil)
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Potential Future Partnership Workstreams

Five pathways under assessment.

Resilient connectivity

Potential role: Satellite backup and remote-site communications.

ConceptPotential Engagement Pathway

Australian compute capacity

Potential role: Terrestrial AI and HPC capacity for regional workloads.

Requires ValidationRequires Commercial Engagement

Space-data gateway

Potential role: Satellite-data ingestion, sovereign storage and Australian processing.

Under ReviewRequires Technical Feasibility

Orbital-compute interface

Potential role: Future hybrid terrestrial-orbital workload architecture.

VisionLong-Term Strategic Option

Research and sustainability

Potential role: Comparative terrestrial-orbital energy, cooling, lifecycle and workload research.

ConceptPotential Research Programme

No partnership, endorsement, investment or offtake relationship with any external organisation should be inferred from this page. Third-party names are referenced for context only; no logos are used and no permission is implied.

Advanced Cooling and Energy Future

Cool the compute. Protect the resource.

Quantum Aurora’s technical strategy will evaluate the most commercially, environmentally and operationally responsible cooling pathway for the selected site. Land-based liquid cooling is the bankable base case; alternative approaches are research options only.

Land-based liquid cooling

Concept

Potential strengths

  • Maintainable
  • Expandable
  • Insurable
  • Financeable

Requirements and risks

  • Direct-to-chip and closed-loop design
  • Site-specific thermal study

Seawater-assisted closed loop

Under Review

Potential strengths

  • Reduced cooling energy
  • Reduced freshwater demand

Requirements and risks

  • Coastal site
  • Environmental approval
  • Corrosion engineering
  • Marine impact assessment

Subsea compute modules

Vision

Potential strengths

  • Natural cooling
  • Small land footprint

Requirements and risks

  • Maintenance and hardware access risk
  • Corrosion and insurance risk
  • Marine approvals
  • Expansion complexity

Fully submerged or subsea compute modules are not part of the Phase 1 design and are treated as a future research option only.

Investor-grade layer · NDA required

Cooling selection economics.

The public page names the cooling options and their risks. Comparative energy, water, capital and operating economics — and the site-specific selection criteria — sit in the technical concept pack.

  • Comparative PUE and WUE modelling ranges
  • Capital and operating cost deltas by option
  • Environmental approval pathway per option
  • Site-specific selection criteria and decision gate
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Investor Pathway

Review the institutional case.

The future-compute architecture is optionality layered on top of a disciplined 50MW Phase 1. The bankable case is assessed on the terrestrial platform alone.

AION, Aurora OS Chief Intelligence Officer