Edge AI Campuses

Establish AI capacity where it needs to operate.

AI capacity depends on more than compute. Power, thermal conditions, communications and the site itself determine what can be established and what has to be engineered to make it work.

One Campus drawn in section on real ground. Energy stands to one side, the engineered envelope sits on the ground profile, and the conditions of the site are marked around it.
The same section recomposed for a narrow viewport. Energy above, the engineered envelope on its ground, and site conditions marked below.

Engineering takeout

What can be engineered here is set by what the site can actually support.

Energy, power delivery, thermal conditions, communications and the ground itself decide the capacity a Campus can establish.

Campus, site and scale.

The capacity problem

AI capacity is not always available where or when an operation needs it.

The site needs enough energy. Power has to be delivered at the required capacity and quality. Heat has to leave. Communications have to remain usable. The physical environment places its own demands on the infrastructure.

Every site is different. The architecture should not be.

CAMPUS engineering substrate

One engineering responsibility

Power, thermal, compute and communications do not operate independently.

The power available affects the compute that can be supported. Compute density determines the heat that has to be carried away. Thermal conditions affect what can operate reliably. Communications determine how the capacity participates in the wider operation.

Treat those as separate decisions and somebody still has to own the interfaces between them.

EdgeQub holds those interfaces as one Campus architecture.

Power · Thermal · Compute · Communications

Power

Thermal

Compute

Communications

Resolved against each other, not specified separately

One engineered body. The division is analytical, not physical, and not a set of separately procurable products.

The parts are available. The resolution is the product.

CAMPUS energy precedence

Energy before compute

AI capacity starts with the energy available to sustain it.

Before compute density can be determined, the engineering has to establish what energy is available, how power can be delivered and what the site can support.

Energy resource, storage and management drawn as the three inputs that decide what AI capacity can be established, with capacity drawn to their right.

ENGINEERING TAKEOUT

AI capacity is an energy decision before it is a compute decision.

CAMPUS thermal engineering

IceQub. Thermal engineering for Edge AI.

IceQub is proprietary EdgeQub technology engineered specifically for Edge AI workloads.

AI compute concentrates heat. How that heat can be carried away depends on compute density, ambient conditions and the physical constraints of the site.

IceQub establishes the thermal conditions the AI capacity requires as part of the Campus architecture, not as a cooling decision made after the compute has already been selected.

A compute envelope with the heat path drawn as part of the same engineered body, leaving the envelope into the ambient conditions of the site rather than being added afterwards.

ENGINEERING TAKEOUT

Thermal capacity is engineered with the AI capacity, not added after the compute decision.

Conceptual representation · thermal path varies with engineered conditions

Campus, engineering detail.

A consistent architecture, engineered for each site.

Every Campus follows a coherent EdgeQub architecture.

Where a component or configuration is already known, it can be standardised. Where energy, thermal conditions, communications, physical constraints or operating requirements differ, the engineering responds.

CAMPUS campus forms

Three complete forms

Wing

500kW

Campus Wing drawn complete on the shared module lattice, set against an environment that already exists.

Block

1MW

Campus Block drawn complete on the shared module lattice as a closed repeatable arrangement.

Precinct

~100MW

Campus Precinct drawn complete on the shared module lattice as several engineered groups held inside one architecture.

ONE CAMPUS ARCHITECTURE

Engineered for the capacity the requirement demands.

Wing, Block and Precinct are complete Campus forms.

CAMPUS data centre assurance

Data Centre Assurance

Assure the whole data centre, not just its cyber perimeter.

A data centre brings digital infrastructure, physical environments, energy and power systems into one operating environment. A weakness in one can create consequences somewhere else.

EdgeQub Data Centre Assurance brings those dependencies into one assurance view, from design and construction through commissioning and operations.

It underpins EdgeQub Wing, Block and Precinct implementations and can also be applied independently to fixed data-centre projects.

Secure the systems that control the environment, not just the systems that use it.

Data-centre cybersecurity crosses IT, operational technology and facility infrastructure. EdgeQub looks at the connections between them, where networks, identities, remote access, vendors and control systems can create exposure.

Assurance can extend across architecture and segmentation, privileged access, monitoring and detection, vulnerability management, third-party access, backup and recovery, and IT/OT integration.

Architecture · Networks · Identity · IT/OT · Monitoring · Vendor access

Protect the physical environment digital trust depends on.

Physical access, critical spaces, infrastructure and operational movement form part of the data centre's wider control environment.

EdgeQub brings physical security into the same assurance view as cyber, energy, power and operational systems, from the perimeter through controlled access to the critical environments inside.

Perimeter · Access · Critical areas · Detection · Monitoring · Operations

Power systems are part of the security environment too.

A data centre depends on systems that supply, control and distribute energy to critical workloads. Those systems can introduce digital control, telemetry, remote access and operational dependencies of their own.

EdgeQub brings energy and power expertise into the assurance problem, looking across power management, UPS and generator controls, facility systems, monitoring, communications and their cyber dependencies.

Supply · Delivery · Control · Telemetry · Resilience · Cyber-physical dependencies

AI infrastructure changes what has to be assured.

GPU-dense environments create different compute, network, management, power and thermal conditions. They need to be understood as an architecture, not treated as conventional IT at greater density.

EdgeQub assurance can extend into accelerator infrastructure, high-bandwidth fabrics, management and control planes, infrastructure processing such as DPUs, hardware-supported security controls, and the power and thermal dependencies surrounding AI workloads.

GPU + Accelerator · Fabric · DPU · Management plane · Hardware controls · Power + Thermal

Assurance follows the data centre into operation.

Risk changes as a project moves from design into construction, commissioning and live operation. Contractors leave. Temporary access disappears. Systems become interconnected. Operational responsibility changes hands.

EdgeQub carries assurance across those transitions, so security and control are considered as the environment becomes real, not reconstructed after commissioning.

Design → Construction → Commissioning → Readiness → Handover → Operations

One environment. Interdependent risks.

Cybersecurity, physical security, energy, power and AI infrastructure are often assessed as separate disciplines.

The data centre does not experience them separately.

EdgeQub looks at the interfaces between them, where digital events can create physical consequences, physical access can create digital exposure, and the systems responsible for power and facility operation become part of the security environment.

Already building a data centre?

You do not need an EdgeQub Campus to engage EdgeQub Data Centre Assurance.

The assurance disciplines that underpin Wing, Block and Precinct can also be applied to fixed data-centre projects, from design and construction through commissioning and operational transition.

Talk to EdgeQub

CAMPUS qub-space

Qub-space

Rack space inside an engineered Edge AI Campus.

Qub-space gives customers access to rack capacity inside a Campus where EdgeQub holds engineering responsibility for the infrastructure around it.

The rack is only part of what matters. Power, IceQub thermal engineering, compute conditions and communications are resolved through the Campus architecture.

An engineered Campus boundary with the substrate resolved around it. Inside it, a row of rack positions. The rack positions are Qub-space. The engineering around them is the Campus.
The same relationship redrawn for a narrow viewport. The engineered Campus boundary outside, rack positions inside.

Outer boundary · the engineered Campus

Inner positions · Qub-space

ENGINEERING TAKEOUT

Qub-space gives AI infrastructure a place inside capacity that has already been engineered to support it.

Planning AI capacity?

Start with the conditions it has to operate within. EdgeQub can work with you to establish the site, energy, infrastructure and operating requirements that shape viable Qub-space.

Request Qub-space

CAMPUS category questions

Canonical clarifications

Canonical clarifications

01Is an Edge AI Campus a data centre?

An Edge AI Campus is engineered specifically to establish AI capacity under the conditions of a site. Power, IceQub thermal engineering, compute and communications are resolved together around that requirement. It may share physical characteristics with data-centre infrastructure, but the Campus is defined by the AI capacity it is engineered to establish.

02Is Qub-space colocation?

Qub-space is rack space inside an Edge AI Campus. The distinction is the engineered Campus around it: EdgeQub holds responsibility for resolving the infrastructure the AI capacity depends on.

03Are Wing, Block and Precinct different product tiers?

No. Wing, Block and Precinct are complete Edge AI Campus forms for different capacity requirements: 500 kW, 1 MW and approximately 100 MW respectively. They are not stages in a progression.

04Does engineering for each site mean every Campus is bespoke?

No. EdgeQub maintains a coherent Campus architecture, standardising what is already known and engineering what the conditions of the site require.

05What is IceQub?

IceQub is proprietary EdgeQub technology engineered specifically for the thermal requirements of Edge AI workloads. It enables thermal conditions to be resolved as part of the Campus architecture alongside power, compute and communications.

EQ

The forces shaping AI beyond the model.

Perspectives from EdgeQub on energy, infrastructure, data, intelligence and the conditions changing how AI works in the real world.

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