SETEK / QUANTUM INFRASTRUCTURE CONCEPT

Precision environments.
Built around qubit stability.

Quantum-support infrastructure must manage cryogenic interfaces, vibration sensitivity, EMI exposure, power continuity and environmental control around the chosen quantum hardware—not around a conventional server-room assumption.

SETEK quantum modular infrastructure technology visualization

Illustrative product visualization. Compatibility and final configuration depend on the selected quantum OEM platform.

QUANTUM DATA CENTER

The container is not the qubit environment.
It supports the qubit environment.

Quantum computers operate in a completely different regime from conventional IT. For superconducting platforms, the qubit device is stabilized at about 10–20 millikelvin inside a dilution refrigerator cryostat. The infrastructure outside the cryostat must reduce disturbances and provide the utilities that keep the quantum system operational.

01 / CRYOGENIC SUPPORT

Dilution refrigerator ready

Plan room, lifting, service access and facility interfaces for one or more refrigerators, together with their control and support equipment.

02 / VIBRATION ISOLATION

Structure-borne disturbance control

Anti-vibration floor concepts and isolation measures can be reviewed to reduce risks of qubit decoherence or instrument instability.

03 / EMI & MAGNETIC REVIEW

Shielding where justified

Faraday-cage or related shielding concepts are assessed against OEM-defined EMI and magnetic-field limits rather than assumed universally.

04 / REDUNDANT POWER

UPS plus backup strategy

Quantum-support loads often require continuity for control electronics, utilities and safe shutdown sequences. UPS and generator strategies are evaluated per project.

05 / ENVIRONMENTAL CONTROL

Temperature, humidity & pressure

Supporting rooms may require clean, stable environmental management for electronics, lasers, vacuum subsystems or operator areas.

06 / MODULAR EXPANSION

Scale as the program grows

Containerized layouts can support phased expansion as research equipment, cryogenic capacity or control hardware grows over time.

REFERENCE CONTAINER CONCEPTS

20 ft or 40 ft?
Choose around the equipment and workflow.

The following are concept-planning references derived from partner page information and reformulated for SETEK’s website. They are not final product commitments and always require OEM-specific design validation.

20 FT CONTAINER

Compact research node

  • Approx. dimensions: 6,058 × 2,438 × 2,896 mm
  • Dilution refrigerators: concept space for 1–2 units
  • Space configuration: separable equipment and control arrangements possible
  • Shielding reference: EMI/EMC testing criteria may reference MIL-STD-461G where applicable; shielding effectiveness requires separate verification
  • Power planning range: about 50–100 kVA depending on platform and utilities
  • Cooling support: cryogenic system support plus standard HVAC / facility cooling
40 FT CONTAINER

Expanded equipment & control zones

  • Approx. dimensions: 12,192 × 2,438 × 2,896 mm
  • Dilution refrigerators: concept space for 2–4 units
  • Space configuration: distinct control and equipment rooms are more feasible
  • Shielding reference: EMI/EMC testing criteria may reference MIL-STD-461G where applicable; shielding effectiveness requires separate verification
  • Power planning range: about 100–200 kVA depending on selected hardware
  • Cooling support: cryogenic interfaces with conventional environmental control and heat rejection

TECHNOLOGY FAMILIES

No single quantum template.
The platform drives the infrastructure.

Different quantum-computing technologies need different cooling temperatures, optical interfaces and shielding responses. SETEK therefore starts from the hardware vendor’s requirements rather than from a fixed enclosure template.

Technology familyTypical infrastructure prioritiesExamples of design checks
SuperconductingDilution refrigerator, microwave wiring, magnetic review, vibration control and facility coolingCryostat envelope, utility demand, service clearances, EMI / magnetic criteria
Trapped-ionVacuum systems, laser equipment, optical stability and precision environmental controlOptical path protection, vibration sensitivity, heat loads and room arrangement
PhotonicOptical modules, lasers, detectors and alignment-sensitive control electronicsDetector cooling needs, cable routing, optical layout and supporting utilities

FAQ

Common questions.
Clear starting points.

Q1What makes a quantum data center different from a traditional data center?

Quantum hardware may operate near absolute zero inside its cryogenic system and can be highly sensitive to micro-vibration, electromagnetic interference and magnetic fields. That leads to very different infrastructure priorities than a standard server room.

Q2Why use a containerized quantum infrastructure platform?

A modular enclosure can accelerate deployment without requiring an entirely new building, support outdoor placement near existing research facilities and allow phased expansion as the program scales.

Q3What is a dilution refrigerator?

It is a cryogenic system that uses a helium-3 / helium-4 mixture to cool down to roughly 10–20 mK. That ultra-cold environment is essential for many superconducting qubit systems to maintain their quantum state.

Q4Which quantum technologies can this support?

The infrastructure concept can be adapted around superconducting, trapped-ion, photonic and other architectures, provided the equipment vendor’s requirements for cooling, shielding, vibration and utilities are defined clearly enough for engineering.

Important technical note: “~15 mK” refers to the qubit environment inside the dilution refrigerator cryostat, not to the air temperature of the whole container. Final compatibility, EMI/EMC compliance, shielding effectiveness, uptime strategy and environmental criteria must be confirmed through project-specific engineering and OEM data.

YOUR REQUIREMENTS, OUR STARTING POINT

Infrastructure is a system.
Let's design it together.

Share your intended quantum platform, required utilities, site conditions and resilience targets. SETEK will coordinate the next engineering steps and scope.

Send a project enquiry ↗