Environmental monitoring
Temperature, humidity, water-leak and smoke sensors are placed according to equipment risks and maintenance routes, not as an afterthought.
SETEK / ENGINEERING METHODOLOGY
A data center is not defined by its enclosure. It is defined by the IT workload it must support, the power and thermal conditions it must maintain, and the acceptance tests that prove the complete system can perform.
Start a project enquiry ›01 / DEFINE
Before selecting a container size, we document the servers, GPU class, rack count, power per rack, anticipated growth, cooling interface, redundancy expectations and site conditions. This requirement set becomes the reference for every downstream engineering decision.
02 / SYSTEM ARCHITECTURE
Server racks, networking, aisle arrangement, cable management and physical service access.
Incoming power, UPS and battery strategy, protected distribution, rack PDUs and monitoring.
Direct-to-chip liquid loops, CDUs, pumps, heat exchangers, residual air cooling and external heat rejection.
For high-density D2C designs, rack liquid connections are coordinated with the CDU and heat-rejection interfaces. Immersion and rear-door heat exchangers remain project-specific options, not a universal default.
03 / THERMAL & ELECTRICAL INTERFACES
A project begins with the real electrical connection: voltage, available capacity, short-circuit level and permitted backup strategy. Distribution diagrams then define UPS boundaries, protective coordination and monitoring points.
The thermal design follows heat from cold plates to the rack manifolds, the CDU and the external rejection equipment. The remaining air-cooled fraction must be handled separately, including room air paths and non-liquid loads.
The heat split depends on the selected server platform and operating point; no generic liquid-cooling percentage should be treated as a guaranteed SETEK product result.
04 / OPERATIONAL READINESS
Temperature, humidity, water-leak and smoke sensors are placed according to equipment risks and maintenance routes, not as an afterthought.
Incoming supply, UPS health, branch loading and rack-level metering can be presented as one operational view where supported by the chosen equipment.
Clearances, access control, lighting, fire-safety interfaces and component replacement are coordinated with the final enclosure and site layout.
Factory and site tests are traced back to the Basis of Design so that operating readiness is demonstrated against documented acceptance criteria.
05 / DESIGN CONTROL
We review boundaries between packages and suppliers to reduce commissioning surprises. Electrical one-line diagrams, thermal design points, space and access requirements, lifting plans and site connection details must tell the same story.
For projects in seismic regions, the supporting structure, equipment restraints, flexible interfaces and relevant isolation systems must be evaluated within the broader site concept rather than treated as decorative additions.
EXPLORE THE TECHNICAL PATHWAYS
06 / DELIVERY & VALIDATION
Clarify the user brief and missing technical inputs.
Document assumptions, limits, compliance targets and interfaces.
Align modules, preliminary layouts, major equipment and commercial scope.
Test agreed functional sequences and package interfaces before shipment.
Confirm installation, connections, operation and project acceptance criteria.
Actual tests, certification evidence, lead times and performance commitments are determined in the project-specific engineering scope and supplier documentation.