An ICT infrastructure design for a Kuwait building has to satisfy three parties at once: the architect, who needs the riser and comms rooms in the right place; the MEP consultant, who needs the containment routes to clear ductwork and chilled-water pipework; and the IT or operator team, who needs enough capacity and spare ports for equipment that has not been bought yet. Most coordination problems start when one of those three is designed in isolation.

Structured cabling architecture

A structured cabling design usually follows a standard hierarchy, which makes the drawings and the cable schedules easier to check:

  • Campus or external backbone (where there is more than one building): fibre routes between buildings, with diverse paths where the client needs resilience.
  • Building backbone: fibre risers between the main distributor and each floor distributor.
  • Floor distributors and telecommunications rooms (TRs): the termination point for horizontal cabling on each level.
  • Horizontal cabling: from the TR to each work area outlet. In most commercial buildings this is copper, typically Category 6A where the design calls for 10 Gb/s over the full channel length.
  • Work area outlets: the points the schedule should identify by room and device type, not just a sequence number.

Design references commonly used for this hierarchy include the TIA-568 series and ISO/IEC 11801. The project specification and the client's IT standards decide which applies. Confirm this with the client before the cable schedules are issued.

Copper and fibre-optic infrastructure

Copper suits horizontal runs, where distances are short and power-over-Ethernet is common for access points, cameras and telephones. Fibre suits the backbone, where distances are longer and electromagnetic interference from lift motors, drives and large transformers matters. A common specification is single-mode fibre for building-to-building links and multimode for in-building backbones, with the fibre count set by the client's growth assumptions rather than by a fixed rule. Record the fibre type, core count and termination method on the schedule. Ambiguous labels such as "fibre x 24" cause problems at handover.

Telecommunications rooms and equipment rooms

The main equipment room and the TRs need to be designed as spaces, not left as leftover areas after the architectural layout is fixed. Check these points early:

  • Room size for the racks, the patch panels, the active equipment and the working clearance in front and behind the racks.
  • Power supply, earthing and the number of dedicated circuits, coordinated with the electrical design.
  • Cooling. Comms rooms in Kuwait's climate often need dedicated cooling; this is covered in more detail in our hot-climate ELV article.
  • Access, door position, and whether the room sits above or near water-carrying pipework.

Rack layouts and pathway coordination

A rack layout should be drawn before the room is finalised. Show the rack elevation, the patch panel positions, the vertical cable managers, the power distribution units and the space reserved for future equipment. Keep patch panels and active equipment in separate racks or clearly separated zones where the client's IT team will manage them differently.

Pathways are where most clashes occur. Coordinate containment in this order: main risers and cable trays first, then horizontal distribution above the ceiling, then drops to outlets. Check each route against ductwork, sprinkler pipes, lighting and the ceiling grid. Allow a separation from power cables as required by the applicable standard and the project specification, and record the separation on the containment drawings.

Backbone and horizontal design decisions

Three decisions shape the rest of the design, so settle them early:

  1. Number of outlets per work area, and whether they are dedicated to voice, data, Wi-Fi access points or building systems.
  2. Redundancy of the backbone: a single riser route, or two diverse routes for critical areas.
  3. Growth allowance: the spare ports and spare containment capacity the client has asked for, stated as numbers, not as "future-proof".

Coordination with IT, MEP and architectural teams

The ICT design depends on decisions made by other teams. The table below shows the most common interfaces and the question to resolve for each:

DisciplineInterface with ICT designQuestion to resolve
ArchitecturalTR and riser locations, ceiling heights, floor-to-floor shaftsAre the rooms fixed, and are the shafts large enough for the planned containment?
ElectricalPower to racks, UPS, earthing, separation from data cablesHow many dedicated circuits, and where is the UPS located?
Mechanical (HVAC)Cooling for TRs and the main equipment roomWhat heat load is assumed per rack?
Fire and life safetyPenetrations through fire-rated walls and floors, cable fire performanceWhich firestopping system and cable rating does the authority require?
IT or client operatorActive equipment, IP addressing, port countsWhat is the equipment list and the port growth requirement?

Documentation and drawing deliverables

A complete ICT design package normally includes the following. The exact list depends on the contract scope and the project's BIM execution requirements.

  • Design basis and assumptions, including the standards referenced and any items to be confirmed by the client.
  • Backbone and riser diagrams showing fibre counts and routes.
  • Floor plans with outlet locations, device types and the TR references.
  • Rack elevations for each TR and the main equipment room.
  • Containment layouts coordinated with the MEP model.
  • Cable and port schedules with unique labels that match the drawings.
  • Cable containment and firestopping details where the design requires them.

Design considerations for hotels, hospitals and mixed-use buildings

The building type changes the design priorities. In a hotel, guest-room outlets, the Wi-Fi backbone and the property management system interfaces need separate pathways from back-of-house systems. In a hospital, clinical and administrative networks often need to be kept apart and the cable routes need to be coordinated with medical gas and infection-control requirements. In a mixed-use development, the residential and commercial networks usually need separate risers, metering and access control. Each of these points should be confirmed with the operator before the cabling layout is locked.

Common mistakes and how to avoid them

  • Rack space designed without equipment. Ask for the equipment list. If it is not available, state the assumption on the drawings.
  • Containment sized for today. Show the fill assumption and the spare capacity on the risers.
  • Riser routes shared with power without a separation check. Record the separation distance on the drawings.
  • Labels that do not match between drawings and schedules. Use one labelling scheme and check it at each issue.
  • Fire-rated penetrations left unspecified. Agree the firestopping approach with the fire engineer before the containment is issued.

Guidance for consultants, developers and contractors

Consultants should issue the design basis early and mark every assumption that the client needs to confirm. Developers should fix the TR and riser locations before the architectural layout is frozen. Contractors should receive drawings that show containment capacity and firestopping requirements, not just outlet positions. Where the design is outsourced, agree the drawing revision process and who approves each issue.

Conclusion

A good ICT infrastructure design in Kuwait is built around the rooms, risers and pathways, and it is coordinated with the other disciplines from the start. The cabling layout itself is the easier part.

Looking for ICT infrastructure design, structured cabling documentation or outsourced engineering design support for your project in Kuwait? Contact ASDV Consultant to discuss your project scope, deliverables and technical requirements. For the wider ELV scope, see our ELV design consultancy service.

Frequently asked questions

What does an ICT infrastructure design include?

Typically the backbone and riser design, the telecommunications room and rack layouts, the horizontal cabling and outlet schedule, the containment design coordinated with the MEP model, and the associated drawings and schedules. The contract scope defines which of these ASDV Consultant provides.

Is Category 6A always required?

No. Category 6A is common where 10 Gb/s over full channel length is needed. The category depends on the client's network requirements and the applicable standard, so confirm it in the design basis.

Who approves the ICT design in Kuwait?

The consultant of record and the client's IT team normally approve the design. Any requirement from a local authority, including fire or telecommunications approvals, must be confirmed by the project team with the relevant authority.