Plan ICT Before You Build: Save Costs, Skip Rework
Designing network, power, security, and cabling into the building and electrical plans cuts costs by up to half versus retrofitting. Here is what to plan, when, and the mistakes Kampala projects keep repeating.

Every month in Kampala, a beautiful new building opens — and within weeks, its corridors sprout surface trunking, its fresh paint gets chased open for cables that were never planned, and its server room turns out to be a broom cupboard with no cooling, no dedicated power, and no way to get a cable riser past the third floor. The building cost hundreds of thousands of dollars. The ICT retrofit costs a fortune, looks terrible, and performs worse than a planned installation at half the price.
This article is for architects, developers, contractors, and business owners at plan stage: why ICT belongs in the building and electrical drawings from day one, what exactly to design in, and what it saves. If your drawings are already with the quantity surveyor, bring us in now — a free assessment of your plans costs nothing and routinely saves six figures.
The Core Maths: Rough-In vs Retrofit
Running a cable before walls close costs labour plus a length of cable and conduit — typically a few dollars per drop. Running the same cable after handover means cutting and chasing plaster or blockwork, making good, repainting, working around tenants, and often settling for surface trunking because chasing is too disruptive. Across whole buildings, retrofit routinely costs two to five times the rough-in price for an inferior result: longer cable runs (attenuation and speed loss), visible containment, and zero spare capacity.
The killer is not one cable — it is the hundred small omissions compounding: no conduit to the gate (CCTV later needs a trench through the new paving), no riser past level two (upper floors get WiFi repeaters daisy-chained off hope), no spare ways in the distribution board (the UPS has nowhere to land). Each omission becomes a variation order at retrofit rates. Plan once, at builder's rates.
What to Design In, Discipline by Discipline
Structured cabling pathways. Every data outlet back to a floor distributor, every distributor back to the main equipment room — in conduit with draw wires, swept bends (never right angles that cables cannot be pulled through later), and 30–40% spare capacity. Separate data containment from electrical by regulation distances to avoid electromagnetic interference that no software setting can fix. Read the principles in what structured cabling actually is.
Telecom and server rooms. Size them for racks plus working clearance on all sides, not just the rack footprint. Specify dedicated cooling (a 3kW server load in a sealed room fails equipment within a year in Kampala heat), dedicated clean power from the UPS board, earthing bars bonded to the building earth, and a cable entry that does not require drilling structural beams later. Never accept "we'll find space later" — later never has space.
Power, UPS, and backup. Size distribution boards with spare ways for UPS input/output, generator changeover, and dedicated clean circuits for racks, CCTV recorders, and access panels. Coordinate ATS placement, generator earthing, and surge protection at incomer, distribution, and point-of-use levels — our power infrastructure guide details the layered approach. A building whose essential-services board was planned with ICT loads needs a small UPS; one that wasn't needs construction work.
CCTV, access, and WiFi provisions. Camera positions need conduit and power (PoE from a UPS-backed switch is the professional answer) at every gate, lobby, corridor break, and parking level — decided on drawings, not after paving. Doors getting access control need concealed conduit, reader back-boxes, and lock power specified with the door schedule, not chiselled in later. WiFi access points want ceiling centres with data + PoE, surveyed per floor, not "one router per floor and hope". See our CCTV design service for what proper coverage planning looks like.
External services entry. Ducts from the plot boundary to the equipment room (with draw ropes, spare ways, and documented routes) for fibre providers, plus a modest entry pit. Buildings without entry ducts watch contractors dig up the new driveway twice — once per ISP.
Voice and intercom. Even in a mobile-first era, entry intercoms, gate phones, and lift emergency lines need cable paths and power agreed with the lift vendor and gate fabricator before those elements are manufactured.
Coordination: The Part Everyone Skips
Drawings do not coordinate themselves. The ICT designer must sit with the architect (riser shafts, room sizes, ceiling voids), the electrical engineer (segregation, spare ways, UPS/generator integration, earthing), the structural engineer (no core drilling through beams later — agree penetrations now), and the main contractor (installation sequencing: containment before first fix, cable pulling before ceilings close, testing and certification before handover).
Insist on three deliverables before finishes start: coordinated containment layouts, a cable schedule (every outlet numbered to a patch panel port), and a test-and-certification plan with certification-grade acceptance criteria. Buildings handed over with certified, labelled, documented infrastructure appraise and lease better — tenants' IT teams can literally see what they are moving into.
Real Kampala Patterns (Names Withheld)
- A six-storey office block completed without a single vertical riser: upper floors now run on surface trunking and mesh WiFi hops, at triple the cost of two empty 100mm ducts.
- A hotel whose stunning stone-clad gate pillars contain no conduit: ANPR cameras and intercom arrived six months later via an exposed cable clipped to the stonework.
- A warehouse whose office server "room" shares a wall with the generator exhaust: equipment failures every hot season until a proper room was built — inside operating space, at retrofit rates.
- A hospital wing where power and data share congested trunking: intermittent network faults that three "network engineers" blamed on software before anyone opened a containment lid.
Every one of these was a drawing-stage decision worth less than a day of design time.
The Tender Advantage
There is a procurement dividend too. A tender package with coordinated ICT drawings, cable schedules, and acceptance criteria attracts serious bidders and comparable prices. A package that says "provisional sum for networking" attracts guesswork, variations, and disputes. When you compare integrators, the ones asking for your drawings and cable schedules before quoting are the ones you want.
Your Move at Whatever Stage You Are In
- Architectural concept: reserve risers, rooms, and entry ducts. One meeting.
- Electrical design: segregate containment, spare ways, UPS/generator integration, earthing, surge layers.
- Construction: sequence containment → cabling → testing before finishes close.
- Completed building: survey first, then retrofit surgically — talk to an engineer before cutting a single chase.
Send us your drawings at any stage — even a PDF of the floor plans is enough for first-pass ICT markup. Book a free assessment and build it right the first time.
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