Summary
- Currie & Brown estimates UK data centre project costs could rise by up to 6.8% under higher oil price scenarios.
- The analysis links oil volatility to steel, copper, aluminium, transport, supplier pricing, and delivery risk.
- The warning comes as developers already face grid delays, long equipment lead times, and pressure to deliver AI-ready capacity.
Currie & Brown has warned that UK data centre construction costs could rise by up to 6.8% if oil prices remain elevated, adding another pressure point to a market already constrained by power access and long equipment lead times.
The consultancy’s analysis models how oil-price volatility could affect construction costs across global markets. For data centre projects, it estimates potential increases of up to 8.5% in the US, 6.8% in the UK, and 5.5% in Thailand under higher oil price scenarios.
The company’s research update says the exposure extends beyond fuel. Energy prices feed into the manufacture and transport of steel, copper, and aluminium, as well as supplier pricing, procurement strategies, and project delivery.
MEP packages carry the exposure
Data centres are unusually sensitive to materials and energy costs because they are dense electrical and mechanical projects. Steel frames, cable, busbar, switchgear, transformers, cooling plant, pipework, generators, batteries, and backup systems all carry commodity exposure.
Oil-price movement can also affect logistics, plastics, insulation, site operations, and supplier confidence. Contractors and equipment vendors facing volatile input costs may shorten quote validity, price in risk, or push clients towards earlier procurement commitments.
On a large UK data centre build, a 6.8% cost movement can affect funding assumptions, contingencies, contractor risk allocation, customer pricing, and phasing decisions. Schemes without secured power, mature design, or fixed procurement packages will be more exposed than projects already deep into delivery.
Cost joins power as a buildability test
UK data centre delivery is already being tested by grid connections, planning scrutiny, and lead times for critical electrical equipment. AI demand has increased appetite for larger campuses and higher-density facilities, yet those schemes still have to be financed, procured, built, and energised.
Construction inflation also affects the UK’s position against competing European markets. Developers compare power availability, tax treatment, permitting, grid charges, labour, water, and build costs before committing capital. If UK costs rise faster than those in rival locations, speculative or early-stage projects may struggle without firm customer backing.
MEP contractors will feel much of the strain. Electrical and mechanical packages carry heavy cost, programme, and coordination risk, and delayed procurement can cascade across the whole build. Copper, aluminium, steel, transformers, switchboards, cable containment, cooling plant, and generator packages are all exposed to input-cost movement and delivery slots.
Investors are also becoming more selective. Capital is still flowing into data centres, but execution risk now matters more than announced capacity. Projects with secured grid positions, advanced planning, fixed-price packages, and credible procurement plans will look stronger than those relying on demand forecasts alone.
Currie & Brown’s scenario does not mean every UK project will absorb the full increase. Contract structure, procurement timing, hedging, supplier agreements, design maturity, contingency, and location will shape actual exposure. The broader point is harder to avoid: energy volatility affects data centre economics before a single rack is energised.
