In February 2026, the Strait of Hormuz escalation triggered a shock that reverberated through UK construction within days. Steel surcharges of 18-30% materialised not in weeks, but in hours. It was a brutal demonstration of how geopolitical events translate directly into project costs.
But the Hormuz crisis was not isolated. It was the fourth successive global disruption to hit hospital construction in as many years. Since 2020, the industry has absorbed the Covid supply chain collapse, the Suez Canal blockage, the Ukraine war and energy crisis, and now this. Each shock compounded the last. Materials are now 40% above 2020 baselines. Supply chains have never fully recovered before the next disruption arrived.
The question for the sector is not whether disruption will happen again. It will. The question is whether procurement models, contract structures and supply chain strategies have adapted to treat disruption as the baseline rather than an anomaly. This article sets out what resilient procurement looks like in practice.
Why hospitals are hit hardest
Hospitals are among the most services-intensive building typologies in the construction industry. They require sophisticated electrical and mechanical systems: resilient power and data infrastructure, standby generation, switchgear, HVAC, and medical gas networks. These systems depend on long-lead items, transformers, copper wiring, and electrical switchgear sourced from global markets where competition for capacity has intensified sharply.
With copper and electrical steel prices driven upward by global demand, and with data centre investment and grid modernisation programmes across the US, Europe and Asia competing for the same equipment, a new hospital finds itself in the same procurement queue as a hyperscale data centre. Data centre operators, more agile in their decision-making and unencumbered by public sector approvals processes, secure factory slots faster. Hospital construction programmes, governed by business case approvals and multi-stage procurement, frequently arrive later.
MEP (mechanical, electrical, plumbing) represents between 35% and 50% of a hospital’s total value. Conventional bundled procurement models, in which the main contractor appoints a single Tier 1 M&E subcontractor, who then manages all relationships with manufacturers, leave the main contractor two steps removed from actual order books. By the time lead time extensions surface, orders have been missed, programme float consumed and cost premiums loaded.
Contractors that have taken the Tier 1 MEP integrator role in-house gain direct visibility of real order-book positions, place orders earlier, substitute if lead times extend, and engineer out scarcest components. Given that NHS England has identified MEP supply chain availability as a critical programme risk, procurement structure at this interface has material programme and cost consequences.
Four shocks, one trajectory
The 40% material cost increase since 2020 is the cumulative result of four successive disruptions, each arriving before supply chains recovered:
- 2020 – The Covid supply chain collapse disrupted manufacturing and global logistics simultaneously, introducing lead-time extensions that persisted well beyond the immediate crisis.
- 2021 – The Suez Canal blockage halted shipping routes, extending lead times and exposing the fragility of just-in-time supply chains.
- 2022/2023 – The Ukraine war and energy crisis destabilised commodity markets, particularly for energy-intensive materials such as steel and cement, which have not returned to pre-crisis pricing levels.
- 2026 – The Hormuz escalation triggered fresh volatility in energy and steel prices within days, adding surcharges of 18-30% to an already elevated baseline.
Cost certainty in a volatile market
Value engineering requires precision in this environment. Steel and concrete are the primary structural materials in hospital buildings and cannot be designed out. What can be managed is the volume and specification interventions made early, before structural logic is locked into design.
Three areas offer consistent opportunity: eliminate or reduce transfer structures through early Stage 2 coordination; substitute GGBS (Ground Granulated Blast-furnace Slag) for a proportion of Portland cement to reduce both embodied carbon and cement cost volatility; and reducing floor-to-floor heights through integrated MEP coordination, which compounds into meaningful structural and façade savings across multi-storey schemes.
Not yet a Subscriber?
This is a small extract of the full article which is available ONLY to premium content subscribers. Click below to get premium content on Building Better Healthcare.
Subscribe now Already a subscriber? Sign in here.
