$64 Billion of Data Centre Projects Have Been Blocked. The Industry Needs to Demonstrate It Is Building to a Higher Standard. FRP Is Part of That Demonstration.
- Jun 2
- 9 min read
Data centres have become a flashpoint. Communities across the US and UK are blocking projects over water use, power grid pressure, land consumption, and environmental impact. Over £37 billion of data centre projects have been delayed or blocked by local opposition globally. The industry's response cannot be faster permitting alone. It requires demonstrating that data centre infrastructure is genuinely built to a higher standard — and that starts with the materials inside the building.
Published by Reinforce Technology | May 2026
The global data centre construction boom is running into a wall of community resistance that no amount of corporate investment commitment can simply override. In the United States, over $64 billion of data centre projects have been blocked or delayed by local opposition in the past two years — a wave of bipartisan pushback from communities concerned about water consumption, strain on local power grids, land use, and the environmental footprint of facilities that draw enormous resources while delivering their primary benefits to remote corporate and consumer users (Data Center Watch, 2026).
The UK is not immune. Data centres already account for 5.9% of UK national electricity consumption — well above the global average of 2% — and the government's AI Growth Zone programme is concentrating new hyperscale capacity at a small number of sites where grid, land, and water resources must accommodate extraordinary new demands. The International Data Center Association has identified 5% of national electricity consumption as the threshold at which significant community and political resistance begins to materialise (Eastern Eye, 2026). The UK crossed that threshold. The resistance is already visible in planning objections, grid connection debates, and public discourse about what the AI infrastructure boom is actually delivering for communities hosting it.
The industry's conventional response — faster permitting, government support, economic impact data — addresses the political dimension of the problem. But it does not address the underlying concern that data centres are resource-intensive, environmentally impactful facilities that are being built at speed and at scale without adequate attention to the quality, sustainability, and long-term environmental performance of the infrastructure itself.
This is where material specification enters the conversation. The secondary infrastructure inside a data centre — the cable trays, grating, structural profiles, and perimeter fencing — determines the environmental footprint of the facility across its 25-year operational life in ways that are measurable, documentable, and increasingly relevant to planning authorities, investors, and communities evaluating what data centre development actually means in practice. FRP (Fibre Reinforced Polymer) is the specification that makes that environmental story substantially stronger.
What the Opposition Is Actually About
The community opposition to data centre development is not simply about not wanting large industrial buildings nearby. It is a coherent set of concerns about resource consumption that communities hosting data centres bear the local cost of while the benefits flow elsewhere.
Water consumption is the most viscerally felt concern. Large data centres use millions of litres of water annually for cooling — either through evaporative cooling towers or direct liquid cooling systems. In areas facing water stress or drought, this consumption creates genuine tension with local agricultural, residential, and environmental needs. Middle-class Americans, according to a Goldman Sachs analysis reported by Fortune in February 2026, are paying for the data centre and AI boom through higher electricity bills and even food costs as grid pressure pushes up energy prices (Fortune, 2026).
Power grid pressure is the second major concern. Data centres in the UK draw at unprecedented density from local transmission infrastructure. In some areas, grid connection queues now extend for years, delaying the connection of other users — including renewable energy projects — while data centre capacity is prioritised. The International Energy Agency's April 2026 report confirmed that AI-focused data centres surged 50% in electricity consumption in 2025, and projects global data centre power use doubling from 485 TWh to 950 TWh by 2030 (IEA, 2026).
Land use and embodied environmental impact are the third dimension. Communities see large parcels of land committed to facilities that import their primary inputs — electricity, water, computing hardware — and export their outputs — digital services — with minimal local economic benefit beyond construction employment. The embodied carbon of building these facilities — the steel, concrete, and materials that constitute the physical structure — is rarely part of the planning conversation, but it is an increasingly visible element of data centre sustainability claims as embodied carbon reporting becomes standard practice.
The data centre industry cannot resolve the water and power concerns through material specification alone. But it can demonstrate that the facilities being built take the environmental footprint of their physical construction seriously — and that the materials chosen for secondary infrastructure reflect a genuine commitment to sustainability, not just a corporate sustainability statement.
Why the Secondary Infrastructure Matters for the Sustainability Story
The primary environmental story of a data centre — its electricity source, water use, and cooling efficiency — is where most sustainability attention and reporting is focused. It is also the area most visible to planning authorities and community stakeholders. But the embodied carbon of the physical structure, and the maintenance and replacement cycles that the secondary infrastructure generates across the facility's 25-year life, are increasingly part of the environmental disclosure that sophisticated stakeholders expect.
The UK Net Zero Carbon Buildings Standard, launched March 2026, requires upfront embodied carbon to be documented across new construction — including data centres. The standard's A1 to A5 modules cover manufacturing, transport, and installation of all construction materials, including secondary infrastructure (IndexBox, 2026). For a large hyperscale data centre with kilometres of cable tray runs, extensive raised floor grating, equipment platforms, and perimeter fencing, the difference in manufacturing emissions between galvanised steel and FRP specifications is measurable in hundreds of tonnes of CO₂ equivalent — a directly reportable and documentable contribution to the facility's embodied carbon profile.
Beyond manufacturing, FRP's maintenance-free design life eliminates the replacement cycles that generate repeat embodied carbon across the operational period. A steel cable tray installation requiring recoating and eventual replacement within the data centre's operational life generates additional embodied carbon at each intervention — carbon that does not appear in the upfront A1 to A5 assessment but that the standard's B and C modules, which currently require reporting and will eventually require capping, will capture explicitly. FRP secondary infrastructure eliminates those repeat embodied carbon events entirely.
The Specific FRP Advantages in the Data Centre Sustainability Context
1. Lower Manufacturing Emissions — Documented and Reportable
FRP manufacturing emits 60 to 70% less CO₂ per tonne than traditional steel production (ScienceDirect, 2025). For a large data centre with significant quantities of cable management, grating, and structural profiles, specifying FRP over galvanised steel reduces the measurable, reportable A1 to A3 embodied carbon of the project within the scope that the Net Zero Carbon Buildings Standard already requires to be documented. This is not a theoretical environmental benefit. It is a compliance contribution that appears in the project's carbon declaration and that supports the sustainability claims the facility makes to planners, investors, and communities.
2. Eliminating Maintenance — Reducing Operational Environmental Footprint
Every maintenance access event on secondary infrastructure in a live data centre — recoating corroded cable trays, replacing degraded grating, treating rusted structural profiles — involves vehicle movements, materials, specialist labour, and the operational disruption of a facility that is supposed to run continuously. Each of those events has an environmental footprint: transport emissions, embodied carbon in replacement materials, and the waste disposal of removed sections.
FRP secondary infrastructure requires no maintenance-driven access across a 50-year design life in the environments data centres present. The environmental footprint of those maintenance events — across 25 years of a data centre's operational life — does not occur. For a facility making sustainability commitments that extend to its operational footprint, not just its power source, the elimination of maintenance-driven environmental impact is a directly relevant contribution.
3. Non-Conductivity — Simplifying Electrical Safety in High-Density Environments
FRP cable trays in data centres eliminate the earthing and bonding programme that steel requires — reducing the specialist labour, additional materials, and ongoing compliance documentation of the installation. In AI data centres where high-voltage DC bus systems for GPU power delivery operate alongside high-voltage AC distribution, non-conductive cable management reduces the electrical risk profile of the installation. This is a safety advantage that also has an environmental dimension: a simpler, lower-risk electrical infrastructure requires fewer ongoing compliance interventions, each of which generates its own environmental overhead.
4. Weight — Reducing Structural Carbon Overhead
FRP cable trays and secondary structural profiles are 75 to 80% lighter than steel equivalents. In large hyperscale data centre designs where dense overhead cable management and equipment platforms add significant dead load to the structural ceiling and floor systems, lighter secondary infrastructure reduces the structural specification required for the primary building elements. A lighter secondary infrastructure package can reduce the total steel or concrete in the building's primary structure — a compounding embodied carbon benefit that flows from the secondary material specification into the primary structural design.
The UK Data Centre Pipeline and the Planning Reality
The UK data centre market is forecast to grow at 22% annually through 2031 (Globe Newswire, 2026). Data centres have been designated critical national infrastructure, AI Growth Zones have been established to prioritise grid connections, and the government has made clear that it intends to make the UK a leading location for AI infrastructure investment. That policy intent is real and it is backed by planning, grid, and investment support mechanisms that create a genuinely favourable development environment.
But the planning environment is not uniformly accommodating. Local planning authorities assessing data centre applications on sites outside the designated AI Growth Zones must evaluate environmental impact, community benefit, and sustainability credentials alongside economic contribution. Planning applications that can demonstrate lower embodied carbon through material specification, maintenance-free operational design, and documented environmental performance across the facility's design life are better positioned in this assessment than those that cannot.
For investors assessing data centre assets against ESG criteria — an increasingly significant dimension of institutional real estate investment — the secondary infrastructure specification is part of the documented environmental performance that supports or undermines the asset's sustainability rating. An asset with documented lower-carbon secondary infrastructure, maintenance-free design life, and independent embodied carbon data tells a stronger ESG story than one that cannot provide equivalent documentation.
The community opposition that has blocked $64 billion of US data centre projects is not a purely American phenomenon. The UK has already crossed the electricity consumption threshold at which that opposition becomes organised and politically effective. The industry's response must include demonstrating, in documented and verifiable terms, that data centre facilities are built to the highest possible environmental standard — including the materials chosen for the infrastructure that runs through them. FRP is a meaningful and measurable part of that demonstration.
Reinforce Technology FRP Products for Data Centres
Reinforce Technology supplies the full range of FRP secondary infrastructure products for data centre applications — cable trays, grating, structural profiles, and perimeter fencing — in polyester and vinyl ester resin systems. We provide embodied carbon data, material traceability documentation, and resin system specifications to support sustainability reporting under the UK Net Zero Carbon Buildings Standard and investor ESG disclosure requirements.
We work with data centre developers, EPC contractors, M&E contractors, and procurement teams across the UK's hyperscale, colocation, and edge computing construction pipeline. Contact us to discuss your project and how FRP secondary infrastructure specification contributes to your embodied carbon position, planning submissions, and ESG documentation.
Final confirmation of suitability for any specific data centre application remains the responsibility of the appointed project engineer. Reinforce Technology provides technical guidance and material recommendations based on information supplied to us, but specification sign-off should always sit with the qualified professional responsible for the design. We are happy to provide full technical data sheets, embodied carbon data, and application-specific support to assist with that process.
References
Data Center Watch (2026) $64 Billion of Data Center Projects Have Been Blocked or Delayed Amid Local Opposition. Available at: https://www.datacenterwatch.org/report [Accessed: May 2026]. [Bipartisan local opposition blocking $64 billion of US data centre projects; communities concerned about water, power, and land use].
Eastern Eye (2026) AI Explosion Pushes UK Datacentres to Consume Massive Share of National Electricity. Available at: https://www.easterneye.biz/uk-datacentres-electricity-ai-demand/ [Accessed: May 2026]. [UK data centres at 5.9% of national electricity; IDCA threshold for organised opposition at 5%].
Fortune (2026) Middle-Class Americans Are Paying for the Data Center and AI Boom With Higher Electric Bills and Even Food Costs, Goldman Sachs Warns. Available at: https://fortune.com [Accessed: May 2026].
Globe Newswire (2026) UK Data Center Market — Investment Analysis and Growth Opportunities 2026–2031. Available at: https://www.globenewswire.com [Accessed: May 2026]. [UK data centre market CAGR 22.12% through 2031; £47 billion announced investment since 2023].
IEA (2026) Key Questions on Energy and AI. Paris: International Energy Agency. Available at: https://www.iea.org/reports/key-questions-on-energy-and-ai/executive-summary [Accessed: May 2026]. [AI data centres surged 50% in electricity consumption in 2025; global data centre power projected to double to 950 TWh by 2030].
IndexBox (2026) UK Net Zero Carbon Buildings Standard Launched. Available at: https://www.indexbox.io/blog/uk-launches-first-net-zero-carbon-buildings-standard-in-march-2026/ [Accessed: May 2026].
NACE International (2016) International Measures of Prevention, Application and Economics of Corrosion Technology (IMPACT). Houston, TX: NACE International. Available at: http://impact.nace.org/economic-impact.aspx [Accessed: May 2026]
ScienceDirect (2025) 'Sustainable composites for metal replacement: Environmental assessment and material selection of fiber-reinforced polymer across industries', ScienceDirect. doi: 10.1016/S2667-3789(25)00051-3 [Accessed: May 2026]. [FRP manufacturing emits 60–70% less CO₂ per tonne than steel].
Comments