Where the funded construction work actually is in 2026

The headlines have been grim. Construction PMI at 45.6 in March 2026, the fifteenth consecutive month below the 50.0 growth threshold. Work starting on-site down 17% quarter-on-quarter. Industrial starts down 36%. The sharpest cost inflation in the S&P Global survey’s 29-year history.

But if you only read the headlines, you miss where the work actually is.

Not all sectors are in freefall. Some have funded, committed pipelines that will keep civil engineering contractors busy for years. Others are in genuine decline with no obvious recovery point. Knowing the difference matters more right now than at any point since 2020.

The funded pipelines sit in renewable energy, grid infrastructure, highways, specialised logistics, data centres, and EV charging. Speculative residential, office, and retail are in genuine decline. Sector by sector:

The macro picture

Indicator	Current figure	Direction
S&P Global PMI (March 2026)	45.6	Below 50.0 for 15 consecutive months
Work commencing on-site	Down 17% vs Q4 2025	18% below 2025 full-year levels
Industrial starts	Down 36% QoQ	Sharpest quarterly fall
Civils starts	Down 37% QoQ	Glenigan data
Residential starts	Down 30% YoY	Sustained decline
Input costs	Record acceleration	Fuel, raw materials, Strait of Hormuz disruptions

Source: BDC Magazine on construction activity collapse, Glenigan project tracking data.

That table is ugly. The underlying data is less uniform. Commercial and civil engineering segments showed relative resilience compared to residential and speculative industrial. Energy-related construction is actually growing.

The market is down. The useful question is which pockets of work have real funding behind them, and how to position to win that work.

Renewable energy and grid infrastructure

This is the strongest funded pipeline in UK construction right now. It’s not speculative. It’s backed by legislation, consented through the planning system, and in many cases already mobilising on-site.

Solar

The UK government’s Clean Power 2030 target requires 95% of electricity generation from clean sources by the end of the decade. As of early 2026, we’re at 63.7%. That gap is enormous, and closing it requires building at a pace the UK hasn’t sustained before.

Source: GOV.UK Clean Power 2030 metrics

To hit the target, the UK needs approximately 22GW of additional solar capacity, 12GW of offshore wind, and 8GW of onshore wind. Solar is the fastest to deploy and consenting is accelerating, so it’s absorbing a disproportionate share of investment.

The numbers are already showing up on-site. 800MWp of solar was deployed in Q1 2026, up from 700MWp in Q1 2025. That’s a 14% year-on-year increase at a time when almost every other construction metric is declining.

Source: Solar Power Portal

The pipeline behind those deployments is substantial. Seven Nationally Significant Infrastructure Project (NSIP) solar applications, totalling 3.2GW, have been submitted in the last seven months alone. The 25th NSIP solar project was approved on 8 April 2026: the 800MW Springwell Solar Farm, which will be the UK’s largest power-producing solar farm when built.

Source: GOV.UK approval of Springwell Solar Farm

Each of these large-scale solar farms requires significant civil engineering work before a single panel is installed:

• Site clearance and earthworks: stripping, grading, and levelling across hundreds of acres. On larger NSIP schemes, this can mean moving 100,000+ cubic metres of material before any other works begin
• Access track construction: typically 3-5km of haul roads and permanent access tracks per site, built to withstand heavy plant and delivery vehicles over a multi-year construction programme
• Cable trenching: both on-site DC cabling between panel arrays and inverters, and grid connection routes that often run several kilometres off-site through third-party land. The grid connection route alone can be the single largest civil engineering package on a solar farm
• Substation and transformer compound construction: reinforced concrete pads, equipment plinths, security fencing, drainage, earthing systems, and cable entry points. On NSIP-scale schemes, the on-site substation is a major civil engineering project in its own right
• Drainage and attenuation: SuDS schemes, swales, and attenuation ponds to manage surface water across large areas of partially impermeable ground. Panel arrays change the surface water runoff characteristics of agricultural land, and the drainage design needs to account for that
• Piling: ground-mounted panel arrays typically use driven steel piles, but ground investigation, trial piling, and foundation design are civil engineering scope. On sites with variable ground conditions, this is where the programme risk sits
• Fencing and security: perimeter fencing (typically 2.4m deer fencing plus security mesh around substations), CCTV pole foundations, and gate installations across site perimeters that can run to 5-10km
• Reinstatement and landscaping: bunding, screening hedgerow planting, and biodiversity mitigation. Most consents include conditions for biodiversity net gain, which means habitat creation works as part of the civil engineering scope

A 50MW solar farm generates 6-12 months of civil engineering work before electrical installation begins. An 800MW scheme like Springwell is a multi-year, multi-contractor programme with civil engineering running through the entire construction period.

To put scale in perspective: a typical 50MW ground-mount solar farm covers approximately 125 acres and requires 2-3km of internal access tracks, 15-25km of cable trenching, and a substation compound. Multiply that by the 3.2GW in the current NSIP pipeline and you can see why this sector is absorbing civil engineering capacity even while the rest of the market contracts.

Grid infrastructure

You cannot connect 22GW of new solar and 20GW of new wind to a grid that was designed in the 1960s without rebuilding it. Ofgem approved an initial £28bn investment programme for electricity and gas network upgrades, with the potential for £90bn over five years to 2031. This is the biggest grid upgrade since the post-war era.

Source: Ofgem press release on £28bn network investment

That funding covers:

• New substations and substation upgrades: concrete civil works, earthing systems, access roads, compound fencing and drainage
• Cable route construction: trenching, ducting, backfill, and reinstatement for both underground cable routes and overhead line diversions
• Gas network reinforcement: pipeline civils, pressure reduction station construction, compound works
• Grid connection corridors: the physical infrastructure that connects new generation sites to the transmission network

For civil engineering contractors, grid work has a particular advantage: it’s programmed over multi-year frameworks, typically delivered through Tier 1 contractors with established supply chains. If you hold the right accreditations (NERS for adoptable electrical infrastructure, NRSWA for street works), this is steady, bankable work.

The scale is worth considering. £28bn over five years is roughly £5.6bn per year in network investment. Even if civil engineering represents 25-30% of that total (the balance being equipment, electrical installation, and professional services), you’re looking at £1.4-1.7bn per year in civil engineering work just on grid infrastructure. That’s a substantial pipeline that exists independently of the broader construction cycle.

The distribution network operators (DNOs) procure through framework agreements with Tier 1 delivery partners, who in turn subcontract civil engineering packages. UK Power Networks, National Grid Electricity Distribution, Scottish Power Energy Networks, and the other DNOs all have ongoing investment programmes that need civil engineering delivery. The entry point for subcontractors is through those Tier 1 framework holders.

Great British Energy

Great British Energy (GBE) is now operational with its strategic plan published. The targets are 15GW of new clean energy capacity, 1,000+ community energy projects, and 10,000 jobs.

Source: GBE Strategic Plan 2025

GBE functions as a publicly-owned energy investment company, co-investing alongside private capital. It does not directly procure construction, but its investment decisions channel funding toward projects that then need civil engineering delivery. Community energy projects in particular create dispersed demand for smaller contractors: 5-20MW solar schemes, battery storage compounds, and local grid connections.

What this means for contractors

Solar farm groundworks, cable trenching, substation compound construction, access track installation. This is years of funded work, not a single-year spike. The legislative backing (Clean Power 2030), the consenting pipeline (25 NSIP solar projects and counting), and the grid investment programme (£28bn confirmed, potentially £90bn) all point in the same direction.

If you’re a civil engineering contractor and you’re not set up to deliver renewable energy infrastructure, now is the time to build that capability. The skills transfer from general civil engineering is strong: earthworks, drainage, concrete works, and cable trenching are the same trades you use on industrial and commercial schemes. The difference is accreditation requirements (NERS, principally) and client expectations around environmental management.

We’ve built our renewable energy capability over the past three years and it now represents a growing share of our order book. You can read more about our renewable energy and utility infrastructure services and our utility connections capability.

Highways and transport

Highways is the other sector with a confirmed, multi-year funding envelope. The money is committed. The procurement cycles are long, but the work is real.

RIS3: £27bn for 2026-2031

The government published Road Investment Strategy 3 (RIS3) on 26 March 2026, confirming a £27bn total budget for England’s strategic road network over the 2026-2031 period.

Source: New Civil Engineer on RIS3

Source: GOV.UK RIS3 publication

The headline breakdown:

RIS3 category	Budget
Renewals (resurfacing, bridge repair, drainage)	£8.44bn
Enhancements (new capacity, junction upgrades)	£3.85bn
Lower Thames Crossing (ringfenced)	£1.67bn
Operations, maintenance, and other	Balance of £27bn

30 renewal and enhancement projects are confirmed, with a further 9 in the pipeline. Lower Thames Crossing alone is one of the largest civil engineering projects in Europe, with earthworks, tunnelling, and approach road construction creating demand for contractors across the southeast.

Local authority highways

It’s not only National Highways spending. Kier won a £700m Norfolk County Council highways and infrastructure framework contract in early April 2026 and is hiring 100 new staff to deliver it. Similar frameworks exist across county councils and combined authorities. These are bread-and-butter civil engineering contracts: carriageway reconstruction, drainage upgrades, kerbing, footway works, and traffic management.

S278 and S38 works

Section 278 (highway alterations for development access) and Section 38 (adoption of new roads) works continue regardless of the wider market. Every new housing development, logistics facility, or commercial scheme that gets built needs highway connections, and these are typically funded by the developer as planning conditions. Even in a downturn, consented schemes continue to require S278 and S38 delivery.

S278 works range from simple dropped kerb crossings and visibility splay adjustments to full junction redesigns with traffic signals, right-turn lanes, and pedestrian crossings. On larger logistics developments, the S278 scope can be a £500k-2m package on its own. S38 works on residential and mixed-use developments cover the full carriageway, footway, and drainage construction that will eventually be adopted by the local highway authority.

These packages are developer-funded, which means they’re not subject to public sector budget constraints. As long as developments are being built (and even in this market, consented schemes continue to progress), S278 and S38 work keeps flowing.

What this means for contractors

Highways work is steady but procurement-heavy. The RIS3 envelope is confirmed for five years. Framework positions with Tier 1 contractors (Kier, Galliford Try, Balfour Beatty, BAM) are the primary route to this work for most civil engineering subcontractors.

The skills required are standard civil engineering: earthworks, drainage installation, kerbing and edging, surfacing preparation, and concrete works. If you can deliver these on time and to specification with proper traffic management, you’ll find work through highways frameworks even when other sectors are struggling.

The challenge is procurement lead times. RIS3 projects will take 12-24 months to progress from announcement to construction start. If you’re planning capacity, highways work is something to build toward, not something that solves a gap in next month’s order book.

Logistics and automotive

This sector is often lumped in with “industrial” in market reports, which makes it look worse than it is. The headline 36% quarterly decline in industrial starts includes speculative warehousing that was always going to correct after the 2021-2023 boom. The logistics and automotive subsectors are driven by structural demand, not cyclical speculation.

The shift from sheds to systems

The UK logistics market is moving away from basic “big box” warehousing toward high-specification, automation-ready facilities. The difference matters for civil engineering contractors because the groundworks scope per square metre is increasing.

Source: BDC Magazine on logistics fit-out

Modern automation-ready logistics facilities require:

• Heavier floor loadings: automated guided vehicles (AGVs) and robotic systems impose concentrated point loads, requiring thicker sub-bases and more rigorous formation preparation
• More complex drainage: larger impermeable areas with higher-specification attenuation and treatment systems
• Deeper sub-base construction: 450mm+ granular sub-base compared to 300mm on older facilities
• Precision levels: AGV-compatible floors need tighter tolerance earthworks than forklift-operated warehouses
• Extensive external works: HGV yards, dock leveller areas, staff car parks, and service vehicle routes all require specialist civil engineering

The total civil engineering value per facility is increasing even when the number of new starts is declining. One modern, automation-ready distribution centre can generate more groundworks revenue than two or three of the speculative units built in 2022.

E-commerce and last-mile distribution

E-commerce continues to drive demand for regional distribution hubs and last-mile delivery stations. The shift toward same-day and next-day delivery requires facilities closer to urban centres, which means more constrained sites with more complex ground conditions, more remediation, and more retaining structures. These are not simple greenfield jobs.

Developers are also building vertically in some locations, with multi-storey logistics facilities emerging near urban centres where industrial land is scarce. Multi-storey logistics requires significant structural and civil engineering work, including piled foundations, ramp construction, and heavy-duty floor slabs.

EV transition and vehicle processing

The transition to electric vehicles is creating demand for vehicle processing and storage facilities. Vehicle storage yards, PDI (pre-delivery inspection) centres, and EV battery logistics hubs all need specialist civil engineering: heavy-duty hardstanding, complex drainage (including interceptor systems for vehicle storage), fire suppression infrastructure for battery storage, and high-capacity power connections.

This is directly relevant to our work with clients like Copart, where vehicle storage and processing facilities require extensive external works designed for heavy vehicle movements and weather resilience. The typical scope on a vehicle storage facility includes heavy-duty concrete or asphalt hardstanding (designed for car transporter movements, not just light vehicles), perimeter drainage with interceptors, security fencing, lighting column foundations, and access road construction.

The EV dimension adds further complexity. Battery electric vehicles stored in quantity create fire risk considerations that affect the civil engineering design: wider spacing between storage rows, fire water retention systems, and drainage designs that can contain contaminated firewater runoff. These requirements are still evolving, but they’re already showing up in the specifications we receive.

What this means for contractors

Logistics and automotive construction isn’t about volume right now. It’s about specification and capability. Contractors who can deliver heavy-duty external works, precision earthworks for automation-compatible floors, and complex drainage for large impermeable areas are better positioned than those chasing basic warehousing.

The clients in this sector are sophisticated. They know what they need, they procure on capability and track record, and they expect detailed method statements and quality plans. If you can demonstrate experience on similar facilities, you’ll find funded work.

We deliver groundworks and civil engineering across the automotive and logistics sector, including vehicle storage yards, distribution centres, and industrial estates. You can read more about our automotive and logistics capabilities and our warehouse and industrial estate groundworks.

Data centres

Data centres are a relatively new source of civil engineering demand in the UK, but the pipeline is growing fast and the scope per project is substantial.

NSIP classification changes the game

From 8 January 2026, data centres above a specified threshold are classified as Nationally Significant Infrastructure Projects. This means they can use the fast-track NSIP consenting process rather than going through local planning authorities.

For large hyperscale data centres, this is transformative. Previously, a 100MW+ data centre in a politically sensitive location could spend years in planning. NSIP classification provides a defined examination process with statutory timescales, making development more predictable for investors.

Civil engineering scope

The civil engineering scope on a single large data centre can match or exceed a medium-sized industrial estate:

• Earthworks: extensive cut-and-fill to create level platforms, often on greenfield sites
• Foundations: reinforced concrete pad foundations with high point-load capacity for server racks and cooling plant
• Power infrastructure: dedicated substations, HV cable routes, standby generator compounds, and fuel storage. A single hyperscale facility can draw 50-100MW, equivalent to a small town
• Cooling infrastructure: chiller compounds, cooling tower bases, and associated pipework trenches
• External works: access roads, security perimeter construction, car parking, and landscaping
• Drainage: complex surface water management with redundancy requirements
• Utilities: water supply, foul drainage, telecoms ducting (extensive), and gas connections for standby generation

A single hyperscale data centre campus can generate 18-36 months of civil engineering work. With multiple developers (AWS, Microsoft, Google, and increasingly sovereign or co-location providers) all looking at UK sites, the pipeline is meaningful.

The power requirements are worth emphasising. A large hyperscale data centre drawing 100MW needs the equivalent electrical infrastructure of a small industrial town. That means dedicated grid connections, often with new 132kV or 33kV substations, transformer compounds, and cable routes running several kilometres to the nearest suitable grid connection point. For civil engineering contractors with electrical infrastructure capability, the power connection works alone can be a multi-million pound package per site.

Geographic concentration

Data centre development in the UK is concentrated in specific clusters: the Slough/West London corridor, north London (Enfield, Barnet), and emerging clusters in the Midlands and Manchester. If you’re a civil engineering contractor in these areas, data centres are worth paying attention to. The procurement tends to run through main contractors (Bouygues, Laing O’Rourke, Mace) rather than direct client engagement, so framework and supply chain relationships are the route in.

What this means for contractors

Data centres are not yet a mainstream market for most civil engineering subcontractors, but they’re growing. The work is familiar: earthworks, concrete, drainage, external works. The difference is the specification intensity (redundancy requirements, high-load foundations, complex power infrastructure) and the pace (data centre developers typically want construction completed in 18-24 months from consent).

If you’re in the southeast or near an established data centre cluster, this is a pipeline to watch. The NSIP classification will accelerate consenting, and the investment behind these projects is institutional, not speculative.

EV charging infrastructure

EV charging sits at the intersection of renewable energy and automotive/logistics, and the civil engineering demand is growing steadily.

The numbers

The UK installed 3,028 new EV chargers in Q1 2026, bringing the total to 119,080 devices across 46,107 locations. Ultra-rapid chargers are on track to exceed 5,000 nationally by mid-2026. Megawatt charging stations for heavy-duty commercial vehicles are expected to arrive in the UK during 2026.

Source: EV Infrastructure News

Civil engineering scope per installation

Each charging hub requires:

• Cable trenching and ducting: from grid connection point to charger locations, typically 100-500m per site but sometimes several kilometres for rural or motorway sites
• Substation or transformer work: ultra-rapid chargers draw significant power; most hub installations need either a new substation or an upgrade to the existing supply
• Hardstanding: reinforced concrete or heavy-duty tarmac for vehicle waiting and charging bays
• Drainage: surface water management for the new impermeable area
• Kerbing, line marking, and signage: standard external works
• Lighting and CCTV: foundations and ducting

Individual installations are relatively small civil engineering jobs. But when aggregated across charge point operators (BP Pulse, Gridserve, Osprey, Tesla, and others) rolling out hundreds of sites per year, the total demand is meaningful. Motorway service area installations and urban charging hubs are the highest-value individual projects.

Megawatt charging for HGVs will add a new tier of civil engineering demand. These installations require substantially more power infrastructure, larger hardstanding areas, and more complex traffic management during construction. They’ll typically be located at truck stops, logistics parks, and motorway service areas.

What this means for contractors

EV charging infrastructure is a growing market for civil engineering contractors with electrical infrastructure capability. The work combines cable trenching, small substations, hardstanding, and drainage, which is a natural fit for contractors already working in renewable energy or utility connections.

Our renewable energy infrastructure service covers the civil engineering scope for EV charging installations alongside solar, wind, and grid projects.

Where the work isn’t

Not every sector has a funded pipeline. Contractors who chase work in declining sectors without adjusting their pricing and risk management will get burned.

Speculative residential

Housing starts are down 30% year-on-year. Mortgage rates remain elevated, buyer confidence is weak, and developers are sitting on consented sites rather than starting construction. Help to Buy has ended and no equivalent demand stimulus exists.

The major housebuilders are preserving cash and optionality. Many are maintaining land banks but deferring starts until mortgage rates come down and buyer enquiry rates recover. For groundworks contractors who built their businesses on residential development, this is a painful period. The work hasn’t disappeared permanently, but the recovery is likely to be gradual rather than sudden.

There are exceptions: build-to-rent schemes backed by institutional capital, affordable housing funded through Homes England, and local authority housing delivery programmes. These have different economics from speculative market sale and are less sensitive to mortgage rates. If you’re working in residential, pivoting toward these funded subsectors is worth considering.

Speculative office

The post-pandemic remote and hybrid working patterns are now structurally embedded. New-build speculative office development is minimal outside of a handful of major city centres, and even there the volumes are a fraction of pre-2020 levels.

The activity that does exist is concentrated in Grade A refurbishment (stripping existing buildings back to frame and fitting out to modern ESG standards) and lab/life sciences conversions, primarily in the Oxford-Cambridge corridor and central London. Refurbishment work generates some civil engineering scope (external works upgrades, drainage modifications, structural underpinning) but nothing like the earthworks and infrastructure packages that new-build office parks used to produce.

Retail new-build

Continued decline, and this one isn’t cyclical. The shift to online retail, changing high street dynamics, and oversupply of retail floorspace all suppress new-build activity. There is some work in fit-out, conversion (retail to residential or leisure), and retail park refurbishment, but new-build retail civil engineering is not coming back in any meaningful volume.

The exception is food retail. Discount supermarkets (Aldi, Lidl) continue to open new stores, and these generate straightforward civil engineering packages: earthworks, drainage, car park construction, and S278 highway works. But the volumes are limited compared to the peak of retail park development.

How to read the table

Sector	Pipeline strength	Funding certainty	Typical procurement route
Solar and renewables	Strong (growing)	High (legislative backing)	Tier 1 frameworks, developer direct
Grid infrastructure	Very strong	High (Ofgem approved)	DNO/utility frameworks
Highways (strategic)	Strong	High (RIS3 confirmed)	National Highways frameworks via Tier 1
Highways (local)	Moderate	Moderate (council budgets)	Local authority frameworks
Logistics (automation-ready)	Moderate (selective)	Moderate to high	Developer/main contractor
Data centres	Growing	High (institutional)	Main contractor supply chains
EV charging	Growing (steady)	Moderate to high	CPO frameworks, utility connections
Speculative residential	Weak	Low	Developer direct
Speculative office	Very weak	Low	Rare
Retail new-build	Very weak	Very low	Rare

If your order book is concentrated in the bottom three rows, you have a problem. If it’s concentrated in the top four, you’re likely busier than the market average.

Planning reforms that accelerate delivery

Funded pipelines only turn into construction starts if projects can get through the planning system. Recent reforms are specifically designed to speed that up.

The Planning and Infrastructure Act 2025 is now being implemented. For nationally significant infrastructure, the most important change is the new three-tier pre-application service and a fast-track NSIP examination route.

Source: GOV.UK NSIP reforms action plan

The key changes:

• Fast-track examination: a new 4-month examination route for suitable projects, compared to the standard 6-month examination period. This can cut 2-3 months from the overall consenting timeline
• Three-tier pre-application service: Basic (self-serve guidance), Standard (structured engagement with the Planning Inspectorate), and Enhanced (dedicated case team). The Enhanced tier is designed for complex or controversial projects that benefit from early issue resolution
• Simplified consultation requirements: reduced duplication between statutory consultation stages
• Acceptance timeline: reduced from 28 days to a target of 21 days for well-prepared applications

Source: Gowling WLG analysis of UK construction policy 2026

Source: Pinsent Masons analysis on UK construction outlook

The practical effect: more consents in the energy and transport pipeline converting to construction starts, faster. The 25 NSIP solar projects already in the system will move through examination more quickly, and new applications will benefit from the streamlined process from day one.

For contractors, faster consenting means shorter gaps between project approval and mobilisation. It also means you need to be ready. When a 500MW solar farm gets consent under the fast-track route, the developer will want to start on-site within months, not years. Having your supply chain, accreditations, and capability in place before the consent is granted is how you win that work.

What this means if you’re a civil engineering contractor

Accept the downturn is real, but sectoral

The headline numbers are bad and they’re probably going to stay bad for at least another two quarters. But the downturn is not uniform. Residential and speculative commercial are genuinely weak. Energy, infrastructure, and logistics have funded work with multi-year pipelines.

If you’re a generalist civil engineering contractor that’s historically taken whatever work came through the door, you need to make choices. Not every sector will recover at the same pace, and some (speculative office, retail new-build) may not recover to previous levels at all.

The contractors that come out of this downturn in good shape will be those who made deliberate decisions about which sectors to pursue and which to step back from. Trying to be competitive in every sector simultaneously dilutes your capability and your commercial proposition. A Tier 1 contractor looking for a solar farm groundworks subcontractor wants someone who has done it before, not someone who “can turn their hand to anything.”

Build renewable energy capability now

The strongest funded pipeline is in solar, grid, and renewable energy infrastructure. The civil engineering skills are transferable: if you can dig trenches, lay drainage, build concrete pads, and construct access roads, you can do solar farm groundworks. The barriers to entry are accreditation (NERS for adoptable electrical infrastructure is increasingly a requirement) and environmental management capability (Construction Environmental Management Plans, ecological supervision).

Investing in these accreditations now, while market conditions give you some breathing room to develop new capability, is better than trying to enter the market in 18 months when the pipeline is at peak flow and clients are already committed to established supply chains.

Framework positions matter more in a downturn

When work is scarce, Tier 1 contractors tighten their supply chains. They reduce the number of subcontractors they work with and concentrate spend on proven, reliable suppliers. If you’re on a framework with a Tier 1 contractor, protect that relationship. If you’re not, getting onto one should be a commercial priority.

This applies across sectors: National Highways frameworks (via Tier 1 delivery partners), DNO utility frameworks, and developer frameworks all provide more secure access to funded work than ad hoc tendering.

Cost management is everything

With input costs at record levels, the margin for error in estimating has effectively disappeared. A 5% underestimate on material costs on a £500k subcontract package is a £25k loss. On a typical civil engineering margin of 5-8%, that wipes out your entire profit and then some.

Practical steps:

• Shorten quote validity periods: 14 days maximum, not 30 or 60. Material prices are moving monthly
• Index-link material costs: for contracts over 12 weeks, include a material cost adjustment mechanism referencing published indices (BCIS, or supplier price lists)
• Re-price at order point: don’t assume the rate you quoted 6 weeks ago is still valid when you place the aggregate or concrete order
• Reduce waste: in a low-margin environment, over-ordering materials, rework, and poor site productivity all have a disproportionate impact on profitability
• Watch your payment terms: if you’re a subcontractor, getting paid in 30 days instead of 60 days is worth more than a 2% rate increase in real terms. Cash flow kills more contractors than lack of work

Don’t chase bad work

In a downturn, the temptation is to win work at any price. This is how contractors go bust. A job priced at cost or below cost doesn’t just fail to make money; it consumes management time, ties up plant and people, and prevents you from bidding on work that would be profitable.

If a tender comes in with unrealistic rates, a 90-day payment term, and onerous contract conditions, walk away. The contractor asking for those terms is probably in trouble themselves, and you don’t want to be an unsecured creditor when they stop paying.

We’ve seen this pattern in every downturn. Contractors who chase volume at the expense of margin run out of cash 12-18 months later, even though their turnover looked healthy. The insolvency statistics in construction consistently show that contractors fail while busy, not while idle. They fail because the work they won didn’t cover their costs.

The discipline to say no to unprofitable work is harder in a downturn, when the phone isn’t ringing as often. But it’s the single most important commercial decision you’ll make.

Invest in your people

Downturns are when good people leave the industry. Experienced site managers, foremen, and skilled operatives who get laid off or see their hours cut often don’t come back. They retrain, move into different sectors, or take permanent employed positions outside construction.

If you can retain your best people through a downturn, you’ll have a significant competitive advantage when the market recovers. That doesn’t mean carrying excess overhead indefinitely. It means being honest with your team about the market conditions, finding productive work even if margins are thin, and investing in training and accreditation that positions the business for the sectors with funded pipelines.

NERS accreditation training, SSSTS and SMSTS refreshers, cable jointing qualifications, and environmental management training are all investments that pay off when the renewable energy and infrastructure pipeline converts to construction starts.

What we’re doing

We work across renewable energy, logistics, commercial infrastructure, and utility connections. These are the sectors with funded pipelines, and we’ve built our business to deliver in them.

Our order book is concentrated in areas where the data says the work is: solar farm groundworks, substation civil works, vehicle storage and processing facilities, and commercial external works. We hold Constructionline Gold and NERS accreditation for adoptable electrical infrastructure.

If you need civil engineering capability on a funded project, get in touch.

Rospower Projects delivers civil engineering and groundworks across renewable energy, automotive and logistics, commercial, and infrastructure sectors. We hold Constructionline Gold and NERS accreditation for adoptable electrical infrastructure. For current availability and capability, contact our commercial team.

Sources and further reading

• UK construction activity collapses (BDC Magazine, April 2026)
• Clean Power 2030 metrics (GOV.UK)
• UK solar construction uptick: 800MWp deployed in Q1 (Solar Power Portal)
• Government approves UK’s largest power-producing solar farm (GOV.UK, 8 April 2026)
• Ofgem unlocks £28 billion investment for energy grid (Ofgem)
• Great British Energy strategic plan 2025 (GBE)
• RIS3: £27bn highways budget (New Civil Engineer, March 2026)
• Road Investment Strategy 3 (RIS3) 2026 to 2031 (GOV.UK)
• From sheds to systems: fit-out is the new frontier in UK logistics (BDC Magazine, March 2026)
• UK installs 3,028 new EV chargers in Q1 2026 (EV Infrastructure News)
• NSIP reforms action plan (GOV.UK)
• UK construction 2026: policy shifts and developments (Gowling WLG)
• Why 2026 may mean better days for the UK construction industry (Pinsent Masons)