Renewable Energy Construction Solutions
Precast products for fast, reliable, and low-maintenance energy projects
Why Choose Precast for Renewable Energy Projects?
Renewable energy projects run on tight schedules and face some of the toughest site conditions. From solar farms on exposed coastal land to biomass storage and battery energy storage systems (BESS), every element needs to be safe, quick to install, and built to last.
Precast concrete makes that possible. Our modular products arrive ready to place, cutting down installation time and reducing site disruption. With solutions ranging from solar ballast to precast chambers and retaining walls, we help you streamline construction, keep projects on schedule, and manage long-term maintenance costs.
Key Benefits of Precast in Renewable Energy Construction
Fast installation – modular units arrive ready to install, reducing on-site labour and delays.
Adaptable layouts – from cable runs to BESS bases, products can be customised to meet site-specific requirements.
Resilient in exposed locations – designed to withstand high wind loads, frost, and airborne salts.
Sustainable options – reusable products, low-carbon concrete mixes, and end-of-life recyclability.
Lower project risk – proven designs supported by technical support, CAD files, and design calculations.
Suitable Products For Renewable Energy Construction
Best for: Ground-mounted solar farms, brownfield sites, coastal locations.
Purpose-made foundations for ground-mounted solar farms, providing a non-penetrating, maintenance-free solution. Their wide footprint provides stability even on softer ground, while modular sizing adapts to site layouts and wind load calculations.
Prestressed C50 concrete with tongue-and-groove interlock.
Modular lengths and widths tailored to different solar module frames.
Wider footprint evenly distributes loads on difficult ground.
Designed for quick installation and long-term reuse.
Best for: Solar and wind farms, data centres, utility corridors.
Keep cabling safe and accessible using precast troughs that interlock for seamless runs. With solid or mesh covers, they provide secure protection against impact and weather while allowing easy access for maintenance.
Interlocking joints for alignment and optional watertight seals.
Available in various depths and widths.
Covers capable of supporting pedestrian or vehicle loads.
Smooth mould finish to protect cabling during installation.
Best for: Electrical distribution on solar farms, wind energy projects, and BESS.
Drop-in chambers for housing switchgear, joints, and cable connections. Manufactured to order, with options for duct entries, step irons, and integrated GATIC access covers.
Reinforced C50 concrete for long-term durability.
Custom sizes and duct configurations available.
Designed for heavy traffic loading where required.
Fire resistance up to 120 minutes with increased cover to reinforcement.
Best for: Biomass and silage clamps, AD and biogas plants.
Robust walls designed for silage clamps and heavy surcharge conditions, making them ideal for biomass storage in anaerobic digestion (AD) and biogas facilities.
Cast into reinforced foundations for maximum stability.
Increased reinforcement cover for long design life.
Easy-seal vertical joints with hydrophilic strip
Capable of handling high surcharges and aggressive environments.
Best for: Biomass, woodchip, and crop storage.
Prestressed panels that span between steel columns, creating quick, flexible walling for biomass, woodchip, or general material storage.
Available in multiple thicknesses (150, 180, 280mm).
Panels up to 6m long for rapid installation.
Can be installed horizontally between steels or vertically in foundations.
Option to seal joints for dust or weather resistance.
Best for: Temporary biomass bays, flexible site storage.
Movable, inverted Y-shaped walls that stand on their own base. Ideal for temporary storage and flexible layouts where walling may need to be reconfigured.
No fixings required – stability comes from self-weight.
Quick to install, reposition, or remove.
Range of heights available to suit material storage capacity.
Smooth mould finish to visible faces.
Best for: Site security during solar, wind, or AD projects.
Provide site security during renewable energy construction projects using precast hoarding blocks. Suitable for timber, steel, or PVC hoarding panels.
Slimline profiles minimise footprint in pedestrian areas.
Cast-in sockets for bolting vertical posts.
Option for scaffold pole bracing without drilling.
Available to hire for short-term projects.
Best for: Site traffic management, access control, perimeter security.
Interlocking or standalone barriers to manage traffic, secure perimeters, or separate work areas during renewable construction projects.
Tongue-and-groove or pivot-joint interlocking systems.
Fast offload and placement with lifting points.
Available in various lengths and profiles.
Hire or purchase options are available across the UK.
Best for: Battery storage bases, wind turbine counterweights, custom infrastructure.
From BESS bases to plinths and heavy-duty counterweights, we can design and manufacture precast products to your project’s unique specifications.
Tailored to site-specific layouts and loadings.
Bespoke mould fabrication in steel or timber.
Option for reduced-carbon concrete mixes.
Supported by CAD, BIM, and full structural calculations.
“We engaged JP Concrete to design and supply a large quantity of solar ballast blocks within a short timeframe. The level of customer service was outstanding; the staff were polite and managed our orders quickly and efficiently. The product was delivered as specified and on time. In summary, it was an exceptional service, and we look forward to working with them again.”
Lucinda Cheshire - Ikarus Solar
What to Consider Before You Build with Precast on Renewable Energy Projects
- Ground Conditions & Load-Bearing Capacity – Renewable energy sites often cover large areas with varied ground conditions, from soft-made-up ground to exposed coastal conditions. Confirm early whether ballast blocks, retaining walls, or troughs will need compacted stone, reinforced slabs, or cast-in foundations. This ensures safe performance under wind loading, machinery access, and long-term structural loads.
- Wind Loading & Environmental Conditions – Solar farms and wind-adjacent sites are subject to high wind loads. Precast products can be manufactured with wider footprints and interlocking edges, or with increased reinforcement cover, to suit exposed locations, coastal sites, or frost-affected ground. Early wind and geotechnical assessments help determine the correct sizing.
- Cable Routing, Depths & Network Protection – Troughs and chambers create essential cable corridors across renewable sites. Plan duct positions, access points, and cover load ratings during the design phase. Covers can be specified for pedestrian, light-vehicle, or heavy-duty traffic depending on yard conditions and maintenance access.
- BESS (Battery Energy Storage System) Foundations – BESS units need stable, level platforms with integrated fixing inserts, cable entries, and high-load capacity. Precast bases can be designed to match manufacturer footprints, but the anchoring details and electrical routes must be coordinated beforehand to prevent rework.
- Surcharge Loads & Material Storage Requirements – Biomass, woodchip and AD/biogas facilities impose high surcharges on walling systems. HD cast-in retaining walls and prestressed panels with increased reinforcement cover are preferred for long-term performance in aggressive environments. Confirm the expected material type and loading at the outset.
- Site Access, Lifting Routes & Installation Sequencing – Renewable sites often cover large areas with limited access points. Plan early for HIAB or crane positioning, delivery scheduling, and temporary safety routes. Precast is generally installed in a single lift, so ensuring safe, clear access will help the installation programme.
- Sustainability and Reusability Objectives – Many renewable projects aim for low carbon emissions and long-term environmental performance. Precast supports this with reduced-carbon mixes, reusable units, and full recyclability at end-of-life. Consider whether products like freestanding walls or blocks could be reused in future renewable schemes.
- Long-Term Durability & Exposure Classes – Precast products used on renewable sites can be manufactured with increased reinforcement cover, high-strength concrete (C50+), or weather-resistant mixes to suit the environment. This is particularly important in coastal, frost-prone, or aggressive industrial surroundings.