Construction partner for pioneering SAF plant DSL‑01 by SkyNRG and Technip Energies

Industrial environments rely on uninterrupted processes, making continuity, safety and quality the core requirements for all supporting infrastructure. Complex sites such as chemical parks operate 24/7, and even minor disruptions in drainage, foundations, pipelines or internal transport routes can halt production and create major safety risks. Reliable infrastructure — from sewer systems and foundations to drainage and utility lines — ensures smooth operations under demanding conditions.

Industrial facilities often need heavy‑duty civil engineering, including large‑diameter sewer systems, earthworks, paving for factories, concrete and steel structures, and pile foundations. These tasks must be completed with extreme precision and compliance, especially when working around contaminated soil, active installations or limited working space. Long‑term industrial locations such as Chemelot depend on high‑quality engineering during construction, renovation and maintenance phases. [struktonwe…enbeton.nl], [chemelot.nl]

Industrial sites benefit from solutions that reduce disruption to ongoing processes. Techniques such as Concrete Canvas, liquid‑tight containment upgrades, cooling‑tower renovations, trench sealing and plastic‑lined pit repairs enable rapid installation while keeping production active. In complex conditions — including outdated or contaminated infrastructure — modern relining methods (such as GRE liner systems) extend asset lifespan without extensive excavation.

Industrial rail sidings serve as lifelines for raw materials and finished products, ensuring dependable freight flows between mainline networks and factory grounds. Dedicated maintenance regimes, risk‑based inspections and availability‑driven asset management are crucial to guarantee safety and uptime. Managed networks can include more than 120–150 industrial rail connections, covering sidings, switches, crossings and crane tracks — ensuring continuous logistical performance for industrial operations.

Industrial crane rails and internal rail systems are often hard to reach and require precise inspection to prevent failures. The CBOT‑1 measuring robot, developed by Siebens Spoorbouw (Strukton Rail Belgium), is the first remote‑controlled measurement robot capable of scanning up to 200 metres in a single run, capturing height, alignment, track width, rail profile and wear via laser technology. This enables accurate, preventive maintenance planning without exposing workers to hazardous environments.

Sustainability in rail and civil engineering focuses on reducing environmental impact across the entire lifecycle of infrastructure. This includes using emission‑free equipment, circular and recycled materials, and designing assets with a longer lifespan and lower maintenance requirements. Reusing structural components—such as circular viaduct beams or recycled copper contact wires for overhead lines—significantly reduces CO₂ emissions while conserving valuable raw materials.

CO₂‑reduction is achieved through a combination of clean construction methods and material innovation. Key strategies include:

• Deploying zero‑emission machinery such as electric cranes, electric rail‑road vehicles (Krols), electric vans and battery‑powered locomotives.
• Integrating circular concrete, geopolymer concrete, and recycled materials to lower embodied carbon.
• Collaborating across the supply chain — from client to contractor to materials supplier — to scale circular and low‑carbon solutions.

These measures not only reduce carbon emissions but help create more resilient, future‑proof infrastructure.