Metal structural work for the brick industry
Industrial steel structures: design and construction types
Industrial steel structures allow for large clear spans, rapid assembly and building modularity, which are decisive requirements for production layouts that change over time. On the 2025 horizon, the choice of steel is driven by the need to integrate plant, overhead crane runway, and plant passages, with a light and precise load-bearing frame; the same informational approach is deepened in steel load-bearing structures, where the design accompanies the life of the plant.
The technical reasons why steel is effective in structures for industries
Steel allows wide spans with optimized cross sections, reducing pillars and floor space; promotes dry erection with bolted elements, compressing construction time; and offers tight dimensional tolerances, useful for installing automated lines and lifting equipment with alignment accuracy. Added to this is circular sustainability (recovery and reuse of components) and ease of inspection, which facilitates maintenance plans. For automated warehouses and logistics facilities, these aspects are intertwined with the logic illustrated in metal structures for industrial logistics, where functionality comes from the balance between robustness and reconfigurability.
In terms of standards, the framework remains that of NTC 2018 (with updated transpositions and circulars) and Eurocodes (particularly EN 1993 for steel), while for execution it is practice to work according to EN 1090-2 + A1:2024 for technical requirements and marking. In industry, consistency between design, prefabrication and shop floor quality control is the factor that enables safety, time and cost to be combined.
The types of load-bearing structure construction that really work in industry
In manufacturing contexts, the choice of construction type depends on the required span, loads (including dynamic loads from overhead cranes), presence of suspended equipment, and speed of construction. The most common configurations are: prefabricated portal frame, truss/ lattice, composite truss, and mixed steel-concrete solutions. The following comparison helps to frame benefits and application scenarios.
| Type | Strengths | When to prefer it | Design Notes |
|---|---|---|---|
| Prefabricated portal frame | Quick assembly, great modularity, predictable costs | Standard sheds, step expansions, tight timetable | Excellent for running routes and suspended plant integration |
| Truss or spatial lattice | Very wide lights, low weight, plant passages | Automated warehouses, pillarless areas, light roofing | Requires efficient nodes and strain control |
| Composite beams and mixed solutions | High stiffness, optimized inertia, reduced vibration | Technical floors, walkways, machine floors with point loads | Attention to steel-cls connections and interface details |
| Portals with overhead crane shelves | Managing dynamic loads, heavy production lines | Carpentry, machine shops, lifting lines | Designing for fatigue and route rotability |
The type is chosen in relation to the production layout and functions to be accommodated. In logistics contexts, the priority is to clear spans; in heavy mechanical work, the transmission of dynamic loads to pillars and foundations becomes central. Overhead crane viaway solutions benefit from integration with handling systems, a topic also covered in the in-depth discussions on wheel and track handling systems, where structural compatibility and geometric precision directly affect operating efficiency.
How to choose the construction type of the supporting structure according to the production layout
The decision stems from a joint reading of loads and lights, required clearance height, presence of machines and suspended lines, commissioning time and possibility of expansion. An effective structure is one that allows the facility to evolve without invasive intervention: the sizing of portals, secondary warping, and node details must anticipate scenarios for expansion, plant transitions, and installation of new equipment.
- Useful light and height for freestanding racking, automated warehouses or crane bridges;
- Dynamic loads from handling and lifting cycles, with fatigue testing;
- Assembly time and site logistics, with preference for prefabricated bolted elements;
- Expandability of layout with additional bays and plant arrangements;
- Durability and protection, consistent with the criteria described in anti-corrosion treatments for steel structures.
These parameters, read from an industrial perspective, lead to a structural solution capable of supporting daily operations and future evolutions. Integrated design between structure, facilities, pathways, and technical passages reduces interference and costs throughout the life cycle.
Designing industrial metal structures with durability and maintenance in mind
An industrial metal structure is evaluated not only for its initial strength, but for its durability over time. In manufacturing environments where humidity, temperature and chemicals are constantly changing, protection of steel is a crucial aspect. Modern design takes these factors into account from the outset by integrating corrosion protection systems and planned maintenance strategies.
The most recent guidelines, such as the UNI EN ISO 12944 (updated in parts 5 and 9 in revision 2025), define corrosivity classes and minimum thicknesses for paints and galvanizing depending on the environment. In industrial warehouses and heavy carpentry, it is common practice to apply combination treatments such as hot-dip galvanizing followed by polyurethane coating. Proper planning of these interventions, coordinated with the structural checks required by EN 1090-2 +A1:2024, ensures that the structure will maintain its mechanical properties for decades.
In contemporary projects there is a tendency to integrate maintenance into the structure itself: arrangements for visual inspection, technical walkways and remote monitoring systems reduce operating costs and improve safety. Predictive maintenance, borrowed from the world of automation, is now applied to industrial construction as well: sensors and monitoring software make it possible to control deformations, thermal changes and corrosion states. This is the same continuous monitoring logic employed in industrial automation systems, where prevention replaces reactive maintenance.
From a construction point of view, durability is ensured through:
- Draining construction details to prevent water stagnation;
- Removable connections that simplify future interventions;
- Protective coatings conforming to classes C4-C5 for aggressive industrial environments;
- Periodic inspections with digital reports and traceability of interventions.
These practices result in a lower life-cycle cost and greater reliability of the structure, which can be adapted, expanded or repurposed without compromising its original mechanical performance.
Innovations that are transforming industrial steel construction
In recent years, steel structures for industries are taking a central role in the transition to smarter and more sustainable construction. Advances in prefabrication and high-strength bolted connection techniques are making it possible to drastically reduce assembly time and achieve levels of precision that until a few years ago were exclusive to mechanical structures. Integrated design using digital BIM models allows loads, interference and maintenance to be simulated as early as the study phase.
Another step forward is the introduction of the structural Digital Twin: a digital copy of the structure that monitors deformation, vibration and temperature in real time. This technology, which is becoming increasingly popular in large span facilities and automated warehouses, allows maintenance work to be predicted and the facility to be adapted to actual load cycles.
In parallel, reusable building modules, designed to be disassembled and reinstalled in other plants, are gaining popularity. Steel, by its nature reversible, thus becomes the cornerstone material of the circular economy applied to industrial construction. This trend is reflected in steel structures for robotics and industry, where modularity and mechanical precision merge with process automation.
Finally, 2025 marks a turning point in the very concept of industrial steel design: the structure is no longer a static shell, but a dynamic system, adaptable to production, energy and logistical needs. The convergence of construction, automation and digitization leads to the emergence of so-called “adaptive factories,” where every element-from beams to connections-is designed to talk to the production cycle.
A critical look at the future of industrial steel structures
The ongoing transformation requires a broader approach: designing structures that are not only resilient, but also responsive. The structure becomes an integral part of the industrial system, prepared to house sensors, power lines and automation modules. Looking forward, industrial steel structures will be physical platforms for the digitization of production processes. Their flexibility, recyclability, and dimensional accuracy make them the starting point for a sustainable and technologically advanced industry.
It is in this direction that the experience of heavy steelwork is evolving: combining the solidity of building tradition with technological innovation to create structures that are not only high-performing, but also intelligent and durable.