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Structural analysis of steel involves investigating the load-bearing capacity and stability of the steel using calculation methods and models.
The analysis method is used to design equipment or a structure so that it is safe for use and can withstand the estimated loads it is expected to withstand. It is therefore important to assess whether the steel is suitable for the purpose for which it will be used and whether it is in line with relevant safety requirements and standards.
The material properties and structural properties of the steel must be examined, such as stress and cross-section sizes. Consideration must also be given to factors that can affect the load-bearing capacity of the steel, such as loads, temperature changes and corrosion.
Structures or equipment on which other equipment is to be loaded are particularly relevant for calculation through structural analysis.
One example of a project for which Nordic Steel has designed and manufactured equipment is the conversion of the production hall at Gilje. Here are rails, beams and a suspension system - to support production equipment and the goods that the factory produces. Everything is designed to withstand the estimated weight and load.
It is important to do structural analysis of steel because it helps us understand how the steel will behave under various loads and influences. This can help ensure that the steel is used in a safe and reliable way, in everything from buildings and bridges to planes and cars.
Structural analysis can also help to identify any weaknesses in the steel, so that they can be rectified before they lead to serious problems.
- Have a good understanding of the properties of steel and how they can affect performance. This includes the steel's stress and strain ratio, density, and tensile strength
• Identify all the loads that will act on the structure, such as weight, wind, and earth pressure, and calculate how they will affect the structure
• A thorough geometric analysis of the structure must be carried out to determine the stiffness and stability of the elements of the structure. This can include calculations of moments, forces and deformations
• Use a reliable method to solve the structural problem, such as FEM analysis ( Finite Element Method ) or a classical method such as calculation of beam moments
• Careful documentation of all calculations and checking of results to ensure they are accurate and reliable
Structural analysis can be performed during design, testing or after construction. It takes into account the materials used, the geometry of the structure and the loads it is subjected to.
Usually, it is individual structural elements and the forces they undergo that are analyzed. Wind load, dead load (dead weight) and live load (people or vehicles) are forces that affect beams and slabs.
There are different methods of performing structural analysis, depending on the level of accuracy required.
• Hand calculations: Simple hand calculations are a quick and easy way to evaluate the effect of simple forces on simple structures. An example could be calculating the bending moment forces on a horizontal beam
• FEM and FEA analysis: A numerical method for solving structural problems. FEA uses mathematical models to simulate the steel's behavior under different load scenarios, providing an accurate analysis of the steel's load-bearing capacity and stability
- It is also important to perform physical testing of the steel to verify the calculations and ensure that the steel is fit for purpose
Analysis is a branch of solid mechanics that uses simplified models of solids such as beams, rods, and shells for engineering decision-making. Ideas from applied mechanics, materials science and applied mathematics are used to calculate structural deformations, internal forces, stresses, support reactions, velocity, accelerations and stability.
The results of the analysis are used to verify a structure's suitability for use. Structural analysis is thus a key part of structural design of structures.
