{"id":33648,"date":"2025-02-11T09:00:57","date_gmt":"2025-02-11T08:00:57","guid":{"rendered":"https:\/\/biblus.accasoftware.com\/en\/?p=33648"},"modified":"2025-02-11T10:32:24","modified_gmt":"2025-02-11T09:32:24","slug":"structural-components-identification-and-verification","status":"publish","type":"post","link":"https:\/\/biblus.accasoftware.com\/en\/structural-components-identification-and-verification\/","title":{"rendered":"12 types of structural components and how to check them"},"content":{"rendered":"

The structural components constitute the load-bearing structure of a building and are responsible for resisting loads. Discover what they are and how to verify them<\/p>\n

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In the field of architecture and civil engineering, structural components play a vital role in the construction of stable, safe, and functional buildings. These components form the load-bearing skeleton of the building system<\/strong> and work synergistically to support and distribute the load<\/strong> evenly, thus ensuring the stability<\/strong> of the entire building.<\/p>\n

Recently, the use of advanced technologies such as openBIM<\/strong> and the IFC<\/a> (Industry Foundation Classes<\/strong>) format has revolutionized the way these components are designed, represented, and managed, improving collaboration among various professionals and increasing the efficiency of construction projects. A significant example of this evolution is represented by the IfcStructuralElementsDomain<\/strong> schema, which allows for a detailed and standardized representation of structural components, supporting more precise management and barrier-free communication among the various actors in the construction process.<\/p>\n

If you wish to deepen your understanding of structural components, read the article and discover the details that will provide you with a comprehensive view on the design and verification of such components. Additionally, to successfully tackle the challenges related to stability and safety in construction, it may be useful to start using a structural calculation software<\/a> for free for 30 days. Thanks to its advanced calculation and simulation features<\/strong>, you can analyze and verify the structural components of your buildings accurately and promptly to improve the efficiency and safety of your work.<\/p>\n

What are structural components of a building<\/h2>\n

Structural components are the fundamental parts of a building or infrastructure and, together, they form the load-bearing skeleton entrusted with the responsibility of supporting and transferring loads<\/strong>, resisting internal and external forces<\/strong>, and providing stability, safety, and support<\/strong> to the structure as a whole.<\/p>\n

Common examples of structural components include columns<\/strong>, beams<\/strong>, load-bearing walls<\/strong>, etc. These components take on different shapes, each designed to play a specific role in ensuring the cohesion and robustness of the entire structural system. They can also be made from various materials, such as reinforced concrete, steel, wood, or fiber-reinforced composite materials. The choice of material and the configuration assigned to each component will depend on the specific project requirements, as well as the type of structure intended to be built and accurate considerations regarding the safety and stability of the work.<\/p>\n

In addition to their load-bearing function, it is essential to recognize that structural components can also play a significant role from an aesthetic perspective. This aspect becomes particularly crucial in architectural contexts where such components not only need to bear physical loads but also significantly contribute to the overall aesthetics of the building<\/strong>. In these situations, the design of structural components requires a balanced integration between structural engineering and architectural design<\/strong>, ensuring that the shape and arrangement of columns, beams, and other components reflect not only structural robustness but also a aesthetic vision consistent with the overall design of the building<\/strong>.<\/p>\n

\"Structural

12 basic components of a building structure<\/h2>\n

Every building, whether a residential house, a commercial complex, or a large industrial infrastructure, is made up of various fundamental structural components that work together to ensure overall stability, safety, and functionality. Understanding the role of each component is essential for designing and constructing buildings that are safe, resilient, and durable. Below are the 12 main components<\/strong> described:<\/p>\n

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  1. foundation:<\/strong> it is the base on which the entire building rests and is responsible for transferring the loads of the structure to the ground. It is one of the most important elements for overall stability, as improper foundation design can compromise the entire construction. There are different types of foundations, such as shallow foundations (for lighter buildings) and deep foundations (for unstable soils or very heavy buildings), and the choice depends on the type of soil and the expected structural load;<\/li>\n
  2. columns:<\/strong> these are vertical elements that support the load coming from the upper floors and transfer it to the foundations. They can be made from various materials such as reinforced concrete, steel, wood, or stone, and are designed to primarily resist compressive forces. Their size and distribution are crucial to ensure an even distribution of vertical loads and to maintain structural balance;<\/li>\n
  3. beams:<\/strong> these are horizontal elements essential for transferring loads from the upper surfaces (such as floors or roofs) to the columns. They can be made from various materials and take different shapes (for example, truss beams, cantilever beams, or overhanging beams), depending on design requirements. Their main function is to distribute the load evenly towards the columns, avoiding excessive deformations;<\/li>\n
  4. walls:<\/strong> these are one of the most visible and functional elements of a building. In addition to dividing internal spaces, load-bearing walls play a crucial role in supporting vertical loads and providing lateral stability. Load-bearing walls can be made of masonry, reinforced concrete, or composite materials, and are designed to withstand compressive and seismic forces. In some cases, non-load-bearing walls are used for partitioning or aesthetic purposes, but they must also ensure safety and functionality;<\/li>\n
  5. floors:<\/strong> these are the horizontal structures that separate the various levels of a building. They are designed to distribute vertical loads and provide support to the upper spaces. Floors can be made of concrete, steel, or wood, and their design must take into account the stresses they are subjected to, such as the weight of people, furniture, and equipment. Additionally, they must ensure acoustic and thermal insulation;<\/li>\n
  6. roof:<\/strong> it is the upper part of a building that protects it from the elements, such as rain, snow, wind, and sun. It must be designed to withstand heavy loads (such as snow or wind) and to ensure good waterproofing and ventilation. Roofs can be pitched, flat, or domed, and are made from various materials, such as tiles, metal sheets, concrete, or waterproofing materials. Furthermore, it is important that the roof is properly integrated with the underlying structure to prevent water infiltration;<\/li>\n
  7. stairs:<\/strong> these are vertical elements that allow connection between the different floors of a building. They are designed to ensure safety during use, with handrails and non-slip steps. Stairs can be made from various materials, such as concrete, steel, or wood, and their design must comply with safety regulations, such as step width, slope, and load resistance. They can be internal or external to the building, depending on the needs;<\/li>\n
  8. windows:<\/strong> these are openings in the walls designed to provide natural light, ventilation, and visual connection with the outside. In addition to serving an aesthetic function, windows must be designed to withstand weather conditions while offering good thermal and acoustic performance. They can be made of wood, PVC, or aluminum, with single or double glazing, depending on insulation needs;<\/li>\n
  9. doors:<\/strong> these are openings that allow access to and exit from a building or room. They must ensure security by preventing unauthorized access while also allowing easy circulation. Doors can be made from various materials, such as wood, glass, metal, or PVC, and their design must meet specific functional requirements, such as fire protection, resistance to break-ins, and acoustic control;<\/li>\n
  10. levels:<\/strong> these represent the various horizontal levels of a building. Each level consists of a solid surface (floor) that serves as support for the spaces and furnishings. Levels must be designed to support specific loads, ensuring an even distribution of forces and preventing structural deformations. The design of the levels must also consider internal spaces, access and movement needs, and load distribution;<\/li>\n
  11. load-bearing structure:<\/strong> it is the set of all the main elements (columns, beams, floors, etc.) that make up the skeleton of the building. It is designed to ensure that the building can withstand the loads it is subjected to (permanent, variable, seismic loads, etc.) without suffering structural damage. Proper design of the load-bearing structure is essential for the safety and stability of the building over time;<\/li>\n
  12. finishes:<\/strong> these are the final aesthetic elements that give the building its exterior and interior appearance. Finishes include flooring, paints, wall coverings, ceilings, and other details that not only contribute to aesthetics but also protect the underlying materials from wear and weather conditions. Although they do not have a load-bearing function, finishes are crucial for the comfort and durability of the building over time.<\/li>\n<\/ol>\n

    Primary and secondary structural elements<\/h2>\n

    The structural elements of a building are divided into primary and secondary, depending on their role and importance in the load-bearing structure.<\/p>\n

    Primary structural elements<\/strong> are those that play the main role in ensuring the strength and stability of the building. These elements are designed to support vertical and horizontal loads, transferring them to the foundations or other structural components. Columns, for example, are responsible for supporting the weight of the building and transferring it to the foundations.<\/p>\n

    Secondary elements<\/strong> consist of those elements whose stiffness and strength can be neglected in the analysis of the seismic response of the structure and that are, therefore, designed to resist only vertical loads. These are elements that can be considered of lesser importance compared to the main elements. However, it is important to note that, despite their definition as “secondary elements,” these elements must still be able to absorb the deformations of the structure in the event of seismic action. This means that, while not significantly contributing to the structural strength and stiffness under load action, secondary structural elements must be able to maintain their load-bearing capacity against vertical loads, especially in the presence of seismic actions.<\/p>\n

    How to design and verify structural elements<\/h2>\n

    The design and verification of structural elements is a complex process that requires a deep understanding of structural engineering and technical regulations in the field. Below are some general steps you can follow during this process to ensure the safety, stability, and functionality of your structures:<\/p>\n

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    1. analysis of actions:<\/strong> the first phase involves analyzing and determining the actions that will act on the structural elements. These actions include permanent load (such as the self-weight of the element) and variable load (such as the load of occupants, wind action, etc.). It is also necessary to consider any seismic actions, if applicable;<\/li>\n
    2. material selection:<\/strong> based on the characteristics of the structure, such as the type of load and environmental conditions, it is necessary to select the most appropriate materials for the structural elements. For example, steel or reinforced concrete may be used for beams and columns;<\/li>\n
    3. preliminary design:<\/strong> based on the principles of structural engineering and reference regulations, a preliminary design of the structural elements is carried out. This phase involves determining the dimensions, cross-sections, and geometries of the elements;<\/li>\n
    4. structural analysis:<\/strong> using structural analysis methods, such as finite element calculation or limit state analysis, the performance of the structural elements under the expected actions is evaluated. The goal is to verify that the elements can withstand the loads and ensure structural stability;<\/li>\n
    5. strength verification:<\/strong> the strength of the structural elements is verified to ensure that the stresses and internal forces are below the resistance capacities of the materials used. This verification must be carried out according to the regulations and design rules in the geographical area where the structure is being built;<\/li>\n
    6. stability verification:<\/strong> in addition to strength, it is necessary to verify the overall stability of the structure and the individual structural elements. This verification takes into account critical phenomena such as overturning, sliding, and lateral failure. It ensures that the structure is adequately restrained and that necessary measures are taken to counteract such phenomena;<\/li>\n
    7. deformation verification:<\/strong> an additional verification involves checking the deformations of the structural elements. This involves analyzing elastic and plastic deformations to ensure they remain within acceptable limits and do not compromise the functionality of the building;<\/li>\n
    8. connection verification:<\/strong> during the design, it is also necessary to verify the structural connections between the different elements (such as the joints between beams and columns, or the connections between load-bearing walls) to ensure proper force transmission and good resistance capacity.<\/li>\n<\/ol>\n

      To optimize the design and verification process of structural elements, it is essential to rely on the help of a structural calculation software<\/a>, a BIM-based tool that provides you with clear and immediate graphical representations of the calculation results directly on the BIM model of your building. By leveraging the powerful simulation capabilities of this tool, you can perform accurate structural analyses<\/strong>, verify the strength and stability of your structural elements<\/strong>, and obtain reliable results in record time. Try it for free for thirty days and discover all the features that will allow you to simplify your work, save valuable time, reduce the margin of error, and ensure the maximum safety and reliability of your structural projects<\/strong>.<\/p>\n

      IfcStructuralElementsDomain and the new frontier of structural design<\/h2>\n

      In the increasingly digitalized construction sector, concepts such as openBIM and IFC<\/strong> have become fundamental. The openBIM<\/a> is a collaborative approach that uses open standards<\/strong> that allow all participants to share information without limitations imposed by proprietary software, and one of the most relevant standards in openBIM is the IFC format, which provides a common language for the digital representation of building elements, facilitating communication between architects, engineers, and builders. The IfcStructuralElementsDomain<\/strong> is a fundamental part of the IFC standard, as it allows for the representation of a wide range of structural elements and subcomponents of buildings, such as foundations, reinforcements, and special features.<\/p>\n

      But what does it mean to represent a structural element in the context of a BIM project<\/strong>? Imagine having to describe in detail every single component of a complex structure, such as a column or a foundation. The IfcStructuralElementsDomain schema is designed to do just that: provide a precise, standardized, and understandable description for each individual structural component, helping the various project actors understand its function and role.<\/p>\n

      IfcStructuralElementsDomain: represented structural elements, quantities, and properties<\/h3>\n

      The IfcStructuralElementsDomain schema includes various types of structural elements. Among the main ones, we find:<\/p>\n