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Why Use Steel Structural Frames

Concrete, timber steel, and concrete are all commonly used materials for building structures. Arguments could be offered as to the reasons why any one of them is appropriate for an individual project.

Steel framing is an engineering method where steel beams and columns are joined to form an underlying structure for floors, roofs interior fixtures, cladding finishings , and the occupants. This article will discuss some of the benefits that steel frame have over different materials for construction and the reasons why they are an increasingly popular option in contemporary buildings.

Strengths that are stronger

Steel is more dense than concrete or timber, and concrete, which means that for the same size it will weigh more. However, a piece that is 50mm by 100mm can support greater load than a length of 50mm x 100mm wood. In practical terms this implies the less amount of steel will be needed to give the equivalent level of stability.

The ramifications of this drop in material usage are reduced cost of shipping materials, less work and reduced design for foundations and structural support structures.


Steel will last longer than concrete or timber, in the event that all three are well maintained.

Like timber, steel does not crack, split or creep when it ages. It is not susceptible to insect attacks and lacks porosity, which means that mildew and mould can’t grow. It is not prone to warping or expand in the event of an increase in humidity. However contact with water should be avoided since corrosion can cause corrosion.

To safeguard the steel the steel from fire, a protective coating of water-resistant and fire-resistant materials must be put on. The fire-resistant material stops it from losing strength and integrity in the event of a fire, while the water-resistant material stops the rusting process.


Structural steel is able to be made in a variety of shapes while remaining strong. Steel permits creative and creative designs. Designers and architects utilize this ability to design designs that aren’t just attractive but also sound structurally.

Structural steel can also be used for the construction of huge-span structures like indoor arenas, hangars for aircrafts, as as the ability to build extremely high-rises bridges, bridges, as well as other buildings.

It is also simple to build future-proof steel frames since they’re more suitable for modifications or additions to the structure for renovations, or growing the dimensions of an existing structure.


Computer-aided design prior to fabrication can reduce the quantity of scrap steel made.

Scrap that is created can be reused in different projects. Steel is recyclable indefinitely because it does not lose its intrinsic properties, like the strength of its material when it is melting down and then recycled.

You can recycle wood by making it into different things, such as chairs or tables however there will be an occasion when the timber is not large enough or its form is difficult to deal with. Concrete can be broken down to later use in mixes however, it can only be used in projects like pavements.


The strength of the tensile of steel frames makes them able to stand up to various natural events like earthquakes, hurricanes or snow accumulation. These kinds of events become more challenging when the structure is built more substantial. Steel is also more effective in situations that are caused by humans, such as explosions and impacts.

For lower structures, timber provides sufficient flexibility, but there could also be the risk of fire. Steel isn’t flammable, therefore it’s not a fire risk , however like concrete, its strength is weakened when exposed to temperatures that are extreme. Concrete in itself isn’t very flexible, so its tensile force must be increased by strengthening it by steel.

Speedier build-times

Computer-assisted manufacture of bolted connections that are standardised and repetitive floor plates makes production speedier, and standardisation and regulations make structural steel parts sturdy and easy to build.

The frames of steel are made off-site in order to meet a specific specifications before being shipped on to construction sites. Once they have been sent to the construction site they are ready to be put together by welding or bolting the pieces together, in contrast to in-situ concrete where it is required to wait for the section to cure before proceeding with the construction.

It is not necessary for temporary forms that need to be put together and removed afterward, thereby putting off the construction process as well as creating the waste.


Because steel frames are made off-site, labour on-site can be cut by 10-20 percent. A smaller number of workers means less accidents.

The shorter construction time results in less costs for financing, which means less interest and also means that the building is able to be used or rented as quickly as is possible to ensure a faster repayment.

Steel is durable , which means maintenance costs related to repairs and replacements are less. Insurance companies might also offer lower premium insurance on structures made of steel due to their capacity to withstand pests, decay and natural catastrophes.

Space maximisation

Because of their strength, the steel frames’ bays are able to be placed further apart, creating larger bays. The more space is available the floor to be more flexible that maximize the use of space. Concrete is not only durable however, it is more restricted floor-to-floor height and lower flooring.

In the housing sector steel, it will reduce the requirement for posts for carrying loads which can increase the floor area in the midst of rising property costs.

Steel frame storage buildings offer a variety of advantages. They can be built in all weather conditions, and they are easy to adapt to design changes that occur suddenly. They are also easier to maintain if the frame is easily accessible to inspect.

However, the development to hybrid building materials have produced, e.g metal-reinforced timber beams as well as fibre-reinforced concrete. These composite materials show that they are not just able to be more robust than individual components , but also economical.