Constructing steel buildings
Contents |
[edit] Introduction
The manufacture of a steel building is a combination of engineering, draftsmanship, ingenuity, teamwork, know-how and manufacturing expertise. Some factories fabricate all the required building components ensuring they are compatible.
[edit] Optimising the process
Pre-engineered steel buildings engineers review the building drawings for accuracy and to obtain permissions.
Actual building production begins with the input of building specifications into CNC (Computer Numerical Control) machinery. The CNC machinery controls all machine features including feeds and speeds.
Components of steel buildings, such as I-beams, gutters and downpipes, sidewalls and end wall panels, and even standing seam roofs are systematically manufactured in designated areas called "lines" throughout the factory. Each manufacturing line completes a specific function, automated by the use of conveyors that move the components from station to station.
[edit] Manufacturing components
The construction of rafters and columns starts at a machine that cuts the centre of the rafter or column (like the center of the letter "H"). This component moves to a holding station waiting to move to a station where certified welders tack-weld flanges and webs in place to form rafters and columns. Next these components are fused together and the welds are then checked.
Roof and sidewall panels are fabricated from steel sheeting. Large coils of metal sheeting are placed in a machine for straightening. This sheet is then cut and passed through a roll former to give it the required shape.
Machinery automates the process by which custom trim is formed. The steel passes through a straightener and is then formed into the shape required for all trim components: rake trim, corner trim, jamb trim, head trim, base trim, eave trim, rake angle, base angle, gutter straps, downpipes and gutters.
The steel building components are then loaded onto trucks to be delivered to site.
[edit] Related articles on Designing Buildings
Featured articles and news
Do you take the lead in a circular construction economy?
Help us develop and expand this wiki as a resource for academia and industry alike.
Warm Homes Plan Workforce Taskforce
Risks of undermining UK’s energy transition due to lack of electrotechnical industry representation, says ECA.
Cost Optimal Domestic Electrification CODE
Modelling retrofits only on costs that directly impact the consumer: upfront cost of equipment, energy costs and maintenance costs.
The Warm Homes Plan details released
What's new and what is not, with industry reactions.
Could AI and VR cause an increase the value of heritage?
The Orange book: 2026 Amendment 4 to BS 7671:2018
ECA welcomes IET and BSI content sign off.
How neural technologies could transform the design future
Enhancing legacy parametric engines, offering novel ways to explore solutions and generate geometry.
Key AI related terms to be aware of
With explanations from the UK government and other bodies.
From QS to further education teacher
Applying real world skills with the next generation.
A guide on how children can use LEGO to mirror real engineering processes.
Data infrastructure for next-generation materials science
Research Data Express to automate data processing and create AI-ready datasets for materials research.
Wired for the Future with ECA; powering skills and progress
ECA South Wales Business Day 2025, a day to remember.
AI for the conservation professional
A level of sophistication previously reserved for science fiction.
Biomass harvested in cycles of less than ten years.
An interview with the new CIAT President
Usman Yaqub BSc (Hons) PCIAT MFPWS.
Cost benefit model report of building safety regime in Wales
Proposed policy option costs for design and construction stage of the new building safety regime in Wales.
Do you receive our free biweekly newsletter?
If not you can sign up to receive it in your mailbox here.






















