
Secondary Members
Secondary structural framing refers to purlins, girts, eave struts, wind bracing, flange bracing, base angles, clips and other miscellaneous structural parts.
Purlins, girts and eave struts are cold formed steel members which have a minimum yield strength of 345 MPa (50,000 psi) and will conform to the physical specifications of ASTM 572 (Grade 50) or ASTM A653 (Grade 50) or equivalent.
Purlins
Purlins designed to support roof loads and efficiently transfer them to the primary structural frame.

Thickness: 1.5-3.5mm | Depth: 120 300mm
Finish: Pre-galvanized 120-275gsm

Thickness: 1.5-3.5mm | Depth: 120 300mm
Finish: Pre-galvanized 120-275gsm
Key Performance Attributes
Load Transfer System
Transfers roof and wall loads safely from cladding elements to the primary structural frame.
High-Strength Steel
Manufactured from cold-formed steel with minimum yield strength of 345 MPa (50 ksi) as per ASTM standards.
Frame Stability Support
Includes bracing components that enhance lateral stability and structural performance.
Precision Fabrication
Factory-produced members ensure dimensional accuracy and consistent integration with the primary structure.
Applications

Educational Institutions & Hostels
Ideal for factories, warehouses, and commercial units requiring thermal insulation and durability.

Greenhouses & Controlled Environment Structures
Ideal for factories, warehouses, and commercial units requiring thermal insulation and durability.

Resorts, Cottages & Guest Houses
Ideal for factories, warehouses, and commercial units requiring thermal insulation and durability.

Petrol Stations & Service Centers
Ideal for factories, warehouses, and commercial units requiring thermal insulation and durability.

Bus Depots & Parking Sheds
Ideal for factories, warehouses, and commercial units requiring thermal insulation and durability.

Roof Renovation & Retrofits
Ideal for factories, warehouses, and commercial units requiring thermal insulation and durability

Cold Storage Roofing
Ideal for factories, warehouses, and commercial units requiring thermal insulation and durability.

Warehouses & Distribution Centres
Ideal for bulk storage facilities needing wide column-free spaces.

Industrial Manufacturing Plants
Suitable for large-span factory buildings requiring fast construction and structural efficiency.

Aircraft Hangars
Used for large clear-span enclosures accommodating aircraft storage and maintenance.

Sports Complexes & Indoor Stadiums
Suitable for wide-span structures such as indoor courts and training facilities.

Exhibition Halls & Convention Centres
Provides large covered spaces for public events and trade shows.
Frequently asked Question
A PEB is a customized, factory-fabricated steel building system designed based on specific load, span, and functional requirements before being assembled on site.
In a PEB system, structural members are pre-designed and optimized through engineering software, then fabricated in controlled factory conditions, reducing material wastage and site work compared to conventional fabrication.
Design accounts for dead load, live load, wind load, seismic load, crane load (if applicable), and local code requirements before fabrication begins.
Primary members (columns and rafters), secondary members (purlins and girts), bracing systems, roof and wall cladding, and connection systems form the core structure.
All structural members are factory-fabricated and assembled on site using bolted connections, enabling faster and controlled erection.
Yes, PEB systems are typically designed to allow lengthwise or bay-wise expansion, subject to structural planning during the initial design stage.
Tapered built-up sections and optimized steel design reduce excess material usage while maintaining structural integrity.
Yes, when designed according to relevant codes, PEB structures can be engineered to meet seismic and wind load requirements.
Controlled manufacturing environments ensure dimensional accuracy, consistent welding quality, and adherence to design specifications
Span requirements, load conditions, intended usage, expansion needs, local climate, and compliance with building codes should be assessed.







