Purlins

The metal purlins were rusted and needed to be replaced.

The builder used purlins to support the metal roof panels.

The roofing contractor recommended upgrading the purlins to improve the building's structural integrity.

The roofing contractor recommended adding more purlins to the roof to increase its strength.

The workers used cranes to lift the heavy purlins into place.

The design of the purlins was essential to the stability of the roof structure.

The roofer used a crane to lift the heavy purlins into place.

The carpenter installed purlins on the roof of the house.

The carpenter installed the purlins before adding the roofing material.

The weight of the snow caused the purlins to buckle, and the roof collapsed.

The architect specified the size and spacing of the purlins to ensure the roof could support the load.

The contractor used a crane to lift the heavy purlins onto the roof.

The purlins were made of wood and had to be treated with preservatives to protect them from rot.

The engineer calculated the strength of the purlins to ensure they could withstand high winds.

The roofers installed the shingles over the purlins, completing the roof.

The old barn's purlins were so rotten that they had to be completely replaced.

The builder used steel purlins to construct the industrial building's roof.

The warehouse owner had to replace the damaged purlins to avoid accidents.

The engineer designed the roof with steel purlins for added strength.

The architect specified the use of steel purlins in the building design for their durability.

The architect recommended the use of steel purlins for added strength.

The weight of the snow caused the purlins to bow, putting stress on the roof structure.

The installation of the purlins was completed in just one day, thanks to the efficient work of the construction crew.

The architect specified the use of metal purlins for the new building.

The purlins were spaced evenly to ensure the roof's stability.

The building code requires a minimum size and spacing for purlins based on the building's dimensions.

The builder used treated lumber for the purlins to prevent rot and decay.

The carpenter nailed the purlins to the roof trusses.

The architect designed the roof with purlins to provide additional support.

The builder selected purlins made of treated wood to prevent termite damage.

The metal fabricator produced custom purlins to fit the unique shape of the roof.

The metal purlins are a more durable option for roofs in areas with high winds.

The roofing supplier offered a wide selection of purlins to choose from.

The building inspector checked the purlins for any signs of damage or corrosion.

The engineer designed the purlins to support the solar panels on the roof.

The architect specified the spacing of the purlins to ensure proper weight distribution.

The installation crew used a crane to lift the heavy steel purlins into place on the warehouse roof.

The old barn needed new purlins to reinforce the roof and prevent it from collapsing.

The workers installed the purlins to provide additional support for the roof.

The weight of the snow on the roof caused the purlins to bow.

The roofing contractor replaced the damaged purlins before installing the new shingles.

The architect specified the size and spacing of the purlins in the building plan.

The homeowner replaced the old purlins with new ones to improve the structural integrity of the roof.

The carpenter installed the purlins on the roof to support the shingles.

The homeowner noticed a leak in the roof near one of the purlins and called a repairman.

The roofer inspected the purlins for any damages before starting the work.

The builder reinforced the purlins with extra bracing to make sure the roof could withstand high winds.

The architect designed the building with exposed timber purlins for a rustic aesthetic.

The architect designed the building with exposed purlins for a rustic look.

The roofing contractor recommended adding extra purlins to reinforce the roof structure.