Why use Precast Hollowcore?

Posted On: October 4, 2021

Precast Hollowcore slabs and flooring are an extremely popular and efficient construction element that is used within the manufacturing industry. This long term component with its long span creates less need for load bearing structures such as columns and inner walls.

Reasons you should use Precast Hollowcore:

Freedom

Precast hollow-core slabs span up to 20 meters without central supports, creating expansive open spaces. In residential projects, long-span slabs allow developers to add non-load-bearing partition walls anywhere on the floor. As a result, architects gain total flexibility to customize and change floor plans effortlessly.

 

Adaptability

Precast Hollowcore is often used for flooring across a range of designs and building types due to its versatility in spanning capabilities.

The hollowcore slabs have an extremely high durability as well as being extremely fire resistant making them perfect for today’s buildings. The slabs durability and reduced self weight also allows them to meet earthquake resistance standards. In addition, their great thermal properties help reducing energy consumption for heating and cooling of buildings.

 

Design

Precast hollowcore slabs work beyond horizontal flooring. Installers can fit them vertically as exterior walls, partition walls, and noise barriers. Their impressive spans and long-lasting strength make them ideal for industrial facilities that require open, high-ceiling spaces. In addition, these slabs resist harsh weather and block sound effectively, creating superior acoustic barriers.

 

Sustainability

Hollow-core slabs are among the most eco-friendly building materials available. Because they use less cement, water, and steel than cast-in-situ options, their hollow design maximizes raw material efficiency. Furthermore, these lightweight slabs reduce transport costs by allowing larger haul loads. Their corrosion-protected reinforcement also prevents cracking under service loads, extending overall structural lifespan.

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