HiPer Fiber manufactures high-quality steel fibers specifically designed for Ultra High Performance Concrete (UHPC), enhancing fiber bond strength by 130% and allowing for up to 50% less material usage compared to competitors. This technology not only reduces structural weight and CO2 emissions by up to 20% but also extends the lifespan of concrete infrastructure to nearly 200 years.
Funding
Funding not disclosed
Founders
Product
Problem
Ultra-High Performance Concrete (UHPC) requires steel fibers to enhance its strength and durability, but traditional steel fibers often necessitate high material usage and can contribute to a significant carbon footprint. Achieving optimal fiber bond strength and extending the lifespan of concrete infrastructure remains a challenge.
Solution
HiPer Fiber manufactures steel fibers designed specifically for UHPC, improving fiber bond strength and enabling reduced material usage. Their striated fibers enhance the bond with the surrounding UHPC matrix, leading to savings in steel fiber consumption while maintaining performance. The enhanced ductility of the UHPC makes infrastructure more resistant to damage from natural hazards. The use of HiPer Fibers in UHPC extends the lifespan of concrete infrastructure and reduces structural weight, leading to a lower CO2 footprint.
Target Audience
The primary customers are construction companies, infrastructure developers, architects, and government agencies involved in transportation, building construction, energy, defense, and water/waste management projects utilizing Ultra-High Performance Concrete.
Features
- Striated fiber design for a 130% increase in fiber bond strength with the UHPC matrix.
- Potential for up to 50% reduction in steel fiber usage to achieve comparable UHPC performance.
- Enhanced ductility providing a 175% higher strain capacity, increasing resistance to natural hazard damage.
- Extended lifespan of concrete infrastructure, ensuring it reaches its full durability potential.
- Up to 20% reduction in structural weight and CO2 emissions.
- 300% higher energy dissipation, improving blast and impact resistance of concrete structures.