News and Events

Twisted macro fibers provide superior anchorage, toughness, and post-crack performance for heavy-duty fiber-reinforced concrete. This guide explains how fiber geometry affects mechanical behavior and why twisted fibers outperform straight or embossed alternatives in demanding structural applications.

Hybrid polypropylene fibers enhance crack resistance, toughness, and durability in concrete and dry-mix mortars. Learn how hybrid PP fibers deliver multi-scale reinforcement.

Polypropylene fibers and glass fibers are widely used in concrete reinforcement, but their performance, durability, and cost differ significantly. This technical guide compares PP fibers and AR-glass fibers in terms of crack control, mechanical contribution, alkali resistance, workability, and suitability for slabs, mortars, GRC, and precast elements. Learn which fiber performs better for your application and how to choose the right reinforcement for long-term durability and

Residual strength is one of the most critical performance indicators for fiber-reinforced concrete (FRC). It represents the concrete’s ability to maintain load-carrying capacity after cracking. Macro synthetic fibers significantly increase residual strength, improving toughness, ductility, and long-term durability. This article explains testing methods, design parameters, and why residual strength is fundamental in slabs, pavements, precast, and shotcrete applications.

Macro synthetic fibers significantly enhance the post-crack performance of concrete by providing a distributed reinforcement system that bridges cracks, increases toughness, improves residual strength, and maintains load-carrying capacity after cracking. This article explains the mechanism of post-crack behavior, the role of fiber geometry and anchorage, and why macro fibers are now widely used in industrial floors, pavements, precast elements, and shotcrete structures.

Micro synthetic fibers are one of the most effective solutions for preventing plastic shrinkage cracks in slabs, pavements, and industrial concrete. By acting as early-age tensile reinforcement, micro polypropylene fibers control bleeding-related stresses, bridge micro-cracks, and reduce crack width by over 80% under ASTM C1579 testing. This article explains how micro fibers work, the science behind early-age cracking, and recommended dosages from 0.6–1.0 kg/m³.

A deep dive into the material science of PP microfiber fiber-reinforced concrete. Learn how microfibers interact with cement, reduce plastic shrinkage cracking, and improve durability using a 3D reinforcement network.

As concrete technology advances, so does the need for a more strategic approach to fiber selection. This article explores how performance-based fiber selection is shaping the future of next-generation concrete, ensuring optimal strength, durability, and application-specific functionality across modern construction projects.

Discover how basalt strands enhance the durability and longevity of concrete pipes. Explore benefits like crack resistance, chemical stability, and sustainable performance.

Explore how polyvinyl alcohol fibers enhance crack resistance in high-performance concrete (HPC) through advanced bridging mechanisms. This article explains the science behind fiber-matrix interaction, load transfer efficiency, and long-term durability improvements in fiber-reinforced concrete systems.

Learn how PIONEER® polypropylene fibers effectively reduce concrete shrinkage cracks and enhance durability for slabs, pavements, and tunnels.

Learn why concrete explodes in fires and how fire-resistant fibers prevent explosive spalling by creating vapor escape channels for trapped steam.