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.

Blended macro fibers significantly improve crack distribution in concrete by combining macro and micro reinforcement. This multi-scale system enhances toughness, reduces crack width, improves durability, and delivers superior performance in slabs, shotcrete, and precast elements.

Micro synthetic fibers reduce plastic shrinkage, limit settlement cracking, and improve early-age durability by forming a 3D reinforcement network inside the cement matrix. This technical overview explains fiber types, dosage, mechanisms, and engineering applications.

Polypropylene macro fibers improve concrete by providing high tensile strength, controlled elongation, enhanced energy absorption, and reliable bonding mechanisms. This guide explains the engineering properties—modulus, toughness, post-crack residual strength, and pull-out behavior—to help engineers design FRC slabs, precast, pavements, and shotcrete.

Polypropylene Fiber Mesh improves crack resistance, durability, workability and shrinkage control in concrete and mortar applications. Learn how it enhances road pavement, industrial flooring, repair mortar and shotcrete.

This guide explains exactly how much polypropylene fiber should be added to concrete for different applications, including slabs, mortar, and shotcrete. Learn dosage ranges, how fiber content affects workability, common overdosing myths, and recommended mix adjustments for optimal performance.

Embossed macro synthetic fibers significantly improve concrete toughness, anchorage, crack control, and post-crack load capacity. Their mechanical interlock and enhanced bond strength make them ideal for slabs-on-ground, industrial floors, shotcrete, and precast applications.

Micro synthetic fibers outperform wire mesh in early-age crack control, labor efficiency, and overall durability. This article explains performance differences in plastic shrinkage, installation cost, industrial flooring behavior, curling, and when micro fibers provide superior reinforcement.

This article explains why shrinkage cracking occurs, why slabs and pavements are vulnerable, and how macro fibers offer reliable reinforcement across the whole concrete depth. It also outlines engineering conditions where macro fibers can fully replace WWM, along with dosage recommendations based on residual strength requirements.

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.

Polypropylene microfibers significantly reduce plastic shrinkage and early-age cracking—but do they replace welded wire mesh? This technical guide explains the different functions of PP fibers and mesh, when fibers can substitute mesh in slabs-on-ground, and when mesh remains essential for structural reinforcement. Includes recommendations for industrial floors, precast, pavements, and combined reinforcement strategies.

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.