News and Events

A practical guide to polypropylene fibers in concrete, including fiber types, applications, dosage principles, and the differences between monofilament and fibrillated PP fibers.

Massive commercial foundations and deep basement retaining walls develop intensive exothermic hydration heat that leads to severe thermal cracking. This structural review examines the use of synthetic macro fiber reinforcement in mass concrete using Rimix 3D, showing how uniform multi-directional fiber dispersion controls early thermal stresses and ensures water tightness without relying solely on secondary rebar layers.

Tunneling and mining operations demand reliable, high-ductility ground support systems capable of absorbing severe rock deformation. This comprehensive engineering report analyzes the benefits of macro synthetic fiber shotcrete for underground support, detailing how Rimix 3D increases energy absorption capacity (joules) and reduces material rebound during wet-mix spray applications.

Industrial container yards, manufacturing staging areas, and heavy-duty logistics lanes face extreme wheel loads and severe weather exposure. This technical review details the engineering benefits of macro synthetic fiber reinforced concrete pavement, explaining how Rimix 3D increases the flexural fatigue life of outdoor slabs while removing the risk of steel oxidation.

Freezer and cold storage slabs operate under extreme, continuous sub-zero thermal stresses that accelerate shrinkage cracking and joint spalling. This engineering analysis explores how utilizing macro synthetic fiber concrete for cold storage with Rimix 3D provides uniform, three-dimensional shrinkage control and eliminates traditional rebar movement, ensuring long-term surface flatness under heavy racking loads.

When high-strength concrete assets encounter extreme fire events, internal moisture vaporizes into high-pressure steam, triggering explosive spalling. This material science profile details how HPM® polypropylene fiber concrete fire spalling mitigation networks create an internal micro-venting network that safely relieves internal vapor pressures during thermal events.