| Density(g/cm3): | |
|---|---|
| Elastic Modulas (MPa): | |
| Shape: | |
| Name: | |
| Length(mm): | |
| Color : | |
| Availability: | |
| Quantity: | |
XRT-WPF
xinrui-te
550340
Polypropylene (PP) waved fibers are high-performance synthetic macrofibers designed to replace traditional steel fibers in concrete.
Their wavy shape improves bonding with the cement matrix, giving better crack control, longer-lasting performance, and easier handling—without the downsides of steel.
Polypropylene Waved Fibres Specification
Density(g/cm3) | 0.91 | Elastic Modulas (MPa) | >4000 |
Length(mm) | 20,30,40,48,50,54 | Equivalent Dia(mm) | 0.9mm |
Shape | Undee /wave | Crack Ratio(%) | ≤15 +/-5 |
Resistance to acid & alkali | Strong | Water absorbency | No |
Tensile Strength(MPa) | ≥460 | Melt Point, C. Deg. | ≥160 |
● Recommend Adding Amount: 2.0 - 3.0kg per cubic meter of cement concrete.
● length: Common crack-resistant usage: 50mm. For spraying concrete: 20-50mm.
● Mixing process: Same as common cement concrete
● Package: 1kgs per bag, 7kgs/plastic woven bag, about 3000kgs/1x20`gp Or 7500kgs/1x40`HQithout pallet.
Package
Loading
In container
Added to Concrete
Better grip: Waves lock into the cement, so fibers don't pull out easily.
Tougher concrete: Waves absorb energy, improving post-crack toughness and impact resistance.
Great crack control: Keeps early shrinkage cracks small.
Works at low dosage: Use less material for the same effect—cost-effective.
Easy to mix and pump: Less tangling and slipping than other fiber types.
Flexible design: Wave shape/surface can be tuned for bond vs. workability.
Versatile: Good for floors, precast, shotcrete, etc.
Concrete is everywhere—bridges, houses, highways, dams. It’s the backbone of modern construction. But anyone working with concrete knows it doesn’t always cooperate. Once cement and water mix, the clock starts ticking. Trust Xinrui-Te Import & Export Co., Ltd. for high-quality retarders and expert support to ensure your projects are built stronger, safer, and more reliably.
Formulators, engineers, and procurement teams face mounting pressure in today's demanding industrial landscape. They must source chelating agents and chemical stabilizers balancing high technical performance against strict environmental regulations.
Optimize industrial foam control with precise dosing, root cause analysis, and engineering strategies to prevent downtime and maximize process ROI.
Foam in paint can ruin a smooth finish, causing imperfections and defects. How do manufacturers tackle this issue? Enter the defoaming agent, a crucial additive in paint formulation. In this post, you'll learn about defoamers' role in ensuring paint quality and the significance of foam control in industrial applications.
Chemical formulators and industrial engineers face mounting pressure today. They must replace harsh synthetic compounds immediately. Strict environmental, social, and governance (ESG) mandates demand high-performance, eco-friendly alternatives. Finding a benchmark biodegradable chelating agent solve
Managing foam generation remains a massive hurdle in food, beverage, and packaging production. Excess foam severely reduces processing throughput. It causes messy spillovers on facility floors. You must control this rapid macrofoam expansion without violating strict food-contact safety regulations.
Learn the difference between anti-foam agents and defoamers. Master preventive vs. reactive foam control to optimize industrial process efficiency.
Eliminate shrinkage cracks in screeds and plasters. Discover how monofilament synthetic concrete fibers ensure flawless, durable finishes.
Prevent concrete cracking with heat-resistant virgin fibers. Learn how to choose the right specs and secure reliable factory-direct pricing.
Stop foam defects and silicone residue with polyether defoamers. Learn cloud point activation and evaluation criteria for sensitive industrial processes.
Learn how to choose steel fibers by shape, tensile strength, and manufacturing process to ensure perfect anchorage and avoid costly concrete failures.
Steel fibers strengthen industrial floors, prevent micro-cracks, withstand heavy loads. Choose the right aspect ratio for durability.
Steel fibers bridge cracks, making concrete ductile vs. brittle. Learn when to use them over rebar/mesh to save labor and boost durability.
Is carbon fiber stronger than steel? Discover the truth about strength-to-weight ratio, impact resistance, and when to use each material.
Understand the critical differences in pull-out mechanism and workability between straight and hooked-end steel fibers for optimal concrete performance.