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XRT-WPF
xinrui-te
550340
Polypropylene PP Curved Macro Synthetic Waved Fibres for Shotcrete
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Polypropylene (PP) waved fibers are high-performance macro-synthetic fibers engineered to replace traditional steel fibers in concrete.
Their unique wave-shaped geometry enhances bonding with cementitious matrices, delivering superior crack resistance , durability , and ease of use —without the drawbacks 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 into Concrete
Compared with steel fiber ,wave polymer fiber has the advantages of anti-corrosion and weather resistant ,reducing 50% cost with same mixing volume of steel fiber.
Polypropylene corrugated fibers offer three key advantages.
Firstly: they are cost-effective, cutting reinforcement expenses significantly without sacrificing crack resistance, making
them a budget-friendly choice.
Secondly: their durability is outstanding, withstanding freeze-thaw cycles, UV radiation, and chemical attacks for long-
lasting performance.
Lastly: they champion sustainability. Being 100% recyclable and producing 70% less CO₂ than steel, these fibers
balance practical benefits with eco-friendliness, making them an ideal solution for various applications.
Polypropylene PP Curved Macro Synthetic Waved Fibres for Shotcrete
-----XRT-WPF
Polypropylene (PP) waved fibers are high-performance macro-synthetic fibers engineered to replace traditional steel fibers in concrete.
Their unique wave-shaped geometry enhances bonding with cementitious matrices, delivering superior crack resistance , durability , and ease of use —without the drawbacks 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 into Concrete
Compared with steel fiber ,wave polymer fiber has the advantages of anti-corrosion and weather resistant ,reducing 50% cost with same mixing volume of steel fiber.
Polypropylene corrugated fibers offer three key advantages.
Firstly: they are cost-effective, cutting reinforcement expenses significantly without sacrificing crack resistance, making
them a budget-friendly choice.
Secondly: their durability is outstanding, withstanding freeze-thaw cycles, UV radiation, and chemical attacks for long-
lasting performance.
Lastly: they champion sustainability. Being 100% recyclable and producing 70% less CO₂ than steel, these fibers
balance practical benefits with eco-friendliness, making them an ideal solution for various applications.
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What is the best concete admixture to strength in South America ? In South America, coastal salt spray, tropical high temperatures, heavy rainfall, and seismic activity pose common challenges to concrete structures, such as early cracking, chloride ion corrosion, insufficient compressive strength,
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Polycarboxylate Superplasticizer is a high-performance additive that has transformed modern concrete construction. 、
Polycarboxylate Superplasticizer (PCE) has become a cornerstone in modern concrete technology, offering unmatched performance in workability, strength, and durability.
Fibre-reinforced concrete has become an essential material choice for projects that demand durability, crack resistance, and long-term performance.
Concrete technology has advanced rapidly in recent years, and one of the most significant innovations is the use of macro synthetic fibers.
A concise, engineered reinforcement for concrete, macro synthetic fibres add post-crack strength and reduce surface cracking without the corrosion risks linked to steel.
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