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Macro structural Synthetic polymer PP Polypropylene hybrid fiber for concrete
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Polypropylene Hybrid Fiber – Introduction:
Polypropylene Hybrid Fiber is a high-performance macro-synthetic fiber manufactured from virgin polymers.
It combines twisted fiber and mesh fiber to deliver superior structural reinforcement.
Engineered for durability and versatility, this fiber exhibits high tensile strength, excellent dispersion, and outstanding
corrosion resistance .
Polypropylene Hybrid Fiber Primary Applications:
Infrastructure: Roads, bridges, tunnels, and underground waterproofing systems.
Construction: Industrial & civil structures (roofing, walls, basements, swimming pools).
Durability Solutions: Crack prevention, fatigue resistance, and long-term structural integrity.
Polypropylene Hybrid Fiber Key Features & Benefits:
Superior Dispersion – Ensures uniform distribution within concrete/mortar matrices.
High Tensile & Shear Strength – Enhances load-bearing capacity and structural resilience.
Crack Resistance – Reduces micro/macro-cracking in hardened concrete.
Fatigue & Corrosion Resistance – Prolongs service life in harsh environments.
Exceptional Toughness – Improves impact resistance and deformation tolerance.
This fiber is an optimal solution for modern construction challenges, balancing cost-efficiency with long-term performance.
Material: | 100% raw polypropylene |
Density: | 0.91g/cm3 |
Length: | 54mm or customized |
Shape: | twisted |
Type: | hybrid and non hybrid |
Diameter: | 0.3-6mm |
Tensile strength: | 450MPa min |
E-modulus : | 7500MPa min |
Elongation : | 12% |
Melting point: | 167℃ |
Color: | gray and white,or customized |
Polypropylene Hybrid Fiber in Concrete: Performance & Applications:
Crack Control & Structural Reinforcement
Reduces Plastic shrinkage cracks by up to 70-90% (ASTM C157).
Controls macrocracks (width <0.1 mm) and macrocracks in hardened concrete.
Improved Durability
Freeze-thaw resistance:Increases cycles to failure by 30-50% (ASTM C666).
Abrasion resistance:Reduces surface wear by 20-40% (ASTM C944).
Enhanced Toughness
Impact resistance :Improves by 3-5x vs. plain concrete (ACI 544 testing).
Post-crack behavior:Maintains load-bearing capacity after cracking.
Workability & Homogeneity
Reduces bleeding/segregation by 40-60% , ensuring uniform mix consistency.
APPLICATION | DOSAGE (KG/M³) | KEY BENEFIT |
---|---|---|
Industrial Flooring | 0.6–1.2 | Anti-crack, high wear resistance |
Bridge Decks | 0.9–1.5 | Freeze-thaw protection, fatigue resistance |
Precast Concrete | 0.6–1.0 | Impact resistance, reduced handling damage |
Shotcrete (Tunnels) | 1.0–2.0 | Early-age crack control, cohesion |
Marine Structures | 1.0–1.8 | Chloride resistance, reduced spalling |
Fiber Type : Virgin copolymer polypropylene (100% pure, no recycled content).
Length : 12–50 mm (customizable for project needs).
Tensile Strength : 450-560MPa (exceeds ASTM C1116/C1116M).
Melting Point : 160-170°C , ensuring stability in hot climates.
Vs. Steel Fibers : Lighter, no corrosion risk, and easier to mix.
Vs. PVA Fibers : Higher tensile strength and lower cost.
Ideal for : High-stress environments (warehouses, airports, dams) and decorative concrete (reduced surface defects).
Macro structural Synthetic polymer PP Polypropylene hybrid fiber for concrete
------XRT-HPF
Polypropylene Hybrid Fiber – Introduction:
Polypropylene Hybrid Fiber is a high-performance macro-synthetic fiber manufactured from virgin polymers.
It combines twisted fiber and mesh fiber to deliver superior structural reinforcement.
Engineered for durability and versatility, this fiber exhibits high tensile strength, excellent dispersion, and outstanding
corrosion resistance .
Polypropylene Hybrid Fiber Primary Applications:
Infrastructure: Roads, bridges, tunnels, and underground waterproofing systems.
Construction: Industrial & civil structures (roofing, walls, basements, swimming pools).
Durability Solutions: Crack prevention, fatigue resistance, and long-term structural integrity.
Polypropylene Hybrid Fiber Key Features & Benefits:
Superior Dispersion – Ensures uniform distribution within concrete/mortar matrices.
High Tensile & Shear Strength – Enhances load-bearing capacity and structural resilience.
Crack Resistance – Reduces micro/macro-cracking in hardened concrete.
Fatigue & Corrosion Resistance – Prolongs service life in harsh environments.
Exceptional Toughness – Improves impact resistance and deformation tolerance.
This fiber is an optimal solution for modern construction challenges, balancing cost-efficiency with long-term performance.
Material: | 100% raw polypropylene |
Density: | 0.91g/cm3 |
Length: | 54mm or customized |
Shape: | twisted |
Type: | hybrid and non hybrid |
Diameter: | 0.3-6mm |
Tensile strength: | 450MPa min |
E-modulus : | 7500MPa min |
Elongation : | 12% |
Melting point: | 167℃ |
Color: | gray and white,or customized |
Polypropylene Hybrid Fiber in Concrete: Performance & Applications:
Crack Control & Structural Reinforcement
Reduces Plastic shrinkage cracks by up to 70-90% (ASTM C157).
Controls macrocracks (width <0.1 mm) and macrocracks in hardened concrete.
Improved Durability
Freeze-thaw resistance:Increases cycles to failure by 30-50% (ASTM C666).
Abrasion resistance:Reduces surface wear by 20-40% (ASTM C944).
Enhanced Toughness
Impact resistance :Improves by 3-5x vs. plain concrete (ACI 544 testing).
Post-crack behavior:Maintains load-bearing capacity after cracking.
Workability & Homogeneity
Reduces bleeding/segregation by 40-60% , ensuring uniform mix consistency.
APPLICATION | DOSAGE (KG/M³) | KEY BENEFIT |
---|---|---|
Industrial Flooring | 0.6–1.2 | Anti-crack, high wear resistance |
Bridge Decks | 0.9–1.5 | Freeze-thaw protection, fatigue resistance |
Precast Concrete | 0.6–1.0 | Impact resistance, reduced handling damage |
Shotcrete (Tunnels) | 1.0–2.0 | Early-age crack control, cohesion |
Marine Structures | 1.0–1.8 | Chloride resistance, reduced spalling |
Fiber Type : Virgin copolymer polypropylene (100% pure, no recycled content).
Length : 12–50 mm (customizable for project needs).
Tensile Strength : 450-560MPa (exceeds ASTM C1116/C1116M).
Melting Point : 160-170°C , ensuring stability in hot climates.
Vs. Steel Fibers : Lighter, no corrosion risk, and easier to mix.
Vs. PVA Fibers : Higher tensile strength and lower cost.
Ideal for : High-stress environments (warehouses, airports, dams) and decorative concrete (reduced surface defects).
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