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XRT-MF
xinrui-te
Factory Construction Monofilament Hooked end Steel Fibres for Reinforcement Concrete
-----XRT-MF

End-hook type steel wire fiber is a high-performance steel fiber that significantly enhances concrete's impact resistance, fatigue resistance, and impermeability. Characterized by its high tensile strength, excellent toughness, and cost-effectiveness, it is widely used as a substitute for row-arranged steel fibers. Compared with other types of steel fibers, it finds extensive application in engineering projects such as slopes, bridges, tunnels, airports, ports, and railway sleepers.
| Parameter | Range | Unit |
|---|---|---|
| Length | 25–60 | mm |
| Diameter | 0.5–0.9 | mm |
| Tensile Strength | 600–2000 | MPa |
Highway surfaces, bridge deck overlays, box arch bridges, continuous box
girders.
Hydraulic dams, underground power stations, hydraulic tunnel linings,
components prone to water erosion and abrasion, sluice gates, gate slots,
water conveyance channels.
Corrosion protection for steel pipe piles, quayside facilities, subsea concrete structures.
Centrifugally cast tubes, vibration-extruded pipes, pump casings, steel fiber-reinforced concrete pressure pipe.
Hooked end Steel Fibres advantages:
Item Name | Ordinary concrete at the same level | Steel fiber reinforced concrete | Growth rate |
C30(RC) | C30(SFRC) | ( % ) | |
Tensile Strength | 3.5MPa | 5.39-7MPa | 54-100 |
Compressive strength | 31.2MPa | 32.5-40MPa | 4.4-28.2 |
Ultimate bending strength | 5.5MPa | 9.18-13.75MPa | 67-520 |
Initial crack bending strength | 4.88MPa | 7-8Mpa | 43-100 |
Initial crack strength | 8.85N.m | 23-53N.m | 160-500 |
Impact fatigue strength | 5.96/cm2 | 53.3-91/m2 | 8-15 |
Anti permeability grade | P4 | P6~p12 | 0.5 ~ 2.0 |
Factory Construction Monofilament Hooked end Steel Fibres for Reinforcement Concrete
-----XRT-MF

End-hook type steel wire fiber is a high-performance steel fiber that significantly enhances concrete's impact resistance, fatigue resistance, and impermeability. Characterized by its high tensile strength, excellent toughness, and cost-effectiveness, it is widely used as a substitute for row-arranged steel fibers. Compared with other types of steel fibers, it finds extensive application in engineering projects such as slopes, bridges, tunnels, airports, ports, and railway sleepers.
| Parameter | Range | Unit |
|---|---|---|
| Length | 25–60 | mm |
| Diameter | 0.5–0.9 | mm |
| Tensile Strength | 600–2000 | MPa |
Highway surfaces, bridge deck overlays, box arch bridges, continuous box
girders.
Hydraulic dams, underground power stations, hydraulic tunnel linings,
components prone to water erosion and abrasion, sluice gates, gate slots,
water conveyance channels.
Corrosion protection for steel pipe piles, quayside facilities, subsea concrete structures.
Centrifugally cast tubes, vibration-extruded pipes, pump casings, steel fiber-reinforced concrete pressure pipe.
Hooked end Steel Fibres advantages:
Item Name | Ordinary concrete at the same level | Steel fiber reinforced concrete | Growth rate |
C30(RC) | C30(SFRC) | ( % ) | |
Tensile Strength | 3.5MPa | 5.39-7MPa | 54-100 |
Compressive strength | 31.2MPa | 32.5-40MPa | 4.4-28.2 |
Ultimate bending strength | 5.5MPa | 9.18-13.75MPa | 67-520 |
Initial crack bending strength | 4.88MPa | 7-8Mpa | 43-100 |
Initial crack strength | 8.85N.m | 23-53N.m | 160-500 |
Impact fatigue strength | 5.96/cm2 | 53.3-91/m2 | 8-15 |
Anti permeability grade | P4 | P6~p12 | 0.5 ~ 2.0 |
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