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Brief Introduction of Waved Steel Fibers:
Waved steel fibers are high-performance steel fibers that enhance concrete's anti-impact and anti-fatigue capabilities while improving its impermeability. Characterized by high tensile strength, excellent toughness, and cost-effectiveness, they often serve as a substitute for grid-arranged steel fibers. Compared with other steel fiber shapes, they are widely used in infrastructure projects such as slopes, bridges, tunnels, airports, ports, and railway sleepers.
Waved Steel Fibers Technical Advantages:
Technical Advantage | Detailed Explanation |
---|---|
A. Enhanced Bonding Performance | - Strengthens adhesion between steel fibers and concrete matrix - Enables use of higher-strength concrete formulations |
B. Increased Aspect Ratio (lf/df) | - Optimizes fiber length-to-diameter ratio to enhance mechanical interlock - Improves load transfer efficiency between fibers and matrix |
C. Wave Structure Design | - Corrugated shape increases frictional resistance and bite force between fibers and matrix - Enhances the steel fiber influence coefficient (mechanical anchoring effect) |
Waved Steel Fibers Application Domains:
A. Highway & Bridge Engineering:
Highway pavements, bridge deck pavements, box arch bridges, continuous box girders.
B. Hydraulic Engineering:
Dams, underground powerhouses, hydraulic tunnel linings, water erosion-resistant components, gates, gate slots, aqueducts.
C. Railway Engineering:
Prestressed concrete railway sleepers, double-block railway sleepers.
D. Harbor & Marine Engineering:
Anti-corrosion steel pipe piles, wharf facilities, submarine concrete structures.
E. Tunnel & Underground Engineering
Hydraulic tunnel linings, mine tunnels, railway/highway tunnel linings.
F. Pipeline Engineering:
Centrifugal pipes, vibration-extruded pipes, pump pipes, steel fiber-reinforced concrete pressure pipes.
Waved Steel Fibers Application Guidelines:
Fiber Dosage:
Pavement construction: 30–80 kg/m³
Bridge construction: 50–100 kg/m³
Mixing Process: Compatible with conventional concrete mixing procedures; no special adjustments required.
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Brief Introduction of Waved Steel Fibers:
Waved steel fibers are high-performance steel fibers that enhance concrete's anti-impact and anti-fatigue capabilities while improving its impermeability. Characterized by high tensile strength, excellent toughness, and cost-effectiveness, they often serve as a substitute for grid-arranged steel fibers. Compared with other steel fiber shapes, they are widely used in infrastructure projects such as slopes, bridges, tunnels, airports, ports, and railway sleepers.
Waved Steel Fibers Technical Advantages:
Technical Advantage | Detailed Explanation |
---|---|
A. Enhanced Bonding Performance | - Strengthens adhesion between steel fibers and concrete matrix - Enables use of higher-strength concrete formulations |
B. Increased Aspect Ratio (lf/df) | - Optimizes fiber length-to-diameter ratio to enhance mechanical interlock - Improves load transfer efficiency between fibers and matrix |
C. Wave Structure Design | - Corrugated shape increases frictional resistance and bite force between fibers and matrix - Enhances the steel fiber influence coefficient (mechanical anchoring effect) |
Waved Steel Fibers Application Domains:
A. Highway & Bridge Engineering:
Highway pavements, bridge deck pavements, box arch bridges, continuous box girders.
B. Hydraulic Engineering:
Dams, underground powerhouses, hydraulic tunnel linings, water erosion-resistant components, gates, gate slots, aqueducts.
C. Railway Engineering:
Prestressed concrete railway sleepers, double-block railway sleepers.
D. Harbor & Marine Engineering:
Anti-corrosion steel pipe piles, wharf facilities, submarine concrete structures.
E. Tunnel & Underground Engineering
Hydraulic tunnel linings, mine tunnels, railway/highway tunnel linings.
F. Pipeline Engineering:
Centrifugal pipes, vibration-extruded pipes, pump pipes, steel fiber-reinforced concrete pressure pipes.
Waved Steel Fibers Application Guidelines:
Fiber Dosage:
Pavement construction: 30–80 kg/m³
Bridge construction: 50–100 kg/m³
Mixing Process: Compatible with conventional concrete mixing procedures; no special adjustments required.
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