Punching Tests of Double-Hooked-End Fiber Reinforced Concrete Slabs

Ten high-strength concrete slabs reinforced with a new type of steel fiber, double-hooked-end steel fibers, were tested under punching shear loads. The strength of the concrete fc' varied from 80 to 100 MPa (11,600 to 14,500 psi). The fiber content Vf varied from 0 to 1.2%. Two different values...

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Veröffentlicht in:ACI structural journal 2018-11, Vol.115 (6), p.1777-1789
Hauptverfasser: Chanthabouala, Khatthanam, Teng, Susanto, Chandra, Jimmy, Tan, Kang-Hai, Ostertag, Claudia P.
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container_end_page 1789
container_issue 6
container_start_page 1777
container_title ACI structural journal
container_volume 115
creator Chanthabouala, Khatthanam
Teng, Susanto
Chandra, Jimmy
Tan, Kang-Hai
Ostertag, Claudia P.
description Ten high-strength concrete slabs reinforced with a new type of steel fiber, double-hooked-end steel fibers, were tested under punching shear loads. The strength of the concrete fc' varied from 80 to 100 MPa (11,600 to 14,500 psi). The fiber content Vf varied from 0 to 1.2%. Two different values of flexural reinforcement ratios p (= As/bd) of 0.9% and 1.4% were chosen for this test program. The experimental results showed that the use of double-hooked-end steel fibers in concrete enhances slab performance significantly in many ways. As the fiber volume orfiber content Vf increased, the flexural stiffness of the slab throughout loading history also increased, while both the deflections and crack widths decreased considerably. At the ultimate load stage, the punching shear strength increased by up to 156% compared to non-fibrous concrete slabs. The increase in punching shear strength is significantly higher than the increase introduced by conventional single hooked-end steel fibers. The ductility of the slabs was also significantly improved.Comparisons between design methods with experimental results show that the design method from The Concrete Society's TR-34 performs very well. Another method that was based on the yield line theory overestimates the strengths of the slabs. Model Code 2010 method also overestimates the punching shear strengths. Finally, some relevant design recommendations are given.
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The strength of the concrete fc' varied from 80 to 100 MPa (11,600 to 14,500 psi). The fiber content Vf varied from 0 to 1.2%. Two different values of flexural reinforcement ratios p (= As/bd) of 0.9% and 1.4% were chosen for this test program. The experimental results showed that the use of double-hooked-end steel fibers in concrete enhances slab performance significantly in many ways. As the fiber volume orfiber content Vf increased, the flexural stiffness of the slab throughout loading history also increased, while both the deflections and crack widths decreased considerably. At the ultimate load stage, the punching shear strength increased by up to 156% compared to non-fibrous concrete slabs. The increase in punching shear strength is significantly higher than the increase introduced by conventional single hooked-end steel fibers. The ductility of the slabs was also significantly improved.Comparisons between design methods with experimental results show that the design method from The Concrete Society's TR-34 performs very well. Another method that was based on the yield line theory overestimates the strengths of the slabs. Model Code 2010 method also overestimates the punching shear strengths. 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source American Concrete Institute Online Journal Archives
subjects Building codes
Concrete
Concrete slabs
Design
Ductility
Engineering
Fiber reinforced concretes
High strength concretes
Methods
Punching
Punching shear
Ratios
Reinforced concrete
Reinforcing steels
Shear strength
Shear tests
Slabs
Steel
Steel fibers
Stiffness
Tensile strength
Ultimate loads
title Punching Tests of Double-Hooked-End Fiber Reinforced Concrete Slabs
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