Quantifying the serviceability flexural benefits of using <scp>UHPFRC</scp> in profiled slabs

Abstract Using ultra‐high‐performance fiber‐reinforced concrete (UHPFRC) in profiled slabs, as opposed to normal strength concrete without fibers, has been shown experimentally to significantly increase both the bond between the profiled sheet and the concrete, and the tensile forces across cracked concrete. The consequence of these fiber benefits is to substantially increase the flexural rigidity leading to reduced deflections and also to substantially reduced crack widths leading to improved behavior under serviceability loads and to improved durability. To quantify these benefits so that they can be used in design, a rational partial‐interaction numerical model has been developed that can incorporate the material properties of any type of UHPFRC including time‐effects. This modeling should help in the development of simplified design rules for specific fiber types.

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Publication Details

Journal
Structural Concrete
Published
2024-08-30
DOI
https://doi.org/10.1002/suco.202300389
Primary Topic
Innovative concrete reinforcement materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Quantifying the serviceability flexural benefits of using UHPFRC in profiled slabs

Deric J. Oehlers, Phillip Visintin, A. B. Sturm, S. Chen
Structural Concrete
Innovative concrete reinforcement materials
article

Quantifying the serviceability flexural benefits of using UHPFRC in profiled slabs

Deric J. Oehlers, Phillip Visintin, A. B. Sturm, S. Chen
article en

Abstract

Abstract Using ultra‐high‐performance fiber‐reinforced concrete (UHPFRC) in profiled slabs, as opposed to normal strength concrete without fibers, has been shown experimentally to significantly increase both the bond between the profiled sheet and the concrete, and the tensile forces across cracked concrete. The consequence of these fiber benefits is to substantially increase the flexural rigidity leading to reduced deflections and also to substantially reduced crack widths leading to improved behavior under serviceability loads and to improved durability. To quantify these benefits so that they can be used in design, a rational partial‐interaction numerical model has been developed that can incorporate the material properties of any type of UHPFRC including time‐effects. This modeling should help in the development of simplified design rules for specific fiber types.

Structural ConcreteVol. 26(1)
The University of Adelaide (AU), National Cheng Kung University (TW)
Australian Government, Australian Research Council
Sustainable cities and communities
Openalex Percentile: Top 84%
Innovative concrete reinforcement materials
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