Thermal Analysis of Composite Slabs Based on Experiment and Numerical Simulations

Abstract This paper presents an experimental and numerical investigation on the thermal response of composite slabs under fire condition, considering various slab geometries. Fire tests were conducted on six composite slabs to obtain the temperature distributions exposed to the ISO 834 standard fire curve for a duration of 210 min. The results indicated that the depth of the concrete significantly affects the temperature of the unexposed surface, while the height of the steel deck has minimal impact. During heating, water vapor and condensation occurred on all tested slabs, causing a delay in the early temperature development of the concrete. The temperature distribution across slab cross-sections was subsequently calculated using numerical simulations. The numerical models were then validated using experimental data. The challenge of precisely simulating the interface between steel deck and concrete was resolved in this numerical model.

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Publication Details

Journal
Fire Technology
Published
2024-08-31
DOI
https://doi.org/10.1007/s10694-024-01629-2
Citations
2
Primary Topic
Fire effects on concrete materials
Type
article
Field-Weighted Citation Impact
0.52

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article

Thermal Analysis of Composite Slabs Based on Experiment and Numerical Simulations

Mamoru Kohno, Hoai Duc Trinh
2 citations
Fire Technology
Fire effects on concrete materials
0.52
article

Thermal Analysis of Composite Slabs Based on Experiment and Numerical Simulations

Mamoru Kohno, Hoai Duc Trinh
article en
2 citations

Abstract

Abstract This paper presents an experimental and numerical investigation on the thermal response of composite slabs under fire condition, considering various slab geometries. Fire tests were conducted on six composite slabs to obtain the temperature distributions exposed to the ISO 834 standard fire curve for a duration of 210 min. The results indicated that the depth of the concrete significantly affects the temperature of the unexposed surface, while the height of the steel deck has minimal impact. During heating, water vapor and condensation occurred on all tested slabs, causing a delay in the early temperature development of the concrete. The temperature distribution across slab cross-sections was subsequently calculated using numerical simulations. The numerical models were then validated using experimental data. The challenge of precisely simulating the interface between steel deck and concrete was resolved in this numerical model.

Fire Technology
Tokyo University of Science (JP)
JFE Steel Corporation
Sustainable cities and communities
Openalex Percentile: Top 36%
Fire effects on concrete materials
0.52
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Thermal Analysis of Composite Slabs Based on Experiment and Numerical Simulations — Mamoru Kohno, Hoai Duc Trinh · Fire Technology (2024) | TGRS Research Map | TGRS