Fire Protection of Steel Beam by <scp>OSB</scp> Claddings—A Fire Experiment and Numerical Models

ABSTRACT This paper presents the results of a standard fire resistance test of a loaded steel beam in a horizontal furnace. The beam was tested in three configurations: (1) unprotected, (2) protected with a single 22 mm layer of oriented strand board, and (3) protected with a double layer of the same cladding. The study also describes the development of a model in Fire Dynamics Simulator to predict the thermal conditions in the furnace and to observe the temperature trends on the beam surface, on the cladding, and at various depths in the cladding. A comparison between calculated and measured temperatures showed good agreement for the unprotected beam. However, for the protected beams, the model underestimated temperatures after 15 and 30 min for the single‐layer and double‐layer protection, respectively. Several potential sources for the discrepancies are identified. The main reason lies probably in the model's inability to correctly account for the effect of gaps in the cladding joints. Future work will focus on improving the accuracy of the model by removing these identified limitations, with particular attention to the behavior of the cladding as a passive fire protection material.

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Publication Details

Journal
Fire and Materials
Published
2024-12-26
DOI
https://doi.org/10.1002/fam.3260
Primary Topic
Fire effects on concrete materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Fire Protection of Steel Beam by OSB Claddings—A Fire Experiment and Numerical Models

Vít Šmilauer, M. Jahoda, Vojtěch Šálek, Kamila Cábová et al.
Fire and Materials
Fire effects on concrete materials
article

Fire Protection of Steel Beam by OSB Claddings—A Fire Experiment and Numerical Models

Vít Šmilauer, M. Jahoda, Vojtěch Šálek, Kamila Cábová, František Wald, Stanislav Šulc, Jakub Šejna, Slávek Zbirovský
article en

Abstract

ABSTRACT This paper presents the results of a standard fire resistance test of a loaded steel beam in a horizontal furnace. The beam was tested in three configurations: (1) unprotected, (2) protected with a single 22 mm layer of oriented strand board, and (3) protected with a double layer of the same cladding. The study also describes the development of a model in Fire Dynamics Simulator to predict the thermal conditions in the furnace and to observe the temperature trends on the beam surface, on the cladding, and at various depths in the cladding. A comparison between calculated and measured temperatures showed good agreement for the unprotected beam. However, for the protected beams, the model underestimated temperatures after 15 and 30 min for the single‐layer and double‐layer protection, respectively. Several potential sources for the discrepancies are identified. The main reason lies probably in the model's inability to correctly account for the effect of gaps in the cladding joints. Future work will focus on improving the accuracy of the model by removing these identified limitations, with particular attention to the behavior of the cladding as a passive fire protection material.

Fire and MaterialsVol. 49(2)
Czech Technical University in Prague (CZ), University of Chemistry and Technology, Prague (CZ)
Grantová Agentura České Republiky
Sustainable cities and communities
Openalex Percentile: Top 72%
Fire effects on concrete materials
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Fire Protection of Steel Beam by <scp>OSB</scp> Claddings—A Fire Experiment and Numerical Models — Vít Šmilauer, M. Jahoda, et al. · Fire and Materials (2024) | TGRS Research Map | TGRS