Thermal and structural behaviour of a full-scale composite building subject to a severe compartment fire
This paper presents a numerical investigation of the thermal and structural results from a compartment fire test, conducted in January 2003 on the full-scale multi-storey composite building constructed at Cardington, United Kingdom, in 1994 for an original series of six tests during 1995–1996. The f...
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Published in | Fire safety journal Vol. 42; no. 3; pp. 183 - 199 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
Published |
Oxford
Elsevier Ltd
01.04.2007
Elsevier Science |
Subjects | |
Online Access | Get full text |
ISSN | 0379-7112 |
DOI | 10.1016/j.firesaf.2006.07.002 |
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Abstract | This paper presents a numerical investigation of the thermal and structural results from a compartment fire test, conducted in January 2003 on the full-scale multi-storey composite building constructed at Cardington, United Kingdom, in 1994 for an original series of six tests during 1995–1996. The fire compartment's overall dimensions were 11
m×7
m with one edge at the building's perimeter, using largely unprotected steel downstand beams, and including within the compartment four steel columns protected with cementitious spray. The compartment was subjected to a natural fire of fire load 40
kg/m
2 of timber, in common with the original test series, but the composite slab forming its ceiling was subjected to a uniform applied load of 3.19 kN/m
2, which is higher than the original.
Numerical modelling studies have been performed using the numerical software
FPRCBC to analyse temperature distributions in slabs, manual Eurocode 3
Part 1.2 calculations for beam temperatures, and
Vulcan to model the structural response to thermal and mechanical loading. These are compared with the quite comprehensive test data, and a series of cases has been analysed in order to develop a comprehensive picture of the sensitivity of the behaviour to different assumed conditions.
The comparison between the modelling of basic cases and the test results shows very good correlation, indicating that such modelling is capable of being used to give a realistic picture of the structural behaviour of composite flooring systems in scenario-related performance-based design for the fire limit state. The extended sensitivity studies show the influence of extra protection to the connection zones of primary beams, and the effects of different vertical support conditions at the perimeter of the fire compartment. The effect of incomplete overlapping of the reinforcing mesh in the slab, which is believed to have occurred in one region, is also considered. |
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AbstractList | This paper presents a numerical investigation of the thermal and structural results from a compartment fire test, conducted in January 2003 on the full-scale multi-storey composite building constructed at Cardington, United Kingdom, in 1994 for an original series of six tests during 1995-1996. The fire compartment's overall dimensions were 11mx7m with one edge at the building's perimeter, using largely unprotected steel downstand beams, and including within the compartment four steel columns protected with cementitious spray. The compartment was subjected to a natural fire of fire load 40kg/m super(2) of timber, in common with the original test series, but the composite slab forming its ceiling was subjected to a uniform applied load of 3.19 kN/m super(2), which is higher than the original. Numerical modelling studies have been performed using the numerical software FPRCBC to analyse temperature distributions in slabs, manual Eurocode 3Part 1.2 calculations for beam temperatures, and Vulcan to model the structural response to thermal and mechanical loading. These are compared with the quite comprehensive test data, and a series of cases has been analysed in order to develop a comprehensive picture of the sensitivity of the behaviour to different assumed conditions. The comparison between the modelling of basic cases and the test results shows very good correlation, indicating that such modelling is capable of being used to give a realistic picture of the structural behaviour of composite flooring systems in scenario-related performance-based design for the fire limit state. The extended sensitivity studies show the influence of extra protection to the connection zones of primary beams, and the effects of different vertical support conditions at the perimeter of the fire compartment. The effect of incomplete overlapping of the reinforcing mesh in the slab, which is believed to have occurred in one region, is also considered. This paper presents a numerical investigation of the thermal and structural results from a compartment fire test, conducted in January 2003 on the full-scale multi-storey composite building constructed at Cardington, United Kingdom, in 1994 for an original series of six tests during 1995–1996. The fire compartment's overall dimensions were 11 m×7 m with one edge at the building's perimeter, using largely unprotected steel downstand beams, and including within the compartment four steel columns protected with cementitious spray. The compartment was subjected to a natural fire of fire load 40 kg/m 2 of timber, in common with the original test series, but the composite slab forming its ceiling was subjected to a uniform applied load of 3.19 kN/m 2, which is higher than the original. Numerical modelling studies have been performed using the numerical software FPRCBC to analyse temperature distributions in slabs, manual Eurocode 3 Part 1.2 calculations for beam temperatures, and Vulcan to model the structural response to thermal and mechanical loading. These are compared with the quite comprehensive test data, and a series of cases has been analysed in order to develop a comprehensive picture of the sensitivity of the behaviour to different assumed conditions. The comparison between the modelling of basic cases and the test results shows very good correlation, indicating that such modelling is capable of being used to give a realistic picture of the structural behaviour of composite flooring systems in scenario-related performance-based design for the fire limit state. The extended sensitivity studies show the influence of extra protection to the connection zones of primary beams, and the effects of different vertical support conditions at the perimeter of the fire compartment. The effect of incomplete overlapping of the reinforcing mesh in the slab, which is believed to have occurred in one region, is also considered. This paper presents a numerical investigation of the thermal and structural results from a compartment fire test, conducted in January 2003 on the full-scale multi-storey composite building constructed at Cardington, United Kingdom, in 1994 for an original series of six tests during 1995-1996. The fire compartment's overall dimensions were 11mX7m with one edge at the building's perimeter, using largely unprotected steel downstand beams, and including within the compartment four steel columns protected with cementitious spray. The compartment was subjected to a natural fire of fire load 40kg/m2 of timber, in common with the original test series, but the composite slab forming its ceiling was subjected to a uniform applied load of 3.19 kN/m2, which is higher than the original. Numerical modelling studies have been performed using the numerical software FPRCBC to analyse temperature distributions in slabs, manual Eurocode 3Part 1.2 calculations for beam temperatures, and Vulcan to model the structural response to thermal and mechanical loading. These are compared with the quite comprehensive test data, and a series of cases has been analysed in order to develop a comprehensive picture of the sensitivity of the behaviour to different assumed conditions. The comparison between the modelling of basic cases and the test results shows very good correlation, indicating that such modelling is capable of being used to give a realistic picture of the structural behaviour of composite flooring systems in scenario-related performance-based design for the fire limit state. The extended sensitivity studies show the influence of extra protection to the connection zones of primary beams, and the effects of different vertical support conditions at the perimeter of the fire compartment. The effect of incomplete overlapping of the reinforcing mesh in the slab, which is believed to have occurred in one region, is also considered. |
Author | Chladná, Magdaléna Hsieh, Christina Plank, Roger Foster, Samantha Burgess, Ian |
Author_xml | – sequence: 1 givenname: Samantha surname: Foster fullname: Foster, Samantha organization: Department of Civil and Structural Engineering, University of Sheffield, Sheffield, UK – sequence: 2 givenname: Magdaléna surname: Chladná fullname: Chladná, Magdaléna organization: Department of Steel Structures, Slovak Technical University, Bratislava, Slovakia – sequence: 3 givenname: Christina surname: Hsieh fullname: Hsieh, Christina organization: Buro Happold FEDRA, Leeds, UK – sequence: 4 givenname: Ian surname: Burgess fullname: Burgess, Ian email: ian.burgess@sheffield.ac.uk organization: Department of Civil and Structural Engineering, University of Sheffield, Sheffield, UK – sequence: 5 givenname: Roger surname: Plank fullname: Plank, Roger organization: School of Architectural Studies, University of Sheffield, Sheffield, UK |
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Cites_doi | 10.1016/S0379-7112(00)00034-5 10.1016/0360-1323(95)00041-0 10.1201/9781482294965-5 10.1016/j.jcsr.2003.08.012 10.1016/0379-7112(86)90014-7 10.1061/(ASCE)0733-9445(2003)129:8(1093) 10.1002/pse.2260010104 10.1061/(ASCE)0733-9445(2003)129:8(1103) 10.1016/0379-7112(81)90028-X |
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Keywords | Full-scale testing Thermal analysis Structural behaviour Composite construction Structural fire engineering Compartment fire test Full scale mockup test Experimental study Modeling Displacement Stress distribution Fire test Fire Numerical simulation Behavior Comparative study Structural analysis |
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Snippet | This paper presents a numerical investigation of the thermal and structural results from a compartment fire test, conducted in January 2003 on the full-scale... |
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SubjectTerms | Applied sciences Building insulation Buildings Buildings. Public works Composite construction Exact sciences and technology External envelopes Full-scale testing Sound insulation Structural behaviour Structural fire engineering Thermal analysis |
Title | Thermal and structural behaviour of a full-scale composite building subject to a severe compartment fire |
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