Abstract
Traditionally, the fire resistance of a steel column is obtained through a standard fire resistance test conducted on a simply supported compressive specimen subjected to the standard fire exposure, such as ISO834[1]. Although the standard fire resistance test is a convenient way for grading the relative fire performance of different types of structural members, for a number of reasons it is not very effective in developing our understanding of realistic structural behavior in a fire. An important shortcoming is that standard fire resistance tests are carried out on the individual structural member, not on a complete structure. Therefore, structural interactions cannot be assessed. The Broadgate fire[2,3] and the series of Cardington fire tests and the following theoretical analysis[4,5,6] have all shown that strong interactions exist among slabs, columns and beams. An effective way of studying structural interactions in a fire is to perform fire tests on restrained steel members.
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References
International Organization for Standardization. Fire-Resistance Tests — Elements of Building Construction, Part 1: General Requirements. International Organization for Standardization, 1999.
A. D. Weller. Broadgate Phase 8: Fire, 22 June 1990. Summary Report of Damage and Repair. Building Research Establishment PD 21/92, 1992.
Steel Construction Institute. Investigation of Broadgate Phase 8 Fire, Report of Fire Engineering Consultant Ltd. SCI Fire Engineering Group, UK, 1991.
C. G. Bailey. Computer modelling of the corner compartment fire test on the large-scale cardington test frame. Journal of Constructional Steel Research, 48(1):27–45, 1998.
C. G. Bailey. The influence of the thermal expansion of beams on the structural behaviour of columns in steel-framed structures during a fire. Engineering Structures, 22(7):755–768, 2000.
Y. C. Wang and D. B. Moore. The effect of frame continuity on the critical temperature of steel columns. In Proceedings of the 3rd international KERENSKY conference on global trends in structural engineering, Singapore, 1994.
W. I. Simms, D. J. O’Connor, F. Ali, and M. Randall. An experimental investigation on the structural performance of steel columns subjected to elevated temperatures. Journal of Applied Fire Science, 5(4):269–284, 1996.
W. I. Simms. An Experimental Investigation of Axially Restrained Steel Columns in Fire. PhD thesis, University of Ulster, 1997.
F. Ali, A. Nadjai, and D. Talamona. Effect of rotational restraint on performance of steel columns in fire. Journal of Applied Fire Science, 13(1):21–34, 2004.
K. H. Tan, W. S. Toh, Z. F. Huang, and G. H. Phng. Structural responses of restrained steel columns at elevated temperatures. part 1: Experiments. Engineering Structures, 29(8):1641–1652, 2007.
J. P. Correia Rodrigues, I. Cabrita Neves, and J. C. Valente. Experimental research on the critical temperature of compressed steel elements with restrained thermal elongation. Fire Safety Journal, 35(2):77–98, 2000.
Y. C. Wang and J. M. Davies. An experimental study of non-sway loaded and rotationally restrained steel column assemblies under fire conditions: Analysis of test results and design calculations. Journal of Constructional Steel Research, 59(3):291–313, 2003.
F. Ali and D. O’Connor. Structural performance of rotationally restrained steel columns in fire. Fire Safety Journal, 36(7):679–691, 2001.
J. M. Franssen. Failure temperature of a system comprising a restrained column submitted to fire. Fire Safety Journal, 34(2):191–207, 2000.
I. C. Neves. The critical temperature of steel columns with restrained thermal elongation. Fire Safety Journal, 24(3):211–227, 1995.
[16] Y. C. Wang. Postbuckling behavior of axially restrained and axially loaded steel columns under fire conditions. Journal of Structural Engineering, 130(3):371–380, 2004.
J. C. Valente and I. C. Neves. Fire resistance of steel columns with elastically restrained axial elongation and bending. Journal of Constructional Steel Research, 52(3):319–331, 1999.
P. J. Wang. Theory and Exprimental Studies on Restrained Steel Columns in Fire. PhD thesis, Tongji University, 2009.
G. Q. Li, P. J. wang, and Y. C. Wang. Behaviour and design of restrained steel column in fire, part 1: Fire test. Journal of Constructional Steel Research, 66(8-9):1138–1147, 2010.
[20] Ministry of Housing and Urban-Rural Development of China. Code for Design of Steel Structures (GB50017-2003). China Plan Press, 2003.
China Association for Engineering Construction Standardization. Technical Code for Fire Safety of Steel Structures in Buildings (CECS200-2006). China Plan Press, 2006.
European Committee for Standardization. EN1993-1-2. Eurocode 3: De-sign of Steel Structures, Part 1.2, General Rules, Structural Fire Design. European Committee for Standardization, 2005.
ABAQUS. ABAQUS Analysis User’s Manual. Dassault Systmes, 2007.
Z. F. Huang and K. H. Tan. Rankine approach for fire resistance of axiallyand-flexurally restrained steel columns. Journal of Constructional Steel Research, 59(12):1553–1571, 2003.
Z. F. Huang, K. H. Tan, and S. K. Ting. Heating rate and boundary restraint effects on fire resistance of steel columns with creep. Engineering Structures, 28(6):805–817, 2006.
Z. F. Huang and K. H. Tan. Effects of external bending moments and heating schemes on the responses of thermally restrained steel columns. Engineering Structures, 26(6):769–780, 2004.
P. J. wang, G. Q. Li, and Y. C. Wang. Behaviour and design of restrained steel column in fire, part 2: Parameter study. Journal of Constructional Steel Research, 66(8-9):1148–1154, 2010.
[28] K. H. Tan and W. F. Yuan. Buckling of elastically restrained steel columns under longitudinal non-uniform temperature distribution. Journal of Constructional Steel Research, 64(1):51–61, 2008.
P. J. wang, G. Q. Li, and Y. C. Wang. Behaviour and design of restrained steel column in fire, part 3: practical design method. Journal of Constructional Steel Research, 66(11):1422–1430, 2010.
P. J. Wang, Y. C. Wang, and G. Q. Li. A new design method for calculating critical temperatures of restrained steel column in fire. Fire Safety Journal, doi:10.1016/j.firesaf.2010.07.002, 2010.
J. Wang and G. Q. Li. Effect of local damage of fire insulation on temperature distribution of steel members subjected to fire. Structural Engineers, 21(5):30–35, 2005.
W. Y. Wang, P. J. Wang, and G. Q. Li. Stable bearing capacity for restrained steel column after damage of fire protection in fire. Chinese Quarterly of Mechanics, (3), 2008.
D. V. Tomecek and J. A. Milke. A study of the effect of partial loss of protection on the fire resistance of steel columns. Fire Technology, 29(1):4–21, 1993.
N. L. Ryder, S. D. Wolin, and J. A. Milke. An investigation of the reduction in fire resistance of steel columns caused by loss of spray-applied fire protection. Journal of Fire protection Engineering, 12(1):31–44, 2002.
Y. Kang, G. V. Hadjisophocleous, and H. A. Khoo. The effect of partial fire protection loss on the fire resistance reduction of steel beams. Fourth International Workshop Structures in Fire, Aveiro. Portugal, pages 63–73, 2006.
J. A. Milke. Analyses of the impact of loss of spray-applied fire protection on the fire resistance of steel columns. Fire Safety Science-Proceedings of the Seventh International Symposium, Worcester, USA, 2003.
M. Fontana and M. Knobloch. Fire resistance of steel columns with partial loss of fire protection. Proceedings of the IABSE Symposium Shanghai 2004Metropolitan Habitats and Infrastructure, IABSE Report Vol. 88, Shanghai, China, 2004.
M. Knobloch, M. Fontana, and E. Raveglia. Partial loss of fire protection and structural collapse of high-rise buildings. International Congress Fire safety in tall buildings, University of Cantabria, Santander, Spain, 2006.
S. Pessiki, K. Kwon, and B. J. Lee. Fire load behavior of steel building columns with damaged spray-applied fire resistive material. Fourth international workshop Structures in fire, Aveiro, Portuga, 2006.
American Society of Testing and Material. ASTM E-119: Standard Test Method for Fire Tests of Building Constructions and Materials. ASTM Philadelphia, 2000.
W. Y. Wang. Critical Temperature of Axially Restrained Steel Columns with Partial Fire Retardant Coating Damage. PhD thesis, Tongji University, 2008.
G. Q. Li, W. Y. Wang, and S. W. Chen. Stability capacity of restrained steel columns after damage of fire retardant coating in fire. Engineering Mechanics, 25(12):72–78, 2008.
W. Y. Wang and G. Q. Li. Critical temperature of axially restrained steel columns with partial fire retardant coating damage. Journal of Chongqing Jianzhu University, 32(1), 2010.
W. Y. Wang and G. Q. Li. Behavior of steel columns in a fire with partial damage to fire protection. Journal of Constructional Steel Research, 65(6):1392–1400, 2009.
G. Q. Li and W. Y. Wang. A simple approach for modeling fire-resistance of steel columns with locally damaged fire protection. Engineering Structures, 31(3):617–622, 2009.
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© 2013 Zhejiang University Press, Hangzhou and Springer-Verlag Berlin Heidelberg
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Li, G., Wang, P. (2013). Fire-Resistance of Restrained Steel Columns. In: Advanced Analysis and Design for Fire Safety of Steel Structures. Advanced Topics in Science and Technology in China. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-34393-3_8
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