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Cross-sectional stability of structural steel at elevated temperatures

Published

Author(s)

Therese P. McAllister, Mina S. Seif

Abstract

There is a lack of understanding of how structural systems perform under realistic, uncontrolled fires. Current specifications for the design of steel structures in the US do not include fire effects as part of structural design. Instead, fire protection is provided through prescriptive requirements. This paper presents a parametric study employing nonlinear material and geometric finite element analyses using shell-elements to model the response of wide flange steel column sections to elevated temperatures. The parametric study varied the axial load as well as the cross- sectional slenderness of three lengths of column sections that ranged from short columns with nonlinear buckling to long columns with elastic buckling Results are presented that illustrate the relationship between column slenderness in the web and/or flanges, and the local and global buckling modes under varying load and temperature conditions.
Proceedings Title
Structural Stability Research Council - Annual Stability Conference 2012
Conference Dates
April 24-28, 2012
Conference Location
Grapevine, TX

Citation

McAllister, T. and Seif, M. (2012), Cross-sectional stability of structural steel at elevated temperatures, Structural Stability Research Council - Annual Stability Conference 2012, Grapevine, TX, [online], https://tsapps.nist.gov/publication/get_pdf.cfm?pub_id=910610 (Accessed July 19, 2024)

Issues

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Created April 19, 2012, Updated February 19, 2017