Current AISC Design Provisions Applied to High‐Strength Steel Columns – Preliminary Results

Abstract Rolled wide‐flange sections fabricated from high‐strength steels with a yield strength of 450 MPa or higher offer significant benefits in structural applications. These include enhanced load‐bearing capacity, material efficiency, and fabrication cost savings. However, current design provisions (i.e. AISC 360‐22; Eurocode 3) may be overly conservative for these high‐strength steels when employed as structural steel columns, in part due to assumptions regarding residual stresses. This paper presents results of finite element (FE) investigations focused on the flexural buckling behaviour of hot‐rolled I‐shaped columns formed from conventional (mild) ASTM A992/A992M steel and A913/A913M Gr. 80 [550] high strength steel. The FE models include initial out‐of‐straightness imperfections and nonlinear material behaviour, and residual stresses caused by uneven cooling during fabrication. Developed strength curves are compared with AISC and Eurocode results. Comparisons are also made between results obtained using uniaxial and multiaxial residual stress profiles. The findings generally support the use of AISC 360‐22, but suggest refinement might be needed for heavier or high‐strength rolled shapes in the inelastic buckling range.

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ce/papers
Published
2025-12-01
DOI
https://doi.org/10.1002/cepa.70201
Primary Topic
Structural Load-Bearing Analysis
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article
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article

Current AISC Design Provisions Applied to High‐Strength Steel Columns – Preliminary Results

C.W. Ziemian, Ronald D. Ziemian, Shahriar Quayyum, Ethan Wolford‐Tuffy
ce/papers
Structural Load-Bearing Analysis
article

Current AISC Design Provisions Applied to High‐Strength Steel Columns – Preliminary Results

C.W. Ziemian, Ronald D. Ziemian, Shahriar Quayyum, Ethan Wolford‐Tuffy
article en

Abstract

Abstract Rolled wide‐flange sections fabricated from high‐strength steels with a yield strength of 450 MPa or higher offer significant benefits in structural applications. These include enhanced load‐bearing capacity, material efficiency, and fabrication cost savings. However, current design provisions (i.e. AISC 360‐22; Eurocode 3) may be overly conservative for these high‐strength steels when employed as structural steel columns, in part due to assumptions regarding residual stresses. This paper presents results of finite element (FE) investigations focused on the flexural buckling behaviour of hot‐rolled I‐shaped columns formed from conventional (mild) ASTM A992/A992M steel and A913/A913M Gr. 80 [550] high strength steel. The FE models include initial out‐of‐straightness imperfections and nonlinear material behaviour, and residual stresses caused by uneven cooling during fabrication. Developed strength curves are compared with AISC and Eurocode results. Comparisons are also made between results obtained using uniaxial and multiaxial residual stress profiles. The findings generally support the use of AISC 360‐22, but suggest refinement might be needed for heavier or high‐strength rolled shapes in the inelastic buckling range.

ce/papersVol. 8(6)
Bucknell University (US), Saint Anthony College of Nursing (US), Manhattan University (US)
Openalex Percentile: Top 33%
Structural Load-Bearing Analysis
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Current AISC Design Provisions Applied to High‐Strength Steel Columns – Preliminary Results — C.W. Ziemian, Ronald D. Ziemian, et al. · ce/papers (2025) | TGRS Research Map | TGRS