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Seismic vulnerability evaluation of axially loaded steel built-up laced members II:evaluations 被引量:2

Seismic vulnerability evaluation of axially loaded steel built-up laced members II:evaluations
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摘要 The test results described in Part 1 of this paper (Lee and Bruneau, 2008) on twelve steel built-up laced members (BLMs) subjected to quasi-static loading are analyzed to provide better knowledge on their seismic behavior. Strength capacity of the BLM specimens is correlated with the strength predicted by the AISC LRFD Specifications. Assessments of hysteretic properties such as ductility capacity, energy dissipation capacity, and strength degradation after buckling of the specimen are performed. The compressive strength of BLMs is found to be relatively well predicted by the AISC LRFD Specifications. BLMs with smaller kl/r were ductile but failed to reach the target ductility of 3.0 before starting to fracture, while those with larger kl/r could meet the ductility demand in most cases. The normalized energy dissipation ratio, EC/ET and the normalized compressive strength degradation, Cr″/Cr of BLMs typically decrease as normalized displacements δ/δb,exp increase, and the ratios for specimens with larger kl/r dropped more rapidly than for specimens with smaller kl/r; similar trends were observed for the monolithic braces. The BLMs with a smaller slenderness ratio, kl/r, and width-to-thickness ratio, b/t, experienced a larger number of inelastic cycles than those with larger ratios. The test results described in Part 1 of this paper (Lee and Bruneau, 2008) on twelve steel built-up laced members (BLMs) subjected to quasi-static loading are analyzed to provide better knowledge on their seismic behavior. Strength capacity of the BLM specimens is correlated with the strength predicted by the AISC LRFD Specifications. Assessments of hysteretic properties such as ductility capacity, energy dissipation capacity, and strength degradation after buckling of the specimen are performed. The compressive strength of BLMs is found to be relatively well predicted by the AISC LRFD Specifications. BLMs with smaller kl/r were ductile but failed to reach the target ductility of 3.0 before starting to fracture, while those with larger kl/r could meet the ductility demand in most cases. The normalized energy dissipation ratio, EC/ET and the normalized compressive strength degradation, Cr″/Cr of BLMs typically decrease as normalized displacements δ/δb,exp increase, and the ratios for specimens with larger kl/r dropped more rapidly than for specimens with smaller kl/r; similar trends were observed for the monolithic braces. The BLMs with a smaller slenderness ratio, kl/r, and width-to-thickness ratio, b/t, experienced a larger number of inelastic cycles than those with larger ratios.
出处 《Earthquake Engineering and Engineering Vibration》 SCIE EI CSCD 2008年第2期125-136,共12页 地震工程与工程振动(英文刊)
基金 Federal Highway Administration Under Grant No.DTFH61-98-C-00094
关键词 seismic vulnerability built-up compression member strength capacity ductility capacity energy dissipation strength degradation seismic vulnerability built-up compression member strength capacity ductility capacity energy dissipation strength degradation
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参考文献10

  • 1Kangmin Lee,Michel Bruneau.Seismic vulnerability evaluation of axially loaded steel built-up laced members I:experimental results[J].Earthquake Engineering and Engineering Vibration,2008,7(2):113-124. 被引量:4
  • 2Archambault Marie-Hélène,Tremblay, R,and Filiatrault A.'étude du Comportment Séismique des Contreventements Ductiles en X Avec Profilés Tubulaires en Acier,'. Rapport No. EPM/GCS-1995-09 . 1995 被引量:1
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二级参考文献11

  • 1American Institute of Steel Constructions,Inc.Load and Resistance Factor Design Specification for Structural Steel Buildings[]..1999 被引量:1
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  • 10Kangmin Lee,Michel Bruneau.Seismic vulnerability evaluation of axially loaded steel built-up laced members I:experimental results[J].Earthquake Engineering and Engineering Vibration,2008,7(2):113-124. 被引量:4

共引文献3

同被引文献30

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