Access the full text.
Sign up today, get DeepDyve free for 14 days.
Loading next page...
/lp/sage/numerical-simulation-of-aluminum-alloy-6082-t6-columns-failing-by-4K1moVmrk4
References (30)
-
C. Spyrakos, J. Ermopoulos (2005)
Development of aluminum load-carrying space frame for building structuresEngineering Structures, 27
-
A. Martino, R. Landolfo, F. Mazzolani (1990)
The use of the Ramberg-Osgood law for materials of round-house typeMaterials and Structures, 23
-
X. Zhai, Y. Wang, Haiyong Wu, F. Fan (2010)
Research on Stability of High Strength Aluminum Alloy Columns Loaded by Axial Compressive LoadAdvanced Materials Research, 168-170
-
(2006)
Theoretical and experimental research on the aluminum alloy structure members -
Ji-hua Zhu, B. Young (2008)
Numerical investigation and design of aluminum alloy circular hollow section columnsThin-walled Structures, 46
-
W. Ramberg, W. Osgood (1943)
Description of Stress-Strain Curves by Three Parameters -
Yujin Wang, F. Fan, Shibin Lin (2015)
Experimental investigation on the stability of aluminium alloy 6082 circular tubes in axial compressionThin-walled Structures, 89
-
M. Ashraf, L. Gardner, D. Nethercot (2006)
Compression strength of stainless steel cross-sectionsJournal of Constructional Steel Research, 62
-
E. Ellobody (2007)
Buckling analysis of high strength stainless steel stiffened and unstiffened slender hollow section columnsJournal of Constructional Steel Research, 63
-
Li Yuanqi (2007)
State-of-the-arts of research on aluminum alloy structuresJournal of Building Structures
-
Ji-hua Zhu, B. Young (2006)
Aluminum alloy tubular columns—Part II: Parametric study and design using direct strength methodThin-walled Structures, 44
-
(1971)
Untersuchungen zur knickung von Drucksta - ben aus Material mit beliebiger Werkstoffkennilinie [ Study on the buckling of compression specimen for materials of different stress - strain law ] -
Ji-hua Zhu, B. Young (2006)
Aluminum alloy tubular columns-Part I: Finite element modeling and test verificationThin-walled Structures, 44
-
M. Sharp (1992)
Behavior and Design of Aluminum Structures -
J. Kissell, R. Ferry (1995)
Aluminum Structures: A Guide to Their Specifications and Design -
K. Kloeppel, W. Bärsch (1973)
VERSUCHE ZUM KAPITEL "STABILITAETSFAELLE" DER NEUFASSUNG VON DIN 4113, 49
-
K. Rasmussen, J. Rondal (2000)
Strength curves for aluminium alloy columnsEngineering Structures, 22
-
O. Steinhardt (1999)
Aluminium im Konstruktiven IngenieurbauStahlbau, 68
-
M. Su, B. Young, L. Gardner (2014)
Testing and Design of Aluminum Alloy Cross Sections in CompressionJournal of Structural Engineering-asce, 140
-
F. Fan, Y. Wang, Li Lin, H. Qian (2013)
Experimental Study on Axial Compression Performance of High-Strength Aluminum-Alloy Columns with H-SectionApplied Mechanics and Materials, 274
-
G. Shi, H. Ban, Yu Bai, Yuanqing Wang, Cui Luo, Yongjiu Shi (2013)
A Novel Cast Aluminum Joint for Reticulated Shell Structures: Experimental Study and ModelingAdvances in Structural Engineering, 16
-
Ji-hua Zhu, B. Young (2006)
Tests and Design of Aluminum Alloy Compression MembersJournal of Structural Engineering-asce, 132
-
(1973)
Recherches sur le comportement au flambement de barres en aluminium [Research on the buckling behavior of aluminum columns -
(1971)
Ein Beitrag zur Bemessung von Sruckstaben aus Aluminium -
F. Mazzolani (2012)
3D aluminium structuresThin-walled Structures, 61
-
Ji-hua Zhu, B. Young (2006)
Experimental investigation of aluminum alloy circular hollow section columnsEngineering Structures, 28
-
W. Sowa (1971)
UNTERSUCHUNGEN ZUR KNICKUNG VON DRUCKSTAEBEN AUS MATERIAL MI T BELIEBIGER WERKSTOFFKENNLINIE, 47
-
E. Ellobody, B. Young (2005)
Structural performance of cold-formed high strength stainless steel columnsJournal of Constructional Steel Research, 61
-
L. Gardner, D. Nethercot (2004)
Numerical Modeling of Stainless Steel Structural Components—A Consistent ApproachJournal of Structural Engineering-asce, 130
-
Zhai Xi-mei (2013)
Experimental study on constitutive model of high-strength aluminum alloy 6082-T6Journal of Building Structures
- Publisher
- SAGE
- Copyright
- © The Author(s) 2016
- ISSN
- 1369-4332
- eISSN
- 2048-4011
- DOI
- 10.1177/1369433216643899
- Publisher site
- See Article on Publisher Site
Abstract
Aluminum alloys have found increasing use in space structures, mainly because of their high strength-to-weight ratio and satisfactory corrosion resistance. The work presented in this article is focused on finite element simulation of the failure behavior of aluminum alloy members subjected to an axial compression load and failing in overall buckling mode. The column members were fabricated by extrusion using the relatively new heat-treated aluminum alloy 6082-T6. An accurate finite element model has been developed for the simulation of aluminum alloy columns. The developed finite element model was verified against experimental results and demonstrated that it is capable of accurately predicting the deformed shapes and the ultimate loads of the tested columns. A parametric study was carried out on the stability of aluminum alloy column members failing by overall buckling. A fitting column curve was proposed for aluminum alloy design; it was somewhat more conservative than the column curve from current Chinese code GB50429.
Journal
Advances in Structural Engineering – SAGE
Published: Oct 1, 2016