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contributor authorChen, D. H.
contributor authorMasuda, K.
date accessioned2017-05-09T01:25:36Z
date available2017-05-09T01:25:36Z
date issued2016
identifier issn0021-8936
identifier otherjam_083_03_031012.pdf
identifier urihttp://yetl.yabesh.ir/yetl/handle/yetl/160219
description abstractIn two recent papers, the authors investigated the bending collapse load of rectangular tubes consisting of a perfectly elastoplastic material. From these investigations, it is found that the collapse may also occur due to the buckling of web in a rectangular tube under bending, when the tube has a cross section with a large aspect ratio of web to flange b/a. In order to evaluate the collapse load of such tubes under bending, the effective width concept given by Rusch and Lindner for a plate compressed with stress gradient was used to calculate the postbuckling strength of the tube web. However, in the solution of Rusch and Lindner, the plate is supported at only one longitudinal edge with the other longitudinal edge being free. This boundary condition is obviously different from that of the tube web. This paper complements the previous work by addressing the postbuckling strength of the web under stress gradients. The postbuckling strength of the web under stress gradients is also calculated using the effective width concept given in AS/NZS 4600 standard and North American specification (NAS) for a plate compressed with stress gradient and supported at both two longitudinal edges. Moreover, the web slenderness also affects the condition for reaching crosssectional fully plastic yielding when the web is wider. A new method is proposed to predict the maximum moment considering the effect of web slenderness on the crosssectional fully plastic yielding. The validity of the collapse load estimation is checked by the results of FEM (finite element method) numerical analysis.
publisherThe American Society of Mechanical Engineers (ASME)
titleEstimation of Collapse Load for Thin Walled Rectangular Tubes Under Bending
typeJournal Paper
journal volume83
journal issue3
journal titleJournal of Applied Mechanics
identifier doi10.1115/1.4032159
journal fristpage31012
journal lastpage31012
identifier eissn1528-9036
treeJournal of Applied Mechanics:;2016:;volume( 083 ):;issue: 003
contenttypeFulltext


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