Please use this identifier to cite or link to this item:
Title: Modeling strength of multidirectional laminates under thermo-mechanical loads
Authors: Zheng-Ming, H. 
Keywords: Bridging model
Elevated temperature
Failure criterion
Failure mode
Metal matrix composite
Micromechanics modeling
Multidirectional laminate
Progressive failure analysis
Residual thermal stress
Strength prediction
Issue Date: 2001
Citation: Zheng-Ming, H. (2001). Modeling strength of multidirectional laminates under thermo-mechanical loads. Journal of Composite Materials 35 (4) : 281-315. ScholarBank@NUS Repository.
Abstract: This paper investigates the progressive failure process in a multidirectional composite laminate subjected to an arbitrary thermo-mechanical load condition. A micromechanics modeling approach is employed to predict each-ply failure strength of the laminate and to identify the corresponding failure mode. The analysis has incorporated both material non-linearity and stiffness reduction. The load shared by each lamina in the laminate is determined based on the classical laminate theory, whereas the internal stresses in the constituent fibers and matrix of the lamina are explicitly related to this load by making use of combining the bridging model and the Benveniste and Dvorak's formula. The lamina failure is assumed whenever any constituent material attains its ultimate stress state. A generalized maximum normal stress criterion is employed to detect the constituent failure. In this approach, all the simulation equations are given explicitly, no iteration is involved, and a minimum number of input data are required. Comparison of the predicted thermo-mechanical strengths of several laminates with available experimental data is favorable.
Source Title: Journal of Composite Materials
ISSN: 00219983
DOI: 10.1106/PHVR-L60D-6B5G-UNM6
Appears in Collections:Staff Publications

Show full item record
Files in This Item:
There are no files associated with this item.


checked on Sep 27, 2022


checked on Sep 27, 2022

Page view(s)

checked on Sep 22, 2022

Google ScholarTM



Items in DSpace are protected by copyright, with all rights reserved, unless otherwise indicated.