A Numerical Solution Framework for Simultaneous Peeling of Thin Elastic Strips From a Rigid Substrate
Loading...
Files
Date
2017
Authors
Özdemir, İzzet
Journal Title
Journal ISSN
Volume Title
Publisher
Springer Verlag
Open Access Color
BRONZE
Green Open Access
Yes
OpenAIRE Downloads
OpenAIRE Views
Publicly Funded
No
Abstract
Simultaneous peeling of multiple strips is commonly observed particularly at small-scale detachment processes. Although theoretical treatment of this problem is addressed, numerical solution procedures for geometrically arbitrary multiple-peeling problems are still missing. In this paper, a finite element-based numerical solution procedure for 3-D large displacement multiple-peeling problems is presented. Loading/unloading of peeling strips are expressed in the form of optimality conditions, and the current positions of the peeling fronts are determined locally adapting the multiplicative decomposition and the return mapping algorithm of finite strain plasticity theories. Within an incremental-iterative solution framework, peeling fronts and the current position of other nodes are determined in a staggered way instead of using an active set-based solution algorithm. The effectiveness of the approach is demonstrated by a series of example problems including multiple peeling of an assembly of randomly oriented strips.
Description
Keywords
Conformal mapping, Iterative methods, Finite strain plasticity, Optimality conditions, Optimality conditions, Iterative methods, Finite strain plasticity, Conformal mapping
Fields of Science
0301 basic medicine, 03 medical and health sciences, 02 engineering and technology, 0210 nano-technology
Citation
Özdemir, İ. (2017). A numerical solution framework for simultaneous peeling of thin elastic strips from a rigid substrate. Acta Mechanica, 228(5), 1735-1747. doi:10.1007/s00707-016-1796-x
WoS Q
Q2
Scopus Q
Q2

OpenCitations Citation Count
3
Source
Acta Mechanica
Volume
228
Issue
5
Start Page
1735
End Page
1747
PlumX Metrics
Citations
Scopus : 4
Captures
Mendeley Readers : 5
SCOPUS™ Citations
4
checked on Apr 27, 2026
Web of Science™ Citations
4
checked on Apr 27, 2026
Page Views
846
checked on Apr 27, 2026
Downloads
612
checked on Apr 27, 2026
Google Scholar™


