Download this article
 Download this article For screen
For printing
Recent Issues

Volume 19
Issue 2, 157–302
Issue 1, 1–156

Volume 18, 5 issues

Volume 17, 5 issues

Volume 16, 5 issues

Volume 15, 5 issues

Volume 14, 5 issues

Volume 13, 5 issues

Volume 12, 5 issues

Volume 11, 5 issues

Volume 10, 5 issues

Volume 9, 5 issues

Volume 8, 8 issues

Volume 7, 10 issues

Volume 6, 9 issues

Volume 5, 6 issues

Volume 4, 10 issues

Volume 3, 10 issues

Volume 2, 10 issues

Volume 1, 8 issues

The Journal
About the Journal
Editorial Board
Submission Guidelines
Submission Form
Policies for Authors
Ethics Statement
ISSN: 1559-3959
Author Index
To Appear
Other MSP Journals
A mass spring model applied for characterizing mode I fracture in orthotropic materials

Pradeepkumar Suryawanshi, Ramesh Singh and Abhishek Gupta

Vol. 19 (2024), No. 2, 213–233

We describe a mass spring system (MSS), which is also referred as lattice model in the literature, predicting the load-displacement curve of the orthotropic materials. We have developed the MSS model of a double cantilever beam to capture the energy release rate in a mode I fracture of the orthotropic materials using two different formulations: maximum strain energy and maximum strain. Further, we have considered determination of fracture energy of cortical bone, as a case study, using the compliance based beam method (CBBM). This method avoids monitoring of crack length during fracture and provides the complete R-curve along with the plateau, which is the fracture energy. We have also obtained the R-curve from the load-displacement curve predicted by the MSS model and determined the fracture energy of cortical bone. As the maximum percentage error in fracture energy predicted by the MSS model for dehydrated and hydrated bone is 1.02 per cent and 1.15 per cent, respectively, the results are in good agreement with the experimental results. Thus, we have shown the ability of the MSS model to produce quantitative results as well in comparison to the models presented in the literature for simulation of a fracture, which give essentially qualitative results. We have used the validated MSS model for characterizing the load-displacement behavior of cortical bone for increasing mineralization and porosity.

MSS, orthotropic material, cortical bone, DCB test, CBBM, fracture energy
Received: 14 March 2023
Revised: 12 October 2023
Accepted: 8 December 2023
Published: 31 January 2024
Pradeepkumar Suryawanshi
Department of Mechanical Engineering
Don Bosco Institute of Technology
Ramesh Singh
Department of Mechanical Engineering
Indian Institute of Technology Bombay
Abhishek Gupta
Department of Mechanical Engineering
Indian Institute of Technology Bombay