Numerical Study on the Influence of the Coating in the Fretting Contact
An existing algorithm for the fretting contact of homogeneous materials is enhanced by incorporating a novel technique for rapid calculation of stresses and displacements in the coated body. State-of-the-art methods for computation of convolution products in the Fourier transform domain allow for fi...
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University of Kragujevac
2020-03-01
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doaj-47430a31dbb640989ccade7391de73572020-11-25T03:14:01ZengUniversity of KragujevacTribology in Industry0354-89962217-79652020-03-0142113114510.24874/ti.2020.42.01.13Numerical Study on the Influence of the Coating in the Fretting ContactS. Spinu0https://orcid.org/0000-0003-4792-721XDepartment of Mechanics and Technologies, Stefan cel Mare University of Suceava, 13th University Street, 720229, Suceava, RomaniaAn existing algorithm for the fretting contact of homogeneous materials is enhanced by incorporating a novel technique for rapid calculation of stresses and displacements in the coated body. State-of-the-art methods for computation of convolution products in the Fourier transform domain allow for fine spatial discretization and accurate reproduction of the loading history. The algorithm is structured on three levels of iterations, and the acceleration of the convolution calculation in the innermost level promises well converged solutions. The frequency response functions derived in the literature are used for the conversion of the required influence coefficients, allowing computation of the half-space response to prescribed loading. The computer program is first validated against the analytical solution for the fretting loop of homogeneous and similarly elastic materials. The refined method is then employed to study the influence of the elastic moduli ratio between the coating and the substrate, on the contact tractions and stresses in the stabilized fretting contact. The presented simulation scenarios prove the method ability to advance the understanding of the transient coated contact.http://tribology.rs/journals/2020/2020-1/2020-1-13.htmlfretting contactnumerical simulationcoatingsfast fourier transformconvolutionloading path |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
S. Spinu |
spellingShingle |
S. Spinu Numerical Study on the Influence of the Coating in the Fretting Contact Tribology in Industry fretting contact numerical simulation coatings fast fourier transform convolution loading path |
author_facet |
S. Spinu |
author_sort |
S. Spinu |
title |
Numerical Study on the Influence of the Coating in the Fretting Contact |
title_short |
Numerical Study on the Influence of the Coating in the Fretting Contact |
title_full |
Numerical Study on the Influence of the Coating in the Fretting Contact |
title_fullStr |
Numerical Study on the Influence of the Coating in the Fretting Contact |
title_full_unstemmed |
Numerical Study on the Influence of the Coating in the Fretting Contact |
title_sort |
numerical study on the influence of the coating in the fretting contact |
publisher |
University of Kragujevac |
series |
Tribology in Industry |
issn |
0354-8996 2217-7965 |
publishDate |
2020-03-01 |
description |
An existing algorithm for the fretting contact of homogeneous materials is enhanced by incorporating a novel technique for rapid calculation of stresses and displacements in the coated body. State-of-the-art methods for computation of convolution products in the Fourier transform domain allow for fine spatial discretization and accurate reproduction of the loading history. The algorithm is structured on three levels of iterations, and the acceleration of the convolution calculation in the innermost level promises well converged solutions. The frequency response functions derived in the literature are used for the conversion of the required influence coefficients, allowing computation of the half-space response to prescribed loading. The computer program is first validated against the analytical solution for the fretting loop of homogeneous and similarly elastic materials. The refined method is then employed to study the influence of the elastic moduli ratio between the coating and the substrate, on the contact tractions and stresses in the stabilized fretting contact. The presented simulation scenarios prove the method ability to advance the understanding of the transient coated contact. |
topic |
fretting contact numerical simulation coatings fast fourier transform convolution loading path |
url |
http://tribology.rs/journals/2020/2020-1/2020-1-13.html |
work_keys_str_mv |
AT sspinu numericalstudyontheinfluenceofthecoatinginthefrettingcontact |
_version_ |
1724645160253390848 |