Modeling Adhesive Wear in Asperity and Rough Surface Contacts: A Review

Wear is one of the most fundamental topics in tribology and adhesive wear is argued as the least avoidable wear type. Numerical techniques have allowed advances in more realistic simulations of adhesive wear mechanisms and promoted our understanding of it. This paper reviews the classic work on wear...

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Main Authors: Haibo Zhang, Roman Goltsberg, Izhak Etsion
Format: Article
Language:English
Published: MDPI AG 2022-10-01
Series:Materials
Subjects:
Online Access:https://www.mdpi.com/1996-1944/15/19/6855
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author Haibo Zhang
Roman Goltsberg
Izhak Etsion
author_facet Haibo Zhang
Roman Goltsberg
Izhak Etsion
author_sort Haibo Zhang
collection DOAJ
description Wear is one of the most fundamental topics in tribology and adhesive wear is argued as the least avoidable wear type. Numerical techniques have allowed advances in more realistic simulations of adhesive wear mechanisms and promoted our understanding of it. This paper reviews the classic work on wear modeling by Archard and Rabinowicz, followed by a comprehensive summary of the adhesive wear numerical models and techniques based on physical parameters. The studies on wear mechanisms at the asperity level and rough surfaces are separately presented. Different models and their key findings are presented according to the method type. The advantages and deficiencies of these models are stated and future work, such as considering more realistic geometries and material properties for adhesive wear modeling, is suggested.
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spelling doaj.art-5f5213542cea4259ab7f00678044dfa82023-11-23T20:58:00ZengMDPI AGMaterials1996-19442022-10-011519685510.3390/ma15196855Modeling Adhesive Wear in Asperity and Rough Surface Contacts: A ReviewHaibo Zhang0Roman Goltsberg1Izhak Etsion2School of Mechanical Engineering, Beijing Institute of Technology, Beijing 100081, ChinaDepartment of Mechanical Engineering, Technion, Haifa 32000, IsraelDepartment of Mechanical Engineering, Technion, Haifa 32000, IsraelWear is one of the most fundamental topics in tribology and adhesive wear is argued as the least avoidable wear type. Numerical techniques have allowed advances in more realistic simulations of adhesive wear mechanisms and promoted our understanding of it. This paper reviews the classic work on wear modeling by Archard and Rabinowicz, followed by a comprehensive summary of the adhesive wear numerical models and techniques based on physical parameters. The studies on wear mechanisms at the asperity level and rough surfaces are separately presented. Different models and their key findings are presented according to the method type. The advantages and deficiencies of these models are stated and future work, such as considering more realistic geometries and material properties for adhesive wear modeling, is suggested.https://www.mdpi.com/1996-1944/15/19/6855adhesive wearArchard lawasperity contactfinite element methodnumerical modelsRabinowicz criterion
spellingShingle Haibo Zhang
Roman Goltsberg
Izhak Etsion
Modeling Adhesive Wear in Asperity and Rough Surface Contacts: A Review
Materials
adhesive wear
Archard law
asperity contact
finite element method
numerical models
Rabinowicz criterion
title Modeling Adhesive Wear in Asperity and Rough Surface Contacts: A Review
title_full Modeling Adhesive Wear in Asperity and Rough Surface Contacts: A Review
title_fullStr Modeling Adhesive Wear in Asperity and Rough Surface Contacts: A Review
title_full_unstemmed Modeling Adhesive Wear in Asperity and Rough Surface Contacts: A Review
title_short Modeling Adhesive Wear in Asperity and Rough Surface Contacts: A Review
title_sort modeling adhesive wear in asperity and rough surface contacts a review
topic adhesive wear
Archard law
asperity contact
finite element method
numerical models
Rabinowicz criterion
url https://www.mdpi.com/1996-1944/15/19/6855
work_keys_str_mv AT haibozhang modelingadhesivewearinasperityandroughsurfacecontactsareview
AT romangoltsberg modelingadhesivewearinasperityandroughsurfacecontactsareview
AT izhaketsion modelingadhesivewearinasperityandroughsurfacecontactsareview