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References (29)
-
S. Rhee (1970)
Wear equation for polymers sliding against metal surfacesWear, 16
-
P. Samyn, P. Baets, G. Schoukens, J. Quintelier (2007)
Wear transitions and stability of polyoxymethylene homopolymer in highly loaded applications compared to small-scale testingTribology International, 40
-
N. Viswanath, D. Bellow (1995)
Development of an equation for the wear of polymersWear
-
D. Dowson, S. Taheri, N. Wallbridge (1987)
The role of counterface imperfections in the wear of polyethyleneWear, 119
-
J. Atkinson, K. Brown, D. Dowson (1978)
The Wear of High Molecular Weight Polyethylene—Part I: The Wear of Isotropic Polyethylene Against Dry Stainless Steel in Unidirectional MotionJournal of Lubrication Technology, 100
-
Connection between the wear resistance of plastics and other mechanical properties
Sovrin Plastics, 7
-
L. Zsidai, P. Baets, P. Samyn, G. Kalácska, A. Peteghem, F. Parys (2002)
The tribological behaviour of engineering plastics during sliding friction investigated with small-scale specimensWear, 253
-
K. Pal, S. Pal, C. Das, Jin Kim (2010)
Relationship between normal load and dynamic co-efficient of friction on rock-rubber wear mechanismMaterials & Design, 31
-
K. Ziemiański, D. Capanidis (1982)
The mechanism of dry friction of polyoxymethylene against steelWear, 82
-
Friction and wear
-
P. Samyn, P. Baets (2005)
Friction of polyoxymethylene homopolymer in highly loaded applications extrapolated from small-scale testingTribology Letters, 19
-
S. Prasad, P. Chiu, S. Dasgupta (1976)
Compression and sliding of an elastic rectangle fixed rigidly at the baseInternational Journal of Engineering Science, 14
-
M. Clerico (1980)
Tribological behaviour of polyacetalsWear, 64
-
Friction and wear of polymers
Elsevier Tribology Series, 6
-
Tribologie der polymere
-
P. Gopal, L. Dharani, F. Blum (1995)
Load, Speed and Temperature Sensitivities of a Carbon-Fiber-Reinforced Phenolic Friction MaterialWear
-
A. Greco, R. Erck, O. Ajayi, G. Fenske (2011)
Effect of reinforcement morphology on high-speed sliding friction and wear of PEEK polymersWear, 271
-
S. Odi-owei, D. Schipper (1991)
Tribological behaviour of unfilled and composite polyoxymethyleneWear, 148
-
Hiroki Endo, E. Marui (2004)
Fundamental studies on friction and wear of engineering plasticsIndustrial Lubrication and Tribology, 56
-
Y. Mergler, R. Schaake, A. Veld (2004)
Material transfer of POM in sliding contactWear, 256
-
Tarmo Korpela, M. Suvanto, T. Pakkanen (2015)
Wear and friction behavior of polyacetal surfaces with micro-structure controlled surface pressureWear, 328
-
N. Eiss, K. Wood, J. Herold, K. Smyth (1979)
Model for the Transfer of Polymer to Rough, Hard SurfacesJournal of Lubrication Technology, 101
-
M. Kar (1978)
Micromechanism of wear at polymer-metal sliding interfaceWear, 46
-
Friction of polyoxymethylene homopolymer in highly loaded applications extrapolated from small-scale testing
Tribology Letters, 19
-
H. Benabdallah (2003)
Friction and wear of blended polyoxymethylene sliding against coated steel platesWear, 254
-
Predicting the wear of sliding plastic surfaces
Mechanical Engineering, 86
-
M. Vaziri, F. Stott, R. Spurr (1988)
Studies of the friction of polymeric materialsWear, 122
-
H. Benabdallah, D. Olender (2006)
Finite element simulation of the wear of polyoxymethylene in pin-on-disc configurationWear, 261
-
N. Myshkin, M. Petrokovets, A. Kovalev (2005)
Tribology of polymers: Adhesion, friction, wear, and mass-transferTribology International, 38
- Publisher
- Emerald Publishing
- Copyright
- Copyright © Emerald Group Publishing Limited
- ISSN
- 0036-8792
- DOI
- 10.1108/ILT-05-2016-0120
- Publisher site
- See Article on Publisher Site
Abstract
PurposeThe purposes of this paper include studying the friction coefficient of polyoxymethylene (POM) under a broad range of normal load and sliding velocity; developing a mathematical model of friction coefficient of POM under a broad range of normal loads and sliding velocities; and applying the model to dynamic finite element (FE) analysis of mechanical devices containing POM components.Design/methodology/approachThrough pin-on-disc experiment, the friction coefficient of POM in different normal loads and sliding velocities is investigated; the average contact pressure is between 5 and 15 Mpa and the sliding velocity is from 0.05 to 0.9 m/s. A friction algorithm is developed and embedded in the FE model to simulate the friction of POM in different normal loads and sliding velocities.FindingsThe friction coefficient of POM against steel declines with the increase of normal loads when the contact pressure is between 5 and 15 Mpa. The friction coefficient of POM against steel increases markedly when the sliding velocity is between 0.05 and 0.15 m/s, it decreases sharply between 0.15-0.45 m/s and then it stabilizes at high sliding velocity between 0.45 and 0.9 m/s. The friction coefficient of POM in different working operations has a significant effect on contact stress and shear stress. The simulation data and experiment data of POM friction force fit very well; therefore, it can be concluded that the friction algorithm and FE model are accurate.Originality/valueThe friction coefficient of POM under a broad range of normal loads and sliding velocities is investigated. The friction coefficient model of POM is established as a function of normal loads and sliding velocities in the dry sliding condition. A friction algorithm is developed and embedded in the FE model of the friction of POM. The mathematical model of the friction coefficient accurately agrees with the experiment data, and simulation data and experiment data of the POM friction force fit very well.
Journal
Industrial Lubrication and Tribology – Emerald Publishing
Published: Mar 12, 2018