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Scratch evaluation on a high performance polymer

Vanessa Rodriguez Fereira UGent, Jacob Sukumaran UGent, Yeczain Perez Delgado, Mariana Staia UGent, Alain Iost and Patrick De Baets UGent (2013) MECHANICAL ENGINEERING LETTERS. 9. p.76-84
abstract
The scratching process is a well know concept and is usually defined as a kind of surface abrasion, where plastic deformation is promoted by relative friction between soft phase and a hard intender. It is necessary to reduce material loss to minimum or even to reach zero to have an efficient and effective functionality of the materials. Polymers being highly sensitive to wear and scratch damage, their various modes of deformation such as, tearing, cracking, delamination, abrasive and adhesive vary with a narrow range of contact variables like applied normal load, sliding velocity, interfacial lubrication and testing temperature. This is particularly important when these materials are used to improve the tribological performance by adding various types of fillers such as, carbon fibers, graphite, PTFE, TiO2, and ZnS are added. The polymers with nanocomposites have the advantages over micro- composites from the viewpoint of wear and scratch damage, the underlying mechanism of damage in the single asperity mode is still unclear. The goal of this study is to experimentally evaluate the deformation modes and the friction processes involved during the scratching of polymer reinforced with nanocomposites. The scratches were produced on the semi-crystalline polyetheretherketone (PEEK) surface using a Rockwell C diamond indenter was pressed onto the flat surface of each sample, until a complete load-indentation depth-curve was achieved. These scratched surfaces were assessed with optical microscope and scanning electron microscope (SEM) for prevailing deformation mechanism and the geometry of damage.
Please use this url to cite or link to this publication:
author
organization
year
type
conference
publication status
published
subject
keyword
tribological performance, nanocomposites, semicrystalline PEEK, deformation, scratch
in
MECHANICAL ENGINEERING LETTERS
Mech. Eng. Lett.
volume
9
pages
76 - 84
conference name
Synergy and Technical Development 2013 (Synergy 2013)
conference location
Gödöllö, Hungary
conference start
2013-10-13
conference end
2013-10-19
ISSN
2060-3789
language
English
UGent publication?
yes
classification
C1
copyright statement
I have transferred the copyright for this publication to the publisher
id
4170337
handle
http://hdl.handle.net/1854/LU-4170337
date created
2013-10-23 16:05:14
date last changed
2016-12-19 15:34:52
@inproceedings{4170337,
  abstract     = {The scratching process is a well know concept and is usually defined as a kind of surface abrasion, where plastic deformation is promoted by relative friction between soft phase and a hard intender. It is necessary to reduce material loss to minimum or even to reach zero to have an efficient and effective functionality of the materials. Polymers being highly sensitive to wear and scratch damage, their various modes of deformation such as, tearing, cracking, delamination, abrasive and adhesive vary with a narrow range of contact variables like applied normal load, sliding velocity, interfacial lubrication and testing temperature. This is particularly important when these materials are used to improve the tribological performance by adding various types of fillers such as, carbon fibers, graphite, PTFE, TiO2, and ZnS are added. The polymers with nanocomposites have the advantages over micro- composites from the viewpoint of wear and scratch damage, the underlying mechanism of damage in the single asperity mode is still unclear. The goal of this study is to experimentally evaluate the deformation modes and the friction processes involved during the scratching of polymer reinforced with nanocomposites. The scratches were produced on the semi-crystalline polyetheretherketone (PEEK) surface using a Rockwell C diamond indenter was pressed onto the flat surface of each sample, until a complete load-indentation depth-curve was achieved. These scratched surfaces were assessed with optical microscope and scanning electron microscope (SEM) for prevailing deformation mechanism and the geometry of damage.},
  author       = {Rodriguez Fereira, Vanessa and Sukumaran, Jacob and Perez Delgado, Yeczain and Staia, Mariana and Iost, Alain and De Baets, Patrick},
  booktitle    = {MECHANICAL ENGINEERING LETTERS},
  issn         = {2060-3789},
  keyword      = {tribological performance,nanocomposites,semicrystalline PEEK,deformation,scratch},
  language     = {eng},
  location     = {G{\"o}d{\"o}ll{\"o}, Hungary},
  pages        = {76--84},
  title        = {Scratch evaluation on a high performance polymer},
  volume       = {9},
  year         = {2013},
}

Chicago
Rodriguez Fereira, Vanessa, Jacob Sukumaran, Yeczain Perez Delgado, Mariana Staia, Alain Iost, and Patrick De Baets. 2013. “Scratch Evaluation on a High Performance Polymer.” In Mechanical Engineering Letters, 9:76–84.
APA
Rodriguez Fereira, V., Sukumaran, J., Perez Delgado, Y., Staia, M., Iost, A., & De Baets, P. (2013). Scratch evaluation on a high performance polymer. MECHANICAL ENGINEERING LETTERS (Vol. 9, pp. 76–84). Presented at the Synergy and Technical Development 2013 (Synergy 2013).
Vancouver
1.
Rodriguez Fereira V, Sukumaran J, Perez Delgado Y, Staia M, Iost A, De Baets P. Scratch evaluation on a high performance polymer. MECHANICAL ENGINEERING LETTERS. 2013. p. 76–84.
MLA
Rodriguez Fereira, Vanessa, Jacob Sukumaran, Yeczain Perez Delgado, et al. “Scratch Evaluation on a High Performance Polymer.” Mechanical Engineering Letters. Vol. 9. 2013. 76–84. Print.