Wear behaviour at 600°C of surface engineered low-alloy steel containing TiC particles

A. N. Md Idriss; M.A. Maleque; I. I. Yaacob; R. M. Nasir; S. Mridha; T. N. Baker

doi:10.1080/02670836.2017.1313363

Wear behaviour at 600°C of surface engineered low-alloy steel containing TiC particles

A. N. Md Idriss, M.A. Maleque, I. I. Yaacob, R. M. Nasir, S. Mridha, T. N. Baker

Mechanical And Aerospace Engineering

Research output: Contribution to journal › Article

1 Citation (Scopus)

Abstract

The work aimed to develop surfaces that could resist wear at high temperatures, thus achieving a prolonged component life. Surface modification of a low-alloy steel by incorporating TiC particles has been undertaken by melting the surface using a tungsten inert gas torch. The dry sliding wear behaviour at 600°C of the original and modified surfaces was compared. Microscopic examination of both surfaces showed glazed layers across the wear tracks, with differing amounts of oxide and homogeneity. Extensive wear occurred on the steel surface, which showed deformation of the wear scar tracks and a steadily increased friction coefficient. The TiC addition reduced the wear loss, coinciding with a glazed layer 33% thinner than that on the low-alloy steel sample.

Language	English
Pages	1-8
Number of pages	8
Journal	Materials Science and Technology
Early online date	18 Apr 2017
DOIs	10.1080/02670836.2017.1313363
Publication status	E-pub ahead of print - 18 Apr 2017

Fingerprint

high strength steels

High strength steel

Wear of materials

Noble Gases

torches

scars

Tungsten

Steel

Inert gases

coefficient of friction

Oxides

homogeneity

Surface treatment

sliding

rare gases

Microscopic examination

tungsten

Melting

examination

melting

Keywords

tungsten inert gas torch
low alloy steel
titanium carbide particles
high temperature wear
dry sliding
oxide layer

Cite this

Md Idriss, A. N., Maleque, M. A., Yaacob, I. I., Nasir, R. M., Mridha, S., & Baker, T. N. (2017). Wear behaviour at 600°C of surface engineered low-alloy steel containing TiC particles. Materials Science and Technology, 1-8. https://doi.org/10.1080/02670836.2017.1313363

Md Idriss, A. N. ; Maleque, M.A. ; Yaacob, I. I. ; Nasir, R. M. ; Mridha, S. ; Baker, T. N. / Wear behaviour at 600°C of surface engineered low-alloy steel containing TiC particles. In: Materials Science and Technology. 2017 ; pp. 1-8.

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abstract = "The work aimed to develop surfaces that could resist wear at high temperatures, thus achieving a prolonged component life. Surface modification of a low-alloy steel by incorporating TiC particles has been undertaken by melting the surface using a tungsten inert gas torch. The dry sliding wear behaviour at 600°C of the original and modified surfaces was compared. Microscopic examination of both surfaces showed glazed layers across the wear tracks, with differing amounts of oxide and homogeneity. Extensive wear occurred on the steel surface, which showed deformation of the wear scar tracks and a steadily increased friction coefficient. The TiC addition reduced the wear loss, coinciding with a glazed layer 33{\%} thinner than that on the low-alloy steel sample.",

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Md Idriss, AN, Maleque, MA, Yaacob, II, Nasir, RM, Mridha, S & Baker, TN 2017, 'Wear behaviour at 600°C of surface engineered low-alloy steel containing TiC particles' Materials Science and Technology, pp. 1-8. https://doi.org/10.1080/02670836.2017.1313363

Wear behaviour at 600°C of surface engineered low-alloy steel containing TiC particles. / Md Idriss, A. N.; Maleque, M.A.; Yaacob, I. I.; Nasir, R. M.; Mridha, S.; Baker, T. N.

In: Materials Science and Technology, 18.04.2017, p. 1-8.

Research output: Contribution to journal › Article

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T1 - Wear behaviour at 600°C of surface engineered low-alloy steel containing TiC particles

AU - Md Idriss, A. N.

AU - Maleque, M.A.

AU - Yaacob, I. I.

AU - Nasir, R. M.

AU - Mridha, S.

AU - Baker, T. N.

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AB - The work aimed to develop surfaces that could resist wear at high temperatures, thus achieving a prolonged component life. Surface modification of a low-alloy steel by incorporating TiC particles has been undertaken by melting the surface using a tungsten inert gas torch. The dry sliding wear behaviour at 600°C of the original and modified surfaces was compared. Microscopic examination of both surfaces showed glazed layers across the wear tracks, with differing amounts of oxide and homogeneity. Extensive wear occurred on the steel surface, which showed deformation of the wear scar tracks and a steadily increased friction coefficient. The TiC addition reduced the wear loss, coinciding with a glazed layer 33% thinner than that on the low-alloy steel sample.

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KW - low alloy steel

KW - titanium carbide particles

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