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The NSERC/General Motors of Canada/University of Windsor Industrial Research Chair (IRC) in Tribology of Lightweight Materials focuses on understanding and improving the friction and wear behavior of lightweight materials, like aluminum, magnesium and their composites and developing novel coatings to protect them against wear. In addition to experimental studies, theoretical studies are carried out, via mathematical modeling and computational simulations, to understand tribological phenomena at the microscopic and atomic level.

Overall these research programs contribute to the development of new technologies to help industrial designers select materials, design systems and utilize components that are more resistant to wear, yet easier to machine, which is vital to metal processing and manufacturing industries, including automotive manufacturers. Research is conducted in the Tribology of Materials Laboratories under direction of the chair holder, Dr. Ahmet T. Alpas, professor in the Faculty of Engineering at the Department of Mechanical, Automotive, & Materials Engineering.

An important objective of the Research Chair is to develop collaborative programs to transfer new technologies to automotive and manufacturing industries. Since its establishment, the research team has grown with three new tenure-track faculty members in the fields of manufacturing of advanced protective coatings (Dr. Xueyuan Nie), computational surface science (Dr. Vesselin Stoilov) and nanotribology (Dr. Afsaneh Edrisy). The NSERC/General Motors of Canada/University of Windsor IRC provides a stimulating environment for training highly qualified personnel for Canadian industry.

recent publications

1

Dry and Minimum Quantity Lubrication Drilling of a Magnesium (AM60) Alloy

Bhowmick S., Lukitsch M., Alpas A.T.
International Journal of Machine Tools & Manufacture, 50, 2010, 444-457.

Dry and Minimum Quantity Lubrication Drilling of a Magnesium (AM60) Alloy



2

Microstructural Evolution during High Temperature Sliding Wear of Mg-3%Al-1%Zn (AZ31) Alloy

Das S., Morales A.T., Alpas A.T.
Wear, 268, 2010, 94-103.

Microstructural Evolution during High Temperature Sliding Wear of Mg-3%Al-1%Zn (AZ31) Alloy



3

Indentation-Induced Subsurface Damage in Silicon Particles of Al-Si Alloys

Bhattacharya S., Riahi A.R., Alpas A.T.
Materials Science and Engineering A 572, 2009, 387-396.

Indentation-Induced Subsurface Damage in Silicon Particles of Al-Si Alloys



4

Nanocrystalline Nickel Films with Lotus Leaf Texture for Superhydrophobic and Low Friction Surfaces

Shafiei M., Alpas A.T.
Applied Surface Science, 256, 2009, 710-719.

Nanocrystalline Nickel Films with Lotus Leaf Texture for Superhydrophobic and Low Friction Surfaces



5

Surface Stability and Electronic Structure of Hydrogen and Fluorine Terminated Diamond Surfaces: A First Principles Investigation

Sen F.G., Qi Y., Alpas A.T.
Journal of Materials Research, 24, 2009, 2461-2470.

Surface Stability and Electronic Structure of Hydrogen and Fluorine Terminated Diamond Surfaces: A First Principles Investigation



6

Micromechanisms of Low Load Wear in an Al-18.5% Si Alloy

Dey S.K., Perry T.A., Alpas A.T.
Wear, 267, 2009, 515-524.
Micromechanisms of Low Load Wear in an Al-18.5% Si Alloy



7

Effect of Magnesium Content on the High Temperature Adhesion of Al-Mg Alloys to Steel Surfaces

Riahi A.R., Edrisy A., Alpas A.T.
Surface & Coatings Technology, 203, 2009, 2030-2035.

Effect of Magnesium Content on the High Temperature Adhesion of Al-Mg Alloys to Steel Surfaces



8

Micromechanisms and Mechanics of Ultra-Mild Wear in Al-Si Alloys

Chen M., Meng-Burany X., Perry T.A., Alpas A.T.
Acta Materialia, 56, 2008, 5605-5616.

Micromechanisms and Mechanics of Ultra-Mild Wear in Al-Si Alloys



9

Minimum Quantity Lubrication Drilling of Aluminum-Silicon Alloys in Water Using Diamond-Like Carbon Coated Drills

Bhowmick S., Alpas A.T.
International Journal of Machine Tools & Manufacture, 48, 2008, 1429-1443.

Minimum Quantity Lubrication Drilling of Aluminum-Silicon Alloys in Water Using Diamond-Like Carbon Coated Drills



10

Deformation Behaviour of Aluminium during Machining: Modelling by Eulerian and Smoothed-Particle Hydrodynamics Methods

Akarca S.S., Song X., Altenhof W.J., Alpas A.T.
Materials: Design and Applications, 222, 2008, 209-221.

Deformation Behaviour of Aluminium during Machining: Modelling by Eulerian and Smoothed-Particle Hydrodynamics Methods




© Industrial Research Chair in Tribology of Lightweight Materials. Department of Mechanical, Automotive & Materials Engineering

University of Windsor | 401 Sunset Avenue | Windsor, ON N9B 3P4 | 1-519-253-3000 ext.2603 | tribology@uwindsor.ca