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A comprehensive experimental study and numerical analysis of coefficient of friction of nanocomposite coatings

A comprehensive study of nanocomposite coating friction behaviour in oscillating-reciprocating simulations with steel balls is presented. Graphene/Nickel (Ni/GPL) and pure Nickel (Ni) coatings have been studied. SEM, EDS, and AFM analyses of coatings pre-test were performed to characterise the coati...

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Published in:Materials chemistry and physics 2023-06, Vol.301, p.127550, Article 127550
Main Authors: Nazir, Mian Hammad, Khan, Zulfiqar Ahmad, Hussain, Muhammad Majid, Rahil, Abdullah, Zaidi, Syed Zohaib Javaid
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description A comprehensive study of nanocomposite coating friction behaviour in oscillating-reciprocating simulations with steel balls is presented. Graphene/Nickel (Ni/GPL) and pure Nickel (Ni) coatings have been studied. SEM, EDS, and AFM analyses of coatings pre-test were performed to characterise the coatings in addition to tests to compare the coefficients of friction ‘COF’ between pure Ni and Ni/GPL. Based on microscopic characterisation of wear tracks, wear on counter carbon steel balls, and “U-shaped” wear depth profiles of wear tracks, it was determined that Ni had a higher coefficient of friction than Ni/GPL. A novel 2-D predictive numerical model was developed to examine the wear of nanocomposite coatings that integrates the microstructural and lubrication concepts. Predictions from newly developed model and the experimental results are in close agreement. While significant research has been conducted to understand the frictional performance of nanocomposite coatings, a novel and reliable predictive model is still needed for analyzing nanocomposite coatings COF in the context of design. The research will impact the automotive, aerospace, renewable energy, high-end manufacturing, and renewable energy sectors. •The friction behaviour of nano-composite coatings using oscillating-reciprocating condition has been simulated.•Pre and Pro-test comparison of Nickel/Graphene and pure-Nickel coatings is conducted using characterisation techniques.•Four types of tests were performed to compare the COF of Nickel/Graphene and pure-Nickel coatings.•The post-tests revealed that Ni exhibited higher COF compared to Nickel/Graphene.•A novel 2-D predictive model integrating the wear concepts with the microstructural and lubrication concepts is developed.
doi_str_mv 10.1016/j.matchemphys.2023.127550
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subjects Coating
Coefficient of friction
Nickel
Nickel graphene
Predictive model
title A comprehensive experimental study and numerical analysis of coefficient of friction of nanocomposite coatings
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