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Tribological Behavior of Ni-P Electroless Coating of Inconel 625 with Multiwall Nano Carbon Tubes

An attempt was taken to study the wear rate of coated Inconel 625 using 0.3 gm of multiwall carbon tubes (MWCNT).The coating was carried out by the Ni-P electroless coating method. The Ni-P-MWCNT coating was prepared by using nickel phosphorous solution. The sliding wear test was conducted using pin...

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Published in:Advances in materials science and engineering 2023, Vol.2023, p.1-8
Main Authors: Jayabalakrishnan, D., Senthil Kumar, S., Suthan, R., Babu Aurtherson, P., Elanchezhian, J., Ramanareddy, V., Louies Praveen, S., Umamahesawari Kandasamy
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container_title Advances in materials science and engineering
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creator Jayabalakrishnan, D.
Senthil Kumar, S.
Suthan, R.
Babu Aurtherson, P.
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Ramanareddy, V.
Louies Praveen, S.
Umamahesawari Kandasamy
description An attempt was taken to study the wear rate of coated Inconel 625 using 0.3 gm of multiwall carbon tubes (MWCNT).The coating was carried out by the Ni-P electroless coating method. The Ni-P-MWCNT coating was prepared by using nickel phosphorous solution. The sliding wear test was conducted using pin on discs tribometer. The wear rate behavior was investigated at various levels of pin on discs tribometer factors, and a predictive model was developed using regression equations. The wear test experiment was carried out based on the L27 orthogonal array. The wear process parameters load, sliding velocity, and sliding distance were chosen. It was observed that the rate of wear increased as the load increases, whereas increase in sliding velocity and sliding distance reduces the rate of wear. The developed regression model was validated with the measured wear rate. The percentage error was observed within 0.99%.
doi_str_mv 10.1155/2023/7926006
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The Ni-P-MWCNT coating was prepared by using nickel phosphorous solution. The sliding wear test was conducted using pin on discs tribometer. The wear rate behavior was investigated at various levels of pin on discs tribometer factors, and a predictive model was developed using regression equations. The wear test experiment was carried out based on the L27 orthogonal array. The wear process parameters load, sliding velocity, and sliding distance were chosen. It was observed that the rate of wear increased as the load increases, whereas increase in sliding velocity and sliding distance reduces the rate of wear. The developed regression model was validated with the measured wear rate. 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subjects Alloy plating
Carbon
Corrosion resistance
Design of experiments
Electroless coating
Electroless nickel plating
Electrolytes
Error analysis
Frictional wear
Graphene
Heat exchangers
High temperature
Investigations
Magnesium alloys
Morphology
Nickel base alloys
Orthogonal arrays
Prediction models
Process parameters
Protective coatings
Regression models
Sliding friction
Superalloys
Titanium alloys
Tribology
Tribometers
Tubes
Wear rate
Wear tests
title Tribological Behavior of Ni-P Electroless Coating of Inconel 625 with Multiwall Nano Carbon Tubes
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