Low friction in self-mated silicon carbide tribosystem using nanodiamond as lubricating additive in water

Abstract Nanodiamond particles (NDPs) have been considered as a potential lubricant additive to various tribological applications, such as water lubrication systems. In this study, the tribological properties of silicon carbide (SiC) lubricated by NDPs dispersed in water are investigated utilizing t...

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Main Authors: Xudong Wang, Hirotsuna Sato, Koshi Adachi
Format: Article
Language:English
Published: SpringerOpen 2020-09-01
Series:Friction
Subjects:
Online Access:https://doi.org/10.1007/s40544-020-0423-y
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author Xudong Wang
Hirotsuna Sato
Koshi Adachi
author_facet Xudong Wang
Hirotsuna Sato
Koshi Adachi
author_sort Xudong Wang
collection DOAJ
description Abstract Nanodiamond particles (NDPs) have been considered as a potential lubricant additive to various tribological applications, such as water lubrication systems. In this study, the tribological properties of silicon carbide (SiC) lubricated by NDPs dispersed in water are investigated utilizing the ball-on-disk tribometer. It is found that the slight addition of NDP to water (i.e., 0.001 wt%) can distinctly accelerate the running-in process, which is necessary to achieve a friction coefficient (μ) as low as 0.01. This study also discusses two NDP functional terminations —hydroxyl and carboxyl. It is demonstrated that the use of carboxyl-terminated NDP over a wide range of concentration (0.001 wt%–1 wt%) yields a low friction force. In contrast, the ideal effective concentration of hydroxyl-terminated NDP is considerably limited because agglomeration in this material is more probable to occur than in the former. Meanwhile, when utilizing NDPs, the input friction energy (P in, defined as the product of sliding speed and applied load) is found to have an essential function. Several sliding tests were implemented at various P in values (50–1,500 mW) using carboxyl-terminated water-dispersed NDPs. It was observed that the μ and wear decreased with increasing P in when 200 mW < P in < 1,500 mW. However, when P in < 200 mW, low friction with high wear occurs compared with the resulting friction and wear when pure water is used.
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spelling doaj.art-9d025e4fe83e48ecba3ffa1b95b195bc2022-12-21T20:45:09ZengSpringerOpenFriction2223-76902223-77042020-09-019359861110.1007/s40544-020-0423-yLow friction in self-mated silicon carbide tribosystem using nanodiamond as lubricating additive in waterXudong Wang0Hirotsuna Sato1Koshi Adachi2Université Paris-Saclay, UVSQ, LISVDepartment of Mechanical Systems Engineering, Graduate School of Engineering, Tohoku UniversityDepartment of Mechanical Systems Engineering, Graduate School of Engineering, Tohoku UniversityAbstract Nanodiamond particles (NDPs) have been considered as a potential lubricant additive to various tribological applications, such as water lubrication systems. In this study, the tribological properties of silicon carbide (SiC) lubricated by NDPs dispersed in water are investigated utilizing the ball-on-disk tribometer. It is found that the slight addition of NDP to water (i.e., 0.001 wt%) can distinctly accelerate the running-in process, which is necessary to achieve a friction coefficient (μ) as low as 0.01. This study also discusses two NDP functional terminations —hydroxyl and carboxyl. It is demonstrated that the use of carboxyl-terminated NDP over a wide range of concentration (0.001 wt%–1 wt%) yields a low friction force. In contrast, the ideal effective concentration of hydroxyl-terminated NDP is considerably limited because agglomeration in this material is more probable to occur than in the former. Meanwhile, when utilizing NDPs, the input friction energy (P in, defined as the product of sliding speed and applied load) is found to have an essential function. Several sliding tests were implemented at various P in values (50–1,500 mW) using carboxyl-terminated water-dispersed NDPs. It was observed that the μ and wear decreased with increasing P in when 200 mW < P in < 1,500 mW. However, when P in < 200 mW, low friction with high wear occurs compared with the resulting friction and wear when pure water is used.https://doi.org/10.1007/s40544-020-0423-ynanodiamond particlesilicon carbide (SiC)lubricationtermination groupsrunning-indriving energy
spellingShingle Xudong Wang
Hirotsuna Sato
Koshi Adachi
Low friction in self-mated silicon carbide tribosystem using nanodiamond as lubricating additive in water
Friction
nanodiamond particle
silicon carbide (SiC)
lubrication
termination groups
running-in
driving energy
title Low friction in self-mated silicon carbide tribosystem using nanodiamond as lubricating additive in water
title_full Low friction in self-mated silicon carbide tribosystem using nanodiamond as lubricating additive in water
title_fullStr Low friction in self-mated silicon carbide tribosystem using nanodiamond as lubricating additive in water
title_full_unstemmed Low friction in self-mated silicon carbide tribosystem using nanodiamond as lubricating additive in water
title_short Low friction in self-mated silicon carbide tribosystem using nanodiamond as lubricating additive in water
title_sort low friction in self mated silicon carbide tribosystem using nanodiamond as lubricating additive in water
topic nanodiamond particle
silicon carbide (SiC)
lubrication
termination groups
running-in
driving energy
url https://doi.org/10.1007/s40544-020-0423-y
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AT koshiadachi lowfrictioninselfmatedsiliconcarbidetribosystemusingnanodiamondaslubricatingadditiveinwater