Biocoatings and additives as promising candidates for ultralow friction systems

The achievement of frictionless systems, known as superlubricity, has become of great importance concerning energy saving and emission reduction. In parallel, the drive toward sustainability and environmental aspects has led to intense advances in the research and development of biobased materials....

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Main Authors: Marcia Gabriely A. da Cruz, Tetyana M. Budnyak, Bruno V. M. Rodrigues, Serhiy Budnyk, Adam Slabon
Format: Article
Language:English
Published: Taylor & Francis Group 2021-04-01
Series:Green Chemistry Letters and Reviews
Subjects:
Online Access:http://dx.doi.org/10.1080/17518253.2021.1921286
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spelling doaj-de0c9c6e69ee46b8a4b6badbc198a20a2021-06-11T09:33:07ZengTaylor & Francis GroupGreen Chemistry Letters and Reviews1751-82531751-71922021-04-0114235838110.1080/17518253.2021.19212861921286Biocoatings and additives as promising candidates for ultralow friction systemsMarcia Gabriely A. da Cruz0Tetyana M. Budnyak1Bruno V. M. Rodrigues2Serhiy Budnyk3Adam Slabon4Stockholm UniversityStockholm UniversityStockholm UniversityAC2T research GmbHStockholm UniversityThe achievement of frictionless systems, known as superlubricity, has become of great importance concerning energy saving and emission reduction. In parallel, the drive toward sustainability and environmental aspects has led to intense advances in the research and development of biobased materials. From the standpoint of Green Chemistry principles, this review presents a critical overview of the latest findings and future perspectives on the application of biobased materials aiming at superlubricant pursuits. The progress in the use of biomacromolecules, such as chitosan, cellulose, and lignin, as additives to lubricants or coating materials, are addressed, as well as the advances on sustainable coatings based on diamond-like carbon (DLC). Deeper investigations on the development of non-hazardous processes dedicated to the tribological properties of DLC, such as electrochemical synthesis using environment-friendly solvents to generate molecular precursors, widen the perspectives to achieve sustainable materials. Besides, the exploration of the tribochemical interactions between the DLC surface and lubricants containing biobased materials arises as a promising strategy to achieve green superlubricity as a viable and scalable process, through different pathways: by hydrogen bonds between lubricant and additives, via surface passivation of the functional groups present in these biomacromolecules or by biomimicking natural joints.http://dx.doi.org/10.1080/17518253.2021.1921286biobased materialslignincellulosechitosandiamond-like carbonlubricantsuperlubricity
collection DOAJ
language English
format Article
sources DOAJ
author Marcia Gabriely A. da Cruz
Tetyana M. Budnyak
Bruno V. M. Rodrigues
Serhiy Budnyk
Adam Slabon
spellingShingle Marcia Gabriely A. da Cruz
Tetyana M. Budnyak
Bruno V. M. Rodrigues
Serhiy Budnyk
Adam Slabon
Biocoatings and additives as promising candidates for ultralow friction systems
Green Chemistry Letters and Reviews
biobased materials
lignin
cellulose
chitosan
diamond-like carbon
lubricant
superlubricity
author_facet Marcia Gabriely A. da Cruz
Tetyana M. Budnyak
Bruno V. M. Rodrigues
Serhiy Budnyk
Adam Slabon
author_sort Marcia Gabriely A. da Cruz
title Biocoatings and additives as promising candidates for ultralow friction systems
title_short Biocoatings and additives as promising candidates for ultralow friction systems
title_full Biocoatings and additives as promising candidates for ultralow friction systems
title_fullStr Biocoatings and additives as promising candidates for ultralow friction systems
title_full_unstemmed Biocoatings and additives as promising candidates for ultralow friction systems
title_sort biocoatings and additives as promising candidates for ultralow friction systems
publisher Taylor & Francis Group
series Green Chemistry Letters and Reviews
issn 1751-8253
1751-7192
publishDate 2021-04-01
description The achievement of frictionless systems, known as superlubricity, has become of great importance concerning energy saving and emission reduction. In parallel, the drive toward sustainability and environmental aspects has led to intense advances in the research and development of biobased materials. From the standpoint of Green Chemistry principles, this review presents a critical overview of the latest findings and future perspectives on the application of biobased materials aiming at superlubricant pursuits. The progress in the use of biomacromolecules, such as chitosan, cellulose, and lignin, as additives to lubricants or coating materials, are addressed, as well as the advances on sustainable coatings based on diamond-like carbon (DLC). Deeper investigations on the development of non-hazardous processes dedicated to the tribological properties of DLC, such as electrochemical synthesis using environment-friendly solvents to generate molecular precursors, widen the perspectives to achieve sustainable materials. Besides, the exploration of the tribochemical interactions between the DLC surface and lubricants containing biobased materials arises as a promising strategy to achieve green superlubricity as a viable and scalable process, through different pathways: by hydrogen bonds between lubricant and additives, via surface passivation of the functional groups present in these biomacromolecules or by biomimicking natural joints.
topic biobased materials
lignin
cellulose
chitosan
diamond-like carbon
lubricant
superlubricity
url http://dx.doi.org/10.1080/17518253.2021.1921286
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AT tetyanambudnyak biocoatingsandadditivesaspromisingcandidatesforultralowfrictionsystems
AT brunovmrodrigues biocoatingsandadditivesaspromisingcandidatesforultralowfrictionsystems
AT serhiybudnyk biocoatingsandadditivesaspromisingcandidatesforultralowfrictionsystems
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