Graphitic Biocarbon from Agrowaste Biomass: A Sustainable Material of Excellent Lubrication Performance

Sweta Mehta, Pratiksha Joshi, Anchal Pandey, Ramesh N. Goswami, Om P. Sharma and Om P. Khatri*, 
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Abstract

Sustainable and ecofriendly materials are gaining immense interest in various engineering applications to minimize environmental footprints. In particular, biomass-derived carbon materials with controlled structural features play important roles in the development of structural and functional composites for different industrial applications. The biomass-based lamellar structured carbon materials hold significant potential for tribological applications. The present work demonstrates the synthesis of graphitic domains-enriched biocarbon from lignocellulosic agrowaste biomass and its application as a sustainable material of excellent lubrication performance. The structural, chemical, and morphological properties of biocarbons were probed by Raman, infrared, X-ray photoelectron spectroscopy, and transmission electron microscopy measurements. Octadecyltrichlorosilane was grafted on the biocarbon surface to make it compatible with mineral lube base oil for long-term dispersibility. The tribological experiments were conducted by ASTM D4172-B and ASTM D5183-21a test methods. The stable dispersion of biocarbon in mineral lube base oil extended excellent lubrication performance by reducing the friction coefficient (36%) and wear volume (64%) of the steel tribopair. The Raman results signified graphitic biocarbon-based thin film deposition on tribo surfaces, which protected the contact interfaces to minimize wear and decreased the friction coefficient. The excellent dispersibility, low resistance-to-shear by lamellar pattern, the excellent affinity of biocarbon to the steel surface, and the formation of graphitic biocarbon-based tribo thin films collectively improved the lubrication performance.

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来自农业废弃物生物质的石墨生物碳:一种具有优异润滑性能的可持续材料
可持续和环保材料在各种工程应用中获得了极大的兴趣,以最大限度地减少环境足迹。特别是,具有可控结构特征的生物质衍生碳材料在不同工业应用的结构和功能复合材料的发展中发挥着重要作用。基于生物质的层状结构碳材料在摩擦学应用方面具有重要的潜力。本研究展示了从木质纤维素农业废弃物生物质中合成富含石墨结构域的生物碳及其作为一种具有优异润滑性能的可持续材料的应用。利用拉曼光谱、红外光谱、x射线光电子能谱和透射电子显微镜测量了生物碳的结构、化学和形态特性。将十八烷基三氯硅烷接枝于生物碳表面,使其与矿物润滑油基础油相容,具有长期分散性。摩擦学试验采用ASTM D4172-B和ASTM D5183-21a试验方法进行。矿物润滑油基础油中生物碳的稳定分散使钢摩擦副的摩擦系数(36%)和磨损量(64%)降低,从而延长了优异的润滑性能。拉曼结果表明,石墨生物碳基薄膜沉积在摩擦表面,保护了接触界面,减少了磨损,降低了摩擦系数。优异的分散性、层状模式的低剪切阻力、生物碳对钢表面的良好亲和力以及石墨生物碳基摩擦薄膜的形成共同提高了润滑性能。
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