Enhanced Surface Hardness of Commercially Pure Titanium by Pack Carburization with Rubberwood Charcoal and Rubberwood Ash

Natthaphong Konkhunthot, Patcharanut Buranapima, Patipan Boonnitee, M. Masae, P. Kongsong
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Abstract

In the present work, pack carburization with rubberwood charcoal and rubberwood ash at 925 °C for 6, 12, and 24 h was carried out to improve the surface hardness of commercially pure titanium (CP-Ti).  X-ray diffraction and energy dispersive spectrometer analyses revealed the formation of titanium carbide (TiC) and the existence of oxygen diffusion in the carburized surface. The surface hardness of most optimized conditions has remarkably increased by 481 % as compared to untreated CP-Ti (from 175 HV to 1016 HV) due to the TiC surface layer, while the hardened oxygen diffusion layer of about 300 μm in-depth, as clearly seen in the microhardness profiles is useful for increased load-bearing capacity. Consequently, pack carburization with rubberwood charcoal and rubberwood ash is a promising surface modification technique, which can significantly enhance the surface hardness and increase the load-bearing capacity of CP-Ti for biomedical and tribological applications. HIGHLIGHTS Rubberwood charcoal and ash are a new carbon source to fabricate the TiC layer on CP-Ti. Formation of the TiC layer remarkably enhances the surface hardness of CP-Ti by 481 %. The hardened oxygen diffusion layer is beneficial to load-bearing and anti-wear capacity. GRAPHICAL ABSTRACT
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橡胶木炭和橡胶木灰包渗碳提高工业纯钛表面硬度
在本研究中,用橡胶木炭和橡胶木灰在925℃下进行了6、12和24 h的包渗碳,以提高商品纯钛(CP-Ti)的表面硬度。x射线衍射和能谱分析表明,渗碳表面有碳化钛(TiC)的形成和氧的扩散。由于TiC表面层的存在,与未处理的CP-Ti相比,大多数优化条件下的表面硬度显著提高了481%(从175 HV提高到1016 HV),而强化的氧扩散层深度约为300 μm,从显微硬度曲线中可以清楚地看到,这有助于提高承载能力。因此,橡胶木炭和橡胶木灰复合渗碳是一种很有前途的表面改性技术,可以显著提高CP-Ti的表面硬度,提高其在生物医学和摩擦学领域的承载能力。橡胶木炭和灰是在CP-Ti表面制备TiC层的新碳源。TiC层的形成使CP-Ti的表面硬度提高了481%。硬化的氧扩散层有利于提高承载能力和抗磨能力。图形抽象
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