Surface & Coatings Technology

This work is to rationally designed and constructed a novel micro/nano oxide multistructures on Ti alloy surface using HF/HCl etching and IHT oxidizing. The IHT technology is a kind of a rapid, economical, environmentally friendly and easily processable method based on the inherent skin effect of induction current, which is very suitable for being used in surface multifunction of Ti-based biomaterials. Besides, exploring the rapid construction method of bioactive multiscale structures and their biological mechanism derived us to carry out this work. The novelty of this study was to explored the developing tendency of hierarchical structures in further clinical application of high-performance bone implants.

Orthogonal test data, the test data of non-Amontonian friction behavior of transition metal sulfides, diamond Raman spectrum data.

Influence of different input energy and interval of adjacent laser scanning on WCA Separation efficiency of the as-prepared mesh for various oil. Ten times separation efficiency of the as-prepared mesh.Separation efficiency as a function of different mesh numbers. Oil flux of different oils. The water intrusion pressure as a function of different mesh numbers High temperature, freezing and anti-corrosion stability of the as-prepared mesh. The wettability , separation efficiency of the laser treated copper mesh after heat preservation at 200 ℃ , - 18 ℃ and being immersed 10 wt% NaCl solutions for 2 hours, respectively.

Ion energy measurement for selected ions at different voltages applied in the reversed pulse.

Data supporting results presented in figures

Research on the elasto-plastic properties of the coating using the reverse analysis method

The each file name corresponds to the picture in the paper.

Nova raw file and separated diagrams for further study.

These are the eps file formats of the figures presented in the paper "Hard Ti–Al–N endowed with high heat-resistance through alloying with Ta and Ce" by H. Asanuma, F.F. Klimashin, P. Polcik, S. Kolozsvári, H. Riedl, and P.H. Mayrhofer

The single magnetron sputtering technology has great limitations in the further optimization of the mechanical properties of TiN films. High energy shot peening (HESP), as a simple and efficient surface nanotechnology, has been widely used in the aerospace, mechanical processing and other fields. After being impacted by the projectile, the surface of the substrate will undergo severe deformation that induces nanocrystallization of the surface grains, thus greatly enhancing the surface activity. Combining HESP with high power impulse magnetron sputtering (HIPIMS)to understand how HESP affects the growth of TiN films on a TA2 surface and whether it can improve the wear resistance of TiN films has important research significance.