Alumina hybrid nanocomposite coatings deliver high nanohardness and strength through CVD deposition of oxycarbide particles.
A Ti(C,N) coated cutting tool insert uses a stress gradient between adjacent layers to improve mechanical performance.
A constraining member controls chip thickness during machining to suppress flow localization, resolving uncontrolled heterogeneity in plastic flow.
Medium-temperature chemical vapor deposition with organic carbonates prevents eta phase formation and decarburization at the substrate interface.
A surface-coated cutting tool with a titanium boride layer applies compressive residual stress to enhance wear resistance.
A drilling entry sheet uses a resin layer containing molybdenum disulfide solid lubricant to reduce friction at the drill interface.
A coated cutting insert features a wear-resistant alumina base layer topped with a color-changing titanium carbonitride layer that reveals the substrate upon tool usage.