Search Results for coatings

Fig. 11.50 Effect of various coatings on fatigue strength of Ti-6Al-4V alloy. Source: Ref 11.56 More

Fig. 10 Corrosion losses of hot-dip coatings in the industrial environment of Bethlehem, PA More

Fig. 22.20 Hardness of coatings for tool materials. PVD, physical vapor deposition; CVD, chemical vapor deposition More

Fig. 22.21 Physical vapor deposition coatings on cemented carbide substrates. (a) TiN. (b) TiCN. (c) TiAlN. Source: Ref 3 More

Fig. 9.31. Ductility/temperature characteristics of (a) MCrAIY coatings ( Ref 58 ) and (6) aluminide coatings ( Ref 59 to 61 ). More

Fig. 8.3 Illustration of wheel mold coatings More

Fig. 2 Nitride ceramic coatings deposited on cemented carbide substrates by physical vapor deposition. (a) TiN. (b) TiCN. (c) TiAlN More

Fig. 4 Corrosion losses of hot dip coatings in the industrial environment of Bethlehem, PA. Source: Ref 18 More

Fig. 8 Volume steady-state erosion rates of weld-overlay coatings at 400 °C (750 °F) as a function of average microhardness at 400 °C (90° impact angle; alumina erodent). Source: Ref 45 More

Fig. 16.15 Applications of physical vapor deposition (PVD) coatings. (a) PVD TiN used for soda can tab punch. (b) PVD TiCN used for AA battery casing extrusion punch. Source: Ref 16.55 More

Fig. 16.26 Ranking of ten tool materials, treatments, and coatings, using a progressive die. CVD, chemcial vapor deposition; PVD, physical vapor deposition. Source: Ref 16.51 More

Fig. 11.10 Hardness of various physical vapor deposition (PVD) coatings and chemical vapor deposition (CVD) coatings used for tooling materials. Source: Ref 11.9 More

Fig. 1.6 Schoop patent, “Method of Plating or Coating with Metallic Coatings,” 1915 More

Fig. 2.1 Optical micrographs of copper coatings prepared by (a) arc spraying and (b) cold spraying More

Fig. 2.9 SEM cross-sectional micrographs of cold-sprayed FeAl coatings on steel 316L substrate. Four layers obtained with fine powder at (a) short, (b) medium, and (c) long spray distances, and obtained with coarse powders at (d) short and (e) medium spray distances. Source: Ref 2.63 More

Fig. 2.18 Optical micrographs of cold-sprayed copper coatings on thermally sprayed Al 2 O 3 coatings. (a) Copper on a cold-sprayed aluminum bond coat, processed onto a D-gun-sprayed Al 2 O 3 coating using a nonheated substrate. (b) Copper directly cold sprayed onto a suspension high-velocity More

Fig. 2.23 Microstructures of commercially pure nickel (Ni-99.7) coatings, cold sprayed with nitrogen as process gas at a process gas pressure of 4 MPa (580 psi) and process gas temperatures of (a) 800 °C (1470 °F) and (b) 1000 °C (1830 °F). Both coatings are dense, showing no internal porosity. More

Fig. 5.3 Optical micrographs with etched aluminum coatings as a function of gas temperature at (a) 204 °C (400 °F) and (b) 315 °C (600 °F), revealing the extent of particle deformation. (c) Micrographs used to determine the nature of bonding of the coating. Source: Ref 5.12 More

Fig. 7.5 Thermal cyclic life of thermal barrier coatings (TBCs) with the bond coats deposited by cold spraying (CS-TBC) and low-pressure plasma spray (LPPS-TBC). Source: Ref 7.17 More

Fig. 7.16 Sliding wear test of Al-12Si + 20% B 4 C coatings. MM and CM feedstock show significant benefits over Al-12Si coatings. PGDS, pulsed gas dynamic spray; CGDS, cold gas dynamic spray. Source: Ref 7.53 More