Fig. 33.8 Osprey spray process. Source: Ref 3 More

Fig. 3 Typical examples of top-opening salt spray cabinets with state-of-the-art features and pertinent accessories. Cabinets range in size from 0.25 to 4.5 m 3 (9 to 160 ft 3 ). More

Fig. 6.18 Atomized jet spray More

Fig. 12.2 Corrosion rates of iron-chromium alloys in intermittent water spray at room temperature. Source: Ref 12.4 More

Fig. 16.2 Application of thermal spray coating on a shaft. Courtesy of ASB Industries, Inc. More

Fig. 16.11 Subsurface crack observations during delamination failure of thermal spray WC-Co coating. Source: Ref 16.3 More

Fig. 27 Special water-spray quench system for profiles. Source: Ref 14 More

Fig. 10.8 Chopped fiber spray-up gun More

Fig. 10.13 Directed fiber spray-up process for preforms. Source: Ref 9 More

Fig. 20.13 Osprey spray process. Source: Ref 1 More

Fig. 2.1 Corrosion rates of iron-chromium alloys in intermittent water spray, at room temperature. Source: Ref 1 More

Fig. 5.9 Visual rating after 1500 h salt spray test versus severity value calculated as the reciprocal of average pore diameter. Reprinted with permission from MPIF, Metal Powder Industries Federation, Princeton, NJ More

Fig. 9.3 Salt spray test results. (a) 304 alloys. (b) 316 regular alloys. (c) 316 special alloys. (d) SS-100 alloys. B-rating, attack of 1% or less of the surface; C-rating, attack of 1 to 25% of the surface; D-rating, attack of more than 25% of the surface. Source: Ref 15 . Reprinted More

Fig. 8.34 Chopped fiber spray-up gun. Source: Ref 8.1 More

Fig. 9.16 Osprey spray deposition process. Source: Ref 9.9 More

Fig. 10.24 (a) Fractured Spray dry agglomerate of WC-Co. (b) Cross section of the agglomerates. More

Fig. 32 Individual phases in induction heating and spray quenching in the workpiece surface layer and corresponding temperature-diameter diagrams. Source: Ref 15 , 27 More

Fig. 1.1 The high-pressure cold spray process uses a high-pressure gas heater and a high-pressure powder feeder to inject the spray powder upstream of the nozzle throat. This provides the very high particle velocities that enable this process to deposit a wide range of metals and some other More

Fig. 1.4 The low-pressure cold spray process uses a low-pressure powder feeder to inject the spray powder downstream of the nozzle throat, directly into the supersonic diverging section of the nozzle. The system is lighter and less expensive but more limited in materials. More

Fig. 1.9 Early Russian cold gas dynamic spray system used to deposit a wide range of metals and some ceramic-metal composites. Courtesy of Anatolii Papyrin More