Search Results for Inconel 600

Fig. 98 Depletion of chromium measured at a grain-boundary in Inconel 600. More

Fig. 10 Photographs of a ruptured Inconel 600 steam generator tube. (a) Tube rupture. (b) SEM fractograph showing the IG fracture surface. (c) Micrograph showing the IG attack that extended from the OD surface More

Fig. 21 Cooling rate as a function of time for an Inconel 600 probe quenched into water. The vertical dashed line indicates the Leidenfrost temperature. More

Fig. 27 Tensi design of Inconel 600 multiple-thermocouple probe. Source: Ref 122 More

Fig. 10 Photographs of a ruptured Inconel 600 steam generator tube. (a) Tube rupture. (b) Scanning electron microscopy fractograph showing the intergranular (IG) fracture surface. (c) Micrograph showing the IG attack that extended from the outside diameter surface More

Fig. 11 Time-temperature/carbide precipitation diagram for Inconel 600 having various carbon contents. Broken-line curves show time below solution temperature at the center of a 250 mm (10 in.) diameter round during air cooling from the indicated temperatures. Nominal composition: Ni-0.0 x %C More

Fig. 9 Contact resistance versus time behavior of Inconel 600 probe quenched in (a) 0.001 vol% nanofluid (NF), (b) 0.005 vol% NF, (c) 0.01 vol% NF, (d) 0.05 vol% NF, (e) 0.1 vol% NF, and (f) 0.5 vol% NF. Source: Ref 131 More

Fig. 62 Inconel 600 probe currently cited in ISO 9950 and ASTM D6200. Dimensions in mm More

Fig. 64 Inconel 600 Tensi probe assembly More

Fig. 49 Cooling of a 12.5 × 60 mm (0.5 × 2.4 in.) Inconel 600 cylinder with a type K thermocouple inserted to the geometric center. Preheated to 850 °C (1560 °F), immersion into a 20% aqueous polymer (as-supplied concentrate), quenchant solution at 40 °C (105 °F). (a) Polyalkylene glycol (PAG More

Fig. 27 (a) Continuous oxide on steel. Nital etch. (b) Intergranular oxidation on Inconel 600 superalloy More

Fig. 15 Longitudinal residual stress and percent cold work distributions in belt-polished Inconel 600 tubing. More

Fig. 14 (a) Longitudinal residual-stress and (b) percent cold work distributions in belt-polished Inconel 600 tubing More

Fig. 8 Rewetting time and temperature variation across the length of an Inconel 600 probe quenched in CuO nanofluids. Source: Ref 22 More

Fig. 16 Longitudinal residual stress as a function of the quantity (1 + cos θ) for a 63-mm (2.5-in.) Inconel 600 U-bend. More

Fig. 15 Longitudinal residual stress as a function of the quantity (1 + cos θ) for a 63 mm (2.5 in.) Inconel 600 tubing U-bend More

Fig. 45 Ratio of maximum axial stress to maximum shear stress versus values of shear strain at failure for Inconel 600. Source: Ref 45 More

Fig. 119 Variation of cooling curve performance with packing density. The 12.5 × 60 mm (0.5 × 2.4 in.) Inconel 600 probe was placed at the center of the load. More

Fig. 7 Cooling curves and cooling rate curves obtained at the geometric center of an Inconel 600 probe for CuO nanofluids of varying concentration. Source: Ref 22 More

Fig. 13 Effect of bath temperature on cooling curves measured in the center of an Inconel 600 probe (12.5 mm diameter × 60 mm) quenched into water flowing at 0.25 m/s. Source: Ref 34 More