Search Results for 304L

Fig. 13 Effect of silicon and manganese content on the oxygen content of 304L powders More

Fig. 6 Isocorrosion diagram of type 304L stainless steel in highly concentrated H 2 SO 4 . Source: Ref 24 More

Fig. 3 Corrosion rates of 304L, 310L (2521LC), and A610 (1815LC Si) in boiling HNO 3 . Source: Ref 5 More

Fig. 28 Preferential corrosion of the 304L stainless steel layer in a composite tube. Corrosion occurs at the edge of the bolt-on casting in a primary air port and extends out toward the fire-side crown of the tube More

Fig. 31 Cracks revealed by visible dye penetrant testing in a 304L composite floor tube. Note also the cracking along the tube/membrane interface and in the membrane. More

Fig. 32 Results from constant stress SCC tests of 304L shown as a function of temperature in a hydrated mixture of Na 2 S and NaOH. Solid circles are data points for specimens that failed during the test. Open circles are for specimens that either cracked, but did not fail during the test More

Fig. 33 Cracks revealed by visible dye penetrant testing on 304L and weld overlay (WO) 625 composite tubes that form primary air-port openings. (a) Craze cracks on 304L. (b) Membrane cracks on WO625. (c), Circumferential cracks on 304L. (d) Tube-membrane weld cracks on WO625 More

Fig. 7 Effect of silicon and manganese on the oxygen content of 304L powders More

Fig. 4 Transition zone between the filler metal and a PM 304L sensor boss (7.0 g/cm 3 density) welded to a wrought stainless steel exhaust pipe. Etched More

Fig. 16 Scanning electron microscopy image of the surface of an as-sintered 304L part showing chromium nitride precipitates along the grain boundaries and in the grains. Sintering atmosphere was dissociated ammonia. More

Fig. 3(d) Mechanical properties and dimensional change of hydrogen sintered 304L as functions of sintering temperature and sintered density (duration 45 min.) More

Fig. 6 Fatigue curves for vacuum-sintered 304L and 316L as a function of sintered density. Sintered densities of 304L and 316L were 6.51 and 6.54 g/cm 3 , respectively. Sintered densities of 304L9 were 6.90 and 6.89 g/cm 3 , respectively. Sintering temperature was 1288 °C (2350 °F). Source More

Fig. 2 (a) Flow lines in a 304L stainless steel high-temperature forging revealed by a macroetch and optical microscopy. (b) Microstructure of long dislocation boundaries in 304L stainless steel revealed by transmission electron microscope (TEM) following a moderate deformation, equivalent von More

Fig. 3 Flank wear growth as function of density. P/M material is 304L stainless steel. V , speed; f , feed More

Fig. 4 Effect of relative density on drill life of 304L P/M material More

Fig. 16 Type 304L stainless steel, cold rolled 90% at 25 °C (75 °F) and annealed at 600 °C (1110 °F) for 1 h. Early recrystallized grains with annealing twins in a highly “messy” matrix. Thin-foil TEM specimen prepared parallel to the rolling plane. Original magnification 21,600×. Source: Ref More

Fig. 51 Comparison of effective stress-strain curves determined for type 304L stainless steel in compression, tension, and torsion. (a) Cold-working and warm-working temperatures. (b) Hot-working temperatures. Source: Ref 66 More

Fig. 2 Comparison of effective stress-strain curves determined for type 304L stainless steel in compression, tension, and torsion. (a) Cold working and warm working temperatures. (b) Hot working temperatures. Source: Ref 2 More

Fig. 14 Flow stress vs. amount of deformation for 304L stainless steel at (a) cold- and warm-working temperatures and (b) hot-working temperatures. Source: Ref 5 , 6 More

Fig. 5 Weld cross sections produced in 304L stainless steel samples at sharp focus setting for 100 kV, 10 mA beams at a work distance of 229 mm (9 in.) and travel speed of 17 mm/s −1 (0.7 in./s) on (a) welder 1 (peak power density = 520.0 kW/mm −2 ) and (b) welder 2 (peak power density More