Search Results for turning

Figure 13.23: Turning: (a) terminology adopted for describing the geometries of turning tools [ 13 ]; and (b) chip equivalent. Reprinted by permission of Pearson Education, Inc. More

Fig. 6 Elastic stress distribution: convex surfaces in contact. (a) Rolls turning at same speed. (b) Rolls turning at different speeds More

Fig. 2.14 Water is turning to ice during the horizontal hold More

Fig. 21.7 Some basic operations performed on turning equipment. (a) Facing. (b) Straight turning. (c) Taper turning. (d) Grooving and cutoff. (e) Threading. (f) Tracer turning. (g) Drilling. (h) Reaming. (i) Boring. Cutting tool in black. Source: ASM 1989 More

Fig. 21.8 Terms applied to single-point turning tools. The side rake angle shown is positive. More

Fig. 10.2 Effect of cutting speed and feed on tool life during the turning of Ti-6Al-4V alpha-beta alloy More

Fig. 25 Micrograph of the blade fracture surface showing several turning gear imprints and the oxidized area (dotted line) More

Fig. 20 A dual-turret numerically controlled turning center with 16 tool stations. Courtesy of Cincinnati Milacron. Source: Ref 9 More

Fig. 22 Basic operations performed on turning equipment. (a) Facing. (b) Straight turning. (c) Taper turning. (d) Grooving and cutoff. (e) Threading. (f) Tracer turning. (g) Drilling. (h) Reaming. (i) Boring. Source: Ref 11 More

Fig. 33 Tool forces in turning. Source: Ref 14 More

Fig. 7.32 Bed of vertical turning and boring mill More

Fig. 7.33 Vertical turning and boring machine column More

Fig. 7.13 Free-machining alloys and products. (a) Stringy machining chips in turning of aluminum. (b) Aluminum screws, nuts, and bolts produced from free-machining alloys such as 6262 or 2011-T6 More

Fig. 5.63 Flow stress and workability of steels measured from the number of turns to failure in torsion tests as a function of temperature. (a) Flow stress. (b)δ. (c) Deformation capacity [ Ben 73 ] More

Fig. 8.12 Selection of single-turn vs. multiturn coils depending on the length-to-diameter ratio of the workpiece. From F. W. Curtis, High Frequency Induction Heating , McGraw-Hill, New York, 1950 ( Ref 1 ) More

Fig. 8.13 Typical proportions of various single turn coils. From F. W. Curtis, High Frequency Induction Heating , McGraw-Hill, New York, 1950 ( Ref 1 ) More

Fig. 8.22 Graphitizing of carbon using an induction coil with shorted end turns at top and bottom to restrict stray fields Source: Sohio Carborundum, Structural Ceramics Div. More

Fig. 8.25 Design of a single-turn, multiplace inductor for simultaneous brazing of different-size couplings in a single operation. From F. W. Curtis, High Frequency Induction Heating , McGraw-Hill, New York, 1950 ( Ref 1 ) More

Fig. 8.26 Single-turn, multiplace inductor with individual coils of copper tubing. From F. W. Curtis, High Frequency Induction Heating , McGraw-Hill, New York, 1950 ( Ref 1 ) More

Fig. 8.47 Use of a liner on a single-turn channel coil to provide a wider heating pattern on the workpiece. From F. W. Curtis, High Frequency Induction Heating , McGraw-Hill, New York, 1950 ( Ref 1 ) More