The influencing parameters are voltage, tool feed rate and electrolyte discharge rate with mixing levels.
The procedure is based on chip thickness modification by means of the fast correction of the tool feed rate.
The spindle rotation frequency was assumed n = 10,000-20,000 rpm and tool feed rate range was assumed S m = 50-300 mm/min (Table 1).
The peak values and the direction angles of cutting forces changed with tool feed rate, crystal orientation, and the cutting direction.
Amorphous silicon phase was generated significantly at one side (the exit side of tool feed) of the dimples as tool feed rate increased.
This indicates 90.5% cost savings using multilayer TiN coated inserts by the adoption of a cutting speed of 200 m/min coupled with a tool feed rate of 0.21 mm/rev and depth of cut of 0.4 mm.
The results show that the generation of complex 3D-structured surfaces is affected by many factors which include point spacing, track spacing, swing speed, swing angle, head speed, tool pressure, tool radius, feed rate, polishing depth, polishing cloth, polishing strategies, polishing slurry, etc.
The following kinds of data may be included on the manuscript: (1) sequence of operations, (2) kind of operation, (3) depth of cut, (4) coordinate dimensions for the centre of the cutting tool, (5) feed rate, (6) spindle speed, (7) tool number, and (8) other miscellaneous operations.
Process parameters like cutter (tool) speed, feed rate and depth of cut with constant rotation of workpiece on A-axis are chosen while machining Brass material under dry condition.
Process parameters (tool nose radius, tool rake angle, feed rate, cutting speed, depth of cut and cutting environment) are investigated using Taguchi's robust design methodology.
The six parameters i.e. tool nose radius, tool rake angle, feed rate, cutting speed, cutting environment (dry, wet and cooled) and depth of cut are varied to investigate their effect on output responses.
