MASTERCAM X5 -TURNMILL Problem 01 by NIlesh Gunjal (ME CAD/CAM)

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NILESH GUNJAL

NILESH GUNJAL

7 жыл бұрын

Turning specific operations include:
Turning
Turning
This operation is one of the most basic machining processes. That is, the part is rotated while a single point cutting tool is moved parallel to the axis of rotation.[1] Turning can be done on the external surface of the part as well as internally (boring). The starting material is generally a workpiece generated by other processes such as casting, forging, extrusion, or drawing.
Tapered turning
a) from the compound slide b) from taper turning attachment c) using a hydraulic copy attachment d) using a C.N.C. lathe e) using a form tool f) by the offsetting of the tailstock - this method more suited for shallow tapers.[2]
Spherical generation
The proper expression for making or turning a shape is to generate as in to generate a form around a fixed axis of revolution. a) using hydraulic copy attachment b) C.N.C. (computerised numerically controlled) lathe c) using a form tool (a rough and ready method) d) using bed jig (need drawing to explain).[2]
Hard turning
Hard turning is a turning done on materials with a Rockwell C hardness greater than 45. It is typically performed after the workpiece is heat treated.[3]
The process is intended to replace or limit traditional grinding operations. Hard turning, when applied for purely stock removal purposes, competes favorably with rough grinding. However, when it is applied for finishing where form and dimension are critical, grinding is superior. Grinding produces higher dimensional accuracy of roundness and cylindricity. In addition, polished surface finishes of Rz=0.3-0.8z cannot be achieved with hard turning alone. Hard turning is appropriate for parts requiring roundness accuracy of 0.5-12 micrometres, and/or surface roughness of Rz 0.8-7.0 micrometres. It is used for gears, injection pump components, hydraulic components, among other applications.[3]
Facing
Facing
Facing in the context of turning work involves moving the cutting tool at right angles to the axis of rotation of the rotating workpiece.[1] This can be performed by the operation of the cross-slide, if one is fitted, as distinct from the longitudinal feed (turning). It is frequently the first operation performed in the production of the workpiece, and often the last-hence the phrase "ending up".
Parting
This process, also called parting off or cutoff, is used to create deep grooves which will remove a completed or part-complete component from its parent stock.
Grooving
External grooving
Face grooving
Grooving is like parting, except that grooves are cut to a specific depth instead of severing a completed/part-complete component from the stock. Grooving can be performed on internal and external surfaces, as well as on the face of the part (face grooving or trepanning).
Non-specific operations include:
Boring
Enlarging or smoothing an existing hole created by drilling, moulding etc.i.e. the machining of internal cylindrical forms (generating) a) by mounting workpiece to the spindle via a chuck or faceplate b) by mounting workpiece onto the cross slide and placing cutting tool into the chuck. This work is suitable for castings that are too awkward to mount in the face plate. On long bed lathes large workpiece can be bolted to a fixture on the bed and a shaft passed between two lugs on the workpiece and these lugs can be bored out to size. A limited application but one that is available to the skilled turner/machinist.[2]
Drilling
is used to remove material from the inside of a workpiece. This process utilizes standard drill bits held stationary in the tail stock or tool turret of the lathe. The process can be done by separately available drilling machines.
Knurling
Knurling
The cutting of a serrated pattern onto the surface of a part to use as a hand grip using a special purpose knurling tool.[2]
Reaming
The sizing operation that removes a small amount of metal from a hole already drilled.[2] It is done for making internal holes of very accurate diameters. For example, a 6mm hole is made by drilling with 5.98 mm drill bit and then reamed to accurate dimensions.
Morph between two surfaces; Curve 5 axis tool path; Positional facing; Blend tool path ; Face Rough; Finish ; Surface rough pocket; Morph between two curves; Turn mill tool path; Highspeed dynamic estmill tool path; Rotary 4 axis tool path; Engraving ; Nesting; Drilling ; Pocketing; Contouring; Lathe perations; Milling machine operations; Dynamic tool path ; Cad; Cam; Canned cycles; Grooving; C axis operations;

Пікірлер: 3
@leanhkhang3156
@leanhkhang3156 4 жыл бұрын
Thanks.
@jahashaik5163
@jahashaik5163 5 жыл бұрын
Sir please do one turning c-axis program od key way,face hexagonal
@andresruiz-uv8sf
@andresruiz-uv8sf 5 жыл бұрын
muy bonito y todo pero el codigo G te lo arrojaria mal asi
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