CNC Turned Parts CNC lathe machining parts is an important product in the field of mechanical processing.
Definition: CNC Turned Parts are parts processed using a CNC Lathe. A CNC lathe is a high-precision and high-efficiency machine tool that can perform precise turning of workpieces according to pre programmed instructions.
Machining process: On a lathe, turning tools are mainly used to perform machining on rotating workpieces. In addition, the lathe can also be used in conjunction with drill bits, reamers, taps, dies, and knurling tools for corresponding processing. CNC lathe machining is mainly used for machining shafts, discs, sleeves, and other workpieces with rotating surfaces.
Features:
High precision: CNC lathe machining can achieve micrometer level machining accuracy, meeting the CNC Turned Parts machining needs of high-precision parts.
High efficiency: Through pre programmed instructions, CNC lathes can achieve automated machining, greatly improving machining efficiency.
Strong adaptability: CNC lathes can process parts of various shapes and sizes, with strong adaptability.
Material diversity: CNC lathes can process various materials, including steel, stainless steel, special materials, etc.
Application: CNC Turned Parts are widely used in fields such as mechanical manufacturing, automotive manufacturing, aerospace, medical devices, etc. Especially in situations of high precision, high efficiency, and large-scale production, CNC lathe machining has significant advantages.
CNC Turned Parts are parts processed by CNC lathes, which have the characteristics of high precision, high efficiency, strong adaptability, and material diversity, and are widely used in various industries.
Axis parts usually have the characteristics of a rotating body, and their machining process generally includes the following steps:
Material preparation: Select suitable materials such as carbon steel, alloy steel, stainless steel, etc. based on the usage requirements and performance requirements of the shaft. The size and shape of the material should meet the margin requirements for subsequent processing.
Rough manufacturing: Common methods for rough manufacturing include forging, casting, and bar cutting. Forging can improve the internal structure of materials and increase the strength of shafts; Casting is suitable for shafts with complex shapes and large batches; Bar cutting is suitable for smaller and simpler shaped shafts.
Turning machining: This is the main process of shaft machining.
Rough turning: removes most of the excess material to provide a rough shape and size for subsequent processing.
Precision machining: Meet the final dimensions and surface roughness requirements of the shaft. Including machining of outer circles, end faces, chamfers, threads, etc.
Heat treatment: According to the material and usage requirements of the shaft, corresponding heat treatments such as quenching, tempering, carburizing, etc. are carried out to improve the hardness, wear resistance, and strength of the shaft.
Surface treatment: such as electroplating, oxidation, painting, etc., to improve the corrosion resistance and aesthetics of the shaft.
Quality inspection: Use measuring tools such as calipers, micrometers, roundness meters, etc. to inspect the size, shape, position accuracy, and surface roughness of the shaft to ensure that it meets the design requirements.