Numerical control double-station mould engraving and milling machine

Abstract

The invention relates to a machine tool, in particular to a numerical control double-station mould engraving and milling machine. A foundation, a left vertical shaft and a right vertical shaft are arranged on a frame body of the machine in a matched way; a beam is arranged above the left vertical shaft and the right vertical shaft in a matched way; the beam is connected with a left X-axle sliding table and a right X-axle sliding table through a left X-axle linear sliding block guide rail pair and a right X-axle linear sliding block guide rail pair in a matched way and the beam is in transmission fit with the left X-axle sliding table and the right X-axle sliding table through a left X-axle ball screw pair and a right X-axle ball screw pair; the foundation is connected with a left Y-axle sliding table and a right Y-axle sliding table through a left Y-axle linear sliding block guide rail pair and a right Y-axle linear sliding block guide rail pair in a matched way and the foundation is in transmission fit with the left Y-axle sliding table and the right Y-axle sliding table through a left Y-axle ball screw pair and a right Y-axle ball screw pair; and the left X-axle sliding table and the right X-axle sliding table are connected with a left Z-axle sliding table and a right Z-axle sliding table through a left Z-axle linear sliding block guide rail pair and a right Z-axle linear sliding block guide rail pair in a matched way and the left X-axle sliding table and the right X-axle sliding table are in transmission fit with the left Z-axle sliding table and the right Z-axle sliding table through a left Z-axle ball screw pair and a right Z-axle ball screw pair. The efficiency of the numerical control double-station mould engraving and milling machine is two times that of the conventional machine tool.

Description

Technical field [0001] The invention relates to a machine tool, in particular to a numerical control double-station mold engraving and milling machine. Background technique [0002] Shoe molds, blade molds, bottle molds and other molds, as well as general metal parts, generally have the same requirements for dimensions, tolerances, surface roughness and other technical indicators during the production process. In the mass production process, such as using traditional processing The method requires one-by-one processing and production on a machine tool. The parts processed per unit time are limited by the number of machine tools and the number of operators. In addition, the operating proficiency of operators varies from good to bad, and the requirements in the production cycle are relatively limited. The productivity within the time limit is bound to be greatly restricted. In addition, some parts or molds are required to be matched in pairs during the processing and production pr...

AI Technical Summary

Problems solved by technology

[0002] Shoe molds, blade molds, bottle molds and other molds, and general metal parts generally have the same technical specifications in size, tolerance, surface roughness and other requirements during the production process. In the process of mass production, if traditional processing The method needs to be processed and produced one by one on a machine tool. The parts processed and produced per unit time are limited by the number of machine tools and the number of operators. In addition, the operating proficiency of the operators varies, and the requirements in the production cycle are relatively limited. The productivity within a certain period of time is bound to be greatly restricted

And in the processing and production process of some parts or molds, it is difficult to guarantee the required pairing by traditional processing methods.

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