Full-automatic saw blade cutting type numerical control processing equipment

Abstract

The invention discloses full-automatic saw blade cutting type numerical control processing equipment. The full-automatic saw blade cutting type numerical control processing equipment comprises a lathebody, a transverse beam arranged above the lathe body, a main shaft mounted on the transverse beam and a saw blade arranged at the end part of the main shaft, wherein lateral stand columns are symmetrically arranged at two sides of the lathe body; two ends of the transverse beam are fixedly connected with the lateral stand columns; the transverse beam is provided with an X-axis servo motor for driving the main shaft to move along the X-axis direction; each lateral stand column is provided with a Y-axis servo motor for driving the lateral stand column to move along the Y-axis direction; the transverse beam is provided with a Z-axis servo motor for driving the main shaft to move along the Z-axis direction; the transverse beam is provided with a C-axis servo motor for driving the main shaftto rotate along the C-axis direction; the X-axis direction, the Y-axis direction and the Z-axis direction are mutually vertical; the C-axis direction is parallel to the upper surface of the lathe body; and the Z-axis direction is vertical to the C-axis direction. The full-automatic saw blade cutting type numerical control processing equipment disclosed by the invention can be used for carrying out360-degree cutting at any angle; and the cutting efficiency is ensured and the cutting precision also can be greatly improved.

Description

technical field [0001] The invention relates to the field of sawing processing equipment, in particular to a fully automatic saw blade cutting numerical control processing equipment. Background technique [0002] At present, known equipment that adopts saw blades for cutting includes sliding table saws, electronic sizing saws, table saws, and similar equipment. The processing of these equipments can only complete the cutting of different angles and different sides by turning the workpiece under manual operation. Poor positioning accuracy leads to poor cutting accuracy. For products with dimensional accuracy requirements within 1mm, special tooling and fixtures must be used to assist in positioning. Cutting, it is also difficult to ensure the cutting accuracy, and the operation is complicated, which requires high workers, and it is difficult to process and produce efficiently in batches. Especially when cutting polygons such as triangles, pentagons, or other combined special...

AI Technical Summary

Problems solved by technology

The processing of these equipments can only complete the cutting of different angles and different sides by turning the workpiece under manual operation. Poor positioning accuracy leads to poor cutting accuracy. For products with dimensional accuracy requirements within 1mm, special tooling and fixtures must be used to assist in positioning. cutting, it is also difficult to guarantee the cutting accuracy, and the operation is complicated, the requirements for workers are high, and it is difficult to process and produce efficiently in batches

Especially when cutting polygons such as triangles, pentagons, or other combined special-shaped materials and cannot be processed by other methods, only sawing and high angular accuracy are required, and it is difficult to complete products that meet the requirements with manual assistance, and the market has a high demand for product accuracy. The requirements are getting higher and higher, and traditional processing is increasingly unable to meet the demand

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