Precise grinding combined control method

Abstract

The invention belongs to the class of mechanical methods, in particular to a precise grinding combined control method. The method is characterized in that a grinding wheel main shaft unit is supported by a hydrostatic guide rail, and the grinding wheel main shaft unit is driven by a linear servo motor to make advancing and backing motion in the sliding direction of the hydrostatic guide rail; a processed part is supported by a hydrostatic bearing, and the processed part is driven by a torque servo motor to make rotating motion around the revolving center of the hydrostatic bearing; the linear servo motor and a linear position sensor are connected with a linear servo driver, the torque servo motor and an angle position sensor are connected with a torque servo driver, the linear servo driver and the torque servo driver are connected with a precise grinding controller, a grinding force observing unit is further arranged, the linear servo driver and the torque servo driver are respectively connected with the input interfaces of the grinding force observing unit, and the output interface of the grinding force observing unit is connected with the precise grinding controller. The precise grinding combined control method is scientific and reasonable, has great adaptability to the variation of grinding wheel states and different material properties of the part, and can realize a target of carrying out the combined machining of the precise profile and the high-quality surface at a time.

Description

technical field [0001] The invention belongs to the category of mechanical methods, in particular to a precision grinding compound control method for relatively difficult-to-machine materials. Background technique [0002] Precision grinding is one of the important processing methods in the field of machinery manufacturing, and is widely used to process precision parts to obtain high-precision dimensions, contours and smooth surfaces. However, in recent years, with the development of new materials and advanced functional components, the proportion of difficult-to-machine materials such as superhard alloys, hard brittleness, and high plasticity in precision grinding applications has become higher and higher, and precision grinding equipment has become more and more difficult. It can meet the comprehensive index requirements of contour accuracy and surface quality, which leads to the widespread use of precision grinding and grinding and polishing manufacturing processes in ser...

AI Technical Summary

Problems solved by technology

[0003] The above-mentioned segmented manufacturing process of precision grinding and grinding and polishing not only affects the grinding efficiency of difficult-to-machine parts, but also hinders the further improvement of the processing effect during the transfer process of the processed parts between equipment

For parts that are difficult to machine such as superhard alloys, hard and brittle, and high plasticity, there is still a lack of an efficient and compound precision grinding method

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