Motor rotor winding post-treatment equipment

Abstract

The invention discloses motor rotor winding post-treatment equipment, which comprises a rack (1), wherein the rack (1) is provided with a press-in mechanism (3) which presses a shaft of a motor rotor in place, the rack (1) is further provided with a winding pin extruding mechanism (2), and the press-in mechanism (3) is located below the winding pin extruding mechanism (2). The winding pin extruding mechanism (2) comprises an extruding cylinder core (23) and a first cylinder (21), wherein the diameter of the upper part of the extruding cylinder core (23) is large, the diameter of the lower part of the extruding cylinder core (23) is small, the extruding cylinder core (23) is provided with a plurality of through slots (231), a piston rod of the first cylinder (21) is connected with a telescoping disc (22), and the extruding cylinder core (23) is arranged in a center hole of the telescopic disc (22). The motor rotor winding post-treatment equipment is simple in structure, and the cost of producing the equipment is low, thereby being capable of reducing the processing cost of the motor rotor, and being also capable of improving the processing efficiency of the motor rotor at the same time.

Description

Technical field: [0001] The invention relates to the technical field of motor rotor processing equipment, in particular to a post-processing equipment for motor rotor winding. Background technique: [0002] Such as figure 1 , 2 Shown is a schematic diagram of the structure of a motor rotor. During the production process, copper wires need to be wound on the motor rotor a, as shown in figure 1 As shown in , there are several winding feet a2 on the motor rotor a, and the copper wire will be wound around the winding feet a2 when winding the wire. The winding feet a2 are straight, so that the copper wires will slide off from them Therefore, after the winding is completed, it is necessary to bend the winding foot a2 to tighten the copper wire. When dealing with this bending work in the prior art, some use manual bending operations, and some use manual bending operations. The high-precision mechanical arm is used for bending, and the production efficiency is low if manual bendi...

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Problems solved by technology

[0002] like figure 1 , 2 Shown is a schematic diagram of the structure of a motor rotor. During the production process, copper wires need to be wound on the motor rotor a, as shown in figure 1 As shown in , there are several winding feet a2 on the motor rotor a, and the copper wire will be wound around the winding feet a2 when winding the wire. The winding feet a2 are straight, so that the copper wires will slide off from them Therefore, after the winding is completed, it is necessary to bend the winding foot a2 to tighten the copper wire. When dealing with this bending work in the prior art, some use manual bending operations, and some use manual bending operations. The high-precision mechanical arm is used for bending, and the production efficiency is low if manual bending is used, and the labor intensity of the operator is very high. The labor cost of producing the motor rotor a will be relatively high, while the use of high-precision mechanical lead to very high processing costs

[0003] Additionally, if figure 2 In order to maintain the spacing to facilitate winding, the main shaft a1 of the motor rotor a is generally not installed in place during winding, so the main shaft a1 needs to be pressed into place after the winding is completed. In the existing production process , after the winding is completed, it is generally necessary to set up a spindle installation process separately to complete, which will reduce production efficiency and increase processing costs

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