Solar power generation component manufacturing device

Abstract

The invention relates to the field of solar device manufacturing, and discloses a solar power generation component manufacturing device which comprises a rack and a lifting mechanism, an electrode chuck is installed at the lower end of the lifting mechanism and used for clamping a tool anode, a tool electrode is horizontally arranged, a water tank is installed on the rack and arranged below the lifting mechanism, and the lifting mechanism is arranged below the water tank. The water tank is horizontally arranged, a clamp is installed at the bottom of the water tank and used for clamping a die to be machined, a cavity is formed in the middle of the die, two rows of fins are arranged on the lower surface, corresponding to the die, of the tool electrode, the tool electrode is provided with liquid drainage holes in the position between the two rows of fins, and the liquid drainage holes are connected with a working liquid circulation system. According to the manufacturing device, electric corrosion forming machining can be conducted on the casting groove of the mold, the electric corrosion products can be discharged in the machining process, it is guaranteed that electric corrosion machining is conducted stably, and machining is stable and reliable.

Description

technical field [0001] The present invention relates to the field of solar device manufacturing, and more particularly, to a device for manufacturing solar power generation components. Background technique [0002] In the solar power generation equipment, the radiator is an indispensable component. With the continuous development of the current equipment, higher requirements for heat dissipation are put forward. In air-cooled heat dissipation, in order to improve the heat dissipation efficiency, the more commonly used method is to improve Heat dissipation area, in order to increase the heat dissipation area, the number and area of ​​heat sinks will be increased on the radiator shell, that is, the number of heat sinks will be increased, the distance between adjacent heat sinks will be reduced, and the heat sinks will be made into curved or S-shaped, etc. The special-shaped heat sink has improved the heat dissipation area compared with the traditional flat heat sink. For heat...

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Problems solved by technology

For heatsink housings with a high number of profiled fins (refer to figure 1 ) for processing, two processing techniques are generally used, one is: the radiator shell and heat sink are independently molded and processed, and then the two are assembled. The biggest problem of this method is the difficulty of assembly. The radiator shell is not a one-piece structure, the heat transfer efficiency is not good, and the heat dissipation effect is not very good

[0003] The second is to use the integrated casting of the radiator shell and the heat sink, but this processing method has relatively high requirements for the casting mold. This type of mold (refer to figure 2 ) are generally high-hardness metal workpieces or alloy workpieces. Due to the large number of casting grooves used for casting heat sinks, the depth is large, and the thickness is small, it is difficult to process these casting grooves by traditional machining, and traditional processing methods cannot meet the requirements. Processing requirements

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