Sealed conveying device for fully automatic stacking of magnetic material billets

Abstract

The invention discloses a seal conveying device for full-automatically stacking magnetic material blanks. The device comprises a box stacking cabin, multiple conveying main channel cabins, a manual box feeding cabin, and a cabin box bracket for supporting the manual box feeding cabin and the conveying main channel cabins; an output joint is arranged at the left end of the box stacking cabin, and an input joint connected with the conveying main channel cabins is arranged at the right end; and the box stacking cabin comprises an ink box base pushing mechanism, a box stacking main box body, and an ink box cover pushing mechanism, an ink box and ink box cover arranging mechanism, a manipulator mechanism and a lifting table mechanism arranged in the box stacking main box body. Through serial seal connection of the box stacking cabin, the multiple conveying main channel cabins and the manual box feeding cabin, no oxygen and nitrogen containing of the whole seal conveying device are realized; and through mutual cooperation of mechanisms in the box stacking cabin, the multiple conveying main channel cabins and the manual box feeding cabin, full-automatic stacking and conveying of the magnetic material blanks are realized.

Description

technical field [0001] The invention relates to the conveyance of magnetic material blanks, in particular to a sealed conveying device for fully automatic stacking of magnetic material blanks. Background technique [0002] The magnetic material manufacturing technology in the domestic magnetic material industry is progressing with each passing day, and the pre-pressing section of the magnet blank is gradually being replaced by automatic production; however, after the automatic magnetic powder press presses the magnet blank, the operator still needs to load the magnet blank Store in a sealed nitrogen-filled and oxygen-exhausting storage box for turnover, and then send it to the sintering furnace to sinter and shape the magnet blank; sintering in the sintering furnace; in the above-mentioned manual operation, there are the following problems: First, the container used for storing the magnet blanks needs to be manually inserted into the operation, so it is difficult to achieve ...

AI Technical Summary

Problems solved by technology

[0002] The magnetic material manufacturing technology in the domestic magnetic material industry is progressing with each passing day, and the pre-pressing section of the magnet blank is gradually being replaced by automatic production; however, after the automatic magnetic powder press presses the magnet blank, the operator still needs to load the magnet blank Store in a sealed nitrogen-filled and oxygen-exhausting storage box for turnover, and then send it to the sintering furnace to sinter and shape the magnet blank; sintering in the sintering furnace; in the above-mentioned manual operation, there are the following problems: First, the container used for storing the magnet blanks needs to be manually inserted into the operation, so it is difficult to achieve an oxygen-free container. Nitrogen, there will always be a small amount of oxygen infiltrating, and the small amount of oxygen due to leakage will vary from container to container

Second, the magnet blank may be oxidized in a small amount of oxygen-containing environment, and the degree of oxidation is different due to the different oxygen content of each container, so that the magnetic energy of the sintered magnet is directly affected, resulting in magnetic Low energy, unstable, easy to break

Third, when stacking the magnet blanks by manual operation, the blanks are easily cracked and deformed due to the uneven force of picking up the pieces, which directly affects the sintering and shaping

Fourth, the operation link of stacking magnet blanks by manual operation requires more operators to work and consumes a lot of labor

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