Vibration Feeder

Abstract

The invention relates to a vibrating feeder, which includes a base, a vibrating plate, an electrical installation seat, an air blowing component, an optical fiber sensing component, a direct vibration feeding body, an air jet component, and an optical fiber detection component, and the air blowing component and the optical fiber sensing component are respectively arranged On the vibrating plate, the air blowing hole of the air blowing component is located on the side wall of the sieve material track; the direct vibration feeding body is installed on the base, and the direct vibration feeding body has a feeding track connected with the sieve material track. The above-mentioned vibrating feeder achieves accurate screening of materials, improves the screening efficiency of grooved materials, and changes the way in which materials are unloaded from the end of the feeding track in the prior art, so that the feeding track can ensure the supply speed. It can also achieve supply accuracy, greatly improve production efficiency, reduce equipment maintenance costs, and realize high-speed and stable conveying and feeding.

Description

technical field [0001] The invention relates to the technical field of material screening and processing, in particular to a vibrating feeder. Background technique [0002] At present, the vibrating feeder usually discharges the material from the end of the direct vibrating mechanical arm to the receiving equipment. figure 1 A schematic diagram of the working state position structure of the vibrating feeder 80 and the material receiving device 90 is shown, figure 2 It is a schematic structural view of the grooved material 70 , the grooved material 70 has a groove 71 , and the groove 71 is adjacent to the side of the grooved material 70 . This type of grooved material 70 is a spare part for devices such as smartphones and tablet computers. The material receiving device 90 includes a detector, and the end of the direct vibration mechanical arm 81 of the vibrating feeder 80 sends out the screened and processed grooved material 70 to the turntable 91 of the material receiving...

AI Technical Summary

Problems solved by technology

[0003] However, for the grooved material 70, the traditional material selection method will often lead to "reverse material" of the material, that is, some materials will screen and output the wrongly arranged materials due to the wrong judgment of the vibrating feeder, "reverse material The emergence of "will bring unnecessary troubles to the later production and processing, and even lead to poor assembly of later products.

Moreover, the end structure of the traditional direct-vibration mechanical arm 81 is simple, and when the material falls freely from the end of the direct-vibration mechanical arm 81 into the process of continuously rotating the turntable 91, the material is removed from the end of the direct-vibration mechanical arm 81. The process is first partially exposed, then completely exposed, and finally falls from the end of the direct vibration mechanical arm 81, so the state of the falling material tends to be slightly inclined relative to the state at the end of the direct vibration mechanical arm 81. state, and because the turntable 91 is in the state of circular rotation, the materials falling into the turntable 91 are often not arranged in the turntable 91 according to the predetermined method, or even arranged in disorderly order. 91 away from the turntable, which affects the clamping of the material by the material clamping device, which in turn affects the efficiency of the subsequent processing of the material

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