Transporting device capable of preventing stacking of bimetallic strips

Abstract

The invention discloses a transporting device capable of preventing stacking of bimetallic strips, and relates to the technical field of manufacturing for temperature-control electronic components. The transporting device disclosed by the invention comprises a transporting groove body, a press sheet and a power mechanism used for transporting the bimetallic strips on the transporting groove body, wherein the press sheet is arranged oppositely to the groove part of the transporting groove body through an adjustment mechanism arranged on the transporting groove body; a transporting channel allowing the bimetallic strips to enter one by one is formed between the press sheet and the transporting groove body; and the height of the transporting channel can be adjusted through the adjustment mechanism. According to the transporting device capable of preventing the stacking of the bimetallic strips, which is disclosed by the invention, the press sheet is arranged on the transporting groove body through the adjustment mechanism and arranged oppositely to the groove part of the transporting groove body, the transporting channel allowing the bimetallic strips to enter one by one is formed between the press sheet and the transporting groove body, and the height of the transporting channel can be adjusted through the adjustment mechanism; and the transporting channel with the controllable height is capable of preventing the bimetallic strips from a stacking phenomenon, and reliable in working, thus the production efficiency is increased.

Description

technical field [0001] The invention relates to the technical field of manufacturing temperature-controlled electronic components, and more specifically, relates to a material conveying device capable of preventing stacking of bimetallic sheets. Background technique [0002] The bimetal sheet is also called a thermal bimetal sheet. Since the thermal expansion coefficients of each component layer are different, when the temperature changes, the deformation of the active layer is greater than that of the passive layer, so that the whole bimetal sheet will bend to the side of the passive layer. , then the curvature of the composite material changes to produce deformation. Among them, the higher expansion coefficient is called the active layer; the lower expansion coefficient is called the passive layer. However, with the expansion of bimetallic application fields and the advancement of combination technology, three-layer, four-layer, and five-layer bimetals have appeared in mo...

AI Technical Summary

Problems solved by technology

[0004] However, in actual production, when using a vibrating feeder to transport bimetallic sheets, the arrangement of bimetallic sheets is uncontrollable. Two adjacent bimetallic sheets are likely to be next to each other, and the thickness of the bimetallic sheets is only 80 degrees. Left and right, lamination is likely to occur during vibratory feeding or the contact edge of the two metal sheets may be laminated, which has a great impact on the subsequent processing procedures. If lamination occurs, manual processing is required. The process of manual adjustment is undoubtedly It increases the workload of the operator, reduces the production efficiency and increases the production cost

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