Electronic product carousel

Abstract

The utility model discloses a kind of electronic product turntable, including disc body, the disc body is provided with the disc groove for accommodating product and the disc wall around disc groove, the disc wall bottom is provided with the material-saving groove around disc groove along its length direction, the material-saving groove is separated into outer wall and inner wall by disc wall, the disc body stacked up is set for supporting support column between, the support column upper end is provided with positioning hole, the disc wall upper surface is provided with multiple downward recesses and forms respectively with support column matching column groove, the material-saving groove is formed in the downward protrusion of multiple respectively wrapping column groove support platform in column groove corresponding position, the support platform is provided with the positioning block corresponding with positioning hole. The utility model discloses disc body strengthens the structure stability of whole, forms multiple support matching structure of upper and lower positioning support, solves the problem that multiple stacked disc body is easily deformed, effectively improves electronic product single turnover quantity and the stable protection effect of product turnover.

Description

Technical Field

[0001] This utility model relates to the field of electronic product processing and turnover technology, and in particular to an electronic product turnover tray. Background Technology

[0002] In the production of electronic products, turntables are commonly used for turnover, such as for circuit boards. Turntables are essential processing and manufacturing components. To better utilize space, turntables are generally designed to be stackable. To save energy, turntables are typically made using thin-walled injection molding. This presents a challenge: how to design a thin-walled structure that provides adequate support without deforming and affecting the stacking or storage of electronic products? Existing turntables generally have stackable reinforcing ribs around their perimeter to provide some support and allow for stacking. However, this design limits the number of turntables that can be stacked, provides insufficient support, and results in poor bonding between stacked turntables, making them prone to misalignment or even falling off after impacts. Therefore, we need a turntable structure that is stable, highly stackable, and resistant to misalignment. Utility Model Content

[0003] The purpose of this utility model is to address the shortcomings of existing technologies by proposing an electronic product turnover tray.

[0004] To achieve the above objectives, an electronic product turnover tray includes a tray body, which has a tray groove for accommodating products and a tray wall surrounding the tray groove. The bottom of the tray wall has a material-saving groove surrounding the tray groove along its length, the material-saving groove dividing the tray wall into an outer wall and an inner wall. Support columns for support are provided between the stacked tray bodies, and the upper end of each support column has a positioning hole. The upper surface of the tray wall has multiple downwardly recessed grooves that respectively match the support columns. The material-saving grooves protrude downwards at corresponding positions to form multiple support platforms that respectively enclose the grooves. Each support platform has a positioning block corresponding to the positioning hole.

[0005] The disc body has a thin-walled structure and is equipped with a material-saving groove to reduce the amount of material used in injection molding. The material-saving groove separates the bottom of the disc wall, forming a double support structure with an outer wall and an inner wall. Support columns are set between the stacked discs to form stable support by separating the upper and lower discs at multiple points, preventing collapse and deformation when the discs are stacked. Since the support columns are the main support, the discs can be stacked in multiple layers without easily deforming. The disc body is equipped with column grooves and positioning blocks to connect and fix the support columns. The column grooves form a support platform, which enhances the local structural stability of the disc body and forms a strong support structure for the support columns. While meeting the principles of saving materials and thin-walled discs, this design effectively strengthens the stable structure of the stacked discs.

[0006] Preferably, the outer edge of the disk wall is provided with a recessed outer limiting platform along its length direction, and when the disks are stacked, the outer wall of the upper disk is matched and connected with the outer limiting platform of the lower disk.

[0007] The recessed outer limiting platform can strengthen the structural strength of the outer edge of the disk wall, and at the same time provide positioning support for the outer wall of the upper disk when the upper and lower disks are stacked.

[0008] Preferably, the inner edge of the disc wall is provided with a recessed inner limiting platform along its length direction, and when the discs are stacked, the inner wall of the upper disc is matched and connected with the inner limiting platform of the lower disc.

[0009] The recessed inner limiting platform can strengthen the structural strength of the inner edge of the disk wall, and at the same time provide positioning support for the inner wall of the upper disk when the upper and lower disks are stacked.

[0010] Preferably, the outer side of the outer wall is provided with a plurality of inwardly recessed outer positioning grooves, and the outer wall protrudes inward at the corresponding positions of the outer positioning grooves to form a plurality of outer positioning platforms that respectively wrap around the outer positioning grooves. The outer edge of the disk wall is provided with an outer positioning area corresponding to the outer positioning platform above the outer positioning groove.

[0011] The outer positioning groove forms a concave-convex structure on the outer wall, which has the same supporting function as the reinforcing rib. The concave-convex structure of the outer wall has a stronger resistance to deformation and improves the structural stability of the outer wall. At the same time, the outer positioning groove also forms an outer positioning platform. When stacked, the outer positioning platform of the upper plate fits into the outer positioning area of ​​the lower plate to form a positioning support structure.

[0012] Preferably, the inner side of the inner wall is provided with a plurality of inner positioning grooves that are recessed outward, and the inner wall protrudes outward at the corresponding positions of the inner positioning grooves to form a plurality of inner positioning platforms that respectively wrap the inner positioning grooves. The inner edge of the disk wall is provided with an inner positioning area above the inner positioning groove that corresponds to the inner positioning platform.

[0013] The inner positioning groove forms a concave-convex structure on the inner wall, which has the same supporting function as the reinforcing rib. The concave-convex structure of the inner wall has a stronger resistance to deformation and improves the structural stability of the inner wall. At the same time, the inner positioning groove also forms an inner positioning platform. When stacked, the inner positioning platform of the upper plate fits into the inner positioning area of ​​the lower plate to form a positioning support structure.

[0014] Preferably, the disc body is rectangular, and the four corners of the outer side of the outer wall are respectively provided with inwardly recessed corner positioning grooves. The outer wall protrudes inward at the corresponding positions of the corner positioning grooves to form corner positioning platforms that respectively wrap around the corner positioning grooves. When the disc bodies are stacked, the corner positioning platform of the upper disc body is attached to the upper surface of the disc wall of the lower disc body.

[0015] The rectangular shape of the plate makes it easy to plan and place, and the rectangular structure itself has a good supporting effect at the corners. The corner positioning grooves form a corner positioning platform, which can not only further enhance the structural stability of the outer wall corners, but also help to position and support the two sides of the outer wall.

[0016] Compared with the prior art, the beneficial effects of this utility model are: The disc body of this utility model has a thin-walled structure. The material-saving groove reduces the amount of material used in injection molding. The material-saving groove separates the bottom of the disc wall, forming an outer wall and an inner wall, creating a double support structure. Support columns are set between the stacked discs to separate the upper and lower discs at multiple points, forming a stable support and preventing collapse and deformation when the discs are stacked. Since the support columns are the main support, the discs can be stacked in multiple layers without easily deforming. The disc body is equipped with column grooves and positioning blocks to connect and fix the support columns. The column grooves form a support platform, which enhances the local structural stability of the disc body and forms a strong support structure for the support columns. While meeting the principles of saving materials and thin-walled discs, this design effectively strengthens the stable structure of the stacked discs.

[0017] This invention utilizes a multi-point positioning and support structure formed by supporting columns, an outer limiting platform, an inner limiting platform, an outer positioning platform, an inner positioning platform, and a corner positioning platform. This provides stable and effective support for the stacked disks. The concave-convex structure formed by the column grooves, outer positioning grooves, inner positioning grooves, and corner positioning grooves on the disk body reinforces the structural stability of corresponding areas, ensuring that the disk body is not easily deformed. While enhancing the overall structural stability, this invention also forms a multi-point support structure for upper and lower positioning, solving the problem of easy deformation when multiple disks are stacked, effectively increasing the single-turn capacity of electronic products and providing stable protection during product turnover. Attached Figure Description

[0018] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the accompanying drawings used in the embodiments will be briefly introduced below.

[0019] Figure 1 This is a schematic diagram of the stacked structure of the disk body of this utility model.

[0020] Figure 2 This is a schematic diagram of the bottom structure of the disc body of this utility model. Detailed Implementation

[0021] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to specific embodiments and accompanying drawings. It should be understood that these descriptions are merely exemplary and not intended to limit the scope of this utility model. Furthermore, descriptions of well-known structures and technologies are omitted in the following description to avoid unnecessarily obscuring the concept of this utility model.

[0022] This utility model provides an electronic product turnover tray, such as Figures 1-2 As shown, the device includes a tray body 100, which has a tray groove 1 for accommodating products and a tray wall 2 surrounding the tray groove 1. The bottom of the tray groove 1 has multiple downwardly recessed and irregularly shaped material grooves 11, which facilitates the placement of electronic products of various shapes and prevents them from shifting during transportation. The material grooves 11 also form a deformation-resistant reinforcing structure for the bottom of the thin-walled tray groove 1. The bottom of the tray wall 2 has a material-saving groove 21 surrounding the tray groove along its length direction, thereby reducing the material used during product injection molding. The material-saving groove 21 divides the tray wall 2 into an outer wall 3 and an inner wall 4. The outer wall 3 forms external support for the tray body 100, and the inner wall 4 forms internal support for the product. Support columns 5 are provided between the stacked discs 100 for support. These support columns 5 provide constant support to the stacked discs 100, preventing collapse and facilitating the stacking of more discs 100. Considering the support, fixation, and positioning of the discs 100 on the support columns 5, each support column 5 has a positioning hole 51 at its upper end. The upper surface of the disc wall 2 has multiple downward-recessed grooves 22 that match the support columns 5. A material-saving groove 21 protrudes downward at the corresponding position of the grooves 22, forming multiple support platforms 23 that wrap around the grooves 22. Each support platform 23 has a positioning block 24 corresponding to the positioning hole 51. When the discs 100 are stacked, the positioning hole 51 at the upper end of the support column 5 matches and inserts into the positioning block 24 of the upper disc 100, and the lower end of the support column 5 inserts into the groove 22 of the lower disc 100, forming a stable support structure for the stacked discs 100.

[0023] The outer edge of the disk wall 2 is provided with a recessed outer limiting platform 25 along its length. When the disk bodies 100 are stacked, the outer wall 3 of the upper disk body 100 matches and connects with the outer limiting platform 25 of the lower disk body 100. The inner edge of the disk wall 2 is provided with a recessed inner limiting platform 26 along its length. When the disk bodies 100 are stacked, the inner wall 4 of the upper disk body 100 matches and connects with the inner limiting platform 26 of the lower disk body 100. The outer limiting platform 25 and the inner limiting platform 26 limit the stacked disk bodies 100, further forming the support structure of the outer wall 3 and the inner wall 4.

[0024] Considering that the disk body 100 has a thin-walled structure, the outer wall 3 has multiple inwardly recessed outer positioning grooves 31 on its outer surface. The outer wall 3 also has multiple inwardly protruding outer positioning platforms 32 at corresponding positions of the outer positioning grooves 31, each wrapping around one of the outer positioning grooves 31. The inwardly recessed outer positioning grooves 31 forming the outer positioning platforms 32 can reinforce the outer wall 3, further enhancing the structural stability of the outer wall 3. Above the outer positioning grooves 31 on the outer edge of the disk wall 2, there is an outer positioning area 27 corresponding to the outer positioning platform 32. When the disk bodies 100 are stacked, the outer positioning platform 32 of the upper disk body 100 fits against the outer positioning area 27 of the lower disk body 100, further strengthening the support between the upper and lower disk bodies 100.

[0025] The inner wall 4 has multiple outwardly recessed inner positioning grooves 41 on its inner side. Corresponding to the inner positioning grooves 41, the inner wall 4 protrudes outward to form multiple inner positioning platforms 42 that respectively enclose the inner positioning grooves 41. The outward recesses of the inner positioning grooves 41 forming the inner positioning platforms 42 can reinforce the inner wall 4, further enhancing the structural stability of the inner wall 4. The inner edge of the disk wall 2 has an inner positioning area 28 corresponding to the inner positioning platforms 42 above the inner positioning grooves 41. When the disks 100 are stacked, the inner positioning platform 42 of the upper disk 100 fits against the inner positioning area 28 of the lower disk 100, further strengthening the support between the upper and lower disks 100.

[0026] The disc body 100 is rectangular. Each of the four corners of the outer wall 3 has an inwardly recessed corner positioning groove 33. The outer wall 3 protrudes inward at corresponding positions of the corner positioning grooves 33, forming corner positioning platforms 34 that respectively enclose the corner positioning grooves 33. The inward recesses of the corner positioning grooves 33 to form corner positioning platforms 34 can reinforce the corners of the outer wall 3, further enhancing the structural stability of the corner shape. When the disc bodies 100 are stacked, the corner positioning platform 34 of the upper disc body 100 is in contact with the upper surface of the disc wall 2 of the lower disc body 100. When the disc bodies 100 are stacked, the corner positioning platform 34 of the upper disc body 100 is in contact with the upper surface of the corner of the lower disc body 100, further strengthening the support between the upper and lower disc bodies 100.

[0027] It should be understood that the specific embodiments described above are merely illustrative or explanatory of the principles of this utility model and do not constitute a limitation thereof. Therefore, any modifications, equivalent substitutions, improvements, etc., made without departing from the spirit and scope of this utility model should be included within its protection scope. Furthermore, the appended claims are intended to cover all variations and modifications falling within the scope and boundaries of the appended claims, or equivalent forms of such scope and boundaries.

Claims

1. An electronic product turnover disk, characterized in that, The device includes a disc body, which has a groove for accommodating products and a disc wall surrounding the groove. The bottom of the disc wall has a material-saving groove surrounding the groove along its length, which separates the disc wall into an outer wall and an inner wall. Support columns for support are provided between the stacked disc bodies. The upper end of the support column is provided with a positioning hole. The upper surface of the disc wall has multiple downward recesses forming column grooves that match the support columns. The material-saving grooves protrude downwards at the corresponding positions of the column grooves to form multiple support platforms that respectively wrap around the column grooves. The support platforms are provided with positioning blocks corresponding to the positioning holes.

2. The electronic product turnover disk according to claim 1, characterized in that, The outer edge of the disk wall is provided with a recessed outer limiting platform along its length direction. When the disks are stacked, the outer wall of the upper disk is matched and connected with the outer limiting platform of the lower disk.

3. The electronic product turnover disk according to claim 1, characterized in that, The inner edge of the disk wall is provided with a recessed inner limiting platform along its length direction. When the disks are stacked, the inner wall of the upper disk is matched and connected with the inner limiting platform of the lower disk.

4. An electronic product turnover disk according to claim 1, characterized in that, The outer side of the outer wall is provided with a number of inwardly recessed outer positioning grooves. The outer wall protrudes inward at the corresponding positions of the outer positioning grooves to form a number of outer positioning platforms that respectively wrap around the outer positioning grooves. The outer edge of the disk wall is provided with an outer positioning area corresponding to the outer positioning platform above the outer positioning groove.

5. An electronic product turnover disk according to claim 1, characterized in that, The inner side of the inner wall is provided with a number of outwardly recessed inner positioning grooves. The inner wall protrudes outward at the corresponding positions of the inner positioning grooves to form a number of inner positioning platforms that respectively wrap around the inner positioning grooves. The inner edge of the disk wall is provided with an inner positioning area above the inner positioning groove that corresponds to the inner positioning platform.

6. An electronic product turnover disk according to claim 1, characterized in that, The disc is rectangular, and the four corners of the outer side of the outer wall are respectively provided with inwardly recessed corner positioning grooves. The outer wall protrudes inward at the corresponding positions of the corner positioning grooves to form corner positioning platforms that respectively wrap around the corner positioning grooves. When the discs are stacked, the corner positioning platform of the upper disc is attached to the upper surface of the disc wall of the lower disc.

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