Terminal Electrical Performance Detection Equipment

Abstract

This invention discloses terminal electrical performance testing equipment, belonging to the field of testing and transportation technology. Specifically, it includes a loading device for transferring materials, a dislocation device located at the end of the loading device for distributing materials to various downstream conveyor channels, a detection device located on the side of a detection slideway connected to the end of the downstream conveyor channel and pressed down on the materials for electrical testing, and a material leakage device located on the side of the detection slideway for pushing out waste materials. This invention is used to optimize the distribution of production lines, achieve efficient transportation of tested products, and rationally discharge waste.

Description

Technical Field

[0001] The present invention belongs to the technical field of transportation detection, and particularly relates to a terminal electrical performance detection device. Background Art

[0002] During the production process of terminals, it is necessary to detect their electrical performance. Traditional detection devices include multiple detection stations arranged in a straight line, which occupy a large area and have low detection efficiency. Secondly, after the detection is completed, it is necessary to separate the waste materials. The traditional separation method is to add branches to the assembly line, resulting in too many branches of the conveyor assembly line, occupying too much construction space and increasing costs. Summary of the Invention

[0003] The purpose of the present invention is to solve the above technical problems, and provide a terminal electrical performance detection device, so as to reasonably optimize the distribution of the assembly line, achieve the purpose of efficiently transporting and detecting products and reasonably discharging waste. To achieve the above purpose, the technical solution of the present invention is as follows:

[0004] The terminal electrical performance detection device includes a feeding device for transferring materials, a dislocation device arranged at the end of the feeding device for distributing materials to each downward conveyor, a detection device arranged on the side of the detection slide rail at the end of the butt joint downward conveyor and used to press down on the materials for power-on detection, and a leakage device arranged on the detection slide rail for pushing out waste materials from the side;

[0005] The dislocation device includes a number of multi-stage material passing plates. The main conveyor is used to distribute materials to several secondary conveyors below by the first-stage material passing plate, and the materials on a single secondary conveyor or multiple secondary conveyors are respectively distributed to several branch conveyors below by the second-stage material passing plate.

[0006] Specifically, the material is a terminal, and the top of the terminal is provided with symmetrically arranged protruding PIN pins.

[0007] Specifically, the feeding device includes a vibrating bowl and a feeding line connected to the vibrating bowl; a camera device is arranged above the feeding line.

[0008] Specifically, the dislocation device further includes a material blocking device for blocking the material transfer in the main conveyor.

[0009] Specifically, the material blocking device includes a moving groove horizontally penetrating the main conveyor, a horizontal push cylinder for driving a moving bar to move along the moving groove, and a material groove arranged in the moving bar. The notch of the material groove is clamped at the bottom half position of the material, and the end of the material groove is attached to the side of the moving groove.

[0010] Specifically, the detection device includes a vertical plate, a pressing plate arranged on the side of the vertical plate, a downward pressing cylinder for pushing the pressing plate to move along the guide rail, and a test copper bar arranged at the bottom of the pressing plate corresponding to the PIN pins.

[0011] Specifically, the detection device further includes a material pressing and pushing block disposed on the opposite surfaces of the vertical plate. The material pressing and pushing block is connected to a material pressing cylinder, and the material pressing and pushing block extends to the inner side of the detection slide rail.

[0012] Compared with the prior art, the beneficial effects of the terminal electrical performance detection equipment of the present invention are mainly reflected in:

[0013] The material blocking device distributes materials one by one, reducing the material flow rate and facilitating subsequent detection; the multi-stage material passing plates in the dislocation device effectively distribute the materials in the main conveyor path to each downward conveyor path, avoiding the problem of large occupied area caused by the linear structure in traditional transportation operations; the material distribution efficiency in the dislocation device is improved, and operations on multiple downward conveyor paths are carried out simultaneously; the detection device cooperates with the material leakage device to achieve rapid detection operations during the material transportation process. For unqualified materials, they are directly removed by the material leakage device in the detection track, avoiding the use of a branch assembly line structure, thereby achieving cost savings and optimizing the building space. Description of the Drawings

[0014] Figure 1 is a schematic structural diagram of an embodiment of the present invention;

[0015] Figure 2 is a schematic structural diagram of the dislocation device in this embodiment;

[0016] Figure 3 is a schematic structural diagram of the material blocking device in this embodiment;

[0017] Figure 4 is a schematic structural diagram of the detection device in this embodiment;

[0018] Figure 5 is a schematic structural diagram of the material pressing and pushing block in this embodiment;

[0019] Figure 6 is a schematic structural diagram of the material leakage device in this embodiment;

[0020] The numbers in the figure represent:

[0021] 1 Feeding device, 11 Vibratory bowl feeder, 12 Feeding line, 13 Camera device;

[0022] 2 Dislocation device, 21 Main conveyor path, 22 Secondary conveyor path, 23 Branch conveyor path, 24 Material passing plate, 25 Loading plate, 26 Plate groove, 27 Flow channel, 28 Side pushing cylinder;

[0023] 3 Detection slide rail, 31 Material, 32 PIN needle;

[0024] 4 Detection device, 41 Vertical plate, 42 Pressing plate, 43 Downward pressing cylinder, 44 Test copper bar, 45 Material pressing and pushing block, 46 Material pressing cylinder;

[0025] 5 Material Feeding Device, 51 Moving Groove, 52 Moving Bar, 53 Horizontal Pushing Cylinder, 54 Material Groove;

[0026] 6 Leakage Feeding Device, 61 Pushing Cylinder, 62 Pushing Plate, 63 Waste Conveyor Belt, 64 Belt Feeding Aisle, 65 First Driving Shaft, 66 Qualified Conveyor Belt, 67 Second Driving Shaft. Specific Embodiment

[0027] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments.

[0028] Embodiment:

[0029] Refer to Figure 1-6 As shown, this embodiment is a terminal electrical performance detection device, including a feeding device 1 for transferring materials, a dislocation device 2 provided at the end of the feeding device 1 for distributing materials to each downward conveyor path, a detection device 4 provided on the side of the detection slide rail 3 at the end of the docking downward conveyor path and used to press down on the material 31 for power-on detection, and a leakage feeding device 6 provided on the detection slide rail 3 for pushing out waste materials on the side.

[0030] The dislocation device 2 includes several multi-stage material passing plates 24, a main conveyor path 21 and several downward conveyor paths. The downward conveyor paths include secondary conveyor paths 22 and branch conveyor paths 23; the main conveyor path 21 distributes the material 31 to several downward secondary conveyor paths 22 by a first-stage material passing plate 24, and on a single secondary conveyor path 22 or multiple secondary conveyor paths 22, the material 31 is distributed to several downward branch conveyor paths 23 by a second-stage material passing plate 24, and a reasonable distribution is made according to the number of materials 31 to be conveyed as required.

[0031] In this embodiment, the material 31 is a terminal, and the top of the terminal is provided with symmetrically arranged protruding PIN pins 32.

[0032] The feeding device 1 includes a vibrating disk 11 and a feeding line 12 connected to the vibrating disk 11; above the feeding line 12, there is a camera device 13 for taking pictures to detect whether the materials 31 on the feeding line 12 are in the same direction.

[0033] The dislocation device 2 includes a loading plate 25 arranged obliquely to dock with the end of the feeding line 12, and a plate slot 26 provided in the loading plate 25 for placing the material passing plate 24; the loading plate 25 extends downward from the end position of the feeding line 12 to form a main conveyor path 21, and the main conveyor path 21 is dispersed into two secondary conveyor paths 22 by a first-stage material passing plate 24, and the secondary conveyor path 22 is dispersed into two branch conveyor paths 23 by a second-stage material passing plate 24.

[0034] The material plate groove 26 is recessed in the material loading plate 25. A number of flow channels 27 corresponding to the sliding of the downward transfer channel are provided in the material passing plate 24. The width of the material plate groove 26 is greater than that of the material passing plate 24. A side push cylinder 28 connecting the material passing plate 24 is provided at the bottom of the material loading plate 25. The side push cylinder 28 pushes the material passing plate 24 to move within the material plate groove 26, so as to transfer the alignment requirement of the flow channels 27 to the secondary transfer channel 22 or the branch transfer channel 23 of the material 31.

[0035] The dislocation device 2 further includes a material blocking device 5 provided at the front end of the material loading plate 25 for blocking the transfer of the material 31 in the main transfer channel 21. The material blocking device 5 includes a moving groove 51 horizontally penetrating the main transfer channel 21, a horizontal push cylinder 53 for driving a moving bar 52 to move along the moving groove 51, and a material groove 54 provided in the moving bar 52. By moving the position of the moving bar 52, when the material groove 54 is docked with the main transfer channel 21, the material 31 falls into the material groove 54. The notch of the material groove 54 is clamped at the bottom half position of the material 31, and the end of the material groove 54 is attached to the side of the moving groove 51. The horizontal push cylinder 53 drives the moving bar 52, and the side of the material 31 rubs along the side of the moving groove 51 and falls off from the material groove 54 and flows into the downward transfer channel.

[0036] Detection slide rails 3 connecting the ends of each downward transfer channel are respectively provided at the end of the material loading plate 25. The detection device 4 includes a vertical plate 41, a pressing plate 42 provided on the side of the vertical plate 41, a downward pressing cylinder 43 for pushing the pressing plate 42 to move along the guide rail, and a test copper bar 44 provided at the bottom of the pressing plate 42 corresponding to the PIN pin 32. The test copper bar 44 is inserted into the PIN pin 32 for power-on detection.

[0037] The detection device 4 further includes a material blocking push block 45 provided on the opposite surface of the vertical plate 41. The material blocking push block 45 is connected with a material blocking cylinder 46; the material blocking push block 45 extends to the inner side of the detection slide rail 3, and the material blocking cylinder 46 pushes the material blocking push block 45 to closely fit and position against the side of the detection slide rail 3, and the downward pressing cylinder 43 presses down to drive the test copper bar 44 for detection.

[0038] The material leakage device 6 includes a pushing cylinder 61 provided behind the detection device 4, a pushing plate 6:2 connected to the pushing cylinder 61, and a waste material conveyor belt 63 provided below the detection slide rail 3. The pushing plate 62 horizontally penetrates the detection slide rail 3, and a strip-shaped material passage 64 corresponding to the sliding direction of the material 31 on the detection slide rail 3 is provided in the pushing plate 62. When the detection device 4 detects that the material 31 is unqualified, when the material 31 is transferred to the strip-shaped material passage 64, the pushing plate 62 is horizontally pushed out to push the material 31 out of the detection slide rail 3 and into the waste material conveyor belt 63. A first drive shaft 65 for driving its transportation and transfer is provided at the bottom of the waste material conveyor belt 63.

[0039] At the end of the detection slide rail 3, there is a qualified conveyor belt 66. When the detection device 4 detects that the material 31 is qualified, the push plate 62 is stationary, and the material 31 flows out along the material passage 64 and falls into the qualified conveyor belt 66. At the bottom of the qualified conveyor belt 66, there is a second drive shaft 67 for driving its transportation and conveying.

[0040] When applying this embodiment, the multi-stage material passing plates 24 in the dislocation device 2 effectively distribute the materials 31 in the main conveyor path 21 to each downward conveyor path, avoiding the problem of large occupied area caused by the linear structure in traditional transportation operations; the distribution efficiency of the materials 31 in the dislocation device 2 is improved, and operations on multiple downward conveyor paths are carried out simultaneously; the detection device 4 cooperates with the leakage device 6 to quickly detect during the transportation of the materials 31. For unqualified materials, they are directly removed by the leakage device 6 in the detection track 3, avoiding the structure of a branch assembly line, thereby achieving cost savings and optimizing the building space.

[0041] The above are only some embodiments of the present invention. For those of ordinary skill in the art, without departing from the inventive concept of the present invention, several deformations and improvements can still be made, and these all belong to the protection scope of the present invention.

Claims

1. Terminal electrical performance testing equipment, characterized in that: It includes a feeding device for transferring materials, a dislocation device provided at the end of the feeding device for distributing materials to each downward conveyor path, a detection device provided on the side of the detection slide rail at the end of the butt - joint downward conveyor path and used to press down on the materials for power - on detection, and a leakage device provided on the detection slide rail for pushing out waste materials from the side; The feeding device includes a vibrating bowl and a feeding line connected to the vibrating bowl; a camera device is provided above the feeding line; The dislocation device includes several multi - stage material - passing plates. The main conveyor path distributes materials to several secondary conveyor paths below by a first - stage material - passing plate. On a single secondary conveyor path or multiple secondary conveyor paths, the materials are respectively distributed to several branch conveyor paths below by a second - stage material - passing plate; The dislocation device further includes a material blocking device for blocking the material transfer in the main conveyor path; The material blocking device includes a moving groove horizontally penetrating the main conveyor path, a horizontal pushing cylinder for driving a moving bar to move along the moving groove, and a material groove provided in the moving bar. The notch of the material groove clamps the bottom half position of the material, and the end of the material groove fits the side of the moving groove; The dislocation device includes a loading plate inclined and butted against the end of the feeding line, and a material - plate groove provided in the loading plate for placing the material - passing plate; the material - plate groove is recessed in the loading plate, and several flow channels corresponding to the sliding of the downward conveyor path are provided in the material - passing plate.

2. The terminal electrical performance detection device according to claim 1, characterized in that: The material is a terminal, and prominent and symmetrically arranged PIN pins are provided at the top of the terminal.

3. The terminal electrical performance detection device according to claim 2, wherein: The detection device includes a vertical plate, a pressing plate provided on the side of the vertical plate, a downward - pressing cylinder for pushing the pressing plate to move along the guide rail, and a test copper bar provided at the bottom of the pressing plate corresponding to the PIN pin.

4. The terminal electrical performance detection device according to claim 3, characterized in that: The detection device further includes a material - resisting push block provided on the opposite surface of the vertical plate. The material - resisting push block is connected to a material - resisting cylinder, and the material - resisting push block extends to the inner side of the detection slide rail.

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