Visual inspection feeding device of four-channel sorting structure

By designing a visual inspection feeding device with a four-channel material selection structure, the problem of stable placement and rapid detection of rubber caps during visual inspection was solved, achieving stable conveying and rapid detection of rubber cap materials and improving inspection efficiency.

CN223973315UActive Publication Date: 2026-03-06SHENGZHOU HEYUE ELECTRONIC TECH CO LTD
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Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Filing Date
2025-04-01
Publication Date
2026-03-06

AI Technical Summary

Technical Problem

Existing technologies make it difficult to achieve stable batch placement and rapid entry into visual inspection equipment for testing of rubber caps, resulting in low inspection efficiency.

Method used

Design a visual inspection feeding device with a four-channel material selection structure, including a main base, a material hopper, a feeding belt track, a conveyor belt track, and a material selection head. By coordinating the inclined feeding belt track, the conveyor belt track, and the material selection head, the rubber cap material is stably placed and guided to the visual inspection equipment.

Benefits of technology

It enables stable conveying and rapid detection of rubber cap materials, ensuring that the materials are placed face down in the visual inspection equipment, improving detection efficiency and consistency, and reducing the risk of materials falling.

✦ Generated by Eureka AI based on patent content.

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Abstract

The utility model belongs to the field of visual inspection pretreatment equipment, and particularly relates to a visual inspection feeding device of a four-channel sorting structure. A visual inspection feeding device of a four-channel material selecting structure comprises a main base, a material hopper, a feeding belt track, a first conveying belt track, a second conveying belt track and a third conveying belt track. The first conveying belt track, the second conveying belt track and the third conveying belt track are all arranged on the top face of the main base, the material hopper is arranged on one side of the main base, the feeding belt track is obliquely arranged, the lower end of the feeding belt track is connected into the material hopper, and the upper end of the feeding belt track is connected to the first conveying belt track.
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Description

Technical Field

[0001] This utility model belongs to the field of visual inspection pretreatment equipment, specifically relating to a visual inspection feeding device with a four-channel material selection structure. Background Technology

[0002] Automated visual inspection technology, through computer vision systems, image processing algorithms, and automated hardware equipment, enables non-contact, high-precision, and high-efficiency inspection of the appearance, dimensions, structure, and defects of materials, products, or components. This technology, utilizing industrial cameras, optical sensors, light source systems, and software algorithms, simulates human eye function but far surpasses it in speed, accuracy, and consistency, thus finding widespread application in industrial production quality control.

[0003] Visual inspection of material conformity typically includes checking appearance, dimensions, color, surface defects, etc., to ensure that the material meets established quality standards. Automated visual inspection has strict requirements on the material's position, orientation, stability, surface characteristics, and background environment.

[0004] The introduction of visual inspection technology has significantly improved inspection efficiency in the quality inspection process of rubber caps. This technology can quickly identify defective rubber caps. When applying this technology, the rubber caps need to be placed in the prescribed positions and sent to the corresponding station of the visual inspection equipment for photographic inspection.

[0005] When introducing rubber caps, we usually place them top-down to ensure their stability. To achieve batch feeding and enable the stably placed rubber caps to quickly enter the visual inspection equipment for inspection, this invention aims to provide a visual inspection feeding device with a four-channel material selection structure. Utility Model Content

[0006] The purpose of this invention is to provide a visual inspection feeding device with a four-channel material selection structure to solve the problems mentioned in the background art.

[0007] To achieve the above objectives, this utility model provides the following technical solution:

[0008] A visual inspection feeding device with a four-channel material selection structure includes a main base, a material hopper, a feeding belt track, a first conveyor belt track, a second conveyor belt track, and a third conveyor belt track. The first, second, and third conveyor belt tracks are all located on the top surface of the main base. The material hopper is located on one side of the main base. The feeding belt tracks are inclined, with the lower end of the feeding belt track connected to the material hopper and the upper end of the feeding belt track connected to the first conveyor belt track.

[0009] Material baffles 2 are provided on both sides of conveyor belt track 2, and material baffles 3 are provided on both sides of conveyor belt track 3; material baffle 1 is provided on one side of conveyor belt track 1, and conveyor belt track 2 and conveyor belt track 3 are both connected to the other side of conveyor belt track 1. The horizontal height of conveyor belt track 2 and the horizontal height of conveyor belt track 3 are both lower than the horizontal height of conveyor belt track 1; guide plate 1 is provided at material baffle 2, and one end of guide plate 1 is located at the central axis of conveyor belt track 1; guide plate 2 is provided at material baffle 3, and one end of guide plate 2 is fixedly connected to material baffle 1.

[0010] Both conveyor belt tracks 2 and 3 are equipped with material sorting heads at their central axis positions. The material sorting heads are bow-shaped, and their maximum width is less than the width of the belt surfaces of conveyor belt tracks 2 and 3. Both sides of the material sorting heads are provided with raised strips.

[0011] The main base is equipped with a return hopper, which is located directly below the material sorting head. The lower opening of the return hopper is connected to the material hopper.

[0012] Optionally, feeding baffles are provided on both sides of the feeding belt track.

[0013] Optionally, the feed belt track has several belt surface protrusions on its track surface.

[0014] Optionally, a feed baffle is provided at one of the material baffles, and the feed baffle is located at the front end of the conveyor belt track.

[0015] Optionally, a connecting baffle is provided between conveyor belt track two and conveyor belt track three.

[0016] Optionally, both the rear end of conveyor belt track two and the rear end of conveyor belt track three are provided with a head frame, and the material sorting head is set at the head frame. The material sorting head does not contact the belt surface of the corresponding conveyor belt track two or the belt surface of the corresponding conveyor belt track three.

[0017] Optionally, the material selection head is not equipped with material baffle two or material baffle three on both sides.

[0018] Optionally, a guide plate is provided at the head frame.

[0019] As an option, the rear ends of conveyor belt track two and conveyor belt track three are connected to conveyor belt track four.

[0020] Compared with the prior art, the beneficial effects of this utility model are:

[0021] (1) The present invention provides a visual inspection feeding device with a four-channel material selection structure. The device introduces rubber cap material from the material hopper. The rubber cap material is conveyed to conveyor belt track 2 or conveyor belt track 3 through conveyor belt track 1. A material selection head is provided at conveyor belt track 2 and conveyor belt track 3. The material selection head is centrally located at conveyor belt track 2 or conveyor belt track 3. The width left on both sides of the material selection head is the diameter of one rubber cap material. When the rubber cap material is placed face down on conveyor belt track 2 or conveyor belt track 3, the rubber cap material can pass smoothly through the gap left by the material selection head without falling off conveyor belt track 2 or conveyor belt track 3. When the rubber cap material is in an unstable state where the top surface is not face down, the rubber cap material passes through the gap on both sides of the material selection head and will be knocked off conveyor belt track 2 or conveyor belt track 3 by the material selection head.

[0022] (2) The present invention provides a visual inspection feeding device with a four-channel material selection structure. Both sides of the material selection head are provided with protruding strips. When the protruding strips hit the rubber cap material in an unstable state, they will knock the rubber cap material off the second or third conveyor belt track. At the same time, an annular reserved groove is provided on the waist side of the rubber cap material. When the rubber cap material is in a stable state, the protruding strips can pass through the annular reserved grooves. The protruding strips can play a role in verifying the position and state of the rubber cap material.

[0023] (3) The present invention provides a visual inspection feeding device with a four-channel material selection structure, wherein a return hopper is provided directly below the material selection head; the return hopper guides the rubber cap material back to the material hopper for the next position screening. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of the structure of this utility model.

[0025] Figure 2 This is a top view of the present invention.

[0026] In the diagram: 1. Main base; 2. Material hopper; 3. Feeding belt track; 4. Conveyor belt track one; 5. Conveyor belt track two; 6. Conveyor belt track three; 7. Feeding baffle; 8. Belt surface protrusion; 9. Material baffle one; 10. Feeding baffle; 11. Material baffle two; 12. Material baffle three; 13. Guide plate one; 14. Guide plate two; 15. Connecting baffle; 16. Material sorting head; 17. Head frame; 18. Return hopper; 19. Transmission belt track four; 20. Outlet plate; 21. Protrusion strip. Detailed Implementation

[0027] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0028] A visual inspection feeding device with a four-channel material selection structure includes a main base 1, a material hopper 2, a feeding belt track 3, a first conveyor belt track 4, a second conveyor belt track 5, and a third conveyor belt track 6. The first, second, and third conveyor belt tracks 4, 5, and 6 are all located on the top surface of the main base 1, and the material hopper 2 is located on one side of the main base 1. The feeding belt track 3 is inclined, with its lower end connected to the material hopper 2 and its upper end connected to the first conveyor belt track 4.

[0029] The rubber cap material in the material hopper 2 is fed into the conveyor belt track 4 via the feeding belt track 3. To prevent the rubber cap material from falling off the feeding belt track 3, feeding baffles 7 are provided on both sides of the feeding belt track 3. Several belt surface protrusions 8 are provided on the track surface of the feeding belt track 3, which can effectively lift the rubber cap material. A material baffle 9 is provided on one side of the conveyor belt track 4, which can effectively prevent the rubber cap material from falling off the conveyor belt track 4. An inlet baffle 10 is provided at the material baffle 9, located at the front end of the conveyor belt track 4, which can effectively prevent the rubber cap material from falling out from the front end of the conveyor belt track 4.

[0030] One side of conveyor belt track 4 is a material baffle 9, and the other side is conveyor belt track 5 and conveyor belt track 6. The horizontal height of conveyor belt track 5 and conveyor belt track 6 is lower than that of conveyor belt track 4. As conveyor belt track 4 rolls, the rubber-capped material on conveyor belt track 4 can be introduced into conveyor belt track 5 and conveyor belt track 6. Material baffles 211 are provided on both sides of conveyor belt track 5, and material baffles 312 are provided on both sides of conveyor belt track 6. Material baffles 211 prevent the rubber-capped material from falling off the sides of conveyor belt track 5; material baffles 312 prevent the rubber-capped material from falling off the sides of conveyor belt track 6. In order to smoothly introduce the rubber-capped material from conveyor belt track 4 into conveyor belt track 5 and conveyor belt track 6 respectively, a guide plate 13 is provided at conveyor belt track 5. One end of the guide plate 13 is fixed to the material baffle 211, and the other end is located at the central axis of conveyor belt track 4. This design allows rubber-capped material inside conveyor belt track 4 to be introduced into conveyor belt track 5. A guide plate 2 14 is provided at material baffle 3 12, with one end fixedly connected to material baffle 3 12 and the other end fixedly connected to material baffle 9. This design also allows rubber-capped material outside conveyor belt track 4 to be introduced into conveyor belt track 6. To prevent rubber-capped material from leaking out of the gap between conveyor belt track 2 5 and conveyor belt track 6, a connecting baffle 15 is provided between conveyor belt track 2 5 and conveyor belt track 6.

[0031] A sorting head 16 is installed at the central axis of both conveyor belt track 2 (5) and conveyor belt track 3 (6). A sorting head frame 17 is installed at the rear end of both conveyor belt track 2 (5) and conveyor belt track 3 (6), with the sorting head 16 positioned at the frame 17. The lower surface of the sorting head 16 does not contact the belt surface of the corresponding conveyor belt track 2 (5) or conveyor belt track 3 (6). The sorting head 16 is bow-shaped, allowing the rubber cap material that collides with it to separate along its sides. The maximum width of the sorting head 16 is less than the belt surface width of conveyor belt track 2 (5) and conveyor belt track 3 (6). The two sorting heads are centrally located at conveyor belt track 2 (5) and conveyor belt track 3 (6), respectively. The width reserved on both sides of the sorting head 16 is exactly equal to or slightly greater than the maximum diameter of the rubber cap material. When the rubber cap material is placed face down on conveyor belt track 25 or conveyor belt track 36, the material is in a stable position and can pass smoothly through the gaps on both sides of the sorting head 16 without falling off. When the rubber cap material is in an unstable state (not face down), it will pass through the gaps on both sides of the sorting head 16 and be knocked off conveyor belt track 25 or conveyor belt track 36. To ensure the rubber cap material falls smoothly, there are no material baffles 211 and 312 on either side of the sorting head 16. Both sides of the material sorting head 16 are provided with raised strips 21. When the raised strips 21 collide with the unstable rubber cap material, they will knock the rubber cap material off the second conveyor belt track 5 or the third conveyor belt track 6. At the same time, there is an annular reserved groove on the waist side of the rubber cap material. When the rubber cap material is in a stable state, the raised strips 21 can pass through the annular reserved groove. The raised strips 21 can play the role of verifying the position and state of the rubber cap material.

[0032] A return hopper 18 is located at the main base 1, directly below the sorting head 16. Rubber caps falling from conveyor belt track 2 (5) and conveyor belt track 3 (6) fall directly into the return hopper 18. The lower opening of the return hopper 18 connects to the material hopper 2, and the rubber caps inside return to the material hopper 2. The rubber caps sorted by this device are placed in a stable state with their top surface facing down. Rubber caps in an unstable state return to the material hopper 2 for the next positional sorting. To facilitate the removal of the sorted rubber caps, a transmission belt track 4 (19) is connected to the rear ends of both conveyor belt track 2 (5) and conveyor belt track 3 (6). The sorted rubber caps are guided into the visual inspection equipment via the transmission belt track 4 (19). For smooth removal of the rubber caps, a discharge plate 20 is provided at each of the two head frames 17.

[0033] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A visual inspection feeding device with a four-channel material selection structure, characterized in that: Including the main base, the material hopper, the feeding belt track, the conveying belt track one, the conveying belt track two, the conveying belt track three, the conveying belt track one, the conveying belt track two, the conveying belt track three are all set up in the top surface of the main base, the material hopper is set up in one side of the main base, the feeding belt track is set up obliquely, the lower end of the feeding belt track accesses the material hopper, the upper end of the feeding belt track is connected to the conveying belt track one, The two sides of the conveying belt track two are equipped with material baffle two, the two sides of the conveying belt track three are equipped with material baffle three, one side of the conveying belt track one is equipped with material baffle one, the conveying belt track two and the conveying belt track three are all connected to the other side of the conveying belt track one, the horizontal height of the conveying belt track two and the horizontal height of the conveying belt track three are all lower than the horizontal height of the conveying belt track one, the material baffle two is equipped with guide plate one, one end of the guide plate one is located in the central axis position of the conveying belt track one, the material baffle three is equipped with guide plate two, one end of the guide plate two is fixedly connected with the material baffle one, The central axis position of the conveying belt track two and the conveying belt track three is equipped with the material selecting head, the material selecting head is in the shape of a bow, the maximum width of the material selecting head is less than the width of the belt surface of the conveying belt track two and the conveying belt track three, the two sides of the material selecting head are equipped with convex strips, The main base is equipped with the return hopper, the return hopper is located directly below the material selecting head, the lower end of the return hopper is open and accesses the material hopper.

2. A visual inspection feed arrangement for a four lane pick-and-place structure as claimed in claim 1, wherein: The two sides of the feeding belt track are equipped with feeding baffles.

3. A visual inspection feed arrangement for a four lane pick-and-place structure as claimed in claim 1, wherein: The track surface of the feeding belt track is equipped with a plurality of belt surface convexes.

4. A visual inspection feed arrangement for a four lane pick-and-place structure as claimed in claim 1, wherein: The material baffle one is equipped with the inlet baffle, the inlet baffle is located in the front end position of the conveying belt track one.

5. A visual inspection feed arrangement for a four lane pick-and-place structure as claimed in claim 1, wherein: The conveying belt track two and the conveying belt track three are equipped with the connecting baffle.

6. A visual inspection feed arrangement for a four lane pick-and-place structure as claimed in claim 1, characterized in that: The rear end of the conveying belt track two and the rear end of the conveying belt track three are both equipped with the head frame, the material selecting head is set in the head frame, the material selecting head does not contact the belt surface of the corresponding conveying belt track two or the belt surface of the corresponding conveying belt track three.

7. A visual inspection feed arrangement for a four lane pick-and-place structure as claimed in claim 1, characterized in that: The two sides of the material selecting head are not equipped with the material baffle two or the material baffle three.

8. A visual inspection feed arrangement for a four lane pick-and-place structure as claimed in claim 6, wherein: The head frame is equipped with the guide-out plate.

9. A visual inspection feed arrangement for a four lane pick-and-place structure as claimed in claim 1, characterized in that: The rear ends of the conveying belt track two and the conveying belt track three are jointly connected with the conveying belt track four.