Vacuum cup detection system

Abstract

A vacuum cup detection system disclosed by the present invention comprises a vacuum cup, an identification assembly is configured in a vacuum layer of the vacuum cup, the identification assembly comprises a magnetic attraction piece fixedly configured on an inner layer wall and a magnetic resistance piece fixedly configured on an outer layer wall, the magnetic resistance piece is provided with a hollow groove with an identification pattern shape, the magnetic attraction piece and the magnetic resistance piece are aligned, and an identification unit is configured to identify the magnetic attraction piece and the magnetic resistance piece. And the identification unit comprises a transparent ring cover with built-in magnetic powder, and the identification pattern of the hollow groove is figured by matching the magnetic powder with the magnetic piece. The invention provides a vacuum cup detection system, which can not be found on the outer surface of a vacuum cup through a hidden identification assembly, so that the vacuum cup is not easily damaged or tampered, the authenticity of data is ensured, and meanwhile, the subsequent links of vacuum welding, spraying, packaging and the like of the vacuum cup are detected and recorded. And the detection condition in the production process of the vacuum cup can be traced.

Description

Technical Field

[0001] The present invention relates to the technical field of thermos cup detection, in particular to a thermos cup detection system. Background Art

[0002] Thermos cups are a type of water storage container that is often used in daily life. However, the anti-counterfeiting or identification labels of existing thermos cups are often affixed to qualified products after production and testing. Therefore, the traceability through the labels can only be traced back to the qualified products.

[0003] As described in the patent publication number CN116020719A, laser engraving marks are performed on the inner and outer walls of the thermos cup after spraying is completed, and the production process of the thermos cup cannot be traced.

[0004] Thermos bottles need to undergo multiple tests during the production process, and need to be repaired or scrapped if they fail the test. Thermos bottles without markings can easily be confused with qualified products during the production process, making them difficult to distinguish.

[0005] If the label is simply posted or sprayed on the surface of the cup, it will hinder the spraying or be covered by the spray during the spraying process of the thermos cup. At the same time, the label on the surface of the cup can be easily damaged or tampered with, and the label of the thermos cup will become invalid or wrong. Summary of the Invention

[0006] The present invention aims to solve the deficiencies in the prior art and provides a thermos cup detection system.

[0007] In order to solve the above technical problems, the present invention is solved through the following technical solutions: a thermos cup detection system, including a thermos cup, an identification component is arranged in the vacuum layer of the thermos cup, the identification component includes a magnetic part fixedly arranged on the inner wall and a magnetic resistance part fixedly arranged on the outer wall, the magnetic resistance part is provided with a hollow groove in the shape of an identification pattern, and the magnetic part and the magnetic resistance part are aligned, an identification unit, the identification unit includes a transparent ring cover with built-in magnetic powder, and the identification pattern of the hollow groove is formed by the magnetic powder and the magnetic part, a central control unit, the central control unit includes a scanner for collecting the identification pattern and a database for recording data, the identification component is combined and formed when the inner and outer layers of the thermos cup are welded, and it begins to have an identification function, and the central control unit follows and records the subsequent production process of the thermos cup according to the identification pattern.

[0008] The beneficial effect is that the identification component is configured in the vacuum layer of the thermos cup, and then the subsequent bottom vacuum welding, spraying, packaging and other links of the thermos cup are detected and recorded, so that the status of the thermos cup in the production process can be traced.

[0009] In the above solution, preferably, the hollow groove patterns in each magnetic resistance component are different, so that each thermos cup has a unique identifier.

[0010] The beneficial effect is that uniqueness is ensured.

[0011] In the above scheme, preferably, the identification unit includes a vibrating member configured in a transparent ring cover to make the magnetic powder fly in the transparent ring cover. The transparent ring cover is close to the outside of the identification component of the thermos cup. The vibrating member drives the magnetic powder to fly in the transparent ring cover. The magnetic member absorbs the magnetic powder through the hollow groove, and the absorbed magnetic powder forms an identification pattern.

[0012] In the above solution, preferably, the hollow groove in the shape of the identification pattern on the magnetic resistance member has an identification pattern in the form of a QR code or a bar code pattern.

[0013] In the above solution, preferably, the identification component can also be used for anti-counterfeiting detection, and the bottom of the thermos cup is provided with an identification code for anti-counterfeiting authentication, and the identification code corresponds to the identification pattern and is recorded in the database.

[0014] Its beneficial effect is that it can also be used for anti-counterfeiting detection of thermos cups.

[0015] In the above solution, preferably, the identification unit is used to visualize the identification pattern of the thermos cup, and if there is no identification pattern, it is determined to be a counterfeit.

[0016] In the above scheme, preferably, the identification pattern and identification code are scanned separately and transmitted back to the database via the Internet for comparison. The central control unit compares the returned data with the records in the database. If they are consistent, it is a genuine and qualified product, and if they are inconsistent, it is a questionable product.

[0017] In the above scheme, preferably, the identification code is connected to an ink pressure chamber, and ink is stored in the ink pressure chamber. Primary verification is performed by scanning the identification code. If the verification is passed, a prompt is given to press the ink pressure chamber to allow ink to enter the identification code area, destroying the original factory identification code. After the ink dries, a new random second identification code is formed. The scanning device then uploads the second identification code to the database for storage.

[0018] In the above scheme, preferably, the identification code is located in a circular transparent cover, and a plurality of channel openings are arranged on the periphery of the circular transparent cover. The circular transparent cover is embedded on the cup bottom pad of the thermos cup, and one or two of the channel openings are randomly connected to the ink pressure chamber to ensure that the position where the ink enters the identification code is not fixed.

[0019] In the above solution, preferably, the ink in the ink pressure chamber is an ink bead with a flexible soft membrane. Initially, the ink is located in the ink bead. After squeezing, the flexible soft membrane ruptures and the ink flows out of the ink bead.

[0020] The beneficial effects of the present invention are: the present invention provides a thermos cup detection system, which uses a hidden identification component to prevent it from being discovered on the outer surface of the thermos cup, and is therefore not easily destroyed or tampered with, thereby ensuring the authenticity of the data. At the same time, the subsequent vacuum welding, spraying, packaging and other links of the thermos cup are detected and recorded, and the detection conditions in the thermos cup production process can be traced. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 Schematic diagram of the present invention.

[0022] Figure 2 This is a partial enlarged view of the matching position of the identification unit and the identification component of the present invention.

[0023] Figure 3 This is a partial enlarged view of the identification code and ink pressure chamber position of the present invention.

[0024] Figure 4 This is a flow chart of detecting and storing in a database for the present invention.

[0025] Figure 5 This is a flow chart of the anti-counterfeiting detection process of the present invention.

[0026] Figure 6 This is a detection flow chart of Example 3 of the present invention DETAILED DESCRIPTION

[0027] The present invention is further described in detail below with reference to the accompanying drawings and specific embodiments: Example 1:

[0028] See also Figures 1-4 A thermos cup detection system includes a thermos cup 1 for detection, an identification unit 2 for visualizing an invisible mark on the thermos cup, and a central control unit. The inner wall of the vacuum layer of the thermos cup 1 is provided with an identification component 11, and the identification component 11 is used to provide an invisible mark hidden in the vacuum layer of the thermos cup. The identification component 11 includes a magnetic component 111 and a magnetic resistance component 112. The magnetic component 111 is a magnet, which is fixed on the outer wall of the inner cup body of the thermos cup 1 by welding or adhesion, and is located at the neck of the thermos cup 1. The magnetic resistance component 112 includes a bottom plate, which is a resin substrate, and a high magnetic permeability material layer is compounded on the bottom plate. The high magnetic permeability material is slope. Mo alloy or silicon steel, which is used to block the passage of magnetic force. The magnetic blocking member 112 is fixed on the inner wall of the outer cup body of the thermos cup 1 by stitch welding or adhesion, and is aligned with the magnetic attraction member 111. A hollow groove in the shape of an identification pattern is provided on the magnetic blocking member 112. There is no high magnetic permeability material in the hollow groove, so the magnetic force can pass through the hollow groove. At the same time, since the high magnetic permeability material is compounded on the bottom plate, complex patterns can be etched on the magnetic blocking member 112, that is, the identification pattern can be set in the form of a QR code.

[0029] The magnetic attraction component 111 and the magnetic resistance component 112 are fixed on the inner and outer cup bodies of the thermos cup before welding. When welding the inner and outer cup bodies of the thermos cup, the magnetic attraction component 111 and the magnetic resistance component 112 are aligned before welding, so that the magnetic attraction component 111 and the magnetic resistance component 112 on the welded thermos cup are in an aligned state.

[0030] The identification unit 2 includes a transparent ring cover 21 with magnetic powder built in. The bottom of the transparent ring cover 21 is provided with a blowing member 22 for making the magnetic powder fly. When the blowing member 22 is started, the magnetic powder flies disorderly in the transparent ring cover 21.

[0031] The central control unit includes a scanner and a database for recording data.

[0032] Among them, in the setting of the alignment welding of the inner and outer walls of the thermos cup 1, an identification unit 2 is configured, which can be used to detect whether the magnetic element 111 and the magnetic resistance element 112 are aligned. The inner cup body equipped with the magnetic element 111 is first lifted to a set height, and then the inner cup body is rotated to align the magnetic element 111 with the transparent ring cover 21. At this time, the outer cup body equipped with the magnetic resistance element 112 is downwardly sleeved on the inner cup body. At this time, the blowing element 22 in the identification unit 2 is started, and the transparent ring cover 21 is close to the end face of the thermos cup and is full of magnetic powder. At the same time, the outer cup body starts to rotate, and when it rotates to the magnetic resistance element 1 When 12 is aligned with the magnetic element 111, only the magnetic force at the hollow groove position can act on the transparent ring cover 21 through the magnetic resistance element 112, thereby forming an identification pattern on the end face of the transparent ring cover 21 close to the thermos cup. After the scanner recognizes the complete identification pattern, the central control unit controls the blowing element 22 to stop, and the magnetic powder floating on the transparent ring cover 21 falls on the bottom surface. Only the end face close to the thermos cup has an identification pattern formed by the magnetic powder. At this time, the scanner scans a clear identification pattern and records this identification pattern in the data as a fixed code for this thermos cup.

[0033] At the same time, since the identification component 11 is located in the vacuum layer, the subsequent processes of the thermos cup will not interfere with the identification component 11. In each process, an identification unit 2 with a concrete identification pattern is configured, and then the information of the subsequent production of the thermos cup is summarized under this fixed code in the central control unit and stored in the database for subsequent traceability.

[0034] The hollow grooves on each magnetic resistance member 112 are unique and different. The identification pattern can be a QR code or a bar code, so that each thermos cup 1 has a unique fixed code. When unqualified products are mixed with qualified products, the identification unit 2 can be used to visualize the invisible identification of each thermos cup 1. Through this unique invisible identification, the database can be queried to see whether this thermos cup 1 is in a qualified state.

[0035] At the same time, this mark is in an invisible state, and the mark component 11 is located in the vacuum layer, so it will not be destroyed or replaced. In this way, this mark becomes the unique code of this thermos cup. When this unique code is destroyed or replaced, the thermos cup has also been destroyed, and the status of the thermos cup in the production process can be traced.

[0036] Example 2:

[0037] Compared with Example 1, the difference lies in the use of the invisible mark, and the rest are the same. Figure 1-Figure 5 , The identification component 11 can also be used for anti-counterfeiting detection. The bottom of the thermos cup 1 is provided with an identification code 13 for anti-counterfeiting authentication. The identification code 13 corresponds to the identification pattern and is recorded in a database.

[0038] An identification unit 2 is provided at a shopping mall or a specialty counter, and the user verifies the authenticity of the thermos cup 1 through the identification code 13. When the user is confused or inspecting the goods after unpacking, the user can perform bottom-level traceability authentication at the shopping mall or specialty counter with the identification unit 2.

[0039] The identification unit 2 is used to visualize the identification pattern on the thermos cup 1. If there is no identification pattern, it is determined to be a counterfeit.

[0040] The concretized logo pattern and identification code are scanned separately by mobile phones and transmitted back to the manufacturer's database via the Internet for comparison. The central control unit compares the transmitted data with the data in the database. If they are consistent, they are genuine and qualified products, otherwise they are not genuine.

[0041] Since the identification code 13 is attached to the bottom of the thermos cup, it is relatively easy to replace or copy. The invisible mark is located in the vacuum layer and requires special equipment to make it visible. At the same time, the invisible mark is unique, so when used for anti-counterfeiting detection, it can accurately distinguish the authenticity.

[0042] Example 3:

[0043] This embodiment makes the following further improvements on the basis of embodiment 2: Figures 1-6 , The identification code 13 is located in a circular transparent cover, and a plurality of channel openings are arranged on the periphery of the circular transparent cover. The circular transparent cover is embedded in the cup bottom pad of the thermos cup 1, and an ink pressing cavity 14 is arranged on the cup bottom pad. An ink bead wrapped by a flexible soft film is arranged in the ink pressing cavity 14. Pressing the ink pressing cavity 14 hard can rupture the flexible soft film, and then the ink in the ink bead can flow out. One or more channel openings on the circular transparent cover are randomly connected to the ink pressing cavity 14, and when the ink flows out, the position where the ink enters the identification code 13 is random.

[0044] The identification pattern and identification code 13 are uploaded to the database for comparison. If the comparison is successful, the user is prompted on the mobile interface to press the ink chamber 14 to allow the ink to enter the identification code 13 area, destroying the original factory identification code 13. After the ink dries, a new random second identification code is formed, and then the user is prompted to scan the new second identification code. After the second identification code is uploaded to the database, the second identification code corresponding to the identification pattern is updated in the database at the same time, and the detection is displayed on the user's mobile terminal as authentic.

[0045] This is to prevent both the logo pattern and the identification code 13 from being copied to produce counterfeit products. During the verification process, the original identification code 13 is upgraded to a second identification code, which is newly associated with the logo pattern, and the identification code 13 is discarded.

[0046] Avoid copying the same logo pattern and identification code 13 to pass anti-counterfeiting detection after production.

[0047] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the various embodiments of the present invention.

Claims

1. A vacuum cup detection system, characterized by: The invention comprises a thermos cup (1), wherein a marking component (11) is arranged in a vacuum layer of the thermos cup (1), the marking component (11) comprises a magnetic attraction component (111) fixedly arranged on an inner wall and a magnetic resistance component (112) fixedly arranged on an outer wall, the magnetic resistance component (112) is provided with a hollow groove in the shape of a marking pattern, and the magnetic attraction component (111) and the magnetic resistance component (112) are aligned; An identification unit (2), comprising a transparent ring cover (21) with built-in magnetic powder, wherein the magnetic powder cooperates with the magnetic element (111) to form a hollow groove identification pattern; The central control unit includes a scanner for collecting identification patterns and a database for recording data. The identification component (11) is assembled and formed when the inner and outer layers of the thermos cup are welded together, and then begins to have an identification function. The central control unit records the status of the thermos cup in the subsequent production process according to the identification pattern.

2. The vacuum cup detection system according to claim 1, characterized in that: The hollow groove patterns in each magnetic resistance member (112) are different, and thus each thermos cup (1) has a unique identifier.

3. The vacuum cup detection system according to claim 1, characterized in that: The identification unit (2) includes a blowing member (22) disposed in a transparent ring cover (21) for causing magnetic powder to fly in the transparent ring cover (21). The transparent ring cover (21) is close to the outside of the identification component (11) of the thermos cup (1). The blowing member (22) drives the magnetic powder to fly in the transparent ring cover (21). The magnetic member (111) absorbs the magnetic powder through the hollow groove, and the absorbed magnetic powder forms an identification pattern.

4. The vacuum cup detection system according to claim 1, characterized in that: The hollow groove in the shape of an identification pattern on the magnetic resistance member (112) has an identification pattern that is a QR code or a bar code pattern.

5. The vacuum cup detection system according to claim 1, characterized in that: The identification component (11) can also be used for anti-counterfeiting detection. The bottom of the thermos cup (1) is provided with an identification code (13) for anti-counterfeiting authentication. The identification code (13) corresponds to the identification pattern and is recorded in a database.

6. The vacuum cup detection system according to claim 5, characterized in that: The identification unit (2) is used to identify the thermos cup (1), and if there is no identification pattern, it is determined to be a counterfeit.

7. The vacuum cup detection system according to claim 6, characterized in that: The identification pattern and identification code are scanned separately and transmitted back to the database via the Internet for comparison. The central control unit compares the returned data with the records in the database. If they are consistent, it is a genuine and qualified product. If they are inconsistent, it is a questionable product.

8. The vacuum cup detection system according to claim 5, characterized in that: The identification code (13) is connected to an ink pressure chamber (14), and ink is stored in the ink pressure chamber (14); Verification is performed by scanning the identification code (13) and the identification pattern. If the verification is passed, the user is prompted to press the ink chamber (14) to allow ink to enter the identification code (13) area, destroying the original factory identification code (13). After the ink dries, a new random second identification code is formed; The scanning device then uploads the second identification code to the database for storage, and only then does it prompt that the verification is completed. If the second identification code is not uploaded, the identification pattern is recorded.

9. The vacuum cup detection system according to claim 8, characterized in that: The identification code (13) is located in a circular transparent cover. A plurality of channel openings are arranged on the periphery of the circular transparent cover. The circular transparent cover is embedded in the cup bottom pad of the thermos cup (1), and one or more of the channel openings are randomly connected to the ink pressure chamber (14), ensuring that the position where the ink enters the identification code (13) is not fixed.

10. The vacuum cup detection system according to claim 1, characterized in that: The ink in the ink pressing cavity (14) is an ink bead with a flexible soft membrane. Initially, the ink is located in the ink bead. After squeezing, the flexible soft membrane ruptures and the ink flows out of the ink bead.

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