Blister packaging box for storing dialysis device magnetic separation card board

Abstract

The utility model relates to the technical field of packaging boxes, and discloses a blister packaging box for storing a dialysis device magnetic separation card board, which comprises a bottom layer board, a second-layer board arranged at the top of the bottom layer board, a third-layer board arranged at the top of the second-layer board, a fourth-layer board arranged at the top of the third-layer board, and a fifth-layer board arranged at the top of the fourth-layer board. Placing grooves are formed in the middles of the three-layer plates, the four-layer plates or the five-layer plates, the bottom-layer plates, the two-layer plates, the three-layer plates, the four-layer plates, the five-layer plates and the placing grooves are equal in thickness, and the placing grooves formed in the middles of the four-layer plates are all communicated with the placing grooves formed in the three-layer plates at the bottoms of the four-layer plates. According to the storage device for the magnetic separation clamping plate of the dialysis device, the size of the magnetic separation clamping plate can be accurately matched through the containing grooves with the same thickness, the magnetic separation clamping plate can be stably placed, the containing grooves in all layers are communicated with one another, storage diversity is achieved, and meanwhile the quality and performance of the magnetic separation clamping plate of the dialysis device are guaranteed.

Description

Technical Field

[0001] This utility model relates to the field of packaging box technology, and in particular to a blister packaging box for storing magnetic separation plates of dialysis devices. Background Technology

[0002] Blister packaging boxes are packaging containers made primarily of plastic using a blister forming process. The process involves placing a plastic sheet on the heating element of a blister forming machine and heating it to a certain temperature until it softens. A vacuum pump then removes the air between the mold and the plastic sheet, creating a vacuum environment. Under atmospheric pressure, the softened plastic sheet adheres tightly to the surface of the mold, thus forming the mold's shape. The mold's shape can be designed in various styles to suit different product needs.

[0003] A search revealed Chinese patent publication number CN212829794U, which discloses a blister packaging box. The blister packaging box includes a base plate and multiple side plates, all connected to the base plate. The side plates are sequentially connected and enclose the base plate to form a receiving groove for placing items to be packaged. The surface of each side plate is also provided with a partition structure, which abuts against adjacent side plates of the blister packaging box. This utility model aims to improve the separation efficiency of the blister packaging box and increase product packaging efficiency. However, its structure is relatively simple, relying solely on the enclosure of the base plate and side plates and the abutment of adjacent side plates to improve separation efficiency. It lacks a precise and adaptable installation position design, and cannot achieve layered storage and diversified placement of magnetic cardboard trays. Utility Model Content

[0004] To overcome the above shortcomings, this utility model provides a blister packaging box for storing magnetic separation plates of dialysis devices, aiming to improve the problem that the existing technology only uses a bottom plate and side plates to surround and separate adjacent side plates, which cannot achieve layered storage and diversified placement of magnetic separation plates.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: a blister packaging box for storing magnetic separation plates of dialysis devices, comprising a bottom plate, a second layer plate on top of the bottom plate, a third layer plate on top of the second layer plate, a fourth layer plate on top of the third layer plate, and a fifth layer plate on top of the fourth layer plate. A placement groove is formed in the middle of each of the multiple third, fourth, or fifth layer plates. The bottom plate, second, third, fourth, and fifth layer plates and the placement grooves have equal thickness. The placement grooves in the middle of the multiple fourth layer plates are connected to the placement grooves in the bottom third layer plates. The placement grooves in the middle of the multiple fifth layer plates are connected to the placement grooves in the bottom fourth layer plates. A locking block is provided on an adjacent side of each of the multiple placement grooves. A stress-reinforcing mechanism is provided at the bottom of the second layer plate.

[0006] The above technical solution utilizes placement slots of equal thickness to precisely fit the size of the magnetic separator plate, ensuring stable placement. The placement slots are interconnected, allowing for flexible layered storage as needed, thus achieving diverse storage capabilities. The adjacent blocks tightly abut the magnetic separator plate, effectively limiting its displacement under vibration, pressure, or other external forces, preventing slippage, collision, or drop. This ensures safe, orderly, and efficient storage and protection of the dialysis device's magnetic separator plate, guaranteeing its quality and performance.

[0007] As a further description of the above technical solution:

[0008] The stress-strengthening mechanism includes multiple stress-strengthening circular holes, which are all located on the bottom left and right sides of the second layer plate. Multiple stress-strengthening square holes are located on the bottom front and rear sides of the second layer plate. Stress-strengthening grooves are provided between adjacent stress-strengthening circular holes and stress-strengthening square holes.

[0009] The above technical solution, by setting stress-reinforcing circular holes, stress-reinforcing square holes, and stress-reinforcing grooves at the bottom of the second layer, achieves uniform stress distribution at the bottom of the second layer under multi-directional stress, avoiding cracking damage caused by local stress concentration, greatly improving the structural stability and reliability of the second layer, and thus ensuring that the entire blister packaging box can maintain its integrity under complex stress environment.

[0010] As a further description of the above technical solution:

[0011] The bottom of the stress-reinforcing groove is at the horizontal level of the bottom plate, and the top of the stress-reinforcing circular hole and the stress-reinforcing square hole are at the horizontal level of the second plate.

[0012] Through the above technical solution: since the bottom of the stress-reinforcing groove is at the same level as the bottom plate, it can better transmit the stress on the second plate to the bottom plate. When an external force is applied to the second plate, the stress is transmitted to the bottom plate through the stress-reinforcing groove, allowing the bottom plate to share part of the stress, thereby enhancing the structural strength of the entire packaging box.

[0013] As a further description of the above technical solution:

[0014] The top edges of both the reinforced circular hole and the reinforced square hole are rounded.

[0015] Through the above technical solution, the stress can transition more smoothly when passing through the top edge of these holes, avoiding stress concentration points caused by sharp corners, thereby preventing the second layer plate from cracking from the edge of the hole.

[0016] As a further description of the above technical solution:

[0017] The bottom of the bottom plate has multiple processing grooves, which are respectively opened at the bottom of the three-layer plate, the four-layer plate, the five-layer plate and the placement groove.

[0018] The above technical solutions can ensure the accurate positioning of each layer and placement slot, improve production precision, and the processing slots may also reduce the weight of the entire packaging box to a certain extent, and reduce material costs without affecting structural stability.

[0019] As a further description of the above technical solution:

[0020] Two positioning holes are provided on the top front side of the second layer plate, and the bottom of both positioning holes is at the same level as the bottom layer plate.

[0021] The above technical solution involves two positioning holes on the front top of the second-layer board, with their bottoms positioned horizontally on the bottom layer board. These holes are primarily used for precise positioning during packaging box assembly or when working with other components.

[0022] As a further description of the above technical solution:

[0023] The front sides of both the bottom plate and the second plate are provided with multiple semi-circular slots, and the right sides of both the bottom plate and the second plate are provided with square slots.

[0024] The above technical solution uses multiple semi-circular slots on the front side of the bottom plate and the square slot on the right side for connection and fixation with other components. This enhances the stability of the packaging box during storage or transportation, prevents accidental separation or displacement of the packaging box, and ensures the safe storage of the magnetic separation plate of the dialysis device.

[0025] As a further description of the above technical solution:

[0026] Both the bottom and second-layer plates have a rounded design on their outer perimeter.

[0027] The above technical solution involves rounded edges around the bottom and second layers to prevent accidental injury to users during use. The rounded edges also reduce damage to the packaging box from external collisions. When the packaging box collides with other objects, the rounded edges can distribute the impact force more evenly, reducing the probability of localized damage.

[0028] This utility model has the following beneficial effects:

[0029] 1. In this utility model, by using placement slots of equal thickness to precisely fit the size of the magnetic separator plate, the magnetic separator plate can be placed stably, and the placement slots of each layer are interconnected, allowing for flexible layered storage according to needs, thus achieving diverse storage capabilities. The card blocks next to the placement slots tightly abut against the magnetic separator plate, effectively limiting the displacement of the magnetic separator plate when subjected to external forces such as vibration and compression, preventing it from sliding, colliding, or falling off. This achieves safe, orderly, and efficient storage and protection of the magnetic separator plate of the dialysis device, ensuring its quality and performance.

[0030] 2. In this utility model, by setting stress-reinforcing circular holes, stress-reinforcing square holes, and stress-reinforcing grooves at the bottom of the second layer, stress is evenly distributed at the bottom of the second layer under multi-directional stress, avoiding cracking damage caused by local stress concentration, greatly improving the structural stability and reliability of the second layer, and thus ensuring that the entire blister packaging box can maintain its integrity under complex stress environment. Attached Figure Description

[0031] Figure 1 This is a front view of a blister packaging box for storing magnetic card plates of dialysis devices, as proposed in this utility model.

[0032] Figure 2 This is a top view of a blister packaging box for storing magnetic card plates of a dialysis device, as proposed in this utility model.

[0033] Figure 3 This is a perspective view of a blister packaging box for storing magnetic card plates of a dialysis device, as proposed in this utility model.

[0034] Figure 4 This is a bottom view of a blister packaging box for storing magnetic card plates of a dialysis device, as proposed in this utility model.

[0035] Figure 5 This is a right view of a blister packaging box for storing magnetic card plates of a dialysis device, as proposed in this utility model.

[0036] Legend:

[0037] 1. Bottom layer; 2. Second layer; 3. Third layer; 4. Fourth layer; 5. Fifth layer; 6. Placement slot; 7. Locking block; 8. Reinforced circular hole; 9. Reinforced square hole; 10. Reinforced groove; 11. Machining groove; 12. Positioning hole; 13. Semi-circular slot; 14. Square slot. Detailed Implementation

[0038] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings. 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.

[0039] Reference Figure 1 , Figure 2 and Figure 5 This utility model provides an embodiment of a blister packaging box for storing magnetic dialysis device card plates, comprising a bottom plate 1, a second plate 2 on top of the bottom plate 1, the bottom plate 1 providing a stable foundation support for the entire packaging box, ensuring the stable placement of the upper plates and the contents; a third plate 3 on top of the second plate 2, serving as a connecting element in the structure and assisting in building the frame of the packaging box; a fourth plate 4 on top of the third plate 3, providing additional placement space and structural layers for the contents; and a fifth plate 5 on top of the fourth plate 4, further expanding the vertical space layout of the packaging box. Placement slots 6 are provided in the middle of the multiple third plates 3, fourth plates 4, or fifth plates 5, which can precisely accommodate the magnetic dialysis device card plates, allowing them to be stored orderly and protected. The thickness of the five-layer plate 5 and the placement slot 6 are equal. This equal thickness design ensures the tightness and regularity of the assembly of each component, which facilitates the placement and fixing of the magnetic sorting plate. The placement slots 6 in the middle of the multiple four-layer plates 4 are connected to the placement slots 6 in the bottom three-layer plates 3. The placement slots 6 in the middle of the multiple five-layer plates 5 are connected to the placement slots 6 in the bottom four-layer plates 4. The connected placement slots 6 facilitate the transfer and classification of the magnetic sorting plate between different layers, which improves the storage flexibility of the packaging box. Each adjacent side of the multiple placement slots 6 is provided with a locking block 7. The locking block 7 can effectively lock the magnetic sorting plate to prevent it from shifting or shaking during transportation or storage, thus ensuring the safety of the magnetic sorting plate. The bottom of the two-layer plate 2 is provided with a stress-strengthening mechanism. The stress-strengthening mechanism can enhance the stress-bearing capacity of the two-layer plate 2 and prevent it from being damaged by external forces, thereby improving the structural stability of the entire packaging box.

[0040] Specifically, the bottom layer 1 is the foundation of the entire packaging box, bearing the heavy responsibility of supporting all the components above and providing a stable base platform for the entire packaging structure. The second layer 2 is stacked on top of the bottom layer 1, and the two work together to initially construct the basic framework of the packaging box, determining the spatial hierarchy in the vertical direction. The third layer 3, fourth layer 4, and fifth layer 5 are arranged upwards in sequence, each with a placement slot 6 in the middle. Since the bottom layer 1, second layer 2, third layer 3, fourth layer 4, fifth layer 5, and placement slot 6 are all of equal thickness, this equal thickness design greatly facilitates the placement of the magnetic card plate. The magnetic card separator offers convenience, precisely fitting into the space of the placement slot 6 when storage is required, avoiding instability or tilting due to size differences. Regarding the connectivity of the placement slots 6, the middle slots 6 of multiple four-layer boards 4 are connected to the placement slots 6 of the bottom three-layer board 3, and the middle slots 6 of multiple five-layer boards 5 are connected to the placement slots 6 of the bottom four-layer board 4. This allows the magnetic card separator to smoothly transition between different layers of placement slots 6, facilitating flexible layered placement based on the quantity, specifications, or storage plan of the magnetic card separators. It also allows for flexible layering of different batches or types of magnetic card separators. The magnetic divider can be placed in different layers of storage slots 6 for categorized storage, improving the storage versatility of packaging boxes. When the magnetic divider is placed in slot 6, a locking block 7 on the adjacent side of slot 6 firmly abuts against it. In everyday storage environments, even if the packaging box experiences slight vibration, shaking, or external pressure, the locking block 7 effectively restricts the displacement of the magnetic divider, preventing it from sliding, colliding, or falling out of the storage slot 6. For example, during transportation, vehicle bumps may cause the packaging box to shake violently, but the presence of the locking block 7 ensures the magnetic divider remains secure. The magnetic separator plates are always kept in a secure and fixed state, avoiding surface scratches and damage caused by mutual friction or impact with the inner wall of the packaging box. This ensures that the quality and performance of the magnetic separator plates are not affected. The placement slot 6 provides a precise placement space for the magnetic separator plates and achieves layered connectivity. At the same time, the card block 7 fixes the magnetic separator plates, creating a safe and stable storage environment for the magnetic separator plates of the dialysis device. Whether in storage or transportation, the magnetic separator plates can be effectively protected, ensuring that they can function normally in the subsequent use of the dialysis device.

[0041] Reference Figure 1 , Figure 2 and Figure 3The stress-strengthening mechanism includes multiple reinforcing circular holes 8, which are located on the bottom left and right sides of the second-layer plate 2. These reinforcing circular holes 8 can change the stress distribution of the second-layer plate 2 in the left and right directions, disperse and absorb external force energy, and effectively avoid damage caused by excessive local stress. Multiple reinforcing square holes 9 are provided on the bottom front and rear sides of the second-layer plate 2. These reinforcing square holes 9 can guide the stress to be evenly distributed when subjected to force in the front and rear directions, and enhance the deformation resistance of the second-layer plate 2 in the front and rear directions. Reinforcing grooves 10 are provided between the multiple reinforcing circular holes 8 and the reinforcing square holes 9. These reinforcing grooves 10 can optimize the stress transmission path, coordinate the circular holes and square holes to work together, make the overall stress distribution of the second-layer plate 2 more uniform and reasonable, and improve the structural stability when subjected to force in multiple directions.

[0042] Specifically, in the structure of the blister packaging box, the second layer 2 plays a crucial connecting role, linking the upper and lower layers. Multiple reinforcing circular holes 8 are evenly distributed on the left and right sides of the bottom of the second layer 2. The presence of these circular holes alters the stress distribution of the second layer 2 in this area. When the packaging box is subjected to external pressure or impact from the left or right direction, the material around the reinforcing circular holes 8 deforms. This deformation disperses and absorbs the energy from the external force, preventing stress concentration at any point or in any area, thus avoiding cracking or damage to the second layer 2 due to excessive local stress. The multiple reinforcing square holes 9 on the front and back sides of the bottom of the second layer 2 serve the same function as the reinforcing circular holes 8. When subjected to force in the front-back direction, the reinforcing square holes 9 effectively guide the stress to be dispersed and transmitted along the edges of the holes. The shape of the square holes allows them to effectively withstand pressure or tension in the front-back direction. By distributing force evenly across a larger area of ​​material through its own structural form, the stress-reinforcing groove 10 is located between the adjacent stress-reinforcing circular hole 8 and stress-reinforcing square hole 9, further optimizing the stress transmission path and connecting the stress areas dispersed by the circular and square holes. This allows the stress at the bottom of the entire second-layer plate 2 to be transmitted and balanced more smoothly between different types of reinforcing holes. When the packaging box is subjected to forces in both left-right and front-back directions, the stress-reinforcing groove 10 can coordinate the circular and square holes to work together, making the overall stress distribution of the second-layer plate 2 more uniform and reasonable. This greatly improves the structural stability and reliability of the second-layer plate 2 under multi-directional stress conditions, ensuring that the entire blister packaging box can maintain its complete structural form even when affected by various external forces during storage and transportation, providing a safe storage environment for the magnetic separation plate of the dialysis device.

[0043] Reference Figure 2 , Figure 3 and Figure 4The bottom of the stress-reinforcing groove 10 is at the horizontal level of the bottom plate 1. The stress-reinforcing groove 10 can more smoothly transmit the stress on the second plate 2 to the bottom plate 1, enhancing the overall structural stress-bearing capacity. The top of the stress-reinforcing circular hole 8 and the stress-reinforcing square hole 9 are at the horizontal level of the second plate 2. This position design of the top of the stress-reinforcing circular hole 8 and the stress-reinforcing square hole 9 is conducive to dispersing stress on the plane of the second plate 2. The top of the stress-reinforcing circular hole 8 and the stress-reinforcing square hole 9 are all rounded. The rounded design can reduce stress concentration and reduce the risk of the second plate 2 cracking due to stress concentration at the edge of the hole. The bottom of the bottom plate 1 has multiple processing grooves 11. The processing grooves 11 are respectively opened at the bottom of the third plate 3, the fourth plate 4, the fifth plate 5 and the placement groove 6. The processing grooves 11 facilitate the precise positioning and fixing of each component during the production process, and at the same time help to reduce the weight of the packaging box and reduce material costs.

[0044] Specifically, since the bottom of the stress-reinforcing groove 10 is at the same level as the bottom plate 1, it can better transmit the stress on the second layer plate 2 to the bottom plate 1. When an external force is applied to the second layer plate 2, the stress is transmitted to the bottom plate 1 through the stress-reinforcing groove 10, allowing the bottom plate 1 to share some of the stress, thereby enhancing the structural strength of the entire packaging box. The top of the stress-reinforcing circular hole 8 and the stress-reinforcing square hole 9 are at the same level as the second layer plate 2. The smooth design around the top can reduce stress concentration. When an external force is applied to the second layer plate 2, the stress can transition more smoothly when passing through the top edge of these holes, avoiding stress concentration points caused by sharp edges and corners, thereby preventing the second layer plate 2 from cracking from the edge of the hole. In the production process, these processing grooves 11 can serve as positioning references for molds or processing tools, ensuring the accurate position of each layer plate and the placement groove 6, improving production precision. At the same time, the processing grooves 11 may also reduce the weight of the entire packaging box to a certain extent, and reduce material costs without affecting structural stability.

[0045] Reference Figure 1 , Figure 2 and Figure 3The top front side of the second layer plate 2 has two positioning holes 12. The bottom of the two positioning holes 12 is at the same level as the bottom layer plate 1. The positioning holes 12 can accurately determine the position of the second layer plate 2 relative to the bottom layer plate 1 when the packaging box is assembled or used with other components, ensuring the assembly accuracy of each layer. The front side of both the bottom layer plate 1 and the second layer plate 2 has multiple semi-circular slots 13. The semi-circular slots 13 can be used with external connecting components to connect and fix the packaging box with other equipment or components, enhancing storage or transportation stability. The right side of both the bottom layer plate 1 and the second layer plate 2 has square slots 14. The square slots 14 are also used to connect with specific components, expanding the connection methods and application scenarios of the packaging box. The outer perimeter of both the bottom layer plate 1 and the second layer plate 2 is rounded. The rounded design can prevent scratches to operators during handling, assembly or disassembly, and reduce damage to the packaging box from external collisions.

[0046] Specifically, the two positioning holes 12 on the top front side of the second layer plate 2 are positioned horizontally at the bottom of the bottom plate 1. They are mainly used for precise positioning during packaging box assembly or when used with other components. The multiple semi-circular slots 13 on the front side of the bottom plate 1 and the square slots 14 on the right side of the second layer plate 2 are used for connection and fixation with other components. This can enhance the stability of the packaging box during storage or transportation, prevent accidental separation or displacement of the packaging box, and ensure the safe storage of the magnetic separation plate of the dialysis device. The rounded design of the outer perimeter of the bottom plate 1 and the second layer plate 2 is mainly to avoid accidental injury to the user during use. At the same time, the rounded design can also reduce the damage to the packaging box itself caused by external collisions. When the packaging box collides with other objects, the rounded edges can distribute the collision force more evenly and reduce the probability of local damage.

[0047] Working principle: The bottom layer 1 is the foundation of the entire packaging box, bearing the heavy responsibility of supporting all the components above, providing a stable basic platform for the entire packaging structure. The second layer 2 is stacked on top of the bottom layer 1, and the two work together to initially construct the basic framework of the packaging box, determining the spatial hierarchy in the vertical direction. The third layer 3, fourth layer 4, and fifth layer 5 are arranged upwards in sequence, and each of them has a placement groove 6 in the middle. Because the thickness of the bottom layer 1, second layer 2, third layer 3, fourth layer 4, fifth layer 5, and placement groove 6 are similar... This uniform thickness design greatly facilitates the placement of magnetic divider plates. When storage is required, the magnetic divider plate can precisely fit the space of the placement slot 6, avoiding instability or tilting caused by size differences. Regarding the connectivity of the placement slots 6, the placement slots 6 in the middle of multiple four-layer plates 4 are connected to the placement slots 6 of the bottom three-layer plate 3, and the placement slots 6 in the middle of multiple five-layer plates 5 are connected to the placement slots 6 of the bottom four-layer plate 4. This allows the magnetic divider plate to smoothly transition between different layers of placement slots 6, facilitating... The magnetic sorting cards can be flexibly layered according to their quantity, specifications, or storage plan. If there are different batches or types of magnetic sorting cards, they can be placed in different layers of placement slots 6 to achieve classified storage and improve the storage diversity of packaging boxes. When the magnetic sorting cards are placed in placement slot 6, the card blocks 7 set on the adjacent side of placement slot 6 tightly abut against the magnetic sorting cards from the side. In the daily storage environment, even if the packaging box is subjected to slight vibration, shaking, or external pressure, the card blocks 7 can effectively limit the displacement of the magnetic sorting cards and prevent them from sliding, colliding, or falling in placement slot 6. For example, during transportation, the bumps of the vehicle may cause the packaging box to shake violently, but the presence of card blocks 7 can ensure that the magnetic sorting cards are always in a safe and fixed state, avoiding surface scratches and damage caused by the magnetic sorting cards rubbing against each other or hitting the inner wall of the packaging box, thereby ensuring that the quality and performance of the magnetic sorting cards are not affected. Placement slot 6 provides precise placement space for magnetic sorting cards and achieves layered connection, while card blocks 7 fix the magnetic sorting cards.

[0048] Furthermore, the second layer 2 plays a crucial connecting role, with multiple reinforcing circular holes 8 evenly spaced on the left and right sides of the bottom of the second layer 2. These holes alter the stress distribution in this area. When the packaging box is subjected to external pressure or impact from the left or right, the material around the reinforcing circular holes 8 deforms. This deformation disperses and absorbs the energy from the external force, preventing stress concentration at any single point or area, thus avoiding cracking or damage to the second layer 2 due to excessive local stress. The multiple reinforcing square holes 9 on the front and back sides of the bottom of the second layer 2 serve the same function as the reinforcing circular holes 8. When subjected to force in the front-back direction, the reinforcing square holes 9 effectively guide the stress to be dispersed and transmitted along the edges of the holes. The shape of the holes allows them to distribute the force evenly over a larger area of ​​material when subjected to pressure or tension in the front-to-back direction. The stress-reinforcing grooves 10 are located between the adjacent stress-reinforcing circular holes 8 and stress-reinforcing square holes 9, further optimizing the stress transmission path and connecting the stress areas dispersed by the circular and square holes. This allows the stress at the bottom of the entire double-layer board 2 to be transmitted and balanced more smoothly between different types of reinforcing holes. When the packaging box is subjected to forces in both the left-to-right and front-to-back directions, the stress-reinforcing grooves 10 can coordinate the circular and square holes to work together, making the overall stress distribution of the double-layer board 2 more uniform and reasonable, and greatly improving the structural stability and reliability of the double-layer board 2 under multi-directional stress conditions.

[0049] Finally, it should be noted that the above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Although the present utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A blister pack for storing magnetic dialysis device cards, comprising a bottom panel (1), characterized in that: The top of the bottom plate (1) is provided with a two-layer plate (2), the top of the two-layer plate (2) is provided with a three-layer plate (3), the top of the three-layer plate (3) is provided with a four-layer plate (4), the top of the four-layer plate (4) is provided with a five-layer plate (5), the middle of a plurality of three-layer plates (3), four-layer plates (4) or five-layer plates (5) is provided with a placing groove (6), the thickness of the bottom plate (1), the two-layer plate (2), the three-layer plate (3), the four-layer plate (4), the five-layer plate (5) and the placing groove (6) is equal, the placing groove (6) opened in the middle of a plurality of four-layer plates (4) is communicated with the placing groove (6) opened in the three-layer plate (3) at the bottom thereof, the placing groove (6) opened in the middle of a plurality of five-layer plates (5) is communicated with the placing groove (6) opened in the four-layer plate (4) at the bottom thereof, the adjacent side of a plurality of placing grooves (6) is provided with a clamping block (7), and the bottom of the two-layer plate (2) is provided with a stress strengthening mechanism.

2. The blister pack for storing the magnetic dialysis device card according to claim 1, wherein: The stress strengthening mechanism comprises a plurality of stress strengthening circular holes (8), a plurality of stress strengthening circular holes (8) are opened in the left and right sides of the bottom of the two-layer plate (2), a plurality of stress strengthening square holes (9) are opened in the front and rear sides of the bottom of the two-layer plate (2), and a stress strengthening groove (10) is opened between adjacent stress strengthening circular holes (8) and stress strengthening square holes (9).

3. The blister pack for storing the magnetic dialysis device card according to claim 2, wherein: The bottom position of the stress strengthening groove (10) is at the horizontal height of the bottom plate (1), and the top positions of the stress strengthening circular holes (8) and the stress strengthening square holes (9) are at the horizontal height of the two-layer plate (2).

4. The blister pack for storing the magnetic dialysis device card according to claim 2, wherein: The top of the stress strengthening circular hole (8) and the stress strengthening square hole (9) is designed to be round and smooth.

5. The blister pack for storing the magnetic dialysis device card according to claim 1, wherein: A plurality of processing grooves (11) are opened in the bottom of the bottom plate (1), and a plurality of processing grooves (11) are opened in the bottom of the three-layer plate (3), the four-layer plate (4), the five-layer plate (5) and the placing groove (6) respectively.

6. The blister pack for storing the magnetic dialysis device card according to claim 1, wherein: Two positioning holes (12) are opened in the top front side of the two-layer plate (2), and the bottoms of the two positioning holes (12) are at the horizontal position of the bottom plate (1).

7. The blister pack for storing the magnetic dialysis device card according to claim 1, wherein: A plurality of semicircular clamping grooves (13) are opened in the front side of the bottom plate (1) and the two-layer plate (2), and a square clamping groove (14) is opened in the right side of the bottom plate (1) and the two-layer plate (2).

8. The blister pack for storing the magnetic dialysis device card according to claim 1, wherein: The outer four sides of the bottom plate (1) and the two-layer plate (2) are designed to be round and smooth.

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