Anti-lamination structure of blister box

Abstract

The utility model relates to an anti-lamination structure of a blister box, which belongs to the technical field of blister box packaging and comprises a first blister box component, a second blister box component and a third blister box component, the first blister box component is provided with a plurality of accommodating cavities, and the accommodating cavities include at least a first accommodating cavity, a second accommodating cavity and a third accommodating cavity; the second blister box assembly is arranged on the first blister box assembly, the second blister box assembly is provided with adaptation cavities, and the multiple adaptation cavities are at least a first adaptation cavity, a second adaptation cavity and a third adaptation cavity; the distance between the first containing cavity and the second containing cavity is L1, the distance between the second containing cavity and the third containing cavity is L2, the distance between the first adaptive cavity and the second adaptive cavity is L3, and the distance between the second adaptive cavity and the third adaptive cavity is L4. According to the anti-lamination structure of the blister box, L1 is not equal to L3, and L2 is not equal to L4, so that the problems of adhesion between different layers, difficulty in taking and even product damage are effectively avoided.

Description

Technical Field

[0001] This utility model relates to the field of blister box packaging technology, and in particular to a blister box anti-laminated structure. Background Technology

[0002] In the field of blister packaging, the stacking and storage of multi-layer blister boxes often faces the problem of compression caused by the nesting between different layers during transportation. Traditional blister packaging often uses identical blister boxes stacked sequentially in the height direction. The upper blister box is prone to sinking into the cavity of the lower blister box used to hold the product due to gravity, resulting in the different layers sticking together, difficulty in retrieval, and even product damage. Utility Model Content

[0003] Therefore, it is necessary to provide a blister pack anti-lamination structure to address the problem that traditional upper blister packs are prone to sinking into the cavity of the lower blister pack used to hold products due to gravity, resulting in adhesion between different layers, difficulty in retrieval, or even product damage.

[0004] A blister pack anti-lamination structure includes: a first blister pack assembly, the first blister pack assembly having multiple receiving cavities, the multiple receiving cavities being at least a first receiving cavity, a second receiving cavity, and a third receiving cavity, the first receiving cavity, the second receiving cavity, and the third receiving cavity being arranged sequentially along the width direction of the first blister pack assembly; and a second blister pack assembly, the second blister pack assembly being disposed on the first blister pack assembly, the second blister pack assembly having multiple adapter cavities, the multiple adapter cavities being at least a first adapter cavity, a second adapter cavity, and a third receiving cavity. Two adapter cavities and a third adapter cavity, wherein the first adapter cavity, the second adapter cavity and the third adapter cavity are arranged sequentially along the width direction of the second blister pack assembly; the distance between the first receiving cavity and the second receiving cavity is L1, the distance between the second receiving cavity and the third receiving cavity is L2, the distance between the first adapter cavity and the second adapter cavity is L3, and the distance between the second adapter cavity and the third adapter cavity is L4; wherein L1 is greater than L3 and L2 is less than L4; or, L1 is less than L3 and L2 is greater than L4.

[0005] This application discloses an anti-lamination structure for blister packs. By ensuring that L1≠L3 and L2≠L4, the fitting cavity of the upper second blister pack assembly and the receiving cavity of the lower first blister pack assembly are horizontally offset, preventing the bottom of the upper receiving cavity from falling vertically into the lower fitting cavity and avoiding interlayer compression problems caused by gravity. This design effectively prevents the upper blister pack from sinking into the cavity of the lower blister pack used to hold the product due to gravity, thus avoiding problems such as adhesion between different layers, difficulty in retrieval, or even product damage. Moreover, this design is simple and reliable, effectively solving the lamination problem of traditional blister pack stacking without increasing production costs, and improving the practicality and reliability of the packaging. By ensuring that L1 is greater than L3 and L2 is less than L4, and vice versa, the overall dimensions of the first and second blister pack assemblies are approximately the same, avoiding more complex stacking processes due to excessive size differences, and ensuring an overall harmonious and aesthetically pleasing stacked appearance.

[0006] In one embodiment, the first blister pack assembly has a fourth receiving cavity, and the first, second, fourth, and third receiving cavities are sequentially arranged along the width direction of the first blister pack assembly. The second blister pack assembly has a fourth adapter cavity, and the first, second, fourth, and third adapter cavities are sequentially arranged along the width direction of the second blister pack assembly. By adding the fourth receiving cavity and the fourth adapter cavity, the width direction layout of the blister pack is further expanded while maintaining the original anti-lamination structure, allowing a single blister pack to accommodate more products and improving packaging efficiency. Moreover, the multiple cavities arranged sequentially along the width direction ensure that the products are arranged orderly within the packaging, avoiding mutual interference, while maintaining the anti-nesting effect when stacked.

[0007] In one embodiment, the distance between the fourth receiving cavity and the third receiving cavity is L5, and the distance between the fourth adapter cavity and the third adapter cavity is L6; L1 is greater than L3, L2 is less than L4, and L5 is less than L6; or, L1 is less than L3, L2 is greater than L4, and L5 is greater than L6. By ensuring that L1 is greater than L3, L2 is less than L4, and L5 is less than L6, and L1 is less than L3, L2 is greater than L4, and L5 is greater than L6, the four upper cavities cannot fall into the four lower cavities due to gravity, avoiding nesting issues that could lead to adhesion between different layers, difficulty in retrieval, or even product damage. Furthermore, the overall dimensions of the first and second blister pack assemblies are approximately the same, avoiding significant size differences that could complicate the stacking process and ensuring a harmonious and aesthetically pleasing overall appearance.

[0008] In one embodiment, the first blister pack assembly has first gripper spaces at both ends. The number of first gripper spaces at one end of the first blister pack assembly is a1, and the number of first gripper spaces at the other end of the first blister pack assembly is b1. The second blister pack assembly has third gripper spaces at both ends. The number of third gripper spaces at one end of the second blister pack assembly is a2, where a2 is greater than or less than a1, and the number of third gripper spaces at the other end of the second blister pack assembly is b1, where b1 is greater than or less than b1. a1, a2, b1, and b1 are all positive integers. The arrangement of the first and third gripper spaces at both ends provides a force application point for the separation of the upper and lower first and second blister pack assemblies, making the separation of the first and second blister pack assemblies simpler and more convenient. By having different numbers of upper third gripper spaces than lower first gripper spaces at both ends, the first and third gripper spaces can be staggered, preventing structures with third gripper spaces from getting stuck in the lower first gripper space and preventing the first and second blister box components from getting stuck together, thus making separation easier and reducing the complexity of the work.

[0009] In one embodiment, the first blister pack assembly has second gripper spaces on both sides. The number of second gripper spaces on one side of the first blister pack assembly is c1, and the number of second gripper spaces on the other side of the first blister pack assembly is d1. The second blister pack assembly has fourth gripper spaces on both sides. The number of fourth gripper spaces on one side of the second blister pack assembly is c2, where c2 is greater than or less than c1. The number of fourth gripper spaces on the other side of the second blister pack assembly is d2, where d2 is greater than or less than d1. c1, c2, d1, and d2 are all positive integers. By having different numbers of upper fourth gripper spaces than lower second gripper spaces on both sides, a staggered distribution of the second and fourth gripper spaces can be achieved. This prevents structures with fourth gripper spaces from getting stuck in lower second gripper spaces, and avoids the first and second blister pack assemblies from interlocking, thus making separation easier and reducing operational complexity.

[0010] In one embodiment, there are multiple first blister pack assemblies arranged sequentially along the height direction, and multiple second blister pack assemblies arranged sequentially along the height direction, with the first and second blister pack assemblies alternating. By alternating the first and second blister pack assemblies with different distances between the upper and lower cavities, a systematic staggered layout is formed, ensuring that each blister pack layer effectively prevents it from getting stuck into adjacent layers. This solves the problem of potential product damage caused by overall nesting when multiple layers are stacked. Furthermore, it ensures that any two adjacent layers can be easily separated, avoiding difficulties in retrieval caused by multiple layers sticking together.

[0011] In one embodiment, the first blister pack assembly and the second blister pack assembly have identical structures. Because the first and second blister pack assemblies have the same structure, they are essentially the same type of blister pack. Furthermore, the staggered distribution between the upper and lower cavities can be achieved through operations such as rotating the same blister pack. Using blister packs with identical structures reduces the number of mold types and lowers production costs.

[0012] In one embodiment, the second blister pack assembly can be formed by rotating the first blister pack assembly 180 degrees. By allowing the second blister pack assembly to be formed by rotating the first blister pack assembly 180 degrees, only a single mold is needed to produce both the upper and lower blister pack assemblies, significantly reducing mold development and manufacturing costs. The 180-degree rotation stacking design naturally creates a completely symmetrical staggered layout between the upper and lower cavities, ensuring that all receiving cavities and fitting cavities cannot be vertically nested.

[0013] In one embodiment, the first blister pack assembly includes a supporting shell and an insulating shell. The second blister pack assembly is disposed on the insulating shell, which has the receiving cavity. The supporting shell is disposed on the insulating shell and has a first gripper space located at an end of the supporting shell. By having the supporting shell of the second blister pack assembly, for example, disposed on the insulating shell of the first blister pack assembly, stable support for the insulating shell is achieved, preventing the receiving cavities and fitting cavities of different blister pack assemblies from overlapping and potentially damaging the product.

[0014] In one embodiment, the isolation housing includes a first isolation shell, a second isolation shell, and a receiving shell. Multiple first isolation shells are disposed on the supporting housing and arranged sequentially along the width direction of the supporting housing. Multiple second isolation shells are disposed on the first isolation shells and arranged sequentially along the length direction of the supporting housing. The receiving shell is disposed on the first and / or second isolation shells. The first, second, and receiving shells together form the receiving cavity. The arrangement of the first and second isolation shells creates a receiving cavity for placing the product, ensuring product stability and preventing easy damage. Furthermore, the second isolation shell connects two adjacent first isolation shells, increasing the overall strength of the structure and improving the pressure resistance of the first and second blister pack assemblies.

[0015] In one embodiment, the support housing is disposed around the isolation housing. By distributing the support housing around the isolation housing, a stable support function can be provided for the isolation housing, ensuring that multiple layers of blister packs can be stacked stably.

[0016] In one embodiment, the first gripper space is provided at both ends of the supporting shell. The number of first gripper spaces at one end of the supporting shell is a1, and the number of first gripper spaces at the other end of the supporting shell is b1. a1 is greater than b1, or b1 is greater than a1, and both a1 and b1 are positive integers. By having different numbers of first gripper spaces at both ends of the supporting shell, when the blister packs are rotated 180 degrees and stacked vertically, the gripper areas at the same end of the upper and lower layers of blister packs can be naturally misaligned. This prevents the first gripper space of the upper layer from sinking into the corresponding gripper space of the lower layer, ensuring that each layer of blister packs is independently separated during stacking.

[0017] In one embodiment, a second gripper space is provided on both sides of the supporting shell. The number of second gripper spaces on one side of the supporting shell is c1, and the number of second gripper spaces on the other side of the supporting shell is d1. c1 is greater than d1, or d1 is greater than c1, and both c1 and d1 are positive integers. By having different numbers of second gripper spaces on both sides of the supporting shell, when the blister packs are rotated 180 degrees and stacked vertically, the gripper areas on the same side of the upper and lower layers of blister packs can be naturally misaligned, preventing the gripper space of the upper layer from sinking into the corresponding gripper space of the lower layer, and ensuring that each layer of blister packs is independently separated during stacking.

[0018] In one embodiment, the first blister pack assembly has multiple grooves arranged circumferentially along the cavity wall, and all grooves communicate with the cavity. By arranging multiple grooves circumferentially along the cavity wall, the compressive strength of the cavity wall is effectively improved, preventing it from easily bending or deforming.

[0019] In one embodiment, there are multiple first receiving cavities, which are arranged sequentially along the length of the first blister pack assembly.

[0020] In one embodiment, there are multiple second receiving cavities, which are arranged sequentially along the length of the first blister pack assembly.

[0021] In one embodiment, there are multiple third receiving cavities, which are arranged sequentially along the length of the first blister pack assembly. Attached Figure Description

[0022] Figure 1 The first perspective view of the anti-laminarization structure of the blister box;

[0023] Figure 2 This is a second perspective view of the anti-laminarization structure of the blister box;

[0024] Figure 3 This is a cross-sectional view of the anti-laminarization structure of the blister box;

[0025] Figure 4 for Figure 3 Enlarged view of point A in the middle;

[0026] Figure 5 for Figure 3 Enlarged view at point B in the middle;

[0027] Figure 6 The first exploded view of the anti-laminarization structure of the blister box;

[0028] Figure 7 This is the second exploded view of the anti-lamination structure of the blister box;

[0029] Figure 8 This is a first perspective view of the first blister pack assembly;

[0030] Figure 9 for Figure 8 Enlarged view at point C;

[0031] Figure 10 This is a second perspective view of the first blister pack assembly.

[0032] The correspondence between the reference numerals and the component names is as follows:

[0033] 1 First blister box assembly, 11 Supporting shell, 12 Isolation shell, 121 First isolation shell, 122 Second isolation shell, 123 Receiving shell, 101 First receiving cavity, 102 Second receiving cavity, 103 Third receiving cavity, 104 Fourth receiving cavity, 105 First gripper space, 106 Second gripper space, 107 Groove.

[0034] 2 Second blister box assembly, 201 First adapter cavity, 202 Second adapter cavity, 203 Third adapter cavity, 204 Fourth adapter cavity, 205 Third gripper space, 206 Fourth gripper space. Detailed Implementation

[0035] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0036] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.

[0037] like Figure 1-3 and Figure 6-7 As shown, this embodiment discloses a blister box anti-lamination structure, including: a first blister box assembly 1, the first blister box assembly 1 having a plurality of receiving cavities, the plurality of receiving cavities being at least a first receiving cavity 101, a second receiving cavity 102, and a third receiving cavity 103, the first receiving cavity 101, the second receiving cavity 102, and the third receiving cavity 103 being arranged sequentially along the width direction of the first blister box assembly 1; and a second blister box assembly 2, the second blister box assembly 2 being disposed on the first blister box assembly 1, the second blister box assembly 2 having a plurality of adapter cavities, the plurality of adapter cavities being at least a first adapter cavity 201, a second adapter cavity 202, a second adapter cavity 203, a third adapter cavity 203, and a third adapter cavity 203. The first adapter cavity 201, the second adapter cavity 202, and the third adapter cavity 203 are arranged sequentially along the width direction of the second blister pack assembly 2; the distance between the first receiving cavity 101 and the second receiving cavity 102 is L1, the distance between the second receiving cavity 102 and the third receiving cavity 103 is L2, the distance between the first adapter cavity 201 and the second adapter cavity 202 is L3, and the distance between the second adapter cavity 202 and the third adapter cavity 203 is L4; L1 is greater than L3 and L2 is less than L4; or, L1 is less than L3 and L2 is greater than L4.

[0038] This application discloses an anti-lamination structure for blister packs. By ensuring that L1≠L3 and L2≠L4, the fitting cavity of the upper second blister pack assembly 2 and the receiving cavity of the lower first blister pack assembly 1 are horizontally misaligned. This prevents the bottom of the upper receiving cavity from falling vertically into the lower fitting cavity, avoiding interlayer compression problems caused by gravity. This design effectively prevents the upper blister pack from sinking into the cavity of the lower blister pack used to place the product due to gravity, thus avoiding problems such as adhesion between different layers, difficulty in retrieval, or even product damage. Moreover, this design is simple and reliable, effectively solving the lamination problem of traditional blister pack stacking without increasing production costs, and improving the practicality and reliability of the packaging. By ensuring that L1 is greater than L3 and L2 is less than L4, and vice versa, the overall dimensions of the first blister pack assembly 1 and the second blister pack assembly 2 are approximately the same, avoiding more complex stacking processes due to excessive size differences, and ensuring an overall harmonious and aesthetically pleasing stacked appearance.

[0039] like Figure 3-5 and Figure 8 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the first blister pack assembly 1 is provided with a fourth receiving cavity 104, and the first receiving cavity 101, the second receiving cavity 102, the fourth receiving cavity 104, and the third receiving cavity 103 are sequentially arranged along the width direction of the first blister pack assembly 1; the second blister pack assembly 2 is provided with a fourth adapting cavity 204, and the first adapting cavity 201, the second adapting cavity 202, the fourth adapting cavity 204, and the third adapting cavity 203 are sequentially arranged along the width direction of the second blister pack assembly 2. By adding the fourth receiving cavity 104 and the fourth adapting cavity 204, the width direction layout of the blister pack is further expanded while maintaining the original anti-lamination structure, allowing a single blister pack to accommodate more products and improving packaging efficiency. Moreover, the multiple cavities are sequentially arranged along the width direction to ensure that the products are arranged in an orderly manner within the packaging, avoiding mutual interference, while maintaining the anti-nesting effect when stacked.

[0040] like Figure 1-8As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the distance between the fourth receiving cavity 104 and the third receiving cavity 103 is L5, and the distance between the fourth adapter cavity 204 and the third adapter cavity 203 is L6; L1 is greater than L3 and L2 is less than L4 and L5 is less than L6; or, L1 is less than L3 and L2 is greater than L4 and L5 is greater than L6. By ensuring that L1 is greater than L3, L2 is less than L4 and L5 is less than L6, and L1 is less than L3, L2 is greater than L4 and L5 is greater than L6, the four upper cavities cannot fall into the four lower cavities due to gravity, avoiding the problems of adhesion between different layers, difficulty in retrieval, or even product damage caused by nesting. Moreover, the overall dimensions of the first blister box assembly 1 and the second blister box assembly 2 are approximately the same, avoiding a more complex stacking process due to excessive size differences, and ensuring that the overall stacked appearance is coordinated and aesthetically pleasing.

[0041] like Figure 1-3 and Figure 6-8 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the first blister box assembly 1 has first gripper spaces 105 at both ends, the number of first gripper spaces 105 at one end of the first blister box assembly 1 is a1, the number of first gripper spaces 105 at the other end of the first blister box assembly 1 is b1, the second blister box assembly 2 has third gripper spaces 205 at both ends, the number of third gripper spaces 205 at one end of the second blister box assembly 2 is a2, a2 ​​is greater than a1 or a2 is less than a1, the number of third gripper spaces 205 at the other end of the second blister box assembly 2 is b1, b1 is greater than b1 or b1 is less than b1, and a1, a2, b1 and b1 are all positive integers. The first gripper space 105 and the third gripper space 205 at both ends provide force points for the separation of the upper and lower first blister box assembly 1 and the second blister box assembly 2, making the separation of the first blister box assembly 1 and the second blister box assembly 2 simpler and more convenient. Since the number of upper third gripper spaces 205 at both ends differs from the number of lower first gripper spaces 105, a staggered distribution of the first gripper spaces 105 and third gripper spaces 205 can be achieved. This prevents structures with third gripper spaces 205 from getting stuck in the lower first gripper spaces 105, and prevents the first blister box assembly 1 and the second blister box assembly 2 from interlocking, thus making separation easier and reducing the complexity of the work.

[0042] like Figure 1-3 and Figure 6-8As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the first blister box assembly 1 has second gripper spaces 106 on both sides, the number of second gripper spaces 106 on one side of the first blister box assembly 1 is c1, the number of second gripper spaces 106 on the other side of the first blister box assembly 1 is d1, the second blister box assembly 2 has fourth gripper spaces 206 on both sides, the number of fourth gripper spaces 206 on one side of the second blister box assembly 2 is c2, c2 is greater than c1 or c2 is less than c1, the number of fourth gripper spaces 206 on the other side of the second blister box assembly 2 is d2, d2 is greater than d1 or d2 is less than d1, and c1, c2, d1 and d2 are all positive integers. By having different numbers of upper fourth gripper spaces 206 on both sides compared to the lower second gripper spaces 106, the second gripper spaces 106 and the fourth gripper spaces 206 can be staggered, preventing the structure with the fourth gripper space 206 from getting stuck in the lower second gripper space 106 and preventing the first blister box assembly 1 and the second blister box assembly 2 from getting stuck together, thus making separation easier and reducing the complexity of the work.

[0043] In addition to the features of the above embodiments, this embodiment further specifies that: the number of first blister pack assemblies 1 is multiple, and the multiple first blister pack assemblies 1 are arranged sequentially along the height direction; the number of second blister pack assemblies 2 is multiple, and the multiple second blister pack assemblies 2 are arranged sequentially along the height direction; the first blister pack assemblies 1 and the second blister pack assemblies 2 are arranged alternately. By alternating the first blister pack assemblies 1 and the second blister pack assemblies 2 with different distances between the upper and lower cavities, a systematic staggered layout is formed, ensuring that each layer of blister packs can effectively prevent itself from sinking into adjacent layers, thus solving the problem of potential product damage caused by overall nesting when multiple layers are stacked. Furthermore, it ensures that any two adjacent layers can be easily separated, avoiding difficulties in retrieval caused by multiple layers sticking together.

[0044] like Figure 1-3 and Figure 6-7 As shown, in addition to the features of the above embodiments, this embodiment further specifies that the first blister box assembly 1 and the second blister box assembly 2 have the same structure. Because the first blister box assembly 1 and the second blister box assembly 2 have the same structure, they are the same type of blister box. Furthermore, the staggered distribution between the upper and lower cavities can be achieved through operations such as rotating the same type of blister box. Using blister boxes with the same structure can reduce the types of molds and lower production costs.

[0045] like Figure 1-3 and Figure 6-7As shown, in addition to the features of the above embodiments, this embodiment further specifies that the second blister box assembly 2 can be formed by rotating the first blister box assembly 1 by 180 degrees. Because the second blister box assembly 2 can be formed by rotating the first blister box assembly 1 by 180 degrees, only a single mold is needed to produce both upper and lower blister box assemblies, significantly reducing mold development and manufacturing costs. The 180-degree rotation stacking design allows the upper and lower cavities to naturally form a completely symmetrical staggered layout, ensuring that all receiving cavities and fitting cavities cannot be vertically nested.

[0046] like Figure 8 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the first blister pack assembly 1 includes a support shell 11 and an isolation shell 12; the second blister pack assembly 2 is disposed on the isolation shell 12; the isolation shell 12 has the receiving cavity; the support shell 11 is disposed on the isolation shell 12; and the support shell 11 has a first gripper space 105 located at the end of the support shell 11. By disposing of the support shell 11 of the second blister pack assembly 2 on the isolation shell 12 of the first blister pack assembly 1, stable support for the isolation shell 12 is achieved, avoiding the problem of potential product damage caused by the overlapping of receiving cavities and fitting cavities between different blister pack assemblies.

[0047] like Figure 8 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further defines: the isolation shell 12 includes a first isolation shell 121, a second isolation shell 122, and a receiving shell 123. There are multiple first isolation shells 121, all disposed on the supporting shell 11, arranged sequentially along the width direction of the supporting shell 11. There are also multiple second isolation shells 122, all disposed on the first isolation shells 121, arranged sequentially along the length direction of the supporting shell 11. The receiving shell 123 is disposed on the first isolation shell 121 and / or the second isolation shell 122. The first isolation shell 121, the second isolation shell 122, and the receiving shell 123 together form the receiving cavity. The arrangement of the first isolation shell 121 and the second isolation shell 122 forms a receiving cavity for placing the product, ensuring the stability of the product and preventing it from being easily damaged. Furthermore, the second isolation shell 122 connects to two adjacent first isolation shells 121, which can increase the overall strength of the structure and improve the compressive strength of the first blister box assembly 1 and the second blister box assembly 2.

[0048] like Figure 8 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further specifies that the support housing 11 is arranged around the isolation housing 12. By arranging the support housing 11 around the isolation housing 12, a stable support function can be achieved for the isolation housing 12, ensuring that multi-layer blister boxes can be stacked stably.

[0049] like Figure 8 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: both ends of the support housing 11 are provided with the first gripper space 105, the number of the first gripper spaces 105 provided at one end of the support housing 11 is a1, and the number of the first gripper spaces 105 provided at the other end of the support housing 11 is b1, where a1 is greater than b1 or b1 is greater than a1, and both a1 and b1 are positive integers. By having different numbers of the first gripper spaces 105 at both ends of the support housing 11, when the blister packs are rotated 180 degrees and stacked vertically, the gripper areas at the same end of the upper and lower layers of blister packs can be naturally misaligned, preventing the first gripper space 105 of the upper layer from sinking into the corresponding gripper space of the lower layer, ensuring that each layer of blister packs is independently separated during stacking.

[0050] like Figure 8 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: a second gripper space 106 is provided on both sides of the support housing 11; the number of second gripper spaces 106 provided on one side of the support housing 11 is c1; the number of second gripper spaces 106 provided on the other side of the support housing 11 is d1; c1 is greater than d1 or d1 is greater than c1; and both c1 and d1 are positive integers. By having a different number of second gripper spaces 106 on both sides of the support housing 11, when the blister packs are rotated 180 degrees and stacked vertically, the gripper areas on the same side of the upper and lower layers of blister packs can be naturally misaligned, preventing the gripper space of the upper layer from sinking into the corresponding gripper space of the lower layer, and ensuring that each layer of blister packs is independently separated during stacking.

[0051] like Figure 8 and Figure 9 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the first blister pack assembly 1 is provided with a groove 107, and the number of grooves 107 is multiple. The multiple grooves 107 are arranged circumferentially along the cavity wall of the receiving cavity, and all of the multiple grooves 107 are in communication with the receiving cavity. By arranging multiple grooves 107 circumferentially along the cavity wall of the receiving cavity, the compressive strength of the cavity wall can be effectively improved, so that it will not be easily bent or deformed.

[0052] like Figure 8 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the number of the first receiving cavities 101 is multiple, and the multiple first receiving cavities 101 are arranged sequentially along the length direction of the first blister box assembly 1.

[0053] like Figure 8 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the number of the second receiving cavities 102 is multiple, and the multiple second receiving cavities 102 are arranged sequentially along the length direction of the first blister box assembly 1.

[0054] like Figure 8 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the number of the third receiving cavities 103 is multiple, and the multiple third receiving cavities 103 are arranged sequentially along the length direction of the first blister box assembly 1.

[0055] The above embodiments only illustrate several implementation methods of this utility model, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.

Claims

1. A blister pack anti-laminated structure, characterized in that, include: A first blister box assembly (1) is provided with a receiving cavity. The number of the receiving cavities is multiple, and the multiple receiving cavities are at least a first receiving cavity (101), a second receiving cavity (102), and a third receiving cavity (103). The first receiving cavity (101), the second receiving cavity (102), and the third receiving cavity (103) are arranged sequentially along the width direction of the first blister box assembly (1). The second blister box assembly (2) is disposed on the first blister box assembly (1). The second blister box assembly (2) is provided with an adapter cavity. The number of the adapter cavities is multiple. The multiple adapter cavities are at least a first adapter cavity (201), a second adapter cavity (202), and a third adapter cavity (203). The first adapter cavity (201), the second adapter cavity (202), and the third adapter cavity (203) are arranged sequentially along the width direction of the second blister box assembly (2). The distance between the first receiving cavity (101) and the second receiving cavity (102) is L1, the distance between the second receiving cavity (102) and the third receiving cavity (103) is L2, the distance between the first adapter cavity (201) and the second adapter cavity (202) is L3, and the distance between the second adapter cavity (202) and the third adapter cavity (203) is L4. The L1 is greater than the L3 and the L2 is less than the L4; or, the L1 is less than the L3 and the L2 is greater than the L4.

2. The anti-laminarization structure for blister boxes according to claim 1, characterized in that, The first blister pack assembly (1) is provided with a fourth receiving cavity (104). The first receiving cavity (101), the second receiving cavity (102), the fourth receiving cavity (104) and the third receiving cavity (103) are arranged sequentially along the width direction of the first blister pack assembly (1). The second blister pack assembly (2) is provided with a fourth adapter cavity (204). The first adapter cavity (201), the second adapter cavity (202), the fourth adapter cavity (204) and the third adapter cavity (203) are arranged sequentially along the width direction of the second blister pack assembly (2).

3. The anti-laminarization structure for blister boxes according to claim 2, characterized in that, The distance between the fourth receiving cavity (104) and the third receiving cavity (103) is L5, and the distance between the fourth adapter cavity (204) and the third adapter cavity (203) is L6; L1 is greater than L3 and L2 is less than L4 and L5 is less than L6; or, L1 is less than L3 and L2 is greater than L4 and L5 is greater than L6.

4. The anti-laminarization structure for blister boxes according to claim 1, characterized in that, The first blister pack assembly (1) has first gripper spaces (105) at both ends. The number of first gripper spaces (105) at one end of the first blister pack assembly (1) is a1, and the number of first gripper spaces (105) at the other end of the first blister pack assembly (1) is b1. The second blister pack assembly (2) has third gripper spaces (205) at both ends. The number of third gripper spaces (205) at one end of the second blister pack assembly (2) is a2, where a2 is greater than a1 or less than a1. The number of third gripper spaces (205) at the other end of the second blister pack assembly (2) is b1, where b1 is greater than b1 or less than b1. a1, a2, b1, and b1 are all positive integers.

5. The anti-laminarization structure for blister boxes according to claim 1, characterized in that, The first blister box assembly (1) has second gripper spaces (106) on both sides. The number of second gripper spaces (106) on one side of the first blister box assembly (1) is c1, and the number of second gripper spaces (106) on the other side of the first blister box assembly (1) is d1. The second blister box assembly (2) has fourth gripper spaces (206) on both sides. The number of fourth gripper spaces (206) on one side of the second blister box assembly (2) is c2, where c2 is greater than or less than c1. The number of fourth gripper spaces (206) on the other side of the second blister box assembly (2) is d2, where d2 is greater than or less than d1. All of c1, c2, d1, and d2 are positive integers.

6. The anti-laminarization structure for blister boxes according to claim 1, characterized in that, The number of first blister box assemblies (1) is multiple, and multiple first blister box assemblies (1) are arranged sequentially along the height direction. The number of second blister box assemblies (2) is multiple, and multiple second blister box assemblies (2) are arranged sequentially along the height direction. The first blister box assemblies (1) and the second blister box assemblies (2) are arranged alternately. And / or the first blister pack assembly (1) and the second blister pack assembly (2) have the same structure; And / or the second blister pack assembly (2) can be formed by rotating the first blister pack assembly (1) by 180 degrees.

7. The anti-laminarization structure for blister boxes according to claim 1, characterized in that, The first blister box assembly (1) includes a support shell (11) and an isolation shell (12). The second blister box assembly (2) is disposed on the isolation shell (12). The isolation shell (12) has the receiving cavity. The support shell (11) is disposed on the isolation shell (12). The support shell (11) has a first gripper space (105). The first gripper space (105) is located at the end of the support shell (11).

8. The anti-laminarization structure for blister boxes according to claim 7, characterized in that, The isolation shell (12) includes a first isolation shell (121), a second isolation shell (122), and a receiving shell (123). There are multiple first isolation shells (121), all of which are disposed on the supporting shell (11) and are arranged sequentially along the width direction of the supporting shell (11). There are multiple second isolation shells (122), all of which are disposed on the first isolation shells (121) and are arranged sequentially along the length direction of the supporting shell (11). The receiving shell (123) is disposed on the first isolation shell (121) and / or the second isolation shell (122). The first isolation shell (121), the second isolation shell (122), and the receiving shell (123) together form a receiving cavity. And / or the support housing (11) is arranged around the isolation housing (12).

9. The anti-laminarization structure for blister boxes according to claim 7, characterized in that, Both ends of the support housing (11) are provided with the first gripper space (105). The number of the first gripper spaces (105) provided at one end of the support housing (11) is a1, and the number of the first gripper spaces (105) provided at the other end of the support housing (11) is b1. a1 is greater than b1 or b1 is greater than a1. Both a1 and b1 are positive integers. And / or the support housing (11) is provided with second gripper spaces (106) on both sides, the number of second gripper spaces (106) provided on one side of the support housing (11) is c1, the number of second gripper spaces (106) provided on the other side of the support housing (11) is d1, c1 is greater than d1 or d1 is greater than c1, and c1 and d1 are both positive integers.

10. The anti-laminarization structure for blister boxes according to claim 1, characterized in that, The first blister box assembly (1) is provided with a groove (107), and there are multiple grooves (107). The multiple grooves (107) are arranged along the circumferential direction of the cavity wall of the receiving cavity, and the multiple grooves (107) are all in communication with the receiving cavity. And / or there are multiple first receiving cavities (101), and multiple first receiving cavities (101) are arranged sequentially along the length direction of the first blister pack assembly (1); And / or there are multiple second receiving cavities (102), and multiple second receiving cavities (102) are arranged sequentially along the length direction of the first blister pack assembly (1); And / or the number of the third receiving cavities (103) is multiple, and the multiple third receiving cavities (103) are arranged sequentially along the length direction of the first blister box assembly (1).

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