Adhesive-free shockproof integrated reagent packaging box
Through the mortise and tenon connection between the integrated outer box and the inner lining structure, the problems of complex production and glue aging of traditional packaging boxes are solved, and a packaging box design that simplifies production, reduces pollution and improves shock-proof effects are achieved.
Patent Information
- Application Number
- CN202510880754.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-06-27
- Publication Date
- 2025-08-15
AI Technical Summary
The traditional in vitro diagnostic reagent packaging box needs to be assembled because the inner lining and outer box are independently designed and bonded with glue, resulting in complex production and high cost, high risk of glue aging and falling off, insufficient shock-proof effect, which affects transportation safety.
It adopts an integrated outer box and inner lining structure, without glue being required through mortise and tenon connection, and the base material is folded and interposed. The inner lining structure is equipped with a buffer structure to absorb vibration, avoid the risk of glue aging, and improve stability.
Simplify production processes, reduce pollution risks, improve the stability and shock-proof effect of packaging boxes, and ensure safe transportation of reagents.
Smart Images
Figure CN120482502A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of packaging boxes, and in particular to an adhesive-free, shock-proof, integrated reagent packaging box. Background Art
[0002] In the field of in vitro diagnostic reagent packaging, packaging design is crucial to ensuring reagent safety during transportation and storage. The inner liner is used to isolate the reagent bottles from each other, preventing collisions and leaks caused by rupture of the reagent bottles during transportation. The outer box not only protects the inner liner and the reagent bottles, but also features printed product details on the surface for quick access to relevant information.
[0003] Currently, most traditional in vitro diagnostic reagent packaging boxes use a kit format with separate outer boxes, inner boxes, or linings. These independently designed outer boxes and linings require assembly, which complicates the production process and increases production workload and costs. Furthermore, in actual use, because the lining and outer box are independent of each other or are fixed with glue, which can easily age and fall off due to moisture or long-term storage, when a user removes a reagent during use, the lining may be pulled out, causing other reagents to fall. This not only affects the normal use of the reagents, but may also cause reagent waste, environmental pollution, and even harm the user. Furthermore, traditional packaging boxes often require glue to be used for fixing, which not only further increases the process and cost, but also poses the risk of poor glue adhesion affecting the safe transportation and storage of reagents. Furthermore, traditional packaging boxes also have shortcomings in terms of shockproofing, unable to effectively withstand vibrations during transportation and use, and it is difficult to avoid tube rupture and reagent leakage caused by internal tube collisions. Summary of the Invention
[0004] The present invention aims to provide a glue-free and shock-proof integrated reagent packaging box, so as to avoid the risk of the packaging box falling off due to aging of the glue by changing the packaging box structure.
[0005] To achieve the above-mentioned purpose, the present invention adopts the following technical solution: a glue-free and shock-proof integrated reagent packaging box, comprising an integrated outer box and an inner lining structure, the inner lining structure is arranged inside the outer box and can divide the outer box into several independent cavities, and the outer box and the inner lining structure are formed by folding and plugging a pre-cut substrate.
[0006] The beneficial effect of this solution is that it forms an integrated outer box and inner lining structure by folding and plugging a pre-cut base material, without the need for assembly.
[0007] At the same time, it can also avoid risks caused by problems such as adhesive aging or weak bonding.
[0008] Furthermore, the base materials are plugged into each other to form a connection structure, and the connection structure includes a mortise and tenon connection consisting of a tenon and a mortise.
[0009] Beneficial effects: The tenon and mortise joint structure avoids the use of glue during the assembly of the packaging box, reduces pollution during the production of the packaging box, and also avoids the reduction of the stability of the packaging box due to aging of the glue.
[0010] Furthermore, a plurality of folding lines are provided on the base material, and it can be folded along the folding lines to form an outer box and an inner lining structure. The outer box includes a side surrounding component and a covering structure. The side surrounding component is composed of a first side surface, a second side surface, a third side surface, a fourth side surface and a folding surface, and can be surrounded by a rectangular parallelepiped with openings on both sides; the covering structure includes a first covering component and a second covering component. The first covering component is arranged on the edge of the first side surface and can cover the opening on one side; the second covering component is arranged on the edge of the third side surface and can cover the opening on the other side.
[0011] Furthermore, the tenon includes a connecting edge, which is disposed on an edge of the fourth side surface. A first and second separate tenon portions are connected to the connecting edge. The mortise groove is disposed on the first side surface and the fold line of the fold surface. Dividing the tenon into the separate first and second tenon portions facilitates the mortise and tenon connection and minimizes the impact on the stability of the packaging box after assembly.
[0012] Furthermore, the first closing assembly includes a first closing surface and two first supporting surfaces. The first closing surface is connected to the edge of the first side surface. A first inserting surface is fixed to the free edge of the first closing surface. The two first supporting surfaces are respectively provided on the edges of the second side surface and the fourth side surface. The first inserting surface and the first closing surface are divided by a fold line. The provision of the supporting surfaces increases the support strength of the closing surface and prevents deformation of the packaging box due to pressure during transportation.
[0013] Furthermore, the lining structure includes a first lining group surface and a second lining group surface, the first lining group surface and the second lining group surface, the first lining group surface is connected to the third side surface or the edge of the second lining group surface, and the second lining group surface is connected to the edge of the first side surface, and the first lining group surface and the second lining group surface are respectively provided with a plurality of buffer structures, and can be folded so that the buffer structures provided on the first lining group surface and the second lining group surface correspond to each other one by one, forming a reagent placement position. The reagent placement position is formed by the buffer structure, and during transportation, the buffer structure absorbs the vibration generated by transportation, provides sufficient buffer space, and plays a shockproof role.
[0014] Furthermore, the buffer structure is a hollow sunflower structure composed of a plurality of fan-shaped petals, the curvature of the fan-shaped petals ranging from 30 to 60 degrees. The fan-shaped petals of 30 to 60 degrees form a hollow sunflower structure, and the fan-shaped petals have a certain structural strength, and the buffer effect is more obvious.
[0015] Furthermore, the first inner lining surface assembly includes a first folding surface, a first inner lining surface, and a first inner supporting surface. The first folding surface and the first inner supporting surface are respectively located on both sides of the first inner lining surface, and the first folding surface is fixedly connected to the edge of the third side surface. The second inner lining surface assembly includes a second folding surface, a second inner lining surface, and a second inner supporting surface. The second folding surface and the second inner supporting surface are respectively located on both sides of the second inner lining surface. The second folding surface and the second inner supporting surface are of equal width, and the sum of the widths of the first folding surface, the first inner supporting surface, and the second folding surface is equal to the width of the side panel assembly. By arranging that the second folding surface and the second inner supporting surface are of equal width, and the sum of the widths of the first folding surface, the first inner supporting surface, and the second folding surface is equal to the width of the side panel assembly, after folding, the second inner lining surface assembly forms a bridge-shaped structure and rests on the second covering surface. The free end of the first inner lining surface assembly rests on the bridge surface of the bridge-shaped structure formed by the second inner lining surface assembly, making the inner lining structure more stable.
[0016] Furthermore, the connection structure includes corresponding plug connectors and plug slots. The plug connector is provided at the free end of the first inner support surface, and the plug slot is located on the fold line between the second folding surface and the second inner lining surface. The provision of the plug connector and the plug slot restricts the free end of the first inner lining surface, making the inner lining structure more stable. BRIEF DESCRIPTION OF THE DRAWINGS
[0017] Figure 1 This is a schematic diagram of the planar structure of the substrate according to Example 1 of the present invention; Figure 2 This is a schematic diagram of the substrate folding lines and area divisions according to Example 1 of the present invention; Figure 3 Schematic diagram of the folding process of Example 1 of the present invention; Figure 4 This is a schematic diagram of the substrate folding lines and area divisions according to Example 2 of the present invention; Figure 5 This is a schematic diagram of the sunflower cutting line and folding line of the buffer structure in Example 3 of the present invention.
[0018] The figure marks in the drawings of the specification include: base material 001, mortise 111, clutch line 112, tenon 122, plug-in groove 131, plug joint 132, buffer structure 14, sunflower cutting line 141, petals 142, first side 211, second side 212, third side 213, fourth side 214, folding surface 215, first covering surface 22, first plug-in surface 221, first supporting surface 222, second covering surface 23, second plug-in surface 231, second supporting surface 232, first inner lining surface 24, first folding surface 241, first inner supporting surface 242, second inner lining surface 25, second folding surface 251, second inner supporting surface 252. DETAILED DESCRIPTION
[0019] Example 1 Example 1 is basically as shown in the attached Figure 1-3 As shown, Figure 1-3 The illustrated embodiment of a non-adhesive, shockproof, integrated reagent packaging box comprises an outer box and an inner lining structure, wherein the outer box and the inner lining structure are formed by folding and plugging a cut substrate 001, as shown in FIG. Figure 1 As shown, the edge of the substrate 001 is provided with a tenon 122 and a plug joint 132. The tenon 122 is a symmetrical hexagon including a first tenon portion and a second tenon portion. A clutch line 112 is provided on the symmetry axis of the hexagon. The clutch line 112 is provided on the tenon 122 and coincides with the symmetry axis of the tenon 122, thereby dividing the tenon 122 into a first tenon portion and a second tenon portion through the clutch line 112. A plurality of shear lines are provided on the substrate 001, and shearing is performed along the shear lines so that the substrates 001 on both sides of the shear lines are separated from each other to form mortise grooves 111 and plug joints. The lengths of the connecting groove 131 and the mortise 111 are adapted to the connecting edge of the hexagon of the tenon 122, and the length of the plug-in groove 131 is adapted to the length of the plug-in joint 132. The cutting line also includes a plurality of sunflower cutting lines 141, and the substrate 001 is cut along the sunflower cutting lines 141 to form a plurality of buffer structures 14. The buffer structure 14 is a hollow sunflower structure composed of a plurality of fan-shaped petals 142 formed by cutting the sunflower cutting line. The curvature range of the fan-shaped petals 142 is 30-60°. In this embodiment, the curvature of the fan-shaped petals 142 is 45°.
[0020] like Figure 2 、 Figure 3 As shown, a plurality of folding lines are provided on the substrate 001, and the substrate can be folded along the folding lines to form an outer box and an inner lining. The outer box includes a side panel assembly and a covering structure. The side panel assembly includes a first side 211, a second side 212, a third side 213 and a fourth side 214 connected in sequence by folding lines. The left side of the first side 211 is connected to a folding surface 215. The mortise 111 is provided on the connecting edge of the first side 211 and the folding surface 215. The tenon 122 is provided on the right side of the fourth side 214.
[0021] The covering structure includes a first covering component and a second covering component. The first covering component includes a first covering surface 22 and two first supporting surfaces 222. The first covering surface 22 is connected to the edge of the first side surface 211. A first plug-in surface 221 is fixed on the free edge of the first covering surface 22. The two first supporting surfaces 222 are respectively arranged on the edges of the second side surface 212 and the fourth side surface 214. The first plug-in surface 221 and the first covering surface 22 are divided by a folding line; the second covering component is basically the same as the first covering component, including a second covering surface 23 and two second supporting surfaces 232. The second covering surface 23 is connected to the edge of the second side surface 212. A second plug-in surface 231 is fixed on the free edge of the second covering surface 23. The two second supporting surfaces 232 are respectively arranged on the edges of the second side surface 212 and the fourth side surface 214. The second plug-in surface 231 and the second covering surface 23 are divided by a folding line.
[0022] The lining structure includes a first lining group surface and a second lining group surface. The first lining group surface includes a first folding surface 241, a first lining surface 24 and a first inner supporting surface 242 divided by a fold line. The first folding surface 241 and the first inner supporting surface 242 are respectively located on both sides of the first lining surface 24, and the first folding surface 241 is fixedly connected to the edge of the third side surface 213. The plug connector 132 is arranged at the free end of the first inner supporting surface 242; the second lining group surface is basically the same as the first lining group surface, including a second folding surface 251, a second lining surface 25 and a second inner supporting surface 252. The second folding surface 251 and the second inner supporting surface 252 are respectively located on both sides of the second lining surface 25, and the plug groove 131 is located on the fold line between the second folding surface 251 and the second lining surface 25. The buffer structure 14 is respectively arranged on the first lining surface 24 and the second lining surface 25 and corresponds one to one to form a plurality of reagent placement positions.
[0023] When folded, Figure 3 As shown, first fold the folding surface 215 and the tenon 122 into Figure 3 The structure shown in S1 is shown in FIG. 1 , and the side panel assembly is enclosed so that the first side surface 211 and the fourth side surface 214 are close to each other. Subsequently, the free end of the tenon 122 is inserted into the mortise 111, and the first mortise portion and the second mortise portion are close to each other, so that the length of the tenon 122 is shortened so that the mortise 111 is aligned with the fourth side surface 214 and the folded surface, forming Figure 3 Then, the first lining group surface and the second lining group surface are folded into Figure 3 The structure shown in S3 is formed, and the first folding surface 241 and the second folding surface 251 are folded toward the outer box, and the plug connector 132 is inserted into the plug slot 131; finally, the first supporting surface 222 and the second supporting surface 232 are folded toward the outer box, and the first plugging surface 221 and the second plugging surface 231 are respectively inserted into the outer box, to obtain Figure 3 The structure shown in S4.
[0024] Example 2 Example 2 is basically the same as Example 1, except that Figure 4 As shown, the first folding surface 241 of the first lining assembly surface is arranged on the edge of the second inner supporting surface 252 in the second lining assembly surface. When folding, the plug connector 132 is first inserted into the plug groove 131 by folding to complete the folding of the lining, and then the tenon 122 is inserted into the mortise 111 to complete the assembly of the side panel assembly, and finally the covering structure is assembled to reduce the difficulty of folding.
[0025] Example 3 Example 3 is basically the same as Example 1, except that Figure 5 As shown, during the forming process of the buffer structure 14 through the sunflower shear line 141, the central shear line of the sunflower shear line 141 is a regular polygon, which is a regular octagon in this embodiment, so that in the reagent placement position, the contact mode between the reagent bottle and the reagent placement position is transformed from line contact to point contact, thereby reducing the friction between the reagent bottle and the reagent placement position, making it easier for users to take the reagent bottle out of the reagent placement position.
[0026] The above is only an embodiment of the present invention, and common knowledge such as the specific technical solutions and / or characteristics in the solution are not described in detail here. It should be pointed out that the technical means for solving the problems in the above-mentioned embodiments of the present invention can be used in combination to solve multiple technical problems at the same time. For those skilled in the art, without departing from the technical solution of the present invention, several variations and improvements can be made, which should also be regarded as the scope of protection of the present invention. These will not affect the effect of the implementation of the present invention and the practicality of the patent. The scope of protection required by this application shall be based on the content of its claims, and the specific implementation methods and other records in the specification can be used to interpret the content of the claims.
Claims
1. A non-adhesive, shockproof integrated reagent packaging box, characterized by: The outer box comprises an inner lining structure which is integrated with the outer box. The inner lining structure is arranged inside the outer box and can separate the outer box into several independent cavities. The outer box and the inner lining structure are formed by folding and plugging a base material.
2. The adhesive-free, shock-proof integrated reagent packaging box according to claim 1, characterized in that: The base materials are plugged into each other to form a connection structure. The connection structure includes a tenon and a mortise of corresponding design. The tenon and the mortise are both arranged on the base material.
3. The adhesive-free, shock-proof integrated reagent packaging box according to claim 2, characterized in that: Several folding lines are provided on the base material, and it can be folded along the folding lines to form an outer box and an inner lining structure. The outer box includes a side surrounding component and a covering structure. The side surrounding component is composed of a first side surface, a second side surface, a third side surface, a fourth side surface and a folding surface, and can be surrounded by a rectangular parallelepiped with openings on both sides; the covering structure includes a first covering component and a second covering component. The first covering component is arranged on the edge of the first side surface and can cover the opening on one side; the second covering component is arranged on the edge of the third side surface and can cover the opening on the other side.
4. The adhesive-free, shock-proof integrated reagent packaging box according to claim 3, characterized in that: The tenon includes a connecting edge, which is arranged on the edge of the fourth side surface, and the connecting edge is connected with a first tenon portion and a second tenon portion separated from each other, and the mortise groove is arranged on the folding line between the first side surface and the folding surface.
5. The adhesive-free, shock-proof integrated reagent packaging box according to claim 4, characterized in that: The first covering assembly includes a first covering surface and two first supporting surfaces. The first covering surface is connected to the edge of the first side surface. A first plug-in surface is fixed on the free edge of the first covering surface. The two first supporting surfaces are respectively arranged on the edges of the second side surface and the fourth side surface. The first plug-in surface and the first covering surface are divided by a folding line.
6. The adhesive-free, shock-proof integrated reagent packaging box according to claim 5, characterized in that: The lining structure includes a first lining group surface and a second lining group surface. The first lining group surface and the second lining group surface are connected to the third side surface or the edge of the second lining group surface, and the second lining group surface is connected to the edge of the first side surface. The first lining group surface and the second lining group surface are respectively provided with a plurality of buffer structures, and the buffer structures provided on the first lining group surface and the second lining group surface can be folded so as to correspond one to one to form a reagent placement position.
7. The adhesive-free, shock-proof integrated reagent packaging box according to claim 6, characterized in that: The buffer structure is a hollow sunflower structure composed of a number of fan-shaped petals, and the curvature of the fan-shaped petals ranges from 30 to 60 degrees.
8. The adhesive-free, shock-proof integrated reagent packaging box according to claim 7, characterized in that: The first lining surface group includes a first folding surface, a first lining surface and a first inner supporting surface, the first folding surface and the first inner supporting surface are respectively located on both sides of the first lining surface, and the first folding surface is fixedly connected to the edge of the third side surface; the second lining surface group includes a second folding surface, a second lining surface and a second inner supporting surface, the second folding surface and the second inner supporting surface are respectively located on both sides of the second lining surface, the second folding surface and the second inner supporting surface are equal in width, and the sum of the widths of the first folding surface, the first inner supporting surface and the second folding surface is equal to the width of the side panel assembly.
9. The adhesive-free, shock-proof integrated reagent packaging box according to claim 8, characterized in that: The connection structure also includes a corresponding plug connector and a plug slot. The plug connector is arranged at the free end of the first inner supporting surface, and the plug slot is located on the folding line between the second folding surface and the second inner lining surface.