Splicing and buckling storage box
The multihedral structure is formed by connecting the enclosures of the buckle storage box, which solves the problem of bulkiness and waste of the packaging box and provides a lightweight and multi-functional storage solution.
Patent Information
- Application Number
- CN202422452260.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-11
- Publication Date
- 2025-07-29
- Estimated Expiration
- 2034-10-11
AI Technical Summary
When existing packaging boxes are positioned and supported by lining, they are bulky and costly, and the disassembled packaging boxes are difficult to reuse, waste resources and occupy space.
A clamp storage box is adopted to form a polyhedral structure through the convex buckle and concave holes of the enclosure plate. The enclosure plate includes an end plate and a three-dimensional outer cover, and can be spliced into a storage box of various shapes, providing a variety of storage spaces and aesthetics.
It realizes a lightweight storage function, meets different storage needs, is both aesthetic and practical, and is suitable for logistics and transportation and exhibition display, reducing waste.
Smart Images
Figure CN223162193U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of packaging boxes, in particular to a snap-together storage box. Background Art
[0002] As the name implies, a packaging box is a box used to package products. Generally used as a medium and high-grade packaging method, it has now been widely used in industries such as electronics, food, beverages, and wines. With the pursuit of high-quality life by people and the development of modern logistics, more and more items need to be transported using packaging boxes.
[0003] Existing packaging boxes for bottle products such as beverages and wines generally adopt the packaging method of a corrugated outer packaging box plus an inner lining. The inner lining can isolate and shock-absorb the bottle products placed in the packaging box. Since the inner lining and the outer packaging box are independently separated, grooves are provided on the inner lining for individual positioning of the products. However, due to the limited surface space of the inner lining, when the number of products per layer is small, increasing the number of products by setting up multiple inner lining structures easily leads to the overall bulkiness of the packaging box and an increase in cost.
[0004] In addition, for items that need to be exhibited across regions, customized packaging boxes are usually used for storage and packaging, transported by logistics to the destination, disassembled and placed in a special exhibition cover in the exhibition hall. To save space, the disassembled packaging boxes are usually discarded. After the exhibition, new packaging boxes are used for packaging and transportation, resulting in waste. When the disassembled customized packaging boxes are reused, the damaged or soiled packaging boxes after disassembly easily affect the exhibited items, and a large number of disassembled packaging boxes occupy a large amount of space and it is difficult to meet the preservation requirements for reuse.
[0005] Therefore, based on the problems in the prior art, the utility model provides a snap-together storage box. Summary of the Utility Model
[0006] The purpose of the utility model is to provide a snap-together storage box to solve the technical problems in the prior art that the packaging box is bulky and costly as a whole when positioning and supporting products through an inner lining.
[0007] The technical solution of the utility model is: a snap-together storage box, including at least four side plates, on the edges of the side plates for splicing, mating convex buttons and concave holes are provided, and all the side plates are snap-together to enclose a polyhedron structure; the side plates include end plates and / or three-dimensional outer covers, the end plates are arranged at the bottom ports of the three-dimensional outer covers, and for each side plate, either the end plate or the three-dimensional outer cover is used to splice the outer contour surface of the polyhedron structure.
[0008] Preferably, the outer surface of the three-dimensional outer cover is used to splice the outer contour surface of the polyhedron structure, and the corresponding end plates are placed inside the polyhedron structure for enclosing and forming a storage space;
[0009] The surface of the end plate is used to splice the outer contour surface of the polyhedron structure. Correspondingly, the outer surface of the three-dimensional outer cover is placed inside the polyhedron structure and is used to splice to form a solid inner core or to reserve a storage space inside the polyhedron by splicing.
[0010] Preferably, the end plate of each enclosure and the three-dimensional outer cover are detachably connected; the outer surface of the three-dimensional outer cover of at least one enclosure is used to fit together the outer contour surface of the polyhedron structure; or, the surface of the end plate of at least one enclosure is used to fit together the outer contour surface of the polyhedron structure.
[0011] Preferably, the three-dimensional outer cover is set as a solid structure and is provided with a number of grooves on the surface. When the outer surface of the three-dimensional outer cover is placed inside the polyhedron structure, the grooves can communicate with the storage space. When the end plate is detachably connected to the three-dimensional outer cover, the end plate seals and blocks the grooves.
[0012] Preferably, the three-dimensional outer cover is set as a solid structure, and the outer surface of the three-dimensional outer cover is provided with a fitting groove, and the fitting groove limits and houses a contoured object.
[0013] Preferably, a concave cavity is provided inside the three-dimensional outer cover, and the contour shape of the concave cavity is contoured with the three-dimensional outer cover; when the outer surface of the three-dimensional outer cover is folded and located inside the polyhedron structure, the concave cavity communicates with the storage space inside the polyhedron structure, and when the end plate is detachably installed in the concave cavity, the concave cavity can be separated from the storage space.
[0014] Preferably, the three-dimensional outer cover is set as a solid structure, and one end face of the three-dimensional outer cover is the end plate. The cover surface and the end face of the three-dimensional outer cover are respectively folded as the outer contour surface to form a polyhedron storage box or a polyhedron ornament.
[0015] Preferably, the contour shape of the three-dimensional outer cover is constructed into a polyhedron shape like a frustum or an arc-shaped curved surface.
[0016] The end plate of the enclosure is set as a regular polygon structure, and the corresponding contour of the three-dimensional outer cover is set as a regular polyhedron shape.
[0017] Preferably, when splicing into a polyhedron structure, at least a pair of the convex buttons and concave holes are constructed on at least a pair of the edges where the enclosures are fitted together.
[0018] Preferably, the three-dimensional outer covers of at least two enclosures are placed inside the polyhedron structure, and the three-dimensional outer covers placed inside are spliced to form a grid plate, separating the internal storage space of the polyhedron structure into at least two sub-chambers.
[0019] Compared with the prior art, the advantages of the present utility model are:
[0020] (1) This application forms a storage box by snap - fitting the enclosure panels. The two sides of the enclosure panel are different. Multiple enclosure panels are selected on one side to be spliced into the outer contour surface of the storage box, and storage boxes with various structures can be snap - fitted, constructing storage spaces of different shapes and sizes. Grooves or cavities are opened on the bottom end surface of the three - dimensional outer cover of the enclosure panel, including drawer - shaped storage compartments, large - space storage cavities, and embedded grooves for custom - made storage items, so as to meet different storage needs.
[0021] (2) This application forms a storage box by snap - fitting the enclosure panels. The two sides of the enclosure panel are different. Multiple enclosure panels are all selected on one side to be spliced into the outer contour surface of the storage box, and storage boxes with various structures can be obtained by snap - fitting. The structural shapes of the enclosure panels are diverse, and the storage boxes spliced by the enclosure panels have various outer shapes, combining aesthetics and practicality. The combination methods of various outer - shape transformations make the box type have a sense of technology and a sense of change, enhancing the interactive interest between users and the box shape.
[0022] (3) Through the selection of the one - body two - side structure of the enclosure panel, this application can combine and construct storage boxes with various shape structures. The storage scope of the storage box includes but is not limited to packaging food, holding daily scattered items, custom - made bottle items, and can directly carry items for logistics transportation. Since some of the storage spaces are set on the three - dimensional outer cover, the custom - made configuration and the configuration end plate can also meet the custom - made exhibition and transportation of exhibits. BRIEF DESCRIPTION OF THE DRAWINGS
[0023] The following further describes the present utility model in conjunction with the drawings and embodiments:
[0024] Figure 1 It is an unfolded schematic diagram of the connection of the enclosure panels described in the present utility model into one body;
[0025] Figure 2 It is a superposition state schematic diagram of the three - dimensional outer cover of the enclosure panel described in the present utility model as the outer contour surface of the storage box;
[0026] Figure 3 It is a structural schematic diagram of the storage box with the three - dimensional outer cover of all the enclosure panels described in the present utility model as the outer contour surface;
[0027] Figure 4 It is a superposition state schematic diagram of the end plate of all the enclosure panels described in the present utility model as the outer contour surface of the storage box;
[0028] Figure 5 It is a structural schematic diagram of the storage box with the end plate of all the enclosure panels described in the present utility model as the outer contour surface;
[0029] Figure 6 It is a structural schematic diagram of the storage box constructed by combining four end plates and two three - dimensional outer covers and placing them inside a polyhedron structure;
[0030] Wherein: 1. Side panel; 2. Convex buckle; 3. Concave hole; 11. End plate; 12. Three-dimensional outer cover. Detailed implementation manner
[0031] The following further elaborates on the content of the present utility model in conjunction with specific embodiments:
[0032] For ease of understanding, first, the application scenario of the present utility model is described. The present utility model is used for storing and containing items. In the prior art, a packaging box includes an outer shell and a lining, and the item is at least semi-encased in the lining. Due to the different shapes and sizes of the items, in order to increase the load capacity of the packaging box, the packaging box is usually widened or thickened, resulting in high costs and being overall heavy and inconvenient to carry.
[0033] The storage box provided in this application has a storage scope including but not limited to packaging food, containing daily scattered items, customizing bottle-shaped items, being able to directly carry items and put them into logistics transportation, and can also be used for the customized exhibition and transportation of exhibits. The storage box is made of one or a combination of several of metal materials, hard paper box materials, and plastic materials.
[0034] As Figure 1 shown, a snap-together storage box includes at least four side panels 1. On the edges of the side panels 1 for splicing, mating convex buckles 2 and concave holes 3 are provided. All the side panels 1 are connected as a whole and then folded to form a polyhedron structure, or the scattered side panels 1 are spliced to form a polyhedron structure (i.e., a snap-together storage box). A storage space is formed inside the polyhedron structure for storing objects. In this application, a specific case where the side panels 1 are connected as a whole and folded to obtain a polyhedron structure is given. When splicing into a polyhedron structure, at least one pair of convex buckles 2 and concave holes 3 are constructed on a pair of edges where the side panels 1 are joined to maintain the forming stability of the polyhedron structure.
[0035] The side panel 1 includes an end plate 11 and a three-dimensional outer cover 12, which are arranged back to back and are detachably connected. The three-dimensional outer cover 12 is in a cover shape, and the inside of the cover body is a cavity or a solid. The end plate 11 is located on the bottom end face of the three-dimensional outer cover 12. Referring to the appendix Figure 2 , the end plate 11 and the three-dimensional outer cover 12 are two opposite surfaces. Each side panel 1 can select the end plate 11 or the three-dimensional outer cover 12 as a partial surface to be spliced to form a partial outer contour surface of the polyhedron structure.
[0036] Since the side panel 1 has two sides with different shapes, at least one of which is a three-dimensional structure. For example, in this application, the surface where the end plate 11 is located is a plane, which can be a polygon structure such as a triangle, rectangle, pentagon, hexagon, etc., and the shape of the bottom base surface of the three-dimensional outer cover 12 is the end plate 11, and the contour shape of the three-dimensional outer cover 12 is a polyhedron structure, including a frustum shape or a shape composed of multiple curved surfaces.
[0037] The snap-fastening storage box has a polyhedron structure. The polyhedron structure formed by combining the end plates 11 as the outer end faces can be in the shape of a tetrahedron (triangular pyramid), a hexahedron (cuboid), etc. The polyhedron structure can be composed of multiple enclosing plates 1 with the same structural shape, or can be composed of enclosing plates 1 with different shapes, but all end plates 11 should be able to fit together to form a complete three-dimensional structure.
[0038] Therefore, the outer surface of the three-dimensional outer cover 12 of at least one enclosing plate 1 is used to fit the outer contour surface of the polyhedron structure; or, the surface of the end plate 11 of at least one enclosing plate 1 is used to fit the outer contour surface of the polyhedron structure. Whether the enclosing plate 1 faces inward or the three-dimensional outer cover 12 is placed inside, it is the border lines of the bottom port of the cover body of the three-dimensional outer cover 12 that are spliced and buckled together.
[0039] Considering whether the three-dimensional outer cover 12 is a solid, whether there is a concave cavity inside, and whether the end plate 11 is set, multiple combination situations can be set. Different situations correspond to different storage boxes obtained by snap-fastening, achieving different effects.
[0040] Refer to the appendix Figure 2 , the three-dimensional outer cover 12 is set in the shape of a frustum of a pyramid, and the end plate 11 uses a quadrilateral plate with the same size as the bottom end face of the frustum of a pyramid. Taking this as an example, the effects of the obtained storage box are introduced in detail.
[0041] First, for the convenience of description, all enclosing plates 1 adopt the same structural shape, and the enclosing plates 1 are connected as a whole and folded and spliced into a storage box with a polyhedron structure. The integrated plane expansion diagram of all enclosing plates 1 as a whole refers to the appendix Figure 1 .
[0042] The three-dimensional outer covers 12 of all enclosing plates 1 are folded as the outer contour surface, referring to the appendix Figure 2 as the folding state diagram. After folding and gathering, the obtained polyhedron structure refers to the appendix Figure 3 , the main body frame is a hexahedron structure, and each face is in the state of a convex frustum outside, and the internal storage space is at least the cubic space enclosed by the end plates 11.
[0043] Correspondingly, the end plates 11 of all enclosing plates 1 are folded as the outer contour surface, referring to the appendix Figure 4 of the folding state diagram. After folding and gathering, the obtained polyhedron structure refers to the appendix Figure 5 , the inward folding of the three-dimensional outer cover 12 will occupy all or part of the internal space. If the three-dimensional outer cover 12 is a solid, the polyhedron structure inside is directly filled with the solid. If there is a cavity inside the three-dimensional outer cover 12 or a groove is set on the bottom end face, an additional storage space can be formed.
[0044] Based on the above situations, the following provides specific implementation manners of the polyhedron structure of several storage boxes.
[0045] In the first embodiment, the three-dimensional outer cover 12 has a solid structure. A number of grooves are provided on the bottom end face, and an end plate 11 is detachably connected to the end face. The end plate 11 seals and covers the grooves. The overall grooves are equivalent to a drawer-like structure, and the end plate 11 is equivalent to a drawer cover. A limiting slideway is provided around the grooves for the installation and pulling movement of the end plate 11. Whether the three-dimensional outer cover 12 is on the outer surface or in the internal space of the polyhedron structure, the internal grooves can serve as drawer spaces for storing items.
[0046] The groove can be a single large through groove covered by one end plate 11, or can be two or more split drawer cells, corresponding to being covered by one end plate 11, or multiple end plates 11. All end plates can at least cover the opening areas of all the drawer cells.
[0047] In the second embodiment, the three-dimensional outer cover 12 is set as a solid structure. An embedding groove is provided on the bottom end face of the three-dimensional outer cover 12, and the embedding groove is shaped to fit the object to be loaded, realizing customized one-to-one storage. The three-dimensional outer cover 12 can be used both in the storage space and on the external surface, and is suitable for storing fragile and precious objects.
[0048] One or more embedding grooves are provided on the same three-dimensional outer cover 12. The size and quantity of the embedding grooves are determined according to the size of the items to be loaded, making full use of the space. When limiting items with moisture-proof and oxidation-proof requirements, an end plate 11 can be configured above the embedding groove to seal and cover the items.
[0049] In the first embodiment and the second embodiment, items can be stored in compartments to keep the items independent of each other. The external end plate 11 protects the internal items from falling out. During logistics transportation, the side of the three-dimensional outer cover 12 where the items are placed is placed inside the polyhedron structure to ensure transportation stability; when it is needed for exhibition, the side of the three-dimensional outer cover 12 where the items are placed is placed outside the polyhedron structure, and the end plate 11 is removed to directly expose the internal items for exhibition, or the end plate 11 is set to be transparent for convenient sealed display, especially suitable for items that need to be kept dry and anti-oxidized. It solves the problems in the prior art that by using several layers of inner linings to limit and support items, the box body is bulky and not convenient for exhibition.
[0050] In the third embodiment, the three-dimensional outer cover 12 is set as a solid structure. One end face of the three-dimensional outer cover 12 is the end plate 11. Thus, when the bottom end face of the three-dimensional outer cover 12 is placed inside the polyhedron, it acts as an inner core to fill the internal space of the polyhedron structure. For example, if the three-dimensional outer covers 12 are all of the same structure, such as a regular square frustum, six three-dimensional outer covers 12 fill the internal space of the polyhedron and form a solid inner core after splicing, and the whole storage box is then a decorative item.
[0051] In the fourth embodiment, the three-dimensional outer covers 12 of at least two enclosures 1 are placed inside the polyhedron structure, and the three-dimensional outer covers 12 placed inside are spliced to form a grid, which separates the internal storage space of the polyhedron structure into at least two sub-chambers.
[0052] In the same storage box, there are two types of polyhedral structure enclosures 1, one is only a solid three-dimensional outer cover 12, and the other is only an end plate 11. After splicing, the two oppositely arranged three-dimensional outer covers 12 can be spatially separated into different areas, so that the internal storage space can be separated into multiple sub-chambers.
[0053] For example, the end plate 11 of the enclosure 1 is set to a regular polygonal structure, and the corresponding three-dimensional outer cover 12 is set to a regular polyhedron shape. Figure 6 As shown, the end panels 11 of the four enclosures 1 and the three-dimensional outer covers 12 of the two enclosures 1 are folded and placed inside the storage box. The two three-dimensional outer covers 12 abut against each other, dividing the interior space into four chambers for storing scattered items. When folded in reverse, the storage box breaks away from the conventional hexahedral structure, enhancing its appearance and allowing it to be placed as a decorative ornament. Therefore, the storage box can be used as both a storage box and a polyhedron ornament.
[0054] Refer to the attached Figure 3 and attached Figure 5 There are two folding methods, corresponding to the regular hexahedron and the spherical surface with multiple facets, which are both beautiful and practical.
[0055] In the fifth embodiment or other implementations, the interior of the three-dimensional outer cover 12 is hollowed out to form a cavity, the contour of the cavity is similar to the three-dimensional outer cover 12 , and an end plate 11 can be optionally configured on the end of the cavity.
[0056] That is to say, the three-dimensional outer cover 12 is a cavity. After folding, when the outer surface of the three-dimensional outer cover 12 is located inside the polyhedron structure, the concave cavity is connected with the storage space inside the polyhedron structure to form a whole, thereby expanding the storage space, forming a larger storage space, and realizing mixed storage in space.
[0057] The end plate 11 can be detachably installed on the surface of the cavity, which can separate the cavity from the internal storage space, forming an independent storage subspace in the cavity for independently storing items and meeting the needs of classified storage.
[0058] In a specific implementation scenario, in the same storage box (polyhedron structure), the three-dimensional outer cover 12 adopts the same embodiment or the three-dimensional outer cover 12 of the enclosure 1 in the same storage box adopts a combination of two or more embodiments.
[0059] This application forms a storage box by snap - fitting the enclosing panels 1. The two sides of the enclosing panel 1 are different. When multiple enclosing panels 1 are selected and joined together, one side is used to form the outer contour surface of the storage box, which can form storage boxes with various shape structures. Moreover, when different sides are used for splicing, different storage spaces are formed. Grooves or cavities are formed on the end surface of the three - dimensional outer cover 12 of the enclosing panel 1 to form a drawer - like storage grid, a large - space storage cavity, and limit and customize the stored objects, so as to meet different storage needs. The structural shapes of the part enclosing panel 1 are diverse, and the storage boxes formed by splicing the enclosing panels 1 have various outer shapes, combining aesthetics and practicality.
[0060] In the case where an embedding groove is provided on the bottom end surface of the three - dimensional outer cover 12, the three - dimensional outer cover 12 is located inside the storage space, and the whole storage box is closed, which is convenient for logistics transportation. Moreover, when the three - dimensional outer cover 12 is used as the outer contour surface, the product objects are limited in the embedding groove, and can be displayed three - dimensionally and intuitively, which is suitable for exhibition on a booth.
[0061] When used for exhibiting items, the packaging box can not only carry the items for logistics transportation, but also directly display the items as a pallet. After the exhibition, it can be directly stored or repacked and put into logistics transportation again, saving costs.
[0062] The above - mentioned embodiments are only used to illustrate the technical concept and features of the present invention. The purpose is to enable those who are familiar with this technology to understand the content of the present invention and implement it accordingly, and it should not be used to limit the protection scope of the present invention. For those skilled in the art, it is obvious that the present invention is not limited to the details of the above - mentioned exemplary embodiments. Moreover, without departing from the spirit or basic characteristics of the present invention, the present invention can be implemented in other specific forms. Therefore, from any point of view, the embodiments should be regarded as exemplary and non - restrictive. The scope of the present invention is defined by the appended claims rather than the above description. Therefore, it is intended to include all changes that fall within the meaning and scope of the equivalent elements of the claims in the present invention.
Claims
1. A snap-on storage box, characterized in that: It includes at least four enclosing plates, and mating convex buttons and concave holes are provided on the edges of the enclosing plates for splicing, and all the enclosing plates are spliced and enclosed to form a polyhedron structure; The enclosing plates include end plates and / or three-dimensional outer covers, the end plates are arranged on the bottom ports of the three-dimensional outer covers, and the end plates and the three-dimensional outer covers of each enclosing plate are alternatively used to splice the outer contour surfaces of the polyhedron structure.
2. A snap-on storage box according to claim 1, characterized in that: If the outer surface of the three-dimensional outer cover is used to splice the outer contour surface of the polyhedron structure, the corresponding end plate is placed inside the polyhedron structure and is used to enclose and form a storage space; If the surface of the end plate is used to splice the outer contour surface of the polyhedron structure, the outer surface of the corresponding three-dimensional outer cover is placed inside the polyhedron structure and is used to splice and form a solid inner core or a storage space is reserved for splicing inside the polyhedron.
3. The snap-fastener storage box according to claim 2, characterized in that, The end plates and the three-dimensional outer covers of each enclosing plate are detachably connected; the outer surfaces of the three-dimensional outer covers of at least one enclosing plate are used to splice the outer contour surface of the polyhedron structure; or, the surface of the end plate of at least one enclosing plate is used to splice the outer contour surface of the polyhedron structure.
4. The snap button storage box according to claim 3, characterized in that, The three-dimensional outer cover is set as a solid structure, and a number of grooves are provided on the bottom end surface. When the outer surface of the three-dimensional outer cover is placed inside the polyhedron structure, the grooves can communicate with the storage space. When the end plate is detachably connected to the three-dimensional outer cover, the end plate seals and blocks the grooves.
5. The snap-fastener storage box according to claim 3, characterized in that, The three-dimensional outer cover is set as a solid structure, and a mounting groove is provided on the outer surface of the three-dimensional outer cover, and the mounting groove limits and accommodates a contoured object.
6. The buckle storage box according to claim 3, characterized in that: A concave cavity is provided inside the three-dimensional outer cover, and the contour shape of the concave cavity is contoured with the three-dimensional outer cover; when the outer surface of the three-dimensional outer cover is folded and located inside the polyhedron structure, the concave cavity communicates with the storage space inside the polyhedron structure, and when the end plate is detachably installed on the concave cavity, the concave cavity can be separated from the storage space.
7. A snap-fastener storage box according to claim 3, characterized in that, The three-dimensional outer cover is set as a solid structure, one end face of the three-dimensional outer cover is the end plate, and the cover body surface and the end face of the three-dimensional outer cover are respectively folded as the outer contour surface to form a polyhedron storage box or a polyhedron ornament.
8. A snap button storage box according to claim 1, characterized in that, The contour shape of the three-dimensional outer cover is configured as a frustum-like polyhedron shape or an arc-shaped curved surface shape, The end plate of the enclosing plate is set as a regular polygon structure, and the corresponding three-dimensional outer cover contour is set as a regular polyhedron shape.
9. The buckle storage box according to claim 1, characterized in that: When splicing into a polyhedron structure, at least one pair of the convex buttons and the concave holes are constructed on a pair of edges where the enclosing plates are spliced.
10. A snap-fastener storage box according to claim 2, characterized in that, The three-dimensional outer covers of at least two enclosing plates are placed inside the polyhedron structure, and the three-dimensional outer covers placed inside are spliced to form a grid plate, and at least two sub-chambers are separated from the internal storage space of the polyhedron structure.