WO2023179645A1

WO2023179645A1 - Item placement system

Info

Publication number: WO2023179645A1
Application number: PCT/CN2023/082999
Authority: WO
Inventors: 李井建
Original assignee: 杭州巨星科技股份有限公司
Priority date: 2022-03-23
Filing date: 2023-03-22
Publication date: 2023-09-28

Abstract

An item placement system (1000), comprising vertical beams (10) and assembly structures (200); the vertical beams (10) are provided with mounting holes (11), the assembly structures (200) comprise fitting members (201) matching the mounting holes (11), and the assembly structures (200) are detachably mounted to the mounting holes (11) of the vertical beams (10) by means of the fitting members (201). In the item placement system (1000) provided in the present application, the vertical beams (10) and the assembly structurse (200) are detachably connected, so that during transportation, the vertical beams (10) and the assembly structures (200) can be disassembled and then transported, thereby reducing the transportation volume and decreasing transportation costs.

Description

storage system

Related applications

This application claims priority to the Chinese patent application filed on March 23, 2022, with the application number 202220645198.9 and the invention name "Network Partition Component and Partition Shelf", the entire content of which is incorporated into this application by reference.

This application claims priority to the Chinese patent application filed on March 23, 2022, with the application number 202220633995.5 and the invention name "Shoe Rack Set and Shoe Cabinet", the entire content of which is incorporated into this application by reference.

This application claims priority to the Chinese patent application filed on March 23, 2022, with the application number 202220647477.9 and the invention name "Storage Basket Set and Storage Basket Rack", the entire content of which is incorporated into this application by reference.

Technical field

This application relates to the technical field of storage systems, in particular to storage systems.

Background technique

With the demands of life and work, we have a wide variety of items, and the demand for storage systems for storing items is also increasing. Traditional storage systems such as cabinets and boxes used for storage and display are difficult to disassemble and transport, which increases transportation costs and makes it difficult to meet people's increasingly personalized storage needs.

Contents of the invention

According to various embodiments of the present application, a storage system is provided.

A storage system includes a vertical beam and an assembly structure. The vertical beam is provided with a mounting hole. The assembly structure includes a fitting that matches the mounting hole. The assembly structure is detachably connected through the fitting. Installed on the mounting hole of the vertical beam.

In one embodiment, the storage system further includes a load-bearing structure, the load-bearing structure is used to load items, the load-bearing structure is connected to the assembly structure, and is detachably installed on the vertical wall through the assembly structure. Liang.

In one embodiment, the assembly structure includes a bracket, a hook is protruding from the bracket, and the hook is used to hook into the mounting hole of the vertical beam.

In one embodiment, the load-bearing structure includes a storage mesh and a clamping member. The storage mesh includes a plurality of rods connected in a crisscross manner for placing items.

In one embodiment, the load-bearing structure further includes a clamping member, the clamping member includes a clamping portion for clamping to the bracket and a buckling portion extending transversely from the clamping portion, and The buckle portion is used to buckle the rod member of the storage mesh piece, so as to clamp the storage mesh piece to the bracket through the clamping member.

In one embodiment, the buckle part of the buckle component includes a buckle plate integrally connected with the clamping part and a buckle groove provided on the buckle plate, and the buckle The notch size of the buckle groove of the part is smaller than the outer diameter of the rod, wherein the buckle groove of the buckle part matches the rod of the storage mesh, so as to connect the The rod is clamped in the clamping groove of the clamping part;

The clamping groove extends longitudinally on the clamping plate, and a plurality of the clamping slots are arranged transversely on the clamping plate to respectively clamp different vertical rods in the rod member.

In one embodiment, the clamping portion of the clamping member includes a pair of clamping arms extending longitudinally from the clamping portion to form a clamping arm between the clamping arms. The clamping space of the bracket, the bracket is provided with a limiting groove that matches the clamping portion of the clamping member, and the clamping portion of the clamping member is used to clamp the bracket The limiting groove, the bracket is further provided with a limiting hole adjacent to the limiting groove, wherein the clamping portion of the clamping member includes a protruding from the inner side of the clamping arm. a limiting body, and the limiting body in the clamping member matches the limiting hole so as to be clamped to the limiting member of the bracket at the clamping portion of the clamping member slot, the limiting body of the clamping part is embedded in the limiting hole of the bracket.

In one embodiment, the clamping member is made of plastic material, and the bracket is provided with hook grooves that match the cross bars of the rods of the storage mesh for hooking all the items. The cross bar in the rod member, the load-bearing structure further includes a shelf body and an end cover body, wherein the shelf body is used to be covered above the storage mesh, and the end cover body It is used to be arranged on the side of the storage mesh.

In one embodiment, the load-bearing structure further includes a storage shelf, the storage shelf is used to be assembled on a storage grid, the storage shelf includes: a shelf body, the shelf body has a longitudinal arrangement A plurality of molded holes, at least two shaped grooves that are limited and shaped, and a matching groove used to cooperate with the storage grid. The plurality of molded holes transversely penetrate the left end surface and the right end surface of the shelf body, at least Two of the shaping grooves are positioned and distributed between the plurality of shaping holes; and an end cover body, the end cover body includes an end cover plate body and a protruding portion on the At least two end cover plug-ins of the end cover plate body, the end cover plug-ins of the end cover body are inserted into the shaping grooves of the shelf body in one-to-one correspondence, so as to pass through the end cover plate body Cover the left end surface or the right end surface of the shelf body.

In one embodiment, the shelf body has an upper surface and a lower surface arranged oppositely, and the notch of the matching groove of the shelf body is downward for buckling above the storage grid; The shaped groove of the shelf body includes a groove cavity and a notch connected to the groove cavity. The groove cavity transversely penetrates the left end surface and the right end surface of the shelf body. The notch mouth Located on the lower surface of the shelf body; the transverse size of the notch in the shaping groove is equal to the transverse size of the slot cavity, and the longitudinal size of the notch is smaller than the longitudinal size of the slot cavity.

In one embodiment, each of the end cap inserts in the end cap body includes a pair of plug-in arms integrally and transversely extending from the end cap plate body, and the two plug-in arms are spaced apart. Distributed on the end cover plate body, and the upper end distance between the two plug-in arms is greater than the lower end distance between the two plug-in arms; each end cover plug-in further includes: A pair of reinforcing ribs extending transversely of the plate body integrally, the reinforcing ribs integrally connected to the corresponding plug-in arms; two of the reinforcing ribs in each end cover plug-in are located on two of the plug-in connectors between the arms, and the reinforcing rib is located in the middle of the corresponding plug-in arm.

In one embodiment, the load-bearing structure further includes a mesh component, the mesh component is used to separate the storage mesh, the mesh component includes: a mesh piece; and a clamping member, wherein the The clamping member includes a clamping portion connected to the partitioning mesh and a buckling portion integrally extending from the clamping portion, wherein the clamping portion of the clamping member is used to clamp the storage mesh. above the rod, and the buckle part is used to buckle under the rod of the storage mesh, so as to hold the partition mesh on the storage mesh and separate the storage area of the storage mesh.

In one embodiment, the latching portion of the latching member extends transversely for latching on the vertical rod of the storage mesh, wherein the buckling portion of the latching member extends from the latching portion. The latching part of the latching member includes a pair of latching parts extending laterally to the left and right from the partition mesh. arm, wherein the holding arm extending to the left is used to cross over and hold one or more longitudinal rods on the left side of the partition mesh on the storage net, and the holding arm extending to the right is used to Cross over and hold one or more vertical rods on the right side of the partition mesh on the storage mesh; the buckle portion of the holding member includes a pair of obliquely extending downwards from the holding arms. The buckle arm, and the buckle arm of the buckle part is used to pass through the storage mesh from top to bottom to buckle with the cross bar.

In one of the embodiments, the two clamping members are respectively fixed to the front and rear ends of the mesh sheet, and the buckling arm of the buckling portion of the clamping piece located at the front end automatically The holding arm extends forward obliquely and is used to buckle forward to the front cross bar on the storage mesh, and the buckling arm of the buckling part in the holding piece at the rear end is free from the The holding arm extends obliquely backward and is used to buckle backward on the rear cross bar on the storage mesh; the buckling part of the holding member located at the front end further includes a buckling arm extending backward from the buckling arm. a front guide arm that extends obliquely; and the buckle portion of the holder located at the rear end further includes a rear hook arm extending rearwardly from the buckle arm.

In one embodiment, the latching portion of the latching member extends longitudinally for latching on the cross bar of the storage mesh, wherein the buckling portion of the latching member extends from the latching portion. The latching part of the latching member includes a latching plate for inserting the partition mesh, and the latching plate is longitudinally Extending to cross over and catch two or more horizontal bars on the storage mesh; wherein the buckle portion of the holding member includes a pair of vertical bars extending vertically from the left and right sides of the holding plate respectively. One or more pairs of longitudinal buckles, and the longitudinal buckles are respectively used to pass through the storage mesh from top to bottom to buckle on two adjacent vertical bars on the storage mesh.

In one embodiment, the vertical beam includes a first vertical beam, a second vertical beam and a vertical beam splicing piece. The vertical beam splicing piece is used to splice the first vertical beam to the end-to-end. a second vertical beam; wherein the vertical beam splicing piece includes: a connecting piece, wherein the connecting piece has a connecting part for connecting with the first vertical beam and a limiting part extending from the connecting part, and the The limiting part is provided with a limiting surface for matching the surface of the first vertical beam and the surface of the second vertical beam; and a limiting part, wherein the limiting part is provided on the limiting part of the connecting member part for abutting the second vertical beam end-to-end against the first vertical beam, and making the surface of the first vertical beam and the surface of the second vertical beam fit against the limiting portion of the limiting portion at the same time noodle.

In one embodiment, the limiting portion of the connecting piece is a limiting plate used to provide a flat limiting surface, and the connecting portion is the limiting portion from the limiting plate. A connecting column extending transversely is used to be correspondingly plugged into the installation hole on the base wall of the first vertical beam, wherein the limiter is a limiter extending laterally from the limiter surface of the limiter plate. The column is used to be plugged into the mounting hole on the base wall of the second vertical beam correspondingly, so that the limiting surface of the limiting plate is used to fit the base wall of the first vertical beam and the second vertical beam. surface; the connecting post and the limiting post in the connecting piece both extend laterally and integrally from the limiting surface of the limiting plate.

In one embodiment, the limiting portion of the connecting member is a limiting frame used to fit on the base wall surface of the first vertical beam and the second vertical beam, and the connecting portion is formed from the A connecting block protruding outward at one end of the limiting frame is used to embed the second connecting block on the side wall of the first vertical beam. card slot, wherein the limiter is provided at the other end of the limiter frame and is used to insert into the first card slot on the side wall of the second vertical beam; the limiter is used to communicate with the second vertical beam A limit rod matching the first slot of the vertical beam, and the other end of the limit frame of the connecting member is provided with a first through hole matching the limit rod for The limiting rod penetrates the limiting frame through the first through hole to be inserted into the first slot of the second vertical beam.

In one embodiment, the vertical beam includes a support body, and the support body has at least three rows of mounting positions spaced apart along the width direction of the support body, and each row of the mounting positions includes a plurality of mounting holes, At least two mounting parts are provided along the width direction of the support body, each of the mounting parts is formed by one or more mounting holes, and the mounting parts are used to cooperate with external mounting parts; two side plates, two The side plates are respectively fixed on both sides of the support body. The support body includes a first side and a second side opposite to the first side. Both side plates protrude from the Side one.

In one embodiment, the support body further includes reinforcing ribs, the reinforcing ribs are arranged between two adjacent rows of the mounting positions, and the reinforcing ribs extend along the length direction of the support body. The side plate, the reinforcing rib and the support body are integrally provided.

The details of one or more embodiments of the application are set forth in the accompanying drawings and the description below. Other features, objects and advantages of the application will become apparent from the description, drawings and claims.

Description of the drawings

To better describe and illustrate embodiments and/or examples of those inventions disclosed herein, reference may be made to one or more of the accompanying drawings. The additional details or examples used to describe the drawings should not be construed as limiting the scope of any of the disclosed inventions, the embodiments and/or examples presently described, and the best modes currently understood of these inventions.

Figure 1 is a schematic three-dimensional view of a storage system provided by an embodiment of the present application.

Figure 2 is a schematic three-dimensional view of part of the structure in Figure 1.

FIG. 3 shows an exploded schematic diagram of the storage system according to the above-mentioned embodiment of the present application.

FIG. 4 shows an enlarged schematic diagram of part P in the storage system shown in FIG. 3 according to the present application.

FIG. 5 shows an enlarged schematic diagram of the local Q in the storage system shown in FIG. 3 according to the present application.

Figure 6 shows a schematic cross-sectional view of the storage system according to the above-mentioned embodiment of the present application.

FIG. 7 shows an exploded schematic diagram of a storage shelf in the storage system according to the above-mentioned embodiment of the present application.

FIG. 8 shows a partially enlarged schematic view of the shelf body of the storage shelf according to the above-mentioned embodiment of the present application.

FIG. 9 shows a partially enlarged schematic view of the end cover body of the storage shelf according to the above embodiment of the present application.

FIG. 10 shows a schematic three-dimensional cross-sectional view of the storage shelf according to the above-mentioned embodiment of the present application.

Figure 11 shows an exploded schematic diagram of the storage grid in the storage system according to the above-mentioned embodiment of the present application.

FIG. 12 shows an enlarged three-dimensional view of the clamping connector in the storage rack according to the above embodiment of the present application.

Figure 13 is a schematic structural diagram of an embodiment of the vertical beam of the present application.

Figure 14 is a schematic structural diagram of the vertical beam in Figure 13 from another perspective.

Fig. 15 is an enlarged schematic diagram of the X portion in Fig. 14.

Figure 16 is an enlarged schematic diagram of part Y in Figure 14.

Figure 17 is a schematic structural diagram of another embodiment of the vertical beam of the present application.

Fig. 18 is an enlarged schematic diagram of the L portion in Fig. 14.

Figure 19 is a schematic structural diagram of another embodiment of the vertical beam of the present application.

Figure 20 is an enlarged schematic diagram of part M in Figure 19.

Figure 21 is a schematic structural diagram of another embodiment of the vertical beam of the present application.

Figure 22 is an enlarged schematic diagram of part N in Figure 21.

Figure 23 is a schematic structural diagram of another embodiment of the vertical beam of the present application.

Figure 24 is a schematic structural diagram of the vertical beam in Figure 23 from a first perspective.

Figure 25 is a schematic structural diagram of the vertical beam in Figure 23 from a second perspective.

Figure 26 is a three-dimensional schematic view of a vertical beam provided by one embodiment of the invention.

Figure 27 is a three-dimensional schematic view of a spliced beam provided by an embodiment of the present application.

Figure 28 shows an exploded schematic diagram of a spliced beam according to one embodiment of the present application.

Figure 29 shows a modified embodiment of a spliced beam according to an embodiment of the present application.

Figure 30 is a perspective view of a spliced beam according to another embodiment of the present application.

Figure 31 shows an exploded schematic diagram of a spliced beam according to another embodiment of the present application.

Figure 32 shows a deformation example of a spliced beam according to another embodiment of the present application.

Figure 33 shows a deformation example of a spliced beam according to another embodiment of the present application.

Figure 34 is a three-dimensional schematic diagram of a storage system provided by an embodiment of the present application.

Figure 35 shows an exploded schematic diagram of a storage system according to one embodiment of the present application.

Figure 36 shows an enlarged schematic diagram of part R in the storage system according to an embodiment of the present application.

Figure 37 shows a schematic cross-sectional view of a storage system according to an embodiment of the present application.

Figure 38 shows a schematic longitudinal cross-sectional view of a storage system according to an embodiment of the present application.

Figure 39 shows an enlarged schematic diagram of a bracket in a storage system according to an embodiment of the present application.

FIG. 40 shows an enlarged schematic view of a clamping member in a storage system according to an embodiment of the present application.

Figure 41 shows an application example of a shoe cabinet according to an embodiment of the present application.

Figure 42 is a schematic three-dimensional view of a storage basket provided by an embodiment of the present application.

Figure 43 shows an exploded schematic diagram of a basket set in a basket rack according to one embodiment of the present application.

Figure 44 shows an enlarged schematic cross-sectional view of a storage basket rack according to an embodiment of the present application.

Figure 45 shows an enlarged schematic view of the hook in the storage basket set according to an embodiment of the present application.

FIG. 46 shows an enlarged schematic diagram of part D in FIG. 1 .

FIG. 47 shows an enlarged schematic diagram of part B in FIG. 1 .

FIG. 48 shows an enlarged schematic diagram of part C in FIG. 1 .

Figure 49 is a schematic diagram of the use state of the support assembly in one embodiment of the present application.

Figure 50 is a schematic structural diagram of Figure 49 from another perspective.

Figure 51 is a schematic structural diagram of Figure 49 from another perspective.

Fig. 52 is a disassembled schematic view of the fixing member in Fig. 49.

Figure 53 is a schematic structural diagram of a support assembly in another embodiment of the present application.

Figure 54 is a schematic structural diagram of Figure 53 from another perspective.

Fig. 55 is a schematic structural diagram of the fixing member in Fig. 53.

Figure 56 is a schematic structural diagram of a support assembly in another embodiment of the present application.

Figure 57 is a schematic structural diagram of a support assembly in another embodiment of the present application.

Figure 58 is a schematic structural diagram of a fixing member in another embodiment of the present application.

Figure 59 is a schematic structural diagram of a support assembly in another embodiment of the present application.

Figure 60 is a schematic structural diagram of a fixing member in another embodiment of the present application.

Figure 61 is a schematic diagram of the explosion structure in Figure 60.

Figure 62 is a schematic structural diagram of a support assembly in another embodiment of the present application.

Figure 63 is a three-dimensional schematic view of a divided storage rack according to an embodiment of the present application.

Figure 64 shows an exploded schematic diagram of a divided storage rack according to one embodiment of the present application.

Figure 65 shows an enlarged schematic view of part E of the divided storage rack according to one embodiment of the present application.

Figure 66 shows an enlarged schematic view of part F in the divided storage rack according to one embodiment of the present application.

Figure 67 shows an example of a divided storage rack according to an embodiment of the present application.

Figure 68 shows a modified embodiment of a divided storage rack according to an embodiment of the present application.

Figure 69 shows an exploded schematic diagram of a divided storage rack according to a modified embodiment of the present application.

Fig. 70 shows an enlarged schematic view of a holder in a divided storage rack according to a modified embodiment of the present application.

Figure 71 shows a schematic cross-sectional view of a divided storage rack according to a modified embodiment of the present application.

Figure 72 shows a schematic longitudinal cross-sectional view of a divided storage rack according to a modified embodiment of the present application.

100. Beam frame; 10. Vertical beam; 101. First vertical beam; 102. Second vertical beam; 11. Mounting hole; 12. Support body; 121. First side; 122. Second side; 13. Side plate ; 131. First card slot; 132. Second card slot; 133. Third card slot; 134. Body part; 135. Snap connection 14. Reinforcing ribs; 15. Vertical beam splices; 151. Connectors; 1501. Connecting parts; 1511. Connecting columns; 1512. Connecting pieces; 1513. Connecting blocks; 152. Limiting parts; 1520. Limiting surfaces ; 1521. Limiting plate; 1522. Limiting frame; 15220. First through hole; 153. Screw hole; 154. Limiting piece; 1541. Limiting column; 1542. Limiting piece; 1543. Limiting rod; 1544 , limit ear; 20, cross beam; 50, fixing hole; 200, assembly structure; 201, matching parts; 210, bracket; 211, limit groove; 212, limit hole; 213, hook groove; 214, hook; 2141 , hanging arm; 2142, hook arm; 220, storage basket set; 2200, storage space; 221, hook mesh; 2211, side mesh; 22111, first support rod; 221111, first vertical support Rod; 221112, first longitudinal support rod; 221113, overlapping groove; 22112, side vertical rod; 2212, hook hanging piece; 22121, fixed part; 221211, fixed plate; 221212, support plate; 22123, hook hole; 222 , Storage basket mesh; 2221, bottom cross bar; 2222, bottom vertical bar; 223, buckle; 2231, support beam; 2232, snap groove; 224, front mesh; 2241, front cross bar; 2242, Front longitudinal bar; 2243, limit block; 225, rear mesh; 2251, rear cross bar; 2252, rear vertical bar; 2253, hook arm; 230, support set; 231, support assembly; 2311, Base; 300, load-bearing structure; 320, storage mesh; 3200, rod; 321, horizontal rod; 322, vertical rod; 330, clamping piece; 331, clamping part; 3310, clamping space; 3311, clamp Arm; 3312, limiting body; 332, snap portion; 3321, snap plate; 3322, snap slot; 360, storage shelf; 361, shelf body; 3601, left end surface; 3602, right end surface; 3603 , upper surface; 3604, lower surface; 3611, forming hole; 3612, shaping groove; 36121, groove cavity; 36122, notch; 3613, matching groove; 362, end cover body; 3621, end cover plate body; 3622, end Cover insert; 36221, plug-in arm; 36222, reinforcing rib; 370, clamping connector; 371, supporting body; 372, lower clamping arm; 373, upper clamping arm; 380, fixing piece; 381, connecting structure ; 3811. The first frame; 3812. The second frame; 3813. Positioning piece; 3814. The first piece; 3815. The second piece; 3816. The third piece; 3817. Connection groove; 382. Anti-falling structure; 3821 , support piece; 38211, clamping block; 383, reinforcement; 390, load-bearing member; 420, mesh component; 421, mesh piece; 4211, second support rod; 42111, second longitudinal support rod; 42112, first Two vertical support rods; 4212, vertical rod; 422, clamping piece; 4221, clamping part; 42211, clamping arm; 42212, clamping plate; 422121, top wall; 422122, side wall; 422123, clamping groove ; 422124, deformation hole; 4222, buckle part; 42221, buckle arm; 42223, vertical bar buckle; 42224, cross bar buckle; 422a, front clamping piece; 4221a, front clamping part; 42211a, front clamp Holding arm; 4222a, front buckle part; 42221a, front buckle arm; 42222a, front guide arm; 422b, rear clamping part; 4221b, rear gripping part; 42211b, rear gripping arm; 4222b, rear buckle part ; 42221b, rear buckle arm; 42222b, rear hook arm; 500, shoe rack set; 600, divided storage rack; 700, storage basket rack; 800, vertical beam assembly; 810, splicing beam; 1000, storage system.

Detailed ways

In order to make the above objects, features and advantages of the present application more obvious and easy to understand, the specific implementation modes of the present application will be described in detail below with reference to the accompanying drawings. In the following description, numerous specific details are set forth in order to provide a thorough understanding of the present application. However, the present application can be implemented in many other ways different from those described here. Those skilled in the art can make similar improvements without violating the connotation of the present application. Therefore, the present application is not limited by the specific embodiments disclosed below.

It should be noted that when a component is said to be "connected to" another component, it can be directly connected to the other component or there may also be an intermediate component. When a component is said to be "set on" another component, it can be directly set on the other component or there may be a centered component at the same time. When a component is said to be "anchored" to another component, it can be directly anchored to the other component or there may be an intermediate component present as well.

Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the technical field to which this application belongs. The terminology used herein in the description of the application is for the purpose of describing specific embodiments only and is not intended to limit the application. As used herein, the term "or/and" includes any and all combinations of one or more of the associated listed items.

As shown in Figures 1 and 3, the present application provides a storage system 1000, which includes a vertical beam 10 and an assembly structure 200. The vertical beam 10 is provided with a mounting hole 11, and the assembly structure 200 includes a fitting 201 that matches the mounting hole 11. The assembly structure 200 is detachably mounted on the mounting hole 11 of the vertical beam 10 through the matching piece 201 .

In the storage system 1000 provided by the present application, the vertical beam 10 and the assembly structure 200 are detachably connected. During transportation, the vertical beam 10 and the assembly structure 200 can be disassembled and transported, which reduces the transportation volume and transportation cost. .

The specific structure of the vertical beam 10 and the beam frame 100 formed by the combination of the vertical beam 10 and the cross beam 20 and other structures will be described in detail below.

Optionally, as shown in Figure 1, the beam frame 100 of the present application may include a vertical beam 10 and a cross beam 20, the cross beam 20 supports the vertical beam 10 laterally, To improve the overall structural stability of the beam frame 100. It can be understood that the cross beam 20 of the present application can be connected to the vertical beam 10 by, but is not limited to, welding, screwing or snapping; the bracket 210 can be detachably installed on the vertical beam 10 by, but is not limited to, hooking. .

In addition, the vertical beams 10 and the cross beams 20 in the beam frame 100 of the present application are usually provided with through holes and/or grooves during processing and molding to serve as the forming holes of the beam frame 100, which helps to ensure that the beam frame has a high While increasing the load-bearing capacity, it also reduces the weight of the beam frame. However, considering that if the molded holes on the vertical beams 10 and the crossbeams 20 are exposed, they will easily accumulate dust and become inconvenient to take care of. Therefore, the storage system 1000 of the present application can be correspondingly connected to the vertical beam cover plate and the crossbeam cover plate respectively. The vertical beam 10 and the cross beam 20 are used to cover the molded holes on the vertical beam 10 and the cross beam 20 so that the molded holes on the vertical beam 10 and the cross beam 20 are hidden, which not only avoids dust accumulation and facilitates maintenance, but also improves the overall appearance of the storage system 1000 .

Optionally, the vertical beam 10 includes: a support body 12. The support body 12 has at least four rows of mounting positions spaced apart along the width direction of the support body 12. Each row of mounting positions includes a plurality of mounting holes 11 along the width of the support body 12. At least two mounting parts are provided in the direction, each mounting part is formed by one or more mounting holes 11, and the mounting parts are used to cooperate with external mounting parts; two side plates 13, the two side plates 13 are respectively fixed on the support body 12 On both sides of the support body 12 , the support body 12 includes a first surface 121 and a second surface 122 opposite to the first surface 121 . Both side plates 13 protrude from the first surface 121 .

The vertical beam 10 has a plurality of mounting holes 11 of different heights. The mounting holes 11 can form a plurality of different mounting parts, so that the vertical beam can be adapted to connect different external mounting parts. At the same time, the side plates 13 can improve the support of the vertical beam 10 The strength and connection stability prevent the vertical beam 10 from bending, shaking or falling apart, ensuring that the vertical beam 10 is reliable, stable and durable.

Optionally, in one embodiment of the present application, the side plate 13 is integrally provided with the support body 12 . With this arrangement, the integral formation of the side plate 13 and the support body 12 can improve the connection strength between the two, save processing and installation techniques, and at the same time enhance the overall bending resistance of the vertical beam 10 . It can be understood that in other embodiments, the side plate 13 can also be provided separately from the support body 12. Optionally, in this embodiment, the protruding direction of the side plate 13 and the surface of the support body 12 are perpendicular to each other. , it can be understood that in other embodiments, the protruding direction of the side plate 13 and the plate surface of the support body 12 may not be vertical, and the angle between the two may be an obtuse angle or an acute angle.

Please refer to Figures 17 and 18. Further, in one embodiment of the present application, the vertical beam 10 also includes reinforcing ribs 14. The reinforcing ribs 14 are disposed between two adjacent rows of installation positions, and the reinforcing ribs 14 are along the support body. 12 lengthwise extension. Such arrangement can further increase the bending resistance of the support body 12, further ensure that the vertical beam 10 is not prone to bending, bending, shaking or falling apart during use, and ensure the quality and use effect of the vertical beam 10. It can be understood that the number of reinforcing ribs 14 is not limited, and reinforcing ribs 14 can be provided between two adjacent rows of installation positions to further enhance the bending resistance of the support body 12 and improve the overall quality and stability of the vertical beam 10 .

Optionally, in one embodiment of the present application, the reinforcing ribs 14 are provided integrally with the support body 12 . With this arrangement, the integral formation of the reinforcing ribs 14 and the support body 12 can improve the connection strength between the two, save processing and installation processes, and further enhance the bending resistance of the support body 12 .

Please refer to Figures 17 and 18 again, and refer to Figures 19 and 20 together. Figure 19 is a schematic structural diagram of another embodiment of the vertical beam 10 of the present application; Figure 20 is an enlarged schematic diagram of part M in Figure 19.

Further, in one embodiment of the present application, the reinforcing rib 14 is a groove body with the first surface 121 recessed toward the second surface 122 (see Figures 17 and 18 ); or, the reinforcing rib 14 is a groove body with the second surface 122 recessed toward the second surface 122 . One side 121 is a concave tank body (see Figures 19 and 20). In this way, the recessed groove body can add multiple bending surfaces, further improving the bending resistance of the support body 12. At the same time, the recessed groove body can be recessed from the first surface 121 to the second surface 122 or from the second surface 122 to the first surface. The reinforcing ribs 14 formed by the depressions 121 can avoid using too much additional material and further save process costs.

Please refer to Figures 21 and 22. Figure 21 is a schematic structural diagram of another embodiment of the vertical beam 10 of the present application; Figure 22 is an enlarged schematic diagram of the N portion in Figure 21. Optionally, in one embodiment of the present application, the reinforcing ribs 14 are provided on the first surface 121 . With this arrangement, the structure and material of the reinforcing ribs 14 can be unrestricted, and the setting methods of the reinforcing ribs 14 are diversified. At the same time, the effect of the reinforcing ribs 14 on improving the overall bending resistance of the vertical beam 10 is ensured, and the effect of the reinforcing ribs 14 on the vertical beam 10 is prevented during use. The phenomenon of bending and shaking occurs. Specifically, the reinforcing ribs 14 are of solid structure, and adding the reinforcing ribs 14 can improve the bending resistance of the vertical beam 10 .

In a not-shown embodiment of the present application, the reinforcing ribs 14 are disposed on the second surface 122 . Furthermore, optionally, in another not shown embodiment of the present application, reinforcing ribs 14 are provided on both the first surface 121 and the second surface 122 of the support body 12 .

Please refer to FIG. 14 again and refer to FIG. 15 and FIG. 16 together. FIG. 15 is an enlarged schematic diagram of the X part in FIG. 14; FIG. 16 is an enlarged schematic diagram of the Y part in FIG. 14.

Optionally, in one embodiment of the present application, the mounting hole 11 is a strip hole. With this arrangement, the strip holes can increase the clamping area between the vertical beam 10 and other connecting frames during the installation process, ensuring that the assembled storage system can remain firm and stable, and ensure that the storage system does not It is prone to shaking and falling apart.

Further, optionally, in one embodiment of the present application, the mounting hole 11 extends along the length direction of the support body 12 . With this arrangement, when the vertical beam 10 is placed vertically to connect to the horizontal connecting frame, the mounting holes 11 opened along the length direction of the support body 12, that is, in the vertical direction, can greatly improve the engagement between the horizontal connecting frame and the mounting hole 11 of the vertical beam 10. The bearing capacity of the parts is ensured to avoid the breakage of the clamping parts caused by placing too many goods on the horizontal connecting rack.

Please refer to FIG. 16 again. Optionally, in one embodiment of the present application, the two side plates 13 are provided with first slots 131 near the ends thereof. The first slots 131 connect the side plates 13 to each other. The plate body is divided into a main body part 134 and a first clamping part 135 . With this arrangement, the vertical beam 10 can engage with the cross beam 20 or other installation parts through the first clamping groove 131 and the first clamping portion 135 to ensure the stability of the vertical beam 10 after installation and connection. It can be understood that the heights and shapes of the opening positions of the first slots 131 on the two side plates 13 are consistent and corresponding to ensure that the panel on which the goods are placed remains level after the cross beam 20 and the vertical beam 10 are engaged and to prevent the cross beam 20 from tilting. Causing items to slip and be damaged.

Further, optionally, the first clamping groove 131 is a strip groove, the extending direction of the strip groove has an included angle with the extending direction of the side plate 13 , and the extending direction of the strip groove is away from the end of the side plate 13 . With this arrangement, the strip groove with an inclined angle can increase the stability of the connection between the cross beam 20 and the vertical beam 10 and avoid slippage at the connection between the cross beam 20 and the vertical beam 10 .

Please refer to Figure 15 again. Optionally, in one embodiment of the present application, the side plate 13 is provided with a second card slot 132 and a third card slot 133 at intervals near the end of the plate body. The second card slot 132 The third slot 133 is used to provide a sliding space, and the third slot 133 is used to provide an installation space for a fastener (not shown). With this arrangement, the installation position of the vertical beam 10 can be adjusted through the second slot 132 and the cross beam 20 or other mounting parts, and can be installed and fixed through the third installation slot.

Specifically, the second slot 132 is located relatively close to the center of the side plate 13 , and the third slot 133 is opened relatively far from the center of the side plate 13 . When the vertical beam 10 is connected to the cross beam 20 in a vertical state, the second slot 132 is located at Below the third clamping slot 133, the bottom groove wall of the second clamping slot 132 can provide a support step for the hooking member (not shown), making it easier for the user to adjust the fixed position between the vertical beam 10 and the cross beam 20 without being easily skewed or detached. , and when multiple vertical beams 10 are connected to the cross beam 20, the second slot 132 can cooperate with the hook to adjust the spacing between different vertical beams 10 and adjust the width of the cargo space of the storage system, and the third slot 133 can be a fixing member An installation space is provided, and the head of the fixing member can be accommodated between the hook member and the third slot 133 .

Referring to Figure 23, Figure 24 and Figure 25, in another embodiment of the present application, to further enhance the bending resistance of the vertical beam 10, the reinforcing ribs 14 may not be provided, and the support body 12 deforms itself to form multiple continuous and mutually perpendicular structures. The bending surface can also further enhance the bending resistance of the entire vertical beam 10. The mounting holes 11 are opened on the bending surface perpendicular to the width direction of the support body 12; external mounting parts (such as brackets, hooks, guide rails, etc.) can be provided The corresponding hooking portion is matched with two or more mounting holes 11 in two adjacent rows and at the same height on the support body 12 . Furthermore, a fixing hole 50 is also provided on the bending surface parallel to the width direction of the support body 12. The fixing hole 50 can be used to fix the vertical beam 10 on a wall or other flat surface.

Considering that the traditional vertical beam connection method usually uses screws to fix the overlapping ends of the two vertical beams together to complete the splicing, such a vertical beam connection method will cause the vertical bearing capacity to form shear force on the screws. It is easy to shear the screws, which will greatly reduce the load-bearing capacity of the spliced vertical beams in the vertical direction. In order to solve this problem, this application provides a vertical beam splicing piece and a splicing beam, which can reduce the difficulty of splicing and simplify the assembly process of the storage system while ensuring the vertical load-bearing capacity.

Specifically, please refer to Figures 27 and 28. The first embodiment of the present application provides a splicing beam 810, wherein the splicing beam 810 may include a vertical beam splicing piece 15 and a vertical beam assembly 800, wherein the vertical beam assembly 800 includes The first vertical beam 101 and the second vertical beam 102, and the vertical beam splicing piece 15 splices the first vertical beam 101 to the second vertical beam 102 to form a spliced beam 810 with a longer length and a stronger vertical load-bearing capacity. .

More specifically, as shown in Figures 27 and 28, the vertical beam splice 15 may include a connecting piece 151 and a limiting piece 154, wherein the connecting piece 151 has a connecting portion 1501 for connecting to the first vertical beam 101 and a self-connecting part. The limiting portion 152 extends from the portion 1501 , and the limiting portion 152 is provided with a limiting surface 1520 for matching the surface of the first vertical beam 101 and the surface of the second vertical beam 102 . The limiting member 154 is provided on the limiting portion 152 of the connecting member 151 and is used to contact the second vertical beam 102 end-to-end against the first vertical beam 101 and to make the surface of the first vertical beam 101 and the second vertical beam 101 contact the second vertical beam 102 end-to-end. The surface of the beam 102 is in contact with the limiting surface 1520 of the limiting portion 152 at the same time.

It is worth noting that the vertical beam splicing piece 15 of the present application can not only contact the second vertical beam 102 end-to-end with the first vertical beam 101, but also can connect the surface of the first vertical beam 101 and the second vertical beam. The surface of 102 is in contact with the limiting surface 1520 of the limiting portion 152 at the same time, so the vertical beam splicing piece 15 can make the first vertical beam 101 and the second vertical beam 102 align end-to-end in the vertical direction, so that The vertical bearing capacity of the first vertical beam 101 and the second vertical beam 102 can be directly transmitted to each other, without exerting shear force on the vertical beam splicing piece 15, which helps to ensure that the vertical beam splicing piece 15 can better splice the second vertical beam splicing piece 15. One vertical beam 101 and a second vertical beam 102.

It can be understood that the first vertical beam 101 and the second vertical beam 102 in the vertical beam assembly 800 of the present application can be made of, but are not limited to, steel materials such as channel steel, angle steel, I-shaped steel or H-shaped steel. In addition, the first vertical beam 101 and the second vertical beam 102 in the vertical beam assembly 800 are usually provided with through holes and/or grooves during processing, so as to ensure that the vertical beams have a high load-bearing capacity and at the same time reduce the load. The vertical beam splicing piece 15 of the present application can make full use of these through holes and/or grooves to simplify the difficulty of splicing vertical beams, thereby simplifying the assembly process of shelves or appliances such as shelves using the splicing beam 810.

Illustratively, as shown in Figures 27 and 28, taking the vertical beam assembly 800 processed from channel steel as an example, the first vertical beam 101 and the second vertical beam 102 both have U-shaped cross sections, and the first vertical beam Mounting holes 11 are provided on the base walls of 101 and the second vertical beam 102. Correspondingly, the limiting portion 152 of the connecting piece 151 of the vertical beam splicing piece 15 can be implemented as a limiting plate 1521 for providing a flat limiting surface 1520, wherein the connecting portion 1501 is implemented as a limiting plate 1521. The connecting posts 1511 extending transversely from the plane 1520 are used to be correspondingly plugged into the mounting holes 11 on the base wall of the first vertical beam 101, and the limiting members 154 are implemented as transverse from the limiting surface 1520 of the limiting plate 1521. The extended limiting column 1541 is used to be correspondingly inserted into the mounting hole 11 on the base wall of the second vertical beam 102 .

In this way, when assembling the splicing beam 810, you only need to insert the connecting column 1511 and the limiting column 1541 in the vertical beam splicing piece 15 into the mounting holes 11 on the first vertical beam 101 and the second vertical beam 102 respectively. By making the limiting surface 1520 on the limiting plate 1521 of the vertical beam splicing piece 15 fit against the base wall surface of the first vertical beam 101 and the second vertical beam 102, the first vertical beam 101 and the second vertical beam can be realized. The beams 102 are aligned end-to-end in the vertical direction; that is to say, the vertical beam splicing piece 15 of the present application enables the user to splice the first vertical beam 101 and the second vertical beam 102 with bare hands without using tools such as a wrench or a wrench. Screwdrivers and other professional tools. It can be understood that the connecting column 1511 and the limiting column 1541 in the vertical beam splicing piece 15 respectively limit the first vertical beam 101 and the second vertical beam 102 in the vertical direction, and the limiting plate in the vertical beam splicing piece 15 1521 restricts the first vertical beam 101 and the second vertical beam 102 in the horizontal direction to ensure that the first vertical beam 101 and the second vertical beam 102 are in end-to-end contact, thereby ensuring the vertical load-bearing capacity of the spliced beam 810.

Optionally, both the connecting column 1511 and the limiting column 1541 are integrated and laterally extended from the limiting surface 1520 of the limiting plate 1521 to form the vertical beam splice 15 with an integrally formed structure, which helps to simplify the vertical beam splice 15 The manufacturing process improves the overall structural strength of the vertical beam splicing piece 15. It can be understood that the vertical beam splice 15 of the present application can be made of, but is not limited to, hard materials with a certain hardness such as plastic or carbon fiber.

Optionally, the vertical beam splice 15 may include two connecting columns 1511 arranged side by side and two limiting columns 1541 arranged side by side, and the connecting columns 1511 correspond to the limiting columns 1541 one-to-one in the vertical direction, so that the first The first vertical beam 101 and the second vertical beam 102 are aligned end-to-end in the vertical direction to prevent vertical misalignment between the two and ensure that the splicing beam 810 has a large vertical load-bearing capacity.

It is worth noting that although in the above examples of the application, the vertical beam splicing parts 15 cooperate with the mounting holes 11 on the vertical beam assembly 800 to realize vertical beam splicing, in other examples of the application, the vertical beam splicing parts 15 It can also cooperate with the grooves provided on the vertical beam assembly 800 to still achieve the required vertical beam splicing effect.

Exemplarily, FIG. 29 shows a modified embodiment of the splicing beam 810 according to the above-mentioned first embodiment of the present application, in which grooves are provided on the side walls of the vertical beam assembly 800, such as those of the first vertical beam 101. A second slot 132 matching the connecting portion 1501 is formed on the side wall, and a first slot 131 matching the limiting member 154 is formed on the side wall of the second vertical beam 102 . Correspondingly, the connecting portion 1501 of the vertical beam splicing piece 15 is implemented as a connecting piece 1512 that bends and extends from one end of the limiting plate 1521 for correspondingly hooking with the second slot 132 on the first vertical beam 101 ; The limiting member 154 is implemented as a limiting piece 1542 extending curvedly from the other end of the limiting plate 1521, for correspondingly hooking with the first slot 131 on the second vertical beam 102.

In this way, when assembling the splicing beam 810, it is only necessary to hook the connecting piece 1512 and the limiting piece 1542 in the vertical beam splicing piece 15 to the second slot 132 and the second vertical beam on the first vertical beam 101 respectively. 102, so that the limiting surface 1520 on the limiting plate 1521 of the vertical beam splice 15 fits the side wall surface of the first vertical beam 101 and the second vertical beam 102, which can be achieved The first vertical beam 101 and the second vertical beam 102 are aligned in the vertical direction and butt end-to-end. It can be understood that the connecting piece 1512 in the vertical beam splicing piece 15 bends and extends from one end of the limiting plate 1521 to form a V-shaped hook structure at one end of the limiting plate 1521; accordingly, the vertical beam splicing piece 15 The limiting piece 1542 curvedly extends from the other end of the limiting plate 1521 to form an arc-shaped hook structure at the other end of the limiting plate 1521.

Optionally, in this modified embodiment of the present application, the vertical beam splicing parts 15 may be made of, but are not limited to, metal materials. For example, the vertical beam splicing parts 15 may be made of bent metal plates, which is not the case in this application. Again.

Optionally, as shown in Figure 29, the second clamping groove 132 on the first vertical beam 101 of the present application is a straight slot, and the first clamping slot 131 on the second vertical beam 102 is an inclined slot. In this way, when assembling the splicing beam 810, the limiting piece 1542 in the vertical beam splicing piece 15 needs to be hooked into the first slot 131 of the second vertical beam 102, and then the connecting piece 1512 in the vertical beam splicing piece 15 is pressed into the second vertical beam splicing piece 15. The second slot 132 of a vertical beam 101 is for hooking Connected to the second slot 132 of the first vertical beam 101. It can be understood that when the connecting piece 1512 is pressed into the second slot 132 of the first vertical beam 101 , the vertical beam splicing piece 15 will be slightly deformed, so that the vertical beam splicing piece 15 is aligned with the first vertical beam 101 and the second vertical beam 101 . The two vertical beams 102 exert greater binding force.

It is worth noting that in the above-mentioned first embodiment of the present application and its modified embodiments, the vertical beam splicing piece 15 either only contacts the base wall of the vertical beam assembly 800 for splicing, or only contacts the side wall of the vertical beam assembly 800 Although the required vertical beam splicing effect can be achieved in the vertical direction, it is difficult to ensure the structural stability of the splicing beam 810 in the horizontal direction, and it is easy to bend at the vertical beam splicing joints. Usually, the splicing beam needs to be Only when 810 is fixed on the wall or cabinet can the stability of the overall structure be achieved.

In order to improve the overall structural stability of the spliced beam, Figures 30 and 31 show a spliced beam 810 according to the second embodiment of the present application, which can fully utilize the base wall and side wall of the vertical beam assembly 800, This not only ensures the bearing capacity of the spliced beam 810 in the vertical direction, but also improves the bending resistance of the spliced beam 810 in the horizontal direction. Specifically, compared with the first embodiment of the present application, the difference of the splicing beam 810 according to the second embodiment of the present application is that the limiting portion 152 of the connecting member 151 of the vertical beam splicing piece 15 can be implemented The limiting frame 1522 is adapted to be located between the two side walls of the vertical beam assembly 800, so as to provide a limiting surface 1520 for fitting to the base wall surface of the vertical beam assembly 800 through the limiting frame 1522, wherein the connecting member 151 The connecting part 1501 is implemented as a connecting block 1513 protruding outward from one end of the limiting frame 1522, and the connecting block 1513 of the connecting piece 151 is suitable for being embedded in the second slot 132 on the first vertical beam 101. At the same time, the limiting member 154 is provided at the other end of the limiting frame 1522 and is suitable for being inserted into the first slot 131 on the second vertical beam 102 .

In this way, when assembling the splicing beam 810, first insert the limiting member 154 of the vertical beam splicing piece 15 into the first slot 131 on the side wall of the second vertical beam 102, and then insert the connecting block 1513 of the vertical beam splicing piece 15. The second slot 132 on the side wall of the first vertical beam 101. At this time, the limiting frame 1522 of the vertical beam splice 15 is located between the two side walls of the vertical beam assembly 800, and the limiting frame 1522 provides The surface 1520 is limitedly attached to the base wall surface of the first vertical beam 101 and the second vertical beam 102, so as to limit the first vertical beam 101 and the second vertical beam 102 both in the vertical direction and in the horizontal direction. The first vertical beam 101 and the second vertical beam 102. It can be understood that in the second embodiment of the present application, the limiting surface 1520 of the limiting frame 1522 limits the base wall of the vertical beam assembly 800, and the connecting block 1513 and the limiting member 154 on the limiting frame 1522 are The side walls of the vertical beam assembly 800 are correspondingly restricted, so the restriction positions of the vertical beam splicing beam 810 on the vertical beam assembly 800 can be dispersed, which helps to improve the overall structural stability of the splicing beam 810 .

For example, as shown in Figures 30 and 31, the limiting member 154 of the vertical beam splice 15 can be implemented as a limiting rod 1543 that is adapted to the first slot 131 of the second vertical beam 102, and limits A first through hole 15220 matching the limiting rod 1543 is opened at the other end of the positioning frame 1522 so that the limiting rod 1543 passes through the first through hole 15220 and penetrates the limiting frame 1522 to be inserted into the second vertical beam 102 into the first slot 131, thereby realizing the limited connection between the vertical beam splicing piece 15 and the second vertical beam 102.

Optionally, two adjacent second slots 132 are provided on each side wall of the first vertical beam 101. Correspondingly, the limiting frame 1522 in the vertical beam splice 15 is provided with connecting blocks arranged at intervals. 1513, so that the connecting blocks 1513 in the vertical beam splicing piece 15 are embedded in the corresponding second slots 132 one by one, which helps to enhance the connection stability between the vertical beam splicing piece 15 and the first vertical beam 101.

Optionally, the limiting rod 1543 in the vertical beam splicing piece 15 can be made of a certain elastic material such as metal, so that slight elastic deformation occurs when the first vertical beam 101 and the second vertical beam 102 are spliced, so that the first vertical beam 101 and the second vertical beam 102 are spliced. The vertical beam 101 and the second vertical beam 102 can be in close contact end-to-end. It can be understood that the connecting member 151 in the vertical beam splicing member 15 of the present application can be made of hard materials such as plastic.

It is worth noting that although in the above examples of this application, the limiting member 154 and the connecting member 151 are two independent accessories and can be made of two different materials; but in other examples of this application, the limiting member 154 It can also be integrated with the connecting piece 151 , that is, the vertical beam splicing piece 15 is made of the same material through one-piece molding.

For example, in a modified example of the present application, as shown in FIGS. 32 and 33 , the limiting member 154 of the vertical beam splice 15 may be implemented as a limiter extending obliquely outward from the other end of the limiting frame 1522 . The positioning ears 1544 enable the limiting ears 1544 to be hung in the first slot 131 of the second vertical beam 102, thereby realizing the limiting connection between the vertical beam splice 15 and the second vertical beam 102. It can be understood that since the limiting ear 1544 of the present application extends obliquely outward from the other end of the limiting frame 1522, a deformation space is formed between the limiting ear 1544 and the limiting frame 1522. Therefore, when the vertical beam splicing piece 15. When the first vertical beam 101 is spliced to the second vertical beam 102, the limiting ears 1544 in the vertical beam splicing piece 15 are adapted to undergo slight deformation, so that the first vertical beam 101 is tightly abutted against the second vertical beam 102. .

It is worth mentioning that, as shown in Figure 33, the connecting piece 151 of the vertical beam splicing piece 15 of the present application is further provided with a screw hole 153 that penetrates the limiting portion 152, and the screw hole 153 in the connecting piece 151 can be connected with the vertical beam splicing piece 15. The nail holes in the beam assembly 800 correspond to each other so that screws penetrate the vertical beam assembly 800 and the vertical beam splicing piece 15 to firmly splice or firmly fix the splicing beam 810 to other objects such as walls or cabinets.

In addition, the connecting piece 151 of the vertical beam splicing piece 15 of the present application can be further provided with a larger screw hole 153, which is suitable for connecting expansion screws, so that the splicing beam 810 can be firmly fixed to a wall or cabinet through expansion screws. and other objects.

It is worth noting that the first vertical beam 101 in the spliced beam 810 of the present application is provided with a second slot 132 at one end, and a first slot 131 at the other end; and the second vertical beam 102 is provided with a third slot at one end. A card slot 131 is provided at the other end, and a second card slot 132 is provided at the other end. In this way, the plurality of first vertical beams 101 and the plurality of second vertical beams 102 can be spliced end-to-end in sequence through the plurality of vertical beam splicing pieces 15 to form a longer splicing beam 810, which can still ensure better vertical load bearing. ability.

Optionally, the assembly structure 200 includes a bracket 210. A bent and extended hook 214 is protruding from the bracket 210. The hook 214 is adapted to be inserted into the mounting hole 11 of the beam frame 100 to hook the beam frame 100. The hook 214 is used to form a Fitting parts 201.

According to an embodiment of the present application, as shown in FIG. 1 , the storage system 1000 may include a beam frame 100 , and a plurality of brackets 210 are respectively installed on the beam frame 100 to support the storage mesh 320 in a suspended manner for placing items.

Optionally, the storage system 1000 also includes a load-bearing structure 300. The load-bearing structure 300 is used to load items. The load-bearing structure 300 is connected to the assembly structure 200, and is detachably installed on the vertical beam 10 through the assembly structure 200.

It can be understood that the storage system 1000 can also carry items through the assembly structure 200, which is not limited here.

Optionally, the load-bearing structure 300 includes a storage mesh 320 . The storage mesh 320 may include a plurality of rods 3200 connected in a criss-cross direction to provide a storage area for placing items.

Optionally, the load-bearing structure 300 also includes a clamping member 330 . Optionally, the clamping part 330 may include a clamping part 331 for clamping to the bracket 210 and a buckling part 332 extending transversely from the clamping part 331, wherein the buckling part 332 is used for clamping the storage mesh 320 The rod 3200 is used to indirectly clamp the storage mesh 320 to the bracket 210 through the clamping member 330 .

It is worth noting that since the storage mesh 320 is indirectly connected to the bracket 210, the rigid storage mesh 320 and the bracket 210 do not need to be directly connected, so the user only needs to use less force to complete the storage system. 1000 to avoid damaging the storage mesh 320.

More specifically, the clamping member 330 of the present application can be made of, but is not limited to, plastic materials such as plastic, so as to have good plasticity and can be slightly elastically deformed to satisfy the clamping requirements while avoiding damage to the storage mesh. 320.

For example, as shown in Figures 35, 36 and 38, the plurality of rods 3200 of the storage mesh 320 of the present application may include transversely extending crossbars 321 and longitudinally extending vertical bars 322, and the crossbars 321 and The longitudinal bars 322 may be connected together by welding. It can be understood that the number of cross bars 321 in the storage mesh 320 of the present application can be greater than the number of longitudinal bars 322. Correspondingly, the outer diameter of the cross bars 321 is greater than the outer diameter of the longitudinal bars 322. Of course, in other examples of this application, the number of cross bars 321 may be less than or equal to the number of longitudinal bars 322 , and accordingly the outer diameter of the cross bars 321 may be less than or equal to the outer diameter of the vertical bars 322 .

In addition, as shown in FIGS. 36 , 37 and 40 , the buckle part 332 of the buckle 330 may include a buckle plate 3321 integrally connected to the clamping part 331 and a buckle groove provided in the buckle plate 3321 3322, wherein the snap-in groove 3322 of the buckle part 332 matches the rod 3200 of the storage mesh 320, so as to lock the rod 3200 in the buckle groove 3322 of the buckle part 332.

Optionally, as shown in Figures 36 and 40, the snap-in groove 3322 extends longitudinally on the snap-in plate 3321 to match the longitudinal rods 322 of the storage mesh 320 and is used to engage the longitudinal rods of the storage mesh 320. 322.

Optionally, as shown in FIG. 37 , the notch size d of the locking groove 3322 of the buckling part 332 is slightly smaller than the outer diameter D of the longitudinal rod 322 , so that when the longitudinal rod 322 is pressed into the locking groove 3322 , The notch portion of the engaging groove 3322 is slightly deformed to reliably engage the longitudinal rod 322 .

Optionally, as shown in FIGS. 36 and 37 , the buckle portion 332 of each buckle 330 may include a plurality of buckle grooves 3322 , and the plurality of buckle grooves 3322 are arranged laterally on the buckle plate 3321 , Being respectively locked into different vertical bars 322 helps to further enhance the snapping reliability between the snapping portion 332 of the snapping component 330 and the storage mesh 320 . It can be understood that the spacing between two adjacent snapping grooves 3322 on the snapping plate 3321 of the present application is equal to the spacing between two adjacent vertical bars 322 in the storage mesh 320 to prevent the storage mesh from being There is structural interference between the vertical rod 322 of 320 and the clamping plate 3321 of the clamping part 332.

Optionally, as shown in FIGS. 36 and 37 , the notch of the locking groove 3322 of the buckling part 332 faces upward, so that the longitudinal rod 322 can be locked into the locking groove 3322 from top to bottom, and then pass through the locking plate 3321 Stably support the storage mesh 320 . It can be understood that because the buckle part 332 of the present application extends laterally from the clamping part 331 and the notch of the buckle groove 3322 faces upward, the buckle plate 3321 of the buckle part 332 can extend to the storage mesh. Below 320, different longitudinal rods 322 are respectively engaged with multiple clamping slots 3322 arranged laterally. Not only can stable clamping be achieved through the clamping slots 3322, but the storage net can also be stably supported by the clamping plate 3321. piece 320 to improve the carrying capacity of the storage mesh piece 320.

In addition, since the longitudinal dimension of the clamping plate 3321 is often larger than the thickness of the bracket 210, the length of the longitudinally extending clamping groove 3322 on the clamping plate 3321 is long enough to increase the gap between the clamping portion 332 and the longitudinal rod 322. The clamping area improves the stability of clamping.

According to the above-described embodiment of the present application, as shown in FIGS. 37 and 40 , the clamping portion 331 of the clamping member 330 may include a pair of clamping arms 3311 extending vertically from the clamping portion 332 , so that the clamping arms 3311 A clamping space 3310 for clamping the bracket 210 is formed therebetween. In this way, when the clamping part 331 of the clamping member 330 clamps the bracket 210, the clamping arms 3311 are respectively located on both sides of the bracket 210 to laterally limit the clamping position of the clamping part 331 on the bracket 210, which helps The clamping portion 331 of the clamping member 330 clamps the bracket 210 reliably.

Optionally, as shown in FIGS. 38 and 39 , the bracket 210 is provided with a limiting groove 211 that matches the clamping portion 331 of the clamping member 330 , and the clamping portion 331 of the clamping member 330 is used for clamping. The limiting groove 211 on the bracket 210 longitudinally limits the clamping position of the clamping portion 331 on the bracket 210 and prevents the clamping member 330 from sliding longitudinally along the bracket 210 . It can be understood that the clamping member 330 of the present application can be stably clamped at a fixed position on the bracket 210 through the cooperation between the clamping portion 331 and the limiting groove 211 to prevent relative sliding.

Optionally, as shown in FIGS. 37 and 39 , the bracket 210 is further provided with a limiting hole 212 adjacent to the limiting groove 211 . The clamping part 331 of the clamping member 330 further includes a limiting body 3312 protruding from the inner side of the clamping arm 3311, and the limiting body 3312 of the clamping part 331 matches the limiting hole 212 on the bracket 210. When the clamping part 331 of the clamping member 330 is clamped in the limiting groove 211 of the bracket 210, the limiting body 3312 of the clamping part 331 is embedded in the limiting hole 212 of the bracket 210 to limit the clamping part 331 in all directions. In the clamping position on the bracket 210, the latch 330 is prevented from shaking on the bracket 210. It can be understood that in other examples of this application, the positions of the limiting hole 212 and the limiting body 3312 can be interchanged, that is to say: the limiting hole 212 can be provided on the clamping arm 3311 of the clamping portion 331, and The limiting body 3312 can be located on the bracket 210 accordingly.

For example, as shown in FIG. 35 , each storage system 1000 may include a beam frame 100 , two longitudinally arranged brackets 210 , a storage mesh 320 and four clamping members 330 . The two brackets 210 are spaced apart, and each bracket 210 is provided with two limiting grooves 211 at intervals; the clamping portion 331 of each clamping member 330 is correspondingly clamped at the limiting groove 211 of the bracket 210 , and the buckle portion 332 of each buckle 330 is correspondingly buckled with the longitudinal rod 322 of the storage mesh 320 .

Optionally, four clamping members 330 are located at the four corners of the storage mesh 320 to stably clamp the storage mesh 320 to the bracket 210 and improve the overall structural stability of the storage system to support heavier items.

It is worth noting that, in order to facilitate access to items (such as shoes), the storage mesh 320 in the storage system 1000 can be placed at an angle; and in order to prevent items from sliding off the storage mesh 320, the vertical portion of the storage mesh 320 in the present application can be tilted. The rod 322 usually extends vertically diagonally downward first, and then extends vertically upward to form a storage space above the storage mesh 320 to facilitate storage of items.

In addition, when an object is placed into the storage mesh 320 , the object will exert an oblique downward longitudinal thrust on the storage mesh 320 under the action of its own gravity, which may easily cause the vertical rod 322 of the storage mesh 320 to slide against the clamping member 330 The longitudinal sliding in the latching groove 3322 causes the overall structural stability of the storage system 1000 to deteriorate. In order to solve this problem, as shown in Figures 36 and 38, the bracket 210 of the storage system 1000 of the present application can be further provided with a hook groove 213 that matches the cross bar 321 of the storage mesh 320 for hooking the cross bar. 321, to prevent the longitudinal rod 322 of the storage mesh 320 from sliding longitudinally in the clamping groove 3322.

Optionally, as shown in Figures 38 and 39, the hook groove 213 on the bracket 210 is located at the end of the bracket 210 and is used to hook the outermost crossbar 321 of the storage mesh 320, so that when assembling the object system 1000 , you only need to first hook the horizontal bar 321 of the storage mesh 320 into the hook groove 213 of the bracket 210, and then rotate the storage mesh 320 with the hook groove 213 as an axis, so that the vertical rod 322 of the storage mesh 320 can be snapped in The clamping groove 3322 of the clamping member 330 helps to improve the structural stability and reduce the difficulty of assembly.

It is worth noting that since the storage mesh 320 is made up of criss-crossed horizontal bars 321 and vertical bars 322, there are many meshes in the storage mesh 320, which makes it easy for the horizontal bars 321 and the vertical bars 322 of the storage mesh 320 to fall apart. Dust accumulates and is difficult to clean. Therefore, in order to solve this problem, as shown in Figures 35 and 38, the shoe rack set 500 of the present application can further include a shelf body 361, wherein the shelf body 361 is suitable for covering the storage net. above the sheet 320 to cover the storage net sheet 320 from above to prevent dust accumulation between the horizontal bars 321 and vertical bars 322 of the storage mesh sheet 320.

Optionally, the shelf body 361 has a smooth upper surface to facilitate cleaning of accumulated dust; the shelf body 361 is provided with a slot recessed from the lower surface for engaging the crossbar 321 of the storage mesh 320 so that the shelf can be The main body 361 is stably installed above the storage mesh 320 .

In addition, as shown in FIGS. 35 and 37 , the shoe rack set 500 of the present application may further include an end cover body 362 , wherein the end cover body 362 is correspondingly disposed on the side of the storage mesh 320 to block it from the side. The storage mesh 320 can not only prevent dust accumulation between the horizontal bars 321 and the vertical bars 322, but also improve the overall aesthetics of the shoe rack.

Optionally, the load-bearing structure 300 also includes a storage shelf 360, which is used to be assembled to the storage mesh 320 and/or the bracket 210, It can be used to store items while covering the mesh of the storage mesh 320 .

As shown in FIGS. 2 , 3 and 7 to 10 , the storage shelf 360 may include a shelf body 361 and an end cover body 362 . The shelf body 361 has a plurality of longitudinally arranged forming holes 3611, at least two forming grooves 3612 that are limited and shaped, and a matching groove 3613 for cooperating with the storage mesh 320; the plurality of forming holes 3611 penetrate the shelf laterally. The left end surface 3601 and the right end surface 3602 of the body 361; at least two shaping grooves 3612 are positioned and distributed between a plurality of shaping holes 3611. The end cover body 362 includes an end cover plate body 3621 and at least two end cover plug-ins 3622 protruding from the end cover plate body 3621; the end cover plug-ins 3622 are inserted into the shaping groove 3612 in a one-to-one correspondence to pass through the end cover plate body. 3621 covers the left end surface 3601 or the right end surface 3602 of the shelf body 361 to prevent the opening of the molded hole 3611 on the shelf body 361 from being exposed and collecting dust, which is convenient for maintenance and can improve the overall appearance of the storage system 1000.

It is worth noting that although the molding hole 3611 formed during the molding process of the shelf body 361 in the storage shelf 360 of the present application can also be used for the end cover plug-in 3622 to be inserted, the shelf body 361 is usually made of PVC ( English: Poly Vinyl Chloride; Chinese: Polyvinyl Chloride), so the shelf body 361 is easily deformed during the molding process, causing the size or position of the molding hole 3611 to change, making it difficult to match the size and position of the end cover insert 3622. Location match.

However, since the shaping groove 3612 on the shelf body 361 of the present application is limited and shaped, that is, the shelf body 361 uses the mold limiter to limit the shaping position of the shaping groove 3612 during the cooling and shaping process, so as to reduce the cooling process. deformation, so the spacing between at least two shaping grooves 3612 on the shelf body 361 is relatively fixed, which facilitates better insertion with the end cover plug-in 3622 of the end cover body 362, so that the shelf body 361 and the end cover body 362 can achieve a better clamping fit and avoid the problem of weak or impossible assembly. It can be understood that the transverse direction mentioned in this application may refer to the left-right direction of the shelf body 361; the longitudinal direction mentioned in this application may refer to the front-to-back direction of the shelf body 361; The vertical direction may refer to the up and down direction of the shelf body 361 .

Optionally, as shown in Figures 2 and 6, the shelf body 361 of the present application has an upper surface 3603 and a lower surface 3604 arranged oppositely, and the notch of the mating groove 3613 of the shelf body 361 is facing downward, so as to be snapped into place. Above the storage mesh 320, items are placed on the upper surface 3603 of the shelf body 361. It can be understood that the upper surface 3603 of the shelf body 361 of the present application is usually smooth for easy care.

Optionally, as shown in Figures 6, 8 and 10, the shaped groove 3612 of the shelf body 361 includes a groove 36121 and a notch 36122 connected with the groove 36121; the groove 36121 runs through the shelf body 361 laterally. The left end surface 3601 and the right end surface 3602; the notch 36122 is located on the lower surface 3604 of the shelf body 361. In this way, after the shelf body 361 is extruded, the cooling and shaping mold supports the lower surface 3604 of the shelf body 361 and at the same time, the limiting block on the mold will be inserted into the notch 36122 of the shaping groove 3612 to prevent the cooling and shaping process. The relative positions of the shaping grooves 3612 are time-limited so that the spacing between the shaping grooves 3612 does not change with the cooling deformation, which helps to reduce the defect rate caused by deformation.

More optionally, the lateral size of the notch 36122 in the shaped groove 3612 is equal to the lateral size of the groove cavity 36121; and the longitudinal size of the notch 36122 is smaller than the longitudinal size of the groove cavity 36121. In this way, during the cooling and shaping process of the shelf body 361, the limiting block on the cooling and shaping mold can slide laterally along the notch 36122 of the shaping groove 3612, so that the shelf body 361 can be cooled and shaped while sliding, thereby meeting the needs of assembly line operations. At the same time, the end cap insert 3622 of the end cap body 362 can be inserted into the cavity 36121 of the shaping groove 3612 without coming out of the slot 36122, which helps to improve the clamping between the end cap body 362 and the shelf body 361 The reliability of the fit.

Optionally, as shown in FIGS. 6 and 10 , the mating groove 3613 of the shelf body 361 may be recessed upward from the lower surface 3604 of the shelf body 361 to form a mating groove 3613 with the notch facing downward to facilitate latching. The storage mesh piece 320 is fastened to the storage mesh frame. In this way, when the shelf body 361 is being cooled and shaped, the cooling and shaping mold can be further provided with a limiting block that matches the fitting groove 3613, so as to reduce the cooling deformation of the fitting groove 3613 and help improve the shelf body 361 and the storage space. The snapping stability between the mesh pieces 320.

More optionally, some end cap plug-ins 3622 in the end cap body 362 can also be plugged into the matching grooves 3613 of the shelf body 361 accordingly, so as to further increase the insertion connection between the end cap body 362 and the shelf body 361 stability.

It is worth noting that, as shown in FIGS. 3 and 11 , the storage mesh 320 of the present application may include a plurality of rods 3200 , and the plurality of rods 3200 are connected in a crisscross manner to provide a storage area for placing items. In other words, the storage mesh 320 may include a plurality of vertical rods 322 and a plurality of horizontal rods 321, and the vertical rods 322 and the horizontal rods 321 are connected in a criss-cross manner to form a network structure. It can be understood that the longitudinal rod 322 and the horizontal rod 321 of the present application can be connected together by, but are not limited to, welding.

For example, as shown in Figure 6, the fitting groove 3613 of the shelf body 361 matches the cross bar 321 of the storage mesh 320, and the cross bar 321 of the storage mesh 320 is engaged with the matching groove 3613 of the shelf body 361. to achieve stable assembly between the storage mesh 320 and the shelf body 361.

Optionally, the load-bearing structure 300 also includes a clamping connector 370, which is correspondingly clamped to the bracket 210 and the storage net. Between the pieces 320, the storage mesh 320 is clamped on the bracket 210 for placing items.

In addition, as shown in FIGS. 4 , 5 and 12 , the clamping connector 370 may include a supporting body 371 , a lower clamping arm 372 extending downward from the supporting body 371 , and an upper clamping arm 372 extending upward from the supporting body 371 . The clamping arm 373; the lower clamping arm 372 of the clamping connector 370 rides on both sides of the bracket 210 to keep the supporting body 371 stably above the bracket 210; the upper clamping arm of the clamping connector 370 373 is buckled to the rod 3200 of the storage mesh 320, and the supporting body 371 of the fastening connector 370 supports the rod 3200 of the storage mesh 320, so that the storage mesh 320 is stably maintained above the bracket 210 , convenient for placing items.

Optionally, the lower snap-in arm 372 has a hook-shaped end, and the bracket 210 is provided with a hook groove that matches the hook-shaped end, so that when the lower snap-in arm 372 rides across the bracket 210, the lower snap-in arm 372 The hook-shaped end hooks into the hook groove of the bracket 210 to enhance the stability of the clamping connection between the clamping connector 370 and the bracket 210 .

Optionally, the upper clamping arms 373 in the clamping connector 370 are distributed in a tripod shape to snap into the mesh surrounded by two longitudinal bars 322 and two horizontal bars 321, which helps to improve the clamping connection. The stability of the snap connection between 370 and the storage mesh 320.

Optionally, the upper clamping arm 373 in the clamping connector 370 also has a hook-shaped end for hooking the corresponding rod 3200 in the storage mesh 320 to further strengthen the connection between the clamping connector 370 and the storage mesh. 320 card connection stability.

According to the above-mentioned embodiments of the present application, as shown in FIGS. 9 and 10 , each end cover insert 3622 in the end cover body 362 of the present application may include a pair of plug-in arms that extend laterally from the end cover plate body 3621 integrally. 36221, the two plug-in arms 36221 are spaced apart on the end cover plate body 3621, and the upper end distance between the two plug-in arms 36221 is greater than the lower end distance between the two plug-in arms 36221, so as to be firmly plugged in. In the shaping groove 3612 of the shelf body 361.

Optionally, as shown in Figures 6 and 10, the two plug-in arms 36221 extend gradually farther from top to bottom on the end cover plate 3621, so that the projection of the end cover plug-in 3622 on the end cover plate 3621 It is arranged in a figure-eight shape; that is to say, the end cover plug-in 3622 has a figure-eight cross-section, so that after the end cover plug-in 3622 is inserted into the shaping groove 3612, the upper and lower ends of the two insertion arms 36221 respectively press against The upper groove wall and the lower groove wall of the shaped groove 3612, and the distance between the lower ends of the two plug-in arms 36221 and the lower groove wall of the shaped groove 3612 is greater than the upper end of the two plug-in arms 36221 and the shaped groove. The spacing between the upper groove walls of 3612 is convenient to ensure stable insertion between the end cover insert 3622 and the shaped groove 3612 of the shelf body 361.

More optionally, as shown in FIGS. 9 and 10 , the end cap insert 3622 may further include a pair of reinforcing ribs 36222 integrally and laterally extending from the end cap plate body 3621 , and the reinforcing ribs 36222 are integrally connected to the corresponding plug-in arms. 36221, to enhance the structural stability of the plug-in arm 36221 and prevent the plug-in arm 36221 from breaking due to plug deformation.

Most optionally, the two reinforcing ribs 36222 in each end cover insert 3622 are located between the two plug-in arms 36221, and the reinforcing rib 36222 is in the middle of the corresponding plug-in arm 36221; that is, the reinforcing rib 36222 is located at The middle area of the inner side of the corresponding plug arm 36221 helps to strengthen the strength of the plug arm 36221 while ensuring that the upper and lower ends of the plug arm 36221 can undergo slight elastic deformation to tightly plug into the In the shaping groove 3612. It can be understood that the inner side of the plug-in arm 36221 in this application refers to the side of one plug-in arm 36221 in the end cover plug-in 3622 adjacent to or facing the other plug-in arm 36221; that is to say, the inner side of the plug-in arm 36221 in the end cover plug-in 3622 The inner sides of the two plug-in arms 36221 are arranged facing each other.

Optionally, the assembly structure 200 includes a base 2311. A bent and extended hook 214 is protruding from the base 2311. The hook 214 is suitable for inserting into the mounting hole 11 of the beam frame 100 to hook the beam frame 100. The hook 214 is used for To form the fitting part 201.

Optionally, the load-bearing structure 300 also includes a fixing member 380. The fixing member 380 includes a connecting structure 381 and an anti-separation structure 382. One end of the connecting structure 381 is used to connect to an external structure, and the other end of the connecting structure 381 is connected to the anti-separating structure 382. The anti-separation structures 382 on at least two fixing members 380 cooperate with each other and are used to install the bearing member 390. The connecting structure 381 and the anti-separation structure 382 are an integrated structure.

With this arrangement, when the fixing part 380 is used to support the bearing 390, the fixing part 380 can carry a large mass; the connecting structure 381 and the anti-separation structure 382 in the fixing part 380 adopt an integrated structure, which is convenient for molding and installation, and can avoid fixation. The load-bearing capacity of the fixing member 380 can be maintained at a relatively high level due to the decrease in load-bearing capacity caused by the aging of some structures in the member 380 .

Please refer to Figures 49 to 52 and Figures 60 to 61. In some embodiments, the fixing member 380 includes a first frame body 3811 and a second frame body 3812 that are symmetrically arranged. The first frame body 3811 and the second frame body 3812 They are assembled and fixed together to form a connecting structure 381 and an anti-loosening structure 382 .

Such an arrangement improves the deformation resistance of the connecting structure 381, increases the range of the mass that the connecting structure 381 can bear for the anti-separation structure 382, and reduces the replacement cost of the connecting structure 381.

Optionally, in this embodiment, the first frame body 3811 and the second frame body 3812 are spliced to form a connection structure 381. In other embodiments of the present application, the connection structure 381 can also be implemented as an integrated structure or composed of three The above frames are spliced together, as long as the connection structure can be improved The anti-deformation ability of 381 is sufficient.

It can be understood that the first frame body 3811 and the second frame body 3812 can be fixedly connected by snapping, snapping, welding, gluing or other methods.

It should be noted that the first frame body 3811 and the second frame body 3812 can be arranged symmetrically or asymmetrically, as long as they can be fixedly connected and can support the bearing member.

Please refer to Figures 49 to 52 and 61. In one embodiment, the anti-removal structure 382 is located at one end of the first frame 3811 and/or one end of the second frame 3812.

With this arrangement, the anti-falling structure 382 can be manufactured according to actual needs during manufacturing, providing a personalized production space for the fixing part 380 and better supporting the bearing member 390 carried by the anti-falling structure 382.

Optionally, in this embodiment, the anti-falling structure 382 is implemented on the first frame 3811 and the second frame 3812. In other embodiments of the present application, the anti-falling structure 382 may be implemented only on the first frame. 3811 or the anti-detachment structure 382 is only implemented on the second frame 3812, as long as the anti-detachment structure 382 can better protect the loaded bearing 390.

It can be understood that the anti-detachment structure 382 can be located at the end of the fixing piece 380 or in the middle of the fixing piece 380, which is not limited here.

Please refer to Figures 60 and 61. In one embodiment, the fixing member 380 also includes at least one reinforcing member 383. The reinforcing member 383 is fixed between the first frame body 3811 and the second frame body 3812. .

With such arrangement, the reinforcing member 383 can improve the bearing capacity of the fixing member 380 on the bearing member 390 and improve the deformation resistance of the connecting structure 381 .

Optionally, in this embodiment, the reinforcing member 383 is implemented between the first frame body 3811 and the second frame body 3812. In other embodiments of the present application, the reinforcing member 383 can also be implemented between the first frame body 3811 and the second frame body 3812. The side of 3811 facing away from the second frame body 3812 or the side of the second frame body 3812 facing away from the first frame body 3811, as long as the reinforcing member 383 can improve the anti-deformation ability of the connecting structure 381.

Optionally, in this embodiment, the reinforcing member 383 between the first frame body 3811 and the second frame body 3812 is implemented as one. In other embodiments of the present application, the first frame body 3811 and the second frame body 3812 are The reinforcement members 383 between the bodies 3812 can also be implemented as two or more, as long as the resistance to deformation of the connection structure 381 can be improved.

It can be understood that in other embodiments, the reinforcing member 383 may not be provided, as long as the bearing capacity of the fixing member 380 can meet the requirements.

Please refer to FIGS. 49 to 52 . In one embodiment, the anti-detachment structure 382 includes a support piece 3821 . The support piece 3821 is protruding with a clamping block 38211 , and the clamping block 38211 is used to clamp the bearing member 390 .

With this arrangement, when the load-bearing member 390 is accommodated in the anti-separation structure 382, the snap-in block 38211 can prevent the load-bearing member 390 from coming out of the support piece 3821, and the snap-in block 38211 can make the load-bearing member 390 more stable after being installed in the anti-slip structure 382. Not easy to shake.

Optionally, in this embodiment, one snap block 38211 is implemented on each support piece 3821. In other embodiments of the present application, two or more clamping blocks 38211 can also be implemented on each support piece 3821. For the snap block 38211, as long as the anti-detachment structure 382 can provide a more suitable accommodation space for the bearing member 390.

Optionally, in this embodiment, a snapping block 38211 is implemented on each support piece 3821 of the first frame body 3811 and the second frame body 3812. In other embodiments of the present application, it can also be implemented only on the first frame body 3811. The frame body 3811 is provided with a snap-in block 38211, the second frame body 3812 is provided with a snap-in block 38211, the support piece 3821 at one end of the first frame body 3811 is provided with a snap-in block 38211, or only the second frame body 3811 is provided with a snap-in block 38211. The support piece 3821 at one end of the frame body 3811 is provided with a clamping block 38211, as long as it can provide a more suitable accommodation space for the bearing member 390.

It can be understood that in other embodiments, the function of snapping and positioning can also be realized through other structures, which is not limited here.

Referring to FIGS. 49 to 52 , in one embodiment, the connection structure 381 includes a positioning member 3813 , and the positioning member 3813 is used to connect with the base 2311 .

With this arrangement, the connection between the connecting structure 381 and the base 2311 is more stable. When the fixing member 380 is connected to the base 2311, the positioning member 3813 prevents the connecting structure 381 from being separated from the base 2311.

Optionally, in this embodiment, the positioning member 3813 is implemented as a hook. In other embodiments of the present application, the positioning member 3813 can also be implemented as a V-shaped or other shape, as long as the positioning member 3813 can realize the base 2311 The connection with the fixing member 380 is sufficient.

Optionally, in this embodiment, both the first frame body 3811 and the second frame body 3812 are provided with a positioning member 3813, and the two positioning members 3813 are symmetrically arranged. In other embodiments of the present application, the positioning member 3813 is also provided. can be implemented only on the first frame 3811 or the positioning member 3813 It is implemented on the second frame 3812, as long as the connection structure 381 can be stably connected to the base 2311.

Optionally, in this embodiment, the connection structure 381 is detachably connected to the base 2311 through the positioning member 3813. In other embodiments of the present application, the connection between the connection structure 381 and the base 2311 can also be implemented by welding or welding. Other structures can be used for snap connection, as long as the fixing part 380 can be stably connected to the base 2311.

Please refer to Figures 49 to 62. In one embodiment, the fixing component 380 is a sheet metal component, and the connecting structure 381 and the anti-separation structure 382 are bent and formed.

With this arrangement, the overall metal strength of the fixing part 380 is the same, and local deformation is not easy to occur, which reduces the replacement cost of the fixing part 380; the connection structure 381 and the anti-separation structure 382 are bent and formed, thereby reducing the manufacturing difficulty of the fixing part 380 and improving production efficiency. .

Optionally, in this embodiment, the fixing part 380 is implemented as a sheet metal part. In other embodiments of the present application, the fixing part 380 can also be implemented as a metal part or a plastic part, as long as the fixing part 380 can be a bearing part. 390 can provide suitable carrying capacity.

Optionally, in this embodiment, the connecting structure 381 and the anti-separation structure 382 are implemented as one-piece bending molding. In other embodiments of the present application, the connecting structure 381 and the anti-separation structure 382 can also be implemented as separate bodies. After molding, the connection is fixed, as long as the fixing part 380 can provide a suitable load-bearing capacity for the load-bearing part 390.

Please refer to Figures 49 to 62. In one embodiment, the anti-separation structure 382 is arc-shaped.

Such arrangement can avoid local stress concentration in the anti-separation structure 382, extend the service life of the anti-separation structure 382, and reduce replacement costs. Please refer to Figures 59 to 61 and Figures 56 to 57. In one embodiment, the anti-separation structure 382 is hole-shaped.

Such an arrangement prevents the bearing member 390 from coming out of the anti-detachment structure 382, better protects the bearing member 390, and improves the safety and reliability of the fixing member 380.

It can be understood that in other embodiments, the anti-off structure 382 can also be in other shapes, such as U-shaped, elliptical, etc., which is not limited here.

Referring to Figures 49 to 62, in one embodiment, the connection structure 381 is "J" shaped or "L" shaped. This arrangement makes it convenient for the user to place the bearing member 390 on the anti-removal structure 382 at any time, thereby improving the flexibility of use of the fixing member 380 .

It can be understood that in other embodiments, the connection structure 381 can also be in other shapes, such as triangle, strip, arc shape, etc., which are not limited here.

Please refer to Figures 49 to 55, Figure 57, Figure 59 and Figure 62. This application also provides a support component 231. The support component 231 includes a base 2311 and a fixing part 380. The fixing part 380 is the above-mentioned fixing part 380. The fixing part 380 passes The connection structure 381 is installed on the base 2311, and the base 2311 is used to connect external structures.

With this arrangement, the base 2311 provides support for the fixing member 380, and the base 2311 can be connected to the external structure, broadening the use scenarios and range of the fixing member 380, and providing the user with a more personalized use experience.

In one embodiment of FIGS. 49 to 62 , the base 2311 is in an "L" shape or a triangle.

With this arrangement, the base 2311 has better load-bearing capacity, can provide strong support for the fixing member 380, improve the safety of the support assembly 231 when used, and provide a safer usage environment for the user.

Optionally, in this embodiment, the base 2311 is implemented as an "L" shape or a triangle. In other embodiments of the present application, the base 2311 may also be implemented as an arc shape, a "Z" shape, or other other shapes. As long as the base 2311 can provide suitable support for the fixing member 380.

Please refer to Figures 49 to 55, Figure 57, Figure 59 and Figure 62. This application also provides a support set 230. The support set 230 includes a load-bearing part 390 and at least two fixing parts 380. The fixing parts 380 are the above-mentioned fixing parts. 380, the bearing member 390 is positioned and installed through the anti-detachment structures 382 on the two fixing members 380.

With this arrangement, the two fixing members 380 can provide a more suitable bearing space for the bearing member 390 and improve the use scenarios and bearing capacity of the support set 230 .

Please refer to Figures 49 to 55, 57, 59 and 62. In one embodiment, the support set 230 further includes a base 2311, and the fixing member 380 is installed on the base 2311 through the connecting structure 381.

With this arrangement, the base 2311 provides stable support for the bearing member 390 and the two fixing members 380, thereby improving the safety of the support set 230.

Optionally, in this embodiment, the connection between the fixing part 380 and the base 2311 is implemented as welding or bolting. In other embodiments of the present application, the connection between the fixing part 380 and the base 2311 can also be implemented by welding or bolting. It can be implemented as clamping, hoop connection or cementing, as long as the connection between the fixing part 380 and the base 2311 is stable.

As shown in Figures 49 to 52, a specific implementation manner of an embodiment of the present application is that the support set 230 includes a support assembly 231 and the bearing member 390. The support assembly 231 provides bearing capacity for the bearing member 390. The support assembly 231 includes a base 2311 and a fixing member 380. The base 2311 serves as a connection between the fixing member 380 and the external structure (such as a wall, a beam or a longitudinal beam). Bridge, the fixing part 380 provides bearing capacity for the bearing part 390, the base 2311 is implemented as a triangle, the fixing part 380 is implemented as a streamlined hook-shaped body, the bearing part 390 is implemented as a cylinder; the fixing part 380 includes a connecting structure 381 and Anti-separation structure 382. One end of the connection structure 381 is connected to the base 2311 through the positioning member 3813. The other end of the connection structure 381 is connected to the anti-separation structure 382. The anti-separation structures 382 on the two fixing members 380 cooperate with each other for installation of the load bearing. Part 390, the connecting structure 381 and the anti-off structure 382 are an integrated structure; the connecting structure 381 includes a first frame 3811 and a second frame 3812 arranged symmetrically, and the first frame 3811 and the second frame 3812 are assembled and fixed to each other. And a connection structure 381 is formed; the anti-detachment structure 382 includes a support piece 3821, the support piece 3821 is provided with a clamping block 38211, and the clamping block 38211 is used to clamp the bearing member 390.

As shown in Figures 53 to 55, a specific implementation method of another embodiment of the present application is that the support assembly 230 includes a support assembly 231 and a bearing member 390. The support assembly 231 provides bearing capacity for the bearing member 390. The support assembly 231 includes The base 2311 and the fixing part 380. The base 2311 serves as a connecting bridge between the fixing part 380 and the external structure (such as a wall, a beam or a longitudinal beam). The fixing part 380 provides bearing capacity for the bearing part 390. The base 2311 is implemented as a triangle. body, the fixing part 380 is implemented as a bent hook-shaped body, the fixing part 380 is detachably connected to the base 2311 through bolts, one end of the connecting structure 381 connected to the base 2311 is implemented as a three-piece structure, and the first piece 3814 is It is bent into a "C" shape for snapping onto the base 2311. The second piece 3815 is used to cooperate with the first piece 3814 to structurally prevent the fixing member 380 from coming out of the base 2311. The third piece 3816 is provided with a The connecting groove 3817 is detachably connected to the base 2311 through the connecting groove 3817, and the anti-detachment structure 382 is implemented as a one-piece minor arc support piece 3821.

As shown in Figure 56, the specific implementation of another embodiment of the present application is that the fixing member 380 includes a connecting structure 381 and an anti-separation structure 382. One end of the connecting structure 381 is used to connect to an external structure (such as a wall, a beam or a beam). Longitudinal beam), the other end of the connecting structure 381 is connected to the anti-separation structure 382. The anti-separation structures 382 on the two fixing parts 380 cooperate with each other and are used to install the load-bearing member 390. The connection structure 381 and the anti-separation structure 382 are an integrated structure; The connecting structure 381 is implemented in an "L" shape, and the anti-separation structure 382 is implemented in an excellent arc shape.

As shown in Figure 57, the specific implementation of another embodiment of the present application is that the support assembly 230 includes a support assembly 231 and a bearing member 390. The support assembly 231 provides bearing capacity for the bearing member 390. The support assembly 231 includes a base 2311. With the fixing part 380, the base 2311 serves as a connecting bridge between the fixing part 380 and the external structure (such as a wall, a beam or a longitudinal beam). The fixing part 380 provides bearing capacity for the load-bearing part 390. The base 2311 is implemented as a triangle, which is fixed The connecting structure 381 of the member 380 is implemented as a cylinder, and the anti-detachment structure 382 of the fixing member 380 is implemented as an accommodating groove provided in the cylinder, and the accommodating groove provides a bearing space for the bearing member 390 .

As shown in Figure 58, the specific implementation of another embodiment of the present application is that the fixing member 380 includes a connecting structure 381 and an anti-separation structure 382. One end of the connecting structure 381 is used to connect to an external structure (such as a wall, a beam or a beam). Longitudinal beam), the other end of the connecting structure 381 is connected to the anti-separation structure 382. The anti-separation structures 382 on the two fixing parts 380 cooperate with each other and are used to install the load-bearing member 390. The connection structure 381 and the anti-separation structure 382 are an integrated structure; The connecting structure 381 is implemented in an "L" shape, and the anti-separation structure 382 is implemented in a semicircular or minor arc shape.

As shown in Figure 59, the specific implementation of another embodiment of the present application is that the support assembly 230 includes a support component 231 and a bearing member 390. The support component 231 provides bearing capacity for the bearing member 390. The support component 231 includes a base 2311. With the fixing part 380, the base 2311 serves as a connecting bridge between the fixing part 380 and the external structure (such as the wall, the cross beam 20 or the vertical beam 10). The fixing part 380 provides bearing capacity for the bearing part 390, and the base 2311 is implemented as "Z ” type, the fixing member 380 is implemented as a “J” shape. There are two intersection points between the connecting structure 381 and the base 2311, so that a right-angled triangle with an arc-shaped hypotenuse is formed between the connecting structure 381 and the base 2311. The anti-falling structure 382 It is implemented as a superior arc-shaped opening toward the base 2311 .

As shown in Figures 60 and 61, a specific implementation method of another embodiment of the present application is that the fixing member 380 includes a connecting structure 381 and an anti-separation structure 382. One end of the connecting structure 381 is used to connect to an external structure (such as a wall). , cross beam or longitudinal beam), the other end of the connecting structure 381 is connected to the anti-separation structure 382, the anti-separation structures 382 on the two fixing parts 380 cooperate with each other, and are used to install the load-bearing member 390, the connection structure 381 and the anti-separation structure 382 are integrated Type structure, the connecting structure 381 is implemented as a right-angled triangle with an arc-shaped hypotenuse. Four slots are provided on the connecting structure 381. The slots opened at the ends of the connecting structure 381 are anti-separation structures 382. The connecting structure 381 includes symmetrically arranged The first frame body 3811 and the second frame body 3812, the first frame body 3811 and the second frame body 3812 are fixed to each other and form a connection structure 381; the fixing member 380 also includes a reinforcing member 383, which is fixed on the first frame body 3811 and the second frame body 3812. Between the frame body 3811 and the second frame body 3812, the reinforcing member 383 is implemented to have an accommodating groove that matches the anti-separation structure 382. The accommodating groove cooperates with the anti-separation structure 382 to accommodate the bearing member 390, wherein , there are two reinforcing members 383, and the two reinforcing members 383 are fixedly connected together.

As shown in Figure 62, the specific implementation of another embodiment of the present application is that the support assembly 230 includes a support assembly 231 and a bearing member 390. The support assembly 231 provides bearing capacity for the bearing member 390. The support assembly 231 includes a base 2311. with fixing piece 380, base 2311 As a connecting bridge between the fixing part 380 and the external structure (such as a wall, a beam or a longitudinal beam), the fixing part 380 provides bearing capacity for the bearing part 390. The base 2311 is implemented as a "Z" shape, and the fixing part 380 is implemented as a "Z" shape. J" type, the fixing piece 380 includes a connecting structure 381 and an anti-separation structure 382. One end of the connecting structure 381 is used to connect to the external structure, and the other end of the connecting structure 381 is connected to the anti-separation structure 382. The anti-separation structures on the two fixing pieces 380 The structures 382 cooperate with each other and are used to install the bearing member 390 . The connecting structure 381 and the anti-detachment structure 382 are an integrated structure. The anti-detachment structure 382 is implemented as an end of a minor arc-shaped opening facing away from the base 2311 .

Optionally, the storage system 1000 also includes a partition assembly 420. The partition assembly 420 is detachably installed on the storage mesh 320 and is used to separate the storage area of the storage mesh 320, thereby dividing the storage area into two or two. More than one storage partition, or change the size of the storage area. More specifically, as shown in FIGS. 63 and 64 , the mesh assembly 420 of the present application may include a mesh piece 421 and a holder 422 , where the holder 422 includes a clamping portion 4221 connected to the mesh piece 421 and a clamping member 422 . The buckle part 4222 extends integrally from the latching part 4221. The latching part 4221 in the latching part 422 is used to grip above the rod of the storage mesh 320, and the buckle part 4222 is used to buckle on the storage mesh. Below the rod of the mesh 320, the partition mesh 421 is clamped on the storage mesh 320 to separate the storage area.

It is worth noting that, on the one hand, the holding portion 4221 of the holding member 422 of the present application is held above the rod of the storage mesh 320, so that the holding member 422 can be supported stably by the rod of the storage mesh 320. The partition mesh 421 is supported. On the other hand, the buckle portion 4222 of the clamping member 422 of the present application is clamped under the rod 3200 of the storage mesh 320, so that the clamping member 422 can be reliably secured by the rod 3200 of the storage mesh 320. The partition mesh 421 is bound and reliably installed on the storage mesh 320 to separate the storage area. At the same time, the buckle portion 4222 of the latching member 422 of the present application only needs to be slightly deformed to release the rod of the storage mesh 320, and the latching member 422 can be detached from the storage mesh 320, and the storage mesh 320 can be removed. The mesh 320 is made of crisscrossed rods. Therefore, when the clamping parts 422 are clamped on different rods on the storage mesh 320, the position of the partition mesh 421 on the storage mesh 320 will change. , so that the separation position of the storage area can be flexibly adjusted to obtain the storage partition that meets the needs.

According to the above-mentioned embodiment of the present application, as shown in FIGS. 63 and 64 , the plurality of rods of the storage mesh 320 of the present application may include transversely extending crossbars 321 and longitudinally extending vertical bars 322 , and the crossbars 321 and The longitudinal bars 322 may be connected together by welding. It can be understood that the extending direction of the horizontal bars 321 in the storage mesh 320 is implemented as the left-right direction as shown in FIG. 63 , and the extending direction of the longitudinal bars 322 is implemented as the front-to-back direction as shown in FIG. 63 .

Optionally, the number of cross bars 321 in the storage mesh 320 of the present application can be greater than the number of longitudinal bars 322. Correspondingly, the outer diameter of the cross bars 321 is greater than the outer diameter of the longitudinal bars 322. Of course, in other examples of this application, the number of cross bars 321 may be greater than or equal to the number of longitudinal bars 322 , and accordingly the outer diameter of the cross bars 321 may be less than or equal to the outer diameter of the longitudinal bars 322 .

In addition, the mesh piece 421 of the present application can be spliced by multiple rods. For example, as shown in FIGS. 63 and 64 , the mesh sheet 421 may include a second support rod 4211 and a plurality of vertical rods 4212 , wherein the second support rod 4211 bends and extends to form a frame of the mesh sheet 421 , and the vertical rods 4212 are bent. The rod 4212 extends vertically and connects to the second support rod 4211 to form a partition wall of the mesh sheet 421 . It can be understood that the vertical rod 4212 and the second support rod 4211 may be connected together by, but are not limited to, welding. In addition, the outer diameter of the second support rod 4211 is generally larger than the outer diameter of the vertical rod 4212 in order to provide better support force.

Optionally, the lapping portion 4221 of the clamping member 422 of the present application is fixedly connected to the second support rod 4211 of the mesh sheet 421, so as to stably support the entire mesh sheet 421.

Illustratively, as shown in FIGS. 65 and 66 , the clamping portion 4221 of the clamping member 422 extends laterally to clamp the vertical rod 322 on the storage mesh 320 , and the clamping portion 4222 of the clamping member 422 extends from The holding portion 4221 extends vertically and obliquely to be buckled with the cross bar 321 on the storage mesh 320 , so that the partition mesh 421 is detachably held on the storage mesh 320 through the clamping member 422 .

It is worth noting that since the horizontal rods 321 in the storage mesh 320 of the present application are usually longer than the length of the vertical rods 322, the partition mesh 421 usually needs to separate the storage area of the storage mesh 320 along the longitudinal direction. In this way, as shown in Figures 65 and 66, the second support rod 4211 of the partition screen 421 can be spliced by the second longitudinal support rod 42111 and the second vertical support rod 42112. That is to say, the second support rod 4211 of the partition screen 421 The extension direction of the second longitudinal support rod 42111 is the same as that of the longitudinal rod 322 in the storage mesh 320, and both extend front and back as shown in Figure 63; accordingly, the second vertical support rod 42112 in the partition mesh 421 and the partition mesh 421 extend in the same direction. The vertical rods 4212 in 421 extend in the same direction, extending up and down as shown in Figure 63 .

Optionally, as shown in Figures 65 and 66, the holding portion 4221 includes a pair of holding arms 42211 extending transversely to the left and right from the partition mesh 421, wherein the holding arms 42211 extending to the left are used for Cross over and hold one or more vertical rods 322 on the left side of the partition mesh 421 on the storage mesh 320; and the right-extending support arm 42211 is used to cross over and hold on the storage mesh 320 and located on the partition. One or more vertical bars 322 on the right side of the piece 421. In this way, when the clamping portion 4221 of the clamping member 422 is clamped on the longitudinal rod 322 of the storage mesh 320, the clamping The holding member 422 can be supported by two or more vertical rods 322, and the second support rod 4211 of the partition sheet 421 is located between the two adjacent vertical rods 322, so as to stably support the partition through the overlapping portion 4221. Mesh 421.

It can be understood that the holding portion 4221 of the holding member 422 of the present application is integrally formed, that is, a pair of holding arms 42211 are integrally connected together, and the holding portion 4221 of the holding member 422 can be, but is not limited to, welded to The second longitudinal support rod 42111 of the mesh sheet 421.

Optionally, as shown in Figures 65 and 66, the buckle portion 4222 of the latching member 422 of the present application can include a pair of buckle arms 42221 extending obliquely downward from a pair of holding arms 42211, and the buckle The buckle arms 42221 of the part 4222 pass through the storage mesh 320 from top to bottom to buckle on the cross bar 321, thereby fixing the clamping parts 422 from both ends of the holding arm 42211, which helps to improve the connection between the partition mesh assembly 420 and the storage mesh. The clamping stability between mesh pieces 320.

It is worth noting that the holding member 422 of the present application can be formed by bending a metal rod, which helps to reduce the processing difficulty and manufacturing cost of the holding member 422. In addition, in order to further improve the holding stability between the holding parts 422 and the storage mesh 320, the partition net assembly 420 of the present application usually includes two holding parts 422, and the two holding parts 422 are respectively fixed on The front and rear ends of the partition mesh 421 are respectively buckled forward and backward to the front and rear cross bars 321 on the storage mesh 320 .

For the convenience of description, as shown in FIG. 67 , this application refers to the clamping member 422 located at the front end of the second longitudinal support rod 42111 as the front clamping member 422a, and refers to the clamping member 422 located at the rear end of the second longitudinal support rod 42111 as the front clamping member 422a. The holder 422 is simply called the rear holder 422b.

Specifically, as shown in FIG. 67 , the front buckle portion 4222a of the front latching member 422a in the screen assembly 420 includes a front buckle arm 42221a that extends obliquely forward from the front latching arm 42211a of the front latching portion 4221a, so as to The front is buckled on the front cross bar 321 on the storage mesh 320; at the same time, the rear buckle portion 4222b of the rear clamping member 422b in the partition assembly 420 includes a rear holding arm 42211b from the rear holding portion 4221b toward The rear buckle arm 42221b that extends obliquely backward is buckled rearwardly with the rear crossbar 321 on the storage mesh 320, so that the front and rear crossbars 321 on the storage mesh 320 are aligned with the front holding member 422a respectively. and the rear clamping member 422b exerts a squeezing force to improve the clamping stability of the screen assembly 420 .

Optionally, as shown in FIG. 67 , the front buckle portion 4222a of the front latching member 422a may further include a front guide arm 42222a extending obliquely rearwardly from the front buckling arm 42221a to lock the front latching member 422a . When the buckle part 4222a is buckled on the cross bar 321, the front guide arm 42222a of the front buckle part 4222a guides the front buckle arm 42221 to partially slide through the cross bar 321 to facilitate the buckling.

Optionally, as shown in Figure 67, the rear buckle portion 4222b of the rear latching member 422b may further include a rear hook arm 42222b extending rearwardly from the rear latching arm 42221b to secure the rear latching member 422b. After the buckle part 4222b is buckled on the cross bar 321, the rear hook arm 42222b of the rear buckle part 4222b hooks the cross bar 321 to improve the buckling stability of the rear buckle part 4222b. In this way, when assembling the partition assembly 420 and the storage mesh 320, you can first buckle the rear buckle portion 4222b of the rear clamping member 422b in the partition assembly 420 to the rear cross bar 321 on the storage mesh 320, By pressing the front part of the partition net assembly 420 downward, the front buckle part 4222a of the front clamping member 422a can be buckled to the front cross bar 321 of the storage net 320; and after disassembling the partition net assembly 420 and To store the storage mesh 320, you only need to operate it in the reverse direction, which helps to realize the convenient disassembly and assembly of the partition assembly 420 and the storage mesh 320, so as to flexibly adjust the partitioning of the storage area.

It can be understood that in other examples of the present application, the structure of the rear buckle portion 4222b in the screen assembly 420 can be the same as the structure of the front buckle portion 4222a, that is, the rear buckle portion 4222b can adopt a guide extending forward. The rear hook arm 42222b is replaced by the rear hook arm 42222b, and the partition mesh assembly 420 and the storage mesh 320 can still be easily disassembled and assembled.

It is worth noting that, according to the above-mentioned embodiment of the present application, the storage mesh 320 is usually provided with other cross bars 321 between the front cross bar 321 and the rear cross bar 321, so that the third cross bar 321 of the partition mesh 421 The two longitudinal support bars 42111 have to cross the middle horizontal bar 321, and in order to ensure that the overlapping portion 4221 of the clamping member 422 connected to the second longitudinal support bar 42111 can be held on the longitudinal bar 322 of the storage mesh 320, Therefore, the front and rear ends of the second longitudinal support rod 42111 of the present application have to be recessed downward, but this will cause the overall shape of the mesh sheet 421 to be irregular and increase the difficulty of manufacturing the mesh sheet 421 .

In order to solve this problem, FIGS. 68 to 72 illustrate a modified embodiment of the mesh assembly 420 and the storage mesh 320 according to the above-mentioned embodiment of the present application. Compared with the above-mentioned embodiments according to the present application, the difference between the partition net assembly 420 and the storage mesh 320 according to this modified embodiment of the present application is that: as shown in FIGS. 68 to 70 , the card of the partition net assembly 420 The latching portion 4221 of the holding member 422 extends longitudinally to grip the crossbar 321 on the storage mesh 320, and the buckle portion 4222 of the latching member 422 extends vertically from the latching portion 4221 to snap onto the storage mesh. The vertical rods 322 on the mesh 320 detachably hold the partition mesh 421 on the storage mesh 320 through the clamping parts 422 .

For example, as shown in FIGS. 68 and 69 , the lapping portion 4221 of the holder 422 may include a bridging plate 42212 for inserting the second vertical support rod 42112 of the partitioning sheet 421 , wherein the bridging plate 42212 extends along the second longitudinal support rod 42111 to cross over and overlap the There are two or more horizontal bars 321 on the storage mesh 320. In this way, when the latching part 4221 of the latching part 422 is latched on the cross bar 321 of the storage mesh 320, the latching part 422 can be supported by two or more cross bars 321 and can still pass through the overlapping part. 4221 stably supports the mesh sheet 421.

At the same time, as shown in Figures 68 and 71, the buckle portion 4222 of the holder 422 of the present application can include one or more pairs of longitudinal bar buckles extending vertically from the left and right sides of the holder plate 42212 respectively. 42223, and the vertical rod buckles 42223 of the buckling portion 4222 pass through the storage mesh 320 from top to bottom to buckle with the two adjacent vertical rods 322 on the storage mesh 320, so that from the left and right sides of the holding plate 42212 The side fixed clamping parts 422 help to improve the clamping stability between the partition mesh assembly 420 and the storage mesh 320 .

Optionally, as shown in Figures 71 and 72, the holding plate 42212 in the holder 422 of the present application can include a top wall 422121 with a plug-in slot and a pair of side walls 422122 extending downward from the top wall 422121. , and the side wall 422122 of the supporting plate 42212 is provided with a supporting groove 422123 corresponding to the cross bar 321, so as to accommodate the cross bar 321 of the storage mesh 320. It can be understood that the second vertical support rod 42112 of the mesh sheet 421 of the present application can be directly inserted into the insertion slot on the top wall 422121 of the supporting plate 42212, so as to realize the connection between the mesh sheet 421 and the clamping member 422. While being fixedly connected, the mesh sheet 421 can also be easily detached from the holder 422 .

Further, as shown in Figures 70 and 71, the side wall 422122 of the supporting plate 42212 is also provided with a deformation hole 422124 corresponding to the longitudinal rod buckle 42223, wherein the longitudinal rod buckle 42223 extends downward from the top wall 422121 to In the deformation hole 422124, the side wall 422122 is partially protruded, which helps to improve the elastic deformation performance of the vertical rod buckle 42223 and facilitates deformation to buckle on the vertical rod 322.

Optionally, the lateral size of the top wall 422121 of the supporting plate 42212 is larger than the gap size between the two adjacent longitudinal bars 322 on the storage mesh 320 . The outer distance between the two side walls 422122 of the supporting plate 42212 is less than the inner distance between the two adjacent longitudinal bars 322 on the storage mesh 320 . In this way, when the holding member 422 is held on the storage mesh 320, the two side walls 422122 of the holding plate 42212 are located between the two adjacent longitudinal bars 322, and the top wall 422121 of the holding plate 42212 can not only The horizontal bars 321 of the storage mesh 320 can also be supported on the vertical rods 322 of the storage mesh 320 to further improve the support capacity of the holding member 422 .

It is worth noting that, as shown in Figures 70 and 72, the buckle portion 4222 of the holder 422 of the present application can further include one or more crossbar buckles extending vertically from the top wall 422121 of the holder plate 42212. 42224, and the cross bar buckle 42224 of the buckle part 4222 is used to pass through the storage mesh 320 from top to bottom to buckle on the cross bar 321, thereby further fixing the clamping member 422 and helping to further improve the partition net assembly 420 Stability of holding with the storage mesh 320 .

Optionally, the cross bar buckle 42224 extends downward from the top wall 422121 of the holding plate 42212 to the holding groove 422123, so as to buckle with the cross bar 321 located in the holding groove 422123.

It can be understood that the vertical rod buckle 42223 and the horizontal rod buckle 42224 of the present application both have buckle grooves that match the rods and guide slopes located below the buckle grooves, so as to facilitate the assembly of the partition net assembly 420 and storage. When removing the mesh 320, the vertical rods 322 and the horizontal rods 321 are guided by the guide slope to slide into the corresponding buckle grooves respectively to achieve a stable buckle connection.

It is worth noting that in this modified embodiment of the present application, the retaining member 422 in the screen assembly 420 can be, but is not limited to, integrally formed from a material with a certain degree of flexibility, such as plastic, so that it is made of metal. The storage mesh 320 and the partition mesh 421 are not in direct contact to avoid scratching or damaging the mesh during disassembly and assembly.

Considering that traditional mesh baskets cannot be disassembled or can only be partially disassembled when transported or idle, they still need to occupy a large storage space, which brings inconvenience to transportation or storage. In order to solve this problem, the present application provides a storage basket set and storage basket rack, which can be disassembled into multiple mesh pieces to avoid occupying a large storage space when idle and facilitate transportation or storage.

Specifically, please refer to the accompanying drawings 42 to 48. One embodiment of the present application provides a storage basket rack 700, which may include a beam frame 100 and a storage basket set 220. The storage basket set 220 is detachably installed. The beam frame 100 is used for holding items.

More specifically, as shown in FIGS. 42 and 43 , the storage basket set 220 of the present application may include at least one pair of hook mesh pieces 221 , the storage basket mesh piece 222 and one or more buckles 223 . The hooking mesh pieces 221 are used to be hooked on the mounting holes 11 of the beam frame 100 at intervals. The buckle part 223 is fixedly arranged on the storage basket mesh 222, and the storage basket mesh 222 is detachably buckled to the bottom of the hooking mesh 221 through the buckling part 223, so as to connect the adjacent hooking mesh 221. A storage space 2200 is formed therebetween for placing items.

It is worth noting that the hooking mesh 221 of the present application is hooked to the beam frame 100, and the storage basket mesh 222 is buckled to the hooking mesh 221 through the buckle 223 to form a space for placing items. storage space 2200, so when the storage basket rack 700 is idle, the hooking mesh piece 221 can be removed from the beam frame 100 first, and then the storage basket mesh piece 222 can be removed from the hooking mesh piece 221 to form a piece of storage space 2200. The meshes with a similar structure (i.e., the hooking mesh 221 and the storage basket mesh 222) are convenient for stacking to reduce the occupied space, and are conducive to packaging, transportation or storage.

In addition, since the mounting holes 11 of the beam frame 100 of the present application are usually through holes opened when the beam frame 100 is processed and formed, in order to ensure that the beam frame 100 has a high load-bearing capacity and at the same time reduce the weight of the beam frame 100; therefore, The storage basket rack 700 of the present application can make full use of these through holes to realize the assembly of the storage basket set 220, without the need for secondary processing and transformation of the beam frame of the traditional storage system, so that the traditional storage system can have the function of mesh basket storage. functions in order to expand the use functions of traditional storage systems.

Optionally, as shown in Figures 42 and 46, the beam frame 100 may include a pair of vertical beams 10 spaced apart from each other on the left and right, wherein the vertical beams 10 have a support body 12 and a side plate 13 integrally connected to the support body 12, and the beam The mounting holes 11 of the rack 100 are located on the support body 12 of the vertical beam 10 , so that a pair of hooking mesh pieces 221 are respectively hooked on the mounting holes 11 on the support body 12 of the vertical beam 10 . It can be understood that the vertical beams 10 in the beam frame 100 of the present application can be made of, but are not limited to, steel materials such as channel steel, angle steel, I-shaped steel or H-shaped steel.

For example, taking the vertical beam 10 processed from channel steel as an example, the vertical beam 10 has a support body 12 and two side plates 13, where the two side plates 13 are respectively located on the left and right sides of the support body 12 to form a U. The support body 12 of the vertical beam 10 is provided with two rows of mounting holes 11 arranged side by side.

Optionally, as shown in FIG. 42 , the beam frame 100 may also include a cross beam 20 , wherein two ends of the cross beam 20 are respectively fixedly connected to two vertical beams 10 to enhance the structural stability of the beam frame 100 .

According to the above implementation of the present application, as shown in Figures 43 and 44, the hook mesh 221 of the storage basket set 220 may include a side mesh 2211 and one or more hooks fixed at the rear of the side mesh 2211. The hanging piece 2212 is used to hang the side mesh 2211 from the mounting hole 11 of the beam frame 100 through the hooking piece 2212.

Specifically, the side mesh sheet 2211 of the present application can be spliced by multiple rods. For example, as shown in FIGS. 43 and 44 , the side mesh 2211 may include a first support rod 22111 and a plurality of side vertical rods 22112 , wherein the first support rod 22111 bends and extends to form a frame of the side mesh 2211 . The side vertical rods 22112 extend vertically and connect to the first support rod 22111 to form the side walls of the side mesh 2211. It can be understood that the side vertical rod 22112 and the first support rod 22111 may be connected together by, but are not limited to, welding. In addition, the outer diameter of the first support rod 22111 is generally larger than the outer diameter of the side vertical rod 22112 in order to provide better support force.

More specifically, as shown in Figures 44 and 46, the first support rod 22111 of the side mesh panel 2211 of the present application can be spliced by the vertically extending first vertical support rod 221111 and the longitudinally extending first longitudinal support rod 221112 That is to say, the extension direction of the first vertical support rod 221111 of the first support rod 22111 and the vertical beam 10 of the beam frame 100 are the same, both in the up and down direction as shown in Figure 42; accordingly, the first support The extension direction of the first longitudinal support rod 221112 of the rod 22111 is perpendicular to the extension direction of the vertical beam 10 and the cross beam 20 of the beam frame 100 at the same time, which is the front-to-back direction as shown in Figure 42.

Optionally, as shown in FIGS. 44 and 45 , the hook 2212 of the mesh 221 may include a fixing part 22121 fixed on the first support rod 22111 of the side mesh 2211 and a self-fixing part 22121 bent backward. The hook 214 extends in a folded manner, wherein the hook 214 of the hook member 2212 is adapted to be inserted into the mounting hole 11 of the beam frame 100 to hook the beam frame 100, and the hook 214 is used to form the matching piece 201.

For example, as shown in FIGS. 45 and 46 , the fixing part 22121 of the hook 2212 may include a fixing plate 221211 and a self-fixing fixing plate 221211 of the first vertical support rod 22111 of the first support rod 22111 of the side mesh 2211 . A pair of support plates 221212 extending rearwardly from the left and right sides of the plate 221211; at the same time, the hook 214 of the hook 2212 may include a pair of hanging arms 2141 extending rearwardly from the upper end of the support plate 221212 and a pair of hanging arms 2141 respectively extending from the upper end of the support plate 221212. A pair of hook arms 2142 extends downward from the hook arm 2141 to form a hook space between the hook arms 2142 and the corresponding support plate 221212. It can be understood that the distance between the two support plates 221212 in the fixed part 22121 of the hook 2212 is equal to the distance between the two rows of mounting holes 11 on the vertical beam 10 of the beam frame 100, so that two of the hooks 214 of the hook 2212 The two hooking arms 2141 are inserted into the corresponding mounting holes 11 respectively, so that the two hooking arms 2142 are respectively hooked out of the support body 12 of the vertical beam 10, thereby achieving stable hooking of the hooking mesh 221. It can be understood that the hook 2212 of the present application can be, but is not limited to, cut and stamped from a whole metal plate, so as to reduce the manufacturing difficulty of the hook 2212. Of course, in other examples of this application, the hook 2212 can also be injection molded from hard materials such as plastic, which will not be described again in this application.

According to the above-mentioned embodiment of the present application, the storage basket mesh 222 may be composed of a plurality of rods that are crisscrossed and spliced. For example, as shown in FIGS. 43 and 48 , the storage basket mesh 222 may include a transversely extending bottom crossbar 2221 and a longitudinally extending bottom vertical bar 2222 , and the bottom crossbar 2221 and the bottom vertical bar 2222 may be, but are not limited to, welded. connected together.

Optionally, as shown in FIGS. 42 and 47 , the buckle 223 of the storage basket set 220 may include a support beam 2231 laterally fixed to the bottom vertical bar 2222 of the storage basket mesh 222 and a support beam 2231 disposed on the support beam 2231 . The buckle grooves 2232 at both ends, where the buckle grooves 2232 of the buckle 223 match the first longitudinal support rod 221112 in the side mesh 2211 of the hook mesh 221, are used to accommodate and buckle on the first Longitudinal support rod 221112.

It is worth noting that the support beam 2231 of the buckle 223 of the present application can be, but is not limited to, welded below the bottom longitudinal bar 2222, and both ends of the support beam 2231 laterally extend out of the outermost bottom longitudinal bar 2222, In order to maximize the support of the storage basket mesh 222 and improve its load-bearing capacity, the two ends of the support beam 2231 can pass through the side mesh 2211 to be buckled with the first longitudinal support rod 221112 to avoid structural interference.

Optionally, the notch size of the buckling groove 2232 is slightly smaller than the outer diameter of the first longitudinal support rod 221112, so that the buckling member 223 is slightly deformed at the notch position and firmly buckles the first longitudinal support rod 221112. , preventing the first longitudinal support rod 221112 from being unintentionally or accidentally disengaged from the buckle groove 2232, which helps to improve the overall structural stability of the storage basket 700.

According to the above-mentioned embodiment of the present application, as shown in Figures 42 and 48, the storage basket set 220 may further include a front mesh 224, which is detachably installed on the front of the hook mesh 221 to The front wall of the storage space 2200 is formed to prevent items placed in the storage space 2200 from sliding out from the front of the storage basket mesh piece 222 and falling. It can be understood that the storage basket mesh 222 of the present application is regarded as the bottom wall of the storage space 2200, and the two hook meshes 221 are implemented as the left and right side walls of the storage space 2200, so that the storage basket rack 700 has an orientation. The storage opening on the storage basket rack 700 helps to increase the loading capacity of the storage basket rack 700 .

Optionally, the front mesh 224 can also be spliced by criss-crossing rods. For example, as shown in FIGS. 43 and 48 , the front mesh 224 may include a transversely extending front crossbar 2241 and a longitudinally extending front longitudinal bar 2242 , and the front crossbar 2241 and the front longitudinal bar 2242 may be welded. connected together.

Optionally, as shown in FIGS. 43 and 48 , the front mesh 224 and the storage basket mesh 222 may be integrally formed; that is, the front longitudinal bar 2242 of the front mesh 224 may be formed from the storage basket mesh 222 . The bottom vertical rod 2222 integrally extends obliquely upward to enlarge the storage opening of the storage basket 700 and facilitate access to items. It can be understood that in other examples of this application, the front mesh 224 and the storage basket mesh 222 can also be separated, and the front mesh 224 can still be detachably installed on the hook net through buckles or other methods. Piece 221, which will not be described again in this application.

Optionally, as shown in FIGS. 42 and 48 , the first support rod 22111 of the side mesh 2211 of the mesh 221 is recessed downward at the front of the side mesh 2211 to form a support rod 2241 that is opposite to the front crossbar 2241 . Matching overlapping groove 221113, in which the front cross bar 2241 of the front mesh 224 extends into the overlapping groove 221113 of the first support rod 22111 to overlap with the first support rod 22111 of the side mesh 2211.

Optionally, as shown in Figure 48, the front mesh 224 further includes limiting blocks 2243 provided at both ends of the front crossbar 2241, and the limiting blocks 2243 are located on the first support rod 22111 of the side mesh 2211. outside to restrict the front crossbar 2241 from laterally protruding from the overlapping groove 221113. In other words, after the limiting blocks 2243 are provided at both ends of the front cross bar 2241, they will increase the end size of the front cross bar 2241 to be larger than the longitudinal size of the overlapping groove 221113, thereby allowing the front cross bar to 2241 is placed into the overlapping groove 221113 from top to bottom while preventing the front crossbar 2241 from laterally protruding from the overlapping groove 221113, which helps to improve the overall structural stability of the storage basket rack 700.

It is worth noting that, as shown in Figures 42 and 43, the storage basket set 220 of the present application can further include a rear mesh 225. The rear mesh 225 is detachably installed at the rear of the hook mesh 221. The rear wall of the storage space 2200 is formed to prevent items placed in the storage space 2200 from sliding out from the rear of the storage basket mesh piece 222 and falling.

Optionally, the rear mesh 225 can also be spliced by horizontally and vertically staggered rods. For example, as shown in FIGS. 43 and 46 , the rear mesh 225 may include a laterally extending rear crossbar 2251 and a vertically extending rear vertical bar 2252 , and the rear crossbar 2251 and the rear vertical bar 2252 may pass through Connected together by welding.

Optionally, as shown in FIGS. 44 to 46 , the hooking member 2212 for hooking the mesh 221 may further include a hooking hole 22123 provided on the fixing part 22121 , wherein the rear mesh 225 further includes a cross bar 2251 from the rear. Both ends of the hook arms 2253 integrally extend downward, and the hook arms 2253 of the rear mesh 225 are adapted to be inserted into the hook holes 22123 of the hook member 2212 to hook the rear mesh 225 on the hook mesh. 221 to form the rear wall of the storage space 2200.

Optionally, the hooking hole 22123 of the hooking part 2212 transversely penetrates the support plate 221212 of the fixing part 22121, so that the rear mesh 225 is located on the rear side of the side mesh 2211.

In one embodiment of the present application, the storage system 1000 may be a divided storage rack 600 , and the divided storage rack 600 may include a storage mesh 320 and a partition mesh assembly 420 .

According to another aspect of the present application, as shown in Figure 41, in one embodiment of the present application, the storage system 1000 may be a shoe cabinet, wherein the shoe cabinet may include the above-mentioned shoe rack set 500 and the beam frame 100, wherein The rack set 500 is mounted on the beam frame 100 in a suspended manner for placing shoes.

Optionally, as shown in FIGS. 39 and 41 , the beam frame 100 may include a vertical beam 10 provided with mounting holes 11 , and the shoe rack set 500 The bracket 210 is provided with a hook 214 that matches the mounting hole 11 and is used for hanging on the mounting hole 11 of the vertical beam 10 . In other words, when installing the shoe rack set 500 on the beam frame 100, you only need to hook the hook 214 of the bracket 210 into the corresponding mounting hole 11 of the vertical beam 10, which facilitates operation.

Optionally, as shown in FIG. 41 , the beam frame 100 may further include a cross beam 20 connecting two vertical beams 10 to support the vertical beams 10 , which helps to improve the overall structural stability of the beam frame 100 .

It is worth noting that when the shoe rack set 500 is installed on the beam frame 100, the upper edge of the bracket 210 in the shoe rack set 500 extends obliquely downward from the beam frame 100, so that the storage mesh 320 is arranged at an angle. Easy access to shoes. It can be understood that the inclined installation of the shoe rack set 500 of the present application relative to the beam frame 100 can be realized by the shape of the bracket 210 or the structure of the hook 214 on the bracket 210, which will not be described in detail in this application. .

The technical features of the above-described embodiments can be combined in any way. To simplify the description, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, All should be considered to be within the scope of this manual.

The above-described embodiments only express several implementation modes of the present application, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of the patent application. It should be noted that, for those of ordinary skill in the art, several modifications and improvements can be made without departing from the concept of the present application, and these all fall within the protection scope of the present application. Therefore, the protection scope of this patent application should be determined by the appended claims.

Claims

A storage system includes a vertical beam and an assembly structure. The vertical beam is provided with a mounting hole. The assembly structure includes a fitting that matches the mounting hole. The assembly structure is detachably connected through the fitting. Installed on the mounting hole of the vertical beam.
The storage system according to claim 1, wherein the storage system further includes a load-bearing structure, the load-bearing structure is used to load items, the load-bearing structure is connected to the assembly structure, and is detachably connected to the assembly structure through the assembly structure. Installed on the vertical beam.
The storage system according to claim 2, wherein the assembly structure includes a bracket, a hook is protruding from the bracket, and the hook is used to hook into the mounting hole of the vertical beam.
The storage system according to claim 3, wherein the load-bearing structure includes a storage mesh and a clamping member, and the storage mesh includes a plurality of rods connected in a crisscross manner for placing items.
The storage system according to claim 4, wherein the load-bearing structure further includes a clamping member, the clamping member includes a clamping part for clamping to the bracket and a clamping part laterally extending from the clamping part. The buckle part is used to buckle the rod of the storage mesh, so as to buckle the storage mesh to the bracket through the buckle.
The storage system according to claim 5, wherein the buckle part of the buckle component includes a buckle plate integrally connected with the clamping part and a buckle groove provided on the buckle plate. , the slot size of the locking groove of the buckle part is smaller than the outer diameter of the rod, wherein the buckle groove of the buckle part is opposite to the rod of the storage mesh. Matching to lock the rod in the locking groove of the buckle part;

The clamping groove extends longitudinally on the clamping plate, and a plurality of the clamping slots are arranged transversely on the clamping plate to respectively clamp different vertical rods in the rod member.
The storage system according to claim 6, wherein the clamping portion of the clamping member includes a pair of clamping arms extending longitudinally from the clamping portion to form a space between the clamping arms. In the clamping space for clamping the bracket, the bracket is provided with a limiting groove that matches the clamping portion of the clamping member, and the clamping portion of the clamping member is used for clamping. The bracket is held in the limiting groove of the bracket, and the bracket is further provided with a limiting hole adjacent to the limiting groove, wherein the clamping portion of the clamping member includes a pin from the clamping arm. a protruding limiting body on the inner side, and the limiting body in the clamping member matches the limiting hole so as to be clamped on the bracket at the clamping portion of the clamping member When the limiting groove is formed, the limiting body of the clamping part is embedded in the limiting hole of the bracket.
The storage system according to claim 6, wherein the clamping member is made of plastic material, and the bracket is provided with hook grooves that match the cross bars of the rods of the storage mesh, For hooking the cross bar in the rod, the load-bearing structure further includes a shelf body and an end cover body, wherein the shelf body is used to be covered above the storage mesh, and The end cap body is used to be disposed on the side of the storage mesh.
The storage system according to claim 3, wherein the load-bearing structure further includes a storage shelf, the storage shelf is used to be assembled on a storage grid, and the storage shelf includes:

The shelf body has a plurality of longitudinally arranged molding holes, at least two shaping grooves that are limited and shaped, and a matching groove used to cooperate with the storage grid, and the plurality of molding holes penetrate transversely. On the left and right end surfaces of the shelf body, at least two of the shaping grooves are positioned and distributed between a plurality of the shaping holes; and

The end cover body includes an end cover plate body and at least two end cover plug-ins protruding from the end cover plate body. The end cover plug-ins of the end cover body are plugged into the end cover body in a one-to-one correspondence. The shaping groove of the shelf body is used to cover the left end surface or the right end surface of the shelf body through the end cover plate body.
The storage system according to claim 9, wherein the shelf body has an upper surface and a lower surface arranged oppositely, and the notch of the matching groove of the shelf body faces downward for buckling on the storage net. Above the shelf; the shaping groove of the shelf body includes a groove cavity and a notch connected to the groove cavity, and the groove cavity transversely penetrates the left end surface and the right end surface of the shelf body , the notch is located on the lower surface of the shelf body; the transverse dimension of the notch in the shaped groove is equal to the transverse dimension of the groove cavity, and the longitudinal dimension of the notch is smaller than the groove The longitudinal dimension of the cavity.
The storage system according to claim 9, wherein each of the end cover inserts in the end cover body includes a pair of plug arms extending laterally from the end cover plate body, and two of the plug arms The connecting arms are spaced apart from the end cover plate body, and the upper end distance between the two plug-in arms is greater than the lower end distance between the two plug-in arms; each of the end cover inserts further includes A pair of reinforcing ribs integrally and laterally extending from the end cover plate body, the reinforcing ribs are integrally connected to the corresponding plug-in arms; two of the reinforcing ribs in each end cover plug-in are located on both sides between the two plug-in arms, and the reinforcing rib is in the middle of the corresponding plug-in arm.
The storage system according to claim 3, wherein the load-bearing structure further includes a mesh component, the mesh component is used to separate the storage mesh pieces, and the mesh component includes:

Mesh screen; and

The clamping member, wherein the clamping member includes a clamping portion connected to the mesh sheet and a buckling portion integrally extending from the clamping portion, wherein the clamping portion of the clamping member is It is above the rod that is held on the storage mesh, and the buckle part is used to buckle below the rod of the storage mesh, so that the partition mesh is clamped on the storage mesh to separate the storage net. Table storage area.
The storage system according to claim 12, wherein the latching portion of the latching member extends transversely for latching on the vertical rod of the storage mesh, wherein the buckling portion of the latching member The latching part extends vertically and obliquely from the latching part, and is used to buckle on the crossbar of the storage mesh; the latching part of the holding part includes a crossbar extending laterally from the partition mesh to the left and right. A pair of holding arms, wherein the holding arm extending to the left is used to cross over and hold one or more longitudinal rods on the left side of the partition net piece on the storage net piece, and the said holding arm extending to the right The holding arm is used to cross over and hold one or more vertical rods on the right side of the partition mesh on the storage mesh; the buckle portion of the holding member includes two components: A pair of buckle arms extending downward, and the buckle arms of the buckle part are used to pass through the storage mesh from top to bottom to buckle with the cross bar.
The storage system according to claim 13, wherein two of the latching members are respectively fixed to the front and rear ends of the mesh sheet, and all of the latching parts of the latching members located at the front end are The buckle arm extends obliquely forward from the holding arm and is used to buckle forward to the front crossbar on the storage mesh, and the buckle portion of the buckle part in the rear end is located The buckle arm extends obliquely backward from the holding arm, and is used to buckle rearwardly with the cross bar on the storage net; the buckle portion of the clamping member located at the front end further includes: The buckle arm is a front guide arm that extends obliquely backward; and the buckle portion of the holder located at the rear end further includes a rear hook arm that extends rearwardly from the buckle arm.
The storage system according to claim 14, wherein the latching portion of the latching member extends longitudinally for latching on a cross bar of the storage mesh, wherein the buckling portion of the latching member Vertically extending from the latching part, it is used to buckle on the vertical rod of the storage mesh; the latching part of the holding member includes a latching plate for inserting the partition mesh, and the The holding plate extends longitudinally to cross over and hold two or more horizontal bars on the storage mesh; wherein the buckle portion of the holding member includes two or more cross-bars from the left and right sides of the holding plate. One or more pairs of longitudinal buckles extending vertically, and the longitudinal buckles are respectively used to pass through the storage mesh from top to bottom to buckle on two adjacent vertical bars on the storage mesh.
The storage system according to claim 1, wherein the vertical beam includes a first vertical beam, a second vertical beam and a vertical beam splicing piece, and the vertical beam splicing piece is used to connect the first vertical beam end to end. ground spliced to the second vertical beam;

Wherein, the vertical beam splicing parts include:

A connecting piece, wherein the connecting piece has a connecting part for connecting with the first vertical beam and a limiting part extending from the connecting part, and the limiting part is provided with a surface for connecting with the first vertical beam and a third vertical beam. The surfaces of the two vertical beams match the limiting surfaces; and

Limiting member, wherein the limiting member is provided on the limiting portion of the connecting member and is used to abut the second vertical beam end-to-end against the first vertical beam and make the first vertical beam The surface and the surface of the second vertical beam are in contact with the limiting surface of the limiting portion at the same time.
The storage system according to claim 16, wherein the limiting portion of the connecting member is a limiting plate used to provide a flat limiting surface, and the connecting portion is formed from the limiting plate. The connecting column extending transversely from the limiting surface is used to be correspondingly plugged into the mounting hole on the base wall of the first vertical beam, wherein the limiting member is from the limiting surface of the limiting plate. The laterally extending limiting column is used to be plugged into the mounting hole on the base wall of the second vertical beam accordingly, so that the limiting surface of the limiting plate is used to fit the first vertical beam and the second vertical beam. The base wall surface of the vertical beam; the connecting column and the limiting column in the connecting member all extend laterally and integrally from the limiting surface of the limiting plate.
The storage system according to claim 17, wherein the limiting portion of the connecting member is a limiting frame adapted to fit on the base wall surface of the first vertical beam and the second vertical beam, and the connecting member The part is a connecting block protruding outward from one end of the limiting frame, and is used to be inserted into the second slot on the side wall of the first vertical beam, wherein the limiting member is arranged on the limiting frame The other end of the second vertical beam is used to insert into the first slot on the side wall of the second vertical beam; the limiting member is a limiting rod adapted to the first slot of the second vertical beam, and the The other end of the limiting frame of the connecting piece is provided with a first through hole that matches the limiting rod, so that the limiting rod can penetrate the limiting frame through the first through hole. The position bracket is inserted into the first slot of the second vertical beam.
The storage system according to claim 1, wherein the vertical beam includes a support body, the support body has at least three rows of installation positions spaced along the width direction of the support body, and each row of the installation positions includes: A plurality of installation holes, at least two installation parts are provided along the width direction of the support body, each of the installation parts is formed by one or more of the installation holes, and the installation part is used to cooperate with external installation pieces;

Two side plates, the two side plates are respectively fixed on both sides of the support body, the support body includes a first face and a second face opposite to the first face, and the two side plates The plates all protrude from the first surface.
The storage system according to claim 19, wherein the support body further includes reinforcing ribs, the reinforcing ribs are arranged between two adjacent rows of the mounting positions, and the reinforcing ribs are along the length direction of the support body. Extended, the side plate, the reinforcing rib and the support body are integrally provided.