A quick assembly object table and a display and storage multifunctional combined structure adopting the same

Abstract

The utility model discloses a quick assembly type object table and display and storage multifunctional combined structure based on the quick assembly type object table. It includes the bridge of cross -shaped structure and a pair of support pile for supporting the bridge, and each support pile includes a support carrier and a pair of parallelly-arranged triangular prisms arranged on the support carrier. Each pair of triangular prisms of each support carrier forms a longitudinal groove, and each pair of triangular prisms has a horizontal direction waist-processed slot. The longitudinal groove and the slot on each support pile are mutually penetrated to form a cross-shaped slot for inserting the bridge. The two ends of the bridge are inserted into the cross-shaped slots of the two support piles to form a single object table, and the bridge of the object table directly serves as a table top for supporting the objects. The utility model has the advantages of quick and convenient assembly of the entire object table, simple object display, convenient disassembly and storage.

Description

Technical Field

[0001] This utility model relates to a multifunctional display and storage assembly for use on counters or street stalls, specifically a quick-assembly display stand and a multifunctional display and storage combination structure based on the quick-assembly display stand. Background Technology

[0002] In some commercial transactions, display racks are often used to showcase items, while dedicated storage racks are also needed to store them. In larger shopping malls, more display racks or storage racks can be placed freely. However, in spaces with limited capacity (such as small counters or urban street stalls), preparing both functionally independent display racks and storage racks simultaneously would occupy a significant amount of storage space, adding to the inconvenience (crowding) of the already limited space. In addition, existing display racks and storage racks generally suffer from problems such as relying on instruction manuals for assembly, cumbersome steps, time-consuming on-site setup, low efficiency, and inability to quickly respond to the flexible layout needs of street stalls. Of course, there are some modular display racks with higher assembly efficiency, but these are mostly designed for fixed locations (such as showrooms) and lack the portability, quick assembly, and multi-functional integration (display + storage) capabilities suitable for street stalls. Summary of the Invention

[0003] The technical problem to be solved by this utility model is to provide a multifunctional, easy-to-assemble, and space-saving quick-assembly platform that can effectively reduce the space occupied during storage and improve the practicality of applications in small spaces, as well as a multifunctional combination structure for display and storage based on the quick-assembly platform.

[0004] To solve the above-mentioned technical problems, the quick-assembly platform of this utility model includes a cross-shaped cable tray and a pair of support piles for supporting the cable tray. Each support pile includes a support carrier and a pair of parallel triangular prisms arranged on the support carrier. A longitudinal groove is formed between each pair of triangular prisms of each support carrier, and each pair of triangular prisms has a transverse slot. The longitudinal groove and the slot on each support pile are interconnected to form a cross slot for inserting the cable tray. The two ends of the cable tray are respectively inserted into the cross slots of the two support piles to form a single platform, thereby making the cable tray of the platform directly serve as a table surface for supporting items.

[0005] The longitudinal groove of the support carrier is machined with a positioning groove in the middle part. The positioning groove and the straight groove are interconnected to form a cross slot for inserting the cable tray.

[0006] Each of the supporting pile platforms has a connector block and a stepped groove at the bottom edge of its splicing carrier, which allows different platforms to be spliced ​​together as one unit through the stepped groove and connector block.

[0007] The stepped grooves are arranged along the length of the triangular prism on the left and right sides of the bottom of the support carrier, and the plug-in blocks are arranged along the width of the triangular prism on the upper and lower sides of the bottom of the support carrier.

[0008] Each of the supporting pile platforms has two pairs of upper and lower plug-in blocks at the bottom edge of its supporting carrier, and four pairs of left and right stepped grooves at the bottom edge of its supporting carrier. The four pairs of stepped grooves are paired up and correspond to two pairs of plug-in blocks respectively.

[0009] The two pairs of stepped grooves on the left side and the two pairs of stepped grooves on the right side of each support carrier are arranged symmetrically along the transverse direction of the support carrier.

[0010] A multi-functional combination structure for display and storage using the above-mentioned quick-assembly platform includes a horizontally placed No. 1 platform and a vertically placed No. 2 platform. A pair of plug-in blocks at the rear of each support pile in the No. 1 platform are inserted into a set of stepped grooves at the lower front end of each support pile in the No. 2 platform to form an L-shaped combination structure.

[0011] A multi-functional combination structure for display and storage using the aforementioned quick-assembly platform includes two horizontally placed platforms, namely Platform 1 and Platform 2, and two vertically placed platforms, namely Platform 3 and Platform 4. A pair of connecting blocks at the rear of each support pile in Platform 1 are inserted into a set of stepped grooves at the lower front of each support pile in Platform 4. A pair of connecting blocks at the upper part of each support pile in Platform 4 are inserted into a set of stepped grooves at the lower rear side of each support pile in Platform 2. A pair of connecting blocks at the front of each support pile in Platform 2 are inserted into a set of stepped grooves at the upper rear side of each support pile in Platform 3. A pair of connecting blocks at the lower part of each support pile in Platform 3 are inserted into a set of stepped grooves at the upper front side of each support pile in Platform 1, thus forming a frame-shaped combination structure.

[0012] The advantages of this utility model are:

[0013] (1) By setting up a platform consisting of a cross-shaped cable tray and a pair of support piles for supporting the cable tray, and forming a cross slot on each support pile for inserting the cable tray, the entire platform can be quickly and easily assembled to display simple items. It is also very easy to disassemble and store.

[0014] (2) A pair of parallel triangular prisms are set on the support carrier of each support pile. On the one hand, the support area is increased and the support stability is good. On the other hand, the longitudinal groove formed between each pair of triangular prisms is cleverly utilized and the transverse groove of each pair of triangular prisms can be directly connected to the cable tray. It is not only easy to process and manufacture, but also convenient and quick to connect and easy to use.

[0015] (3) A positioning groove is processed in the middle part of the longitudinal groove of the support carrier, so that the positioning groove and the straight groove are interconnected to form a cross slot for inserting the cable tray to form a stable insertion structure. At the same time, a support pile with a triangular prism is added, which forms a multi-directional limiting structure. After splicing, the assembly is not easy to loosen, which meets the load-bearing requirements when setting up a stall (such as placing goods and storage boxes), and has good stability.

[0016] (4) By setting interlocking blocks and step grooves at the bottom edge of each support pile to form a block-building interlocking method, different platforms can be assembled and combined in various ways according to specific needs. Based on the platform, the integrated design of display and storage is realized. It can be quickly connected without any tools, and the assembly is very quick and convenient. The assembly process is simple and does not require referring to the instruction manual. Different types of stall combinations can be quickly assembled on site.

[0017] (5) The number of parts in the entire platform or assembly is small, which reduces the space occupied during transportation and storage and improves the practicality of small spaces such as street vending. Attached Figure Description

[0018] Figure 1 This is a three-dimensional structural diagram of the cable tray in Embodiment 1 of this utility model;

[0019] Figure 2 This is a schematic diagram of the supporting pile platform in Embodiment 1 of this utility model;

[0020] Figure 3 This is a three-dimensional structural diagram of the quick-assembly platform in Embodiment 1 of this utility model;

[0021] Figure 4 This is a three-dimensional structural diagram illustrating the multifunctional combination structure for storage in Embodiment 2 of this utility model;

[0022] Figure 5 This is a three-dimensional structural diagram illustrating the multifunctional combination structure for storage in Embodiment 3 of this utility model. Detailed Implementation

[0023] The following detailed description, in conjunction with the accompanying drawings and specific embodiments, further illustrates the quick-assembly platform of this utility model and the multifunctional combination structure for display and storage based on the quick-assembly platform.

[0024] Example 1:

[0025] As shown in the figure, the quick-assembly platform of this embodiment includes a cross-shaped cable tray 1 and a pair of support piles 2 for supporting the cable tray. Each support pile 2 includes a support carrier 3 and a pair of triangular prisms 4 arranged parallel to each other along the length of the support carrier. In fact, the two triangular prisms 4 and the support carrier 3 are integrally formed. For ease of description, the support pile 2 is defined as two parts: the triangular prisms 4 and the support carrier 3. A longitudinal groove 5 is formed between each pair of triangular prisms of each support carrier 3. Each pair of triangular prisms has a horizontally oriented slot 6 (i.e., along the vertical center line of the length direction). The longitudinal groove and the slot on each support pile 2 are interconnected to form a cross slot for inserting the cable tray. The two ends of the cable tray 1 are respectively inserted into the cross slots of a pair of support piles to form a single platform, thereby making the cable tray 1 of the platform directly serve as a table surface for supporting items.

[0026] Furthermore, to improve the stability and reliability of the connection, a positioning groove 7 can be machined in the middle part of the longitudinal groove of the support carrier 3. The length and width of the positioning groove 7 and the slot 6 are matched with the cross-shaped structure dimensions of the cable tray 1 (preferably with interference or transition fit). The positioning groove 7 and the slot 6 are interconnected to form a cross slot for inserting the cable tray. Since the length and width of the positioning groove 7 and the slot 6 are matched with the cross-shaped structure dimensions of the cable tray 1, they can fit perfectly with the cable tray 1 to form a stable connection structure.

[0027] Furthermore, each support pile 2 can be equipped with a connecting block 8 and a stepped groove 9 at the bottom edge of its supporting carrier. The connecting blocks 8 and stepped grooves 9 of different support piles can be interlocked to form a modular assembly structure. This allows different platforms to be combined into one unit using the stepped grooves and connecting blocks in a modular assembly manner. The specific structure is as follows: Figure 2 , Figure 3 As shown, the stepped groove 9 can be arranged along the length of the triangular prism on the left and right sides of the bottom of the supporting carrier. Figure 3 The left side is defined as shown. Figure 3 The right side (as shown is defined as the right side) is where the plug-in block 8 is arranged along the width direction of the triangular prism on the upper and lower sides of the bottom of the support carrier. Figure 3 The area above is defined as the upper side. Figure 3 As shown below (defined as the lower side), each support pile 2 can have two pairs of upper and lower plug-in blocks at the bottom edge of its support carrier (the side with the triangular prism is defined as the upper part of the support carrier, and the side without the triangular prism is defined as the bottom edge of the support carrier). Simultaneously, each support pile 2 has four pairs of left and right stepped grooves 9 at the bottom edge of its support carrier. Figure 3As shown, two pairs of stepped grooves 9 are provided on the left side of the bottom edge of the support carrier, and two pairs of stepped grooves 9 are also provided on the right side of the bottom edge of the support carrier. The four pairs of stepped grooves 9 are paired up and correspond to two pairs of plug-in blocks respectively. In particular, the two pairs of stepped grooves on the left side and the two pairs of stepped grooves on the right side of each support carrier can be aligned along the transverse centerline of the support carrier. Figure 3 The horizontal direction shown is defined as transverse) symmetrical arrangement, so that four platforms can be inserted simultaneously on both sides of each support pile 2 of the platform as a base, which meets the flexible splicing requirements.

[0028] In addition, the two pairs of stepped grooves 9 set on the left side of the bottom edge of the support carrier and the two pairs of stepped grooves 9 set on the right side of the bottom edge of the support carrier have the same spacing. This allows each pair of plug-in blocks to be selectively inserted into any two required stepped grooves to meet more expansion needs. For example, taking the left row of stepped grooves as an example: each pair of plug-in blocks can be inserted into the two upper stepped grooves, or into the two lower stepped grooves, or into the two middle stepped grooves.

[0029] Example 2:

[0030] like Figure 4 As shown, this embodiment adopts the multi-functional combination structure for display and storage of the quick-assembly platform mentioned in Embodiment 1. It includes a horizontally placed No. 1 platform 10 and a vertically placed No. 2 platform 11. A pair of plug-in blocks at the rear of each support pile 2 in the No. 1 platform 10 are inserted into a set of step grooves 9 at the lower front end of each support pile 2 in the No. 2 platform 11 to form an L-shaped combination structure.

[0031] Of course, more diverse combinations can be developed based on this, such as increasing the height or width. This embodiment does not limit the number of such combinations.

[0032] Example 3:

[0033] like Figure 5As shown, this embodiment uses the multi-functional combination structure for display and storage of the quick-assembly platform in Embodiment 1. It includes two horizontally placed platforms 10 and 11, and two vertically placed platforms 12 and 13. A pair of interlocking blocks at the rear of each support post 2 in platform 10 are inserted into a set of stepped grooves at the lower front of each support post 2 in platform 13. Each support post 2 in platform 13... A pair of plug-in blocks from the first platform 11 are inserted into a set of step grooves on the lower rear side of each support pile 2 in the second platform 11. A pair of plug-in blocks from the front of each support pile 2 in the second platform 11 are inserted into a set of step grooves on the upper rear side of each support pile 2 in the third platform 12. A pair of plug-in blocks from the lower part of each support pile 2 in the third platform 12 are inserted into a set of step grooves on the upper front side of each support pile 2 in the first platform 10, thus forming a frame-shaped combined structure.

[0034] Of course, this utility model can also be based on the quick-assembly platform of Embodiment 1 to assemble and combine into other multi-functional combination structures for display and storage. The above description is not a limitation of this utility model, and this utility model is not limited to the above examples. Any changes, modifications, additions or substitutions made by those skilled in the art within the scope of this utility model should also be within the protection scope of this utility model.

Claims

1. A quick-assembly platform, characterized in that: The cable tray (1) includes a cross-shaped structure and a pair of support piles (2) for supporting the cable tray. Each support pile (2) includes a support carrier (3) and a pair of parallel triangular prisms (4) arranged on the support carrier. A longitudinal groove (5) is formed between each pair of triangular prisms of each support carrier (3), and each pair of triangular prisms has a transversely cleaved slot (6). The longitudinal groove and the slot on each support pile (2) are interconnected to form a cross slot for inserting the cable tray. The two ends of the cable tray (1) are respectively inserted into the cross slots of the two support piles to form a single platform, thereby making the cable tray of the platform directly serve as a table surface for supporting items.

2. The quick-assembly platform according to claim 1, characterized in that: The longitudinal groove of the support carrier (3) is machined with a positioning groove (7), and the positioning groove (7) and the straight groove (6) are interconnected to form a cross slot for inserting the cable tray.

3. The quick-assembly platform according to claim 1 or 2, characterized in that: Each of the supporting piles (2) has a plug-in block (8) and a step groove (9) at the bottom edge of the splicing carrier, so that different platforms can be spliced ​​together as one unit through the step groove and the plug-in block.

4. The quick-assembly platform according to claim 3, characterized in that: The stepped groove (9) is arranged along the length of the triangular prism on the left and right sides of the bottom of the support carrier, and the plug-in block (8) is arranged along the width of the triangular prism on the upper and lower sides of the bottom of the support carrier.

5. The quick-assembly platform according to claim 4, characterized in that: Each of the supporting piles (2) has two pairs of upper and lower plug-in blocks at the bottom edge of its supporting carrier, and four pairs of left and right stepped grooves (9) at the bottom edge of its supporting carrier. The four pairs of stepped grooves (9) are paired up and correspond to two pairs of plug-in blocks respectively.

6. The quick-assembly platform according to claim 5, characterized in that: The two pairs of stepped grooves on the left side and the two pairs of stepped grooves on the right side of each support carrier are arranged symmetrically along the transverse direction of the support carrier.

7. A multi-functional combination structure for display and storage using a quick-assembly platform as described in any one of claims 1-6, characterized in that: It includes a horizontally placed No. 1 platform (10) and a vertically placed No. 2 platform (11). A pair of plug-in blocks at the rear of each of the support piles (2) in the No. 1 platform (10) are inserted into a set of step grooves (9) at the lower front end of each of the support piles (2) in the No. 2 platform (11) to form an L-shaped combination structure.

8. A multi-functional combination structure for display and storage using a quick-assembly platform as described in any one of claims 1-6, characterized in that: The system includes two horizontally placed platforms, namely No. 1 (10) and No. 2 (11), and two vertically placed platforms, namely No. 3 (12) and No. 4 (13). A pair of connecting blocks at the rear of each supporting pile (2) in platform No. 1 (10) are inserted into a set of stepped grooves at the lower front end of each supporting pile (2) in platform No. 4 (13). A pair of connecting blocks at the upper part of each supporting pile (2) in platform No. 4 (13) are inserted into the platform No. 2 (11). In the lower rear side of each of the supporting piles (2), a pair of plug-in blocks at the front of each of the supporting piles (2) in the second platform (11) are inserted into a set of step grooves at the upper rear side of each of the supporting piles (2) in the third platform (12), and a pair of plug-in blocks at the lower part of each of the supporting piles (2) in the third platform (12) are inserted into a set of step grooves at the upper front side of each of the supporting piles (2) in the first platform (10), thereby forming a frame-shaped combined structure.

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