Detachable spliced modular honeycomb panel structure

Abstract

The utility model relates to building material technical field, detachable splicing type modularization honeycomb board structure, including honeycomb board, the outer periphery of this honeycomb board is provided with the mounting frame, the four quarters of this mounting frame all are seted up with recess, the recess rotates and installs the mounting block, the one side of this mounting block is provided with the plug -in block subassembly, the other side of this mounting block corresponds and is seted up with the plug -in groove subassembly, for the plug -in block subassembly of honeycomb board one side inserts into the plug -in groove subassembly of another honeycomb board to splice two honeycomb boards. The technical scheme effectively solves the technical problem that the same type interface of honeycomb board in the prior art cannot be inserted into each other, leading to the complete splicing cannot be carried out, avoids the situation that the honeycomb board needs to be replaced or the board material with the opposite interface type is found due to the mismatching of the interface type, thereby avoiding the construction interruption, improving the flexibility and efficiency of the installation or assembly process, significantly reducing the construction cost and period.

Description

Technical Field

[0001] This utility model relates to the field of building materials technology, and in particular to a detachable and modular honeycomb panel structure. Background Technology

[0002] Honeycomb panels are a new type of composite material, typically composed of two thin panels bonded to a honeycomb core. Honeycomb panels offer advantages such as lightweight and high strength, resistance to deformation, ease of construction, sound and heat insulation, corrosion resistance, and fire resistance. They also offer diverse surface treatments and can be customized in size and shape, making them widely used in construction, transportation, aerospace, and other fields. In the construction and decoration sectors, honeycomb panels often employ specific interlocking structures for splicing. For example, interlocking blocks and slots are set at the splicing edges of the honeycomb panels, with the interlocking blocks inserted into the slots to connect the two panels. However, existing honeycomb panel splicing technologies using interlocking structures have a technical problem: when the splicing edges of two honeycomb panels to be spliced ​​are both designed as interlocking blocks, the two interlocking blocks cannot be inserted into each other; similarly, when the splicing edges of two honeycomb panels to be spliced ​​are both designed as slots, the two slots cannot be connected to each other. This means that existing honeycomb panel splicing structures lack the ability to switch or convert between the two interface forms of "interlocking blocks" and "slots." In actual installation or assembly, if two adjacent honeycomb panels are found to have the same interface type (both are inserts or both are slots), they cannot be directly spliced. The only solution is to replace one of the honeycomb panels or find another with the opposite interface type. This not only increases the complexity of construction but also makes it more likely to cause construction interruptions, extend the construction period, and significantly reduce installation efficiency. Existing technologies urgently need improvement to address these issues. Utility Model Content

[0003] This utility model discloses a detachable and modular honeycomb panel structure, which aims to solve the problem that honeycomb panels with the same type of interface cannot be spliced ​​in the prior art.

[0004] The present invention discloses a detachable and modular honeycomb panel structure, including a honeycomb panel. The outer periphery of the honeycomb panel is provided with an installation frame. Grooves are provided around the four sides of the installation frame. An installation block is rotatably installed in the groove. An insertion block assembly is provided on one side of the installation block, and a slot assembly is provided on the corresponding other side of the installation block. The insertion block assembly on one side of the honeycomb panel is inserted into the slot assembly of another honeycomb panel to splice the two honeycomb panels.

[0005] Furthermore, the plug assembly includes a plurality of plugs disposed on one side of the mounting block, and the plurality of plugs are horizontally equidistant.

[0006] Furthermore, each of the inserts includes a connecting portion and a limiting portion, the limiting portion being perpendicular to the connecting portion.

[0007] Furthermore, one end of the connecting portion extends away from the mounting block, and the limiting portion is parallel to the mounting block.

[0008] Furthermore, the slot assembly includes several slots opened on the other side of the mounting block.

[0009] Furthermore, each of these slots includes an insertion slot and a limiting slot that are connected to each other.

[0010] Furthermore, the widths of the insertion groove and the limiting groove are greater than the widths of the connecting portion and the limiting portion, respectively.

[0011] Furthermore, a gap is provided between the rear side of the mounting block and the rear wall of the groove, and the gap extends to both sides of the mounting block to facilitate the rotation of the mounting block and the docking of the two mounting blocks.

[0012] Furthermore, door panels are rotatably mounted on both the upper and lower sides of the groove to limit the installation block. First adsorption components are provided on both the upper and lower sides of the installation block, and second adsorption components are provided on the bottom of one door panel and the top of the other door panel. The two door panels are attached to the upper and lower sides of the installation block by the first adsorption components and the second adsorption components.

[0013] Furthermore, the first adsorption component includes two first magnets, and the second adsorption component includes two second magnets, with the positions of the two first magnets and the two second magnets corresponding to each other.

[0014] Compared with the prior art, the present invention has the following beneficial effects: This utility model discloses a detachable, modular honeycomb panel structure. A rotatable mounting block is installed within a mounting frame on the outer periphery of the honeycomb panel. An insert component is located on one side of the mounting block, and a slot component on the other. This allows the mounting block to switch the interface type of the honeycomb panel edges when rotated. When two honeycomb panels to be joined have the same interface type (e.g., both panels have insert or slot interfaces), the interface type of one panel can be switched to match the other panel by rotating the mounting block (e.g., switching the insert to a slot, or vice versa). This enables smooth joining of honeycomb panels with the same interface type. This technical solution effectively solves the technical problem in the prior art where honeycomb panels with the same interface type cannot be inserted into each other, making joining impossible. It avoids the need to replace honeycomb panels or find panels with opposite interface types due to incompatible interface types, thus preventing construction interruptions, improving the flexibility and efficiency of the installation or assembly process, and significantly reducing construction costs and time. Attached Figure Description

[0015] Figure 1This is a schematic diagram of the overall structure of a detachable and modular honeycomb panel structure.

[0016] Figure 2 This is a schematic diagram of the mounting frame in a detachable and modular honeycomb panel structure.

[0017] Figure 3 This is a schematic diagram of the first and second magnets in a detachable modular honeycomb panel structure.

[0018] Figure 4 This is a schematic diagram of the mounting block in a detachable and modular honeycomb panel structure.

[0019] Figure 5 This is a schematic diagram of the connection between the insert blocks and slots in a detachable modular honeycomb panel structure.

[0020] Figure 6 This is a schematic diagram of the internal structure of a slot in a detachable and modular honeycomb panel structure.

[0021] Figure 7 This is a schematic diagram of the gaps in a detachable and modular honeycomb panel structure.

[0022] In the diagram: 1. Honeycomb panel; 2. Mounting frame; 3. Groove; 4. Mounting block; 5. Insert block; 6. Slot; 7. Door panel; 8. First magnet; 9. Second magnet; 10. Insertion groove; 11. Restriction groove; 12. Connecting part; 13. Limiting part; 14. Gap. Detailed Implementation

[0023] The technical solutions of this application will now be clearly and completely described with reference to the accompanying drawings. Obviously, the described embodiments are merely some embodiments of this application, and not all embodiments. The components of this application described and shown in the accompanying drawings can generally be arranged and designed in various different configurations. Therefore, the following detailed description of the embodiments of this application provided in the accompanying drawings is not intended to limit the scope of the claimed application, but merely to illustrate selected embodiments of this application. All other embodiments obtained by those skilled in the art based on the embodiments of this application without inventive effort are within the scope of protection of this application.

[0024] It should be noted that similar reference numerals and letters in the following figures indicate similar items; therefore, once an item is defined in one figure, it does not need to be further defined and explained in subsequent figures. Furthermore, in the description of this application, terms such as "first," "second," etc., are used only to distinguish descriptions and should not be construed as indicating or implying relative importance.

[0025] This utility model relates to a detachable and modular honeycomb panel structure. Honeycomb panels, as a new type of composite material, are widely used in construction and decoration due to their advantages such as lightweight, high strength, sound and heat insulation, and convenient construction. In practical applications, it is often necessary to splice multiple honeycomb panels to form a larger structure or coverage area. Existing honeycomb panel splicing methods typically employ a plug-in structure, where plugs and slots are set at the edges of the honeycomb panels, and the connection is achieved by inserting the plugs into the slots. However, this method has a significant limitation: if the edge interface types of two honeycomb panels to be spliced ​​are the same (for example, both panels have plugs or slots designed for their splicing edges), they cannot be directly spliced. One of the panels must be replaced or a panel with a matching interface type must be found, which greatly affects construction efficiency and flexibility. To overcome the technical problem of existing technologies where panels with the same type of interface cannot be spliced, this utility model proposes a detachable and modular honeycomb panel structure. By setting a structure with switchable interface types at the splicing edges of the honeycomb panels, honeycomb panels with the same type of interface can be smoothly spliced.

[0026] Specifically, the detachable and modular honeycomb panel structure disclosed in this utility model includes a honeycomb panel 1. The honeycomb panel 1 is the main structure of this utility model and can be any type of honeycomb panel known in the prior art, such as aluminum honeycomb panel, paper honeycomb panel, plastic honeycomb panel, etc., and its specific material and structure are not limited.

[0027] Furthermore, a mounting frame 2 is provided on the outer periphery of the honeycomb panel 1. The mounting frame 2 surrounds the edge of the honeycomb panel 1, providing a mounting base and support for subsequent splicing structures. The mounting frame 2 can be made of metal, plastic, or other suitable materials, and its shape and size match the edge of the honeycomb panel 1.

[0028] Recesses 3 are provided around all four sides of the mounting frame 2. These recesses 3 extend along the length of the mounting frame 2, forming a space for accommodating and supporting rotatable components. The shape and size of the recesses 3 are designed to mate with the components installed inside them.

[0029] A mounting block 4 is rotatably mounted within the groove 3. This mounting block 4 is a key component for enabling interface type switching in this invention. The mounting block 4 is positioned inside the groove 3 and can rotate relative to the mounting frame 2 and the groove 3. The rotation of the mounting block 4 can be achieved in various ways, such as through a rotating shaft, bearing, or other rotary connection structure. The material of the mounting block 4 can be selected according to actual needs, such as high-strength plastic or metal.

[0030] An insert assembly is provided on one side of the mounting block 4, and a slot assembly is provided on the corresponding side of the mounting block 4. The insert assembly and slot assembly are connection structures used to achieve interlocking connections between honeycomb panels. The insert assembly consists of several inserts, and the slot assembly consists of several slots. The insert assembly and slot assembly are respectively arranged on opposite sides of the mounting block 4, such that when the mounting block 4 is at a certain angle, the insert assembly faces outward and can be used to connect with the slot assembly of another honeycomb panel; when the mounting block 4 is rotated 180 degrees, the slot assembly faces outward and can be used to connect with the insert assembly of another honeycomb panel. The specific shape, number, and arrangement of the insert assembly and slot assembly can be designed according to actual application requirements; for example, a dovetail groove structure, a T-slot structure, or other interlocking structures can be used.

[0031] The insert assembly is used to insert one side of the insert assembly of the honeycomb panel 1 into the slot assembly of another honeycomb panel 1 to splice the two honeycomb panels 1. Through this interlocking, the two honeycomb panels 1 can be reliably connected together to form a whole structure.

[0032] Compared with existing technologies, the core innovation of this detachable and modular honeycomb panel structure lies in the inclusion of a rotatable mounting block 4, on which both insert components and slot components are simultaneously mounted. In existing technologies, the splicing edges of honeycomb panels typically have only one fixed interface type (either an insert or a slot). When the interface types of the two panels to be spliced ​​are the same, they cannot be connected. However, this invention, through the rotatable mounting block 4, allows the splicing edges of the honeycomb panels to present either insert or slot components as needed. For example, when the edges of the two honeycomb panels to be spliced ​​both present insert components, the mounting block 4 of one honeycomb panel can be rotated 180 degrees to present a slot component, thus enabling splicing with the insert component of the other panel. This design greatly improves the flexibility of honeycomb panel splicing and solves the technical problem of existing technologies where panels with the same type of interface cannot be spliced.

[0033] When splicing the detachable and modular honeycomb panel structure of this utility model, firstly, adjust the mounting block 4 in the groove 3 on the outer periphery mounting frame 2 of the honeycomb panel 1 to a suitable position, so that the insert component on one side or the slot component on the other side faces outward, serving as the splicing interface of the honeycomb panel. When it is necessary to splice two honeycomb panels 1, check the interface type presented by the edges to be spliced ​​of the two panels. If the interface types match (i.e., one panel presents an insert component and the other presents a slot component), directly insert the insert component into the slot component to complete the splicing. If the interface types do not match (e.g., both panels present insert components or both present slot components), select one honeycomb panel and rotate the mounting block 4 in its mounting frame 2 to present an interface type that matches the other panel. For example, if both panels present insert components, rotate the mounting block 4 of one panel 180 degrees to present a slot component. Then, insert the slot component of the panel into the insert component of the other panel to complete the splicing. In this process, the honeycomb panel 1 is the main body for splicing; the mounting frame 2 provides the installation structure; the groove 3 provides space for the rotation of the mounting block 4; the mounting block 4 is the core component for interface switching, and its rotation allows the insert assembly and slot assembly to alternately face outwards; the insert assembly and slot assembly are the structures that realize the physical connection. In this way, this utility model can flexibly meet various splicing requirements, and even honeycomb panels with the same type of interface can be spliced ​​conveniently and quickly, greatly improving construction efficiency and convenience.

[0034] Furthermore, this application also proposes that the rotating shaft used for rotatably mounting the mounting block 4 be a damped rotating shaft.

[0035] Specifically, the mounting block 4 is rotatably mounted within the groove 3 to enable switching between the insert assembly and the slot assembly. To ensure that the mounting block 4 can stably remain in the preset position after being rotated into place, and to avoid accidental rotation due to external forces or vibrations that could affect the stability of the splicing structure, this application uses a damping shaft as the rotating connector for the mounting block 4.

[0036] This damping shaft is a type of shaft that provides a certain amount of resistance. Through the damping effect of the shaft, the mounting block 4 experiences a certain amount of friction or resistance during rotation, preventing it from rotating too easily or arbitrarily. When the mounting block 4 is rotated to a predetermined angle position, the resistance provided by the damping shaft effectively fixes it in that position, preventing it from rotating freely or wobbling without external force. As one possible implementation, the damping shaft can employ a friction-type damping structure, for example, by adjusting the clamping force or friction material between the shaft and the mating components to achieve the damping effect; or it can employ a fluid damping structure, providing damping through the flow resistance of fluid within the cavity. The damping shaft is connected to the mounting block 4 and the mounting frame 2 or groove 3, allowing the mounting block 4 to rotate around the shaft.

[0037] Therefore, by employing a damped pivot, the mounting block 4 can more stably maintain its selected position after rotating to adjust the interface type, making it less prone to displacement or rotation. This not only improves the convenience of the splicing operation—allowing users to easily rotate the mounting block 4 to the desired position and maintain it stably—but also enhances the reliability of the structure after splicing, avoiding the risk of loosening or detachment due to unstable positioning of the mounting block 4. This additional technical feature effectively improves the performance and stability of the entire detachable, modular honeycomb panel structure.

[0038] Furthermore, this application also proposes that door panels 7 are rotatably installed on both the upper and lower sides of the groove 3 to limit the mounting block 4. First adsorption components are provided on both the upper and lower sides of the mounting block 4, and second adsorption components are provided on the bottom end of one door panel 7 and the top end of the other door panel 7. The two door panels 7 are attached to the upper and lower sides of the mounting block 4 by the first adsorption components and the second adsorption components.

[0039] Specifically, these door panels 7 cover the openings of the grooves 3, sealing the grooves 3 under normal use to protect the internal mounting blocks 4, and can be opened when rotation of the mounting blocks 4 is required. The door panels 7 are installed via a rotatable connection, such as a hinge or pivot structure, allowing them to open and close around a pivot axis. When the door panels 7 are in the closed position, they are positioned above and below the mounting blocks 4, providing a certain degree of restraint and preventing vertical displacement of the mounting blocks 4.

[0040] Furthermore, to secure the door panel 7 in place when closed and to assist in stabilizing the position of the mounting block 4 to some extent, first adsorption components are provided on both the upper and lower sides of the mounting block 4, while a second adsorption component is provided on the door panel 7. These first and second adsorption components are positioned in corresponding locations so that when the door panel 7 is closed, the first and second adsorption components can approach each other and generate an adsorption force. In a preferred embodiment, the first adsorption component may include a first magnet 8, and the second adsorption component may include a second magnet 9. These magnets attract each other magnetically, adsorbing and fixing the door panel 7 in the closed position and ensuring it fits tightly against the upper and lower sides of the mounting block 4. See also Figure 3 You can see the relative positions of the first magnet 8 on the mounting block 4 and the second magnet 9 on the door panel 7.

[0041] Therefore, by setting a rotatable door panel 7 and cooperating first and second adsorption components, this utility model provides a convenient and structurally stable solution. The door panel 7 allows users to easily open the cover to rotate the mounting block 4, adjust the interface type, and then close the door panel 7 after operation to protect the internal structure. The adsorption and fixation between the door panel 7 and the mounting block 4, for example through magnetic force, not only ensures the stability of the door panel 7 in the closed state, preventing accidental opening, but also further enhances the positional stability of the mounting block 4 after it has been rotated into place through the adhesion of the door panel 7 to the upper and lower sides of the mounting block 4.

[0042] Furthermore, this application also proposes that one end of the connecting portion 12 extends away from the mounting block 4, and the limiting portion 13 is parallel to the mounting block 4.

[0043] Specifically, the insert 5 further defines the spatial positional relationship of its constituent parts, the connecting portion 12 and the limiting portion 13, relative to the mounting block 4. The connecting portion 12 is the part of the insert 5 used for insertion into the slot 6; one end is fixed to the mounting block 4, and the other end extends away from the mounting block 4, i.e., towards the other honeycomb panel 1 to be joined. The limiting portion 13 is the part of the insert 5 used for limiting and locking within the slot 6. According to the definition in this application, the limiting portion 13 is parallel to the surface of the mounting block 4. See also Figure 6 As can be seen, the insert 5 consists of a connecting part 12 and a limiting part 13, and their approximate shape and interrelationship are shown. The connecting part 12 is strip-shaped and connects directly to the mounting block 4 (not shown, but...). Figure 3 and Figure 4 The mounting block 4 is shown extending outward from one side. The limiting part 13 is plate-shaped, perpendicularly connected to the connecting part 12, and its planar direction is parallel to the surface of the mounting block 4.

[0044] This technical feature further refines the structure of the insert 5, clarifying the relative position and orientation of the connecting part 12 and the limiting part 13. The outward extension of the connecting part 12 facilitates its smooth insertion into the insertion slot 10 of the corresponding slot 6. The parallel orientation of the limiting part 13 to the mounting block 4 allows it to enter the limiting slot 11 of the slot 6 after the insert 5 is inserted, through the relative movement between the honeycomb panels 1, thereby locking the insert 5 within the slot 6 and preventing it from coming out. This specific geometric shape and spatial orientation design...

[0045] Therefore, by defining the specific spatial relationship between the connecting portion 12 and the limiting portion 13 of the insert 5 and the mounting block 4, this application ensures that the insert 5 has the correct insertion and locking directions, providing a structural basis for achieving a stable and reliable interlocking connection. This additional technical feature further optimizes the structure of the insert 5, enabling it to better cooperate with the slot 6 and improving the reliability and stability of the interlocking connection.

[0046] Furthermore, this application also proposes that the slot assembly includes a plurality of slots 6 formed on the other side of the mounting block 4.

[0047] Specifically, this application further defines the structure of a slot assembly for mating with the insert assembly. The slot assembly is disposed on the opposite side of the mounting block 4, i.e., opposite to the side where the insert assembly is located. The slot assembly consists of a plurality of slots 6 formed on the opposite surface of the mounting block 4. See also... Figure 4 As can be seen, multiple rectangular holes are formed on one side surface of the mounting block 4. These holes are the openings of the slots 6. These slots 6 are designed to accommodate and engage with the inserts 5 in the insert assembly. The number and arrangement of the slots 6 correspond to the number and arrangement of the inserts 5 to ensure that the inserts 5 can be smoothly inserted into the corresponding slots 6.

[0048] This technical feature clarifies the composition of the slot assembly and its position on the mounting block 4. By placing the slot assembly on the side of the mounting block 4 opposite to the plug-in assembly, the interface type facing outward can be easily switched when the mounting block 4 is rotated, realizing the interchangeability of the plug-in assembly and the slot assembly. The plurality of slots 6 are the receiving ends of the plug-in connection, and their shape and size match the plug-in 5, which is a necessary structure for realizing a reliable splicing connection.

[0049] Therefore, by providing a slot assembly consisting of several slots 6 on the other side of the mounting block 4, this application provides a connection structure that cooperates with the insert assembly. This structure, together with the insert assembly, constitutes a complete insertion system. Furthermore, because it is positioned in a rotatable position on the mounting block 4, the splicing edge of the honeycomb panel can flexibly switch between the insert interface and the slot interface, thereby solving the problem of splicing the same type of interface and improving the flexibility and convenience of splicing.

[0050] Furthermore, this application also proposes that several of the slots 6 include an insertion slot 10 and a limiting slot 11, which are connected to each other.

[0051] Specifically, this application further defines the internal structure of the slot 6. Each slot 6 is not a simple opening, but consists of two interconnected parts: an insertion slot 10 and a limiting slot 11. See also Figure 6The internal structure of slot 6 can be seen. Insertion slot 10 is usually located near the opening of slot 6 for the initial insertion of plug 5, while limiting slot 11 is connected to insertion slot 10 and extends to the side or inside for locking after plug 5 is inserted. The communication between insertion slot 10 and limiting slot 11 allows plug 5 to move into limiting slot 11 after being inserted into insertion slot 10.

[0052] This technical feature details the internal structure of the slot 6, revealing its working principle for achieving insertion and locking. The insertion slot 10 provides an entrance, allowing the insert 5 (particularly the connecting part 12) to easily enter the slot 6. The limiting slot 11 provides a space for accommodating the limiting part 13 of the insert 5. By inserting the insert 5 into the insertion slot 10 and then moving it laterally relative to the slot 6, the limiting part 13 of the insert 5 enters the limiting slot 11, thereby locking the insert 5 within the slot 6 and preventing it from dislodging in the insertion direction. This structure, where the insertion slot 10 and the limiting slot 11 communicate, forms an "L"-shaped or similar locking path, which is crucial for reliably securing the insert 5.

[0053] Therefore, by designing the slot 6 as a structure containing interconnected insertion slots 10 and limiting slots 11, this application provides a step-by-step insertion and locking mechanism. This mechanism allows the insert block 5 to be easily inserted first, and then reliably locked through simple relative movement, significantly improving the stability and anti-detachment capability of the spliced ​​connection. Compared with a simple through slot, this structure can more effectively prevent the spliced ​​honeycomb panel from loosening or detaching due to force, enhancing the reliability and safety of the entire structure.

[0054] Furthermore, this application also proposes that the widths of the insertion groove 10 and the limiting groove 11 are greater than the widths of the connecting portion 12 and the limiting portion 13, respectively.

[0055] Specifically, this application further defines the dimensional relationship between the insertion slot 10 and the limiting slot 11 inside the slot 6 and the connecting portion 12 and the limiting portion 13 of the plug 5. The width of the insertion slot 10 is designed to be greater than the width of the connecting portion 12 of the plug 5. This means that the connecting portion 12 can enter the insertion slot 10 relatively loosely, providing sufficient clearance to facilitate the smooth insertion of the plug 5 and avoid jamming. At the same time, the width of the limiting slot 11 is designed to be greater than the width of the limiting portion 13 of the plug 5. This means that when the limiting portion 13 of the plug 5 moves into the limiting slot 11, there is also a certain clearance, allowing the limiting portion 13 to be positioned and locked within the limiting slot 11. See also Figure 6 Although the width dimensions are not directly marked in the figure, the schematic diagram reflects that the opening dimensions of the insertion slot 10 and the limiting slot 11 are larger than the corresponding dimensions of the connecting part 12 and the limiting part 13 of the insertion block 5.

[0056] This technical feature, through a clearly defined dimensional fit, ensures smooth insertion and reliable locking between the insert 5 and the slot 6. The width of the insertion slot 10 is greater than the width of the connecting part 12, ensuring that the insert 5 can be easily aligned and inserted into the slot 6, reducing installation difficulty. The width of the limiting slot 11 is greater than the width of the limiting part 13, ensuring that the limiting part 13 can smoothly enter the limiting slot 11, allowing for certain tolerances, while providing some room for movement after locking to avoid excessive stress concentration, while still effectively preventing the insert 5 from dislodging along the insertion direction. This reasonable dimensional fit is key to achieving convenient installation and a secure connection.

[0057] Therefore, by limiting the widths of the insertion slot 10 and the limiting slot 11 to be greater than the widths of the connecting portion 12 and the limiting portion 13, this application optimizes the mating relationship between the insertion block 5 and the slot 6. This dimensional design makes the insertion process smoother, reduces installation difficulty, and provides the necessary clearance in the locked state, improving the reliability and durability of the connection. This additional technical feature further refines the details of the insertion structure, enhancing the overall structural performance.

[0058] Furthermore, this application also proposes that a gap 14 is provided between the rear side of the mounting block 4 and the rear wall of the groove 3, and the gap 14 extends to both sides of the mounting block 4 to facilitate the rotation of the mounting block 4 and the docking of the two mounting blocks 4.

[0059] Specifically, this application further defines the spatial layout of the mounting block 4 within the recess 3. A certain gap 14 is maintained between the mounting block 4 and the rear wall of the recess 3 on the rear side, i.e., the side facing away from the insert assembly and slot assembly. See also... Figure 7 As can be seen, mounting block 4 is located within groove 3, and there is a noticeable gap 14 between its rear side and the rear wall of groove 3. This gap 14 not only exists in the middle of the rear side of mounting block 4, but also extends to the left and right sides of mounting block 4. This means that mounting block 4 is not completely tightly fitted within groove 3, but rather has space left behind and to its sides.

[0060] This technical feature provides the necessary space for the rotation of the mounting block 4 by setting a specific gap 14. Since the mounting block 4 needs to rotate 180 degrees within the groove 3 to switch interface types, rotation would be hindered or even impossible if there were insufficient clearance between the mounting block 4 and the inner wall of the groove 3. The existence of this gap 14, especially its extension to both sides of the mounting block 4, ensures that the mounting block 4 does not interfere with the inner wall of the groove 3 during rotation, thus guaranteeing smooth rotation of the mounting block 4. Furthermore, this gap 14 also facilitates the butt joint and alignment of the mounting blocks 4 on the mounting frames 2 of two adjacent honeycomb panels 1 during splicing, providing tolerance space and simplifying the installation process.

[0061] Therefore, by providing gaps 14 between the mounting block 4 and the rear wall of the groove 3 on the rear and sides, this application effectively solves the spatial interference problem when the mounting block 4 rotates, ensuring that the mounting block 4 can rotate freely and smoothly, realizing the switching of interface types. At the same time, this gap also facilitates the docking of adjacent mounting blocks 4, improving the installation convenience of the overall structure. This additional technical feature is the optimized design of the movement space of the mounting block 4 within the groove 3, which is an important detail to ensure its functional realization.

[0062] Furthermore, this application also proposes that door panels 7 are rotatably installed on both the upper and lower sides of the groove 3 to limit the mounting block 4. First adsorption components are provided on both the upper and lower sides of the mounting block 4, and second adsorption components are provided on the bottom end of one door panel 7 and the top end of the other door panel 7. The two door panels 7 are attached to the upper and lower sides of the mounting block 4 by the first adsorption components and the second adsorption components.

[0063] Specifically, the upper and lower edges of the groove 3 on the mounting frame 2 are designed to allow for the rotation of the door panel 7. See also Figure 2 and Figure 3 As can be seen, door panels 7 are positioned on the upper and lower sides of the mounting frame 2, covering the openings of the grooves 3 above and below. These door panels 7 are connected to the mounting frame 2 or the grooves 3 via a rotatable connection, such as a hinge or pivot structure, allowing the door panels 7 to be easily opened by flipping up or down to facilitate operation of the mounting blocks 4 within the grooves 3. After operation, they are closed by flipping down or up, covering the openings of the grooves 3. When the door panels 7 are in the closed position, they are positioned above and below the mounting blocks 4, thus limiting the vertical movement of the mounting blocks 4.

[0064] Furthermore, to secure the door panel 7 in place when closed and enhance the stability of the mounting block 4, first adsorption components are provided on both the upper and lower sides of the mounting block 4, while second adsorption components are provided on the door panel 7. These first and second adsorption components are positioned in corresponding locations so that when the door panel 7 is closed, the first and second adsorption components can approach each other and generate adsorption force, thereby adsorbing and fixing the door panel 7 in the closed position and ensuring a tight fit with the upper and lower sides of the mounting block 4. This fit not only secures the door panel 7 but also applies pressure or constraint to the mounting block 4 through the door panel 7, further stabilizing the position of the mounting block 4.

[0065] Therefore, by setting a rotatable door panel 7 and cooperating first and second adsorption components, this application provides a convenient and structurally stable solution. The door panel 7 allows users to easily open the cover to rotate the mounting block 4, adjust the interface type, and then close the door panel 7 after operation to protect the internal structure. The adsorption and fixation between the door panel 7 and the mounting block 4, for example, through magnetic force, not only ensures the stability of the door panel 7 in the closed state, preventing accidental opening, but also, through the adhesion of the door panel 7 to the upper and lower sides of the mounting block 4, further enhances the positional stability of the mounting block 4 after rotation, improving the reliability and user experience of the entire splicing structure.

[0066] Furthermore, this application also proposes that the first adsorption component includes two first magnets 8, and the second adsorption component includes two second magnets 9, with the positions of the two first magnets 8 and the two second magnets 9 corresponding to each other.

[0067] Specifically, this application further clarifies the specific configuration of the first and second adsorption components used to achieve adsorption fixation between the door panel 7 and the mounting block 4. The first adsorption component is specifically defined as including two first magnets 8, which are disposed on the upper and lower sides of the mounting block 4. Simultaneously, the second adsorption component is specifically defined as including two second magnets 9, which are disposed on the door panel 7. Specifically, two second magnets 9 are disposed at the bottom of one door panel 7 (e.g., the upper door panel), and two second magnets 9 are disposed at the top of another door panel 7 (e.g., the lower door panel). See also Figure 3 As can be seen, two first magnets 8 are provided on the upper and lower sides of the mounting block 4, and a second magnet 9 is provided at the corresponding position of the door panel 7. The positions of the first magnet 8 and the second magnet 9 are corresponding, so that when the door panel 7 is closed, the first magnet 8 and the second magnet 9 can approach each other and generate magnetic attraction.

[0068] This technical feature provides a simple and effective fixing method by using magnets as adsorption components. The first magnet 8 and the second magnet 9 can be permanent magnets or other materials with adsorption capabilities. The first magnet 8 is positioned on the upper and lower sides of the mounting block 4, and the second magnet 9 is correspondingly positioned on the door panel 7 at the same location as the first magnet 8. This ensures that when the door panel 7 is closed, it can be firmly adsorbed onto the upper and lower sides of the mounting block 4 by magnetic force. Using two magnets instead of one provides a stronger adsorption force, and by rationally arranging the positions of the two magnets, the adsorption force can be distributed more evenly, thus more stably fixing the door panel 7 and the mounting block 4.

[0069] Therefore, by specifically implementing the adsorption components as corresponding first magnets 8 and second magnets 9, and employing a configuration of two magnets, this application provides a reliable and easily implemented solution for fixing door panels and stabilizing mounting blocks. Magnetic adsorption eliminates the need for mechanical locking, is easy to operate, and provides continuous fixing force. The arrangement of two magnets enhances the adsorption effect, allowing the door panel 7 to remain more securely closed. Simultaneously, the adsorption effect of the door panel 7 on the upper and lower sides of the mounting block 4 further improves the positional stability of the mounting block 4 after it has been rotated into place, enhancing the reliability of the entire splicing structure.

[0070] The above descriptions are merely some embodiments of this utility model. For those skilled in the art, various modifications and improvements can be made without departing from the inventive concept of this utility model, and all such modifications and improvements fall within the protection scope of this utility model.

Claims

1. Detachable, spliced, modular honeycomb panel structure comprising a honeycomb panel (1), characterized in that: The outer periphery of the honeycomb panel (1) is provided with an installation frame (2), and the four sides of the installation frame (2) are provided with grooves (3). An installation block (4) is rotatably installed in the groove (3). An insertion block assembly is provided on one side of the installation block (4), and a slot assembly is provided on the other side of the corresponding installation block (4) for inserting the insertion block assembly on one side of the honeycomb panel (1) into the slot assembly of another honeycomb panel (1) to splice the two honeycomb panels (1).

2. The demountable, snap-together, modular honeycomb panel structure of claim 1, wherein: The plug assembly includes a plurality of plugs (5) disposed on one side of the mounting block (4), and the plurality of plugs (5) are horizontally equidistant.

3. The demountable, snap-together, modular honeycomb panel structure of claim 2, wherein: Each of the aforementioned inserts (5) includes a connecting portion (12) and a limiting portion (13), wherein the limiting portion (13) is arranged perpendicularly to the connecting portion (12).

4. The demountable, snap-together, modular honeycomb panel structure of claim 3, wherein: One end of the connecting part (12) extends away from the mounting block (4), and the limiting part (13) is parallel to the mounting block (4).

5. The demountable, snap-together, modular honeycomb panel structure of claim 4, wherein: The slot assembly includes several slots (6) opened on the other side of the mounting block (4).

6. The demountable, snap-together, modular honeycomb panel structure of claim 5, wherein: Each of the slots (6) includes an insertion slot (10) and a limiting slot (11) connected to each other.

7. The demountable, snap-together, modular honeycomb panel structure of claim 6, wherein: The widths of the insertion groove (10) and the limiting groove (11) are greater than the widths of the connecting part (12) and the limiting part (13), respectively.

8. The demountable, snap-together, modular honeycomb panel structure of claim 7, wherein: A gap (14) is provided between the rear side of the mounting block (4) and the rear wall of the groove (3), and the gap (14) extends to both sides of the mounting block (4) to facilitate the rotation of the mounting block (4) and the docking of the two mounting blocks (4).

9. The demountable, snap-together, modular honeycomb panel structure of claim 8, wherein: Door panels (7) are rotatably installed on both the upper and lower sides of the groove (3) to limit the mounting block (4). First adsorption components are provided on both the upper and lower sides of the mounting block (4). Second adsorption components are provided at the bottom of one of the door panels (7) and the top of the other door panel (7). The two door panels (7) are attached to the upper and lower sides of the mounting block (4) by the first adsorption components and the second adsorption components.

10. The demountable, snap-together, modular honeycomb panel structure of claim 9, wherein: The first adsorption component includes two first magnets (8), and the second adsorption component includes two second magnets (9), with the positions of the two first magnets (8) and the two second magnets (9) corresponding to each other.

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