A magnetically attached honeycomb composite rock panel with small connection gaps and its assembly method

Abstract

This invention discloses a magnetic honeycomb composite rock panel with small connection gaps and its assembly method, relating to the field of composite rock panel technology. The magnetic honeycomb composite rock panel with small connection gaps includes a substrate, a drying layer, a silicone layer, a limiting ring, a limiting plate, a rubber flexible plate, a magnetic plate, a ceramic rock panel, a connecting layer, and a retaining plate. The silicone layer is disposed on top of the substrate, the limiting ring is disposed on top of the substrate, the limiting plates are symmetrically disposed inside the limiting ring, the magnetic plate is disposed on top of the rubber flexible plate, the connecting layer is disposed at the bottom of the ceramic rock panel, and the retaining plate is disposed at the bottom of the connecting layer. This invention uses the limiting ring and limiting plate to limit the retaining plate, preventing the magnetic plate from separating from the retaining plate due to external forces. The silicone layer protrudes outwards during floor installation due to pressure from the ceramic rock panel, ensuring a tight bond and waterproofing between adjacent silicone layers.

Description

Technical Field

[0001] This invention relates to the field of composite rock panel technology, specifically to a magnetic honeycomb composite rock panel with small connection gaps and its assembly method. Background Technology

[0002] Composite slabs are a common type of flooring used for wall decoration. Traditional composite slabs cannot be bonded to walls with cement and can only be glued on, which wastes a lot of glue and money. Magnetic honeycomb composite slabs can be magnetically attached to the wall by setting a magnetic structure on a fixing plate that can be glued to the wall with cement.

[0003] The existing composite rock slabs have the following defects:

[0004] 1. Existing technology JPH03213333A discloses a composite panel. The structure of this panel cannot be installed on the wall by magnetic attraction. For composite rock panels, cement cannot be used for bonding, only glue can be used. The bonding cost is high and replacement is inconvenient. Therefore, there is a need for a magnetic honeycomb composite rock panel with small connection gaps that can be installed on the wall by magnetic attraction and cement.

[0005] 2. Existing technology JPH02225747A discloses a double-layer thin-plate composite panel, which provides a technology to reduce the weight of the composite panel. However, this technology does not have a tight waterproof structure. When the panel is laid on the wall, gaps can easily appear between the panels, allowing external water to seep into the wall through the gaps. This can lead to panel corrosion and poor adhesion. Therefore, a magnetic honeycomb composite rock panel with a waterproof structure between the rock panels and small connection gaps is needed to solve this problem.

[0006] 3. Existing technology JPH09277446A discloses the production of stone composite panels. This technology aims to reduce stone cracking during panel manufacturing. However, this technology does not have a cushioning structure. When the panel is laid on the wall and subjected to impact, the adhesive between the panel and the wall is prone to cracking and falling off. Therefore, a magnetic honeycomb composite rock panel with small connection gaps that can cushion external impacts is needed to solve this problem.

[0007] 4. Existing technology CN218479436U discloses a magnetic honeycomb composite rock panel, which is fixedly connected by adsorption of metal sheets and magnets. It is easy to install, low in cost and fast. However, this rock panel does not have a heat-absorbing structure. After the rock panel is installed on the outside wall and heated by sunlight, it is easy to transfer heat to the room through the components, causing the indoor temperature to rise. Therefore, a magnetic honeycomb composite rock panel with small connection gaps that can absorb heat and reduce the rate of temperature rise is needed to solve this problem. Summary of the Invention

[0008] One objective of this application is to provide a magnetically attached honeycomb composite rock panel with small connection gaps and its assembly method, which can solve the technical problems raised in the prior art.

[0009] To achieve the above objectives, the present invention provides the following technical solution: a magnetic honeycomb composite rock panel with small connection gaps, the magnetic honeycomb composite rock panel with small connection gaps includes a substrate, a drying layer, a silicone layer, a limiting ring, a limiting plate, a rubber flexible plate, a magnet plate, a ceramic rock panel, a connecting layer, a retaining plate, a heat-absorbing layer, and an aluminum honeycomb core layer. The drying layer is disposed on the top of the substrate to absorb moisture. The silicone layer is disposed on the top of the substrate and is located outside the drying layer to prevent external water from entering between adjacent substrates. The limiting ring is disposed on the top of the substrate to restrict the movement of the connecting layer. The limiting plates are symmetrically disposed inside the limiting ring to restrict the vertical movement of the retaining plate. The rubber flexible plate is disposed on the top of the substrate and is located inside the limiting ring to buffer the magnet plate. The magnet plate is disposed on the top of the rubber flexible plate to magnetically attract the retaining plate.

[0010] The ceramic slab is movably disposed above the silicone layer, the connecting layer is disposed at the bottom of the ceramic slab, the clamping plate is disposed at the bottom of the connecting layer and is used to engage with the limiting plate, the heat-absorbing layer is disposed at the bottom of the ceramic slab and is used to absorb the heat of the ceramic slab, and the aluminum honeycomb core layer is disposed at the bottom of the ceramic slab.

[0011] Preferably, the substrate is one of iron, copper or aluminum, and the surface of the substrate is rough.

[0012] Preferably, the drying layer comprises calcium oxide powder and a sponge, with the calcium oxide powder evenly distributed inside the pores of the sponge.

[0013] Preferably, the rubber sheet material is polyurethane foam.

[0014] Preferably, the connecting layer is one of polyethylene board, wood board, aluminum board and steel board.

[0015] Preferably, the pallet material is one of iron, cobalt, and nickel.

[0016] Preferably, the heat-absorbing layer comprises an annular polyethylene shell and a heat storage material, wherein the heat storage material is one of palmitic acid, stearic acid, palmitic acid, oleic acid, linoleic acid and linolenic acid.

[0017] Preferably, the silicone layer is made of soft silicone that is easily deformable.

[0018] Preferably, the assembly method of the magnetically attached honeycomb composite rock panel with small connection gaps is as follows:

[0019] S1. Lay the substrate flat on a smooth surface, then glue the cylindrical limiting ring to the top center of the substrate. Next, glue the limiting plate symmetrically to the inner walls of both sides of the limiting ring. Then, glue the soft rectangular silicone ring to the top of the substrate. Then, glue the rubber soft plate to the substrate. Finally, glue the magnet plate to the top of the rubber soft plate.

[0020] S2. Next, the ceramic rock slab is laid flat on a smooth surface. Then, the heat storage material is filled into the interior of the polyethylene shell through the top opening of the annular polyethylene shell. Then, the side of the polyethylene shell with the opening is glued to the ceramic rock slab to form a heat absorption layer. Then, the aluminum honeycomb core layer is glued to the top of the heat absorption layer.

[0021] S3. Then, the connecting layer is glued to the top center of the ceramic slab, and then the card plate is glued to the top of the connecting layer.

[0022] S4. Finally, flip the ceramic slab up and down so that the card is inserted into the limiting ring at the top of the substrate. Then rotate the ceramic slab horizontally by 90 degrees so that the card is attracted by the magnetic plate. At the same time, the limiting plate can prevent the card from coming out of the limiting ring, and the silicone layer is squeezed outward by the ceramic slab.

[0023] Preferably, step S1 further includes the following steps:

[0024] S11. Sprinkle calcium oxide powder evenly onto a rectangular sponge sheet with a central hole, then vibrate the sponge sheet to allow the calcium oxide powder to evenly enter the holes of the sponge sheet. Then, glue the sponge sheet mixed with calcium oxide powder onto the substrate to form a dry layer.

[0025] Compared with the prior art, the beneficial effects of the present invention are:

[0026] 1. This invention uses a limiting ring and a limiting plate to limit the position of the card plate, preventing the magnetic plate from separating from the card plate due to external forces on the ceramic slab, thus increasing the stability of the connection between the ceramic slab and the substrate. This allows the magnetic honeycomb composite slab with small connection gaps to be limited by the limiting ring and limiting plate, preventing the magnetic plate from separating from the card plate due to external forces on the ceramic slab, and increasing the stability of the connection between the ceramic slab and the substrate.

[0027] 2. The silicone layer in this invention protrudes outwards during floor installation due to the pressure exerted by the ceramic slab, ensuring a tight bond between adjacent silicone layers. This prevents external water from penetrating the substrate, resulting in excellent waterproofing. Furthermore, the magnetic honeycomb composite slab with minimal seams benefits from this silicone layer.

[0028] 3. The present invention, through the provision of a silicone layer and a rubber soft plate, can reduce the impact on the substrate when the ceramic rock slab is subjected to impact force, thereby reducing the probability of the adhesive such as concrete between the substrate and the wall falling off. The magnetic honeycomb composite rock slab with small connection gaps can reduce the impact on the substrate when the ceramic rock slab is subjected to impact force through the provision of a silicone layer and a rubber soft plate, thereby reducing the probability of the adhesive such as concrete between the substrate and the wall falling off.

[0029] 4. The present invention can absorb the heat received by the ceramic slab through the heat-absorbing layer, thereby reducing the impact of the heat from the ceramic slab on the substrate, making the floor more heat-insulating. The magnetic honeycomb composite slab with small joint gaps can absorb the heat received by the ceramic slab through the heat-absorbing layer, thereby reducing the impact of the heat from the ceramic slab on the substrate, making the floor more heat-insulating. Attached Figure Description

[0030] Figure 1 This is a perspective view of the present invention;

[0031] Figure 2 This is a front sectional view of the present invention;

[0032] Figure 3 This is a schematic diagram of the substrate structure of the present invention;

[0033] Figure 4 This is a schematic diagram of the limiting ring structure of the present invention;

[0034] Figure 5 This is a schematic diagram of the bottom structure of the ceramic slab of the present invention;

[0035] Figure 6 This is a flowchart of the assembly method of the present invention.

[0036] In the figure: 1. Substrate; 2. Drying layer; 3. Limiting ring; 4. Limiting plate; 5. Rubber flexible plate; 6. Magnet plate; 7. Silicone layer; 8. Ceramic rock plate; 9. Connecting layer; 10. Card plate; 11. Heat-absorbing layer; 12. Aluminum honeycomb core layer. Detailed Implementation

[0037] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0038] In the description of this invention, it should be noted that the terms "upper," "lower," "inner," "outer," "front end," "rear end," "both ends," "one end," and "the other end," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of describing this invention and for simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this invention. Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0039] In the description of this invention, it should be noted that, unless otherwise explicitly specified and limited, the terms "installed," "equipped with," "connected," etc., should be interpreted broadly. For example, "connection" can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium; it can be a connection within two components. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.

[0040] Please see Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 and Figure 6A magnetic honeycomb composite rock panel with small connection gaps is disclosed. The magnetic honeycomb composite rock panel includes a substrate 1, a drying layer 2, a silicone layer 7, a limiting ring 3, a limiting plate 4, a rubber flexible plate 5, a magnetic plate 6, a ceramic rock panel 8, a connecting layer 9, a retaining plate 10, a heat-absorbing layer 11, and an aluminum honeycomb core layer 12. The drying layer 2 is disposed on top of the substrate 1 to absorb moisture. The silicone layer 7 is disposed on top of the substrate 1 and located outside the drying layer 2 to prevent external water from entering between adjacent substrates 1. Position ring 3 is disposed on the top of substrate 1. It is made of rigid material, such as solid plastic or metal that is not easily deformed, and is used to restrict the movement of connecting layer 9. Limiting plate 4 is symmetrically disposed inside the limiting ring 3. It is made of rigid material, such as solid plastic or metal that is not easily deformed, and is used to restrict the up and down movement of card plate 10. Rubber soft plate 5 is disposed on the top of substrate 1 and is located inside the limiting ring 3. It is used to buffer magnet plate 6. Magnet plate 6 is disposed on top of rubber soft plate 5 and is used to magnetically attract card plate 10.

[0041] The ceramic slab 8 is movably positioned above the silicone layer 7, the connecting layer 9 is positioned at the bottom of the ceramic slab 8, the clamping plate 10 is positioned at the bottom of the connecting layer 9 and is used to clamp with the limiting plate 4, the heat-absorbing layer 11 is positioned at the bottom of the ceramic slab 8 and is used to absorb the heat of the ceramic slab 8, and the aluminum honeycomb core layer 12 is positioned at the bottom of the ceramic slab 8.

[0042] The substrate 1 is made of iron, copper or aluminum, and the surface of the substrate 1 is rough.

[0043] The drying layer 2 includes calcium oxide powder and a sponge, with the calcium oxide powder evenly distributed inside the pores of the sponge.

[0044] The rubber flexible sheet 5 is made of polyurethane foam.

[0045] The connecting layer 9 is one of polyethylene board, wood board, aluminum board and steel board.

[0046] The material of the pallet 10 is one of iron, cobalt and nickel.

[0047] The heat-absorbing layer 11 includes an annular polyethylene shell and a heat storage material, which is one of palmitic acid, stearic acid, palmitic acid, oleic acid, linoleic acid and linolenic acid.

[0048] The material of silicone layer 7 is soft silicone that is easily deformable.

[0049] The assembly method for magnetically attached honeycomb composite rock panels with small joint gaps is as follows:

[0050] S1. Lay the substrate 1 flat on a smooth surface, then glue the cylindrical limiting ring 3 to the top center of the substrate 1 by adhesive bonding. Then glue the limiting plate 4 symmetrically to the inner walls of both sides of the limiting ring 3 by adhesive bonding. Next, glue the soft rectangular silicone ring to the top of the substrate 1 by adhesive bonding. Then glue the rubber soft plate 5 to the substrate 1 by adhesive bonding. Then glue the magnet plate 6 to the top of the rubber soft plate 5 by adhesive bonding.

[0051] S2. Next, the ceramic rock plate 8 is laid flat on a smooth surface. Then, the heat storage material is filled into the interior of the polyethylene shell through the top opening of the annular polyethylene shell. Then, the side of the polyethylene shell with the opening is glued to the ceramic rock plate 8 to form the heat absorption layer 11. Then, the aluminum honeycomb core layer 12 is glued to the top of the heat absorption layer 11.

[0052] S3. Then, the connecting layer 9 is glued to the top center of the ceramic slab 8 by adhesive bonding, and then the card plate 10 is glued to the top of the connecting layer 9 by adhesive bonding.

[0053] S4. Finally, flip the ceramic rock plate 8 upside down so that the card plate 10 is inserted into the limiting ring 3 at the top of the substrate 1. Then rotate the ceramic rock plate 8 horizontally by 90 degrees so that the card plate 10 is attracted by the magnet plate 6. At the same time, the limiting plate 4 can prevent the card plate 10 from coming off the limiting ring 3, and the silicone layer 7 is squeezed outward by the ceramic rock plate 8.

[0054] The following steps also exist in S1:

[0055] S11. Sprinkle calcium oxide powder evenly onto a rectangular sponge sheet with a central hole, then vibrate the sponge sheet to allow the calcium oxide powder to evenly enter the holes of the sponge sheet. Then, glue the sponge sheet mixed with calcium oxide powder onto the substrate 1 to form a dry layer 2.

[0056] Example 1:

[0057] 1. Lay the iron substrate 1 flat on a smooth surface. Then, glue the cylindrical rigid plastic limiting ring 3 to the top center of the iron substrate 1. Next, glue the rigid plastic limiting plate 4 symmetrically to the inner walls of both sides of the plastic limiting ring 3. Then, glue the soft rectangular silicone ring to the top of the iron substrate 1. Then, glue the rubber soft plate 5 to the substrate 1. Finally, glue the magnet plate 6 to the top of the rubber soft plate 5.

[0058] 2. Sprinkle calcium oxide powder evenly on a rectangular sponge sheet with a central hole, then vibrate the sponge sheet to allow the calcium oxide powder to evenly enter the holes of the sponge sheet. Then, glue the sponge sheet mixed with calcium oxide powder onto the iron substrate 1 to form a dry layer 2.

[0059] Third, the ceramic slab 8 is then laid flat on a smooth surface. Stearic acid is then filled into the interior of the polyethylene shell through the top opening of the annular polyethylene shell. The open side of the polyethylene shell is then glued to the ceramic slab 8 to form a heat-absorbing layer 11. The aluminum honeycomb core layer 12 is then glued to the top of the heat-absorbing layer 11.

[0060] Fourth, the polyethylene material connecting layer 9 is then glued to the top center of the ceramic rock slab 8 by adhesive bonding, and then the iron card plate 10 is glued to the top of the polyethylene material connecting layer 9 by adhesive bonding.

[0061] Fifth, finally, flip the ceramic rock plate 8 upside down so that the iron card plate 10 is inserted into the plastic limiting ring 3 at the top of the iron base plate 1. Then rotate the ceramic rock plate 8 horizontally by 90 degrees so that the iron card plate 10 is attracted by the magnet plate 6. At the same time, the plastic limiting plate 4 can prevent the iron card plate 10 from coming off the plastic limiting ring 3, and the silicone layer 7 is squeezed outward by the ceramic rock plate 8.

[0062] Example 2:

[0063] 1. Lay the iron substrate 1 flat on a smooth surface. Then, glue the cylindrical rigid plastic limiting ring 3 to the top center of the iron substrate 1. Next, glue the rigid plastic limiting plate 4 symmetrically to the inner walls of both sides of the plastic limiting ring 3. Then, glue the soft rectangular silicone ring to the top of the iron substrate 1. Then, glue the rubber soft plate 5 to the substrate 1. Finally, glue the magnet plate 6 to the top of the rubber soft plate 5.

[0064] Second, the ceramic slab 8 is then laid flat on a smooth surface. Stearic acid is then filled into the interior of the polyethylene shell through the top opening of the annular polyethylene shell. The open side of the polyethylene shell is then glued to the ceramic slab 8 to form a heat-absorbing layer 11. The aluminum honeycomb core layer 12 is then glued to the top of the heat-absorbing layer 11.

[0065] Third, the polyethylene material connecting layer 9 is then glued to the top center of the ceramic rock slab 8 by adhesive bonding, and then the iron plate 10 is glued to the top of the polyethylene material connecting layer 9 by adhesive bonding.

[0066] Fourth, the ceramic rock plate 8 is flipped up and down so that the iron card plate 10 is inserted into the plastic limiting ring 3 at the top of the iron base plate 1. Then, the ceramic rock plate 8 is rotated horizontally by 90 degrees so that the iron card plate 10 is attracted by the magnet plate 6. At the same time, the plastic limiting plate 4 can prevent the iron card plate 10 from coming off the plastic limiting ring 3, and the silicone layer 7 is squeezed outward by the ceramic rock plate 8.

[0067] Example 3:

[0068] 1. Lay the iron substrate 1 flat on a smooth surface, then glue the cylindrical rigid plastic limiting ring 3 to the top center of the iron substrate 1 by adhesive bonding. Then glue the rigid plastic limiting plate 4 symmetrically to the inner walls of both sides of the plastic limiting ring 3 by adhesive bonding. Then glue the rubber flexible plate 5 to the substrate 1 by adhesive bonding. Then glue the magnet plate 6 to the top of the rubber flexible plate 5 by adhesive bonding.

[0069] 2. Sprinkle calcium oxide powder evenly on a rectangular sponge sheet with a central hole, then vibrate the sponge sheet to allow the calcium oxide powder to evenly enter the holes of the sponge sheet. Then, glue the sponge sheet mixed with calcium oxide powder onto the iron substrate 1 to form a dry layer 2.

[0070] Third, the ceramic slab 8 is then laid flat on a smooth surface. Stearic acid is then filled into the interior of the polyethylene shell through the top opening of the annular polyethylene shell. The open side of the polyethylene shell is then glued to the ceramic slab 8 to form a heat-absorbing layer 11. The aluminum honeycomb core layer 12 is then glued to the top of the heat-absorbing layer 11.

[0071] Fourth, the polyethylene material connecting layer 9 is then glued to the top center of the ceramic rock slab 8 by adhesive bonding, and then the iron card plate 10 is glued to the top of the polyethylene material connecting layer 9 by adhesive bonding.

[0072] Fifth, finally, flip the ceramic rock plate 8 upside down so that the iron card plate 10 is inserted into the plastic limiting ring 3 at the top of the iron base plate 1. Then rotate the ceramic rock plate 8 horizontally by 90 degrees so that the iron card plate 10 is attracted by the magnet plate 6. At the same time, the plastic limiting plate 4 can prevent the iron card plate 10 from coming off the plastic limiting ring 3, and the silicone layer 7 is squeezed outward by the ceramic rock plate 8.

[0073] Example 4:

[0074] 1. Lay the iron substrate 1 flat on a smooth surface. Then, glue the cylindrical rigid plastic limiting ring 3 to the top center of the iron substrate 1. Next, glue the rigid plastic limiting plate 4 symmetrically to the inner walls of both sides of the plastic limiting ring 3. Then, glue the soft rectangular silicone ring to the top of the iron substrate 1. Then, glue the rubber soft plate 5 to the substrate 1. Finally, glue the magnet plate 6 to the top of the rubber soft plate 5.

[0075] 2. Sprinkle calcium oxide powder evenly on a rectangular sponge sheet with a central hole, then vibrate the sponge sheet to allow the calcium oxide powder to evenly enter the holes of the sponge sheet. Then, glue the sponge sheet mixed with calcium oxide powder onto the iron substrate 1 to form a dry layer 2.

[0076] Third, the ceramic slab 8 is then laid flat on a smooth surface, and the aluminum honeycomb core layer 12 is then glued to the top of the ceramic slab 8.

[0077] Fourth, the polyethylene material connecting layer 9 is then glued to the top center of the ceramic rock slab 8 by adhesive bonding, and then the iron card plate 10 is glued to the top of the polyethylene material connecting layer 9 by adhesive bonding.

[0078] Fifth, finally, flip the ceramic rock plate 8 upside down so that the iron card plate 10 is inserted into the plastic limiting ring 3 at the top of the iron base plate 1. Then rotate the ceramic rock plate 8 horizontally by 90 degrees so that the iron card plate 10 is attracted by the magnet plate 6. At the same time, the plastic limiting plate 4 can prevent the iron card plate 10 from coming off the plastic limiting ring 3, and the silicone layer 7 is squeezed outward by the ceramic rock plate 8.

[0079] Example 5:

[0080] 1. Lay the iron substrate 1 flat on a smooth surface. Then, glue the soft rectangular silicone ring to the top of the iron substrate 1. Then, glue the rubber flexible plate 5 to the substrate 1. Then, glue the magnet plate 6 to the top of the rubber flexible plate 5.

[0081] 2. Sprinkle calcium oxide powder evenly on a rectangular sponge sheet with a central hole, then vibrate the sponge sheet to allow the calcium oxide powder to evenly enter the holes of the sponge sheet. Then, glue the sponge sheet mixed with calcium oxide powder onto the iron substrate 1 to form a dry layer 2.

[0082] Third, the ceramic slab 8 is then laid flat on a smooth surface. Stearic acid is then filled into the interior of the polyethylene shell through the top opening of the annular polyethylene shell. The open side of the polyethylene shell is then glued to the ceramic slab 8 to form a heat-absorbing layer 11. The aluminum honeycomb core layer 12 is then glued to the top of the heat-absorbing layer 11.

[0083] Fourth, the polyethylene material connecting layer 9 is then glued to the top center of the ceramic rock slab 8 by adhesive bonding, and then the iron card plate 10 is glued to the top of the polyethylene material connecting layer 9 by adhesive bonding.

[0084] Fifth, finally, flip the ceramic rock plate 8 upside down so that the iron card plate 10 is inserted into the plastic limiting ring 3 at the top of the iron base plate 1. Then rotate the ceramic rock plate 8 horizontally by 90 degrees so that the iron card plate 10 is attracted by the magnet plate 6. At the same time, the plastic limiting plate 4 can prevent the iron card plate 10 from coming off the plastic limiting ring 3, and the silicone layer 7 is squeezed outward by the ceramic rock plate 8.

[0085] Performance testing:

[0086] 1. Waterproofing test: Lay multiple products together tightly on a smooth surface, spray water onto the ceramic slab 8 from above, and observe the bottom of the products for water marks after 10 minutes.

[0087] 2. Humidity detection: Lay multiple products together tightly on a smooth surface, and install a humidity sensor on the bottom of the product to detect the humidity at the bottom of the product. Then, spray water from above onto the ceramic slab 8, and observe and record the humidity sensor data after 10 minutes.

[0088] 3. Anti-detachment test: Observe whether the ceramic slab 8 separates from the substrate 1 by tapping the ceramic slab 8 and pulling it upwards.

[0089] 4. Heat insulation test: Irradiate the ceramic rock plate 8 with a heat lamp, and after 10 minutes, measure the temperature increase of the substrate 1 with a thermometer.

[0090] Test data of each embodiment under the same test conditions

[0091]

[0092]

[0093] Experimental data shows that the magnetic honeycomb composite rock panel of this product, through the setting of the silicone layer 7, can protrude outward by the compression of the silicone layer 7 by the ceramic rock panel 8 during flooring installation. This allows the silicone layers 7 in adjacent flooring to adhere tightly to each other, preventing external water from seeping into the substrate 1 through the silicone layer 7, resulting in good waterproof performance. The setting of the magnetic plate 6 can attract the card plate 10, making connection convenient. The setting of the limiting ring 3 and the limiting plate 4 can prevent the magnetic plate 6 from separating from the card plate 10 due to external forces on the ceramic rock panel 8. The setting of the silicone layer 7 and the rubber soft plate 5 can reduce the impact on the substrate 1 when the ceramic rock panel 8 is subjected to impact force, thereby reducing the probability of the concrete or other adhesives between the substrate 1 and the wall falling off. The setting of the heat-absorbing layer 11 can absorb the heat received by the ceramic rock panel 8, thereby reducing the impact of the heat of the ceramic rock panel 8 on the substrate 1, making the flooring more heat-insulating.

[0094] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention, and no reference numerals in the claims should be construed as limiting the rights involved.

Claims

1. A magnetic honeycomb composite rock panel with small connection gaps, characterized in that: The magnetic honeycomb composite rock panel with small connection gaps includes a base plate (1), a drying layer (2), a silicone layer (7), a limiting ring (3), a limiting plate (4), a rubber flexible plate (5), a magnetic plate (6), a ceramic rock panel (8), a connecting layer (9), a retaining plate (10), a heat-absorbing layer (11), and an aluminum honeycomb core layer (12). The drying layer (2) is located on the top of the base plate (1) to absorb moisture. The silicone layer (7) is located on the top of the base plate (1) and is located outside the drying layer (2) to prevent external moisture. Water enters between two adjacent substrates (1). The limiting ring (3) is set on the top of the substrate (1) to restrict the movement of the connecting layer (9). The limiting plate (4) is symmetrically set inside the limiting ring (3) to restrict the up and down movement of the card plate (10). The rubber soft plate (5) is set on the top of the substrate (1) and is located inside the limiting ring (3) to buffer the magnet plate (6). The magnet plate (6) is set on the top of the rubber soft plate (5) to magnetically attract the card plate (10). The ceramic slab (8) is movably disposed above the silicone layer (7), the connecting layer (9) is disposed at the bottom of the ceramic slab (8), the clamping plate (10) is disposed at the bottom of the connecting layer (9) and is used to engage with the limiting plate (4), the heat-absorbing layer (11) is disposed at the bottom of the ceramic slab (8) and is used to absorb the heat of the ceramic slab (8), and the aluminum honeycomb core layer (12) is disposed at the bottom of the ceramic slab (8).

2. The magnetically attached honeycomb composite rock panel with small connection gaps according to claim 1, characterized in that: The substrate (1) is made of iron, copper or aluminum, and the surface of the substrate (1) is rough.

3. The magnetically attached honeycomb composite rock panel with small connection gaps according to claim 1, characterized in that: The drying layer (2) includes calcium oxide powder and a sponge, with the calcium oxide powder evenly distributed inside the pores of the sponge.

4. The magnetically attached honeycomb composite rock panel with small connection gaps according to claim 1, characterized in that: The rubber flexible sheet (5) is made of polyurethane foam.

5. A magnetically attached honeycomb composite rock panel with small connection gaps according to any one of claims 1-4, characterized in that: The connecting layer (9) is one of polyethylene board, wood board, aluminum board and steel board.

6. The magnetically attached honeycomb composite rock panel with small connection gaps according to claim 1, characterized in that: The material of the card plate (10) is one of iron, cobalt and nickel.

7. A magnetically attached honeycomb composite rock panel with small connection gaps according to claim 1, characterized in that: The heat-absorbing layer (11) includes an annular polyethylene shell and a heat storage material, which is one of palmitic acid, stearic acid, palmitic acid, oleic acid, linoleic acid and linolenic acid.

8. A magnetically attached honeycomb composite rock panel with small connection gaps according to claim 1, characterized in that: The material of the silicone layer (7) is soft silicone that is easily deformable.

9. A method for assembling a magnetically attached honeycomb composite rock panel with small connection gaps according to any one of claims 1-8, characterized in that: The assembly method of the magnetic honeycomb composite rock panel with small connection gaps is as follows: S1. Lay the substrate (1) flat on a smooth surface, then glue the cylindrical limiting ring (3) to the top center of the substrate (1) by adhesive bonding, then glue the limiting plate (4) symmetrically to the inner walls of the two sides of the limiting ring (3) by adhesive bonding, then glue the soft rectangular silicone ring to the top of the substrate (1) by adhesive bonding, then glue the rubber soft plate (5) to the substrate (1) by adhesive bonding, and then glue the magnet plate (6) to the top of the rubber soft plate (5) by adhesive bonding. S2. Next, the ceramic rock plate (8) is laid flat on a smooth surface. Then, the heat storage material is filled into the interior of the polyethylene shell through the top opening of the annular polyethylene shell. Then, the side of the polyethylene shell with the opening is glued to the ceramic rock plate (8) to form a heat absorption layer (11). Then, the aluminum honeycomb core layer (12) is glued to the top of the heat absorption layer (11). S3. Then, the connecting layer (9) is glued to the top center of the ceramic slab (8) by adhesive bonding. Then, the card plate (10) is glued to the top of the connecting layer (9) by adhesive bonding. S4. Finally, flip the ceramic rock plate (8) up and down so that the card plate (10) is inserted into the limiting ring (3) at the top of the substrate (1). Then rotate the ceramic rock plate (8) horizontally by 90 degrees so that the card plate (10) is attracted by the magnet plate (6). At the same time, the limiting plate (4) can prevent the card plate (10) from coming out of the limiting ring (3), and the silicone layer (7) is squeezed outward by the ceramic rock plate (8).

10. The assembly method of a magnetically attached honeycomb composite rock panel with small connection gaps according to claim 9, characterized in that: The following steps also exist in S1: S11. Sprinkle calcium oxide powder evenly on a rectangular sponge sheet with a central hole, then vibrate the sponge sheet to make the calcium oxide powder evenly enter the hole of the sponge sheet. Then, glue the sponge sheet mixed with calcium oxide powder onto the substrate (1) to form a dry layer (2).

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