A non-slip structure for slab ceramic tiles
By using a support sleeve, a magnetically attracted blocking disc, and a cross-shaped limiting clip, the problem of uneven gaps and sliding displacement in slab ceramic tiles is solved, achieving precise gap control and anti-slip effect, thus improving construction quality and safety.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- GAOYAO HONGRUN CERAMICS CO LTD
- Filing Date
- 2025-08-15
- Publication Date
- 2026-07-31
AI Technical Summary
During the installation of sintered stone tiles, there is a lack of effective tools or methods to precisely control the size of the gaps, and newly installed tiles are prone to sliding, displacement, or falling, affecting construction quality and safety.
It employs a support sleeve, a connecting plate, a slit opening mechanism, and a positioning mechanism. It uses magnetic attraction to install a blocking plate and a cross-shaped limit clamp to precisely control the size of the gap, and uses a nail-shaped clamping plate and a pressing plate to prevent sliding displacement and falling.
It enables precise control of gaps, preventing tiles from sliding, shifting, or falling, thus improving tiling quality and construction safety.
Smart Images
Figure CN224579024U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of building decoration technology, and in particular to an anti-slip structure for slab ceramic tiles. Background Technology
[0002] In the field of architectural decoration, sintered stone ceramic tiles are widely used for wall and floor tiling due to their aesthetic appeal, durability, and ease of cleaning. However, there are some problems that urgently need to be addressed during the installation of sintered stone ceramic tiles.
[0003] On the one hand, when laying sintered stone tiles on a wall, it is essential to ensure that there are appropriate gaps between adjacent tiles. Appropriate gaps not only enhance the overall aesthetics of the tiling but also allow space for expansion or contraction of the tiles due to temperature and humidity changes, preventing problems such as cracking and warping caused by stress concentration. However, in practice, there is a lack of effective tools or methods to precisely control the size of the gaps between adjacent tiles, often relying on the experience of the installers, resulting in uneven gap sizes and affecting the quality of the tiling.
[0004] On the other hand, newly laid sintered slab tiles are prone to sliding, displacement, or even falling before they are fully fixed. This is especially true when tiling walls, where the tiles' own weight and potential external forces during installation can easily cause them to slide or shift. This not only disrupts the already laid tile arrangement, increasing construction difficulty and cost, but also poses a threat to the safety of construction workers. Therefore, we propose an anti-slip structure for sintered slab tiles to address these issues. Utility Model Content
[0005] The purpose of this invention is to solve the problems of uneven gaps, easy sliding displacement and falling during the laying of existing slab ceramic tiles, and to propose an anti-slip structure for slab ceramic tiles.
[0006] To achieve the above objectives, the present invention adopts the following technical solution: A non-slip structure for slab ceramic tiles, comprising: Support sleeve; A sleeve plate fitted onto the support sleeve, wherein a mating groove is provided on one side of the sleeve plate; A grooving mechanism is detachably connected to the mating groove. The grooving mechanism includes a blocking plate facing the wall and a cross-shaped limiting clip fixed thereon. The cross-shaped limiting clip is used to insert into the cross joint of four adjacent slab tiles to maintain the gap. Two positioning mechanisms are symmetrically arranged inside the support sleeve. The top and bottom ends of the positioning mechanisms extend to the top and bottom of the support sleeve, respectively. The length is adjusted by thread drive so that the ends of the positioning mechanisms abut against the roof wall and the ground, respectively, to achieve vertical positioning support of the support sleeve.
[0007] In one possible design, the slotting mechanism is connected to the docking groove via a magnetic assemblies. The magnetic assemblies include a magnet I fixed to the inner wall of the docking groove and a magnet II fixed to the back of the blocking plate. The magnet I and magnet II magnetically engage to achieve quick assembly and disassembly.
[0008] In one possible design, the pressing surface of the blocking disc is parallel to the surface of the slab tile, and the cross-shaped limiting clip protrudes vertically from the pressing surface, pressing the tile surface simultaneously when inserted into the cross joint.
[0009] In one possible design, support guide rods are symmetrically fixed on both sides of the socket plate, and a pressing plate is provided at the end of the support guide rod. The pressing surface of the pressing plate and the pressing surface of the blocking plate are on the same plane.
[0010] In one possible design, the positioning mechanism includes a nut II fixed to the support sleeve, an externally threaded sleeve threaded to the nut II, and a nail-shaped snap-fit plate fixed to the end of the externally threaded sleeve. A limiting post is slidably fitted inside the external threaded sleeve. The limiting post is fixed to the inner wall of the supporting sleeve to restrict the rotation path of the external threaded sleeve.
[0011] In one possible design, the contact surface of the nail-shaped snap plate has anti-slip textures, and when the top wall is not applicable, it can be fixed only by the ground support end.
[0012] In one possible design, a nut I is rotatably connected to the top of the socket plate, and the surface of the support sleeve is provided with a threaded groove that engages with the nut I. Rotating the nut I drives the socket plate to move longitudinally along the support sleeve.
[0013] In one possible design, the sleeve plate is slidably connected to a limiting guide rod, the two ends of which are fixed to a support sleeve to restrict the rotational freedom of the sleeve plate.
[0014] In this application, after the sintered stone ceramic tile is laid on the wall, the blocking plate is installed in the mating groove of the socket plate by the magnetic attraction of magnet I and magnet II. At this time, the socket plate supports the blocking plate. Then, the anti-slip structure of the sintered stone ceramic tile is placed in a suitable position on the wall to be laid. By rotating the two nuts II respectively, the two external threaded sleeves are moved under the action of thread transmission, thereby adjusting the position of the two nail-shaped clamping plates, so that the two nail-shaped clamping plates are in close contact with the ceiling wall and the floor of the room respectively, realizing the positioning and support of the support sleeves, and making the entire structure stable in the working position. Then, rotating nut I, under the action of thread transmission, moves the socket plate longitudinally linearly along the limiting guide rod, adjusting the blocking plate. Adjust the height to a suitable level so that the cross-shaped limiting clips can be accurately aligned with the cross joints of the four adjacent slab tiles. Insert the cross-shaped limiting clips into the cross joints of the slab tiles on the wall. The cross-shaped limiting clips support the slab tiles, while the blocking discs press and limit the slab tiles. At the same time, the pressing discs at one end of the support guide rods on both sides of the socket plate, being flush with the blocking discs, also press down on the newly laid slab tiles, effectively preventing the tiles from sliding, shifting, or falling. If it is necessary to replace the blocking discs during actual installation to meet different gap requirements, the original blocking discs can be removed by overcoming the magnetic force, and a new blocking disc can be installed and fixed by magnets I and II to continue the installation.
[0015] Beneficial effects: In this utility model, the anti-slip structure of the slab ceramic tile, through the joint opening mechanism, can support the blocking plate after the blocking plate is installed on the sleeve plate. Then, after the cross-shaped limiting clip is inserted into the cross joint of the slab ceramic tile laid on the wall, the cross-shaped limiting clip can support the slab ceramic tile. At the same time, the blocking plate can also press and limit the slab ceramic tile to prevent it from falling off. In this utility model, the anti-slip structure of the slab ceramic tile, through the positioning mechanism, can drive the two external threaded sleeves to move under the action of thread transmission by rotating the two nuts II respectively. This allows the position of the two nail-shaped clamping plates to be adjusted, so that the two nail-shaped clamping plates can make close contact with the ceiling wall and the floor of the room respectively, thereby achieving braking and limiting of the support sleeve and giving the support sleeve good support performance. This invention uses a magnetically attached blocking plate, along with a cross-shaped limiting clip, to precisely control the size of the gap between adjacent tiles. The nail-shaped clamping plate provides positioning support, and the pressing plate effectively prevents newly laid tiles from sliding, shifting, or falling. Furthermore, the blocking plate can be easily replaced to meet different gap requirements, improving both the quality and efficiency of the tiling process. Attached Figure Description
[0016] Figure 1This is a first-view three-dimensional structural schematic diagram of the anti-slip structure of the rock slab ceramic tile proposed in this utility model; Figure 2 This is a second-view three-dimensional structural schematic diagram of the anti-slip structure of the rock slab ceramic tile proposed in this utility model; Figure 3 This is a front-view sectional view of the anti-slip structure of a slab ceramic tile proposed in this utility model. Figure 4 A three-dimensional schematic diagram of the separation structure of the external threaded sleeve and the limiting column of the anti-slip structure of the rock slab ceramic tile proposed in this utility model; Figure 5 This is a three-dimensional schematic diagram of the separation structure of the sleeve plate and the blocking disc of the anti-slip structure of the rock slab ceramic tile proposed in this utility model. Figure 6 This is a three-dimensional schematic diagram of the multiple cross-shaped limiting clips structure of the anti-slip structure of the rock slab ceramic tile proposed in this utility model.
[0017] In the diagram: 1. Support sleeve; 2. Connecting plate; 3. Limiting guide rod; 4. Threaded groove; 5. Nut I; 6. Magnet I; 7. Blocking disc; 8. Cross-shaped limit clamp; 9. Magnet II; 10. Supporting guide rod; 11. Pressing disc; 12. Limiting column; 13. External threaded sleeve; 14. Nut II; 15. Nail-shaped clamping plate. Detailed Implementation
[0018] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.
[0019] In one embodiment: Refer to Figure 1-6 An anti-slip structure includes a support sleeve 1 with two connecting plates 2 fitted onto it. One side of each connecting plate 2 has a mating groove for mounting a grouting mechanism. The grouting mechanism includes a blocking disc 7 located on one side of the connecting plate 2, which presses and limits the placement of the sintered stone tiles on the wall. A cross-shaped limiting clip 8 is fixedly installed on one side of the blocking disc 7. This clip 8 can be inserted into the cross-shaped joint of four adjacent sintered stone tiles, ensuring a proper gap between adjacent tiles when they are laid on the wall.
[0020] A magnetic attraction assembly is installed on the other side of the blocking plate 7, consisting of magnet I6 and magnet II9. Magnet II9 is fixedly installed on the other side of the blocking plate 7, and magnet I6 is fixedly installed on the inner wall of one side of the mating groove, with one side of magnet I6 extending into the mating groove to attract magnet II9. When installing the blocking plate 7, magnet I6 and magnet II9 are aligned, and the magnetic force is used to attract them, thereby positioning the blocking plate 7 on the socket plate 2. Using this magnetic attraction method, the blocking plate 7 can be replaced as needed to meet different gap requirements in actual use. For example, when it is necessary to adjust the size of the gap between adjacent slab tiles, the original blocking plate 7 can be removed by overcoming the magnetic force and replaced with a blocking plate 7 with a cross-shaped limiting clip 8 of different specifications to achieve the required gap.
[0021] Supporting guide rods 10 are fixedly installed on both sides of the socket plate 2. A pressing plate 11 is fixedly installed at one end of the supporting guide rod 10, and the position of the pressing plate 11 is flush with the position of the blocking plate 7. When the blocking plate 7 is used to press and limit the slab tile, the pressing plate 11 simultaneously presses the newly laid slab tile, effectively preventing the tile from sliding, shifting, or falling.
[0022] Two positioning mechanisms are symmetrically installed inside the support sleeve 1. Each positioning mechanism includes a nut II 14, which is fixedly mounted on the support sleeve 1 and threadedly connected to an external threaded sleeve 13. A nail-shaped clamping plate 15 is fixedly mounted at one end of the external threaded sleeve 13, and the other end extends into the support sleeve 1. A limiting column 12 is slidably connected inside the external threaded sleeve 13, with one end extending into the support sleeve 1 and fixedly connected to its inner wall. In use, rotating the two nuts II 14 causes the two external threaded sleeves 13 to move under the action of the threaded transmission, thereby adjusting the position of the two nail-shaped clamping plates 15. This ensures that the two nail-shaped clamping plates 15 are in close contact with the ceiling and floor, respectively, thus braking and limiting the support sleeve 1 and providing it with good support.
[0023] This application can be used in the field of architectural decoration technology, or in other fields applicable to this application.
[0024] In another embodiment: Reference Figure 1-2 Based on the above embodiments, an improvement is made to an anti-slip structure for slab ceramic tiles, which is applied to the field of building decoration technology. A nut I5 is rotatably connected to the top of the sleeve plate 2. Two threaded grooves 4 are symmetrically arranged on the support sleeve 1. The nut I5 is fitted onto the support sleeve 1 and threadedly connected to the corresponding threaded groove 4. Rotating the nut I5, under the action of threaded transmission, drives the sleeve plate 2 to move longitudinally, thereby adjusting the longitudinal position of the blocking disc 7, facilitating the insertion of the cross-shaped limiting clip 8 into the corresponding cross-shaped flat joint of the slab ceramic tile.
[0025] To ensure that the socket plate 2 can maintain linear movement when rotating nut I5, a sliding connection limiting guide rod 3 is passed through the socket plate 2. Both ends of the limiting guide rod 3 are fixedly connected to one side of the support sleeve 1. By using the sliding connection between the limiting guide rod 3 and the socket plate 2, the socket plate 2 is longitudinally slidably limited, so as to prevent the socket plate 2 from rotating when rotating nut I5.
[0026] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.
Claims
1. A non-slip structure of a rock plate ceramic tile, applied to the field of building decoration, characterized in that, include: Support sleeve (1); A sleeve plate (2) is fitted onto the support sleeve (1), and a mating groove is provided on one side of the sleeve plate (2); A slit-opening mechanism is detachably connected to the mating groove. The slit-opening mechanism includes a blocking plate (7) facing the wall and a cross-shaped limiting clip (8) fixed thereon. The cross-shaped limiting clip (8) is used to insert into the cross joint of four adjacent rock slab tiles to maintain the gap. Two positioning mechanisms are symmetrically arranged inside the support sleeve (1). The top and bottom ends of the positioning mechanisms extend to the top and bottom of the support sleeve (1) respectively. The length is adjusted by thread drive so that the ends of the positioning mechanisms abut against the roof wall and the ground respectively, thereby realizing the vertical positioning support of the support sleeve (1).
2. The anti-slip structure according to claim 1, characterized in that: The slit opening mechanism is connected to the docking groove via a magnetic suction assembly. The magnetic suction assembly includes a magnet I (6) fixed to the inner wall of the docking groove and a magnet II (9) fixed to the back of the blocking plate (7). The magnet I (6) and the magnet II (9) magnetically cooperate to achieve quick assembly and disassembly.
3. The anti-slip structure according to claim 2, characterized in that: The pressing surface of the blocking disc (7) is parallel to the surface of the slab tile, and the cross-shaped limiting clip (8) protrudes vertically from the pressing surface, pressing the surface of the tile simultaneously when inserted into the cross joint.
4. The anti-slip structure according to claim 1, characterized in that: The two sides of the sleeve plate (2) are symmetrically fixed with support guide rods (10), and the end of the support guide rod (10) is provided with a pressing plate (11). The pressing surface of the pressing plate (11) and the pressing surface of the blocking plate (7) are on the same plane.
5. The anti-slip structure according to claim 1, characterized in that: The positioning mechanism includes a nut II (14) fixed to the support sleeve (1), an external threaded sleeve (13) threadedly connected to the nut II (14), and a nail-shaped snap plate (15) fixed to the end of the external threaded sleeve (13). A limiting post (12) is slidably fitted inside the external threaded sleeve (13). The limiting post (12) is fixed to the inner wall of the support sleeve (1) to restrict the rotation path of the external threaded sleeve (13).
6. The anti-slip structure according to claim 5, characterized in that: The contact surface of the nail-shaped snap plate (15) is provided with anti-slip texture. When the top wall is not applicable, it can be fixed only by the ground support end.
7. The anti-slip structure according to claim 1, characterized in that: The top of the socket plate (2) is rotatably connected to a nut I (5), and the surface of the support sleeve (1) is provided with a threaded groove (4) that meshes with the nut I (5). Rotating the nut I (5) drives the socket plate (2) to move longitudinally along the support sleeve (1).
8. The anti-slip structure according to claim 7, characterized in that: The sleeve plate (2) is slidably connected to the limiting guide rod (3), and the two ends of the limiting guide rod (3) are fixed to the support sleeve (1) to restrict the rotational freedom of the sleeve plate (2).