Ceramic tile convenient to lay

Abstract

The utility model relates to the field of ceramic building materials, in particular to a ceramic tile convenient to lay, which comprises a ceramic tile body, an equal-height pad and a gap separating pad, the equal-height pad is provided with a rotating pin and a corner gasket rotatably connected to the rotating pin, the equal-height pad is detachably connected to any one of four corner areas on the back of the ceramic tile body, and the gap separating pad is detachably connected to the corner gasket. The corner gasket can be completely or incompletely shielded by the ceramic tile body when rotating around the rotating pin; the four gap separating pads are detachably adhered to the four side surfaces of the ceramic tile body respectively. The ceramic tile is improved, the ceramic tile can be conveniently stored and transported when the corner gaskets rotate to be completely shielded by the ceramic tile body, and the corner gaskets can be used for equal-height positioning of the laid adjacent ceramic tiles when the corner gaskets rotate to be not completely shielded by the ceramic tile body; the gap separating pads can be torn down layer by layer to adjust the thickness so as to control the gap separating distance between the adjacent ceramic tiles, so that the flatness and the gap separating distance of the ceramic tiles during paving can be effectively controlled, the ceramic tiles can be conveniently stored and transported, and the paving construction efficiency can be improved.

Description

Technical Field

[0001] The utility model relates to the field of ceramic building materials, and particularly relates to a tile that is convenient for paving. Background Art

[0002] Tiles are made from main raw materials such as clay, quartz sand, and minerals through grinding, mixing, pressing, glazing, and sintering. Due to their good weather resistance, aesthetics, and easy cleaning, they are widely used in building decoration. During the paving process of tiles, two important aspects usually need to be concerned: one is that in order to achieve the overall aesthetics after paving, the joints between adjacent tiles must be flat; the other is that in order to prevent the tiles from arching or cracking due to thermal expansion and contraction or mutual extrusion during use, a certain width of gap needs to be reserved between adjacent tiles, and the reserved gap distance varies depending on the regional climate and whether grouting is required. Therefore, during tile paving, construction workers often need to continuously visually inspect, adjust, or use auxiliary tools to control the flatness and gap distance. These methods are neither convenient nor efficient during construction. Although there are currently also public technologies that use the connection method of positioning blocks to control the flatness and gap distance during tile paving, for example, the utility model patent with the authorization announcement number CN215760191 U discloses "A Tile Convenient for Pasting", which describes that "... the side of the tile body is provided with a positioning block for limiting and connecting the tile body and a positioning groove adapted to the positioning block..."; "... the four sides of the tile body are all provided with clamping devices for height limiting...". This technology has at least the following deficiencies: First, adjacent tiles are connected by clamping the positioning blocks in the positioning grooves. During tile paving, the gap distance cannot be adjusted according to actual needs, and when the tiles expand and contract thermally, the positioning blocks are prone to breakage; second, the positioning blocks at the four corner regions of each tile protrude outward, are easily broken, and are not conducive to the storage and transportation of tiles. In view of this, it is necessary to further improve the tiles. How to effectively control the flatness and gap distance of tiles during paving, while also facilitating the storage, transportation, and paving construction of tiles, is the problem to be solved in this case. Summary of the Utility Model

[0003] To overcome the deficiencies in the prior art, the present utility model discloses a tile that is convenient for paving, including a tile body, an equal-height pad, and a gap-separating pad. The equal-height pad is provided with a rotating pin and an angle gasket rotatably connected to the rotating pin. The angle gasket is detachably connected to any one of the four corner regions on the back of the tile body through the rotating pin. When the angle gasket rotates around the rotating pin, it can be completely blocked or incompletely blocked by the tile body. When it is not completely blocked, a part of the angle gasket can be exposed outside the tile body; four gap-separating pads are respectively detachably adhered to the four sides of the tile body. By improving the tile, when the angle gasket rotates to be completely blocked by the tile body, it is convenient for the storage and transportation of the tile. When it rotates to be incompletely blocked by the tile body, it can be used for equal-height positioning of adjacent tiles during paving; by using the gap-separating pad, it can be torn off layer by layer for thickness adjustment to control the gap distance between adjacent tiles. Thus, it can not only effectively control the flatness and gap distance of the tile during paving, but also facilitate the storage and transportation of the tile and improve the paving construction efficiency.

[0004] To achieve the above object, the technical solution adopted by the present utility model is as follows:

[0005] A tile that is convenient for paving, including a tile body. The tile body is a rectangular or square block. It is characterized in that: it further includes an equal-height pad and a gap-separating pad. The equal-height pad is provided with a pin shaft and a gasket rotatably connected to the pin shaft. The equal-height pad is detachably connected to any one of the four corner regions on the back of the tile body. The gasket of the equal-height pad is placed on the back of the tile body. When the gasket rotates around the rotating shaft, it can be completely blocked or incompletely blocked by the tile body. When it is not completely blocked, a part of the gasket can be exposed outside the tile body for equal-height positioning when paving adjacent tiles. The gap-separating pad is four pieces, and the four gap-separating pads are respectively detachably adhered to the four sides of the tile body to control the gap distance from adjacent tiles.

[0006] The tile body is respectively provided with four grooves in the four corner regions on its back. The four grooves are symmetrically arranged with the horizontal center line and the vertical center line of the tile body as the symmetry axes.

[0007] The groove is a semi-enclosed sunk groove. Only a section of the surrounding surface of the sunk groove is arc-shaped, and the rest is a notch. The notch is located on two adjacent sides of the tile body. The projection surface of the groove is fan-shaped.

[0008] The tile body is provided with pin holes in the middle of the grooves. There are four pin holes, and the centers of the four pin holes are concentric with the centers of the arcs of the surrounding surfaces of the four grooves.

[0009] The pin hole is a T-shaped stepped round hole recessed towards the solid direction of the tile body.

[0010] The equal-height pad described above includes an angle gasket and a rotating pin, and the angle gasket is rotatably connected to the rotating pin.

[0011] The angle gasket is a hard eccentric-shaped sheet body. The rotating pin is preferably a ⊥-shaped hollow round pin with an elastic barb claw at the upper part. The rotating pin is detachably clamped into any one of the four pin holes of the tile body. The angle gasket rotatably connected to the rotating pin can perform eccentric rotation in any one of the four grooves of the tile body. When the angle gasket rotates, it can be completely placed in the groove, or a part of the angle gasket can be rotated outside the groove of the tile body.

[0012] The joint-spacing pad is formed by laminating several layers of thin sheets. The several layers of thin sheets are bonded to each other, and adjacent thin sheets can be separated from each other under the action of an external force. The joint-spacing pad is preferably formed by bonding several layers of plastic thin sheets.

[0013] As can be seen from the above description, the advantages of a tile that is convenient for paving provided by the present utility model are as follows: First, a detachable equal-height pad is provided on any one of the four corner regions on the back surface of the tile body. The angle gasket of the equal-height pad is rotatably connected to the rotating pin. When the angle gasket rotates to be completely blocked by the tile body, it is convenient for the storage and transportation of the tile. When the angle gasket rotates to be not completely blocked by the tile body, it can be used for equal-height positioning of adjacent tiles during paving, so as to conveniently control the flatness between adjacent tiles during paving construction. Second, four easy-to-tear joint-spacing pads are adhered to the four side surfaces of the tile body. By using the adhered joint-spacing pads, the thickness can be adjusted layer by layer to control the joint-spacing between adjacent tiles. By improving the tile, the present utility model can not only effectively control the flatness and joint-spacing of the tile during paving, but also facilitate the storage and transportation of the tile and improve the paving construction efficiency. The present utility model has a reasonable design, a simple structure, a low cost, and is convenient for popularization. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 is a longitudinal sectional view of a tile that is convenient for paving according to the present utility model;

[0015] Figure 2 is Figure 1 the schematic view in the direction of A in

[0016] Figure 3 is Figure 1 the enlarged schematic view of part B in

[0017] Figure 4 is Figure 1 the enlarged schematic view of part C in

[0018] Figure 5 is Figure 1 the enlarged schematic view of part D in

[0019] Figure 6Schematic diagram of a part of the rotated angle gasket protruding beyond the tile body;

[0020] Figure 7 Schematic diagram of the adjacent tile bodies being laid with equal height positioning by the rotation and protrusion of the angle gasket.

[0021] Reference numerals:

[0022] 1 Tile body; 11 Groove; 12 Pin hole; 2 Equal height pad; 21 Angle gasket; 22 Rotating pin; 3 Joint spacer. Detailed implementation manner

[0023] The present utility model will be further described below through specific implementation manners.

[0024] As Figure 1 , Figure 6 and Figure 7 shown, a tile for easy laying according to the present utility model includes a tile body 1, an equal height pad 2 and a joint spacer 3. The tile body 1 is a rectangular or square block. In this embodiment, the tile body 1 is square. The equal height pad 2 is provided with a pin shaft and a gasket rotatably connected to the pin shaft. The equal height pad 2 is detachably connected to any one of the four corner regions on the back of the tile body 1. The gasket of the equal height pad 2 is placed on the back of the tile body 1. When the gasket rotates around the rotating shaft, it can be completely blocked or incompletely blocked by the tile body 1. When it is not completely blocked, a part of the gasket can protrude beyond the tile body 1 for equal height positioning when laying adjacent tiles. The joint spacer 3 is composed of four pieces, and the four joint spacers 3 are respectively detachably adhered to the four side surfaces of the tile body 1 to control the joint spacing between adjacent tiles.

[0025] As Figures 1 to 4 shown, the tile body 1 of the present utility model is respectively provided with four grooves 11 in the four corner regions on its back. The four grooves 11 are symmetrically arranged with the horizontal center line and the vertical center line of the tile body 1 as the symmetry axes. The groove 11 is a semi-enclosed sunk groove. Only a section of the surrounding surface of the sunk groove is arc-shaped, and the rest is a notch. The notch is located on two adjacent side surfaces of the tile body 1. The projection surface of the groove 11 is fan-shaped. The tile body 1 is provided with a pin hole 12 in the middle of the groove 11. There are four pin holes 12, and the centers of the four pin holes 12 are concentric with the center of the arc of the surrounding surface of the four grooves 11. The pin hole 12 is a T-shaped stepped round hole recessed towards the solid direction of the tile body 1.

[0026] As Figures 1 to 6As shown in the figure, the equal-height pad 2 of the present utility model includes an angle gasket 21 and a rotating pin 22, and the angle gasket 21 is rotatably connected to the rotating pin 22. The angle gasket 21 is a hard eccentric-shaped sheet body. In this embodiment, the rotating pin 22 is a ⊥-shaped hollow round pin with an elastic barb claw at the upper part. The rotating pin 22 is detachably clamped into any one of the four pin holes 12 of the ceramic tile body 1. The angle gasket 21 rotatably connected to the rotating pin 22 can eccentrically rotate in any one of the four grooves 11 of the ceramic tile body 1. When the angle gasket 21 rotates, it can be completely placed in the groove 11, or a part of the angle gasket 21 can be rotated outside the groove 11 of the ceramic tile body 1. The seam spacer 3 is formed by laminating several thin sheets. The several thin sheets are bonded to each other and can be separated from each other under the action of an external force. In this embodiment, the seam spacer 3 is an easily tearable multi-layer pad formed by bonding several plastic thin sheets.

[0027] When laying this ceramic tile, first rotate the angle gasket 21 of each ceramic tile outwards so that a part of it is exposed outside the ceramic tile body 1; adjust the thickness of the seam spacer 3 around the ceramic tile according to the seam width between adjacent ceramic tiles determined by the region and whether joint beautification is required. Then lay the first ceramic tile on the bonding material previously applied on the building, and fill the bottom of the exposed angle gasket 21. Then place the ceramic tiles to be laid in the adjacent area around the laid ceramic tile, and place one of the corners on the exposed angle gasket 21 of the laid ceramic tile for equal-height positioning; then use the exposed angle gasket 21 of the second laid ceramic tile to perform equal-height positioning on the third ceramic tile to be laid. By this method, equal-height positioning of all ceramic tiles can be achieved, and the overall flatness of the laid ceramic tiles can be achieved; the seam spacing between adjacent ceramic tiles is also adjusted and controlled by the total thickness of the seam spacers 3 that are in contact with each other between adjacent ceramic tiles. After the ceramic tiles are fixed or before joint beautification, the seam spacer 3 can be cleaned out of the seam with a tool for cleaning the seam.

[0028] By improving the ceramic tile, the present utility model provides a detachable equal-height pad 2 on any one of the four corner regions on the back of the ceramic tile body 1. The angle gasket 21 of the equal-height pad 2 is rotatably connected to the rotating pin 22; four seam spacers 3 are detachably adhered to the four sides of the ceramic tile body 1. When the angle gasket 21 rotates to be completely blocked by the ceramic tile body 1, it is convenient for the storage and transportation of the ceramic tile. When the angle gasket 21 rotates to be not completely blocked by the ceramic tile body 1, it can be used for equal-height positioning of adjacent ceramic tiles; the seam spacer 3 can be torn off layer by layer for thickness adjustment to control the seam spacing between adjacent ceramic tiles. Therefore, it can not only effectively control the flatness and seam spacing of the ceramic tile during laying, but also facilitate the storage and transportation of the ceramic tile and improve the laying construction efficiency.

[0029] The above is only a specific embodiment of the present utility model, but the design concept of the present utility model is not limited thereto. Any non-substantive modification made to the present utility model using this concept shall fall within the scope of infringement of the protection scope of the present utility model.

Claims

1. A tile that is easy to lay, comprising a tile body (1), wherein the tile body (1) is a rectangular or square block, and is characterized in that: It further includes an equal-height pad (2) and a seam-separating pad (3). The equal-height pad (2) is provided with a pin shaft and a gasket rotatably connected to the pin shaft. The equal-height pad (2) is detachably connected to any one of the four corner regions on the back surface of the ceramic tile body (1). The gasket of the equal-height pad (2) is placed on the back surface of the ceramic tile body (1), and when the gasket rotates around the rotating shaft, it can be completely blocked or incompletely blocked by the ceramic tile body (1). The seam-separating pad (3) has four pieces, and the four seam-separating pads (3) are respectively detachably adhered to the four side surfaces of the ceramic tile body (1).

2. The tile convenient for paving according to claim 1, wherein: The ceramic tile body (1) is respectively provided with four grooves (11) in the four corner regions on its back surface, and the four grooves (11) are symmetrically arranged with the horizontal center line and the vertical center line of the ceramic tile body (1) as the symmetry axes.

3. The tile according to claim 2, which is easy to lay, is characterized in that: The groove (11) is a semi-enclosed sunk groove, and only one section of the surrounding surface of the sunk groove is arc-shaped while the rest is a notch, and the notch is located on two adjacent side surfaces of the ceramic tile body (1).

4. The tile for easy paving according to claim 3, characterized in that: The ceramic tile body (1) is provided with pin holes (12) in the middle of the grooves (11). There are four pin holes (12), and the centers of the four pin holes (12) are concentric with the centers of the circular arcs of the surrounding surfaces of the four grooves (11).

5. The tile that is easy to lay according to claim 4, characterized in that: The pin hole (12) is a T-shaped stepped round hole.

6. The paving tile according to claim 5, characterized in that: The equal-height pad (2) includes an angle gasket (21) and a rotating pin (22), and the angle gasket (21) is rotatably connected to the rotating pin (22).

7. A tile that is easy to lay, as described in claim 6, characterized in that: The angle gasket (21) is a hard eccentric-shaped sheet body. The rotating pin (22) is detachably clamped into any one of the four pin holes (12) of the ceramic tile body (1). The angle gasket (21) rotatably connected to the rotating pin (22) can perform eccentric rotation in any one of the four grooves (11) of the ceramic tile body (1). When the angle gasket (21) rotates, it can be completely placed in the groove (11), or a part of the angle gasket (21) can be rotated outside the groove (11) of the ceramic tile body (1).

8. A tile that is easy to lay, as claimed in claim 7, wherein: The seam-separating pad (3) is formed by laminating several layers of thin sheets. The several layers of thin sheets are adhered to each other and can be disassembled between adjacent thin sheets.

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