A method for installing movable tile splicing

Abstract

This invention provides a method for installing movable interlocking tiles, belonging to the field of interior building construction technology. The method specifically includes the following steps: fabricating movable interlocking tiles; using a mechanical saw to cut edge grooves along the length of the tile at the center of its four sides; cleaning and sweeping the construction surface; leveling the cleaned and swept construction surface using self-leveling compound; defoaming the self-leveling compound on the construction surface using a defoaming bucket; waiting for the self-leveling compound to cure and solidify, ensuring it can support foot traffic during construction; establishing baselines and control lines according to drawings and requirements to determine the tile laying origin; and laying the movable interlocking tiles. This method is simple to install, not only improving installation efficiency but also allowing for the reuse of removed tiles, avoiding the need for secondary purchases and preventing color differences in the tiles.

Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of indoor building construction, and particularly relates to a mobile splicing ceramic tile construction method. BACKGROUND

[0002] The laying process of ceramic tiles generally includes the following steps:

[0003] Preparation: First, the laying ground needs to be inspected to ensure that the flatness meets the standard, and if necessary, it needs to be treated; then the required number of ceramic tiles is calculated according to the design drawings and actual conditions, and appropriate ceramic tiles are selected according to the design requirements;

[0004] Pre-treatment: pre-treatment is performed according to the actual situation, such as cleaning the ground, brushing primer, and equipment level line, etc.;

[0005] Ceramic tile laying: according to the drawings and requirements, establish the base line and control line, determine the laying origin, and start laying the ceramic tiles. First, an appropriate amount of ceramic tile adhesive is evenly applied to the ground, and then the ceramic tiles are placed on the adhesive. If necessary, the ceramic tiles are cut or chiseled according to the design;

[0006] Filling: under the condition that the ceramic tile surface is dry, the filling agent is squeezed into the ceramic tile joint, and after drying, the excess filling agent on the ceramic tile surface is wiped off, and the laying area is cleaned with a floor cleaning machine or other tools;

[0007] Maintenance: after laying ceramic tiles, proper maintenance is required for a period of time to ensure that the laying area can dry and fix smoothly.

[0008] However, after laying ordinary ceramic tiles, the underground water pipe and floor heating pipe may age and leak, and it is extremely difficult to excavate and repair. Moreover, the removed ceramic tiles cannot be reused, and the supplemented ceramic tiles cannot guarantee no color difference. SUMMARY

[0009] Therefore, the application provides a mobile splicing ceramic tile construction method, which is simple to install, can save labor time and improve installation efficiency, can reuse the removed ceramic tiles, reduce material waste, avoid secondary purchase, and solve the problem of color difference of ceramic tiles.

[0010] The application is implemented as follows:

[0011] The application provides a mobile splicing ceramic tile construction method, which specifically includes the following steps:

[0012] S01: making a mobile splicing ceramic tile, and using a mechanical saw to cut a groove in the middle of the four sides of the mobile splicing ceramic tile along the length direction of the mobile splicing ceramic tile;

[0013] S02: cleaning and sweeping the construction ground;

[0014] S03: Use self-leveling compound to level the construction surface after cleaning;

[0015] S04: Use a defoaming bucket to defoam the self-leveling compound on the construction surface;

[0016] S05: Wait for the self-leveling compound to cure completely, so that it can be firmly set and support the footsteps during construction.

[0017] S06: Establish baselines and control lines according to drawings and requirements, and determine the origin of paving;

[0018] S07: Carry out the installation of the movable splicing tiles.

[0019] Based on the above technical solution, the movable tile splicing construction method of the present invention can be further improved as follows:

[0020] The specific steps for laying the movable interlocking tiles in step S07 include:

[0021] Step 1: Place the first movable tile at the original paving point;

[0022] Step 2: Place the second movable tile along the lower edge of the first movable tile. Use a splicing strip to join the two movable tiles at the junction of the first and second movable tiles. The splicing strip includes a splicing edge and a filling edge. The splicing edge is symmetrically distributed on both sides of the filling edge. The shape and size of the filling edge match the shape and size of the groove inside the movable tile. Insert the filling edge of the splicing strip into the groove at the junction of the first and second movable tiles to fix the first and second movable tiles together.

[0023] Step 3: Along the first splicing direction, use the splicing strip to splice and attach the movable splicing tile to the lower edge of the construction surface;

[0024] Step 4: Place the third movable tile at the right edge of the first movable tile, insert the splicing strip between the first and third movable tiles to fix the first and third movable tiles together, and the splicing direction from the first to the third movable tile is the second splicing direction.

[0025] Step 5: Place the fourth movable tile below the third movable tile, insert the splicing strip between the third and fourth movable tiles to fix them together, and insert the splicing strip between the second and fourth movable tiles to fix them together.

[0026] Step 6: Repeat step 5, and attach the next movable tile to the lower edge of the construction surface using the splicing strip along the second splicing direction;

[0027] Step 7: Repeat steps 5 and 6, and use the splicing strip to splice the movable splicing tile to the right edge close to the construction ground until the area of ​​the construction site where the movable splicing tile is not laid is equal to the length of two tiles;

[0028] Step 8: Connect the second-to-last row of movable tiles with a rotatable splicing strip. The rotatable splicing strip also has a splicing edge and a filling edge. One end face of the filling edge has a detachable connecting protrusion. Fix the second-to-last row of movable tiles to the third-to-last row of movable tiles together using the splicing strip. The second-to-last row of movable tiles is fixed to each other by the rotatable splicing strip. The connecting protrusion of the second-to-last row faces the last row of movable tiles.

[0029] Step 9: Connect the second-to-last row of movable tiles and the last row of movable tiles in sequence at an angle using the rotatable splicing strip. Place a rotating block mechanism on the connecting protrusion of the second-to-last row of movable tiles, ensuring the rotating block mechanism fits the size of the joint between the four tiles. Insert the rotatable splicing strip between the grooves on the upper and lower edges of the last row of movable tiles, with the connecting protrusion of the rotatable splicing strip of the last row of movable tiles facing the rotating block mechanism. Insert the connecting protrusion of the rotatable splicing strip of the last row of movable tiles into the rotating block mechanism.

[0030] Step 10: Lay the last row of movable tiles flat, so that they fit against the edge of the work surface.

[0031] Furthermore, the rotating block mechanism includes a block body, a connecting hole, and a connecting shaft. The connecting hole and the connecting shaft are symmetrically distributed on the block body. The connecting shaft is rotatably connected to the block body. The connecting shaft has a rotating shaft connecting hole. The inner cavity of the connecting hole and the rotating shaft connecting hole is adapted to the shape and size of the connecting protrusion.

[0032] Furthermore, the last row of movable tiles has a support device behind it that can be hidden within the movable tiles.

[0033] Furthermore, the support device includes a support rod groove and a support rod. The support rod groove is formed on the back of the movable splicing tile and is parallel to the second splicing direction. One end of the support rod is rotatably connected to the support rod groove, and the length of the support rod groove is less than half the length of the movable splicing tile.

[0034] Furthermore, the specific method of using the support device is as follows: after the second-to-last row of movable splicing tiles and the last row of movable splicing tiles are sequentially tilted and connected by the rotatable splicing strip, the support rod is pulled out from the support rod groove, and the bottom of the support rod is supported on the ground. After the last row of movable splicing tiles are connected to each other, the support rod is laid down so that the support rod is hidden back into the support rod groove, thereby making the last row of movable splicing tiles fit against the ground.

[0035] The self-leveling material in S03 is gypsum-based self-leveling compound.

[0036] Specifically, the cleaning and sweeping of the construction site in step S02 includes the following methods:

[0037] Step 1: Remove debris from the construction site;

[0038] Step 2: Pour the floor sealant into the bucket and use a mixer to stir it thoroughly until the sealant is smooth and even.

[0039] Step 3: Pour the floor primer onto the ground and apply it evenly with a roller;

[0040] Step 4: Wait 24 hours for the floor sealant to dry completely.

[0041] The specific method for defoaming the self-leveling compound on the construction surface using a defoaming bucket in step S04 includes:

[0042] Step 1: Prepare a clean, dry, and smooth defoaming bucket;

[0043] Step 2: Pour the defoamer into the defoaming bucket and apply it to the roller with a brushless brush or a special defoaming brush;

[0044] Step 3: Apply the defoaming agent evenly to the self-leveling surface in sequence.

[0045] Furthermore, the splicing strip and the rotatable splicing strip are made of flexible plastic or rust-resistant metal.

[0046] Compared with the prior art, the beneficial effects of the movable splicing tile construction method provided by the present invention are: by using splicing strips, the connecting protrusions of the splicing strips can replace the grout, saving the labor and materials of grouting, and also saving the curing time of grouting;

[0047] Laying movable interlocking tiles can be as simple and quick as laying flooring, saving labor time and improving installation efficiency. They are also easy to disassemble and assemble, lowering the skill threshold for construction workers, meaning that even non-installation workers can install them themselves. Laying is simple, convenient, and fast, saving raw materials such as sand, cement, tiles, and adhesives.

[0048] The thin underlayment allows the tiles to be closer to the underfloor heating pipes, improving thermal conductivity;

[0049] If underground water pipes or underfloor heating pipes are aging and leaking, they can be easily disassembled, inspected, and restored.

[0050] It can also be moved and installed, allowing the removed movable tiles to be reused, saving resource costs, reducing material waste, and avoiding color differences caused by purchasing tiles a second time.

[0051] By using rotatable splicing strips, the last row of tiles can be completely adhered to the wall surface under this tile laying method, avoiding the need to cut tiles into pieces of different sizes, which would affect the overall aesthetics of the laying. Moreover, the operation method is simple and does not affect the construction efficiency. Attached Figure Description

[0052] To more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings used in the description of the embodiments of the present invention will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0053] Figure 1 This invention provides a flowchart of a method for constructing movable tile splicing systems;

[0054] Figure 2 This invention provides a first schematic diagram of the splicing of movable splicing tiles in a method for constructing movable splicing tiles;

[0055] Figure 3 This invention provides a second schematic diagram of the splicing of movable splicing tiles in a method for constructing movable splicing tiles;

[0056] Figure 4 for Figure 3 Enlarged view of section A and schematic diagram of the use of the rotating block mechanism;

[0057] Figure 5This is a schematic diagram of a rotatable splicing strip in a movable splicing tile construction method provided by the present invention;

[0058] Figure 6 This invention provides a schematic diagram of a support device in a method for constructing movable tile splicing.

[0059] The attached diagram lists the components represented by each number as follows:

[0060] 11. Splicing edge; 12. Filling edge; 13. Connecting protrusion; 21. Block; 22. Connecting hole; 23. Connecting shaft; 24. Rotating shaft connecting hole; 31. Support rod groove; 32. Support rod. Detailed Implementation

[0061] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, 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, 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.

[0062] Therefore, the following detailed description of the embodiments of the invention provided in the accompanying drawings is not intended to limit the scope of the claimed invention, but merely to illustrate selected embodiments of the invention. All other embodiments obtained by those skilled in the art based on the embodiments of the invention without inventive effort are within the scope of protection of the invention.

[0063] It should be noted that similar labels 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.

[0064] In the description of this invention, it should be understood that the terms "center," "longitudinal," "lateral," "length," "width," "thickness," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," "clockwise," and "counterclockwise," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and 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.

[0065] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this invention, "a plurality of" means two or more, unless otherwise explicitly specified.

[0066] like Figure 1 The image shown is a first embodiment of a movable tile splicing construction method provided by the present invention. In this embodiment, the specific steps include:

[0067] S01: To make movable interlocking tiles, use a mechanical saw to cut edge grooves along the side length of the movable interlocking tile at the middle position of the four sides of the tile.

[0068] S02: Clean and sweep the construction site;

[0069] S03: Use self-leveling compound to level the surface after cleaning and tidying;

[0070] S04: Use a defoaming bucket to defoam the self-leveling compound on the construction surface;

[0071] S05: Wait for the self-leveling compound to cure completely, so that it can be firmly set and support the footsteps during construction.

[0072] S06: Establish baselines and control lines according to drawings and requirements, and determine the origin of paving;

[0073] S07: Carry out the installation of movable and spliced ​​tiles.

[0074] The method for using a mechanical saw to cut grooves in movable, interlocking tiles is as follows:

[0075] Prepare tools: Select appropriate mechanical saws, gears, and drill bits, and install and adjust them.

[0076] Selecting the cutting point: Based on specific needs, select the location to be cut on the surface of the movable tile. You can use a ruler and silver pen to measure and mark to ensure accurate positioning.

[0077] Start sawing: Start the mechanical saw and begin cutting along the cut on the moving tile. The speed and direction of the saw blade should be uniform to avoid burrs and scratches.

[0078] After cutting open the movable tiles, use a file to remove the burrs from the cut edges to avoid affecting subsequent assembly.

[0079] like Figures 2-5As shown, in the above technical solution, the specific steps for laying movable and spliced ​​tiles in S07 include:

[0080] Step 1: Place the first movable tile at the original tiling point;

[0081] Step 2: Place the second movable tile along the lower edge of the first movable tile. Use a splicing strip to join the two movable tiles at the junction of the first and second movable tiles. The splicing strip includes a splicing edge 11 and a filling edge 12. The splicing edge 11 is symmetrically distributed on both sides of the filling edge 12. The shape and size of the filling edge 12 match the shape and size of the groove inside the movable tile. Insert the filling edge 12 of the splicing strip into the groove at the junction of the first and second movable tiles to fix the first and second movable tiles together.

[0082] Step 3: Along the first splicing direction, use splicing strips to attach the movable splicing tiles to the lower edge of the construction surface;

[0083] Step 4: Place the third movable tile at the right edge of the first movable tile, insert a splicing strip between the first and third movable tiles to fix them together, and the splicing direction from the first to the third movable tile is the second splicing direction.

[0084] Step 5: Place the fourth movable tile below the third movable tile, insert a splicing strip between the third and fourth movable tiles to fix them together, and insert a splicing strip between the second and fourth movable tiles to fix them together.

[0085] Step 6: Repeat step 5, and use the splicing strip to attach the next movable tile to the lower edge of the construction surface along the second splicing direction;

[0086] Step 7: Repeat steps 5 and 6, using the splicing strip to join the movable tiles to the right edge of the construction site, until the area of ​​the construction site without movable tiles is equal to the length of two tiles.

[0087] Step 8: Connect the second-to-last row of movable tiles with a rotatable splicing strip. The rotatable splicing strip also has a splicing edge 11 and a filling edge 12. One end face of the filling edge 12 has a detachable connecting protrusion 13. Fix the second-to-last row of movable tiles to the third-to-last row of movable tiles together with the splicing strip. The second-to-last row of movable tiles is fixed to each other by the rotatable splicing strip. The connecting protrusion 13 of the second-to-last row faces the last row of movable tiles.

[0088] Step 9: Connect the second-to-last row of movable tiles to the last row of movable tiles in sequence at an angle using rotatable splicing strips. Fit the rotating block mechanism onto the connecting protrusion 13 of the second-to-last row of movable tiles. The rotating block mechanism should fit the size of the joint between the four tiles. Insert the rotatable splicing strip between the upper and lower edge grooves of the last row of movable tiles. The connecting protrusion 13 of the rotatable splicing strip of the last row of movable tiles should face the rotating block mechanism. Insert the connecting protrusion 13 of the rotatable splicing strip of the last row of movable tiles into the rotating block mechanism.

[0089] Step 10: Lay the last row of movable tiles flat, so that they fit snugly against the edge of the work surface.

[0090] Furthermore, the two ends of the splicing strip have equilateral triangular protrusions with a hypotenuse of 45°. The length of the protrusions is half the length of the joint between the movable splicing tiles. By setting the triangular protrusions, the gaps between the four tiles can be completely filled.

[0091] During the use of splicing strips, the length of the splicing strips can be cut according to splicing habits.

[0092] Furthermore, in the above technical solution, the rotating block mechanism includes a block 21, a connecting hole 22, and a connecting shaft 23. The connecting hole 22 and the connecting shaft 23 are symmetrically distributed on the block 21. The connecting shaft 23 is rotatably connected to the block 21. A rotating shaft connecting hole 24 is provided on the connecting shaft 23. The inner cavity of the connecting hole 22 and the rotating shaft connecting hole 24 is adapted to the shape and size of the connecting protrusion 13.

[0093] Furthermore, in the above technical solution, the last row of movable tiles has a support device that can be hidden inside the movable tiles.

[0094] Optionally, suction cups can be used to assist in lowering the last row of movable tiles.

[0095] like Figure 6As shown, further, in the above technical solution, the support device includes a support rod groove 31 and a support rod 32. The support rod groove 31 is opened on the back of the movable splicing tile and is parallel to the second splicing direction. One end of the support rod 32 is rotatably connected to the support rod groove 31. The length of the support rod groove 31 is less than half the length of the movable splicing tile.

[0096] Furthermore, in the above technical solution, the method of using the support device is as follows: after the second-to-last row of movable splicing tiles and the last row of movable splicing tiles are sequentially tilted and connected by rotatable splicing strips, the support rod 32 is pulled out from the support rod groove 31, and the bottom of the support rod 32 is supported on the ground. After the last row of movable splicing tiles are connected to each other, the support rod 32 is laid down so that the support rod 32 is hidden back into the support rod groove 31, thereby making the last row of movable splicing tiles adhere to the ground.

[0097] In the above technical solution, the self-leveling material in S03 is gypsum-based self-leveling compound.

[0098] Gypsum-based self-leveling compound is a building floor leveling material. When mixed with water to form a viscous liquid, it flows evenly onto a level surface, achieving a self-leveling effect. The main component of gypsum-based self-leveling compound is gypsum, along with crack-resistant enhancers, modifiers, and other auxiliary materials. It can be used for interior wall and floor surface installation to achieve a smooth and even surface. Gypsum-based self-leveling compounds have several significant advantages, including thinness, excellent self-leveling properties, high smoothness, easy application, and environmental friendliness.

[0099] In the above technical solution, step S02 involves cleaning and sweeping the construction surface, specifically including the following methods:

[0100] Step 1: Remove debris from the construction site;

[0101] Step 2: Pour the floor sealant into the bucket and use a mixer to stir it thoroughly until the sealant is smooth and even.

[0102] Step 3: Pour the floor primer onto the ground and apply it evenly with a roller;

[0103] Step 4: Wait 24 hours for the floor sealant to dry completely.

[0104] The specific application method for the floor sealant is to start from one side of the ground and roll the sealant evenly over the entire area to avoid bubbling, dripping, or other problems.

[0105] In the above technical solution, the specific method for defoaming the self-leveling compound on the construction surface using a defoaming bucket in S04 includes:

[0106] Step 1: Prepare a clean, dry, and smooth defoaming bucket;

[0107] Step 2: Pour the defoamer into the defoaming bucket and apply it to the roller with a brushless brush or a special defoaming brush;

[0108] Step 3: Apply the defoaming agent evenly to the self-leveling surface in sequence.

[0109] A defoaming bucket is a tool used to eliminate air bubbles on the surface of paint. It is usually a small bucket lined with a material that can absorb air bubbles, such as silica gel, sponge, or clay. When using it, after applying paint to the entire surface, gently press the defoaming bucket onto the paint surface for a few seconds to gradually dissipate the air bubbles.

[0110] The use of a defoaming bucket can prevent the formation of air bubbles on the paint surface, ensuring the smoothness and aesthetics of the paint surface. It is suitable for applying various coatings, such as paints, primers, and self-leveling compounds.

[0111] Furthermore, in the above technical solution, the splicing strip and the rotatable splicing strip are made of flexible plastic or rust-proof metal.

[0112] When using this method to lay movable tiles, if maintenance is required on the equipment at the bottom of the movable tiles, simply use the suction cup to tilt and lift the last row of movable tiles towards the second-to-last row. Then, disengage the connecting protrusion 13 of the rotatable splicing strip of the last row of movable tiles from the pivot connection hole 24, and pull the movable tiles out of the splicing strip one by one.

[0113] During the installation of movable tile, an 8mm gap can be left around the last movable tile to facilitate future maintenance of underground water pipes and underfloor heating pipes, making it easy to disassemble, relocate, or reuse.

[0114] During disassembly, simply slide the last movable tile toward the pre-reserved joint to detach it from the joint strip, and then remove the subsequent movable tiles one by one.

[0115] When installing movable interlocking tiles on underfloor heating, before laying the extruded polystyrene (XPS) board as the base layer, first use self-leveling compound to level the surface. After it dries completely, use adhesive mortar to firmly adhere the XPS board with U-shaped pipe grooves. After it dries, coil the underfloor heating pipes. Because the floor is already level due to the self-leveling compound, laying the XPS board and then coiling the underfloor heating pipes maintains a flat surface. After confirming the underfloor heating is level, then lay the movable interlocking tiles. This method directly reduces the height by 6 centimeters, saving on concrete, sand, cement, and labor, significantly reducing the cost of materials, labor, and the height of the building.

[0116] The above description is merely a specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in the present invention should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope of the claims.

Claims

1. A mobile tile laying method, characterized in that, Specifically comprising the following steps: S01: making a mobile splicing ceramic tile, using a mechanical saw to open a side groove in the middle of the four side edges of the mobile splicing ceramic tile along the length direction of the mobile splicing ceramic tile; S02: cleaning the construction ground; S03: using self-leveling to level the construction ground after cleaning; S04: using a defoaming bucket to defoam the self-leveling on the construction ground; S05: waiting for the completion of self-leveling maintenance, making the self-leveling firm and fixed, and being able to support the construction; S06: establishing a baseline and control line according to the drawing and requirements, and determining the paving origin; S07: performing the paving construction of the mobile splicing ceramic tile, specifically comprising the following steps: First step: placing the first mobile splicing ceramic tile at the paving origin; Second step: placing the second mobile splicing ceramic tile along the lower edge of the first mobile splicing ceramic tile, using a splicing strip to splice the two mobile splicing ceramic tiles at the joint of the first mobile splicing ceramic tile and the second mobile splicing ceramic tile, the splicing strip comprising a splicing edge (11) and a filling edge (12), the splicing edge (11) being symmetrically distributed on both sides of the filling edge (12), the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the mobile splicing ceramic tile, the shape and size of the filling edge (12) being consistent with the shape and size of the ​ ​ ​ ​ Step 7: Repeat the fifth step and the sixth step to splice the mobile spliced tiles to the right edge close to the construction ground using the splicing strip until the area of the construction site without the mobile spliced tiles is equal to the length of two tiles; Step 8: Use the reversible splicing strip to splice the last but one row of mobile spliced tiles, the reversible splicing strip also has the splicing edge (11) and the filling edge (12), one end of the filling edge (12) has a detachable connecting protrusion (13), the last but one row of mobile spliced tiles and the last but two row of mobile spliced tiles are fixed together using the splicing strip, the last but one row of mobile spliced tiles are fixed together through the reversible splicing strip, the connecting protrusion (13) of the last but one row of mobile spliced tiles faces the last row of mobile spliced tiles; Step 9: The last but one row of mobile spliced tiles and the last row of mobile spliced tiles are connected in turn through the reversible splicing strip, the rotating block mechanism is fitted on the connecting protrusion (13) of the last but one row of mobile spliced tiles, the rotating block mechanism is consistent with the size of the splicing joint between four tiles, the reversible splicing strip is inserted between the edge groove of the last row of mobile spliced tiles, the connecting protrusion (13) of the reversible splicing strip of the last row of mobile spliced tiles faces the rotating block mechanism, the connecting protrusion (13) of the reversible splicing strip of the last row of mobile spliced tiles is inserted into the rotating block mechanism; Step 10: The last row of mobile spliced tiles is placed flat and adheres to the edge of the construction ground.

2. A method of installing a tiled floor according to claim 1, wherein, The rotating block mechanism includes a block body (21), a connecting hole (22) and a connecting shaft body (23), the connecting hole (22) and the connecting shaft body (23) are symmetrically distributed on the block body (21), the connecting shaft body (23) is rotationally connected with the block body (21), the connecting shaft body (23) is provided with a rotating shaft connecting hole (24), the connecting hole (22) and the rotating shaft connecting hole (24) are adapted to the shape and size of the connecting protrusion (13).

3. A method of installing a tiled floor according to claim 2, wherein, The last row of mobile spliced tiles has a support device hidden in the mobile spliced tiles.

4. A method of installing tiles according to claim 3, wherein, The support device includes a support rod slot (31) and a support rod (32), the support rod slot (31) is provided on the back of the mobile spliced tiles and is parallel to the second splicing direction, one end of the support rod (32) is rotationally connected with the support rod slot (31), the length of the support rod slot (31) is less than half the length of the mobile spliced tiles.

5. A method of installing tiles according to claim 4, wherein, The method for using the support device is specifically as follows: the second-to-last row of the mobile splicing ceramic tiles is connected to the last row of the mobile splicing ceramic tiles through the turnable splicing strips in sequence, the support rod (32) is buckled out of the support rod groove (31), the bottom of the support rod (32) is supported on the ground, when the last row of the mobile splicing ceramic tiles are connected to each other, the support rod (32) is laid down, the support rod (32) is hidden in the support rod groove (31) again, and thus the last row of the mobile splicing ceramic tiles are attached to the ground.

6. A method of installing tiles according to claim 5, wherein, The self-leveling material in the S03 is a gypsum-based self-leveling material.

7. A method of installing tiles according to claim 6, wherein, The S02 specifically includes the following steps of cleaning and sweeping the construction ground: Step 1: removing sundries on the construction ground; Step 2: pouring the ground fixing paint into a bucket, and fully stirring the ground fixing paint until the ground fixing paint is uniform and smooth; Step 3: pouring the ground fixing paint on the ground, and uniformly brushing the ground fixing paint with a roller; Step 4: waiting for 24 hours until the ground fixing paint is completely dried.

8. A method of installing tiles according to claim 7, wherein, The S04 specifically includes the following steps of defoaming the self-leveling material on the construction ground by using a defoaming bucket: Step 1: preparing a clean, water-free and smooth-surface defoaming bucket; Step 2: pouring the defoaming agent into the defoaming bucket, and brushing the defoaming agent on the roller without using a brush or a special defoaming brush; Step 3: uniformly brushing the self-leveling surface in sequence by using the defoaming bucket.

9. A method of installing a tiled floor according to claim 8, wherein, The material of the splicing strip and the turnable splicing strip is flexible plastic or rust-proof metal.

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