Disclosure of Invention
In view of the defects of the prior art, the invention aims to provide a ceramic tile and a processing method thereof.
In order to achieve the purpose, the invention adopts the following technical scheme:
the utility model provides a ceramic tile, includes the ceramic tile brick body, the ceramic tile brick body has at least a pair of guide portion that is used for with the coincide of the ceramic tile brick body of adjacent laying, and every pair of guide portion shape is unanimous and reverse setting. Through set up an at least pair of guide portion on the ceramic tile brick body, coincide each other between the adjacent ceramic tile brick body when laying, and then when making the ceramic tile brick body later stage of laying the completion need be changed, only need pry from the guide portion and can dismantle, can not destroy ceramic tile on every side, only need make the ceramic tile brick body and the old ceramic tile brick body coincide of newly laying can accomplish when laying again and level and lay.
Optionally, in an implementation of the present invention, the guiding portion includes a guiding surface, a buffering surface, and an inclined surface connected to the guiding surface and the buffering surface; the joint of the guide surface and the inclined surface is a first curved surface which has a radian and a convex arc; the junction of buffer surface and inclined plane is the second curved surface that has radian and pitch arc indent. In the implementation of the invention, the guide part is provided with the guide surface, the buffer surface and the inclined surface connected with the guide surface and the buffer surface, so that when the ceramic tile is disassembled, the ceramic tile can be disassembled better through the interaction of the guide surface and the buffer surface, and the surrounding ceramic tile bodies cannot be damaged. Furthermore, after the ceramic tile bodies are overlapped and laid, when the ceramic tile bodies are arched under the extrusion of expansion or other external force, the guide surfaces and the buffer surfaces interact, so that the ceramic tiles can not cause other ceramic tile bodies around the ceramic tiles to arch together.
Optionally, in the implementation of the present invention, the guide surface and the buffer surface are vertical surfaces perpendicular to the surface of the tile body. The guide surface and the buffer surface are arranged to be vertical surfaces perpendicular to the surface of the tile body, when the tile body is extruded by expansion or other external force, the upward force can be formed to directly lift the tile body due to the guide surface and the buffer surface, and the tile body around is not responded.
Optionally, in an implementation of the present invention, the guide surface and the buffer surface are both arc surfaces having a radian. The guide surface and the buffer surface are arranged to be arc surfaces with radian, when the tile body is extruded by expansion or other external force to arch, the arc surfaces of the arc surfaces and the adjacent tiles interact, the upward force of the arch is decomposed into tangential force of the arc surfaces, and therefore, the arch is only arched, and the surrounding tile body is not affected.
Optionally, in an implementation of the present invention, the surfaces of the pair of guide portions are parallel to each other. The guide parts are arranged on the surfaces of the ceramic tiles which are parallel to each other, so that the ceramic tiles can be laid continuously.
Optionally, in the implementation of the present invention, the angle of the inclined plane is 30 to 60 degrees. In the embodiment of the invention, the angle of the inclined plane is set to be 30-60 degrees, so that the ceramic tiles can be laid and detached more conveniently within the angle range.
A method of processing ceramic tiles, the method comprising the steps of:
putting the fired ceramic tile body to be processed on a processing production line;
carrying out primary polishing and edging treatment on the tile body;
turning the tile body subjected to the first polishing and edging treatment and carrying out second polishing and edging treatment;
carrying out edge modeling processing on the tile body subjected to the second polishing edging processing to obtain a guide part;
and protecting the surface of the tile body of the ceramic tile after edge processing, and finally packaging and warehousing.
The step of carrying out edge molding processing in order to obtain the guide limit that has guide portion and the portion of bending to the ceramic tile brick body that handles through polishing edging for the second time still includes:
a pair of guide portions are simultaneously formed by processing the upper portion of one side surface and the lower portion of the other side surface of the tile body.
Compared with the prior art, the ceramic tile and the processing method thereof provided by the invention comprise the ceramic tile body, and the ceramic tile body at least comprises a pair of guide parts for overlapping with the adjacent ceramic tile body. Set up an at least pair of guide portion on the ceramic tile brick body, coincide each other between the adjacent ceramic tile brick body when laying, and then when making the ceramic tile brick body later stage of laying the completion need be changed, only need pry from the guide portion and can dismantle, can not destroy ceramic tile on every side, only need make the ceramic tile brick body and the old ceramic tile brick body coincide of newly laying can accomplish when laying again and level and lay.
Detailed Description
In view of the fact that the paving gap of the ceramic tile is increased to 2-3mm in the prior art, but the defect that the ceramic tile in the peripheral area is required to be replaced due to the fact that the ceramic tile body is arched due to expansion or other external forces and the surrounding ceramic tiles are arched together is not overcome.
In order to make the objects, technical solutions and effects of the present invention clearer and clearer, the present invention is further described in detail below with reference to the accompanying drawings and examples. It should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention.
As shown in fig. 3 and 4, the present invention provides a tile comprising a tile body 100, said tile body 100 having at least one pair of guides 200 for overlapping with adjacently laid tile bodies 100, each pair of guides 200 being identical in shape and oppositely arranged. Through set up at least a pair of guide portion 200 on the ceramic tile brick body 100, coincide each other between the adjacent ceramic tile brick body 100 when laying, and then when making the ceramic tile brick body 100 later stage of laying the completion need be changed, only need pry from guide portion 200 and open and can dismantle, can not destroy ceramic tile on every side, only need make the ceramic tile brick body 100 and the old ceramic tile brick body 100 coincide of newly laying can accomplish when laying again and level and smooth the laying.
Specifically, in the embodiment of the invention, when the adjacent tile bodies 100 are overlapped, the overlapping gap is smaller than 1 mm; the surfaces of the at least one pair of guide portions 200 are parallel to each other. The surfaces of the pair of guide portions 200 are parallel to each other, so that the tile body 100 can be easily laid continuously.
In specific implementation, please continue to refer to fig. 3 because the tiles are laid one by one and adjacently, and a certain interval is left when the square tiles in the prior art are laid, but the interval is generally much smaller than the thickness of the tiles, which causes the tiles 100 to arch under expansion or other external forces, the edge corner of the square tile will push up the adjacent tiles 100, so that the adjacent tiles will arch therewith, and then a plurality of tiles need to be replaced, and the technical difficulty coefficient of supplementing and paving the tiles will be increased, and the tiles can not be completely paved or paved flatly, and the ceramic tiles with problems will be generally removed when the tiles are repaired, and the peripheral tiles are often damaged due to the inconvenience of the tiles. In the embodiment of the present invention, at least one pair of guiding portions 200 are formed on the tile body 100, and each pair of guiding portions 200 has the same shape and is arranged in reverse direction, the guiding portions 200 of adjacent tile bodies are overlapped and laid, that is, when the tile is laid, the edges which are mutually matched can be overlapped and laid; for example, after the 1 st tile is laid, the 2 nd tile having the guide portion 200 with the same edge processing shape as the first tile is pressed against the guide portion 200, which is formed in the shape of the first tile body 100 but is disposed in the opposite direction, so that the edges are completely fitted and closely laid, and so on, and the process continues one by one. When needs are changed, only need follow the coincide gap of guide portion 200 the tilting of the ceramic tile body 100 that needs to be changed can realize dismantling, the dismantlement process can not influence other ceramic tile bodies 100, when needs are installed, insert into the guide portion 200 coincide that makes new ceramic tile body 100 and old ceramic tile body 100 from adjacent old ceramic tile body 100 guide portion 200 with new ceramic tile body 100 to one side and can accomplish and lay, and lay the ceramic tile body 100 of completion relatively more level, do not have convex problem basically.
In addition, please refer to fig. 4 together, because the problem of reserved gaps does not need to be considered, when the adjacent tile bodies 100 are overlapped, the overlapped gap can be smaller than 1mm, so that the tile bodies 100 are tightly attached to each other when the tile is laid, the beauty and comfort of the beauty decoration are improved, and the phenomena of gap dust accumulation and serious scale deposition caused by too large gaps are avoided.
Referring to fig. 5, in an alternative embodiment of the present invention, the guiding portion 200 includes a guiding surface 210, a buffering surface 220, and a slope 230 connected to the guiding surface 210 and the buffering surface 220; the joint of the guiding surface 210 and the inclined surface 230 is a first curved surface 240 with a radian and a convex arc; the junction between the buffering surface 220 and the inclined surface 230 is a second curved surface 250 with a radian and a concave arc. In the present embodiment, the guide portion 200 is configured to have the guide surface 210, the buffer surface 220, and the inclined surface 230 connected to the guide surface 210 and the buffer surface 220, so that the tile can be removed better by the interaction between the guide surface 210 and the buffer surface 220 without damaging the surrounding tile body 100. Further, after the tile body 100 is laid in a stacked manner, the guide surface 210 and the relief surface 220 interact when the tile body 100 is arched by expansion or other external forces, so that the tile does not involve other tile bodies 100 around it to arch together.
During the concrete implementation, because traditional square body ceramic tile is when receiving inflation or other external force extrusion, the ceramic tile in the stress area all can receive great exogenic action, when this kind of external force is enough big, the ceramic tile that bearing pressure is weak is because of not having outside tangential force guide, finally leads to this area to receive the whole piece ground arch of ceramic tile that external force extruded, also because of inconvenient perk the ceramic tile body 100 when needing to be changed the ceramic tile, and destroys ceramic tile body 100 on every side.
In contrast, the embodiment of the present invention is a tile with a guide surface 210, a relief surface 220, and a slope 230 connecting the guide surface 210 and the relief surface 220; when the tile is laid, the guide surface 210 of the current tile body 100 is matched with the buffer surface 220 of the adjacent tile body 100, the inclined surface 230 of the current tile body 100 is overlapped with the inclined surface 230 of the adjacent tile body 100, the buffer surface 220 of the current tile body 100 is matched with the guide surface 210 of the adjacent tile body 100, the first curved surface 240 of the current tile body 100 is matched with the second curved surface 250 of the adjacent tile body 100, and the second curved surface 250 of the current tile body 100 is matched with the first curved surface 240 of the adjacent tile body 100. Since the connection between the guide surface 210 and the inclined surface 230 and the connection between the buffer surface 220 and the inclined surface 230 are respectively provided with the first curved surface 240 and the second curved surface 250, these shapes are not sharp in edges in the conventional sense, and the edges of the shapes have curved surface arc designs for buffering stress. Therefore, when the tile body 100 to be replaced pries the tile body 100 from the guide surface 210 of the tile body 100 to be replaced, the pried end is lifted upwards, and the tile body is overlapped with the adjacent tile body 100, so that the adjacent tile body 100 is not affected when the tile body is tilted, the first curved surface 240 at the other end is rubbed with the second curved surface 250 of the adjacent tile body 100, and the guide surface 210 at the other end of the tile body 100 to be replaced slips out from the buffer surface 220 of the adjacent tile body 100, so that when the tile body 100 to be replaced is tilted and taken out, the adjacent tile body 100 is not affected, and the purpose of easy replacement is achieved.
Further, when receiving wall, ground infiltration, during the influence of multiple factors such as air humidity, building are flexible, wall or bottom surface can expand because of the infiltration, and at this moment, traditional cubic ceramic tile can receive the effect of inflation external force, and large tracts of land is arched in the stress area. In contrast, in the embodiment of the present invention, because the adjacent tile bodies 100 are stacked, the tiles have a mutual supporting function, and thus share the function of the expansion external force; moreover, due to slight difference of the quality of the ceramic tiles and the firmness degree during laying, even if the external extrusion force is large enough, the affected ceramic tile body 100 with weak bearing capacity is firstly, and the external extrusion force only can be released in a small area and a small range, so that the single ceramic tile body 100 is extruded and arched, and the safety problems that a plurality of ceramic tile bodies 100 need to be replaced due to large-area arching caused by external force, large-area falling and the like are avoided; in addition, after the new tile body 100 is replaced, the possibility of potential safety hazards such as arching and falling-off which occur again in the later period of the ceramic tile can be reduced.
In particular, in the practice of the present invention, the thickness of the tile body 100 is 9-12mm, and the angle of the inclined plane 230 is 30-60 degrees. In the embodiment of the invention, the angle of the inclined plane is set to be 30-60 degrees, so that the ceramic tiles can be laid and detached more conveniently within the angle range.
Referring still to fig. 5, in an alternative embodiment of the present invention, the guide surface 210 and the cushioning surface 220 are vertical surfaces perpendicular to the surface of the tile body 100. In the embodiment of the invention, the guide surface 210 and the buffer surface 220 are set to be vertical surfaces perpendicular to the surface of the tile body 100, so that when the tile is replaced, the tile body 100 can be easily tilted from the vertical surfaces, and the replacement is convenient; when the tile body 100 is arched by expansion or other external forces, the upward force of the arch can directly lift the tile body 100 without responding to the surrounding tile body 100.
In concrete implementation, in this embodiment, since the guide surface 210 and the buffer surface 220 are vertical surfaces perpendicular to the surface of the tile body 100, the tile body 100 can be easily tilted from the vertical surfaces when replacing a tile, and since the first curved surface 240 and the second curved surface 250 are provided, the adjacent tile bodies 100 are not affected. In addition, when the tile body 100 is arched by expansion or other external force, the upward force of the arch can directly lift the tile body 100 without responding to the surrounding tile body 100 due to the presence of the vertical surface, which is of a small thickness.
Optionally, in this embodiment, the guide surface 210 and the buffer surface 220 are both arc surfaces having a radian. The guide surface 210 and the buffer surface 220 are configured as arc surfaces having arcs, and when the tile body 100 is arched by expansion or other external force, the arc surfaces interact with the arc surfaces of the adjacent tiles, so that the upward force of the arch is decomposed into tangential force of the arc surfaces, and thus only the arch itself is arched without affecting the surrounding tile body 100.
In specific implementation, in this embodiment, the guide surface 210 and the buffer surface 220 are both arc surfaces with radian, when needing to be extruded by expansion or other external force, because the guide surface 210 and the buffer surface are both arc surfaces, therefore, when replacing the tile, the force of the obstacle is smaller, the tile body 100 is taken out more easily, and when the tile body 100 is arched by expansion or other external force extrusion, the arc surfaces interact with the arc surfaces of the adjacent tiles, the upward force of the arch is decomposed into tangential force of the arc surfaces, so that the external force only acts on the tile body 100 with stress without affecting the surrounding tile body 100.
It should be noted that the shapes or angles of the guide surface 210, the buffer surface 220, the inclined surface 230, the first curved surface 240, and the second curved surface 250 are not limited to the above shapes or angles, and those skilled in the art may replace other shapes having the same function and angles capable of obtaining the same effect as needed.
Referring to fig. 6, based on the above tile, the present invention further provides a tile processing method, including the following steps:
s100, placing the fired ceramic tile body to be processed on a processing production line;
s200, carrying out primary polishing and edging treatment on the tile body;
s300, turning the tile body subjected to the first polishing and edging treatment and performing second polishing and edging treatment;
s400, carrying out edge modeling processing on the tile body subjected to the secondary polishing and edging processing to obtain a guide part;
and S500, protecting the surface of the tile body of the ceramic tile after edge processing, and finally packaging and warehousing.
In the embodiment of the invention, the tile with water absorption and thickness equal to the conventional water absorption and thickness of the ceramic tile in the market is selected, the water absorption is below 1%, and the thickness of the tile body is 9-12 mm. The thickness of the ceramic tile within the thickness range is moderate, so that the processing of edge modeling is convenient, and if the thickness is too thin, the processing is easy to damage, and the processing cost is increased if the thickness is too thick. The thickness refers to the size of the shape of the processed edge of the ceramic tile, the inclined angle of the shape can be adjusted according to the different thickness of the processed ceramic tile by measuring from the section of the processed edge of the ceramic tile, and the inclined angle of the inclined plane is preferably 30-60 degrees.
Referring to fig. 7, the step S400 further includes:
and S401, simultaneously processing the upper part of one side surface and the lower part of the other side surface of the tile body to obtain a pair of guide parts.
The guide part of the ceramic tile is manufactured through molding equipment, the molding equipment comprises an infrared ray pair wheel system, a water cooling system and a PC control system, and the guide part is manufactured through controlling the infrared ray pair wheel system and the water cooling system through the PC control system.
The roller modeling equipment is provided with an infrared wheel coupling system, a water cooling system and a PC control system, the wheel system is positioned, clamped and processed through infrared rays, the water cooling system cools the ceramic tiles and the infrared wheel coupling system, the PC control system controls the infrared rays to work on the wheel system and the water cooling system, and a preset control program is used for manufacturing the required guide part. In addition, different roller shapes can be replaced according to the shape required by the guide part, and the guide part shapes of the tile bodies in various shapes can be fully automatically produced. Since the infrared ray is used for the wheel system, the water cooling system and the PC control system, which are all in the prior art, detailed description is omitted.
In summary, the tile and the processing method thereof provided by the invention comprise a tile body, wherein the tile body at least comprises a pair of guiding parts for overlapping with the adjacent tile body, and each pair of guiding parts are consistent in shape and are arranged in opposite directions. Through set up an at least pair of guide portion on the ceramic tile brick body, coincide each other between the adjacent ceramic tile brick body when laying, and then when making the ceramic tile brick body later stage of laying the completion need be changed, only need pry from the guide portion and can dismantle, can not destroy ceramic tile on every side, only need make the ceramic tile brick body and the old ceramic tile brick body coincide of newly laying can accomplish when laying again and level and lay.
It should be understood that equivalents and modifications of the technical solution and inventive concept thereof may occur to those skilled in the art, and all such modifications and alterations should fall within the scope of the appended claims.