JPH0623486B2 - Tile pasting device to panel - Google Patents

Description

Description: TECHNICAL FIELD The present invention relates to a device for attaching a tile to a panel, which forms a tile panel by attaching a plurality of tiles to a mortar-coated surface of a panel according to a predetermined attachment pattern.

[Prior Art] Today, tile panels are widely used, for example, on walls of various structures such as buildings and tunnels, and are one of the important factors that influence the appearance.

Therefore, when creating a tile panel, it is necessary to accurately attach a plurality of tiles onto the panel in accordance with a predetermined tile attachment pattern.

However, conventionally, such a tile panel is manufactured by a manual operation in which an operator attaches tiles one by one on a panel according to a predetermined tile attachment pattern. Therefore, there is a problem that the production efficiency of the tile panel is extremely low.

In particular, when such a tile panel is used, for example, for the exterior wall of the same building, it is necessary to manufacture a large number of tiles of the same standard, which makes it possible to attach the tile to the panel efficiently and accurately. The development of means for doing so was desired.

Further, in the conventional tile panel manufacturing technique, the quality of the manufactured tile panel varies depending on the skill level of the operator. For this reason, there is a problem that such tile attaching work must rely on an expert.

The present invention has been made in view of such a conventional problem, and an object thereof is to provide a tile to a panel that allows an unskilled person to accurately and efficiently perform the work of attaching the tile to the panel. It is to provide a sticking device.

[Means for Solving Problems] In order to achieve the above-mentioned object, the invention according to claim 1 is a panel mounting means for mounting a panel with a mortar-coated surface facing upward, and a tile pasting pattern for the panel. According to the above, a plurality of independent tiles are adsorbed and held from the surface side, and the tile adsorbing and holding means that makes the adsorbing surface face the mortar application surface of the panel, and the tiles that are adsorbed and held according to the tile pasting pattern from the back surface side. A moving means for relatively moving the panel mounting means and the tile suction holding means so as to press the mortar coated surface of the panel, and a tile suction when the plurality of tiles are pressed from the back side surface to the mortar coated surface of the panel. Relative transfer of the panel mounting means and the tile suction holding means so that the suction surface of the holding means and the mortar-coated surface of the panel have a constant distance. Anda movement restricting means for restricting a, wherein the pasting multiple tiles mortar coated surface of the panel in accordance with a predetermined joining pattern.

Further, the invention according to claim 2 is a panel mounting means for mounting the panel with the mortar-coated surface facing upward, and a plurality of independent tiles are suction-held from the surface side according to a tile bonding pattern on the panel, Tile suction holding means that makes the suction surface face the mortar coated surface of the panel, and a plurality of tiles that are suction-held according to the tile sticking pattern, and the panel mounting means that presses the tiles from the back side against the mortar coated surface of the panel. Moving means for moving the tile suction holding means relative to each other, the tile suction holding means, on the suction surface facing upward,
A plurality of tiles arranged according to the tile pasting pattern are suction-held, and then 180 so that the suction surface faces downward.
It is equipped with a rotary suction plate that rotates once to face the mortar application surface of the panel, and a tile positioning mold is detachably mounted at a predetermined position on the suction surface of the rotary suction plate. It is characterized in that a plurality of tiles are positioned and mounted on the suction surface according to a predetermined sticking pattern, and stuck on the mortar-coated surface of the panel.

Furthermore, the invention according to claim 3 is a panel mounting means for mounting a panel with the mortar-coated surface facing upward, and a plurality of independent tiles are adsorbed and held from the surface side in accordance with a tile pasting pattern on the panel, Tile suction holding means that makes the suction surface face the mortar coated surface of the panel, and a plurality of tiles that are suction-held according to the tile sticking pattern, and the panel mounting means that presses the tiles from the back side against the mortar coated surface of the panel. Moving means for moving the tile suction holding means relative to each other, the tile suction holding means, on the suction surface facing upward,
A plurality of tiles arranged according to the tile pasting pattern are suction-held, and then 180 so that the suction surface faces downward.
It is equipped with a rotary suction plate that rotates once to face the mortar application surface of the panel, and a tile positioning frame is provided at a predetermined position on the suction surface of the rotary suction plate so as to project and retract from the suction plate. A plurality of tiles are positioned and mounted on the suction surface according to a predetermined sticking pattern using the formwork, the formwork is retracted, and the tiles are stuck on the mortar-coated surface of the panel.

[Operation] Next, a procedure for manufacturing a tile panel using the apparatus of the present invention will be described.

First, a panel having one surface coated with mortar is placed on the panel mounting means with the surface coated with mortar facing upward.

Further, a plurality of tiles are suction-held on the suction surface of the tile suction-holding means according to a predetermined tile sticking pattern. Then, this suction surface is made to face the mortar-coated surface of the tile.

At this time, since each tile is adsorbed and held from the front surface side, the back surface side of each tile comes to face the mortar application surface of the panel.

Then, using the moving means, the panel mounting means and the tile suction holding means are relatively moved, and the plurality of tiles sucked and held by the tile suction holding means are pressed from the back surface side to the mortar coated surface of the panel. After that, the tile suction holding means releases the suction holding of each tile. The moving means relatively moves the tile suction holding means and the panel arranging means so as to separate from each other.

Thus, according to the present invention, a plurality of tiles can be reliably attached to the mortar-coated surface of the panel according to a predetermined attachment pattern, and even a non-skilled person can efficiently produce a tile panel of constant quality. It becomes possible.

In particular, in the invention according to claim 1, when a plurality of tiles are pressed against the mortar application surface of the panel from the back side thereof, a constant gap is provided between the adsorption surface of the tile adsorption holding means and the mortar application surface of the panel. Therefore, the movement restricting means for restricting the relative movement of the panel placing means and the tile suction holding means is provided.

Therefore, the pressing interval of each tile to the mortar-coated surface can be set so as to have an optimum pressing pressure, and each tile can be more favorably stuck on the panel.

Further, in the inventions according to claim 2 and claim 3,
As the tile suction holding means, a rotary suction plate rotatable by 180 degrees is used so that the suction surface can face upward and downward.

Therefore, first, a plurality of tiles can be easily arranged according to a predetermined tile pasting pattern on the suction surface facing upward, and the workability is extremely high.

Then, after the plurality of tiles arranged side by side are suction-held, this rotary suction plate is rotated 180 degrees so that the suction surface faces downward. This allows the plurality of tiles to face the mortar-coated surface of the panel.

Furthermore, when arranging a plurality of tiles on the suction surface of the rotary suction plate, a tile positioning form is used, and the plurality of tiles can be arranged efficiently and accurately on the suction surface according to a predetermined sticking pattern. .

According to the second aspect of the invention, the tile positioning formwork is mounted on the suction surface when the tiles are arranged, and removed when the tiles are arranged.

Further, in the invention according to claim 3, since the tile positioning formwork is adapted to project onto the suction surface when the tiles are arranged and retract to the rotary suction plate side when the tiles are arranged, There is no need to attach and detach the positioning formwork.

[Embodiment] Next, a preferred embodiment of the present invention will be described with reference to the drawings.

FIG. 1 shows a preferred embodiment of a device for attaching tiles to a panel according to the present invention, and the device of the embodiment has a roller row 10 provided along a conveyance path of a panel 20.

This roller row 10 is composed of a plurality of rollers 12, 12 provided for conveying tiles. By rotating each of the rollers 12, 12 ... clockwise, the panel 20 is directed from the left direction to the right direction in the drawing. Be transported.

Further, as shown in FIG. 2, the roller row 10 is provided with a plurality of fixed guides 14 and a width aligning guide 16 as panel guide means.

The fixed guides 14 are provided on the right side in the traveling direction of the transported panel 20. In addition, each of the width warp guides 1
6 is provided on the left side of the panel 20 in the traveling direction, and is formed so as to reciprocate with a constant stroke width in a direction orthogonal to the panel traveling direction.

As a result, the panel 2 conveyed on the roller row 10
0 is pressed against the fixed guide 14 by the reciprocating width guide 16 to position the panel in the traveling direction. Next, the panel 20 is locked by the stopper 24, and its transportation is stopped. Then, the stop of the panel 20 is detected by a sensor (not shown),
The roller 12 is also automatically stopped and controlled.

In this way, according to this embodiment, the panel 20 conveyed by using the roller row 10 is always stopped and controlled in a state where it is accurately positioned at a fixed position.

The stopper 24 of the embodiment is, as shown in FIG.
It is formed so that it can be raised and lowered by using a cylinder 26 for raising and lowering a stopper. Then, as will be described later, the stopper 24 is formed so as to retract downward when the tiles are attached to the panel 20.

The tile pasting device of the present invention is formed so that a plurality of tiles are pasted on the mortar application surface 22 of the panel 20 thus positioned according to a predetermined tile pasting pattern. Panel mounting means 10 for mounting the panel 20 such that 22 is on the upper side
0, a tile adsorbing and holding unit 200 that adsorbs and holds a plurality of tiles 28 from the surface side according to the tile adhering pattern to the panel, and makes the adsorbing surface face the mortar application surface 22 of the panel 20, and adsorbing and holding according to the tile adhering pattern. The plurality of tiles 28 that have been formed from the rear surface side to the panel 20
Moving means 300 for relatively moving the panel mounting means 100 and the tile suction holding means 200 so as to press the mortar application surface 22 of the plurality of tiles 28 and the plurality of tiles 28 pressed against the mortar application surface 22 of the panel 20 from the back surface side. It is formed so as to include a vibration applying unit 400 that applies a vibration to the.

The panel mounting means 100 is provided below the panel transport path. When the transported panel 20 is positioned by the stopper 24, the panel 20 is moved upward and the panel 20 is placed thereon as shown in FIG.

FIG. 4 schematically shows a plane structure of the panel mounting means 100 of the embodiment. As shown in the figure, the panel mounting means 100 includes a pair of support plates 102, 102 provided in parallel therebelow so as to be orthogonal to the rollers 12.
And a plurality of receiving plates 10 provided in parallel between the rollers 12 and 12 and having their lower ends attached and fixed to the supporting plate 102.
3 and 4, as shown in FIG. 3, it is formed so that it can be moved up and down using a cylinder 106 provided on the base 30.

The panel mounting means 100 is normally retracted downward so that the receiving plate 104 is positioned below the panel 20 conveyed by the roller row 10.

When the panel 20 is positioned by the stopper 24, the cylinder 106 is driven to move the receiving plate 104 upward by a predetermined stroke as shown in FIG.
As a result, the receiving plate 104 mounts the panel 20 instead of the roller 12.

Further, in the embodiment, bolts 110, 110 as movement regulation means are vertically attached and fixed to the left and right ends of each receiving plate 104, and the bolt 110 is screwed by using a spanner or the like. The height from the receiving plate 104 can be adjusted.

Further, as shown in FIG. 1, the tile suction holding means 200 of the embodiment is formed by using the rotary suction plate 202,
The rotary suction plate 202 has rotary shafts 206, 2 at both ends thereof.
It is rotatably attached and fixed to the supporting portions 210 and 212 via 08. Then, as shown in FIG. 6, the rotary suction plate 202 rotates a gear motor 214 provided in one of the supporting portions 212 so that the rotation output is transmitted to the rotary shaft 208 via the worm gear mechanism 216. It is formed so as to be transmitted and rotated by at least 180 degrees. Normally, the gear motor 214 is controlled so that the suction surface 204 of the rotary suction plate 202 faces upward.

Further, as shown in FIG. 6, the rotary suction plate 202 of the embodiment has a hollow inside, and this hollow chamber 216
Is a tubular rotary shaft 208 and a duct 218.
It is connected to the suction pump 220 via.

Further, as shown in FIG. 5, the suction surface 204 of the rotary suction plate 202 is provided with a tile suction area 230 matched to the tile pasting pattern. In the embodiment, the tile suction area 230 has a surface. A plurality of rectangular tiles are formed so as to be adsorbed and held in a plurality of rows at regular intervals.

Then, the suction holding areas 230-1 and 230 of each tile
-2 ... has pores 232 communicating with the inner hollow chamber 216 as shown in FIG. 6, and adsorption pads 234 having high airtightness are attached and fixed around the pores 232. There is. Therefore, tile 2 is placed on each of these pads 234.
When the suction pump 220 is driven after arranging 8 inside out, the pressure difference between the hollow chamber 216 and the outside causes
Each tile 28 is sucked and held on the suction surface 204.

Further, in this embodiment, in order to arrange a plurality of tiles on the suction surface 204 while accurately positioning them in accordance with a predetermined tile sticking pattern, in this embodiment, a tile positioning mold 240 as shown in FIG. 7 is used. Used.

The tile positioning formwork 240 of the embodiment is formed by combining a plurality of frame parts 242 according to the tile pasting pattern, and is formed into a substantially rectangular shape as a whole according to the size of the panel 20. Here, each frame portion 242
Are formed in a rectangular shape slightly larger than the tile 28.

Further, a total of four positioning pins 244 are provided symmetrically on both sides of the tile positioning mold 240. Then, the tile positioning mold 240 is placed on the suction surface 204 so that the pin 244 fits with the positioning guide portion 246 provided on the suction surface 204.

By doing so, in the tile positioning formwork 240 of the embodiment, the rotary suction plates 202 are arranged such that the frame portions 242 face the tile suction areas 230-1, 230-2 on the suction surface 204, respectively. It is positioned and placed on the suction surface 204 of the.

Next, as shown in FIG. 7 (B), the operator positions each tile 28, which has been turned upside down, using each frame portion 242 of the form 240, and each tile suction area 230- on the suction surface 204. 1, 230-2 ... are sequentially arranged. As shown in the figure, a plurality of irregularities called back legs 28a are provided on the back side of each tile.

By the way, in the tile positioning mold 240, each frame portion 242 is formed slightly larger than the tile 28. Therefore, if it is left as it is, the attachment positions of the tiles 28 on the panel 20 will be somewhat uneven. Therefore, after the tiles 28 are once arranged on the tile suction areas 230 by using the frame portion 242, the right corner of the frame body 240 is set as the reference position P, and the tiles 28 are indicated by alternate long and short dash lines as shown in FIG. Reference position direction P from the position shown to the position shown by the solid line
Align to. That is, in each frame portion 242, so as to come into contact with the two inner walls intersecting at the right corner,
The tile 28 is aligned.

By using the tile positioning formwork 240 as described above, even if the operator is inexperienced, the plurality of tiles 28,
28 ... Adsorbing surface 204 according to a predetermined sticking pattern
The tile adsorption areas 230-1, 230-2, ... Above can be arranged efficiently while accurately positioning.

And when the tile arranging work like this is completed,
The suction pump 220 is driven to move each tile 28 onto the suction surface 20.
4. Adsorb and hold onto 4. After this, the tile positioning mold 2
40 is removed from the suction surface 204. As a result, the plurality of tiles 28, 28 ... Are suction-held on the suction surface 204 of the rotary suction plate 202 while being reliably positioned in accordance with a predetermined tile attachment pattern as shown in FIG. Become. In this state, the gear motor 214 shown in FIG. 6 is driven to rotate, and the worm gear mechanism 216 is used to rotate the suction rotary plate 202 by 180 degrees clockwise as shown in FIG. As a result, the suction surface 204 is
As shown in FIGS. 1 and 12, the mortar application surface 22 of the panel 20 placed on the panel placing means 100 faces.

Further, in the present embodiment, the moving means 300 is formed by using a pair of cylinders 302 and 304 for moving up and down the rotary suction plate 202 as shown in FIG. 11, and rods 306 and 308 of these cylinders 302 and 304, respectively. The support portions 210 and 212 are attached and fixed to the tip of the.

Then, using the cylinders 302 and 304, the rotary suction plate 202 is lowered toward the mortar application surface 22.
As a result, the plurality of tiles 28 suction-held on the rotary suction plate 202 are pressed against the mortar-coated surface 22 of the panel 20 as shown in FIGS. 11 and 12.
At this time, each tile 28 is applied with a uniform force to the mortar application surface 2
The lowering of the rotary suction plate is regulated by the bolt 110 so that the rotary suction plate is pressed against the position 2.

Further, the vibration applying means 400 of the present embodiment is formed by using three vibrators 402, 402, ..., Each of these vibrators 402 is fixed on the surface of the rotary suction plate 202 opposite to the suction surface 204. Installed and fixed at intervals.

Then, by driving each of these vibrators 402, vibration is given to each tile 28, and as shown in FIG. 13, the back foot portion 28a provided on the back surface side of the tile, particularly on the back surface side of the tile 28 is used as mortar. Good contact is possible.

The present embodiment is configured as described above, and its operation will be described next by taking as an example the case where the tile 28 is attached to the panel 20 according to a predetermined attachment pattern.

First, as shown in FIG. 1, the rotation suction plate 202 is rotationally controlled so that the suction surface 204 faces upward. At the same time, the panel placement means 100 is retracted below the panel transport path.

In this state, as shown in FIG. 7A, the tile positioning formwork 240 is positioned and placed on the suction surface 204 of the rotary suction plate 204, and the plurality of tiles 28 are suctioned using the frame portion 242. Each tile suction area 230-1 on the surface 204,
230-2 ... Arrange in order while positioning on top. Here, each of the frame portions 242 is formed to be slightly larger than the tile 28. Therefore, the worker further arranges the tiles 28 arranged by using the respective frame parts 242 to the frame parts 24.
The position is aligned with the reference position P in the upper right corner in 2.

By doing so, even an inexperienced operator can accurately position all the tiles 28, 28 ... On the suction surface 204 according to a predetermined sticking pattern and arrange them efficiently.

Then, when the tile arranging work is completed, the suction pump 220 is driven to drive all the tiles 28, 2
8 ... is suction-held on the suction surface 204. Then, in this state, the tile positioning mold 240 is removed from the suction surface 204.

As a result, as shown in FIG. 9, a plurality of tiles are sucked and held on the suction surface 204 while being accurately positioned and placed according to a predetermined sticking pattern.

In this state, the gear motor 214 provided in the support portion 212 is then driven to rotate, and the rotary suction plate 202 is rotated 180 degrees via the worm gear. As a result, the rotary suction plate 202 has the suction surface 204 shown in FIG.
As shown in the figure, it faces downward and faces the panel mounting means 100.

Further, in the apparatus of the embodiment, the panel 20 is conveyed by the roller row 10. At this time, the panel 20
The transport path is accurately positioned using the panel positioning means shown in FIG. And this panel 20
Accurate stop control is performed using the stopper 24 so as to face the suction surface 204.

At this time, the stop of the panel 20 is automatically detected by a sensor (not shown), and the stop of the roller 22 is also controlled.

Then, the cylinder 106 of the panel placing means 100 is driven, the receiving plate 104 moves upward by a predetermined stroke, and the panel 20 is placed as shown in FIG. 3 or FIG.

Further, the cylinders 302 and 304 are also driven in association with the movement of the panel mounting means 100. Then, the rotary suction plate 202 is lowered so that the plurality of tiles suction-held on the suction surface 204 are pressed against the mortar application surface 22 of the panel 20 from the back surface side.

Then, the rotary suction plate 202 descends, and the plurality of tiles 28 suction-held on the suction surface 204 of the rotary suction plate 202 are moved to the panel 20.
When it is pressed against the mortar application surface 22, the three vibrators 402 provided on the rotary suction plate 202 are driven, and proper vibration is applied to the plurality of tiles 28 pressed against the mortar application surface 22 for a certain period of time. .

As a result, as shown in FIG. 13, the mortar evenly enters the back foot portion 28a provided on the back surface side of the tile 28, and the entire back surface side is brought into good contact with the mortar, so that the tile 28 is applied to the mortar-coated surface 22. Can be securely attached on top. Further, in the present embodiment, as shown in FIG. 12, the bolts 1 provided on both left and right sides of each receiving plate 104.
06 and 106 are used to regulate the movement of the rotary suction plate 202 so that the suction surface 204 and the mortar application surface 22 have a constant space.

By doing so, all the tiles 28 suction-held on the suction surface 204 are pressed against the mortar application surface 22 of the panel 20 with a uniform pressure, and the pressing force is not partially biased. Therefore, all tiles can be more surely attached to the mortar-coated surface 22 of the panel 20.

In this way, after pressing the plurality of tiles 28 on the mortar application surface 22 of the panel 20 for a certain period of time, the vibrator 402 is stopped and controlled, and then the suction pump 220 is also stopped and controlled, and all the tiles 28 are sucked onto the suction surface 204. Is released from.

At the same time, the cylinders 302 and 304 are driven, the rotary suction plate 202 moves upward to a predetermined position, and then the rotary suction plate 202 moves to a predetermined position.
It is rotated by 80 degrees and the suction surface 204 is directed upward. Further, the panel placing means 100 descends and places the panel 20 on the roller 12.

As a result, as shown in FIG. 14, a tile panel in which a plurality of tiles 28 are accurately pasted according to a predetermined pasting pattern is placed on the roller 12.

In this way, when the panel 20 is placed on the roller 12, the cylinder 26 is driven and the stopper 24 retracts downward. At the same time, the roller 12 is rotationally driven to convey the panel 20 toward the next step. And panel 2
When 0 is conveyed, the cylinder 26 is driven again and the stopper 24 is returned to the original position.

The tile pasting apparatus of the present embodiment repeats such an operation, and repeats the tile pasting work for the panels 20 which are sequentially conveyed.

In this way, according to the tile pasting apparatus of the present invention,
Even a non-skilled person can efficiently and accurately attach a plurality of tiles on the mortar-applied surface 22 of the conveyed panel 20 according to a predetermined attachment pattern to produce a tile panel.

The present invention is not limited to the above embodiment,
Various modifications can be made within the scope of the present invention.

For example, in the above embodiment, the tile positioning mold 2
The case where 40 is detachably formed on the rotary suction plate 202 has been described as an example. However, the present invention is not limited to this,
The positioning frame 240 may be integrally attached and fixed to the rotary suction plate 202.

In FIG. 15, the tile positioning form 240 is thus shown.
A suitable example in the case of integrally attaching the tile to the rotary suction plate 202 is shown, and the tile positioning mold 2 of the embodiment is shown.
40 has two cylinders 250 on each of the left and right sides.
It is attached and fixed to the rotary suction plate 202 using. FIG. 15 (B) shows the cylinder 250 used for this attachment.
An enlarged view of is shown.

Then, when arranging the tiles 28 on the suction surface 204, the cylinders 250 are driven and the tile positioning formwork 240 rises above the pads 234 as shown in FIG.

When all the tiles 28 are suction-held on the suction surface 204, the tile positioning form 240 is retracted to the suction surface side by using the cylinder 250 as shown in FIG. By doing so, even when the tile positioning mold 240 is formed integrally with the rotary suction plate 202, mortar is less likely to adhere to the positioning mold 240, and the mold 240 is frequently used. It is possible to repeat the work of attaching tiles to the panel without cleaning.

Further, in the above-mentioned embodiment, the case where the bolt 110 as the movement restricting means is provided on the panel mounting means 100 side has been described as an example, but the present invention is not limited to this, and the suction of the rotary suction plate 202 may be carried out if necessary. The bolt 110 may be provided on the surface 204.

Further, in the present embodiment, the case where the panel mounting means 100 is provided separately from the roller 12 has been described as an example, but the present invention is not limited to this, and the roller 12 itself may be used as the panel mounting means. .

Further, in the above-described embodiment, the case where the tiles having a rectangular surface are attached at regular intervals has been described as an example, but the present invention is not limited to this, and tiles 28 having various shapes on the surface are used.
It can also be applied to a case where (for example, a triangle or a pentagonal tile) is stuck on the panel 20, and in this case, the suction surface 4 depends on the sticking pattern of the surface shape of the tile 28.
04 and the tile positioning mold 240 may be formed.

[Effects of the Invention] As described above, according to the present invention, even an inexperienced operator can accurately position and tile a plurality of tiles on a panel in accordance with a predetermined pasting pattern. The effect is that you can do it.

In particular, according to the invention described in claim 1, there is an effect that each tile can be satisfactorily attached to the panel by setting the pressing interval of each tile to the mortar application surface to be an optimum pressing pressure. .

Further, according to the invention described in claim 2, there is an effect that the tiles can be arranged efficiently and accurately by the detachable tile positioning frame.

Further, according to the third aspect of the invention, since the tiles are arranged in the tile positioning molds which can be projected and retracted, there is an effect that the work of attaching and detaching the molds can be omitted.

[Brief description of drawings]

FIG. 1 is an overall explanatory view showing a preferred example of a device for attaching tiles to a panel according to the present invention, FIG. 2 is an explanatory view of panel guide means provided in a roller row shown in FIG. 1, FIG. 4 is a side view and a plan view of the panel mounting means shown in FIG. 1, and FIGS. 5 and 6 are a plan view and sides of a rotary suction plate used in the apparatus shown in FIG. Sectional explanatory drawing, FIG. 7 is an explanatory view when tiles are arranged on the suction surface of the rotary suction plate using the tile positioning mold, and FIG. 8 shows the frame portion of the tile positioning mold shown in FIG. FIG. 9 is an explanatory view of the work of positioning the tiles arranged by using the tiles in the reference position P direction, FIG. 9 is a perspective view of a rotary suction plate in which a plurality of tiles are suction-held according to a predetermined sticking pattern, and FIG. 10 is a plurality of tiles. A rotary suction plate that holds and holds 1
An explanatory view of the operation of rotating by 80 degrees, FIGS. 11 and 12 are an explanatory view of a series of operations in which the rotary suction plate descends toward the panel, and FIG. 13 shows the back surface side of the tile pressed against the mortar application surface. FIG. 14 is an external perspective view of a tile panel formed by using the apparatus of this embodiment, and FIGS. 15 to 17 are explanatory views of a preferred second embodiment of the present invention. . 20 ... Panel 22 ... Mortar application surface 28 ... Tile 200 ... Tile suction holding means 202 ... Rotary suction plate 204 ... Suction surface 220 ... Suction pump 240 ... Tile positioning formwork 250 ... Cylinder 300 ...... Movement means 400 …… Vibration applying means

Claims (3)

[Claims] 1. A panel mounting means for mounting a panel with a mortar-coated surface facing upward, and a plurality of independent tiles that are suction-held from the surface side according to a tile sticking pattern on the panel, and the suction surface is a panel. The tile adsorbing and holding means facing the mortar coated surface, and the panel placing means and the tile adsorbing and holding means for pressing the plurality of tiles adsorbed and held according to the tile sticking pattern from the back surface side to the mortar coated surface of the panel. When the plurality of tiles are pressed against the mortar application surface of the panel from the back side surface thereof, a constant distance is provided between the adsorption surface of the tile adsorption holding means and the mortar application surface of the panel. And a movement restricting means for restricting relative movement of the panel placing means and the tile suction-holding means. Tile joining apparatus to the panel, wherein the paste mortar coated surface of the panel in accordance with over emissions. 2. A panel mounting means for mounting a panel with the mortar-coated surface facing upward, and a plurality of independent tiles that are suction-held from the surface side according to a tile sticking pattern on the panel, and the suction surface is the panel. The tile adsorbing and holding means facing the mortar coated surface, and the panel placing means and the tile adsorbing and holding means for pressing the plurality of tiles adsorbed and held according to the tile sticking pattern from the back surface side to the mortar coated surface of the panel. And a moving means for relatively moving the tile adsorbing and holding means, wherein the tile adsorbing and holding means has an adsorbing surface facing upward,
A plurality of tiles arranged according to the tile pasting pattern are suction-held, and then 180 so that the suction surface faces downward.
It is equipped with a rotary suction plate that rotates once to face the mortar application surface of the panel, and a tile positioning mold is detachably mounted at a predetermined position on the suction surface of the rotary suction plate. A tile pasting device for a panel, characterized in that a plurality of tiles are positioned and placed on a suction surface according to a predetermined pasting pattern and pasted on a mortar application surface of the panel. 3. A panel mounting means for mounting a panel with the mortar-coated surface facing upward, and a plurality of independent tiles that are suction-held from the surface side according to a tile sticking pattern on the panel, and the suction surface is the panel. Tile suction holding means facing the mortar coated surface of, and a plurality of tiles suction-held according to the tile pasting pattern, the panel mounting means and tile suction holding means so as to press from the back side to the mortar coated surface of the panel. And a moving means for relatively moving the tile adsorbing and holding means, wherein the tile adsorbing and holding means has an adsorbing surface facing upward,
A plurality of tiles arranged according to the tile pasting pattern are suction-held, and then 180 so that the suction surface faces downward.
It is equipped with a rotary suction plate that rotates once to face the mortar application surface of the panel, and a tile positioning frame is provided at a predetermined position on the suction surface of the rotary suction plate so as to project and retract from the suction plate. Positioning and placing a plurality of tiles on a suction surface according to a predetermined sticking pattern using the formwork, retracting the formwork and sticking the tiles to the mortar-coated surface of the panel. Tile pasting device.