KR101847353B1 - Apparatus for fabric - Google Patents

Abstract

The present invention relates to a fabric manufacturing apparatus, and more particularly, to a fabric manufacturing apparatus which passes a fabric supplied from a fabric supplying module between a forward/backward roller module and a lifting/lowering roller module, and passes the fabric between the forward/backward roller module and an adhesive layer forming roller module to uniformly form an adhesive layer.

Description

{APPARATUS FOR FABRIC}

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a fabric manufacturing apparatus, and more particularly, to a fabric manufacturing apparatus in which a fabric supplied from a fabric feed module passes between a forward / backward roller module and an up / down roller module, So that a uniform adhesive layer can be formed.

A predetermined pattern is formed on a raw fabric, and an adhesive layer is printed and formed thereon. Then, a material such as a foil is adhered on the pattern to form a pattern.

However, the conventional fabric manufacturing apparatus has a problem that a part of the fabric slips or cries in the process of forming an adhesive layer, so that the adhesive layer is not uniformly formed as desired. This is a problem that occurs because the fabric can not uniformly pass through the adhesive layer forming roller in order to form the adhesive layer.

That is, a conventional fabric manufacturing apparatus uses a method in which only one of the rollers pulls a fabric to print an adhesive on a fabric to form an adhesive layer. Accordingly, the tension of the fabric tends to be large by performing the role of pulling the adhesive printing machine against the fabric wound around the front side of the adhesive printing machine or the softened fabric and the printing role. This tension prevents the printing surface from being printed uniformly when the width of the fabric is reduced or the fabric is crooked, and the problem of deflection of the deformed portion due to the difference in weight or weight between the modified portion and the central portion on both sides occurs. This causes a fatal problem to the fabric, and may lead to a large economic loss in which the fabric is discarded due to partial or complete failure of the fabric after the adhesive printing operation.

In order to solve this problem, a technique of adopting a method of pulling a fabric with a predetermined tension roller at the rear end of the fabric has been adopted in the adhesive printing apparatus of the conventional fabric manufacturing apparatus. However, when the adhesive on the surface on which the adhesive is printed is not dried It is difficult to apply a uniform and constant tensile force to both sides of the fabric and it is difficult to match the rotation speed of the roller used for printing and the roller used for tensioning.

In addition, a method of solving the problem by applying an external force such as a pin or a tongue to the roller side of the roller has been devised. However, this has been costly and costly due to the limited printing space. In particular, since a printing liquid uses a binder or an adhesive as a main material, there is a high possibility that the printing liquid is adhered to a pin or a tongue, and this causes a serious problem in commercialization.

Therefore, there is a need to provide a more economical and effective means for preventing such phenomenon from occurring, thereby preventing the occurrence of defects in the fabric and improving the fabrication efficiency of the fabric.

Patent No. 10-1530818

The present invention has been conceived to solve the above-mentioned problems, and it is an object of the present invention to provide an image forming apparatus in which a cloth supplied from a far-end supply module passes between a forward / backward roller module and an up / down roller module, The present invention has been made in view of the above problems, and it is an object of the present invention to provide a fabric manufacturing apparatus which prevents unevenness of the fabric by forming a uniform tension on the fabric and forms a uniform adhesive layer on the fabric.

A fabric manufacturing apparatus according to an embodiment of the present invention includes: a fabric supply module for supplying a fabric; An adhesive layer forming roller module disposed on the downstream side of the far-end feed module in the moving direction of the fabric, and including a first roller rotating around a first rotation axis to form an adhesive layer on a far end; An ascending / descending roller module disposed on the upper side of the first roller, the ascending / descending roller module including a second roller configured to be able to rotate up and down about a second rotation axis; And a third roller arranged on the upstream side of the adhesive layer forming roller module in the traveling direction of the fabric and arranged in a horizontal direction with respect to the second roller, being rotatable about the third rotary shaft and displaceable in the front- Gill Roller Module; A tension roller disposed downstream of the lifting and lowering roller module in the direction of travel of the fabric and pulling a fabric having passed between the first roller and the second roller; A drying device disposed downstream of the tension roller in a traveling direction of the fabric; A water tank located below the first roller of the adhesive layer forming roller module and containing an adhesive; Wherein the raw material supplied from the far-end supply module passes between the second roller and the third roller, and then passes between the second roller and the first roller.

Preferably, the adhesive layer forming roller module further comprises a predetermined driving device for rotating the first rotation shaft to rotate the first roller.

Preferably, the first rotation axis is detachably connected to both sides of the first roller.

Preferably, the first rotation shaft is displaceable in the extending direction, and at one end thereof, a connecting end detachable from the one side of the first roller is provided.

Preferably, the ascending / descending roller module includes an ascending / descending device for ascending and descending the second roller.

Preferably, the elevating and lowering device includes a vertical moving block in which the second rotating shaft is rotatably supported, and a vertical moving axis for moving the up and down moving block in the vertical direction.

Preferably, the up-and-down movement block has a through-hole penetrating vertically and having a female thread formed therein, the up-and-down movement axis having a male thread portion formed on an outer circumferential surface, at least a portion thereof being supported by a predetermined frame, And the shaft is screwed to the through hole so that the up-and-down moving block is displaced in the vertical direction in accordance with the rotation of the up-and-down moving shaft.

Preferably, the elevating and lowering device includes a predetermined interval display unit with a scale capable of measuring a vertical moving distance of the up-and-down moving axis.

Preferably, the forward / backward roller module includes a forward / backward device for moving the third roller back and forth.

Preferably, the forward / backward device includes a forward / backward moving block in which the third rotating shaft is rotatably supported, and a cylinder module for moving the forward / backward moving block in the forward / backward direction.

Preferably, the cylinder module includes a cylinder body connected to a predetermined pneumatic tube to receive air pressure therein, and a piston having one end located in the cylinder body and the other end connected to the back and forth moving block.

Preferably, the adhesive layer forming module, the ascending / descending roller module, and the forward and backward roller modules each include power transmitting means for transmitting power.

Preferably, the adhesive layer forming module includes a first side gear provided on the first rotating shaft and rotating together with the first roller, and the ascending and descending roller module is provided on the second rotating shaft, And a second side gear that rotates together, wherein the forward / backward roller module includes a third side gear provided on the third rotation shaft and rotating together with the third roller, wherein the first side gear includes a second side gear And the third side gear is engaged with the second side gear.

Preferably, the rotation distance per hour of the first roller, the rotation distance per hour of the second roller, and the rotation distance per hour of the third roller are the same.

Preferably, the tension roller is disposed above the lifting / lowering roller module, folds the moving direction of the fabric, and transfers the tension to the drying device.

Preferably, the fabric passes through between the first roller and the third roller so that the advancing direction is folded by a predetermined angle.

Preferably, the third rotation axis is located at the same height as the first rotation axis or at a position higher than the first rotation axis.

The apparatus for fabricating a fabric according to the present invention can appropriately adjust the amount of adhesive adhering to the fabric and the thickness of the adhesive layer by including the lifting and lowering roller module.

In addition, since the fabric manufacturing apparatus according to the present invention includes the forward and backward roller modules, the tensile force applied to the fabric can be uniformly maintained during the adhesive layer formation process, thereby preventing a part of the fabric from floating or crying, A uniform adhesive layer can be formed.

1 is a structural view of a fabric manufacturing apparatus according to the present invention.
FIGS. 2 and 3 are views showing structures of the adhesive layer forming module, the ascending / descending roller module, and the forward and backward roller modules of the fabric manufacturing apparatus according to the present invention from different directions.
4 is a view showing an operation mode of the adhesive layer forming module and the ascending / descending roller module of the fabric manufacturing apparatus according to the present invention.
5 is a view showing the operation of the adhesive layer forming module, the ascending / descending roller module, and the forward / backward roller module of the fabric manufacturing apparatus according to the present invention.

Hereinafter, preferred embodiments of the present invention will be described with reference to the accompanying drawings.

FIG. 1 is a structural view of a fabric manufacturing apparatus according to the present invention. FIG. 2 and FIG. 3 are views showing an adhesive layer forming roller module 200, an ascending / descending roller module 300, 4 is a view showing an operation mode of the adhesive layer forming roller module 200 and the ascending / descending roller module 300 of the fabric manufacturing apparatus according to the present invention .

Referring to FIG. 1, a fabric manufacturing apparatus according to an embodiment of the present invention includes a fabric supplying module 100; An adhesive layer forming roller module (200); A lifting roller module 300; A forward / backward roller module 400; A tension roller 500; And an adhesive layer drying apparatus 600. In addition, a frame 10 that connects and supports the respective parts and constitutes a frame of the entire apparatus may be provided.

The far-end feeding module 100 may include, for example, a far-end feeding roller, and may continuously feed the rear end T composed of a three-dimensional fabric having a pattern formed on one side thereof. Hereinafter, the position of the far-end feed module 100 is referred to as the upstream side, and the opposite side is referred to as the downstream side in accordance with the traveling direction of the raw material supplied from the far-end feed module 100 (the arrow F in Fig. 1).

The adhesive layer forming roller module 200 is disposed on the downstream side of the far-end feed module 100.

The adhesive layer forming roller module 200 includes a first roller 210 rotating around a first rotating shaft 220 and a first roller 210 located outside the first roller 210 in a direction in which the first rotating shaft 220 extends And a first side gear 230 that rotates together with the first roller 210. The first rotation shaft 220 is supported by the frame 10 so that the first roller 210 and the first side gear 230 rotate about the first rotation shaft 220 at a predetermined height. A predetermined driving device (not shown) for providing a rotational driving force to rotate the first roller 210 and the first side gear 230 may be connected to the first rotation shaft 220.

Preferably, the first rotation shaft 220 and the first roller 210 are detachably connected to each other. 4, a predetermined connection end portion 240 is provided at one end of the first rotation shaft 220 and a connection end portion 240 is connected to the connection end portion 240 at a lateral end portion of the first roller 210 A predetermined fixing means 212 may be provided and detachably coupled to each other. A predetermined handle 250 may be connected to the other end of the first rotation shaft 220 to move the first rotation shaft 220 in a lateral direction and separate the first rotation shaft 220 from the first roller 210. For example, as the handle 250 rotates as indicated by the arrow J, the first rotary shaft 220 can move laterally as indicated by the arrow K. Accordingly, the first roller 210 can be separated and engaged with respect to the first rotation shaft 220.

Below the adhesive layer forming roller module 200, a water tank 20 containing an adhesive liquid is disposed. The adhesive liquid contained in the water tank 20 has a water level reaching the bottom of the outer circumferential surface of the first roller 210. Therefore, when the first roller 210 rotates, the adhesive liquid may be applied to the outer circumferential surface thereof.

The ascending and descending roller module 300 includes a second roller 310 that rotates about the second rotation axis 320 and a second roller 310 that is provided outside the second roller 310 in a direction in which the second rotation axis 320 extends. A two-side gear 330, and a lifting device 340.

The second rotation axis 320 may be parallel to the first rotation axis 220 and may be positioned above the first rotation axis 220. [ Accordingly, the second roller 310 is positioned above the first roller 210 and is spaced apart from the first roller 210 by a predetermined distance. 1, the raw material supplied through the far-end feed module 100 passes through the gap between the first roller 210 and the second roller 310 and proceeds to the downstream side.

The second side gear 330 is engaged with the first side gear 230. Accordingly, the first side gear 230 can receive the rotational force. Therefore, the second side gear 330 and the second roller 310 can be rotated when the first side gear 230 is rotated by the driving device of the adhesive layer forming module.

The second roller 310 presses the fabric toward the downward direction, that is, toward the first roller 210, so that the adhesive liquid adhered to the outer circumferential surface of the first roller 210 is applied to the fabric.

The second roller 310 is configured such that the vertical distance from the first roller 210 is adjustable. In other words, if the vertical distance between the second roller 310 and the first roller 210 is small, the amount of the adhesive 22 adhering to the fabric can be increased. If the gap between the second roller 310 and the first roller 210 is increased, Can be reduced.

The lifting device 340 is provided to vertically lift and lower the second roller 310 to adjust the gap between the first roller 210 and the second roller 310 as described above. The lifting device 340 includes a vertical movement block 342 for supporting the second rotation axis 320 and a vertical movement axis 346 for vertically moving the vertical movement block 342 .

The vertical movement block 342 may be disposed outside the second side gear 330 and may be positioned between the frame 10 and the second side gear 330. In addition, the vertical movement block 342 is connected to the frame 10 and can be vertically moved. The vertical movement block 342 has a predetermined connection hole (not shown) through which the second rotation shaft 320 passes in the horizontal direction, so that the second roller 310 can be supported and rotated. The up-and-down moving block 342 may have a through-hole 344 penetrating vertically and having a female thread formed therein.

The vertical movement shaft 346 is a member for vertically displacing the up-and-down movement block 342. For example, the vertically moving shaft 346 may have a handle 350 formed at an upper end thereof and a male screw 348 formed at an outer circumferential surface thereof, and may have an upright bar-shaped configuration. The upper portion of the vertical movement shaft 346 can be supported on the frame 10 through a predetermined jig 352. The lower part of the up-and-down moving shaft 346 may be screwed to the through-hole 344 of the up-and-down moving block 342. The vertical movement block 342, the second rotation shaft 320, the second side gear 330, and the second roller 310 move up and down in accordance with the rotation of the vertical movement shaft 346 have. However, the upward / downward movement device 340 is not limited to the above-described configuration and may be any device capable of moving the up / down movement block 342, the second roller 310, and the second side gear 330 up and down. It can also have a configuration. Further, an interval measuring unit (not shown) may be further provided with a predetermined scale so as to measure the vertical moving distance of the vertical moving shaft 346. For example, the gap measuring unit may be provided on the jig 352 connecting the vertical movement shaft 346 to the frame 10.

In addition, the ascending / descending roller module 300 further includes a second roller 310, a second rotation shaft 320, and a second roller 320 supported by the up-and-down movement block 342 and the up- And a variable module (not shown) for moving the side gear 330 up and down. For example, as shown in FIG. 4, a predetermined variable handle 360 is provided on one side of the frame 10, and the variable handle 360 is rotated as shown by the arrow M, ) Can be displaced up and down as indicated by an arrow N. For example, the variable module is used to vertically move the vertical movement block 342, the second roller 310, the second rotation shaft 320, and the second side gear 330, The apparatus 340 moves the upper and lower moving blocks 342, the second rollers 310, the second rotating shaft 320 and the second side gears 330 finely so as to move the second roller 310 and the first roller 330, (Not shown).

As described above, while passing between the first roller 210 and the second roller 310, an adhesive is deposited on the fabric to form an adhesive layer. At this time, an adhesive layer can be formed within a specific pattern area because the pattern or the like is previously formed on the raw fabric.

The forward and backward roller module 400 includes a third roller 410 that rotates about a third rotational axis 420 and a second roller 420 that is provided outside the third roller 410 in a direction in which the third rotational axis 420 extends A third side gear 430, and a forward / backward device 440.

The third rotating shaft 420, which is the rotating shaft of the third roller 410, extends parallel to the second rotating shaft 320 and is located on the upstream side of the second rotating shaft 320. The third roller 410 is positioned upstream of the first roller 210 and is spaced apart from the second roller 310 by a predetermined distance in the front-rear direction. Thus, after the distance between the second roller 310 and the third roller 410 has passed, the distance between the first roller 210 and the second roller 310 is exceeded.

Preferably, when the fabric passes between the first roller 210 and the third roller 410, the fabric may be angled. That is, preferably, the interval portion between the first roller 210 and the third roller 410 may be located at the same height as the rotational center axis of the first roller 210, or may be located at a higher position . The position of the third rotary shaft 420 of the third roller 410 may be located at the same height as the first rotary shaft 220 of the first roller 210, It can be positioned higher than that. However, the present invention is not limited thereto.

The third side gear 430 is engaged with the second side gear 330 and can receive the rotational force by the second side gear 330. Accordingly, when the second side gear 330 rotates, the third side gear 430 and the third roller 410 can rotate.

The third roller 410 may press the raw material toward the second roller 310 so that the raw material charged between the second roller 310 and the first roller 210 may be supplied by a uniform amount per hour.

The forward / reverse gear device 440 is a device that moves the third roller 410 and the third side gear 430 forward and backward by moving the third rotation shaft 420 in the forward and backward directions. Accordingly, the interval between the third roller 410 and the second roller 310 can be adjusted. Here, the forward movement means that the third roller 410 moves in the direction of approaching the second roller 310 and means the direction in which the interval between the second roller 310 and the third roller 410 is reduced do. Further, the reverse movement means the opposite direction, which means a direction in which the interval between the second roller 310 and the third roller 410 increases.

The forward and backward motion device 440 may include a forward and backward movement block 442, and a cylinder module 444.

The back and forth moving block 442 is a predetermined structure for supporting the third rotating shaft 420. The back and forth moving block 442 has a predetermined connection hole (not shown) through which the third rotation shaft 420 passes in the horizontal direction so that the third roller 410 can be supported and rotated. The back and forth moving block 442 is connected to the frame 10 and can be displaced in the forward and backward directions. Therefore, when the back and forth moving block 442 is displaced in the front-rear direction, the third side gear 430 and the third roller 410 can be displaced in the front-rear direction.

The cylinder module 444 may be configured to include a cylinder body 446, a piston 448, and a pneumatic tube 450, for example, a device operated by air pressure.

The cylinder body 446 is located behind the back-and-forth moving block 442 and is connected to the pneumatic tube 450 to receive compressed air therein. One end of the piston 448 is located in the cylinder body 446 and the other end is connected to the back-and-forth moving block 442. Accordingly, the piston 448 is moved in the forward direction, that is, in the forward direction, that is, the second roller (second roller) 310 are located. It is also possible to reduce the pressure of the compressed air in the cylinder body 446 to move the back and forth moving block 442 backward. The third roller 410 maintains the position adjacent to the second roller 310 by the air pressure so that the distance between the first roller 210 and the second roller 310 is adjusted by the second roller 310 It is possible to move the third roller 410 to be pushed backward or vice versa.

The frame includes a predetermined jig 452 for guiding the forward and backward movement block 442 to connect with the frame and displacing the forward and backward movement block 442 in the forward and backward directions and connecting and supporting the cylinder module 444 .

In the above embodiment, the adhesive layer forming roller module 200, the ascending / descending roller module 300, and the forward and backward roller modules 400 are provided with the first side gear 230, the second side gear 330, But it is not necessarily limited thereto. That is, various types of power transmission means may be provided, and for example, a power transmission means having a belt-pulley structure may be provided.

5 is a view showing the operation of the adhesive layer forming module, the ascending / descending roller module 300, and the forward / backward roller module 400 of the fabric manufacturing apparatus according to the present invention. As described above, the adhesive layer forming module, the ascending / descending roller module 300, and the forward and backward roller module 400 are operated together by the power transmitting means. In the form as shown in FIG. 5, The roller module 300, and the forward / backward roller module 400, respectively. 5, the arrows P and Q.R respectively denote the first roller 210, the second roller 310, and the third roller 310 of the adhesive layer forming module, the ascending / descending roller module 300 and the forward and backward roller module 400, And shows the rotating direction of the roller 410. Fig.

The rotation distance of the first roller 210, the rotation distance of the second roller 310, and the rotation distance of the third roller 410 may be the same. Therefore, when the adhesive layer is formed on the raw fabric by the raw material having passed first between the third roller 410 and the second roller 310 uniformly between the second roller 310 and the first roller 210, A partly floating or crying phenomenon can be prevented and a uniform adhesive layer can be formed on the fabric.

The effect of this will be described in more detail as follows.

In the conventional adhesive manufacturing apparatus of the fabric manufacturing apparatus, only one of the rollers pulls the fabric to print an adhesive on the fabric to form an adhesive layer. Accordingly, the tension of the fabric tends to be large by performing the role of pulling the adhesive printing machine against the fabric wound around the front side of the adhesive printing machine or the softened fabric and the printing role. This tension prevents the printing surface from being printed uniformly when the width of the fabric is reduced or the fabric is crooked, and the problem of deflection of the deformed portion due to the difference in weight or weight between the modified portion and the central portion on both sides occurs. Particularly, as in the case of the second roller 310 of the present invention, a large tensile force is applied to the portion where the angle of the fabric is suddenly changed, so that there is a lot of ringing and width reduction of the fabric. This can be understood, for example, to be similar to a phenomenon that occurs when a middle portion of a predetermined cloth is pulled to both ends of the bar by a strong pull.

Such ringing and width reduction of the fabric prevents the adhesive layer from being uniformly formed with respect to the fabric. This causes a fatal problem to the fabric, and may lead to a large economic loss in which the fabric is discarded due to partial or complete failure of the fabric after the adhesive printing operation. In particular, in the case of a fabric, an adhesive layer is formed in a unit of several tens to several hundreds of meters, and a defect in one part may lead to disposal of the entire fabric. In particular, in the case of sounding in the left and right direction, the adhesive layer may be formed in a bad manner over the entire length. In this case, defects may occur in the entire lengthwise direction, making it impossible to utilize a part of the fabric.

However, in the present invention, by allowing the raw material to pass between the second roller 310 and the third roller 410 immediately before being inserted between the first roller 210 and the second roller 310 to form the adhesive layer, The second roller 310 and the third roller 410 can pull the fabric in advance. Therefore, it is possible to prevent a locally large tensile force from being generated on the fabric at the point of forming the adhesive layer between the first roller 210 and the second roller 310 as described above. Accordingly, it is possible to minimize the ringing and width reduction of the fabric between the first roller 210 and the second roller 310, and a uniform adhesive layer formation to the fabric can be achieved. In addition, when the cloth passes between the first roller 210 and the third roller 410, tensile force is uniformly applied to both sides of the cloth, so that when a tensile force is applied to one side of the cloth It is possible to more effectively prevent the sounding of the fabric and the reduction of the width. As a result, the first rollers 210 and the third rollers 410 are rotated together with the first rollers 210 and the third rollers 410. After the first rollers 210 and the third rollers 410 pass between the first rollers 210 and the third rollers 410, Since the adhesive printing process is performed between the second roller 210 and the second roller 310, a uniform adhesive layer formation can be more effectively achieved.

Further, in the preferred embodiment of the present invention, the first roller 210, the second roller 310, and the third roller 410 are operated by intermeshed gears, The height of the adhesive layer, and the feeding speed of the fabric can be suitably adjusted by organically controlling each other. Therefore, even if the height and the rotation speed of each roller are not complicatedly adjusted, it is prevented that the fabric is stretched, reduced, or bounced, so that smooth printing quality can be maintained.

The tension roller 500 is installed on the downstream side of the ascending / descending roller module 300. Therefore, the fabric passed between the first roller 210 and the second roller 310 advances in the direction of the tension roller 500. In addition, a predetermined power unit (not shown) for imparting rotation to the tension roller 500 may be provided.

Preferably, the tension roller 500 is disposed above the second roller 310 and pulls the fabric upwardly in tension while changing the moving direction of the fabric. Therefore, it is possible to maintain a high tension when the fabric passes through the first roller 210 and the second roller 310. Further, the fabric is folded around the tension roller 500 and supplied to the drying apparatus 600.

Preferably, the rotation speed of the tension roller 500 can be adjusted. For example, the rotational speed of the tension roller 500 can be adjusted according to the viscosity and the application amount of the adhesive 22, so that the tension of the fabric can be appropriately adjusted. Therefore, the fabric passes between the first roller 210 and the second roller 310 in a state of high tension by the pulling action of the tension roller 500. At the same time, the gap between the first roller 210 and the second roller 310 is appropriately adjusted by raising and lowering the second roller 310, so that the adhesive 22 can be appropriately applied to the fabric.

The drying apparatus 600 is installed downstream of the tension roller 500. The drying apparatus 600 may include a predetermined heating device and may be disposed to face the adhesive layer applied to the fabric. The heating device can heat the adhesive layer to a temperature of, for example, about 90 ° C to 110 ° C to make the adhesive layer semi-dry.

Then, the fabric having passed through the drying apparatus 600 may be introduced into a predetermined subsequent process module 700. The subsequent process module 700 may include a foil feeder that feeds a foil, for example, a member such as a foil to the fabric so that the foil adheres to the adhesive layer formed on the fabric, and a finisher that performs various finishing operations.

The fabric manufacturing apparatus according to the present invention includes the lifting and lowering roller module 300 so that the amount of the adhesive 22 adhering to the fabric and the thickness of the adhesive layer can be appropriately adjusted.

In addition, since the fabric manufacturing apparatus according to the present invention includes the forward and backward roller module 400, the amount of the input per unit time between the first roller 210 and the second roller 310 can be kept constant. Therefore, a phenomenon that a part of the fabric is floated or cried in the process of forming the adhesive layer is prevented, and a uniform adhesive layer can be formed.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, but, on the contrary, It should be understood that various modifications may be made by those skilled in the art without departing from the spirit and scope of the invention.

10: frame
20: Water tank
22: Adhesive
100: Fabric feeding module
200: Adhesive layer forming roller module
210: first roller
212: Fixing means
220: first rotating shaft
230: first side gear
240: connection end
250: Handle
300: Up and down roller module
310: second roller
320:
330: second side gear
340:
342: Up and down movement block
344: Through hole
346: Up and down movement axis
348: Male threads
350: Handle
352: jig
400: forward and backward roller module
410: third roller
420: third rotating shaft
430: Third side gear
440:
442: back and forth moving block
444: Cylinder module
446: Cylinder body
448: Piston
450: Pneumatic tube
452: Jig
500: tension roller
600: Drying device
700: Subsequent process module

Claims (17)

A fabric supply module for supplying the fabric;
An adhesive layer forming roller module disposed on the downstream side of the far-end feed module in the moving direction of the fabric, and including a first roller rotating around a first rotation axis to form an adhesive layer on a far end;
An ascending / descending roller module disposed on the upper side of the first roller, the ascending / descending roller module including a second roller configured to be able to rotate up and down about a second rotation axis;
And a third roller arranged on the upstream side of the adhesive layer forming roller module in the traveling direction of the fabric and arranged in a horizontal direction with respect to the second roller, being rotatable about the third rotary shaft and displaceable in the front- Gill Roller Module;
A tension roller disposed downstream of the lifting and lowering roller module in the direction of travel of the fabric and pulling a fabric having passed between the first roller and the second roller;
A drying device disposed downstream of the tension roller in a traveling direction of the fabric; And
A water tub positioned below the first roller of the adhesive layer forming roller module and containing an adhesive; / RTI >
The raw material fed from the far-end feed module passes between the second roller and the third roller, then passes between the second roller and the first roller,
Wherein the forward / backward roller module comprises:
And a forward / backward device for moving the third roller back and forth,
Wherein the forward /
A back-and-forth moving block in which the third rotating shaft is rotatably supported, and
And a cylinder module for moving the front and rear moving blocks in the forward and backward directions. The method according to claim 1,
Wherein the adhesive layer forming roller module comprises:
And a predetermined driving device for rotating the first roller by rotating the first rotation shaft. The method according to claim 1,
And the first rotation axis is detachably connected to both sides of the first roller. The method according to claim 1,
Wherein the first rotation axis is configured to be displaceable in an extending direction,
And a connecting end detachable from one side of the first roller at one end. The method according to claim 1,
The elevating roller module includes:
And an ascending / descending device for ascending and descending the second roller. 6. The method of claim 5,
Wherein the lifting /
A vertical movement block in which the second rotation axis is rotatably supported, and
And a vertical movement axis for moving the up-and-down movement block in the vertical direction. The method according to claim 6,
Wherein the up-and-down moving block has a through-hole penetrating vertically and having a female threaded portion inside,
Wherein the vertical movement shaft has a male thread portion formed on an outer circumferential surface, at least a portion of which is supported by a predetermined frame,
Wherein the up-and-down moving shaft is screwed to the through-hole so that the up-and-down moving block is displaced in the up-down direction in accordance with the rotation of the up-down moving shaft. The method according to claim 6,
Wherein the lifting /
And a predetermined interval display unit for displaying a scale capable of measuring a vertical movement distance of the up-and-down movement axis. delete delete The method according to claim 1,
The cylinder module includes:
A cylinder body connected to a predetermined pneumatic tube to receive air pressure therein,
And a piston, one end of which is located in the cylinder body and the other end is connected to the back and forth moving block. The method according to claim 1,
Wherein the adhesive layer forming module, the ascending / descending roller module, and the forward /
And power transmission means for transmitting power to the fabric. The method according to claim 1,
Wherein the adhesive layer forming module includes a first side gear provided on the first rotation shaft and rotating together with the first roller,
Wherein the ascending / descending roller module includes a second side gear provided on the second rotation shaft and rotating together with the second roller,
Wherein the forward and reverse roller module includes a third side gear provided on the third rotation shaft and rotating together with the third roller,
Wherein the first side gear is engaged with the second side gear, and the third side gear is engaged with the second side gear. The method according to claim 1,
Wherein a rotation distance per hour of the first roller, a rotation distance per hour of the second roller, and a rotation distance per hour of the third roller are the same. The method according to claim 1,
Wherein the tension roller is disposed above the lifting and lowering roller module and folds the moving direction of the fabric to transfer the fabric to the drying device. The method according to claim 1,
Wherein the fabric is passed through between the first roller and the third roller so that the advancing direction is bent by a predetermined angle. The method according to claim 1,
The third rotation shaft
And is located at the same height as the first rotation axis or at a position higher than the first rotation axis.

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