KR200337091Y1 - System for automatically fabricating disposable compressed tissue - Google Patents

Abstract

The present invention relates to a fully automatic disposable press tissue manufacturing system. Fully automatic disposable crimped tissue manufacturing system according to the present invention is a fabric supply unit 200 for supplying a predetermined paper, nonwoven fabric or the like, and to cut the fabric supplied from the fabric supply unit 200 in a horizontal direction in a predetermined width Horizontal cutting unit 400, the vertical cutting unit 500 for cutting the fabric cut in the horizontal direction from the horizontal cutting unit 400 in a predetermined length, and the horizontal cutting unit 400 and the vertical cutting unit 500 The folding unit 600 for folding the unit tissue (unit fabric) having a predetermined length and width cut by each in a predetermined direction, and the unit tissue folded by a predetermined number of times by the folding unit 600, the predetermined interval Pistons 712 and 752 and cylinders 711 and 751 which rotate independently from each other in a counterclockwise direction and are reciprocated left and right by an external signal, and the outer periphery The first to fourth elastic guides (781 to 784) for guiding the unit tissues that are conveyed and positioned in the upper position than the height of the conveying line from which the unit tissues are conveyed at a distance away from the lead, The driving sprocket 810, the driven sprocket 820, and the driving sprocket 810 to transfer the rolled portion 700 positioned above the height of the transfer line, and the tissue which has been dried in a predetermined shape from the rolled portion 700. And a conveying part 800 having a belt 830 for interconnecting the driven sprockets 820, and a tissue of a predetermined shape conveyed from the conveying part 800 with a full automatic crimp for manufacturing a crimped tissue. The unit 900 is provided.

Description

Fully automatic disposable crimped tissue making system {SYSTEM FOR AUTOMATICALLY FABRICATING DISPOSABLE COMPRESSED TISSUE}

The present invention relates to a fully-automatic disposable crimped tissue manufacturing system, and more particularly, a folding part for folding a conveyed nonwoven fabric into a predetermined shape, a rolled portion for rolling the folded nonwoven fabric into a predetermined shape, and a nonwoven fabric dried in a predetermined shape. The present invention relates to a fully-automatic disposable crimped tissue manufacturing system capable of producing a large amount of crimped tissue at a low cost and simple configuration by providing a crimping part for manufacturing crimped tissue.

In general, in the case of paper tissue, it is configured to draw and use a predetermined amount stored in a predetermined box or protected by a plastic pack. In the case of non-woven tissue such as that found in a general restaurant, water is pre-soaked in a pack such as vinyl and commercially available. However, in the above case, since the tissue is sold in a plastic bag, there is a problem of causing environmental pollution due to the discarded plastic pack after using the tissue. In addition, the disposable tissue as described above has a problem that it is inconvenient to carry because of its large volume.

Therefore, the present invention was devised to solve and solve the above-mentioned problems in view of the conventional problems, and the main purpose of the present invention is to press and shape a tissue of a predetermined shape using paper or non-woven fabric, and to reduce the volume of the compressed tissue to a full automatic. It is to provide a fully automatic disposable crimped tissue manufacturing system for manufacturing.

It is still another object of the present invention to provide a fully automatic disposable crimped tissue manufacturing system having a folding part capable of manufacturing a folded tissue of a predetermined shape by automatically folding a predetermined shape of paper or a nonwoven fabric in a desired direction.

Still another object of the present invention is to provide a fully-automatic disposable crimped tissue manufacturing system having a rolled portion capable of automatically manufacturing a cylindrical tissue by rolling the paper or nonwoven fabric of a predetermined shape into a cylindrical shape.

It is still another object of the present invention to provide a fully-automatic disposable compressed tissue manufacturing system having a compression unit capable of automatically producing a compressed tissue by applying a predetermined pressure to a cylindrically rolled paper or non-woven tissue.

Another object of the present invention is to provide a simple process and configuration, and a fully automatic disposable compressed tissue manufacturing system capable of producing a large amount of compressed tissue at a low cost.

In order to achieve the above object, the fully-automatic disposable crimping tissue and manufacturing system according to the present invention is a fabric supply unit 200 for supplying a predetermined paper, non-woven fabric or the like, and the fabric supplied from the fabric supply unit 200 A horizontal cutting part 400 for cutting in a horizontal direction with a predetermined width, a vertical cutting part 500 for vertically cutting a fabric cut horizontally from the horizontal cutting part 400 in a predetermined length, and the horizontal cutting part Folding unit 600 for folding a unit tissue (unit fabric) having a predetermined length and width cut by the 400 and the vertical cutting unit 500 in a predetermined direction, and predetermined by the folding unit 600 Pistons 712 and 752 and cylinders which rotate left and right reciprocally in response to external signals while rotating unit tissues folded as many times as they are, respectively, in a counterclockwise direction apart from each other at predetermined intervals. 711 and 751, and at a distance away from the outer circumference thereof, the unit tissues are positioned above the height of the transfer line from which the unit tissues are transferred and elastically guide the unit tissues to be transferred. Guides (781 to 784), which is located on the upper portion of the upper portion of the conveying line of the tissues 700, and the driving sprocket 810 for conveying the tissue rolled to a predetermined shape from the end portion 700, A transfer part 800 having a driven sprocket 820 and a belt 830 for interconnecting the driving sprocket 810 and the driven sprocket 820, and a tissue having a predetermined shape transferred from the transfer part 800. It is characterized in that it comprises a crimping portion 900 for pressing the fully automatic to produce a crimped tissue.

1 is a view schematically showing the overall configuration of a fully automatic disposable crimped tissue manufacturing system according to the present invention.

Figure 2a is a longitudinal cross-sectional view showing a horizontal cut portion of the fully automatic disposable crimped tissue manufacturing system according to the present invention.

Figure 2b is a cross-sectional view showing a horizontal cut portion of the fully automatic disposable crimped tissue manufacturing system according to the present invention.

Figure 3a is a longitudinal sectional view showing a longitudinal cut portion of the fully automatic disposable crimped tissue manufacturing system according to the present invention.

Figure 3b is a cross-sectional view showing a longitudinal cut portion of the fully automatic disposable crimped tissue manufacturing system according to the present invention.

Figure 4 is a perspective view showing a folding part of the automatic disposable crimped tissue manufacturing system according to the present invention.

Figure 5 is a perspective view showing the end of the fully automatic disposable crimped tissue manufacturing system according to the present invention.

Figure 6 is a cross-sectional view showing the end portion of a fully automatic disposable crimped tissue manufacturing system according to the present invention.

Figure 7 is a perspective view for explaining the operation of the end portion of the automatic disposable crimped tissue manufacturing system according to the present invention.

8a to 8c are views of the transfer part of the fully automatic disposable crimped tissue manufacturing system according to the present invention, FIG. 8a is a sectional view, FIG. 8b is a plan view, and FIG. 8c is a perspective view showing a belt.

9 is a perspective view showing a crimping portion of a fully automatic disposable crimped tissue manufacturing system according to the present invention.

Figure 10 is a cross-sectional view showing a crimping portion of the automatic disposable crimped tissue manufacturing system according to the present invention.

<Code Description of Main Parts of Drawing>

100: support

200: fabric supply part

300: feed roller unit

400: transverse cutting

500: longitudinal cutting

600: folding part

700: horseman

800: transfer unit

900: crimp

Hereinafter, with reference to the accompanying drawings, the configuration of the automatic disposable disposable tissue manufacturing system according to the present invention will be described in detail.

Prior to describing the technical contents of the present invention, in the present invention, the crimped tissue is a paper, a nonwoven fabric, or a similar material that is pressed to a predetermined pressure and molded into a predetermined shape, thereby greatly reducing its size. Pressed tissues do not change the inherent physical properties of the tissue before and after pressing. In use, when normal water or predetermined functional water is added to the crimped tissue, the tissue to be compressed is returned to the shape before the crimped tissue. As described above, the tissue returned to the circle can be used in the state in which water or a predetermined functional material is added.

1 is a view schematically showing the overall configuration of a fully automatic disposable crimped tissue manufacturing system according to the present invention. As shown here, the support 100 for supporting the entire configuration of the fully automatic disposable crimped tissue manufacturing system according to the present invention is located in the center of the production line.

The left end of the support 100, the fabric supply unit 200 for supplying the fabric of a predetermined paper or non-woven fabric is provided. Next to the fabric supply unit 100, a feed roller unit 300 for transferring the fabric supplied from the fabric supply unit 100 is installed. After the feed roller unit 300 is provided with a horizontal cutting unit 400 for cutting the fabric supplied from the feed roller unit 300 to a predetermined width in the transverse direction, that is, the longitudinal direction. After the horizontal cutting unit 400, the vertical cutting unit 500 for cutting the cross-sectional tissue 11 respectively cut in a predetermined width by the horizontal cutting unit 400 in a longitudinal direction, that is, in the width direction It is installed. As described above, the unit tissues 12 cut in the horizontal direction and the vertical direction are supplied to the folding unit 600 installed after the vertical cutting unit 500 along the transfer line. Detailed configuration of the folding unit 600 will be described later with reference to FIG. The folding unit 600 serves to fold the unit tissue 12 having a predetermined length and width in a predetermined direction. That is, the unit tissue 12 can be folded as many times as desired in the longitudinal or longitudinal direction. The folded tissue 13 supplied from the folding unit 600 is transported along the production line, and then transferred to the roll unit 700 installed after the folding unit 600. The end portion 700 is a device for rolling the folded tissue 13 transferred from the folding portion 600 into a cylindrical shape. As described above, the cylindrical tissue 14 dried in a cylindrical manner is transferred to the transfer unit 800. The cylindrical tissue 14 conveyed from the conveying part 800 is press-molded at a predetermined pressure in the crimping part 900 provided after the conveying part 800, thereby forming a crimped tissue. The compressed tissues 15 manufactured as described above are stored in a predetermined box 1000.

Detailed elements of the entire configuration will be described below with reference to the accompanying drawings.

Referring to Figures 2a and 2b will be described the configuration of the horizontal cutting unit 400 as follows. Horizontal cutting unit 400 according to the present invention is composed of an upper roller 410 and a lower roller 420 to interlock with each other. The upper roller 410 is supported by the shaft 411, the lower roller 420 is supported by the shaft 421. On the outer circumferential surface of the lower roller 420, a plurality of blade portions 430 are provided at predetermined intervals. In the present invention, preferably five are formed at predetermined intervals, respectively. The plurality of blade grooves 440 are formed at predetermined intervals on the outer circumferential surface of the upper roller 410 so as to correspond to the blade portions 430 of the lower roller 420 at predetermined intervals, respectively.

Referring to Figures 3a and 3b, the configuration of the vertical cut portion 500 is as follows. The vertical cut portion 500 according to the present invention is composed of an upper roller 510 and a lower roller 520 interworking with each other. The upper roller 510 is supported by the shaft 511, the lower roller 520 is supported by the shaft 521. The blade 530 having a predetermined height in the longitudinal direction is formed on the outer circumferential surface of the lower roller 520. On the outer circumferential surface of the upper roller 510 is formed a blade portion groove 540 having a predetermined depth in the longitudinal direction to correspond to the blade portion 530 of the lower roller 520.

Referring to Figure 4, the folding unit 600 will be described as follows. 4 is a diagram illustrating the inside of the folding unit 600.

First, on the transfer line of the support 100, a first transfer conveyor 610 to which the unit tissue 12 having a predetermined length and width is transferred is provided. A first transfer roller 611 is installed at a position connected to the first transfer conveyor 610. A first folding die 614 is provided at one side of the first transport roller 611 in contact with the first transport roller 611 to fold the unit tissue 12 transported by the first transport roller 611 once in the longitudinal direction. The inside of the first folding die 614 is formed with a through-slope groove having a width slightly larger than the thickness of the unit tissue 12 folded once. A first folding blade 613 is installed at an upper portion of the through slope groove to penetrate into the through slope groove. The first folding blade 613 is moved up and down in accordance with a predetermined control signal input from the outside by the pneumatic part 612 installed on the upper portion. That is, when the unit tissue is located on the upper surface of the first folding die 614 by the first transfer roller 611, the first folding blade 613 moves downward by a predetermined control signal input from the outside. 1 sandwiching the middle portion of the unit tissue located on the upper surface of the die 614, it is inserted into the through-slope groove. In this case, the first folding blade 613 moves downward until the one-fold unit tissue falls completely on the upper surface of the second conveying conveyor 621. A second transfer conveyor 621 is installed below a first distance from the first folding die 614 to receive a tissue that is folded once from the through-slope groove of the first folding die 614. The tissue folded once as described above is seated on an upper portion of the second conveying conveyor 621 to be conveyed in a predetermined direction, that is, the direction of the right side in the drawing. At the upper end of the front surface of the second conveying conveyor 621, a stopper 620 for restraining from escaping from the upper surface of the second conveying conveyor 621 while seating the folded tissue falling from the first folding die 614 is predetermined. It is formed at a height. The once folded tissue seated on the upper surface of the second conveying conveyor 621 is then conveyed by a second conveying roller 622 provided to the second folding die 625 provided at the same height. The second folding die 625 has the same configuration as the first folding die 614, but is formed to be about twice the width of the through-slope groove formed therein. A second folding blade 624 spaced a predetermined distance is provided above the second folding die 625, and the upper portion of the first folding blade 624 is vertically moved by a predetermined control signal input from the outside. The pneumatic part 623 is provided. In the above configuration, when the tissue once folded is located above the second folding die 625, the second folding blade 624 is connected to the second folding die 625 by a predetermined control signal input from the outside. The tissue is folded and inserted once into the formed inclined groove. When the second folding blade 624 pushes down the tissue inserted as described above to the end of the inclined groove, the tissue folded twice is formed at a lower distance from the second folding die 625 at a predetermined distance. It is seated on the upper surface of the three conveying conveyor (630). At this time, one side of the third conveying conveyor 630 is provided with a jaw 631 having a predetermined height to prevent the tissue folded twice from the upper surface of the third conveying conveyor (630). The two-fold folded tissues seated on the upper surface of the third conveying conveyor 630 are conveyed to the next process by the third conveying roller 632. In another embodiment of the present invention, the nonwoven fabric to be conveyed can be folded freely depending on the purpose of use in the third or more. Then, the non-woven fabric can be easily folded in a desired direction by changing the forming direction of the through-slope groove.

Referring to the configuration of the tooth portion 700 according to the present invention with reference to FIGS. 5 and 6 attached drawings as follows.

First, the roll device 700 according to the present invention is installed above the height of the conveying line extending in the conveying direction of the twice folded tissue conveyed from a predetermined direction. Accordingly, the device is a device for rolling up two times folded tissue to be transported in a counterclockwise direction, and then rolling it in a cylindrical shape in a counterclockwise direction. The present invention is an apparatus for forming the tissue into a predetermined shape more effectively while at the same time effectively using the upper space of the transfer line.

In the rolling device 700 according to the present invention, the first pneumatic part 710 and the second pneumatic part 720 having the same configuration are configured in pairs on the left and right. Therefore, in order to explain the simpler configuration, among the first pneumatic part 710 and the second pneumatic part 720 having the same configuration, the configuration of the first pneumatic part 710 is described for convenience.

First, one end of the first pneumatic part 710 is connected to a driving unit (not shown), so that the first pneumatic part 710 itself is rotatably installed in a predetermined direction. In the present embodiment, the first pneumatic part 710 rotates in a counterclockwise direction in order to roll up the nonwoven fabric to be conveyed. In another preferred embodiment, the first pneumatic part 710 may rotate in a clockwise direction, and in some cases rotate alternately clockwise or counterclockwise to achieve a predetermined purpose. The first pneumatic part 710 is composed of a cylinder 711 and a piston 712 inserted into the cylinder 711 to reciprocate in the front and rear directions. Of both ends of the piston 712, the core 790 is connected to an end portion of the piston 712 that is not inserted into the cylinder 711. Outside of the core 790, a first shrinkage wing 721, a second shrinkage wing 722, and a third shrinkage wing 723, which are installed at predetermined intervals concentrically with the core 790, are provided, respectively. . A first insertion piece 721 extending in a direction perpendicular to an inner surface of the first shrinkage wing 721 and having a predetermined width and length, the first insertion piece 721 having a T-shape with the first shrinkage wing part 721; -1) is formed. In the same manner as the first insertion piece 721-1, the second shrinkage wing 722 has a second insertion piece 722-1, and the third shrinkage wing 723 has a third insertion point. Piece 723-1. The core 790 integrally formed at the end of the piston 712 that is not inserted into the cylinder 711 with the same diameter among the both ends of the piston 712 is provided in the longitudinal direction of the core 790. Three holes 791 are formed at a predetermined interval from each other at a depth of. Compression springs 770 are respectively inserted in the holes 791. The first, second and third insertion pieces 721-1, 722-1, and 723-1 are elastically supported by the compression springs 770 respectively inserted into the holes 791 in the three holes 791. Each is inserted in the state. Accordingly, the first contraction blade 721, the second contraction blade 722, and the third contraction blade 723 are elastically supported by the compression spring 770, respectively.

In addition, the first elastic guide to guide the non-woven fabric 700 wound on the outer periphery of the rolling device 700 according to the present invention in the operation of winding the conveyed tissue twice folded to the rolling device 700 according to the present invention 781, a second elastic guide 782, a third elastic guide 783, and a fourth elastic guide 784 are provided. The configuration of the elastic guides will be described in detail with reference to FIG.

The first elastic guide 781, the second elastic guide 782, the third elastic guide 783, and the fourth elastic guide 784 have the same shape. Therefore, the configuration of the first elastic guide 781 will be described as follows. The first elastic guide 781 is generally rectangular. The first elastic guide 781 is formed to be bent at a predetermined radius of curvature. Therefore, the nonwoven fabric wound in a circular shape on the rolling device 700 according to the present invention can be elastically guided more effectively. In the rectangular shape of the first elastic guide 781, an elastic pin support portion 781-1 is formed at an edge portion of one of the two long sides in the longitudinal direction. Both ends of the elastic pin support 781-1 are elastically supported at both inner walls of the outer case (not shown) of the roll device 700 according to the present invention so as to be rotated by a predetermined angle. The installation positions of the first elastic guide 781, the second elastic guide 782, the third elastic guide 783 and the fourth elastic guide 784 are as follows. The end of the second folded tissue conveyed to the device 700 is guided by a first elastic guide 781 installed on the outer side of the first shrinkage blade 721, upward along the outer periphery of the device 700 Going up At this time, since the tissue is rotated in the counterclockwise direction of the device 700 according to the present invention, the second folded tissue conveyed as described above, as shown in Figure 6, the upper end of the first elastic guide 781 While passing through, the horse is in contact with the outer periphery of the device 700. In this case, since the surfaces of the first, second, and third shrinkage wings 721, 722, and 723 are formed of protrusions having a predetermined roughness, the tissue that is normally made of the nonwoven fabric is easily outside the roll apparatus 700. Coated to the periphery, it is wound. The second elastic guide 782 is formed at a predetermined interval from the end of the first elastic guide 781, the nonwoven fabric passing through the first elastic guide 781 is more along the outer periphery of the rolling device 700 It is effectively wound. The third elastic guide 783 is installed at a predetermined interval from the second elastic guide 782, and the fourth elastic guide 784 is the third elastic guide 783 and the first elastic guide ( 781). Here, the elastic pin support (781-1, 782-1, 783-1, 784-1) are installed at intervals of the outer periphery of the rolling device 700 and D1, D2, D3, D4, respectively. At this time, the intervals D1, D2, D3, D4 are equal to the radius of the diameter of the cylindrical tissue to be produced. Each of the first, second, third and fourth elastic guides 781, 782, 783, and 784 is elastically supported in the direction of the device 700. Therefore, when the tissue folded twice (non-woven fabric) is wound around the outer periphery of the rolling device 700 according to the present invention, the elastic pin support portion in the first, second, third, fourth elastic guides (781, 782, 783, 784) The other ends that are not installed are effectively elastically supporting cylindrical tissues whose diameters increase as the tissue device 700 is rotated and the tissue folded twice is wound around the outer circumference of the apparatus 700.

Next, the configuration of the transfer unit 800 shown in Figure 8a and 8b is as follows. The transfer unit 800 has no problem in implementing the object of the present invention even if it uses a generally known configuration. That is, the drive sprocket 810 and the driven sprocket 820, generally known in FIGS. 8A and 8B, are interconnected by a belt 830, and the upper surface of the belt 830 is partitioned 850 at regular intervals. Divided by) In the partition 850, cylindrical tissues, which are rolled into a cylindrical shape at the end portion 700, are respectively inserted.

Referring to Figures 9 and 10 will be described the configuration and operation of the crimping portion 900 according to the present invention.

As shown in Figure 9, one side of the support 100 is fixed to the compression cylinder 921 is inserted into the compression piston 920 to reciprocate. The upper portion of the compression piston 920 is protected by a cover 923. A conveyance guide 922 extending integrally with the cover 923 and installed in a hollow pipe shape is provided. The intermediate portion of the transfer guide 922 is formed with an opening, the cylindrical tissue conveyed from the transfer unit 800 described above falls and is introduced into the transfer guide 922 through the opening.

On the other side of the nonwoven fabric crimping portion according to the present invention, a support cylinder 927 is inserted into and fixed to the support piston 928 therein. A support portion 929 having a predetermined shape is integrally fixed to one end of the support piston 928 that is not inserted into the support cylinder 927. In addition, a cylindrical cylinder 914 is inserted between the support part 929 and the transfer guide 922, and a molding cylinder 924 for compression molding into a predetermined shape is installed. Both ends of the molding cylinder 924 are made in an open shape. At this time, one end of the molding cylinder 924 is connected to the transfer guide 922, and the other end of the molding cylinder 924 is blocked by the support portion 929 integrally fixed to the support piston 928.

The operation of the crimping unit according to the present invention having the above configuration will be described with reference to FIGS. 9 and 10.

First, as shown in FIG. 9, the cylindrical tissue 14 away from the conveying apparatus 800 falls into an opening formed at an upper portion of the conveying guide 922. That is, as shown in Figure 10, the crimping portion according to the present invention is in a ready state so that the cylindrical tissue 14 is dropped from the transfer device 800 can be introduced through the opening. In the above state, when a predetermined control signal is input from the outside, the crimping piston 921 inserted in the crimping cylinder 920 moves the dropped cylindrical tissue 14 in the direction of the molding cylinder 924 as described above. Pushed When the compressed piston 921 continuously pushes the cylindrical tissue 14 at a constant pressure, the cylindrical tissue 14 is compressed in the molding cylinder 924 to have a shape in which the size thereof is greatly reduced. When the compression is completed in the molding cylinder 924, the support 929, which was blocking the molding cylinder 924 by the external control signal, moves back together with the support piston 928 as it moves backward. . When the support part 929 opens the molding cylinder 924 which was blocking the one end as mentioned above, the crimping tissue 15 crimped in the said molding cylinder 924 is pushed under by the pushing force of the crimping piston 921 below. It falls into the box 930 that is placed in it.

Referring to the accompanying drawings, the action of the automatic disposable disposable tissue manufacturing system according to the present invention configured as described above are as follows.

First, the fabric is unwound from the fabric supply unit 200 in which the fabric is wound and then supplied to the feed roller 300 installed on the upper surface of the support 100. The supplied fabric (non-woven fabric or the like) is cut into the unit tissues 12 having a predetermined length by the longitudinal cutting unit 500 after being cut in the longitudinal direction by the horizontal cutting unit 400 in a predetermined width. Lose. The unit tissues 12 are folded by the folding unit 600 a predetermined number of times in a predetermined direction. That is, the unit tissue 12 transferred to the upper surface of the first folding die 614 by the first feed roller 611 of the folding unit 600 is folded once by the first folding blade 613 to be the first folding. Through the inclined groove formed in the die 614, it is seated on the upper surface of the second transfer conveyor 621. The seated tissue folded once is transferred to the second folding die 625 by the second conveying conveyor 621 and the second conveying roller 622, and is located on the upper surface thereof. The first folded tissue conveyed as described above is folded in a predetermined direction by the second folding blade 624 to penetrate the through-slope groove formed in the second folding die 625 to transfer the third conveying conveyor 630. Seated on the upper surface, the two folded tissues are transported to the end portion 700 by the third feed roller 632. The end portion 700 is wound in a cylindrical shape by the first and second pneumatic parts 710 and 750 rotating. When the winding is completed, the first and second pneumatic parts 710 and 750 are moved in opposite directions, respectively, so that the cylindrical tissue wound around the ear piece 700 falls down. The dropped cylindrical tissue 14 is moved to the compression unit 900 by the transfer unit (800). The moved cylindrical tissue 15 is press-molded by a compression tissue 15 of a predetermined shape by the compression unit 900.

As described above in detail, the fully automatic disposable crimped tissue manufacturing system according to the present invention can press-molded tissue of a predetermined shape by using paper or non-woven fabric to manufacture fully compressed tissue that has been greatly reduced in volume, and It is provided with a folding portion capable of producing a folded tissue of a predetermined shape by folding the paper or non-woven fabric in the desired direction to the desired number of times automatically.

In addition, in the present invention, a crimped tissue can be manufactured automatically by applying a predetermined pressure to a rolled portion and a cylindrical rolled paper or nonwoven tissue which can roll a paper or nonwoven fabric having a predetermined shape into a cylindrical shape and fully automatic. There is an advantage in that the present invention is provided with a crimping portion, which can more effectively roll up a tissue of a predetermined shape and press molding, thereby mass-producing the crimped tissue.

Claims (3)

A fabric supply unit 200 for supplying a predetermined paper, nonwoven fabric or the like; A horizontal cutting unit 400 for cutting the fabric supplied from the fabric supply unit 200 in a horizontal direction with a predetermined width; A vertical cut portion 500 for cutting the fabric cut horizontally from the horizontal cut portion 400 in a lengthwise direction; A folding unit 600 for folding a unit tissue (unit fabric) having a predetermined length and width cut by the horizontal cutting unit 400 and the vertical cutting unit 500 in a predetermined direction; Pistons 712 and 752 and cylinders 711 which rotate independently from each other in a counterclockwise direction in a state in which the unit tissues folded by a predetermined number of times are separated from each other by a predetermined number of times, and reciprocate left and right by external signals. 751), and the first to fourth elastic guides 781 for guiding the unit tissues to be transported at a position away from the outer circumference at a predetermined distance above the height of the transport line from which the unit tissues are transported. To 784, and the tip 700 is located above the height of the transfer line of tissues; A belt 830 for interconnecting the driving sprocket 810, the driven sprocket 820, and the driving sprocket 810 and the driven sprocket 820 in order to transfer the tissue that has been dried in the predetermined shape from the end portion 700. Transfer unit 800 having a; Fully automatic single-use crimped tissue manufacturing system characterized in that it comprises a crimping portion (900) for manufacturing a crimped tissue by fully crimped tissue of a predetermined shape transferred from the conveying portion (800). In the first, the folding unit 600, A first folding die 614 having a penetrating inclined groove formed therein at a predetermined angle and direction; A first folding blade 614 inserted into a through slope groove formed in the first folding die 614 together with a predetermined paper or nonwoven fabric or the like; A pneumatic part 612 connected integrally with the first folding blade 614 and configured to vertically reciprocate the first folding blade 614 at a predetermined pressure according to a predetermined control signal input from an outside; It is installed below the first folding die 614 at a predetermined distance, and seated once folded tissue that falls down through a through-slope groove formed in the first folding die 614 in a predetermined direction. A second conveying conveyor 621 for conveying; A second folding die 625 having a penetrating inclined groove formed therein at a predetermined angle and direction to fold the once folded tissue received from the second conveying conveyor 621 once again; A second folding blade 624 inserted into a penetrating groove formed in the second folding die 625 together with a predetermined paper or nonwoven fabric or the like; A pneumatic part 623 integrally connected with the second folding blade 624 and configured to vertically reciprocate the second folding blade 624 at a predetermined pressure according to a predetermined control signal input from an outside; It is installed below the second folding die 624 at a predetermined distance, and seated twice folded tissue falling down through a through-slope groove formed in the second folding die 624 in a predetermined direction. Fully disposable disposable tissue manufacturing system characterized in that it comprises a third conveying conveyor (621) for conveying. In the first, the crimping unit 900, A compression cylinder 921 fixed to one side of the support 100 and inserted into the compression piston 920 to reciprocate; A cover 923 for viewing an upper portion of the crimping piston 920; A transfer guide 922 extending integrally with the cover 923 and installed in a hollow pipe shape, wherein a tissue having a predetermined shape is inserted therein to guide the transfer; An opening formed at an intermediate portion of the transfer guide 922 to receive a tissue having a predetermined shape transferred from the transfer unit 800 and to be seated in the transfer guide 922; A support cylinder 927 fixed to a predetermined portion of the support 100 and having a support piston 928 inserted therein to reciprocate; A support part 929 having a predetermined shape integrally formed at one end of the support piston 928 which is not inserted into the support cylinder 927; And a forming cylinder (924) disposed between the support portion (929) and the transfer guide (922) and having a tissue of a predetermined shape inserted therein for compression molding into a predetermined shape.