KR102587128B1 - Hose packaging device with a structure consisting of multiple winders - Google Patents

Abstract

The present invention is a multi-winder that automates the process for packaging hoses of various materials, automatically aligns and cuts the wound hose to length accurately, moves the position of a plurality of winders, and allows winding and binding operations to be performed together. It relates to a structural hose packaging device.

Description

Hose packaging device with a structure consisting of multiple winders}

The present invention relates to a hose packaging device, and in detail, hoses made of various materials are wound in a coil shape, accurate automatic alignment and length cutting are performed without twisting, and multiple winders are moved in position, and winding and binding operations are performed together. This relates to a hose packaging device with a multi-winder structure that can automate the hose packaging process while ensuring continuity of work.

In order to ship a generally manufactured hose (tube) product, the process is to form a coil bundle (hose bundle) by winding it into a donut shape and then tying it with a band or packaging vinyl. For this work, a winder and A binder device is used for packaging.

In other words, the winder has a rotating body that winds the hose while rotating by a motor. After fixing the beginning of the hose product, it rotates until the supplied hose length reaches a certain amount, aligning the hose and winding it into a coil bundle.

Afterwards, when a hose coil bundle of a certain length is produced in the winder, the end of the coil bundle hose is cut by a cutter to complete the winding process. After transport, the produced coil bundle is tied through a binder to maintain its shape.

At this time, due to the characteristics of the material of the hose, it must be pulled with relatively strong force to align it, but the conventional winder only guides the winding position, so the automatic alignment of the wound hose was not smooth, and as hose kinks occurred, it was not used in actual sites. Skilled workers had to be assigned to each facility and process.

In addition, errors frequently occur because it is difficult to accurately match the cut length required for the product being shipped. The coil bundle is tied with a PP band or vinyl, but the binder also has limitations in automatically tying bundles of hoses of various sizes, so the operator The reality is that the work of removing the bundle from the false winder and banding it has to be done manually.

Republic of Korea Patent Publication No. 10-2018-0098532 (2018.09.04)

The present invention was created to solve the above problems, and the purpose of the present invention is to automate the process for packaging hoses of various materials, to accurately align and cut the wound hose to length, and to provide wine with multiple wines. The aim is to provide a hose packaging device with a multi-winder structure in which the position can be moved and winding and binding operations can be performed together.

For the above purpose, the present invention provides a hose packaging device for wrapping a hose by coiling it, comprising: a supply module having a supply roller for transporting the hose and a support roller for supporting the transported hose; An alignment module that reciprocates the supply module left and right and adjusts the position of the supplied lake; A first axis that rotates, a support part on which the hose supplied around the first axis is seated and wound in a coil shape, a side wall part erected at an interval corresponding to the width of the hose bundle wound on the left and right sides of the support part, and the support part. A winding module including a holding part that holds and supports the hose supplied from one side, and a cutting part that cuts the hose in the supported state; A second axis that rotates and a plurality of winding modules are installed so that they can rotate at equal intervals about the second axis, and the winding modules that rotate in the forward and backward directions are installed at a first position where winding work is performed and a second position where bending work is performed. A conversion module that moves the position to 2 positions; It is characterized by having a.

At this time, the support portion is arranged in plurality at equal intervals around the first axis, and the side wall portion is hinged at one end of each support portion so that it can be erected when winding the hose and laid down to the side when the hose is separated. desirable.

In addition, a cutout through which the hose passes is formed at one end of the selected support part, and the holding part and the cutting part are driven through a cutting cylinder that reciprocates in the left and right directions below the cutout, and the winding module at the first position a control unit that rotates and operates the cutting cylinder as the hose is inserted into the incision; It is desirable to further include.

In addition, it is provided with a band supply part that supplies the band, a band guide part that guides the supplied band to pass through the center of the coil-shaped hose bundle, and a band fastening part that pulls and fastens the end of the guided band, so that the band is supplied at the second position. Banding module for tying a bundle of hoses; A control unit that rotates the winding module in which the hose is wound in the second position and rotates and aligns the band guide portion to be located in the space between the support portion and the side wall portion; It is desirable to further include.

In addition, the supply module includes an induction tube that holds and supports the supplied hose, the end of which has a length in contact with the upper support of the winding module in the first position and is capable of adjusting the angle up and down, and a force that always applies a pressing force to the lower side of the induction pipe. It is desirable to further include a pressurizing means.

In addition, the switching module further includes a fixing part having a fixing groove formed on the outside, and is fixedly installed on the outer basic frame, and as the selected winding module is moved to the first position and the second position, the fixing protrusion formed on the end is moved. It is preferable to further include a fixing cylinder that is inserted into the fixing groove and fixed.

In addition, the supply module includes a support body through which a through hole is formed and through which the hose passes, a support bar spaced apart from the support body so that the vertical angle can be adjusted at a set distance in front of the supply roller or support roller, and a support bar that controls the angle of the support bar. It is preferable to further include a twist prevention part made of a cylinder.

Through the present invention, when packaging hoses of various materials, the process from winding to banding and discharge can be automated without any permanent personnel.

In particular, during winding work, it is properly aligned and can be accurately cut to length without causing kinks. Multiple winders move alternately between the first position for winding the hose and the second position for bending, making winding and binding work possible. By working together, work continuity can be secured and work time can be shortened.

1 is a perspective view showing the overall appearance according to an embodiment of the present invention;
Figure 2 is a side view showing the structure of a supply module according to an embodiment of the present invention;
Figure 3 is a perspective view showing the structure of a supply module and an alignment module according to an embodiment of the present invention;
Figure 4 is a perspective view showing the structure of a winding module according to an embodiment of the present invention;
5 is a diagram showing the operating state of the switching module according to an embodiment of the present invention;
Figure 6 is an operating state diagram showing the fixing structure of the switching module according to an embodiment of the present invention;
Figure 7 is a perspective view showing the structure of a bending module according to an embodiment of the present invention;
Figure 8 is a plan view showing the hose cutting structure of the winding module according to an embodiment of the present invention;
Figure 9 is a diagram showing the operating state of the winding module for discharging the hose according to an embodiment of the present invention;
Figure 10 is a flow chart showing the hose packaging procedure according to an embodiment of the present invention.

Hereinafter, the structure of the hose packaging device having a multi-winder structure of the present invention will be described in detail with reference to the attached drawings.

The present invention is a device for packaging various hose (tube) products produced in a factory for shipment. In accordance with the commercialization of hose products with a continuous length, the present invention is cut to a certain length, wound into a coil, and maintained in shape during distribution. Perform a banding process with a PP band, etc.

Of course, in the past, when shipping hose products, it was common to wind the hose cut to a certain length into a coil and then band it. However, due to difficulties in aligning and cutting the hose during winding and the occurrence of kinks depending on the hose material, full automation was not possible. This could not be done, so workers had no choice but to stay on site.

In the present invention, in addition to solving these conventional problems, a plurality of winding modules 130 for winding a hose are provided in one device, so that the winding and bending processes proceed simultaneously to ensure continuity of work.

The number of winding modules provided may vary depending on the size of the hose on which work is performed and the size of the winding module 130, but in the embodiment of the present invention described below, two winding modules are preferably provided in the same form.

By operating two winding modules, winding work and banding work can be performed simultaneously through each winding module. It is located on the left based on the attached drawing, and the first position where winding work is performed is located on the right based on the drawing. The location where the banding work is performed is defined and explained as the second location.

Figure 1 is a perspective view showing the overall appearance according to an embodiment of the present invention. The present invention is provided with a basic frame 100 forming the frame of the basic device, a supply module 110 for supplying hose products to be packaged, and , an alignment module 120 that aligns the supplied hose to be wound in a coil shape, a plurality of winding modules 130 that serve as a frame for winding and bending the hose in a coil shape, and a plurality of winding modules 130 are positioned. It is equipped with a configuration of a switching module 150 that moves, a bending module 160 that ties the coil-shaped hose bundle, and a control unit 170 that controls the entire process through this configuration.

Figure 2 is a side view showing the structure of a supply module according to an embodiment of the present invention, and Figure 3 is a perspective view showing the structure of a supply module and an alignment module according to an embodiment of the present invention.

In the present invention, the supply module 110 is configured to transport and supply hose products produced in continuous length to the winding module 130, and includes a supply roller 111 for transporting the hose and a support for supporting the transported hose. One or more rollers 112 are provided to transport the hose in the forward and backward directions. At this time, the hose can be transferred by connecting a motor to the supply roller 111 and rotating it, but the winding module rotates while the end of the hose is supported on the winding module 130 to pull the hose, so the motor is not used. Maybe not.

At this time, not only is there elasticity depending on the characteristics of the hose product, but also the hose produced in a continuous length is transferred using only the supply roller 111 and the support roller 112, causing the hose to be lifted upward and twisted. For smooth winding, it is necessary to provide components such as a twist prevention part 115 and an induction tube 113.

The twist prevention part 115 is installed in front of the supply module 110 to loosen the twisted hose and allow it to be supplied to the supply module 110. A through hole is formed to allow the hose to freely pass through the support 116. ), and a support bar 117 that is installed and connected to space the support body 116 at a set distance in front of the supply roller 111 or the support roller 112 so that the vertical angle can be adjusted, and the angle of the support bar 117 It consists of a support cylinder 118 that controls.

That is, the twist prevention part 115 is configured to supply the hose to the supply module 110 while maintaining the hose stretched straight in the longitudinal direction for a certain section toward the installation direction of the support roller 112 installed in the supply module 110. While doing so, the twisted part is naturally straightened and twisted during the winding process.

To this end, the support body 116 is a structure for holding the hose in place, and has a through hole of a sufficient size compared to the outer diameter of the hose so that the hose passes through it and the twisted hose can be released. In addition, the support body 116 is coupled to one end of the support bar 117, and the other end is hinged to the base support body 116 below the supply module 110 so that the angle can be adjusted up and down, and has a sufficient length. It is configured to maintain an angle that allows the furnace hose to remain straight.

The support cylinder 118 for this purpose is a cylinder with a pneumatic shock absorbing function, and is hinged to the lower side of the support bar 117, with one end on the support bar 117 and the other end on the base support 116. It is configured to maintain the angle of the support bar 117 at the set angle, but to absorb some shock or force that may occur during the transfer and unwinding process of the hose.

The induction pipe 113 is configured to hold the hose supplied to the winding module 130 through the supply module 110 so that it is wound in a seated state attached to the winding module 130 rather than floating upward, and one end is supplied. It is hinged so that the angle can be adjusted in the up and down directions while approaching the module 110, and the other end has a length that allows it to approach the winding module 130 in the first position.

Specifically, the guide pipe 113 is preferably configured to be long enough to hold and support the supplied hose and the other end is in contact with the support located on the upper side of the winding module in the first position. A weight chain pressurizing means is installed so that a downward pressing force is always applied, and as will be described later, the hose does not float and remains in close contact during the process from supporting and cutting the hose in the winding module 130 to winding it into a coil, making it sturdy. Make sure it can be wrapped tightly.

The alignment module 120 is a component that adjusts the position of the supplied hose when winding the hose into a coil shape, and moves the supply module 110 and the guide tube 113 connected thereto in the left and right directions to smoothly wind the hose into a coil shape. It helps.

The alignment module 120 is basically configured to be able to move back and forth left and right at a distance corresponding to the width of the winding module 130. It can be implemented in various ways, but in an embodiment of the present invention, the alignment module is located on the lower side of the supply module. It is a rod-shaped structure formed in the left and right directions and consists of a guide part 121 that guides the movement of the supply module 110 in the left and right directions and a transfer screw 122 rotated by a motor. The supply module 110 is moved to the left and right by forward and reverse rotation to perform the winding operation.

Figure 4 is a perspective view showing the structure of a winding module according to an embodiment of the present invention.

As mentioned above, the attached drawing shows two winding modules 130 installed in the front and rear directions of the conversion module 150, and the structure of all winding modules is the same regardless of how many are installed.

The winding module 130 is provided with a first shaft 131 that rotates through a first driving unit (not shown) made of an electric motor to wind the hose supplied through the supply module 110 into a coil. A support portion 133 on which the hose supplied around the first axis 131 is seated and wound in a coil shape, and a support portion 133 is erected at intervals corresponding to the width of the hose bundle wound to form walls on the left and right sides. It is provided with a side wall portion (135).

In order to simply wind and unwind the coil, the support part may be configured as a cylindrical unitary structure. However, in the present invention, as the bending operation is performed continuously as will be described later, the support part 133 has the same shape around the first axis 131. It is preferable that a plurality of side wall portions 135 are arranged at intervals, and that the side wall portions 135 are hinged to one end of each support portion 133 so that they can be erected when winding the hose and laid down to the side when the hose is separated.

That is, the support portion 133 is divided to form a space for the band to pass during the banding operation. In the attached drawing, in a preferred embodiment, six support portions 133 are provided in a spaced apart form, and each support portion 133 ), a pair of side wall portions 135 are shown formed at each time.

Figure 9 is an operation state diagram of the winding module for discharging the hose according to an embodiment of the present invention.

The side wall portion 135 is configured to limit the left and right width when winding the hose to form a coil, and basically maintains a vertical position on the support portion 133 while winding the hose and during bending work, and holds the resulting hose bundle. The side wall portion 135 in the separable direction is coupled to the support portion 133 through a hinge portion 136 so that it can be laid outward.

In this way, as a configuration for erecting and lying down the side wall portion 135, an opening and closing cylinder 137 is installed on the lower side of each support portion 133, which is connected to the hinge portion 136 at the bottom of the side wall portion 135 and whose length is adjustable. That is, in a state in which the length of the opening and closing cylinder 137 is increased, the side wall portion 135 is erected perpendicular to the support portion 133, and as all the opening and closing cylinders 137 provided after the bending operation are contracted, the side wall portion 135 is laid outward so that the hose bundle 200 can be discharged. At this time, it is desirable to automatically discharge the bent hose bundle 200 by pushing it outward through the discharge cylinder 164 provided on the side of the basic frame 100.

Additionally, in the present invention, the winding module 130 is provided with a structure for supporting and cutting the initial hose when supplying it. That is, one of the plurality of support parts provided includes a holding part 141 that holds and supports the hose supplied from one side, and a cutting part 142 that cuts the hose in a supported state.

Figure 8 is a plan view showing the hose cutting structure of the winding module according to an embodiment of the present invention.

A cutout 134 through which the hose passes is formed at one end of one specifically selected support member, and the control unit 170 at the beginning of the winding operation positions the hose supplied through the alignment module 120 toward the cutout 134. In addition, the winding module in the first position is rotated so that the hose is inserted into the incision 134.

If there is a winding module in which the hose bundle 200 is formed in the first position, by moving it to the second position, the empty winding module moves to the first position. In this case as well, the control unit 170 moves the alignment module In addition to positioning the hose supplied through (120) toward the incision 134, the winding module in the first position is rotated to insert the hose into the incision 134.

In this case, the uncut hose wound around the winding module in the second position floats above the winding module in the first position, so that the basic frame is positioned so that the hose can be smoothly inserted into the cutout portion 134 of the empty winding module in the first position. The length is adjusted at (100), and a push cylinder (144) is provided that can press the hose between the first and second positions downward, so that the hose that floats up is pushed down so that the hose is wound in the first position. It is desirable to ensure smooth insertion into the module incision.

The holding part 141 and the cutting part 142 are driven through a cutting cylinder 143 that reciprocates in the left and right directions below the cutting part 134, and the holding part 141 is inserted into the cutting part 134. It consists of a push block that supports the hose by pressing it from the side and a cover that partially covers the incision, so as to prevent the hose from coming off during cutting and winding operations.

In addition, the cutting part 142 is a cutter that moves the hose in the same manner as the holding part 141 to cut the hose, and the cut hose is supported through the holding part 141 and the winding operation is performed.

Figure 5 is an operating state diagram of the switching module according to an embodiment of the present invention, and Figure 6 is an operating state diagram showing the fixing structure of the switching module according to an embodiment of the present invention.

The switching module 150 is a configuration for moving the position of the winding module 130 and includes a second axis 151 that rotates through a second driving unit (not shown) made of an electric motor, and the second axis ( A plurality of winding modules 130 are installed to be rotatable at equal intervals around 151).

That is, the conversion module 150 rotates forward and backward through the second axis 151, and the winding module 130 rotatably installed at both ends is positioned at a first position where winding work is performed and a second position where bending work is performed. The positions are moved alternately at the same time.

In an embodiment of the present invention, since two winding modules are provided, one winding module is located in the first position and the other winding module is located in the second position, so that winding work and bending work can be performed continuously and simultaneously.

At this time, the conversion module 150 must be fixed so as not to move during the winding and bending operations. For this purpose, the conversion module 150 has a fixing groove 154 on the outside on the side opposite to where the winding module 130 is installed. The formed fixing part 153 is installed, and is installed on the basic frame 100 at the corresponding position as a means for fixing the switching module 150 as the selected winding module is moved to the first and second positions. A fixing cylinder 155, which secures the formed fixing protrusion 156 by inserting it into the fixing groove 154, is fixedly installed on the outside of the base frame 100.

That is, during rotation of the conversion module 150, the fixing cylinder 155 contracts and the fixing protrusion 156 is separated from the fixing groove 154, and after rotation of the conversion module 150, the fixing cylinder 155 is used to fix the position. The length of is increased and the fixing protrusion 156 is inserted into the fixing groove 154 to block the movement of the conversion module 150.

Figure 7 is a perspective view showing the structure of a bending module according to an embodiment of the present invention.

The banding module 160 basically includes a band supply unit 161 that supplies a band, a band guide unit 162 that guides the supplied band to pass through the center of the coil-shaped hose bundle 200, and a band guide unit 162 that pulls the end of the guided band. A band fastening part 163 for fastening is provided, and the hose bundle 200 is tied through the band supplied at the second position.

At this time, as the band is fastened to the space between the supports 133 while rotating the winding module 130 in which the hose is wound in the second position, the control unit 170 moves the winding module in the second position at a set angle. It is rotated and aligned so that the band guide part 162 is located in the space between the support part 133 and the side wall part 135.

This banding module 160 is commercialized with various products released for the purpose of automatically packaging products through PP bands, and is used by converting it to fit the shape of the hose bundle. The band guide unit 162 is used to configure the hose bundle. It guides the supplied band by adjusting its length in a slide manner so that it passes through the central space of the , and is configured to connect the band supply unit 161 and the band fastening unit 163.

At this time, the band guide portion 162 is configured to open in the pulling direction so that the band fastening portion 163 can be brought into close contact with the hose bundle 200 by pulling the supplied band, and the band fastening portion ( 163) fuses both ends of the pulled band and cuts them at the same time to tie the hose bundle 200.

In the present invention, in order to prevent the purpose of the invention from being obscured, description of the specific principle for fastening the band is omitted. For example, although some structures are different, a similar principle for banding a hose bundle is described in Korean Patent No. 10-2098091, etc. It is clear that a person skilled in the art can properly implement it.

Figure 10 is a flowchart showing the hose packaging procedure according to an embodiment of the present invention. In the present invention, it is very important to organically control the operation of not only the above-described series of configurations, but also the series of configurations for work continuity and stable automation. , This series of operation controls are continuously performed through the control unit.

First, based on the initial state that all winding modules are empty, the first step (S110) rotates the winding module in the first position and supplies the hose through the supply module 110, and also supplies the hose through the alignment module 120. The supplied hose is guided to the cutout portion 134 of the winding module at the first position.

Afterwards, the supplied hose is inserted into the cutout part of the winding module at the first position, and in the second step (S120), the hose inserted into the cutout part of the winding module at the first position is supported. This is accomplished through the cutting cylinder 143 and the holding part 141, and as described above, the cutting part 142 can operate together. However, when the winding module in the second position is empty, the end of the hose that has already been cut is cut. As it is inserted as a part, separate cutting work is not very meaningful.

In the next third step (S130), the hose is supplied through the supply module 110 and the winding module in the first position rotates to create a hose bundle. At this time, the hose supplied through the alignment module 120 is moved left and right to align the winding hose positions so that it can be wound smoothly in a coil shape.

After the hose is wound around the winding module in the first position, in the fourth step (S140), the conversion module 150 is unfastened and the winding module that created the hose bundle is moved to the second position, and at the same time, the empty winding module is moved to the second position. It is moved to position 1 and the conversion module 150 is fixed in the fifth step (S150).

As mentioned above, during the rotation of the conversion module 150, the fixing cylinder 155 contracts and the fixing protrusion 156 is separated from the fixing groove 154, and is fixed to fix the position after the conversion module 150 rotates. The length of the cylinder 155 increases and the fixing protrusion 156 is inserted into the fixing groove 154 to block the movement of the conversion module 150.

In the next sixth step (S160), the winding module in the first position is rotated and the hose supplied through the alignment module 120 is guided to the cutout side of the winding module in the first position, and then the winding module in the first position is rotated. As the hose is inserted into the incision, the holding part 141 and the cutting part 142 are operated through the cutting cylinder 143 to support and cut the hose.

That is, the control unit 170 rotates the winding module in the first position and operates the cutting cylinder 143 as the hose is inserted into the cut part 134, and a detection sensor or counter for this purpose detects the rotation of the winding module. can be provided.

At this time, the length is adjusted and the hose that floats up is pushed down through the push cylinder (144), which can press the hose between the first and second positions downward, so that the hose is smoothly moved to the winding module cutout in the first position. Allow it to be inserted.

Next, in the seventh step (S170), the winding module in the first position rotates to create a hose bundle, and in the eighth step (S180), the winding module in the second position is rotated at a set angle through the bending module (160). The packaging steps may be performed substantially simultaneously.

At this time, the control unit 170 rotates the winding module in which the hose is wound in the second position and rotates and aligns the band guide unit 162 so that it is located in the space between the support unit 133 and the side wall unit 135.

After the eighth step (S180) is completed, in the ninth step (S190), the opening and closing cylinder 137 of the winding module in the second position is controlled to open the side wall portion 135 and the hose is connected to the discharge cylinder 164. The bundle is pushed out and discharged.

Afterwards, as the hose winding work on the winding module in the first position is completed, the process is repeated from step S140.

The rights of the present invention are not limited to the embodiments described above but are defined by the claims, and those skilled in the art can make various changes and modifications within the scope of the claims. This is self-evident.

100: Basic frame 110: Supply module
111: supply roller 112: support roller
113: Induction tube 114: Pressurizing means
115: Anti-twisting part 116: Support body
117: support bar 118: support cylinder
120: Alignment module 121: Guide unit
122: transfer screw 130: winding module
131: first axis 133: support
134: incision 135: side wall
136: Hinge portion 137: Opening and closing cylinder
141: holding part 142: cutting part
143: Cutting cylinder 144: Push cylinder
150: Conversion module 151: 2nd axis
153: fixing part 154: fixing groove
155: fixed cylinder 156: fixed protrusion
160: Banding module 161: Band supply unit
162: Band guidance unit 163: Band fastening unit
164: discharge cylinder 170: control unit
200: Hose bundle

Claims (7)

In the hose packaging device that wraps the hose in a coil form,
A supply module 110 having a supply roller 111 for transporting the hose and a support roller 112 for supporting the transferred hose;
An alignment module 120 that reciprocates the supply module 110 left and right and adjusts the position of the supplied lake;
The width of the rotating first shaft 131, the support portion 133 on which the hose supplied around the first shaft 131 is seated and wound in the form of a coil, and the hose bundle wound on the left and right sides of the support portion 133 It is provided with a side wall portion 135 erected at corresponding intervals, a holding portion 141 that holds and supports the hose supplied from one side of the support portion 133, and a cutting portion 142 that cuts the hose in a supported state. Winding module (130); and
A rotating second axis 151 and a plurality of winding modules 130 are installed so that they can rotate at equal intervals around the second axis 151, and the winding modules 130 are installed to rotate in the forward and backward directions. A switching module 150 that moves the position between the first position where the winding work is performed and the second position where the bending work is performed; Equipped with
The support portions 133 are arranged in plurality at equal intervals around the first axis 131,
The side wall portion 135 is hinged to one end of each support portion 133 so that it can be erected when winding the hose and laid down to the side when the hose is separated,
It further includes a discharge cylinder 164 driven laterally on the side of the winding module 130 to automatically discharge the hose bundle by pushing it outward when the side wall portion 135 is laid down,
The switching module 150 further includes a fixing part 153 with a fixing groove 154 formed on the outside,
A fixing cylinder ( 155) A hose packaging device with a multi-winder structure, further comprising:
delete According to paragraph 1,
A cut portion 134 through which the hose passes is formed at one end of the selected support portion, and the holding portion 141 and the cut portion 142 are cutting cylinders that reciprocate in the left and right directions below the cut portion 134. Driven through (143),
a control unit 170 that rotates the winding module in the first position and operates the cutting cylinder 143 as the hose is inserted into the incision; A hose packaging device with a multi-winder structure, further comprising:
According to paragraph 1,
It is provided with a band supply part 161 that supplies packaging bands, a band guide part 162 that guides the supplied band to pass through the center of the coil-shaped hose bundle, and a band fastening part 163 that pulls and fastens the end of the guided band. A banding module 160 that bundles the hose bundle through a band supplied at a second position;
A control unit 170 that rotates the winding module in which the hose is wound in the second position and rotates and aligns the band guide unit 162 to be located in the space between the support unit 133 and the side wall unit 135; A hose packaging device with a multi-winder structure, further comprising:
According to paragraph 1,
The supply module 110 is,
A guide pipe (113) that holds and supports the supplied hose, the end of which has a length in contact with the upper support of the winding module in the first position and is capable of adjusting the angle up and down, and a pressure that constantly applies a force to press the guide pipe (113) downward. A hose packaging device with a multi-winder structure, further comprising means (114).
delete According to paragraph 1,
The supply module 110 is,
A support body 116 through which a through hole is formed so that the hose passes, and a support bar 117 spaced apart from the support body 116 at a set distance in front of the supply roller 111 or the support roller 112 so that the vertical angle can be adjusted, A hose packaging device with a multi-winder structure, characterized in that it further includes an anti-kink portion (115) made of a support cylinder (118) that controls the angle of the support bar (117).

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