KR102016200B1 - Roll Winder Device and Washing and Drying Apparatus thereof - Google Patents

Abstract

In the washing and drying apparatus of the present invention, a roll winder 60, in which a base 30-1 is wound in a snail spiral shape in which a circle extends outward from the center, is not contacted with each other by the snail spiral gap. 70) and the roll winders 60 and 70 are laid out horizontally or vertically arranged in the inner space of the tank tank 200 so that the roll form of the substrate 30-1 is maintained as it is. It is implemented a feature that the washing by the furnace washing liquid and drying by hot air.

Description

Roll winder device and washing and drying device using the same {Roll Winder Device and Washing and Drying Apparatus

The present invention relates to a washing and drying apparatus, and more particularly, to a roll winder apparatus and a washing and drying apparatus using the same, which can perform a washing and drying operation without releasing the substrate wound on the roll winder.

In general, materials made of plastic or fabric are fabricated into roll-like substrates after lamination of organic / inorganic materials, and then rolled into roll-shaped substrates. After drying, impurities are removed and used as a specimen (or sample) for experiments.

To this end, the cleaning and drying apparatus is installed on a space in which the roll can be released in the horizontal direction, and includes a cleaning liquid sprayer and a hot air fan for supplying the cleaning liquid and hot air to the unrolled substrate, and in particular, the unrolled substrate is horizontal without sagging. It is composed of guides installed at regular intervals on the installation space of the washing and drying apparatus so that they can be released in the direction.

Therefore, the washing and drying apparatus requires a large space accompanying the horizontal space by performing washing and drying of the substrate in the horizontally released state in the unrolled state.

Japanese Patent Laid-Open No. 2010-131922A

However, the cleaning and drying process for the substrate in the form of a roll is a method having a fatal limitation that evenly washing and drying as it is in the roll state is impossible due to the limitation of the roll structure that the cleaning liquid and hot air cannot pass through the inside of the roll form. There is no choice but to.

In addition, the cleaning and drying process for the roll-shaped substrate is accompanied by the following difficulties due to the cleaning and drying apparatus. First, the washing and drying apparatus is configured with multiple guides for supporting the specimen or sample, which adds to the complexity of the installation. Second, since the washing and drying apparatus occupies a large space, the space limitation of the experiment and work execution place is bound to limit work efficiency.

Accordingly, the present invention in consideration of the above-mentioned is produced in the form of a roll by winding the substrate from the outside to the inside using a snail spiral shape, in particular, in the form of a roll while winding the cleaning liquid and hot air at intervals maintained so that there is no surface contact between the substrate The purpose of the present invention is to provide a roll winder device capable of washing and drying evenly in a roll form and a washing and drying device using the same by passing through the inner part.

The roll winder device of the present invention for achieving the above object is made of a snail spiral body forming a snail spiral shape of the circle extending from the center outward, the substrate wound by the snail spiral body is the snail spiral shape A roll winder that is not contacted with the substrate surfaces by a gap between the roll winders; A roll winder shaft fixed to a center of the snail spiral body and protruding from both sides; And a substrate leader moving along a gap of the snail spiral body in a state of holding the substrate.

The roll winder is a single roll winder for winding the width of the substrate or a separate roll winder for winding two roll winders respectively located at both ends of the roll winder shaft.

In the roll winder, perforated perforations form perforated rows, and the perforated rows are continuously arranged at predetermined intervals on the snail spiral body. The roll winder is provided with a substrate guide, and the substrate guide is formed at the inlet of the snail spiral body to form a straight section to guide the inlet of the substrate leader.

The roll winder shaft has a hollow structure in which an incision slit communicating the inner diameter with the outside is cut in the longitudinal direction of the shaft.

The substrate leader is a magnetic material, and is composed of a first magnetic bar and a second magnetic bar that are magnetically coupled to each other, and each of the first and second magnetic bars is magnetically attached to the roll winder shaft.

The roll winder shaft is supported by a housing holder, and left and right sidewalls are erected on the left and right sides of the base frame placed on the ground to support both ends of the roll winder shaft.

The substrate is wound on a substrate roller, and the substrate roller is supported by a substrate holder, and left and right sidewalls are erected on the left and right sides of the base frame placed on the ground to support both ends of the substrate roller.

In addition, the washing and drying apparatus of the present invention for achieving the above object forms an inner space in which the substrate is accommodated, forced circulation for the flow of the washing liquid injected into the inner space or heating for raising the temperature of the washing liquid Or a tank tank in which high temperature air is supplied to the internal space; A roll winder that is accommodated in the inner space of the tank tank, the substrate is wound in a snail spiral shape in which the circle extends outward from the center, and the substrate faces are not contacted by the snail spiral gap; Characterized by including.

The roll winder is accommodated in a state lying horizontally in the tank tank or standing upright, the roll winder is wound in the snail spiral shape of both sides of the substrate or the width of the substrate Snail is wound in a spiral shape.

The tank tank is provided with a drain valve, the washing liquid of the inner space is discharged to the outside, the tank cover is coupled to block the inner space from the outside.

The forced circulation of the washing liquid is made of a circulation pump, the circulation pump is connected to the tank tank. The heating is made of heat medium oil, the heat medium oil circulates the heat medium oil jacket formed on the inner wall of the tank tank by a circulator. The hot air supply is made of a hot air blower, and the hot air blower supplies hot air to the inner space of the tank tank.

Such a roll winder device of the present invention has the following advantages and effects by providing a roll with no surface contact between substrates.

First, even rolls of substrates are prevented from contacting each other to eliminate contamination and poor cleaning / drying due to less dry coating solution. Second, even in the form of rolls, the washing liquid and hot air pass through the inner portion, allowing even washing and drying evenly in the form of rolls. Third, since the roll is made of a snail spiral roll winder, it is easily applied to a stiff substrate that maintains its unfolded form, or a substrate that does not maintain its own shape, such as a substrate coated with one or both sides or a fiber. Fourth, the roll winder is composed of a single cylindrical shape or composed of two or more holding both ends of the substrate, thereby increasing the versatility with respect to the size of the substrate.

In addition, such a washing and drying apparatus of the present invention has the following advantages and effects by using the roll wound the winder without the surface contact between the substrate without deformation.

First, washing and drying workability is greatly improved by using the substrate wound in a roll form as it is. Second, the size of the equipment is reduced by not releasing the roll shape and supporting it with a guide. In particular, the space constraint of the experiment and the place of performing work, which limited work efficiency, is also eliminated. Third, the rolls can be arranged horizontally or vertically to be washed and dried, thereby optimizing the washing and drying according to the type of the substrate or the coating state.

1 is a block diagram of a roll winder apparatus according to the present invention.
2 is a detailed block diagram of a detachable roll winder according to the present invention.
3 is a configuration diagram showing an example of the expandability of the separate roll winder according to the present invention.
4 is a detailed block diagram of a unitary roll winder according to the present invention.
5 is a view showing a manufacturing state of a roll winder by a separate roll winder according to the present invention.
6 is a view showing a manufacturing state of a roll winder by a single roll winder according to the present invention.
7 is a block diagram of a washing and drying apparatus using a separate roll winder or a single roll winder according to the present invention.
8 is a view showing a washing mode operating state of the washing and drying apparatus according to the present invention.
9 is a view showing a drying mode operating state of the washing and drying apparatus according to the present invention.

DETAILED DESCRIPTION Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings. Since the exemplary embodiments of the present invention may be embodied in various different forms, one of ordinary skill in the art to which the present invention pertains may be described. It is not limited to the Example to make.

1 shows a configuration of a roll winder apparatus according to the present embodiment.

As shown, the roll winder device 1 includes a housing holder 10, a substrate holder 20, a substrate roller 30, a substrate leader 40, a roll winder shaft 50, and first and second rolls. Winders 60-1 and 60-2.

In detail, the housing holder 10 is equipped with first and second roll winders 60-1 and 60-2 so as to manufacture the substrate 30-1 in a roll form. To this end, the housing holder 10 stands the side walls to the left and right of the base frame placed on the ground, and the vertical left and right side walls accommodate the first and second roll winders 60-1 and 60-2. It consists of a frame structure that forms a space. In particular, the left and right side walls are formed with a semi-circular shaft seating surface (11a), the shaft seating surface (11a) is fixed to the first and second roll winders (60-1, 60-2) Support both ends of the roll winder shaft 50.

Specifically, the substrate holder 20 is mounted with a substrate roller 30 wound around the substrate 30-1 to release the substrate 30-1. To this end, the substrate holder 20 has a frame structure that erects sidewalls to the left and right of the base frame placed on the ground, and forms a space for receiving the substrate roller 30 in the vertical left and right sidewalls. In particular, the left and right side walls are formed with a semi-circular roller seating surface 21a, and the roller seating surface 21a supports both end portions of the substrate roller 30 wound around the substrate 30-1. do.

In detail, the substrate leader 40 includes magnetic first and second magnetic bars 40-1 and 40-3, and the first and second magnetic bars 40-1 and 40-3 are respectively. It consists of a circular rod type.

Specifically, the roll winder shaft 50 has a hollow pipe structure, and the first and second magnetic bars 40-1 and 40-3 are inward by forming the cut slits 50-1 in the longitudinal direction. Can be fitted.

Specifically, the first and second roll winders 60-1 and 60-2 are defined as separate roll winders 60 by fixing their central portions at intervals on the roll winder shaft 50.

2 shows an example of the separate roll winder 60 composed of the first and second roll winders 60-1 and 60-2. As shown, the split roll winder 60 has a first roll winder 60-1 and a second roll winder 60-2 having a separation interval L-1 on the roll winder shaft 50. It is composed of Each of the first roll winder 60-1 and the second roll winder 60-2 has a snail spiral shape in which the substrate 30-1 is wound such that there is no surface contact with each other. Therefore, each of the first roll winder 60-1 and the second roll winder 60-2 may be manufactured by winding a plate having a predetermined width and thickness in a snail spiral shape. In addition, the first and second roll winders (60-1, 60-2) is applied to the material to maintain the shape and to apply the appropriate material according to the type and temperature conditions of the cleaning liquid used. For example, the first and second roll winders 60-1 and 60-2 are preferably made of a material coated with Teflon on a metal or metal skeleton. The metal may be stainless steel (STS).

In one example, the first roll winder 60-1 has a snail shape having a predetermined width, and has a fixed end 61, an inlet end 63, a snail spiral body 65, and a base guide 67. Are distinguished. The fixed end 61 is a snail spiral center portion and is fixed to the roll winder shaft 50. The inlet end 63 is the outermost part of the snail spiral shape and has a base guide 67 at its end. The snail spiral body 65 connects the fixed end 61 and the inlet end 63 and is wound several times with a gap t between each other to form a snail spiral shape. The base guide 67 serves to easily enter the first and second magnetic bars 40-1 and 40-3 by forming a straight section at the end of the inlet end 63. In this case, the gap t is formed to be equal to or slightly larger than the width of the first and second magnetic bars 40-1 and 40-3 arranged in a straight line with each other. In particular, although not shown, the fixed end 61 may be fixed to the roll winder shaft 50 so as not to cover the cutting slit 50-1.

In addition, the second roll winder 60-2 has a snail shape having a predetermined width, and has the same fixed end 61, inlet end 63, and snail helix as the first roll winder 60-1. It consists of the body 65 and the base guide 67.

Therefore, the first roll winder 60-1 and the second roll winder 60-2 have the same structure and function.

In particular, the separate roll winder 60 may be composed of three or more combinations. Referring to FIG. 3, the split roll winder 60 includes first, second and third roll winders 60-1, 60-2, and 60-3. In this case, the first roll winder 60-1 is positioned at one end of the roll winder shaft 50, and the second roll winder 60-2 is positioned at the end of the roll winder shaft 50. Located at the opposite end, the third roll winder 60-3 is located in the middle of the roll winder shaft 50. In this case, the separation interval L-2 between the first roll winder 60-1 and the second roll winder 60-2, the second roll winder 60-2, and the third roll winder The separation interval L-2 of (60-3) is the same. However, if necessary, the separation interval L-2 may be formed differently. In addition, the first, second and third roll winders (60-1, 60-2, 60-3) apply a material to maintain the shape and apply the appropriate material according to the type and temperature conditions of the cleaning liquid to be used. For example, the first, second and third roll winders 60-1, 60-2, and 60-3 are preferably made of a material coated with Teflon on a metal or metal skeleton. The metal may be stainless steel (SUS).

4 illustrates an example in which the roll winder 60 is configured as a single roll winder 70. As shown, the single roll winder 70 has a size in which both ends of the roll winder shaft 50 protrude, and has a snail shape in which the substrate 30-1 is wound so that there is no surface contact with each other. . In addition, the unitary roll winder 70 applies a material to maintain the shape, and applies a suitable material according to the type and temperature conditions of the washing liquid used. For example, the unitary roll winder 70 is preferably made of a material coated with Teflon (teflon) on the metal or metal skeleton. The metal may be stainless steel (SUS).

For example, the unitary roll winder 70 has a snail shape having a predetermined width, and includes a fixed end 71, an inlet end 73, a snail spiral body 75, a substrate guide 77, and a hole hole row. It is divided into (79). The fixed end 71 is a snail spiral center portion and is fixed to the roll winder shaft 50. The inlet end 73 is the outermost part of the snail spiral shape, and has a base guide 77 at the end thereof. The snail spiral body 75 connects the fixed end 71 and the inlet end 73 and forms a snail shape by being wound several times with a gap t-1 between each other. The substrate guide 77 forms a straight section at the end of the inlet end 73, so that the first and second magnetic bars 40-1 and 40-3 are easily inserted. In this case, the gap t-1 is formed to be equal to or slightly larger than the width of the first and second magnetic bars 40-1 and 40-3 arranged in a straight line with each other. In particular, although not shown, the fixed end 71 may be fixed to the roll winder shaft 50 so as not to cover the incision slit 50-1.

In addition, the hole holes 79 are drilled from the fixed end 71 through the snail spiral body 75 through the snail spiral body 75 to the inlet end 73 while the holes having a predetermined diameter form a straight line and maintain a predetermined space spacing k. In this case, the hole holes 79 are also formed in the base guide 77. Therefore, the single roll winder 70 may be manufactured by winding a porous plate having a predetermined width and thickness in a snail shape.

Therefore, the single roll winder 70 has the same structure as the separate roll winder 60. However, there is a difference that the single roll winder 70 further forms the porous hole row 79 that is not present in the separate roll winder 60. For this reason, the detachable roll winder 60 is suitable for the substrate 30-1 that maintains the stiffly stretched form or the substrate 30-1 having one or both sides coated thereon. On the other hand, the unitary roll winder 70 is impregnated smoothly using the porous hole row 79, and is particularly suitable for the substrate 30-1 having low self-supporting strength, such as a fiber that cannot maintain its own shape.

On the other hand, in the present embodiment, the roll winding process is a roll winding by a rotating machine (not shown) such as a motor or by an operator according to the method of mounting the detachable roll winder 60 to the housing holder 10 Roll windings can be made.

In detail, the roll winding operation by the rotating machine may be applied when both ends of the roll winder shaft 50 cannot be seated on the housing holder 10 or the housing holder 10 cannot be used. For example, one end portion of both ends of the roll winder shaft 50 is seated on the housing holder 10, and then a rotary machine is connected to the other end portion, or the roll winder shaft 50 is placed vertically. In this state, a method of connecting a rotary machine to one end portion of both ends of the roll winder shaft 50 is used.

However, since the roll winding operation by the rotating machine is applied when the difficulty of the operator is accompanied by the weight of the detachable roll winder 60, the following description is made of the roll winder shaft 50 in the housing holder 10. When both ends can be seated will be described in detail the roll winding operation by the operator to apply.

As an example, FIG. 5 shows a roll winder working state in which the roll winder device 1 does not have contact between substrate surfaces while winding the substrate 30-1 in a roll form on the detachable roll winder 60.

As shown, both end portions of the roll winder shaft 50 are seated on the shaft seating surface 11a of the housing holder 10, thereby fixing the first and second roll winders 60 fixed to the roll winder shaft 50. -1 and 60-2 are positioned in the space formed by the left and right sidewalls of the housing holder 10.

Subsequently, by rolling the substrate roller 30 onto the roller seating surface 21a of the substrate holder 20 adjacent to the housing holder 10, a rolling operation of the substrate 30-1 is prepared.

Thereafter, the first and second magnetic bars 40-1 and 40-3 are attached to each other by magnetic force after holding the end portions of the substrate 30-1 between the first and second magnetic bars 40-1 and 40-3. ) Is positioned toward the substrate guide 67 of the first roll winder 60-1 and the substrate guide 67 of the second roll winder 60-2.

Subsequently, the first and second magnetic bars 40-1 and 40-3 drawn into the substrate guide 67 are moved from the inlet end 63 through the snail body 65 to the fixed end 61, and then After separating the 1,2 magnetic bars 40-1 and 40-3, the end portion of the substrate 30-1 is inserted into the cut slit 50-1 of the roll winder shaft 50, and the first , 2 magnetic bars (40-1, 40-3) to the roll winder shaft 50 using the incision slit (50-1) and then the end of the substrate (30-1) the first magnetic bar ( 40-1,40-3).

Thereafter, the first and second roll winders 60-1 and 60-2 are cut out by cutting the substrate 30-1 toward the base guide 67 of the first and second roll winders 60-1 and 60-2. ) Is made of a roll winder in which the substrate 30-1 is wound without a surface contact with the gap t of the snail body 65.

On the other hand, FIG. 6 shows a roll winder working state in which the roll winder device 1 does not have contact between substrate surfaces while winding the substrate 30-1 in a roll form on a single roll winder 70. In this case, it is the same as the roll winder manufacturing of the detachable roll winder 60 described with reference to FIG. However, the substrate 30-1 is wound using the single roll winder 70, and the porous hole rows 79 of the single roll winder 70 form an adsorptive force to the substrate 30-1 during the rolling process. Do it. Therefore, it is advantageous when the substrate 30-1 wound using the single roll winder 70 is weak in its own supporting force, such as a fiber that cannot maintain its own shape.

As a result of the operation, by cutting the substrate 30-1 toward the substrate guide 77 of the unitary roll winder 70, the unitary roll winder 70 is formed without any surface contact with the gap t-1 of the snail body 75. 30-1) is made of wound roll winder.

In the present embodiment, the roll winding process of the unitary roll winder 70 may be a roll winding by a rotating machine, such as the separate roll winder 60.

On the other hand, Figure 7 shows the configuration of the washing and drying apparatus 100 is a washing and drying of the separate roll winder 60 or a single roll winder 70. As shown, the components of the washing and drying apparatus 100 is a separate roll winder 60, a single roll winder 70, the tank tank 200, the drain valve 200-1, the tank cover ( 300), a circulator (400), a heat medium oil jacket (600).

Specifically, the separate roll winder 60 is the separate roll winder 60 described in FIG. 4, and the single roll winder 70 is the single roll winder 70 described in FIG. 4. Hereinafter, an example of washing and drying of the detachable roll winder 60 will be described, and the detachable roll winder 60 is defined as a roll winder 60.

Specifically, the tank tank 200 forms the inner space of the unidirectional sealed rectangular box structure, the roll winder 60 is accommodated and the washing liquid is injected into the inner space, and the circulation and heating of the washing liquid and the supply of hot air are performed. Is done. In addition, the tank tank 200 may be made of SUS (stainless steel) or Teflon (Teflon) coated SUS material to prevent corrosion. In particular, the tank tank 200 is provided with a roll winder holder 200A on two walls facing each other among the front and rear and left and right inner walls forming an internal space, the roll winder holder 200A is a roll winder shaft 50 Roll winder 60 can be installed lying down in a horizontal state in the inner space by using a protrusion or groove structure that is fixed to both ends of the). However, the roll winder holder 200A may be installed on the bottom surface of the inner space so that the roll winder 60 is leaked in a vertical state in the inner space.

Specifically, the drain valve 200-1 is provided on the bottom surface of the tank 200 to discharge the washing liquid collected after the washing is completed from the tank 200 to the outside. To this end, the drain valve 200-1 may be an electronic valve, but applies a ball valve capable of manual operation.

Specifically, the tank cover 300 is coupled to the inlet portion of the tank tank 200 to block the internal space of the tank tank 200 from the outside. In particular, the tank cover 300 is coupled to the structure surrounding the inlet rim of the tank tank 200 to be easily removable, the sealing process of the tank tank 200 by providing a rubber ring on the inner surface of the tank cover 300. can do.

Specifically, the circulator 400 communicates with the heat medium oil jacket 600 of the water tank tank 200 using the heat medium oil circulation line, and circulates the heat medium oil with the heat medium oil jacket 600 of the water tank tank 200. Heating or cooling takes place.

Specifically, the heat medium oil jacket 600 is formed on the inner wall of the water tank tank 200 to heat the water tank tank 200 by circulating the heat medium oil, and the roll winder 60 by heating the water tank tank 200. When cleaning, it makes a more effective environment for removing impurities.

Referring back to FIG. 7, the components of the washing and drying apparatus 100 may further include a circulator 400, a hot air fan 500, a circulation pump 500-1, and a controller 700. However, when the circulator 400, the hot air blower 500, and the circulation pump 500-1 have an independent operation using an on / off button, the controller 700 is used as a component of a washing and drying apparatus. It may not be.

Specifically, the circulator 400 may be forced to circulate the heat medium oil to the heat medium oil jacket 600 to apply the tank tank 200, the operation of the controller 100. To this end, the circulator 400 is connected to the outlet valve 400-1 and the inlet valve 400-2 may be forced circulation of the heat medium oil. For example, the valves 400-1 and 400-2 may be electronic valves that are turned on and off by the controller 100, but a ball valve capable of manual operation may be applied. However, in the conventional configuration of the circulator 60D, the valves 400-1 and 400-2 may not be provided.

Specifically, the hot air blower 500 supplies the hot air to the inner space of the tank tank 200 to form the inner space in an environment more effective for drying the roll winder 60.

Specifically, the circulation pump 500-1 may increase the washing efficiency by circulating the washing liquid injected into the tank tank 200, and may be operated by the controller 100. To this end, the circulation pump 500-1 includes a washing liquid circulation line through which the washing liquid is circulated, and an electronic valve or a manual operation ball valve controlled by the control path 700 at the inlet and the outlet of the washing liquid circulation line, respectively ( ball valve can be applied.

Specifically, the controller 700 operates the circulator 400, the hot air fan 500, and the circulation pump 500-1 according to the washing conditions and the drying conditions, and in particular, when the temperature condition of the washing liquid is set to a specific value. Programming or logic configuration can be implemented to control the operation of the device based on the settings.

On the other hand, Figures 8 and 9 show a working state in which the washing and drying apparatus 100 is dried after washing the roll winder 60.

Referring to FIG. 8, in the washing process of the roll winder 60, the washing solution is injected, and the tank cover 300 is coupled to block the internal space of the tank 20 from the outside. At this time, the drain valve 200-1 maintains the closed state.

In the washing process, forced circulation by the circulation pump 500-1 and heating of the water tank 200 by the circulator 400 are performed.

Operation of the circulation pump 500-1 performed after the washing liquid is injected may be performed manually by an operator or automatically by the controller 700. For example, during manual operation, the operator closes the valves 200-1, 400-1, 400-2 and then operates the circulation pump 500-1 to force the circulation of the washing liquid inside the tank 200. On the other hand, during the manual operation, the controller 700 closes the valves 200-1, 400-1 and 400-2 and then outputs a control signal a to operate the circulation pump 500-1 to force the circulating washing liquid. Therefore, by forcibly circulating the washing liquid filled in the inner space of the tank tank 200 can increase the flow rate of the washing liquid passes through the roll winder (60).

Operation of the circulator 400 after the washing liquid is injected may be performed manually by an operator or automatically by the controller 700. For example, during manual operation, the operator opens the outlet valve 400-1 and the inlet valve 400-2, and directly operates the circulator 400 while the drain valve 200-1 is closed. Circulated to jacket 600. On the other hand, during the automatic operation, the controller 100 outputs the control signal b to operate the circulator 400 to circulate the heat medium oil to the heat medium oil jacket 600. Therefore, the tank tank 200 can increase the temperature of the washing liquid by heating with heat medium oil.

As a result, the washing liquid is forcedly circulated and at the same time the temperature is raised. Then, in either case of the cleaning mode A in which the roll winder 60 is in a horizontal state or the cleaning mode B in which the roll winder 60 is in a vertical state, a relatively high temperature washing liquid is produced in the roll winder 60. Impurity removal is more effective by passing through the gap t of) faster.

Referring to FIG. 9, in the drying process of the roll winder 60, the washing liquid collected at the bottom surface of the tank 200 is completely discharged to the outside by opening the drain valve 200-1. At this time, the outlet valve 400-1 and the inlet valve 400-2 of the circulator 400 maintain the closed state.

In the drying process, the drying of the roll winder 60 may be facilitated by making the internal space of the water tank 200 in a favorable condition for drying with the hot air fan 500 after completely discharging the washing liquid. For example, when the hot air is supplied to the hot air fan 500, the controller 100 controls the operation of the hot air fan 500 with the control signal c to increase the temperature of the internal space of the tank tank 200.

As a result, in either case of the drying mode A in which the roll winder 60 is in a horizontal state or the drying mode B in which the roll winder 60 is in a vertical state, hot air is relatively increased in the roll winder 60. Drying is more efficient by passing through the gap t more quickly.

As described above, the washing and drying apparatus according to the present embodiment is wound in a snail spiral shape in which the substrate 30-1 is circularly expanded outward from the center, and the substrate faces are not contacted by the snail spiral gap. Of the substrate 30-1 by being rolled horizontally or vertically arranged in the inner space of the tank tank 200. The washing is performed by the washing liquid and dried by hot air while the roll form is maintained as it is.

1: roll winder device
10: housing holder 11a: shaft seating surface
20: substrate holder 21a: roller seating surface
30: substrate roller 30-1: substrate
40: substrate leader 40-1, 40-3: first and second magnetic bars
50: roll winder shaft 50-1: incision slit
60: detachable roll winder
60-1,60-2,60-3: 1st, 2nd, 3rd roll winder
61,71: fixed end 63,73: retracted end
65, 75: snail helix body 67, 77: substrate guide
70: single roll winder 79: perforated column
100: washing and drying apparatus 200: tank tank
200A: Roll Winder Fixture 200-1: Drain Valve
300: tank cover
400: circulator 400-1: outlet valve
400-2: inlet valve 500: hot air fan
500-1: circulation pump 600: thermal fluid jacket
700: controller

Claims (19)

It consists of a snail spiral body (65, 75) forming a snail spiral shape that the circle extends outward from the center, the snail spiral body (65, 75) is one side and the other side of the snail spiral body (65, 75) Winding to face each other, the one surface and the other surface of the snail spiral body (65,75) is spaced apart from each other to form a gap, and inserted into the gap formed by the snail spiral body (65,75) one surface and the other surface Roll-winders 60 and 70 in which the substrate 30-1 wound to face each other does not come into contact with the one surface and the other surface of the substrate by the snail spiral gap;
A roll winder shaft 50 fixed to the center of the snail spiral bodies 65 and 75 and protruding from both sides;
A substrate leader 40 moving along the gap of the snail spiral bodies 65 and 75 while holding the substrate 30-1;
Roll winder device comprising a.
2. The roll winder of claim 1, wherein the roll winders 60 and 70 are two rolls each positioned at both end portions of the single roll winder or the roll winder shaft 50 which wind the width of the substrate 30-1. Roll winder device, characterized in that the winder is a separate roll winder for winding both left and right portions of the base material (30-1).
The method of claim 1, wherein the roll winder (60, 70) is a perforated perforated hole forms a perforated hole column 79, the perforated hole column 79 is a predetermined distance to the snail helix body (65, 75) Roll winder device, characterized in that arranged in succession.
The method of claim 1, wherein the roll winder (60, 70) is provided with a substrate guide (67, 77), the substrate guide (67, 77) is provided at the inlet of the snail spiral body (65, 75) A roll winder device, characterized in that guides the retraction of the substrate reader (40).
The roll winder device according to claim 4, wherein the base guides (67, 77) form a straight section.
The roll winder device according to claim 1, wherein the roll winder shaft (50) has a hollow structure in which an incision slit (50-1) for communicating the inner diameter with the outside is cut in the longitudinal direction of the shaft.
The roll winder device according to claim 1, wherein the base reader (40) is a magnetic material. The method of claim 7, wherein the substrate leader 40 is composed of a first magnetic bar 40-1 and a second magnetic bar 40-3 which are magnetically coupled to each other, the first and second magnetic bars 40- Each of 1,40-3 is a roll winder device, characterized in that attached to the roll winder shaft (50) by magnetic force.
The left and right sidewalls of claim 1, wherein the roll winder shaft 50 is supported by a housing holder 10, and the housing holder 10 has a pair of left and right side walls supporting both ends of the roll winder shaft 50. Roll winder device characterized in that it is included.
The base frame of claim 1, wherein the roll winder shaft 50 is supported by a housing holder 10, and the housing holder 10 is placed on the ground so as to support one end portion of the roll winder shaft 50. Roll winder device characterized in that it is included.
The base frame of claim 10, wherein the substrate 30-1 is wound on the substrate roller 30, the substrate roller 30 is supported by the substrate holder 20, and the base frame 20 is placed on the ground. Left and right sidewalls of the left and right of the roll winder device, characterized in that supporting both ends of the substrate roller (30).
The roll winder device according to claim 1, wherein the roll winder is made of stainless steel or teflon coated SUS.
A water tank tank forming an inner space in which the substrate 30-1 is accommodated, a forced circulation for the flow of the washing liquid injected into the inner space, a heating for raising the temperature of the washing liquid, or a high temperature air supply to the inner space ( 200);
The snail spiral body (65,75) is accommodated in the inner space of the tank tank 200, the snail spiral body (65, 75) forming a snail spiral shape of the circle extending from the center outward, One surface and the other surface of the snail spiral bodies 65 and 75 are wound to face each other, and the one surface and the other surface of the snail spiral bodies 65 and 75 are spaced apart from each other to form a gap, and the snail spiral body 65 A roll wine in which the one side and the other side of the substrate are not in contact with each other by the snail spiral gap between the substrate 30-1 inserted into the gap formed by the 75 and wound so that one side and the other side face each other More (60, 70);
Washing and drying apparatus comprising a.
The apparatus of claim 13, wherein the roll winders (60, 70) are accommodated in a horizontally laid down state in the tank tank (200) or housed vertically.
The method of claim 13, wherein the roll winder (60, 70) is wound around both sides of the substrate 30-1 in the snail spiral shape or the width of the substrate 30-1 is wound in the snail spiral shape Washing and drying apparatus characterized in that.
The method of claim 13, wherein the tank tank 200 is provided with a drain valve 200-1 is discharged to the outside of the washing liquid in the inner space, the tank cover 300 is coupled to the inner space is blocked from the outside Washing and drying apparatus, characterized in that.
The washing and drying apparatus of claim 13, wherein the forced circulation of the washing liquid is made of a circulation pump (500-1), and the circulation pump (500-1) is connected to the water tank (200).
The washing and drying apparatus of claim 13, wherein the heating is made of heat medium oil, and the heat medium oil circulates the heat medium oil jacket 600 formed on the inner wall of the tank tank 200 with the circulator 400. .
The method of claim 13, wherein the hot air supply is made of a hot air fan (500), the hot air fan (500) washing and drying apparatus, characterized in that for supplying hot air to the internal space of the tank tank (200).

Images