KR102370643B1 - Method for controlling hanger type laundry treating machine - Google Patents

Abstract

The present invention relates to a method for controlling a hanger type laundry treating machine to control a laundry treating operation of the hanger type laundry treating machine, enabling a more effective laundry treating operation. The method for controlling a hanger type laundry treating machine according to the present invention includes a step of selecting any one of a plurality of modes and a step of executing the selected mode, wherein the selected mode includes a steam supply cycle, a deep steam supply cycle, a deep heat steam cycle, and a drying cycle.

Description

The control method of the hanger type clothing manager {METHOD FOR CONTROLLING HANGER TYPE LAUNDRY TREATING MACHINE}

The present invention relates to a control method of a hanging-type clothes manager for controlling a clothes management operation of the hanging-type clothes manager.

The clothes manager may perform various processing on clothes, such as drying, refreshing, and sterilizing clothes.

In detail, the clothes manager may dry wet clothes, remove dust attached to clothes or a smell that is absorbed in clothes, and perform clothes management such as reducing wrinkles on clothes.

Recently, the clothes manager is formed in the form of a cabinet, and is provided in the form of hanging clothes and managing the clothes.

However, since such a cabinet-type clothing manager has a large volume, it can be installed only in a large space that can accommodate it when installed, thereby limiting the installation space. In addition, the cabinet-type clothing manager is installed in a fixed form at an initial installation position. Therefore, it is cumbersome to move the position. In addition, since the fixed installation is possible only within a limited space having an indoor space, such as a house or a company, the space used may be limited.

In addition, it is difficult to provide a plurality of cabinet-type clothing managers due to high cost and large volume, and even if a plurality of clothing managers are provided, it may be difficult to secure a space to accommodate them.

Therefore, it is necessary to develop a technique for solving the above-mentioned problems of the conventional cabinet-type clothes management machine.

In addition, in order to increase usability of the clothes manager, it is necessary to develop a control method of the clothes manager for more efficiently controlling the clothes manager.

Korean Patent No. 10-2000450

An object of the present invention is to provide a method for controlling a hanging-type clothes manager capable of more effectively performing a clothes management operation by spraying steam and hot air on clothes and vibrating the clothes.

In accordance with one aspect of the present invention, there is provided a method for controlling a hanger-type clothing manager, the method comprising: selecting any one of a plurality of modes; and performing a selected mode, wherein the selected mode includes: a steam supply stroke of operating a steam spraying unit to spray steam into an accommodation space including clothes; a deep steam supplying stroke for operating the steam spraying unit and the clothes vibrating unit to vibrate the rhythm while spraying the steam into the accommodation space; a deep heat steam stroke for supplying hot air while spraying the steam to the receiving space by operating the steam spraying unit and the hot air supplying unit; and a drying process of supplying the hot air to the accommodation space by operating the hot air supply unit.

In addition, the selected mode may further include a deep drying operation of operating the hot air supply unit and the clothing vibrating unit after the drying operation to advance the clothes while supplying the hot air to the accommodation space.

In addition, the drying process and the deep drying process are repeatedly performed for a preset repeating stroke time.

In addition, the selected mode may further include a clothing sterilization process of irradiating UV light to the accommodation space through a light irradiator from the start of driving of the hanger-type clothes manager to the end of driving.

In addition, the selected mode may further include a clothing dusting operation performed before the steam supply operation, in which the clothing vibrating unit is operated to shake off dust from the clothing.

Also, in the selected mode, the clothes vibrate by operating the clothes vibrator during the deep heat steam stroke.

In addition, the selected mode is performed between the deep heat steam stroke and the drying stroke, and supplies the hot air into the accommodation space through the hot air supply unit and operates an exhaust unit to operate the deep heat steam stroke in the accommodation space. and a steam convection stroke for convection of the steam sprayed from the .

In addition, the plurality of modes include a normal mode, a sterilization mode, and an advanced mode.

As described above, the control method of the hanging type clothes manager according to the present invention has the following effects.

The control method of the hanger-type clothing manager according to the present invention sequentially performs a plurality of strokes constituting the mode according to a selected mode, and varies the number and duration of a specific stroke among the plurality of strokes according to the selected mode to be more effective A clothing management operation may be performed.

1 is a view showing an example of using a hanger-type clothes manager according to a preferred embodiment of the present invention.
2 is an exploded perspective view of the upper body;
3 is a perspective view of a clothing vibrating unit;
4A is an exploded perspective view of a steam generator;
Figure 4b is a side cross-sectional view of the steam generator in a coupled state.
5 is an exploded perspective view of a hot air supply unit.
6 is an exploded perspective view of an exhaust unit;
7 is a diagram schematically illustrating a functional performance state of each component into an accommodating space.
8 is a flowchart for mode selection of a control method of a hanger-type clothes manager according to a preferred embodiment of the present invention.
9 is an administrative flowchart of a selected mode of a control method of a hanger-type clothes manager according to a preferred embodiment of the present invention.
10 is a detailed administrative flowchart of a selected mode of a control method of a hanger-type clothing manager according to a preferred embodiment of the present invention.

The following is merely illustrative of the principles of the invention. Therefore, those skilled in the art can devise various devices that, although not explicitly described or shown herein, embody the principles of the invention and are included in the spirit and scope of the invention. In addition, it should be understood that all conditional terms and examples listed herein are, in principle, expressly intended only for the purpose of understanding the inventive concept and are not limited to the specifically enumerated embodiments and states as such. .

The above-described objects, features, and advantages will become more apparent through the following detailed description in relation to the accompanying drawings, and accordingly, those of ordinary skill in the art to which the invention pertains will be able to easily practice the technical idea of the invention. .

Embodiments described herein will be described with reference to cross-sectional and/or perspective views that are ideal illustrative views of the present invention. The thickness and width of the members and regions shown in these drawings are exaggerated for effective description of technical content. The shape of the illustrative drawing may be modified due to manufacturing technology and/or tolerance.

Accordingly, embodiments of the present invention are not limited to the specific form shown, but also include changes in the form generated according to the manufacturing process.

Hereinafter, with reference to the accompanying drawings according to a preferred embodiment of the present invention will be described in detail as follows.

1 is a diagram illustrating an example of using a hanger-type clothes manager 1 according to a preferred embodiment of the present invention.

As shown in FIG. 1 , the hanger type clothes manager 1 according to the preferred embodiment of the present invention includes an upper body 100 including a clothes vibrating unit VB, and the upper body 100 coupled to the upper body. It may be configured to include a cover 800 forming an accommodating space 800a inside the 100 and a lower body 900 coupled to the cover 800 and connected to the upper body 100 .

The hanging-type clothes manager 1 according to a preferred embodiment of the present invention is provided in a form to be hung on an external object 20 through the upper body 100, and is provided in the accommodating space 800a for a management operation (clothing). of dust removal, steam spraying and hot air spraying) can be performed. The external object 20 may include a standing hanger, a hanger, and the like.

2 is an exploded perspective view of the upper body 100 constituting the hanger-type clothes manager 1 according to the preferred embodiment of the present invention.

As shown in FIG. 2 , the upper body 100 may include a hook part 300 and a housing part HS. The hook portion 300 may include a ring portion 310 , a rotation plate 330 coupled to the ring portion 310 , and an upper plate 320 provided between the ring portion 310 and the rotation plate 330 . The housing part HS includes a side body part 120 including an opening OP closed by the upper plate 320 of the hook part 300 , and a body part 110 coupled to the side body part 120 . may include

The ring portion 310 may hang or hang the upper body 100 on the external object 20 . The ring portion 310 may have a hook shape. The ring portion 310 may be rotatable at a certain angle (eg, 360°) in at least one direction.

Rotating plate 330 may be coupled to the ring portion 310 to implement the rotation of the ring portion (310). The rotating plate 330 may include a coupling part 332 provided in the center and at least one lower jaw 333 formed around the coupling part 332 . Rotating plate 330 is coupled to the ring portion 310 through the coupling portion 332 can be rotated at a certain angle (eg, 360 °) in at least one direction together with the ring portion 310 .

The ring portion 310 and the rotating plate 330 may be rotated at a certain angle (eg, 360°) in at least one direction with the central point of the rotating plate 330 as a rotation axis.

The upper plate 320 may be provided between the ring portion 310 and the rotation plate 330 to be coupled to the ring portion 310 and the rotation plate 330 . However, the upper plate 320 may maintain a fixed state during rotation of the ring portion 310 and the rotating plate 330 . The upper plate 320 may correspond to the opening OP of the housing part HS to seal the opening OP of the housing part HS.

The upper plate 320 may be provided in a flat shape as a whole, and the central portion of the upper surface may be flat, and the outer portion side excluding the central portion may be provided in a shape having a curved surface. However, the upper plate 320 may be interposed between the ring part 310 and the rotating plate 330 to seal the opening OP of the housing part HS. Accordingly, the shape of the upper plate 320 is not limited to a shape having a flat or curved surface.

The upper plate 320 may include a ring rotating part 321 in the center of the upper plate 320 . The ring rotating part 321 may be provided in a form having an arc shape at both ends and a straight shape connecting the arc shape. The ring rotating part 321 may be provided with a flat surface. However, the shape of the ring rotating part 321 is not limited thereto. The ring rotating unit 321 may be provided in any shape as long as it supports the ring unit 310 from the upper surface to implement the rotation of the ring unit 310 .

The ring rotating part 321 may have a center hole 322 in the central part. The center hole 322 may serve as a passage through which the coupling part 332 constituting the rotating plate 330 passes. The central hole 322 may serve as a central axis during simultaneous rotation of the ring part 310 and the rotating plate 330 . The ring portion 310 and the rotating plate 330 may rotate with the central hole 322 as a central axis.

The ring rotating part 321 may support the ring part 310 on the upper surface. The ring portion 310 may be provided at a position corresponding to the central hole 322 of the upper surface of the ring rotating portion 321 and the central portion of the lower surface of the ring portion 310 .

The ring rotating part 321 may support the rotating plate 330 on the lower surface. The rotating plate 330 may be provided at a position corresponding to the coupling portion 332 of the rotating plate 330 and the center hole 322 of the lower surface of the ring rotating unit 321 . At this time, the coupling part 332 may be coupled to the central part of the lower surface of the ring part 310 through the central hole 322 . Due to this, the rotating plate 330 and the ring portion 310 may be coupled to be rotatable integrally.

The housing part HS may have an opening OP on one surface and an empty space therein. The upper body 100 provides a space for the clothes vibrating unit VB, the hot air supply unit 400 , the steam injection unit 500 , and the exhaust unit 700 through the empty space inside the housing unit HS. can The upper body 100 may seal the opening OP of the housing part HS through the upper plate 320 to protect components provided in the housing part HS. In addition, the upper plate 320 may prevent the introduction of foreign substances into the interior of the housing unit HS.

The housing part HS may include protrusions CL protruding outward from the outer surfaces on the outer surfaces of both sides. The protrusion CL may be provided for coupling between the upper body 100 and the lower body 900 . However, the hanger-type clothing manager 1 according to a preferred embodiment of the present invention includes a protrusion CL on at least one of the upper body and the lower body 900, and a groove for accommodating the protrusion CL on the other. (HM) may be provided. The upper body 100 and the lower body 900 may be coupled by inserting the protrusion CL into the groove HM. Accordingly, the housing part HS may include the groove HM instead of the protrusion CL.

The housing unit HS may include a clothing vibrating unit VB on a central portion of the housing unit HS. The position of the clothes vibrating unit VB is not limited thereto, and may be provided at a position suitable for vibrating clothes.

The upper body 100 may include a manipulation unit 40 capable of selecting and inputting at least one of a general mode, a sterilization mode, and an advanced mode. The manipulation unit 40 may be connected to the control unit CT. The control unit CT may drive the hanger-type clothing manager 1 according to the preferred embodiment of the present invention in a mode input to the operation unit 40 .

3 is an exploded perspective view of the clothing vibrating unit VB.

As shown in FIG. 3 , the clothing vibrating unit VB includes a vibrating body B, a cam 200 rotating by a motor MT and having a driving groove DH on its outer peripheral surface, and a vibrating body ( It may be configured to include a bar 300 connected to B), and first and second brackets BK1 and BK2 that are respectively connected to the left and right ends of the bar 300 to be fixedly installed.

The vibrating body B may be provided to protrude from the lower surface of the upper body 100 . Vibration generated in the clothing vibrating unit VB may vibrate the vibrating body B.

When clothes are hung on the clothes hanger 10 , the clothes hanger 10 may be positioned above the clothes. At this time, the vibrating body 210 may vibrate the clothes in the front and rear directions.

The clothing vibrating unit VB may vibrate in the front and rear directions. Accordingly, the clothing may receive a large amount of resistance due to air. The garment may receive vibration from the upper part of the garment, and may receive air resistance from the middle and lower parts of the garment. Accordingly, the clothing may be shaken in the form of waves. The clothing vibrating unit VB may greatly shake the clothing in the form of waves even with a relatively small vibration. This makes it easier to remove dust from clothing. That is, the clothes may be shaken in the front and rear directions of the clothes.

Specifically, the cam CM is connected to the motor MT and rotates by the motor MT. The cam CM may include a first protrusion CR1 , a second protrusion CR2 , and a driving groove DH.

The first protrusion CR1 is formed to protrude in an outer circumferential direction of the cam CM. The first protrusion CR1 is inclined from the front to the rear along the outer circumferential surface of the cam CM. Here, the front-rear direction is a direction parallel to the rotation axis of the cam CM.

The second protrusion CR2 is disposed to be spaced apart from the first protrusion CR1 in the rear direction. The second protrusion CR2 is formed to protrude in an outer circumferential direction of the cam CM. The second protrusion CR2 is inclined from the front to the rear along the outer circumferential surface of the cam CM.

The driving groove DH is formed of a space between the first protrusion CR1 and the second protrusion CR2 . Accordingly, the driving groove DH is inclined from the front to the rear along the outer circumferential surface of the cam CM, similar to the shapes of the first and second protrusions CR1 and CR2.

The clothing vibrating unit VB may include first and second protrusions CR1 and CR2 and driving grooves DH that are formed to be inclined from the front to the rear along the outer circumferential surface of the cam CM. The clothing vibrating unit VB may reciprocate in the front-rear direction while pressing the driving protrusion positioned inside the driving groove DH with the first and second protrusions CR1 and CR2 through the rotation of the cam CM.

The clothes vibrating unit VB may be connected to the clothes hanger 10 through the vibrating body B. The clothes hanger 10 may be positioned on the vibrating body B and vibrate by the vibrating body B vibrating through the clothes vibrating unit VB. The clothes hanger 10 may be configured to hang various kinds of clothes (top, bottom, shoes, underwear, etc.). The clothes vibrator VB vibrates the clothes hanger 10 to apply vibration to the clothes hung on the clothes hanger 10 . Dust attached to the clothes can be removed by the clothes.

4A is an exploded perspective view of the steam generating unit 600 , and FIG. 4 is a side cross-sectional view of the steam generating unit 600 .

4A and 4B , the steam generator 600 may generate steam to be supplied to the accommodation space 800a. Steam may be generated by the high-temperature heating unit 640 applying heat to the water. The high-temperature steam may be provided to the clothes in the accommodation space 800a by the steam spraying unit 500 .

The steam generating unit 600 may include a first steam generating housing 650 and a second steam generating housing 660 .

The first steam generating housing 650 may constitute a lower portion of the steam generating unit 600 . The first steam generating housing 650 may be connected to the lower portion of the steam body 620 to seat the steam generating unit 600 on the upper body 100 .

The upper body 100 may include a steam injection fastening hole 601 at a lower portion. The first steam generating housing 650 may include a steam spraying unit 500 at a lower portion. The first steam generating housing 650 may position the steam generating unit 600 on the steam spraying fastening hole 601 .

The steam spraying fastening hole 601 is blocked by the first steam generating housing 650 , and the steam generating part 600 and the receiving space 800a may be connected through the steam spraying part 500 .

The steam spraying unit 500 may be provided in the vicinity of the clothing vibrating unit VB. One end of the steam spraying unit 500 may be connected to the receiving space 800a , and the other end may be connected to the steam body 620 . The steam generator 600 may generate steam. Steam may be generated in the steam body 620 and provided to the accommodation space 800a through the steam spraying unit 500 . The steam may absorb dust present in the air of the accommodating space 800a inside the cover 800 and fall to the lower side of the cover 800 . At least one such steam spraying unit 500 may be provided.

As shown in FIG. 4B , the steam spraying unit 500 may include a steam path unit 510 . The steam path unit 510 may be connected to a steam inlet located below the steam generator 600 to receive steam. One side of the steam path unit 510 may be connected to the steam inlet, and the other side may be connected to the nozzle unit 520 . Accordingly, the steam path unit 510 may provide a space for moving steam to the nozzle unit 520 .

The steam spraying unit 500 may include a nozzle unit 520 . The nozzle unit 520 may be connected to the other side of the steam path unit 510 . The nozzle unit 520 has a through hole therein, and steam may be provided to the receiving space 90 by moving along the through hole.

The nozzle unit 520 may finally provide steam to the accommodation space 800a. According to Bernoulli's principle, the smaller the size of the through hole, the higher the steam movement speed. The nozzle unit 520 has a through-hole, and the through-hole may be configured in a shape in which a radius is gradually narrowed.

The second steam generating housing 660 may be connected to an upper portion of the first steam generating housing 660 to constitute an upper portion of the steam generating unit 600 .

The first steam generating housing 650 and the second steam generating housing 660 may protect the steam generating unit 600 by interconnection. In this case, the first steam generating housing 650 and the second steam generating housing 660 may be made of a heat insulating material. The first steam generating housing 650 and the second steam generating housing 660 may block the heat generated by the steam generating unit 600 and the heating unit 640 from being transmitted to the upper body 100 and other components. .

5 is an exploded perspective view of the hot air supply unit 400 .

The hot air supply unit 400 may generate hot air and provide it to clothing. Hot air can dry wet clothes and remove moisture from clothes by steam generation. In addition, hot air can alleviate wrinkles in clothes.

As shown in FIG. 5 , the hot air supply unit 400 includes a fan unit 410 that sucks in outside air and generates wind, and a heat generation unit 430 that is positioned under the fan unit 410 and heats the sucked outside air. ), located between the fan unit 410 and the heat generating unit 430 , surrounding the heat generating unit 430 , and a first guide 440 connected to the fan unit 410 , and a first guide 440 . ) and may include a second guide 450 connected to the hot air supply hole.

The fan unit 410 may suck in external air coming in through the inlet 121 and generate wind. The fan unit 410 may be located at the top of the hot air supply unit 400 . The rotation speed of the fan unit 410 may be controlled by the control unit (CT) 41 . The fan unit 410 may rotate the fan 411 to suck in external air, and may generate wind and send it to the heat generating unit 430 . The fan unit 410 may include a fan 411 generating wind. Also, the fan unit 410 may include a fan fixing member 412 surrounding the fan 411 and fixing a central axis of the fan 411 .

The heat generating unit 430 may be located below the fan unit 410 . External air may pass through the heat generating unit 430 by the fan unit 410 . The heat generator 430 may be connected to power. The heat generating unit 430 may generate heat. The heat generating unit 430 may heat the external air passing through the heat generating unit 430 . At this time, the outside air may be heated to enter the accommodation space 90 in the form of hot air, and may form internal air of the accommodation space 90 .

The heat insulating unit 420 may be positioned between the fan unit 410 and the heat generating unit 430 . The heat insulating unit 420 may block heat transfer from the heat generating unit 430 to the fan unit 410 . The heat insulating part 420 may include a heat insulating material. By introducing the heat insulating part 420 , the heat insulating part 420 may prevent the heat generated by the heat generating part 430 from being transferred to the fan part 410 , thereby preventing damage to the fan part 410 . The heat insulating part 420 may be formed in a shape in which four vertices are drawn in the inner direction of the square ring in the shape of the square ring.

The first guide 440 may be configured to surround the heat generating unit 430 . The first guide 440 may be connected to the fan unit 410 . The first guide 440 may be connected to the fan unit 410 to position the heat generating unit 430 and the heat insulating unit 420 between the first guide 440 and the fan unit 410 . The first guide 440 may block heat transfer from the heat generating unit 430 to the outside. The first guide 400 may have a groove on one side so that power can be connected to the heat insulating part. The lower end of the first guide 440 may include a plurality of holes through which the hot air may pass.

The second guide 450 may be connected to the lower portion of the first guide 440 and may be connected to the body 110 . The second guide 450 may fix the fan unit 410 , the heat insulating unit 420 , the heat generating unit 430 , and the first guide 440 not to move on the body unit 110 .

The second guide 450 is positioned on the passing member 452 including a plurality of hot air holes 455 through which the hot air passes, and the passing member 452 , upward from the edge of the passing member 452 . It may include the formed side member 451 and at least one fixing member 453 formed on the side member 451 and coupled to the upper body 100 .

6 is an exploded perspective view of the exhaust unit 700 .

As shown in FIG. 6 , the exhaust unit 700 includes an impeller 710 that sucks air in the accommodation space 800a and flows it out to the outside of the cover 800 , and is located inside the impeller 710 , It may include a motor 720 of the exhaust unit 700 for rotating the impeller 710 , and an exhaust housing 730 surrounding the impeller 710 and the motor 720 .

The exhaust housing 730 is provided at the lower end of the exhaust housing 730 and includes a first opening 7330 for moving the internal air into the exhaust part 700 and the internal air flowing out of the impeller 710. It may include an exhaust passage 734 for moving and a second opening 735 provided on a side surface of the exhaust housing 730 to move internal air to the outside of the exhaust part 700 .

The exhaust unit 700 may discharge the internal air existing in the receiving space 800a inside the cover 800 to the outside of the cover 800 and the upper body 100 . The exhaust unit 700 may serve to circulate air. The exhaust unit 700 can prevent overheating of the hanger-type clothes manager 1 according to the preferred embodiment of the present invention by discharging the air inside the accommodation space 800a to the outside of the cover 800 .

7 is a view showing the steam spraying unit 500 and the hot air supplying unit 400 when the hanging-type clothing manager 1 according to a preferred embodiment of the present invention is driven in at least one of a normal mode, a sterilization mode, and an advanced mode. and a diagram schematically illustrating a state in which the exhaust unit 700 performs respective functions into the interior of the accommodation space 800a.

The steam spraying unit 500 may receive the steam generated by the steam generator 600 and spray the steam into the receiving space 800a through the nozzle unit 510 . In FIG. 7 , the arrows shown around the lower portion of the steam spraying unit 500 indicate the injection direction of the steam injected through the steam spraying unit 500 .

The hot air supply unit 400 may be provided around the inlet 121 to directly suck the external air that passes through the inlet 121 . The hot air supply unit 400 may provide hot air to the accommodation space 800a by heating the inhaled external air. Accordingly, the air and clothes inside the accommodation space 800a may be heated. In FIG. 7 , arrows shown around the lower portion of the hot air supply unit 400 indicate the direction in which the hot air is provided through the hot air supply unit 400 .

The exhaust unit 700 is provided around the outlet 122 so as to be connected to the outlet 122 to suck the air inside the accommodation space 800a and discharge it to the outside through the outlet 122 . The internal air existing in the accommodation space 800a may include air and steam existing therein in addition to the external air introduced through the inlet 121 . The internal air may flow downward from the hot air supply unit 400 . Then, the internal air may flow toward the center of the accommodation space 800a. Then, the inside air may flow upward again toward the exhaust unit 700 . Accordingly, the arrows shown on the periphery of the lower portion of the exhaust unit 700 indicate the movement direction of the internal air moving upward from the center of the accommodation space 800a. The internal air may be discharged to the outside of the upper body 100 through the exhaust unit 700 and the outlet 122 .

The hanging-type clothes manager 1 according to the preferred embodiment of the present invention may further include a light irradiation unit UV. The light irradiation unit UV may be provided in the upper body 100 . The light irradiation unit UV may be provided on the lower end side of the upper body 100 that couples one end of the cover 800 . The light irradiation unit UV may be provided on the inner surface of the lower end side of the upper body 100 . The light irradiator UV may be provided in a form exposed to the receiving space 800a.

The light irradiation unit UV may be provided to irradiate light toward the clothes from at least one of the front and rear directions of the clothes. As an example, when the direction in which the manipulation unit 40 is provided is referred to as the front, the light irradiation unit UV may be provided on the inner surface of the lower end of the front surface of the upper body 100 having the manipulation unit 40 . Accordingly, the light irradiator UV may radiate light toward the clothes from the front of the clothes existing in the accommodation space 800a. In FIG. 7 , dotted arrows shown on the periphery of the lower portion of the light irradiation unit UV indicate the light irradiation direction of the light irradiation unit UV.

The light irradiation unit UV may be provided at a position forming a light irradiation direction in at least one of the front and rear directions of the clothes. This is to prevent direct light irradiation to the user's eyes when the cover 800 is opened while the light irradiation unit UV is being driven.

On the other hand, the arrows shown at the bottom of the clothes in FIG. 7 mean the falling direction of foreign substances such as dust removed by the steam sprayed to the clothes through the steam spraying unit 500 .

Foreign substances may fall toward the central portion of the lower body 900 . The lower body 900 may have a lower exhaust part on the central part side. The lower exhaust portion may be provided in the form of at least one or more holes.

Hereinafter, a method of controlling the hanging-type clothes manager 1 according to a preferred embodiment of the present invention will be described.

The control method of the hanger-type clothes manager 1 according to a preferred embodiment of the present invention may largely include a mode selection step (S1) and a step (S2) of performing the selected mode.

8 is a flowchart for mode selection of a control method of the hanger-type clothes manager 1 according to a preferred embodiment of the present invention.

As shown in FIG. 8 , in step S1 , a step of selecting any one of a plurality of modes may be performed. The plurality of modes may include a normal mode, a sterilization mode, and an advanced mode. The process of selecting a plurality of modes may be performed through the manipulation unit 40 provided in the upper body 100 .

Then, in step S2, the hanger-type clothes manager 1 according to the preferred embodiment of the present invention may perform the selected mode. When a mode selection is inputted through the manipulation unit 40 , the control unit CT may control the hanger-type clothing manager 1 according to the preferred embodiment of the present invention to perform the selected mode.

9 is an administrative flowchart of a selected mode of the control method of the hanger-type clothes manager 1 according to a preferred embodiment of the present invention.

The selected mode of step S2 of FIG. 8 may include a steam supply stroke (S10), a deep steam supply stroke (S20), a deep heat steam stroke (S30), a drying stroke (S40), and a deep drying stroke (S50). there is.

The selected mode may sequentially perform a steam supply stroke (S10), a deep steam supply stroke (S20), a deep heat steam stroke (S30), a drying stroke (S40), and a deep drying stroke (S50), and each stroke You can perform more necessary administration before and after.

10 is a detailed administrative flowchart of a selected mode of the control method of the hanger-type clothes manager 1 according to a preferred embodiment of the present invention.

The selected mode is a clothing dusting stroke (S5), steam supply stroke (S10), deep steam supply stroke (S20), deep heat steam stroke (S30), steam convection stroke (S35), drying stroke (S40), and deep drying A detailed operation including the operation S50 may be performed.

Hereinafter, each detailed operation of the control method of the hanger-type clothes manager 1 according to a preferred embodiment of the present invention will be described in detail.

First, in step S5, a dusting process of clothes may be performed. The dusting cycle of clothes may be performed before the steam supply cycle of step S10 and may be the first step of the selected mode.

In step S5 , the control unit CT may operate the clothing vibrating unit VB. The clothing vibrator VB may implement a vibration operation by the operation of the motor MT. The clothes vibrator VB vibrates the vibrating body B connected to the clothes hanger 10 on which clothes are hung to vibrate the clothes in the front and rear directions.

The clothes vibrator VB vibrates the clothes to perform a function of primarily shaking off foreign substances, such as dust, attached to the clothes before the steps after step S5 are performed. In addition, the clothes vibrating unit VB may shake the clothes in the front and rear directions to align the hanging shape of the clothes in a flatter shape.

In step S5 , the control unit CT may operate the air circulation fan and the fan unit 410 of the hot air supply unit 400 together with the clothing operation unit VB.

The air circulation fan may be provided on the inner central portion of the upper body 100 . However, the air circulation fan is provided inside the upper body 100, the location is not limited to any location.

The air circulation fan rotates at a constant speed by the operation of the motor and maintains an operating state to constantly maintain the internal air volume of the upper body 100 .

The upper body 100 may include components including a hot air supply unit 400 , a steam injection unit 500 , a clothing vibrating unit VB and an exhaust unit 700 therein. When the air volume inside the upper body 100 is irregular, it may cause poor exhaust of the air inside the upper body 100 . This may cause an overheating problem of internal components of the upper body 100 , and the like.

However, in the control method of the hanger-type clothes manager 1 according to the preferred embodiment of the present invention, the air circulation fan starts operating in step S5 of the first step of dusting off clothes and has a constant speed until the end of the cycle of the selected mode. can continue to operate. Due to this, the inside of the upper body 100 maintains a constant air volume and smoothly exhausts the internal air, and it is possible to prevent overheating of the components.

The fan unit 410 of the hot air supply unit 400 may perform only a function of generating wind by sucking outside air. Accordingly, in step S5 , the fan unit 410 may start to operate and perform a function of generating wind into the accommodation space 800a. The fan unit 410 may start an operation in the first stroke step S5 of dusting clothes and maintain the operation state until the end of the selected mode.

The wind generated through the fan unit 410 of the hot air supply unit 400 can be supplied to the accommodation space 800a through the hot air supply hole provided on the bottom surface of the upper body 100 at a position corresponding to the hot air supply unit 400. there is.

The dusting cycle of the clothes in step S5 may be performed during the first cycle time. In a preferred embodiment of the present invention, the hanger-type clothes manager 1 may include at least one timer (not shown). Hereinafter, the hanging type clothes manager 1 according to a preferred embodiment of the present invention will be described as using different timers in each process, but the same timer may be used.

The first timer may integrate the operation time together with the start time of the air circulation fan, the clothing vibrating unit VB, and the fan unit 410 of the hot air supply unit 400 . Alternatively, the first timer may integrate the operation time together with the start time of the clothing vibration unit VB in step S5 . The first cycle time may be preset in the control unit CT as a constant time. The first administration time may be, for example, 1 minute. The control unit CT may compare the time integrated by the first timer with the first cycle time, and if the time integrated by the first timer is equal to or greater than the first cycle time, only the operation of the clothing vibrating unit VB may be stopped. Accordingly, the dusting process of the clothes in step S5 may be ended.

The air circulation fan that starts operation in step S5 and the fan unit 410 of the hot air supply unit 400 may maintain an operating state from step S5 to step S50. Accordingly, the control unit CT may compare the time integrated by the first timer with the first cycle time, and if the time integrated by the first timer is equal to or greater than the first cycle time, only the operation of the clothing vibrating unit VB may be stopped.

Meanwhile, in the control method of the hanging-type clothes manager 1 according to a preferred embodiment of the present invention, the clothes sterilization process of step S5' may be performed while starting step S5 according to the selected mode.

The clothes sterilization process of step S5' is a process of irradiating UV light into the receiving space 800a through the light irradiation unit UV from the start of the driving of the hanging-type clothes manager 1 to the end of the driving according to the preferred embodiment of the present invention. am.

In step S5', the control unit CT may operate the light irradiation unit UV. The light irradiator UV may start irradiating light toward the clothes.

The clothes sterilization process in step S5' may be performed for a total stroke time preset in the control unit CT. The total stroke time may be at least one of 33 minutes, 50 minutes and 45 minutes. The 1-1 timer may integrate the operation time together with the start time of the light irradiation unit UV. The control unit CT compares the time integrated by the 1-1 timer with the total stroke time, and when the time integrated by the 1-1 timer reaches the total stroke time, the operation of the light irradiation unit UV can be stopped. there is. The control unit CT stops the operation of the light irradiation unit UV when the time accumulated in the 1-1 timer reaches the total stroke time, and controls the operation of other components (air circulation fan, fan unit 410, etc.) By stopping the operation, the entire operation of the components constituting the hanger-type clothes manager 1 according to the preferred embodiment of the present invention may be stopped.

The optical element unit UV may start operating in step S5' and maintain an operating state until the end of the cycle of the selected mode (step S50). Accordingly, the clothes provided in the accommodation space 800a can be continuously sterilized while the hanger-type clothes manager 1 is being driven.

Then, the steam supply stroke of step S10 may be performed.

The steam supply stroke of operating the steam spraying unit 500 of step S10 to spray steam into the accommodation space 800a provided with clothes is performed after step S5 and receiving steam supplied from the steam generator 500 It may be implemented by the operation of the master 500 .

Specifically, in step S10 , the control unit CT may first operate the water supply pump to move water from the water supply tank unit 680 storing water for generating steam to the steam generator 600 . Water in the water supply tank unit 680 may be moved to the steam generator 600 by a water pump. The steam generator 600 may receive water from the water supply pump through the water injection member 610 . The water injection member 610 may inject water from the water supply tank unit 680 into the steam generator 600 by a water supply pump. Water may move from the water supply tank unit 680 to the water pump, from the water pump to the water injection member 610 , and from the water injection member 610 to the inside of the steam body 620 .

Water may be heated by the heating unit 640 in the steam body 620 to be converted into steam. The heating unit 640 may perform a function of heating water by the ON state of the power connected to both ends.

Steam generated by the steam body 620 may be supplied to the steam spraying unit 500 . One end of the steam spraying unit 500 may be connected to the receiving space 800a , and the other end may be connected to the steam body 620 . Accordingly, the steam generated by the steam body 620 may be sprayed into the accommodation space 800a through the steam spraying unit 500 .

The steam supply stroke of step S10 may be performed during the second stroke time. The second timer may integrate the operation time together with the start time of the water pump and the heating unit 640 . The second stroke time may be preset in the control unit CT as a constant time. The second stroke time may be, for example, 3 minutes. The control unit CT compares the time integrated by the second timer with the second stroke time, and when the time integrated by the second timer is equal to or greater than the second stroke time, the operation of the water pump and the heating unit 640 can be stopped. there is. Accordingly, the steam supply stroke of step S10 may be terminated.

The steam supply cycle of step S10 is performed for a second cycle time, so that it may be relatively longer than the first cycle time of the dusting cycle of step S5. In the case of step S5, since it is a preparatory step before the actual clothing management operation is performed by directly supplying steam to the clothing, the first cycle may be performed for a relatively short period of time.

In step S10, the air circulation fan, the fan unit 410 of the hot air supply unit 400, and the light irradiation unit UV may continue to operate.

Then, the deep steam supply stroke of step S20 may be performed. The deep steam supply stroke is a stroke performed after the steam supply stroke of step S10 to operate the steam spraying unit 500 and the clothes vibrating unit VB to spray steam into the accommodation space 800a while vibrating the clothes.

In step S20 , the controller CT may operate the steam spraying unit 500 and the clothes vibrating unit VB. Accordingly, the clothes in the accommodation space 800a may be shaken in the front and rear directions in a state containing steam.

In the control method of the hanging-type clothes manager 1 according to a preferred embodiment of the present invention, a large amount of steam is filled in the receiving space 800a by performing a deep steam supplying stroke of S20 after the steam supplying stroke of S10. You can perform the process of shaking clothing with The clothes may more effectively come into contact with the steam spread in the accommodation space 800a by the shaking operation.

The deep steam supply stroke of step S20 may be performed during the third stroke time. The third timer may integrate the operation time together with the start time of the operation of the water supply pump and the heating unit 640 and the start time of the clothing vibration unit VB. The third cycle time may be preset in the control unit CT as a constant time. The third stroke time may be, for example, 2 minutes. The control unit CT compares the time integrated by the third timer with the third cycle time and stops the operation of the water pump and the heating unit 640 when the time integrated by the third timer is equal to or greater than the third cycle time to stop the operation of the steam spraying unit 500 . Also, the control unit CT may stop the operation of the clothes vibrating unit VB to stop shaking of the clothes. Accordingly, the deep steam supply stroke of step S20 may be terminated.

Since the deep steam supply stroke of step S20 is performed during the third stroke time, it may be made relatively shorter than the second stroke time of the steam supply stroke of step S10. In the case of the deep steam supply stroke of step S20, a certain amount of steam is already supplied to the receiving space 800a through step S10 and then is performed. The deep steam supply stroke is a stroke in which steam is supplied in step S10, and a process of shaking clothes while additionally supplying steam is performed.

In other words, the deep steam supply stroke is a stroke for more effectively bringing the clothes into contact with the steam by shaking the clothes while further supplying steam to the receiving space 800a to which the steam is supplied. Accordingly, it may be performed for a relatively shorter period of time than the steam supply stroke of step S10 of supplying steam to the accommodation space 800a for the first time.

Then, the deep heat steam stroke of step S30 may be performed. The deep heat steam stroke is a stroke of supplying hot air while spraying steam to the receiving space 800a by operating the steam spraying unit 500 and the hot air supplying unit 400 after being performed after the deep steam supplying stroke of step S20.

The steam injection unit 500 and the hot air supply unit 400 may start operation by the control unit CT. The control unit CT operates the water pump and the heating unit 640 to implement the operation of the steam injection unit 500 . Also, the control unit CT may operate the fan unit 410 and the heat generator 430 of the hot air supply unit 400 to implement the operation of the hot air supply unit 400 . The hot air generated by the hot air supply unit 400 may be provided to the accommodation space 800a through the hot air supply hole.

The control unit CT may operate the clothing vibrating unit VB during the deep heat steam stroke of step S30. Accordingly, in the deep heat steam stroke of step S30 , the steam spraying unit 500 , the hot air supplying unit 400 , and the clothing vibrating unit VB may all operate.

The deep heat steam stroke of step S30 is a stroke of supplying hot air to the accommodation space 800a filled with a large amount of steam by continuously performing steps S10 to S30. In this case, the control unit CT may operate the clothes vibrating unit VB to apply hot air to the clothes in the steam-soaked state while shaking the clothes in the front and rear directions.

In step S30 , the accommodation space 800a may be filled with steam and may be in a relatively higher temperature state by hot air. Clothing may be shaken in a state containing steam in the accommodation space 800a. The clothes may be in contact with steam in steps S10 and S20, and may also come into contact with steam in step S30 to absorb sufficient steam on the surface. The control method of the hanging-type clothes manager 1 according to the preferred embodiment of the present invention further operates the clothes vibrating unit VB in step S30 to reach the moisture particles of the steam to the deep inside of the fabric constituting the clothes. You can shake the clothes. Accordingly, the clothes may be provided in a state in which steam is sufficiently absorbed not only on the surface but also on the inside.

In the deep heat steam stroke of step S30, when the clothes in a state in which the steam has been sufficiently absorbed by the operation of the clothes vibrating unit VB is shaken, odor particles present in the clothes may fall due to the shaking operation. This may obtain a deodorizing effect upon completion of the clothing management operation.

In addition, the clothes may be shaken in a state in which steam has been sufficiently absorbed as a whole to the surface and the inside. This may remove some of the wrinkles present on the garment.

The deep heat steam stroke of step S30 may be performed during the fourth stroke time. The fourth cycle time may be preset in the control unit CT. The fourth stroke time may be, for example, 10 seconds. The deep heat steam stroke may be performed for a relatively short period of time as compared to other strokes by being performed during the fourth stroke.

The deep heat steam stroke of step S30 may be performed during the fourth stroke time and may be quickly performed for a relatively shorter time than the first stroke time, the second stroke time, and the third stroke time.

In the deep heat steam stroke of step S30, the steam supply and the hot air supply, which were performed in steps S10 and S20, are redundantly performed. In addition, the deep heat steam stroke may repeatedly perform the motion of shaking clothes performed in the previous step.

However, in the deep heat steam stroke of step S30, while additional steam is additionally supplied to the receiving space 800a already filled with a large amount of steam, the inside of the receiving space 800a is brought into a relatively higher temperature state to shake the clothes. It is an administration that The deep heat steam stroke is a stroke performed to sufficiently absorb steam not only on the surface of the clothes but also on the inside.

As such, in the deep heat steam stroke of step S30, steam is additionally supplied to the receiving space 800a that is already filled with steam and has a relatively elevated internal temperature by steam, and the internal temperature is made higher to absorb sufficient steam in the clothes as a whole. It is an administration that Accordingly, the deep heat steam stroke in step S30 may be sufficient to absorb the steam as a whole into the clothes even if it is performed only for a fourth stroke time that is relatively shorter than the first stroke time, the second stroke time, and the third stroke time.

The control unit CT may integrate the operation time together with the start time of the steam spraying unit 500 and the hot air supplying unit 400 in step S30 . In step S30 , the clothing vibrating unit VB may start to operate simultaneously with the steam spraying unit 500 and the hot air supply unit 400 , or start operating after operating the steam spraying unit 500 and the hot air supply unit 400 . there is. In the control method of the hanging-type clothes manager 1 according to the preferred embodiment of the present invention, in step S30 , the steam spraying unit 500 , the hot air supplying unit 400 , and the clothes vibrating unit VB may be simultaneously operated. Accordingly, the fourth timer may integrate the operation time together with the start times of the steam spraying unit 500 , the hot air supplying unit 400 , and the clothing vibrating unit VB.

The control unit CT compares the time integrated by the fourth timer with the fourth cycle time, and when the time integrated by the fourth timer is equal to or greater than the fourth cycle time, the steam spray unit 500, the hot air supply unit 400 and the clothing The operation of the vibrator VB may be stopped. Accordingly, the deep heat steam stroke of step S30 may be terminated.

Then, the steam convection stroke of step S35 may be performed. The steam convection stroke is performed after the most final stage S30 among a plurality of strokes (specifically, steps S10 to S30) including the process of supplying steam, but before the drying stroke of step S40 of supplying only hot air can be In other words, the steam convection stroke of step S35 may be performed between steps S30 and S40.

The steam convection stroke supplies hot air to the inside of the accommodation space 800a through the hot air supply unit 400 and operates the exhaust unit 700 to operate the steam injected in the deep heat steam stroke of step S30 in the accommodation space 800a. It is an administration that convects

In step S35 , the control unit CT may operate the hot air supply unit 400 and the exhaust unit 700 . The operation of the hot air supply unit 400 may be implemented by operating the fan unit 410 and the heat generating unit 430 . The operation of the exhaust unit 700 may be implemented by operating the motor 720 of the exhaust unit 700 to rotate the impeller 710 .

The steam convection stroke of step S35 may be performed to evenly distribute the steam supplied to the accommodation space 800a in the accommodation space 800a while continuously performing steps S10 to S30.

The steam convection stroke of step S35 may be performed during the fifth stroke time. The fifth timer may integrate the operation time together with the start times of the hot air supply unit 400 and the exhaust unit 700 . The fifth stroke time may be preset in the control unit CT as a constant time. The fifth stroke time may be, for example, 1 minute.

Meanwhile, the control unit CT may operate the clothing vibrating unit VB in the steam convection stroke of step S35 . The clothes shake while circulating the air in the accommodation space 800a through step S35 to drop odor particles and remove wrinkles.

Then, the drying process of step S40 may be performed. The drying process is performed after the steam convection process of step S35 to operate the hot air supply unit 400 to supply hot air to the accommodation space 800a.

In step S40 , the control unit CT operates the fan unit 410 and the heat generator 430 of the hot air supply unit 400 to implement the operation of the hot air supply unit 400 .

In the control method of the hanging-type clothes manager 1 according to a preferred embodiment of the present invention, the humidity of the accommodation space 800a may be lowered through the drying cycle of step S40 and drying may be started from the surface of the clothes.

The drying cycle of step S40 may be performed during the sixth cycle time. The sixth timer may integrate the operation time together with the start time of the hot air supply unit 400 . The sixth cycle time may be preset in the control unit CT as a constant time. The sixth stroke time may be, for example, 5 minutes. The control unit CT may compare the time integrated by the sixth timer with the sixth cycle time and stop the operation of the hot air supply unit 400 when the time integrated by the sixth timer is equal to or greater than the sixth cycle time. Accordingly, the drying process of step S40 may be terminated.

Then, the deep drying process of step S50 may be performed. The deep drying process is performed after the drying process of step S40 to operate the hot air supply unit 400 and the clothes vibrator VB to supply hot air to the accommodation space 800a while vibrating the clothes.

In step S50 , the control unit CT operates the fan unit 410 and the heat generator 430 of the hot air supply unit 400 to implement the operation of the hot air supply unit 400 . Also, the control unit CT may operate the motor MT of the clothes vibrating unit VB to realize the operation of the clothes vibrating unit VB.

The deep drying cycle of step S50 is a cycle of shaking clothes while further supplying hot air to the clothes whose surface has been dried by step S40. In the deep drying cycle of step S50, the clothes may be gradually dried while in contact with the air inside the receiving space 800a dried to some extent by step S40. The clothes may be dried while starting to dry the surface by step S40, and gradually moving from the surface to the inside composed of the textile material with a shaking motion by step S50 that is continuously performed.

The drying process of step S40 may be a step of supplying hot air to the accommodation space 800a to start drying the clothes. In the control method of the hanging-type clothes manager 1 according to a preferred embodiment of the present invention, the deep drying process of step S50 is performed after step S40 to sequentially completely dry the clothes from the surface of the clothes to the deep inside of the fabric material.

In the deep drying cycle of step S50, the clothes may be shaken by the clothes vibrating unit VB. Accordingly, the clothes may be supplied with hot air while shaking. In the deep drying cycle, the garment can shake off the moisture particles it is absorbing by the shaking motion. At the same time, the clothes may be more cleanly dried by being in contact with the drying air while receiving hot air.

The deep drying cycle of step S50 may be performed during the seventh cycle time. The seventh cycle time may be preset in the control unit CT. The seventh stroke time may be, for example, 1 minute.

The deep drying cycle of step S50 is performed during the seventh cycle time, but may be performed for a relatively shorter time than the sixth cycle time of the drying cycle of step S40. In the deep drying operation of step S50, the clothes may be shaken while supplying hot air to the clothes. Shaking the clothes may help to quickly dry the clothes by shaking off moisture particles present on the clothes. However, excessive shaking may act as a factor that prevents heat exchange in the accommodation space 800a.

Accordingly, the deep drying cycle of step S50, which includes the operation of vibrating clothes, is performed for a relatively shorter period of time than the sixth cycle time of the drying cycle of step S40, thereby realizing more effective drying of clothes.

The control method of the hanger-type clothes manager 1 according to a preferred embodiment of the present invention comprises:

The drying process of step S40 and the deep drying process of step S50 may be repeatedly performed for a preset repeating stroke time in the control unit CT. The repeat stroke time may be 26 minutes as an example.

The control unit CT may repeat performing the drying process of step S40 for the sixth cycle time within the repeating cycle time a plurality of times.

In addition, the control unit CT may repeat the deep drying process of step S50 continuously performed after the drying process of step S40 for the seventh cycle time a plurality of times.

The control unit CT may repeat step S40 during the repeated stroke time, and then perform step S50 after step S40. The eighth timer may integrate the operation time together with the start time of the hot air supply unit 400 in the drying cycle of the first step S40.

The control unit CT compares the time integrated by the eighth timer with the repetition stroke time, and if the time integrated by the eighth timer is equal to or greater than the repetition stroke time, the operation of the hot air supply unit 400 operating at that time is stopped can do it The components operating at the time may be only the hot air supply unit 400 , or may be the hot air supply unit 400 and the clothing vibrating unit VB. In this case, the control unit CT may stop all components operating based on the time point.

After performing steps S40 and S50 for the repeated stroke time, the control unit CT may determine that all strokes of the selected mode have been performed. Accordingly, the control unit CT may stop the operation of all the components (the air circulation fan, the fan unit 410, and the light irradiation unit UV) that are operating at the time when it is determined that all the strokes of the selected mode are performed. Here, the time point at which it is determined that all the strokes of the selected mode have been performed may be a time point after performing steps S40 and S50 for a repeated stroke time. However, in the case of the light irradiation unit UV, the operation may be controlled to be stopped when the time accumulated using the 1-1 timer reaches the total stroke time.

The control method of the hanger-type clothes manager 1 according to a preferred embodiment of the present invention may include a repeated drying cycle of repeatedly performing the drying cycle of step S40 and the deep drying cycle of step S50 as described above.

Repeated drying strokes may be performed for a repeating stroke time. A high-temperature drying cycle may be performed for a predetermined time from the time point of starting the repeated drying cycle among the repeated cycle times. A low-temperature drying cycle can then be performed for the remainder of the remaining time.

The drying temperature in the hot drying stroke may be 60°C. The drying temperature in the low temperature drying stroke may be 40°C. Here, the drying temperature may be the internal temperature of the accommodation space 800a. The internal temperature of the accommodating space 800a may be adjusted to a specific temperature by adjusting the heating temperature of the heat generating unit 430 or the like, or may be adjusted by measuring the temperature of the accommodating space 800a.

The high-temperature drying cycle may be performed for a relatively shorter period of time than the low-temperature drying cycle.

Each of the high-temperature drying cycle and the low-temperature drying cycle may have different stroke times for each of a plurality of modes (normal mode, sterilization mode, and advanced mode).

The hanger-type clothes manager 1 according to the preferred embodiment of the present invention may have a normal mode, a sterilization mode, and an advanced mode.

The control method of the hanger type clothes manager 1 according to the preferred embodiment of the present invention may control the operation of the hanger type clothes manager 1 according to the preferred embodiment of the present invention according to each mode.

The normal mode may be a mode in which a clothing management operation is performed in a standard manner.

The sterilization mode may be a mode in which the steam supplying operation S10 and the deep steam supplying operation S20 are relatively long by focusing more on sterilizing clothes during the clothing management operation.

The advanced mode may be a mode for more effectively managing clothes sensitive to a relatively high temperature by performing the repeated drying cycle only as a low temperature drying cycle.

Each mode may include steps S5 (step S5') to steps S50 equally, and steps S5 (step S5') to S50 may be sequentially performed. However, in each mode, a specific stroke may be repeatedly performed among the entire stroke, or the total stroke time for performing the entire stroke may be different by lengthening the stroke time.

In the normal mode, steps S5 (step S5') to steps S50 may be sequentially performed during the first total stroke time. The first total stroke time may be a time including all of the respective stroke times of steps S5 (step S5') to step S50. The first total stroke time may be 33 minutes.

In the normal mode, steps S5 (step S5') to S35 are sequentially performed, and then the repeated drying cycle may be performed as a high-temperature drying cycle and a low-temperature drying cycle. In this case, the high-temperature drying process may be performed for a shorter time than the low-temperature drying process. Stroke times of the high-temperature drying process and the low-temperature drying process may be preset in the control unit CT.

In the sterilization mode, steps S5 (step S5') to steps S50 may be sequentially performed during the second cycle time. The second total stroke time may be a time including all of the respective stroke times of steps S5 (step S5') to step S50. The second total stroke time may be 50 minutes.

In the sterilization mode, the steam supply stroke of step S10 and the deep steam supply stroke of step S20 may be performed longer than the stroke time in the normal mode. In addition, the sterilization mode may be further performed by sequentially performing step S10 once and step S20 once, then repeating step S10 once and step S20 once. However, steps S10 and S20 in the repeating step may be performed for a shorter time than the administration time of steps S10 and S20 of the initial step.

In the sterilization mode, the number of steps S10 and S20 is greater than that of the normal mode, and by lengthening the stroke time of steps S10 and S20, more sufficient steam can be provided to the clothes and the clothes can be vibrated. Accordingly, dust, bacteria particles, odor particles, etc. attached to the clothes may be sufficiently removed.

Thereafter, the sterilization mode may sequentially perform steps S30 to S50. However, in the sterilization mode, as steps S10 and S20 are repeated N times, the number of repeated drying cycles may be greater than that of the general mode. Accordingly, the repeated cycle time of the repeated drying cycle in the sterilization mode may be longer than the repeated cycle time in the normal mode.

The clothes may be in a state in which dust, bacterial particles, odor particles, and the like deposited through moisture particles are sufficiently removed in a repeating step of repeatedly performing steps S10 and S20. Such clothes can be effectively sterilized by being completely dried in the sterilization mode by repeated drying cycles that are longer than the repeated cycle times in the normal mode and are performed many times.

As such, in the sterilization mode, steps S10 and S20 may be performed more than the number of times in the normal mode, and the administration time of steps S10 and S20 may be lengthened. In addition, the number of repetitions of the repeated drying cycle may be greater than that of the general mode, and the repetition cycle time may be longer. Accordingly, the second total stroke time of the sterilization mode may be longer than the second total stroke time of the normal mode.

In the advanced mode, steps S5 (step S5') to steps S50 may be sequentially performed during the third cycle time. The third total stroke time may be a time including all of the respective stroke times of steps S5 (step S5') to step S50. The third total stroke time may be 45 minutes.

In the advanced mode, steps S5 (step S5') to steps S35 may be sequentially performed for the same stroke time as in the general mode.

Then, in the advanced mode, the repeated drying cycle including steps S40 and 50 may be performed only as a low-temperature drying cycle.

Advanced mode can perform more repeated drying strokes than normal mode and sterilization mode. Accordingly, the repeating stroke time of the repeated drying cycle may be longer than the repeating stroke time in the general mode and the sterilization mode.

In the advanced mode, unlike the general mode and the sterilization mode in which repeated drying cycles are performed with a high-temperature drying cycle and a low-temperature drying cycle, repeated drying cycles can be performed only with a low-temperature drying cycle. In the advanced mode, since the repeated drying cycle is performed only as a low-temperature drying cycle, the number of repeated drying cycles can be increased compared to the normal mode and the sterilization mode, and the repeated cycle time can be lengthened. Due to this, clothes that are sensitive to temperature can be effectively managed by drying completely without being damaged by the temperature.

As described above, although described with reference to preferred embodiments of the present invention, those skilled in the art can variously modify the present invention within the scope without departing from the spirit and scope of the present invention described in the claims below. Or it can be carried out by modification.

*Main Symbols in Drawings*
1: Hanging clothes manager
100: upper body 300: hook portion
800: cover 900: lower body
VB: clothing vibrating part

Claims (8)

An upper body including a steam spraying part for spraying steam, a hot air supplying part for supplying hot air, and a ring part caught on or hanging from an external object, a cover coupled to the upper body to form an accommodation space, and the cover coupled to the upper body In the control method of a hanger type clothes manager comprising a lower body connected to,
selecting any one of a plurality of modes; and
performing the selected mode;
The selected mode is
a steam supply stroke of operating the steam spraying unit to spray steam into the accommodation space including clothes;
a deep steam supplying stroke of operating the steam spraying unit and the clothes vibrating unit after the steam supplying stroke to vibrate the clothes while spraying the steam into the accommodation space;
a deep heat steam stroke for supplying hot air while spraying the steam to the accommodation space by operating the steam spraying unit and the hot air supplying unit after the deep steam supplying stroke; and
The control method of a hanging-type clothes manager comprising a; drying operation of supplying the hot air to the accommodation space by operating the hot air supply unit after the deep heat steam stroke.
According to claim 1,
The selected mode is
and a deep drying operation of operating the hot air supply unit and the clothing vibrating unit after the drying operation to vibrate the clothes while supplying the hot air to the accommodation space.
3. The method of claim 2,
The method of claim 1, wherein the drying cycle and the deep drying cycle are repeatedly performed for a preset repetition cycle time.
According to claim 1,
The selected mode is
The method of controlling the hanging-type clothes manager further comprising a; clothes sterilization process of irradiating UV light to the accommodation space through the light irradiation unit from the start of the driving of the hanging-type clothes manager to the end of the driving.
According to claim 1,
The selected mode is
The method of claim 1 , further comprising: a cleaning operation of dusting clothes performed before the steam supply operation, wherein the clothing vibrating unit is operated to shake off the dust on the clothing.
According to claim 1,
The selected mode is
and operating the clothes vibrator during the deep heat steam stroke to vibrate the clothes.
According to claim 1,
The selected mode is
The hot air is supplied to the inside of the accommodation space through the hot air supply unit, which is performed after the deep heat steam stroke, and is performed before the drying stroke, and the exhaust unit is operated to operate the deep heat steam stroke in the receiving space. Steam convection stroke for convection of steam; including, a control method of a hanger-type clothing manager.
According to claim 1,
The plurality of modes include a general mode for performing a standard clothes management operation, a sterilization mode for performing the steam supply stroke and the deep steam supply stroke for a relatively long time, and a low temperature drying process to manage clothes sensitive to high temperature A control method of a hanging clothing manager, including an advanced mode.

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