KR102625459B1 - Fabric treating apparatus - Google Patents

Abstract

A clothing processing device according to the present invention includes: a cabinet forming a processing space for accommodating clothing; A filter module including a filter unit that filters dust in the passing air; an air flow path having a plurality of preset flow paths for guiding the air so that the air is discharged into the processing space; A fan that moves air on the air flow path; At least one valve disposed on the air flow path; a valve operation module that operates the valve; and a control unit that controls the valve operation module to select one of the plurality of flow paths. The plurality of flow paths may include at least one bypass flow path that guides the air to bypass the filter unit; and at least one filtering passage that guides the air to pass through the filter unit.

Description

Clothing processing apparatus {Fabric treating apparatus}

The present invention relates to an air flow path structure in a clothing treatment device.

Clothing processing equipment refers to all devices for managing or processing clothing, such as washing, drying, and removing wrinkles, at home or in a laundromat. For example, clothing processing devices include a washing machine for washing clothes, a dryer for drying clothes, a washer and dryer with both washing and drying functions, a refresher for refreshing clothes, and a steamer for removing unnecessary wrinkles from clothes. (Steamer), etc.

More specifically, a refresher is a device for making clothes more comfortable and fresh, and performs functions such as drying clothes, supplying fragrance to clothes, preventing the generation of static electricity in clothes, or removing wrinkles in clothes. A steamer is generally a device that removes wrinkles from clothing by supplying steam to the clothing. Unlike a typical iron, the heating plate does not touch the clothing, so it delicately removes wrinkles from clothing. There is a known clothing treatment device that has both the functions of a refresher and a steamer, and performs functions such as removing wrinkles and odor from clothes stored inside using steam and hot air.

In addition, there is a known device that includes a hanger bar for hanging clothes in the treatment chamber and provides steam into the treatment chamber while the clothes are hanging, or supplies hot air by circulating air in the treatment chamber.

Korean Patent Publication No. 10-1525568

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In the above-described prior art, there is a problem in that the possibility of demonstrating more diverse functions by combining the functions of each component and various air channels is limited. The first task of the present invention is to solve this problem.

In the above prior art, there is a problem that it is difficult to remove ultrafine dust adhering to clothing. The second task of the present invention is to solve this problem.

The third object of the present invention is to supply external air to clothes as needed, so that the clothes treatment device can perform more diverse functions.

The fourth task of the present invention is to enable change control of the flow path in an efficient structure.

The fifth task of the present invention is to help users easily replace/clean filters and prevent filter failure.

The sixth task of the present invention is to make the replaceable filter easily removable and provide daily protection.

The seventh task of the present invention is to provide an efficient structure that can perform functions for air passing through various flow paths.

In order to solve the above problems, a clothing processing device according to the present invention includes: a cabinet forming a processing space for accommodating clothing; a flow path body disposed below the processing space inside the cabinet and forming an inner discharge port for discharging air into the processing space and an inner suction port for sucking air from the processing space; a fan disposed inside the flow path body and directing air sucked into the inner intake port to the inner discharge port; a filter module that is removably disposed inside the euro body through the inner intake port and includes a filter unit that filters out dust in the passing air; a first valve that opens and closes a first inlet formed to allow air flowing into the inner intake port to bypass the filter unit; a second valve that opens and closes a second inlet formed to allow air flowing into the inner intake port to pass through the filter unit; and a valve operation module that operates the first valve and the second valve.

The filter module is inserted into a filter module insertion hole formed between the first inlet and the second inlet.

The first inlet is located closer to the inner discharge port than the filter module insertion port, and the second inlet is located farther from the inner discharge port than the filter module insertion port.

Each of the first valve and the second valve is rotatably supported on valve supports disposed at both ends of the shaft portion of each of the first valve and the second valve,

A clothing treatment device wherein the filter module insertion port is formed between the shaft portion of the first valve and the shaft portion of the second valve.

The filter module includes a filter unit disposed below the filter module insertion hole and filtering out foreign substances passing through; a filter body portion supporting the filter portion; and a handle disposed above the filter module insertion hole and formed above the filter body when the filter body is completely inserted into the flow path body.

It is disposed on the upper side of the filter module and further includes an auxiliary filter that filters out foreign substances in the air moving to the first inlet and the second inlet through the inner intake port.

The auxiliary filter is detachably disposed on the flow path body.

The auxiliary filter includes an auxiliary filter part that filters out foreign substances in the air, and an auxiliary body part that supports the auxiliary filter part.

The auxiliary filter unit is arranged perpendicular to the filter unit.

It covers an upper side of the filter module and further includes a cover that is detachably disposed on the bottom of the processing space.

The inner suction port is formed by a gap between the cover and the bottom surface of the processing space.

The flow path body includes a cover support portion supporting the cover, and the cover includes a cover body supported by the cover support portion.

The cover body includes a cover part forming a plane spaced apart from the floor of the processing space in the vertical direction, and a cover supporter supporting the cover part, and the upper end of the cover supporter is fixed to the lower side of the cover part, The lower end is in contact with the cover support part.

It further includes a steam module that supplies steam into the processing space, and the filter unit includes a HEPA filter.

By being able to switch flow paths, the clothing processing device can implement more diverse and variable functions.

In addition, by providing the bypass passage and the filtering passage, it is possible to remove foreign substances from the air supplied into the processing space when necessary while considering the influence of air on the filter unit.

Additionally, by providing a ventilation passage, clean air can be supplied to clothing. Furthermore, by providing the ventilation flow path to be selectable, it is possible to take into account the effect on the air around the clothing treatment device.

By arranging the fan and the heat exchange module in the shared section, the air in the flow path can be moved by operation of one fan no matter which of the plurality of flow paths is selected, and the air in the flow path can be heated or cooled by one heat exchange module. This is possible.

By providing the filtering passage and the bypass passage while the steam module and the HEPA filter are provided, the high-performance function of the HEPA filter can be utilized, and when steam is supplied into the processing space through the steam module, the HEPA It can be induced to prevent steam from passing through.

In the bypass mode, steam is injected into the processing space and the bypass flow path is selected, thereby preventing the steam supplied to the processing space from passing through the filter unit, circulating the air in the processing space, and performing separate treatment on the air. You can.

Since the predetermined angle Ag1 is greater than the angle Ag2, the rotation of the first valve connection part and the second valve connection part can be varied depending on the rotation angle of the valve control unit.

Since the first gear unit and the second gear unit are disposed at positions spaced apart from the central axis by the same distance, both the first gear unit and the second gear unit can be operated through one main gear unit.

The first gear unit and the second gear unit are formed in the same shape, and the first rotation axis and the second rotation axis are spaced apart from the central axis by the same distance (d), so that the first gear unit is connected to the first gear unit through the one main gear unit. Both the unit and the second gear unit can be operated.

By providing the restraint part, the positions of the first valve and the second valve can be easily controlled without using a Hall sensor.

By providing the inner intake port and the fragrance sheet, the cover can efficiently add fragrance to both the air passing through the bypass passage and the filtering passage.

By providing the auxiliary filter, an auxiliary filtering function can be added to both the bypass flow path and the filtering flow path with one auxiliary filter.

1 is a perspective view of a clothing treatment device 1 according to an embodiment of the present invention.
FIG. 2 is a perspective view of the clothing treatment device 1 of FIG. 1 with the door 15 open.
FIG. 3 is a partial perspective view showing a portion of the processing space 10s of the clothing processing device 1 in FIG. 2.
FIG. 4(a) is a cross-sectional perspective view of the clothing processing device 1 in FIG. 1 cut horizontally along line S1-S1', and FIG. 4(b) is a cross-sectional perspective view of the clothing processing device 1 in FIG. 1 along line S2-S2. It is a cross-sectional perspective view cut horizontally along '.
FIG. 5 is a control block diagram of the clothing treatment device 1 in FIG. 1.
6A and 6B are perspective views showing a portion of the flow path body 26 disposed in the machine room 18 of the clothing processing device 1 of FIG. 1, and the valve 70 and the valve disposed in the flow path body 26. An operational module 80 is shown.
FIG. 7 is an internal projection perspective view of the valve actuation module 80 of FIG. 6A.
FIGS. 8A to 8C are diagrams showing the operation mechanism of the valve 70 and the valve operation module 80 disposed on the flow path body 26 of FIGS. 6a and 6b, with the flow path body 26 and the door ( A cross-sectional conceptual diagram of 15) cut up and down is shown, and on the right is an internal elevation view showing the operating state of the valve operation module 80. Figure 8a shows a state in which the bypass circulation path (Pa) is selected, Figure 8b shows a state in which the filtering circulation path (Pb) is selected, and Figure 8c shows a state in which the ventilation path (Pc) is selected.
FIG. 9 is a partial perspective view showing the process of removing the cover 25, the auxiliary filter 23, and the filter module 90 from the cabinet 10 of the clothing treatment device 1 of FIG. 3. Figure 9(a) shows the cover 25 removed from the cabinet 10, Figure 9(b) shows the auxiliary filter 23 removed, and Figure 9(c) shows the filter It shows the module 90 in a removed state.
FIG. 10 is a perspective view of the cover 25, auxiliary filter 23, and filter module 90 of FIGS. 3 and 9.
FIG. 11 is a partial cross-sectional view of the clothing treatment device 1 of FIG. 3 taken vertically along line S3-S3'.
FIG. 12 is a perspective view showing a state in which the filter module 90 is being drawn into or pulled out of the flow path body 26 of FIGS. 6A and 6B.

In order to explain the present invention, it will be described below based on a spatial orthogonal coordinate system with X, Y, and Z axes orthogonal to each other. Each axis direction (X-axis direction, Y-axis direction, Z-axis direction) refers to both directions in which each axis extends. The '+' sign in front of each axis direction (+X-axis direction, +Y-axis direction, +Z-axis direction) means the positive direction, which is one of the two directions in which each axis extends. The '-' sign in front of each axis direction (-X-axis direction, -Y-axis direction, -Z-axis direction) means the negative direction, which is the remaining direction among the two directions in which each axis extends.

Expressions referring to directions such as “front (+Y)/back (-Y)/left (+X)/right (-X)/up (+Z)/down (-Z)” mentioned below are It is defined according to the coordinate axis, but this is for the purpose of explaining the present invention so that it can be clearly understood, and of course, each direction can be defined differently depending on where the reference is placed.

'Upstream and downstream' mentioned in this description are defined based on the preset air flow direction.

The use of terms such as 'first, second, and third' in front of the components mentioned below is only to avoid confusion about the components referred to, and does not indicate the order, importance, or master-slave relationship between the components. is irrelevant. For example, an invention that includes only the second component without the first component can also be implemented.

As used herein, singular expressions include plural expressions unless the context clearly dictates otherwise.

The clothing treatment device 1 according to an embodiment of the present invention includes a cabinet 10 placed on an external floor or fixed to an external wall. The cabinet 10 forms a processing space 10s that accommodates clothing. The clothing processing device 1 may include a hanger module 30 provided to hang clothing or hangers. The clothing treatment device 1 is provided with an air flow path P for supplying air to clothing. The clothing treatment device 1 includes a fan 50 that moves air on the air flow path P. The clothing treatment device 1 may include a heat exchange module 60 that heats or cools passing air. The clothing treatment device 1 includes at least one valve 70 disposed on the air passage P. The clothing treatment device 1 includes a valve operation module 80 that operates the valve 70.

The clothing treatment device 1 may include a filter module 90 including a filter unit 95 that filters dust in the passing air. The clothing treatment device 1 may further include an auxiliary filter 23 having a performance different from that of the filter module 90.

The clothing processing device 1 includes a control unit 2 that controls various components. The control unit 2 controls one of the plurality of flow paths to be selected.

1 to 3, the cabinet 10 forms an exterior appearance. The cabinet 10 includes a top panel 11 forming the upper side, side panels 12 forming the left and right sides, and a rear panel 13 forming the rear side. The cabinet 10 includes a base 14 forming a bottom surface. The side panel 12 may include a first side panel 12a forming a left side and a second side panel 12b forming a right side.

The cabinet 10 includes an inner cabinet 10a forming an inner surface. The cabinet 10 includes an external cabinet 10b forming an outer surface.

The cabinet 10 includes a door 15 for putting clothes into the processing space 10s. The door 15 can open and close the open side of the processing space 10s. The door 15 can open and close the processing space 10s by rotating around a predetermined rotation axis extending in the vertical direction. When the door 15 is closed, the processing space 10s is isolated from the outside, and when the door 15 is opened, the processing space 10s is exposed to the outside. The door 15 may cover the outdoor air connector 45, which will be described later, in a closed state. The door 15 can cover the condensate water storage unit 28 and the supply water storage unit 29 in a closed state.

The inner surface of the inner cabinet 10a and the door 15 defines a processing space 10s. The processing space 10s is a space in which air (eg, hot air), steam, air freshener, and/or antistatic agent is applied to the clothing to change the physical or chemical properties of the clothing. Clothes within the treatment space 10s may be treated in a variety of ways.

For example, hot air can be applied to clothing in the processing space 10s to dry the clothing. By supplying steam to the clothing within the treatment space (10s), wrinkles formed on the clothing can be smoothed out. The air and/or steam supplied within the processing space 10s affects the physical or chemical properties of the received clothing. Hot air or steam relaxes the tissue structure of clothing, smoothing out wrinkles, and odor molecules in the clothing react with the steam to remove unpleasant odors. Additionally, hot air and/or steam can sterilize bacteria living on clothing.

For example, dust from clothing in the processing space 10s can be removed through air circulation and filtering. Additionally, air outside the cabinet 10 may be supplied to the clothing to dehumidify the clothing in the processing space 10s or remove odor from the clothing. Additionally, an air freshener can be sprayed on the clothes in the processing space 10s to make the clothes smell fragrant, or an anti-static agent can be sprayed to prevent static electricity from being generated in the clothes.

The cabinet 10 has a machine room 18 for processing air supplied into the processing space 10s. The machine room 18 may be placed below the processing space 10s. A flow path body 26, a fan 50, and a heat exchange module 60 may be disposed in the machine room 18. A valve 70 and a valve operation module 80 may be disposed in the machine room 18.

A filter module 90 may be disposed within the machine room 18. The filter module 90 may be arranged to be retractable from within the machine room 18. With the filter module 90 disposed in the machine room 18, a cover 25 covering the filter module 90 may be disposed. Additionally, an auxiliary filter 23 removably disposed between the cover 25 and the filter module 90 may be provided.

Referring to FIG. 2, the hanger module 30 may be placed at the top of the processing space 10s. The hanger module 30 is supported by the cabinet 10. The hanger module 30 may be provided to be movable.

The hanger module 30 includes a hanger body 31 provided to hang clothes or hangers. As an example, the hanger body 31 may form a catching groove (not shown) so that a clothes hanger can be hung. As another example, the hanger body 31 may be provided with a hook (not shown) so that clothes can be hung directly.

The hanger body 31 may be connected to the cabinet 10 through the hanger moving part 33. The hanger body 31 may be provided to vibrate in a predetermined vibration direction (+X, -X). The hanger body 31 may be formed to extend long in the vibration direction (+X, -X). A plurality of locking grooves (not shown) may be arranged on the upper side of the hanger body 31 to be spaced apart from each other in the vibration direction (+X, -X). The locking groove may be formed to extend in a direction (+Y, -Y) crossing the vibration direction (+X, -X).

The hanger module 30 may include a hanger moving part 33 that supports the hanger body 31 in a movable manner. The hanger moving part 33 is formed to be able to flow in the vibration direction (+X, -X). The hanger moving part 33 may be formed of a flexible material so that the hanger body 31 can move. The hanger moving part 33 may include an elastic member that is elastically deformable when the hanger body 31 moves. The upper end of the hanger moving part 33 is fixed to the cabinet 10 and the lower end is fixed to the hanger body 31. The hanger moving part 33 may extend up and down.

The hanger module 30 may include a vibration unit 39 that generates vibration. The vibration unit 39 is connected to the hanger body 31 and transmits the vibration of the vibration unit 39 to the hanger body 31. The vibration unit 39 may be disposed on the upper side of the hanger body 31. For example, the hanger body 31 forms a slit (not shown) extending in a direction (+Y, -Y) perpendicular to the vibration direction (+X, -X), and the vibration unit 39 extends downward. It may include a protrusion (not shown) that protrudes and is inserted into the slit. The protrusion of the vibration unit 39 is inserted into the slit of the hanger body 31 and moves relative to the slit in the orthogonal direction (+Y, -Y), thereby causing the vibration direction ( Only +X, -X) excitation power can be transmitted.

Referring to FIGS. 8A to 8C, the air flow path P guides the air so that it is discharged into the processing space 10s. In the air passage P, a plurality of passages are preset to guide the air so that the air is discharged into the processing space 10s. Any one of the plurality of flow paths may be selected by the valve operation module 80 and the valve 70. The clothing treatment device 1 includes a flow path body 26 that partitions the air flow path P. The flow path body 26 may be placed within the machine room 18 .

Referring to FIGS. 1 to 4 , an inner intake port 41 is provided to suck air within the processing space 10s. The inner intake port 41 is disposed in the inner cabinet 10a. An inner intake port 41 may be disposed on the bottom of the internal cabinet 10a. An inner intake port 41 may be formed between the cover 25 and the internal cabinet 10a. Air in the processing space (10s) may flow into the air flow path (P) through the inner intake port (41).

An inner discharge port 44 is provided to discharge air into the processing space 10s. The inner discharge port 44 is disposed in the inner cabinet 10a. An inner discharge port 44 may be disposed on the bottom surface of the internal cabinet 10a. A radial network structure may be formed at the inner discharge port 44. Air in the air passage P may be discharged into the processing space 10s through the inner discharge port 44.

With the circulation flow paths (Pa, Pb) to be described later selected, the air sucked into the air flow path (P) from the processing space (10s) through the inner intake port (41) undergoes a predetermined process and flows through the inner discharge port (44). It is discharged into the processing space (10s). In this embodiment, the inner suction port 41 and the inner discharge port 44 are respectively disposed at the front and rear of the bottom of the processing space 10s.

An external air inflow section P4 may be provided to suck air from the external space Ou of the cabinet 10. Air from the external space (Ou) may flow into the air flow path (P) through the outdoor air inflow section (P4). The outside air inflow section P4 may be formed in a hole shape. The outside air inflow section (P4) may be placed in the door (15). The outside air inflow section (P4) constitutes the upstream end of the ventilation passage (Pc), which will be described later. The outside air inflow section (P4) may be provided to be open and closed.

With the ventilation flow path (Pc), which will be described later, selected, the air sucked into the air flow path (P) from the external space (Ou) through the outside air inflow section (P4) is processed through the inner discharge port (44) through a predetermined process. It can be discharged into space (10s).

An exhaust outlet section P5 may be provided to discharge air into the external space Ou of the cabinet 10. Air within the processing space (10s) may leak into the external space (Ou) through the exhaust outflow section (P5). The exhaust outlet section P5 may be formed in a hole shape. The exhaust outlet section P5 may be placed on the door 15. The exhaust discharge section P5 may be disposed between the processing space 10s and the external space Ou. The exhaust outflow section (P5) constitutes a flow path connecting the processing space (10s) and the external space (Ou). The exhaust outlet section (P5) may be provided to be open and closed.

With the door 15 closed, air passing through the outside air inflow section (P4) flows into the machine room 18 through the outside air connector 45. The outside air connector 45 may be open toward the rear of the door 15. The outdoor air connector 45 is formed at a position corresponding to the downstream end of the outdoor air inflow section P4 when the door 15 is closed. The air that sequentially passes through the outside air inlet section (P4) and the outside air connector 45 is introduced into the flow path body 26. Specifically, air passing through the outdoor air connector 45 may flow into the filter passing section P2.

The outside air connector 45 is disposed on the lower side of the processing space 10s. When the door 15 is closed, the door 15 covers the outside air connector 45. The outside air connector 45 may be formed on the side facing the door 15 of the machine room 18. The outside air connector 45 may be placed in the front of the machine room 18. When the door 15 is open, the outdoor air connector 45 may be exposed.

A first outdoor air connector 45a and a second outdoor air connector 45b may be provided in response to the first outer suction part 47a and the second outer suction part 47b disposed on the door 15. The first external air connector 45a and the second external air connector 45b may be arranged symmetrically left and right. The first outdoor air connector 45a and the second outdoor air connector 45b may be disposed with the condensate water storage unit 28 and the supply water storage unit 29 interposed therebetween.

The clothing treatment device 1 may include an outer suction unit 47 that forms the outside air inflow section P4. The outer suction unit 47 may be placed on the door 15. The outer suction unit 47 can open and close the external air inflow section (P4). The outer suction unit 47 can rotate in a predetermined rotation direction M1 with respect to the door 15 to open and close the outside air inflow section P4. The outer suction unit 47 may be rotatable with respect to the door 15 about a predetermined rotation axis extending in the vertical direction. A driving unit (not shown) that operates the outer suction unit 47 may be disposed inside the door 15.

A plurality of outer suction units 47a and 47b may be provided. In this embodiment, the first outer suction part 47a and the second outer suction part 47b are disposed on both sides of the door 15. The plurality of outer suction units 47a and 47b may be provided to open and close simultaneously.

Referring to FIG. 4(a), the outer suction part 47 includes an opening and closing part 47o that defines the outside air inflow section P4. The outside air inflow section P4 is formed by penetrating the opening and closing portion 47o. The opening and closing portion 47o is arranged to be rotatable with respect to the door 15. A suction hole corresponding to the outside air inflow section P4 may be formed on the outside of the door 15. Referring to the arrow Af in FIG. 4(a), when the opening/closing part 47o rotates so that the upstream end of the outside air inflow section P4 coincides with the suction hole of the door 15, through the outside air inflow section P4 Air from the external space Ou may flow into the machine room 18.

The clothing treatment device 1 may include an outer discharge portion 48 that forms the exhaust discharge section P5. The outer discharge unit 48 may be disposed on the door 15. The outer discharge part 48 can open and close the exhaust discharge section (P5). The outer discharge unit 48 can rotate in a predetermined rotation direction M2 with respect to the door 15 to open and close the exhaust outlet section P5. The outer discharge portion 48 may be rotatable with respect to the door 15 about a predetermined rotation axis extending in the vertical direction. A driving unit (not shown) that operates the outer discharge unit 48 may be disposed inside the door 15.

A plurality of outer discharge parts 48a and 48b may be provided. In this embodiment, the first outer discharge portion 48a and the second outer discharge portion 48b are disposed on both sides of the door 15. The plurality of outer discharge parts 48a and 48b may be provided to open and close simultaneously.

The outer discharge part 48 is disposed above the outer suction part 47. The outer discharge part 48 and the outer suction part 47 may be provided to open and close at the same time.

Referring to FIG. 4(b), the outer discharge portion 48 may include an opening/closing portion 48o defining an exhaust discharge section P5. The exhaust outlet section P5 is formed by penetrating the opening and closing portion 48o. The opening/closing portion 48o is rotatably disposed with respect to the door 15. A discharge hole may be formed on the outside of the door 15. Referring to the arrow Af in FIG. 4(b), when the opening/closing part 48o rotates so that the downstream end of the exhaust outlet section P5 coincides with the discharge hole of the door 15, through the exhaust outflow section P5 Air within the processing space 10s may leak into the external space Ou.

8A to 8C, the fan 50 applies pressure to the air in the air passage P. The fan 50 is disposed on the air flow path (P). The fan 50 is disposed within the flow path body 26. The fan 50 is placed in the shared section P0, which will be described later. Through this, no matter which of the plurality of flow paths is selected, the air flow on the air flow path P can be induced by one fan 50.

The fan 50 may be disposed at the rear of the flow path body 26. The fan 50 may be placed closer to the inner discharge port 44 than the inner intake port 41. The shared section (P0) forms a flow path that guides the flow of air from the front to the rear, and then bends upward to form a flow path that guides the air flow to the inner discharge port 44. The fan 50 may be placed at a point bent toward the top of the shared section. The fan 50 may be implemented as a centrifugal fan.

Referring to FIGS. 8A to 8C, the heat exchange module 60 is disposed on the air flow path (P). The heat exchange module 60 is disposed within the flow path body 26. The heat exchange module 60 is disposed in the shared section P0, which will be described later. Through this, no matter which of the plurality of flow paths is selected, the air on the air flow path P can be treated with one heat exchange module 60.

The heat exchange module 60 can heat the air on the air flow path (P). Specifically, the heat exchange module may include a first heat exchanger 61 functioning as an evaporator and a second heat exchanger 63 functioning as a condenser. The heat exchange module 60 may include a compressor (not shown) and an expansion valve (not shown). The heat exchange module 60 may be provided with a refrigerant cycle that sequentially passes through the compressor, the condenser, the expansion valve, and the evaporator. The air on the air flow path (P) first passes through the first heat exchanger (61), where moisture in the air is condensed, and the air whose heat capacity has decreased due to the generation of condensate passes through the second heat exchanger (63) and is heated. Accordingly, the air after passing through the second heat exchanger (63) has lower humidity and higher temperature compared to the air before passing through the first heat exchanger (61).

In another embodiment, although not shown, heat exchange module 60 may include a cooling device that causes the treated air to be cooler than the air prior to treatment.

Whether or not the heat exchange module 60 operates can be controlled by the control unit 2. The fan 50 may be operated while the heat exchange module 60 is not operating, so that air that flows through the air flow path P and has not been separately heated may be supplied into the processing space 10s.

Referring to FIGS. 2 and 3 , the clothing treatment device 1 may include a condensate storage unit 28 that stores condensate generated in the heat exchange module 60. Condensate generated in the first heat exchanger 61 of the heat exchange module 60 may be collected into the condensate storage unit 28. The condensate storage unit 28 may be arranged to be retractable. With the door 15 open, the condensate storage unit 28 can be pulled out to the front.

The clothing treatment device 1 may include a steam module 7 that supplies steam into the treatment space 10s. The steam module 7 may include a steam generator (not shown) that generates steam, and a steam nozzle 21 that discharges the generated steam into the processing space 10s. The steam generator may be placed within the machine room 18. The steam nozzle 21 is disposed in the internal cabinet 10a. In this embodiment, the steam nozzle 21 is disposed at the rear of the bottom surface of the processing space 10s.

The clothing treatment device 1 may include a supply water storage unit 29 that stores water to be supplied to the steam module 7. The water in the supply water storage unit 29 may move to the steam generator and change into steam. The supply water storage unit 29 may be arranged to be withdrawn. With the door 15 open, the supply water storage unit 29 can be pulled out to the front.

Referring to FIG. 5 , the clothing processing device 1 may include an input unit 3 that receives On/Off or various commands. The input unit 3 may include keys, buttons, dials, and/or touch screens.

The clothing processing device 1 may include a sensing unit 4 that detects environmental information for clothing processing. The environmental information may include information on clothing accommodated in the processing space 10s. The environmental information may include information on the state of air inside the processing space 10s. The environmental information may include information on the state of air on the air flow path (P). The environmental information may include information on the state of air in the external space (Ou).

The air state information may include temperature information. The air condition information may include humidity information. The air condition information may include air pollution information.

For example, the sensing unit 4 may include a clothing recognition sensor (not shown) that detects clothing accommodated inside the processing space 10s. The sensing unit 4 may include a humidity sensor (not shown) that detects air humidity. The sensing unit 4 may include a temperature sensor (not shown) that detects the temperature of the air. The humidity sensor and temperature sensor may be implemented as a temperature and humidity sensor that simultaneously detects humidity and temperature.

The clothing processing device 1 may include a communication unit 5 provided to communicate with an external server, terminal, and/or charging station.

The clothing processing device 1 may include an output unit 6 for informing the user of various information. The output unit 6 may include a speaker and/or display.

The clothing treatment device 1 may further include a fragrance supply module 8 that supplies fragrance into the treatment space 10s. The clothing treatment device 1 may further include an antistatic agent supply module 9 that supplies an antistatic agent into the processing space 10s.

The control unit 2 can receive information from the input unit 3 and process it. The control unit 2 can receive information or transmit information through the communication unit 5. The control unit 2 can control various components (6, 7, 8, 9, 50, 60, 80, 47, 48) based on information received through the input unit 3 or communication unit 5. there is.

The control unit 2 can receive environmental information sensed from the sensing unit 4 and process it. The control unit 2 can control various components 6, 7, 8, 9, 30, 50, 60, 80, 47, and 48 based on the environmental information sensed by the sensing unit 4. For example, the control unit 2 controls the clothing processing device 1 to select a ventilation mode to be described later based on environmental information that the humidity of the air in the external space Ou is lower than the humidity of the air in the processing space 10s. ) can be controlled.

The control unit 2 can control the output of the output unit 6. The control unit 2 can control the operation of the steam module 7. The control unit 2 can control the operation of the fragrance supply module 8. The control unit 2 can control the operation of the antistatic agent supply module 9. The control unit 2 can control the operation of the fan 50. The control unit 2 can control the operation of the heat exchange module 60. The control unit 2 can control the vibration of the hanger module 30.

The control unit 2 may control the operation of the valve operation module 80. The control unit 2 may control the valve operation module 80 to select one of the plurality of flow paths. (Refer to FIGS. 8A to 8C) The control unit 2 operates the valve operation module 80 to change from one of the plurality of flow paths to another.

When the valve 70 is operated by the valve operation module 80, the 'selected flow path' among the plurality of flow paths is changed. Here, the selected flow path means one of a plurality of flow paths selected by the control unit 2 in the current mode. For example, in FIG. 8A, the selected flow path is a bypass circulation flow path, in FIG. 8B, the selected flow path is a filtering circulation flow path, and in FIG. 8C, the selected flow path is a ventilation flow path.

The control unit 2 can control the operation of the outer suction part 47 and the outer discharge part 48. The control unit 2 may control the outer suction unit 47 and the outer discharge unit 48 to select one of the plurality of flow paths. (Refer to FIGS. 8A to 8C)

Hereinafter, with reference to FIGS. 8A to 8C, the air flow path P in which a plurality of flow paths are preset will be described in detail as follows. In FIGS. 8A to 8C , arrows are shown indicating the air flow direction Af, and the types of arrows are shown differently for each section of the air flow path P.

Air can be supplied into the processing space (10s) through the air flow path (P). Air within the processing space 10s can be circulated and supplied through the air flow path P. Through the air flow path P, air within the processing space 10s can be sucked in and discharged into the processing space 10s. Through the air flow path P, air from the external space Ou can be supplied into the processing space 10s.

Air moving through the air flow path P may be supplied into the processing space 10s through a predetermined processing process. For example, air heated by the heat exchange module 60 can be supplied into the processing space 10s. Air dehumidified by the heat exchange module 60 can be supplied into the processing space (10s). Air cooled by the heat exchange module 60 may be supplied into the processing space 10s. Additionally, air that has not been separately treated may be supplied into the treatment space (10s). Air to which a fragrance or anti-static agent has been added may be supplied into the processing space (10s) through the air passage (P).

One of the plurality of flow paths is preset to be selected. In this embodiment, a state in which one of the plurality of flow paths (Pa, Pb, and Pc) is selected is shown in FIGS. 8A, 8B, and 8C, but there is no need to be limited thereto, and the plurality of flow paths may be preset to two. And it can be preset to 4 or more. By using the at least one valve 70, one of the plurality of flow paths can be changed from one selected flow path to another selected flow path.

The plurality of flow paths may be divided depending on whether air passes through the filter unit 95 or not. Referring to FIG. 8A, the plurality of flow paths may include at least one bypass flow path (Pa) that guides the air to bypass the filter unit 95. Referring to FIGS. 8B and 8C , the plurality of passages may include at least one filtering passage (Pb, Pc) that guides the air to pass through the filter unit 95. Here, whether it passes through the filter unit 95 is defined based on one filter unit 95, and whether it passes through an additionally provided separate filter unit (for example, the auxiliary filter unit 23b). is irrelevant. In other words, air bypassing the filter unit 95 does not mean that air is excluded from passing through the separate filter unit 23b.

The at least one bypass passage (Pa) may include a bypass circulation passage (Pa) provided to guide air sucked from the processing space (10s). The at least one filtering passage (Pb, Pc) may include a filtering circulation passage (Pb) that guides air sucked from the processing space (10s). The at least one filtering passage (Pb, Pc) may include a ventilation passage (Pc) that guides air sucked from the external space (Ou).

The plurality of flow paths may be divided depending on whether air circulates within the processing space 10s. Referring to FIGS. 8A and 8B , the plurality of passages may include at least one circulation passage (Pa, Pb) that guides air sucked from the processing space 10s. Referring to FIG. 8C, the plurality of flow paths may include at least one ventilation flow path (Pc) that guides air sucked from the external space (Ou) of the cabinet 10.

The at least one circulation passage (Pa, Pb) may include a bypass circulation passage (Pa) that guides air to bypass the filter unit 95. The at least one circulation passage (Pa, Pb) may include a filtering circulation passage (Pb) that guides air to pass through the filter unit 95. The ventilation passage (Pc) may be provided to guide air to pass through the filter unit (95).

In this embodiment, the bypass circulation passage Pa guides the air sucked from within the processing space 10s to bypass the filter unit 95. In this embodiment, the filtering circulation passage Pb guides the air sucked from within the processing space 10s to pass through the filter unit 95. In this embodiment, the ventilation passage Pc guides the air sucked from the external space Ou to pass through the filter unit 95.

With reference to FIGS. 8A to 8C, each section forming part of the air passage P is described as follows. The air passage P may include a shared section P0 that commonly constitutes a portion of the bypass passage Pa and a portion of the filtering passages Pb and Pc. The shared section (P0) may have a portion of the circulation passage (Pa, Pb) and a portion of the ventilation passage (Pc) in common. The shared section (P0) can guide air to leak into the processing space (10s). The air flow path P may include an inner inflow section P1 into which air within the processing space 10s flows. The air passage P may include a filter passage section P2 that guides air to pass through the filter unit 95. The air flow path P may include an external air inflow section P4 that guides the air of the external space Ou to flow in.

Referring to FIG. 8A, the bypass circulation passage (Pa) may be formed by sequentially connecting the inner inlet section (P1) and the shared section (P0). Referring to FIGS. 8A and 11 , when the first valve 70a is open and the second valve 70b is closed, the first inlet 42 is open and the second inlet 43 is closed. Referring to FIGS. 8A and 4 , in this case, the outer suction part 47 closes the outside air inflow section (P4), and the outer discharge part 48 closes the exhaust outlet section (P5). Air flows into the inner inlet section (P1) from the processing space (10s) through the inner intake port (41). Air flows from the inner inlet section (P1) to the shared section (P0) through the first inlet (42). The air passing through the shared section (P0) is discharged into the processing space (10s) through the inner discharge port (44). At this time, air does not flow in or out between the external space (Ou) and the processing space (10s).

Referring to FIG. 8B, the filtering circulation passage (Pb) is formed by sequentially connecting the inner inflow section (P1), the filter passing section (P2), and the sharing section (P0). Referring to FIGS. 8B and 11 , when the first valve 70a is closed and the second valve 70b is open, the first inlet 42 is closed and the second inlet 43 is open. Referring to FIGS. 8A and 4 , in this case, the outer suction part 47 closes the outside air inflow section (P4), and the outer discharge part 48 closes the exhaust outlet section (P5). Air flows into the inner inlet section (P1) from the processing space (10s) through the inner intake port (41). Air flows from the inner inlet section (P1) to the filter passage section (P2) through the second inlet (43). The air that has passed the filter unit 95 in the filter passing section (P2) flows into the shared section (P0). The air passing through the shared section (P0) is discharged into the processing space (10s) through the inner discharge port (44). At this time, air does not flow in or out between the external space (Ou) and the processing space (10s).

Referring to FIG. 8C, the ventilation passage (Pc) is formed by sequentially connecting the outside air inflow section (P4), the filter passage section (P2), and the sharing section (P0). Referring to FIGS. 8C and 11 , when both the first valve 70a and the second valve 70b are closed, the first inlet 42 and the second inlet 43 are both closed. Referring to Figures 8c and 4, in this case, the outer suction part 47 opens the outside air inflow section (P4), and the outer discharge part 48 opens the exhaust outlet section (P5). Air flows from the external space (Ou) into the external air inflow section (P4). Air flows from the outside air inlet section (P4) to the filter passage section (P2) through the outside air connector (45). The air that has passed the filter unit 95 in the filter passing section (P2) flows into the shared section (P0). The air passing through the shared section (P0) is discharged into the processing space (10s) through the inner discharge port (44). Additionally, the air within the processing space 10s flows out to the external space Ou through the exhaust outflow section P5.

Hereinafter, with reference to FIGS. 6A to 8C and FIG. 11, the at least one valve 70 and the valve operation module 80 will be described in detail as follows.

Depending on the operation of the at least one valve 70, one selected flow path among the plurality of flow paths Pa, Pb, and Pc is changed to another selected flow path. Operation of the valve 70 may mean opening and closing the valve 70. Depending on the opening and closing of the valve 70, one of the bypass passage (Pa) and the filtering passage (Pb, Pc) may be changed to the other. Depending on the opening and closing of the valve 70, one of the circulation passages (Pa, Pb) and the ventilation passage (Pc) may be changed from one to the other. Depending on the opening and closing of the valve 70, one of the bypass circulation passage (Pa), the filtering passage (Pb, Pc), and the ventilation passage (Pc) may be changed to another.

The first inlet 42 may be disposed downstream of the inner inlet 41. The first inlet 42 may be placed at the downstream end of the inner inlet section P1. The first entrance 42 may be placed at the upstream end of the shared section P0. The first inlet 42 may be arranged perpendicular to the extraction direction of the filter module 90. The first inlet 42 may be arranged perpendicular to the filter unit 95. The first inlet 42 may be disposed downstream of the auxiliary filter unit 23b. The first inlet 42 may be arranged parallel to the auxiliary filter unit 23b.

The second inlet 43 may be disposed downstream of the inner inlet 41. The second inlet 43 may be placed at the downstream end of the inner inlet section (P1). The second inlet 43 may be disposed at the upstream end of the filter passage section P2. The second inlet 43 may be arranged perpendicular to the extraction direction of the filter module 90. The second inlet 43 may be arranged perpendicular to the filter unit 95. The second inlet 43 may be disposed downstream of the auxiliary filter unit 23b. The second inlet 43 may be arranged parallel to the auxiliary filter unit 23b.

The first inlet 42 and the second inlet 43 may be arranged on the same plane. The first entrance 42 and the second entrance 43 may be arranged to be spaced apart from each other. The first inlet 42 and the second inlet 43 may be arranged with the filter module 90 therebetween. A filter module insertion hole 26h is formed between the first inlet 42 and the second inlet 43 into which the filter module 90 can be withdrawn.

The at least one valve 70 may include a first valve 70a disposed on the bypass passage Pa to open and close the passage. The first valve 70a can open and close the first inlet 42. The first valve 70a opens the first inlet 42 when the bypass flow path Pa is selected. The first valve 70a closes the first inlet 42 when the filtering flow path (Pb, Pc) is selected. The first valve 70a closes the first inlet 42 when the filtering circulation flow path Pb is selected. The first valve 70a closes the first inlet 42 when the ventilation flow path Pc is selected.

The at least one valve 70 may include a second valve 70b disposed on the filtering passages Pb and Pc to open and close the passages. The second valve 70b can open and close the second inlet 43. The second valve 70b opens the second inlet 43 when the filtering circulation flow path Pb is selected. The second valve 70b closes the second inlet 43 when the bypass flow path Pa is selected. The second valve 70b closes the second inlet 43 when the ventilation flow path Pc is selected.

The first valve 70a may rotate around the first rotation axis Oa. The second valve 70b may rotate around the second rotation axis Ob. The first rotation axis (Oa) and the second rotation axis (Ob) are virtual axes for explaining the present invention and do not refer to actual parts of the device. The first rotation axis (Oa) and the second rotation axis (Ob) may be arranged in parallel. The first rotation axis Oa may extend along one side of the first entrance 42. The second rotation axis Ob may extend along one side of the second entrance 43. The first rotation axis (Oa) and the second rotation axis (Ob) may be arranged horizontally. The first rotation axis (Oa) and the second rotation axis (Ob) may be arranged parallel to the filter module 90. In a state where the first valve 70a and the second valve 70b are closed, the first rotation axis Oa is disposed at the end of the first valve 70a facing the second valve 70b, and the second valve 70a A second rotation axis Ob may be disposed at the end of 70b facing the first valve 70a. The filter module 90 may be disposed between the first rotation axis (Oa) and the second rotation axis (Ob).

The first valve 70a may include a shaft portion (not shown) that functions as the first rotation shaft Oa and an opening/closing portion (not shown) that rotates to open and close the first inlet 42. The shaft portion and the main opening/closing portion of the first valve 70a may be formed integrally.

The second valve 70b may include a shaft portion (not shown) that functions as the second rotation shaft Ob and an opening/closing portion (not shown) that rotates to open and close the second inlet 43. The shaft portion and the main opening/closing portion of the second valve 70b may be formed integrally.

The flow path body 26 may include a valve support portion 26b that rotatably supports the valve 70. Valve supports 26b may be provided at both ends of the shaft portion of the first valve 70a. Valve supports 26b may be provided at both ends of the shaft portion of the second valve 70b.

The flow path body 26 may include a valve limit 26c that limits the rotation range of the valve 70. The valve limit 26c can set the position of the valve 70 in a closed state. The first valve limit 26c1 is provided to contact the first valve 70a when the first valve 70a is closed. The second valve limit 26c2 is provided to contact the second valve 70b when the second valve 70b is closed. (See Figures 6A, 6B and 11)

The first valve 70a may be opened by rotating upward in a closed state. The first valve limit 26c1 may form a surface facing the opposite direction of the air flow direction Af. The first valve limit 26c1 may form a surface facing upward.

The second valve 70b may be opened by rotating upward in a closed state. The second valve limit 26c2 may form a surface facing the opposite direction of the air flow direction Af. The second valve limit 26c2 may form a surface facing upward.

One end of the shaft portion of the first valve 70a may be fixed to the first valve connection portion 81, which will be described later, and the other end may be rotatably supported on the valve holder 27. One end of the shaft portion of the second valve 70b may be fixed to the second valve connection portion 82, which will be described later, and the other end may be rotatably supported on the valve holder 27. The valve holder 27 may be fixed to the flow path body 26. The valve holder 27 may be disposed on the outer surface of the flow path body 26. The valve holder 27 may extend to connect the first rotation axis (Oa) and the second rotation axis (Ob). A first valve 70a and a second valve 70b are disposed between the valve operation module 80 and the valve holder 27.

The valve operation module 80 may be fixed to the flow path body 26. The valve operation module 80 may be fixed to the outer surface of the flow path body 26. The valve operation module 80 may be disposed on one side of the first inlet 42 and the second inlet 43.

The valve operation module 80 may operate the first valve 70a and the second valve 70b to be closed at the same time. The valve operation module 80 may operate one of the first valve 70a and the second valve 70b so that one is in an open state and the other is in a closed state.

The valve operation module 80 is provided to select one of a plurality of modes to be described later by opening and closing the first valve 70a and the second valve 70b. The valve operation module 80 has a first mode in which the first valve 70a is open and the second valve 70b is closed, and a first mode in which the first valve 70a is closed and the second valve 70b is open. One of a plurality of modes including two modes and a third mode in which both the first valve 70a and the second valve 70b are closed is provided.

The valve operation module 80 may include one motor 83 that provides rotational force to open and close the first valve 70a and the second valve 70b. The motor 83 includes a motor shaft 83a protruding to one side. The motor 83 can operate the opening and closing of the first valve 70a and the second valve 70b through forward and reverse rotation.

The valve operation module 80 may include a module casing 87 that accommodates the motor 83 therein. The module casing 87 may be supported by the flow path body 26. The module casing 87 can rotatably support the first valve connection part 81 and the second valve connection part 82, which will be described later. The module casing 87 can rotatably support the valve control unit 84, which will be described later. A restraining part 88, which will be described later, is fixed to the module casing 87.

The valve operation module 80 includes a first valve connection portion 81 connected to the first valve 70a so that the first valve 70a rotates together when the valve operation module 80 rotates. The first valve connection part 81 may rotate around a predetermined first rotation axis Oa. In this embodiment, the first valve 70a is fixed to the first valve connection part 81, and the first valve 70a and the first valve connection part 81 rotate integrally around the first rotation axis Oa. . Although not shown, in another embodiment, the first valve connection part 81 rotates about the first rotation axis (Oa) and the first valve (70a) rotates about a rotation axis different from the first rotation axis (Oa), When the first valve connection part 81 rotates, the first valve 70a may be rotated together by a connected gear or belt.

The first valve connection part 81 may include a first valve fixing part 81a to which the first valve 70a is fixed. One end of the shaft portion of the first valve 70a may be fixed to the first valve fixing portion 81a. The first valve fixing part 81a may protrude along the first rotation axis Oa. The first valve fixing part 81a may protrude out of the module casing 87. The first valve fixing part 81a may form a spline shaft to prevent slipping during relative rotation with the first valve 70a.

The first valve connection part 81 may include a first gear part 81b. The first gear unit 81b may receive rotational force from the valve control unit 84. The first gear unit 81b may form a plurality of gear teeth along a circumferential direction centered on the first rotation axis Oa. The first gear unit 81b may be disposed inside the module casing 87. The first gear part 81b and the first valve fixing part 81a rotate as one body.

The valve operation module 80 includes a second valve connection portion 82 connected to the second valve 70b so that the second valve 70b rotates together when the valve operation module 80 rotates. The second valve connection part 82 may rotate around a predetermined second rotation axis Ob. In this embodiment, the second valve 70b is fixed to the second valve connection part 82 so that the second valve 70b and the second valve connection part 82 rotate integrally around the second rotation axis Ob. . Although not shown, in another embodiment, the second valve connection part 82 rotates about the second rotation axis Ob and the second valve 70b rotates about a rotation axis different from the second rotation axis Ob. When the second valve connection part 82 rotates, the second valve 70b may be rotated together by a connected gear or belt.

The second valve connection part 82 may include a second valve fixing part 82a to which the second valve 70b is fixed. One end of the shaft portion of the second valve 70b may be fixed to the second valve fixing portion 82a. The second valve fixing part 82a may protrude along the second rotation axis Ob. The second valve fixing part 82a may protrude out of the module casing 87. The second valve fixing portion 82a may form a spline shaft to prevent slipping during relative rotation with the second valve 70b.

The second valve connection part 82 may include a second gear part 82b. The second gear unit 82b may receive rotational force from the valve control unit 84. The second gear unit 82b may form a plurality of gear teeth along a circumferential direction centered on the second rotation axis Ob. The second gear unit 82b may be disposed inside the module casing 87. The second gear part 82b and the second valve fixing part 82a rotate as one body.

The valve operation module 80 includes a valve control unit 84 provided to rotate the first valve connection part 81 and the second valve connection part 82. The valve control unit 84 may be disposed inside the module casing 87.

The valve control unit 84 is rotatably disposed on the module casing 87 about a predetermined central axis Oc. The valve control unit 84 rotates around a predetermined central axis Oc by the power of the motor 83.

The valve control unit 84 may be provided to rotate which of the first valve connection part 81 and the second valve connection part 82 varies depending on the rotation angle. The valve control unit 84 may rotate to transmit rotational force to only one of the first valve connection part 81 and the second valve connection part 82 depending on the rotation angle. The valve control unit 84 may rotate according to the rotation angle so as not to transmit rotational force to any of the first valve connection part 81 and the second valve connection part 82.

The central axis (Oc) is a virtual axis for explaining the present invention and does not refer to an actual part of the device. The central axis Oc is preset as a rotation axis different from the first rotation axis Oa and the second rotation axis Ob. The central axis Oc may be arranged parallel to the first rotation axis Oa and the second rotation axis Ob.

The valve control unit 84 may include a main gear unit 84a in which the engaging gear unit of the first gear unit 81b and the second gear unit 82b is provided to vary depending on the rotation angle. The main gear unit 84a may be provided to engage only one of the first gear unit 81b and the second gear unit 82b according to the rotation of the valve control unit 84. The main gear unit 84a may be provided so that both the first gear unit 81b and the second gear unit 82b are not engaged according to the rotation of the valve control unit 84.

The main gear unit 84a may be formed along the rotation direction of the valve control unit 84 within a predetermined angle Ag2 range around the central axis Oc. The main gear unit 84a forms a plurality of gear teeth along the rotation direction in a predetermined angle Ag2 range. The angle (Ag) may be preset to an angle in the acute angle range.

*The predetermined angle Ag1 formed by the first rotation axis Oa and the second rotation axis Ob around the central axis Oc may be greater than the angle Ag2. Through this, the rotation of the first valve connection part 81 and the second valve connection part 82 can be changed depending on the rotation angle of the valve control part 84. Referring to FIG. 8A, when the main gear unit 84a is located on an imaginary line connecting the central axis Oc and the first rotation axis Oa according to the rotation of the valve control unit 84, the main gear unit 84a (84a) comes into contact only with the first gear portion (81b) among the first gear portion (81b) and the second gear portion (82b). Referring to Figure 8b, when the main gear part 84a is located on the imaginary line connecting the central axis (Oc) and the second rotation axis (Ob) according to the rotation of the valve control part 84, the main gear part (84a) comes into contact only with the second gear unit (82b) among the first gear unit (81b) and the second gear unit (82b). Referring to FIG. 8C, when the main gear unit 84a is located within the range of the angle Ag1 according to the rotation of the valve control unit 84, the main gear unit 84a is connected to the first gear unit 81b and There is no contact at all with the second gear unit (82b).

The first gear unit 81b and the second gear unit 82b may be disposed at positions spaced apart from the central axis Oc by the same distance. That is, the gear teeth of the first gear unit (81b) closest to the central axis (Oc) and the gear teeth of the second gear unit (82b) of the closest distance from the central axis (Oc) are the same from the central axis (Oc). They are placed spaced apart by the distance. In addition, the main gear portion 84a forms gear teeth at a position away from the central axis Oc by a certain distance. Through this, both the first gear unit 81b and the second gear unit 82b can be operated through one main gear unit 84a.

The first gear unit 81b and the second gear unit 82b may be formed in the same shape. The first rotation axis Oa and the second rotation axis Ob may be spaced apart from the central axis Oc by the same distance d. Through this, both the first gear unit 81b and the second gear unit 82b can be operated through one main gear unit 84a.

In this embodiment, the valve control unit 84 may include a driven gear unit 84b that receives the rotational force of the motor 83. Although not shown, in another embodiment, the motor shaft 83a may be directly connected to the valve control unit 84 to receive rotational force.

The driven gear unit 84b may form a plurality of gear teeth along a circumferential direction centered on the central axis Oc. The driven gear unit 84b can receive rotational force by contacting the power transmission unit 85, which will be described later. In this embodiment, the driven gear portion 84b may be engaged with the worm gear 85, which will be described later. The driven gear unit 84b rotates around the central axis Oc integrally with the main gear unit 84a.

The valve control unit 84 may include a rotating body unit 84c on which the main gear unit 84a and the driven gear unit 84b are disposed. The rotating body portion 84c may be rotatably disposed on the module casing 87. The rotating body portion 84c may form a central shaft portion (not shown) protruding along the central axis Oc, and the central shaft portion of the rotating body portion 84c may be rotatably inserted into the module casing 87. Grooves or holes may be formed. The main gear unit 84a may be disposed to protrude from the rotating body unit 84c in the direction in which the central axis Oc extends. The driven gear unit 84b may be arranged along the circumference of the rotating body unit 84c around the central axis Oc.

The valve operation module 80 may include a power transmission unit 85 that transmits the rotational force of the motor 83 to the valve control unit 84. The power transmission unit 85 may include gears, belts, and/or pulleys.

The power transmission unit 85 may include at least one gear. In this embodiment, the power transmission unit 85 includes one gear, but is not limited thereto.

In this embodiment, the power transmission unit 85 may include a worm gear 85 that is fixed to the motor shaft 83a and rotates. The motor shaft 83a may be placed on the virtual transmission shaft Om. The worm gear 85 is provided to rotate around the transmission shaft Om. The worm gear 85 rotates integrally with the motor shaft 83a. The worm gear 85 engages with the driven gear portion 84b and rotates about the transmission shaft Om, and accordingly the valve control portion 84 rotates about the central axis Oc.

The valve actuating module 80 includes a restraining portion 88 that limits the rotation range of the valve adjusting portion 84. The restraint portion 88 may protrude inward from the inner surface of the module casing 87. The position of the restraint portion 88 is fixed, and the first and second engaging surfaces of the valve control portion 84, which will be described later, rotate around the central axis Oc and are in contact with or spaced apart from the restraint portion 88.

The restraint portion 88 may include a first restraint portion 88a that limits the maximum rotation of the valve adjusting portion 84 in the first direction. The restraint portion 88 may include a second restraint portion 88b that limits the maximum rotation of the valve adjusting portion 84 in the second direction. Here, one of the first direction and the second direction refers to a clockwise direction and the other refers to a counterclockwise direction. Here, the first direction refers to the direction in which the main gear unit 84a rotates toward the first valve connection part 81 among the first and second valve connection parts 81 and 82, and the second direction refers to the main gear unit (84a). 84a) refers to the direction of rotation toward the second valve connection part 82 among the first and second valve connection parts 81 and 82.

The rotating body portion 84c includes a first engaging surface (not shown) provided to contact the first restraint portion 88a. The rotating body portion 84c includes a second engaging surface (not shown) provided to contact the second restraint portion 88b. The angle formed by the first engaging surface and the second engaging surface may be the predetermined angle Ag2. The main gear unit 84a may be disposed in an angle range between the first engaging surface and the second engaging surface.

Referring to FIG. 8A, the first valve 70a may be provided to be in an open state when the valve control unit 84 rotates as much as possible in the first direction. At this time, the second valve 70b is in a closed state. When the valve control part 84 of FIG. 8A is rotated as much as possible in the first direction and the valve control part 84 rotates in the second direction, the first valve connection part 81 is connected to the main gear part 84a and By engaging and rotating, the first valve 70a rotates in the direction of closing the first inlet 42. Here, when the valve control unit 84 continues to rotate in the second direction, referring to Figure 8c, the main gear unit 84a is disposed within the predetermined angle Ag1 range, and the first valve ( 70a) is in a closed state. When the valve control unit 84 rotates in the second direction in the state of the valve control unit 84 in FIG. 8C, the first valve 70a remains closed, and the second valve connection unit 82 operates as a main gear. By engaging and rotating with the portion 84a, the second valve 70b rotates in a direction that opens the second inlet 43. Here, if the valve control unit 84 continues to rotate in the second direction, referring to FIG. 8B, the valve control unit 84 is rotated as much as possible in the second direction.

Referring to FIG. 8B, the second valve 70b may be provided to be in an open state when the valve control unit 84 rotates as much as possible in the second direction. At this time, the first valve 70a is closed. When the valve control unit 84 in FIG. 8B is rotated as much as possible in the second direction and the valve control unit 84 rotates in the first direction, the second valve connection unit 82 is connected to the main gear unit 84a and By engaging and rotating, the second valve (70b) rotates in the direction of closing the second inlet (43). Here, when the valve control unit 84 continues to rotate in the first direction, referring to Figure 8c, the main gear unit 84a is disposed within the predetermined angle Ag1 range, and the second valve ( 70b) is in a closed state. When the valve control unit 84 rotates in the first direction in the state of the valve control unit 84 in FIG. 8C, the second valve 70b remains closed, and the first valve connection unit 81 operates as a main gear. By engaging and rotating with the part 84a, the first valve 70a rotates in a direction that opens the first inlet 42. Here, if the valve control unit 84 continues to rotate in the first direction, referring to FIG. 8A, the valve control unit 84 is rotated as much as possible in the first direction.

In a state where the valve control part 84 is caught by the restraint part 88, the motor shaft 83a is also restrained and stops rotating. Using this restriction of motor rotation and step rotation, the rotation of the first valve 70a and the second valve 70b can be controlled. Here, forward rotation of the motor shaft 83a refers to a rotation direction that rotates the valve control unit 84 in the first direction, and reverse rotation of the motor shaft 83a refers to a rotation direction that rotates the valve control unit 84 in the second direction. It refers to the direction of rotation that rotates in that direction.

In order to control one of the first valve 70a and the second valve 70b in a closed state and the other in an open state (see FIGS. 8A and 8B), the motor shaft 83a is rotated in either the forward or reverse direction. It can be sufficiently rotated until it is restrained by the restraint part 88. Referring to FIG. 8A, when the motor shaft 83a is sufficiently rotated in the forward direction and the valve control unit 84 is rotated as much as possible in the first direction, the first valve 70a is in an open state and the second valve ( 70b) is in a closed state. Referring to FIG. 8B, when the motor shaft 83a is sufficiently rotated in the reverse direction and the valve control unit 84 is rotated as much as possible in the second direction, the second valve 70b is in an open state and the first valve ( 70a) is in a closed state.

In addition, in order to control both the first valve 70a and the second valve 70b in a closed state (see FIG. 8C), the motor shaft 83a is moved in either the forward or reverse direction by the restraining unit 88. After rotating it sufficiently until it is constrained, it can be rotated (step rotation) by a certain rotation angle in the opposite direction. For example, when the motor shaft 83a is sufficiently rotated in the forward direction and the valve control unit 84 is rotated as much as possible in the first direction (FIG. 8A), the first valve 70a is in an open state, where the motor shaft (83a) is rotated in the reverse direction by a predetermined rotation angle so that the valve control unit 84 rotates in the second direction and both the first valve 70a and the second valve 70b are in a closed state (FIG. 8c). You can. As another example, the second valve 70b is in an open state when the motor shaft 83a is sufficiently rotated in the reverse direction and the valve control unit 84 is rotated as much as possible in the second direction (FIG. 8b), where the motor shaft (83a) is rotated in the forward direction by a predetermined rotation angle so that the valve control unit 84 rotates in the first direction and both the first valve 70a and the second valve 70b are in a closed state (FIG. 8c). You can.

The rotation angle may be preset to an appropriate value according to the gear ratio of the power transmission unit 85 and the valve control unit 84. When the rotation speed of the motor is constant, the rotation angle may be controlled by a preset rotation time of the motor.

The control unit 2 controls the valve operation module 80 to always set the position of the valve 70 when power is input to the clothing processing device 1 so that both the first valve 70a and the second valve 70b are closed. It can be initialized to the state (see Figure 8c).

Referring to FIGS. 9 to 12 , the filter module 90 may be disposed between the first valve 70a and the second valve 70b. The filter module 90 may be disposed between the first inlet 42 and the second inlet 43.

The filter module 90 is provided so that it can be inserted and withdrawn through the filter module insertion hole 26h formed in the flow path body 26. With the filter module 90 fully inserted into the filter module insertion hole 26h, the filter unit 95 is disposed in the filter passage section P2 on the air flow path P.

The filter module 90 is provided to be retractable and withdrawn in a predetermined attachment/detachment motion direction M3. The filter module 90 is provided to be withdrawable in a direction crossing the filtering channels (Pb, Pc). In this embodiment, the filter module 90 is provided to be withdrawn upward. The filter module 90 is provided to be withdrawable from the bottom of the processing space 10s.

The filter module 90 includes a filter unit 95 that filters out foreign substances passing through. The filter unit 95 has a different function from the auxiliary filter unit 23b, which will be described later. The filter unit 95 can filter out relatively small foreign substances compared to the auxiliary filter unit 23b.

The filter unit 95 may include a High Efficiency Particulate Air filter (HEPA). The HEPA filter is consumable and needs to be replaced. The HEPA filter filters out relatively very small fine dust, bacteria, mold, etc. For example, the HEPA filter maintains a filtration rate of over 99.97% with particles as small as 0.3μ. For example, the HEPA filter may be made of glass fiber or asbestos fiber.

The HEPA filter cannot be washed with water, but can be cleaned by shaking it with a brush or brush. Accordingly, it is necessary to provide the HEPA to prevent vapor exceeding a predetermined level from passing through. By providing the filtering passages (Pb, Pc), the high-performance function of the HEPA filter can be utilized, and by providing the bypass passage (Pa), when supplying steam into the processing space through the steam module 7, the HEPA filter It can be induced to prevent steam from passing through.

The filter module 90 includes a filter body portion 91 that supports the filter portion 95. The filter unit 95 may be detachably disposed on the filter body unit 91. To replace the filter unit 95, the filter body unit 91 may be pulled out from the flow path body 26, and then the filter unit 95 may be removed from the filter body unit 91.

The filter module 90 may include a handle 93 that allows the user to hold the filter module 90 with his hand when the filter body portion 91 is completely inserted into the flow path body 26. The handle 93 is fixed to the filter body portion 91. The handle 93 may be disposed on the upper side of the filter body portion 91. When the cover 25 and the auxiliary filter 23 are removed, the handle 93 may be exposed.

The filter body portion 91 includes a filter arrangement portion 91a on which the filter portion 95 is disposed. The filter arrangement part 91a guides the position of the filter part 95. The filter arrangement portion 91a contacts one side of the filter portion 95. The filter arrangement portion 91a may form a grid-like structure. The filter arrangement part 91a may include a first arrangement part 91a1 extending horizontally and a second arrangement part 91a2 extending vertically. Air passes through the opening formed by the filter arrangement portion 91a.

The filter body portion 91 includes a frame portion 91b that establishes a relative positional relationship between the handle 93 and the filter portion 95. The frame portion 91b may surround the filter portion 95. The frame portion 91b forms a structure in which a predetermined distance is maintained between the filter portion 95 and the handle 93.

Referring to FIGS. 3 and 9 to 11 , the cover 25 forms the inner intake port 41 and may cover the side of the filter module 90 in the extraction direction. The cover 25 may form an inner intake port 41 through which air flows into the bypass passage (Pa) and the filtering passage (Pb). The inner suction port 41 may be formed by a gap between the cover 25 and the bottom surface of the processing space 10s.

The cover 25 may cover the side of the filter module 90 in the extraction direction. The cover 25 may cover the side of the auxiliary filter 23 in the removal direction.

The cover 25 may be detachably disposed on the cabinet 10. The cover 25 may be detachably disposed on the internal cabinet 10a. The cover 25 may be disposed to be detachable from the bottom surface of the processing space 10s.

The flow path body 26 may include a cover support portion 26a that supports the cover 25. The cover support portion 26a may form a part of the air flow path (P). The cover support portion 26a may form at least a portion of the inner inflow section P1. The cover support portion 26a may be formed in a column shape forming an air passage P therein. The upper end of the cover support portion 26a may be connected to the bottom of the processing space 10s. A stepped portion may be formed in the cover support portion 26a so that the cover supporter 25a2 is placed thereon.

The cover 25 may include a cover body 25a supported by a cover supporter 26a. The cover body 25a may include a cover portion 25a1 that forms a plane spaced apart from the bottom surface of the processing space 10s in the vertical direction. The cover portion 25a1 covers the inner intake port 41 when viewed from above. The cover body 25a may include a cover supporter 25a2 that supports the cover portion 25a1. The upper end of the cover supporter 25a2 is fixed to the lower side of the cover part 25a1, and the lower end may be in contact with the cover support part 26a. The cover supporter 25a2 extends downward from the cover portion 25a1 to a specific point and may be bent horizontally to extend at the specific point. A pair of left and right cover supports 25a2 may be arranged symmetrically to each other. A gap between the cover supporter 25a2 and the cover portion 25a1 may form at least a portion of the inner intake port 41.

The cover 25 may include a scent sheet 25b. The scent sheet 25b can add a scent that makes the user comfortable to the adjacent air. By equipping the cover 25 forming the inner intake port 41 with the fragrance sheet 25b, fragrance can be efficiently added to the air passing through the bypass passage Pa and the filtering passage Pb.

9 to 11, the auxiliary filter 23 may be disposed between the filter module and the cover. The auxiliary filter 23 may be disposed upstream of the first inlet 42 and the second inlet 43. The auxiliary filter 23 may be placed upstream of the filter module 90. The auxiliary filter 23 may be disposed downstream of the cover 25.

The auxiliary filter 23 may be supported by the flow path body 26. The auxiliary filter 23 may be arranged to be detachable. The auxiliary filter 23 may be detachably disposed in the internal cabinet 10a. The auxiliary filter 23 may be arranged to be detachable from the bottom surface of the processing space 10s.

*The auxiliary filter 23 may include an auxiliary filter unit 23b that filters foreign substances in the air moving into the bypass passage (Pa) and the filtering passage (Pb) through the inner intake port 41. The auxiliary filter unit 23b may be arranged horizontally. The auxiliary filter unit 23b filters dust in the passing air, but may have a different function from the filter unit 95. The auxiliary filter unit 23b is not the HEPA filter. For example, the auxiliary filter unit 23b may form a mesh filter. For example, the auxiliary filter unit 23b can filter only foreign substances whose volume is relatively larger than that of the filter unit 95. The auxiliary filter unit 23b is provided to allow steam to pass through. Through this, an auxiliary filtering function can be added to both the bypass flow path (Pa) and the filtering flow path (Pb) with one auxiliary filter 23.

The filter module 90 includes an auxiliary body portion 23a that supports the auxiliary filter portion 23b. The auxiliary body portion 23a may be arranged to cross the air flow direction Af. The auxiliary body portion 23a forms a plurality of openings, and the auxiliary filter portion 23b is disposed in the plurality of openings.

Referring to FIGS. 3 and 9 , the user can open the door 15, remove the cover 25, and withdraw the filter module 90. The user can remove the cover 25, remove the auxiliary filter 23, which will be described later, and then withdraw the filter module 90.

Referring to FIG. 9(a), when the cover 25 is removed from the cabinet 10, one side of the auxiliary filter 23 is exposed. Referring to FIG. 9(b), when the auxiliary filter 23 is removed from the cabinet 10, the handle 93 of the filter module 90 is exposed. When the auxiliary filter 23 is removed, the first valve 70a and the second valve 70b may be exposed. Referring to FIG. 9(c), by holding and pulling the handle 93, the filter module 90 is pulled out from the filter module insertion hole 26h.

Hereinafter, with reference to FIGS. 5 and 8A to 8C, the plurality of modes will be described in detail as follows. The control unit 2 is provided to select one of a plurality of preset modes. The control unit 2 can control various components within the clothing processing device 1 according to the selected mode.

The plurality of modes can be classified depending on whether or not air is filtered by the filter unit 95. The plurality of modes may include at least one bypass mode and at least one filtering mode.

In the bypass mode, the control unit 2 controls the steam module 7 to spray steam into the processing space 10s. In the bypass mode, the control unit 2 controls the fan 50 to operate. In the bypass mode, the control unit 2 controls the valve operation module 80 to select the bypass flow path (Pa) among the plurality of flow paths. Accordingly, while preventing the vapor supplied to the processing space 10s from passing through the filter unit 95, it is possible to circulate the air within the processing space 10s and perform separate processing.

In the filtering mode (filtering circulation mode, ventilation mode), the control unit 2 controls the steam module 7 not to spray steam into the processing space 10s. In ventilation mode), the control unit 2 controls the fan 50 to operate. In ventilation mode), the controller 2 may control the filtering flow paths (Pb, Pc) to be selected among the plurality of flow paths.

The plurality of modes may be classified depending on whether air circulates within the processing space 10s. The plurality of modes may include at least one circulation mode and at least one ventilation mode.

In the circulation mode (bypass circulation mode, filtering circulation mode), the control unit 2 controls the fan 50 to operate. In the circulation mode, the control unit 2 controls the valve operation module 80 to select the circulation passages (Pa, Pb) among the plurality of passages.

When the circulation mode is selected, the bypass circulation passage (Pa) or the filtering circulation passage (Pb) is selected among the plurality of passages. When the bypass circulation passage (Pa) or the filtering circulation passage (Pb) is selected, the control unit 2 controls the outer suction portion 47 and the outer discharge portion 48 to be closed. That is, the outer suction unit 47 closes the outside air inflow section (P4) and the outer discharge section 48 closes the exhaust outlet section (P5).

In the ventilation mode, the control unit 2 controls the fan 50 to operate. In the ventilation mode, the control unit 2 controls the valve operation module 80 to select the ventilation passage Pc among the plurality of passages.

When the ventilation mode is selected, the ventilation flow path (Pc) is selected among the plurality of flow paths. When the ventilation passage (Pc) is selected, the control unit 2 controls the outer suction part 47 and the outer discharge part 48 to be opened. That is, the outer suction part 47 opens the outside air inflow section (P4) and the outer discharge part 48 opens the exhaust outlet section (P5).

The plurality of modes may include a bypass circulation mode, a filtering circulation mode, and a ventilation mode. The plurality of modes can be selected by the user through input through the input unit 3. The plurality of modes may be selected differently for each time section during one clothing processing process. The plurality of modes may be selected differently based on information detected by the sensing unit 4.

In the bypass circulation mode, the control unit 2 controls the steam module 7 to inject steam into the processing space 10s. In the bypass circulation mode, the control unit 2 controls the fan 50 to operate. In the bypass circulation mode, the control unit 2 controls the valve operation module 80 to select the bypass circulation passage (Pa) among the plurality of passages. In the bypass circulation mode, the control unit 2 controls the first valve 70a to open and the second valve 70b to close. In the bypass circulation mode, the control unit 2 controls the outer suction part 47 and the outer discharge part 48 to be closed. The bypass circulation mode can help ensure that steam is efficiently supplied to clothes.

In the filtering circulation mode, the control unit 2 controls the steam module 7 not to inject steam into the processing space 10s. In the filtering circulation mode, the control unit 2 controls the fan 50 to operate. In the filtering circulation mode, the control unit 2 controls the valve operation module 80 to select the filtering circulation passage Pb among the plurality of passages. In the filtering circulation mode, the control unit 2 controls the first valve 70a to be closed and the second valve 70b to be open. In the filtering circulation mode, the control unit 2 controls the outer suction part 47 and the outer discharge part 48 to be closed. In the filtering circulation mode, the controller 2 can control the hanger module 30 to vibrate. Through the filtering circulation mode, foreign substances attached to clothing can be efficiently removed.

In the bypass circulation mode and the filtering circulation mode, the control unit 2 may vary the vibration pattern of the hanger module 30, respectively. For example, the control unit 2 may control the hanger module 30 to vibrate relatively slowly in the bypass circulation mode and control the hanger module 30 to vibrate relatively quickly in the filtering circulation mode.

In the ventilation mode, the controller 2 may control the steam module 7 not to spray steam into the processing space 10s. In the ventilation mode, the control unit 2 controls the fan 50 to operate. In the ventilation mode, the control unit 2 controls the valve operation module 80 to select the ventilation passage Pc among the plurality of passages. In the ventilation mode, the control unit 2 controls the first valve 70a to close and the second valve 70b to close. In the ventilation mode, the control unit 2 controls the outer suction part 47 and the outer discharge part 48 to be opened. In the ventilation mode, the controller 2 can control the hanger module 30 not to vibrate. Through the ventilation mode, moisture and odor components contained in clothing can be efficiently removed. Additionally, in the ventilation mode, dust or odor components within the processing space 10s are discharged to the outside, thereby improving the quality of the space where clothes are accommodated.

1: Clothing processing device 2: Control unit
7: Steam module 10: Cabinet
10s: Processing space 23: Auxiliary filter
25: Cover 26: Euro body
30: Hanger module 41: Inner intake port
42: 1st entrance 43: 2nd entrance
44: inner discharge port 45: external air connection port
47: outer suction part 48: outer discharge part
50: Fan 60: Heat exchange module
70: valve 70a: first valve
70b: second valve 80: valve operation module
81: first valve connection 82: second valve connection
83: motor 84: valve control unit
85: power transmission unit 87: module casing
88: restraint part 90: filter module
95: Filter part Pa, Pb, Pc: Multiple flow paths
P0: Shared section P1: Inner inflow section
P2: Filter passing section P4: Outdoor air inflow section
P5: Exhaust discharge section Oa: 1st rotation axis
Ob: Second rotation axis Oc: Central axis
Om: Transmission axis

Claims (18)

A cabinet forming a processing space for receiving clothing;
a machine room located inside the cabinet, located below the processing space, where a heat exchange module for heat exchanging air within the cabinet is disposed;
a door rotatably coupled to the cabinet to open and close an open surface of the processing space, and disposed to overlap at least a portion of the machine room;
a condensate storage unit located at a lower portion of the processing space, covered by the door when the door is closed, and storing condensate water condensed in the heat exchange module;
a supply water storage unit located at the lower part of the treatment space, covered by the door when the door is closed, and storing water to be supplied to the treatment space; and
It includes a fan disposed inside the machine room and flowing air introduced into the machine room,
Inside the machine room,
The heat exchange module and the fan are disposed, and a shared section, which is a flow path that guides the air passing through the heat exchange module to flow out into the processing space, is formed rearward than the condensate water storage unit and the supply water storage unit,
The door is a flow path that guides air outside the cabinet into the inside of the cabinet, and the laundry treatment device includes a suction section in which a suction hole, which is an upstream end according to the air flow direction, is located below the processing space. According to paragraph 1,
The door further includes a discharge section that guides air discharged into the processing space by the shared section to the outside of the cabinet. According to paragraph 2,
The clothing treatment device is characterized in that the discharge section is disposed above the suction section. According to paragraph 2,
The clothing treatment device is characterized in that the discharge section is disposed above the machine room. delete According to paragraph 1,
Clothing treatment device, characterized in that air flowing into the cabinet through the suction section flows into the sharing section. According to paragraph 1,
A clothing treatment device, characterized in that an inflow section is formed inside the machine room to guide air in the processing space to the shared section. According to paragraph 1,
An inner intake port formed on the bottom of the processing space to guide air inside the processing space to the shared section, and an inner discharge port formed on the bottom of the processing space to guide air passing through the shared section to the processing space. A clothing processing device further comprising: According to clause 8,
A clothing treatment device further comprising an auxiliary filter located in the inner intake port and filtering foreign substances from the air passing through the inner intake port. According to clause 8,
The clothing treatment device is characterized in that the inner suction port is located ahead of the inner discharge port. According to paragraph 2,
A clothing treatment device further comprising a filter module located inside the cabinet and filtering dust in the air flowing inside the cabinet. According to clause 11,
The filter module is provided to allow air introduced into the cabinet through the suction section to pass through before being discharged out of the cabinet through the discharge section. According to paragraph 1,
A clothing treatment device installed on the door and further comprising a suction valve that opens and closes the suction section. According to clause 13,
The suction valve is rotatable and opens and closes the suction section according to the rotation angle,
A clothing treatment device further comprising a driving unit that operates the suction valve. According to clause 13,
The suction valve is provided to be rotatable. When the suction valve is located in the first position, air outside the cabinet is blocked from flowing into the cabinet, and when the suction valve is positioned in the second position, the cabinet is blocked. A clothing treatment device characterized in that air outside the cabinet flows into the cabinet. According to clause 13,
The clothing treatment device is characterized in that the suction valve opens and closes the downstream end of the suction section. delete According to paragraph 1,
The clothing treatment device is characterized in that the condensate water storage unit and the supply water storage unit are located at a lower part of the processing space and are detachably coupled to the front of the machine room.