Laundry treating apparatus

Abstract

A garment processing apparatus is disclosed. The garment processing apparatus of the present disclosure comprises: a cabinet; a drum rotatably provided within the cabinet; an induction heater for heating the drum, wherein the induction heater comprises a coil and a housing that accommodates the coil and is fixed inside the cabinet on the outside of the drum; a first duct provided outside the drum and having an inlet communicating with the internal space of the drum; a chamber provided outside the drum, wherein the chamber comprises a first inlet communicating with the first duct, a first outlet communicating with the internal space of the drum, a first flow path connecting the first inlet and the first outlet, a second inlet communicating with the external space of the drum, a second outlet communicating with the housing of the induction heater, and a second flow path connecting the second inlet and the second outlet; a partition provided inside the chamber and partitioning the first flow path and the second flow path; and a first impeller provided in the flow path communicating with the first flow path. And, it may include a second impeller provided in a channel communicating with the second channel.

Description

Technology Field

[0001] The present disclosure relates to a clothing processing device. Background Technology

[0002] Generally, a clothing processing device may include a washing machine, a dryer, a device for refreshing clothes, etc. The washing machine may be a combined washing machine and dryer that includes a drying function.

[0003] The washing machine above rotates a drum within a tub where water is stored to remove contaminants from the laundry inside the drum. The washing machine may also be equipped with a heating means for heating water or drying laundry.

[0004] The above dryer rotates a drum inside a cabinet and applies heat to the laundry inside the drum to dry the laundry.

[0005] Electric heaters, gas heaters, and heat pumps each have their own advantages and disadvantages as heating means in clothing processing devices, and concepts for clothing processing devices utilizing induction heating as a new heating means capable of further highlighting the advantages and compensating for the disadvantages among them have been provided.

[0006] However, these prior art technologies disclose only the basic concepts for performing induction heating in washing machines, but do not present specific configurations of induction heating modules, the connection and operational relationships with the basic configurations of clothing processing devices, or specific measures or configurations for improving efficiency and ensuring safety.

[0007] Induction heating modules equipped in clothing processing devices such as washing machines and dryers have coils wound thereon, and heat can be transferred to a heating target (drum) by an induced current generated by applying current to the coils.

[0008] In this case, the induction heating module requires a structure for cooling the heat generated in the coil, and if the heat is not discharged smoothly, the deterioration of the coil may occur, which can be a factor in the performance degradation of the induction heating module.

[0009] Korean Patent Publication No. 10-2018-0023276 discloses a structure in which a coil is wound. However, the said patent document does not disclose a flow path for effectively cooling an induction heating module.

[0010] If separate ducts are provided simply to form a cooling path, it may lead to increased manufacturing costs and impede the air circulation efficiency of the tub. Prior art literature

[0011] Korean Patent Publication No. 10-2018-0023276 (March 7, 2018) The problem to be solved

[0012] The present disclosure aims to solve the aforementioned problems and other problems.

[0013] Another objective may be to provide a garment processing device, such as a dryer, a washing machine, a washing machine combined with a dryer, or a device for refreshing clothes, capable of circulating air inside the drum.

[0014] Another objective may be to provide a clothing processing device equipped with a cooling channel for cooling a heat transfer module and a circulation channel for removing moist air inside a tub, wherein the air flow in the cooling channel and the circulation channel can be formed in a simple structure.

[0015] Another objective may be to provide a garment processing device capable of circulating air within a tub, in which air is guided by a single blower in the cooling and circulation paths to parts requiring cooling.

[0016] Another objective may be to provide a garment processing device capable of removing moisture from the air flowing in the circulation path through heat exchange between the cooling path and the circulation path within a duct connected to the tub.

[0017] Another objective may be to provide a garment processing device in which structures outside the tub (or drum), such as a duct, a heat exchange chamber, a blower, an induction heater, and a driver for driving the induction heater, are efficiently arranged. means of solving the problem

[0018] A garment processing apparatus according to one aspect of the present disclosure for achieving the above-described purpose comprises a chamber having a first flow path and a second flow path separated from each other.

[0019] The above-described clothing processing device includes an induction heater for heating a drum, a first duct having an inlet communicating with the internal space of the drum, and a partition wall partitioning the first flow path and the second flow path inside the chamber.

[0020] The above-described clothing processing device includes a first impeller provided in a channel communicating with the first channel, and a second impeller provided in a channel communicating with the second channel.

[0021] The above chamber may be provided outside the drum.

[0022] The chamber includes a first flow path connecting the outlet of the first duct and the drum, and a second flow path connecting the outside of the drum and the induction heater.

[0023] The chamber includes a first inlet communicating with the outlet of the first duct and a first outlet communicating with the internal space of the drum. The chamber includes a second inlet communicating with the external space of the drum and a second outlet communicating with the housing of the induction heater.

[0024] The first path connects the first inlet and the first outlet. The second path connects the second inlet and the second outlet.

[0025] The above clothing processing device may be a dryer. The above clothing processing device may be a dryer that does not include a tub.

[0026] The above-mentioned clothing processing device includes a cabinet. The cabinet can form the exterior of the above-mentioned clothing processing device.

[0027] The above drum may be rotatably provided inside the cabinet.

[0028] The first duct may be provided outside the drum.

[0029] The above chamber may be provided outside the drum.

[0030] The above induction heater may include a coil. The coil may generate a magnetic field when power is applied. The coil may heat the drum through the generated magnetic field.

[0031] The above induction heater may include a housing that accommodates the coil. The housing may be positioned on the outside of the drum. The housing may be fixed inside a cabinet.

[0032] The above drum may have an extended cylinder shape.

[0033] The chamber may extend along the radial direction of the drum. The chamber may extend in the vertical direction.

[0034] The first inlet may be located at the top of the chamber. The first outlet may be located at the bottom of the chamber. The first outlet may be located below the partition wall.

[0035] A condensate discharge channel may be provided in the lower part of the chamber. The condensate discharge channel may be located below the first outlet.

[0036] The second inlet may be located at the bottom of the chamber. The second outlet may be located at the top of the chamber. The second outlet may be located above the partition wall.

[0037] The above partition wall may extend in the longitudinal direction of the chamber.

[0038] The above partition may include a first length portion extending in the longitudinal direction of the chamber, a first width portion extending in the width direction of the chamber from the first length portion, and a second length portion extending in the longitudinal direction of the chamber from the first width portion and facing the first length portion.

[0039] The above partition wall may include a second width portion extending in the width direction of the chamber from the second length portion. The second width portion may extend at a position opposite to the first width portion of the second length portion.

[0040] The above partition wall may include a third length portion extending in the longitudinal direction of the chamber from the second width portion. The third length portion may face the second length portion.

[0041] The first length portion and the second length portion may face each other and be spaced apart from each other in the width direction of the chamber. The second length portion and the third length portion may face each other and be spaced apart from each other in the width direction of the chamber. The first to third length portions may be arranged sequentially along the width direction of the chamber.

[0042] The first inlet may be located between the first length portion and the second length portion. The first inlet may be positioned adjacent to the first width portion. The first inlet may be formed on a first surface of the chamber facing the drum.

[0043] The second inlet may be located between the second length portion and the third length portion. The second inlet may be positioned adjacent to the second width portion. The second inlet may be formed on a second surface of the chamber facing away from the drum.

[0044] The first outlet above may be formed on the first surface.

[0045] The second outlet above may be formed on the first surface.

[0046] The above drum can be opened forward.

[0047] The above chamber may be located at the rear of the drum.

[0048] The first duct may extend along the longitudinal direction of the drum. The first duct may extend along the front-rear direction.

[0049] The induction heater may be located within the length of the drum on the outer side of the drum. The first duct and the induction heater may be arranged along the circumferential direction of the drum.

[0050] The above clothing processing device may include a first blower housing that accommodates the first impeller and a second blower housing that accommodates the second impeller. The above clothing processing device may include a third blower housing that connects the second outlet of the chamber and the inlet of the second blower housing.

[0051] The first blower housing may include an inlet connected to the first duct and an outlet connected to the first inlet of the chamber.

[0052] The above second blower housing can be connected to the housing of the induction heater.

[0053] The first to third blower housings may be arranged along the radial direction of the drum. The first to third blower housings may be arranged in order along the radial direction of the drum. The first to third blower housings may be arranged in order vertically.

[0054] The motor that rotates the first and second impellers can be installed in the third blower housing.

[0055] The above-described clothing processing device may further include a control unit for driving the induction heater. The control unit may be fixed inside the cabinet on the outside of the drum. The control unit may be installed on the inner wall of the cabinet.

[0056] The second blower housing may include an inlet connected to the second outlet and a first cooling outlet connected to the housing of the induction heater. The second blower housing may further include a second cooling outlet connected to the control unit.

[0057] The first impeller can generate airflow in the first duct toward the first flow path.

[0058] The second impeller can generate an airflow directed toward the housing of the induction heater in the second path.

[0059] The above clothing processing device may further include a motor configured to rotate the first impeller and the second impeller.

[0060] The motor may be a single motor that rotates the first impeller and the second impeller. A single motor may rotate the first impeller and the second impeller.

[0061] The rotation axes of the first impeller and the second impeller can be located in a straight line.

[0063] The above-mentioned clothing processing device may be a washing machine combined with a dryer that performs washing and drying. The above-mentioned clothing processing device may be a washing machine combined with a dryer that includes a tub.

[0064] The tub may be placed inside the cabinet. The tub may accommodate the drum. The tub may provide a space for storing water.

[0065] The drum may be rotatably provided within the tub. The drum may include a cylindrical body and a through hole formed in the body.

[0066] The first duct and the chamber may be provided outside the tub.

[0067] The second inlet above may communicate with the space outside the tub. The second inlet above may communicate with the space between the cabinet and the tub.

[0068] The above tub may be extended in the direction of the rotation axis of the drum.

[0069] The first surface may face the tub. The second surface may face the opposite direction of the tub. The second inlet may communicate with the outside of the tub and the interior space of the cabinet.

[0070] The above cabinet may be provided with an input port at the front. The above tub may be provided with an opening at the front.

[0071] The gasket can connect the inlet of the cabinet and the opening of the tub. The first duct can be connected to the gasket.

[0072] The first duct can be extended along the length direction of the tub.

[0073] The induction heater may be installed on the outer surface of the tub. The first duct and the induction heater may be arranged along the circumferential direction of the tub.

[0074] The control unit may be installed on the outer surface of the tub. The control unit may be installed on the circumferential surface of the tub. The control unit may be installed on the outer surface of the tub.

[0076] An example for solving the aforementioned problem is described.

[0077] The parts requiring cooling in the clothing processing device according to the present embodiment are the IH coil, heat exchanger, and IH drive. In addition, a circulation path capable of removing humid air is also required separately.

[0078] Multiple fans may be required to manage airflow in the separate circulation and cooling channels. To operate multiple fans using a single motor, each fan is equipped with a vertically mounted scroll; the upper scroll features two outlets—a coil cooling outlet and an IH drive outlet—which draw in cooling flow connected to the top of the heat exchanger and send the flow to the respective cooling outlets.

[0079] At this time, a partition may be provided to ensure that heat exchange is effectively performed in the circulation and cooling channels. Specifically, there are cooling and circulation channels at the top of the heat exchanger, and the cooling and circulation flows are separated by a partition inside the heat exchanger, through which heat exchange occurs.

[0080] The cooling flow draws in bottom cold air through the cooling flow inlet located at the rear below the heat exchanger, and after heat exchange with the circulating flow through the baffle, moves toward the cooling outlet.

[0081] Water that has been heat-exchanged and condensed inside the heat exchanger flows into the tub and can be discharged to the outside through a drainage pump or directly connected to a drain pipe through a flow path provided in the duct to be discharged to the outside.

[0082] More specifically, according to the present embodiment, a clothing processing device is provided comprising: a cabinet; a tub provided within the cabinet; a drum rotatably provided within the tub to accommodate clothing and having at least a portion formed of a metal material; an induction module provided on the outer surface of the tub to heat the drum through a magnetic field generated by applying current to a coil; a circulation path that guides air discharged from the tub to flow back into the tub; a cooling path that guides air discharged from the tub to the induction module; and a blower unit that blows air through the circulation path and the cooling path. The blower unit comprises a first impeller that guides air through the circulation path, a second impeller that guides air through the cooling path, and a blower unit motor that provides driving force to the first impeller and the second impeller.

[0083] Additionally, the present invention provides a clothing processing device comprising a circulation channel, a first duct that is configured to extend toward the rear side of the tub and guides air discharged from the tub, a first blower housing connected to the first duct and configured to accommodate the first impeller, and a second duct connected to the first blower housing and configured to communicate with the rear of the tub.

[0084] Additionally, the present invention provides a clothing processing device comprising: a second blower housing connected to the second duct at a location different from the first blower housing and configured to accommodate the second impeller; and a module cooling duct connected to one side of the second blower housing and configured to guide air to the induction module.

[0085] In addition, the first blower housing and the second blower housing provide a clothing processing device configured such that the first impeller and the second impeller can rotate about the same axis.

[0086] Additionally, the present invention provides a garment processing device comprising a module control unit that controls the operation of the induction module, wherein the second blower housing is configured to guide air to cool the module control unit at a location different from the location communicating with the module cooling duct.

[0087] In addition, the module control unit provides a clothing processing device configured to be fixed to one side of the tub.

[0088] In addition, a clothing processing device is provided that includes a plurality of partitions extending in the longitudinal direction of the second duct inside the second duct.

[0089] In addition, the above-mentioned plurality of partitions are provided to be spaced apart from each other by a predetermined distance, thereby providing a clothing processing device.

[0090] Additionally, a clothing processing device is provided in which air guided through the first impeller is introduced between the first and second partitions adjacent to each other among the plurality of partitions, and air is guided toward the second impeller between the second and third partitions adjacent to each other among the plurality of partitions.

[0091] In addition, the above plurality of partitions provide a clothing processing device configured such that the inner air and the outer air do not mix.

[0092] Additionally, a clothing processing device is provided such that the flow path between the first and second partitions is connected to the first blower housing, and the flow path between the second and third partitions is connected to the second blower housing.

[0093] Additionally, the present invention provides a clothing processing device comprising a blower motor housing that accommodates the blower motor, wherein the second blower housing is provided below the blower motor housing, the first blower housing is provided below the second blower housing, and air is guided to the second blower housing through the blower motor housing.

[0094] In addition, the garment processing device provides condensation generated as air flows through the second duct, which is discharged from the lower side of the tub.

[0095] Additionally, the induction module comprises a base housing provided on the circumferential surface of the tub to accommodate the coil on its upper surface, and a module cover coupled to the base housing on the upper side of the coil, wherein the module cover has a module cooling duct connection portion formed therein through which air guided by the module cooling duct is introduced, thereby providing a garment processing device. Effects of the invention

[0096] According to at least one of the embodiments of the present disclosure, heating for washing or heating for drying is possible without directly heating the washing water, so that energy efficiency can be excellent.

[0097] In addition, since the drum is heated directly rather than the washing water, heat loss during heating for washing is minimized, and washing or drying times can be shortened through rapid heating.

[0098] In addition, a channel is provided to cool the heat transfer module, which can prevent overheating.

[0099] In addition, air is guided by a single blower in the module cooling ducts and circulation channels, which ensures space utilization and can lower manufacturing costs. Brief explanation of the drawing

[0101] FIG. 1 is a perspective view of a clothing processing device according to one embodiment. FIG. 2 is a cross-sectional view of a clothing processing device according to the present embodiment. FIG. 3 is an exploded view of the induction module of the clothing processing device according to the present embodiment. Figure 4 is a drawing showing an induction module. FIGS. 5 and 6 are internal perspective views of a clothing processing device according to the present embodiment. FIG. 7 is a drawing showing the chamber illustrated in FIG. 6. FIG. 8 is a drawing showing the interior of the blower unit of the clothing processing device according to the present embodiment. FIG. 9 is a side view and a plan view of the blower unit of the clothing processing device according to the present embodiment. Specific details for implementing the invention

[0102] Hereinafter, embodiments disclosed in this specification will be described in detail with reference to the attached drawings. Identical or similar components regardless of drawing symbols are given the same reference number, and redundant descriptions thereof will be omitted.

[0103] The suffixes "module" and "part" used for components in the following description are assigned or used interchangeably solely for the ease of drafting the specification, and do not inherently possess distinct meanings or roles.

[0104] In addition, when describing the embodiments disclosed in this specification, if it is determined that a detailed description of related prior art could unnecessarily obscure the essence of the embodiments disclosed in this specification, such detailed description is omitted. Furthermore, the attached drawings are intended only to facilitate understanding of the embodiments disclosed in this specification, and the technical concept disclosed in this specification is not limited by the attached drawings; it should be understood that they include all modifications, equivalents, and substitutions that fall within the concept and technical scope of this disclosure.

[0105] Terms including ordinal numbers, such as first, second, etc., may be used to describe various components, but said components are not limited by said terms. These terms are used solely for the purpose of distinguishing one component from another.

[0106] When it is stated that one component is "connected" or "connected" to another component, it should be understood that while it may be directly connected or connected to that other component, there may also be other components in between. On the other hand, when it is stated that one component is "directly connected" or "directly connected" to another component, it should be understood that there are no other components in between.

[0107] Singular expressions include plural expressions unless the context clearly indicates otherwise.

[0108] Furthermore, for the convenience of explanation, each drawing is described, but it is also within the scope of the present invention that a person skilled in the art combines at least two drawings to implement other embodiments.

[0110] FIG. 1 is a perspective view of a clothing processing device according to one embodiment, and FIG. 2 is a cross-sectional view of a clothing processing device according to the present embodiment.

[0111] A garment processing device according to one embodiment of the present disclosure may include a cabinet (1) forming an exterior, a tub (2) provided inside the cabinet, and a drum (3) rotatably provided inside the tub (2) and receiving an object (e.g., a garment to be washed, a garment to be dried, or a garment to be refreshed). For example, when a garment is washed with washing water, it may be referred to as a garment to be washed; when a wet garment is dried using heat, it may be referred to as a garment to be dried; and when a dry garment is refreshed using hot air, cold air, or steam, it may be referred to as a garment to be refreshed. Accordingly, washing, drying, or refreshing of the garment can be performed through the drum (3) of the garment processing device.

[0112] The cabinet (1) may include a cabinet opening provided at the front of the cabinet (1) through which an object enters and exits, and the cabinet (1) may be provided with a door (12) rotatably mounted on the cabinet to open and close the input opening.

[0113] The above door (12) may consist of an annular door frame (121) and a viewing window (122) provided in the center of the door frame.

[0114] Here, to help understand the detailed structure of the clothing processing device to be described below, the direction facing the door (12) relative to the center of the cabinet (1) can be defined as the front.

[0115] Additionally, the direction opposite to the direction facing the door (12) can be defined as Rear, and the Right and Left directions can be naturally defined in dependence on the front and rear directions defined above.

[0116] The tub (2) is provided in a cylindrical shape with a longitudinal axis parallel to or maintaining 0 to 30° with the bottom surface of the cabinet to form a space in which water can be stored, and has a tub opening (21) at the front to communicate with the inlet.

[0117] The tub (2) can be fixed to the lower surface (bottom surface) of the cabinet (1) by a lower support member (13) including a support bar (13a) and a damper (13b) connected to the support bar (13a), and accordingly, vibrations generated in the tub (2) by the rotation of the drum (3) can be dampened.

[0118] Additionally, an elastic support member (14) fixed to the upper surface of the cabinet (1) may be connected to the upper surface of the tub (2), and this may also serve to dampen vibrations generated in the tub (2) and transmitted to the cabinet (1).

[0119] The drum (3) is provided in a cylindrical shape with a longitudinal axis parallel to or maintaining an angle of 0 to 30° with respect to the bottom surface of the cabinet to accommodate an object, and a drum opening (31) communicating with the tub opening (21) may be provided at the front. The angle formed by the central axes of the tub (2) and the drum (3) with respect to the bottom surface may be the same.

[0120] Additionally, the drum (3) may include a plurality of through holes (33) provided to penetrate the outer surface. Air and washing water may enter and exit between the inside of the drum (3) and the inside of the tub (4) through the through holes (33).

[0121] A lifter (35) for stirring an object when the drum (3) rotates may be further provided on the inner surface of the drum (3), and the drum (3) may be rotated by a driving unit (6) provided at the rear of the tub (2).

[0122] The above drive unit (6) may be provided with a stator (61) fixed to the back surface of the tub (2), a rotor (63) that rotates by electromagnetic action with the stator, and a rotating shaft (65) that passes through the back surface of the tub (2) and connects the drum (3) and the rotor (63).

[0123] The stator (61) may be fixed to the rear surface of a bearing housing (66) provided on the back surface of the tub (2), and the rotor (63) may consist of a rotor magnet (632) provided on the radially outer side of the stator and a rotor housing (631) connecting the rotor magnet (632) and a rotation axis (65).

[0124] The bearing housing (66) may be equipped with a plurality of bearings (68) that support a rotating shaft (65) inside.

[0125] Additionally, a spider (67) that facilitates the transmission of rotational power of the rotor (63) to the drum (3) may be provided on the back surface of the drum (3), and the rotation shaft (65) that transmits rotational power of the rotor (63) may be fixed to the spider (67).

[0126] Meanwhile, a clothing processing device according to one embodiment of the present disclosure may further include a water supply hose (51) that receives water from the outside, and the water supply hose (51) forms a flow path that supplies water to the tub (2).

[0127] Additionally, a gasket (4) may be provided between the inlet of the cabinet (1) and the tub opening (21). The gasket (4) serves to prevent water inside the tub (2) from leaking into the cabinet (1) and to prevent vibrations of the tub (2) from being transmitted to the cabinet (1).

[0128] Meanwhile, a clothing processing device according to one embodiment of the present invention may further include a drainage unit (52) for discharging water inside the tub (2) to the outside of the cabinet (1).

[0129] The above drainage section (52) may include a drain pipe (522) that forms a drainage channel for water to move inside the tub (2) and a drainage pump (521) that drains through the drain pipe (522). The drainage pump (521) can generate a pressure difference inside the drain pipe (522) to discharge water inside the tub (2) to the outside.

[0130] More specifically, the drain pipe (522) may include a first drain pipe (522a) connecting the lower surface of the tub (2) and the drain pump (521), and a second drain pipe (522a) having one end connected to the drain pump (521) to form a path for water to move outside the cabinet (1).

[0131] A clothing processing device according to one embodiment of the present disclosure may further include an induction module (8) for heating the drum (3). The induction module (8) can induction heat the drum (3). Hereinafter, the induction module (8) may also be referred to as an induction heater (8).

[0132] The induction module (8) can be mounted on the circumferential surface of the tub (2). The induction module (8) can generate a magnetic field by applying current to a coil wound with a wire. The induction module (8) inductively heats the circumferential surface of the drum (3) through the magnetic field. When the induction module is operated, the outer surface of the drum facing the induction module (8) can be heated to a very high temperature in a very short time.

[0133] The above induction module (8) can be controlled by a module control unit (86) fixed to the cabinet (1) or tub (2). The module control unit (86) can control the temperature inside the tub by controlling the operation of the induction module (8). The module control unit (86) may include a processor that controls the operation of the clothing processing device. The module control unit (86) may include an inverter processor that controls the induction module (8). That is, the operation of the clothing processing device and the operation of the induction module (8) can be controlled through a single processor.

[0134] The processor controlling the induction module (8) and the processor controlling other components of the garment processing device may be provided separately. The processor controlling the induction module (8) and the processor controlling other components may be connected to each other via communication. Accordingly, the efficiency of control can be improved and the processor can be prevented from overloading.

[0135] A temperature sensor (95) may be provided inside the tub (2). The temperature sensor (95) may be connected to the control unit (9) to transmit internal temperature information of the tub (2) to the control unit (9). In particular, it may be provided to sense the temperature of washing water or humid air. Therefore, it can be referred to as a washing water temperature sensor.

[0136] The temperature sensor (95) may be provided near the bottom of the tub. Thus, the temperature sensor (95) may be located lower than the bottom of the drum. FIG. 2 illustrates a temperature sensor (95) provided so that it is in contact with the bottom surface of the tub. However, it may be provided at a certain distance from the bottom surface. Accordingly, the washing water or air surrounds the temperature sensor, allowing the temperature of the washing water or air to be measured accurately.

[0137] The temperature sensor (95) may be mounted by penetrating from the bottom to the top of the tub, but may also be mounted by penetrating from the front to the rear of the tub. That is, it may be mounted by penetrating the front surface (the surface forming the tub opening) rather than the circumferential surface of the tub.

[0138] Accordingly, when the garment processing device heats the washing water through the induction module (8), it can detect whether the washing water has been heated to a target temperature using a temperature sensor. Based on the detection result of this temperature sensor, the operation of the induction module can be controlled.

[0139] Additionally, when all the washing water has been drained, the temperature sensor (95) can detect the temperature of the air. Remaining washing water or cooling water may be present at the bottom of the tub. The temperature sensor (95) can sense the temperature of the humid air.

[0140] A clothing processing device according to one embodiment of the present disclosure may include a drying temperature sensor (96). The location of the drying temperature sensor (96) may be different from the location of the temperature sensor (95) described above. The temperature measurement target of the drying temperature sensor (96) may be different from the temperature measurement target of the temperature sensor (95) described above.

[0141] The above drying temperature sensor (96) can detect the temperature of the air heated through the induction module (8). That is, the drying temperature sensor (96) can detect the drying temperature. The drying temperature sensor (96) can detect whether the air has been heated to a target temperature. Based on the detection result of this drying temperature sensor, the operation of the induction module (8) can be controlled.

[0142] The above drying temperature sensor (96) may be located on the upper part of the tub (2). The drying temperature sensor (96) may be provided near the induction module (8). The drying temperature sensor (96) may be provided on the inner side of the tub (2) away from the projection plane of the induction module (8). The drying temperature sensor (96) may detect the temperature of the circumferential surface of the drum (3) facing the drying temperature sensor (96). The above-mentioned temperature sensor (95) is provided to detect the temperature of the surrounding water or air, and the drying temperature sensor (96) may be provided to detect the temperature of the drum or the temperature of the drying air around the drum.

[0143] Since the above drum (3) is a rotating configuration, the temperature of the air near the outer surface of the drum (30) can be detected indirectly to detect the temperature of the circumferential surface of the drum.

[0144] The above temperature sensor (95) can determine whether to continue operating the induction module until the target temperature or to vary the output of the induction module. The above drying temperature sensor (96) can determine whether the drum is overheated. If the module control unit (86) determines that the drum is overheated, it can forcibly stop the operation of the induction module.

[0145] A garment processing device according to one embodiment of the present disclosure may have a drying function. In this case, the garment processing device according to one embodiment of the present disclosure may be referred to as a dryer and washing machine.

[0146] The above clothing processing device can dry an object by cooling the air on the inner surface of the tub and discharging condensed moisture to the outside. Alternatively, it can dry an object by discharging humid air inside the tub to the outside and sucking in dry air.

[0147] In other words, drying can be performed through self-condensation of moisture even without air circulation. Cooling water can be supplied into the tub to perform moisture condensation more effectively and enhance drying efficiency. Drying efficiency can be improved as the surface area where the cooling water meets the tub—that is, the surface area where the cooling water contacts the air—is larger.

[0148] Cooling water can be supplied by spreading widely from the back, one side, or both sides of the tub. Through this supply of cooling water, the cooling water flows along the inner surface of the tub, preventing it from entering the drum.

[0149] At this time, there is no need to provide a separate heater for drying. That is, drying can be performed using an induction module (8). In other words, through a single induction module, heating of the washing water during washing, heating of the object during spin-drying, and heating of the object during drying can all be performed.

[0150] When the drum (3) is driven and the induction module (8) is driven, the entire circumferential surface of the drum can be heated. The heated drum exchanges heat with the wet laundry, thereby heating the laundry. Of course, the air inside the drum can also be heated. Therefore, when air is supplied into the interior of the drum (3), the air that has exchanged heat and evaporated moisture can be discharged to the outside of the drum (3).

[0151] The air supply location and the air discharge location can be determined so that heated air is evenly supplied to the object to be dried and humid air is smoothly discharged. Air can be supplied from the front upper part of the drum (3) and discharged through the rear lower part of the drum (3), that is, the rear lower part of the tub.

[0152] A detailed explanation of this will be provided later.

[0153] Therefore, since the air itself is not heated directly, the temperature of the heated air can be lower than that of a conventional heater dryer. Consequently, one can expect the effect of preventing damage or deformation of clothing caused by high temperatures.

[0154] Furthermore, as described above, the induction module is driven along with the driving of the drum, and the clothing repeatedly rises and falls as the drum is driven, and since the heating position of the drum is the upper part rather than the lower part of the drum, overheating of the clothing can be effectively prevented.

[0155] The above clothing processing device may be equipped with a control panel (92). The control panel (92) may be provided on the front or top surface of the clothing processing device. The control panel (92) may provide a user interface. Various inputs by the user may be performed through the control panel (92). Various information of the clothing processing device may be displayed on the control panel (92). That is, an operation section for operation by the user and a display section for displaying information to the user may be provided on the control panel (92).

[0157] FIG. 3 is an exploded view of the induction module of a clothing processing device according to the present embodiment.

[0158] Hereinafter, the induction module of the clothing processing device according to the present embodiment will be described in detail with reference to FIG. 3.

[0159] A clothing processing device according to one embodiment of the present disclosure may be equipped with an induction module (8) that induction heats a drum (3). The induction module (8) can heat the drum (3) to heat the washing water. The induction module (8) can heat the drum (3) to dry the laundry. The principle by which the induction module (8) heats the drum (3) is as follows.

[0160] The induction module (8) can be mounted on the outer surface of the tub (2). The induction module (8) can generate a magnetic field by applying current to a coil (81) on which a wire is wound. The induction module (8) can heat the circumferential surface of the drum (3) through the generated magnetic field. The wire may include a core wire and a coating that wraps around the core wire. The core wire may be a single core wire. Of course, multiple core wires may be intertwined to form a single core wire. The thickness or diameter of the wire may be determined by the thickness of the core wire and the coating.

[0161] When an alternating current with changing phase flows through the coil (81) wound with the above wire, the coil (81) forms a radial alternating magnetic field according to Ampere's circuit law.

[0162] The above alternating magnetic field is concentrated toward a drum (metal material) made of a conductor with high permeability. The above magnetic permeability refers to the degree to which a medium is magnetized in response to a given magnetic field. At this time, according to Faraday's law of induction, an eddy current is formed in the drum (3). The eddy current flows along the drum (3) made of a conductor and is converted into Joule heat by the resistance of the drum (3) itself, thereby directly heating the inner wall of the drum (3).

[0163] When the inner wall of the drum (3) is directly heated, the temperature of the air inside the drum (3) and the temperature of the laundry in contact with the inner wall of the drum (3) rise together. Therefore, since direct heating of the laundry is possible, faster drying is possible compared to a drying device that uses only an indirect heating method, such as a hot air drying method or a low-temperature dehumidification drying method.

[0164] In the case of a garment processing device with a washing function, the washing water can be heated without the need for separate heating wires and water passages. Since the washing water continuously comes into contact with the inner and outer walls of the drum (3) heated to a high temperature, it is not necessary to form separate water passages and heating wires in the lower part of the tub. According to the method described above, faster heating of the washing water is possible compared to the method of forming separate water passages and heating wires in the lower part of the tub and using them for heating.

[0165] The induction module (8) according to the present embodiment may include a coil (81), a base housing (82), and a module cover (83).

[0166] The induction module (8) is provided on the outer surface of the tub (2) and can heat the drum (3) through a magnetic field generated by applying current to the coil (81).

[0167] The base housing (82) may be provided on the outer surface of the tub (2) at a predetermined distance apart.

[0168] The base housing (82) can accommodate and support the wound coil (81). The base housing (82) may have a shape corresponding to the outer surface (or circumferential surface) of the tub (2). The base housing (82) and / or the induction module (8) may be spaced apart from the tub (2) at a constant distance.

[0169] Thus, the amount of magnetic field transmitted through the base housing (82) does not vary depending on the position, so the drum (3) can be heated uniformly.

[0170] The tub (2) may include a tub connection part (22). The tub connection part (22) can secure the induction module (8) to the circumferential surface of the tub (2). The base housing (82) and the tub (2) may be spaced apart by the length of the tub connection part (22).

[0171] The base housing (82) may include a housing connection part (821) provided at a position corresponding to the tub connection part (22). The tub connection part (22) and the housing connection part (821) are combined so that the induction module (8) can be fixed to the outer surface of the tub (2).

[0172] The coil (81) may be wound and provided in the base housing (82). The coil (81) may be wound along the upper surface of the base housing (82). The size of the wound coil (81) may be equal to or smaller than the length of the tub (2) in the longitudinal direction of the tub (2).

[0173] This prevents other parts within the clothing processing device from heating up.

[0174] However, if it is provided to be excessively shorter than the length of the tub (2), effective heat transfer may be difficult, so it may be wound so as to be positioned close to the front surface of the tub (2) and the rear surface of the tub (2).

[0175] The module cover (83) can cover the upper side of the coil (81). The module cover (83) can have a shape corresponding to the base housing (82). The module cover (83) can be combined with the base housing (82).

[0176] The module cover (83) may be provided with a cooling channel connection part (832) that communicates with the module cooling duct (755) described later. Although the drawing shows the cooling channel connection part (832) positioned at the center of the module cover (83), it is not limited thereto.

[0177] That is, depending on the structure in which air is discharged from the induction module (8), the cooling channel connection (832) can be formed at various locations.

[0179] Figure 4 is a drawing showing an induction module.

[0180] Referring to FIG. 4, the induction module (8) may further include a permanent magnet (84) and a permanent magnet housing (85) that accommodates the permanent magnet (84). A module cover (83) may be attached to the top of the permanent magnet housing (85).

[0181] The induction module (8) may include a base housing (82) that accommodates a coil (81), a permanent magnet housing (85) that accommodates a permanent magnet (84), and a module cover (83) that covers the permanent magnet housing (85) to prevent the permanent magnet (84) from being removed.

[0182] The above permanent magnet (84) can serve as a blocking member. The permanent magnet (84) can prevent other components in the surrounding area, other than the drum (3), from being heated. The permanent magnet (84) can increase heating efficiency by concentrating the magnetic field generated from the coil (81) toward the drum.

[0183] The base housing (82) may be provided in a roughly rectangular shape. The rectangular shape preferably means a rectangular or oblong shape. A coil (81) is accommodated in the upper part of the base housing (82).

[0184] A base connecting part (821) is provided at the corner portion of the base housing (82), and it is preferable that the base connecting part (821) protrudes outward from the corner portion. In addition, a ring (823) to which a hook (856) of a permanent magnet housing (85) is coupled is provided at the edge of the base housing (82). It is preferable that a total of four rings (823) are provided, with two on each side of the long side portion of the base housing (82).

[0185] Meanwhile, it is preferable that the permanent magnet housing (85) be provided with a shape corresponding to the shape of the base housing (82). Accordingly, the permanent magnet housing (85) may be provided with a rectangular or oblong shape.

[0186] The permanent magnet housing (85) is provided with a mounting portion (853) in which a permanent magnet (84) is installed. Additionally, since the permanent magnet housing (85) is preferably composed of a single part, it is preferable to provide a connecting portion (854) that connects multiple mounting portions (853). The connecting portion (854) can be opened vertically. The connecting portion (854) can discharge heat generated from the coil (81).

[0187] Multiple mounting portions (853) may be provided, and it is preferable that they be provided radially in the direction of the edge near the center of the base housing (82). Since the mounting portion (853) is the part where the permanent magnet (84) is seated, it is preferable that it be a shape corresponding to the permanent magnet (84), that is, a narrow rectangular shape.

[0188] More specifically, the mounting portion (853) may include a long side mounting portion (853a), a short side mounting portion (853b), and a corner mounting portion (853c). Two long side mounting portions (853a) may be provided on each side approximately near the center of the long side of the base housing (82). Two short side mounting portions (853b) may be provided on each side approximately near the center of the short side of the base housing (82). Four corner mounting portions (853c) may be provided from the center of the base housing (82) toward the corners.

[0189] The penetration portion (855) may be provided to open vertically the space between the mounting portion (853) and the adjacent mounting portion (853), for example, in a part where the mounting portion (853) is not provided. That is, it is preferable for the penetration portion (855) to be provided in a shape corresponding to the shape of the space between the mounting portion (853) and the adjacent mounting portion. In addition, since the penetration portion (855) can function to discharge heat generated from the coil (81), it is preferable for it to have as large an area as possible to maintain the strength of the permanent magnet housing (85).

[0190] If high-temperature heat is applied to the permanent magnet (84), the atoms move in a disordered manner and lose their magnetism, which may lead to a problem of weakened durability of the induction module (8).

[0191] Therefore, by cooling the heat generated in the induction module through the cooling channel structure of the duct described above, it is possible to prevent the durability of the induction module from being weakened.

[0192] Meanwhile, a mounting connection part (851) is provided at the corner portion of the permanent magnet housing (85), and it is preferable that the mounting connection part (851) protrudes outward from the corner portion.

[0193] A hook (856) extending downward is provided on the edge of the permanent magnet housing (85), and the hook (856) is inserted and coupled to a ring (823) of the base housing (82). Additionally, a groove (855a) is provided at a predetermined location inside the permanent magnet housing (85), and the groove (855a) is coupled to a coupling part (833) (or hook) of the module cover (83).

[0194] Meanwhile, it is preferable that the shape of the module cover (83) corresponds approximately to the shape of the permanent magnet housing (85). For example, it is preferable that the module cover (83) has a rectangular shape. A through-hole (835) is provided in the center of the module cover (83), and outside air may be introduced or heat generated from the coil may be discharged through the through-hole (835).

[0195] A cover connection part (831) is provided at the corner portion of the module cover (83), and it is preferable that the hole of the cover connection part (831) be an elongated hole. A hook (833) that engages with the groove (855a) of the permanent magnet housing (85) is provided at the bottom of the module cover (83).

[0196] That is, the induction module (8) can be provided in such a way that the base connection part (821) of the base housing (82), the mounting connection part (851) of the permanent magnet housing (85), and the cover connection part (831) of the module cover (83) are connected.

[0198] FIGS. 5 and 6 are internal perspective views of a garment processing device according to the present embodiment. Specifically, FIG. 5 is a front perspective view showing a tub and duct structure, and FIG. 6 is a rear perspective view of the tub and duct structure viewed from the rear.

[0199] The following description refers to FIGS. 5 and 6.

[0200] The clothing processing device according to the present embodiment may be equipped with a circulation channel (C1) and a cooling channel (C2).

[0201] Specifically, the clothing processing device according to the present embodiment may include a first duct (71) and a chamber (72). Hereinafter, the chamber (72) is also referred to as the second duct (72).

[0202] The first duct (71) may be in communication with the tub (2). The first duct (71) may be in communication with the front side of the tub (2). The first duct (71) may be in communication with the gasket (4) or the upper side of the front surface of the tub (2) and may extend to the rear side of the tub (2).

[0203] That is, the first duct (71) can be extended from the front side of the tub (2) toward the rear side at the upper side of the tub (2).

[0204] The first duct (71) may include an inlet (711) connected to a tub (2) or a gasket (4). The inlet (711) may be provided in various forms depending on the method of connection.

[0205] That is, in FIG. 2 and FIG. 5, the inlet section (711) is shown to be connected to the gasket (4) and is provided to extend radially in the tub (2), and the first duct (71) is shown to extend to the rear side of the tub (2), but it is not limited thereto.

[0206] The second duct (72) may be in communication with the tub (2). The second duct (72) may be in communication with the rear of the tub (2). The second duct (72) may be extended along the rear surface of the tub (2). The second duct (72) may be in communication with the interior of the tub (2) at the rear lower side of the tub (2). The second duct (72) may be extended upward along the rear surface of the tub (2).

[0207] As described below, heat exchange may occur within the second duct (72). One end of the second duct (72) may be connected to the rear lower side of the tub (2). By ensuring that the second duct (72) extends upward along the rear surface of the tub (2), the heat exchange efficiency can be improved.

[0208] The first duct (71) and the second duct (72) can provide the aforementioned circulation path.

[0209] According to the present embodiment, the clothing processing device may include a blower unit (75). The blower unit (75) may circulate air in the first duct (71) and the second duct (72).

[0210] The blower unit (75) may include a first impeller (751), a second impeller (752), and a blower unit motor (753).

[0211] The blower unit (75) may include a blower housing (750) that accommodates a first impeller (751) and a second impeller (752). The blower housing (750) may accommodate a blower motor (753).

[0212] The blower motor (753) can be mounted in the blower housing (750). The blower motor (753) can be accommodated in the blower housing (750).

[0213] Referring to FIGS. 6 and FIGS. 9, the blower housing (750) may include a first blower housing (750a), a second blower housing (750b), and a third blower housing (750c).

[0214] The blower housing (750) may be positioned on the circulation channel (C1) and the cooling channel (C2). The blower housing (750) may be positioned on the circulation channel (C1) and the cooling channel (C2) to provide a space through which air within the circulation channel (C1) and the cooling channel (C2) can move.

[0215] Specifically, it can be configured to form a part of the circulation path (C1) and simultaneously form a part of the cooling path (C2).

[0216] That is, the first blower housing (750a), the second blower housing (750b), and the third blower housing (750c) may each be provided to form a part of the blower housing (750).

[0217] The first blower housing (750a) provides a space to accommodate the first impeller (751) and may be configured to connect the first duct (71) and the second duct (72).

[0218] The second blower housing (750b) provides a space to accommodate the second impeller (752) and may be configured to connect the second duct (72) and the module cooling duct (755). Hereinafter, the module cooling duct (755) is also referred to as the first cooling duct (755).

[0219] The second blower housing (750b) may be provided to connect the second duct (72) and the module control unit (86). The second blower housing (750b) may be connected to the module control unit (86) through the second cooling duct (757).

[0220] The second blower housing (750b) can be connected to at least one of the module cooling duct (755) and the module control unit (86). That is, the second blower housing (750b) can cool at least one of the module cooling duct (755) and the module control unit (86).

[0221] The third blower housing (750c) may be provided to accommodate a blower motor (753). The third blower housing (750c) may be provided so that air introduced from the second duct (72) can be guided to the induction module (8).

[0222] That is, the second blower housing (750b) and the third blower housing (750c) may be provided to be connected. According to the present embodiment, the third blower housing (750c) and the first blower housing (750a) may also be provided to be connected.

[0223] The first impeller (751) may be provided as a rotating body that rotates to allow air to flow within the circulation path (C1).

[0224] Specifically, the first impeller (751) is rotated by a blower motor (753) and can blow air from the first duct (71) into the second duct (72). That is, air from the tub (2) is introduced into the first duct (71) by the rotation of the first impeller (751), and air passing through the first duct (71) can be introduced into the second duct via the first impeller (751).

[0225] That is, a first blower housing (750a) is provided between the first duct (71) and the second duct (72) to connect the first duct (71) and the second duct (72).

[0226] That is, the circulation path (C1) may include a tub (2), a first duct (71), a first blower housing (750a), and a second duct. That is, air inside the tub (2) can be discharged through the first duct (71), flow into the second duct (72) after passing through the first blower housing (750a), and then heat exchanged within the second duct (72) to remove condensate before being reintroduced into the tub (2).

[0227] A second impeller (752) may be provided to cool the induction module (8) by blowing air through the cooling channel (C2).

[0228] Specifically, the second impeller (752) can be housed in the second blower housing (750b). The second blower housing (750b) can be connected to the second duct (72). That is, the second impeller (752) is housed in the second blower housing (750b) and can blow air between the second duct (72) and the induction module (8) to cool the induction module (8).

[0229] One side of the second blower housing (750b) is connected to the second duct (72) so that cold air rising from the bottom of the second duct (72) can be blown to the induction module (8). That is, at least one discharge port may be formed in the second blower housing (750b). If two discharge ports are formed in the second blower housing (750b), the induction module (8) and the module control unit (86) controlling the induction module (8) can be cooled. If three or more discharge ports are formed in the second blower housing (750b), cold air can be blown not only to the induction module (8) and the module control unit (86) but also to components requiring separate cooling.

[0230] FIG. 7 is a drawing showing the chamber illustrated in FIG. 6, where (a) is a rear view of the chamber (72) and (b) is a cross-sectional view of the chamber (72).

[0231] Referring to FIGS. 6 and 7, a circulation channel (C1) and a cooling channel (C2) may be provided inside the chamber (72). Hereinafter, the circulation channel (C1) is referred to as the first channel (C1) and the cooling channel (C2) as the second channel (C2).

[0232] The chamber (72) includes a first inlet (725) communicating with the outlet of the first duct (71) and a first outlet (726) communicating with the internal space of the tub (2) (or drum (3)). The chamber (72) includes a second inlet (722) communicating with the external space of the tub (2) (or drum (3)) and a second outlet (723) communicating with the housing (82, 83) of the induction heater (8).

[0233] The first flow path (C1) can connect the outlet of the first duct (71) to the tub (2) (or drum (3)). The first flow path (C1) connects the first inlet (725) and the first outlet (726). The first inlet (725) can be called the circulation flow path inlet, and the first outlet (726) can be called the circulation flow path outlet.

[0234] The second flow path (C2) can connect the outside of the tub (2) (or drum (3)) to the induction heater (8). The second flow path (C2) connects the second inlet (722) and the second outlet (723). The second inlet (722) can be called the cooling flow path inlet, and the second outlet (723) can be called the cooling flow path outlet.

[0236] The chamber (72) may extend along the radial direction of the tub (2) (or drum (3)). The chamber (72) may extend in the vertical direction.

[0237] The first inlet (725) may be located at the top of the chamber (72). The first outlet (726) may be located at the bottom of the chamber (72). The first outlet (726) may be located below the partition wall (73).

[0238] A condensate discharge channel (722) may be provided at the bottom of the chamber (72). The condensate discharge channel (722) may be located below the first outlet (726).

[0239] The second inlet (722) may be located at the bottom of the chamber (72). The second outlet (723) may be located at the top of the chamber (72). The second outlet (723) may be located above the partition wall (73).

[0240] The chamber (72) may include a first surface facing the tub (2) (or, drum (3)). The chamber (72) may include a second surface facing in the opposite direction of the tub (2) (or, drum (3)).

[0241] A second entrance may be formed on a second surface. A first entrance may be formed on a first surface. A first exit may be formed on a first surface. A second exit may be formed on a first surface.

[0242] A partition wall (73) may be provided within the chamber (72). The partition wall (73) may be provided within the chamber (72) to partition the aforementioned circulation path (C1) and cooling path (C2) from each other.

[0243] Furthermore, since multiple partitions (73) can be provided in the chamber (72), air can flow between the spaces where the partitions (73) are arranged.

[0244] The partition (73) divides the first flow path (C1) and the second flow path (C2) inside the chamber (72).

[0245] The partition (73) can be extended along the length of the chamber (72).

[0246] The partition wall (73) may include a first length portion (731) extending in the longitudinal direction of the chamber (72), a first width portion (736) extending in the width direction of the chamber (72) from the first length portion (731), and a second length portion (732) extending in the longitudinal direction of the chamber (72) from the first width portion (736) and facing the first length portion (731).

[0247] The partition (73) may include a second width portion (737) extending in the width direction of the chamber (72) from the second length portion (732). The second width portion (737) may extend at a position opposite to the first width portion (731) of the second length portion (732).

[0248] The partition (73) may include a third length portion (733) extending in the longitudinal direction of the chamber (72) from the second width portion (737). The third length portion (733) may face the second length portion (732).

[0249] The partition wall (73) may have a shape in which the first length portion (731), the first width portion (736), the second length portion (732), and the second width portion (737) are repeated. That is, the third length portion (733) may be called the first length portion (731) and may have a repeating shape.

[0250] The first length portion (731) and the second length portion (732) may face each other. The first length portion (731) and the second length portion (732) may be spaced apart from each other in the width direction of the chamber (72).

[0251] The second length portion (732) and the third length portion (733) may face each other. The second length portion (732) and the third length portion (733) may be spaced apart from each other in the width direction of the chamber (72).

[0252] The first to third length portions (721, 722, 723) may be arranged sequentially along the width direction of the chamber (72).

[0253] The first inlet (725) may be located between the first length portion (731) and the second length portion (722). The first inlet (725) may be positioned adjacent to the first width portion (736). The first inlet (725) may be formed on the first surface of the chamber (72).

[0254] The second inlet (722) may be located between the second length portion (732) and the third length portion (733). The second inlet (722) may be positioned adjacent to the second width portion (737). The second inlet (722) may be formed on the second surface of the chamber (72).

[0256] Additionally, the first blower housing (750a), the second blower housing (750b), and the third blower housing (750c) described above are shown as separate housings, but are not limited thereto.

[0257] That is, the first blower housing (750a), the second blower housing (750b), and the third blower housing (750c) may be formed integrally. However, it is preferable that the first blower housing (750a) and the second blower housing (750b) be provided so that they can be separated in order to distinguish the circulation path (C1) and the cooling path (C2).

[0258] To explain the air flow again, the humid air inside the tub (2) can be guided to the first duct (71) by the blower (75). The humid air guided to the first duct (71) by the rotation of the blower (75), specifically the first impeller (751), passes through the first blower housing (750a) and flows into the chamber (72) through the inlet (725) of the circulation path (C1). The air flowing into the chamber (72) can flow along the circulation path (C1) between the partitions (73). The air flowing along the circulation path (C1) can be introduced into the tub (2) through the outlet (726) of the circulation path (C1).

[0259] When the second impeller (752) rotates, cold air from outside the tub (2) can be introduced into the chamber (72) through the inlet (722) of the cooling channel (C2). The cold air introduced into the chamber (72) can flow between the partitions (73) within the second duct (72). The air flowing between the partitions (73) is introduced into the blower (75) through the outlet (723) of the cooling channel (C2).

[0260] The circulation channel (C1) and the cooling channel (C2) are separated by a partition wall, and humid air flows downward along the circulation channel (C1), and cold air flows upward along the cooling channel (C2). The humid air and the cold air exchange heat with each other through the partition wall (73). As the humid air flows along the circulation channel (C1) and is cooled, condensate may be formed. The condensate may descend to the lower side of the chamber (72) by gravity.

[0261] Condensate can be discharged to the outside of the tub (2) or clothing processing device through the condensate discharge channel (722).

[0262] That is, condensate can be discharged through the aforementioned drain pipe (522). Condensate that has descended to the bottom of the second duct (72) can be discharged through the inside of the tub (2) to the drain pipe through a separate condensate discharge channel (722) or directly to the drain pipe.

[0263] For effective heat exchange, the bulkhead (73) may be provided to have a thinner thickness compared to the second duct (72). This is because as the thickness of the bulkhead (73) increases, the heat exchange efficiency may decrease.

[0265] FIG. 8 is a drawing showing the interior of the blower unit of the clothing processing device according to the present embodiment.

[0266] According to the present embodiment, the first impeller (751) and the second impeller (752) can be rotated by a single blower motor (753).

[0267] As shown in FIG. 8, the blower unit (75) may include a first impeller (751), a second impeller (752), a blower unit motor (753), and a blower unit rotation shaft (754).

[0268] The first impeller (751) and the second impeller (752) may be configured to be rotated by a single blower motor (753). The first impeller (751) and the second impeller (752) may be connected to a blower rotation shaft (754) connected to the blower motor (753).

[0269] The blower unit rotation shaft (754) can be rotated by the blower unit motor (753) and thereby provide driving force to the first impeller (751) and the second impeller (752).

[0270] As described above, air flows through the circulation path (C1) to the front side of the tub (2), the first duct (71), the blower unit (75), and the second duct (72), and air flows through the cooling path (C2) to the rear side of the tub (2), the second duct (72), the blower unit (75), and the induction module (8).

[0271] To reiterate, the above airflow path does not exclude the possibility of separate configurations between each component. Likewise, it is clarified that it does not exclude the possibility of air being branched and flowing into separate components.

[0272] In the circulation path (C1), air is guided from the front to the rear side along the longitudinal direction of the tub (2), and in the cooling path (C2), air is guided from the rear side to the front side along the longitudinal direction of the tub (2).

[0273] The air passing through the circulation path (C1) and the cooling path (C2) is guided by a blower unit (75). However, the blower unit (75) can blow air within the circulation path (C1) and the cooling path (C2) through a single blower unit motor (753). Therefore, the direction of air flow in the circulation path (C1) and the cooling path (C2) may be different.

[0274] The first impeller (751) and the second impeller (752) are rotated by a single blower motor (753). The shapes of the first impeller (751) and the second impeller (752) may differ from each other to create different air flow paths.

[0275] However, the shapes of the first impeller (751) and the second impeller (752) do not always have to be different from each other. That is, even if the first impeller (751) and the second impeller (752) are formed identically, if a separate configuration is provided so that the blower motor (753) can rotate in a direction different from the direction in which it provides driving force, air can be smoothly guided in both the circulation path (C1) and the cooling path (C2).

[0277] FIG. 9 is a side view and a plan view of a blower unit of a clothing processing device according to the present embodiment. FIG. 9(a) is a side view of the blower unit and FIG. 9(b) is a plan view of the blower unit.

[0278] The structure of the blower section will be explained with reference to Figs. 9(a) and 9(b).

[0279] According to the present embodiment, the first duct (71) may be provided to be in communication with the first blower housing (750a). The second duct (72) may be in communication with the first blower housing (750a) forming a circulation path (C1) and the second blower housing (750b) forming a cooling path (C2).

[0280] Specifically, the third blower housing (750c) that accommodates the blower motor (753) is in communication with the second blower housing (750b), and as a result, the air guided to the third blower housing (750c) can be guided to the second blower housing (750b).

[0281] The second duct (72) can be connected to the first blower housing (750a) and the third blower housing (750c) at different locations.

[0282] For example, as illustrated in the drawing, the part where the second duct (72) is connected to the first blower housing (750a) may be located at a relatively lower part than the part where the second duct (72) is connected to the third blower housing (750c).

[0283] As described above, the first impeller (751) and the second impeller (752) may be configured to rotate around the same axis.

[0284] Thus, the first impeller (751) and the second impeller (752) can be rotated by a single blower motor (753).

[0285] In order to rotate the first impeller (751) and the second impeller (752) based on a single rotation axis, the first impeller (751) and the second impeller (752) may be positioned at different heights based on the height direction of the cabinet (1).

[0286] Of course, if the blower unit (75) is configured to be perpendicular to the height direction of the cabinet (1) as shown in the drawing, the first impeller (751) and the second impeller (752) may be located at the same height, but the length of the first duct (71) and the second duct (72) may be increased, resulting in a large amount of dead space within the cabinet (1). However, it goes without saying that it can be sufficiently modified if the size of the cabinet (1) is secured as needed. Below, for a clear understanding of the invention, the description is based on what is shown in the drawing. It is clarified that this does not exclude embodiments that modify matters that can be easily modified by a person skilled in the art.

[0287] That is, the first impeller (751) and the second impeller (752) may be provided to rotate coaxially at different heights. Accordingly, the first duct (71), the first blower housing (750a), the second blower housing (750b), and the third blower housing (750c) may have a structure in which they are stacked sequentially from the bottom with respect to the height direction of the cabinet.

[0288] The second blower housing (750b) may be provided to blow air to a module cooling duct (755) that cools the induction module (8). Additionally, the second blower housing (750b) may be provided to blow air toward a module control unit (86) that controls the operation of the induction module (8).

[0289] The module control unit (86) may be located adjacent to the induction module (8), but may be provided spaced apart as long as it can be electrically connected to the induction module (8).

[0290] Accordingly, the second blower housing (750b) may be configured to communicate with the module control unit (86) at a different location from the part communicating with the module cooling duct (755).

[0291] Thus, the air flowing into the second blower housing (750b) through the second duct (72) can be branched and blown to the induction module (8) and the module control unit (86), respectively.

[0293] Certain embodiments or other embodiments of the disclosure described above are not mutually exclusive or distinct from each other. Any or all elements of the embodiments of the disclosure described above may be combined with another or combined with each other in configuration or function.

[0294] For example, this means that configuration A described in a specific embodiment and / or the drawings may be combined with configuration B described in another embodiment and / or the drawings. In other words, even if the combination between the configurations is not directly described, it means that the combination is possible except in the case where it is described as impossible.

[0295] The foregoing detailed description should not be interpreted restrictively in all respects but should be considered exemplary. The scope of the invention should be determined by a reasonable interpretation of the appended claims, and all modifications within the equivalent scope of the invention are included within the scope of the invention (Although embodiments have been described with reference to a number of illustrative embodiments thereof, it should be understood that numerous other modifications and embodiments can be devised by those skilled in the art that will fall within the scope of the principles of this disclosure. More particularly, various variations and modifications are possible in the component parts and / or arrangements of the subject combination arrangement within the scope of the disclosure, the drawings and the appended claims. In addition to variations and modifications in the component parts and / or arrangements, alternative uses will also be apparent to those skilled in the art).

Claims

Claim 1 A clothing processing device comprising: a cabinet; a drum rotatably provided within the cabinet; an induction heater for heating the drum, the induction heater including a coil and a housing that accommodates the coil and is fixed inside the cabinet on the outside of the drum; a first duct provided outside the drum and having an inlet communicating with the internal space of the drum; a chamber provided outside the drum, the chamber including a first inlet communicating with the outlet of the first duct, a first outlet communicating with the internal space of the drum, a first flow path connecting the first inlet and the first outlet, a second inlet communicating with the external space of the drum, a second outlet communicating with the housing of the induction heater, and a second flow path connecting the second inlet and the second outlet; a partition wall provided inside the chamber and partitioning the first flow path and the second flow path; a first impeller provided in the flow path communicating with the first flow path; and a second impeller provided in the flow path communicating with the second flow path. Claim 2 A garment processing device according to claim 1, further comprising a tub provided within the cabinet and accommodating the drum, wherein the drum comprises a cylindrical body and a through hole formed in the body. Claim 3 In claim 1, the drum has an extended cylindrical shape, and the chamber extends along the radial direction of the drum in a clothing processing device. Claim 4 In claim 3, the above partition is a garment processing device extending in the longitudinal direction of the chamber. Claim 5 In claim 3, the partition wall comprises: a first length portion extending in the longitudinal direction of the chamber; a first width portion extending in the width direction of the chamber from the first length portion; a second length portion extending in the longitudinal direction of the chamber from the first width portion and facing the first length portion; a second width portion extending in the width direction of the chamber at a position opposite to the first width portion of the second length portion and spaced apart from the first width portion in the width direction of the chamber; and a third length portion extending in the longitudinal direction of the chamber from the second width portion and facing the second length portion. Claim 6 A clothing processing device according to claim 5, wherein the first inlet is positioned adjacent to the first width portion between the first length portion and the second length portion, and the second inlet is positioned adjacent to the second width portion between the second length portion and the third length portion. Claim 7 In claim 3, the chamber comprises a first surface facing the drum; and a second surface facing away from the drum, and the second inlet is disposed on the second surface. Claim 8 In claim 3, the drum is opened forward, and the chamber is located at the rear of the drum in a clothing processing device. Claim 9 In claim 3, the first duct is a garment processing device extending along the longitudinal direction of the drum. Claim 10 A garment processing device according to claim 1, wherein the induction heater is located within the length of the drum on the outer side of the drum, and the first duct and the induction heater are arranged along the circumferential direction of the drum. Claim 11 A clothing processing apparatus according to claim 1, further comprising: a first blower housing for accommodating the first impeller; a first blower housing including an inlet connected to the first duct and an outlet connected to the first inlet of the chamber; and a second blower housing connected to the housing of the induction heater and accommodating the second impeller. Claim 12 A clothing processing device according to claim 11, further comprising a third blower housing connecting the second outlet and the inlet of the second blower housing. Claim 13 In claim 12, the first to third blower housings are arranged in order along the radial direction of the drum in a clothing processing device. Claim 14 A clothing processing device according to claim 11, further comprising a control unit for driving the induction heater, wherein the second blower housing comprises: an inlet connected to the second outlet; a first cooling outlet connected to the housing of the induction heater; and a second cooling outlet connected to the control unit. Claim 15 A garment processing device according to claim 1, further comprising a control unit for driving the induction heater, wherein the control unit is located on the opposite side of the induction heater with respect to the first duct. Claim 16 A clothing processing device according to claim 1, wherein the first impeller is configured to generate airflow from the first duct toward the first flow path, and the second impeller is configured to generate airflow from the second flow path toward the housing of the induction heater. Claim 17 A garment processing device according to claim 16, further comprising a motor configured to rotate the first impeller and the second impeller.

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