A drying air duct and a wardrobe fabric treatment device

Abstract

The utility model relates to a kind of drying air flue of wardrobe type fabric processing equipment in the technical field of fabric processing equipment, and drying air flue includes main cavity, multiple first bypass air flue and second bypass air flue, fan is arranged in main cavity;Multiple first bypass air flue is communicated with main cavity;Second bypass air flue is communicated with main cavity;Wherein, first bypass air flue is arranged with first switch valve and first heating part, first switch valve is used to open or shut off first bypass air flue, second bypass air flue is arranged with second switch valve and second heating part, second switch valve is used to connect or shut off second bypass air flue. By being provided with multiple independently openable and closable air flues in drying air flue, drying air can be provided for different fabric storage chambers, and the drying efficiency of fabric is improved while saving energy.

Description

Technical Field

[0001] This utility model relates to the technical field of fabric processing equipment, and in particular to a drying air duct and a wardrobe-style fabric processing equipment. Background Technology

[0002] In the field of fabric processing equipment, after fabrics are washed and dried in a washer-dryer, they are placed in a wardrobe. However, when encountering humid weather, the fabrics stored in the wardrobe will become damp and may even develop mold. Utility Model Content

[0003] The technical problem this invention aims to solve is that in the prior art, after fabrics are washed and dried in a washer-dryer, they are placed in a wardrobe. However, in humid weather, the fabrics stored in the wardrobe become damp and may even develop mold. Therefore, this invention provides a drying duct and a wardrobe-style fabric processing device.

[0004] This utility model aims to provide a drying air duct for a wardrobe-style fabric processing device, comprising: The main cavity is equipped with a fan. Multiple first side ventilation ducts are respectively connected to the main cavity; The second side ventilation duct is connected to the main cavity; The first bypass ventilation duct is provided with a first switch valve and a first heating element. The first switch valve is used to open or close the first bypass ventilation duct. The second bypass ventilation duct is provided with a second switch valve and a second heating element. The second switch valve is used to open or close the second bypass ventilation duct.

[0005] In some embodiments, a first switch damper is provided on the first bypass ventilation duct, and the first switch damper is used to open or block the first bypass ventilation duct from the outside. And / or, a second switch damper is provided on the second bypass ventilation duct, the second switch damper being used to open or block the second bypass ventilation duct from the outside.

[0006] In some embodiments, the first bypass ventilation duct includes a first air inlet section and a first air outlet section communicating with the main cavity. Driven by a fan in the main cavity, air is drawn in from the air inlet of the first air inlet section, heated by the first heating element, and then discharged from the air outlet of the first air outlet section. The second bypass ventilation duct includes a second air inlet section and a second air outlet section that are connected to the main cavity. Driven by a fan in the main cavity, air is drawn in through the air inlet of the second air inlet section, heated by the second heating element, and then discharged through the air outlet of the second air outlet section. The first air inlet section and the first air outlet section are provided with a first switch valve and a first heating element, and the second air inlet section and the second air outlet section are provided with a second switch valve and a second heating element.

[0007] In some embodiments, the drying air duct includes: Controller; The first switching valve and / or the second switching valve include: a servo motor and a valve plate, the output end of the servo motor is connected to the valve plate, the servo motor, the first heating element and the second heating element are all communicatively connected to the controller, and the controller controls the servo motor to drive the valve plate to rotate in order to open or close the first bypass ventilation duct and open or close the second bypass ventilation duct.

[0008] In some embodiments, a wardrobe-style fabric treatment device is provided, comprising: The aforementioned drying air duct; An outer casing, the outer casing having a fabric processing area and a fabric placement area; A fabric processing device is provided in the fabric processing area, and the fabric placement area includes multiple independent fabric storage chambers. Among them, a plurality of first side ventilation ducts correspond one-to-one with a plurality of fabric storage chambers, and the air outlet of the first side ventilation duct is connected to the corresponding fabric storage chamber. The air outlet of the second bypass ventilation duct is connected to the fabric processing cylinder of the fabric processing equipment.

[0009] In some embodiments, partitions are spaced apart in the fabric placement area, and the partitions divide the fabric placement area into a plurality of independent fabric storage chambers; The plurality of fabric storage chambers include: a first storage chamber, a second storage chamber, and a third storage chamber arranged vertically within the outer shell; The first storage chamber is configured to hold outerwear, the second storage chamber is configured to hold underwear, and the third storage chamber is configured to hold shoes and socks; The plurality of first side ventilation ducts are provided in three parts, and the air outlets of the three first side ventilation ducts are respectively connected to the first storage chamber, the second storage chamber and the third storage chamber.

[0010] In some embodiments, a clothes rack is provided at the top of the first storage chamber.

[0011] In some embodiments, the fabric treatment equipment is a twin-drum washer-dryer, with two second side ventilation ducts provided, and the air outlets of the two second side ventilation ducts respectively connected to the two fabric treatment drums of the twin-drum washer-dryer.

[0012] In some embodiments, the outer casing is provided with a first door and a second door. The first door is used to open and close the fabric processing area, and the second door is used to open and close the fabric placement area. The first door is provided with a glass bowl corresponding to the inlet of the twin-drum washer-dryer.

[0013] In some embodiments, a storage slot is provided on the lower side of the glass bowl of the first door body.

[0014] In some embodiments, a control panel and a detergent dispenser are provided on the twin-drum washer-dryer between the two fabric handling drums, and the two fabric handling drums are configured to share the control panel and the detergent dispenser.

[0015] The solution provided by this utility model has the following advantages compared with the prior art: By incorporating multiple independently openable and closable air ducts within the drying duct system, the utilization rate of the internal space of the wardrobe-style fabric processing equipment is improved. This allows for free switching between the drying duct and multiple fabric storage chambers, providing users with a variety of drying options. The drying duct can not only perform conventional drying on washed fabrics but also dry fabrics stored in multiple fabric storage chambers, ensuring that clean fabrics remain clean and dry for an extended period. Furthermore, by controlling the opening and closing of different bypass ducts, the drying duct can independently dry only one fabric storage chamber at a time, allowing users to selectively dry fabrics placed in different storage chambers, rather than drying all fabrics in all storage chambers simultaneously. In addition, this prevents odor transfer between different fabric storage chambers and improves the drying efficiency of the fabrics, providing users with great convenience in accessing their fabrics at any time. Attached Figure Description

[0016] The accompanying drawings, as part of this utility model, are used to provide a further understanding of the present utility model. The illustrative embodiments and descriptions of the present utility model are used to explain the present utility model, but do not constitute an undue limitation of the present utility model. Obviously, the drawings described below are merely some embodiments; those skilled in the art can obtain other drawings based on these drawings without creative effort. In the drawings: Figure 1 This is a main sectional view of the drying air duct shown in an embodiment of the present invention; Figure 2 yes Figure 1 One of the cross-sectional views along the AA direction; Figure 3 This is a top sectional view of the drying air duct shown in an embodiment of the present invention; Figure 4 yes Figure 3 Sectional view along the BB direction; Figure 5 This is a partial schematic diagram of the second air outlet section (valve plate closed) shown in an embodiment of this utility model; Figure 6 This is a partial schematic diagram of the second air outlet section (valve plate open) shown in an embodiment of this utility model; Figure 7 This is a front view of the wardrobe-style fabric processing device (with the first and second doors open) shown in an embodiment of this utility model. Figure 8 yes Figure 7 Sectional view along the AA direction; Figure 9 yes Figure 7 Sectional view along the BB direction; Figure 10 This is an attached view of a wardrobe-style fabric processing device (with the first and second doors in the open state) as shown in an embodiment of this utility model.

[0017] In the diagram: 1-Outer shell, 101-Partition, 1021-First storage chamber, 1022-Second storage chamber, 1023-Third storage chamber, 1024-Clothes hanging rod, 103-Second door, 104-Door handle, 2-Washer dryer, 203-First side wall, 204-Storage slot, 205-First door, 2051-Glass bowl, 3-Control panel, 4-Detergent dispenser, 5-Main chamber, 501-Fan, 6-First side wall Ventilation duct, 601-first air inlet section, 6011-air inlet, 602-first air outlet section, 6021-air outlet, 603-first switch valve, 6031-servo motor, 6032-valve plate, 604-first switch damper, 605-first heating element, 7-second bypass ventilation duct, 701-second air inlet section, 702-second air outlet section, 703-second switch valve, 704-second switch damper, 705-second heating element.

[0018] It should be noted that these accompanying drawings and textual descriptions are not intended to limit the scope of the present invention in any way, but rather to illustrate the concept of the present invention to those skilled in the art by referring to specific embodiments. Detailed Implementation

[0019] In the description of this utility model, it should be noted that the terms "inner" and "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings. They are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0020] In the description of this utility model, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," "linking," "contact," and "communication" should be interpreted broadly. For example, they can refer to fixed connections, detachable connections, or integral connections; they can refer to mechanical connections or electrical connections; they can refer to direct connections or indirect connections through an intermediate medium. Those skilled in the art can understand the specific meaning of the above terms in this utility model based on the specific circumstances.

[0021] After being washed and dried in a washer-dryer, fabrics are placed in a wardrobe. However, when encountering humid weather, the fabrics stored in the wardrobe may become damp or even develop mold.

[0022] Based on this, the following embodiments are proposed.

[0023] Example 1: like Figure 1-4 As shown, this embodiment provides a drying duct for a wardrobe-style fabric processing device. The device includes a fabric processing unit 2 and multiple fabric storage chambers. The drying duct includes a main cavity 5, multiple first side ventilation ducts 6, and a second side ventilation duct 7. A fan 501 is installed inside the main cavity 5, providing continuous airflow to the drying duct. The number of first side ventilation ducts 6 corresponds to the number of fabric storage chambers; each first side ventilation duct 6 corresponds to one fabric storage chamber, and each first side ventilation duct 6 is connected to its corresponding fabric storage chamber and the main cavity 5. The second side ventilation duct 7 is connected to the main cavity 5 and the inner cylinder of the fabric processing unit 2. A first switching valve 603 and a first heating element 605 are installed inside the first side ventilation duct 6, and a second switching valve 703 and a second heating element 705 are installed inside the second side ventilation duct 7. The first switching valve 603 is used to open or close the first side ventilation duct 6, and the second switching valve 703 is used to open or close the second side ventilation duct 7.

[0024] In this embodiment, the fabric processing device 2 of the wardrobe-type fabric processing equipment and multiple fabric storage chambers share the drying air duct, which reduces production costs and improves the utilization rate of the internal space of the wardrobe-type fabric processing equipment. Since the fabric processing equipment 2 shares a fan 501 with multiple fabric storage chambers, if no duct throttle valve is installed, a large amount of drying air from the fabric processing equipment 2 will escape during operation, reducing its drying efficiency. Similarly, the efficiency of the wardrobe-type fabric processing equipment when drying multiple fabric storage chambers will also decrease. Therefore, both the first switch valve 603 and the second switch valve 703 are set as duct throttle valves. When drying the fabric in the inner cylinder of the fabric processing equipment 2, the first switch valve 603 will completely close the first side ventilation duct 6, thereby improving the drying efficiency of the fabric in the inner cylinder of the fabric processing equipment 2. When drying the fabric in the fabric storage chamber, the second switch valve 703 will completely close the second side ventilation duct 7, thereby improving the drying efficiency of the fabric in the fabric storage chamber. In addition, it also allows users to selectively dry fabrics placed in different fabric storage chambers, instead of having to dry all fabrics in all fabric storage chambers at the same time.

[0025] By installing a first switching valve 603 and a second switching valve 703 within the drying air duct, multiple independently openable and closable air ducts can be formed, allowing the drying air to circulate both within the fabric processing equipment 2 and between the first side ventilation duct 6 and any fabric storage chamber. Specifically: When the wardrobe-type fabric processing equipment dries the freshly washed fabric in the fabric processing equipment 2, the equipment stops the first heating element 605 in the first side ventilation duct 6 and shuts off the first side ventilation duct 6 with the first switch valve 603. At this time, the fan 501 starts working and generates drying air between the inner drum of the fabric processing equipment 2 and the second side ventilation duct 7. The airflow passes through the second heating element 705 to form a high-temperature drying airflow. After entering the inner drum, the high-temperature drying airflow absorbs the moisture on the damp fabric, forming a high-temperature humid airflow. After passing through the condenser in the second side ventilation duct 7, the high-temperature humid airflow condenses the moisture it carries onto the condenser, forming a low-temperature drying airflow. After passing through the second heating element 705, the low-temperature drying airflow forms a high-temperature drying airflow again and continues to enter the inner drum for the next drying cycle. Through multiple drying cycles of the drying air, the fabric in the inner drum becomes dry. During the drying process of the fabrics that have just been washed in the fabric processing equipment 2, the drying air can only flow between the second side ventilation duct 7 and the inner drum of the fabric processing equipment 2, and will not enter the first side ventilation duct 6. Therefore, it will not enter the multiple fabric storage chambers. Thus, while drying the fabrics in the inner drum, it will not have a negative impact on the humidity and odor in the multiple fabric storage chambers.

[0026] When the wardrobe-type fabric processing equipment dries the fabrics in multiple fabric storage chambers, the equipment controls the first switch valve 603 to open the first side ventilation duct 6 and controls the first heating element 605 in the first side ventilation duct 6 to work. At the same time, it controls the second switch valve 703 to close the second side ventilation duct 7 and controls the second heating element 705 to stop working. At this time, the fan 501 starts working and generates drying air between the fabric storage chamber and the first side ventilation duct 6. The airflow flows through the first heating element 605 to form a high-temperature dry airflow. After entering the fabric storage chamber, the high-temperature dry airflow absorbs the moisture on the damp fabric, forming a high-temperature humid airflow. After flowing through the condenser in the first side ventilation duct 6, the high-temperature humid airflow condenses the moisture it carries on the condenser, forming a low-temperature dry airflow. After flowing through the first heating element 605, the low-temperature dry airflow forms a high-temperature dry airflow again and continues to enter the fabric storage chamber for the next drying cycle. Through multiple drying cycles of the drying air, the fabrics in the fabric storage chamber become dry. During the drying process of the fabrics in the fabric storage chamber, the drying air can only circulate between the first side ventilation duct 6 and the fabric storage chamber, and will not enter the second side ventilation duct 7, thus preventing it from entering the inner drum of the fabric processing equipment 2. Therefore, when the wardrobe-type fabric processing equipment dries the fabrics in the fabric storage chamber, it will not carry any residual moisture or odors from the inner drum of the fabric processing equipment 2 into the multiple fabric storage chambers, avoiding contamination of the fabrics in the fabric storage chambers and ensuring that clean fabrics can maintain a clean and dry condition for a long time, making them convenient for users to use at any time.

[0027] In addition, when the wardrobe-style fabric processing equipment dries fabrics in multiple fabric storage chambers, it dries only one fabric storage chamber at a time. This can prevent cross-contamination of odors between different fabric storage chambers, thereby enhancing the drying effect on the fabrics in the fabric storage chambers.

[0028] By incorporating multiple independently openable and closable air ducts within the drying duct system, the utilization rate of the internal space of the wardrobe-style fabric processing equipment is improved. This allows for free switching between the fabric processing device 2 and multiple fabric storage chambers, providing users with a variety of drying options. The drying duct system can not only perform conventional drying on washed fabrics but also dry fabrics stored in multiple fabric storage chambers, ensuring that clean fabrics remain clean and dry for an extended period. Furthermore, by controlling the opening and closing of different bypass air ducts, the system can achieve independent drying of only one fabric storage chamber at a time, allowing users to selectively dry fabrics placed in different storage chambers, rather than drying all fabrics in all storage chambers simultaneously. In addition, this prevents odor transfer between different fabric storage chambers and improves the drying efficiency of the fabrics, providing users with great convenience in accessing their fabrics at any time.

[0029] Optionally, such as Figure 3 As shown, in one implementation of this embodiment, a first switch damper 604 is provided on the first side ventilation duct 6, which can connect and block the first side ventilation duct 6 from the external environment of the wardrobe-type fabric processing equipment; or a second switch damper 704 is provided on the second side ventilation duct 7, which can connect and block the second side ventilation duct 7 from the external environment of the wardrobe-type fabric processing equipment; or a first switch damper 604 and a second switch damper 704 are provided on the first side ventilation duct 6 and the second side ventilation duct 7 respectively, so that the first switch damper 604 can connect and block the first side ventilation duct 6 from the external environment of the wardrobe-type fabric processing equipment, and the second switch damper 704 can connect and block the second side ventilation duct 7 from the external environment of the wardrobe-type fabric processing equipment.

[0030] The drying duct can be configured in three ways. The first method involves installing a first switch damper 604 only on the first side ventilation duct 6, which can connect and block the first side ventilation duct 6 from the external environment of the wardrobe-type fabric processing equipment. The second method involves installing a second switch damper 704 on the second side ventilation duct 7, which can connect and block the second side ventilation duct 7 from the external environment of the wardrobe-type fabric processing equipment. The third method involves simultaneously installing a first switch damper 604 and a second switch damper 704 on both the first side ventilation duct 6 and the second side ventilation duct 7, allowing both the first switch damper 604 and the second switch damper 704 to connect and block the first side ventilation duct 6 from the external environment of the wardrobe-type fabric processing equipment. The drying duct in this embodiment uses the third configuration.

[0031] In this embodiment, the second switch damper 704 can be installed on the portion of the second bypass ventilation duct 7 located downstream of the condenser. When the wardrobe-type fabric processing equipment performs routine drying on the fabrics that have just been washed in the fabric processing equipment 2, according to the user's settings, the wardrobe-type fabric processing equipment can choose to close the second switch damper 704 at the beginning of the drying mode, so that the high-temperature and humid airflow in the second side ventilation duct 7 flows through the condenser to extract the water in the high-temperature and humid airflow, thereby reducing the energy consumption of the wardrobe-type fabric processing equipment in the drying mode. Alternatively, the wardrobe-type fabric processing equipment can choose to open the second switch damper 704, so that the second side ventilation duct 7 is connected to the external environment of the wardrobe-type fabric processing equipment, and the high-temperature and humid airflow in the second side ventilation duct 7 is directly discharged outside the wardrobe-type fabric processing equipment without flowing through the condenser, so as to avoid the high-temperature and humid airflow returning to the inner drum and adhering to the fabric if the condenser is insufficient, thus enhancing the drying effect. According to the user's settings, the wardrobe-style fabric processing equipment can choose to maintain one of the above operating modes until the fabric is completely dry at the end of the drying mode, or it can choose to introduce fresh air. After the drying air circulates in the fabric processing equipment 2 for a period of time, the fabric gradually becomes dry and the drying mode is in its final stage. When the humidity in the inner drum continues to decrease and reaches the threshold, the wardrobe-style fabric processing equipment controls the second heating element 705 and the condenser in the second side ventilation duct 7 to stop operating, and controls the fan 501 to reverse so that the airflow flows in the reverse direction in the second side ventilation duct 7. At this time, fresh air from the outside environment of the wardrobe-style fabric processing equipment will enter the second side ventilation duct 7 from the second switch damper 704 and flow into the inner drum. The fresh air absorbs the small amount of residual moisture on the fabric, so that the fabric is completely dry. Introducing fresh air into the inner drum can reduce the energy consumption of the wardrobe-style fabric processing equipment in the drying mode, and also keep the air in the inner drum fresh, avoiding the generation of odors by polluted air in the inner drum.

[0032] When the wardrobe-type fabric processing equipment is performing routine drying on the fabric storage chamber, according to the user's settings, the wardrobe-type fabric processing equipment can choose to close the first switch damper 604 at the beginning of the drying mode, so that the high-temperature and humid airflow in the first side ventilation duct 6 flows through the condenser to extract the water in the high-temperature and humid airflow, thereby reducing the energy consumption of the wardrobe-type fabric processing equipment in the drying mode. Alternatively, the wardrobe-type fabric processing equipment can choose to open the first switch damper 604, so that the first side ventilation duct 6 is connected to the external environment of the wardrobe-type fabric processing equipment, and the high-temperature and humid airflow in the first side ventilation duct 6 is directly discharged outside the wardrobe-type fabric processing equipment without flowing through the condenser, so as to avoid the high-temperature and humid airflow returning to the fabric storage chamber and adhering to the fabric if the condenser is insufficient, thereby enhancing the drying effect on the fabric. According to the user's settings, the wardrobe-style fabric processing equipment can choose to maintain one of the above operating modes until the fabric is completely dry at the end of the drying mode, or it can choose to introduce fresh air. After the drying air circulates in the fabric storage chamber for a period of time, the fabric gradually becomes dry and the drying mode is in its final stage. When the humidity in the fabric storage chamber continues to decrease and reaches the threshold, the wardrobe-style fabric processing equipment controls the first heating element 605 and the condenser in the first side ventilation duct 6 to stop operating, and controls the fan 501 to reverse so that the airflow circulates in the reverse direction in the first side ventilation duct 6. At this time, fresh air from the outside environment of the wardrobe-style fabric processing equipment will enter the first side ventilation duct 6 from the first switch damper 604 and flow into the fabric storage chamber. The fresh air absorbs the small amount of residual moisture on the fabric, so that the fabric is completely dry. Introducing fresh air into the fabric storage chamber can reduce the energy consumption of the wardrobe-style fabric processing equipment in the drying mode, and also keep the air in the fabric storage chamber fresh, avoiding the generation of odors by polluted air in the fabric storage chamber.

[0033] By setting a first switch damper 604 and a second switch damper 704 on the first side ventilation duct 6 and the second side ventilation duct 7 respectively, the flow path of the drying air can be changed, providing users with more drying options. In the drying mode, the wardrobe-type fabric processing equipment can enhance the drying effect on the fabric, reduce the energy consumption of the wardrobe-type fabric processing equipment in the drying mode, and keep the air in the fabric storage chamber fresh, avoiding the generation of odors by polluted air in the fabric storage chamber. Thus, the drying performance of the wardrobe-type fabric processing equipment is greatly improved.

[0034] Optionally, such as Figure 2-3As shown, in one implementation of this embodiment, the first bypass ventilation duct 6 includes a first air inlet section 601 and a first air outlet section 602 communicating with the main cavity 5. Driven by the fan 501 in the main cavity 5, air is drawn in through the air inlet 6011 of the first air inlet section 601, heated by the first heating element 605, and then discharged through the air outlet 6021 of the first air outlet section 602. The second bypass ventilation duct 7 includes a second air inlet section 701 and a second air outlet section 702 communicating with the main cavity 5. Driven by the fan 501 inside the main cavity 5, the air section 702 draws air in through the air inlet of the second air inlet section 701, heats it through the second heating element 705, and then discharges it through the air outlet of the second air outlet section 702. At least one of the first air inlet section 601 and the first air outlet section 602 is provided with a first switching valve 603 and a first heating element 605, and at least one of the second air inlet section 701 and the second air outlet section 702 is provided with a second switching valve 703 and a second heating element 705.

[0035] In this embodiment, the first side ventilation duct 6 is connected to the fabric storage chamber. When the drying air flows from the main chamber 5 to the first air inlet section 601, it will flow through the first heating element 605 located in the first air outlet section 602 to form a high-temperature drying airflow. After the high-temperature drying airflow enters the fabric storage chamber, it will absorb the moisture on the fabric to form a high-temperature humid airflow. The high-temperature humid airflow then enters the first air inlet section 601 from the fabric storage chamber and flows through the condenser located in the first air inlet section 601. During this process, the high-temperature humid airflow condenses the moisture it carries on the condenser and forms a low-temperature drying airflow, which then returns to the main chamber 5 for the next drying cycle.

[0036] In this embodiment, the second bypass ventilation duct 7 is connected to the inner cylinder of the fabric processing equipment 2. When the drying air flows from the main cavity 5 to the second air inlet section 701, it will flow through the second heating element 705 located in the second air outlet section 702 to form a high-temperature drying airflow. After the high-temperature drying airflow enters the inner cylinder of the fabric processing equipment 2, it will absorb the moisture on the fabric to form a high-temperature humid airflow. The high-temperature humid airflow then enters the second air inlet section 701 from the inner cylinder of the fabric processing equipment 2 and flows through the condenser located in the second air inlet section 701. During this process, the high-temperature humid airflow condenses the moisture it carries on the condenser and forms a low-temperature drying airflow, which then returns to the main cavity 5 for the next drying cycle.

[0037] By rationally arranging the heating element and condenser in each air outlet and air inlet section, a reasonable distance can be maintained between the heating element and the condenser, allowing the low-temperature drying airflow to be fully heated and the high-temperature humid airflow to be fully cooled and condensed. This ensures that the drying air can absorb and remove residual moisture from the fabric to the maximum extent in each drying cycle, thereby further improving the drying efficiency of the wardrobe-type fabric processing equipment.

[0038] Optionally, such as Figure 5-6 As shown, in one implementation of this embodiment, the drying duct also includes a controller. The servo motor 6031 and valve plate 6032 can be installed only in the first switching valve 603, or only in the second switching valve 703, or simultaneously in both the first and second switching valves 603 and 703. The output terminal of the servo motor 6031 is connected to the valve plate 6032. The servo motor 6031, the first heating element 605, and the second heating element 705 are all communicatively connected to the controller. The controller can control the servo motor 6031 to drive the valve plate 6032 to rotate, thereby opening or closing the first bypass ventilation duct 6 and the second bypass ventilation duct 7.

[0039] The controller is configured to: when drying air needs to be introduced into the fabric processing equipment 2, the controller controls the servo motor 6031 to drive the valve plate 6032 to rotate and close the first bypass ventilation duct 6, control the servo motor 6031 to drive the valve plate 6032 to rotate and open the second bypass ventilation duct 7, control the first heating element 605 to stop working, and control the second heating element 705 to start working; when drying air needs to be introduced into the fabric storage chamber, the controller controls the servo motor 6031 to drive the valve plate 6032 to rotate and open the first bypass ventilation duct 6, control the servo motor 6031 to drive the valve plate 6032 to rotate and close the second bypass ventilation duct 7, control the first heating element 605 to start working, and control the second heating element 705 to stop working.

[0040] In this embodiment, when the wardrobe-type fabric processing equipment dries the fabric that has just been washed in the fabric processing equipment 2, the controller controls the servo motor 6031 in the second switch valve 703 to drive the valve plate 6032 to rotate and open the second side ventilation duct 7. The controller also controls the second heating element 705 in the second side ventilation duct 7 to start working. Then, the controller controls the servo motor 6031 in the first switch valve 603 to drive the valve plate 6032 to rotate and close the first side ventilation duct 6. The controller also controls the first heating element 605 in the first side ventilation duct 6 to stop working. This ensures that the drying air in the wardrobe-type fabric processing equipment only flows between the inner cylinder of the fabric processing equipment 2 and the second side ventilation duct 7, and does not enter the first side ventilation duct 6.

[0041] When the wardrobe-type fabric processing equipment dries the fabric in the fabric storage chamber, the controller controls the servo motor 6031 in the first switch valve 603 to drive the valve plate 6032 to rotate and open the first side ventilation duct 6. The controller also controls the first heating element 605 in the first side ventilation duct 6 to start working. Then, the controller controls the servo motor 6031 in the second switch valve 703 to drive the valve plate 6032 to rotate and close the second side ventilation duct 7. The controller also controls the second heating element 705 in the second side ventilation duct 7 to stop working. At this time, the drying air in the wardrobe-type fabric processing equipment only flows between the fabric storage chamber and the first side ventilation duct 6 and will not enter the second side ventilation duct 7.

[0042] By connecting the servo motor 6031, the first heating element 605, and the second heating element 705 to the controller, the wardrobe-type fabric processing equipment can automatically set the corresponding airflow path according to different drying requirements in the drying mode, so as to ensure that the fabric in the inner drum and the fabric storage chamber can be dried well, while reducing the energy consumption of the wardrobe-type fabric processing equipment in the drying mode.

[0043] Example 2 like Figure 7 As shown, this embodiment provides a wardrobe-style fabric processing device, including the drying air duct in Embodiment 1; The outer casing 1 has a fabric processing area and a fabric placement area inside the outer casing 1; Fabric processing equipment 2 is disposed in the fabric processing area, and the fabric placement area includes multiple independent fabric storage chambers 102. Among them, a plurality of first side ventilation ducts 6 correspond one-to-one with a plurality of fabric storage chambers, and the air outlet 6021 of the first side ventilation duct 6 is connected to the corresponding fabric storage chamber. The air outlet of the second bypass ventilation duct 7 is connected to the fabric processing cylinder of the fabric processing device 2.

[0044] In this embodiment, the wardrobe-style fabric processing device has both the storage function of a wardrobe and the function of a fabric processing device 2. The fabric processing device 2 in this embodiment is a double-cylinder fabric processing device 2. The two fabric processing cylinders of the double-cylinder fabric processing device 2 are arranged vertically along the height of the fabric processing area. The control panel 3 and detergent dispensing box 4 of the double-cylinder fabric processing device 2 are located between the upper and lower fabric processing cylinders. When the user needs to clean soiled fabrics, they place the soiled fabrics into the fabric processing device 2 located in the fabric processing area, add fabric processing agent to the detergent dispensing box 4, select the washing mode of the fabric processing device 2 through the control panel 3, and then close the door of the fabric processing device 2. The fabric processing device 2 then starts running the washing program and washes and dries the soiled fabrics. After being cleaned by the fabric processing device 2, the soiled fabrics become clean fabrics. After removing the clean fabrics, the user can then place them in the fabric placement area located next to the fabric processing area. The fabric storage area functions as a wardrobe, allowing users to hang outerwear or other heavy clothing, fold light fabrics such as underwear and socks, and place clean shoes and socks there.

[0045] By providing an air outlet 6021 on the housing of the fabric processing device 2, the air outlet section of the drying duct inside the fabric processing device 2 can be connected to the fabric placement area. A humidity sensor is also installed in the fabric placement area to continuously acquire the humidity parameters of the air within the area. This humidity sensor feeds back the acquired humidity parameters to the wardrobe-style fabric processing device, allowing it to assess the humidity level in the fabric placement area. The air inlet 6011 on the housing of the fabric processing device 2 allows the fabric placement area to be connected either to the air inlet section of the drying duct or to the outside of the wardrobe-style fabric processing device's outer shell 1. This allows the wardrobe-style fabric processing device to set different airflow paths according to different fabric drying needs, such as drying washed fabrics and storing clean fabrics in a moisture-proof environment, to achieve the best fabric drying effect. Specifically: When the fabric undergoes drying treatment within the fabric processing equipment 2, the wardrobe-style fabric processing equipment is configured to optimize airflow. The first bypass ventilation duct 6, which connects to the fabric placement area, is shut off, while the second bypass ventilation duct 7, which connects to the fabric processing equipment 2, is opened. This allows the drying airflow within the fabric processing equipment 2 to either circulate only within the fabric processing area or, after fresh air is introduced into the inner drum, be directly discharged to the outside of the outer shell 1, thus achieving drying within the fabric processing equipment 2. During this process, the drying airflow carrying moisture does not flow through the fabric placement area, thereby preventing an increase in humidity within that area.

[0046] If the external humidity of the wardrobe-style fabric processing equipment increases and a damp environment is created after clean fabrics are stored in the fabric storage area, the humidity in the fabric storage area will also increase, and the fabrics in the storage area will be at great risk of becoming moldy and smelly. Similarly, when users store shoes and socks that have been washed with water or soaked by rain in the fabric storage area, the humidity in the fabric storage area will also increase, causing the shoes and socks to become moldy and smelly.

[0047] Users can also set an automatic drying function through control panel 3. When the humidity parameters of the wardrobe-style fabric processing equipment, which are fed back by the humidity sensors installed in each fabric storage chamber, reach a certain level, the drying air duct will automatically start working, thereby ensuring that the fabrics in the fabric storage area are always kept in a dry state, as detailed below: Humidity sensors in each fabric storage chamber continuously acquire humidity parameters and feed them back to the wardrobe-style fabric processing equipment. When the wardrobe-style fabric processing equipment determines that the humidity in a certain fabric storage chamber exceeds a preset threshold, it adjusts the airflow path so that the drying airflow in the drying duct can either circulate between the first side ventilation duct 6 and the fabric placement area, or it can directly discharge to the outside of the outer shell 1 after flowing through the fabric placement area. Specifically, the controller opens the first side ventilation duct 6, which connects to the fabric placement area, allowing the high-temperature dry airflow output from the drying duct to enter the fabric placement area through the first side ventilation duct 6. The high-temperature dry airflow absorbs moisture in the fabric placement area and forms a high-temperature humid airflow. This high-temperature humid airflow can either flow into the air inlet section of the drying duct through the air inlet 6011 for cooling and condensation to form a low-temperature dry airflow, or it can be directly discharged to the outside of the outer shell 1 from the air inlet 6011, thereby reducing the humidity in the fabric placement area. After multiple cycles of the drying airflow, the moisture in the fabric placement area gradually decreases, thus drying the clothes, shoes, socks, and other fabrics placed in the fabric placement area.

[0048] By placing the fabric processing area and the fabric placement area within the same housing 1 and sharing the same drying duct, the washing and drying functions of the fabric processing equipment 2 are combined with the wardrobe placement function. This allows users to immediately place clean fabrics from the fabric processing area into the fabric placement area without having to carry fabrics back and forth between the fabric processing equipment and the wardrobe multiple times, saving users physical effort and time during the washing and drying process and improving the convenience of fabric processing. At the same time, this wardrobe-style fabric processing equipment can also adjust the humidity in the fabric placement area, keeping clothes, shoes, socks, and other fabrics in the placement area always dry, making them convenient for users to access at any time. This not only provides convenience for users but also extends the lifespan of the fabrics.

[0049] Since the wardrobe-style fabric processing equipment provided in this embodiment includes the drying duct in Embodiment 1, the wardrobe-style fabric processing equipment in this embodiment has all the beneficial effects of the drying duct in Embodiment 1, which will not be elaborated here.

[0050] Optionally, such as Figure 7-9 As shown, in one implementation of this embodiment, the fabric placement area is located outside the housing of the fabric processing device 2. The first sidewall 203 of the housing of the fabric processing device 2 and the outer shell 1 together form the fabric placement area. Partitions 101 are spaced apart in the fabric placement area, dividing the fabric placement area into a first storage chamber 1021, a second storage chamber 1022, and a third storage chamber 1023 arranged vertically inside the outer shell 1. The first storage chamber 1021 is used to place outerwear, the second storage chamber 1022 is used to place underwear, and the third storage chamber 1023 is used to place shoes and socks.

[0051] In this embodiment, the side of the housing of the fabric processing device 2 closest to the fabric placement area is a first sidewall 203, which together with the outer shell 1 forms the fabric placement area. The fabric placement area and the fabric processing area are separated only by the first sidewall 203. The air outlet 6021 and air inlet 6011 of the drying air duct are both located on the first sidewall 203. The high-temperature drying airflow or fresh airflow only needs to pass through the air outlet 6021 from the drying air duct to enter the fabric placement area, while the high-temperature humid airflow or fresh humid airflow in the fabric placement area only needs to pass through the air inlet 6011 to remove moisture from the fabric placement area.

[0052] By using one side of the housing of the fabric processing device 2 as a partition to separate the fabric processing area and the fabric placement area, no additional pipes are needed to connect the two areas. This shortens the flow path of the drying airflow between the two areas, improves the drying efficiency of the fabric placement area, and reduces the number of parts used, thus simplifying the overall structure of the wardrobe-style fabric processing device.

[0053] The number of partitions 101 is at least two. The fabric placement area is divided into at least three fabric storage chambers arranged vertically within the outer casing 1 by the vertically spaced arrangement of at least two partitions 101. When there are three fabric storage chambers in the fabric placement area, the three fabric storage chambers can be divided into a first storage chamber 1021, a second storage chamber 1022, and a third storage chamber 1023. The first storage chamber 1021, the second storage chamber 1022, and the third storage chamber 1023 are respectively used to store outerwear, underwear, and shoes and socks. The interior of the fabric storage area can be configured into different shapes according to the user's actual needs. In this embodiment, the interior of the fabric storage area is a cuboid space extending vertically. The width and depth of the first storage chamber 1021, the second storage chamber 1022, and the third storage chamber 1023 are all the same, while the heights of the first storage chamber 1021, the second storage chamber 1022, and the third storage chamber 1023 can be set differently according to their different needs for storing fabrics. For example, hanging outerwear usually requires the highest height in the vertical direction, while folded underwear usually requires a lower height in the vertical direction than outerwear, and shoes and socks laid flat usually require a lower height in the vertical direction than underwear. That is, the height of the first storage chamber 1021 is greater than the height of the second storage chamber 1022, and the height of the second storage chamber 1022 is greater than the height of the third storage chamber 1023. A clothes hanging rod 1024 is provided at the top of the first storage chamber 1021 for easy hanging of clothes.

[0054] Since some users' homes have limited space to place the wardrobe-style fabric processing equipment, making it impossible to install it, a customized approach can be adopted based on the user's home space. This involves measuring the dimensions of the user's balcony or installation location and then modifying the structure and dimensions of the wardrobe-style fabric processing equipment accordingly.

[0055] By using the first storage chamber 1021, the second storage chamber 1022, and the third storage chamber 1023 to store outerwear, underwear, and shoes and socks respectively, and by setting the height of the first storage chamber 1021 to be greater than the height of the second storage chamber 1022, and the height of the second storage chamber 1022 to be greater than the height of the third storage chamber 1023, different types of fabrics can be properly and appropriately stored in the fabric storage area. This not only makes full and reasonable use of the space in the fabric storage area, but also reduces the ironing operation when users take out clean fabrics, further improving the convenience for users when storing and taking out clean fabrics.

[0056] Correspondingly, three of the plurality of first side ventilation ducts 6 are provided. The air outlets 6021 of the three first side ventilation ducts 6 are respectively connected to the first storage chamber 1021, the second storage chamber 1022 and the third storage chamber 1023. The three first side ventilation ducts 6 provide drying air to the three independent storage chambers, so as to achieve independent drying between the storage chambers and prevent cross-contamination of odors.

[0057] Optionally, such as Figure 8 , 9 As shown, in one implementation of this embodiment, the outer shell 1 is provided with a first door 205 and a second door 103. The first door 205 is used to open and close the fabric processing area, and the second door 103 is used to open and close the fabric placement area. The first door 205 is provided with a glass bowl 2051 corresponding to the inlet of the twin-drum washer-dryer.

[0058] In this embodiment, the outer shell 1 of the wardrobe-type fabric processing equipment is provided with a first door 205 and a second door 103, which are used to open and close the fabric processing area and the fabric placement area respectively, so that both the fabric processing area and the fabric placement area can be kept closed, so as to ensure that the fabric processing equipment 2 can realize the washing and drying function and reduce the total amount of dust and humid air entering the fabric placement area, so that the fabric can be kept dry and clean for a long time.

[0059] The pivot of the first door 205 is located on the side of the fabric handling device 2 away from the fabric placement area, and the second door 103 is rotatably connected to the side wall of the outer casing 1 away from the fabric handling area, thereby forming a double-door structure between the first door 205 and the second door 103. During the process of the user removing clean fabric from the fabric handling device 2 and storing it in the fabric placement area, the double-door structure ensures that the second door 103 does not obstruct the user's movement.

[0060] In this embodiment, the first door 205 is directly used as the door of the fabric processing equipment, and also as one of the doors of the outer shell 1, which simplifies the overall structure of the wardrobe-style fabric processing equipment, saves materials and reduces the overall production cost of the equipment.

[0061] In one embodiment, preferably, a control panel 3 and a detergent dispenser 4 are provided on the twin-drum washer-dryer between the two fabric handling drums, and the two fabric handling drums are configured to share the control panel 3 and the detergent dispenser 4.

[0062] When the fabric processing device 2 is a twin-drum washer-dryer, the control panel 3 and detergent dispenser 4 of the fabric processing device 2 are located between the upper and lower garment processing drums. The first door 205 is divided into an upper door and a lower door, which can be opened and closed independently for the upper and lower garment processing drums, respectively. When the user uses only one garment processing drum, it is not necessary to open and close the doors corresponding to the other garment processing drums at the same time. When both the upper and lower doors are closed on the fabric processing area, the first door 205 formed by the upper and lower doors can completely cover the surface of the fabric processing area.

[0063] By setting a first door 205 and a second door 103 forming a double-door structure in front of the fabric processing area and the fabric placement area respectively, the fabric processing equipment 2 can be guaranteed to realize the washing and drying functions, and the total amount of dust and humid air entering the fabric placement area can be reduced, so that the fabric can be kept dry and clean for a long time. It can also avoid the doors from obstructing the user's movement.

[0064] Optionally, such as Figure 7-10 As shown, in one implementation of this embodiment, a storage groove 204 is provided on the lower side of the glass bowl 2051.

[0065] In this embodiment, a storage slot 204 is provided below the glass bowl of the first door 205. The storage slot 204 is used to temporarily place dirty fabrics to be washed. When the fabric processing device 2 is a double-cylinder fabric processing device 2, there are two glass bowls distributed vertically on the first door 205. The storage slot 204 can be provided below both glass bowls, or the storage slot 204 can be provided only below the lower glass bowl.

[0066] When a user has a large number of soiled fabrics to process, the garment processing drum cannot clean all the soiled fabrics in a single wash and dry cycle. The user can first bring all the soiled fabrics to the wardrobe-style garment processing equipment, open the first door 205, and put some of the soiled fabrics into the garment processing drum. After this part of the fabrics is processed into clean fabrics, the user can take out this part of the clean fabrics and directly organize and store them in the adjacent fabric placement area. The remaining soiled fabrics in the storage tank 204 can then be put into the garment processing drum to start washing again. This allows the user to take out and put in the fabrics with just one opening of the door.

[0067] In one embodiment, the shape of the storage slot 204 can be designed so that it can not only provide space for users to store dirty clothes, but also be used to store detergents and other items purchased by users, thereby providing users with the possibility of storing a variety of items and further improving the convenience of users during use.

[0068] By providing a storage slot 204 below the glass bowl of the first door 205, users can operate the wardrobe-style fabric processing equipment without having to travel back and forth between the pile of dirty fabrics, the fabric processing equipment, and the wardrobe. This saves users physical strength, reduces their labor intensity, and saves time, thereby further improving the convenience of users in handling dirty fabrics.

[0069] Optionally, such as Figure 10 As shown, in one implementation of this embodiment, both the first door body 205 and the second door body 103 are provided with door handles 104.

[0070] In this embodiment, door handles 104 are respectively provided on the first door body 205 and the second door body 103. The door handles 104 protrude from the first door body 205 and the second door body 103. Each door handle 104 is fixedly connected to the first door body 205 and the second door body 103 by screws. The door handles 104 facilitate the user to perform the operation of opening and closing the door, thereby improving the user experience.

[0071] In one embodiment, door handles 104 are formed on the first door body 205 and the second door body 103, respectively. The door handles 104 have a recessed structure that extends from the outer surface of the door body to the fabric processing area and the fabric placement area, respectively, so that the door handles 104 do not protrude from the surface of the first door body 205 and the second door body 103, thereby reducing the volume of the wardrobe-type fabric processing equipment and preventing users from accidentally bumping into the door handles 104 when passing by the wardrobe-type fabric processing equipment.

[0072] In summary, the ingenious design of the drying duct and wardrobe-style fabric processing equipment lies in: Firstly, by incorporating multiple independently openable and closable air ducts within the drying duct system, the utilization rate of the internal space of the wardrobe-style fabric processing equipment is improved. This allows for free switching between the washing and drying machine and multiple fabric storage chambers, providing users with a variety of drying options. The drying duct system can not only perform conventional drying on washed fabrics but also dry fabrics stored in multiple fabric storage chambers, ensuring that clean fabrics remain clean and dry for an extended period. Furthermore, by controlling the opening and closing of different bypass air ducts, the system can achieve independent drying of only one fabric storage chamber at a time, allowing users to selectively dry fabrics placed in different storage chambers, rather than drying all fabrics in all storage chambers simultaneously. In addition, this also prevents odor transfer between different fabric storage chambers and improves the drying efficiency of the fabrics, providing users with great convenience in accessing their fabrics at any time.

[0073] Secondly, by setting a first switch damper and a second switch damper on the first and second side ventilation ducts respectively, the flow path of the drying air can be changed, providing users with more drying options. In the drying mode, the wardrobe-type fabric processing equipment can enhance the drying effect on the fabric, reduce the energy consumption of the wardrobe-type fabric processing equipment in the drying mode, and keep the air in the fabric storage chamber fresh, avoiding the generation of odors by polluted air in the fabric storage chamber. Thus, the drying performance of the wardrobe-type fabric processing equipment is greatly improved.

[0074] Third, by rationally arranging the heating element and condenser in each air outlet and air inlet section, a reasonable distance can be maintained between the heating element and the condenser, allowing the low-temperature drying airflow to be fully heated and the high-temperature humid airflow to be fully cooled and condensed. This ensures that the drying air can absorb and remove residual moisture from the fabric to the maximum extent in each drying cycle, thereby further improving the drying efficiency of the wardrobe-type fabric processing equipment.

[0075] Fourth, by connecting the servo motor, the first heating element, and the second heating element to the controller, the wardrobe-style fabric processing equipment can automatically set the corresponding airflow path according to different drying requirements in the drying mode, so as to ensure that the fabric in the inner drum and the fabric storage chamber can be dried well, while reducing the energy consumption of the wardrobe-style fabric processing equipment in the drying mode.

[0076] It can be further understood that in this disclosure, "many" refers to two or more, and other quantifiers are similar. "And / or" describes the relationship between related objects, indicating that three relationships can exist; for example, A and / or B can represent: A alone, A and B simultaneously, and B alone. The character " / " generally indicates that the preceding and following related objects have an "or" relationship. The singular forms "a," "," and "the" are also intended to include the plural forms unless the context clearly indicates otherwise.

[0077] It is further understood that the terms "first," "second," etc., are used to describe various types of information, but this information should not be limited to these terms. These terms are only used to distinguish information of the same type from one another, and do not indicate a specific order or degree of importance. In fact, the expressions "first," "second," etc., are completely interchangeable. For example, without departing from the scope of this disclosure, first information can also be referred to as second information, and similarly, second information can also be referred to as first information.

[0078] It is further understood that although operations are described in a specific order in the accompanying drawings in the embodiments of this disclosure, this should not be construed as requiring these operations to be performed in the specific order or serial order shown, or requiring all of the shown operations to be performed to obtain the desired result. In certain environments, multitasking and parallel processing may be advantageous.

[0079] Other embodiments of this disclosure will readily occur to those skilled in the art upon consideration of the specification and practice of the utility models disclosed herein. This application is intended to cover any variations, uses, or adaptations of this disclosure that follow the general principles of this disclosure and include common knowledge or customary techniques in the art not disclosed herein. The specification and examples are to be considered exemplary only, and the true scope and spirit of this disclosure are indicated by the following claims.

[0080] It should be understood that this disclosure is not limited to the precise structures described above and shown in the accompanying drawings, and various modifications and changes can be made without departing from its scope. The scope of this disclosure is limited only by the appended claims.

Claims

1. A drying air duct for a wardrobe-style fabric processing device, characterized in that, include: The main cavity (5) is equipped with a fan (501). Multiple first side ventilation ducts (6) are respectively connected to the main cavity (5); The second side ventilation duct (7) is connected to the main cavity (5); The first bypass ventilation duct (6) is provided with a first switch valve (603) and a first heating element (605). The first switch valve (603) is used to open or close the first bypass ventilation duct (6). The second bypass ventilation duct (7) is provided with a second switch valve (703) and a second heating element (705). The second switch valve (703) is used to open or close the second bypass ventilation duct (7).

2. The drying air duct according to claim 1, characterized in that, A first switch damper (604) is provided on the first side ventilation duct (6), and the first switch damper (604) is used to open or block the first side ventilation duct (6) from the outside; And / or, a second switch damper (704) is provided on the second bypass ventilation duct (7), the second switch damper (704) being used to open or block the second bypass ventilation duct (7) from the outside.

3. The drying air duct according to claim 1, characterized in that, The first side ventilation duct (6) includes a first air inlet section (601) and a first air outlet section (602) connected to the main cavity (5). Driven by the fan (501) in the main cavity (5), air is drawn in from the air inlet (6011) of the first air inlet section (601), heated by the first heating element (605), and discharged from the air outlet (6021) of the first air outlet section (602). The second bypass ventilation duct (7) includes a second air inlet section (701) and a second air outlet section (702) connected to the main cavity (5). Driven by the fan (501) in the main cavity (5), air is drawn in from the air inlet of the second air inlet section (701), heated by the second heating element (705), and discharged from the air outlet of the second air outlet section (702). The first air inlet section (601) and the first air outlet section (602) are provided with a first switch valve (603) and a first heating element (605), and the second air inlet section (701) and the second air outlet section (702) are provided with a second switch valve (703) and a second heating element (705).

4. The drying air duct according to claim 1, characterized in that, include: Controller; The first switching valve (603) and / or the second switching valve (703) include: a servo motor (6031) and a valve plate (6032). The output end of the servo motor (6031) is connected to the valve plate (6032). The servo motor (6031), the first heating element (605) and the second heating element (705) are all communicatively connected to the controller. The controller controls the servo motor (6031) to drive the valve plate (6032) to rotate, thereby opening or closing the first bypass ventilation duct (6) and opening or closing the second bypass ventilation duct (7).

5. A wardrobe-style fabric processing device, characterized in that, include: The drying air duct as described in any one of claims 1-4; The outer casing (1) has a fabric processing area and a fabric placement area inside the outer casing (1); Fabric processing equipment (2) is provided in the fabric processing area, and the fabric placement area includes multiple independent fabric storage chambers (102). Among them, a plurality of first side ventilation ducts (6) correspond one-to-one with a plurality of fabric storage chambers, and the air outlet (6021) of the first side ventilation duct (6) is connected to the corresponding fabric storage chamber. The air outlet of the second bypass ventilation duct (7) is connected to the fabric processing cylinder of the fabric processing device (2).

6. The wardrobe-type fabric processing equipment according to claim 5, characterized in that, The fabric placement area is provided with partitions (101) at intervals, and the partitions (101) divide the fabric placement area into multiple independent fabric storage chambers (102). The plurality of fabric storage chambers (102) include: a first storage chamber (1021), a second storage chamber (1022) and a third storage chamber (1023) arranged vertically inside the outer shell (1); The first storage chamber (1021) is configured to store outerwear, the second storage chamber (1022) is configured to store underwear, and the third storage chamber (1023) is configured to store shoes and socks; The plurality of first side ventilation ducts (6) are provided in three parts, and the air outlets (6021) of the three first side ventilation ducts (6) are respectively connected to the first storage chamber (1021), the second storage chamber (1022) and the third storage chamber (1023).

7. The wardrobe-type fabric processing equipment according to claim 5, characterized in that, The fabric processing equipment (2) is a double-drum washer-dryer. Two second side ventilation ducts (7) are provided, and the air outlets of the two second side ventilation ducts (7) are respectively connected to the two fabric processing drums of the double-drum washer-dryer.

8. The wardrobe-type fabric processing equipment according to claim 7, characterized in that, The outer casing (1) is provided with a first door (205) and a second door (103). The first door (205) is used to open and close the fabric processing area, and the second door (103) is used to open and close the fabric placement area. The first door (205) is provided with a glass bowl (2051) corresponding to the inlet of the twin-drum washer-dryer.

9. The wardrobe-type fabric processing equipment according to claim 8, characterized in that, The glass bowl (2051) has a storage slot (204) on its lower side.

10. The wardrobe-type fabric processing equipment according to claim 7, characterized in that, The twin-drum washer-dryer is provided with a control panel (3) and a detergent dispenser (4) located between the two fabric processing drums. The two fabric processing drums are configured to share the control panel (3) and the detergent dispenser (4).

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