Rotary wheel dehumidification wardrobe
By designing a rotor dehumidification system in the wardrobe and using the regeneration function of the dehumidification wheel, the problem of hot air in the prior art cannot be fully utilized, and efficient dehumidification and clothing drying effects are achieved.
Patent Information
- Application Number
- CN202422195930.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-06
- Publication Date
- 2025-06-13
- Estimated Expiration
- 2034-09-06
AI Technical Summary
In the existing wardrobe dehumidification technology, the hot air generated by heating cannot be fully utilized, resulting in waste of heat.
A rotor dehumidification wardrobe is designed to draw external air into the clothing chamber through the air inlet, and dehumidify the air through the dehumidification runner during the pumping process. The dehumidification air is heated through the heating chamber and then flows to the clothing chamber. The air outlet extracts the wet air in the clothing cavity and reheats the air through the heating device to regenerate the dehumidification wheel and reduce the energy consumption of the heating device.
The dehumidification rotor is realized, and the heat in the clothing cavity is fully utilized, the heat waste is reduced, the dehumidification efficiency is improved, and the clothes are dried.
Smart Images
Figure CN222968156U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of wardrobe dehumidification, and particularly relates to a rotary dehumidification wardrobe. Background Art
[0002] A wardrobe is a piece of furniture used to store personal items such as clothes, shoes, hats, quilts, etc. It usually has doors and internal partitions, and can be open or have doors. The design and size of the wardrobe can be customized according to personal needs and the size of the space.
[0003] With the improvement of people's living standards, in some seasons, such as spring and summer, the humidity will increase. Wardrobes made of certain materials are more likely to absorb moisture. For example, solid wood wardrobes are more likely to get damp if not properly moisture-proofed, resulting in a damp interior of the wardrobe, which will increase the humidity of the clothes and affect people's wearing.
[0004] Currently, to improve the dehumidification effect of the wardrobe, fans and heating are often used to dehumidify the interior of the wardrobe. The method is that hot air enters the wardrobe, keeping the temperature inside the wardrobe at 50±10°C, causing the water vapor inside to gradually evaporate due to the increase in temperature, and the hot air and moisture gradually blow out from the top of the wardrobe, thereby reducing the moisture inside the wardrobe and keeping the clothes dry.
[0005] After analysis, we believe that this method can indeed ensure the dryness of the clothes inside the wardrobe. However, this solution dehumidifies the wardrobe by using hot air generated by heating and blows the clothes inside the wardrobe with a fan to accelerate the flow rate of the hot air in the wardrobe. To ensure the discharge of moisture inside the wardrobe, the fan faces the opening side of the wardrobe, causing the hot air and moisture to blow out from the opening side of the wardrobe. The fan is generally installed at the bottom of the wardrobe, and the hot air directly discharges from the top of the wardrobe, unable to make full use of the hot air discharged from the top of the wardrobe, resulting in waste of heat. Summary of the Utility Model
[0006] The main purpose of the utility model is to provide a solution to the technical problem that the hot air generated by heating for dehumidifying the wardrobe cannot be fully utilized after dehumidification.
[0007] To achieve the above purpose, the utility model provides a rotary dehumidification wardrobe, which includes a cabinet body, which includes an installation cavity and a clothing cavity, and also includes a dehumidification rotary wheel. The rotary wheel is on the inner wall of the installation cavity and divides the installation cavity into a wind cavity and a heating cavity;
[0008] An air inlet member, which is arranged in the wind cavity and the heating cavity and forms an inflow air duct that sequentially passes through the wind cavity, the adsorption area of the dehumidification rotary wheel, the heating cavity, and the clothing cavity; and
[0009] The air outlet component is arranged in the air cavity and the heating cavity, and forms an air outlet duct that sequentially passes through the clothing cavity, the heating cavity, the regeneration area of the dehumidification rotary wheel, and the air cavity.
[0010] In the above solution, the inflow air duct is indicated by the Figure 2 arrow, that is, the intake air fan operates, which sucks external air from the intake air pipe, passes the air through the adsorption area of the dehumidification rotary wheel, greatly reduces the humidity in the air, and after heating in the heating cavity, flows into the clothing cavity to provide dry hot air for the clothing cavity; the outflow air duct is indicated by the Figure 3 arrow, which flows the air in the clothing cavity through the pipeline to the regeneration area of the dehumidification rotary wheel, and the hot air takes away the moisture in the rotary wheel and is then extracted by the outlet air fan.
[0011] Furthermore, a partition layer for accommodating the dehumidification rotary wheel is also provided between the installation cavity and the heating cavity.
[0012] Furthermore, the intake air component includes an intake air fan and an intake air pipe connected in the air cavity. One end of the intake air pipe away from the intake air fan communicates with the outside of the cabinet. The output end of the intake air fan faces the adsorption area of the dehumidification rotary wheel, so that the air outside the cabinet flows from the intake air pipe to the intake air fan, and the air flowing out of the intake air fan flows from the dehumidification rotary wheel to the heating cavity.
[0013] Furthermore, a filter is installed on the inner wall of the intake air pipe.
[0014] Furthermore, the intake air component further includes a heat conduction plate extending from the heating cavity to the clothing cavity, and a heating component is installed on the heat conduction plate and / or the inner wall of the heating cavity.
[0015] Furthermore, the heating component includes a heating wire, an electric heating film or an electric heating plate.
[0016] Furthermore, the air outlet component includes a pipeline connecting the clothing cavity and the regeneration area of the dehumidification rotary wheel in the heating cavity, an outlet air fan and a third outlet air pipe connected in the installation cavity. One end of the third outlet air pipe away from the outlet air fan communicates with the outside of the cabinet. The intake end of the outlet air fan faces the regeneration area of the dehumidification rotary wheel, so that the air in the clothing cavity flows from the pipeline in the heating cavity to the regeneration area of the dehumidification rotary wheel, and after being extracted by the outlet air fan, it flows out from the third outlet air pipe.
[0017] Furthermore, the pipeline connecting the clothing cavity and the regeneration area of the dehumidification rotary wheel includes a first outlet air pipe with one end communicating with the clothing cavity and a second outlet air pipe with one end communicating with the regeneration area of the dehumidification rotary wheel. The other ends of the first outlet air pipe and the second outlet air pipe are close to each other, and a heating device is installed.
[0018] Further, a communication port is provided between the clothing cavity and the heating cavity. A baffle plate is installed at the end of the first air outlet pipe communicating with the clothing cavity and is fixed to the inner wall of the heating cavity through the baffle plate.
[0019] The adoption of the above technical solution has the following advantages:
[0020] In the utility model, external air is drawn into the clothing cavity through an air inlet member, and the air drawn in is dehumidified by a dehumidification runner during the drawing process. The dehumidified air flows to the clothing cavity after being heated in the heating cavity, and the wet air in the clothing cavity is drawn out through an air outlet member. During the drawing process, the heating device reheats the air. As the dehumidification runner rotates, the hot air regenerates the dehumidification runner, reducing the energy consumption of the heating device, enabling the dehumidification runner to be recycled, making full use of the hot air in the clothing cavity, and solving the technical problem that the heat discharged after dehumidifying the hot air in the wardrobe is not easily recycled.
[0021] In addition, a heat conducting plate extending into the clothing cavity is installed in the heating cavity of this application, so that the heated hot air rises and flows into the clothing cavity, making the heat supply more uniform, and the hot air in the clothing cavity is drawn out at the communication port. The hot air in the clothing cavity flows from the top to the communication port, and the clothing contacts the hot air more fully, promoting the drying of the clothing. Combined with the regeneration of the dehumidification runner, the clothing in the clothing cavity can be dried better. BRIEF DESCRIPTION OF THE DRAWINGS
[0022] The following combines specific embodiments and drawings to describe the present utility model in detail, where:
[0023] Figure 1 is a schematic structural diagram of the present utility model;
[0024] Figure 2 is a schematic cross-sectional structural diagram of the present utility model;
[0025] Figure 3 is a schematic partial cross-sectional structural diagram of the present utility model.
[0026] In the figure: 10, cabinet body; 101, installation cavity; 1011, air cavity; 1012, partition; 1013, heating cavity; 102, communication port; 103, clothing cavity; 20, air inlet member; 201, air inlet pipe; 202, filter; 203, air inlet fan; 204, heating member; 205, heat conducting plate; 30, dehumidification runner; 40, air outlet member; 401, baffle plate; 402, first air outlet pipe; 403, heating device; 404, second air outlet pipe; 405, air outlet fan; 406, third air outlet pipe. DETAILED DESCRIPTION OF THE EMBODIMENTS
[0027] In order to make the objectives, technical solutions and advantages of the present utility model clearer, the present utility model will be described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the following specific embodiments are only used to explain the present utility model and do not constitute a limitation to the present utility model.
[0028] As Figure 1 and Figure 2 shown, a rotary dehumidification wardrobe includes a cabinet body 10, which is divided into a clothing cavity 103 and an installation cavity 101. A communication port 102 is also provided between the clothing cavity 103 and the installation cavity 101 to penetrate the two. Among them, the clothing cavity 103 is used for hanging clothes, and the installation cavity 101 is used for installing an air inlet member 20 and an air outlet member 40, so that the air inlet member 20 can draw in external air, and after dehumidification, filtration and heating, it flows into the clothing cavity 103, so that the dry hot air dehumidifies the clothes in the clothing cavity 103 and promotes the drying of the clothes. Specifically, the wind direction of the air inlet member 20 is as Figure 2 shown by the arrow; for the air outlet member 40, one end is connected to the communication port 102, and the other end leads to the outside of the cabinet body 10, so that the air outlet member 40 can extract the hot air and part of the wet air in the clothing cavity 103 and gradually extract it out of the wardrobe. Specifically, the wind direction is as Figure 3 shown; by transporting dry hot air into the clothing cavity 103 through the air inlet member 20 and discharging the hot air in the clothing cavity 103 through the air outlet member 40, a balance is achieved in the clothing cavity 103.
[0029] Specifically, as Figure 2 and Figure 3As shown in the figure, the installation cavity 101 is divided into an air cavity 1011, a partition layer 1012, and a heating cavity 1013, which are arranged in sequence from bottom to top. The air inlet member 20 includes an air inlet pipe 201 and an air inlet fan 203 installed in the air cavity 1011, and a filter 202 is also installed in the air inlet pipe 201. A dehumidification wheel 30 is rotatably installed in the partition layer 1012. A heat conduction plate 205 communicating with the clothing cavity 103 is installed on the side of the heating cavity 1013. The heat conduction plate 205 extends into the clothing cavity 103, preferably extending from the side of the heating cavity 1013 to the clothing cavity 103 to maintain the space in the clothing cavity 103. Heat flows from above the heat conduction plate 205 to the clothing cavity 103. A heating member 204 is arranged inside the heat conduction plate 205 or between the heat conduction plate 205 and the inner wall of the heating cavity 1013. The heating member 204 can also be arranged on both the heat conduction plate 205 and the inner wall of the heating cavity 1013. Preferably, the heating member 204 is arranged inside the heat conduction plate 205 or at the junction of the heat conduction plate 205 and the heating cavity 1013. The heating member 204 can be in the form of a heating wire, an electric heating film, or an electric heating plate. When dry hot air is introduced into the clothing cavity 103 for dehumidification, the air inlet fan 203 is started, so that the air outside the cabinet 10 passes through the filter 202 to remove impurities in the air. The filtered air passes through the dehumidification wheel 30 through the air inlet fan 203. The dehumidification wheel 30 adsorbs the moisture in the external air and flows into the heating cavity 1013 through the dehumidification wheel 30. The dry air is gradually heated by the heating member 204 on the side of the heating cavity 1013, and the heated hot air will flow into the clothing cavity 103 along the cavity of the heat conduction plate 205, so that the dry hot air dehumidifies the inside of the clothing cavity 103.
[0030] Regarding the use of the dehumidification wheel 30, since the dehumidification wheel 30 dehumidifies the air flowing from the air inlet fan 203 to the heating cavity 1013, in order to ensure the dehumidification effect of the dehumidification wheel 30, the dehumidification wheel 30 needs to be rotated so that its dry part continues to absorb moisture from the air. For this application, a belt drive method is preferably adopted, specifically as Figure 3 shown in the figure. A belt is sleeved around the periphery of the dehumidification wheel 30. A motor is installed in the heating cavity 1013. A pulley is installed at the output end of the motor in the partition layer 1012. The pulley is sleeved on the other end of the belt. The dehumidification wheel 30 is rotated by driving the pulley and the belt by the motor. In addition, a gear and a gear ring meshing method can also be adopted.
[0031] Specifically, as Figure 3As shown in the figure, the air outlet part 40 includes a heating device 403 installed in the heating cavity 1013. In the heating device 403, air can be heated to a range of 250 ± 10 °C, which is the regeneration temperature of the dehumidifying rotor 30. Therefore, based on the hot air in the wardrobe cavity 1013, additional heating is required to reduce part of the heat that the heating device 403 needs to heat. The air inlet end and the air outlet end of the heating device 403 are respectively installed with a first air outlet pipe 402 and a second air outlet pipe 404. One end of the first air outlet pipe 402 far from the heating device 403 is close to the communication port 102, and a baffle plate 401 is installed. Through the blockage of the baffle plate 401, the air in the clothing cavity 103 can only flow to the heating device 403 through the communication port 102 and the first air outlet pipe 402. One end of the second air outlet pipe 404 far from the heating device 403 faces the dehumidifying rotor 30. After the gas flowing from the clothing cavity 103 to the heating device 403 is reheated, it flows to the dehumidifying rotor 30 through the second air outlet pipe 404. An air outlet fan 405 and a third air outlet pipe 406 are also installed in the installation cavity 101. The air inlet of the air outlet fan 405 is arranged opposite to the air outlet of the second air outlet pipe 404, that is, on both sides of the dehumidifying rotor 30, so that the hot air discharged from the second air outlet pipe 404 heats the dehumidifying rotor 30. After the dehumidifying rotor 30 is heated, the moisture and hot air gradually flow to the outside of the cabinet 10 through the air outlet fan 405 and the third air outlet pipe 406. The specific wind direction of the hot air flowing out of the clothing cavity 103 is as Figure 3 the arrow.
[0032] The filtered wet air is conveyed to one side of the dehumidifying rotor 30 by the air inlet fan 203. One side of the dehumidifying rotor 30 is divided into an adsorption area. As the dehumidifying rotor 30 rotates, the second air outlet pipe 404 conveys hot air to the other side of the dehumidifying rotor 30. The area of the dehumidifying rotor 30 after adsorption contacts the hot air. The hot air heats it, and the moisture and the cooled air are discharged from the third air outlet pipe 406 under the action of the air outlet fan 405. The side of the dehumidifying rotor 30 opposite to the adsorption area is divided into a regeneration area. The whole process can keep the dehumidifying rotor 30 in cyclic use, make full use of the heat in the clothing cavity 103, and combine with the heating device 403 to keep the dehumidifying rotor 30 in cyclic use.
[0033] The heating device 403 and the heating element 204 can be turned on according to the situation. Specifically, when the dehumidification runner 30 is driven by the motor, the heat dissipated by the motor will flow into the clothing chamber 103 together with the hot air. Therefore, the heating element 204 does not require too high power. Similarly, if the external air is dry and the regeneration area where the dehumidification runner 30 is not required does not need to work, the heating plate in the heating device 403 can also be turned off and does not need to be started. It only needs the air in the clothing chamber 103 to pass through the heating device 403. If the temperature in the clothing chamber 103 is too high, the air outlet fan 405 can be directly started, and the air outlet fan 405 will extract the air in the clothing chamber 103 after passing through the first air outlet pipe 402, the heating device 403, and the second air outlet pipe 404.
[0034] The above are only the preferred embodiments of the present invention, and do not limit the patent scope of the present invention. Any equivalent structural transformation made by using the description and drawings of the present invention under the inventive concept of the present invention, or direct / indirect application in other related technical fields, is included in the patent protection scope of the present invention.
Claims
1. A rotary dehumidifying wardrobe, comprising a cabinet body (10), which comprises an installation cavity (101) and a clothing cavity (103), characterized in that: Also includes A dehumidification wheel (30) rotates on the inner wall of the installation chamber (101) and divides the installation chamber (101) into an air chamber (1011) and a heating chamber (1013); an air inlet member (20) disposed in the air cavity (1011) and the heating cavity (1013), and forming an air inflow passage sequentially passing through the air cavity (1011), the adsorption area of the dehumidification wheel (30), the heating cavity (1013), and the clothing cavity (103); and An air outlet member (40) is disposed in the air cavity (1011) and the heating cavity (1013), and forms an outlet air duct which sequentially passes through the clothing cavity (103), the heating cavity (1013), the regeneration zone of the dehumidification wheel (30), and the air cavity (1011).
2. The rotary dehumidifying wardrobe according to claim 1, characterized in that: A partition (1012) for accommodating the dehumidification wheel (30) is also provided between the installation cavity (101) and the heating cavity (1013).
3. The rotary dehumidifying wardrobe according to claim 1, characterized in that: The air inlet component (20) comprises an air inlet fan (203) and an air inlet pipe (201) connected in the air cavity (1011); one end of the air inlet pipe (201) away from the air inlet fan (203) is connected to the outside of the cabinet (10); the output end of the air inlet fan (203) faces the adsorption area of the dehumidification wheel (30), so that the air outside the cabinet (10) flows from the air inlet pipe (201) to the air inlet fan (203), and the air flowing out of the air inlet fan (203) flows from the dehumidification wheel (30) to the heating cavity (1013).
4. The rotary dehumidifying wardrobe according to claim 3, characterized in that: A filter (202) is installed on the inner wall of the air inlet pipe (201).
5. The rotary dehumidifying wardrobe according to claim 1, characterized in that: The air inlet member (20) further comprises a heat conducting plate (205) extending from the heating chamber (1013) to the clothing chamber (103), and a heating member (204) is installed on the inner wall of the heat conducting plate (205) and / or the heating chamber (1013).
6. The rotary dehumidifying wardrobe according to claim 5, characterized in that: The heating element (204) comprises a heating wire, an electric heating film or an electric heating plate.
7. The rotary dehumidifying wardrobe according to claim 1, characterized in that: The air outlet component (40) comprises a pipe in the heating chamber (1013) connecting the clothing chamber (103) and the regeneration zone of the dehumidification wheel (30), an air outlet fan (405) and a third air outlet pipe (406) connected in the installation chamber (101), wherein one end of the third air outlet pipe (406) away from the air outlet fan (405) is connected to the outside of the cabinet (10), and the air inlet end of the air outlet fan (405) faces the regeneration zone of the dehumidification wheel (30), so that the air in the clothing chamber (103) flows from the pipe of the heating chamber (1013) to the regeneration zone of the dehumidification wheel (30), and flows out from the third air outlet pipe (406) after being drawn out by the air outlet fan (405).
8. The rotary dehumidifying wardrobe according to claim 7, characterized in that: The pipe connecting the clothing chamber (103) and the regeneration zone of the dehumidification wheel (30) comprises a first air outlet pipe (402) having one end connected to the clothing chamber (103) and a second air outlet pipe (404) having one end connected to the regeneration zone of the dehumidification wheel (30); the other ends of the first air outlet pipe (402) and the second air outlet pipe (404) are close to each other and are provided with a heating device (403).
9. The rotary dehumidifying wardrobe according to claim 8, characterized in that: A communication port (102) is also provided between the clothing chamber (103) and the heating chamber (1013); a baffle (401) is installed at the end of the first air outlet pipe (402) communicating with the clothing chamber (103), and is fixed to the inner wall of the heating chamber (1013) via the baffle (401).