Clothes hanger structure and intelligent clothes hanger

Abstract

According to the clothes hanger structure and the intelligent clothes hanger, a containing cavity is formed in a clothes hanger component, a condensation pipe and a water storage assembly are arranged in the containing cavity, and at the moment, a refrigeration device is controlled to work because wet clothes are usually aired in a clothes airing area where the intelligent clothes hanger is located, moisture in air is much, and the humidity of the clothes airing area easily reaches the preset humidity; when water vapor enters the condensation pipe through the dehumidification opening, heat is released, the water vapor is liquefied into liquid water, and the liquid water flows out of the water flowing hole and flows into the transfer groove of the water storage assembly. When wet clothes are aired on the intelligent clothes hanger, the environment humidity of the clothes airing area is larger than the humidity of other areas, the environment humidity of the clothes airing area is detected through a humidity sensor on the intelligent clothes hanger, and when the controller detects that the environment humidity of the clothes airing area is larger than a preset threshold value, the controller controls the refrigerating device to work. And water vapor in the air is liquefied and stored in the transfer groove of the water storage assembly through the condensation pipe.

Description

Technical Field

[0001] The present disclosure relates to the technical field of smart home, and particularly to a hanger structure and a smart hanger. Background Art

[0002] With the progress of technology and the continuous improvement of living standards, people increasingly need various smart household furniture to bring convenience to them. Smart hangers provide conveniences such as being retractable, automatically lifting, and drying, so the application of smart hangers has become an inevitable trend.

[0003] During the application of smart hangers, when drying wet clothes, there is more moisture in the air in the clothes drying area, and the environment is humid. Although existing dehumidifiers can dehumidify and reduce the environmental humidity. However, even when the dehumidifier is turned on, on the one hand, due to the presence of wet clothes in the clothes drying area, the environmental humidity in the clothes drying area is usually greater than that in other areas; on the other hand, since the area where the dehumidifier is located is closer to the dehumidifier, the dehumidification effect is better, while there is a certain distance between the clothes drying area and the dehumidifier, it is not easy to collect the moisture in the clothes drying area, the dehumidification effect is average, and the wet clothes are not easy to dry. Summary of the Utility Model

[0004] The present disclosure provides a hanger structure and a smart hanger to utilize the moisture in the air and reduce water resource waste.

[0005] In a first aspect, the present disclosure provides a hanger structure, including: a hanger component, a condensation pipe, and a water storage assembly;

[0006] The hanger component is provided with a receiving cavity, and the condensation pipe and the water storage assembly are installed in the receiving cavity;

[0007] The hanger component is provided with a dehumidification port, the dehumidification port is communicated with the condensation pipe, and a water flow hole is opened on the side wall of the condensation pipe, and the water flow hole is communicated with the condensation pipe;

[0008] The water storage assembly is provided with a transfer groove, the transfer groove faces the water flow hole, and the transfer groove is used for collecting the liquid flowing out of the water flow hole.

[0009] In some embodiments, it includes: a humidifying instrument, the humidifying instrument is installed in the receiving cavity, the humidifying instrument has a humidifying inlet and a humidifying outlet, the humidifying inlet of the humidifying instrument is communicated with the transfer groove, a humidifying port is opened on the side wall of the receiving cavity, the humidifying outlet faces the humidifying port, and the humidifying instrument generates humidifying gas by using the liquid inside the humidifying instrument and discharges the humidifying gas to the humidifying outlet of the humidifying instrument.

[0010] In some embodiments, a blower is installed in the receiving cavity, and the blower is arranged between the humidifying outlet and the humidifying port.

[0011] In some embodiments, the dehumidification ports include a first dehumidification port and a second dehumidification port. The first end of the condensation tube is communicated with the first dehumidification port, and the second end of the condensation tube is communicated with the second dehumidification port.

[0012] In some embodiments, a check valve is installed in the condensation tube.

[0013] In some embodiments, a heating element is installed in the condensation tube.

[0014] In some embodiments, the heating element and the water flow holes are arranged at intervals in sequence along the extending direction of the condensation tube.

[0015] In some embodiments, the water storage assembly includes a water collecting body and a water storage tank connected to each other. The transfer tank includes a water collecting tank and a water storage tank communicated with each other. The water collecting tank is opened on the water collecting body, and the water storage tank is opened on the water storage tank. The water collecting tank faces the water flow holes, and the distance between the water collecting tank and the condensation tube gradually increases from the side far away from the water storage tank to the side close to the water storage tank. The water collecting tank is used for collecting the liquid flowing out of the water flow holes.

[0016] In some embodiments, the water flow holes are distributed along the axial direction of the condensation tube, and the transfer tank extends along the distribution direction of the water flow holes.

[0017] In a second aspect, the present disclosure provides an intelligent clothes hanger, including the clothes hanger structure described in any of the above embodiments.

[0018] For a clothes hanger structure and an intelligent clothes hanger provided by the present disclosure, by providing an accommodation cavity in a clothes hanger component and arranging a condensation tube and a water storage assembly in the accommodation cavity, since the drying area where the intelligent clothes hanger is located usually dries wet clothes, there is more moisture in the air, and the humidity in the drying area is likely to reach a preset humidity. At this time, the refrigeration device is controlled to work to lower the temperature of the condensation tube. The condensation tube is arranged on the intelligent clothes hanger, which is convenient for water vapor in the drying area to enter the condensation tube. When the water vapor enters the condensation tube through the dehumidification port, it releases heat and liquefies into liquid water. The liquid water flows out from the water flow holes and flows into the transfer tank of the water storage assembly. With such a design, when the intelligent clothes hanger dries wet clothes, the environmental humidity in the drying area is greater than that in other areas. The environmental humidity in the drying area is detected by a humidity sensor on the intelligent clothes hanger, and the controller receives the environmental humidity in the drying area collected by the humidity sensor. When the controller detects that the environmental humidity in the drying area is greater than a preset threshold, the controller controls the refrigeration device to work, and liquefies the water vapor in the air through the condensation tube and stores it in the transfer tank of the water storage assembly.

[0019] 1. Technical feature: a condensing tube. Technical effect: It solves the problem that when the environmental humidity is low, the moisture in the air can be liquefied through the condensing tube to reduce the environmental humidity.

[0020] 2. Technical feature: a water storage component. Technical effect: It solves the problem of storing water resources. When the environmental humidity is high, the liquefied water resources are stored, and when the environmental humidity is low, the stored water resources can be utilized. Brief Description of the Drawings

[0021] The present disclosure will be described in more detail below based on embodiments and with reference to the accompanying drawings:

[0022] Figure 1 Structural schematic diagram of a hanger structure provided by an embodiment of the present disclosure;

[0023] Figure 2 Structural schematic diagram of an intelligent hanger provided by an embodiment of the present disclosure;

[0024] Figure 3 Structural schematic diagram of an intelligent hanger provided by an embodiment of the present disclosure;

[0025] Figure 4 Flow schematic diagram of a control method for an intelligent clothes dryer combined with dehumidification and humidification functions provided by an embodiment of the present disclosure.

[0026] Reference numerals: 10, hanger component; 100, condensing tube; 110, water flow hole; 120, heating element; 200, water storage component; 210, water collection body; 220, water storage tank; 230, water injection pipe; 300, humidifying instrument; 400, fan; 201, first dehumidification port; 202, second dehumidification port; 203, accommodation cavity; 30, humidification port; 40, anti-slip port; 50, telescopic component; 60, hanger hook. Detailed Description of the Embodiments

[0027] In order to enable those skilled in the art to better understand the technical solutions of the present disclosure, and to fully understand how the present disclosure uses technical means to solve technical problems and achieve the corresponding technical effects, and to implement accordingly, the technical solutions in the embodiments of the present disclosure will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present disclosure. Obviously, the described embodiments are only a part of the embodiments of the present disclosure, rather than all the embodiments. The embodiments of the present disclosure and each feature in the embodiments can be combined with each other without conflict, and the formed technical solutions are all within the protection scope of the present disclosure. Based on the embodiments in the present disclosure, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present disclosure.

[0028] It should be noted that the terms "first", "second", etc. in the description, claims and above-mentioned drawings of the present disclosure are used to distinguish similar objects, and do not necessarily need to describe a specific order or sequence. It should be understood that the data used in this way can be interchanged under appropriate circumstances, so that the embodiments of the present disclosure described herein can be implemented in an order other than those illustrated or described herein. In addition, the terms "comprising" and "having" and any variations thereof are intended to cover non-exclusive inclusion. For example, a process, method, system, product or device comprising a series of steps or units does not necessarily have to be limited to those steps or units clearly listed, but may include other steps or units not clearly listed or inherent to these processes, methods, products or devices.

[0029] It should be noted that the steps shown in the flowchart of the accompanying drawings can be executed in a computer system such as a set of computer-executable instructions, and although the logical order is shown in the flowchart, in some cases, the steps shown or described can be executed in a different order than here.

[0030] With the progress of technology and the continuous improvement of living standards, people increasingly need various intelligent household furniture to bring convenience to people. The intelligent clothes hanger provides people with conveniences such as being telescopic, automatically lifting, and drying, so the application of the intelligent clothes hanger has become an inevitable trend.

[0031] During the application of the intelligent clothes hanger, when drying wet clothes, there is more moisture in the air and the environment is humid, and the moisture in the air at this time is not utilized, resulting in a waste of water resources.

[0032] Example 1

[0033] Figure 1 The structural schematic diagram of a clothes hanger structure provided for the embodiments of the present disclosure. As Figure 1 and 2 shown, a clothes hanger structure includes: a clothes hanger component 10, a condensing pipe 100, and a water storage assembly 200;

[0034] The clothes hanger component 10 is provided with a receiving cavity 203, and the condensing pipe 100 and the water storage assembly 200 are installed in the receiving cavity 203;

[0035] The clothes hanger component 10 is provided with a dehumidification port, the dehumidification port is communicated with the condensing pipe 100, a water flow hole 110 is opened on the side wall of the condensing pipe 100, and the water flow hole 110 is communicated with the condensing pipe 100;

[0036] The water storage assembly 200 is provided with a transfer groove, the transfer groove is arranged facing the water flow hole 110, and the transfer groove is used for collecting the liquid flowing out of the water flow hole 110.

[0037] In this embodiment, the hanger component 10 can be a local component in an intelligent hanger, such as a connecting component between a hook and a crossbeam. The hanger component 10 is provided with a receiving cavity, and the condensing pipe 100 and the water storage assembly 200 are installed in the receiving cavity to fix the positions of the condensing pipe 100 and the water storage assembly 200. The hanger component 10 is provided with a dehumidification port, and the dehumidification port is communicated with the condensing pipe 100. The gas near the intelligent hanger enters the condensing pipe 100 through the dehumidification port. The temperature of the pipe wall of the condensing pipe 100 is relatively low. The water vapor in the condensing pipe 100 contacts the pipe wall of the condensing pipe 100, releases heat, and liquefies into liquid water. The liquid water in the condensing pipe 100 flows out from the water flow hole 110. The water flow hole 110 can be the pipe orifice at one end of the condensing pipe 100 away from the dehumidification port. The height of one end of the condensing pipe 100 close to the dehumidification port is greater than the height of one end of the water flow hole 110, so that the liquid in the condensing pipe 100 flows towards the lower water flow hole 110 under the action of gravity, and then can flow out of the condensing pipe 100 from the water flow hole 110. The water flow hole 110 can also be a through hole opened on the side wall of the condensing pipe 100. The condensing pipe 100 has at least one pipe orifice. One of the pipe orifices is communicated with the dehumidification port. The gas near the intelligent hanger flows into the condensing pipe 100 from this pipe orifice. The gas in the condensing pipe 100 liquefies into liquid. The water flow hole 110 faces the ground. The liquid in the condensing pipe 100 flows out from the water flow hole 110 under the action of gravity, and the transfer groove facing the water flow hole 110 catches the liquid flowing down from the water flow hole 110.

[0038] In this embodiment, when dehumidification is required, the condensing pipe 100 can be controlled to enter a low-temperature state to liquefy the water vapor flowing into the condensing pipe 100, so as to achieve dehumidification. By setting the controller to be respectively connected with the refrigeration device of the condensing pipe 100, the controller is also connected with a humidity sensor. The humidity sensor is arranged on the intelligent hanger. The humidity sensor is used to detect the environmental humidity. The controller obtains the environmental humidity and controls the refrigeration device of the condensing pipe 100 to work according to the environmental humidity. It should be understood that comparing the environmental humidity with the preset humidity range to determine whether to turn on the dehumidification function belongs to an existing logical control method.

[0039] In this embodiment, by providing a receiving cavity 203 in the hanger component 10 and arranging the condensing pipe 100 and the water storage assembly 200 in the receiving cavity 203, since the drying area where the intelligent hanger is located usually dries wet clothes and there is more moisture in the air, the humidity in the drying area is likely to reach the preset humidity. At this time, the refrigeration device is controlled to operate to lower the temperature of the condensing pipe 100. The condensing pipe 100 is arranged on the intelligent hanger, facilitating the entry of water vapor in the drying area into the condensing pipe 100. When the water vapor enters the condensing pipe 100 through the dehumidification port, it releases heat and liquefies into liquid water. The liquid water flows out from the water flow hole 110 and into the transfer tank of the water storage assembly 200. With such a design, when the intelligent hanger dries wet clothes, the environmental humidity in the drying area is greater than that in other areas. The environmental humidity in the drying area is detected by the humidity sensor on the intelligent hanger, and the controller receives the environmental humidity in the drying area collected by the humidity sensor. When the controller detects that the environmental humidity in the drying area is greater than the preset threshold, the controller controls the refrigeration device to operate, and the water vapor in the air is liquefied by the condensing pipe 100 and stored in the transfer tank of the water storage assembly 200.

[0040] In one embodiment, the hanger structure further includes a humidifying instrument 300. The humidifying instrument 300 is installed in the receiving cavity. The humidifying instrument 300 has a humidifying inlet and a humidifying outlet. The humidifying inlet of the humidifying instrument 300 is communicated with the transfer tank. A humidifying port is provided on the side wall of the receiving cavity, and the humidifying outlet faces the humidifying port. The humidifying instrument 300 generates humidifying gas using the liquid inside the humidifying instrument 300 and discharges the humidifying gas to the humidifying outlet of the humidifying instrument 300.

[0041] In this embodiment, when it is detected that the environmental humidity in the clothes drying area is lower than the preset threshold and there are no clothes hung on the smart clothes hanger, the controller controls the refrigeration device to operate. The transfer tank is used to supply liquid to the instrument for humidification. The liquid in the transfer tank flows to the humidification inlet and enters the interior of the humidification instrument 300. The humidification instrument 300 generates humidified gas using the liquid inside the humidification instrument 300, discharges the humidified gas to the humidification outlet of the humidification instrument 300, flows out of the clothes hanger component through the humidification port, and enters the environment where the smart clothes hanger is located to increase the environmental humidity. When there are no clothes hung on the smart clothes hanger and the environment is dry, the humidification instrument 300 uses the stored moisture to generate and discharge humidified gas to increase the environmental humidity, thereby enabling the utilization of moisture in the air and reducing water resource waste. Among them, whether there are clothes hung on the smart clothes hanger can be detected by a weight sensor to detect the change in the weight of the smart clothes hanger to determine whether there are clothes hung. When it is detected that the weight of the smart clothes hanger increases to the preset weight threshold, it can be determined that there are clothes hung on the smart clothes hanger. Whether there are clothes hung on the smart clothes hanger can be detected by infrared rays to determine whether there is an object in the clothes hanging area of the smart clothes hanger. An infrared emitter and an infrared receiver are respectively arranged on both sides of the clothes hanging area. The infrared emitter emits infrared rays to the infrared receiver. When there are clothes hung in the clothes hanging area, the infrared receiver generates a signal change, and it can be determined that there are clothes hung on the smart clothes hanger. Among them, how the controller determines whether there are clothes hung based on the signals collected by the weight sensor or the infrared receiver belongs to the existing control method.

[0042] As Figure 1 shown, in one embodiment, the dehumidification ports include a first dehumidification port 201 and a second dehumidification port 202. The first end of the condensation pipe 100 is communicated with the first dehumidification port 201, and the second end of the condensation pipe 100 is communicated with the second dehumidification port 202. In this embodiment, two dehumidification ports, namely the first dehumidification port 201 and the second dehumidification port 202, are provided, so that the air near the smart clothes hanger can flow into the condensation pipe 100 from different dehumidification ports. The air can enter the first end of the condensation pipe 100 from the first dehumidification port 201, and the air can enter the second end of the condensation pipe 100 from the second dehumidification port 202, facilitating more air to enter the condensation pipe 100 and removing more moisture from the air.

[0043] Furthermore, there can be multiple condensation pipes 100. The number of dehumidification ports is at least greater than the number of condensation pipes 100. Each condensation pipe 100 is communicated with at least one dehumidification port, and each condensation pipe 100 is respectively provided with a water flow hole 110. In this embodiment, in order to improve the dehumidification effect, multiple condensation pipes 100 can be provided, so that more air can enter the condensation pipe 100, liquefy the water vapor in the air, reduce the moisture in the air, lower the environmental humidity, and improve the dehumidification effect.

[0044] Further, at least two different condenser tubes 100 are isolated from each other, and each condenser tube 100 is electrically connected to a refrigeration device. In this embodiment, in order to perform dehumidification more flexibly, at least two different condenser tubes 100 are isolated from each other, and the condenser tubes 100 can perform dehumidification independently. The refrigeration devices of the condenser tubes 100 at the positions where dehumidification is required are controlled to work, so that the temperature of the corresponding condenser tube 100 is reduced, and the water vapor in the condenser tube 100 is liquefied, thereby flexibly controlling dehumidification at different positions.

[0045] Further, at least two different condenser tubes 100 are connected to each other. In this embodiment, in order to improve the dehumidification efficiency, the condenser tubes 100 are connected to each other, so that gas can flow between different condenser tubes 100, making the gas distribution in the condenser tubes 100 more uniform and improving the dehumidification efficiency.

[0046] Further, each condenser tube 100 is respectively provided with a plurality of water flow holes 110, and the water flow holes 110 are equally spaced along the axial direction of the condenser tube 100. In this embodiment, each condenser tube 100 is provided with a plurality of water flow holes 110, so that the liquid generated by liquefaction in each condenser tube 100 can flow out of the condenser tube 100 in time and flow into the transfer tank for storage.

[0047] In one embodiment, a check valve is installed in the condenser tube 100. In this embodiment, in order to improve the dehumidification efficiency, a check valve is installed in the condenser tube 100 to control the flow direction of the gas, so that after entering from the dehumidification port, it flows along the extending direction of the condenser tube 100, releases heat sufficiently, facilitates the liquefaction of water vapor, and improves the dehumidification efficiency.

[0048] Further, there are at least two check valves. One check valve is arranged near the first dehumidification port 201, and one check valve is arranged near the second dehumidification port 202. The conduction directions of the two check valves are the same. In this embodiment, check valves are respectively arranged at both ends of the condenser tube 100. One check valve is near the first dehumidification port 201, and one check valve is near the second dehumidification port 202. The conduction directions of the two check valves are the same, so that the gas in the condenser tube 100 flows along the axial direction of the condenser tube 100, for example, from one end near the first dehumidification port 201 to the end near the second dehumidification port 202, making the gas fully contact with the condenser tube 100 and improving the dehumidification efficiency.

[0049] Further, the first dehumidification port 201 and the second dehumidification port 202 are respectively arranged at two opposite ends of the hanger component 10. In this embodiment, the first dehumidification port 201 and the second dehumidification port 202 are arranged at two opposite ends of the hanger component 10, so that the gas on one side of the hanger component 10 can be inhaled, for example, entering the condensing pipe 100 through the first dehumidification port 201, liquefying the gas. The liquefied gas has a lower humidity and is discharged from the other side of the hanger component 10, for example, discharged from the hanger component 10 through the second dehumidification port 202, so as to reduce the humidity of the environment where the smart hanger is located and realize the cyclic dehumidification of the gas.

[0050] As Figure 1 shown, in one embodiment, a heating element 120 is installed in the condensing pipe 100. In this embodiment, the heating element 120 is installed in the condensing pipe 100 to heat the gas in the condensing pipe 100, so that after the heated gas contacts the condensing pipe 100, it is more likely to liquefy into water, improving the dehumidification efficiency.

[0051] As Figure 1 shown, in one embodiment, the heating element 120 and the water flow holes 110 are arranged at intervals in sequence along the axial direction of the condensing pipe 100. In this embodiment, the heating element 120 is distributed along the axial direction of the condensing pipe 100, so that the gas at different positions in the condensing pipe 100 can be heated, making the gas at different positions in the condensing pipe 100 easy to liquefy and improving the dehumidification efficiency. The water flow holes 110 are distributed along the axial direction of the condensing pipe 100, so that the liquefied liquid can flow out of the condensing pipe 100 in time. The heating element 120 and the water flow holes 110 are arranged at intervals, so that the liquefied liquid after heating and liquefaction flows out from the nearby water flow holes 110, shortening the path of the liquefied liquid flowing towards the water flow holes 110 and discharging the liquefied liquid from the water flow holes 110 in time.

[0052] In this embodiment, each heating element is connected to the controller. When the ambient temperature is relatively low, the temperature of the gas is relatively low and it is not easy to condense and liquefy. At this time, when it is detected that the ambient temperature is relatively low, the heating element can be started to heat the gas in the condensing pipe, promoting the liquefaction speed and improving the dehumidification efficiency.

[0053] Further, the heating element 120 is in a plate shape. In this embodiment, the heating element 120 is in a plate shape, and the larger the contact area between the heating element 120 and the gas, the more convenient it is to increase the temperature of more gas when the gas contacts the heating element 120, so as to liquefy more gas and improve the dehumidification efficiency.

[0054] Further, two adjacent heating elements are arranged in parallel, and there is at least one water flow hole between two adjacent heating elements. In this embodiment, the heating element is in a plate shape, and a condensation sub-region in the condensing pipe is formed between the two heating elements. The heating elements on both sides heat the gas in the condensation sub-region, and the heated liquid contacts the condensing pipe and liquefies into a liquid, which flows out from the water flow holes in time.

[0055] Further, each heating element is distributed along the axial direction of the condensing pipe at a preset interval. In this embodiment, there are multiple heating elements, and the interval between two adjacent heating elements is the preset interval, and the intervals between any two heating elements are the same, so that the heating elements can uniformly heat the gas in the condensing pipe.

[0056] In one embodiment, there are multiple humidifying instruments and multiple humidifying ports. The humidifying outlet of each humidifying instrument faces a humidifying port, and at least two different humidifying ports are arranged on different sides of the hanger component. In this embodiment, humidifying ports are respectively opened on at least two different sides of the hanger component, and each humidifying port communicates with the humidifying outlet of a humidifying instrument, so that each humidifying port can discharge humidified gas. Since the humidifying ports are in different positions on the hanger component, the humidified gas can be discharged to different positions outside, humidifying different positions, making the humidification more uniform.

[0057] In one embodiment, a blower is respectively arranged at each humidifying port. In this embodiment, by arranging a blower at each humidifying port, the humidified gas generated by the humidifying instrument can be quickly discharged to the outside, humidifying different positions outside in time, and improving the humidifying efficiency.

[0058] As Figure 1 shown, in one embodiment, the water storage assembly 200 includes a water collecting body 210 and a water storage tank 220 which are connected. The transfer tank includes a water collecting tank and a water storage tank which are communicated. The water collecting tank is opened on the water collecting body 210, the water storage tank is opened on the water storage tank 220, the water collecting tank faces the water flowing hole 110, and the distance between the water collecting tank and the condensing pipe 100 gradually increases from the side far away from the water storage tank to the side close to the water storage tank. The water collecting tank is used for collecting the liquid flowing out of the water flowing hole 110.

[0059] In this embodiment, a water collecting tank is opened on the water collecting body 210. The water collecting tank is used for collecting the liquid flowing out of the condensing pipe 100. The water collecting tank faces the condensing hole, and the height of the condensing hole is greater than the height of the water collecting tank. The liquid in the condensing pipe 100 falls into the water collecting tank under the action of gravity. The distance between the water collecting tank and the condensing pipe 100 gradually increases from the side far away from the water storage tank to the side close to the water storage tank, and the height of the water collecting tank gradually decreases from the side far away from the water storage tank to the side close to the water storage tank. The liquid in the water collecting tank flows from the side far away from the water storage tank to the side close to the water storage tank and flows into the water storage tank of the water storage tank 220. The water storage tank is used for storing the liquid liquefied during the dehumidification process for use during the humidification process.

[0060] Further, a one-way valve is installed in the condenser tube 100, and the distance between the water collecting tank and the condenser tube 100 gradually increases along the direction of gas flow in the condenser tube 100. In this embodiment, the distance between the water collecting tank and the condenser tube 100 gradually increases along the direction of gas flow in the condenser tube 100, and the height of the water collecting tank gradually decreases along the direction of gas flow. A one-way valve is installed in the condenser tube 100, and the gas in the condenser tube 100 flows unidirectionally. When the gas flows in the condenser tube 100, along the direction of gas flow, the longer the contact time between the gas and the condenser tube 100, the easier it is for the gas to liquefy into a liquid, the more liquid is produced by liquefaction, the distance between the water collecting tank and the condenser tube 100 gradually increases, the height of the water collecting tank gradually decreases, the closer the water collecting tank is to the water storage tank, the shorter the flow path for the liquid to flow from the water collecting tank into the water storage tank, and the easier it is to flow into the water storage tank.

[0061] As Figure 1 shown, in one embodiment, each of the water flow holes 110 is distributed along the axial direction of the condenser tube 100, and the transfer tank extends along the distribution direction of the water flow holes 110. In this embodiment, the water flow holes 110 are distributed along the axial direction of the condenser tube 100. When the gas flows through the condenser tube 100, the liquid produced by liquefaction at different positions can easily flow out of the condenser tube 100 through the nearby water flow holes 110. The transfer tank of the water storage assembly 200 extends along the distribution direction of the water flow holes 110 to collect the liquid flowing out of each water flow hole 110. Further, the water collecting tank extends along the distribution direction of the water flow holes 110.

[0062] As Figure 1 shown, in one embodiment, a fan 400 is installed in the accommodation cavity, and the fan 400 is arranged between the humidification outlet and the humidification port 30. In this embodiment, in order to facilitate the discharge of the humidified gas, a fan 400 is arranged between the humidification outlet and the humidification port 30 to discharge the humidified gas out of the accommodation cavity and into the environment where the smart clothes hanger is located, improving the humidification efficiency.

[0063] In one embodiment, the hanger structure further includes a drain pipe, and the drain pipe is connected to the water storage assembly 200. In this embodiment, the drain pipe is used to discharge the liquid in the water storage tank of the water storage assembly 200, and the discharged liquid can be used for watering flowers, so as to achieve multiple uses of the same water and improve the utilization rate of water resources.

[0064] In one embodiment, the drain pipe is connected to a flower sprinkler. In this embodiment, in order to facilitate the utilization of the liquid in the water storage tank, the drain pipe is connected to the flower sprinkler, and when watering flowers with the drain pipe, the spraying direction can be controlled through the flower sprinkler.

[0065] In one embodiment, a temperature sensor is installed in the water storage tank of the water storage assembly 200. In this embodiment, the temperature sensor is used to detect the temperature of the liquid in the water storage tank. The temperature of the liquid can be sent to the user terminal through a wireless network, or the temperature sensor can be connected to a display instrument. The temperature sensor transmits the temperature of the liquid to the display instrument, and the display instrument displays the temperature of the liquid for the user to observe. When the temperature of the liquid is relatively low, the user can wait for the temperature of the liquid to rise before using the liquid in the water storage tank to water the flowers.

[0066] As Figure 1 shown, in one embodiment, a water injection pipe 230 is installed in the accommodating cavity. One end of the water injection pipe 230 is communicated with the water storage tank, and the other end of the water injection pipe 230 is communicated with the humidification inlet of the humidification instrument 300. The liquid in the water storage tank is injected into the water injection pipe 230 through a water pump. In this embodiment, in order to facilitate injecting the water storage tank into the humidification instrument 300, a water injection pipe 230 is provided between the water storage tank and the humidification instrument 300. The liquid in the water storage tank is injected into the water injection pipe 230 through a water pump, and the liquid in the water injection pipe 230 flows into the humidification instrument 300 along the axial direction of the water injection pipe 230.

[0067] Further, the water pump and the controller are electrically connected. In this embodiment, when the controller starts the humidification instrument 300, the water pump is started at the same time. The water pump continuously injects the liquid in the water storage tank into the water injection pipe 230 so that the water injection pipe 230 provides liquid to the humidification instrument 300 to generate humidified gas.

[0068] In one embodiment, each condenser tube 100 corresponds to a water collecting body 210 respectively. The water collecting tank of each water collecting body 210 extends along the distribution direction of the water flow holes 110 of the corresponding condenser tube 100, and each water collecting tank is communicated with the water storage tank. In this embodiment, in order to facilitate collecting the liquefied liquid of each condenser tube 100, a water collecting body 210 is respectively arranged below each condenser tube 100. Each water collecting body 210 is provided with a water collecting tank. Each water collecting tank is used to collect the liquid flowing out of the water flow holes 110 of the upper condenser tube 100 and respectively transports the liquid to the water storage tank. The water collecting tank extends along the distribution direction of the water flow holes 110 of the corresponding condenser tube 100, flexibly sets the placement position of the water collecting tank, collects more liquid, reduces the waste of water resources, and stores more moisture for the subsequent humidification process.

[0069] In one embodiment, the condenser tube includes a first sub-tube, a second sub-tube, and a third sub-tube that are connected in sequence. The first sub-tube is close to a dehumidification port, and the third sub-tube is close to another dehumidification port. The distance between the first sub-tube and the water collection tank is greater than the distance between the second sub-tube and the water collection tank. The distance between the third sub-tube and the water collection tank is greater than the distance between the third sub-tube and the water collection tank. The water flow holes are opened in the third sub-tube. In this embodiment, the first sub-tube and the third sub-tube are at both ends of the condenser tube, exchanging gas with the outside. The distance between the first sub-tube and the water collection tank is greater than the distance between the second sub-tube and the water collection tank, the height of the first sub-tube is greater than the height of the second sub-tube, the distance between the third sub-tube and the water collection tank is greater than the distance between the second sub-tube and the water collection tank, and the height of the third sub-tube is greater than the height of the second sub-tube. When the gas liquefies in the condenser tube, the liquefied liquid will flow in the condenser tube. In order to collect more liquefied liquid, the middle second sub-tube is set to be lower than the heights of both ends of the condenser tube to prevent the liquid from flowing out of both ends of the condenser tube.

[0070] Further, the distance between the first sub-tube and the bottom of the accommodating cavity gradually decreases from the end close to the dehumidification port to the end close to the second sub-tube. The distance between the third sub-tube and the bottom of the accommodating cavity gradually decreases from the end close to the dehumidification port to the end close to the second sub-tube. In this embodiment, no water flow holes are opened in the first sub-tube and the third sub-tube. In order to collect the liquid condensed here, the heights of the first sub-tube and the third sub-tube are gradually inclined downward along the direction close to the second sub-tube, so that. The liquid in the first sub-tube and the liquid in the third sub-tube flow downstream, flow into the second sub-tube, and then flow out of the condenser tube through the water flow holes in the second sub-tube.

[0071] Further, one-way valves are respectively arranged in the first sub-tube and the third sub-tube. The one-way valve in the first sub-tube introduces outside gas into the first sub-tube, and the one-way valve in the third sub-tube introduces the gas in the third sub-tube into the outside. Each heating element is arranged in the first sub-tube, and the heating elements are sequentially arranged at intervals along the axial direction of the first sub-tube. The distances between each heating element and the second sub-tube are respectively greater than the distance between the one-way valve in the first sub-tube and the second sub-tube. In this embodiment, one-way valves are respectively arranged in the first sub-tube and the third sub-tube. The outside gas enters the condenser tube through the one-way valve in the first sub-tube and flows out of the condenser tube through the one-way valve in the third sub-tube. The gas in the condenser tube flows from the first sub-tube to the third sub-tube. Since the distances between each heating element and the second sub-tube are respectively greater than the distance between the one-way valve in the first sub-tube and the second sub-tube, each heating element is closer to the outside of the first sub-tube. The gas first passes through the heating element and then passes through the one-way valve in the first sub-tube. The outside gas is first heated by the heating element in the first sub-tube and then enters the second sub-tube and the third sub-tube for liquefaction, reducing the overlap between the heating area and the condensation area and improving the liquefaction ability of the second sub-tube and the third sub-tube for the gas.

[0072] In this embodiment, a check valve is installed at one end of the condensing pipe 100 close to the first dehumidification port 201, and another check valve is installed at one end of the condensing pipe 100 close to the second dehumidification port 202. The conduction directions of the two check valves are the same. The check valve close to the first dehumidification port 201 introduces external gas into the condensing pipe 100, and the check valve close to the second dehumidification port 202 discharges the gas in the condensing pipe 100 to the outside. The gas in the condensing pipe 100 flows from the end close to the first dehumidification port 201 to the end close to the second dehumidification port 202. When the gas flows in the condensing pipe 100, under the action of the heating element 120, the temperature of the gas rises. When it contacts the condensing pipe 100, it quickly cools down and releases heat, and liquefies into a liquid. Since the heating element 120 and the water flow holes 110 are sequentially spaced apart in the axial direction of the condensing pipe 100, the liquid that is first heated and then condensed and liquefied can flow out of the water flow holes 110 in time and fall into the water collecting tank of the water collecting body 210 below under the action of gravity. The distance between the water collecting tank and the condensing pipe 100 gradually increases from the end far away from the water storage tank to the end close to the water storage tank, the height of the water collecting tank gradually decreases, and the liquid in the water collecting tank flows downstream under the action of gravity and flows in the direction of the water storage tank and into the water storage tank. The water storage tank stores the liquid. When the environmental humidity is low, the humidifying instrument 300 and the water pump are started. The water pump extracts the liquid in the water storage tank and inputs the liquid into the water injection pipe 230. The liquid in the water injection pipe 230 flows to the humidifying instrument 300. The humidifying instrument 300 uses the liquid inside the humidifying instrument 300 to generate humidifying gas. The humidity of the humidifying gas is greater than the environmental humidity. When the humidifying gas is discharged from the humidifying port 30 out of the hanger component 10, the humidity of the humidifying gas is relatively high, which can increase the environmental humidity, realize the humidifying function by using the pre-stored water resources, and improve the utilization rate of water resources.

[0073] In this embodiment, a check valve, that is, a one-way valve, is placed at each of the left and right ends of the condensing pipe, which can prevent air from entering from both sides, ensure that air enters from one end and exits from the other end, and achieve one-way flow.

[0074] In this embodiment, the heating sheets and the water outlets are staggered, which can allow the condensed water to flow into the water tank in time, preventing the condensed water from accumulating at this part and affecting the functions of the heating sheets and the dehumidification effect; and can improve the dehumidification efficiency of the dehumidification pipe to a certain extent.

[0075] In this embodiment, the height of the pipe gradually decreases: the pipe is inclined, and by using the height difference, the condensed water can flow into the water tank naturally without additional power such as a water pump; it not only saves components, simplifies the structure, but also reduces the weight of the overall structure.

[0076] In this embodiment, to solve the technical problems in the prior art that the intelligent drying rack cannot recycle the moisture of the dried clothes and cannot realize the functions of dehumidification and humidification, a humidity sensor is set on the intelligent drying rack to combine with intelligent monitoring of the environmental humidity, so as to automatically select different humidification or dehumidification modes, and realize the recycling of the moisture of the dried clothes and the moisture generated by the dehumidification mode, such as watering flowers, etc.; achieving the technical effects of "making the best use of everything" and recycling to save resources. The innovation proposed in this embodiment based on the control method for adding new functions to the intelligent drying rack can not only intelligently select the humidification or dehumidification mode by monitoring the environmental humidity, but also use the dehumidified moisture to humidify or water flowers, thus realizing the multi-functional operation of the intelligent drying rack.

[0077] In this embodiment, the humid air enters the dehumidification pipeline and is dehumidified by the heating element after being heated. The removed moisture enters the storage tank through the inclined pipeline from the water outlet, and the dehumidified air is discharged from the pipeline outlet. The water in the water tank enters the humidification device through the water injection pipeline, and the humidified air is sent out of the pipeline through the air supply device.

[0078] See Figure 4 , in this embodiment, the control method of the intelligent drying rack combined with the dehumidification and humidification functions includes:

[0079] Step A: Set a humidity sensor on the intelligent drying rack (separated from the humidity sensor of the intelligent drying rack itself), the function of which is to monitor the environmental humidity so as to automatically select the corresponding environmental humidification or dehumidification mode according to the environmental humidity. When the environmental humidity is relatively high, the humidity sensor automatically feeds back the monitored humidity data to the control module, and the control module compares the humidity data with the set dehumidification humidity range in the control module, so as to automatically select the corresponding dehumidification mode. The high-temperature gas in the environment enters the dehumidification pipeline set on the intelligent clothes hanger, and a condensation device is set in the pipeline. The high-temperature gas condenses into water when it meets the condensation device; the condensed water is collected and stored in the storage device; enabling the intelligent clothes hanger to realize the humidification function in addition to the clothes drying function.

[0080] Step B: Set a small circulating water tank and a humidification device on the intelligent clothes hanger. Collect the moisture evaporated from the clothes into the circulating water tank. When the humidity sensor monitors that the environmental humidity is relatively low, it feeds back the humidity data to the control module, and at the same time compares it with the set humidification humidity range, and automatically selects the corresponding humidification mode. And pump the water evaporated from the clothes and stored in the circulating water tank to the humidification device to form a humidifying spray, supplemented by an air supply device, and continuously send the humidifying spray into the indoor air.

[0081] In this embodiment, compared with the prior art, due to the real-time monitoring of the humidity sensor in addition to the clothes drying function of the intelligent clothes hanger itself, when the humidity monitoring reaches the set humidification / dehumidification humidity range, it can feedback and automatically perform the corresponding dehumidification / humidification operation; the water evaporated from the clothes and the condensed water left by the dehumidification operation can also be continuously used for the humidification operation / watering flowers. Not only does it not need to manually pour out the water generated by dehumidification, but it can also realize the recycling of water. Therefore, it can bring the combination of the intelligent clothes hanger with functions such as dehumidification / humidification and watering flowers. In small-sized apartments or families without balconies, the intelligent clothes hanger can truly bring intelligent convenience to people's lives and achieve the beneficial effect of "one thing with multiple uses".

[0082] In this embodiment, step A includes specific sub-steps:

[0083] When the collected condensed water is stored in the corresponding storage device, the storage device is connected to a folding drain pipe provided with a shower head. After the condensed water reaches a certain storage volume, the stored condensed water can be used to water flowers. First, judge the temperature of the condensed water. If it is below 20°, it can be selected to heat it up or wait for it to warm up by itself; after the temperature is appropriate, open the folded drain pipe, and use the stored condensed water to water the plants near the balcony through the drain pipe with a shower head after the condensed water has warmed up.

[0084] In this embodiment, the stored condensed water can be used for continuous cyclic humidification; a water pump is set to pressurize the stored condensed water through the water pump and transport it to the humidification device, thereby forming a spray to humidify the environment.

[0085] Example 2

[0086] On the basis of the above embodiments, an intelligent clothes hanger is provided, which includes the clothes hanger structure described in any of the above embodiments.

[0087] See Figure 3 , in this embodiment, the intelligent clothes hanger is provided with an anti-slip opening 40. The clothes are placed on the anti-slip opening 40, so that the clothes are not easy to slide off after being hung on the clothes hanger.

[0088] See Figure 3 , in this embodiment, the intelligent clothes hanger is provided with a telescopic component 50. The telescopic component 50 has a telescopic function. When there are more clothes, stretch the telescopic component 50 to increase the length of the telescopic component 50, so that the telescopic component 50 can hang other multiple pieces of clothes.

[0089] See Figure 3 , in this embodiment, the intelligent clothes hanger is provided with a clothes hanger hanging opening 60. The clothes hanger hanging opening 60 is used to hang a mechanical clothes hanger, and other extra clothes can be hung on this opening after being dried with an ordinary clothes hanger.

[0090] The solution of the present application has been described in detail above with reference to the accompanying drawings. In the above embodiments, the descriptions of the respective embodiments have their own emphases. For parts not described in detail in a certain embodiment, reference may be made to the relevant descriptions of other embodiments. Those skilled in the art should also be aware that the actions and modules involved in the specification are not necessarily essential to the present application. In addition, it can be understood that the steps in the method embodiments of the present application can be adjusted, combined, and deleted according to actual needs, and the modules in the device embodiments of the present application can be combined, divided, and deleted according to actual needs.

[0091] The various embodiments of the present application have been described above. The above description is exemplary, not exhaustive, and is not limited to the disclosed embodiments. Many modifications and variations are obvious to those of ordinary skill in the art in the technical field without departing from the scope and spirit of the described embodiments. The choice of terms used herein is intended to best explain the principles of the embodiments, the practical application, or the improvement of the technology in the market, or to enable other ordinary skilled persons in the technical field to understand the embodiments disclosed herein.

Claims

1. A hanger structure, characterized in that: include: hanger components, condenser tubes and water storage assemblies; The hanger component is provided with a receiving cavity, and the condenser and the water storage assembly are installed in the receiving cavity; The hanger component is provided with a dehumidification port, the dehumidification port is communicated with the condensation pipe, the side wall of the condensation pipe is provided with a water flow hole, the water flow hole is communicated with the condensation pipe; The water storage component is provided with a transfer trough, which is arranged toward the water flow hole and is used to collect liquid flowing out of the water flow hole.

2. The hanger structure according to claim 1, characterized in that: include: A humidifying instrument, which is installed in the accommodating chamber. The humidifying instrument has a humidifying inlet and a humidifying outlet. The humidifying inlet of the humidifying instrument is connected to the transfer tank. A humidifying port is provided on the side wall of the accommodating chamber. The humidifying outlet faces the humidifying port. The humidifying instrument generates humidified gas by using the liquid inside the humidifying instrument, and discharges the humidified gas to the humidifying outlet of the humidifying instrument.

3. The hanger structure according to claim 2, characterized in that: A fan is installed in the accommodating chamber, and the fan is arranged between the humidification outlet and the humidification port.

4. The hanger structure according to claim 1, characterized in that: The dehumidification port includes a first dehumidification port and a second dehumidification port. The first end of the condensation pipe is communicated with the first dehumidification port, and the second end of the condensation pipe is communicated with the second dehumidification port.

5. The hanger structure according to claim 1, characterized in that: A one-way valve is installed in the condenser.

6. The hanger structure according to claim 1, characterized in that: A heating body is installed in the condenser.

7. The hanger structure according to claim 6, characterized in that: The heating body and the water flow holes are sequentially arranged at intervals along the extending direction of the condenser tube.

8. The hanger structure according to claim 1, characterized in that: The water storage component includes a connected water collecting body and a water storage tank, and the transfer tank includes a connected water collecting tank and a water storage tank. The water collecting tank is opened in the water collecting body, and the water storage tank is opened in the water storage tank. The water collecting tank is arranged toward the water flow hole, and the distance between the water collecting tank and the condenser gradually increases from the side away from the water storage tank to the side close to the water storage tank. The water collecting tank is used to collect liquid flowing out of the water flow hole.

9. The hanger structure according to claim 1, characterized in that: The water flow holes are distributed along the axial direction of the condenser tube, and the transfer groove is extended along the distribution direction of the water flow holes.

10. A smart clothes hanger, characterized in that: The hanger structure comprises the hanger structure according to any one of claims 1 to 9.

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