Condensate water self-circulation consumption device and mobile air conditioner
By designing a condensate self-circulation consumption device, the problems of condensate overflow and wear in portable air conditioners are solved, achieving efficient condensate treatment and stable equipment operation, and reducing maintenance costs.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- ZHONGSHAN CHANGHONG ELECTRIC
- Filing Date
- 2024-12-27
- Publication Date
- 2026-05-05
AI Technical Summary
Existing portable air conditioners suffer from wear and tear issues and the risk of condensate overflow during condensate treatment, increasing maintenance costs and affecting the dryness and safety of the indoor environment.
A condensate self-circulation consumption device was designed, including a collection component, a condensate treatment component, and a suction component. The device collects, absorbs, and evaporates condensate through a self-circulation mechanism, avoiding overflow and reducing wear.
It effectively prevents condensate overflow, reduces maintenance costs, improves the operational stability of the equipment and the dryness of the indoor environment, and reduces hardware wear and tear.
Smart Images
Figure CN224201867U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of portable air conditioning technology, specifically a condensate self-circulation consumption device and a portable air conditioner. Background Technology
[0002] Portable air conditioners are widely used in homes and offices. Their advantage lies in their ease of movement and use, requiring no fixed installation. However, during operation, portable air conditioners produce condensate due to air cooling, typically requiring manual drainage or the use of a drainage device. To improve user experience and avoid the tedious task of periodically emptying the condensate, current technologies generally employ a self-consumption method. This involves equipping the unit with a water pump motor and impeller to agitate the condensate into a mist, which then adheres to the hot condenser and is evaporated outdoors. However, this mechanism has several drawbacks. First, the water pump motor and impeller assembly are prone to wear after prolonged operation, requiring regular maintenance and replacement, thus increasing operating costs. Second, when condensate production is high, existing water pump motors and impeller assemblies may not effectively handle all the condensate. Untreated condensate may overflow, causing damp floors, affecting cleanliness and potentially posing safety hazards.
[0003] Therefore, it is necessary to develop a condensate self-circulation consumption device and a portable air conditioner that can effectively reduce equipment maintenance costs, prevent condensate overflow, and improve efficiency and safety. Utility Model Content
[0004] To address the wear and insufficient condensate treatment issues in the existing technology mentioned above, the technical solution adopted by this utility model is as follows:
[0005] A condensate self-circulation consumption device includes a device body, wherein the device body is provided with a collection component for collecting condensate, a condensate treatment component near the collection component, and a suction component located on one side of the condensate treatment component. The collection component is provided with a first region and a second region. When condensate moves between the first region and the second region through the condensate treatment component, the condensate flows through the first region to the condensate treatment component. The condensate treatment component absorbs and evaporates the condensate, causing a portion of the condensate to be discharged to the outside of the device through the suction component. The condensate that is not discharged is collected in the second region and flows to the condensate treatment component.
[0006] Furthermore, in the condensate self-circulation consumption device described in the solution, the collection component includes a first collection element located in a first region and a second collection element located in a second region, and the condensate treatment component is located between the first collection element and the second collection element. The first collection element is provided with a first collection cavity for collecting condensate, and the first collection cavity is provided with a water passage for condensate to flow to the condensate treatment component.
[0007] Furthermore, in the condensate self-circulation consumption device described in the solution, the condensate treatment component includes a condensation component located on one side of the suction component and a water absorption component located on one side of the condensation component. The condensation component is located between the water absorption component and the suction component, and the water absorption component is located between the first collection component and the second collection component.
[0008] Furthermore, in the condensate self-circulation consumption device described in the solution, the first region is located above the second region, the first collector, the second collector, and the water absorption assembly are on the same plane, the water absorption assembly is attached to the surface of the condensation assembly, and the water absorption assembly and the condensation assembly are arranged in a vertical direction.
[0009] Furthermore, in the condensate self-circulation consumption device described in the solution, the second collecting member is provided with a second collecting inner cavity, the condensation component is located above the second collecting inner cavity, and one end of the water absorption component is located in the second collecting inner cavity.
[0010] Furthermore, in the condensate self-circulation consumption device described in the solution, the suction component is provided with an exhaust port and an intake port located on one side of the condensate component, and the exhaust port is located on the side adjacent to the intake port.
[0011] Furthermore, in the condensate self-circulation consumption device described in the solution, the water absorption component is provided with a ventilated drainage hole, and there are multiple ventilated drainage holes arranged in a triangular shape. The water absorption component is arranged in a rectangular shape and is a water-absorbing sponge.
[0012] Furthermore, in the condensate self-circulation consumption device described in the solution, the first collecting element is further provided with a first drain outlet communicating with the first collecting inner cavity, and the second collecting element is further provided with a second drain outlet communicating with the second collecting inner cavity.
[0013] Furthermore, in the condensate self-circulation consumption device described in the solution, the condensation component is provided with a through hole for condensate to pass through.
[0014] Furthermore, the portable air conditioner also includes a portable air conditioner body, the portable air conditioner body including an evaporation component for generating condensate.
[0015] The beneficial effects of this utility model are as follows:
[0016] This invention achieves self-circulating consumption of condensate by incorporating a collection component, a condensate treatment component, and a suction component. The self-circulating condensate device continuously collects condensate generated during equipment operation in the first area of the collection component, where it is absorbed and evaporated by the condensate treatment component. When the condensate generation is large, some of the condensate is treated into water vapor by the condensate treatment component and discharged to the outside of the equipment through the suction component. Untreated condensate flows to the second area of the collection component and then back to the condensate treatment component for discharge, forming a circular consumption mechanism. This design effectively avoids the risk of overflow when the condensate generation is large, thus ensuring a dry and safe indoor environment. Furthermore, this design replaces the traditional structure that uses a water pump and impeller assembly to agitate the condensate into a mist before evaporating it through the condenser, effectively solving the wear problem caused by the water pump and impeller assembly constantly agitating the condensate, thereby reducing maintenance costs.
[0017] The present invention will be further described below with reference to the accompanying drawings and specific embodiments. Attached Figure Description
[0018] Figure 1 This is a schematic diagram of the appearance of a condensate self-circulation consumption device according to the present invention.
[0019] Figure 2 This is an explosion diagram of a condensate self-circulation consumption device according to the present invention.
[0020] Figure 3 This is a schematic diagram of the appearance of the first collecting component of a condensate self-circulation consumption device according to the present invention.
[0021] Figure 4 This is a schematic diagram of the condensate treatment component of a condensate self-circulation consumption device according to this utility model.
[0022] Figure 5 This is an enlarged schematic diagram of the condensate treatment component I of a condensate self-circulation consumption device according to this utility model.
[0023] Figure 6 This is a schematic diagram of the appearance of the second collection component of a condensate self-circulation consumption device according to the present invention.
[0024] Figure 7 This is a schematic diagram of the suction component of a condensate self-circulation consumption device according to the present invention.
[0025] Figure 8 This is a schematic diagram of the condensate self-circulation consumption device and evaporation component assembly of this utility model. Detailed Implementation
[0026] The embodiments of this utility model will now be described in detail with reference to the accompanying drawings.
[0027] like Figure 1-7 The illustrated condensate self-circulation consumption device includes a device body 1, wherein the device body 1 is provided with a collection component 2 for collecting condensate, a condensate treatment component 3 near the collection component 2, and a suction component 4 located on one side of the condensate treatment component 3. The collection component 2 is provided with a first region and a second region. When condensate moves between the first region and the second region through the condensate treatment component 3, the condensate flows through the first region to the condensate treatment component 3. The condensate treatment component 3 absorbs and evaporates the condensate, so that part of the condensate is discharged to the outside of the device through the suction component 4, and the condensate that is not discharged is collected in the second region and flows to the condensate treatment component 3.
[0028] This invention achieves self-circulating consumption of condensate by setting up a collection component 2, a condensate treatment component 3, and a suction component 4. This allows the condensate self-circulation device to continuously collect the condensate generated by the equipment operation in the first area of the collection component 2, where it is absorbed and evaporated by the condensate treatment component 3. When the amount of condensate generated is large, some of the condensate is treated into water vapor by the condensate treatment component 3 and discharged to the outside of the equipment through the suction component 4. The condensate that is not processed flows to the second area of the collection component 2 and then flows back to the condensate treatment component 3 for discharge, forming a circulating consumption mechanism. This design effectively avoids the risk of overflow when the amount of condensate generated is large, thus ensuring a dry and safe indoor environment. Furthermore, this design replaces the traditional structure that uses a water pump motor and impeller assembly to first agitate the condensate into a mist before evaporating it through the condenser, effectively solving the wear problem caused by the water pump motor and impeller assembly constantly agitating the condensate, thereby reducing maintenance costs.
[0029] Specifically, this invention incorporates a collection component 2, a condensate treatment component 3, and a suction component 4 within a condensate self-circulation consumption device. The collection component 2 is connected to the upper and lower ends of the condensate treatment component 3, allowing the condensate generated by the device to be directly collected on the side where the collection component 2 and the upper end of the condensate treatment component 3 are connected—the first area. When the condensate generation is large, it flows to the condensate treatment component 3 where it is absorbed and some evaporates. The evaporated condensate is discharged to the outside of the device by the suction component 4, while the unevaporated condensate flows into and is stored in the area where the collection component 2 and the lower end of the condensate treatment component 3 are connected. On one side, in the second area, the condensate treatment component 3 absorbs and evaporates the condensate, effectively creating a cyclical consumption mechanism. This ensures that even when a large amount of condensate is generated, there will be no overflow, thus guaranteeing a dry indoor environment and user safety. Furthermore, traditional structures typically use a water pump motor and impeller assembly to agitate the condensate and then evaporate it through the condenser to consume the condensate. This setup is prone to wear and tear on the water pump motor and impeller assembly, increasing maintenance costs. However, this invention effectively reduces the risk of hardware wear and tear on the condensate self-circulation device due to prolonged operation.
[0030] Furthermore, such as Figure 1-7 The diagram shows a condensate self-circulation consumption device, wherein the collection component 2 includes a first collection element 21 located in a first region and a second collection element 22 located in a second region, and the condensate treatment component 3 is located between the first collection element 21 and the second collection element 22. The first collection element 21 is provided with a first collection cavity 211 for collecting condensate, and the first collection cavity 211 is provided with a water passage hole 212 for condensate to flow to the condensate treatment component 3.
[0031] This invention places a condensate treatment component 3 between a first collector 21 and a second collector 22, with the first collector 21 located above the condensate treatment component 3 and the second collector 22 located below it. The first collector 21 is mainly responsible for the initial collection of condensate generated during equipment operation. In addition, a water passage hole 212 is provided in the first collection cavity 211 of the first collector 21, which can effectively guide the condensate to the condensate treatment component 3 for discharge. Condensate that cannot be processed by the condensate treatment component 3 in time will flow to and be stored in the second collector 22 below. Subsequently, the condensate in the second collector 22 is guided back to the condensate treatment component 3 for treatment through the absorption function of the condensate treatment component 3 or through a water pump. This arrangement ensures that all generated condensate can be effectively managed, and the risk of condensate overflow can be effectively avoided even in high humidity environments.
[0032] Furthermore, such as Figure 1-7 The device for self-circulating condensate consumption is shown, wherein the condensate treatment component 3 includes a condensation component 31 located on one side of the suction component 4 and a water absorption component 32 located on one side of the condensation component 31. The condensation component 31 is located between the water absorption component 32 and the suction component 4, and the water absorption component 32 is located between the first collection member 21 and the second collection member 22.
[0033] This invention, by setting a condenser assembly 31 on one side of the suction assembly 4, allows the condensate treated by the condensate treatment assembly 3 to evaporate rapidly on the condenser assembly 31, and the water vapor is discharged outside the equipment with the help of the suction assembly 4. This setting effectively achieves rapid evaporation and efficient discharge of condensate, thereby improving the overall efficiency and operational stability of the condensate self-circulation consumption device. Furthermore, this invention, by setting a water suction assembly 32 and placing the condenser assembly 31 between the water suction assembly 32 and the suction assembly 4, allows the water suction assembly 32 to effectively absorb the condensate flowing out from the first collection member 21. This absorbed condensate is then sucked into the condenser assembly 31 by the suction assembly 4 for evaporation. When the condensate in the water suction assembly 32 decreases in saturation due to being sucked into the condenser assembly 31, the water suction assembly 32 can also absorb the condensate collected in the second collection member 22 to continue supplying the condenser assembly 31 for evaporation. This setting ensures that even when the amount of condensate generated is large, the system can maintain its self-circulation function, thereby avoiding condensate overflow.
[0034] Furthermore, such as Figure 1-7 The diagram shows a condensate self-circulation consumption device, wherein the first region is located above the second region, the first collector 21, the second collector 22, and the water absorption assembly 32 are on the same plane, the water absorption assembly 32 is attached to the surface of the condensation assembly 31, and the water absorption assembly 32 and the condensation assembly 31 are arranged in a vertical direction.
[0035] This invention, by placing the first region above the second region and positioning the first collector 21, the second collector 22, and the water-absorbing component 32 on the same plane, allows condensate to flow naturally from top to bottom, i.e., from the first region to the water-absorbing component 32 and then into the second region. Gravity assists in the condensate drainage process, reducing the need for an additional power source and thus lowering energy consumption. Furthermore, the close fit between the water-absorbing component 32 and the condensing component 31 ensures that the condensate in the water-absorbing component 32 is quickly absorbed and transferred to the condensing component 31 for evaporation. The heat-insulating structure separates the heating parts of the water-absorbing component 32 and the condensing component 31 to prevent the water-absorbing component 32 from deforming due to heat, effectively improving the condensate evaporation efficiency. Furthermore, the vertical arrangement of the water-absorbing component 32 and the condensing component 31 increases the contact area between them, further promoting rapid evaporation of the condensate.
[0036] Furthermore, such as Figure 1-7 The device for self-circulating condensate consumption is shown, wherein the second collecting member 22 is provided with a second collecting inner cavity 221, the condensing component 31 is located above the second collecting inner cavity 221, and one end of the water absorption component 32 is located in the second collecting inner cavity 221.
[0037] This invention constructs a highly efficient condensate circulation treatment structure by setting a second collection cavity 221 in the second collection member 22, placing the condensation component 31 above the second collection cavity 221, and fixing one end of the water absorption component 32 to the second collection cavity 221. This arrangement ensures that condensate that cannot be treated in time can be temporarily stored in the second collection cavity 221 and absorbed by the water absorption component 32 for evaporation by the condensation component 31. This effectively optimizes the flow path of the condensate, further improves the treatment efficiency of the condensate, and avoids the risk of overflow due to untimely treatment.
[0038] Furthermore, such as Figure 1-7 The device shown is a condensate self-circulation consumption device, wherein the air intake component 4 is provided with an exhaust port 42 and an air intake port 41 located on one side of the condensate component 31, and the exhaust port 42 is located on the side adjacent to the air intake port 41.
[0039] This invention ensures that the evaporated condensate can be efficiently absorbed and discharged outside the equipment through the exhaust port 42 by setting an air intake 41 and an exhaust port 42 on the air intake assembly 4, with the exhaust port 42 located on the side adjacent to the air intake 41. Specifically, the air intake 41 is located on the side of the condensation assembly 31 and is mainly used to absorb the water vapor generated by the evaporation of the condensation assembly 31. This setting ensures that the evaporated condensate can be quickly carried away by the air intake assembly 4, avoiding the problem of secondary condensation caused by water vapor retention inside the equipment, thereby improving the evaporation efficiency. Furthermore, the adjacent arrangement of the exhaust port 42 and the air intake 41 helps to form an efficient airflow path, allowing the evaporated condensate to be discharged outside the equipment along the shortest path, further improving the operating efficiency of the entire device and the processing speed of the condensate.
[0040] Furthermore, such as Figure 1-7 The device shown is a condensate self-circulation consumption device, wherein the water absorption component 32 is provided with a ventilation and drainage hole 321, and there are multiple ventilation and drainage holes 321 arranged in a triangular shape. The water absorption component 32 is arranged in a rectangular shape and is a water-absorbing sponge.
[0041] This invention ensures the breathability of the water-absorbing component 32 by providing multiple breathable drainage holes 321 on the water-absorbing component 32, preventing excessive water absorption from increasing internal pressure and affecting the water absorption effect. Furthermore, by arranging the breathable drainage holes 321 in a triangular shape, the water-absorbing component 32 can be effectively supported, preventing deformation due to excessive water absorption. Furthermore, by setting the water-absorbing component 32 as a rectangle, this design allows the water-absorbing component 32 to have a sufficiently large volume within a limited space, thereby absorbing more condensate. Simultaneously, this design also ensures that the water-absorbing component 32 has sufficient contact area with the first collecting element 21 and the second collecting element 22 to absorb condensate, ensuring that the condensate can be more efficiently absorbed and transferred to the condensation component 31 for evaporation. Furthermore, the water-absorbing component 32 in this invention is preferably an absorbent sponge, which has good water absorption and retention capabilities. This design further improves the water absorption efficiency and condensate retention capacity of the water-absorbing component 32, thereby optimizing the performance of the entire condensate self-circulation consumption device.
[0042] Furthermore, such as Figure 1-7 The device for self-circulating condensate consumption is shown, wherein the first collecting member 21 is further provided with a first drain outlet 213 communicating with the first collecting inner cavity 211, and the second collecting member 22 is further provided with a second drain outlet 222 communicating with the second collecting inner cavity 221.
[0043] This invention provides an additional drainage path for condensate by providing a first drain outlet 213 communicating with the first collection cavity 211 in the first collection component 21 and a second drain outlet 222 communicating with the second collection cavity 221 in the second collection component 22. This arrangement ensures that even in extreme cases such as failure of the condensate self-circulation consumption device, condensate can still be discharged from the equipment through the first drain outlet 213 and the second drain outlet 222, preventing indoor floor dampness and safety hazards caused by condensate overflow.
[0044] Furthermore, such as Figure 1-7 The diagram shows a condensate self-circulation consumption device, wherein the condensation component 31 is provided with a through hole for condensate to pass through.
[0045] This invention provides a through hole in the condensation component 31, which allows the suction component 4 to effectively draw in the condensed water adsorbed on the water absorption component 32 and process it in the condensation component 31. At the same time, the through hole also serves as a channel for the evaporated condensed water, allowing the condensed water after evaporation treatment by the condensation component 31 to be drawn in by the suction port 41 of the suction component 4 and discharged through the exhaust port 42. This design effectively optimizes the discharge path of the condensed water.
[0046] Furthermore, such as Figure 1-8 The portable air conditioner shown includes a portable air conditioner body and a condensate self-circulation consumption device located inside the portable air conditioner body. The portable air conditioner body includes an evaporation component 5 for generating condensate, and the evaporation component 5 is fixed to the upper side of the collection component 2.
[0047] The portable air conditioner of this invention achieves self-circulation of condensate by incorporating a collection component 2, a condensate treatment component 3, and an air suction component 4 within its condensate self-circulation consumption device. This allows the portable air conditioner to continuously collect and discharge the condensate generated during operation. When the amount of condensate generated is large, some of the condensate is treated into water vapor and discharged to the outside of the device through the air suction component 4, while the untreated condensate flows back into the collection component 2 and is then absorbed by the condensate treatment component 3 for further discharge, forming a circulation mechanism. This design effectively avoids the risk of condensate overflow, ensuring a dry and safe indoor environment. Furthermore, this invention also includes a portable air conditioner body, which includes an evaporation component 5 for generating condensate. The evaporation component 5 is fixed to the upper side of the collection component 2. This design helps the condensate generated by the evaporation component 5 to flow naturally into the collection component 2, thereby simplifying the structure and reducing the risk of condensate leakage.
[0048] like Figure 1-8 As shown, the embodiments of this utility model are as follows:
[0049] Example 1:
[0050] This invention proposes a condensate self-circulation consumption device, which aims to solve the problems that may be encountered when handling condensate in traditional equipment, such as the risk of overflow, safety in high humidity environments, and the increased hardware wear and maintenance costs caused by long-term operation.
[0051] Specifically, the condensate self-circulation device consists of a main body 1, which integrates a collection component 2 for collecting condensate, a condensate treatment component 3 for processing condensate, and a suction component 4 to assist the evaporation process. During operation, the condensate generated is first collected by the first collection chamber 211 of the first collection component 21. Subsequently, the condensate flows through the water passage 212 in the first collection chamber 211 located in the first region to the condensate treatment component 3 located below. The condensate treatment component 3 consists of a condensation component 31 and a water suction component 32. Under normal circumstances, the condensate in the first collection chamber 211 flows to the condensation component 31 and the water suction component 32 located below, and is absorbed by the water suction component 32. Under the action of the suction port 41 of the suction component 4, the condensate on the water suction component 32 is drawn into the condensation component 31 for evaporation, and then drawn into the suction port 41 and discharged through the exhaust port 42. When the amount of condensate is large, the condensate treatment component 3 cannot process all the condensate in time. The condensate that cannot be processed in time will flow into the second collection cavity 221 of the second collection component 22 in the second area below for temporary storage. When the condensate in the water absorption component 32 is sucked away by the air suction component 4, causing the saturation in the water absorption component 32 to decrease, the water absorption component 32 will automatically absorb the condensate in the second collection cavity 221, and then evaporate it through the condensation component 31 and then discharge it through the air suction component 4.
[0052] In this embodiment, the condensation component 31 has through holes, allowing the suction component 4 to effectively absorb the condensate adsorbed on the water absorption component 32. Simultaneously, it serves as a channel for the evaporated condensate, ensuring that the treated water vapor can be smoothly carried away by the suction component 4. The water absorption component 32 uses a rectangular absorbent sponge material and has multiple triangularly distributed breathable and draining holes 321 to ensure good breathability and structural stability, preventing increased internal pressure or component deformation due to excessive water absorption. Furthermore, the first collection component 21 and the second collection component 22 are respectively provided with a first drain outlet 213 and a second drain outlet 222, providing additional drainage paths for the condensate. Even in extreme cases, such as device malfunction, excess condensate can be drained through these two drain outlets, preventing overflow and causing damp indoor floors and other safety hazards.
[0053] Example 2:
[0054] The difference between this embodiment and Embodiment 1 is that this embodiment also includes a portable air conditioner body. The portable air conditioner body includes an evaporation component 5 for generating condensate. The evaporation component 5 is fixed to the first collection cavity 211 of the first collection member 21, so that the condensate generated by the evaporation component 5 can flow naturally into the first collection cavity 211, thereby simplifying the structure and reducing the risk of condensate leakage.
[0055] Example 3:
[0056] The difference between this embodiment and Embodiment 1 is that the water absorption component 32 in this embodiment is a water pump, which draws condensate from the second collection chamber 221 to the condensation component 31.
[0057] The above examples are merely illustrative of the technical content of this utility model to facilitate reader understanding, but do not imply that the implementation of this utility model is limited to these embodiments. Any technical extensions or re-creations made based on this utility model are protected by this utility model. The scope of protection of this utility model is defined by the claims.
Claims
1. A condensate self-circulation consumption device, comprising a device body (1), characterized in that: The main body (1) of the device is provided with a collection component (2) for collecting condensate, a condensate treatment component (3) near the collection component (2), and a suction component (4) located on one side of the condensate treatment component (3). The collection component (2) is provided with a first area and a second area. When condensate moves between the first area and the second area through the condensate treatment component (3), the condensate flows to the condensate treatment component (3) through the first area. The condensate treatment component (3) absorbs and evaporates the condensate, so that some of the condensate is discharged to the outside of the device through the suction component (4). The condensate that is not discharged is collected in the second area and flows to the condensate treatment component (3).
2. The condensate self-circulation consumption device according to claim 1, characterized in that: The collection component (2) includes a first collection element (21) located in a first region and a second collection element (22) located in a second region. The condensate treatment component (3) is located between the first collection element (21) and the second collection element (22). The first collection element (21) is provided with a first collection cavity (211) for collecting condensate. The first collection cavity (211) is provided with a water passage (212) for condensate to flow to the condensate treatment component (3).
3. The condensate self-circulation consumption device according to claim 2, characterized in that: The condensate treatment component (3) includes a condensation component (31) located on one side of the suction component (4) and a water absorption component (32) located on one side of the condensation component (31). The condensation component (31) is located between the water absorption component (32) and the suction component (4), and the water absorption component (32) is located between the first collector (21) and the second collector (22).
4. The condensate self-circulation consumption device according to claim 3, characterized in that: The first region is located above the second region. The first collector (21), the second collector (22), and the water absorption assembly (32) are on the same plane. The water absorption assembly (32) is attached to the surface of the condensation assembly (31). The water absorption assembly (32) and the condensation assembly (31) are arranged in a vertical direction.
5. A condensate self-circulation consumption device according to claim 3, characterized in that: The second collecting component (22) is provided with a second collecting inner cavity (221), the condensation component (31) is located above the second collecting inner cavity (221), and one end of the water absorption component (32) is located in the second collecting inner cavity (221).
6. The condensate self-circulation consumption device according to claim 3, characterized in that: The air intake assembly (4) is provided with an exhaust port (42) and an air intake port (41) located on one side of the condenser assembly (31), and the exhaust port (42) is located on the side adjacent to the air intake port (41).
7. A condensate self-circulation consumption device according to claim 3, characterized in that: The water-absorbing component (32) is provided with a ventilation and drainage hole (321), and there are multiple ventilation and drainage holes (321). The ventilation and drainage holes (321) are arranged in a triangular shape, and the water-absorbing component (32) is arranged in a rectangular shape. The water-absorbing component (32) is a water-absorbing sponge.
8. A condensate self-circulation consumption device according to claim 5, characterized in that: The first collecting component (21) is further provided with a first drain outlet (213) communicating with the first collecting cavity (211), and the second collecting component (22) is further provided with a second drain outlet (222) communicating with the second collecting cavity (221).
9. A condensate self-circulation consumption device according to claim 3, characterized in that: The condensation assembly (31) is provided with a through hole for condensate to pass through.
10. A portable air conditioner, characterized in that: The device includes a portable air conditioner unit and a condensate self-circulation consumption device according to any one of claims 1-9, wherein the portable air conditioner unit includes an evaporation component (5) for generating condensate.