Air treatment component and air conditioner

Abstract

The utility model discloses an air handling part and air conditioner, the air handling part comprises a humidification module, the humidification module comprises an air duct frame body, a water containing disc and a wet film assembly, the air duct frame body is arranged above the water containing disc and defines a humidification air duct, and the wet film assembly is arranged in the humidification air duct and takes water from the water containing disc. A water pool used for supplying water to the wet film assembly is defined in the water containing disc, an overflow opening communicated with the water pool is formed in a side plate of the water containing disc, and a tension breaking structure is arranged at the overflow opening of the water containing disc. According to the air treatment component, through the combined action of the overflow opening in the water containing disc and the tension damage structure, when the water level in the water pool exceeds the overflow opening, the water can be smoothly and directionally discharged from the overflow opening, and the possibility that the overflowing water flows to electrical elements on the periphery of the humidification module is reduced; and meanwhile, the water level in the water pool can be conveniently maintained within a reasonable range, and the reliability of air treatment components is improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to air conditioning technology field especially is related to an air treatment component and air conditioner. BACKGROUND

[0002] The humidifying module in the related art adopts a water tank to inject water into a water tray, and a wet film extends into the water tray to absorb water. However, when the water tank has a water leakage fault or a water injection control fault, if the fault cannot be found and handled in time, the water level in the water tray will abnormally rise, and once the water level exceeds the maximum capacity of the water tray, the water will overflow from all around. The overflowed water may flow to the electrical elements around the humidifying module, causing the electrical elements to short circuit, corrode and be damaged due to water, which needs to be improved. SUMMARY

[0003] The utility model aims at solving one of the technical problems in the prior art. To this end, the utility model provides an air treatment component, which can be smoothly and directionally discharged from an overflow port when the water level in a water pool exceeds the overflow port, thereby improving the reliability of the air treatment component.

[0004] The utility model further provides an air conditioner with the air treatment component.

[0005] According to the air treatment component of the first aspect of the utility model, the air treatment component comprises a humidifying module, the humidifying module comprises an air duct frame, a water tray and a wet film assembly, the air duct frame is arranged above the water tray and defines a humidifying air duct, the wet film assembly is arranged in the humidifying air duct and absorbs water from the water tray, a water pool for supplying water to the wet film assembly is defined in the water tray, the side plate of the water tray is provided with an overflow port in communication with the water pool, and the water tray is provided with a tension damage structure at the overflow port.

[0006] According to the air treatment component of the utility model, the overflow port and the tension damage structure on the water tray jointly act to smoothly and directionally discharge water from the overflow port when the water level in the water pool exceeds the overflow port, thereby reducing the possibility of the overflowed water flowing to the electrical elements around the humidifying module, maintaining the water level in the water pool within a reasonable range, and improving the reliability of the air treatment component.

[0007] In some embodiments, the tension damage structure comprises a water breaking gap, and a bottom surface of the overflow port is locally formed with the water breaking gap.

[0008] In some embodiments, the water breaking gap comprises a first gap, the first gap is located at a water inlet edge position of the overflow port, and is formed by a local bottom surface of the overflow port being concave downward, and the first gap is open toward the direction of the water pool.

[0009] In some embodiments, the first gap is a plurality of gaps and is arranged along the length of the side plate.

[0010] In some embodiments, the side of the side plate away from the pool is an outer side, and the water breaking gap comprises a second gap, the second gap is located at the water outlet edge of the overflow, and penetrates in the up-down direction, the space below the second gap is located at the outer side of the side plate.

[0011] In some embodiments, the second gap is a plurality of gaps and is arranged along the length of the side plate.

[0012] In some embodiments, the tension breaking structure comprises a water breaking rib, at least part of the water breaking rib protrudes into the overflow.

[0013] In some embodiments, the water breaking rib comprises a first rib segment, the first rib segment protrudes upward from the bottom surface of the overflow, and the overflow comprises a water passage located on both sides of the first rib segment along the length of the side plate.

[0014] In some embodiments, the height of the first rib segment is less than the depth of the overflow; and / or, the maximum depth of the overflow is not less than 7mm, and the first rib segment protrudes 1.5mm-3mm from the bottom surface of the overflow.

[0015] In some embodiments, the side of the side plate facing the pool is an inner side, and the inner end of the first rib segment protrudes into the overflow toward the inner side of the side plate.

[0016] In some embodiments, the water breaking rib further comprises a second rib segment, the second rib segment protrudes inward from the inner surface of the side plate, and extends downward from the inner end of the first rib segment to the bottom surface of the pool.

[0017] In some embodiments, the water breaking rib is a plurality of ribs and is arranged along the length of the side plate.

[0018] In some embodiments, the tension breaking structure comprises a first gap and / or a second gap, the first gap is located at the water inlet edge of the overflow, and is formed by the local bottom surface of the overflow being recessed downward, the first gap is open in the direction of the pool, and at least one first rib segment penetrates the first gap in the water passing direction of the overflow; the second gap is located at the water outlet edge of the overflow, and penetrates in the up-down direction, the side of the side plate away from the pool is an outer side, and the space below the second gap is located at the outer side of the side plate, and the outer end of at least one first rib segment extends to the second gap.

[0019] In some embodiments, the water breaking ribs are multiple, and include a first water breaking rib and two second water breaking ribs, the two second water breaking ribs are arranged on both sides of the first water breaking rib along the length direction of the side plate; the tension breaking structure includes two first notches distributed on both sides of the first water breaking rib along the length direction of the side plate, and two second notches distributed on both sides of the first water breaking rib along the length direction of the side plate; wherein the second water breaking rib penetrates the first notch on the same side and extends to the second notch on the same side, the bottom surface of the overflow port includes a solid area between the two second notches, and the outer end of the first water breaking rib extends to the solid area.

[0020] In some embodiments, the overflow port is recessed downward from the top of the side plate; and / or, the maximum depth of the overflow port is not less than 7mm.

[0021] In some embodiments, the outer side surface of the side plate protrudes with a first rib, the first rib is two and is arranged in a spaced manner to form a water guide groove between the two first ribs, the water guide groove is located below the overflow port and extends in the up-down direction.

[0022] In some embodiments, the air treatment component further includes a lower assembly below the humidification module, the lower assembly includes a fresh air module and / or a purification module, the outer side surface of the lower assembly protrudes with a second rib, the second rib is two and is arranged in a spaced manner to form a water guide groove between the two second ribs, the water guide groove is located below the water guide groove and extends in the up-down direction.

[0023] In some embodiments, the water pool includes a long strip-shaped first water pool, the overflow port is formed on the side plate of the water pan for defining the first water pool, the first water pool is provided with a buffer water flow rib, the first water pool has a water passing gap at the position of the buffer water flow rib, the buffer water flow rib is at least two, so that the overflow port is respectively provided with the buffer water flow rib on both sides along the length direction of the first water pool.

[0024] In some embodiments, two buffer water flow ribs arranged adjacent to each other along the length direction of the first water pool are divided on both sides of the width of the first water pool.

[0025] In some embodiments, the size of the water passing gap along the width direction of the first water pool is 5mm-8mm.

[0026] In some embodiments, the water tank further defines a ventilation opening, a bottom of the humidifying air duct is open to communicate with the ventilation opening, the water tank comprises a water tank front part, a water tank rear part and two connecting parts, the water tank front part and the water tank rear part both extend along the left-right direction and are respectively arranged at front and rear sides of the ventilation opening, the two connecting parts are respectively located at left and right sides of the ventilation opening to connect same-side end parts of the water tank front part and the water tank rear part, the water pool comprises a second water pool defined by the water tank rear part, a third water pool defined by the water tank front part and the first water pool defined by at least one of the connecting parts, the first water pool communicates the second water pool and the third water pool; the air duct frame body is provided with an insertion opening extending along the left-right direction at a front side, the wet membrane assembly is inserted into the humidifying air duct rearward and downward through the insertion opening, and a rear lower end of the wet membrane assembly extends into the second water pool, the air treatment component further comprises a water tank arranged above the third water pool and supplying water to the third water pool, and the water tank is located in front of the wet membrane assembly.

[0027] According to the air conditioner of the second aspect of the present application, the air conditioner comprises the ventilation and heat exchange component and the air treatment component according to any one of the first aspect of the present application.

[0028] According to the air conditioner of the present application, the overflow of the humidifying module in the air treatment component is improved, and the reliability of the air conditioner is improved.

[0029] Additional aspects and advantages of the present application will be made apparent from the following description. BRIEF DESCRIPTION OF DRAWINGS

[0030] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the following will briefly introduce the drawings needed to be used in the embodiments. It should be understood that the following drawings only show some embodiments of the present application, and therefore should not be regarded as a limitation on the scope. For those skilled in the art, other related drawings can also be obtained without creative labor.

[0031] Figure 1 is an exploded view of the air treatment component according to one embodiment of the present application;

[0032] Figure 2 is Figure 1 is an exploded view of the humidifying module shown in

[0033] Figure 3 is Figure 1 is a schematic view of the air treatment component shown in

[0034] Figure 4 is Figure 3 the enlarged view of A shown in FIG. 1;

[0035] Figure 5 is Figure 1 the schematic view of the water tray shown in FIG. 1;

[0036] Figure 6 is the enlarged view of B shown in FIG. 5;

[0037] Figure 7 is Figure 1 the top view of the water tray shown in FIG. 1;

[0038] Figure 8 is Figure 7 the enlarged view of C shown in FIG. 1;

[0039] Figure 9 is Figure 1 the schematic view of the purification module shown in FIG. 1;

[0040] Figure 10 is the schematic view of the air handling component according to one embodiment of the present application;

[0041] Figure 11 is the sectional view along the line V1-V1 shown in FIG. 1; Figure 10

[0042] Figure 12 is Figure 11 the schematic view of the air duct frame shown in FIG. 1;

[0043] Figure 13 is the schematic view of the air conditioner according to one embodiment of the present application;

[0044] Figure 14 is Figure 13 the exploded view of the air conditioner shown in FIG. 1.

[0045] Reference signs:

[0046] air handling component 1; maximum depth H1; first direction F1; second direction F2;

[0047] humidification module 12;

[0048] air duct frame 122; humidification air duct 122a; insertion port 1221;

[0049] water tray 121; ventilation port 1213; water tray front portion 1211; third water pool 12111; water tray rear portion 1212; second water pool 12121; connection portion 1214; first water pool 12141;

[0050] water pool 1215;

[0051] ​First water pool 12141; buffer water flow rib 121413; water passing gap 121414; first side plate 121411; second side plate 121412;

[0052] Side plate 12151;

[0053] First convex rib 12153; water guide groove 12152;

[0054] Overflow port 1216; water passing channel 12161; solid area 12162;

[0055] Tension breaking structure 1217;

[0056] First notch 12171; second notch 12172;

[0057] Water breaking convex rib 12173; first water breaking convex rib 12173a; second water breaking convex rib 12173b; first rib segment 121731; second rib segment 121732;

[0058] Wet film assembly 123;

[0059] Water tank 124;

[0060] Fresh air module 11; fan assembly 111; centrifugal fan 111a;

[0061] Purification module 13;

[0062] Water guide groove 131; second convex rib 132;

[0063] Lower assembly 15; ventilation and heat exchange component 2. DETAILED DESCRIPTION

[0064] Embodiments of the present application are described in detail below with reference to the attached drawing figures, wherein the same or like reference numerals and characters throughout the figures denote the same or like components, functions or structures. The embodiments described below are exemplary and are intended to provide examples of the present application and to explain the principles of the present application, and are not intended to limit the present application.

[0065] The disclosure that follows provides many different embodiments, or examples, for implementing different structures of the present application. For the purpose of simplicity, the elements and settings of the particular examples below are described in some instances by reference to the drawings. Of course, that description, as well as the descriptions given elsewhere in the detailed description, are not intended to limit the scope of the application. Furthermore, the present application can be practiced by other than the described specific examples. The present application is practiced in its broadest form and therefore the detailed description will not be construed to place limitations on the scope of the application. In addition, any instance in the disclosure that begins with "comprising", "including" or "having" etc. are intended to mean that there can be some other items included in the examples that are not specifically named and are not intended to be limiting. Also, the specific examples are used to explain the application and to substantiate the claims. However, the application is not limited to these specific examples.

[0066] Hereinafter, with reference to the drawings, the air treatment component 1 according to the first aspect of the present application is described.

[0067] Referring to Figure 1 , Figure 2 , Figure 3 and Figure 4 , the air treatment component 1 comprises a humidification module 12, the humidification module 12 comprises an air duct frame 122, a water tray 121 and a wet membrane assembly 123, the air duct frame 122 is arranged above the water tray 121 and defines a humidification air duct 122a, the wet membrane assembly 123 is arranged in the humidification air duct 122a and takes water from the water tray 121, the water tray 121 defines a water pool 1215 for supplying water to the wet membrane assembly 123, the side plate 12151 of the water tray 121 is provided with an overflow port 1216 communicating with the water pool 1215, and the water tray 121 is provided with a tension breaking structure 1217 at the overflow port 1216.

[0068] According to the air treatment component 1 of the present application, by arranging the overflow port 1216 communicating with the water pool 1215 on the side plate 12151 of the water tray 121, when the water level in the water tray 121 exceeds the overflow port 1216, the water can be directed to overflow from the overflow port 1216, reducing the possibility of equipment damage caused by overflowing water from all directions, so that the air treatment component 1 can operate normally under the water full abnormal condition, and the reliability and maintenance convenience of the overall system are improved.

[0069] Moreover, the water tray 121 is provided with the tension breaking structure 1217 at the overflow port 1216, which breaks the tension formed on the water film at the overflow port 1216, is conducive to the water reaching the overflow port 1216 to flow out of the overflow port 1216 smoothly, that is, to make the water flow out of the overflow port 1216 more unobstructed and timely, maintain the water level in the water tray 121 at a safe water level, thereby reducing the possibility of overflowing water flowing to the electrical elements around the humidification module 12, and facilitating the continuous and stable operation of the humidification module 12.

[0070] Therefore, through the cooperation of the overflow port 1216 and the tension breaking structure 1217 on the water tray 121, when the water level in the water pool exceeds the overflow port 1216, the water can be smoothly and directedly discharged from the overflow port 1216, reducing the possibility of overflowing water flowing to the electrical elements around the humidification module 12, and also facilitating the maintenance of the water level in the water pool 1215 within a reasonable range, thereby improving the safety and durability of the air treatment component 1.

[0071] In the embodiments of the present application, the wet membrane assembly 123 takes water from the water tray 121, and the way of taking water can be capillary action suction, water pump pumping, etc., and when the airflow in the humidification air duct 122a passes through the wet membrane assembly 123, it can be humidified.

[0072] In the embodiments of the present application, the relative position of the water pool 1215 and the wet film assembly 123 is not limited, and can be designed according to the water taking mode of the wet film assembly 123. For example, in some embodiments, when the wet film assembly 123 needs to extend into the water pool 1215 to take water, the water pool 1215 can be only one water pool, or can also include water pools distributed at multiple positions and connected with each other, and the wet film assembly 123 can extend into one of the water pools.

[0073] In the embodiments of the present application, the tension breaking structure 1217 refers to a structure capable of breaking the surface tension of the liquid at the overflow port 1216, and the specific structural form of the tension breaking structure 1217 is not limited, and it can be understood that the structural form of the tension breaking structure 1217 is based on the structure purpose.

[0074] For example, the structural form of the tension breaking structure 1217 can include the water breaking notch 12170 described in the embodiments of the present application, such as an opening or a gap, etc. By providing the water breaking notch 12170 at the overflow port 1216, the opening or the gap breaks the continuity of the liquid surface, thereby reducing the binding effect of the surface tension on the liquid, so that the water flows out of the overflow port 1216 more smoothly and timely.

[0075] For example, the structural form of the tension breaking structure 1217 can also include the water breaking protrusion 12173 described in the embodiments of the present application, such as a protrusion in the shape of a cone, a sawtooth or a wave, etc. By providing the water breaking protrusion 12173 at the overflow port 1216, the water breaking protrusion 12173 breaks the continuity of the liquid surface, thereby reducing the binding effect of the surface tension on the liquid, so that the excess water flows out of the water pool 121 more quickly.

[0076] In some embodiments, in combination with Figure 6 The tension breaking structure 1217 includes a water breaking notch 12170, and the bottom surface of the overflow port 1216 is locally formed with the water breaking notch 12170. That is, the water breaking notch 12170 is provided so that the bottom surface of the overflow port 1216 constitutes a non-flat surface, so that the water breaking notch 12170 can break the water film formed due to the tension, so that the liquid can flow out of the overflow port 1216 more smoothly, and the outflow efficiency is improved.

[0077] It is worth noting that the form and position of the water breaking notch 12170 are not limited, for example, it can be formed in the form of a groove recessed downward from the local bottom surface of the overflow port 1216, or it can be formed in the form of a perforation penetrating through the local bottom surface of the overflow port 1216, etc.; for example, it can be provided at the water inlet side of the overflow port 1216, or it can be provided at the water outlet side of the overflow port 1216, or it can extend from the water inlet side of the overflow port 1216 to the water outlet side of the overflow port 1216.

[0078] In some embodiments, referring toFigure 5 and Figure 6 The water breaking gap 12170 includes a first gap 12171 located at the water inlet edge of the overflow port 1216 and formed by downwardly recessing the local bottom surface of the overflow port 1216, and the first gap 12171 is open toward the direction of the water pool 1215.

[0079] In the above technical solution, by setting the first gap 12171 at the water inlet edge of the overflow port 1216, the first gap 12171 is open toward the direction of the water pool 1215, allowing liquid to flow in, thereby breaking the water film formed at the water inlet edge of the overflow port 1216 due to tension, allowing liquid to flow out more smoothly, and improving the outflow efficiency.

[0080] In the embodiments of the present application, the cross-sectional shape of the first gap 12171 is not limited. For example, the cross-sectional shape of the first gap 12171 can be rectangular, circular, triangular, elliptical, etc., to adapt to different flow conditions and liquid properties; it can be understood that the length, width and depth of the gap and other size parameters can be adjusted according to actual application requirements to optimize the outflow efficiency of the liquid and reduce residue.

[0081] In some embodiments, referring to Figure 5 and Figure 6 The first gap 12171 is multiple and is arranged at intervals along the length direction of the side plate 12151 (for example, the first direction F1 shown in the figure).

[0082] In the above technical solution, by setting multiple spaced first gaps 12171 in the length direction of the side plate 12151 (for example, the first direction F1 shown in the figure), the space can be fully utilized, and the water film formed due to tension can be broken at multiple points, thereby accelerating the outflow of water and improving the drainage efficiency. On the other hand, the arrangement of multiple first gaps 12171 also disperses the stress of the water flow to a certain extent, thereby improving the strength and stability of the overall structure.

[0083] In some embodiments, referring to Figure 5 and Figure 6 The side of the side plate 12151 away from the water pool 1215 is the outer side, and the water breaking gap 12170 includes a second gap 12172 located at the water outlet edge of the overflow port 1216 and penetrating in the up-down direction, and the space below the second gap 12172 is located on the outer side W of the side plate.

[0084] Due to the surface tension of water, water flow stagnates near the outer side W edge of the side plate and is not easy to flow out naturally. By providing the second gap 12172 which penetrates in the up-down direction, when the water flow reaches the position of the second gap 12172, the water flow will break the tension balance at the second gap 12172 under the action of gravity, ensuring that the water flow can be discharged in time and effectively.

[0085] In addition, since the second gap 12172 penetrates in the up-down direction, and the space below the second gap 12172 is located outside the side plate 12151, this will help the overflowing liquid to quickly disperse and flow down the outside of the side plate 12151, reducing the accumulation of overflow water on the surface or peripheral area of the overflow port 1216, reducing the possibility of water stains, and improving the reliability of discharging overflow water and the efficiency of overflow water.

[0086] In the embodiments of the present application, the cross-sectional shape of the second gap 12172 is not limited. Exemplarily, the cross-sectional shape of the second gap 12172 can be rectangular, circular, triangular, and elliptical, etc. to adapt to different flow conditions and liquid properties; it can be understood that it can be according to actual application requirements.

[0087] In some embodiments, referring to Figure 5 and Figure 6 , the second gap 12172 is multiple and is arranged at intervals along the length direction of the side plate 12151 (for example, the first direction F1 shown in the figure).

[0088] In the above technical solutions, the multiple second gaps 12172 are arranged to make full use of space, and the water film formed due to tension is broken at multiple points, which can more effectively disperse the liquid overflowing from the overflow port 1216, avoid excessive accumulation of liquid in a certain area, further improve the reliability of discharging overflow water and the efficiency of overflow water, and further reduce the possibility of water stains. In addition, the dispersed arrangement of multiple gaps helps to reduce the liquid pressure borne by a single gap, thereby reducing the risk of structural damage and improving the stability and durability of the entire drainage structure.

[0089] In addition, in some embodiments of the present application, referring to Figure 5 and Figure 6 , the water breaking gap 12170 can also simultaneously include the first gap 12171 and the second gap 12172, so as to more effectively improve the reliability and efficiency of overflow water.

[0090] In some embodiments, referring to Figure 5 and Figure 6The tension-breaking structure 1217 includes a water-breaking protrusion 12173, at least a part of which protrudes into the overflow port 1216. In this way, when water enters the overflow port 1216, it will contact the water-breaking protrusion 12173, so that the water film formed due to tension can be broken by the water-breaking protrusion 12173, enabling the liquid to flow out of the overflow port 1216 more smoothly, thereby improving the outflow efficiency.

[0091] It should be noted that the form and position of the water-breaking protrusion 12173 are not limited, for example, it can protrude upward into the overflow port 1216 from the bottom surface of the overflow port 1216, or it can also protrude horizontally into the overflow port 1216 from the side surface of the overflow port 1216, or when the overflow port 1216 has a top surface, it can also protrude downward into the overflow port 1216 from the top surface of the overflow port 1216, and the like.

[0092] In some embodiments, referring to Figure 5 and Figure 6 the water-breaking protrusion 12173 includes a first rib segment 121731 that protrudes upward from the bottom surface of the overflow port 1216, and the overflow port 1216 includes water passages 12161 located on both sides of the first rib segment 121731 along the length direction of the side plate 12151 (e.g., the first direction F1 shown in the figure).

[0093] In the above technical solution, the first rib segment 121731 protrudes upward from the bottom surface of the overflow port 1216, so that the side of the first rib segment 121731 close to the water pool 1215 can directly contact the liquid flowing out of the overflow port 1216, and through the blocking and guiding effect, the continuous liquid flow is dispersed into multiple streams, effectively breaking the surface tension of the liquid and reducing the continuity and impact force of the liquid when overflowing.

[0094] The overflow port 1216 is provided with water passages 12161 located on both sides of the first rib segment 121731 along the length direction of the side plate 12151 (e.g., the first direction F1 shown in the figure), so that the liquid can flow along a path away from the water pool 1215 when flowing out of the overflow port 1216, reducing the possibility of splashing water due to overflow turbulence, and reducing water stains and noise. At the same time, the width and shape of the water passage 12161 can be adjusted as needed to further control the flow speed and direction of the liquid.

[0095] It can be understood that in addition to the basic straight shape, the water passage 12161 can also be designed into a curve, a broken line or other complex shape to better control the flow speed and direction of the liquid. For example, by increasing the degree of curvature of the passage to slow down the flow rate of the liquid; or by adjusting the width of the passage to change the flow distribution of the liquid.

[0096] In the embodiments of the present application, the height of the first rib section 121731 can be adjusted according to actual needs. For example, a higher first rib section 121731 is arranged in the area with larger liquid flow (i.e., the side close to the water pool 1215) to increase the water breaking effect; and the height of the first rib section 121731 can be appropriately reduced in the area with smaller liquid flow (i.e., the side away from the water pool 1215) to reduce the obstruction to the liquid.

[0097] In some embodiments, referring to Figure 4 , the height of the first rib section 121731 (i.e., the height above the bottom surface of the overflow port 1216) is less than the depth of the overflow port 1216. In this way, the first rib section 121731 not only disperses the continuous liquid flow into multiple streams and breaks the surface tension of the liquid, but also reduces the obstruction to the overflow and improves the efficiency of discharging the overflow. In addition, since the upward protruding height of the first rib section 121731 is less than the height of the overflow port 1216, interference with the air duct frame 122 arranged above the water pool 1215 will not occur, improving the assembly reliability and assembly speed.

[0098] For example, when the height of the first rib section 121731 (i.e., the height above the bottom surface of the overflow port 1216) is less than the depth of the overflow port 1216, the maximum depth of the overflow port 1216 is not less than 7 mm, and the height of the first rib section 121731 above the bottom surface of the overflow port 1216 is 1.5 mm-3 mm. For example, the maximum depth of the overflow port 1216 can be 7 mm, 8 mm, 9 mm, and 10 mm, and the height of the first rib section 121731 above the bottom surface of the overflow port 1216 is 1.5 mm, 2 mm, 2.5 mm, or 3 mm. In this way, the first rib section 121731 does not occupy too much space in the overflow port 1216, and better overflow and water breaking effects can be achieved.

[0099] In some embodiments, referring to Figure 5 and Figure 6 , the side of the side plate 12151 facing the water pool 1215 is the inner side N, and the inner end of the first rib section 121731 protrudes out of the overflow port 1216 in the direction of the inner side N of the side plate 12151 (i.e., in the direction of the water pool 1215). In this way, the water film formed by the surface tension of the water entering the overflow port 1216 can be more effectively broken, so that the water can smoothly overflow from the overflow port 1216, improving the overflow reliability.

[0100] Of course, the present application is not limited thereto. For example, in other embodiments of the present application, the inner end of the first rib section 121731 can also be flush with the inner end surface of the overflow port 1216.

[0101] In some embodiments, referring to Figure 5 and Figure 6The water breaking protruding rib 12173 further comprises a second rib segment 121732 protruding inwardly from an inner side surface of the side plate 12151 (i.e. a side surface facing the water pool 1215), the second rib segment 121732 extending downwardly from an inner end of the first rib segment 121731 to a bottom surface of the water pool 1215, i.e. the second rib segment 121732 extends in the up-down direction, and an upper end of the second rib segment 121732 is at the inner end of the first rib segment 121731, and a lower end of the second rib segment 121732 extends to the bottom surface of the water pool 1215.

[0102] In the above technical solution, by protruding the second rib segment 121732 inwardly from the inner side surface of the side plate 12151, the water overflow surface can be broken before reaching the height of the overflow port 1216, which plays a role in breaking water to some extent; at the same time, the water flow can be effectively dispersed and guided into the overflow port 1216.

[0103] In addition, the second rib segment 121732 extends downwardly from the inner end of the first rib segment 121731 to the bottom surface of the water pool 1215, and the second rib segment 121732 serves as a support structure for the first rib segment 121731, which can increase the overall strength and rigidity of the rib segment; moreover, when the inner end of the first rib segment 121731 protrudes toward the inner side N of the side plate 12151 (i.e. toward the direction of the water pool 1215) beyond the overflow port 1216, from the perspective of production and processing, the provision of the second rib segment 121732 facilitates the molding of the first rib segment 121731 to be demolded.

[0104] In some embodiments, referring to Figure 5 and Figure 6 , the water breaking protruding ribs 12173 are multiple and are arranged at intervals along the length direction of the side plate 12151 (e.g. the first direction F1 shown in the figure). In this way, the multiple water breaking protruding ribs 12173 can more effectively disperse the continuous water flow into multiple fine streams, break the surface tension, and improve the efficiency of discharging the water overflow; at the same time, the water overflow is dispersed and guided.

[0105] In some embodiments, referring to Figure 7 and Figure 8 , the tension breaking structure 1217 comprises a first notch 12171 located at the water inlet edge position of the overflow port 1216 and formed by the downward recess of the local bottom surface of the overflow port 1216, the first notch 12171 is open toward the direction of the water pool 1215, and at least one first rib segment 121731 penetrates the first notch 12171 along the water passing direction of the overflow port (e.g. the second direction F2 shown in the figure).

[0106] In some embodiments, referring to Figure 7 and Figure 8The tension breaking structure 1217 includes a first notch 12171 located at the water inlet edge of the overflow port 1216 and formed by the local bottom surface of the overflow port 1216 being recessed downward, the first notch 12171 being open toward the water pool 1215, and at least one first rib segment 121731 penetrating the first notch 12171 along the water flow direction of the overflow port (for example, the second direction F2 shown in the figure), and a second notch 12172 located at the water outlet edge of the overflow port 1216 and penetrating in the up-down direction, the side of the side plate 12151 away from the water pool 1215 being the outer side, the space below the second notch 12172 being located on the outer side W of the side plate, and the outer end of the at least one first rib segment 121731 extending to the second notch 12172.

[0107] In some embodiments, referring to Figure 7 and Figure 8 The tension breaking structure 1217 includes a first notch 12171 located at the water inlet edge of the overflow port 1216 and formed by the local bottom surface of the overflow port 1216 being recessed downward, the first notch 12171 being open toward the water pool 1215, and at least one first rib segment 121731 penetrating the first notch 12171 along the water flow direction of the overflow port (for example, the second direction F2 shown in the figure), and a second notch 12172 located at the water outlet edge of the overflow port 1216 and penetrating in the up-down direction, the side of the side plate 12151 away from the water pool 1215 being the outer side, the space below the second notch 12172 being located on the outer side W of the side plate, and the outer end of the at least one first rib segment 121731 extending to the second notch 12172.

[0108] In the above technical solutions, by introducing the tension breaking structure 1217, specifically including the first notch 12171 and the second notch 12172, the stability and efficiency of the overflow port 1216 in handling the overflow water flow are significantly enhanced. First, the first notch 12171 is arranged at the water inlet edge position, so that the water flow can quickly break the influence of the liquid surface tension when entering the overflow port 1216, and quickly flows into the overflow port 1216, the first rib segment 121731 penetrates the first notch 12171 along the water flow direction of the overflow port (for example, the second direction F2 shown in the figure) and extends to the outer end of the second notch 12172, guiding the water flow to quickly and smoothly pass through the water passage 12161 and flow to the second notch 12172, further improving the drainage capacity of the overflow port 1216, the second notch 12172 is located at the water outlet edge, the second notch 12172 penetrates in the up-down direction, and the water flow will break the tension balance at the second notch 12172 under the action of gravity, ensuring that the water flow can be timely and effectively discharged, reducing the accumulation of water flow near the outlet of the overflow port 1216, and further improving the drainage efficiency.

[0109] In some embodiments, referring to Figure 7 and Figure 8, the plurality of water breaking protrusions 12173 include a first water breaking protrusion 12173a and two second water breaking protrusions 12173b, the two second water breaking protrusions 12173b are arranged on both sides of the first water breaking protrusion 12173a along the length direction of the side plate 12151 (for example, the first direction F1 shown in the figure); the tension breaking structure 1217 includes two first notches 12171 arranged on both sides of the first water breaking protrusion 12173a along the length direction of the side plate 12151 (for example, the first direction F1 shown in the figure), and two second notches 12172 arranged on both sides of the first water breaking protrusion 12173a along the length direction of the side plate 12151 (for example, the first direction F1 shown in the figure); wherein the second water breaking protrusion 12173b penetrates the first notch 12171 on the same side and extends to the second notch 12172 on the same side, and the bottom surface of the overflow port 1216 includes a solid area 12162 between the two second notches 12172, and the outer end of the first water breaking protrusion 12173a extends to the solid area 12162.

[0110] In the above technical solution, by arranging a first water breaking protrusion 12173a and two second water breaking protrusions 12173b, the water flow can be divided into multiple water flows, and the water surface tension can be broken. The second water breaking protrusion 12173b penetrates the first notch 12171 on the same side of the first water breaking protrusion 12173a, and the outer end of the second water breaking protrusion 12173b extends to the second notch 12172 on the same side of the first water breaking protrusion 12173a. Multiple tension breaking structures 1217 are arranged in the water flow direction. Through the cooperation of the multiple tension breaking structures 1217, it is ensured that the water flow can be discharged in time and effectively, the accumulation of water flow near the outlet of the overflow port 1216 is reduced, and the drainage efficiency is further improved.

[0111] In some embodiments, referring to Figure 4 , the overflow port 1216 is formed by recessing downward from the top of the side plate 12151.

[0112] In the above technical solution, the overflow port 1216 is formed by recessing downward from the top of the side plate 12151, that is, the upper part of the recessed position is formed as the overflow port 1216. On the one hand, this facilitates processing, and on the other hand, it can increase the installation height of the overflow port 1216 and the water level height of the pool 1215. In addition, the overflow port 1216 is formed by recessing downward from the top of the side plate 12151, which reduces the need for additional components and eliminates the need for additional installation, making the overall structure simpler and more compact and improving the integration of the structure. This is conducive to saving space and material costs; in addition, this integrated design reduces potential water leakage points and maintenance difficulties, and users do not need to frequently check or replace parts during use, thereby reducing maintenance costs.

[0113] In some embodiments, referring toFigure 4 The maximum depth of the overflow port 1216 is not less than 7 mm. For example, the maximum depth of the overflow port 1216 can be 7 mm, 8 mm, 9 mm, 10 mm, etc.

[0114] In this way, by setting the maximum depth of the overflow port 1216 to be not less than 7 mm, it is ensured that the overflow port 1216 has a certain depth, the capacity of the overflow port 1216 is increased, that is, the water passing capacity of the overflow port 1216 is increased, the resistance and pressure of the water flow when passing through are reduced, which means that more water flow can be processed per unit time, and the overflow water processing capacity of the overflow port 1216 is improved.

[0115] In addition, in some embodiments, of course, the overflow port 1216 can also be formed by being recessed downward from the top of the side plate 12151, and the maximum depth of the overflow port 1216 is not less than 7 mm.

[0116] In the embodiments of the present application, the maximum depth of the overflow port 1216 is not less than 7 mm. For example, when the depth of the overflow port 1216 is formed in a gradually increasing form from both ends to the middle along the length direction (for example, the first direction F1 shown in the figure) of the side plate 12151, the central part of the overflow port 1216 is the maximum depth part.

[0117] In some embodiments, referring to Figure 4 , the side of the side plate 12151 away from the water pool 1215 is the outer side W, the side of the side plate 12151 facing the water pool 1215 is the inner side N, and the bottom surface of the overflow port 1216 extends upwardly along the direction from the inner side N of the side plate 12151 to the outer side W of the side plate.

[0118] The bottom surface of the overflow port 1216 is formed in a slope form extending upwardly along the direction of the overflow water outflow, so that the bottom surface of the overflow port 1216 is in a form of a teapot mouth with the inner side being low and the outer side being high. Therefore, only when the water level in the water pool 1215 really reaches the preset overflow height, the excess water will flow out along the bottom surface of the overflow port 1216, thereby effectively avoiding the outward overflow phenomenon caused by accidental factors such as water flow scouring or fluctuation before the formal overflow state is reached, and enhancing the stability and reliability of the equipment. In addition, the inclined bottom surface of the overflow port 1216 helps to reduce the residue of water droplets at the overflow port 1216, avoiding the risk of corrosion, pollution or breeding of bacteria caused by the accumulation of water droplets, and maintaining the cleanliness and hygiene of the equipment.

[0119] In some embodiments, referring to Figure 4 , the outer side surface of the side plate 12151 protrudes with a first protruding rib 12153, the first protruding rib 12153 is two and is arranged in a spaced manner to form a water guide groove 12152 between the two first protruding ribs 12153, and the water guide groove 12152 is located below the overflow port 1216 and extends in the up-down direction.

[0120] Thus, by setting the outer side surface of the side plate 12151 to protrude with the first protruding ribs 12153, the first protruding ribs 12153 are two and are arranged at intervals to form a water guide groove 12152 between the two first protruding ribs 12153 and extend in the up-down direction, the water guide groove 12152 is located below the overflow port 1216, and a water discharge path is provided for the overflow water, preventing the overflow water from damaging other components during the discharge process due to disordered flow, and at the same time, the water guide groove 12152 also facilitates user cleaning and maintenance work, reducing the maintenance cost and difficulty of the equipment.

[0121] Wherein, the water guide groove 12152 extends in the up-down direction, which means that the water guide groove 12152 as a whole presents a downward extending trend, but the shape of the water guide groove 12152 is not limited to extending along a vertical line, for example, it can also extend along an inclined line, an arc line, a wavy line, etc.

[0122] In some embodiments, as shown in Figure 4 and Figure 9 , the air treatment component 1 further comprises a lower assembly 15 located below the humidification module 12, the lower assembly 15 comprises a fresh air module 11 and / or a purification module 13, and the outer side surface of the lower assembly 15 protrudes with second protruding ribs 132, the second protruding ribs 132 are two and are arranged at intervals to form a water guide groove 131 between the two second protruding ribs 132, and the water guide groove 131 is located below the water guide groove 12152 and extends in the up-down direction. Thus, downward water discharge can be further achieved, further preventing the overflow water from damaging other components due to disordered flow during the discharge process.

[0123] Wherein, the lower assembly 15 comprises at least one of the fresh air module 11 and the purification module 13, for example, only the fresh air module 11, or only the purification module 13, or both the fresh air module 11 and the purification module 13. When both the fresh air module 11 and the purification module 13 are included, exemplarily, the humidification module 12 can be located above the purification module 13, and the purification module 13 can be located above the fresh air module 11, and the air is supplied from bottom to top.

[0124] Exemplarily, the side wall of the purification module 13 can also protrude with two second protruding ribs 132, the second protruding ribs 132 are straight lines extending from top to bottom, and the two second protruding ribs 132 are arranged horizontally side by side, clamping to form a water guide groove 131 in the middle, the upper end of the water guide groove 131 is arranged corresponding to the lower end of the water guide groove 12152, and the upper end groove width of the water guide groove 131 is greater than the lower end groove width of the water guide groove 12152. Finally, the water guide groove 131 of the purification module 13 guides the overflow water into the air conditioner chassis.

[0125] In some embodiments, referring to Figure 5 or Figure 8The water tank 1215 includes a long strip-shaped first water tank 12141. An overflow outlet 1216 is formed on a side plate 12151 of the water tray 121 for defining the first water tank 12141. The first water tank 12141 is provided with a buffer water flow rib 121413. The first water tank 12141 has a water passage gap 121414 at the location where the buffer water flow rib 121413 is provided. There are at least two buffer water flow ribs 121413, so that the overflow outlet 1216 is provided with buffer water flow ribs 121413 on both sides along the length direction of the first water tank 12141 (for example, the first direction F1 shown in the figure).

[0126] The buffer water flow ribs 121413 are designed to obstruct and disperse the water flow when it passes through the first water tank 12141, thus reducing the water flow velocity. The overflow port 1216 is provided with buffer water flow ribs 121413 on both sides along the length direction of the first water tank 12141 (e.g., the first direction F1 shown in the figure). When the air conditioner shakes or tilts suddenly, the water in the water tray 121 surges suddenly due to inertia. When the surging water flows through the overflow port 1216, the buffer water flow ribs 121413 on both sides along the length direction of the first water tank 12141 (e.g., the first direction F1 shown in the figure) obstruct the surge of water, thereby reducing the degree of sloshing of the liquid surface and reducing the amount of water in the water tray 121 flowing out of the overflow port 1216 before reaching the overflow height, thus reducing water waste.

[0127] In the embodiments of this application, the buffer water flow rib 121413 can be disposed on one side of the width direction of the first water tank 12141 (e.g., the second direction F2 shown in the figure), or as shown in the figure. Figure 8 The two sides shown are arranged in the width direction of the first water tank 12141 (e.g., the second direction F2 shown in the figure).

[0128] For example, in some embodiments, such as Figure 5 As shown, two buffer water flow ribs 121413 are arranged adjacently along the length direction of the first water tank 12141 (e.g., the first direction F1 shown in the figure) and are respectively placed on both sides of the width of the first water tank 12141. For example, the water tray 121 includes a first side plate 121411 and a second side plate 121412 that define the two side plates 12151 in the width direction of the first water tank 12141. An overflow port 1216 is provided on the second side plate 121412. One of the buffer water flow ribs 121413 is provided on the first side plate 121411 and spaced apart from the second side plate 121412 to form a water passage gap 121414; the other buffer water flow rib 121413 is provided on the second side plate 121412 and spaced apart from the first side plate 121411 to form a water passage gap 121414.

[0129] Thus, two adjacent buffering water flow ribs 121413 along the length direction of the first pool 12141 (for example, the first direction F1 shown in the figure) are arranged on both sides of the width of the first pool 12141, so that the two adjacent buffering water flow ribs 121413 are arranged in a staggered manner, and the staggered buffering water flow ribs 121413 can more effectively slow down the water flow speed, so that the water flow is more stable when passing through the water passing gap 121414, avoiding the splashing caused by the direct impact of the water flow on the overflow port 1216.

[0130] Exemplarily, as shown in Figure 8 the buffering water flow rib 121413 is divided into two upper and lower buffering water flow ribs in the width direction of the first pool 12141, the bottom surface of the buffering water flow rib 121413 is connected with the bottom surface of the first pool 12141, the buffering water flow rib 121413 on the upper side of the width direction of the first pool 12141 is connected to the second side plate 121412 and is spaced apart from the first side plate 121411 to form the water passing gap 121414, and the buffering water flow rib 121413 on the lower side of the width direction of the first pool 12141 is connected to the first side plate 121411 and is spaced apart from the second side plate 121412 to form the water passing gap 121414.

[0131] Of course, the buffering water flow rib 121413 can also be arranged as follows: the buffering water flow rib 121413 is divided into two upper and lower buffering water flow ribs in the width direction of the first pool 12141, the bottom surface of the buffering water flow rib 121413 is connected with the bottom surface of the first pool 12141, the buffering water flow rib 121413 on the upper side of the width direction of the first pool 12141 is connected to the first side plate 121411 and is spaced apart from the second side plate 121412 to form the water passing gap 121414, and the buffering water flow rib 121413 on the lower side of the width direction of the first pool 12141 is connected to the second side plate 121412 and is spaced apart from the first side plate 121411 to form the water passing gap 121414.

[0132] In some embodiments, as shown in Figure 8 the size H2 of the water passing gap 121414 in the width direction of the first pool 12141 is 5-8 mm. This size range neither makes the water flow too fast nor makes the water flow blocked or clogged, thereby ensuring the stability of the water flow when passing through, thereby reducing the shaking of the liquid surface

[0133] In the embodiments of the present application, the water passing gap 121414 refers to a gap or channel formed between the first side plate 121411 and the second side plate 121412 and allowing water to flow through. The size H2 of the water passing gap 121414 in the width direction of the first water pool 12141 is 5-8 mm. For example, the size H2 of the water passing gap 121414 in the width direction of the first water pool 12141 can be 5 mm, 6 mm, 7 mm, 8 mm, etc.

[0134] In some embodiments, referring to Figure 5 , the water tray 121 further defines a ventilation opening 1213, the bottom of the humidifying air duct 122a is open to communicate with the ventilation opening 1213, the water tray 121 includes a water tray front portion 1211, a water tray rear portion 1212, and two connecting portions 1214, the water tray front portion 1211 and the water tray rear portion 1212 both extend in the left-right direction and are respectively arranged on the front and rear sides of the ventilation opening 1213, the two connecting portions 1214 are respectively located on the left and right sides of the ventilation opening 1213 to connect the same side end portions of the water tray front portion 1211 and the water tray rear portion 1212, the water pool 1215 includes a second water pool 12121 defined by the water tray rear portion 1212, a third water pool 12111 defined by the water tray front portion 1211, and a first water pool 12141 defined by at least one connecting portion 1214, the first water pool 12141 communicates the second water pool 12121 and the third water pool 12111; referring to Figure 12 , the front side of the air duct frame 122 is provided with an insertion opening 1221 extending in the left-right direction, referring to Figure 11 , and the wet membrane assembly 123 is inclined downwardly and rearwardly inserted into the humidifying air duct 122a through the insertion opening 1221, and the rear lower end of the wet membrane assembly 123 extends into the second water pool 12121, the orthogonal projection of the wet membrane assembly 123 on the horizontal plane at least partially overlaps the orthogonal projection of the ventilation opening 1213 on the horizontal plane, the air treatment component 1 further includes a water tank 124 arranged above the third water pool 12111 and supplying water to the third water pool 12111, the water tank 124 is located in front of the wet membrane assembly 123, referring to Figure 10 , the air treatment component 1 further includes a fresh air module 11 located below the humidifying module 12 and supplying air upwardly, and a purification module 13 arranged between the humidifying module 12 and the fresh air module 11.

[0135] Therefore, the front part 1211 of the water tray is arranged at the front side of the air vent 1213, and the rear part 1212 of the water tray is arranged at the rear side of the air vent 1213, so as to meet the requirement that the wet membrane assembly 123 is inserted from front to rear and downward, the rear lower end of the wet membrane assembly 123 extends into the rear second water pool 12121, and the water tank 124 is located in front of the wet membrane assembly 123 and injects water into the third water pool 12111 in front. In addition, the wet membrane assembly 123 is arranged in an inclined manner, so that when the fresh air module 11 blows air from bottom to top, the contact area of the airflow with the wet membrane assembly 123 can be increased, thereby improving the humidification amount.

[0136] With reference to Figure 10 , the fresh air module 11 comprises a fresh air fan, the fresh air fan is a centrifugal fan 111a, and the air outlet of the centrifugal fan 111a is upward, the purification module 13 is located above the fresh air module 11, and the humidification module 12 is located above the purification module 13. This design makes the airflow blown upward by the centrifugal fan 111a flow through the purification module 13 and the humidification module 12 in sequence, which not only saves space but also improves space utilization, so that the whole system is more suitable for installation in limited space, such as home, office and the like. The centrifugal fan 111a has the characteristics of large air volume and high air pressure, and can quickly blow the airflow to the purification module 13 and the wet membrane assembly 123, which is beneficial to overcome the resistance of the purification module 13 and the wet membrane assembly 123 and improve the air treatment efficiency.

[0137] Next, the air conditioner according to the second aspect of the present application will be described with reference to the accompanying drawings.

[0138] With reference to Figure 13 and Figure 14 , the air conditioner can comprise the air treatment component 1 and the ventilation heat exchange component 2 according to any embodiment of the first aspect of the present application.

[0139] According to the air conditioner of the present application, the above-mentioned air treatment component 1 is arranged, so as to improve the water overflow problem of the humidification module 12 in the air treatment component 1 and improve the reliability of the whole air conditioner.

[0140] Exemplarily, the ventilation heat exchange component 2 can comprise a fan and a heat exchanger. When the ventilation heat exchange component 2 works, the fan introduces indoor air from the air conditioner inlet, and blows the introduced air back to the indoor after heat exchange with the heat exchanger, so as to play a role of indoor temperature regulation.

[0141] The type of the air conditioner is not limited, for example, the air conditioner can be an all-in-one air conditioner (such as a kitchen air conditioner, a mobile air conditioner, a window type air conditioner, etc.) or a split air conditioner (such as a split hanging machine, a split cabinet machine, etc.), and when the type of the air conditioner is determined, the relative positions of the air handling component 1 and the ventilation and heat exchange component 2 can be known. For example, when the air conditioner is a cabinet machine, the ventilation and heat exchange component 2 can be located above the air handling component 1.

[0142] In the description of the present application, it should be understood that the terms "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer" and the like indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and therefore cannot be understood as indicating or implying that the devices or elements referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as limiting the present application.

[0143] In addition, the terms "first" and "second" are only for descriptive purposes and cannot be understood as indicating or implying relative importance or implicitly indicating the number of the technical features indicated. Therefore, the features defined as "first" and "second" can explicitly or implicitly include one or more of the features. In the description of the present application, the meaning of "a plurality of" is two or more, unless otherwise specifically limited.

[0144] In the present application, unless otherwise specifically defined and limited, the terms "mounting", "connection", "connection", "fixing" and the like should be understood broadly, for example, it can be fixedly connected, or it can be detachably connected, or it can be integrated; it can be directly connected, or it can be indirectly connected through an intermediate medium; it can be the communication or interaction relationship between two elements. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.

[0145] In the present application, unless otherwise specifically defined and limited, the first feature "on" or "under" the second feature can be direct contact between the first and second features, or indirect contact between the first and second features through an intermediate medium. Moreover, the first feature "above", "above" and "above" the second feature can be directly above or obliquely above the first feature, or only indicate that the horizontal height of the first feature is higher than that of the second feature. The first feature "below", "below" and "below" the second feature can be directly below or obliquely below the first feature, or only indicate that the horizontal height of the first feature is less than that of the second feature.

[0146] In the description of the present specification, the description referring to the terms "one embodiment", "some embodiments", "an example", "a specific example", or "some examples" and the like means that the specific features, structures, materials or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the present application. In the present specification, the illustrative description of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any appropriate manner in any one or more embodiments or examples. Furthermore, the person skilled in the art can combine and combine the different embodiments or examples described in the present specification and the features of the different embodiments or examples, without mutual contradiction.

[0147] Although the embodiments of the present application have been shown and described, those skilled in the art can understand that various changes, modifications, replacements and variations can be made to these embodiments without departing from the principles and purposes of the present application, and the scope of the present application is defined by the claims and their equivalents.

Claims

1. An air handling component, characterized by, The humidification module comprises an air duct frame, a water tray and a wet film assembly, the air duct frame is arranged above the water tray and defines a humidification air duct, the wet film assembly is arranged in the humidification air duct and takes water from the water tray, a water pool for supplying water to the wet film assembly is defined in the water tray, the side plate of the water tray is provided with an overflow port in communication with the water pool, and the water tray is provided with a tension breaking structure at the overflow port. The tension breaking structure comprises a water breaking notch formed on the bottom surface of the overflow port.

2. The air-handling component of claim 1, wherein, The water breaking notch comprises a first notch located at the water inlet edge of the overflow port and formed by the downward concave of the local bottom surface of the overflow port, and the first notch is open towards the water pool.

3. The air-handling component of claim 2, wherein, The first notch is multiple and arranged along the length direction of the side plate.

4. The air-handling component of claim 3, wherein, The side of the side plate away from the water pool is the outer side, and the water breaking notch comprises a second notch located at the water outlet edge of the overflow port and penetrating in the up-down direction, and the space below the second notch is located on the outer side of the side plate.

5. The air handling component of any of claims 2-4, wherein, The second notch is multiple and arranged along the length direction of the side plate.

6. The air-handling component of claim 5, wherein, The tension breaking structure comprises a water breaking protruding rib, at least part of the water breaking protruding rib protrudes in the overflow port.

7. The air-handling component of Claim 1, wherein, The water breaking protruding rib comprises a first rib segment protruding upward from the bottom surface of the overflow port, and the overflow port comprises a water passing channel located on both sides of the first rib segment along the length direction of the side plate.

8. The air-handling component of claim 7, wherein, The height of the first rib segment is less than the depth of the overflow port; and / or, the maximum depth of the overflow port is not less than 7mm, and the first rib segment protrudes 1.5-3mm from the bottom surface of the overflow port.

9. The air-handling component of claim 8, wherein, The side of the side plate towards the water pool is the inner side, and the inner end of the first rib segment protrudes the overflow port towards the inner side of the side plate.

10. The air-handling component of Claim 8, wherein, The water breaking protruding rib further comprises a second rib segment protruding inward from the inner side surface of the side plate and extending downward from the inner end of the first rib segment to the bottom surface of the water pool.

11. The air-handling component of Claim 10, wherein, The water breaking protruding rib is multiple and arranged along the length direction of the side plate.

12. The air-handling component of Claim 8, wherein, The tension breaking structure comprises:

13. The air-handling component of Claim 8, wherein, a first notch located at the water inlet edge of the overflow port and formed by the downward concave of the local bottom surface of the overflow port, and the first notch is open towards the water pool, and at least one first rib segment penetrates the first notch along the water passing direction of the overflow port; and / or, a second notch located at the water outlet edge of the overflow port and penetrating in the up-down direction, the side of the side plate away from the water pool is the outer side, the space below the second notch is located on the outer side of the side plate, and the outer end of at least one first rib segment extends to the second notch. The water breaking protruding rib is multiple and comprises one first water breaking protruding rib and two second water breaking protruding ribs, and the two second water breaking protruding ribs are arranged on both sides of the first water breaking protruding rib along the length direction of the side plate.

14. The air-handling component of Claim 13, wherein, ​ The tension-breaking structure comprises two first notches distributed on both sides of the first water-breaking rib along the length direction of the side plate, and two second notches distributed on both sides of the first water-breaking rib along the length direction of the side plate; The second water-breaking rib penetrates the first notch on the same side and extends to the second notch on the same side, and the bottom surface of the overflow port comprises a solid area between the two second notches, and the outer end of the first water-breaking rib extends to the solid area.

15. The air-handling component of Claim 1, wherein, The overflow port is recessed downward from the top of the side plate; and / or the maximum depth of the overflow port is not less than 7mm.

16. The air-handling component of Claim 1, wherein, The outer side surface of the side plate protrudes with a first rib, the first rib is two and is arranged in a spaced manner to form a water guide groove between the two first ribs, and the water guide groove is located below the overflow port and extends in the up-down direction.

17. The air-handling component of Claim 16, wherein, The air treatment component further comprises a lower assembly below the humidifying module, the lower assembly comprises a fresh air module and / or a purification module, and the outer side surface of the lower assembly protrudes with a second rib, the second rib is two and is arranged in a spaced manner to form a water guide groove between the two second ribs, and the water guide groove is located below the water guide groove and extends in the up-down direction.

18. The air-handling component of Claim 1, wherein, The water pool comprises a long strip-shaped first water pool, the overflow port is formed on the side plate of the water tray for defining the first water pool, the first water pool is provided with a buffer water flow rib, and the first water pool has a water passing gap at the position of the buffer water flow rib, the buffer water flow rib is at least two, so that the overflow port is respectively provided with the buffer water flow rib on both sides along the length direction of the first water pool.

19. The air-handling component of Claim 18, wherein, Two buffer water flow ribs arranged adjacent to each other along the length direction of the first water pool are divided on both sides of the width of the first water pool.

20. The air-handling component of Claim 18, wherein, The size of the water passing gap along the width direction of the first water pool is 5mm-8mm.

21. The air-handling component of Claim 18, wherein, The water tray further defines a ventilation port, the bottom of the humidifying air duct is open to communicate with the ventilation port, the water tray comprises a water tray front part, a water tray rear part and two connecting parts, the water tray front part and the water tray rear part both extend in the left-right direction and are respectively arranged on the front and rear sides of the ventilation port, the two connecting parts are respectively arranged on the left and right sides of the ventilation port to connect the same side end parts of the water tray front part and the water tray rear part, the water pool comprises a second water pool defined by the water tray rear part, a third water pool defined by the water tray front part, and the first water pool defined by at least one connecting part, and the first water pool communicates the second water pool and the third water pool. The front side of the air duct frame is provided with an insertion port extending in the left-right direction, the wet membrane assembly is inserted into the humidifying air duct rearward and downward through the insertion port, and the rear lower end of the wet membrane assembly extends into the second water pool, the air treatment component further comprises a water tank arranged above the third water pool and supplying water to the third water pool, and the water tank is located in front of the wet membrane assembly.

22. An air conditioner characterized by comprising: The air treatment component comprises: The ventilation heat exchange component and the air treatment component according to any one of claims 1-21. The air treatment component comprises:

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