Air guide assembly and air treatment apparatus

Abstract

The present application relates to the technical field of air treatment apparatuses. Provided are an air guide assembly and an air treatment apparatus. The air guide assembly is mounted on a mounting surface and comprises a plurality of adjustment assemblies, which each comprises air guide vanes movably arranged; a plurality of first driving assemblies, which each corresponds to one adjustment assembly; and a second driving assembly, which is in driving connection with the plurality of adjustment assemblies and is configured to simultaneously drive at least part of the structures of two adjustment assemblies to achieve the change in position relative to the mounting surface. The air guide assembly provided in the embodiments of the present application can solve the problem of small blowing coverage area of an air-conditioning apparatus in the related art.

Description

Air guide components and air handling equipment

[0001] This application claims priority to Chinese Patent Application No. 202411514814.7, filed on October 28, 2024, entitled "Air Guide Component and Air Handling Equipment", the entire contents of which are incorporated herein by reference. Technical Field

[0002] This application relates to the field of air handling equipment technology, and in particular to an air guide assembly and an air handling device. Background Technology

[0003] Air handling equipment, such as air conditioning equipment, typically includes an air outlet and an air guide plate located on the outside of the air outlet. One end of the air guide plate is rotatably connected to the bottom of the air outlet. By changing the angle at which the air guide plate opens relative to the air outlet, the airflow direction of the air outlet can be changed.

[0004] However, this method of adjusting the airflow direction results in a smaller area covered by the air conditioning unit. Summary of the Invention

[0005] This application provides an air guide component and an air handling device to solve the problem of small air blowing coverage area in related technologies.

[0006] To achieve the above objectives, the embodiments of this application provide the following technical solutions:

[0007] A first aspect of this application provides an air guide assembly mounted on a mounting surface, the air guide assembly comprising:

[0008] Two adjustment components, each of which includes movable guide vanes;

[0009] Two first drive components, each of which corresponds to one of the adjustment components;

[0010] The second drive assembly is drively connected to both of the adjustment assemblies, and the second drive assembly simultaneously drives at least a portion of the structure of the two adjustment assemblies to change position relative to the mounting surface.

[0011] In this embodiment, the air guide assembly uses a second drive assembly to jointly drive two adjusting components to change position relative to the mounting surface. This position change can be translation and / or rotation relative to the mounting surface. Since the two adjusting components are controlled separately by the two second drive assemblies, the structure of the air guide assembly is simplified, and assembly difficulty and cost are reduced. Furthermore, by using two adjusting components, the air guide assembly can deliver air to two different areas, allowing the two adjusting components to blow air into different regions, thereby expanding the coverage angle of the air conditioning unit.

[0012] Furthermore, by setting up a first drive component and a second drive component, the air delivery angle of the air guide component can be adjusted from two dimensions, thereby improving the adjustment flexibility of the air guide component and enabling air to be delivered to more areas to regulate air temperature. Adjusting the air delivery angle of the two adjustment components optimizes the airflow path, reduces the operating time and energy consumption of the air conditioning equipment, and thus improves overall energy efficiency. This helps to reduce electricity consumption and operating costs.

[0013] By adjusting the airflow angle of the air guide component, the air conditioner's air outlet can be prevented from blowing directly onto areas where people are active. In other words, it avoids blowing air into areas where people are present, preventing discomfort or health problems caused by cold air blowing directly on the body. In addition, adjusting the air guide component can continuously change the airflow angle of the air outlet, which can also prevent the air conditioner from blowing directly in one direction for a long time, thus preventing direct airflow from the air conditioner.

[0014] A second aspect of this application provides an air handling device, including a device body and an air guiding component as described in any of the first aspects above.

[0015] The air handling equipment in this application includes, but is not limited to, air conditioning equipment, air purifiers, and fresh air systems. By setting the air guide component of the first aspect, the air delivery area of ​​the air handling equipment can be expanded. Compared with the air guide plate in related technologies, the technical solution of this application can cover a larger air blowing area, thereby improving the user experience. Attached Figure Description

[0016] Figure 1 is a structural schematic diagram of an air conditioner indoor unit provided in an embodiment of this application;

[0017] Figure 2 is a schematic diagram of the structure of an air guide assembly provided in an embodiment of this application;

[0018] Figure 3 is a schematic diagram of the structure of an air guide assembly provided in an embodiment of this application;

[0019] Figure 4 is a state reference diagram of an air guide component provided in an embodiment of this application;

[0020] Figure 5 is a schematic diagram of the frame structure of an air guide assembly provided in an embodiment of this application;

[0021] Figure 6 is a structural schematic diagram of an air guide assembly provided in an embodiment of this application;

[0022] Figure 7 is a state reference diagram of an air guide assembly provided in an embodiment of this application;

[0023] Figure 7A is a state reference diagram of an air guide assembly provided in an embodiment of this application;

[0024] Figure 7B is a state reference diagram of an air guide assembly provided in an embodiment of this application;

[0025] Figure 7C is a schematic diagram of the frame structure of an air guide assembly provided in an embodiment of this application;

[0026] Figure 8 is a schematic diagram of the air outlet area of ​​an air handling device provided in an embodiment of this application;

[0027] Figure 9 is a schematic diagram of the air outlet area when the regulating component of an air handling device provided in an embodiment of this application extends outside the air outlet.

[0028] Figure 10 is a schematic diagram of the structure of an air guide assembly provided in an embodiment of this application;

[0029] Figure 11 is a structural schematic diagram of an air guide assembly provided in an embodiment of this application;

[0030] Figure 12 is a state reference diagram of an air guide assembly provided in an embodiment of this application;

[0031] Figure 13 is a schematic diagram of the structure of an air guide assembly provided in an embodiment of this application;

[0032] Figure 14 is a cross-sectional structural diagram of an air guide assembly provided in an embodiment of this application;

[0033] Figure 15 is an exploded structural diagram of the adjustment component of an air guide assembly provided in an embodiment of this application;

[0034] Figure 16 is a schematic diagram of the structure of the second drive component of an air guide assembly provided in an embodiment of this application;

[0035] Figure 17 is a schematic diagram of the structure of an adjustment component of an air guide assembly provided in an embodiment of this application;

[0036] Figure 18 is a schematic diagram of the frame structure of an air guide assembly provided in an embodiment of this application;

[0037] Figure 19 is a state reference diagram of an air guide assembly provided in an embodiment of this application;

[0038] Figure 20 is a state reference diagram of an air guide assembly provided in an embodiment of this application;

[0039] Figure 21 is a state reference diagram of an air guide assembly provided in an embodiment of this application;

[0040] Figure 22 is a state reference diagram nine of an air guide component provided in an embodiment of this application;

[0041] Figure 23 is a state reference diagram of an air guide assembly provided in an embodiment of this application;

[0042] Figure 24 is a state reference diagram of the adjustment component of an air guide assembly provided in an embodiment of this application;

[0043] Figure 25 is a structural schematic diagram of an air guide assembly provided in an embodiment of this application;

[0044] Figure 26 is a state reference diagram of the adjustment component of an air guide assembly provided in an embodiment of this application;

[0045] Figure 27 is a schematic diagram of the frame structure of an air guide component provided in an embodiment of this application. Detailed Implementation

[0046] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0047] Traditional air conditioning systems typically adjust the airflow angle using blades. These blades are usually fixed to a specific area of ​​the air outlet, and a lever pulls on the blades to rotate them one-dimensionally, thus adjusting the airflow angle. For example, left-right oscillation achieves left-right airflow, and up-down oscillation achieves up-down airflow. However, this adjustment method has a limited range, resulting in a small coverage area for the air conditioning unit and an inability to provide multi-directional zoned airflow, leading to a poor user experience.

[0048] To address the aforementioned technical problems, embodiments of this application provide an air guide component and an air handling device. The air guide component can precisely control the airflow direction, cover a larger blowing area, and improve the user experience.

[0049] The air guide assembly and air handling equipment provided in the embodiments of this application will be described in detail below with reference to the accompanying drawings.

[0050] This application provides an air handling device, which includes, but is not limited to, air conditioning equipment, humidifiers, dehumidifiers, ventilation equipment, heat recovery ventilation systems, air purifiers, and fresh air systems. In this application embodiment, an air conditioning device is used as an example for description, wherein the air conditioning equipment includes, but is not limited to, indoor air conditioning units, floor-standing air conditioners, central air conditioning systems, and ducted air conditioning systems. In this application embodiment, the type of air conditioning equipment is not further limited.

[0051] The following explanation uses an air conditioner indoor unit as an example.

[0052] Figure 1 is a schematic diagram of the structure of an indoor air conditioner provided in an embodiment of this application. As shown in Figure 1, the air handling equipment 200 may include a device body 300, the device body 300 includes an air outlet 310, and an air guide assembly 100 is provided at the air outlet 310. The air guide assembly 100 may include two adjusting components 10, which are spaced apart along the extension direction of the adjusting components 10, and each adjusting component 10 includes a movable air guide blade 12.

[0053] The air guide component 100 can adjust the air delivery angle of the air outlet 310, thereby expanding the coverage angle of the air conditioning equipment. In other words, it can deliver air to more areas to achieve air temperature regulation. It can also deliver air precisely at more angles, improving the accuracy of air temperature regulation and enhancing the user experience.

[0054] This application provides an air guiding assembly 100, as shown in Figures 2 and 3. The air guiding assembly 100 is mounted on a mounting surface m. The air guiding assembly 100 may include multiple adjusting components 10 and multiple driving components 20. Each adjusting component 10 corresponds to one driving component 20, and the driving component 20 and its corresponding adjusting component are connected in a driving manner. The multiple adjusting components 10 correspond to multiple air outlet areas, and the multiple driving components 20 individually drive the adjusting component 10 corresponding to each driving component 20. The driving component 20 is used to drive at least a portion of the structure of the adjusting component 10 corresponding to it to change position relative to the mounting surface m. Each adjusting component 10 includes a movable air guiding blade 12.

[0055] For example, the number of adjustment components 10 is the same as the number of drive components 20, with one adjustment component 10 corresponding to one drive component 20.

[0056] For example, the number of adjustment components 10 can be 2, 3, 4, 5 or 6. In this embodiment, the number of adjustment components 10 and driving components 20 is not further limited.

[0057] The air guide assembly 100 in this embodiment can discharge air to multiple air outlet areas by setting multiple adjustment components 10 and multiple drive components 20. As shown in Figure 3, when there are three adjustment components 10, air can be discharged to three air outlet areas: air outlet area a, air outlet area b, and air outlet area c. The air outlet direction in each air outlet area can be adjusted according to actual needs by adjusting the adjustment component 10 corresponding to that air outlet area, so as to enhance the practicality of the air handling equipment using this air guide assembly.

[0058] For example, when a space includes a rest area, an office area, and an entertainment area, one of the regulating components in the air guide assembly can be used to direct airflow to the rest area, one to the office area, and one to the entertainment area. This way, only one air guide assembly is needed to achieve different airflow angles in multiple areas, reducing costs compared to using multiple indoor air conditioning units or multiple air outlets in a single space. Figure 4 is a state reference diagram of an air guide assembly provided in an embodiment of this application; Figure 4 is a top view. As shown in Figure 4, the state of the regulating components in each air outlet area can be different, and the position of the rotation base point 13 of different regulating components can be different to meet the different needs of different areas. Here, n represents the initial position of the three regulating components.

[0059] Multiple driving components 20 drive multiple regulating components 10 respectively, so that each regulating component 10 has its own dedicated driving component 20. This allows for independent control of each regulating component 10, enabling precise adjustment of the airflow direction and intensity in each area as needed. It can also adapt to different room layouts and usage requirements. Users can flexibly adjust the settings of each regulating component 10 according to specific environmental conditions to achieve a more uniform and effective airflow distribution, especially in large spaces or multi-functional areas, to avoid local areas being too cold or too hot, and to improve overall comfort.

[0060] Furthermore, in multifunctional spaces such as conference rooms and open-plan offices, different air supply angles can provide suitable airflow conditions for different activity areas, meeting diverse usage needs. By adjusting the air supply angle of each regulating component 10, the problem of uneven temperature within the room can be solved more effectively. For example, special adjustments can be made for areas with direct sunlight or near doors and windows. By precisely controlling the airflow direction in each area, unnecessary energy consumption can be reduced, thereby improving the overall energy efficiency of the system and helping to reduce operating costs and energy consumption. This redundant design (setting up multiple regulating components and multiple drive components) improves the reliability and stability of the system. For example, when one drive component 20 fails, the other drive components 20 can still operate normally. Since each regulating component 10 and drive component 20 is independent, maintenance and troubleshooting become simpler, reducing maintenance time and costs.

[0061] By adjusting the air delivery angles of multiple adjustment components 10, the air conditioning unit can be prevented from blowing directly at the same angle, reducing discomfort and improving user comfort. Furthermore, in areas where people are present, the air outlet 310 can be prevented from blowing directly onto these areas, thus avoiding discomfort or health problems caused by cold air blowing directly on the body. Additionally, by adjusting the air guide component 100, the air delivery angle of the air outlet 310 can be continuously changed, preventing the air conditioner from blowing directly in one direction for extended periods, thereby preventing direct airflow.

[0062] In one possible implementation, as shown in Figure 5, the air guide assembly 100 may further include a data acquisition device 40 and a control device 30. The data acquisition device 40 is communicatively connected to the control device 30, and the control device 30 is electrically connected to each drive assembly 20. The data acquisition device 40 is used to acquire area information within different air outlet areas and transmit the area information to the control device 30. The control device 30 is used to control one or more drive assemblies 20 among the plurality of drive assemblies 20 according to the area information, driving at least a portion of the structure of one or more adjustment assemblies 10 corresponding to one or more drive assemblies 20 to change position relative to the mounting surface m.

[0063] It should be noted that the area information can be input by the user into the data acquisition device 40 via a remote control, electronic device, or other input device. For example, the user can input their desired indoor temperature and airflow angle via a remote control. The area information can also be area information automatically collected by the data acquisition device 40.

[0064] For example, the area information can be image information, video information, etc. For instance, the data acquisition device 40 may include a camera, sensors, etc., to collect area information within different air supply areas. For example, the camera collects information about people, plants, animals, furniture, etc., and the temperature sensor collects the temperature within different areas. The location of the data acquisition device 40 is not limited in this embodiment; it can be placed inside or outside the air outlet of the air handling equipment according to installation requirements.

[0065] By setting up a data acquisition device 40 to collect area information, the control device 30 can precisely control the air delivery angle of each adjustment component 10 based on the area information to adapt to different room layouts and usage needs. The control device 30 can also precisely control the drive component 20 based on the area information, allowing users to adjust the angle of the guide vanes 12 and the direction of the adjustment components 10 as needed, thus achieving more precise airflow management. The control device 30 can automate operation, automatically adjusting airflow settings based on preset programs or sensor inputs such as temperature, humidity, and human activity, improving the system's intelligence level.

[0066] In one possible implementation, the area information may include personnel information, animal information, plant information, and furniture layout information.

[0067] It's worth noting that by setting area information including personnel, animal, plant, and furniture layout details, the type of area can be determined. For example, if an area contains beds, it's a rest area. If it includes multiple desks, it's an office area. This facilitates area type identification and allows for precise determination of airflow requirements.

[0068] Of course, in other embodiments, the area information may also include other information, such as temperature information, humidity information, area information, etc. In the embodiments of this application, the specific information included in the area information is not further limited.

[0069] This setup allows for personalized airflow adjustments in different areas of the room, meeting the comfort needs of diverse users, especially in large or multi-functional spaces. Furthermore, in multi-functional spaces such as conference rooms and open-plan offices, different airflow angles can provide suitable airflow conditions for different activity areas, satisfying diverse usage requirements.

[0070] By adjusting the airflow angle of each regulating component 10 according to regional information, the problem of uneven temperature in a room can be solved more effectively. For example, special adjustments can be made for areas with direct sunlight or areas near doors and windows. By precisely controlling the airflow direction in each area, unnecessary energy consumption can be reduced, thereby improving the overall energy efficiency of the system and helping to reduce operating costs and energy consumption.

[0071] In one possible implementation, each drive assembly 20 is driveably connected to a guide vane 12 on the corresponding adjustment assembly 10. The control device 30 is used to control one or more of the drive assemblies 20 to drive the guide vanes 12 on the corresponding adjustment assemblies 10 to change position, for example, to drive the guide vanes 12 to rotate and / or translate, based on area information. In this embodiment, the guide vanes 12 are rotated.

[0072] For example, each drive component 20 is drivenly connected to the guide vanes 12 on the corresponding adjustment component 10. This can be achieved by each drive component 20 being drivenly connected to all the guide vanes 12 on the corresponding adjustment component 10, or by each drive component 20 being drivenly connected to only a portion of the guide vanes 12 on the corresponding adjustment component 10. In this embodiment, the number of drive components 20 drivenly connected to the guide vanes 12 on the adjustment component 10 is not further limited.

[0073] It should be noted that whether the guide vanes 12 on the regulating component 10 rotate is determined based on the area information. In some cases, simply changing the position of the regulating component 10 without adjusting the angle of the guide vanes 12 can achieve the appropriate air delivery angle. Therefore, by determining which regulating components need to adjust the angle of the guide vanes 12 based on the area information, the control device 30 can improve control accuracy, reduce unnecessary adjustments, improve the precision of adjustment, and thus reduce energy consumption.

[0074] By connecting the drive assembly 20 to the air guide vanes 12 and controlling the rotation of the air guide vanes 12 of one or more adjustment assemblies 10 according to area information, a swing effect is achieved, allowing the air guide assembly 100 to cover a wider area. This helps to achieve a more uniform air or temperature distribution throughout the room, avoiding uneven heating and cooling. Furthermore, by adjusting the angle of the air guide vanes 12, the airflow can be prevented from blowing directly onto a fixed location, reducing direct stimulation to the human body and improving comfort. This design allows users to flexibly adjust the airflow direction according to room layout and personal preferences, meeting different usage scenarios and needs. By optimizing the airflow path and coverage, the cooling or heating efficiency of the air conditioner can be improved, reducing unnecessary energy consumption and thus achieving energy savings.

[0075] In one possible implementation, the control device 30 may include a determining module 31 and a control module 32, which are signal-connected. The determining module 31 is used to determine the air outlet angle of each adjusting component 10 based on area information. The control module 32 is used to control the corresponding drive component 20 to drive the corresponding adjusting component 10 to change its position relative to the mounting surface m, and / or to drive the guide vanes 12 on the corresponding adjusting component 10 to rotate, based on the air outlet angle of each adjusting component 10.

[0076] For example, the control device 30 may further include a calculation module, wherein the calculation module is signal-connected to the determination module. The calculation module is used to calculate the air outlet angle of each adjustment component 10 according to the area information, and then the determination module determines the air outlet angle of each adjustment component. Then the control module controls the corresponding drive component 20 to drive the corresponding adjustment component 10 to move.

[0077] It should be noted that, in the embodiments of this application, the specific structure of the control device 30 is not further limited.

[0078] This setup allows for precise determination of the air outlet angle in each air outlet area, enabling accurate air delivery to each area.

[0079] In one possible implementation, the control module 32 is used to first control the corresponding drive component 20 to drive the corresponding adjustment component 10 to change its position relative to the mounting surface m according to the air outlet angle of each adjustment component 10, and then drive the guide vanes 12 on the corresponding adjustment component 10 to rotate.

[0080] With this setup, the adjusting component 10 can be adjusted to a suitable position first, and then the guide vane 12 can be adjusted to a suitable angle. Since adjusting the position of the adjusting component 10 after the angle of the guide vane 12 has been adjusted will still affect the angle of the guide vane 12, it may be necessary to adjust the angle of the guide vane 12 again. Therefore, adjusting the position of the adjusting component 10 first and then adjusting the angle of the guide vane 12 can simplify the adjustment process, reduce the difficulty of adjustment, and improve the adjustment efficiency.

[0081] Of course, in some embodiments, the guide vanes 12 on the corresponding adjustment component 10 can be rotated to a suitable angle first, and then the corresponding drive component 20 can be controlled to drive the corresponding adjustment component 10 to change position relative to the mounting surface m. In the embodiments of this application, the order in which the drive component 20 controls the movement of the adjustment component 10 is not further limited.

[0082] It should be noted that by changing the position of the driving adjustment component 10 relative to the mounting surface m, the first air supply angle α1 of the adjustment component can be adjusted, and by rotating the air guide vane 12 on the driving adjustment component 10, the second air supply angle α2 can be adjusted. For the same adjustment component 10, the sum of the first air supply angle and the second air supply angle is the final air supply angle of the adjustment component.

[0083] The air guide assembly 100 may also include two drive assemblies, each drive assembly corresponding to an adjustment assembly 10. The drive assembly and the adjustment assembly 10 corresponding to the drive assembly are connected in a transmission manner. The drive assembly is used to drive at least a portion of the structure of the adjustment assembly 10 corresponding to the drive assembly to move relative to the mounting surface m. The drive assembly is also used to drive the air guide blades 12 to swing towards both ends of the extension direction of the adjustment assembly 10.

[0084] For ease of description, in this embodiment of the application, as shown in FIG6, two adjusting components are respectively designated as the first adjusting component 10a and the second adjusting component 10b. Two driving components are respectively designated as the first driving component 20a and the second driving component 20b. The first driving component 20a is drivenly connected to the first adjusting component 10a. The second driving component 20b is drivenly connected to the second adjusting component 10b. The first adjusting component 10a and the second adjusting component 10b are spaced apart in the extending direction of the air guide component 100.

[0085] The air guide assembly 100 may further include two first drive assemblies 20a and one second drive assembly 20b. Each first drive assembly 20a corresponds to an adjustment assembly 10. All the air guide blades 12 on the first drive assembly 20a and the adjustment assembly 10 corresponding to the first drive assembly 20a are connected in a transmission manner to drive the air guide blades 12 to swing toward both ends of the adjustment assembly 10 in the extension direction.

[0086] The second drive assembly 20b is located between the two adjustment assemblies 10. The second drive assembly 20b is connected to both adjustment assemblies 10 by means of transmission. The second drive assembly 20b is used to drive at least a portion of the structure of the two adjustment assemblies 10 to change position relative to the mounting surface m.

[0087] For ease of description, in this embodiment of the application, as shown in FIG10, the two adjustment components are respectively designated as the first adjustment component 10a and the second adjustment component 10b. The first adjustment component 10a and the second adjustment component 10b are spaced apart in the extending direction of the air guide component 100.

[0088] The air guide assembly 100 can adjust the first air outlet area p by controlling the first adjusting assembly 10a, and the second air outlet area g by controlling the second adjusting assembly 10b, thereby adjusting the air delivery angle of the air outlet 310. This allows for air delivery to different areas, improving the coverage of the air conditioning system. Furthermore, adjusting the air delivery angles of the first adjusting assembly 10a and the second adjusting assembly 10b prevents the air conditioning unit from blowing directly at the same angle, reducing discomfort and improving user comfort. By optimizing the airflow path, the operating time and energy consumption of the air conditioning unit can be reduced, thus improving overall energy efficiency. This helps to reduce electricity consumption and operating costs.

[0089] The air outlet 310 can be adjusted by the air guide component 100, thereby expanding the coverage angle of the air conditioning unit. Additionally, this allows the air guide component 100 to direct airflow towards a wider area, achieving air temperature regulation. By controlling the airflow angle of the adjustment component, precise airflow can be delivered at more angles, improving the accuracy of air temperature regulation and enhancing the user experience.

[0090] By adjusting the air outlet angle of the air vent 310, the air outlet can be prevented from blowing directly onto areas where people are active. In other words, it avoids blowing air onto areas where people are present, preventing discomfort or health problems caused by cold air blowing directly on the body. In addition, by adjusting the air guide component 100, the air outlet angle can be continuously changed, which can also prevent the air conditioner from blowing directly in one direction for a long time, thus preventing the air conditioner from blowing directly on the body.

[0091] Figure 7 is a reference diagram showing the usage state of an air guide assembly provided in an embodiment of this application. Figure 7A is a reference diagram showing the usage state of an air guide assembly provided in an embodiment of this application. Figure 7B is a reference diagram showing the usage state of an air guide assembly provided in an embodiment of this application. Figures 7, 7A, and 7B are all top views for easy illustration of the overall changes in the first adjusting assembly 10a and the second adjusting assembly 10b, as well as the local changes in the first air guide blade 12a and the second air guide blade 12b. They do not represent the actual structure of the equipment and are only for illustration. In Figure 7, n represents the plane in which the air guide assembly 100 is located in its initial position.

[0092] The first drive assembly 20a is connected to the first adjustment assembly 10a in a transmission manner. The first drive assembly 20a is used to drive the first adjustment assembly 10a to change its position relative to the mounting surface m, so that the range of the first air supply angle α1 can be adjusted by the first adjustment assembly 10a (see Figure 7), and air can be supplied to the first air outlet area p.

[0093] The second drive assembly 20b is connected to the second adjustment assembly 10b in a transmission manner. The second drive assembly 20b is used to drive the second adjustment assembly 10b to change position relative to the mounting surface m, so that the range of the second air supply angle α2 can be adjusted by the second adjustment assembly 10b (see Figure 7), thereby supplying air to the second air outlet area g.

[0094] By providing independent drive components for the first regulating component 10a and the second regulating component 10b, the reliability and stability of the system can be improved. For example, if one of the first drive component 20a and the second drive component 20b fails, the other can still function normally. Since each regulating component and drive component is independent, maintenance and troubleshooting become simpler, reducing maintenance time and costs.

[0095] Figure 8 is a schematic diagram of the air outlet area of ​​an air handling device according to an embodiment of this application. Figure 9 is a schematic diagram of the air outlet area of ​​an air handling device according to an embodiment of this application when the adjusting component extends outside the air outlet. Figure 8 is a front view of the air handling device. For ease of viewing, the air outlet area is marked with a tilted forward direction. Figure 9 is also a front view of the air handling device. For ease of viewing, the vertical outward translation is marked as a downward translation in the figure. It can be understood that this is intended to express the effect of increasing the air supply range caused by the adjusting component 10 being translated to the outside of the air outlet 310.

[0096] Referring to Figures 8 and 9, when the adjusting component 10 moves outward relative to the air outlet 310, the air outlet area s expands. It should be noted that the air outlet area s is only a schematic diagram and does not represent the actual air outlet area. The adjusting component 10 in Figure 9 moves by translating relative to the air outlet 310 in a direction away from the mounting surface m.

[0097] The air guide assembly 100 provided in the embodiments of this application will be described in detail below with reference to the accompanying drawings.

[0098] Figure 10 is a structural schematic diagram of an air guiding assembly provided in an embodiment of this application. Figure 11 is a structural schematic diagram of an air guiding assembly provided in an embodiment of this application from another angle. Figure 10 is a perspective view of the air guiding assembly. Figure 11 is a top view of the structure.

[0099] In this embodiment, for ease of description, the extension direction of the first adjustment component 10a and the second adjustment component 10b is taken as the x-direction, and the vertical direction of the mounting surface m is taken as the y-direction.

[0100] This application provides an air guide assembly 100, as shown in Figures 10 and 11. The air guide assembly 100 is installed on the mounting surface m (see Figure 11). The air guide assembly 100 may include a first adjustment assembly 10a, a second adjustment assembly 10b, two first drive assemblies 20a and one second drive assembly 20b, wherein the first adjustment assembly 10a and the second adjustment assembly 10b are spaced apart along the x-direction.

[0101] For example, one of the two first drive components 20a is tractively connected to the guide vane 12 on the first adjustment component 10a, and the other of the two first drive components 20a is tractively connected to the guide vane 12 on the second adjustment component 10b. This drives changes in the position of the guide vane 12 on the first adjustment component 10a and the second adjustment component 10b, for example, driving the guide vane 12 to rotate and / or translate. In this embodiment, the guide vane 12 rotates to achieve the swing function of the adjustment component 10.

[0102] The second drive component 20b can be located between the first adjustment component 10a and the second adjustment component 10b. The second drive component 20b is used to simultaneously drive the first adjustment component 10a and the second adjustment component 10b to change their positions relative to the mounting surface m, so that the range of the first air delivery angle α1 can be adjusted by the first adjustment component 10a (see Figure 12), thereby delivering air into the first air outlet region p. Simultaneously, the range of the second air delivery angle α2 can be adjusted by the second adjustment component 10b (see Figure 12), thereby delivering air into the second air outlet region g. Figure 12 is a top view of the structure.

[0103] The structure of the first drive member 21 and the second drive member 22 on the first drive assembly 20a will be described below.

[0104] In some embodiments, as shown in FIG7C, the first driving member 21 may include a first motor 211 and a first transmission member 212. The first motor 211 is driveably connected to the first transmission member 212. The first transmission member 212 is driveably connected to all the first guide vanes 12a of the first adjusting assembly 10a. The first motor 211 drives the first transmission member 212 to move, thereby causing a positional change of the first guide vanes 12a connected to the first transmission member 212 relative to the second support member 11b, for example, rotation and / or translation. In this embodiment, it is rotation, so that the second guide vanes 12b can swing, allowing the first guide vanes 12a to adjust the third air delivery angle α3 (see FIG7).

[0105] By setting the first motor 211, precise motion control can be provided, thereby accurately adjusting the angle of the first guide vane 12a as needed, making airflow management more efficient and accurate. By setting the first transmission component 212, the first transmission component 212 can effectively transmit the rotational motion of the first motor 211 to the first guide vane 12a, ensuring the flexibility, smoothness and efficiency of the motion.

[0106] For example, the first transmission member 212 can be a transmission link. The transmission link is arranged along the extension direction of the first adjusting assembly 10a and is connected to all the first guide vanes 12a of the first adjusting assembly 10a. The first motor 211 drives the transmission link to move along the extension direction of the first adjusting assembly 10a, thereby causing the first guide vanes 12a connected to the transmission link to swing towards both ends of the first adjusting assembly 10a, that is, to swing left and right.

[0107] Of course, in other embodiments, the drive assembly 20 may also include a drive member and a transmission mechanism. The drive member can simultaneously control the carrier 11 and the guide vane 12 through the transmission mechanism, which simplifies the structure of the drive member. In this embodiment, the specific structure of the drive assembly 20 controlling the carrier 11 and the guide vane 12 through a drive member and a transmission mechanism is not further limited.

[0108] Similarly, the second drive assembly 20b may also include a drive element and a transmission mechanism. The drive element can simultaneously control the second guide vane 12b and the second carrier 11b through the transmission mechanism, thus simplifying the structure of the drive element. In this embodiment, the specific structure of the second drive assembly 20b controlling the second guide vane 12b and the second carrier 11b through a single drive element is not further limited.

[0109] By configuring the drive assembly 20 as a first drive element 21 and a second drive element 22, the air guide vane 12 and the carrier 11 can be controlled independently, which improves the accuracy of airflow regulation. Users can adjust the air delivery angle range of the air guide vane 12 or the carrier 11 individually as needed. The combination of the first drive element 21 and the second drive element 22 provides a greater adjustment range and flexibility to achieve complex airflow patterns to adapt to different room layouts and usage scenarios.

[0110] Referring again to Figure 15, the first drive member 21 and the second drive member 22 can be spaced apart in the extending direction (x-direction) of the support member 11. By spaced apart, the space of the support member 11 can be utilized more effectively, and mutual interference between the first drive member 21 and the second drive member 22 can be avoided, thereby improving the reliability and stability of the air guide assembly 100. In addition, it also helps to improve heat dissipation, prevent performance degradation or damage caused by overheating, thereby extending the service life of the drive assembly 20 and improving the overall reliability of the system.

[0111] Similarly, the first drive member 21 and the second drive member 22 can be spaced apart along the extension direction (x-direction) of the second support member 11b. By spaced apart, the space of the second support member 11b can be utilized more effectively, and mutual interference between the first drive member 21 and the second drive member 22 can be avoided, thereby improving the reliability and stability of the air guide assembly 100. In addition, it also helps to improve heat dissipation, prevent performance degradation or damage due to overheating, thereby extending the service life of the second drive assembly 20b and improving the overall reliability of the system.

[0112] The first driving member 21 is used to drive the air guide blade 12 to change position. For example, the first driving member 21 is used to drive the air guide blade 12 to change position relative to the carrier member 11, such as driving the air guide blade 12 to translate and / or rotate relative to the carrier member 11, so that the air guide blade 12 can swing.

[0113] In the extending direction of the support member 11, the first transmission member 212 is movably connected to the support member 11. When the first transmission member 212 moves along the extending direction of the adjustment assembly 10, it drives the air guide blade 12 connected to the first transmission member 212 to rotate relative to the support member 11, so that the air guide blade 12 connected to the first transmission member 212 can rotate relative to the support member 11, thereby allowing the air guide blade 12 to adjust the air delivery angle α, thereby changing the air delivery direction of the air guide assembly 100.

[0114] By adjusting the guide vanes 12 and the carrier 11 separately, a more uniform and efficient airflow distribution can be achieved. Precise airflow control can reduce the operating time and energy consumption of the air handling equipment 200 (e.g., air conditioning equipment) using this guide assembly 100, thereby improving overall energy efficiency. Since the first drive component 21 and the second drive component 22 are independently configured, individual drive components can be replaced or adjusted as needed during later maintenance without requiring large-scale adjustments to the entire system, thus reducing maintenance costs.

[0115] For example, the second drive member 22 is driven to the carrier member 11, and the second drive member 22 is used to drive at least a portion of the structure of the carrier member 11 to change position relative to the mounting surface m (e.g., move in the y direction away from the mounting surface m).

[0116] In one possible implementation, the first drive component 20a is at least used to drive the first adjustment component 10a to move relative to the mounting surface m in a direction away from the mounting surface m. For example, it moves along the y-direction in a direction away from the mounting surface m.

[0117] This configuration allows the first adjustment component 10a to be moved away from the mounting surface m relative to the mounting surface m. In other words, the first adjustment component 10a can extend beyond the air outlet 310 of the air handling equipment 200 using the air guide component 100, further reducing the area of ​​the first adjustment component 10a obstructed by the side wall of the air outlet 310, thereby further expanding the area of ​​the first air outlet region p of the first adjustment component 10a, so that the air handling equipment 200 using the air guide component 100 can cover a larger air blowing area.

[0118] Similarly, the second drive component 20b is at least used to drive the second adjustment component 10b to move relative to the mounting surface m in a direction away from the mounting surface m. For example, it moves along the y-direction in a direction away from the mounting surface m.

[0119] This configuration allows the second adjustment component 10b to be translated away from the mounting surface m, meaning that the second adjustment component 10b can extend beyond the air outlet 310 of the air handling equipment 200 using the air guide component 100. This further reduces the area of ​​the second adjustment component 10b obstructed by the side wall of the air outlet 310, thereby further expanding the area of ​​the second air outlet region g of the second adjustment component 10b, so that the air handling equipment 200 using the air guide component 100 can cover a larger airflow area.

[0120] It should be noted that "mounting surface m" as the mounting surface m of the air guide assembly 100 refers to the mounting surface m of the air guide assembly 100 when it is installed on the air handling unit 200, and this mounting surface m extends along the extension direction of the regulating assembly 10. This mounting surface m can serve as a reference for the initial position of the air guide assembly 100 or the regulating assembly 10.

[0121] In some embodiments, the mounting surface m can be the mounting surface of the air handling unit 200 on which the air guide assembly 100 is applied. For example, the mounting surface m can be the surface on which the air handling unit 200 is mounted on the wall. In this case, the mounting surface m can be parallel to or nearly parallel to the wall.

[0122] It should be noted that "first air outlet area p" refers to the air outlet area corresponding to the first regulating component 10a. In other words, the first regulating component 10a can supply air into the first air outlet area p. It can be understood that the first air outlet area p changes during the adjustment process of the first regulating component 10a and is not limited to a fixed area.

[0123] Similarly, "second air outlet area g" refers to the air outlet area corresponding to the second regulating component 10b, meaning that the second regulating component 10b can supply air into the second air outlet area g. It is understood that the second air outlet area g changes during the adjustment process of the second regulating component 10b and is not limited to a fixed area. The dashed boxes around the first air outlet area p and the second air outlet area g in Figure 12 only serve as indication that the first regulating component 10a and the second regulating component 10b can supply air to different areas, and do not represent the actual boundaries of the air supply areas of the first regulating component 10a and the second regulating component 10b.

[0124] It should be noted that "first air supply angle α1" refers to the angle at which the first adjustment component 10a moves relative to its initial position (i.e., the mounting surface m). In other words, by allowing the first adjustment component 10a to move relative to the mounting surface m, the first adjustment component 10a can adjust the range of the first air supply angle. By changing the range of the first air supply angle, users can adjust the air supply direction of the first adjustment component 10a as needed, thereby meeting different customer requirements.

[0125] "Second air supply angle α2" refers to the angle at which the second adjustment component 10b moves relative to its initial position (that is, its initial position relative to the mounting surface m). In other words, by allowing the second adjustment component 10b to move relative to the mounting surface m, the second adjustment component 10b can adjust the range of the second air supply angle. By changing the range of the second air supply angle, users can adjust the air supply direction of the second adjustment component 10b as needed, thereby meeting different customer requirements.

[0126] This configuration allows for two-dimensional adjustment to control the airflow angle of the air guide component 100, enabling more precise control of airflow direction. This helps optimize air distribution based on room layout and user needs, adapting to different room shapes and sizes and providing a more uniform temperature distribution. When applied to air conditioning equipment, this prevents cold or warm air from blowing directly onto people, reducing discomfort and improving user comfort. Optimizing the airflow path reduces air conditioning operating time and energy consumption, thereby improving overall energy efficiency. This contributes to lower electricity consumption and operating costs.

[0127] In one possible implementation, the drive component 20 is at least used to drive the adjustment component 10 to move relative to the mounting surface m in a direction parallel to the mounting surface m. For example, when the air outlet of the air conditioner is located on the side of the air conditioner, the drive component 20 can drive the adjustment component 10 to translate along the x-direction or z-direction in Figure 1. When moving along the z-direction, a larger range can be covered in the z-direction, and when moving along the x-direction, a larger range can be covered in the x-direction. It should be noted that "a change in position relative to the mounting surface m" refers to translation, rotation, or other movements relative to the mounting surface m. As long as the adjustment component as a whole moves relative to the mounting surface m, it is considered that a change has occurred in the position of the adjustment component relative to the mounting surface m. For example, the adjustment component may translate up, down, left, right, forward, or backward relative to the mounting surface m. Or, the adjustment component may rotate around a point or axis to cause the adjustment component to flip or rotate. Alternatively, the adjustment component may translate up, down, left, right, forward, or backward relative to the mounting surface m, and may also rotate around a point or axis to cause the adjustment component to flip or rotate.

[0128] By setting the second adjustment component 10b to be able to change position relative to the mounting surface m, the second adjustment component 10b can adjust the range of the second air supply angle, thereby meeting different customer needs.

[0129] In this embodiment, since the first adjusting component 10a and the second adjusting component 10b are simultaneously controlled by a second drive component 20b relative to the mounting surface, the structure of the entire air guide assembly can be simplified, reducing costs. By having two first drive components 20a control the air guide blades of the first adjusting component 10a and the second adjusting component 10b respectively, the first adjusting component 10a and the second adjusting component 10b can deliver air to different air outlet areas. This expands the air supply area of ​​the air conditioning unit, resulting in more uniform air distribution, reducing temperature differences within the room, and thus improving overall comfort. A larger air supply area allows for faster attainment of the set temperature target, meaning the air conditioning unit can complete cooling or heating tasks in a shorter time, thereby improving energy efficiency. A larger air supply area reduces discomfort caused by strong winds in one direction, providing a gentler airflow experience, making users feel more natural and comfortable in the air-conditioned environment. Furthermore, controlling the air delivery angle of the first adjusting component 10a and the second adjusting component 10b can prevent the air conditioning unit from blowing directly on the user, enhancing the user experience.

[0130] In addition, by individually controlling the air guide vanes 12 of the first adjustment component 10a and the second adjustment component 10b, the airflow direction and intensity of the first air outlet area p corresponding to the first adjustment component 10a, and the airflow direction and intensity of the second air outlet area g corresponding to the second adjustment component 10b can be precisely adjusted as needed to adapt to different room layouts and usage requirements. Users can flexibly adjust the settings of each adjustment component according to specific environmental conditions to achieve a more uniform and effective airflow distribution, avoid local areas being too cold or too hot, and improve overall comfort.

[0131] It should be noted that in some embodiments, for example, when the air conditioning unit has a large air outlet in the x-direction, multiple air guiding components 100 can be provided at the air outlet. Each air guiding component 100 may include a first adjusting component 10a and a second adjusting component 10b to accommodate more models of air conditioning units. Of course, the size of the air guiding component 100 in the x-direction can also be increased to accommodate different models of air conditioning units. In the embodiments of this application, the number of air guiding components 100 provided in an air conditioning unit is not further limited.

[0132] For example, the second drive component 20b drives the first adjustment component 10a and the second adjustment component 10b to change position relative to the mounting surface m. Specifically, it can drive at least a portion of the structure of the first adjustment component 10a and the second adjustment component 10b to move away from the mounting surface m.

[0133] Here, "the direction away from the mounting surface m" refers to the direction in which the distance to the mounting surface increases. For example, it can be a direction perpendicular to the mounting surface m (moving back and forth relative to the mounting surface), or a direction at a certain angle to the mounting surface m (slanted upwards or downwards).

[0134] Of course, in some embodiments, the second driving component 20b can also drive at least a portion of the structure of the first adjusting component 10a and the second adjusting component 10b to move toward the mounting surface m. The directions of moving away from and moving closer to are opposite and correspond to different operating modes. For example, during operation, at least a portion of the structure of the first adjusting component 10a and the second adjusting component 10b can be driven to move away from the mounting surface m; after operation is completed, at least a portion of the structure of the first adjusting component 10a and the second adjusting component 10b can be driven to move toward the mounting surface m to return to the initial position.

[0135] It should be noted that "perpendicular" refers to perpendicularity within a certain allowable error range. For example, an angle between 80° and 90° with the mounting surface m can be considered perpendicular to the mounting surface m. The extension direction of the first adjusting component 10a and the second adjusting component 10b is the direction of the side or surface with the largest dimension of the first adjusting component 10a and the second adjusting component 10b, represented as the x-direction in the figure, and the direction perpendicular to the mounting surface m is the y-direction.

[0136] Similarly, the second drive component 20b is used to drive the second adjustment component 10b to change position relative to the mounting surface m, specifically by driving at least a portion of the structure of the second adjustment component 10b to move along a direction perpendicular to the mounting surface m.

[0137] It should be noted that the movement relative to the mounting surface m is relative to the mounting surface. When the position of the mounting surface changes, the movement direction of the first adjustment component 10a and the second adjustment component 10b also changes accordingly. Therefore, in this embodiment, the specific movement direction of the first adjustment component 10a and the second adjustment component 10b is not further limited, as long as the position can change relative to the mounting surface m.

[0138] In this embodiment, the air guide assembly 100 moves at least a portion of the structure of the first adjusting assembly 10a and the second adjusting assembly 10b along a direction perpendicular to the mounting surface m. This allows at least a portion of the structure of the first adjusting assembly 10a and the second adjusting assembly 10b to be located outside the air outlet 310 of the air handling equipment 200 using the air guide assembly 100. The portion of the first adjusting assembly 10a and the second adjusting assembly 10b located outside the air outlet 310 experiences less obstruction from the sidewall of the air outlet 310, thereby increasing the airflow area of ​​the air guide assembly 100. This allows the air handling equipment 200 using the air guide assembly 100 to cover a larger airflow area. Compared to related technologies that adjust the airflow angle using an air guide plate, the technical solution of this application can cover a larger airflow area, improve air handling efficiency, and thus save energy.

[0139] In one possible implementation, the first adjustment component 10a and the second adjustment component 10b are spaced apart along the x-direction, and the second drive component 20b is located between the first adjustment component 10a and the second adjustment component 10b. The second drive component 20b is used to drive the ends of the first adjustment component 10a and the second drive component 20b that are close to each other to move away from or closer to the mounting surface m relative to the mounting surface m.

[0140] For example, the second drive component 20b is used to drive the ends of the first adjustment component 10a and the second drive component 20b that are close to each other to move along the y direction away from the mounting surface m, so as to expand the air supply angle.

[0141] This configuration allows the ends of the first adjustment component 10a and the second drive component 20b that are close to each other to be translated away from the mounting surface m. In other words, the ends of the first adjustment component 10a and the second drive component 20b that are close to each other can extend beyond the air outlet 310 of the air handling equipment 200 using the air guide component 100. This further reduces the area of ​​the first adjustment component 10a and the second drive component 20b that are blocked by the side wall of the air outlet 310, thereby further expanding the area of ​​the first air outlet area p and the second air outlet area g, so that the air handling equipment 200 using the air guide component 100 can cover a larger air blowing area.

[0142] In one possible implementation, FIG13 is a bottom view of an adjustment component of an air guide assembly provided in an embodiment of the present application. As shown in FIG13, the adjustment component 10 may further include a base point 13, and the driving component 20 drives the adjustment component 10 to rotate around the base point 13 so that at least a portion of the structure of the adjustment component 10 moves away from the mounting surface m.

[0143] By setting a base point, the drive assembly 20 can drive at least a portion of the structure of the adjustment assembly 10 to move relative to the mounting surface m (e.g., along the y direction), so that the adjustment assembly 10 can adjust the range of the first air supply angle α1.

[0144] For example, the drive carrier 11 rotates around the base point 13, causing a portion of the structure of the adjustment assembly 10 to move away from the mounting surface m relative to the mounting surface m, while another portion moves closer to the mounting surface m relative to the mounting surface m. At this time, the first air supply angle α1 is greater than zero.

[0145] When the adjusting component 10 is rotated around the base point 13 by a certain angle, a portion of the adjusting component 10 can be located outside the air outlet 310 of the air handling equipment 200 using the air guide component 100, while another portion is located inside the air outlet 310. This reduces the area of ​​the portion of the air guide component 100 located outside the air outlet 310 that is obstructed by the side wall of the air outlet 310, thereby increasing the airflow area of ​​the air guide component 100. Furthermore, by controlling the position of the base point 13, the size of the portion of the air guide component 100 located outside the air outlet 310 of the air handling equipment 200 using the air guide component 100 can be controlled, thereby controlling the airflow area of ​​the air guide component 100 and improving the installation flexibility of the air guide component 100.

[0146] It should be noted that the base point is only used as a reference point or baseline, and not as an actual existing structure. In addition, the location of the base point 13 may include, but is not limited to, a fixed location. The specific location of the base point 13 can be set according to the actual installation requirements. In this embodiment, the specific location of the base point 13 is not further limited.

[0147] Furthermore, the direction away from the mounting surface m can be perpendicular to the mounting surface m, or it can be at a certain angle to the mounting surface m. "Perpendicular" refers to perpendicularity within a certain tolerance range; for example, an angle between 80° and 90° with the mounting surface m can be considered perpendicular. The extension direction of the adjustment component 10 is the direction of the side or surface with the largest dimension of the adjustment component 10.

[0148] In some embodiments, the guide vane 12 can function the same as a blade in the prior art, that is, it can swing left and right in the extension direction of the adjustment component 10. In other embodiments, the guide vane 12 can also swing in multiple directions, for example, the guide vane 12 can swing in the x-direction, or in the z-direction, or in a direction that forms a certain angle with the z-direction, etc.

[0149] Of course, it can be understood that when the guide vane 12 can swing relative to the air handling device 200 in the z-direction or at a certain angle to the z-direction, a third driving member (not shown in the figure) can also be provided in the drive assembly 20 to drive the guide vane 12 to swing relative to the air handling device 200 in the z-direction or at a certain angle to the z-direction. Specifically, the third driving member can drive the carrier 11 to swing in the z-direction or at a certain angle to the z-direction, and the third driving member can also drive the guide vane 12 to swing in the z-direction or at a certain angle to the z-direction. In this embodiment, the specific implementation method for realizing the swing of the guide vane 12 in the z-direction or at a certain angle to the z-direction is not further limited.

[0150] The above embodiments describe an example in which the adjustment component 10 can rotate around the base point 13. Of course, in some embodiments, the adjustment component 10 can also translate relative to the mounting surface m.

[0151] In one possible implementation, at least one of the two adjustment components 10 includes a base point 13. The at least one adjustment component 10 is rotatable about the base point to cause at least a portion of the structure of the at least one adjustment component 10 to change position in a direction away from the mounting surface m.

[0152] By setting a base point 13 and using it as the reference point for the rotation of the adjustment component, the adjustment component can rotate around the base point as an axis. The base point provides a stable reference point for the adjustment component, allowing its movement and adjustment to be performed relative to this base point, thus helping to ensure more precise and controllable movement. By setting the base point between the two ends of the adjustment component's extension direction, the design flexibility of the adjustment component can be improved, allowing it to be installed according to different needs to accommodate the diverse requirements of different users.

[0153] For example, one of the two adjustment components 10 includes a base point 13. One of the two drive components 20 drives one of the adjustment components 10 to rotate about the base point, causing at least a portion of the structure of the adjustment component 10 to change position in a direction away from the mounting surface m. One of the two drive components 20 also drives one of the two adjustment components 10 to change position relative to the mounting surface m in a direction away from the mounting surface m.

[0154] With this configuration, one adjustment component 10 can rotate relative to the mounting surface, and another adjustment component 10 can translate relative to the mounting surface, thereby improving the design flexibility of the air guide component 100.

[0155] In one possible implementation, both adjustment components 10 include a base point 13. Exemplarily, the base point 13 is located at an end of the adjustment component 10. Alternatively, the base point 13 is located between the two ends of the adjustment component 10 in its extending direction. In this embodiment, the location of the base point 13 is not further limited.

[0156] For example, the base points 13 on the two adjustment components 10 are set at different positions on the adjustment components. Alternatively, the base points 13 on the two adjustment components 10 are set at the same position on the adjustment components.

[0157] For example, two adjustment components 10 are spaced apart along the extension direction of the adjustment components 10. Two base points 13 are symmetrically arranged with respect to the central axis of the air guide assembly.

[0158] This design enhances the aesthetics of the air guide assembly. Furthermore, it simplifies the adjustment process and reduces the difficulty of adjustment. Referring to Figure 12, the first adjustment component 10a includes a first base point 13a, and the second drive component 20b drives the first adjustment component 10a to rotate around the first base point 13a, causing at least a portion of the structure of the first adjustment component 10a to move away from the mounting surface m. The first drive component 20a, corresponding to the first adjustment component 10a, is connected to the first adjustment component 10a at the first base point 13a.

[0159] For example, at least a portion of the structure of the first adjusting component 10a can rotate around the first base point 13a to move at least a portion of the structure of the first adjusting component 10a away from the mounting surface m (e.g., along the y-direction). This rotational movement can be based on the first base point 13a as the rotation base point. In this case, one end of the first adjusting component 10a located at the first base point 13a moves away from the mounting surface m, and the other end moves closer to the mounting surface m. The rotation axis of the first adjusting component 10a can be perpendicular to the mounting surface m or parallel to the mounting surface m (e.g., laterally or longitudinally parallel). For example, if perpendicular to the mounting surface m is the front-back direction, then parallel to the mounting surface m includes the up-down and left-right directions. Of course, the rotation axis of the first adjusting component 10a can also be set at an angle to the mounting surface m. In this embodiment, the rotation direction of the first adjusting component 10a is not further limited.

[0160] In other embodiments, while at least a portion of the structure of the first adjustment component 10a rotates around the first base point 13a, it can also translate relative to the mounting surface m in a direction away from the mounting surface m, for example, translating along the y-direction in a direction away from the mounting surface m.

[0161] In this embodiment of the application, the manner in which the first adjustment component 10a rotates around the first base point 13a so that at least a portion of the structure of the first adjustment component 10a moves away from the mounting surface m is not further limited, as long as it allows the first adjustment component 10a to move relative to the mounting surface m.

[0162] By setting a first base point 13a and connecting it to the first drive component 20a, the first drive component 20a provides a stable support and reference point for the first adjustment component 10a at the first base point 13a. This allows the positional changes and adjustments of the first adjustment component 10a to be performed relative to this first base point 13a, helping to ensure more precise and controllable movement of the first adjustment component 10a. It also prevents swaying during the movement of the first adjustment component 10a, improving its stability, and simplifies the structure of the air guide component 100, eliminating the need for a separate structure corresponding to the first base point 13a, thereby reducing costs. Similarly, the second adjustment component 10b may include a second base point 13b, and the second drive component 20b drives the second adjustment component 10b to rotate around the second base point 13b, causing at least a portion of the structure of the second adjustment component 10b to move away from the mounting surface m. The first drive component 20a corresponding to the second adjustment component 10b is connected to the second adjustment component 10b at the second base point 13b.

[0163] The second base point 13b serves as the base point for the rotation of the second adjustment component 10b, allowing the second adjustment component 10b to rotate around the second base point 13b as an axis. The second base point 13b provides a stable reference point for the second adjustment component 10b, enabling the movement and adjustment of the second adjustment component 10b to be performed relative to this second base point 13b, which helps to ensure that the movement of the second adjustment component 10b is more precise and controllable.

[0164] For example, at least a portion of the structure of the second adjustment component 10b can rotate around the second base point 13b to move at least a portion of the structure of the second adjustment component 10b in a direction away from the mounting surface m (e.g., along the y-direction). This rotational movement can be based on the second base point 13b as the rotation base point. In this case, one end of the second adjustment component 10b located at the second base point 13b moves away from the mounting surface m, and the other end moves closer to the mounting surface m. The rotation axis of the second adjustment component 10b can be perpendicular to the mounting surface m, parallel to the mounting surface m, or at an angle to the mounting surface m. In this embodiment, the rotation direction of the second adjustment component 10b is not further limited.

[0165] In other embodiments, while at least a portion of the structure of the second adjustment component 10b rotates about the second base point 13b, it can also translate relative to the mounting surface m in a direction away from the mounting surface m, for example, translating along the y-direction in a direction away from the mounting surface m.

[0166] In this embodiment, the manner in which the second adjustment component 10b rotates around the second base point 13b to move at least a portion of the structure of the second adjustment component 10b away from the mounting surface m is not further limited, as long as it allows the second adjustment component 10b to move relative to the mounting surface m.

[0167] By setting a second base point 13b and connecting it to the first drive component 20a at the second base point 13b, the first drive component 20a can provide a stable support and reference point for the second adjustment component 10b at the second base point 13b. This allows the movement and adjustment of the second adjustment component 10b to be performed relative to this second base point 13b, helping to ensure more precise and controllable movement of the second adjustment component 10b. It also prevents swaying during the movement of the second adjustment component 10b, improving its stability, and simplifies the structure of the air guide component 100, eliminating the need for a separate structure corresponding to the second base point 13b, thereby reducing costs.

[0168] It should be noted that the positions of the first base point and the second base point are related to the setting positions of the two first drive mechanisms. In the following description, the setting position of the first drive mechanism represents the setting positions of the first base point and the second base point.

[0169] For example, as shown in FIG7A, the first base point 13a may be located at one end of the extending direction of the first adjusting component 10a. For example, the first base point 13a may be located at one end of the first adjusting component 10a opposite to the second adjusting component 10b. The second base point 13b may be located between the two ends of the extending direction of the second adjusting component 10b.

[0170] This configuration allows the first adjusting component 10a to achieve a larger swing angle, thereby covering a wider spatial area. Setting the first base point at one end of the first adjusting component 10a, compared to setting the first base point 13a in the middle of the extending direction of the first adjusting component 10a, reduces the amount of structure within the air outlet 310, minimizing airflow obstruction by the sidewalls of the air outlet 310, thus increasing airflow volume and improving efficiency. Furthermore, end-rotation provides more precise airflow control for directional airflow, preventing direct airflow from the air conditioner. Setting the first base point 13a at the end allows for more flexible mechanical design, especially when integrating the air guide component 100 into air conditioning equipment with specific shape or size limitations, providing more assembly space for other structures and reducing assembly difficulty.

[0171] In some other embodiments, as shown in FIG7B, the first base point 13a may be located at one end of the extending direction of the first adjusting component 10a. The second base point 13b is located at one end of the extending direction of the second adjusting component 10b. For example, the first base point 13a is located at one end of the first adjusting component 10a opposite to the second adjusting component 10b. The second base point 13b is located at one end of the second adjusting component 10b opposite to the first adjusting component 10a.

[0172] This configuration allows both the first adjustment component 10a and the second adjustment component 10b to achieve a larger swing angle and to create a diffused airflow function, thereby covering a wider area. Furthermore, in multifunctional spaces (such as conference rooms and open-plan offices), different air supply angles can provide suitable airflow conditions for different activity areas, meeting diverse usage needs.

[0173] In this embodiment of the application, as shown in FIG12, the first driving component 20a corresponding to the first adjusting component 10a may be located at the end of the first adjusting component 10a away from the second adjusting component 10b, that is, the first base point 13a is located at the end of the first adjusting component 10a away from the second adjusting component 10b. Similarly, the first driving component 20a corresponding to the second adjusting component 10b may be located at the end of the second adjusting component 10b away from the first adjusting component 10a, that is, the second base point is located at the end of the second adjusting component 10b away from the first adjusting component 10a.

[0174] In this embodiment, the location of the first driving component 20a can be set according to specific circumstances, and is not further limited in this embodiment.

[0175] By positioning the two first drive components 20a at opposite ends of the first adjustment component 10a and the second adjustment component 10b, mechanical interference of the first drive component 20a with other intermediate components or functions (such as sensors or displays) can be reduced, which is more conducive to the layout of the internal space of the device, especially when other components need to be placed in a central position. Furthermore, positioning the first drive components at the ends of the first adjustment component 10a and the second adjustment component 10b makes the first drive component 20a more accessible, thereby simplifying the installation and maintenance process. Additionally, when moving with the first drive component 20a as a base point, the range of motion of the adjustment component can be increased, thereby achieving a larger coverage angle.

[0176] In addition, by setting the two first drive components 20a at opposite ends of the first adjustment component 10a and the second adjustment component 10b, the first adjustment component 10a and the second adjustment component 10b can achieve a larger swing angle, thereby covering a wider spatial area.

[0177] Of course, in other embodiments, the first drive component 20a may be disposed in other locations. For example, the first drive component 20a corresponding to the first adjustment component 10a may be located between the two ends of the first adjustment component 10a in its extension direction (e.g., near the middle). The first drive component 20a corresponding to the second adjustment component 10b may be located between the two ends of the second adjustment component 10b in its extension direction, for example, near the middle.

[0178] This configuration improves the design flexibility of the first drive assembly 20a and prevents interference between the first drive assembly 20a and the second drive assembly 20b. Furthermore, when the first drive assembly 20a is located between the two ends of the first adjustment assembly 10a, it can have guide vanes 12 on both sides of the extension direction of the first adjustment assembly 10a. This allows for a more even distribution of driving force, reducing potential stress unevenness or deformation problems during the adjustment of the guide vanes 12, and extending the service life of the first adjustment assembly 10a.

[0179] Furthermore, when the second drive assembly 20b drives the first adjustment assembly 10a and the second adjustment assembly 10b to move a certain distance away from the mounting surface along a direction perpendicular to the mounting surface (y direction), a portion of the structure of the first adjustment assembly 10a and the second adjustment assembly 10b can be located outside the air outlet 310 of the air handling equipment 200 to which the air guide assembly 100 is applied, and another portion of the structure can be located inside the air outlet 310. The area of ​​the first adjustment assembly 10a and the second adjustment assembly 10b located outside the air outlet 310 that is blocked by the side wall of the air outlet 310 will be reduced, thereby increasing the blowing area of ​​the air guide assembly 100.

[0180] In addition, by controlling the positions of the first base point 13a and the second base point 13b, the size of the portion of the first adjustment component 10a and the second adjustment component 10b located outside the air outlet 310 of the air handling equipment 200 on which the air guide component 100 is applied can be controlled, thereby controlling the air blowing area of ​​the air guide component 100 and improving the installation flexibility of the air guide component 100.

[0181] It should be noted that the positions of the two first driving components 20a, that is, the positions of the first base point 13a and the second base point 13b, are not limited to a fixed position. The specific positions of the two first driving components 20a can be set according to actual installation requirements. In this embodiment, the positions of the two first driving components 20a are not limited and can be set according to specific circumstances.

[0182] It should be noted that the base point is only a reference point or baseline, not an actual existing structure.

[0183] It should be noted that the rotation axes of the first adjusting component 10a and the second adjusting component 10b can be perpendicular to the mounting surface m. In other embodiments, the rotation axes of the first adjusting component 10a and the second adjusting component 10b can also be parallel to the mounting surface m (e.g., laterally or longitudinally parallel). For example, perpendicular to the mounting surface m is the front-back direction, while parallel to the mounting surface m includes the up-down direction and the left-right direction. Therefore, the first adjusting component 10a and the second adjusting component 10b can rotate left and right with the up-down direction as the axis, rotate front and back with the left-right direction as the axis, and rotate up and down with the front-back direction as the axis. Of course, the rotation axes of the first adjusting component 10a and the second adjusting component 10b can also be set at an angle to the mounting surface m. In this embodiment, the rotation direction of the first adjusting component 10a and the second adjusting component 10b is not further limited.

[0184] The location of base point 13 will be explained below.

[0185] For example, the base point 13 can be located between the two ends of the adjustment component 10, and the adjustment component 10 can be rotated about the base point 13 so that one end of the adjustment component 10 moves away from the mounting surface m and the other end moves closer to the mounting surface m.

[0186] This allows at least a portion of the structure of the air guide assembly 100 to be located outside the air outlet 310 of the air handling unit 200 using the air guide assembly 100. The portion of the air guide assembly 100 located outside the air outlet 310 experiences less obstruction from the sidewall of the air outlet 310, thereby increasing the airflow area of ​​the air guide assembly 100 and enabling the air handling unit 200 using the air guide assembly 100 to cover a larger airflow area. Compared to related technologies that adjust the airflow angle using a guide vane, the present application's technical solution can cover a larger airflow area, improve air handling efficiency, and thus save energy.

[0187] It should be noted that the location of the base point 13 may include, but is not limited to, a fixed location. The specific location of the base point 13 may be set according to the actual installation requirements. In this embodiment, the specific location of the base point 13 is not further limited.

[0188] In some other embodiments, the base point 13 may be located at the end of the adjustment component 10. The adjustment component 10 may rotate around the base point 13, so that one end of the adjustment component 10 may move away from the mounting surface m, while the other end rotates in place.

[0189] This increases the area of ​​the adjustment component located outside the air outlet 310, further reducing the obstruction area of ​​the sidewall of the air outlet 310, thereby expanding the blowing area of ​​the air guide component 100. This allows the air handling equipment 200 using the air guide component 100 to cover a larger blowing area. Compared to related technologies that adjust the air delivery angle using a guide plate, the technical solution of this application can cover a larger blowing area, improve air handling efficiency, and thus save energy.

[0190] Furthermore, in the embodiment shown in the figure, the position of the first base point 13a relative to the first adjustment component 10a is the same as the position of the second base point 13b relative to the second adjustment component 10b. Of course, in other embodiments, the position of the first base point 13a relative to the first adjustment component 10a and the position of the second base point 13b relative to the second adjustment component 10b may also be different. Therefore, in this embodiment, the specific positions of the first base point 13a and the second base point 13b are not further limited.

[0191] In one possible implementation, the first drive assembly 20a and the guide vane 12 on the corresponding adjustment assembly 10 are driveably connected. The first drive assembly 20a is used to drive the guide vane 12 to change position. For example, the first drive member 22 is used to drive the guide vane 12 to change position relative to the support member 11, such as driving the guide vane 12 to translate and / or rotate relative to the support member 11, so that the guide vane 12 can swing. Each of the two first drive assemblies 20a independently drives the guide vane 12 on the two corresponding adjustment assemblies 10. For ease of description, the guide vane on the first adjustment assembly 10a is referred to as the first guide vane 12a, and the guide vane on the second adjustment assembly 10b is referred to as the second guide vane 12b.

[0192] Referring to Figure 12, a plurality of movable first guide vanes 12a can be provided on the first adjustment component 10a. The first drive component 20a corresponding to the first adjustment component 10a is connected to the first guide vanes 12a provided on the first adjustment component 10a. The first drive component 20a corresponding to the first adjustment component 10a is used to drive the first guide vanes 12a to rotate relative to the carrier 11, so that the first guide vanes 12a swing toward both ends of the extension direction (x direction) of the first adjustment component 10a, so that the first guide vanes 12a on the first adjustment component 10a can adjust the range of the third air delivery angle α3. Referring to Figure 12, in some embodiments, the range of the overall air delivery angle of the first adjustment component 10a is the sum of α1 and α3.

[0193] Similarly, multiple movable second guide vanes 12b can also be provided on the second adjustment component 10b. The first drive component 20a corresponding to the second adjustment component 10b is connected to the second guide vanes 12b provided on the second adjustment component 10b. The first drive component 20a corresponding to the second adjustment component 10b is used to drive the second guide vanes 12b to swing towards both ends in the extension direction (x direction) of the second adjustment component 10b, so that the second guide vanes 12b on the second adjustment component 10b can adjust the range of the fourth air delivery angle α4. As shown in Figure 12, in some embodiments, the range of the overall air delivery angle of the second adjustment component 10b is the sum of α2 and α4.

[0194] It should be noted that in the embodiments of this application, "orientation" refers to orientation in a broad sense and is not limited to being set up with the front and back facing each other.

[0195] By setting a movable first guide vane 12a on the first regulating component 10a and a movable second guide vane 12b on the second regulating component 10b, the air delivery direction of the first regulating component 10a and the second regulating component 10b can be further adjusted by adjusting the angles of the first guide vane 12a and the second guide vane 12b. In other words, the air delivery angle of the first regulating component 10a and the second regulating component 10b can be controlled through two-dimensional adjustment. This allows for more precise control of the airflow direction, helping to optimize air distribution according to room layout and user needs, adapting to different room shapes and sizes, providing a more uniform temperature distribution, and preventing cold or warm air from blowing directly onto the human body, reducing discomfort and improving user comfort. This design can also reduce air conditioning operating time and energy consumption by optimizing the airflow path, thereby improving overall energy efficiency. This helps reduce electricity consumption and operating costs.

[0196] In some embodiments, the guide vane 12 may include an initial position and a working position. In Figure 11, the position of the second guide vane 12b can be used as the initial position, and the position of the first guide vane 12a can be used as the working position.

[0197] It should be noted that when the guide vanes are not rotating, their working position is the initial position. Furthermore, the working position is not fixed; it varies within an angular range when the guide vanes are oscillating.

[0198] It should be noted that the first guide vane 12a can rotate from its initial position to its working position by a third air delivery angle α3, and the second guide vane 12b can rotate from its initial position to its working position by a fourth air delivery angle α4. The third air delivery angle α3 and the fourth air delivery angle α4 can be the same (as shown in Figure 12) or different (as shown in Figure 11). For example, the third air delivery angle α3 and the fourth air delivery angle α4 can both be 45°, or they can be 0° and 45° respectively. This improves the adjustment flexibility of both the first and second adjustment components.

[0199] It should be noted that the first guide vane 12a and the second guide vane 12b shown in the figure have the same structure. Both the first guide vane 12a and the second guide vane 12b are arranged along the z-direction and can rotate around the z-direction. Furthermore, the shape, setting direction, and arrangement of the first guide vane 12a and the second guide vane 12b are the same, and both the first guide vane 12a and the second guide vane 12b have a rectangular sheet structure. Multiple through holes are provided on both the first guide vane 12a and the second guide vane 12b, which can be used for ventilation.

[0200] Of course, in other embodiments, the first guide vane 12a and the second guide vane 12b can be configured to rotate around the y-direction or the x-direction. The rotation axes of the first guide vane 12a and the second guide vane 12b can also be set differently. In the embodiments of this application, the orientation of the first guide vane 12a and the second guide vane 12b, as well as the direction of their rotation axes, are not further limited.

[0201] Of course, in other embodiments, the extending directions of the first guide vane 12a and the second guide vane 12b can be set at a certain angle to the z-direction (for example, perpendicular to the z-direction, i.e., extending along the x-direction), or a portion of the first guide vane 12a and / or the second guide vane 12b can be set to extend along the z-direction, while another portion of the first guide vane 12a and / or the second guide vane 12b extends along the x-direction, etc. In the embodiments of this application, the extending directions of the first guide vane 12a and / or the second guide vane 12b are not further limited.

[0202] In other embodiments, the first guide vane 12a and the second guide vane 12b may be configured with other shapes, such as arc, S-shape or irregular shape. In the embodiments of this application, the configuration direction and shape of the first guide vane 12a and the second guide vane 12b are not further limited.

[0203] In addition, the shapes of the first guide vane 12a and the second guide vane 12b can be the same or different. In this embodiment, the shapes of the first guide vane 12a and the second guide vane 12b are not further limited.

[0204] In some embodiments, the first guide vane 12a and the second guide vane 12b can have the same function as the vanes in the prior art. That is, they can swing left and right (left and right direction in the figure) in the extension direction of the first adjustment component 10a and the second adjustment component 10b, or swing up and down perpendicular to the extension direction (up and down direction in the figure).

[0205] In other embodiments, the first guide vane 12a and the second guide vane 12b can also swing in multiple directions. For example, the first guide vane 12a and the second guide vane 12b can swing in the x direction (swing left and right), swing in the z direction (swing up and down), or swing in a direction that forms a certain angle with the z direction (swing tilt).

[0206] Of course, it can be understood that when the first guide vane 12a and the second guide vane 12b can swing relative to the air handling device 200 in the z-direction or at a certain angle to the z-direction, a third driving member can also be provided to drive the guide vane 12 to swing relative to the air handling device 200 in the z-direction or at a certain angle to the z-direction. Specifically, the third driving member can drive the entire first adjustment assembly 10a or the second adjustment assembly 10b to swing in the z-direction or at a certain angle to the z-direction, or the third driving member can drive the guide vane 12 to swing in the z-direction or at a certain angle to the z-direction. In this embodiment, the specific implementation method for realizing the swing of the guide vane 12 in the z-direction or at a certain angle to the z-direction is not further limited.

[0207] Referring again to Figures 10 and 12, each adjustment assembly 10 includes a carrier 11 and a plurality of guide vanes 12, the extension direction (x-direction) of the carrier 11 being the same as the extension direction of the adjustment assembly 10. The plurality of guide vanes 12 are spaced apart along the extension direction of the carrier 11. Each guide vane 12 is movably connected to the carrier 11, for example, by rotation.

[0208] By providing the support component 11, a stable mounting base can be provided for the air guide vane 12, ensuring its stability during adjustment and helping to reduce vibration and noise. The modular design of the support component 11 and the air guide vane 12 reduces installation and maintenance difficulty. Users can replace or adjust individual air guide vanes 12 as needed without requiring large-scale adjustments to the entire air guide assembly 100.

[0209] By setting multiple air guide vanes 12 on each adjustment component 10 and spacing them on the support 11, users can more flexibly adjust the angle of each air guide vane 12 to precisely control the airflow direction and intensity to adapt to different room layouts and usage needs. Multiple air guide vanes 12 can also promote indoor air mixing, improve air quality and comfort, make the airflow more evenly distributed, avoid local areas being too cold or too hot, and reduce dead zones and stagnant areas in the air by optimizing the airflow path, thereby improving the user experience.

[0210] For ease of description, the support member on the first adjustment assembly 10a is referred to as the first support member 11a, and the support member on the second adjustment assembly 10b is referred to as the second support member 11b.

[0211] As shown in Figure 14, the first adjustment assembly 10a may include a first support member 11a. A plurality of first guide vanes 12a are rotatably connected to the first support member 11a. For example, the first guide vanes 12a extend along the z-direction. The plurality of first guide vanes 12a are spaced apart along the extension direction of the first support member 11a.

[0212] It should be noted that the extending direction of the first support member 11a is the direction of the side or surface with the largest dimension of the first support member 11a. In some embodiments, the extending direction of the first support member 11a may be approximately parallel to the extending direction of the first adjusting component 10a.

[0213] For example, the first support member 11a can be a plate-like structure used to support the first guide vane 12a and facilitate connection with structures such as the first drive assembly 20a. In this embodiment, the specific structure of the first support member 11a is not further limited.

[0214] By setting up the first support component 11a, a stable mounting base can be provided for the first guide vane 12a, ensuring that the first guide vane 12a remains stable during adjustment, which helps to reduce vibration and noise. The modular design of the first support component 11a and the first guide vane 12a reduces the difficulty of installation and subsequent maintenance. Users can replace or adjust individual first guide vanes 12a as needed without large-scale adjustments to the entire air guide assembly 100.

[0215] By setting multiple first air guide vanes 12a at intervals, users can more flexibly adjust the angle of each first air guide vane 12a to precisely control the airflow direction and intensity to adapt to different room layouts and usage needs. Multiple first air guide vanes 12a can also promote indoor air mixing, improve air quality and comfort, make the airflow more evenly distributed, avoid local areas being too cold or too hot, and by optimizing the airflow path, reduce dead zones and stagnant areas in the air, thereby improving the user experience.

[0216] It should be noted that the number of the first guide vanes 12a can be determined based on the dimensions of the first support member 11a in the extension direction and the arrangement density of the first guide vanes 12a. Therefore, the number of the first guide vanes 12a is not limited in this embodiment.

[0217] Similarly, the second adjustment assembly 10b may include a second carrier 11b. A plurality of second guide vanes 12b are rotatably connected to the second carrier 11b. Exemplarily, the second guide vanes 12b extend along the z-direction. The plurality of second guide vanes 12b are spaced apart along the extension direction of the second carrier 11b.

[0218] It should be noted that the extension direction of the second support member 11b is the direction of the side or surface with the largest size of the second support member 11b, which is the x-direction in the figure. In some embodiments, the extension direction of the second support member 11b may be approximately parallel to the extension direction of the second adjustment component 10b.

[0219] For example, the second support member 11b can be a plate-like structure used to support the second guide vane 12b and facilitate connection with structures such as the second drive assembly 20b. In this embodiment, the specific structure of the second support member 11b is not further limited.

[0220] By providing the second support component 11b, a stable mounting base can be provided for the second guide vane 12b, ensuring its stability during adjustment and helping to reduce vibration and noise. The modular design of the second support component 11b and the second guide vane 12b reduces installation and maintenance difficulty. Users can replace or adjust individual second guide vanes 12b as needed without requiring large-scale adjustments to the entire air guide assembly 100.

[0221] By setting multiple second air guide vanes 12b at intervals, users can more flexibly adjust the angle of each second air guide vane 12b to precisely control the airflow direction and intensity to adapt to different room layouts and usage needs. Multiple second air guide vanes 12b can also promote indoor air mixing, improve air quality and comfort, make airflow more evenly distributed, avoid local areas being too cold or too hot, and reduce dead zones and stagnant areas by optimizing the airflow path, thereby enhancing the user experience.

[0222] It should be noted that the number of the second guide vanes 12b can be determined based on the dimensions of the second support member 11b in the extension direction and the arrangement density of the second guide vanes 12b. Therefore, in this embodiment, the number of the second guide vanes 12b is not limited.

[0223] It should be noted that the structure, principle, and relative position of the two first driving components 20a to the first adjusting component 10a and the second adjusting component 10b can be the same. Of course, in some other embodiments, the structure, principle, and relative position of the two first driving components 20a to the first adjusting component 10a and the second adjusting component 10b can also be different, as long as the first adjusting component 10a and the second adjusting component 10b can be controlled independently.

[0224] The following section provides a detailed description of the first drive component 20a, taking as an example the structure and principle of the two first drive components 20a and their identical positions relative to the first adjustment component 10a and the second adjustment component 10b.

[0225] The second drive assembly 20b has the same structure as the first drive assembly 20a. The second drive assembly 20b may also include a first drive member 21 and a second drive member 22. The first drive member 21 is driven to the second guide vane 12b. The first drive member 21 is used to drive the second guide vane 12b to change position relative to the second carrier member 11b, for example, rotation and / or translation. In this embodiment, it is rotation, so that the second guide vane 12b can swing. The second drive member 22 is driven to the second carrier member 11b. The second drive member 22 is used to drive at least a portion of the structure of the second carrier member 11b to move relative to the mounting surface m (for example, moving along the y-direction away from the mounting surface m, see Figure 7).

[0226] By setting the first drive component 20a and the second drive component 20b to have the same structure, the structure of the air guide component 100 can be simplified, the cost can be reduced, and assembly can be made easier, thus reducing the difficulty of assembly.

[0227] By configuring the first drive assembly 20a and the second drive assembly 20b to include the first drive member 21 and the second drive member 22, the first guide vane 12a and the first carrier member 11a of the first adjustment assembly 10a can be controlled independently, as can the second guide vane 12b and the second carrier member 11b of the second adjustment assembly 10b. This improves the accuracy of airflow adjustment, and the user can adjust the air delivery angle range of the first guide vane 12a, the first carrier member 11a, the second guide vane 12b, or the second carrier member 11b as needed.

[0228] Referring to Figures 14 and 15, the first drive assembly 20a may include a first transmission member 212. The first transmission member 212 and all the guide vanes 12 of the adjusting assembly 10 corresponding to the first drive assembly 20a are driveably connected. The first transmission member 212 is movably connected to the carrier member 11 in the extending direction of the carrier member 11. When the first transmission member 212 moves along the extending direction of the adjusting assembly 10, it drives the guide vanes 12 connected to the first transmission member 212 to move, for example, rotate, so that the guide vanes 12 connected to the first transmission member 212 swing towards both ends in the extending direction of the adjusting assembly 10, so that the guide vanes 12 can adjust the third air delivery angle α3 and the fourth air delivery angle α4 (see Figure 12).

[0229] By setting up a first transmission component 212 and connecting all the guide vanes 12 on the adjusting assembly 10 to the first transmission component 212, the guide vanes 12 can be driven to rotate relative to the support component 11, ensuring the flexibility, smoothness, and efficiency of the movement of the air guiding assembly 100. The design of the first transmission component 212 can optimize torque transmission and reduce energy loss. The design of the first transmission component 212 can further reduce friction and wear, and improve the reliability of the system.

[0230] In one possible implementation, the first drive assembly 20a may further include a first motor 211. The first motor 211 is driveably connected to one of the plurality of guide vanes 12. The first motor 211 drives the guide vane 12 driveably connected to the first motor 211 to rotate relative to the support member 11, thereby causing the first drive member 212 to move along the extension direction of the adjustment assembly 10. When the first drive member 212 moves along the extension direction of the adjustment assembly 10, it can cause all the guide vanes 12 connected to the first drive member 212 to rotate relative to the support member 11, thereby adjusting the air delivery angle α, and thus changing the air delivery direction of the air guide assembly 100.

[0231] For example, the first motor 211 can be connected to the guide vane 12 located on the adjustment assembly 10 that is furthest from the second drive assembly 20b. By driving the guide vane 12 furthest from the second drive assembly 20b to rotate relative to the support member 11, the first transmission member 212 is driven to move along the extension direction of the adjustment assembly 10, thereby driving the multiple guide vanes 12 connected to the first transmission member 212 to rotate together relative to the support member 11, which can reduce the assembly difficulty.

[0232] Of course, in some other embodiments, the first motor 211 can also be connected to the air guide vane 12 located near the middle of the adjustment component 10. This way, the first motor 211 can have a portion of air guide vane 12 on both sides of the extension direction of the adjustment component, which can optimize the distribution of driving force and reduce energy consumption.

[0233] By setting a first motor 211 and connecting the first motor 211 to one of the guide vanes 12, the rotation of the guide vanes 12 can drive the first transmission component 212 connected to the guide vanes 12 to move, and drive the other guide vanes 12 connected to the first transmission component 212 to rotate together. This reduces the assembly difficulty of the first motor 211 and provides precise motion control capabilities, thereby allowing for precise adjustment of the angle of the guide vanes 12 as needed, making airflow management more efficient and accurate.

[0234] In some other embodiments, as shown in FIG15, the first motor 211 may also be connected to the first transmission member 212 for transmission. The first motor 211 is used to drive the first transmission member 212 to move along the extension direction of the adjustment assembly 10. This, in turn, causes the plurality of guide vanes 12 connected to the first transmission member 212 to rotate relative to the support member 11.

[0235] By setting the first motor 211, precise motion control capabilities can be provided, thereby accurately adjusting the angle of the guide vane 12 as needed, making airflow management more efficient and accurate. By connecting the first motor 211 to the first transmission component 212, the first transmission component 212 can effectively transmit the rotational motion of the first motor 21 to the guide vane 12, ensuring the flexibility, smoothness, and efficiency of the motion.

[0236] In one possible implementation, as shown in Figure 15, the first transmission member 212 can be a transmission link. The transmission link is arranged along the extending direction of the adjusting assembly 10 and is connected to all the guide vanes 12 of the adjusting assembly 10.

[0237] By setting the first transmission component 212 as a transmission link, its structure can be simplified, the manufacturing process is simple, the cost is low, and it is suitable for mass production and application. Furthermore, the transmission link is a simple and reliable mechanical structure that can effectively convert the rotational motion of the motor into the linear or oscillating motion of the guide vanes, contributing to improved system reliability and durability. Due to the geometric characteristics of the transmission link, it can provide precise motion control, allowing the guide vanes to be precisely adjusted within a set range, thereby achieving more precise airflow management.

[0238] Of course, in other embodiments, the first transmission member 212 may also be a crank-connecting rod mechanism, a gear and rack mechanism, a cam mechanism, an eccentric wheel mechanism, an electric push rod, a stepper motor or servo motor drive, a pneumatic or hydraulic cylinder gear, a universal joint or ball joint, etc. In the embodiments of this application, the specific structure of the first transmission member 212 is not further limited.

[0239] In one possible implementation, the support member 11 includes a top wall 111 and a bottom wall 112 disposed opposite to each other along the thickness direction (z-direction). A receiving cavity 113 is provided between the top wall 111 and the bottom wall 112, and a first transmission member 212 is movably disposed within the receiving cavity 113. A guide vane 12 is rotatably disposed on the side of the top wall 111 facing away from the bottom wall 112, and one end of the guide vane 12 passes through the top wall 111 and connects to the first transmission member 212.

[0240] By providing a receiving cavity 113 between the top wall 111 and the bottom wall 112, space can be effectively utilized, making the overall structure more compact. Placing the first transmission component within the receiving cavity 113 effectively protects it from external environmental influences such as dust, moisture, or physical damage, thereby improving the system's reliability and service life. The receiving cavity 113 also provides some sound insulation and vibration damping, reducing noise and vibration generated by the first transmission component during operation and improving the user experience. Furthermore, by placing the first transmission component within the receiving cavity 113, the appearance of the air guide assembly can be made simpler and more aesthetically pleasing, enhancing its overall appearance.

[0241] For example, the top wall 111 is provided with mounting holes, and one end of the guide vane 12 is fitted into the receiving cavity 113 through the mounting holes and is rotatably connected to the top wall 111. This reduces the assembly difficulty of the guide vane 12, thereby reducing costs.

[0242] In one possible implementation, the first motor 211 is located on the side of the bottom wall 112 opposite to the top wall 111.

[0243] By placing the first motor 211 outside the carrier 11, it is directly exposed to the air, which facilitates heat dissipation and thus improves motor efficiency and lifespan. Placing the first motor 211 outside the carrier 11 also reduces the direct transmission of its vibration to the carrier 11 and the air guide vanes, thereby reducing overall system noise and vibration. Furthermore, it makes the first motor 211 more accessible, simplifying maintenance and replacement. Compared to placing the first motor 211 inside the carrier 11, it reduces the need to disassemble other components, saving time and reducing maintenance costs. Additionally, external mounting may simplify electrical connections and wiring, as the first motor 211 can be more directly connected to the power supply and control system.

[0244] It should be noted that the location of the first motor is not further limited in this embodiment. Furthermore, the assembly relationship between the first motor and the air conditioning unit is not further limited in this embodiment. For example, the first motor can be fixedly mounted on the adjusting assembly, and the first motor can move together with the adjusting assembly when the adjusting assembly moves. Alternatively, the first motor can be movably connected to the air conditioning unit, and the first motor can move together with the adjusting assembly when the adjusting assembly moves, etc.

[0245] In one possible implementation, the first driving member 21 and the second driving member 22 can be spaced apart in the extending direction (x direction) of the support member 11. By spaced apart the first driving member 21 and the second driving member 22, the space of the support member 11 can be utilized more effectively, mutual interference between the driving members can be avoided, and the reliability and stability of the air guiding assembly 100 can be improved. In addition, it also helps to improve the heat dissipation effect, prevent performance degradation or damage caused by overheating, and thus extend the service life of the driving assembly 20 and improve the overall reliability of the system. As shown in FIG16, the second driving assembly 20b may include a second motor 222 and a second transmission member 221. The second motor 222 is connected to the second transmission member 221, and the second transmission member 221 is connected to the support member 11 of the two adjustment assemblies 10 respectively. The second motor 222 is used to drive the second transmission member 221 to move, so as to cause at least a part of the structure of the support member 11 to change position relative to the mounting surface m. FIG16 is a bottom view of the second driving assembly 20b.

[0246] By incorporating a second motor 222, precise motion control is provided, allowing for accurate adjustment of the angle of the carrier 11 as needed, resulting in more efficient and precise airflow management. The second transmission component 221 effectively transmits the rotational motion of the second motor 222 to the carrier 11, ensuring flexible, smooth, and efficient movement. The transmission component's design optimizes torque transmission and reduces energy loss. Furthermore, the design of the second transmission component 221 further reduces friction and wear, improving system reliability.

[0247] In one possible implementation, the second transmission member 221 may include a first connecting rod 2212, a second connecting rod 2211, and a push-pull rod 2213. One end of the first connecting rod 2212 is connected to the push-pull rod 2213, and the other end is connected to a carrier 11 (e.g., the first carrier 11a) of one of the two adjusting assemblies 10. One end of the second connecting rod 2211 is connected to the push-pull rod 2213, and the other end is connected to a carrier 11 (e.g., the second carrier 11b) of the other of the two adjusting assemblies 10. A second motor 222 is drively connected to the push-pull rod 2213, and the second motor 222 drives the push-pull rod 2213 to change position relative to the mounting surface m, thereby causing at least a portion of the structure of the carrier 11 to change position relative to the mounting surface m via the first connecting rod 2212 and the second connecting rod 2211.

[0248] By arranging the second transmission component 221 including the first connecting rod 2212, the second connecting rod 2211, and the push-pull rod 2213, synchronous adjustment of the two adjustment components 10 can be achieved, improving the motion consistency of the two adjustment components 10 and enhancing adjustment accuracy. The mechanical structure using the first connecting rod 2212, the second connecting rod 2211, and the push-pull rod 2213 is relatively simple, easy to manufacture and assemble, and can reduce costs. By setting the push-pull rod 2213, the rotational motion of the second motor 222 can be converted into linear motion, thereby achieving precise motion control and improving adjustment accuracy. Since the first connecting rod 2212, the second connecting rod 2211, and the push-pull rod 2213 can be effectively arranged in a plane, this allows for a compact layout and saves internal space in the equipment.

[0249] In one possible implementation, the push-pull rod 2213 is arranged along a direction perpendicular to the mounting surface m, and the second motor 222 is used to drive the push-pull rod 2213 to move along the direction perpendicular to the mounting surface m. Of course, in other embodiments, the push-pull rod 2213 can also be arranged in other directions, such as along the thickness direction (z direction) of the bearing member. In this embodiment, the arrangement direction of the push-pull rod 2213 is not further limited.

[0250] By setting the push-pull rod 2213 along a direction perpendicular to the mounting surface m, the second drive assembly can drive the two adjusting components 10 to move towards or away from the mounting surface along a direction perpendicular to the mounting surface. When the two adjusting components 10 move away from the mounting surface, they can move outward, thus expanding outward and creating diffused airflow, increasing the area covered by the air supply. When the two adjusting components move towards the mounting surface, they can move inward, thus converging inward and creating concentrated airflow, increasing the air volume in the air supply area and improving the adjustment rate.

[0251] Of course, in other embodiments, the push-pull rod 2213 can be arranged in other directions, such as along a direction that forms an angle with the mounting surface m, or along the thickness direction (z direction) of the bearing member. In this embodiment, the arrangement direction of the push-pull rod 2213 is not further limited.

[0252] With this configuration, the adjustment component 10 can be moved relative to the mounting surface m by a push-pull rod, so that the adjustment component 10 can extend out of the air outlet 310 of the air handling equipment using the air guide component, further reducing the area of ​​the adjustment component 10 blocked by the side wall of the air outlet, thereby further expanding the blowing area of ​​the air guide component, so that the air handling equipment using the air guide component 100 can cover a larger blowing area.

[0253] In one possible implementation, the push-pull rod 2213 may include a rack, with the second motor 222 connected to the rack drive.

[0254] This configuration allows the rotational motion of the second motor 222 to be directly converted into the linear motion of the push-pull rod 2213, providing an efficient motion conversion method and improving adjustment accuracy. The gear and rack structure is relatively simple, easy to design and manufacture, and offers high reliability and durability, while also being easy to maintain, reducing maintenance costs. Furthermore, gear and rack transmission can achieve effective motion transmission within a limited space, saving assembly space and reducing assembly difficulty.

[0255] Of course, in other embodiments, the push-pull rod 2213 may also include a guide rail, a slider, or other structures. In this embodiment, the specific structure of the push-pull rod 2213 is not further limited, as long as it can convert rotational motion into linear motion.

[0256] It should be noted that when the adjustment component 10 can rotate relative to the mounting surface, the end of the push-pull rod connected to the carrier can be rotatably connected to the carrier 11 to prevent jamming during the rotation of the carrier 11.

[0257] In other embodiments, the second transmission component 221 may also be a screw transmission mechanism, a gear and rack transmission mechanism, an electric push rod, a linear guide and slider, a pneumatic or hydraulic cylinder, a linear actuator driven by a stepper motor or servo motor, a cam mechanism, etc. In this application embodiment, the specific structure of the second transmission component 221 is not further limited.

[0258] It should be noted that, in the embodiments of this application, the structure, principle, and connection relationship between the first driving member 21 and the second driving member 22 on the first driving assembly 20a and the first guide vane 12a and the first carrier 11a are the same as those of the first driving member 21 and the second driving member 22 on the second driving assembly 2b. Therefore, for the structure, principle, and connection relationship between the first driving member 21 and the second driving member 22 on the second driving assembly 2b and the second guide vane 12b and the second carrier 11b, the description of the structure, principle, and connection relationship between the first driving member 21 and the second driving member 22 on the first driving assembly 20a and the first guide vane 12a and the first carrier 11a can be referred to, and will not be repeated here.

[0259] It should be noted that in some embodiments, the first driving element 21 and the second driving element 22 in the first driving component 20a, and the first driving element 21 and the second driving element 22 in the second driving component 20b may be the same or different. The first driving element 21 and the second driving element 22 in the first driving component 20a, and the first driving element 21 and the second driving element 22 in the second driving component 20b may be selected from any one of the structures of the first driving element 21 and the second driving element 22 described in the above embodiments, which will not be repeated in the embodiments of this application.

[0260] Of course, in other embodiments, the second transmission member 221 may also have other structures.

[0261] Figure 17 is another structural schematic diagram of an air guide assembly adjustment assembly provided in an embodiment of this application. Figure 17 is a top view. As shown in Figure 17, the second transmission member 221 may include an arc-shaped rack structure. Exemplarily, the arc-shaped rack may extend along the y-direction to drive the carrier member 11 to move along the y-direction.

[0262] By incorporating an arc-shaped rack structure into the second transmission component 221, rotational motion can be converted into precise linear or angular motion, allowing the carrier component 11 to be precisely adjusted within a set range, thereby achieving more precise airflow management. The arc-shaped rack provides smooth motion transitions, reducing vibrations and impacts that may occur during movement, and improving the smoothness and quietness of system operation. The arc-shaped rack can be customized according to specific design requirements to adapt to different space and motion requirements. This flexibility allows it to be well integrated into various types of air handling equipment 200. In one possible implementation, as shown in Figure 18, the air guide assembly 100 may also include a control device 30. The control device 30 is electrically connected to both first drive components 20a and the second drive component 20b, and is used to control the two first drive components 20a and the second drive component 20b respectively.

[0263] This setup allows for independent control of each drive component, enabling the system to flexibly adjust the action of each component according to specific needs. This, in turn, allows for precise airflow control in different areas, meeting diverse user requirements, especially in large spaces or multi-functional areas. Furthermore, in multi-functional spaces such as conference rooms and open-plan offices, different air supply angles can provide suitable airflow conditions for different activity areas, satisfying diverse usage needs. By adjusting the air supply angle of each regulating component, uneven temperature distribution within the room can be more effectively addressed. For example, special adjustments can be made for areas with direct sunlight or near doors and windows. Precise control of the airflow direction in each area reduces unnecessary energy consumption, thereby improving the overall energy efficiency of the system and helping to lower operating costs and energy consumption. Centralized management of multiple drive components through a single control device simplifies system integration and wiring design, improving the overall maintainability of the system.

[0264] For example, the control device 30 can be electrically or signal-connected to the first motors 211 in both first drive assemblies 20a, so as to control the first motors 211 of the two first drive assemblies 20a respectively through the control device 30, so as to adjust the range of the third air delivery angle α3 and the range of the fourth air delivery angle α4.

[0265] The following describes in detail, with reference to the accompanying drawings, various scenarios in which the first driving component 20a and the second driving component 20b drive the first adjusting component 10a and the second adjusting component 10b individually.

[0266] For example, the control device 30 can be electrically or signal-connected to the first motor 211 and the second motor 222 in the first drive assembly 20a and the second drive assembly 20b, so as to control the first motor 211 and the second motor 222 of the first drive assembly 20a and the second drive assembly 20b respectively, so as to adjust the range of the first air supply angle α1, the range of the third air supply angle α3, the range of the second air supply angle α2, and the range of the fourth air supply angle α4.

[0267] The control device 30 can also be electrically or signal-connected to the second motor 222 in the second drive assembly 20b, and by controlling the second motor 222 of the second drive assembly 20b, the range of the first air delivery angle α1 and the range of the second air delivery angle α2 can be adjusted.

[0268] Furthermore, when the first guide vane 12a or the second guide vane 12b can swing in the z-direction, or swing in a direction forming a certain angle with the z-direction, the control device can also control the first guide vane 12a or the second guide vane 12b to swing in the z-direction, or swing in a direction forming a certain angle with the z-direction. In this embodiment, the control method of the control device on the drive assembly 20 is not further limited.

[0269] In this embodiment, the control device is used to individually control the two first adjustment components 10a. That is, the control device can arbitrarily and individually adjust the third air delivery angle α3 and the fourth air delivery angle α4, so that the air delivery angle ranges of the first adjustment component 10a and the second adjustment component 10b can be different. The control device can also individually control the second drive component 20b, that is, synchronously adjust the first air delivery angle α1 and the second air delivery angle α2 to improve adjustment efficiency. The first air delivery angle α1 and the second air delivery angle α2 are the same, while the third air delivery angle α3 and the fourth air delivery angle α4 can be the same or different (see Figures 11 and 12). In this embodiment, the quantitative relationship between the third air delivery angle α3 and the fourth air delivery angle α4 is not further limited.

[0270] In this embodiment of the application, the control device is used to individually control the first drive component 20a corresponding to the first adjustment component 10a and the second drive component 20b corresponding to the second adjustment component 10b.

[0271] In other words, the control device can arbitrarily and individually adjust the first air supply angle α1, the second air supply angle α2, the third air supply angle α3, and the fourth air supply angle α4. Among them, the first air supply angle α1, the second air supply angle α2, the third air supply angle α3, and the fourth air supply angle α4 can be partially the same, all the same, or all different.

[0272] By setting up the control device 30, the drive assembly 20 can be precisely controlled, allowing users to adjust the angle of the guide vanes 12 and the position of the support component 11 as needed, thereby achieving more precise airflow management. The control device can achieve automated operation, automatically adjusting airflow settings based on preset programs or sensor inputs (such as temperature, humidity, personnel activity, etc.), improving the system's intelligence level.

[0273] In the above embodiments, it is described that the adjusting component can translate relative to the mounting surface, and the guide vanes on the adjusting component can rotate. Of course, in other embodiments, the adjusting component can also rotate relative to the mounting surface, or it can both translate and rotate. The guide vanes can rotate, or it can both translate and rotate.

[0274] Furthermore, it should be noted that the first adjustment component 10a and the second adjustment component 10b follow the principle of non-interference during movement. That is, regardless of how the first adjustment component 10a and the second adjustment component 10b are adjusted, no interference will occur.

[0275] Figure 19 is a reference diagram showing the usage state of an air guide assembly provided in an embodiment of this application. Figure 20 is a reference diagram showing the usage state of an air guide assembly provided in an embodiment of this application. Figure 19 is a top view, and Figure 20 is a top view schematic diagram to facilitate the illustration of the overall changes of the first adjustment assembly 10a and the second adjustment assembly 10b, as well as the local changes of the first air guide blade 12a and the second air guide blade 12b. It does not represent the actual structure of the equipment and is only for illustration.

[0276] For example, referring to Figures 19 and 20, for the first adjustment component 10a, the control device can control the first support member 11a of the first adjustment component 10a to deflect a first air delivery angle α1 relative to the mounting surface m by controlling the first drive component 20a, and control the first guide vane 12a to deflect a third air delivery angle α3 relative to the first support member 11a. This allows the first adjustment component 10a to deliver air into the first air outlet area p. The first air outlet area p is represented by the dashed box area corresponding to the first adjustment component 10a in Figure 20. Of course, the angles shown in the figures are only the adjustment angles at a certain moment; the first air delivery angle α1 and the third air delivery angle α3 can be changed at any time during use to prevent direct airflow and improve the user experience.

[0277] Referring again to Figures 19 and 20, for the second adjustment component 10b, the control device can control the second support member 11b of the second adjustment component 10b to remain stationary relative to the mounting surface m by controlling the second drive component 20b, meaning the second air delivery angle α2 is zero. The control device also controls the second guide vane 12b of the second adjustment component 10b to deflect relative to the second support member 11b by a fourth air delivery angle α4. This allows the second adjustment component 10b to deliver air into the second air outlet area g. The second air outlet area g is represented by the dashed box area corresponding to the second adjustment component 10b in Figure 20. Of course, the angles shown in the figures are only the adjustment angles at a certain moment; the second air delivery angle α2 and the fourth air delivery angle α4 can be changed at any time during use to prevent direct airflow and improve the user experience.

[0278] Different ranges of the first air supply angle α1, the second air supply angle α2, the third air supply angle α3, and the fourth air supply angle α4 can provide suitable airflow conditions for different activity areas, meeting diverse usage needs. By adjusting the ranges of the first air supply angle α1, the second air supply angle α2, the third air supply angle α3, and the fourth air supply angle α4, the problem of uneven temperature in the room can be solved more effectively.

[0279] In other embodiments, the first regulating component 10a and the second regulating component 10b can be controlled synchronously, which can improve the regulating efficiency. For example, this regulating mode can be used when it is necessary to supply air to a specific characteristic area.

[0280] Figure 21 is a reference diagram eight showing the usage state of an air guiding component provided in an embodiment of this application. Figure 22 is a reference diagram nine showing the usage state of an air guiding component provided in an embodiment of this application. Figure 23 is a reference diagram ten showing the usage state of an air guiding component provided in an embodiment of this application. Figures 21, 22, and 23 are all top views of the air guiding component.

[0281] As shown in Figure 21, the control device can control the first support member 11a of the first adjusting assembly 10a to deflect a first air supply angle α1 relative to the mounting surface m, and control the second support member 11b of the second adjusting assembly 10b to deflect a second air supply angle α2 relative to the mounting surface m. The first support member 11a and the second support member 11b move in the same direction, and the first air supply angle α1 and the second air supply angle α2 can be the same. This ensures that the first air outlet area p and the second air outlet area g are located within the same range of the air guide assembly 100, thereby improving the air conditioning efficiency of the first air outlet area p and the second air outlet area g.

[0282] Of course, in other embodiments, as shown in FIG22, the control device can control the first support member 11a of the first adjustment component 10a to deflect a first air supply angle α1 relative to the mounting surface m, and control the second support member 11b of the second adjustment component 10b to deflect a second air supply angle α2 relative to the mounting surface m. The first support member 11a and the second support member 11b move in opposite directions, and their adjacent ends move away from the mounting surface m. Furthermore, the magnitudes of the first air supply angle α1 and the second air supply angle α2 can be approximately the same. The adjustment method shown in FIG22 can create diffused airflow, expand the air outlet area, improve the balance of air conditioning throughout the space, and thus improve adjustment efficiency.

[0283] Of course, in other embodiments, as shown in FIG23, the control device can control the first support member 11a of the first adjustment component 10a to deflect a first air supply angle α1 relative to the mounting surface m, and control the second support member 11b of the second adjustment component 10b to deflect a second air supply angle α2 relative to the mounting surface m. The first support member 11a and the second support member 11b move in opposite directions, and their adjacent ends move towards the mounting surface m. Furthermore, the magnitudes of the first air supply angle α1 and the second air supply angle α2 can be approximately the same. The adjustment method shown in FIG23 can create a concentrated airflow, increase the air volume in the air outlet area, and improve the air conditioning efficiency in a specific area.

[0284] Figures 21, 22, and 23 only show schematic diagrams of the adjustment of the first support member 11a of the first adjustment component 10a and the second support member 11b of the second adjustment component 10b. The adjustment of the first guide vane 12a and the second guide vane 12b can be referred to the description in the embodiments shown in Figures 19 and 20, and will not be repeated in this embodiment.

[0285] The above embodiments only describe an embodiment in which the first adjustment component 10a and the second adjustment component 10b move along the y-direction in a direction away from the mounting surface m. Of course, in other embodiments, the first adjustment component 10a and the second adjustment component 10b can also move relative to the mounting surface m along other directions. As long as the technical solution is to control the first adjustment component 10a and the second adjustment component 10b separately through the first drive component 20a and the second drive component 20b, it falls within the protection scope of this application.

[0286] It should be noted that, in this embodiment, the installation positions of the first drive component 20a and the second drive component 20b in the air handling equipment 200 are not further limited. The first drive component 20a and the second drive component 20b can be disposed inside the air outlet 310 of the equipment body 300 or outside the equipment body 300, depending on the actual situation. In this embodiment, no further explanation is given.

[0287] Figure 24 is another state reference diagram of the adjustment component of an air guide assembly provided in an embodiment of this application. Figure 24 is a top view.

[0288] As shown in Figure 24, some adjustment components 10 can perform overall translation relative to the mounting surface and rotation of the guide vanes, as shown in the middle adjustment component 10 in Figure 24, where n represents the initial position of the support member 11. Some adjustment components 10 can perform overall rotation relative to the mounting surface and rotation of the guide vanes, as shown in the left adjustment component 10 in Figure 24, where n represents the initial position of the support member 11. Some adjustment components 10 can perform overall translation and rotation relative to the mounting surface and rotation of the guide vanes, as shown in the right adjustment component 10 in Figure 24, where n represents the initial position of the support member 11. In this embodiment, the specific actions performed by the different drive components 20 are not further limited.

[0289] It should be noted that when the adjusting component 10 can be translated relative to the mounting surface, the second driving member can be positioned at the middle of the extending direction of the bearing member 11, which can save power. Alternatively, it can be positioned at one end of the adjusting component 10 for easier assembly. In this embodiment, the position of the second driving member is not further limited.

[0290] In one possible implementation, the multiple adjustment components 10 are arranged in an array. Alternatively, the multiple adjustment components 10 are arranged in a column. Or, the multiple adjustment components 10 are arranged in a row.

[0291] This configuration enhances the design flexibility of the adjustment component 10, thereby improving the applicability of the air guide component 100.

[0292] In one possible implementation, multiple adjustment components 10 are spaced apart, with a clearance space (the gap between two adjacent adjustment components 10) formed between adjacent adjustment components 10.

[0293] For example, when multiple adjustment components 10 are arranged in a row, the multiple adjustment components 10 are spaced apart in the extending direction (x-direction) of the adjustment components 10. When multiple adjustment components 10 are arranged in a column, the multiple adjustment components 10 are spaced apart in the direction perpendicular to the extending direction (z-direction) of the adjustment components 10. When multiple adjustment components 10 are arranged in an array, the multiple adjustment components 10 are spaced apart in the extending direction (x-direction) of the adjustment components 10 and also spaced apart in the direction perpendicular to the extending direction (z-direction) of the adjustment components 10.

[0294] This configuration prevents interference between adjacent adjustment components 10, allowing the air guide assembly 100 to operate smoothly.

[0295] Figure 25 is a structural schematic diagram of an air guide assembly provided in an embodiment of this application. Figure 25 is a top view of the air guide assembly.

[0296] As shown in Figure 25, the drive assembly 20 may include a support member 50, which is movably connected to the adjustment assembly 10, and a base point 13 is formed at the connection between the support member 50 and the adjustment assembly 10. The support member 50 may change position relative to the adjustment assembly 10 along its extension direction, as shown in Figure 26, where the initial position of the carrier member 11 is at point n.

[0297] For example, in the extending direction of the adjusting component, the support member 50 is movably disposed with the adjusting component 10, and the adjusting component 10 is rotatably connected to the support member 50. During assembly, the support member 50 can be detachably connected to the air conditioning unit, for example, by magnetic attraction. When the support member 50 needs to be moved, the connection between the support member 50 and the air conditioning unit can be disconnected, and then the support member 50 can be driven to move along the extending direction of the adjusting component 10 to a suitable position. Then, the support member 50 can be fixedly connected to the air conditioning unit, thereby fixing the support member 50 relative to the air conditioning unit and forming a base point at the connection between the support member 50 and the adjusting component 10.

[0298] In one possible implementation, as shown in Figure 27, the drive assembly may further include a fourth drive member 23, wherein the fourth drive member 23 is connected to the support member 50 in a transmission manner, and the fourth drive member 23 is used to drive the support member 50 to move along the extension direction of the adjustment assembly.

[0299] For example, the control device is electrically connected to the fourth drive member 23, and the control device controls the fourth drive member 23 to drive the support member 50 to move along the extension direction of the adjustment assembly according to the area information. This ensures that the base point 13 of the adjustment assembly is in a suitable position to ensure the accuracy of the air supply angle.

[0300] It should be noted that, in the embodiments of this application, the specific structure that can move the position of the base point is not further limited, as long as it can move the base point.

[0301] This configuration allows the position of the base point 13 to be changed. Furthermore, by providing a support member 50, which is movably connected to the adjustment assembly 10, the adjustment assembly 10 can be rotated or translated relative to the support member 50. In use, the support member 50 can be adjusted to a suitable position and then connected to the air conditioning equipment, thereby providing stable support for the support member 50 and improving the stability of the base point.

[0302] It should be noted that Figures 25 and 26 are only for illustrating that a support member 50 can be installed on the adjustment component 10 of the air guide assembly 100, and do not represent the actual relative positions of the load-bearing component 11, the air guide blade 12, the drive assembly 20, and the support member 50. As long as the function can be achieved, the specific structure can be set according to the specific situation.

[0303] It should be noted that in some other embodiments, the adjusting component 10 can rotate around the base point 13 and can also translate relative to the mounting surface m in a direction away from the mounting surface m. Rotation and translation can be performed simultaneously, or translation can be performed first followed by rotation, or vice versa. In the embodiments of this application, the order of rotation and translation of the adjusting component 10 is not further limited. The embodiments or implementation methods in this specification are described in a progressive manner, with each embodiment focusing on the differences from other embodiments. Similar or identical parts between embodiments can be referred to mutually. The above descriptions are merely specific embodiments of this application, but the protection scope of this application is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in this application should be included within the protection scope of this application. Therefore, the protection scope of this application should be determined by the protection scope of the claims.

Claims

1. An air guiding assembly, installed on an mounting surface (m), characterized in that, include: Multiple adjustment components (10), each of the adjustment components (10) includes a carrier (11) and a guide vane (12) movably disposed on the carrier (11); Multiple first drive components (20a), each of the first drive components (20a) corresponding to one of the adjustment components (10); The second drive assembly (20b) is drively connected to all of the plurality of adjustment assemblies (10), and the second drive assembly (20b) simultaneously drives at least a portion of the structure of the adjustment assembly (10) to change position relative to the mounting surface (m).

2. The air guide assembly according to claim 1, characterized in that, The number of the adjustment components (10) is two; The first drive assembly (20a) and the guide vane (12) on the adjustment assembly (10) corresponding to the first drive assembly (20a) are connected by a transmission, and the first drive assembly (20a) drives the position of the guide vane (12) to change; wherein, Each of the two first drive components (20a) individually drives the two adjustment components (10) corresponding to the two first drive components (20a).

3. The air guiding assembly according to claim 2, characterized in that, The first drive assembly (20a) drives the guide vane (12) to rotate.

4. The air guiding assembly according to claim 3, characterized in that, The guide vane (12) includes an initial position and a working position; wherein, The guide vanes (12) on the two adjustment components (10) rotate at different angles from the initial position to the working position; or The air guide vanes (12) on the two adjustment components (10) rotate at the same angle from the initial position to the working position.

5. The air guiding assembly according to claim 1, characterized in that, The drive component (20) is also used to drive the adjustment component (10) corresponding to the drive component (20) to change position relative to the mounting surface (m) in a direction away from the mounting surface (m).

6. The air guiding assembly according to claim 1, characterized in that, At least a portion of the plurality of adjustment components (10) include a base point (13); At least a portion of the adjustment component (10) is rotatable about the base point so that at least a portion of the structure of the adjustment component (10) changes position in a direction away from the mounting surface (m).

7. The air guiding assembly according to claim 2, characterized in that, One of the two adjustment components (10) includes a base point (13); One of the two drive components (20) drives one of the adjustment components (10) to rotate about the base point, so that at least a portion of the structure of the one of the adjustment components (10) changes position in a direction away from the mounting surface (m); One of the two drive components (20) drives one of the two adjustment components (10) to change position relative to the mounting surface (m) in a direction away from the mounting surface (m).

8. The air guiding assembly according to claim 2, characterized in that, Both of the aforementioned adjustment components (10) include a base point (13).

9. The air guiding assembly according to claim 8, characterized in that, The base points (13) on the two adjustment components (10) are set at different positions on the adjustment components; or, The base point (13) on the two adjustment components (10) is set at the same position on the adjustment components.

10. The air guide assembly according to claim 8, characterized in that, The two adjustment components (10) are spaced apart along the extending direction of the adjustment components (10); The two base points (13) are symmetrically arranged with respect to the central axis of the air guide assembly.

11. The air guiding assembly according to claim 1, characterized in that, The plurality of adjustment components include a first adjustment component (10a) and a second adjustment component (10b); wherein, The first adjustment component (10a) includes a first base point (13a), and the second adjustment component (10b) includes a second base point (13b); The second driving component (20b) simultaneously drives the first adjusting component (10a) and the second adjusting component (10b) so that the first adjusting component (10a) rotates around the first base point (13a) and the second adjusting component (10b) rotates around the second base point (13b).

12. The air guide assembly according to claim 8, characterized in that, The base point (13) is located at one end or between the two ends of the extending direction of the adjusting component (10); wherein, The base point (13) can change position relative to the adjustment component (10) along the extension direction of the adjustment component (10).

13. The air guide assembly according to claim 8, characterized in that, The drive assembly (20) includes a support member movably connected to the adjustment assembly (10), and the base point (13) is formed at the connection between the support member and the adjustment assembly (10); wherein, The support member can change position relative to the adjustment assembly (10) along the extension direction of the adjustment assembly (10).

14. The air guide assembly according to claim 1, characterized in that, The plurality of adjustment components (10) are arranged at intervals, and a clearance space is formed between two adjacent adjustment components (10).

15. The air guiding assembly according to claim 1, characterized in that, The multiple adjustment components (10) are arranged in an array; or, The plurality of said adjustment components (10) are arranged in a row; or, The multiple adjustment components (10) are arranged in a row.

16. The air guiding assembly according to claim 1, characterized in that, The second drive assembly (20b) includes a second motor (222) and a second transmission component (221); wherein, The second motor (222) is connected to the second transmission component (221), and the second transmission component (221) is connected to the two adjustment components (10) respectively. The second motor (222) drives the second transmission member (221) to move, thereby causing at least a portion of the structure of the two adjustment components (10) to change position relative to the mounting surface (m).

17. The air guide assembly according to claim 7 or 8, characterized in that, The second driving component (22) includes a second motor (222) and a second transmission component (221); wherein, The second motor (222) is connected to the second transmission component (221), and the second transmission component (221) is connected to the bearing component (11); The second motor (222) drives the second transmission member (221) to move, thereby causing the bearing member (11) to change position relative to the mounting surface (m).

18. The air guiding assembly according to claim 17, characterized in that, The second transmission component (221) includes a push-pull rod; wherein, One end of the push-pull rod is connected to the bearing member (11), and the other end is connected to the second motor (222) for transmission. The second motor (222) drives the push-pull rod to change position relative to the mounting surface (m), thereby causing the bearing member (11) to change position relative to the mounting surface (m).

19. The air guide assembly according to claim 18, characterized in that, The push-pull rod can extend and retract in a direction perpendicular to the mounting surface (m); The second motor (222) drives the push-pull rod to move in a direction perpendicular to the mounting surface (m).

20. The air guide assembly according to claim 17, characterized in that, The second transmission component (221) includes an arc-shaped rack and pinion structure.

21. The air guide assembly according to claim 17, characterized in that, The second transmission component (221) includes a first connecting rod, a second connecting rod, and a push-pull rod; wherein, One end of the first connecting rod is connected to the push-pull rod, and the other end is connected to one of the two adjustment components (10); One end of the second link is connected to the push-pull rod, and the other end is connected to one of the two adjustment components (10); The second motor (222) is connected to the push-pull rod and drives the push-pull rod to change position relative to the mounting surface (m) so as to drive at least part of the structure of the two adjustment components to change position relative to the mounting surface (m) through the first link and the second link.

22. The air guide assembly according to claim 18, characterized in that, The second motor (222) drives the push-pull rod to move in a direction perpendicular to the mounting surface (m).

23. The air guiding assembly according to claim 18 or 19, characterized in that, The push-pull rod includes a rack, and the second motor (222) is connected to the rack in a transmission manner.

24. The air guide assembly according to claim 11, characterized in that, The first drive component (20a) corresponding to the first adjustment component (10a) is connected to the first adjustment component (10a) at the first base point (13a); The first drive component (20a) corresponding to the second adjustment component (10b) is connected to the second adjustment component (10b) at the second base point (13b).

25. The air guide assembly according to claim 11, characterized in that, The first drive component (20a) corresponding to the first adjustment component (10a) is located at the end of the first adjustment component (10a) that is away from the second drive component (20b).

26. The air guide assembly according to claim 11, characterized in that, The first drive component (20a) corresponding to the second adjustment component (10b) is located at the end of the second adjustment component (10b) away from the second drive component (20b).

27. The air guide assembly according to claim 1, characterized in that, Each of the adjustment components (10) includes a support member (11) and a plurality of guide vanes (12), wherein the extension direction of the support member (11) is the same as the extension direction of the adjustment component (10); The plurality of the air guide vanes (12) are spaced apart along the extension direction of the carrier (11); Each of the air guide vanes (12) is movably connected to the carrier (11).

28. The air guide assembly according to claim 27, characterized in that, The first drive assembly (20a) includes a first transmission member (212); wherein, The first transmission member (212) and the guide vane (12) of the adjustment assembly (10) corresponding to the first drive assembly (20a) are connected in a transmission manner; In the extending direction of the support member (11), the first transmission member (212) is movably connected to the support member (11). When the first transmission member (212) moves along the extending direction of the adjustment assembly (10), it drives the air guide blade (12) connected to the first transmission member (212) to rotate.

29. The air guide assembly according to claim 28, characterized in that, In the extending direction of the carrier (11), the first drive member (21) and the second drive member (22) are spaced apart.

30. The air guide assembly according to claim 28, characterized in that, The first driving member (21) is movably connected to the carrier member (11), and the first driving assembly (20a) further includes a first motor (211); wherein, The first motor (211) is driven to one of the plurality of the guide vanes (12), and the first motor (211) drives the guide vane (12) driven to rotate to drive the first transmission member (212) to move along the extension direction of the adjustment assembly (10).

31. The air guide assembly according to claim 28, characterized in that, The first drive assembly (20a) further includes a first motor (211); wherein, The first motor (211) is connected to the first transmission member (212) and the first motor (211) drives the first transmission member (212) to move along the extension direction of the adjustment component (10).

32. The air guide assembly according to claim 31, characterized in that, The first transmission component (212) is a transmission connecting rod; wherein, The transmission link is arranged along the extension direction of the adjustment assembly (10) and is connected to all the air guide blades (12) of the adjustment assembly (10); The first motor is used to drive the transmission link to move along the extension direction of the adjustment assembly (10) so as to drive the guide vane (12) connected to the transmission link to swing toward both ends of the adjustment assembly (10).

33. The air guide assembly according to claim 28, characterized in that, The support member (11) includes a top wall and a bottom wall arranged opposite each other along the thickness direction; wherein, A receiving cavity is provided between the top wall and the bottom wall, and the first transmission member (212) is movably disposed within the receiving cavity; The air guide blade (12) is rotatably disposed on the side of the top wall away from the bottom wall, and one end of the air guide blade (12) passes through the top wall and is connected to the first transmission member (212).

34. The air guiding assembly according to claim 1, characterized in that, It also includes a data acquisition device and a control device; among which, The acquisition device is communicatively connected to the control device, and the control device is electrically connected to each of the drive components (20); The data acquisition device is used to collect regional information within different air outlet areas and transmit the regional information to the control device; The control device is used to control one or more of the drive components (20) among the plurality of drive components (20) according to the area information, and drive at least a portion of the structure of one or more adjustment components (10) corresponding to the one or more drive components (20) to change position relative to the mounting surface (m).

35. The air guide assembly according to claim 34, characterized in that, The area information includes personnel information, animal information, plant information, and furniture layout information.

36. The air guiding assembly according to claim 34 or 35, characterized in that, Each of the drive components (20) is drive-connected to the air guide vane (12) on the adjustment component (10) corresponding to the drive component (20); The control device is used to control one or more of the multiple drive components (20) to drive the air guide blades (12) on one or more adjustment components (10) corresponding to the one or more drive components (20) to change position according to the area information.

37. The air guide assembly according to claim 36, characterized in that, The control device includes a determining module and a control module; wherein... The determining module is used to determine the air outlet angle of each of the adjusting components (10) based on the area information; The control module is used to control the corresponding drive component (20) to drive the corresponding adjustment component (10) to change position relative to the mounting surface according to the air outlet angle of each adjustment component (10), and / or drive the guide vane (12) on the corresponding adjustment component (10) to change position.

38. The air guide assembly according to claim 37, characterized in that, The control module is used to control the corresponding drive component (20) to drive the corresponding adjustment component (10) to change position relative to the mounting surface according to the air outlet angle of each adjustment component (10), and then drive the guide vane (12) on the corresponding adjustment component (10) to change position.

39. The air guiding assembly according to claim 1, characterized in that, It also includes a control device (30); wherein, The control device (30) is electrically connected to both of the first drive components (20a) and the second drive component (20b), and the control device (30) is used to control the two first drive components (20a) and the second drive component (20b) respectively.

40. An air handling device, characterized in that, It includes the device body (300) and the air guide assembly (100) as described in any one of claims 1-39.

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