Air treatment equipment

Abstract

The utility model relates to the technical field of air treatment equipment, in particular to air treatment equipment. The air treatment equipment comprises an equipment body, the equipment body comprises an air outlet, and the air outlet comprises a plurality of air outlet areas distributed in the height direction of the equipment body; and each air outlet area is provided with the corresponding air guide device, each air guide device comprises a plurality of air guide blades which are movably arranged, and the air guide blades are used for adjusting the air outlet direction of the air outlet area where the air guide device is located. According to the air treatment equipment provided by the invention, the air supply directions of different height areas can be adjusted through the air guide devices, and various air outlet requirements can be met.

Description

[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 more particularly to an air handling equipment. Background Technology

[0003] In common air handling equipment, such as air conditioning equipment, an air guide structure is set at the air outlet. The air guide structure includes an air guide plate and air guide blades. The air guide plate is used to adjust the air direction by tilting the air, and the air guide blades are used to adjust the air direction by horizontal angle. The air direction is adjusted by the cooperation of the air guide plate and air guide blades.

[0004] However, the air outlet of the air handling equipment in the relevant technology has a relatively single air outlet direction, which makes it difficult to meet the air outlet demand in multiple directions at the same time. Utility Model Content

[0005] This application provides an air handling device in which each air guide device can adjust the air supply direction in different height areas, which helps to meet various air supply needs.

[0006] To achieve the above objectives, this application provides the following technical solution:

[0007] This application provides an air handling device, comprising: a device body, the device body including an air outlet, the air outlet including a plurality of air outlet zones distributed along the height direction of the device body; and an air guiding device, each of the air outlet zones being provided with the air guiding device, the air guiding device including a plurality of movably arranged air guiding blades, the air guiding blades being used to adjust the air outlet direction of the air outlet zone where the air guiding device is located.

[0008] Thus, by setting multiple air outlet zones along the height of the equipment body, and equipping each air outlet zone with an air guide device containing guide vanes, the air guide device in each air outlet zone can independently adjust the air delivery angle of the guide vanes, thereby adjusting the air delivery direction of that air outlet zone. This allows for precise control of airflow direction through zoned control, thereby expanding the air delivery coverage area. Furthermore, the airflow in each air outlet zone can be independently controlled according to user needs. Moreover, because multiple air outlet zones are arranged along the height direction, air can be delivered in different directions at different heights, simultaneously meeting the needs of users at different heights and angles within the room.

[0009] The coordinated adjustment of multiple air outlet zones can achieve multi-dimensional air supply combinations. It can form a large-scale uniform air supply by synchronous adjustment to improve the uniformity of indoor temperature distribution, or it can adjust the air supply angle of each area differently to adapt to different spatial layout needs. It provides a highly flexible solution for different spatial layouts and usage scenarios to meet a variety of air supply requirements.

[0010] In one possible implementation, the air handling equipment includes a plurality of air guide groups corresponding one-to-one with the air outlet area, each air guide group being disposed in the corresponding air outlet area; each air guide group includes at least one air guide device distributed along the length direction of the air outlet.

[0011] Thus, the corresponding design of the air guide group and the air outlet area, and the fact that each air guide group includes at least one air guide device, allows the air guide device in each air outlet area to independently adjust the swing angle and movement trajectory of the air guide blades, thereby accurately controlling the direction and intensity of local airflow, thereby expanding the air outlet coverage and reducing airflow dead zones.

[0012] In one possible implementation, each of the air guide groups includes a plurality of the air guide devices distributed along the length of the air outlet.

[0013] Thus, by setting multiple air guide devices along the length of the air outlet in the air guide assembly, precise control of horizontal airflow can be achieved. The coordinated control of multiple air guide devices supports independent air supply modes for different zones (such as localized enhanced air supply or avoidance of specific areas), or linkage to form a large-scale uniform airflow distribution, thereby flexibly adapting to the needs of different spatial layouts for air supply range and direction.

[0014] In one possible implementation, the air guiding device includes: an adjustment assembly including a support plate and a plurality of air guiding blades, the plurality of air guiding blades being spaced apart along the extension direction of the support plate, the support plate being connected to the device body; and a drive assembly being tractively connected to the adjustment assembly, the drive assembly driving at least a portion of the structure of the adjustment assembly to change position relative to the mounting surface.

[0015] Thus, by adjusting the angle of each blade, it can simultaneously oscillate to form a wide-area uniform airflow to reduce dead zones, or be differentiated to adapt to complex spatial layout requirements. By setting a drive component, the adjustment component can be moved away from the mounting surface, meaning it can extend beyond the air outlet of the air handling unit using this air guide assembly. This further reduces the area obstructed by the outlet sidewall, thereby further expanding the airflow area of ​​the air guide assembly, allowing the air handling unit using it to cover a larger airflow area.

[0016] In one possible implementation, the adjustment assembly further includes a base point; wherein the drive assembly is at least used to drive the support plate to rotate about the base point, so that at least a portion of the structure of the adjustment assembly moves away from the mounting surface.

[0017] Thus, by setting a base point and using it as the pivot for the rotating bearing plate, the adjusting component can rotate around this base point as an axis. This base point provides a stable reference point for the adjusting component, allowing its movement and adjustment to be relative to this base point, thus ensuring more precise and controllable movement. After the adjusting component rotates around the base point by a certain angle, a portion of its structure can be located outside the air outlet of the air handling unit using this air guide assembly, while another portion is located inside the air outlet. The area of ​​the portion of the air guide assembly located outside the air outlet that is obstructed by the outlet sidewall is reduced, thereby increasing the airflow area of ​​the air guide assembly. Furthermore, by controlling the position of this base point, the size of the portion of the air guide assembly located outside the air outlet of the air handling unit using this air guide assembly can be controlled, thereby controlling the airflow area of ​​the air guide assembly and improving its installation flexibility.

[0018] In one possible implementation, the drive component is located at one end of the support plate along its length, the base point is located at one end of the support plate along its length, and the support plate is pivotally connected to the device body through the base point.

[0019] In this way, the design of the base point provides a reliable rotation reference for the support plate. The drive component can control the oscillation of the support plate around the base point, causing the guide vanes to unfold, effectively reducing the obstruction of airflow by the outlet sidewall, thereby significantly expanding the horizontal air supply coverage. At the same time, the pivot connection simplifies the transmission structure, reduces the mechanical complexity of multi-dimensional adjustments, and ensures the controllability of the oscillation trajectory of the support plate and guide vanes.

[0020] In one possible implementation, the inner wall of the air outlet includes a top wall and a bottom wall opposite each other along the height direction, wherein the top wall constitutes a top mounting surface, the bottom wall constitutes a bottom mounting surface, and a plurality of air guiding devices are provided. The support plate of the top air guiding device is disposed on the top mounting surface and is rotatable relative to the top mounting surface, and the support plate of the bottom air guiding device is disposed on the bottom mounting surface and is rotatable relative to the bottom mounting surface. The base points of the support plates of the top and bottom air guiding devices are both located at the middle of the support plates.

[0021] Thus, by pivotally mounting the support plates of the top and bottom air guide devices onto the top and bottom walls of the air outlet, respectively, with their base points located in the center of the support plates, a bidirectional outward expansion adjustment function can be achieved. The support plate of the top air guide device rotates and expands outward from the air outlet around its central base point, and the support plate of the bottom air guide device also rotates and expands outward from the air outlet around its central base point. Together, they expand the effective air delivery cross-section of the air outlet, significantly reducing the obstruction of airflow by the sides of the top and bottom walls, thereby expanding the air delivery coverage in the vertical direction. Furthermore, the centrally located base point design ensures balanced forces at both ends of the support plate, resulting in stable and smooth pivoting movements and avoiding vibration or jamming problems caused by unilateral offset. In addition, the top and bottom walls serve as usable structural support surfaces for the air outlet, providing a stable and symmetrical installation foundation for the support plate and preventing mechanical interference or structural instability due to lack of support.

[0022] In one possible implementation, the drive assembly includes a first drive member and a second drive member; wherein the first drive member is tractively connected to the air guide vane, and the first drive member drives the position of the air guide vane to change; the second drive member is tractively connected to the support plate, and the second drive member drives at least a portion of the structure of the support plate to change position relative to the mounting surface.

[0023] Thus, by setting up a drive assembly including a first drive component and a second drive component, the air guide vanes and the support plate can be controlled independently, which improves the accuracy of airflow regulation. Users can adjust the air delivery angle range of the air guide vanes or the support plate individually as needed. The combination of the first and second drive components provides a wider adjustment range and flexibility to achieve complex airflow patterns to adapt to different room layouts and usage scenarios. By adjusting the angles of the air guide vanes and the support plate separately, a more uniform and effective airflow distribution can be achieved. Precise airflow control can reduce the operating time and energy consumption of air handling equipment (e.g., air conditioning equipment) using this air guide assembly, thereby improving overall energy efficiency. Since the first and second drive components are set independently, individual drive components can be replaced or adjusted as needed during later maintenance without large-scale adjustments to the entire system, thus reducing maintenance costs.

[0024] In one possible implementation, the first driving component includes a first motor and a first transmission component; wherein the first motor is driven to the first transmission component; the first transmission component is driven to the plurality of guide vanes of the adjustment assembly; the first motor is used to drive the first transmission component to move, thereby causing the guide vanes connected to the first transmission component to rotate.

[0025] Thus, by incorporating a first motor, precise motion control is provided, allowing for accurate adjustment of the guide vane angle as needed, resulting in more efficient and precise airflow management. The first transmission component effectively transmits the rotational motion of the first motor to the guide vanes, ensuring flexible, smooth, and efficient movement. The transmission component's design optimizes torque transmission and reduces energy loss. Furthermore, the design of the first transmission component further reduces friction and wear, improving system reliability.

[0026] In one possible implementation, the first motor is located at one end of the support plate along the length of the air outlet.

[0027] Thus, by placing the first motor at one end of the support plate along the length of the air outlet, the spatial layout and transmission efficiency of the drive assembly are significantly optimized. The single-sided centralized drive design shortens the power transmission path, reduces redundant mechanical structures, and lowers assembly complexity and component friction losses. At the same time, the end layout of the first motor leaves ample space on the other side of the support plate, avoiding interference with the inner wall of the air outlet or other air guide assemblies, and ensuring the smoothness and stability of the air guide blade rotation adjustment.

[0028] In one possible implementation, the second driving member includes a second motor and a second transmission member; wherein the second motor is drively connected to the second transmission member, and the second transmission member is connected to the support plate; the second motor is used to drive the second transmission member to move, thereby causing at least a portion of the structure of the support plate to move relative to the mounting surface.

[0029] Thus, by incorporating a second motor, precise motion control is achieved, allowing for accurate adjustment of the support plate's angle as needed, resulting in more efficient and precise airflow management. The second transmission component effectively transmits the rotational motion of the second motor to the support plate, 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 further reduces friction and wear, improving system reliability.

[0030] In one possible implementation, the second transmission element includes an arc-shaped rack structure; or, the second transmission element includes a rack structure and a multi-link mechanism.

[0031] Thus, by incorporating an arc-shaped rack structure into the second transmission component, rotational motion can be converted into precise linear or angular motion, allowing the support plate to be precisely adjusted within a set range, thereby achieving more accurate airflow management. The arc-shaped rack provides smooth motion transitions, reducing potential vibrations and impacts during operation, and improving the system's smoothness and quietness. By incorporating a rack structure and a multi-link mechanism into the second transmission component, its structure can be simplified, its manufacturing process is simple, its cost is low, and it is suitable for mass production and application. Furthermore, the multi-link mechanism can include multiple links, so one second transmission component can control the support plates of multiple adjustment components, thereby simplifying the overall structure of the air guide assembly and reducing costs. Attached Figure Description

[0032] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0033] Figure 1 Schematic diagram of the air handling equipment provided in this application Figure 1 ;

[0034] Figure 2 Schematic diagram of the air handling equipment provided in this application Figure 2 ;

[0035] Figure 3 Schematic diagram of the air handling equipment provided in this application Figure 3 ;

[0036] Figure 4 Schematic diagram of the air handling equipment provided in this application Figure 4 ;

[0037] Figure 5 Schematic diagram of the air guiding device provided in this application Figure 1 ;

[0038] Figure 6 Schematic diagram of the air guiding device provided in this application Figure 2 ;

[0039] Figure 7 Schematic diagram of the air guiding device provided in this application Figure 3 ;

[0040] Figure 8 Schematic diagram of the air guiding device provided in this application Figure 4 ;

[0041] Figure 9 Another structural schematic diagram of the air guiding device provided in this application;

[0042] Figure 10 Reference for the usage status of the air guide device provided in this application Figure 1 ;

[0043] Figure 11 Schematic diagram of the air guiding device provided in this application Figure 5 ;

[0044] Figure 12 Reference for the usage status of the air guide device provided in this application Figure 2 ;

[0045] Figure 13 Reference for the usage status of the air guide device provided in this application Figure 3 ;

[0046] Figure 14 Reference for the usage status of the air guide device provided in this application Figure 4 ;

[0047] Figure 15 The structural schematic diagram of the air guiding device provided in this application Figure 6 ;

[0048] Figure 16 Reference to the usage status of the air guiding device provided in this application Figure 5 .

[0049] Explanation of reference numerals in the attached figures:

[0050] 200 - Air handling unit; 300 - Unit body; 310 - Air outlet;

[0051] 311 - Air outlet area; 110 - Air guide device; 100 - Air guide group;

[0052] 10-Adjustment component; 11-Support plate; 12-Guide vane;

[0053] 13 - Base point; 20 - Drive assembly; 21 - First drive element;

[0054] 22-Second driving component; 221-Second transmission component; 222-Second motor;

[0055] 2211 - Rack and pinion structure; 2212 - Multi-link mechanism; m - Mounting surface;

[0056] m1 - Top mounting surface; m2 - Bottom mounting surface. Detailed Implementation

[0057] To make the above-mentioned objectives, features, and advantages of the embodiments of this application more apparent and understandable, the technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of them. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the scope of protection of this application.

[0058] Common air handling equipment, such as air conditioners, typically includes an air outlet and an air guide vane mounted on its outer side. One end of the air guide vane is rotatably connected to the bottom of the air outlet. During operation, the airflow direction is changed by adjusting the opening angle of the air guide vane relative to the air outlet. However, this method of adjusting the airflow direction results in a relatively small effective airflow coverage area for the air conditioner, leading to a poor user experience.

[0059] In view of this, this application provides an air handling device that provides multiple air outlet zones along the height of the device body, and each air outlet zone is equipped with an air guiding device including guide vanes. The air guiding device of each air outlet zone can independently adjust the air delivery angle of the guide vanes, thereby adjusting the air delivery direction of the air outlet zone. By precisely controlling the airflow direction through zoned control, the air delivery coverage area can be expanded. Furthermore, the airflow of each air outlet zone can be independently controlled according to user needs. Moreover, since multiple air outlet zones are arranged along the height direction, air can be delivered in different directions at different heights, simultaneously meeting the needs of users at different heights and angles within the room.

[0060] The coordinated adjustment of multiple air outlet zones can achieve multi-dimensional air supply combinations. It can form a large-scale uniform air supply by synchronous adjustment to improve the uniformity of indoor temperature distribution, or it can adjust the air supply angle of each area differently to adapt to different spatial layout needs. It provides a highly flexible solution for different spatial layouts and usage scenarios to meet a variety of air supply requirements.

[0061] The air handling equipment provided in the embodiments of this application will be described in detail below with reference to the accompanying drawings.

[0062] 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.

[0063] The following explanation uses an air conditioner indoor unit as an example. The air handling unit can include a housing assembly, an airflow circulation system, a functional processing module, a control system, and additional modules. The housing assembly consists of a support frame and a removable panel with air inlets / outlets. The airflow circulation system includes a fan (such as a cross-flow, centrifugal, or axial type) and a drive motor, guiding airflow through ducts. The functional processing module is configured differently depending on the equipment type (e.g., evaporator / condenser in an air conditioner, water mist generation unit in a humidifier, filter assembly in an air purifier) ​​to achieve temperature and humidity regulation or air purification. The control system integrates environmental sensors, a communication module, and a main control unit to achieve intelligent switching of air delivery modes (e.g., wide-area uniform air delivery, directional avoidance, or dynamic sweeping). Additional modules may include filters, sterilization devices, or heat recovery structures to adapt to energy-saving, purification, and other extended needs. (Reference) Figure 1 , Figure 2 , Figure 3 , Figure 4 The air handling unit 200 includes a unit body 300 and an air guide device 110. The unit body 300 includes an air outlet 310. The air outlet 310 includes multiple air outlet zones 311. The multiple air outlet zones 311 are distributed along the height direction of the unit body 300. The height direction of the unit body 300 can be the z-direction. Further, each air outlet zone 311 is provided with an air guide device 110. Each air outlet zone 311 may have one or more air guide devices 110. The air guide device 110 includes multiple air guide blades 12. The multiple air guide blades 12 can be movably arranged to adjust the air outlet direction of the air outlet zone 311 where the air guide device 110 is located.

[0064] It should be noted that this application, through its height-zoned air guide group 100 design, is particularly suitable for vertical air conditioning units. The height of the air outlet 310 of the vertical air conditioner is similar to the height of human activity (such as standing or sitting), allowing users to intuitively perceive the changes in airflow direction and intensity in different air outlet zones 311 at different heights. By utilizing the vertical layout advantages of the vertical air conditioner, combined with multi-zone independent control, it can accurately adapt to the dynamic needs of users, balancing optimized air delivery efficiency and comfort while also meeting various air outlet requirements.

[0065] It is understandable that by setting multiple air outlet zones 311 along the height direction of the device body 300 at the air outlet 310, and configuring an air guide device 110 including air guide vanes 12 in each air outlet zone 311, the air guide device 110 of each air outlet zone 311 can independently adjust the air delivery angle of the air guide vanes 12, thereby adjusting the air delivery direction of the air outlet zone 311. By precisely controlling the airflow direction through zoned control, the air delivery coverage range can be expanded. Furthermore, the airflow of each air outlet zone 311 can be independently controlled according to user needs. Moreover, since multiple air outlet zones 311 are arranged along the height direction, air can be delivered in different directions at different heights, simultaneously meeting the needs of users in different height areas and at different angles within the room.

[0066] The coordinated adjustment of the multi-air outlet zone 311 can achieve multi-dimensional air supply combinations. It can form a large-scale uniform air supply through synchronous adjustment to improve the uniformity of indoor temperature distribution, or it can adjust the air supply angle of each area to adapt to different spatial layout needs. It provides a highly flexible solution for different spatial layouts and usage scenarios, and meets a variety of air supply requirements.

[0067] In this embodiment, for ease of description, the length direction of the air outlet 310 is taken as the x-direction, and the width direction of the air handling device 200 is taken as the y-direction.

[0068] In one possible implementation, refer to Figure 1 , Figure 2 , Figure 3 , Figure 4 The air handling unit 200 includes multiple air guide groups 100. Each air guide group 100 corresponds one-to-one with an air outlet area 311. Each air guide group 100 is located within its corresponding air outlet area 311. Furthermore, each air guide group 100 includes at least one air guide device 110. The at least one air guide device 110 is distributed along the length direction of the air outlet 310. For example, each air guide group 100 may include one air guide device 110. Alternatively, each air guide group 100 may include two air guide devices 110, which may be distributed along the length direction (x-direction) of the air outlet 310. The number of air guide devices 110 within each air guide group 100 can be determined according to actual needs, and this application does not impose any limitations.

[0069] When the air handling unit 200 is an air conditioning unit, the air outlet 310 can be adjusted by the air guide group 100, thereby expanding the coverage angle of the air conditioning unit. 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.

[0070] It is understandable that the air guide group 100 is designed to correspond with the air outlet area 311, and each air guide group 100 includes at least one air guide device 110, so that the air guide device 110 of each air outlet area 311 can independently adjust the swing angle and movement trajectory of the air guide blade 12, thereby accurately controlling the local airflow direction and intensity, thereby expanding the air outlet coverage and reducing airflow dead zones.

[0071] In one possible implementation, each air guide group 100 includes multiple air guide devices 110. The multiple air guide devices 110 can be distributed along the length of the air outlet 310. Optionally, the multiple air guide devices 110 in each air guide group 100 can be segmented so that each air guide device 110 covers a specific horizontal area. Furthermore, adjacent air guide devices 110 of adjacent air guide groups 100 can be linked together via a control device. For example, the right-side air guide device 110 of the upper air guide group 100 can be synchronously adjusted with the right-side air guide device 110 of the lower air guide group 100 to eliminate airflow gaps between groups and form seamless wide-area coverage.

[0072] It is understandable that by setting multiple air guide devices 110 along the length of the air outlet 310 in the air guide group 100, precise control of airflow in the horizontal direction can be achieved. The coordinated control of multiple air guide devices 110 supports independent air supply modes in different zones (such as local enhanced air supply or avoidance of specific areas), or linkage to form a large-scale uniform airflow distribution, thereby flexibly adapting to the needs of different spatial layouts for air supply range and direction.

[0073] In one possible implementation, refer to Figures 2-9 The air guiding device 110 can be installed on the mounting surface m. The air guiding device 110 may include an adjusting assembly 10 and a driving assembly 20. The adjusting assembly 10 may include a support plate 11 and a plurality of air guide blades 12. The plurality of air guide blades 12 may be spaced apart along the extension direction of the support plate 11. The support plate 11 may be connected to the device body 300. The driving assembly 20 may be driveably connected to the adjusting assembly 10. The driving assembly 20 may drive at least a portion of the structure of the adjusting assembly 10 to change position relative to the mounting surface m (e.g., move along the y-direction), so that the adjusting assembly 10 can adjust the range of the first air delivery angle α1 (see [reference]). Figure 10 (As shown). Alternatively, the drive component 20 can drive the entire structure of the adjustment component 10 to change position relative to the mounting surface m.

[0074] The angle adjusted by the adjusting component 10 relative to the mounting surface m is defined as the first air supply angle. That is, by setting the adjusting component 10 to be movable relative to the mounting surface m, the adjusting component 10 can adjust the range of the first air supply angle. By changing the range of the first air supply angle, the user can adjust the air supply direction of the air guide group 100 as needed, thereby meeting different customer needs.

[0075] 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 adjustment assembly 10. This mounting surface m can serve as a reference for the initial position of the air guide assembly 100 or the adjustment assembly 10.

[0076] "First air supply angle α1" refers to the angle at which the adjustment component 10 moves relative to its initial position (i.e., the mounting surface m). Furthermore, the direction away from the mounting surface m can be the y-direction.

[0077] It is understandable that by adjusting the angle of each blade, it is possible to achieve synchronous oscillation to form a wide-area uniform air supply to reduce airflow dead zones, or to differentiate the settings to adapt to the needs of complex spatial layouts. By setting the drive component 20, the adjustment component 10 can be moved away from the mounting surface m. In other words, the adjustment component 10 can extend outside the air outlet 310 of the air handling equipment 200 using the air guide assembly 100, further reducing the area of ​​the adjustment component 10 obstructed by the side wall of the air outlet 310, thereby further expanding the blowing area of ​​the air guide assembly 100 so that the air handling equipment 200 using the air guide assembly 100 can cover a larger blowing area.

[0078] In one possible implementation, refer to Figure 9 , Figure 10 The adjustment assembly 10 also includes a base point 13. The drive assembly 20 is configured to at least drive the support plate 11 to rotate about the base point 13, so that at least a portion of the structure of the adjustment assembly 10 moves away from the mounting surface m.

[0079] Understandably, by setting a base point 13 and using it as the base point for rotating the support plate 11, the adjustment component 10 can rotate around this base point 13 as an axis. This base point 13 provides a stable reference point for the adjustment component 10, allowing the movement and adjustment of the adjustment component 10 to be performed relative to this base point 13, which helps ensure that the movement of the adjustment component 10 is more precise and controllable. After the adjustment component 10 rotates around the base point 13 by a certain angle, a portion of the structure of the adjustment component 10 can be located outside the air outlet 310 of the air handling equipment 200 using the air guide assembly 100, while another portion is located inside the air outlet 310. The area of ​​the air guide assembly 100 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. In addition, by controlling the position of the base point 13, the size of the portion of the air guide assembly 100 located outside the air outlet 310 of the air handling equipment 200 using the air guide assembly 100 can be controlled, thereby controlling the air blowing area of ​​the air guide assembly 100 and improving the installation flexibility of the air guide assembly 100.

[0080] For example, at least a portion of the structure of the adjusting component 10 is rotated about the base point 13 to move at least a portion of the structure of the adjusting component 10 in a direction away from the mounting surface m (e.g., along the y direction), and rotational movement with the base point 13 as the rotation base point can be performed. At this time, one end of the adjusting component 10 located at the base point 13 moves away from the mounting surface m, and the other end moves closer to the mounting surface m.

[0081] In other embodiments, while at least a portion of the structure of the adjusting component 10 rotates about the base point 13, 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. In the embodiments of this application, the manner in which the adjusting component 10 rotates about the base point 13 to move at least a portion of the structure of the adjusting component 10 in a direction away from the mounting surface m is not further limited, as long as it allows the adjusting component 10 to move relative to the mounting surface m.

[0082] 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.

[0083] In one possible implementation, the drive assembly 20 is located at one end of the support plate 11. Specifically, the drive assembly 20 can be located at one end of the support plate 11 along its length. In this way, the support plate 11 can be pivotally connected to the device body 300 via the base point 13. Optionally, a multi-stage transmission mechanism can be added between the drive assembly 20 and the support plate 11 to improve the output stability of the driving force by reducing speed and increasing torque, ensuring that the support plate 11 can still operate smoothly under large-angle deployment or high wind resistance scenarios, avoiding vibration or jamming.

[0084] Understandably, the design of the base point 13 provides a reliable rotation reference for the support plate 11. The drive assembly 20 can control the support plate 11 to swing around the base point 13, causing the guide vanes 12 to unfold, effectively reducing the obstruction of airflow by the side wall of the air outlet 310, thereby significantly expanding the horizontal air supply coverage. At the same time, the pivot connection simplifies the transmission structure, reduces the mechanical complexity of multi-dimensional adjustment, and ensures the controllability of the swing trajectory of the support plate 11 and the guide vanes 12.

[0085] In one possible implementation, refer to Figure 1 , Figure 2 , Figure 3 The inner wall of the air outlet 310 includes a top wall, a bottom wall, and multiple air guide devices 110. The top and bottom walls of the air outlet 310 are arranged opposite each other along the height direction (z-direction) of the air handling equipment 200. The top wall forms a top mounting surface m1, and the bottom wall forms a bottom mounting surface m2. The support plate 11 of the top air guide device 110 is disposed on the top mounting surface m1 and is rotatable relative to the top mounting surface m1. The support plate 11 of the bottom air guide device 110 is disposed on the bottom mounting surface m2 and is rotatable relative to the bottom mounting surface m2.

[0086] In another embodiment, reference Figure 4 , Figure 6 , Figure 7 , Figure 8 The support plate 11 of the bottom air guide device 110 is mounted on the bottom mounting surface m2. The support plate 11 of the bottom air guide device 110 is rotatable relative to the bottom mounting surface m2. The support plate 11 of the top air guide device 110 can be mounted on the side wall of the air outlet 310 via a connecting structure. The connecting structure of the top support plate 11 can be designed as an adjustable slot or slide rail, allowing it to slide up and down along the side wall and lock to different heights to adapt to different installation requirements.

[0087] Further, refer to Figure 9 , Figure 10The base point 13 of the support plate 11 of the top air guide device 110 and the support plate 11 of the bottom air guide device 110 are both located in the middle of the support plate 11. Optionally, the base point 13 in the middle of the support plate 11 can be moved along the length direction (x direction) of the air outlet 310 by a slide rail structure. For example, when it is necessary to increase the expansion range of one end of the support plate 11, the base point 13 can slide to the other end, expanding the adjustment range through leverage effect to adapt to asymmetrical spatial layout. In addition, multiple installation positions of the base point 13 can be preset on the support plate 11, so that different installation positions can be selected according to the air supply mode. For example, selecting the base point 13 close to the drive component 20 can improve the rotation response speed, while selecting the middle base point 13 can optimize the motion stability.

[0088] It is understandable that by pivotally mounting the support plates 11 of the top and bottom air guide devices 110 onto the top and bottom walls of the air outlet 310, respectively, and ensuring that their base points 13 are both located in the middle of the support plates 11, a bidirectional outward expansion adjustment function can be achieved. The support plates 11 of the top air guide device 110 rotate and expand outward from the air outlet 310 around the middle base point 13, and the support plates 11 of the bottom air guide device 110 also rotate and expand outward from the air outlet 310 around the middle base point 13. Together, they expand the effective air delivery cross-section of the air outlet 310, significantly reducing the obstruction of airflow by the sides of the top and bottom walls, thereby expanding the air delivery coverage in the vertical direction. Furthermore, the centrally located base point 13 ensures that the support plates 11 are balanced at both ends, resulting in stable and smooth pivoting movements and avoiding vibration or jamming problems caused by unilateral offset. In addition, the top and bottom walls, as usable structural support surfaces for the air outlet 310, provide a stable and symmetrical installation foundation for the support plates 11, avoiding mechanical interference or structural instability caused by lack of support.

[0089] In one possible implementation, refer to Figures 5-14 The drive assembly 20 includes a first drive member 21 and a second drive member 22. The first drive member 21 is tractively connected to the guide vane 12. The first drive member 21 is used to drive the position of the guide vane 12 to change. For example, the first drive member 21 is used to drive the guide vane 12 to change position relative to the support plate 11, such as by translating and / or rotating the guide vane 12 relative to the support plate 11, so that the guide vane 12 can swing.

[0090] The second driving member 22 is connected to the support plate 11 in a driving manner, and the second driving member 22 is used to drive at least a portion of the structure of the support plate 11 to change its position relative to the mounting surface m. For example, moving it away from the mounting surface m along the y-direction.

[0091] For example, the first driving member 21 is connected to the guide vane 12 via a transmission connection, and the first driving member 21 drives the guide vane 12 to rotate. This configuration reduces the difficulty of driving the guide vane 12, simplifies the structure of the first driving member 21, and increases the range of motion of the guide vane 12, thus improving the oscillation effect. Further, refer to... Figure 10 By rotating the guide vane 12, air swaying can be achieved, so that the guide vane 12 can adjust the range of the second air delivery angle α2.

[0092] 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.

[0093] 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 plate 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.

[0094] For example, the support plate 11 can be a plate-like structure used to support the air guide vanes 12 and facilitate connection with structures such as the drive assembly 20. In some embodiments, the support plate 11 can be provided with multiple ventilation holes to facilitate air delivery. In this application embodiment, the specific structure of the support plate 11 is not further limited.

[0095] Furthermore, the guide vanes 12 can extend along the z-direction. There can be multiple guide vanes 12, spaced apart along the extension direction of the support plate 11. It should be noted that the specific number of guide vanes 12 can be determined based on the dimensions of the support plate 11 in the extension direction and the arrangement density of the guide vanes 12. Therefore, in this embodiment, the number of guide vanes 12 is not limited.

[0096] By setting multiple air guide vanes 12 at intervals, users can more flexibly adjust the angle of each vane to precisely control the direction and intensity of airflow 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 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.

[0097] Understandably, by setting up the drive assembly 20, which includes the first drive element 21 and the second drive element 22, the air guide vane 12 and the support plate 11 can be controlled independently, which is beneficial to improving the accuracy of airflow regulation. Users can adjust the air delivery angle range of the air guide vane 12 or the support plate 11 individually as needed. The combination of the first drive element 21 and the second drive element 22 provides a larger adjustment range and flexibility to achieve complex airflow patterns to adapt to different room layouts and usage scenarios. By adjusting the angles of the air guide vane 12 and the support plate 11 separately, a more uniform and effective 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 air guide assembly 100, thereby improving overall energy efficiency. Since the first drive element 21 and the second drive element 22 are set independently, individual drive elements can be replaced or adjusted as needed during later maintenance without large-scale adjustments to the entire system, thereby reducing maintenance costs.

[0098] See Figures 5-14 As shown, the first drive member 21 and the second drive member 22 can be spaced apart in the extending direction (x-direction) of the support plate 11. By spaced apart the first drive member 21 and the second drive member 22, the space of the support plate 11 can be utilized more effectively, mutual interference between the drive members can be avoided, and the reliability and stability of the air guide assembly 100 can be improved. In addition, it also helps to improve the heat dissipation effect, 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.

[0099] In one possible implementation, refer to Figure 14 The first driving component 21 includes a first motor and a first transmission component. The first motor is driveably connected to the first transmission component. The first transmission component is driveably connected to multiple guide vanes 12 of the adjusting assembly 10. The first motor drives the first transmission component to move, thereby rotating the guide vanes 12 connected to the first transmission component, so that the guide vanes 12 can adjust the second air delivery angle α2.

[0100] Understandably, by setting up the first motor, precise motion control can be provided, allowing for accurate adjustment of the angle of the guide vanes 12 as needed, resulting in more efficient and accurate airflow management. By setting up the first transmission component, the rotational motion of the first motor can be effectively transmitted to the guide vanes 12, ensuring flexibility, smoothness, and efficiency of movement. The design of the transmission component optimizes torque transmission and reduces energy loss. Furthermore, the design of the first transmission component can further reduce friction and wear, improving system reliability.

[0101] For example, the first transmission component can be a transmission link. The transmission link is arranged along the extension direction of the adjusting assembly 10 and is connected to all the guide vanes 12 of the adjusting assembly 10. A first motor is used to drive the transmission link to move along the extension direction of the adjusting assembly 10, thereby causing the guide vanes 12 connected to the transmission link to rotate.

[0102] By setting the first transmission component as a transmission link, the structure of the first transmission component 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 12, 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 12 to make precise angle adjustments within a set range, thereby achieving more precise airflow management.

[0103] Of course, in other embodiments, the first transmission component 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 component is not further limited.

[0104] In one possible implementation, the first driving member 21 can be movably connected to the support plate 11. For example, the first driving member 21 can be movably connected to the support plate 11 at a base point 13. For instance, the support plate 11 has a mounting hole at base point 13, through which the output shaft of the first motor passes and is movably connected. This facilitates the connection of the first motor to the support plate 11, reduces assembly difficulty, and thus lowers costs.

[0105] By movably connecting the first drive component 21 and the support plate 11 at the base point 13, the first drive component 21 can provide certain support for the support plate 11, thereby improving the movement stability of the support plate 11. Furthermore, by movably connecting the first drive component 21 and the support plate 11, at least a portion of the structure of the support plate 11 can move relative to the mounting surface m, thereby flexibly adjusting the air delivery angle range. Additionally, it can reduce mechanical stress and wear that may result from fixed connections, thus extending the system's service life. The flexible movement of the support plate 11 can absorb some of the impacts and vibrations during operation, reducing the risk of damage to the first drive component 21 and the support plate 11, and improving system safety. The movable connection method allows users to more easily disassemble and replace components without requiring large-scale adjustments to the entire system, simplifying the installation and maintenance process.

[0106] In one possible implementation, the first motor is located at one end of the support plate 11 along the length of the air outlet 310.

[0107] Understandably, by placing the first motor at one end of the support plate 11 along the length of the air outlet 310, the spatial layout and transmission efficiency of the drive assembly 20 are significantly optimized. The single-sided centralized drive design can shorten the power transmission path, reduce redundant mechanical structures, and lower assembly complexity and component friction losses. At the same time, the end layout of the first motor leaves sufficient space on the other side of the support plate 11, avoiding interference with the inner wall of the air outlet 310 or other air guide groups 100, and ensuring the smoothness and stability of the rotation adjustment of the air guide blades 12.

[0108] In one possible implementation, see Figures 9-14 As shown, the second driving component 22 includes a second motor 222 and a second transmission component 221. The second motor 222 is connected to the second transmission component 221, and the second transmission component 221 is connected to the support plate 11. The second motor 222 drives the second transmission component 221 to move, thereby causing at least a portion of the structure of the support plate 11 to move relative to the mounting surface m.

[0109] Understandably, by setting up the second motor 222, precise motion control can be provided, thereby allowing for accurate adjustment of the angle of the support plate 11 as needed, resulting in more efficient and accurate airflow management. By setting up the second transmission component 221, the rotational motion of the second motor 222 can be effectively transmitted to the support plate 11, ensuring flexibility, smoothness, and efficiency of the motion. The design of the transmission component optimizes torque transmission and reduces energy loss. The design of the second transmission component 221 further reduces friction and wear, improving the reliability of the system.

[0110] In one possible implementation, see Figure 15 , Figure 16As shown, the second transmission component 221 may include an arc-shaped rack structure 2211. For example, the arc-shaped rack structure 2211 may extend along a direction to drive the support plate 11 to move along the y-direction. Alternatively, the second transmission component 221 may include a rack structure 2211 and a multi-link mechanism 2212. The rack structure 2211 can serve as the main transmission component, responsible for converting the rotational motion of the second motor 222 into linear motion. The multi-link mechanism 2212 serves as an auxiliary transmission component, converting the linear motion into a composite motion of the support plate 11, achieving more flexible position adjustment. For example, when the rack structure 2211 moves horizontally along the x-direction, the multi-link mechanism 2212 can convert the linear displacement into a rotational displacement of the support plate 11 about the base point 13.

[0111] Of course, in other embodiments, the second transmission member 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 member 221 is not further limited.

[0112] It should be noted that, Figures 5-16 The positions and orientations of the first driving member 21 and the second driving member 22 shown are only schematic diagrams and are not intended as a reference for actual installation. The actual installation position and orientation should be determined based on whether it can achieve its function. In this embodiment, the position and orientation of the first driving member 21 are not further limited.

[0113] It is understood that by including the arc-shaped rack structure 2211 in the second transmission component 221, rotational motion can be converted into precise linear or angular motion, allowing the support plate 11 to be precisely adjusted within a set range, thereby achieving more precise airflow management. The arc-shaped rack structure 2211 provides smooth motion transition, reducing vibration and impact that may occur during motion, and improving the smoothness and quietness of system operation. By including the rack structure 2211 and the multi-link mechanism 2212 in the second transmission component 221, the structure of the second transmission component 221 can be simplified, the manufacturing process is simple, the cost is low, and it is suitable for mass production and application. In addition, the multi-link mechanism 2212 can include multiple links, so one second transmission component 221 can control the support plate 11 of multiple adjustment components 10, thereby simplifying the structure of the entire air guide assembly 100 and reducing costs.

[0114] The above embodiments describe an embodiment in which the adjustment component 10 is a single component. Of course, in other embodiments, multiple adjustment components 10 can be provided to increase the adjustment flexibility and adaptability of the air guide assembly 100.

[0115] like Figure 3 , Figures 11-16 As shown, there are multiple adjustment components 10 (two adjustment components 10 are shown in the figure), wherein the number of drive components 20 is the same as the number of adjustment components 10, and each adjustment component 10 corresponds to one drive component 20.

[0116] This configuration, where each regulating component 10 has its own dedicated drive component 20, allows for independent control of each component. This enables precise adjustment of airflow direction and intensity in each area as needed, adapting 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, preventing localized overheating or cooling and improving overall comfort. This redundancy design enhances system reliability and stability; for example, if one drive component 20 fails, the others can still function normally. Because each regulating component 10 and drive component 20 is independent, maintenance and troubleshooting become simpler, reducing maintenance time and costs.

[0117] For example, the number of adjustment components 10 can be two, wherein the two adjustment components 10 are spaced apart along the extension direction of the adjustment components 10.

[0118] By setting two regulating components 10, the system provides flexible airflow control and convenient maintenance while maintaining efficient and reliable operation, thus enhancing the user experience. It also simplifies the structure of the air guide assembly 100, thereby reducing costs. The spacing makes each regulating component 10 more accessible, facilitating installation, maintenance, and inspection. Users can more easily inspect, replace, or repair components without having to disassemble other parts.

[0119] Of course, in other embodiments, the number of adjustment components 10 may be three, four, five or more. In this embodiment, the number of adjustment components 10 in the air guide group 100 is not further limited.

[0120] In one possible implementation, the air guide assembly 100 may further include a control device (not shown in the figure). The control device is electrically connected to the drive assembly 20 and is used to control the drive assembly 20.

[0121] For example, the control device can be electrically or signal-connected to both the first motor (not shown in the figure, but logically corresponds to the motor that the first drive component 21 may contain) and the second motor 222, so as to control the first motor and the second motor 222 respectively through the control device to adjust the range of the first air delivery angle α1 and the range of the second air delivery angle α2. In addition, when the guide vane 12 can swing in the z-direction, or swing in a direction at a certain angle to the z-direction, the control device can also control the guide vane 12 to swing in the z-direction, or swing in a direction at a certain angle to the z-direction. In the embodiments of this application, the control method of the control device on the drive component 20 is not further limited.

[0122] By setting up a control device, the drive assembly 20 can be precisely controlled, allowing users to adjust the angle of the guide vanes 12 and the direction of the support plate 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.

[0123] In one possible implementation, the control device is used to synchronously control the drive components 20 corresponding to the multiple adjustment components 10. That is, the first air delivery angle α1 of the different adjustment components 10 can be within the same range.

[0124] It should be noted that the control device is used to synchronously control the drive components 20 corresponding to multiple adjustment components 10. This means that when adjusting the air guide group 100, the drive components 20 of multiple air guide groups 100 are controlled simultaneously to ensure that the adjustment angle of the support plate 11 is the same. See [link to relevant documentation]. Figure 9 , Figure 10 , Figure 12 As shown, after different adjustment components 10 have adjusted the first air supply angle α1 range, the extension directions of the different adjustment components 10 are in a state of near parallelism. Here, after multiple different adjustment components 10 have adjusted the first air supply angle α1 range, the adjustment of the second air supply angle α2 range is not further limited. The second air supply angle α2 range of different adjustment components 10 can be the same or different, and can be determined according to specific needs.

[0125] This configuration ensures that the range of the first air supply angle α1 of the different regulating components 10 is consistent, resulting in a more uniform airflow distribution and helping to maintain a consistent temperature and comfort throughout the room. Since all regulating components 10 have the same range of first air supply angle α1, the complexity of the control system is reduced, simplifying the control algorithm and hardware design, and lowering system costs and maintenance difficulty. A unified range of first air supply angle α1 provides a consistent user experience, avoiding problems such as localized temperature differences or uneven airflow caused by different angle settings. Because all regulating components 10 have the same angle setting, the installation and commissioning process is faster and simpler. Users or installers do not need to adjust the angle of each component individually.

[0126] In some other embodiments, the control device is used to control the drive components 20 corresponding to the plurality of adjustment components 10 respectively, that is, the range of the first air delivery angle α1 of different adjustment components 10 may also be different.

[0127] For example, see Figure 12 As shown, some of the multiple adjustment components 10 are rotated to the range of the first air supply angle α1, while others remain in their initial unadjusted state. Figure 13 As shown, the adjustment components 10 among the multiple adjustment components 10 can move in different directions. When different adjustment components 10 have completed the adjustment of the first air supply angle α1 range, the extension directions of the support plates 11 of the different adjustment components 10 are set at an angle. Figures 11-16 The diagram only shows a schematic of the air guide assembly 100 including two adjustment components 10. When there are more adjustment components 10, there will be more adjustment methods, which will not be described in detail here.

[0128] By controlling the drive components 20 corresponding to multiple adjustment groups 100 individually, personalized airflow adjustment can be performed in different areas of the room to meet the comfort needs of different users, especially in large spaces or multi-functional areas. Furthermore, in multi-functional spaces (such as conference rooms, open-plan offices, etc.), different ranges of the first air supply angle α1 can provide suitable airflow conditions for different activity areas, meeting diverse usage needs. By adjusting the range of the first air supply angle α1 of each adjustment group 100, 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 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.

[0129] In the above embodiments, it is described that each adjustment group 100 has a separate drive component 20 for driving. In other embodiments, there may be other driving methods. These will not be described again in the embodiments of this application.

[0130] like Figure 15 , Figure 16 As shown, multiple adjustment components 10 are spaced apart along the extension direction of the adjustment components 10 (two adjustment components 10 are shown in the figure). At least two adjacent adjustment components 10 share a first drive member 21 or a second drive member 22, and the shared first drive member 21 or second drive member 22 is located between the two adjacent adjustment components 10.

[0131] For example, there are two adjustment components 10, which are spaced apart along the extension direction of the adjustment components 10. The drive component 20 includes a first drive member 21 and a second drive member 22, with each adjustment component 10 corresponding to one drive component 20. During assembly, since the two adjustment components 10 are arranged adjacent to each other, a first drive member 21 or a second drive member 22 can be set at the interval between the two adjustment components 10 to control the two adjacent adjustment components 10. This eliminates the need for a first drive member 21 or a second drive member 22, thereby reducing costs. By placing the shared first drive member 21 or second drive member 22 between the two adjustment components 10, the assembly difficulty of the first drive member 21 or second drive member 22 and the two adjustment components 10 can be reduced, facilitating quick installation.

[0132] like Figure 15 , Figure 16 As shown, the two first driving members 21 of the two adjustment components 10 are respectively disposed at opposite ends of the adjustment components 10, and a second driving member 22 is disposed in the gap between the two adjustment components 10. The two adjustment components 10 can be driven simultaneously by the second driving member 20.

[0133] For example, the second transmission member 221 may include a rack and pinion structure 2211 and a multi-link mechanism 2212. The multi-link mechanism 2212 controls two adjusting components 10 located on both sides of the second drive member 22. In this embodiment, the specific mechanism of the second transmission member 221 is not further limited, as long as it can achieve its function.

[0134] By incorporating a rack and pinion structure 2211 and a multi-link mechanism 2212 into the second transmission component 221, the structure of the second transmission component 221 can be simplified, the manufacturing process is simple, the cost is low, and it is suitable for mass production and application. Furthermore, the multi-link mechanism 2212 can include multiple links, so one second transmission component 221 can control the support plates 11 of multiple adjusting components 10, thereby simplifying the structure of the entire air guide assembly 100 and reducing costs.

[0135] For example, the second transmission component 221 may include a rack structure 2211 and two connecting rods. One end of the two connecting rods is rotatably connected to one end of the rack structure 2211, and the other end of the two connecting rods is respectively connected to the support plate 11 of an adjustment component 10. The second motor 222 may be connected to the rack structure 2211 for transmission. The rotation of the second motor 222 drives the rack structure 2211 to move along the y direction, thereby driving the two connecting rods to drive the support plates 11 of the two adjustment components 10 to move along the y direction.

[0136] Of course, in some other embodiments, the two second driving members 22 of the two adjusting components 10 can be respectively disposed at opposite ends of the adjusting components 10, and a first driving member 21 can be disposed in the gap between the two adjusting components 10. The first driving component 20 can simultaneously drive the guide vanes 12 on both adjusting components 10. For example, the first transmission component (not specifically marked in the figure, but according to the rules it should be a transmission structure related to the first driving member 21; here it is assumed to be a related unmarked structure) may include a multi-link mechanism 2212. The multi-link mechanism 2212 controls the guide vanes 12 of the two adjusting components 10 located on both sides of the first driving member 21. In this embodiment, the specific mechanism of the first transmission component is not further limited, as long as it can achieve its function.

[0137] The various embodiments or implementation methods described in this specification are presented in a progressive manner. Each embodiment focuses on the differences from other embodiments, and the same or similar parts between the embodiments can be referred to each other.

[0138] It should be noted that the embodiments referred to in the specification, such as "one embodiment," "embodiment," "exemplary embodiment," and "some embodiments," may include specific features, structures, or characteristics, but not every embodiment necessarily includes that specific feature, structure, or characteristic. Furthermore, such phrases do not necessarily refer to the same embodiment. Moreover, when a specific feature, structure, or characteristic is described in connection with an embodiment, implementing such a feature, structure, or characteristic in conjunction with other embodiments, whether explicitly described or not, is within the knowledge scope of those skilled in the art.

[0139] Generally speaking, terms should be understood at least in part by their use in context. For example, at least in part by context, the term "one or more" as used in the text can be used to describe any feature, structure, or characteristic of the singular meaning, or a combination of features, structures, or characteristics of the plural meaning. Similarly, at least in part by context, terms such as "a" or "the" can also be understood to convey either singular or plural usage.

[0140] It should be readily understood that the terms “on,” “above,” and “on top of” in this disclosure should be interpreted in the broadest possible sense, such that “on” means not only “directly on something” but also “on something” with an intermediate feature or layer therebetween, and that “above” or “on top of” means not only “on top of something” but also “on top of something” without an intermediate feature or layer therebetween (i.e., directly on something).

[0141] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this application, and are not intended to limit them. Although this application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some or all of the technical features therein. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of this application.

Claims

1. An air handling device, characterized in that, include: The equipment body includes an air outlet, which includes multiple air outlet zones distributed along the height direction of the equipment body. An air guiding device is provided in each of the air outlet zones. The air guiding device includes a plurality of movably arranged air guiding blades, which are used to adjust the air outlet direction of the air outlet zone in which the air guiding device is located.

2. The air handling equipment according to claim 1, characterized in that, The air handling equipment includes multiple air guide groups that correspond one-to-one with the air outlet area. Each of the aforementioned air guide groups is located in the corresponding air outlet area; Each of the air guide groups includes at least one of the air guide devices distributed along the length of the air outlet.

3. The air handling equipment according to claim 2, characterized in that, Each of the air guide groups includes a plurality of air guide devices distributed along the length of the air outlet.

4. The air handling equipment according to claim 1, characterized in that, The air guiding device includes: The adjustment assembly includes a support plate and a plurality of air guide vanes, the plurality of air guide vanes being spaced apart along the extension direction of the support plate, and the support plate being connected to the device body; A drive assembly is connected to the adjustment assembly in a driving manner, and the drive assembly drives at least a portion of the structure of the adjustment assembly to change position relative to the mounting surface.

5. The air handling equipment according to claim 4, characterized in that, The adjustment component further includes a base point; wherein... The drive assembly is at least used to drive the support plate to rotate about the base point, so that at least a portion of the structure of the adjustment assembly moves away from the mounting surface.

6. The air handling equipment according to claim 5, characterized in that, The drive component is located at one end of the support plate along its length, and the base point is located at one end of the support plate along its length. The support plate is pivotally connected to the device body through the base point.

7. The air handling equipment according to claim 5, characterized in that, The inner wall of the air outlet includes a top wall and a bottom wall that are opposite each other along the height direction, wherein the top wall forms a top mounting surface and the bottom wall forms a bottom mounting surface. The plurality of air guiding devices are provided, with the support plate of the top air guiding device disposed on the top mounting surface and rotatable relative to the top mounting surface, and the support plate of the bottom air guiding device disposed on the bottom mounting surface and rotatable relative to the bottom mounting surface. The base points of the support plate of the air guide device located at the top and the support plate of the air guide device located at the bottom are both located in the middle of the support plate.

8. The air handling equipment according to claim 4, characterized in that, The driving assembly includes a first driving component and a second driving component; wherein... The first driving component is connected to the guide vane in a transmission manner, and the first driving component drives the position of the guide vane to change. The second driving member is connected to the support plate in a driving manner, and the second driving member drives at least a portion of the structure of the support plate to change position relative to the mounting surface.

9. The air handling equipment according to claim 8, characterized in that, The first driving component includes a first motor and a first transmission component; wherein, The first motor is connected to the first transmission component in a transmission connection; The first transmission component is connected to multiple guide vanes of the adjustment assembly in a transmission connection. The first motor is used to drive the first transmission component to move, so as to drive the guide vane connected to the first transmission component to rotate.

10. The air handling equipment according to claim 9, characterized in that, The first motor is located at one end of the support plate along the length of the air outlet.

11. The air handling equipment according to claim 8, characterized in that, The second driving component includes a second motor and a second transmission component; wherein, The second motor is connected to the second transmission component, and the second transmission component is connected to the support plate; The second motor is used to drive the second transmission component to move, thereby causing at least a portion of the structure of the support plate to move relative to the mounting surface.

12. The air handling equipment according to claim 11, characterized in that, The second transmission component includes an arc-shaped rack and pinion structure; or, The second transmission component includes a rack and pinion structure and a multi-link mechanism.

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