Top-mounted air conditioner, air conditioner wind deflector control method and device

Abstract

The present invention provides a top-mounted air conditioner, an air conditioner wind deflector control method and device, including: obtaining first human body information of a first wind area corresponding to an air outlet of the top-mounted air conditioner and second human body information of a second wind area; obtaining a human body recognition result based on the first human body information and the second human body information; generating a wind deflector adjustment instruction according to the human body recognition result, where the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result. By recognizing the human body information of the corresponding wind area to obtain a human body recognition result, and then generating a wind deflector adjustment instruction according to the human body recognition result to adjust the working state of the wind deflector, the present invention makes the blowing direction associated with the position where the person is located, avoids the direct blowing of the air conditioner on the human body, realizes the effect of the air conditioner not blowing on people, and thus improves the comfort of using the air conditioner.

Description

Technical Field

[0001] The present invention relates to the technical field of air conditioners, and particularly to a top-mounted air conditioner, an air conditioner wind deflector control method and device. Background Art

[0002] A top-mounted air conditioner is an air conditioner installed on the top of a house and is mostly used in public places such as offices or shopping malls. In the prior art, most top-mounted air conditioners use the method of swinging the wind deflector for air outlet, and the position where people are located does not trigger the swing of the wind deflector, so when there are people at the air outlet, it is easy to blow directly at people, affecting the use experience of the air conditioner. Summary of the Invention

[0003] The present invention provides a top-mounted air conditioner, an air conditioner wind deflector control method and device, which are used to solve the defect that the existing technology air conditioner blows directly at people, and realize changing the air outlet mode according to the position of people, so as to improve the use experience of the air conditioner.

[0004] The present invention provides a top-mounted air conditioner, including:

[0005] An air outlet assembly, the air outlet assembly includes an air outlet and a wind deflector swingably installed at the air outlet, and the wind radiation area of the air outlet is divided into a first wind area and a second wind area;

[0006] A biometric device, the biometric device is used to respectively obtain first human body information of the first wind area and second human body information of the second wind area of the air outlet to obtain a human body recognition result;

[0007] A controller, the controller is used to generate a wind deflector adjustment instruction according to the human body recognition result, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result.

[0008] According to the top-mounted air conditioner provided by the present invention, there are four groups of the air outlet assemblies, and the air outlet assemblies are circumferentially surrounded to form a quadrilateral structure.

[0009] The present invention also provides an air conditioner wind deflector control method, and the method includes:

[0010] Obtain first human body information of the first wind area and second human body information of the second wind area corresponding to the air outlet of the top-mounted air conditioner;

[0011] Based on the first human body information and the second human body information, obtain a human body recognition result;

[0012] Generate a wind deflector adjustment instruction according to the human body recognition result, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result.

[0013] According to an air conditioner wind deflector control method provided by the present invention, based on the first human body information and the second human body information, a human body recognition result is obtained, which specifically includes:

[0014] The number of first personnel in the first wind area is obtained according to the first human body information, and the number of second personnel in the second wind area is obtained according to the second human body information;

[0015] When the number of the first personnel is greater than a preset first personnel number threshold, it is determined that the first wind area is in a high threshold state;

[0016] When the number of the first personnel is less than the first personnel number threshold, it is determined that the first wind area is in a low threshold state;

[0017] When the number of the second personnel is greater than a preset second personnel number threshold, it is determined that the second wind area is in a high threshold state;

[0018] When the number of the second personnel is less than the second personnel number threshold, it is determined that the second wind area is in a low threshold state;

[0019] Based on the high and low threshold states of the first wind area and the high and low threshold states of the second wind area, the human body recognition result is obtained.

[0020] According to an air conditioner wind deflector control method provided by the present invention, the human body recognition result includes a first human body recognition result; based on the first human body information and the second human body information, a human body recognition result is obtained, which specifically includes:

[0021] When both the first wind area and the second wind area are in a high threshold state, a first human body recognition result is generated;

[0022] When the first human body recognition result is generated, the wind deflector adjustment instruction includes a first adjustment instruction. According to the human body recognition result, a wind deflector adjustment instruction is generated, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result, which specifically includes:

[0023] The first adjustment instruction is used to control the wind deflector to turn on the swing mode or control the wind deflector to close according to the first human body recognition result.

[0024] According to an air conditioner wind deflector control method provided by the present invention, the air outlet assembly of the top-mounted air conditioner includes a first air outlet assembly, a second air outlet assembly, a third air outlet assembly, and a fourth air outlet assembly arranged in sequence, and the extending directions of the air outlets of each air outlet assembly enclose a quadrilateral structure;

[0025] When the first human body recognition results are generated by each of the air outlet components, the first adjustment instruction is used to control the wind deflectors of the first air outlet component and the third air outlet component to turn on the swing mode, and is used to control the wind deflectors of the second air outlet component and the fourth air outlet component to close.

[0026] According to an air conditioner wind deflector control method provided by the present invention, the first adjustment instruction controls the wind deflectors of the first air outlet component and the third air outlet component to turn on the swing mode, and controls the wind deflectors of the second air outlet component and the fourth air outlet component to close. After that, it further includes:

[0027] Obtain the execution duration of the first adjustment instruction;

[0028] When the execution duration reaches a preset duration, a mode swap instruction is generated. The mode swap instruction is used to control the wind deflectors of the first air outlet component and the third air outlet component to close, and is used to control the wind deflectors of the second air outlet component and the fourth air outlet component to turn on the swing mode.

[0029] According to an air conditioner wind deflector control method provided by the present invention, the human body recognition result includes a second human body recognition result; based on the first human body information and the second human body information, obtaining the human body recognition result specifically includes:

[0030] When the first human body information is a high threshold and the second human body information is a low threshold, a second human body recognition result is generated;

[0031] When the second human body recognition result is generated, the wind deflector adjustment instruction includes a second adjustment instruction. The wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result, and specifically includes:

[0032] The second adjustment instruction is used to control the wind deflector to swing to a preset angle according to the second human body recognition result, so that the air outlet direction through the air outlet faces the second wind area.

[0033] According to an air conditioner wind deflector control method provided by the present invention, the human body recognition result includes a third human body recognition result; based on the first human body information and the second human body information, obtaining the human body recognition result specifically includes:

[0034] When both the first human body information and the second human body information are low thresholds, a third human body recognition result is generated;

[0035] When generating the third human body recognition result, the windshield adjustment instruction includes a third adjustment instruction. The windshield adjustment instruction is generated according to the human body recognition result, and is used to adjust the working state of the windshield according to the human body recognition result, specifically including:

[0036] The third adjustment instruction is used to control the windshield to turn on the swing mode according to the third human body recognition result.

[0037] The present invention also provides an air conditioner windshield control device, including:

[0038] An information acquisition module, configured to acquire first human body information of a first wind area corresponding to the air outlet of the top-mounted air conditioner and second human body information of a second wind area;

[0039] A result recognition module, configured to obtain a human body recognition result based on the first human body information and the second human body information;

[0040] An instruction generation and adjustment module, configured to generate a windshield adjustment instruction according to the human body recognition result, where the windshield adjustment instruction is used to adjust the working state of the windshield according to the human body recognition result.

[0041] The top-mounted air conditioner, the air conditioner windshield control method and device provided by the present invention obtain first human body information of a first wind area corresponding to the air outlet of the top-mounted air conditioner and second human body information of a second wind area; obtain a human body recognition result based on the first human body information and the second human body information; generate a windshield adjustment instruction according to the human body recognition result, and the windshield adjustment instruction is used to adjust the working state of the windshield according to the human body recognition result. The present invention obtains a human body recognition result by recognizing the human body information in the corresponding wind area, and then generates a windshield adjustment instruction according to the human body recognition result to adjust the working state of the windshield, so that the blowing direction is associated with the position where the person is located, avoiding the direct blowing of the air conditioner on the human body, achieving the effect of the air conditioner not blowing on people, thereby improving the comfort of using the air conditioner. BRIEF DESCRIPTION OF THE DRAWINGS

[0042] In order to more clearly illustrate the technical solutions in the present invention or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the drawings in the following description are some embodiments of the present invention. For those of ordinary skill in the art, other drawings can be obtained based on these drawings without creative efforts.

[0043] Figure 1 It is a schematic diagram of the external structure of an embodiment of the top-mounted air conditioner provided by the present invention;

[0044] Figure 2It is a schematic structural diagram of an embodiment of the top-mounted air conditioner provided by the present invention;

[0045] Figure 3 It is one of the schematic flow diagrams of the air conditioner wind deflector control method provided by the present invention;

[0046] Figure 4 It is another schematic flow diagram of the air conditioner wind deflector control method provided by the present invention;

[0047] Figure 5 It is still another schematic flow diagram of the air conditioner wind deflector control method provided by the present invention;

[0048] Figure 6 It is a schematic flow diagram of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0049] Figure 7 It is a schematic flow diagram of another embodiment of the air conditioner wind deflector control method provided by the present invention;

[0050] Figure 8 It is a schematic flow diagram of yet another embodiment of the air conditioner wind deflector control method provided by the present invention;

[0051] Figure 9 It is a schematic flow diagram of still another embodiment of the air conditioner wind deflector control method provided by the present invention;

[0052] Figure 10 It is a schematic flow diagram of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0053] Figure 11 It is a schematic flow diagram of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0054] Figure 12 It is a schematic flow diagram of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0055] Figure 13 It is a schematic flow diagram of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0056] Figure 14 It is a schematic flow diagram of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0057] Figure 15 It is a schematic flow diagram of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0058] Figure 16 It is a schematic flow diagram of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0059] Figure 17It is a schematic flowchart of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0060] Figure 18 It is a schematic flowchart of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0061] Figure 19 It is a schematic flowchart of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0062] Figure 20 It is a schematic flowchart of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0063] Figure 21 It is a schematic flowchart of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0064] Figure 22 It is a schematic flowchart of an embodiment of the air conditioner wind deflector control method provided by the present invention;

[0065] Figure 23 It is a schematic structural diagram of the air conditioner wind deflector control device provided by the present invention.

[0066] Reference numerals:

[0067] 2310: Information acquisition module; 2320: Result identification module; 2330: Instruction generation and adjustment module. Detailed implementation manners

[0068] To make the objectives, technical solutions and advantages of the present invention clearer, the technical solutions in the present invention will be clearly and completely described below with reference to the accompanying drawings in the present invention. Obviously, the described embodiments are some but not all of the embodiments of the present invention. All other embodiments obtained by those of ordinary skill in the art without creative efforts based on the embodiments in the present invention belong to the scope of protection of the present invention.

[0069] The following will be combined with Figures 1 - 23 Describe the top-mounted air conditioner, the air conditioner wind deflector control method and device provided by the present invention. Figure 1 It is a schematic external structure diagram of an embodiment of the top-mounted air conditioner provided by the present invention, as Figure 1As shown in the figure, the present invention provides a top-mounted air conditioner, which includes an air outlet assembly, a biometric device, and a controller. Among them, the air outlet assembly includes an air outlet and a wind deflector swingably installed at the air outlet, and the wind radiation area of the air outlet is divided into a first wind area and a second wind area. Specifically, for the wind radiation area of each air outlet, it is divided into two areas, namely the first wind area and the second wind area, according to the distance from the air outlet, corresponding to the near wind area and the far wind area respectively. The first wind area can be the near wind area, in which case the second wind area is the far wind area; the first wind area can also be the far wind area, in which case the second wind area is the near wind area. The wind deflector is swingably installed at the air outlet for adjusting the air outlet direction.

[0070] The biometric device is used to respectively obtain the first human body information of the first wind area and the second human body information of the second wind area to obtain a human body recognition result. That is to say, the biometric device is arranged corresponding to the above-mentioned first wind area and second wind area, and is used to obtain the first human body information of the first wind area and the second human body information of the second wind area, and then obtain a human body recognition result. The human body information includes the human body information data of the personnel in the corresponding wind area recognized by the biometric device. The obtained human body information can be infrared information, image information, etc. The biometric device can be a camera, an infrared sensor or a thermal imager; the biometric device can be installed on the air outlet assembly or in the corresponding wind area. The type and installation position of the biometric device are not limited in this embodiment.

[0071] The controller is used to generate a wind deflector adjustment instruction according to the human body recognition result, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result. The controller can be integrated into the central control device of the top-mounted air conditioner, or can be a separately provided control device such as a single-chip microcomputer or a PLC.

[0072] In order to improve the air outlet effect, multiple groups of the above-mentioned air outlet assemblies of the top-mounted air conditioner can be provided, such as Figure 2 As shown in the figure, for the convenience of structural layout, it is preferably to provide four groups of the air outlet assemblies, and each of the air outlet assemblies circumferentially encloses a quadrilateral structure. Obviously, the number of the air outlet assemblies is not limited to 4 groups. Considering the air outlet requirements and the air conditioner space area comprehensively, two groups, three groups, five groups or more groups can also be provided. It should be understood that for the convenience of description, each embodiment in this article takes the case of providing four groups of air outlet assemblies as an example, but is not limited to only providing four groups of air outlet assemblies.

[0073] The ceiling-mounted air conditioner provided by the present invention includes: an air outlet assembly, which includes an air outlet and a wind deflector swingably installed at the air outlet, and the wind radiation area of the air outlet is divided into a first wind area and a second wind area; a biometric device, which is used to respectively obtain first human body information of the first wind area and second human body information of the second wind area to obtain a human body recognition result; a controller, which is used to generate a wind deflector adjustment instruction according to the human body recognition result, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result. The present invention obtains a human body recognition result by identifying the human body information of the corresponding wind area, and then generates a wind deflector adjustment instruction according to the human body recognition result to adjust the working state of the wind deflector, so that the blowing direction is associated with the position where the person is located, avoiding the direct blowing of the air conditioner on the human body, achieving the effect of the air conditioner not blowing on people, thereby improving the comfort of using the air conditioner.

[0074] In addition to the above ceiling-mounted air conditioner, the present invention also provides an air conditioner wind deflector control method, as Figure 3 shown, and this method includes the following steps:

[0075] Step 310, obtain the first human body information of the first wind area and the second human body information of the second wind area corresponding to the air outlet of the ceiling-mounted air conditioner. It should be understood that when there are multiple air outlets, the first human body information corresponding to each air outlet and the second human body information of the second wind area of each air outlet are respectively obtained. In various embodiments, ordinal numbers such as first and second are only for convenience of description and do not represent a certain limitation or order. Among them, the human body information includes the human body information data of the personnel in the corresponding wind area recognized by the biometric device. The obtained human body information can be infrared information or image information, etc.

[0076] Step 320, based on the first human body information and the second human body information, obtain a human body recognition result. In the actual use scenario, according to the first human body information and the second human body information, the number of personnel in the corresponding wind area can be obtained, so as to obtain a human body recognition result. For example, the number of personnel in the corresponding area can be obtained according to the infrared information carried in the human body information, or the number of personnel in the corresponding area can be obtained according to the image information carried in the human body information.

[0077] Step 330, generate a wind deflector adjustment instruction according to the human body recognition result, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result. For example, when the human body recognition result indicates that the number of people in the first wind area is large, the wind deflector adjustment instruction is used to adjust the wind deflector to the working state where the blowing direction faces the second wind area; for another example, when the human body recognition result indicates that the number of people in both the first wind area and the second wind area is large, the wind deflector adjustment instruction is used to adjust the wind deflector to the working state of swinging the wind or pausing the work.

[0078] In some embodiments, as Figure 4 shown, based on the first human body information and the second human body information, a human body recognition result is obtained, which specifically includes the following steps:

[0079] Step 410, obtaining the number of first personnel in the first air zone according to the first human body information, and obtaining the number of second personnel in the second air zone according to the second human body information;

[0080] Step 420, when the number of first personnel is greater than a preset first personnel number threshold, determining that the first air zone is in a high threshold state;

[0081] Step 421, when the number of first personnel is less than the first personnel number threshold, determining that the first air zone is in a low threshold state;

[0082] Step 430, when the number of second personnel is greater than a preset second personnel number threshold, determining that the second air zone is in a high threshold state;

[0083] Step 431, when the number of second personnel is less than the second personnel number threshold, determining that the second air zone is in a low threshold state;

[0084] Step 440, obtaining the human body recognition result based on the high and low threshold states of the first air zone and the high and low threshold states of the second air zone.

[0085] Specifically, the first human body information includes the human body information data of the personnel in the first air zone recognized by the biometric device in the first air zone, and the obtained human body information can be infrared information, image information, etc. After obtaining the first human body information of the first air zone corresponding to a certain air outlet of the top-mounted air conditioner, the number of first personnel in the first air zone is obtained according to the first human body information. According to the preset first personnel number threshold, the number of first personnel is compared with the preset first personnel number threshold to judge the size of the number of first personnel. If the number of first personnel is greater than the preset first personnel number threshold, it can be determined that the first air zone is in a high threshold state. If the number of first personnel is less than the preset first personnel number threshold, it can be determined that the first air zone is in a low threshold state.

[0086] Similarly, the second human body information includes the human body information data of the personnel in the second air zone recognized by the second air zone biometric device, and the obtained human body information can be infrared information, image information, etc. After obtaining the second human body information of the second air zone corresponding to a certain air outlet of the top-mounted air conditioner, the second number of people in the second air zone is obtained according to the second human body information. According to the preset second number threshold, the second number of people is compared with the preset second number threshold to determine the size of the second number of people. If the second number of people is greater than the preset second number threshold, it can be determined that the second air zone is in a high threshold state. If the second number of people is less than the preset second number threshold, it can be determined that the second air zone is in a low threshold state.

[0087] Among them, the first number threshold and the second number threshold can be 10.

[0088] After that, based on the high and low threshold states of the first air zone and the high and low threshold states of the second air zone, the human body recognition result is obtained.

[0089] In some embodiments, as Figure 5 shown, the human body recognition result includes the first human body recognition result; based on the first human body information and the second human body information, obtaining the human body recognition result specifically includes the following steps:

[0090] Step 510: Generate a first human body recognition result when both the first air zone and the second air zone are in a high threshold state;

[0091] Step 520: When the first human body recognition result is generated, the wind deflector adjustment instruction includes a first adjustment instruction, and a wind deflector adjustment instruction is generated according to the human body recognition result. The wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result, specifically including:

[0092] The first adjustment instruction is used to control the wind deflector to turn on the swing mode or control the wind deflector to close according to the first human body recognition result.

[0093] Specifically, after determining the high and low threshold states of the first air zone and the second air zone, if both the first air zone and the second air zone are in a high threshold state, that is, the first number of people in the first air zone is greater than the preset first number threshold, and the second number of people in the second air zone is greater than the preset second number threshold, at this time, the number of people in the wind radiation area corresponding to the air outlet is relatively large. Based on this, a first human body recognition result is generated.

[0094] Generate a first adjustment instruction for the wind deflector adjustment based on the first human body recognition result. Since the first human body recognition result indicates that the number of people in the wind radiation area corresponding to the air outlet is large, in order to ensure the user's experience and prevent the wind from blowing directly at the user, the first adjustment instruction controls the wind deflector corresponding to the air outlet to turn on the oscillating mode or controls the wind deflector to close.

[0095] When there are multiple air outlet components, if the two wind areas of each air outlet component are in the aforementioned high threshold state, that is, the number of people corresponding to the two wind areas of the air outlet of each air outlet component is relatively large, in order to ensure the air outlet capacity of the air conditioner, it is not possible to close all the air outlet components at the same time. Therefore, in order to balance the contradiction between the air outlet volume and avoiding the crowd direction, the present invention makes the following improvements.

[0096] In some embodiments, the air outlet components of the top-mounted air conditioner include a first air outlet component, a second air outlet component, a third air outlet component, and a fourth air outlet component arranged in sequence, and the extending directions of the air outlets of each air outlet component form a quadrilateral structure;

[0097] In the case where each group of air outlet components generates the first human body recognition result, the first adjustment instruction is used to control the wind deflectors of the first air outlet component and the third air outlet component to turn on the oscillating mode, and is used to control the wind deflectors of the second air outlet component and the fourth air outlet component to close. That is to say, when all the air outlet components generate the first human body recognition result, two of the four groups of air outlet components are in the oscillating mode, and the other two are in the wind deflector closed mode. It is also possible to make all four groups of air outlet components be in the oscillating mode.

[0098] Take Figure 2 the top-mounted air conditioner shown as an example. For convenience of description, the four groups of air outlet components are named the first air outlet component, the second air outlet component, the third air outlet component, and the fourth air outlet component counterclockwise in sequence, and the extending directions of the air outlets of the four groups of air outlet components form a quadrilateral structure. That is to say, the first air outlet component and the third air outlet component are arranged opposite to each other, and the second air outlet component and the fourth air outlet component are arranged opposite to each other. The wind radiation areas of the two relatively arranged air outlet components do not overlap. In this embodiment, for the priority closing order of the air outlets, "the first air outlet > the third air outlet > the second air outlet > the fourth air outlet" is executed. At the same time, in order to ensure the normal function of the air conditioner and not affect the service life and energy efficiency of the air conditioner, when the number of people under the air conditioner is large, at most 2 air outlets can be closed at the same time.

[0099] Further, after the first adjustment instruction controls the wind deflectors of the first air outlet component and the third air outlet component to turn on the oscillating mode and controls the wind deflectors of the second air outlet component and the fourth air outlet component to close, it further includes:

[0100] Obtain the execution duration of the first adjustment instruction;

[0101] When the execution duration reaches a preset duration, generate a mode switching instruction, which is used to control the wind deflectors of the first air outlet component and the third air outlet component to close, and is used to control the wind deflectors of the second air outlet component and the fourth air outlet component to turn on the swinging mode.

[0102] Specifically, when each group of air outlet components generates a first human body recognition result, the generated first adjustment instruction controls the wind deflectors of the first air outlet component and the third air outlet component to turn on the swinging mode, and is used to control the wind deflectors of the second air outlet component and the fourth air outlet component to close. After that, obtain the execution duration of the first adjustment instruction. When the execution duration of the first adjustment instruction reaches the preset duration, generate a mode switching instruction to switch the working modes of the wind deflectors of the first air outlet component and the third air outlet component with the working modes of the wind deflectors of the second air outlet component and the fourth air outlet component, that is, control the wind deflectors of the first air outlet component and the third air outlet component to close, and control the wind deflectors of the second air outlet component and the fourth air outlet component to turn on the swinging mode, so as to avoid a single mode, adjust the air outlet positions of closing and swinging, and improve the air outlet uniformity.

[0103] When each group of air outlet components generates a first human body recognition result, based on the above embodiments, the present invention provides an example of completing one control using the above air conditioner wind deflector control method. The air outlet components of the top-mounted air conditioner involved in this embodiment are four groups, and each group of air outlet components circumferentially encloses a quadrilateral structure.

[0104] For convenience of description, based on Figure 2 , each group of air outlet components is respectively called: front air outlet component, rear air outlet component, left air outlet component, and right air outlet component according to the orientation. The corresponding air outlets are respectively called: front air outlet, rear air outlet, left air outlet, and right air outlet. The corresponding wind deflectors are respectively called: front plate, rear plate, left plate, and right plate. The 8 wind zones corresponding to the 4 air outlets are called "front far, front near, rear far, rear near, left far, left near, right far, right near". For the priority closing order of the air outlets, execute "front > rear > left > right".

[0105] As Figure 6 shown, the present invention is implemented through the technical solutions described in the following steps S1 to S5.

[0106] S1: Obtain the first human body information of the first wind zone and the second human body information of the second wind zone corresponding to the four air outlets of the top-mounted air conditioner;

[0107] S2: Obtain the number of people in the first wind area based on the first human body information of each air outlet, and obtain the number of people in the second wind area based on the second human body information.

[0108] S3: Compare the first human body information of each air outlet with a preset first number threshold to determine the high and low threshold states of the first wind area; compare the second human body information of each air outlet with a preset second number threshold to determine the high and low threshold states of the second wind area; represent the high threshold state as "1" and the low threshold state as "0".

[0109] S4: If the high and low threshold states of the two wind areas of the front air outlet, rear air outlet, left air outlet, and right air outlet are all 1, generate a first human body recognition result; the first human body recognition result means that the number of people in the wind area corresponding to the air outlet is greater than the threshold, so it is represented as "full of people" in the figure.

[0110] S5: Generate a first adjustment instruction to control the front panel and rear panel to start the swing mode, close the left panel and right panel, after executing for 15 minutes, control the front panel and rear panel to close, then the front panel and rear panel start the swing mode again, and execute for another 15 minutes, cycling alternately. It is also possible to make the front panel, rear panel, left panel, and right panel all start the swing mode.

[0111] In some usage scenarios, when two of the air outlet components generate a first human body recognition result; if the two air outlet components are adjacent, the generated first adjustment instruction controls the wind deflector of the air outlet component with a prior closing order to close first, and after the wind deflector of the other air outlet component starts the swing mode, obtain the execution duration of the first adjustment instruction. When the execution duration of the first adjustment instruction reaches the preset duration, generate a mode swap instruction to swap the working modes of the wind deflectors of the air outlet component with a prior closing order and the wind deflector of the other air outlet component, that is, control the wind deflector of the air outlet component with a prior closing order to start the swing mode and control the wind deflector of the other air outlet component to close. Among them, the preset duration is preset according to the working power of the air conditioner.

[0112] If the two air outlet components are opposite to each other, the generated first adjustment instruction controls the wind deflectors of the two air outlet components to close.

[0113] In the case where two of the air outlet components generate a first human body recognition result, based on the above embodiments, the present invention provides an example of completing one control using the above air conditioner wind deflector control method. The air outlet components of the top-mounted air conditioner involved in this embodiment are four groups, and the air outlet components are circumferentially surrounded to form a quadrilateral structure.

[0114] For ease of description, based on Figure 2, each air outlet component is respectively called according to its orientation: the front air outlet component, the rear air outlet component, the left air outlet component, and the right air outlet component. The corresponding air outlets are respectively called: the front air outlet, the rear air outlet, the left air outlet, and the right air outlet. The corresponding wind deflectors are respectively called: the front plate, the rear plate, the left plate, and the right plate. The 8 wind zones corresponding to the 4 air outlets are called "front far, front near, rear far, rear near, left far, left near, right far, right near". For the priority closing order of the air outlets, "front > rear > left > right" is executed. As Figures 7 - 12 shown, the present invention is implemented through the technical solutions described in the following steps S1 to S5.

[0115] S1: Obtain the first human body information of the first wind zone and the second human body information of the second wind zone corresponding to the four air outlets of the top-mounted air conditioner;

[0116] S2: Obtain the first number of people in the first wind zone according to the first human body information of each air outlet, and obtain the second number of people in the second wind zone according to the second human body information.

[0117] S3: Compare the first human body information of each air outlet with a preset first number threshold to determine the high and low threshold states of the first wind zone; compare the second human body information of each air outlet with a preset second number threshold to determine the high and low threshold states of the second wind zone; represent the high threshold state as "1" and the low threshold state as "0";

[0118] S4: Based on the high and low threshold states of the first wind zone and the high and low threshold states of the second wind zone, obtain the human body recognition result; if the high and low threshold states of the two wind zones of each air outlet are both 1, generate the first human body recognition result; otherwise, it is not the first human body recognition result; the first human body recognition result means that the number of people in the wind zone corresponding to the air outlet is greater than the threshold, so it is represented as "full of people" in the figure; similarly, the non-first human body recognition result is represented as "not full of people" in the figure;

[0119] S51: If the front air outlet and the rear air outlet are the first human body recognition results, and the left air outlet and the right air outlet are not the first human body recognition results; generate the first adjustment instruction to control the front plate and the rear plate to close; as Figure 7 shown;

[0120] S52: If the front air outlet and the left air outlet are the first human body recognition results, and the rear air outlet and the right air outlet are not the first human body recognition results; generate the first adjustment instruction to first control the front plate to close, and the left plate to start the swinging mode for 15 minutes; then control the front plate to start the swinging mode and the left plate to close, and then execute for another 15 minutes, and cycle alternately; as Figure 8 shown;

[0121] S53: If the front air outlet and the right air outlet are the first human body recognition results, and the rear air outlet and the left air outlet are not the first human body recognition results; generate a first adjustment instruction to first control the front panel to close and the right panel to start the swing mode for 15 minutes; then control the front panel to start the swing mode and the right panel to close, and then execute for another 15 minutes; as Figure 9 shown;

[0122] S54: If the rear air outlet and the right air outlet are the first human body recognition results, and the front air outlet and the left air outlet are not the first human body recognition results; generate a first adjustment instruction to first control the rear panel to close and the right panel to start the swing mode for 15 minutes; then control the rear panel to start the swing mode and the right panel to close, and then execute for another 15 minutes, and cycle alternately; as Figure 10 shown;

[0123] S55: If the rear air outlet and the left air outlet are the first human body recognition results, and the front air outlet and the right air outlet are not the first human body recognition results; generate a first adjustment instruction to first control the rear panel to close and the left panel to start the swing mode for 15 minutes; then control the rear panel to start the swing mode and the left panel to close, and then execute for another 15 minutes; as Figure 11 shown;

[0124] S56: If the left air outlet and the right air outlet are the first human body recognition results, and the front air outlet and the rear air outlet are not the first human body recognition results; generate a first adjustment instruction to control the left panel and the right panel to close; as Figure 12 shown.

[0125] In some usage scenarios, when only one set of air outlet components generates the first human body recognition result; the generated first adjustment instruction controls the wind deflector of this air outlet component to close, and the wind deflectors of the other three sets of air outlet components start the swing mode. In the case where only one set of air outlet components generates the first human body recognition result, based on the above embodiments, the present invention provides an example of completing one control using the above air conditioner wind deflector control method. The air outlet components of the top-mounted air conditioner involved in this embodiment are four groups, and the air outlet components surround a quadrilateral structure circumferentially.

[0126] For convenience of description, based on Figure 2 , the air outlet components are respectively called: the front air outlet component, the rear air outlet component, the left air outlet component, and the right air outlet component according to their orientations. The corresponding air outlets are respectively called: the front air outlet, the rear air outlet, the left air outlet, and the right air outlet. The corresponding wind deflectors are respectively called: the front panel, the rear panel, the left panel, and the right panel. The 8 wind zones corresponding to the 4 air outlets are called "front far, front near, rear far, rear near, left far, left near, right far, right near". For the priority closing order of the air outlets, execute "front > rear > left > right". As Figures 13 - 16 shown, the present invention is implemented through the technical solutions described in the following steps S1 to S5.

[0127] S1: Obtain the first human body information of the first wind area corresponding to the four air outlets of the top-mounted air conditioner and the second human body information of the second wind area;

[0128] S2: Obtain the first number of people in the first wind area based on the first human body information of each air outlet, and obtain the second number of people in the second wind area based on the second human body information;

[0129] S3: Compare the first human body information of each air outlet with a preset first number threshold of people to determine the high and low threshold status of the first wind area; compare the second human body information of each air outlet with a preset second number threshold of people to determine the high and low threshold status of the second wind area; represent the high threshold status as "1" and the low threshold status as "0";

[0130] S4: Obtain the human body recognition result based on the high and low threshold status of the first wind area and the high and low threshold status of the second wind area; if the high and low threshold status of the two wind areas of each air outlet are both 1, generate the first human body recognition result; otherwise, it is not the first human body recognition result; the first human body recognition result means that the number of people in the wind area corresponding to the air outlet is greater than the threshold, so it is represented as "fully occupied" in the figure; similarly, the non-first human body recognition result is represented as "not fully occupied" in the figure;

[0131] S51: If the front air outlet is the first human body recognition result, and the rear air outlet, left air outlet, and right air outlet are not the first human body recognition results; generate the first adjustment instruction to control the front panel to close and the rear panel, left panel, and right panel to start the oscillating mode; as Figure 13 shown;

[0132] S52: If the rear air outlet is the first human body recognition result, and the front air outlet, left air outlet, and right air outlet are not the first human body recognition results; generate the first adjustment instruction to control the rear panel to close and the front panel, left panel, and right panel to start the oscillating mode; as Figure 14 shown;

[0133] S53: If the left air outlet is the first human body recognition result, and the front air outlet, rear air outlet, and right air outlet are not the first human body recognition results; generate the first adjustment instruction to control the left panel to close and the front panel, rear panel, and right panel to start the oscillating mode; as Figure 15 shown;

[0134] S54: If the right air outlet is the first human body recognition result, and the front air outlet, rear air outlet, and left air outlet are not the first human body recognition results; generate the first adjustment instruction to control the right panel to close and the front panel, rear panel, and left panel to start the oscillating mode; as Figure 16 shown.

[0135] When the first human body recognition results are generated by three of the air outlet components; the generated first adjustment instruction controls the wind deflectors of the three air outlet components to turn on the swing mode. It can also be understood that when not all of the air outlet components generate the first human body recognition results, each air outlet component generates an independent control instruction according to its respective recognition result, and then the wind deflectors of each group of air outlet components can operate independently according to their respective modes. When the first human body recognition results are generated by three of the air outlet components, based on the above embodiments, the present invention provides an example of completing one control using the above air conditioner wind deflector control method. The air outlet components of the top-mounted air conditioner involved in this embodiment are four groups, and the air outlet components are circumferentially surrounded to form a quadrilateral structure. For convenience of description, based on Figure 2 , the air outlet components are respectively called: front air outlet component, rear air outlet component, left air outlet component, and right air outlet component according to their orientations. The corresponding air outlets are respectively called: front air outlet, rear air outlet, left air outlet, and right air outlet. The corresponding wind deflectors are respectively called: front plate, rear plate, left plate, and right plate. The 8 wind zones corresponding to the 4 air outlets are called "front far, front near, rear far, rear near, left far, left near, right far, right near". For the priority closing order of the air outlets, execute "front > rear > left > right". As Figures 17 - 20 shown, the present invention is implemented through the technical solutions described in the following steps S1 to S5.

[0136] S1: Obtain the first human body information of the first wind zone and the second human body information of the second wind zone corresponding to the four air outlets of the top-mounted air conditioner;

[0137] S2: Obtain the first number of people in the first wind zone according to the first human body information of each air outlet, and obtain the second number of people in the second wind zone according to the second human body information;

[0138] S3: Compare the first human body information of each air outlet with a preset first number threshold to determine the high and low threshold states of the first wind zone; compare the second human body information of each air outlet with a preset second number threshold to determine the high and low threshold states of the second wind zone; represent the high threshold state as "1" and the low threshold state as "0";

[0139] S4: Based on the high and low threshold states of the first wind zone and the high and low threshold states of the second wind zone, obtain the human body recognition result; if the high and low threshold states of the two wind zones of each air outlet are both 1, generate the first human body recognition result; otherwise, it is not the first human body recognition result; the first human body recognition result means that the number of people in the wind zone corresponding to the air outlet is greater than the threshold, so it is represented as "full of people" in the figure; similarly, the non-first human body recognition result is represented as "not full of people" in the figure;

[0140] S51: If the front air outlet, the rear air outlet, and the right air outlet are the first human body recognition results, and the left air outlet is not the first human body recognition result; generate a first adjustment instruction to control the front panel, the rear panel, and the right panel to turn on the oscillating mode; as Figure 17 shown;

[0141] S52: If the front air outlet, the rear air outlet, and the left air outlet are the first human body recognition results, and the right air outlet is not the first human body recognition result; generate a first adjustment instruction to control the front panel, the rear panel, and the left panel to turn on the oscillating mode; as Figure 18 shown;

[0142] S53: If the front air outlet, the left air outlet, and the right air outlet are the first human body recognition results, and the rear air outlet is not the first human body recognition result; generate a first adjustment instruction to control the front panel, the left panel, and the right panel to turn on the oscillating mode; as Figure 19 shown;

[0143] S54: If the rear air outlet, the left air outlet, and the right air outlet are the first human body recognition results, and the front air outlet is not the first human body recognition result; generate a first adjustment instruction to control the rear panel, the left panel, and the right panel to turn on the oscillating mode; as Figure 20 shown.

[0144] In some embodiments, the human body recognition result includes a second human body recognition result; obtaining the human body recognition result based on the first human body information and the second human body information specifically includes:

[0145] Generate a second human body recognition result when the first human body information is a high threshold and the second human body information is a low threshold;

[0146] In the case of generating the second human body recognition result, the windshield adjustment instruction includes a second adjustment instruction, and a windshield adjustment instruction is generated according to the human body recognition result. The windshield adjustment instruction is used to adjust the working state of the windshield according to the human body recognition result, and specifically includes:

[0147] The second adjustment instruction is used to control the windshield to swing to a preset angle according to the second human body recognition result, so that the air outlet direction through the air outlet faces the second wind area.

[0148] Specifically, when the first human body information is a high threshold and the second human body information is a low threshold, that is, the number of first personnel in the first wind area is greater than a preset first number threshold, and the number of second personnel in the second wind area is less than a preset second number threshold. At this time, the first wind area is in a high threshold state and the second wind area is in a low threshold state. In the wind radiation area corresponding to the air outlet at this time, the number of personnel in the first wind area is large and the number of personnel in the second wind area is small. Based on this, a second human body recognition result is generated.

[0149] Generate a second adjustment instruction for the windshield adjustment according to the second human body recognition result. To ensure the user experience and prevent the wind from blowing directly at the user, the second adjustment instruction controls the windshield corresponding to the air outlet to swing to a preset angle so that the air outlet direction of the air outlet faces the second wind area.

[0150] In another embodiment of the present invention, when the second human body information is a high threshold and the first human body information is a low threshold, a second human body recognition result is also generated;

[0151] In some usage scenarios, the human body recognition result includes a third human body recognition result; obtaining the human body recognition result based on the first human body information and the second human body information specifically includes:

[0152] When both the first human body information and the second human body information are low thresholds, a third human body recognition result is generated;

[0153] When the third human body recognition result is generated, the windshield adjustment instruction includes a third adjustment instruction. Generating the windshield adjustment instruction according to the human body recognition result, and the windshield adjustment instruction is used to adjust the working state of the windshield according to the human body recognition result, specifically including:

[0154] The third adjustment instruction is used to control the windshield corresponding to the air outlet to turn on the swing wind mode according to the third human body recognition result.

[0155] Specifically, when both the first human body information and the second human body information are low thresholds, that is, the number of first personnel in the first wind area is less than the preset first number threshold, and the number of second personnel in the second wind area is also less than the preset second number threshold. At this time, the first wind area is in a low threshold state, and the second wind area is also in a low threshold state. In the wind radiation area corresponding to the air outlet at this time, the number of personnel in both the first wind area and the second wind area is small. Based on this, a third human body recognition result is generated.

[0156] Generate a third adjustment instruction for the windshield adjustment according to the third human body recognition result. To ensure the user experience and prevent the wind from blowing directly at the user, the third adjustment instruction controls the windshield corresponding to the air outlet to turn on the swing wind mode. Swing wind can improve the heat exchange efficiency and it is easy to observe that there is no "person" in this wind area that needs to be avoided.

[0157] Based on the above embodiments, the present invention provides an example of completing one control using the above air conditioner windshield control method. The air outlet components of the top-mounted air conditioner involved in this embodiment are four groups, and the air outlet components are circumferentially surrounded to form a quadrilateral structure.

[0158] For ease of description, based on Figure 2, each air outlet component is respectively called according to its orientation: the front air outlet component, the rear air outlet component, the left air outlet component, and the right air outlet component. The corresponding air outlets are respectively called: the front air outlet, the rear air outlet, the left air outlet, and the right air outlet. The corresponding wind deflectors are respectively called: the front plate, the rear plate, the left plate, and the right plate. The 8 wind zones corresponding to the 4 air outlets are called "front far, front near, rear far, rear near, left far, left near, right far, right near". For the priority closing order of the air outlets, execute "front > rear > left > right". As Figures 14 - 22 shown, the present invention is implemented through the technical solutions described in the following steps S1 to S5.

[0159] S1: Obtain the first human body information of the first wind zone and the second human body information of the second wind zone corresponding to the four air outlets of the top-mounted air conditioner;

[0160] S2: Obtain the first number of people in the first wind zone according to the first human body information of each air outlet, and obtain the second number of people in the second wind zone according to the second human body information.

[0161] S3: Compare the first human body information of each air outlet with a preset first number threshold to determine the high and low threshold states of the first wind zone; compare the second human body information of each air outlet with a preset second number threshold to determine the high and low threshold states of the second wind zone; represent the high threshold state as "1" and the low threshold state as "0";

[0162] S4: Based on the high and low threshold states of the first wind zone and the high and low threshold states of the second wind zone, obtain the human body recognition result; if the high and low threshold states of the two wind zones of each air outlet are both 1, generate the first human body recognition result; if the high and low threshold state of one wind zone of the air outlet is 1 and the high and low threshold state of the other wind zone is 0, generate the second human body recognition result; if the high and low threshold states of the two wind zones of each air outlet are both 0, generate the third human body recognition result; the first human body recognition result means that the number of people in the wind zone corresponding to the air outlet is greater than the threshold, so it is represented as "full of people" in the figure; similarly, the second human body recognition result and the third human body recognition result are represented as "not full of people" in the figure;

[0163] As Figure 21 shown;

[0164] S511: If the front far is 1 and the front near is 0, generate the second human body recognition result; generate the second adjustment instruction according to the human body recognition result, and control the front plate to blow near;

[0165] S512: If the front far is 0 and the front near is 0, generate the third human body recognition result; generate the third adjustment instruction according to the human body recognition result, and control the front plate to turn on the swing mode;

[0166] S513: If the front far is 0 and the front near is 1, generate a second human body recognition result; generate a second adjustment instruction according to the human body recognition result to control the front panel to blow far;

[0167] S514: If the front far is 1 and the front near is 1, generate a first human body recognition result;

[0168] S515: If the rear far is 1 and the rear near is 0, generate a second human body recognition result; generate a second adjustment instruction according to the human body recognition result to control the rear panel to blow near;

[0169] S516: If the rear far is 0 and the rear near is 0, generate a third human body recognition result; generate a third adjustment instruction according to the human body recognition result to control the rear panel to turn on the swing mode;

[0170] S517: If the rear far is 0 and the rear near is 1, generate a second human body recognition result; generate a second adjustment instruction according to the human body recognition result to control the rear panel to blow far;

[0171] S518: If the rear far is 1 and the rear near is 1, generate a first human body recognition result;

[0172] As Figure 22 shown;

[0173] S521: If the left far is 1 and the left near is 0, generate a second human body recognition result; generate a second adjustment instruction according to the human body recognition result to control the left panel to blow near;

[0174] S522: If the left far is 0 and the left near is 0, generate a third human body recognition result; generate a third adjustment instruction according to the human body recognition result to control the left panel to turn on the swing mode;

[0175] S523: If the left far is 0 and the left near is 1, generate a second human body recognition result; generate a second adjustment instruction according to the human body recognition result to control the left panel to blow far;

[0176] S524: If the left far is 1 and the left near is 1, generate a first human body recognition result;

[0177] S525: If the right far is 1 and the right near is 0, generate a second human body recognition result; generate a second adjustment instruction according to the human body recognition result to control the right panel to blow near;

[0178] S526: If the right far is 0 and the right near is 0, generate a third human body recognition result; generate a third adjustment instruction according to the human body recognition result to control the right panel to turn on the swing mode;

[0179] S527: If the right far is 0 and the right near is 1, generate a second human body recognition result; generate a second adjustment instruction according to the human body recognition result to control the right panel to blow far;

[0180] S528: If the right far is 1 and the right near is 1, generate the first human body recognition result.

[0181] In the above specific implementation manner, for the air conditioner air deflector control method provided by the present invention, by obtaining the first human body information of the first air zone corresponding to the air outlet of the top-mounted air conditioner and the second human body information of the second air zone; based on the first human body information and the second human body information, obtain a human body recognition result; generate an air deflector adjustment instruction according to the human body recognition result, and the air deflector adjustment instruction is used to adjust the working state of the air deflector according to the human body recognition result. The present invention obtains a human body recognition result by recognizing the human body information of the corresponding air zone, and then generates an air deflector adjustment instruction according to the human body recognition result to adjust the working state of the air deflector, so that the blowing direction is associated with the position where the person is located, avoiding the direct blowing of the air conditioner on the human body, realizing the effect of the air conditioner not blowing on people, thereby improving the comfort of using the air conditioner.

[0182] The following describes the air conditioner air deflector control device provided by the present invention. The air conditioner air deflector control device described below can be correspondingly referred to the air conditioner air deflector control method described above.

[0183] Figure 23 is a schematic structural diagram of the air conditioner air deflector control device provided by the present invention, as Figure 23 shown, an embodiment of the present invention provides an air conditioner air deflector control device, including: an information acquisition module 2310; a result recognition module 2320; an instruction generation and adjustment module 2330;

[0184] The information acquisition module 2310 is used to obtain the first human body information of the first air zone corresponding to the air outlet of the top-mounted air conditioner and the second human body information of the second air zone;

[0185] The result recognition module 2320 is used to obtain a human body recognition result based on the first human body information and the second human body information;

[0186] The instruction generation and adjustment module 2330 is used to generate an air deflector adjustment instruction according to the human body recognition result, and the air deflector adjustment instruction is used to adjust the working state of the air deflector according to the human body recognition result.

[0187] Based on the above embodiment, in this device, obtaining a human body recognition result based on the first human body information and the second human body information specifically includes:

[0188] Obtain the first number of people in the first air zone according to the first human body information, and obtain the second number of people in the second air zone according to the second human body information;

[0189] In the case where the first number of people is greater than a preset first number threshold, determine that the first air zone is in a high threshold state;

[0190] When the number of the first personnel is less than the first personnel number threshold, it is determined that the first wind area is in a low threshold state;

[0191] When the number of the second personnel is greater than the preset second personnel number threshold, it is determined that the second wind area is in a high threshold state;

[0192] When the number of the second personnel is less than the second personnel number threshold, it is determined that the second wind area is in a low threshold state;

[0193] Based on the high and low threshold states of the first wind area and the high and low threshold states of the second wind area, the human body recognition result is obtained.

[0194] Based on the above embodiments, in the device, the human body recognition result includes a first human body recognition result; based on the first human body information and the second human body information, obtaining the human body recognition result specifically includes:

[0195] When both the first wind area and the second wind area are in a high threshold state, a first human body recognition result is generated;

[0196] When the first human body recognition result is generated, the windshield adjustment instruction includes a first adjustment instruction, and the windshield adjustment instruction is generated according to the human body recognition result. The windshield adjustment instruction is used to adjust the working state of the windshield according to the human body recognition result, and specifically includes:

[0197] The first adjustment instruction is used to control the windshield of the first air outlet component to start the swing mode or control the windshield to close according to the first human body recognition result.

[0198] Based on the above embodiments, in the device, the air outlet component of the top-mounted air conditioner includes a first air outlet component, a second air outlet component, a third air outlet component, and a fourth air outlet component arranged in sequence, and the extending directions of the air outlets of each air outlet component enclose a quadrilateral structure;

[0199] When each group of the air outlet components generates the first human body recognition result, the first adjustment instruction is used to control the windshields of the first air outlet component and the third air outlet component to start the swing mode, and is used to control the windshields of the second air outlet component and the fourth air outlet component to close.

[0200] Based on the above embodiments, in the device, after the first adjustment instruction controls the windshields of the first air outlet component and the third air outlet component to start the swing mode and controls the windshields of the second air outlet component and the fourth air outlet component to close, it further includes:

[0201] Obtain the execution duration of the first adjustment instruction;

[0202] When the execution duration reaches a preset duration, a mode switching instruction is generated. The mode switching instruction is used to control the wind deflector of the first air outlet component and the wind deflector of the third air outlet component to close, and is used to control the wind deflector of the second air outlet component and the wind deflector of the fourth air outlet component to turn on the swing mode.

[0203] Based on the above embodiment, in this device, the human body recognition result includes a second human body recognition result; obtaining the human body recognition result based on the first human body information and the second human body information specifically includes:

[0204] When the first human body information is a high threshold and the second human body information is a low threshold, a second human body recognition result is generated;

[0205] When the second human body recognition result is generated, the wind deflector adjustment instruction includes a second adjustment instruction. Generating a wind deflector adjustment instruction according to the human body recognition result, the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result, specifically including:

[0206] The second adjustment instruction is used to control the wind deflector to swing to a preset angle according to the second human body recognition result, so that the air outlet direction through the air outlet faces the second wind area.

[0207] Based on the above embodiment, in this device, the human body recognition result includes a third human body recognition result; obtaining the human body recognition result based on the first human body information and the second human body information specifically includes:

[0208] When both the first human body information and the second human body information are low thresholds, a third human body recognition result is generated;

[0209] When the third human body recognition result is generated, the wind deflector adjustment instruction includes a third adjustment instruction. Generating a wind deflector adjustment instruction according to the human body recognition result, the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result, specifically including:

[0210] The third adjustment instruction is used to control the wind deflector to turn on the swing mode according to the third human body recognition result.

[0211] In the above specific embodiments, the air-conditioning wind deflector control device provided by the present invention obtains the first human body information of the first wind area corresponding to the air outlet of the top-mounted air conditioner and the second human body information of the second wind area; based on the first human body information and the second human body information, a human body recognition result is obtained; a wind deflector adjustment instruction is generated according to the human body recognition result, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result. The present invention obtains a human body recognition result by recognizing the human body information of the corresponding wind area, and then generates a wind deflector adjustment instruction according to the human body recognition result to adjust the working state of the wind deflector, so that the blowing direction is associated with the position where the person is located, avoiding the direct blowing of the air conditioner on the human body, achieving the effect of the air conditioner not blowing on people, and thus improving the comfort of using the air conditioner.

[0212] The device embodiments described above are merely illustrative. The units described as separate components may or may not be physically separated, and the components shown as units may or may not be physical units, that is, they may be located in one place or distributed to multiple network units. Some or all of the modules can be selected according to actual needs to achieve the purpose of the solution of this embodiment. Those of ordinary skill in the art can understand and implement it without creative labor.

[0213] Through the description of the above embodiments, those skilled in the art can clearly understand that each embodiment can be implemented by means of software plus a necessary general hardware platform, and of course, it can also be implemented by hardware. Based on such an understanding, the essence of the above technical solution, or the part that contributes to the prior art, can be embodied in the form of a software product. The computer software product can be stored in a computer-readable storage medium, such as ROM / RAM, magnetic disk, optical disk, etc., including several instructions for causing a computer device (which can be a personal computer, a server, or a network device, etc.) to execute the methods described in each embodiment or some parts of the embodiments.

[0214] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit them; although the present invention has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that they can still modify the technical solutions recorded in the foregoing embodiments, or perform equivalent replacements for some of the technical features; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A top-mounted air conditioner, characterized in that, Comprising: An air outlet component, the air outlet component includes an air outlet and a wind deflector swingably installed at the air outlet. The wind radiation area of the air outlet is divided into a first wind area and a second wind area. For the wind radiation area of each air outlet, it is divided into a first wind area and a second wind area according to the distance from the air outlet, corresponding to the near wind area and the far wind area respectively; A biometric device, the biometric device is used to obtain the first human body information of the first wind area and the second human body information of the second wind area respectively to obtain a human body recognition result; A controller, the controller is used to generate a wind deflector adjustment instruction according to the human body recognition result, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result; The human body recognition result includes a first human body recognition result, and the first human body recognition result indicates that the number of people in the first wind area and the second wind area is greater than the corresponding threshold, and the first human body recognition result indicates that the number of people in both the first wind area and the second wind area is relatively large; In the case of generating the first human body recognition result, the wind deflector adjustment instruction includes a first adjustment instruction, and the first adjustment instruction is used to control the wind deflector to turn on the swing wind mode or control the wind deflector to close according to the first human body recognition result; The air outlet component includes a first air outlet component, a second air outlet component, a third air outlet component, and a fourth air outlet component arranged in sequence, and the extending directions of the air outlets of each air outlet component enclose a quadrilateral structure; In the case where the first human body recognition result is generated by each group of air outlet components, the first adjustment instruction is used to control the wind deflectors of the first air outlet component and the third air outlet component to turn on the swing wind mode, and is used to control the wind deflectors of the second air outlet component and the fourth air outlet component to close; After the first adjustment instruction controls the wind deflectors of the first air outlet component and the third air outlet component to turn on the swing wind mode and controls the wind deflectors of the second air outlet component and the fourth air outlet component to close, it further includes: Obtaining the execution duration of the first adjustment instruction; In the case where the execution duration reaches a preset duration, a mode interchange instruction is generated. The mode interchange instruction is used to control the wind deflectors of the first air outlet component and the third air outlet component to close, and is used to control the wind deflectors of the second air outlet component and the fourth air outlet component to turn on the swing wind mode; When two groups of air outlet components generate the first human body recognition result; If two air outlet components are adjacent, the generated first adjustment instruction controls the wind deflector of the air outlet component with a prior shutdown order to close first. After the wind deflector of the other air outlet component is opened to the swing mode, obtain the execution duration of the first adjustment instruction. When the execution duration of the first adjustment instruction reaches a preset duration, generate a mode swap instruction to swap the working modes of the wind deflectors of the air outlet component with a prior shutdown order and the other air outlet component, so as to control the wind deflector of the air outlet component with a prior shutdown order to open to the swing mode and control the wind deflector of the other air outlet component to close; wherein, the preset duration is preset according to the working power of the air conditioner.

2. The top-mounted air conditioner according to claim 1, characterized in that, There are four air outlet components, and the air outlet components surround a quadrilateral structure circumferentially.

3. An air conditioner air deflector control method, based on the top-mounted air conditioner according to claim 1 or 2, characterized in that, The method includes: Obtain the first human body information of the first wind area corresponding to the air outlet of the top-mounted air conditioner and the second human body information of the second wind area. Based on the first human body information and the second human body information, obtain a human body recognition result. Generate a wind deflector adjustment instruction according to the human body recognition result, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result. The human body recognition result includes a first human body recognition result, and the first human body recognition result indicates that the number of people in the first wind area and the second wind area is greater than the corresponding threshold, and the first human body recognition result indicates that the number of people in both the first wind area and the second wind area is relatively large. When generating the first human body recognition result, the wind deflector adjustment instruction includes a first adjustment instruction. Generating a wind deflector adjustment instruction according to the human body recognition result, and the wind deflector adjustment instruction is used to adjust the working state of the wind deflector according to the human body recognition result, specifically including: The first adjustment instruction is used to control the wind deflector to open to the swing mode or control the wind deflector to close according to the first human body recognition result. The air outlet components of the top-mounted air conditioner include a first air outlet component, a second air outlet component, a third air outlet component, and a fourth air outlet component arranged in sequence, and the extending directions of the air outlets of the air outlet components surround a quadrilateral structure. When the first human body recognition result is generated for each air outlet component, the first adjustment instruction is used to control the wind deflectors of the first air outlet component and the third air outlet component to open to the swing mode, and is used to control the wind deflectors of the second air outlet component and the fourth air outlet component to close. The first adjustment instruction controls the wind deflectors of the first air outlet component and the third air outlet component to open to the swing mode, and controls the wind deflectors of the second air outlet component and the fourth air outlet component to close. After that, it further includes: Obtain the execution duration of the first adjustment instruction. When the execution duration reaches the preset duration, generate a mode swap instruction, and the mode swap instruction is used to control the wind deflectors of the first air outlet component and the third air outlet component to close, and is used to control the wind deflectors of the second air outlet component and the fourth air outlet component to open to the swing mode. When the first human body recognition result is generated for two of the air outlet components; If two air outlet components are adjacent, the generated first adjustment instruction controls the wind deflector of the air outlet component with a prior closing order to close first. After the wind deflector of the other air outlet component is opened to the swing mode, the execution duration of the first adjustment instruction is obtained. When the execution duration of the first adjustment instruction reaches a preset duration, a mode swapping instruction is generated to swap the working modes of the wind deflectors of the air outlet component with a prior closing order and the other air outlet component, so as to control the wind deflector of the air outlet component with a prior closing order to open to the swing mode and control the wind deflector of the other air outlet component to close; wherein, the preset duration is preset according to the working power of the air conditioner.

4. The air conditioner air deflector control method according to claim 3, characterized in that, Based on the first human body information and the second human body information, a human body recognition result is obtained, specifically including: Obtaining the number of first persons in the first wind area according to the first human body information, and obtaining the number of second persons in the second wind area according to the second human body information; When the number of first persons is greater than a preset first person threshold, it is determined that the first wind area is in a high threshold state; When the number of first persons is less than the first person threshold, it is determined that the first wind area is in a low threshold state; When the number of second persons is greater than a preset second person threshold, it is determined that the second wind area is in a high threshold state; When the number of second persons is less than the second person threshold, it is determined that the second wind area is in a low threshold state; Based on the high and low threshold states of the first wind area and the high and low threshold states of the second wind area, the human body recognition result is obtained.

5. The air conditioner wind deflector control method according to claim 4, wherein Based on the first human body information and the second human body information, a human body recognition result is obtained, specifically including: When both the first wind area and the second wind area are in a high threshold state, a first human body recognition result is generated.

6. The air conditioner wind deflector control method according to claim 4, wherein The human body recognition result includes a second human body recognition result; based on the first human body information and the second human body information, a human body recognition result is obtained, specifically including: When the first human body information is a high threshold and the second human body information is a low threshold, a second human body recognition result is generated; When the second human body recognition result is generated, the wind deflector adjustment instruction includes a second adjustment instruction. The wind deflector adjustment instruction is generated according to the human body recognition result and is used to adjust the working state of the wind deflector according to the human body recognition result, specifically including: The second adjustment instruction is used to control the wind deflector to swing to a preset angle according to the second human body recognition result, so that the air outlet direction through the air outlet faces the second wind area.

7. The air conditioner wind deflector control method according to claim 4, wherein The human body recognition result includes a third human body recognition result; based on the first human body information and the second human body information, a human body recognition result is obtained, specifically including: When both the first human body information and the second human body information are low thresholds, a third human body recognition result is generated; When generating the third human body recognition result, the windshield adjustment instruction includes a third adjustment instruction. The windshield adjustment instruction is generated according to the human body recognition result, and is used to adjust the working state of the windshield according to the human body recognition result, specifically including: The third adjustment instruction is used to control the windshield to turn on the swinging mode according to the third human body recognition result.

8. An air conditioner wind deflector control device, wherein The device includes: An information acquisition module, configured to acquire first human body information of a first wind area corresponding to an air outlet of a top-mounted air conditioner and second human body information of a second wind area; A result recognition module, configured to obtain a human body recognition result based on the first human body information and the second human body information; An instruction generation and adjustment module, configured to generate a windshield adjustment instruction according to the human body recognition result, where the windshield adjustment instruction is used to adjust the working state of the windshield according to the human body recognition result; The human body recognition result includes a first human body recognition result, and the first human body recognition result indicates that the number of people in the first wind area and the second wind area is greater than a corresponding threshold, and the first human body recognition result identifies that the number of people in both the first wind area and the second wind area is large; When generating the first human body recognition result, the windshield adjustment instruction includes a first adjustment instruction, and the instruction generation and adjustment module is configured to: The first adjustment instruction is used to control the windshield to turn on the swinging mode or control the windshield to close according to the first human body recognition result; The air outlet assembly of the top-mounted air conditioner includes a first air outlet assembly, a second air outlet assembly, a third air outlet assembly, and a fourth air outlet assembly arranged in sequence, and the extending directions of the air outlets of each air outlet assembly enclose a quadrilateral structure; When each group of the air outlet assemblies generates the first human body recognition result, the first adjustment instruction is used to control the windshields of the first air outlet assembly and the third air outlet assembly to turn on the swinging mode, and is used to control the windshields of the second air outlet assembly and the fourth air outlet assembly to close; After the first adjustment instruction controls the windshields of the first air outlet assembly and the third air outlet assembly to turn on the swinging mode and controls the windshields of the second air outlet assembly and the fourth air outlet assembly to close, the device is further configured to: Obtain the execution duration of the first adjustment instruction; When the execution duration reaches a preset duration, a mode switching instruction is generated. The mode switching instruction is used to control the windshields of the first air outlet assembly and the third air outlet assembly to close, and is used to control the windshields of the second air outlet assembly and the fourth air outlet assembly to turn on the swinging mode; When two groups of the air outlet assemblies generate the first human body recognition result; If two sets of air outlet components are adjacent, the generated first adjustment instruction controls the wind deflector of the air outlet component with the earlier priority closing order to close. After the wind deflector of the other air outlet component starts the swing mode, obtain the execution duration of the first adjustment instruction. When the execution duration of the first adjustment instruction reaches the preset duration, generate a mode swapping instruction to swap the working modes of the wind deflectors of the air outlet component with the earlier priority closing order and the wind deflector of the other air outlet component, so as to control the wind deflector of the air outlet component with the earlier priority closing order to start the swing mode and control the wind deflector of the other air outlet component to close; wherein, the preset duration is preset according to the working power of the air conditioner.

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