An air conditioner air outlet control method, system, storage medium and intelligent terminal

Abstract

The present application relates to an air outlet control method, system, storage medium and intelligent terminal for an air conditioner, belonging to the field of air conditioning equipment, which includes obtaining current weight information; calculating dew condensation weight information; determining current particle size information; obtaining the tilting angle information of the air deflector; determining the falling particle size information; judging whether the current particle size information is greater than the falling particle size information; if it is greater, determining the theoretical tilting angle information; judging whether the theoretical tilting angle information can be successfully matched; if not, adjusting the air deflector to the closed angle information and outputting an alarm information; if so, adjusting the air deflector to the theoretical tilting angle information; if it is less, no adjustment is made. The present application has the effect of making it difficult for dew condensation to fall from the air deflector by rotating the air deflector, thereby improving the efficiency of preventing dew condensation at the air outlet.

Description

Technical Field

[0001] This application relates to the field of air conditioning equipment, and in particular, to an air outlet control method, system, storage medium, and intelligent terminal for an air conditioner. Background Art

[0002] With the improvement of people's living standards, air conditioning equipment has also entered thousands of households, and the use of household air conditioners and central air conditioners is becoming more and more common.

[0003] The central air conditioner air outlet is the terminal device for air supply in the central air conditioner system, which is an air distribution device. The air supply outlet sends the cooled or heated air into the room.

[0004] The following problems exist in the prior art. When the air supply outlet conveys cold air, due to the relatively low air outlet temperature in the initial stage of use, the surface temperature of the air outlet is lower than the dew point temperature of the nearby air, resulting in condensation and dew formation on the inner wall of the air outlet, which is the so-called dew condensation phenomenon. Once the dew condensation phenomenon occurs, with the operation of the air conditioner, water droplets will drip onto the equipment below, damaging the equipment, or onto the user, causing discomfort to the user's body, and there is still room for improvement. Summary of the Invention

[0005] In order to improve the problem that water droplets will drip onto the equipment below, damaging the equipment, or onto the user, causing discomfort to the user's body, this application provides an air outlet control method, system, storage medium, and intelligent terminal for an air conditioner.

[0006] In a first aspect, this application provides an air outlet control method for an air conditioner, adopting the following technical solution:

[0007] An air outlet control method for an air conditioner includes:

[0008] Obtain the current weight information of the air deflector at the air outlet;

[0009] Calculate the dew condensation weight information based on the current weight information and the preset net weight information;

[0010] Perform matching analysis based on the particle size information stored in the preset dew database and the dew condensation weight information to determine the particle size corresponding to the dew condensation weight information, and define this particle size as the current particle size information;

[0011] Obtain the air deflector tilt angle information;

[0012] Perform matching analysis based on the critical particle size information stored in the preset friction database and the air deflector tilt angle information to determine the particle size of the dew condensation that just slides down at the air deflector tilt angle information, and define this particle size as the falling particle size information;

[0013] Determine whether the current particle size information is greater than the falling particle size information;

[0014] If it is greater than, a matching analysis is performed based on the tilt angle information stored in the friction database and the current particle size information to determine the wind deflector tilt angle corresponding to the current particle size information, and the wind deflector tilt angle is defined as the theoretical tilt angle information;

[0015] Determine whether the theoretical tilt angle information can be matched successfully;

[0016] If not, the wind deflector is adjusted to the preset closing angle information and an alarm message is output;

[0017] If so, adjust the air deflector to the theoretical tilt angle information;

[0018] If it is less, no adjustment is made.

[0019] By adopting the above technical solution, the air guide plate is rotated to increase the friction between the condensation and the air guide plate, making it difficult for the condensation to fall from the air guide plate. When the condensation is too large, the air outlet is even directly closed, thereby improving the efficiency of preventing condensation at the air outlet.

[0020] Optionally, if not, the method of adjusting the air deflector to a preset closed angle and outputting an alarm message includes:

[0021] Get current wind strength information;

[0022] Performing a matching analysis based on the mapping relationship stored in a preset falling database and the current particle size information and the current wind strength information to determine a mapping relationship corresponding to the current particle size information and the current wind strength information, defining the mapping relationship as a current mapping relationship, wherein the mapping relationship is a mapping relationship between the falling area information and the wind deflector inclination angle information;

[0023] Get the area occupied by the device below;

[0024] Determine whether there is a current mapping relationship corresponding to the falling area information that does not intersect with the area occupied by the device below;

[0025] If it does not exist, the wind deflector is adjusted to the closed angle information and an alarm message is output;

[0026] If so, the drop area information that does not produce the intersection is defined as optional drop area information, and the current mapping relationship corresponding to the optional drop area information is defined as an optional mapping relationship;

[0027] Analyzing the orientation tilt angle information in the optional mapping relationship, and defining the orientation tilt angle information as optional orientation tilt angle information;

[0028] Adjust the air deflector to the optional orientation tilt angle information and output the optional falling area information by means of light.

[0029] By adopting the above technical solution, since continuously closing the air outlet will still cause the water droplets to be too large and break through, which is not a long-term solution, so by observing whether there is an area where water can fall below and blowing the condensation into this area, the condensation can be discharged without affecting the user and the device, improving the safety of removing condensation at the air outlet; in addition, by using light to remind the user to clean, it has a warning effect and improves the efficiency of removing condensation.

[0030] Optionally, the method of adjusting the air deflector to the optional orientation tilt angle information and outputting the optional falling area information by means of light includes:

[0031] Analyze the temperature information and characteristic information corresponding to the falling area information;

[0032] Perform matching analysis according to the influence degree information and characteristic information stored in the preset influence database to determine the influence degree of the water droplets corresponding to the characteristic information dropping in this area, and define this influence degree as the characteristic influence degree information;

[0033] Filter out the characteristic information with the characteristic influence degree information less than the preset influence working degree information, and define this characteristic information as invalid characteristic information;

[0034] Judge whether the temperature information corresponding to the falling area information corresponding to the invalid characteristic information is greater than the preset evaporation temperature information;

[0035] If it is greater, update this falling area information to the optional falling area information;

[0036] If it is less, determine that this falling area information has an intersection with the occupied area information of the device below.

[0037] By adopting the above technical solution, by considering whether the condensation has an impact, it is possible to more accurately determine whether water droplets can be dripped on the device below, improving the accuracy of determining the falling area; in addition, by considering whether the effective evaporation temperature can be reached below, it is possible to determine whether the dripped water droplets can be evaporated to achieve the purpose of quickly removing condensation, improving the efficiency of removing condensation.

[0038] Optionally, it further includes a method for processing the optional falling area information, and this method includes:

[0039] Obtain the air outlet number information;

[0040] Filter out the air outlet number information corresponding to the air deflector with the condensation weight information equal to 0, define this air outlet number information as the optional air outlet number information, define the current wind force intensity information corresponding to the optional air outlet number information as the optional wind force intensity information, and define the condensation weight information equal to 0 corresponding to the optional air outlet number information as the optional condensation weight information;

[0041] Match and analyze according to the mapping relationship stored in the falling database, the optional wind force intensity information, and the optional condensation weight information to determine the mapping relationship corresponding to the optional wind force intensity information and the optional condensation weight information, and define this mapping relationship as the optional mapping relationship;

[0042] Based on the optional mapping relationship and the optional falling area information, determine the orientation tilt angle information corresponding to the optional air outlet number information, and define this orientation tilt angle information as the blowing angle information;

[0043] Judge whether the blowing angle information exists;

[0044] If it does not exist, no adjustment is made;

[0045] If it exists, define the optional air outlet number information corresponding to the blowing angle information as the blowing air outlet number information, and adjust the air deflector corresponding to the blowing air outlet number information according to the blowing angle information.

[0046] By adopting the above technical solution, blow the area where condensation falls through other air outlets without condensation, so that the water droplets in the condensation falling area are quickly spread out and evaporated, improving the efficiency of removing condensation in the condensation falling area.

[0047] Optionally, it further includes a method for determining the tilt angle information of the air deflector, and this method includes:

[0048] Obtain the single-sided tilt angle information of the preset standard surface;

[0049] Obtain the humidity information on the surface and the air humidity information of the preset standard surface;

[0050] Judge whether the humidity information on the surface is greater than the air humidity information;

[0051] If it is greater than the air humidity information, judge whether the angle corresponding to the single-sided tilt angle information is greater than the preset flat angle;

[0052] If it is greater than the flat angle, rotate the air deflector by the flat angle and output the single-sided tilt angle information as the tilt angle information of the air deflector after rotation;

[0053] If it is less than the flat angle, output the single-sided tilt angle information as the tilt angle information of the air deflector;

[0054] If it is equal to the air humidity information, determine whether the angle corresponding to the single-sided tilt angle information is greater than the preset flat angle;

[0055] If it is greater than the flat angle, output the single-sided tilt angle information as the air deflector tilt angle information;

[0056] If it is less than the flat angle, rotate the air deflector by the flat angle and, after rotation, output the single-sided tilt angle information as the air deflector tilt angle information.

[0057] By adopting the above technical solution, since condensation forms under the air deflector when blowing cold air and condensation forms above the air deflector when blowing hot air, it is determined whether there are water droplets on any surface, so as to determine whether the surface where the water droplets form is upward or downward. Since there is only the tension between the water droplets and the air deflector that causes the water droplets not to fall on the downward surface, and when the water droplets are above the air deflector, it is the frictional force that causes the water droplets not to fall. Relatively speaking, it is easier for the water droplets to fall below. Therefore, the air deflector is rotated to place the water droplets on it, increasing the difficulty of the water droplets falling and improving the adhesion between the water droplets and the air deflector.

[0058] Optionally, it further includes the method of angle adjustment after adjusting the air deflector to the angle after the theoretical tilt angle information when the surface humidity information is greater than the air humidity information and the angle corresponding to the single-sided tilt angle information is greater than the flat angle. The method includes:

[0059] When adjusting the air deflector to the theoretical tilt angle information, define the condensation weight information as the basic condensation weight information;

[0060] Obtain the condensation weight information after the preset interval time information, and define this condensation weight information as the interval condensation weight information;

[0061] Calculate the difference according to the interval condensation weight information and the basic condensation weight information, and define this difference as the increased condensation weight information;

[0062] Perform matching analysis according to the average particle size information stored in the dew database and the increased condensation weight information to determine the particle size corresponding to the increased condensation weight information, and define this particle size as the reverse particle size information;

[0063] Perform matching analysis according to the falling tilt angle information, the reverse particle size information, and the current wind intensity information in the preset falling database to determine the range of the air deflector tilt angle corresponding to the reverse particle size information, and define this range of the air deflector tilt angle as the theoretical reverse tilt angle range information;

[0064] Determine whether the theoretical tilt angle information falls within the theoretical reverse tilt angle range information;

[0065] If not, continue to maintain the theoretical tilt angle information;

[0066] If so, determine the avoidance tilt angle range information greater than the theoretical tilt angle information according to the theoretical tilt angle information and the theoretical reverse tilt angle range information;

[0067] Adjust the air deflector to any angle within the avoidance tilt angle range information and output an alarm message.

[0068] By adopting the above technical solution, when water droplets form below, the water droplets will still form below after rotation, so it is necessary to consider the situation of dripping below, so as to ensure that neither the upper nor the lower surface will drop, improving the safety of the air outlet to prevent condensation from dropping; in addition, since the dripping range below is more likely to expand and there is a risk of dripping at any time, although it will not drip temporarily, it is still necessary to remind the user to clean through an alarm, improving the efficiency of removing condensation.

[0069] Optionally, the method of adjusting the air deflector to any angle within the avoidance tilt angle range information and outputting an alarm message includes:

[0070] Judge whether the reverse particle size information is greater than the current particle size information;

[0071] If it is greater, rotate the air deflector by a flat angle and update the reverse particle size information as the current particle size information, and output the current particle size information as the reverse particle size information;

[0072] If it is not greater, adjust the air deflector to any angle within the avoidance tilt angle range information and output an alarm message.

[0073] By adopting the above technical solution, through the conversion between the two, the condensation below is always the minimum condensation, ensuring that the dripping time is more sluggish, and improving the slowness of condensation dripping.

[0074] In a second aspect, the present application provides an air outlet control system for an air conditioner, adopting the following technical solution:

[0075] An air outlet control system for an air conditioner includes:

[0076] An acquisition module for acquiring current weight information, air deflector tilt angle information, current wind force intensity information, occupied area information of the lower device, air outlet number information, single-sided tilt angle information, and intermittent condensation weight information;

[0077] A memory for storing the program of the control method of any of the above air outlet control methods for an air conditioner;

[0078] A processor, and a program in a memory can be loaded and executed by the processor to implement the control method of any one of the above air conditioner air outlet control methods.

[0079] By adopting the above technical solution, by rotating the air deflector, the friction between the condensation and the air deflector is increased, so that the condensation is not easily dropped from the air deflector. Even when the condensation is excessive, the air outlet is directly closed, improving the efficiency of preventing condensation at the air outlet.

[0080] In a third aspect, the present application provides an intelligent terminal, adopting the following technical solution:

[0081] An intelligent terminal, including a memory and a processor, and a computer program capable of being loaded and executed by the processor for any one of the above air conditioner air outlet control methods is stored on the memory.

[0082] By adopting the above technical solution, by rotating the air deflector, the friction between the condensation and the air deflector is increased, so that the condensation is not easily dropped from the air deflector. Even when the condensation is excessive, the air outlet is directly closed, improving the efficiency of preventing condensation at the air outlet.

[0083] In a fourth aspect, the present application provides a computer storage medium, which can store corresponding programs and has the characteristics of fast transmission and high computing efficiency.

[0084] A computer-readable storage medium, adopting the following technical solution:

[0085] A computer-readable storage medium stores a computer program capable of being loaded and executed by a processor for any one of the above air conditioner air outlet control methods.

[0086] By adopting the above technical solution, by rotating the air deflector, the friction between the condensation and the air deflector is increased, so that the condensation is not easily dropped from the air deflector. Even when the condensation is excessive, the air outlet is directly closed, improving the efficiency of preventing condensation at the air outlet.

[0087] In summary, the present application includes at least the following beneficial technical effects:

[0088] 1. By rotating the air deflector, the condensation is not easily dropped from the air deflector, improving the efficiency of preventing condensation at the air outlet;

[0089] 2. By blowing the condensation into this area, the condensation is discharged without affecting users and equipment, improving the safety of removing condensation at the air outlet;

[0090] 3. Rotating the air deflector places the water droplets on it, increasing the difficulty of the water droplets dropping and improving the adhesion between the water droplets and the air deflector. Description of the Drawings

[0091] Figure 1 It is a flowchart of a method for controlling an air outlet of an air conditioner in an embodiment of the present application.

[0092] Figure 2 If not, it is a flowchart of a method for adjusting the air deflector to a preset closed angle information and outputting an alarm information in an embodiment of the present application.

[0093] Figure 3 It is a method for adjusting the air deflector to an optional tilting angle information and outputting the optional falling area information by means of light in an embodiment of the present application

[0094] Figure 4 It is a flowchart of a method for processing the optional falling area information in an embodiment of the present application.

[0095] Figure 5 It is a flowchart of a method for determining the tilting angle information of the air deflector in an embodiment of the present application.

[0096] Figure 6 If the face humidity information is greater than the air humidity information and the angle corresponding to the single-sided tilting angle information is greater than the flat angle, it is a flowchart of a method for rotating the air deflector by a flat angle, outputting the single-sided tilting angle information as the tilting angle information of the air deflector after rotation, and then adjusting the air deflector to the theoretical tilting angle information and subsequent angle adjustment in an embodiment of the present application.

[0097] Figure 7 It is a flowchart of a method for adjusting the air deflector to any angle within the avoidance tilting angle range information and outputting an alarm information in an embodiment of the present application.

[0098] Figure 8 It is a system module diagram of a method for controlling an air outlet of an air conditioner in an embodiment of the present application. Detailed implementation manners

[0099] In order to make the objectives, technical solutions and advantages of the present application clearer and more understandable, the following further elaborates on the present application in conjunction with the attached Figure 1-8 drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present application and are not used to limit the present application.

[0100] An embodiment of the present application discloses a method for controlling an air outlet of an air conditioner. Referring to Figure 1 , a method for controlling an air outlet of an air conditioner includes:

[0101] Step 100: Obtain the current weight information of the air deflector at the air outlet.

[0102] The current weight information is the information of the weight of the air deflector. A lifting hook is provided above the air deflector, and a gravity sensor is provided on the lifting hook to detect the weight of the air deflector.

[0103] Step 101: Calculate the condensation weight information based on the current weight information and the preset net weight information.

[0104] The net weight information is the information of the weight of the air deflector in a dry state. The condensation weight information is the information of the weight of the dew formed on the air deflector. Here, the force of the wind on the air deflector is ignored. If calculated, the weight of the air deflector needs to be corrected according to the wind intensity.

[0105] Step 102: Perform matching analysis based on the particle size information and the condensation weight information stored in the preset dew database to determine the particle size corresponding to the condensation weight information, and define this particle size as the current particle size information.

[0106] The current particle size information is the information of the size of the particles formed by the current condensation. Due to factors such as gravity on the air deflector, the particle sizes will be different. Therefore, the largest particle size is taken as an example here. The mapping relationship between the particle size information and the condensation weight information is stored in the database, which is obtained through experiments and observations by the staff in this field. That is, spray treatment is carried out on the air deflector, and then under the influence of blowing and other forces, particles are gradually formed. Then, the overall weight is weighed, and the corresponding mapping relationship is obtained by measuring the condensation particle size and stored in the database. When the system receives the corresponding condensation weight information, it automatically finds the corresponding particle size from the database and outputs it as the current particle size information.

[0107] Step 103: Obtain the air deflector tilt angle information.

[0108] The air deflector tilt angle information is the information of the tilt angle of the air deflector, which is an angle within the range of 0° to 360° with any one side as the reference here.

[0109] Step 104: Perform matching analysis based on the critical particle size information and the air deflector tilt angle information stored in the preset friction database to determine the particle size of the condensation that just slides down at the air deflector tilt angle information, and define this particle size as the falling particle size information.

[0110] The falling particle size information is the information of the particle size for which condensation under the inclined plane will slide out of the air deflector along the inclined plane. The database stores the mapping relationship between the critical particle size information and the air deflector inclination angle information, which is obtained by the same experiment by the staff in the field. After the process of establishing the database in step 102, particles are continuously added until the maximum size of the particles when they fall is recorded. When the system receives the corresponding air deflector inclination angle information, it automatically searches the database for the corresponding critical particle size and outputs it as the falling particle size information.

[0111] Step 105: Determine whether the current particle size information is greater than the falling particle size information.

[0112] The purpose of the determination is to determine whether it will fall under the blowing force.

[0113] Step 1051: If it is greater, perform matching analysis based on the inclination angle information and the current particle size information stored in the friction database to determine the air deflector inclination angle corresponding to the current particle size information, and define this air deflector inclination angle as the theoretical inclination angle information.

[0114] If it is greater, it means that it may fall. The theoretical inclination angle information is the information of the inclination angle required for it not to fall theoretically under the current particle size information. The database is established by the method in step 104, which will not be elaborated here. When the system receives the corresponding current particle size information, it automatically searches the database for the corresponding air deflector inclination angle and outputs it as the theoretical inclination angle information.

[0115] Step 1052: If it is less, no adjustment is made.

[0116] If it is less, it means that it will not fall, so no adjustment is made.

[0117] Step 106: Determine whether the theoretical inclination angle information can be successfully matched.

[0118] The purpose of the determination is to determine whether it exists.

[0119] Step 1061: If not, adjust the air deflector to the preset closed angle information and output an alarm message.

[0120] The closed angle information is the information of the angle at which the air deflector is located when the air outlet is closed. If not, it means that it will fall anyway, so the air outlet can be closed.

[0121] Step 1062: If so, adjust the air deflector to the theoretical inclination angle information.

[0122] Refer to Figure 2, otherwise, the method for adjusting the air deflector to a preset closed angle information and outputting an alarm information includes:

[0123] Step 200: Obtain the current wind force intensity information.

[0124] The current wind force intensity information is the information about the strength degree of the current wind force. The obtaining method is to obtain it by determining the manually input key. That is, which gear the user presses, and the intensity corresponding to the gear can be directly output.

[0125] Step 201: Perform a matching analysis according to the mapping relationship stored in the preset falling database, the current particle size information, and the current wind force intensity information to determine the mapping relationship corresponding to the current particle size information and the current wind force intensity information, and define this mapping relationship as the current mapping relationship. The mapping relationship is the mapping relationship between the falling area information and the air deflector tilt angle information.

[0126] The current mapping relationship is the mapping relationship between the falling area information and the orientation tilt angle information. The database stores the mapping relationship and the mapping relationship between the current particle size information and the current wind force intensity information, that is, the mapping relationship between the tilt angle information of different air deflectors and the falling area under the current particle size information and the current wind force intensity information. It is obtained by the staff in this field through experiments, that is, by setting different particle sizes and wind force intensities, and then observing the size of the area where the wind blows the moisture to obtain. When the system receives the corresponding current particle size information and the current wind force intensity information, it automatically searches the corresponding mapping relationship from the database and outputs it with the current mapping relationship.

[0127] Step 202: Obtain the area information occupied by the lower device.

[0128] The area information occupied by the lower device is the information about the area occupied by the device in this area. The obtaining method can be the way of manual input, or it can be measured by a ranging sensor. That is, when there is a device below, the distance feedback by the ranging sensor is not the distance from the ranging sensor to the ground. It can also be obtained through a camera, that is, the color in the captured image is not the color of the ground.

[0129] Step 203: Determine whether there is a current mapping relationship corresponding to the falling area information that does not intersect with the area information occupied by the lower device.

[0130] Step 2031: If not, adjust the air deflector to the closed angle information and output an alarm information.

[0131] Step 2032: If so, define the falling area information that does not intersect as the optional falling area information, and define the current mapping relationship corresponding to the optional falling area information as the optional mapping relationship.

[0132] Step 204: Analyze the orientation tilt angle information in the optional mapping relationship, and define this orientation tilt angle information as the optional orientation tilt angle information.

[0133] Step 205: Adjust the air deflector to the optional orientation tilt angle information and output the optional falling area information by means of light.

[0134] Adjust the air deflector to the optional orientation tilt angle information so that the condensation particles will fall within the optional falling area information when falling, and will not damage the device. Outputting by means of light means illuminating this area to warn the user that there is condensed water in this area and it is falling.

[0135] In the embodiment of the present application, the detection of human movement is also included. That is, a human body sensor is set in each area where the condensation in the air deflector can fall. This sensor can be a temperature sensor or a camera. When a person is detected, this area is automatically used as the intersecting area, which also avoids interfering with the human body.

[0136] Refer to Figure 3 , the method of adjusting the air deflector to the optional orientation tilt angle information and outputting the optional falling area information by means of light includes:

[0137] Step 300: Analyze the temperature information and characteristic information corresponding to the falling area information.

[0138] The temperature information is the information of the temperature in the falling area. Here, if it is a device, it is the information of the normal operating temperature below. If it is not a device, it is the information of the normal ambient temperature. The characteristic information is the information of the characteristics in the falling area, that is, the type of device or person, etc. The analysis method can be a method of photo recognition.

[0139] Step 301: Perform matching analysis according to the influence degree information and characteristic information stored in the preset influence database to determine the influence degree of the water droplets corresponding to the characteristic information in this area, and define this influence degree as the characteristic influence degree information.

[0140] The characteristic influence degree information is the information of the influence degree of the water droplets in this area. The mapping relationship between the influence degree information and the characteristic information is stored in the database, which is determined by the staff in the field according to the actual characteristics for marking and setting. For example: the influence degree of a water tank is 0, while the influence degree of a food area such as biscuits is 100, and for a person in this area, it can be 40, that is, the influence degree of water droplets on a person exists, but it is not particularly large. When the system receives the corresponding characteristic information, it automatically finds the corresponding influence degree from the database and outputs it as the characteristic influence degree information.

[0141] Step 302: Screen out the feature information whose degree of feature influence is less than the preset degree of influence on work, and define this feature information as invalid feature information.

[0142] The information on the degree of influence on work is the information on the degree of influence on the normal work of feature information or other activities, etc. This is also a manually set value, for example: 50. The invalid feature information is the information of the feature where water droplets dripping will not affect the work or normal activities of the feature.

[0143] Step 303: Determine whether the temperature information corresponding to the falling area information corresponding to the invalid feature information is greater than the preset evaporation temperature information.

[0144] The evaporation temperature information is the information of the temperature at which water droplets can quickly evaporate when dropped on it.

[0145] Step 3031: If it is greater, update this falling area information to the optional falling area information.

[0146] Step 3032: If it is less, determine that this falling area information has an intersection with the occupied area information of the lower device.

[0147] Refer to Figure 4 , and also includes a method for processing the optional falling area information, and this method includes:

[0148] Step 400: Obtain the air outlet number information.

[0149] The air outlet number information is the information of the number of the air outlet. Here, the obtaining method is an arbitrarily selected method. The purpose of numbering is to determine the position of the air outlet.

[0150] Step 401: Screen out the air outlet number information corresponding to the air deflector with the condensation weight information equal to 0, and define this air outlet number information as the optional air outlet number information, define the current wind force intensity information corresponding to the optional air outlet number information as the optional wind force intensity information, and define the condensation weight information equal to 0 corresponding to the optional air outlet number information as the optional condensation weight information.

[0151] The purpose of screening is to select the air outlets without condensation to blow air to other areas.

[0152] Step 402: Perform matching analysis according to the mapping relationship stored in the falling database, the optional wind force intensity information, and the optional condensation weight information to determine the mapping relationship corresponding to the optional wind force intensity information and the optional condensation weight information, and define this mapping relationship as the optional mapping relationship.

[0153] The optional mapping relationship is the mapping relationship between the tilt angle of the air deflector and the falling area corresponding to the optional wind force intensity information. When the system receives the corresponding optional wind force intensity information and optional condensation weight information, it automatically searches the database for the corresponding mapping relationship and outputs it according to the optional mapping relationship.

[0154] Step 403: Determine the orientation tilt angle information corresponding to the optional air outlet number information based on the optional mapping relationship and the optional falling area information, and define this orientation tilt angle information as the blowing angle information.

[0155] The blowing angle information is the information of the angle at which the air deflector needs to be tilted to blow the air to the optional falling area information under this optional wind force intensity information.

[0156] Step 404: Determine whether the blowing angle information exists.

[0157] Step 4041: If it does not exist, no adjustment is made.

[0158] Step 4042: If it exists, define the optional air outlet number information corresponding to the blowing angle information as the blowing air outlet number information, and adjust the air deflector corresponding to the blowing air outlet number information according to the blowing angle information.

[0159] Tilt the air deflector of the blowing air outlet number information to the blowing angle information to blow air to the area where there are water droplets below. Since this area is not affected by water droplets itself, it will not be affected by the blowing either, so that the user can quickly evaporate the water droplets by blowing.

[0160] Refer to Figure 5 , and also includes a method for determining the tilt angle information of the air deflector. This method includes:

[0161] Step 500: Obtain the single-sided tilt angle information of the preset standard surface.

[0162] The standard surface is the information of the surface set artificially, which can be any surface on the air deflector. The single-sided tilt angle information is the information of the tilt angle of the standard surface. Here, in order to make the tilt angle reach 180° - 360°.

[0163] Step 501: Obtain the humidity information of the standard surface and the air humidity information preset.

[0164] The humidity information of the standard surface is the information of the humidity of the standard surface. Here, it can be obtained by a humidity sensor, that is, a humidity sensor is arranged on the air deflector, and its contact head just protrudes to the standard surface of the air deflector. The air humidity information is the information of the humidity of the air near the air outlet.

[0165] Step 502: Determine whether the humidity information of the standard surface is greater than the air humidity information.

[0166] The purpose of the judgment is to determine whether condensation occurs on the standard surface of the air deflector.

[0167] Step 5021: If it is greater than the air humidity information, determine whether the angle corresponding to the single-sided tilt angle information is greater than the preset flat angle.

[0168] The flat angle is 180°. The purpose of the judgment is to determine whether the standard surface is set downward.

[0169] Step 5022: If it is equal to the air humidity information, determine whether the angle corresponding to the single-sided tilt angle information is greater than the preset flat angle.

[0170] Step 5031: If it is greater than the flat angle, rotate the air deflector by the flat angle and, after rotation, output the single-sided tilt angle information as the air deflector tilt angle information.

[0171] If it is greater, it means that the standard surface of the air deflector is downward, and since the standard surface is the wet side, it means that condensation occurs on the lower side of the air deflector and the temperature on the upper side is lower than that on the lower side. Therefore, in order to prevent the condensation from dropping directly, the air deflector needs to be rotated 180°.

[0172] Step 5032: If it is less than the flat angle, output the single-sided tilt angle information as the air deflector tilt angle information.

[0173] If it is less, it means that the condensation on the air deflector is upward, so no flipping is required.

[0174] Step 5041: If it is greater than the flat angle, output the single-sided tilt angle information as the air deflector tilt angle information.

[0175] At this time, it means that the condensation on the air deflector is upward, so no flipping is required and it can be directly output.

[0176] Step 5042: If it is less than the flat angle, rotate the air deflector by the flat angle and, after rotation, output the single-sided tilt angle information as the air deflector tilt angle information.

[0177] At this time, it means that the condensation on the air deflector is on the lower side and flipping is required.

[0178] Refer to Figure 6 , it also includes a method for angle adjustment after adjusting the air deflector to the theoretical tilt angle information after rotating the air deflector by the flat angle and outputting the single-sided tilt angle information as the air deflector tilt angle information when the face humidity information is greater than the air humidity information and the angle corresponding to the single-sided tilt angle information is greater than the flat angle. The method includes:

[0179] Step 600: When adjusting the air deflector to the theoretical tilt angle information, define the condensation weight information as the basic condensation weight information.

[0180] The basic condensation weight information is the information of the condensation weight at the moment after the air deflector is adjusted. Here, the weight measured before the air deflector is flipped when condensation occurs below and then continues to condense below is used as the standard.

[0181] Step 601: Obtain the condensation weight information after the preset interval time information, and define this condensation weight information as the interval condensation weight information.

[0182] The interval time information is the information of the artificially set time interval, which is used to be able to detect different condensation weights. The interval condensation weight information is the information of the condensation weight obtained at the interval time information after flipping. The steps here are the same as those in Step 101 and will not be elaborated here.

[0183] Step 602: Calculate the difference according to the interval condensation weight information and the basic condensation weight information, and define this difference as the increased condensation weight information.

[0184] The increased condensation weight information is the information of the weight of the additional condensation on the lower surface of the air deflector after flipping.

[0185] Step 603: Perform matching analysis according to the average particle size information stored in the dew database and the increased condensation weight information to determine the particle size corresponding to the increased condensation weight information, and define this particle size as the reverse particle size information.

[0186] The reverse particle size information is the information of the particle size condensed on the lower surface of the air deflector. When the system receives the corresponding increased condensation weight information, it automatically finds the corresponding particle size from the database and outputs it as the reverse particle size information.

[0187] Step 604: Perform matching analysis according to the falling tilt angle information, the reverse particle size information, and the current wind force intensity information in the preset falling database to determine the range of the tilt angle of the air deflector corresponding to the reverse particle size information, and define this range of the tilt angle of the air deflector as the theoretical reverse tilt angle range information.

[0188] The theoretical reverse tilt angle range information is the information of the range of tilt angles at which dew will fall under the wind intensity corresponding to the current wind intensity information in the state of condensation of the reverse particle size information. The falling database stores the mapping relationship between the falling tilt angle information, the reverse particle size information, and the current wind intensity information, which is obtained by the staff in this field through experiments on condensations of different sizes under different wind strengths and recording the falling angles. When the system receives the corresponding reverse particle size information and the current wind intensity information, it automatically searches the database for the corresponding range of the air deflector tilt angle and outputs it as the theoretical reverse tilt angle range information.

[0189] Step 605: Determine whether the theoretical tilt angle information falls within the theoretical reverse tilt angle range information.

[0190] The purpose of the determination is to determine whether it will fall.

[0191] Step 6051: If not, then continue to maintain the theoretical tilt angle information.

[0192] Step 6052: If so, then determine the avoidance tilt angle range information greater than the theoretical tilt angle information based on the theoretical tilt angle information and the theoretical reverse tilt angle range information.

[0193] The avoidance tilt angle range information is the information of the range that is greater than the theoretical tilt angle information and not within the theoretical reverse tilt angle range information. This ensures both that the dew above will not slide off due to being greater than the theoretical tilt angle information and that the dew below will not drip.

[0194] Step 606: Adjust the air deflector to any angle within the avoidance tilt angle range information and output an alarm message.

[0195] Refer to Figure 7 , the method of adjusting the air deflector to any angle within the avoidance tilt angle range information and outputting an alarm message includes:

[0196] Step 700: Determine whether the reverse particle size information is greater than the current particle size information.

[0197] Since the particles above will only slide off due to friction, while the particles below will fall directly due to gravity, the particles below are more likely to fall. Therefore, it is necessary to make the particles above larger than the particles below in order to maintain the maximum weight of the entire condensation and minimize the possibility of falling. The purpose of the determination is to determine the need for flipping so that the particles above are larger than the particles below.

[0198] Step 7001: If it is greater, rotate the air deflector by a flat angle and update the reverse particle size information as the current particle size information, and output the current particle size information as the reverse particle size information.

[0199] Step 7002: If it is not greater, adjust the air deflector to any angle within the avoidance tilt angle range information and output an alarm message.

[0200] Based on the same inventive concept, an embodiment of the present invention provides an air outlet control system for an air conditioner.

[0201] Refer to Figure 8 , an air outlet control system for an air conditioner, comprising:

[0202] An acquisition module, configured to acquire current weight information, air deflector tilt angle information, current wind force intensity information, occupied area information of the device below, air outlet number information, single-sided tilt angle information, and interval condensation weight information;

[0203] A memory, configured to store a program of a control method for an air outlet control method of an air conditioner;

[0204] A processor, the program in the memory can be loaded and executed by the processor and implement a control method for an air outlet control method of an air conditioner.

[0205] Those skilled in the art can clearly understand that for the convenience and simplicity of description, only the above division of each functional module is used as an example for illustration. In actual applications, the above functions can be allocated to different functional modules according to needs, that is, the internal structure of the device is divided into different functional modules to complete all or part of the functions described above. The specific working processes of the systems, devices, and units described above can refer to the corresponding processes in the foregoing method embodiments and will not be elaborated herein.

[0206] An embodiment of the present invention provides a computer-readable storage medium, storing a computer program that can be loaded and executed by a processor to implement an air outlet control method of an air conditioner.

[0207] Computer storage media include, for example: various media such as USB flash drives, mobile hard disks, read-only memories (ROM), random access memories (RAM), magnetic disks, or optical discs that can store program codes.

[0208] Based on the same inventive concept, an embodiment of the present invention provides a smart terminal, comprising a memory and a processor, and a computer program that can be loaded and executed by the processor is stored on the memory to implement an air outlet control method of an air conditioner.

[0209] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereby. Any feature disclosed in this specification (including the abstract and drawings), unless specifically described, can be replaced by other equivalent or similar-purpose alternative features. That is, unless specifically described, each feature is only an example of a series of equivalent or similar features.

Claims

1. A method for controlling an air outlet of an air conditioner, characterized in that: include: Get the current weight information of the air deflector at the air outlet; Calculate the condensation weight information based on the current weight information and the preset net weight information; Performing a matching analysis based on the particle size information and condensation weight information stored in a preset dew database to determine the particle size corresponding to the condensation weight information, and defining the particle size as the current particle size information; Obtain the inclination angle information of the air deflector; A matching analysis is performed based on the critical particle size information and the deflector inclination angle information stored in a preset friction database to determine the size of the condensation particles that just slide down under the deflector inclination angle information, and this particle size is defined as the falling particle size information; Determine whether the current particle size information is greater than the falling particle size information; If it is greater than, a matching analysis is performed based on the tilt angle information stored in the friction database and the current particle size information to determine the wind deflector tilt angle corresponding to the current particle size information, and the wind deflector tilt angle is defined as the theoretical tilt angle information; Determine whether the theoretical tilt angle information can be matched successfully; If not, the wind deflector is adjusted to the preset closing angle information and an alarm message is output; If so, adjust the air deflector to the theoretical tilt angle information; If it is less, no adjustment is made.

2. The air outlet control method of an air conditioner according to claim 1, characterized in that: If not, the method of adjusting the air deflector to a preset closing angle and outputting an alarm message includes: Get current wind strength information; Performing a matching analysis based on the mapping relationship stored in a preset falling database and the current particle size information and the current wind strength information to determine a mapping relationship corresponding to the current particle size information and the current wind strength information, defining the mapping relationship as a current mapping relationship, wherein the mapping relationship is a mapping relationship between the falling area information and the wind deflector inclination angle information; Get the area occupied by the device below; Determine whether there is a current mapping relationship corresponding to the falling area information that does not intersect with the area occupied by the device below; If it does not exist, the wind deflector is adjusted to the closed angle information and an alarm message is output; If so, the drop area information that does not produce the intersection is defined as optional drop area information, and the current mapping relationship corresponding to the optional drop area information is defined as an optional mapping relationship; Analyzing the orientation tilt angle information in the optional mapping relationship, and defining the orientation tilt angle information as optional orientation tilt angle information; The wind deflector is adjusted to the optional tilt angle information and the optional falling area information is output through lighting.

3. The air outlet control method of an air conditioner according to claim 2, characterized in that: The method of adjusting the air deflector to the optional orientation tilt angle information and outputting the optional falling area information by means of lighting includes: Analyze the temperature information and characteristic information corresponding to the falling area information; Perform matching analysis based on the impact degree information and characteristic information stored in a preset impact database to determine the impact degree of the water droplet corresponding to the characteristic information in the area, and define the impact degree as characteristic impact degree information; Screen out feature information whose feature impact information is less than the preset work impact information, and define the feature information as invalid feature information; Determining whether the temperature information corresponding to the falling area information corresponding to the invalid characteristic information is greater than the preset evaporation temperature information; If it is greater, the drop zone information is updated to the optional drop zone information; If it is less than, the falling area information is determined to have an intersection with the area occupied by the device below.

4. The air outlet control method of an air conditioner according to claim 2, characterized in that: The method further includes processing the optional drop zone information, the method comprising: Get the air outlet number information; Filter out the air outlet number information corresponding to the air guide plate with condensation weight information equal to 0, define the air outlet number information as optional air outlet number information, define the current wind strength information corresponding to the optional air outlet number information as optional wind strength information, and define the condensation weight information equal to 0 corresponding to the optional air outlet number information as optional condensation weight information; Performing a matching analysis based on the mapping relationship stored in the whereabout database and the optional wind strength information and the optional condensation weight information to determine a mapping relationship corresponding to the optional wind strength information and the optional condensation weight information, and defining the mapping relationship as an optional mapping relationship; Determine the orientation tilt angle information corresponding to the optional air outlet number information based on the optional mapping relationship and the optional drop area information, and define the orientation tilt angle information as blowing angle information; Determine whether blowing angle information exists; If it does not exist, no adjustment is made; If it exists, the optional air outlet number information corresponding to the blowing angle information is defined as the blowing outlet number information, and the air guide plate corresponding to the blowing outlet number information is adjusted according to the blowing angle information.

5. The air outlet control method of an air conditioner according to claim 4, characterized in that: The invention also includes a method for determining the inclination angle information of the air deflector, the method comprising: Obtain the single-surface tilt angle information of the preset standard surface; Obtaining the surface humidity information and air humidity information of the preset standard surface; Determine whether the surface humidity information is greater than the air humidity information; If it is greater than the air humidity information, then determine whether the angle corresponding to the single-side tilt angle information is greater than the preset straight angle; If it is greater than the flat angle, the air deflector is rotated to the flat angle and the single-side tilt angle information is output as the air deflector tilt angle information after the rotation; If it is less than the straight angle, the single-side tilt angle information is output as the wind deflector tilt angle information; If it is equal to the air humidity information, then determine whether the angle corresponding to the single-side tilt angle information is greater than the preset straight angle; If it is greater than the flat angle, the single-side tilt angle information is output as the wind deflector tilt angle information; If it is less than the straight angle, the air deflector is rotated to the straight angle and after the rotation, the single-side tilt angle information is output as the air deflector tilt angle information.

6. The air outlet control method of an air conditioner according to claim 5, characterized in that: The method also includes rotating the air deflector to a straight angle if the surface humidity information is greater than the air humidity information and the angle corresponding to the single-side tilt angle information is greater than the straight angle, outputting the single-side tilt angle information as the air deflector tilt angle information after the rotation, and then adjusting the air deflector to the theoretical tilt angle information. The method includes: When the air guide plate is adjusted to the theoretical tilt angle information, the condensation weight information is defined as the basic condensation weight information; Acquiring condensation weight information after a preset interval time information, and defining the condensation weight information as interval condensation weight information; Calculating a difference between the interval condensation weight information and the basic condensation weight information, and defining the difference as added condensation weight information; Perform matching analysis based on the average particle size information and the increased condensation weight information stored in the dew database to determine the particle size corresponding to the increased condensation weight information, and define the particle size as the negative particle size information; Matching and analyzing the falling tilt angle information, the reverse particle size information, and the current wind strength information in a preset falling database to determine the range of the wind deflector tilt angle corresponding to the reverse particle size information, and defining the range of the wind deflector tilt angle as theoretical reverse tilt angle range information; Determine whether the theoretical tilt angle information falls within the theoretical reverse tilt angle range information; If not, continue to maintain the theoretical tilt angle information; If so, determining avoidance tilt angle range information that is greater than the theoretical tilt angle information according to the theoretical tilt angle information and the theoretical reverse tilt angle range information; Adjust the air deflector to any angle within the avoidance tilt angle range information and output an alarm message.

7. The air outlet control method of an air conditioner according to claim 6, characterized in that: The method of adjusting the air deflector to any angle in the avoidance tilt angle range information and outputting an alarm message includes: Determine whether the reverse particle size information is greater than the current particle size information; If it is greater than, the air guide plate is rotated by a flat angle and the reverse particle size information is updated as the current particle size information, and the current particle size information is output as the reverse particle size information; If it is not greater than, the wind deflector is adjusted to any angle in the avoidance tilt angle range information and an alarm message is output.

8. An air-conditioning outlet control system, characterized in that: include: An acquisition module is used to obtain current weight information, wind deflector inclination angle information, current wind strength information, area occupied by the equipment below, air outlet number information, single-side inclination angle information, and interval condensation weight information; A memory for storing a program of a control method for controlling an air-conditioning air outlet according to any one of claims 1 to 7; The program in the memory can be loaded and executed by the processor to implement the control method of the air-conditioning outlet control method according to any one of claims 1 to 7.

9. Intelligent terminal, characterized in that: The method comprises a memory and a processor, wherein the memory stores a computer program that can be loaded by the processor and executes an air-conditioning outlet control method according to any one of claims 1 to 7.

10. A computer-readable storage medium, characterized in that A computer program is stored which can be loaded by a processor and executes an air-conditioning outlet control method according to any one of claims 1 to 7.

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