A control method and control system for an air deflector assembly

Abstract

The application provides a control method and a control system for a wind guide assembly, the control method comprising: receiving a control instruction; obtaining an instruction type of the control instruction, the instruction type comprising a start-up instruction and a shutdown instruction; controlling a first driving component to drive a first wind guide plate to swing and controlling a second driving component to drive a second wind guide plate to swing according to the instruction type; wherein when the first driving component drives the first wind guide plate to swing, the first wind guide plate drives the second driving component and the second wind guide plate to swing together, so that the first wind guide plate and the second wind guide plate define an air outlet direction of an air conditioner; and the technical problem solved by the application is that in the prior art, only one wind guide plate is usually controlled to rotate in the wind guiding process, so as to adjust the air outlet direction of the air conditioner, which leads to a long time of the wind guide plate in the swinging process, thereby reducing the efficiency of the wind guide plate in adjusting the air outlet direction, and further affecting the use experience of the user.

Description

Technical Field

[0001] This invention relates to the technical field of air conditioners, and more specifically, to a control method and control system for an air guide assembly. Background Technology

[0002] With the improvement of people's living standards, air conditioners have become an indispensable electrical appliance in modern homes and offices. The comfort and energy efficiency of air conditioners have become the focus of users' attention, and the air guide component, as an important part of the air conditioner, directly affects the user experience and energy efficiency.

[0003] However, the relevant technology has at least one of the following problems: In the process of air guiding, the existing air guide plate usually only controls the rotation of one air guide plate to adjust the air outlet direction of the air conditioner. This results in the air guide plate having a long swing time, which reduces the efficiency of the air guide plate in adjusting the air outlet direction and thus affects the user experience. Summary of the Invention

[0004] The technical problem solved by this invention is that existing air guides typically only control the rotation of one air guide during the air guiding process to adjust the air outlet direction of the air conditioner. This results in a long time for the air guide to swing, which reduces the efficiency of the air guide in adjusting the air outlet direction and thus affects the user experience.

[0005] The technical problem solved by this invention is that in the existing air guide plates, only one air guide plate usually rotates during the air guiding process to adjust the air outlet direction of the air conditioner. This results in a long time for the air guide plate to swing, thereby reducing the efficiency of the air guide plate in adjusting the air outlet direction and thus affecting the user experience.

[0006] To address the aforementioned technical problems, this invention provides a control method for an air guide assembly. The air guide assembly includes a first air guide plate disposed inside the air outlet of an air conditioner, a second air guide plate disposed on the side of the air conditioner away from the air outlet, a first driving component disposed at the connection between the first air guide plate and the air outlet, and a second driving component disposed at the connection between the first air guide plate and the second air guide plate. The control method includes: receiving a control command; acquiring the command type of the control command, including a power-on command and a power-off command; and, according to the command type, controlling the first driving component to drive the first air guide plate to swing, and controlling the second driving component to drive the second air guide plate to swing. When the first driving component is controlled to drive the first air guide plate to swing, the first air guide plate drives the second driving component and the second air guide plate to swing together, so that the first air guide plate and the second air guide plate define the air outlet direction of the air conditioner.

[0007] Compared with existing technologies, the technical effects achieved by adopting this solution are as follows: By controlling the coordinated swing of the first and second air guide plates, this solution shortens the time required to adjust the air outlet direction, thereby improving the air guiding efficiency of the air guide plates and thus enhancing the user experience.

[0008] Specifically, the first driving component is used to drive the first air guide plate, and the second driving component is used to drive the second air guide plate. When the first driving component is controlled to drive the first air guide plate to swing, the first air guide plate drives the second driving component to swing together with the second air guide plate to adjust the air outlet direction of the air conditioner. Compared with the control method of the prior art for air conditioners that only have one air guide plate to adjust the air outlet direction, the control method provided by this solution shortens the time required to adjust the air outlet direction and improves the air guiding efficiency of the air guide assembly.

[0009] In one embodiment of the present invention, according to the instruction type, controlling the first driving component to drive the first air guide plate to swing, and controlling the second driving component to drive the second air guide plate to swing, includes: when the control instruction includes a power-off instruction, controlling the air conditioner to enter a power-on reset state; when the control instruction includes a power-on instruction, controlling the air conditioner to enter a normal operation state; wherein, when the air conditioner enters the power-on reset state or the normal operation state, the position state of the first air guide plate and the second air guide plate is adjusted.

[0010] Compared with existing technologies, the technical effects achieved by this solution are as follows: This solution achieves efficient switching of air conditioner operating modes by controlling the oscillation of the air guide vanes according to the command type. Specifically, when a shutdown command is received, the air conditioner enters a power-on reset state, ensuring that when the air conditioner receives a start command next time, both the first and second air guide vanes are in the fully closed position. This avoids the first and / or second air guide vanes from jamming when the air conditioner executes the start command, thus preventing damage to the first and / or second air guide vanes and extending their service life. Furthermore, when the air conditioner receives a start command and begins to respond to it, it ensures that the first and / or second air guide vanes are in the fully closed position, avoiding unnecessary energy consumption. Therefore, the control method provided by this solution improves the overall energy efficiency and service life of the air conditioner through precise control of the position of the first and second air guide vanes.

[0011] In one embodiment of the present invention, the air outlet is provided with a first end and a second end arranged opposite to each other, and the second air guide plate is provided with a third end and a fourth end. When the air conditioner enters the power-on reset state, the position state of the first air guide plate and the second air guide plate is adjusted, including: Step 1: Controlling the first air guide plate to move clockwise at a first speed to a preset position A, and controlling the second air guide plate to move counterclockwise at a first speed to a first preset position, so that the air outlet is in a fully open state; Step 2: Controlling the second air guide plate to rotate clockwise at a first speed at a first angle; Step 3: Controlling the second air guide plate to rotate clockwise at a second speed at a second angle. The system moves to a second preset position and controls the first air guide plate to move counterclockwise at a first speed to a preset position B, so that the air outlet is in a fully closed state. When the air outlet is in a fully closed state, the first air guide plate is retracted into the air outlet, and the third end abuts against the first end, and the fourth end abuts against the second end, so that the second air guide plate blocks the air outlet. When the air outlet is in a fully open state, the first air guide plate abuts against the first end, the air guide side of the second air guide plate is tilted upward, and there is a first gap between the third end and the second end, so that the first air guide plate and the second air guide plate are located away from the air outlet.

[0012] Compared with existing technologies, the technical effects achieved by this solution are as follows: This solution, through a three-step power-on reset control process, not only improves the reset efficiency of the air guide assembly but also prevents dust from entering the air conditioner when it is turned off. Specifically: In step 1, the first air guide plate moves clockwise while the second air guide plate moves counterclockwise. The simultaneous oscillation of the first and second air guide plates shortens their reset time, improving the reset efficiency of the air guide assembly. In step 3, the synchronized movement of the first and second air guide plates allows the first air guide plate to be stably housed inside the air outlet, while the second air guide plate precisely blocks the air outlet, preventing dust from entering the air conditioner when it is turned off; this also improves the overall aesthetics of the air conditioner.

[0013] In one embodiment of the present invention, when the air conditioner enters normal operation, the position state of the first air guide plate and the second air guide plate is adjusted, which further includes: acquiring the working state of the air conditioner, including cooling state and heating state; and controlling the first air guide plate and the second air guide plate to enter the position adjustment mode according to the start command and the working state; wherein the start command includes a comfortable airflow command, a full swing command, a fixed swing command, and a fixed swing command.

[0014] Compared with existing technologies, the technical effects achieved by this solution are as follows: This solution controls the first and second air guide plates to enter the position control mode according to the power-on command and working status, thereby realizing intelligent control of the air guide components.

[0015] Specifically, based on different combinations of start-up commands (including breezy command, full swing command, swing freeze command, and swing fix command) and operating status, different position control modes can be flexibly switched to meet the diverse airflow needs of users. Furthermore, based on the dual judgment mechanism of operating status and start-up command, the accuracy of airflow control is improved, the user operation process is simplified, and the intelligence level and ease of use of the air conditioner are enhanced.

[0016] In one embodiment of the present invention, when the air conditioner executes the start-up command, the default operating state of the air conditioner is the cooling state; when the air conditioner responds to the comfort command, it controls the air conditioner to enter the comfort mode. The position control mode includes: controlling the first air guide plate to move at a first speed to a preset position C located between preset position A and preset position B, and controlling the second air guide plate to move at a first speed to a third preset position; wherein, the ratio of the first distance from preset position C to preset position A to the second distance from preset position B to preset position A is 0.3-0.7; when the second air guide plate is located at the third preset position, there is a second gap between the third end and the second end, and the second gap is smaller than the first gap.

[0017] Compared with existing technologies, the technical effects achieved by this solution are as follows: First, this solution sets the cooling state as the default operating state upon startup, conforming to user habits and reducing unnecessary mode switching operations. Second, when the air conditioner responds to the comfort mode command, the system automatically enters the comfort mode and controls the first air guide plate to move to a preset position C and the second air guide plate to move to a third preset position. When the second air guide plate is in the third preset position, the second gap between the third end and the second end is smaller than the first gap. Firstly, this prevents cold air from blowing directly onto the user, thus improving the user experience. Secondly, by controlling the second gap between the third end and the second end when the second air guide plate is in the third preset position, the air blowing from the air outlet is split into two paths, accelerating the indoor heat exchange rate. In summary, the synchronous movement of the first and second air guide plates improves the efficiency of airflow direction adjustment and avoids the airflow dead zone problem caused by traditional single air guide plate adjustments.

[0018] In one embodiment of the present invention, when the air conditioner switches from cooling mode to heating mode, the position control mode further includes: controlling the first air guide plate to move from a preset position C to a preset position D located between the preset position C and the preset position A at a first speed, and controlling the second air guide plate to move from a third preset position to a fourth preset position at a first speed; wherein, when the second air guide plate is located at the fourth preset position, the third end abuts against the panel of the air conditioner, and the air guide plate is in an inclined downward position.

[0019] Compared with existing technologies, the technical effects achieved by this solution are as follows: When the air conditioner switches from cooling to heating mode, the first air guide plate smoothly transitions from preset position C to preset position D, while the second air guide plate switches from the third preset position to the fourth preset position. This ensures the smoothness of the mode switching process, enabling the air conditioner to deliver air over long distances when cooling and to deliver hot air downwards when heating, thereby accelerating the heat exchange rate of hot air in the room and improving the user experience.

[0020] In one embodiment of the present invention, when the second air guide plate is located at the fourth preset position, there is a third gap between the fourth end and the second end. When the air conditioner responds to the swing full swing command, the air conditioner is controlled to enter the full swing mode. The position control mode further includes: when the working state includes the cooling state, controlling the first air guide plate to run at a first speed to the preset position C, and controlling the first air guide plate to automatically swing between the preset position E and the preset position C located between the preset position C and the preset position D at a second speed; controlling the second air guide plate to run at the first speed to the fifth preset position, and controlling the second air guide plate to automatically swing between the fifth preset position and the sixth preset position at a third speed; when the working state includes the heating state, controlling the first air guide plate to run at the fourth speed to the preset position E, and... The first air guide plate is controlled to swing between preset positions E and A at a first speed, and the second air guide plate is controlled to move to a seventh preset position at a second speed, and then controlled to swing between the seventh preset position and the eighth preset position at a second speed. Specifically, when the second air guide plate is at the fifth preset position, there is a fourth gap between the third end and the second end; when the second air guide plate is at the sixth preset position, there is a fifth gap between the third end and the second end, and the fourth gap < the fifth gap < the first gap; when the second air guide plate is at the seventh preset position, there is a sixth gap between the fourth end and the second end; when the second air guide plate is at the eighth preset position, there is a seventh gap between the fourth end and the second end, and the seventh gap < the sixth gap < the third gap.

[0021] Compared with existing technologies, the technical effects achieved by adopting this solution are as follows: This solution realizes intelligent swing control of the air guide component.

[0022] Specifically: First, the system automatically selects different swing ranges based on whether it is cooling or heating. In cooling mode, the first air guide plate automatically swings between preset positions C and E, while the second air guide plate swings synchronously between the fifth and sixth preset positions. This design ensures that the cool air can evenly cover a larger space. Second, in heating mode, the swing range of the first air guide plate is automatically adjusted to between preset positions E and A, while the second air guide plate swings accordingly between the seventh and eighth preset positions. This differentiated swing range design effectively improves the heating effect and accelerates the uniformity of indoor temperature. Third, the synchronous swing of the two air guide plates not only shortens the time required to adjust the air outlet direction and improves the adjustment efficiency of the air outlet direction, but also enhances the air delivery distance through the synergistic effect of airflow, solving the problem of limited air delivery distance of traditional single air guide plate swings.

[0023] In one embodiment of the present invention, when the air conditioner responds to the swing-freeze setting command, the air conditioner is controlled to enter the setting mode. The position control mode further includes: when the working state includes the cooling state, controlling the first air guide plate to swing between the first setting position and the second setting position, and controlling the second air guide plate to swing between the third setting position and the fourth setting position; when the working state includes the heating state, controlling the first air guide plate to swing between the fifth setting position and the sixth setting position, and controlling the second air guide plate to swing between the seventh setting position and the eighth setting position.

[0024] Compared with existing technologies, the technical effects achieved by adopting this solution are: this solution enables precise and personalized control of the air guide components.

[0025] Specifically: First, by setting multiple first and second fixed positions, users are provided with a wide range of air delivery angle options to meet the air guiding needs in different scenarios; second, the fixed positions of the first and second air guide plates work together, and each combination of fixed positions is precisely calculated to ensure that the optimal airflow organization can be formed at that position; third, the synchronous fixed position control of the two air guide plates avoids the airflow dead zones and air delivery blind spots that may occur with the traditional single air guide plate, improving the uniformity and coverage of air delivery; fourth, the design of multiple fixed positions fully considers the special needs of different installation environments (such as high wall mounting and low wall mounting) and different usage scenarios (such as bedrooms and living rooms), which not only meets users' personalized needs for air delivery angles, but also ensures the stability and comfort of air conditioning operation.

[0026] In one embodiment of the present invention, when the air conditioner responds to the swing fixing command, the air conditioner is controlled to enter the swing mode. The position control mode further includes: determining whether the air conditioner has a memory position; if a memory position exists, controlling the first air guide plate and the second air guide plate to operate according to the memory position; if no memory position exists, controlling the first air guide plate to operate at a first speed to a preset position C, and controlling the second air guide plate to operate at a first speed to a third preset position; wherein, when a memory position exists and the power-on command changes, the memory position is cleared.

[0027] Compared with existing technologies, the technical effects achieved by adopting this solution are: This solution realizes the humanized and intelligent control of the air guide component.

[0028] Specifically: First, it has a memory function for the air guide position, which can determine whether a previously set memory position exists. This design fully considers user habits and improves operational convenience. Second, when a memory position exists, the first and second air guide vanes will automatically return to the memory position, allowing users to obtain the previously satisfactory air delivery effect without repeated adjustments. Third, when no memory position exists, the air conditioner will intelligently move the first air guide vane to the preset position C and control the second air guide vane to the third preset position to ensure the basic air delivery effect of the air guide assembly. Fourth, the memory position is automatically cleared when the start-up command changes, avoiding interference between different modes. This ensures the stability of the air guide assembly operation and improves user comfort and convenience.

[0029] In one embodiment of the present invention, the start-up command further includes a self-cleaning command and / or an anti-mold command and / or a residual heat blowing command. The position control mode further includes: when the air conditioner responds to the self-cleaning command and / or the anti-mold command and / or the residual heat blowing command, controlling the first air guide plate to run at a first speed to a preset position D, and controlling the second air guide plate to run at a first speed to a fourth preset position; wherein, when the air conditioner receives multiple start-up commands, the priority order of the start-up commands is: comfort command > full swing command > swing fixed command > swing fixed command > self-cleaning command and / or anti-mold command and / or residual heat blowing command.

[0030] Compared with existing technologies, the technical effects achieved by adopting this solution are as follows: This solution realizes comprehensive intelligent control of the air guide component.

[0031] Specifically: First, it integrates special functions such as self-cleaning command, anti-mold command, and residual heat blowing command. When the air conditioner responds to these commands, the first air guide plate will move to the preset position D, and control the second air guide plate to move to the fourth preset position, ensuring the best execution effect of the special functions. Second, it establishes a clear command priority order (comfortable airflow command > full swing command > swing freeze command > swing fix command > self-cleaning command / anti-mold command / residual heat blowing command), avoiding the conflict problem when multiple commands coexist. It ensures the priority realization of basic comfort functions without affecting the normal execution of special functions, and improves the overall coordination of the air guide components.

[0032] On the other hand, the present invention also provides a control system for an air guide assembly. The control system is used to control the air guide assembly to execute the control method described in any of the above technical solutions. The control system includes: an instruction receiving unit, an acquisition unit, and a control unit. Specifically, the instruction receiving unit is used to receive control instructions, the acquisition unit is used to acquire the instruction type of the control instructions, and the control unit is used to control a first driving component to drive a first air guide plate to swing, and to control a second driving component to drive a second air guide plate to swing, according to the instruction type.

[0033] Compared with the prior art, the technical effects achieved by adopting this technical solution are as follows: Since the control system in this technical solution is used to control the air guide assembly to execute the control method in any of the above technical solutions, the control system in this technical solution includes the beneficial effects described in any of the above technical solutions, which will not be repeated here.

[0034] In one embodiment of the present invention, the control system further includes: an angle memory unit, which is used to memorize the positions of the first air guide plate and the second air guide plate; wherein, the angle memory unit operates as follows: when the air conditioner enters the full swing mode, it records the first current position of the first air guide plate and the second current position of the second air guide plate every time period T; when the air conditioner enters the swing fixed mode, it uses the last recorded first current position of the air conditioner in the full swing mode as the memorized position of the first air guide plate, and uses the last recorded second current position as the memorized position of the second air guide plate; when the operating mode of the air conditioner is switched, the memorized positions are cleared.

[0035] Compared with existing technologies, the technical effects achieved by adopting this solution are as follows: By providing an angle memory unit, this solution enables the air conditioner to automatically adjust to the angle that the user is accustomed to, eliminating the need for the user to manually adjust it each time, thus increasing the convenience and comfort of use.

[0036] By adopting the technical solution of the present invention, the following technical effects can be achieved:

[0037] This invention provides a control method and control system for an air guide assembly. By controlling the coordinated oscillation of a first air guide plate and a second air guide plate, the time required to adjust the air outlet direction is shortened, thereby improving the air guide efficiency of the air guide plate and thus enhancing the user experience. Specifically, a first driving component drives the first air guide plate, and a second driving component drives the second air guide plate. When the first driving component drives the first air guide plate to oscillate, the first air guide plate drives the second driving component to oscillate together with the second air guide plate to adjust the air outlet direction of the air conditioner. Compared with the existing control methods for air conditioners that only have one air guide plate to adjust the air outlet direction, the control method provided by this solution shortens the time required to adjust the air outlet direction and improves the air guide efficiency of the air guide assembly. Attached Figure Description

[0038] To more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings to be used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0039] Figure 1 A flowchart illustrating a control method for an air guide assembly provided in an embodiment of the present invention;

[0040] Figure 2 This is one of the structural schematic diagrams of the air guide assembly of an air conditioner when it enters the power-on reset state, according to an embodiment of the present invention;

[0041] Figure 3 This is the second schematic diagram of the air guide assembly of an air conditioner when it enters the power-on reset state, as provided in an embodiment of the present invention.

[0042] Figure 4 This is a schematic diagram of the air guide assembly of an air conditioner when it enters the heating state, provided in an embodiment of the present invention.

[0043] Figure 5 This is a schematic diagram of the air guide assembly of an air conditioner when it enters the cooling state, as provided in an embodiment of the present invention.

[0044] Figure 6 This is one of the structural schematic diagrams of the air guide assembly of an air conditioner when it enters the full swing air guide mode, as provided in an embodiment of the present invention;

[0045] Figure 7 This is the second schematic diagram of the air guide assembly of the air conditioner when it enters the full swing mode, as provided in an embodiment of the present invention.

[0046] Figure 8This is a schematic diagram of a control system for an air guide assembly provided in an embodiment of the present invention.

[0047] Explanation of reference numerals in the attached figures:

[0048] 100, Air conditioner; 110, Air outlet; 120, Panel; 121, First end; 130, Second end; 200, First air guide plate; 210, First driving component; 300, Second air guide plate; 310, Second driving component; 320, Third end; 330, Fourth end; 340, Air guide side; 400, Control system; 410, Command receiving unit; 420, Acquisition unit; 430, Control unit; 440, Angle memory unit. Detailed Implementation

[0049] To make the above-mentioned objects, features and advantages of the present invention more apparent and understandable, specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings.

[0050] The technical problem solved by this invention is that existing air guides typically only control the rotation of one air guide during the air guiding process to adjust the air outlet direction of the air conditioner. This results in a long time for the air guide to swing, which reduces the efficiency of the air guide in adjusting the air outlet direction and thus affects the user experience.

[0051] To solve the above-mentioned technical problems, the present invention provides a control method for an air guiding assembly. The air guiding assembly includes a first air guiding plate 200 disposed inside the air outlet 110 of an air conditioner 100, a second air guiding plate 300 disposed on the side of the air conditioner 100 away from the air outlet 110, a first driving component 210 disposed at the connection between the first air guiding plate 200 and the air outlet 110, and a second driving component 310 disposed at the connection between the first air guiding plate 200 and the second air guiding plate 300. Figure 1 As shown, the control methods include:

[0052] S100: Receive control commands;

[0053] S200: Obtain the instruction type of the control command, including power-on command and power-off command;

[0054] S300: According to the instruction type, control the first drive component 210 to drive the first air guide plate 200 to swing, and control the second drive component 310 to drive the second air guide plate 300 to swing.

[0055] When the first driving component 210 drives the first air guide plate 200 to swing, the first air guide plate 200 drives the second driving component 310 to swing together with the second air guide plate 300, so that the first air guide plate 200 and the second air guide plate 300 define the air outlet direction of the air conditioner 100.

[0056] Specifically, this solution shortens the time required to adjust the airflow direction by controlling the coordinated swing of the first air guide plate 200 and the second air guide plate 300, thereby improving the airflow efficiency of the air guide plates and thus enhancing the user experience.

[0057] Specifically, the first driving component 210 is used to drive the first air guide plate 200, and the second driving component 310 is used to drive the second air guide plate 300. When the first driving component 210 is controlled to drive the first air guide plate 200 to swing, the first air guide plate 200 drives the second driving component 310 to swing together with the second air guide plate 300, so as to adjust the air outlet direction of the air conditioner 100. Compared with the control method of the prior art for the air conditioner 100 which only has one air guide plate to adjust the air outlet direction, the control method provided by this solution shortens the time required to adjust the air outlet direction and improves the air guiding efficiency of the air guide component.

[0058] Furthermore, according to the instruction type, controlling the first driving component 210 to drive the first air guide plate 200 to swing, and controlling the second driving component 310 to drive the second air guide plate 300 to swing, includes: when the control instruction includes a power-off instruction, controlling the air conditioner 100 to enter a power-on reset state; when the control instruction includes a power-on instruction, controlling the air conditioner 100 to enter a normal operation state; wherein, when the air conditioner 100 enters the power-on reset state or the normal operation state, the position state of the first air guide plate 200 and the second air guide plate 300 is adjusted.

[0059] Specifically, this solution controls the oscillation of the air guide vanes according to the command type, achieving efficient switching of the air conditioner 100's operating mode. More specifically, when a shutdown command is received, the air conditioner 100 enters a power-on reset state, ensuring that when the air conditioner 100 receives a startup command the next time, both the first air guide vane 200 and the second air guide vane 300 are in the fully closed position. This prevents the first air guide vane 200 and / or the second air guide vane 300 from jamming when the air conditioner 100 executes the startup command, thus avoiding damage to the first air guide vane 200 and / or the second air guide vane 300, and extending their service life. Furthermore, when the air conditioner 100 receives a startup command and begins to respond to it, it ensures that the first air guide vane 200 and / or the second air guide vane 300 are in the fully closed position, avoiding unnecessary energy consumption. Therefore, the control method provided by this solution improves the overall energy efficiency and service life of the air conditioner 100 by precisely regulating the position and state of the first air guide plate 200 and the second air guide plate 300.

[0060] Furthermore, the air outlet 110 is provided with a first end 121 and a second end 130 arranged opposite to each other, and the second air guide plate 300 is provided with a third end 320 and a fourth end 330. When the air conditioner 100 enters the power-on reset state, the position of the first air guide plate 200 and the second air guide plate 300 is adjusted, including: Step 1: Controlling the first air guide plate 200 to move clockwise at a first speed to a preset position A, and controlling the second air guide plate 300 to move counterclockwise at a second speed to a first preset position, so that the air outlet 110 is in a fully open state; Step 2: Controlling the second air guide plate 300 to rotate clockwise at a first speed to a first angle; Step 3: Controlling the second air guide plate 300 to move clockwise at a second speed to a second preset position, and controlling the second air guide plate 300 to rotate counterclock ... and controlling the second air guide plate 300 to rotate counterclockwise at a second speed to a second preset position, and controlling the second air guide plate 300 to rotate counterclockwise at a second speed to a second preset position, and controlling the second air guide plate 300 to rotate counterclockwise at a second speed to a second preset position, and controlling the second air guide plate 300 to rotate counterclockwise at a second speed to A first air guide plate 200 rotates counterclockwise at a first speed to a preset position B, so that the air outlet 110 is in a fully closed state. When the air outlet 110 is in a fully closed state, the first air guide plate 200 is housed inside the air outlet 110, and the third end 320 abuts against the first end 121, and the fourth end 330 abuts against the second end 130, so that the second air guide plate 300 blocks the air outlet 110. When the air outlet 110 is in a fully open state, the first air guide plate 200 abuts against the first end 121, the air guide side 340 of the second air guide plate 300 is in an inclined upward position, and there is a first gap between the third end 320 and the second end 130, so that the first air guide plate 200 and the second air guide plate 300 are located away from the air outlet 110.

[0061] Specifically, this solution, through a three-step power-on reset control process, not only improves the reset efficiency of the air guide assembly but also prevents dust from entering the air conditioner 100 when it is turned off. More specifically: in step 1, while the first air guide plate 200 rotates clockwise, the second air guide plate 300 rotates counterclockwise. The simultaneous oscillation of the first and second air guide plates shortens their reset time, improving the reset efficiency of the air guide assembly. In step 3, the synchronized movement of the first and second air guide plates 200 allows the first air guide plate 200 to be stably housed inside the air outlet 110, while the second air guide plate 300 precisely blocks the air outlet 110, preventing dust from entering the air conditioner 100 when it is turned off; this also improves the overall aesthetics of the air conditioner 100.

[0062] Furthermore, when the air conditioner 100 enters normal operation, the position status of the first air guide plate 200 and the second air guide plate is adjusted, which also includes: acquiring the working status of the air conditioner 100, including cooling status and heating status; and controlling the first air guide plate 200 and the second air guide plate 300 to enter the position control mode according to the start command and the working status; wherein the start command includes the comfort command, the full swing command, the swing fixed command, and the swing fixed command.

[0063] Specifically, this solution achieves intelligent control of the air guide components by controlling the first air guide plate 200 and the second air guide plate 300 to enter the position control mode according to the power-on command and working status.

[0064] More specifically, based on different combinations of start-up commands (including comfort command, full swing command, swing freeze command, and swing fix command) and operating status, different position control modes can be flexibly switched to meet the diverse airflow needs of users. Furthermore, based on the dual judgment mechanism of operating status and start-up commands, the accuracy of airflow control is improved, the user operation process is simplified, and the intelligence level and ease of use of the air conditioner 100 are enhanced.

[0065] Furthermore, when the air conditioner 100 executes the start-up command, the default operating state of the air conditioner 100 is the cooling state; when the air conditioner 100 responds to the comfort mode command, it controls the air conditioner 100 to enter the comfort mode. The position control mode includes: controlling the first air guide plate 200 to move at a first speed to a preset position C located between preset position A and preset position B, and controlling the second air guide plate 300 to move at a first speed to a third preset position; wherein, the ratio of the first distance from preset position C to preset position A to the second distance from preset position B to preset position A is 0.3-0.7; when the second air guide plate 300 is located at the third preset position, there is a second gap between the third end 320 and the second end 130, and the second gap is smaller than the first gap.

[0066] Specifically, firstly, this solution sets the cooling state as the default operating state upon startup, conforming to user habits and reducing unnecessary mode switching operations. Secondly, when the air conditioner 100 responds to the comfort mode command, the system automatically enters the comfort mode and controls the first air guide plate 200 to move to a preset position C and the second air guide plate 300 to move to a third preset position. When the second air guide plate 300 is in the third preset position, the second gap between the third end 320 and the second end 130 is smaller than the first gap. Firstly, this prevents cold air from blowing directly onto the user from the air outlet 110, thus improving the user experience. Secondly, by controlling the second gap between the third end 320 and the second end 130 when the second air guide plate 300 is in the third preset position, the air blowing from the air outlet 110 is split into two paths, accelerating the indoor heat exchange rate. In summary, the synchronous movement of the first air guide plate 200 and the second air guide plate 300 improves the efficiency of airflow direction adjustment while avoiding the airflow dead zone problem caused by traditional single air guide plate adjustment.

[0067] Furthermore, when the air conditioner 100 switches from cooling mode to heating mode, the position control mode also includes: controlling the first air guide plate 200 to move from the preset position C to the preset position D located between the preset position C and the preset position A at the first speed, and controlling the second air guide plate 300 to move from the third preset position to the fourth preset position at the first speed; wherein, when the second air guide plate 300 is located at the fourth preset position, the third end 320 abuts against the panel 120 of the air conditioner 100, and the air guide plate is in a downward tilted position.

[0068] Specifically, this solution ensures smooth mode switching by controlling the first air guide plate 200 to smoothly transition from preset position C to preset position D when the air conditioner switches from cooling to heating mode, and simultaneously controlling the second air guide plate 300 to switch from the third preset position to the fourth preset position. This allows the air conditioner 100 to deliver air over long distances when cooling and to deliver hot air downwards when heating, thereby accelerating the heat exchange rate of hot air in the room and improving the user experience.

[0069] Furthermore, when the second air guide plate 300 is located at the fourth preset position, there is a third gap between the fourth end 330 and the second end 130. When the air conditioner 100 responds to the swing full swing command, it controls the air conditioner 100 to enter the full swing mode. The position control mode also includes: when the working state includes the cooling state, controlling the first air guide plate 200 to run at a first speed to the preset position C, and controlling the first air guide plate 200 to automatically swing between the preset position E and the preset position C located between the preset position C and the preset position D at a second speed; controlling the second air guide plate 300 to run at a first speed to the fifth preset position, and controlling the second air guide plate 300 to automatically swing between the fifth preset position and the sixth preset position at a third speed; when the working state includes the heating state, controlling the first air guide plate 200 to run at a fourth speed to the preset position E, and controlling the first air guide plate 200 to automatically swing between the preset position E and the preset position D at a third speed. The air guide plate 200 swings between preset positions E and A at a first speed, and controls the second air guide plate 300 to run to a seventh preset position at a second speed, and controls the second air guide plate 300 to swing between the seventh preset position and the eighth preset position at a second speed; wherein, when the second air guide plate 300 is at the fifth preset position, there is a fourth gap between the third end and the second end 130; when the second air guide plate 300 is at the sixth preset position, there is a fifth gap between the third end and the second end 130, and the fourth gap < the fifth gap < the first gap; when the second air guide plate 300 is at the seventh preset position, there is a sixth gap between the fourth end and the second end 130; when the second air guide plate 300 is at the eighth preset position, there is a seventh gap between the fourth end and the second end 130, and the seventh gap < the sixth gap < the third gap.

[0070] Specifically, this solution achieves intelligent oscillation control of the air guide components. More specifically: First, it automatically selects different oscillation ranges based on whether the system is cooling or heating. In cooling mode, the first air guide plate 200 automatically oscillates between preset positions C and E, while the second air guide plate 300 oscillates synchronously between the fifth and sixth preset positions. This design ensures that the cool air can evenly cover a larger area. Second, in heating mode, the oscillation range of the first air guide plate 200 automatically adjusts to between preset positions E and A, while the second air guide plate 300 oscillates accordingly between the seventh and eighth preset positions. This differentiated oscillation range design effectively improves the heating effect and accelerates the uniformity of indoor temperature. Third, the synchronous oscillation of the two air guide plates not only shortens the time required to adjust the airflow direction and improves the adjustment efficiency, but also enhances the air delivery distance through the synergistic effect of airflow, solving the problem of limited air delivery distance of traditional single air guide plate oscillation.

[0071] Furthermore, when the air conditioner 100 responds to the swing-off setting command, it controls the air conditioner 100 to enter the setting mode. The position control mode also includes: when the working state includes the cooling state, controlling the first air guide plate 200 to swing between the first setting position and the second setting position, and controlling the second air guide plate 300 to swing between the third setting position and the fourth setting position; when the working state includes the heating state, controlling the first air guide plate 200 to swing between the fifth setting position and the sixth setting position, and controlling the second air guide plate 300 to swing between the seventh setting position and the eighth setting position.

[0072] Specifically, this solution achieves precise and personalized control of the air guide components. More specifically: First, by setting multiple fixed positions (the multiple fixed positions mentioned in this embodiment include, but are not limited to, the first fixed position, the second fixed position, the fourth fixed position, the fifth fixed position, the sixth fixed position, the seventh fixed position, and the eighth fixed position), users are provided with a wide range of air delivery angle options to meet the air guidance needs in different scenarios; Second, the fixed positions of the first air guide plate 200 and the second air guide plate 300 cooperate with each other, and each combination of fixed positions has been precisely calculated to ensure that the optimal airflow organization pattern can be formed at that position; Third, the synchronous fixed position control of the two air guide plates avoids the airflow dead zones and air delivery blind spots that may occur when a single air guide plate is fixed, improving the uniformity and coverage of air delivery; Fourth, the design of multiple fixed positions fully considers the special needs of different installation environments (such as high wall mounting and low wall mounting) and different usage scenarios (such as bedrooms and living rooms), which not only meets the user's personalized needs for air delivery angles, but also ensures the stability and comfort of air conditioning operation.

[0073] Furthermore, when the air conditioner 100 responds to the swing fixing command, it controls the air conditioner 100 to enter the swing mode. The position control mode also includes: determining whether the air conditioner 100 has a memory position; if a memory position exists, controlling the first air guide plate 200 and the second air guide plate 300 to operate at the memory position; if no memory position exists, controlling the first air guide plate 200 to operate at a first speed to a preset position C, and controlling the second air guide plate 300 to operate at a first speed to a third preset position; wherein, when a memory position exists and the power-on command changes, the memory position is cleared.

[0074] Specifically, this solution achieves user-friendly and intelligent control of the air guide component. More specifically: First, it has a memory function for the air guide position, capable of determining whether a previously set memory position exists. This design fully considers user habits and improves operational convenience. Second, when a memory position exists, the first air guide plate 200 and the second air guide plate 300 automatically return to the memory position, allowing the user to obtain the previously satisfactory air delivery effect without repeated adjustments. Third, when no memory position exists, the air conditioner 100 intelligently moves the first air guide plate 200 to the preset position C and controls the second air guide plate 300 to the third preset position to ensure the basic air delivery effect of the air guide component. Fourth, the memory position is automatically cleared when the start-up command changes, avoiding interference between different modes, ensuring the stability of the air guide component's operation, and improving user comfort and convenience.

[0075] Furthermore, the start-up command also includes a self-cleaning command and / or an anti-mold command and / or a residual heat blowing command. The position control mode also includes: when the air conditioner 100 responds to the self-cleaning command and / or the anti-mold command and / or the residual heat blowing command, controlling the first air guide plate 200 to run at a first speed to a preset position D, and controlling the second air guide plate 300 to run at a first speed to a fourth preset position; wherein, when the air conditioner 100 receives multiple start-up commands, the priority order of the start-up commands is: comfort command > full swing command > swing fixed command > swing fixed command > self-cleaning command and / or anti-mold command and / or residual heat blowing command.

[0076] Specifically, this solution achieves comprehensive intelligent control of the air guide assembly. More specifically: First, it integrates special functions such as self-cleaning, anti-mold, and residual heat blowing commands. When the air conditioner responds to these commands, the first air guide plate 200 moves to the preset position D, controlling the second air guide plate 300 to move to the fourth preset position, ensuring the optimal execution effect of the special functions. Second, it establishes a clear command priority order (comfortable airflow command > full swing command > fixed swing command > fixed swing command > self-cleaning command / anti-mold command / residual heat blowing command), avoiding conflicts when multiple commands coexist. This ensures the priority of basic comfort functions without affecting the normal execution of special functions, improving the overall coordination of the air guide assembly.

[0077] On the other hand, such as Figure 8 As shown, the present invention also provides a control system 400 for an air guide assembly. The control system 400 is used to control the air guide assembly to perform the control method as described in any of the above technical solutions. The control system 400 includes: an instruction receiving unit 410, an acquisition unit 420, and a control unit 430. Specifically, the instruction receiving unit 410 is used to receive control instructions, the acquisition unit 420 is used to acquire the instruction type of the control instructions, and the control unit 430 is used to control the first driving component 210 to drive the first air guide plate 200 to swing, and control the second driving component 310 to drive the second air guide plate 300 to swing, according to the instruction type.

[0078] Furthermore, the control system 400 also includes an angle memory unit 440, which is used to remember the positions of the first air guide plate 200 and the second air guide plate 300. The angle memory unit 440 operates as follows: when the air conditioner 100 enters the full swing mode, it records the first current position of the first air guide plate 200 and the second current position of the second air guide plate 300 every time period T; when the air conditioner 100 enters the swing fixed mode, it uses the last recorded first current position of the air conditioner 100 in the full swing mode as the memory position of the first air guide plate 200, and uses the last recorded second current position as the memory position of the second air guide plate 300; when the operating mode of the air conditioner 100 is switched, the memory position is cleared.

[0079] Thirdly, the present invention also provides an air conditioner 100, which includes the control system 400 in any of the above technical solutions.

[0080] The following combination Figures 2 to 7 Some specific embodiments provided by the present invention will be described below. It should be noted that, Figures 5 to 7 The second drive component 310 is not shown.

[0081] To prevent the first air guide plate 200 and the second air guide plate 300 from jamming when the air conditioner 100 responds to the next start-up command, such as Figure 2 and Figure 3 As shown, when the air conditioner 100 responds to the shutdown command, it is controlled to enter the power-on reset state, specifically including the following steps: Step 1: Control the first air guide plate 200 to move clockwise at a first speed to the preset position A (e.g., Figure 2 As shown, the angle between the first air guide plate 200 and the second end 130 of the air outlet 110 is 180 degrees), and the second air guide plate 300 is controlled to move counterclockwise at a first speed to a first preset position (e.g., Figure 2 As shown, the air guide side 340 of the second air guide plate 300 faces upwards of the air conditioner 100, so that the air outlet 110 is in a fully open state; Step 2: Control the second air guide plate 300 to rotate clockwise 29 degrees at a first speed; Step 3: Control the second air guide plate 300 to move clockwise to a second preset position at a second speed (e.g., Figure 3 As shown, the second air guide plate 300 completely blocks the air outlet 110, and controls the first air guide plate 200 to move counterclockwise at a first speed to the preset position B (e.g., Figure 3 As shown, the angle between the first air guide plate 200 and the second end plate 130 is 10 degrees, so that the air outlet 110 is in the fully closed state.

[0082] When the air conditioner 100 responds to the start command (the default operating state of the air conditioner 100 is cooling mode), the following situations will occur:

[0083] Cooling state: When the air conditioner 100 executes the comfort command, it controls the first air guide vane 200 to move at a first speed to a preset position C located between preset position A and preset position B (e.g., Figure 4 As shown, when the first air guide plate 200 is at the preset position C, the angle between the first air guide plate 200 and the second end plate 130 is 80 degrees, and the second air guide plate 300 is controlled to run at the first speed to the third preset position (e.g., Figure 4 As shown, the air guide side 340 of the second air guide plate 300 is located at an upward tilt, and the angle between the line connecting the third end 320 and the fourth end 330 of the second air guide plate 300 and the first air guide plate 200 is 110 degrees.

[0084] When the air conditioner 100 switches from cooling mode to heating mode: the first air guide vane 200 is controlled to move at a first speed from a preset position C to a preset position D located between preset position C and preset position A (e.g., ...). Figure 5 As shown, when the first air guide plate 200 is in the preset position D, the angle between the first air guide plate 200 and the second end 130 is 120 degrees, and the second air guide plate 300 is controlled to move from the third preset position to the fourth preset position at the first speed (e.g., Figure 5 As shown, the air guide side 340 of the second air guide plate 300 is in a downward tilted position; wherein, when the second air guide plate 300 is in the fourth preset position, the third end 320 abuts against the panel 120 of the air conditioner 100.

[0085] When the air conditioner 100 executes the full swing command, and the operating state includes cooling mode: (e.g.) Figure 6 As shown, firstly, the first air guide plate 200 is controlled to move at a first speed to a preset position C, and then the first air guide plate 200 is controlled to move at a second speed to a preset position E located between the preset position C and the preset position D (e.g., ...). Figure 6 As shown, when the first air guide plate 200 is located at the preset position E, the angle between the first air guide plate 200 and the second end 130 is 100 degrees and the preset position C is automatically oscillating. Simultaneously, the second air guide plate 300 is first controlled to run to the second preset position at the first speed, and then the second air guide plate 300 is controlled to automatically oscillate between the fifth preset position and the sixth preset position at the third speed.

[0086] When the operating status includes heating mode: such as Figure 7 As shown, firstly, control the first air guide plate 200 to run at the fourth speed to the preset position E (e.g., Figure 7 As shown, while controlling the first air guide plate 200 to swing between preset positions E and A at a first speed, simultaneously controlling the second air guide plate 300 to move to a seventh preset position at a second speed, and then controlling the second air guide plate 300 to swing between the seventh preset position and the eighth preset position at a second speed; wherein, when the second air guide plate 300 is at the fifth preset position, there is a fourth gap between the third end and the second end 130; when the second air guide plate 300 is at the sixth preset position, there is a fifth gap between the third end and the second end 130, and the fourth gap < the fifth gap < the first gap; when the second air guide plate 300 is at the seventh preset position, there is a sixth gap between the fourth end and the second end 130; when the second air guide plate 300 is at the eighth preset position, there is a seventh gap between the fourth end and the second end 130, and the seventh gap < the sixth gap < the third gap.

[0087] While the present invention has been disclosed above, it is not limited thereto. Any person skilled in the art can make various modifications and alterations without departing from the spirit and scope of the invention; therefore, the scope of protection of the present invention should be determined by the scope defined in the claims.

Claims

1. A control method for an air guide assembly, characterized in that, The air guiding assembly includes a first air guiding plate (200) disposed inside the air outlet (110) of the air conditioner (100), a second air guiding plate (300) disposed on the side of the air conditioner (100) away from the air outlet (110), a first driving component (210) disposed at the connection between the first air guiding plate (200) and the air outlet (110), and a second driving component (310) disposed at the connection between the first air guiding plate (200) and the second air guiding plate (300); the control method includes: Receive control commands; Obtain the instruction type of the control command, wherein the instruction type includes power-on command and power-off command; According to the instruction type, the first driving component (210) is controlled to drive the first air guide plate (200) to swing, and the second driving component (310) is controlled to drive the second air guide plate (300) to swing; When the first driving component (210) drives the first air guide plate (200) to swing, the first air guide plate (200) drives the second driving component (310) to swing together with the second air guide plate (300), so that the first air guide plate (200) and the second air guide plate (300) define the air outlet direction of the air conditioner (100).

2. The control method according to claim 1, characterized in that, The step of controlling the first driving component (210) to drive the first air guide plate (200) to swing according to the instruction type, and controlling the second driving component (310) to drive the second air guide plate (300) to swing, includes: When the control command includes the power-off command, the air conditioner (100) is controlled to enter the power-on reset state; When the control command includes the power-on command, the air conditioner (100) is controlled to enter normal operation. When the air conditioner (100) enters the power-on reset state or the normal operation state, the position states of the first air guide plate (200) and the second air guide plate (300) are adjusted.

3. The control method according to claim 2, characterized in that, The air outlet (110) is provided with a first end (121) and a second end (130) arranged opposite to each other, and the second air guide plate (300) is provided with a third end (320) and a fourth end (330). When the air conditioner (100) enters the power-on reset state, the adjustment of the position of the first air guide plate (200) and the second air guide plate (300) includes: Step 1: Control the first air guide plate (200) to move clockwise at the first speed to the preset position A, and control the second air guide plate (300) to move counterclockwise at the first speed to the first preset position, so that the air outlet (110) is in the fully open state; Step 2: Control the second air guide plate (300) to rotate clockwise at the first speed and the first angle; Step 3: Control the second air guide plate (300) to move clockwise at the second speed to the second preset position, and control the first air guide plate (200) to move counterclockwise at the first speed to the preset position B, so that the air outlet (110) is in the fully closed state; When the air outlet (110) is in the fully closed state, the first air guide plate (200) is housed inside the air outlet (110), and the third end (320) abuts against the first end (121), and the fourth end (330) abuts against the second end (130), so that the second air guide plate (300) blocks the air outlet (110). When the air outlet (110) is fully open, the first air guide plate (200) abuts against the first end (121), the air guide side (340) of the second air guide plate (300) is in an inclined upward position, and there is a first gap between the third end (320) and the second end (130), so that the first air guide plate (200) and the second air guide plate (300) are located away from the air outlet (110).

4. The control method according to claim 3, characterized in that, When the air conditioner (100) enters the normal operating state, the adjustment of the position of the first air guide plate (200) and the second air guide plate further includes: The operating status of the air conditioner (100) is obtained, including cooling status and heating status; According to the power-on command and the working status, the first air guide plate (200) and the second air guide plate (300) are controlled to enter the position control mode; The power-on commands include the following commands: Airflow control command, full swing control command, swing freeze command, and swing fixation command.

5. The control method according to claim 4, characterized in that, When the air conditioner (100) executes the start command, the default working state of the air conditioner (100) is the cooling state; When the air conditioner (100) responds to the comfort command, it is controlled to enter the comfort mode, the position control mode including: Control the first air guide plate (200) to run at the first speed to the preset position C located between the preset position A and the preset position B, and control the second air guide plate (300) to run at the first speed to the third preset position; Wherein, the ratio of the first distance from the preset position C to the preset position A to the second distance from the preset position B to the preset position A is 0.3-0.7; When the second air guide plate (300) is located in the third preset position, there is a second gap between the third end (320) and the second end (130), and the second gap is smaller than the first gap.

6. The control method according to claim 5, characterized in that, When the air conditioner (100) switches from the cooling state to the heating state, the position control mode further includes: Control the first air guide plate (200) to move from the preset position C to the preset position D located between the preset position C and the preset position A at the first speed, and control the second air guide plate (300) to move from the third preset position to the fourth preset position at the first speed; When the second air guide plate (300) is located in the fourth preset position, the third end (320) abuts against the panel (120) of the air conditioner (100), and the air guide side (340) is in a downward tilted position.

7. The control method according to claim 6, characterized in that, When the second air guide plate (300) is located in the fourth preset position, there is a third gap between the fourth end (330) and the second end (130). When the air conditioner (100) responds to the swing full swing command, it controls the air conditioner (100) to enter the full swing mode. The position control mode further includes: When the working state includes the cooling state, the first air guide plate (200) is controlled to run to the preset position C at the first speed, and the first air guide plate (200) is controlled to automatically swing between the preset position E located between the preset position C and the preset position D at the second speed. The second air guide plate (300) is controlled to run to the fifth preset position at the first speed, and the second air guide plate (300) is controlled to automatically swing between the fifth preset position and the sixth preset position at the third speed. When the working state includes the heating state, the first air guide plate (200) is controlled to run at the fourth speed to the preset position E, and the first air guide plate (200) is controlled to swing between the preset position E and the preset position A at the first speed. The second air guide plate (300) is controlled to run at the second speed to the seventh preset position, and the second air guide plate (300) is controlled to swing between the seventh preset position and the eighth preset position at the second speed. Wherein, when the second air guide plate (300) is located at the fifth preset position, there is a fourth gap between the third end and the second end (130); when the second air guide plate (300) is located at the sixth preset position, there is a fifth gap between the third end and the second end (130), and the fourth gap < the fifth gap < the first gap; When the second air guide plate (300) is located at the seventh preset position, there is a sixth gap between the fourth end and the second end (130). When the second air guide plate (300) is located at the eighth preset position, there is a seventh gap between the fourth end and the second end (130), and the seventh gap < the sixth gap < the third gap.

8. The control method according to claim 6, characterized in that, When the air conditioner (100) responds to the swing-freeze command, it controls the air conditioner (100) to enter the freeze mode. The position control mode further includes: When the working state includes the cooling state, the first air guide plate (200) is controlled to swing between the first fixed position and the second fixed position, and the second air guide plate (300) is controlled to swing between the third fixed position and the fourth fixed position. When the working state includes the heating state, the first air guide plate (200) is controlled to swing between the fifth fixed position and the sixth fixed position, and the second air guide plate (300) is controlled to swing between the seventh fixed position and the eighth fixed position.

9. The control method according to claim 6, characterized in that, When the air conditioner (100) responds to the swing fixing command, the air conditioner (100) is controlled to enter the swing mode, and the position control mode further includes: Determine whether the air conditioner (100) has a memory position; If the memory position exists, then control the first air guide plate (200) and the second air guide plate (300) to operate according to the memory position; If the memory position does not exist, the first air guide plate (200) is controlled to run at the first speed to the preset position C, and the second air guide plate (300) is controlled to run at the first speed to the third preset position; Specifically, when the memory location exists and the power-on command changes, the memory location is cleared.

10. The control method according to any one of claims 6 to 9, characterized in that, The power-on command also includes a self-cleaning command and / or an anti-mold command and / or a residual heat blowing command, and the position control mode also includes: When the air conditioner (100) responds to the self-cleaning command and / or the anti-mildew command and / or the residual heat blowing command, it controls the first air guide plate (200) to run to the preset position D at the first speed, and controls the second air guide plate (300) to run to the fourth preset position at the first speed; When the air conditioner (100) receives multiple start-up commands, the priority order of the start-up commands is as follows: the comfort command > the full swing command > the swing fixed command > the swing fixed command > the self-cleaning command and / or the anti-mildew command and / or the residual heat blowing command.

11. A control system for an air guide assembly, characterized in that, The control system (400) is used to control the air guide assembly to perform the control method as described in any one of claims 1 to 10, and the control system (400) includes: Instruction receiving unit (410), the instruction receiving unit (410) is used to receive control instructions; Acquisition unit (420), the acquisition unit (420) is used to acquire the instruction type of the control instruction; Control unit (430) is used to control the first driving component (210) to drive the first air guide plate (200) to swing according to the instruction type, and to control the second driving component (310) to drive the second air guide plate (300) to swing.

12. The control system according to claim 11, characterized in that, The control system (400) further includes: An angle memory unit (440) is used to remember the positions of the first air guide plate (200) and the second air guide plate (300); The angle memory unit (440) operates in the following ways: When the air conditioner (100) enters the full swing mode, the first current position of the first air guide plate (200) and the second current position of the second air guide plate (300) are recorded once every time period T. When the air conditioner (100) enters the swing fixed mode, the first current position recorded last time in the full swing mode of the air conditioner (100) is used as the memory position of the first air guide plate (200), and the second current position recorded last time is used as the memory position of the second air guide plate (300). When the operating mode of the air conditioner (100) is switched, the memory position is cleared.

Images