WO2020177613A1 - 一种空调参数优化方法 - Google Patents

一种空调参数优化方法 Download PDF

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Publication number
WO2020177613A1
WO2020177613A1 PCT/CN2020/076969 CN2020076969W WO2020177613A1 WO 2020177613 A1 WO2020177613 A1 WO 2020177613A1 CN 2020076969 W CN2020076969 W CN 2020076969W WO 2020177613 A1 WO2020177613 A1 WO 2020177613A1
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Prior art keywords
air
wind
parameter
adjustment mode
air conditioner
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PCT/CN2020/076969
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English (en)
French (fr)
Inventor
何振华
薛冬旺
杨林
李宁
朱连花
Original Assignee
青岛海尔空调器有限总公司
海尔智家股份有限公司
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Publication of WO2020177613A1 publication Critical patent/WO2020177613A1/zh

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    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/62—Control or safety arrangements characterised by the type of control or by internal processing, e.g. using fuzzy logic, adaptive control or estimation of values
    • F24F11/63—Electronic processing
    • F24F11/64—Electronic processing using pre-stored data
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/50—Control or safety arrangements characterised by user interfaces or communication
    • F24F11/56—Remote control
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/62—Control or safety arrangements characterised by the type of control or by internal processing, e.g. using fuzzy logic, adaptive control or estimation of values
    • F24F11/63—Electronic processing
    • F24F11/65—Electronic processing for selecting an operating mode
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/70—Control systems characterised by their outputs; Constructional details thereof
    • F24F11/72—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure
    • F24F11/74—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure for controlling air flow rate or air velocity
    • F24F11/77—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure for controlling air flow rate or air velocity by controlling the speed of ventilators
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/70—Control systems characterised by their outputs; Constructional details thereof
    • F24F11/72—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure
    • F24F11/79—Control systems characterised by their outputs; Constructional details thereof for controlling the supply of treated air, e.g. its pressure for controlling the direction of the supplied air
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F2110/00—Control inputs relating to air properties
    • F24F2110/10—Temperature
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F2110/00—Control inputs relating to air properties
    • F24F2110/10—Temperature
    • F24F2110/12—Temperature of the outside air
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B30/00—Energy efficient heating, ventilation or air conditioning [HVAC]
    • Y02B30/70—Efficient control or regulation technologies, e.g. for control of refrigerant flow, motor or heating

Definitions

  • the invention belongs to the technical field of air conditioners, and specifically relates to an air conditioner parameter optimization method.
  • air conditioners have become an indispensable part of people's lives and work, and people are increasingly dependent on air conditioners. Due to the continuous update and iteration of air conditioning technology, the air conditioning control scheme (that is, the air conditioning control program and the air conditioning EE parameters) is also constantly optimized.
  • the internal operating parameters of the air conditioner are set uniformly, such as the internal fan speed of the air conditioner and the position of the air conditioner guide plate. Since each user is a different individual, personal habits are also very different, and the installation environment of the air conditioner is also different, and the unified operating parameters of the air conditioner cannot satisfy the user's daily use. Due to the number of users and individual differences, mass customization is also a difficult way to implement.
  • the invention provides a method for optimizing air-conditioning parameters, which meets the requirements of users for air-conditioning parameters and improves the user's use experience.
  • the present invention adopts the following technical solutions to achieve:
  • An air conditioning parameter optimization method including parameter setting steps and parameter calling steps:
  • the parameter setting step includes: manually adjusting the air conditioning parameters, and storing the air conditioning parameters and the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature in the storage unit after the adjustment is completed;
  • the parameter calling step includes: after the air conditioner is restarted, obtaining the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature, querying the storage unit, obtaining the corresponding air conditioning parameter, and controlling the air conditioning operation according to the corresponding air conditioning parameter.
  • the air conditioning parameter is determined to be the first set parameter, and the air conditioning operation is controlled according to the determined air conditioning parameter;
  • the air conditioning parameter is determined to be the second setting parameter, and the air conditioning operation is controlled according to the determined air conditioning parameter;
  • the air conditioning parameter is determined to be the third set parameter, and the air conditioning operation is controlled according to the determined air conditioning parameter.
  • the air-conditioning parameters include the speed of the indoor fan
  • the manual adjustment of the air-conditioning parameters specifically includes: using a parameter setting device to control the air conditioner to enter the wind speed adjustment mode, adjust the speed of the indoor fan, and exit the wind speed adjustment mode after the adjustment is completed;
  • the adjusted indoor fan speed and the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature are stored in the storage unit.
  • the current fan gear and the set speed range corresponding to the current fan gear are acquired, and the speed of the indoor fan is adjusted within the set speed range.
  • the parameter setting device is a remote control; the remote control is used to control the air conditioner to enter the wind speed adjustment mode, and the indoor fan speed is adjusted through the remote control buttons.
  • the air conditioner parameters include the angle of the air deflector
  • the manual adjustment of the air conditioner parameters specifically includes: using a parameter setting device to control the air conditioner to enter the air deflector adjustment mode, adjust the angle of the air deflector, and exit the air deflector after the adjustment is completed Plate adjustment mode; the adjusted air deflector angle and the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature are stored in the storage unit.
  • the set angle range is acquired, and the angle of the air deflector is adjusted within the set angle range.
  • the parameter setting device is a remote control; the remote control is used to control the air conditioner to enter the wind deflector adjustment mode, and the angle of the wind deflector is adjusted through the remote control buttons.
  • the air-conditioning parameters include whether left swing wind is canceled, right swing wind is canceled, upper swing wind is canceled, and lower swing wind is canceled.
  • the manual adjustment of the air-conditioning parameters specifically includes: using a parameter setting device to control The air conditioner enters the left swing air adjustment mode, cancels or restores the left swing air, and exits the left swing air adjustment mode after the adjustment is completed; uses the parameter setting device to control the air conditioner to enter the right swing air adjustment mode, cancel or restore the right swing air, and exit after the adjustment is completed Right swing air adjustment mode; use the parameter setting device to control the air conditioner to enter the upper swing air adjustment mode, cancel or restore the upper swing air, and exit the upper swing air adjustment mode after the adjustment is completed; use the parameter setting device to control the air conditioner to enter the lower swing air adjustment mode, Cancel or restore the hem wind, and exit the hem wind adjustment mode after the adjustment is completed.
  • the parameter setting device is a remote control; use the remote control to control the air conditioner to enter the left swing wind adjustment mode, and use the remote control button to cancel or restore the left swing wind; use the remote control to control the air conditioner to enter the right swing wind adjustment mode through Use the remote control button to cancel or restore the right swing wind; use the remote control to control the air conditioner to enter the upper swing wind adjustment mode, and use the remote control button to cancel or restore the upper swing wind; use the remote control to control the air conditioner to enter the lower swing wind adjustment mode, and press the remote control button to cancel or Restore hem wind.
  • the air conditioning parameter optimization method of the present invention manually adjusts the air conditioning parameters, and after the adjustment is completed, the air conditioning parameters and the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature are corresponded to Save in the storage unit; after the air conditioner restarts, get the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature, query the storage unit to obtain the corresponding air conditioning parameters, and control the air conditioning operation according to the corresponding air conditioning parameters; therefore, when the air conditioning restarts After that, the air conditioning parameters set by the user can be directly called to meet the user's requirements for air conditioning parameters and improve the user's comfort and experience.
  • Fig. 1 is a flowchart of an embodiment of an air conditioning parameter optimization method proposed by the present invention
  • Fig. 2 is a flowchart of another embodiment of the air conditioning parameter optimization method proposed by the present invention.
  • the air conditioning parameter optimization method of this embodiment mainly includes the following steps, as shown in FIG. 1.
  • Step S1 Parameter setting steps:
  • the storage unit can be set independently or integrated in the air conditioning control panel.
  • Step S2 Parameter call step:
  • the air conditioner After the air conditioner restarts, obtain the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature, query the storage unit, obtain the corresponding air-conditioning parameters, and control the air-conditioning operation according to the corresponding air-conditioning parameters to meet the needs of users and improve user comfort.
  • the air conditioning parameter optimization method of this embodiment manually adjusts the air conditioning parameters. After the adjustment is completed, the air conditioning parameters and the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature are stored in the storage unit; after the air conditioner is restarted, the current outdoor The temperature difference between the ambient temperature and the current indoor ambient temperature, query the storage unit, obtain the corresponding air-conditioning parameters, and control the air-conditioning operation according to the corresponding air-conditioning parameters; therefore, when the air-conditioning is restarted, the air-conditioning parameters set by the user can be directly called to meet the user’s requirements.
  • the requirements of air conditioning parameters improve the comfort and experience of users.
  • the temperature difference between the outdoor ambient temperature and the indoor ambient temperature is matched with the set air-conditioning parameters, so as to realize that the air-conditioning operating state meets the needs of the user.
  • the user can independently optimize the operating parameters of the air conditioner to achieve the user-oriented product goal.
  • the storage unit does not find the corresponding temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature
  • the value of the air-conditioning parameters is determined according to the range of the current outdoor ambient temperature and the current indoor ambient temperature, so as to control the operation of the air-conditioning and avoid the operation of the air-conditioning malfunction. details as follows:
  • the air conditioning parameter is determined to be the first set parameter, and the air conditioning operation is controlled according to the determined air conditioning parameter.
  • the air conditioning parameter is determined to be the second set parameter, and the air conditioner operation is controlled according to the determined air conditioning parameter.
  • the air conditioning parameter is determined to be the third set parameter, and the air conditioning operation is controlled according to the determined air conditioning parameter.
  • the first set temperature difference value is 5°C
  • the second set temperature difference value is 7°C. If the air conditioning parameter is the indoor fan speed, the first setting parameter is the lower limit of the speed, the third setting parameter is the upper limit of the speed, and the second setting parameter is between the first setting parameter and the third setting parameter .
  • the air-conditioning parameter is the air deflector angle
  • the first setting parameter is the lower limit value of the angle
  • the third setting parameter is the upper limit value of the angle
  • the second setting parameter is between the first setting parameter and the third setting parameter. between.
  • indoor fan gears are generally divided into: strong gear, high wind gear, medium wind gear, low wind gear, and silent gear. Different gear positions correspond to different fan speeds.
  • the user uses the air conditioner, he will change the gear according to his needs, but sometimes he feels that the wind speed does not meet his needs, and sometimes he feels that the wind speed is too high or the wind speed is low, which cannot meet the demand. Therefore, in order to meet the user's demand for the speed of the indoor fan, the user can personally adjust the speed of the indoor fan.
  • the air-conditioning parameters include the indoor fan speed
  • the manual adjustment of the air-conditioning parameters specifically includes: using a parameter setting device to control the air conditioner to enter the wind speed adjustment mode, adjust the indoor fan speed, and exit the wind speed adjustment mode after the adjustment is completed.
  • the adjusted indoor fan speed and the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature are correspondingly saved in the storage unit. After the air conditioner restarts, obtain the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature, query the storage unit to obtain the indoor fan speed corresponding to the temperature difference, and control the air conditioner operation according to the corresponding indoor fan speed to meet the needs of users and improve user use Comfort.
  • Each fan gear corresponds to a set speed range. If it exceeds the set speed range, it will affect the reliability of the fan.
  • the speed of the indoor fan obtain the current fan position and the set speed range corresponding to the current fan position, and adjust the speed of the indoor fan within the set speed range to avoid user adjustment
  • the indoor fan speed exceeds the set speed range to avoid affecting the normal operation of the fan. That is, within the set speed range of the fan gear, the speed is refined to meet the individual needs of users.
  • the parameter setting device in order to facilitate the user to manually set the rotation speed of the indoor fan, is a remote control.
  • the remote control is used to control the air conditioner to enter the wind speed adjustment mode, and the indoor fan rotation speed is adjusted through the remote control buttons.
  • the user can independently adjust the wind speed on the remote control, press the "wind speed adjustment” button on the remote control, the remote control sends the key information to the air conditioning control panel, and the air conditioning control panel sends 3 after receiving the key information. If the sound reverberates, it means entering the wind speed adjustment mode.
  • the set speed range corresponding to the high wind gear is from 90 rpm to 120 rpm; the user presses the "up” or “down” button on the remote control to adjust the wind speed, Assuming that the wind speed adjustment is based on the set wind speed increase or decrease value a (such as 10 rpm), that is, every time you press the "up” button, the air-conditioning control panel controls the wind speed of the internal fan to increase by a (such as 10 rpm); Press the "down” button once, and the air-conditioning control panel controls the wind speed of the internal fan to decrease a (such as 10 rpm).
  • a such as 10 rpm
  • the air conditioner control panel will calculate whether the current wind speed increases/decreases by a (such as 10 rpm) and whether it exceeds the set speed range. If it exceeds, the air conditioner control panel controls The fan maintains the current wind speed and emits an alarm sound to indicate that it cannot exceed the set speed range; if it does not exceed, the air-conditioning control panel controls the wind speed of the internal fan to increase/decrease a (such as 10 rpm).
  • a such as 10 rpm
  • the user can adjust to the best experience wind speed value (the wind speed value is within the set speed range) to realize the personalized setting of the fan speed; then press the "wind speed adjustment" button on the remote control again, the air conditioner
  • the control panel After the control panel receives the button information, it emits 4 echoes, which means exiting the wind speed adjustment mode; the air conditioning control panel saves the wind speed value and the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature in the storage unit.
  • the air conditioner will detect the outdoor ambient temperature and the indoor ambient temperature once, and find the wind speed value set by the user according to the temperature difference between the outdoor ambient temperature and the indoor ambient temperature. This also shows that the method of this embodiment can support multiple settings for the user, and can also give the user different comfort experiences under different environments.
  • the position of the air deflector in the prior art is generally five positions, which is not sufficiently detailed.
  • the position of the air deflector of the air conditioner is established according to the laboratory standard during the manufacturing process. However, in the user's home, the effect of direct blowing, anti-direct blowing, and furthest distance blowing may not be good due to the different indoor installation height and installation position. Case.
  • the current air outlet direction of the air conditioner is direct blowing, but users do not like direct blowing, and when choosing other air outlet directions, they will feel that the air volume and wind speed are not enough to meet the needs of use.
  • the blowing direction of an air conditioner installed at a height of 2 meters and a height of 3 meters is different, and the direct blowing direction at 2 meters and 3 meters will also be offset; especially due to the structure of the room, it may be because the room is narrow , The furthest distance the air conditioner blows may blow to the wall, resulting in poor utilization. Therefore, in order to meet the user's demand for the wind direction, the user can personally adjust the angle of the wind deflector.
  • the air conditioner parameters include the angle of the air deflector
  • the manual adjustment of the air conditioner parameters specifically includes: using a parameter setting device to control the air conditioner to enter the air deflector adjustment mode, adjust the angle of the air deflector, and exit the air deflector after the adjustment is completed.
  • Wind panel adjustment mode The adjusted angle of the wind deflector and the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature are correspondingly stored in the storage unit. After the air conditioner restarts, obtain the temperature difference between the current outdoor ambient temperature and the current indoor ambient temperature, query the storage unit, obtain the air deflector angle corresponding to the temperature difference, and control the operation of the air conditioner according to the corresponding air deflector angle to meet the needs of users and improve User comfort.
  • the angle of the wind deflector has a set angle range. If it exceeds the set angle range, the reliability of the wind deflector will be affected.
  • the angle of the air deflector when adjusting the angle of the air deflector, obtain the set angle range, and adjust the angle of the air deflector within the set angle range to prevent the user from exceeding the set angle when adjusting the angle of the air deflector Range to avoid affecting the normal operation of the wind deflector. That is, within the set angle range, the angle of the wind deflector is finely divided to meet the individual needs of users.
  • the parameter setting device is a remote control; the remote controller is used to control the air conditioner into the wind deflector adjustment mode, and the angle of the wind deflector is adjusted through the remote control buttons.
  • the user can independently adjust the angle of the air deflector on the remote control, press the "Air deflector adjustment” button on the remote control, the remote control sends the key information to the air conditioner control panel, and the air conditioner control panel receives the button After the message, 3 reverberations are emitted, which means that the air deflector adjustment mode is entered.
  • the user presses the "up” or “down” button on the remote control to adjust the angle of the air deflector. Since the air deflector is driven by a stepping motor, the change of the angle of the air deflector corresponds to the stepping motor step.
  • the air deflector angle adjustment takes the set angle increase or decrease value b2 (such as 5°) as the unit
  • b1 such as 10 steps
  • b2 such as 5°
  • the unit that is, every time you press the "up” key, the number of steps of the air-conditioning control board control motor increases by b1 (such as 10 steps), and the air deflector angle increases by b2 (such as 5°); each time you press the "down" key, the air-conditioning control panel controls
  • the number of motor steps is reduced by b1 (such as 10 steps), and the angle of the wind deflector is reduced by b2 (such as 5°).
  • the air conditioner control panel will calculate whether the current angle increases/decreases by b2 (such as 5°) if it exceeds the set angle range, if it exceeds, the air conditioner control panel controls the stepping The motor maintains the current number of steps, the air deflector maintains the current angle, and an alarm sounds, indicating that the set angle range cannot be exceeded; if it does not exceed, the air conditioning control board controls the motor step number to increase/decrease b1 (such as 10 steps), and the air guide The plate angle increases/decreases b2 (for example, 5°).
  • b2 such as 5°
  • the user can adjust the angle of the wind deflector to the most satisfactory angle value (the angle value is within the set angle range) to realize the personalized setting of the angle of the wind deflector; then press the "on the remote control" again
  • the air-conditioning control panel will emit 4 echoes, which means exiting the air-deflecting panel adjustment mode; the air-conditioning control panel will set the angle value (or the corresponding number of steps of the stepping motor) and the current room
  • the temperature difference between the outer ring temperature and the current indoor ring temperature is stored in the storage unit.
  • the air conditioner When the air conditioner restarts, the air conditioner will detect the outdoor ambient temperature and the indoor ambient temperature once, and find the angle value set by the user according to the temperature difference between the outdoor ambient temperature and the indoor ambient temperature. This also shows that the method of this embodiment can support multiple settings for the user, and can also give the user different comfort experiences under different environments.
  • the left and right swing wind conditions of the wind deflector are made according to laboratory standards during production, but when it arrives at the user’s home, it may be different due to the indoor installation height and installation position. If installed on a cavity near the corner, it will affect The utilization rate of the left and right swing wind and the upper and lower swing wind, therefore, in order to meet the user's demand for the wind direction, the user can personally adjust the left and right swing wind and the upper and lower swing wind.
  • the air-conditioning parameters include whether left swing wind is canceled, right swing wind is canceled, upper swing wind is canceled, and lower swing wind is canceled.
  • the manually adjusted air-conditioning parameters specifically include:
  • the temperature difference between the current outdoor ambient temperature and the indoor ambient temperature may not be saved correspondingly.
  • the temperature difference corresponding to the current state of the left/right/up/down wind can be saved as "empty".
  • the parameter setting device is a remote controller.
  • the air conditioner enters the upper swing wind adjustment mode, and the upper swing wind is cancelled or restored by the remote control button; the remote control is used to control the air conditioner to enter the lower swing wind adjustment mode, and the remote control button is used to cancel or restore the lower swing wind.
  • the left/right/upper/lower wind of the air conditioner can be cancelled/recovered according to the usage situation, thereby improving the use efficiency of the air conditioner.
  • the user can manually set the left and right swing wind and the up and down wind on the remote control.
  • the remote control Press the "left swing air adjustment mode” button on the remote control, the remote control sends the key information to the air conditioner control panel, and the air conditioner control panel emits 3 echoes after receiving the button information, which means it enters the left swing air adjustment mode.
  • the user presses the "Cancel” button or “Resume” button on the remote control to cancel or restore the left swing wind, and then press the "Left swing wind adjustment mode” button on the remote control again.
  • the air conditioner control panel receives the button information, 4 reverberations indicate exit from left swing air adjustment mode; the air conditioning control panel saves the current state of left swing air (cancel left swing or restore left swing) in the storage unit.
  • the remote control Press the "right swing air adjustment mode” button on the remote control, and the remote control sends the key information to the air conditioning control panel.
  • the air conditioning control panel After the air conditioning control panel receives the button information, it will emit 3 echoes, which means it enters the right swing air adjustment mode.
  • the user presses the "Cancel” button or “Resume” button on the remote control to cancel or restore the right swing wind, and then press the "Right swing wind adjustment mode” button on the remote control again.
  • the air conditioner control panel receives the key information, 4 reverberations indicate exit from the right-swing air adjustment mode; the air conditioning control panel saves the current state of the right-swing air (cancel right-swing air or restore right-swing air) in the storage unit.
  • the remote controller will send the key information to the air conditioner control panel.
  • the air conditioner control panel After the air conditioner control panel receives the button information, it will emit 3 echoes, which means it enters the upward air adjustment mode.
  • the user presses the "Cancel” button or “Resume” button on the remote control to cancel or restore the upper swing wind, and then press the "Up swing wind adjustment mode” button on the remote control again.
  • the air conditioner control panel After the air conditioner control panel receives the key information, 4 reverberations indicate exit from the upper swing wind adjustment mode; the air conditioning control panel saves the current status of the upper swing wind (cancel the upper swing or restore the upper swing) in the storage unit.
  • the remote control Press the "hem air adjustment mode” button on the remote control, the remote control sends the key information to the air conditioner control panel. After the air conditioner control panel receives the button information, it will emit 3 echoes, which means it enters the hem air adjustment mode. The user presses the "Cancel” button or “Resume” button on the remote control to cancel or restore the hem wind, and then press the "hem wind adjustment mode” button on the remote control again, the air conditioner control panel will send out 4 after receiving the button information. If the sound echoes, it means exiting the hem wind adjustment mode; the air conditioner control panel saves the current status of the hem wind (cancel hem wind or restore hem wind) in the storage unit.
  • the user can independently optimize the operating parameters of the air conditioner according to actual needs and installation conditions of the air conditioner; by recording the temperature difference between the different outdoor ambient temperature and the indoor ambient temperature and matching the user's personalized settings, the user's personality is supported Set up.
  • This embodiment realizes that the user independently optimizes the operating parameters of the air conditioner according to their current actual needs and the air conditioner installation environment, and memorizes the adjusted operating parameters through the air conditioner control panel, thereby achieving the user-centric product goal.

Abstract

本发明公开了一种空调参数优化方法，通过人工调节空调参数，调节完成后将空调参数以及当前室外环温与当前室内环温的温差对应保存在存储单元中；空调重新启动后，获取当前室外环温与当前室内环温的温差，查询存储单元，获得对应的空调参数，根据对应的空调参数控制空调运行；因此，当空调重新启动后，可以直接调用用户设定的空调参数，满足用户对空调参数的要求，提高用户的使用舒适性和使用体验。

Description

一种空调参数优化方法 技术领域
本发明属于空调技术领域，具体地说，是涉及一种空调参数优化方法。
背景技术
当前，空调已经成为人们生活和工作中不可或缺的一部分，人们对空调的依赖度越来越高。由于空调技术的不断更新迭代，空调控制方案(即空调控制程序以及空调EE参数)也在不断优化。
目前，不同机型的空调可以针对不同的地区，保证在当地的环境下正常运行。同一地区，空调内部的运行参数是统一设定的，比如空调的内风机转速、空调导板位置等。由于每个用户作为不同的个体，个人习惯也是千差万别，空调安装环境也不同，空调统一的运行参数无法满足用户的日常使用。由于用户的数量、个体差别的存在，采取大规模定制也是难以实施的途径。
发明内容
本发明提供了一种空调参数优化方法，满足用户对空调参数的要求，提高用户的使用体验。
为解决上述技术问题，本发明采用下述技术方案予以实现：
一种空调参数优化方法，包括参数设定步骤和参数调用步骤：
所述参数设定步骤包括：人工调节空调参数，调节完成后将空调参数以及当前室外环温与当前室内环温的温差对应保存在存储单元中；
所述参数调用步骤包括：空调重新启动后，获取当前室外环温与当前室内环温的温差，查询存储单元，获得对应的空调参数，根据对应的空调参数控制空调运行。
进一步的，当在存储单元中没有查询到对应的空调参数时：
若温差≤第一设定温差值，则确定空调参数为第一设定参数，根据确定出的空调参数控制空调运行；
若第一设定温差值＜温差≤第二设定温差值，则确定空调参数为第二设定参数，根据确定出的空调参数控制空调运行；
若温差＞第二设定温差值，则确定空调参数为第三设定参数，根据确定出的空调参数控制空调运行。
又进一步的，所述空调参数包括室内风机转速，所述人工调节空调参数具体包括：使用参数设定装置控制空调进入风速调节模式，对室内风机转速进行调节，调节完成后退出风速调节模式；将调节后的室内风机转速以及当前室外环温与当前室内环温的温差对应保存在存储单元中。
更进一步的，对室内风机的转速进行调节时，获取当前风机档位以及当前风机档位对应的设定转速范围，在设定转速范围内对室内风机的转速进行调节。
再进一步的，所述参数设定装置为遥控器；使用遥控器控制空调进入风速调节模式，通过遥控器按键调节室内风机转速。
进一步的，所述空调参数包括导风板角度，所述人工调节空调参数具体包括：使用参数设定装置控制空调进入导风板调节模式，对导风板角度进行调节，调节完成后退出导风板调节模式；将调节后的导风板角度以及当前室外环温与当前室内环温的温差对应保存在存储单元中。
又进一步的，对导风板角度进行调节时，获取设定角度范围，在设定角度范围内对导风板角度进行调节。
更进一步的，所述参数设定装置为遥控器；使用遥控器控制空调进入导风板调节模式，通过遥控器按键调节导风板角度。
进一步的，所述空调参数包括左摆风取消与否、右摆风取消与否、上摆风取消与否、下摆风取消与否，所述人工调节空调参数具体包括：使用参数设定装置控制空调进入左摆风调节模式，取消或恢复左摆风，调节完成后退出左摆风调节模式；使用参数设定装置控制空调进入右摆风调节模式，取消或恢复右摆风，调节完成后退出右摆风调节模式；使用参数设定装置控制空调进入上摆风调节模式，取消或恢复上摆风，调节完成后退出上摆风调节模式；使用参数设定装置控制空调进入下摆风调节模式，取消或恢复下摆风，调节完成后退出下摆风调节模式。
又进一步的，所述参数设定装置为遥控器；使用遥控器控制空调进入左摆风调节模式，通过遥控器按键取消或恢复左摆风；使用遥控器控制空调进入右摆风调节模式，通过遥控器按键取消或恢复右摆风；使用遥控器控制空调进入上摆风调节模式，通过遥控器按键取消或恢复上摆风；使用遥控器控制空调进入下摆风调节模式，通过遥控器按键取消或恢复下摆风。
与现有技术相比，本发明的优点和积极效果是：本发明的空调参数优化 方法，通过人工调节空调参数，调节完成后将空调参数以及当前室外环温与当前室内环温的温差对应保存在存储单元中；空调重新启动后，获取当前室外环温与当前室内环温的温差，查询存储单元，获得对应的空调参数，根据对应的空调参数控制空调运行；因此，当空调重新启动后，可以直接调用用户设定的空调参数，满足用户对空调参数的要求，提高用户的使用舒适性和使用体验。
结合附图阅读本发明的具体实施方式后，本发明的其他特点和优点将变得更加清楚。
附图说明
图1是本发明所提出的空调参数优化方法的一个实施例的流程图；
图2是本发明所提出的空调参数优化方法的另一个实施例的流程图。
具体实施方式
为了使本发明的目的、技术方案及优点更加清楚明白，以下将结合附图和实施例，对本发明作进一步详细说明。
本实施例的空调参数优化方法，主要包括下述步骤，参见图1所示。
步骤S1：参数设定步骤：
人工调节空调参数，调节完成后将空调参数以及当前室外环温与当前室内环温的温差对应保存在存储单元中。该存储单元可以独立设置，也可以集成在空调控制板中。
由于室外环温和室内环温之间的温差不同时，用户对空调参数的需求是不同的，因此人工调节后的空调参数是不同的，因此，需要将调节好的空调参数与温差对应起来，建立对应关系，然后保存在存储单元中，支持用户的个性化设定。
步骤S2：参数调用步骤：
空调重新启动后，获取当前室外环温与当前室内环温的温差，查询存储单元，获得对应的空调参数，根据对应的空调参数控制空调运行，以满足用户的需求，提高用户的舒适性。
本实施例的空调参数优化方法，通过人工调节空调参数，调节完成后将空调参数以及当前室外环温与当前室内环温的温差对应保存在存储单元中；空调重新启动后，获取当前室外环温与当前室内环温的温差，查询存储单元， 获得对应的空调参数，根据对应的空调参数控制空调运行；因此，当空调重新启动后，可以直接调用用户设定的空调参数，满足用户对空调参数的要求，提高用户的使用舒适性和使用体验。
本实施例的方法，将室外环温和室内环温的温差与设定的空调参数进行匹配，从而实现空调运行状态符合用户的需求。本实施例的方法，用户可以对空调运行参数进行自主优化，实现以用户为本的产品目标。
在参数调用步骤中，参见图2的步骤S200至S222，其中Y指判定为是，N指判定为否，当在存储单元中没有查询到当前室外环温与当前室内环温的温差对应的空调参数时，即用户没有设定该温差对应的空调参数时，根据当前室外环温与当前室内环温的温差的范围确定空调参数的值，以便于控制空调运行，避免空调出现运行故障，具体如下：
(1)若温差≤第一设定温差值，则确定空调参数为第一设定参数，根据确定出的空调参数控制空调运行。
(2)若第一设定温差值＜温差≤第二设定温差值，则确定空调参数为第二设定参数，根据确定出的空调参数控制空调运行。
(3)若温差＞第二设定温差值，则确定空调参数为第三设定参数，根据确定出的空调参数控制空调运行。
在本实施例中，假设第一设定温差值为5℃，第二设定温差值为7℃。若空调参数为室内风机转速，则第一设定参数为转速下限值，第三设定参数为转速上限值，第二设定参数在第一设定参数与第三设定参数之间。
若空调参数为导风板角度，则第一设定参数为角度下限值，第三设定参数为角度上限值，第二设定参数在第一设定参数与第三设定参数之间。
目前室内风机档位一般划分为：强力档、高风档、中风档、低风档、静音档，不同的档位对应不同的风机转速。用户在使用空调时，会根据需求改变档位，但是有时会感觉到风速不符合自己的需求，有时会感觉到风速大或风速小，无法满足使用需求。因此，为了满足用户对室内风机转速需求，用户可以对室内风机转速进行个性化调节。
在本实施例中，空调参数包括室内风机转速，所述人工调节空调参数具体包括：使用参数设定装置控制空调进入风速调节模式，对室内风机转速进行调节，调节完成后退出风速调节模式。将调节后的室内风机转速以及当前室外环温与当前室内环温的温差对应保存在存储单元中。空调重新启动后， 获取当前室外环温与当前室内环温的温差，查询存储单元，获得温差对应的室内风机转速，根据对应的室内风机转速控制空调运行，以满足用户的需求，提高用户使用舒适度。
每个风机档位对应的一个设定转速范围，若超出设定转速范围，则会影响风机可靠性。为了保证风机的正常运行，对室内风机的转速进行调节时，获取当前风机档位以及当前风机档位对应的设定转速范围，在设定转速范围内对室内风机的转速进行调节，避免用户调节室内风机转速时超出设定转速范围，避免影响风机的正常运转。即在风机档位的设定转速范围内，对转速进行精细化划分，满足用户个性化需求。
在本实施例中，为了便于用户对室内风机转速进行人工设定，参数设定装置为遥控器，使用遥控器控制空调进入风速调节模式，通过遥控器按键调节室内风机转速。
具体来说，用户可以在遥控器上对风速进行自主调节，按下遥控器上面的“风速调节”按键，遥控器将按键信息发送至空调控制板，空调控制板接收到按键信息后，发出3声回响，即表示进入风速调节模式。假设当前风机档位为高风档，高风档对应的设定转速范围为90转/分～120转/分；用户按下遥控器的“上”键或“下”键对风速进行调节，假设风速调节大小以设定风速增减值a(如10转/分)为单位，即每按一次“上”键，空调控制板控制内风机的风速增加a(如10转/分)；每按一次“下”键，空调控制板控制内风机的风速减少a(如10转/分)。当然，按下“上”键/“下”键后，空调控制板会计算当前风速增加/减少a(如10转/分)后是否超出设定转速范围，若超出，则空调控制板控制内风机保持当前风速，并发出报警声，提示不能超出设定转速范围；若未超出，则空调控制板控制内风机的风速增加/减少a(如10转/分)。通过上下键，用户可调节至最佳体验风速值(该风速值在设定转速范围内)，实现对风机转速的个性化设定；然后再次按下遥控器上面的“风速调节”按键，空调控制板接收到按键信息后，发出4声回响，即表示退出风速调节模式；空调控制板将该风速值以及当前室外环温与当前室内环温的温差保存在存储单元中。空调重新启动时，空调会检测一次室外环温和室内环温，根据室外环温和室内环温的温差来寻找到用户设定的风速值。这也说明了本实施例的方法能够支持用户多次设置，不同的环境下也能给予用户不同的舒适性体验。
现有技术中的导风板位置一般为五个位置，不够细化。空调的导风板位置是生产制造时根据实验室标准情况下制定的，但是到了用户家中，可能由于室内的安装高度和安装位置不同，出现直吹、防直吹、最远距离吹风效果不好的情况。例如，空调当前出风方向是直吹，但是用户并不喜欢直吹，当选择其他的出风方向时又会觉得风量以及风速不够，无法满足使用需求。例如安装于2米高度和安装在3米高度的空调吹风方向是不同的，2米处和3米处的直吹方向也会发生偏移；特别是由于房间内的构造，可能由于室内较窄，空调吹风的最远距离可能会出现吹到墙体上的情况，导致利用率很差。因此，为了满足用户对出风方向的需求，用户可以对导风板角度进行个性化调节。
在本实施例中，空调参数包括导风板角度，所述人工调节空调参数具体包括：使用参数设定装置控制空调进入导风板调节模式，对导风板角度进行调节，调节完成后退出导风板调节模式。将调节后的导风板角度以及当前室外环温与当前室内环温的温差对应保存在存储单元中。空调重新启动后，获取当前室外环温与当前室内环温的温差，查询存储单元，获得温差对应的导风板角度，根据对应的导风板角度控制空调运行，以满足用户的需求，提高用户使用舒适度。
导风板角度具有设定角度范围，若超出设定角度范围，则会影响导风板的可靠性。为了保证导风板的正常运行，对导风板角度进行调节时，获取设定角度范围，在设定角度范围内对导风板角度进行调节，避免用户调节导风板角度时超出设定角度范围，避免影响导风板的正常运行。即在设定角度范围内，对导风板角度进行精细化划分，满足用户个性化需求。
在本实施例中，为了便于用户对导风板角度进行人工设定，参数设定装置为遥控器；使用遥控器控制空调进入导风板调节模式，通过遥控器按键调节导风板角度。
具体来说，用户可以在遥控器上对导风板角度进行自主调节，按下遥控器上面的“导风板调节”按键，遥控器将按键信息发送至空调控制板，空调控制板接收到按键信息后，发出3声回响，即表示进入导风板调节模式。用户按下遥控器上的“上”键或“下”键对导风板角度进行调节，由于导风板是由步进电机驱动的，因此，导风板角度的改变对应着步进电机步数的改变，假设电机步数调节大小以设定步数增减值b1(如10步)为单位，相对应的， 导风板角度调节以设定角度增减值b2(如5°)为单位，即每按一次“上”键，空调控制板控制电机步数增加b1(如10步)，导风板角度增加b2(如5°)；每按一次“下”键，空调控制板控制电机步数减少b1(如10步)，导风板角度减少b2(如5°)。当然，按下“上”键/“下”键后，空调控制板会计算当前角度增加/减少b2(如5°)后是否超过出设定角度范围，若超出，则空调控制板控制步进电机保持当前步数、导风板保持当前角度，并发出报警声，提示不能超出设定角度范围；若未超出，则空调控制板控制电机步数增加/减少b1(如10步)，导风板角度增加/减少b2(如5°)。通过上下键，用户可将导风板角度调节至最满意角度值(该角度值在设定角度范围内)，实现对导风板角度的个性化设定；然后再次按下遥控器上面的“导风板调节”按键，空调控制板接收到按键信息后，发出4声回响，即表示退出导风板调节模式；空调控制板将该角度值(或对应的步进电机步数)以及当前室外环温与当前室内环温的温差保存在存储单元中。空调重新启动时，空调会检测一次室外环温和室内环温，根据室外环温和室内环温的温差来寻找到用户设定的角度值。这也说明了本实施例的方法能够支持用户多次设置，不同的环境下也能给予用户不同的舒适性体验。
导风板的左右上下摆风情况是生产制造时根据实验室标准情况下制定的，但是到了用户家中，可能由于室内的安装高度和安装位置不同，如安装在靠近角落的腔体上，会影响左右摆风和上下摆风的利用率，因此，为了满足用户对出风方向的需求，用户可以对左右摆风和上下摆风进行个性化调节。
在本实施例中，空调参数包括左摆风取消与否、右摆风取消与否、上摆风取消与否、下摆风取消与否，所述人工调节空调参数具体包括：
(1)使用参数设定装置控制空调进入左摆风调节模式，然后取消或恢复左摆风，调节完成后退出左摆风调节模式。将调节后的左摆风当前状态(取消左摆风或恢复左摆风)保存在存储单元中。空调重新启动后，查询存储单元，获得左摆风当前状态(取消左摆风或恢复左摆风)，然后控制空调运行，以满足用户的需求，提高用户使用舒适度。
(2)使用参数设定装置控制空调进入右摆风调节模式，然后取消或恢复右摆风，调节完成后退出右摆风调节模式。将调节后的右摆风当前状态(取消右摆风或恢复右摆风)保存在存储单元中。空调重新启动后，查询存储单 元，获得右摆风当前状态(取消右摆风或恢复右摆风)，然后控制空调运行，以满足用户的需求，提高用户使用舒适度。
(3)使用参数设定装置控制空调进入上摆风调节模式，然后取消或恢复上摆风，调节完成后退出上摆风调节模式。将调节后的上摆风当前状态(取消上摆风或恢复上摆风)保存在存储单元中。空调重新启动后，查询存储单元，获得上摆风当前状态(取消上摆风或恢复上摆风)，然后控制空调运行，以满足用户的需求，提高用户使用舒适度。
(4)使用参数设定装置控制空调进入下摆风调节模式，然后取消或恢复下摆风，调节完成后退出下摆风调节模式。将调节后的下摆风当前状态(取消下摆风或恢复下摆风)保存在存储单元中。空调重新启动后，查询存储单元，获得下摆风当前状态(取消下摆风或恢复下摆风)，然后控制空调运行，以满足用户的需求，提高用户使用舒适度。
在保存左/右/上/下摆风当前状态时，与当前室外环温与室内环温的温差可以不对应保存。但为了存储单元中格式的统一，可以将左/右/上/下摆风当前状态对应的温差保存为“空”。在后续空调重新启动后，查询存储单元时，无论当前室外环温与室内环温的温差为何值，均可直接获得“空”对应的左/右/上/下摆风当前状态。
在本实施例中，为了便于用户对左右摆风和上下摆风进行人工设定，参数设定装置为遥控器。使用遥控器控制空调进入左摆风调节模式，通过遥控器按键取消或恢复左摆风；使用遥控器控制空调进入右摆风调节模式，通过遥控器按键取消或恢复右摆风；使用遥控器控制空调进入上摆风调节模式，通过遥控器按键取消或恢复上摆风；使用遥控器控制空调进入下摆风调节模式，通过遥控器按键取消或恢复下摆风。
因此，当空调安装在角落时，可以根据使用情况取消/恢复空调的左/右/上/下摆风，以此提高空调的使用效率。具体来说，用户可以在遥控器上对左右摆风和上下摆风进行人工设定。
按下遥控器上面的“左摆风调节模式”按键，遥控器将按键信息发送至空调控制板，空调控制板接收到按键信息后，发出3声回响，即表示进入左摆风调节模式。用户按下遥控器上的“取消”按键或“恢复”按键，取消或恢复左摆风，然后再次按下遥控器上的“左摆风调节模式”按键，空调控制板接收到按键信息后，发出4声回响，即表示退出左摆风调节模式；空调控 制板将左摆风当前状态(取消左摆风或恢复左摆风)保存在存储单元中。
按下遥控器上面的“右摆风调节模式”按键，遥控器将按键信息发送至空调控制板，空调控制板接收到按键信息后，发出3声回响，即表示进入右摆风调节模式。用户按下遥控器上的“取消”按键或“恢复”按键，取消或恢复右摆风，然后再次按下遥控器上的“右摆风调节模式”按键，空调控制板接收到按键信息后，发出4声回响，即表示退出右摆风调节模式；空调控制板将右摆风当前状态(取消右摆风或恢复右摆风)保存在存储单元中。
按下遥控器上面的“上摆风调节模式”按键，遥控器将按键信息发送至空调控制板，空调控制板接收到按键信息后，发出3声回响，即表示进入上摆风调节模式。用户按下遥控器上的“取消”按键或“恢复”按键，取消或恢复上摆风，然后再次按下遥控器上的“上摆风调节模式”按键，空调控制板接收到按键信息后，发出4声回响，即表示退出上摆风调节模式；空调控制板将上摆风当前状态(取消上摆风或恢复上摆风)保存在存储单元中。
按下遥控器上面的“下摆风调节模式”按键，遥控器将按键信息发送至空调控制板，空调控制板接收到按键信息后，发出3声回响，即表示进入下摆风调节模式。用户按下遥控器上的“取消”按键或“恢复”按键，取消或恢复下摆风，然后再次按下遥控器上的“下摆风调节模式”按键，空调控制板接收到按键信息后，发出4声回响，即表示退出下摆风调节模式；空调控制板将下摆风当前状态(取消下摆风或恢复下摆风)保存在存储单元中。
本实施例的方法，用户可以根据实际需求以及空调安装情况，对空调运行参数进行自主优化；通过记录不同的室外环温和室内环温的温差与用户个性化设定进行匹配，支持用户的个性化设定。本实施例实现了用户根据自己当前的实际需求以及空调安装环境自主优化空调运行参数，并通过空调控制板对调节后的运行参数进行记忆，以此达到以用户为中心的产品目标。
以上实施例仅用以说明本发明的技术方案，而非对其进行限制；尽管参照前述实施例对本发明进行了详细的说明，对于本领域的普通技术人员来说，依然可以对前述实施例所记载的技术方案进行修改，或者对其中部分技术特征进行等同替换；而这些修改或替换，并不使相应技术方案的本质脱离本发明所要求保护的技术方案的精神和范围。

Claims (10)

  1. 一种空调参数优化方法，包括参数设定步骤和参数调用步骤，其中
    所述参数设定步骤包括：
    人工调节空调参数，调节完成后将空调参数以及当前室外环温与当前室内环温的温差对应保存在存储单元中；
    所述参数调用步骤包括：
    空调重新启动后，获取当前室外环温与当前室内环温的温差，查询存储单元，获得对应的空调参数，根据对应的空调参数控制空调运行。
  2. 根据权利要求1所述的方法，其中，当在存储单元中没有查询到对应的空调参数时，
    若温差小于等于第一设定温差值，则确定空调参数为第一设定参数，根据确定出的空调参数控制空调运行；
    若所述温差大于第一设定温差值且小于等于第二设定温差值，则确定空调参数为第二设定参数，根据确定出的空调参数控制空调运行；
    若所述温差大于第二设定温差值，则确定空调参数为第三设定参数，根据确定出的空调参数控制空调运行。
  3. 根据权利要求1所述的方法，其中，所述空调参数包括室内风机转速，所述人工调节空调参数具体包括：使用参数设定装置控制空调进入风速调节模式，对室内风机转速进行调节，调节完成后退出风速调节模式；
    将调节后的室内风机转速以及当前室外环温与当前室内环温的温差对应保存在存储单元中。
  4. 根据权利要求3所述的方法，其中，对室内风机的转速进行调节时，获取当前风机档位以及当前风机档位对应的设定转速范围，在设定转速范围内对室内风机的转速进行调节。
  5. 根据权利要求3所述的方法，其中，所述参数设定装置为遥控器；使用遥控器控制空调进入风速调节模式，通过遥控器按键调节室内风机转速。
  6. 根据权利要求1所述的方法，其中，所述空调参数包括导风板角度，所述人工调节空调参数具体包括：使用参数设定装置控制空调进入导风板调节模式，对导风板角度进行调节，调节完成后退出导风板调节模式；
    将调节后的导风板角度以及当前室外环温与当前室内环温的温差对应保存在存储单元中。
  7. 根据权利要求6所述的方法，其中，对导风板角度进行调节时，获取设定角度范围，在设定角度范围内对导风板角度进行调节。
  8. 根据权利要求6所述的方法，其中，所述参数设定装置为遥控器；使用遥控器控制空调进入导风板调节模式，通过遥控器按键调节导风板角度。
  9. 根据权利要求1所述的方法，其中，所述空调参数包括左摆风取消与否、右摆风取消与否、上摆风取消与否、下摆风取消与否，所述人工调节空调参数具体包括：
    使用参数设定装置控制空调进入左摆风调节模式，取消或恢复左摆风，调节完成后退出左摆风调节模式；
    使用参数设定装置控制空调进入右摆风调节模式，取消或恢复右摆风，调节完成后退出右摆风调节模式；
    使用参数设定装置控制空调进入上摆风调节模式，取消或恢复上摆风，调节完成后退出上摆风调节模式；
    使用参数设定装置控制空调进入下摆风调节模式，取消或恢复下摆风，调节完成后退出下摆风调节模式。
  10. 根据权利要求9所述的方法，其中，所述参数设定装置为遥控器；
    使用遥控器控制空调进入左摆风调节模式，通过遥控器按键取消或恢复左摆风；
    使用遥控器控制空调进入右摆风调节模式，通过遥控器按键取消或恢复右摆风；
    使用遥控器控制空调进入上摆风调节模式，通过遥控器按键取消或恢复上摆风；
    使用遥控器控制空调进入下摆风调节模式，通过遥控器按键取消或恢复下摆风。
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