WO2019242275A1 - 用于空气设备的控制方法、装置、系统及计算机存储介质 - Google Patents

用于空气设备的控制方法、装置、系统及计算机存储介质 Download PDF

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Publication number
WO2019242275A1
WO2019242275A1 PCT/CN2018/123868 CN2018123868W WO2019242275A1 WO 2019242275 A1 WO2019242275 A1 WO 2019242275A1 CN 2018123868 W CN2018123868 W CN 2018123868W WO 2019242275 A1 WO2019242275 A1 WO 2019242275A1
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Prior art keywords
information
air
user
parameter
parameters
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PCT/CN2018/123868
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English (en)
French (fr)
Inventor
于洋
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青岛海尔空调器有限总公司
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Publication of WO2019242275A1 publication Critical patent/WO2019242275A1/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
    • 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
    • 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
    • F24F2120/00—Control inputs relating to users or occupants
    • F24F2120/10—Occupancy

Definitions

  • the present invention relates to the technical field of smart home appliances, and in particular, to a control method, device, system, and computer storage medium for air equipment.
  • the general intelligent control sets a fixed operation mode based on the personnel information, and cannot meet the user's implementation requirements, and the user manually Adjusting the air conditioner can also be cumbersome.
  • An embodiment of the present invention provides a control method for an air device.
  • the air device is controlled according to the user's physiological parameter information.
  • the air device is an air conditioner, it can automatically meet the user's temperature requirements in real time, bringing users Better experience.
  • a control method for an air device is provided.
  • control method for an air device includes:
  • the operation of one or more air devices is controlled according to the operating parameters.
  • the acquiring operating parameters of one or more air devices according to user information includes:
  • the user information includes two or more conflicting feature information
  • two or more setting parameters of one or more air equipment are acquired according to the two or more feature information
  • the feature information is a characteristic Information on the user's physiological characteristics
  • An operating parameter of the one or more air devices is determined among the two or more setting parameters according to the priorities of the two or more characteristic information.
  • the operating parameter of the one or more air equipment is determined from the two or more setting parameters according to the priorities of the two or more characteristic information. ,Specifically:
  • An operating parameter of the one or more air devices is determined according to the first characteristic information having the highest priority.
  • the operating parameter of the one or more air equipment is determined from the two or more setting parameters according to the priorities of the two or more characteristic information.
  • the second environment information is temperature information, humidity information, cleanliness information, freshness Any of degree information and oxygen content information;
  • a second sub-operation parameter is determined from the two or more second sub-setting parameters according to the attributes of the two or more characteristic information.
  • a control device for an air device is provided.
  • control device for an air device includes:
  • a fifth module configured to determine operating parameters of one or more air devices according to user information, wherein the user information is physiological parameter information of the user;
  • a sixth module is configured to control the operation of one or more air devices according to the operating parameters.
  • the fifth module includes:
  • a first unit configured to obtain two or more setting parameters of one or more air devices according to the two or more characteristic information when the user information includes two or more conflicting characteristic information;
  • the characteristic information is information that characterizes the physiological characteristics of the user;
  • the second unit is configured to determine an operating parameter of the one or more air equipments among the two or more setting parameters according to a priority of the two or more characteristic information.
  • the second unit is specifically configured to determine a priority of the two or more characteristic information according to a relative change rate of the two or more characteristic information; according to the priority The highest first characteristic information determines an operating parameter of the one or more air devices.
  • the second unit is specifically configured to acquire two or more second sub-setting parameters about the second environment information among the two or more setting parameters, where:
  • the second environmental information is any one of temperature information, humidity information, cleanliness information, freshness information, and oxygen content information; according to the attributes of the two or more characteristic information, A second sub-operation parameter is determined from the second sub-setting parameter.
  • an air conditioning system is provided.
  • the air conditioning system includes a plurality of air devices, and the control device for an air device described above.
  • a computer storage medium is provided.
  • the computer storage medium stores a computer program, and when the computer program is executed by a processor, the foregoing control method for an air device is implemented.
  • the embodiment of the present invention has the beneficial effect that by controlling the air equipment according to the user's physiological parameter information, the user's demand for ambient air can be automatically and real-timely met.
  • the air device is an air conditioner, it can automatically meet the user's needs for temperature in real time, bringing a better user experience.
  • Fig. 1 is a schematic flowchart of a control method for an air device according to an exemplary embodiment
  • Fig. 2 is a schematic flowchart of a control method for an air device according to an exemplary embodiment
  • Fig. 3 is a schematic flowchart of a method for controlling an air device according to an exemplary embodiment
  • Fig. 4 is a schematic flowchart of a control method for an air device according to an exemplary embodiment
  • Fig. 5 is a schematic flowchart of obtaining operating parameters of an air device according to an exemplary embodiment
  • Fig. 6 is a schematic flowchart of obtaining operating parameters of an air device according to an exemplary embodiment
  • Fig. 7 is a schematic flowchart of a method for controlling an air device according to an exemplary embodiment
  • Fig. 8 is a schematic flowchart of obtaining operating parameters of an air device according to an exemplary embodiment
  • Fig. 9 is a schematic flowchart of obtaining operating parameters of an air device according to an exemplary embodiment
  • Fig. 10 is a schematic block diagram of a control device for an air device according to an exemplary embodiment
  • Fig. 11 is a schematic block diagram of a method for controlling an air device according to an exemplary embodiment
  • Fig. 12 is a schematic block diagram of a method for controlling an air device according to an exemplary embodiment
  • Fig. 13 is a schematic block diagram of a control method for an air device according to an exemplary embodiment.
  • the air conditioner mentioned in this article refers to all equipment capable of directly supplying treated air to an enclosed space, room or area. It mainly includes refrigeration systems for refrigeration and dehumidification, as well as air circulation and purification devices, and can also include heating and ventilation devices.
  • the humidifier mentioned in this article refers to all household appliances that can increase the humidity of a room, including, but not limited to, evaporative humidifiers, ultrasonic humidifiers, electric heating humidifiers, immersion electrode humidifiers, and cold mist humidifiers.
  • the dehumidifier mentioned in this article refers to all household appliances that can reduce the humidity of a room.
  • the air purifier mentioned in this article refers to all household and similar electrical appliances that can remove particulate matter, gaseous pollutants, microorganisms and other pollutants in the air.
  • the oxygen generator mentioned in this article refers to all electrical appliances that make oxygen.
  • the fresh air equipment mentioned in this article refers to all independent air treatment systems consisting of a supply air system and an exhaust air system, mainly including two types of ducted fresh air equipment and ductless fresh air equipment.
  • a control method using an air device is provided.
  • the operation of the air conditioner can be controlled according to the user's location information or behavior information. Since the user's location information or behavior information can reflect the user's actual needs, the control method can meet the changing needs of users.
  • a control method for an air device is provided.
  • a control method for controlling an air device includes:
  • S101 Determine operating parameters of one or more air devices according to user information, where the user information includes one or two of behavior information and location information.
  • the air equipment can automatically adjust the operating state according to different needs of users, so as to meet the changing needs of users.
  • users have requirements for the temperature and cleanliness of the ambient air.
  • An air device such as an air conditioner
  • an air device such as an air purifier
  • a purification function are controlled at the same time. That is, controlling one air device operation or controlling multiple air device operations can be selected according to the specific needs of the user.
  • the one or more air equipment includes one of an air conditioner, a dehumidifier, a humidifier, a fresh air equipment, an oxygen generator, and an air purifier. Or more.
  • the conditioning effect of one or more air devices on the ambient air is mainly reflected in one or more of temperature, humidity, cleanliness, and freshness.
  • the user information in S101 is used to interact with the air equipment, and can reflect the user's needs.
  • the user information includes one or both of behavior information and location information. It can be seen that in the above embodiment, the user interacts with the air device through the behavior information and location information.
  • the user information is not limited to the above-mentioned behavior information and location information, and the user can also interact with the air device through other user information.
  • the air conditioner when the user turns on the air conditioner, the air conditioner will run according to the parameters when it was last turned off by default.
  • multiple users often use an air conditioner, but the needs of each user are different.
  • they need to reset the operating parameters of the air conditioner according to their own needs, which increases the complexity of use and results in poor user experience.
  • continuing to use the user's location information or behavior information as user information cannot solve the above problems.
  • an embodiment of the present invention provides a control method for an air device.
  • the control method is applied to an air conditioner, based on the user's user information, the appropriate operating parameters are automatically selected.
  • the appropriate operating parameters are determined according to the priority of multiple user information, which can meet the special needs of users. That is, the user information includes one or both of identity information and age information.
  • control method for an air device includes:
  • S201 Determine operating parameters of one or more air devices according to user information, where the user information includes one or two of identity information and age information;
  • each user information corresponds to a setting parameter
  • the setting parameter is a parameter set by a user in advance
  • the setting parameter is a parameter determined after statistics of a user's operation behavior.
  • the corresponding setting parameters can be matched by a certain user information.
  • Each user has independent identity information, and before determining the operating parameters of one or more air equipment according to the user information, the identity information of the bound user is also included. Therefore, in this embodiment, the air equipment can automatically select appropriate operating parameters according to user information, which can meet different needs of different users.
  • a method for controlling an air device provided by an embodiment of the present invention, by controlling the air device according to the user's physiological parameter information, the user's demand for ambient air can be automatically and real-timely met.
  • the air device is an air conditioner
  • the air conditioner is controlled according to the user's physiological parameter information, which can automatically meet the user's needs for temperature in real time and bring a better user experience.
  • control method for an air device may be implemented as:
  • S301 Determine operating parameters of one or more air devices according to user information, where the user information is physiological parameter information of the user.
  • the user's physiological parameter information includes body surface temperature information, heart rate information, blood pressure information, blood glucose information, sleep information, blood oxygen content information, skin moisture information, respiratory rate information, brain activity information, female physiological period information, and fetal information.
  • the one or more air devices include one or more of an air conditioner, a dehumidifier, a humidifier, a fresh air device, an oxygen generator, and an air purifier.
  • the user's physiological parameter information can reflect the user's need for ambient air, and by controlling the air equipment according to the user's physiological parameter information, the user's need for ambient air can be automatically and real-timely met.
  • control method for an air device may be implemented as:
  • the operating parameters of the fresh air equipment and / or the oxygen generator are determined according to the fetal heart rate information, and the operation of the fresh air equipment and / or the oxygen generator is controlled according to the operating parameters.
  • the combination between the user information and the air equipment is not limited to the above technical solution. Those skilled in the art can select the user information and the air equipment according to the actual situation, and use the user information to control the air equipment.
  • S101, S201, and S301 determine the operating parameters of one or more air equipment according to the user information, including: determining the setting parameters of one or more air equipment according to the user information, and The parameters and current environmental information determine the operating parameters of one or more air equipment.
  • This technical solution is applicable to the technical solution for determining the operating parameters of one or more air devices according to the user information.
  • determining the operating parameters of the air conditioner according to the body surface temperature information and controlling the operation of the air conditioner according to the operating parameters may be implemented as: determining the setting parameters of the air conditioner according to the body surface temperature information, and determining the setting parameters according to the setting parameters and the current environmental information
  • the operating parameters of the air conditioner are output, and the operation of the air conditioner is controlled according to the operating parameters.
  • S301 determines the operating parameters of one or more air devices according to user information, and may be implemented as:
  • the first physiological parameter is within the range of the first set index and is not equal to the first optimal physiological parameter
  • one or more air devices are in an operating state, based on the first operating parameters of the one or more air devices , Changing the first set value;
  • the user information includes a first physiological parameter
  • the first set index range is a normal range of the first physiological parameter
  • the first optimal physiological parameter is a physiological parameter for which the user can obtain a comfortable experience; It is a fine-tuning operation of the air equipment at all times;
  • the first physiological parameter is within the range of the first set index and is not equal to the first optimal physiological parameter
  • one or more air devices are in a non-operating state, one or more is determined according to the set parameters corresponding to the user information.
  • the first physiological parameter is not within the range of the first set index
  • change the second set value or issue a reminder to the user, or, one or more The air device stops operating, wherein the second set value is greater than the first set value.
  • This technical solution can not only monitor the user's health, but also ensure that the user gets a comfortable experience.
  • the first set index range and the optimal physiological parameter of users of different constitutions in different seasons are different. For example, when the user feels very comfortable in summer, the body surface temperature is 36 ° C, and when the user feels very comfortable in winter, the body surface temperature is 37 ° C. In winter, when the body surface temperature is 37 ° C, the cooling cannot be turned on. This control method is based on the change of its physiological characteristics.
  • each physiological indicator will have a relatively stable value over a period of time, such as body surface temperature during this time around 37 °C, and physiological indicators sometimes change, such as relatively hot Changed to 38 °C, at this time you can control the device to cool down until the surface temperature returns to 37 °C. That is, the physiological characteristics are detected in real time.
  • the control module issues an instruction to adjust the device to change the current environment, thereby allowing the user's changed physiological characteristic values to return to normal parameters. For this time period, it can be set artificially, such as 10 hours or 10 days.
  • the air device when the first physiological parameter is body surface temperature information and the air device is an air conditioner, when the user's body surface temperature T is within T1 to T2, and T is not equal to T3, when the air conditioner is in an operating state, if T ⁇ T3 , Then increase the current set temperature by 0.5 ° C, or increase other first set values; if T> T3, lower the current set temperature by 0.5 ° C, or lower other first settings value.
  • T and T3 is positively related to the first set value.
  • T ⁇ T3 when the user's body surface temperature T is within T1 ⁇ T2, and T is not equal to T3, and the air conditioner is in the running state, in the heating mode, if T ⁇ T3, the current set wind speed is increased by 1 level Or, increase the other first set value; if T> T3, reduce the current set wind speed by one level, or, lower the other first set value. In the cooling mode, if T ⁇ T3, reduce the current set wind speed by 1 level, or lower other first set values; if T> T3, increase the current set wind speed by 1 level, or , Increase the other first set value. The difference between T and T3 is positively related to the first set value. If the set wind speed is already the minimum wind speed or the maximum wind speed, the set temperature of the air conditioner is adjusted according to the body surface temperature T.
  • the air conditioner When the body surface temperature T of the user is within T1 to T2, and T is not equal to T3, and the air conditioner is in a non-operating state, if the room temperature needs to be increased, it needs to be adjusted in conjunction with the current room temperature. If the room temperature is lower than a certain value (such as 20 degrees) and the room temperature needs to be increased, the air conditioner is turned on and the heating mode defaults to the temperature value and wind speed corresponding to the user's body surface temperature T, such as 26 degrees, low wind, turned on After setting the time, fine-tune the air conditioner according to the above principles. If the room temperature is higher than 20 degrees and it is necessary to raise the room temperature, the air conditioner is not turned on, the control module sends a message (or voice broadcast) to the user to remind the user to add clothes.
  • a certain value such as 20 degrees
  • the air conditioner is turned on and the heating mode defaults to the temperature value and wind speed corresponding to the user's body surface temperature T, such as 26 degrees, low wind, turned on
  • the air conditioner When the body surface temperature T of the user is within T1 to T2, and T is not equal to T3, and the air conditioner is in a non-operating state, if the current room temperature needs to be reduced, the current room temperature adjustment needs to be adjusted. If the room temperature is higher than a certain value (for example, 23 degrees), the air conditioner operates and the cooling mode is set to a temperature value and a wind speed corresponding to the user's body surface temperature T, such as 22 degrees and low wind. After the air conditioner has run for a set time, fine-tune the air conditioner according to the above principles.
  • a certain value for example, 23 degrees
  • Another control method when the air conditioner is not turned on and the room temperature needs to be adjusted is: turn on the air conditioner, comfort mode (or smart mode), and the air conditioner selects the on mode and the set temperature according to the current room temperature.
  • the set temperature and wind speed of the air conditioner are adjusted at the same time.
  • the current set temperature is increased by 1 ° C, or 2 ° C, or 3 ° C, or another second set value, and turned on at the same time.
  • Wind avoidance mode if T> T2, lower the current set temperature by 1 ° C, or 2 ° C, or 3 ° C, or another second set value, and turn on the wind avoidance mode.
  • the operating parameters of the air conditioner and the fresh air equipment are determined according to the body surface temperature information and the heart rate information, and the operation of the air conditioner and the fresh air equipment is controlled according to the operating parameters.
  • the temperature needs to be increased, the temperature is increased.
  • the body surface temperature is too high and the heart rate is too low, the temperature is not increased and the air conditioning equipment is controlled according to the body surface temperature.
  • the body surface temperature is too high and the heart rate is too high
  • the temperature increase operation is performed on the air-conditioning equipment and the operation of increasing the air volume is performed on the fresh air equipment.
  • the device is not turned on, you need to make a judgment operation based on the current ambient temperature and the value of CO 2 concentration. For example, when the CO 2 concentration is greater than the set value (such as 1000ppm), the fresh air device is turned on and the wind speed is set (such as low Wind), after the fresh air equipment runs for a set time, fine-tune the fresh air equipment.
  • the specific adjustment method can refer to the adjustment of the air conditioner according to the body surface temperature information Flow; when the user information includes two or more of body surface temperature information, heart rate information, blood pressure information, blood glucose information, blood oxygen content information, skin moisture information, respiratory rate information, and fetal heart rate information, the specific adjustment method Refer to the adjustment process of air conditioners and fresh air equipment according to body surface temperature information and heart rate information.
  • S301 determines the operating parameters of one or more air devices according to user information, and may be implemented as:
  • the level at which the second physiological parameter is located is determined according to the preset index level, where the user information includes the second physiological parameter, and the preset index level is associated with two or more numerical ranges of the second physiological parameter and their corresponding levels;
  • the operating parameter of the one or more air devices is determined according to the level at which the second physiological parameter is located, wherein the operating parameter of the one or more air devices is associated with the level at which the second physiological parameter is located.
  • the state of the user is divided into levels, and the air conditioning equipment is targeted to further ensure that the user is in a comfortable state.
  • the user information includes sleep information, and users with different sleep depths have different requirements for temperature and air volume.
  • the level at which the second sleep parameter is located is determined according to the preset sleep level, wherein the user information includes the second sleep parameter, and the preset sleep level is associated with two or more numerical ranges of the second sleep parameter and their corresponding levels.
  • the operating parameter of the one or more air devices is determined according to the level at which the second sleep parameter is located, where the operating parameter of the one or more air devices is associated with the level at which the second sleep parameter is located.
  • the preset sleep level includes five sleep levels: X1, X2, X3, X4, X5.
  • the set temperature and air volume direction of the air device include five operating states: S1, S2, S3, S4, S5. Among them, 5 operating states are preset operating states.
  • the second sleep level is X3, the operating state of the air device is S3.
  • user information includes information about the physiological period of women. Women should not be cold during the physiological period. The temperature should be appropriately raised, fresh air is needed, and fresh air should be turned on.
  • the level of the second physiological period parameter is determined according to the preset physiological period level, wherein the user information includes the second physiological period parameter, the two or more numerical ranges associated with the second physiological period parameter in the preset physiological period level, and Corresponding level.
  • the operating parameter of the one or more air equipment is determined according to the level at which the second physiological period parameter is located, wherein the operating parameter of the one or more air equipment is associated with the level at which the second physiological period parameter is located.
  • the preset physiological period level includes 5 physiological period levels, X1, X2, X3, X4, X5.
  • the combination between the set temperature and the freshness of the air device includes 5 operating states: S1, S2, S3, S4, S5.
  • five operating states are preset operating states.
  • the indoor temperature can be controlled to a set value
  • the indoor CO 2 concentration can be controlled to a set value, for example, less than 800 ppm.
  • the second physiological period level is X3
  • the operating state of the air device is S3.
  • the second physiological period parameters of the user are obtained through the wearable device, and the operating parameters of the air conditioner and the fresh air device are determined according to the second physiological period parameters; the position of the user is obtained through the wearable device, and the air conditioner and the fresh air device are controlled to prevent the user from being located. Location was hairy.
  • S301 determines the operating parameters of one or more air devices according to user information, and may be implemented as:
  • the wearable device that detects the brain can detect some basic commands, and through these basic commands, basic operations such as turning on and off the air conditioner, increasing the temperature, lowering the temperature, increasing the air volume, and reducing the air volume can be implemented.
  • basic operations such as turning on and off the air conditioner, increasing the temperature, lowering the temperature, increasing the air volume, and reducing the air volume can be implemented.
  • the brain wave signal is obtained through the wearable device, and the air conditioner is controlled to be turned on.
  • a first brain wave signal is generated
  • a second brain wave signal is generated.
  • the wearable device can detect the first brain wave signal and the second brain wave. Radio signal.
  • the operating process of the air equipment is: when the first brain wave signal is detected, increase the airflow of the air conditioner, or increase the set temperature of the air conditioner; when the second brain wave signal is detected, reduce the air conditioner's Air volume, or, lower the set temperature of the air conditioner.
  • the foregoing control method for an air device may be implemented as:
  • S401 Determine two or more setting parameters of the air device according to two or more user information, where the user information includes one or two of identity information and age information, or the user information includes location information and behavior
  • the information, or the user information includes one or more of the user's physiological parameter information, or the user information includes one or more of identity information, age information, location information, behavior information, and user's physiological parameter information.
  • Each user information corresponds to a setting parameter.
  • the setting parameter is a parameter preset by the user.
  • the user preset parameter can be obtained through the mobile terminal, and the user information and the user preset parameter are stored in a database in a one-to-one correspondence manner.
  • the database can be set On a local area network or on a cloud platform server.
  • the parameters preset by the user the user has set one or more of temperature, humidity, cleanliness, and freshness.
  • the mobile terminal may be a terminal device such as a smart phone, a tablet computer, a Ultra-mobile Personal Computer (UMPC), a netbook, or a Personal Digital Assistant (PDA), and is not limited thereto.
  • UMPC Ultra-mobile Personal Computer
  • PDA Personal Digital Assistant
  • the user information and the operation behavior of the user are counted to determine the setting parameter.
  • the user's information includes body surface temperature information
  • the user's normal body surface temperature is 37 ° C.
  • the user's body surface temperature is 38 ° C.
  • the user starts the air conditioner, selects cooling, and low wind. 26 ° C.
  • the user has encountered this situation many times, and has set the air conditioner many times in the manner described above. For example, the above situation is repeated 3 times, or, 5 times, or, 10 times, or, 20 times.
  • user information is body surface temperature information
  • the normal body surface temperature is 37 ° C
  • the current body surface temperature is 38 ° C
  • the corresponding setting parameters are: cooling mode, low wind, 26 ° C (for air conditioners) Setting parameters). If the temperature of the user's body surface is 38 ° C, the operating parameters of the air conditioner are automatically determined according to the set parameters, that is, the operating state of the air conditioner is controlled to the cooling mode, low wind, 26 ° C.
  • S402. Obtain the operating parameters of one or more air devices from two or more set parameters according to the priorities of two or more user information.
  • the priority of the user information is based on the user's ability to withstand ambient air. Pre-set priority.
  • the priority of the user information includes the highest priority of the special user.
  • the user information of the user has the highest priority, that is, as long as The user determines the operating parameters of one or more air devices according to the user's set parameters within the range that the air device can influence, which meets the needs of the special user.
  • the user information corresponds to the setting parameters.
  • the second user information with the highest priority is determined from the two or more user information, and the second user information corresponds to the second user information.
  • the second set parameter obtains the operating parameters of one or more air equipment.
  • obtaining the operating parameters of one or more air equipment according to the second setting parameter corresponding to the second user information may be implemented as: obtaining current environmental information, and obtaining one or more air according to the second setting parameter and current environmental information The operating parameters of the device.
  • the setting temperature in the setting parameter is 26 ° C
  • the setting temperature in the setting parameter is 25 ° C
  • the setting parameter in the set temperature is 23 ° C.
  • the heating mode of the air conditioner is controlled to be turned on.
  • the set temperature is 23 ° C, so that the room temperature is gradually increased and maintained at 23 ° C.
  • the air conditioner is controlled to turn on the cooling mode, the set temperature is 26 ° C, and the room temperature is gradually reduced and maintained at 26 ° C.
  • the air equipment when there are multiple users, the air equipment can meet the special needs of special users.
  • obtaining operating parameters of one or more air equipments from two or more setting parameters according to the priorities of two or more user information including:
  • the first identity information with the highest priority is determined from the two or more identity information; and the operating parameters of one or more air equipment are determined according to the setting parameters corresponding to the first identity information.
  • the priority of the operating mode is determined according to the priority of the age information; the priority of the setting parameters is determined according to the priority of the operating mode; one or more of the setting parameters are determined according to the highest priority setting parameter.
  • Operating parameters of an air device are set according to the age of the user, and the operation mode corresponds to the set parameters one by one.
  • the priority of the operation mode is a priority set in advance according to the ability of different users to withstand ambient air.
  • the operation modes include, but are not limited to, the pregnancy mode, child mode, normal mode, and elderly mode.
  • the priority of the operation mode can be set from high to low: pregnancy mode, child mode, elderly mode, and normal mode.
  • the air device when an unfamiliar person is recognized as an adult, the air device is operated in the normal mode; if both an adult and an infant are recognized, the air device is operated in the pregnant and infant mode. In the case where the user does not set parameters in advance, this embodiment can still ensure that the user obtains a better experience.
  • the user information includes both identity information and age information
  • the user status is determined according to the behavior information and location information; the priority of the setting parameter is determined according to the priority of the user status; and one or more of the setting parameters are determined according to the highest priority setting parameter.
  • the user status refers to the user's activity status, including but not limited to: bathing status, exercise status, reading status, cleaning status, and entertainment status.
  • the user status corresponds to the set parameters one by one, for example, the user is in a sports status
  • the corresponding setting parameters are: temperature 24 ° C, humidity 40%, PM2.5 ⁇ 50 ⁇ g / m 3 , CO 2 ⁇ 800ppm, and oxygen content 21%, where PM2.5 is the aerodynamic equivalent diameter in the ambient air of less than Particles equal to 2.5 microns, also known as fine particles.
  • the operating parameters of the air equipment are: the air conditioner is in the cooling state, medium speed wind, 24 ° C, the air purifier is in intelligent mode, automatic wind, fresh air equipment medium speed The oxygen generator is turned on. The user is in an entertaining state.
  • the corresponding setting parameters are: temperature 26 °C, humidity 60%, PM2.5 ⁇ 60 ⁇ g / m 3 , CO2 ⁇ 1000ppm, oxygen content 20.9%.
  • the operating parameters of the air equipment are: air conditioner The air conditioner outputs cooling state, low-speed wind, 26 °C, air purifier is in intelligent mode, automatic wind; fresh air equipment is low-speed wind, oxygen generator is turned off.
  • the priority of the user state is a preset priority according to the user's ability to withstand ambient air in different states. For example, the priority of the user state can be as follows: bathing state> exercise state> reading state> cleaning state> Entertainment status.
  • the highest priority is given to the baby-to-baby mode, that is, when a baby is detected indoors, one or Operating parameters of multiple air equipment.
  • the bathing state is the highest priority, that is, the user is in the bathing state.
  • the operating parameters of one or more air devices in the room are determined according to the setting parameters corresponding to the bathing state.
  • This embodiment can meet the special needs of special users.
  • one or more operating parameters of the air device are determined according to the setting parameters of the previous user, or one is determined according to the setting parameters of the next user Or operating parameters of multiple air equipment.
  • the user is in motion and the user is running on a treadmill.
  • the treadmill is a linkage device.
  • the user can obtain the user's running speed and the user's exercise intensity through the treadmill.
  • the air equipment operates according to the setting parameters corresponding to the first motion state, for example: the air conditioner is in the cooling state, the medium-speed wind, the temperature is 24 ° C; the air purifier is in the intelligent mode, the automatic wind; the fresh air equipment is the high-speed wind, the system The oxygen machine is turned on.
  • the air equipment When the speed of the treadmill is greater than 10km / h, the air equipment operates according to the set parameters corresponding to the second motion state, for example: the air conditioner is in the cooling state, the medium speed wind, and the temperature is 24 ° C; the air purifier is in the intelligent mode and automatically Wind; fresh air equipment is high-speed wind, oxygen generator is turned on. If the user's running speed is increased from 9km / h to 11km / h, the air device automatically switches from the first running state to the second running state.
  • obtaining one or more operating parameters of the air equipment from the two or more setting parameters includes:
  • For the first air device determining the first user information with the highest priority
  • An operating parameter of the first air device is determined according to a setting parameter corresponding to the first user information.
  • the third user has a higher requirement for the temperature of the ambient air. If the user is more afraid of cold, then the third user has the highest priority in the control of the air conditioner; the fourth user has the cleanliness of the ambient air. The requirements are relatively high, so the fourth user has the highest priority in controlling the air purifier.
  • the air cleaner operates according to the setting parameters corresponding to the user information of the third user
  • the air purifier operates according to the setting parameters corresponding to the user information of the fourth user. Therefore, the third user and the The main needs of the fourth user.
  • obtaining operating parameters of one or more air equipments from two or more setting parameters according to the priorities of two or more user information including:
  • the relative change rate of two or more user information is divided into levels. The higher the level, the greater the relative change rate, and the greater the degree of change of the user information.
  • the body surface temperature change level of the fifth user is 2
  • the heart rate change level is 1
  • the body surface temperature change level of the sixth user is 2
  • the heart rate change level is 3.
  • the degree of the greatest change is the heart rate information of the sixth user
  • one or more operating parameters of the air equipment are determined according to the setting parameters corresponding to the relative change rate of the heart rate information of the sixth user.
  • one or more operating parameters of the air equipment are obtained from two or more setting parameters according to the priorities of two or more user information. include:
  • one setting parameter may include one or more of a sub-setting parameter about temperature, a sub-setting parameter about humidity, a sub-setting parameter about cleanliness, and a sub-setting parameter about freshness. .
  • the attribute of the first environment information refers to a correspondence between changes in the first environment information and changes in user comfort, and includes that when the first environment information becomes larger, the user comfort becomes worse, or the user comfort It becomes better; when the first environment information becomes smaller, the user comfort becomes worse, or the user comfort becomes better. For example, the higher the cleanliness, the better the user's comfort; the higher the freshness, the better the user's comfort. For a plurality of first sub-setting parameters that represent the first environment information, the better the user comfort, the higher the priority of the first sub-setting parameter, and the first sub-setting parameter with the highest priority is used to determine the first sub-setting parameter. First child operating parameters.
  • the first environmental information is temperature information, humidity information, cleanliness information, and freshness information
  • the specific implementation of the foregoing technical solution is as follows:
  • the first environmental information is temperature information
  • two or more first sub-setting parameters related to temperature information among the two or more setting parameters are acquired, and determined in the two or more first sub-setting parameters.
  • the highest set value is used as the first sub-operation parameter
  • the first environmental information is humidity information
  • two or more first sub-setting parameters related to humidity information among two or more setting parameters are acquired, and an average of the two or more first sub-setting parameters is obtained. Value as the first sub-run parameter;
  • the first environment information is cleanliness information
  • two or more first sub-setting parameters related to cleanliness information among two or more setting parameters are acquired, and the two or more first sub-setting parameters are obtained.
  • the lowest set value is determined as the first sub-operation parameter
  • the first environment information is freshness information
  • two or more first sub-setting parameters related to freshness information among the two or more setting parameters are acquired, and the two or more first sub-setting parameters are obtained.
  • the lowest set value is determined as the first sub-operation parameter.
  • the above technical solution is executed once to obtain a sub-operation parameter about an environmental information, and the number of times the above technical solution is executed is the same as the number of sub-setting parameters included in the setting parameters. After the last technical solution is executed, the obtained sub-operation parameters are combined as the operation parameters of one or more air equipment.
  • the setting parameter of the first user is "refrigeration 26 ° C, humidity 40%, PM2.5> 100 ⁇ g / m 3 turns on purification, CO 2 > 1500ppm turns on fresh air"
  • the setting parameter of the second user is "cooling 23 ° C” , Humidity 60%, PM2.5> 150 ⁇ g / m 3 turn on purification, CO 2 > 1000ppm turn on fresh air ".
  • FIG. 6 it is applied to a case where there are two or more air devices having the same function.
  • two or more air devices are used.
  • S601. Determine the comprehensive setting parameter among two or more setting parameters according to the priority of the user information.
  • the comprehensive setting parameter in S501 refers to the effect achieved by the function of two or more air equipment having the same function, for example, the comprehensive setting parameter "humidity 50%".
  • the control method mentioned in the foregoing is equivalent to directly determining the operating parameters of one or more air equipment according to the comprehensive set parameters.
  • the comprehensive setting parameter two or more air devices having the same function have two or more combined forms in order to achieve the effect determined by the comprehensive setting parameter.
  • the parameter "cooling power 1000W" is comprehensively set, and there are two indoor cooling devices: the first air conditioner and the second air conditioner, where the power of the first air conditioner is 1500W and the power of the second air conditioner is 3000W.
  • the operating parameters include three types. The first operating parameter: only the first air conditioner is activated, which can meet the comprehensive setting parameters; the second operating parameter: only the second air conditioner is activated, which can meet the comprehensive setting parameters; the third operating parameter : Start the first air conditioner and the second air conditioner at the same time, which can meet the comprehensive setting parameters.
  • the total power required by the first operating parameter is 1500W
  • the total power required by the second operating parameter is 3000W
  • the total power required by the third operating parameter is 4500W.
  • the The total power required by one operating parameter is less than the total power required by the second and third operating parameters. Therefore, the first operating parameter is selected as the first operating parameter.
  • a second operating parameter that involves the least number of air equipment is determined among the two or more first operating parameters. For example, comprehensively set the parameter "cooling power 3000W", and there are three indoor cooling equipment: the first air conditioner, the second air conditioner and the third air conditioner, where the power of the first air conditioner is 1500W and the power of the second air conditioner is 1500W , The power of the third air conditioner is 3000W, then, the first operating parameter includes two types, the first type of first operating parameter: the first and second air conditioners are started at the same time; the second type of first operating parameter: only the third air conditioner is started . In the first first operating parameter, two air devices are involved, and in the second first operating parameter, one air device is involved. Therefore, the second first operating device is selected as the second operating parameter.
  • a running parameter sets different priorities to avoid conflicts between the two.
  • a user information often includes a variety of different information, such as identity information, age information, behavior information, location information, body surface temperature information, heart rate information, and so on.
  • One operating parameter of the air equipment is determined according to one type of information included in the user information, and another operating parameter of the air equipment is determined according to another type of information included in the user information.
  • the operating parameters of the above-mentioned air equipment will inevitably occur conflict.
  • obtaining the operating parameters of one or more air equipment according to the user information includes:
  • one or more operating parameters of the air equipment are determined among the two or more setting parameters.
  • control method for air equipment can be implemented as:
  • the feature information is conflicting information included in the user information. Two or more feature information conflict with each other, which means that two or more operations of the same air device can be determined based on the two or more feature information. Parameters, and an air device can only operate according to one operating parameter, so two or more operating parameters conflict.
  • the two or more characteristic information includes identity information, age information, behavior information, location information, body surface temperature information, heart rate information, blood pressure information, blood glucose information, sleep information, blood oxygen content information, skin moisture information, One or more of respiratory rate information, brain activity information, female physiological period information, and fetal heart rate information.
  • S702. Determine operating parameters of one or more air devices among two or more setting parameters according to the priorities of the two or more characteristic information.
  • one or more operating parameters of the air equipment are determined from two or more setting parameters, specifically for:
  • the relative change rate reflects the degree to which the characteristic information changes.
  • the relative change rate is divided into change levels.
  • S802. Determine operating parameters of one or more air devices according to the first characteristic information having the highest priority.
  • the operating parameters of one or more air devices are determined according to the body surface temperature.
  • This embodiment can meet the main needs of users.
  • the operating parameters of one or more air equipment are determined from the two or more setting parameters according to the priorities of the two or more characteristic information, which are specifically:
  • the priority of the two or more characteristic information is determined according to the type of the air conditioning regulating device; the operating parameter of the one or more air devices is determined according to the characteristic information with the highest priority. For example, when the air device is an air conditioner, body surface temperature information> blood pressure information> heart rate information, and when the air device is fresh air device, blood oxygen information> heart rate information> blood pressure information.
  • one or more operating parameters of the air equipment are determined from the two or more setting parameters according to the priorities of the two or more characteristic information, including:
  • the attribute of the two or more feature information refers to a correspondence between a change in the two or more feature information and a change in user comfort, including when the feature information becomes larger, the user comfort becomes worse, or , User comfort becomes better; when feature information becomes smaller, user comfort becomes worse, or user comfort becomes better.
  • the two or more second sub-setting parameters for setting the second environment information the better the user comfort, the higher the priority of the second sub-setting parameter, according to the second The sub-setting parameter determines the second sub-operation parameter.
  • a sub-operation parameter is determined according to a sub-setting parameter with a high temperature; in a plurality of set freshnesses, a sub-operation parameter is determined according to a sub-setting parameter with a lowest CO 2 concentration.
  • the temperature is required to be 28 ° C, and the CO 2 is below 1000 ppm.
  • the required temperature for heart rate changes is 26 ° C, and the CO 2 is within 800 ppm.
  • the temperature is compared and set to 28 ° C; the CO 2 concentration requirements are compared, and the CO 2 is controlled to be within 800 ppm.
  • the method further includes: acquiring user information;
  • obtaining the user's identity information may be implemented as: obtaining user information through a linkage device, where the linkage device is a device that can provide user information.
  • the linkage device refers to an electrical device that provides necessary functions to maintain a normal life in the daily life of the user.
  • Linked devices include, but are not limited to, range hoods, induction cookers, gas stoves, electric ovens, rice cookers, bathroom water heaters, washing machines, smart toilet covers, televisions, projectors, computers, and treadmills.
  • the setting position of the linkage equipment in home life is generally fixed, for example: the treadmill is set in the exercise and fitness room; the range hood, the electromagnetic range, and the gas range are set in the kitchen; the bathroom water heater and the intelligent toilet cover are set in the toilet. Therefore, the location information of the user can be determined according to the activation of a certain linkage device.
  • a treadmill is used for exercising, a range hood, an electromagnetic range or a gas range is used for cooking, and a bathroom water heater is used for bathing. Therefore, the behavior information of the user can be determined according to the running time of the linked device and the combined running status of two or more linked devices. By linking the devices, the user's behavior information and location information can be determined more accurately.
  • Obtaining user information may also be implemented as: obtaining user behavior information through a camera or an infrared sensor, and obtaining position information through radio frequency identification technology (Radio Frequency Identification).
  • acquiring the behavior information of the user includes: determining the behavior of the user through a camera or an infrared sensor, and acquiring and determining the intensity of the user's behavior through a linkage device.
  • obtaining the identity information of the user may be implemented as: obtaining the user information through a linkage device, where the linkage device is a device that can provide user information.
  • Linked devices include, but are not limited to, smart bracelets, smart watches, smart helmets, smart skin patches, smart armbands, and the like.
  • obtaining user information may be implemented as: obtaining a user's face image through a camera, and determining the user's identity information based on the user's face image, or, age information, or, identity information and age information ;
  • the camera may be any one of an airborne camera, a dedicated camera, and a security camera.
  • Obtaining the user's identity information can also be implemented as: obtaining the user's identity information through RFID.
  • S401 may optionally be implemented as: sending the identity information to a database, and matching the setting parameters corresponding to the identity information in the database.
  • the database communicates with the air equipment, or with the air equipment and the linkage equipment.
  • the database can be optionally set on a local area network (such as a smart home system), and can be optionally set on a cloud platform server.
  • the operating mode is determined according to the age information, wherein the operating mode corresponds to the setting parameters one-to-one.
  • a control device for an air device is provided.
  • control device for the air equipment includes:
  • the first module 10 is configured to determine operating parameters of one or more air devices according to user information, where the user information includes one or two of behavior information and location information;
  • the second module 20 is configured to control the operation of one or more air equipments according to operating parameters.
  • control device for the air equipment includes:
  • a third module 30 is configured to determine one or more operating parameters of the air equipment according to user information, where the user information includes one or two of identity information and age information;
  • the fourth module 40 is configured to control the operation of one or more air equipment according to the operation parameters.
  • control device for the air equipment includes:
  • a fifth module 50 is configured to determine operating parameters of one or more air devices according to user information, where the user information is physiological parameter information of the user;
  • the user's physiological parameter information includes body surface temperature information, heart rate information, blood pressure information, blood glucose information, sleep information, blood oxygen content information, skin moisture information, respiratory rate information, brain activity information, female physiological period information, and fetal heart rate information.
  • One or more air devices include one or more of an air conditioner, a dehumidifier, a humidifier, a fresh air device, an oxygen generator, and an air purifier;
  • a sixth module 60 is configured to control the operation of one or more air equipment according to the operating parameters.
  • the first module, the third module, or the fifth module is specifically configured to determine the setting parameters of one or more air devices according to user information, and determine the setting parameters according to the setting parameters and current environmental information. Operating parameters of one or more air equipment.
  • the fifth module is specifically configured to: when the first physiological parameter is within a range of the first set index and is not equal to the first optimal physiological parameter, one or more air devices are in an operating state When changing the first set value based on the first operating parameter of one or more air equipment; wherein the user information includes the first physiological parameter, and the first set index range is a normal range of the first physiological parameter,
  • the first optimal physiological parameter is a physiological parameter in which the user can obtain a comfortable experience; when the first physiological parameter is within the range of the first set index and is not equal to the first optimal physiological parameter, one or more air devices are in a non-operation state
  • the operating parameters of one or more air devices are determined according to the setting parameters corresponding to the user information; when the first physiological parameter is not within the first set index range, the first operating parameter of the one or more air devices On the basis of changing the second setting value, or issuing a reminder to the user, or stopping one or more air devices, the second setting value is greater than the first setting value.
  • the fifth module is specifically configured to determine a level at which the second physiological parameter is located according to a preset index level, and determine the operation of one or more air devices according to the level at which the second physiological parameter is located.
  • Parameters wherein the user information includes a second physiological parameter, two or more numerical ranges associated with the second physiological parameter and their corresponding levels in the preset index level, one or more operating parameters of the air device and the second physiological parameter Associated with the level.
  • the fifth module is specifically configured to adjust operating parameters of one or more air devices according to brain activity information, wherein the user information includes brain activity information.
  • control device for an air device includes:
  • a seventh module 70 is configured to determine two or more setting parameters of the air device according to two or more user information, wherein the user information includes one or two of identity information and age information, or user information Including location information and behavior information, or user information including user's physiological parameter information, or user information including one or more of identity information, age information, location information, behavior information, and user's physiological parameter information;
  • An eighth module 80 is configured to obtain one or more operating parameters of the air equipment from two or more setting parameters according to the priorities of the two or more user information, wherein the priority of the user information is Ambient air carrying capacity has a preset priority;
  • the ninth module 90 is configured to control the operation of one or more air devices according to the operating parameters.
  • the seventh module is further configured to count user information and user operation behaviors to determine set parameters.
  • the eighth module is specifically configured to determine the second user information having the highest priority among the two or more user information, and obtain the second user information according to the second setting parameter corresponding to the second user information.
  • Operating parameters of one or more air equipment may be implemented as: obtaining current environmental information, and obtaining one or more air according to the second setting parameter and current environmental information The operating parameters of the device.
  • the eighth module is specifically configured to determine the first priority information with the highest priority among two or more pieces of identity information when the user information includes the identity information;
  • the corresponding setting parameters determine the operating parameters of one or more air equipment.
  • the priority of the operating mode is determined according to the priority of the age information;
  • the priority of the setting parameters is determined according to the priority of the operating mode;
  • one or more of the setting parameters are determined according to the highest priority setting parameter.
  • Operating parameters of an air device When the user information includes both identity information and age information, it is preferred to determine the operating parameters of one or more air equipment according to the setting parameters corresponding to the identity information.
  • the user status is determined according to the behavior information and location information; the priority of the setting parameter is determined according to the priority of the user status; and one or more of the setting parameters are determined according to the highest priority setting parameter.
  • Operating parameters of air equipment When the user information includes identity information, age information, behavior information, and location information, the pregnancy and baby mode is the highest priority.
  • the eighth module is specifically configured to determine the first user information with the highest priority for the first air device; and determine the first air device according to a setting parameter corresponding to the first user information. Operating parameters.
  • the eighth module is specifically configured to determine the priority of the two or more user information according to a relative change rate of the two or more user information.
  • the one or more setting parameters one or more operating parameters of the air equipment are determined.
  • the eighth module is specifically configured to acquire two or more first sub-setting parameters related to the first environment information among the two or more setting parameters, where the first environment
  • the information is any one of temperature information, humidity information, cleanliness information, freshness information, and oxygen content information; a first is determined from two or more first sub-setting parameters according to the attributes of the first environmental information. Sub-run parameters.
  • the eighth module is specifically configured to determine the comprehensive setting parameter among the two or more setting parameters according to the priority of the user information, and obtain two or more according to the comprehensive setting parameter. Two or more operating parameters of an air device having the same function, wherein the operating parameters include the operating power of each air device, and the first operating parameter having the smallest total power is determined from the two or more operating parameters.
  • the fifth module includes:
  • a first unit configured to obtain two or more setting parameters of one or more air devices according to the two or more characteristic information when the user information includes two or more conflicting characteristic information;
  • a second unit configured to determine one or more operating parameters of the air equipment among the two or more setting parameters according to the priorities of the two or more characteristic information
  • the third unit is configured to execute all operating parameters of one or more air devices determined according to the user information if there are no two or more conflicting feature information in the user information.
  • the second unit is specifically configured to determine the priority of the two or more characteristic information according to a relative change rate of the two or more characteristic information, and according to the first characteristic information having the highest priority Determine the operating parameters of one or more air equipment.
  • the relative change rate reflects the degree to which the characteristic information changes. The larger the relative change rate, the greater the degree of change in the characteristic information, and the smaller the relative change rate, the smaller the degree of change in the characteristic information.
  • the relative change rate is divided into change levels.
  • the second unit is specifically configured to acquire two or more second sub-settings of the second environment information in the two or more setting parameters according to the two or more characteristic information.
  • Parameters wherein the second environmental information is any one of temperature information, humidity information, cleanliness information, freshness information, and oxygen content information; and is set in two or more second sub-items according to the attributes of the second environmental information
  • the second sub-operation parameter is determined from the parameters.
  • control device for an air device further includes:
  • a tenth module is configured to obtain user information before determining operating parameters of one or more air equipment according to the user information.
  • the tenth module is specifically configured to obtain user information through a linkage device, where the linkage device is a device that can provide user information.
  • the tenth module is specifically configured to obtain user behavior information through a camera or an infrared sensor and position information through RFID, wherein acquiring the user's behavior information includes: determining the user through the camera or infrared sensor Behavioral action, which determines the intensity of the user's behavior through linkage with the device.
  • the tenth module is specifically configured to obtain user information through a linkage device when the user information is physiological parameter information of the user, where the linkage device is a device that can provide user information.
  • Linked devices include, but are not limited to, smart bracelets, smart watches, smart helmets, smart skin patches, smart armbands, and the like.
  • the tenth module is specifically configured to obtain a user's face image through a camera when the user information is identity information or age information, and determine the user's identity information, or age information, or identity information based on the user's face image.
  • the camera may be any one of an airborne camera, a dedicated camera, and a security camera.
  • the tenth module is specifically configured to obtain user's identity information through RFID.
  • control device for an air device includes:
  • Memory for storing processor-executable instructions
  • the processor is configured to:
  • the user information includes one or two of identity information and age information, or the user information includes location information and behavior information, Or, the user information includes user's physiological parameter information, or the user information includes one or more of identity information, age information, location information, behavior information, and user's physiological parameter information;
  • control method and device for air equipment may be implemented in a network-side server, or in a mobile terminal, or in a dedicated control device.
  • an air conditioning system is provided.
  • the air conditioning system includes a plurality of air equipment and the above-mentioned control device for the air equipment.
  • a computer storage medium on which a computer program is stored, and the foregoing method is implemented when the computer program is executed by a processor.
  • the computer storage medium includes a read only memory (Read Only Memory), a random access memory (RAM), a magnetic tape, an optical storage device, and the like.

Abstract

一种用于空气设备的控制方法，属于智能家电技术领域。该方法包括：根据用户信息确定出一个或多个空气设备的运行参数，其中，用户信息为用户的生理参数信息（S301）；根据运行参数控制一个或多个空气设备的运行（S302）。在本控制方法中，根据用户的生理参数信息对空气设备进行控制，即可自动实时满足用户对环境空气的需求。当空气设备为空调器时，可自动实时满足用户对温度的需求，为用户带来较佳的使用体验。

Description

用于空气设备的控制方法、装置、系统及计算机存储介质
本申请基于申请号为201810642370.3、申请日为2018.06.21的中国专利申请提出，并要求该中国专利申请的优先权，该中国专利申请的全部内容在此引入本申请作为参考。
技术领域
本发明涉及智能家电技术领域，特别涉及一种用于空气设备的控制方法、装置、系统及计算机存储介质。
背景技术
随着技术的发展，人们对生活水平的要求也越来越高。日常生活中，不同人对冷热的感知会有差异，导致其需求会出现差异。而即使是同一个人，在不同的时间段对冷热的感知和需求也会不同，因此，一般的智能控制根据人员信息设置一个固定运行模式，并无法满足用户的实施需求，而用户每次手动调节空调也会十分麻烦。
发明内容
本发明实施例提供了一种用于空气设备的控制方法，根据用户的生理参数信息对空气设备进行控制，当空气设备为空调时，即可自动实时满足用户对温度的需求，为用户带来较佳的使用体验。
为了对披露的实施例的一些方面有一个基本的理解，下面给出了简单的概括。该概括部分不是泛泛评述，也不是要确定关键/重要组成元素或描绘这些实施例的保护范围。其唯一目的是用简单的形式呈现一些概念，以此作为后面的详细说明的序言。
根据本发明实施例的第一方面，提供了一种用于空气设备的控制方法。
在一种可选的实施例中，所述用于空气设备的控制方法，包括：
根据用户信息确定出一个或多个空气设备的运行参数，其中，所述用户信息为用户的生理参数信息；
根据所述运行参数控制一个或多个空气设备的运行。
在一种可选的实施例中，所述根据用户信息获取一个或多个空气设备的运行参数，包括：
当所述用户信息中包括两个或多个互相冲突的特征信息时，根据两个或多个特征信息获取一个或多个空气设备的两个或多个设定参数；其中，特征信息是表征用户的生理特性的信息；
根据所述两个或多个特征信息的优先级在所述两个或多个设定参数中确定出所述一个或多个空气设备的运行参数。
在一种可选的实施例中，所述根据所述两个或多个特征信息的优先级在所述两个或多个 设定参数中确定出所述一个或多个空气设备的运行参数，具体为：
根据所述两个或多个特征信息的相对变化率确定出所述两个或多个特征信息的优先级；
根据优先级最高的第一特征信息确定出所述一个或多个空气设备的运行参数。
在一种可选的实施例中，所述根据所述两个或多个特征信息的优先级在所述两个或多个设定参数中确定出所述一个或多个空气设备的运行参数，包括：
获取所述两个或多个设定参数中关于第二环境信息的两个或多个第二子设定参数，其中，所述第二环境信息为温度信息、湿度信息、洁净度信息、清新度信息和氧含量信息中的任意一种；
根据所述两个或多个特征信息的属性在所述两个或多个第二子设定参数中确定出第二子运行参数。
根据本发明实施例的第二方面，提供一种用于空气设备的控制装置。
在一种可选的实施例中，所述用于空气设备的控制装置包括：
第五模块，用于根据用户信息确定出一个或多个空气设备的运行参数，其中，所述用户信息为用户的生理参数信息；
第六模块，用于根据所述运行参数控制一个或多个空气设备的运行。
在一种可选的实施例中，所述第五模块包括：
第一单元，用于当所述用户信息中包括两个或多个互相冲突的特征信息时，根据两个或多个特征信息获取一个或多个空气设备的两个或多个设定参数；其中，特征信息是表征用户的生理特性的信息；
第二单元，用于根据所述两个或多个特征信息的优先级在所述两个或多个设定参数中确定出所述一个或多个空气设备的运行参数。
在一种可选的实施例中，所述第二单元具体用于根据所述两个或多个特征信息的相对变化率确定出所述两个或多个特征信息的优先级；根据优先级最高的第一特征信息确定出所述一个或多个空气设备的运行参数。
在一种可选的实施例中，所述第二单元具体用于获取所述两个或多个设定参数中关于第二环境信息的两个或多个第二子设定参数，其中，所述第二环境信息为温度信息、湿度信息、洁净度信息、清新度信息和氧含量信息中的任意一种；根据所述两个或多个特征信息的属性在所述两个或多个第二子设定参数中确定出第二子运行参数。
根据本发明实施例第三方面，提供一种空气调节系统。
在一种可选的实施例中，所述空气调节系统，包括多个空气设备上述的用于空气设备的控制装置。
根据本发明实施例的第四方面，提供一种计算机存储介质。
在一种可选的实施例中，所述计算机存储介质存储有计算机程序，当所述计算机程序被处理器执行时实现上述的用于空气设备的控制方法。
本发明实施例具有的有益效果是：根据用户的生理参数信息对空气设备进行控制，即可自动实时满足用户对环境空气的需求。当空气设备为空调器时，可自动实时满足用户对温度的需求，为用户带来较佳的使用体验。
应当理解的是，以上的一般描述和后文的细节描述仅是示例性和解释性的，并不能限制本发明。
附图说明
此处的附图被并入说明书中并构成本说明书的一部分，示出了符合本发明的实施例，并与说明书一起用于解释本发明的原理。
图1是根据一示例性实施例示出的一种用于空气设备的控制方法的流程示意图；
图2是根据一示例性实施例示出的一种用于空气设备的控制方法的流程示意图；
图3是根据一示例性实施例示出的一种用于空气设备的控制方法的流程示意图；
图4是根据一示例性实施例示出的一种用于空气设备的控制方法的流程示意图；
图5是根据一示例性实施例示出的一种获取空气设备的运行参数的流程示意图；
图6是根据一示例性实施例示出的一种获取空气设备的运行参数的流程示意图；
图7是根据一示例性实施例示出的一种用于空气设备的控制方法的流程示意图；
图8是根据一示例性实施例示出的一种获取空气设备的运行参数的流程示意图；
图9是根据一示例性实施例示出的一种获取空气设备的运行参数的流程示意图；
图10是根据一示例性实施例示出的一种用于空气设备的控制装置的方框示意图；
图11是根据一示例性实施例示出的一种用于空气设备的控制方法的方框示意图；
图12是根据一示例性实施例示出的一种用于空气设备的控制方法的方框示意图；
图13是根据一示例性实施例示出的一种用于空气设备的控制方法的方框示意图。
具体实施方式
以下描述和附图充分地示出本发明的具体实施方案，以使本领域的技术人员能够实践它们。实施例仅代表可能的变化。除非明确要求，否则单独的部件和功能是可选的，并且操作的顺序可以变化。一些实施方案的部分和特征可以被包括在或替换其他实施方案的部分和特征。本发明的实施方案的范围包括权利要求书的整个范围，以及权利要求书的所有可获得的等同物。在本文中，各实施方案可以被单独地或总地用术语“发明”来表示，这仅仅是为了方便，并且如果事实上公开了超过一个的发明，不是要自动地限制该应用的范围为任何单个发明或发明构思。本文中，诸如第一和第二等之类的关系术语仅仅用于将一个实体或者操作与另一个实体或操作区分开来，而不要求或者暗示这些实体或操作之间存在任何实际的关系或者顺序。而且，术语“包括”、“包含”或者其任何其他变体意在涵盖非排他性的包含，从而使得包括一系列要素的过程、方法或者设备不仅包括那些要素，而且还包括没有明确列出的其他要素。本文中各个实施例采用递进的方式描述，每个实施例重点说明的都是与其他实施例的不同之处，各个实施例之间相同相似部分互相参见即可。对于实施例公开的结构、产品等而言，由于其与实施例公开的部分相对应，所以描述的比较简单，相关之处参见方法部分说明即可。
本文中提及的空调器泛指所有能够向密闭空间、房间或区域直接提供经过处理的空气的 设备。它主要包括制冷和除湿用的制冷系统以及空气循环和净化装置，还可包括加热和通风装置。
本文中提及的加湿机泛指所有能够增加房间湿度的家用电器，包括但不限于蒸发型加湿器、超声波加湿器、电加热式加湿器、浸入式电极加湿器、冷雾加湿器等。
本文中提及的除湿机泛指所有能够降低房间湿度的家用电器。
本文中提及的空气净化器泛指所有能对空气中的颗粒物、气态污染物、微生物等一种或多种污染物具有一定去除能力的家用和类似用途电器。
本文中提及的制氧机泛指所有制取氧气的电器。
本文中提及的新风设备泛指所有由送风系统和排风系统组成的独立空气处理系统，主要包括管道式新风设备和无管道新风设备两种。
在现有技术中，当用户打开空调并设置空调的运行参数后，空调会以该运行参数持续运行，使得室内环境保持一种稳定的状态。在本发明实施例中，提供一种用空气设备的控制方法，当该控制方法应用在空调上时，可根据用户的位置信息，或行为信息控制空调的运行。而用户的位置信息或行为信息可反映用户的实际需求，故该控制方法可满足用户多变的需求。
根据本发明实施例的第一方面，提供一种用于空气设备的控制方法。
在一种可选的实施例中，如图1所示，用于控制空气设备的控制方法包括：
S101、根据用户信息确定出一个或多个空气设备的运行参数，其中，用户信息包括行为信息和位置信息的一种或两种。
不同状态的用户对环境空气具有不同的需求，例如，当用户在卧室处于睡眠状态时，需要卧室内的环境空气的温度偏高，需要空气循环；当用户处于运动状态时，需要降低室内温度；当用户在洗手间时，需要开启新风功能；在S101中，通过用户的行为信息和位置信息即可推断出目前用户的行为状态，从而确定出满足在该行为状态下用户的实际需求的空气设备的运行参数。
S102、根据运行参数控制一个或多个空气设备运行。
在本实施例中，空气设备可根据用户的不同需求自动调整运行状态，从而满足用户多变的需求。在一些应用场景中，用户的需求并非只有一种，例如用户同时对环境空气的温度以及洁净度有要求，为了满足用户的上述需求，可控制一个具有调温和净化功能的空气设备，或，可同时控制一个具有调温功能的空气设备(例如空调器)和一个具有净化功能的空气设备(例如空气净化器)。即，控制一个空气设备运行或控制多个空气设备运行，可根据用户的具体需求进行选择。
关于用户的需求以及空气设备的类型，在一种可选的实施方式中，一个或多个空气设备包括空调器、除湿机、加湿机、新风设备、制氧机和空气净化器之中的一个或多个。对应地，一个或多个空气设备对环境空气的调节作用主要体现在：调节温度、湿度、洁净度、清新度中的一个或多个。
S101中的用户信息是用于与空气设备进行交互的，可反映用户需求的信息。在上述实施例中，用户信息包括行为信息和位置信息中的一种或两种，可见，在上述实施例中，用户通过行为信息和位置信息与空气设备进行交互。当然，用户信息并不仅限于上述的行为信息和位置信息，用户还可通过其他的用户信息与空气设备进行交互。
在如下场景中，当用户打开空调后，空调会默认按照上次关机时的参数运行，在一些公 共场所或家庭中,往往是多个用户使用一个空调，但是每个用户的需求不一样，当不同的用户使用空调时,需要根据自己的需求重新设置空调的运行参数，增加了使用的复杂性，用户体验效果差。显然，继续以用户的位置信息或行为信息作为用户信息，是无法解决上述问题的。
进而，本发明实施例中提供了一种用于空气设备的控制方法，当该控制方法应用在空调上时，在根据用户的用户信息自动选择合适的运行参数的基础上，当存在多个用户信息时，根据多个用户信息的优先级确定出合适的运行参数，可满足用户的特殊需求。即，用户信息中包括身份信息和年龄信息中的一种或两种。
在一种可选的实施例中，如图2所示，用于空气设备的控制方法包括：
S201、根据用户信息确定出一个或多个空气设备的运行参数，其中，用户信息包括身份信息和年龄信息中的一种或两种；
S202、根据运行参数控制一个或多个空气设备运行。
本实施例中，每一个用户信息对应着一个设定参数，该设定参数为用户预先设定的参数，或，该设定参数为对用户的操作行为进行统计后确定的参数。通过某个用户信息即可匹配到相对应的设定参数。每个用户具有独立的身份信息，在根据用户信息确定出一个或多个空气设备的运行参数之前，还包括绑定用户的身份信息。故，在本实施例中，空气设备可根据用户信息自动选择合适的运行参数，可满足不同用户的不同需求。
在如下场景中，不同用户对冷热的感知存在差异，导致不同用户的需求也不同。即使是同一用户，在不同时间段对冷热的感知和需求也不同。在本发明实施例提供的一种用于空气设备的控制方法中，根据用户的生理参数信息对空气设备进行控制，即可自动实时满足用户对环境空气的需求。当空气设备为空调器时，即根据用户的生理参数信息对空调器进行控制，可自动实时满足用户对温度的需求，为用户带来较佳的使用体验。
在一种可选的实施例中，如图3所示，用于空气设备的控制方法可实施为：
S301、根据用户信息确定出一个或多个空气设备的运行参数，其中，用户信息为用户的生理参数信息。
在S301中，用户的生理参数信息包括体表温度信息、心率信息、血压信息、血糖信息、睡眠信息、血氧含量信息、皮肤含水信息、呼吸率信息、大脑活动信息、女性生理期信息和胎心率信息中一种或多种。一个或多个空气设备包括空调器、除湿机、加湿机、新风设备、制氧机和空气净化器中的一个或多个。
S302、根据运行参数控制一个或多个空气设备的运行。
在本实施例中，用户的生理参数信息可反映用户对环境空气的需求，根据用户的生理参数信息对空气设备进行控制，即可自动实时满足用户对环境空气的需求。
在一种可选的实施方式中，该用于空气设备的控制方法可实施为：
根据体表温度信息确定出空调器的运行参数，根据运行参数控制空调器运行；或，
根据体表温度信息确定出除湿机和/或加湿机的运行参数，根据运行参数控制除湿机和/或加湿机的运行；或，
根据心率信息确定出空调器的运行参数，根据运行参数控制空调器运行；或，
根据心率信息确定出新风设备的运行参数，根据运行参数控制新风设备的运行；或，
根据体表温度信息和心率信息确定出空调器和/或新风设备的运行参数，根据运行参数 控制空调器和/或新风设备的运行；或，
根据血压信息确定出空调器的运行参数，根据运行参数控制空调器的运行；或，
根据血压信息确定出新风设备的运行参数，根据运行参数控制新风设备的运行；或，
根据血糖信息确定出新风设备的运行参数，根据运行参数控制新风设备的运行；或，
根据血糖信息确定出空调器的运行参数，根据运行参数控制空调器的运行；或，
根据血氧含量信息确定出新风设备的运行参数，根据运行参数控制新风设备的运行；或，
根据皮肤含水信息确定出除湿机和/或加湿机运行参数，根据运行参数控制除湿机和/或加湿机的运行；或，
根据呼吸率信息确定出新风设备和/或制氧机的运行参数，根据运行参数控制新风设备和/或制氧机的运行；或，
根据胎心率信息确定出新风设备和/或制氧机的运行参数，根据运行参数控制新风设备和/或制氧机的运行。
并且，用户信息与空气设备之间组合不限于上述技术方案，本领域技术人员可根据实际情况选择用户信息和空气设备，并采用该用户信息对空气设备进行控制。
在一种可选的实施方式中，S101、S201、S301根据用户信息确定出一个或多个空气设备的运行参数，包括：根据用户信息确定出一个或多个空气设备的设定参数，根据设定参数和当前环境信息确定出一个或多个空气设备的运行参数。本技术方案适用于上述根据用户信息确定出一个或多个空气设备的运行参数的技术方案。例如，根据体表温度信息确定出空调器的运行参数，根据运行参数控制空调器运行，可实施为：根据体表温度信息确定出空调器的设定参数，根据设定参数和当前环境信息确定出空调器的运行参数，根据运行参数控制空调器运行。
在一种可选的实施方式中，S301根据用户信息确定出一个或多个空气设备的运行参数，可实施为：
当第一生理参数在第一设定指标范围内，且不等于第一最优生理参数，一个或多个空气设备处于运行状态时，在一个或多个空气设备的第一运行参数的基础上，改变第一设定值；其中，用户信息包括第一生理参数，第一设定指标范围为第一生理参数的正常范围，第一最优生理参数为用户可获得舒适体验的生理参数；此时属于对空气设备进行微调操作；
当第一生理参数在第一设定指标范围内，且不等于第一最优生理参数，一个或多个空气设备处于非运行状态时，根据与用户信息相对应的设定参数确定出一个或多个空气设备的运行参数；
当第一生理参数不在第一设定指标范围时，在一个或多个空气设备的第一运行参数的基础上，改变第二设定值，或，向用户发出提醒，或，一个或多个空气设备停止运行，其中，第二设定值大于第一设定值。
本技术方案不仅可监控用户的健康情况，还能确保用户获得舒适体验。在本技术方案中，不同季节的，不同体质的用户的第一设定指标范围和最优生理参数不同。如夏季用户感觉非常舒适的状态时，体表温度为36℃，冬季感觉非常舒适的状态时，体表温度为37℃，则在冬季是体表温度为37℃时，不可以开启制冷。此种控制方式是根据其生理特征的变化规律进行控制。具体为，实时监测用户的生理指标，在一段时间内每一个生理指标会有一个相对稳定的值，比如体表温度这段时间在37℃左右，而生理指标有时也会发生变化，比如较热 变到了38℃，此时可以控制设备进行降温，直到体表温度重新回到37℃。也就是，对生理特征进行实时检测，当参数有了变化后，控制模块下发指令通过对设备的调节，改变当前环境，进而让用户变化的生理特征值回到正常的参数。对于这个时间段，可以进行人为设定，如10个小时，或者10天。
当第一生理参数体表温度信息、心率信息、血压信息、血糖信息、皮肤含水信息、呼吸率信息和胎心率信息时，均可采用本技术方案。
例如，当第一生理参数为体表温度信息，空气设备为空调器时，当用户的体表温度T在T1～T2内，且T不等于T3，空调器处于运行状态时，若T＜T3，则将当前的设定温度调高0.5℃，或，调高其他第一设定值；若T＞T3，则将当前的设定温度调低0.5℃，或，调低其他第一设定值。其中，T与T3之间的差值与第一设定值正相关。
或，当用户的体表温度T在T1～T2内，且T不等于T3，空调器处于运行状态时，在制热模式下，若T＜T3，则将当前的设定风速提高1个级别，或，提高其他第一设定值；若T＞T3，则将当前的设定风速降低1个级别，或，降低其他第一设定值。在制冷模式下，若T＜T3，则将当前的设定风速降低1个级别，或，降低其他第一设定值；若T＞T3，则将当前的设定风速提高1个级别，或，提高其他第一设定值。其中，T与T3之间的差值与第一设定值正相关。若设定风速已经为最低风速或最高风速，则根据体表温度T调整空调器的设定温度。
当用户的体表温度T在T1～T2内，且T不等于T3，空调器处于非运行状态时，若需要提升室温，则需要结合当前室温调节。如果室温低于某个值(如20度)，且需要提高室温时，则空调开启，制热模式，默认与用户体表温度T相对应的温度值及风速，如26度，低风，开启设定时间后按上述原则对空调器进行微调。如果室温高于20度，且需要提升室温时，空调不开启，控制模块给用户发送消息(或语音播报)，提醒用户增添衣物。
当用户的体表温度T在T1～T2内，且T不等于T3，空调器处于非运行状态时，若需要降低当前室温，则需要结合当前室温调节。如果室温高于某个值(如23度)，空调器运行，制冷模式，设定与用户体表温度T相对应的温度值和风速，如22度，低风。空调运行设定时间后，按上述原则对空调进行微调。
空调未开启状态，需要调整室温时的另一种控制方式是：开启空调，舒适模式(或智能模式)，由空调器根据当前室温选择开启模式及设定温度。
可选地，同时调节空调器的设定温度和风速。
当用户体表温度T不在T1～T2时，若T＜T1，则将当前的设定温度调高1℃，或，2℃，或，3℃，或，其他第二设定值，同时开启风避人吹模式；若T＞T2，则将当前的设定温度调低1℃，或，2℃，或，3℃，或，其他第二设定值，同时开启风避人吹模式。
在一种应用场景中，根据体表温度信息和心率信息确定出空调器和新风设备的运行参数，根据运行参数控制空调器和新风设备的运行，可应用为：体表温度过低，心率过低，需要提高温度时，则进行提高温度的操作；体表温度过高，心率过低时，则不提高温度，按体表温度对空调设备进行控制；体表温度过高，心率过高时，进行降低温度；体表温度过低，心率过高时，则对空调设备执行提高温度操作，对新风设备执行增大风量的操作。如果设备处于未开启状态，则需要结合当前环境温度及CO 2浓度的数值进行判断操作，例如当CO 2浓度大于设定值(如1000ppm)，则开启新风设备，风速为设定状态(如低风)，当新风设备运行设 定时间后，对新风设备进行微调。
当用户信息包括血压信息、血糖信息、血氧含量信息、皮肤含水信息、呼吸率信息和胎心率信息中的任意一种时，其具体调节方式可参照根据体表温度信息对空调器的调节流程；当用户信息包括体表温度信息、心率信息、血压信息、血糖信息、血氧含量信息、皮肤含水信息、呼吸率信息和胎心率信息中的两种或多种时，其具体调节方式可参照根据体表温度信息和心率信息对空调器和新风设备的调节流程。
在一种可选的实施方式中，S301根据用户信息确定出一个或多个空气设备的运行参数，可实施为：
根据预设指标级别确定出第二生理参数所在的级别，其中，用户信息包括第二生理参数，预设指标级别中关联第二生理参数的两个或多个数值范围及其对应的级别；
根据第二生理参数所在的级别确定出一个或多个空气设备的运行参数，其中，一个或多个空气设备的运行参数与第二生理参数所在的级别相关联。
本技术方案中通过对用户所处的状态划分级别，具有针对性的调节空气设备，进一步确保用户处于舒适状态。
在一种应用场景中，用户信息包括睡眠信息，不同睡眠深度的用户对温度以及风量的需求不同。根据预设睡眠级别确定出第二睡眠参数所在的级别，其中，用户信息包括第二睡眠参数，预设睡眠级别中关联第二睡眠参数的两个或多个数值范围及其对应的级别。根据第二睡眠参数所在的级别确定出一个或多个空气设备的运行参数，其中，一个或多个空气设备的运行参数与第二睡眠参数所在的级别相关联。例如，预设睡眠级别中包括5个睡眠级别：X1、X2、X3、X4、X5，相对应地，空气设备的设定温度以及风量风向包括5个运行状态：S1、S2、S3、S4、S5。其中，5个运行状态为预设运行状态。当第二睡眠级别为X3时，空气设备的运行状态为S3。
在一种应用场景中，用户信息包括女性生理期信息，女性在生理期内，不宜受凉，温度应该适当调高，需要新鲜空气，应当开启新风。根据预设生理期级别确定出第二生理期参数所在的级别，其中，用户信息包括第二生理期参数，预设生理期级别中关联第二生理期参数的两个或多个数值范围及其对应的级别。根据第二生理期参数所在的级别确定出一个或多个空气设备的运行参数，其中，一个或多个空气设备的运行参数与第二生理期参数所在的级别相关联。例如，预设生理期级别中包括5个生理期级别，X1、X2、X3、X4、X5，相对应地，空气设备的设定温度和设定清新度之间的组合包括5个运行状态：S1、S2、S3、S4、S5。其中，5个运行状态为预设运行状态，在预设运行状态中，可控制室内温度为设定值，控制室内CO 2浓度为设定值，例如低于800ppm。当第二生理期级别为X3时，空气设备的运行状态为S3。通过可穿戴设备获取用户的第二生理期参数，根据第二生理期参数确定出空调器和新风设备的运行参数；通过可穿戴设备获取用户的位置，控制空调器和新风设备不向用户所在的位置吹风。
在一种可选的实施方式中，S301根据用户信息确定出一个或多个空气设备的运行参数，可实施为：
根据大脑活动信息调节一个或多个空气设备的运行参数，其中，用户信息包括大脑活动信息。
采用本技术方案，用户可更加便捷的对一个或多个空气设备进行调节。在现有技术中， 检测大脑的可穿戴设备可以检测到一些基本命令，通过这些基本命令可实现开关空调、调高温度、降低温度、增大风量、减小风量等基本操作。例如当用户想打开空调器时，通过可穿戴设备获取到该脑电波信号，控制空调器开机。在一种应用场景中，人在感觉到冷时，产生第一脑电波信号，人在感觉到热时，产生第二脑电波信号，可穿戴设备可检测到第一脑电波信号和第二脑电波信号。空气设备的运行流程为：当检测到第一脑电波信号时，增加空调器的出风量，或，调高空调器的设定温度；当检测到第二脑电波信号时，减小空调器的出风量，或，降低空调器的设定温度。
当存在多个用户信息时，如图4所示，前述用于空气设备的控制方法可实施为：
S401、根据两个或多个用户信息确定出空气设备的两个或多个设定参数，其中，用户信息包括身份信息和年龄信息中一种或两种，或，用户信息包括位置信息和行为信息，或，用户信息包括用户的生理参数信息中的一种或多种，或，用户信息包括身份信息、年龄信息、位置信息、行为信息和用户的生理参数信息中的一种或多种。
每一个用户信息对应一个设定参数，当多个用户同时使用该空气设备时，即可得到两个或多个用户信息以及相对应的两个或多个设定参数。该设定参数为用户预先设定的参数，其中，可通过移动终端获取用户预先设定的参数，将用户信息和用户预先设定的参数以一一对应的方式存储在数据库中，数据库可设置在本地局域网内或云平台服务器上。在用户预先设定的参数中，用户对温度、湿度、洁净度、清新度中的一种或多种进行了设定。其中，移动终端可以为智能手机、平板电脑、超级移动个人计算机UMPC(Ultra-mobile Personal Computer)、上网本、个人数字助理PDA(Personal Digital Assistant)等终端设备，且不限于此。
可选地，当用户未预先设定该设定参数时，统计用户信息以及用户的操作行为以确定出设定参数。例如当用户信息中包括体表温度信息时，用户正常的体表温度为37℃，此时该用户的体表温度为38℃，10分钟后，用户启动了空调器，选择制冷，低风，26℃。该用户多次遇到该情况，并且多次以上述方式设定空调器。例如上述情况重复了3次，或，5次，或，10次，或，20次。那么，如下场景：用户信息为体表温度信息，且正常体表温度为37℃，当前体表温度为38℃，其对应的设定参数为：制冷模式，低风，26℃(针对空调器的设定参数)。若用户体表温度为38℃时，自动根据该设定参数确定出空调器的运行参数，即控制空调器的运行状态为制冷模式，低风，26℃。
S402、根据两个或多个用户信息的优先级在两个或多个设定参数中获取一个或多个空气设备的运行参数，其中，用户信息的优先级是根据用户对环境空气的承受能力预先设置的优先级。
其中，用户信息的优先级包括特殊用户的最高优先级。在用户为特殊用户的情况下，例如当用户感冒时，或，当用户照顾婴儿时，此时用户难以承受较低温度的环境空气，那么该用户的用户信息具有最高的优先级，即，只要该用户在空气设备所能影响的范围内，根据该用户的设定参数确定出一个或多个空气设备的运行参数，满足了该特殊用户的需求。
在S401中可知，用户信息与设定参数是相对应的，在S402中包括以下流程：在两个或多个用户信息中确定出优先级最高的第二用户信息，根据第二用户信息所对应的第二设定参数获取一个或多个空气设备的运行参数。其中，根据第二用户信息所对应的第二设定参数获取一个或多个空气设备的运行参数可实施为：获取当前环境信息，根据第二设定参数和当前 环境信息获取一个或多个空气设备的运行参数。
例如用户信息中包括体表温度信息时，体表温度为37℃时，设定参数中的设定温度为26℃，体表温度为38℃时，设定参数中的设定温度为25℃，体表温度为30℃时，设定温度中的设定参数为23℃。当体表温度为30度℃，当前室内温度为16℃，则控制开启空调器的制热模式，设定温度为23℃，使室温逐渐升高并保持在23℃；当体表温度为37℃时，当前室内温度为30℃，则控制空调器开启制冷模式，设定温度为26℃，时室温逐渐降低并保持在26℃。
S403、根据运行参数控制一个或多个空气设备运行。
在本实施例中，当有多个用户时，空气设备可满足特殊用户的特殊需求。
在一种可选的实施例中，S402中根据两个或多个用户信息的优先级在两个或多个设定参数中获取一个或多个空气设备的运行参数，包括：
当用户信息包括身份信息时，在两个或多个身份信息中确定出优先级最高的第一身份信息；根据第一身份信息所对应的设定参数确定出一个或多个空气设备的运行参数。
当用户信息包括年龄信息时，根据年龄信息的优先级确定出运行模式的优先级；根据运行模式的优先级确定出设定参数的优先级；根据优先级最高的设定参数确定出一个或多个空气设备的运行参数。其中，运行模式为根据用户年龄所设置的，运行模式与设定参数一一对应，运行模式的优先级为根据不同用户对环境空气的承受能力预先设置的优先级。运行模式包括但不限于：孕婴模式、儿童模式、普通模式、老人模式，运行模式的优先级由高到底可设定为：孕婴模式＞儿童模式＞老人模式＞普通模式。例如，当识别到陌生人员为成年人，则按照普通模式运行空气设备；若同时识别到成年人和婴儿，则按照孕婴模式运行空气设备。在用户未预先设定参数的情况下，本实施例仍可确保用户获得较佳的体验。
当用户信息同时包括身份信息和年龄信息时，优先选择根据身份信息所对应的设定参数确定出一个或多个空气设备的运行参数。
当用户信息包括行为信息和位置信息，根据行为信息和位置信息确定出用户状态；根据用户状态的优先级确定出设定参数的优先级；根据优先级最高的设定参数确定出一个或多个空气设备的运行参数。其中，用户状态指的是用户的活动状态，包括但不限于：洗澡状态、运动状态、读书状态、打扫卫生状态、娱乐状态，用户状态与设定参数一一对应，例如，用户处于运动状态，对应的设定参数为：温度24℃，湿度40％，PM2.5＜50μg/m 3，CO 2＜800ppm，氧含量21％，其中，PM2.5是环境空气中空气动力学当量直径小于等于2.5微米的颗粒物，也称细颗粒物；相对应的，空气设备的运行参数为：空调器处于制冷状态，中速风，24℃，空气净化器处于智能模式，自动风，新风设备中速风，制氧机开启。用户处于娱乐状态，对应的设定参数为：温度26℃，湿度60％，PM2.5＜60μg/m 3，CO2＜1000ppm，氧含量20.9％；相对应地，空气设备的运行参数为：空调器输出制冷状态，低速风，26℃，空气净化器处于智能模式，自动风；新风设备低速风，制氧机关闭。用户状态的优先级为根据不同状态的用户对环境的空气的承受能力预先设置的优先级，例如用户状态的优先级由高至低可为：洗澡状态＞运动状态＞读书状态＞打扫卫生状态＞娱乐状态。
当用户信息同时包括身份信息、年龄信息、行为信息和位置信息时，以孕婴模式为最高优先级，即当检测到室内存在婴儿时，即根据孕婴模式对应的设定参数确定出一个或多个空气设备的运行参数。在室内没有婴儿的情况下，以洗澡状态为最高优先级，即用户处于洗澡 状态，当用户回到室内后，根据洗澡状态对应的设定参数确定出室内一个或多个空气设备的运行参数。
本实施例可满足特殊用户的特殊需求。
在本实施例中，若识别到前后两个用户的优先级相同，则按照前一个用户的设定参数确定一个或多个空气设备的运行参数，或，按照后一个用户的设定参数确定一个或多个空气设备的运行参数。
在一种应用场景中，用户处于运动状态，用户在跑步机上跑步，跑步机为联动设备，通过跑步机即可获取用户的跑步速度，获取用户的运动强度，当跑步机的速度小于10km/h时，空气设备按照第一运动状态所对应的设定参数运行，例如：空调器处于制冷状态，中速风，温度24℃；空气净化器处于智能模式，自动风；新风设备为高速风，制氧机开启。当跑步机的速度大于10km/h时，空气设备按照第二运动状态所对应的设定参数运行，例如：空调器处于制冷状态，中速风，温度24℃；空气净化器处于智能模式，自动风；新风设备为高速风，制氧机开启。若用户的跑步速度由9km/h增加到11km/h，空气设备自动在第一运行状态切换至第二运行状态。
一种可选的实施例中，S402中根据两个或多个用户信息的优先级在两个或多个设定参数中获取一个或多个空气设备的运行参数，包括：
针对第一空气设备，确定出优先级最高的第一用户信息；
根据第一用户信息所对应的设定参数确定出第一空气设备的运行参数。
重复以上步骤，直至确定出所有的空气设备的运行参数。在上述技术方案中，对于同一个空气设备，不同用户信息具有不同的优先级，对于同一个用户信息，在不同的空气设备中具有不同的优先级。采用本技术方案可满足多个用户的最主要的需求。例如，第三用户对环境空气的温度要求比较高，如该用户比较怕冷，那么，在对空调器的控制方面，该第三用户具有最高的优先级；第四用户对环境空气的清洁度要求比较高，那么，在对空气净化器的控制方面，该第四用户具有最高的优先级。当空气设备运行时，空气器按照第三用户的用户信息所对应的设定参数运行，空气净化器按照第四用户的用户信息所对应的设定参数运行，故，同时满足了第三用户和第四用户的最主要的需求。
在一种可选的实施例中，S402中根据两个或多个用户信息的优先级在两个或多个设定参数中获取一个或多个空气设备的运行参数，包括：
根据两个或多个用户信息的相对变化率确定出两个或多个用户信息的优先级，根据优先级最高的用户信息在两个或多个设定参数中确定出一个或多个空气设备的运行参数。
为方便记录，将两个或多个用户信息的相对变化率划分等级，其中，等级越高，相对变化率越大，该用户信息的变化程度越大。
例如，当用户信息包括体表温度信息和心率信息时，第五用户的体表温度变化级别为2，心率变化级别为1，第六用户的体表温度变化级别为2，心率变化级别为3。在上述各个用户信息的变化中，变化程度最大的是第六用户的心率信息，根据第六用户的心率信息的相对变化率所对应的设定参数确定出一个或多个空气设备的运行参数。
在一种可选的实施例中，如图5所示，S402中根据两个或多个用户信息的优先级在两个或多个设定参数中获取一个或多个空气设备的运行参数，包括：
S501、获取两个或多个设定参数中关于第一环境信息的两个或多个第一子设定参数，其 中，第一环境信息为温度信息、湿度信息、洁净度信息、清新度信息、氧含量信息之中的任意一种。
可选地，一个设定参数中可包括关于温度的子设定参数、关于湿度的子设定参数、关于洁净度的子设定参数和关于清新度的子设定参数中的一个或多个。
S502、根据第一环境信息的属性在两个或多个第一子设定参数中确定出第一子运行参数。
其中，第一环境信息的属性指的是第一环境信息的变化与用户舒适度的变化之间的对应关系，包括当第一环境信息变大时，用户舒适度变差，或，用户舒适度变好；当第一环境信息变小时，用户舒适度变差，或，用户舒适度变好。例如，洁净度越高，用户舒适度越好；清新度越高，用户舒适度越好。对于多个表征第一环境信息的第一子设定参数，用户舒适度越好，则该第一子设定参数的优先级越高，根据优先级最高的第一子设定参数确定出第一子运行参数。
多次执行S501和S502，获取多个子运行参数，合并多个子运行参数即可获取一个或多个空气设备的运行参数。按照上述技术方案获取的运行参数对空气设备进行控制，可保证处于该环境空气中用户均具有较佳的体验。
当第一环境信息分别为温度信息、湿度信息、洁净度信息和清新度信息时，上述技术方案的具体实施方式如下：
当第一环境信息为温度信息时，获取两个或多个设定参数中关于温度信息的两个或多个第一子设定参数，在两个或多个第一子设定参数中确定出最高设定值作为第一子运行参数；
当第一环境信息为湿度信息时，获取两个或多个设定参数中关于湿度信息的两个或多个第一子设定参数，以两个或多个第一子设定参数的平均值作为第一子运行参数；
当第一环境信息为洁净度信息时，获取两个或多个设定参数中关于洁净度信息的两个或多个第一子设定参数，在两个或多个第一子设定参数中确定出最低设定值作为第一子运行参数；
当第一环境信息为清新度信息时，获取两个或多个设定参数中关于清新度信息的两个或多个第一子设定参数，在两个或多个第一子设定参数中确定出最低设定值作为第一子运行参数。
执行一次上述技术方案，获得关于一种环境信息的一个子运行参数，执行上述技术方案的次数，与设定参数中所包含的子设定参数的数量相同。在执行完最后一次上述技术方案后，合并所获得的若干子运行参数作为一个或多个空气设备的运行参数。
例如，第一用户的设定参数为“制冷26℃，湿度40％，PM2.5＞100μg/m 3开启净化，CO 2＞1500ppm开启新风”，第二用户的设定参数为“制冷23℃，湿度60％，PM2.5＞150μg/m 3开启净化，CO 2＞1000ppm开启新风”。当检测到只有第一用户在室内时，根据第一用户的设定参数确定出一个或多个空气设备的运行参数，开启空调器，并设置为26℃，当湿度大于40％时，开启除湿机，将湿度控制在40％，当湿度小于40％时，开启加湿机，将湿度控制在40％，当PM2.5＞100μg/m 3开启空气净化器或开启空调净化功能，当CO 2浓度大于1500ppm时，开启新风设备或开启空调新风功能；当检测到第一用户和第二用户均在室内时，第一用户的设定参数中，关于温度信息的子设定参数为“制冷26℃”，第二用户的设定参数中，关于温度信息的子设定参数为“制冷23℃”，选取“制冷26℃”作为运行参数的一个子运行参数；关于湿度信息，第一用户的设定参数中的子设定参数为“湿度40％”，第二用户的设定 参数中的子设定参数为“湿度60％”，取二者平均值“湿度50％”作为一个子运行参数；关于洁净度信息，第一用户的设定参数中的子设定参数为“PM2.5＞100μg/m 3开启净化”，第二用户的设定参数中的子设定参数为“PM2.5＞150μg/m 3开启净化”，选择“PM2.5＞100μg/m 3开启净化”作为一个子运行参数；关于清新度信息，第一用户的设定参数中的子设定参数为“CO 2＞1500ppm开启新风”，第二用户的设定参数中的子设定参数为“CO 2＞1000ppm开启新风”，选择“CO 2＞1000ppm开启新风”作为一个子运行参数。合并以上四个子运行参数，获得的运行参数为“制冷26℃，湿度50％，PM2.5＞100μg/m 3开启净化，CO 2＞1000ppm开启新风”。
在一种可选的实施例中，如图6所示，应用于存在两个或多个具有相同功能的空气设备的情况，S402中根据两个或多个用户信息的优先级在两个或多个设定参数中获取一个或多个空气设备的运行参数，包括：
S601、根据用户信息的优先级在两个或多个设定参数中确定出综合设定参数。
在本实施例中，存在两个或多个具有相同功能的空气设备，例如在加湿方面，同时存在超声波加湿器、电加热时加湿器时，即为存在两个或多个具有相同功能的空气设备的情况，S501中综合设定参数指的是两个或多个具有相同功能的空气设备功能达到的效果，例如综合设定参数“湿度50％”。前文中提及的控制方法，相当于直接根据综合设定参数确定出一个或多个空气设备的运行参数。
S602、根据综合设定参数获取两个或多个具有相同功能的空气设备的两个或多个运行参数，其中，运行参数中包括每个空气设备的运行功率。
在综合设定参数确定的情况下，两个或多个具有相同功能的空气设备为了实现综合设定参数所确定的效果，具有两种或多种组合形式。例如综合设定参数“制冷功率1000W”，而室内用于制冷的设备有两个：第一空调和第二空调，其中，第一空调的功率为1500W，第二空调的功率为3000W，此时，运行参数包括三种，第一种运行参数：仅启动第一空调，可满足综合设定参数；第二种运行参数：仅启动第二空调，可满足综合设定参数；第三种运行参数：同时启动第一空调和第二空调，可满足综合设定参数。
S603、在两个或多个运行参数中确定出总功率最小的第一运行参数。
在上述三种运行参数中，第一种运行参数所需要的总功率为1500W，第二种运行参数所需要的总功率为3000W，第三种运行参数所需的总功率为4500W，显然，第一种运行参数所需要的总功率小于第二种运行参数和第三种运行参数所需要的总功率，故，选择第一种运行参数作为第一运行参数。
进一步地，当满足最小功率的第一运行参数有两个或多个时，在两个或多个第一运行参数中确定出涉及空气设备数量最少的第二运行参数。例如综合设定参数“制冷功率3000W”，而室内用于制冷的设备有三个：第一空调、第二空调和第三空调，其中，第一空调的功率为1500W，第二空调的功率为1500W，第三空调的功率为3000W，那么，第一运行参数包括两种，第一种第一运行参数：同时启动第一空调和第二空调；第二种第一运行参数：仅启动第三空调。在第一种第一运行参数中，涉及了两个空气设备，在第二种第一运行参数中，涉及了一个空气设备，故，选择第二种第一运行设备作为第二运行参数。
本实施例在保证空气设备对室内空气的调节作用达到效果预期效果的同时，还能最大程度的节省能源。
在前文中，当根据一个用户信息所确定出的空气设备的一个运行参数，与根据另一个用户信息所确定出的空气设备的另一个运行参数发生冲突时，通过为该一个运行参数与该另一个运行参数设定不同的优先级，避免了二者冲突。
但是，一个用户信息往往包括多种不同的信息，例如身份信息、年龄信息、行为信息、位置信息、体表温度信息、心率信息等。根据用户信息所包括的一种信息确定出空气设备的一种运行参数，根据用户信息所包括的另一种信息可确定出空气设备的另一种运行参数，上述空气设备的运行参数难免会产生冲突。
当用户信息中包括两个或多个互相冲突的特征信息时，根据用户信息获取一个或多个空气设备的运行参数，包括：
根据两个或多个特征信息获取一个或多个空气设备的两个或多个设定参数；
根据两个或多个特征信息的优先级在两个或多个设定参数中确定出一个或多个空气设备的运行参数。
若用户信息中不存在两个或多个互相冲突的特征信息，则执行根据用户信息确定出的一个或多个空气设备的所有运行参数。
在此基础上，如图7所示，前述用于空气设备的控制方法可实施为：
S701、根据两个或多个特征信息获取一个或多个空气设备的两个或多个设定参数。
特征信息为用户信息中所包括的互相冲突的信息，两个或多个特征信息互相冲突，指的是根据该两个或多个特征信息可确定出同一个空气设备的两个或多个运行参数，而一个空气设备只能按照一种运行参数运行，故两个或多个运行参数产生了冲突。
可选地，两个或多个特征信息包括身份信息、年龄信息、行为信息、位置信息、体表温度信息、心率信息、血压信息、血糖信息、睡眠信息、血氧含量信息、皮肤含水信息、呼吸率信息、大脑活动信息、女性生理期信息和胎心率信息中的一个或多个。
S702、根据两个或多个特征信息的优先级在两个或多个设定参数中确定出一个或多个空气设备的运行参数。
S703、根据运行参数控制一个或多个空气设备的运行。
在一种可选的实施例中，如图8所示，根据两个或多个特征信息的优先级在两个或多个设定参数中确定出一个或多个空气设备的运行参数，具体为：
S801、根据两个或多个特征信息的相对变化率确定出两个或多个特征信息的优先级。
其中，相对变化率反映了特征信息发生变化的程度，相对变化率越大，该特征信息的变化程度越大，相对变化率越小，该特征信息的变化程度越小。可选地，将相对变化率划分变化级别。
S802、根据优先级最高的第一特征信息确定出一个或多个空气设备的运行参数。
例如，体表温度变化级别为2，心率变化级别为1，则根据体表温度确定出一个或多个空气设备的运行参数。
本实施例可满足用户最主要的需求。
在一种可选的实施例中，根据两个或多个特征信息的优先级在两个或多个设定参数中确定出一个或多个空气设备的运行参数，具体为：
根据空调调节设备的类型确定出两个或多个特征信息的优先级；根据优先级最高的特征信息确定出一个或多个空气设备的运行参数。例如，当空气设备为空调器时，体表温度信息> 血压信息>心率信息，当空气设备为新风设备时，血氧信息>心率信息>血压信息。
一种可选的实施例中，如图9所示，根据两个或多个特征信息的优先级在两个或多个设定参数中确定出一个或多个空气设备的运行参数，包括：
S901、根据两个或多个特征信息获取两个或多个设定参数中关于第二环境信息的两个或多个第二子设定参数，其中，第二环境信息为温度信息、湿度信息、洁净度信息、清新度信息和氧含量信息中的任意一种；
S902、根据第二环境信息的属性在两个或多个第二子设定参数中确定出第二子运行参数。
其中，两个或多个特征信息的属性指的是两个或多个特征信息的变化与用户舒适度的变化之间的对应关系，包括当特征信息变大时，用户舒适度变差，或，用户舒适度变好；当特征信息变小时，用户舒适度变差，或，用户舒适度变好。在用于设定第二环境信息的两个或多个第二子设定参数中，用户舒适度越好，则该第二子设定参数的优先级越高，根据优先级最高的第二子设定参数确定出第二子运行参数。例如，在多个设定温度中，根据温度高的子设定参数确定出子运行参数；在多个设定清新度中，根据设定CO 2浓度最低的子设定参数确定出子运行参数。如女性生理期时要求温度为28℃，CO 2在1000ppm以下；而此时心率变化的要求时温度26℃，CO 2在800ppm以内。此时，对温度进行对比，设置为28℃；对CO 2浓度要求进行对比，则控制CO 2在800ppm以内。
多次执行S901和S902，获取多个子运行参数，合并多个子运行参数即可获取一个或多个空气设备的运行参数。按照上述技术方案获取的运行参数对空气设备进行控制，可保证处于该环境空气中用户均具有较佳的体验。
可选地，在S101、S201、S301或S401之前，还包括：获取用户信息；
当用户身份信息为行为信息或位置信息时，获取用户的身份信息可实施为：通过联动设备获取用户信息，其中，联动设备为可提供用户信息的设备。
其中，联动设备指是在用户的日常生活中，提供必要的功能以维持正常生活的电器设备。联动设备包括但不限于：油烟机、电磁灶、煤气灶、电烤箱、电饭锅、浴室热水器、洗衣机、智能马桶盖、电视机、投影仪、电脑、跑步机。家居生活中的联动设备的设置位置一般是固定的，例如：跑步机设置在运动健身室；油烟机、电磁灶、煤气灶设置在厨房；浴室热水器、智能马桶盖设置在卫生间。故，根据某一个联动设备的启动情况，即可确定出用户的位置信息。另外，不同的联动设备具有不同的功能，例如：跑步机用于锻炼身体，油烟机、电磁灶或煤气灶用于烹饪，浴室热水器用于沐浴等。故，根据联动设备的运行时间、两个或多个联动设备的组合运行情况，即可确定出用户的行为信息。通过联动设备可更加准确的确定出用户的行为信息和位置信息。获取用户信息还可实施为：通过摄像头或红外传感器获取用户的行为信息，通过射频识别技术RFID(Radio Frequency Identification)获取位置信息。可选地，获取用户的行为信息包括：通过摄像头或红外传感器确定出用户行为动作，通过联动设备获取确定用户的行为强度。
当用户信息为用户的生理参数信息时，获取用户的身份信息可实施为：通过联动设备获取用户信息，其中，联动设备为可提供用户信息的设备。联动设备包括但不限于智能手环、智能手表、智能头盔、智能皮肤贴片、智能臂环等。
当用户信息为身份信息或年龄信息时，获取用户信息可实施为：通过摄像头获取用户的面部图像，根据用户的面部图像确定出用户的身份信息，或，年龄信息，或，身份信息和年 龄信息；其中，摄像头可为空气设备自带摄像头、专用摄像头和安防摄像头中的任一种。获取用户的身份信息，还可实施为：通过RFID获取用户的身份信息。
在获取用户身份信息后，S401可选实施为：将身份信息发送至数据库，在数据库中匹配出与该身份信息相对应的设定参数。其中，数据库与空气设备，或，与空气设备和联动设备进行通信，该数据库可选设置在本地局域网(例如智能家居系统)，可选设置在云平台服务器上。
当通过身份信息无法确定出空气设备的设定参数时，即当根据身份信息无法获取设定参数时，根据年龄信息确定出运行模式，其中，运行模式与设定参数一一对应。
根据本发明实施例的第二方面，提供一种用于空气设备的控制装置。
在一种可选的实施例中，如图10所示，用于空气设备的控制装置包括：
第一模块10，用于根据用户信息确定出一个或多个空气设备的运行参数，其中，用户信息包括行为信息和位置信息的一种或两种；
第二模块20，用于根据运行参数控制一个或多个空气设备运行。
在一种可选的实施例中，如图11所示，用于空气设备的控制装置包括：
第三模块30，用于根据用户信息确定出一个或多个空气设备的运行参数，其中，用户信息包括身份信息和年龄信息中的一种或两种；
第四模块40，用于根据运行参数控制一个或多个空气设备运行。
在一种可选的实施例中，如图12所示，用于空气设备的控制装置包括：
第五模块50，用于根据用户信息确定出一个或多个空气设备的运行参数，其中，用户信息为用户的生理参数信息；
用户的生理参数信息包括体表温度信息、心率信息、血压信息、血糖信息、睡眠信息、血氧含量信息、皮肤含水信息、呼吸率信息、大脑活动信息、女性生理期信息和胎心率信息中一种或多种。一个或多个空气设备包括空调器、除湿机、加湿机、新风设备、制氧机和空气净化器中的一个或多个；
第六模块60，用于根据运行参数控制一个或多个空气设备的运行。
在一种可选的实施例中，第一模块、第三模块或第五模块具体用于根据用户信息确定出一个或多个空气设备的设定参数，根据设定参数和当前环境信息确定出一个或多个空气设备的运行参数。
在一种可选的实施方式中，第五模块具体用于：当第一生理参数在第一设定指标范围内，且不等于第一最优生理参数，一个或多个空气设备处于运行状态时，在一个或多个空气设备的第一运行参数的基础上，改变第一设定值；其中，用户信息包括第一生理参数，第一设定指标范围为第一生理参数的正常范围，第一最优生理参数为用户可获得舒适体验的生理参数；当第一生理参数在第一设定指标范围内，且不等于第一最优生理参数，一个或多个空气设备处于非运行状态时，根据与用户信息相对应的设定参数确定出一个或多个空气设备的运行参数；当第一生理参数不在第一设定指标范围时，在一个或多个空气设备的第一运行参数的基础上，改变第二设定值，或，向用户发出提醒，或，一个或多个空气设备停止运行，其中，第二设定值大于第一设定值。
在一种可选的实施方式中，第五模块具体用于根据预设指标级别确定出第二生理参数所在的级别，；根据第二生理参数所在的级别确定出一个或多个空气设备的运行参数，其中， 用户信息包括第二生理参数，预设指标级别中关联第二生理参数的两个或多个数值范围及其对应的级别，一个或多个空气设备的运行参数与第二生理参数所在的级别相关联。
在一种可选的实施方式中，第五模块具体用于根据大脑活动信息调节一个或多个空气设备的运行参数，其中，用户信息包括大脑活动信息。
在一种可选的实施例中，如图13所示，该用于空气设备的控制装置包括：
第七模块70，用于根据两个或多个用户信息确定出空气设备的两个或多个设定参数，其中，用户信息包括身份信息和年龄信息中一种或两种，或，用户信息包括位置信息和行为信息，或，用户信息包括用户的生理参数信息，或，用户信息包括身份信息、年龄信息、位置信息、行为信息和用户的生理参数信息中的一种或多种；
第八模块80，用于根据两个或多个用户信息的优先级在两个或多个设定参数中获取一个或多个空气设备的运行参数，其中，用户信息的优先级是根据用户对环境空气的承受能力预先设置的优先级；
第九模块90，用于根据运行参数控制一个或多个空气设备运行。
在一种可选的实施方式中，第七模块还用于统计用户信息以及用户的操作行为以确定出设定参数。
在一种可选的实施方式中，第八模块具体用于在两个或多个用户信息中确定出优先级最高的第二用户信息，根据第二用户信息所对应的第二设定参数获取一个或多个空气设备的运行参数。其中，根据第二用户信息所对应的第二设定参数获取一个或多个空气设备的运行参数可实施为：获取当前环境信息，根据第二设定参数和当前环境信息获取一个或多个空气设备的运行参数。
在一种可选的实施例中，第八模块具体用于当用户信息包括身份信息时，在两个或多个身份信息中确定出优先级最高的第一身份信息；根据第一身份信息所对应的设定参数确定出一个或多个空气设备的运行参数。当用户信息包括年龄信息时，根据年龄信息的优先级确定出运行模式的优先级；根据运行模式的优先级确定出设定参数的优先级；根据优先级最高的设定参数确定出一个或多个空气设备的运行参数。当用户信息同时包括身份信息和年龄信息时，优先选择根据身份信息所对应的设定参数确定出一个或多个空气设备的运行参数。当用户信息包括行为信息和位置信息，根据行为信息和位置信息确定出用户状态；根据用户状态的优先级确定出设定参数的优先级；根据优先级最高的设定参数确定出一个或多个空气设备的运行参数。当用户信息同时包括身份信息、年龄信息、行为信息和位置信息时，以孕婴模式为最高优先级。
在一种可选的实施例中，第八模块具体用于针对第一空气设备，确定出优先级最高的第一用户信息；根据第一用户信息所对应的设定参数确定出第一空气设备的运行参数。
在一种可选的实施例中，第八模块具体用于根据两个或多个用户信息的相对变化率确定出两个或多个用户信息的优先级，根据优先级最高的用户信息在两个或多个设定参数中确定出一个或多个空气设备的运行参数。
在一种可选地的实施例中，第八模块具体用于获取两个或多个设定参数中关于第一环境信息的两个或多个第一子设定参数，其中，第一环境信息为温度信息、湿度信息、洁净度信息、清新度信息、氧含量信息之中的任意一种；根据第一环境信息的属性在两个或多个第一子设定参数中确定出第一子运行参数。
在一种可选的实施例中，第八模块具体用于根据用户信息的优先级在两个或多个设定参数中确定出综合设定参数，根据综合设定参数获取两个或多个具有相同功能的空气设备的两个或多个运行参数，其中，运行参数中包括每个空气设备的运行功率，在两个或多个运行参数中确定出总功率最小的第一运行参数。
在一种可选的实施例中，第五模块包括：
第一单元，用于当用户信息中包括两个或多个互相冲突的特征信息时，根据两个或多个特征信息获取一个或多个空气设备的两个或多个设定参数；
第二单元，用于根据两个或多个特征信息的优先级在两个或多个设定参数中确定出一个或多个空气设备的运行参数；
第三单元，用于若用户信息中不存在两个或多个互相冲突的特征信息，则执行根据用户信息确定出的一个或多个空气设备的所有运行参数。
在一种可选的实施方式中，第二单元具体用于根据两个或多个特征信息的相对变化率确定出两个或多个特征信息的优先级，根据优先级最高的第一特征信息确定出一个或多个空气设备的运行参数。其中，相对变化率反映了特征信息发生变化的程度，相对变化率越大，该特征信息的变化程度越大，相对变化率越小，该特征信息的变化程度越小。可选地，将相对变化率划分变化级别。
在一种可选的实施方式中，第二单元具体用于根据两个或多个特征信息获取两个或多个设定参数中关于第二环境信息的两个或多个第二子设定参数，其中，第二环境信息为温度信息、湿度信息、洁净度信息、清新度信息和氧含量信息中的任意一种；根据第二环境信息的属性在两个或多个第二子设定参数中确定出第二子运行参数。
在一种可选的实施例中，用于空气设备的控制装置还包括：
第十模块，用于在根据用户信息确定出一个或多个空气设备的运行参数之前，获取用户信息。
在一种可选的实施方式中，第十模块具体用于通过联动设备获取用户信息，其中，联动设备为可提供用户信息的设备。
在一种可选的实施方式中，第十模块具体用于通过摄像头或红外传感器获取用户的行为信息，通过RFID获取位置信息，其中，获取用户的行为信息包括：通过摄像头或红外传感器确定出用户行为动作，通过联动设备获取确定用户的行为强度。
在一种可选的实施方式中，第十模块具体用于当用户信息为用户的生理参数信息时，通过联动设备获取用户信息，其中，联动设备为可提供用户信息的设备。联动设备包括但不限于智能手环、智能手表、智能头盔、智能皮肤贴片、智能臂环等。
可选地，第十模块具体用于当用户信息为身份信息或年龄信息时，通过摄像头获取用户的面部图像，根据用户的面部图像确定出用户的身份信息，或，年龄信息，或，身份信息和年龄信息；其中，摄像头可为空气设备自带摄像头、专用摄像头和安防摄像头中的任一种。
可选地，第十模块具体用于通过RFID获取用户的身份信息。
一种可选的实施例中，用于空气设备的控制装置包括：
处理器；
用于存储处理器可执行指令的存储器；
其中，处理器被配置为：
根据两个或多个用户信息确定出空气设备的两个或多个设定参数，其中，用户信息包括身份信息和年龄信息中一种或两种，或，用户信息包括位置信息和行为信息，或，用户信息包括用户的生理参数信息，或，用户信息包括身份信息、年龄信息、位置信息、行为信息和用户的生理参数信息中的一种或多种；
根据两个或多个用户信息的优先级在两个或多个设定参数中获取一个或多个空气设备的运行参数，其中，用户信息的优先级是根据用户对环境空气的承受能力预先设置的优先级；
根据运行参数控制一个或多个空气设备运行。
可选地，前文的用于空气设备的控制方法和装置可以在网络侧服务器中实现，或者，在移动终端中实现，或者，在专用的控制设备中实现。
根据本发明实施例的第三方面，提供一种空气调节系统。
在一些可选的实施例中，该空气调节系统包括多个空气设备和上述用于空气设备的控制装置。
在一种可选的实施例中，提供一种计算机存储介质，其上存储有计算机程序，当计算机程序被处理器执行时实现前文的方法。上述计算机存储介质包括只读存储器ROM(Read Only Memory)、随机存取存储器RAM(Random Access Memory)、磁带和光存储设备等。
本领域普通技术人员可以意识到，结合本文中所公开的实施例描述的各示例的单元及算法步骤，能够以电子硬件、或者计算机软件和电子硬件的结合来实现。这些功能究竟以硬件还是软件方式来执行，取决于技术方案的特定应用和设计约束条件。所属技术人员可以对每个特定的应用来使用不同方法来实现所描述的功能，但是这种实现不应认为超出本发明的范围。所属领域的技术人员可以清楚地了解到，为描述的方便和简洁，上述描述的系统和装置的具体工作过程，可以参考前述方法实施例中的对应过程，在此不再赘述。
应当理解的是，本发明并不局限于上面已经描述并在附图中示出的流程及结构，并且可以在不脱离其范围进行各种修改和改变。本发明的范围仅由所附的权利要求来限制。

Claims (10)

  1. 一种用于空气设备的控制方法，其特征在于，包括：
    根据用户信息确定出一个或多个空气设备的运行参数，其中，所述用户信息为用户的生理参数信息；
    根据所述运行参数控制一个或多个空气设备的运行。
  2. 根据权利要求1所述的控制方法，其特征在于，所述根据用户信息获取一个或多个空气设备的运行参数，包括：
    当所述用户信息中包括两个或多个互相冲突的特征信息时，根据两个或多个特征信息获取一个或多个空气设备的两个或多个设定参数；其中，特征信息是表征用户的生理特性的信息；
    根据所述两个或多个特征信息的优先级在所述两个或多个设定参数中确定出所述一个或多个空气设备的运行参数。
  3. 根据权利要求2所述的控制方法，其特征在于，所述根据所述两个或多个特征信息的优先级在所述两个或多个设定参数中确定出所述一个或多个空气设备的运行参数，具体为：
    根据所述两个或多个特征信息的相对变化率确定出所述两个或多个特征信息的优先级；
    根据优先级最高的第一特征信息确定出所述一个或多个空气设备的运行参数。
  4. 根据权利要求2所述的控制方法，其特征在于，所述根据所述两个或多个特征信息的优先级在所述两个或多个设定参数中确定出所述一个或多个空气设备的运行参数，包括：
    获取所述两个或多个设定参数中关于第二环境信息的两个或多个第二子设定参数，其中，所述第二环境信息为温度信息、湿度信息、洁净度信息、清新度信息和氧含量信息中的任意一种；
    根据所述两个或多个特征信息的属性在所述两个或多个第二子设定参数中确定出第二子运行参数。
  5. 一种用于空气设备的控制装置，其特征在于，包括：
    第五模块，用于根据用户信息确定出一个或多个空气设备的运行参数，其中，所述用户信息为用户的生理参数信息；
    第六模块，用于根据所述运行参数控制一个或多个空气设备的运行。
  6. 根据权利要求5所述的控制装置，其特征在于，所述第五模块包括：
    第一单元，用于当所述用户信息中包括两个或多个互相冲突的特征信息时，根据两个或多个特征信息获取一个或多个空气设备的两个或多个设定参数；其中，特征信息是表征用户的生理特性的信息；
    第二单元，用于根据所述两个或多个特征信息的优先级在所述两个或多个设定参数中确定出所述一个或多个空气设备的运行参数。
  7. 根据权利要求6所述的控制装置，其特征在于，所述第二单元具体用于根据所述两个或多个特征信息的相对变化率确定出所述两个或多个特征信息的优先级；根据优先级最高的第一特征信息确定出所述一个或多个空气设备的运行参数。
  8. 根据权利要求6所述的控制装置，其特征在于，所述第二单元具体用于获取所述两个或多个设定参数中关于第二环境信息的两个或多个第二子设定参数，其中，所述第二环境 信息为温度信息、湿度信息、洁净度信息、清新度信息和氧含量信息中的任意一种；根据所述两个或多个特征信息的属性在所述两个或多个第二子设定参数中确定出第二子运行参数。
  9. 一种空气调节系统，包括多个空气设备，其特征在于，所述空气调节系统还包括如权利要求5至8任一项所述的用于空气设备的控制装置。
  10. 一种计算机存储介质，其上存储有计算机程序，其特征在于，当所述计算机程序被处理器执行时实现如权利要求1至4任意一项所述的用于空气设备的控制方法。
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