WO2023025210A1 - 空调系统的控制方法及空调系统 - Google Patents

空调系统的控制方法及空调系统 Download PDF

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Publication number
WO2023025210A1
WO2023025210A1 PCT/CN2022/114590 CN2022114590W WO2023025210A1 WO 2023025210 A1 WO2023025210 A1 WO 2023025210A1 CN 2022114590 W CN2022114590 W CN 2022114590W WO 2023025210 A1 WO2023025210 A1 WO 2023025210A1
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WIPO (PCT)
Prior art keywords
upgrade
scene
indoor unit
outdoor unit
server
Prior art date
Application number
PCT/CN2022/114590
Other languages
English (en)
French (fr)
Inventor
曹秀霞
Original Assignee
青岛海信日立空调系统有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from CN202110975548.8A external-priority patent/CN113701250B/zh
Priority claimed from CN202110976259.XA external-priority patent/CN113701314B/zh
Priority claimed from CN202111136870.8A external-priority patent/CN113865024B/zh
Application filed by 青岛海信日立空调系统有限公司 filed Critical 青岛海信日立空调系统有限公司
Priority to CN202280047127.1A priority Critical patent/CN117597553A/zh
Publication of WO2023025210A1 publication Critical patent/WO2023025210A1/zh
Priority to US18/355,237 priority patent/US20230366577A1/en

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    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/50—Control or safety arrangements characterised by user interfaces or communication
    • F24F11/54—Control or safety arrangements characterised by user interfaces or communication using one central controller connected to several sub-controllers
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F11/00—Control or safety arrangements
    • F24F11/50—Control or safety arrangements characterised by user interfaces or communication
    • F24F11/56—Remote control
    • F24F11/58—Remote control using Internet communication

Definitions

  • the present disclosure relates to the technical field of air conditioning, and in particular to an air conditioning system control method and the air conditioning system.
  • a method for controlling an air conditioning system includes: a plurality of indoor units, a plurality of outdoor units, a gateway device, a server and a terminal device.
  • the method includes: the gateway device acquires first category identification information of an outdoor unit and second category identification information of an indoor unit coupled to the outdoor unit, and sends the first category identification information and the second category identification information to a server.
  • the server receives the first category identification information and the second category identification information sent by the gateway device; the server queries the scene data table according to the first category identification information and the second category identification information, and obtains the scene data corresponding to the outdoor unit and the indoor unit.
  • the terminal device acquires scene data, and outputs a scene corresponding to the scene data.
  • the scene data table includes a plurality of scene data corresponding to a plurality of indoor units and a plurality of outdoor units, and each scene data includes at least one scene.
  • an air conditioning system in another aspect, includes: a plurality of indoor units; a plurality of outdoor units, each of which is coupled to at least one indoor unit; a gateway device, which is respectively coupled to a plurality of outdoor units and a plurality of indoor units; the gateway device is configured as : Obtain the first category identification information of each outdoor unit and the second category identification information of each indoor unit, and send the first category identification information and the second category identification information to the server.
  • the server is configured to: receive the first category identification information and the second category identification information sent by the gateway device; generate a scene data table according to the first category identification information and the second category identification; store the scene data table; the scene data table It includes scene data corresponding to each indoor unit and each outdoor unit, and the scene data includes at least one scene.
  • the terminal device is coupled to the server, and the terminal device is configured to: acquire scene data, and output a scene corresponding to the scene data.
  • Figure 1A is a schematic diagram of an air conditioning system according to some embodiments.
  • Figure 1B is a block diagram of an air conditioning system according to some embodiments.
  • Figure 1C is a block diagram of another air conditioning system according to some embodiments.
  • FIG. 2 is a block diagram of yet another air conditioning system according to some embodiments.
  • Fig. 3 is a flowchart of a control method of an air conditioning system according to some embodiments.
  • Fig. 4 is a schematic diagram of a control interface of different scenarios according to some embodiments.
  • Fig. 5 is a schematic diagram of a working state of an air conditioner according to some embodiments.
  • Fig. 6 is a flowchart of a method for calculating the working state of an air conditioner according to some embodiments
  • Fig. 7 is a flow chart of another method for calculating the working state of an air conditioner according to some embodiments.
  • first and second are used for descriptive purposes only, and cannot be understood as indicating or implying relative importance or implicitly specifying the quantity of indicated technical features. Thus, a feature defined as “first” and “second” may explicitly or implicitly include one or more of these features. In the description of the embodiments of the present disclosure, unless otherwise specified, "plurality” means two or more.
  • the expressions “coupled” and “connected” and their derivatives may be used.
  • the term “connected” may be used in describing some embodiments to indicate that two or more elements are in direct physical or electrical contact with each other.
  • the term “coupled” may be used when describing some embodiments to indicate that two or more elements are in direct physical or electrical contact.
  • the terms “coupled” or “communicatively coupled” may also mean that two or more elements are not in direct contact with each other, but yet still co-operate or interact with each other.
  • the embodiments disclosed herein are not necessarily limited by the context herein.
  • At least one of A, B and C has the same meaning as “at least one of A, B or C” and both include the following combinations of A, B and C: A only, B only, C only, A and B A combination of A and C, a combination of B and C, and a combination of A, B and C.
  • a and/or B includes the following three combinations: A only, B only, and a combination of A and B.
  • the term “if” is optionally interpreted to mean “when” or “at” or “in response to determining” or “in response to detecting,” depending on the context.
  • the phrases “if it is determined that " or “if [the stated condition or event] is detected” are optionally construed to mean “when determining ! or “in response to determining ! depending on the context Or “upon detection of [stated condition or event]” or “in response to detection of [stated condition or event]”.
  • the differences between each model become larger and larger.
  • the The scene may be different.
  • the scene displayed on the APP side of the terminal device is only for the night-time mute scene of the outdoor unit, but cannot display more scenes, and cannot realize dynamic adaptation of the scene.
  • the air conditioning system may be a central air conditioning system.
  • the air conditioning system 1 includes an air conditioner 10 , a gateway device 20 , a server 30 and a terminal device 40 .
  • the air conditioner 10 includes a plurality of indoor units 11 and a plurality of outdoor units 12 (only two are shown in FIG. 1A ).
  • a plurality of indoor units 11 includes an indoor unit 111 , an indoor unit 112 , an indoor unit 113 , an indoor unit 114 and an indoor unit 115 ;
  • Each outdoor unit 12 is coupled with at least one indoor unit 11 respectively.
  • the indoor unit 115 is coupled.
  • the outdoor unit 12 and the indoor unit 11 may be connected through a communication bus.
  • the gateway device 20 may include a communication device, and the communication device may enable the gateway device 20 to communicate in a narrowband Internet of Things (Narrow Band Internet of Things, NB-IoT) or wireless network communication technology (such as WiFi). As shown in FIG. 1A , the gateway device 20 may be coupled to a plurality of indoor units 11 and a plurality of outdoor units 12 respectively.
  • NB-IoT narrowband Internet of Things
  • WiFi wireless network communication technology
  • the gateway device 20 is also coupled to a server 30 .
  • the server 30 may be, for example, a cloud server.
  • the server 30 may include a cloud platform 31 .
  • the cloud platform 31 realizes the interaction with each indoor unit 11 and each outdoor unit 12 through the gateway device 20 .
  • the cloud platform 31 may be a service cloud platform for processing service data related to functions of the terminal device 40 .
  • the gateway device 20 may obtain respective operating information of the indoor unit 11 and the outdoor unit 12 , and send the respective operating information of the indoor unit 11 and the outdoor unit 12 to the cloud platform 31 .
  • the running information of the indoor unit 11 may include equipment information of the indoor unit 11 and working status information of the indoor unit 11
  • the running information of the outdoor unit 12 includes equipment 11 of the outdoor unit 12 and working status information of the outdoor unit 12 .
  • the gateway device 20 may be an NB-IOT adapter configured on the outdoor unit 12 , for example, the NB-IOT adapter may be set inside the outdoor unit 12 .
  • the NB-IOT adapter includes a main control chip and a communication chip connected to the main control chip. Wherein, the main control chip is used to obtain the operation information of the indoor unit 11 and the operation information of the outdoor unit 12, and transmit the operation information of the indoor unit 11 and the operation information of the outdoor unit 12 to the communication chip.
  • the communication chip receives the operation information of the indoor unit 11 and the operation information of the outdoor unit 12 and reports them to the cloud platform 31 .
  • the gateway device 20 can be a WiFi gateway, and the WiFi gateway can be connected to the communication bus (that is, the line connecting each device in the air-conditioning system 1), and the WiFi gateway can report to the cloud platform 31 the indoor status of the air-conditioning system 1.
  • the terminal device 40 may be a mobile phone, a notebook computer, a tablet computer, a smart wearable device (such as a watch) and the like.
  • An application program (APP) 41 for controlling IoT home appliances (such as the air conditioning system 1) can be installed on the terminal device 40, and the user can control the operating state of the equipment (such as the air conditioner 10) in the IoT home appliance through the APP 41.
  • FIG. 3 is a control method of an air conditioning system provided by an embodiment of the present disclosure, and the method includes steps 31 to 35 .
  • Step 31 the gateway device 20 acquires the first category identification information of an outdoor unit 12 and the second category identification information of an indoor unit 11 coupled to the outdoor unit 12 .
  • Step 32 the gateway device 20 sends the first category identification information and the second category identification information to the server 30 .
  • the respective operating information of the indoor unit 11 and the outdoor unit 12 acquired by the gateway device 20 also includes the first category identification information of the outdoor unit 12 and the second category identification information of the indoor unit 11 .
  • the first category identification information is used to identify the type of the outdoor unit 12
  • the second category identification information is used to identify the category of the indoor unit 11 .
  • the first category identification information can be the model code of the outdoor unit
  • the second category information can be the model code of the indoor unit
  • the categories of the indoor unit and the outdoor unit can be identified according to the model code of the indoor unit and the model code of the outdoor unit.
  • a dial switch can be used to set the model code of the indoor unit and the model code of the outdoor unit.
  • the dial switch can be arranged on the base plate of the outdoor unit 12, and the outdoor machine type code of the outdoor unit 12 is set by the dial switch on the base board of the outdoor unit 12.
  • the outdoor unit type code of the side air type outdoor unit can be set to 0x01 through the DIP switch.
  • the functions of the outdoor unit and the outdoor unit can be determined respectively according to the model code of the indoor unit and the model code of the outdoor unit.
  • outdoor units can be divided into different categories through the model code of the outdoor unit. The functions of each category may be different.
  • Some outdoor units can have functions such as on/off and cooling, and some outdoor units may have , heating and ventilation functions.
  • the indoor unit and the outdoor unit can correspond to the first scene when the indoor unit and the outdoor unit are matched together.
  • the air conditioning system can reduce the ambient temperature to Raise to the preset first target temperature to achieve the purpose of heating.
  • This first scene can also be called a one-key heating scene. Therefore, the scene corresponding to the corresponding indoor unit and outdoor unit can be determined through the model code of the indoor unit and the model code of the outdoor unit.
  • the scenarios involved in the embodiments of the present disclosure refer to intelligent scenarios customized in combination with the functions of the air conditioner 10 and factors such as space, time, and season.
  • the scenario may include, for example: a first scenario in which the ambient temperature is raised to a first target temperature within a preset time, a second scenario in which the ambient temperature is lowered to a second target temperature within a preset time, and the like.
  • the indoor unit 114 and the indoor unit 115 are respectively 0x1E, 0x2E and 0x2F, if the indoor unit 113, Both the indoor unit 114 and the indoor unit 115 have a heating mode, and the scenes corresponding to the air conditioner 10 include the first scene.
  • the scene corresponding to the air conditioner 10 includes the second scene.
  • the outdoor unit model code of the outdoor unit 121 is 0x17
  • the indoor unit model codes of the indoor unit 111 and the indoor unit 112 are respectively 0x1E and 0x2D
  • the indoor unit 111 and the indoor unit 112 have night-time silent mode
  • the scenes corresponding to the air conditioner 10 include the third scene.
  • the gateway device 20 may acquire the first category identification information of the outdoor unit 12 coupled to it and the second category identification information of the indoor unit 11, and send the first category identification information and the second category identification information to the server 30.
  • Exemplary ground can be sent to the cloud platform 31.
  • Step 33 the server 30 receives the first category identification information and the second category identification information sent from the gateway device 20 .
  • Step 34 the server 30 queries the scene data table according to the first category identification information and the second category identification information, and obtains the scene data corresponding to the outdoor unit 12 and the indoor unit 11; wherein, the scene data table includes a plurality of indoor units 11 and a plurality of A plurality of scene data corresponding to the outdoor unit 12, each scene data includes at least one scene.
  • the server 30 (such as the cloud platform 31 ) acquires the first category identification information and the second category identification information
  • the scenarios corresponding to the outdoor unit 12 and the outdoor unit 11 can be obtained by querying the scene data table.
  • the scene data table may be generated according to the first category identification information of the plurality of outdoor units 12 and the second category identification information of the plurality of indoor units 11 .
  • the server 30 may generate a scene data table according to a plurality of outdoor unit model codes and a plurality of indoor unit model codes. The following describes the generation process of the scene data table by taking the first category identification information as the model code of the outdoor unit and the second category information as the model code of the indoor unit as an example.
  • the scene data table includes multiple scene data corresponding to indoor units with multiple indoor unit model codes and outdoor machines with multiple outdoor machine model codes.
  • each indoor unit model code and each outdoor unit model code correspond to one scene data.
  • the server 30 may generate a scenario data table according to each indoor unit model code, each outdoor unit model code, and the scene corresponding to each indoor unit model code and each outdoor unit model code.
  • each indoor unit type code and each outdoor unit type code mentioned here refer to all indoor unit type codes and outdoor unit type codes, and are not limited to multiple An indoor unit type code corresponding to one indoor unit 11 (for example, indoor unit 111 to indoor unit 115), and an outdoor unit type code corresponding to a plurality of outdoor units 12 (for example, outdoor unit 121 and outdoor unit 122).
  • Each indoor unit model code and each outdoor unit model code correspond to a scene.
  • the scene data table may be shown in Table 1 below.
  • the first row in Table 1 lists a plurality of different indoor unit model codes, and the first column lists a plurality of different outdoor unit model codes.
  • Each indoor unit model code and each outdoor unit model code corresponds to a scene data, and each scene data includes at least one scene M x , where x ⁇ 1 and is an integer.
  • scene M 1 may represent a first scene
  • scene M 2 may represent a second scene.
  • the scene data corresponding to the indoor unit model code 0x1E and the outdoor unit model code 0x06 is “M 1 , M 2 ”, indicating that the indoor unit model code 0x1E and the outdoor unit model code 0x06 correspond
  • the scene data includes scene M 1 and scene M 2 .
  • all the scene data in the scene data table can form a scene matrix table A mn , where m ⁇ 1, n ⁇ 1, and both m and n are integers.
  • m is determined by the number of outdoor unit model codes
  • n is determined by the number of indoor unit model codes.
  • Each scene data in the scene matrix table A mn can be expressed as a ij , where 1 ⁇ i ⁇ m, 1 ⁇ j ⁇ n, and both i and j are integers.
  • each indoor unit model code and each The scene data corresponding to the model codes of each outdoor unit constitutes a scene matrix A 44
  • the scene matrix A 44 includes 16 pieces of scene data a ij .
  • the scene data a 11 represents the scene data corresponding to the first indoor unit model code 0x1E and the first outdoor unit model code 0x06
  • the scene data a 11 includes scenes M 1 and M 2
  • the scene data a 44 identifies the fourth
  • the scene data corresponding to the model code 0x17 of the first indoor unit and the model code 0x2D of the fourth outdoor unit, the scene data a 44 includes scenes M 1 and M 6 .
  • the server 30 (such as the cloud platform 31) can store the generated scene data table.
  • the scene corresponding to the outdoor unit 12 and the indoor unit 11 coupled thereto can be found in the stored scene data table (as shown in Table 1).
  • the following embodiments take the cloud platform 31 in the server 30 as an example to illustrate the query process of the scene data table.
  • the outdoor unit is searched in the scene data table.
  • the scene data corresponding to the type code 0x06 and the indoor unit type code 0x1E is “M 1 , M 2 ”. That is, scene data a 11 includes scene M 1 and scene M 2 . Therefore, the scenes corresponding to the outdoor unit 121 and the outdoor unit 111 coupled to the outdoor unit 121 include scene M 1 and scene M 2 .
  • the cloud platform 31 obtains that the outdoor unit model code of the outdoor unit 121 is 0x16, and obtains that the indoor unit model code of the indoor unit 112 coupled to the outdoor unit 121 is 0x2D
  • search the scene data table The scene data corresponding to the model code 0x16 of the outdoor unit and the model code 0x2D of the indoor unit.
  • Table 1 it can be found in Table 1 that the scene data a 34 corresponding to the model code 0x16 of the outdoor unit and the model code 0x2D of the indoor unit is “M 1 , M 6 ”. That is, scene data a 34 includes scene M 1 and scene M 6 . Therefore, the scenes corresponding to the outdoor unit 121 and the indoor unit 112 coupled to the outdoor unit 121 include scene M 1 and scene M 6 .
  • the outdoor unit model code of the outdoor unit 12 can be found according to the scene data table.
  • the scene data corresponding to the indoor unit model code of the indoor unit 11, the scene data includes at least one scene corresponding to the outdoor unit 12 and the indoor unit 11 when matched.
  • the air-conditioning system 1 provided by the embodiment of the present disclosure can obtain multiple scenes corresponding to different outdoor units 12 when collocated with different indoor units 11 , realizing dynamic adaptation of the scenes of the air conditioner 10 and facilitating control of different scenes.
  • the server 30 can also update the scene data table.
  • the server 30 may update the indoor unit model code, the outdoor unit model code and the scene data in the scene data table.
  • the cloud platform 31 acquires the outdoor unit model code of the outdoor unit 12 and the indoor unit model code of the indoor unit 11 coupled to the outdoor unit, the outdoor unit 12 cannot be found in the scene data table prestored in the server 30.
  • the cloud platform 31 can update the outdoor unit model code of the indoor unit 11 into the scene data table, and at the same time update the indoor unit model code of the indoor unit 11 to the scene data table.
  • Each scene data whose code corresponds to each outdoor unit model code (including the outdoor unit model code of the outdoor unit 12) is updated in the scene data table.
  • the cloud platform 31 can update the outdoor unit type code of the outdoor unit 12 into the scene data table, and simultaneously Each scene data corresponding to the type code and each indoor unit type code (including the indoor unit type code of the indoor unit 11) in the scene data table is updated in the scene data table.
  • the cloud platform 31 can combine the outdoor unit type code of the indoor unit 11 with the outdoor unit type code of the outdoor unit 12
  • the indoor unit model code of the indoor unit is updated to the scene data table, and at the same time the outdoor unit model code of the outdoor unit 12 is updated with each scene data corresponding to each indoor unit model code (including the indoor unit model code of the indoor unit 11) to the scene data table, and update the scene data corresponding to the indoor unit model code of the indoor unit 11 and each outdoor unit model code (including the outdoor machine model code of the outdoor unit 12) into the scene data table .
  • step 35 the terminal device 40 acquires scene data, and outputs a scene corresponding to the scene data.
  • the scene data can be sent to the terminal device 40 .
  • the scene data can be sent to the APP 41 installed on the terminal device 40, and the APP 41 obtains the scene data, and outputs the scenes in the scene data.
  • the following embodiments take the APP 41 as an example to illustrate the scene output process of the terminal device 40.
  • the APP 41 may output a control interface corresponding to each scene in the scene data for the user to perform related control.
  • each scene in the scene data can correspond to a control interface, and the APP 41 can switch the control interfaces corresponding to different scenes, so as to realize the switching of different scenes.
  • FIG. 4 is a schematic diagram of control interfaces of different scenarios provided by an embodiment of the present disclosure. Wherein, (a) in FIG. 4 is a schematic diagram of a control interface corresponding to a silent scene at night; (b) in FIG. 4 is a schematic diagram of a control interface corresponding to a new house ventilation scene.
  • the silent scene at night can be enabled to turn on the silent mode of the air conditioner 10 .
  • Users can set related functions on the control interface corresponding to the silent scene at night. For example, as shown in (a) in FIG. 4 , the user can set the silence start time, the silence end time, and the repetition of the silence mode within a week (Monday to Sunday) and so on.
  • the new house ventilation scene can be activated to turn on the fresh air of the air conditioner 10 for ventilation.
  • Users can set related functions on the control interface corresponding to the new house ventilation scene. For example, as shown in (b) in FIG. 4 , the user can set the start date, end date, morning execution period and afternoon execution period of turning on the fresh air.
  • the user can add the device information of the gateway device 20 in the APP 41, and the APP 41 can query all the indoor units 11 and all the outdoor units 12 coupled to the gateway device 20 through the device information of the gateway device 20. running information.
  • at least one group (such as each group can include multiple users) can be set in the APP 41, and at least one device information of the gateway device 20 (such as the device code of the gateway device 20) can be added in each group.
  • the APP41 can take each group as a unit to pull the device information of all gateway devices 20 under each group, and obtain the information corresponding to all outdoor units coupled to all gateway devices 20 and all indoor units coupled to all outdoor units.
  • a scene list, the scene list includes at least one scene, and the APP 41 can output a control interface corresponding to each scene.
  • each scene in the scene data has a scene flag; the terminal device 40 obtains the scene data, and outputs the scene corresponding to the scene data, including: the terminal device 40 obtains the scene flag corresponding to each scene in the scene data, according to Scene flag bit, output the scene corresponding to the scene flag bit.
  • the cloud platform 31 in the server 30 sets the scene flag bit S x for each scene M x represented by each scene data in the scene data table.
  • the APP 41 on the terminal device 40 can obtain the scene corresponding to the scene corresponding to the outdoor unit 12 and the indoor unit 11 coupled to it by acquiring the scene flag bit of the scene corresponding to the outdoor unit 12 and the indoor unit 11 coupled to it, and then the APP 41 can output the scene.
  • the efficiency of the APP 41 in acquiring the scene corresponding to the outdoor unit 12 and the indoor unit 11 coupled thereto can be further improved.
  • the cloud platform 31 can also set a scene flag bit set U for each scene data in the scene data table, the scene flag bit set U corresponds to the scene set S, and the flag bit set U includes at least one scene flag bit S x ,
  • the scene set S includes the scene M x corresponding to the scene flag S x .
  • the air conditioning system 1 further includes at least one wire controller 50 with an identification bit, and each wire controller controls the operation of at least two indoor units.
  • the wire controller 50 can control the indoor units 11 and indoor unit 11 ' work.
  • the wire controller 50 may be a wireless wire controller with a communication device, such as a WiFi wire controller.
  • the wire controller 50 can also be a wired wire controller without a communication device.
  • At least one wire controller 50 may include a wire controller 51 and a wire controller 52 .
  • the wire controller 51 is coupled to the indoor unit 111 and the indoor unit 112 respectively, and the wire controller 51 controls the work of the indoor unit 111 and the indoor unit 112 respectively.
  • Wire controller 52 is coupled with indoor unit 113, indoor unit 114 and indoor unit 115 respectively, and wire controller 52 controls indoor unit 113, indoor unit 114 and indoor unit 115 work respectively.
  • the wire controller 50 may display a control interface of the working states of all the indoor units coupled to it, through which the user can control the working states of all the indoor units coupled to the wire controller 50 .
  • each indoor unit may have the same or different working state, which is not limited in the embodiments of the present disclosure.
  • the working state of the indoor unit may be related to the type of the indoor unit.
  • the working states of the indoor unit 111 and the indoor unit 112 may be different.
  • what is displayed on the wire controller 51 is the common working state of the indoor unit 111 and the indoor unit 112 .
  • what is displayed on the wire controller 51 is the intersection of the working states of the indoor unit 111 and the indoor unit 112 coupled thereto. In this way, the user can control the working states of all indoor units coupled to the user through the wire controller 50 .
  • the user in addition to controlling the working state of the indoor unit 11 and indoor unit 11' coupled to it through the wire controller 50, the user can also control the operating status of the air conditioner 10 through the APP 41 on the terminal device 40. The working states of the indoor unit 11 and the indoor unit 11' are controlled.
  • the working status of each indoor unit in the air conditioner 10 can be displayed on the APP 41.
  • the working states of the indoor units 111 to 115 in the air conditioner 10 can be displayed on the APP 41, and the user can control the working states of each indoor unit individually through the APP 41.
  • the wire controller 51 realizes the control of the intersection of the working states of the indoor units 111 and 112
  • the wire controller 52 realizes the control of the intersection of the working states of the indoor units 113 to 115 .
  • the working status of a certain indoor unit displayed on the APP 41 may be different from that displayed on the wired controller 50.
  • the working status of the indoor units is inconsistent.
  • the working states of the indoor unit 111 coupled to the wire controller 51 include: A, B, C, D
  • the working states of the indoor unit 112 include: A, B , C, D and E
  • the working state displayed on the wire controller 51 is the intersection of the working states of the indoor unit 111 and the indoor unit 112, namely: A, B, C and D.
  • the working states of the indoor unit 111 and the indoor unit 112 can be displayed respectively.
  • the working states A, B, C, D, and E can represent any one of the different working states of the indoor unit, such as power-on, power-off, cooling mode, heating mode, dehumidification mode, air volume adjustment, and accessory functions.
  • the server 30 obtains the identification bit of the wire controller 50; according to the identification bit of the wire controller 50, obtains the work of at least two indoor units coupled to the wire controller 50 Status information: According to the working status information of each indoor unit coupled with at least one wired controller 50, the intersection of working status information of all indoor units coupled with at least one wired controller 50 is obtained.
  • the terminal device 40 obtains the intersection of the working state information of all indoor units, and outputs the intersection of the working state information of all indoor units.
  • the wire controller 50 has an identification bit, which is used to identify the identity of the wire controller 50 .
  • the wire controller 51 and the wire controller 52 have respective flags, for example, the wire controller 51 flag may be flag1, and the wire controller 52 may have a flag2 flag.
  • the server 30 (such as the cloud platform 31 ) acquires flag1 and flag2, it can identify the wire controller 51 through flag1, and can identify the wire controller 52 through flag2.
  • the cloud platform 31 After the cloud platform 31 recognizes the wire controller 50 according to the identification bit, it obtains the working status of all indoor units coupled with the wire controller 50.
  • the cloud platform 31 can obtain the identification bit of the wire controller 50 and the working status of all indoor units coupled to the wire controller 50 through the gateway device 20 .
  • the gateway device 20 sends the acquired flag1 of the wire controller 51 and the flag2 of the wire controller 52 to the cloud platform 31 .
  • the cloud platform 31 obtains the working status of the indoor unit 111 and the working status of the indoor unit 112 coupled to the wire controller 51 through the gateway device 20 according to the flag1.
  • the working states of the indoor unit 111 include: A, B, C and D.
  • the working states of the indoor units 111 may be recorded as the first working state set.
  • the working states of the indoor unit 112 include: A, B, C, D and E, and the working states of the indoor unit 112 can be recorded as the second working state set.
  • the cloud platform 31 respectively obtains the working states of the indoor units 113 to 115 coupled to the wire controller 52 through the gateway device 20 according to the flag2.
  • the working states of the indoor unit 113 include: A, B, and C, and the working states of the indoor unit 113 can be recorded as a third working state set.
  • the working states of the indoor unit 114 include: A, B, C and D, and the working states of the indoor unit 114 can be recorded as a fourth working state set.
  • the working states of the indoor unit 115 include: A, B, C, D and E, and the working states of the indoor unit 115 can be recorded as the fifth working state set.
  • the cloud platform 31 After the cloud platform 31 acquires the working status of each indoor unit coupled to each wired controller 50, it calculates the working status of all indoor units according to the working status of each indoor unit coupled to each wired controller 50. intersection of . It should be noted that the intersection of the working states of all the indoor units refers to the intersection of the working states of all the indoor units in the air conditioner 10 , which is also referred to as the working state of the air conditioner 10 .
  • the cloud platform 31 After the cloud platform 31 obtains the working state of the air conditioner 10, it can send the working state of the air conditioner 10 to the APP 41 on the terminal device 40, and after the APP 41 obtains the working state of the air conditioner 10, it outputs the working state of the air conditioner 10.
  • the APP 41 can output the working state of the air conditioner 10 through a control interface corresponding to the working state of the air conditioner 10 .
  • the cloud platform 31 can calculate the working state of the air conditioner 10 in the following manner. Next, with reference to FIG. 6 and FIG. 7 , the calculation process of the working state of the air conditioner 10 will be described.
  • the process for the cloud platform 31 to calculate the working state of the air conditioner 10 includes steps 611 to 614 .
  • Step 611 identify each wire controller according to the identification bit of the wire controller.
  • the cloud platform 31 may identify the wire controller 51 according to the acquired flag1 and identify the wire controller 52 according to the flag2.
  • Step 612 according to the identification bit of the wire controller, obtain the working status of each indoor unit coupled to each wire controller.
  • step 612 includes step 6121 and step 6122 .
  • the cloud platform 31 acquires the working status of the indoor unit 111 coupled to the wired controller 51 and the working status of the indoor unit 112 according to the identified wired controller 51, that is, the first working status in the above example set and the second working state set.
  • Step 6122 obtain the working status of the indoor unit 113 coupled to the wire controller 52, the working status of the indoor unit 114 and the working status of the indoor unit 115, that is, the third A working state set, a fourth working state set and a fifth working state set.
  • Step 613 calculating the intersection of the working states of all the indoor units coupled to each wired controller to obtain the working status of each wired controller.
  • step 613 includes step 6131 and step 6132 .
  • step 6131 calculate the intersection of the first working state set of the indoor unit 111 coupled to the wire controller 51 and the second working state set of the indoor unit 112, as shown in FIG. 5 , the working state of the wire controller 51 is obtained.
  • Step 6132 calculate the intersection of the third working state set of the indoor unit 113 coupled to the wire controller 52, the fourth working state set of the indoor unit 114, and the fifth working state set of the indoor unit 115, as shown in Figure 5 , to obtain the working states of the wire controller 52: A, B and C.
  • Step 614 calculating the intersection of the working states of all wire controllers.
  • the cloud platform 31 calculates the intersection of the working states of the wire controller 51 and the wire controller 52 to obtain the working state of the air conditioner 10.
  • the working states of the air conditioner 10 are: A, B and C .
  • the APP 41 acquires the working status of the air conditioner 10 obtained in step 614, and outputs the working status of the air conditioner 10. For example, the APP 41 displays the working status of the air conditioner 10 through the control interface, so that the user can perform corresponding control.
  • the process for the cloud platform 31 to calculate the working state of the air conditioner 10 includes steps 711 to 713 .
  • Step 711 identify each wire controller according to the identification bit of the wire controller.
  • This step 711 is similar to the above step 611, and will not be repeated here.
  • Step 712 according to the identification bit of the wire controller, obtain the working status of each indoor unit coupled to each wire controller.
  • This step 712 is similar to the above step 612, and will not be repeated here.
  • Step 713 calculating the intersection of the working states of all indoor units coupled to all wire controllers.
  • the first working state set of the indoor unit 111 coupled to the wire controller 51 and the second working state set of the indoor unit 112 acquired in step 712, and the third working state of the indoor unit 113 coupled to the wire controller 52 Set to the fifth working state set of the indoor unit 115, calculate the intersection of the working states of the indoor unit 111 to the indoor unit 115, that is, calculate the intersection of the first working state set to the fifth working state set, and obtain the working state of the air conditioner 10.
  • the working states of the air conditioner 10 are: A, B and C.
  • the APP 41 acquires the working status of the air conditioner 10 obtained in step 513, and outputs the working status of the air conditioner 10.
  • any working state displayed on the control interface displayed on the APP 41 is included in the working state displayed by any wire controller 50 . Therefore, it can be guaranteed that any control command issued by the APP 41 can be responded to by any wire controller 50, so that the control of the air conditioner 10 through the APP 41 can be realized, and the user experience can be improved.
  • different outdoor units may be matched with different indoor units, so the compatibility requirements for software installed on each device in the air-conditioning system are relatively high.
  • the software installed on each device in the air-conditioning system may be upgraded to improve the compatibility among the devices.
  • the air-conditioning system 1 can upgrade each device to be upgraded in the air-conditioning system 1. As shown in FIG. At least one component in the wire controller 50 . That is to say, the air-conditioning system 1 can upgrade one component, that is, upgrade the indoor unit 11, the outdoor unit 12, the gateway device 20, or the wire controller 50; the air-conditioning system 1 can also upgrade multiple components, that is, upgrade the indoor The unit 11, the outdoor unit 12, the gateway device 20 and the wire controller 50 are all upgraded.
  • the upgrade of the indoor unit 11 by the air-conditioning system 1 may be to upgrade the software of the main control board of the indoor unit 11;
  • the upgrade of the outdoor unit 12 by the air-conditioning system 1 may be to upgrade the software of the main control board of the outdoor unit 12;
  • the upgrade of the gateway device 20 by the system 1 may be to upgrade the software of the main control chip of the gateway device 20 ;
  • the upgrade of the wire controller 50 by the air conditioning system 1 may be to upgrade the software of the wire controller 50 main control board.
  • the server 30 configures an upgrade package and an upgrade policy for at least one component of the indoor unit 11, the outdoor unit 12, the gateway device 20, and the wire controller 50, and sends at least one component to the terminal device 40.
  • the terminal device 40 receives an upgrade package and an upgrade strategy corresponding to at least one component; and uses the upgrade package to upgrade at least one component according to the upgrade strategy.
  • At least one component among the indoor unit 11 , the outdoor unit 12 , the gateway device 20 and the wire controller 50 in the air conditioning system 1 can be used as the device to be upgraded.
  • the server 30 further includes a management platform 32 , and the management platform 32 can configure corresponding upgrade packages and upgrade policies for each device to be upgraded in the air conditioning system 1 .
  • the management platform 32 can be a World Wide Web (WEB) management platform, which has a WEB port open on the WEB management platform, and the WEB management platform can provide terminal equipment 40 (such as APP 41) through the WEB port.
  • WEB World Wide Web
  • the upgrade policy includes a software identification number and a software version number of the device to be upgraded.
  • the software identification number is used to indicate the identity of the software to be upgraded in the device to be upgraded
  • the software version number includes the current software version number and the software version number to be upgraded.
  • the management platform 32 configures each of the indoor units 111 and 112 with corresponding upgrade packages and upgrade strategies.
  • the upgrade policy configured by the management platform 32 for the indoor unit 111 may include software identification code (00-00), current software version number (I-1001), and software version upgrade from I-1001 to I-1002 (I-1001 ⁇ I-1002), the configured upgrade package may include an upgrade package with software version number I-1002.
  • the management platform 32 configures the upgrade strategy for the indoor unit 112, including software identification code 00-04, current software version number I-100, and software version upgrade from I-100 to I-101 (I-100 ⁇ I-101) , the configured upgrade package includes the upgrade package with software version number I-101.
  • the management platform 32 can also be the gateway device 20, the wire controller 50, and the outdoor unit 121 and the outdoor unit 122 are respectively configured with corresponding upgrade packages and upgrade strategies.
  • the upgrade strategy configured by the management platform 32 for the gateway device 20 includes software identification code 00-01, current software version number C-100, and software version upgrade from C-100 to C-101 (C-100 ⁇ C-101)
  • the configured upgrade package may include an upgrade package with software version number C-101.
  • the management platform 32 configures an upgrade strategy for the wire controller 50 including software identification code 00-02, current software version number X-100, and software version upgrade from X-100 to X-101 (X-100 ⁇ X-101 ), the configured upgrade package may include an upgrade package with software version number X-101.
  • the upgrade strategy configured by the management platform 32 for the outdoor unit 121 includes software identification code 00-03, current software version number Q-100, and software version upgrade from Q-100 to Q-101 (Q-100 ⁇ Q-101 ), the configured upgrade package may include an upgrade package with software version number Q-101.
  • the upgrade policy configured by the management platform 32 for the outdoor unit 122 includes software identification code 00-03', current software version number Q-999, and software version upgrade from Q-999 to Q-1001 (Q-999 ⁇ Q- 1001)
  • the configured upgrade package may include an upgrade package with software version number Q-1001.
  • the upgrade package and the upgrade strategy can be sent to the APP 41, and after the APP 41 receives the upgrade package and the upgrade strategy, According to the content of the upgrade strategy, use the corresponding upgrade package to upgrade each device to be upgraded.
  • the server 30 configures upgrade packages and upgrade policies for multiple components in the indoor unit 11, outdoor unit 12, gateway device 20, and wire controller 50, and sends the upgrade packages and upgrade policies corresponding to the multiple components to the terminal device 40.
  • Upgrade policy the terminal device 40 receives the upgrade package and the upgrade policy corresponding to the multiple components; according to the upgrade policy corresponding to the multiple components, upgrade the multiple components using the upgrade package corresponding to the multiple components according to the upgrade sequence.
  • the terminal device 40 will upgrade the multiple components according to the upgrade order, and the embodiment of the present disclosure does not limit the specific manner.
  • the upgrade sequence can be pre-stored in the cloud platform 31, and sent to the APP 41 by the cloud platform 31.
  • the upgrade sequence can also be pre-stored on the APP 41, and the APP 41 can upgrade each component according to the pre-stored upgrade sequence when receiving the upgrade package and the upgrade strategy corresponding to a plurality of components.
  • the terminal device 40 adopts the corresponding upgrade packages of the multiple components in accordance with the upgrade sequence of upgrading the wire controller 50 and the gateway device 20 first, and then upgrading the indoor unit 11 and the outdoor unit 12 according to the upgrade strategy corresponding to the multiple components. Upgrades for multiple parts.
  • the terminal device 40 may upgrade the indoor unit 11 and the outdoor unit 12 after upgrading the wire controller 50 or the gateway device 20 .
  • the terminal device 40 can first upgrade the wire controller 50, then upgrade the gateway device 20, and then upgrade the indoor unit 11 and outdoor unit 12; or, the terminal device 40 can first upgrade the gateway device 20, then upgrade the wire controller 50, and then upgrade Indoor unit 11 and outdoor unit 12.
  • the upgrading process of the indoor unit 11 and the outdoor unit 12 needs to be implemented through the wire controller 50 or the gateway device 20 .
  • upgrade the wire controller 50 or the gateway device 20 first, and then upgrade the indoor unit 11 or the outdoor unit 12 after the upgrade of the wire controller 50 or the gateway device 20 is completed.
  • the embodiment of the present disclosure does not limit the upgrade sequence between the wire controller 50 and the gateway device 20 , and the upgrade sequence between the outdoor unit 11 and the outdoor unit 12 .
  • APP 41 can be upgraded according to the priority order from gateway device 20 to wire controller 50 to outdoor unit 12 and then to indoor unit 11; or, it can be upgraded according to the order of priority from wire controller 50 to gateway device 20 to outdoor
  • the priority order of the indoor units 11 is upgraded; or, it can also be upgraded according to the priority order from the gateway device 20 to the wire controller 50 to the indoor unit 11 and then to the outdoor unit 12; or, it can also be upgraded according to the priority order from the wire controller 50
  • the priority sequence from the gateway device 20 to the indoor unit 11 and then to the outdoor unit 12 is upgraded.
  • outdoor unit 121 and outdoor unit 122 both belong to the type of outdoor unit.
  • the outdoor unit 121 and the outdoor unit 122 have different outdoor unit model codes (that is, the outdoor unit 121 and the outdoor unit 122 are outdoor units of different models)
  • the outdoor unit 121 can be upgraded first, and then the outdoor unit 122 can be upgraded.
  • the outdoor unit 122 can be upgraded first, and then the outdoor unit 121 can be upgraded.
  • the air-conditioning system 1 sequentially upgrades the multiple components to be upgraded in sequence according to the upgrade order, which can avoid upgrade failure caused by the confusion of the upgrade process and improve the upgrade efficiency.
  • the device policy data list List may be stored on the cloud platform 31. Referring to FIG. machine 11, outdoor machine 12, gateway device 20, or wire controller 50.
  • the device policy data list List at least includes: a device identifier Device_FLG, a device type Device_Type, an upgrade identifier OTA_FLG, and an upgrade policy list.
  • the device identifier Device_FLG is used to identify the identity of each device in the air-conditioning system 1 , each device has a device identifier, and each device has a different device identifier.
  • the device identifier Device_FLG can be used to distinguish the identity of each device.
  • the device identifier Device_FLG may be a device code or a device binding code, and the device binding code may include a two-dimensional code or the like.
  • the device type Device_Type is used to indicate the device type in the air conditioning system 1 , for example, the device type may include a gateway device type, a wire controller type, an indoor unit type, and an outdoor unit type.
  • the type of gateway device can be recorded as type 1, the type of wire controller can be recorded as type 2, the type of outdoor unit can be recorded as type 3, and the type of indoor unit can be recorded as type 4. Therefore, the device type Device_Type may include Type 1, Type 2, Type 3, and Type 4.
  • Device_Type distinguishes different types of devices.
  • Type 1 represents the type of gateway device, not a certain gateway device 20.
  • the upgrade flag OTA_FLG is used to indicate whether each device in the air conditioning system 1 needs to be upgraded, and the upgrade flag OTA_FLG can be set to 1 or 0. For example, if the upgrade flag OTA_FLG of the gateway device 20 is 1, it means that the gateway device 20 needs to be upgraded, and if the upgrade flag OTA_FLG of the gateway device 20 is 0, it means that the gateway device 20 does not need to be upgraded.
  • the upgrade strategy list is a collection of upgrade strategies for each device to be upgraded in the air conditioning system 1 .
  • the upgrade strategy list may include an upgrade strategy 1 and an upgrade strategy 2, wherein the upgrade strategy 1 may be the upgrade strategy of the gateway device 20 , and the upgrade strategy 2 may be the upgrade strategy of the wire controller 50 .
  • the device policy data list List may further include a user confirmation identifier Confirm_FLG and a strategy type Strategy_Type.
  • Each device in the air-conditioning system 1 has a user confirmation flag Confirm_FLG, and the initial value of the user confirmation flag Confirm_FLG of each device can be 0.
  • the user confirmation flag Confirm_FLG of the gateway device 20 is assigned a value of 1;
  • the strategy type Strategy_Type is used to indicate the upgrade strategy of a certain device type, and the strategy type Strategy_Type corresponds to the device type Device_Type.
  • the corresponding strategy type Strategy_Type includes gateway device strategy type, wired controller strategy type, indoor unit strategy type, and outdoor unit strategy type.
  • record the strategy type of the gateway device as Type 1' record the strategy type of the wire controller as Type 2', record the strategy type of the outdoor unit as Type 3', record the strategy type of the indoor unit as Type 4'
  • record the strategy type as Strategy_Type It can include Type 1', Type 2', Type 3' and Type 4'.
  • the cloud platform 31 (i.e., the server 30) manages and maintains the device policy data list List, and updates the device policy data list List, so that the information of all devices in the air-conditioning system 1 and the information of each device can be understood more clearly and quickly. upgrade information.
  • a device list Device_List of each device to be upgraded in the air conditioning system 1 may also be stored in the cloud platform, and each device to be upgraded in the air conditioning system 1 has a device list Device_List.
  • the device list Device_List can be filtered out according to the upgrade flag OTA_FLG in the device policy data list List. For example, in the device policy data list List, filter out the relevant information of each device whose upgrade flag OOTA_FLG is 0, and get all the upgrade flags OTA_FLG Relevant information of each device corresponding to 1.
  • the device list Device_List may include relevant information of each device corresponding to the upgrade identifier OTA_FLG filtered out from the device policy data list List List, for example, the relevant information includes the upgrade identifier OTA_FLG, the user confirmation identifier Confirm_FLG and the strategy type Strategy_Type, and may also include Popup window identifier Popup_FLG, policy identifier OTA_ID and policy description OTA_DESC.
  • the popup window identifier Popup_FLG displays relevant prompt information for the user in the form of a popup window.
  • the popup window identifier Popup_FLG can be used to prompt the user with the upgrade information of a certain device in the air conditioning system 1 in the form of a popup window on the APP 41 side.
  • the initial value of the popup window flag Popup_FLG can be 0. If a popup window prompting a certain device (such as a gateway device 20) to upgrade appears on the APP 41 side, the popup window flag Popup_FLG in the device list Device_List of the device will be assigned a value of 1, otherwise Still keep the initial value 0.
  • a prompt message can be displayed in the form of a pop-up window on the APP 41 side, such as a pop-up window that can be selected by the user to upgrade (for example, not to upgrade temporarily or to upgrade immediately), so as to Improve user experience.
  • the policy identifier OTA_ID is used to identify the identity of the policy.
  • the policy identifier OTA_ID of the gateway device 20 is used to identify the upgrade policy of the gateway device 20
  • the policy identifier OTA_ID of the wire controller 50 is used to identify the upgrade strategy of the wire controller 50 .
  • the policy description OTA_DESC may include a textual description of the content of the upgrade policy.
  • the device list Device_List 111 of the indoor unit 111 may include: upgrade identification OTA_FLG, policy identification OTA_ID, policy description OTA_DESC, Wherein, the upgrade flag OTA_FLG can be 1, for example; the policy flag OTA_ID can be 10000, for example; the policy description OTA_DESC can be, for example, that the indoor unit 111 is being upgraded, and the indoor unit 111 is upgraded from the current software version number I-1001 to the software version I-1002 Number.
  • the device list Device_List 20 of the gateway device 20 includes: an upgrade identifier OTA_FLG, a policy identifier OTA_ID, and a policy description OTA_DESC, wherein the upgrade identifier OTA_FLG can be, for example, 1; the strategy identifier OTA_ID, for example, can be 20000; the strategy description OTA_DESC, for example, can be a gateway device 20 is being upgraded, and the gateway device 20 is upgraded from the current software version number C-100 to the software version number C-101.
  • the upgrade identifier OTA_FLG can be, for example, 1
  • the strategy identifier OTA_ID for example, can be 20000
  • the strategy description OTA_DESC for example, can be a gateway device 20 is being upgraded, and the gateway device 20 is upgraded from the current software version number C-100 to the software version number C-101.
  • the device list Device_List 121 of the outdoor unit 121 includes: an upgrade identifier OTA_FLG, a strategy identifier OTA_ID, and a strategy description OTA_DESC, wherein the upgrade identifier OTA_FLG can be 1 for example; the strategy identifier OTA_ID can be 30000 for example; the strategy description OTA_DESC can be an outdoor unit for example 121 is being upgraded, and the outdoor unit 121 is upgraded from the current software version number O-100 to the software version number O-101.
  • the cloud platform 31 traverses the device list Device_List of each device to be upgraded in the air conditioning system 1 , splices the corresponding policy descriptions OTA_DESC under different policy identifiers OTA_ID, and obtains the policy copy of the air conditioning system 1 .
  • the cloud platform 31 may determine the upgrade sequence of each device to be upgraded in the air conditioning system 1 according to the policy identifier OTA_ID, and splice the policy description OTA_DESC in the device list Device_List of each device to be upgraded according to the upgrade sequence. For example, referring to FIG. 1C, the cloud platform 31 obtains the upgrade order of the equipment and devices in the air-conditioning system 1 according to the policy identifier OTA_ID as: gateway device 20, wire controller 50, outdoor unit 12, and indoor unit 11, and the cloud platform 31 according to the gateway device 20.
  • the wire controller 50 In the order of the wire controller 50, the outdoor unit 12, and the indoor unit 11, splicing the policy description OTA_DESC in the device list Device_List corresponding to the gateway device 20, the wire controller 50, the outdoor unit 12, and the indoor unit 11 respectively, to obtain the strategy copywriting.
  • the policy text of the air conditioning system 1 can splice the policy description OTA_DESC of the gateway device 20, the outdoor unit 121 and the outdoor unit 111 in the order of the gateway device 20, the outdoor unit 121 and the outdoor unit 111, for example, the air conditioner
  • the strategy text of system 1 can be: the gateway device 20 is being upgraded, and the gateway device 20 is upgrading from the current software version number C-100 to the software version number of C-101; the outdoor unit 121 is being upgraded, and the outdoor unit 121 is upgrading from the current software version number to C-101.
  • No. Q-100 is upgraded to the software version number of Q-101; the indoor unit 111 is being upgraded, and the indoor unit 111 is upgraded from the current software version number I-1001 to the software version number of I-1002.
  • the policy copy can also include prompting the user to note during the upgrade process, for example, the note during the upgrade process includes suspending the service of APP 41 during the upgrade process, so as to remind the user not to operate APP 41 during the upgrade, etc.; the policy copy It may also include prompting the user about the time required for the upgrade process.
  • the time for the upgrade process may be, for example, the time it takes for all devices to be upgraded to complete the upgrade. Prompting the time for the upgrade process can facilitate the user to arrange the time reasonably.
  • the gateway device 20 is being upgraded, and the gateway device 20 is upgraded from the current software version number C-100 to the software version number of C-101;
  • the outdoor unit 121 is being upgraded, and the outdoor unit 121 is upgraded from the current software version number Q-100 To the software version number of Q-101;
  • the indoor unit 111 is being upgraded, and the indoor unit 111 is upgraded from the current software version number I-1001 to the software version number of I-1002;
  • the cloud platform 31 can send the above-mentioned policy text to the APP 41, and the APP 41 outputs the policy text.
  • the APP 41 can output the policy copy in the form of a pop-up window before each device to be upgraded is upgraded.
  • the server 30 is further configured to: before at least one component of the indoor unit 11, the outdoor unit 12, the gateway device 20 and the wire controller 50 is upgraded, the control terminal device 40 displays the upgrade information of at least one component , the upgrade information includes an upgrade strategy for at least one component and upgrade prompt information, where the upgrade prompt information includes a time required to complete the upgrade of at least one component.
  • the terminal device 40 (such as APP 41) can output the upgrade information by outputting the upgrade interface of each device to be upgraded.
  • each device to be upgraded has an upgrade interface.
  • the upgrade interface may include upgrade information of each device to be upgraded, and the upgrade information may include an upgrade strategy and prompt information during the upgrade process, that is, a policy copy.
  • the APP 41 can output the upgrade interface of each device to be upgraded in sequence according to the upgrade order of each device to be upgraded by means of a pop-up window until all the devices to be upgraded are upgraded.
  • the upgrade interface displayed on the APP 41 may include the following upgrade information:
  • the upgrade interface may be displayed in a pop-up window.
  • the upgrade interface may include pop-up window options of "not upgrading temporarily” and “upgrading now”. After the user clicks "upgrade now", the user confirmation flag Confirm_FLG is assigned a value of 1, and the indoor unit 111 is upgraded; otherwise, the indoor unit 111 is not upgraded temporarily.
  • Embodiments of the present disclosure provide an air-conditioning system, which may be the air-conditioning system in any of the foregoing embodiments, such as the air-conditioning system 1 in FIG. 1A .
  • the air conditioning system includes a plurality of indoor units 11 ; a plurality of outdoor units 12 , and each outdoor unit 12 is coupled to at least one indoor unit 11 respectively.
  • the gateway device 20 is coupled to the plurality of outdoor units 12 and the plurality of indoor units 11 respectively, and is configured to: obtain the first category identification information of each outdoor unit 12 and the second category identification information of each indoor unit 11, And send the first category identification information and the second category identification information to the server 30 .
  • the server 30 is configured to: receive the first category identification information and the second category identification information sent from the gateway device 20; generate a scene data table according to the first category identification information and the second category identification; store the scene data table;
  • the table includes scene data corresponding to each indoor unit and each outdoor unit, and the scene data includes at least one scene.
  • the terminal device 40 is coupled to the server 30 and is configured to: acquire scene data, and output a scene corresponding to the scene data.
  • the gateway device 20 is further configured to: acquire the first category identification information of the target outdoor unit and the second category identification information of the target indoor unit coupled thereto, and send the first category identification information to the server 30.
  • Identification information and second category identification information the server 30 is also configured to: receive the first category identification information and the second category identification information sent from the gateway device 20; query the scene according to the first category identification information and the second category identification information
  • the data table obtains the target scene data corresponding to the target outdoor unit and the target indoor unit; the terminal device 40 is further configured to: acquire the target scene data, and output the scene corresponding to the target scene data.
  • the server 30 is further configured to: configure a scene flag bit for each scene corresponding to each scene data in the scene data table; the terminal device 40 is configured to: obtain each The scene flag bit corresponding to each scene, according to the scene flag bit, output the scene corresponding to the scene flag bit.
  • the air conditioning system further includes: at least one wire controller 50 with an identification bit, one wire controller 50 is coupled to at least two indoor units, and the wire controller 50 is configured to: control At least two indoor units are working; wherein, the server 30 is also configured to: obtain the identification bit of the wire controller 50; according to the identification bit of the wire controller 50, obtain the working status of at least two indoor units coupled to the wire controller 50 Status information; according to the working status information of each indoor unit coupled with at least one wire controller 50, the intersection of the working status information of all indoor units coupled with at least one wire controller 50 is obtained; the terminal device 40 is also configured as : Obtain the intersection of the working status information of all indoor units, and output the intersection of working status information of all indoor units.
  • the server 30 is configured to: obtain the working status information corresponding to the wired controller 50 according to the working status information of at least two indoor units coupled to the wired controller 50; The working status information corresponding to the controller 50 is obtained to obtain the intersection of the working status information of all indoor units.
  • the server 30 is further configured to: configure an upgrade package and an upgrade policy for at least one component of the indoor unit 11, the outdoor unit 12, the gateway device 20, and the wire controller 50, and send the terminal device 40 Send an upgrade package and an upgrade strategy corresponding to at least one component;
  • the terminal device 40 is further configured to: receive an upgrade package and an upgrade strategy corresponding to at least one component; according to the upgrade strategy, use the upgrade package to upgrade at least one component.
  • the server 30 is configured to: configure an upgrade package and an upgrade policy for multiple components in the indoor unit 11, the outdoor unit 12, the gateway device 20, and the wire controller 50, and send the upgrade package to the terminal device 40.
  • the terminal device 40 is configured to: receive upgrade packages and upgrade strategies corresponding to multiple components;
  • the package upgrades the plurality of components.
  • the terminal device 40 is configured to: according to the upgrade strategy corresponding to the multiple components, upgrade the wire controller 50 and the gateway device 20 first, and then upgrade the indoor unit 11 and the outdoor unit 12 according to the upgrade sequence , using the corresponding upgrade packages of the multiple components to upgrade the multiple components.
  • the server 30 is further configured to: before at least one component in the indoor unit 11, the outdoor unit 12, the gateway device 20 and the wire controller 50 is upgraded, the control terminal device 40 displays the upgrade information,
  • the upgrade information includes an upgrade policy of at least one component and upgrade prompt information
  • the upgrade prompt information includes the time required to complete the upgrade of at least one component.
  • the above-mentioned air-conditioning system has the same beneficial effect as the control method of the air-conditioning system described in some of the above-mentioned embodiments, and details are not repeated here.
  • Some embodiments of the present disclosure provide a computer-readable storage medium (for example, a non-transitory computer-readable storage medium), on which a computer program is stored, and when the computer program is executed by an air-conditioning system, the air-conditioning system performs the above-mentioned
  • a computer-readable storage medium for example, a non-transitory computer-readable storage medium
  • the above-mentioned computer-readable storage medium may include, but is not limited to: a magnetic storage device (for example, a hard disk, a floppy disk, or a magnetic tape, etc.), an optical disk (for example, a CD (Compact Disk, a compact disk), a DVD (Digital Versatile Disk, Digital Versatile Disk), etc.), smart cards and flash memory devices (for example, EPROM (Erasable Programmable Read-Only Memory, Erasable Programmable Read-Only Memory), card, stick or key drive, etc.).
  • Various computer-readable storage media described in this disclosure can represent one or more devices and/or other machine-readable storage media for storing information.
  • Some embodiments of the present disclosure also provide a computer program product.
  • the computer program product comprises a computer program stored on a non-transitory computer readable storage medium. Wherein, when the computer program is executed by the air-conditioning system, the air-conditioning system executes the control method of the air-conditioning system as described in the above-mentioned embodiments.
  • Some embodiments of the present disclosure also provide a computer program.
  • the air-conditioning system is made to execute the control method of the air-conditioning system as described in the above-mentioned embodiments.

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Abstract

一种空调系统（1）的控制方法，该空调系统（1）包括：多个室内机（11）、多个室外机（12）、网关设备（20）、服务器（30）和终端设备（40），该方法包括：网关设备（20）获取一个室外机（12）的第一类别标识信息以及与室外机（12）耦接的室内机（11）的第二类别标识信息，向服务器（30）发送第一类别标识信息和第二类别标识信息；服务器（30）接收来自网关设备（20）发送的第一类别标识信息和第二类别标识信息；服务器（30）根据第一类别标识信息和第二类别标识信息，查询场景数据表，得到室外机（12）和室内机（11）对应的场景数据；其中，场景数据表包括多个室内机（11）和多个室外机（12）对应的多个场景数据，每个场景数据包括至少一个场景；终端设备（40）获取场景数据，输出场景数据对应的场景。该空调系统（1）能够动态适配对应的场景，灵活性高、且扩展性及移植性强。

Description

空调系统的控制方法及空调系统
本申请要求于2021年8月24日提交的、申请号为202110975548.8的中国专利申请的优先权，以及于2021年8月24日提交的、申请号为202110976259.X的中国专利申请的优先权，以及于2021年9月27日提交的、申请号为202111136870.8的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
技术领域
本公开涉及空调技术领域，尤其涉及一种空调系统的控制方法及空调系统。
背景技术
随着家电系统的智能化发展，使用终端设备来控制家电设备的方式成为一种趋势。例如，可以通过终端设备上安装的应用程序(application，APP)对空调等家电设备的工作进行控制。
发明内容
一方面，提供一种空调系统的控制方法。该空调系统包括：多个室内机、多个室外机、网关设备、服务器和终端设备。该方法包括：网关设备获取一个室外机的第一类别标识信息以及与室外机耦接的一个室内机的第二类别标识信息，向服务器发送第一类别标识信息和第二类别标识信息。服务器接收来自网关设备发送的第一类别标识信息和第二类别标识信息；服务器根据第一类别标识信息和第二类别标识信息，查询场景数据表，得到室外机和室内机对应的场景数据。终端设备获取场景数据，输出场景数据对应的场景。其中，场景数据表包括多个室内机和多个室外机对应的多个场景数据，每个场景数据包括至少一个场景。
另一方面，提供一种空调系统。该空调系统包括：多个室内机；多个室外机，每个室外机分别与至少一个室内机耦接；网关设备，分别与多个室外机以及多个室内机耦接；网关设备被配置为：获取每个室外机的第一类别标识信息以及每个室内机的第二类别标识信息，并向服务器发送第一类别标识信息和第二类别标识信息。服务器被配置为：接收来自网关设备发送的第一类别标识信息和第二类别标识信息；根据第一类别标识信息和第二类别标识生成场景数据表；对场景数据表进行存储；该场景数据表包括每个室内机和每个室外机对应的场景数据，该场景数据中包括至少一个场景。终端设备与服务器耦接，终端设备被配置为：获取场景数据，输出该场景数据对应的场景。
附图说明
图1A为根据一些实施例的一种空调系统的示意图；
图1B为根据一些实施例的一种空调系统的框图；
图1C为根据一些实施例的另一种空调系统的框图；
图2为根据一些实施例的又一种空调系统的框图；
图3为根据一些实施例的一种空调系统的控制方法的流程图；
图4为根据一些实施例的不同场景的控制界面的示意图；
图5为根据一些实施例的一种空调的工作状态的示意图；
图6为根据一些实施例的一种计算空调的工作状态的方法流程图；
图7为根据一些实施例的另一种计算空调的工作状态的方法流程图。
具体实施方式
下面将结合附图，对本公开一些实施例中的技术方案进行清楚、完整地描述，显然，所描述的实施例仅仅是本公开一部分实施例，而不是全部的实施例。基于本公开所提供的实施例，本领域普通技术人员所获得的所有其他实施例，都属于本公开保护的范围。
除非上下文另有要求，否则，在整个说明书和权利要求书中，术语“包括(comprise)”及其其他形式例如第三人称单数形式“包括(comprises)”和现在分词形式“包括(comprising)”被解释为开放、包含的意思，即为“包含，但不限于”。在说明书的描述中，术语“一个实施例(one embodiment)”、“一些实施例(some embodiments)”、“示例性实施例(exemplary embodiments)”、“示例(example)”、“特定示例(specific example)”或“一些示例(some examples)”等旨在表明与该实施例或示例相关的特定特征、结构、材料或特性包括在本公开的至少一个实施例或示例中。上述术语的示意性表示不一定是指同一实施例或示例。此外，所述的特定特征、结构、材料或特点可以以任何适当方式包括在任何一个或多个实施例或示例中。
以下，术语“第一”、“第二”仅用于描述目的，而不能理解为指示或暗示相对重要性或者隐含指明所指示的技术特征的数量。由此，限定有“第一”、“第二”的特征可以明示或者隐含地包括一个或者更多个该特征。在本公开实施例的描述中，除非另有说明，“多个”的含义是两个或两个以上。
在描述一些实施例时，可能使用了“耦接”和“连接”及其衍伸的表达。例如，描述一些实施例时可能使用了术语“连接”以表明两个或两个以上部件彼此间有直接物理接触或电接触。又如，描述一些实施例时可能使用了术语“耦接”以表明两个或两个以上部件有直接物理接触或电接触。然而，术语“耦接”或“通信耦合(communicatively coupled)”也可能指两个或两个以上部件彼此间并无直接接触，但仍彼此协作或相互作用。这里所公开的实施例并不必然限制于本文内容。
“A、B和C中的至少一个”与“A、B或C中的至少一个”具有相同含义，均包括以下A、B和C的组合：仅A，仅B，仅C，A和B的组合，A和C的组合，B和C的组合，及A、B和C的组合。
“A和/或B”，包括以下三种组合：仅A，仅B，及A和B的组合。
如本文中所使用，根据上下文，术语“如果”任选地被解释为意思是“当……时”或“在……时”或“响应于确定”或“响应于检测到”。类似地，根据上下文，短语“如果确定……”或“如果检测到[所陈述的条件或事件]”任选地被解释为是指“在确定……时”或“响应于确定……”或“在检测到[所陈述的条件或事件]时”或“响应于检测到[所陈述的条件或事件]”。
本文中“适用于”或“被配置为”的使用意味着开放和包容性的语言，其不排除适用于或被配置为执行额外任务或步骤的设备。
另外，“基于”的使用意味着开放和包容性，因为“基于”一个或多个所述条件或值的过程、步骤、计算或其他动作在实践中可以基于额外条件或超出所述的值。
随着中央空调的室外机机型和室内机机型的种类越来越多，每种机型之间差异越来越大，当每种室外机和不同的室内机搭配在一起时，所具备的场景可能不一样。通常，在终端设备上的APP侧所展示的场景仅针对室外机的夜间静音场景，而不能展示更多的场景，也不能实现关于场景的动态适配。
本公开的一些实施例提供一种空调系统，该空调系统例如可以为中央空调系统。如图 1A所示，空调系统1包括空调10、网关设备20、服务器30和终端设备40。其中，空调10包括多个室内机11和多个室外机12(图1A中仅示出两个)。例如，如图2所示，多个室内机11包括室内机111、室内机112、室内机113、室内机114和室内机115；多个室外机12包括室外机121和室外机122。
每个室外机12分别与至少一个室内机11耦接，例如，在图2中，室外机121分别与室内机111和室内机112耦接，室外机122分别与室内机113、室内机114以及室内机115耦接。在一些示例中，室外机12与室内机11之间可以通过通信总线连接。
示例性地，网关设备20可以包括通信装置，该通信装置可以使得网关设备20采用窄带物联网(Narrow Band Internet of Things，NB-IoT)或无线网络通信技术(例如WiFi)等方式进行通信。如图1A，网关设备20可以分别与多个室内机11和多个室外机12耦接。
如图1A，网关设备20还与服务器30耦接。服务器30例如可以为云服务器。示例性地，服务器30可以包括云平台31。云平台31通过网关设备20实现与每个室内机11和每个室外机12的交互。云平台31可以为业务云平台，用于处理与终端设备40功能相关的业务数据。
示例性地，网关设备20可以获取室内机11和室外机12各自的运行信息，并将室内机11和室外机12各自的运行信息发送给云平台31。室内机11的运行信息可以包括室内机11的设备信息和室内机11工作状态信息，室外机12的运行信息包括室外机12的设备11和室外机12工作状态信息。
在一些示例中，网关设备20可以为配置在室外机12上的NB-IOT适配器，例如，该NB-IOT适配器可以设置在室外机12的内部。NB-IOT适配器包括主控芯片和与主控芯片连接的通讯芯片。其中，主控芯片用于获取室内机11的运行信息和室外机12的运行信息，并将室内机11的运行信息和室外机12的运行信息传输给通讯芯片。通讯芯片接收室内机11的运行信息和室外机12的运行信息，并上报给云平台31。
在另一些示例中，网关设备20可以为WiFi网关，该WiFi网关可以连接通信总线(即空调系统1中连接各设备之间的线路)，该WiFi网关可以向云平台31上报空调系统1中室内机11的运行信息和室外机12的运行信息。
示例性地，终端设备40可以为手机、笔记本电脑、平板电脑、智能可穿戴设备(如手表)等。终端设备40上可以安装用于控制物联家电(如，空调系统1)的应用程序(APP)41，用户通过APP 41实现对物联家电中设备(如，空调10)的运行状态的控制。
图3为本公开实施例提供的一种空调系统的控制方法，该方法包括步骤31到步骤35。
步骤31，网关设备20获取一个室外机12的第一类别标识信息以及与室外机12耦接的一个室内机11的第二类别标识信息。
步骤32，网关设备20向服务器30发送第一类别标识信息和第二类别标识信息。
网关设备20获取到室内机11和室外机12各自的运行信息还包括室外机12的第一类别标识信息和室内机11的第二类别标识信息。示例性地，第一类别标识信息用于识别室外机12的类型，第二类别标识信息用于识别室内机11的类别。例如，第一类别标识信息可以为室外机机种码，第二类别信息可以为室内机机种码，依据室内机机种码和室外机机种码能够识别室内机和室外机的类别。
在一些示例中，可以利用拨码开关来设定室内机机种码和室外机机种码。例如，拨码开关可以设置在室外机12的基板上，通过室外机12基板上拨码开关来对室外机12的室 外机机种码进行设定。比如，可以通过拨码开关将侧出风型的室外机的室外机机种码设定为0x01。
由于不同类别的室外机和不同类别的室内机所具有的功能不同，因此，不同的室外机机种码和不同室外机机种码所具有的功能不同。从而，可以根据室内机机种码和室外机机种码分别确定室外机和室外机所具备的功能。例如，通过室外机机种码可以将室外机分为不同的类别，每个类别所具有的功能可能不相同，有的室外机可以具备开关机、制冷等功能，有的室外机可能具有开关机、制热以及送风等功能。
示例性地，不同室内机机种码与不同室外机机种码搭配时，由于各室外机和各室外机所具备的功能不同，因而所对应的场景可能不同。比如，当室外机和室内机都具备制热功能时，该室内机和室外机搭配在一起时，可以对应第一场景，在该第一场景下，空调系统可以在预设时间内将环境温度提高到预设的第一目标温度，达到制热的目的，该第一场景也可以称为一键制热的场景。因此，通过室内机机种码和室外机机种码可以确定相应的室内机和室外机所对应的场景。
需要说明的是，本公开实施例中所涉及的场景指的是结合空调10的功能与空间、时间、季节等因素所定制的智能化场景。该场景例如可以包括：在预设时间内将环境温度提高到第一目标温度的第一场景，在预设时间内将环境温度降低到第二目标温度的第二场景等。
例如，参考图2，当室外机122的室外机机种码为0x06，室内机113、室内机114和室内机115的室内机机种码分别为0x1E、0x2E和0x2F时，若室内机113、室内机114和室内机115均具备制热模式，则空调10所对应的场景包括第一场景。
再例如，当室外机121的室外机机种码为0x06，室内机111的室内机机种码为0x1E时，若室内机111具备制冷模式，则空调10所对应的场景包括第二场景。
又例如，当室外机121的室外机机种码为0x17，室内机111和室内机112的室内机机种码分别为0x1E和0x2D时，若室内机111和室内机112具备夜间静音模式，则空调10对应的场景包括第三场景。
网关设备20可以获取到与其耦接的室外机12的第一类别标识信息和室内机11的第二类别标识信息，并将第一类别标识信息和第二类别标识信息发送给服务器30，示例性地，可以发送给云平台31。
步骤33，服务器30接收来自网关设备20发送的第一类别标识信息和第二类别标识信息。
步骤34，服务器30根据第一类别标识信息和第二类别标识信息，查询场景数据表，得到室外机12和室内机11对应的场景数据；其中，场景数据表包括多个室内机11和多个室外机12对应的多个场景数据，每个场景数据包括至少一个场景。
在服务器30(例如云平台31)获取到第一类别标识信息和第二类别标识信息后，通过查询场景数据表，可以得到室外机12和室外机11对应的场景。
场景数据表可以根据多个室外机12的第一类别标识信息和多个室内机11的第二类别标识信息生成。示例性地，服务器30可以根据多个室外机机种码和多个室内机机种码生成场景数据表。下面以第一类别标识信息为室外机机种码，第二类别信息为室内机机种码为例，对场景数据表的生成过程进行说明。
示例性地，场景数据表包括多个室内机机种码的室内机和多个室外机机种码的室外机 对应多个场景数据。其中，每个室内机机种码和每个室外机机种码对应一个场景数据。
在一些示例中，服务器30可以根据每个室内机机种码、每个室外机机种码，以及每个室内机机种码与每个室外机机种码对应的场景，生成场景数据表。需要说明的是，这里所说的每个室内机机种码和每个室外机机种码指的是所有的室内机机种码和室外机机种码，而不限于空调系统1中的多个室内机11(例如室内机111至室内机115)所对应的室内机机种码，以及多个室外机12(例如室外机121和室外机122)对应的室外机机种码。每个室内机机种码和每个室外机机种码对应有场景。
例如，场景数据表可以如下表1所示，表1中的第1行列出了多个不同的室内机机种码，第1列列出了多个不同的室外机机种码。每个室内机机种码和每个室外机机种码都对应一个场景数据，每个场景数据包括至少一个场景M x，x≥1且为整数。其中，场景M 1可以表示第一场景；场景M 2可以表示第二场景。例如，如表1所示，室内机机种码0x1E和室外机机种码0x06对应的场景数据为“M 1、M 2”，说明室内机机种码0x1E和室外机机种码0x06对应的场景数据包括场景M 1和场景M 2。
表1
  0x1E 0x2E 0x2F 0x2D ……
0x06 M 1、M 2 M 1、M 3 M 1、M 4 M 2、M 4 ……
0x07 M 1、M 2 M 1、M 3 M 1、M 4 M 2、M 4 ……
0x16 M 1、M 6 M 1、M 2、M 9 M 1、M 5 M 1、M 6 ……
0x17 M 1、M 6 M 1、M 2、M 9 M 1、M 5 M 1、M 6 ……
…… …… …… …… …… ……
示例性地，场景数据表中的所有的场景数据可以组成场景矩阵表A mn，其中m≥1，n≥1，且m和n均为整数。m由室外机机种码的数量决定，n由室内机机种码的数量决定。场景矩阵表A mn中每个场景数据可以表示为a ij，其中，1≤i≤m，1≤j≤n，且i和j均为整数。
例如，当室内机机种码和室外机机种码的数量均为4时，在这4个室内机机种码和4个室外机机种码种中，每个室内机机种码和每个室外机机种码所对应的场景数据组成了场景矩阵A 44，场景矩阵A 44包括16个场景数据a ij。例如，场景数据a 11表示第一个室内机机种码0x1E和第一个室外机机种码0x06对应的场景数据，场景数据a 11包括场景M 1和M 2，场景数据a 44标识第四个室内机机种码0x17和第四个室外机机种码0x2D对应的场景数据，场景数据a 44包括场景M 1和M 6。
示例性地，服务器30(例如云平台31)可以对生成的场景数据表进行存储，当服务器30获取到空调10中室内机11的室内机机种码和室外机12的室外机机种码后，可以在存储的场景数据表(如表1所示)中查找到室外机12和与其耦接的室内机11所对应的场景。
以下实施例以服务器30中的云平台31为例，对场景数据表的查询过程进行示例性说明。
例如，当云平台31获取到室外机121的室外机机种码0x06，以及获取到与室外机121耦接的室内机111的室内机机种码0x1E时，在场景数据表中查找室外机机种码0x06与室 内机机种码0x1E对应的场景数据。例如，可以在表1中查到室外机机种码0x06与室内机机种码0x1E对应的场景数据a 11为“M 1、M 2”。即，场景数据a 11包括场景M 1和场景M 2。因此，室外机121以及与室外机121耦接的室外机111对应的场景包括场景M 1和场景M 2。
又例如，当云平台31获取到室外机121的室外机机种码为0x16，以及获取到与室外机121耦接的室内机112的室内机机种码为0x2D时，在场景数据表中查找室外机机种码0x16与室内机机种码0x2D对应的场景数据。例如，可以在表1中查到室外机机种码0x16与室内机机种码0x2D对应的场景数据a 34为“M 1、M 6”。即，场景数据a 34包括场景M 1和场景M 6。因此，室外机121以及与室外机121耦接的室内机112对应的场景包括场景M 1和场景M 6。
因此，在服务器30获取室外机12的室外机机种码以及与室外机12耦接的室内机11的室内机机种码时，根据场景数据表可以查询到室外机12的室外机机种码与室内机11的室内机机种码搭配时所对应的场景数据，该场景数据中包括了室外机12与室内机11搭配时所对应的至少一个场景。这样，本公开实施例提供的空调系统1能够获取到不同室外机12在搭配不同室内机11时所对应多个场景，实现了空调10的场景的动态适配，便于对不同场景的控制。
示例性地，服务器30(例如云平台31)还可以对该场景数据表进行更新。例如，服务器30可以对场景数据表中的室内机机种码、室外机机种码以及场景数据进行更新。比如，云平台31获取室外机12的室外机机种码以及与室外机耦接的室内机11的室内机机种码后，在服务器30中预存的场景数据表中查询不到该室外机12的室外机机种码与室内机11的室内机机种码对应的场景数据，如，该场景数据表中不存在该室内机11的室内机机种码，或者，该场景数据表中不存在该室外机12的室外机机种码，或者，该场景数据表中不存在该室外机12的室外机机种码和该室内机11的室内机机种码。
当场景数据表中不存在室内机11的室内机机种码时，云平台31可以将该室内机11的室外机机种码更新到场景数据表中，同时将室内机11的室内机机种码与各个室外机机种码(包括室外机12的室外机机种码)对应的各个场景数据更新到该场景数据表中。
当场景数据表中不存在室外机12的室外机机种码时，云平台31可以将该室外机12的室外机机种码更新到场景数据表中，同时将该室外机12的室外机机种码与场景数据表中各个室内机机种码(包括室内机11的室内机机种码)对应的各个场景数据更新到该场景数据表中。
当场景数据表中不存在该室外机12的室外机机种码和该室内机11的室内机机种码时，云平台31可以将该室内机11的室外机机种码和该室外机12的室内机机种码更新到场景数据表中，同时将该室外机12的室外机机种码与各个室内机机种码(包括室内机11的室内机机种码)对应的各个场景数据更新到该场景数据表中，以及将该室内机11的室内机机种码与各个室外机机种码(包括室外机12的室外机机种码)对应的各个场景数据更新到该场景数据表中。
步骤35，终端设备40获取场景数据，输出场景数据对应的场景。
当服务器30(例如云平台31)查询到室外机12以及与室外机12耦接的室内机11所对应的场景数据后，可以将该场景数据发送给终端设备40。例如，可以将场景数据发送给终端设备40上安装的APP 41，APP 41获取该场景数据，并且对该场景数据中的场景进行输出。
以下实施例以APP 41为例，对终端设备40的场景输出过程进行示例性说明。
示例性地，APP 41可以输出该场景数据中的每个场景所对应的控制界面，以供用户进行相关控制。例如，该场景数据中的每个场景都可以对应一个控制界面，APP 41可以切换不同场景对应的控制界面，以实现不同场景的切换。
图4为本公开实施例提供的不同场景的控制界面的示意图。其中，图4中的(a)为夜间静音场景所对应的控制界面的示意图；图4中的(b)为新房换气场景所对应的控制界面的示意图。
例如，当用户所处的环境需要保持安静时，可以启用夜间静音场景，以开启空调10的静音模式。用户可以在夜间静音场景对应的控制界面上进行相关功能的设置。例如，如图4中的(a)所示，用户可以设置静音开始时间、静音结束时间以及静音模式在一周(周一至周日)之内的重复情况等进行设置。
再例如，当用户搬进新房需要进行通风换气时，可以启用新房换气场景，以开启空调10的新风，进行换气。用户可以在新房换气场景对应的控制界面上进行相关功能的设置。例如，如图4中的(b)所示，用户可以对开启新风的开始日期、结束日期以及上午执行时段与下午执行时段等进行设置。
示例性地，用户可以在APP 41中添加网关设备20的设备信息，APP 41可以通过该网关设备20的设备信息查询到与该网关设备20所耦接的所有室内机11和所有室外机12各自的运行信息。例如，APP 41中可以设置至少一个群组(如，每个群组可以包括多个用户)，每个群组中可以添加至少一个网关设备20的设备信息(例如网关设备20的设备码)。APP41可以以每个群组为单位，拉取各个群组下所有网关设备20的设备信息，获得与所有网关设备20耦接的所有室外机以及与所有室外机耦接的所有室内机所对应的场景列表，该场景列表中包括至少一个场景，并且，APP 41可以输出每个场景对应的控制界面。
在一些实施例中，场景数据中每个场景具有场景标志位；终端设备40获取场景数据，输出场景数据对应的场景，包括：终端设备40获取场景数据中每个场景对应的场景标志位，根据场景标志位，输出场景标志位对应的场景。
示例性地，服务器30中的云平台31为场景数据表中每个场景数据所表征的每个场景M x设置场景标志位S x。终端设备40上的APP 41通过获取室外机12以及与其耦接的室内机11对应场景的场景标志位，能够获取到室外机12以及与其耦接的室内机11对应场景的对应的场景，然后APP 41可以对场景进行输出。通过设置场景标志位，能够进一步提高APP 41获取室外机12以及与其耦接的室内机11所对应场景的效率。
需要说明的是，云平台31还可以为场景数据表中每个场景数据设置场景标志位集合U，场景标志位集合U对应场景集合S，标志位集合U中包括至少一个场景标志位S x，场景集合S中包括对场景标志位S x对应的场景M x。
在一些实施例中，如图1B所示，空调系统1还包括至少一个具有标识位的线控器50，每个线控器控制至少两个室内机工作，如线控器50可以控制室内机11和室内机11’工作。
示例性地，线控器50可以为带有通信装置的无线线控器，如WiFi线控器。线控器50也可以为不带通信装置的有线线控器。
如图2所示，至少一个线控器50可以包括线控器51和线控器52。其中，线控器51分别与室内机111和室内机112耦接，线控器51分别控制室内机111和室内机112工作。线控器52分别与室内机113、室内机114以及室内机115耦接，线控器52分别控制室内 机113、室内机114以及室内机115工作。
需要说明的是，线控器50控制至少两个室内机工作是指线控器50对与其耦接的所有室内机的工作状态进行控制。例如，线控器50上可以显示与其耦接的所有室内机的工作状态的控制界面，用户通过该控制界面能够对线控器50耦接的所有室内机的工作状态进行控制。
在空调系统中，每个室内机具有的工作状态可能相同，也可能不同，本公开的实施例对此不作限制。例如，室内机所具有的工作状态可以与室内机的类型相关。
例如，参考图2，当与线控器51耦接的室内机111的室内机机种码以及室内机112的室内机机种码不同时，室内机111和室内机112所具有的工作状态可能不同。在此情况下，线控器51上显示的是室内机111和室内机112所共同具有工作状态。例如，线控器51上显示的是与其耦接的室内机111以及室内机112的工作状态的交集。这样，用户通过线控器50能够实现对其所耦接的所有室内机的工作状态的控制。
需要说明的是，用户除了可以通过线控器50实现对其耦接的室内机11和室内机11’的工作状态的控制外，还可以通过终端设备40上的APP 41实现对空调10中的室内机11和和室内机11’的工作状态进行控制。
APP 41上可以显示空调10中每个室内机的工作状态。例如，参考图2，APP 41上可以分别显示空调10中室内机111至室内机115的工作状态，用户通过APP 41可以实现对每个室内机的工作状态的单独控制。而线控器51上实现的是对室内机111和室内机112的工作状态的交集的控制，线控器52实现的是对室内机113至室内机115的工作状态的交集的控制。
在一些示例中，当线控器50所耦接的多台室内机的工作状态不完全相同时，APP 41上所显示的某一台室内机的工作状态可能与线控器50上显示的该台室内机的工作状态不一致。例如，参考图2和图5，当线控器51所耦接的室内机111所具有的工作状态包括：A、B、C、D，室内机112所具有的的工作状态包括：A、B、C、D和E时，线控器51上所显示工作状态为室内机111和室内机112的工作状态的交集，即：A、B、C和D。而APP 41上能够分别对室内机111和室内机112各自的工作状态进行显示。这种情况下，当用户通过APP 41下发开启室内机112的工作状态E的控制指令时，该控制指令是无法被线控器51所响应的，因而会导致开启工作状态E失败。其中，工作状态A、B、C、D、E可以分别表示室内机所具备的开机、关机、制冷模式、制热模式、除湿模式、风量调节以及附件功能等中任一项不同的工作状态。
为此，参考图1B，在一些实施例中，服务器30获取线控器50的标识位；根据线控器50的标识位，获取与该线控器50耦接的至少两个室内机的工作状态信息；根据与至少一个线控器50耦接的各室内机的工作状态信息，得到与至少一个线控器50耦接的所有室内机的工作状态信息的交集。终端设备40获取所有室内机的工作状态信息的交集，输出所有室内机的工作状态信息的交集。
示例性地，线控器50具有标识位，标识位用于识别线控器50的身份。例如，参考图2，线控器51和线控器52具有各自的标识位，如，线控器51标识位可以为flag1，线控器52的标识位为flag2。服务器30(例如云平台31)在获取到flag1和flag2时，可以通过flag1识别出线控器51，可以通过flag2识别出线控器52。
以服务器30中的云平台31为例，如图1B所示，云平台31根据标识位识别出线控器 50后，获取与线控器50耦接的所有室内机的工作状态。示例性地，云平台31可以通过网关设备20来获取线控器50的标识位以及与线控器50耦接的所有室内机的工作状态。
例如，参考图2，网关设备20将获取到的线控器51的标识位flag1和线控器52的标识位flag2发送给云平台31。云平台31根据标识位flag1，通过网关设备20获取与线控器51耦接的室内机111的工作状态和室内机112的工作状态。
其中，如图5所示，室内机111的工作状态包括：A、B、C和D。可以将室内机111具有的工作状态记为第一工作状态集。室内机112的工作状态包括：A、B、C、D和E，可以将室内机112具有的工作状态记为第二工作状态集。
云平台31根据标识位flag2，通过网关设备20分别获取与线控器52耦接的室内机113至室内机115的工作状态。
其中，如图5所示，室内机113的工作状态包括：A、B和C，可以将室内机113具有的工作状态记为第三工作状态集。室内机114的工作状态包括：A、B、C和D，可以将室内机114具有的工作状态记为第四工作状态集。室内机115的工作状态包括：A、B、C、D和E，可以将室内机115具有的工作状态记为第五工作状态集。
云平台31获取到与每个线控器50所耦接的各室内机的工作状态后，根据与每个线控器50所耦接的各室内机的工作状态，计算所有室内机的工作状态的交集。需要说明的是，所有室内机的工作状态的交集是指空调10中所有室内机的工作状态的交集，也称为空调10的工作状态。
云平台31得到空调10的工作状态后，可以将空调10的工作状态发送给终端设备40上的APP 41，APP 41获取空调10的工作状态后，对空调10的工作状态进行输出。例如，APP 41可以通过显示空调10的工作状态所对应的控制界面对空调10的工作状态进行输出。
通过计算空调10中所有室内机的工作状态的交集，并将该工作状态的交集同步到APP41上的方式，可以保证APP 41上各室内机的工作状态与线控器50上各室内机的工作状态保持一致，因此，可以避免通过APP 41下发的控制指令不能被线控器50响应，避免指令下发异常，提高用户体验度。
示例性地，云平台31计算空调10的工作状态可以通过以下方式实现。下面，参考图6和图7，对空调10的工作状态的计算过程进行说明。
在一些示例中，如图6所示，云平台31计算空调10的工作状态的过程包括步骤611到步骤614。
步骤611、根据线控器的标识位识别各线控器。
例如，参考图2，云平台31可以根据获取到的标识位flag1识别到线控器51，根据标识位flag2识别线控器52。
步骤612、根据线控的标识位，获取各线控器所耦接的各室内机的工作状态。
例如，步骤612包括步骤6121和步骤6122。其中，步骤6121、云平台31根据识别到的线控器51，获取与线控器51所耦接的室内机111的工作状态和室内机112的工作状态，即上述示例中的第一工作状态集和第二工作状态集。
步骤6122、根据识别到的线控器52，获取与线控器52耦接的室内机113的工作状态、室内机114的工作状态和室内机115的工作状态，即上述实施例中的第三工作状态集、第四工作状态集和第五工作状态集。
步骤613、计算各线控器所耦接的所有室内机的工作状态的交集，得到各线控器的工作状态。
例如，步骤613包括步骤6131和步骤6132。其中，步骤6131、计算与线控器51所耦接的室内机111的第一工作状态集和室内机112的第二工作状态集的交集，如图5所示，得到线控器51的工作状态：A、B、C和D。
步骤6132、计算与线控器52所耦接的室内机113的第三工作状态集、室内机114的第四工作状态集以及室内机115的第五工作状态集的交集，如图5所示，得到线控器52的工作状态：A、B和C。
步骤614、计算所有线控器的工作状态的交集。
例如，参考图2，云平台31计算线控器51和线控器52的工作状态的交集，得到空调10的工作状态，如图5所示，空调10的工作状态为：A、B和C。
APP 41获取步骤614得到的空调10的工作状态，并输出空调10的工作状态。例如，APP 41将空调10的工作状态通过控制界面的方式进行显示，以使用户可以进行相应的控制。
在另一些示例中，如图7所示，云平台31计算空调10的工作状态的过程包括步骤711到步骤713。
步骤711、根据线控器的标识位识别各线控器。
该步骤711与上述步骤611类似，此处不再赘述。
步骤712、根据线控器的标识位，获取各线控器所耦接的各室内机的工作状态。
该步骤712与上述步骤612类似，此处不再赘述。
步骤713、计算与所有线控器耦接的所有室内机的工作状态的交集。
由步骤712获取到的与线控器51耦接室内机111的第一工作状态集和室内机112的第二工作状态集，以及与线控器52耦接的室内机113的第三工作状态集至室内机115的第五工作状态集，计算室内机111至室内机115的工作状态的交集，就是计算第一工作状态集至第五工作状态集的交集，得到空调10的工作状态。如图5所示，空调10的工作状态为：A、B和C。
APP 41获取步骤513得到的空调10的工作状态，并输出空调10的工作状态。
通过本公开实施例提供的空调系统1，可以保证APP 41上所显示的控制界面呈现的任一工作状态均包含在任一线控器50所显示的工作状态中。因此，可以保证APP 41下发的任一工作状态的控制指令都可以被任一线控器50所响应，实现通过APP 41端对空调10控制，提高用户体验度。
对于多联机的中央空调系统，不同室外机可能会与不同室内机进行搭配，因而对空调系统中各设备上安装的软件的兼容性要求较高。例如，可以采用对空调系统中各设备上安装的软件进行升级的方式来提高各设备之间的兼容性。
本公开实施例提供的空调系统1可以实现对空调系统1中各待升级设备进行升级，如图1C所示，空调系统1中各待升级设备包括室内机11、室外机12、网关设备20和线控器50中的至少一个部件。也就是说，空调系统1可以一个部件进行升级，即对室内机11、室外机12、网关设备20、或者线控器50进行升级；空调系统1也可以对多个部件进行升级，即对室内机11、室外机12、网关设备20和线控器50都进行升级。
例如，空调系统1对室内机11的升级可以是对室内机11主控板的软件进行升级；空 调系统1对室外机12的升级可以是对室外机12的主控板的软件进行升级；空调系统1对网关设备20的升级可以是对网关设备20的主控芯片的软件进行升级；空调系统1对线控器50的升级可以是对线控器50主控板的软件进行升级。
在一些实施例中，参考图1C，服务器30为室内机11、室外机12、网关设备20和线控器50中的至少一个部件配置升级包和升级策略，并向终端设备40发送至少一个部件对应的升级包和升级策略。终端设备40接收至少一个部件对应的升级包和升级策略；根据升级策略，采用升级包，对至少一个部件进行升级。
例如，空调系统1中室内机11、室外机12、网关设备20和线控器50中的至少一个部件可以作为待升级设备。
示例性地，如图1C所示，服务器30还包括管理平台32，管理平台32可以为空调系统1中的各待升级设备配置相应的升级包和升级策略。例如，管理平台32可以为万维网(World Wide Web，WEB)管理平台，该WEB管理平台上开放有WEB端口，WEB管理平台可以通过WEB端口为终端设备40(例如APP 41)提供空调系统1中各待升级设备的升级包和升级策略。
在一些实施例中，升级策略包括待升级设备的软件标识号和软件版本号。其中，软件识别号用于指示待升级设备中所需要升级的软件的身份，软件版本号包括当前软件版本号以及待升级到的软件版本号。
在一些示例中，参考图2，当待升级设备为室内机111、室内机112时，管理平台32分别为室内机111、室内机112中的每个都配置各自对应的升级包和升级策略。
例如，参考图2，管理平台32为室内机111配置的升级策略可以包括软件识别码(00-00)、当前软件版本号(I-1001)、以及软件版本从I-1001升级为I-1002(I-1001→I-1002)，配置的升级包可以包括软件版本号I-1002的升级包。
再例如，管理平台32为室内机112配置升级策略包括软件识别码00-04、当前软件版本号I-100、以及软件版本从I-100升级为I-101(I-100→I-101)，配置的升级包包括软件版本号I-101的升级包。
在一些示例中，参考图2，当空调系统1中的网关设备20、线控器50、以及室外机121和室外机122均待升级时，管理平台32还可以为网关设备20、线控器50、以及室外机121和室外机122分别配置对应的升级包和升级策略。
例如，管理平台32为网关设备20配置的升级策略包括软件识别码00-01、当前软件版本号C-100、以及软件版本从C-100升级为C-101(C-100→C-101)，配置的升级包可以包括软件版本号C-101的升级包。
再例如，管理平台32为线控器50配置升级策略包括软件识别码00-02、当前软件版本号X-100、以及软件版本从X-100升级为X-101(X-100→X-101)，配置的升级包可以包括软件版本号X-101的升级包。
再例如，管理平台32为室外机121配置的升级策略包括软件识别码00-03、当前软件版本号Q-100、以及软件版本从Q-100升级为Q-101(Q-100→Q-101)，配置的升级包可以包括软件版本号Q-101的升级包。
再例如，管理平台32为室外机122配置的升级策略包括软件识别码00-03'、当前软件版本号Q-999、以及软件版本从Q-999升级为Q-1001(Q-999→Q-1001)，配置的升级包可以包括软件版本号Q-1001的升级包。
当管理平台32完成对空调系统1中各待升级设备的升级包和升级策略的配置后，可以将该升级包和升级策略下发给APP 41，APP 41接收到该升级包和升级策略后，根据升级策略的内容，采用对应的升级包对各待升级设备进行升级。
在一些实施例中，服务器30为室内机11、室外机12、网关设备20和线控器50中的多个部件配置升级包和升级策略，向终端设备40发送多个部件对应的升级包和升级策略；终端设备40接收多个部件对应的升级包和升级策略；根据多个部件对应的升级策略，按照升级顺序，采用多个部件对应的升级包对多个部件进行升级。
当空调系统1中的待升级设备包括多个部件时，终端设备40会按照升级顺序，对该多个部件进行升级，本公开实施例对具体方式不作限定。例如，该升级顺序可以预先存储在云平台31中，并由云平台31下发给APP 41。又例如，该升级顺序也可以预先存储在APP 41上，APP 41在接收到多个部件对应的升级包和升级策略时，可以按照预先存储的升级顺序对各部件进行升级。
示例性地，终端设备40根据多个部件对应的升级策略，按照先升级线控器50和网关设备20，再升级室内机11和室外机12的升级顺序，采用多个部件的对应的升级包对多个部件进行升级。
在一些示例中，终端设备40可以对线控器50或网关设备20进行升级之后，再对室内机11和室外机12进行升级。例如，终端设备40可以先升级线控器50、再升级网关设备20、再升级室内机11和室外机12；或者，终端设备40可以先升级网关设备20、再升级线控器50、再升级室内机11和室外机12。
需要说明的是，室内机11和室外机12的升级过程需要通过线控器50或网关设备20来实现。在此情况下，先对线控器50或网关设备20进行升级，在待线控器50或网关设备20升级完成后，再对室内机11或室外机12进行升级。对于线控器50和网关设备20之间的升级顺序，以及室外机11和室外机12之间的升级顺序，本公开实施例不作限定。
例如，APP 41可以按照从网关设备20到线控器50到室外机12再到室内机11的优先级顺序进行升级；或者，可以按照从线控器50到网关设备20到室外机12再到室内机11的优先级顺序进行升级；或者，也可以按照从网关设备20到线控器50到室内机11再到室外机12的优先级顺序进行升级；或者，还可以按照从线控器50到网关设备20到室内机11再到室外机12的优先级顺序进行升级。
需要说明的是，对于同类型的待升级设备，例如，参考图2，室外机121和室外机122都属于室外机类型，无论室外机121和室外机122是否为相同的室外机，本公开实施例对其升级顺序都不作限定。如，当室外机121和室外机122具有不同的室外机机种码(即室外机121和室外机122为不同型号的室外机)时，可以先升级室外机121，再升级室外机122，也可以先升级室外机122，再升级室外机121。
本公开实施例中空调系统1按照升级顺序对各待升级的多个部件依次有序升级，可以避免升级过程混乱导致的升级失败，提高升级效率。
在一些实施例中，云平台31上可以存储有设备策略数据列表List，参考图1C，设备策略数据列表List中包括空调系统1中各设备(即各部件)的设备信息，该设备可以为室内机11、室外机12、网关设备20、或者线控器50。例如，设备策略数据列表List中至少包括：设备标识Device_FLG、设备类型Device_Type、升级标识OTA_FLG和升级策略列表。
其中，设备标识Device_FLG用于标识空调系统1中各个设备的身份，每个设备的都具有一个设备标识，且每个设备的设备标识都不相同。设备标识Device_FLG可以用于区分每个设备的身份。例如，设备标识Device_FLG可以为设备码或者设备的绑定码，设备的绑定码可以包括二维码等形式。
设备类型Device_Type用于指示空调系统1中的设备类型，例如，该设备类型可以包括网关设备类型、线控器类型、室内机类型和室外机类型。可以将网关设备类型记为类型1，将线控器类型记为类型2，将室外机类型记为类型3，将室内机类型记为类型4。因此，设备类型Device_Type就可以包括类型1、类型2、类型3和类型4。
需要说明的是，设备类型Device_Type区分的是不同类型的设备，例如，类型1表示的是网关设备类型，而不是某一个网关设备20，类型1中可以存在多个不同设备标识Device_FLG的网关设备20。
升级标识OTA_FLG是用于指示空调系统1中各设备是否需要升级的标识，升级标识OTA_FLG可以设置为1或0。例如，若网关设备20的升级标识OTA_FLG为1，表示网关设备20需要升级，若网关设备20的升级标识OTA_FLG为0表示网关设备20不需要升级。
升级策略列表是空调系统1中各待升级设备的升级策略的集合。例如，升级策略列表中可以包括升级策略1和升级策略2，其中，升级策略1可以为网关设备20的升级策略，升级策略2可以为线控器50的升级策略。
示例性地，设备策略数据列表List还可以包括用户确认标识Confirm_FLG和策略类型Strategy_Type。
空调系统1中每个设备都有一个用户确认标识Confirm_FLG，每个设备的用户确认标识Confirm_FLG的初始值可以为0。例如，当用户确认网关设备20需要升级时，会对网关设备20的用户确认标识Confirm_FLG赋值1；若用户没有确认网关设备20需要升级时，网关设备20的用户确认标识Confirm_FLG赋值仍为0。
策略类型Strategy_Type用于指示某一设备类型的升级策略，策略类型Strategy_Type与设备类型Device_Type相对应。例如，当设备类型Device_Type包括网关设备类型、线控器类型、室内机类型和室外机类型时，对应的策略类型Strategy_Type包括网关设备策略类型、线控器策略类型、室内机策略类型和室外机策略类型。如，将网关设备策略类型记为类型1’，将线控器策略类型记为类型2’，将室外机策略类型记为类型3’，将室内机策略类型记为类型4’，策略类型Strategy_Type就可以包括类型1’、类型2’、类型3’和类型4’。
因此，云平台31(即服务器30)对设备策略数据列表List进行管理和维护，以及对设备策略数据列表List的更新，能够更加清楚、快速了解到空调系统1中所有设备的信息，以及各设备的升级信息。
示例性地，云平台中还可以存储有空调系统1中各待升级设备的设备列表Device_List，空调系统1中每待升级设备都具有一个设备列表Device_List。设备列表Device_List可以根据设备策略数据列表List中的升级标识OTA_FLG筛选出来的，例如，在设备策略数据列表List中滤除掉升级标识OOTA_FLG为0所对应的各设备的相关信息，得到所有升级标识OTA_FLG为1所对应的各设备的相关信息。
设备列表Device_List可以包括从设备策略数据列表List中筛选出的升级标识OTA_FLG为1对应的各设备的相关信息，例如，该相关信息包括升级标识OTA_FLG、用 户确认标识Confirm_FLG和策略类型Strategy_Type，还可以包括弹窗标识Popup_FLG、策略标识OTA_ID和策略描述OTA_DESC。
其中，弹窗标识Popup_FLG以弹窗的形式为用户显示相关提示信息。例如，弹窗标识Popup_FLG可以用于在APP 41端以弹窗的形式提示用户空调系统1中某个设备的升级信息。弹窗标识Popup_FLG的初始值可以为0，若APP 41端出现提示某个设备(如网关设备20)升级的弹窗，则会为该设备的设备列表Device_List中的弹窗标志Popup_FLG赋值1，否则仍保持初始值0。
例如，可以在每个待升级设备升级前，均在APP 41端以弹窗的形式显示提示信息，如显示供用户可以选择升级情况(例如，暂不升级或立即升级)的弹窗，以此提升用户使用体验。
策略标识OTA_ID用于标识策略的身份，例如网关设备20的策略标识OTA_ID用于识别网关设备20的升级策略，线控器50的策略标识OTA_ID用于标识线控器50的升级策略。
策略描述OTA_DESC可以包括对升级策略的内容的文字描述。
在图2中，若空调系统1中待升级设备包括室内机111、网关设备20和室外机121，则室内机111的设备列表Device_List 111可以包括：升级标识OTA_FLG、策略标识OTA_ID、策略描述OTA_DESC，其中，升级标识OTA_FLG例如可以为1；策略标识OTA_ID例如可以为10000；策略描述OTA_DESC例如可以为室内机111正在升级中，室内机111从当前软件版本号I-1001升级为I-1002的软件版本号。
例如，网关设备20的设备列表Device_List 20包括：升级标识OTA_FLG、策略标识OTA_ID、策略描述OTA_DESC，其中，升级标识OTA_FLG例如可以为1；策略标识OTA_ID例如可以为20000；策略描述OTA_DESC例如可以为网关设备20正在升级中，网关设备20从当前软件版本号C-100升级至C-101的软件版本号。
例如，室外机121的设备列表Device_List 121包括：升级标识OTA_FLG、策略标识OTA_ID、策略描述OTA_DESC，其中，升级标识OTA_FLG例如可以为1；策略标识OTA_ID例如可以为30000；策略描述OTA_DESC例如可以为室外机121正在升级中，室外机121从当前软件版本号O-100升级至O-101的软件版本号。
示例性地，云平台31遍历空调系统1中各待升级设备的设备列表Device_List，对不同策略标识OTA_ID下的对应的策略描述OTA_DESC进行拼接，得到空调系统1的策略文案。
例如，云平台31可以根据策略标识OTA_ID确定空调系统1中各待升级设备的升级顺序，根据该升级顺序对各待升级设备的设备列表Device_List中的策略描述OTA_DESC进行拼接。例如，参考图1C，云平台31根据策略标识OTA_ID得到出空调系统1中的和设备的升级顺序为：网关设备20、线控器50、室外机12、室内机11，云平台31按照网关设备20、线控器50、室外机12、室内机11的顺序，对网关设备20、线控器50、室外机12、室内机11各自对应的设备列表Device_List中的策略描述OTA_DESC进行拼接，得到策略文案。
如在上述示例中，空调系统1的策略文案可以按照网关设备20、室外机121和室外机111的顺序，对网关设备20、室外机121和室外机111的策略描述OTA_DESC进行拼接，例如，空调系统1的策略文案可以为：网关设备20正在升级中，网关设备20从当前软件 版本号C-100升级至C-101的软件版本号；室外机121正在升级中，室外机121从当前软件版本号Q-100升级至Q-101的软件版本号；室内机111正在升级中，室内机111从当前软件版本号I-1001升级为I-1002的软件版本号。
示例性地，策略文案还可以包括提示用户升级过程中的注意事项，例如，升级过程中的注意事项包括升级过程中会暂停APP 41的服务，以提醒用户不在升级期间操作APP 41等；策略文案还可以包括提示用户升级过程大概需要的时间，该升级过程的时间例如可以是所有待升级设备完成升级所用的时间，提示升级过程的时间可以便于用户合理安排时间。
因此，上述示例中，空调系统1的策略文案还可以表示如下：
(a)网关设备20正在升级中，网关设备20从当前软件版本号C-100升级至C-101的软件版本号；室外机121正在升级中，室外机121从当前软件版本号Q-100升级至Q-101的软件版本号；室内机111正在升级中，室内机111从当前软件版本号I-1001升级为I-1002的软件版本号；
(b)本次升级过程会暂停APP服务；
(c)本次升级过程大概需要N分钟。
示例性地，云平台31可以将上述策略文案下发给APP 41，APP 41对该策略文案进行输出。例如，APP 41可以在各待升级设备升级之前，采用弹窗的形式对该策略文案进行输出。
在一些实施例中，服务器30还被配置为：在为室内机11、室外机12、网关设备20和线控器50中的至少一个部件升级前，控制终端设备40显示至少一个部件的升级信息，该升级信息包括至少一个部件的升级策略和升级提示信息，该升级提示信息包括完成至少一个部件的升级所需的时间。
例如，终端设备40(例如APP 41)可以通过输出各待升级设备的升级界面来输出该升级信息。其中，每个待升级设备具有一个升级界面。升级界面可以包括各待升级设备的升级信息，该升级信息可以包括升级策略和升级过程的提示信息，即策略文案。
在一些示例中，APP 41可以通过弹出窗口的方式，按照各待升级设备的升级顺序，依次输出对各待升级设备的升级界面，直至所有待升级设备升级完毕。
例如，对室内机111进行升级时，APP 41端显示的升级界面可以包括如下升级信息：
软件识别码00-00、当前软件版本号X-1001、软件版本从X-1001升级为X-1002(X-1001→X-1002)，配置的升级包可以包括软件版本号X-1002的升级包；以及室内机111正在升级中，室内机111从当前软件版本号I-1001升级为I-1002的软件版本号，升级过程会暂停APP服务，升级过程大概需要N分钟的策略文案。
示例性地，升级界面可以通过弹窗的方式展示。例如，该升级界面是可以包括“暂不升级”和“立即升级”的弹窗选项。当用户点击“立即升级”后，将用户确认标识Confirm_FLG赋值为1，对室内机111进行升级，否则，暂不对室内机111进行升级。
本公开的实施例提供了一种空调系统，该空调系统可以为上述任一实施例中的空调系统，例如图1A中的空调系统1。该空调系统包括多个室内机11；多个室外机12，每个室外机12分别与至少一个室内机11耦接。
网关设备20，分别与多个室外机12以及多个室内机11耦接，且被配置为：获取每个室外机12的第一类别标识信息以及每个室内机11的第二类别标识信息，并向服务器30 发送第一类别标识信息和第二类别标识信息。
服务器30被配置为：接收来自网关设备20发送的第一类别标识信息和第二类别标识信息；根据第一类别标识信息和第二类别标识生成场景数据表；对场景数据表进行存储；场景数据表包括每个室内机和每个室外机对应的场景数据，场景数据中包括至少一个场景。
终端设备40与服务器30耦接，且被配置为：获取场景数据，输出场景数据对应的场景。
在一些实施例中，如图1A，网关设备20还被配置为：获取目标室外机的第一类别标识信息和与其耦接的目标室内机的第二类别标识信息，向服务器30发送第一类别标识信息和第二类别标识信息；服务器30还被配置为：接收来自网关设备20发送的第一类别标识信息和第二类别标识信息；根据第一类别标识信息和第二类别标识信息，查询场景数据表，得到目标室外机和目标室内机对应的目标场景数据；终端设备40还被配置为：获取目标场景数据，输出目标场景数据对应的场景。
在一些实施例中，如图1A，服务器30还被配置为：对所景数据表中每个场景数据对应的每个场景配置场景标志位；终端设备40被配置为：获取目标场景数据中每个场景对应的场景标志位，根据场景标志位，输出场景标志位对应的场景。
在一些实施例中，如图1B，空调系统还包括：至少一个具有标识位的线控器50，一个线控器50与至少两个室内机耦接，且线控器50被配置为：控制至少两个室内机工作；其中，服务器30还被配置为：获取线控器50的标识位；根据线控器50的标识位，获取与线控器50耦接的至少两个室内机的工作状态信息；根据与至少一个线控器50耦接的各室内机的工作状态信息，得到与至少一个线控器50耦接的所有室内机的工作状态信息的交集；终端设备40还被配置为：获取所有室内机的工作状态信息的交集，并输出所有室内机的工作状态信息的交集。
在一些实施例中，如图1B，服务器30被配置为：根据与线控器50耦接的至少两个室内机的工作状态信息，得到线控器50对应的工作状态信息；以及至少一个线控器50对应的工作状态信息，得到所有室内机的工作状态信息的交集。
在一些实施例中，如图1C，服务器30还被配置为：为室内机11、室外机12、网关设备20和线控器50中的至少一个部件配置升级包和升级策略，向终端设备40发送至少一个部件对应的升级包和升级策略；终端设备40还被配置为：接收至少一个部件对应的升级包和升级策略；根据升级策略，采用升级包，对至少一个部件进行升级。
在一些实施例中，如图1C，服务器30被配置为：为室内机11、室外机12、网关设备20和线控器50中的多个部件配置升级包和升级策略，向终端设备40发送多个部件对应的升级包和升级策略；终端设备40被配置为：接收多个部件对应的升级包和升级策略；根据多个部件对应的升级策略，按照升级顺序，采用多个部件对应的升级包对所述多个部件进行升级。
在一些实施例中，如图1C，终端设备40被配置为：根据多个部件对应的升级策略，按照先升级线控器50和网关设备20，再升级室内机11和室外机12的升级顺序，采用所多个部件的对应的升级包对多个部件进行升级。
在一些实施例中，如图1C，服务器30还被配置为：在室内机11、室外机12、网关设备20和线控器50中的至少一个部件升级前，控制终端设备40显示升级信息，升级信 息包括至少一个部件的升级策略和升级提示信息，升级提示信息包括完成至少一个部件的升级所需的时间。
上述空调系统和上述一些实施例所述的空调系统的控制方法有益效果相同，此处不再赘述。
需要说明的是，本公开实施例的附图中以特定顺序描述的各个步骤，并非要求或者暗示必须按照该特定顺序来执行这些步骤，或是必须执行全部所示的步骤才能实现期望的结果。可以对附图中的各步骤进行附加，也可以省略某些步骤，或者将多个步骤合并为一个步骤执行，或者将一个步骤分解为多个步骤执行等。
本公开的一些实施例提供了一种计算机可读存储介质(例如，非暂态计算机可读存储介质)，其上存储有计算机程序，该计算机程序被空调系统执行时，使得空调系统执行如上述实施例中任一实施例所述的空调系统的控制方法。
示例性的，上述计算机可读存储介质可以包括，但不限于：磁存储器件(例如，硬盘、软盘或磁带等)，光盘(例如，CD(Compact Disk，压缩盘)、DVD(Digital Versatile Disk，数字通用盘)等)，智能卡和闪存器件(例如，EPROM(Erasable Programmable Read-Only Memory，可擦写可编程只读存储器)、卡、棒或钥匙驱动器等)。本公开描述的各种计算机可读存储介质可代表用于存储信息的一个或多个设备和/或其它机器可读存储介质。
本公开的一些实施例还提供了一种计算机程序产品。该计算机程序产品包括计算机程序，该计算机程序存储在非暂态计算机可读存储介质上。其中，该计算机程序在被空调系统执行时，使得空调系统执行如上述实施例所述的空调系统的控制方法。
本公开的一些实施例还提供了一种计算机程序。当该计算机程序在被空调系统执行时，使得空调系统执行如上述实施例所述的空调系统的控制方法。
上述计算机可读存储介质、计算机程序产品及计算机程序的有益效果和上述一些实施例所述的空调系统的控制方法的有益效果相同，此处不再赘述。
以上所述，仅为本公开的具体实施方式，但本公开的保护范围并不局限于此，任何熟悉本技术领域的技术人员在本公开揭露的技术范围内，想到变化或替换，都应涵盖在本公开的保护范围之内。因此，本公开的保护范围应以所述权利要求的保护范围为准。

Claims (17)

  1. 一种空调系统的控制方法，所述空调系统包括：多个室内机、多个室外机、网关设备、服务器和终端设备，所述方法包括：
    所述网关设备获取一个室外机的第一类别标识信息以及与所述室外机耦接的一个室内机的第二类别标识信息，向所述服务器发送所述第一类别标识信息和所述第二类别标识信息；
    所述服务器接收来自所述网关设备发送的所述第一类别标识信息和所述第二类别标识信息；
    所述服务器根据所述第一类别标识信息和所述第二类别标识信息，查询场景数据表，得到所述室外机和所述室内机对应的场景数据；其中，所述场景数据表包括多个室内机和多个室外机对应的多个场景数据，每个场景数据包括至少一个场景；
    所述终端设备获取所述场景数据，输出所述场景数据对应的场景。
  2. 根据权利要求1所述的方法，其中，所述场景数据中每个场景具有场景标志位；
    所述终端设备获取所述场景数据，输出所述场景数据对应的场景，包括：
    所述终端设备获取所述场景数据中每个场景对应的场景标志位，根据所述场景标志位，输出所述场景标志位对应的场景。
  3. 根据权利要求1-2中任一项所述的方法，其中，所述空调系统还包括至少一个具有标识位的线控器，所述方法还包括：
    每个线控器控制所述至少两个室内机工作；
    所述服务器获取所述线控器的标识位；
    所述服务器根据所述线控器的标识位，获取与所述线控器耦接的所述至少两个室内机的工作状态信息；
    所述服务器根据与至少一个线控器耦接的各室内机的工作状态信息，得到与所述至少一个线控器耦接的所有室内机的工作状态信息的交集；
    所述终端设备获取所有室内机的工作状态信息的交集，并输出所述所有室内机的工作状态信息的交集。
  4. 根据权利要求3所述的方法，其中，所述服务器根据与所述至少一个线控器耦接的各室内机的工作状态信息，得到与所述至少一个线控器耦接的所有室内机的工作状态信息的交集，包括：
    所述服务器根据与所述线控器耦接的所述至少两个室内机的工作状态信息，得到所述线控器对应的工作状态信息；
    所述服务器根据所述至少一个线控器对应的工作状态信息，得到与至少一个线控器耦接的所有室内机的工作状态信息的交集。
  5. 根据权利要求3所述的方法，还包括：
    所述服务器为所述室内机、所述室外机、所述网关设备和所述线控器中的至少一个部件配置升级包和升级策略；
    所述服务器向所述终端设备发送所述至少一个部件对应的升级包和升级策略；
    所述终端设备接收所述至少一个部件对应的升级包和升级策略；
    所述终端设备根据所述升级策略，采用所述升级包，对所述至少一个部件进行升级。
  6. 根据权利要求5所述的方法，其中，
    所述服务器为所述室内机、所述室外机、所述网关设备和所述线控器中的至少一个部 件配置升级包和升级策略，所述服务器向所述终端设备发送所述至少一个部件对应的升级包和升级策略，包括：
    所述服务器为所述室内机、所述室外机、所述网关设备和所述线控器中的多个部件配置升级包和升级策略；
    所述服务器向所述终端设备发送所述多个部件对应的升级包和升级策略；
    所述终端设备接收所述至少一个部件对应的升级包和升级策略，所述终端设备根据所述升级策略，采用所述升级包，对所述至少一个部件进行升级，包括：
    所述终端设备接收所述多个部件对应的升级包和升级策略；
    所述终端设备根据所述多个部件对应的升级策略，按照升级顺序，采用所述多个部件对应的升级包对所述多个部件进行升级。
  7. 根据权利要求6所述的方法，其中，所述终端设备根据所述多个部件对应的升级策略，按照升级顺序，采用所述多个部件对应的升级包对所述多个部件进行升级，包括：
    所述终端设备根据所述多个部件对应的升级策略，按照先升级所述线控器和所述网关设备，再升级所述室内机和所述室外机的升级顺序，采用所述多个部件的对应的升级包对所述多个部件进行升级。
  8. 根据权利要求5-7中任一项所述的方法，还包括：
    所述服务器在对所述室内机、所述室外机、所述网关设备和所述线控器中的至少一个部件升级前，控制所述终端设备显示升级信息；其中，所述升级信息包括所述至少一个部件的升级策略和升级提示信息，所述升级提示信息包括完成所述至少一个部件的升级所需的时间。
  9. 一种空调系统，包括：
    多个室内机；
    多个室外机，每个室外机分别与所述至少一个室内机耦接；
    网关设备，分别与所述多个室外机以及所述多个室内机耦接，且被配置为：获取每个室外机的第一类别标识信息以及每个室内机的第二类别标识信息，并向服务器发送所述第一类别标识信息和所述第二类别标识信息；
    所述服务器，被配置为：接收来自所述网关设备发送的所述第一类别标识信息和所述第二类别标识信息；根据所述第一类别标识信息和所述第二类别标识生成场景数据表；对所述场景数据表进行存储；所述场景数据表包括每个室内机和每个室外机对应的场景数据，所述场景数据中包括至少一个场景；
    终端设备，与所述服务器耦接，且被配置为：获取所述场景数据，输出所述场景数据对应的场景。
  10. 根据权利要求9所述的空调系统，其中，
    所述网关设备还被配置为：获取目标室外机的第一类别标识信息和与其耦接的目标室内机的第二类别标识信息，向所述服务器发送所述第一类别标识信息和所述第二类别标识信息；
    所述服务器还被配置为：接收来自所述网关设备发送的所述第一类别标识信息和所述第二类别标识信息；根据所述第一类别标识信息和所述第二类别标识信息，查询所述场景数据表，得到所述目标室外机和目标室内机对应的目标场景数据；
    终端设备还被配置为：获取所述目标场景数据，输出所述目标场景数据对应的场景。
  11. 根据权利要求10所述的空调系统，其中，
    所述服务器，还被配置为：对所述场景数据表中每个场景数据对应的每个场景配置场景标志位；
    所述终端设备，被配置为：获取所述目标场景数据中每个场景对应的场景标志位，根据所述场景标志位，输出所述场景标志位对应的场景。
  12. 根据权利要求9-11中任一项所述的空调系统，还包括：
    至少一个具有标识位的线控器，一个线控器与至少两个室内机耦接，且所述线控器被配置为：控制所述至少两个室内机工作；
    其中，所述服务器，还被配置为：获取所述线控器的标识位；根据所述线控器的标识位，获取与所述线控器耦接的所述至少两个室内机的工作状态信息；根据与所述至少一个线控器耦接的各室内机的工作状态信息，得到与所述至少一个线控器耦接的所有室内机的工作状态信息的交集；
    所述终端设备，还被配置为：获取所有室内机的工作状态信息的交集，并输出所述所有室内机的工作状态信息的交集。
  13. 根据权利要求12所述的空调系统，其中，
    所述服务器，被配置为：根据与所述线控器耦接的所述至少两个室内机的工作状态信息，得到所述线控器对应的工作状态信息；根据所述至少一个线控器对应的工作状态信息，得到所有室内机的工作状态信息的交集。
  14. 根据权利要求12所述的空调系统，其中，
    所述服务器，还被配置为：为所述室内机、所述室外机、所述网关设备和所述线控器中的至少一个部件配置升级包和升级策略，向所述终端设备发送所述至少一个部件对应的升级包和升级策略；
    所述终端设备，还被配置为：接收所述至少一个部件对应的升级包和升级策略；根据所述升级策略，采用所述升级包，对所述至少一个部件进行升级。
  15. 根据权利要求14所述的空调系统，其中，
    所述服务器，被配置为：为所述室内机、所述室外机、所述网关设备和所述线控器中的多个部件配置升级包和升级策略，向所述终端设备发送所述多个部件对应的升级包和升级策略；
    所述终端设备，被配置为：接收所述多个部件对应的升级包和升级策略；根据所述多个部件对应的升级策略，按照升级顺序，采用所述多个部件对应的升级包对所述多个部件进行升级。
  16. 根据权利要求15所述的空调系统，其中，
    所述终端设备，被配置为：根据所述多个部件对应的升级策略，按照先升级所述线控器和所述网关设备，再升级所述室内机和所述室外机的升级顺序，采用所述多个部件的对应的升级包对所述多个部件进行升级。
  17. 根据权利要求14-16中任一项所述的空调系统，其中，
    所述服务器，还被配置为：在所述室内机、所述室外机、所述网关设备和所述线控器中的至少一个部件升级前，控制所述终端设备显示升级信息，所述升级信息包括所述至少一个部件的升级策略和升级提示信息，所述升级提示信息包括完成所述至少一个部件的升级所需的时间。
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