JP6207782B1 - Software generation system, information processing apparatus, and program - Google Patents

Abstract

Software for controlling a communication function of a control target device to receive a command for controlling the control target device and outputting information from the control target device is easily generated. A firmware generation system includes a firmware generation server that receives information of a control target device including information on the type of the control target device and specific functions, and generates software for controlling the communication function of the control target device; A user terminal that transmits information on the device to be controlled to the firmware generation server 20. The firmware generation server 20 applies the information of the control target device transmitted from the user terminal to a predetermined first code format, and generates a first code, and a source code generation A firmware generation unit 23 configured to generate software for controlling the communication function of the control target device based on the first code generated by the unit 22 and the second code prepared in advance. [Selection] Figure 5

Description

  The present invention relates to a software generation system, an information processing apparatus, and a program.

  In recent years, with the spread of the Internet, the concept of IoT (Internet of Things) that connects everything to a network has been proposed. For example, a technique for connecting an electrical device such as a home appliance to a network and controlling the electrical device is known.

  For example, as a technique for controlling home appliances such as an air conditioner, Patent Literature 1 discloses a controller for transmitting a control signal to an electric device, and receives an instruction for the electric device transmitted from a portable terminal from a server. A communication unit for storing the data, a storage unit for storing a control signal for the electric device, and a processor. The processor transmits an instruction for the electric device received from the communication unit to the electric device and is connected to the server. Is determined to be not continued, it is configured to transmit a control signal stored in the storage unit to the electrical device and corresponding to a specific state of the electrical device. A controller is disclosed.

  For example, as a technique for controlling a lighting fixture, Patent Document 2 discloses a communication unit that receives a control signal including information for controlling illumination light from an external device by a wireless method or a wired method, and a control that is received by the communication unit. A communication unit having a signal conversion unit for converting a signal into a lighting control signal, and a lighting unit having a lighting circuit unit for lighting the light source and a lighting control unit for controlling the lighting circuit unit based on the lighting control signal. A lighting device is disclosed in which a communication unit connected to a lighting unit can be replaced with a communication unit having a different communication method in accordance with a signal method of a control signal transmitted by an external device.

JP-A-2015-198424 JP2015-109196A

To connect electrical equipment such as home appliances to a network and control the electrical equipment from the outside via this network or to output information from the electrical equipment, this electrical equipment has a communication function, It is necessary to exchange information with control devices and sensors. Since there are many types of electrical equipment and various functions are provided, software for controlling the communication function of the electrical equipment is generated individually according to the type and function of the electrical equipment to be controlled. It had been. In general, it takes a lot of time and labor to manually generate such software. Therefore, it has been desired to provide a means for easily generating such software.
An object of the present invention is to easily generate software that controls a communication function of a control target device to receive a command to control the control target device and to output information from the control target device.

For this purpose, the present invention is a server that receives information of a control target device including information on the type of the control target device and specific functions, and generates software for controlling the communication function of the control target device; A terminal device that transmits information on the control target device to the server, and the server applies the information on the control target device transmitted from the terminal device to a predetermined first code format. And a software for controlling the communication function of the control target device based on the first code generated by the code generation unit and the second code prepared in advance. A software generation unit for generating the second code, wherein the second code refers to the first code and causes the control target device to execute the specific function. Kiga described, wherein the description contents is code corresponding to the plurality of functions of the control target device, to provide a software generation system.
In addition, the terminal device displays a menu that displays items that need to be specified in order to generate the software for the control target device, and selects the items based on the menu displayed by the display unit. And an operation accepting unit that accepts an operation for inputting information of the control target device.
Further, the information on the control target device is classified into a plurality of types according to the item, and the first code is in accordance with a format of the first code predetermined for each of the plurality of types. The second code is a code described for each of the plurality of types, and the software generation unit is generated by the code generation unit. The software is generated by associating the first code and the second code for each of the plurality of types.
In addition, the present invention provides a receiving unit that receives information on a control target device including information on the type of the control target device and a specific function, a format storage unit that stores a predetermined first code format, A code storage unit storing the received second code, and applying the information of the control target device received by the reception unit to the format of the first code stored in the format storage unit. And a software for controlling a communication function of the control target device based on the first code generated by the code generation unit and the second code read from the code storage unit. A software generation unit for generating the second function, wherein the second code refers to the first code and the control target device has the specific function. Procedures to be executed is described, wherein the description contents is code corresponding to the plurality of functions of the control target device, an information processing apparatus.
Further, the second code is characterized in that a description content does not depend on a type of the control target device and a function of the control target device.
Furthermore, the procedure includes a process performed on data received as a control of the communication function of the device to be controlled.
The format of the first code specifies a data type for controlling the communication function of the control target device and a range of values that the data can take, and the procedure includes the communication function of the control target device. Including a process of checking whether or not the data received as controlling the above satisfies the type and the range.
The second code controls the communication function of the control target device and exchanges information with the function realization unit for the specific function among the function realization units for realizing the function of the control target device. The procedure for performing is a code in which the procedure is described.
Further, according to the present invention, the computer reads out the information of the control target device including information on the type of the control target device and the specific function, and reads a predetermined first code format from the storage device, Applying the information on the control target device received by the receiving unit to the first code format to generate a first code; and reading a predetermined second code from the storage device; Based on the second code and the first code generated by the code generation means, function as software generation means for generating software for controlling the communication function of the control target device, and the second code is Description contents describing a procedure for causing the device to be controlled to execute the specific function with reference to the first code Characterized in that it is a code corresponding to a plurality of functions of the control target device, a program.
In addition, the present invention provides a reception unit that receives information on a specific function to be executed by any one of a plurality of types of electrical devices from different manufacturers, and the description content depends on the type of the electrical device and the function of the electrical device. A code for causing any one of the electric devices to execute the specific function using the information received by the receiving unit, and for an operator to remotely control a communication function of the electric device And a software generation unit that generates software to be incorporated into the electric device.

  ADVANTAGE OF THE INVENTION According to this invention, the software which controls the communication function of a control object apparatus, receives the command which controls the said control object apparatus, or outputs information from the said control object apparatus can be produced | generated easily.

It is a figure for demonstrating the background of this Embodiment. It is a figure showing the example of whole composition of the firmware generation system concerning this embodiment. It is a figure which shows the hardware structural example of the computer used as a firmware production | generation server or user terminal concerning this Embodiment. It is the block diagram which showed the function structural example of the user terminal which concerns on this Embodiment. It is the block diagram which showed the function structural example of the firmware generation server which concerns on this Embodiment. It is a figure which shows an example of user input information. (A)-(c) is a figure which shows an example of the screen displayed when inputting user input information. (A)-(c) is a figure which shows an example of the screen displayed when inputting user input information. (A), (b) is a figure which shows an example of the screen displayed when inputting user input information. (A), (b) is a figure which shows an example of the screen displayed when inputting user input information. (C)-(e) is a figure which shows an example of the screen displayed when inputting user input information. (A), (b) is a figure which shows an example of the screen displayed when inputting user input information. It is a figure which shows an example of the key used for conversion of user input information. (A) is a figure which shows an example of the format for a source code generation applied to the data for server transmission. (B) is a figure which shows an example of a source code (data part). (A), (b) is a conceptual diagram which shows an example of the code | symbol of the firmware produced | generated by the firmware production | generation part. It is the flowchart which showed an example of the process sequence which produces | generates firmware in a firmware production | generation system.

Embodiments of the present invention will be described below in detail with reference to the accompanying drawings.
<Background>
First, the background of the present embodiment will be described.
In recent years, in order to connect electric devices such as home appliances to a network and control these electric devices, standardization of communication standards for home networks has been promoted. A communication standard commonly used by a plurality of manufacturers has been created, and an interconnection environment among multi-vendors is being prepared. Such a common communication standard is, for example, ECHONET Lite (registered trademark), and standardized by the Echonet Consortium. By using such a communication standard, an electric device such as a home appliance can be controlled by a user operation.

  FIG. 1 is a diagram for explaining the background of the present embodiment. The terminal device 100 is a terminal used by a user, and examples thereof include a PC (personal computer) and a portable information terminal (so-called smartphone, tablet terminal, etc.). The electric device 200 is an electric device to be controlled, and examples thereof include home appliances such as an air conditioner, a lighting fixture, and a refrigerator. The network 300 is a communication unit used for information communication between the terminal device 100 and the electric device 200, and can be exemplified by the Internet, for example.

  In such a configuration, when the user operates the terminal device 100, the electric device 200 is controlled from the terminal device 100 via the network 300, or information is transmitted from the electric device 200 to the terminal device 100. Therefore, it is necessary to provide the electric device 200 with a communication function and exchange information with a control device or sensor of the electric device 200. Therefore, software for controlling the communication function of the electric device 200 to receive a command for controlling the electric device 200 and to output information from the electric device 200 is used. By mounting the communication control board 400 on which such software is installed in the electric device 200, the communication function of the electric device 200 is controlled. Regarding the control of the communication function of the electric device 200, there may be a case where the communication function newly provided in the electric device 200 is controlled by mounting the communication control board 400. It is assumed that the communication function provided in the device 200 may be controlled.

  More specifically, as shown in FIG. 1, the communication control board 400 includes communication module control software and software for controlling the communication function of the electric device 200 as described above, as well as home appliance control software. A communication module is included. As this communication module, for example, a Bluetooth (registered trademark) module can be used. Here, the Bluetooth module is a module of a wireless communication standard, and is for performing wireless communication with an external device such as the terminal device 100. Note that the present embodiment is not limited to the configuration using the Bluetooth module, and other wireless communication standard modules such as Wi-Fi (Wireless Fidelity) (registered trademark) and Zigbee may be used, for example. . Further, the configuration is not limited to the configuration using the wireless communication standard module, and a module having a wired communication standard may be used. The communication module control software is software for transmitting and receiving data between the home appliance control software and the Bluetooth module. In the illustrated example, IPv6 (Internet Protocol Version 6) and 6LoWPAN (IPv6 over Low power Wireless Personal Area Networks) are used as examples of protocols in the communication module control software. Note that the protocol used in the communication module control software is not limited to protocols such as IPv6 and 6LoWPAN, and any protocol that can be used by the home appliance control software to transmit and receive data. A protocol may be used.

  The communication control board 400 configured as described above receives a control signal from the terminal device 100 under the control of the home appliance control software, controls the function execution unit of the electric device 200, and receives information acquired from the function execution unit. Output to the terminal device 100. Here, examples of the function execution means include a control device that controls various functions of the electric device 200, an actuator that executes various operations, various sensors that acquire information related to the operation of the electric device 200, and the like. . For example, a case where the electric device 200 is an air conditioner will be described. In the air conditioner, for example, a control device for setting a temperature or an air volume is mounted in advance by an original function program. Then, the communication control board 400 controlled by the home appliance control software sends the temperature setting command and the air volume setting command received from the terminal device 100 to the control device to set the temperature and air volume, or the temperature and air volume from the sensor. It becomes possible to acquire setting values and measurement values and transmit them to the terminal device 100.

  And in this Embodiment, the software generation system which produces | generates the software for household appliance control for controlling the communication function of the above-mentioned electric equipment as a user inputs according to a screen is provided. In the present embodiment, as an example of software for controlling the communication function of an electric device, firmware that is software incorporated in the electric device in order to control the communication function of the electric device will be described as an example.

  In addition, below, it demonstrates using ECHONET Lite which is a communication standard for controlling a household appliance especially, However, It is not restricted to such a structure. The firmware generation system 1 according to the present embodiment can also be applied to control various electrical devices including home appliances using a communication standard other than ECHONET Lite. Hereinafter, the appliance control firmware generated by the firmware generation system 1 may be simply referred to as “firmware”.

<Overall configuration of firmware generation system>
Next, the overall configuration of the firmware generation system 1 according to the present embodiment will be described. FIG. 2 is a diagram showing an example of the overall configuration of the firmware generation system 1 according to the present embodiment. As illustrated, the firmware generation system 1 is configured by connecting a user terminal 10 and a firmware generation server 20 via a network 30.

  The user terminal 10 is a computer device operated by a user who uses the firmware generation system 1, and examples thereof include a PC and a portable information terminal. The user terminal 10 receives information (hereinafter referred to as user input information) input by the user in order to generate firmware. The user input information includes, for example, the type of a target device (hereinafter referred to as a target device) to be controlled via a communication function realized by a communication control board 400 (see FIG. 1) in which firmware is installed. And information specifying the function to be controlled in the target device. The user terminal 10 converts the received user input information into a format that can be identified (processed) by the firmware generation server 20 and transmits the converted information to the firmware generation server 20. Hereinafter, the converted data obtained by converting the user input information is referred to as “server transmission data”. In the present embodiment, a user terminal 10 is used as an example of a terminal device that transmits information on a control target device to a server.

  The firmware generation server 20 as an example of the information processing apparatus is a computer apparatus that generates firmware for controlling the communication function of the target device, and examples thereof include a PC and a workstation. The firmware generation server 20 generates firmware based on the server transmission data received from the user terminal 10. In the present embodiment, the firmware generation server 20 is used as an example of a server that generates software for controlling the communication function of the control target device.

  The network 30 is a communication means used for information communication between the user terminal 10 and the firmware generation server 20, and is, for example, the Internet or a LAN (Local Area Network).

<Hardware configuration>
Next, the hardware configuration of the firmware generation server 20 and the user terminal 10 according to the present embodiment will be described. FIG. 3 is a diagram illustrating a hardware configuration example of a computer used as the firmware generation server 20 or the user terminal 10 according to the present embodiment.

  As shown in the figure, the firmware generation server 20 includes a CPU (Central Processing Unit) 20a that is a calculation means and a memory 20c that is a main storage means. As external devices, a hard disk drive (HDD) 20g, a network interface 20f, a display mechanism 20d including a display device, an audio mechanism 20h, an input device 20i such as a keyboard and a mouse, and the like are provided.

  In the configuration example shown in FIG. 3, the memory 20c and the display mechanism 20d are connected to the CPU 20a via the system controller 20b. The network interface 20f, the magnetic disk device 20g, the sound mechanism 20h, and the input device 20i are connected to the system controller 20b via the I / O controller 20e. Each component is connected by various buses such as a system bus and an input / output bus.

  In FIG. 3, the magnetic disk device 20g stores an OS program and application programs. These programs are read into the memory 20c and executed by the CPU 20a, thereby realizing various functions of the firmware generation server 20.

  FIG. 3 merely exemplifies a hardware configuration of a computer suitable for application of the present embodiment. The present embodiment can be widely applied to apparatuses that generate firmware, and the present embodiment is not realized only in the configuration shown in the figure.

<Functional configuration of user terminal>
Next, the functional configuration of the user terminal 10 will be described. FIG. 4 is a block diagram illustrating a functional configuration example of the user terminal 10 according to the present embodiment.

  As illustrated, a user terminal 10 includes an input information receiving unit 11 that receives user input information input by a user, a data conversion unit 12 that converts the received user input information into server transmission data, a server A data transmission unit 13 that transmits the transmission data to the firmware generation server 20.

  The input information receiving unit 11 receives user input information input by the user. More specifically, for example, the user selects a target device on the screen displayed on the display screen by the display mechanism of the user terminal 10 or selects a function to be controlled in the target device. To input user input information. In other words, items that need to be specified for generating firmware for the target device are displayed in a menu, and the user can select information based on the displayed menu and input information. Details of the user input information and the screen when inputting the user input information will be described later. In the present embodiment, the input information receiving unit 11 can also be regarded as an example of a display unit and an operation receiving unit.

  The data converter 12 converts the user input information received by the input information receiver 11 into server transmission data. Details of the server transmission data will be described later.

  The data transmission unit 13 transmits the server transmission data generated by the data conversion unit 12 to the firmware generation server 20.

  Note that each functional unit constituting the user terminal 10 shown in FIG. 4 is realized by cooperation of software and hardware resources. Specifically, when the user terminal 10 is realized by the computer shown in FIG. 3, for example, an OS program or application program stored in the magnetic disk device 20g is read into the memory 20c and stored in the CPU 20a. When executed, the functions of the input information receiving unit 11, the data converting unit 12, and the data transmitting unit 13 are realized.

<Functional configuration of firmware generation server>
Next, the functional configuration of the firmware generation server 20 will be described. FIG. 5 is a block diagram illustrating a functional configuration example of the firmware generation server 20 according to the present embodiment.

  As shown in the figure, the firmware generation server 20 is a functional unit mainly related to data processing, a data receiving unit 21 that receives server transmission data, and a source code (data unit) described later based on the server transmission data. A source code generation unit 22 that generates the firmware, and a firmware generation unit 23 that combines the source code (data unit) and a source code (procedure unit) described later to generate firmware. Further, the firmware generation server 20 mainly includes a function storage unit for storing data, a format storage unit 24 that stores a source code generation format, which will be described later, and a source code storage unit 25 that stores a source code (procedure unit). Is provided.

  The data receiving unit 21 receives server transmission data from the user terminal 10. In the present embodiment, a data receiving unit 21 is used as an example of a receiving unit that receives information on a control target device.

  The source code generation unit 22 acquires a format (hereinafter referred to as a source code generation format) used for generating a source code (data unit) from the format storage unit 24. Then, the source code generation unit 22 applies the server transmission data to the source code generation format, converts the server transmission data to match the source code generation format, and generates a source code (data unit). To do. Details of the process of generating the source code (data part) by the source code generation unit 22 will be described later. In the present embodiment, a source code generation format is used as an example of a predetermined first code format. Further, source code (data part) is used as an example of the first code. Furthermore, a source code generation unit 22 is used as an example of a code generation unit that generates the first code.

  The firmware generation unit 23 acquires a source code (procedure unit) that is a predetermined code from the source code storage unit 25. This source code (procedure part) is a code in which a procedure to be executed with reference to the source code (data part) is described. To explain further, this source code (procedure part) is a code that describes a procedure for exchanging information with the function realization means for realizing the function of the target device described in the source code (data part). is there.

  Then, the firmware generation unit 23 combines the acquired source code (procedure unit) and the source code (data unit) generated by the source code generation unit 22 to generate a firmware source code. Further, the firmware generation unit 23 compiles the generated source code to generate firmware. Then, the firmware generation unit 23 transmits the generated firmware to the user terminal 10. In the present embodiment, a source code (procedure part) is used as an example of a second code prepared in advance. In addition, a firmware generation unit 23 is used as an example of a software generation unit that generates software for controlling the communication function of the control target device.

  In other words, the content of the source code (data portion) generated by the source code generation unit 22 changes according to user input information input by the user. On the other hand, the source code (procedure part) is constant regardless of the user input information input by the user. In other words, the source code (procedure part) is a fixed code whose description does not depend on the type of the target device and the function of the target device. In other words, the source code (procedure part) is determined in advance so that the source code (data part) can cope with any content. Details of the source code (procedure section) will be described later.

  The format storage unit 24 stores a source code generation format. In the present embodiment, the format storage unit 24 is used as an example of a format storage unit that stores the format of the first code.

  The source code storage unit 25 stores a source code (procedure unit). In the present embodiment, the source code storage unit 25 is used as an example of a code storage unit that stores the second code.

  Note that each functional unit constituting the firmware generation server 20 shown in FIG. 5 is realized by cooperation of software and hardware resources. Specifically, when the firmware generation server 20 is realized by the computer shown in FIG. 3, an OS program or application program stored in the magnetic disk device 20g is read into the memory 20c and executed by the CPU 20a. Thus, each function of the data receiving unit 21, the source code generating unit 22, and the firmware generating unit 23 is realized. The format storage unit 24 and the source code storage unit 25 are realized by storage means such as the memory 20c and the magnetic disk device 20g.

<Description of user input information>
Next, user input information that the user inputs on the screen will be described. FIG. 6 is a diagram illustrating an example of user input information. The illustrated example is user input information when the target device is “single function lighting”. “Single-function illumination” is a lighting device having only simple functions such as power ON / OFF setting and illuminance level setting.

  More specifically, “device type” indicates the type of the target device. In the illustrated example, “single function illumination” is shown. “Function type” indicates the type of function to be controlled in the target device. In the illustrated example, the function of “operation state” is shown. The “operation state” is a function for setting the power ON / OFF. “Instruction type” indicates the type of instruction used in the corresponding function. In the example shown in the figure, it is shown that an acquisition command (that is, a command for acquiring information from single-function lighting) and an operation command (that is, a command for operating single-function lighting) are used in the function of “operation state”. .

  The “interface type” indicates the type of interface between the firmware and the target device (here, single function lighting). “Acquisition” indicates the type of interface used in the acquisition command, and “For operation” indicates the type of interface used in the operation command. Further, “pin type” indicates input / output of a pin in the interface. The “I / O function” indicates a function that defines a procedure for reading a value from the target device through the interface (or a procedure for writing a value to the target device). The “variable” is a variable related to the interface, and the type and number of variables vary depending on the pin type of the interface.

  In the illustrated example, the acquisition interface is “GPIO (General Purpose Input / Output)”, and the function “GET_GPIO” is used. When the pin type is “GPIO”, “variable” is a pin number used in the interface. Therefore, the pin of “PIN27” (pin number 27) is designated. The operation interface is also “GPIO”, and the function “SET_GPIO” is used to specify the pin “PIN27”.

  However, in the present embodiment, the user input information is not limited to the configuration shown in FIG. For example, a user may select a wireless communication standard module such as Bluetooth, Wi-Fi, or Zigbee and input it as user input information.

<Explanation of screen for entering user input information>
Next, a screen displayed when user input information is input will be described. 7 to 11 are diagrams illustrating examples of screens displayed when user input information is input. Here, a case will be described in which the target device is a home appliance “electric blind / shade”.

  First, when the user accesses the firmware generation server 20 from the user terminal 10, screen information is transmitted from the firmware generation server 20. Then, a screen for inputting user input information on the user terminal 10 is displayed. Here, first, the screen shown in FIG. 7A is displayed. As shown in the figure, a group of devices such as “sensor related devices”, “air conditioning related devices”, “house / equipment related devices” is displayed in a list. These groups are defined in ECHONET Lite.

  Next, when the user selects, for example, the button 1A of “house / equipment related equipment”, the screen shown in FIG. 7B is displayed. Here, a list of devices included in the “house / equipment-related equipment” group such as “electric blinds / shades”, “electric shutters”, “electric shutters / shutters” is shown. What kind of device is classified into each group is defined in ECHONET Lite. The user may select the “electric blind / awning” button 1B from the list. Note that the “electric blind / shade” information selected here is information corresponding to “device type” in the user input information shown in FIG.

  When the user selects “electric blind / awning”, the screen shown in FIG. 7C is displayed. This screen is a screen that accepts input of information (device information) of the target device (here, the electric blind / awning). The input information includes “maker code”, “business site code”, “product code”, “manufacturing number”, and “manufacturing date”. “Manufacturer code” is the manufacturer code of the target device and is given by the Echonet Consortium. The “business site code” is a code of the business site of each manufacturer, and is defined for each manufacturer. The “product code” is a code for each product (each device) and is defined for each manufacturer. The “manufacturing number” is a manufacturing number assigned to each product (each device) and is defined for each manufacturer. “Manufacturing date” is the date on which the target device is manufactured, and is specified for each manufacturer. Note that the information selected here is not shown in the example of FIG. 6, but such information is also transmitted to the firmware generation server 20 as user input information.

  When the user inputs such information, the screen shown in FIG. 8A is then displayed. Here, required items that can be selected as options (hereinafter referred to as option required) are shown. This optional requirement is an item defined in ECHONET Lite for each type of device (for example, electric blind / awning). In the illustrated example, two options of “energy” and “comfortable life support” are required. For example, when the user selects the “energy” item 1 </ b> C, settings for controlling the function of suppressing energy consumption are performed in the subsequent settings.

  When the user inputs whether or not an option is mandatory, a screen shown in FIG. 8B is displayed. Here, a list of operation items for the target device is shown. In other words, functions that can be selected as functions to be controlled in the target device are listed as operation items. The user may select (check) the function to be controlled in the target device from this list.

Here, depending on the operation item, there is an item that has already been selected (checked) and cannot be changed (hereinafter referred to as an essential item). In the illustrated example, “operating state”, “abnormality occurrence state”, and “opening / closing operation setting” are indispensable items and are already selected. Also for this required item, ECHONET for each device type (for example, electric blinds and sunshades)
It is defined by Lite. That is, it can be said that ECHONET Lite stipulates that the functions of “operating state”, “abnormality occurrence state”, and “opening / closing operation setting” are essential for “electric blind / awning”, for example. The information of the operation items such as “operation state”, “abnormality occurrence state”, “open / close operation setting” selected here is information corresponding to “function type” in the user input information shown in FIG. It is.

  When the user selects an operation item, the screen shown in FIG. 8C is displayed. This screen is a screen for selecting whether to implement “acquisition”, “operation”, and “notification at state change” (implemented or not implemented) for each operation item. Here, the information indicating whether or not “acquisition”, “operation”, and “notification at state change” are implemented is information corresponding to “command type” in the user input information shown in FIG. That is, “acquire” indicates a command for acquiring information from the single function illumination. “Operation” indicates a command to operate the single function illumination. The “notification at the time of status change” indicates a command for the target device to notify the status change of the own device. This command is a command for voluntarily notifying an external device that the state has changed when the state of the target device changes.

  Then, on the screen, whether or not to mount is selected by moving the circle figure provided in “acquire”, “operation”, and “notification at state change” of each operation item to the left and right. For example, in “acquisition” of “operation state”, the circle figure 1D is in a state of moving to the right, and “implementation” is selected. On the other hand, in the “operation” of the “operation state”, the circle figure 1E is moved to the left, and “unmounted” is selected. Here, when the user selects “implementation”, the circle figure 1E may be moved rightward in the figure.

  Note that, according to the ECHONET Lite rule, the settings of “implemented” and “not implemented” are fixed and there are items that cannot be changed. In the example shown in the figure, in the “acquisition” of “operation state” and “notification at the time of state change”, the circle figure cannot be moved, and is fixed at “implementation”. Similarly, “acquisition” and “state change notification” of “abnormality occurrence state” are fixed as “implemented”, and “operation” is fixed as “unimplemented”. Furthermore, “acquisition”, “operation”, and “notification at state change” of “open / close operation setting” are fixed as “implementation”. In other words, when the user selects, for example, the figure 1D in the “acquisition” item of “operation state”, the screen shown in FIG. 9A is displayed. In the screen of FIG. 9A, a message indicating that setting change of “implemented” and “not implemented” is prohibited is shown.

  When the user completes the selection of “implemented” and “not implemented” for “acquisition”, “operation”, and “state change notification” for each operation item, the screen shown in FIG. Is displayed. This screen is a screen for setting the operation item for which “implementation” is selected. In the example shown in FIG. 8C, “Acquisition” and “Notification at status change” of “Operation status”, “Acquisition” and “Notification at status change” of “Error occurrence status”, “Open / close operation setting” “ “Implementation” is selected for a total of seven operation items, “acquisition”, “operation”, and “notification at state change”. Therefore, these seven items are set on the screen shown in FIG.

  For example, when setting for “acquisition” of “operation state”, when the user selects the setting button 1F shown in FIG. 9B, the screen shown in FIG. 10A is displayed. Here, “pin type”, “function (processing function)”, and “variable” are set. The “pin type”, “function”, and “variable” information set here is information corresponding to each item of “interface type” in the user input information shown in FIG.

  As shown in FIG. 10B, as pin types, for example, “not connected”, “GPIO”, “SPI (Serial Peripheral Interface)”, “I2C (Inter-Integrated Circuit)”, “ “IR (Infrared)” is displayed as a candidate, and the user may select a pin type to be used from the displayed candidates. Also, as shown in FIG. 10-2 (c), one or more candidates are displayed for the function, and the user may select a function to be used from the displayed candidates. Furthermore, as shown in FIG. 10-2 (d), one or more candidates are also displayed for the variable. In the illustrated example, candidate pin numbers are shown as variables. For example, when selecting the pin number 27, the user may select “PIN27”. Finally, as shown in FIG. 10-2 (e), the contents of each selected item are displayed. If there is no problem with the displayed contents, the user selects the “Complete” button 1G. In this way, the setting for “acquisition” of “operation state” is performed.

Similarly, “pin type”, “function”, and “variable” are also set for “acquisition” of “abnormality occurrence state” and “acquisition” and “operation” of “open / close operation setting”.
In addition, regarding “notification at the time of status change”, an interval (polling interval) at which the target device confirms whether or not the status of its own device has been changed is set. By setting this polling interval, the target device is controlled to check whether or not the state of its own device has changed at every polling interval and to notify an external device if there is a state change. In the example shown in FIG. 11A, the polling interval is set as 100 milliseconds by user input.
When the user sets all the operation items (here, seven operation items) and then selects the “FINISH” button 1H, the input of the user input information is completed, and FIG. ) Is displayed.

<Description of server transmission data>
Next, server transmission data generated by the data conversion unit 12 of the user terminal 10 will be described with reference to FIG. Here, description will be made assuming that the data conversion unit 12 converts the user input information shown in FIG. 6 to generate server transmission data.

  FIG. 12 is a diagram illustrating an example of keys used for conversion of user input information. Such a key is defined in ECHONET Lite. There is also a key uniquely defined in the present embodiment. Of the keys shown in FIG. 12, the keys “0x0201” and “0x0001” are keys uniquely defined in the present embodiment, and the other keys are defined by ECHONET Lite.

  More specifically, the key “0x02” means a class_group code of “single function lighting”, and indicates a key of “house / equipment related equipment” that is a group to which “single function lighting” belongs. The key “0x91” means a “single function lighting” class code, and indicates a “single function lighting” key. The key “0x01” means an instance code of “single function lighting”, and is a key given to uniquely identify a target device. By giving the instance code, even when the communication function of a plurality of target devices is controlled by one firmware, each target device can be identified by the firmware.

  The key “0x80” means a property code of “single function lighting”, and is a key that means “operation state” that is a function type of “single function lighting”. The “get” key is a key meaning “acquisition” which is an instruction type. The “set” key is a key meaning “operation” which is an instruction type. The key “0x0201” is a key that means a code of an acquisition I / O function used in GPIO. The key “0x0001” is a key that represents a code of an operation I / O function used in GPIO. “27” is a key indicating a pin number used in the interface. “GPIO” is a key which means input / output (GPIO) of a pin used in the interface.

The server transmission data is generated by converting the user input information shown in FIG. 6 using the key shown in FIG.
More specifically, for example, the server transmission data includes information on keys “0x02” and “0x91” which are keys of “house / facility-related equipment” and “single function lighting”. This corresponds to the “single function lighting” information of “device type” of the user input information shown in FIG. Further, for example, information on a key “0x0201” that is a key of an acquisition I / O function used in GPIO is included. Further, for example, information on a key “0x0001” that is a key of an operation I / O function used in GPIO is included. These correspond to the information of “GET_GPIO” and “SET_GPIO” of the “I / O function” of the user input information of FIG. In addition, the server transmission data includes key information of “0x01”, “0x80”, “get”, “set”, “27”, and “GPIO” shown in FIG.

  In this way, the data conversion unit 12 converts the user input information using the key, and generates server transmission data. A list of various keys as shown in FIG. 12 is transmitted from the firmware generation server 20 to the user terminal 10 when the user terminal 10 reads a screen for inputting user input information, for example. .

<Description of processing by source code generation unit>
Next, processing by the source code generation unit 22 will be described with reference to FIGS. 13 (a) and 13 (b). Here, description will be made assuming that the source code generation unit 22 generates a source code (data portion) from server transmission data generated based on the key shown in FIG.

  FIG. 13A is a diagram illustrating an example of a source code generation format applied to server transmission data. This source code generation format is not defined in ECHONET Lite, but is uniquely defined in the present embodiment.

  Here, “device type” is a format including information for identifying a target device. “Instruction type” is a format including information for identifying the type of instruction. The “function type” is a format including information for identifying the type of function to be controlled in the target device. “Data type” is a format including information for identifying a data format. Here, the data format is, for example, the type of data, the range of values that the data can take, and some are defined in ECHONET Lite, while others are uniquely defined by the user. . The “interface type” is a format including information on an interface when data is transmitted / received to / from the target device.

  FIG. 13B is a diagram illustrating an example of a source code (data portion). The source code (data part) shown in FIG. 13B is generated by applying the source code generation format shown in FIG. 13A to the server transmission data generated based on the key shown in FIG. The

  More specifically, for example, in the format “device type” in FIG. 13A, codes of “class_group”, “class”, and “instance” are defined as information for identifying the target device. . Further, the server transmission data generated based on the key shown in FIG. 12 includes “0x02” as “class_group”, “0x91” as the class code of “single function lighting” as “class”, and “instance”. “0x01” is included. Therefore, “class_group”, “class”, and “instance” in the format of “device type” are replaced with “0x02”, “0x91”, and “0x01”. In this way, the code of the data a1 of the source code (data part) shown in FIG. 13B is generated.

  Similarly, the source code (data part) is generated by replacing each format of “instruction type”, “function type”, “data type”, and “interface type” with the corresponding code of the server transmission data. . Here, the code of the data a2 shown in FIG. 13B is generated by replacing the format of “instruction type”. By replacing the format of “function type”, the code of the data a3 shown in FIG. 13B is generated. By replacing the format of “data type”, the code of data a4 shown in FIG. 13B is generated. By replacing the format of “interface type”, the code of the data a5 shown in FIG. 13B is generated.

In each format of the source code generation format, information related to the formats is associated with each other. For this reason, the source code (data portion) data (data a1 to data a5 in the illustrated example) generated from each format is also associated with information related to each other.
For example, information of one or a plurality of target devices is described in the data a1 of the source code (data part). Here, the instruction type information is described in the data a2 of the source code (data part), but the target device is associated with the instruction type so that the target type of the target device described in the data a1 can be known. It is written with a description. Furthermore, although the function information is described in the data a3 of the source code (data part), the target device of the data a1 and the command type of the data a2 so that it can be understood which function type of which target device is used. The function information is described in association with. Similarly, in data a4 and data a5, information related to each other is associated with each other.

  Here, the five formats of “device type”, “command type”, “function type”, “data type”, and “interface type” have been described as the source code generation format. Of these, the four formats of “device type”, “command type”, “function type”, and “data type” are commonly used regardless of the contents of the server transmission data. On the other hand, the “interface type” uses a format corresponding to the interface to be used. For example, when the “GPIO” interface is used, the format for “GPIO” is used. For example, when an “SPI” interface is used, a format for “SPI” is used.

  In this way, the source code generation unit 22 applies the source code generation format to the server transmission data to generate a source code (data portion). In other words, the source code (data part) can be regarded as a code in which the type and specific function of the target device are described in accordance with the source code generation format. In the present embodiment, the function to be controlled in the target device is used as an example of a specific function.

<Description of processing by firmware generation unit>
Next, processing performed by the firmware generation unit 23 will be described with reference to FIGS. 14 (a) and 14 (b). FIGS. 14A and 14B are conceptual diagrams illustrating an example of firmware codes generated by the firmware generation unit 23.

  The source code (data part) shown in FIG. 14A is generated by the source code generation part 22 in accordance with user input information input by the user. The illustrated example shows a source code (data portion) generated by applying server transmission data to a “device type” source code generation format. More specifically, the case where the user selects an air conditioner and a refrigerator as the target devices is shown.

  Further, the source code (procedure part) shown in FIG. 14A is stored in the source code storage part 25 and is constant regardless of the user input information. In the example shown in the figure, a source code (procedure part) corresponding to “device type” is shown, which is determined in advance so as to be able to cope with any device selected as a target device by the user. For example, the third line “procedure common to all devices (received data)” in the source code (procedure section) shown in the figure shows what kind of home appliances the firmware receives when receiving data from the outside. This code is written so that it can be executed.

  The source code (data portion) shown in FIG. 14B is also generated by the source code generation unit 22 in accordance with user input information input by the user. The illustrated example shows a source code (data portion) generated by applying server transmission data to a “function type” source code generation format. More specifically, the user selects “automatic temperature”, “cooling mode”, “power consumption” as the function to be controlled by the air conditioner, and “door” is the function to be controlled by the refrigerator. In this example, “open / close”, “rapid refrigeration”, and “power consumption” are selected.

  The source code (procedure part) shown in FIG. 14B is also stored in the source code storage part 25 and is constant regardless of the user input information. In the example shown in the figure, the source code (procedure part) corresponding to “function type” is shown, and what kind of function is selected as a function that the user selects as a target device and is controlled by the target device. Even if selected, it is determined in advance so that it can be handled. For example, in the source code (procedure section) shown in the figure, the “all function common procedure (received data)” indicates what function of the home appliance is based on the received data when the firmware receives data from the outside. This code is written so that it can be executed.

  Thus, the source code (data part) is generated according to each source code generation format, and the corresponding source code (procedure part) is determined in advance. The source code shown in FIG. 14A is a source code (data part) and source code (procedure part) corresponding to “device type”, and the source code shown in FIG. Corresponding source code (data part) and source code (procedure part). Although not shown in FIG. 14, source code (data part) and source code (procedure part) corresponding to “instruction type”, and source code (data part) and source code (procedure) corresponding to “data type”. Part), source code (data part) and source code (procedure part) corresponding to “interface type”. Then, the firmware generation unit 23 adds the source code (data part) and the source code (procedure part) corresponding to each of these formats, thereby generating the firmware source code. In addition, the source code of the firmware can be regarded as a code in which the source code (data part) and the source code (procedure part) are described separately.

  Next, processing when the firmware generated by the firmware generation unit 23 actually operates will be described. Here, as an example, it is assumed that the user performs input for operating the air conditioner and the data (hereinafter referred to as reception data A) is received by the firmware.

As firmware processing, processing of each source code (procedure part) corresponding to “device type”, “command type”, “function type”, “data type”, and “interface type” is executed in order.
First, processing of a source code (procedure part) corresponding to “device type” is executed. At that time, a source code (data part) corresponding to “device type” is referred to. Here, an inspection (determination) is performed on whether or not the air conditioner designated as the target device in the reception data A is described in the source code (data portion). In the example shown in FIG. 14A, since the air conditioner is described in the source code (data part), the process proceeds to the next process. On the other hand, if the device specified as the operation target in the received data A is not described in the source code (data part), for example, an error is returned from the firmware and the process ends.

  Next, the processing of the source code (procedure part) corresponding to the “instruction type” is executed. At that time, the source code (data part) corresponding to the “instruction type” is referred to. Here, it is checked whether or not the instruction type specified by the reception data A (that is, the instruction type of the air conditioner) is described in the source code (data part). As described above, related information is associated with each other in the source code (data portion). That is, in the source code (data part), each home appliance and the instruction type are described in association with each other. Therefore, here, the inspection may be performed with reference to the portion where the instruction type of the air conditioner is described in the source code (data portion). It should be noted that the source code (procedure part) corresponding to the “device type” is instructed to refer to a location where the instruction type of the air conditioner is described in the source code (data part). Therefore, in the processing of the source code (procedure part) corresponding to “instruction type”, the corresponding part can be referred to.

  Next, processing of the source code (procedure part) corresponding to the “function type” is executed. At that time, the source code (data part) corresponding to the “function type” is referred to. Here, it is checked whether or not the function designated by the reception data A (that is, the air conditioner function) is described in the source code (data part). As described above, the function is also described in association with information on each home appliance and the command type. Therefore, here, the inspection may be performed with reference to a part where the function corresponding to the air conditioner (and the instruction type) is described in the source code (data part). The source code (procedure part) corresponding to the “instruction type” is instructed to refer to the part where the function corresponding to the air conditioner (and the instruction type) is described in the source code (data part). . Therefore, in the processing of the source code (procedure part) corresponding to the “function type”, the corresponding part can be referred to.

  For example, in the case of the example shown in FIG. 14B, it is checked in order whether the function of the air conditioner specified by the reception data A corresponds to any of “automatic temperature”, “cooling mode”, and “power consumption”. . Here, if the function of the reception data A does not correspond to any function, an error occurs and the process ends. On the other hand, when the function of the received data A corresponds to the “automatic temperature” function, for example, the process proceeds to the next “data type” and “interface type”.

  Similarly, when the processing of the source code (procedure part) corresponding to “data type” is executed, the source code (data part) corresponding to “data type” is referred to. Here, it is checked whether or not the received data A satisfies the data format described in the source code (data part). Further, when the processing of the source code (procedure part) corresponding to the “interface type” is executed, the source code (data part) corresponding to the “interface type” is referred to. Here, it is checked whether or not the data transmission / reception method specified by the reception data A is described in the source code (data portion). If the data transmission / reception method specified by the reception data A is described in the source code (data part), data transmission / reception is started to the air conditioner by the transmission / reception method.

<Flow of entire firmware generation system>
Next, the processing flow of the entire firmware generation system 1 will be described. FIG. 15 is a flowchart illustrating an example of a processing procedure for generating firmware in the firmware generation system 1. Here, the processing of step 101 to step 103 corresponds to the processing by the user terminal 10. Further, the processing of step 104 to step 106 corresponds to the processing of the firmware generation server 20.

  First, when the user inputs user input information on the screen of the user terminal 10, the input information receiving unit 11 receives the user input information (step 101). Next, the data conversion unit 12 uses the key corresponding to the received user input information to convert the user input information to generate server transmission data (step 102). Next, the data transmission unit 13 transmits the generated server transmission data to the firmware generation server 20 (step 103).

  Next, the data reception unit 21 receives server transmission data from the user terminal 10 (step 104). Next, the source code generation unit 22 acquires the source code generation format stored in the format storage unit 24. Then, the source code generation unit 22 converts the server transmission data received from the user terminal 10 using the acquired source code generation format to generate a source code (data unit) (step 105). Next, the firmware generation unit 23 acquires a source code (procedure unit) from the source code storage unit 25. The firmware generation unit 23 adds the acquired source code (procedure unit) and the generated source code (data unit) to generate firmware (step 106). Then, this processing flow ends.

  Further, after the firmware is generated, for example, when the user performs an operation of acquiring the firmware at the user terminal 10, the generated firmware is transmitted from the firmware generation server 20 to the user terminal 10. The user installs the transmitted firmware on a communication control board, for example, and mounts the communication control board on the target device, whereby the communication function of the target device is controlled. However, the configuration is not limited to the configuration in which the communication control board is mounted on the target device. For example, the communication control board is mounted on another control device that controls the target device. It is good also as controlling.

  In the present embodiment, the target device is described as including a control device that controls various functions of the target device. However, in the target device, for example, LED (Light Emitting Diode) illumination There is a simple configuration that does not include a control device or the like. In the case of a target device having such a simple configuration, the firmware controls the operation of the target device in accordance with, for example, a command received from the user terminal 10. That is, in this case, the firmware can be regarded as controlling the communication function of the target device and controlling the operation of the target device.

  As described above, in the firmware generation system 1 according to the present embodiment, the firmware corresponding to the selected device or function is generated by selecting the type or function of the device that the user wants to operate on the screen. Is done. At that time, the firmware generation unit 23 of the firmware generation server 20 adds the source code (data unit) generated according to the user input information and a predetermined source code (procedure unit) to obtain the firmware. Is generated.

  Also, for example, when a new device is added as a candidate for the target device or a new function is added as a function to be controlled in the target device according to the ECHONET Lite rule, the class code or property of the key shown in FIG. Code is added. However, the source code generation format and the source code (procedure section) do not have to be changed, and the source code generation format and source code may be used as they are. That is, even when firmware corresponding to a new device or function is generated, the source code generation unit 22 uses the source code generation format to generate a source corresponding to the device or function selected on the screen by the user. Generate code (data part). Then, the firmware generation unit 23 generates firmware by adding the generated source code (data unit) and the source code (procedure unit).

  In the present embodiment, the user terminal 10 transmits server transmission data to the firmware generation server 20, and the firmware generation server 20 generates firmware. However, the present invention is not limited to such a configuration. . For example, the user terminal 10 may have the function of the firmware generation server 20 and the user terminal 10 may generate firmware. In other words, the user terminal 10 may be provided with functions such as the data reception unit 21, the source code generation unit 22, the firmware generation unit 23, the format storage unit 24, and the source code storage unit 25 of the firmware generation server 20. In this case, the user terminal 10 can be regarded as an example of an information processing apparatus.

  In addition, the program for realizing the embodiment of the present invention is a computer-readable recording medium such as a magnetic recording medium (magnetic tape, magnetic disk, etc.), an optical recording medium (optical disk, etc.), a magneto-optical recording medium, and a semiconductor memory. Can be provided in a state stored in the memory. It can also be provided using communication means such as the Internet.

  Although the embodiments of the present invention have been described above, the technical scope of the present invention is not limited to the scope described in the above embodiments. It is clear from the description of the scope of the claims that various modifications or improvements added to the above embodiment are also included in the technical scope of the present invention.

DESCRIPTION OF SYMBOLS 1 ... Firmware generation system, 10 ... User terminal, 11 ... Input information reception part, 12 ... Data conversion part, 13 ... Data transmission part, 20 ... Firmware generation server, 21 ... Data reception part, 22 ... Source code generation part, 23 ... Firmware generation unit, 24 ... Format storage unit, 25 ... Source code storage unit

Claims (10)

A server that generates a control target device types Oyo software accepts information of the control target device for controlling the communication functions of the control target device including information beauty function,
A terminal device that transmits information on the device to be controlled to the server,
The server
A code generation unit that generates the first code by applying the information on the control target device transmitted from the terminal device to a predetermined first code format;
A software generation unit that generates software for controlling a communication function of the control target device based on the first code generated by the code generation unit and a second code prepared in advance;
The second code includes a code for inspecting whether a function that is a target of data received by the communication function is a function of the control target device specified by the first code, and the second code in the inspection. A software generation system, characterized in that a code for executing a function specified by one code includes a code corresponding to a plurality of functions of the control target device . The terminal device
Display means for displaying a menu of items that need to be specified for generating the software with respect to the control target device;
2. The software generation according to claim 1, further comprising: an operation receiving unit that receives an operation of inputting information on the control target device by selecting the item based on the menu displayed by the display unit. system. The information of the control target device is classified into a plurality of types according to the item,
The first code is described for each of the plurality of types in accordance with the format of the first code predetermined for each of the plurality of types.
The second code is a code described for each of the plurality of types,
The software generation unit generates the software by associating the first code and the second code generated by the code generation unit for each of the plurality of types. Item 3. The software generation system according to Item 2. A receiver for receiving the information of the control target device includes information type and function of the control target device,
A format storage unit storing a predetermined first code format;
A code storage unit storing a predetermined second code;
A code generation unit configured to generate the first code by applying the control target device information received by the reception unit to the format of the first code stored in the format storage unit;
A software generation unit that generates software for controlling a communication function of the control target device based on the first code generated by the code generation unit and the second code read from the code storage unit; Prepared,
The second code includes a code for inspecting whether a function that is a target of data received by the communication function is a function of the control target device specified by the first code, and the second code in the inspection. An information processing apparatus comprising: a code for executing a function specified by one code, and a description content including a code corresponding to a plurality of functions of the control target device. The second code further includes a code for inspecting whether a device that is a target of data received by the communication function is the control target device specified by the first code, and the second code in the inspection. A code for causing the control target device specified by the one code to execute a process, the description content including a code not depending on the type of the control target device
The information processing apparatus according to claim 4, wherein: The second code further includes a code for checking whether or not an instruction type that is a target of data received by the communication function is an instruction type of the control target device specified by the first code.
The information processing apparatus according to claim 4, wherein: The format of the first code specifies the type of data for controlling the communication function of the device to be controlled and the range of values that the data can take,
The second code further includes a code for checking whether data received by the communication function satisfies the type and the range.
The information processing apparatus according to claim 4, wherein: The information processing method according to any one of claims 4 to 7, wherein the second code is a code whose description content does not depend on a type of the control target device and a function of the control target device. apparatus. A receiving unit for receiving information on a control target device including information on a type of the control target device and a specific function;
A format storage unit storing a predetermined first code format;
A code storage unit storing a predetermined second code;
A code generation unit configured to generate the first code by applying the control target device information received by the reception unit to the format of the first code stored in the format storage unit;
A software generation unit that generates software for controlling a communication function of the control target device based on the first code generated by the code generation unit and the second code read from the code storage unit; Prepared,
The second code is a code in which a procedure for causing the control target device to execute the specific function is described with reference to the first code, and the description content corresponds to a plurality of functions of the control target device. Oh it is,
The format of the first code specifies the type of data for controlling the communication function of the device to be controlled and the range of values that the data can take,
The information processing apparatus characterized in that the procedure includes a process of checking whether or not data received as controlling the communication function of the control target device satisfies the type and the range. . Computer
A receiving means for receiving information of the control target device includes information type and function of the control target device,
Code generating means for reading a predetermined first code format from the storage device and applying the information of the control target device received by the receiving means to the first code format to generate the first code When,
Reads a predetermined second code from the storage device, and generates software for controlling the communication function of the control target device based on the second code and the first code generated by the code generation means Function as software generation means to
The second code includes a code for inspecting whether a function that is a target of data received by the communication function is a function of the control target device specified by the first code, and the second code in the inspection. A program for executing a function specified by one code, the description content including a code corresponding to a plurality of functions of the control target device .

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